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Rockchip RK3588C datasheet: specifications, pins and electrical limits

Rockchip RK3588C datasheet: specifications, pins and electrical limits — Rev1.3

· ArmSoM Editorial · Rockchip source documentation · 36 min read

ArmSoM platform reference for RK3588C. Chip capabilities do not establish board compatibility: verify the actual device, schematic, rails and BSP. No hardware test was performed. Source figures and simulated thermal values are Rockchip material. No SDK/kernel version is specified. The sole supplied source is the English RK3588C Datasheet Rev1.3, dated 2024-12-12, 33 pages, stored in the CN directory; all figures are English originals.

1.1

RK3588C is a low-power, high-performance processor for NVR and edge-computing devices. It integrates four Cortex-A76 cores and four Cortex-A55 cores, each with a NEON coprocessor. Hardware engines accelerate demanding applications. Video decoding supports H.265 and VP9 at 8K@60fps, H.264 at 8K@30fps, and AV1 at 4K@60fps. H.264 and H.265 encoding supports 8K@30fps; high-quality JPEG encoding/decoding and dedicated image preprocessing and postprocessing are also integrated. The 3D GPU supports OpenGLES 1.1, 2.0 and 3.2, OpenCL up to 2.2, and Vulkan 1.2. A dedicated 2D engine with an MMU accelerates display operations. The NPU supports mixed INT4/INT8/INT16/FP16 operations and up to 6 TOPS; models from TensorFlow, MXNet, PyTorch and Caffe can be converted. The four-channel external memory interface supports LPDDR4/LPDDR4X and demanding bandwidth requirements. A comprehensive peripheral interface set supports flexible applications.

1.2.1

Microprocessor. Four ARM Cortex-A76 MPCore and four ARM Cortex-A55 MPCore application processors combine high performance, low power and caches. DSU (DynamIQ Shared Unit) contains the L3 memory system, control logic and external interfaces for the DynamIQ cluster. The ARMv8-A instruction set is fully implemented, including ARM NEON Advanced SIMD for media/signal processing and ARMv8 Cryptography Extensions; TrustZone is supported. Each A76 has 64KB L1 instruction, 64KB L1 data and 512KB L2 cache; each A55 has 32KB L1 instruction, 32KB L1 data and 128KB L2 cache. All eight cores share 3MB L3. Eight independent power domains support internal power switches and externally controlled on/off operation for different applications: PD_CPU_0/1/2/3 correspond respectively to A55 cores 1/2/3/4, and PD_CPU_4/5/6/7 to A76 cores 1/2/3/4; each includes NEON, FPU and L1/L2 instruction/data caches. Three separate voltage domains support DVFS: A76_0+A76_1, A76_2+A76_3, and DSU+Cortex-A55.

1.2.2

Memory organization. On-chip BootROM boots through SPI, eMMC or SD/MMC and downloads system code through USB OTG. Shared memory is in VD_LOGIC; PMU SRAM in VD_PMU serves low-power applications. External dynamic memory complies with JEDEC LPDDR4/LPDDR4X, with four 16-bit channels, up to two ranks/chip selects per channel and up to 32GB total address space. SDRAM supports power-down and self-refresh. The eMMC interface fully complies with JEDEC eMMC 5.1/5.0 and is backward-compatible with 4.51 and earlier; HS400, HS200, DDR50 and legacy modes use 1-, 4- or 8-bit buses. SD/MMC supports SD3.0 and MMC 4.51 with a 4-bit bus. FSPI transfers data to/from serial flash using 1-, 2- or 4-bit buses and two chip selects.

1.2.3

System components. Three Cortex-M0 MCUs are integrated: VD_PMU has 16KB cache+16KB TCM, VD_NPU has 16KB cache+64KB TCM, and PD_CENTER has 32KB TCM. Their programmable interrupt controller connects all CPU GIC IRQ lines also to PMU_M0 and DDR_M0; a JTAG debug controller is integrated. CRU generates clocks with 18 PLLs and one 24MHz oscillator input, gates individual components, and supports global and individual software reset. PMU offers configurable operating modes using frequency adjustment, automatic clock gating and power-domain switching, multiple wake sources, 10 separate voltage domains and 45 software-switchable power domains. There are 12 secure and 18 non-secure timers, each with a 64-bit counter, interrupt operation, free-running/user-defined counting and readable working state. Sixteen PWMs (PWM0–PWM15) support interrupts, programmable bus-clock prescaling followed by further division, 32-bit timers/counters, capture, continuous/one-shot and reference modes and variable-duty waveforms. PWM3/7/11/15 are optimized for infrared. Five watchdogs serve CPU/MCU; each 32-bit counter counts a preset value down to zero. Timeout either resets immediately or first interrupts, then resets on a second timeout if software has not cleared it. The interrupt controller accepts 12 PPI and 480 SPI sources and 16 software-triggered interrupts; fixed polarity is high-level for SPI and low-level for PPI, with software-programmable priority per source. Three microcode-programmed DMACs support linked-list scatter/gather and memory-to-memory, memory-to-peripheral and peripheral-to-memory transfers. Each has 8 channels, 32 peripheral hardware requests, 2 interrupt outputs and TrustZone with per-channel programmable security. Two cipher engines support LLI DMA; hardware-padded SHA-1, SHA-256/224, SHA-512/384, MD5 and SM3; hardware-padded HMAC using SHA-1/SHA-256/SHA-512/MD5/SM3; AES-128/192/256 encryption/decryption; AES and SM4 modes ECB/CBC/OFB/CFB/CTR/CTS/XTS/CCM/GCM/CBC-MAC/CMAC; DES/TDES in ECB/CBC/OFB/CFB; RSA/ECC/SM2 PKA operations up to 4096 bits; and random-number generation. Security includes key ladders, scrambling for all DDR types, secure OTP/debug/DFT/OS, and software-selectable secure/non-secure modes for non-CPU masters. Some slaves accept secure masters only, others accept either class as programmed. Part of shared SRAM is secure-only. External DDR divides into 16 regions with programmable access by each master. Three mailboxes connect CPU and MCU; each contains four elements comprising a data word, command-word register and interrupt flag. There are 32 software lock registers indicating occupancy. Hardware decompresses GZIP, LZ4 (general and legacy frame formats), DEFLATE and ZLIB, verifies LZ4 Hash32, and limits decompressed output size to prevent malicious memory destruction.

1.2.4

Video codec. Real-time decoding supports MPEG-1/2/4, H.263, H.264, H.265, VC-1, VP9, VP8, MVC and AV1, with an embedded MMU and parallel multichannel decoding at lower resolutions. The following capability tuples retain the source profile, level, resolution and rate, including the source marker ②. H.265/H.264 real-time encoding supports up to 8K@30fps and parallel multichannel operation at lower resolutions.

Codec Format Resolution  
H.264 AVC/MVC Main10 L6.0 8K@30fps 7680x4320 ②
VP9 Profile0/2 L6.1 8K@60fps 7680x4320  
H.265 HEVC/MVC Main10 L6.1 8K@60fps 7680x4320  
AVS2 Profile0/2 L10.2.6 8K@60fps 7680x4320  
AV1 Main Profile 8/10bit L5.3 4K@60fps 3840x2160  
MPEG-2 MP 1080p@60fps 1920x1088  
MPEG-1 MP 1080p@60fps 1920x1088  
VC-1 AP level 3 1080p@60fps 1920x1088  
VP8 version2 1080p@60fps 1920x1088  

1.2.5

JPEG codec. Encoding uses baseline sequential DCT, sizes 96x96–8192x8192 (67Mpixels), up to 90 million pixels/s and four encoder units. Decoding accepts 48x48–65536x65536, YUV400/YUV411/YUV420/YUV422/YUV440/YUV444 and MJPEG, up to 1080P@280fps and 560 million pixels/s. The source also says ‘four encoder units’ under the decoder heading; that wording is retained as a source inconsistency, not silently corrected.

1.2.6

Neural processing unit. The accelerator reaches up to 6 TOPS. Three NPU cores operate together as three, as two, or independently. Supported arithmetic is integer 4/8/16, float16, Bfloat16 and tf32. Internal buffering is 384KBx3. Multiple tasks and scenarios run in parallel. Supported frameworks include TensorFlow, Caffe, Tflite, Pytorch, Onnx NN and Android NN. One separate voltage domain supports DVFS.

1.2.7

Graphics engine. The ARM Mali-G610 MP4 3D engine supports OpenGLES 1.1/2.0/3.2, OpenCL 2.2 and Vulkan 1.2. Four shader cores share a hierarchical tiler; MMU and 4x256KB L2 cache are included. It uses Valhall, AFBC 1.3, Serial Wire debugging for its embedded MCU and a separate DVFS voltage domain. The 2D engine accepts ARGB/RGB888/RGB565/YUV420/YUV422/BPP and outputs ARGB/RGB888/RGB565/YUV420/YUV422; maximum source/destination sizes are 8192x8192/4096x4096. It supports block transfer, transparency, gradient/pattern fills, global and per-pixel alpha (color and alpha channels separately), fading, arbitrary noninteger scaling from 1/8 to 8, rotations 0/90/180/270 degrees, X/Y mirroring with rotation, ROP2/ROP3/ROP4 and 4k/64k-page MMU. The image-enhancement processor accepts planar/semi-planar YUV420/YUV422 with UV swapping; outputs semi-planar YUV420/YUV422 with UV swapping and tile mode; downsamples YUV422 to YUV420; handles moving images up to 1920x1080 and deinterlaces.

1.2.8

Video input. One 8/10/12/16-bit standard DVP interface accepts up to 150MHz, supports BT.601/BT.656/BT.1120, and has configurable pixel_clk/hsync/vsync polarity.

1.2.9

Display interfaces. One HDMI2.1 TX supports x3/x4 FRL, backward compatibility with HDMI2.1 TMDS and earlier specifications, FRL rates 3/6/8/10/12Gbps, up to 7680x4320@60Hz, RGB/YUV up to 10bit, DSC1.2a and HDCP2.3. One HDMI2.0/eDP1.4 TX combo permits either HDMI or eDP at a time. eDP supports x1/x2/x4 and 1.62/2.7/5.4Gbps. HDMI reaches 4096x2160@60Hz with RGB/YUV up to 10bit, DSC1.2a and HDCP2.3; eDP reaches 4K@60Hz with RGB/YCbCr4:4:4/YCbCr4:2:2, 8/10 bits per component and HDCP1.3. HDMI timing should follow CTA-861; nonstandard HSYNC/HBP/HFP should align to 4 pixels. One DP TX1.4a combines with USB3.1 Gen1, supports 1/2/4 lanes, 1.62/2.7/5.4/8.1Gbps, up to 7680x4320@30Hz, RGB/YUV up to 10bit, SST, Type-C DP Alt Mode and HDCP2.3/1.3. DP timing should follow CTA-861; nonstandard HSYNC/HBP/HFP minimum is 16 pixels. BT.1120 output reaches 1920x1080@60Hz and 150MHz.

1.2.10

Video output processor. Maximum outputs: Video Port0 7680x4320@60Hz; Port1 and Port2 each 4096x4320@60Hz; Port3 2048x1080@60Hz. Cluster0/1/2/3 each support 4096x4320 input/output, AFBCD, RGB/YUV/YUYV, scaling 4–1/4 and rotation. ESMART0/1/2/3 each support 4096x4320 input/output, RGB/YUV/YUYV, scaling 8–1/8 and four regions. Overlay combines up to eight layers (four clusters+four ESMART) in RGB or YUV. Postprocessing supports HDR10/HLG, HDR2SDR/SDR2HDR and 3D-LUT/P2I/CSC/BCSH/DITHER/CABC/GAMMA/COLORBAR. Writeback uses ARGB8888/RGB888/RGB565/YUV420 up to 1920x1080. VOP timing requires HACTIVE aligned to 4 pixels. In split mode, MIPI dual-channel mode or YUV420, POST HSYNC/HBP/HFP must align to 2 pixels. MIPI DSC video mode requires POST HSYNC/HBP/HFP at least 16 pixels and DSC_SYS_CTRL HSYNC/HBP/HFP at least 8 pixels.

1.2.11

Audio interfaces. Four-channel I2S0 supports up to 4 TX or 4 RX channels; I2S1 supports up to 8 TX and 8 RX channels. Both use 16–32-bit resolution, up to 192kHz, software-selectable master/slave, I2S normal/left-/right-justified, PCM early/late1/late2/late3 and TDM normal, half-cycle/one-cycle/two-cycle left shift or right shift. I2S/PCM/TDM cannot operate simultaneously. I2S2/I2S3 each support 2 TX and 2 RX channels, 16–32 bits, up to 192kHz, programmable master/slave, the same three I2S and four PCM formats; I2S and PCM cannot run simultaneously. SPDIF0/1 pack two 16-bit samples into one 32-bit location, output biphase stereo, align 16–31-bit data left/right in 32-bit buffers, transfer linear PCM at 16/20/24 bits and support nonlinear PCM. PDM0/1 offer up to 8 channels, 16–24-bit resolution, up to 192kHz and master receive mode. The digital audio codec has two digital DAC channels, I2S/PCM master/slave, 16-bit sampling, three mixing modes per DAC channel and volume control. VAD reads I2S/PDM voice data, detects amplitude, stores microphone-array data and supports a combined level interrupt.

1.2.12

Connectivity. SDIO supports SDIO3.0 with a 4-bit bus. Two GMACs support RGMII at 10/100/1000Mbps and RMII at 10/100Mbps, full or half duplex. USB3.1 Gen1 (equivalent to USB3.2 Gen1 and USB3.0) reaches 5Gbps. One OTG interface, USB3OTG_0, combines with DP TX; one Host interface, USB3OTG_2, combines with PIPE PHY2. Compliance: USB3.0 revision1.0, USB2.0 except USB3OTG_2, and xHCI1.1. Transfers include control, bulk with streams, interrupt and isochronous; simultaneous IN/OUT is supported. Descriptor caching and data prefetch improve high-latency-system performance. Power management supports USB2.0 LPM except on USB3OTG_2 and USB3.1 U0/U1/U2/U3. Device functions provide up to 10 IN and 6 OUT endpoints, each count including control endpoint0; up to 16 transfer resources, one per endpoint; flexible endpoint configuration for applications/USB set-configuration modes; hardware ERDY and burst handling; stream-based bulk endpoints with automatic controller data movement; isochronous endpoints using data buffers; and flexible descriptors supporting buffer-interrupt moderation, multiple transfers, isochronous/control transfers and scattered buffering. xHCI host supports up to 64 devices, one interrupter, one USB2.0 port except USB3OTG_2, one SuperSpeed port and standard/open-source xHCI/class drivers. DRD features include static device/host operation and ID-based USB3.1/USB2.0 OTG A/B operation; USB3OTG_2 supports USB3.1 Gen1 only. SRP, HNP and RSP are not supported. USB2.0 PHY supports battery-charge detection; USB3OTG_0 support Type-C/DP Alt Mode; USB3OTG_2 PHY shares PCIe/SATA. Two USB2.0 hosts comply with USB2.0, support high/full/low speeds 480/12/1.5Mbps and EHCI1.0/OHCI1.0a. Three Combo PIPE PHYs support PCIe2.1/SATA3.0/USB3.1 controllers: PHY0 and PHY1 each select SATA or PCIe2.1; PHY2 selects SATA, PCIe2.1 or USB3.1 Gen1. Each PCIe2.1 interface has one lane at 5Gbps, follows PCI Express Base2.1 and supports Root Complex only. Each SATA interface has one 6Gbps port, supports eSATA and complies with Serial ATA3.1/AHCI1.3.1. PCIe3.0 follows Base3.0, supports RC/EP, rates 2.5Gbps (1.1), 5Gbps (2.1) and 8Gbps (3.0; source prints 8Gps), and aggregation/bifurcation as 1x2 or 2x1 lanes. Five SPI controllers (SPI0–SPI4) provide two chip-select outputs and software-selectable serial master/slave operation. Nine I2C masters I2C0–I2C8 support 7/10-bit addressing and programmable clocks up to 100kbit/s Standard-mode or 400kbit/s Fast-mode. Ten UARTs UART0–UART9 each have separate 64-byte TX/RX FIFOs, 5/6/7/8-bit transmit/receive, standard start/stop/parity, selectable input clocks for up to 4Mbps and automatic flow control on all UARTs. Separate USB2.0 OTG supports USB2.0 (source excludes USB3OTG_2), xHCI1.1, control/bulk including streams/interrupt/isochronous transfers, descriptor caching, data prefetch and battery-charge detection. It offers static device/host and ID-based OTG A/B roles, without SRP/HNP/RSP; up to 10 IN and 6 OUT endpoints including endpoint0, 16 transfer resources, flexible configuration, and an xHCI host with 64 devices, one interrupter and one USB2.0 port.

1.2.13

Other features. Multiple GPIO groups support interrupts on every GPIO, level/edge triggering, configurable level polarity, rising/falling/both edges, selectable weak pull-up/pull-down and drive strength. TS-ADC supports user-defined and automatic modes. In user-defined mode start_of_conversion is fully software-controlled or hardware-generated. Automatic mode provides programmable high/low alarm interrupt thresholds and system-reset temperature. Seven TS-ADC channels have independently configurable temperature criteria; range is −40–125°C, resolution 1°C. SARADC has 12-bit resolution, up to 1MS/s and four single-ended inputs. OTP offers 32Kbit, with the higher 4k address space non-secure (source terminology retained). Secure mode supports read and program word masks; programming is at most 32 bits, reads at most 16 words; read/program status is readable and failed-program addresses are recorded. Package: FCCSP766L, body 17mm x 19mm, ball diameter 0.3mm, pitch 0.6mm & 0.65mm.

1.3 Block diagram

1-1. Block diagram (English original).

1-1. Block diagram (English original).

The diagram additionally labels 1MB shared memory, six PVTM units, two SPDIF units marked 8ch, system registers and embedded SRAM/ROM/OTP. It says six SPI units and eDP1.3, while the text says five SPI controllers and eDP1.4; these source contradictions remain explicit. SD3.0/MMC4.5 in the diagram differs from MMC4.51 in the text.

2. Package

2.1 Ordering

RK3588C: RoHS, ED-FCCSP 17x19 766L, 840PCS by tray, application processor.

2.2 Markings

Rockchip is the brand; RKXXXX the chip name; ABC the subcontractor code; XXXXXX the die lot; YYWW the date code; NXXXXXX FXX the OSAT sub-lot. The corner mark identifies the first pin.

2-1. Package markings (English original).

2-1. Package markings (English original).

2-2. Package top view (English original).

2-2. Package top view (English original).

2.3 Dimensions

2-3. Package bottom view (English original).

2-3. Package bottom view (English original).

2-4. Package side view (English original).

2-4. Package side view (English original).

2-5. Package dimensions (English original).

2-5. Package dimensions (English original).

Symbol Min mm Typ mm Max mm Min inch Typ inch Max inch
A 1.04 1.150 1.221 0.041 0.045 0.048
A1 0.160 0.210 0.260 0.006 0.008 0.010
A2 0.860 0.940 0.990 0.034 0.037 0.039
A3 0.570 0.600 0.630 0.022 0.024 0.025
c 0.300 0.340 0.380 0.012 0.013 0.015
D 16.900 17.000 17.100 0.665 0.669 0.673
E 18.900 19.000 19.100 0.744 0.748 0.752
D1 — 16.200 — — 0.638 —
E1 — 18.000 — — 0.709 —
e1 — 0.600 — — 0.024 —
e2 — 0.650 — — 0.026 —
b 0.260 0.310 0.360 0.010 0.012 0.014

Unsplit tolerances (mm/inch): aaa 0.150/0.006; ccc 0.200/0.008; ddd 0.150/0.006; eee 0.150/0.006; fff 0.080/0.003. Typ corresponds to source NOM.

2.4–2.5

Moisture sensitivity MSL3; lead finish/ball material SnAgCu.

2.6 Complete pin table

Pin Name Pin Pin Name Pin
VSS_1 A1 RFU3 F22
DDR_CH1_DQ10_C A2 I2S0_SDO2/I2S0_SDI3/PDM0_SDI1_M0/GPIO1_D1 F23
DDR_CH1_DQ8_C A3 PDM1_CLK1_M1/PCIE30X1_0_WAKEN_M2/SATA0_ACT_LED_M1/UART4_TX_M2/SPI0_CLK_M2/GPIO1_B3 F24
DDR_CH1_DQ14_C A4 VOP_POST_EMPTY/I2C4_SDA_M3/UART6_RTSN_M1/PWM0_M2/SPI4_CLK_M2/GPIO1_A2 F25
DDR_CH1_DQ12_C A5 VSS_40 F26
DDR_CH1_DM0_C A6 PCIE30_PORT0_TX0N F27
DDR_CH1_DQ5_C A7 PCIE30_PORT0_TX0P F28
DDR_CH1_DQ0_C A8 VSS_39 F21
DDR_CH1_DQ2_C A9 DDR_CH0_DQ13_B G1
VSS_2 A10 DDR_CH0_DQ14_B G2
DDR_CH1_A2_D A13 VSS_41 G3
DDR_CH1_DQ2_D A15 DDR_CH0_DQS1N_B G5
DDR_CH1_DQ0_D A16 VSS_42 G6
DDR_CH1_DQ12_D A17 VSS_43 G7
DDR_CH1_DQ14_D A18 DDR_CH1_A2_C G8
DDR_CH1_DQ8_D A19 VSS_44 G9
DDR_CH1_DQ10_D A20 VSS_45 G10
DDR_CH1_DM0_D A21 DDR_CH1_A5_C G11
PDM1_SDI0_M1/PCIE30X1_1_PERSTN_M2/PWM3_IR_M3/SPI2_CS0_M0/GPIO1_A7 A23 VSS_46 G12
I2C8_SDA_M2/UART1_CTSN_M1/PWM15_IR_M3/GPIO1_D7 A25 VSS_47 G13
I2C8_SCL_M2/UART1_RTSN_M1/PWM14_M2/GPIO1_D6 A26 DDR_CH1_A1_D G14
SPDIF0_TX_M0/I2C5_SCL_M3/UART1_TX_M1/GPIO1_B6 A27 VSS_48 G15
VSS_3 A28 VSS_49 G16
DDR_CH0_DQ9_A AA1 DDR_CH1_LP4/4X_CS0_D G17
DDR_CH0_DQ8_A AA2 VSS_50 G18
VSS_117 AA3 VSS_51 G19
VSS_118 AA4 DDR_CH1_DQ6_D G20
DDR_CH0_DQ13_A AA5 RFU1 G21
DDR_CH0_DQ12_A AA6 RFU4 G22
VSS_119 AA7 VSS_52 G23
VSS_120 AA8 VSS_53 G24
VSS_121 AA21 VSS_54 G25
VCCIO5_1V8 AA22 VSS_55 G26
GMAC1_MDC/I2C8_SCL_M4/UART7_RTSN_M1/PWM14_M0/SPI1_CS0_M1/GPIO3_C2 AA23 PCIE30_PORT0_RX1N G27
EMMC_RSTN/I2C2_SCL_M2/UART5_RTSN_M1/GPIO2_A3 AA24 PCIE30_PORT0_RX1P G28
EMMC_CLKOUT/GPIO2_A1 AA25 DDR_CH0_DQ7_B H1
GMAC1_RXD3/SDIO_D3_M1/I2S3_SDO/AUDDSM_RN/FSPI_D3_M2/UART8_RX_M1/SPI4_CS0_M1/GPIO3_A3 AA26 DDR_CH0_DQ12_B H2
EMMC_D7/FSPI_CS1N_M0/GPIO2_D7 AA27 VSS_56 H3
I2S1_MCLK_M1/JTAG_TCK_M2/I2C1_SCL_M0/UART2_TX_M0/PCIE30X1_1_CLKREQN_M0/GPIO0_B5 AA28 DDR_CH0_DQS0P_B H4
DDR_CH0_DM1_A AB1 DDR_CH0_DQS0N_B H5
DDR_CH0_DQ11_A AB2 VSS_57 H6
VSS_122 AB3 VSS_58 H7
VSS_123 AB5 DDR_CH1_ZQ_C H8
AVSS_2 AB8 VSS_59 H9
VCCIO3_1V8 AB21 VSS_60 H10
EMMC_D6/FSPI_CS0N_M0/GPIO2_D6 AB26 VSS_61 H11
EMMC_D2/FSPI_D2_M0/GPIO2_D2 AB27 VSS_62 H12
DDR_CH0_DQ10_A AC1 VSS_63 H13
VSS_124 AC2 VSS_64 H14
VSS_125 AC3 VSS_65 H15
DDR_CH0_DQS1N_A AC4 VSS_66 H16
DDR_CH0_DQS1P_A AC5 VSS_67 H17
VSS_126 AC6 VSS_68 H18
AVSS_3 AC7 DDR_CH1_ZQ_D H19
HDMI_TX0_VDD_0V75 AC8 VSS_69 H20
VCCIO6_1V8 AC21 VSS_70 H21
ETH0_REFCLKO_25M/I2S2_SDI_M0/I2C6_SCL_M2/SPI1_CS0_M0/GPIO2_C3 AC22 VSS_71 H22
EMMC_CMD/FSPI_CLK_M0/GPIO2_A0 AC23 VSS_72 H23
VSS_127 AC24 PCIE30_PORT0_REF_CLKP H24
EMMC_DATA_STROBE/I2C2_SDA_M2/UART5_CTSN_M1/GPIO2_A2 AC25 PCIE30_PORT0_REF_CLKN H25
EMMC_D1/FSPI_D1_M0/GPIO2_D1 AC26 VSS_73 H26
EMMC_D4/I2C1_SCL_M3/UART5_RX_M2/GPIO2_D4 AC27 PCIE30_PORT0_RX0N H27
EMMC_D0/FSPI_D0_M0/GPIO2_D0 AC28 PCIE30_PORT0_RX0P H28
SDMMC_D0/PDM1_SDI3_M0/JTAG_TCK_M1/I2C3_SCL_M4/UART2_TX_M1/PWM8_M1/GPIO4_D0 AD2 DDR_CH0_DQ1_B J1
SDMMC_D1/PDM1_SDI2_M0/JTAG_TMS_M1/I2C3_SDA_M4/UART2_RX_M1/PWM9_M1/GPIO4_D1 AD3 DDR_CH0_DQ0_B J2
SDMMC_CMD/PDM1_CLK1_M0/MCU_JTAG_TCK_M0/UART5_RX_M0/PWM7_IR_M1/GPIO4_D4 AD4 DDR_CH0_DQ2_B J3
VSS_128 AD5 VSS_74 J4
VSS_129 AD6 DDR_CH0_LP4/4X_CS0_B J5
AVSS_4 AD7 VSS_75 J6
HDMI_TX0_VDD_IO_1V8 AD8 DDR_CH0_ZQ_B J7
HDMI/eDP_TX1_VDD_0V75 AD9 VSS_76 J8
HDMI/eDP_TX1_AVDD_0V75 AD10 VSS_77 J21
VSS_130 AD11 PCIE30_PORT0_RESREF J22
VSS_131 AD12 AVSS1_1 J23
VDD_GPU_9 AD13 PCIE20_2_REFCLKP J24
VDD_GPU_10 AD14 PCIE20_2_REFCLKN J25
VSS_132 AD15 AVSS1_2 J26
VSS_133 AD16 PCIE20_2_TXP/SATA30_2_TXP/USB30_SSTXP J27
VSS_134 AD17 PCIE20_2_TXN/SATA30_2_TXN/USB30_SSTXN J28
VSS_135 AD18 DDR_CH0_DQ3_B K2
VSS_136 AD19 VSS_78 K3
VSS_137 AD20 VSS_79 K5
VSS_138 AD21 VSS_80 K7
VSS_139 AD22 DDR_CH01_VDDQ_CKE K8
VSS_140 AD23 VSS_81 K21
RFU8 AD24 PCIE30_PORT0_AVDD0V75 K22
GMAC0_TXD2/SDIO_D3_M0/I2C8_SDA_M1/UART6_CTSN_M0/GPIO2_B1 AD25 AVSS1_3 K23
EMMC_D3/FSPI_D3_M0/GPIO2_D3 AD26 AVSS1_4 K24
EMMC_D5/I2C1_SDA_M3/UART5_TX_M2/GPIO2_D5 AD27 AVSS1_5 K25
HDMI_TX0_D3N AE1 AVSS1_6 K26
AVSS_5 AE2 PCIE20_2_RXN/SATA30_2_RXN/USB30_SSRXN K27
SDMMC_CLK/PDM1_CLK0_M0/TEST_CLKOUT_M0/MCU_JTAG_TMS_M0/UART5_TX_M0/GPIO4_D5 AE3 PCIE20_2_RXP/SATA30_2_RXP/USB30_SSRXP K28
SDMMC_D3/PDM1_SDI0_M0/JTAG_TMS_M0/I2C8_SDA_M0/UART5_RTSN_M0/PWM10_M1/GPIO4_D3 AE4 DDR_CH0_CKB_B L1
SDMMC_D2/PDM1_SDI1_M0/JTAG_TCK_M0/I2C8_SCL_M0/UART5_CTSN_M0/GPIO4_D2 AE5 DDR_CH0_CK_B L2
AVSS_6 AE6 VSS_82 L3
AVSS_7 AE7 DDR_CH0_A3_B L4
HDMI/eDP_TX1_VDD_IO_1V8 AE8 DDR_CH0_A2_B L5
HDMI_TX0_VDD_CMN_1V8 AE10 VSS_83 L6
VSS_141 AE11 DDR_CH0_LP4/4X_CS1_B L7
VSS_142 AE12 VSS_84 L8
VSS_143 AE13 PCIE30_PORT0_AVDD1V8 L21
VSS_144 AE14 PCIE20_SATA30_USB30_2_AVDD_0V85 L22
VSS_145 AE15 AVSS1_7 L23
VSS_146 AE16 PCIE20_1_REFCLKP L24
VDD_LOGIC_10 AE17 PCIE20_1_REFCLKN L25
VDD_LOGIC_11 AE18 AVSS1_8 L26
VDD_LOGIC_12 AE19 PCIE20_1_RXP/SATA30_1_RXP L27
VDD_LOGIC_13 AE20 PCIE20_1_RXN/SATA30_1_RXN L28
VSS_147 AE21 DDR_CH0_CKB_A M1
VSS_148 AE22 DDR_CH0_CK_A M2
RFU7 AE23 VSS_85 M3
GMAC0_RXD2/SDIO_D0_M0/UART6_RX_M0/GPIO2_A6 AE24 VSS_86 M4
GMAC0_TXD3/SDIO_CMD_M0/I2C3_SCL_M3/GPIO2_B2 AE25 DDR_CH0_A1_B M5
LITCPU_AVS/SPI3_CLK_M2/GPIO0_D3 AE26 DDR_CH0_A0_B M6
I2S1_SDO2_M1/PDM0_SDI2_M1/PWM3_IR_M0/I2C1_SCL_M2/HDMI_TX0_SDA_M1/SPI3_CS0_M2/SATA_CPDET/GPIO0_D4 AE27 VSS_87 M7
I2S1_LRCK0_M1/PWM0_M0/I2C2_SCL_M0/SPI0_CS1_M0/PCIE30X1_1_PERSTN_M0/GPIO0_B7 AE28 VSS_88 M8
AVSS_8 AF1 PCIE20_SATA30_1_AVDD_1V8 M21
HDMI_TX0_D3P AF2 PCIE20_SATA30_1_AVDD_0V85 M22
AVSS_9 AF3 AVSS1_9 M23
AVSS_10 AF4 PCIE20_0_REFCLKP M24
AVSS_11 AF5 PCIE20_0_REFCLKN M25
AVSS_12 AF6 AVSS1_10 M26
AVSS_13 AF7 PCIE20_1_TXN/SATA30_1_TXN M27
AVSS_14 AF8 PCIE20_1_TXP/SATA30_1_TXP M28
AVSS_15 AF9 DDR_CH0_A4_A N2
HDMI/eDP_TX1_VDD_CMN_1V8 AF10 DDR_CH0_A5_A N3
USB20_AVDD_3V3 AF11 VSS_89 N5
AVSS_16 AF12 VSS_90 N7
AVSS_17 AF13 VSS_91 N8
AVSS_18 AF14 PCIE20_SATA30_0_AVDD_1V8 N21
TYPEC0_DP0_VDDH_1V8 AF15 PCIE20_SATA30_0_AVDD_0V85 N22
SARADC_AVDD_1V8 AF17 TVSS N23
VSS_149 AF18 AVSS1_11 N24
CIF_VSYNC/BT1120_D9/I2S1_SDO2_M0/PCIE20X1_2_BUTTON_RSTN/I2C7_SDA_M3/UART8_CTSN_M0/PWM15_IR_M1/GPIO4_B3 AF20 AVSS1_12 N25
VCCIO6 AF21 AVSS1_13 N26
GMAC0_PPSCLK/TEST_CLKOUT_M1/HDMI_TX1_CEC_M0/UART9_RX_M0/SPI1_CS1_M0/GPIO2_C4 AF22 PCIE20_0_TXP/SATA30_0_TXP N27
SPDIF1_TX_M1/I2S1_SDO0_M0/PCIE30X1_0_BUTTON_RSTN/SATA2_ACT_LED_M0/I2C6_SCL_M3/UART8_RX_M0/SPI0_CS1_M1/GPIO4_B1 AF23 PCIE20_0_TXN/SATA30_0_TXN N28
GMAC0_RXCLK/SDIO_D2_M0/I2C8_SCL_M1/UART6_RTSN_M0/GPIO2_B0 AF24 VSS_92 P2
CIF_D15/I2C7_SDA_M2/UART9_CTSN_M2/PWM10_M2/SPI0_CLK_M3/GPIO3_D3 AF25 DDR_CH0_DQ3_A P3
I2S1_SDI2_M1/PDM0_SDI0_M1/I2C6_SDA_M0/UART1_RTSN_M2/PWM6_M0/SPI0_MISO_M0/PCIE30X4_WAKEN_M0/GPIO0_C7 AF26 DDR_CH0_A4_B P4
I2S1_LRCK1_M1/PDM0_CLK1_M1/PWM2_M0/UART0_RX_M0/I2C4_SDA_M2/DP0_HPDIN_M1/PCIE30X1_0_WAKEN_M0/GPIO0_C4 AF27 DDR_CH0_A5_B P5
HDMI_TX0_D0P AG1 VSS_93 P6
HDMI_TX0_D0N AG2 DDR_CH0_LP4/4X_CKE0_B P7
AVSS_19 AG3 VSS_94 P8
HDMI_TX0_REXT AG4 OSC_1V8 P21
HDMI_TX1_SBDN/EDP_TX1_AUXN AG5 VSS_95 P22
USB20_HOST0_REXT AG6 TSADC_SHUT_ORG/TSADC_SHUT/GPIO0_A1 P23
AVSS_20 AG7 PMIC_SLEEP1/GPIO0_A2 P24
USB20_HOST0_DP AG8 SPI2_MOSI_M2/I2C0_SDA_M0/GPIO0_A6 P25
USB20_AVDD_1V8 AG9 AVSS1_14 P26
USB20_DVDD_0V75 AG10 PCIE20_0_RXN/SATA30_0_RXN P27
TYPEC0_USB20_VBUSDET AG11 PCIE20_0_RXP/SATA30_0_RXP P28
TYPEC0_USB20_OTG_ID AG12 DDR_CH0_DQ2_A R1
TYPEC0_DP0_VDD_0V85 AG14 DDR_CH0_DQ1_A R2
TYPEC0_DP0_VDDA_0V85 AG15 DDR_CH0_DQ5_A R3
AVSS_21 AG17 VSS_96 R4
BT1120_D11/PCIE30X4_WAKEN_M1/SATA1_ACT_LED_M0/UART9_RX_M1/PWM12_M1/SPI3_MISO_M1/GPIO4_B5 AG18 DDR_CH0_LP4/4X_CKE1_A R5
CIF_CLKIN/BT1120_CLKOUT/I2S1_SDI3_M0/I2C6_SDA_M3/UART8_TX_M0/SPI2_CS1_M1/GPIO4_B0 AG20 DDR_CH0_LP4/4X_CKE1_B R6
BT1120_D12/PCIE30X4_PERSTN_M1/SATA0_ACT_LED_M0/I2C5_SCL_M1/PWM13_M1/SPI3_MOSI_M1/GPIO4_B6 AG21 VSS_97 R7
RFU6 AG22 VSS_98 R8
CIF_HREF/BT1120_D8/I2S1_SDO1_M0/PCIE30X1_1_BUTTON_RSTN/I2C7_SCL_M3/UART8_RTSN_M0/PWM14_M1/SPI0_CS0_M1/GPIO4_B2 AG23 PMU_0V75 R21
GMAC0_TXCLK/SDIO_CLK_M0/I2C3_SDA_M3/GPIO2_B3 AG24 PMUIO2 R22
RFU5 AG25 PMIC_INT_L/GPIO0_A7 R23
CIF_D12/PCIE20X1_2_WAKEN_M0/HDMI_TX0_SDA_M2/I2C5_SDA_M0/UART4_RX_M1/PWM8_M2/SPI3_CLK_M3/GPIO3_D0 AG26 SPI2_MISO_M2/I2C0_SCL_M0/GPIO0_B3 R24
I2S1_SCLK0_M1/JTAG_TMS_M2/I2C1_SDA_M0/UART2_RX_M0/PCIE30X1_1_WAKEN_M0/GPIO0_B6 AG27 SDMMC_DET/GPIO0_A4 R25
I2S1_SCLK1_M1/PDM0_CLK0_M1/PWM1_M0/I2C2_SDA_M0/SPI0_MOSI_M0/PCIE30X1_0_CLKREQN_M0/GPIO0_C0 AG28 VSS_99 R26
HDMI_TX0_D1P AH1 XOUT_24M R27
HDMI_TX0_D1N AH2 XIN_24M R28
AVSS_22 AH3 DDR_CH0_DQ4_A T2
HDMI/eDP_TX1_REXT AH4 VSS_100 T3
HDMI_TX1_SBDP/EDP_TX1_AUXP AH5 VSS_101 T5
USB20_HOST1_REXT AH6 VSS_102 T7
USB20_HOST0_DM AH8 VSS_103 T8
USB20_OTG1_REXT AH9 PMUIO1_1V8 T21
TYPEC0_USB20_OTG0_REXT AH11 REFCLK_OUT/GPIO0_A0 T27
TYPEC0_DP0_REXT AH12 DDR_CH0_DQS0N_A U1
SARADC_IN1 AH14 DDR_CH0_DQS0P_A U2
SARADC_IN3 AH15 VSS_104 U3
SARADC_IN2 AH17 DDR_CH0_LP4/4X_CKE0_A U4
CIF_CLKOUT/BT1120_D10/I2S1_SDO3_M0/PCIE30X4_CLKREQN_M1/DP0_HPDIN_M0/SPDIF0_TX_M1/UART9_TX_M1/PWM11_IR_M1/GPIO4_B4 AH18 DDR_CH0_A3_A U5
BT1120_D14/PCIE20X1_2_WAKEN_M1/HDMI_TX0_SDA_M0/I2C8_SCL_M3/SPI3_CS0_M1/GPIO4_C0 AH20 VSS_105 U6
BT1120_D15/SPDIF1_TX_M2/PCIE20X1_2_PERSTN_M1/HDMI_TX0_CEC_M0/I2C8_SDA_M3/PWM6_M1/SPI3_CS1_M1/GPIO4_C1 AH21 DDR_CH0_A1_A U7
VSS_150 AH22 VSS_106 U8
GMAC0_TXEN/I2S2_LRCK_M0/I2C2_SDA_M1/UART1_RTSN_M0/SPI1_CLK_M0/GPIO2_C0 AH23 PMUIO2_1V8 U21
GMAC0_RXD0/I2C2_SCL_M1/UART1_CTSN_M0/SPI1_MISO_M0/GPIO2_C1 AH24 VSS_107 U22
CIF_D14/I2C7_SCL_M2/UART9_RTSN_M2/SPI0_MOSI_M3/GPIO3_D2 AH25 I2S1_SDO1_M1/I2C0_SDA_M2/UART1_RX_M2/SPI3_MOSI_M2/HDMI_TX1_CEC_M1/GPIO0_D2 U23
GMAC1_TXD1/I2S2_MCLK_M1/UART2_CTSN/GPIO3_B4 AH26 I2S1_SDI3_M1/PDM0_SDI1_M1/I2C6_SCL_M0/UART1_CTSN_M2/PWM7_IR_M0/SPI3_MISO_M2/PCIE30X4_PERSTN_M0/GPIO0_D0 U24
PMIC_SLEEP_3/GPIO0_C1 AH27 PMIC_SLEEP_5/GPIO0_C3 U25
HDMI_TX0_D2P AJ1 SPI2_CS0_M2/I2C1_SDA_M1/PWM5_M0/UART0_TX_M1/GPIO0_B1 U26
HDMI_TX0_D2N AJ2 SPI2_CS1_M2/I2C1_SCL_M1/UART0_RX_M1/GPIO0_B0 U27
AVSS_23 AJ3 SPI2_CLK_M2/SDMMC_PWREN/PMU_DEBUG/GPIO0_A5 U28
AVSS_24 AJ4 DDR_CH0_DQ0_A V2
AVSS_25 AJ5 DDR_CH0_DM0_A V3
AVSS_26 AJ6 VSS_108 V4
AVSS_27 AJ7 DDR_CH0_LP4/4X_CS1_A V5
AVSS_28 AJ8 DDR_CH0_LP4/4X_CS0_A V6
AVSS_29 AJ9 DDR_CH0_RESET_A V7
AVSS_30 AJ10 VSS_109 V8
AVSS_31 AJ11 VSS_110 V21
AVSS_32 AJ12 EMMCIO_1V8 V22
AVSS_33 AJ14 GMAC1_TXD2/SDIO_D0_M1/I2S3_MCLK/FSPI_D0_M2/I2C6_SDA_M4/PWM10_M0/SPI4_MISO_M1/GPIO3_A0 V23
SARADC_IN0_BOOT AJ15 I2S1_SDI1_M1/NPU_AVS/UART0_RTSN/PWM5_M1/SPI0_CLK_M0/PCIE30X4_CLKREQN_M0/SATA_CP_POD/GPIO0_C6 V24
VSS_151 AJ17 PMIC_SLEEP6/PDM0_SDI3_M1/GPIO0_D6 V25
BT1120_D13/PCIE20X1_2_CLKREQN_M1/HDMI_TX0_SCL_M0/I2C5_SDA_M1/SPI3_CLK_M1/GPIO4_B7 AJ18 I2S1_SDI0_M1/GPU_AVS/UART0_TX_M0/I2C4_SCL_M2/DP1_HPDIN_M1/PWM4_M0/PCIE30X1_0_PERSTN_M0/GPIO0_C5 V26
CIF_D6/BT1120_D6/I2S1_SDI1_M0/I2C5_SCL_M2/UART3_RX_M2/SPI2_CLK_M1/GPIO4_A6 AJ19 CLK32K_IN/CLK32K_OUT0/GPIO0_B2 V27
CIF_D2/BT1120_D2/I2S1_LRCK_M0/PCIE30X1_1_PERSTN_M1/SPI0_CLK_M1/GPIO4_A2 AJ20 DDR_CH0_DQ7_A W1
CIF_D1/BT1120_D1/I2S1_SCLK_M0/PCIE30X1_1_WAKEN_M1/UART9_CTSN_M1/SPI0_MOSI_M1/GPIO4_A1 AJ21 DDR_CH0_DQ6_A W2
GMAC0_RXD3/SDIO_D1_M0/UART6_TX_M0/GPIO2_A7 AJ22 VSS_111 W3
GMAC0_RXD1/I2C6_SDA_M2/UART9_TX_M0/SPI1_MOSI_M0/GPIO2_C2 AJ23 VSS_112 W5
CIF_D11/PCIE20X1_2_CLKREQN_M0/HDMI_TX0_SCL_M2/I2C5_SCL_M0/SPI3_MOSI_M3/GPIO3_C7 AJ24 DDR_CH0_ZQ_A W8
GMAC1_PPSCLK/UART7_RX_M1/SPI1_CLK_M1/GPIO3_C1 AJ25 VSS_113 W21
GMAC1_PTP_REF_CLK/HDMI_TX1_HPD_M1/I2C3_SCL_M1/SPI1_MOSI_M1/GPIO3_B7 AJ26 I2S1_SDO3_M1/CPU_BIG1_AVS/I2C1_SDA_M2/HDMI_TX0_SCL_M1/SPI3_CS1_M2/SATA_MP_SWITCH/GPIO0_D5 W26
GMAC1_RXD2/SDIO_D2_M1/I2S3_LRCK/AUDDSM_LP/FSPI_D2_M2/UART8_TX_M1/SPI4_CLK_M1/GPIO3_A2 AJ27 PMIC_SLEEP2/GPIO0_A3 W27
GMAC1_TXD3/SDIO_D1_M1/I2S3_SCLK/AUDDSM_LN/FSPI_D1_M2/I2C6_SCL_M4/PWM11_IR_M0/SPI4_MOSI_M1/GPIO3_A1 AJ28 NPOR W28
HDMI_TX1_D3N/EDP_TX1_D3N AK1 DDR_CH0_DQ14_A Y1
HDMI_TX1_D3P/EDP_TX1_D3P AK2 DDR_CH0_DQ15_A Y2
HDMI_TX1_D0P/EDP_TX1_D0P AK3 VSS_114 Y3
HDMI_TX1_D1P/EDP_TX1_D1P AK4 DDR_CH0_A2_A Y4
HDMI_TX1_D2P/EDP_TX1_D2P AK5 DDR_CH0_A0_A Y5
USB20_HOST1_DM AK6 VSS_115 Y6
USB20_OTG1_DM AK7 VSS_116 Y7
TYPEC0_USB20_OTG_DM AK8 VCCIO2_1V8 Y8
TYPEC0_SSRX1N/DP0_TX0N AK9 VCCIO5 Y21
TYPEC0_SSTX1P/DP0_TX1P AK10 CIF_D8/FSPI_CS0N_M2/PCIE30X4_CLKREQN_M2/HDMI_TX1_CEC_M2/UART5_TX_M1/SPI3_CS0_M3/GPIO3_C4 Y22
TYPEC0_SBU1/DP0_AUXP AK11 GMAC1_MCLKINOUT/I2S2_LRCK_M1/UART3_RX_M1/PWM13_M0/GPIO3_B6 Y23
TYPEC0_SSRX2N/DP0_TX2N AK12 GMAC1_TXD0/I2S2_SDO_M1/UART2_RTSN/GPIO3_B3 Y24
TYPEC0_SSTX2P/DP0_TX3P AK13 ETH1_REFCLKO_25M/I2C4_SCL_M0/GPIO3_A6 Y25
CIF_D5/BT1120_D5/I2S1_SDI0_M0/PCIE30X1_0_PERSTN_M1/I2C3_SDA_M2/UART3_TX_M2/SPI2_MOSI_M1/GPIO4_A5 AK14 PMIC_SLEEP_4/GPIO0_C2 Y26
CIF_D4/BT1120_D4/PCIE30X1_0_WAKEN_M1/I2C3_SCL_M2/UART0_RX_M2/SPI2_MISO_M1/GPIO4_A4 AK15 I2S1_SDO0_M1/CPU_BIG0_AVS/I2C0_SCL_M2/UART0_CTSN/UART1_TX_M2/SPI0_CS0_M0/HDMI_TX0_CEC_M1/GPIO0_D1 Y27
CIF_D3/BT1120_D3/PCIE30X1_0_CLKREQN_M1/UART0_TX_M2/GPIO4_A3 AK16 DDR_CH0_VDDQ_0 1E1
CIF_D7/BT1120_D7/I2S1_SDI2_M0/I2C5_SDA_M2/SPI2_CS0_M1/GPIO4_A7 AK17 DDR_CH01_PLL_AVDD1V8 1E2
GMAC0_RXDV_CRS/PWM2_M2/GPIO4_C2 AK18 VSS_175 1E3
GMAC0_MCLKINOUT/I2S2_SDO_M0/I2C7_SCL_M1/PWM4_M1/GPIO4_C3 AK19 DDR_CH1_VDD_5 1E4
GMAC0_TXD1/I2S2_SCLK_M0/I2C5_SDA_M4/UART1_TX_M0/GPIO2_B7 AK20 VDD_LOGIC_0 1E5
PCIE30X4_BUTTON_RSTN/DP1_HPDIN_M0/MCU_JTAG_TMS_M1/UART9_TX_M2/PWM11_IR_M3/SPI0_CS1_M3/GPIO3_D5 AK21 VSS_176 1E6
CIF_D13/PCIE20X1_2_PERSTN_M0/UART4_TX_M1/PWM9_M2/SPI0_MISO_M3/GPIO3_D1 AK22 VDD_CPU_BIG_3 1E7
CIF_D9/FSPI_CS1N_M2/PCIE30X4_WAKEN_M2/HDMI_TX1_SDA_M1/UART5_RX_M1/SPI3_CS1_M3/GPIO3_C5 AK23 VDD_CPU_BIG_4 1E8
CIF_D10/PCIE30X4_PERSTN_M2/HDMI_TX1_SCL_M1/SPI3_MISO_M3/GPIO3_C6 AK24 VDD_CPU_BIG_5 1E9
GMAC1_PPSTRIG/I2C3_SDA_M1/UART7_TX_M1/SPI1_MISO_M1/GPIO3_C0 AK25 VDD_CPU_BIG_6 1E10
GMAC1_RXD1/PWM9_M0/GPIO3_B0 AK26 PLL_AVDD1V8 1E11
GMAC1_RXCLK/SDIO_CLK_M1/FSPI_CLK_M2/I2C4_SDA_M0/UART8_CTSN_M1/GPIO3_A5 AK27 VSS_153 1A1
GMAC1_TXCLK/SDIO_CMD_M1/I2S3_SDI/AUDDSM_RP/UART8_RTSN_M1/SPI4_CS1_M1/GPIO3_A4 AK28 VSS_154 1A2
AVSS_34 AL1 VSS_155 1A3
HDMI_TX1_D0N/EDP_TX1_D0N AL2 VSS_156 1A4
HDMI_TX1_D1N/EDP_TX1_D1N AL3 VSS_157 1A5
HDMI_TX1_D2N/EDP_TX1_D2N AL4 VSS_158 1A6
AVSS_35 AL5 VSS_159 1A7
USB20_HOST1_DP AL6 VSS_160 1A8
USB20_OTG1_DP AL7 VSS_161 1A9
TYPEC0_USB20_OTG_DP AL8 VSS_162 1A10
TYPEC0_SSRX1P/DP0_TX0P AL9 VSS_163 1A11
TYPEC0_SSTX1N/DP0_TX1N AL10 VSS_164 1B1
TYPEC0_SBU2/DP0_AUXN AL11 DDR_CH1_VDDQ_0 1B2
TYPEC0_SSRX2P/DP0_TX2P AL12 DDR_CH1_VDDQ_1 1B3
TYPEC0_SSTX2N/DP0_TX3N AL13 DDR_CH1_VDDQ_2 1B4
CIF_D0/BT1120_D0/I2S1_MCLK_M0/PCIE30X1_1_CLKREQN_M1/UART9_RTSN_M1/SPI0_MISO_M1/GPIO4_A0 AL14 DDR_CH1_VDDQ_3 1B5
GMAC0_TXD0/I2S2_MCLK_M0/I2C5_SCL_M4/UART1_RX_M0/GPIO2_B6 AL15 DDR_CH1_VDDQ_4 1B6
GMAC0_MDIO/UART9_CTSN_M0/PWM6_M2/GPIO4_C5 AL16 DDR_CH01_PLL_AVSS_2 1B7
GMAC0_MDC/I2C7_SDA_M1/UART9_RTSN_M0/PWM5_M2/GPIO4_C4 AL18 VSS_165 1B8
HDMI_TX0_HPD_M1/MCU_JTAG_TCK_M1/UART9_RX_M2/SPI0_CS0_M3/GPIO3_D4 AL20 VCCIO4 1B9
GMAC1_MDIO/I2C8_SDA_M4/UART7_CTSN_M1/PWM15_IR_M0/SPI1_CS1_M1/GPIO3_C3 AL21 VCCIO4_1V8 1B10
GMAC1_TXEN/I2S2_SCLK_M1/UART3_TX_M1/PWM12_M0/GPIO3_B5 AL23 VCCIO1_1V8 1B11
GMAC1_RXDV_CRS/UART2_TX_M2/PWM2_M1/GPIO3_B1 AL25 VSS_166 1C1
GMAC1_RXD0/PWM8_M0/GPIO3_A7 AL26 DDR_CH01_PLL_DVDD 1C2
GMAC1_TXER/I2S2_SDI_M1/UART2_RX_M2/PWM3_IR_M1/GPIO3_B2 AL27 DDR_CH1_VDD_0 1C3
VSS_152 AL28 DDR_CH1_VDD_1 1C4
DDR_CH0_DM0_B B1 DDR_CH1_VDD_2 1C5
DDR_CH1_DQ11_C B2 DDR_CH1_VDD_3 1C6
DDR_CH1_DQ9_C B3 DDR_CH1_VDDQ_CK 1C7
DDR_CH1_DQ15_C B4 VSS_167 1C8
DDR_CH1_DQ13_C B5 VSS_168 1C9
DDR_CH1_DQ7_C B6 VSS_169 1C10
DDR_CH1_DQ6_C B7 VSS_170 1C11
DDR_CH1_DQ4_C B8 DDR_CH0_VDDQ_CK 1D1
DDR_CH1_DQ3_C B9 DDR_CH01_PLL_AVSS_1 1D2
DDR_CH1_CK_C B10 VSS_171 1D3
VSS_4 B11 DDR_CH1_VDD_4 1D4
DDR_CH1_CK_D B12 VSS_172 1D5
DDR_CH1_A3_D B13 VSS_173 1D6
DDR_CH1_A4_D B14 VSS_174 1D7
DDR_CH1_DQ3_D B15 VDD_CPU_BIG_0 1D8
DDR_CH1_DQ1_D B16 VDD_CPU_BIG_1 1D9
DDR_CH1_DQ7_D B17 VDD_CPU_BIG_2 1D10
DDR_CH1_DQ13_D B18 PCIE20_SATA30_USB30_2_AVDD_1V8 1D11
DDR_CH1_DQ15_D B19 DDR_CH0_VDDQ_1 1F1
DDR_CH1_DQ9_D B20 DDR_CH0_VDD_0 1F2
DDR_CH1_DQ11_D B21 DDR_CH0_VDD_1 1F3
VSS_5 B22 VSS_177 1F4
HDMI_TX1_SCL_M2/SPI2_MISO_M0/GPIO1_A4 B23 VDD_LOGIC_1 1F5
PDM1_CLK0_M1/PCIE30X1_0_PERSTN_M2/UART7_RX_M2/SPI0_CS0_M2/GPIO1_B4 B24 VSS_178 1F6
SPDIF1_TX_M0/SATA2_ACT_LED_M1/I2C5_SDA_M3/UART1_RX_M1/PWM13_M2/GPIO1_B7 B25 VDD_CPU_BIG_7 1F7
HDMI_TX1_HPD_M0/SPI2_CLK_M0/GPIO1_A6 B26 VDD_CPU_BIG_8 1F8
PDM1_SDI3_M1/PCIE30X4_PERSTN_M3/UART4_RX_M2/SPI0_MOSI_M2/GPIO1_B2 B27 VDD_CPU_BIG_9 1F9
PDM1_SDI2_M1/PCIE30X4_WAKEN_M3/SPI0_MISO_M2/GPIO1_B1 B28 VDD_CPU_BIG_10 1F10
DDR_CH0_DQ5_B C1 PLL_AVSS 1F11
DDR_CH0_DQ6_B C2 DDR_CH0_VDDQ_2 1G1
VSS_6 C3 DDR_CH0_VDD_2 1G2
VSS_7 C4 DDR_CH0_VDD_3 1G3
VSS_8 C5 VSS_179 1G4
VSS_9 C6 VDD_LOGIC_2 1G5
VSS_10 C7 VSS_180 1G6
VSS_11 C8 VSS_181 1G7
DDR_CH1_DQ1_C C9 VSS_182 1G8
DDR_CH1_CKB_C C10 VSS_183 1G9
VSS_12 C11 VSS_184 1G10
DDR_CH1_CKB_D C12 PLL_DVDD0V75 1G11
DDR_CH1_A5_D C13 DDR_CH0_VDDQ_3 1H1
VSS_13 C14 DDR_CH0_VDD_4 1H2
VSS_14 C15 VSS_185 1H3
VSS_15 C17 VSS_186 1H4
VSS_16 C18 VDD_LOGIC_3 1H5
VSS_17 C20 VSS_187 1H6
DDR_CH1_DM1_D C21 VSS_188 1H7
PCIE30X1_0_CLKREQN_M2/UART7_TX_M2/SPI0_CS1_M2/GPIO1_B5 C22 VDD_CPU_LIT_0 1H8
PDM1_SDI1_M1/PCIE30X4_CLKREQN_M3/SPI2_CS1_M0/GPIO1_B0 C23 VDD_CPU_LIT_1 1H9
PCIE30X1_1_CLKREQN_M2/DP0_HPDIN_M2/I2C2_SDA_M4/UART6_RX_M1/SPI4_MISO_M2/GPIO1_A0 C24 VSS_189 1H10
HDMI_TX0_HPD_M0/SPI2_MOSI_M0/GPIO1_A5 C25 VSS_190 1H11
HDMI_TX1_SDA_M2/I2C4_SCL_M3/UART6_CTSN_M1/PWM1_M2/SPI4_CS0_M2/GPIO1_A3 C26 DDR_CH0_VDDQ_4 1J1
I2S0_SDO0/I2C4_SCL_M4/UART4_CTSN/GPIO1_C7 C27 DDR_CH0_VDD_5 1J2
PDM0_CLK0_M0/I2C4_SDA_M4/PWM15_IR_M2/GPIO1_C6 C28 VSS_191 1J3
DDR_CH0_DQ11_B D1 VDD_LOGIC_4 1J4
DDR_CH0_DQ4_B D2 VDD_LOGIC_5 1J5
VSS_18 D3 VSS_192 1J6
DDR_CH1_DM1_C D5 VDD_CPU_LIT_2 1J7
DDR_CH1_DQS1N_C D6 VDD_CPU_LIT_3 1J8
DDR_CH1_DQS0N_C D8 VDD_CPU_LIT_4 1J9
VSS_19 D9 VDD_CPU_LIT_5 1J10
DDR_CH1_LP4/4X_CS1_C D11 VSS_193 1J11
VSS_20 D12 VSS_194 1K1
DDR_CH1_LP4/4X_CKE0_C D14 VSS_195 1K2
VSS_21 D15 VSS_196 1K3
DDR_CH1_A0_D D17 VDD_LOGIC_6 1K4
VSS_22 D18 VDD_LOGIC_7 1K5
DDR_CH1_DQS0N_D D20 VDD_LOGIC_8 1K6
DDR_CH1_DQS1N_D D21 VSS_197 1K7
RFU0 D22 VSS_198 1K8
PCIE30X1_1_WAKEN_M2/DP1_HPDIN_M2/SATA1_ACT_LED_M1/I2C2_SCL_M4/UART6_TX_M1/SPI4_MOSI_M2/GPIO1_A1 D23 VSS_199 1K9
I2S0_LRCK/UART4_RTSN/GPIO1_C5 D24 VSS_200 1K10
I2C3_SDA_M0/UART3_RX_M0/SPI4_MISO_M0/GPIO1_C0 D25 VSS_201 1K11
I2S0_SCLK/I2C6_SCL_M1/UART3_CTSN/PWM7_IR_M2/SPI4_CS0_M0/GPIO1_C3 D26 VCCIO2 1L1
VSS_23 D27 VSS_202 1L2
DDR_CH0_DQ9_B E1 VSS_203 1L3
DDR_CH0_DQ10_B E2 VSS_204 1L4
VSS_24 E3 VSS_205 1L5
DDR_CH0_DM1_B E4 VDD_LOGIC_9 1L6
DDR_CH1_DQS1P_C E6 VSS_206 1L7
VSS_25 E7 VSS_207 1L8
DDR_CH1_DQS0P_C E8 VDD_NPU_0 1L9
DDR_CH1_A3_C E9 VDD_NPU_1 1L10
VSS_26 E10 VSS_208 1L11
DDR_CH1_LP4/4X_CS0_C E11 OTP_VDDOTP_0V75 1M1
DDR_CH1_A1_C E12 VSS_209 1M2
VSS_27 E13 VDD_GPU_0 1M3
DDR_CH1_LP4/4X_CKE1_C E14 VDD_GPU_1 1M4
DDR_CH1_LP4/4X_CKE0_D E15 VDD_GPU_2 1M5
VSS_28 E16 VSS_210 1M6
DDR_CH1_LP4/4X_CS1_D E17 VSS_211 1M7
DDR_CH1_DQ5_D E18 VSS_212 1M8
VSS_29 E19 VDD_NPU_2 1M9
DDR_CH1_DQS0P_D E20 VDD_NPU_3 1M10
DDR_CH1_DQS1P_D E21 VSS_213 1M11
RFU2 E22 VSS_214 1N1
I2S0_SDI0/GPIO1_D4 E23 VSS_215 1N2
I2C3_SCL_M0/UART3_TX_M0/SPI4_MOSI_M0/GPIO1_C1 E24 VSS_216 1N3
I2S0_MCLK/I2C6_SDA_M1/UART3_RTSN/PWM3_IR_M2/SPI4_CLK_M0/GPIO1_C2 E25 VDD_GPU_3 1N4
VSS_30 E26 VDD_GPU_4 1N5
PCIE30_PORT0_TX1N E27 VDD_GPU_5 1N6
PCIE30_PORT0_TX1P E28 VSS_217 1N7
DDR_CH0_DQ15_B F1 VSS_218 1N8
DDR_CH0_DQ8_B F2 VDD_NPU_4 1N9
VSS_31 F3 VDD_NPU_5 1N10
VSS_32 F4 VSS_219 1N11
DDR_CH0_DQS1P_B F5 HDMI_TX0_AVDD_0V75 1P1
VSS_33 F7 AVSS_1 1P2
VSS_34 F8 VSS_220 1P3
DDR_CH1_A4_C F9 VDD_GPU_6 1P4
VSS_35 F11 VDD_GPU_7 1P5
DDR_CH1_A0_C F12 VDD_GPU_8 1P6
VSS_36 F14 VSS_221 1P7
DDR_CH1_LP4/4X_CKE1_D F15 VSS_222 1P8
VSS_37 F17 VSS_223 1P9
DDR_CH1_DQ4_D F18 VSS_224 1P10
VSS_38 F20 VSS_225 1P11

3. Electrical specifications

3.1 Absolute ratings

Exceeding absolute maximum/minimum ratings can permanently damage the chip; prolonged exposure to absolute maximum conditions can reduce reliability. These are not recommended operating limits.

Parameters Related Power Group Min Max Unit
Supply voltage for CPU VDD_CPU_BIG VDD_CPU_LIT -0.3 1.1 V
Supply voltage for CPU memory VDD_CPU_BIG VDD_CPU_LIT -0.3 1.1 V
Supply voltage for GPU VDD_GPU -0.3 1.1 V
Supply voltage for GPU memory VDD_GPU -0.3 1.1 V
Supply voltage for NPU VDD_NPU -0.3 1.1 V
Supply voltage for NPU memory VDD_NPU -0.3 1.1 V
Supply voltage for core logic, VCODEC and VCODEC Memory VDD_LOGIC -0.3 0.95 V
0.75V supply voltage PMU_0V75 PLL_DVDD0V75 USB20_DVDD_0V75 HDMI_TX0_VDD_0V75 HDMI_TX0_AVDD_0V75 HDMI/eDP_TX1_VDD_0V75 HDMI/eDP_TX1_AVDD_0V75 PCIE30_PORT0_AVDD0V75 OTP_VDDOTP_0V75 -0.3 0.95 V
0.85V supply voltage DDR_CH0_VDD DDR_CH1_VDD DDR_CH01_PLL_DVDD TYPEC0_DP0_VDD_0V85 TYPEC0_DP0_VDDA_0V85 PCIE20_SATA30_0_AVDD_0V85 PCIE20_SATA30_1_AVDD_0V85 PCIE20_SATA30_USB30_2_AVDD_0V85 -0.3 1.00 V
1.8V supply voltage DDR_CH01_PLL_AVDD1V8 PLL_AVDD1V8 USB20_AVDD_1V8 TYPEC0_DP0_VDDH_1V8 HDMI_TX0_VDD_CMN_1V8 HDMI_TX0_VDD_IO_1V8 HDMI/eDP_TX1_VDD_CMN_1V8 HDMI/eDP_TX1_VDD_IO_1V8 PCIE20_SATA30_0_AVDD_1V8 PCIE20_SATA30_1_AVDD_1V8 PCIE20_SATA30_USB30_2_AVDD_1V8 PCIE30_PORT0_AVDD1V8 SARADC_AVDD_1V8 OSC_1V8 -0.5 1.98 V
3.3V supply voltage USB20_AVDD_3V3 -0.5 3.63 V
1.8V only GPIO supply voltage PMUIO1_1V8 EMMCIO_1V8 VCCIO1_1V8 VCCIO3_1V8 -0.5 1.98 V
1.8V/3.3V GPIO supply voltage PMUIO2 VCCIO2 VCCIO4 VCCIO5 VCCIO6 -0.5 3.63 V
Supply voltage for DDR IO (LPDDR4/4X 0.6V) DDR_CH0_VDDQ DDR_CH0_VDDQ_CK DDR_CH1_VDDQ DDR_CH1_VDDQ_CK -0.3 0.7 V
Supply voltage for DDR IO (LPDDR4/4X 1.1V) DDR_CH01_VDDQ_CKE -0.3 1.25 V
Storage Temperature Tstg -40 125 ℃
Max Conjunction Temperature Tj NA 125 ℃
Parameters Symbol Min Typ Max Unit
Voltage for CPU BigCore 0/1 and Memory VDD_CPU_BIG 0.75 0.75 0.95 V
Voltage for CPU LitCore, DSU and their Memory VDD_CPU_LIT 0.75 0.75 0.95 V
Voltage for GPU and Memory VDD_GPU 0.75 0.75 0.85 V
Voltage for NPU and Memory VDD_NPU 0.75 0.75 0.85 V
Voltage for Logic, VCODEC and VCODEC Memory VDD_LOGIC 0.675 0.75 0.825 V
Voltage for PMU PMU_0V75 0.675 0.75 0.825 V
Digital GPIO Power (1.8V only) PMUIO1_1V8, VCCIO1_1V8, VCCIO3_1V8 1.65 1.8 1.95 V
Digital GPIO Power (3.3V/1.8V) PMUIO2, VCCIO2, VCCIO4, VCCIO5, VCCIO6 2.7 1.65 3.3 1.8 3.6 1.95 V
eMMC IO Power (1.8V) EMMCIO_1V8 1.65 1.8 1.95 V
DDR CH0 Logic power(0.85V) DDR_CH0_VDD, DDR_CH1_VDD, 0.675 0.85 0.935 V
DDR CH01_PLL power(0.85V) DDR_CH01_PLL_DVDD 0.675 0.85 0.8925 V
DDR CH01_PLL power(1.8V) DDR_CH01_PLL_AVDD1V8 1.62 1.8 1.98 V
LPDDR4 IO VDDQ power DDR_CH0_VDDQ, DDR_CH0_VDDQ_CK, DDR_CH1_VDDQ, DDR_CH1_VDDQ_CK 0.57 0.6 0.63 V
LPDDR4 Retention IO VDDQ Power DDR_CH01_VDDQ_CKE 1.045 1.1 1.155 V
PLL Analog Power(0.75V) PLL_DVDD0V75 0.675 0.75 0.8925 V
PLL Analog Power(1.8V) PLL_AVDD1V8 1.62 1.8 1.98 V
USB 2.0 Analog Power (0.75V) USB20_DVDD_0V75 0.6975 0.75 0.825 V
USB 2.0 Analog Power (1.8V) USB20_AVDD_1V8 1.674 1.8 1.98 V
USB 2.0 Analog Power (3.3V) USB20_AVDD_3V3 3.069 3.3 3.63 V
USB & DP Analog Power (0.85V) TYPEC0_DP0_VDD_0V85, TYPEC0_DP0_VDDA_0V85 0.8075 0.85 0.8925 V
USB & DP Analog Power (1.8V) TYPEC0_DP0_VDDH_1V8 1.71 1.8 1.89 V
Combo PIPE PHY Analog Power(0.85V) PCIE20_SATA30_0_AVDD_0V85, PCIE20_SATA30_1_AVDD_0V85, PCIE20_SATA30_USB30_2_AVDD_0V85 0.8 0.85 0.935 V
Combo PIPE PHY Analog Power(1.8V) PCIE20_SATA30_0_AVDD_1V8, PCIE20_SATA30_1_AVDD_1V8, PCIE20_SATA30_USB30_2_AVDD_1V8 1.62 1.8 1.98 V
PCIe30 Analog Power(0.75V) PCIE30_PORT0_AVDD0V75 0.7125 0.75 0.8925 V
PCIe30 Analog Power(1.8V) PCIE30_PORT0_AVDD1V8 1.71 1.8 1.89 V
HDMI/eDP TX Digital Power (0.75V) HDMI_TX0_VDD_0V75, HDMI/eDP_TX1_VDD_0V75 0.675 0.75 0.85 V
HDMI/eDP TX Analog Power (0.75V) HDMI_TX0_AVDD_0V75, HDMI/eDP_TX1_AVDD_0V75 0.675 0.75 0.85 V
HDMI/eDP TX Analog Power (1.8V) HDMI_TX0_VDD_CMN_1V8, HDMI/eDP_TX1_VDD_CMN_1V8 1.62 1.8 1.98 V
HDMI/eDP TX Analog Power (1.8V) HDMI_TX0_VDD_IO_1V8, HDMI/eDP_TX1_VDD_IO_1V8 1.62 1.8 1.98 V
SARADC Analog Power(1.8V) SARADC_AVDD_1V8 1.62 1.8 1.98 V
OTP Analog Power(0.75V) OTP_VDDOTP_0V75 0.675 0.75 0.825 V
OSC Analog Power(1.8V) OSC_1V8 1.65 1.8 1.95 V
OSC input clock frequency   NA 24 NA MHz
Max CPU frequency   NA NA 2.2-2.4 GHz
Max GPU frequency   NA NA 1000 MHz
Max NPU frequency   NA NA 1000 MHz
Ambient Operating Temperature TA 0 NA 80 ℃

3.3 DC characteristics

  Parameters Symbol Min Typ Max Unit
Digital 3.3V/1.8V GPIO @3.3V Input Low Voltage VIL VSS NA 0.3*VDDO V
Digital 3.3V/1.8V GPIO @3.3V Input High Voltage VIH 0.7*VDDO NA VDDO V
Digital 3.3V/1.8V GPIO @3.3V Output Low Voltage VOL VSS NA 0.25*DVDD V
Digital 3.3V/1.8V GPIO @3.3V Output High Voltage VOH 0.75*DVDD NA DVDD V
Digital 3.3V/1.8V GPIO @3.3V Pullup Resistor RRPU 10 NA 100 Kohm
Digital 3.3V/1.8V GPIO @3.3V Pulldown Resistor RRPD 10 NA 100 Kohm
Digital 3.3V/1.8V GPIO @1.8V Input Low Voltage VIL VSS NA 0.3*VDDO V
Digital 3.3V/1.8V GPIO @1.8V Input High Voltage VIH 0.7*VDDO NA VDDO V
Digital 3.3V/1.8V GPIO @1.8V Output Low Voltage VOL VSS NA 0.25*DVDD V
Digital 3.3V/1.8V GPIO @1.8V Output High Voltage VOH 0.75*DVDD NA DVDD V
Digital 3.3V/1.8V GPIO @1.8V Pullup Resistor RRPU 10 NA 50 Kohm
Digital 3.3V/1.8V GPIO @1.8V Pulldown Resistor RRPD 10 NA 50 Kohm
Digital 1.8V only GPIO @1.8V Input Low Voltage VIL VSS NA 0.3*VDDO V
Digital 1.8V only GPIO @1.8V Input High Voltage VIH 0.7*VDDO NA VDDO V
Digital 1.8V only GPIO @1.8V Output Low Voltage VOL VSS NA 0.25*DVDD V
Digital 1.8V only GPIO @1.8V Output High Voltage VOH 0.75*DVDD NA DVDD V
Digital 1.8V only GPIO @1.8V Pullup Resistor RRPU 10 NA 50 Kohm
Digital 1.8V only GPIO @1.8V Pulldown Resistor RRPD 10 NA 50 Kohm
eMMC IO @1.8V Input Low Voltage VIL VSS NA 0.35*DVDD V
eMMC IO @1.8V Input High Voltage VIH 0.65*DVDD NA DVDD V
eMMC IO @1.8V Output Low Voltage VOL VSS NA 0.45 V
eMMC IO @1.8V Output High Voltage VOH DVDD-0.45 NA DVDD V
eMMC IO @1.8V Pullup Resistor RRPU 10 NA 50 Kohm
eMMC IO @1.8V Pulldown Resistor RRPD 10 NA 50 Kohm
DDR IO Input Low Voltage VIL NA NA Vref-0.14 V
DDR IO Input High Voltage VIH Vref+0.14 NA NA V
DDR IO Output Log Voltage VOL NA NA 0.2 V
DDR IO Output High Voltage VOH 0.25 NA NA V
DDR IO Input Low Current IIL -100/-500 NA 100/500 Room/Hot uA
DDR IO Input High Current IIH -100/-500 NA 100/500 Room/Hot uA

3.4 General IO

  Parameters Symbol Test condition Min Typ Max Unit
Digital 3.3V/1.8V GPIO @3.3V Input leakage current IPAD DVDD=Max, VPAD=0V or DVDD -10 NA 10 uA
Digital 3.3V/1.8V GPIO @3.3V Input Hysteresis for Schmitt Trigger Operation VH   0.08* VDDO NA NA V
Digital 3.3V/1.8V GPIO @3.3V Input pullup resistor current IRPU VPAD = 0V -20 NA -180 uA
Digital 3.3V/1.8V GPIO @3.3V Input pulldown resistor current IRPD VPAD = VDDO 20 NA 180 uA
Digital 3.3V/1.8V GPIO @1.8V Input leakage current IPAD DVDD=Max, VPAD=0V or DVDD -10 NA 10 uA
Digital 3.3V/1.8V GPIO @1.8V Input Hysteresis for Schmitt Trigger Operation VH   0.1* VDDO NA NA V
Digital 3.3V/1.8V GPIO @1.8V Input pullup resistor current IRPU VPAD = 0V -20 NA -180 uA
Digital 3.3V/1.8V GPIO @1.8V Input pulldown resistor current IRPD VPAD = VDDO 20 NA 180 uA
Digital 1.8V only GPIO @1.8V Input leakage current IPAD DVDD=Max, VPAD=0V or DVDD -10 NA 10 uA
Digital 1.8V only GPIO @1.8V Input Hysteresis for Schmitt Trigger Operation VH   0.1* VDDO NA NA V
Digital 1.8V only GPIO @1.8V Input pullup resistor current IRPU VPAD = 0V -20 NA -170 uA
Digital 1.8V only GPIO @1.8V Input pulldown resistor current IRPD VPAD = VDDO 20 NA 170 uA
eMMC IO @1.8V Input leakage current IPAD DVDD=Max, VPAD=0V or DVDD -10 NA 10 uA
eMMC IO @1.8V Input Hysteresis for Schmitt Trigger Operation VH   0.1* DVDD NA NA V
eMMC IO @1.8V Input pullup resistor current IRPU VPAD = 0V -20 NA -170 uA
eMMC IO @1.8V Input pulldown resistor current IRPD VPAD = VDDO 20 NA 170 uA

VDDO and DVDD both denote IO supplies. Negative pull-up current MIN/MAX positions are retained. Dual-voltage GPIO values list the 3.3V mode first, then 1.8V.

3.5.1 INT PLL

Parameters Symbol Test condition Min Typ Max Unit
Input clock frequency FFIN   4.5 - 300 MHz
Reference frequency(FFIN/p) FFREE   4.5 7 12 MHz
Frequency of PLL’s output FFOUT   35.2 - 4500 MHz
Frequency of VCO’s output FFVCO   2250 - 4500 MHz
Lock time TLT Measured at all FFIN and FFOUT range. RESETB=High - - 150 Cycles

3.5.2 FRAC PLL

Parameters Symbol Test condition Min Typ Max Unit
Input clock frequency FFIN   6 - 300 MHz
Reference frequency(FFIN/p) FFREE   6 20 30 MHz
Frequency of PLL’s output FFOUT   35.2 - 4500 MHz
Frequency of VCO’s output FFVCO   2250 - 4500 MHz
Lock time TLT Measured at all FFIN and FFOUT range. RESETB=High - - 500 Cycles

3.5.3 DDR PLL

Parameters Symbol Test condition Min Typ Max Unit
Input clock frequency FFIN   6 - 300 MHz
Reference frequency(FFIN/p) FFREE   6 20 30 MHz
Frequency of PLL’s output FFOUT   51.6 - 6600 MHz
Frequency of VCO’s output FFVCO   3300 - 6600 MHz
Lock time TLT Measured at all FFIN and FFOUT range. RESETB=High - - 500 Cycles

PLL note ①: p is the input-divider value.

3.6 PCIe2/SATA

Parameters Symbol Min Typ Max Unit
Transmitter          
Differential Peak-Peak TX Output Voltage Swing VTX_DIFF_PP 800 1000 1200 mV
Differential Peak-Peak Low Power TX Output Voltage Swing VTX_DIFF_PP_LOW 400 NA 1200 mV
The output impedance RTX_DIFF_DC 80 100 120 ohm
Single Ended Output Resistance Matching RTX_DC_OFFSET NA NA 5 %
Transmitter output common mode voltage VTX_DC_CM 400 NA 800 mV
Maximum mismatch between TXP and TXM for both time and amp VTX_CM_AC_PP_ACTIVE NA NA 50 mV
The amount of voltage change allowed during Receiver Detection VTX_RCV_DETECT NA NA 600 mV
TX de-emphasis VTX_DE_RATIO 3.0 3.5 4.0 dB
AC Coupling Capacitor(USB3.1/PCIe) CAC_COUPLING 75 NA 200 nF
AC Coupling Capacitor(SATA) CAC_COUPLING 6 NA 12 nF
Output rising time for 20% to 80% Tr 25 NA NA ps
Output falling time for 20% to 80% Tf 25 NA NA ps
Transmitter short circuit limit ITX_SHORT NA NA 20 mA
Output differential skew TSKEW_DIFF -15 NA 15 ps
Receiver          
Input Voltage Swing VRXDPP_C 250 NA 1200 mVpp
The input differential impedance RRXD_C 80 100 120 Ohm
Single Ended input Resistance Matching RRXD_C_MS NA NA 5 %

3.7 SARADC

Parameters Symbol Test condition Min Typ Max Unit
Resolution     NA 12 NA Bit
Anglog Input Range AIN   AVSS18 NA AVDD18 V
Differential Non-Linearity DNL PD = Low Fs = 1MS/s FCLK = 20MHz FSOC = 1MHz FAIN = 10kHz ramp wave NA ±1.0 ±3.0 LSB
Integral Non-Linearity INL PD = Low Fs = 1MS/s FCLK = 20MHz FSOC = 1MHz FAIN = 10kHz ramp wave NA ±2.0 ±6.0 LSB
Top Offset Voltage Error EOT PD = Low Fs = 1MS/s FCLK = 20MHz FSOC = 1MHz FAIN = 10kHz ramp wave NA ±10 ±20 LSB
Bottom Offset Voltage Error EOB PD = Low Fs = 1MS/s FCLK = 20MHz FSOC = 1MHz FAIN = 10kHz ramp wave NA ±10 ±20 LSB

3.8 TSADC

Parameters Symbol Test condition Min Typ Max Unit
Accuracy from -40℃ to 125℃ TJACC Temp: -40 ~ 125℃ Supply: 1.62V ~ 1.98V NA ±3 ±5 ℃
Sensing Temperature Range TRANGE   -40 NA 125 ℃
Resolution TLSB   NA 1 NA ℃

4. Thermal management

For reliability and operability, the absolute maximum junction temperature must remain below 125°C. The values below are simulation references; physical tests take precedence. Reference PCB: JEDEC 2S2P, 114.3mm x 76.2mm x 1.6mm, ambient 25°C.

Parameter Symbol Typical Unit
Junction-to-ambient thermal resistance 𝜽 𝑱𝑨 15.6 (℃/𝑾)
Junction-to-board thermal resistance 𝜽 𝑱𝑩 4.6 (℃/𝑾)
Junction-to-case thermal resistance 𝜽 𝑱𝑪 0.03 (℃/𝑾)

Source qualifications

The VOP text retains MIPI dual-channel/DSC timing conditions although this variant lists no MIPI display interface; this is a source inconsistency, not proof of an accessible MIPI port. The feature list states 0.3mm ball size, while the drawing gives 0.310mm nominal. The source uses FCCSP766L in features and ED-FCCSP 17x19 766L for ordering. The absolute table lists 125°C maximum junction temperature; the thermal text says below 125°C. No register-map chapter is provided.

Official references

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