摘要:
A measurement probe system is provided that includes a housing, a Quartz Crystal Microbalance (QCM) mass sensor in the housing, a first cover and a second cover attached to the ends of the housing. A chamber is defined between the housing, the mass sensor, and the second cover. An electrical input in electrical communication with the mass sensor and an electrical output in electrical communication with the second cover are also included. The measurement probe system is used to detect nanoparticle levels in an ionic solution includes inputting an ionic solution sample into the chamber, applying a frequency from a signal generator to the QCM via the electrical input, detecting frequency noises with the second cover and transmitting those frequency noises to a frequency counter via the electrical output, and assessing the level of nanoparticles present in the sample based on the frequency measured by the frequency counter.
摘要:
An embodiment of the invention relates to a portable or handheld device for performing NMR analysis. The device comprises a console and a strip which can be placed into the console through a slot or other means. The strip comprises a sample holding place and a microcoil for generating an excitation magnetic field across a sample in the sample holding space. A permanent magnet is provided either by the console or the strip and generates a static magnetic field which, together with the excitation magnetic field, creates NMR within the sample. Other embodiments of the invention also encompass method of performing NMR analysis using the portable device and method of making such devices.
摘要:
An embodiment of the invention relates to a portable or handheld device for performing NMR analysis. The device comprises a console and a strip which can be placed into the console through a slot or other means. The strip comprises a sample holding place and a microcoil for generating an excitation magnetic field across a sample in the sample holding space. A permanent magnet is provided either by the console or the strip and generates a static magnetic field which, together with the excitation magnetic field, creates NMR within the sample. Other embodiments of the invention also encompass method of performing NMR analysis using the portable device and method of making such devices.
摘要:
Methods of forming a microelectronic structure are described. Embodiments of those methods include providing a substrate comprising at least one opening, and then applying a nanotube slurry comprising at least one nanotube to the substrate, wherein the at least one nanotube is substantially placed within the at least one opening.
摘要:
A slurry for copper polishing has a pH between 7.5 and 12. In a particular embodiment of the present invention, a slurry for polishing copper has a pH between 8 and 11.5, and includes a SiO2 abrasive, a (NH4)2S2O8 oxidizer, a benzotriazole corrosion inhibitor, and a K3PO4/K2HPO4 buffer. A copper polish slurry, in accordance with the present invention, operates with a high pH of greater than approximately 7.5. In this range the slurry has a low static etch due to formation of a robust, protective layer. This slurry may additionally have S2O8−2 or Fe(CN)6−3 as an oxidizer and can thus offer a high polish rate on the order of 7,000 to 10,000 angstroms per minute which does not decrease significantly during polishing. Such an inventive slurry offers a wide CMP process window such that the slurry and process parameters can be optimized to yield low recess, erosion, and dishing on patterned wafers.
摘要翻译:用于铜抛光的浆料的pH为7.5至12.在本发明的一个具体实施方案中,用于抛光铜的浆料的pH为8至11.5,并且包括SiO 2研磨剂,(NH 4)2 S 2 O 8氧化剂,苯并三唑 缓蚀剂和K3PO4 / K2HPO4缓冲液。 根据本发明的铜抛光浆料以大于约7.5的高pH操作。 在该范围内,由于形成坚固的保护层,浆料具有低静态蚀刻。 该浆液可另外具有作为氧化剂的S2O8或Fe(CN)6-3,因此能够提供每分钟7000至10,000埃的高抛光速率,这在抛光过程中不会显着降低。 这种本发明的浆料提供了广泛的CMP工艺窗口,使得浆料和工艺参数可以被优化以在图案化的晶片上产生低的凹陷,侵蚀和凹陷。
摘要:
An embodiment if the invention relates to an integrated on-chip NMR or ESR device for performing chemical analysis and medical diagnostics. Specifically, the device contains, on a single substrate, a sample holding space, a magnet for generating a static magnetic field across the sample holding space and a microcoil for generating an excitation magnetic field across sample holding space. The magnetic fields are able to create NMR or ESR within a sample in the sample holding space and collect and/or process the signals from the NMR or ESR. The substrate may comprise an array of microcoils and sample holding spaces for performing multiple NMR or ESR analysis, such as multiple DNA analysis. Other embodiments of the invention relate methods for fabricating such devices and methods for performing NMR or ESR analysis using such devices.
摘要:
A method includes forming a barrier layer on a substrate surface including at least one contact opening; forming an interconnect in the contact opening; and reducing the electrical conductivity of the barrier layer. A method including forming a barrier layer on a substrate surface including a dielectric layer and a contact opening, depositing a conductive material in the contact opening, removing the conductive material sufficient to expose the barrier layer on the substrate surface, and reducing the electrical conductivity of the barrier layer. An apparatus including a circuit substrate including at least one active layer including at least one contact point, a dielectric layer on the at least one active layer, a barrier layer on a surface of the dielectric layer, a portion of the barrier layer having been transformed from a first electrical conductivity to a second different and reduced electrical conductivity, and an interconnect coupled to the at least one contact point.
摘要:
A slurry for copper polishing has a pH between 7.5 and 12. In a particular embodiment of the present invention, a slurry for polishing copper has a pH between 8 and 11.5, and includes a siO2 abrasive, a (NH4)2S2O8 oxidizer, a benzotriazole corrosion inhibitor, and a K3PO4/K2HPO4 buffer. A copper polish slurry, in accordance with the present invention, operates with a high pH of greater than approximately 7.5. In this range the slurry has a low static etch due to formation of a robust, protective layer. This slurry may additionally have S2O8−2 or Fe(CN)6 −3 as an oxidizer and can thus offer a high polish rate on the order of 7,000 to 10,000 angstroms per minute which does not decrease significantly during polishing. Such an inventive slurry offers a wide CMP process window such that the slurry and process parameters can be optimized to yield low recess, erosion, and dishing on patterned wafers.
摘要翻译:用于铜抛光的浆料具有7.5至12的pH。在本发明的一个具体实施方案中,用于抛光铜的浆料的pH值在8和11.5之间,并且包括SiO 2研磨剂, (NH 4)2 S 2 O 2氧化剂,苯并三唑缓蚀剂和K 3 CO 3, 3 PO 4 / 2H 2 HPO 4缓冲液。 根据本发明的铜抛光浆料以大于约7.5的高pH操作。 在该范围内,由于形成坚固的保护层,浆料具有低静态蚀刻。 该浆料可以另外具有S 2 O 8 O 2以上或Fe(CN)6 - 3 SUP>作为氧化剂,因此可以提供每分钟7000至10,000埃的高抛光速率,其在抛光期间不显着降低。 这种本发明的浆料提供了广泛的CMP工艺窗口,使得浆料和工艺参数可以被优化以在图案化的晶片上产生低的凹陷,侵蚀和凹陷。
摘要:
A slurry for copper polishing has a pH between 7.5 and 12. In a particular embodiment of the present invention, a slurry for polishing copper has a pH between 8 and 11.5, and includes a SiO2 abrasive, a (NH4)2S2O8 oxidizer, a benzotriazole corrosion inhibitor, and a K3PO4/K2HPO4 buffer. A copper polish slurry, in accordance with the present invention, operates with a high pH of greater than approximately 7.5. In this range the slurry has a low static etch due to formation of a robust, protective layer. This slurry may additionally have S2O8−2 or Fe(CN)6−3 as an oxidizer and can thus offer a high polish rate on the order of 7,000 to 10,000 angstroms per minute which does not decrease significantly during polishing. Such an inventive slurry offers a wide CMP process window such that the slurry and process parameters can be optimized to yield low recess, erosion, and dishing on patterned wafers.
摘要翻译:用于铜抛光的浆料的pH为7.5至12.在本发明的一个具体实施方案中,用于抛光铜的浆料的pH为8至11.5,并且包括SiO 2研磨剂,(NH 4)2 S 2 O 8氧化剂,苯并三唑 缓蚀剂和K3PO4 / K2HPO4缓冲液。 根据本发明的铜抛光浆料以大于约7.5的高pH操作。 在该范围内,由于形成坚固的保护层,浆料具有低静态蚀刻。 该浆液可另外具有作为氧化剂的S2O8或Fe(CN)6-3,因此能够提供每分钟7000至10,000埃的高抛光速率,这在抛光过程中不会显着降低。 这种本发明的浆料提供了广泛的CMP工艺窗口,使得浆料和工艺参数可以被优化以在图案化的晶片上产生低的凹陷,侵蚀和凹陷。
摘要:
A method includes forming a barrier layer on a substrate surface including at least one contact opening; forming an interconnect in the contact opening; and reducing the electrical conductivity of the barrier layer. A method including forming a barrier layer on a substrate surface including a dielectric layer and a contact opening, depositing a conductive material in the contact opening, removing the conductive material sufficient to expose the barrier layer on the substrate surface, and reducing the electrical conductivity of the barrier layer. An apparatus including a circuit substrate including at least one active layer including at least one contact point, a dielectric layer on the at least one active layer, a barrier layer on a surface of the dielectric layer, a portion of the barrier layer having been transformed from a first electrical conductivity to a second different and reduced electrical conductivity, and an interconnect coupled to the at least one contact point.