SLUSEV9 Data sheet

SLUSEV9A August 2023 – September 2023 UCC14340-Q1

PRODUCTION DATA

Package Options

Mechanical Data (Package|Pins)

DWN|36
- MPSS132

Thermal pad, mechanical data (Package|Pins)

Orderable Information

slusev9a_oa

7.9 Typical Characteristics

The maximum recommended average power safe operating area (SOA) at each Vin is determined by the lower value of the 1.5W limit (dotted line) and the corresponding thermal derating curve (solid line) at that input voltage. It is not recommended to operate at an ambient temperature higher than 125^oC. The thermal derating power is acquired with an evaluation board similar to the EVM shown in the Layout Example section. T_shut represents the primary-side over-temperature shutdown rising threshold. As shown in the Electrical Characteristics table, the typical T_shut value is 160^oC, and minimal T_shut value is 150^oC. The SOA derating curve with both T_shut = 160^oC and 150^oC are provided below. The SOA curves under four common VDD-VEE settings, 15V, 18V, 22V, and 25V are characterized. In each SOA curve, the input voltage is swept from 9V to 18V. To represent a worst-case condition with T_shut = 150^oC, the test is done in a shieded box to block circulating air in the thermal chamber.

Figure 7-1 SOA Derating Curves: V_VDD-VEE = 15 V, V_COM-VEE = 5 V, T_shut=160^oC, No Load on V_COM-VEE

Figure 7-3 SOA Derating Curves: V_VDD-VEE = 22 V, V_COM-VEE = 4 V, T_shut=160^oC, No Load on V_COM-VEE

Figure 7-5 SOA Derating Curves: V_VDD-VEE = 22 V, V_COM-VEE = 4 V, T_shut=150^oC, No Load on V_COM-VEE, tested in a shielded box.

Figure 7-7 Shutdown: V_IN = 15 V, V_VDD-VEE = 22 V, V_COM-VEE = 4 V, I_VDD-VEE = 68 mA, No Load on V_COM-VEE. Time Scale: 2ms/div.

Figure 7-9 V_VDD-VEE Load Regulation: V_IN = 13.5 V, V_VDD-VEE = 22 V, V_COM-VEE = 4 V

Figure 7-11 V_VDD-VEE Load Regulation: V_IN = 16.5 V, V_VDD-VEE = 22 V, V_COM-VEE = 4 V

Figure 7-13 V_COM-VEE Load Regulation: V_IN = 15 V, V_VDD-VEE = 22 V, V_COM-VEE = 4 V

Figure 7-15 Efficiency vs. Load on V_VDD-VEE: V_IN = 13.5 V, V_VDD-VEE = 22 V, V_COM-VEE = 4 V, No Load on V_COM-VEE

Figure 7-17 Efficiency vs. Load on V_VDD-VEE: V_IN = 16.5 V, V_VDD-VEE = 22 V, V_COM-VEE = 4 V, No Load on V_COM-VEE

Figure 7-19 Input Current vs. Load on V_VDD-VEE: V_IN = 15 V, V_VDD-VEE = 22 V, V_COM-VEE = 4 V, No Load on V_COM-VEE

Figure 7-2 SOA Derating Curves: V_VDD-VEE = 18 V, V_COM-VEE = 3 V, T_shut=160^oC, No Load on V_COM-VEE

Figure 7-4 SOA Derating Curves: V_VDD-VEE = 25 V, V_COM-VEE = 5 V, T_shut=160^oC, No Load on V_COM-VEE

Figure 7-6 Start-up: V_IN = 15 V, V_VDD-VEE = 22 V, V_COM-VEE = 4 V, I_VDD-VEE = 68 mA, No Load on V_COM-VEE. Time Scale: 1ms/div.

Figure 7-8 Load Transient Response: Between No Load and 1.5W, V_IN = 15 V, V_VDD-VEE = 22 V, V_COM-VEE = 4 V

Figure 7-10 V_VDD-VEE Load Regulation: V_IN = 15 V, V_VDD-VEE = 22 V, V_COM-VEE = 4 V

Figure 7-12 V_COM-VEE Load Regulation: V_IN = 13.5 V, V_VDD-VEE = 22 V, V_COM-VEE = 4 V

Figure 7-14 V_COM-VEE Load Regulation: V_IN = 16.5 V, V_VDD-VEE = 22 V, V_COM-VEE = 4 V

Figure 7-16 Efficiency vs. Load on V_VDD-VEE: V_IN = 15 V, V_VDD-VEE = 22 V, V_COM-VEE = 4 V, No Load on V_COM-VEE

Figure 7-18 Input Current vs. Load on V_VDD-VEE: V_IN = 13.5 V, V_VDD-VEE = 22 V, V_COM-VEE = 4 V, No Load on V_COM-VEE

Figure 7-20 Input Current vs. Load on V_VDD-VEE: V_IN = 16.5 V, V_VDD-VEE = 22 V, V_COM-VEE = 4 V, No Load on V_COM-VEE