mhurhangee/ep-ind-claims huggingface dataset:
A first information processing system that resides on a first network and communicably connected with a second information processing system that resides on a second network, the second network being different from the first network, the first information processing system comprising: a plurality of processing means for executing a first workflow including a plurality of processes to be executed in series; link processing means (62, 112) for requesting the second information processing system to execute a second workflow including another plurality of processes to be executed in series and receiving an execution result of the second workflow from the second information processing system, the another plurality of processes included in the second workflow being different from the plurality of processes included in the first workflow; and control means for controlling execution of the plurality of processes included in the first workflow executed by the plurality of processing means and the link processing means (62, 112) to cause at least one of the plurality of processing means to perform at least one of the plurality of processes based on the execution result received by the link processing means (62, 112), wherein the control means invokes the link processing means (62, 112) according to workflow information that defines a processing order in which the plurality of processes in the first workflow are to be executed and one or more of the plurality of processing means that are to execute the plurality of processes in the processing order, to cause the second information processing system to execute the second workflow, as a part of the plurality of processes of the first workflow. a plurality of processing means for executing a first workflow including a plurality of processes to be executed in series; link processing means (62, 112) for requesting the second information processing system to execute a second workflow including another plurality of processes to be executed in series and receiving an execution result of the second workflow from the second information processing system, the another plurality of processes included in the second workflow being different from the plurality of processes included in the first workflow; and control means for controlling execution of the plurality of processes included in the first workflow executed by the plurality of processing means and the link processing means (62, 112) to cause at least one of the plurality of processing means to perform at least one of the plurality of processes based on the execution result received by the link processing means (62, 112), wherein the control means invokes the link processing means (62, 112) according to workflow information that defines a processing order in which the plurality of processes in the first workflow are to be executed and one or more of the plurality of processing means that are to execute the plurality of processes in the processing order, to cause the second information processing system to execute the second workflow, as a part of the plurality of processes of the first workflow.
A dispenser assembly for solid units, the dispenser assembly comprising: an outer sleeve comprising an end, a first sidewall extending from the end of the outer sleeve, and a second sidewall extending from the end of the outer sleeve, the first sidewall having a window proximate to the end of the outer sleeve and at least one groove (20, 22), the second sidewall being disposed inboard of the first sidewall; an inner housing inserted into the outer sleeve, the inner housing comprising an end with an opening therein leading to a compartment configured for storing the solid units, the inner housing further having a housing sealing surface, the inner housing further comprising an inner housing body portion and at least one button portion (60, 64) extending outwardly from the inner housing body portion, wherein the outer sleeve is configured to rotate relative to the inner housing between a SEALED position corresponding to the second sidewall forming a moisture tight seal with the housing sealing surface, and a DISPENSING position corresponding to the second sidewall being disengaged with the housing sealing surface in order to allow at least one of the solid units to be dispensed through the window, characterized in that the at least one button portion (60, 64) and the at least one groove (20, 22) form a cam between the outer sleeve and the inner housing, such that if the outer sleeve rotates relative to the inner housing between the SEALED position and the DISPENSING position, the cam causes the inner housing to translate axially relative to the outer sleeve and the at least one button portion (60, 64) rotates within the at least one groove (20, 22). an outer sleeve comprising an end, a first sidewall extending from the end of the outer sleeve, and a second sidewall extending from the end of the outer sleeve, the first sidewall having a window proximate to the end of the outer sleeve and at least one groove (20, 22), the second sidewall being disposed inboard of the first sidewall; an inner housing inserted into the outer sleeve, the inner housing comprising an end with an opening therein leading to a compartment configured for storing the solid units, the inner housing further having a housing sealing surface, the inner housing further comprising an inner housing body portion and at least one button portion (60, 64) extending outwardly from the inner housing body portion, wherein the outer sleeve is configured to rotate relative to the inner housing between a SEALED position corresponding to the second sidewall forming a moisture tight seal with the housing sealing surface, and a DISPENSING position corresponding to the second sidewall being disengaged with the housing sealing surface in order to allow at least one of the solid units to be dispensed through the window,
A formulation comprising: (a) an isolated anti-FGFR3 antagonist antibody, wherein the antibody comprises HVR-L1 comprising sequence RASQDVDTSLA (SEQ ID NO:87), HVR-L2 comprising sequence SASFLYS (SEQ ID NO:88), HVR-L3 comprises sequence QQSTGHPQT (SEQ ID NO:89), HVR-H1 comprising sequence GFTFTSTGIS (SEQ ID NO:84), HVR-H2 comprising sequence GRIYPTSGSTNYADSVKG (SEQ ID NO:85), and HVR-H3 comprising sequence ARTYGIYDLYVDYTEYVMDY (SEQ ID NO:86); and (b) a cytotoxic agent. (a) an isolated anti-FGFR3 antagonist antibody, wherein the antibody comprises HVR-L1 comprising sequence RASQDVDTSLA (SEQ ID NO:87), HVR-L2 comprising sequence SASFLYS (SEQ ID NO:88), HVR-L3 comprises sequence QQSTGHPQT (SEQ ID NO:89), HVR-H1 comprising sequence GFTFTSTGIS (SEQ ID NO:84), HVR-H2 comprising sequence GRIYPTSGSTNYADSVKG (SEQ ID NO:85), and HVR-H3 comprising sequence ARTYGIYDLYVDYTEYVMDY (SEQ ID NO:86); and (b) a cytotoxic agent.
A medical imaging system comprising: image acquisition means; a data processing unit; and a display; wherein the acquisition means are adapted to acquire 2D image data of an object, wherein the object is provided with at least three markers visible in an 2D image; wherein the data processing unit is adapted to detect the markers in the 2D image; and to identify the spatial positioning and rotation angle of the object in relation to the system geometry on behalf of the markers; and wherein the display is adapted to display an object-indicator indicating the spatial positioning and rotation angle of the object; characterised in that the data processing unit is adapted to compute, before 2D image data of the object is acquired, a configuration of the markers for a predetermined desired spatial positioning and rotation angle of the object; wherein the data processing unit is adapted to generate the 2D projection of the computed marker configuration according to the system geometry during the acquisition of the 2D image; and wherein the display is adapted to display the generated projection as a target indicator. image acquisition means; a data processing unit; and a display; wherein the acquisition means are adapted to acquire 2D image data of an object, wherein the object is provided with at least three markers visible in an 2D image; wherein the data processing unit is adapted to detect the markers in the 2D image; and to identify the spatial positioning and rotation angle of the object in relation to the system geometry on behalf of the markers; and wherein the display is adapted to display an object-indicator indicating the spatial positioning and rotation angle of the object; characterised in that the data processing unit is adapted to compute, before 2D image data of the object is acquired, a configuration of the markers for a predetermined desired spatial positioning and rotation angle of the object; wherein the data processing unit is adapted to generate the 2D projection of the computed marker configuration according to the system geometry during the acquisition of the 2D image; and wherein the display is adapted to display the generated projection as a target indicator.
Method for producing a component with a cooling channel system, comprising: - building up a first section of the component by additive material-bonding application of a build-up material, - introducing a first cavity with an opening into the first section of the component, characterized in that the method further comprises: - partially or completely covering the opening of the first cavity in the first section by a cover part, - building up a second section of the component by additive material-bonding application of the build-up material, wherein the build-up material is applied at least to the cover part and optionally additionally to the first section, - introducing a second cavity into the second section of the component, - introducing a connecting channel (90; 90a) into the component at least partially in sections by material-removing machining to form the cooling channel system, wherein the connecting channel connects the second cavity of the second section to the first cavity of the first section of the component. - building up a first section of the component by additive material-bonding application of a build-up material, - introducing a first cavity with an opening into the first section of the component, - partially or completely covering the opening of the first cavity in the first section by a cover part, - building up a second section of the component by additive material-bonding application of the build-up material, wherein the build-up material is applied at least to the cover part and optionally additionally to the first section, - introducing a second cavity into the second section of the component, - introducing a connecting channel (90; 90a) into the component at least partially in sections by material-removing machining to form the cooling channel system, wherein the connecting channel connects the second cavity of the second section to the first cavity of the first section of the component.
A method for location determination in beamformed communication, comprising: receiving a first beamformed reference signal as a positioning reference signal, PRS, wherein the PRS is received over a subset of beams directed towards the UE, and receiving the PRS further comprises receiving the PRS for each of multiple carriers that share a same beam by sharing a same antenna panel and by being aligned in time; transmitting by a user equipment, UE, to a base station, a first measurement report, the first measurement report indicating a measurement parameter associated with the first beamformed reference signal; and transmitting by the UE to the base station, additional measurement reports for additional base stations, the additional measurement reports each indicating measurement parameters associated with additional beamformed reference signals that are transmitted at different times in accordance to a coordinated time offset schedule by the additional base stations, the additional beamformed reference signals being according to beam sweep cycles of neighboring base stations coordinated to minimize collision between the beams using the coordinated time offset schedule; wherein the first measurement report and the additional measurement reports are configured to allow the base station to identify a location of the UE; and wherein transmitting the first measurement report further comprises: transmitting, by the UE, a single first measurement report indicating measurement parameters associated with each of the multiple carriers. receiving a first beamformed reference signal as a positioning reference signal, PRS, wherein the PRS is received over a subset of beams directed towards the UE, and receiving the PRS further comprises receiving the PRS for each of multiple carriers that share a same beam by sharing a same antenna panel and by being aligned in time; transmitting by a user equipment, UE, to a base station, a first measurement report, the first measurement report indicating a measurement parameter associated with the first beamformed reference signal; and transmitting by the UE to the base station, additional measurement reports for additional base stations, the additional measurement reports each indicating measurement parameters associated with additional beamformed reference signals that are transmitted at different times in accordance to a coordinated time offset schedule by the additional base stations, the additional beamformed reference signals being according to beam sweep cycles of neighboring base stations coordinated to minimize collision between the beams using the coordinated time offset schedule; wherein the first measurement report and the additional measurement reports are configured to allow the base station to identify a location of the UE; and wherein transmitting the first measurement report further comprises: transmitting, by the UE, a single first measurement report indicating measurement parameters associated with each of the multiple carriers.
A method for optimizing a robot program of a welding robot unit, wherein the method comprises: - compiling in a log file information relating to a welding path on one or more workpieces (12a-b), and welding parameters recorded when executing the robot program in a welding operation forming a weld on the one or more workpieces (12a-b), and - processing the log file to form a geometrical visualization of the log file so that the welding parameters are paired with geometrical positions of the weld, wherein the welding path is divided into a plurality of clusters, each cluster comprising information on the welding parameters at the respective portion of the welding path, wherein the clusters are marked on the geometrical visualization of the log file. - compiling in a log file information relating to a welding path on one or more workpieces (12a-b), and welding parameters recorded when executing the robot program in a welding operation forming a weld on the one or more workpieces (12a-b), and - processing the log file to form a geometrical visualization of the log file so that the welding parameters are paired with geometrical positions of the weld,
A method for evaluating skin roughening, wherein a surfactant is added to a substrate mimicking lipids in stratum corneum intercellular lipid, consisting of a substrate and a lipid membrane formed on the substrate, wherein the lipid membrane is formed of ceramides, palmitic acid and cholesterol, and the surfactant is evaluated as causing skin roughening in vivo if a myelin figure is formed on the substrate, and the degree of skin roughening is evaluated as poorer the longer the shortest distance between the tip of the myelin figure and the edge of the substrate.
A vehicle, comprising: a steering wheel; a steering switch disposed on the steering wheel; an other-vehicle-detector for detecting another vehicle; a tactile sensation presentation unit for presenting a tactile sensation to an operator by vibrating the steering switch; and a controller; wherein the controller is configured to perform detection of the presence or absence of another vehicle when a predetermined operation on the steering switch is detected; wherein the controller is configured to cause the tactile sensation presentation unit to vibrate the steering switch to present a tactile sensation to the operator indicating the presence of another vehicle; wherein the controller is configured to cause the tactile sensation presentation unit to vibrate the steering switch to present a tactile sensation to the operator indicating the absence of another vehicle; and wherein the tactile sensation indicating the presence of another vehicle is different to the tactile sensation indicating the absence of another vehicle. a steering wheel; a steering switch disposed on the steering wheel; an other-vehicle-detector for detecting another vehicle; a tactile sensation presentation unit for presenting a tactile sensation to an operator by vibrating the steering switch; and a controller; wherein the controller is configured to perform detection of the presence or absence of another vehicle when a predetermined operation on the steering switch is detected; wherein the controller is configured to cause the tactile sensation presentation unit to vibrate the steering switch to present a tactile sensation to the operator indicating the presence of another vehicle; wherein the controller is configured to cause the tactile sensation presentation unit to vibrate the steering switch to present a tactile sensation to the operator indicating the absence of another vehicle; and wherein the tactile sensation indicating the presence of another vehicle is different to the tactile sensation indicating the absence of another vehicle.
A releasable securing device comprising a flexible strap having a plurality of teeth a locking head having a cavity, wherein the flexible strap is insertable into and through the cavity to thereby form a securing loop of adjustable dimension, the flexible strap being slidably movable within the cavity in a first direction to reduce the dimension of the securing loop, and slidably movable within the cavity in a second direction to increase the dimension of the securing loop; a pawl member (20, 22) located inside the locking head so as to engage with the teeth of the flexible strap when the flexible strap is inserted into the cavity, wherein engagement between the pawl member (20, 22) and the teeth permits movement of the strap in the first direction but prevents movement of the strap in the second direction; wherein the locking head comprises guide means arranged such that as a release mechanism is actuated, the release mechanism is guided by the guide means into engagement with the pawl member (20, 22), so as to move the pawl member (20, 22) out of engagement with the teeth of the flexible strap to allow the strap to move in the second direction, characterised in that, the release mechanism comprises at least one prong (42, 43) and the at least one prong (42, 43) comprises a taper for urging the pawl member (20, 22) out of engagement with the teeth of the strap.
A medical ventilator for delivering a pressurized breath to a patient (270, 482) and to trigger an oxygen source to increase FiO2 delivered to the patient (270, 482), comprising: a ventilation delivery interface including one or more mixing chambers; a ventilator circuit for connecting the ventilator to the ventilation delivery interface, the ventilator circuit including a multiple lumen circuit to deliver pressurized air and pulsed oxygen upon triggering of the pressurized breath, wherein the ventilation delivery interface includes a first lumen and a second lumen, the first lumen being an air delivery lumen to deliver air to the one or more mixing chambers, and the second lumen being an oxygen delivery lumen (458, 470) to deliver oxygen to the one or more mixing chambers to mix with the air just prior to delivery to the patient (270, 482) and bypassing any interface leaks without mixing previously in the ventilator nor the ventilator circuit; characterized in that the oxygen source is a pulsed oxygen concentrator that delivers pulses (330, 350) of a bolus of oxygen to the ventilator; the medical ventilator comprises a positive pressure source; and the medical ventilator comprises a negative pressure source that is configured to generate a negative pressure in the ventilator which triggers the oxygen concentrator to deliver a pulse of oxygen to the ventilator oxygen inlet. a ventilation delivery interface including one or more mixing chambers; a ventilator circuit for connecting the ventilator to the ventilation delivery interface, the ventilator circuit including a multiple lumen circuit to deliver pressurized air and pulsed oxygen upon triggering of the pressurized breath, wherein the ventilation delivery interface includes a first lumen and a second lumen, the first lumen being an air delivery lumen to deliver air to the one or more mixing chambers, and the second lumen being an oxygen delivery lumen (458, 470) to deliver oxygen to the one or more mixing chambers to mix with the air just prior to delivery to the patient (270, 482) and bypassing any interface leaks without mixing previously in the ventilator nor the ventilator circuit; characterized in that the oxygen source is a pulsed oxygen concentrator that delivers pulses (330, 350) of a bolus of oxygen to the ventilator; the medical ventilator comprises a positive pressure source; and the medical ventilator comprises a negative pressure source that is configured to generate a negative pressure in the ventilator which triggers the oxygen concentrator to deliver a pulse of oxygen to the ventilator oxygen inlet.
A broadcast relay assistance device, comprising: an audio unit including a memory configured to store broadcast audio data (Dba) corresponding to input broadcast audio signals (Sba) in a chronological order; a broadcast wave generator configured to generate a broadcast wave from the input broadcast audio signals (Sba) for output; an anomaly detector configured to detect an anomaly due to a stroke of lightning and to output an anomaly detection signal for a period in which the anomaly is detected; a halting unit configured to interrupt the output of the broadcast wave from the broadcast wave generator during the period in accordance with the anomaly detection signal; and wherein the audio unit is configured to receive the anomaly detection signal during the period, and to read from the memory, the broadcast audio data corresponding to the broadcast audio signals stored in the memory during the period, and to output the broadcast audio signals corresponding to the read broadcast audio data when the anomaly is no longer detected. an audio unit including a memory configured to store broadcast audio data (Dba) corresponding to input broadcast audio signals (Sba) in a chronological order; a broadcast wave generator configured to generate a broadcast wave from the input broadcast audio signals (Sba) for output; an anomaly detector configured to detect an anomaly due to a stroke of lightning and to output an anomaly detection signal for a period in which the anomaly is detected; a halting unit configured to interrupt the output of the broadcast wave from the broadcast wave generator during the period in accordance with the anomaly detection signal; and wherein the audio unit is configured to receive the anomaly detection signal during the period, and to read from the memory, the broadcast audio data corresponding to the broadcast audio signals stored in the memory during the period, and to output the broadcast audio signals corresponding to the read broadcast audio data when the anomaly is no longer detected.