Other

Nanodynamics, Inc.

Gamc Biotech Development Co., Ltd.

Profile Diagnostic Sciences, Inc.

Wang Associates

Nanodynamics-88

Nanoray Biotech Co., Ltd.

Chia-Gee Wang

Raphael Tsu

John Clay Lofgren

Lawrence Helson

Bruce Briant Parsons

Thomas Vullo

Angus G Hepburn

The present invention is directed to a thin film lithium-ion battery having at least a laminate structure therein. The laminate structure includes a bottom current collector layer, an anode consisting of a superlattice layer and a silicon based layer, an electrolyte and separator, a cathode and a top current collector layer sequentially stacked together. The electrolyte and separator of the laminate structure contains lithium ions.

Thin film lithium-ion battery

A photovoltaic (PV) device including: (a) a p-n junction having (i) p-type silicon substrate with an Al-doped P++ surface, (ii) a wide band intrinsic AlP region having a first side formed on the Al-doped P++ surface of the silicon substrate, and (iii) an Si-doped n++ surface formed on a second side of the AlP region that is opposite to the first side; (b) charged quantum dots formed on the Si-doped n++ surface of the p-n junction and optionally (c) an electrode connected to each side of the device; wherein the charged quantum dots are operatively linked to the p-n junction to enable electrons harvested from IR photons absorbed by the quantum dots to be harvested with electrons harvested from photons absorbed by the p-n junction and wherein the wide band intrinsic AlP region is configured to inhibit leakage of hole current. Also, a method for forming the PV device.

High efficiency solar cells with quantum dots for IR pumping

An X-ray phase-shift contrast imaging method and the system thereof are provided. The X-ray phase-shift contrast imaging method utilizes characteristic X-rays of high throughput irradiating at the target from different positions or with different focal positions so as to form different X-ray images. The X-ray images are compared to define the voxels and combined to obtain a 3-D X-ray image. By using X-ray phase-shift contrast for imaging the soft tissue, the level of the image contrast may be enhanced several orders of magnitude and the linear energy transfer of the high energy photon beam is greatly reduced. Hence, the radiation dose absorbed by the tissue may be greatly reduced.

X-ray phase-shift contrast imaging method and system thereof

A method for fabricating a p-type semiconductor substrate including the following steps is provided. A carrier is provided, and the carrier includes a III-V compounds semiconductor layer and a III element layer disposed on the III-V compounds semiconductor layer. Si powders are disposed onto the III element layer of the carrier. The carrier is heated to enable the Si powders and the III element layer of the carrier to form a p-type poly-Si layer. In addition, a solar cell and a method of fabricating thereof are also provided.

Method for fabricating P-type semiconductor substrate, solar cell and method for fabricating the same

A method of fabricating a solar cell on a conveyer belt is provided. The method includes the following steps. A first surface of an aluminum foil is coated with a layer of phosphorous mixed with a plurality of graphite powders and put on the conveyer belt. A first thermal treatment is performed to activate a portion of the aluminum foil and the phosphorous layer on the first surface to form an aluminum phosphide (AlP) layer. A molten silicon material is spray-coated on a second surface of the remaining aluminum foil, and a second thermal treatment is performed to make the silicon material transferring into a p-type polySi layer on the n-type AlP layer. A solar cell including the n-type AlP layer and the p-type polySi layer is formed, and the solar cell is respectively annealed and cooled down in a first and a second vertical stack.

Method for fabricating solar cell

This invention relates to the use of thick target materials 50 microns and thicker for an x-ray transmission tube; to possible target material compositions including various elements and their alloys, eutectic alloys, compounds, or intermetallic compounds; and applications for utilizing such thick target transmission x-ray tubes. The target comprises at lease one portion of the target with a thickness of 50 microns or greater. The target can be optionally attached to a substrate end-window essentially transparent to x-rays or be thick enough so that no such substrate is required. Applications include producing a high percentage of monochromatic line mission x-rays of said thick target for use in reduced dose medical imaging and other non-destructive testing applications.

Thick targets for transmission x-ray tubes

A method of treating living mammals including humans uses x-rays to disrupt DNA in malfunctioning cells such as cancerous or tumorous cells. A compound comprising a pre-selected element is administered to the mammal so that the compound associates with DNA. Then a localized region of cells which contains the malfunctioning cells is irradiated with line emission x-rays of an energy selected to cause emission of Auger electrons from the pre-selected element of the compound to disrupt DNA proximate to the irradiated pre-selected element. A kit useful for the treatment comprises an x-ray tube capable of emitting monochromatic line emission x-rays and a compound which associates with DNA and has an element which when irradiated emits said Auger electrons.

Radiotherapy method using x-rays

A method of treating cancer in a human uses x-rays to disrupt a linkage in a complex of a chemotherapeutic agent and a carrier compound comprising a pre-selected element. The complex is administered to the human and then a localized region of cells which contains the cancerous cells is irradiated with line emission x-rays of an energy selected to cause emission of Auger electrons from the pre-selected element of the carrier compound to disrupt the linkage and release the chemotherapeutic agent near the cancer cells. A kit useful for the treatment comprises an x-ray tube capable of emitting monochromatic line emission x-rays and the complex compound. A transfer compound useful in the method comprises a chemotherapeutic agent linked to a carrier compound.

Chemotherapy method using x-rays

A mammography method images breast tissue with an end window X-ray transmission tube to detect the presence of neovascular micro-vessels as defining vascular structure associated with a suspect tumorous mass. A kit therefor has a high-efficiency, end window X-ray transmission tube and a supply of a contrast agent.

Low dose X-ray mammography method

The invention relates to targets for an X-ray transmission tube (); to a high efficiency, high excitation energy X-ray transmission tube; to combinations of the targets and high efficiency X-ray transmission tubes; and applications for utilizing such X-ray tubes. The target comprises two or more different thin foils () or at least two foils of the same material but different foil thickness on separate areas of a substantially planar substrate which is substantially transparent to X-rays. The target may also comprise at least two different foils () layered sequentially one of the other, wherein X-rays are produced when an electron beam impinges the foil closest to the source fo the electron beam; wherein the energy of the electron beam is selectively changed to produce X-rays of a least one preselected energy characteristic of at least one of the foils.

High quantum energy efficiency X-ray tube and targets

A method for producing an insulating or barrier layer (FIG.B), useful for semiconductor devices, comprises depositing a layer of silicon and at least one additional element on a silicon substrate whereby said deposited layer is substantially free of defects such that epitaxial silicon substantially free of defects can be deposited on said deposited layer. Alternatively, a monolayer of one or more elements, preferably comprising oxygen, is absorbed on a silicon substrate. A plurality of insulating layers sandwiched between epitaxial silicon forms a barrier composite. Semiconductor devices are disclosed which comprise said barrier composite.

[object Object]

A method for producing an insulating or barrier layer, useful for semiconductor devices, comprises depositing a layer of silicon and at least one additional element on said silicon substrate whereby said deposited layer is substantially free of defects such that epitaxial silicon substantially free of defects can be deposited on said deposited layer. Alternatively, a monolayer of one or more elements, preferably comprising oxygen, is absorbed on a silicon substrate. A plurality of insulating layers sandwiched between epitaxial silicon forms a barrier composite. Semiconductor devices are disclosed which comprise said barrier composite.

Epitaxial SiOx barrier/insulation layer

A method of assaying genetic sequences comprises introducing double stranded DNA to be assayed into an aqueous buffer medium containing complexes of an anchor DNA strand anchored to a support matrix and hybridized with a reporter DNA strand having a detectable label. A portion of the anchor strand or the reporter strand consists of a selected sequence of bases capable of forming a triple helix or triple strand structure with a portion of particular double stranded DNA. The reporter strand is displaced from the complex upon formation of a triple helix or triple strand structure, and displaced reporter strands are detected to determine the presence of the particular double stranded DNA. Gene probes, anchor/reporter hybrids, selected gene sequences and kits, useful in the assay method, are provided.

Genetic sequence assay using DNA triple strand formation

A compact x-ray tube assembly comprises an evacuated chamber enclosed by a ceramic tubular envelope, an attached power supply at one end connected to an emitter inside the chamber, electrostatic means for focusing a beam of electrons on a metal foil target, an end window at the other end comprising said target, the thickness and composition of the metal foil target and the e-beam energy being selected to generate a microfocused bright beam of x rays of a preselected energy. The compact assembly is useful in a method for aligning or positioning layers used in the production of microelectronics components.

X-ray tube and microelectronics alignment process

A method of investigating materials, especially biological specimens, utilizes a focused accelerated beam of electrons within an evacuated chamber, striking a metal foil within the chamber and exposing a specimen outside the evacuated chamber to x-rays generated in the metal foil. The apparatus of the invention functions as an x-ray microscope and in a preferred embodiment, as a scanning x-ray microscope.

Growing community of inventors

New York, NY, United States of America

Chia-Gee Wang