mhurhangee/patent-ind-claim-en huggingface dataset:
A composition comprising: i) a delivery vehicle substrate selected from the group consisting of scaffolding, matrix, particle and fiber; and ii) a micro-aggregate multi-cellular functional unit obtained by: a) processing an isolated living mammalian skin tissue by separating fat and hypodermal elements from the isolated living mammalian skin tissue to prepare an excised mammalian tissue; and b) sectioning the excised mammalian tissue to generate a micro-aggregate multi-cellular functional unit capable of regenerating skin tissue that includes a sectioned epidermal compartment, a sectioned dermal compartment, and a sectioned follicular compartment comprising living LGR-expressing cells. i) a delivery vehicle substrate selected from the group consisting of scaffolding, matrix, particle and fiber; and ii) a micro-aggregate multi-cellular functional unit obtained by: a) processing an isolated living mammalian skin tissue by separating fat and hypodermal elements from the isolated living mammalian skin tissue to prepare an excised mammalian tissue; and b) sectioning the excised mammalian tissue to generate a micro-aggregate multi-cellular functional unit capable of regenerating skin tissue that includes a sectioned epidermal compartment, a sectioned dermal compartment, and a sectioned follicular compartment comprising living LGR-expressing cells. a) processing an isolated living mammalian skin tissue by separating fat and hypodermal elements from the isolated living mammalian skin tissue to prepare an excised mammalian tissue; and b) sectioning the excised mammalian tissue to generate a micro-aggregate multi-cellular functional unit capable of regenerating skin tissue that includes a sectioned epidermal compartment, a sectioned dermal compartment, and a sectioned follicular compartment comprising living LGR-expressing cells.
A robot having a hollow arm (12; 13), at least one linear object , and an installing device , with the hollow arm (12; 13) having a base end portion, with the hollow arm having a hollow extending in an extension direction in which the hollow arm (12; 13) extends, and with the installing device comprising: a connection member which is disposed at said base end portion of said hollow arm (12; 13) having said hollow and to which the at least one linear object passing through the hollow is connected; and a linear motion support supporting the connection member slidably in the extension direction relative to the hollow arm, wherein a leading end portion of the hollow arm (12; 13) is rotatable about a rotation axis of the hollow arm (12; 13) extending in the extension direction, wherein the linear object is a hose or a cable, and characterised in that the connection member comprises a rotatable support supporting the linear object rotatably about an axis parallel to the rotation axis. a connection member which is disposed at said base end portion of said hollow arm (12; 13) having said hollow and to which the at least one linear object passing through the hollow is connected; and a linear motion support supporting the connection member slidably in the extension direction relative to the hollow arm, wherein a leading end portion of the hollow arm (12; 13) is rotatable about a rotation axis of the hollow arm (12; 13) extending in the extension direction, wherein the linear object is a hose or a cable, and characterised in that the connection member comprises a rotatable support supporting the linear object rotatably about an axis parallel to the rotation axis.
A monitoring device comprising: a front data acquisition unit configured to acquire, via a sensor installed in a front of a mobile object , data around its front area with respect to its traveling direction and viewed from the mobile object and to acquire status information of the mobile object ; a rear data acquisition unit configured to acquire, via a sensor installed in a rear of the mobile object , data around its rear area with respect to the traveling direction and viewed from the mobile object and to acquire status information of the mobile object ; characterized by further comprising a position identification unit configured to identify, as positions corresponding to the data acquired by the sensors, a position of the data around the front area and a position of the data around the rear area; and an object detection unit configured to compare the data around the front area with the data around the rear area of the same position as the data around the front area, to detect an object dropped off the mobile object or an obstacle at a station which is provided with platform doors if there is a difference between the compared data, and to warn of an anomaly when the object is detected. a front data acquisition unit configured to acquire, via a sensor installed in a front of a mobile object , data around its front area with respect to its traveling direction and viewed from the mobile object and to acquire status information of the mobile object ; a rear data acquisition unit configured to acquire, via a sensor installed in a rear of the mobile object , data around its rear area with respect to the traveling direction and viewed from the mobile object and to acquire status information of the mobile object ; characterized by further comprising a position identification unit configured to identify, as positions corresponding to the data acquired by the sensors, a position of the data around the front area and a position of the data around the rear area; and an object detection unit configured to compare the data around the front area with the data around the rear area of the same position as the data around the front area, to detect an object dropped off the mobile object or an obstacle at a station which is provided with platform doors if there is a difference between the compared data, and to warn of an anomaly when the object is detected.
Method for locating a problem in a system , in which a mobile carrier having a camera records high-resolution images of the system , the high-resolution images are stored in the mobile carrier and image information obtained from the high-resolution images through compression to form low-resolution images is transmitted wirelessly to a ground-based server , characterized in that the problem is identified on the basis of the image information sent to the server , a signal is triggered by the identification and sent to the mobile carrier , where it triggers a high-resolution image of the problem , stored in the mobile carrier , and geographical coordinates of the mobile carrier being sent to the server .
Burner for a gas-heated cooking appliance , with a cover , a nozzle , a pipe for mixing burnable gas with primary air and a deflecting element which is arranged in the interior space bounded by the pipe , wherein one end of the pipe points towards the nozzle and its other end points towards the cover , characterised in that the deflecting element is arranged between and including a centre of the pipe in respect of a longitudinal direction thereof and the one end that points towards the nozzle , and wherein the deflecting element has at least one piece of wire .
A non-fibrous film, which is prepared by a method, wherein the method comprises: (a) preparing a mixture solution, a solute of which comprises: a collagen and a polyester polymer, wherein a content of the polyester polymer in the non-fibrous film is 1-60 wt%, and a solvent of which comprises a perfluorocarbon solvent; and (b) drying the mixture solution in a fume hood to form a film, wherein the film has a swelling rate of 1-200 μm/hour or a swelling proportion per unit time of 0.1-2%/hour in an aqueous liquid. wherein the method comprises: (a) preparing a mixture solution, a solute of which comprises: a collagen and a polyester polymer, wherein a content of the polyester polymer in the non-fibrous film is 1-60 wt%, and a solvent of which comprises a perfluorocarbon solvent; and (b) drying the mixture solution in a fume hood to form a film, (a) preparing a mixture solution, a solute of which comprises: a collagen and a polyester polymer, wherein a content of the polyester polymer in the non-fibrous film is 1-60 wt%, and a solvent of which comprises a perfluorocarbon solvent; and a collagen and a polyester polymer, wherein a content of the polyester polymer in the non-fibrous film is 1-60 wt%, and a solvent of which comprises a perfluorocarbon solvent; and (b) drying the mixture solution in a fume hood to form a film, wherein the film has a swelling rate of 1-200 μm/hour or a swelling proportion per unit time of 0.1-2%/hour in an aqueous liquid.
A printer management system comprising: one or more 3D printing devices each comprising a 3-dimensional printing region for printing according to a digital file; an opening through which a user may access the printing region; a moveable panel adapted to cover the opening when disposed in a closed position; a locking mechanism configured to lock the moveable panel in the closed position thereby preventing the user from accessing the printing region through the opening; and a management server communicatively coupled to each of the one or more printing devices over a communications network, wherein the management server is configured to receive a print request from one or more user devices or one of the one or more printing devices to print the digital file, transmit the digital file to a selected one of the one or more printing devices, and transmit commands to lock and unlock the locking mechanism of the one or more printing devices to the respective one or more printing devices. one or more 3D printing devices each comprising a 3-dimensional printing region for printing according to a digital file; an opening through which a user may access the printing region; a moveable panel adapted to cover the opening when disposed in a closed position; a locking mechanism configured to lock the moveable panel in the closed position thereby preventing the user from accessing the printing region through the opening; and a 3-dimensional printing region for printing according to a digital file; an opening through which a user may access the printing region; a moveable panel adapted to cover the opening when disposed in a closed position; a locking mechanism configured to lock the moveable panel in the closed position thereby preventing the user from accessing the printing region through the opening; and a management server communicatively coupled to each of the one or more printing devices over a communications network, wherein the management server is configured to receive a print request from one or more user devices or one of the one or more printing devices to print the digital file, transmit the digital file to a selected one of the one or more printing devices, and transmit commands to lock and unlock the locking mechanism of the one or more printing devices to the respective one or more printing devices. receive a print request from one or more user devices or one of the one or more printing devices to print the digital file, transmit the digital file to a selected one of the one or more printing devices, and transmit commands to lock and unlock the locking mechanism of the one or more printing devices to the respective one or more printing devices.
A downhole artificial lift system , comprising: a production string locatable within a wellbore for communicating a production fluid from a downhole location towards surface; a pump arrangement in communication with the production string for pumping the production fluid within the production string towards surface; and a gas lift arrangement mounted to a gas lift tubing string deployed within the production string for delivering a lift gas into the production string , wherein a tubing annulus is defined between the gas lift tubing string and the production string . a production string locatable within a wellbore for communicating a production fluid from a downhole location towards surface; a pump arrangement in communication with the production string for pumping the production fluid within the production string towards surface; and a gas lift arrangement mounted to a gas lift tubing string deployed within the production string for delivering a lift gas into the production string , wherein a tubing annulus is defined between the gas lift tubing string and the production string .
A fuel cell comprising: a membrane-electrode assembly having a first surface and a second surface opposite to the first surface, wherein an anode electrode and a cathode electrode are each disposed on the first surface; an end plate disposed apart at a predetermined interval on the second surface; a first gas diffusion layer disposed on the anode electrode ; a second gas diffusion layer disposed on the cathode electrode ; a first separating plate disposed on the first gas diffusion layer and having a plurality of flow channels; and a second separating plate disposed on the second gas diffusion layer and having a plurality of flow channels, wherein a predetermined space portion (S) is formed between the end plate and the second surface of the membrane-electrode assembly by a gasket for preventing leakage of cooling water, where the second surface of the membrane-electrode assembly is exposed to the space portion (S), and wherein cooling water is supplied to the space portion (S) between the end plate and the second surface of the membrane-electrode assembly . a membrane-electrode assembly having a first surface and a second surface opposite to the first surface, wherein an anode electrode and a cathode electrode are each disposed on the first surface; an end plate disposed apart at a predetermined interval on the second surface; a first gas diffusion layer disposed on the anode electrode ; a second gas diffusion layer disposed on the cathode electrode ; a first separating plate disposed on the first gas diffusion layer and having a plurality of flow channels; and a second separating plate disposed on the second gas diffusion layer and having a plurality of flow channels, wherein a predetermined space portion (S) is formed between the end plate and the second surface of the membrane-electrode assembly by a gasket for preventing leakage of cooling water, where the second surface of the membrane-electrode assembly is exposed to the space portion (S), and wherein cooling water is supplied to the space portion (S) between the end plate and the second surface of the membrane-electrode assembly .
A device for a distributed antenna system , DAS, the device comprising: downlink DAS circuitry configured to transmit a downlink signal carrying communications received by the DAS from one or more wireless communication system base stations in a downlink direction towards at least one antenna of the DAS ; uplink DAS circuitry configured to transmit an uplink signal carrying communications received from the at least one antenna in an uplink direction towards the one or more wireless communication system base stations ; and a controller configured to communicate with a first operator control panel via a cable ; wherein the controller is configured to synchronize status and setting information, SSI, changes between the first operator control panel and a second operator control panel via signals communicated over the DAS with at least one of the downlink signal and the uplink signal. downlink DAS circuitry configured to transmit a downlink signal carrying communications received by the DAS from one or more wireless communication system base stations in a downlink direction towards at least one antenna of the DAS ; uplink DAS circuitry configured to transmit an uplink signal carrying communications received from the at least one antenna in an uplink direction towards the one or more wireless communication system base stations ; and a controller configured to communicate with a first operator control panel via a cable ; wherein the controller is configured to synchronize status and setting information, SSI, changes between the first operator control panel and a second operator control panel via signals communicated over the DAS with at least one of the downlink signal and the uplink signal.
A turbine ring assembly comprising a plurality of ring sectors (1b; 1c) made of ceramic matrix composite material forming a turbine ring, and also a ring support structure , each ring sector (1b; 1c) having a portion forming an annular base with an inner face defining the inside space of the turbine ring and an outer face from which an attachment portion (19a; 19b; 29a; 29b) of the ring sector to the ring support structure extends, the ring support structure comprising two annular flanges (21a; 21b; 31a; 31b; 50) between which the attachment portion of each ring sector is held, each of the annular flanges of the ring support structure presenting at least one sloping portion(12a; 12b; 13a; 13b) bearing against the attachment portions of the ring sectors, said sloping portion, when observed in meridian section, forming a non-zero angle relative to the radial direction (R) and relative to the axial direction (A), characterized in that the attachment portions (19a; 19b; 29a; 29b) of the ring sectors (1b; 1c) are held to the ring support structure by axial portions (16a; 16b) each extending parallel to the axial direction, these axial portions being formed by a plurality of fitted elements engaged without clearance when cold through the annular flanges.
A vehicle comprising: a longitudinal engine that has plural cylinders and is installed such that the plural cylinders are arrayed in a vehicle front-rear direction; a motor that is arranged in rear with respect to the longitudinal engine in the vehicle front-rear direction and is capable of generating a driving force for vehicle traveling; a transmission that has a transmission mechanism and a transmission casing housing the transmission mechanism and is coupled with the motor ; and an inverter that converts input direct-current electric power to alternating-current electric power and outputs the alternating-current electric power to the motor , wherein a floor tunnel bulging toward an inside of a vehicle cabin and extending in the vehicle front-rear direction is formed in a floor panel of the vehicle , the transmission is arranged in and/or below the floor tunnel , and the transmission further has an oil pan that is mounted on a lower portion of the transmission casing and is for storing hydraulic oil, characterized in that, the inverter is mounted in and/or below the floor tunnel and on an upper portion of the transmission casing , the transmission is adjacently arranged in rear with respect to the motor in the vehicle front-rear direction, and the transmission casing is interposed between the inverter being mounted on the upper portion of the transmission casing and the oil pan being mounted on the lower portion of the transmission casing . a longitudinal engine that has plural cylinders and is installed such that the plural cylinders are arrayed in a vehicle front-rear direction; a motor that is arranged in rear with respect to the longitudinal engine in the vehicle front-rear direction and is capable of generating a driving force for vehicle traveling; a transmission that has a transmission mechanism and a transmission casing housing the transmission mechanism and is coupled with the motor ; and an inverter that converts input direct-current electric power to alternating-current electric power and outputs the alternating-current electric power to the motor , wherein a floor tunnel bulging toward an inside of a vehicle cabin and extending in the vehicle front-rear direction is formed in a floor panel of the vehicle , the transmission is arranged in and/or below the floor tunnel , and the transmission further has an oil pan that is mounted on a lower portion of the transmission casing and is for storing hydraulic oil, characterized in that, the inverter is mounted in and/or below the floor tunnel and on an upper portion of the transmission casing , the transmission is adjacently arranged in rear with respect to the motor in the vehicle front-rear direction, and the transmission casing is interposed between the inverter being mounted on the upper portion of the transmission casing and the oil pan being mounted on the lower portion of the transmission casing .
Process for manufacturing granules or powders, said process comprising the steps of (a) providing an aqueous solution or slurry of (A) at least one chelating agent according to general formula (I a) [CH 3 -CH(COO)-N(CH 2 -COO) 2 ]M 3-x H x (I a) wherein M is selected from alkali metal cations and ammonium, same or different, and x is in the range of from 0.01 to 1.0, or (I b) [OOC-CH 2 CH 2 -CH(COO)-N(CH 2 -COO) 2 ]M 4-x H x (I b) wherein M is as defined above, and x in formula (I b) is in the range of from 0.01 to 2.0, and (B) at least one polymer selected from (B1) polyaspartates with an average molecular weight M w in the range of from 1,000 to 20,000 g/mole, and (B2) copolymers comprising, in copolymerized form, (α) at least one ester of an ethylenically unsaturated mono- or dicarboxylic acid, and (β) at least one ethylenically unsaturated N-containing monomer, and (b) spray drying or granulating said solution or slurry, wherein granules have an average particle diameter (D50) in the range of from 0.1 mm to 2 mm and powders have an average particle diameter from 1 μm to less than 0.1 mm. (a) providing an aqueous solution or slurry of (A) at least one chelating agent according to general formula (I a) [CH 3 -CH(COO)-N(CH 2 -COO) 2 ]M 3-x H x (I a) wherein M is selected from alkali metal cations and ammonium, same or different, and x is in the range of from 0.01 to 1.0, or (I b) [OOC-CH 2 CH 2 -CH(COO)-N(CH 2 -COO) 2 ]M 4-x H x (I b) wherein M is as defined above, and x in formula (I b) is in the range of from 0.01 to 2.0, and (B) at least one polymer selected from (B1) polyaspartates with an average molecular weight M w in the range of from 1,000 to 20,000 g/mole, and (B2) copolymers comprising, in copolymerized form, (α) at least one ester of an ethylenically unsaturated mono- or dicarboxylic acid, and (β) at least one ethylenically unsaturated N-containing monomer, and (A) at least one chelating agent according to general formula (I a) [CH 3 -CH(COO)-N(CH 2 -COO) 2 ]M 3-x H x (I a) wherein M is selected from alkali metal cations and ammonium, same or different, and x is in the range of from 0.01 to 1.0, or (I b) [OOC-CH 2 CH 2 -CH(COO)-N(CH 2 -COO) 2 ]M 4-x H x (I b) wherein M is as defined above, and x in formula (I b) is in the range of from 0.01 to 2.0, and (B) at least one polymer selected from (B1) polyaspartates with an average molecular weight M w in the range of from 1,000 to 20,000 g/mole, and (B2) copolymers comprising, in copolymerized form, (α) at least one ester of an ethylenically unsaturated mono- or dicarboxylic acid, and (β) at least one ethylenically unsaturated N-containing monomer, and (B1) polyaspartates with an average molecular weight M w in the range of from 1,000 to 20,000 g/mole, and (B2) copolymers comprising, in copolymerized form, (α) at least one ester of an ethylenically unsaturated mono- or dicarboxylic acid, and (β) at least one ethylenically unsaturated N-containing monomer, and (α) at least one ester of an ethylenically unsaturated mono- or dicarboxylic acid, and (β) at least one ethylenically unsaturated N-containing monomer, (b) spray drying or granulating said solution or slurry,