BS EN 15101-1:2013+A1:2019
$198.66
Thermal insulation products for buildings. In-situ formed loose fill cellulose (LFCI) products – Specification for the products before installation
Published By | Publication Date | Number of Pages |
BSI | 2019 | 70 |
This European Standard specifies requirements for loose-fill cellulose insulation (LFCI) products for the thermal and/or sound insulation of buildings when installed into walls, floors, galleries, roofs and ceilings.
This European Standard is a specification for the loose-fill cellulose insulation (LFCI) products before installation.
This European Standard describes the product characteristics and includes procedures for testing, marking and labelling and the rules for evaluation of conformity.
Products covered by this European Standard may also be used in prefabricated thermal insulation systems and composite panels; the structural performance of systems incorporating these products is not covered.
Products with a declared thermal conductivity at 10 Ā°C greater than 0,060 W/(m Ć K) or a declared thermal resistance lower than 0,25 m2 Ć K/W are not covered by this European Standard.
This European Standard does not specify the required level of all properties to be achieved by a product to demonstrate fitness for purpose in a particular application. The required levels are to be found in local regulations or non-conflicting standards.
This European Standard does not cover factory made cellulose products placed on the market as bats, mats or boards intended to be used for the insulation of buildings or loose-fill cellulose products for the insulation of building equipment and industrial installations.
PDF Catalog
PDF Pages | PDF Title |
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2 | undefined |
9 | 1 Scope 2 Normative references |
10 | 3 Terms, definitions, symbols and abbreviations 3.1 Terms and definitions |
11 | 3.2 Symbols |
12 | 3.3 Abbreviations 4 Requirements 4.1 General 4.2 For all applications 4.2.1 Thermal resistance and thermal conductivity |
13 | 4.2.2 Settlement 4.2.2.1 General 4.2.2.2 Horizontal applications, loft and floors 4.2.2.3 Cavity insulation, frame constructions and cavity walls |
14 | 4.2.3 Reaction to fire 4.2.4 Durability 4.2.4.1 General 4.2.4.2 Durability of reaction to fire against ageing/degradation 4.2.4.3 Durability of thermal resistance against ageing/degradation 4.3 For specific applications 4.3.1 General 4.3.2 Short-term water absorption 4.3.3 Water vapour diffusion resistance factor |
15 | 4.3.4 Dangerous substances 4.3.5 Corrosion resistance of the insulation material on certain metals 4.3.6 Mould fungi resistance 4.3.7 Airflow resistivity 4.3.8 Continuous Glowing Combustion |
16 | 4.3.9 Sound absorption 4.3.10 Reaction to fire of product in standardized assemblies simulating end-use applications 5 Test methods 5.1 Sampling 5.2 Conditioning |
17 | 5.3 Testing 5.3.1 General |
18 | 5.3.2 Thermal resistance and thermal conductivity |
19 | 6 Designation code 7 !Assessment and Verification of Constancy of Performance (AVCP)” 7.1 General 7.2 !Deleted text” Type Testing |
20 | 7.3 Factory production control 7.4 !Initial Inspection 7.5 Continuous Surveillance |
21 | Annex A (normative)Determination of declared thermal resistance and thermal conductivity A.1 General A.2 Input data A.3 Declared values of thermal resistance and thermal conductivity |
23 | Annex B (normative)Laboratory methods for the determination of settlement B.1 Blown LFCI for ventilated attics (open blow) ā determination of settlement under cyclic humidity B.1.1 Principle B.1.2 Apparatus B.1.2.1 Open top box, with inside dimensions (length, width, height) of (600 Ā± 10) mm, (600 Ā± 10) mm, (300 Ā± 20 ā 0) mm B.1.2.2 Climatic chamber, large enough to accommodate the specimen box and providing a controlled climate in the range from 5 Ā°C to 60 Ā°C and relative humidity from 50 % relative humidity to 90 % relative humidity B.1.3 Test specimens B.1.3.1 Preparation of test specimens B.1.3.2 Number of test specimens B.1.3.3 Conditioning of test specimens B.1.4 Test procedure |
24 | B.1.5 Test report |
25 | B.2 Blown LFCI in timber and steel framed walls ā determination of settlement under vibrations) B.2.1 Principle B.2.2 Apparatus |
26 | B.2.2.1 Specimen box, with a stable base frame of 40 mm thick wood construction with a height of at least 2 300 mm. The cavity depth shall be a minimum of a 100 mm and a maximum used in practice, but at least 240 mm B.2.2.2 Vibration motor; directly installed under the specimen box. B.2.2.3 Insulation filling machine; used for filling the specimen box, which shall be approved by the manufacturer of the insulation material B.2.2.4 Device for measuring the settled height, consisting of a square pressure plate and a tape measure. The tape measure shall have an accuracy of at least 1 mm. The pressure plate of (100 Ā± 2) mm square and (50 Ā± 1,5) g shall have an equivalent load of (50 Ā± 1,5) Pa |
27 | B.2.3 Test specimen B.2.3.1 Dimensions of test specimen (cavity of the specimen box panel) B.2.3.2 Number of test specimens B.2.3.3 Conditioning of test specimens B.2.4 Procedure B.2.4.1 Test conditions B.2.4.2 Test procedure B.2.5 Calculation and expression of test results B.2.5.1 Settlement |
28 | B.2.5.2 Density B.2.6 Accuracy of measurements B.2.7 Test report |
29 | B.3 Blown LFCI for ventilated attics ā determination of settlement under impact excitation and under increased temperature and moisture (informative and for FPC only) B.3.1 Principle |
30 | B.3.2 Apparatus B.3.2.1 Specimen box, with inside dimensions of length (550 Ā± 5) mm, width (550 Ā± 5) mm and height (330 Ā± 5) mm B.3.2.2 Stable steel for impact excitation, on which a motor with a cam disc is assembled B.3.2.3 Climatic chamber, large enough to accommodate the specimen box and provide a controlled climate of (40 Ā± 5) Ā°C, (90 Ā± 5) % relative humidity B.3.2.4 Insulation filling machine, used for filling the specimen box, which shall be approved by the manufacturer of the insulation material |
31 | B.3.2.5 Device for measuring the height, consisting of a square pressure plate and a tape measure. The tape measure shall have an accuracy of at least 1 mm. The pressure plate of (200 Ā± 2) mm square and (80 Ā± 6) g shall have an equivalent load of (20 Ā± 1,5) Pa B.3.3 Test specimens B.3.3.1 Preparation of test specimens B.3.3.2 Number of test specimens B.3.3.3 Conditioning of test specimens B.3.4 Test procedure |
32 | B.3.5 Calculations and expression of results B.3.5.1 Settlement after vibration test B.3.5.2 Settlement after increased temperature and humidity (for information only) B.3.5.3 Mean declared settlement value B.3.5.4 Density |
33 | B.3.6 Test report |
34 | Annex C (normative)Testing for reaction to fire of products C.1 Scope C.1.1 General C.1.2 Product and installation parameters |
35 | C.1.3 Ignitability (EN ISO 119252) C.1.3.1 Exposure to thermal attack |
36 | C.1.3.2 Substrate C.1.4 Single Burning Item [SBI] (EN 13823) for loose-fill cellulose insulation products C.1.4.1 Preparation of the test specimens C.1.4.2 Exposure to thermal attack C.1.4.3 Substrate C.1.4.4 Air gaps/cavities C.1.4.5 Size and positioning of test specimen |
38 | C.1.4.6 Fixing of the test specimen C.1.4.7 Field of application |
40 | Annex D (normative)Specimen preparation method for the water absorption test D.1 Principle D.2 Conditioning D.3 Procedure |
41 | Annex E (normative)Method of test for corrosion resistance E.1 Principle E.2 Conditioning E.3 Reagents and materials E.3.1 Four metal test coupons, two of copper foil of 99,9 % purity and two of zinc foil of 99,9 % purity, each 50 mm Ć 50 mm Ć 0,075 mm, judged free of tears, distortions, scratches, perforations, corrosion or other flaws when viewed under and over a 40 W coiled incandescent light bulb E.3.2 Trichloroethylene, of analytical reagent quality E.3.3 Sulphuric acid, (C) H2SO4 = 0,5 mol/l to 1 mol/l E.3.4 Saturated ammonium acetate solution E.4 Apparatus E.4.1 Humidity chamber, maintained at (40 Ā± 2) Ā°C and (90 to 95) % relative humidity E.4.2 Four cylindrical glass crystallizing dishes, well washed, nominally 90 mm in diameter and 50 mm deep E.4.3 Rubber or PVC gloves. E.4.4 Stainless steel spatula. E.4.5 Tweezers. |
42 | E.5 Procedure E.6 !Declaration” of the results |
43 | E.7 Report |
44 | Annex F (normative)Method for determining mould fungi resistance F.1 Scope F.2 Significance and use F.3 Apparatus F.3.1 Petri dishes, sterile F.3.2 Environmental chamber or cabinet, capable of maintaining a temperature of (28 Ā± 2) Ā°C and a relative humidity of (95 Ā± 4) %. Provisions shall be made to prevent condensation from dripping on the test specimen. There shall be free circulation of air around the test chamber F.3.3 Atomiser, ultrasonic atomiser capable of providing (15 000 Ā± 3 000) spores/cm2 for inoculation F.3.4 AutocIavabIe biohazard bags, or metal pan able to withstand autoclaving F.4 Reagents and materials F.4.1 Water F.4.2 Inoculum |
45 | F.4.3 Cultures, maintained in vitro on Maltextract-Oat-agar (20 g oatmeal, 10 g malt extract and 20 g agar in 1 000 ml water) or in accordance with the commendation of the reference stock F.5 Specimens F.5.1 Viability control specimens F.5.2 Comparative material F.5.3 Test specimens F.6 Procedure F.6.1 Spore suspension |
46 | F.6.2 Inoculation of test specimens, comparative material and control specimens F.6.3 Incubation F.7 Test analysis F.7.1 General F.7.2 Validation F.7.3 Classification |
47 | F.8 Report F.9 Precision and bias |
48 | Annex G (normative)Specimen preparation method for the airflow resistance test G.1 Principle G.2 Procedure |
49 | Annex H (normative)Specimen preparation method for thermal resistance and thermal conductivity test H.1 Principle H.2 Procedure H.2.1 Horizontal applications, loft and floors |
50 | H.2.2 Cavity insulation, frame constructions and cavity walls |
52 | Annex I (normative)Factory production control |
55 | Annex J (normative)Testing for reaction to fire of products in standardized assemblies simulating end-use application(s) J.1 Scope J.2 Product and installation parameters |
56 | J.3 Mounting and fixing J.3.1 Ignitability (EN ISO 119252) J.3.1.1 Exposure to thermal attack J.3.1.2 Substrate J.3.2 Single Burning Item [SBI] (EN 13823) J.3.2.1 Preparation of the test specimens |
57 | J.3.2.2 Exposure to thermal attack |
58 | J.3.2.3 Surface products J.3.2.4 Substrate J.3.2.5 Air gaps/cavities J.3.2.6 Joints/edges |
59 | J.4 Field of application |
62 | Annex K (normative)An example of a performance chart |
63 | Annex ZA(informative)!Relationship of this European Standard with Regulation (EU) No.305/2011 |