ZHCSTG6 数据表 | 德州仪器 TI.com.cn

ZHCSTG6A July 2023 – October 2023 TPS25984

PRODUCTION DATA

封装选项

机械数据 (封装 | 引脚)

RZJ|32
- MPQF664A

散热焊盘机械数据 (封装 | 引脚)

RZJ|32
- QFND783

7.9 Typical Characteristics

Figure 7-1 ON Resistance Across Temperature

Figure 7-3 VIN Undervoltage Thresholds Across Temperature

Figure 7-5 EN/UVLO Thresholds For FET Turn-off Across Temperature

Figure 7-7 IREF Charging Current Across Temperature

Figure 7-9 ackup Overcurrent Protection Threshold (Start-up) Accuracy

Figure 7-11 ITIMER Pin Internal Pullup Voltage Across Temperature

Figure 7-13 ITIMER Pin Discharge Differential Voltage Threshold Across Temperature

Figure 7-15 DVDT Charging Current Across Temperature

Figure 7-17 QOD Sink Current Across Temperature

Input hot-plugged into 12 V supply

Figure 7-19 Input Hot-plug With Insertion Delay

Input supply held steady, EN/UVLO pin toggled low and high

Figure 7-21 Power Up and Down Sequencing Using EN/UVLO Pin

Input supply held steady, EN/UVLO pin toggled from high (above V_UVLO(R)) to low (below V_SD(F))

Figure 7-23 Power Down Control Using EN/UVLO Pin

Input supply held steady, EN/UVLO pin toggled from high (above V_UVLO(R)) to intermediate voltage (below V_UVLO(F) and above V_SD(F)) and held there

Figure 7-25 Power Down Control Using EN/UVLO Pin with Quick Output Discharge (QOD)

C_OUT = 18 mF, C_dVdt = 33 nF

Figure 7-27 Inrush Current Control with Capacitive Load

Input supply ramped up above 16.6 V.

Figure 7-29 Input Overvoltage Protection Response

I_OCP = 55 A, t_ITIMER = 16 ms, I_OUT pulsed above the I_OCP threshold for duration shorted than t_ITIMER without triggering circuit-breaker response.

Figure 7-31 Peak Current Support Using Transient Overcurrent Blanking

I_OCP = 55 A, Output hard-short to GND while in steady. I_OUT rises above 2 × I_OCP triggers fast-trip response

Figure 7-33 Short-Circuit Protection Response

Figure 7-2 VDD Undervoltage Thresholds Across Temperature

Figure 7-4 VIN Overvoltage Protection Thresholds Across Temperature

Figure 7-6 EN/UVLO Based Thresholds for Device Shutdown Across Temperature

Figure 7-8 IMON Gain Across Load and Temperature

Figure 7-10 Backup Overcurrent Protection Threshold (Steady-State) Accuracy

Figure 7-12 ITIMER Pin Discharge Current Across Temperature

Figure 7-14 SWEN Pin Logic Thresholds Across Temperature

Figure 7-16 DVDT Gain Across Temperature

Figure 7-18 Junction Temperature vs Load Current (No Air-Flow)

EN/UVLO pin held high, Input supply ramped up to 12 V

Figure 7-20 Power Up Control Using Input Supply

Input supply held steady, EN/UVLO pin toggled from low (below V_SD(F)) to high (above V_UVLO(R))

Figure 7-22 Power Up Control Using EN/UVLO Pin

Input supply held steady, EN/UVLO pin toggled from high (above V_UVLO(R)) to low (below V_SD(F))

Figure 7-24 Power Down Control Using EN/UVLO Pin without engaging Quick Output Discharge (QOD)

Input supply held steady, EN/UVLO pin held high, SWEN pin toggled low and high

Figure 7-26 Power Up and Down Sequencing Using SWEN Pin

C_OUT = 15.5 mF, R_OUT = 0.6 Ω, C_dVdt = 33 nF

Figure 7-28 Inrush Current Control with Capacitive and Resistive Load

Input supply ramped up above 16.6 V and then ramped down to 12 V.

Figure 7-30 Input Overvoltage Protection Response Followed By Recovery

I_OCP = 55 A, t_ITIMER = 16 ms, I_OUT stays above the I_OCP threshold persistently to trigger circuit-breaker response.

Figure 7-32 Overcurrent Protection Response (Circuit-Breaker)

Device turned on using EN/UVLO pin with output hard-short to GND. Device limits the current with foldback and then hits thermal shutdown.

Figure 7-34 Power Up into Short-Circuit