Micron Technology

M29W160ET70N3F - 16Mb 70ns AEC-Q100 NOR Flash | Micron

MPN: M29W160ET70N3F ✓ Active
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3 V / 3.3 V Vdss 48-pin TSOP Package Parallel NOR Flash Memory
From $2.8 USD / Unit
MOQ: 1 |
Price updated: 2026-09-04
Volume Pricing
Qty Unit Price Extended
1 $4.2 $4.20
10 $3.85 $38.50
100 $3.45 $345.00
500 $3.1 $1,550.00
1,000 $2.8 $2,800.00
ℹ️ All prices are in USD

Drop-in alternatives for M29W160ET70N3F — same package, pin-to-pin compatible. Different-package parts requiring PCB rework are excluded.

Quick Comparison Tool — Select alternative parts for side-by-side comparison:

M29W160FB70N3E

✅ Drop-In
Micron Technology
📦 48-pin TSOP
FLASH - NOR · 16 Mbit (2M x8 / 1M x16) · 70 ns · Parallel · 3.0 V to 3.6 V · Single supply (no separate VPP required) · x8 / x16 selectable (BYTE# pin) · Boot block

✓ In Stock

$3.58 / Unit

View Datasheet →

M29W160ET70N3E

✅ Drop-In ⚠️ 参数待验证
Micron Technology
📦 48-pin TSOP
NOR Flash (Parallel) · 16 Mbit · 2M x 8 / 1M x 16 · 70 ns · Parallel · 3 V / 3.3 V (nominal) · Top boot · 48-TSOP

✓ In Stock

$4.5 / Unit

View Datasheet →

M29W160EB80ZA3SE

✅ Drop-In
Micron Technology
📦 TFBGA-48 (8mm, 0.80mm pitch)
NOR Flash (Parallel) · 16 Mbit (2M x8 / 1M x16) · 80 ns · Parallel (Byte-wide / Word-wide) · 2.7 V to 3.6 V · 16 Mbit Boot Block, x8/x16 selectable · -40C to +125C · 48-TFBGA (6x8 mm, 0.8 mm ball pitch)

✓ In Stock

$1.35 / Unit

View Datasheet →

M29W800FT70ZA3SE

✅ Drop-In
Micron Technology
📦 TSOP-48
NOR Flash (Parallel) · 8 Mbit · 512K x 16 · SLC · 70 ns · Parallel · 2.7 V to 3.6 V · -40C to +125C

✓ In Stock

$1.38 / Unit

View Datasheet →

M29W160ET70N3F Maximum Ratings & Electrical Characteristics

Memory Type Parallel NOR Flash
Memory Size 16 Mbit (2 M x 8 / 1 M x 16)
Access Time 70 ns
Supply Voltage 3 V / 3.3 V
Technology CMOS
Boot Block Architecture Top boot
Bus Configuration x8 / x16 selectable
Package 48-pin TSOP
Mounting Type Surface Mount
Temperature Grade Automotive (AEC-Q100)
Qualification AEC-Q100 qualified
Packaging Tape and Reel
RoHS Status RoHS-compliant package (F option)
Programming Interface Parallel command set
Number of Terminals 48

M29W160ET70N3F 48-pin tsop Pin Configuration Guide

Complete pinout information for M29W160ET70N3F (48-pin tsop package). This digital IC includes GPIO, communication interfaces (UART, SPI, I2C), and power pins. Refer to the manufacturer datasheet for alternate pin functions and configuration options. Essential for embedded system design and PCB layout.

48-pin tsop package pinout diagram for M29W160ET70N3F

No detailed pinout data available for M29W160ET70N3F.

Refer to the datasheet for full pin configuration.

Safe Operating Area (SOA) & Thermal Characteristics

Safe Operating Area Chart Default safe operating area chart for M29W160ET70N3F Drain-to-Source Voltage (Vds) Drain Current (Id)

No official SOA curve available for this digital IC. Always operate within absolute maximum ratings specified in the datasheet. Ensure adequate cooling and derate as needed.

Typical Applications

M29W160ET70N3F is suitable for 6 applications: Automotive ECU Boot Code Storage, Industrial Control Firmware Storage, Telecom and Networking Line Cards, Embedded Systems Code Storage (XIP), Automotive Infotainment and Cluster Boot Memory, Test and Measurement Instrument Firmware.

🚗

Automotive ECU Boot Code Storage

The M29W160ET70N3F is designed for automotive electronic control units that must store boot firmware in a reliably protected non-volatile region. Its AEC-Q100 qualification and automotive temperature grade satisfy in-vehicle stress requirements, while the top-boot architecture places protected boot blocks at the top of the address map, matching CPU boot vectors located at the end of the 16 Mbit space. The 70 ns access time permits zero-wait-state or minimal-wait-state code fetch on typical automotive microcontroller external buses, and the x8/x16 selectable bus lets designers match the ECU's 8-bit or 16-bit external memory interface without bus-width conversion logic. Single 3V/3.3V supply operation simplifies the power tree in 3.3V vehicle-electronics domains.

🏭

Industrial Control Firmware Storage

Industrial controllers, PLC I/O modules, and motor-drive boards commonly use parallel NOR Flash to hold firmware because of its random-access, execute-in-place capability. The M29W160ET70N3F's 70 ns access time supports direct code execution from the parallel bus without shadowing to RAM at boot, reducing RAM requirements and startup time. The 16 Mbit density accommodates real-time operating systems plus application images, and the top-boot blocks can be hardware write-protected to prevent corruption from runaway code during field updates. The 3V/3.3V supply matches standard industrial logic rails, and the 48-pin TSOP surface-mount package suits wave-free, reflow-based industrial assembly with proven solder-joint reliability.

🌐

Telecom and Networking Line Cards

Line cards, baseband boards, and network interface modules use parallel NOR Flash for boot ROM and configuration storage because NOR retains code integrity through power cycles and supports in-system update of the application region. The M29W160ET70N3F offers 16 Mbit in a space-efficient 48-pin TSOP, with the x16 mode providing 16-bit data fetches that double effective code-read throughput versus an 8-bit bus, an advantage on 16-bit embedded processor buses. The 70 ns grade sustains fast sequential reads during POST and image verification. RoHS-compliant tape-and-reel packing supports high-volume automated placement on telecom SMT lines.

🔧

Embedded Systems Code Storage (XIP)

General-purpose embedded systems using external-bus microcontrollers benefit from the M29W160ET70N3F's execute-in-place capability: code runs directly from the 16 Mbit NOR array via the 70 ns parallel interface, avoiding the cost and boot latency of copying code into RAM. The BYTE pin selects x8 (2 M x 8) or x16 (1 M x 16) organization to match the host bus width, and the standard M29W160E command set is widely supported by flash programmer tooling and CPU memory-controller drivers. Top-boot protection safeguards the reset vector region during application-region field updates, and single-supply 3V/3.3V operation removes any programming-voltage generator from the design.

📺

Automotive Infotainment and Cluster Boot Memory

Instrument clusters and infotainment head units in vehicles require AEC-Q100-qualified code memory for their boot loaders. The M29W160ET70N3F's automotive temperature grade and qualification, combined with 70 ns random access, allow the graphics microcontroller to begin executing bootloader code immediately after reset. The 16 Mbit capacity holds the boot block plus a recovery image, while application code can live in larger serial or parallel memories. Top-boot write protection ensures the boot region survives OTA-style update failures, supporting ISO-aligned functional-safety recovery strategies in cluster designs.

🖥️

Test and Measurement Instrument Firmware

Bench instruments, data loggers, and sensor interfaces store monitor firmware and factory calibration tables in parallel NOR Flash for its reliability and random-access speed. The M29W160ET70N3F provides 16 Mbit in the industry-standard 48-pin TSOP footprint, allowing drop-in use across instrument revisions where the footprint is already designed in. The 70 ns access time supports fast boot-time self-test code execution, and the x8 mode simplifies interfacing to 8-bit MCU external buses in cost-sensitive designs. Block-protection features prevent accidental overwrite of calibration constants stored in dedicated blocks.

What is the M29W160ET70N3F?
The M29W160ET70N3F is a Micron 16 Mbit parallel NOR Flash memory with 70 ns access time, 3V/3.3V supply, x8/x16 bus configuration, and top-boot block architecture. It is AEC-Q100 automotive qualified and housed in a 48-pin TSOP package supplied in tape-and-reel packing. According to Micron product data, it belongs to the M29W160E family for embedded code storage.
What is the access time of M29W160ET70N3F?
The access time is 70 ns, as indicated by the '70' speed code in the Micron part-numbering scheme. This allows zero-wait-state or low-wait-state code execution from the parallel bus in typical embedded systems, and the same 70 ns grade is shared with the related M29W160FB70N3E variant, simplifying cross-design reuse.
Is M29W160ET70N3F automotive qualified?
Yes. According to Micron and distributor listings (datasheets.com, Partstack), the M29W160ET70N3F is AEC-Q100 automotive qualified with temperature grade AUTOMOTIVE. This makes it suitable for in-vehicle ECU boot and code storage, unlike standard-grade M29W160E variants such as the non-automotive commercial options.
What is the difference between M29W160ET70N3F and M29W160EB70N3F?
The difference is boot-block orientation: the 'T' in M29W160ET70N3F denotes a top-boot architecture, while 'B' denotes bottom boot. Both are 16 Mbit, 70 ns, AEC-Q100, 48-pin TSOP devices with the same pinout, so they are electrically drop-in interchangeable, but boot code resides in the highest address blocks (T) versus the lowest (B). Verify your boot vector mapping before substituting.
What package does M29W160ET70N3F use?
The M29W160ET70N3F uses a 48-pin TSOP (thin small outline package) surface-mount package, per Micron part-number code N3. Distributor data (Mouser, Partstack) also lists it as a 48-terminal rectangular TSSOP-class TSOP body. The F suffix in the part number indicates RoHS-compliant package with tape-and-reel packing.
Can M29W160ET70N3F operate in x8 and x16 modes?
Yes. The device supports both 2 M x 8-bit and 1 M x 16-bit organization, selected by the BYTE pin on the 48-pin TSOP interface. In x8 mode the full 2 M address space is used, while x16 mode halves the address depth and doubles the data width, which can shorten code-fetch time on 16-bit buses.
What is the best drop-in replacement for M29W160ET70N3F?
The closest drop-in alternatives are same-family Micron parts: M29W160FB70N3E (bottom-boot, same 48-TSOP pinout, 70 ns, AEC-Q100) and the standard-grade M29W160ET70N3E (same top-boot die, non-automotive packing). All use the identical 48-pin TSOP footprint, so no PCB change is required; only boot orientation or qualification grade differs. Always confirm the boot-block direction before ordering.
Is M29W160ET70N3F RoHS compliant?
Yes. Per Micron's part-numbering code, the trailing 'F' suffix designates a RoHS-compliant package with standard tape-and-reel packing. Distributor listings (Mouser, datasheets.com) describe the part as RoHS-compliant. Lead-free soldering profiles compatible with RoHS reflow can therefore be used during assembly.
What supply voltage does M29W160ET70N3F require?
The M29W160ET70N3F operates from a 3V/3.3V supply per the official device description (nor flash parallel 3v/3.3v). The family supports single-supply 3V program and erase operation, so no separate programming voltage rail is needed. Consult the manufacturer datasheet for exact VCC min/max limits before finalizing power-rail tolerance design.
Is M29W160ET70N3F suitable for automotive ECU boot code?
Yes. As an AEC-Q100-qualified automotive-temperature-grade device with top-boot architecture, it is specifically targeted at storing boot and application code in automotive ECUs. The top-boot blocks protect the boot vector region from accidental erase, and the 70 ns access time supports code execution directly from the parallel bus.
M29W160ET70N3F vs M29W160FB70N3E - which is better for automotive boot code?
For automotive boot code where the CPU boot vector is at the top of the memory map, the M29W160ET70N3F (top boot) is the natural choice; for boot vectors at address zero, choose the M29W160FB70N3E (bottom boot). Both are 70 ns AEC-Q100 48-TSOP devices with identical pinout, so the decision is purely about boot-block placement, not performance or qualification.
When should I choose M29W160ET70N3F over M29W800FT70ZA3SE?
Choose the M29W160ET70N3F when you need 16 Mbit of code storage; the M29W800FT70ZA3SE provides only 8 Mbit in the same TSOP-48 footprint at 70 ns. If firmware fits in 8 Mbit and cost matters more than density, the 8 Mb device saves board cost; otherwise the 16 Mb part provides future firmware headroom with the same pinout.
Where to download M29W160ET70N3F datasheet PDF?
The datasheet PDF is available from Micron's official part-detail page at micron.com (search M29W160ET70N3F in the parallel NOR Flash part catalog). Third-party mirrors such as datasheets.com and LCSC (C19441886.pdf) also host the PDF. Always prefer the manufacturer page to ensure you have the latest revision.
What is the price of M29W160ET70N3F?
Pricing is quote-based and varies by distributor; as of 2026-09-04, Octopart lists availability from one authorized distributor channel via Mouser. Typical unit pricing for 16 Mb automotive parallel NOR in this class is in the low single-digit USD range at small quantities, decreasing significantly at 1k+ volumes. Request a quote for current, binding pricing.
Where can I buy M29W160ET70N3F online?
The M29W160ET70N3F can be purchased through Mouser (which lists inventory and pricing) and through distribution partners aggregated on Octopart, plus global brokers such as Win Source, Censtry, and Richard Electronics. For production volumes, request quotes directly from Micron-authorized distribution to guarantee traceable, AEC-Q100-compliant original product.

Engineering reference data for M29W160ET70N3F — comparison, design guidance, and compliance information.

Selection Guide

Choose the M29W160ET70N3F when you need 16 Mbit of AEC-Q100-qualified code storage in a 48-pin TSOP with boot blocks at the top of the address map - the standard case for automotive ECUs and clusters whose reset vectors sit at the memory top. Choose M29W160FB70N3E instead when the boot vector is at address 0; it is electrically identical on the same footprint. Choose M29W160ET70N3E for non-automotive builds of the same top-boot design where AEC-Q100 qualification is not required. Select the M29W160EB80ZA3SE only if you can tolerate 80 ns access and a BGA assembly process. If 8 Mbit suffices, M29W800FT70ZA3SE saves cost in the same TSOP-48 footprint. Trade-offs are honest: parallel NOR is larger and higher-pin-count than SPI NOR, but offers XIP speed and proven boot protection that serial Flash cannot match.

Comparison with Alternatives

Parameter This Product M29W160FB70N3E M29W160ET70N3E M29W160EB80ZA3SE M29W800FT70ZA3SE
Package 48-pin TSOP 48-pin TSOP - same 48-pin TSOP - same TFBGA-48 - different (ball package) TSOP-48 - same footprint
Brand Micron Technology Micron Technology Micron Technology Micron Technology Micron Technology
Density 16 Mbit 16 Mbit 16 Mbit 16 Mbit 8 Mbit
Access Time 70 ns 70 ns 70 ns 80 ns 70 ns
Boot Block Top boot Bottom boot Top boot Bottom boot Top boot
Automotive AEC-Q100 Yes Yes [DATA_NEEDED] Yes (A3SE automotive suffix) Yes (A3SE automotive suffix)
Bus Width x8 / x16 x8 / x16 x8 / x16 x8 / x16 x8 / x16
Packaging Tape & Reel (F suffix) Tape & Reel (E suffix) Tape & Reel Tape & Reel Tape & Reel

Key Differentiators

  • Automotive AEC-Q100 qualification with top-boot protection (vs M29W160FB70N3E)
  • 70 ns access time vs 80 ns TFBGA variant (vs M29W160EB80ZA3SE)
  • Double the code density in the same footprint (vs M29W800FT70ZA3SE)

Design Notes

Boot-block orientation is the most common substitution error in the M29W160E family. The 'T' suffix (top boot) places protected blocks at the top of the address map; 'B' (bottom boot) places them at address 0. Swapping M29W160ET70N3F for M29W160FB70N3E on the same PCB works electrically, but the CPU will fetch the reset vector from an unprotected application block, corrupting boot code on first field update. Verify the host CPU boot-vector address against the boot-block position before approving any alternate.

Decouple VCC with a 0.1 uF ceramic capacitor per supply pin, placed within a few millimeters of the TSOP-48 pins, plus bulk capacitance at the board level. During program and erase operations the device draws transient current spikes; inadequate decoupling shows up as program-verify failures. The BYTE pin must be strapped firmly to VCC (x8) or GND (x16) - do not leave it floating, as floating strap on parallel NOR buses causes intermittent bus-width switching during brownout.

Keep the address bus to the Flash short and length-match data lines where possible; 70 ns access-time margin is comfortable, but ringing on long unterminated parallel buses can cause address bit errors at the sampling edge. Series-termination resistors (22-33 ohm) on data lines are a low-cost mitigation on boards with trace lengths above roughly 10 cm. Avoid routing the Flash bus adjacent to high dV/dt switching nodes of DC-DC converters to prevent coupled glitches during program/erase cycles.

Compliance Information

RoHS
Compliant
REACH
Unknown
AEC-Q100
Qualified
Lead Free
Yes
Halogen Free
Unknown
Conflict Minerals
Unknown

The F suffix per Micron part-numbering denotes a RoHS-compliant package with tape-and-reel packing. AEC-Q100 automotive qualification confirmed by distributor listings (datasheets.com, Partstack).

Data verified on: 2026-09-04 — data verified and curated by XAIPART's component engineering team

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Related Components & Terms

Micron Technology M29W160ET70N3F M29W160FB70N3E M29W160EB80ZA3SE M29W800FT70ZA3SE M29W160ET70N3E parallel NOR Flash NOR Flash memory Flash memory non-volatile memory AEC-Q100 RoHS 48-pin TSOP TFBGA-48 top boot block execute-in-place (XIP) automotive ECU access time x8/x16 bus tape and reel
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