Intel Core Ultra 9 386H socket: BGA 2540
The Intel Core Ultra 9 386H uses BGA 2540, a soldered 2,540-ball package measuring 50 × 25 mm. It is a 16-core Panther Lake mobile processor with a 25 W processor base power, and the soldered chip cannot be replaced or upgraded.
- Socket
- BGA 2540
- Launched
- January 2026
- Cores and threads
- 16 and 16
- Base power
- 25 W
- Codename
- Panther Lake
- Segment
- Mobile (soldered)
- Family
- Intel Core Ultra 9
- Clocks
- 2.1 / 4.9 GHz
Intel Core Ultra 9 386H specifications
| Cores | 16 (4 Performance-cores, 8 Efficient-cores and 4 low-power Efficient-cores) |
|---|---|
| Threads | 16 |
| P-core clocks | 2.1 GHz base, up to 4.9 GHz maximum turbo |
| E-core clocks | 1.6 GHz base, up to 3.7 GHz maximum turbo |
| Low-power E-core clocks | 1.6 GHz base, up to 3.5 GHz maximum turbo |
| Cache | 18 MB Intel Smart Cache |
| Processor base power (TDP) | 25 W |
| Maximum turbo power | 80 W |
| Manufacturing process | Intel 18A |
| Memory support | Dual-channel LPDDR5X up to 8533 MT/s or DDR5 up to 7200 MT/s, up to 96 GB (LPDDR5X) or 128 GB (DDR5) |
| PCI Express | 20 lanes (12 PCIe 5.0 plus 8 PCIe 4.0) |
| Integrated graphics | Intel Graphics, 4 Xe3 cores, up to 2.5 GHz (40 TOPS Int8) |
| NPU | 50 TOPS (Int8) |
| Package | FCBGA2540 (soldered, 50 × 25 mm) |
Motherboard compatibility
Intel Core Ultra 9 386H needs a motherboard with a BGA 2540 socket. Chipset by chipset data for this codename is not recorded yet. See the BGA 2540 chipset list and the board maker's CPU support list.
BGA 2540 at a glance
| Type | BGA, 2,540 contacts |
|---|---|
| Package size | 50 × 25 mm |
| Introduced | January 2026 |
| Memory | LPDDR5X up to 9600 MT/s or DDR5 up to 7200 MT/s, two channels |
| Cooler mounting holes | Not applicable (soldered) |
What the Core Ultra 9 386H is
The Intel Core Ultra 9 386H is a 16-core, 16-thread mobile processor that Intel launched in January 2026 as the top standard H member of Core Ultra Series 3, the family codenamed Panther Lake. Its four Cougar Cove Performance-cores run at 2.1 GHz and reach up to 4.9 GHz, while eight Darkmont Efficient-cores cover parallel work at 1.6 GHz and up to 3.7 GHz and four low-power Efficient-cores handle background tasks at 1.6 GHz and up to 3.5 GHz. All sixteen cores share 18 MB of Intel Smart Cache, and with no Hyper-Threading the thread count matches the core count at sixteen.
Graphics on this chip take a deliberately smaller role than on the X models. Intel Graphics with four Xe3 cores runs at up to 2.5 GHz with 40 TOPS of Int8 throughput for everyday visuals, video playback and multi-monitor office work. A discrete NPU adds 50 TOPS for background blur, noise suppression and other on-device AI features that run without waking the CPU cores. Intel builds the compute tile on the Intel 18A process, and the chip is rated at 25 W of processor base power with up to 80 W of maximum turbo power.
The 386H is the non-X counterpart to the flagship tier. It keeps sixteen cores and 18 MB of cache with a 4.9 GHz peak, yet swaps the twelve-core Arc GPU for a four-core GPU and gains eight more PCIe lanes in return. That trade suits laptop designs that carry their own discrete graphics or heavy storage arrays, where CPU lanes matter more than integrated GPU scale. Embedded options are available on this SKU, which opens compact industrial and edge boards alongside consumer laptops.
Inside the wider family the 386H sits between the 5.1 GHz Core Ultra X9 388H above and the 4.8 GHz Core Ultra 7 366H below. Memory flexibility is wider here than on the X models: the controller supports LPDDR5X up to 8533 MT/s or DDR5 up to 7200 MT/s, so board makers can choose soldered LPDDR5X for thin designs or DDR5 for cost sensitive builds.
Socket and motherboard compatibility
The Core Ultra 9 386H is soldered to its board in the BGA 2540 ball grid array, so there is no socket to plug into and the chip cannot be replaced or upgraded later. The 2,540-ball joint is made once at the factory on a 50 × 25 mm FCBGA2540 package, and each laptop or compact board design is qualified around this exact SKU for its whole service life.
There is no board or chipset choice in the retail sense. The system vendor selects the memory type and capacity, sets the power policy between the 15 W minimum assured power and the 80 W turbo ceiling, and validates the thermal design for that envelope. Firmware, drivers and the NPU software stack come from the same vendor, so buyers compare finished systems rather than motherboards.
The BGA 2540 footprint is shared with the other Panther Lake H processors and the Arc G3 handheld parts, from 12-core mainstream SKUs to 16-core flagships. Sharing a package does not create an upgrade path, since moving between SKUs still means a different board build with different firmware and validation. Buyers who want the large twelve-core GPU choose an X model system from the start.
Memory, PCIe and cooling
Memory is dual-channel LPDDR5X up to 8533 MT/s or DDR5 up to 7200 MT/s, with up to 96 GB of LPDDR5X or 128 GB of DDR5 depending on the design, and the fitted type and size are fixed when the board is built. The DDR5 option lets makers serve price sensitive laptops and edge boards, while LPDDR5X serves thin designs that prize power efficiency. Capacity planning belongs at purchase time because soldered builds accept no later additions.
Expansion is generous at twenty PCIe lanes across PCI Express 5.0 and 4.0, configured as twelve Gen 5 lanes plus eight Gen 4 lanes, with Thunderbolt 4 for docks and fast external storage. Those lanes serve NVMe storage, discrete graphics and high speed peripherals on boards that include them, while display output runs through the integrated graphics with eDP 1.5, DisplayPort 2.1 and HDMI 2.1. The exact lane split and port list are set per system design, so the vendor specification governs what each chassis exposes.
Cooling is a system responsibility across the 15 W to 80 W span. Four Performance-cores at 4.9 GHz make sustained all-core loads the hardest case for a thin chassis, so fan and heatsink choice decides how long the chip holds peak clocks. There is no boxed cooler and no retail heatsink list for a soldered mobile processor, and power policy in firmware decides the balance between fan noise and speed.
Upgrade paths
There is no CPU upgrade path on a soldered package. When sixteen cores stop being enough, the step is a new system, since the 386H already leads the standard H range and only the X models clock higher with larger graphics on the same socket, and those still mean a different board. Memory size and type changes mean a new board for the same reason, so buyers should size capacity at purchase.
Moving off BGA 2540 means a new platform. Higher power designs with socketed desktop or HX mobile processors serve sustained workstation loads, while the X models serve thin laptops that rely on integrated graphics. The LGA, PGA and BGA: CPU package types explained guide explains how soldered packages differ from socketed ones and why the whole device is the unit of replacement here.
Frequently asked questions
What socket does the Core Ultra 9 386H use?
It uses BGA 2540, a 2,540-ball soldered grid array in a 50 × 25 mm package. The chip is fixed to the board at the factory.
Can the Core Ultra 9 386H be upgraded later?
No. Soldered processors cannot be removed, so more performance means replacing the board or the whole system.
What memory does the Core Ultra 9 386H support?
Dual-channel LPDDR5X up to 8533 MT/s or DDR5 up to 7200 MT/s, up to 96 GB of LPDDR5X or 128 GB of DDR5. The fitted type and size are fixed when the board is built.
What is the difference between the Core Ultra 9 386H and the X models?
The 386H keeps sixteen cores with a 4.9 GHz peak but uses a four-core GPU with twenty PCIe lanes, while X models use a twelve-core Arc GPU with twelve PCIe lanes and faster LPDDR5X memory.
Sources and verification
- Intel Core Ultra 9 Processor 386H specifications (Intel ARK)
- Intel Core Ultra 9 386H Processor Benchmarks and Specs (Notebookcheck)
- Intel Core Ultra Series 3 Processors Quick Reference Guide (Intel)
Facts last checked against these sources on . Page last edited on .