BS EN 17140:2020
$198.66
Thermal insulation products for buildings. Factory-made vacuum insulation panels (VIP). Specification
Published By | Publication Date | Number of Pages |
BSI | 2020 | 66 |
This document specifies characteristics of factory-made vacuum insulation panels (VIP) intended to be used for the thermal insulation of buildings.
This document is applicable for all types of factory-made vacuum insulation panels (VIP), independent of the core material (see 3.1.10) or type of envelope (see 3.1.11).
This document is applicable for factory-made vacuum insulation panels (VIP) with or without desiccants (see 3.1.12) and with and without evacuation valve (3.1.14).
The products covered by this document can be used in roofs, walls, ceilings and floors.
This document specifies procedures for assessment and verification of constancy of performance (AVCP) of characteristics of factory-made vacuum insulation panels (VIP).
This document does not cover products:
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intended to be used for the thermal insulation of building equipment and industrial installations;
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intended to be used for civil engineering works;
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intended to be used as perimeter or foundation;
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with a thermal resistance R D lower than 0,5 m 2?K/W;
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that contain getters ( 3.1.13);
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that have protective layers ( 3.1.9).
PDF Catalog
PDF Pages | PDF Title |
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2 | undefined |
6 | 1 Scope 2 Normative references |
8 | 3 Terms and definitions, symbols, units and abbreviated terms 3.1 Terms and definitions |
9 | 3.2 Symbols and abbreviated terms |
12 | 4 Characteristics 4.1 Reaction to fire 4.2 Propensity to undergo continuous smouldering |
13 | 4.3 Release of VOCs 4.4 Compressive strength 4.5 Tensile/flexural strength 4.5.1.1 Determination 4.5.1.2 Expression 4.5.2.1 Determination 4.5.2.2 Expression |
14 | 4.6 Thermal resistance 4.6.1.1 Determination 4.6.1.2 Expression 4.6.2.1 Determination 4.6.2.2 Expression 4.7 Durability aspects 4.7.1.1 Determination 4.7.1.2 Expression |
15 | 4.7.2.1 Determination 4.7.2.2 Expression 4.7.3.1 Determination 4.7.3.2 Expression 5 Assessment methods 5.1 General |
16 | 5.2 Test methods |
17 | 5.2.5.1 Tensile strength perpendicular to faces 5.2.5.2 Shear strength |
18 | 5.2.6.1 Thermal resistance of the VIP |
22 | 5.2.6.2 Thermal resistance of the ventilated VIP under ambient pressure due to damage 5.2.7.1 Dimensional stability under specified temperature and humidity conditions 5.2.7.2 Dimensional stability under specified compressive load and temperature conditions 5.2.7.3 Compressive creep |
23 | 6 Assessment and verification of constancy of performance – AVCP 6.1 General 6.2 Assessment of performance |
25 | 6.3 Verification of constancy of performance 6.3.1.1 General 6.3.1.2 Equipment 6.3.1.3 Raw materials and components |
26 | 6.3.1.4 Traceability and marking 6.3.1.5 Product testing and evaluation |
27 | Annex A (normative)Determination of the expressed values of thermal resistance and thermal conductivity A.1 General A.2 Input data A.3 Expressed values A.3.1 General A.3.2 Case where thermal resistance and thermal conductivity are expressed |
28 | A.3.3 Case where only thermal resistance is expressed |
29 | Annex B (normative)Factory production control (FPC) |
32 | Annex C (normative)Determination of the aged values of thermal resistance and thermal conductivity including edge effect C.1 General |
33 | C.2 Time dependence of thermal conductivity C.2.1 Increase of thermal conductivity due to permeation of dry air C.2.2 Increase of thermal conductivity due to permeation of water vapour |
35 | C.2.3 Accelerated ageing C.2.3.1 General |
36 | C.2.3.2 Accelerated ageing of VIP without desiccant |
37 | C.2.3.3 Accelerated ageing of VIP with desiccant with service lifetime greater than 25 years C.2.3.4 Calculation of mean thermal conductivity during service life time 25 years |
38 | C.3 Determination of linear thermal transmittance of vacuum insulation panels C.3.1 General C.3.2 Determination by numerical simulation C.3.3 Determination by experiment |
41 | C.4 Determination of expressed thermal conductivity for VIP including statistical coverage, ageing and thermal bridge effect C.4.1 General C.4.2 Calculation Ī»90/90, R90/90, Ī»D and RD values C.5 Product grouping |
42 | Annex D (normative)Measurement of p1/2 of core materials D.1 General D.2 Leak tight connector method |
43 | D.3 Method using VIP with different inner pressures |
44 | Annex E (normative)Barrier performance of the envelope E.1 General E.2 Acceleration factors E.3 Procedure for measuring the air permeability of an envelope |
45 | E.4 Procedure for measuring the water intake rate of an envelope |
46 | Annex F (normative)Determination of desiccant service life time F.1 General F.2 Method 1 F.3 Method 2 F.3.1 General F.3.2 Estimation of the amount of water inside the VIP core material |
47 | F.3.3 Determination of desiccant amount required for 25 years’ service life time F.3.4 Determination of desiccant capacity |
48 | Annex G (normative)Measurement of inner pressure G.1 Scope/purpose of the test G.2 General (Principle) |
49 | G.3 Apparatus G.4 Test specimens G.5 Procedure G.5.1 General G.5.2 Test condition G.5.3 Pressure compensation method (the lift-off technique) |
50 | G.5.4 Pressure sensor method |
51 | G.5.5 Method for VIP with evacuation valve |
52 | G.5.6 Calculation and expression of results |
53 | G.6 Test report |
55 | Annex H (normative)Mounting and fixing procedure for reaction to fire tests H.1 General H.2 Instructions for mounting and fixing test specimens H.2.1 General H.2.2 Product and installation parameters |
56 | H.2.3 Mounting and fixing H.2.3.1 General H.2.3.2 Ignitability, EN ISO 119252:2020 exposure to thermal attack H.2.3.3 Single burning item (SBI) ā EN 13823:2020 |
60 | Annex ZA (informative)Relationship of this European Standard with Regulation (EU) No.305/2011 |