mhurhangee/ep-ind-claims huggingface dataset:
An injectable composition for treating cardiac disease, cardiac injury, or ischemic injury, comprising: (a) fragments of an engineered cardiac fibroblast cell-derived extracellular matrix (CF-ECM) comprising structural proteins fibronectin, collagen type I, collagen type III, and elastin, wherein from 60% to 90% of the structural proteins present in the engineered extracellular matrix are fibronectin, wherein the one or more fragments are small enough to pass through the injection opening of an 18-gauge hypodermic needle; and (b) an injectable pharmaceutically acceptable carrier, wherein the fragments are suspended in the carrier. (a) fragments of an engineered cardiac fibroblast cell-derived extracellular matrix (CF-ECM) comprising structural proteins fibronectin, collagen type I, collagen type III, and elastin, wherein from 60% to 90% of the structural proteins present in the engineered extracellular matrix are fibronectin, wherein the one or more fragments are small enough to pass through the injection opening of an 18-gauge hypodermic needle; and (b) an injectable pharmaceutically acceptable carrier, wherein the fragments are suspended in the carrier.
A transmission actuator for a motor vehicle transmission device having a plurality of transmission ratios for forming gears, wherein the transmission actuator has a shifting shaft which is mounted in a rotatable manner for shifting gears and is mounted in an axially displaceable manner for selecting gears, and wherein the transmission actuator has a gate comprising a first gate part which is arranged in a fixed manner and a second gate part which is rotatable and axially displaceable, wherein one gate part (5, 6) has grooves and lands alternating in one direction (7, 22) and the other gate part (6, 5) has at least one element that can cooperate with one land at a time and can be moved into one groove at a time; wherein the at least one element is moved past the lands and grooves during a selection movement in a defined direction and is moved into one of the grooves during a shifting movement; wherein a lead-in bevel is provided at least on the lands or on the element, and wherein substantially right-angled transitions are also provided, characterised in that the element has a first wall facing in the defined direction and an end face facing towards the groove, wherein the lead-in bevel is present between the end face and the first wall, and wherein the element has a second wall facing in the defined direction, wherein an essentially right-angled transition is present between the end face and the second wall, so that, in the event of a collision between element and land during the shifting movement, the second gate part can be moved further in the defined direction of the selection movement via the lead-in chamfer and the shifting movement can be continued, and then in the event of a collision between element and land during the shifting movement, the second gate part cannot be moved counter to the defined direction of the selection movement, but rather the shifting movement is stopped.
Plant for additively manufacturing of three-dimensional objects, comprising: - at least one build apparatus for additively manufacturing three-dimensional objects by means of successive layerwise selective irradiation and consolidation of layers of a powdered build material which can be consolidated by means of an energy beam and/or - at least one apparatus adapted to perform at least one post-processing step of an additive manufacturing process, wherein at least one temperature control unit (6, 19, 22, 28) is adapted to control a parameter of a fluid (7, 27) flowing alongside and/or through at least one component (8, 17, 20, 21) of the build apparatus and/or the post-processing apparatus, wherein the temperature control unit (6, 19, 22, 28) is adapted to temper the fluid (7, 27) and/or the build material and/or at least one component (8, 17, 20, 21) of the at least one build apparatus and/or the post-processing apparatus with respect to a defined temperature profile, characterized in that the temperature profile is defined dependent on an energy beam power and/or an exposure time and/or at least one object parameter, wherein the object parameter includes an object temperature or a geometry of the object. - at least one build apparatus for additively manufacturing three-dimensional objects by means of successive layerwise selective irradiation and consolidation of layers of a powdered build material which can be consolidated by means of an energy beam and/or - at least one apparatus adapted to perform at least one post-processing step of an additive manufacturing process, wherein at least one temperature control unit (6, 19, 22, 28) is adapted to control a parameter of a fluid (7, 27) flowing alongside and/or through at least one component (8, 17, 20, 21) of the build apparatus and/or the post-processing apparatus, wherein the temperature control unit (6, 19, 22, 28) is adapted to temper the fluid (7, 27) and/or the build material and/or at least one component (8, 17, 20, 21) of the at least one build apparatus and/or the post-processing apparatus with respect to a defined temperature profile, characterized in that the temperature profile is defined dependent on an energy beam power and/or an exposure time and/or at least one object parameter, wherein the object parameter includes an object temperature or a geometry of the object. wherein at least one temperature control unit (6, 19, 22, 28) is adapted to control a parameter of a fluid (7, 27) flowing alongside and/or through at least one component (8, 17, 20, 21) of the build apparatus and/or the post-processing apparatus, wherein the temperature control unit (6, 19, 22, 28) is adapted to temper the fluid (7, 27) and/or the build material and/or at least one component (8, 17, 20, 21) of the at least one build apparatus and/or the post-processing apparatus with respect to a defined temperature profile, characterized in that the temperature profile is defined dependent on an energy beam power and/or an exposure time and/or at least one object parameter, wherein the object parameter includes an object temperature or a geometry of the object.
Gas shut-off switch provided with various operating positions and intended to be isolated in a dielectric gas inside an electrical switchgear cell, the gas shut-off switch comprising at least one housing, said housing being structured in two parts, which in turn comprises: - a first part that includes a first arc chamber and a second part that includes a second arc chamber, where the first arc chamber incorporates a first fixed contact and the second arc chamber incorporates a second fixed contact, - a movable contact having a rotary motion to electrically connect with said fixed contacts (3, 4); and - at least one electric arc blowing means whereby; the electrical contact between the movable contact and each of the fixed contacts (3, 4), as well as the separation between them occurs in different arc chambers; characterized in that; the blowing means is jointly connected to the movable contact, so that it performs the same movement path as the movable contact in the gas shut-off switch opening and closing, and in that each arc chamber (6, 7) comprises at least one communication path (9, 10) with the exterior of the housing that allows both the exit of the gases generated in the electric arc blowing and the entry of clean dielectric gas in said arc chamber (6, 7). - a first part that includes a first arc chamber and a second part that includes a second arc chamber, where the first arc chamber incorporates a first fixed contact and the second arc chamber incorporates a second fixed contact, - a movable contact having a rotary motion to electrically connect with said fixed contacts (3, 4); and - at least one electric arc blowing means whereby; the electrical contact between the movable contact and each of the fixed contacts (3, 4), as well as the separation between them occurs in different arc chambers; characterized in that; the blowing means is jointly connected to the movable contact, so that it performs the same movement path as the movable contact in the gas shut-off switch opening and closing, and in that each arc chamber (6, 7) comprises at least one communication path (9, 10) with the exterior of the housing that allows both the exit of the gases generated in the electric arc blowing and the entry of clean dielectric gas in said arc chamber (6, 7). the electrical contact between the movable contact and each of the fixed contacts (3, 4), as well as the separation between them occurs in different arc chambers; characterized in that; the blowing means is jointly connected to the movable contact, so that it performs the same movement path as the movable contact in the gas shut-off switch opening and closing, and in that each arc chamber (6, 7) comprises at least one communication path (9, 10) with the exterior of the housing that allows both the exit of the gases generated in the electric arc blowing and the entry of clean dielectric gas in said arc chamber (6, 7).
A method for controlling a drive of a machine having at least one first roll element, which rolls with a surface on a counter surface at least in subintervals of a revolution cycle with the action of a contact force under elastic deformation, characterized in that a speed correction method, which automatically compensates for deformation-related deviations of the peripheral velocity of the first roll element by way of an adaptation of the setpoint value for the velocity of the first roll element, and a retrospective method, which automatically compensates for deviations of the speed consistency of the first roll element within a revolution cycle by applying a correction signal determined from the curve of a control variable, in particular an actual velocity or actual position of the first roll element, in a preceding revolution cycle or in multiple preceding revolution cycles, are applied in combination.
A variable spectroscopy element being an etalon-type optical fitter for an endoscope comprising: two optical substrates (3a, 3b) that oppose each other at a distance therebetween and that include reflection films on opposing surfaces; a frame member that fixes the optical substrate (3a, 3b); actuators that change the distance between the optical substrates (3a, 3b); and sensors having electrode portions (6a, 6b) that detect the distance between the optical substrates (3a, 3b) on the opposing surfaces; the variable spectroscopy element characterized in that the variable spectroscopy element further comprises inclined surfaces that are provided on at least one of the optical substrate (3a, 3b), in outer peripheral parts of the opposing surfaces, and that are disposed so as to gradually increase the distance from the other optical substrate (3a, 3b) radially outward and in the plate-thickness direction; wiring patterns (6c, 6d) that are provided on the inclined surfaces and connect to the electrode portions (6a, 6b) of the sensors; and connecting patterns (6e, 6f) that are disposed radially outward with respect to the wiring patterns (6c, 6d) and connect to wires that output signals from the electrode portions (6a, 6b) to external parts, and one of the optical substrate (3a, 3b) is directly fxed to the fame member, the other optical substrate (3a, 3b) is mounted to the frame member with the actuators interposed therebetween, and the actuators are mounted to the outer peripheral parts at a reverse side surface of the opposing surface of the other optical substrate (3a, 3b). two optical substrates (3a, 3b) that oppose each other at a distance therebetween and that include reflection films on opposing surfaces; a frame member that fixes the optical substrate (3a, 3b); actuators that change the distance between the optical substrates (3a, 3b); and sensors having electrode portions (6a, 6b) that detect the distance between the optical substrates (3a, 3b) on the opposing surfaces; the variable spectroscopy element characterized in that the variable spectroscopy element further comprises inclined surfaces that are provided on at least one of the optical substrate (3a, 3b), in outer peripheral parts of the opposing surfaces, and that are disposed so as to gradually increase the distance from the other optical substrate (3a, 3b) radially outward and in the plate-thickness direction; wiring patterns (6c, 6d) that are provided on the inclined surfaces and connect to the electrode portions (6a, 6b) of the sensors; and connecting patterns (6e, 6f) that are disposed radially outward with respect to the wiring patterns (6c, 6d) and connect to wires that output signals from the electrode portions (6a, 6b) to external parts, and one of the optical substrate (3a, 3b) is directly fxed to the fame member, the other optical substrate (3a, 3b) is mounted to the frame member with the actuators interposed therebetween, and the actuators are mounted to the outer peripheral parts at a reverse side surface of the opposing surface of the other optical substrate (3a, 3b).
A method of making a compound of Formula I or a pharmaceutically acceptable salt thereof, comprising reacting a compound of or a pharmaceutically acceptable salt thereof, with a formylation reagent.
A system comprising: at least one computing device configured to model deformation in a set of manufactured components by performing actions including: forming a pre-exposure statistical distribution of measured coordinates describing the set of manufactured components from a pre-exposure three-dimensional depiction of a first sample of the manufactured component, and forming a post-exposure statistical distribution of measured coordinates describing the set of manufactured components from a post-exposure three-dimensional depiction of a second sample of the manufactured component; calculating a difference between parameters of the pre-exposure statistical distribution and the post-exposure statistical distribution; and adjusting an expected deformation model for the set of manufactured components based upon the difference between the parameters of the pre-exposure statistical distribution and the post-exposure statistical distribution, to model the deformation of the manufactured component. forming a pre-exposure statistical distribution of measured coordinates describing the set of manufactured components from a pre-exposure three-dimensional depiction of a first sample of the manufactured component, and forming a post-exposure statistical distribution of measured coordinates describing the set of manufactured components from a post-exposure three-dimensional depiction of a second sample of the manufactured component; calculating a difference between parameters of the pre-exposure statistical distribution and the post-exposure statistical distribution; and adjusting an expected deformation model for the set of manufactured components based upon the difference between the parameters of the pre-exposure statistical distribution and the post-exposure statistical distribution, to model the deformation of the manufactured component.
A polyamic acid being a polymerization product of: a dianhydride compound, wherein the dianhydride compound is 3,3',4,4'-biphenyltetracarboxylic dianhydride (BPDA); a first diamine compound, wherein the first diamine compound is 2,2'-bis(trifluoromethyl)benzidine (TFMB); and a second diamine compound, wherein the second diamine compound is 3,5-diaminobenzoic acid (DABA) a dianhydride compound, wherein the dianhydride compound is 3,3',4,4'-biphenyltetracarboxylic dianhydride (BPDA); a first diamine compound, wherein the first diamine compound is 2,2'-bis(trifluoromethyl)benzidine (TFMB); and a second diamine compound, wherein the second diamine compound is 3,5-diaminobenzoic acid (DABA)
A solar cell apparatus comprising: a solar cell panel; an electrical shock protective part on the solar cell panel; a frame surrounding the solar cell panel and including a conductive material; and a connection wire connecting the electrical shock protective part with the frame, characterized in that the electrical shock protective part includes a transparent conductive material, wherein the electrical shock protective part is provided on the whole top surface of the solar cell panel, and wherein the frame being grounded through an additional wire, the electrical shock protective part is electrically connected to the frame and grounded through it. a solar cell panel; an electrical shock protective part on the solar cell panel; a frame surrounding the solar cell panel and including a conductive material; and a connection wire connecting the electrical shock protective part with the frame, characterized in that the electrical shock protective part includes a transparent conductive material, wherein the electrical shock protective part is provided on the whole top surface of the solar cell panel, and wherein the frame being grounded through an additional wire, the electrical shock protective part is electrically connected to the frame and grounded through it.
An uplink signal sending method, applied to handover of a terminal from a source cell to a target cell, characterised in that the method comprises: determining, by the terminal according to a symbol puncturing rule, a symbol that needs to be punctured, wherein the symbol that needs to be punctured is an overlapping symbol between a symbol used to send the uplink signal to the source cell and a symbol used to send the uplink signal to the target cell; and sending, by the terminal, an uplink signal to the target cell based on the determined symbol that needs to be punctured, wherein the symbol puncturing rule is predefined in a protocol. determining, by the terminal according to a symbol puncturing rule, a symbol that needs to be punctured, wherein the symbol that needs to be punctured is an overlapping symbol between a symbol used to send the uplink signal to the source cell and a symbol used to send the uplink signal to the target cell; and sending, by the terminal, an uplink signal to the target cell based on the determined symbol that needs to be punctured, wherein the symbol puncturing rule is predefined in a protocol.
An elevator system comprising: an elevator sheave which comprises: a sheave body; a coating on a surface of the sheave body, the coating including microcracks; and a filler in the microcracks; and a load bearing assembly; wherein said load bearing assembly is at least partially wrapped around the sheave such that the load bearing assembly is in a friction relationship with the coating on the sheave; said load bearing assembly includes a jacket; the jacket comprises a polymer; and the filler is inert to the polymer; characterised in that the filler comprises a wax and the jacket includes the wax. an elevator sheave which comprises: a sheave body; a coating on a surface of the sheave body, the coating including microcracks; and a filler in the microcracks; and a sheave body; a coating on a surface of the sheave body, the coating including microcracks; and a filler in the microcracks; and a load bearing assembly; wherein said load bearing assembly is at least partially wrapped around the sheave such that the load bearing assembly is in a friction relationship with the coating on the sheave; said load bearing assembly includes a jacket; the jacket comprises a polymer; and the filler is inert to the polymer; wherein said load bearing assembly is at least partially wrapped around the sheave such that the load bearing assembly is in a friction relationship with the coating on the sheave; said load bearing assembly includes a jacket; the jacket comprises a polymer; and the filler is inert to the polymer; characterised in that the filler comprises a wax and the jacket includes the wax.
A fuel cell system (2, 54), comprising: - an air inlet, - a hydrogen inlet, - an inert gas outlet, - a water outlet, - an electrical power outlet, - at least one low temperature fuel cell and - at least one air separator, wherein the air separator is positioned between the air inlet and a cathode of the at least one fuel cell, wherein the air separator is adapted for separating oxygen from air from the air inlet, for feeding the oxygen to the cathode of the at least one fuel cell and for feeding oxygen depleted air to the inert gas outlet and wherein the at least one fuel cell is adapted for providing electrical power at the electrical outlet and water at the water outlet under consumption of oxygen from the air separator and hydrogen, characterized in that the air separator is a cryogenic air separator having a hydrogen inlet port, a hydrogen outlet port, an air inlet port, an oxygen outlet port and an inert gas outlet port, wherein the hydrogen outlet port of the air separator is coupled with the hydrogen inlet port of the at least one fuel cell and wherein the hydrogen inlet port of the air separator is coupled to a cryogenic hydrogen tank. - an air inlet, - a hydrogen inlet, - an inert gas outlet, - a water outlet, - an electrical power outlet, - at least one low temperature fuel cell and - at least one air separator,
A molded electronic device comprising: a film, electrical connection tracks arranged on the film, the electrical connection tracks comprising connection pads configured to be connected to conductive elements of a connector, the electrical connection tracks extending in part along a longitudinal direction, and said connector being an elastic connector, and wherein said molded electronic device further comprises a connector support molded onto the film and onto the electrical connection tracks in order to form walls adapted to hold the connector above the connection pads and between said walls wherein the connector support has first portions located above the electrical connection tracks, said first portions or a first layer of the first portions having a first thickness between 0.5 mm and 2.5 mm. a film, electrical connection tracks arranged on the film, the electrical connection tracks comprising connection pads configured to be connected to conductive elements of a connector, the electrical connection tracks extending in part along a longitudinal direction, and said connector being an elastic connector, and wherein said molded electronic device further comprises a connector support molded onto the film and onto the electrical connection tracks in order to form walls adapted to hold the connector above the connection pads and between said walls wherein the connector support has first portions located above the electrical connection tracks, said first portions or a first layer of the first portions having a first thickness between 0.5 mm and 2.5 mm.
A congestion mitigation method, comprising: identifying, by an eNB, S1-U interface congestion with respect to an Si-U interface between a source serving gateway and an E-UTRAN of the eNB; selecting a target serving gateway for which an S1-U interface to the E-UTRAN is uncongested; selecting, from among user equipments (404, 406, 408) served by the eNB, a set of user equipments for which the source serving gateway provides data plan connectivity to a PDN gateway; and initiating congestion mitigation comprising reassigning the set of user equipments to the target serving gateway for data plan connectivity to the PDN gateway with respect to at least one of a downlink direction and uplink direction, while maintaining the PDN gateway for the set of user equipments. identifying, by an eNB, S1-U interface congestion with respect to an Si-U interface between a source serving gateway and an E-UTRAN of the eNB; selecting a target serving gateway for which an S1-U interface to the E-UTRAN is uncongested; selecting, from among user equipments (404, 406, 408) served by the eNB, a set of user equipments for which the source serving gateway provides data plan connectivity to a PDN gateway; and initiating congestion mitigation comprising reassigning the set of user equipments to the target serving gateway for data plan connectivity to the PDN gateway with respect to at least one of a downlink direction and uplink direction, while maintaining the PDN gateway for the set of user equipments.