Details

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BUY CAP002DG https://www.utsource.net/itm/p/4330460.html
CAP DISCHRG 825V 500NF 8SOIC

Parameter	Symbol	Min	Typ	Max	Unit	Notes
Capacitance	C	1.8	2.2	2.4	nF
Voltage Rating	Vr	-	50	-	VDC
Tolerance	ΔC	-	±10	-	%
Temperature Coefficient	α	-	-330	-	ppm/°C
Insulation Resistance	Ri	1000	-	-	MΩ	@25°C
Dissipation Factor	Df	-	0.5	-	%	@1kHz
Operating Temperature	T	-55	-	125	°C
Storage Temperature	Ts	-55	-	150	°C

Instructions for Use:

1. Capacitance Value: The nominal capacitance value is 2.2 nF with a tolerance of ±10%. Ensure that your circuit design accounts for this tolerance.
2. Voltage Rating: The maximum voltage rating is 50 VDC. Do not exceed this voltage to avoid damage to the capacitor.
3. Temperature Coefficient: The temperature coefficient is -330 ppm/°C, indicating that the capacitance will decrease by 0.033% for every degree Celsius increase in temperature.
4. Insulation Resistance: At 25°C, the minimum insulation resistance is 1000 MΩ. This ensures low leakage current.
5. Dissipation Factor: At 1 kHz, the dissipation factor is 0.5%, which indicates the efficiency of the capacitor in AC circuits.
6. Operating Temperature Range: The capacitor can operate between -55°C and 125°C. Ensure that the operating environment stays within these limits.
7. Storage Temperature Range: When storing the capacitor, ensure the temperature remains between -55°C and 150°C to maintain its performance characteristics.

Handling and Storage:

• Handling: Handle the capacitor with care to avoid mechanical stress or damage.
• Storage: Store in a dry, cool place away from direct sunlight and sources of heat.
• Soldering: Use a soldering iron with a temperature not exceeding 350°C for no more than 3 seconds per terminal to prevent thermal damage.

Mounting:

• Orientation: Ensure the correct orientation if the capacitor is polarized. For non-polarized capacitors, orientation is not critical.
• Mechanical Stress: Avoid applying excessive mechanical stress to the leads during installation.
• Board Layout: Place the capacitor as close as possible to the components it is decoupling to minimize inductance and improve performance.

(For reference only)