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 Zhuzhou Jiacheng Technology Development Co.

 Product Development Technology Agreement

 Agreement name: pure electric vehicle controller technology agreement
 Agreement Number:
 Party A:
 Unit Address:
 Phone number:
 Pass the truth:
 Party B: Xiamen Fugong Power Technology Co.

Address: No. 123, Cao Tang Road, Tongan District, Xiamen, China.

 Tel:0592-7213980
 Fax: 0592-7213991

After friendly negotiation, we reach the following agreement on Party A's use of Party B's whole vehicle controller:

 I. Overview


The pure electric vehicle controller, i.e. the powertrain controller, is the core control component of the whole vehicle, which collects accelerator pedal signals, brake pedal signals and other component signals, and makes corresponding judgments to control the actions of the lower level component controllers to drive the vehicle normally. As the command and management center of the pure electric vehicle, the main functions of the pure electric vehicle controller include: driving torque control, braking energy optimization control, energy management of the whole vehicle, CAN network maintenance and management, fault diagnosis and processing, vehicle status monitoring, etc. It plays the role of controlling the vehicle operation.

 II. Main product specifications

 Table 1 Main product specifications
 Control power supply operating voltage range / V(DC) 9 36 9 36 9∼369 \sim 36
 System operating current (at no load)/mA(DC) 120
 Rated input voltage / V(DC) 12
 Input voltage range / V(DC) 9 36 9 36 9∼369 \sim 36
 +5V Power Supply Maximum Output Current / A(DC) 1

+15V power supply maximum output current / mA ( DC mA ( DC mA(DC\mathrm{mA}(\mathrm{DC} )
50

-15V Power Supply Maximum Output Current / mA ( DC ) mA ( DC ) mA(DC)\mathrm{mA}(\mathrm{DC})
50
 Output Voltage Accuracy/V ± 0.1 ± 0.1 +-0.1\pm 0.1
 Output voltage rise time / ms 100 100 <= 100\leq 100
 Output voltage ripple noise / mV 50 50 <= 50\leq 50
 communication method
Total 2-way CAN communication, maximum rate 1 Mbps, baud rate 250 kHz
 analog input
Total 13: 8 0 + 5 V 0 + 5 V 0∼+5V0 \sim+5 \mathrm{~V} inputs, 3 0 to +5.5V inputs, 1 0 + 30 V 0 + 30 V 0∼+30V0 \sim+30 \mathrm{~V} input and 1 -5 to +5V input (accuracy: ± 1 % ) ± 1 % ) +-1%)\pm 1 \%) )
 analog output
Total 2: Output voltage 0 + 5 V 0 + 5 V 0∼+5V0 \sim+5 \mathrm{~V} (accuracy: ± 1 % ± 1 % +-1%\pm 1 \% )
控制电源工作电压范围 / V(DC) 9∼36 系统工作电流(空载时)/mA(DC) 120 额定输入电压 / V(DC) 12 输入电压范围 / V(DC) 9∼36 +5V 电源最大输出电流 / A(DC) 1 +15V 电源最大输出电流 / mA(DC ) 50 -15V 电源最大输出电流 / mA(DC) 50 输出电压精度/V +-0.1 输出电压上升时间 / ms <= 100 输出电压纹波噪声 / mV <= 50 通信方式 共2路 CAN 通信,最大速率 1 Mbps ,波特率 250 kHz 模拟量输入 共13路: 8 路 0∼+5V 输入,3路 0~+5.5V输, 1 路 0∼+30V 输入以及 1 路-5~+5V 输入(精度: +-1%) 模拟量输出 共 2 路:输出电压为 0∼+5V (精度: +-1% )| 控制电源工作电压范围 / V(DC) | $9 \sim 36$ | | :---: | :---: | | 系统工作电流(空载时)/mA(DC) | 120 | | 额定输入电压 / V(DC) | 12 | | 输入电压范围 / V(DC) | $9 \sim 36$ | | +5V 电源最大输出电流 / A(DC) | 1 | | +15V 电源最大输出电流 / $\mathrm{mA}(\mathrm{DC}$ ) | 50 | | -15V 电源最大输出电流 / $\mathrm{mA}(\mathrm{DC})$ | 50 | | 输出电压精度/V | $\pm 0.1$ | | 输出电压上升时间 / ms | $\leq 100$ | | 输出电压纹波噪声 / mV | $\leq 50$ | | 通信方式 | 共2路 CAN 通信,最大速率 1 Mbps ,波特率 250 kHz | | 模拟量输入 | 共13路: 8 路 $0 \sim+5 \mathrm{~V}$ 输入,3路 0~+5.5V输, 1 路 $0 \sim+30 \mathrm{~V}$ 输入以及 1 路-5~+5V 输入(精度: $\pm 1 \%)$ | | 模拟量输出 | 共 2 路:输出电压为 $0 \sim+5 \mathrm{~V}$ (精度: $\pm 1 \%$ ) |
 digital input
Total 20 channels: 10 high level valid inputs, 10 low level valid inputs
 digital output
Total 18 channels: 8 high side outputs ( + 24 V / + 12 V + 24 V / + 12 V +24V//+12V+24 \mathrm{~V} /+12 \mathrm{~V} ), 10 low side outputs ( + 24 V / + 12 V + 24 V / + 12 V +24V//+12V+24 \mathrm{~V} /+12 \mathrm{~V} ), 10 low side outputs ( + 24 V / + 12 V + 24 V / + 12 V +24V//+12V+24 \mathrm{~V} /+12 \mathrm{~V})
 PWM Output
Total 2: +24 V high level square wave (12 V platform is +12 V high level square wave)
 protective function  Power supply anti-reverse connection protection
 waterproof rating IP67
 Exterior Dimensions 202.516738 mm
数字量输入 共20路:10路高电平有效输入,10路低电平有效输入 数字量输出 共18路: 8 路高边输出( +24V//+12V ), 10 路低边输 PWM 输出 共 2 路:高电平为 +24 V 的方波( 12 V 平台的就是高电平为 +12 V 的方波) 保护功能 电源防反接保护 防水等级 IP67 外观尺寸 202.516738 mm| 数字量输入 | 共20路:10路高电平有效输入,10路低电平有效输入 | | :---: | :---: | | 数字量输出 | 共18路: 8 路高边输出( $+24 \mathrm{~V} /+12 \mathrm{~V}$ ), 10 路低边输 | | PWM 输出 | 共 2 路:高电平为 +24 V 的方波( 12 V 平台的就是高电平为 +12 V 的方波) | | 保护功能 | 电源防反接保护 | | 防水等级 | IP67 | | 外观尺寸 | 202.5*167*38 mm |

 III. Cited standards and norms


QC/T413-2002 Basic technical conditions for automobile electrical equipment

 GB19596-2004 Electric Vehicle Terminology

GB/T 19000-2008/IS0 9000:2005 Quality Management System Basics and Terminology


GB/T 19001-2008/ISO 9001:2008 Quality Management System Requirements


GB/T 13384-2008 General Technical Conditions for Packaging of Electromechanical Products


GB/T 17626.2-2006 Electromagnetic compatibility Test and measurement techniques Electrostatic discharge immunity test


GB/T17619-1998 Electromagnetic Radiation Immunity Limits and Measurement Methods for Electronic and Electrical Components of Motor Vehicles


IS0 7637-2-2004 Road vehicles . Conducted and coupling-induced electrical disturbances . Part 2: Instantaneous conductance along power lines only.

 GB19596 Electric Vehicle Terminology
 GB193 General Technical Requirements for Packaging of Various Types of Electrotechnical Products

GB/T 2423.1 Environmental test for electrical and electronic products (low temperature)


GB/T 2423.2 Environmental test for electrical and electronic products (high temperature)


QB/T 2423.17 Environmental test for electrical and electronic products (salt spray)

 QC/T 29106 Technical conditions for automobile low-voltage wire harnesses
 GB/T18385 Test Method for Power Performance of Electric Vehicles

GB/T18386 Test Methods for Energy Consumption Rate and Driving Range of Electric Vehicles


GB/T20234 General requirements for plugs, sockets, vehicle couplers and vehicle jacks for conductive charging of electric vehicles


GB18655 Limits and measurement methods for radio nuisance characteristics for the protection of vehicle receivers


GB/T17619 Electromagnetic Radiation Immunity Limits and Measurement Methods for Electronic and Electrical Components of Motor Vehicles


GB/T19951 Road vehicles--Test method for electrical interference caused by electrostatic discharge


GB/T21437.2 Emission test and immunity test through power lines


GB/T21437. 3 Transient immunity coupled to non-power line
SAE J 1939/11

GB/T 18858. 3-2002 Low-voltage switchgear and controlgear Controller-Device Interface (CDI)


GB/T18487.1-2001 Conductive charging system for electric vehicles General requirements


GB/T18487. 2-2001 Conductive charging system for electric vehicles Requirements for connection of electric vehicles to AC/DC power sources


GB/T18487.3-2001 Conductive charging system for electric vehicles Electric vehicles and AC/DC chargers (stations)


GB/T 18387-2008 Limit values and measurement methods of electromagnetic field radiation intensity for electric vehicles Bandwidth 9 kHz 30 MHz 9 kHz 30 MHz 9kHz∼30MHz9 \mathrm{kHz} \sim 30 \mathrm{MHz}


GB/T 14023-2006 Limits and methods of measurement of radio-nuisance characteristics of vehicles, motorized vessels and apparatus driven by spark-ignition engines


GB/T 17619-1998 Electromagnetic Radiation Immunity Limits and Measurement Methods for Electronic and Electrical Components of Motor Vehicles


TB/T 3034-2002 Electromagnetic compatibility testing of electrical equipment for rolling stock and its limits

 IV. Environmental conditions

 Table 2 Environmental conditions
 serial number  sports event  technical indicator  unit (of measure)  note
1  operating temperature 40 + 85 40 + 85 -40∼+85-40 \sim+85 C C ^(@)C{ }^{\circ} \mathrm{C}  long hours
2  Storage temperature 65 + 150 65 + 150 -65∼+150-65 \sim+150 C C ^(@)C{ }^{\circ} \mathrm{C}  The power's not coming on.
3  relative humidity 5 % 90 % 5 % 90 % 5%∼90%5 \% \sim 90 \% % % %\%  non-condensing
4  protection class IP67
5  Cooling method  natural air cooling
序号 项目 技术指标 单位 备注 1 工作温度 -40∼+85 ^(@)C 长时间工作 2 存储温度 -65∼+150 ^(@)C 电源不上电 3 相对湿度 5%∼90% % 无冷凝 4 防护等级 IP67 5 冷却方式 自然风冷 | 序号 | 项目 | 技术指标 | 单位 | 备注 | | :---: | :---: | :---: | :---: | :---: | | 1 | 工作温度 | $-40 \sim+85$ | ${ }^{\circ} \mathrm{C}$ | 长时间工作 | | 2 | 存储温度 | $-65 \sim+150$ | ${ }^{\circ} \mathrm{C}$ | 电源不上电 | | 3 | 相对湿度 | $5 \% \sim 90 \%$ | $\%$ | 无冷凝 | | 4 | 防护等级 | IP67 | | | | 5 | 冷却方式 | 自然风冷 | | |

 V. Safety characteristics

 serial number  Item  test condition  Remarks
1  electrical strength  input one output 1500Vac/2mA/ 1min
 Input a large ground
2  electrical insulation resistance  Input 1 Output Input 1 Enclosure 20 M Ω 20 M Ω >= 20MOmega\geqslant 20 \mathrm{M} \Omega  500Vdc, ambient temperature, tested at 90% relative humidity.
序号 项 目 测试条件 备 注 1 抗电强度 输入一输出 1500Vac/2mA/ 1min 输入一大地 2 绝缘电阻 输入一输出输入一机壳 >= 20MOmega 500Vdc, 常温, 相对湿度 90%中测试| 序号 | 项 目 | | 测试条件 | 备 注 | | :---: | :---: | :---: | :---: | :---: | | 1 | 抗电强度 | 输入一输出 | 1500Vac/2mA/ 1min | | | | | 输入一大地 | | | | 2 | 绝缘电阻 | 输入一输出输入一机壳 | $\geqslant 20 \mathrm{M} \Omega$ | 500Vdc, 常温, 相对湿度 90%中测试 |

 VI. Environmental testing

 serial number  Item  Technical Indicators  Implementation standard number
1  low-temperature test
Functional status according to IS0 16750-1, Chapter 6 Class A
ISO 16750-4, 2010
2  High temperature test
Functional status according to IS0 16750-1, Chapter 6 Class A
IS0 16750-4, 2010
3  vibratory  Components should be undamaged after vibration test. Q C /T 413-2002
4  Salt spray test  Functionality is normal in post-test retest GB/T2423. 17-2008
序号 项 目 技 术 指 标 执行标准号 1 低温试验 功能状态按IS0 16750-1, 6章规定 A 级 ISO 16750-4, 2010 2 高温试验 功能状态按IS0 16750-1, 6章规定 A 级 IS0 16750-4, 2010 3 振动 经振动试验后, 元器件应无损坏 Q C /T 413-2002 4 盐雾试验 试验后复测功能正常 GB/T2423. 17-2008| 序号 | 项 目 | 技 术 指 标 | 执行标准号 | | :---: | :---: | :---: | :---: | | 1 | 低温试验 | 功能状态按IS0 16750-1, 6章规定 A 级 | ISO 16750-4, 2010 | | 2 | 高温试验 | 功能状态按IS0 16750-1, 6章规定 A 级 | IS0 16750-4, 2010 | | 3 | 振动 | 经振动试验后, 元器件应无损坏 | Q C /T 413-2002 | | 4 | 盐雾试验 | 试验后复测功能正常 | GB/T2423. 17-2008 |
5  Reverse voltage test  Functional status according to IS0 16750-1, chapter 6, class A  IS0 16750-2, 2010
6  Short circuit protection test  Functional status according to IS0 16750-1, chapter 6, class C  IS0 16750-2, 2010
7  Startup Characteristics  Functional status according to IS0 16750-1, chapter 6, class C  IS0 16750-2, 2010
8
 Normal voltage range test
正常电压范围试 验| 正常电压范围试 | | :---: | | 验 |

Functional status according to IS0 16750-1, Chapter 6 Class A
 IS0 16750-2, 2010
9  IP67 test  After the test and re-test function is normal, no water inside the shell phenomenon

GB4208-2008 enclosure protection level (IP code)
GB4208-2008外壳防护等级 (IP代码)| GB4208-2008外壳防护等级 | | :---: | | (IP代码) |
5 反向电压试验 功能状态按IS0 16750-1, 6章规定A级 IS0 16750-2,2010 6 短路保护测试 功能状态按IS0 16750-1, 6章规定C级 IS0 16750-2,2010 7 启动特性 功能状态按IS0 16750-1, 6章规定C级 IS0 16750-2,2010 8 "正常电压范围试 验" 功能状态按IS0 16750-1, 6章规定 A 级 IS0 16750-2,2010 9 IP67试验 试验后复测功能正常,壳体内部无进水现象 "GB4208-2008外壳防护等级 (IP代码)"| 5 | 反向电压试验 | 功能状态按IS0 16750-1, 6章规定A级 | IS0 16750-2,2010 | | :---: | :---: | :---: | :---: | | 6 | 短路保护测试 | 功能状态按IS0 16750-1, 6章规定C级 | IS0 16750-2,2010 | | 7 | 启动特性 | 功能状态按IS0 16750-1, 6章规定C级 | IS0 16750-2,2010 | | 8 | 正常电压范围试 <br> 验 | 功能状态按IS0 16750-1, 6章规定 A 级 | IS0 16750-2,2010 | | 9 | IP67试验 | 试验后复测功能正常,壳体内部无进水现象 | GB4208-2008外壳防护等级 <br> (IP代码) |

 VII. Controller Terminal Signal Definition


The main board connector of the controller is model number 284617-1, as shown in Figure 2. The corresponding connector model number is 284743-1 (60P), 284742-1 (94P), and the signal definition and parameters of the connector are shown in Table 3.

 Figure 1 284617-1
 Table 3 Controller definitions and parameters
 form  pin  functional definition  Parameter range
 Power Input 24V+ K02  First gear power positive 9 36V
24V- K01  First gear power ground
24V2  K04, K06  Second gear power positive 5.5 35V
24V-  K03, K05  Second gear power ground
 power output (of an electrical device etc)

+5 V output (E5V)
+5 V 输出 (E5V)| +5 V 输出 | | :--- | | (E5V) |
K 12 K 20 , K 23 K 28 , K 43 , K 65 K 12 K 20 , K 23 K 28 , K 43 , K 65 {:[K12∼K20","],[K23∼K28","],[K43","K65]:}\begin{gathered} \mathrm{K} 12 \sim \mathrm{~K} 20, \\ \mathrm{~K} 23 \sim \mathrm{~K} 28, \\ \mathrm{~K} 43, \mathrm{~K} 65 \end{gathered}  Sensor 5V power supply  Maximum total output current 1.2 A
EGND K 29 K 32 , K07 K11, K44 K50 K 29 K 32 ,  K07 K11,   K44 K50  {:[K29∼K32","],[" K07 K11, "],[" K44 K50 "]:}\begin{aligned} & \mathrm{K} 29 \sim \mathrm{~K} 32, \\ & \text { K07 K11, } \\ & \text { K44 K50 } \end{aligned}  sensor site
 analog input AINO K94  0th analog input 0 + 5 V 0 + 5 V 0∼+5V0 \sim+5 V
AIN1 K72  1st analog input 0 + 5 V 0 + 5 V 0∼+5V0 \sim+5 V
AIN2 K93  2nd analog input 0 + 5 V 0 + 5 V 0∼+5V0 \sim+5 V
AIN3 K71  3rd analog input 0 + 5 V 0 + 5 V 0∼+5V0 \sim+5 V
AIN4 K92  4th analog input 0 + 5 V 0 + 5 V 0∼+5V0 \sim+5 V
AIN5 K70  5th analog input 0 + 5 V 0 + 5 V 0∼+5V0 \sim+5 V
AIN6 K91  6th analog input 0 + 5.5 V 0 + 5.5 V 0∼+5.5V0 \sim+5.5 \mathrm{~V}
类别 针脚 功能定义 参数范围 电源输入 24V+ K02 第一档电源正 9 36V 24V- K01 第一档电源地 24V2 K04、K06 第二档电源正 5.5 35V 24V- K03、K05 第二档电源地 电源输出 "+5 V 输出 (E5V)" "K12∼K20, K23∼K28, K43,K65" 传感器5V 电源 总输出最大电流 1.2 A EGND "K29∼K32, K07 K11, K44 K50 " 传感器地 模拟输入 AINO K94 第 0 路模拟量输入 0∼+5V AIN1 K72 第1路模拟量输入 0∼+5V AIN2 K93 第2路模拟量输入 0∼+5V AIN3 K71 第3路模拟量输入 0∼+5V AIN4 K92 第4路模拟量输入 0∼+5V AIN5 K70 第5路模拟量输入 0∼+5V AIN6 K91 第6路模拟量输入 0∼+5.5V| 类别 | | 针脚 | 功能定义 | 参数范围 | | :---: | :---: | :---: | :---: | :---: | | 电源输入 | 24V+ | K02 | 第一档电源正 | 9 36V | | | 24V- | K01 | 第一档电源地 | | | | 24V2 | K04、K06 | 第二档电源正 | 5.5 35V | | | 24V- | K03、K05 | 第二档电源地 | | | 电源输出 | +5 V 输出 <br> (E5V) | $\begin{gathered} \mathrm{K} 12 \sim \mathrm{~K} 20, \\ \mathrm{~K} 23 \sim \mathrm{~K} 28, \\ \mathrm{~K} 43, \mathrm{~K} 65 \end{gathered}$ | 传感器5V 电源 | 总输出最大电流 1.2 A | | | EGND | $\begin{aligned} & \mathrm{K} 29 \sim \mathrm{~K} 32, \\ & \text { K07 K11, } \\ & \text { K44 K50 } \end{aligned}$ | 传感器地 | | | 模拟输入 | AINO | K94 | 第 0 路模拟量输入 | $0 \sim+5 V$ | | | AIN1 | K72 | 第1路模拟量输入 | $0 \sim+5 V$ | | | AIN2 | K93 | 第2路模拟量输入 | $0 \sim+5 V$ | | | AIN3 | K71 | 第3路模拟量输入 | $0 \sim+5 V$ | | | AIN4 | K92 | 第4路模拟量输入 | $0 \sim+5 V$ | | | AIN5 | K70 | 第5路模拟量输入 | $0 \sim+5 V$ | | | AIN6 | K91 | 第6路模拟量输入 | $0 \sim+5.5 \mathrm{~V}$ |
AIN7 K69  7th analog input 0 + 5.5 V 0 + 5.5 V 0∼+5.5V0 \sim+5.5 \mathrm{~V}
AIN8 K90  8th analog input 0 +30V
AIN9 K68  9 analog inputs -5V +5V
AIN10 K89  10th analog input 0 + 5 V 0 + 5 V 0∼+5V0 \sim+5 V
AIN11 K67  11th analog input 0 + 5 V 0 + 5 V 0∼+5V0 \sim+5 V
AIN12 K88  12th analog input 0 + 5.5 V 0 + 5.5 V 0∼+5.5V0 \sim+5.5 \mathrm{~V}
 analog output DACOUT1 K66  1st analog output 0 + 5 V 0 + 5 V 0∼+5V0 \sim+5 V
DACOUT2 K86  2nd analog output 0 + 5 V 0 + 5 V 0∼+5V0 \sim+5 V
 digital input XDIN1 K64  1st digital input  High level input valid (+24V)
XDIN2 K42  2nd digital input
High level input valid ( +24 V )
XDIN3 K80  3rd digital input  High-level input valid (+24 V )
XDIN4 K59  4th digital input
High level input valid ( +24 V )
XDIN5 K37  5th digital input  High-level input valid (+24 V )
XDIN6 K35  6th digital input  High level input valid (+24 V)
XDIN7 K36  7th digital input  High-level input valid (+24 V )
XDIN8 K58  8th digital input  High level input valid (+24V)
XDIN9 K40  9 digital inputs  Low Level Input Valid
XDIN10 K83  10th digital input  Low Level Input Valid
XDIN11 K61  11th digital input  Low Level Input Valid
XDIN12 K39  12th digital input  Low Level Input Valid
XDIN13 K82  13th digital input  Low Level Input Valid
XDIN14 K60  14th digital input  Low Level Input Valid
XDIN15 K38  15th digital input  Low Level Input Valid
XDIN16 K81  16th digital input  Low Level Input Valid
XDIN17 K41  17th digital input  High level input valid (+24 V)
XDIN18 K63  18th digital input  High level input valid (+24V)
XDIN19 K84  19th digital input  Low Level Input Valid
XDIN20 K62  20th digital input  Low Level Input Valid
 digital output OUT3 A47  Load current 200 mA

High output effective (+24 V) (total output max. current 1.6 A single max. output current 500 mA )
高输出有效( +24 V ) (总输出最大电流 1.6 A单路最大输出电流 500 mA )| 高输出有效( +24 V ) | | :--- | | (总输出最大电流 1.6 A单路最大输出电流 500 mA ) |
OUT4 A32  Load current 200 mA
OUT5 A48  Load current 200 mA
OUT6 A33  Load current 200 mA
OUT7 A49  Load current 200 mA
OUT8 A34  Load current 200mA
OUT17 A54  Load current 200 mA
OUT18 A39  Load current 200 mA
OUT1 A46  Load current 160 mA
OUT2 A31  Load current 160 mA
OUT9 A50  Load current 160 mA
OUT10 A35  Load current 160 mA
AIN7 K69 第7路模拟量输入 0∼+5.5V AIN8 K90 第8路模拟量输入 0 +30V AIN9 K68 第 9 路模拟量输入 -5V +5V AIN10 K89 第10路模拟量输入 0∼+5V AIN11 K67 第11路模拟量输入 0∼+5V AIN12 K88 第12路模拟量输入 0∼+5.5V 模拟输出 DACOUT1 K66 第1路模拟输出 0∼+5V DACOUT2 K86 第2路模拟输出 0∼+5V 数字量输入 XDIN1 K64 第1路数字量输入 高电平输入有效(+24V) XDIN2 K42 第2路数字量输入 高电平输入有效 ( +24 V ) XDIN3 K80 第3路数字量输入 高电平输入有效( +24 V ) XDIN4 K59 第4路数字量输入 高电平输入有效 ( +24 V ) XDIN5 K37 第5路数字量输入 高电平输入有效( +24 V ) XDIN6 K35 第6路数字量输入 高电平输入有效( +24 V ) XDIN7 K36 第7路数字量输入 高电平输入有效( +24 V ) XDIN8 K58 第8路数字量输入 高电平输入有效(+24V) XDIN9 K40 第 9 路数字量输入 低电平输入有效 XDIN10 K83 第10路数字量输入 低电平输入有效 XDIN11 K61 第11路数字量输入 低电平输入有效 XDIN12 K39 第12路数字量输入 低电平输入有效 XDIN13 K82 第13路数字量输入 低电平输入有效 XDIN14 K60 第14路数字量输入 低电平输入有效 XDIN15 K38 第15路数字量输入 低电平输入有效 XDIN16 K81 第16路数字量输入 低电平输入有效 XDIN17 K41 第17路数字量输入 高电平输入有效( +24 V ) XDIN18 K63 第18路数字量输入 高电平输入有效(+24V) XDIN19 K84 第19路数字量输入 低电平输入有效 XDIN20 K62 第20路数字量输入 低电平输入有效 数字量输出 OUT3 A47 负载电流 200 mA "高输出有效( +24 V ) (总输出最大电流 1.6 A单路最大输出电流 500 mA )" OUT4 A32 负载电流 200 mA OUT5 A48 负载电流 200 mA OUT6 A33 负载电流 200 mA OUT7 A49 负载电流 200 mA OUT8 A34 负载电流 200mA OUT17 A54 负载电流 200 mA OUT18 A39 负载电流 200 mA OUT1 A46 负载电流 160 mA OUT2 A31 负载电流 160 mA OUT9 A50 负载电流 160 mA OUT10 A35 负载电流 160 mA | | AIN7 | K69 | 第7路模拟量输入 | $0 \sim+5.5 \mathrm{~V}$ | | :---: | :---: | :---: | :---: | :---: | | | AIN8 | K90 | 第8路模拟量输入 | 0 +30V | | | AIN9 | K68 | 第 9 路模拟量输入 | -5V +5V | | | AIN10 | K89 | 第10路模拟量输入 | $0 \sim+5 V$ | | | AIN11 | K67 | 第11路模拟量输入 | $0 \sim+5 V$ | | | AIN12 | K88 | 第12路模拟量输入 | $0 \sim+5.5 \mathrm{~V}$ | | 模拟输出 | DACOUT1 | K66 | 第1路模拟输出 | $0 \sim+5 V$ | | | DACOUT2 | K86 | 第2路模拟输出 | $0 \sim+5 V$ | | 数字量输入 | XDIN1 | K64 | 第1路数字量输入 | 高电平输入有效(+24V) | | | XDIN2 | K42 | 第2路数字量输入 | 高电平输入有效 ( +24 V ) | | | XDIN3 | K80 | 第3路数字量输入 | 高电平输入有效( +24 V ) | | | XDIN4 | K59 | 第4路数字量输入 | 高电平输入有效 ( +24 V ) | | | XDIN5 | K37 | 第5路数字量输入 | 高电平输入有效( +24 V ) | | | XDIN6 | K35 | 第6路数字量输入 | 高电平输入有效( +24 V ) | | | XDIN7 | K36 | 第7路数字量输入 | 高电平输入有效( +24 V ) | | | XDIN8 | K58 | 第8路数字量输入 | 高电平输入有效(+24V) | | | XDIN9 | K40 | 第 9 路数字量输入 | 低电平输入有效 | | | XDIN10 | K83 | 第10路数字量输入 | 低电平输入有效 | | | XDIN11 | K61 | 第11路数字量输入 | 低电平输入有效 | | | XDIN12 | K39 | 第12路数字量输入 | 低电平输入有效 | | | XDIN13 | K82 | 第13路数字量输入 | 低电平输入有效 | | | XDIN14 | K60 | 第14路数字量输入 | 低电平输入有效 | | | XDIN15 | K38 | 第15路数字量输入 | 低电平输入有效 | | | XDIN16 | K81 | 第16路数字量输入 | 低电平输入有效 | | | XDIN17 | K41 | 第17路数字量输入 | 高电平输入有效( +24 V ) | | | XDIN18 | K63 | 第18路数字量输入 | 高电平输入有效(+24V) | | | XDIN19 | K84 | 第19路数字量输入 | 低电平输入有效 | | | XDIN20 | K62 | 第20路数字量输入 | 低电平输入有效 | | 数字量输出 | OUT3 | A47 | 负载电流 200 mA | 高输出有效( +24 V ) <br> (总输出最大电流 1.6 A单路最大输出电流 500 mA ) | | | OUT4 | A32 | 负载电流 200 mA | | | | OUT5 | A48 | 负载电流 200 mA | | | | OUT6 | A33 | 负载电流 200 mA | | | | OUT7 | A49 | 负载电流 200 mA | | | | OUT8 | A34 | 负载电流 200mA | | | | OUT17 | A54 | 负载电流 200 mA | | | | OUT18 | A39 | 负载电流 200 mA | | | | OUT1 | A46 | 负载电流 160 mA | | | | OUT2 | A31 | 负载电流 160 mA | | | | OUT9 | A50 | 负载电流 160 mA | | | | OUT10 | A35 | 负载电流 160 mA | |
OUT11 A51  Load current 160 mA

Low Output Effective (Total Output Maximum Current 1.6 A Single Maximum Output Current 500 mA)
低输出有效 (总输出最大电流 1.6 A单路最大输出电流 500 mA )| 低输出有效 | | :--- | | (总输出最大电流 1.6 A单路最大输出电流 500 mA ) |
OUT12 A36  Load Current 160mA
OUT13 A52  Load current 160 mA
OUT14 A37  Load current 160 mA
OUT15 A53  Load Current 160mA
OUT16 A38  Load Current 160mA
 Frequency Input FREQ1 K73  Frequency input 1  Pulse high level 24 V 24 V <= 24V\leq 24 \mathrm{~V}
FREQ2 K51  Frequency input 2
 PWM Output PWMO1 A56  1st PWM output
Square wave +5 V or +24 V (+12 V)
PWMO2 A41  2nd PWM output
 CAN communication CAN1H A15  First CAN
CAN1L A30
CAN2H A45  Second CAN
CAN2L A60
CAN3H A44  Third CAN
CAN3L A59
 rollover BOOT A57
TXD A29
RXD A14
GND A28
5V (B5V) A42
OUT11 A51 负载电流 160 mA "低输出有效 (总输出最大电流 1.6 A单路最大输出电流 500 mA )" OUT12 A36 负载电流 160mA OUT13 A52 负载电流 160 mA OUT14 A37 负载电流 160 mA OUT15 A53 负载电流 160mA OUT16 A38 负载电流 160mA 频率输入 FREQ1 K73 频率输入 1 脉冲高电平 <= 24V FREQ2 K51 频率输入2 PWM 输出 PWMO1 A56 第1路 PWM 输出 +5 V 或 +24 V ( +12 V )的方波 PWMO2 A41 第2路 PWM 输出 CAN 通信 CAN1H A15 第一路 CAN CAN1L A30 CAN2H A45 第二路 CAN CAN2L A60 CAN3H A44 第三路 CAN CAN3L A59 串ロ BOOT A57 TXD A29 RXD A14 GND A28 5V (B5V) A42 | | OUT11 | A51 | 负载电流 160 mA | 低输出有效 <br> (总输出最大电流 1.6 A单路最大输出电流 500 mA ) | | :---: | :---: | :---: | :---: | :---: | | | OUT12 | A36 | 负载电流 160mA | | | | OUT13 | A52 | 负载电流 160 mA | | | | OUT14 | A37 | 负载电流 160 mA | | | | OUT15 | A53 | 负载电流 160mA | | | | OUT16 | A38 | 负载电流 160mA | | | 频率输入 | FREQ1 | K73 | 频率输入 1 | 脉冲高电平 $\leq 24 \mathrm{~V}$ | | | FREQ2 | K51 | 频率输入2 | | | PWM 输出 | PWMO1 | A56 | 第1路 PWM 输出 | +5 V 或 +24 V ( +12 V )的方波 | | | PWMO2 | A41 | 第2路 PWM 输出 | | | CAN 通信 | CAN1H | A15 | | 第一路 CAN | | | CAN1L | A30 | | | | | CAN2H | A45 | | 第二路 CAN | | | CAN2L | A60 | | | | | CAN3H | A44 | | 第三路 CAN | | | CAN3L | A59 | | | | 串ロ | BOOT | A57 | | | | | TXD | A29 | | | | | RXD | A14 | | | | | GND | A28 | | | | | 5V (B5V) | A42 | | |

Among them, the plug configuration corresponding to the vehicle controller is shown in Table 4.

 Table 4 Plug configurations corresponding to vehicle controllers
 Connector name  Specification  Adaptor Terminal  waterproof plug  blind plug  rated current
 94 Wire Receptacle Sheathing 284743-1

968220-1: 0.35mm² (wire diameter) 968221-1: 0.5-0.75mm² (wire diameter) (84 small terminals)
968220-1: 0.35mm² (线径) 968221-1: 0.5-0.75mm² (线径) (84 个小端子)| 968220-1: 0.35mm² (线径) | | :--- | | 968221-1: 0.5-0.75mm² (线径) | | (84 个小端子) |
1394872-1 3.5A
1241608-1: 0.75 1.5 mm 2 (线径) 1452158 1 : 0.5 mm 2 (线径) (4 个中端子)  1241608-1:  0.75 1.5 mm 2  (线径)  1452158 1 : 0.5 mm 2  (线径)   (4 个中端子)  {:[" 1241608-1: "0.75-1.5mm^(2)" (线径) "],[1452158-1:0.5mm^(2)" (线径) "],[" (4 个中端子) "]:}\begin{gathered} \text { 1241608-1: } 0.75-1.5 \mathrm{~mm}^{2} \text { (线径) } \\ 1452158-1: 0.5 \mathrm{~mm}^{2} \text { (线径) } \\ \text { (4 个中端子) } \end{gathered}线线 1394871-1 5A
1241394-1: 0.5 1 mm 2 (线径) 1241396-1: 1 2.5 mm 2 (线径) (6 个大端子)  1241394-1:  0.5 1 mm 2  (线径)   1241396-1:  1 2.5 mm 2  (线径)   (6 个大端子)  {:[" 1241394-1: "0.5-1mm^(2)" (线径) "],[" 1241396-1: "1-2.5mm^(2)" (线径) "],[" (6 个大端子) "]:}\begin{gathered} \text { 1241394-1: } 0.5-1 \mathrm{~mm}^{2} \text { (线径) } \\ \text { 1241396-1: } 1-2.5 \mathrm{~mm}^{2} \text { (线径) } \\ \text { (6 个大端子) } \end{gathered}线线 828905-1 828922-1 25A
 60 wire socket sheath 284742-1 968220 1 : 0.35 mm 2 (线径) 968221 1 : 0.5 0.75 mm 2 (线径) (36 个小端子) 968220 1 : 0.35 mm 2  (线径)  968221 1 : 0.5 0.75 mm 2  (线径)   (36 个小端子)  {:[968220-1:quad0.35mm^(2)" (线径) "],[968221-1:0.5-0.75mm^(2)" (线径) "],[" (36 个小端子) "]:}\begin{gathered} 968220-1: \quad 0.35 \mathrm{~mm}^{2} \text { (线径) } \\ 968221-1: 0.5-0.75 \mathrm{~mm}^{2} \text { (线径) } \\ \text { (36 个小端子) } \end{gathered}线线 1394872-1 3.5A
插接件名称 规格型号 适配端子 防水塞 盲堵 额定电流 94 线插座护套 284743-1 "968220-1: 0.35mm² (线径) 968221-1: 0.5-0.75mm² (线径) (84 个小端子)" 1394872-1 3.5A " 1241608-1: 0.75-1.5mm^(2) (线径) 1452158-1:0.5mm^(2) (线径) (4 个中端子) " 1394871-1 5A " 1241394-1: 0.5-1mm^(2) (线径) 1241396-1: 1-2.5mm^(2) (线径) (6 个大端子) " 828905-1 828922-1 25A 60 线插座护套 284742-1 "968220-1:quad0.35mm^(2) (线径) 968221-1:0.5-0.75mm^(2) (线径) (36 个小端子) " 1394872-1 3.5A| 插接件名称 | 规格型号 | 适配端子 | 防水塞 | 盲堵 | 额定电流 | | :---: | :---: | :---: | :---: | :---: | :---: | | 94 线插座护套 | 284743-1 | 968220-1: 0.35mm² (线径) <br> 968221-1: 0.5-0.75mm² (线径) <br> (84 个小端子) | | 1394872-1 | 3.5A | | | | $\begin{gathered} \text { 1241608-1: } 0.75-1.5 \mathrm{~mm}^{2} \text { (线径) } \\ 1452158-1: 0.5 \mathrm{~mm}^{2} \text { (线径) } \\ \text { (4 个中端子) } \end{gathered}$ | | 1394871-1 | 5A | | | | $\begin{gathered} \text { 1241394-1: } 0.5-1 \mathrm{~mm}^{2} \text { (线径) } \\ \text { 1241396-1: } 1-2.5 \mathrm{~mm}^{2} \text { (线径) } \\ \text { (6 个大端子) } \end{gathered}$ | 828905-1 | 828922-1 | 25A | | 60 线插座护套 | 284742-1 | $\begin{gathered} 968220-1: \quad 0.35 \mathrm{~mm}^{2} \text { (线径) } \\ 968221-1: 0.5-0.75 \mathrm{~mm}^{2} \text { (线径) } \\ \text { (36 个小端子) } \end{gathered}$ | | 1394872-1 | 3.5A |

1241608 1 : 0.75 1.5 mm 2 1241608 1 : 0.75 1.5 mm 2 1241608-1:0.75-1.5mm^(2)1241608-1: 0.75-1.5 \mathrm{~mm}^{2} (wire diameter) 1452158 1 : 0.5 mm 2 1452158 1 : 0.5 mm 2 1452158-1:0.5mm^(2)1452158-1: 0.5 \mathrm{~mm}^{2} (wire diameter) (24 center terminals)
1241608-1:0.75-1.5mm^(2) (线径) 1452158-1:0.5mm^(2) (线径) (24 个中端子)| $1241608-1: 0.75-1.5 \mathrm{~mm}^{2}$ (线径) | | :---: | | $1452158-1: 0.5 \mathrm{~mm}^{2}$ (线径) | | (24 个中端子) |
1394871 1 1394871 1 1394871-11394871-1 5 A
"1241608-1:0.75-1.5mm^(2) (线径) 1452158-1:0.5mm^(2) (线径) (24 个中端子)" 1394871-1 5 A| | $1241608-1: 0.75-1.5 \mathrm{~mm}^{2}$ (线径) <br> $1452158-1: 0.5 \mathrm{~mm}^{2}$ (线径) <br> (24 个中端子) | $1394871-1$ | 5 A | | :---: | :---: | :---: | :---: |

 VIII. Mechanical Characteristics and Connector Definitions

 The shape and mounting dimensions of the pure electric vehicle controller are shown in Figure 1.
 Fig. 2 Outline and mounting dimensions of the whole vehicle controller
 NOTE: Whole vehicle controller installation requirements:

(1) The lower and upper covers of the controller housing are secured with four M3 X 12 screws.


(2) Be sure to tighten the snap clips when plugging the vehicle harness terminals into the vehicle controller connection port.


(3) Avoid deformation of the controller shell by heavy extrusion, resulting in direct contact between the internal motherboard and the inner side of the shell.

 IX. Packaging, transportation, storage

 1、Packaging


There are product name, model number, manufacturer's logo, inspection certificate of manufacturer's quality department, manufacturing date, etc. on the box; there is a list of accessories inside the box.
 2. Transportation

It is suitable for transportation by car, ship and plane, and should be covered with canopy, sun protection and civilized loading and unloading during transportation.

 3. Storage


Products should be stored in the box when not in use, the warehouse environment temperature 0 C + 50 C 0 C + 50 C 0^(@)C-+50^(@)C0^{\circ} \mathrm{C}-+50^{\circ} \mathrm{C} , relative humidity 0 90 % 0 90 % 0-90%0-90 \% , the warehouse does not allow harmful gases, flammable, explosive products and corrosive chemicals, and no strong mechanical vibration, impact and strong magnetic field, the box should be cushioned from the ground at least 20 cm high, at least 50 cm away from walls, heat sources, windows or air inlets, the storage period under the conditions of this regulation is generally 2 years, after more than 2 years should be re-examined. 50 cm away from walls, heat sources, windows or air inlets. The storage period under the conditions of this regulation is generally 2 years, and should be re-examined after more than 2 years.

 X. Basis for acceptance

 1. Drawings and technical parameters of the equipment provided by the seller.

2. Contracts, technical agreements and recognized technical documents and design information signed by both parties.

 XI. Rights and obligations of the parties

 1. Rights and obligations of Party A

(1) Party A may request Party B to provide the necessary technical support and enjoy the standard services promised by Party B;


(2) Party A is obliged to ensure the safety of Party B's products, and should take corresponding measures against fire and theft;


(3) Party A is obliged to make a fair and just detailed record of the use of Party B's products, especially when the performance of the products is abnormal, both parties will make a judgment of the responsibility for the accident according to the abnormal record and Article 5 of this Agreement;

 (4) Fulfill the responsibilities and obligations agreed upon in this Technical Agreement;

(5) Party A is obliged to notify Party B's personnel to arrive at the site if possible to understand the actual situation when Party B's products operate abnormally.

 2. Rights and obligations of Party B

(1) Party B is obliged to provide Party A with stable and reliable products and relevant technical support as confirmed by both parties.


(2) Party B, as a provider of vehicle controllers for Party A, shall fulfill the corresponding duties and obligations of the supplier;

 (3) Fulfill the responsibilities and obligations agreed upon in this Technical Agreement;

(4) Party B is obliged to provide quality service for its products, and the service standard is according to the various types of standard services promised by Party B.

 XII. Fault determination criteria and responsibility differentiation


As the product involves quality issues, the two sides in line with the principles of objectivity, fairness and mutual trust to develop a common product quality judgment standards, and based on the implementation. Failure of the determination criteria and the distinction of responsibilities are as follows:

  1. If the failure of the product is confirmed by Party B's technicians as a product quality problem, the responsibility is Party B's; according to the warranty terms of the sales contract between the two parties to fulfill the warranty obligations;

  2. Application products and other accessories connected to the failure of the work can not be completed normally, belong to the matching fault, this problem Party B should actively cooperate with Party A to solve the problem.

 xiii. commitment to confidentiality


Both parties undertake not to disclose to third parties the technical contents and know-how of the other party learned in the course of the cooperation, and the time limit for the above confidentiality undertaking is one year's participation (otherwise agreed not to be subject to this clause).

 XIV. Intellectual Property Agreements


Through the cooperation of this project, Party A owns the right to use the relevant patents of Party B. Party A promises not to disclose any details of the project to the third party in any form, or else it will bear the corresponding legal responsibility. According to the agreement of both parties, the cooperation process will involve the process of cooperative development, so the intellectual property rights are agreed as follows:

1. The scientific and technological achievements independently accomplished by A and B within the scope of work of each party and the intellectual property rights formed thereof shall be solely owned by the party accomplishing them. When one party transfers its patent application right, the other party shall have the right of priority in the transfer under the same conditions.

2. During the implementation of the technology agreement, the scientific and technological achievements jointly accomplished by the parties and the intellectual property rights formed by them shall be shared by both parties. If one party transfers its common patent application right, the other party shall have the right of priority to be transferred under the same conditions. If one of the parties declares to give up the right to apply for patents in common, the other party may apply for patents separately. If one of the cooperating parties does not agree to apply for a patent, the other party or other parties shall not apply for a patent.

3. Each party shall have the right to use the results of the technical secrets jointly accomplished by the A and B parties. Without the consent of the other party, neither party shall transfer the technical secrets to a third party.

4. The moral rights of the scientific and technological achievements jointly accomplished by A and B, such as the right to identity, the right to obtain honorary titles, medals, award certificates and prizes in accordance with the law, and other honorary rights shall be shared by the two parties to the completion of the two sides.

5. A and B share the economic gains from licensing, transfer of patented technology and non-patented technology of common scientific and technological achievements. The way of sharing the proceeds shall be agreed separately before the implementation of the act.

 XV. Other engagements


1, dispute resolution: arising from this technical agreement or any dispute related to this technical agreement, the two sides should consult to resolve the issue, you can also request the two sides of the higher authorities for mediation, the two sides do not want to consult or consultation fails, either party can be to the plaintiff's seat court to sue the public to resolve the issue.

2. Other outstanding matters, after consultation and written agreement between the two parties, may be subsidiary provisions of this technical agreement and have the same effect as this technical agreement.

3. This Agreement shall be executed in duplicate, one by each party, and shall have the same legal effect.

 XVI. Annexes

 Annex I Vehicle interface definitions
 Party A:
 Representatives.
 Date:
 Party B: Xiamen Fugong Power Technology Co.
 Representatives.
 Date:

 Annex I Vehicle interface definitions

 form  pin  functionality  Vehicle definition  control strategy
 Power Input K2/K4/K6 24V+  Controller motherboard power supply  Normal fire [1st gear power], dashboard cocking switch power supply
K1/K3/K5 GND
 power output (of an electrical device etc) K26 5V+  Throttle 1 Power  5 V sensor power supply
K27 5V+  Throttle 2 Power  5V Sensor Power Supply
K48 GND  Throttle 1 Power ground  5V Sensor Power Ground
K49 GND  Throttle 2 Power Ground  5V Sensor Power Ground
 Analog Input
模拟量 输入| 模拟量 | | :--- | | 输入 |
K70   0 0 0^(∼)0^{\sim} +5V  Throttle 1 signal
K71   0 0 0^(∼)0^{\sim} +5V  Throttle 2 signal
K92 0 + 5 V 0 〜  + 5 V 0^("〜 "+5V)0^{\text {〜 }+5 \mathrm{~V}}  Brake pedal analog signal
 Switching Input
开关量 输入| 开关量 | | :--- | | 输入 |
K35  High Input Valid  vacant
K36  High Input Valid  vacant
K37  High Input Valid  vacant
K41  High Input Valid  vacant
K42  High Input Valid  ON gear signal detection
K58  High Input Valid  vacant
K59  High Input Valid  START signal detection
K63  High Input Valid  vacant
K64  High Input Valid  vacant
K80  High Input Valid  vacant
 Switching input K38  Low Input Valid  Brake pedal switch signal
K39  Low Input Valid  vacant
K40  Low Input Valid  Dryer Signal
K60  Low Input Valid  Handbrake signal
K61  Low Input Valid  vacant
K62  Low Input Valid  vacant
K81  Low Input Valid  R-position signal detection
K82  Low Input Valid  D-position signal detection
K83  Low Input Valid  vacant
K84  Low Input Valid  N-grade signal detection
 Switching output A32  High Output Effective  qi springs enable  reserve
A33  High Output Effective  Oil Springs Enabling  reserve
A34  High Output Effective  DCDC Enable  reserve
A39  High Output Effective  fountainhead
High level output to control the pump power relay after high voltage power up is completed, the relay is provided by the OEM.
A47  High Output Effective  vacant
A48  High Output Effective  vacant
A49  High Output Effective  vacant
A54  High Output Effective  Electric brake signal output
 Switching output A31  Low Output Valid  vacant  vacant
A35  Low Output Valid  vacant  vacant
类别 管脚 功能 整车定义 控制策略 电源输入 K2/K4/K6 24V+ 控制器主板电源 常火【一档电源】,仪表台翘板开关电源 K1/K3/K5 GND 电源输出 K26 5V+ 油门 1 电源 5 V传感器电源 K27 5V+ 油门 2 电源 5V传感器电源 K48 GND 油门 1 电源地 5V传感器电源地 K49 GND 油门2电源地 5V传感器电源地 "模拟量 输入" K70 0^(∼) +5V 油门 1 信号 K71 0^(∼) +5V 油门 2 信号 K92 0^("〜 "+5V) 制动踏板模拟信号 "开关量 输入" K35 高输入有效 悬空 K36 高输入有效 悬空 K37 高输入有效 悬空 K41 高输入有效 悬空 K42 高输入有效 ON 档信号检测 K58 高输入有效 悬空 K59 高输入有效 START 信号检测 K63 高输入有效 悬空 K64 高输入有效 悬空 K80 高输入有效 悬空 开关量输入 K38 低输入有效 制动踏板开关信号 K39 低输入有效 悬空 K40 低输入有效 干燥器信号 K60 低输入有效 手刹信号 K61 低输入有效 悬空 K62 低输入有效 悬空 K81 低输入有效 R档信号检测 K82 低输入有效 D档信号检测 K83 低输入有效 悬空 K84 低输入有效 N档信号检测 开关量输出 A32 高输出有效 气泉使能 预留 A33 高输出有效 油泉使能 预留 A34 高输出有效 DCDC 使能 预留 A39 高输出有效 水泉使能 高压上电完成后输出高电平控制水泵电源继电器,继电器由整车厂提供 A47 高输出有效 悬空 A48 高输出有效 悬空 A49 高输出有效 悬空 A54 高输出有效 电制动信号输出 开关量输出 A31 低输出有效 悬空 悬空 A35 低输出有效 悬空 悬空| 类别 | 管脚 | 功能 | 整车定义 | 控制策略 | | :---: | :---: | :---: | :---: | :---: | | 电源输入 | K2/K4/K6 | 24V+ | 控制器主板电源 | 常火【一档电源】,仪表台翘板开关电源 | | | K1/K3/K5 | GND | | | | 电源输出 | K26 | 5V+ | 油门 1 电源 | 5 V传感器电源 | | | K27 | 5V+ | 油门 2 电源 | 5V传感器电源 | | | K48 | GND | 油门 1 电源地 | 5V传感器电源地 | | | K49 | GND | 油门2电源地 | 5V传感器电源地 | | 模拟量 <br> 输入 | K70 | $0^{\sim}$ +5V | 油门 1 信号 | | | | K71 | $0^{\sim}$ +5V | 油门 2 信号 | | | | K92 | $0^{\text {〜 }+5 \mathrm{~V}}$ | 制动踏板模拟信号 | | | 开关量 <br> 输入 | K35 | 高输入有效 | 悬空 | | | | K36 | 高输入有效 | 悬空 | | | | K37 | 高输入有效 | 悬空 | | | | K41 | 高输入有效 | 悬空 | | | | K42 | 高输入有效 | ON 档信号检测 | | | | K58 | 高输入有效 | 悬空 | | | | K59 | 高输入有效 | START 信号检测 | | | | K63 | 高输入有效 | 悬空 | | | | K64 | 高输入有效 | 悬空 | | | | K80 | 高输入有效 | 悬空 | | | 开关量输入 | K38 | 低输入有效 | 制动踏板开关信号 | | | | K39 | 低输入有效 | 悬空 | | | | K40 | 低输入有效 | 干燥器信号 | | | | K60 | 低输入有效 | 手刹信号 | | | | K61 | 低输入有效 | 悬空 | | | | K62 | 低输入有效 | 悬空 | | | | K81 | 低输入有效 | R档信号检测 | | | | K82 | 低输入有效 | D档信号检测 | | | | K83 | 低输入有效 | 悬空 | | | | K84 | 低输入有效 | N档信号检测 | | | 开关量输出 | A32 | 高输出有效 | 气泉使能 | 预留 | | | A33 | 高输出有效 | 油泉使能 | 预留 | | | A34 | 高输出有效 | DCDC 使能 | 预留 | | | A39 | 高输出有效 | 水泉使能 | 高压上电完成后输出高电平控制水泵电源继电器,继电器由整车厂提供 | | | A47 | 高输出有效 | 悬空 | | | | A48 | 高输出有效 | 悬空 | | | | A49 | 高输出有效 | 悬空 | | | | A54 | 高输出有效 | 电制动信号输出 | | | 开关量输出 | A31 | 低输出有效 | 悬空 | 悬空 | | | A35 | 低输出有效 | 悬空 | 悬空 |
A36  Low Output Valid  vacant  vacant
A37  Low Output Valid  vacant  vacant
A38  Low Output Valid  vacant
A46  Low Output Valid  vacant
A50  Low Output Valid  vacant
A51  Low Output Valid  vacant
A52  Low Output Valid  vacant
A53  Low Output Valid  vacant
 Pulse Signal Output
脉冲信号 输出| 脉冲信号 | | :--- | | 输出 |
A56  PWM signal  PWM fan signal output
 CAN communication A15 A30 CAN1H CAN1L  First CAN bus high
CAN1 network. No termination resistors, baud rate 250 kbps, for communication with BMS, meters, triple converters, etc.
A45 CAN2H  Second CAN bus high
CAN2 network. With terminating resistor, baud rate 250 kbps, for communication with motor controllers
A60 CAN2L  Second CAN bus low
 RS232 serial communication
RS232 串口通信| RS232 | | :--- | | 串口通信 |
A14  VCU Debug Port RxD  For vehicle controller program update and parameter modification
A29  VCU Debug Port TxD
A28  VCU Debug Port GND
A42  VCU Debug Port 5V
A57  VCU Debug Port B00T
A36 低输出有效 悬空 悬空 A37 低输出有效 悬空 悬空 A38 低输出有效 悬空 A46 低输出有效 悬空 A50 低输出有效 悬空 A51 低输出有效 悬空 A52 低输出有效 悬空 A53 低输出有效 悬空 "脉冲信号 输出" A56 PWM 信号 PWM 风扇信号输出 CAN 通信 A15 A30 CAN1H CAN1L 第一路 CAN 总线高 CAN1 网络。无终端电阻,波特率 250 kbps ,用于与 BMS、仪表、三合一变换器等通讯 A45 CAN2H 第二路 CAN 总线高 CAN2 网络。有终端电阻,波特率 250 kbps ,用于与电机控制器通讯 A60 CAN2L 第二路 CAN 总线低 "RS232 串口通信" A14 VCU 调试口 RxD 用于整车控制器程序更新及参数修改 A29 VCU 调试口 TxD A28 VCU 调试口 GND A42 VCU 调试口 5V A57 VCU 调试口 B00T | | A36 | 低输出有效 | 悬空 | 悬空 | | :---: | :---: | :---: | :---: | :---: | | | A37 | 低输出有效 | 悬空 | 悬空 | | | A38 | 低输出有效 | 悬空 | | | | A46 | 低输出有效 | 悬空 | | | | A50 | 低输出有效 | 悬空 | | | | A51 | 低输出有效 | 悬空 | | | | A52 | 低输出有效 | 悬空 | | | | A53 | 低输出有效 | 悬空 | | | 脉冲信号 <br> 输出 | A56 | PWM 信号 | PWM 风扇信号输出 | | | CAN 通信 | A15 A30 | CAN1H CAN1L | 第一路 CAN 总线高 | CAN1 网络。无终端电阻,波特率 250 kbps ,用于与 BMS、仪表、三合一变换器等通讯 | | | A45 | CAN2H | 第二路 CAN 总线高 | CAN2 网络。有终端电阻,波特率 250 kbps ,用于与电机控制器通讯 | | | A60 | CAN2L | 第二路 CAN 总线低 | | | RS232 <br> 串口通信 | A14 | | VCU 调试口 RxD | 用于整车控制器程序更新及参数修改 | | | A29 | | VCU 调试口 TxD | | | | A28 | | VCU 调试口 GND | | | | A42 | | VCU 调试口 5V | | | | A57 | | VCU 调试口 B00T | |

Note: The CAN communication and RS232 connectors should comply with the requirements shown in the figure below and be placed in an easily accessible location.


(The connector is defined for the docking surface view) to ensure easy debugging and program writing. (Connectors are defined for the docking surface view)