NXP Semiconductors

LPC4330FET180Y - Dual-Core 204MHz MCU | NXP

MPN: LPC4330FET180Y ✓ Nakahanda
3.3 V Vdss 180-pin TFBGA, 12 mm x 12 mm Package 204 MHz Speed ROMless Memory
MOQ: 1 |

LPC4330FET180Y Ulas

The NXP Semiconductors LPC4330FET180Y is a dual-core 32-bit Arm Cortex-M4/M0 microcontroller rated at up to 204 MHz, with 264 kB of SRAM, 118 I/O lines, and a 180-pin TFBGA package measuring 12 mm by 12 mm. It is a ROMless microcontroller designed for embedded signal-processing, control, and communications systems requiring substantial peripheral connectivity.

A microcontroller is a programmable semiconductor that integrates a processor core, memory interface, peripherals, and I/O into one device. The LPC4330FET180Y belongs to the Arm Cortex-M family of 32-bit embedded processors. Its Cortex-M4 core supports single-cycle multiply-accumulate, SIMD instructions, and hardware floating-point operations, while the Cortex-M0 coprocessor can handle I/O and digital-control tasks. This division supports responsive signal processing without relying on an external processor.

The device combines 264 kB of SRAM with two high-speed USB interfaces and integrated Ethernet, CAN, AES, SPIFI, and SGPIO functions. Its 118 I/O lines and 32-bit external data bus suit designs that need substantial parallel connectivity. The manufacturer lists LPC4330FET180 as active, while LPC4330FET180Y denotes the orderable temperature and packaging configuration associated with that product.

The mixed Cortex-M4 and Cortex-M0 architecture separates computationally intensive floating-point and DSP work from interrupt-driven peripheral control. The Cortex-M4 core can execute DSP-oriented instruction sequences efficiently, while the Cortex-M0 coprocessor handles real-time control tasks and external communication servicing. This combination can reduce the complexity of designs that would otherwise require multiple processors or a higher-cost application processor.

Typical applications include industrial control systems, networked embedded equipment, USB-to-Ethernet gateways, motor and motion controllers, instrumentation, CAN-connected machines, and high-speed data-acquisition equipment. The broad I/O count and integrated communication interfaces are particularly useful when the design must consolidate several peripheral functions onto a single board.

Designers should verify the exact ball assignments, power-supply requirements, boot configuration, external memory interface, and high-speed signal-integrity constraints in the NXP datasheet before layout. A 180-pin TFBGA also requires careful escape routing, via-in-pad or via-under-bump process selection, and a thermal-aware ball grid design rather than a simple two-layer assembly.

This product overview consolidates the core architecture, memory capacity, package information, communication features, application fit, and practical PCB considerations into one engineering reference. It is designed to accelerate part selection while preserving the importance of checking the manufacturer documentation for production implementation details.

Mga alternatibo na pwedeng ilagay na LPC4330FET180Y — parehas na package, pin-to-pin na katugmang. Hindi kasama ang mga bahagi ng iba't-ibang package na nangangailangan ng pagpapaayos ng PCB.

Wala ng magagamit na drop-in alternatibo para sa produkto na ito.

Hilingin ang Alternatibo

LPC4330FET180Y Mga Pinakamataas na Rating at Electrical Characteristics

Product Type 32-bit dual-core microcontroller
Main Processor Core Arm Cortex-M4 with Cortex-M0 coprocessor
Maksimum na Taktiko ng Oras 204 MHz
Secondary Clock Frequency Specification 25 MHz
Internal SRAM 264 kB
Program Memory ROMless
High-Speed USB Interfaces 2 interfaces
Ethernet Support Yes
CAN Support Yes
Hardware Encryption AES
External Storage Interface SPIFI
Serial GPIO SGPIO
Volte ng Pagbibigay 3.3 V
I/O Lines 118 lines
External Data Bus Width 32 bits
External Address Bus Width 24 bits
Packhaging 180-pin TFBGA, 12 mm x 12 mm
Uri ng Pagpapasok Surface mount

Gabay sa Pin Configuration ng LPC4330FET180Y 180-pin tfbga, 12 mm x 12 mm

Pin configuration para sa LPC4330FET180Y (180-pin tfbga, 12 mm x 12 mm package). Kasama sa digital IC na ito ang GPIO, mga communication interface (UART, SPI, I2C), at mga power pin. Sumangguni sa datasheet ng manufacturer para sa mga alternatibong function ng pin at mga opsyon sa configuration. Mahalaga para sa disenyo ng embedded system at PCB layout.

Pinout diagram ng 180-pin tfbga, 12 mm x 12 mm package para sa LPC4330FET180Y

Wala ng detalyadong pinout data na magagamit para sa LPC4330FET180Y.

Sumangguni sa datasheet para sa buong pin configuration.

Tipikal na mga Gamit

LPC4330FET180Y ay nararapat para sa 6 aplikasyons: Industrial Automation Controller, USB-to-Ethernet Communication Gateway, CAN-Connected Machine Control, High-Speed Data Acquisition System, Motor Control and Motion System, Secure Networked Embedded Equipment.

🏭

Industrial Automation Controller

The LPC4330FET180Y fits industrial automation equipment that combines real-time control with communication-heavy supervisory functions. Its 204 MHz Arm Cortex-M4 core can execute control and signal-processing tasks, while the Cortex-M0 coprocessor handles interrupt-driven I/O and digital control. The 118 I/O lines provide substantial parallel connectivity for sensors, actuators, status indicators, and discrete machine controls. Integrated CAN, Ethernet, USB, AES, and SPIFI functions also reduce the number of separate interface devices needed around the processor. Because the MCU is ROMless, the system must include an appropriate external nonvolatile storage arrangement and carefully map its memory interface.

🌐

USB-to-Ethernet Communication Gateway

The LPC4330FET180Y is suited to gateways that translate between USB and Ethernet while maintaining protocol-processing performance. Two high-speed USB interfaces and integrated Ethernet give the design a direct path for local host or peripheral connectivity and network communication. The Cortex-M4 core can handle protocol and packet-processing workloads, while the Cortex-M0 coprocessor can service lower-latency peripheral tasks. With 264 kB of SRAM, the device also has meaningful working memory for buffers and protocol state. Final implementation still requires confirmation of the Ethernet PHY interface, USB mode, external flash arrangement, boot flow, and latency under the expected network load.

🚗

CAN-Connected Machine Control

The LPC4330FET180Y can serve as the central controller in CAN-connected machinery because it combines a 204 MHz Cortex-M4 core, a dedicated Cortex-M0 control coprocessor, and an integrated CAN interface. The M4 core can handle higher-level sequencing or signal-processing calculations, while the M0 core supports responsive digital and I/O servicing. Its 118 I/O lines make it practical to connect encoders, discrete inputs, outputs, and communication isolation circuitry around one controller. AES hardware is useful for protecting selected control data or authenticated links. Deployment requires careful CAN transceiver selection, isolation strategy, bus timing configuration, thermal analysis, and validation of the controller’s worst-case response time.

📊

High-Speed Data Acquisition System

The LPC4330FET180Y fits data-acquisition systems that must process measurements while maintaining multiple communication paths. Its 204 MHz Cortex-M4 core supports single-cycle multiply-accumulate, SIMD instructions, and hardware floating-point operations, while 264 kB of SRAM supports working buffers and data movement. The Cortex-M0 coprocessor can offload control and peripheral servicing from the primary processing core. Two high-speed USB interfaces, Ethernet, and SGPIO broaden the options for transferring synchronized data to a host, network, or adjacent processing stage. Engineering validation should include signal-chain bandwidth, external memory timing, interrupt latency, data buffering strategy, and synchronization across the USB, Ethernet, and sensor interfaces.

⚡

Motor Control and Motion System

The LPC4330FET180Y is applicable to sophisticated motion-control systems that divide real-time peripheral work from higher-level computation. The Cortex-M0 coprocessor can manage I/O and digital control while the Cortex-M4 core performs timing calculations, control algorithms, and floating-point processing. The 118 I/O lines support encoders, capture or compare functions, digital communication links, and discrete control signals. Integrated CAN, Ethernet, USB, and AES extend the design beyond a local motor controller into networked machinery or serviceable industrial equipment. A production design must verify PWM and capture resources, external memory timing, low-latency interrupt routing, thermal performance, and the safe operating behavior required by the motor drive.

🖥️

Secure Networked Embedded Equipment

The LPC4330FET180Y supports secure networked equipment by combining Ethernet, USB, CAN, hardware AES, and a high-performance dual-core processor in one device. The Cortex-M4 core can execute protocol processing and application tasks, while the Cortex-M0 coprocessor can service communication peripherals and deterministic I/O. The 118 I/O lines provide ample access to sensors, local controls, and status interfaces without requiring a companion microcontroller for every task. Hardware AES can accelerate cryptographic operations, although secure product design still requires correct key management, unique device identity, trusted boot strategy, and protection against fault injection. The ROMless architecture means firmware storage and update mechanisms must be designed as part of the complete platform.

What is the LPC4330FET180Y?
The LPC4330FET180Y is a ROMless, 32-bit dual-core microcontroller from NXP Semiconductors built around an Arm Cortex-M4 processor and Arm Cortex-M0 coprocessor. According to the NXP product page, it reaches up to 204 MHz and includes 264 kB of SRAM. It is packaged in a 180-pin TFBGA measuring 12 mm by 12 mm and is intended for embedded signal-processing and control systems.
What are the key specifications of LPC4330FET180Y that engineers should know?
The key specifications of LPC4330FET180Y include a 204 MHz Arm Cortex-M4 core, a Cortex-M0 coprocessor, 264 kB of SRAM, 118 I/O lines, two high-speed USB interfaces, and a 180-pin TFBGA package. According to the NXP product page, the device also integrates Ethernet, CAN, AES, SPIFI, and SGPIO. Its combination of signal-processing performance, communications, and external I/O supports consolidated industrial and communications designs.
How much SRAM does LPC4330FET180Y have?
The LPC4330FET180Y contains 264 kB of SRAM for program data, working memory, and peripheral buffering. According to the NXP product information, the device is ROMless, so executable code and nonvolatile data require an external memory solution unless the final system supplies code through another supported boot or storage arrangement. SRAM availability must therefore be considered alongside external flash organization and memory-mapped peripheral requirements.
What peripherals and communication interfaces are integrated in LPC4330FET180Y?
The LPC4330FET180Y integrates two high-speed USB interfaces, Ethernet, CAN, AES, SPIFI, and SGPIO. According to the NXP product page, the device is designed for embedded applications requiring signal processing and real-time I/O handling. The USB and Ethernet interfaces support host, device, or networked data-transfer designs, while CAN is suited to industrial and vehicle-style distributed control networks.
What is the difference between the Cortex-M4 and Cortex-M0 cores in LPC4330FET180Y?
The Cortex-M4 core in the LPC4330FET180Y performs floating-point, SIMD, and multiply-accumulate processing, while the Cortex-M0 coprocessor manages digital control and I/O work. According to the NXP product page, the M4 core supports single-cycle multiply-accumulate, SIMD instructions, and hardware floating-point. Separating these workloads can keep real-time peripheral servicing responsive while the main core executes signal-processing algorithms.
Where can I download the LPC4330FET180Y datasheet PDF?
The official LPC4330FET180 product page on NXP's website provides the manufacturer data-sheet link and product documentation. The same LPC4330FET180 family page identifies the Cortex-M4 and Cortex-M0 architecture and its embedded signal-processing role. Use the manufacturer document for pin assignments, electrical limits, memory mapping, initialization requirements, and PCB guidance before committing the 180-pin TFBGA design to production.
Where can I find the LPC4330FET180Y pinout?
The LPC4330FET180Y pinout is found in the NXP LPC4330FET180 datasheet under the pin-description and package-information material. The device uses a 180-ball TFBGA, so its electrical and ball assignments must be read directly from the manufacturer pin table rather than inferred from a generic land pattern. Check exposed-pad requirements, supply balls, ground balls, and high-speed differential pairs on the exact package drawing.
Can LPC4330FET180Y be used for industrial control and motor-control systems?
Yes, the LPC4330FET180Y is suitable for industrial control and motor-control systems that benefit from its 204 MHz Cortex-M4 core, Cortex-M0 control coprocessor, and 118 I/O lines. According to the NXP product page, the M0 core is intended for I/O and digital-control tasks. Its CAN, Ethernet, USB, AES, and SPIFI functions also support connected machinery and industrial communication architectures.
When should I choose LPC4330FET180Y instead of a simpler microcontroller?
Choose the LPC4330FET180Y when the design needs simultaneous signal processing, real-time I/O control, extensive parallel connectivity, and integrated communications. Its Cortex-M4 core provides floating-point and DSP-oriented execution, while the Cortex-M0 coprocessor can handle peripheral tasks. A simpler single-core MCU may be preferable for low-cost control-only products, but it would not provide the same dual-core workload separation or 118 available I/O lines.
Is LPC4330FET180Y suitable for USB-to-Ethernet gateway designs?
The LPC4330FET180Y is suitable for a USB-to-Ethernet gateway because it provides two high-speed USB interfaces, integrated Ethernet, substantial SRAM, and a 204 MHz Arm Cortex-M4 core. According to the NXP product information, the dual-core architecture can divide network or protocol servicing from the M4 processing core. Validate the required PHY interface, USB operating mode, boot configuration, and packet-processing latency in the final design.
Is LPC4330FET180Y the same as LPC4330FET180?
The LPC4330FET180 is the base NXP product designation, while LPC4330FET180Y is the specific orderable LPC4330FET180 configuration. According to the NXP product page, LPC4330FET180 is active and describes the same Cortex-M4/M0 device family. The Y suffix must be checked against the ordering table for temperature grade, tape-and-reel presentation, or other configuration details before treating the two full MPNs as interchangeable.
What is the best drop-in replacement for LPC4330FET180Y?
No independently confirmed drop-in replacement for LPC4330FET180Y is established in the cross-reference results. A valid replacement must match the 180-pin TFBGA footprint, ball functions, power architecture, memory interface, boot behavior, and peripheral mix rather than merely the CPU family. Use the Request a Quote form on this page for the exact MPN, or obtain an NXP-approved alternate after a complete pin and timing comparison.
What is the best NXP equivalent for LPC4330FET180Y?
The closest confirmed NXP designation is LPC4330FET180 itself, which the manufacturer lists as active and describes with the same Cortex-M4/M0 architecture, 264 kB SRAM, and communication features. A distinct same-footprint replacement with every 180 TFBGA ball matched has not been established. Treat LPC4330FET180 as the product-family reference and verify the full LPC4330FET180Y ordering suffix before substitution.
Can a cross-brand microcontroller directly replace LPC4330FET180Y?
A cross-brand microcontroller should not be treated as a direct drop-in replacement for the LPC4330FET180Y without complete pin, clock, memory, and peripheral validation. The 180-pin TFBGA footprint includes fine-pitch balls and a complex mixed-signal interface that basic Cortex-M compatibility does not guarantee. NXP offers a product cross-reference workflow, but board-level validation and manufacturer approval remain necessary before using another supplier's device.
Where can I buy LPC4330FET180Y online?
Use the Request a Quote form on this page to request LPC4330FET180Y availability, current lead time, and order quantities. The form keeps the request tied to the exact manufacturer part number and avoids ambiguity with the base LPC4330FET180 designation or other suffix configurations. Confirm the package, temperature grade, and delivery format in the quotation response before placing a production order.
What is the price of LPC4330FET180Y?
Current LPC4330FET180Y pricing is available through the Request a Quote form on this page rather than as a static quotation in this technical overview. The form should be used for unit pricing, quantity breaks, stock status, and lead-time confirmation for the exact 180-pin TFBGA configuration. Include your required quantity and delivery location so the quotation reflects the appropriate commercial terms.
What is the lead time and stock status for LPC4330FET180Y?
Current lead time and stock status for LPC4330FET180Y should be confirmed through the Request a Quote form on this page. Because the full suffix identifies a specific orderable configuration, the request should preserve LPC4330FET180Y exactly and state the required production quantity. The manufacturer lists the related LPC4330FET180 product as active, but quantity availability can change with schedule and packaging requirements.
How should the LPC4330FET180Y 180-pin TFBGA be laid out?
The LPC4330FET180Y layout should follow the exact NXP package drawing and reference design rather than a generic 180-ball pattern. Keep the MCU, decoupling, clock, and memory interfaces positioned according to the manufacturer recommendations, provide adequate ground and power-plane connectivity, and route high-speed interfaces with controlled impedance. The fine-pitch TFBGA also requires an assembly process qualified for its pitch and any specified via-in-pad construction.
Does LPC4330FET180Y support RoHS or AEC-Q100 qualification?
The RoHS, REACH, lead-free, halogen-free, and AEC-Q100 status of the exact LPC4330FET180Y ordering configuration are not stated in the product information used for this overview. Check the current NXP product page, material declaration, and qualification documentation for the required procurement region and application. Do not infer automotive qualification or material compliance solely from the family name or package designation.

Impormasyon ng Talumpati sa Engineering for LPC4330FET180Y — ikabit, gabay sa disenyo, at impormasyon ng pagsunod sa kautusan.

Paunawang Hanapin

Choose the LPC4330FET180Y when an embedded system needs substantial signal-processing performance, real-time I/O handling, extensive parallel connectivity, and several communication standards in one controller. The 204 MHz Cortex-M4 core handles floating-point and DSP-oriented work, while the Cortex-M0 coprocessor can service digital control and peripherals. Its two high-speed USB interfaces, Ethernet, CAN, AES, SPIFI, and SGPIO make it attractive for industrial controllers, gateways, data-acquisition systems, and networked machinery. A simpler Cortex-M4 MCU may be more appropriate when the design needs only one core and fewer interfaces, while an application processor may be preferable for graphical workloads. The ROMless architecture is the principal design commitment: external nonvolatile memory, boot flow, memory timing, and board-level signal integrity must be included in early architecture decisions. No confirmed drop-in replacement is established, so migration should be based on the complete ball map, electrical limits, firmware startup sequence, and peripheral configuration rather than CPU compatibility alone.

Ikabit sa Mga Alternatibo

Parametro Ito ang Producto
Package 180-pin TFBGA, 12 mm x 12 mm
Brand NXP Semiconductors
Processor Architecture Arm Cortex-M4 with Cortex-M0 coprocessor
Maximum Clock Frequency 204 MHz
Internal SRAM 264 kB
Program Memory ROMless
High-Speed USB Interfaces 2 interfaces
I/O Lines 118 lines
Supply Voltage 3.3 V
Integrated Communications Ethernet, CAN, 2 HS USB, SGPIO

Pangunahing mga Pagkakaiba

  • Dual-core workload separation (kumpara saSingle-core Cortex-M4 microcontrollers)
  • High peripheral integration (kumpara saSingle-core Cortex-M microcontrollers)
  • Substantial integrated working memory (kumpara saLower-RAM Cortex-M4 microcontrollers)

Talaan ng Disenyo

Use the exact LPC4330FET180 land pattern and ball-reference drawing rather than constructing a generic 180-pin TFBGA footprint. Preserve the recommended ball-pitch geometry, solder-mask and paste features, exposed-pad treatment, and assembly tolerances specified by NXP. Route USB, Ethernet, and other high-speed pairs as controlled-impedance nets, and place decoupling and support components according to the manufacturer reference layout.

The LPC4330FET180Y is ROMless, so the external memory interface and boot architecture must be treated as core parts of the PCB design. Check signal timing, voltage compatibility, address decoding, and the exact data and address bus widths against the selected memory. Maintain the documented interface topology and keep external memory routing away from sensitive clock and high-speed communication paths wherever the layout guidance permits.

Estimated: evaluate thermal rise with the actual M4 and M0 utilization, clock rate, external-bus activity, and local ambient temperature. Power dissipation depends on workload and operating frequency, so a numerical junction-temperature result requires measured or modeled values. Provide ground-ball connections, solid copper planes, and thermal vias beneath or near the device where the package drawing permits them, then confirm the assembly process can retain the required thermal interface.

Allocate continuous return paths beneath high-speed signal pairs and keep USB and Ethernet routing clear of noisy switching nodes. Check edge-rate-driven bandwidth and impedance using the actual interface requirements rather than clock frequency alone. External memory timing can be sensitive to trace length and return-path discontinuities, so follow the NXP layout reference and validate the finished board with signal-integrity measurements before production release.

Do not substitute the base LPC4330FET180 designation for the full LPC4330FET180Y ordering code without checking the ordering-information table. Confirm temperature grade, packaging, and tape-and-reel configuration before releasing a purchase order. Similarly, do not infer automotive qualification, RoHS status, or REACH status from the family name; request the current manufacturer declarations for the exact ordering configuration.

Impormasyon ng Pagsunod sa Kautusan

RoHS
Unknown
REACH
Unknown
AEC-Q100
Unknown
Walang Lead
Unknown
Walang Halogen
Unknown
Mga Conflict Mineral
Unknown

The exact compliance and qualification status of the LPC4330FET180Y ordering configuration is not stated in the product information. Confirm current declarations with NXP before procurement.

Data napatotohanan sa: 2026-11-04 — impormasyon na pinatunayan at pinapatakbo ng pangkat ng engineering ng XAIPART's component engineering team

Kaugnay na Hanapin

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Mga kaugnay na Mga Komponente at mga Tuntunin

NXP Semiconductors LPC4330FET180Y LPC4330FET180 Arm Cortex-M4 Arm Cortex-M0 Arm Cortex-M microcontroller digital signal controller embedded processor ROMless microcontroller dual-core processor hardware floating-point unit SIMD multiply-accumulate 264 kB SRAM high-speed USB Ethernet CAN AES SPIFI SGPIO 180-pin TFBGA TFBGA package family surface mount industrial control USB-to-Ethernet gateway
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