交流输入:MCB 63A/3P*1、UK35*1
光伏输入:MCB 25A/2P*6、DC-SPD*6
电池接入:MCB 125A/1P*3
主负载断开:MCB 125A/1P*3、63A/1P*3
主负载断开由 400A 接触器(常闭)控制
配置:交流C类3+1方式20KA/40KA防雷器*1,直流输出防雷:C类直流防雷器*1
应用领域:
电信;
数据中心
编号 :
TRSS-48300订单(起订量) :
1 pcs支付 :
T/T产品产地 :
China颜色 :
Black装运港 :
Shenzhen交货时间 :
1-2 weeks重量 :
37 Kg48V 300A 嵌入式电信电源系统
描述
TRSS-48300嵌入式电源 是公司根据多年开发和在线运行经验设计的新一代高可靠、高性能混合能源系统。系统配置支持1-6个热插拔整流模块和1-6个光伏模块。系统监控模块具有电池管理功能和供电系统监控功能。适当配置传感器可以实现环境监测,并提供多组备用监测量。可提供RS485通讯接口,方便远程监控和无人值守操作。
这种嵌入式电源主要用于户外机柜。
主要产品规格
|
输入电压范围 |
输出电压 |
输出(最大) |
输出最大功率 |
配置数量 |
|
整流器 模块 |
176~300Vac |
-53.5V直流 |
300A |
18千瓦 |
6 |
|
太阳能充电控制器模块 |
120~425V直流 |
-54.5V直流 |
300A |
18千瓦 |
6 |
|
配置 |
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交流输入:MCB 63A/3P*1、UK35*1 光伏输入:MCB 25A/2P*6、DC-SPD*6 电池接入:MCB 125A/1P*3 主负载断开:MCB 125A/1P*3、63A/1P*3 主负载断开由 400A 接触器(常闭)控制 |
具体配置:可根据客户定制
|
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配置:交流C类3+1方式20KA/40KA防雷器*1,直流输出防雷:C类直流防雷器*1 |
原理介绍
TRSS-48300嵌入式供电系统原理如下:
系统由三相交流市电通过交流输入断路器供电,一路给整流模块供电;同时,三相样本送至监控板进行交流电压检测。整流模块的输出合并后,负极分为两路。第一路分别通过直流接触器和断路器输出到直流负载负输入端,第二路通过主分流器和断路器连接到电池负输入端;直流接触器在监控控制下保护电池免于过放;整流模块的输出正极连接负载正极,电池正极连接输出正极排。
环境条件
环境参数 |
运行环境条件 |
运输环境条件 |
储存环境条件 |
评论 |
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项目 |
范围 |
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气候条件 |
温度 |
低温 |
-40℃ |
-40℃ |
-45℃ |
-40℃满载启动,+45~+75℃线性下降 |
高温 |
45℃ |
70℃ |
70℃ |
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湿度 |
相对湿度低 |
5% |
/ |
5% |
/
|
|
相对湿度高 |
95% |
/ |
95% |
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缩合 |
没有 |
/ |
没有 |
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高度 |
4000米 |
4000米 |
|
3000~4000m减容产出 |
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机械应力条件 |
颤动 |
正弦振动: 5~9Hz:振幅3.5mm; 9~200Hz:加速度10m/s2; 3 轴向,扫频 每个方向 5 次振动 |
2~10Hz:30m2/s3; 10~200Hz:3m2/s3; 200~500Hz:1m2/s3; 3 轴向,每个方向 30 分钟 |
/ |
仅限插框,测试时取出整流模块和监控模块 |
|
冲击(碰撞) |
加速度250m/s2; 脉冲宽度:6ms; 3轴6次每次碰撞500次 |
加速度400m/s2; 脉冲宽度:6ms; 3轴6次每次碰撞500次 |
/ |
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降低 |
/ |
跌落高度1m;底面1次 |
/ |
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冷却方式 |
模块强制风冷 |
风从前面进来,从后面出去 |
系统结构及布局图:
Technical Parameters
1.Input characteristics |
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ON. |
Project |
Technical parameter |
Remarks |
|
1.1 |
AC input rated voltage |
Single-phase 220Vac / three-phase 380Vac |
|
|
1.2 |
AC-input voltage range |
176Vdc~300Vac |
Full of work |
|
1.3 |
AC input maximum current |
40A |
1 phase, the most power supply: 2 modules |
|
1.4 |
AC input voltage frequency |
45~65Hz (Typical value 50 / 60Hz ) |
|
|
1.5 |
AC power factor |
≥0.99 |
220 Vac rated load |
|
1.6 |
Pv module input |
120Vdc ~ 425Vdc(starting voltage over 160Vdc) |
|
|
1.7 |
Pv-rated input voltage |
340Vdc |
|
|
1.8 |
MPPT voltage range |
120Vdc to 340Vdc |
|
|
1.9 |
Maximum input current of PV module |
17A |
|
|
1.10 |
Photovoltaic module reverse pole protection |
Wrong input polarity, no damage |
|
|
1.11 |
Photovoltaic module input insurance |
Positive and negative insurance |
|
|
1.12 |
PV maximum input voltage |
450Vdc (Power supply not be damaged) |
|
|
2. Output characteristics |
||||
Project |
Technical parameter |
Remarks |
||
2.1 |
Rectifier output voltage range |
-43.2Vdc~ -57.6Vdc(typical value-53.5Vdc) |
|
|
2.2 |
Recfier output maximum power |
18kW |
|
|
2.3 |
PV output voltage range |
-42Vdc~ -58Vdc (typical value-54.5Vdc) |
|
|
2.4 |
Voltage stabilization accuracy |
≤±1% |
|
|
2.5 |
Output ripple & noise |
≤200mVp-p |
Rated input voltage and load and bandwidth limit of 20 MHz |
|
2.6 |
Current-sharing imbalance |
≤±5% |
Within the 50- -100% load range |
|
2.7 |
Rectifier module efficiency |
≥93% |
220 Vac / rated load |
|
2.8 |
PV module efficiency |
≥95% |
@340/40%~70% Load -54.5Vdc |
|
2.9 |
Startup time |
3~10S |
The rated input voltage starts to the output voltage establishes to the setting value, the starting output needs to use the pre-flow limit function |
|
2.10 |
On/off overshoot amplitude |
≤±5% |
When either module is hot plugged (the load current should not be greater than the total output current in the working module), the system output voltage fluctuates |
|
2.11 |
Dynamic response |
Overshoot range |
≤±5% |
25% -50% -25% or 50% -75% -50% load change |
Recovery time |
≤200µS |
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2.12 |
Temperature coefficient |
≤±0.02%/℃ |
|
|
2.13 |
Psophometrically weighted noise voltage |
≤2mV |
|
|
2.14 |
Wide-band noise voltage |
3.4~150KHz |
≤50mV |
|
0.15~30M Hz |
≤20mV |
|
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2.15 |
Discrete noise voltage |
3.4~150KHz |
≤5mV |
|
15~200KHz |
≤3mV |
|
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20~500KHz |
≤2mV |
|
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0.5~30M Hz |
≤1mV |
|
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2.16 |
Voltage drop |
≤500mV |
|
|
ON. |
Project |
Technical parameter |
Remarks |
|
3.1 |
AC input overvoltage protection |
300Vdc |
Can self-recovery, the difference of not less than 10 Vac |
|
3.2 |
Photovoltaic input overvoltage protection |
430Vdc |
Can self-recovery, the difference of not less than 15 Vac |
|
3.3 |
AC input undervoltage protection |
85Vdc |
Can self-recover with a return difference of not less than 5 Vac |
|
3.4 |
Photovoltaic input undervoltage protection |
110Vdc |
Can self-recovery, the difference of not less than 40 Vac |
|
3.5 |
Recfier output overvoltage protection |
-59Vdc~-61Vdc |
Lock, can not recover, need to restart |
|
3.6 |
Photovoltaic output overvoltage protection |
Internal-58.5 to-60.5Vdc, external: 63Vdc |
Lock, can not recover, need to restart |
|
3.7 |
Output undervoltage protection |
Battery disconnect protection |
Through monitoring, the battery can be powered down, and the protection point can be set |
|
3.8 |
Output limit protection |
Have |
|
|
3.9 |
Output short circuit protection |
Have |
Long-term short circuit, can recover from itself |
|
3.10 |
Overtemperature protection |
It can recover automatically at the ambient temperature of 75℃ |
|
|
3.11 |
Battery polarity is connected to reverse protection |
Not have |
According to the user needs can have the battery polarity reverse connection protection function |
|
3.12 |
PV underpower protection |
Input power <50W and shutdown for 5 minutes |
The module starts when the input voltage is greater than 160 Vdc for 5 minutes. |