TLC-JC-KT007 通信局站用热管空调一体机 VA.0

Absolute maximum ratingsSymbol Conditions Unit I IN MAX Maximum permanent input current A RMS I OUT MAX Maximum permanent output current A RMS V IN MAX Maximum input voltage V AC V OUT MAX Maximum output voltage V AC V BUS MAX Maximum DC Bus voltage V DC F IN MAX Inverter input frequency Hz F OUT MAX Inverter output frequency Hz F SW MAX Maximum switching frequency kHzElectrical characteristics TAMBIENT= 40°C unless otherwise specifiedSymbol Conditionsmin typ max UnitI OUT RATED Rated output current 2 400A RMSI OUT OVL Overload output current 2 640A RMSt OVL Overload duration60sT OVL Time between 2 overloads10minV OUT Output voltage620690760V AC SKiiPRACK® - Type 6A P OUT Rated output power 2 870kW 4-Quadrant 3-phase IGBT converter F SW Inverter switching frequency2kHzF OUT Output frequency50HzPF Power factor1-P LOSS INV2)Losses at rated current28 320W Ordering No.08800600η2)Efficiency at rated current99% Description SKS C 240 GDD 69/11 – A6A MA B1C AC phase GeneratorI IN RATED Rated input current 2 400A RMS Features I IN OVL Overload input current 2 640A RMSt OVL Overload duration60sDesigned in regard to EN50178 recommendations T OVL Time between 2 overloads10min Designed for a 1200 x 600 x 2000 mm cabinet V OUT Output voltage620690760V AC Embedded SKiiP® Technology 3P OUT Rated output power 2 870kW SKiiP 2403GB172-4DW, Trench 3 1700V IGBT, CAL3 diode F SW Inverter switching frequency2kHz Integrated current and temperature sensors F OUT Output frequency20100Hz Water cooling PF Power factor-1-P LOSS INV2)Losses at rated current28 320Wη2)Efficiency at rated current99% Typical ApplicationsDC BusWind generators (SG and DFIG)V BUS Rated DC voltage applied to the capacitor bank 1 100V DC High power AC drives V BUS MAX Max DC voltage applied to the caps bank (max 30% of LTE) 1 200V DCτd5%Discharge time of the capacitors (V DC < 60 V)6min Footnotes C DC Capacitor bank capacity27,0mFLTE Calculated LTE of the capacitors with forced air cooling100kh 1) Absolute maximum ratings are values not to beexceeded in any case and do not imply that the stack Stack Insulationcan operate in all these conditions taken together Crd Minimum creepage distance8,7 mm 2) fan consumption and losses in air included Cld Minimum clearance distance7,1 mmVisol Chassis / Power stage AC/DC (insulation test voltage DC, 5 s)-4 200 4 200V DC REMARKSVisol12SKiiP driver only, output 1 / output 2 (AC, rms, 2 s) 1 500Vdv/dt SKiiP driver only, secondary to primary side75kV/µs B6CI + B6CISKiiP stackV BUS = 1 100 V DCT INLET = 45°C, 50% glycolFlowrate = 12 L/min per cellT J < 125°CAir extraction according to thermaldata page 2V BUS = 1 100 V DCT INLET = 45°C, 50% glycolFlowrate = 12 L/min per cellT J < 125°CAir extraction according to thermaldata page 2This technical information specifies semiconductor devices butpromises no characteristics. No warranty or guarantee,expressed or implied is made regarding delivery, performanceor suitability.Before using the converter, please read carefully theSKiiPRACK® user manual.Values2 400760AC phase Grid2 40010010057601 200Environmental conditions T AMBIENT=40°C unless otherwise specified Characteristics Conditions min typ max UnitAmbiant temperature 1)HumidityInstallation altitude without derating 1 000mMax. installation altitudewith derating 4 000mProtection degreeIEC 60529IP00-IEC 60721-3-2, storage & transportation, 1 cell2M1-IEC 60721-3-3, in operation, 1 cell3M3-Pollution degree EN 501782-Cell80kg4-Quadrant converter550kgThermaldataSKiiPRACK® - Type 6A Water flow per cell81224L/min 4-Quadrant 3-phase IGBT converter Water flow per 4Q-converter4872144L/minOrdering No.08800600Description SKS C 240 GDD 69/11 – A6A MA B1C Water pressure Maximum water pressure permissible per cell3barCoolant type Recommended coolant50% Glycol / 50% water-Features T INLET Cooling water inlet temperature-204560°CExternal cooling airflow Snubbers, required airflow direction bottom-top1ms-1 Designed in regard to EN50178 recommendations V SUPPLY[fan]Capacitor DC fan operating voltage182428V DC Designed for a 1200 x 600 x 2000 mm cabinet P FAN per fan Fan power consumption at typical voltage supply3,6W Embedded SKiiP® Technology 3LTE[fan]Capacitor DC fan life time expectancy (L10 method)65kh SKiiP 2403GB172-4DW, Trench 3 1700V IGBT, CAL3 diodeIntegrated current and temperature sensors Gate Driver Characteristics T AMBIENT=25°C unless otherwise specified Water cooling Symbol Conditions min typ max UnitGate Driver / controler dataV S2 supply voltage non stabilized 132430V DC Typical Applications I S2 V S2 = 13V - 30 V, F SW in kHz, I AC in A330 + 55×F SW + 0.00035×I AC2mAViT+input threshold voltage HIGH 12,3V DC Wind generators (SG and DFIG)ViT-input threshold voltage LOW 4,6V DC High power AC drives R IN Input resistance10kΩC IN Input capacitance1nF Footnotes Measurement & protectionHB_I Analogue current signal HB_I245250255 A.V-1 1) the user shall ensure that the ambiant air is sufficiently I TRIPSC over current trip level(Ianalog OUT=10V) 2 450 2 500 2 550A PEAK ventilated to avoid hot spots.min17 + 10,3×CMN_TMP°CCMN_TMP Analogue temperature signal Th < 80°C typ19 + 10,5×CMN_TMP°Cmax20 + 10,5×CMN_TMP°Cmin26 + 8,8×CMN_TMP°C REMARKS CMN_TMP Analogue temperature signal Th > 80°C typ28 + 8,8×CMN_TMP°Cmax30 + 8,9×CMN_TMP°CT trip Over temperature protection110115120°C This technical information specifies semiconductor devices butpromises no characteristics. No warranty or guarantee,expressed or implied is made regarding delivery, performanceor suitability.Before using the converter, please read carefully theSKiiPRACK® user manual.5°C-2055°C∆P WATER150mbarMass∆V/∆t WATERPressure drop per cell with male and femaleconnectors, 50% glycol, 12 L/minPressure drop per 4Q converter with male andfemale connectors, 50% glycol, 72 L/min150 B6CI + B6CIClimaticMechanicalSKiiP stack6085%Vibrations & ShocksIEC 60721-3, class 1K2 & 2K2Storage & transportationIEC 60721-3-3, class 3K3 extendedIn operation-25IEC 60721-3-3, class 3K3no condensation no icingmbarDC+ DC-V1W1L31L21Phase driver connectorsDC BUS detailsDC BUS connection L11U2V2W2L32L22L12HE10-14 male connectorPinDesignation1+24VDC 2+24VDC 3GND 4GNDLEFT SIDE VIEW DC FAN CONNECTION (6 times)This technical information specifies semiconductor devices but promises no characteristics. No warranty or guarantee 12 3 4View XFRONT VIEW REAR VIEWU, V, W are generator side converter phasesL1, L2, L3 are grid side converter phases2 SKiiPs in parallel cannot be on the same SKiiPRACK cellThis technical information specifies semiconductor devices but promises no characteristics. No warranty or guaranteeDetails - View XThis technical information specifies semiconductor devices but promises no characteristics. No warranty or guarantee expressed or implied is made regarding delivery, performance or suitability.6Rev. 0 - 03.06.201300,0020,0040,0060,0080,010,0120,0145101520253035R t h (°C /W )Flowrate per cell (L/min)Stack Rth 50% glycol (°C/W)Stack Rth 10% glycol (°C/W)50010001500200025003000303540455055O u t p u t c u r r e n t (A R M S )Ambient air temperature (°C)Cooling liquid 45°C Cooling liquid 60°CV BUS = 1 100 V DCVac IN/OUT =690 V RMS F IN/OUT = 50 Hz f SW IN/OUT = 2 kHz cos ϕIN/OUT = 1Flowrate = 12 L/min per cell Glycol/water ratio = 50%Altitude <1000 m 0500100015002000250030005001000150020002500300035004000O u t p u t c u r r e n t (A R M S )Altitude (m)Cooling liquid 45°C, ambient 40°C Cooling liquid 60°C, ambient 55°CV BUS = 1 100 V DCFlowrate = 12 L/min per cell Vac IN/OUT =690 V RMS Glycol/water ratio = 50%F IN/OUT = 50 Hz Altitude <1000 mf SW IN/OUT = 2 kHz cos ϕIN/OUT = 1050010001500200025003000200400600800100012001400M a x c u r r e n t s w i t c h e d (A )DC bus voltage (V)0100200300400500600700510152025P r e s s u r e d r o p p e r S K i i P R A C K c e l l (m b a r )Flowrate (L/min)Pressure drop with 50% glycolPressure drop without glycol (mbar)0500100015002000250051015O u t p u t C u r r e n t (A R M S )AC Fundamental Frequency (Hz)V BUS = 1 100 V DCVac IN/OUT =690 V RMS f SW IN/OUT = 2 kHz cos ϕIN/OUT = 1Water temperature = 45°C Flowrate = 12 L/min per cell Glycol/water ratio = 50%Air temperature = 40°C T J = 125°C。

科技成果——热管、蒸气压缩复合制冷技术适用范围通信行业通信、IT、金融等行业以及各部委、科研院所等所辖的通信基站、局站、通信机房、数据机房及其它全年或全年绝大部分时间需要制冷的建筑空间行业现状通信基站及数据中心的总电耗占通信网络用电的90%左右。

其中，通信基站主设备约占其总电耗的50%，空调系统占43%；数据中心主设备约占其总电耗的40%，空调系统占50%。

目前，我国空调市场平均COP不超过3。

而日本国内的空调器的能效比一般都在4.0-5.0左右。

目前应用该技术可实现节能量2万tce/a，减排约5万tCO2/a。

成果简介1、技术原理根据室内外温度和室内负荷情况，热管/制冷复合型空调机组自动选择运行制冷模式或热管模式，在保证室内降温要求的前提下达到节能运行的目标。

（1）热管模式当室外温度降到足够低时，机组的热管支路开启，制冷支路关闭，蒸发器和冷凝器构成热管自然循环回路，机组进入热管节能模式运行。

热管模式下，由于压缩机不运行，输入功率减少一大半。

同时室外温度越低，机组调小室内外风机转速也可满足降温要求，从而使得风机的能耗进一步降低。

（2）制冷模式当室内负荷较大，热管模式无法达到足够的降温效果时，机组将切换至常规的制冷模式，此时压缩机驱动电机将消耗大量的电能，同时蒸发器和冷凝器的风扇全速运转，所以制冷模式输入功率相对较大，能耗较高。

2、关键技术在同一设备载体上实现分离式热管技术与蒸气压缩式制冷技术的复合，最大限度地利用室外自然冷源。

3、工艺流程机组具备两种循环模式，当三通阀连通压缩机支路时，压缩机、冷凝器、储液器、节流装置、蒸发器和气液分离器构成压缩制冷循环，当三通阀连通热管支路时，蒸发器，冷凝器，储液器和液体管电磁阀构成热管自然循环。

工艺流程见图1和图2。

热管模式制冷模式图1 技术原理图图2 热管/制冷复合型空调机组简图主要技术指标1、热管模式满足“室内温度满足15℃以上，室内外温差10℃”的条件时，COP可达5.8以上；2、热管模式满足“室内温度满足15℃以上，室内外温差20℃”的条件时，COP可达11.4以上；3、制冷模式COP超过2.8以上，即使在夏季也约有20%左右的节能率；4、充分利用自然冷源，全年节能率超过35%。

KEY FEATURES Narrow design accommodates 12-inch (300-mm) deep cabinetsAttractive industrial design with minimal use of visible fasteners Cleanable, reusable aluminum mesh filter protects coils for maximum cooling performanceR407c and R134a refrigerants Models for 115, 230 and 400/460 3-phase VAC power inputOutdoor model operating temperature range from -40 F/-40 C to 131 F/55 C (125 F/52 C on N28 Series)Reliable mechanical thermostat on enclosure side of the unit; indoor air conditioner models include digital display on ambient sideEnergy efficient rotary compressor on N36 and N43 models Energy efficient reciprocating compressor on N28 modelsDust-resistant condenser coil allows the unit to be run filterless in most applications Galvanized sheet-metal cover for rugged factory and outdoor environmentsEasy-mount flanges for simple installation Every unit functionally tested before shippingStandard Indoor Air Conditioner models also include: Active condensate management with heater strip, power-off relay for door switch and other system requirements, malfunction switchStandard Outdoor Air Conditioner models also include Telcordia GR-487 capable, Corrosion-resistant components, Malfunction switch, Compressor heater, Head pressure control and 1300 W enclosure heaterRemote Access Control Units support up to 2 temperature sensors and 10 alarms. They support multiple communication protocols: SNMP, Modbus TCP, Ethernet/IP, and Profinet.Mounting hardware, gaskets and user manual furnished with the unitPRODUCT ATTRIBUTESHeight: 28 in / 711 mmWidth: 11.5 in / 292 mmDepth: 14 in / 356 mmMaterial: Mild SteelNominal Voltage: 460 VNumber of Phases: 1Nominal Capacity Watts: 1172 WNominal Capacity Btu/h: 4000 Btu/hProtection Rating: NEMA Type 4; NEMA Type 3ROperating Temperature: −40 to 125 °F / −40 to 52 °CMax Current: 2.5 ARemote Access Control: NoFinish: Powder CoatedColor: Light GrayColor Code: RAL 7035Thickness: 18 ga / 1.21 mmWeight: 97 lbADDITIONAL PRODUCT DETAILSSpectraCool Narrow Indoor/Outdoor Air Conditioners provide the same broad spectrum of cooling capacity and options and the SpectraCool Indoor/Outdoor units in a more narrow, space-saving solution for low-depth cabinet needs. Narrow models are designed to fit on 12-inch (300-mm) deep floor- and wall-mount enclosures.Select units come with Remote Access Control (RAC), an integrated, parametric controller designed to work seamlessly with our enclosure air conditioner units for the purpose of remotely monitoring and managing anywhere from a single unit to an entire network of Spectra cool air conditioners from virtually anywhere in the world with a secure internet connection. Ensure that your systems are always running at optimal temperature levels, increase productivity and improve overall system reliability.Cutout Adapter options for enclosures with older nVent HOFFMAN or Competitive units for easy transitions to new air conditionersFor G52 400/460 rated voltage, the watts are based on .65 power factor.2100 Hoffman WayAnoka, MN 55303-1745 |USA763.421.2240。

爱科直流风机盘管二线温控器说明书1、开、关机：通电状态下，请按“开/关”键。

2、工作模式：请按“模式”键实现制冷，制热、睡眠等3种工作模式间的转换。

3、温度设定：请按增量键（加键）或减量键（减键）来调整温度，温度可设为10-35℃。

4、风速设定：按设置键，可选择风速大小，自动、高风速、中风速、低风速。

当风速处于自动运行模式，如果室内温度与设定温度相差3℃以上时，风机高风速运行；相差2度时，风机中风速运行；相差1℃时，风机低风速运行。

与当室温设置温度相同时，阀门关闭，同时风机关闭（风机是否受控可选择）。

5、定时开、关机：在关机状态下，按下设置键设定定时开机，在背光熄灭前连续按下设置键设定在12小时内定时开机，以半小时为单位步进。

在开机状态下，按下设置键设定定时关机，在背光熄灭前连续按下设置键设定在12小时内定时关机，以半小时为单位步进。

6、菜单模式：在关机状态下，按下工作模式切换键“模式键”4秒，温控器直接进入菜单选择模式连续按下工作模式切换键可以实现屏幕下侧数值在1、2、3、4、5、6、7之间的相互转换。

数值1–温度校正界面，按加键或减键调整温度校正值，默认值为0。

数值2–风机可控与不可控设置界面，C0代表风机可控，C1代表风机不可控，按加键或减键，可实现C0与C1间的切换。

默认为C1。

数值3–防冻功能选择界面，当图标“–”显现出来时表示防冻功能取消。

按加或减键设置防冻温度，当防冻功能开启后，室温高于防冻温度2℃后温控器自动关闭；默认为取消防冻功能。

数值4–回差设置，设置开启温度与设置温度的回差，如：在回差设定为2时，当温控器牌“制冷”状态且“设置温度”为20摄氏度时，制冷设备在室温超过20℃时开启，当室温下降到18℃后，制冷设备关闭；反之，当温控器牌“制热”状态时，温度上升到22℃后，制热设备关闭。

出厂默认的回差值为1。

数值5–温度上限设置，按加键或减键调节，最高温度40℃，默认35℃。

数值6–温度下限设置，按加键或减键调节，最低为5℃，默认10℃。

2015年北京基地7B机房热管背板节能项目热管背板空调采购技术规范2015年11月一．总则1.概述1.1本文件为中国移动通信有限公司(以下简称招标方)关于中国移动（北京基地）数据中心机房楼机柜及热管空调配套工程的技术规范书，内容包括本项目的主要规格、要求、资料及有关文件。

1.2投标人必须按招标文件各章节条款的内容和顺序作出实质性应答。

投标方对本技术规范书的每一条款必须逐条做出明确的答复，应答“满足”或“不满足”，并写出针对每一条款的具体技术数据和指标。

不得以诸如“理解”、“注意到”等模糊之词回答，否则视该条回答无效。

如果投标人没有明确应答，将承担不经任何澄清就被判定为未能满足招标文件要求而废标的风险。

中标人在中标后的合同谈判中产生的任何偏差都不得超越此偏离表中已被招标人确认的条款。

1.3本技术规范书所规定的技术要求为基本要求，投标方应详细列出所供产品的其它技术性能或优于本技术规范书要求的性能参数。

如有异于技术部分要求的地方，应论述其理由。

凡采用“详见”、“参见”等方式说明的，应指出参见文档中的具体章节与页码。

1.4独立章节描述本次所投标产品但不限于功能、原理、实施方案等及对本项目提出技术建议书。

在应答或描述技术建设书时，应针对本项目，向招标方提出更优化的建议或方案。

1.5 投标方应随应答文件提供包括（但不限于）以下内容的中文技术文件或英文技术文件（附盖公司章的中文翻译文件）。

(1) 投标方需在投标时完成本项目施工图深化设计，并提供技术建议书、整体原理图、结构图、内部各电路、管线图及安装施工图。

(2) 整体与其内部各独立子单元的尺寸、重量和对地面的荷载承重要求。

(3) 本方案所需产品的整体、主要零部件及主要材料检验测试报告。

(4) 提供全系列产品配置清单，包括各子单元配置数量、型号、规格、品牌、专利文件。

（空调产品的规格包括但不限于设计工况下的制冷量、风量、功耗、风阻等。

）(5) 提供空调技术方案的重要指标列表，包括但不限于空调设计工况、总制冷量、总循环水量、配置数量、总功耗等。

克莱门特微模块制冷空调一体化解决方案应用
佚名
【期刊名称】《供热制冷》
【年(卷),期】2017(0)12
【摘要】日前,克莱门特空调机组中标四川省广电网络龙泉数据中心-期、二期项目.克莱门特采用行间空调与风冷自然冷却机组相结合的空调系统形式,为微模块数据中心提供节能可靠的制冷解决方案.
【总页数】1页(P64-64)
【正文语种】中文
【中图分类】TU831.4
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