Historical Revision

ASTM E2912-13

Standard Test Method for Fire Test of Non-Mechanical Fire Dampers Used in Vented Construction

Online PDF

$91.00

Bundle

$163.80

Sub Total (1 Item(s))

$ 0.00

Estimated Shipping

$ 0.00

Total (Pre-Tax)

$ 0.00

I have read and agree to the Terms & Conditions

ASTM E2912-13

Standard Test Method for Fire Test of Non-Mechanical Fire Dampers Used in Vented Construction

PUBLISH DATE 2013

PAGES 20

Document Preview

Document Information

1.1 This fire-test-response standard assesses the ability of non-mechanical fire dampers used in vented construction in its open state to limit passage of hot gases, radiation, and flames during a prescribed fire test exposure. The fire exposure condition in this test method is sudden direct flame impingement, which produces these hot gases, radiation, and flames.

Note 1—Non-mechanical fire dampers can be used in vented construction. Vented constructions may be parts of buildings including walls, floors, ceilings and concealed spaces and cavities used for air transfer and to allow ventilation in structures without ductwork. Non-mechanical fire dampers can be located adjacent to combustible construction or materials and situated in exposed or concealed locations, or both. Unlike typical fire resistive assemblies, vented construction uses non-mechanical fire dampers to allow air transfer without the use of ducts. Resistance to flame, radiation, and hot gases may be requirements when direct flame impingement is a credible risk, or when no penetration of flames is required by the authority having jurisdiction, or both. The proposed test method provides procedures that enable an assessment of this direct flame impingement on non-mechanical fire dampers. This test method does not alter any requirements for non-mechanical fire dampers used in fire resistance rated construction and assemblies.

1.2 This fire-test-response standard is intended to provide a means to assess the reaction of a non-mechanical fire damper used in vented construction to sudden direct flame impingement, or as a supplement to existing fire-resistive test methods, or both.

1.3 This test method does not circumvent or eliminate the fire resistance rating requirements for construction. The fire resistance rating of construction shall be tested in accordance with published fire-resistance test standards as appropriate for the relevant application of the construction, or as required by the authority having jurisdiction (regulatory authority), or both. Non-mechanical fire dampers shall be tested to the appropriate fire-resistive test standards required for their application in order to determine a fire resistance rating in those constructions.

Note 2—Some of the major international standards development organizations (SDO) include, but are not limited to, ASTM International, CEN, ISO, UL, and ULC. Some examples of standards employing standard time-temperature curves for fire exposure used to determine a construction’s fire resistance rating include, but are not limited to, the following: Test Methods E119, E814, E1966, E2307, UL 10B, UL 10C, UL 555, UL 555C etc. The term “authority having jurisdiction” is defined in Practice E2174.

1.4 This test method specifies the fire exposure conditions, fire test protocol, and criteria to evaluate an open state.

Note 3—There are currently no published test methods (nationally or internationally) that address the application of sudden direct flame impingement on non-mechanical fire dampers used in vented construction. In the European Union (EU), CEN (European Committee for Standardization) has very recently started a work item to address reaction to sudden direct flame impingement on non-mechanical fire dampers. Also, in the EU, some countries have used large scale tests with 5MW fire exposures to assess test specimens’ reactions to sudden direct flame impingement as part of the entire building construction. Standard time-temperature curves used to control gas-fired furnaces do not ensure a sudden direct flame impingement on the test specimen, which this test method is designed to do. A post flashover condition, the spontaneous combustion of materials, ignition of a highly combustible material acting as the source of the fire (for example, stored cleaning solutions or fuels) or the location of materials can create a fire scenario resulting in a sudden direct flame impingement.

1.5 Results generated by this test method provide the following information:

1.5.1 the open state fire performance of vented construction, and

1.5.2 the non-mechanical fire damper’s fire-test-response characteristic when exposed to sudden direct flame impingement.

1.6 This test method does not provide quantitative information about the test assembly related to the leakage of smoke, or gases, or both.

1.7 This test method does not apply to a test assembly having other components than those tested.

1.8 This standard is used to measure and describe the response of materials, products, or assemblies to heat and flame under controlled conditions, but does not by itself incorporate all factors required for fire hazard or fire risk assessment of the materials, products, or assemblies under actual fire conditions.

1.9 The text of this standard references notes and footnotes which provide explanatory material. These notes and footnotes (excluding those in tables and figures) shall not be considered requirements of this standard.

1.10 The values stated in SI units are to be regarded as standard. No other units of measurement are included in this standard.

1.11 Fire testing is inherently hazardous. Adequate safeguards for personnel and property shall be employed in conducting these tests.

1.12 This standard does not purport to address all of the safety concerns, if any, associated with its use. It is the responsibility of the user of this standard to establish appropriate safety and health practices and determine the applicability of regulatory limitations prior to use.

5.1 This test method provides for the following observations, measurements and evaluations of an open state during the test fire.

5.1.1 Ability of the test specimen to resist the passage of flames, radiation, and hot gases caused by sudden direct flame impingement.

5.1.2 Transmission of heat through the test specimen.

5.2 This test method does not provide the following:

5.2.1 Evaluation of the degree to which the test assembly contributes to the fire hazard by generation of smoke, toxic gases, or other products of combustion.

5.2.2 Measurement of the degree of control or limitation of the passage of smoke or products of combustion through the test specimen or the test assembly.

5.2.3 Measurement of flame spread over the surface of the test specimen or the test assembly.

5.2.4 Durability of the test specimen or test assembly under actual service conditions, including the effects of cycled temperature.

5.2.5 Effects of a load on the test specimen or test assembly.

5.2.6 Any other attributes of the test specimen or the test assembly, such as wear resistance, chemical resistance, air infiltration, water-tightness, and so forth.

5.3 The results of this test method shall not be used as an alternative to, or a substitute for, requirements for a required fire resistance rating of building construction.


SDO	ASTM: ASTM International
Document Number	E2912
Publication Date	July 1, 2013
Language	en - English
Page Count	20
Revision Level	13
Supercedes
Committee	E05.11

Publish Date	Document Id	Type	View
Aug. 1, 2017	E2912-17	Revision
July 1, 2013	E2912-13	Revision

SDO	Document	Title
BSI	BS EN IEC 60749-41	Semiconductor devices. Mechanical and climatic test methods. Standard reliability testing methods of non-volatile memory devices.
IEC	IEC 60749-41	Semiconductor devices - Mechanical and climatic test methods - Part 41: Standard reliability testing methods of non-volatile memory devices
BSI	BS EN 60695-2-11	Fire hazard testing. Test methods. Glowing/hot-wire based test methods. Glow-wire flammability test method for end-products
BSI	BS EN 60811-501	Electric and optical fibre cables. Test methods for non-metallic materials. Mechanical tests. Tests for determining the mechanical properties of insulating and sheathing compounds
ASTM	E119	Standard Test Methods for Fire Tests of Building Construction and Materials
BSI	BS EN 50289-4-11	Communication cables. Specifications for test methods. Environmental test methods. A horizontal integrated fire test method
BSI	BS EN 60811-513	Electric and optical fibre cables. Test methods for non-metallic materials. Mechanical tests. Methods specific to polyethylene and polypropylene compounds. Wrapping test after conditioning
BSI	BS EN 60811-510	Electric and optical fibre cables. Test methods for non-metallic materials. Mechanical tests. Methods specific to polyethylene and polypropylene compounds. Wrapping test after thermal ageing in air
ASTM	E1725	Standard Test Methods for Fire Tests of Fire-Resistive Barrier Systems for Electrical System Components
BSI	BS ISO/IEC 20085-2	IT Security techniques. Test tool requirements and test tool calibration methods for use in testing non-invasive attack mitigation techniques in cryptographic modules. Test calibration methods and apparatus.
ASTM	E2307	Standard Test Method for Determining Fire Resistance of Perimeter Fire Barriers Using Intermediate-Scale, Multi-story Test Apparatus
ASTM	F3040/F3040M	Standard Test Method for Mechanical Static Load Testing of Non-Structural Marine Joiner Bulkheads
IEC	IEC 60811-501	Electric and optical fibre cables - Test methods for non-metallic materials - Part 501: Mechanical tests - Tests for determining the mechanical properties of insulating and sheathing compounds
BSI	BS EN 60811-512	Electric and optical fibre cables. Test methods for non-metallic materials. Mechanical tests. Methods specific to polyethylene and polypropylene compounds. Tensile strength and elongation at break after conditioning at elevated temperature
IEC	IEC 62715-6-23	Flexible displays devices Part 6-23: Mechanical test methods - Mechanical misaligned folding test method
ISO	ISO/IEC 20085-2	IT Security techniques - Test tool requirements and test tool calibration methods for use in testing non-invasive attack mitigation techniques in cryptographic modules - Part 2: Test calibration methods and apparatus
CSA	CSA ISO/IEC 20085-2:20	IT Security techniques — Test tool requirements and test tool calibration methods for use in testing non-invasive attack mitigation techniques in cryptographic modules — Part 2: Test calibration methods and apparatus (Adopted ISO/IEC 20085-2:2020, first edition, 2020-03)
IEC	IEC 60811-513	Electric and optical fibre cables - Test methods for non-metallic materials - Part 513: Mechanical tests - Methods specific to polyethylene and polypropylene compounds - Wrapping test after conditioning
IEC	IEC 60811-510	Electric and optical fibre cables - Test methods for non-metallic materials - Part 510: Mechanical tests - Methods specific to polyethylene and polypropylene compounds - Wrapping test after thermal ageing in air
ASTM	E868	Standard Test Methods for Conducting Performance Tests on Mechanical Conveying Equipment Used in Resource Recovery Systems (Withdrawn 2005)
BSI	BS EN 60811-509	Electric and optical fibre cables. Test methods for non-metallic materials. Mechanical tests. Test for resistance of insulations and sheaths to cracking (heat shock test)
BSI	BS EN 50289-3-9	Communication cables. Specifications for test methods. Mechanical test methods. Bending tests
BSI	BS EN 60749-40	Semiconductor devices. Mechanical and climatic test methods. Board level drop test method using a strain gauge
BSI	BS EN IEC 60749-37	Semiconductor devices. Mechanical and climatic test methods. Board level drop test method using an accelerometer.
BSI	BS EN 60749-37	Semiconductor devices. Mechanical and climatic test methods. Board level drop test method using an accelerometer

ASTM E2912-13

Standard Test Method for Fire Test of Non-Mechanical Fire Dampers Used in Vented Construction

ASTM E2912-13

Document Information

Terms of Service

Conditions of Use

Privacy Policy

Copyright

Communications

Privacy Policy

We use cookies

Manage Cookie Preferences

Essential Cookies Required (3 cookies)

Performance Cookies (2 cookies)