Bsi bs en 15267 4 2017

BS EN 15267-4:2017 BSI Standards Publication Air quality — Certification of automated measuring systems Part 4: Performance criteria and test procedures for automated measuring systems for periodic measurements of emissions from stationary sources BS EN 15267-4:2017 BRITISH STANDARD National foreword This British Standard is the UK implementation of EN 15267-4:2017 The UK participation in its preparation was entrusted to Technical Committee EH/2/1, Stationary source emission 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 2017 Published by BSI Standards Limited 2017 ISBN 978 580 89191 ICS 13.040.99 Compliance with a British Standard cannot confer immunity from legal obligations This British Standard was published under the authority of the Standards Policy and Strategy Committee on 31 January 2017 Amendments/corrigenda issued since publication Date Text affected BS EN 15267-4:2017 EN 15267-4 EUROPEAN STANDARD NORME EUROPÉENNE EUROPÄISCHE NORM January 2017 ICS 13.040.99 English Version Air quality - Certification of automated measuring systems - Part 4: Performance criteria and test procedures for automated measuring systems for periodic measurements of emissions from stationary sources Qualité de l'air - Certification des systèmes de mesurage automatisés - Partie : Spécifications de performance et modes opératoires d'essai des systèmes de mesurage automatisés pour le mesurage périodique des émissions de sources fixes Luftbeschaffenheit - Zertifizierung von automatischen Messeinrichtungen - Teil 4: Mindestanforderungen und Prüfprozeduren für automatische Messeinrichtungen für wiederkehrende Messungen von Emissionen aus stationären Quellen This European Standard was approved by CEN on 26 September 2016 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, Serbia, Slovakia, Slovenia, Spain, Sweden, Switzerland, Turkey and United Kingdom EUROPEAN COMMITTEE FOR STANDARDIZATION COMITÉ EUROPÉEN DE NORMALISATION EUROPÄISCHES KOMITEE FÜR NORMUNG CEN-CENELEC Management Centre: Avenue Marnix 17, B-1000 Brussels © 2017 CEN All rights of exploitation in any form and by any means reserved worldwide for CEN national Members Ref No EN 15267-4:2017 E BS EN 15267-4:2017 EN 15267-4:2017 (E) Contents Page European foreword 0.1 0.2 0.3 0.4 0.5 0.6 0.7 Introduction General Legal drivers Periodic measurements Relationship to EN 14181 Processes Performance characteristics Relationship to EN 15267-3 Scope Normative references Terms and definitions 4.1 4.2 Symbols and abbreviations 15 Symbols 15 Abbreviations 17 5.1 5.2 5.2.1 5.2.2 5.2.3 5.2.4 5.2.5 5.3 5.4 5.5 5.6 General requirements 17 Application of performance criteria 17 Ranges to be tested 17 Certification range 17 Supplementary ranges 18 Lower limit of ranges 18 Expression of performance criteria with respect to ranges 18 Ranges of optical insitu P-AMS with variable optical length 18 Performance testing of P-AMS based on certified AMS previously tested according to EN 15267-3 18 Equivalence with the SRM 18 Manufacturing consistency and changes to P-AMS design 19 Qualifications of test laboratories 19 6.1 6.2 6.3 6.4 6.5 6.6 6.7 6.8 6.9 6.10 6.11 6.12 6.13 Performance criteria common to all P-AMS for laboratory testing 19 P-AMS for testing 19 CE labelling 19 Output ranges and zero-point 19 Display of operational status signals 20 Degrees of protection provided by enclosures 20 Response time 20 Repeatability standard deviation at zero point 20 Repeatability standard deviation at span point 20 Lack of fit 20 Short-term zero and span drift 20 Set-up time after transport and influence of ambient temperature 20 Influence of voltage variations 21 Influence of vibration 21 BS EN 15267-4:2017 EN 15267-4:2017 (E) 6.14 6.15 6.16 6.17 6.18 6.19 6.20 Influence of sample gas flow for extractive P-AMS 21 Influence of sample gas pressure 21 Cross-sensitivity 21 Converter efficiency for P-AMS measuring NOx 21 Response factors for TOC measuring P-AMS 21 Influences on P-AMS with in-stack sampling chamber 22 Influences related to storage and transportation 22 7.1 7.2 7.3 Performance criteria common to all P-AMS for field testing 22 Response time 22 Short-term zero and span drift 23 Reproducibility 23 8.1 8.2 8.2.1 8.2.2 8.3 Performance criteria specific to measured components 23 General 23 Gas monitoring P-AMS 23 Performance criteria 23 P-AMS for total organic carbon 25 Particulate matter monitoring P-AMS 26 General test requirements 27 10 10.1 10.2 10.3 10.4 10.5 10.6 10.7 10.8 10.9 10.10 10.11 10.12 10.13 10.14 10.15 10.16 10.17 10.18 10.19 10.20 Test procedures for laboratory tests 28 P-AMS for testing 28 CE labelling 28 Output ranges and zero point 28 Display of operational status signals 29 Degrees of protection provided by enclosures 29 Response time 29 Repeatability standard deviation at zero point 31 Repeatability standard deviation at span point 31 Lack of fit 32 Short-term zero and span drift 33 Set-up time after transportation and influence of ambient temperature 33 Influence of voltage variations 34 Influence of vibration 35 Influence of sample gas pressure 36 Influence of the sample gas flow for extractive P-AMS 36 Cross-sensitivity 37 Converter efficiency for P-AMS measuring NOx 38 Response factors 39 Influences on P-AMS with in-stack sampling chamber 40 Influences related to storage and transportation 40 11 Requirements for the field test 41 12 12.1 12.2 12.3 Test procedures common to all P-AMS for field tests 41 Response time 41 Short-term zero and span drift 41 Reproducibility 42 13 Equivalence with the SRM 43 14 Measurement uncertainty 43 15 Test report 43 Annex A (normative) Minimum requirements for a test bench 44 BS EN 15267-4:2017 EN 15267-4:2017 (E) Annex B (normative) Interferents 45 Annex C (normative) Test of linearity 46 C.1 Description of the test procedure 46 C.2 Establishment of the regression line 46 C.3 Calculation of the residuals of the average concentrations 47 Annex D (normative) Determination of the total uncertainty 48 D.1 Determination of uncertainty contributions 48 D.2 Elements required for the uncertainty determinations 48 D.3 Example of an uncertainty calculation for a CO measuring P-AMS 50 D.4 Determination of uncertainty contributions by use of sensitivity coefficients 52 Annex E (informative) Elements of performance testing report 53 Annex F (informative) European standard reference methods 56 Bibliography 57 BS EN 15267-4:2017 EN 15267-4:2017 (E) European foreword This document (EN 15267-4:2017) has been prepared by Technical Committee CEN/TC 264 “Air quality”, 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 July 2017, and conflicting national standards shall be withdrawn at the latest by July 2017 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 is Part of a series of European Standards: — EN 15267-1, Air quality — Certification of automated measuring systems — Part 1: General principles — EN 15267-2, Air quality — Certification of automated measuring systems — Part 2: Initial assessment of the AMS manufacturer’s quality management system and post certification surveillance for the manufacturing process — EN 15267-3, Air quality — Certification of automated measuring systems — Part 3: Performance criteria and test procedures for automated measuring systems for monitoring emissions from stationary sources — EN 15267-4, Air quality — Certification of automated measuring systems — Part 4: Performance criteria and test procedures for automated measuring systems for periodic measurements of emissions from stationary sources According to the CEN/CENELEC Internal Regulations, the national standards organizations 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, Serbia, Slovakia, Slovenia, Spain, Sweden, Switzerland, Turkey and the United Kingdom BS EN 15267-4:2017 EN 15267-4:2017 (E) Introduction 0.1 General CEN has established standards for the certification of automated measuring systems (AMS) used for monitoring emissions from stationary sources and ambient air quality This product certification is based on the following four sequential stages: a) performance testing of the AMS; b) initial assessment of the AMS manufacturer’s quality management system; c) certification of the AMS; d) post certification surveillance This European Standard specifies the performance criteria and test procedures for performance testing of portable automated measuring systems (P-AMS) used for periodic measurements of stationary source emissions Testing applies to complete measuring systems NOTE Portable electrical apparatus designed to measure combustion flue gas parameters of heating appliances are specified in EN 50379–1 to EN 50379–3 The application of P-AMS for periodic measurements of stationary source emissions is based on — specification of the standard reference method (SRM) and validation of the SRM; — specification of the alternative method (AM) if the P-AMS is based on an AM; — certification of the P-AMS in accordance with EN 15267-1, EN 15267-2 and EN 15267-4 including demonstration of equivalence with the SRM in the field if the P-AMS is based on an AM; — on-going quality management by the user of the P-AMS in line with EN ISO/IEC 17025 NOTE Examples for standard reference methods for different measured components are listed in Annex F The overall assessment for the purposes of certification is conformity testing, while the evaluation of performance against specified performance criteria is performance testing 0.2 Legal drivers This European Standard supports the requirements of the following EU Directives: — Directive 2010/75/EU on industrial emissions (integrated pollution prevention and control) — Directive 2003/87/EC on processes emitting greenhouse gases However, this European Standard can also be applied to the monitoring requirements specified in other EU Directives 0.3 Periodic measurements Certified P-AMS can be used as SRM or AM for periodic measurements of stationary source emissions 0.4 Relationship to EN 14181 Certified P-AMS can be used as SRM or AM for the calibration and validation of stationary AMS for QAL2 and AST purposes BS EN 15267-4:2017 EN 15267-4:2017 (E) 0.5 Processes Field testing of P-AMS is ordinarily carried out on industrial processes representative of the range of application of the SRM or AM The premise is that if the P-AMS performs acceptably on these processes, then experience has shown that the P-AMS generally performs well on the majority of other processes However, there are always exceptions and it is the responsibility of the user to ensure that the P-AMS performs adequately on a specific process The necessary field test of P-AMS is specified in this European Standard 0.6 Performance characteristics A combination of laboratory and field tests is detailed within this European Standard Laboratory testing is designed to assess whether a P-AMS can meet, under controlled conditions, the relevant performance criteria Field testing, is designed to assess whether a P-AMS can continue to work and meet the relevant performance criteria in real applications including transportation to the measurement site, set-up of the P-AMS and measurement The main P-AMS performance characteristics are: — response time; — repeatability standard deviation; — lack of fit (linearity); — short-term drift; — influence of ambient temperature; — influence of voltage variations; — influence of vibration; — influence of sample gas pressure; — influence of sample gas flow for extractive P-AMS; — cross-sensitivity to likely interferents contained in the stack gas other than the measured component; — converter efficiency for NOx P-AMS; — response factors for P-AMS measuring TOC; — reproducibility under field conditions; — trueness and precision of the P-AMS against the SRM under field conditions if the P-AMS is based on an AM Additional performance characteristics specific to the SRM or AM are included in the performance test The quality assurance and quality control (QA/QC) procedures to be applied by the user of the P-AMS are also assessed in the performance test BS EN 15267-4:2017 EN 15267-4:2017 (E) This European Standard is an application and elaboration of EN ISO 9169 with additional and alternative provisions for the performance test of P-AMS Where this European Standard appears to differ from EN ISO 9169, it either elaborates upon the requirements of EN ISO 9169 or differs in minor ways owing to the necessity to conduct the performance test of P-AMS 0.7 Relationship to EN 15267-3 This European Standard is based on EN 15267-3, which specifies the performance testing of stationary AMS for the continuous monitoring of emissions from stationary sources Many requirements of this European Standard are identical to those of EN 15267-3 This European Standard deviates from EN 15267-3 only where the portable use and the use as SRM or AM require different or additional requirements Therefore, this European Standard allows a combined testing where an AMS is designed for stationary and portable use It also allows a reduced performance testing of P-AMS, which have been already certified according to EN 15267-3 for stationary use BS EN 15267-4:2017 EN 15267-4:2017 (E) Annex C (normative) Test of linearity C.1 Description of the test procedure In this test procedure, a regression line is established between the instrument readings of the P-AMS (x values) and the reference material values (c values) In the next step, the average of P-AMS readings at each reference material level is calculated Then the deviation (residual) of this average to the regression line is calculated C.2 Establishment of the regression line A linear regression for the function in Formula (C.1) is established: xi = a + B ( ci − c ) (C.1) For the calculation, all measurement points are taken into account The total number of measurement points (n) is equal to the number of reference material levels (including zero) times the number of repetitions (these are the results of the at least three readings) at a particular reference material level The coefficient a is obtained by Formula (C.2): a= n ∑xi n i =1 where (C.2) ais the average value of the x values, i.e the average of the P-AMS readings; xi n is the individual P-AMS reading; is the number of measured signals The coefficient B is obtained by Formula (C.3): ∑ x (c − c ) B= ∑ (c − c ) n i =1 i n i =1 where c ci i i (C.3) is the average of the c values, i.e the average of the reference material values; is the individual reference material value a + B ( ci − c ) is converted to xi= A + B ci through the calculation of A Secondly the function xi = according to Formula (C.4): A= a − B c 46 (C.4) BS EN 15267-4:2017 EN 15267-4:2017 (E) C.3 Calculation of the residuals of the average concentrations The residuals of the average concentration at each concentration level to the regression line are calculated as follows Calculate at each concentration level the average of the P-AMS readings at one and the same reference material level c according to Formula (C.5): xc = where xc mc mc ∑x i =1 c,i (C.5) is the average P-AMS reading at reference material level c; xc , i is the individual P-AMS reading at reference material level c; mc is the number of repetitions at one and the same reference material level c Calculate the residual dc of each average according to Formula (C.6): d c = xc − ( A + Bc ) (C.6) Convert dc into a relative residual dc,rel according to Formula (C.7) by dividing dc by the upper limit of the certification range xu: d c , rel = dc ×100 % xu (C.7) 47 BS EN 15267-4:2017 EN 15267-4:2017 (E) Annex D (normative) Determination of the total uncertainty D.1 Determination of uncertainty contributions The individual standard uncertainties, the combined standard uncertainty and the expanded uncertainty shall be determined according to the requirements of EN ISO 14956 or ISO/IEC Guide 98-3 (GUM) The individual standard uncertainties caused by the relevant performance characteristics shall be calculated by use of the maximum deviations or maximum standard deviations determined for the two P-AMS tested This provides a worst-case estimate of the total uncertainty in the performance test D.2 Elements required for the uncertainty determinations Table D.1 shows the uncertainty contributions which are to be combined when determining the combined standard uncertainty uc Specific contributions depend on the type of P-AMS, although some are common to all types of P-AMS Table D.1 — Uncertainty contributions Number Performance characteristic i Lack of fit Short-term span drift from field test 10 a ui 11 Uncertainty ulof Short-term zero drift from field test ud,z Influence of ambient temperature ut Influence of supply voltage Cross-sensitivity (interference) Repeatability standard deviation at span a Standard deviation from paired measurements under field conditions a Uncertainty of the reference material provided by the manufacturer b Excursion of measurement beam b Converter efficiency for P-AMS measuring NOx b ud,s uv ui ur = sr uD = sD urm umb uce Either the repeatability standard deviation at span or the standard deviation from paired measurements under field conditions is used, whichever is the larger b This uncertainty contribution is relevant for specific P-AMS only If the P-AMS depends on the regular use of reference materials for its continued accurate and precise operation – for example, during weekly span checks – then the uncertainty of the reference materials shall be included within the calculation of the total uncertainty 48 BS EN 15267-4:2017 EN 15267-4:2017 (E) The combined uncertainty uc shall be determined by use of Formula (D.1) and summation of the uncertainty contributions ui of the relevant performance characteristics specified in Table D.1: N ∑u uc = i =1 i (D.1) The expanded uncertainty U shall be determined using Formula (D.2): U = 1,96 uc (D.2) In the above calculation, most the values of ui for a parameter i are determined from test data, where the probability distribution of values is rectangular for most parameters and a normal distribution for a few parameters Factor 1,96 may be used since the number of measurements to determine the uncertainty contribution and the associated number of degrees of freedom is sufficiently high or a rectangular distribution is assumed In the case of rectangular distributions the standard uncertainties for each performance characteristic are calculated according to EN ISO 14956 by Formula (D.3): ui = where xi ,min xi ,max (x − xi ,adj ) + ( xi ,min − xi ,adj ) × ( xi ,max − xi ,adj ) + ( xi ,min − xi ,adj ) i ,max (D.3) is the minimum value of the average reading influenced by performance characteristic i; is the maximum value of the average reading influenced by performance characteristic i; is the value of the average reading with the influence quantity at its nominal value during xi ,adj adjustment Formula (D.3) can be simplified in the following cases: — if the value xi,adj is at the centre of the interval bounded by the maximum value xi,max and the minimum value xi,min of all values xi, then the standard uncertainty ui is given by Formula (D.4): ui = (x i ,max − xi ,min ) 12 (D.4) If the absolute values of the deviation above and below the central value is expressed by Δxi (see Formula (D.5)), then the standard uncertainty ui is given by Formula (D.6): xi ,max − xi ,adj = xi ,min − xi ,adj = ∆xi ui = ∆xi (D.5) (D.6) — if the value of xi,adj is the same as either xi,min or xi,max, then the standard uncertainty ui is given by Formula (D.7): ui = (x i ,max − xi ,min ) (D.7) 49 BS EN 15267-4:2017 EN 15267-4:2017 (E) D.3 Example of an uncertainty calculation for a CO measuring P-AMS A CO measuring P-AMS has been tested for a certification range of mg/m3 to 100 mg/m3 and an ELV of 50 mg/m3 expressed as a daily average Table D.2 shows the performance characteristics of the P-AMS Table D.2 — Performance characteristics for the uncertainty calculation Performance characteristic Certification range of the P-AMS Emission limit value of CO expressed in standard conditions of temperature and pressure and at oxygen reference volume concentration Test gas concentration (concentration of CO in N2) Response time Test data mg/m3 to 100 mg/m3 50 mg/m3 80 mg/m3 (1 ± 2,0 %) 120 s Repeatability standard deviation at zero point 0,30 % a Lack of fit 0,6 % a Repeatability standard deviation at span point 0,45 % a Short-term zero drift 0,01 % a Influence of ambient temperature at zero point 0,5 % a Short-term span drift Influence of ambient temperature at span point 0,5 % a 1,0 % a Influence of sample gas pressure 0,4 % b Influence of voltage 0,12 % a Influence of sample gas flow Cross-sensitivity CO2 (15 %) –0,8 mg/m3 CH4 (50 mg/m3) 1,2 mg/m3 N2O (20 mg/m3) Standard deviation from paired measurements under field conditions a b 0,2 % a expressed in percent of the range 0,5 mg/m3 0,38 % a expressed in percent of the measured value The deviations of the measured signals obtained in the performance testing of the individual performance characteristics are converted to standard uncertainties on the basis of rectangular distributions The worst-case values from the two P-AMS tested are used for the calculations, as they correspond to the maximum variation of the corresponding influence quantities The P-AMS depends on the test gas for continued quality assurance and control Therefore, the uncertainty of the test gas is included in the uncertainty calculations 50 BS EN 15267-4:2017 EN 15267-4:2017 (E) The repeatability standard deviation at span is used in the calculations, since it is greater than the standard deviation from paired measurements under field conditions Table D.3 shows the uncertainty calculations for each applicable performance characteristic Table D.3 — Uncertainty calculations Performance characteristic Standard uncertaint y Value of the standard uncertainty Square of the standard uncertainty mg/m3 (mg/m3)2 ur 0,45% ×100 = 0, 45 Lack of fit ulof 0,6 % ×100 Short-term zero drift ud,z 0,01% ×100 Short-term span drift ud,s 0,5% ×100 Influence of ambient temperature ut 1,0 % ×100 = 0,58 up 0,4 % × 50 = 0,12 uf 0,2 % ×100 = 0,12 Influence of voltage uv 0,12 % ×100 = 0, 07 Cross-sensitivity ui 0,5 1, + = 0,98 3 Uncertainty of test gas utg 2,0 % × 50 = 0,58 Sum – – Repeatability standard deviation at span Influence of sample gas pressure Influence of sample gas flow 3 The combined uncertainty is calculated using Formula (D.8): uc = 0,202 = 0,35 0,122 = 0,006 0,000 04 = 0, 29 0,084 0,336 0,014 0,014 0,004 0,960 0,336 2,076 2 ur2 + ulof + ud,z + ud,s + ut2 + up2 + uf2 + uv2 + ui2 + utg2 = 2, 0760 ( mg/m ) = 1, 44 mg/m3 The expanded uncertainty at a level of confidence of 95 % is then calculated using Formula (D.9): U= 1,96 × uc = 1, 96 × 1, 44 mg/m = 2,82 mg/m 0,95 (D.8) (D.9) 51 BS EN 15267-4:2017 EN 15267-4:2017 (E) The relative expanded uncertainty at a level of confidence of 95 % and at ELV is given by Formula (D.10): = U rel,0,95 2,82 mg/m3 = 5, % 50 mg/m3 (D.10) EN 15058:2016 specifies for the SRM an allowable expanded uncertainty of 6,0 % of ELV at 95 % confidence As the ELV is 50 mg/m3, the allowable expanded uncertainty is 3,0 mg/m3 Therefore, the PAMS is compliant with these requirements in the performance test D.4 Determination of uncertainty contributions by use of sensitivity coefficients The contribution of a variation of an influence quantity to the total uncertainty of the measured values in a future application of an P-AMS can be calculated from the range of values of the influence quantity in the considered application of the P-AMS and the sensitivity coefficient of this influence quantity determined in the performance test by use of Formula (D.11): ui = bi u ( X i ) where (D.11) ui is the uncertainty contribution to the total uncertainty of the measured values caused by a variation of an influence quantity Xi; bi is the sensitivity coefficient of the influence quantity Xi; u(Xi) is the variation of the influence quantity Xi expressed as a standard uncertainty The variation of the influence quantity Xi can be converted to a standard uncertainty by use of the Formulae (D.4) to (D.7) 52 BS EN 15267-4:2017 EN 15267-4:2017 (E) Annex E (informative) Elements of performance testing report General 1.1 Certification proposal 1.2 Unambiguous P-AMS designation 1.3 Measured component(s) 1.4 Device manufacturer together with full address 1.5 Field of application 1.6 Measurement range for performance test 1.7 Restrictions Restrictions shall be formulated if testing shows that the P-AMS does not cover the full scope of possible application fields 1.8 Notes In the event of supplementary or extended testing, reference shall be made to all preceding test reports Attention shall de drawn to main equipment peculiarities 1.9 Test laboratory 1.10 Test report number and date of compilation Task definition 2.1 Nature of test First test or supplementary testing 2.2 Objective Specification of which performance criteria were tested; Bibliography; Scope of any supplementary tests Description of the P-AMS tested 3.1 Measuring principle Description of metrological and scientific relationships 3.2 P-AMS scope and set-up 53 BS EN 15267-4:2017 EN 15267-4:2017 (E) Description of all parts of the P-AMS covered in the scope of testing, if possible including a copy of an illustration or flow diagram showing the P-AMS Statement of technical specifications, if appropriate in tabular form Test program Details shall be provided on the test program, in relation to the P-AMS under test In the case of supplementary or extended testing, the additional scope of testing shall be detailed and substantiated Particularities of the test shall be documented 4.1 Laboratory test/laboratory inspection Statement of all test steps involved 4.2 Field test Details on: - all test steps involved; - plant type or test bench on which the field test examinations were carried out; - P-AMS measurement range to be covered in the test; - installation conditions and operating conditions for the P-AMS under test Standard reference method 5.1 Method of measurement It is necessary to specify the standard reference method employed Variations from any method acknowledged as Standard Reference Method of measurement as described in European, international or national standards shall be documented Only validated methods shall ever be used and, as such, a statement on validation shall be made The uncertainty of the standard reference method shall be stated 5.2 Test stand set-up Description of the sampling probe, any dust filters used for particle separation in the measurement of gaseous substances, details on the sample gas line (length, material, size) and on sample gas conditioning Test results Comparison of the performance criteria placed on P-AMS in the performance test with the results attained The information below shall be stated for each individual test point in the following order of sequence: Consecutive number and short title of performance criteria as heading 6.1 Citation of performance criterion 6.2 Equipment 6.3 Method 6.4 Evaluation 54 BS EN 15267-4:2017 EN 15267-4:2017 (E) 6.5 Assessment 6.6 Detailed presentation of test results allowing for the respective section of the documentation Maintenance work Results of the equivalence test Annex A Values measured and computed Annex B Operating instructions The operating instructions should also be enclosed with the report in electronic form (e.g as a PDF file) 55 BS EN 15267-4:2017 EN 15267-4:2017 (E) Annex F (informative) European standard reference methods Table F.1 — Examples of European standard reference methods Measured component Particulate matter EN 13284–1 Hydrogen chloride EN 1911 Mercury EN 13211 Hydrocarbons EN 12619 Water-vapour EN 14790 Oxygen Sulfur dioxide Nitrogen monoxide Carbon monoxide 56 Standard EN 14789 EN 14791 EN 14792 EN 15058 BS EN 15267-4:2017 EN 15267-4:2017 (E) Bibliography [1] Directive 2010/75/EU of the European Parliament and of the Council of 24 November 2010 on industrial emissions (integrated pollution prevention and control) [2] Directive 2003/87/EC of the European Parliament and of the Council of 13 October 2003 establishing a scheme for greenhouse gas emission allowance trading within the Community and amending Council Directive 96/61/EC [3] Directive 2004/108/EC of the European Parliament and of the Council of 15 December 2004 on the approximation of the laws of the Member States relating to electromagnetic compatibility and repealing Directive 89/336/EEC [4] Directive 2014/35/EU of the European Parliament and of the Council of 26 February 2014 on the harmonisation of the laws of the Member States relating to the making available on the market of electrical equipment designed for use within certain voltage limits [5] EN 1911, Stationary source emissions - Determination of mass concentration of gaseous chlorides expressed as HCl - Standard reference method [6] EN 12619, Stationary source emissions - Determination of the mass concentration of total gaseous organic carbon - Continuous flame ionisation detector method [7] EN 13211, Air quality - Stationary source emissions - Manual method of determination of the concentration of total mercury [8] EN 13284-1, Stationary source emissions - Determination of low range mass concentration of dust - Part 1: Manual gravimetric method [9] EN 14181:2014, Stationary source emissions - Quality assurance of automated measuring systems [10] EN 14789:2017, Stationary source emissions — Determination of volume concentration of oxygen — Standard reference method: Paramagnetism [11] EN 14790:2017, Stationary source emissions — Determination of the water vapour in ducts — Standard reference method [12] EN 14791:2017, Stationary source emissions — Determination of mass concentration of sulphur oxides — Standard reference method [13] EN 14792:2017, Stationary source emissions — Determination of mass concentration of nitrogen oxides — Standard reference method: chemiluminescence [14] EN 15058:2017, Stationary source emissions — Determination of the mass concentration of carbon monoxide — Standard reference method: non-dispersive infrared spectrometry [15] EN 15267-1, Air quality - Certification of automated measuring systems - Part 1: General principles [16] EN 15267-2, Air quality - Certification of automated measuring systems - Part 2: Initial assessment of the AMS manufacturer’s quality management system and post certification surveillance for the manufacturing process 57 BS EN 15267-4:2017 EN 15267-4:2017 (E) [17] EN 15267-3, Air quality - Certification of automated measuring systems - Part 3: Performance criteria and test procedures for automated measuring systems for monitoring emissions from stationary sources [18] EN 50160, Voltage characteristics of electricity supplied by public electricity networks [19] EN 50379-1, Specification for portable electrical apparatus designed to measure combustion flue gas parameters of heating appliances - Part 1: General requirements and test methods [20] EN 50379-2, Specification for portable electrical apparatus designed to measure combustion flue gas parameters of heating appliances - Part 2: Performance requirements for apparatus used in statutory inspections and assessment [21] EN 50379-3, Specification for portable electrical apparatus designed to measure combustion flue gas parameters of heating appliances - Part 3: Performance requirements for apparatus used in non-statutory servicing of gas fired heating appliances [22] EN ISO 9169, Air quality - Definition and determination of performance characteristics of an automatic measuring system (ISO 9169) [23] EN ISO/IEC 17025, General requirements for the competence of testing and calibration laboratories (ISO/IEC 17025) [24] EN ISO/IEC 17043, Conformity assessment - General requirements for proficiency testing (ISO/IEC 17043) [25] CEN/TS 15675, Air quality - Measurement of stationary source emissions - Application of EN ISO/IEC 17025:2005 to periodic measurements [26] ISO 5725-2, Accuracy (trueness and precision) of measurement methods and results — Part 2: Basic method for the determination of repeatability and reproducibility of a standard measurement method [27] ISO/IEC Guide 98-3:2008, Uncertainty of measurement — Part 3: Guide to the expression of uncertainty in measurement (GUM:1995) 58 This page deliberately left blank NO COPYING WITHOUT BSI PERMISSION EXCEPT AS PERMITTED BY COPYRIGHT LAW British Standards Institution (BSI) BSI is the national body responsible for preparing British Standards and other standards-related publications, information and services BSI is incorporated by Royal Charter British Standards and other standardization products are published by BSI Standards Limited About us Reproducing extracts We bring together business, industry, government, consumers, innovators and others to shape their combined experience and expertise into standards -based solutions For permission to reproduce content from BSI publications contact the BSI Copyright & Licensing team The knowledge embodied in our standards 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