会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 1. 发明授权
    • Method for producing high purity low dielectric constant ceramic and hybrid ceramic films
    • 制造高纯度低介电常数陶瓷和混合陶瓷膜的方法
    • US08012403B2
    • 2011-09-06
    • US10489924
    • 2001-09-14
    • Jerome C. BirnbaumGlen E. FryxellShari Li XiaohongChristopher A. CoyleGlen C. DunhamSuresh BaskaranRalph E. Williford
    • Jerome C. BirnbaumGlen E. FryxellShari Li XiaohongChristopher A. CoyleGlen C. DunhamSuresh BaskaranRalph E. Williford
    • B28B1/30
    • C04B35/62655B01D67/0048B01D67/0058B01D67/0088B01D67/0093B01D71/024B01D2323/18B01D2323/30C04B20/0056C04B35/14C04B35/16C04B35/624C04B38/0022C04B2111/00482C04B2111/1025C04B2235/72H01L21/31695C04B38/0051C04B38/009C04B38/02C04B38/10C04B14/4631
    • Porous ceramic and hybrid ceramic films are useful as low dielectric constant interlayers in semiconductor interconnects. (Hybrid ceramic films are defined as films that contain organic and ceramic molecular components in the structure, as, for example, organosilicates). This invention describes the usefulness of humidity treatments (using specific temperature/humidity treatments as illustrative examples) in increasing mechanical integrity of porous dielectric films with minimal detrimental effect on film porosity or dielectric constant and with no adverse impact on film quality. The efficacy of such treatments is illustrated using surfactant-templated mesoporous silicate films as an example. This invention also describes a specific family of additives to be used with highly pure alkali-metal-free ceramic and hybrid precursors for such dielectric films that will enable better control of the film porosity and quality and lower dielectric constants with the required mechanical integrity. The efficacy of such additives is illustrated using surfactant-templated mesoporous silicate films as a model example. The invention should be broadly applicable to any cross-linked ceramic or hybrid ceramic films (including silicate and organosilicate films, and especially highly porous forms of the films for low-dielectric constant applications). The invention has been found to be particularly effective with surfactant-templated silicate films with nanometer-scale porosity. The invention in either embodiment should also be applicable to evaporation-induced formation of other cross-linked shapes such as fibers and powders.
    • 多孔陶瓷和混合陶瓷膜可用作半导体互连中的低介电常数中间层。 (混合陶瓷膜被定义为在结构中含有有机和陶瓷分子组分的膜,例如有机硅酸盐)。 本发明描述了在增加多孔电介质膜的机械完整性的情况下,湿度处理(使用特定温度/湿度处理作为说明性实例)的有用性,对膜孔隙率或介电常数具有最小的有害影响,并且对膜质量没有不利影响。 以表面活性剂模板的介孔硅酸盐膜为例说明了这种处理的效果。 本发明还描述了与用于这种介电膜的高纯度无碱金属的陶瓷和混合前体一起使用的特定的添加剂族,其将能够以所需的机械完整性更好地控制膜孔隙率和质量以及更低的介电常数。 作为示例,使用表面活性剂模板的中孔硅酸盐膜来说明这些添加剂的功效。 本发明应广泛适用于任何交联的陶瓷或混合陶瓷膜(包括硅酸盐和有机硅酸盐膜,特别是用于低介电常数应用的膜的高度多孔形式)。 已经发现本发明对于具有纳米级孔隙率的表面活性剂模板化硅酸盐膜是特别有效的。 在任一实施方案中的本发明也应适用于其它交联形状如纤维和粉末的蒸发诱导形成。
    • 7. 发明授权
    • Vacuum/gas phase reactor for dehydroxylation and alkylation of porous silica
    • 真空/气相反应器用于多羟基硅烷的脱羟基和烷基化
    • US06548113B1
    • 2003-04-15
    • US09711666
    • 2000-11-09
    • Jerome BirnbaumGary MaupinGlen DunhamGlen FryxellSuresh Baskaran
    • Jerome BirnbaumGary MaupinGlen DunhamGlen FryxellSuresh Baskaran
    • C23C1644
    • C01B37/02H01L21/31695Y10T428/249969Y10T428/249972
    • Vacuum/gas phase reactor embodiments used in gas phase dehydroxylation and alkylation reactions are described in which the substrate could be subjected to high vacuum, heated to target temperature, and treated with silane as quickly and efficiently as possible. To better facilitate the silylation and to increase the efficiency of the process, the reactor is designed to contain quasi-catalytic surfaces which can act both as an “activator” to put species in a higher energy state or a highly activated state, and as a “scrubber” to eliminate possible poisons or reactive by-products generated in the silylation reactions. One described embodiment is a hot filament reactor having hot, preferably metallic, solid surfaces within the reactor's chamber in which wafers having mesoporous silicate films are treated. Another is an IR reactor having upper and lower quartz windows sealing the upper and lower periphery of an aluminum annulus to form a heated chamber. Finally, a flange reactor is described that includes a flange base and lid forming a tiny chamber therein for a wafer, the reactor being heated by conduction from a hot sand bath. The dehydroxylation and alkylation treatment of mesoporous silica films produces treated films exhibiting low dielectric constant and high elastic modulus.
    • 描述了用于气相脱羟基和烷基化反应的真空/气相反应器实施例,其中基底可经受高真空,加热至目标温度,并尽可能快速且有效地用硅烷处理。 为了更好地促进甲硅烷基化和提高该方法的效率,反应器被设计成包含准催化剂表面,它们既可以作为“活化剂”来将物质置于更高能量状态或高活化状态,也可以作为 “洗涤器”来消除在甲硅烷化反应中产生的可能的毒物或反应性副产物。 一个描述的实施方案是在反应器室内具有热的,优选金属的固体表面的热丝反应器,其中处理具有介孔硅酸盐膜的晶片。 另一种是IR反应器,其具有密封铝环空的上下周边的上,下石英窗,以形成加热室。 最后,描述了一种法兰反应器,其包括法兰基座和盖子,用于在晶片上形成微小的室,该反应器由热砂浴传导加热。 介孔二氧化硅膜的脱羟基化和烷基化处理产生显示低介电常数和高弹性模量的处理膜。
    • 8. 再颁专利
    • Mesoporous-silica films, fibers, and powders by evaporation
    • 介孔二氧化硅薄膜,纤维和粉末通过蒸发
    • USRE40299E1
    • 2008-05-06
    • US09481988
    • 2000-01-11
    • Paul J. BruinsmaSuresh BaskaranJagannadha R. BonthaJun Liu
    • Paul J. BruinsmaSuresh BaskaranJagannadha R. BonthaJun Liu
    • C01B33/12
    • C04B41/4582B01J20/103B01J21/08B01J37/0236B01J37/033C01B37/005C01B37/02C04B20/0056C04B35/14C04B35/62218C04B38/0022C04B41/009C04B41/81C04B38/009C04B38/02C04B38/10C04B14/4631C04B20/006
    • This invention pertains to surfactant-templated nanometer-scale porosity of a silica precursor solution and forming a mesoporous material by first forming the silica precursor solution into a preform having a high surface area to volume ratio, then rapid drying or evaporating a solvent from the silica precursor solution. The mesoporous material may be in any geometric form, but is preferably in the form of a film, fiber, powder or combinations thereof. The rapid drying or evaporation of solvent from the solution is accomplished by layer thinning, for example spin casting, liquid drawing, and liquid spraying respectively. Production of a film is by layer thinning, wherein a layer of the silica precursor solution is formed on a surface followed by removal of an amount of the silica precursor solution and leaving a geometrically thinner layer of the silica precursor solution from which the solvent quickly escapes via evaporation. Layer thinning may be by any method including but not limited to squeegeeing and/or spin casting. In powder formation by spray drying, the same conditions of fast drying exists as in spin-casting (as well as in fiber spinning) because of the high surface-area to volume ratio of the product. When a powder is produced by liquid spraying, the particles or micro-bubbles within the powder are hollow spheres with walls composed of mesoporous silica. Mesoporous fiber formation starts with a similar silica precursor solution but with an added pre-polymer making a pituitous mixture that is drawn into a thin strand from which solvent is evaporated leaving the mesoporous fiber(s).
    • 本发明涉及二氧化硅前体溶液的表面活性剂模板纳米级孔隙率,并通过首先将二氧化硅前体溶液形成具有高表面积与体积比的预成型体形成介孔材料,然后快速干燥或蒸发二氧化硅溶剂 前体溶液。 介孔材料可以是任何几何形式,但优选为薄膜,纤维,粉末或其组合的形式。 溶剂从溶液中快速干燥或蒸发即可通过层间稀化来实现,例如旋转浇铸,液体拉伸和液体喷涂。 膜的制备是通过薄层变薄,其中在表面上形成二氧化硅前体溶液层,然后除去一定量的二氧化硅前体溶液,并留下几何较薄的二氧化硅前体溶液层,溶剂快速从其中逸出 通过蒸发。 层薄化可以通过任何方法,包括但不限于刮涂和/或旋转浇铸。 在通过喷雾干燥形成粉末的过程中,由于产品的表面积与体积比高,因此在旋转铸造(以及纤维纺丝)中存在相同的快干条件。 当通过液体喷雾产生粉末时,粉末中的颗粒或微小气泡是具有由介孔二氧化硅组成的壁的中空球体。 中孔纤维形成从类似的二氧化硅前体溶液开始,但是加入预聚物制成垂直的混合物,其被拉入薄的链中,从该溶液中蒸发掉溶剂,留下介孔纤维。
    • 10. 发明授权
    • Mesoporous-silica films, fibers, and powders by evaporation
    • 介孔二氧化硅薄膜,纤维和粉末通过蒸发
    • US5922299A
    • 1999-07-13
    • US921754
    • 1997-08-26
    • Paul J. BruinsmaSuresh BaskaranJagannadha R. BonthaJun Liu
    • Paul J. BruinsmaSuresh BaskaranJagannadha R. BonthaJun Liu
    • B01J20/10B01J21/08B01J37/02B01J37/03C01B37/00C01B37/02C04B20/00C04B35/14C04B35/622C04B38/00C01B33/12
    • C04B41/4582B01J20/103B01J21/08B01J37/0236B01J37/033C01B37/005C01B37/02C04B20/0056C04B35/14C04B35/62218C04B38/0022C04B41/009C04B41/81
    • This invention pertains to surfactant-templated nanometer-scale porosity of a silica precursor solution and forming a mesoporous material by first forming the silica precursor solution into a preform having a high surface area to volume ratio, then rapid drying or evaporating a solvent from the silica precursor solution. The mesoporous material may be in any geometric form, but is preferably in the form of a film, fiber, powder or combinations thereof. The rapid drying or evaporation of solvent from the solution is accomplished by layer thinning, for example spin casting, liquid drawing, and liquid spraying respectively. Production of a film is by layer thinning, wherein a layer of the silica precursor solution is formed on a surface followed by removal of an amount of the silica precursor solution and leaving a geometrically thinner layer of the silica precursor solution from which the solvent quickly escapes via evaporation. Layer thinning may be by any method including but not limited to squeegeeing and/or spin casting. In powder formation by spray drying, the same conditions of fast drying exists as in spin-casting (as well as in fiber spinning) because of the high surface-area to volume ratio of the product. When a powder is produced by liquid spraying, the particles or micro-bubbles within the powder are hollow spheres with walls composed of mesoporous silica. Mesoporous fiber formation starts with a similar silica precursor solution but with an added pre-polymer making a pituitous mixture that is drawn into a thin strand from which solvent is evaporated leaving the mesoporous fiber(s).
    • 本发明涉及二氧化硅前体溶液的表面活性剂模板纳米级孔隙率,并通过首先将二氧化硅前体溶液形成具有高表面积与体积比的预成型体形成介孔材料,然后快速干燥或蒸发二氧化硅溶剂 前体溶液。 介孔材料可以是任何几何形式,但优选为薄膜,纤维,粉末或其组合的形式。 溶剂从溶液中快速干燥或蒸发即可通过层间稀化来实现,例如旋转浇铸,液体拉伸和液体喷涂。 膜的制备是通过薄层变薄,其中在表面上形成二氧化硅前体溶液层,然后除去一定量的二氧化硅前体溶液,并留下几何较薄的二氧化硅前体溶液层,溶剂快速从其中逸出 通过蒸发。 层薄化可以通过任何方法,包括但不限于刮涂和/或旋转浇铸。 在通过喷雾干燥形成粉末的过程中,由于产品的表面积与体积比高,因此在旋转铸造(以及纤维纺丝)中存在相同的快干条件。 当通过液体喷雾产生粉末时,粉末中的颗粒或微小气泡是具有由介孔二氧化硅组成的壁的中空球体。 中孔纤维形成从类似的二氧化硅前体溶液开始,但是加入预聚物制成垂直的混合物,其被拉入薄的链中,从该溶液中蒸发掉溶剂,留下介孔纤维。