Process Development

Semiconductor Process and Integration Engineer – South Korea

Semiconductor Process and Integration Engineer – South Korea

We are seeking a BS/MS/PhD-level engineer who has experience and expertise in semiconductor process integration and fabrication. You will work with leading semiconductor companies to implement our virtual fabrication solution for their most advanced development programs, including 10nm CMOS technology and beyond! You will collaborate with the Semiconductor Process & Integration team in the Office of the CTO, along with our highly skilled software development team, to create integration and modeling solutions for industry-critical manufacturing challenges. Our tight-knit team of creative engineers is critical in leading customers into the methodology of virtual fabrication.

This is a hands-on engineering position, requiring proficiency in full flow semiconductor process integration, as well as strong communication and presentation skills. Your title, level of responsibility, creative freedom and salary will be commensurate with your education and experience.

Location: South Korea. This position requires residency in South Korea with a substantial amount of time at customer sites in South Korea. Work is expected to be partly based at customer/partner sites. Travel is expected.

Required Qualifications:

Education: Bachelor’s degree required, Master’s degree preferred, in related fields of Electrical Engineering, Chemical Engineering, Materials Science or Applied Physics.

Experience: Semiconductor Technology and Processing education and experience is required. Relevant employment experience in the semiconductor industry is required.

Skills: Semiconductor Processing and Integration, Semiconductor Device Physics (preferred), Computer-Aided Design (CAD) and Modeling, Python scripting language, Technical Writing , Communication and Presentation.

If you are interested in this opportunity and you are authorized to work in South Korea, e-mail your cover letter and CV in English to job1826@coventor.com.

About Coventor:

Coventor, Inc. (www.coventor.com) is the global market leader in virtual fabrication solutions for semiconductor technologies and design automation solutions for microelectromechanical systems (MEMS). Coventor serves a worldwide customer base of integrated device manufacturers, independent foundries, equipment makers, and R&D organizations that develop semiconductor and MEMS technologies for consumer, automotive, aerospace, industrial, and defense uses. Coventor’s predictive modeling tools and expertise enable its customers to dramatically reduce silicon learning cycles, giving them a time-to-market advantage and reducing technology development costs. The company is headquartered in Cary, NC and has offices in Waltham, MA; Silicon Valley, CA; Tokyo, Japan; Hsinchu, Taiwan; and Paris, France.

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AIM Photonics Welcomes Coventor as Newest Member

 

 

 

 

For Immediate Release: March 16, 2017

Contact:
Laura Magee (ESD) | laura.magee@esd.ny.gov | (716) 846-8239 | (800) 260-7313
ESD Press Office | PressOffice@esd.ny.gov | (800) 260-7313
Steve Ference (AIM) | sference@sunypoly.edu | 518-956-7319

CUS-Backed Initiative Taps Process Modeling Specialist to Enable Manufacturing of High-Yield, High-Performance Integrated Photonic Designs

Today’s Announcement Builds On Progress Of Finger Lakes Forward, The Region’s Award-Winning Strategic Plan To Generate Robust Economic Growth And Community Development

ROCHESTER, NY and CARY, NCThe American Institute for Manufacturing Integrated Photonics (AIM Photonics), a public-private partnership advancing the nation’s photonics manufacturing capabilities, and Coventor®, Inc., a semiconductor process modeling software company, today announced Coventor as the newest member of AIM Photonics. Coventor will provide access to its unique, physics-driven 3D modeling technology to improve the performance and manufacturability of complex, integrated photonic designs. read more…

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Semiconductor Process Development: Finding a Faster Way to Profitability

By: Katherine Gambino, Strategic Accounts Manager

Intel Fab

Building a chip fabrication facility requires billions of dollars in investment for land, buildings, processing equipment, chemical and hazardous material safety, not to mention the deployment of hundreds of highly experienced process engineering and manufacturing personnel. Bringing up an advanced semiconductor process in any fab, new or established, is a several-hundred-million dollar effort, typically requiring two or more years of experimentation with process equipment and process recipes, led by engineers with years of process integration and chip manufacturing expertise.

read more…

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Coventor Unveils New Scientific Findings on Lithography Processing For Improved Semiconductor Scalability and Performance

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At SPIE Advanced Lithography 2017, Coventor Will Present Results of Studies to Increase Density and Yield of Next-Generation Semiconductor Devices

CARY, NC– February 13, 2017 – Coventor®, Inc., the leading supplier of virtual fabrication solutions for semiconductor devices and micro-electromechanical systems (MEMS), will present findings from its research on advanced semiconductor fabrication processes at SPIE Advanced Lithography 2017. The results of these studies provide insight into techniques for advancing the state-of-the-art in semiconductor technology through use of new and emerging photomask, lithography and process technologies. read more…

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The Value of Integrating Process Models with TCAD Simulation (and some tips on how to do it)

By: Shi Hao (Jacky) Huang, PhD, Semiconductor Process & Integration Engineer

Coventor January 2017 Blog Graphic

Coventor January 2017 Blog Graphic 2

 

 

 

 

Nowadays, novel semiconductor technologies have brought complex process flows to the fab.   These process flows are needed to support the manufacturing of advanced 3D semiconductor structures. It can be helpful to model process flows, and their effect on a novel device, prior to physical fabrication.

read more…

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Coventor in the News – Silicon Photonics

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Coventor in the News

Photonics in Silicon R&D Toward Tb/s

By Ed Korczynski, Sr. Technical Editor, Semiconductor Manufacturing & Design

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The client:server computing paradigm colloquially referred to as the “Cloud” results in a need for extremely efficient Cloud server hardware, and from first principles the world can save a lot of energy resources if servers run on photonics instead of electronics. Though the potential for cost-savings is well known, the challenge of developing cost-effective integrated photonics solutions remains. Today, discrete compound-semiconductor chips function as transmitters, multiplexers (MUX), and receivers of photons, while many global organizations pursue the vision of lower-cost integrated silicon (Si) photonics circuits. read more…

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Achieving the Vision of Silicon Photonics Processing

By: Sandy Wen, MSEE, Semiconductor Process and Integration Engineer, Coventor

Silicon Photonics Test Die

Silicon Photonics Test Die

With the increasing need for faster data transfer rates, the transition from electrical to optical signaling in data processing is inevitable.   Copper cabling cannot keep up with the upcoming data center bandwidth requirements, for applications such as multimedia streaming and high performance computing.  One technology that could enable true optical communication is silicon photonics. read more…

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Design Process Technology Co-Optimization for Manufacturability

By:   Dalong Zhao – Semiconductor Process & Integration Engineering

Yield and cost have always been critical factors for both manufacturers and designers of semiconductor products.   Meeting yield and product cost targets is a continuous challenge, due to new device structures and increasingly complex process innovations introduced to achieve improved product performance at each new technology node.  Design for manufacturability (DFM) and design process technology co-optimization (DTCO) are widely used techniques that can ensure the successful delivery of both new processes and products in semiconductor manufacturing.   In this article, we will discuss how 3D (3 dimensional) DTCO can be used to improve product yield and accelerate product delivery dates in semiconductor manufacturing. read more…

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