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DOI | 10.1117/12.2240292 |
Production Mask Composition Checking Flow | |
Ma, Shou-Yuan (Nick)1; Yang, Chuen-Huei2; Tsai, Joe2; Wang, Alice2; Lin, Roger2; Lee, Rachel2; Deng, Erwin2; Lin, Ling-Chieh (Jack)1; Liao, Hung-Yueh1; Tsai, Jenny3; Bowhill, Amanda3; Vu, Hien3; Russell, Gordon3 | |
通讯作者 | Ma, Shou-Yuan (Nick) |
会议名称 | Photomask Japan 23rd Symposium on Photomask and Next-Generation Lithography Mask Technology |
会议日期 | APR 06-08, 2016 |
会议地点 | Yokohama, JAPAN |
英文摘要 | The mask composition checking flow is an evolution of the traditional mask rule check (MRC). In order to differentiate the flow from MRC, we call it Mask Data Correctness Check (MDCC). The mask house does MRC only to identify process limitations including writing, etching, metrology, etc. There still exist many potential errors that could occur when the frame, main circuit and dummies all together form a whole reticle. The MDCC flow combines the design rule check (DRC) and MRC concepts to adapt to the complex patterns in today's wafer production technologies. Although photomask data has unique characteristics, the MRC tool in Calibre R MDP can easily achieve mask composition by using the Extended MEBES job deck (EJB) format. In EJB format, we can customize the combination of any input layers in an IC design layout format, such as OASIS. Calibre MDP provides section-based processing for many standard verification rule format (SVRF) commands that support DRC-like checks on mask data. Integrating DRC-like checking with EJB for layer composition, we actually perform reticle-level DRC, which is the essence of MDCC. The flow also provides an early review environment before the photomask pattern files are available. Furthermore, to incorporate the MDCC in our production flow, runtime is one of the most important indexes we consider. When the MDCC is included in the tape-out flow, the runtime impact is very limited. Calibre, with its multi-threaded processes and good scalability, is the key to achieving acceptable runtime. In this paper, we present real case runtime data for 28nm and 14nm technology nodes, and prove the practicability of placing MDCC into mass production. |
英文关键词 | Mask data preparation mask rule check standard verification rule format |
来源出版物 | PHOTOMASK JAPAN 2016: XXIII SYMPOSIUM ON PHOTOMASK AND NEXT-GENERATION LITHOGRAPHY MASK TECHNOLOGY |
ISSN | 0277-786X |
EISSN | 1996-756X |
出版年 | 2016 |
卷号 | 9984 |
EISBN | 978-1-5106-0372-1 |
出版者 | SPIE-INT SOC OPTICAL ENGINEERING |
类型 | Proceedings Paper |
语种 | 英语 |
国家 | Taiwan;USA |
收录类别 | CPCI-S |
WOS记录号 | WOS:000389022300012 |
WOS类目 | Optics |
WOS研究方向 | Optics |
资源类型 | 会议论文 |
条目标识符 | http://119.78.100.177/qdio/handle/2XILL650/305742 |
作者单位 | 1.Mentor Graphics Corp, 11 F,120 Sec 2,Gongdao 5th Rd, Hsinchu 300, Taiwan; 2.United Microelect Corp, 3 Li Hsin Rd II,Hsinchu Sci Pk, Hsinchu 30078, Taiwan; 3.Mentor Graphics Corp, 46885 Bayside Pkwy, Fremont, CA 94538 USA |
推荐引用方式 GB/T 7714 | Ma, Shou-Yuan ,Yang, Chuen-Huei,Tsai, Joe,et al. Production Mask Composition Checking Flow[C]:SPIE-INT SOC OPTICAL ENGINEERING,2016. |
条目包含的文件 | 条目无相关文件。 |
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