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    • 1. 发明申请
    • ION IMPLANTATION ION SOURCE, SYSTEM AND METHOD
    • US20070278417A1
    • 2007-12-06
    • US11778272
    • 2007-07-16
    • Thomas HorskyJohn Williams
    • Thomas HorskyJohn Williams
    • H01J27/00
    • H01J27/205H01J37/08H01J37/3171H01J2237/006H01J2237/049H01J2237/063H01J2237/082H01J2237/31701H01J2237/31703H01J2237/31705
    • Various aspects of the invention provide improved approaches and methods for efficiently: Vaporizing decaborane and other heat-sensitive materials via a novel vaporizer and vapor delivery system; Delivering a controlled, low-pressure drop flow of vapors, e.g. decaborane, into the ion source; Ionizing the decaborane into a large fraction of B10Hx+; Preventing thermal dissociation of decaborane; Limiting charge-exchange and low energy electron-induced fragmentation of B10Hx+; Operating the ion source without an arc plasma, which can improve the emittance properties and the purity of the beam; Operating the ion source without use of a strong applied magnetic field, which can improve the emittance properties of the beam; Using a novel approach to produce electron impact ionizations without the use of an arc discharge, by incorporation of an externally generated, broad directional electron beam which is aligned to pass through the ionization chamber to a thermally isolated beam dump; Providing production-worthy dosage rates of boron dopant at the wafer; Providing a hardware design that enables use also with other dopants, especially using novel hydride, dimer-containing, and indium- or antimony-containing temperature-sensitive starting materials, to further enhance the economics of use and production worthiness of the novel source design and in many cases, reducing the presence of contaminants; Matching the ion optics requirements of the installed base of ion implanters in the field; Eliminating the ion source as a source of transition metals contamination, by using an external and preferably remote cathode and providing an ionization chamber and extraction aperture fabricated of non-contaminating material, e.g. graphite, silicon carbide or aluminum; Enabling retrofit of the new ion source into the ion source design space of existing Bernas source-based ion implanters and the like or otherwise enabling compatibility with other ion source designs; Using a control system in retrofit installations that enables retention of the installed operator interface and control techniques with which operators are already familiar; Enabling convenient handling and replenishment of the solid within the vaporizer without substantial down-time of the implanter; Providing internal adjustment and control techniques that enable, with a single design, matching the dimensions and intensity of the zone in which ionization occurs to the beam line of the implanter and the requirement of the process at hand; Providing novel approaches, starting materials and conditions of operation that enable the making of future generations of semiconductor devices and especially CMOS source/drains and extensions, and doping of silicon gates.
    • 2. 发明申请
    • Ion implantation ion source, system and method
    • US20070262262A1
    • 2007-11-15
    • US11647924
    • 2006-12-29
    • Thomas HorskyJohn Williams
    • Thomas HorskyJohn Williams
    • H01J3/14
    • H01J37/3171C23C14/48H01J27/205H01J37/08H01J2237/047H01J2237/049H01J2237/063H01J2237/0812H01J2237/0815H01J2237/082H01J2237/083H01J2237/0835H01J2237/31701H01J2237/31703H01J2237/31705H01L21/26513H01L21/2658H01L21/823814
    • Various aspects of the invention provide improved approaches and methods for efficiently: Vaporizing decaborane and other heat-sensitive materials via a novel vaporizer and vapor delivery system; Delivering a controlled, low-pressure drop flow of vapors, e.g. decaborane, into the ion source; Ionizing the decaborane into a large faction of B10Hx+; Preventing thermal dissociation of decaborane; Limiting charge-exchange and low energy electron-induced fragmentation of B10Hx+; Operating the ion source without an arc plasma, which can improve the emittance properties and the purity of the beam; Operating the ion source without use of a strong applied magnetic field, which can improve the emittance properties of the beam; Using a novel approach to produce electron impact ionizations without the use of an arc discharge, by incorporation of an externally generated, broad directional electron beam which is aligned to pass through the ionization chamber to a thermally isolated beam dump; Providing production-worthy dosage rates of boron dopant at the wafer; Providing a hardware design that enables use also with other dopants, especially using novel hydride, dimer-containing, and indium- or antimony-containing temperature-sensitive starting materials, to further enhance the economics of use and production worthiness of the novel source design and in many cases, reducing the presence of contaminants; Matching the ion optics requirements of the installed base of ion implanters in the field; Eliminating the ion source as a source of transition metals contamination, by using an external and preferably remote cathode and providing an ionization chamber and extraction aperture fabricated of non-contaminating material, e.g. graphite, silicon carbide or aluminum; Enabling retrofit of the new ion source into the ion source design space of existing Bernas source-based ion implanters and the like or otherwise enabling compatibility with other ion source designs; Using a control system in retrofit installations that enables retention of the installed operator interface and control techniques with which operators are already familiar; Enabling convenient handling and replenishment of the solid within the vaporizer without substantial down-time of the implanter; Providing internal adjustment and control techniques that enable, with a single design, matching the dimensions and intensity of the zone in which ionization occurs to the beam line of the implanter and the requirement of the process at hand; Providing novel approaches, starting materials and conditions of operation that enable the making of future generations of semiconductor devices and especially CMOS source/drains and extensions, and doping of silicon gates.
    • 3. 发明申请
    • System and method for the manufacture of semiconductor devices by the implantation of carbon clusters
    • 通过植入碳簇制造半导体器件的系统和方法
    • US20070148888A1
    • 2007-06-28
    • US11634565
    • 2006-12-06
    • Wade KrullThomas Horsky
    • Wade KrullThomas Horsky
    • H01L21/425
    • H01L21/26513H01L21/26506H01L21/26566H01L21/2658H01L21/823814H01L21/823842H01L29/165H01L29/6659H01L29/7833H01L29/7848
    • A process is disclosed which incorporates implantation of a carbon cluster into a substrate to improve the characteristics of transistor junctions when the substrates are doped with Boron and Phosphorous in the manufacturing of PMOS transistor structures in integrated circuits. There are two processes which result from this novel approach: (1) diffusion control for USJ formation; and (2) high dose carbon implantation for stress engineering. Diffusion control for USJ formation is demonstrated in conjunction with a boron or shallow boron cluster implant of the source/drain structures in PMOS. More particularly, first, a cluster carbon ion, such as C16Hx+, is implanted into the source/drain region at approximately the same dose as the subsequent boron implant; followed by a shallow boron, boron cluster, phosphorous or phosphorous cluster ion implant to form the source/drain extensions, preferably using a borohydride cluster, such as B18Hx+ or B10Hx+. Upon subsequent annealing and activation, the boron diffusion is reduced, due to the gettering of interstitial defects by the carbon atoms.
    • 公开了一种方法,其包括将碳簇植入衬底中,以便在集成电路中制造PMOS晶体管结构中衬底掺杂硼和磷时改善晶体管结的特性。 这种新方法有两个过程:(1)USJ形成的扩散控制; 和(2)应力工程的高剂量碳植入。 USJ形成的扩散控制结合PMOS中的源极/漏极结构的硼或浅硼簇注入来证明。 更具体地,首先,诸如C 16 H 12 O + / O +的簇碳离子在大约 与随后的硼植入物相同剂量; 随后是浅硼,硼簇,磷或磷簇离子注入以形成源/漏延伸,优选使用硼氢化簇,例如B 18 H 12, 或> SUP> + 或B H + 。 随后的退火和活化,由于碳原子吸收间隙缺陷,硼扩散减少。
    • 5. 发明申请
    • Controlling the flow of vapors sublimated from solids
    • 控制从固体升华的蒸气流
    • US20080073559A1
    • 2008-03-27
    • US11648365
    • 2006-12-29
    • Thomas HorskyRobert Milgate
    • Thomas HorskyRobert Milgate
    • H01J37/08B67D5/34H01J27/00
    • H01J37/08H01J37/3171H01J2237/006H01J2237/082
    • A vapor delivery system for delivering a steady flow of sublimated vapor to a vacuum chamber comprises a vaporizer of solid material, a mechanical throttling valve, and a pressure gauge, followed by a vapor conduit to the vacuum chamber. The vapor flow rate is determined by both the temperature of the vaporizer and the setting of the conductance of the mechanical throttle valve located between the vaporizer and the vacuum chamber. The temperature of the vaporizer is determined by closed-loop control to a set-point temperature. The mechanical throttle valve is electrically controlled, e.g. the valve position is under closed-loop control to the output of the pressure gauge. In this way the vapor flow rate can be generally proportional to the pressure gauge output. All surfaces exposed to the vapor from the vaporizer to the vacuum chamber are heated to prevent condensation. A gate valve and a rotary butterfly valve are shown acting as the upstream throttling valve. Employing a fixed charge of solid material, the temperature of the vaporizer may be held steady for a prolonged period, during which the throttle valve is gradually opened from a lower conductance of its operating range as the charge sublimes. When a greater valve displacement is reached, the temperature is raised, to enable the valve to readjust to its lower conductance setting from which it can again gradually open as more of the charge is consumed.
    • 用于将稳定的升华蒸气输送到真空室的蒸气输送系统包括固体材料的蒸发器,机械节流阀和压力计,随后是到真空室的蒸汽导管。 蒸汽流量由蒸发器的温度和位于蒸发器和真空室之间的机械节流阀的电导率的设定决定。 蒸发器的温度通过闭环控制确定为设定点温度。 机械节流阀是电控制的,例如, 阀门位置在压力计的输出端处于闭环控制下。 以这种方式,蒸汽流速可以与压力表输出大致成比例。 暴露于蒸发器到真空室的蒸汽的所有表面都被加热以防止冷凝。 闸阀和旋转蝶阀显示为上游节流阀。 采用固定材料的固定电荷,蒸发器的温度可以长时间保持稳定,在此期间,随着充电升华,节流阀从其工作范围的较低电导逐渐打开。 当达到更大的阀位移时,温度升高,使得阀能够重新调整到其较低的电导设置,随着更多的电荷消耗,它可以再次逐渐打开。
    • 6. 发明申请
    • Method and apparatus for extending equipment uptime in ion implantation
    • 用于在离子注入中延长设备正常运行时间的方法和装置
    • US20070241689A1
    • 2007-10-18
    • US11647898
    • 2006-12-29
    • Thomas HorskyRobert MilgateGeorge SaccoDale JacobsonWade Krull
    • Thomas HorskyRobert MilgateGeorge SaccoDale JacobsonWade Krull
    • H01J3/00
    • H01J37/3171C23C14/48C23C14/564H01J9/38H01J27/02H01J27/024H01J37/08H01J2209/017H01J2237/006H01J2237/022Y10T137/0357Y10T137/7759Y10T137/776Y10T137/7761Y10T137/85954Y10T137/85978Y10T137/85986Y10T137/86002
    • The service lifetime of an ion source is enhanced or prolonged by the source having provisions for in-situ etch cleaning of the ion source and of an extraction electrode, using reactive halogen gases, and by having features that extend the service duration between cleanings. The latter include accurate vapor flow control, accurate focusing of the ion beam optics, and thermal control of the extraction electrode that prevents formation of deposits or prevents electrode destruction. An apparatus comprised of an ion source for generating dopant ions for semiconductor wafer processing is coupled to a remote plasma source which delivers F or Cl ions to the first ion source for the purpose of cleaning deposits in the first ion source and the extraction electrode. These methods and apparatus enable long equipment uptime when running condensable feed gases such as sublimated vapor sources, and are particularly applicable for use with so-called cold ion sources. Methods and apparatus are described which enable long equipment uptime when decaborane and octadecaborane are used as feed materials, as well as when vaporized elemental arsenic and phosphorus are used, and which serve to enhance beam stability during ion implantation.
    • 离子源的使用寿命通过源具有用于使用反应性卤素气体对离子源和引出电极进行原位蚀刻清洁以及具有延长清洁之间的使用持续时间的特征的源来增强或延长。 后者包括准确的蒸汽流量控制,离子束光学的精确聚焦,以及防止沉积物形成或防止电极破坏的引出电极的热控制。 包括用于产生用于半导体晶片处理的掺杂剂离子的离子源的装置耦合到远程等离子体源,其将F或Cl离子递送到第一离子源,以清除第一离子源和提取电极中的沉积物。 这些方法和装置在运行诸如升华蒸汽源的可冷凝进料气体时能够延长设备正常运行时间,并且特别适用于所谓的冷离子源。 描述了使用十硼烷和十八硼烷作为原料的长设备正常运行时间,以及当使用蒸发的元素砷和磷时,并且用于提高离子注入期间的束稳定性的方法和装置。
    • 8. 发明申请
    • Method and apparatus for extracting ions from an ion source for use in ion implantation
    • 用于离子注入离子源提取离子的方法和装置
    • US20060272775A1
    • 2006-12-07
    • US11452003
    • 2006-06-12
    • Thomas HorskyRobert MilgateGeorge SaccoDale JacobsonWade Krull
    • Thomas HorskyRobert MilgateGeorge SaccoDale JacobsonWade Krull
    • H01L21/306
    • H01J37/08C23C14/48C23C14/564H01J9/38H01J27/024H01J37/3171H01J2209/017H01J2237/006H01J2237/022H01J2237/0812H01J2237/083H01J2237/31701H01L21/265
    • Thermal control is provided for an extraction electrode of an ion-beam producing system that prevents formation of deposits and unstable operation and enables use with ions produced from condensable vapors and with ion sources capable of cold and hot operation. Electrical heating of the extraction electrode is employed for extracting decaborane or octadecaborane ions. Active cooling during use with a hot ion source prevents electrode destruction, permitting the extraction electrode to be of heat-conductive and fluorine-resistant aluminum composition. The service lifetime of the system is enhanced by provisions for in-situ etch cleaning of the ion source and extraction electrode, using reactive halogen gases, and by having features that extend the service duration between cleanings, including accurate vapor flow control and accurate focusing of the ion beam optics. A remote plasma source delivers F or Cl ions to the de-energized ion source for the purpose of cleaning deposits in the ion source and the extraction electrode. These techniques enable long equipment uptime when running condensable feed gases such as sublimated vapors, and are particularly applicable for use with so-called cold ion sources and universal ion sources. Methods and apparatus are described which enable long equipment uptime when decaborane and octadecaborane are used as feed materials, as well as when vaporized elemental arsenic and phosphorus are used, and which serve to enhance beam stability during ion implantation.
    • 为离子束产生系统的提取电极提供热控制,其防止沉积物的形成和不稳定的操作,并且能够与可冷凝蒸气和能够冷热操作的离子源产生的离子一起使用。 提取电极的电加热用于提取十硼烷或十八硼烷离子。 使用热离子源时的主动冷却可防止电极破坏,从而使引出电极具有导热和防氟的铝组成。 通过使用反应性卤素气体对离子源和引出电极进行原位蚀刻清洗,并且具有延长清洗之间的使用持续时间的特征,包括准确的蒸汽流量控制和精确的聚焦,增强了系统的使用寿命 离子束光学。 远程等离子体源将F或Cl离子输送到去激活离子源,以清除离子源和提取电极中的沉积物。 这些技术使得在运行可冷凝的进料气体如升华蒸汽时长的设备正常运行时间,并且特别适用于所谓的冷离子源和通用离子源。 描述了使用十硼烷和十八硼烷作为原料的长设备正常运行时间,以及当使用蒸发的元素砷和磷时,并且用于提高离子注入期间的束稳定性的方法和装置。