ZHCSE64C 数据表 | 德州仪器 TI.com.cn

ZHCSE64C august 2015 – may 2023 ISO5452

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机械数据 (封装 | 引脚)

DW|16

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zhcse64c_oa

7.12 Typical Characteristics

Figure 7-4 Output High Drive Current vs Temperature

Figure 7-6 Output Low Drive Current vs Temperature

Unipolar: V_CC2 – V_EE2 = V_CC2 – GND2

Figure 7-8 DESAT Threshold Voltage vs Temperature

Figure 7-5 Output High Drive Current vs Output Voltage

Figure 7-7 Output Low Drive Current vs Output Voltage

C_L = 1 nF	R_GH = 0 Ω	R_GL = 0 Ω
V_CC2 – V_EE2 = V_CC2 – GND2 = 20 V

Figure 7-9 Output Transient Waveform

C_L = 100 nF	R_GH = 0 Ω	R_GL = 0 Ω
V_CC2 – V_EE2 = V_CC2 – GND2 = 20 V

Figure 7-11 Output Transient Waveform

C_L = 10 nF	R_GH = 10 Ω	R_GL = 5Ω
V_CC2 – V_EE2 = V_CC2 – GND2 = 20 V

Figure 7-13 Output Transient Waveform

C_L = 10 nF	R_GH = 0 Ω	R_GL = 0 Ω
V_CC2 – V_EE2 = V_CC2 – GND2 = 15 V		DESAT = 220pF

Figure 7-15 Output Transient Waveform DESAT, RDY and FLT

C_L = 10 nF	R_GH = 0 Ω	R_GL = 0 Ω
V_CC2 – V_EE2 = V_CC2 – GND2 = 30 V		DESAT = 220pF

Figure 7-17 Output Transient Waveform DESAT, RDY and FLT

IN+ = High

IN– = Low

Figure 7-19 I_CC1 Supply Current vs Temperature

Figure 7-21 I_CC1 Supply Current vs Input Frequency

No C_L

Figure 7-23 I_CC2 Supply Current vs Input Frequency

C_L = 1 nF	R_GH = 0 Ω	R_GL = 0 Ω
V_CC1 = 5 V

Figure 7-25 Propagation Delay vs Temperature

R_GH = 10 Ω

R_GL = 5 Ω

V_CC1 = 5 V

Figure 7-27 Propagation Delay vs Load Capacitance

R_GH = 0 Ω

R_GL = 0 Ω

V_CC1 = 5 V

Figure 7-29 t_f Fall Time v. Load Capacitance

R_GH = 10 Ω

R_GL = 5 Ω

V_CC1 = 5 V

Figure 7-31 t_f Fall Time vs Load Capacitance

C_L = 10 nF

R_GH = 0 Ω

R_GL = 0 Ω

Figure 7-33 DESAT Sense to V_OUTH/L 10% Delay vs Temperature

Figure 7-35 DESAT Sense to Fault Low Delay vs Temperature

Figure 7-37 Reset to Fault Delay Across Temperature

Figure 7-39 Active Pull Down Voltage vs Temperature

Figure 7-41 V_{OUTH_CLAMP} - Short Circuit Clamp Voltage on OUTH Across Temperature

V_CC2 = 15 V

DESAT = 6 V

Figure 7-43 Blanking Capacitor Charging Current vs Temperature

C_L = 10 nF	R_GH = 0 Ω	R_GL = 0 Ω
V_CC2 – V_EE2 = V_CC2 – GND2 = 20 V

Figure 7-10 Output Transient Waveform

C_L = 1 nF	R_GH = 10 Ω	R_GL = 5Ω
V_CC2 – V_EE2 = V_CC2 – GND2 = 20 V

Figure 7-12 Output Transient Waveform

C_L = 100 nF	R_GH = 10 Ω	R_GL = 5Ω
V_CC2 – V_EE2 = V_CC2 – GND2 = 20 V

Figure 7-14 Output Transient Waveform

C_L = 10 nF	R_GH = 0 Ω	R_GL = 0 Ω
V_CC2 – V_EE2 = V_CC2 – GND2 = 15 V		DESAT = 220pF

Figure 7-16 Output Transient Waveform DESAT, RDY and FLT

C_L = 10 nF	R_GH = 0 Ω	R_GL = 0 Ω
V_CC2 – V_EE2 = V_CC2 – GND2 = 30 V		DESAT = 220pF

Figure 7-18 Output Transient Waveform DESAT, RDY and FLT

IN+ = Low

IN– = Low

Figure 7-20 I_CC1 Supply Current vs Temperature

Input frequency = 1 kHz

Figure 7-22 I_CC2 Supply Current vs Temperature

R_GH = 10 Ω

R_GL = 5 Ω, 20 kHz

Figure 7-24 I_CC2 Supply Current vs Load Capacitance

C_L = 1 nF	R_GH = 0 Ω	R_GL = 0 Ω
V_CC2 = 15 V

Figure 7-26 Propagation Delay vs Temperature

R_GH = 0 Ω

R_GL = 0 Ω

V_CC1 = 5 V

Figure 7-28 t_r Rise Time vs Load Capacitance

R_GH = 10 Ω

R_GL = 5 Ω

V_CC1 = 5 V

Figure 7-30 t_r Rise Time vs Load Capacitance

Figure 7-32 Leading Edge Blanking Time With Temperature

C_L = 10 nF

R_GH = 0 Ω

R_GL = 0 Ω

Figure 7-34 DESAT Sense to V_OUTH/L 90% Delay vs Temperature

Figure 7-36 Fault and RDY Low to RDY High Delay vs Temperature

Figure 7-38 Miller Clamp Current vs Temperature

Figure 7-40 V_{CLP_CLAMP} - Short Circuit Clamp Voltage on Clamp Across Temperature

Figure 7-42 V_{OUTL_CLAMP} - Short Circuit Clamp Voltage on OUTL Across Temperature