Product Overview
The SAMXON GT Series Aluminum Electrolytic Capacitors are designed for general-purpose applications in electronic equipment. These polar, foil-type capacitors meet IEC60384 standards and offer reliable performance across a wide temperature range. They are constructed with a tinned CP wire lead, aluminum case, and PVC/PET sleeve, featuring a safety vent for enhanced safety. The GT series is suitable for various electronic circuits requiring stable capacitance and low leakage current.
Product Attributes
- Brand: SAMXON
- Series: GT Series
- Type: Polar Aluminum Electrolytic Capacitor (Foil Type)
- Construction: Single ended type, impregnated with electrolyte, enclosed in an aluminum case, sealed with end seal rubber, and finished with a vinyl sleeve.
- Lead Material: Tinned CP wire (Pb Free)
- Case Material: Aluminum case
- Sleeve Material: PVC/PET
- Separator Material: Electrolyte paper
- Safety Feature: Safety vent for capacitors with diameter 6.3
Technical Specifications
General Specifications:
| Specification | Value |
|---|---|
| Rated Voltage (WVdc) | 6.3V, 10V, 16V, 25V, 35V, 50V, 63V, 100V |
| Surge Voltage (SVdc) | 8V, 13V, 20V, 32V, 44V, 63V, 79V, 125V |
| Capacitance Tolerance | -20% to +20% |
| Operating Temperature Range | -40C to +105C |
| Standard Atmospheric Conditions for Measurement | Ambient temperature: 15C to 35C, Relative humidity: 45% to 85%, Air Pressure: 86kPa to 106kPa |
| Specific Measurement Conditions | Ambient temperature: 20C 2C, Relative humidity: 60% to 70%, Air Pressure: 86kPa to 106kPa |
Specific Model Example (EGT127M1JF16RR**P1):
| Parameter | Value | Unit |
|---|---|---|
| SAMXON Part No. | EGT127M1JF16RR**P1 | - |
| Rated Voltage (WVdc) | 63 | Vdc |
| Capacitance | 120 | F |
| Capacitance Tolerance | -20%~+20% | - |
| Temp. range | -40~105 | |
| tan (120Hz, 20) | 0.09 | - |
| Leakage Current (2min) | 76 | A |
| Max Ripple Current at 105 (100kHz) | 820 | mA rms |
| Impedance at 20 (100kHz) | 0.170 | max |
| Load lifetime | 7000 | Hrs |
| Dimension (DL) | 8x16 | mm |
| Lead Spacing (F) | 3.5 | mm |
| Lead Diameter (d) | 0.5 | mm |
Detailed Test Conditions & Criteria:
| Characteristic | Condition | Criteria |
|---|---|---|
| Nominal Capacitance | 120Hz12Hz, 0.5Vrms, 202 | Within specified tolerance |
| Leakage Current | Series 1k10 resistor, 2 minutes | Refer to Table 1 |
| tan | 120Hz12Hz, 0.5Vrms, 202 | Refer to Table 1 |
| Impedance | 100kHz, 202, 2mm max from sealing rubber | Refer to Table 1 |
| Terminal Strength (Tensile) | 5N (0.5mm dia. or less), 10N (over 0.5mm to 0.8mm) for 101 sec | No breakage or looseness |
| Terminal Strength (Bending) | 2.5N (0.5mm dia. or less), 5N (over 0.5mm to 0.8mm) for 90 within 2~3 sec | No breakage or looseness |
| Load Life Test | 1052, DC bias + ripple current, 16 hrs recovery | Leakage current: Satisfy 4.3; Capacitance Change: 25%; tan: 200% of specified; Appearance: No electrolyte leakage |
| Shelf Life Test | 1052 for 1000+48/0 hours, 4~8 hrs stabilization, DC rated voltage with 1k100 for 30min | Leakage current: Satisfy 4.3; Capacitance Change: 25%; tan: 200% of specified; Appearance: No electrolyte leakage |
| Surge Test | 1000 cycles (305s charge, 5min 30s discharge) with (100 50)/CR (k) resistor, 15~35 | Leakage current: Not more than specified; Capacitance Change: 15%; tan: Not more than specified; Appearance: No electrolyte leakage |
| Vibration Test | 10Hz ~ 55Hz, 1.5mm peak to peak amplitude, 2 hrs each direction | No intermittent contacts, open/short circuit, damage; Appearance: No mechanical damage, electrolyte leakage, swelling; Markings legible |
| Solderability Test | 2453C, 2mm dip depth, 252.5mm/s, 30.5s | Min 95% surface immersed |
| Resistance to Solder Heat | 2605 for 101 sec OR 40010 for 3 + 0 1 sec (1.5~2.0mm from body) | Leakage current: Not more than specified; Capacitance Change: 10%; tan: Not more than specified; Appearance: No electrolyte leakage |
| Change of Temperature Test | 5 cycles: (1)+20 (3 min), (2)-40 (-25) (302 min), (3)+105 (302 min) | Leakage current: Not more than specified; tan: Not more than specified; Appearance: No electrolyte leakage |
| Damp Heat Test | 90~95% RH at 402 for 500 8 hours | Leakage current: Not more than specified; Capacitance Change: 20%; tan: 120% of specified; Appearance: No electrolyte leakage |
| Vent Test (for 6.3 with vent) | DC test with reversed polarity, applied current from Table 3 | Vent operates with no dangerous conditions |
| Maximum Permissible Ripple Current | At 100kHz and maximum operating temperature | Refer to Table 1 (Frequency Multipliers) |
Forming Dimensions (Example for 8):
| Shape Code | D | F | d |
|---|---|---|---|
| CB | 8 | 3.5 | 0.5 |
Taping Specification (Refer to Fig-1 to Fig-5 for details):
| Code | Diameter D (mm) | Height A (mm) | Lead Diameter d0.05 (mm) | Component Spacing P1.0 (mm) | Pitch of sprocket holes P00.2 (mm) | Carrier tape width W (mm) |
|---|---|---|---|---|---|---|
| TV | 8 | 9~15 | 0.5 | 12.7 | 12.7 | 18 |
Environment-related Substances:
Refers to the latest document of Environment-related Substances standard (WI-HSPM-QA-072). Controlled substances include Heavy metals (Cadmium, Lead, Mercury, Hexavalent Chromium), Chlorinated organic compounds, Brominated organic compounds, Tributyltin compounds, Asbestos, Formaldehyde, Polyvinyl chloride (PVC), Beryllium oxide, Beryllium copper, Specific phthalates, Hydrofluorocarbon (HFC), Perfluorocarbon (PFC), Perfluorooctane sulfonates (PFOS), Specific Benzotriazole.
Application Guidelines:
- Circuit Design: Consider effects of operating temperature and frequency on electrical parameters. Avoid common misapplication conditions such as reverse voltage, repeating charge/discharge, over voltage, and exceeding ripple current limits.
- Series/Parallel Connection: Use shunt resistors for series connections to balance voltage. Careful wiring is needed for parallel connections to balance ripple current.
- Mounting Considerations: Avoid wiring patterns under capacitors, ensure proper hole spacing, and maintain clearance for pressure relief vents.
- Electrical Isolation: Ensure complete electrical isolation between cathode and case, anode terminal and other paths.
- Product Endurance: Sample collection for life tests should be from within 6 months of the date code.
- Capacitor Sleeve: The sleeve is for marking and identification; it is not for electrical insulation and may be damaged by certain solvents and high temperatures.
- Safety: Plan for worst-case failure modes and provide protection circuits.
Capacitor Handling Techniques:
- Before Using: Do not reuse capacitors from used equipment. Discharge transient recovery voltage if necessary. Recondition capacitors stored for long periods by applying rated voltage through a resistor. Avoid using dropped, dented, or crushed capacitors.
- Insertion: Verify capacitance, voltage, and polarity. Ensure correct hole spacing and avoid stress on leads.
- Soldering: Observe temperature and time specifications. Avoid stress on leads and do not touch the capacitor body with the soldering iron.
- Cleaning: Use suitable cleaning solvents and temperatures. Thorough drying is required. Avoid specific solvent groups (halogenated, alkali, petroleum-based, xylene, acetone) unless specified.
- Adhesives/Coatings: Avoid halogenated solvents and chloroprene based polymers. Ensure thorough drying.
Precautions for Using Capacitors:
- Environmental Conditions: Avoid extreme temperatures, direct contact with water/oil, high humidity, toxic gases, ozone, radiation, and excessive vibration/shock.
- Electrical Precautions: Avoid touching terminals due to electric shock risk. Prevent short circuits between terminals.
Emergency Procedures:
- If the pressure relief vent operates, immediately turn off equipment. Avoid contact with escaping electrolyte gas. Follow first aid procedures for eye/skin contact or ingestion.
Long Term Storage:
- Leakage current increases with storage time. Recondition capacitors stored for over one year by applying rated voltage through a 1000 resistor for 30 minutes. Products over eighteen months from date code require confirmation.
Capacitor Disposal:
- Incinerate after crushing or puncturing to prevent explosion. Incinerate at high temperatures to prevent toxic gas release. Dispose of as solid waste, following local laws.
2410121541_Man-Yue-Tech-EGT127M1JF16RR_C726199.pdf
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