EN 62386-210:2011

2003-01.Slovenski inštitut za standardizacijo. Razmnoževanje celote ali delov tega standarda ni dovoljeno.Digitalni naslovljivi vmesnik za razsvetljavo - 210. del: Posebne zahteve za krmilne naprave - Zaporedje (element tipa 9)Digital adressierbare Schnittstelle für die Beleuchtung -- Teil 210: Besondere Anforderungen an Betriebsgeräte - Sequenzer (Gerätetyp 9)Interface d'éclairage adressable numérique - Partie 210: Exigences particulières pour les appareillages de commande - Séquenceur (dispositifs de type 9)Digital addressable lighting interface - Part 210: Particular requirements for control gear - Sequencer (device type 9)35.200Vmesniška in povezovalna opremaInterface and interconnection equipment29.140.50Instalacijski sistemi za razsvetljavoLighting installation systemsICS:Ta slovenski standard je istoveten z:EN 62386-210:2011SIST EN 62386-210:2011en01-september-2011SIST EN 62386-210:2011SLOVENSKI
STANDARD
EUROPEAN STANDARD EN 62386-210 NORME EUROPÉENNE
EUROPÄISCHE NORM June 2011
CENELEC European Committee for Electrotechnical Standardization Comité Européen de Normalisation Electrotechnique Europäisches Komitee für Elektrotechnische Normung
Management Centre: Avenue Marnix 17, B - 1000 Brussels
© 2011 CENELEC -
All rights of exploitation in any form and by any means reserved worldwide for CENELEC members.
Ref. No. EN 62386-210:2011 E
ICS 29.140.50; 29.140.99
English version
Digital addressable lighting interface -
Part 210: Particular requirements for control gear -
Sequencer (device type 9) (IEC 62386-210:2011)
Interface d'éclairage adressable numérique -
Partie 210: Exigences particulières pour les appareillages de commande -
Séquenceur (dispositifs de type 9) (CEI 62386-210:2011)
Digital adressierbare Schnittstelle für die Beleuchtung -
Teil 210: Besondere Anforderungen an Betriebsgeräte -
Sequenzer (Gerätetyp 9) (IEC 62386-210:2011)
This European Standard was approved by CENELEC on 2011-05-25. CENELEC 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 Central Secretariat or to any CENELEC 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 CENELEC member into its own language and notified to the Central Secretariat has the same status as the official versions.
CENELEC members are the national electrotechnical committees of Austria, Belgium, Bulgaria, Croatia, Cyprus, the Czech Republic, Denmark, Estonia, Finland, France, Germany, Greece, Hungary, Iceland, Ireland, Italy, Latvia, Lithuania, Luxembourg, Malta, the Netherlands, Norway, Poland, Portugal, Romania, Slovakia, Slovenia, Spain, Sweden, Switzerland and the United Kingdom.
at national level by publication of an identical
national standard or by endorsement
(dop)
2012-02-25 – latest date by which the national standards conflicting
with the EN have to be withdrawn
(dow)
2014-05-25 Annex ZA has been added by CENELEC. __________ Endorsement notice The text of the International Standard IEC 62386-210:2011 was approved by CENELEC as a European Standard without any modification. In the official version, for Bibliography, the following notes have to be added for the standards indicated: IEC 60598-1 NOTE
Harmonized as EN 60598-1. IEC 60669-2-1 IEC 60921 IEC 60923 IEC 60925 IEC 60929 IEC 61347-1 IEC 61347-2-3 IEC 61547 CISPR 15 NOTE
Harmonized as EN 60669-2-1. NOTE
Harmonized as EN 60921. NOTE
Harmonized as EN 60923. NOTE
Harmonized as EN 60925. NOTE
Harmonized as EN 60929. NOTE
Harmonized as EN 61347-1. NOTE
Harmonized as EN 61347-2-3. NOTE
Harmonized as EN 61547. NOTE
Harmonized as EN 55015. __________ SIST EN 62386-210:2011

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(normative)
Normative references to international publications with their corresponding European publications
The following referenced documents are indispensable for the application of this document. For dated references, only the edition cited applies. For undated references, the latest edition of the referenced document (including any amendments) applies.
NOTE
When an international publication has been modified by common modifications, indicated by (mod), the relevant EN/HD applies.
Publication Year Title EN/HD Year
IEC 62386-101 2009 Digital addressable lighting interface -
Part 101: General requirements - System EN 62386-101 2009
IEC 62386-102 2009 Digital addressable lighting interface -
Part 102: General requirements - Control gearEN 62386-102 2009
IEC 62386-210 Edition 1.0 2011-04 INTERNATIONAL STANDARD NORME INTERNATIONALE Digital addressable lighting interface –
Part 210: Particular requirements for control gear – Sequencer (device type 9)
Interface d’éclairage adressable numérique –
Partie 210: Exigences particulières pour les appareillages de commande – Séquenceur (dispositifs de type 9)
INTERNATIONAL ELECTROTECHNICAL COMMISSION COMMISSION ELECTROTECHNIQUE INTERNATIONALE XB ICS 29.140.50; 29.140.99 PRICE CODE CODE PRIX ISBN 978-2-88912-467-1
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CONTENTS FOREWORD . 5 INTRODUCTION . 7 1 Scope . 8 2 Normative references . 8 3 Terms and definitions . 8 4 General description . 9 5 Electrical specifications . 9 6 Interface power supply . 9 7 Transmission protocol structure . 9 8 Timing . 9 9 Method of operation . 9 10 Declaration of variables . 14 11 Definition of commands . 15 12 Test procedures . 24 Bibliography . 62
Figure 1 – Timing example for an automatic sequence . 13 Figure 2 – Application extended configuration command sequence example . 16 Figure 3 – Test sequence "Physical address allocation" . 24 Figure 4 – Test sequence "QUERY FEATURES" . 25 Figure 5 – Test sequence "Configure POINT N" . 26 Figure 6 – Test sequence "Configuration – sent twice" . 27 Figure 7 – Test sequence "Configuration – time-out" . 28 Figure 8 – Test sequence "Configuration – command in-between 1" . 29 Figure 9 – Test sequence "Configuration – command in-between 2" . 30 Figure 10 – Test sequence "COPY TO POINT N" . 31 Figure 11 – Test sequence "COPY TO POINT N – sent twice" . 32 Figure 12 – Test sequence "COPY TO POINT N – time-out" . 33 Figure 13 – Test sequence "COPY TO POINT N – command in-between" . 34 Figure 14 – Test sequence "CHANNEL SELECTION" . 35 Figure 15 – Test sequence "CHANNEL SELECTION – sent twice / time-out" . 36 Figure 16 – Test sequence "CHANNEL SELECTION – command in-between" . 37 Figure 17 – Test sequence "CONFIGURE CONTROL N" . 38 Figure 18 – Test sequence "CONFIGURE CONTROL N – sent twice / time-out" . 39 Figure 19 – Test sequence "CONFIGURE CONTROL N – command in-between" . 40 Figure 20 – Test sequence "ENABLE DEVICE TYPE: Application extended commands" . 41 Figure 21 – Test sequence 'ENABLE DEVICE TYPE:
Application extended configuration commands 1' . 42 Figure 22 – Test sequence 'ENABLE DEVICE TYPE:
Application extended configuration commands 2' . 43 Figure 23 – Subsequence 'Configure sequence' . 44 Figure 24 – Test sequence 'GO TO POINT N' . 45 SIST EN 62386-210:2011

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Figure 25 – Test sequence 'GO TO NEXT POINT' . 46 Figure 26 – Test sequence 'GO TO PREVIOUS POINT' . 47 Figure 27 – Test sequence 'Automatic sequence' . 48 Figure 28 – Timing diagram for test 'Automatic sequence' . 49 Figure 29 – Test sequence 'Automatic sequence – pointer' . 50 Figure 30 – Test sequence 'Automatic sequence – number of runs' . 51 Figure 31 – Test sequence 'Automatic sequence – stopped by command' . 52 Figure 32 – Test sequence 'Sequencer performance' . 53 Figure 33 – Template for 'Sequencer performance' . 53 Figure 34 – Test sequence 'START AT POINT N – number of runs' . 54 Figure 35 – Test sequence 'RESET SEQUENCER' . 55 Figure 36 – Test sequence 'RESET SEQUENCER – send twice / time-out' . 56 Figure 37 – Test sequence 'RESET SEQUENCER – command in-between' . 57 Figure 38 – Test sequence 'RESET CONTROL N' . 58 Figure 39 – Test sequence 'FAULTY CHANNEL' . 59 Figure 40 – Test sequence 'QUERY EXTENDED VERSION NUMBER' . 60 Figure 41 – Test sequence 'RESERVED APPLICATION EXTENDED COMMANDS' . 61
Table 1 – Access to the sequencer variables . 11 Table 2 – Sequencer programming example . 12 Table 3 – Declaration of variables . 14 Table 4 – Summary of the application extended command set . 23 Table 5 – Parameters for test sequence "Configure POINT N" . 26 Table 6 – Parameters for test sequence "Configuration – sent twice" . 27 Table 7 – Parameters for test sequence "Configuration – time-out" . 28 Table 8 – Parameters for test sequence "Configuration – command in-between 1" . 29 Table 9 – Parameters for test sequence "Configuration – command in-between 2" . 30 Table 10 – Parameters for test sequence "COPY TO POINT N" . 31 Table 11 – Parameters for test sequence "COPY TO POINT N – sent twice" . 32 Table 12 – Parameters for test sequence "COPY TO POINT N – time-out" . 33 Table 13 – Parameters for test sequence "COPY TO POINT N – command in-between" . 34 Table 16 – Parameters for test sequence "CHANNEL SELECTION – command in-between". 37 Table 19 – Parameters for test sequence "CONFIGURE CONTROL N – command in-between". 40 Table 20 – Parameters for test sequence
"ENABLE DEVICE TYPE: Application extended commands" . 41 Table 21 – Parameters for test sequence 'ENABLE DEVICE TYPE:
Application extended configuration commands 1' . 42 Table 23 – Parameters for subsequence 'Configure sequence' . 44 Table 24 – Parameters for test sequence 'GO TO POINT N' . 45 Table 27 – Parameters for test sequence 'Automatic sequence' . 48 Table 29 – Parameters for test sequence 'Automatic sequence – pointer' . 50 Table 30 – Parameters for test sequence 'Automatic sequence – number of runs' . 51 SIST EN 62386-210:2011

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Table 31 – Parameters for test sequence 'Automatic sequence – stopped by command' . 52 Table 34 – Parameters for test sequence 'START AT POINT N – number of runs' . 54 Table 37 – Parameters for test sequence 'RESET SEQUENCER – command in-between' . 57 Table 39 – Parameters for test sequence 'FAULTY CHANNEL' . 59 Table 41 – Parameters for test sequence
'RESERVED APPLICATION EXTENDED COMMANDS' . 61
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INTERNATIONAL ELECTROTECHNICAL COMMISSION ____________
DIGITAL ADDRESSABLE LIGHTING INTERFACE –
Part 210: Particular requirements for control gear –
Sequencer (device type 9)
FOREWORD 1) The International Electrotechnical Commission (IEC) is a worldwide organization for standardization comprising all national electrotechnical committees (IEC National Committees). The object of IEC is to promote international co-operation on all questions concerning standardization in the electrical and electronic fields. To this end and in addition to other activities, IEC publishes International Standards, Technical Specifications, Technical Reports, Publicly Available Specifications (PAS) and Guides (hereafter referred to as “IEC Publication(s)”). Their preparation is entrusted to technical committees; any IEC National Committee interested in the subject dealt with may participate in this preparatory work. International, governmental and non-governmental organizations liaising with the IEC also participate in this preparation. IEC collaborates closely with the International Organization for Standardization (ISO) in accordance with conditions determined by agreement between the two organizations. 2) The formal decisions or agreements of IEC on technical matters express, as nearly as possible, an international consensus of opinion on the relevant subjects since each technical committee has representation from all interested IEC National Committees.
3) IEC Publications have the form of recommendations for international use and are accepted by IEC National Committees in that sense. While all reasonable efforts are made to ensure that the technical content of IEC Publications is accurate, IEC cannot be held responsible for the way in which they are used or for any misinterpretation by any end user. 4) In order to promote international uniformity, IEC National Committees undertake to apply IEC Publications transparently to the maximum extent possible in their national and regional publications. Any divergence between any IEC Publication and the corresponding national or regional publication shall be clearly indicated in the latter. 5) IEC itself does not provide any attestation of conformity. Independent certification bodies provide conformity assessment services and, in some areas, access to IEC marks of conformity. IEC is not responsible for any services carried out by independent certification bodies. 6) All users should ensure that they have the latest edition of this publication. 7) No liability shall attach to IEC or its directors, employees, servants or agents including individual experts and members of its technical committees and IEC National Committees for any personal injury, property damage or other damage of any nature whatsoever, whether direct or indirect, or for costs (including legal fees) and expenses arising out of the publication, use of, or reliance upon, this IEC Publication or any other IEC Publications.
8) Attention is drawn to the Normative references cited in this publication. Use of the referenced publications is indispensable for the correct application of this publication. 9) Attention is drawn to the possibility that some of the elements of this IEC Publication may be the subject of patent rights. IEC shall not be held responsible for identifying any or all such patent rights. International Standard IEC 62386-210 has been prepared by subcommittee 34C: Auxiliaries for lamps, of IEC technical committee 34: Lamps and related equipment. The text of this standard is based on the following documents: CDV Report on voting 34C/915/CDV 34C/938/RVC
Full information on the voting for the approval of this standard can be found in the report on voting indicated in the above table. This publication has been drafted in accordance with the ISO/IEC Directives, Part 2. SIST EN 62386-210:2011

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This Part 210 is intended to be used in conjunction with IEC 62386-101 and IEC 62386-102, which contain general requirements for the relevant product type (control gear or control devices). A list of all parts of the IEC 62386 series, under the general title Digital addressable lighting interface can be found on the IEC website.
The committee has decided that the contents of this publication will remain unchanged until the stability date indicated on the IEC web site under "http://webstore.iec.ch" in the data related to the specific publication. At this date, the publication will be
• reconfirmed, • withdrawn, • replaced by a revised edition, or • amended.
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INTRODUCTION This first edition of IEC 62386-210 is published in conjunction with IEC 62386-101 and IEC 62386-102. The division of IEC 62386 into separately published parts provides for ease of future amendments and revisions. Additional requirements will be added as and when a need for them is recognised. This International Standard, and the other parts that make up the IEC 62386-200 series, in referring to any of the clauses of IEC 62386-101 or IEC 62386-102, specifies the extent to which such a clause is applicable and the order in which the tests are to be performed. The parts also include additional requirements, as necessary. All parts that make up the IEC 62386-200 series are self-contained and therefore do not include references to each other. Where the requirements of any of the clauses of IEC 62386-101 or IEC 62386-102 are referred to in this International Standard by the sentence "The requirements of IEC 62386-1XX, clause ‘n’ apply”, this sentence is to be interpreted as meaning that all requirements of the clause in question of Part 101 or Part 102 apply, except any which are inapplicable to the specific type of lamp control gear covered by Part 210. All numbers used in this International Standard are decimal numbers unless otherwise noted. Hexadecimal numbers are given in the format 0xVV, where VV is the value. Binary numbers are given in the format XXXXXXXXb or in the format XXXX XXXX, where X is 0 or 1; 'x' in binary numbers means 'don't care'.
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DIGITAL ADDRESSABLE LIGHTING INTERFACE –
Part 210: Particular requirements for control gear –
Sequencer (device type 9)
1 Scope This International Standard specifies a protocol and test procedures for the control by digital signals of electronic control gear working as automatic sequencers. 2 Normative references The following referenced documents are indispensable for the application of this document. For dated references, only the edition cited applies. For undated references, the latest edition of the referenced document (including any amendments) applies. IEC 62386-101:2009, Digital addressable lighting interface – Part 101: General requirements – System IEC 62386-102:2009, Digital addressable lighting interface – Part 102: General requirements – Control gear 3 Terms and definitions For the purposes of this document, the terms and definitions given in Clause 3 of
IEC 62386-101:2009 and Clause 3 of IEC 62386-102:2009 apply, with the following additional definitions. 3.1
multi channel device device which provides more than one output for controlling light sources NOTE The individual outputs can have different states at the same time. 3.2
point tuple consisting of a sequencer fade time, a hold time and an arc power level for each output channel NOTE A point is reached when the sequencer fade time of this point has expired. 3.3
next point point following the current point in a sequence 3.4
previous point point preceding the current point in a sequence 3.5
pointer contents of a register used as reference to the starting point of a sequence SIST EN 62386-210:2011

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NOTE For this purpose, a register may be one of the scenes 0 to 15 or the POWER ON LEVEL or the SYSTEM FAILURE LEVEL. 4 General description The requirements of Clause 4 of IEC 62386-101:2009 and Clause 4 of IEC 62386-102:2009 shall apply. 5 Electrical specifications The requirements of Clause 5 of IEC 62386-101:2009 and Clause 5 of IEC 62386-102:2009 shall apply. 6 Interface power supply The requirements of Clause 6 of IEC 62386-101:2009 and Clause 6 of IEC 62386-102:2009 shall apply, if a power supply is integrated with the gear. 7 Transmission protocol structure The requirements of Clause 7 of IEC 62386-101:2009 and Clause 7 of IEC 62386-102:2009 shall apply. 8 Timing The requirements of Clause 8 of IEC 62386-101:2009 and Clause 8 of IEC 62386-102:2009 shall apply. 9 Method of operation The requirements of Clause 9 of IEC 62386-101:2009 and Clause 9 of IEC 62386-102:2009 shall apply with the following exceptions: Amendments to Clause 9 of IEC 62386-102:2009: Replacement:
9.2 Power-on Control gear shall start to react properly to commands not later than 0,5 s after power-on. If no command affecting power level is received before 0,6 s after mains power-on, the gear shall proceed as follows: If the pointer control register CONTROL 253 contains 0, the control gear shall go to POWER ON LEVEL immediately without fading, unless 'MASK' is stored as the POWER ON LEVEL, in which case the control gear shall go to the most recent arc power level or start the most recent sequence at its starting point. If the pointer control register CONTROL 253 contains a value other than 0, then the contents of the POWER ON LEVEL shall be used as pointer to the starting point of a sequence. If the Pointer Control Register CONTROL 253 contains 'MASK', the control gear shall run through the sequence until stopped by command. Otherwise, the number of times the gear runs through the sequence shall be given by the contents of CONTROL 253. SIST EN 62386-210:2011

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Clearly, there shall be an interval of at least 0,1 s during which it shall be possible for a control device to send an arc power control command which shall be obeyed immediately, thereby preventing the gear from processing the POWER-ON LEVEL as described. NOTE 1 Different manufacturers’ control gear may react in different ways to relative arc power commands (such as STEP DOWN) during the 0,1 s period mentioned above. NOTE 2 Some control gear may have a preheating or ignition phase (see 9.7 of IEC 62386-102:2009). NOTE 3 Different manufacturers' control gear may restore either the most recent actual arc power level or the most recent target arc power level if 'MASK' is stored as POWER-ON LEVEL. 9.3 Interface-failure If the interface idle voltage remains below the specified receiver high level range (see IEC 62386-101:2009, Clause 5) for more than 500 ms, the control gear shall proceed as follows: If the pointer control register CONTROL 254 contains 0, the control gear shall go to SYSTEM FAILURE LEVEL immediately without fading, unless 'MASK' is stored as the SYSTEM FAILURE LEVEL, in which case the control gear shall stay in the state it is in (no change of the arc power level, no switching on or off). If the pointer control register CONTROL 254 contains a value other than 0, then the contents of the SYSTEM FAILURE LEVEL shall be used as pointer to the starting point of a sequence. If the pointer control register CONTROL 254 contains 'MASK', the control gear shall run through the sequence until stopped by command. Otherwise, the number of times the gear runs through the sequence shall be given by the contents of CONTROL 254. On restoration of the idle voltage the control gear shall not change its state. Addition: 9.9 Multi-channel device A sequencer based on this standard shall be able to support up to 8 output channels. Which channels are supported can be queried by command 243 'QUERY SUPPORTED CHANNELS'. Any direct or indirect arc power control command defined in Part 102 shall influence the arc power level of the selected channels For configuration of the sequencer, the different channels shall be selected by command 230 'STORE DTR AS CHANNEL SELECTION'. Each bit of the byte CHANNEL SELECTION shall correspond to one output channel: bit 0 channel 0 selected ‘0’ = No bit 1 channel 1 selected ‘0’ = No bit 2 channel 2 selected ‘0’ = No bit 3 channel 3 selected ‘0’ = No bit 4 channel 4 selected ‘0’ = No bit 5 channel 5 selected ‘0’ = No bit 6 channel 6 selected ‘0’ = No bit 7 channel 7 selected ‘0’ = No The CHANNEL SELECTION shall not influence the recall of already stored points. SIST EN 62386-210:2011

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The following notation is used to refer to a particular point for a particular channel: Point (point number; channel number) 9.10 Sequencer operation 9.10.1 General Two operating modes shall be supported: · externally driven sequencer mode; · automatic sequencer mode. 9.10.2 Externally driven sequencer mode In this mode, a control device may use the commands 232 'Go To Point N', 233 'Go To Next Point' and 234 'Go To Previous Point' to control the sequence. The arc power level shall be set to the value stored for the recalled point N using the programmed Sequencer Fade Time of the point N. 9.10.3 Automatic sequencer mode 9.10.3.1 Sequencer programming For each point of the sequencer, the following values shall be stored: a hold time, a sequencer fade time and up to eight arc power levels, one for each channel. For Point 0 to Point 15, which are identical to Scene 0 to Scene 15, for Point 253 (Power-On) and for Point 254 (System Failure) an additional pointer control register shall be stored.
Table 1 gives an overview of the stored variables and the value of the DTR2 used to access the variables. Table 1 – Access to the sequencer variables DTR 2 value Channel Sequencer fade time Hold time Pointer control register
0 1 . n 0 point (0,0)
point (0,1) . point (0,n) FT point 0 HT point 0 Control 0 1 point (1,0)
point (1,1) . point (1,n) FT point 1 HT point 1 Control 1 2 point (2,0)
point (2,1) . point (2,n) FT point 2 HT point 2 Control 2 3 point (3,0)
point (3,1) . point (3,n) FT point 3 HT point 3 Control 3 4 point (4,0)
point (4,1) . point (4,n) FT point 4 HT point 4 Control 4 5 point (5,0)
point (5,1) . point (5,n) FT point 5 HT point 5 Control 5 6 point (6,0)
point (6,1) . point (6,n) FT point 6 HT point 6 Control 6 7 point (7,0)
point (7,1) . point (7,n) FT point 7 HT point 7 Control 7 8 point (8,0)
point (8,1) . point (8,n) FT point 8 HT point 8 Control 8 9 point (9,0)
point (9,1) . point (9,n) FT point 9 HT point 9 Control 9 10 point (10,0)
point (10,1) . point (10,n) FT point 10 HT point 10 Control 10 11 point (11,0)
point (11,1) . point (11,n) FT point 11 HT point 11 Control 11 12 point (12,0)
point (12,1) . point (12,n) FT point 12 HT point 12 Control 12 13 point (13,0)
point (13,1) . point (13,n) FT point 13 HT point 13 Control 13 14 point (14,0)
point (14,1) . point (14,n) FT point 14 HT point 14 Control 14 15 point (15,0)
point (15,1) . point (15,n) FT point 15 HT point 15 Control 15 16 point (16,0) point (16,1) . point (16,n) FT point 16 HT point 16
17 point (17,0) point (17,1) . point (17,n) FT point 17 HT point 17
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DTR 2 value Channel Sequencer fade time Hold time Pointer control register
0 1 . n . . . . . . . . 249 point (249,0) point (249,1) . point (249,n) FT point 249 HT point 249
...
253 point (253,0) point (253,1) . point (253,n) FT point 253 HT point 253 Control 253 254 point (254,0) point (254,1) . point (254,n) FT point 254 HT point 254 Control 254 255
...
NOTE Care has to be taken when programming pointers to avoid infinite loops without any change of light output. 9.10.3.2 Sequence programming example The automatic sequencer mode is explained by means of the following example. It shall be possible to store more than one sequence in the memory of the control gear. 'MASK' (255) stored in point (N;0) shall specify the point (N-1) as the end point of a sequence. Point N separates the different sequences from each other. Table 2 shows a programming example. Table 2 – Sequencer programming example
Point number N Level point
(N;0)
0 254
1 200
2 180
… …
A 120 End point of sequence 1 A + 1
A + 2 0
… …
B - 1 240
B 254 End point of sequence 2 B + 1 255
…
Starting a sequence at any point between Point 0 and Point A shall cause the sequencer to run sequence 1 beginning at the specified starting point. After Point A, the sequence shall always continue at Point 0. Selecting Point (A+1) as starting point shall cause the sequencer to start at point 0. Starting a sequence at any point between Point (A+2) and Point B shall cause the sequencer to run sequence 2 beginning at the specified starting point. After Point B, the sequence shall always continue at Point (A+2). Selecting Point (B+1) as starting point shall cause the sequencer to start at point (A+2). Figure 1 shows a timing example for an automatic sequence. SIST EN 62386-210:2011

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Fade Time Point 0Point 0Arc Power LevelTime Point 1Point 2Point 249Point 0Fade Time Point 1Fade Time Point 2Fade Time Point 3Fade Time Point 249Hold Time Point 249Hold Time Point 0Fade Time Point 0Hold Time Point 0Hold Time Point 1Hold Time Point 2 Figure 1 – Timing example for an automatic sequence 9.10.3.3 Starting the automatic sequencer 9.10.3.3.1 Starting with sequencer commands To start the automatic sequencer with sequencer commands, the following steps are to be executed by a control device: a) transmit the starting point to DTR2 and the desired number of loops to DTR; b) start the sequence with command 235 'START AT POINT N'. After step b), the control gear shall set the actual level to the level stored for the selected point N using the programmed sequencer fade time of the point N. The actual level shall then remain constant at the programmed value of point N for the configured hold time of point N. After that the sequencer shall operate as described in 9.10.3.1. 9.10.3.3.2 Starting with pointer
On power-up, on interface failure, or on scene recall, the control gear shall check the contents of the appropriate pointer control register. If the pointer control register checked contains 0, the gear shall go to the stored arc power level as requested, i.e. POWER ON LEVEL, SYSTEM FAILURE LEVEL or SCENE X. If the pointer control register checked contains a value other than 0, then the contents of the POWER ON LEVEL, SYSTEM FAILURE LEVEL or SCENE X shall be used as pointer to the starting point of a sequence. If the pointer control register contains 'MASK', the control gear shall run through the sequence until stopped by command. Otherwise, the number of times the gear runs through the sequence shall be given by the contents of the pointer control register. If a pointer points to a non-existent point it shall be ignored and no sequence shall be started. 9.10.3.4 Stopping the automatic sequencer A running automatic sequence shall be stopped on any of the following events: · the starting of an automatic sequence via pointer; · the starting of an automatic sequence by command 235 'START AT POINT N'; IEC
727/11 SIST EN 62386-210:2011
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· the reaching of point N after the reception of command 236 'STOP AT POINT N'; · the reaching of the next point after the reception of command 237 'STOP AT NEXT POINT'; · the reception of one of the following commands: command 231 'RESET SEQUENCER', command 232 'GO TO POINT N', command 233 'GO TO NEXT POINT', command 234 'GO TO PREVIOUS POINT'; · the reception of any direct or indirect arc power control command independent of the selected channels. The new arc power level requested by the received command shall be set for the selected channels; · the reception of command 32 'RESET'; · interface failure; · power failure. 10 Declaration of variables The requirements of Clause 10 of IEC 62386-101:2009 and Clause 10 of IEC 62386-102:2009 shall apply, with the following additional variables for this device type, indicated in Table 3: Table 3 – Declaration of variables VARIABLE DEFAULT VALUE (control gear leaves the factory) RESET VALUE RESET SEQUENCER VALUE RANGE OF VALIDITY MEMORY a
"MIN SEQUENCER FADE TIME" factory burn-in no change no change 1 to 28 1 byte ROM "HIGHEST POSSIBLE POINT NUMBER" factory burn-in no change no change 15 to 249 1 byte ROM "SUPPORTED CHANNELS" factory burn-in no change no change xxxx xxx1 1 byte ROM "ACTUAL POINT NUMBER" 255 ('MASK') no change 255 0 to 249 253, 254, 255 ('MASK') 1 byte RAM "LEVEL POINT N" 255 ('MASK') for N = 0 to 249 254 for N = 253 to 254 255 for N = 0 to 15 254 for N = 253 to 254 no change for N = 16 to 249 no change for N = 0 to 15, N = 253 and 254 255for N = 16 to 249 0 to 254 255 ('MASK') 1 byte for each channel of each point "HOLD TIME
POINT N" 0 no change 0 0 to 254 1 byte for each point "SEQUENCER FADE TIME
POINT N" 0 no change 0 0, MIN SEQUENCER FADE TIME to 254 1 byte for each point "CONTROL N" 0 0 0 0, 1 to 254, 255 18 bytes "SEQUENCER STATUS" 0000 0000 0000 0000 0000 0000 000x xxxx 1 byte RAM "FEATURES" factory burn-in no change no change x000 00xx 1 byte ROM "DEVICE TYPE" 9 no change no change 0 to 254 1 byte ROM “CHANNEL SELECTION” all existing channels enabled all existing channels enabled no change xxxx xxxx 1 byte RAM a Persistent memory (storage time indefinite) if not stated otherwise. SIST EN 62386-210:2011

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11 Definition of commands
The requirements of Clause 11 of IEC 62386-101:2009 and Clause 11 of IEC 62386-102:2009 shall apply with the following exceptions: Amendments to Clause 11 of IEC 62386-102:2009: 11.1. Arc power control commands 11.1.1 Direct arc power control command Replacement:
Command –: YAAA AAA0 XXXX XXXX "DIRECT ARC POWER CONTROL" Set the actual arc power level to the value given by the command byte using the actual fade time. During fading, bit 4 of the status register shall indicate “fade is running”. Direct control commands outside the "MAX LEVEL" to "MIN LEVEL" range shall result in setting the arc power level to the respective MAX and MIN LEVEL. The arc power levels "0" (OFF) and "255" (MASK) shall not be affected by the MIN and MAX LEVEL settings. "255" (MASK) means "STOP FADING"; this value shall subsequently be ignored and therefore not stored in memory. If "MASK" is received during preheating the control gear shall remain switched off. If "MASK" is received during automatic sequencer operation the sequence shall be stopped immediately. The channels of a multi channel control gear shall not be set to the same arc power level on receipt of "MASK". A received arc power level of “0” or “MASK” shall not have any visible effect on a lamp which is switched off. If the control gear is a multi channel device, only the selected channels shall be affected by direct control commands. 11.1.2 Indirect arc power control commands Amendment: Commands 16 – 31:
YAAA AAA1 0001 XXXX
"GO TO SCENE" If the appropriate pointer control register CONTROL XXXX contains 0, the control gear shall set the actual arc power level to the value stored for Scene XXXX using the actual fade time, unless 'MASK' is stored as the Scene XXXX, in which case the arc power level shall remain unchanged. If the appropriate pointer control register CONTROL XXXX contains a value other than 0, then the contents of the Scene XXXX shall be used as pointer to the starting point of a sequence. If the appropriate pointer control register CONTROL XXXX contains 'MASK', the control gear shall run through the sequence until stopped by command. Otherwise, the number of times the gear runs through the sequence shall be given by the contents of CONTROL XXXX. During fading, bit 4 of the status register shall indicate a “fade is running”. 11.2 Configuration commands Amendment: SIST EN 62386-210:2011

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11.2.1 General configuration commands Command 32: YAAA AAA1 0010 0000
"RESET" After the second reception of the command, the variables in the memory (see Clause 10) shall be changed to their reset values. There is no requirement for commands to be received properly within the next 300 ms. In addition, all pointer control registers CONTROL N shall be set to 0. 11.3 Query commands Amendments: 11.3.1 Queries related to status information Command 153: YAAA AAA1 1001 1001 "QUERY DEVICE TYPE" Answer shall be 9. 11.3.2 Queries related to arc power parameter settings
Command 160: YAAA AAA1 1010 0000
"QUERY ACTUAL LEVEL" Answer shall be the actual arc power level. During preheating and whenever there is a lamp error the answer shall be 'MASK'. In case of a multi channel device the answer shall be the actual level of the selected channel. If more than one channel is selected contents and the levels of the selected channels are not identical, the answer shall be 'MASK'. If none of the channels which are selected actually exists, the answer shall be 'MASK'. 11.3.4 Application extended commands Replacement: Application extended commands shall be preceded by command 272 ‘ENABLE DEVICE TYPE 9’. For device types other than 9 these commands may be used in a different way. A sequencer shall not react to application extended commands preceded by command 272 ‘ENABLE DEVICE TYPE X’ with X ≠ 9. 11.3.4.1 Application extended configuration commands Every configuration command (224 – 231) shall be received a second time within 100 ms before it is executed in order to decrease the probability of incorrect reception. No other commands addressing the same control gear shall be sent between these two commands, otherwise the first such command shall be ignored and the respective configuration sequence shall be aborted. Command 272 shall be sent before the two instances of the respective control command, but not repeated between them (see Figure 2). command 272application extendedconfigurationcommandapplication extendedconfigurationcommandmax. 100 ms Figure 2 – Application extended configuration command sequence example IEC
728/11 SIST EN 62386-210:2011
62386-210 © IEC:2011 – 17
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All values of DTR shall be checked against the values mentioned in Clause 10, i.e. the value shall be set to the upper / lower limit if it is above / below the valid range defined in Clause 10. Command 224: YAAA AAA1 1110 0000 "STORE DTR AS LEVEL POINT N" The contents of the DTR shall be stored as arc power level of the selected channels of point N. The selected channels are given by command 230 'STORE DTR AS CHANNEL SELECTION'. If no existent channel is selected, the command shall be ignored. N is given by the contents of DTR2. If N specifies a non-existent point, the command shall be ignored. Command 225: YAAA AAA1 1110 0001 "STORE DTR AS HOLD TIME POINT N"
The contents of the DTR shall be stored as hold time for point N. The actual time (T) appropriate to a hold time register value (X) shall be calculated as follows: sm25X·=T
for X = 0 … 40,
s5.0)40X(s1·-+=T for X = 41 … 58,
s1)58X(s10·-+=T
for X = 59 … 108,
s10)108X(s60·-+=T
for X = 109 … 162,
s60)162X(s600·-+=T for X = 163 … 212,
s600)212X(s3600·-+=T for X = 213 … 254. Tolerance: ± ½ step; monotonic. N is given by the contents of DTR2. If N specifies a non-existent point, the command shall be ignored. Command 226: YAAA AAA1 1110 0010 "STORE DTR AS SEQUENCER FADE TIME POINT N" The contents of the DTR shall be stored as sequencer fade time for point N. The actual time (T) appropriate to a sequencer fade time register value (X) shall be calculated as follows: sm25X·=T
with X = 1 … 40, s5.0)40X(s1·-+=T with X = 41 … 58, s1)58X(s10·-+=T
with X = 59 … 108, s10)108X(s60·-+=T
with X = 109 … 162, s60)162X(s600·-+=T with X = 163 … 212, s600)212X(s3600·-+=T with X = 213 … 254. Tolerance: ± ½ step; monotonic. The Sequencer Fade Time can be set to zero or to any value in the range 'Min Sequencer Fade Time' to 254. The 'Min Sequencer Fade Time' can be queried by command 248 'QUERY MIN SEQUENCER FADE TIME'. Programming the Sequencer Fade Time to 0 means 'no fade' (change of light output as fast as possible, faster than the Min Sequencer Fade Time). N is given by the contents of DTR2. If N specifies a non-existent point, the command shall be ignored. SIST EN 62386-210:2011

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Command 227: YAAA AAA1 1110 0011 "COPY LEVEL TO POINT N" The arc power levels of the selected channels of the point P, specified by the contents of DTR, shall be stored for point N. If the contents of DTR is 'MASK' the actual arc power levels of the selected channels are stored for point N. The selected channels are given by command 230 'STORE DTR AS CHANNEL SELECTIO
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