mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining process conditions in a workpiece processing tool configured to process production workpieces, comprising: calculating one or more heat flux values perpendicular to a PCMD (process condition measuring device) using a PCMD comprising: a) a substrate component; and b) one or more heat flux sensors embedded within the substrate component ; each heat flux sensor includes first and second temperature sensors aligned in a relationship configured to determine heat flux perpendicular to the PCMD; wherein calculating one or more heat flux values perpendicular to the PCMD comprises: measuring a temperature difference between the two temperature sensors , wherein thermal resistance between the two temperature sensors is known; using the measured temperature difference between the two temperatue sensors together with the known thermal resistance between the two temperature sensors to determine the heat flux perpindicular to the PCMD. a) a substrate component; and b) one or more heat flux sensors embedded within the substrate component ; each heat flux sensor includes first and second temperature sensors aligned in a relationship configured to determine heat flux perpendicular to the PCMD; wherein calculating one or more heat flux values perpendicular to the PCMD comprises: measuring a temperature difference between the two temperature sensors , wherein thermal resistance between the two temperature sensors is known; using the measured temperature difference between the two temperatue sensors together with the known thermal resistance between the two temperature sensors to determine the heat flux perpindicular to the PCMD. measuring a temperature difference between the two temperature sensors , wherein thermal resistance between the two temperature sensors is known; using the measured temperature difference between the two temperatue sensors together with the known thermal resistance between the two temperature sensors to determine the heat flux perpindicular to the PCMD.
Yarn tensioning system for keeping at least one yarn which is taken from a yarn storage system in a first direction (A) to a yarn take-off system of a weaving machine under tension, comprising a brake roller which is rotatably arranged in the yarn tensioning system and around which the yarn is at least partially wound in order to keep this yarn under tension between the brake roller and the yarn take-off system , wherein the yarn tensioning system comprises a motor for supplying a torque to the brake roller , in which this motor is actuable in generator operation to keep the yarn under tension and wherein the motor is actuable in motor operation to recuperate the yarn between the brake roller and the yarn take-off system in a second direction (B) which is opposite to the first direction (A) characterized in that the yarn tensioning system comprises a funnel-shaped guide for guiding the yarn to the brake roller and comprises a tubular guide for guiding the yarn to the funnel-shaped guide .
An oligonucleotide comprising at least one phosphorotrithioate internucleoside linkage of formula (I) wherein (A 1 ) is a 3'-nucleoside, (A 2 ) is a 5'-nucleoside and R is hydrogen.
An image display apparatus comprising: a first waveguide ; a second waveguide ; a first focus tunable lens positioned between the first waveguide and the second waveguide ; a display engine; a second focus tunable lens positioned between the display engine and the first waveguide ; and a processor configured to: control the display engine to output first light forming the first virtual image and second light forming the second virtual image , wherein the first light output from the display engine passes through the second focus tunable lens and is incident on the first waveguide ; wherein at least a portion of the first light incident on the first waveguide is diffracted from the first waveguide ; wherein the second light output from the display engine passes through the second focus tunable lens and is incident on the second waveguide , and wherein at least a portion of the second light incident on the second waveguide is diffracted from the second waveguide , passes through the first focus tunable lens , and is incident on the first waveguide . a first waveguide ; a second waveguide ; a first focus tunable lens positioned between the first waveguide and the second waveguide ; a display engine; a second focus tunable lens positioned between the display engine and the first waveguide ; and a processor configured to: control the display engine to output first light forming the first virtual image and second light forming the second virtual image , wherein the first light output from the display engine passes through the second focus tunable lens and is incident on the first waveguide ; wherein at least a portion of the first light incident on the first waveguide is diffracted from the first waveguide ; wherein the second light output from the display engine passes through the second focus tunable lens and is incident on the second waveguide , and wherein at least a portion of the second light incident on the second waveguide is diffracted from the second waveguide , passes through the first focus tunable lens , and is incident on the first waveguide . control the display engine to output first light forming the first virtual image and second light forming the second virtual image , wherein the first light output from the display engine passes through the second focus tunable lens and is incident on the first waveguide ; wherein at least a portion of the first light incident on the first waveguide is diffracted from the first waveguide ; wherein the second light output from the display engine passes through the second focus tunable lens and is incident on the second waveguide , and wherein at least a portion of the second light incident on the second waveguide is diffracted from the second waveguide , passes through the first focus tunable lens , and is incident on the first waveguide .
A method for processing a biological sample by performing one or more processing steps, comprising: inserting a sample carrier into a processing chamber of a sample processing apparatus ; and supplying an amount of a liquid to the biological sample for the one or more processing steps, wherein the apparatus comprises: a processing chamber having - a first structure configured to support a carrier having a first planar surface , said biological sample being arranged on the first planar surface of the carrier , - a second structure having a surface constituting a second planar surface ; wherein said first planar surface and said second planar surface are moveable between an upper position in which the second planar surface is at a first distance from said first planar surface , and a processing position in which the second planar surface is at a second, different distance from said first planar surface ; said second distance being such that said supplied amount of liquid is distributed over said biological sample when said first planar surface and said second planar surface are moved to said processing position; wherein the first structure is configured as a container having a bottom plate and walls defining an opening, wherein the bottom plate is configured to support the carrier ; wherein the second structure is configured as a block having a surface constituting the second planar surface , wherein the block is dimensioned to fit the opening; and wherein said first planar surface and said second planar surface are configured to be arranged substantially parallel to each other in both positions. inserting a sample carrier into a processing chamber of a sample processing apparatus ; and supplying an amount of a liquid to the biological sample for the one or more processing steps, wherein the apparatus comprises: a processing chamber having - a first structure configured to support a carrier having a first planar surface , said biological sample being arranged on the first planar surface of the carrier , - a second structure having a surface constituting a second planar surface ; - a first structure configured to support a carrier having a first planar surface , said biological sample being arranged on the first planar surface of the carrier , - a second structure having a surface constituting a second planar surface ;
An interferometric vibration observation device comprising: a transmitting means configured to transmit a transmission signal from a transmitting antenna toward an observation object ; and a receiving means configured to receive a reflection wave from the observation object; characterized in that : the receiving means is configured to receive the reflection wave from the observation object with a plurality of receiving antennas and to generate a reception signal for each of the receiving antennas; and the interferometric vibration observation device further comprises a signal processing means configured to: obtain a phase plane of the reflection wave to an antenna plane, the phase plane being obtained from a phase difference between the reception signals by a reference function process or fast Fourier transform; identify an arrival direction and a signal strength of the reflection wave; calculate a phase variation of the reflection wave from a certain direction; and generate an observation signal representative of a vibration of the observation object or a certain site of the observation object. a transmitting means configured to transmit a transmission signal from a transmitting antenna toward an observation object ; and a receiving means configured to receive a reflection wave from the observation object; characterized in that : the receiving means is configured to receive the reflection wave from the observation object with a plurality of receiving antennas and to generate a reception signal for each of the receiving antennas; and the interferometric vibration observation device further comprises a signal processing means configured to: obtain a phase plane of the reflection wave to an antenna plane, the phase plane being obtained from a phase difference between the reception signals by a reference function process or fast Fourier transform; identify an arrival direction and a signal strength of the reflection wave; calculate a phase variation of the reflection wave from a certain direction; and generate an observation signal representative of a vibration of the observation object or a certain site of the observation object. the receiving means is configured to receive the reflection wave from the observation object with a plurality of receiving antennas and to generate a reception signal for each of the receiving antennas; and the interferometric vibration observation device further comprises a signal processing means configured to: obtain a phase plane of the reflection wave to an antenna plane, the phase plane being obtained from a phase difference between the reception signals by a reference function process or fast Fourier transform; identify an arrival direction and a signal strength of the reflection wave; calculate a phase variation of the reflection wave from a certain direction; and generate an observation signal representative of a vibration of the observation object or a certain site of the observation object.
A flat key for a locking cylinder , in particular for locking systems, having substantially flat and approximately parallel flat key sides , a key rear section , and a key front section opposite thereto, toothed on the end face, for positioning tumbler pins divided into core pins and housing pins , which are spring-loaded in corresponding key channels of cylinder cores against the key front section in the direction of the key rear section , wherein grooves (11', 12', 13', 14', 20' - 25') in the form of profiled variation elements and profiled guiding elements are provided in the flat sides of the flat key , wherein at least two grooves of one flat side of the flat key overlap and are undercut in opposite directions, characterized in that a depression is provided in the outer flank (11 a', 12a') of at least one of the two grooves , and in that at least one region of said depression is not visible from the side.
A composition comprising one or more exogenous MCJ agonist compounds, wherein the or each exogenous MCJ agonist comprises an MCJ polypeptide or a polynucleotide that encodes an MCJ polypeptide, for use in a method of treating a subject with cancer by increasing a chemo-sensitivity of a cancer cell, wherein the exogenous MCJ agonist compound comprises a mitochondrial-targeting peptide that comprises the amino acid sequence set forth as F x RF x KF x RF x K (SEQ ID NO: 39), and wherein the method comprises contacting a cancer cell in the subject with said composition, in an amount effective to increase sensitivity of the cancer cell to one or more chemotherapeutic agents, and further contacting the cancer cell with one or more chemotherapeutic agents. wherein the exogenous MCJ agonist compound comprises a mitochondrial-targeting peptide that comprises the amino acid sequence set forth as F x RF x KF x RF x K (SEQ ID NO: 39), and wherein the method comprises contacting a cancer cell in the subject with said composition, in an amount effective to increase sensitivity of the cancer cell to one or more chemotherapeutic agents, and further contacting the cancer cell with one or more chemotherapeutic agents.
Soundproofing structure for aircrafts, which comprises at least one front barrier and two side barriers , wherein each side barrier is diverting from the front barrier , and each side barrier is arranged in such a way towards one of the ends of the front barrier that the angle formed between each side barrier and the front barrier is greater than 90°, characterized in that each side barrier extends continuously in a given direction, thereby forming an increasing opening as one runs along the side barrier , and in that the structure is an expandable structure and in that the free ends of each one of the side barriers are suitable to be expanded.
A method for pairing a first computing device (122;416) with a second computing device , the method comprising: detecting motion at the first computing device (122;416); determining , at the first computing device (122;416), whether a pattern of the detected motion corresponds with a saved motion pattern; and if it is determined (514: YES) that pattern of the detected motion corresponds with the saved motion pattern, activating a communications subsystem on the first computing device to begin a pairing process of pairing the first computing device (122;416) with the second computing device ; wherein the first computing device (122;416) is a sensor apparatus mounted to a shipping container , the second computing device is a sensor apparatus mounted to a vehicle or trailer , and wherein the saved motion pattern corresponds to the motion pattern for loading the shipping container onto the vehicle or trailer . detecting motion at the first computing device (122;416); determining , at the first computing device (122;416), whether a pattern of the detected motion corresponds with a saved motion pattern; and if it is determined (514: YES) that pattern of the detected motion corresponds with the saved motion pattern, activating a communications subsystem on the first computing device to begin a pairing process of pairing the first computing device (122;416) with the second computing device ; wherein the first computing device (122;416) is a sensor apparatus mounted to a shipping container , the second computing device is a sensor apparatus mounted to a vehicle or trailer , and wherein the saved motion pattern corresponds to the motion pattern for loading the shipping container onto the vehicle or trailer .
Body element of molded plastic, preferably for a front or rear face of a vehicle, having an inner face that is intended to be directed towards the inside of the vehicle, and an outer face that is intended to be directed towards the outside of the vehicle, the body element having an opening intended to receive equipment and means of fastening arranged on the inner face around the said opening , intended to secure the said equipment , characterized as the body element has a groove on its outer face and arranged on both sides of the opening , means of fastening are mounting drums protruding from the inner face and placed opposite the groove .
Scanning element for an inductive position measuring device, the scanning element ¬ comprising an excitation track (Sa, Si) and a receiver track (Ri, Ra), ¬ having a substrate (1.3) composed of a metallic material, and ¬ comprising a shielding layer structure (1.2) comprising at least a - first layer (1.21) having a dielectric property, and - a second layer (1.22), which is electrically conductive, wherein the shielding layer structure (1.2) is arranged between the substrate (1.3) and the receiver track (Ri, Ra) and/or between the substrate (1.3) and the excitation track (Sa, Si), wherein the scanning element comprises at least one electronic component (1.4) assigned to an electronic circuit, wherein the circuit is electrically connected to a connection element (1.7) serving as intended as a connection for the ground potential (GND), wherein the second layer (1.22) is electrically connected to the connection element (1.7) and is not electrically connected to the substrate (1.3). ¬ comprising an excitation track (Sa, Si) and a receiver track (Ri, Ra), ¬ having a substrate (1.3) composed of a metallic material, and ¬ comprising a shielding layer structure (1.2) comprising at least a - first layer (1.21) having a dielectric property, and - a second layer (1.22), which is electrically conductive, wherein - first layer (1.21) having a dielectric property, and - a second layer (1.22), which is electrically conductive, wherein the shielding layer structure (1.2) is arranged between the substrate (1.3) and the receiver track (Ri, Ra) and/or between the substrate (1.3) and the excitation track (Sa, Si), wherein the scanning element comprises at least one electronic component (1.4) assigned to an electronic circuit, wherein the circuit is electrically connected to a connection element (1.7) serving as intended as a connection for the ground potential (GND), wherein the second layer (1.22) is electrically connected to the connection element (1.7) and is not electrically connected to the substrate (1.3).
An iron powder for dust cores comprising: an iron powder; and an oxide film provided on the surface thereof, wherein the oxide film consists substantially of a Si-based oxide in which an atomic number ratio of Si to Fe satisfies Si/Fe≥1.1, the weight ratio of SiO 2 to Fe 2 SiO 4 is seven times or more, and the Si-based oxide contains 60 mass percent or more of SiO 2 .
A half mirror comprising, in sequence: a transparent substrate; an adhesive layer; and a polarized light reflecting layer, wherein the transparent substrate and the adhesive layer are in direct contact with each other, and the adhesive layer and the polarized light reflecting layer are in direct contact with each other, the half mirror has an image clarity value of 90% or more at an optical comb of 0.5 mm, an image clarity value of 70% or more at an optical comb of 0.125 mm, and a visible light reflectivity of 30% or more, the image clarity values being determined by a method for measuring image clarity in accordance with JIS K7374 in a reflectivity mode at an angle of 45° from the transparent substrate side, the transparent substrate is a glass plate, the polarized light reflecting layer has a thickness of 5.0 μm to 80 μm, the adhesive layer is a layer formed by UV-curing of a composition containing an acrylic polymer having a weight-average molecular weight of 800,000 to 2,000,000, a crosslinker, and a silane coupling agent, a total amount of the crosslinker is 1.0 mass% to 8.0 mass% of an amount of the acrylic polymer, the crosslinker includes a photo-crosslinker and a thermal crosslinker, 80 mass% or more of the crosslinker is accounted for by the photo-crosslinker, and the adhesive layer has a thickness of 3 μm to 15 μm. wherein the transparent substrate and the adhesive layer are in direct contact with each other, and the adhesive layer and the polarized light reflecting layer are in direct contact with each other, the half mirror has an image clarity value of 90% or more at an optical comb of 0.5 mm, an image clarity value of 70% or more at an optical comb of 0.125 mm, and a visible light reflectivity of 30% or more, the image clarity values being determined by a method for measuring image clarity in accordance with JIS K7374 in a reflectivity mode at an angle of 45° from the transparent substrate side, the transparent substrate is a glass plate, the polarized light reflecting layer has a thickness of 5.0 μm to 80 μm, the adhesive layer is a layer formed by UV-curing of a composition containing an acrylic polymer having a weight-average molecular weight of 800,000 to 2,000,000, a crosslinker, and a silane coupling agent, a total amount of the crosslinker is 1.0 mass% to 8.0 mass% of an amount of the acrylic polymer, the crosslinker includes a photo-crosslinker and a thermal crosslinker, 80 mass% or more of the crosslinker is accounted for by the photo-crosslinker, and the adhesive layer has a thickness of 3 μm to 15 μm.
A composite comprising: (I) a fiber-reinforced composite material which is composed of reinforcing fibers and a resin composition that contains (A) a polypropylene-based resin and (B) a modified polyolefin-based resin; and (II) a metal member which is joined and fixed to (I) the fiber-reinforced composite material by welding, (A) the polypropylene-based resin having a tensile modulus of not less than 1 GPa, (B) the modified polyolefin-based resin being modified with at least one kind of monomer which is selected from the group consisting of carboxylic acid group-containing vinyl monomers and epoxy group-containing vinyl monomers, and modified with a conjugated diene compound in an amount of 0.01 parts by weight to 10 parts by weight with respect to 100 parts by weight of the polyolefin-based resin, a weight ratio (A):(B) between (A) the polypropylene-based resin and (B) the modified polyolefin-based resin in the resin composition being 90:10 to 40:60, and the arithmetic average roughness, Ra, of a surface of (II) the metal member to which surface (I) the fiber-reinforced composite material is joined is 0.08 μm to 1 μm. (I) a fiber-reinforced composite material which is composed of reinforcing fibers and a resin composition that contains (A) a polypropylene-based resin and (B) a modified polyolefin-based resin; and (II) a metal member which is joined and fixed to (I) the fiber-reinforced composite material by welding, (A) the polypropylene-based resin having a tensile modulus of not less than 1 GPa, (B) the modified polyolefin-based resin being modified with at least one kind of monomer which is selected from the group consisting of carboxylic acid group-containing vinyl monomers and epoxy group-containing vinyl monomers, and modified with a conjugated diene compound in an amount of 0.01 parts by weight to 10 parts by weight with respect to 100 parts by weight of the polyolefin-based resin, (A) the polypropylene-based resin having a tensile modulus of not less than 1 GPa, (B) the modified polyolefin-based resin being modified with at least one kind of monomer which is selected from the group consisting of carboxylic acid group-containing vinyl monomers and epoxy group-containing vinyl monomers, and modified with a conjugated diene compound in an amount of 0.01 parts by weight to 10 parts by weight with respect to 100 parts by weight of the polyolefin-based resin, a weight ratio (A):(B) between (A) the polypropylene-based resin and (B) the modified polyolefin-based resin in the resin composition being 90:10 to 40:60, and the arithmetic average roughness, Ra, of a surface of (II) the metal member to which surface (I) the fiber-reinforced composite material is joined is 0.08 μm to 1 μm.