PolSelec

PolSelec

Plastics material selection / preselection

Material selection, preselection and information system for plastics

PolSelec was first presented in 1986 and has been used, among other things, for training plastics engineers. The software has been completely revised several times and is now available in version 3.x.

868Materials / product families
approx. 300selection criteria, incl. 80+ media resistances
completeassignment of all materials to all criteria
4Extras (recycling, climate …)

The designer of plastic products must have at least a rough idea of the usable materials and manufacturing processes at the latest after the task has been specified and the working principles have been selected. The software PolSelec was therefore developed for the material and process pre-decision, to preselect basic material types and assigned manufacturing processes. The conceptual approach to this decision algorithm dates back to 1978.

Main features and functions

  • Manufacturer-independent material database for approx. 900 product families (thermoplastics, thermosets, elastomers) representing approx. 10,000 commercial products
  • Preselection according to approx. 300 selection criteria (including over 80 different media resistances)
  • Complete assignment and uniform evaluation
  • Consideration of the price relations of different product families
  • Consideration of possible special types with stabilising additives
  • Support of the selection by material examples, property ranges, references to standards and guidelines
  • Display of the complete PolSelec material profile, the short material description and commercial product examples
  • Manage projects: saving and loading project-related requirement profiles
  • Help system and user manual, automatic updates
  • Usable without an internet connection
  • optional: approx. 18,593 commercial products from 32 manufacturers with the most important material data and published property charts

Extras

  • Course of the application temperature under continuous heat load (> 3 years) for a given application time
  • Regional climate maps with average values for UV radiation and temperatures, e.g. for weather and heat resistance
  • Permissible regrind content when processing thermoplastics
  • Climate-dependent water saturation concentration, with climate zones selected via continental and marine climate maps

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System requirements

  • Runs on Windows 10 and later
  • Administrator rights for installation and updates
  • Usable without internet – a connection is only needed for activation as full version and update notifications
User manual PDF · 3.7 MB

Source(s): Meyer, Bernd; Neumann, Frank: Preselecting Materials Using the PC. Kunststoffe German Plastics 83 (1993), S. 16 bis 19 or PolSelec-Computerprogramm zur Vorauswahl von Plastwerkstoffen und zugeordneten Fertigungsverfahren. Plaste und Kautschuk 36 (1989) 8, S. 269 bis 272)

Methodical setup

At the beginning of a product development, incomplete starting information very often prevents a firm decision on the material to be used. However, the necessity of alternative variants makes decisions on the material an integral part of the design process, in all its phases, with increasing degree of defining and detailing. Thus, material selection is no special stage with factual and temporal definition within the design process. Nevertheless, a decision on the material and the manufacturing technique must be taken at an early stage since knowledge of suitable materials and manufacturing techniques is necessary for

  • efficiency calculations,
  • optimum product design utilizing the de-signer's "feeling for the material",
  • freedom and variability of design from the very beginning of the design process

Preselection and decision

A way out of this contradictory situation is to subdivide material selection into two relatively independent, successive phases.

  • The requirements on which decisions taken at the earliest stage possible are based are few, yet govern the use of the material. The special characteristics of the plastics technology make it indispensable to determine the material and the manufacturing technique at the same time. The result of material selection is all basic types of material which have a certain chance of being used. They must reliably include the optimum material to be specified later. A definite decision, though possible, is not attempted at this stage. A basic type of material in this sense is a typical primary representative of a different number of special commercial products (special-purpose types of material) with similar properties and identical nature. This method of selection is the subject of the PolSelec program package.
  • Material selection ends with the decision on the special-purpose type to be used, as the result of detailed and complete investigations into function, manufacture and efficiency of the solution variants, including trials of manufacture and function. Corresponding problem-related system modules are available for this purpose.

Analogy of properties or applications

Materials can be selected in accordance with two principles:

  • In property analogy, starting from the pattern of requirements of the products through relevant selection criteria and the required property pattern of the materials.
  • In application analogy, starting from comparable requirement combinations with known examples of material use.

Application analogy cannot be used for new developments since relevant examples of use are often lacking. Comparison with known examples of use present problems where they refer to differing technical and/or economical requirements. Thus property analogy as a multipurpose and primary decision principle for material selection is to be preferred. In order to take advantage of the design engineer's experience with materials in the process of preselection, the safety of decision-taking is improved by appropriate placement of characteristic examples of material.

The requirements are determinative

Material selection starts with the decision on the product requirements determining the use of the material. Requirements always are the only determinants in terms of preselection. At first the program user must decide on which requirements are significant for material selection. According to experience so far gained, the number of the different requirements is from four to six, providing the problem to be solved has been adequately determined.

A mental transformation step should lead from the requirement pattern of the end product to relevant material requirements. Frequently product requirements are automatically identified as material requirements. However, such identification may 'lead to mental indefiniteness and thus to faulty decisions. Owing to their dual character, the transformation of attribute requirements resents no difficulties because they are to be interpreted completely equidirectional. Such an attribute requirement is, for example, the demand that the plastics component should be manufactured by injection moulding.

Requirements of variables may be both fixed-point and range requirements. The requirement of close tolerances for an important functional dimension in application is e.g. a fixed-point requirement to be met by the end product. Referred to the material, it is a range requirement which limits specific properties (e.g. post-moulding shrinkage, swelling, thermal expansion) to permissible maxima. According to the authors' knowledge, all requirements to be met by materials are to be classified as range requirements, if they are of importance to preselection. As a result, preselection should not be attached to fixed-point property data of the materials. Normally plastics selection programs contain fixed-point property data in relation to the material. For material preselection this is not required, but the coordination according to property level steps for the variable material properties, as made in the program being discussed, is rather more appropriate. These properties represent specific quantitative ranges of a particular property and serve as a •selection and material coordination feature.

Criteria of selection and coordination

For a decision by computer, the property patterns so far determined for the materials must be defined by selection criteria. These describe the materials with regard to all aspects with relevance to the selection and form the structure of the contents of the preselection program. They represent physical or chemical- material properties and/or evaluation results. However, the criteria of the material property patterns which determine the selection are not of the same nature and number for all materials stored in the program. Primary groups of materials have therefore been established hich form two PolSelec programs being independent of each other in handling, namely for

  • compact materials and
  • foams.

The compositions of all material modifications have been determined and stored. Exceptions are combinations of composite layers differing in material and lending themselves to definite geometrical definition (e.g. composites with supporting cores, composite film, composites with embedded inserts). However, PolSelec can also be utilized for selecting the materials for such multilayer composites

The "compact materials" module of the program, which is being dealt with below, can also be used outside the Makrolar software system as a PC version based on the Windows operating system. For the "foams" module the preparation work is nearly concluded. Basic information on the selection principle and the program structure is applicable to both programs.

For thermoplastics, TPEs and thermosets

A major application of the software are mouldings and/or profiles in the widest sense. Thermoplastics, thermoplastic elastomers and thermosets have been covered. Of the elastomers the program only contains PU based materials at present. The following plastics applications are not provided for the time being:

  • adhesives,
  • unshaped covering materials,
  • binders and sealants,
  • paints,
  • coating and impregnating resins,
  • modelling compounds,
  • man-made fibres.

Material coordination in the program data file requires determination of testable properties and/or evaluatable characteristics for each selection criterion (here: coordination criteria). The characteristic data and their scope of application must be determinable for all materials according to identical or comparable test methods and conditions, be in good correlation with the values required in practical service and cover all significant aspects of material requirements. Physically interpretable (true) material data have priority over conventional data. All property data provided must be known for all materials stored in the program or be estimable with adequate accuracy according to analogy rules. There is no "void" for characteristic data in PolSelec.

The determination of ranges for the above property level steps is decisive for the degree of selection and for the reliability of the program as well as for the extent of data acquisition and storage. Generally the ranges were screened as widely as was acceptable for an appropriate degree of selection. The number of data was thus reduced and material coordination due to major variation of test data facilitated. Use was made of proven property classification systems successfully applied in practice (e.g. fire classes according to UL 94). If the properties of a material are in the transition range between two level steps, they are coordinated with both steps.

Should the design engineer not be sufficiently familiar with the property data offered, examples of materials as comparative materials for the particular level steps and/or characteristics are available as an aid. Thus he can make specific use in selection of his experience With materials from comparable situations in practical work. The same purpose is served by relevant references and explanations with the coordination criteria, which contain i.a. the indication of test standards and conditions.

Ageing as a special application

Ageing resistance requires consideration of several special conditions. The following relation of variables is typical of these selection criteria:

  • type of ageing effect (e.g. heat, climate, radiation, media),
  • duration of exposure and intensity of the ageing factors (e.g. temperature, weathering time, radiation dose),
  • extent of material deterioration due to ageing (e.g. decrease of strength, loss of substance).

Owing to the great number of combinations of variables, the inclusion of these variable properties in the selection program requires determination of the degree of material deterioration as a point of reference to the property level. This determination was made uniformly so that the material can be safely considered as not. resistant whenever the given deterioration limits are exceeded.

Only the definitely unresistant materials are sorted out by this selection method, and the practical difficulties in evaluating ageing effects do not lead to precipitate rejection. Referred to type, duration and intensity of the ageing effect, a dual evaluation results: resistant or unresistant. A differentiation into several resistance levels frequently overcharges the design engineer and pretends an accuracy which is not always justified. For stabilization against heat, weathering and hydrolysis it is possible to differentiate between unstabilized and stabilized types of material.

Uncertainty in the practical grouping of several materials is sometimes caused by scattering of the characteristic data as well as by poor or incomplete information about the particular property — in spite of sufficiently detailed definition and delimitation of the coordination criteria. The principle of absolutely avoiding precipitate rejection of the material is always applicable in such boundary cases. In this way the primary objective of preselection, i.e. to guarantee the optimal material among the preselected basic types, can be reached with great reliability.

It is not possible within this scope of discussion to deal with individual criteria of selection and coordination. However, it should be noted that a total of 275 selection criteria with 790 coordination alternatives is available per material. The resistance to media alone is present by 83 media or groups of media.

Material identification and logging

The basic types of material are so identified by abbreviations, descriptive text and examples of tradenames that the expert can coordinate just any special-purpose type. Abbreviations are assigned in accordance With ISO 1043 and DIN 7728. The applicable type designation is used for standardized thermosetting moulding materials. In slight modification of ISO 1043, the actual material abbreviations are supplemented by further characters in four data blocks. In this way it is possible to identify special properties, manufacturing techniques, types and concentrations of filler i.a. from the mere abbreviation.

Supplementary information is available in a concise descriptive text on the material which contains information about the chemical structure and material composition as well as typical property data, if required. In all cases the material density as an important structural parameter is contained in this description. If the material is classified as a type according to DIN, the standard specification on the nature of the material is indicated. The material characteristics can be called off on the abbreviation as additional information. In another position examples of, tradenames for moulding materials are indicated by company names. These examples too can be requested in addition to the abbreviation. A cooperation with the producers of moulding materials is highly desired for reasons of completeness of the material data file.

Mode of operation demonstrated by an example

The material sought is a thermoplastic for a lever to be injection-moulded. The following requirements exist:

  • high stiffness level: E0 > 5000 N/mm,
  • long-term heat resistance: 280 °C,
  • resistance to heated mineral oil,
  • manufacture by injection moulding.

The dialogue of PolSelec is predominantly achieved by selection items, the about 130 selection items being linked together hierarchically.

According to the definition of the requirements, the selection process can be started via the corresponding function key the number of the materials selected and available is indicated in the uppermost line on the screen. The selected materials are listed in tabulated form using their abbreviations. The Iower part of the display contains the short description of the material just called.

This example only reflects a small part of the extent of the software functions. However, as the selection method and the dialogue are formally identical for almost all selection items, the example representatively documents the program structure and the ease of operation.

Advantages in application

The material presection program presented above combines a number of special features and advantages in application.

  • The inclusion of all materials and the restriction to the screening principle of preselecting basic types facilitate the operation using variants and promote the reliability of the decision, regardless of the specific knowledge of the user. The over 800 basic types of material represent about 11,000 special commercial products, offering adequate possibilities of differentiation.
  • The covering of material property patterns according to uniform qualitative or classified quantitative characteristics permits, at the beginning of the product development process, a selection which has relevance to practical service. The user's "feeling for the material" is included.
  • PolSelec i.a. serves as a predecessor program within the Makrolar software system and in this function can also be used for other industry-specific software. Blank characters for characteristic data do not occur. All materials contained in the program are coordinated with all selection criteria and thus included according to uniform aspects.
  • The selection concept and program structure permit a wide scope for modification and extention to any groups of materials and for different applications.
  • An oriented reduction of the wide range of material variants is possible even if the requirements are relatively general or inadequately determined.
  • The software has essential features of a teaching and leaming program. It trains the "feeling for the material" and the perspective of the materials for characteristic application conditions of the plastics in a very economical way.

PolSelec enables material preselection according to approx. 300 selection criteria (including over 80 different media resistances). Unlike many other material selection programs, in PolSelec all materials are completely assigned to all selection criteria.

  • Selection of materials 553
    • Material structure and condition 90
      • material groups 18
        • Styrenic, acrylonitrile, acrylate polymers and polyvinylcarbazole
        • polyolefins
        • Polyamides and linear polyurethanes
        • Polyacetals and polyvinyl alcohol
        • Linear polyaryl ethers and polyaryl esters
        • Linear polyarylsulphones and polyarylsulphides
        • Vinyl chloride polymers, chlorinated polyolefins and polyethers
        • polyfluorocarbons
        • Cellulose, starch and casein polymers
        • Polyurethane, polyether ester elastomers, polyether block amides
        • polyimides
        • Mat-reinforced thermoplastics
        • Press and injection moulding materials based on pheno- and aminoplastics
        • Press and injection moulding materials based on unsaturated polyester, epoxy, diallyl phthalate and silicone resins
        • Duroplastic laminates and vulcanized fibre
        • Cast resin moulding materials
        • LC polymers (thermoplastics)
        • polyaryletherketones
      • molecular structure 5
        • Amorphous thermoplastics (plastomers)
        • Partially crystalline thermoplastics (plastomers)
        • Thermoplastic elastomers (elastoplastics)
        • Elastomers (rubber, elastic)
        • Thermosets (thermosets)
      • Thermal conversion ranges 10
        • Glass conversion area (main freezing area) 5
          • below 0°C
          • from 0 ... 50°C
          • over 50 ... 120°C
          • over 120 ... 180°C
          • above 180°C
        • melting range 5
          • below 120°C
          • from 120 ... 180°C
          • over 180 ... 240°C
          • over 240 ... 300°C
          • above 300°C
      • material composition 30
        • filler type 12
          • ophthalmic lens
          • asbestos
          • mica
          • talcum
          • titanium white
          • Other synthetic or natural minerals
          • Metals, barium ferrites
          • Carbon (also carbon black and graphite)
          • Wood, lignin
          • aramid
          • Other synthetic or natural organic substances
          • Other filler types or without filler
        • filler properties 10
          • fibre, tufts of fibres, flocks
          • Mats, fleeces, paper webs, foils
          • Woven, knitted, knitted, cloths
          • rovings, whiskers, strands, other unidirectional reinforcement
          • Random cords and stripes
          • schnitzel, shavings
          • flakes
          • Balls, beads, lenses (also hollow bodies)
          • Powder, semolina, flour, ground fibres
          • Other forms or without filler
        • filler amount 8
          • Without filler
          • till 17,5
          • over 17.5 ... 27,5%
          • over 27.5 ... 37,5%
          • over 37.5 ... 47,5%
          • over 47.5 ... 65,0%
          • over 65.0 ... 85%
          • over 85%
      • material density 4
        • up to 1,0 g/cm³
        • over 1.0 ... 1.5 g/cm³
        • over 1.5 ... 2.0 g/cm³
        • above 2,0 g/cm³
      • Cohesion energy density in (J/cm³)½ 5
        • under 13
        • from 13 ... 15
        • over 15 ... 19
        • over 19 ... 23
        • over 23
      • material modification 18
        • Fire protection equipment (FR types)
        • Antistatic permanent equipment (Z-types)
        • Electrically conductive (Y and EMI types)
        • Guaranteed electrical resistance and/or limited dielectric losses
        • Guaranteed tracking resistance
        • Particularly resistant to electrolytic corrosion, reduced content of acidic or basic components
        • Special chemical resistance (CR grades)
        • Additionally reduced wear and/or friction resistance (AR types)
        • Preferably suitable for food contact
        • Increased transparency (T-types)
        • Anti-radiant finish (increased radiation resistance)
        • Particularly heat conductive
        • Biodegradable
        • Biologically particularly resistant (e.g. resistant to termites)
        • Plasticized (P grades)
        • Preferably suitable for chemical electroplating (GC types)
        • Crosslinkable thermoplastics (X grades)
        • All other materials
    • Solubility and adhesiveness 9
      • dissolubility 3
        • dissolvable
        • conditionally soluble
        • indissolubly
      • bondability 6
        • Adhesivity with solvent adhesives (adhesive varnishes) 3
          • adhesive
          • limited adhesiveness
          • not or very limited adhesive properties
        • Adhesivity with reaction adhesives 3
          • adhesive
          • limited adhesiveness
          • not or very limited adhesive properties
    • Media resistance and water absorption 180
      • media resistance 166
        • Media resistance at room temperature 83
          • Oils, fats, hydrocarbons 10
            • Mineral oils and fats (without aromatics), paraffin oils
            • ester oils
            • polyglycol oils
            • Silicone oils and greases
            • Turpentine oil, essential oils and aromas
            • Animal oils and fats
            • Vegetable oils and fats, higher fatty acids
            • Benzines (without aromatics), pentane, heptane, octane
            • cyclohexane, methylcyclohexane
            • Benzene, toluene, xylene, styrene, ethylbenzene
          • halogenated hydrocarbons 11
            • Dichloromethane (methylene chloride)
            • Trichloromethane (chloroform)
            • Tetrachloromethane (carbon tetrachloride)
            • dichloroethane, dichloropropane
            • 1,1,1-trichloroethane
            • tetrachloroethane
            • Trichloroethylene (Tri)
            • Tetrachloroethylene (Per)
            • Perhalogenated CFCs (e.g. R11,R12,R113,R114)
            • Partially halogenated CFCs or HFA (e.g. R21,R22,R123,R124,R141B,R142B,R134A)
            • monochlorobenzene, dichlorobenzene
          • Alcohols, ketones, carboxylic acids, aldehydes 12
            • methyl alcohol
            • ethanol, propanol
            • cyclohexanol, methylcyclohexanol
            • Benzyl alcohol, phenylethyl alcohol
            • ethylene glycols
            • Propanetriol (glycerin)
            • Propanone (acetone), butanone (methyl ethyl ketone)
            • cyclohexanone, methylcyclohexanone
            • Methylphenylketone (acetophenone)
            • formic acid
            • Acetic acid, propionic acid
            • benzaldehyde
          • Carbon disulfide, ether, ester 7
            • carbon disulfide
            • diethyl ether, dipropyl ether
            • tetrahydrofuran
            • Ethylene oxide (oxirane), propylene oxide
            • Diphenyl ether (diphenyl oxide)
            • Acetates and ether acetates
            • Dimethyl, diethyl, dibutyl phthalate
          • Amides, amines, nitroaromatics, nitriles 6
            • dimethylformamide
            • Ethylamines, propylamines
            • Aniline (Aminobenzene)
            • pyridine
            • nitrobenzene, nitrotoluene
            • Acetonitrile, Acrylonitrile
          • Aqueous solutions of organic substances 10
            • Acetic acid solution up to 5
            • Acetic acid solution conc.
            • phenol solution up to 5
            • Phenol solution conc.
            • Wine and citric acid solution 10...20%.
            • Chloroacetic acid solution 10...20%.
            • Lactic acid solution 10...20%.
            • Lactic acid solution 80...90%.
            • Formaldehyde 30...40
            • Soap and wetting agent solution up to 5
          • Aqueous solutions of oxygen acids and oxidizing agents 16
            • chromosulfuric acid
            • Smoking sulphuric acid 95...98%.
            • Conc. Sulphuric acid approx. 75
            • Sulphuric acid approx. 50
            • Sulphuric acid approx. 30
            • Diluted sulphuric acid approx. 10%.
            • Highly diluted sulphuric acid approx. 3%.
            • Smoking Nitric Acid 95...98%
            • Conc. Nitric acid approx. 70
            • Nitric acid approx. 40
            • Nitric acid approx. 25%.
            • Diluted nitric acid approx. 10%.
            • Strongly diluted nitric acid approx. 3%.
            • Hydrogen peroxide approx. 30%.
            • Hydrogen peroxide approx. 3%.
            • Hypochlorite bleaching lyes with approx. 13% active chlorine
          • Aqueous solutions of hydrogen acids 6
            • Conc. Hydrochloric acid 35...37%
            • hydrochloric acid approx. 20
            • Diluted hydrochloric acid approx. 10%.
            • Highly diluted hydrochloric acid approx. 3%.
            • hydrofluoric acid from 40
            • hydrofluoric acid approx. 10
          • Alkalis and aqueous saline solutions 5
            • Conc. Sodium hydroxide and potassium hydroxide solution from 30
            • Diluted caustic soda and potash lye approx. 10%.
            • Highly diluted caustic soda and potash lye approx. 2%.
            • Ammonium hydroxide (ammonia water) approx. 10%.
            • Ammonium hydroxide (ammonia water) approx. 25%.
        • Media resistance at higher temperatures 83
          • Oils, fats, hydrocarbons 10
            • Mineral oils and fats (without aromatics), paraffin oils
            • ester oils
            • polyglycol oils
            • Silicone oils and greases
            • Turpentine oil, essential oils and aromas
            • Animal oils and fats
            • Vegetable oils and fats, higher fatty acids
            • Benzines (without aromatics), pentane, heptane, octane
            • cyclohexane, methylcyclohexane
            • Benzene, toluene, xylene, styrene, ethylbenzene
          • halogenated hydrocarbons 11
            • Dichloromethane (methylene chloride)
            • Trichloromethane (chloroform)
            • Tetrachloromethane (carbon tetrachloride)
            • dichloroethane, dichloropropane
            • 1,1,1-trichloroethane
            • tetrachloroethane
            • Trichloroethylene (Tri)
            • Tetrachloroethylene (Per)
            • Perhalogenated CFCs (e.g. R11,R12,R113,R114)
            • Partially halogenated CFCs or HFA (e.g. R21,R22,R123,R124,R141B,R142B,R134A)
            • monochlorobenzene, dichlorobenzene
          • Alcohols, ketones, carboxylic acids, aldehydes 12
            • methyl alcohol
            • ethanol, propanol
            • cyclohexanol, methylcyclohexanol
            • Benzyl alcohol, phenylethyl alcohol
            • ethylene glycols
            • Propanetriol (glycerin)
            • Propanone (acetone), butanone (methyl ethyl ketone)
            • cyclohexanone, methylcyclohexanone
            • Methylphenylketone (acetophenone)
            • formic acid
            • Acetic acid, propionic acid
            • benzaldehyde
          • Carbon disulfide, ether, ester 7
            • carbon disulfide
            • diethyl ether, dipropyl ether
            • tetrahydrofuran
            • Ethylene oxide (oxirane), propylene oxide
            • Diphenyl ether (diphenyl oxide)
            • Acetates and ether acetates
            • Dimethyl, diethyl, dibutyl phthalate
          • Amides, amines, nitroaromatics, nitriles 6
            • dimethylformamide
            • Ethylamines, propylamines
            • Aniline (Aminobenzene)
            • pyridine
            • nitrobenzene, nitrotoluene
            • Acetonitrile, Acrylonitrile
          • Aqueous solutions of organic substances 10
            • Acetic acid solution up to 5
            • Acetic acid solution conc.
            • phenol solution up to 5
            • Phenol solution conc.
            • Wine and citric acid solution 10...20%.
            • Chloroacetic acid solution 10...20%.
            • Lactic acid solution 10...20%.
            • Lactic acid solution 80...90%.
            • Formaldehyde 30...40
            • Soap and wetting agent solution up to 5
          • Aqueous solutions of oxygen acids and oxidizing agents 16
            • chromosulfuric acid
            • Smoking sulphuric acid 95...98%.
            • Conc. Sulphuric acid approx. 75
            • Sulphuric acid approx. 50
            • Sulphuric acid approx. 30
            • Diluted sulphuric acid approx. 10%.
            • Highly diluted sulphuric acid approx. 3%.
            • Smoking Nitric Acid 95...98%
            • Conc. Nitric acid approx. 70
            • Nitric acid approx. 40
            • Nitric acid approx. 25%.
            • Diluted nitric acid approx. 10%.
            • Strongly diluted nitric acid approx. 3%.
            • Hydrogen peroxide approx. 30%.
            • Hydrogen peroxide approx. 3%.
            • Hypochlorite bleaching lyes with approx. 13% active chlorine
          • Aqueous solutions of hydrogen acids 6
            • Conc. Hydrochloric acid 35...37%
            • hydrochloric acid approx. 20
            • Diluted hydrochloric acid approx. 10%.
            • Highly diluted hydrochloric acid approx. 3%.
            • hydrofluoric acid from 40
            • hydrofluoric acid approx. 10
          • Alkalis and aqueous saline solutions 5
            • Conc. Sodium hydroxide and potassium hydroxide solution from 30
            • Diluted caustic soda and potash lye approx. 10%.
            • Highly diluted caustic soda and potash lye approx. 2%.
            • Ammonium hydroxide (ammonia water) approx. 10%.
            • Ammonium hydroxide (ammonia water) approx. 25%.
      • water absorption 14
        • Water absorption to saturation after storage at 23°C 7
          • below 0,2
          • from 0.2 ... 0,8%
          • over 0.8 ... 2,0%
          • over 2.0 ... 4,0%
          • over 4.0 ... 8,0%
          • over 8.0 ... 16,0%
          • over 16,0% to water soluble
        • Water absorption until saturation after storage in standard climate 7
          • below 0,1%
          • from 0.1 ... 0,2%
          • over 0.2 ... 0,5%
          • over 0.5 ... 1,3%
          • over 1.3 ... 2,5%
          • over 2.5 ... 4,0%
          • above 4,0%
    • Thermal and hydrothermal resistance 49
      • thermal stability 42
        • Permanent heat resistance (years) 14
          • up to 60°C
          • over 60 ... 75°C
          • over 75 ... 90°C
          • over 90 ... 105°C
          • over 105 ... 120°C
          • over 120 ... 135°C
          • over 135 ... 155°C
          • over 155 ... 180°C
          • over 180 ... 205°C
          • over 205 ... 230°C
          • over 230 ... 260°C
          • over 260 ... 290°C
          • over 290 ... 330°C
          • above 330°C
        • Short-term heat resistance (hours) 14
          • up to 60°C
          • over 60 ... 75°C
          • over 75 ... 90°C
          • over 90 ... 105°C
          • over 105 ... 120°C
          • over 120 ... 135°C
          • over 135 ... 155°C
          • over 155 ... 180°C
          • over 180 ... 205°C
          • over 205 ... 230°C
          • over 230 ... 260°C
          • over 260 ... 290°C
          • over 290 ... 330°C
          • above 330°C
        • Ultra-short time heat resistance (seconds to minutes) 14
          • up to 60°C
          • over 60 ... 75°C
          • over 75 ... 90°C
          • over 90 ... 105°C
          • over 105 ... 120°C
          • over 120 ... 135°C
          • over 135 ... 155°C
          • over 155 ... 180°C
          • over 180 ... 205°C
          • over 205 ... 230°C
          • over 230 ... 260°C
          • over 260 ... 290°C
          • over 290 ... 330°C
          • above 330°C
      • Hydrothermal resistance 7
        • below 40°C
        • from 40 ... 60°C
        • over 60 ... 80°C
        • over 80 ... 100°C
        • over 100 ... 120°C
        • over 120 ... 140°C
        • above 140°C
    • Weather and radiation resistance 14
      • resistance to weathering 4
        • up to 1 year
        • over 1 ... 3 years
        • over 3 ... 10 years
        • over 10 years
      • radiation stability 10
        • Ageing retarding irradiation conditions 5
          • up to 0.01 MGy (up to 1 billion)
          • over 0.01 ... 0.1 MGy (over 1 ... 10 billion)
          • over 0.1 ... 1 MGy (over 10 ... 100 billion)
          • over 1 ... 10 MGy (over 100 ... 1000 billion)
          • over 10 MGy (over 1000 billion)
        • Ageing-promoting irradiation conditions 5
          • up to 0.01 MGy (up to 1 billion)
          • over 0.01 ... 0.1 MGy (over 1 ... 10 billion)
          • over 0.1 ... 1 MGy (over 10 ... 100 billion)
          • over 1 ... 10 MGy (over 100 ... 1000 billion)
          • over 10 MGy (over 1000 billion)
    • Mechanical, acoustic and tribological properties 77
      • Stiffness and hardness 20
        • Rigidity and hardness at 23°C 9
          • Hard and semi-hard elastic materials (tensile modulus) or soft and rubber elastic materials (Shore hardness) 9
            • above 15000 N/mm²
            • over 5000 ... 15000 N/mm²
            • over 2000 ... 5000 N/mm²
            • over 1000 ... 2000 N/mm²
            • over 80 ... 1000 N/mm² (semi-hard)
            • over A80 ... A90 or via D30 ... D40 (core-like)
            • via A70 ... A80 (tight)
            • about A60 ... A70 (soft)
            • below A60 (very soft)
        • Heat deflection temperature under bending stress 7
          • below 60°C or not measurable
          • from 60 ... 100°C
          • over 100 ... 140°C
          • over 140 ... 180°C
          • over 180 ... 220°C
          • over 220 ... 260°C
          • above 260 °C
        • Time-dependent stiffness decrease (creep tendency) at 23°C 4
          • below 20% (very low creep tendency)
          • from 20 ... 40% (low creep tendency)
          • over 40 ... 60% (clear creep tendency)
          • over 60% (high creep tendency)
      • Deformation behaviour with rapid tensile loading 7
        • Non-stretchable materials 4
          • Elongation at break below 1.5
          • Elongation at break of 1.5 ... 4%
          • Elongation at break above 4
          • Pronounced rubber-elastic deformation
        • Stretchable materials 3
          • Elongation at yield point below 10
          • Elongation at yield point from 10
          • Soft-elastic plastic deformation without pronounced yield strength
      • Tensile strength and stress crack resistance 15
        • Short-term tensile strength at 23°C 6
          • above 300 N/mm²
          • over 120 ... 300 N/mm²
          • over 90 ... 120 N/mm²
          • over 60 ... 90 N/mm²
          • over 30 ... 60 N/mm²
          • below 30 N/mm²
        • Creep rupture tensile strength for 10000 h at 23°C 6
          • above 160 N/mm²
          • over 80 ... 160 N/mm²
          • over 40 ... 80 N/mm²
          • over 20 ... 40 N/mm²
          • over 10 ... 20 N/mm²
          • below 10 N/mm²
        • Stress Crack Resistance (ESCR) 3
          • must be taken into account, often critical
          • noteworthy, possibly critical
          • very low or not available or known
      • Alternating bending strength for 10 mill. load cycles[N/mm²] 3
        • over 50
        • from 25 ... 50
        • under 25
      • Mechanical damping (mechanical loss factor/damping factor) 3
        • above 0,20
        • from 0.05 ... 0,20
        • under 0.05
      • notched bar impact test 12
        • Notched impact strength at 23°C 4
          • low (brittle materials)
          • exalted
          • lofty
          • extremely high
        • Notched impact strength at 0°C 4
          • low (brittle materials)
          • exalted
          • lofty
          • extremely high
        • Notched impact strength at -30°C 4
          • low (brittle materials)
          • exalted
          • lofty
          • extremely high
      • micro-injury elongation 5
        • less than 0.4
        • from 0.4 ... 0,7 %
        • over 0.7 ... 1,5 %
        • over 1.5 ... 3,0 %
        • above 3.0 %.
      • wearing volume 9
        • Dry sliding friction on hard and smooth steel surfaces 3
          • paltry
          • intermediate
          • capitalized
        • Sanding or irradiation with hard solid particles (abrasive and impact jet wear) 3
          • paltry
          • intermediate
          • capitalized
        • Drop impact and cavitation wear 3
          • paltry
          • intermediate
          • capitalized
      • Sliding friction resistance (friction resistance with dry sliding friction on steel) 3
        • extremely low
        • low to medium
        • capitalized
    • Thermal conductivity and gas or vapour permeability 13
      • Thermal conductivity (coefficient of thermal conductivity in W/mK) 5
        • above 3,0
        • over 1.0 ... 3,0
        • over 0.5 ... 1,0
        • over 0.3 ... 0,5
        • from 0.1 ... 0,3
      • permeability 4
        • extremely low
        • paltry
        • intermediate
        • capitalized
      • Water vapour diffusion / water vapour permeability 4
        • extremely low
        • paltry
        • intermediate
        • capitalized
    • Electrical and dielectric properties 25
      • Electrical insulating capacity (specific contact resistance in Ω•cm-cm) 5
        • about 10¹⁵
        • from 10¹⁵ ... 10¹²
        • under 10¹² ... 10⁸
        • at 10⁸ ... 10³
        • under 10
      • Electrostatic chargeability 3
        • Electrostatically highly chargeable and slow degradation of surface charges
        • Electrostatically chargeable and relatively fast degradation of surface charges
        • Electrostatic chargeability very low or not possible (antistatic)
      • Dielectric losses (dielectric loss number[DV]) 4
        • under 0,002
        • from 0.002 ...0.05
        • over 0.05 ... 0,3
        • above 0,3
      • tracking resistance, tracking resistance test method 9
        • CTI: Drop a wetting agent-free electrolyte solution (test solution A) 5
          • from 600 V
          • under 600 ... 400 V
          • under 400 ... 250 V
          • under 250 ... 175 V
          • below 175 V
        • CTI-M: Drop a wetting agent-containing electrolyte solution (test solution B) 4
          • from 600 V
          • under 600 ... 400 V
          • under 400 ... 250 V
          • below 250 V
      • Electrolytic corrosive effect according to DIN 60426 4
        • Characteristic value A
        • Characteristic value AN
        • Characteristic value A/B
        • Characteristic value B
    • Optical and physiological properties 5
      • Optical-visual features 3
        • Transparent to crystal clear for wall thicknesses from 1.5 mm
        • Light colourable (e.g. white) without consideration of light resistance
        • Light colourable and sufficiently light-resistant
      • Physiological characteristics 2
        • Toxicologically and organoleptically harmless materials in the sense of food law
        • Toxicologically and organoleptically harmless materials, which also contain no migratable, volatile and extractable components
    • Flammability and fire behaviour 31
      • flammability 10
        • Flammability groups according to the oxygen index (LOI) 6
          • LOI from 0.50 or not determinable: Self-extinguishing to non-combustible and no spread of fire by flames
          • LOI below 0.50 ... 0.30: Self-extinguishing and no independent spread of fire through flames
          • LOI below 0.30 ... 0.24: Combustible and/or self-extinguishing depending on fuel and fire situation
          • LOI below 0.24 ... 0.20: Flammable
          • LOI below 0.20 ... 0.12: Highly flammable
          • LOI below 0.12: Highly flammable with very high burning rate
        • Fire classes according to UL 94 4
          • V0 (lowest fire risk)
          • V1
          • V2
          • HB (highest fire risk)
      • smoke emission 3
        • Large smoke and/or soot generation
        • Moderate smoke development
        • Low smoke development or smoke-free combustion or decomposition
      • inflammation temperatures 10
        • with positive ignition (ignition temperatures) 5
          • up to 150°C
          • above 150...250°C
          • above 250...350°C
          • above 350...450°C
          • over 450 or non-flammable
        • without positive ignition 5
          • up to 200°C
          • above 200...300°C
          • above 300...400°C
          • above 400...500°C
          • over 500 or non-flammable
      • enthalpy of combustion (lower calorific value)[kWh/kg] 5
        • above 10
        • above 7...10
        • above 4...7
        • above 1.5...4
        • till 1,5
      • Composition of fire gases 3
        • Halogen compounds not present
        • Nitrogen compounds not present
        • No sulphur compounds present
    • dimensional accuracy 33
      • for product application conditions 12
        • Post-shrinkage at higher temperatures[%] 4
          • till 0,2
          • above 0.2...0.4
          • above 0.4...0.8
          • above 0,8
        • Swelling by water absorption, moisture swelling (%) 4
          • till 0,2
          • above 0.2...0.4
          • above 0.4...0.8
          • above 0,8
        • Thermal expansion, coefficient of thermal expansion[1/K] 4
          • till 3•10⁻⁵
          • above 3•10⁻⁵...6•10⁻⁵
          • above 6•10⁻⁵...12•10⁻⁵
          • above 12•10⁻⁵
      • in thermoforming of hardenable resins 9
        • Production accuracy during hot-forming 4
          • capitalized
          • intermediate
          • paltry
          • extremely low
        • Processing shrinkage during thermoforming 5
          • till 0,3
          • above 0,3...0,6%
          • above 0,6...1,2%
          • above 1,2...2,4%
          • above 2,4%
      • injection moulding and injection moulding 12
        • Production accuracy in injection moulding and injection moulding 4
          • capitalized
          • intermediate
          • paltry
          • extremely low
        • Processing shrinkage during injection moulding and injection moulding 5
          • till 0,3
          • above 0,3...0,6%
          • above 0,6...1,2%
          • above 1,2...2,4%
          • above 2,4%
        • Shrinkage anisotropy in injection moulding 3
          • very low or not measurable
          • low to noticeable
          • capitalized
    • Material prices and material availability 24
      • Price ratios for molding compounds based on material mass (price per kilogram) 12
        • under 1
        • from 1...2
        • above 2...4
        • above 4...6
        • above 6...9
        • above 9...12
        • above 12...16
        • above 16...20
        • above 20...25
        • above 25...30
        • over 30
        • Materials no longer available or not yet available
      • Price ratios for molding compounds in relation to material volume (price per litre) 12
        • under 1
        • from 1...2
        • above 2...4
        • above 4...6
        • above 6...9
        • above 9...12
        • above 12...16
        • above 16...20
        • above 20...25
        • above 25...30
        • over 30
        • Materials no longer available or not yet available
    • Reprocessability of recycled materials 3
      • very possible
      • conditionally possible
      • not possible or only possible to a very limited extent
  • manufacturing techniques 32
    • moulding production 11
      • Method of manufacturing moulded parts 8
        • Thermoforming of hardenable plastics
        • Injection moulding of hardenable plastics
        • injection molding
        • injection blow molding
        • blow molding
        • rotational moulds
        • compacted sintering
        • Gravity and centrifugal casting as well as low-pressure casting (RIM) of reactive precursors
      • Special finishing and post-treatment processes for moulded parts 3
        • Galvanic-chemical metallization (adherent metal layers)
        • Ultrasonic far-field welding
        • Drum or jet deburring of thermoset moulded parts
    • semi-finished processing 21
      • Types of semi-finished products 14
        • Sheets, plates, blocks, blocks from 15 mm thickness
        • Sheets less than 15 mm thick
        • Biaxially stretched boards
        • corrugated sheets
        • foils
        • Biaxially stretched films
        • Ultra-fine films below 20 µm thickness
        • sheets, coverings
        • Seamless tubes with smooth outer wall
        • External wall profiled tubes, corrugated tubes, wound tubes
        • tubes
        • Rods, rods
        • Wires, cords
        • Other hollow profiles and/or branched profiles
      • Semi-finished product processing method 7
        • Pneumatic and/or mechanical hot stretch forming of thermoplastics
        • Limited hot forming of crosslinked plastics or vulcanized fiber
        • Turning, milling, grinding with increased dimensional accuracy requirements (material at room temperature)
        • hot-gas welding
        • extrusion welding
        • Butt welding of heating elements
        • high-frequency welding

Manufacturer-independent material database of product families (thermoplastics, thermosets, elastomers). These product families/basic types are completely assigned to all selection criteria, uniformly evaluated and represent approx. 10,000 commercial products.

868 materials
Designation Description
(ABS+PC) Blend of acrylonitrile-butadiene-styrene graft copolymer and polycarbonate according to DIN 16780, density 1.08...1.11 g/cm³.
(ABS+PC)-FR Blend of acrylonitrile-butadiene-styrene graft copolymer and polycarbonate according to DIN 16780 with fire protection finish. Density 1.12...1.14 g/cm³.
(ABS+PVC-U) Blends of acrylonitrile-butadiene-styrene graft copolymer and plasticizer-free polyvinyl chloride according to DIN 16780. 1.15 - 1.21 g/cm³ density.
(ASA+PC) Blends of acrylonitrile-styrene-acrylic ester graft copolymer and polycarbonate according to DIN 16780, density approx. 1.15 g/cm³.
(ASA+PC)-FR Blends of acrylonitrile-styrene-acrylic ester graft copolymer according to DIN 16780 with fire protection finish. Density approx. 1.25 g/cm³.
(CAB+EVA) Blends of cellulose acetobutyrate and ethylene-vinyl acetate copolymer. By varying the E/VA component (usually 5...25%), special types of different hardness are available. Density 1.15...1.22 g/cm³.
(CP+EVA) Blends of cellulose propionate and ethylene-vinyl acetate graft copolymer. By varying the E/VA component (usually 10...30%), special types of different hardness are available. Density 1.17...1.23 g/cm³.
(EPDM-X+PP) Blends of dynamically cross-linked EPDM with polypropylene. Thermoplastic polyolefin elastomers (TPO) very soft to hard adjustment of special grades depending on EPDM content. Density 0.89...0.98 g/cm³.
(EVAVC-X+PVDC) Blends of partially crosslinked ethylene-vinyl acetate-vinyl chloride cop. and polyvinylidene chloride. As the composition is not exactly known, the above information is only a rough orientation. Density 1.1...1.26 g/cm³.
(PBT+ASA) Blends of polybutylene terephthalate and acrylonitrile-styrene-acrylic ester graft copolymer. Density approx. 1.22 g/cm³.
(PBT+ASA)-GF10 Blends of polybutylene terephthalate and acrylonitrile-styrene-acrylic ester graft copolymer with approx. 10% glass fibres. Density 1.29...1.32 g/cm³.
(PBT+ASA)-GF20 Blends of polybutylene terephthalate and acrylonitrile-styrene-acrylic ester graft copolymer with approx. 20% glass fibres. Density 1.37...1.39 g/cm³.
(PBT+ASA)-GF30 Blends of polybutylene terephthalate and acrylonitrile-styrene-acrylic ester graft copolymer with approx. 30% glass fibres. Density 1.45...1.47 g/cm³.
(PBT+PC) Blends of polybutylene terephthalate and polycarbonate. Density 1.25...1.27 g/cm³.
(PBT+PET) Blends of polybutylene and polyethylene terephthalate. Density approx. 1.33 g/cm³.
(PBT+PET)-GF17±3 Blends of polybutylene and polyethylene terephthalate with 14...20% glass fibres. Density 1.41...1.47 g/cm³.
(PBT+PET)-GF30 Blends of polybutylene and polyethylene terephthalate with approx. 30% glass fibres. Density 1.53...1.56 g/cm³.
(PBT+PET)-GF45 Blends of polybutylene and polyethylene terephthalate with approx. 45% glass fibres. Density approx. 1.67 g/cm³.
(PBT+PET)-(GF+M)40 Blends of polybutylene terephthalate with approx. 40% glass-fibre mineral mixture. Density 1.62...1.66 g/cm³.
(PBT+PET)-TiO2 Blends of polybutylene and polyethylene terephthalate with approx. 25% titanium dioxide to achieve high reflection and light density. Density approx. 1.55 g/cm³.
(PBT+PET)-M40 Blends of polybutylene and polyethylene terephthalate with approx. 40% mineral. Density approx. 1.6 g/cm³.
(PBT+PET)-GF15-FR Blends of polybutylene and polyethylene terephthalate with approx. 15% glass fibres and fire protection equipment. Density 1.52...1.54 g/cm³.
(PBT+PET)-GF30-FR Blends of polybutylene and polyethylene terephthalate with approx. 30% glass fibres and fire protection equipment. Density approx. 1.66 g/cm³.
(PBT+PET)-HI Elastomer-modified blends of polybutylene and polyethylene terephthalate. Density approx. 1.2 g/cm³.
(PBT+PET)-HI-(GF+M)40 Elastomer-modified blends of polybutylene and polyethylene terephthalate with approx. 40% glass-fibre mineral mixture. Density approx. 1.6 g/cm³.
(PC+ABS) Blends of polycarbonate and acrylonitrile-butadiene-styrene graft copolymer. Density 1.12...1.16 g/cm³.
(PC+ABS)-GF13±3 Blends of polycarbonate and acrylonitrile-butadiene-styrene graft copolymer with approx. 10% glass fibres. Density 1.19...1.22 g/cm³.
(PC+ABS)-GF25±5 Blends of polycarbonate and acrylonitrile-butadiene-styrene graft copolymer with 20...30% glass fibres. Density 1.24...1.33 g/cm³.
(PC+ABS)-GF15±5-FR Blends of polycarbonate and acrylonitrile-butadiene-styrene graft copolymer with fire protection finish and 10...20% glass fibres. Density 1.29...1.34 g/cm³.
(PC+ABS)-FR Blends of polycarbonate and acrylonitrile-butadiene-styrene graft copolymer with fire protection finish. Density 1.14...1.20 g/cm³.
(PC+PBT) Blends of polycarbonate and polybutylene terephthalate. Density 1.21...1.24 g/cm³.
(PC+PBT)-GF10 Blends of polycarbonate and polybutylene terephthalate with approx. 10% glass fibres. Density approx. 1.3 g/cm³.
(PC+PBT)-GF30 Blends of polycarbonate and polybutylene terephthalate with approx. 30% glass fibres. Density 1.50...1.52 g/cm³.
(PC+PBT)-HI Elastomer-modified blends of polycarbonate and polybutylene terephthalate. Density 1.21...1.24 g/cm³.
(PC+PET) Blends of polycarbonate and polyethylene terephthalate. Density approx. 1.22 g/cm³.
(PC+PET)-GF30 Blends of polycarbonate and polyethylene terephthalate with approx. 30% glass fibres. Density approx. 1.51 g/cm³.
(PE-LD+PIB) Blend of PE-LD and 40...60% polyisobutylene. Density 0.91...0.92 g/cm³.
(PEEST+PBT) Blends of thermoplastic polyether ester elastomer and polybutylene terephthalate. Density 1.14...1.20 g/cm³.
(PEESTUR+ABS)-SH/D50 Blends of thermoplastic polyurethane elastomers (also: TPU) and ABS. Density 1.15...1.17 g/cm³.
(PEI+PC) Blends of polyetherimide copolymer and polycarbonate. Density 1.27...1.30 g/cm³.
(PF+NBR)-(WD+MD) Moulding material made of phenol-formaldehyde resin, rubber (e.g. NBR) and wood flour-mineral flour mixtures. Density 1.43...1.5 g/cm³.
(PF31+NBR) Moulding material made of phenol-formaldehyde resin (novolak), rubber (e.g. NBR) and wood flour. Density approx. 1.3 g/cm³.
(PP+EPDM) Blends of polypropylene and non-crosslinked olefin elastomers (e.g. EPDM) to DIN 16774 with elastomer contents of up to 50% including reactor blends. Density 0.89...0.92 g/cm³.
(PPE+PA12) Blends of polyphenylene ether and polyamide. Density approx. 1.03 g/cm³.
(PPE+PA66) Blends of polyphenylene ether and polyamide. Density 1.09...1.10 g/cm³.
(PPE+PA66)-GF10 Blends of polyphenylene ether and polyamide with approx. 10% glass fibres. Density approx. 1.16 g/cm³.
(PPE+PA66)-GF25±5 Blends of polyphenylene ether and polyamide with 20...30% glass fibres. Density 1.23...1.32 g/cm³.
(PPE+PA66)-M15±5 Blends of polyphenylene ether and polyamide with 10...20% minerals. Density 1.17...1.27 g/cm³.
(PPE+PA66)-CF25±5 Blends of polyphenylene ether and polyamide with 20...30% carbon fibres. Density 1.18...1.24 g/cm³.
(PPE+SB)-HDTA165±5 Modified polyphenylene ether with high heat resistance. Density approx. 1.06 g/cm³.
(PPE+SB)-HDTA175±5 Modified polyphenylene ether with high heat resistance. Density 1.04...1.06 g/cm³.
(PPE+SB) Blends of polyphenylene ether and styrene-butadiene polymers. Density 1.04...1.07 g/cm³.
(PPE+SB)-GF15±5 Blends of polyphenylene ether and styrene-butadiene polymers with approx. 20% glass fibres. Density 1.11...1.24 g/cm³.
(PPE+SB)-GF30 Blends of polyphenylene ether and styrene-butadiene polymers with approx. 30% glass fibres. Density 1.26...1.30 g/cm³.
(PPE+SB)-GF40 Blends of polyphenylene ether and styrene-butadiene polymers with approx. 40% glass fibres. Density approx. 1.38 g/cm³.
(PPE+SB)-CF35±5 Blends of polyphenylene ether and styrene-butadiene polymers with 30...40% carbon fibers. Density 1.21...1.27 g/cm³.
(PPE+SB)-AR-PTFE15 Blends of polyphenylene ether and styrene-butadiene polymers with approx. 15% PTFE additive. Density approx. 1.15 g/cm³.
(PPE+SB)-FR-HDTA175±5 Modified polyphenylene ether with high heat resistance and fire protection properties. Density approx. 1.04 g/cm³.
(PPE+SB)-FR-HDTA150 Modified polyphenylene ether with high heat resistance and fire protection properties. Density approx. 1.06 g/cm³.
(PPE+SB)-FR-V1,V0 Blends of polyphenylene ether and styrene-butadiene polymers with fire protection finish. Density 1.06...1.15 g/cm³.
(PPE+SB)-(GF+M)10-FR Blends of polyphenylene ether and styrene-butadiene polymers with approx. 10% glass-fibre mineral mixture and fire protection equipment. Density approx. 1.2 g/cm³.
(PPE+SB)-(GF+M)35±5-FR Blends of polyphenylene ether and styrene-butadiene polymers with 30...40% glass-fibre mineral mixture and fire protection finish. Density 1.35...1.45 g/cm³.
(PPE+SB)-GF15±5-FR Blends of polyphenylene ether and styrene-butadiene polymers with 10...20% glass fibres and fire protection finish. Density 1.15...1.3 g/cm³.
(PPE+SB)-GF30-FR Blends of polyphenylene ether and styrene-butadiene polymers with approx. 30% glass fibres and fire protection finish. Density 1.28...1.36 g/cm³.
(PPE+SB)-FR-V1,V0 Blends of polyphenylene ether and styrene-butadiene polymers with fire protection and antistatic finish. Density approx. 1.14 g/cm³.
(PPE+SB)-HI Highly impact resistant blends of polyphenylene ether and styrene-butadiene polymers. Density 1.04...1.06 g/cm³.
(PPE+SB)-HI-FR-V1,V0 Highly impact resistant blends of polyphenylene ether and styrene-butadiene-poly-merisates with fire protection finish. Density 1.06...1.10 g/cm³.
(PS+PE) Blend of polystyrene or impact-resistant polystyrene and low to high density polyethylene. Density 0.99...1.01 g/cm³.
(PSU+ABS) Blends of polysulfone and ABS. Density approx. 1.13 g/cm³.
(PVC-P+NBR) Plasticizer-containing polyvinyl chloride with nitrile rubber additive. Density 1.14...1.25 g/cm³.
(PVC+PE-C) Blend of polyvinyl chloride and chlorinated polyethylene, also known as PVC-HI. Impact resistance can be influenced in a wide range depending on the PE-C content. Also ger. Filler content (e.g. chalk). Density 1.35...1.45 g/cm³.
(SAN+NBR) Blend made of SAN and acrylonitrile butadiene rubber. Formerly known as ABS copolymer. Density 1.04...1.05 g/cm³.
(UP+MF)-WD Blends of unsaturated polyester resin and melamine-formaldehyde resin (IPN structure) with wood flour. Density approx. 1.6 g/cm³.
(UP+MF)-LF Blends of unsaturated polyester resin and melamine-formaldehyde resin (IPN structure) with cellulose fibres. Density approx. 1.65 g/cm³.
(UP+MF)-MD Blends of unsaturated polyester resin and melamine-formaldehyde resin (IPN structure) with mineral flours. Density approx. 1.8 g/cm³.
(UP+MF)-GF+MD Blends of unsaturated polyester resin and melamine-formaldehyde resin (IPN structure) with glass fibres and mineral flours. Density approx. 2 g/cm³.
(UP+MF)-LF+MD-FR Blends of unsaturated polyester resin and melamine-formaldehyde resin (IPN structure) with organ. Fibres and mineral flours as well as fire protection equipment. Density 1.65...1.75 g/cm³.
ABS Medium impact acrylonitrile-butadiene-styrene graft copolymer according to DIN 16772, density 1.03...1.07 g/cm³.
ABS-GF7 Acrylonitrile-butadiene-styrene graft copolymer with approx. 7% glass fibres. Density approx. 1.1 g/cm³.
ABS-GF15±5 Acrylonitrile-butadiene-styrene graft copolymer according to DIN 16772 with 10...20% glass fibres. Density 1.10...1.22 g/cm³.
ABS-GF30±5 Acrylonitrile-butadiene-styrene graft copolymer according to DIN 16772 with 25...35% glass fibres. Density 1.22...1.36 g/cm³.
ABS-GB15±5 Acrylonitrile-butadiene-styrene graft copolymer according to DIN 16772 with 10...20% glass microspheres. Density 1.10...1.22 g/cm³.
ABS-GF12±3+GB12±3 Acrylonitrile-butadiene-styrene graft copolymer according to DIN 16772 with 9...15% glass fibres and glass microspheres each. Density 1.16...1.27 g/cm³.
ABS-FR-V0 Acrylonitrile-butadiene-styrene graft copolymer according to DIN 16772 with fire protection finish. Density 1.16...1.26 g/cm³.
ABS-GF15±5-FR-V0 Acrylonitrile-butadiene-styrene graft copolymer according to DIN 16772 with 10...20% glass fibres and fire protection finish. Density 1.25...1.38 g/cm³.
ABS-GF30±5-FR Acrylonitrile-butadiene-styrene graft copolymer according to DIN 16772 with 25...35% glass fibres and fire protection finish. Density 1.30...1.45 g/cm³.
ABS-GB15±5-FR Acrylonitrile-butadiene-styrene graft copolymer according to DIN 16772 with 10...20% glass microspheres and fire protection finish. Density 1.20...1.34 g/cm³.
ABS-GC Acrylonitrile-butadiene-styrene graft copolymer according to DIN 16772 preferably for electroplating. Density 1.04...1.06 g/cm³.
ABS-HI High impact acrylonitrile-butadiene-styrene graft copolymer according to DIN 16772, density 1.03...1.07 g/cm³.
ABS-HI-GF15±5 High impact acrylonitrile-butadiene-styrene graft copolymer according to DIN 16772 with 10...20% glass fibres. Density 1.09...1.21 g/cm³.
ABSA Acrylonitrile-butadiene-styrene-acrylic ester graft copolymer according to DIN 16772, density 1.05...1.07 g/cm³.
AMMA Acrylonitrile-methylmethacrylate copolymer with approx. 70% acrylonitrile as semi-finished casting type with yellowish inherent colour. Density approx. 1.17 g/cm³.
ANMA Acrylonitrile methacrylate graft copolymer with approx. 70% acrylonitrile (barrier plastic). Density 1.15...1.17 g/cm³.
ASA Acrylonitrile-styrene-acrylic ester graft copolymer according to DIN 16777, density approx. 1.07 g/cm³.
BIP Biodegradable starch-based polymers. Density 1.28...1.40 g/cm³.
CA-P Containing plasticizers. Cellulose acetate with various Degree of acetylation (2,2...2,8-acetate) according to DIN 7742. Hardness possible. Density 1.26...1.32.
CAB-P Cellulose acetobutyrate containing plasticizer according to DIN 7742. 5...20% of the plasticizer content makes special grades of different hardness available. Density 1.16...1.22 g/cm³.
CN-P Cellulose dinitrate with approx. 25% camphor softener etc. (celluloid). Density approx. 1.38 g/cm³.
CP-P Plasticizer-containing cellulose propionate with low acetate content (alsoCAP). By varying the plasticizer content (usually 8...20%), special types are available in different sizes. hardness. Density 1.17...1.24 g/cm³.
CSF Formaldehyde-cured rennet casein. Density 1.3...1.4 g/cm³.
DF-WD Moulding material made of dicyandiamide formaldehyde resin and wood flour. Density 1.4...1.5 g/cm³.
EA Copolymer of ethylene and acrylic acid or acrylates. Density 0.92...0.94 g/cm³.
EC-P Ethyl cellulose containing plasticizers. Density 1.12...1.15 g/cm³.
ECB Ethylene copolymer bitumen blends as thermoplastic moulding materials. Density approx. 0.97 g/cm³.
ECO Copolymers of ethylene and cycloolefins (e.g. ethylidene norbornene, dicyclopentadiene). Density 1.02...1.04 g/cm³.
ECTFE Ethylene chlorotrifluoroethylene copolymer having the same molar monomer ratio. Density 1.68...1.70 g/cm³.
ECTFE-GF20±5 Ethylene chlorotrifluoroethylene copolymer with 15...25% glass fibers. Density 1.77...1.84 g/cm³.
ECTFE-AR-PTFE10 Ethylene-chlorotrifluoroethylene copolymer with approx. 10% PTFE. Density approx. 1.72 g/cm³.
EP-MD Moulding material made of epoxy resin and minerals with increased heat resistance. Density 1.9...2.0 g/cm³.
EP-MD-CTI600 Moulding material made of epoxy resin and mineral flours with high creep resistance. Density 1.85...1.95 g/cm³.
EP-(GF+MD) Moulding material made of epoxy resin, glass fibres and minerals. Particularly suitable as a low-pressure molding compound for coatings. Density 1.9...2.0 g/cm³.
EP-GF+MD-HDTA250±20 Moulding material made of epoxy resin, glass fibres and minerals with increased impact strength and heat resistance. Density approx. 2 g/cm³.
EP-GS+MD Moulding material made of epoxy resin, long glass fibres and minerals. Density 1.75...1.8 g/cm³.
EP-MD-FR Moulding material made of epoxy resin and minerals with fire protection finish. Density 1.95...2.0 g/cm³.
EP-GF+MD-FR-CTI600 Moulding material made of epoxy resin, glass fibres and minerals with fire protection finish and high tracking resistance. Density 1.9...2.0 g/cm³.
EP-GS+MD-FR Moulding material made of epoxy resin, long glass fibres and minerals with fire protection finish. Density 1.75...1.8 g/cm³.
EP-G Thermoset epoxy casting resin with medium to high heat distortion temperature. Types 1000; 1020; 1021 and 1022 according to DIN 16946, with or without fire protection equipment on request. Density 1.16...1.25 g/cm³.
EP-G-MD60±5 Thermoset epoxy casting resin of medium to high heat distortion temperature with 55...65% mineral. Types 1000; 1021 and 1022 according to DIN 16946, with and without fire protection equipment on request. Density 1.7...1.9 g/cm³.
EP-G-Al(OH)3 Epoxy casting resin with approx. 60 % aluminium trihydrate as smoke-reducing fire protection finish. Density approx. 1.7 g/cm³.
EP-G-RV Cold-cured epoxy casting resin with low heat resistance. Types 1040; 1041 and 1042 according to DIN 16946, with and without fire protection equipment on request. Formally flexible to hard. Density 1.16...1.25 g/cm³.
EP-G-RV-MD55±5 Cold-cured epoxy casting resin with 50...60 % mineral filler. Type 1042 according to DIN 16946, with or without fire protection equipment on request. Density 1.55...1.75 g/cm³.
ETFE Ethylene tetrafluoroethylene copolymer with approx. 25% ethylene content. Density 1.67...1.75 g/cm³.
ETFE-GF12±3 Ethylene tetrafluoroethylene copolymer with 10...15% glass fibers. Density 1.75...1.79 g/cm³.
ETFE-GF25±5 Ethylene tetrafluoroethylene copolymer with 20...30% glass fibers. Density 1.82...1.89 g/cm³.
ETFE-CF15 Ethylene tetrafluoroethylene copolymer with approx. 15% carbon fibres. Density approx. 1.71 g/cm³.
ETFE-CF25±5 Ethylene tetrafluoroethylene copolymer with 20...30% carbon fibers. Density 1.72...1.74 g/cm³.
ETFE-AR-MoS2,CG Ethylene tetrafluoroethylene copolymer with additives of molybdenum disulphide and/or graphite up to 10%. Density 1.72...1.74 g/cm³.
ETFE-AR-GF25+PTFE15 Ethylene tetrafluoroethylene copolymer with approx. 25% glass fibres and approx. 15% PTFE. Density approx. 1.91 g/cm³.
ETFE-AR-M30+PTFE5 Ethylene tetrafluoroethylene copolymer with approx. 30% mineral and 5% PTFE. Density approx. 1.94 g/cm³.
ETFE-Z Ethylene-tetrafluoroethylene copolymer with antistatic finish. Density approx. 1.74 g/cm³.
EVA-D0,93 Ethylene-vinyl acetate copolymer according to DIN 16778 with 3...10% vinyl acetate. Density 0.925...0.935 g/cm³.
EVA-D0,95 Ethylene-vinyl acetate copolymer according to DIN 16778 with 15...30% vinyl acetate. Density 0.935...0.955 g/cm³.
EVAL Ethylene-vinyl alcohol copolymer with 20...40% ethylene content. Density 1.15...1.20 g/cm³.
FEP Tetrafluoroethylene-hexafluoropropylene copolymer (polyperfluoroethylene propylene). Density 2.12...2.18 g/cm³.
FEP-GF20 Polyperfluoroethylene propylene with approx. 20% glass fibres. Density approx. 2.2 g/cm³.
FEP-GG17±3 Polyperfluoroethylene propylene with 15...20% glass fibre material. Density approx. 2.2 g/cm³.
FEP-AR-PTFE10 Polyperfluoroethylene propylene with approx. 10% PTFE. Density approx. 2.15 g/cm³.
Hgw2072 Hard fabric coating compacted from phenolic resin and glass filament fabric according to DIN 7735. Density 1.6...1.8 g/cm³.
Hgw2081 Pressed hard fabric coating according to DIN 7735 made of phenolic resin and cotton coarse fabric or comparable synthetic fabric. Density 1.3...1.4 g/cm³.
Hgw2082 Pressed hard fabric coating according to DIN 7735 made of phenolic resin and cotton fine fabric or comparable synthetic fabric including special types. Density 1.3...1.4 g/cm³.
Hgw2083 Pressed hard fabric coating according to DIN 7735 made of phenolic resin and cotton fine fabric or comparable synthetic fabric including special types. Density 1.3...1.45 g/cm³.
Hgw2272 Pressed hard fabric coating according to DIN 7735 made of melamine resin and glass filament fabric. Density 1.8...2.0 g/cm³.
Hgw2282 Pressed hard fabric coating according to DIN 7735 made of melamine resin and cotton fine fabric including special types. Density 1.4...1.5 g/cm³.
Hgw2370 Hard fabric coating compacted from epoxy resin and glass filament fabric according to DIN 7735. Density 1.7...1.9 g/cm³. Observe stress corrosion cracking in the presence of mineral acids!
Hgw2372 Pressed hard fabric coating according to DIN 7735 made of epoxy resin and glass filament fabric including special types as well as fire protection equipment. Density 1.7...1.9 g/cm³. Note stress corrosion cracking caused by mineral acids!
Hgw2572 Hard woven laminate according to DIN 7735 made of silicone resin and glass filament fabric. Density 1.6...1.7 g/cm³.
Hm2471 Hard mat laminate according to DIN 7735 made of unsaturated polyester resin and glass mats. Density 1.4...1.6 g/cm³.
Hm2472 Hard mat laminate according to DIN 7735 made of unsaturated polyester resin and glass mats. Density 1.6...1.8 g/cm³.
Hp2061 Hard paper laminate according to DIN 7735 made of phenolic resin and cellulose paper including special grades. Density 1.3...1.4 g/cm³.
Hp2062 Hard paper laminates according to DIN 7735 made of phenolic resin and cellulose paper including special grades. Density 1.3...1.4 g/cm³.
Hp2063 Hard paper laminate according to DIN 7735 made of phenolic resin and cellulose paper. Density 1.3...1.4 g/cm³.
Hp2064 Hard paper laminate according to DIN 7735 made of phenolic resin and cellulose paper. Density 1.3...1.4 g/cm³.
Hp2262 Hard paper laminate according to DIN 7735 made of melamine resin and cellulose paper. Density 1.3...1.4 g/cm³.
Hp2361 Hard paper laminate according to DIN 7735 made of epoxy resin and cellulose paper including special grades. Density 1.3...1.4 g/cm³.
HPL-A Decorative hard paper laminates n. DIN 16929 in standard (type N), postforming (type P) and fire protection quality (type F). One or two-sided decorative layer of melamine resin and phenolic resin core. Density approx. 1.4 g/cm³.
IM Ethylene-acrylic acid copolymer crosslinked by Na or Zn ions (ionomers). Density 0.935...0.965 g/cm³.
KW-G Hydrocarbon casting resins made of highly crosslinked butadiene-styrene copolymer (approx. 80% butadiene) or dicyclopentadiene. Density 0.9...1 g/cm³.Heat deflection temperature depends on crosslinking conditions, filler addition usual.
LCP(HX2000) Liquid crystalline aryl copolyesters (amorphous solid state). Density approx. 1.27 g/cm³. Extreme anisotropy due to flow orientation (fiber structure).
LCP(HX2000)-GF30 Liquid crystalline aryl copolyesters (amorphous solid state) with approx. 30% glass fibres. Density approx. 1.49 g/cm³.
LCP(HX2000)-M30 Liquid crystalline aryl copolyester (amorphous solid state) with approx. 30% mineral. Density approx. 1.5 g/cm³.
LCP(HX4000) Liquid crystalline aryl copolyesters (semi-crystalline solid state). Density 1.29...1.32 g/cm³. Extreme anisotropy due to flow orientation (fiber structure).
LCP(HX4000)-GF30 Liquid crystalline aryl copolyesters (semi-crystalline solid state) with approx. 30% glass fibres. Density 1.51...1.53 g/cm³.
LCP(HX4000)-GF50 Liquid crystalline aryl copolyesters (semi-crystalline solid state) with approx. 50% glass fibres. Density approx. 1.71 g/cm³.
LCP(Ultrax amorph) Liquid crystalline aryl copolyesters (amorphous solid state). Density approx. 1.39 g/cm³. Extreme anisotropy due to flow orientation (fiber structure).
LCP(Ultrax amorph)-GF30 Liquid crystalline aryl copolyesters (amorphous solid state) with approx. 30% glass fibres. Density approx. 1.62 g/cm³.
LCP(Ultrax amorph)-M30 Liquid crystalline aryl copolyester (amorphous solid state) with approx. 30% mineral. Density approx. 1.63 g/cm³.
LCP(Ultrax amorph)-CF30 Liquid crystalline aryl copolyesters (amorphous solid state) with approx. 30% carbon fibres. Density approx. 1.47 g/cm³.
LCP(Ultrax krist) Liquid crystalline aryl copolyesters (semi-crystalline solid state). Density 1.39...1.40 g/cm³. Melting temperature approx. 315°C. Extreme anisotropy due to flow orientation (fiber structure).
LCP(Ultrax krist)-GF30 Liquid crystalline aryl copolyesters (semi-crystalline solid state) with approx. 30% glass fibres. Density approx. 1.62 g/cm³.
LCP(Ultrax krist)-M30 Liquid crystalline aryl copolyester (semi-crystalline solid state) with approx. 30% mineral. Density approx. 1.63 g/cm³.
LCP(Ultrax krist)-CF30 Liquid crystalline aryl copolyesters (semi-crystalline solid state) with approx. 30% carbon fibres. Density approx. 1.47 g/cm³.
LCP(Vectra A) Liquid crystalline aryl copolyesters (semi-crystalline solid state). Density approx. 1.40 g/cm³. Melting temperature approx. 280°C.Extreme anisotropy due to flow orientation (fibre structure).
LCP(Vectra A)-GF15 Liquid crystalline aryl copolyester with approx. 15% glass fibres. Density approx. 1.50 g/cm³.
LCP(Vectra A)-GF40±10 Liquid crystalline aryl copolyesters with 30...50% glass fibres. Density 1.60...1.80 g/cm³.
LCP(Vectra A)-(GF+M)50 Liquid crystalline aryl copolyester with approx. 50% glass fibre mineral mixture. Density approx. 1.80 g/cm³.
LCP(Vectra A)-M15 Liquid crystalline aryl copolyester with approx. 15% mineral. Density approx. 1.50 g/cm³.
LCP(Vectra A)-M35±5 Liquid crystalline aryl copolyester with 30...40% mineral. Density 1.65...1.70 g/cm³.
LCP(Vectra A)-MF30 Liquid crystalline aryl copolyesters with approx. 30% synthetic mineral fibres. Density approx. 1.70 g/cm³.
LCP(Vectra A)-CF30 Liquid crystalline aryl copolyesters with approx. 30% carbon fibres. Density approx. 1.50 g/cm³.
LCP(Vectra A)-AR-(GF+PTFE)35 Liquid crystalline aryl copolyester with approx. 35% glass-fibre PTFE mixture. Density approx. 1.62 g/cm³.
LCP(Vectra A)-AR-GF40+CG Liquid crystalline aryl copolyester with approx. 40% glass fibres and graphite additive. Density approx. 1.70 g/cm³.
LCP(Vectra A)-AR-(GF+M)55+CG Liquid crystalline aryl copolyester with approx. 55% glass-fibre mineral mixture and graphite additive. Density approx. 1.90 g/cm³.
LCP(Vectra A)-AR-PTFE25 Liquid crystalline aryl copolyester with approx. 25% PTFE. Density 1.50...1.54 g/cm³.
LCP(Vectra A)-CR-CG25 Liquid crystalline aryl copolyester with approx. 25% graphite. Particularly resistant to chemicals and hydrolysis. Density approx. 1.5 g/cm³.
LCP(Vectra A)-Z-GF30+CB4 Liquid crystalline aryl copolyesters with 30% glass fibres and 4% conductive carbon black as antistatic finish. Density approx. 1.61 g/cm³.
LCP(Vectra B) Liquid crystalline aryl copolyesteramide (partially crystalline solid state). Density approx. 1.4 g/cm³. Melting temperature approx. 280°C.Extreme anisotropy due to flow orientation (fibre structure).
LCP(Vectra B)-GF40±10 Liquid crystalline aryl copolyesteramide with 30...50% glass fibres. Density 1.60...1.80 g/cm³.
LCP(Vectra B)-CF30 Liquid crystalline aryl copolyesteramide with approx. 30% carbon fibres. Density approx. 1.50 g/cm³.
LCP(Vectra C) Liquid crystalline aryl copolyesters (semi-crystalline solid state). Density approx. 1.40 g/cm³. Melting temperature approx. 320 °C. Extreme anisotropy due to flow orientation (fibre structure).
LCP(Vectra C)-GF15 Liquid crystalline aryl copolyester with approx. 15% glass fibres. Density approx. 1.50 g/cm³.
LCP(Vectra C)-GF40±10 Liquid crystalline aryl copolyesters with 30...50% glass fibres. Density 1.60...1.80 g/cm³.
LCP(Vectra C)-(GF+TiO2)50 Liquid crystalline aryl copolyesters with approx. 20% glass fibres and approx. 30% titanium white. Special type to achieve high reflection and light density. Density approx. 1.96 g/cm³.
LCP(Vectra C)-M50 Liquid crystalline aryl copolyester with approx. 50% mineral. Density approx. 1.8 g/cm³.
LCP(Vectra C)-GC-M49±1 Liquid crystalline aryl copolyesters with approx. 50% special mineral to improve electrochemical electroplating properties. Density 1.85...1.93 g/cm³.
LCP(Vectra E) Liquid crystalline aryl copolyesters (semi-crystalline solid state). Density approx. 1.4 g/cm³. Melting temperature approx. 355°C.Extreme anisotropy due to flow orientation (fibre structure).
LCP(Vectra E)-GF30 Liquid crystalline aryl copolyesters with approx. 30% glass fibres. Density approx. 1.61 g/cm³.
LCP(Xydar)-GF37±8 Liquid crystalline aryl copolyesters (partially crystalline solid state) with 30...45% glass fibres. Density 1.60...1.76 g/cm³.
LCP(Xydar)-M50 Liquid crystalline aryl copolyester (partially crystalline solid state) with approx. 50% mineral. Density approx. 1.84 g/cm³.
LCP(Xydar)-(GF+M)50 Liquid crystalline aryl copolyester (partially crystalline solid state) with approx. 50% glass fibre mineral mixture. Density 1.78...1.79 g/cm³.
LPUR Linear, thermoplastic polyurethanes from hexamethylene diisocyanate and aliphatic dialcohols. Special types of different softness and impact strength by variation of the dialcohol comp... Density 1.19...1.21 g/cm³.
MABS Transparent methyl methacrylate-acrylonitrile-butadiene-styrene graft copolymer. Density 1.07...1.08 g/cm³.
MBS Methyl methacrylate-butadiene-styrene graft copolymer. Density 1.12...1.16 g/cm³.
MBS-HI High impact methyl methacrylate-butadiene-styrene graft copolymer. Density 1.08...1.12 g/cm³.
MF-(LF+MD) Moulding material made of melamine-formaldehyde resin and cellulose fibre-mineral flour mixtures. Density 1.5...1.75 g/cm³.
MF-GF Moulding material made of melamine-formaldehyde resin and glass fibres. Density 1.9...2.0 g/cm³.
MF-(GF+MD) Moulding material made of melamine-formaldehyde resin and glass-fibre mineral flour mixtures. Density 1.75...1.9 g/cm³.
MF150 Moulding material according to DIN 7708 made of melamine-formaldehyde resin and wood flour. Density 1.4...1.5 g/cm³.
MF152 Moulding material according to DIN 7708 made of melamine-formaldehyde resin and cellulose fibres. Also classified are moulding materials with a low mineral flour content that do not exactly correspond to MF152. Density 1.45...1.6 g/cm³.
MF152·7 Moulding material according to DIN 7708 made of melamine-formaldehyde resin and cellulose fibres. Approved for the production of food and drinking utensils. Density 1.45...1.6 g/cm³.
MF153 Moulding material according to DIN 7708 made of melamine-formaldehyde resin and cotton fibres and/or other organic textile fibres. Density 1.45...1.6 g/cm³.
MF154 Moulding material according to DIN 7708 made of melamine-formaldehyde resin and cotton fabric chips and/or other organic textile chips. Density 1.45...1.55 g/cm³.
MF155 Moulding material according to DIN 7708 made of melamine-formaldehyde resin and rock flour. Density 1.9...2.3 g/cm³.
MF156 Moulding material according to DIN 7708 made of melamine-formaldehyde resin and asbestos fibres. Density 1.75...1.95 g/cm³.
MF157 Moulding material according to DIN 7708 made of melamine-formaldehyde resin and asbestos fibre-wood flour mixture. Density 1.55...1.75 g/cm³.
MF158 Moulding material according to DIN 7708 made of melamine-formaldehyde resin and long-fibre asbestos. Density 1.8...2.0 g/cm³.
MMAS Methyl methacrylate-styrene copolymer. Density approx. 1.13 g/cm³.
MPF180 Moulding material according to DIN 7708 made of melamine-phenol-formaldehyde resin and wood flour. Density 1.45...1.6 g/cm³.
MPF181 Moulding material according to DIN 7708 made of melamine-phenol-formaldehyde resin and cellulose fibres. Density 1.5...1.7 g/cm³.
MPF181·5 Moulding material according to DIN 7708 made of melamine-phenol-formaldehyde resin and cellulose fibres. Electrically higher quality than MPF181. density 1.5...1.7 g/cm³.
MPF182 Moulding material according to DIN 7708 made of melamine-phenol-formaldehyde resin and wood flour-rock flour mixtures. Density 1.6...1.7 g/cm³.
MPF183 Moulding material according to DIN 7708 made of melamine-phenol-formaldehyde resin and cellulose fibre rock flour mixtures. Density 1.5...1.7 g/cm³.
PA11 Poly-11-aminoundecanamide according to DIN 16773. density 1.01...1.05 g/cm³.
PA11-GF30 Poly-11-aminoundecanamide according to DIN 16773 with approx. 30% glass fibres. Density 1.24...1.26 g/cm³.
PA11-GB30 Poly-11-aminoundecanamide according to DIN 16773 with approx. 30% glass microspheres. Density approx. 1.24 g/cm³.
PA11-AR-MoS2,CG Poly-11-aminoundecanamide with molybdenum disulphide or graphite additives. Density 1.04...1.09 g/cm³.
PA11-AR-GF25+CG Poly-11-aminoundecanamide with approx. 25% glass fibres and graphite additive. Density 1.22...1.31 g/cm³.
PA11-AR-GF45+CG Poly-11-aminoundecanamide with approx. 45% glass fibres and graphite additive. Density 1.42...1.44 g/cm³.
PA11-AR-BZ85±5+MoS2 Poly-11-aminoundecanamide with 80...90% bronze microspheres and molybdenum disulphide additive. Density 3.8...4.2 g/cm³.
PA11-GF30-FR Poly-11-aminoundecanamide with approx. 30% glass fibres and fire protection equipment. Density approx. 1.27 g/cm³.
PA11-P Poly-11-aminoundecanamide with plasticizer. Density 1.03...1.06 g/cm³.
PA12 Polylaurine lactam according to DIN 16773. density 1.01...1.03 g/cm³.
PA12-GF15 Polylaurin lactam according to DIN 16773 with approx. 15% glass fibre. Density 1.08...1.13 g/cm³.
PA12-GF25 Polylaurin lactam with approx. 25% glass fibres. Density approx. 1.17 g/cm³.
PA12-GF30 Polylaurin lactam according to DIN 16773 with approx. 30% glass fibres. Density 1.22...1.24 g/cm³.
PA12-GG30 Polylaurin lactam with approx. 30% glass fibre material. Density 1.23...1.26 g/cm³.
PA12-GF45±5 Polylaurine lactam according to DIN 16773 with 40...50% glass fibres. Density 1.33...1.45 g/cm³.
PA12-GB30 Polylaurin lactam according to DIN 16773 with approx. 30% glass microspheres. Density 1.22...1.26 g/cm³.
PA12-GB50 Polylaurin lactam according to DIN 16773 with approx. 50% glass microspheres. Density 1.44...1.46 g/cm³.
PA12-CF15 Polylaurin lactam with approx. 15% carbon fibres. Density approx. 1.08 g/cm³.
PA12-CF25±5 Polylaurine lactam with 20...30% carbon fibres. Density 1.10...1.16 g/cm³.
PA12-BaFe magnet Magnetizable polylaurine lactam highly filled with barium ferrite. Density 2.35...3.35 g/cm³.
PA12-AR-MoS2,CG Polylaurin lactam with minor additives of molybdenum disulphide or graphite. Density 1.02...1.06 g/cm³.
PA12-AR-PTFE20 Polylaurine lactam with approx. 20% PTFE. Density approx. 1.14 g/cm³.
PA12-AR-CG25 Polylaurin lactam with approx. 25% graphite additive. Density approx. 1.16 g/cm³.
PA12-AR-GF25+CG Polylaurin lactam with approx. 25% glass fibres and graphite additive. Density 1.20...1.22 g/cm³.
PA12-AR-GF30+PTFE15 Polylaurin lactam with approx. 30% glass fibres and 15% PTFE. Density 1.37...1.38 g/cm³.
PA12-AR-GF45+CG Polylaurin lactam with approx. 45% glass fibres and graphite additive. Density 1.39...1.41 g/cm³.
PA12-FR Polylaurine lactam according to DIN 16773 with fire protection equipment. Density 1.05...1.08 g/cm³.
PA12-G High molecular weight cast polyamide from laurinlactam. Density 1.03...1.04 g/cm³.
PA12-P Polylaurin lactam with various plasticizer additives, possibly also impact modified. Density 0.95...1.04 g/cm³.
PA12-P-Y-CB Plasticizer-containing polylaurine lactam with conductivity carbon black additive. Density 1.16...1.18 g/cm³.
PA12-P-Z Plasticizer-containing polylaurine lactam with antistatic finish. Density 1.07...1.12 g/cm³.
PA12-Y Electrically conductive polylaurine lactam with high heat resistance and stiffness. Density approx. 1.16 g/cm³.
PA12-Y-CB Polylaurin lactam with special conductive carbon black additive. Density 1.10...1.16 g/cm³.
PA12-Z-CB Polylaurin lactam with antistatic finish by addition of carbon black. Density 1.06...1.10 g/cm³.
PA12-Z-GF30+CB Polylaurin lactam with approx. 30% glass fibres and antistatic treatment with carbon black additive. Density 1.27...1.28 g/cm³.
PA46 Polytetramethylene adipamide. Density approx. 1.18 g/cm³.
PA46-GF30 Polytetramethylene adipamide with approx. 30% glass fibres. Density 1.40...1.42 g/cm³.
PA46-M40 Polytetramethylene adipamide with approx. 40% mineral. Density 1.50...1.52 g/cm³.
PA46-FR Polytetramethylene adipamide with fire protection equipment. Density approx. 1.38 g/cm³.
PA46-GF30-FR Polytetramethylene adipamide with approx. 30% glass fibres and fire protection equipment. Density approx. 1.68 g/cm³.
PA6 Polycaprolactam according to DIN 16773. density 1.12...1.14 g/cm³.
PA6-GF15±5 Polycaprolactam according to DIN 16773 with 10...20% glass fibres. Density 1.21...1.29 g/cm³.
PA6-GF30±5 Polycaprolactam according to DIN 16773 with 25...35% glass fibres. Density 1.30...1.40 g/cm³.
PA6-GF45±5 Polycaprolactam with 40...50% glass fibres. Density 1.45...1.58 g/cm³.
PA6-GF60 Polycaprolactam according to DIN 16773 with approx. 60% glass fibres. Density approx. 1.7 g/cm³.
PA6-(GF+GB)35±5 Polycaprolactam with 30...40% glass-fibre glass microsphere mixture. Density 1.34...1.44 g/cm³.
PA6-(GF+M)35±5 Polycaprolactam with 30...40% glass-fibre mineral mixture. Density 1.36...1.52 g/cm³.
PA6-GB20 Polycaprolactam according to DIN 16773 with approx. 20% glass microspheres. Density 1.25...1.28 g/cm³.
PA6-GB30±5 Polycaprolactam according to DIN 16773 with 25...35% glass microspheres. Density 1.30...1.39 g/cm³.
PA6-GB50 Polycaprolactam according to DIN 16773 with approx. 50% glass microspheres. Density approx. 1.55 g/cm³.
PA6-M20 Polycaprolactam according to DIN 16773 with approx. 20% mineral. Density 1.27...1.29 g/cm³. Heat deflection temperature depends to a large extent on the type of mineral.
PA6-M30 Polycaprolactam according to DIN 16773 with approx. 30% mineral. Density 1.34...1.38 g/cm³. Heat deflection temperature depends to a large extent on the type of mineral.
PA6-M40 Polycaprolactam according to DIN 16773 with approx. 40% mineral. Density 1.46...1.49 g/cm³. Heat deflection temperature depends to a large extent on the type of mineral.
PA6-M50 Polycaprolactam according to DIN 16773 with approx. 50% mineral. Density 1.60...1.62 g/cm³. Heat deflection temperature depends to a large extent on the type of mineral.
PA6-CF15±5 Polycaprolactam according to DIN 16773 with 10...20% carbon fibres. Density 1.18...1.21 g/cm³.
PA6-CF35±5 Polycaprolactam according to DIN 16773 with 30...40% carbon fibres. Density 1.26...1.34 g/cm³.
PA6-GM30±5 Mat-reinforced polycaprolactam with 25...35% glass fibre content. Density 1.30...1.40 g/cm³. Processing by extrusion.
PA6-3-T Polytrimethylhexamethylene terephthalamide according to DIN 16773, density approx. 1.12 g/cm³.
PA6-3-T-GF35 Polytrimethylhexamethylene terephthalamide according to DIN 16773 with approx. 35% glass fibres. Density approx. 1.4 g/cm³.
PA6-AR-MoS2,SILIKON,CG Polycaprolactam with friction- and wear-reducing additives (molybdenum disulfide; silicone; graphite). Density 1.12...1.19 g/cm³.
PA6-AR-PTFE15±5,SILIKON Polycaprolactam with 10...20% PTFE and silicone additives. Density 1.23...1.26 g/cm³.
PA6-AR-GF30+MoS2 Polycaprolactam with approx. 30% glass fibres and additives of molybdenum disulphide. Density 1.36...1.43 g/cm³.
PA6-AR-GF30+PTFE13±3 Polycaprolactam with approx. 30% glass fibres and 10...16% PTFE and possibly silicone additives. Density 1.44...1.49 g/cm³.
PA6-AR-GF40+MoS2 Polycaprolactam with approx. 40% glass fibres and molybdenum disulphide additive. Density approx. 1.52 g/cm³.
PA6-EMI-CF50 Polycaprolactam with approx. 50% carbon fibres. Special type for electromagnetic shielding. Density 1.38...1.40 g/cm³.
PA6-FR Polycaprolactam according to DIN 16773 with fire protection equipment. Density 1.16...1.19 g/cm³.
PA6-GF20-FR Polycaprolactam according to DIN 16773 with approx. 20% glass fibres and fire protection equipment. Density 1.42...1.46 g/cm³.
PA6-GF30±5-FR Polycaprolactam according to DIN 16773 with 25...35% glass fibres and fire protection equipment. Density 1.32...1.65 g/cm³.
PA6-M30-FR Polycaprolactam according to DIN 16773 with approx. 30% mineral and fire protection equipment. Density 1.45...1.56 g/cm³. Heat resistance depends to a large extent on the type of mineral.
PA6-G High molecular weight cast polyamide based on caprolactam. Density 1.135...1.155 g/cm³.
PA6-HI Elastomer and/or polyolefin modified polycaprolactam. Density 1.05...1.13 g/cm³.
PA6-HI-GF15±5 Elastomer and/or polyolefin modified polycaprolactam with 10...20% glass fibres. Density 1.19...1.27 g/cm³.
PA6-HI-GF30±5 Elastomer and/or polyolefin modified polycaprolactam with 25...35% glass fibres. Density 1.30...1.40 g/cm³.
PA6-HI-GF45±5 Elastomer and/or polyolefin modified polycaprolactam with 40...50% glass fibres. Density 1.44...1.58 g/cm³.
PA6-HI-(GF+M)30 Elastomer and/or polyolefin modified polycaprolactam with approx. 30% glass fibre mineral mixture. Density 1.33...1.36 g/cm³.
PA6-HI-GB30±5 Elastomer and/or polyolefin modified polycaprolactam with 25...35% glass microspheres. Density 1.28...1.41 g/cm³.
PA6-HI-M30 Elastomer and/or polyolefin modified polycaprolactam with approx. 30% mineral. Density approx. 1.35 g/cm³. Heat resistance depends to a large extent on the type of mineral.
PA6-I Polyhexamethylene isophthalamide. Density approx. 1.18 g/cm³.
PA6-P Polycaprolactam containing plasticizer. Density 1.08...1.12 g/cm³.
PA6/66 Copolyamide 6/66 according to DIN 16773, density 1.13 - 1.14 g/cm³.
PA6/6T Copolyamide of caprolactam, hexamethylene diamine and terephthalic acid. Density approx. 1.18 g/cm³.
PA6/6T-GF30±5 Copolyamide of caprolactam, hexamethylene diamine and terephthalic acid with 25...35% glass fibres. Density 1.35...1.45 g/cm³.
PA6/6T-M30 Copolyamide of caprolactam, hexamethylene diamine and terephthalic acid with approx. 30% mineral. Density approx. 1.41 g/cm³.
PA6/6T-CF30 Copolyamide of caprolactam, hexamethylene diamine and terephthalic acid with approx. 30% carbon fibres. Density approx. 1.32 g/cm³.
PA6/6T-GF25-FR Copolyamide of caprolactam, hexamethylene diamine and terephthalic acid with approx. 25% glass fibres and phosphorus fire protection finish. Density 1.38...1.40 g/cm³.
PA6/6T-HI-GF30 Impact modified copolyamide of caprolactam, hexamethylene diamine and terephthalic acid with approx. 30% glass fibres. Density approx. 1.39 g/cm³.
PA610 Polyhexamethylene ebacamide according to DIN 16773. density 1.06...1.09 g/cm³.
PA610-MoS2,SILIKON Polyhexamethylene ebacamide according to DIN 16773 with molybdenum disulphide and/or silicone additives. Density 1.07...1.13 g/cm³.
PA610-PTFE20+SILIKON Polyhexamethylene ebacamide with approx. 20% PTFE and possibly silicone additives. Density 1.19...1.20 g/cm³.
PA610-GF15±5 Polyhexamethylene ebacamide according to DIN 16773 with 10...20% glass fibres. Density 1.15...1.22 g/cm³.
PA610-GF30 Polyhexamethylene ebacamide according to DIN 16773 with approx. 30% glass fibres. Density approx. 1.3 g/cm³.
PA610-GF30+PTFE15 Polyhexamethylene ebacamide with approx. 30% glass fibres and approx. 15% PTFE and possibly silicone additives. Density 1.43...1.45 g/cm³.
PA610-GF45±5 Polyhexamethylene ebacamide according to DIN 16773 with 40...50% glass fibres. Density 1.41...1.53 g/cm³.
PA610-GF60 Polyhexamethylene ebacamide according to DIN 16773 with approx. 60% glass fibres. Density approx. 1.65 g/cm³.
PA610-CF35±5 Polyhexamethylene ebacamide according to DIN 16773 with 30...40% carbon fibres. Density 1.23...1.29 g/cm³.
PA610-EMI-CF50 Polyhexamethylene ebacamide with approx. 50% carbon fibres. Special type for electromagnetic shielding. Density approx. 1.34 g/cm³.
PA610-GF30-FR Polyhexamethylene ebacamide with approx. 30% glass fibres and fire protection equipment. Density approx. 1.58 g/cm³.
PA612 Polyhexamethylene dodecanamide according to DIN 16773, density 1.03 - 1.07 g/cm³.
PA612-GF15±5 Polyhexamethylene dodecanamide according to DIN 16773 with 10...20% glass fibres. Density 1.14...1.21 g/cm³.
PA612-GF30±5 Polyhexamethylene dodecanamide according to DIN 16773 with 25...35% glass fibres. Density 1.25...1.37 g/cm³.
PA612-GF45±5 Polyhexamethylene dodecanamide according to DIN 16773 with 40...50% glass fibres. Density 1.40...1.50 g/cm³.
PA612-GF60 Polyhexamethylene dodecanamide with approx. 60% glass fibres. Density 1.63...1.65 g/cm³.
PA612-CF35±5 Polyhexamethylene dodecanamide with 30...40% carbon fibres. Density 1.22...1.29 g/cm³.
PA612-AR-MoS2,SILIKON Polyhexamethylene dodecanamide with additives of molybdenum disulphide and/or silicone. Density 1.05...1.12 g/cm³.
PA612-AR-PTFE20+SILIKON Polyhexamethylene dodecanamide with approx. 20% PTFE and possibly silicone additives. Density 1.17...1.19 g/cm³.
PA612-AR-GF30+PTFE15 Polyhexamethylene dodecanamide with approx. 30% glass fibres and approx. 15% PTFE and possibly silicone additives. Density 1.41...1.43 g/cm³.
PA612-HI Impact modified polyhexamethylene dodecanamide. Density approx. 1.06 g/cm³.
PA66 Polyhexamethylene adipamide according to DIN 16773. density 1.13 - 1.15 g/cm³.
PA66-GF15±5 Polyhexamethylene adipamide according to DIN 16773 with 10...20% glass fibres. Density 1.20...1.29 g/cm³.
PA66-GF30±5 Polyhexamethylene adipamide according to DIN 16773 with 25...35% glass fibres. Grades with increased hydrolysis and glycol resistance available. Density 1.30...1.42 g/cm³.
PA66-GF45±5 Polyhexamethylene adipamide according to DIN 16773 with 40...50% glass fibres. Density 1.45...1.58 g/cm³.
PA66-GF60 Polyhexamethylene adipamide according to DIN 16773 with approx. 60% glass fibres. Density 1.68...1.70 g/cm³.
PA66-(GF+GB)30±5 Polyhexamethylene adipamide according to DIN 16773 with 25...35% glass-fibre glass microsphere mixture. Density 1.36...1.42 g/cm³.
PA66-GB15 Polyhexamethylene adipamide according to DIN 16773 with approx. 15% glass microspheres. Density approx. 1.24 g/cm³.
PA66-GB35±5 Polyhexamethylene adipamide according to DIN 16773 with 30...40% glass microspheres. Density 1.34...1.49 g/cm³.
PA66-GB50 Polyhexamethylene adipamide according to DIN 16773 with approx. 50% glass microspheres. Density 1.56...1.58 g/cm³.
PA66-GF10±5+M30±5 Polyhexamethylene adipamide according to DIN 16773 with 5...15% glass fibres and 25...35% mineral. Density 1.39...1.55 g/cm³.
PA66-GF25+M15 Polyhexamethylene adipamide according to DIN 16773 with approx. 25% glass fibres and approx. 15% mineral. Density 1.46...1.49 g/cm³.
PA66-M25 Polyhexamethylene adipamide according to DIN 16773 with approx. 25% mineral. Density approx. 1.35 g/cm³.
PA66-M35±5 Polyhexamethylene adipamide according to DIN 16773 with 30...40% mineral. Density 1.34...1.50 g/cm³. Heat resistance depends to a large extent on the type of mineral.
PA66-M50 Polyhexamethylene adipamide with approx. 50% mineral. Density 1.60...1.63 g/cm³.
PA66-T40 Polyhexamethylene adipamide according to DIN 16773 with approx. 40% talcum. Density 1.36...1.49 g/cm³.
PA66-GF15+CF15 Polyhexamethylene adipamide with approx. 15% glass fibres and approx. 15% carbon fibres. Density 1.30...1.32 g/cm³.
PA66-CF15±5 Polyhexamethylene adipamide according to DIN 16773 with 10...20% carbon fibres. Density 1.17...1.24 g/cm³.
PA66-CF30 Polyhexamethylene adipamide according to DIN 16773 with approx. 30% carbon fibres. Density 1.25...1.29 g/cm³.
PA66-CF40 Polyhexamethylene adipamide according to DIN 16773 with approx. 40% carbon fibres. Density 1.33...1.35 g/cm³.
PA66-RF15±5 Polyhexamethylene adipamide with 10...20% aramide fibres. Density 1.17...1.20 g/cm³.
PA66-AR-PE-UHMW Polyhexamethylene adipamide with additives of high-molecular polyethylene to improve friction and wear behaviour. Density 1.10...1.12 g/cm³.
PA66-AR-MoS2;SILIKON Polyhexamethylene adipamide according to DIN 16773 with molybdenum disulphide or silicone additive to improve sliding properties. Density 1.10...1.22 g/cm³.
PA66-AR-PTFE15±5+SILIKON Polyhexamethylene adipamide with 10...20% PTFE and silicone or molybdenum disulphide additives. Density 1.20...1.28 g/cm³.
PA66-AR-CG5 Polyhexamethylene adipamide according to DIN 16773 with approx. 5% graphite additive. Density 1.15...1.16 g/cm³.
PA66-AR-GF15±5+PTFE15±3 Polyhexamethylene adipamide with 10...20% glass fibers and 12...18% PTFE and optionally silicone or molybdenum disulphide additives. Density 1.30...1.45 g/cm³.
PA66-AR-GF35±5+SILIKON Polyhexamethylene adipamide with 30...40% glass fibres and silicone or molybdenum disulphide additives. Density 1.37...1.52 g/cm³.
PA66-AR-GF35±5+PTFE15±3 Polyhexamethylene adipamide with 30...40% glass fibers and 12...18% PTFE and possibly silicone additives. Density 1.42...1.60 g/cm³.
PA66-AR-GB30+PTFE15 Polyhexamethylene adipamide with approx. 30% glass microspheres and approx. 15% PTFE and silicone additives. Density approx. 1.45 g/cm³.
PA66-AR-M20+CG15 Polyhexamethylene adipamide with 20% mineral and 15% graphite. Density 1.48...1.50 g/cm³.
PA66-AR-CF30+PTFE15 Polyhexamethylene adipamide according to DIN 16773 with approx. 30% carbon fibres and 15% PTFE and possibly silicone additives. Density 1.36...1.39 g/cm³.
PA66-AR-CF15±5+PTFE15±5 Polyhexamethylene adipamide with 10...20% carbon fibers and 10...20% PTFE and possibly silicone additives. Density 1.24...1.31 g/cm³.
PA66-EMI-CF55±5 Polyhexamethylene adipamide with 50...60% carbon fibres. Special type with electromagnetic shielding effect. Density 1.39...1.46 g/cm³.
PA66-EMI-Al-F35±5 Polyhexamethylene adipamide with 30...40% aluminium flakes for electromagnetic shielding effect. Density 1.38...1.48 g/cm³.
PA66-FR Polyhexamethylene adipamide according to DIN 16773 with fire protection equipment. Density 1.14...1.25 g/cm³.
PA66-GF15±5-FR Polyhexamethylene adipamide according to DIN 16773 with 10...20% glass fibres and fire protection equipment. Density 1.30...1.56 g/cm³.
PA66-GF30±5-FR Polyhexamethylene adipamide according to DIN 16773 with 25...35% glass fibres and fire protection equipment. Density 1.33...1.75 g/cm³.
PA66-GF50-FR Polyhexamethylene adipamide according to DIN 16773 with approx. 50% glass fibres and fire protection equipment. Density 1.58...1.60 g/cm³.
PA66-(GF+GB)30±5-FR Polyhexamethylene adipamide according to DIN 16773 with 25...35% glass-fibre glass microsphere mixture and fire protection equipment. Density 1.40...1.55 g/cm³.
PA66-M30±5-FR Polyhexamethylene adipamide according to DIN 16773 with 25...35% mineral and fire protection finish. Density 1.51...1.55 g/cm³. Heat resistance depends to a large extent on the type of mineral.
PA66-CF20-FR Polyhexamethylene adipamide with approx. 20% carbon fibres and fire protection equipment. Density 1.40...1.43 g/cm³.
PA66-HI Elastomer- and polyolefin-modified polyhexamethylene adipamide. Density 1.04...1.13 g/cm³.
PA66-HI-GF13±3 Elastomer and/or polyolefin modified polyhexamethylene adipamide with 10...16% glass fibres. Density 1.14...1.26 g/cm³.
PA66-HI-GF20 Elastomer and/or polyolefin modified polyhexamethylene adipamide with approx. 20% glass fibres. Density 1.18...1.21 g/cm³.
PA66-HI-GF35±5 Elastomer and/or polyolefin modified polyhexamethylene adipamide with 30...40% glass fibres. Density 1.22...1.40 g/cm³.
PA66-HI-GB30 Elastomer and/or polyolefin modified polyhexamethylene adiapamide with approx. 30% glass microspheres. Density 1.31...1.35 g/cm³.
PA66-HI-M15 Elastomer and/or polyolefin modified polyhexamethylene adipamide with approx. 15% mineral. Density 1.18...1.20 g/cm³. Heat resistance depends to a large extent on the type of mineral.
PA66-HI-M25±5 Elastomer and/or polyolefin modified polyhexamethylene adipamide with 20...30% mineral. Density 1.20...1.36 g/cm³. Heat resistance depends to a large extent on the type of mineral.
PA66-HI-M40 Elastomer and/or polyolefin modified polyhexamethylene adipamide with approx. 40% mineral. Density 1.47...1.50 g/cm³. Heat resistance depends to a large extent on the type of mineral.
PA66-HI-CF20 Elastomer and/or polyolefin modified polyhexamethylene adipamide with approx. 20% carbon fibres. Density approx. 1.13 g/cm³.
PA66-HI-CF30 Elastomer and/or polyolefin modified polyhexamethylene adipamide with approx. 30% carbon fibres. Density 1.24...1.27 g/cm³.
PA66-HI-AR-MoS2;SILIKON Elastomer and/or polyolefin modified polyhexamethylene adipamide with molybdenum disulphide or silicone additives. Density 1.10...1.15 g/cm³.
PA66-HI-AR-PTFE15±5 Elastomer and/or polyolefin modified polyhexamethylene adipamide with 10...20% PTFE and silicone additives. Density 1.14...1.19 g/cm³.
PA66-HI-AR-GF30+SILIKON Elastomer and/or polyolefin modified polyhexamethylene adipamide with approx. 30% glass fibres and silicone or molybdenum disulphide additives. Density 1.38...1.42 g/cm³.
PA66-HI-FR Elastomer and/or polyolefin modified polyhexamethylene adipamide with fire protection finish. Density 1.10...1.15 g/cm³.
PA66-HI-GF25-FR Elastomer and/or polyolefin modified polyhexamethylene adipamide with approx. 25% glass fibres and fire protection finish. Density 1.32...1.44 g/cm³.
PA66-P Plasticizer-containing polyhexamethylene adipamide. Density 1.10...1.15 g/cm³.
PA66-Y-CB Electrically conductive polyhexamethylene adipamide with soot additive. Density 1.14...1.18 g/cm³.
PA66/6 Copolyamide 66/6 according to DIN 16773, density 1.13 - 1.14 g/cm³.
PA66/6-GF17±3 Copolyamide 66/6 with 14...20% glass fibres. Density 1.22...1.29 g/cm³.
PA66/6-GF30±5 Copolyamide 66/6 with 25...35% glass fibres. Density 1.31...1.41 g/cm³.
PA66/6-GF45±5 Copolyamide 66/6 with 40...50% glass fibres. Density 1.45...1.58 g/cm³.
PA66/6-GF25+M15 Copolyamide 66/6 with 25% glass fibres and 15% mineral. Density approx. 1.47 g/cm³.
PA66/6-(GF+M)25±5 Copolyamide 66/6 with 20...30% glass-fibre mineral mixture with a predominant mineral content. Density 1.28...1.38 g/cm³. Heat resistance depends to a large extent on the type of mineral.
PA66/6-GB17±3 Copolyamide 66/6 with 14...20% glass microspheres. Density 1.24...1.28 g/cm³.
PA66/6-GB30±5 Copolyamide 66/6 with 25...35% glass microspheres. Density 1.30...1.43 g/cm³.
PA66/6-M20 Copolyamide 66/6 with approx. 20% mineral. Density 1.27...1.29 g/cm³.
PA66/6-M35±5 Copolyamide 66/6 with 30...40% mineral. Density 1.35...1.50 g/cm³.
PA66/6-M50 Copolyamide 66/6 with approx. 50% mineral. Density 1.60...1.63 g/cm³.
PA66/6-FR Copolyamide 66/6 according to DIN 16773 with fire protection equipment. Density 1.16...1.24 g/cm³.
PA66/6-GF25-FR Copolyamide 66/6 with approx. 25% glass fibres and fire protection equipment. Density approx. 1.44 g/cm³.
PA66/6-HI Elastomer and/or polyolefin modified copolyamide 66/6. density 1.05...1.13 g/cm³.
PA66/6-HI-M15 Elastomer-modified copolyamide 66/6 with approx. 15% mineral. Density 1.19...1.22 g/cm³.
PA66/6-HI-M30 Elastomer and/or polyolefin modified copolyamide 66/6 with approx. 30% mineral. Density 1.35...1.37 g/cm³. Heat resistance depends to a large extent on the type of mineral.
PA66/6-HI-M40 Elastomer and/or polyolefin modified copolyamide 66/6. density approx. 1.35 g/cm³.
PAEK-Cop-GF40 Polyaryletherketone copolymer with dominant ether-ether-ketone structure and approx. 40% glass fibres. Density approx. 1.6 g/cm³.
PAEK-Cop-CF30 Polyaryletherketone copolymer with dominant ether-ether-ketone structure and approx. 30 % carbon fibres. Density approx. 1.44 g/cm³.
PAI-TiO2+PTFE Polyamidimide with minor additives of titanium white (approx. 3%) and PTFE (approx. 0.5%). Density 1.38...1.42 g/cm³.
PAI-GF35±5+PTFE Polyamidimide with 30...40% glass fibers and possibly small PTFE additives (approx. 1%). Density 1.56...1.66 g/cm³.
PAI-CF30+PTFE Polyamidimide with approx. 30% carbon fibers and low PTFE additives (approx. 1%). Density 1.42...1.50 g/cm³.
PAI-AR-CG15±5+PTFE5±3 Polyamidimide with 10...20% graphite and 3...8% PTFE. Density 1.43...1.51 g/cm³.
PAMDX6-GF35±5 Polyxylylene adipamide with 30...40% glass fibres. Density 1.32...1.53 g/cm³.
PAMDX6-GF45+CF3 Polyxylylene adipamide with approx. 45% glass fibres and 3% carbon fibres. Density approx. 1.61 g/cm³.
PAMDX6-GF55±5 Polyxylylene adipamide with 50...60% glass fibres. Density 1.53...1.77 g/cm³.
PAMDX6-GF20+M35 Polyxylylene adipamide with 20% glass fibres and approx. 35% mineral. Density approx. 1.73 g/cm³.
PAMDX6-M40 Polyxylylene adipamide with approx. 40% mineral. Density approx. 1.63 g/cm³.
PAMDX6-CF30 Polyxylylene adipamide with approx. 30% carbon fibres. Density approx. 1.33 g/cm³.
PAMDX6-GF20+PTFE20-FR Polyxylylene adipamide with approx. 20% glass fibres and 20% PTFE as well as fire protection equipment. Density approx. 1.49 g/cm³.
PAMDX6-GF35±5-FR Polyxylylene adipamide with 30...40% glass fibres and fire protection equipment. Density 1.5...1.6 g/cm³.
PAMDX6-GF50-FR Polyxylylene adipamide with approx. 50% glass fibres and fire protection equipment. Density approx. 1.69 g/cm³.
PAMDX6-GF40-FR Polyxylylene adipamide with approx. 40% glass fibres and antistatic and fire protection finish. Density approx. 1.76 g/cm³.
PAMDX6-HI Impact modified polyxylylene adipamide. Density approx. 1.17 g/cm³.
PAMDX6-HI-GF40 Impact modified polyxylylene adipamide with approx. 40% glass fibres. Density approx. 1.42 g/cm³.
PAMDX6-Z-GF40 Polyxylylene adipamide with approx. 40% glass fibres and antistatic finish. Density approx. 1.64 g/cm³.
PAPA Amorphous copolyamide of aromatic, aliphatic and cycloaliphatic monomers. Density approx. 1.06 g/cm³.
PAPA-GF20 Amorphous partly aromatic copolyamide with approx. 20% glass fibres. Density approx. 1.19 g/cm³.
PAPA-GF35±5 Amorphous partly aromatic copolyamide with 30...40% glass fibres. Density approx. 1.28...1.43 g/cm³.
PAPA-GF55±5 Amorphous partly aromatic copolyamide with 50...60% glass fibres. Density 1.56...1.65 g/cm³.
PAPA-Blend Blends based on partially aromatic amorphous copolyamides with good transparency. Density 1.04...1.05 g/cm³.
PB Isotactic polybutene-1. density 0.89...0.92 g/cm³. Stable crystal modification of the higher density only occurs after several days of storage at room temperature.
PBI Polybenzimidazole. Density approx. 1.3 g/cm³.
PBT Polybutylene terephthalate according to DIN 16779, density 1.30 - 1.32 g/cm³.
PBT-GF15±5 Polybutylene terephthalate according to DIN 16779 with 10...20% glass fibres. Density 1.37...1.47 g/cm³.
PBT-GF30±5 Polybutylene terephthalate according to DIN 16779 with 25...35% glass fibres. Density 1.49...1.60 g/cm³.
PBT-GF45±5 Polybutylene terephthalate according to DIN 16779 with 40...50% glass fibres (also elastomer modified). Density 1.57...1.72 g/cm³.
PBT-(GF+M)32±3 Polybutylene terphthalate according to DIN 16779 with 30...35% glass-fibre mineral mixture. Density 1.52...1.55 g/cm³.
PBT-(GF+M)45±5 Polybutylene terphthalate according to DIN 16779 with 40...50% glass-fibre mineral mixture. Density 1.60...1.83 g/cm³.
PBT-(GF+GB)35±5 Polybutylene terephthalate according to DIN 16779 with 30...40% glass-fibre glass microsphere mixture. Density 1.52...1.62 g/cm³.
PBT-GB20 Polybutylene terephthalate according to DIN 16779 with approx. 20% micro glass beads. Density 1.40...1.47 g/cm³.
PBT-GB35±5 Polybutylene terephthalate according to DIN 16779 with 30...40% micro glass fibres. Density 1.52...1.62 g/cm³.
PBT-TiO2 Polybutylene terephthalate according to DIN 16779 with 20...25% titanium dioxide to achieve high reflection and light density. Density 1.53...1.57 g/cm³.
PBT-M25±5 Polybutylene terephthalate according to DIN 16779 with 20...30% minerals. Density 1.47...1.56 g/cm³.
PBT-M40 Polybutylene terephthalate according to DIN 16779 with approx. 40% mineral. Density approx. 1.67 g/cm³.
PBT-M60 Polybutylene terephthalate according to DIN 16779 with approx. 60% mineral. Density approx. 2.4 g/cm³.
PBT-CF25±5 Polybutylene terephthalate according to DIN 16779 with 20...30% carbon fibres. Density 1.37...1.41 g/cm³.
PBT-GM30±5 Mat-reinforced polybutylene terephthalate with 25...35% glass fibre content. Density 1.49...1.60 g/cm³. Processing by extrusion.
PBT polmod Polymer-modified polybutylene terephthalate. Density 1.26...1.28 g/cm³.
PBT polmod-GF30 Polymer-modified polybutylene terephthalate with approx. 30% glass fibres. Density 1.5...1.55 g/cm³.
PBT polmod-GF45 Polymer-modified polybutylene terephthalate with approx. 45% glass fibres. Density approx. 1.7 g/cm³.
PBT polmod-FR Polymer-modified polybutylene terephthalate with fire protection equipment. Density approx. 1.38 g/cm³.
PBT polmod-GF30-FR Polymer-modified polybutylene terephthalate with approx. 30% glass fibres and fire protection equipment. Density approx. 1.66 g/cm³.
PBT-AR,FR-GF30+PTFE15 Polybutylene terephthalate with approx. 30% glass fibres and approx. 15% friction- and wear-reducing additives of PTFE and silicone as well as with or without fire protection equipment. Density 1.61...1.66 g/cm³.
PBT-EMI-Al-F40 Polybutylene terephthalate according to DIN 16779 with approx. 40% aluminium flakes for electromagnetic shielding effect. Density approx. 1.66 g/cm³.
PBT-FR Polybutylene terephthalate according to DIN 16779 with fire protection equipment. Density 1.41...1.50 g/cm³.
PBT-GF7,5-FR Polybutylene terephthalate according to DIN 16779 with approx. 7.5% glass fibres and fire protection equipment. Density approx. 1.43 g/cm³.
PBT-GF15±5-FR Polybutylene terephthalate according to DIN 16779 with 10...20% glass fibres and fire protection equipment. Density 1.41...1.70 g/cm³.
PBT-GF30-FR Polybutylene terephthalate according to DIN 16779 with approx. 30% glass fibres and fire protection equipment. Density 1.58...1.72 g/cm³.
PBT-GF47±3-FR Polybutylene terephthalate according to DIN 16779 with approx. 50% glass fibres and fire protection equipment. Density 1.84...1.87 g/cm³.
PBT-(GF+M)30-FR Polybutylene terphthalate according to DIN 16779 with approx. 30% glass fibre-mineral mixture and fire protection equipment. Density 1.60...1.74 g/cm³.
PBT-(GF+M)45±5-FR Polybutylene terephthalate according to DIN 16779 with 40...50% glass-fibre mineral mixture and fire protection equipment. Density 1.66...1.87 g/cm³.
PBT-(GF+GB)30-FR Polybutylene terphthalate according to DIN 16779 with approx. 30% glass-fibre glass microsphere mixture and fire protection equipment. Density approx. 1.65 g/cm³.
PBT-M25-FR Polybutylene terephthalate according to DIN 16779 with approx. 25% mineral and fire protection equipment. Density approx. 1.55 g/cm³.
PBT-M40-FR Polybutylene terephthalate according to DIN 16779 with approx. 40% mineral and fire protection equipment. Density 1.88...1.90 g/cm³.
PBT-CF25±5-FR Polybutylene terephthalate according to DIN 16779 with 20...30% carbon fibres and fire protection equipment. Density 1.42...1.45 g/cm³.
PBT-HI Elastomer-modified polybutylene terephthalate. Density 1.17...1.29 g/cm³.
PBT-HI-GF7,5 Elastomer-modified polybutylene terephthalate with approx. 7.5% glass fibres. Density 1.29...1.31 g/cm³.
PBT-HI-GF15±5 Elastomer-modified polybutylene terephthalate with 10...20% glass fibres. Density 1.31...1.40 g/cm³.
PBT-HI-GF30 Elastomer-modified polybutylene terephthalate with approx. 30% glass fibres. Density 1.44...1.53 g/cm³.
PBT-HI-M12±2 Elastomer-modified polybutylene terephthalate with 10...14% mineral. Density 1.31...1.38 g/cm³.
PBT-HI-M30 Elastomer-modified polybutylene terephthalate with approx. 30% mineral. Density approx. 1.46 g/cm³.
PBT-HI-FR Elastomer-modified polybutylene terephthalate with fire protection equipment. Density 1.34...1.38 g/cm³.
PBT-HI-GF15±5-FR Elastomer-modified polybutylene terephthalate with 10...20% glass fibres and fire protection equipment. Density 1.41...1.61 g/cm³.
PBT-HI-GF30-FR Elastomer-modified polybutylene terephthalate with approx. 30% glass fibres and fire protection equipment. Density approx. 1.56 g/cm³.
PC Polycarbonate according to DIN 7744, density approx. 1.20 g/cm³.
PC-GF15±5 Polycarbonate according to DIN 7744 with 10...20% glass fibres. Density 1.25...1.37 g/cm³.
PC-GF30 Polycarbonate according to DIN 7744 with approx. 30% glass fibres. Density 1.42...1.44 g/cm³.
PC-GF40±5 Polycarbonate according to DIN 7744 with 35...45% glass fibres. Density 1.47...1.57 g/cm³.
PC-GG25±5 Polycarbonate according to DIN 7744 with 20...30% short glass fibres or glass fibre regrind. Density 1.32...1.48 g/cm³.
PC-GF15±5+CF10±5 Polycarbonate according to DIN 7744 with 10...20% glass fibres and 5...15% carbon fibres. Density 1.28...1.42 g/cm³.
PC-CF20±5 Polycarbonate according to DIN 7744 with 15...25% carbon fibres. Density 1.25...1.30 g/cm³.
PC-CF35±5 Polycarbonate according to DIN 7744 with 30...40% carbon fibres. Density 1.32...1.38 g/cm³.
PC-TiO2 Polycarbonate according to DIN 7744 with approx. 15% titanium dioxide to achieve high reflection and light density. Density 1.33...1.35 g/cm³.
PC-AR-GF25±5+PTFE15±5 Polycarbonate according to DIN 7744 with 20...30% glass fibres and 10...20% PTFE. Density 1.38...1.55 g/cm³.
PC-AR-PTFE13±7,SILIKON Polycarbonate according to DIN 7744 with 5...20% PTFE, if necessary in combination with silicone additives. Density 1.22...1.35 g/cm³.
PC-EMI-Al-F35±5 Polycarbonate according to DIN 7744 with 30...40% aluminium flakes for electromagnetic shielding effect. Density 1.44...1.54 g/cm³.
PC-FR-V2,V0 Polycarbonate according to DIN 7744 with fire protection equipment. Density 1.20...1.25 g/cm³.
PC-GF15±5-FR Polycarbonate according to DIN 7744 with 10...20% glass fibres and fire protection equipment. Density 1.25...1.39 g/cm³.
PC-GF30-FR Polycarbonate according to DIN 7744 with approx. 30% glass fibres and fire protection equipment. Density 1.44...1.52 g/cm³.
PC-GG20-FR Polycarbonate according to DIN 7744 with 20...30% short glass fibres and fire protection equipment. Density 1.33...1.35 g/cm³.
PC-HI Elastomer-modified and extremely low-temperature impact resistant polycarbonate. Density approx. 1.18 g/cm³.
PCPO Poly-3,3'-bis-chloromethyl propylene oxide (chlorinated polyether). Density 1.39...1.40 g/cm³.
PCT-GF30-FR Polycyclohexyl terephthalate with approx. 30% glass fibres and fire protection equipment. Density approx. 1.61 g/cm³.
PCTFE Polychlorotrifluoroethylene. Density 2.07...2.12 g/cm³.
PDAP-GF+MD Moulding material made of polydiallyl phthalate resin, glass fibres and/or minerals. Density 1.7...2.0 g/cm³.
PE-C-SHA65±10 Chlorinated high density polyethylene with chlorine content of 35...40%, often as blend with 10...30% PVC-U. Density 1.15...1.30 g/cm³.
PE-HD-D0,94 High density linear polyethylene according to DIN 16776, density over 0.937...0.947 g/cm³.
PE-HD-D0,95 High density linear polyethylene according to DIN 16776, density over 0.947...0.957 g/cm³.
PE-HD-D0,96 High density linear polyethylene according to DIN 16776, density over 0.957 g/cm³.
PE-HD-GF20 High density polyethylene according to DIN 16776 with approx. 20% glass fibres. Density 1.08...1.11 g/cm³.
PE-HD-GF30 High density polyethylene according to DIN 16776 with approx. 30% glass fibres. Density 1.16...1.19 g/cm³.
PE-HD-GM30 Mat-reinforced high density polyethylene with approx. 30% glass fibres. Density 1.15...1.19 g/cm³. Processing by extrusion.
PE-HD-FR High density linear polyethylene according to DIN 16776 with fire protection equipment. Density 1.03...1.18 g/cm³.
PE-HD-Z-CB High density polyethylene according to DIN 16776 with soot additive as antistatic finish. Density 0.99...1.00 g/cm³.
PE-HDX High-density crosslinked linear polyethylene according to DIN 16776, density 0.94 - 0.96 g/cm³.
PE-LD Branched low density polyethylene according to DIN 16776, density above 0.91...0.927 g/cm³.
PE-LD-FR Branched low density polyethylene according to DIN 16776 with fire protection equipment. Density 0.97...1.16 g/cm³.
PE-LDX Crosslinkable low to medium density polyethylene according to DIN 16776, density 0.925...0.945 g/cm³.
PE-LLD Linear low to medium density polyethylene copolymer according to DIN 16776, also blends with PE-LD and PE-HD. Density 0.918...0.94 g/cm³.
PE-LLD-FR Linear low to medium density polyethylene copolymer according to DIN 16776 with fire protection finish. Density 0.98...1.1 g/cm³.
PE-MD Medium density polyethylene to DIN 16776, density above 0.927...0.937 g/cm³.
PE-UHMW Ultra-high molecular weight polyethylene. Density 0.93...0.94 g/cm³. Heat deflection temperature and media resistance can be improved by cross-linking.
PE-UHMW-CG+Al-D Ultra-high molecular weight polyethylene with additives of graphite and aluminium powder to increase thermal conductivity. Density approx. 1.25 g/cm³.
PE-UHMW-GB30 Ultra-high molecular weight polyethylene with approx. 30% micro glass beads. Density approx. 1.14 g/cm³.
PE-UHMW-Z-CB Ultra-high molecular weight polyethylene with soot additive as antistatic finish. Density approx. 0.96 g/cm³.
PE-UHMW(SG) Conditionally injection mouldable ultra-high molecular weight polyethylene. Density approx. 0.94 g/cm³.
PE-X-Y-CB35 Crosslinkable polyethylene or blend with E/VA according to DIN 16776 with approx. 35% carbon black. Electrically conductive. Density approx. 1.15 g/cm³. Can also be used uncrosslinked with lower heat and media resistance.
PEBA11/12-SH/D65±10 Thermoplastic polyether block amide elastomers with PA11 or PA12 hard sequences in hard setting. Density 1.01...1.04 g/cm³.
PEBA11/12-SH/D40±10 Thermoplastic polyether block amide elastomers with PA11 or PA12 hard sequences in medium-hard setting. Density 0.99...1.03 g/cm³.
PEBA11/12-SH/A70±10 Thermoplastic polyether block amide elastomers with PA11 or PA12 hard sequences in a soft setting. Density 0.99...1.03 g/cm³.
PEBA12-Z-CB-SH/D60±10 Thermoplastic polyether block amide elastomers with PA12 hard sequences and antistatic finish by addition of carbon black. Density approx. 1.08 g/cm³.
PEBA6 Thermoplastic polyether block amide elastomers with PA6 hard sequences. Density approx. 1.03 g/cm³.
PEC Polyester carbonate or polyphthalate carbonate with different ester contents (polyarylates). Density 1.19...1.21 g/cm³.
PEC-GF30 Polyester carbonate with approx. 30% glass fibres. Density 1.42...1.44 g/cm³.
PEC-FR Polyester carbonate with fire protection equipment. Density 1.20...1.25 g/cm³.
PEC-GF20-FR Polyester carbonate with fire protection finish and approx. 20% glass fibres. Density approx. 1.3 g/cm³.
PEEK Polyaryletheretherketone. Density 1.30...1.32 g/cm³.
PEEK-GF15±5 Polyaryl ether ether ketone with 10...20% glass fibres. Density 1.35...1.46 g/cm³.
PEEK-GF35±5 Polyaryl ether ether ketone with 30...40% glass fibres. Density 1.49...1.62 g/cm³.
PEEK-CF30 Polyaryl ether ether ketone with approx. 30% carbon fibres. Density 1.39...1.48 g/cm³.
PEEK-CF30+GF10 Polyaryl ether ether ketone with approx. 30% carbon fibres and approx. 10% glass fibres. Density approx. 1.48 g/cm³.
PEEK-AR-(PTFE+CG)15±5 Polyaryletheretherketone with 10...20% filler mixture of PTFE and graphite. Density 1.34...1.38 g/cm³.
PEEK-AR-GF30+PTFE15 Polyaryl ether ether ketone with approx. 30% glass fibres and approx. 15% PTFE. Density 1.58...1.59 g/cm³.
PEEK-AR-CF12±3+PTFE+MoS2+CG Polyaryletheretherketone with 10...15% carbon fibers and optional additives of PTFE, molybdenum disulfide and graphite with a total amount of 10...20%. Density 1.44...1.47 g/cm³.
PEEKK Polyaryl ether ether ketone. Density approx. 1.3 g/cm³.
PEEKK-GF20 Polyaryl ether ether ketone with approx. 20% glass fibres. Density approx. 1.45 g/cm³.
PEEKK-GF30 Polyaryl ether ether ketone with approx. 30% glass fibres. Density 1.55...1.58 g/cm³.
PEEKK-M30 Polyaryl ether ether ketone with approx. 30% mineral. Density approx. 1.5 g/cm³.
PEEKK-CF30 Polyaryl ether ether ketone with approx. 30% carbon fibres. Density approx. 1.45 g/cm³.
PEEKK-AR-(CF+PTFE)35±5 Polyaryl ether ether ketone with 30...40% carbon fibres and PTFE. Density 1.45...1.47 g/cm³.
PEEST-SH/D40±10 Thermoplastic polyether ester elastomers with Shore hardness D40±10, block copolymers of PBT and long-chain polyethers. Density 1.11...1.20 g/cm³.
PEEST-SH/D60±5 Thermoplastic polyether ester elastomers with Shore hardness D65±10, block copolymers of PBT and long-chain polyethers. Density 1.16...1.25 g/cm³.
PEEST-SH/D75±5 Thermoplastic polyether ester elastomers with Shore hardness D75±5, block copolymers of PBT and long-chain polyethers. Density 1.25...1.28 g/cm³.
PEEST-GF15±5 Thermoplastic polyether ester elastomers with 10...20% glass fibres. Density 1.19...1.34 g/cm³.
PEEST-GF30 Thermoplastic polyether ester elastomers with approx. 30% glass fibres. Density 1.35...1.42 g/cm³.
PEEST-GF40 Thermoplastic polyether ester elastomers with approx. 40% glass fibres. Density 1.48...1.52 g/cm³.
PEEST-AR-PTFE15;SILIKON Thermoplastic polyether ester elastomers with approx. 15% PTFE and/or silicone additive. Density 1.26...1.28 g/cm³.
PEEST-AR-GF30+PTFE15;SILIKON Thermoplastic polyether ester elastomers with approx. 30% glass fibres and 15% PTFE and/or silicone additives. Density approx. 1.4 g/cm³.
PEEST-FR-SH/D40±10 Thermoplastic polyetherester elastomers with Shore hardness D40±10 and fire protection equipment. Density 1.28...1.35 g/cm³.
PEEST-FR-SH/D60±5 Thermoplastic polyetherester elastomers with Shore hardness D60±5 and fire protection equipment. Density 1.30...1.40 g/cm³.
PEEST-FR-SH/D75±5 Thermoplastic polyetherester elastomers with Shore hardness D75±5 and fire protection equipment. Density 1.38...1.45 g/cm³.
PEEST-GF30-FR Thermoplastic polyetherester elastomers with approx. 30% glass fibres and fire protection equipment. Density approx. 1.6 g/cm³.
PEESTUR-SH/A60±5 Thermoplastic polyurethane elastomers (also: TPU) of high softness. By variation of the polyol component (ester, ether, etc.) specific property influence possible. Density 1.11...1.18 g/cm³.
PEESTUR-SH/A80±10 Thermoplastic polyurethane elastomers (also: TPU) of medium softness. By variation of the polyol component (ester, ether, etc.) specific property influence possible. Density 1.11...1.24 g/cm³.
PEESTUR-SH/D45±5 Thermoplastic polyurethane elastomers (also: TPU) of low softness. Specific property influence by variation of the polyol component (ester, ether, etc.). Density 1.13...1.28 g/cm³.
PEESTUR-SH/D65±10 Thermoplastic polyurethane elastomers (also: TPU) in a hard setting. Specific property influence by variation of the polyol component (ester, ether, etc.). Density 1.18...1.29 g/cm³.
PEESTUR-GF15±5 Thermoplastic polyurethane elastomers (also: TPU) with 10...20% glass fibres density 1.32...1.37 g/cm³.
PEESTUR-GF30±5 Thermoplastic polyurethane elastomers (also: TPU) with 25...35% glass fibres density 1.34...1.50 g/cm³.
PEESTUR-GF45±5 Thermoplastic polyurethane elastomers (also: TPU) with 40...50% glass fibres density 1.50...1.68 g/cm³.
PEESTUR-LGF50±10 Thermoplastic polyurethane elastomers (also: TPU) with 40...60% long glass fibres (approx. 12mm). Fibre-friendly processing is decisive for the property profile. Density 1.50...1.73 g/cm³.
PEESTUR-GM25±5 Mat-reinforced, thermoplastic polyurethane elastomers with Shore hardness D60±5 and 20...30% glass fibre content. Density 1.42...1.48 g/cm³. Processing by extrusion.
PEESTUR-AR-PTFE15; SILIKON Thermoplastic polyurethane elastomers (also: TPU) with approx. 15% PTFE and possibly silicone additives. Density approx. 1.33 g/cm³.
PEESTUR-AR-GF30+PTFE15;SILIKON Thermoplastic polyurethane elastomers (also: TPU) with 30% glass fibers and 15% PTFE, as well as silicone additives if necessary. Density 1.57...1.59 g/cm³.
PEESTUR-FR-SH/A80±10 Thermoplastic polyurethane elastomers (also: TPU) of medium softness with fire protection finish. Specific property influence by variation of the polyol component (ester, ether, etc.). Density 1.14...1.29 g/cm³.
PEESTUR-GF30-FR Thermoplastic polyurethane elastomers (also: TPU) with approx. 30% glass fibres and fire protection equipment. Density approx. 1.62 g/cm³.
PEESTUR-Z Thermoplastic polyurethane elastomers (also: TPU) with antistatic finish. Density approx. 1.26 g/cm³.
PEI Polyetherimide. Density approx. 1.27 g/cm³.
PEI-GF15±5 Polyetherimide with 10...20% glass fibers. Density 1.34...1.42 g/cm³.
PEI-GF35±5 Polyetherimide with 30...40% glass fibers. Density 1.49...1.61 g/cm³.
PEI-CF35±5 Polyetherimide with 30...40% carbon fibers. Density 1.39...1.44 g/cm³.
PEI-AR-PTFE10 Polyetherimide with approx. 10% PTFE. Density approx. 1.33 g/cm³.
PEI-AR-GF30+PTFE15 Polyetherimide with approx. 30% glass fibre and approx. 15% PTFE. Density approx. 1.61 g/cm³.
PEI-AR-(GF+M)40+PTFE10 Polyetherimide with approx. 40% glass fibre mineral mixture and approx. 10% PTFE. Density 1.68...1.70 g/cm³.
PEI-AR-CF30+PTFE10 Polyetherimide with approx. 30% carbon fibers and approx. 10% PTFE. Density approx. 1.45 g/cm³.
PEI-Cop Polyetherimide copolymer with increased heat resistance. Density approx. 1.29 g/cm³.
PEI-Cop-GF15±5 Polyetherimide copolymer with increased heat resistance and 10...20% glass fibers. Density 1.35...1.43 g/cm³.
PEI-Cop-GF30 Polyetherimide copolymer with approx. 30% glass fibres. Density 1.49...1.52 g/cm³.
PEI-Cop-M20 Polyetherimide copolymer with increased heat resistance and approx. 20% mineral. Density approx. 1.42 g/cm³.
PEI-HI Impact modified polyetherimide. Density approx. 1.31 g/cm³.
PEI-Y-CF10 vernickelt+GF10 Polyetherimide with approx. 10% nickel-plated graphite filling and approx. 10% glass fibres. Density approx. 1.43 g/cm³.
PEI-Z-CF17±3 Polyetherimide with approx. 15% carbon fibres and additional antistatic finish. Density 1.30...1.35 g/cm³.
PEK Polyaryletherketone. Density approx. 1.30 g/cm³.
PEK-GF25±5 Polyaryletherketone with 20...30% glass fibres. Density 1.44...1.53 g/cm³.
PEK-AR-CF10+CG10+PTFE10 Polyaryletherketone with 10% carbon fibres, graphite and PTFE each. Density 1.43...1.45 g/cm³.
PEKEKK Polyaryletherketone ether ketone ketone. Density approx. 1.31 g/cm³.
PEKEKK-GF20 Polyaryletherketonetherketonketone with approx. 20% glass fibres. Density approx. 1.45 g/cm³.
PEKEKK-GF30 Polyaryletherketonetherketonketone with approx. 30% glass fibres. Density approx. 1.56 g/cm³.
PEKK Polyaryletherketone. Density approx. 1.28 g/cm³.
PES Polyethersulphone. Density 1.36...1.37 g/cm³.
PES-GF10 Polyethersulfone with approx. 10% glass fibres. Density 1.43...1.45 g/cm³.
PES-GF20 Polyethersulfone with approx. 20% glass fibres. Density 1.49...1.53 g/cm³.
PES-GF35±5 Polyethersulfone with 30...40% glass fibres. Density 1.58...1.68 g/cm³.
PES-M30 Polyethersulfone with approx. 30% mineral. Density approx. 1.62 g/cm³.
PES-CF17±3 Polyethersulfone with 15...20% carbon fibres. Density 1.41...1.43 g/cm³.
PES-CF30 Polyethersulfone with approx. 30% carbon fibres. Density approx. 1.48 g/cm³.
PES-AR-PTFE10±5 Polyethersulfone with 5...15% PTFE. Density 1.40...1.45 g/cm³.
PES-AR-GF5+PTFE10 Polyethersulfone with approx. 5% glass fibres and approx. 10% PTFE. Density approx. 1.45 g/cm³.
PES-AR-GF30+PTFE15 Polyethersulfone with approx. 30% glass fibres and approx. 15% PTFE. Density approx. 1.70 g/cm³.
PES-AR-CF30+PTFE15 Polyethersulfone with approx. 30% glass fibres and approx. 15% PTFE. Density approx. 1.57 g/cm³.
PET Partially crystalline polyethylene terephthalate according to DIN 16779, density 1.38 - 1.40 g/cm³.
PET-GF20 Polyethylene terephthalate according to DIN 16779 with approx. 20% glass fibres. Density 1.46...1.52 g/cm³.
PET-GF30±5 Polyethylene terephthalate according to DIN 16779 with 25...35% glass fibres. Density 1.55...1.63 g/cm³.
PET-GF50±5 Polyethylene terephthalate according to DIN 16779 with 45...45% glass fibres. Density 1.69...1.81 g/cm³.
PET-(GF+M)35 Polyethylene terephthalate according to DIN 16779 with approx. 35% glass fibre mineral mixture. Density 1.58...1.61 g/cm³.
PET-GM30±5 Mat-reinforced polyethylene terephthalate with 25...35% glass fibre content. Density 1,55...1,63 g/cm³.Processing by extrusion.
PET amorph Amorphous polyethylene terephthalate according to DIN 16779, density 1.33 - 1.35 g/cm³.
PET-GF15-FR Polyethylene terephthalate according to DIN 16779 with approx. 15% glass fibres and fire protection equipment. Density approx. 1.53 g/cm³.
PET-GF30±5-FR Polyethylene terephthalate according to DIN 16779 with 25...35% glass fibres and fire protection equipment. Density 1.60...1.78 g/cm³.
PET-GF45-FR Polyethylene terephthalate according to DIN 16779 with approx. 45% glass fibres. Density 1.78...1.83 g/cm³.
PET-(GF+GS)45-FR Polyethylene terephthalate according to DIN 16779 with approx. 45% glass-fibre glass platelet mixture and fire protection equipment. Density 1.78...1.82 g/cm³.
PET-HI-GF15 Impact modified polyethylene terephthalate with approx. 15% glass fibres. Density approx. 1.39 g/cm³.
PET-HI-GF30 Impact modified polyethylene terephthalate with approx. 30% glass fibres. Density 1.45...1.49 g/cm³.
PET-HI Impact modified polyethylene terephthalate. Density approx. 1.22 g/cm³.
PF-(PD+AF) Moulding material made of phenol-formaldehyde resin and mica flour-asbestos fibre mixture. Density approx. 1.9 g/cm³.
PF-(GF+MD) Moulding material made of phenol-formaldehyde resin and glass-fibre mineral mixture. Density 1.7...1.8 g/cm³.
PF-(GF+PD) Moulding material made of phenol-formaldehyde resin (novolak) and glass fibre mica flour mixture. Density approx. 2 g/cm³.
PF-GF Moulding material made of phenol-formaldehyde resin and glass fibres. Density 1.6...1.9 g/cm³.
PF-GS Moulding material made of phenol-formaldehyde resin and long glass fibres. Fibre-friendly processing is decisive for the property profile (rod moulding compound). Density 1.6...1.9 g/cm³.
PF-(GS+MD) Moulding material made of phenol-formaldehyde resin and long glass fibre mineral mixture. Density 1.85...1.95 g/cm³.
PF-(WD+MD) Moulding material made of phenol-formaldehyde resin and wood flour-mineral flour mixture with different composition. Density 1.5...1.7 g/cm³.
PF-(AF+WD) Moulding material made of phenol-formaldehyde resin (novolak) and asbestos fibre-wood flour mixture. Density 1.6...1.7 g/cm³.
PF VortypCD Moulding material pretype according to DIN 7708 made of phenol-formaldehyde resin and organic fibres. Recommended as asbestos-free substitute material for PF12, density approx. 1.7 g/cm³.
PF-G Phenol-formaldehyde casting resin based on resol (precious synthetic resin). Density 1.2...1.3 g/cm³.
PF11 Moulding material made of phenol-formaldehyde resin (novolak) and rock flour. Density 1.75...1.85 g/cm³.
PF11·5 Moulding material according to DIN 7708 made of phenol-formaldehyde resin (novolak) and rock flour. Electrically higher quality than PF11, density 1.7 - 1.8 g/cm³.
PF12 Moulding material according to DIN 7708 made of phenol-formaldehyde resin (novolak) and short fibrous asbestos. Also classified as asbestos fibre-containing moulding materials, which do not exactly correspond to PF12. Density 1.70...1.85 g/cm³.
PF13 Moulding material according to DIN 7708 made of phenol-formaldehyde resin (novolak) and mica flakes or mica flour. Density 1.8...1.9 g/cm³.
PF13·5 Moulding material according to DIN 7708 made of phenol-formaldehyde resin (novolak) and mica flakes or mica flour. Electrically higher-quality than PF13, density 1.7 - 1.9 g/cm³.
PF13·9 Moulding material according to DIN 7708 made of phenol-formaldehyde resin (resol) and mica flakes or mica flour. Ammonia-free special grade. Density 1.7...1.9 g/cm³.
PF15 Moulding material according to DIN 7708 made of phenol-formaldehyde resin (novolak) and long-fibre asbestos. Density 1.8...1.9 g/cm³.
PF16 Moulding material according to DIN 7708 made of phenol-formaldehyde resin (novolak) and asbestos cord. Density 1.9...2.0 g/cm³.
PF30·5 Moulding material according to DIN 7708 made of cresol-phenol-formaldehyde resin and wood flour. Electrically higher quality than PF31, but lower strength and heat resistance. Density 1.35...1.4 g/cm³.
PF31 Moulding material according to DIN 7708 made of phenol-formaldehyde resin (novolak) and wood flour. Density 1.35...1.45 g/cm³.
PF31·5 Moulding material according to DIN 7708 made of phenol-formaldehyde resin (novolak) and wood flour. Electrically higher quality than PF31. density 1.35...1.45 g/cm³.
PF31·9 Moulding material according to DIN 7708 made of phenol-formaldehyde resin (resol). Density 1.35...1.45 g/cm³.
PF32 Moulding material according to DIN 7708 from phenol-formaldehyde resin (resol) and wood flour and/or organic fillers. Ammonia-free, especially low electrolytic corrosion due to limited acid content. Density 1.35...1.45 g/cm³.
PF51 Moulding material according to DIN 7708 made of phenol-formaldehyde resin (novolac) and cellulose fibres. Density 1.35...1.45 g/cm³.
PF51-WF Moulding material according to DIN 7708 made of phenol-formaldehyde resin (novolak) and special wood fibres. Density approx. 1.4 g/cm³.
PF51·5 Moulding material according to DIN 7708 made of phenol-formaldehyde resin (novolac) and cellulose fibres. Electrically higher quality than PF51, density 1.35 - 1.45 g/cm³.
PF51·9 Moulding material according to DIN 7708 made of phenol-formaldehyde resin (resol) and cellulose fibres. Ammonia-free special grade. Density 1.35...1.45 g/cm³.
PF52 Moulding material according to DIN 7708 made of phenol-formaldehyde resin (novolak) and resin-impregnated cellulose fibres. Density 1.35...1.45 g/cm³.
PF52·9 Moulding material according to DIN 7708 made of phenol-formaldehyde resin (resol) and resin-impregnated cellulose fibres. Ammonia-free special grade. Density 1.35...1.45 g/cm³.
PF54 Moulding material (no longer included in DIN 7708) made of phenol-formaldehyde resin (novolac) and pulp chips (e.g. paper chips). Density 1.3...1.4 g/cm³.
PF57 Moulding material (no longer included in DIN 7708) made of phenol-formaldehyde resin and paper strips or webs. Density 1.3...1.4 g/cm³.
PF71 Moulding material according to DIN 7708 made of phenol-formaldehyde resin and cotton fibres with or without other organic textile fibres. Density 1.35...1.45 g/cm³.
PF74 Moulding material according to DIN 7708 made of phenol-formaldehyde resin and cotton fabric chips with or without other organic textile chips. Density 1.35...1.45 g/cm³.
PF74-AR-GR; PTFE Moulding material made of phenol-formaldehyde resin (novolak) and cotton chips as well as additives of graphite and/or PTFE. Density approx. 1.4 g/cm³.
PF75 Moulding material according to DIN 7708 made of phenol-formaldehyde resin and synthetic silk strands. Density 1.35...1.45 g/cm³.
PF77 Moulding material (no longer included in DIN 7708) made of phenol-formaldehyde resin and cotton fabric strips or strips. Density 1.35...1.4 g/cm³.
PF83 Moulding material according to DIN 7708 made of phenol-formaldehyde resin (novolak) and cotton short fibres and/or wood flour. Density 1.35...1.4 g/cm³.
PF84 Moulding material according to DIN 7708 made of phenol-formaldehyde resin (novolak) and cotton fabric chips and/or cellulose fibres. Density 1.35...1.4 g/cm³.
PF85 Moulding material according to DIN 7708 made of phenol-formaldehyde resin (novolak) and wood flour and/or cellulose fibres. Density 1.35...1.4 g/cm³.
PFA Perfluoroalkoxy polymer. Density 2.12...2.17 g/cm³.
PFA-AR-PTFE10 Perfluoroalkoxy polymer with approx. 10% PTFE. Density approx. 2.17 g/cm³.
PFA-Z-CB Perfluoroalkoxy polymer with antistatic finish by conductive carbon black additive. Density approx. 2.08 g/cm³.
PHA-G Phenacrylate or vinyl ester (VE) casting resin based on bisphenolA glycidilether or epoxidized novolaks. Types 1310 and 1330 according to DIN16946, with and without fire protection equipment. Density 1.15...1.2 g/cm³.
PIB High molecular polyisobutylene. Density 0.91...0.93 g/cm³.
PMMA Polymethyl methacrylate according to DIN 7745 including copolymers with low comonomer content to increase heat resistance or impact strength. Density 1.17...1.19 g/cm³.
PMMA-G Uncrosslinked polymethyl acrylate casting resin. Type 1200 according to DIN 16946, density approx. 1.18 g/cm³.
PMMA-HI High impact polymethyl methacrylate modified with acrylic ester elastomer. Over 60°C Limitation of transparency due to reversible opacity. Density 1.12...1.13 g/cm³.
PMMA-HMW High-molecular polymethyl methacrylate as a type of semi-finished cast product. Density 1.18...1.19 g/cm³.
PMMA-I Medium impact polymethyl methacrylate modified with acrylic ester elastomer. Above 70°C Limitation of transparency due to reversible opacity. Density 1.14...1.17 g/cm³.
PMP polymethylpentene (poly-4-methylpenten-1). Density 0.83...0.84 g/cm³.
PMP-GF30 Polymethylpentene with approx. 30% glass fibres. Density 1.03...1.05 g/cm³.
PMP-GF30-FR Polymethylpentene with approx. 30% glass fibres and fire protection equipment. Density approx. 1.43 g/cm³.
POM-H Polyacetal or polyoxymethylene or polyformaldehyde homopolymer according to DIN 16781, density 1.40 - 1.42 g/cm³.
POM-H-GF25±5 Polyacetal homopolymer with 20...30% glass fibres. Density 1.55...1.63 g/cm³.
POM-H-GFC25±5 Polyacetal homopolymer according to DIN 16781 with 20...30% chemically coupled glass fibres. Density 1.55...1.63 g/cm³.
POM-H-CF20 Polyacetal homopolymer according to DIN 16781 with approx. 20% carbon fibres. Density approx. 1.46 g/cm³.
POM-H-AR-MoS2,SILIKON Polyacetal homopolymer according to DIN 16781 with minor additives of molybdenum disulphide and/or silicone. Density 1.42...1.44 g/cm³.
POM-H-AR-GF30+PTFE15 Polyacetal homopolymer according to DIN 16781 with approx. 30% glass fibres and approx. 15% PTFE powder, possibly also silicone additives. Density 1.71...1.73 g/cm³.
POM-H-AR-PTFE15±5 Polyacetal homopolymer according to DIN 16781 with 10...20% PTFE fibres or powder. Density 1.46...1.54 g/cm³.
POM-H-HI High impact modified polyacetal homopolymer according to DIN 16781, density approx. 1.34 g/cm³.
POM-H-I Impact modified polyacetal homopolymer according to DIN 16781, density approx. 1.39 g/cm³.
POM-R Statistical polyacetal or polyoxymethylene or polyformaldehyde copolymer according to DIN 16781, density 1.39 - 1.41 g/cm³.
POM-R-GF20±5 Polyacetal copolymer according to DIN 16781 with 15...25% glass fibres. Density 1.51...1.59 g/cm³.
POM-R-GF35±5 Polyacetal copolymer according to DIN 16781 with 30...40% glass fibres. Density 1.60...1.72 g/cm³.
POM-R-GB15±5 Polyacetal copolymer according to DIN 16781 with 10...20% micro glass beads. Density 1.47...1.54 g/cm³.
POM-R-GB30 Polyacetal copolymer according to DIN 16781 with approx. 30% micro glass beads. Density 1.59...1.64 g/cm³.
POM-R-M25±5 Polyacetal copolymer according to DIN 16781 with 20...30% mineral filler. Density 1.56...1.64 g/cm³.
POM-R-CF30 Polyacetal copolymer according to DIN 16781 with approx. 30% carbon fibres. Density 1.47...1.50 g/cm³.
POM-R-AR-K Polyacetal copolymer according to DIN 16781 with low special chalk additive to reduce wear. Density 1.42...1.44 g/cm³.
POM-R-AR-MoS2,SILIKON Polyacetal copolymer according to DIN 16781 with minor additives of molybdenum disulphide and/or silicone. Density 1.39...1.45 g/cm³.
POM-R-AR-PE-UHMW Polyacetal copolymer according to DIN 16781 with additives of ultra-high molecular weight polyethylene to improve friction and wear behaviour. Density 1.34...1.36 g/cm³.
POM-R-AR-PTFE15±5 Polyacetal copolymer according to DIN 16781 with 10...20% PTFE powder or fibres, possibly also silicone additives. Density 1.46...1.54 g/cm³.
POM-R-AR-GF30+PTFE15 Polyacetal copolymer according to DIN 16781 with approx. 30% glass fibres and approx. 15% PTFE powder, possibly also silicone additives. Density 1.71...1.73 g/cm³.
POM-R-GC Polyacetal copolymer according to DIN 16781 preferably for electrochemical metallization. Density approx. 1.42 g/cm³.
POM-R-HI High impact, elastomer-modified polyacetal copolymer according to DIN 16781, density 1.29 - 1.36 g/cm³.
POM-R-I Medium impact, elastomer-modified polyacetal copolymer according to DIN 16781, density 1.37 - 1.39 g/cm³.
POM-R-I-GF10 Medium impact, elastomer-modified polyacetal copolymer to DIN 16781 with approx. 10% glass fibres. Density approx. 1.44 g/cm³.
POM-R-Y-CB Electrically conductive polyacetal copolymer according to DIN 16781 with conductivity carbon black additive. Density approx. 1.4 g/cm³.
POM-R-Z Antistatic polyacetal copolymer according to DIN 16781 without soot additive. Density 1.39...1.41 g/cm³.
PP-T10 Polypropylene according to DIN 16774 with approx. 10% talc. Density 0.96...0.98 g/cm³.
PP-T20±5 Polypropylene according to DIN 16774 with 15...25% talc. Density 0.97...1.12 g/cm³.
PP-T35±5 Polypropylene according to DIN 16774 with 30...40% talcum. Density 1.13...1.25 g/cm³.
PP-GFC15±5 Polypropylene according to DIN 16774 with 10...20% chemically coupled glass fibres. Density 0.95...1.05 g/cm³.
PP-GFC30±5 Polypropylene according to DIN 16774 with 25...35% chemically coupled glass fibres. Density 1.07...1.15 g/cm³.
PP-GFC45±5 Polypropylene according to DIN 16774 with 40...50% chemically coupled glass fibres. Density 1.19...1.33 g/cm³.
PP-GF20±5 Polypropylene according to DIN 16774 with 15...25% glass fibres. Density 1.01...1.08 g/cm³.
PP-GF35±5 Polypropylene according to DIN 16774 with 30...40% glass fibres. Density 1.11...1.21 g/cm³.
PP-GF50 Polypropylene according to DIN 16774 with approx. 50% glass fibres. Density approx. 1.4 g/cm³.
PP-LGFC45±5 Polypropylene homopolymer with 40...50% chemically coupled long glass fibres (approx. 12mm). Density 1.21...1.33 g/cm³.
PP-GF15±5+T15±5 Polypropylene according to DIN 16774 with 10...20% glass fibres and 10...20% talc. Density 1.04...1.18 g/cm³.
PP-GF20+GB20 Polypropylene according to DIN 16774 with approx. 20% glass fibres and approx. 20% micro glass beads. Density 1.19...1.22 g/cm³.
PP-GG25±5 Polypropylene according to DIN 16774 with 20...30% short glass fibres (ground fibre). Density 1.02...1.13 g/cm³.
PP-WD40 Polypropylene according to DIN 16774 with approx. 40% wood flour. Density approx. 1.05 g/cm³.
PP-AF40 Polypropylene according to DIN 16774 with approx. 40% asbestos fibres. Density approx. 1.29 g/cm³.
PP-K45±5 Polypropylene according to DIN 16774 with 40...50% chalk etc. Minerals. Density 1.20...1.34 g/cm³.
PP-K25±5 Polypropylene according to DIN 16774 with 20...30% chalk etc. Minerals. Density 1.04...1.15 g/cm³.
PP-GB25±5 Polypropylene according to DIN 16774 with 20...30% micro glass beads. Density 1.03...1.13 g/cm³.
PP-GM30±10 Mat-reinforced polypropylene with 20...40% glass fibre content. Density 1.05...1.23 g/cm³. Processing by extrusion.
PP-(GM/UD60±20)45±10 Mat-reinforced polypropylene with 35...55% glass fibre content, 40...80% of which is unidirectional reinforcement (UD). Processing by compression moulding and extrusion. Density 1.17...1.39 g/cm³.
PP-B Polypropylene block copolymer according to DIN 16774, density 0.898 - 0.906 g/cm³.
PP-B-HI High impact polypropylene block copolymer according to DIN 16774, density 0.89...0.905 g/cm³.
PP-FR-V2 Polypropylene according to DIN 16774 with fire protection equipment. Density 0.925...0.99 g/cm³.
PP-FR-V0 Polypropylene according to DIN 16774 with particularly effective fire protection equipment. Density 1.00...1.05 g/cm³.
PP-T20±5-FR Polypropylene according to DIN 16774 with 15...25% talcum and fire protection equipment. Density 1.31...1.35 g/cm³.
PP-T30-FR Polypropylene according to DIN 16774 with approx. 30% talcum and fire protection equipment. Density 1.35...1.38 g/cm³.
PP-GFC30±5-FR Polypropylene according to DIN 16774 with fire protection equipment and 25...35% chemically coupled glass fibres. Density 1.43...1.49 g/cm³.
PP-GF20±5-FR Polypropylene according to DIN 16774 with 15...25% glass fibres and fire protection equipment. Density 1.37...1.52 g/cm³.
PP-GB20-FR Polypropylene according to DIN 16774 with approx. 20% micro glass balls and fire protection equipment. Density approx. 1.08 g/cm³.
PP-H Polypropylene homopolymer according to DIN 16774 with isotaxy index over 90%. Density 0.903...0.915 g/cm³.
PP-H-D0,895 Polypropylene homopolymer according to DIN 16774 with isotaxy index below 90%. Density 0.892...0.902 g/cm³.
PP-HI-T20±5 High impact polypropylene according to DIN 16774 with 15...25% talc. Density 0.97...1.12 g/cm³.
PP-HI-T30 High impact polypropylene according to DIN 16774 with approx. 30% talcum. Density 1.12...1.15 g/cm³.
PP-HI-GF20±5 High impact polypropylene according to DIN 16774 with 15...25% glass fibres. Density 1.01...1.08 g/cm³.
PP-HI-GF35±5 High impact polypropylene according to DIN 16774 with 30...40% glass fibres. Density 1.11...1.21 g/cm³.
PP-HI-K45±5 High impact polypropylene according to DIN 16774 with 40...50% chalk etc. Minerals. Density 1.20...1.34 g/cm³.
PP-HI-K25±5 High impact polypropylene according to DIN 16774 with 20...30% chalk etc. Minerals. Density 1.04...1.15 g/cm³.
PP-HI-K10±5 High impact polypropylene according to DIN 16774 with 5...15% chalk etc. Minerals. Density 0.93...1.0 g/cm³.
PP-HI-Y-CB High impact polypropylene according to DIN 16774 with soot additive. Electrically conductive. Density 1.0...1.1 g/cm³.
PP-R Polypropylene random polymer (random copolymer) according to DIN 16774. density 0.892...0.903 g/cm³.
PP-Z-T10 Polypropylene according to DIN 16774 with approx. 10% talcum and antistatic finish. Density approx. 0.97 g/cm³.
PPA Polyphthalamide. Copolyamide from PA6T and other polyamides. Density 1.17...1.18 g/cm³.
PPA-GF15 Polyphthalamide with approx. 15% glass fibres. Density approx. 1.26 g/cm³.
PPA-GF39±6 Polyphthalamide with 33...45% glass fibres. Density 1.43...1.56 g/cm³.
PPA-(GF+M)40 Polyphthalamide with approx. 40% glass-fibre mineral mixture. Density approx. 1.54 g/cm³.
PPA-M35±5 Polyphthalamide with 30...40% mineral. Density 1.45...1.54 g/cm³.
PPA-GF15-FR Polyphthalamide with approx. 15% glass fibres and fire protection equipment. Density approx. 1.58 g/cm³.
PPA-GF39±6-FR Polyphthalamide with 33...45% glass fibres and fire protection equipment. Density 1.71...1.78 g/cm³.
PPA-HI Impact modified polyphthalamide. Density approx. 1.13 g/cm³.
PPS Linear polyphenylene sulfide. Crystallinity depends considerably on the cooling speed of the melt. Density 1.34...1.35 g/cm³.
PPS-GF32±3 Polyphenylene sulfide with 30...35% glass fibers. Density 1.54...1.60 g/cm³.
PPS-GF42±3 Polyphenylene sulfide with 40...45% glass fibers. Density 1.63....175 g/cm³.Chemically coupled glass fibres significantly increase strength and rigidity.
PPS-GF55±5 Polyphenylene sulfide with 50...60% glass fibers. Density 1.70...1.91 g/cm³.
PPS-(GF+M)50 Polyphenylene sulphide with approx. 50% glass fibre mineral mixture. Density approx. 1.82 g/cm³.
PPS-(GF+QD)55±5 Polyphenylene sulfide with 50...60% glass-fibre quartz flour mixture. Density 1.90...1.95 g/cm³. Preferably suitable as investment materials.
PPS-(GF+M)62±3 Polyphenylene sulfide with 60...65% glass-fibre mineral mixture. Density 1.8...2.0 g/cm³.
PPS-(GF+M)75 Polyphenylene sulphide with approx. 75% glass fibre mineral mixture. Density approx. 2.1 g/cm³.
PPS-M55±5 Polyphenylene sulfide with approx. 50...60% mineral. Density 1.80...1.94 g/cm³.
PPS-GF20+GB20+CF10 Polyphenylene sulfide with approx. 20% glass fibers, approx. 10% carbon fibers and approx. 20% glass microspheres. Density approx. 1.7 g/cm³.
PPS-CF17±3 Polyphenylene sulfide with 14...20% carbon fibers. Density 1.38...1.41 g/cm³.
PPS-CF35±5 Polyphenylene sulfide with 30...40% carbon fibers. Density 1.45...1.49 g/cm³.
PPS-AR-PTFE20;SILIKON Polyphenylene sulfide with approx. 20% PTFE and possibly silicone additives. Density 1.43...1.45 g/cm³.
PPS-AR-GF30+CG10 Polyphenylene sulphide with approx. 30% glass fibres and approx. 10% graphite. Density 1.60...1.65 g/cm³.
PPS-AR-GF30+PTFE15;SILIKON Polyphenylene sulphide with approx. 30% glass fibres and 15% PTFE as well as silicone additives if necessary. Density 1.65...1.69 g/cm³.
PPS-AR-CF30+PTFE15 Polyphenylene sulfide with approx. 30% carbon fibers and approx. 15% PTFE. Density approx. 1.57 g/cm³.
PPS-EMI-CF50 Polyphenylene sulphide with approx. 50% carbon fibres. Special type with electromagnetic shielding effect. Density approx. 1.53 g/cm³.
PPS-EMI-CF30 vernickelt Polyphenylene sulphide with approx. 30% nickel-plated carbon fibres. Special type for electromagnetic shielding effect. Density approx. 1.52 g/cm³.
PPS-Y-GF30 Electrically conductive polyphenylene sulphide with approx. 30% glass fibres. Suitable for resistance heating up to 150°C. Density approx. 1.7 g/cm³.
PPS-Z-(GF+M)45+CB Polyphenylene sulphide with approx. 40% glass-fibre mineral mixture and antistatic finish due to the addition of carbon black. Density 1.7...1.8 g/cm³.
PPSU Polyphenylene sulfone. Polyarylsulfone block copolymers. Density 1.36...1.37 g/cm³.
PPSU-GF10 Polyphenylene sulphone with approx. 10% glass fibre. Density approx. 1.45 g/cm³.
PPSU-GF25±5 Polyphenylene sulfone with 20...30% glass fibers. Density 1.50...1.58 g/cm³.
PS Normal polystyrene according to DIN 7741. density 1.04...1.05 g/cm³.
PS-GF25±5 Polystyrene according to DIN 7741 with 20...30% glass fibres. density 1.20...1.30 g/cm³
PS-FR Polystyrene according to DIN 7741 with fire protection equipment. Density 1.06...1.10 g/cm³.
PS-GF10-FR Normal polystyrene according to DIN 7741 with fire protection finish and approx. 10% glass fibres. Density 1.19...1.21 g/cm³.
PS-LMW Polystyrene of low molecular weight and high flowability according to DIN 7741, density 1.04...1.05 g/cm³.
PSU Polysulfone. Density 1.24...1.25 g/cm³.
PSU-GF10 Polysulfone with approx. 30% glass fibres. Density 1.30...1.33 g/cm³.
PSU-GF10+GB10 Polysulfone with approx. 10% glass fibres and approx. 10% glass microspheres. Density 1.36...1.38 g/cm³.
PSU-GF20 Polysulfone with approx. 20% glass fibres. Density 1.36...1.40 g/cm³.
PSU-GF35±5 Polysulfone with 30...40% glass fibres. Density 1.44...1.55 g/cm³.
PSU-CF30 Polysulfone with approx. 30% carbon fibres. Density 1.35...1.37 g/cm³.
PSU-M25 Polysulfone with approx. 25% mineral. Density approx. 1.48 g/cm³.
PSU-M40 Polysulfone with approx. 40% mineral. Density approx. 1.61 g/cm³.
PSU krist-M40 Semicrystalline modified polysulfone with approx. 10% mineral. Density approx. 1.3 g/cm³.
PSU krist-GF10-FR Semi-crystalline modified polysulfone with approx. 10% glass fibres and fire protection equipment. Density 1.40...1.42 g/cm³.
PSU krist-GF30±10-FR Semi-crystalline modified polysulfone with 20...40% glass fibres and fire protection equipment. Density 1.47...1.66 g/cm³.
PSU mod Modified polysulfone with low heat resistance. Density approx. 1.23 g/cm³.
PSU mod-GF25±5 Modified polysulfone with 20...30% glass fibers. Density 1.4...1.5 g/cm³.
PSU mod-GF10 Modified polysulfone with approx. 10% glass fibres. Density approx. 1.31 g/cm³.
PSU-AR-PTFE10±5;SILIKON Polysulfone with 5...15% PTFE and possibly silicone additives. Density 1.28...1.35 g/cm³.
PSU-AR-GF10+PTFE10 Polysulfone with approx. 10% glass fibres and approx. 10% PTFE. Density approx. 1.36 g/cm³.
PSU-AR-GF30+PTFE15 Polysulfone with approx. 30% glass fibres and approx. 15% PTFE. Density approx. 1.59 g/cm³.
PSU-AR-M10+CG27±3 Polysulfone with approx. 10% mineral and 25...30% graphite. Density 1.47...1.52 g/cm³.
PSU-FR Polysulfone with fire protection equipment. Density approx. 1.25 g/cm³.
PSU-GF10-FR Polysulfone with approx. 10% glass fibres and fire protection equipment. Density 1.29...1.31 g/cm³.
PSU-GF20-FR Polysulfone with approx. 20% glass fibres and fire protection equipment. Density 1.36...1.39 g/cm³.
PSU-GF30-FR Polysulfone with approx. 30% glass fibres and fire protection equipment. Density 1.42...1.46 g/cm³.
PTFE Polytetrafluoroethylene. Density 2.14...2.25 g/cm³.
PTFE-GG20±5 Polytetrafluorethylene with 15...25% short glass fibres or glass powder and possibly small additives of graphite or molybdenum disulphide. Density 2.20...2.25 g/cm³.
PTFE-CG20±5 Polytetrafluorethylene with 15...25% graphite. Density 2.1...2.2 g/cm³.
PTFE-CK20±5 Polytetrafluorethylene with 15...25% hard coal (E-carbon). Density 2.1...2.2 g/cm³.
PTFE-BZ60±5 Polytetrafluorethylene with 55...65% bronze powder (e.g. Cu90/Sn10) and possibly graphite additives. Density 3.2...4.0 g/cm³.
PTFE-AR-Pb Polytetrafluorethylene with lead powder and other special compounds for sliding surface layers in composite bearings etc.. Density approx. 2.8 g/cm³.
PUR-G Semi-hard to hard polyurethane casting resins with or without fire protection finish. Types 1400 and 1410 according to DIN 16946, density 1.15...1.28 g/cm³.
PUR-G-MD50±5 Semi-hard to hard polyurethane casting resins with or without fire protection finish and 45...55 % mineral fillers. Types 1400 and 1410 according to DIN 16946, density 1.45...1.65 g/cm³.
PUR-G-VF Rubber-elastic polyurethane casting resins with or without fire protection. Types 1420 and 1430 according to DIN 16946, density 1.1...1.2 g/cm³.
PUR-G-VF-MD55±5 Rubber-elastic polyurethane casting resins with or without fire protection finish and with 50...60% mineral fillers. Types 1420 and 1430 according to DIN 16946, density 1.6...1.8 g/cm³.
PVAL-P Cold water soluble polyvinyl alcohol with additives of alcoholic plasticizers. Also insoluble in water if treated appropriately. Density 1.2...1.3 g/cm³.
PVC-VM30 Plasticizer-free polyvinyl chloride with approx. 30% basalt fibres. Only manufactured as semi-finished sheet. Density approx. 1.6 g/cm³.
PVC-C Post-chlorinated polyvinyl chloride (chlorine content over 60%). Density 1.55...1.60 g/cm³.
PVC-HI Schlagz. PVC as blend with elastomer cop. of types MBS, MABS, VC/EVA etc.. Impact resistant, age resistant, transparency etc. can be strongly influenced depending on the type and quantity of impact modifiers. Density 1.30...1.50.
PVC-HI-Z Impact-resistant PVC as blend with various impact modifiers (except PE-C) and antistatic finish, possibly with small filler additives (e.g. chalk). Density 1.35...1.50 g/cm³.
PVC-P-SHA60±10 Plasticizer-containing polyvinyl chloride according to DIN 7749 in a soft to very soft setting, possibly with small filler additives (e.g. chalk). Also VC/VAC cop... Density 1.15...1.40 g/cm³.
PVC-P-SHA80±10 Plasticizer-containing PVC according to DIN 7749 in a tightly soft to core-like setting, possibly with small filler additives (e.g. chalk). Also VC/VAC cop... Density 1.2...1.45 g/cm³.
PVC-P-SHD45±5 PVC containing plasticizer according to DIN 7749 in leather-like to semi-hard setting, if necessary small filler additives (e.g. chalk). Also VC/VAC cop... Density 1.3...1.5 g/cm³.
PVC-P-FR-SHA60±10 PVC containing plasticizer according to DIN 7749 in soft to very soft setting with flammability reducing plasticizers and possibly small filler additives (e.g. chalk). Also VC/VAC cop... Density 1.20...1.40 g/cm³.
PVC-P-FR-SHA80±10 PVC containing plasticizers according to DIN 7749 in a tightly soft to core-like setting with flame-retardant plasticizers, possibly small filler additives. Also VC/VAC cop... Density 1.25...1.45 g/cm³.
PVC-U Plasticizer-free polyvinyl chloride as mass, suspension or emulsion polymer according to DIN 7748, if necessary small filler additives (e.g. chalk). Density 1.37...1.50 g/cm³.
PVC-U-GF25 Plasticizer-free polyvinyl chloride with approx. 25% glass fibres. Density approx. 1.55 g/cm³.
PVDF Polyvinylidene fluoride. Density 1.76...1.78 g/cm³. Special piezoelectric properties if special crystallite conformation is achieved.
PVDF-GF18±2 Polyvinylidene fluoride with 16...20% glass fibres. Density 1.87...1.89 g/cm³.
PVDF-GB15 Polyvinylidene fluoride with approx. 15% glass beads. Density approx. 1.87 g/cm³.
PVDF-CF15 Polyvinylidene fluoride with approx. 15% carbon fibres. Density 1.77...1.78 g/cm³.
PVDF-PD15 Polyvinylidene fluoride with approx. 15% mica addition. Density 1.84...1.88 g/cm³.
PVDF-AR-PTFE Polyvinylidene fluoride with PTFE additive. Density approx. 1.78 g/cm³.
PVDF-Z-CB Polyvinylidene fluoride with antistatic treatment by conductivity soot. Density approx. 1.73 g/cm³.
PVF Polyvinyl fluoride. Film application only. Density 1.4...1.6 g/cm³. Low density with strong supercooling.
PVK Polyvinylcarbazole. Density approx. 1.19 g/cm³. Extreme molecular anisotropy in flow orientation (fiber structure).
SAN Styrene-acrylonitrile copolymer according to DIN 16775, density 1.07...1.08 g/cm³.
SAN-GF30±5 Styrene-acrylonitrile copolymer according to DIN 16775 with 25...35% glass fibres. Density 1.25...1.36 g/cm³.
SAN-GF30±5-FR-V0 Styrene-acrylonitrile copolymer according to DIN 16775 with 25...35% glass fibres and fire protection finish. Density 1.35...1.50 g/cm³.
SB Medium impact styrene-butadiene graft copolymer according to DIN 16771, similar types also as blends of polystyrene and SBR. Density 1.03...1.05 g/cm³.
SB-FR Impact-resistant styrene-butadiene graft copolymer according to DIN 16771 with fire protection finish. Density 1.06...1.15 g/cm³.
SB-FR-V1,V0 Impact-resistant styrene-butadiene graft copolymer according to DIN 16771 with particularly effective fire protection finish. Density 1.09...1.21 g/cm³.
SB-HI High impact styrene-butadiene graft copolymer according to DIN 16771, density 1.03...1.05 g/cm³.
SB-HI-T High impact and transparent styrene-butadiene block copolymer. Density approx. 1.0 g/cm³.
SB-T Impact resistant and transparent styrene-butadiene block copolymer. Density 1.01...1.03 g/cm³.
SB-Y-CB Impact-resistant and electrically conductive styrene-butadiene graft copolymer with conductivity carbon black additive. Density approx. 1.05 g/cm³.
SB-Z Impact-resistant styrene-butadiene graft copolymer according to DIN 16771 with antistatic finish without soot additive. Density approx. 1.05 g/cm³.
SB-Z-CB Impact-resistant styrene-butadiene graft copolymer according to DIN 16771 with soot additive as antistatic finish. Density approx. 1.05 g/cm³.
SEBS-SHA50±20 Styrene triblock elastomers with polystyrene end blocks and polyethylene/butylene middle blocks. Shore hardness A30...70. Density 0.89...1.19 g/cm³.
SEBS-SHD40±10 Styrene triblock elastomer with polystyrene end blocks and polyethylene/butylene middle blocks. Shore hardness D30...50. Density 0.89...1.19 g/cm³.
SEPDM Graft copolymer based on styrene and ethylene-propylene-diene rubber. Density approx. 1.03 g/cm³.
SI-X-GF+MD Moulding material made of silicone resin, glass fibres and mineral flours. Particularly suitable as a low-pressure molding compound for coatings. Density 1.8...1.9 g/cm³.
SMA Styrene-maleic anhydride copolymers. Density 1.07...1.10 g/cm³.
SMAB Impact-resistant styrene-maleic anhydride-butadiene tercopolymers. Density 1.06...1.09 g/cm³.
SMAB-GF15±5 Impact-resistant styrene-maleic anhydride-butadiene tercopolymers with 10...20% glass fibers. Density 1.13...1.23 g/cm³.
SMAB-GF35±5 Impact-resistant styrene-maleic anhydride-butadiene tercopolymers with 30...40% glass fibers. Density 1.30...1.39 g/cm³.
SMAB-HI High impact styrene-maleic anhydride-butadiene tercopolymers. Density approx. 1.05 g/cm³.
SMMA Styrene-methylmethacrylate copolymer. Density approx. 1.09 g/cm³.
SMS Styrene-methylstyrene copolymer. Classified as polystyrene with high heat resistance according to DIN 7741. Density 1.05...1.06 g/cm³.
TFEHFPVDF Tetrafluoroethylene-hexafluoropropylene-vinylidene fluoride copolymer. Density approx. 1.98 g/cm³.
UF130 Moulding material (no longer included in DIN 7708) made of urea-formaldehyde resin and wood flour. Density 1.4...1.5 g/cm³.
UF131 Moulding material according to DIN 7708 made of urea-formaldehyde resin and cellulose fibres. Density 1.45...1.6 g/cm³.
UF131·5 Moulding material according to DIN 7708 made of urea-formaldehyde resin and cellulose fibres. Electrically higher quality than UF131. density 1,45...1,6 g/cm³.
UP-(GF+MD)75±5 Moulding material made of unsaturated polyester resins, glass fibres and mineral flours with a high filler content (ceramic-like). Density 2.1...2.2 g/cm³.
UP-GMSR(SMC) Moulded resin mat made of unsaturated polyester resins, glass fibre mats. Mineral flours (prepreg). The types 830; 830.5; 832; 832.5 according to DIN 16913. density 1.7...1.9 g/cm³.
UP-(LF+MD) Moulding material from unsaturated polyester resins, organ. fibres or schnitzelnu. Mineral flours. Also types with very low mineral content. Density 1.65...1.75 g/cm³.
UP-AR;FR-GS+MD Moulding material from unsaturated polyester resins, long glass fibres, mineral flours, etc. Additives (BMC; DMC) in abrasion-resistant setting with fire protection equipment. Density 1.65...1.75 g/cm³.
UP-(GF+MD)75±5-FR Moulding material made of unsaturated polyester resins, glass fibres and mineral flours with a high filler content (ceramic-like) as well as fire protection equipment. Density 2.1...2.2 g/cm³.
UP-GMSR(SMC)-FR-V1 Moulded resin mat made of unsaturated polyester resins, glass fibre mats. Mineral flours (prepreg) and fire protection equipment. The types 831; 831.5; 833; 833.5 according to DIN 16913. density 1.8...1.9 g/cm³.
UP-GMSR(SMC)-FR-V0 Resin mat moulding material made of unsaturated polyester resins, glass fibre mats and mineral flours (prepreg) as well as particularly effective fire protection equipment. 834; 834.5 according to DIN 16913. density 1.8...1.9 g/cm³.
UP-(LF+GF+MD)-FR Moulding material from unsaturated polyester resins, organic and inorganic resins Fibres and mineral flours as well as fire protection equipment. High notched impact strength. Density 1.75...1.85 g/cm³.
UP-(LF+MD)-FR Moulding material from unsaturated polyester resins, organ. fibres or schnitzelnu. Mineral flours and fire protection equipment. Density 1.7...1.85 g/cm³.
UP-G-HDTA55 Cast resin made of unsaturated polyester resin with medium heat deflection temperature (HDT/A min. 55°C). Conforms to types 1110 and 1120 according to DIN 16946, on request with or without fire protection equipment. Density 1.17...1.26 g/cm³.
UP-G-HDTA90 Cast resin made of unsaturated polyester with high heat resistance (HDT/A min. 90°C). Corresponds to types 1130 and 1140 according to DIN 16946, on request with or without fire protection equipment. Density 1.17...1.26 g/cm³.
UP801 Moulding material according to DIN 16911 made of unsaturated polyester resins, long glass fibresu. Mineral flours (GS; BMC; DMC), including LS and LP grades. Density 1.75...2.1 g/cm³.
UP802 Moulding material according to DIN 16911 made of unsaturated polyester resins, glass fibres and mineral flours (GF; BMC; DMC). Also associated with similar moulding materials, which do not exactly correspond to type 802. Density 1.8...2.1 g/cm³.
UP803 Moulding material according to DIN 16911 made of unsaturated polyester resins, long glass fibresu. Mineral flours and fire protection equipment (GS; BMC; DMC), including LS and LP qualities. Density 1.8...2.1 g/cm³.
UP804 Moulding material according to DIN 16911 made of unsaturated polyester resins, glass fibres and mineral flours as well as fire protection equipment (GF; BMC; DMC). Also similar shapes which do not exactly correspond to type 804. Density 1.9...2.1 g/cm³.
VCA Vinyl chloride-acrylic ester elastomer graft copolymer, optionally with small filler additives (e.g. chalk). Also blends of VC/A and PVC-U with high VC/A content. Density 1.34...1.50 g/cm³.
VCVAC Vinyl chloride-vinyl acetate copolymer with predominant VC content (over 80%), possibly with low filler additives. Density 1.30...1.40 g/cm³.
VDCVC Vinylidene-chloride-vinyl chloride copolymer with predominant VDC content (over 80%). Density 1.65...1.75 g/cm³.
VDFHFP Vinylidene fluoride-hexafluoropropoylene copolymer. Density 1.75...1.78 g/cm³.
VDFHFP-FR Vinylidene fluoride-hexafluoropropylene copolymer with flue gas reducing fire retardant. Density 1.77...1.78 g/cm³.
VDFHFP-T Vinylidene fluoride-hexafluoropropylene copolymer with soft adjustment and higher transparency in film production. Density approx. 1.78 g/cm³. Also special types with flue gas-reducing fire protection equipment.
VDFHFP-Z-CB Vinylidene fluoride-hexafluoropropylene copolymer with carbon black additive as antistatic finish. Density approx. 1.78 g/cm³.
VF Vulcanised fibre according to DIN 7737 made of parchmentised hydrate cellulose with the special types VF 3110 (mechanical fibre); VF 3120 (electrofibre), VF 3160 (box fibre) incl. special postforming qualities. Density 1.1...1.45 g/cm³.

Permissible regrind content when processing thermoplastics

How much regrind can be added at most during processing so that a given property limit is not exceeded?

Extra – recycling

The picture shows the property profile (here: the elongation at break of PC) for 100% recycling (red bars). The green bars show the calculated profile if 55% regrind is always added to the original material. After the 6th cycle, the value hardly changes.

In practice this means: if the elongation at break is the decisive property and a value of (here) 37.5% is acceptable, 55% regrind can be added to the original material.

Permissible application temperature under continuous heat load

At what maximum temperature can a plastic be used to withstand a certain application time? Based on the stored continuous heat resistance temperatures (3 years), the software calculates the application time curve.

Extra – application temperature

Example (red curve): PA6 withstands a continuous heat load of approx. 50 °C for 20 years if the lower value (75 °C) of the continuous heat resistance (3 years) is used.

Climate maps

Among other things, to take weather and heat resistance into account, the software contains 32 continental climate maps with average values for UV radiation and temperatures (examples here: Africa and Australia).

Climate-dependent water saturation concentration

By selecting a continental or marine climate zone, the climate-dependent water saturation concentration is determined. In addition to the climate zone, the water saturation concentration under water immersion is required – it is stored in the database for the PolSelec materials.

Extra – water saturation concentration

The software module "Commercial products" is optional and contains a database with the most important commercial product data of several plastics manufacturers, which can be used to refine inputs and decisions in the software. The database is also available as standalone software PolPlastics.

Moulding compounds of the following manufacturers are included

A. Schulman ALBIS ARKEMA Asahi Ascend BASF BASF PU Celanese Covestro DOMO Chemicals DSM DuPont EMS-GRIVORY Envalior Evonik Industries AG Evonik Operations GmbH Hexion INEOS Styrolution Kuraray LANXESS LyondellBasell Mitsubishi Chemical Group Mitsubishi EP Mitsui Europe MOCOM PolyOne RadiciGroup RadiciPlastics Röhm SABIC Solvay Engineering Plastics Versalis

Included commercial products

The most important material data of the following moulding compounds are included:

Commercial name Manufacturer Polymer family

The editions differ mainly in the number of usable PolSelec materials and manufacturer commercial products. All other functions are included in all editions.

Trial version Full version Full version + commercial products DB
free of chargeyesnono
registration requirednoyesyes
usable materials (approx. 900)approx. 10%allall
Extra "recycling"approx. 10% of the master curvesall approx. 200 master curvesall approx. 200 master curves
Extra "application temperature under continuous heat load"approx. 10% of the materialsall materialsall materials
usable commercial products (approx. 18,593)approx. 5%approx. 5%all

For system requirements see "Try it now" in the Description tab.

More products

PolTolerances-AC
PolTolerances
PolCycleTime
PolPartDesign
PolPlastics