mhurhangee/ep-ind-claims huggingface dataset:
A pharmaceutical composition comprising adipose tissue-derived stromal stem cells, for use in treating a fistula in a subject, wherein said adipose tissue-derived stromal stem cells are allogeneic with respect the subject to be treated, and wherein said adipose tissue-derived stromal stem cells are prepared by a method that comprises: (a) collecting adipose tissue from a subject; (b) obtaining a cell suspension by enzymatic digestion; (c) sedimenting the cell suspension and resuspending the cells in a culture medium; (d) culturing of the cells for at least 10 days; and (e) expanding the cells for at least two culture passages.
A loader (32, 78) configured to load one or more ferrules (52; 84A, 84B) into a surgical suturing instrument comprising a tissue bite area; the loader (32, 78) comprising: a head (60, 152) having a protrusion configured to be inserted into and releasably held by the tissue bite area; a tube; a tube interface (72, 160) configured to releasably hold the tube; one or more ferrule holders (62A, 62B; 154) defined by the protrusion; one or more ferrules (52; 84A, 84B), each corresponding to and held by one of the one or more ferrule holders (62A, 62B; 154) and coupled to an end of a suture that leads from the tube; and one or more ferrule-viewing openings (64A, 64B; 156) configured to allow the one or more ferrules (52; 84A, 84B) to be seen in the one or more ferrule holders (62A, 62B; 154). a head (60, 152) having a protrusion configured to be inserted into and releasably held by the tissue bite area; a tube; a tube interface (72, 160) configured to releasably hold the tube; one or more ferrule holders (62A, 62B; 154) defined by the protrusion; one or more ferrules (52; 84A, 84B), each corresponding to and held by one of the one or more ferrule holders (62A, 62B; 154) and coupled to an end of a suture that leads from the tube; and one or more ferrule-viewing openings (64A, 64B; 156) configured to allow the one or more ferrules (52; 84A, 84B) to be seen in the one or more ferrule holders (62A, 62B; 154).
A method for remoting three dimensional graphics, the method comprising: intercepting, by an agent (120, 214), a plurality of three-dimensional graphics commands generated by an application (208, 402) executing on a local computing machine (204, 420); encoding, by the agent (120, 214), a first portion of the plurality of three-dimensional graphics commands with a first codec, the first portion of the plurality of three-dimensional graphics commands comprises one of vertex three-dimensional graphics commands, index three-dimensional graphics commands, and texture three-dimensional graphics commands; encoding, by the agent (120, 214), a second portion of the plurality of three-dimensional graphics commands with a second codec, the second portion of the plurality of three-dimensional graphics commands comprises a different one of the vertex three-dimensional graphics commands, the index three-dimensional graphics commands, and the texture three-dimensional graphics commands than the first portion of the plurality of three-dimensional graphics commands; creating, by the agent (120, 214), a frame comprising the encoded first portion and the encoded second portion of the plurality of three-dimensional graphics commands; compressing the frame by the agent (120, 214); and transmitting, by the agent (120, 214), the frame to a remote computing machine (202, 421). intercepting, by an agent (120, 214), a plurality of three-dimensional graphics commands generated by an application (208, 402) executing on a local computing machine (204, 420); encoding, by the agent (120, 214), a first portion of the plurality of three-dimensional graphics commands with a first codec, the first portion of the plurality of three-dimensional graphics commands comprises one of vertex three-dimensional graphics commands, index three-dimensional graphics commands, and texture three-dimensional graphics commands; encoding, by the agent (120, 214), a second portion of the plurality of three-dimensional graphics commands with a second codec, the second portion of the plurality of three-dimensional graphics commands comprises a different one of the vertex three-dimensional graphics commands, the index three-dimensional graphics commands, and the texture three-dimensional graphics commands than the first portion of the plurality of three-dimensional graphics commands; creating, by the agent (120, 214), a frame comprising the encoded first portion and the encoded second portion of the plurality of three-dimensional graphics commands; compressing the frame by the agent (120, 214); and transmitting, by the agent (120, 214), the frame to a remote computing machine (202, 421).
A flywheel apparatus comprising: a flywheel housing comprising a flywheel housing body; a rotor having a rotor weight and a vertical axis of rotation aligned with gravity, wherein the rotor stores energy while it rotates about the vertical axis of rotation, and wherein the rotor includes a magnetic material; a magnet (170, 1201), connected to the flywheel housing, configured to apply an upward off-loading force along the vertical axis of rotation, which partially counters the force of gravity on the rotor resulting in a net downward force; an upper bearing comprising an inner portion, ball bearings, and an outer portion wherein the inner portion attaches to an upper shaft of the rotor which permits rotation of the rotor about the axis of rotation; and an upper bearing housing, wherein the outer portion connects to the upper bearing housing which in turn attaches to the housing body, wherein the upper bearing is disposed above a force sensor mounted between a lower portion of upper bearing housing and a bottom of outer portion, wherein the upper bearing housing is rigidly connected to the housing body with a lower portion disposed below the bearing outer portion, which acts as a stop to limit downward axial motion by the upper bearing, wherein the upper bearing housing comprises a locking cap disposed above the upper bearing and wherein the inner portion of the upper bearing contacts the locking cap, and wherein the bearing locking cap fits and holds the upper bearing onto the upper shaft. a flywheel housing comprising a flywheel housing body; a rotor having a rotor weight and a vertical axis of rotation aligned with gravity, wherein the rotor stores energy while it rotates about the vertical axis of rotation, and wherein the rotor includes a magnetic material; a magnet (170, 1201), connected to the flywheel housing, configured to apply an upward off-loading force along the vertical axis of rotation, which partially counters the force of gravity on the rotor resulting in a net downward force; an upper bearing comprising an inner portion, ball bearings, and an outer portion wherein the inner portion attaches to an upper shaft of the rotor which permits rotation of the rotor about the axis of rotation; and an upper bearing housing, wherein the outer portion connects to the upper bearing housing which in turn attaches to the housing body, wherein the upper bearing is disposed above a force sensor mounted between a lower portion of upper bearing housing and a bottom of outer portion, wherein the upper bearing housing is rigidly connected to the housing body with a lower portion disposed below the bearing outer portion, which acts as a stop to limit downward axial motion by the upper bearing, wherein the upper bearing housing comprises a locking cap disposed above the upper bearing and wherein the inner portion of the upper bearing contacts the locking cap, and wherein the bearing locking cap fits and holds the upper bearing onto the upper shaft.
Servo assisted actuating system for a multispeed gearbox of a vehicle, comprising a cable connection including a cable, a servo cylinder, a piston slidably disposed in the interior of the servo cylinder and dividing the interior into an inner and an outer chamber, a piston rod connected to the piston and extending through the outer chamber and to the exterior of the servo cylinder, and a control valve to be connected to a pressure fluid source, one end of the cable being connectable to a gear lever and the other end being connected to the control valve to control it to selectively supply pressurized fluid to the inner or outer chamber of the servo cylinder, the piston rod being provided with first mounting means adapted to be mountable to a fixed part of the vehicle structure so as to fix the piston rod against movements along its longitudinal axis with respect to the fixed part of the vehicle structure, the servo cylinder being provided with second mounting means adapted for connecting the servo cylinder to a control rod of the gearbox of the vehicle to move the control rod, characterized in that the cable is extending through a central through hole longitudinally extending through the piston rod and the piston into the inner chamber of the servo cylinder where the cable is connected to an actuating arm which is adapted to transfer longitudinal movements of the cable to the control valve for actuating it, wherein the cable is slideably received in the through hole and sealing means are provided for sealing the through hole with the cable received therein to prevent leakage of pressure fluid from the servo cylinder therethrough.
A method of scheduling uplink and downlink resources on at least one uplink frequency carrier, and at least one downlink frequency carrier, separated by at least one duplex distance, for transmission between at least one base station and at least a first and a second mobile terminal, the method comprising: determining a transmit power of the first mobile terminal for transmitting its uplink resources, determining a transmit power of the second mobile terminal for transmitting its uplink resources, if the transmit power of the first mobile terminal is higher than the transmit power of the second mobile terminal allocating, the uplink and downlink resources to the mobile terminals so that the minimum duplex distance between any uplink carrier and any downlink carrier of the first mobile terminal is larger than the minimum duplex distance between any uplink carrier and any downlink carrier of the second mobile terminal, and if the transmit power of the second mobile terminal is higher than the transmit power of the first mobile terminal allocating, the uplink and downlink resources to the mobile terminals so that the minimum duplex distance between any uplink carrier and any downlink carrier of the second mobile terminal is larger than the minimum duplex distance between any uplink carrier and any downlink carrier of the first mobile terminal characterised in that the method further comprises allocating several uplink frequency carriers and several downlink frequency carriers, where aggregated spectrum on several frequency bands is used, simultaneously to one mobile terminal so that the minimum duplex distance between any uplink carrier and any downlink carrier for one mobile terminal is maximized. determining a transmit power of the first mobile terminal for transmitting its uplink resources, determining a transmit power of the second mobile terminal for transmitting its uplink resources, if the transmit power of the first mobile terminal is higher than the transmit power of the second mobile terminal allocating, the uplink and downlink resources to the mobile terminals so that the minimum duplex distance between any uplink carrier and any downlink carrier of the first mobile terminal is larger than the minimum duplex distance between any uplink carrier and any downlink carrier of the second mobile terminal, and if the transmit power of the second mobile terminal is higher than the transmit power of the first mobile terminal allocating, the uplink and downlink resources to the mobile terminals so that the minimum duplex distance between any uplink carrier and any downlink carrier of the second mobile terminal is larger than the minimum duplex distance between any uplink carrier and any downlink carrier of the first mobile terminal characterised in that
Method for testing objects to be tested during the production or packaging of cigarettes or other smokable products - test objects - during the production process, in which at least one test object is subjected to an optical test, wherein a light-field image of the at least one test object is taken by means of a light-field camera, wherein raw image data representing the image is generated in the process, and wherein pieces of depth information are obtained from the raw image data and are used to test whether the at least one test object is defective, characterized • in that a depth image comprising the pieces of depth information is generated from the raw image data, in which depth image X-Y coordinates of a plane perpendicular to the camera viewing direction are assigned values which represent distances of objects captured by the light-field camera, in particular of the at least one test object, from the camera - distance values, • in that distance values of the at least one test object, in particular distance values of each end face of the cigarettes of the cigarette group, are ascertained from the depth image, • in that, for multiple or each ascertained distance value, a 2D image is generated from the raw image data from the pieces of image information assigned to the respective distance value in the raw image data, wherein the pieces of image information may in each case comprise a greyscale value or a colour value, • and in that the 2D images generated in this way are put together to form a combined 2D evaluation image. • in that a depth image comprising the pieces of depth information is generated from the raw image data, in which depth image X-Y coordinates of a plane perpendicular to the camera viewing direction are assigned values which represent distances of objects captured by the light-field camera, in particular of the at least one test object, from the camera - distance values, • in that distance values of the at least one test object, in particular distance values of each end face of the cigarettes of the cigarette group, are ascertained from the depth image, • in that, for multiple or each ascertained distance value, a 2D image is generated from the raw image data from the pieces of image information assigned to the respective distance value in the raw image data, wherein the pieces of image information may in each case comprise a greyscale value or a colour value, • and in that the 2D images generated in this way are put together to form a combined 2D evaluation image.
A method for wireless communication performed by a user equipment, UE, the method comprising: receiving a radio resource control, RRC, configuration from a base station, BS; determining whether a first parameter is configured in the RRC configuration, the first parameter being the number of Non-Terrestrial Networks, NTN, Hybrid Automatic Repeat Request, HARQ, processes that may be used at most; receiving first downlink control information, DCI, from the BS, the first DCI including a first field indicating a first HARQ process identifier, ID, the first DCI being a DCI format 0-1; determining that a number of bits in the first field is 4 in a case that the first parameter is not configured in the RRC configuration; and determining that the number of bits in the first field is 5 in a case that the first parameter is configured in the RRC configuration. receiving a radio resource control, RRC, configuration from a base station, BS; determining whether a first parameter is configured in the RRC configuration, the first parameter being the number of Non-Terrestrial Networks, NTN, Hybrid Automatic Repeat Request, HARQ, processes that may be used at most; receiving first downlink control information, DCI, from the BS, the first DCI including a first field indicating a first HARQ process identifier, ID, the first DCI being a DCI format 0-1; determining that a number of bits in the first field is 4 in a case that the first parameter is not configured in the RRC configuration; and determining that the number of bits in the first field is 5 in a case that the first parameter is configured in the RRC configuration.
A fuel delivery system constructed and arranged for use with a combustion nailer including a cylinder head frame, said fuel delivery system comprising: a fuel cell with an outer shell having a closed lower end and an open upper end; a closure crimped over said upper end and defining an opening for accommodating a reciprocating valve stem; a fuel cell adapter frictionally engaging said closure and including a flange configured for suspending said fuel cell in said fuel cell chamber; a stem receiver block connectable to the cylinder head frame and including a stem engagement portion configured for directly and sealingly engaging an end of said valve stem, said stem engagement portion being in fluid communication with an internal receiver passage constructed and arranged for delivering fuel to the combustion chamber; characterized in that said fuel cell adapter includes a vertically projecting collar projecting normally from said flange and dimensioned for slidingly accommodating reciprocal movement of said stem engagement portion and configured for protecting said valve stem against breakage. a fuel cell with an outer shell having a closed lower end and an open upper end; a closure crimped over said upper end and defining an opening for accommodating a reciprocating valve stem; a fuel cell adapter frictionally engaging said closure and including a flange configured for suspending said fuel cell in said fuel cell chamber; a stem receiver block connectable to the cylinder head frame and including a stem engagement portion configured for directly and sealingly engaging an end of said valve stem, said stem engagement portion being in fluid communication with an internal receiver passage constructed and arranged for delivering fuel to the combustion chamber; characterized in that said fuel cell adapter includes a vertically projecting collar projecting normally from said flange and dimensioned for slidingly accommodating reciprocal movement of said stem engagement portion and configured for protecting said valve stem against breakage.
A computer-implemented method of tracking a mobile device (4b08) comprising at least one camera in a real environment (4b10), wherein the mobile device (4b08) is a device that is portable by a user, the method comprising: - receiving image information associated with at least one image captured by the at least one camera of a mobile device located within a vehicle, the vehicle being different than the mobile device, - generating a first geometrical model (4b09) of at least part of the real environment (4b10) based on data acquired in an acquisition process by at least one sensor (4b14) of the vehicle (4b11), wherein the vehicle (4b11) is a mobile machine configured to transport one or more persons or cargo, - performing a tracking process based on the image information associated with the at least one image and at least partially according to the first geometrical model (4b09), wherein the tracking process determines at least one parameter of a pose of the mobile device (4b08) relative to the real environment (4b10), - generating a second geometrical model based on received image information associated with at least one further image captured by the at least one camera or received depth information associated with the at least one image, wherein the first geometrical model (4b09) is generated according to one or more provided routes to a destination of the vehicle. - receiving image information associated with at least one image captured by the at least one camera of a mobile device located within a vehicle, the vehicle being different than the mobile device, - generating a first geometrical model (4b09) of at least part of the real environment (4b10) based on data acquired in an acquisition process by at least one sensor (4b14) of the vehicle (4b11), wherein the vehicle (4b11) is a mobile machine configured to transport one or more persons or cargo, - performing a tracking process based on the image information associated with the at least one image and at least partially according to the first geometrical model (4b09), wherein the tracking process determines at least one parameter of a pose of the mobile device (4b08) relative to the real environment (4b10), - generating a second geometrical model based on received image information associated with at least one further image captured by the at least one camera or received depth information associated with the at least one image, wherein the first geometrical model (4b09) is generated according to one or more provided routes to a destination of the vehicle.
A method for operating a grab device comprising a carrier device and a cable grab arranged thereon, which comprises - a grab frame, which is held by a retaining cable on the carrier device, - at least two grab buckets, which are mounted on a lower end of the grab frame, so as to be able to swivel between a closed position and an open position, and - an actuating device with an actuating cable for swivelling the grab buckets, - wherein an actuating cable is guided from the carrier device to the actuating device, and - the carrier device has a driven first cable winch for the retaining cable and a driven second cable winch for the actuating cable, - wherein the carrier device has an undercarriage and an upper carriage, which is mounted thereon for rotation about a vertical axis and has a cantilever arm on which the cable grab is vertically adjustably mounted, wherein - in a removal step, in order to form a trench in the ground, the cable grab is lowered into the ground by the retaining cable with the grab buckets open, - the grab buckets are closed to remove and collect soil material, - the cable grab is pulled out of the ground by the retaining cable and/or the actuating cable and is swiveled into an emptying position, in which the grab buckets are opened to discharge the collected soil material, by rotating the upper carriage, and - then the cable grab is moved back into the ground trench to repeat the removal step, characterized in that a control device is provided with which a rotation of the upper carriage to the emptying position and an opening and closing of the grab buckets to discharge the soil material and/or a rotation of the upper carriage from the emptying position back to the ground trench are controlled automatically. - a grab frame, which is held by a retaining cable on the carrier device, - at least two grab buckets, which are mounted on a lower end of the grab frame, so as to be able to swivel between a closed position and an open position, and - an actuating device with an actuating cable for swivelling the grab buckets, - wherein an actuating cable is guided from the carrier device to the actuating device, and - the carrier device has a driven first cable winch for the retaining cable and a driven second cable winch for the actuating cable, - wherein the carrier device has an undercarriage and an upper carriage, which is mounted thereon for rotation about a vertical axis and has a cantilever arm on which the cable grab is vertically adjustably mounted, wherein - in a removal step, in order to form a trench in the ground, the cable grab is lowered into the ground by the retaining cable with the grab buckets open, - the grab buckets are closed to remove and collect soil material, - the cable grab is pulled out of the ground by the retaining cable and/or the actuating cable and is swiveled into an emptying position, in which the grab buckets are opened to discharge the collected soil material, by rotating the upper carriage, and - then the cable grab is moved back into the ground trench to repeat the removal step,