Details

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BUY LM723CH https://www.utsource.net/itm/p/12403675.html

Parameter	Symbol	Conditions	Min	Typ	Max	Unit
Supply Voltage	Vcc		6	15	40	V
Output Current	Iout	Short Circuit	-	-	200	mA
Quiescent Current	IQ		1.5	4	8	mA
Input Offset Voltage	VIO		-20	0	20	渭V
Input Bias Current	IBIAS		100	300	500	nA
Slew Rate	SR		0.3	0.5	0.7	V/渭s
Bandwidth (Small Signal)	fBW	Vcc = 15V	100	200	300	kHz
Common Mode Input Range	Vcm		0.5	-	Vcc - 2	V
Output Swing	Vout	No Load	0.5	-	Vcc - 2	V
Thermal Resistance	胃JA		-	150	-	掳C/W

Instructions for Using the LM723CH

1. Supply Voltage:

   • Ensure the supply voltage is within the range of 6V to 40V. The typical operating voltage is 15V.

2. Output Current:

   • The maximum output current should not exceed 200mA to avoid damage to the device.

3. Quiescent Current:

   • The quiescent current typically ranges from 1.5mA to 8mA, depending on the operating conditions.

4. Input Offset Voltage:

   • The input offset voltage should be kept within 卤20渭V to ensure accurate operation.

5. Input Bias Current:

   • The input bias current can vary between 100nA and 500nA. This should be considered when designing the input circuitry.

6. Slew Rate:

   • The slew rate is typically between 0.3V/渭s and 0.7V/渭s. This affects the ability of the device to handle fast-changing signals.

7. Bandwidth:

   • The small-signal bandwidth is typically between 100kHz and 300kHz at a supply voltage of 15V.

8. Common Mode Input Range:

   • The common mode input range should be between 0.5V and Vcc - 2V to ensure proper operation.

9. Output Swing:

   • The output swing should be within 0.5V to Vcc - 2V under no load conditions.

10. Thermal Considerations:

    • The thermal resistance (胃JA) is typically 150掳C/W. Proper heat sinking may be required for high power applications to prevent overheating.

11. Stability:

    • Use appropriate compensation components to ensure stability, especially when using the device in feedback configurations.

12. Protection:

    • Implement overvoltage and overcurrent protection circuits to safeguard the device from potential damage.

13. Layout:

    • Follow good PCB layout practices to minimize noise and parasitic effects, particularly for high-frequency applications.

14. Testing:

    • Thoroughly test the circuit under various operating conditions to ensure reliability and performance.

(For reference only)