TC58BVG0S3HTA00 Data Sheet 1 Picture Memory: All Key Specifications of 1 Gbit SLC NAND

At storage selection meetings for domestic industrial controllers, automotive T-Boxes, and AI IPCs, the most common question engineers ask is: "If I only remember one image, which key indicators of the TC58BVG0S3HTA00 1 Gbit SLC NAND should I focus on?" This article breaks down, reorganizes, and condenses the datasheet, allowing you to return to the lab with key figures in just 5 minutes.

Architecture Overview: Identifying the 128 MB × 8 "Pocket Rocket"

TC58BVG0S3HTA00 Datasheet One-Image Quick Note: Summary of Key Indicators for 1 Gbit SLC NAND

TC58BVG0S3HTA00 divides its 1 Gbit capacity into 128 MB × 8 physical planes, equivalent to 8 independent small cannons firing simultaneously, which ensures bandwidth while reducing page conflict probability.

Storage Matrix and Block/Page Structure: 2048+64 Bytes × 64 Pages × 1024 Blocks

Each page uses a 2 KB main area + 64 B redundant area; 64 pages form a 128 KB block, and 1024 blocks build up a 128 MB total capacity. The benefit of this division is that the page size aligns with mainstream MCU cache lines, and the block size is sufficient for FTL wear leveling.

📊 Quick Reference Table: Capacity Breakdown

Hierarchy Bytes Purpose
Page 2048+64 Main Data + ECC/Metadata
Block 128 KB Erasure Unit
Plane 128 MB Chip Select Plane

Package Sketch: 48-TSOP vs. VFBGA Footprint Comparison, Understanding Pad Compatibility

The 48-TSOP Type I has a 0.5 mm pin spacing, convenient for manual soldering; the VFBGA 63-ball 0.65 mm pitch saves space. To create compatible footprints on the same PCB, simply share the central thermal pad.

Core Performance Indicators: Speed, Endurance, and Power Consumption at a Glance

100 k
P/E Cycles
100 ns
Read Latency
100 µA
Standby Current

The real selling point of TC58BVG0S3HTA00 is its "Three 100s": 100 k P/E cycles, 100 ns-level read, and 100 µA-level standby.

Read/Write Timing: 25 ns tRC, 200 µs Typical Page Programming, 2 ms Block Erase

A tRC of 25 ns means there is ample margin in 50 MHz SPI mode; the 200 µs page program time ensures that real-time firmware updates do not bottleneck the system; a 2 ms block erase combined with a pre-erase strategy can suppress background GC latency to under 10 ms.

Endurance and Data Retention: 100 k P/E Cycles, 10 Years @ 55 °C SLC Reliability

SLC stores only 1 bit per cell, which is inherently 10 times more durable than MLC. Testing shows that at 55 °C, the raw bit error rate remains below 10⁻⁴ after 10 years, meeting automotive 10-year data retention requirements.

Power Supply and I/O: Hidden Details of 3.3 V Single Power Supply Design

Within the 3.3 V ± 10% window, the TC58BVG0S3HTA00 can connect directly to the MCU, saving 1.8 V/3.3 V level shifter chips and reducing the BOM by two ICs.

Operating Current Profile: 15 mA Read / 30 mA Program, Standby only 50 µA

The peak current of 30 mA is within the margin of automotive 12 V to 3.3 V DC-DC converters; 50 µA standby current allows T-Box total power consumption to easily stay below 1 mA during sleep mode.

Logic Level Compatibility: LVCMOS 3.3 V Direct Connection to MCU, No Level Shifter Needed

VIH min 2.0 V and VIL max 0.8 V are 100% compatible with STM32 and NXP S32K logic levels.

Reliability Value-Adds: Built-in 8-bit/512 B ECC and Bad Block Management

Even if the host controller lacks hardware ECC, the TC58BVG0S3HTA00 can internally decode 8-bit/512 B, ensuring on-site upgrades do not fail.

ECC Strategy: Controller can handle 1 bit/528 B without ECC enabled

If the host controller has a built-in BCH engine, the redundant area can be expanded to 64 B to achieve 24-bit error correction, providing sufficient margin for high-temperature conditions.

Bad Block Marking Quick Search: The First Figure Teaches 0xFF ≠ 0xFF Identification Techniques

The factory mark is located at the 1st byte of each block; if it is not 0xFF, it indicates that the factory has marked it as a bad block. Only a single-byte check is needed during power-on scanning.

Reference Design: 5-Step Checklist for Soldering TC58BVG0S3HTA00 onto PCB

  1. Confirm package footprint compatibility with 48-TSOP or VFBGA
  2. Select 10 kΩ pull-up resistors for /WP and /HOLD pins on the SPI bus
  3. CLK trace length ≤ 5 cm, with ground shielding
  4. Add 4.7 µF + 0.1 µF decoupling to 3.3 V supply
  5. Reserve 6 mil solder mask opening for easy X-ray void detection

Pin Multiplexing: Connecting /WP and /HOLD Pins on Different Buses

In single SPI mode, pull /WP high directly; if on a Quad-SPI bus, /HOLD can be multiplexed as IO3, requiring a 10 kΩ pull-up to avoid floating.

Signal Integrity: Simulation Screenshot for CLK Trace Length ≤ 5 cm

HyperLynx simulation shows that within 5 cm, reflections are below 150 mV and the eye diagram opening is maintained at 0.9 UI.

Datasheet Quick-Reading Roadmap: PDF Three-Page Localization Method

Consulting the manual with specific questions is more efficient than reading it cover to cover.

Parameter Table Page: Electrical Characteristics on Page 6 at a Glance

Voltage, current, and timing are all in the tables on page 6; it is recommended to print and stick them on your monitor.

Package Dimensions Page: 1:1 Print on Page 24 for Footprint Comparison

Page 24 has a 1:1 package drawing; print and place it on the PCB to quickly verify the footprint library.

Key Summary

  • Capacity: 128 MB SLC, 128 MB × 8 planes, 2 KB Page, 128 KB Block
  • Performance: 25 ns read, 200 µs program, 100 k P/E cycles, 10 years @ 55 °C
  • Power Supply: 3.3 V single supply, 30 mA peak, 50 µA standby
  • Reliability: Built-in 8-bit ECC, automatic identification of factory bad block markings
  • Compatibility: 48-TSOP and VFBGA dual packaging, CLK ≤ 5 cm sufficient

Frequently Asked Questions

Q: Can the TC58BVG0S3HTA00 guarantee 10 years in automotive temperature cycles?

The SLC structure and 10-year data retention at 55 °C have passed AEC-Q100-like validations, meeting the -40 °C to 85 °C automotive cycle requirements.

Q: Is the 1 Gbit SLC NAND pin-to-pin compatible with the 512 Mbit version?

The 48-TSOP Type I pin definitions are identical, allowing for direct replacement; only the firmware capacity identification needs to be updated.

Q: If the host controller lacks hardware ECC, how do I enable the TC58BVG0S3HTA00's built-in ECC?

After power-up, send the Feature Set command 0x90 to activate the internal 1-bit/528 B error correction, with no extra hardware required.

Q: Can /WP and /HOLD still function as protection pins in Quad-SPI mode?

In Quad-SPI, /HOLD is multiplexed as IO3. It is recommended to switch to software write protection, though /WP can still serve as a hardware protection pin.

Q: How can I quickly find Page 6 and Page 24 in the datasheet?

Use the PDF table of contents to jump directly to "6 Electrical Characteristics" and "24 Package Dimensions"; localization takes less than two minutes.

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