SLVUC93 September 2021 TPSM63606

2 EVM Performance Specifications

Unless otherwise indicated, V_IN = 24 V, V_OUT = 5 V, I_OUT = 6 A and F_SW = 1 MHz

Table 2-1 Electrical Performance Specifications

PARAMETER	TEST CONDITIONS		MIN	TYP	MAX	UNIT
INPUT CHARACTERISTICS
Input voltage range, V_IN	Operating		4		36	V
Input voltage turn-on, V_IN(on)	Adjusted using EN divider resistors			5.1
Input voltage turn-off, V_IN(off)				3.65
Input voltage hysteresis, V_IN(hys)				1.45
Input current, disabled, I_IN(off)	V_EN = 0 V (with 402-kΩ and 133-kΩ UVLO divider)			45		µA
OUTPUT CHARACTERISTICS
Output voltage, V_OUT⁽¹⁾	Adjustable from 1 V to 16 V		4.9	5.0	5.1	V
Output current, I_OUT	V_IN = 4 V to 36 V ⁽²⁾		0		6	A
Output voltage regulation, ΔV_OUT	Load regulation	I_OUT = 0 A to 6 A		0.1%
Output voltage regulation, ΔV_OUT	Line regulation	V_IN = 6 V to 36 V		0.1%
Output voltage ripple, V_OUT(AC)				25		mVrms
Output overcurrent protection, I_OCP				8		A
SYSTEM CHARACTERISTICS
Default switching frequency, F_SW(nom)	Adjustable from 200 kHz to 2.2 MHz (based on V_OUT)			1		MHz
Half-load efficiency, η_HALF⁽¹⁾	V_IN = 24 V, I_OUT = 3 A	V_OUT = 2.5 V, F_SW = 500 kHz		89.4%
		V_OUT = 3.3 V, F_SW = 750 kHz		92.7%
		V_OUT = 5 V, F_SW = 1 MHz		93.5%
		V_OUT = 12 V, F_SW = 2 MHz		95.7%
	V_IN = 24 V, I_OUT = –1.5 A ⁽³⁾	V_OUT = –12 V, F_SW = 2 MHz		90.3%
Full-load efficiency, η_FULL⁽¹⁾	V_IN = 24 V, I_OUT = 6 A	V_OUT = 2.5 V, F_SW = 500 kHz		85.7%
		V_OUT = 3.3 V, F_SW = 750 kHz		88.5%
		V_OUT = 5 V, F_SW = 1 MHz		91.4%
		V_OUT = 12 V, F_SW = 2 MHz		94.8%
	V_IN = 24 V, I_OUT = –3 A ⁽³⁾	V_OUT = –12 V, F_SW = 2 MHz		91.5%
Ambient temperature, T_A			–40		105	°C
Junction temperature, T_J			–40		125	°C

(1) The default output voltage and switching frequency of this EVM are 5 V and 1 MHz, respectively. The VLDOIN pin conencts to the output for output voltages of 3.3 V and above. Efficiency and other performance metrics can change based on operating input voltage, load current, switching frequency, external bias voltage, ambient temerature, externally connected output capacitance, and other parameters.

(2) The recommended airflow is 200 LFM when operating at output currents greater than 4 A and switching freqeuncies above 1 MHz.

(3) Configure the EVM as an IBB topology with negative output voltage by connecting the input source between the VIN+ and VOUT+ power terminals. The achievable output current is I_OUT = I_Lmax(DC) × (1 – D), where I_Lmax(DC) = 6 A is the rated DC current of the module's integrated inductor and D = |V_OUT| / (V_IN + |V_OUT|) is the duty cycle.