PALL NEWS vol.126 November 2017
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- あきひろ ねぎたや
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1 PALL NEWS November 2017 Vol.126 PALL NEWS vol.126 November 2017
2 NEW = MPa 24 MPa NFPA T R CAT C/90/* (1x MPa 1x C 60 C 450 Pa 340 Pa 1 MPa JIS B /ISO 2941) / 1 PALL NEWS vol.126 November 2017
3 L/min NEW 88.9 mm 88.9 mm 110 mm 110 mm 198 mm 24 mm mm 2X 58 mm 122 mm 2X 95 mm L/min 127 mm 127 mm 155 mm 155 mm 137 mm mm 60 mm 87.1 mm 87.1 mm 120 mm 132 mm 2 PALL NEWS vol.126 November 2017
4 EL ELOLED OLED OLED PMOLED AMOLED 2017AMOLED98 PMOLED AMOLED AMOLED AMOLED AMOLED2017 Apple iphoneel EL PMOLED Galaxy Round Galaxy Note Edge Galaxy S6 Edge Estimated Convex Curved Single Edge Curved Dual Edge Curved Inside Foldable In & Out Foldable Rollable 1920 x x x x x x 2160 Smartphone Smartphone Smartphone Tablet Tablet Tablet 1: EL GALAXY Samsung IHS Display Japan 3 PALL NEWS vol.126 November 2017
5 3 6,6 P- HDPE PE- EL PFA 4 PF PTFE PTFE LCD Polarizer (Up) Glass OLED Plastic OLED CF Glass TFT Glass Polarizer (Down) Polarizer Encap. Glass TFT Glass Polarizer Encap. TFT Plastic Backlight Width 2mm 1mm < 0.5 mm 2: LCD OLED IHS Display Japan 4 PALL NEWS vol.126 November 2017
6 5 GC-MSGC-MS 37 2 (kpa) 1 PHF12UCFR (0.2 m) PHF12UCFT (0.1 m) PHF12UUCFX (0.45 m) ml / sec PF GC-MS data 37% lower *HDPE-XP 1GC-MS HDPE-XP Photokleen PF 4 PF 5 PALL NEWS vol.126 November 2017
7 Pressure gauge Pressure regulator PFA vessel Compressed air Challenge solution Test filter PFA bottle Electric balance 6 PALL NEWS vol.126 November 2017
8 Pressure regulator N 2 Pressure gauge Test filter Metal challenge solution Metal spiked solvent, unfiltered and filtered 300 mm Si wafer Sampling bottle TREX 632 III Removal efficlency 100% 80% 60% 40% 20% 0% 5 nm rated Nylon 6,6-1 5 nm rated Nylon 6,6-2 2 nm rated HDPE-1 2 nm rated HDPE-2 Li Na Mg Al K Ca Cr Mn Fe Co Ni Cu Zn Ag Cd Sn Ba W Pb Removal efficlency 100% 80% 60% 40% 20% 0% 5 nm rated Nylon 6,6-1 5 nm rated Nylon 6,6-2 2 nm rated HDPE-1 2 nm rated HDPE-2 Li Na Mg Al K Ca V Cr Mn Fe Co Ni Cu Zn As Ag Cd Ba W Pb -1, , ml 0% 1% -1, , ml 0% 1% 7 PALL NEWS vol.126 November 2017
9 Removal efficlency (%) Mg 2 Na Al 3 WO LogP Al Mg Na WO Metal removal efficiency 100% 80% 60% 40% 20% a. Typical flow rate at POU filteration Typical flow rate at Bulk filtration 0% Flow rate per unit filtration area (g min -1 cm -2 ) Li Na Mg K Ca 100% 1: PGME-DI water; PGME 0, 25, 50, %, 2: PGME:PGMEA 70:30, 3:, 4: n- LogP :, : 5nm Solvent Na, Mg 2 Al 3, WO 4 2 H 2 O H O O N C C C C C C C C N C C C C C N C C H O O H Nylon 6,6 H O H H H O H H H H O Metal removal efficiency 80% 60% 40% b. Typical flow rate at Bulk filtration 20% Typical flow rate at POU 0% filteration Flow rate per unit filtration area (g min -1 cm -2 ) a.: Li, Na, Mg, K Ca, b: Mn, Fe, Co, Cr Ni. 2 Mn Fe Co Cr Ni 8 PALL NEWS vol.126 November 2017
10 100% Li 100% Mn Metal removal efficiency 80% 60% 40% a. 20% Typical flow rate at POU Typical flow rate at Bulk filtration 0% filteration Flow rate per unit filtration area (g min -1 cm -2 ) Na Mg K Ca Metal removal efficiency 80% 60% 40% 20% b. Typical flow rate at POU filteration Typical flow rate at Bulk filtration 0% Flow rate per unit filtration area (g min -1 cm -2 ) Fe Co Cr Ni a.: Li, Na, Mg, K Ca, b: Mn, Fe, Co, Cr Ni. 2 Unfiltered, 10ppb metal spiked solvent Filtered, N66, 0.1 ml min. -1 cm -2 Filtered, N66, 0.3mL min. -1 cm -2 Filtered, N66, 0.5mL min. -1 cm -2 9 PALL NEWS vol.126 November 2017
11 Filtered, HDPE, 0.1mL min. -1 cm -2 Filtered, HDPE, 0.3mL min. -1 cm -2 Filtered, HDPE, 0.5mL min. -1 cm -2 Unfiltered, 10ppb metal spiked solvent Filtered, N66, 0.1mL min. -1 cm -2 Filtered, N66, 0.3mL min. -1 cm -2 Filtered, N66, 0.5mL min. -1 cm -2 Filtered, HDPE, 0.1mL min. -1 cm -2 Filtered, HDPE, 0.5mL min. -1 cm -2 Filtered, HDPE, 0.3mL min. -1 cm PALL NEWS vol.126 November 2017
12 [1] Kimura, Y., Hattori, N. and Mashiko, Y., Influence of Very-small-quantity Metal Contamination(Ca,Mg,Zn) on Device Yield, Proc. ISSM 2002, pp (2002). [2] Hagiwara, T., et al, Study on Cone-defects during the Pattern Fabrication Process with Silicon Nitride, Journal of photopolymer science and technology 28(1), pp (2015). Johokiko (Ed), Optimum selection and effectiveness improvement of filtration process, Johokiko, pp (2010). [3] Capitanio, D., Mizuno, Y., and Leeca, J., Metal Ion Removal from Photoresist Solvents, Proc. SPIE 3678 (1999). [4] Buszewski, B. and Noga, S., Hydrophilic interaction liquid chromatography (HILIC)-a powerful separation technique, Anal. Bioanal. Chem., 402, (2012). [5] Alpert, J., A., Hydrophilic-interaction chromatography for the separation of peptides, nucleic acids and other polar compounds, J. Chromatogr., 499, (1990). TEL PALL NEWS vol.126 November 2017
13 MF / 316L *1 3 * TEL PALL NEWS vol.126 November 2017
14 GMP NEW XRS L ph DO cgmp Pall Link SCADA mpath cgmp ml E E E E E E XRS % 90% 80% 70% 60% 50% 40% 30% 20% 10% 0% XRS25 CHO 13 PALL NEWS vol.126 November 2017
15 NEW k La XRS25 STR STR 200 L 1000 L 2000 L TEL PALL NEWS vol.126 November 2017
16 November 2017 Vol.126 1
[技術論文] リソグラフィ用薬液のポイントオブユース及び材料製造におけるメタル除去
1. はじめに 半導体製造において 1Xnm パターン世代に進むにあたり リソグラフィ用薬液に対するメタル削減への要求が厳しくなっている これはメタルが半導体デバイスの性能低下や 欠陥を引き起こすためである [1,2] 多くのリソグラフィ向け薬液は十分にメタル濃度が低減され供給されているが [3] 薬液は供給システムからシリコンウェハの流路中にある金属性の部材により汚染される可能性もある イオン交換フィルターは半導体プロセス薬液のメタル除去に一般的に用いられている
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M R A 対 応 製 品 ISO/IEC 17025 ISO/IEC 17025は 試験所及び校正機関が特定の試験又は 校正を実施する能力があるものとして認定を 受けようとする場合の一般要求事項を規定した国際規格 国際相互承認 MRA Mutual Recognition Arrangement 相互承認協定 とは 試験 検査を実施する試験所 検査機関を認定する国際組織として ILAC 国際試験所認定協力機構
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. はじめに 自己組織化リソグラフィ (DSAL) における ブロックコポリマー (BCP) レイヤーにおいて ゲル状欠陥の低減が一つの課題である [] 従来の化学増幅型レジスト (CAR) においては 粗大分子量のポリマー分子と 難溶解性官能基の偏りによる難溶解性ポリマー成分の凝集がmicrobridge のようなゲル状欠陥の要因と考えられている DSAL においては ポリマーの分子量自体がCARに比べ大きいことから
Fig. ph Si-O-Na H O Si- Na OH Si-O-Si OH Si-O Si-OH Si-O-Si Si-O Si-O Si-OH Si-OH Si-O-Si H O 6
NMR ESR NMR 5 Fig. ph Si-O-Na H O Si- Na OH Si-O-Si OH Si-O Si-OH Si-O-Si Si-O Si-O Si-OH Si-OH Si-O-Si H O 6 Fig. (a) Na O-B -Si Na O-B Si Fig. (b) Na O-CaO-SiO Na O-CaO-B -Si. Na O-. CaO-. Si -. Al O
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X X X-Ray Fluorescence Analysis on Environmental Standard Reference Materials with a Dry Battery X-Ray Generator Hideshi ISHII, Hiroya MIYAUCHI, Tadashi HIOKI and Jun KAWAI Copyright The Discussion Group
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1/120 別表第 1(6 8 及び10 関係 ) 放射性物質の種類が明らかで かつ 一種類である場合の放射線業務従事者の呼吸する空気中の放射性物質の濃度限度等 添付 第一欄第二欄第三欄第四欄第五欄第六欄 放射性物質の種類 吸入摂取した 経口摂取した 放射線業 周辺監視 周辺監視 場合の実効線 場合
1/120 別表第 1(6 8 及び10 関係 ) 放射性物質の種類が明らかで かつ 一種類である場合の放射線業務従事者の呼吸する空気中の放射性物質の濃度限度等 添付 第一欄第二欄第三欄第四欄第五欄第六欄 放射性物質の種類 吸入摂取した 経口摂取した 放射線業 周辺監視 周辺監視 場合の実効線 場合の実効線 務従事者 区域外の 区域外の 量係数 量係数 の呼吸す 空気中の 水中の濃 る空気中 濃度限度
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I [email protected] 217 11 14 4 4.1 2 2.4 C el = 3 2 Nk B (2.14) c el = 3k B 2 3 3.15 C el = 3 2 Nk B 3.15 39 2 1925 (Wolfgang Pauli) (Pauli exclusion principle) T E = p2 2m p T N 4 Pauli Sommerfeld
1) Y. Kobuke, K. Hanji, K. Horiguchi, M. Asada, Y. Nakayama, J. Furukawa, J. Am. Chem. Soc., 98, 7414(1976). 2) S. Yoshida, S. Hayano, J. Memb. Sci.,
1) Y. Kobuke, K. Hanji, K. Horiguchi, M. Asada, Y. Nakayama, J. Furukawa, J. Am. Chem. Soc., 98, 7414(1976). 2) S. Yoshida, S. Hayano, J. Memb. Sci., 11, 157(1982). 3) J. D. Lamb, J. J. Christensen, J.
170907_BRO_Corning Single-use Technology.indd
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2018 July No.63 C O N T E N T S 7 11 1 5 1 The Interview 2 3 4 2 AW YM-26 YM-55C YM-55CR SM-1FT 1952 27 2007 19 1 7,820 243 004-0879 9 1-1-6 011-883-8400 061-1112 542 011-372-2211 061-3244 1-28-14 0133-64-2227
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I II 2009 1. 2. 12 50 3. 1. 2. 3 ( 0.1g, 0.01g, 0.001g ) 3. 4. 1. 2. ()A4 3. 000005 19 5 11 () 19 5 15 () EDTA " # $ 1000 500 =... mol/l Web 1) p.159 2) 1987pp.14-15 3) 1989pp.58-60 4) http://www.chem.zenkyo.h.kyoto-u.ac.jp/operation/
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