Intel® Core™ Processor (Series 3)
Formerly known as Wildcat Lake, Datasheet, Volume 1 of 2
| ID | Date | Version | Classification |
|---|---|---|---|
| 913965 | 05/19/2026 | 001 | Public |
Legal Disclaimer
Revision History
Introduction
Processor and Device IDs
Package Mechanical Specifications
Memory Mapping
Security Technologies
Intel Virtualization Technology
Instructions Set Enhancements
Intel® Neural Processing Unit (Intel® NPU)
Audio Voice and Speech
Power Management
Power Delivery
Thermal Management
System Clocks
Real Time Clock (RTC)
Memory
USB Type-C Sub System
Universal Serial Bus (USB)
PCI Express (PCIe)
Universal Flash Storage
Graphics
Display
Processor Sideband Signals
General Purpose Input and Output
Interrupt Timer Subsystem (ITSS)
Intel® Serial IO Inter-Integrated Circuit (I2C) Controllers
Intel® Serial IO Improved Inter-Integrated Circuit (I3C) Controllers
Gigabit Ethernet Controller
Connectivity Integrated (CNVi)
Controller Link
Integrated Sensor Hub (ISH)
System Management Interface and SMLink
Host System Management Bus (SMBus) Controller
Serial Peripheral Interface (SPI)
Enhanced Serial Peripheral Interface (eSPI)
Intel® Serial IO Generic SPI (GSPI) Controllers
Touch Host Controller (THC)
Intel® Serial IO Universal Asynchronous ReceiverTransmitter (UART) Controlle
Private Configuration Space Port ID
Testability and Monitoring
Security Technologies
Intel® Converged Boot Guard and TXT
Crypto Acceleration Instructions
Intel® Secure Key
Execute Disable Bit
Intel® Supervisor Mode Execution Protection (Intel® SMEP)
Intel® Supervisor Mode Access Protection (Intel® SMAP)
User Mode Instruction Prevention (UMIP)
Read Processor ID (RDPID)
Intel® System Resources Defense and Intel® System Security Report
Intel® Total Memory Encryption - Multi-Key
Control-flow Enforcement Technology (Intel® CET)
BIOS Guard
Intel® Platform Trust Technology
Linear Address Space Separation (LASS)
Intel® Total Storage Encryption (Intel® TSE)
Security Firmware Engines
Audio Voice and Speech
Intel® High Definition Audio (Intel® HD Audio) Controller Capabilities
Audio DSP Capabilities
Intel® High Definition Audio Interface Capabilities
Direct Attached Digital Microphone (PDM) Interface
USB Audio Offload Support
I2S PCM Interface
Intel® Display Audio Interface
MIPI® SoundWire Interface
Signal Description
Integrated Pull-Ups and Pull-Downs
IO Signal Planes and States
Power and Performance Technologies
Intel® Thread Director
Intel® Smart Cache Technology
P-core LP E-core Level 0, Level 1 and Level 2 Caches
Ring Interconnect
Intel® Hybrid Technology
Intel® Turbo Boost Technology 2.0
Intel® Adaptive Boost Technology
Intel System Agent Enhanced SpeedStep ® Technology
Enhanced Intel SpeedStep® Technology
Intel® Speed Shift Technology
Intel® Advanced Vector Extensions 2 (Intel® AVX2)
Intel® 64 Architecture x2APIC
Intel® Dynamic Tuning Technology (Intel® DTT)
Cache Line Write Back (CLWB)
User Mode Wait Instructions
Thermal Management Features
Skin Temperature Control (STC)
Adaptive Thermal Monitor
Digital Thermal Sensor
FORCEPR# Signal
FORCEPR Demotion
Voltage Regulator Protection using FORCEPR#
Thermal Solution Design and FORCEPR Behavior
Low-Power States and FORCEPR Behavior
THERMTRIP Signal
Critical Temperature Detection
System Memory Interface
Processor SKU Support Matrix
Supported Memory Modules and Devices
System Memory Timing Support
Memory Controller (MC)
System Memory Frequency
Technology Enhancements of Intel® Fast Memory Access (Intel® FMA)
Data Scrambling
Data Swapping
LPDDR5x CMDADD Ascending and Descending
DDR IO Interleaving
DRAM Clock Generation
DRAM Reference Voltage Generation
Data Swizzling
Error Correction With Standard RAM
Post Package Repair (PPR)
RFM
In-Memory Analytics Accelerator
DMA Controller
The UART controllers 0 and 1 (UART0 and UART1) have an integrated DMA controller. Each channel contains a 64-byte FIFO. Max. burst size supported is 32 bytes.
UART controller 2 (UART2) only implements the host controllers and does not incorporat is not bee a DMA. Therefore, UART2 is restricted to operate in PIO mode only.
DMA Transfer and Setup Modes
The DMA can operate in the following modes:
- Memory to peripheral transfers. This mode requires that the peripheral control the flow of the data to itself.
- Peripheral to memory transfer. This mode requires that the peripheral control the flow of the data from itself.
The DMA supports the following modes for programming:
- Direct programming. Direct register writes to DMA registers to configure and initiate the transfer.
- Descriptor based linked list. The descriptors will be stored in memory (such as DDR or SRAM). The DMA will be informed with the location information of the descriptor. DMA initiates reads and programs its own register. The descriptors can form a linked list for multiple blocks to be programmed.
- Scatter Gather mode
Channel Control
- The source transfer width and destination transfer width are programmable. It can vary to 1 byte, 2 bytes, and 4 bytes.
- Burst size is configurable per channel for source and destination. The number is a power of 2 and can vary between 1,2,4,...,128. this number times the transaction width gives the number of bytes that will be transferred per burst.
- Individual Channel enables. If the channel is not being used, then it should be clock gated.
- Programmable Block size and Packing/Unpacking. Block size of the transfer is programmable in bytes. Block size is not limited by the source or destination transfer widths.
- Address incrementing modes: The DMA has a configurable mechanism for computing the source and destination addresses for the next transfer within the current block. The DMA supports incrementing addresses and constant addresses.
- Flexibility to configure any hardware handshake sideband interface to any of the DMA channels.
- Early termination of a transfer on a particular channel.