mhurhangee/patent-ind-claim-en huggingface dataset:
A brake control device for applying a brake to a railway vehicle provided with a target member by pressing a frictional member against the target member , the brake control device comprising: a detection unit detecting whether it is in a brake application state in which the frictional member is pressed against the target member ; and characterized in that it comprises an acquiring unit acquiring, when the railway vehicle is stopped, a brake release command for releasing the pressing of the target member by the frictional member ; and a determination unit determining, when the railway vehicle is stopped, whether the brake application state is maintained by using a detection result provided by the detection unit after the acquiring unit has acquired the brake release command. a detection unit detecting whether it is in a brake application state in which the frictional member is pressed against the target member ; and characterized in that it comprises an acquiring unit acquiring, when the railway vehicle is stopped, a brake release command for releasing the pressing of the target member by the frictional member ; and a determination unit determining, when the railway vehicle is stopped, whether the brake application state is maintained by using a detection result provided by the detection unit after the acquiring unit has acquired the brake release command.
A turbo pump comprising: an impeller which pressurizes liquid; a turbine disk at which a blade cascade is provided; a shaft which connects the impeller and the turbine disk ; a bearing which rotatably supports the shaft ; a housing which accommodates the impeller , the turbine disk , the shaft , and the bearing ; and a seal part which is provided between the bearing and the turbine disk , wherein the bearing is cooled by a cryogenic liquid, characterized in that the turbo pump further comprises: a slinger which is disposed between the bearing and the seal part and has a disk which is fixed to the shaft , and a plurality of wing parts which are provided on the seal part side of the disk ; and a partition wall which partitions the inside of the housing into a pressure reduction chamber (2c1) in which the wing parts of the slinger are disposed, and a bearing accommodation chamber (2c2) in which the bearing is accommodated, the pressure reduction chamber (2c1) and the bearing accommodation chamber (2c2) being connected to each other through a clearance flow path . an impeller which pressurizes liquid; a turbine disk at which a blade cascade is provided; a shaft which connects the impeller and the turbine disk ; a bearing which rotatably supports the shaft ; a housing which accommodates the impeller , the turbine disk , the shaft , and the bearing ; and a seal part which is provided between the bearing and the turbine disk , wherein the bearing is cooled by a cryogenic liquid, characterized in that the turbo pump further comprises: a slinger which is disposed between the bearing and the seal part and has a disk which is fixed to the shaft , and a plurality of wing parts which are provided on the seal part side of the disk ; and a partition wall which partitions the inside of the housing into a pressure reduction chamber (2c1) in which the wing parts of the slinger are disposed, and a bearing accommodation chamber (2c2) in which the bearing is accommodated, the pressure reduction chamber (2c1) and the bearing accommodation chamber (2c2) being connected to each other through a clearance flow path . a slinger which is disposed between the bearing and the seal part and has a disk which is fixed to the shaft , and a plurality of wing parts which are provided on the seal part side of the disk ; and a partition wall which partitions the inside of the housing into a pressure reduction chamber (2c1) in which the wing parts of the slinger are disposed, and a bearing accommodation chamber (2c2) in which the bearing is accommodated, the pressure reduction chamber (2c1) and the bearing accommodation chamber (2c2) being connected to each other through a clearance flow path .
A wiring substrate comprising: an insulating substrate including a base portion comprising a through hole having a first opening and a second opening , and a frame portion located on the base portion ; and a heat dissipator disposed on a side of the base portion that is opposite to the frame portion so as to block the second opening , wherein an inner surface of the through hole faces a side surface of the heat dissipator with a clearance (W) being provided between the inner surface of the through hole and the side surface of the heat dissipator , wherein the through hole has a third opening located opposite to the first opening , and in a vertical sectional view of the wiring substrate , the clearance (W) between the inner surface of the through hole and the side surface of the heat dissipator is wider in a vicinity of the third opening than in a vicinity of the frame portion , wherein the inner surface of the through hole that faces the side surface of the heat dissipator is inclined so that a diameter of the through hole increases gradually with increasing distance from the frame portion . an insulating substrate including a base portion comprising a through hole having a first opening and a second opening , and a frame portion located on the base portion ; and a heat dissipator disposed on a side of the base portion that is opposite to the frame portion so as to block the second opening , wherein an inner surface of the through hole faces a side surface of the heat dissipator with a clearance (W) being provided between the inner surface of the through hole and the side surface of the heat dissipator , wherein the through hole has a third opening located opposite to the first opening , and in a vertical sectional view of the wiring substrate , the clearance (W) between the inner surface of the through hole and the side surface of the heat dissipator is wider in a vicinity of the third opening than in a vicinity of the frame portion , wherein the inner surface of the through hole that faces the side surface of the heat dissipator is inclined so that a diameter of the through hole increases gradually with increasing distance from the frame portion .
A liquid discharge head comprising: a nozzle layer having a nozzle through which a liquid is discharged, the nozzle layer including: a vibration layer having a first side and a second side opposite to the first side, the liquid being discharged through the nozzle in a direction from the second side toward the first side; a piezoelectric actuator adjacent to the nozzle and over the first side; a circuit connection over the first side; a first protective layer around the circuit connection , the first protective layer defining an opening above the circuit connection ; a second protective layer over the piezoelectric actuator , the second protective layer being separated from the first protective layer ; a first water-resistant film over a surface of the first protective layer ; and a second water-resistant film over a surface of the second protective layer ; a liquid chamber substrate having a liquid chamber communicating the nozzle ; and a drive circuit over the second side, the drive circuit being connected to the circuit connection and configured to drive the piezoelectric actuator , wherein the first protective layer and the second protective layer are discontinuous from each other. a nozzle layer having a nozzle through which a liquid is discharged, the nozzle layer including: a vibration layer having a first side and a second side opposite to the first side, the liquid being discharged through the nozzle in a direction from the second side toward the first side; a piezoelectric actuator adjacent to the nozzle and over the first side; a circuit connection over the first side; a first protective layer around the circuit connection , the first protective layer defining an opening above the circuit connection ; a second protective layer over the piezoelectric actuator , the second protective layer being separated from the first protective layer ; a first water-resistant film over a surface of the first protective layer ; and a second water-resistant film over a surface of the second protective layer ; a vibration layer having a first side and a second side opposite to the first side, the liquid being discharged through the nozzle in a direction from the second side toward the first side; a piezoelectric actuator adjacent to the nozzle and over the first side; a circuit connection over the first side; a first protective layer around the circuit connection , the first protective layer defining an opening above the circuit connection ; a second protective layer over the piezoelectric actuator , the second protective layer being separated from the first protective layer ; a first water-resistant film over a surface of the first protective layer ; and a second water-resistant film over a surface of the second protective layer ; a liquid chamber substrate having a liquid chamber communicating the nozzle ; and a drive circuit over the second side, the drive circuit being connected to the circuit connection and configured to drive the piezoelectric actuator ,
A method for growing a β-Ga 2 O 3 -based single crystal by EFG method, comprising a step of growing a plate-shaped Sn-doped β-Ga 2 O 3 -based single crystal in a direction of a b-axis using a seed crystal without a shoulder broadening process for increasing a width of the Sn-doped β-Ga 2 O 3 -based single crystal, wherein a concentration of Sn doped into the β-Ga 2 O 3 -based single crystal is not less than 0.005 mol% and not more than 1.0 mol% .
- Method for manufacturing a sensing tip for a temperature sensing device , said method comprising the steps of: a1) providing with a thermocouple presenting a welding, named hot junction , linking a first longitudinal end of a first metal wire of the thermocouple and a first longitudinal end of a second metal wire of the thermocouple ; the first metal wire and the second metal wire being made of distinct materials and so chosen to form the thermocouple , and; a2) providing with an empty cylinder-shaped container presenting one closed longitudinal end, named distal end and one open longitudinal end, named proximal end opposite to said distal end , then; a3) disposing the thermocouple into the cylinder-shaped container , said hot junction of the thermocouple being positioned at said distal end , then; b) filling a free space extending inside the cylinder-shaped container with a quantity of at least one mineral powdered material , at least one part of the at least one mineral powdered material being a thermal conductive ceramic powder , said thermal conductive ceramic powder forming a layer, named distal layer , of said thermal conductive ceramic powder at least at said distal end ; and c) adding a layer contacting the distal layer by completing the filling of the free space of the cylinder-shaped container with a quantity of a mineral powdered material distinct of said thermal conductive ceramic powder and with lower thermal conductivity than the thermal conductivity of the thermal conductive ceramic powder forming the layer of the thermal conductive ceramic powder , thus forming the sensing tip . a1) providing with a thermocouple presenting a welding, named hot junction , linking a first longitudinal end of a first metal wire of the thermocouple and a first longitudinal end of a second metal wire of the thermocouple ; the first metal wire and the second metal wire being made of distinct materials and so chosen to form the thermocouple , and; a2) providing with an empty cylinder-shaped container presenting one closed longitudinal end, named distal end and one open longitudinal end, named proximal end opposite to said distal end , then; a3) disposing the thermocouple into the cylinder-shaped container , said hot junction of the thermocouple being positioned at said distal end , then; b) filling a free space extending inside the cylinder-shaped container with a quantity of at least one mineral powdered material , at least one part of the at least one mineral powdered material being a thermal conductive ceramic powder , said thermal conductive ceramic powder forming a layer, named distal layer , of said thermal conductive ceramic powder at least at said distal end ; and c) adding a layer contacting the distal layer by completing the filling of the free space of the cylinder-shaped container with a quantity of a mineral powdered material distinct of said thermal conductive ceramic powder and with lower thermal conductivity than the thermal conductivity of the thermal conductive ceramic powder forming the layer of the thermal conductive ceramic powder ,
A process for manufacturing a concentrate for making a premix for a frozen confection, wherein the concentrate is in the form of granules and the process comprises the steps of: (a) forming an oil-in-water emulsion wherein the fat droplets in the emulsion have an average particle size (D 3,2 ) of less than 1 micron, the emulsion comprising fat in an amount of from 70 to 87% by weight of the emulsion; (b) providing powder comprising saccharides, non-saccharide sweetener and/or protein; (c) combining, in a granulation step, the powder and the emulsion to form a mixture with a moisture content of less than 10% by weight of the mixture, wherein the emulsion binds the powder into granules, and wherein the mixture is not subjected to a drying step during the process of manufacturing the granules; and (d) recovering the granules from step (c). (a) forming an oil-in-water emulsion wherein the fat droplets in the emulsion have an average particle size (D 3,2 ) of less than 1 micron, the emulsion comprising fat in an amount of from 70 to 87% by weight of the emulsion; (b) providing powder comprising saccharides, non-saccharide sweetener and/or protein; (c) combining, in a granulation step, the powder and the emulsion to form a mixture with a moisture content of less than 10% by weight of the mixture, wherein the emulsion binds the powder into granules, and wherein the mixture is not subjected to a drying step during the process of manufacturing the granules; and (d) recovering the granules from step (c).
A block copolymer comprising at least one (poly)2-C 1-3 alkyl-2-oxazoline block and at least one polybutadiene block, which is a diblock copolymer AB in which (poly)2-C 1-3 alkyl-2-oxazoline forms the A block and polybutadiene forms the B block, and which has at least one end group at the end of a (poly)2-C 1-3 alkyl-2-oxazoline block which is selected from carboxy, activated carboxy, amine, methacrylate, thiol, azide, and alkyne.
A homeopathic formulation for oral care comprising a 8X dilution of a tincture of Hepar sulphuris calcareum , a 3X dilution of a tincture of Calendula officinalis, a 5X dilution of a tincture of Chamomilla, a 3X dilution of a tincture of Aconitum napellus, a 3X dilution of a tincture of Echinacea angustifolia , a 3X dilution of a tincture of Echinacea purpurea, a 12X dilution of a tincture of Ruta graveolens, a 3X, 6X, 18X dilution of a tincture of Arnica montana , a 10X dilution of a tincture of Mercurius vivus, a 10X dilution of a tincture of Hypericum, a 30X dilution of a tincture of Gelsemium, and a 30X dilution of a tincture of Ignatia amara.
A slide rail assembly , applicable to a post , the slide rail assembly comprising: a first rail ; a second rail movable relative to the first rail ; and a bracket device attached to the first rail , the bracket device comprising: a bracket comprising a side wall and a mounting member adjacent to the side wall , the mounting member configured to be inserted into a hole of the post ; and characterized by : a fastening member comprising a side part pivoted to the bracket , a fastening part bent relative to the side part , and a blocking feature arranged on the side part and adjacent to a bending position between the side part and the fastening part , wherein the blocking feature is a protrusion; wherein when the mounting member is inserted to the hole of the post in order to mount the slide rail assembly to the post , the fastening part of the fastening member is configured to lock the post ; wherein when the slide rail assembly is moved by a force, the blocking feature is configured to abut against the post in order to prevent the mounting member from being detached from the hole of the post . a first rail ; a second rail movable relative to the first rail ; and a bracket device attached to the first rail , the bracket device comprising: a bracket comprising a side wall and a mounting member adjacent to the side wall , the mounting member configured to be inserted into a hole of the post ; and characterized by : a fastening member comprising a side part pivoted to the bracket , a fastening part bent relative to the side part , and a blocking feature arranged on the side part and adjacent to a bending position between the side part and the fastening part , wherein the blocking feature is a protrusion; a bracket comprising a side wall and a mounting member adjacent to the side wall , the mounting member configured to be inserted into a hole of the post ; and characterized by : a fastening member comprising a side part pivoted to the bracket , a fastening part bent relative to the side part , and a blocking feature arranged on the side part and adjacent to a bending position between the side part and the fastening part , wherein the blocking feature is a protrusion; wherein when the mounting member is inserted to the hole of the post in order to mount the slide rail assembly to the post , the fastening part of the fastening member is configured to lock the post ; wherein when the slide rail assembly is moved by a force, the blocking feature is configured to abut against the post in order to prevent the mounting member from being detached from the hole of the post .
A compound represented by the structure of formula (I): wherein A is R 1 is independently at each occurrence a halogen, OH, or N(R) 2 wherein each R is independently H or a C 1 -C 6 alkyl; R 2 is COOH, OH, N(R) 2 or a linear or branched C 1 -C 6 alkyl substituted with at least one group selected from the group consisting of COOH, halogen, OH, and N(R) 2 ; R 3 is H or COOH; R 4 is iodophenyl, tetrahydrofuryl or the side chain of an amino acid selected from the group consisting of tyrosine, 3,4- dihydroxyphenylalanine (DOPA), iodotyrosine, aspartic acid, methionine, threonine, asparagine, glutamine, cysteine, proline, arginine, histidine, lysine, glutamic acid; or R 4 is represented by the structure: wherein R 5 is independently at each occurrence OH, halogen, or N(R) 2 and m is 0, 1, 2, 3 or 4; L 1 and L 2 are each a leaving group selected from bromine and a sulfonate; n is 1, 2, 3 or 4; and salts thereof. A is R 1 is independently at each occurrence a halogen, OH, or N(R) 2 wherein each R is independently H or a C 1 -C 6 alkyl; R 2 is COOH, OH, N(R) 2 or a linear or branched C 1 -C 6 alkyl substituted with at least one group selected from the group consisting of COOH, halogen, OH, and N(R) 2 ; R 3 is H or COOH; R 4 is iodophenyl, tetrahydrofuryl or the side chain of an amino acid selected from the group consisting of tyrosine, 3,4- dihydroxyphenylalanine (DOPA), iodotyrosine, aspartic acid, methionine, threonine, asparagine, glutamine, cysteine, proline, arginine, histidine, lysine, glutamic acid; or R 4 is represented by the structure: wherein R 5 is independently at each occurrence OH, halogen, or N(R) 2 and m is 0, 1, 2, 3 or 4; L 1 and L 2 are each a leaving group selected from bromine and a sulfonate; n is 1, 2, 3 or 4; and salts thereof.
A method of wireless communication comprising: determining , by a user equipment, UE, a first Synchronization Signal Block, SSB, burst set information corresponding to a first physical cell identity, PCI; determining , by the UE, a second SSB burst set information corresponding to a second PCI, the second PCI different from the first PCI; receiving, by the UE, an RRC configuration message, the RRC configuration message indicating that a field of a particular type of message is configured to indicate a SSB index of the second SSB burst set of the second PCI; determining, by the UE, a particular SSB index of the second SSB burst set of the second PCI based on an instance of the particular type of message configured by the RRC configuration message from the second PCI; determining, by the UE, a location and timing of indices of the second SSB burst set to determine the second SSB burst set information, the location and timing of indices of the second SSB determined based on the second PCI, a half frame bit, and a periodicity; and monitoring , by the UE, at least a first SSB from the first SSB burst set and at least a second SSB from the second SSB burst set based on the first SSB burst set information and the second SSB burst set information. determining , by a user equipment, UE, a first Synchronization Signal Block, SSB, burst set information corresponding to a first physical cell identity, PCI; determining , by the UE, a second SSB burst set information corresponding to a second PCI, the second PCI different from the first PCI; receiving, by the UE, an RRC configuration message, the RRC configuration message indicating that a field of a particular type of message is configured to indicate a SSB index of the second SSB burst set of the second PCI; determining, by the UE, a particular SSB index of the second SSB burst set of the second PCI based on an instance of the particular type of message configured by the RRC configuration message from the second PCI; determining, by the UE, a location and timing of indices of the second SSB burst set to determine the second SSB burst set information, the location and timing of indices of the second SSB determined based on the second PCI, a half frame bit, and a periodicity; and monitoring , by the UE, at least a first SSB from the first SSB burst set and at least a second SSB from the second SSB burst set based on the first SSB burst set information and the second SSB burst set information.
Window or door sash , comprising (a) a sash frame formed from sections of a hollow chamber profile , which has a rebate area and a hollow reinforcement chamber ; (b) a reinforcement element received in the hollow reinforcement chamber ; (c) a facing shell connected to the hollow chamber profile ; (d) a surface element accommodated in the rebate area , which is preferably formed as insulating glazing ; and (e) a connecting element arranged in the rebate area and connected to the reinforcement element , which is connected to the facing shell , characterised in that the connection between the connecting element and the reinforcement element and the connection between the connecting element and the facing shell is achieved by means of a fastening means . (a) a sash frame formed from sections of a hollow chamber profile , which has a rebate area and a hollow reinforcement chamber ; (b) a reinforcement element received in the hollow reinforcement chamber ; (c) a facing shell connected to the hollow chamber profile ; (d) a surface element accommodated in the rebate area , which is preferably formed as insulating glazing ; and (e) a connecting element arranged in the rebate area and connected to the reinforcement element , which is connected to the facing shell ,