EN 12085, Thermal insulating products for building applications — Determination of linear dimensions of test EN 12089, Thermal insulating products for building applications — Determinati
Trang 1BSI Standards Publication
Thermal insulation products for buildings — Factory made expanded polystyrene (EPS) products — Specification
Trang 2This British Standard is the UK implementation of EN 13163:2012+A1:2015
It supersedes BS EN 13163:2012, which is withdrawn
The start and finish of text introduced or altered by amendment is indicated in the text by tags Tags indicating changes to CEN text carry the number of the CEN amendment For example, text altered by CEN amendment A1 is indicated by
The UK participation in its preparation was entrusted to Technical Committee B/540, Energy performance of materials components and buildings
A list of organizations represented on this committee can be obtained
on request to its secretary
This publication does not purport to include all the necessary provisions
of a contract Users are responsible for its correct application
© The British Standards Institution 2015
Published by BSI Standards Limited 2015ISBN 978 0 580 86751 4
Amendments/corrigenda issued since publication
Trang 3NORME EUROPÉENNE
English Version
Thermal insulation products for buildings - Factory made expanded polystyrene (EPS) products - Specification
Produits isolants thermiques pour le bâtiment - Produits
manufacturés en polystyrène expansé (EPS) - Spécification Produkte aus expandiertem Polystyrol (EPS) - SpezifikationWärmedämmstoffe für Gebäude - Werkmäßig hergestellte
This European Standard was approved by CEN on 6 October 2012 and includes Amendment 1 approved by CEN on 15 December 2014 CEN members are bound to comply with the CEN/CENELEC Internal Regulations which stipulate the conditions for giving this European Standard the status of a national standard without any alteration Up-to-date lists and bibliographical references concerning such national standards may be obtained on application to the CEN-CENELEC Management Centre or to any CEN member
This European Standard exists in three official versions (English, French, German) A version in any other language made by translation under the responsibility of a CEN member into its own language and notified to the CEN-CENELEC Management Centre has the same status as the official versions
CEN members are the national standards bodies of Austria, Belgium, Bulgaria, Croatia, Cyprus, Czech Republic, Denmark, Estonia, Finland, Former Yugoslav Republic of Macedonia, France, Germany, Greece, Hungary, Iceland, Ireland, Italy, Latvia, Lithuania,
Luxembourg, Malta, Netherlands, Norway, Poland, Portugal, Romania, Slovakia, Slovenia, Spain, Sweden, Switzerland, Turkey and United Kingdom
EUROPEAN COMMITTEE FOR STANDARDIZATION
C O M IT É E U R OP É E N D E N O RM A LIS A T IO N EURO PÄ ISC HES KOM ITE E FÜR NORM UNG
Trang 4Contents
PageForeword 5
1 Scope 7
2 Normative references 7
3 Terms, definitions, symbols, units and abbreviated terms 9
3.1 Terms and definitions 9
3.2 Symbols, units and abbreviated terms 10
4 Requirements 13
4.1 General 13
4.2 For all applications 13
4.2.1 Thermal resistance and thermal conductivity 13
4.2.2 Length and width 14
4.2.3 Thickness 14
4.2.4 Squareness 14
4.2.5 Flatness 14
4.2.6 Reaction to fire of the product as placed on the market 15
4.2.7 Durability characteristics 15
4.3 For specific applications 15
4.3.1 General 15
4.3.2 Dimensional stability 15
4.3.3 Squareness 16
4.3.4 Compressive stress at 10 % deformation 16
4.3.5 Bending strength 17
4.3.6 Tensile strength perpendicular to faces 18
4.3.7 Deformation under specified compressive load and temperature conditions 18
4.3.8 Compressive creep 18
4.3.9 Shear behaviour 19
4.3.10 Cyclic loading behaviour 19
4.3.11 Water absorption 19
4.3.12 Freeze-thaw resistance 19
4.3.13 Water vapour transmission 20
4.3.14 Dynamic stiffness 20
4.3.15 Compressibility (only applicable on EPS T products) 21
4.3.16 Apparent density 22
4.3.17 Reaction to fire of the product in standardised assemblies simulating end-use applications 22
4.3.18 Continuous glowing combustion 22
4.3.19 Release of dangerous substances 22
5 Test methods 22
5.1 Sampling 22
5.2 Conditioning 23
5.3 Testing 23
5.3.1 General 23
5.3.2 Thermal resistance and thermal conductivity 23
6 Designation code 26
Trang 5Contents
PageForeword 5
1 Scope 7
2 Normative references 7
3 Terms, definitions, symbols, units and abbreviated terms 9
3.1 Terms and definitions 9
3.2 Symbols, units and abbreviated terms 10
4 Requirements 13
4.1 General 13
4.2 For all applications 13
4.2.1 Thermal resistance and thermal conductivity 13
4.2.2 Length and width 14
4.2.3 Thickness 14
4.2.4 Squareness 14
4.2.5 Flatness 14
4.2.6 Reaction to fire of the product as placed on the market 15
4.2.7 Durability characteristics 15
4.3 For specific applications 15
4.3.1 General 15
4.3.2 Dimensional stability 15
4.3.3 Squareness 16
4.3.4 Compressive stress at 10 % deformation 16
4.3.5 Bending strength 17
4.3.6 Tensile strength perpendicular to faces 18
4.3.7 Deformation under specified compressive load and temperature conditions 18
4.3.8 Compressive creep 18
4.3.9 Shear behaviour 19
4.3.10 Cyclic loading behaviour 19
4.3.11 Water absorption 19
4.3.12 Freeze-thaw resistance 19
4.3.13 Water vapour transmission 20
4.3.14 Dynamic stiffness 20
4.3.15 Compressibility (only applicable on EPS T products) 21
4.3.16 Apparent density 22
4.3.17 Reaction to fire of the product in standardised assemblies simulating end-use applications 22
4.3.18 Continuous glowing combustion 22
4.3.19 Release of dangerous substances 22
5 Test methods 22
5.1 Sampling 22
5.2 Conditioning 23
5.3 Testing 23
5.3.1 General 23
5.3.2 Thermal resistance and thermal conductivity 23
6 Designation code 26
7 Assessment and Verification of the Constancy of Performance (AVCP) 27
7.1 General 27
7.2 Product Type Determination (PTD) 27
7.3 Factory Production Control (FPC) 27
8 Marking and labelling 27
Annex A (normative) Determination of the declared values of thermal resistance and thermal conductivity 29
A.1 General 29
A.2 Input data 29
A.3 Declared values 29
Annex B (normative) !Product type determination" (!PTD") and factory production control (FPC) 31
B.1 !Product type determination" and factory production control 31
B.2 Indirect testing for factory production control 36
Annex C (normative) Product classification 39
Annex D (normative) Multi layered EPS products 41
D.1 General 41
D.2 Requirements 41
D.3 Test methods 42
D.4 Evaluation of conformity 42
Annex E (informative) Verification of the reaction to fire classification of raw materials 43
E.1 General 43
E.2 Material covered by this annex 43
E.3 Preparation of samples 43
E.4 !Product type determination" for EPS raw material 43
E.5 Factory Production Control for EPS raw material 44
E.6 Certification of conformity for EPS raw material 44
E.7 Continuous surveillance of EPS raw material 45
E.8 Material certificate for EPS raw material 45
E.9 Requirement for raw material supply 46
Annex F (informative) Additional properties 47
F.1 General 47
F.2 Long-term compressive behaviour 47
F.3 Shear behaviour 47
F.4 Water vapour diffusion resistance factor 48
F.5 Examples of determination of thermal conductivity 48
F.6 Additional information 49
Annex ZA (informative) !Clauses of this European Standard addressing the provisions of the EU Construction Products Regulation 50
Bibliography 61
Tables Table 1 — Classes of dimensional tolerances 14
Table 2 — Dimensional stability under specified temperature or specified temperature and humidity conditions 16
Table 3 — Levels for compressive stress at 10 % deformation 17
Table 4 — Levels for bending strength 17
Table 5 — Levels of deformation under specified compressive load and temperature conditions 18
Table 6 — Levels for dynamic stiffness 20
Table 7 — Classes for thickness tolerances 21
Trang 6Table 8 — Levels for compressibility 21
Table 9 — Test methods, test specimens and conditions 24
Table A.1 — Values for k for one sided 90 % tolerance interval with a confidence level of 90 % 30
Table B.1 — Number of tests for !PTD" and minimum product testing frequencies 31
Table B.2 — Minimum product testing frequencies for the reaction to fire characteristics 34
Table C.1 — Classification of EPS products 39
Table C.2 — Classification EPS products with acoustical properties 40
Table E.1 — Testing frequency of raw material 45
Table F.1 — Correlation between bending strength and shear strength 47
Table F.2 —Tabulated values of water vapour diffusion resistance index and water vapour permeability 48
Table ZA.1 — Relevant clauses for factory made expanded polystyrene and intended use 51
Table ZA.2 — Systems of AVCP 52
Table ZA.3.1 — Assignment of AVCP tasks for factory made expanded polystyrene products under system 1 for reaction to fire and system 3 (see Table ZA.2) 53
Table ZA.3.2 — Assignment of AVCP tasks for factory made expanded polystyrene products under system 3 (see Table ZA.2) 54
Table ZA.3.3 — Assignment of AVCP tasks for factory made expanded polystyrene products under combined system 4 for reaction to fire and system 3 (see Table ZA.2) 55
Figures Figure B.1 — Relationship between compressive stress at 10 % deformation and apparent density for indirect testing 37
Figure F.1 — Example of a relationship between thermal conductivity (at 50 mm reference thickness and 10 °C mean temperature) apparent density for indirect testing of non infrared absorbing EPS 49
Figure ZA.1 — Example CE marking information of products under AVCP system 3" 60
Trang 7Table 8 — Levels for compressibility 21
Table 9 — Test methods, test specimens and conditions 24
Table A.1 — Values for k for one sided 90 % tolerance interval with a confidence level of 90 % 30
Table B.1 — Number of tests for !PTD" and minimum product testing frequencies 31
Table B.2 — Minimum product testing frequencies for the reaction to fire characteristics 34
Table C.1 — Classification of EPS products 39
Table C.2 — Classification EPS products with acoustical properties 40
Table E.1 — Testing frequency of raw material 45
Table F.1 — Correlation between bending strength and shear strength 47
Table F.2 —Tabulated values of water vapour diffusion resistance index and water vapour permeability 48
Table ZA.1 — Relevant clauses for factory made expanded polystyrene and intended use 51
Table ZA.2 — Systems of AVCP 52
Table ZA.3.1 — Assignment of AVCP tasks for factory made expanded polystyrene products under system 1 for reaction to fire and system 3 (see Table ZA.2) 53
Table ZA.3.2 — Assignment of AVCP tasks for factory made expanded polystyrene products under system 3 (see Table ZA.2) 54
Table ZA.3.3 — Assignment of AVCP tasks for factory made expanded polystyrene products under combined system 4 for reaction to fire and system 3 (see Table ZA.2) 55
Figures Figure B.1 — Relationship between compressive stress at 10 % deformation and apparent density for indirect testing 37
Figure F.1 — Example of a relationship between thermal conductivity (at 50 mm reference thickness and 10 °C mean temperature) apparent density for indirect testing of non infrared absorbing EPS 49
Figure ZA.1 — Example CE marking information of products under AVCP system 3" 60
Foreword
This document (EN 13163:2012+A1:2015) has been prepared by Technical Committee CEN/TC 88 “Thermal insulating materials and products”, the secretariat of which is held by DIN
This European Standard shall be given the status of a national standard, either by publication of an identical text or by endorsement, at the latest by August 2015, and conflicting national standards shall be withdrawn at the latest by November 2016
Attention is drawn to the possibility that some of the elements of this document may be the subject of patent rights CEN [and/or CENELEC] shall not be held responsible for identifying any or all such patent rights This document has been prepared under a mandate given to CEN by the European Commission and the European Free Trade Association, and supports essential requirements of EU Directive(s)
integral part of this standard."
This document supersedes !EN 13163:2012"
This document includes Amendment 1 approved by CEN on 2014-12-15
The start and finish of text introduced or altered by amendment is indicated in the text by tags !"
The main changes to EN 13163:2008 are:
a) better harmonisation between the individual standards of the package (EN 13162 to EN 13171) on definitions, requirements, classes and levels;
b) new annex on multi-layered products;
c) new annex on voluntary verification of the reaction to fire classification of raw materials;
d) changes on some editorial and technical content and addition of information on some specific items such
as for EPS dimensional stability, compressibility;
e) addition of links to EN 15715, Thermal insulation products — Instructions for mounting and fixing for
reaction to fire testing — Factory made products;
f) changes to the Annex ZA
compliance of the European Standard with the Construction Products Regulation (CPR)
This amendment introduces g) an addition to the foreword;
h) an addition in 3.2;
i) a new subclause 4.3.19;
j) modification of Clause 7;
k) modification of Clause 8;
Trang 8l) modification of Annex B;
m) modification of Annex E;
n) a new Annex ZA."
This standard is one of a series of standards for thermal insulation products used in buildings, but this standard may be used in other areas where appropriate
In pursuance of Resolution BT 20/1993 revised, CEN/TC 88 have proposed defining the standards listed below as a European package of standards
The package of standards comprises the following group of interrelated standards for the specifications of factory made thermal insulation products, all of which come within the scope of CEN/TC 88:
EN 13162, Thermal insulation products for buildings — Factory made mineral wool (MW) products —
The reduction in energy used and emissions produced during the installed life of insulation products exceeds
by far the energy used and emissions made during the production and disposal processes
According to the CEN/CENELEC Internal Regulations, the national standards organisations of the following countries are bound to implement this European Standard: Austria, Belgium, Bulgaria, Croatia, Cyprus, Czech Republic, Denmark, Estonia, Finland, Former Yugoslav Republic of Macedonia, France, Germany, Greece, Hungary, Iceland, Ireland, Italy, Latvia, Lithuania, Luxembourg, Malta, Netherlands, Norway, Poland, Portugal, Romania, Slovakia, Slovenia, Spain, Sweden, Switzerland, Turkey and the United Kingdom
Trang 9l) modification of Annex B;
m) modification of Annex E;
n) a new Annex ZA."
This standard is one of a series of standards for thermal insulation products used in buildings, but this
standard may be used in other areas where appropriate
In pursuance of Resolution BT 20/1993 revised, CEN/TC 88 have proposed defining the standards listed
below as a European package of standards
The package of standards comprises the following group of interrelated standards for the specifications of
factory made thermal insulation products, all of which come within the scope of CEN/TC 88:
EN 13162, Thermal insulation products for buildings — Factory made mineral wool (MW) products —
The reduction in energy used and emissions produced during the installed life of insulation products exceeds
by far the energy used and emissions made during the production and disposal processes
According to the CEN/CENELEC Internal Regulations, the national standards organisations of the following
countries are bound to implement this European Standard: Austria, Belgium, Bulgaria, Croatia, Cyprus, Czech
Republic, Denmark, Estonia, Finland, Former Yugoslav Republic of Macedonia, France, Germany, Greece,
Hungary, Iceland, Ireland, Italy, Latvia, Lithuania, Luxembourg, Malta, Netherlands, Norway, Poland, Portugal,
Romania, Slovakia, Slovenia, Spain, Sweden, Switzerland, Turkey and the United Kingdom
1 Scope
This European Standard specifies the requirements for factory made expanded polystyrene products, with or without rigid or flexible facings or coatings, which are used for the thermal insulation of buildings The products are manufactured in the form of boards or rolls or other preformed ware (flat, tapered, tongue and grooves, shiplap, profiled etc.)
Products covered by this standard are also used for sound insulation and in prefabricated thermal insulation systems and composite panels; the performance of systems incorporating these products is not covered This standard describes product characteristics and includes procedures for testing, evaluation of conformity, marking and labelling
This standard does not specify the required class or level of a given property to be achieved by a product to demonstrate fitness for purpose in a particular application The classes and levels required for a given application are to be found in regulations or non-conflicting standards
Products with a declared thermal resistance lower than 0,25 m²⋅K/W or a declared thermal conductivity at 10
°C greater than 0,060 W/(m⋅K) are not covered by this standard
This standard does not cover in-situ insulation products (covered by FprEN 16025-1 and -2), products intended to be used for the insulation of building equipment and industrial installations (covered by EN 14309), products intended to be used in civil engineering applications (covered by EN 14933) and products intended
to be used in beam and block systems in floors (covered by EN 15037-4)
2 Normative references
The following documents, in whole or in part, are normatively referenced in this document and are indispensable for its application For dated references, only the edition cited applies For undated references, the latest edition of the referenced document (including any amendments) applies
EN 822, Thermal insulating products for building applications — Determination of length and width
EN 823, Thermal insulating products for building applications — Determination of thickness
EN 824, Thermal insulating products for building applications — Determination of squareness
EN 825, Thermal insulating products for building applications — Determination of flatness
EN 826, Thermal insulating products for building applications — Determination of compression behaviour
EN 1602, Thermal insulating products for building applications — Determination of the apparent density
EN 1603, Thermal insulating products for building applications — Determination of dimensional stability under
constant normal laboratory conditions (23 °C/ 50 % relative humidity)
EN 1604, Thermal insulating products for building applications — Determination of dimensional stability under
specified temperature and humidity conditions
EN 1605, Thermal insulating products for building applications — Determination of deformation under
specified compressive load and temperature conditions
EN 1606, Thermal insulating products for building applications — Determination of compressive creep
EN 1607, Thermal insulating products for building applications — Determination of tensile strength
perpendicular to faces
Trang 10EN 12085, Thermal insulating products for building applications — Determination of linear dimensions of test
EN 12089, Thermal insulating products for building applications — Determination of bending behaviour
EN 12090, Thermal insulating products for building applications — Determination of shear behaviour
EN 12091, Thermal insulating products for building applications — Determination of freeze-thaw resistance
EN 12429, Thermal insulating products for building applications — Conditioning to moisture equilibrium under
specified temperature and humidity conditions
EN 12431, Thermal insulating products for building applications — Determination of thickness for floating floor
insulation products
EN 12667, Thermal performance of building material and products — Determination of thermal resistance by
means of guarded hot plate and heat flow meter methods — Products of high and medium thermal resistance
EN 12939, Thermal performance of building materials and products — Determination of thermal resistance by
means of guarded hot plate and heat flow meter methods — Thick products of high and medium thermal resistance
EN 13172:2012, Thermal insulation products — Evaluation of conformity
EN 13501-1, Fire classification of construction products and building elements — Part 1: Classification using
data from reaction to fire tests
EN 13793, Thermal insulating products for building applications — Determination of behaviour under cyclic
loading
EN 13820, Thermal insulating materials for building applications — Determination of organic content
EN 13823, Reaction to fire tests for building products — Building products excluding floorings exposed to the
thermal attack by a single burning item
EN 15715:2009, Thermal insulation products — Instructions for mounting and fixing for reaction to fire testing -
Factory made products
EN 29052-1, Acoustics — Determination of dynamic stiffness — Part 1: Materials used under floating floors in
dwellings (ISO 9052-1)
EN ISO 1182, Reaction to fire tests for building products — Non-combustibility test (ISO 1182)
EN ISO 1716, Reaction to fire tests for products — Determination of the gross heat of combustion (calorific
value) (ISO 1716)
EN ISO 9229:2007, Thermal insulation — Vocabulary (ISO 9229:2007)
Trang 11EN 12085, Thermal insulating products for building applications — Determination of linear dimensions of test
EN 12089, Thermal insulating products for building applications — Determination of bending behaviour
EN 12090, Thermal insulating products for building applications — Determination of shear behaviour
EN 12091, Thermal insulating products for building applications — Determination of freeze-thaw resistance
EN 12429, Thermal insulating products for building applications — Conditioning to moisture equilibrium under
specified temperature and humidity conditions
EN 12431, Thermal insulating products for building applications — Determination of thickness for floating floor
insulation products
EN 12667, Thermal performance of building material and products — Determination of thermal resistance by
means of guarded hot plate and heat flow meter methods — Products of high and medium thermal resistance
EN 12939, Thermal performance of building materials and products — Determination of thermal resistance by
means of guarded hot plate and heat flow meter methods — Thick products of high and medium thermal
resistance
EN 13172:2012, Thermal insulation products — Evaluation of conformity
EN 13501-1, Fire classification of construction products and building elements — Part 1: Classification using
data from reaction to fire tests
EN 13793, Thermal insulating products for building applications — Determination of behaviour under cyclic
loading
EN 13820, Thermal insulating materials for building applications — Determination of organic content
EN 13823, Reaction to fire tests for building products — Building products excluding floorings exposed to the
thermal attack by a single burning item
EN 15715:2009, Thermal insulation products — Instructions for mounting and fixing for reaction to fire testing -
Factory made products
EN 29052-1, Acoustics — Determination of dynamic stiffness — Part 1: Materials used under floating floors in
dwellings (ISO 9052-1)
EN ISO 1182, Reaction to fire tests for building products — Non-combustibility test (ISO 1182)
EN ISO 1716, Reaction to fire tests for products — Determination of the gross heat of combustion (calorific
value) (ISO 1716)
EN ISO 9229:2007, Thermal insulation — Vocabulary (ISO 9229:2007)
EN ISO 11925-2, Reaction to fire tests — Ignitability of products subjected to direct impingement of flame —
Part 2: Single-flame source test (ISO 11925-2)
ISO 16269-6:2005, Statistical interpretation of data — Part 6: Determination of statistical tolerance intervals
3 Terms, definitions, symbols, units and abbreviated terms
3.1 Terms and definitions
For the purposes of this document, the terms and definitions given in EN ISO 9229:2007 apply with exception
or in addition of the following:
3.1.1 expanded polystyrene (EPS)
rigid cellular plastic material, manufactured by moulding beads or granules of expandable polystyrene or one
of its copolymers, with an air filled closed cellular structure, which is divided into four types related to the intended use:
— EPSi: for load bearing applications, where i stands for the declared value (expressed in compressive stress at 10 % deformation)
— EPS S: for non load bearing applications
— EPS SD: for non load bearing applications with acoustic properties
— EPS T: for floating floor applications
3.1.2 expanded polystyrene block
rigid insulation product or material generally of rectangular cross section and with a thickness not significantly smaller than the width, supplied trimmed or untrimmed
3.1.3 expanded polystyrene board
rigid insulation product (cut, moulded, or continuously foamed) of rectangular shape and cross section in which the thickness is significantly smaller than the other dimensions; it may be of uniform thickness or tapered and the edges may be of various sorts (e.g square, half lapped, tongue and groove)
3.1.4 expanded polystyrene roll
boards or strips bonded to a flexible facing, supplied in a wound or folded form, which form a continuous insulation layer when unrolled
3.1.5 preformed ware
insulation shapes formed by cutting or routing from blocks or boards or by shape moulding
3.1.6 level
value, which is the upper or lower limit of a requirement, and given by the declared value of the characteristic concerned
3.1.7 class
combination of two levels of the same property between which the performance shall fall
Trang 123.1.8
multi-layered insulation product
product which can be faced or coated made from two or more layers of a thermal insulation material from the same European Standard, which are bonded together either horizontally by chemical or physical adhesion
3.1.9
composite insulation product
product which can be faced or coated, made from two or more layers bonded together by chemical or physical adhesion consisting of at least one factory made thermal insulation material layer
3.2 Symbols, units and abbreviated terms
Symbols and units used in this standard:
Trang 133.1.8
multi-layered insulation product
product which can be faced or coated made from two or more layers of a thermal insulation material from the
same European Standard, which are bonded together either horizontally by chemical or physical adhesion
3.1.9
composite insulation product
product which can be faced or coated, made from two or more layers bonded together by chemical or physical
adhesion consisting of at least one factory made thermal insulation material layer
3.1.10
facing
functional or decorative surface layer with a thickness of less than 3 mm, e.g paper, plastic film, fabric or
metal foil, which is not considered as separate thermal insulation layer to be added to the thermal resistance
of the product
3.1.11
coating
functional or decorative surface layer with a thickness of less than 3 mm usually applied by painting, spraying,
pouring or trowelling, which is not considered as separate thermal insulation layer to be added to the thermal
resistance of the product
3.2 Symbols, units and abbreviated terms
Symbols and units used in this standard:
Trang 14Wv is the additional water absorption %
CC (i1/i2/y) σc is the symbol of the declared level for compressive creep
laboratory conditions DS(23,90);
prepared by water absorption by diffusion
prepared by long term water absorption by total immersion
Abbreviated terms used in this standard:
!PTD is Product Type Determination (previously named ITT for Initial Type Test)"
conformity)
Trang 15Wv is the additional water absorption %
CC (i1/i2/y) σc is the symbol of the declared level for compressive creep
laboratory conditions DS(23,90);
prepared by water absorption by diffusion
prepared by long term water absorption by total immersion
Abbreviated terms used in this standard:
!PTD is Product Type Determination (previously named ITT for Initial Type Test)"
4 Requirements
4.1 General
Product properties shall be assessed in accordance with Clause 5 To comply with this standard, products shall meet the requirements of 4.2, and the requirements of 4.3 as appropriate
NOTE Information on additional properties is given in Annex F
For multi-layered products, additional requirements are given in Annex D
One test result for a product property is the average of the measured values on the number of test specimens given in Table 9
4.2 For all applications
4.2.1 Thermal resistance and thermal conductivity
Thermal resistance and thermal conductivity shall be based upon measurements carried out in accordance with EN 12667 or EN 12939 for thick products
The thermal resistance and the thermal conductivity shall be determined in accordance with Annex A and declared by the manufacturer according to the following:
— the reference mean temperature shall be 10 ºC;
— the measured values shall be expressed with three significant figures;
— for products of uniform thickness, the thermal resistance, RD, shall always be declared The thermal conductivity, λD, shall be declared where possible Where appropriate, for products of non-uniform
thickness (i.e for sloped, tapered or shape moulded non flat products) only the thermal conductivity, λD, shall be declared;
— the declared thermal resistance, RD, and the declared thermal conductivity, λD, shall be given as limit values representing at least 90 % of the production, determined with a confidence level of 90 %;
0,001 W/(m⋅K) and declared as λD in levels with steps of 0,001 W/(m⋅K);
— the declared thermal resistance, RD, shall be calculated from the nominal thickness, dN, or dL in case of
products with declared compressibility (see 4.3.15.4) and the corresponding thermal conductivity, λ90/90, unless measured directly;
— the statistical value of the thermal resistance, R90/90, when calculated from the nominal thickness, dN, or dL
in case of products with declared compressibility (see 4.3.15.4) and the corresponding thermal
conductivity, λ90/90, shall be rounded downwards to the nearest 0,05 m²⋅K/W, and declared as RD in levels with steps of 0,05 m²⋅K/W;
— the statistical value of thermal resistance, R90/90, for those products for which only the thermal resistance is
measured directly, shall be rounded downwards to the nearest 0,05 m²⋅K/W, and declared as RD in levels with steps of 0,05 m²⋅K/W
Trang 16NOTE λU and RU (design values) may be determined with reference to EN ISO 10456 [8]
4.2.2 Length and width
Length, l, and width, b, shall be determined in accordance with EN 822 No test result shall deviate from the
nominal values by more than the tolerances given in Table 1 for the declared class
Table 1 — Classes of dimensional tolerances
a Whichever gives the greatest numerical tolerance
b For further classes, see 4.3.15.1
c Flatness is expressed per metres run
Trang 17NOTE λU and RU (design values) may be determined with reference to EN ISO 10456 [8]
4.2.2 Length and width
Length, l, and width, b, shall be determined in accordance with EN 822 No test result shall deviate from the
nominal values by more than the tolerances given in Table 1 for the declared class
4.2.3 Thickness
Thickness, d, shall be determined in accordance with EN 823 No test result shall deviate from the nominal
thickness, dN, by more than the tolerances given in Table 1 for the declared class
This test shall not be performed when the tests described in 4.3.15 are used
4.2.4 Squareness
Squareness, S, shall be determined in accordance with EN 824 The deviation from squareness on length and
width, Sbi, shall not exceed the tolerances given in Table 1, for the declared class
4.2.5 Flatness
Flatness, P, shall be determined in accordance with EN 825 The maximum deviation from flatness, Smax, shall
not exceed the tolerances given in Table 1 for the declared class This test is not applicable for EPS T
products
Table 1 — Classes of dimensional tolerances
a Whichever gives the greatest numerical tolerance
b For further classes, see 4.3.15.1
c Flatness is expressed per metres run
4.2.6 Reaction to fire of the product as placed on the market
Reaction to fire classification of the product, as placed on the market, shall be determined in accordance with
EN 13501-1 and the basic mounting and fixing rules given in EN 15715
NOTE This classification is compulsory and always included in the CE Marking label
Detailed information about the test conditions and the field of application of the classification as stated in the reaction to fire classification report shall be given in the manufacturer's literature
4.2.7 Durability characteristics 4.2.7.1 General
The appropriate durability characteristics have been considered and are covered in 4.2.7.2, 4.2.7.3 and where appropriate in 4.3.7 on compressive creep
4.2.7.2 Durability of reaction to fire of the product as placed on the market against ageing/degradation
The reaction to fire performance of EPS products as declared by 4.2.6 Reaction to fire of the product as placed on the market does not change with time
4.2.7.3 Durability of thermal resistance and thermal conductivity against ageing/degradation
The thermal conductivity of EPS products does not change with time This is covered and considered for declaration by 4.2.1 Thermal conductivity and any change in thickness is covered by at least one of 4.3.2 Dimensional stability tests, as relevant
4.3 For specific applications
4.3.1 General
If there is no requirement for a property described in 4.3 for a product in use, then the property does not need
to be determined and declared by the manufacturer
4.3.2 Dimensional stability
Dimensional stability under constant normal laboratory conditions shall be determined in accordance with
EN 1603 The relative changes in length, Δεl, and width, Δεb, shall not exceed the values given in Table 2 for the declared class
Dimensional stability under specified temperature and humidity conditions shall be determined in accordance
with EN 1604 The relative changes in length, Δεl, width, Δεb, and thickness, Δεd, shall not exceed the values given in Table 2 for the declared class
Trang 18Table 2 — Dimensional stability under specified temperature or specified temperature and humidity
conditions
Requirement Length, Δεl,
The test DS (70,-) and DS (23,90) need not be performed when the test DS (70,90) is used
NOTE Moisture does not affect the dimensional stability of EPS
4.3.3 Squareness
Squareness, S, shall be determined in accordance with EN 824 The deviation from squareness on thickness,
Sd, shall not exceed 1 mm or 5 mm/m, whichever is the greater value
4.3.4 Compressive stress at 10 % deformation
Compressive stress at 10 % deformation, σ10, shall be determined in accordance with EN 826 No test result
of compressive stress at 10 % deformation, CS(10)i, shall be less than the value given in Table 3 for the declared level
Trang 19Table 2 — Dimensional stability under specified temperature or specified temperature and humidity
conditions
Requirement Length, Δεl,
The test DS (70,-) and DS (23,90) need not be performed when the test DS (70,90) is used
NOTE Moisture does not affect the dimensional stability of EPS
4.3.3 Squareness
Squareness, S, shall be determined in accordance with EN 824 The deviation from squareness on thickness,
Sd, shall not exceed 1 mm or 5 mm/m, whichever is the greater value
4.3.4 Compressive stress at 10 % deformation
Compressive stress at 10 % deformation, σ10, shall be determined in accordance with EN 826 No test result
of compressive stress at 10 % deformation, CS(10)i, shall be less than the value given in Table 3 for the
declared level
Table 3 — Levels for compressive stress at 10 % deformation
Higher values, with steps of 10 kPa can also be declared
NOTE The compression stress at 10 % deformation is not a design value
If EPS products are classified according to Table C.1, the products shall fulfil the requirements of bending strength given in Table C.1
4.3.5 Bending strength
Bending strength, σb, shall be determined in accordance with EN 12089 The value of the bending strength,
BS, shall not be less than the value given in Table 4 for the declared level
Table 4 — Levels for bending strength
Trang 204.3.6 Tensile strength perpendicular to faces
Tensile strength perpendicular to faces, σmt, shall be determined in accordance with EN 1607 The test result
of tensile strength perpendicular to faces, TRi, shall be at least 20 kPa and the value shall be declared in levels with steps of 10 kPa No test result shall be less than the declared level
4.3.7 Deformation under specified compressive load and temperature conditions
Deformation under specified compressive load and temperature conditions shall be determined in accordance with EN 1605 For each set of conditions, the total of deformation under specified load and temperature conditions shall not exceed the values given in Table 5 for the declared level
Table 5 — Levels of deformation under specified compressive load and temperature conditions
temperature: (80 ± 1) °C time: (48 ± 1) h
< 5 a
temperature: (70 ± 1) °C time: (168 ± 1) h
< 5 a
temperature: (60 ± 1) °C time: (168 ± 1) h
< 5 a
a At thicknesses lower than 20 mm the requirement is 1 mm instead of 5 %
4.3.8 Compressive creep
Compressive creep, εct, and total thickness reduction, Xt, shall be determined after at least one hundred
twenty two days of testing at a declared compressive stress, σc, given in steps of at least 1 kPa, and the results extrapolated thirty times, corresponding to ten years, to obtain the declared levels in accordance with
EN 1606 Compressive creep shall be declared in levels, i2, and the total thickness reduction shall be declared
in levels, i1, with steps of 0,5 % at the declared stress No test result shall exceed the declared levels at the declared stress
NOTE 1 Referring to the designation code CC(i1/i2/y)σc, according to Clause 6, a declared level CC(2,5/2/50)100 for example, indicates a value not exceeding 2 % for compressive creep, and 2,5 % for total thickness reduction after extrapolation at 50 years (i.e 30 times six hundred and eight days of testing) under a declared stress of 100 kPa
NOTE 2 Testing times According to EN 1606, the procedure at 10, 25 and 50 years respectively require the following testing times:
Trang 214.3.6 Tensile strength perpendicular to faces
Tensile strength perpendicular to faces, σmt, shall be determined in accordance with EN 1607 The test result
of tensile strength perpendicular to faces, TRi, shall be at least 20 kPa and the value shall be declared in
levels with steps of 10 kPa No test result shall be less than the declared level
4.3.7 Deformation under specified compressive load and temperature conditions
Deformation under specified compressive load and temperature conditions shall be determined in accordance
with EN 1605 For each set of conditions, the total of deformation under specified load and temperature
conditions shall not exceed the values given in Table 5 for the declared level
Table 5 — Levels of deformation under specified compressive load and temperature conditions
temperature: (80 ± 1) °C time: (48 ± 1) h
< 5 a
temperature: (70 ± 1) °C time: (168 ± 1) h
< 5 a
temperature: (60 ± 1) °C time: (168 ± 1) h
< 5 a
a At thicknesses lower than 20 mm the requirement is 1 mm instead of 5 %
4.3.8 Compressive creep
Compressive creep, εct, and total thickness reduction, Xt, shall be determined after at least one hundred
twenty two days of testing at a declared compressive stress, σc, given in steps of at least 1 kPa, and the
results extrapolated thirty times, corresponding to ten years, to obtain the declared levels in accordance with
EN 1606 Compressive creep shall be declared in levels, i2, and the total thickness reduction shall be declared
in levels, i1, with steps of 0,5 % at the declared stress No test result shall exceed the declared levels at the
declared stress
NOTE 1 Referring to the designation code CC(i1/i2/y)σc, according to Clause 6, a declared level CC(2,5/2/50)100 for
example, indicates a value not exceeding 2 % for compressive creep, and 2,5 % for total thickness reduction after
extrapolation at 50 years (i.e 30 times six hundred and eight days of testing) under a declared stress of 100 kPa
NOTE 2 Testing times According to EN 1606, the procedure at 10, 25 and 50 years respectively require the following
Shear strength, τ, and/or shear modulus, G, shall be determined in accordance with EN 12090 The values of
shear strength, SSi, shall be declared in levels with steps of 5 kPa The values of shear modulus, GMi, shall
be declared in levels with steps of 50 kPa No test result shall be lower than the declared level
4.3.10 Cyclic loading behaviour
Resistance to cycling compressive loading shall be determined in accordance with EN 13793 The relative
deformation, εl,max, in percent shall be after a defined number of load cycles and the applied compressive stress, σi The relative deformation, εl,max, shall be declared as level i No test result shall exceed the declared level at the declared number of load cycles and the declared compressive stress
4.3.11 Water absorption 4.3.11.1 Long-term water absorption by immersion
Long-term water absorption by immersion shall be determined in accordance with EN 12087, either for partial
immersion, Wlp, or for total immersion, Wlt, or both
The value of water absorption by partial immersion, WL(P)i, shall be declared in levels with steps of 0,1 kg/m²
No test result shall exceed the declared level
The value of water absorption by total immersion, WL(T)i, shall be declared in levels with steps of 0,5 % by volume No test result shall exceed the declared level
4.3.11.2 Long-term water absorption by diffusion
Long-term water absorption by diffusion, Wdv, shall be determined in accordance with EN 12088
The value of long-term water absorption by diffusion, WD(V)i, shall be declared in levels with steps of 1 volume % No test result shall exceed the declared level
NOTE The long-term water absorption by diffusion is not only used as an accelerated test but can also be used for classification
4.3.12 Freeze-thaw resistance 4.3.12.1 General
Freeze-thaw resistance shall be determined in accordance with EN 12091 After the freeze-thaw test the
reduction of compressive stress at 10 % deformation, σ10, of the re-dried specimens, when tested according to
EN 826 shall not exceed 10 % of the initial value
The density of the samples should not vary more than ± 2 kg/m³ or ± 5 %, whichever is the greatest, to prevent non-comparable results before and after the cycles
NOTE Freeze-thaw test may be necessary to determine the durability of an insulation product when it is directly exposed to the combined action of water and freeze-thaw cycles
4.3.12.2 Freeze-thaw resistance after long term water absorption by total immersion
Freeze-thaw resistance after long term water absorption by total immersion test shall be determined using the test specimens from 4.3.11.1
Trang 22The freeze-thaw resistance after long term water absorption by total immersion test, FTCIi, shall be declared
giving the additional water absorption, WV, in levels with steps of 1 % by volume No test result shall be higher than the declared level
4.3.12.3 Freeze-thaw resistance after long term water absorption by diffusion
Freeze-thaw resistance after long term water diffusion test shall be determined using the test specimens from 4.3.11.2
The freeze-thaw resistance, after long term water absorption by diffusion test, FTCDi, shall be declared giving
the additional water absorption, WV, in levels with steps of 1 % by volume No test result shall be higher than the declared level
4.3.13 Water vapour transmission
Water vapour transmission properties shall be determined in accordance with EN 12086 and declared as the
water vapour diffusion resistance factor, µ, for homogeneous products and as the water vapour resistance, Z, for faced products All test results of µ and/or all test results of Z shall be within the range declared by the
manufacturer
In the absence of measurement data, the water vapour resistance diffusion factor, µ, of EPS products may be
chosen from Table F.2
4.3.14 Dynamic stiffness
Dynamic stiffness, s’, shall be determined in accordance with EN 29052-1 No test result shall exceed the
value, SDi, given in Table 6, for the declared level
Table 6 — Levels for dynamic stiffness
For products in level CP2 (see 4.3.15.4), if the imposed load exceeds 5,0 kPa, the dynamic stiffness, s', shall
be determined under the imposed load plus the self-weight of the screed
For EPS T products, the requirement on dimensional stability DS (70,-) shall be maximum 5 % to keep the declared dynamic stiffness
Trang 23The freeze-thaw resistance after long term water absorption by total immersion test, FTCIi, shall be declared
giving the additional water absorption, WV, in levels with steps of 1 % by volume No test result shall be higher
than the declared level
4.3.12.3 Freeze-thaw resistance after long term water absorption by diffusion
Freeze-thaw resistance after long term water diffusion test shall be determined using the test specimens from
4.3.11.2
The freeze-thaw resistance, after long term water absorption by diffusion test, FTCDi, shall be declared giving
the additional water absorption, WV, in levels with steps of 1 % by volume No test result shall be higher than
the declared level
4.3.13 Water vapour transmission
Water vapour transmission properties shall be determined in accordance with EN 12086 and declared as the
water vapour diffusion resistance factor, µ, for homogeneous products and as the water vapour resistance, Z,
for faced products All test results of µ and/or all test results of Z shall be within the range declared by the
manufacturer
In the absence of measurement data, the water vapour resistance diffusion factor, µ, of EPS products may be
chosen from Table F.2
4.3.14 Dynamic stiffness
Dynamic stiffness, s’, shall be determined in accordance with EN 29052-1 No test result shall exceed the
value, SDi, given in Table 6, for the declared level
Table 6 — Levels for dynamic stiffness
For products in level CP2 (see 4.3.15.4), if the imposed load exceeds 5,0 kPa, the dynamic stiffness, s', shall
be determined under the imposed load plus the self-weight of the screed
For EPS T products, the requirement on dimensional stability DS (70,-) shall be maximum 5 % to keep the
declared dynamic stiffness
4.3.15 Compressibility (only applicable on EPS T products) 4.3.15.1 General
The main application of products with declared compressibility properties is in floating floors
4.3.15.2 Thickness, dL
The thickness, dL, shall be determined in accordance with EN 12431 No test result shall deviate from the
thickness, dL, by more than the tolerances given in Table 7 for the labelled class
Table 7 — Classes for thickness tolerances
a Whichever gives the greatest numerical tolerance
NOTE The declared value of dL should preferably be indicated in steps of 5 mm, the smallest value of dL being
kPa
Compressibility, c
Nominal compressibility
NOTE 1 A test result is the mean of the readings for the number of test specimen tested
In case of tapered, profiled or other non-plan parallel products, the specimens should be made plan parallel before testing
NOTE 2 The levels of the imposed load on the screed are taken from EN 1991-1-1
Trang 244.3.15.5 Long-term thickness reduction
If the imposed load on the screed exceeds 5 kPa, only products having a declared level of compressibility of CP2 may be used and their long-term thickness reduction shall be determined
The total thickness reduction, Xt = X0 + Xct shall be determined after one hundred and twenty two days of testing at the imposed load plus the self-weight of the screed, in accordance with EN 1606 and extrapolated thirty times, corresponding to ten years The ten years value shall not exceed the declared level of
compressibility c (see 4.3.15.4)
4.3.16 Apparent density
Apparent density, ρa, shall be determined in accordance with EN 1602
NOTE Density is a production parameter, which can be used for indirect testing
4.3.17 Reaction to fire of the product in standardised assemblies simulating end-use applications
Reaction to fire classification of products in standardised assemblies simulating end-use applications excluding pipe insulation shall be determined in accordance with EN 13501-1 and the mounting and fixing rules given in EN 15715
This classification offers the opportunity to give a complementary and optional declaration on reaction to fire for standard test configurations of assemblies which include the insulation product
The number of selected test configuration of assembly (Table 5 of EN 15715:2009) which is used in the test shall be quoted with the Euroclass
Detailed information about the test conditions and the field of application of the classification as stated in the reaction to fire classification report shall be given in the manufacturer’s literature
4.3.18 Continuous glowing combustion
NOTE A test method is under development and the standard will be amended when this is available
4.3.19 Release of dangerous substances
sometimes content, when construction products covered by this standard are placed on those markets
In the absence of European harmonized test methods, verification and declaration on release/content should
be done taking into account national provisions in the place of use
NOTE An informative database covering European and national provisions on dangerous substances is available at
the Construction web site on EUROPA accessed through: http://ec.europa.eu/enterprise/construction/cpd-ds/."
5 Test methods
5.1 Sampling
Test specimens shall be taken from the same sample with a total area not less than 1 m² and sufficient to cover the needed tests The shorter side of the sample shall not be less than 300 mm or a full size of the product, whichever is smaller
Trang 254.3.15.5 Long-term thickness reduction
If the imposed load on the screed exceeds 5 kPa, only products having a declared level of compressibility of
CP2 may be used and their long-term thickness reduction shall be determined
The total thickness reduction, Xt = X0 + Xct shall be determined after one hundred and twenty two days of
testing at the imposed load plus the self-weight of the screed, in accordance with EN 1606 and extrapolated
thirty times, corresponding to ten years The ten years value shall not exceed the declared level of
compressibility c (see 4.3.15.4)
4.3.16 Apparent density
Apparent density, ρa, shall be determined in accordance with EN 1602
NOTE Density is a production parameter, which can be used for indirect testing
4.3.17 Reaction to fire of the product in standardised assemblies simulating end-use applications
Reaction to fire classification of products in standardised assemblies simulating end-use applications
excluding pipe insulation shall be determined in accordance with EN 13501-1 and the mounting and fixing
rules given in EN 15715
This classification offers the opportunity to give a complementary and optional declaration on reaction to fire
for standard test configurations of assemblies which include the insulation product
The number of selected test configuration of assembly (Table 5 of EN 15715:2009) which is used in the test
shall be quoted with the Euroclass
Detailed information about the test conditions and the field of application of the classification as stated in the
reaction to fire classification report shall be given in the manufacturer’s literature
4.3.18 Continuous glowing combustion
NOTE A test method is under development and the standard will be amended when this is available
4.3.19 Release of dangerous substances
sometimes content, when construction products covered by this standard are placed on those markets
In the absence of European harmonized test methods, verification and declaration on release/content should
be done taking into account national provisions in the place of use
NOTE An informative database covering European and national provisions on dangerous substances is available at
the Construction web site on EUROPA accessed through: http://ec.europa.eu/enterprise/construction/cpd-ds/."
5 Test methods
5.1 Sampling
Test specimens shall be taken from the same sample with a total area not less than 1 m² and sufficient to
cover the needed tests The shorter side of the sample shall not be less than 300 mm or a full size of the
product, whichever is smaller
5.2 Conditioning
No special conditioning of the test specimens is needed, unless otherwise specified in the test standard except for the determination of thermal conductivity For determination of thermal conductivity the test specimens shall be conditioned until constant mass, according to EN 12429, in an oven at a temperature of
5.3.2 Thermal resistance and thermal conductivity
Thermal resistance and thermal conductivity shall be determined in accordance with EN 12667 or EN 12939 for thick products and under the following conditions:
— at a mean temperature of (10 ± 0,3) °C;
— after conditioning in accordance with 5.2;
Thermal resistance and the thermal conductivity may also be measured at mean temperatures other than
10 °C, providing that the accuracy of the relationship between temperature and thermal properties is sufficiently well documented
When measured thickness is used for testing of thermal resistance and thermal conductivity, the test thickness should be the smallest of the measured points on the test specimen (and not the mean) as far as possible to avoid any air gaps during testing
Thermal resistance and thermal conductivity shall be determined directly at measured thickness In the event that this is not possible, they shall be determined by measurements on other thicknesses of the product providing that:
— the product is of similar chemical and physical characteristics and is produced on the same production unit;
— and it can be demonstrated in accordance with EN 12939 that the thermal conductivity does not vary more than 2 % over the range of the thickness where the calculation is applied
Trang 26Table 9 — Test methods, test specimens and conditions Clause
Test method
Test specimen Length and width a
Dimensions in millimetres
Minimum number of measure-ments
to get one test result
Specific conditions
(250 ± 5) Pa4.2.4
4.3.3
product as placed on the
market
EN 15715:200
9, Clause 5
constant normal laboratory
conditions
specified temperature and
specified compressive load
and temperature conditions
coverings have to be cut off
le * be *de 3
Trang 27-Table 9 — Test methods, test specimens and conditions Clause
Test method
Test specimen Length and
width a
Dimensions in millimetres
Minimum number of
measure-ments
to get one test result
Specific conditions
(250 ± 5) Pa4.2.4
4.3.3
product as placed on the
market
EN 15715:200
9, Clause 5
constant normal laboratory
conditions
specified temperature and
specified compressive load
and temperature conditions
coverings have to be cut
off
le * be *de 3
Test specimen Length and width a
Dimensions in millimetres
Minimum number of measure-ments
to get one test result
Specific conditions
EN 12088
EN 12086:1997, 6.1
4.3.15.2 4.3.15.3 4.3.15.4
after the preload has been removedLong term thickness
product in standardises assemblies simulating end-use applications
-a Test specimen dimensions sh-all be determined in -accord-ance with EN 12085
b For calculation of the 90 % fractile and 90 % confidence level, the individual measurement shall be used
c Not yet available
d Sample size with thickness d < 50 mm
e Sample size used for boards ≥ 50 mm
f For boards of thickness d < 50 mm and shape moulded products
g The specimens shall have the same thickness and shall not deviate in density more than 1,5 kg/m³
h Maximum thickness 50 mm
Trang 286 Designation code
A designation code for the product shall be given by the manufacturer The following shall be included except when there is no requirement for a property described in 4.3:
Where “i” shall be used to indicate the relevant class or level or the declared value and for compressive creep
the term „σc“ shall be used to indicate the compressive stress and “y” to indicate the number of years
The designation code for an EPS product is illustrated by the following example:
EXAMPLE EPS – EN 13163 — T2 – L3 – W2 – Sb5 – P30 – BS100 — CS(10)60 – DS(N)5 – DLT(1)5 – TR50 – WL(T)5 – WD(V)15
NOTE The characteristics determined in 4.2 are not included in the designation code if a limit value (threshold value)
is given for the product
Trang 296 Designation code
A designation code for the product shall be given by the manufacturer The following shall be included except
when there is no requirement for a property described in 4.3:
Where “i” shall be used to indicate the relevant class or level or the declared value and for compressive creep
the term „σc“ shall be used to indicate the compressive stress and “y” to indicate the number of years
The designation code for an EPS product is illustrated by the following example:
EXAMPLE EPS – EN 13163 — T2 – L3 – W2 – Sb5 – P30 – BS100 — CS(10)60 – DS(N)5 – DLT(1)5 – TR50 –
WL(T)5 – WD(V)15
NOTE The characteristics determined in 4.2 are not included in the designation code if a limit value (threshold value)
is given for the product
The compliance of the product with the requirements of this standard and with the stated values (including classes) shall be demonstrated by:
— Product Type Determination (PTD),
— Factory Production Control (FPC) by the manufacturer, including product assessment
If a manufacturer decides to group his products, it shall be done in accordance with EN 13172
7.2 Product Type Determination (PTD)
All characteristics defined in 4.2 and those in 4.3 if declared, shall be subject to Product Type Determination (PTD) in accordance with Annex B
For the relevant characteristics, PTD on products corresponding also to EN 13499, EN 14309, EN 14933 and
EN 15037-4 may be used for the purpose of PTD and Declaration of Performance (DoP) according to this standard
7.3 Factory Production Control (FPC)
The minimum frequencies of tests in the factory production control (FPC) shall be in accordance with Annex B When indirect testing is used, the correlation to direct testing shall be established in accordance with
EN 13172
For the relevant characteristics, FPC on products corresponding also to EN 13499, EN 14309, EN 14933 and
EN 15037-4 may be used for the purpose of FPC and DoP according to this standard."
8 Marking and labelling
Products conforming to this standard shall be clearly marked, either on the product or on the label or on the packaging, with the following information:
— product name or other identifying characteristic;
— name and address of the manufacturer or identifying mark or his authorised representative;
— shift or time of production or traceability code;
— reaction to fire class of the product as placed on the market in accordance with 4.2.6 (RtF)
If tests on standardised assemblies have been performed according to Clause 6 of EN 15715:2009 then the reaction to fire classification shall be added and identified with the designation “Standardised assembly no x” after the classification This information shall be kept distinct from the CE-marking
Trang 30The number of the standardised assembly is taken from EN 15715:2009, Table 5 Refer to the manufacturer’s literature (ML) for further information
— declared thermal resistance;
— declared thermal conductivity;
— nominal thickness;
— designation code as given in Clause 6;
— nominal length;
— nominal width;
— type of facing, if any;
— number of pieces and area in the package, as appropriate;
— for EPS T products dL-c;
!
— the intended use of the expanded polystyrene for insulation of buildings is given by the abbreviation ThlB."
NOTE For CE marking and labelling see ZA.3
EXAMPLE Additional voluntary information:
Any other voluntary information on the product such as:
— Reaction to fire for standardised assembly No 1, 2, 3, 4
— Voluntary marks
Trang 31The number of the standardised assembly is taken from EN 15715:2009, Table 5 Refer to the manufacturer’s
literature (ML) for further information
— declared thermal resistance;
— declared thermal conductivity;
— nominal thickness;
— designation code as given in Clause 6;
— nominal length;
— nominal width;
— type of facing, if any;
— number of pieces and area in the package, as appropriate;
— for EPS T products dL-c;
!
— the intended use of the expanded polystyrene for insulation of buildings is given by the abbreviation
ThlB."
NOTE For CE marking and labelling see ZA.3
EXAMPLE Additional voluntary information:
Any other voluntary information on the product such as:
— Reaction to fire for standardised assembly No 1, 2, 3, 4
of thermal resistance and thermal conductivity of a product are the expected values of these properties during
an economically reasonable working life under normal conditions assessed through measured data at reference conditions
A.2 Input data
The manufacturer shall have at least ten test results for thermal resistance or thermal conductivity, obtained from internal or external direct measurements in order to calculate the declared values The direct thermal resistance or thermal conductivity measurements shall be carried out at regular intervals spread over a period
of the last twelve months If less than ten test results are available, the time period may be extended until ten test results are obtained, but with a maximum period of three years, within which the product and production conditions have not changed significantly
For new products, the ten thermal resistance or thermal conductivity test results shall be carried out spread over a minimum period of ten days
The declared values shall be calculated according to the method given in A.3 and shall be recalculated at intervals not exceeding three months of production
A.3 Declared values
A.3.1 General
The derivation of the declared values, RD and λD, from the calculated values, R90/90 and λ90/90, shall use the rules given in 4.2.1 which include the rounding conditions
A.3.2 Case where thermal resistance and thermal conductivity are declared
The declared values, RD and λD, shall be derived from the calculated values, R90/90 and λ90/90, which are determined using Formulae (A.1), (A.2) and (A.3)
n
i
λ λ
(A.2)
(or dL in case of products with declared compressibility (see 4.3.6.3)
Trang 32Values for k shall be taken from Table A.1
A.3.3 Case where thermal resistance is declared
The declared value, RD, shall be derived from the calculated value, R90/90, which is determined using Formulae (A.4) and (A.5)
n
i
(A.5)
Values for k shall be taken from Table A.1
Table A.1 — Values for k for one sided 90 % tolerance interval with a confidence level of 90 %
Trang 33Values for k shall be taken from Table A.1
A.3.3 Case where thermal resistance is declared
The declared value, RD, shall be derived from the calculated value, R90/90, which is determined using Formulae
(A.4) and (A.5)
n
i
(A.5)
Values for k shall be taken from Table A.1
Table A.1 — Values for k for one sided 90 % tolerance interval with a confidence level of 90 %
B.1 !Product type determination" and factory production control
Table B.1 — Number of tests for !PTD" and minimum product testing frequencies
number of tests c
Minimum testing frequency
product as placed on the market
1 per 2 h