DS3500配置手册

华为OSN3500设备GSCC单板调测与配置
华为OSN3500设备GSCC单板调测与配置华为OSN3500设备在安装GSCC单板前，需要对单板进行必要的调测和配置。

首先应检查单板硬件，查看单板拉手条上标识应是否清晰，扣板是否牢固，正反面各器件需完整，表面正常，没有明显的损坏痕迹。

在华为OSN3500设备中确认槽位和主备单板安装情况后，单板应沿导槽插到子架底部且单板拉手条正常扣好。

然后观察上电过程和完成后单板各个指示灯状态。

检查单板与主机、网管的版本配套关系，确保单板版本配套使用无误。

检查ALM开关运行情况需确认短按下开关即可切除当前告警声；长按开关5秒可永久切除告警声，告警切除指示灯（ALMC）亮（黄色）；再次长按则取消告警切除功能，告警切除指示灯（ALMC）灭。

华为OSN3500设备GSCC单板在配置方面必需添加逻辑单板，如果网管上有GSCC 单板的配置参数，则直接把配置参数下载到GSCC 单板。

否则，需设置网元ID，配置网元名称/日期/时间。

华为OSN3500设备GSCC单板单板调测包括：检查单板的调试状态跳线设置，检查和调试数据口的通断，包括配置F&f调试串口和配置OAM串口网管口，检查数据口的配置又包括：配置广播数据口，配置F1同向数据口。

华为OSN3500设备GSCC单板验收时测试需观察单板指示灯，通过观察拉手条上的
指示灯状态，看单板是否正常开工，状态灯全绿则表示单板运行正常。

再查询单板告警和性能事件，根据告警和性能修改单板的连接或者配置，直到光传输设备中相关告警消失。

相关资料GSCC单板技术指标。

Service Manual – 1225/1229 ConsoleNOTICESkyAzúl makes no warranty of any kind with regard to this material, including, but not limited to, the implied warranties of merchantability and/or its fitness for a particular purpose.SkyAzúl will not be liable for errors contained in this manual or for incidental or consequential damages in connection with the furnishing, performance, or use of this manual. This document contains proprietary information, which is protected by copyright, and all rights are reserved.No part of this document may be photocopied, reproduced, or translated to another language without the prior written consent of SkyAzúl.SkyAzúl reserves proprietary rights to all drawings, photos and the data contained therein. The drawings, photos and data are confidential and cannot be used or reproduced without the written consent of Hirschmann. The drawings and/or photos are subject to technical modification without prior notice.All information in this document is subject to change without notice.MANUAL REVISIONSREV DATE NAME DESCRIPTION- 05/10/11 SC DS350 LS108 Service Manual (SkyAzúl) Rev 12/2000SkyAzúl, Inc.16 Walnut StreetMiddletown, MD 21769Fax 301-371-0029****************DS350 Rated Capacity Indicator System SkyAzúl, Equipment Solutions 301-371-6126TABLE OF CONTENTSNOTICEGENERAL INFORMATION (1)WARNINGS (1)1.0 ERROR CODE CHART (2)2.0 SYSTEM COMPONENT LAYOUT (6)3.0 ANGLE SENSOR ADJUSTMENT (7)3.1 ANGLE CIRCUIT (WG203) (8)3.2 ANGLE CIRCUIT (WG206) (9)4.0 LINERIDER SETTINGS AND ADJUSTMENTS (10)4.0 General Information (10)4.1 Linerider Zero Point Adjustment (11)4.2 Linerider Output Adjustment (12)4.3 Linerider Circuits (13)4.4 Linerider Cannon Connection (14)5.0 DIGITAL INPUTS (15)6.0 ANTI-TWO BLOCK (16)7.0 BOOM BASE CABLE REEL DIAGRAM (16)8.0 MAIN BOOM / JIB JUNCTION BOX DIAGRAMS (17)9.0 LUFFING JIB JUNCTION BOX DIAGRAMS (18)10.0 SYSTEM ( 12 VOLT ) WIRING DIAGRAM (19)10.1 Vertical Console Diagram (20)11.0 SYSTEM ( 24 VOLT ) DIAGRAM (21)11.1 Horizontal Console Diagram (22)12.0 TERMINAL BOARD DESIGNATIONS (23)13.0 MAIN BOARD MEASURING POINTS (24)Service Manual – 1225/1229 ConsoleGENERAL INFORMATIONThis handbook defines the error codes, cause, and actions to troubleshoot the PAT DS 350 Rated Capacity Limiter (RCL) System for Link-Belt Lattice-Boom Cranes. Refer to the operating handbook for operation and maintenance of the PAT DS 350 Rated Capacity Limiter (RCL).This system assists the crane operator in promoting efficient operation by monitoring crane loads and by warning the operator of approaching overload conditions. Always refer to operational instructions and load charts provided by the crane manufacturer for specific crane operation and load limits.WARNINGS•The operator is always responsible for operating the crane within the manufacture’s specified parameters.•The PAT DS 350 Rated Capacity Limiter (RCL) is an operational aid which warns a crane operator of an approaching overload and over hoist condition which could cause damage to equipment, property, and/or injury to the operator or bystanders.•This device is not, and shall not be a substitute for good judgment, experience, and the practice of accepted safe crane operation.•The operator is solely responsible for the safe operation of the crane and must observe and obey all warnings and instructions supplied by PAT and the crane manufacturer.•Prior to operating a crane, the operator must carefully and thoroughly read and understand the information in operator’s handbook and the crane manufacturer’s manual to ensure that the operator understands the function and limitations of the RCL system and the crane.•Proper operation of the RCL System is dependent upon proper inspection, maintenance, and observance of the operating instructions.1.0 ERROR CODE CHARTERRORDISPLAYERROR CAUSE ACTIONE 01Fallen below radius orangle range Fallen below the minimum radius orangle given in the load chart due torising the boom too far.Put boom back to a radius orangle given in the load chart.E 02Radius or angle rangeexceeded.The maximum radius or angle given inthe load chart was exceed due tolowering the boom too far.Raise boom back to a radiusor angle given in the loadchart.E 03Prohibited slewingrange (no load area).Slewing range prohibited with load.Slew back into permissiblerange.E 04Operating mode notavailable.Operating mode switch on the consoleset incorrectly.Set operating mode switchcorrectly to the codeassigned to the operatingmode of the machine. (seeSection 9 operator’shandbook)E 06Angle luffing jibexceeded.The minimum angle given in thecorresponding load chart wasexceeded due to lowering the luffingjib too much.Raise luffing jib to an anglegiven in the load chart.E 07No acknowledgesignal from overloadrelay.Over load limit switch relay is stuck,defective, or not being selected.Replace relayE 08No acknowledgesignal from hoist limitswitch relay Hoist limit switch relay is stuck,defective, or not being selected.Replace relayE 09No acknowledgesignal from relay 2.Relay 2 is stuck, defective, or notbeing selected.Replace relayE 13Fallen below lowerlimiting value for themeasuring channel“auxiliary force”.Cable from central unit to the forcetransducer defective or water in theplugs.Electronic component in themeasuring channel defective.Check cable and plugs;replace items as necessary.See Section 3, forcetransducer adjustments.E 14Fallen below lowerlimiting value for themeasuring channel“force-main hoist”.Cable from central unit to the forcetransducer defective or water in theplugs.Electronic component in themeasuring channel defective.Check cable and plugs;replace items as necessary.See Section 3, forcetransducer adjustments.E 15Fallen below lowerlimiting value for themeasuring channel“angle main boom”.Cable from central unit to the anglesensor defective or loose, or water inthe plugs.Electronic component the measuringchannel defective.Check cable and plugs;replace items as necessary.See Section 2, angle sensoradjustments.1.1 ERROR CODE CHART - continuedERRORDISPLAYERROR CAUSE ACTIONE 16Fallen below lowerlimiting value for themeasuring channel“angle luffing jib”.Cable from central unit to the anglesensor defective or loose, or water inthe plugs.Electronic component the measuringchannel defective.Check cable and plugs;replace items as necessary.See Section 2, angle sensoradjustments.E 18Error in the referencevoltage.Electronic component on main boarddefective.Replace main board & resetforce transducers as shownin Section 3.2.E 19Error in the referencevoltage.Electronic component on main boarddefective.Replace main board & resetforce transducers as shownin Section 3.2.E 20No analog voltage.Crane voltage to lowShort in supply voltage from crane tocentral unit.Voltage converter is defective on mainboard Check crane voltage Check wiringReplace main board & reset force transducers as shown in Section 3.2.E 23Upper limiting valuefor the measuringchannel “auxiliary-force” exceeded.Cable from central unit to the forcetransducer defective or water in theplugs.Electronic component in themeasuring channel defective.Check cable and plugs;replace items as necessary.Replace main board & resetforce transducers as shownin Section 3.2.E 24Upper limiting valuefor the measuringchannel “force - mainhoist” exceeded.Cable from central unit to the forcetransducer defective or water in theplugs.Electronic component in themeasuring channel defective.Check cable and plugs;replace items as necessary.Replace main board & resetforce transducers as shownin Section 3.2.E 25Upper limiting valuefor the measuringchannel “angle mainboom” exceeded.Cable from central unit to the anglesensor defective or loose, or water inthe plugs.Electronic component the measuringchannel defective.Check cable and plugs;replace items as necessary.See Section 2, angle sensoradjustments.E 26Upper limiting valuefor the measuringchannel “angle luffingjib” exceeded.Cable from central unit to the anglesensor defective or loose, or water inthe plugs.Electronic component the measuringchannel defective.Check cable and plugs;replace items as necessary.See Section 2, angle sensoradjustments.ERRORDISPLAYERROR CAUSE ACTIONE 28Error in the referencevoltage.Electronic component on main boarddefective.Replace main board & resetforce transducers as shownin Section 3.2.E 31-34Error in systemsoftware.Eprom’s with system softwaredefective.Replace system EpromReplace main board & resetforce transducers as shownin Section 3.2.E 37Error in systemsoftware.Eprom’s with system softwaredefective.Replace system EpromReplace main board & resetforce transducers as shownin Section 3.2.E 38Wrong system ordata Eprom.Eprom’s with system software doesnot correspond with data Eprom.Replace system EpromE 41-42Error on the ram.Ram range on the main boarddefective.Replace main board & reset force transducers as shown in Section 3.2.E 45Error in internalcommunicationsError in read/writememory.Electronic component on main boarddefective.Electronic component on main boarddefectiveReplace main board & resetforce transducers as shownin Section 3.2.E 51-59Error in data memory.Data Eprom's defectiveElectronic component on main boarddefective.Replace data Eprom Replace main board & reset force transducers as shown in Section 3.2.E71Incorrectacknowledgment ofthe 1. Relay on theterminal board a101.Anti two-block relay is stuck ordefective.Anti two-block relay is not beingselected due to a break on theterminal board a101, main board orribbon cables.Replace 1. Relay.Check terminal board a101,main board and ribboncables as well as replacedefective part, if necessary.E72 - 77 analogous to E71 forthe relays 2...7.Analogous to e71 for the relays 2...7.Analogous to E71 for therelays 2..7.E89Change of theoperating code duringlifting a load.The operating mode switch in theconsole was used during lifting a load.Lower the load and set theoperating mode switchcorrectly to the codeassigned to the actualoperating mode of the crane.ERRORDISPLAYERROR CAUSE ACTIONE 91-92No data transmissionfrom console.Plug on console loose; cabledefective.Check cable and plug;replace console, asnecessary.E 93-94Error in the datatransmission to theconsole.Cable to the console not plugged in orinterrupted.Eprom not installed or defectiveDefect in the central electronics (mainboard).Check cable; attach plugproperly.Replace EpromsReplace main board & resetforce transducers as shownin Section 3.2.E-19/20/29 Error in reference supply voltage. Identify supply voltage that is being shorted, (+/-5 or + -9) disconnect ribbon cable. If power supply returns then problem is external. Reconnect ribbon cables and disconnect all components individually to identify the location of the short.3.0 ANGLE SENSOR ADJUSTMENTThe angle φ shown in Figure 1 needs to be within +0, -0.4 of the actual angle of the boom. Check boom angle at base/heel Section only. After adjustment, compare the actual boom angle with the displayed angle at about 0°, 30° and 60°. To comply with the SAE J375 standards the displayed angle must be +0.0° to -2.0° of the actual angle.The supply voltage can be checked directly at the cannon connection. Using a digital volt meter measure between pins A and C, (A=GND, C= - 5V). If this voltage is not correct refer to the system wiring diagram and verify all cable connections. You may need to start at the main board and check the supply voltages at their proper measuring points.The following 2 drawings show the theory of operation for the main and luffing angle signals.DRAWING # - LKB24-03DRAWING # - LKB24-044.0 LINERIDER SETTINGS AND ADJUSTMENTS4.1 GENERAL INFORMATIONCalibration of a linerider will require the hoist rope line pull information, which should be provided by the manufacturer. Use single part line when calibrating the linerider. Lineriders require specific wire rope size, see Table 2 to insure your rope size matches your linerider provided.NOTE: A new wire rope is normally over sized, the amount oversize will depend on the diameter of the rope. With normal wear the inter core breaks down and diameter decreases, See your manufactures guide lines for wire rope replacementconditions.Table 2. Lineriders should match the wire diameter of your hoist rope.ITEM NUMBER DESCRIPTION WITH WIRE ROPE SIZEWIRE ROPEDIAMETER ADVISED RANGE048-500-060-005SENSOR, LINERIDER SKM500 7/8"±3/64 048-500-060-006SENSOR, LINERIDER SKM500 1"±3/64048-500-060-012SENSOR, LINERIDER SKM500 1-1/8 2 TON KMD±3/64048-500-060-013SENSOR, LINERIDER SKM500 1-1/4 2 TON KMD±1/16 The linerider requires a load sheave adjustment to maximize the voltage output of the amplifier and minimize the line angle through the linerider. The linerider maximumoutput of 2.5 volts should be equal to the maximum hoist rope line pull. The load sheave may need to be adjusted by turning the eccentric wheel on the load sheave of the4.1 LINERIDER ZERO POINT ADJUSTMENTNOTE: Complete the following processes before placing cable through the linerider. ZERO POINT SETTINGSa.) Check that the differential output of the main and auxiliary linerider is within±25millivolts at zero force:•Main Linerider: central unit terminal connection X1-#33 and X1-#34.•Auxiliary linerider: central unit terminal connection X1-#23 and X1-#24.b.) Adjust the linerider voltages on the main board, Refer to Figure 2 below.•Adjust the main linerider zero point by placing your positive volt meter lead on MP 3 (measuring point 3) with your ground lead on MP 11. Turn the screw onpotentiometer P3 so the volt meter reads a value of 0.500 volts.•Adjust the auxiliary linerider by placing your positive volt meter lead on MP 5 with your ground lead on MP 11. Turn the screw on potentiometer P5 so the voltmeter reads a value of 0.500 volts.•After completing this adjustment run the hoist rope through the lineriders.4.2 LINERIDER OUTPUT ADJUSTMENTLINERIDER OUTPUT ADJUSTMENTSa) Calculate the output voltage required from the linerider using the known thetotal load and maximum line pull information. The tolerance for the outputvoltage “X” is +0.0, -0.2 volts.NOTE: The total load includes the load, rigging, cables, and hook block. Test load should be 80% of maximum rated load for the cranes configurationor condition. To comply with the SAE J376 standards the test load mustbe to a known accuracy of ±1%.TEST LOAD x 2.5 = ÷ PARTS OF LINE = XLINE PULL23.600 x 2.5 = 2.0 ÷ 1 = 2.029.500“X” is equal to the to optimum output voltage of the linerider. The outputvoltage required in this example is 1.8 to 2.0 volts.WARNING: THE OPERATOR IS RESPONSIBLE FOR OPERATING THE CRANE WITHIN THE MANUFACTURE’S SPECIFIED PARAMETERS.b) Pick the test load used in the calculation for the output voltage with a singlepart of line.c) Take a voltage reading with a voltmeter and compare the reading with thecalculated voltage and decide if a mechanical adjustment of the linerider isneeded.•Main Linerider: central unit terminal connection X1-#33 and X1-#34.•Auxiliary linerider: central unit terminal connection X1-#23 and X1-#24.d) If a mechanical adjustment is necessary follow steps below, if no mechanicaladjustment is necessary proceed to next Section and begin calibration.•Before and after you set the mechanical adjustment, scribe a line on the side of the eccentric wheel to show the amount of change.•Loosen the adjustment nut, see Figure 3. Note that there is a single lockout nut on one side and a double on the other. These both should be loosenedto some degree. Adjustment from the double nut side seems to work thebest after tightening the 2 nuts together.•Depending upon the output voltage you can look at the eccentric nut from the side of the linerider and determine the direction you should turn.Increasing the height of the load sheave will increase the output voltage.•Tighten all lock nuts insuring not to move the wheel.e) Return and repeat step ‘c’.4.3 LINERIDER CIRCUIT (MAIN LINERIDER) DRAWING # - LKB24-01DRAWING # - LKB24-024.4 LINERIDER CANNON CONNECTIONLINERIDER CANNON CONNECTIONThe supply voltage can be checked directly at the cannon connection. Using a digital volt meter measure between pins A and B, (A= + 9v) + (B= - 9v) = 18volts. If this voltage is not correct refer to the system wiring diagram and verify all cable connections. You may need to start at the main board and check the supply voltages at their proper measuring points.5.0 DIGITAL INPUTS DRAWING # - LKB36-016.0 ANTI-TWO BLOCK CIRCUIT7.0 BOOM BASE CABLE REEL DIAGRAM DRAWING # - 031-300-100-4248.0 MAIN BOOM / JUNCTION BOX DIAGRAMS MAIN BOOM NOSEDRAWING # - 031-300-100-446JIB NOSEDRAWING # - 031-300-100-5229.0 LUFFING ATTACHMENT / JUNCTION BOX DIAGRAMS LUFFING LIMIT BASEDRAWING # - 031-300-100-679LUFFING JIB NOSEDRAWING # - 031-300-100-53510.0 SYSTEM ( 24 VOLT ) DIAGRAMService Manual - 1225/1229 Console DS350 Rated Capacity Limiter System12.0 TERMINAL BOARD DESIGNATIONTERMINAL BOARDDRAWING # - 024-350-060-739Service Manual - 1225/1229 Console DS350 Rated Capacity Limiter System13.0 MAIN BOARD MEASURING POINTSMEASURING POINT LAYOUTDRAWING # - 024-350-300-081301-371-6126 SkyAzúl, Equipment Solutions Page 24SkyAzúl, Soluciones de Equipos 301-371-6126SkyAzúl, Equipment Solutions 301-371-6126SkyAzúl, Inc.16 Walnut StreetMiddletown, MD 21769 Phone 301-371-6126 Fax 301-371-0029 ****************。

SPECIFICATIONS1455KleppeLane|Sparks,NV89431|[p]775.359.4712|[f]775.359.7424|[e]***************||4March,2009 DISCLAIMER: Continued product improvements make specifications subject to change without notice. Check for the latest product information and updates.12/06 Model 3500FRPage 1 of 4 No. 2077455(7)1455 Kleppe Lane Sparks, NV 89431-6467 (775) 359-4712 Fax (775) 359-7424HAWS AG Bachweg 3 CH-3401 Burgdorf SwitzerlandHaws Mfg. Pte Lt. 2A Sungei Kadet Drive Singapore 729554Avlis-Avenido Senador, Testonio Vilela 505 Jardim Aeroporto Itu, S.P. 13304-550 BrasilE-mail: *************** website: Model 3500FR Drinking Fountain LIMITED WARRANTY HAWS ® warrants that all of its products are guaranteed against defective material or poor workmanship for a period of one year from date of shipment. HAWS liability under this warranty shall be discharged by furnishing without charge F.O.B. HAWS Factory any goods, or part thereof, which shall appear to the Company upon inspection to be of defective material or not of first class workmanship, provided that claim is made in writing to company within a reasonable period after receipt of the product. Where claims for defects are made, the defective part or parts shall be delivered to the Company, prepaid, for inspection. HAWS will not be liable for the cost of repairs, alterations or replacements, or for any expense connected therewith made by the owner or his agents, except upon written authority from HAWS, Sparks, Nevada. HAWS will not be liable for any damages caused by defective materials or poor workmanship, except for replacements, as provided above. Buyer agrees that Haws has made no other warranties either expressed or implied in addition to those above stated, except that of title with respect to any of the products or equipment sold hereunder and that HAWS shall not be liable for general, special, or consequential damages claimed to arise under the contract of sale. The drinking fountain manufactured by HAWS is warranted to function if installation and maintenance instructions provided are adhered to. The units also must be used for the purpose for which they were intended. NO OTHER WARRANTIES EXPRESSED OR IMPLIED ARE AUTHORIZED, PROVIDED OR GIVEN BY HAWS. NOTE TO INSTALLER: Please leave this information with the Maintenance Department. SHOULD YOU EXPERIENCE DIFFICULTY WITH THE INSTALLATION OF THIS MODEL, PLEASE CALL: 1-800-766-5612 FOR PARTS CALL: 1-800-758-9378 (U.S.A. AND CANADA ONLY) MONDAY-THURSDAY: 6:00 A.M. – 4:00 P.M. PST FRIDAY: 6:00 A.M –1:00 P.M. PSTRECOMMENDED TOOLS: Hack saw, pipe joint sealant, screwdriver, level, 12" adjustable wrench, 10" pipe wrench, 9/16”, 1/2", 7/16” socket wrench or open end wrench, 5/32” hex key wrench pinned tamper proof (supplied).LOCATION OF UNIT: The Model 3500FR Drinking Fountain is a wheelchair accessible drinking water facility. The height dimensions shown, meet current ADA requirements. When installing this unit, local, state or federal codes should be adhered to. If height other than shown is required, then dimensions must be adjusted accordingly.SUPPLY LINE: The minimum recommended line size is 1/2“IPS with 30-90 PSI (2-6 ATM) flowing pressure. Where sediment or mineral content is a problem, an inlet filter is recommended.PLUMBING CONNECTIONS: Waste outlet is female 1-1/2” slip PVC female. MAINTENANCE: Refer to 6518.2FR Operation and Maintenance Sheet for more information.TROUBLESHOOTINGPROBLEM REPAIR CHECKLIST1. Insufficient bubbler flow. 1a.Check that inlet screwdriver stop valve iswide open.b.Verify minimum 30PSI flowing supplypressure.c.Adjust valve to increase flow. See6518FR Manual.© 2006 Haws® Corporation – All Rights ReservedHAWS® and other trademarks used in these materials are the exclusive property of Haws Corporation.12/06 Model 3500FR Page 2 of 4。

®TM Product Data Sheet DS350Product Feature MapBridgelux arrays are fully engineered devices that provide consistent thermal and optical performance on an engineered mechanical platform. The arrays incorporate several features to simplify design integration and assembly. Please visit for more information on the Vesta Series family of products.for consistent thermal, mechanical and opticalpropertiesDesigned to comply with global safety standards for creepageand clearance distancesPolarity symbolsCase Temperature (T c ) Measurement PointSolder Pads (Warm White)Product NomenclatureThe part number designation for Bridgelux Vesta Series arrays is explained as follows:1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18Product FamilyCCT Bin Options3 = 3SDCM for 2700K, 5000K, 6500K5 = 3SDCM for 3000K, 4000K, and 5SDCM for 1800KForm Factor Designator 10A0 = 9mm LESMinimum CRIG = 90 CRI S = ThriveArray Configuration A = 9W, 18V, 500mA B = 9W, 36V, 250mANominal CCT 18 = 1800K 27 = 2700K 30 = 3000K 40 = 4000K 50 = 5000K 65 = 6500KBXRV TR – 2750 G - 10A0 – A – 2 3Tunable White ArrayGen. 2Part number and lot codes are scribed on the back of the arrayProduct Selection GuideThe following product configurations are available:Table 1:Selection Guide, Measurement DataNotes for Table 1:1. Nominal CCT as defined by ANSI C78.377-2011.2. F or CRI 92-93 products, the minimum CRI value is 90 and the minimum R9 value is 50. For CRI 98 Thrive products, the minimum CRI value is 95, Bridgelux maintains a ±3 tolerance on all R9 values.3. Products tested under pulsed condition (10ms pulse width) at nominal test current where T j (junction temperature) = T c (case temperature) = 25°C.4. Typical performance values are provided as a reference only and are not a guarantee of performance.5. Bridgelux maintains a ±7% tolerance on flux measurements.6. Typical stabilized DC performance values are provided as reference only and are not a guarantee of performance.7. Typical performance is estimated based on operation under DC (direct current) with LED array mounted onto a heat sink with thermal interface material and the case temperature maintained at 85°C. Based on Bridgelux test setup, values may vary depending on the thermal design of the luminaire and/or the exposed environment to which the product is subjected. 8. Minimum flux values at pulsed nominal test current are guaranteed by 100% test.European Product Registry for Energy LabelingClass F FNotes for Table 2:1.The performance data in this table is a subset of the data that was submitted to EPREL for obtaining the energy class listed here. For accessing a completeset of technical documentation of Bridgelux registered products in the EPREL database, please visit one of the hyperlinks listed above.2. For a definition of useful luminous flux (ØΦuseful ), please see the ELR regulations at https:///4b6zvt4m.3. For information on performance values at alternative drive conditions. please refer to the Product Selection Guide, Absolute Maximum Rating Table andPerformance Curves in this data sheet.4. EPREL requires a symbol for displaying the energy classification of a product in marketing literature. This symbol consists of a letter stating a product’senergy efficiency class inside a specific arrow logo as defined by EPREL.5. All products listed here must be disposed as e-waste according to the guidelines in the country in which the product is used.Table 2: Table of products registered in the European Product Registry for Energy Labeling (EPREL)T he European Product Registry for Energy Labeling (EPREL) is defined in the EU Regulation 2017/1369 to provide information about a product’s energy efficiency to consumers. Together with Energy Labeling Regulation ELR (EU) 2019/2015, which was amended by regulation (EU) 2021/340 for energy labelling of light sources, manufacturers are required to declare an energy class based on key technical specifications from each of their product and register it in an open data base managed by EPREL. It is now a legal requirement for a vendor of light sources to upload information about their products into the EPREL database before placing these products on the market in the EU.Table 2 provides a list of part numbers that are in compliance with EPREL regulations and are currently listed in the EPREL database.At Bridgelux, we are fully committed to supplying products that are compliant with pertinent laws, rules, and obligation imposed by relevant government bodies including the ELR regulation. Customers can use these products with full confidence for any projects that fall under the EPREL requirement.A GXCRI and TM30 Characteristics for Vesta Arrays with ThriveTable 3: Typical Color Rendering Index and TM-30 Values at T c=85°CNote for Table 3:1. Applicable for part numbers BXRV-TR-xxxxS-10A0-x-2x with the Thrive spectrum2. Bridgelux maintains a tolerance of ± 3 on Color Rendering Index R1-R15 measurements and TM-30 measurements.102030405060708090100L o c a l C o l o r F i d e l i t y (R f ,h j )Hue-Angle Bin (j )Figure 1: 2700K Thrive TM-30 Graphs12345166789101511121314D uv96CCT990.0022R gR f2782 KFigure 2: 5000K Thrive TM-30 Graphs102030405060708090100L o c a l C o l o r F i d e l i t y (R f ,h j )Hue-Angle Bin (j )12345166789101511121314D uv96CCT990.0026R gR f5000 KTM30 Characteristics for Vesta Arrays with ThriveFigure 4:4000K Thrive TM-30 Graphs102030405060708090100L o c a l C o l o r F i d e l i t y (R f ,h j )Hue-Angle Bin (j )12345166789101511121314D uv97CCT1010.0000R gR f3928 K Figure 3: 6500K Thrive TM-30 Graphs10203040506070809010012345678910111213141516L o c a l C o l o r F i d e l i t y (R f ,h j )Hue-Angle Bin (j )12345166789101511121314D uv96CCT990.0042R gR f6553 KAverage Spectral DifferenceSpectral Matching to Natural LightThe lighting market is in the early stages of adoption of human-centric lighting (HCL). HCL encompasses the effects of lighting on the physical and emotional health and well-being of people. Throughout evolution, the human visual system has evolved under the natural light of sun and fire. These light sources have standardized industry spectral power definitions that describe the state of natural light. However, conventional metrics such as CCT, CRI, and TM-30 fail to adequately quantify the naturalness, or closeness of these light sources to the standardized natural spectra. Due to a lack of an industry standard metric to quantitatively measure the naturalness of a light source, Bridgelux has pioneered a new metric that takes the guesswork out of comparing LED light sources to natural light.Average Spectral Difference, or ASD, is calculated by measuring the absolute difference between two spectra at discrete wavelengths. These values are aver-aged across a wavelength range derived from the photopic response curve, or V(Φ); a luminous efficiency function describing the average spectral sensitivity of human perception of brightness. The range of 425nm to 690nm was selected to remove the tails of the V(Φ) gaussian distribution below 1% of the peak value at 555nm, covering 99.9% of the area under the photopic response curve. Natural light is defined following the approach of IES TM-30; black body curves for light sources of ≤4000K and the CIE standard illuminant D for light sources of ≥ 5000K.Natural light has an ASD of 0%; lower ASD values indicate a closer match to natural light. Thrive is engineered to provide the closest match to natural light available using proprietary chip, phosphor and packaging technology, resulting in an ASD between 8% to 11% for all CCTs used in Vesta products. By compar-ison, standard 80, 90, and 98 CRI light sources have ASD values that are 100% to 300% larger than Thrive. To learn more about the ASD metric, please review the Bridgelux whitepaper: Average Spectral Difference, a new method to make objective comparisons of naturalness between light sources; or contact your Bridgelux sales representative.=85°CTable4: Typical ASD Values at TcElectrical CharacteristicsTable 5:Electrical CharacteristicsNotes for Table 5:1. Parts are tested in pulsed conditions, T c = 25°C. Pulse width is 10ms.2. Voltage minimum and maximum are provided for reference only and are not a guarantee of performance.3. Bridgelux maintains a tester tolerance of ± 0.10V on forward voltage measurements.4. Typical temperature coefficient of forward voltage tolerance is ± 0.1mV for nominal current.5. Thermal resistance value was calculated using total electrical input power; optical power was not subtracted from input power. The thermal interface material used during testing is not included in the thermal resistance value.6. V f min hot and max cold driver selection voltages are provided as reference only and are not guaranteed by test. These values are provided to aid in driver design and selection over the operating range of the product.7. This product has been designed and manufactured per IEC 62031:2018. This product has passed dielectric withstand voltage testing at 500 V. The working voltage designated for the insulation of the dielectric layer is 60V DC. The maximum allowable voltage across the array must be determined in the end product application.Absolute Maximum RatingsTable 6: Maximum RatingsNotes for Table 6:1. For IEC 62717 requirement, please contact Bridgelux Sales Support.2. See Bridgelux Application Note AN 92 for more information.3. Lumen maintenance an d lifetime predictions are valid for drive current and case temperature conditions used for LM-80 testing as included in the applica-ble LM-80 test report. Contact your Bridgelux sales representatives for the LM-80 report.4. The Maximum Combined Drive Current is defined as the sum of the drive currents in both channels.Example for BXR V-TR-18xxG-10A0-B-23: If 480mA is applied to one channel, no current may be applied to the other channel. If 350mA is applied to one channel, then a maximum of 130mA can be applied to the other channel.Example for BXRV-TR-27xxG-10A0-A-2x: If 700mA is applied to one channel, no current may be applied to the other channel. If 350mA is applied to one channel, then a maximum of 350mA can be applied to the other channel.5. Bridgelux recommends a max imum duty cycle of 10% and pulse width of 20ms when operating LED arrays at the maximum peak pulsed current specified.Maximum peak pulsed currents indicate values where the LED array can be driven without catastrophic failures.Performance CurvesFigure 6: Forward Voltage vs. Forward Current, T=25°CFigure 9: Relative Flux vs. Drive Current, T =25°CFigure 7: Forward Voltage vs. Forward Current, T =25°CFigure 10: Relative Flux vs. Drive Current, T=25°CFigure 11: Relative Flux vs. Drive Current, T =25°CFigure 8: Forward Voltage vs. Forward Current, T =25°CFigure 12: Relative Flux vs. Case TemperatureFigure 13: Relative Flux vs. Case TemperatureFigure 16: Relative Voltage vs. Case TemperatureFigure 17: Relative Voltage vs. Case TemperatureFigure 18: CCT vs. Relative Current, Tc=85C Figure 19: CCT vs. Relative Current, Tc=85CFigure 20: CCT vs. Relative Current, Tc=85C Figure 21: CCT vs. Relative Current, Tc=85CFigure 23: Relative Flux vs. Relative CurrentTypical Radiation PatternFigure 28: Typical Spatial Radiation PatternNotes for Figure 28:1. Typical viewing angle is 130⁰.2. The viewing angle is defined as the off axis angle from the centerline where Iv is ½ of the peak value. Figure 29: Typical Polar Radiation PatternFigure 30: 2700K - 5000K with Thrive1. Color spectra measured at nominal current and T c = 85°C.1. Color spectra measured at nominal current and T c = 85°C.Figure 32: 1800K - 4000K with Thrive1. Color spectra measured at nominal current and T c = 25°C.Figure 33: 2700K - 5000K with 90 CRINote for Figure 33:1. Color spectra measured at nominal current and T c = 25°C.0.00.20.40.60.81.01.2380430480530580630680730780R e l a t i v e S p e c t r a l P o w e r D i s t r i b u t i o n (%)Wavelength (nm)2700K 3000K 4000K 5000KBXRV-TR-2750G-10A0-x-230.00.20.40.60.81.01.2380430480530580630680730780R e l a t i v e S p e c t r a l P o w e r D i s t r i b u t i o n (%)Wavelength (nm)2700K3000K 4000K 5000K6500KBXRV-TR-2765G-10A0-x-23Figure 34: 2700K - 6500K with 90 CRINote for Figure 34:1. Color spectra measured at nominal current and T c = 25°C.Figure 35: 1800K - 3000K with 90 CRINote for Figure 35:1. Color spectra measured at nominal current and T c = 25°C.-20%0%20%40%60%80%100%120%380480580680780N o r m a l i z e d I n t e n s i t y (%)Wavelength (nm)1800K3000KBXRV-TR-1830G-10A0-B-250%20%40%60%80%100%120%380480580680780N o r m a l i z e d I n t e n s i t y (%)Wavelength (nm)1800K 4000KBXRV-TR-1840G-10A0-x-25Figure 36: 1800K - 4000K with 90 CRINote for Figure 36:1. Color spectra measured at nominal current and T c = 25°C.Mechanical DimensionsFigure 37: Drawing for Vesta Series Tunable White Gen2 9mm, 36V ArrayNotes for Figure 37 and 38:1. The Vesta Series Tunable White Gen 2 9mm 18V (BXRV-TR-xxxxX-10A0-A-2x) and 36V (BXRV-TR-xxxxX-10A0-B-2x) versions have the same mechanical dimensiosn. The Warm White and Cool White color p atterns and the solder pad label positions are different between the two versions.2. Solder pads are labeled “+” to denote positive polarity and “-” to denote negative polarity. Solder pads have a gold surface finish.3. Drawings are not to scale.4. Drawing dimensions are in millimeters.5. Unless otherwise specified, tolerances are ± 0.10mm.6. The optical center of the LED array is nominally defined by the mechanical center of the array.7. Bridgelux maintains a flatness of 0.1 mm across the mounting surface of the array. Refer to Application Notes for product handling, mounting and heat sinkrecommendations.Figure 38: Drawing for Vesta Series Tunable White Gen2 9mm, 18V ArrayBXRV-TR-xxxxX-10A0-B-2xBXRV-TR-xxxxX-10A0-A-2xColor Binning InformationFigure 39: Graph of Bins in xy Color Space, Tc=85CNotes for Table 7:1. The x,y center points are the center points of the respective ANSI bins in the CIE 1931 xy Color Space2. Products are binned at Tc=85°C3. Bridgelux maintains a tolerance of +/-0.007 on x and y color coordinates in the CIE 1931 Color SpaceFigure 40: Definition of the McAdam ellipsec = 85ºCPackaging and LabelingFigure 41: Vesta Series Tunable White 9mm Packaging and LabelingTube labelBag label Box labelNotes for Figure 411. Each tube holds 30 Vesta Series Tunable White 9mm arrays.2. Four tubes are seale d in an anti-static bag. Up to five such bags are placed in a box and shipped. Depending on quantities ordered, a bigger shipping box,containing four boxes will be used to ship products.3. Each bag and box is to be labeled as shown above.4. Dimensions for each tube are 509.0 mm (L) x 18.4 mm (W) x 9.5 mm (H). Dimensions for the anti-static bag are 100.0 mm (W) x 625.0 mm (L) x 0.1 mm (T) andthat of the inner box are 58.7 mm (L) x 13.3 mm (W) x 7.9 mm (H).Figure 42: Product LabelingBridgelux arrays have laser markings on the back side of the substrate to help with product identification. In addition to the product identification markings, Bridgelux arrays also contain markings for internal Bridgelux manufacturing use only. The image below shows which markings are for customer use and which ones are for Bridgelux internal use only. The Bridgelux internal manufacturing markings are subject to change without notice, however these will not impact the form, function or performance of the array.Customer Use- 2D BarcodeScannable barcode providesproduct part number and otherBridgelux internal productioninformation.Design Resources Design ResourcesDisclaimersPrecautionsApplication NotesVesta Series Tunable White arrays are intended for use in dry, indoor applications. Bridgelux has developed a comprehensive set of application notes and design resources to assist customers in successfully designing with the Vesta Series product family of LED arrayproducts. For a list of resources under development, visit . Optical Source ModelsOptical source models and ray set files are available for all Bridgelux products. For a list of available formats, visit .MINOR PRODUCT CHANGE POLICYThe rigorous qualification testing on products offered by Bridgelux provides performance assurance. Slight cosmetic changes that do not affect form, fit, or function may occur as Bridgelux continues product optimization.CAUTION: CHEMICAL EXPOSURE HAZARDExposure to some chemicals commonly used in luminaire manufacturing and assembly can cause damage to the LED array. Please consult Bridgelux Application Notes, AN92, AN93 and AN101 for additional information.CAUTION: EYE SAFETYEye safety classification for the use of Bridgelux Vesta Series is in accordance with IEC/TR62778 specification, ‘application of IEC 62471 for the assessment of blue light hazard to light source and luminaires’. Vesta Series Tunable White arrays are classified as Risk Group 1when operated at or below the maximum drive current. Please use appropriate precautions. It is important that employees working with LEDs are trained to use them safely.CAUTION: RISK OF BURNDo not touch the Vesta Series LED array duringoperation. Allow the array to cool for a sufficient period of time before handling. The Vesta Series LED array may reach elevated temperatures such that could burn skin when touched.3D CAD ModelsThree dimensional CAD models depicting the product outline of all Bridgelux Vesta Series LED arrays are available in both IGS and STEP formats. Please contact your Bridgelux sales representative for assistance.LM80Please contact your Bridgelux sales representative for more information.CAUTIONCONTACT WITH LIGHT EMITTING SURFACE (LES) Avoid any contact with the LES. Do not touch the LES of the LED array or apply stress to the LES (yellow phosphor resin area). Contact may cause damage to the LED array.Optics and reflectors must not be mounted in contact with the LES (yellow phosphor resin area). Optical devices may be mounted on the top surface of the Vesta Series LED array. Use the mechanical features of the LED array housing, edges and/or mounting holes to locate and secure optical devices as needed.STANDARD TEST CONDITIONSUnless otherwise stated, array testing is performed at the nominal drive current.21About Bridgelux: Bridging Light and Life™© 2022 Bridgelux, Inc. All rights reserved 2022. Product specifications are subject to change without notice. Bridgelux, the Bridgelux stylized logo design and Vesta are registered trademarks of Bridgelux, Inc. All other trademarks are the property of their respective owners.Bridgelux Vesta Series Tunable White Gen 2 9mm Array Product Data Sheet DS350 Rev. K (03/2022)46410 Fremont BlvdFremont, CA 94538 USATel (925) 583-8400At Bridgelux, we help companies, industries and people experience the power and possibility of light. Since 2002, we’ve designed LED solutions that are high performing, energy efficient, cost effective and easy to integrate. Our focus is on light’s impact on human behavior, delivering products that create better environments, experiences and returns—both experiential and financial. And our patented technology drives new platforms for commercial and industrial luminaires.For more information about the company, please visit /Bridgelux /Bridgelux /user/Bridgelux /company/bridgelux WeChat ID: BridgeluxInChina。