Job Summary: We are seeking an experienced System on Chip (SoC) Architect to join our development team. The ideal candidate will be responsible for designing, integrating, and optimizing SoC hardware architectures and ensuring seamless software-hardware co-development. This role requires an understanding of IC hardware design, system-level integration, and collaboration with cross-functional teams to deliver cutting-edge solutions.

Essential Skills: 

Proficiency in hardware description languages: Verilog, VHDL, and SystemVerilog.  Expertise in EDA tools for IC design and verification: Mentor Graphics (preferred), Cadence, or Synopsys.  Strong understanding of SoC architecture, including processor, memory subsystem, and interconnects (e.g., AXI, AMBA).  Experience with hardware-software co-design and debugging tools.  Knowledge of low-power design techniques and methodologies.  Strong scripting skills in Python, Tcl, or Perl for automation. 

Required Tools: 

MATLAB/Simulink  Microsoft Visio  Mentor Graphics QuestaSim 

Desirable Skills: 

Familiarity with high-level modeling tools like SystemC or MATLAB/Simulink.  Knowledge of advanced packaging technologies (e.g., Chiplets, 3D ICs).  Exposure to machine learning or AI accelerators in SoC design. 

Education and Experience: 

Bachelor’s Degree in Electrical Engineering, Computer Engineering, or a related field (Master’s or Ph.D. preferred).  5+ years of experience in IC design, SoC architecture, or a similar role.  Proven track record of delivering successful SoC designs in a professional setting. 

Responsibilities: 

Develop SoC architectures for advanced applications, ensuring scalability, performance, and power efficiency.  Lead hardware design and integration processes, including RTL coding, synthesis, and verification.  Collaborate with software teams to ensure efficient software-hardware co-design and integration.  Perform system-level modeling and simulations to validate architectural choices.  Guide SoC implementation, including floor planning, physical design, and timing closure.  Follow best practices for IC design and manufacturing.  Analyze system requirements, identify bottlenecks, and propose innovative solutions.