| Customization: | Available |
|---|---|
| Conductive Type: | Bipolar Integrated Circuit |
| Integration: | 40-DIP |
Suppliers with verified business licenses
Audited Supplier Audited by an independent third-party inspection agency
This high-performance digital signal controller is designed for embedded applications that require powerful real-time processing, reliable memory performance, flexible power management, and strong system protection features. By combining DSP capabilities with microcontroller functionality, the device is well suited for motor control, industrial automation, power conversion, digital filtering, intelligent sensing, and other applications that demand fast arithmetic performance and dependable long-term operation.
One of the key advantages of this device is its DSP-oriented architecture, which supports efficient data handling and fast signal processing. It features dual data fetch, allowing multiple data items to be accessed efficiently during instruction execution. This helps improve processing speed in computationally intensive applications such as control loops, filtering algorithms, and real-time signal analysis. For designers working with high-speed embedded systems, this architecture provides a strong balance between controller functionality and DSP performance.
The device also supports modulo addressing and bit-reversed modes, which are especially valuable in digital signal processing applications. Modulo addressing simplifies the implementation of circular buffers, a common requirement in filtering and streaming data operations. Bit-reversed addressing is useful in FFT and related signal processing algorithms, helping reduce software overhead and improve execution efficiency. These built-in features make the controller particularly attractive for designs requiring advanced mathematical and signal-processing functions.
To further strengthen processing performance, the controller includes two 40-bit wide accumulators with optional saturation logic. These wide accumulators are essential for high-precision arithmetic and repeated multiply-accumulate operations, where intermediate values may exceed standard data widths. Optional saturation logic helps prevent overflow-related errors by limiting the output to defined numeric boundaries, which is especially useful in control algorithms and DSP applications where predictable numeric behavior is important.
The device integrates a 17-bit x 17-bit single-cycle hardware fractional/integer multiplier, delivering high-speed multiplication performance for both fractional and integer math operations. This hardware multiplier significantly reduces the execution time of core DSP calculations and supports efficient implementation of algorithms such as filtering, motor control, waveform generation, and closed-loop regulation. Because multiplication is performed in hardware within a single cycle, overall system performance is improved while software complexity is reduced.
All DSP instructions are designed for single-cycle execution, including multiply-accumulate (MAC) operations, which are central to digital filtering and control applications. This allows the controller to process data streams rapidly and maintain precise timing in applications where performance and determinism are critical. In addition, the device supports single-cycle ±16 shift operations, further improving arithmetic efficiency and making it easier to implement scaling, normalization, and data alignment functions in software.
The controller features enhanced Flash program memory, offering reliable long-term code storage and reprogramming capability. The Flash memory supports a minimum of 10,000 erase/write cycles across the industrial temperature range, with a typical endurance of up to 100,000 cycles. This gives developers flexibility during product development, firmware updates, and system maintenance. For products requiring in-field updates or repeated program revisions, this endurance level provides strong practical value.
In addition to program Flash, the device includes data EEPROM memory for non-volatile storage of parameters, calibration values, user settings, and system records. The EEPROM supports a minimum of 100,000 erase/write cycles for the industrial temperature range, with a typical endurance of up to 1 million cycles. This makes it highly suitable for storing frequently updated data in real-world applications. By separating program storage from data storage, the device provides a more flexible and reliable memory structure for embedded system designers.
A major benefit of this controller is its ability to be self-reprogrammable under software control. This means the device can update its own program memory through firmware, enabling features such as bootloader implementation, remote firmware updates, in-field maintenance, and system upgrades without requiring full device replacement. This capability is especially useful in industrial and connected systems where firmware maintenance must be performed efficiently.
To ensure stable system startup and dependable operation, the controller incorporates several essential reset and timing features, including Power-on Reset (POR), Power-up Timer (PWRT), and Oscillator Start-up Timer (OST). These functions help the system initialize correctly when power is applied, reduce the risk of unstable startup conditions, and improve reliability in demanding environments. Proper startup timing is critical in industrial and control applications where incorrect initialization can lead to operational errors or hardware stress.
The device also includes a flexible Watchdog Timer (WDT) with an on-chip low-power RC oscillator. Because the watchdog has its own dedicated oscillator, it can continue monitoring system activity independently of the main clock. If the firmware becomes trapped in an unexpected state due to noise, software faults, or external disturbances, the watchdog can reset the system and help restore normal operation. This feature is important in products that must run continuously and reliably over long periods of time.
For additional clock reliability, the controller offers Fail-Safe Clock Monitor operation. This function can detect failure of the primary clock source and automatically switch the system to an on-chip low-power RC oscillator. In applications where clock integrity is essential, this feature helps prevent total system shutdown and allows the controller to continue operating in a safe mode until normal conditions are restored. This improves system robustness and enhances fault tolerance in industrial, automotive-adjacent, and mission-critical designs.
To protect intellectual property and prevent unauthorized duplication, the device includes programmable code protection. This feature helps secure firmware stored in program memory and is particularly important for manufacturers who need to protect proprietary algorithms, control methods, or application software from copying or reverse engineering.
The controller also supports In-Circuit Serial Programming (ICSP), which allows convenient programming and reprogramming of the device while it is mounted on the circuit board. ICSP simplifies development, production programming, and after-sales firmware updating. It also reduces handling requirements during manufacturing and can improve production efficiency by allowing devices to be programmed at a late stage in the assembly process.
Power efficiency is another important advantage of this product. The device provides selectable power management modes, including Sleep, Idle, and Alternate Clock modes. These options allow the system designer to optimize power consumption according to the needs of the application. In Sleep mode, the controller minimizes power draw for low-duty-cycle operation. In Idle mode, certain functions can remain active while the CPU core is paused, enabling partial activity with reduced energy use. Alternate Clock modes provide additional flexibility for balancing performance and power savings. These features make the controller suitable for both always-on industrial systems and energy-sensitive designs.
Overall, this DSP-enabled controller combines high-speed arithmetic performance, reliable non-volatile memory, self-reprogramming capability, strong clock and reset protection, and flexible power management in a single compact solution. It is particularly well suited for applications requiring real-time digital control, intelligent signal processing, and long-term system reliability.
Key Features:
Dual data fetch
Modulo and bit-reversed addressing modes
Two 40-bit wide accumulators with optional saturation logic
17-bit x 17-bit single-cycle hardware fractional/integer multiplier
All DSP instructions are single cycle
Single-cycle MAC operation
Single-cycle ±16 shift
Enhanced Flash program memory
Flash endurance: 10,000 cycles minimum, 100,000 typical
Data EEPROM memory
EEPROM endurance: 100,000 cycles minimum, 1M typical
Self-reprogrammable under software control
Power-on Reset (POR), Power-up Timer (PWRT), Oscillator Start-up Timer (OST)
Flexible Watchdog Timer with on-chip low-power RC oscillator
Fail-Safe Clock Monitor with automatic switch to internal RC oscillator
Programmable code protection
In-Circuit Serial Programming (ICSP)
Selectable power management modes: Sleep, Idle, Alternate Clock
Typical Applications:
Motor control systems
Industrial automation
Digital power conversion
Audio and signal processing
Smart sensing equipment
Embedded control systems
Intelligent power supplies
Real-time monitoring and control devices
| Product Information |
){kind=link}