QSRZ

RENESAS RZ/G2L 1.2 GHz Dual Cortex®-A55®-A55
512MB/1GB DDR3L, 4GB eMMC
-40 °C to 85 °C
27 x 27 x 2.7 mm
Datasheet

The QSRZ is a QFN Style Solder-Down Computer On Module. The module with a small square size of 27mm and a height of 2.7mm is single-sided assembled. Its QFN type lead style has a 1mm pitch with 100 pads. The ground pad additionally acts as thermal pad.  

 

Benefit by using QS module family

The QS module family has very compact dimensions. They include a complete embedded System on Module with processor, PMIC, RAM and flash memory.

Because of the very dense packaging on the top side, there are no components on the bottom side of the module, cut-outs on the base board not required. The pin compatible family concept provides all important interfaces needed for embedded designs, e.g., USB, Gigabit-Ethernet, display and many serial interfaces.

Flexibility, high performance and easy integration

All signal connections located at the module edges, allowing easy optical inspection during production. The modules can be assembled by automatic pick & place machines without any mechanical assembly work necessary.

The pin-optimized QS concept enables the use of a simple, cost-effective 2-layer base board.

A development kit with schematics and bill of materials is available to support a quick evaluation and project start.

QSX vs. QS

  • QSX is a QS module enlarged by 1 mm all around.
  • The size hereby increased from 27 mm square to 29 mm square.
  • In each corner this gives additional space for a total of 8 further pads which are used for PCIe and USB3.
  • The inner 27 mm x 27 mm QS area remains identical, providing full compatibility.

Renesas RZ/G2L

Renesas RZ/G2 and RZ/V2 microprocessors are the only embedded MPUs that meet the long-term support demands for industrial and infrastructure equipment manufacturers through the 10+ year support offered by the Super Long Term Support (SLTS) kernel maintained by the Civil Infrastructure Platform (CIP). The CIP SLTS Linux kernel supports countermeasures against vulnerability to security attacks with a long-term maintenance period of 10 years or more.

  • QSRZ at a glance

    • Main CPU

    2 x Cortex-A55, 1.2 GHz

    • MCU

    Cortex-M33, 200MHz

    • Memory

    1GB DDR3L
    4GB eMMC

    • GPU
    ARM MALI-G31
    • Security
    Secure Boot, True RNG,
    Crypto Engine, JTAG Disable,
    Device Unique ID
    • Display

    RGB 24, MIPI DSI (2-lanes)

    • Video Decode

    1080p30 H.264

    • Video Encode

    1080p30 H.264

    • Expansion I/O

    2x USB with PHY

    • Network/Storage

    Gb Ethernet RGMII
    2x CAN, SD/eMMC

    • IO

    5x UART, 4x I2C,
    3x SPI

  • Processor features

    • High Performance
      64-bit Arm Cortex-A cores, plus powerful 3D graphics engine and video engine capable of supporting up to 4K UHD, to offer the highest performance
    • Wide Coverage
      Entry-level RZ/G2L Group 3 products equipped with Cortex-A55 with improved processing performance have been newly added to the RZ/G2 lineup
    • High Reliability
      Built-in Error Correction Code (ECC) for internal and external memory, which is essential for high-reliability mission critical systems
    • Super Long Term Support (SLTS)
      Applying Civil Infrastructure Platform (CIP) Linux, the Linux kernel will be provided with over 10 years of support
    • Verified Linux Package
      Renesas verifies and provides a Linux package that combines CIP and Linux basic software. Minimize your Linux maintenance resources
  • Solder-down SoM

    Solder-Down
    System-on-Module
    Simplifies Design & Production
     

    A SoM, one step above an SoC, incorporates connectivity, multimedia and display, GPIO, operating system, and others in a single module. Although the industry has been traditionally using SODIMM modules (such as push-connector modules, small outline dual in-line memory module), soldered SoM modules are rapidly gaining ground.  Solder modules are less expensive than their SODIMM counterparts because they are easier to manage, test in production, and allow for better economies of scale.

    SoM-based designs are usually scalable to achieve a fully customized electronics assembly in terms of interfaces and form factors. SoMs can be replaced or upgraded within a carrier board. Some advantages of the SoM approach over an SoC development include cost savings, reduced market risk, reduced customer design requirements, and footprint.  The only limitation with an SoM, when compared to the ground-up SoC design, is that there are fewer pins in an SoM.

  • QSRZ QSBASE1 Evalkit

    Linux is pre-installed and ready for application development. Other features include

    • QS module:
      QSRZ-G2L0
    • Gb Ethernet
    • RGB Display Connector
    • USB
    • 2-layer PCB

    Part number: QSRZ-SV01

  • QSBASE4 Evalkit

    Linux pre-installed and ready for application development. Other features include:

    • QS module on sockets
    • Gb Ethernet
    • MIPI Display Connector
    • Two port USB hub, type A connectors
    • USB client & power supply, type C connector
    • USB to UART bridge, micro-B connector
    • 4-layer PCB
  • QSBASE4 on Raspberry Pi Touchscreen

    The QSBASE4 EvalKit can be mounted directly to the official Raspberry Pi 7 inch Touch screen.

    • Touch Display works out of the Box.
    • Sources available in our Yocto Layer.
  • An overview of the current standard variants.

    Customized versions on request.

  • Part NumberQSRZ-G2L0QSRZ-G2L1
    Part NameQSRZ/G2L/1GS/4GF/IQSRZ/G2L/512S/4GF/I
    ProcessorRENESAS RZ/G2LRENESAS RZ/G2L
    SDRAM1 GiB512 MiB
    Flash4 GB4 GB
    Display-IFRGB24, MIPIRGB24, MIPI
    Temperature-40 °C to 85 °C-40 °C to 85 °C

Customer Area File History

===============================================================
QSRZ - 2023-10-20
===============================================================
Updated: 23686172 2023/09/28 11:00:12 Datasheets\RZ_G2L\Processor Reference Manual\rzg2l-rzg2lc.pdf
New : 214772 2023/10/20 09:45:38 Datasheets\RZ_G2L\Application Notes\Lifetime Guideline.pdf
New : 246427 2023/10/20 09:44:18 Datasheets\RZ_G2L\Application Notes\rzg2l_power_consumption.pdf

===============================================================
QSRZ - 2023-05-30
===============================================================
Updated: 25260429 2023/05/12 13:22:36 Datasheets\RZ_G2L\Processor Reference Manual\rzg2l-rzg2lc.pdf
Removed: 28293 2022/04/27 19:51:18 \Datasheets\RZ_G2L\Application Notes\RZG2L_clock_list_r1.1.xlsx
Removed: 206534 2022/04/27 15:52:36 \Datasheets\RZ_G2L\Application Notes\RZG2L_pinfunction_List_r1.2.xlsx
New : 28787 2023/05/12 08:29:46 Datasheets\RZ_G2L\Application Notes\RZG2L_clock_list_r1.2.xlsx
New : 65540 2023/05/12 13:03:04 Datasheets\RZ_G2L\Application Notes\RZG2L_MIPI-DSI_Calculated_register_table_rev1.0.xlsx
New : 204022 2023/05/11 19:39:40 Datasheets\RZ_G2L\Application Notes\RZG2L_pinfunction_List_r1.3.xlsx

===============================================================
QSRZ - 2022-09-30
===============================================================
Updated: 36657998 2022/09/27 13:56:22 Datasheets\RZ_G2L\Processor Reference Manual\rzg2l-rzg2lc.pdf

===============================================================
QSRZ - 2022-07-22
===============================================================
Updated: 3640996 2022/07/22 14:35:49 Design\QSBASE4-PADSProVX.2.11.zip
Updated: 7070 2022/07/04 11:14:42 Schematics\QSBASE4-BOM.txt
Updated: 1741160 2022/07/04 11:00:17 Schematics\QSBASE4-SCM.pdf
New : 2906943 2022/07/22 14:43:50 3Dmodel\QSBASE4-STEP.zip

===============================================================
QSRZ - 2022-04-28
===============================================================
New : 234290 2022/04/28 13:31:34 3Dmodel\QSRZ-STEP.zip
New : 28293 2022/04/27 19:51:18 Datasheets\RZ_G2L\Application Notes\RZG2L_clock_list_r1.1.xlsx
New : 206534 2022/04/27 15:52:36 Datasheets\RZ_G2L\Application Notes\RZG2L_pinfunction_List_r1.2.xlsx
New : 7439961 2022/03/31 14:36:01 Datasheets\RZ_G2L\Fact Sheet\r01cp0031ej0700-rz.pdf
New : 37814287 2022/04/26 17:23:30 Datasheets\RZ_G2L\Processor Reference Manual\rzg2l-rzg2lc.pdf
New : 158614 2019/12/17 16:26:03 Datasheets\WE-SHC Shielding Cabinet\36003300.pdf
New : 195098 2019/12/17 16:24:46 Datasheets\WE-SHC Shielding Cabinet\36103305.pdf
New : 263947 2022/03/30 10:26:20 Datasheets\WE-SHC Shielding Cabinet\36503305.pdf
New : 1984918 2020/05/27 08:52:41 Design\QSBASE1-PADSProVX.2.7.ZIP
New : 2840298 2019/12/19 15:34:05 Design\QSBASE2-PADSProVX.2.6.zip
New : 3833028 2022/04/28 13:36:16 Design\QSBASE4-PADSProVX.2.11.zip
New : 5025 2019/12/17 16:20:34 Schematics\QSBASE1-BOM.txt
New : 935253 2019/12/17 16:22:52 Schematics\QSBASE1-SCM.pdf
New : 5261 2019/12/19 15:20:23 Schematics\QSBASE2-BOM.txt
New : 1120055 2020/11/09 08:50:55 Schematics\QSBASE2-SCM.pdf
New : 6906 2022/02/11 15:07:14 Schematics\QSBASE4-BOM.txt
New : 1719408 2022/02/11 14:55:11 Schematics\QSBASE4-SCM.pdf

History based on this release


TX QS Silicon Vendor SOC Core # Clock Grade L2-Cache I-Cache D-Cache Emb. SRAM NEON VFP
TX93 QS93 NXP i.MX 93 Cortex®-A55
Cortex®-M33
2
1

1.5 GHz
250 MHz

Ind. 64 KB 32 KB 32 KB 640 KB
TXRZ QSRZ RENESAS RZ/G2L Cortex®-A55
Cortex®-M33
2
1
1.2 GHz
200 MHz
Ind. 256 KB (L3) 32 KB 32 KB 128 KB
TX8P QSXP NXP i.MX8M Plus Cortex®-A53 4 1.6 GHz Ind. 512 KB 32 KB 32 KB 256 KB
TX8M QS8M | QSXM NXP i.MX8M Mini Cortex®-A53
Cortex®-M7
4
1
1.6 GHz
750 MHz
Ind. 512 KB 32 KB 32 KB 256 KB
TX8M QS8M NXP i.MX8M Nano Cortex®-A53 2 1.4 GHz Ind. 512 KB 32 KB 32 KB 256 KB
TX6QP   NXP i.MX6QuadPlus Cortex®-A9 4 800 MHz Ind. 1 MB 32 KB 32 KB 256 KB -
TX6Q   NXP i.MX6Quad Cortex®-A9 4 1 GHz Com. 1 MB 32 KB 32 KB 256 KB -
TX6DL   NXP i.MX6DualLite Cortex®-A9 2 800 MHz Ind. 512 KB 32 KB 32 KB 128 KB -
TX6S   NXP i.MX6Solo Cortex®-A9 1 800 MHz Ind. 512 KB 32 KB 32 KB 128 KB -
TX6UL   NXP i.MX6UltraLite Cortex®-A7 1 528 MHz Ind. 128 KB 32 KB 32 KB 128 KB -
TXMP QSMP STMicroelectronics STM32MP1 Cortex®-A7
Cortex®-M4
1-2
1
650 MHz
209 MHz
Ind. 256 KB 32 KB 32 KB 708 KB
TX QS NPU ISP Graphics Acceleration Video Codec Camera Interface LCD Interface
TX93 QS93 - √ (Blending/Composition, Resize, Color Space Conversion) - LVDS
TXRZ QSRZ - - √ (TXRZ) / - (QSRZ) 24bit and MIPI
TX8P   LVDS + MIPI + HDMI
  QSXP MIPI
TX8M QS8M | QSXM - - √ (8M Mini) / - (8M Nano) MIPI
TX8M   - - LVDS
TX6   - - 24bit or LVDS
TXUL   - - - - 24bit
  QSMP - - - - 24bit
TXMP QSMP - - - 24bit and MIPI
TX QS RAM Size RAM Type RAM width ROM Size ROM Type
TX93 QS93 1 GB LPDDR4 16 bit 4 GB eMMC
TXRZ QSRZ 512MB / 1 GB DDR3L-1333 16 bit 4 GB eMMC
TX8P QSXP 2 GB LPDDR4 32 bit 8 GB eMMC
  QSXM 2 GB LPDDR4 32 bit 4 GB eMMC
TX8M - MINI   1 GB / 2 GB DDR3-1600 32 bit 4 GB eMMC
TX8M - NANO   512 MB DDR3-1600 16 bit 4 GB eMMC
  QS8M 512MB / 1 GB DDR3-1600 16 bit 4 GB eMMC
TX6QP   2 GB DDR3-1066 64 bit 4 GB eMMC
TX6Q   1 GB DDR3-1066 64 bit 128 MB / 8 GB SLC NAND / eMMC
TX6DL   1 GB DDR3-800 64 bit 128 MB / 4 GB SLC NAND / eMMC
TX6S   256 MB / 512 MB DDR3-800 16 bit / 32 bit 128 MB / 4 GB SLC NAND / eMMC
TX6UL   256 MB DDR3-800 16 bit 128 MB / 4 GB SLC NAND / eMMC
TXMP QSMP 256 MB / 512 MB DDR3-1066 16 bit 128 MB / 4 GB SLC NAND / eMMC
  USB Ethernet UART I2C SPI SD / MMC Serial Audio CAN SATA External Memory Interface
TX93 2 2 8 1 2 2 - -
QS93 2 2 5 1 1 2 - -
TXRZ 2 2 7 1 2 2 - -
QSRZ 2 1 4 1 1 2 - -
TX8P 2 2 4 2 4 2 - PCIe
TX8M 2 / 1 1 4 2 4 - - PCIe
QS8M 2 / 1 1 4 1 1 - - -
QSXM 2 1 4 1 1 - - PCIe
QSXP 2 1 4 1 1 2 - PCIe
TX6QP 2 1 5 2 2 2 16 bit / PCIe
TX6Q 2 1 5 2 2 2 16 bit / PCIe
TX6DL 2 1 5 2 2 2 - 16 bit / PCIe
TX6S 2 1 5 2 2 2 - 16 bit / PCIe
TX6UL 2 2 8 2 1 2 - -
TXMP 2 1 8 1 1 2 - -
QSMP 2 1 7 1 1 2 - -
  Linux Windows
Embedded Compact 7
Windows
Embedded Compact 2013
Windows
10 IoT
TX93 | QS93 - - -
TXRZ | QSRZ - - -
TX8P | QSXP - - -
TX8M | QS8M | QSXM - -
TX6QP - - -
TX6Q -
TX6DL -
TX6S -
TX6UL - -
TXMP | QSMP - - -
  Supply Voltage U-Boot [mW] Linux [mW] Sleep [mW]
TX93-5210 5V / 3.3V 1110 / 1025 725 / 655 150 / 125
QSRZ-G2L0 3.3V 782 657 500 [1]
TXRZ-G2L0 5V / 3.3V 1040 / 941 960/ 871 985 / 900 [1]
TX8P-ML81 5V / 3.3V 1900 / 1800 1685/ 1600 115 / 100
TX8M-1610 5V / 3.3V 1110 / 1110 900 / 880 130 / 120
TX8M-1620 5V / 3.3V 1275 / 1277 1055 / 1059 260 / 244
TX8M-ND00 5V / 3.3V 860 / 845 670 / 650 85 / 80
TX6Q-8037 5V 2400 850 180
TX6Q-1030 5V / 3.3V 2125 / 2015 800 / 760 80 / 80
TX6U-8033 5V / 3.3V 1925 / 1840 800 / 760 80 / 80
TX6S-8034 5V / 3.3V 1425 / 1310 550 / 530 80 / 80
TXUL-5010 5V / 3.3V 710 / 620 550 / 460 29 / 28
TXUL-5011 5V / 3.3V 760 / 650 550 / 460 29 / 22
TXUL-8013 5V / 3.3V 775 / 675 365 / 340 100 / 76
TXMP-1570 5V / 3.3V 875 / 775 800 / 695 60 / 45
QSMP-1570 3.3V 660 560 20
QSMP-1530 3.3V 620 520 15
QS8M-MQ00 3.3V 840 510 60
QS8M-ND00 3.3V 670 500 45
QSXM-MM60 3.3V 1161 739 40
QSXP-ML81 3.3V 1520 1230 86

[1] Renesas RZ/G2L has no different power domains, voltages cannot be switched off and DRAM self-refresh is not supported.

  glmark2 score CoreMark DhryStone Whetstone
[MIPS]
Memcpy
[MB/s]
Memset
[MB/s]
STREAM
copy [MB/s]
STREAM
scale [MB/s]
STREAM
add [MB/s]
STREAM
triad [MB/s]
TX93-5210 - 12762 9330534 32258 2657 4725 5738 3307 4230 4239
QSMP-1570 74 3788 2199518 10204 620 1437 1345 794 705 584
QS8M-ND00 192 9222 6922571 24390 372 1228 808 814 710 677
TXRZ-G2L0 212 8853 6850488 22727 1095 2322 2358 2286 2363 2377
QS8M-MQ00 280 21075 7912644 27777

1132

2830 2570 2647 2341 2004
QSXM-MM60 361 21028 7912644 27777 1885 8533 4243 2950 2716 2301
QSXP-ML81 863 21104 7912957 27777 2008 10690 4673 2910 2617 2216
  W L T
TX6 31mm (1.2'') 67.6mm (2.7") 4mm (0.16")
TX8M-LVDS 28mm (1.1") 67.6mm (2.7") 4mm (0.16")
TX93 | TXUL | TXMP | TX8M-MIPI | TX8P | TXRZ 26mm (1.0") 67.6mm (2.7") 4mm (0.16")
QS93 | QSMP | QS8M | QSRZ 27mm (1.05") 27mm (1.05") 2.3mm (0.09")
QSXM | QSXP 29mm (1.14") 29mm (1.14") 2.3mm (0.1")
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QSRZ

€0,00
RENESAS RZ/G2L 1.2 GHz Dual Cortex®-A55®-A55
512MB/1GB DDR3L, 4GB eMMC
-40 °C to 85 °C
27 x 27 x 2.7 mm
Datasheet
View product