
In many electronic systems, stable operation depends on how power is generated, distributed, and sequenced across different circuit blocks. If power rails turn on in the wrong order or voltage levels are unstable, processors may fail to boot, memory can lose data, and sensitive components may get damaged. Managing this using multiple discrete regulators and control circuits increases design complexity and failure risk. A Power Management IC helps solve this by controlling multiple power functions inside a single device.
| Image | Part Number / Manufacturer | Description / Specs | MOQ | Datasheet | RFQ | |
|---|---|---|---|---|---|---|
![]() | H5084NLS Manufacturer: Pulse Electronics Network Category: Pulse Transformers | TRANSFORMER | 1 | |||
![]() | H5064NLS Manufacturer: Pulse Electronics Network Category: Pulse Transformers | TRANSFORMER | 1 | |||
![]() | H5051FNL Manufacturer: Pulse Electronics Network Category: Pulse Transformers | TRANSFORMER | 1 | |||
![]() | H5020NLS Manufacturer: Pulse Electronics Network Category: Pulse Transformers | TRANSFORMER | 1 | |||
![]() | H5012NLS Manufacturer: Pulse Electronics Network Category: Pulse Transformers | TRANSFORMER | 1 | |||
![]() | H5007CNL Manufacturer: Pulse Electronics Network Category: Pulse Transformers | TRANSFORMER | 1 | |||
![]() | H5007BNL Manufacturer: Pulse Electronics Category: Pulse Transformers | TRANSFORMER | 1 | |||
![]() | H5019EFNLT Manufacturer: Pulse Electronics Network Category: Pulse Transformers | PULSE XFMR 1CT:1 TX 1CT:1 RX | 1 | |||
![]() | H5089FNLT Manufacturer: Pulse Electronics Network Category: Pulse Transformers | PULSE XFMR 1CT:1CT TX 1CT:1CT RX | 1 | |||
![]() | H5089FNL Manufacturer: Pulse Electronics Network Category: Pulse Transformers | PULSE XFMR 1CT:1CT TX 1CT:1CT RX | 1 | |||
![]() | H5019FNL Manufacturer: Pulse Electronics Category: Pulse Transformers | PULSE XFMR 1CT:1 TX 1CT:1 RX | 1 | |||
![]() | H5143NL Manufacturer: Pulse Electronics Network Category: Pulse Transformers | PULSE XFMR 1CT:1CT 350UH | 1 | |||
![]() | H5089NL Manufacturer: Pulse Electronics Network Category: Pulse Transformers | TRANSFORMER MODULE GIGABIT 2PORT | 1 | |||
![]() | H5009NLT Manufacturer: Pulse Electronics Network Category: Pulse Transformers | TRANSFORMER MODULE GIGABIT 1PORT | 1 | |||
![]() | H5012NL Manufacturer: Pulse Electronics Network Category: Pulse Transformers | MODULE DL GIGABIT ETHER LAN 48P | 1 | |||
![]() | H5009NL Manufacturer: Pulse Electronics Network Category: Pulse Transformers | MODULE XFORMR GIGABIT SINGLE LAN | 1 | |||
| H5007 Manufacturer: Pulse Electronics Category: Pulse Transformers | MODULE SINGLE GIGABIT LAN 24SOIC | 1 | ||||
| H5004 Manufacturer: Pulse Electronics Category: Pulse Transformers | MODULE SINGLE GIGABIT LAN 24SOIC | 1 | ||||
![]() | PM-DB2762 Manufacturer: Holt Integrated Circuits Inc. Category: Pulse Transformers | ISOLATION TRANSFORMER SMD | 1 | |||
![]() | H5009FNLT Manufacturer: Pulse Electronics Network Category: Pulse Transformers | PULSE XFMR 1CT:1CT TX 1CT:1CT RX | 1 |
Many systems in operation rely on PMICs selected during original product design. These devices are often tightly linked to processor requirements, board power architecture, and system startup behavior. When a PMIC reaches end-of-life, replacing it can be difficult. Differences in pin layout, sequencing behavior, voltage accuracy, or protection response can affect system stability.
This is common in industrial, automotive, and medical systems where equipment remains active for many years. Maintenance teams often require the same PMIC to avoid redesign or system requalification. Delays in sourcing compatible PMICs can increase downtime and service cost.
Maketronics supports global engineering and procurement teams with reliable sourcing of both active and obsolete Power Management ICs.
A PMIC is an integrated circuit that manages voltage regulation, power sequencing, monitoring, and protection to ensure stable system operation.
Correct power sequencing ensures processors, memory, and peripherals start safely and operate reliably without damage or data corruption.
PMICs are widely used in embedded systems, mobile devices, industrial equipment, automotive electronics, and communication hardware.
Replacing an obsolete PMIC may require redesign and system validation because differences in pin layout, sequencing behavior, and protection features can affect stability.