mhurhangee/ep-ind-claims huggingface dataset:
A vehicle tire, comprising - a tread intended for rolling contact against a surface, said tread having been formed with a tread pattern comprising circumferential grooves and transverse grooves for removing water from a contact patch between the surface and the tire, - a tire carcass comprising at least one body cord and a belt structure, - a bead area comprising a bead wire, a clinch, and an apex, - a sidewall comprising an outermost sidewall layer, a sideways rising portion of the clinch, a body cord, and an innerliner, - and a tread wing characterized in that - the outermost sidewall layer is constructed from a rubber compound • with a carbon black content of 10-40% by weight, • which contains 0,2-0,5% by weight of aramid fiber having a fiber length of 1-5 mm, wherein - the tread wing is manufactured from a material other than the outermost sidewall layer. - a tread intended for rolling contact against a surface, said tread having been formed with a tread pattern comprising circumferential grooves and transverse grooves for removing water from a contact patch between the surface and the tire, - a tire carcass comprising at least one body cord and a belt structure, - a bead area comprising a bead wire, a clinch, and an apex, - a sidewall comprising an outermost sidewall layer, a sideways rising portion of the clinch, a body cord, and an innerliner, - and a tread wing characterized in that - the outermost sidewall layer is constructed from a rubber compound • with a carbon black content of 10-40% by weight, • which contains 0,2-0,5% by weight of aramid fiber having a fiber length of 1-5 mm, wherein • with a carbon black content of 10-40% by weight, • which contains 0,2-0,5% by weight of aramid fiber having a fiber length of 1-5 mm, wherein - the tread wing is manufactured from a material other than the outermost sidewall layer.
A method for triggering a user equipment, UE, to monitor a paging message in long term evolution, LTE, system, characterized in that the method comprises: acquiring, by the UE, a correspondence between the UE and a time-frequency resource, where a trigger message for the UE is located, of a broadcast channel, wherein the trigger message is configured for triggering listening to the paging message for the UE and is sent via the broadcast channel, and wherein there is a latency between the trigger message and the paging message in a time domain; receiving, by the UE, the trigger message from a base station via the time-frequency resource of the broadcast channel according to the correspondence; and in a case where the trigger message indicates that the UE needs to be triggered, triggering, by the UE, listening to the paging message for the UE; wherein the acquiring, by the UE, a correspondence between the UE and a time-frequency resource, where a trigger message for the UE is located, of a broadcast channel comprises: determining the correspondence between the UE and the time-frequency resource, where the trigger message for the UE is located, of the broadcast channel according to a first correspondence between a paging occasion and an identifier of the UE or an identifier of a group of UEs from the base station, and a second correspondence between the paging occasion and the time-frequency resource of the broadcast channel from the base station. acquiring, by the UE, a correspondence between the UE and a time-frequency resource, where a trigger message for the UE is located, of a broadcast channel, wherein the trigger message is configured for triggering listening to the paging message for the UE and is sent via the broadcast channel, and wherein there is a latency between the trigger message and the paging message in a time domain; receiving, by the UE, the trigger message from a base station via the time-frequency resource of the broadcast channel according to the correspondence; and in a case where the trigger message indicates that the UE needs to be triggered, triggering, by the UE, listening to the paging message for the UE; wherein the acquiring, by the UE, a correspondence between the UE and a time-frequency resource, where a trigger message for the UE is located, of a broadcast channel comprises: determining the correspondence between the UE and the time-frequency resource, where the trigger message for the UE is located, of the broadcast channel according to a first correspondence between a paging occasion and an identifier of the UE or an identifier of a group of UEs from the base station, and a second correspondence between the paging occasion and the time-frequency resource of the broadcast channel from the base station.
A handover, HO, method (300, 400) performed by a network node the method comprising: receiving (S309, S409) measurement reports from a UE, the measurement reports being related to a predetermined number of cells, the predetermined number of cells constituting a first set; determining (S311, S411) based on the received measurement reports that there are at least two potential target cells in the first set for HO of the UE; transmitting (S313, S413) a HO request message to each of the at least two potential target cells for the HO of the UE; selecting, based on evaluation of the measurement reports received from the UE related to the at least two potential target cells, one of the at least two potential target cells to include information about the selected potential target cell in a HO command to be transmitted to the UE, wherein the evaluation comprises at least one of: evaluation of variation rates of measurements related to the at least two potential target cells, and evaluation of difference between a mean measurement related to the best potential target cell and a mean measurement related to another of the at least two potential target cells; and transmitting the HO command to the UE for the HO of the UE. receiving (S309, S409) measurement reports from a UE, the measurement reports being related to a predetermined number of cells, the predetermined number of cells constituting a first set; determining (S311, S411) based on the received measurement reports that there are at least two potential target cells in the first set for HO of the UE; transmitting (S313, S413) a HO request message to each of the at least two potential target cells for the HO of the UE; selecting, based on evaluation of the measurement reports received from the UE related to the at least two potential target cells, one of the at least two potential target cells to include information about the selected potential target cell in a HO command to be transmitted to the UE, wherein the evaluation comprises at least one of: evaluation of variation rates of measurements related to the at least two potential target cells, and evaluation of difference between a mean measurement related to the best potential target cell and a mean measurement related to another of the at least two potential target cells; and evaluation of variation rates of measurements related to the at least two potential target cells, and evaluation of difference between a mean measurement related to the best potential target cell and a mean measurement related to another of the at least two potential target cells; and transmitting the HO command to the UE for the HO of the UE.
A medical instrument for arthroscopic procedures, comprising: - a handpiece, - a blade holder with an outer hollow tube and an inner hollow blade tube with blades at a distal end of the inner tube, and - a button arrangement to operate the medical instrument, wherein the button arrangement is arranged at the handpiece close to a distal end of the handpiece, - wherein the button arrangement comprises a first button, a second button and a third button as well as a first button contact and a second button contact, wherein the first button is configured to operate the first button contact, the second button is configured to operate the second button contact, characterized in that the third button is configured to operate the first and second button contacts (55, 56) simultaneously, - wherein the buttons (51, 52, 53) are arranged at a common, rigid button plate, - the rigid button plate is arranged loosely at the button arrangement, and rests loosely on the first and second button contacts (55, 56), and is held at a first and second axial side at a cover of the button arrangement. - a handpiece, - a blade holder with an outer hollow tube and an inner hollow blade tube with blades at a distal end of the inner tube, and - a button arrangement to operate the medical instrument, wherein the button arrangement is arranged at the handpiece close to a distal end of the handpiece, - wherein the button arrangement comprises a first button, a second button and a third button as well as a first button contact and a second button contact, wherein the first button is configured to operate the first button contact, the second button is configured to operate the second button contact, characterized in that the third button is configured to operate the first and second button contacts (55, 56) simultaneously, - wherein the buttons (51, 52, 53) are arranged at a common, rigid button plate, - the rigid button plate is arranged loosely at the button arrangement, and rests loosely on the first and second button contacts (55, 56), and is held at a first and second axial side at a cover of the button arrangement.
A vision system for an assembly line comprising: a first camera and a second camera mounted for stereoscopic monitoring of a work environment; a support platform for support of a workpiece in the work environment; a reference plate (170, 170') operably coupled to the support platform to provide a frame of reference for three dimensional location of objects in the work environment; a power tool operable in the work environment under control of a tool controller; and a motion monitor operably coupled to the first and second cameras (140, 145) to determine location of the power tool in the work environment based on a comparison of a reference point (250, 255')on the tool to a position of reference points (200, 210, 220, 230, 200', 210', 220', 230') on the reference plate (170, 170'), wherein the motion monitor is configured to monitor the location of the power tool relative to a movement zone defining a volume in three dimensional space. a first camera and a second camera mounted for stereoscopic monitoring of a work environment; a support platform for support of a workpiece in the work environment; a reference plate (170, 170') operably coupled to the support platform to provide a frame of reference for three dimensional location of objects in the work environment; a power tool operable in the work environment under control of a tool controller; and a motion monitor operably coupled to the first and second cameras (140, 145) to determine location of the power tool in the work environment based on a comparison of a reference point (250, 255')on the tool to a position of reference points (200, 210, 220, 230, 200', 210', 220', 230') on the reference plate (170, 170'), wherein the motion monitor is configured to monitor the location of the power tool relative to a movement zone defining a volume in three dimensional space.
A composition for use in alleviating or improving epidermolysis bullosa comprising: mesenchymal stem cells and a hydrogel; and at least one support selected from the group consisting of a biodegradable support and a nondegradable support; at least two nondegradable supports; or a combination of at least one biodegradable support and nondegradable support, wherein the hydrogel is selected from the group consisting of fibrin glue, hyaluronic acid, gelatin, collagen, alginic acid, cellulose and pectin, the biodegradable support is selected from the group consisting of poly-gamma-glutamic acid, poly lactic acid, vicryl mesh, human placental membrane, bovine placental membrane, pig collagen, chitin, chitosan, fibronectin and dextran, and the nondegradable support is selected from the group consisting of sterilized nonwoven fabrics, polyethylene terephthalate films, polyethylene films, polypropylene films, polyurethane films, net type polyurethane films, and polyurethane coated with soft silicon on a single surface. mesenchymal stem cells and a hydrogel; and at least one support selected from the group consisting of a biodegradable support and a nondegradable support; at least two nondegradable supports; or a combination of at least one biodegradable support and nondegradable support, wherein the hydrogel is selected from the group consisting of fibrin glue, hyaluronic acid, gelatin, collagen, alginic acid, cellulose and pectin, the biodegradable support is selected from the group consisting of poly-gamma-glutamic acid, poly lactic acid, vicryl mesh, human placental membrane, bovine placental membrane, pig collagen, chitin, chitosan, fibronectin and dextran, and the nondegradable support is selected from the group consisting of sterilized nonwoven fabrics, polyethylene terephthalate films, polyethylene films, polypropylene films, polyurethane films, net type polyurethane films, and polyurethane coated with soft silicon on a single surface.
A compound consisting of: Nd 7-14 Dy 30-50 Co 28-45 Cu 1-10 Fe 1-10 atom%, or Nd 8.5-12.5 Dy 35-45 Co 32-41 Cu 3-6.5 Fe 1.5-5 atom%, or Nd 11.92 Dy 42.32 Co 38.39 Cu 5.34 Fe 2.03 atom%; optionally the compound includes 0.18 at.% or less oxygen and/or 0.09 at.% or less carbon. Nd 7-14 Dy 30-50 Co 28-45 Cu 1-10 Fe 1-10 atom%, or Nd 8.5-12.5 Dy 35-45 Co 32-41 Cu 3-6.5 Fe 1.5-5 atom%, or Nd 11.92 Dy 42.32 Co 38.39 Cu 5.34 Fe 2.03 atom%; optionally the compound includes 0.18 at.% or less oxygen and/or 0.09 at.% or less carbon.
An exhaust gas purification apparatus for an internal combustion engine comprising: an NH 3 generation catalyst (3,4) that is arranged in an exhaust passage of the internal combustion engine and generates NH 3; an NOx selective reduction catalyst that is arranged in the exhaust passage at a location downstream of said NHsgeneration catalyst (3,4), and reduces NOx in a selective manner; and an ECU configured to operate as an upstream side recovery unit that recovers sulfur poisoning of said NH 3 generation catalyst (3,4) and a downstream side recovery unit that recovers sulfur poisoning of said NOx selective reduction catalyst caused by H 2 S which has been generated at the time of the recovery of the sulfur poisoning of said NHsgeneration catalyst (3,4) by said upstream side recovery unit and which flows into and is adsorbed to said NOx selective reduction catalyst, after the sulfur poisoning of said NH 3 generation catalyst (3,4) has been recovered by said upstream side recovery unit; wherein said upstream side recovery unit, for recovering the sulfur poisoning of said NH 3 generation catalyst (3,4), is configured to cause the internal combustion engine to operate at a rich air fuel ratio; said downstream side recovery unit, for recovering the sulfur poisoning of said NOx selective reduction catalyst, is configured to cause the internal combustion engine to operate at a lean air fuel ratio; and said downstream side recovery unit is configured to carry out the recovery of the sulfur poisoning by making an amount of oxygen flowing into said NOx selective reduction catalyst in a predetermined period of time after the sulfur poisoning of said NH 3 generation catalyst (3,4) was recovered by said upstream side recovery unit larger than an amount of oxygen flowing into said NOx selective reduction catalyst after said predetermined period of time. an NH 3 generation catalyst (3,4) that is arranged in an exhaust passage of the internal combustion engine and generates NH 3; an NOx selective reduction catalyst that is arranged in the exhaust passage at a location downstream of said NHsgeneration catalyst (3,4), and reduces NOx in a selective manner; and an ECU configured to operate as an upstream side recovery unit that recovers sulfur poisoning of said NH 3 generation catalyst (3,4) and a downstream side recovery unit that recovers sulfur poisoning of said NOx selective reduction catalyst caused by H 2 S which has been generated at the time of the recovery of the sulfur poisoning of said NHsgeneration catalyst (3,4) by said upstream side recovery unit and which flows into and is adsorbed to said NOx selective reduction catalyst, after the sulfur poisoning of said NH 3 generation catalyst (3,4) has been recovered by said upstream side recovery unit; wherein
A support device for medical instruments to be sterilized and/or cleaned, each including a fixing element, the support device including a plate having a lower face (5 2) and a upper face (5 1) and in which at least one mounting through hole for a flexible holding structure for the medical instrument fixing element is arranged, this flexible structure including a dismountable connection system with the plate, each mounting hole including a dismountable connection system complementary to the connection system of the flexible structure, this complementary dismountable connection system being arranged exclusively from the internal wall (6 1) of the mounting hole delimited between the lower face (5 2) and the upper face (5 1) of the plate, characterized in that the flexible structure includes an upper surface (7 1) flush with the upper face (5 1) of the plate and in that the flexible structure includes a lower surface (7 2) flush with the lower face (5 2) of the plate.
An automated analyzer comprising: a plurality of photometers (44, 45) of different types configured to measure a concentration of a target sample, each photometer having a different output range for measuring target samples with different concentrations, the output range being based on a quantitative range of each photometer representing a measurement error of the photometer depending on a concentration to be measured, and an analysis control unit connected to the plurality of photometers (44, 45) and configured to control analysis of the target sample including measurement of the concentration of the target sample using the plurality of photometers (44, 45), wherein the analysis control unit is configured to acquire a plurality of measurement results including a plurality of measurement values measured by each of the plurality of photometers (44, 45), if an abnormality is detected regarding at least one of the plurality of measurement results, add a data alarm according to a type of the abnormality to the at least one measurement result, if one or more data alarms are added to each of the plurality of measurement results, select a measurement result and a data alarm to be output corresponding to at least one predetermined rule, wherein the at least one predetermined rule is based on a predetermined combination of a plurality of data alarms, and output the selected measurement result and data alarm to a user as an analysis result. a plurality of photometers (44, 45) of different types configured to measure a concentration of a target sample, each photometer having a different output range for measuring target samples with different concentrations, the output range being based on a quantitative range of each photometer representing a measurement error of the photometer depending on a concentration to be measured, and an analysis control unit connected to the plurality of photometers (44, 45) and configured to control analysis of the target sample including measurement of the concentration of the target sample using the plurality of photometers (44, 45), wherein the analysis control unit is configured to acquire a plurality of measurement results including a plurality of measurement values measured by each of the plurality of photometers (44, 45), if an abnormality is detected regarding at least one of the plurality of measurement results, add a data alarm according to a type of the abnormality to the at least one measurement result, if one or more data alarms are added to each of the plurality of measurement results, select a measurement result and a data alarm to be output corresponding to at least one predetermined rule, wherein the at least one predetermined rule is based on a predetermined combination of a plurality of data alarms, and output the selected measurement result and data alarm to a user as an analysis result.
A combine comprising: a feeder housing for receiving harvested crop; a separating system for threshing the harvested crop to produce grain and residue; a windrow door for expelling the residue from the combine; a windrow door actuator coupled to the windrow door to position the windrow door at a windrow door angle; a windrow chute for receiving the expelled residue from the windrow door and guiding the residue into a windrow; a windrow chute actuator coupled to the windrow chute to position the windrow chute at a windrow chute angle; a sensor positioned to detect a physical characteristic of the windrow produced by the combine or an operational state of the combine; a controller coupled to the sensor, the combine being characterised in that the controller is further coupled to the windrow door actuator and the windrow chute actuator, the controller configured to: determine a physical characteristic of the windrow or the operational state of the combine based on an output of the sensor, and adjust at least one of the windrow door angle or the windrow chute angle based on the determined physical characteristic or operational state. a feeder housing for receiving harvested crop; a separating system for threshing the harvested crop to produce grain and residue; a windrow door for expelling the residue from the combine; a windrow door actuator coupled to the windrow door to position the windrow door at a windrow door angle; a windrow chute for receiving the expelled residue from the windrow door and guiding the residue into a windrow; a windrow chute actuator coupled to the windrow chute to position the windrow chute at a windrow chute angle; a sensor positioned to detect a physical characteristic of the windrow produced by the combine or an operational state of the combine; a controller coupled to the sensor, the combine being characterised in that the controller is further coupled to the windrow door actuator and the windrow chute actuator, the controller configured to: determine a physical characteristic of the windrow or the operational state of the combine based on an output of the sensor, and adjust at least one of the windrow door angle or the windrow chute angle based on the determined physical characteristic or operational state. determine a physical characteristic of the windrow or the operational state of the combine based on an output of the sensor, and adjust at least one of the windrow door angle or the windrow chute angle based on the determined physical characteristic or operational state.
A method of producing a pharmaceutical composition comprising platelet lysate comprising (a) subjecting a population of platelets to at least one freeze-thaw cycle, wherein the freeze portion of each cycle is carried out at a temperature lower than or equal to about -190 °C, and (b) mixing the platelet lysate with at least one pharmaceutically acceptable polymer and at least one pharmaceutically acceptable positively charged chemical species such that the resulting composition is an aqueous gel having a viscosity in the range of 1000 to 500,000 mPa•s (cps) at room temperature.