Hui-Chin Wu
Intel
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Publication
Featured researches published by Hui-Chin Wu.
china semiconductor technology international conference | 2016
Jerry Gao; Hui-Chin Wu; Guobin Liu; Edmond Lau; Li Yuan; Christine Krause; Hengju Cheng
This paper presents low power, 2×25.625Gb/s optical transmitter and receiver ICs for Intel Thunderbolt optical cable technology which is designed to connect electronic devices with the intension to become the standardized optical interconnect. Same circuit with four channels (4×25.625Gb/s) can be used in 100G data center optical communication. Each transmitter channel consumes 68mW, receiver channel consumes 78mW. Total power consumption is 146mW for each 25.625Gb/s optical link, which gives 5.69mW/Gb/s. ICs are implemented on BiCMOS process, each two channel IC occupies a die area of 0.884mm × 1.226mm. The ICs have lowest power consumption and smallest die area in industry.
international symposium on electromagnetic compatibility | 2017
Guobin Liu; Jerry Gao; Hengju Cheng; Hui-Chin Wu; Edmond Lau; Li Yuan; Christine Krause
Thunderbolt Interconnect Technology has adopted both copper and optical cables. One single cable can support two bi-directional signal lanes at a data rate of 2x20.625 Gb/s, which is driven by demand of 4K video. Future 8K video and Virtual Reality (VR) will push the bandwidth requirement even higher. Form factor, link distance, usage model and heat dissipation are all placed into design consideration. Key technologies developed to enable this high data rate consumer cable are discussed, such as robust copper and optical cables, miniature optical engine, thermal design and 2x20.625Gb/s low power integrated circuits for VCSEL-based optical link. Copper and optical interconnect technologies are compared from the perspective of cost, power, form factor, and scalability. Total power consumption is 146mW for each 25.78Gb/s optical link, which gives 5.69mW/Gb/s. Among the commercially available optical ICs we evaluated at 25.78 Gb/s, this work has lowest power consumption and smallest die area in industry.
Journal of Lightwave Technology | 2017
Jerry Gao; Hengju Cheng; Hui-Chin Wu; Guobin Liu; Edmond Lau; Li Yuan; Christine Krause
Thunderbolt interconnect technology has adopted copper and optical cables. Single cable can support 2 × 20 Gb/s data rate, which is driven by 4K video. Future 8K video and virtual reality will push the bandwidth requirement even higher. Key technologies developed to enable this high data rate for consumer electronics are discussed, such as robust copper and optical cables, miniature optical engine, and 2 × 25.625 Gb/s low power integrated circuits for vertical cavity surface emitting laser based optical link. Copper and optical interconnect technologies are compared on the basis of cost, power, form factor, and scalability. Same circuit with four channels (4 × 25.625 Gb/s) can be used in 100G data center optical interconnect. Total power consumption is 146 mW for each 25.625 Gb/s optical link, which gives 5.69 mW/Gb/s. Among the commercially available optical ICs we evaluated at 25 Gb/s, this work has lowest power consumption and smallest die area in industry.
international symposium on electromagnetic compatibility | 2016
Jerry Gao; Hengju Cheng; Hui-Chin Wu; Guobin Liu; Edmond Lau; Li Yuan; Christine Krause
This paper presents low power, 2×25.625Gb/s optical transmitter and receiver ICs for Intel Thunderbolt optical cable technology which is designed to connect electronic devices with the intension to become the standardized optical interconnect. Same circuit with four channels (4×25.625Gb/s) can be used in 100G data center optical interconnect. Each transmitter channel consumes 68mW, receiver channel consumes 78mW. Total power consumption is 146mW for each 25.625Gb/s optical link, which gives 5.69mW/Gb/s. ICs are implemented on BiCMOS process, each two channel IC occupies a die area of 0.884mm × 1.226mm. The ICs have lowest power consumption and smallest die area in industry.
Proceedings of SPIE | 2013
Hengju Cheng; Christine Krause; Jamyuen Ko; Miaobin Gao; Guobin Liu; Hui-Chin Wu; Mike Qi; Chun-Chit Lam
Archive | 2012
Miaobin Gao; Christine Krause; Hui-Chin Wu; Hengju Cheng
Archive | 2012
Miaobin Gao; Christine Krause; Hui-Chin Wu; Hengju Cheng
Archive | 2009
Hui-Chin Wu; Miaobin Gao; Hengju Cheng
Archive | 2012
Miaobin Gao; Hui-Chin Wu; Christine Krause; Hengju Cheng
Archive | 2010
Miaobin Gao; Hui-Chin Wu; Christine Krause; Hengju Cheng