mhurhangee/patent-ind-claim-en huggingface dataset:
A skin substitute comprising, in a suspension, (i) epithelial cells; and (ii) hair follicle dermal cells derived from a temporal region of the scalp. (i) epithelial cells; and (ii) hair follicle dermal cells derived from a temporal region of the scalp.
Method for forming a defined surface roughness (OR) in a region (B) of a component which is to be produced or is produced additively, comprising the setting of an irradiation parameter (P, v) and/or of an irradiation pattern (KBV, FBV) such that a component material in the region (B) below a surface of the component is provided with a certain porosity (PM), characterized in that , to form the defined surface roughness (OR) in the region (B), an irradiation power (P), for example a laser power, and a scanning speed (v) are set in accordance with an expected surface roughness (OR), and in that , to form the defined surface roughness (OR) in the region (B), a low irradiation power (P) and a high scanning speed (v) are set, and in that the low irradiation power is at the lower bound of the irradiation power range between 100 W and 500 W, and in that the high scanning speed is at the upper bound of the scanning speed range between 100 mm/s and 1000 mm/s such that the component material is provided with the porosity (PM) in a depth (T) of less than 500 μm below the surface.
A gas detector configured to detect multiple gases, the gas detector comprising: a plurality of sensors configured to detect a plurality of gases and conditions; and a user interface comprising a display configured to display information received from the plurality of sensors , wherein: when the gas detector is in normal operating mode, the display includes information for more than one of the plurality of sensors ; and when the gas detector is in an alarm or alert mode, the display changes to an alarm screen that includes only the alarm information, wherein the alarm screen includes the type of alarm and the current reading for that sensor. a plurality of sensors configured to detect a plurality of gases and conditions; and a user interface comprising a display configured to display information received from the plurality of sensors , when the gas detector is in normal operating mode, the display includes information for more than one of the plurality of sensors ; and when the gas detector is in an alarm or alert mode, the display changes to an alarm screen that includes only the alarm information, wherein the alarm screen includes the type of alarm and the current reading for that sensor.
A system for treating an occluded vessel, comprising: an orienting device including an elongate shaft having an outer wall defining a central lumen , an orienting element that is coupled to the elongate shaft , and a first aperture defined by the outer wall ; and a re-entry device (180; 280; 380; 480; 580; 680) disposed within the central lumen ; wherein the re-entry device (180; 280; 380; 480; 580; 680) comprises: a shaft (240; 340; 440; 540); a tip member (242; 342; 442; 542; 642) fixed to the shaft (240; 340; 440; 540); a probe (146; 246; 346; 446; 546; 646) extending distally beyond the tip member (242; 342; 442; 542; 642); and a coil (248; 348; 548) extending between the tip member (242; 342; 442; 542; 642) and a tapered segment (252; 352; 552) of the shaft (240; 340; 440; 540). an orienting device including an elongate shaft having an outer wall defining a central lumen , an orienting element that is coupled to the elongate shaft , and a first aperture defined by the outer wall ; and a re-entry device (180; 280; 380; 480; 580; 680) disposed within the central lumen ; wherein the re-entry device (180; 280; 380; 480; 580; 680) comprises: a shaft (240; 340; 440; 540); a tip member (242; 342; 442; 542; 642) fixed to the shaft (240; 340; 440; 540); a probe (146; 246; 346; 446; 546; 646) extending distally beyond the tip member (242; 342; 442; 542; 642); and a coil (248; 348; 548) extending between the tip member (242; 342; 442; 542; 642) and a tapered segment (252; 352; 552) of the shaft (240; 340; 440; 540). a shaft (240; 340; 440; 540); a tip member (242; 342; 442; 542; 642) fixed to the shaft (240; 340; 440; 540); a probe (146; 246; 346; 446; 546; 646) extending distally beyond the tip member (242; 342; 442; 542; 642); and a coil (248; 348; 548) extending between the tip member (242; 342; 442; 542; 642) and a tapered segment (252; 352; 552) of the shaft (240; 340; 440; 540).
A shoe manufacturing system for processing a to-be-bonded surface of a first shoe part before bonding a second shoe part to the first shoe part, the shoe manufacturing system comprising: a holder configured to hold the first shoe part; an imager configured to acquire three-dimensional shape data of the first shoe part held by the holder ; a processing unit configured to process the to-be-bonded surface ; a moving mechanism configured to move the processing unit; and a controller configured to control the moving mechanism based on the three-dimensional shape data acquired by the imager , and controls the processing unit that processes the to-be-bonded surface, wherein the controller is configured to identify a boundary of the to-be-bonded surface of the first shoe part that is to serve as a master model (M) among a plurality of the first shoe parts, for defining an area of the to-be-bonded surface to be processed, based on the three-dimensional shape data of the master model acquired by the imager , and the controller is configured to control the moving mechanism for each of the first shoe parts other than the master model, to enable the processing unit to process the area of the to-be-bonded surface enclosed by the identified boundary, wherein the imager is configured to acquire three-dimensional shape data of each of the first shoe parts other than the master model (M), and the controller is configured to correct a position where the to-be-bonded surface is to be processed, based on a comparison between the three-dimensional shape data of the master model (M) and the three-dimensional shape data of each of the first shoe parts. a holder configured to hold the first shoe part; an imager configured to acquire three-dimensional shape data of the first shoe part held by the holder ; a processing unit configured to process the to-be-bonded surface ; a moving mechanism configured to move the processing unit; and a controller configured to control the moving mechanism based on the three-dimensional shape data acquired by the imager , and controls the processing unit that processes the to-be-bonded surface, wherein the controller is configured to identify a boundary of the to-be-bonded surface of the first shoe part that is to serve as a master model (M) among a plurality of the first shoe parts, for defining an area of the to-be-bonded surface to be processed, based on the three-dimensional shape data of the master model acquired by the imager , and the controller is configured to control the moving mechanism for each of the first shoe parts other than the master model, to enable the processing unit to process the area of the to-be-bonded surface enclosed by the identified boundary, wherein the imager is configured to acquire three-dimensional shape data of each of the first shoe parts other than the master model (M), and the controller is configured to correct a position where the to-be-bonded surface is to be processed, based on a comparison between the three-dimensional shape data of the master model (M) and the three-dimensional shape data of each of the first shoe parts.
A two-wheeled vehicle, wherein said two-wheeled vehicle comprising : a rear portion, said rear portion comprising a seat assembly ; a utility box disposed below said seat assembly and behind a cover front ; and a power unit disposed below said utility box , said power unit locked to said utility box with a power unit locking apparatus , characterised in that a bottom surface of said utility box forms an access means for inserting said power unit locking apparatus . a utility box disposed below said seat assembly and behind a cover front ; and a power unit disposed below said utility box , said power unit locked to said utility box with a power unit locking apparatus , characterised in that a bottom surface of said utility box forms an access means for inserting said power unit locking apparatus .
A method performed by a first user equipment, the method comprising: receiving a second control information message from a second user equipment over sidelink communication, wherein the second control information message is in response to the second user equipment receiving one or more data processes scheduled by a first control information message from the first user equipment; determining a time offset for hybrid automatic repeat request, HARQ, feedback information for the sidelink communication, wherein the time offset is (pre-)configured per sidelink resource pool; generating an indicator of the determined time offset; and transmitting the indicator of the determined time offset to the second user equipment in a third control information message. receiving a second control information message from a second user equipment over sidelink communication, wherein the second control information message is in response to the second user equipment receiving one or more data processes scheduled by a first control information message from the first user equipment; determining a time offset for hybrid automatic repeat request, HARQ, feedback information for the sidelink communication, wherein the time offset is (pre-)configured per sidelink resource pool; generating an indicator of the determined time offset; and transmitting the indicator of the determined time offset to the second user equipment in a third control information message.
An apparatus for providing enhanced autopilot mode awareness for a pilot of an aircraft, comprising: an autopilot control interface that allows the pilot to activate an operational mode of an autopilot system for the aircraft and to set aviation function parameters of the autopilot system, the aviation function parameters including navigation (NAV) and approach (APR) parameters; and an autopilot status interface that displays: the operational mode of the autopilot system, a current status of navigation (NAV) and approach (APR) parameters that are controlled by the autopilot system and shown on a navigation (NAV) display and an approach (APR) display, respectively, any deviation between selected and actual NAV and APR parameters as shown on either the NAV display or the APR display, respectively, a source indicator for navigational data, and an indicator of anticipated actions by the autopilot system to control the aviation function parameters. an autopilot control interface that allows the pilot to activate an operational mode of an autopilot system for the aircraft and to set aviation function parameters of the autopilot system, the aviation function parameters including navigation (NAV) and approach (APR) parameters; and an autopilot status interface that displays: the operational mode of the autopilot system, a current status of navigation (NAV) and approach (APR) parameters that are controlled by the autopilot system and shown on a navigation (NAV) display and an approach (APR) display, respectively, any deviation between selected and actual NAV and APR parameters as shown on either the NAV display or the APR display, respectively, a source indicator for navigational data, and an indicator of anticipated actions by the autopilot system to control the aviation function parameters. the operational mode of the autopilot system, a current status of navigation (NAV) and approach (APR) parameters that are controlled by the autopilot system and shown on a navigation (NAV) display and an approach (APR) display, respectively, any deviation between selected and actual NAV and APR parameters as shown on either the NAV display or the APR display, respectively, a source indicator for navigational data, and an indicator of anticipated actions by the autopilot system to control the aviation function parameters.
A method for setting up a concrete formwork, comprising a formwork element including a formwork shell , the formwork shell including a tie hole for leading through a tie rod which is used for a tension-resistant connection of the formwork element to a further formwork element set up at a distance opposite thereof, a tie rod being placed through the tie hole in the formwork shell from a rear side so as to protrude on the front side and the rear side of the formwork shell , a tubular or annular, elastic and/or plastic sealing element being disposed on the tie rod in a longitudinally displaceable manner, the largest diameter thereof being greater than a diameter of the tie hole in the formwork shell , the sealing element , together with the tie rod , passing through the tie hole in the formwork shell so as to reach the front side of the formwork shell , the sealing element being elastically compressed when passing through the tie hole in the formwork shell , and the largest diameter thereof, after passing through the tie hole in the formwork shell , elastically expanding to a diameter that is greater than the diameter of the tie hole in the formwork shell , characterized in that , on the rear side of the sealing element , a sliding tube , a ring, or a disk is disposed on the tie rod , which has an outside diameter that is not greater than a diameter of the tie hole in the formwork shell and by way of which the sealing element is pushed through the tie hole in the formwork shell .
An airborne redirection unit (ARU) , for deflecting an RF energy beam, the ARU comprising: a dome shaped canopy comprising a surface for slowing the rate of descent of the ARU; an active beam director suspended from the dome shaped canopy by lines ; wherein the dome shaped canopy comprises an array of beam shaping elements comprising an array of concentric conductive rings adapted to focus the RF energy beam by diffraction onto the active beam director; and wherein the active beam director comprises a reflecting and collimating element mounted on a steerable gimbal; and wherein the active beam director is configured to reflect the RF energy beam towards a target. a dome shaped canopy comprising a surface for slowing the rate of descent of the ARU; an active beam director suspended from the dome shaped canopy by lines ; wherein the dome shaped canopy comprises an array of beam shaping elements comprising an array of concentric conductive rings adapted to focus the RF energy beam by diffraction onto the active beam director; and wherein the active beam director comprises a reflecting and collimating element mounted on a steerable gimbal; and wherein the active beam director is configured to reflect the RF energy beam towards a target.
A photocatalytic composition comprising a photocatalyst and a co-catalyst, wherein the photocatalyst comprises a tungsten oxide, wherein the co-catalyst comprises a cerium oxide and wherein the molar ratio of the photocatalyst:co-catalyst in the photocatalytic composition is 1:5 to 5:1.
A cable ladder , comprising two coplanar side rails joined to one another by a plurality of crosspieces spaced from one another, said plurality of crosspieces constituting a discontinuous support surface for cables, in which each of said crosspieces is a profile made of a polymeric material and each of said side rails is a profile made of a polymeric material, and wherein the ends of said crosspieces fit in an inner side of said side rails facing an inner side of an opposite side rail , characterized in that it comprises at least one joining piece , wherein an end of one of said crosspieces is joined by fitting through said joining piece to another element of said cable ladder from among those of a group formed by said side rails and said crosspieces , said joining piece being molded from polymeric material and comprising a first side , formed for snap fitting in said end of the crosspiece which is joined by fitting through said joining piece to said element of said cable ladder , and a second side formed for snap fitting in said other element of the cable ladder .
Pharmaceutical composition made of at least one preparation, wherein the preparation comprises: tolerogenic liposomes tailored for effective phagocytosis and loaded with at least one maturation inhibitor of dendritic cells (DCs) selected from a) calcipotriol, b) glucocorticoids, and c) antisense oligonucleotides capable of gene silencing of different pro-inflammatory molecules including CD40, CD80, and CD86 and at least one antigen or allergen or peptide derived thereof selected from ovalbumin (OVA), methylated BSA (mBSA), or the myelin oligodendrocyte glycoprotein (MOG)-derived peptide 35-55 (MOG(35-55), at least one immune modulator of phagocytosis selected from the nucleotides ATP and UTP, wherein at least said liposomes are embedded in a matrix suitable for locally restricted sustained release of therapeutically effective doses of said liposomes selected from PLGA-PEG-PLGA triblock copolymers. tolerogenic liposomes tailored for effective phagocytosis and loaded with at least one maturation inhibitor of dendritic cells (DCs) selected from a) calcipotriol, b) glucocorticoids, and c) antisense oligonucleotides capable of gene silencing of different pro-inflammatory molecules including CD40, CD80, and CD86 and at least one antigen or allergen or peptide derived thereof selected from ovalbumin (OVA), methylated BSA (mBSA), or the myelin oligodendrocyte glycoprotein (MOG)-derived peptide 35-55 (MOG(35-55), at least one immune modulator of phagocytosis selected from the nucleotides ATP and UTP, wherein at least said liposomes are embedded in a matrix suitable for locally restricted sustained release of therapeutically effective doses of said liposomes selected from PLGA-PEG-PLGA triblock copolymers.
Variable valve drive device for actuating at least one gas exchange valve of an internal combustion engine, comprising a camshaft which is mounted such as to be rotatable about an axis of rotation , said camshaft having at least one cam element which is adjustable by way of an adjusting device , wherein the cam element is mounted such as to be pivotable about a pivot axis between at least a folded-in first position (A) and a folded-out second position (B), said pivot axis extending parallel to the axis of rotation and being arranged at a first distance (a) therefrom on the camshaft , and wherein the adjustable cam element , in the direction of the axis of rotation of the camshaft , is arranged adjacent to at least one base cam which is rigidly connected to the camshaft , wherein the adjusting device comprises at least one push rod which is arranged such as to be displaceable within the camshaft between at least a first push position (A1) and a second push position (B1), wherein the push rod has at least one stop surface for the cam element , said stop surface preferably being formed parallel to the axis of rotation of the camshaft , and at least one ramp surface which is formed at least in part inclined relative to the axis of rotation of the camshaft , characterised in that the cam element has a mating ramp surface which cooperates with the ramp surface of the push rod and which is formed at least in part inclined relative to the axis of rotation of the camshaft , wherein the ramp surface is arranged on an end face of the push rod .
A method of treating a substrate, comprising: - exposing the substrate to an aqueous solution; - drying the substrate; and - curing the substrate to form a treated substrate; wherein the substrate is a textile including polyester, and wherein the aqueous solution comprises from 0.01 to less than 10 wt% of an inhibitor agent which is a polysaccharide comprising trehalose or a trehalose derivative. - exposing the substrate to an aqueous solution; - drying the substrate; and - curing the substrate to form a treated substrate;
A hydrocracking catalyst comprising: a. from 0.5 to 10 wt% zeolite beta having an OD acidity of 20 to 400 μmol/g and an average domain size from 800 to 1500 nm 2 ; b. from 0 to 5 wt% zeolite USY having an ASDI between 0.05 and 0.12; wherein a wt% of the zeolite beta is greater than the wt% of the zeolite USY; c. a catalyst support; and d. at least one metal selected from the group consisting of elements from Group 6 and Groups 8 through 10 of the Periodic Table wherein the hydrocracking catalyst has a weight ratio of the zeolite USY to the zeolite beta from 0.01 to 0.90. a. from 0.5 to 10 wt% zeolite beta having an OD acidity of 20 to 400 μmol/g and an average domain size from 800 to 1500 nm 2 ; b. from 0 to 5 wt% zeolite USY having an ASDI between 0.05 and 0.12; wherein a wt% of the zeolite beta is greater than the wt% of the zeolite USY; c. a catalyst support; and d. at least one metal selected from the group consisting of elements from Group 6 and Groups 8 through 10 of the Periodic Table wherein the hydrocracking catalyst has a weight ratio of the zeolite USY to the zeolite beta from 0.01 to 0.90.
A writing instrument comprising: a pen point retaining member; a pen point that comprises a ball and a ball holding portion that rotatably holds the ball, and is attached to a first end of the pen point retaining member; and an ink tank that is releasably attached to a second end of the pen point retaining member, the ink tank accommodating a water-based ink, wherein a carbonaceous film is formed on at least one of a surface of the ball or a contact portion of the ball holding portion with the ball, characterized in that the carbonaceous film comprises carbon and oxygen bound to the carbon, wherein a proportion of a bond containing oxygen to the total bonded carbon contained in the carbonaceous film is 0.1 or more and 0.5 or less. a pen point retaining member; a pen point that comprises a ball and a ball holding portion that rotatably holds the ball, and is attached to a first end of the pen point retaining member; and an ink tank that is releasably attached to a second end of the pen point retaining member, the ink tank accommodating a water-based ink, wherein a carbonaceous film is formed on at least one of a surface of the ball or a contact portion of the ball holding portion with the ball, characterized in that the carbonaceous film comprises carbon and oxygen bound to the carbon, wherein a proportion of a bond containing oxygen to the total bonded carbon contained in the carbonaceous film is 0.1 or more and 0.5 or less.