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    • 1. 发明专利
    • Manufacturing system and method of semiconductor device
    • 制造系统和半导体器件的方法
    • JP2006157029A
    • 2006-06-15
    • JP2005351128
    • 2005-12-05
    • Toshiba Corp株式会社東芝
    • USHIKU YUKIHIROOGAWA AKIRAKAKINUMA HIDENORISHUDO SHUNJIABE MASAYASUAKIYAMA TATSUOKOMATSU SHIGERU
    • H01L21/02C23C16/52H01L21/00H01L21/3065H01L21/31H01L21/66
    • PROBLEM TO BE SOLVED: To provide a manufacturing system of a semiconductor device which properly manages a maintenance interval of the individual processing apparatus, extends an operating time of each processing apparatus, reducing a wafer inspection process performed at the stage of completing each semiconductor manufacturing process, and shortens a manufacturing process period of a semiconductor device. SOLUTION: This system is provided with a processor 14 for executing process treatment using a semiconductor substrate 17, a self-diagonostic system 11a for receiving device information from the processor 14 and calculating an estimated quality value of the process treatment, an inspection device 19 for inspecting the result of the process treatment, and a computer 11. The computer 11 compares an inspection result and an estimated quality value, and maintains a parameter of the self-diagonostic system when the estimated quality value is valid and changes a parameter of the self-diagonostic system when the estimated quality value is invalid. COPYRIGHT: (C)2006,JPO&NCIPI
    • 要解决的问题:为了提供适当地管理各个处理装置的维护间隔的半导体装置的制造系统,延长每个处理装置的操作时间,减少在完成每个处理装置的阶段执行的晶片检查处理 半导体制造工艺,缩短半导体器件的制造工艺周期。 解决方案:该系统设置有用于执行使用半导体衬底17的处理处理的处理器14,用于从处理器14接收设备信息并计算处理处理的估计质量值的自我对角线系统11a,检查 用于检查处理结果的装置19和计算机11.计算机11将检查结果与估计的质量值进行比较,并且当估计的质量值有效时维持自我对角系统的参数,并且改变参数 的估计质量值无效的自我对角线系统。 版权所有(C)2006,JPO&NCIPI
    • 3. 发明专利
    • Production management apparatus and production management method for semiconductor device
    • 半导体器件的生产管理设备和生产管理方法
    • JP2009099745A
    • 2009-05-07
    • JP2007269461
    • 2007-10-16
    • Toshiba Corp株式会社東芝
    • FUJII OSAMUYOSHIMURA HISAOAKIYAMA TATSUOKOMATSU SHIGERU
    • H01L21/02G05B19/418
    • Y02P90/02
    • PROBLEM TO BE SOLVED: To provide a production management apparatus and a production management method for a semiconductor device that can predict the yield of the semiconductor device fast during manufacturing steps and can improve the yield. SOLUTION: A manufacturing device 10 forms the semiconductor device on a semiconductor substrate. A measuring device 20 measures a featured structure of the semiconductor device formed on the semiconductor substrate by the manufacturing apparatus. An arithmetic unit 34 computes a yield value of the semiconductor device formed on the semiconductor substrate on the basis of measurement data obtained by the measuring device. A judging device 32 judges whether the manufacture of the semiconductor device is carried on or quit, or whether corrections are made from the computed yield value, and changes processing parameters of the manufacturing device when it is judged that corrections are to be made. COPYRIGHT: (C)2009,JPO&INPIT
    • 解决的问题:提供一种半导体器件的生产管理装置和生产管理方法,其可以在制造步骤期间快速预测半导体器件的产量并且可以提高产量。 解决方案:制造装置10在半导体衬底上形成半导体器件。 测量装置20通过制造装置测量在半导体衬底上形成的半导体器件的特征结构。 算术单元34基于由测量装置获得的测量数据计算形成在半导体衬底上的半导体器件的屈服值。 判断装置32判断是否进行或退出半导体装置的制造,或者根据计算出的屈服值进行修正,并且在判断为要进行修正时,改变制造装置的处理参数。 版权所有(C)2009,JPO&INPIT
    • 4. 发明专利
    • Method for designing and design-supporting production process
    • 设计和设计支持生产过程的方法
    • JP2005085856A
    • 2005-03-31
    • JP2003313806
    • 2003-09-05
    • Toshiba Corp株式会社東芝
    • AKIYAMA TATSUOABE MASAYASUHIRAKAWA KENJIKOMATSU SHIGERU
    • H01L21/02G06F17/50
    • G06F17/5068
    • PROBLEM TO BE SOLVED: To provide a method by which a mass-production process in a production line can be efficiently designed.
      SOLUTION: The simulation parameters of a technical development computer aided design system are calibrated by using a first feature amount of a first mass-production process for a first electronic device mass-produced in a first production line, and a first electrical characteristic of the first electronic device. A second electronic device is trial-production in a second production line. A second feature amount of a trial production process of the second electronic device and a second electrical characteristic of the second electronic device are acquired, and the second feature amount is used to acquire the simulation electrical characteristic of the simulated electronic device by the calibrated technical development computer aided design system. The second electrical characteristic is compared with the simulation electrical charactersitic, and if a difference between the second electrical characteristic and the simulation electrical characteristic is within a tolerance, the trial production process is included in the second mass-production process of the second production line.
      COPYRIGHT: (C)2005,JPO&NCIPI
    • 要解决的问题:提供可以有效地设计生产线中的批量生产过程的方法。 解决方案:技术开发计算机辅助设计系统的模拟参数通过使用第一批量生产工艺的第一特征量进行校准,所述第一特征量用于在第一生产线中批量生产的第一电子装置和第一电特性 的第一个电子设备。 第二台电子设备是在第二条生产线上进行试生产。 获取第二电子设备的试生产过程的第二特征量和第二电子设备的第二电特性,并且第二特征量用于通过校准的技术开发来获取模拟电子设备的模拟电特性 计算机辅助设计系统。 将第二电气特性与模拟电气特性进行比较,如果第二电气特性和模拟电气特性之间的差异在公差范围内,则第二生产线的第二批量生产过程中包括试生产过程。 版权所有(C)2005,JPO&NCIPI
    • 5. 发明专利
    • MANUFACTURE OF SEMICONDUCTOR DEVICE
    • JPS63184364A
    • 1988-07-29
    • JP1522387
    • 1987-01-27
    • TOSHIBA CORP
    • KOMATSU SHIGERU
    • H01L29/73H01L21/285H01L21/3213H01L21/331H01L29/732
    • PURPOSE:To simplify a complex process when an aperture for forming an emitter is drilled by a method wherein the selective etching properties of N-type and P-type polycrystalline silicon to reduce the number of masks. CONSTITUTION:After a resist pattern is left on an SiO2 layer 23, a laminated layer composed of an SiO2 layer 13, an Si3N4 layer 14, 1st polycrystalline silicon layer 15 and the SiO2 layer is patterned by RIE. After the SiO2 layer 23 is removed by an NH4F solution, 2nd polycrystalline silicon layer 16 is formed. Then, As, an N-type impurity, is diffused into the 2nd polycrystalline silicon layer 16 contacted with the 1st polycrystalline silicon layer 15 to convert a part of the 2nd polycrystalline silicon layer 16 into an N-type region 26. In this heat treatment process, boron which is added to the 2nd polycrystalline silicon layer 16 is diffused into silicon to form a diffused layer 18 for leading out the base electrode of a transistor. Then, after an SiO2 layer 33 is removed, the N-type region 26 in the 2nd polycrystalline silicon layer 16 and the 1st polycrystalline silicon layer 15 are dissolved and removed by KOH solution. Then an SiO2 layer 43 is formed on the 2nd polycrystalline silicon layer 16. The SiO2 layer 43 is formed so as to have a thickness of not less than 2000 Angstrom which is four times of the thickness of the SiO2 layer 13 in order to be sufficiently left when the SiO2 layer 13 on the region where an emitter region is to be formed is removed in a process afterwards.
    • 7. 发明专利
    • Semiconductor device and manufacture therefor
    • 半导体器件及其制造
    • JPS6140057A
    • 1986-02-26
    • JP16051884
    • 1984-07-31
    • Toshiba Corp
    • KOMATSU SHIGERUITO TAKAOKATSUMATA YASUHIRO
    • H01L29/73H01L21/331H01L29/732
    • H01L29/66272
    • PURPOSE:To improve performance of a semiconductor device at a high rate or a high frequency, by reducing a base resistance using a laminated structure of a non-single-crystal Si film and a metal silicide film as a base taking out electrode. CONSTITUTION:After an N type buried region 2 is formed in a P type Si substrate 1, an N type epitaxial layer 3 and a field oxidation film 4 are formed. Next, a polycrystal Si film which has been patterned and doped with B is deposited, and moreover an MoSi2 film is deposited thereon. Next, over the entire face, an oxidation film 8 is deposited. Next, using a photo resist pattern 9 formed as a mask, the films 8-6 are etched away to form a base taking out electrode 10. Thereafter, B which is being doped in the films 7, 6 is diffused with heat-treatment to form a P type external base region 12. Moreover, by implanting B, a P type active base region 13 is formed. After an oxidation film 14 is deposited over the entire face, the oxidation film 14' on the side walls of the electrode 10 is left with anisotropic etching. Next, an N type emitter region 16 is formed in the region 13.
    • 目的:通过使用非单晶Si膜和金属硅化物膜的层叠结构作为基极取出电极来降低基极电阻,来提高高速率或高频率的半导体器件的性能。 构成:在P型Si衬底1中形成N +型掩埋区2之后,形成N型外延层3和场氧化膜4。 接下来,沉积已经图案化并掺杂有B的多晶Si膜,并且还沉积有MoSi 2膜。 接下来,在整个表面上沉积氧化膜8。 接下来,使用形成为掩模的光刻胶图案9,将膜8-6蚀刻掉以形成取出电极10的基底。此后,被掺杂在膜7,6中的B被热处理扩散 形成P +型外部基极区域12.此外,通过注入B,形成P型有源基极区域13。 在整个表面上沉积氧化膜14之后,电极10的侧壁上的氧化膜14'留下各向异性蚀刻。 接下来,在区域13中形成N +型发射极区域16。
    • 8. 发明专利
    • Semiconductor device and manufacture thereof
    • 半导体器件及其制造
    • JPS5933860A
    • 1984-02-23
    • JP14371982
    • 1982-08-19
    • Toshiba Corp
    • KOMATSU SHIGERU
    • H01L21/8222H01L21/22H01L21/225H01L21/331H01L27/082H01L29/08H01L29/73
    • H01L21/82285H01L21/2257H01L27/0826H01L29/0804
    • PURPOSE: To form n type regions which have accurate different diffusion depths in one thermally diffusing step by differentiating the ratio of densities of phosphorus and arsenic of n type diffused regions.
      CONSTITUTION: n
      + type buried layers A
      1 , A
      2 and n type insular regions C
      1 , C
      2 are respectively formed in regions to be formed with transistors T
      1 , T
      2 of a substrate 20. A polycrystalline silicon 13, to which P and As of the prescribed densities are added at a ratio of P/As=32, is covered on the overall surface of the substrate 20. The second insulating layer 14 such as oxidized silicon is covered on the overall surface of the substrate 20, and a hole 15 is opened at the layer 14 on a hole 11' for forming an emitter region of the transistor T
      2 . The polycrystalline silicon layer 13 of lower layer is patterned to remove unnecessary part. It is then heat treated for approx. 12∼13min in dry O
      2 at 1,000°C, thereby diffusing n type impurities P, As in the layer 13, and an emitter region E
      1 is formed in the first base region B
      1 , and an emitter region E
      2 is formed in the second base region B
      2 .
      COPYRIGHT: (C)1984,JPO&Japio
    • 目的:通过区分n型扩散区的磷和砷的密度比,形成在一个热扩散步骤中具有准确不同扩散深度的n型区域。 构成:在形成有基板20的晶体管T1,T2的区域中分别形成n +型掩埋层A1,A2和n型岛状区域C1,C2。多晶硅13,其中P和As 规定的密度以P / As = 32的比例添加被覆盖在基板20的整个表面上。第二绝缘层14(例如氧化硅)被覆盖在基板20的整个表面上,并且孔15是 在层11上开有用于形成晶体管T2的发射极区的孔11'。 对下层的多晶硅层13进行图案化以除去不必要的部分。 然后将其热处理约 在干燥的O2中在1000℃下12-13分钟,从而扩散层13中的n型杂质P,As,并且在第一基区B1中形成发射区E1,并且在第二基中形成发射区E2 区域B2。
    • 9. 发明专利
    • BIPOLAR DIODE
    • JPH03156979A
    • 1991-07-04
    • JP29672789
    • 1989-11-15
    • TOSHIBA CORP
    • MISHIO KOUICHITAKAHASHI SATOSHIKOMATSU SHIGERU
    • H01L29/866
    • PURPOSE:To prevent the increase in the internal resistance of base regions by providing a doped region of a maximum concentration at a distance from the surface of a semiconductor substrate in a processing step other than that for forming a shallow junction base. CONSTITUTION:A silicon semiconductor substrate includes an N-type epitaxial layer 30 in which P-type isolation region 31 is formed to define islands. Each island, including an NPN transistor 32 or a Zener diode 33, has an N-type buried layer 35. The individual islands are coated with insulator 34 composed of silicon nitride and silicon oxide. The insulator 34 has holes 36, through which emitter regions 37 and inner and outer base regions 38 and 39 are formed. A conductive metal layer 40 is deposited over the holes. The N-type buried layer 35 is connected with a deep-N region to provide a collector contact. This structure prevents the internal resistance of the base region from increasing.
    • 10. 发明专利
    • SEMICONDUCTOR DEVICE AND MANUFACTURE THEREOF
    • JPS61156850A
    • 1986-07-16
    • JP27618684
    • 1984-12-28
    • TOSHIBA CORP
    • KOMATSU SHIGERU
    • H01L27/04H01L21/822
    • PURPOSE:To obtain the titled device of large capacitance per unit area by the availability of a thin capacitor insulation film by a method wherein a conductive protection film having acid-resistance is interposed between the capacitor insulation film and the upper electrode. CONSTITUTION:A field oxide film 12 is formed on the surface of an Si substrate 11. Next, the lower electrode 13 having high-temperature heat-resistance and the property of being oxidized is formed. Successively, after deposition of a CVD oxide film 14 over the whole surface, an aperture 15 is provided above the lower electrode 13, and an Si nitride film 16 serving as the capacitor insulation film is deposited. Then, a polycrystalline Si pattern 17 is formed. This Si pattern 17 is acid-resistant to hydrofluoric acid and the like and serves as the protection film for the Si nitride film 16. The surface of the Si pattern 17 is oxidized with hydrofluoric acid or the like and cleaned; then, the upper electrode 18 is formed. Since this capacitor does not have the Si nitride film 16 corroded by hydrofluoric acid or the like during oxidation, the capacitance per unit are can be increased by thinning the Si nitride film 16.