mhurhangee/ep-ind-claims huggingface dataset:
A method of purifying a pancreatic progenitor cell comprising: (a) exposing a population of cells derived from pluripotent stem cells, induced pluripotent stem cells or embryonic stem cells comprising a pancreatic progenitor cell, to a ligand which binds to a cell surface marker on the pancreatic progenitor cell, wherein the cell surface marker is CD177 and (b) separating the pancreatic progenitor cell from cells derived from pluripotent stem cells, induced pluripotent stem cells or embryonic stem cells which do not bind to the ligand, thereby purifying said pancreatic progenitor cell, wherein the pancreatic progenitor cell is sorted at the stage of the definitive endoderm, the anterior definitive endoderm, the posterior gut tube and/or the ventral foregut. (a) exposing a population of cells derived from pluripotent stem cells, induced pluripotent stem cells or embryonic stem cells comprising a pancreatic progenitor cell, to a ligand which binds to a cell surface marker on the pancreatic progenitor cell, wherein the cell surface marker is CD177 and (b) separating the pancreatic progenitor cell from cells derived from pluripotent stem cells, induced pluripotent stem cells or embryonic stem cells which do not bind to the ligand, thereby purifying said pancreatic progenitor cell,
Automated system (1, 100) configured to assemble or disassemble cutting formations comprising: - a storage (2, 102) provided with at least one equipped wall (3, 103), wherein said equipped wall (3, 103) is configured to support a plurality of circular tools (4, 104), - at least one manipulator robot (5, 105), relatively movable with respect to said at least one equipped wall (3, 103) and configured to take or store one or more of said circular tools (4, 104), - at least one interim system (6, 106) configured to interact with said at least one manipulator robot (5, 105) to sequentially receive or provide single among said circular tools (4, 104), wherein said automated system (1, 100) comprises a guide system (8, 108) for guiding said at least one manipulator robot (5, 105) and said at least one interim system (6, 106) relative to said equipped wall (3, 103), characterised in that said at least one manipulator robot (5, 105) and said at least one interim system (6, 106) are operatively connectable to each other in a selective way to allow the reciprocal exchange of said circular tools (4, 104) during their contemporary movement along said guide system (8, 108). - a storage (2, 102) provided with at least one equipped wall (3, 103), wherein said equipped wall (3, 103) is configured to support a plurality of circular tools (4, 104), - at least one manipulator robot (5, 105), relatively movable with respect to said at least one equipped wall (3, 103) and configured to take or store one or more of said circular tools (4, 104), - at least one interim system (6, 106) configured to interact with said at least one manipulator robot (5, 105) to sequentially receive or provide single among said circular tools (4, 104), wherein said automated system (1, 100) comprises a guide system (8, 108) for guiding said at least one manipulator robot (5, 105) and said at least one interim system (6, 106) relative to said equipped wall (3, 103), characterised in that said at least one manipulator robot (5, 105) and said at least one interim system (6, 106) are operatively connectable to each other in a selective way to allow the reciprocal exchange of said circular tools (4, 104) during their contemporary movement along said guide system (8, 108).
A cleaning bin for a coverage robot, the cleaning bin comprising: a cleaning bin body having a cleaning bin entrance, the cleaning bin body having a holding portion in pneumatic communication with the cleaning bin entrance for receiving debris; an air mover disposed on the cleaning bin body and configured to draw air into the cleaning bin entrance; and a roller scraper disposed on the cleaning bin body for engaging a cleaning roller of a coverage robot; characterized in that the roller scraper is disposed at a lower edge of the cleaning bin entrance, and wherein the roller scraper is arranged above a center of rotation of the driven cleaning roller (1834; 1836). a cleaning bin body having a cleaning bin entrance, the cleaning bin body having a holding portion in pneumatic communication with the cleaning bin entrance for receiving debris; an air mover disposed on the cleaning bin body and configured to draw air into the cleaning bin entrance; and a roller scraper disposed on the cleaning bin body for engaging a cleaning roller of a coverage robot; characterized in that the roller scraper is disposed at a lower edge of the cleaning bin entrance, and wherein the roller scraper is arranged above a center of rotation of the driven cleaning roller (1834; 1836).
A target base station apparatus, comprising: means for receiving a handover request for a mobile station from a serving base station; and means for accepting the handover request at the target base station; and characterized by means for sending towards the mobile station, prior to receiving a handover confirm message from the currently serving base station, information descriptive of a mobile station handover resource allocation for use by the mobile station in a ranging process with the target base station. means for receiving a handover request for a mobile station from a serving base station; and means for accepting the handover request at the target base station; and characterized by means for sending towards the mobile station, prior to receiving a handover confirm message from the currently serving base station, information descriptive of a mobile station handover resource allocation for use by the mobile station in a ranging process with the target base station.
A method of communications in a cellular telecommunications network, comprising: selecting information indicating a case of an uplink data transmission that is a cause of a cell update, wherein said information indicating the case of the uplink data transmission that is the cause of the cell update is selected from one of information indicating that the cause of the cell update is user data transmission and information indicating that the cause of the cell update is control data transmission; and sending a cell update message from a user equipment to a network node, said cell update message comprising the cell update cause. selecting information indicating a case of an uplink data transmission that is a cause of a cell update, wherein said information indicating the case of the uplink data transmission that is the cause of the cell update is selected from one of information indicating that the cause of the cell update is user data transmission and information indicating that the cause of the cell update is control data transmission; and sending a cell update message from a user equipment to a network node, said cell update message comprising the cell update cause.
An apparatus, comprising: a memory unit; and at least one processor coupled to the memory unit, in which the at least one processor is configured to: determine a future path of travel of a vehicle from a first time to a second time, wherein the second time is later than the first time; receive a captured image, wherein the captured image is captured by a camera at the first time, and wherein the camera is mounted to the vehicle; and characterized in that the at least one processor is configured to: map, at or after the second time, the future path of travel to a first reference frame, wherein the first reference frame is an image derived from the captured image; determine, using a machine learning model, a predicted path of travel of the vehicle from the first time to the second time given the captured image; store the future path of travel and the predicted path of travel for training the machine learning model; and train the machine learning model based on the stored future path of travel and the stored predicted path of travel. a memory unit; and at least one processor coupled to the memory unit, in which the at least one processor is configured to: determine a future path of travel of a vehicle from a first time to a second time, wherein the second time is later than the first time; receive a captured image, wherein the captured image is captured by a camera at the first time, and wherein the camera is mounted to the vehicle; and determine a future path of travel of a vehicle from a first time to a second time, wherein the second time is later than the first time; receive a captured image, wherein the captured image is captured by a camera at the first time, and wherein the camera is mounted to the vehicle; and map, at or after the second time, the future path of travel to a first reference frame, wherein the first reference frame is an image derived from the captured image; determine, using a machine learning model, a predicted path of travel of the vehicle from the first time to the second time given the captured image; store the future path of travel and the predicted path of travel for training the machine learning model; and
A treatment system for suction bags, comprising: - a frame including a loading area configured to allow loading of suction bags within the frame, a cutting area in which suction bags are intended to be cut, a treatment area in which liquid waste, originating from cut suction bags, is intended to be treated, and a storage area in which treated suction bags are intended to be stored, - a rotating support which is housed at least partly in the frame and which is mounted movably in rotation about a first axis of rotation, the rotating support comprising several receiving locations each configured to accommodate a suction bag, the rotating support being configured to move suction bags received in the receiving locations from the loading area to the cutting area then to the storage area, - a cutting member which is located in the cutting area and which is mounted movably in rotation about a second axis of rotation which is substantially horizontal, the cutting member defining a cutting plane which is substantially vertical and being configured to cut at least one suction bag received in a receiving location and located in the cutting area. - a frame including a loading area configured to allow loading of suction bags within the frame, a cutting area in which suction bags are intended to be cut, a treatment area in which liquid waste, originating from cut suction bags, is intended to be treated, and a storage area in which treated suction bags are intended to be stored, - a rotating support which is housed at least partly in the frame and which is mounted movably in rotation about a first axis of rotation, the rotating support comprising several receiving locations each configured to accommodate a suction bag, the rotating support being configured to move suction bags received in the receiving locations from the loading area to the cutting area then to the storage area, - a cutting member which is located in the cutting area and which is mounted movably in rotation about a second axis of rotation which is substantially horizontal, the cutting member defining a cutting plane which is substantially vertical and being configured to cut at least one suction bag received in a receiving location and located in the cutting area.
A method of producing an optimized gene-activated implant material, said implant material comprising i) a calcium compound comprising solid scaffold implant material and ii) a nucleic acid composition divided in two fractions, a first fraction of said nucleic acid composition and a second fraction of said nucleic acid composition, said producing method comprising the steps of a) binding nucleic acid of said first fraction with said scaffold implant material by complex formation with said calcium compound comprised by said scaffold implant material, and subsequently further b) arranging on the surface of said scaffold implant material comprising said nucleic acid of said first fraction produced in step a) said second nucleic acid fraction without formation of chemical bond between said scaffold and said nucleic acid of said second fraction, wherein said two fractions of nucleic acids differ by the release rate from the scaffold implant material the first fraction is bounded to by said complex formation and the second fraction is arranged on without formation of chemical bound. i) a calcium compound comprising solid scaffold implant material and ii) a nucleic acid composition divided in two fractions, a first fraction of said nucleic acid composition and a second fraction of said nucleic acid composition, a) binding nucleic acid of said first fraction with said scaffold implant material by complex formation with said calcium compound comprised by said scaffold implant material, and subsequently further b) arranging on the surface of said scaffold implant material comprising said nucleic acid of said first fraction produced in step a) said second nucleic acid fraction without formation of chemical bond between said scaffold and said nucleic acid of said second fraction,
An artificial turf surface (100, 200, 800, 1000) comprising: - an artificial turf carpet with a pile, wherein the artificial turf carpet comprises a backing; wherein the artificial turf carpet further comprises artificial grass fibers, wherein the artificial grass fibers are tufted into the backing, wherein the artificial grass fibers form the pile, wherein the artificial grass fibers are secured to the backing; and - artificial turf infill distributed within the pile, characterized in that the artificial turf surface is manufactured according to the method of any of claims 16 to 22, the artificial turf infill therefore comprising irregularly shaped grains, wherein the irregularly shaped grains comprise an agglomerate, wherein the agglomerate comprises at least one type of non-elastomeric thermoplastic, wherein at least a portion of the grains have fibrous extensions. - an artificial turf carpet with a pile, wherein the artificial turf carpet comprises a backing; wherein the artificial turf carpet further comprises artificial grass fibers, wherein the artificial grass fibers are tufted into the backing, wherein the artificial grass fibers form the pile, wherein the artificial grass fibers are secured to the backing; and - artificial turf infill distributed within the pile, characterized in that the artificial turf surface is manufactured according to the method of any of claims 16 to 22, the artificial turf infill therefore comprising irregularly shaped grains, wherein the irregularly shaped grains comprise an agglomerate, wherein the agglomerate comprises at least one type of non-elastomeric thermoplastic, wherein at least a portion of the grains have fibrous extensions.
A sliding bearing comprising a back metal layer, an intermediate layer of an Al-base alloy, and an Al-base bearing alloy layer, wherein the Al-base bearing alloy layer contains grains of an intermetallic compound consisting of Al and at least two other elements, wherein the grains comprises grains each having a grain size of less than 0.5 μm, wherein the grains are dispersed in the Al-base bearing alloy layer with a density of not less than eight grains per 1 μm 2 in a sectional area of the Al-base bearing alloy layer, wherein the Al-base bearing alloy layer consists of, by mass, 3 to 20% Sn, 1.5 to 8% Si, 0.01 to 3% in total of at least two metal elements selected from the group consisting of Mn, V, Mo, Cr, Co, Fe, Ni, W, Ti and Zr, optionally at least one element selected from the group consisting of Cu, Zn and Mg in a total amount of 0.1 to 7 mass%, and the balance of Al and unavoidable impurities.
In a dynamic adaptive streaming system, a method of signaling a spatial relationship of one or more spatial objects in a media presentation description, MPD, with a spatial object being a representation of temporal segments of a certain level of quality for a sub-region of a video component, the method comprising: specifying, by a content server, spatial division and layout information of spatial objects; specifying, by a content server, location and spatial relationship information of the spatial objects, wherein multiple layers of the video component at various resolutions/sizes of the full-frame video component are created and then each layer is partitioned in equally sized spatial objects; and performing streaming adaptation in the spatial domain from one spatial object to another spatially related spatial object, wherein the spatial division and layout information is different layers of grids of tiles, the location information is coordinates in terms of row numbers and column numbers of tiles at their respective layers, and the spatial relationship information is adjacent information of the spatial objects on a same layer as well as across different layers. specifying, by a content server, spatial division and layout information of spatial objects; specifying, by a content server, location and spatial relationship information of the spatial objects, wherein multiple layers of the video component at various resolutions/sizes of the full-frame video component are created and then each layer is partitioned in equally sized spatial objects; and performing streaming adaptation in the spatial domain from one spatial object to another spatially related spatial object, wherein the spatial division and layout information is different layers of grids of tiles, the location information is coordinates in terms of row numbers and column numbers of tiles at their respective layers, and the spatial relationship information is adjacent information of the spatial objects on a same layer as well as across different layers.
Method for producing metal castings with a sand casting mould, the method comprising the following steps: - producing the sand casting mould in a moulding flask by a negative pressure moulding method - filling the sand casting mould produced in the moulding flask with liquid metal - cooling the sand casting mould and the casting that is solidifying therein with a cooling liquid, characterized in that the sand casting mould in the moulding flask under negative pressure is first filled with liquid metal, in that the moulding flask, together with the sand casting mould under negative pressure therein, is subsequently contacted fully or partially with a cooling liquid and in that after, at the same time as or before it is contacted with the cooling liquid, the moulding flask is opened at locations where it is contacted with the cooling liquid, in order that the cooling liquid is sucked into the sand casting mould under negative pressure and thereby quenches the solidifying casting. - producing the sand casting mould in a moulding flask by a negative pressure moulding method - filling the sand casting mould produced in the moulding flask with liquid metal - cooling the sand casting mould and the casting that is solidifying therein with a cooling liquid,
A roller blind including a sheet element secured at one end to a roller tube mounted for rotation, and secured at its opposite end to a fixed element located adjacent to the roller tube such that the sheet element defines a return portion located between the two ends; and a roller blind bottom bar located within the return portion, wherein the roller blind bottom bar includes a tubular body and an end cap carried by each end of the tubular body, each end cap including a proximal portion located adjacent to the tubular body and a distal portion spaced from the tubular body, wherein the roller blind bottom bar forms part of a bottom bar assembly, the bottom bar assembly comprising a housing body and a pair of opposed mountings (22a, 22b), and wherein the roller blind bottom bar is rotatably coupled to the mountings (22a, 22b) and is disposed within the housing body, characterised in that each end cap includes an outwardly flared portion located between the proximal and distal portions such that each end cap flares outwards from the proximal portion to the distal portion, and in that the housing body includes an axial slot through which the sheet element passes.
Induction apparatus for heating an oil reservoir, in particular a heavy-oil, extra-heavy-oil or bitumen reservoir, having at least one casing pipe and at least one inductor which is arranged within the casing pipe, wherein an intermediate space is formed between the inductor and the casing pipe, wherein a plurality of centring means are arranged in the intermediate space over the axial profile of the induction apparatus, said centring means in each case making contact both with the casing pipe and with the inductor, wherein the intermediate space is filled with a mechanically stabilizing filling material, characterised in that the filling material is a material that is flowably introduced into the intermediate space and cured.
An integrated circuit, comprising: a die with an electronic circuit embedded thereon; wherein the electronic circuit includes a differential power amplifier and pads (125, 126, 127) to electronically interface with the electronic circuit; a packaging encasing the die with contact pins (120, 121, 122) to connect between the integrated circuit and external elements; wires (130, 131, 132) connecting between the pads (125, 126, 127) and the contact pins (120, 121, 122); a converter that includes capacitors and inductors to combine the output signals of the differential power amplifier to form a single ended output signal at one of the contact pins; wherein the capacitors are embedded on the die between the differential power amplifier and the pads; wherein inherent inductance of some of the wires (130, 131, 132) serve as the inductors of the converter. a die with an electronic circuit embedded thereon; wherein the electronic circuit includes a differential power amplifier and pads (125, 126, 127) to electronically interface with the electronic circuit; a packaging encasing the die with contact pins (120, 121, 122) to connect between the integrated circuit and external elements; wires (130, 131, 132) connecting between the pads (125, 126, 127) and the contact pins (120, 121, 122); a converter that includes capacitors and inductors to combine the output signals of the differential power amplifier to form a single ended output signal at one of the contact pins; wherein the capacitors are embedded on the die between the differential power amplifier and the pads; wherein inherent inductance of some of the wires (130, 131, 132) serve as the inductors of the converter.
A transmon qubit comprising: a superconducting plate capacitor comprising a first plate and a second plate wherein the first plate is disposed opposite to at least a part of the second plate, wherein the first plate and the second plate are connected via a superconducting nonlinear inductance element, and a capacitance formed between the first plate and the second plate; characterized in that the first plate and the second plate are configured to form a vacuum gap capacitor. a superconducting plate capacitor comprising a first plate and a second plate wherein the first plate is disposed opposite to at least a part of the second plate, wherein the first plate and the second plate are connected via a superconducting nonlinear inductance element, and a capacitance formed between the first plate and the second plate; characterized in that the first plate and the second plate are configured to form a vacuum gap capacitor.