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SILVERSTONE Gemini Series 1300C Platinum Module
Specifications
- Product Name: Gemini Series Gemini 1300C Platinum Module
- Model: SST-GM1300C-PFU
- Power Output: 12.2V main output, 12.2V standby output
- Maximum Output Power: 1300W
- Efficiency Certification: Cybenetics Platinum
- Features: Hot-swappable design, Active PFC, Smart Ride Through (SmaRT), Closed Loop System Protection (CLST)
Product Usage Instructions
General Description
The Gemini 1300C Platinum Module is a CRPS form factor power supply with high efficiency and various protection functions.
Function briefly
GM1300C-PFU an AC/DC power supply with an input voltage range of 90~264Vac, 2 output voltages, main output 12.2V, standby output 12.2V, maximum output power 1300W. The power supply has input over-under voltage, output over-current, output over-voltage, short circuit, over-temperature and other protection functions. At the same time, the power module can control and monitor various functions through the I2C interface.
| Model | Output(V) | Input(A) |
| SST-GM1300C-PFU | 12.2V | 2-105.3A |
| 12.2V | 0.5-3A |
Input requirements
AC input requirements
- Input Voltage Range: 90-264Vac
- Input Surge Current: Up to 310A
- Power Factor: 0.9-0.99
| item | measure | Minimum | Nominal | Maximum | note |
| Input Voltage | Vac | 90 | 115/230 | 264 | |
| Nom Input Voltage | Vac | 100 | 115/230 | 240 | |
| Vin Frequency | Hz | 47 | 50/60 | 63 | |
| Nom Vin Frequency | Vdc | 180 | 310 | ||
| Nominal DC input voltage range | Vdc | 240 | |||
| Maximum input current | A | / | / | 14 | @90Vac 100% load |
| Input surge current | A | / | / | 50 | 230Vac/50Hz input， full load， cold start，25℃ |
| Power factor | 0.9 | 10% load，230Vac,50Hz& 115Vac,60Hz | |||
| 0.96 | 20% load，230Vac,50Hz& 115Vac,60Hz | ||||
| 0.98 | 50% load，230Vac,50Hz& 115Vac,60Hz | ||||
| 0.99 | 100% load，230Vac,50Hz& 115Vac,60Hz | ||||
| iTHD | % | 20 | ＞10%&＜20% load，230Vac,50Hz | ||
| % | 15 | ≥20% load，230Vac,50Hz | |||
| % | 10 | ≥40% load，230Vac,50Hz | |||
| % | 8 | ≥50% load，230Vac,50Hz |
Input protection function
- Input Overcurrent Protection: Fuse blows when overcurrent occurs
| Item | measure | Minimum | Nominal | Maximum | note |
| Input Over current protection | A | / | / | / | Yes, the input fuse will blow when over current occurs. |
| Input under voltage protection | Protect point | / | / | 82Vac | Full load test, hysteresis more than 5V. |
| Recover point | / | / | 88Vac | ||
| Input over voltage protection | Protect point | 290Vac | / | / | Full load test, hysteresis more than 5V. |
| Recover point | 280Vac | / | / |
Output requirements
AC output requirements
- Main Output Voltage: 11.6V – 12.8V
- Standby Output Voltage: 11.6V – 12.8V
- Main Output Current: 2A – 105.3A
- Standby Output Current: 0.5A – 3A
Output power characteristics
| Output | Input voltage（Vac） | Mi n(A) | Max(Long-term load) | Peak load capacity（20s）(A) | Peak load capacity（10ms）(A) | Peak load capacity（100us）(A) |
| Main output | 180-264 | 2 | 105.3 | 105.3+10 | 105.3+72 | 105.3+105 |
| Main output | 90-140 | 2 | 80.5 | 80.5+10 | 80.5+72 | 80.5+105 |
| Standby output | 90-264 | 0.5 | 3 | >4 |
Output protection function
| Item | Unit | MIN | Nominal | MAX | Note | |
| Main output Over Current Protection | A | 110 | 145 | 180-264Vac, hiccup, self-recovery | ||
| A | 90 | 100 | 90-140Vac, hiccup, self-recovery | |||
| Standby | A | 4 | 9 | hiccup, self-recovery | ||
| Main output short circuit protection | / | / | / | / | Standby output, the main circuit can recover automatically after the short circuit is removed. | |
| Standby output short circuit protection | / | The main circuit has no output, and the Standby can recover automatically after the short circuit is removed. | ||||
| Over voltage protection | Main | V | 13.5 | 15.5 | The output is locked and the Standby output is not turned off. | |
| Second | V | 13.5 | 15.5 | Standby locks, turning off the main output | ||
| Over temperature protection | ℃ | 60 | Turn off the main circuit, it can self- recovery, the hysteresis is not less than 5℃, do not turn off the 3.3V Standby. | |||
Indicator
| Condition | Light condition | note |
| The power supply is working normally (both 12V& 12VSB are normal) | GREEN | / |
| Power supply without AC input (including parallel redundant power supplies) | OFF | / |
| AC input is normal, 12VSB is normal, and 12Vhas no output. | 1Hz Blink GREEN | Standby condition |
| No AC input, but the AC input of the parallel redundant power supply is normal. | RED | / |
| Power supply warning, such as over temperature, over power, over current, fan failure, etc. | 1Hz Blink RED | Output normally |
| Power supply protection, such as over -current protection, over -voltage protection, over – temperature protection, fan failure, input over -and under-voltage protection, etc. | RED | Fail or output protect |
| Power supply enters cold redundancy state | 0.33Hz Blink GREEN | 1s OFF；2s GREEN |
Note: The light is a two-color LED light
Timing
| Item | Description | MI N | MA X | UNITS |
| T_vout_rise | Output voltage rise time for +12V and +12VSBfrom 10% to within regulation limits. | 70 | ms | |
| T_vstby_on_delay | Delay from AC being applied to +12VSB being within regulation. | 1500 | ms | |
| T_vin_on_delay | Delay from AC being applied to all output voltages being within regulation. | 2500 | ms | |
| T_vout_holdup | Time AC. +12V output voltage stay within regulation after loss of | 12 | ms | |
| T_psok_holdup | Delay from loss of AC to de-assertion of PSOK. | 10 | ms | |
| T_ps_on#_off_delay | Delay from PS_ON# de-asserted to power supply turning off. | 10 | ms | |
| T_ps_on#_on_delay | Delay from PS_ON# active to output voltages within regulation limits. | 5 | 400 | ms |
| T_ps_on#_psok | Delay from PS_ON# deactivate to PSOK being de-asserted. | 5 | ms | |
| T_psok_on | Delay from output voltages within regulation limits to PSOK asserted at turn on. | 100 | 500 | ms |
| T_psok_off | Delay from PSOK de-asserted to output voltages dropping out of regulation limits. | 1 | ms | |
| T_psok_low | Duration of PSOK being in the de-asserted state during an off/on cycle using AC or the PS_ON# signal. | 100 | ms | |
| T_vstby_vout | Delay from +12VSB being in regulation to O/Ps being in regulation at AC turn on. | 50 | 1000 | ms |
| T_vstby_holdup | Time the +12VSB output voltage stays within regulation after loss of AC. | 70 | ms | |
| Tvingood_de-asserted | Delay from the Vin drop being 0V to VIN_GOODde-assertion. (and SMBAlert# low) | 3 | ms |
Load sharing performance requirements
The redundant backup power supplies actively share current with each other through the current sharing bus, and the current sharing strategy is average current sharing. If one of the redundant backup power supplies fails, the operation and output of other power supplies can’t be affected. Even if the current sharing bus of a single power supply is short-circuit to ground, the power supply output should still meet the specification requirements. When the main circuit load of the power supply is greater than or equal to 50% of the rated power, the current average index should meet 6.5% (max). When the main circuit load of the power supply is 20% and 30% of the rated load, the current sharing unbalance is tested at two points, and it meets the requirement of not exceeding 10%;
Module test
- Add 120% of the maximum design voltage of the bus to the current-sharing bus and measure the output voltage variation. It is required that this value does not exceed the output voltage regulation accuracy range of the rectifier module.
- The current sharing requirements are as follows, 12Vsb is no-load during testing.
Turn on test
- Under all input voltage and output current combinations, the output ripple must not have low-frequency oscillation;
- Under various cross loads and input voltages, when plugging or unplugging any power supply, the overshoot (including undershoot) on the output DC bus must meet the specification requirements;
- Dynamically respond to the output voltage under various extreme conditions to meet the system output voltage stabilization accuracy requirements;
- When starting up under pure resistive load conditions of 0%, 25%, 50%, 75%and 100%, the system output voltage power-on waveform must be smooth;
- Repeatedly plug and pull modules, and the power system must not cause other modules to die due to plugging and pulling;
- Switching, plugging and unplugging the power supply must not cause abnormality in the output signal of the relevant power supply;
- The power module should be able to support up to 4 power supplies in parallel for current sharing;
Cold redundancy requirement
Cold redundancy configuration
There is a register Cold Redundancy configuration (D0h) inside the power supply, which can be read or written accessed by the system. An example of the command format, such as S B0 w D0 01 PEC P means to set the D0h address register value in power supply B0 to 01h. The register value can be set to 00h/01h/02h/03h/04h as needed.
The meanings represented by different values are describe in the following table:
| Value | State | Description | Active | Stop |
| 00h | Standard Redundancy | Power load sharing redundant backup operation | ||
| 01h | Cold Redundant Active | Power supply with normal operating output power in cold backup |
| 02h | Cold Standby 1 | The first power supply to exit cold backup and enter working status | 40% of max | 0.9 x（40% of max x 1/2）=18% |
| 03h | Cold Standby 2 | The second power supply exits the cold backup and enters the working state | 62% of max | 0.9 x（62% of max x 2/3）=37.2% |
| 04h | Cold Standby 3 | The third power supply exits the cold backup and enters the working state | 84% of max | 0.9 x（84% of max x 3/4）=56.7% |
Note: The factory default state of the power supply is Standard Redundancy, and the corresponding D0h register value is 00h.
PSU turn on function
The power on and off power supply in cold backup is only controlled by the output load. Once the load exceeds the enable threshold, the power supply is turned on; when the load decreases to the disable threshold, the power supply enters Cold standby.
Cold Standby work condition
The necessary conditions for the power supply to enter the Cold standby state are: PSON low level and the register value is 02h/03h/04h. At the same time, for the power supply that enters the Cold standby state, the requirements are:
- When CRB is low, the power supply in Cold Redundant Active and Cold Standby should be able to wake up immediately and the D0h value returns to 00h, entering the standard redundancy state.
- Keep PWOK high
- All states of the power supply should remain normal, and no faults or abnormalities should be reported unless a fault or abnormality does occur.
- The indicator light flashes according to the specifications.
- All fans remain running
- LED flashes green
- Any time any power supply is abnormal, pull down the CRB level, and all power supplies will automatically enter the Standard Redundancy state. The CRB low level range is 0V-0.6V; the high level range is 2.0V-3.46V, and the timing priority of CRB pulling down must be High to ensure timely wake-up of other Cold Redundant power supplies.
- The cold redundancy power supply must exit the cold backup state under fault or overcurrent conditions
- Any abnormality in the power supply will restore the register value to the default value 00h, and set the Cold Redundant BUS abbreviation CRB (B22 PIN) to low level, forcing other power supplies working in parallel to enter the standard redundancy state.
Trigger conditions:
- A 12V OCP alarm failure occurs
- 12V OVP fault
- 12V UVP
- OTP alarm failure
- Fan speed alarm failure
- AC power failure
Turn on smart opening function
Here are the steps to put your PSU into smart-on mode. PSUs designated as smart standby can be powered off and on to main power when
necessary. For practical applications, the above trigger levels may have a tolerance of +/-10%.
- Step 1: Make sure each PSU has an AC power cord connected. Use the Write Bytes command to set command 0xD0 for each PSU to have its own role (there must be one PSU as the active role). The command format of the smart enable function is as follows.
B0 is in smart on state (S B0 w D0 01 PEC P)
B2 is in smart on standby state (S B2 w D0 02 PEC P) - Step 2: Once the load drops below the corresponding trigger point, the PSU will enter smart slave mode.
- Step 3: If the CRB signal drops low, all PSUs will turn on main power and reset Cold_Redundancy_CONFIG to 0x00. The system needs to reassign the positions of all PSUs to enable the smart on feature again.
PMBUS AND EEPROM
PMBUS
The power supply should support access to PMBUS information via the I2C bus. The power supply is equipped with four pin connectors, namely SCL, SDA, A1, and A0. Clock bus (SCL) and data bus (SDA), the two pins communicate each other and form a continuous bus, A0 and A1 are used to determine the address. The backplane defines the state of these lines so that the power supply address is unique within the system. The generated I2C address should conform to the table below. The write protect pin is used to ensure data is not lost due to accidental overwriting. The bus operates at 3.3V voltage, and SDA and SCL need to be pulled up to 3.3V on the system board.
| MCU Address | System addressing | |||
| PMBUS | IPMI FRU | A1 | A0 | |
| PSU-1 | B0 | A0 | 0 | 0 |
| PSU-2 | B2 | A2 | 0 | 1 |
| PSU-3 | B4 | A4 | 1 | 0 |
| PSU-4 | B6 | A6 | 1 | 1 |
The power supply can monitor and read the input voltage, input power, output voltage, output current and other data of the power supply in real time.
| CMD Code | Name | Type | Bytes | Conditions |
| 01h | OPERATION | Read/Write | 1 | Power on/off sign, 0x80means power on (default value), 0x00 means power off |
| 02h | ON_OFF_CONFIG | Read/Write | 1 | 0x15 (hardware controlled power on and off, default value), 0x19 (software controlled power on and off) |
| 03h | CLEAR_FAULTS | N/A | 0 | |
| 19h | CAPABILITY | Read Byte | 1 | Value 90h |
| 1Ah | QUERY | Block Write-Block Read Process Call | 1 | |
| 20h | VOUT_MODE | Read Byte | 1 | |
| 3Ah | FAN_CONFIG_1_2 | R/W | 1 | D0h |
| 3Bh | FAN_COMMAND_1 | R/W | 2 | |
| 79h | STATUS_WORD | Read Word | 2 | |
| 7Ah | STATUS_VOUT | Read Byte | 1 | |
| 7Bh | STATUS_IOUT | Read Byte | 1 | |
| 7Ch | STATUS_INPUT | Read Byte | 1 | |
| 7Dh | STATUS_TEMPERATURE | Read Byte | 1 | |
| 88h | READ_VIN | Read Word | 2 | |
| 8Bh | READ_VOUT | Read Word | 2 | |
| 8Ch | READ_IOUT | Read Word | 2 | |
| 8Dh | READ_TEMPERATURE_1 | Read Word | 2 | |
| 96h | READ_POUT | Read Word | 2 | |
| 97h | READ_PIN | Read Word | 2 | |
| 98h | PMBUS_REVISION | Read Byte | 1 | Value 22h |
| 99h | MFR_ID | Read Block | Variable | |
| 9Ah | MFR_MODEL | Read Block | Variable | |
| 9Bh | MFR_REVISION | Read Block | Variable | |
| A0h | MFR_VIN_MIN | Read Word | 2 | |
| A1h | MFR_VIN_MAX | Read Word | 2 | |
| A2h | MFR_IIN_MAX | Read Word | 2 | |
| A3h | MFR_PIN_MAX | Read Word | 2 | |
| A4h | MFR_VOUT_MIN | Read Word | 2 | |
| A5h | MFR_VOUT_MAX | Read Word | 2 | |
| A6h | MFR_IOUT_MAX | Read Word | 2 | |
| A7h | MFR_POUT_MAX | Read Word | 2 | |
| A8h | MFR_TAMBIENT_MAX | Read Word | 2 | |
| A9h | MFR_TAMBIENT_MIN | Read Word | 2 | |
| ABh | MFR_EFFICIENCY_HL | Read Block | 14 | |
| D0h | Cold standby | R/W | 1 |
EEPROM
EEPROM Data
The EEPROM data format shall comply with the IPMI version 1.0 (document revision 1.3 March 24, 2015) specification.
EEPROM data format
EEPROM Addressing
| Item | Address | Byte Value (hex) | Description | Area |
| 0 | 00H | 01 | Common Header | Format Version Number |
| 1 | 01H | 00 | Internal Use Area | |
| 2 | 02H | 00 | Chassis Info Area | |
| 3 | 03H | 00 | Board Info Area | |
| 4 | 04H | 01 | Product Info Area | |
| 5 | 05H | 0C | Multi Record Info Area | |
| 6 | 06H | 00 | PAD Area | |
| 7 | 07H | F2 | Common Header Checksum (Total Of Bytes) | |
| 8 | 08H | 01 | Product Area Format Version | Product Information Area |
| 9 | 09H | 0B | Product Area Length | |
| 10 | 0AH | 19 | Language Code | |
| 11 | 0BH | C9 | Manufacturer Name type/length byte | |
| 12 | 0CH | 46 | Manufacturer Name bytes | |
| 13 | 0DH | 53 | Manufacturer Name bytes | |
| 14 | 0EH | 50 | Manufacturer Name bytes | |
| 15 | 0FH | 20 | Manufacturer Name bytes | |
| 16 | 10H | 47 | Manufacturer Name bytes | |
| 17 | 11H | 52 | Manufacturer Name bytes | |
| 18 | 12H | 4F | Manufacturer Name bytes | |
| 19 | 13H | 55 | Manufacturer Name bytes | |
| 20 | 14H | 50 | Manufacturer Name bytes | |
| 21 | 15H | CD | Product Name type/length byte | |
| 22 | 16H | 46 | Product Name bytes | |
| 23 | 17H | 53 | Product Name bytes | |
| 24 | 18H | 50 | Product Name bytes | |
| 25 | 19H | 31 | Product Name bytes |
| 26 | 1AH | 33 | Product Name bytes | |
| 27 | 1BH | 30 | Product Name bytes | |
| 28 | 1CH | 30 | Product Name bytes | |
| 29 | 1DH | 2D | Product Name bytes | |
| 30 | 1EH | 32 | Product Name bytes | |
| 31 | 1FH | 51 | Product Name bytes | |
| 32 | 20H | 30 | Product Name bytes | |
| 33 | 21H | 31 | Product Name bytes | |
| 34 | 22H | 41 | Product Name bytes | |
| 35 | 23H | 31 | Product Name bytes | |
| 36 | 24H | Product Part/Model Number type/length byte | ||
| 37 | 25H | Product Part Number bytes | Need be consistent with SPEC label | |
| 38 | 26H | Product Part Number bytes | ||
| 39 | 27H | Product Part Number bytes | ||
| 40 | 28H | Product Part Number bytes | ||
| 41 | 29H | Product Part Number bytes | ||
| 42 | 2AH | Product Part Number bytes | ||
| 43 | 2BH | Product Part Number bytes | ||
| 44 | 2CH | Product Part Number bytes | ||
| 45 | 2DH | Product Part Number bytes | ||
| 46 | 2EH | Product Part Number bytes | ||
| 47 | 2FH | C2 | Product Version type/length byte | |
| 48 | 30H | Product Version | Need be consistent with BOM | |
| 49 | 31H | Product Version | ||
| 50 | 32H | Product Serial Number type/length byte | ||
| 51 | 33H | Product Serial Number bytes | Need be consistent with SPEC label | |
| 52 | 34H | Product Serial Number bytes | ||
| 53 | 35H | Product Serial Number bytes | ||
| 54 | 36H | Product Serial Number bytes | ||
| 55 | 37H | Product Serial Number bytes | ||
| 56 | 38H | Product Serial Number bytes | ||
| 57 | 39H | Product Serial Number bytes | ||
| 58 | 3AH | Product Serial Number bytes | ||
| 59 | 3BH | Product Serial Number bytes | ||
| 60 | 3CH | Product Serial Number bytes | ||
| 61 | 3DH | Product Serial Number bytes | ||
| 62 | 3EH | Product Serial Number bytes | ||
| 63 | 3FH | C1 | type/length byte encoded to indicate no more info fields | |
| 64 | 40H | 00 | PAD |
| 65 | 41H | 00 | PAD | |
| 66 | 42H | 00 | PAD | |
| 67 | 43H | 00 | PAD | |
| 68 | 44H | 00 | PAD | |
| 69 | 45H | 00 | PAD | |
| 70 | 46H | 00 | PAD | |
| 71 | 47H | 00 | PAD | |
| 72 | 48H | 00 | PAD | |
| 73 | 49H | 00 | PAD | |
| 74 | 4AH | 00 | PAD | |
| 75 | 4BH | 00 | PAD | |
| 76 | 4CH | 00 | PAD | |
| 77 | 4DH | 00 | PAD | |
| 78 | 4EH | 00 | PAD | |
| 79 | 4FH | 00 | PAD | |
| 80 | 50H | 00 | PAD | |
| 81 | 51H | 00 | PAD | |
| 82 | 52H | 00 | PAD | |
| 83 | 53H | 00 | PAD | |
| 84 | 54H | 00 | PAD | |
| 85 | 55H | 00 | PAD | |
| 86 | 56H | 00 | PAD | |
| 87 | 57H | 00 | PAD | |
| 88 | 58H | 00 | PAD | |
| 89 | 59H | 00 | PAD | |
| 90 | 5AH | 00 | PAD | |
| 91 | 5BH | 00 | PAD | |
| 92 | 5CH | 00 | PAD | |
| 93 | 5DH | 00 | PAD | |
| 94 | 5EH | 00 | PAD | |
| 95 | 5FH | Product Info Area Checksum | Sum Of Byte8 ~95 | |
| 96 | 60H | 00 | Record Type ID | Power Supply Information |
| 97 | 61H | 02 | End of List/Record Format Version | |
| 98 | 62H | 18 | Record Length | |
| 99 | 63H | Record Checksum (zero checksum) | ||
| 100 | 64H | Header Checksum (zero checksum) | ||
| 101 | 65H | 14 | Overall Capacity in Watts (LSB) | 1300W |
| 102 | 66H | 05 | Overall Capacity in Watts (MSB) | |
| 103 | 67H | FF | ||
| 104 | 68H | FF | Peak VA |
| 105 | 69H | 32 | Inrush current | 50A |
| 106 | 6AH | 05 | Inrush interval in ms. | 5ms |
| 107 | 6BH | 28 | Low end Input voltage range 1 (10mV ,LSB) | 90V |
| 108 | 6CH | 23 | Low end Input voltage range 1 (10mV ,MSB) | |
| 109 | 6DH | 20 | High end Input voltage range 1 (10mV ,LSB) | 264V |
| 110 | 6EH | 67 | High end Input voltage range 1 (10mV ,MSB) | |
| 111 | 6FH | 00 | Low end Input voltage range 2 (10mV ,LSB) | |
| 112 | 70H | 00 | Low end Input voltage range 2 (10mV ,MSB) | |
| 113 | 71H | 00 | High end Input voltage range 2 (10mV ,LSB) | |
| 114 | 72H | 00 | High end Input voltage range 2 (10mV ,MSB) | |
| 115 | 73H | 2F | Low end Input frequency range | 47Hz |
| 116 | 74H | 3F | High end Input frequency range | 63Hz |
| 117 | 75H | 0C | A/C dropout tolerance in ms(100%Load) | 12mS |
| 118 | 76H | 1B | Binary flags | |
| 119 | 77H |
48 |
Peak Wattage(LSB) | 1352W，15S |
|
120 |
78H | F5 | Peak Wattage(MSB) – Hold up time in seconds | |
| 121 | 79H | 00 | Combined Wattage | 15S7:4 – Voltage 1；3:0 – Voltage 2 |
| 122 | 7AH | 00 | Combined Wattage (LSB) | |
| 123 | 7BH |
00 |
Combined Wattage (MSB) | |
|
124 |
7CH | 00 | Predictive fail tachometer lower threshold (RPS) | |
| 125 | 7DH | 09 | Record Type ID (0x01: DC Output, 0x09: Extended DC Output) | 12V Output Record |
| 126 | 7EH | 02 | End of List/Record Format Version | |
| 127 | 7FH | 0D | Record Length | |
| 128 | 80H | Record Checksum (zero checksum) | ||
| 129 | 81H | Header Checksum (zero checksum) | ||
| 130 | 82H | 1 | Output Information | |
| 131 | 83H | C4 | Nominal voltage (10 mV) (LSB) | 12.2V |
| 132 | 84H | 04 | Nominal voltage (10 mV) (MSB) | |
| 133 | 85H | 88 | Maximum negative voltage (10 mV) (LSB) | 11.6V |
| 134 | 86H | 04 | Maximum negative voltage (10 mV) (MSB) | |
| 135 | 87H | 00 | Maximum positive voltage (10 mV) (LSB) | 12.8V |
| 136 | 88H | 05 | Maximum positive voltage (10 mV) (MSB) | |
| 137 | 89H | 78 | Ripple and Noise (1mV) (LSB) | 120mV |
| 138 | 8AH | 00 | Ripple and Noise (1mV) (MSB) | |
| 139 | 8BH | 32 | Minimum current draw (10mA) (LSB) | 2A |
| 140 | 8CH | 00 | Minimum current draw (10mA) (MSB) | |
| 141 | 8DH | 22 | Maximum current draw (10mA) (LSB) | 105.3A |
| 142 | 8EH | 29 | Maximum current draw (10mA) (MSB) | |
| 143 | 8FH | 09 | Record Type ID | 12Vsb Output Record |
| 144 | 90H | 82 | End of List/Record Format Version | |
| 145 | 91H | 0D | Record Length | |
| 146 | 92H | Record Checksum (zero checksum) | ||
| 147 | 93H | Header Checksum (zero checksum) | ||
| 148 | 94H | 82 | Output Information | |
| 149 | 95H | C4 | Nominal voltage (10 mV) (LSB) | 12.2V |
| 150 | 96H | 04 | Nominal voltage (10 mV) (MSB) | |
| 151 | 97H | 88 | Maximum negative voltage (10 mV) (LSB) | 11.6V |
| 152 | 98H | 04 | Maximum negative voltage (10 mV) (MSB) | |
| 153 | 99H | 00 | Maximum positive voltage (10 mV) (LSB) | 12.8V |
| 154 | 9AH | 05 | Maximum positive voltage (10 mV) (MSB) | |
| 155 | 9BH | 78 | Ripple and Noise (1mV) (LSB) | 120mV |
| 156 | 9CH | 00 | Ripple and Noise (1mV) (MSB) | |
| 157 | 9DH | 00 | Minimum current draw (10mA) (LSB) | 0.5A |
| 158 | 9EH | 00 | Minimum current draw (10mA) (MSB) | |
| 159 | 9FH | 2C | Maximum current draw (10mA) (LSB) | 3A |
| 160 | A0H | 01 | Maximum current draw (10mA) (MSB) | |
| 161 | A1H | FF | ||
| 162 | A2H | FF | ||
| 163 | A3H | FF | ||
| 164 | A4H | FF | ||
| 165 | A5H | FF | ||
| 166 | A6H | FF | ||
| 167 | A7H | FF | ||
| 168 | A8H | FF | ||
| 169 | A9H | FF | ||
| 170 | AAH | FF | ||
| 171 | ABH | FF | ||
| 172 | ACH | FF | ||
| 173 | ADH | FF | ||
| 174 | AEH | FF | ||
| 175 | AFH | FF | ||
| 176 | B0H | FF | ||
| 177 | B1H | FF | ||
| 178 | B2H | FF | ||
| 179 | B3H | FF |
| 180 | B4H | FF | ||
| 181 | B5H | FF | ||
| 182 | B6H | FF | ||
| 183 | B7H | FF | ||
| 184 | B8H | FF | ||
| 185 | B9H | FF | ||
| 186 | BAH | FF | ||
| 187 | BBH | FF | ||
| 188 | BCH | FF | ||
| 189 | BDH | FF | ||
| 190 | BEH | FF | ||
| 191 | BFH | FF | ||
| 192 | C0H | FF | ||
| 193 | C1H | FF | ||
| 194 | C2H | FF | ||
| 195 | C3H | FF | ||
| 196 | C4H | FF | ||
| 197 | C5H | FF | ||
| 198 | C6H | FF | ||
| 199 | C7H | FF | ||
| 200 | C8H | FF | ||
| 201 | C9H | FF | ||
| 202 | CAH | FF | ||
| 203 | CBH | FF | ||
| 204 | CCH | FF | ||
| 205 | CDH | FF | ||
| 206 | CEH | FF | ||
| 207 | CFH | FF | ||
| 208 | D0H | FF | ||
| 209 | D1H | FF | ||
| 210 | D2H | FF | ||
| 211 | D3H | FF | ||
| 212 | D4H | FF | ||
| 213 | D5H | FF | ||
| 214 | D6H | FF | ||
| 215 | D7H | FF | ||
| 216 | D8H | FF | ||
| 217 | D9H | FF | ||
| 218 | DAH | FF | ||
| 219 | DBH | FF |
| 220 | DCH | FF | ||
| 221 | DDH | FF | ||
| 222 | DEH | FF | ||
| 223 | DFH | FF | ||
| 224 | E0H | FF | ||
| 225 | E1H | FF | ||
| 226 | E2H | FF | ||
| 227 | E3H | FF | ||
| 228 | E4H | FF | ||
| 229 | E5H | FF | ||
| 230 | E6H | FF | ||
| 231 | E7H | FF | ||
| 232 | E8H | FF | ||
| 233 | E9H | FF | ||
| 234 | EAH | FF | ||
| 235 | EBH | FF | ||
| 236 | ECH | FF | ||
| 237 | EDH | FF | ||
| 238 | EEH | FF | ||
| 239 | EFH | FF | ||
| 240 | F0H | FF | ||
| 241 | F1H | FF | ||
| 242 | F2H | FF | ||
| 243 | F3H | FF | ||
| 244 | F4H | FF | ||
| 245 | F5H | FF | ||
| 246 | F6H | FF | ||
| 247 | F7H | FF | ||
| 248 | F8H | FF | ||
| 249 | F9H | FF | ||
| 250 | FAH | FF | ||
| 251 | FBH | FF | ||
| 252 | FCH | FF | ||
| 253 | FDH | FF | ||
| 254 | FEH | FF | ||
| 255 | FFH | FF |
Environmental and reliability requirements
Environment
| Item | Unit | MIN | NORMAL | MAX | Item |
| Operating temperature | ℃ | 0 | 25 | 55 | 100% load |
| Storage temperature | ℃ | -40 | 85 | ||
| Storage humidity | % | 95 | Not turn on the power and on the no condensation. | ||
| Altitude | m | 0 | / | 5000 | When the power supply works for a long time, the maximum temperature at sea level (the maximum temperature defined in the specification book) decreases by 0.33°C for every 100mincrease in altitude. |
| Heat dissipation method | The power supply comes with air cooling (exhaust air from the DC terminal side to the AC input side) | ||||
| Noise | 58dB,@33℃,230Vac | Test method refers to ISO7779 bystander sound pressure level noise test | |||
MTBF
When the environment is 35℃ and 100% load, the mean time between failures (MTBF) of the power supply is greater than 200,000 hours.
Test environment requirement
| No | Test item | Standard | Note |
| 1 | Low Temperature Work) | 0℃ | 24h |
| 2 | High Temperature Work) | 55℃ | 24h |
| 3 | Low Temperature Storage) | -40℃ | 24h |
| 4 | High Temperature Storage) | 85℃ | 24h |
| 5 | Temperature Cycling | -5～55℃ | Each cycle is 3 hours, high and low temperature are 1 hour, 380 cycles |
Safety requirement
Safety
| Standard | Description |
| IEC 60950-1 | ‘Information technology equipment – Safety. Part 1: General requirements’, plus all existing national and group differences within the IECEE CB Scheme |
| GB 4943.1 | Safety of Information Technology Equipment (Including Electrical Business Equipment) (standard for China, equivalent to IEC 60950) |
| IEC 60664-1 | Insulation coordination for equipment within low-voltage systems -Part 1:Principles, requirements and tests |
| IEC62368-1 | Audio/video, information and communication technology equipment– Part 1: Safety requirements |
Withstand voltage test and leakage current requirements
| Test item | Requirement |
| primary versus secondary | The primary and secondary should be able to withstand 2545Vdc or 1800Vac for 1 minute, leakage current ≤20mA, and no breakdown or arcing. |
| Insulation resistance | Under normal atmospheric pressure, relative humidity <90%, no condensation, when the test voltage is 500VDC, the insulation resistance between primary and secondary, primary and protective ground and secondary and protective ground is ≥10M  |
| Leakage current | ＜3.5mA，264Vac |
EMC Requirement
| Item | Requirement | Standard | Note |
| （RE） | Frequency：30MHz～1GHz Class A | EN 55022 | 230V@50Hz powered |
| FCC part 15 | 120V@60Hz powered | ||
| （CE） | Frequency：150KHz～30MHz Class A | EN 55022 | 230V@50Hz powered |
| FCC part 15 | 120V@60Hz powered | ||
| （harmonic） | EN 61000-3-2 class A and Class D requiremnet. | EN 61000-3-2 | 230V@50Hz powered |
| （Flicker） | Pst not higher then 1.0； Plt value not over 0.65；The relative voltage change dc does not exceed 3.3%;The maximum relative voltage change dmax does not exceed 4%;The time during which the d(t) value exceeds 3.3% during voltage changes shall not exceed 500ms. | EN 61000-3-3 | 230V@50Hz powered |
| Item | Requirement | Category | Standard | Note |
| SURGE | AC input： Differential mode：±1KV， Common mode：±2KV | B | EN61000-4-5 EN 55024 | Basic requirement |
| EFT | AC input：±2KV | B | EN61000-4-4 EN 55024YD/T 1082 | |
| ESD | contact discharge：±6KVair discharge：±8KV | B | EN61000-4-2EN 55024 | |
| RS | 80M～800MHz 3V/m 800M～960MHz 10V/m 960M～1GHz 3V/m 1.4G～2GHz 10V/m2G～ 2.7GHz 3V/m 80% AM |
A | EN 61000-4-3 | |
| CS | 150KHz～80MHz 3V，80% AM |
A | EN 61000-4-6EN 55024 |
Dimension
73.5mm (W) x 40mm (H) x 185mm (D)
Pin Define
| Pin Number | Definition | Pin Number | Definition |
| A1 | GND | B1 | GND |
| A2 | GND | B2 | GND |
| A3 | GND | B3 | GND |
| A4 | GND | B4 | GND |
| A5 | GND | B5 | GND |
| A6 | GND | B6 | GND |
| A7 | GND | B7 | GND |
| A8 | GND | B8 | GND |
| A9 | GND | B9 | GND |
| A10 | +12V | B10 | +12V |
| A11 | +12V | B11 | +12V |
| A12 | +12V | B12 | +12V |
| A13 | +12V | B13 | +12V |
| A14 | +12V | B14 | +12V |
| A15 | +12V | B15 | +12V |
| A16 | +12V | B16 | +12V |
| A17 | +12V | B17 | +12V |
| A18 | +12V | B18 | +12V |
| A19 | SDA | B19 | A0 |
| A20 | SCL | B20 | A1 |
| A21 | PSON | B21 | +12VSB |
| A22 | SMB_ALERT | B22 | CRB |
| A23 | RETURN_SENSE | B23 | SHARE |
| A24 | REMOTE_SENSE | B24 | PRESENT |
| A25 | PWOK | B25 | AC_FAIL |
SilverStone Technology Co., Ltd.
www.silverstonetek.com
support@silverstonetek.com
Frequently Asked Questions
- Q: What is the maximum output power of the Gemini 1300C Platinum Module?
A: The maximum output power of the module is 1300W. - Q: Does the module have protection functions for input voltage?
A: Yes, the module has protection functions for input overcurrent, under voltage, and overvoltage. - Q: What is the efficiency certification of the Gemini 1300C Platinum Module?
A: The module is Cybenetics Platinum efficiency certified.
Documents / Resources
 |
SILVERSTONE Gemini Series 1300C Platinum Module [pdf] Owner's Manual Gemini Series, Gemini Series 1300C Platinum Module, 1300C Platinum Module, Platinum Module, Module |
