Software enables quick MAX 10 FPGA design
Enabling designers to start their MAX 10 FPGA designs immediately, Altera have announced the availability of Quartus II beta software and early access documentation for MAX 10 FPGAs. Based on TSMC’s 55nm embedded flash process technology, MAX 10 FPGAs revolutionize non-volatile FPGA integration by delivering advanced processing capabilities into a small form factor, low-cost, instant-on programmable logic device.
Altera recently completed tape out of the first MAX 10 FPGA and is working with TSMC to begin delivering the non-volatile FPGA family to customers in Q3 2014. Comprehensive details on MAX 10 FPGAs will be publicly unveiled once silicon and development kits are available. Early access documentation is available today for customers in Altera’s MAX 10 FPGA early access program.
“As we announced last year, our focus on FPGAs with embedded flash technology is a key component of the Generation 10 product portfolio,” said Patrick Dorsey, senior director of product marketing at Altera. “With early access to MAX 10 FPGAs, customers can now get access to the powerful combination of FPGA processing with non-volatility enabled by embedded flash technology.”
Qualified customers enrolled in the MAX 10 FPGA early access program are able to get a jumpstart on their designs by running design compilation and timing analysis using Quartus II software. Offering early access software allows customers to accelerate their path to market for high-volume applications that require advanced processing capabilities with low system costs and power.
“TSMC is the first foundry to offer embedded flash on 55 nm process technology and we are pleased to work with a long-term partner like Altera to productize this technology in MAX 10 FPGAs,” said Chen-Chung Chao, director, TSMC North America. “Our 55 nm embedded flash process was developed to support applications that require high levels of non-volatile integration in a wide range of end markets.”
MAX 10 FPGAs are designed to lower total system costs and minimize board complexity. The low-cost device family combines non-volatile, instant-on functionality with several advanced capabilities, including digital signal processing, analog functionality, Nios® II embedded processing and external memory interfaces. MAX 10 FPGA’s small form factor, single-chip integration is even more compelling to board designers when used alongside Enpirion power management solutions. These capabilities make MAX 10 FPGAs suitable for many end markets, including:
• Automotive – Quality, reliability and integration are paramount in automotive applications. The 55 nm embedded flash-based MAX 10 FPGAs are tailored for the rigorous safety and quality standards required by the automotive industry. MAX 10 FPGAs eliminate the need for external configuration devices and enable faster boot times for applications requiring instant-on such as rear-view cameras in Advanced Driver Assistance Systems (ADAS). The wide parallel processing capability of MAX 10 FPGAs combined with embedded flash is also a great fit for under-the-hood applications such as electric vehicle (EV), motor control, battery management, and power conversion where faster control loops and higher switching frequencies translate into real system cost savings through lower cost motors and reduced external components.
• Industrial – In industrial control applications, MAX 10 FPGAs accurately sense environmental conditions and use real-time control processing to respond. The small form factor, single-chip FPGAs greatly enhance system efficiency in applications ranging from motor control and I/O modules to internet of things (IoT) sensor processing and machine to machine (M2M) communications.
• Communications – MAX 10 FPGAs are ideal for use in communication systems to assist in the bring-up of multiple board components, management of power sequencing and I/O expansion.
Customers can immediately start designing with MAX 10 FPGAs by requesting a beta release of the Quartus II software and early access documentation.