ПІДТВЕРДЖУВАЛЬНЕ ПОВІДОМЛЕННЯ
Наказом Міністерства економічного розвитку і торгівлі України
від 30.12.2014 № 1494
EN 12101-3:2002
en: Smoke and heat control systems - Part 3: Specification for powered smoke and
heat exhaust ventilators
прийнято як національний стандарт
методом підтвердження за позначенням
ДСТУ EN 12101-3:2014
uk: Системи протидимного захисту. Частина 3. Вентилятори димовидаленн
(EN 12101-3:2002; EN 12101-3:2002/АС:2005, IDT)
З наданням чинності від 2016-01-01E
EN12101-3
February 2002
UROPEAN STANDARD NORME EUROPEENNE EUROPAISCHE NORMICS 13.220.20; 23.120
English version
Smoke and heat control systems - Part 3: Specification for
powered smoke and heat exhaust ventilators
Systemes pour Ie controls dss fumees et de la chaleur - Rauch- und Warmefreihaftung - Tell 3: Bestimmungen fur
Partie 3: Specifications pour les ventilateurs extracteurs de maschinelle Rauch- und Warmeabzugsgerate
fumees et de chaleur
This European Standard was approved by CEN on 9 June 2001.
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 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 Management Centre has the same status as the official versions.
CEN members are the national standards bodies of Austria, Belgium, Czech Republic, Denmark, Finland, France, Germany, Greece, Iceland, Ireland, Italy, Luxembourg, Malta, Netherlands, Norway, Portugal, Spain, Sweden, Switzerland and United Kingdom.
EUROPEAN COMMITTEE FOR STANDARDIZATION
СОМІТЁ EUROPЁEN DE NORMALISATION
EUROPAlSCHES KOMITEE FUR NORMUNG
M
Ref. No. EN 12101-3:2002 E
anagement Centre: rue de Stassart, 36 B-1050 Brussels© 2002 CEN All rights of exploitation in any form and by any means reserved worldwide for CEN national Members
.Contents
page
Foreword 3
Introduction 4
Scope 6
Normative references 6
Terms and definitions 7
Design requirements 11
General testing procedures 11
Performance requirements and classification 12
Marking 15
Evaluation of conformity 15
Annex A (normative) Type approval schedule for a range of ventilators 17
Annex В (normative) Type approval schedule for a product range of motors 25
Annex C (normative) Test method for performance of powered ventilators at high temperature 26
Annex D (normative) Test method for resistance to temperature of electric motors for use in powered ventilators 32
Annex E (normative) Test method for operation under load 36
Annex ZA (informative) Clauses of this European Standard addressing essential requirements or other provisions of EU Directives 3 8
Bibliography 42Foreword
This European Standard has been prepared by Technical Committee CEN/TC 191 "Fixed firefighting systems", the secretariat of which is held by В SI.
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 2002, and conflicting national standards shall be withdrawn at the latest by November 2003.
This European Standard 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 89/106/EEC.
For relationship with EU Directive(s), see informative annex ZA, which is an integral part of this standard.
This European Standard is one of six parts of the European Standard prEN 12101 covering smoke and heat control systems.
This European Standard has the general title Smoke and heat control systems and consists of the following six parts:
Specification for smoke barriers — Requirements and test methods
Specification for natural smoke and heat exhaust ventilators
Specification for powered smoke and heat exhaust ventilators
Natural smoke and heat exhaust ventilation systems — Installation and test methods
Design and calculation for smoke and exhaust ventilation systems (published as CR12101-5)
Design and calculation methods and installation procedure for pressure differential smoke control systems
prEN 12101 is included in a series of European Standards planned to cover also:
Gas extinguishing systems (EN 12094 and ISO 14520-1)
Sprinkler systems (EN 12259)
Powder systems (EN 12416)
Explosion protection systems (EN 26184)
Foam systems (EN 13565)
Hose systems (EN 671)
Water spray systems
The annexes A to E are normative.
According to the CEN/CENELEC Internal Regulations, the national standards organizations of the following countries are bound to implement this European Standard: Austria, Belgium, Czech Republic, Denmark, Finland, France, Germany, Greece, Iceland, Ireland, Italy, Luxembourg, Malta, Netherlands, Norway, Portugal, Spain, Sweden, Switzerland and the United Kingdom.
Introduction
Smoke and heat exhaust ventilation systems create a smoke free layer above the floor by removing smoke and thus improve the conditions for the safe escape and/or rescue of people and animals and the protection of property and permit the fire to be fought while still in its early stages. They also exhaust hot gases released by a fire in the developing stage.
The use of smoke and heat exhaust ventilation systems to create smoke free areas beneath a buoyant smoke layer has become widespread. Their value in assisting in the evacuation of people from construction works, reducing fire damage and financial loss by preventing smoke logging, facilitating fire fighting, reducing roof temperatures and retarding the lateral spread of fire is firmly established. For these benefits to be obtained it is essential that smoke and heat exhaust ventilators operate fully and reliably whenever called upon to do so during their installed life. A heat and smoke exhaust ventilation system is a scheme of safety equipment intended to perform a positive role in a fire emergency.
Components for smoke and heat exhaust systems should be installed as part of a properly designed smoke and heat system.
Smoke and heat exhaust ventilation systems help to
keep the escape and access routes free from smoke;
facilitate fire fighting operations by creating a smoke free layer;
delay and/or prevent flashover and thus full development of the fire;
protect equipment and furnishings;
reduce thermal effects on structural components during a fire;
reduce damage caused by thermal decomposition products and hot gases.
•Depending on the design of the system and the ventilator, powered or natural smoke and heat ventilators can be used in a smoke and heat control system. Powered smoke and heat exhaust ventilators can be installed in the roof or upper part of walls of building or in a ducted system with the ventilator inside or outside the smoke reservoir or in a plant room.
Powered smoke and heat exhaust ventilation systems should operate based on powered ventilators. The performance of the powered smoke and heat exhaust system depends on
the temperature of the smoke;
size, number and location of the exhaust openings;
the wind influence;
size, geometry and location of the inlet air openings;
the time of actuation;
the location and conditions of the system (for example arrangements and dimensions of the building).
Smoke and heat exhaust ventilation systems are used in buildings or construction works where the particular (large) dimensions, shape or configuration make smoke control necessary.
Typical examples are:
single and multi-storey shopping malls;
single and multi-storey industrial buildings and warehouses;
atria and complex buildings;
enclosed car parks;
stairways;
tunnels;
theatres.
Depending on differing circumstances and the situation of the building or construction works that can affect their performance, powered or natural smoke and heat exhaust ventilation systems may be used.
It is specified in parts 4 and 5 of this European Standard that powered and natural exhaust ventilators should not be used to extract smoke and hot gases from the same smoke reservoir.
.Special conditions apply where gas extinguishing systems (e.g. according to prEN 12094 or ISO 14520-1) are used (see parts 4 and 5).Scope
This European standard specifies requirements and gives methods for testing powered smoke and heat exhaust ventilators that are intended to be installed as part of a powered smoke and heat exhaust ventilation system. It also provides a procedure for approving a range of powered smoke and heat exhaust ventilators and their motors, from a limited number of tests.
Normative references
This European Standard incorporates, by dated or undated reference, provisions from other publications. These normative references are cited at the appropriate place in the text and the publications are listed hereafter. For dated references, subsequent amendments to or revisions of any of these publications apply to this European Standard only when incorporated in it by amendment or revision. For undated references the latest edition of the publication referred to applies (including amendments).
E.N 1363, Fire resistance tests.
EN 1366, Fire resistance tests for service installations.
EN 60034-1, Rotating electrical machines, rating and performance.
IEC 34-2, Methods for determining losses and efficiencies from test.
ISO 834-1, Fire resistance tests. Elements of building construction - Part 1: General requirements for fire resistance testing.
EN ISO 5167, Measurement of fluid flow by means of pressure differential devices.
ISO 5221, Air distribution and air diffusion. Rules for methods of measuring airflowrate in an air handling duct.
ISO 5801, Industrial fans, performance testing using standardized airways.
prEN 12101-2:1995, Smoke and heat control systems - Part 2: Specification for natural smoke and heat exhaust ventilators.Terms and definitions
For the purposes of this European Standard, the following terms and definitions apply:
smoke and heat control system
arrangement of components installed in a construction work to limit the effects of smoke and heat from a fire
smoke and heat exhaust system
smoke control system that exhausts smoke and heat from a fire in a construction work or part of a construction work
smoke and heat exhaust ventilation system (SHEVS)
smoke and heat exhaust ventilation system consists of components jointly selected to exhaust smoke and heat to establish a buoyant layer of warm gases above cooler, cleaner air
natural ventilation
ventilation caused by buoyancy forces due to differences in density of the gases because of
temperature differences
powered ventilation
ventilation caused by the positive displacement of gases through a ventilator
NOTE Fans are usually used.
ventilator
device for enabling the movement of gases into or out of a construction work
exhaust ventilator
device for the movement of gases out of the construction work
smoke and heat exhaust ventilator
device specially designed to move smoke and hot gases out of the construction work under conditions of fire
3.9
dual purpose ventilator
smoke and heat exhaust ventilator that has provision to allow its use for comfort (i.e. day to day) ventilation
3.10
emergency ventilator
smoke and heat exhaust ventilator that is not used for comfort (i.e. day to day) ventilation
3.11
permanently open natural smoke and heat exhaust ventilator
smoke and heat exhaust ventilator without devices for closing
3.12
manually opened natural smoke and heat exhaust ventilator
smoke and heat exhaust ventilator that can only be opened by a manual control or release
device
3.13
automatic natural smoke and heat exhaust ventilator
smoke and heat exhaust ventilator which is designed to open automatically after the outbreak of fire if called upon to do so
NOTE Automatic natural smoke and heat exhaust ventilators may also be fitted with a manual control or release device.
3.14
automatically initiated powered smoke and heat exhaust ventilator
powered smoke and heat exhaust ventilator that operates automatically after the outbreak of fire if called upon to do so
3.15
smoke reservoir
region within a building limited or bordered by smoke curtains or structural elements and which will in the event of a fire retain a thermally buoyant smoke layer
3.16
hot gas fan
fan that is suitable for handling hot gases for a specified time/temperature profile. The time may be “continuous” or more specific to the application. Special materials may be incorporated in the fan that may have a direct or indirect drive. The motor may be in the airstream on a direct drive fan or separated from it by a bifurcation tunnel. Indirect drive fans may incorporate a means of cooling belts, bearings or other drive components
3.17
powered smoke and heat exhaust ventilator
hot gas fan that is suitable for handling hot gases for a limited period only
3.18
powered roof ventilator
partition fan designed for mounting on a roof and having exterior weather protection
3.19
insulated ventilator
ventilator insulated to limit the external surface temperature to reduce the danger of injury to persons or damage to materials
'3.20
smoke reservoir ventilator
ventilator suitable for operation fully immersed in a smoke reservoir
3.21
non smoke reservoir ventilator
ventilator not suitable for operation fully immersed in a smoke reservoir
3.22
powered ventilator product range
physically similar ventilators using the same form of construction and materials throughout, with the same methods of impeller construction and motor mounting and construction, and electrical connection in which the following may vary across the range:
overall dimensions of units; and/or
the impeller diameter and width, hub size, blade length and number of blades of the impeller; and/or
the size of the motor
3.23
powered ventilator motor range
motors which are physically similar, using the same form of construction i.e. same materials and manufacturing method for carcase, cooling impeller, when fitted, and end covers; same insulation specification which includes sheet insulation used on for coil separation and slot insulation, winding impregnation material (varnish or resin etc... ,lead insulation, terminal blocks and any other materials that could affect the integrity of the insulation); same bearing type, class of fit, lubricant and arrangement, with motor windings based on the same maximum winding temperature and class of insulation, in which the following may vary across the range:
the frame size;
the rotational speed;
the electrical windings, including multi-speed;
the form of mounting, e.g. foot, flange, pad, clamp, etc.
3.24
motor rating
the motor rating (rated power) is the maximum power that the motor will deliver continuously without exceeding the allowable temperature rise
3.25
fire position
position of a component to be reached and maintained while venting smoke and heat
Design requirements
Application classes
A powered ventilator shall be classified into one or more of the following application classes:
insulated or uninsulated;
smoke reservoir or non smoke reservoir;
dual purpose or emergency only use;
ducted cooling air required.
Motor rating
The motors shall be selected for continuous operation at the power required for normal ambient temperature not just for operation at high temperature.
Motor ratings shall be limited either by the temperature rise for one class lower than the insulation class of the motor, as defined in EN 60034-1, as given in Table 1, or for motors with class В or class F insulation to the motor rated output power being 15 % above the absorbed power at a density of 1,2 kg/m3.
Table 1 — Motor temperature ratings
Motor insulation |
Temperature rise at ambient |
Class H or C |
Class F |
Class F |
Class В |
Class В |
Class E |
Motor specification
Motors shall comply with the requirements of EN 60034-1.
General testing procedures
For type approval, tests shall be carried out in accordance with annex А, В, C, D and E. For each test a test report shall be prepared in accordance with annex C and/or D.
Performance requirements and classification
Temperature/time classification
A ventilator shall be classified as
F200; or
F300; or
F400; or
F600; or
F842 or
Not classified
For products intended to be installed within a building, there shall be no significant leakage of smoke from the furnace coming from the housing of the ventilator during the entire test period
At the appropriate temperature given in Table 2, a ventilator shall function for not less than the appropriate minimum time, and shall re-start, when tested in accordance with annex C.
Table 2 — Test temperature and functioning time according to classification
Class |
Temperature °С |
Minimum functioning period minutes |
F200 |
200 |
120 |
F300 |
300 |
60 |
F400 |
400 |
120 |
F600 |
600 |
60 |
F842 |
842 |
30 |
Not classified |
as specified by sponsor |
as specified by sponsor |
Flow and pressure
When tested in accordance with annex C, at the appropriate temperature and for the appropriate time given in Table 2, the volume flow shall not change by more than 10 % or the static pressure shall not change by more than 20 % of that measured at the end of the warm up period of the test.
Outer surface temperature and cooling air temperature of insulated ventilators
When the ventilator is tested in accordance with annex C, at the temperature and for the time appropriate to the product temperature/time category:
The outer surface temperature of an insulated ventilator shall not increase by more than 180 °С for any individual value.
The cooling air expelled from the unit shall not exhibit an increase of temperature of more than 180 °С from the initial room temperature.
NOTE Increases above those specified may increase the fire risk.
Wind load
If the ventilator is designed to be installed at the atmospheric termination of a system and is fitted with flaps or louvres and these project above the wind deflectors (cowl or wind shield), the flaps or louvres shall open in less than 30 s against of a load of 200 Pa, when the ventilator is tested in accordance with annex E.
Snow load
If the.ventilator is designed to be installed at the atmospheric termination of a system, the ventilator shall be classified as one of the following:
— SL0
— SL125
— SL250
— SL500
— SL1000
— SLA
NOTE The designations 0, 125, 250, 500, 1000 and A represent the test snow load in Pascals applied when the ventilator is tested in accordance with annex E The "A" in SLA will be replaced by the test snow load when this exceeds 1000, or by the test load if one of the four defined values is not used.