
Most electronic equipment operates internally using DC power, while the main available power source in homes, factories, and infrastructure is usually AC. Electronic circuits such as processors, memory, communication ICs, and sensors cannot operate directly from AC voltage. Without proper conversion, AC supply can damage sensitive electronic components. An AC to DC converter solves this by converting AC input voltage into regulated DC output suitable for electronic circuits.
| Image | Part Number / Manufacturer | Description / Specs | MOQ | Datasheet | RFQ | |
|---|---|---|---|---|---|---|
| 6000-220023 Manufacturer: Storm Interface Category: Keypad Switches | SWITCH KEYPAD 16KEY 0.05A 24V | 1 | ||||
| 6000-210023 Manufacturer: Storm Interface Category: Keypad Switches | SWITCH KEYPAD 16KEY 0.05A 24V | 1 | ||||
| EZ05-23001 Manufacturer: Storm Interface Category: Keypad Switches | SWITCH KEYPAD 5KEY NON-ILLUM | 1 | ||||
![]() | 87BC3-201 Manufacturer: Grayhill Inc. Category: Keypad Switches | SWITCH KEYPAD 16KEY 0.01A 24V | 1 | |||
| 3KLW160103 Manufacturer: Storm Interface Category: Keypad Switches | SWITCH KEYPAD 16KEY 0.05A 24V | 1 | ||||
| 3KLW16T103 Manufacturer: Storm Interface Category: Keypad Switches | SWITCH KEYPAD 16KEY 0.05A 24V | 1 | ||||
| 3KLW12T103 Manufacturer: Storm Interface Category: Keypad Switches | SWITCH KEYPAD 12KEY 0.05A 24V | 1 | ||||
| 3KLW120103 Manufacturer: Storm Interface Category: Keypad Switches | SWITCH KEYPAD 12KEY 0.05A 24V | 1 | ||||
| 3KLW042103 Manufacturer: Storm Interface Category: Keypad Switches | SWITCH KEYPAD 4KEY 0.05A 24V | 1 | ||||
| 3KLW041103 Manufacturer: Storm Interface Category: Keypad Switches | SWITCH KEYPAD 4KEY 0.05A 24V | 1 | ||||
| 101207 Manufacturer: Soldered Electronics Category: Keypad Switches | MEMBRANE KEYBOARD 4X4 | 1 | ||||
| 1KL12T103 Manufacturer: Storm Interface Category: Keypad Switches | SWITCH KEYPAD 12KEY 0.05A 24V | 1 | ||||
| GSLW160203 Manufacturer: Storm Interface Category: Keypad Switches | SWITCH KEYPAD 16KEY 0.05A 24V | 1 | ||||
| GSLW120203 Manufacturer: Storm Interface Category: Keypad Switches | SWITCH KEYPAD 12KEY 0.05A 24V | 1 | ||||
| GSLW040203 Manufacturer: Storm Interface Category: Keypad Switches | SWITCH KEYPAD 4KEY 0.05A 24V | 1 | ||||
| GSRG160203 Manufacturer: Storm Interface Category: Keypad Switches | SWITCH KEYPAD 16KEY 0.05A 24V | 1 | ||||
| GSRG120203 Manufacturer: Storm Interface Category: Keypad Switches | SWITCH KEYPAD 12KEY 0.05A 24V | 1 | ||||
| GSRG040203 Manufacturer: Storm Interface Category: Keypad Switches | SWITCH KEYPAD 4KEY 0.05A 24V | 1 | ||||
![]() | 96BB2-006-RS Manufacturer: Grayhill Inc. Category: Keypad Switches | SWITCH KEYPAD 16KEY 0.005A 12V | 1 | |||
![]() | 96BB2-006-FS-EL Manufacturer: Grayhill Inc. Category: Keypad Switches | SWITCH KEYPAD 16KEY 0.005A 12V | 1 |
AC to DC converters are typically selected during early system power design and matched to input voltage range, load requirements, and thermal conditions. When an AC to DC converter reaches end-of-life, replacement may be difficult. Differences in output regulation behavior, ripple characteristics, or mechanical form factor can affect system performance and compliance.
This is common in industrial, medical, and telecom systems where equipment remains active for many years. Maintenance teams often require the same converter to avoid redesign or recertification. Delays in sourcing compatible converters can increase downtime and maintenance cost.
Maketronics supports global engineering and procurement teams with reliable sourcing of both active and obsolete AC to DC Converters.
An AC to DC converter converts alternating current (AC) from mains power into regulated direct current (DC) suitable for electronic circuits.
Electronic components require stable DC voltage to operate safely and reliably, while utility power is supplied as AC.
Linear converters are simple but less efficient, while switching converters offer higher efficiency, lower heat generation, and compact size.
Replacing an obsolete converter may require validation because differences in output regulation, ripple performance, and mechanical design can affect system compliance and reliability.