mhurhangee/ep-ind-claims huggingface dataset:
A body joint support device, comprising: a covering structure configured to be worn at at least one body joint and press a skin of the body joint that is in a bending state against an inner surface of the covering structure by a pressing force exerted by the covering structure; at least one electrode pad unit disposed on the inner surface of the covering structure and configured to abut against the skin of the body joint through the pressing force; and a control device configured to be fixed on the covering structure and transmit current to the electrode pad unit for the electrode pad unit to transmit current to stimulate or to heat muscle, wherein the covering structure comprises a covering body having an inner surface disposed with the electrode pad unit, and at least one airbag located in the covering body, and characterized in that the electrode pad unit only partially overlaps in position the airbag. a covering structure configured to be worn at at least one body joint and press a skin of the body joint that is in a bending state against an inner surface of the covering structure by a pressing force exerted by the covering structure; at least one electrode pad unit disposed on the inner surface of the covering structure and configured to abut against the skin of the body joint through the pressing force; and a control device configured to be fixed on the covering structure and transmit current to the electrode pad unit for the electrode pad unit to transmit current to stimulate or to heat muscle, wherein the covering structure comprises a covering body having an inner surface disposed with the electrode pad unit, and at least one airbag located in the covering body, and characterized in that the electrode pad unit only partially overlaps in position the airbag.
A nuclear component handling arrangement, comprising: a storage overpack comprising an inner envelope; an inner canister comprising an outer envelope, wherein the inner canister is positionable within the storage overpack; and a vent and duct system, comprising: an inlet vent, comprising: an inlet entrance comprising an inlet entrance cross-sectional area; an inlet exit; and an inlet curved transition surface extending between the inlet entrance and the inlet exit; an outlet vent; and a passageway defined between the inner envelope of the storage overpack and the outer envelope of the inner canister, wherein the passageway extends between the inlet vent and the outlet vent; characterized in that the vent and duct system comprises a first horn coupled to the inlet vent at an interface, wherein the first horn comprises: a first horn inlet comprising a first inlet cross-sectional area; a first horn outlet comprising a first outlet cross-sectional area, wherein the first inlet cross-sectional area is greater than the first outlet cross-sectional area, and wherein the first outlet cross-sectional area is substantially the same as the inlet entrance cross-sectional area; and first horn surfaces (806, 810) extending between the first horn inlet and the first horn outlet, wherein the first horn surfaces comprise a first horn transition surface. a storage overpack comprising an inner envelope; an inner canister comprising an outer envelope, wherein the inner canister is positionable within the storage overpack; and a vent and duct system, comprising: an inlet vent, comprising: an inlet entrance comprising an inlet entrance cross-sectional area; an inlet exit; and an inlet curved transition surface extending between the inlet entrance and the inlet exit; an outlet vent; and a passageway defined between the inner envelope of the storage overpack and the outer envelope of the inner canister, wherein the passageway extends between the inlet vent and the outlet vent; an inlet vent, comprising: an inlet entrance comprising an inlet entrance cross-sectional area; an inlet exit; and an inlet curved transition surface extending between the inlet entrance and the inlet exit; an inlet entrance comprising an inlet entrance cross-sectional area; an inlet exit; and an inlet curved transition surface extending between the inlet entrance and the inlet exit; an outlet vent; and a passageway defined between the inner envelope of the storage overpack and the outer envelope of the inner canister, wherein the passageway extends between the inlet vent and the outlet vent; a first horn inlet comprising a first inlet cross-sectional area; a first horn outlet comprising a first outlet cross-sectional area, wherein the first inlet cross-sectional area is greater than the first outlet cross-sectional area, and wherein the first outlet cross-sectional area is substantially the same as the inlet entrance cross-sectional area; and first horn surfaces (806, 810) extending between the first horn inlet and the first horn outlet, wherein the first horn surfaces comprise a first horn transition surface.
A computer-implemented method comprising: determining, upon completion of an orthopedic procedure on anatomy of a patient, a final state of the anatomy, the final state of the anatomy including information describing the anatomy of the patient following the completion of the orthopedic procedure; determining, using a machine learning trained model, a postoperative recovery protocol for the patient based on the final state, the postoperative patient treatment protocol determined by the machine learning trained model to correlate to positive outcomes for data similar to the patient; receiving postoperative feedback data from a device associated with the patient, the postoperative feedback data indicative of a postoperative objective outcome metric related to the postoperative recovery protocol or the anatomy; generating a changed postoperative patient treatment protocol based on updating the machine learning trained model using training data based on the postoperative feedback data, the postoperative recovery protocol, and the final state; and outputting a patient treatment recommendation, the patient treatment recommendation based on the changed postoperative patient recovery protocol. determining, upon completion of an orthopedic procedure on anatomy of a patient, a final state of the anatomy, the final state of the anatomy including information describing the anatomy of the patient following the completion of the orthopedic procedure; determining, using a machine learning trained model, a postoperative recovery protocol for the patient based on the final state, the postoperative patient treatment protocol determined by the machine learning trained model to correlate to positive outcomes for data similar to the patient; receiving postoperative feedback data from a device associated with the patient, the postoperative feedback data indicative of a postoperative objective outcome metric related to the postoperative recovery protocol or the anatomy; generating a changed postoperative patient treatment protocol based on updating the machine learning trained model using training data based on the postoperative feedback data, the postoperative recovery protocol, and the final state; and outputting a patient treatment recommendation, the patient treatment recommendation based on the changed postoperative patient recovery protocol.
Hydraulic system having a hydraulic pressure supply unit and at least one hydraulic consumer which can be acted upon thereby, wherein the pressure supply unit has a housing structure and a hydraulic pump driven by an electric motor, which is designed as a brushless DC motor with outer motor stator and inner motor rotor, which hydraulic pump comprises a pump rotor which is rotatably mounted on a bearing journal and rotatably coupled to the motor rotor, characterized in that - the motor rotor and pump rotor are separately produced components, - the rotary coupling of the pump rotor with the motor rotor is designed to be axially displaceable, - the motor rotor is rotatably mounted with a first mounting point on the housing structure and with a second, opposite mounting point on the bearing journal and - a pre-tensioning spring with axial tensioning direction acts on the motor rotor and is supported on the pump rotor. - the motor rotor and pump rotor are separately produced components, - the rotary coupling of the pump rotor with the motor rotor is designed to be axially displaceable, - the motor rotor is rotatably mounted with a first mounting point on the housing structure and with a second, opposite mounting point on the bearing journal and - a pre-tensioning spring with axial tensioning direction acts on the motor rotor and is supported on the pump rotor.
An ultrasound image diagnosis apparatus comprising: an ultrasound probe which outputs a transmission ultrasound to a test object in response to an input of a pulse signal, and outputs a reception signal when a reflected ultrasound from the test object is received; and a transmission section which outputs a pulse signal of a predetermined driving waveform so as to cause the ultrasound probe to generate the transmission ultrasound, wherein the ultrasound probe and the driving waveform of the pulse signal output from the transmission section are set so that a difference between a maximum value and a minimum value of a totaling value in a frequency band where a frequency band included in a transmission/reception frequency band at -20 dB of the ultrasound probe and a frequency band at -20 dB of the driving waveform in the pulse signal overlap each other is equal to or less than 0.15 radian, the totalizing value being obtained by totalizing a group delay obtained from a phase difference in each frequency between the pulse signal input to the ultrasound probe and the reception signal obtained from the reflected ultrasound of the transmission ultrasound output by the pulse signal and a group delay obtained from a phase difference in each frequency of the pulse signal output by the transmission section. an ultrasound probe which outputs a transmission ultrasound to a test object in response to an input of a pulse signal, and outputs a reception signal when a reflected ultrasound from the test object is received; and a transmission section which outputs a pulse signal of a predetermined driving waveform so as to cause the ultrasound probe to generate the transmission ultrasound, wherein the ultrasound probe and the driving waveform of the pulse signal output from the transmission section are set so that a difference between a maximum value and a minimum value of a totaling value in a frequency band where a frequency band included in a transmission/reception frequency band at -20 dB of the ultrasound probe and a frequency band at -20 dB of the driving waveform in the pulse signal overlap each other is equal to or less than 0.15 radian, the totalizing value being obtained by totalizing a group delay obtained from a phase difference in each frequency between the pulse signal input to the ultrasound probe and the reception signal obtained from the reflected ultrasound of the transmission ultrasound output by the pulse signal and a group delay obtained from a phase difference in each frequency of the pulse signal output by the transmission section.
Tugger train trailer, comprising a frame for receiving a logistics element, characterized in that the frame is designed to be lowered and raised in the vertical direction on at least one side (R; L) independently of the side (L; R) that is opposite in the transverse direction.
A slide valve device for automatic surface pressure device, comprising: a fixed plate fixed inside a base frame that is mounted onto a bottom lower surface of a molten metal vessel; a slide case including a slide plate, the slide case being provided below the fixed plate so as to be slidable by an actuator; a seal case provided below the slide case, the seal case including a seal plate or including a seal plate and a shooting nozzle; and a movable member provided to each side portion of the seal case so as to be movable on a support surface situated at each side portion of the base frame, the slide case and the seal case being slidable by the actuator so that a surface pressure is appliable and releasable, wherein the base frame comprises: a positioning member for determining an arrangement location of the seal case; and a stopper for fixing the seal case at the arrangement location, and wherein the slide case or a guide piece comprises a pusher for sliding the seal case together with the slide case when sliding the slide case in a surface pressure application direction. a fixed plate fixed inside a base frame that is mounted onto a bottom lower surface of a molten metal vessel; a slide case including a slide plate, the slide case being provided below the fixed plate so as to be slidable by an actuator; a seal case provided below the slide case, the seal case including a seal plate or including a seal plate and a shooting nozzle; and a movable member provided to each side portion of the seal case so as to be movable on a support surface situated at each side portion of the base frame, the slide case and the seal case being slidable by the actuator so that a surface pressure is appliable and releasable, the slide case and the seal case being slidable by the actuator so that a surface pressure is appliable and releasable, wherein the base frame comprises: a positioning member for determining an arrangement location of the seal case; and a stopper for fixing the seal case at the arrangement location, and a positioning member for determining an arrangement location of the seal case; and a stopper for fixing the seal case at the arrangement location, and wherein the slide case or a guide piece comprises a pusher for sliding the seal case together with the slide case when sliding the slide case in a surface pressure application direction.
Lifting system for rerailing a rail vehicle, in particular a locomotive, comprising a rail vehicle with an undercarriage structure and a gripping element, which can be raised and lowered by a lifting device, with two hook-shaped gripping brackets, wherein for lifting and lowering the rail vehicle the gripping brackets can be engaged by gripping under the undercarriage structure, characterised in that at a front end of the rail vehicle the undercarriage structure has a support unit with a front opening forming a coupling cage, through which front opening a central buffer coupling with an integrated energy absorption element extends, wherein a support profile running transversely to a vehicle longitudinal axis forms a top edge of the front opening, that the gripping brackets are spaced apart from one another such that they can be positioned under the support profile symmetrically to the vehicle longitudinal centre plane for engagement of the gripping element by being lowered on both sides of the central buffer coupling and by then being inserted into the front opening, and that the gripping brackets have a hooked profile corresponding to the support profile.
Device for machining and/or producing an indentation in a workpiece, wherein the device comprises a cassette (2, 22, 35), to which cutting dies (13, 14, 15, 21, 31, 32, 33, 34) are respectively detachably connectable, wherein the cutting dies (13, 14, 15, 21, 31, 32, 33, 34) are formed as indexable cutting dies, wherein the cassette (2, 22, 35) is detachably connected to a pull rod, characterised in that adjusting means for adjusting the cutting dies (13, 14, 15, 21, 31, 32, 33, 34) are provided, wherein the adjusting means make achievable a one-dimensional displacement of the cutting dies (13, 14, 15, 21, 31, 32, 33, 34), in particular a feed motion, wherein the adjusting means comprise at least one screw with a cone-shaped head.
A wheel for a vehicle comprising: a rim; an inner hub located radially inward from the rim; an attachment assembly (7, 9, 10) configured to couple the rim to the inner hub; a first air engaging flexible and aerodynamic surface overlaying the attachment assembly configured to couple the rim to the inner hub, wherein the radially medial edge of the first air engaging flexible and aerodynamic surface is operatively connected proximate to the inner hub, and the radially distal perimeter edge of the first air engaging flexible and aerodynamic surface is operatively connected proximate to the rim, forming a first axial surface of the wheel; and a second air engaging flexible and aerodynamic surface overlaying the attachment assembly configured to couple the rim to the inner hub, wherein the radially medial edge of the second air engaging flexible and aerodynamic surface is operatively connected proximate to the inner hub, and the radially distal perimeter edge of the second air engaging flexible and aerodynamic surface is operatively connected proximate to the rim, forming a second axial surface of the wheel, which is axially opposed to the said first axial surface of the wheel; wherein said first air engaging flexible and aerodynamic surface and said second air engaging flexible and aerodynamic surface are adaptable to external forces and change shape, when subject to the external forces such that the wheel has a stall angle of between 15 and 25 degrees of yaw. a rim; an inner hub located radially inward from the rim; an attachment assembly (7, 9, 10) configured to couple the rim to the inner hub; a first air engaging flexible and aerodynamic surface overlaying the attachment assembly configured to couple the rim to the inner hub, wherein the radially medial edge of the first air engaging flexible and aerodynamic surface is operatively connected proximate to the inner hub, and the radially distal perimeter edge of the first air engaging flexible and aerodynamic surface is operatively connected proximate to the rim, forming a first axial surface of the wheel; and a second air engaging flexible and aerodynamic surface overlaying the attachment assembly configured to couple the rim to the inner hub, wherein the radially medial edge of the second air engaging flexible and aerodynamic surface is operatively connected proximate to the inner hub, and the radially distal perimeter edge of the second air engaging flexible and aerodynamic surface is operatively connected proximate to the rim, forming a second axial surface of the wheel, which is axially opposed to the said first axial surface of the wheel; wherein said first air engaging flexible and aerodynamic surface and said second air engaging flexible and aerodynamic surface are adaptable to external forces and change shape, when subject to the external forces such that the wheel has a stall angle of between 15 and 25 degrees of yaw.
A thin film deposition apparatus comprising; a hollow cathode, a substrate holder and a target holder, the substrate holder and the target holder being located on opposite sides of the hollow cathode, a plasma supply element to supply plasma to the interior of the hollow cathode at an end of the hollow cathode nearest the target holder, and a power unit connected to the hollow cathode to supply a high voltage pulse to the hollow cathode, wherein the thin film deposition apparatus is configured such that, in use, when the plasma supply element supplies plasma to the hollow cathode and a high voltage pulse is applied to the hollow cathode, a virtual plasma cathode forms and expands to generate an electron beam, directed towards a target held in the target holder, and wherein the thin film deposition apparatus is further configured such that, in use, a plume of ablated target material passes through the hollow cathode and condenses as a thin film on to a substrate receivable within the substrate holder, characterized in that the plasma supply element comprises a hollow cap electrode adjacent the hollow cathode and defining a gas container and an electrical trigger unit is connected to the hollow cap electrode to generate an initial plasma within the hollow cap electrode.
A method of data routing in a network through contextual trust comprising the steps of: - determining the level and the nature of confidentiality of data to be transmitted from at least one network component to at least one recipient network component; - determining the time-variant availability of a plurality of hop nodes (X1, Y1, Y2, W1, W2, G1, G2, G3, G4); - determining the at least one owner and the profile of the at least one owner of a respective node of the plurality of hop nodes (X1, Y1, Y2, W1, W2, G1, G2, G3, G4); - determining a contextual trust between the owner of the at least one network component and the at least one owner of the respective node of the plurality of hop nodes (X1, Y1, Y2, W1, W2, G1, G2, G3, G4); and - determining a hop routing strategy for data routing from the at least one network component or from at least one other hop node (X1, Y1, Y2, W1, W2, G1, G2, G3, G4) to the plurality of hop nodes (X1, Y1, Y2, W1, W2, G1, G2, G3, G4) or to the at least one recipient component resulting in one or more possible hop connection paths, characterized in that the hop routing strategy is determined considering a desired level of trust for the data to be transmitted, a measure of contextual trust between the owner of the at least one network component and the at least one owner of the respective node of the plurality of hop nodes (X1, Y1, Y2, W1, W2, G1, G2, G3, G4), and a time-variant sensitivity of the data to be transmitted, wherein the time-variant sensitivity comprises the time-variants of the level and the nature of the confidentiality of the data to be transmitted. - determining the level and the nature of confidentiality of data to be transmitted from at least one network component to at least one recipient network component; - determining the time-variant availability of a plurality of hop nodes (X1, Y1, Y2, W1, W2, G1, G2, G3, G4); - determining the at least one owner and the profile of the at least one owner of a respective node of the plurality of hop nodes (X1, Y1, Y2, W1, W2, G1, G2, G3, G4); - determining a contextual trust between the owner of the at least one network component and the at least one owner of the respective node of the plurality of hop nodes (X1, Y1, Y2, W1, W2, G1, G2, G3, G4); and - determining a hop routing strategy for data routing from the at least one network component or from at least one other hop node (X1, Y1, Y2, W1, W2, G1, G2, G3, G4) to the plurality of hop nodes (X1, Y1, Y2, W1, W2, G1, G2, G3, G4) or to the at least one recipient component resulting in one or more possible hop connection paths, characterized in that the hop routing strategy is determined considering a desired level of trust for the data to be transmitted, a measure of contextual trust between the owner of the at least one network component and the at least one owner of the respective node of the plurality of hop nodes (X1, Y1, Y2, W1, W2, G1, G2, G3, G4), and a time-variant sensitivity of the data to be transmitted, wherein the time-variant sensitivity comprises the time-variants of the level and the nature of the confidentiality of the data to be transmitted.
Radiation-selective absorber coating, in particular for absorber pipes of parabolic trough collectors, having a layer which is reflective in the infrared range, having at least one absorption layer which is arranged above the layer which is reflective in the infrared range and having an anti-reflection layer which is arranged above the absorption layer, wherein the layer which is reflective in the infrared range is arranged on at least two barrier layers (24a, 24b) and the first barrier layer of the at least two barrier layers (24a, 24b) comprises a thermally produced oxide, wherein the second barrier layer of the at least two barrier layers (24a, 24b), which second barrier layer is arranged above the first barrier layer, comprises cermet material comprising at least one element from the group aluminium oxide, silicon oxide, nickel oxide, chromium oxide and at least one element from the group molybdenum, nickel, tungsten, vanadium, characterised in that at least one adhesion-improving layer is arranged between the first barrier layer and the second barrier layer.