mhurhangee/ep-ind-claims huggingface dataset:
A method for condition monitoring of an inductive braking device of an elevator car in an elevator shaft, wherein the method comprises: causing electromechanical brakes to hold the elevator car stationary in the elevator shaft; causing actuation of a braking condition for the elevator car with the inductive braking device; causing the electromechanical brakes to lift while the inductive braking device is in the braking condition; determining a value associated with the inductive braking device in response to causing the electromechanical brakes to lift while the inductive braking device is actuated; and determining an operating condition of the inductive braking device based on the value. causing electromechanical brakes to hold the elevator car stationary in the elevator shaft; causing actuation of a braking condition for the elevator car with the inductive braking device; causing the electromechanical brakes to lift while the inductive braking device is in the braking condition; determining a value associated with the inductive braking device in response to causing the electromechanical brakes to lift while the inductive braking device is actuated; and determining an operating condition of the inductive braking device based on the value.
A system of street lights and path marker, comprising: - a path marker including a photo-luminescent compound, said compound having a photo-luminescent absorption band or PAB and a photo-luminescent emission band or PEB, whereby radiation absorbed in said PAB is re-emitted in said PEB, said PAB and PEB being at least partly distinct from each other, wherein said photo-luminescent compound has said PEB in the range of visual sensitivity (V λ) of the human eye and said PAB in the blue region of the electromagnetic spectrum, and - a lighting source including a radiation emitter having a peak emission value in the blue region of the electromagnetic spectrum, said lighting source being configured to operatively co-operating with said path marker to stimulate photo-luminescence in said photo-luminescent compound, whereby, in condition of poor visibility, road signs are brighter and thus highlighted with respect to the average illumination of the background scene. - a path marker including a photo-luminescent compound, said compound having a photo-luminescent absorption band or PAB and a photo-luminescent emission band or PEB, whereby radiation absorbed in said PAB is re-emitted in said PEB, said PAB and PEB being at least partly distinct from each other, wherein said photo-luminescent compound has said PEB in the range of visual sensitivity (V λ) of the human eye and said PAB in the blue region of the electromagnetic spectrum, and - a lighting source including a radiation emitter having a peak emission value in the blue region of the electromagnetic spectrum, said lighting source being configured to operatively co-operating with said path marker to stimulate photo-luminescence in said photo-luminescent compound, whereby, in condition of poor visibility, road signs are brighter and thus highlighted with respect to the average illumination of the background scene.
Halophosphate phosphor for low-pressure discharge lamps, characterised in that the halophosphate phosphor is provided in the form of phosphor particles, the surface of which is completely coated in each case with a protective layer, wherein the protective layer consists of a metal phosphate, wherein the metal is selected from Sc, Y, La, Gd, Lu, Al, Ce, Mg, Ca, Sr, Ba, and mixtures thereof.
A lancing device comprising: a lancet coupled to an elongate coupler shaft, about which are disposed a driver coil pack configured to drive the elongate coupler shaft and a position sensor configured to measure the position of the lancet, and a processor electrically coupled to the position sensor, the position sensor and processor together being configured to control the driver coil pack to drive the elongate coupler shaft in a manner according to the following: driving the lancet distally towards the tissue of a patient; making contact between the lancet and the tissue of the patient; advancing the lancet into the tissue during a penetration stroke to a position of maximum inward displacement; allowing the lancet to settle in the tissue upon reaching the point of maximum inward penetration by waiting until any motion of the lancet has stopped by monitoring changes in position of the lancet, wherein no driving force is imposed on the lancet while settling; displacing the lancet proximally over a withdrawal stroke at an average velocity that is lower than an average velocity of the lancet during the penetration stroke; and removing the lancet from the tissue. a lancet coupled to an elongate coupler shaft, about which are disposed a driver coil pack configured to drive the elongate coupler shaft and a position sensor configured to measure the position of the lancet, and a processor electrically coupled to the position sensor, the position sensor and processor together being configured to control the driver coil pack to drive the elongate coupler shaft in a manner according to the following: driving the lancet distally towards the tissue of a patient; making contact between the lancet and the tissue of the patient; advancing the lancet into the tissue during a penetration stroke to a position of maximum inward displacement; allowing the lancet to settle in the tissue upon reaching the point of maximum inward penetration by waiting until any motion of the lancet has stopped by monitoring changes in position of the lancet, wherein no driving force is imposed on the lancet while settling; displacing the lancet proximally over a withdrawal stroke at an average velocity that is lower than an average velocity of the lancet during the penetration stroke; and removing the lancet from the tissue. driving the lancet distally towards the tissue of a patient; making contact between the lancet and the tissue of the patient; advancing the lancet into the tissue during a penetration stroke to a position of maximum inward displacement; allowing the lancet to settle in the tissue upon reaching the point of maximum inward penetration by waiting until any motion of the lancet has stopped by monitoring changes in position of the lancet, wherein no driving force is imposed on the lancet while settling; displacing the lancet proximally over a withdrawal stroke at an average velocity that is lower than an average velocity of the lancet during the penetration stroke; and removing the lancet from the tissue.
Surge arrester for use in the power supply of low-voltage networks, in particular for use between a neutral conductor N and a potential equalization means PE, having a cylindrical housing, having two electrodes (3, 4) arranged axially opposite one another and having an arc combustion chamber formed inside the housing, wherein a cylindrical insulating body is arranged in the housing, having a bore which extends in the longitudinal direction of the housing and into which the two electrodes (3, 4) each project with their end face facing the arc combustion chamber, so that the insulating body radially surrounds the arc combustion chamber, wherein the arc combustion chamber is bound in the axial direction by the two electrodes (3, 4) and in the radial direction by the cylindrical insulating body, and wherein a spark gap is formed between the two electrodes (3, 4) so that an electric arc is produced when the spark gap between the two electrodes (3, 4) is ignited, wherein two chambers (6, 7) are formed inside the housing, which are each connected to the arc combustion chamber via at least one channel (8, 9), so that hot ionized gas can flow from the arc combustion chamber into the chambers (6, 7) after ignition of the spark gap, wherein the volume of the two chambers (6, 7) together is larger than the volume of the arc combustion chamber, wherein the two chambers (6, 7) are arranged in the longitudinal direction of the housing on opposite sides of the arc combustion chamber and are surrounded by the housing, and wherein the channels (8, 9) are at least partially formed by the insulating body, characterized in that the two chambers (6, 7) each have an axial and radial distance from the arc combustion chamber.
A method comprising detecting in a biological sample from a human patient having or suspected of having cancer the presence of a polypeptide having ROS1 kinase activity and detecting in the biological sample the presence of a mutant EGFR polypeptide that has increased kinase activity and/or renders a tumor cell sensitive to one or more EGFR inhibitors.
Treatment space for animals, which comprises a therapy room for therapy treatment of one or several animals simultaneously, such as a horse to be fastened to a constraint box, a radiant heater apparatus and a salt therapy apparatus for salt room therapy to be performed in the therapy room by inhalation, which salt therapy apparatus includes a salt feeding arrangement for feeding of salt dust into the therapy room including a salt room generator, an airflow arrangement for circulating air in the therapy room by means of a blower arrangement (2b1), and a control apparatus with a user interface (2c1) comprising a control panel, for adjusting/maintaining circumstances in the therapy room as desired by means of a data processing unit (2c2) comprising one or more computers, programmable logics and/or microprocessors, characterized in that the airflow arrangement within the treatment space for animals comprises a feed air arrangement (2b;2b4) and an exhaust air arrangement (2b;2b2) for removing salty air from the therapy room, in connection with a control unit (3c4) being coupled with the data processing unit (2c2) and controlled by a therapy room monitoring arrangement (2c3), consisting at least of one or more salinity detectors.
A stent, configured to support a mitral valve prosthesis or a tricuspid valve prosthesis, the stent having a contracted configuration for delivery and an expanded configuration for deployment, wherein the stent comprises, along an axial direction thereof, an inflow section, a transition section, an outflow section, the transition section having two ends respectively connected to the inflow section and to the outflow section; the inflow section is located, when in the expanded configuration, upstream of the outflow section with respect to a blood flow direction; the inflow section extends along the axial direction of the stent away from the transition section and flares out; the inflow section has a mesh structure formed by braided filaments; the transition section and the outflow section have mesh structures formed by cutting tubes; the mesh structure of the inflow section is configured to cover an atrioventricular orifice and optionally further extend from an annulus over at least part of an atrium when the stent has been deployed and is in the expanded configuration; characterised in that the mesh structure of the inflow section comprises a plurality of first mesh cells at least some of which are different in axial length from others.
An apolipoprotein A-IV or a biologically active analogue thereof having at least 90% identity to the apolipoprotein A-IV, for use in treating type II diabetes mellitus in a subject.
A method performed by a base station in connection with communicating with user equipment, UE, the method comprising: sending a request message from the base station to the UE on a downlink channel; making, by the base station, a gratuitous grant, to the UE, of resources on an uplink channel for the UE to transmit a response message on the uplink channel, wherein the response message is responsive to the request message and wherein the gratuitous grant is made without waiting for a request from the UE for a grant of resources on the uplink channel for the UE to transmit the response message on the uplink channel; and receiving, by the base station, the response message transmitted by the UE on the uplink channel in response to the gratuitous grant; wherein the gratuitous grant is made after an amount of time sufficient for the UE to be ready to send the response message has elapsed without the base station having received a scheduling request from the UE; and wherein the request message and the response message comprise signaling messages. sending a request message from the base station to the UE on a downlink channel; making, by the base station, a gratuitous grant, to the UE, of resources on an uplink channel for the UE to transmit a response message on the uplink channel, wherein the response message is responsive to the request message and wherein the gratuitous grant is made without waiting for a request from the UE for a grant of resources on the uplink channel for the UE to transmit the response message on the uplink channel; and receiving, by the base station, the response message transmitted by the UE on the uplink channel in response to the gratuitous grant; wherein the gratuitous grant is made after an amount of time sufficient for the UE to be ready to send the response message has elapsed without the base station having received a scheduling request from the UE; and wherein the request message and the response message comprise signaling messages.
A printed circuit board for use with an electrosurgical system comprising a microwave generator, a generator ground and a patient ground, the generator ground and the patient ground being configured to allow an electrical current to flow therethrough that inlucdes a frequency having a particular wavelength, the printed circuit board comprising: a first conductive layer configured for electro-mechanical engagement with a first portion of the generator ground; a second conductive layer configured for electro-mechanical engagement with a portion of the patient ground; a third conductive layer configured for electro-mechanical engagement with a second portion of the generator ground; a first dielectric layer interposed at least partially between the first conductive layer and the second conductive layer; a second dielectric layer interposed at least partially between the second conductive layer and the third conductive layer; and a microstrip disposed in mechanical cooperation with a surface thereof, wherein: the microstrip is configured for facilitating tuning the printed circuit board to reduce losses incurred by the generator ground and/or the patient ground. a first conductive layer configured for electro-mechanical engagement with a first portion of the generator ground; a second conductive layer configured for electro-mechanical engagement with a portion of the patient ground; a third conductive layer configured for electro-mechanical engagement with a second portion of the generator ground; a first dielectric layer interposed at least partially between the first conductive layer and the second conductive layer; a second dielectric layer interposed at least partially between the second conductive layer and the third conductive layer; and a microstrip disposed in mechanical cooperation with a surface thereof, wherein: the microstrip is configured for facilitating tuning the printed circuit board to reduce losses incurred by the generator ground and/or the patient ground. the microstrip is configured for facilitating tuning the printed circuit board to reduce losses incurred by the generator ground and/or the patient ground.
A reinforced coating (104, 204, 304) comprising: an oxide matrix (106, 206, 306); and a reinforcement (108, 208, 308) within the oxide matrix (106, 206, 306), wherein the reinforcement (108, 208, 308) comprises at least one of SiC and Si 3 N 4; characterized in that the oxide matrix (106, 206, 306) comprises at least one of alumina, zirconia, hafnia, a rare earth oxide, a rare earth oxide-stabilized zirconia, a rare earth oxide-stabilized hafnia, a rare earth silicate, a glass ceramic, or mullite, an oxide matrix (106, 206, 306); and a reinforcement (108, 208, 308) within the oxide matrix (106, 206, 306), wherein the reinforcement (108, 208, 308) comprises at least one of SiC and Si 3 N 4; characterized in that the oxide matrix (106, 206, 306) comprises at least one of alumina, zirconia, hafnia, a rare earth oxide, a rare earth oxide-stabilized zirconia, a rare earth oxide-stabilized hafnia, a rare earth silicate, a glass ceramic, or mullite,
An ultrasonic flow meter unit arranged to measure a flow rate of a fluid, the meter unit comprising: - a housing having a through-going opening with an inner surface, and at least two openings for receiving at least two associated ultrasonic transducers (T1, T2), and - an insert provided as a sub-assembly with dimensions enabling insertion of the insert into the housing from one end of the through-going opening, the insert comprising: - a reflector arrangement comprising at least two reflectors (R1, R2) arranged to reflect an ultrasound signal emitted from an associated ultrasonic transducer (T1, T2), - a measuring tube arrangement comprising a measuring tube with a flow channel for receiving the fluid, characterized by - the housing having an indentation positioned in an area of the inner surface being reachable from at least one of the openings for receiving the ultrasonic transducers (T1, T2) with a straight tool for making the indentation, - the insert further comprising a locking finger with a protrusion arranged for engagement with the indentation so that the locking finger is adapted to lock the insert in a longitudinal direction and in a rotational direction within the housing in a predetermined fixed relationship relatively to the associated ultrasonic transducers (T1, T2), wherein the reflector arrangement is provided with a cavity for receiving at least the.part of the locking finger with the protrusion, so that the locking finger is able to bend into the reflector arrangement. - a housing having a through-going opening with an inner surface, and at least two openings for receiving at least two associated ultrasonic transducers (T1, T2), and - an insert provided as a sub-assembly with dimensions enabling insertion of the insert into the housing from one end of the through-going opening, the insert comprising: - a reflector arrangement comprising at least two reflectors (R1, R2) arranged to reflect an ultrasound signal emitted from an associated ultrasonic transducer (T1, T2), - a measuring tube arrangement comprising a measuring tube with a flow channel for receiving the fluid, - a reflector arrangement comprising at least two reflectors (R1, R2) arranged to reflect an ultrasound signal emitted from an associated ultrasonic transducer (T1, T2), - a measuring tube arrangement comprising a measuring tube with a flow channel for receiving the fluid, - the housing having an indentation positioned in an area of the inner surface being reachable from at least one of the openings for receiving the ultrasonic transducers (T1, T2) with a straight tool for making the indentation, - the insert further comprising a locking finger with a protrusion arranged for engagement with the indentation so that the locking finger is adapted to lock the insert in a longitudinal direction and in a rotational direction within the housing in a predetermined fixed relationship relatively to the associated ultrasonic transducers (T1, T2), wherein the reflector arrangement is provided with a cavity for receiving at least the.part of the locking finger with the protrusion, so that the locking finger is able to bend into the reflector arrangement.
A method of twisting a pair of wires, comprising the steps of: a) arranging a first wire parallel to a second wire along a longitudinal axis (step 202); b) securing ends of the first and second wires (12, 14) to maintain the parallel arrangement (step 204); c) gripping central portions of the first and second wires (12, 14) (step 206); d) rotating the central portions of the first and second wires, thereby twisting the first and second wires about one another (step 210); and the method being characterized in that it further comprises the step of: e) applying a lateral offsetting force to the first and second wires (12, 14) by deflecting the central portions of the first and second wires (12, 14) orthogonally from the longitudinal axis (step 208), wherein step e) is performed prior to step d) (step 210). a) arranging a first wire parallel to a second wire along a longitudinal axis (step 202); b) securing ends of the first and second wires (12, 14) to maintain the parallel arrangement (step 204); c) gripping central portions of the first and second wires (12, 14) (step 206); d) rotating the central portions of the first and second wires, thereby twisting the first and second wires about one another (step 210); and the method being characterized in that it further comprises the step of: e) applying a lateral offsetting force to the first and second wires (12, 14) by deflecting the central portions of the first and second wires (12, 14) orthogonally from the longitudinal axis (step 208), wherein step e) is performed prior to step d) (step 210).
Load receiving device for a vehicle for receiving a load, wherein the load receiving device has a load securing device for securing the load in the region of the load receiving device, wherein the load securing device has on at least one peripheral side of the load receiving device at least one swivel arm, which can be swivelled between a position lying along the peripheral side and an upright position, characterized in that a tensioning device is attached to the swivel arm in such a way that, by swivelling of the swivel arm into the upright position, the tensioning device attached to the swivel arm is stretched along the peripheral side to secure the load.
A lighting device (170; 190; 250; 450; 500; 700), comprising: a light source (176; 192; 258; 458) on a top surface of a heat sink (172; 194; 252; 300; 452; 702); a diffuser (178; 256; 456; 706) on said heat sink (172; 194; 252; 300; 452; 702) and spaced apart from said light source (176; 192; 258); and a wavelength conversion material (182; 196; 254; 454; 704) on said heat sink (172; 194; 252; 300; 452; 702) between the light source (176; 192; 258; 458) and the diffuser (178; 256; 456; 706) and spaced from the light source (176; 192; 258; 458) and the diffuser (178; 256; 456; 706), wherein said wavelength conversion material (182; 196; 254; 454; 704) comprises a globe shaped phosphor carrier with a narrow neck portion adjacent to said heat sink (172; 194; 252; 300; 452; 702), wherein said lighting device (170; 190; 250; 450; 500; 700) fits within the A19 envelope (30; 701) while emitting a substantially uniform emission pattern; said diffuser (178; 256; 456; 706) comprising a diffuser dome which rests in a channel of said heat sink (172; 194; 252; 300; 452; 702) below said light source (176; 192; 258; 458). a light source (176; 192; 258; 458) on a top surface of a heat sink (172; 194; 252; 300; 452; 702); a diffuser (178; 256; 456; 706) on said heat sink (172; 194; 252; 300; 452; 702) and spaced apart from said light source (176; 192; 258); and a wavelength conversion material (182; 196; 254; 454; 704) on said heat sink (172; 194; 252; 300; 452; 702) between the light source (176; 192; 258; 458) and the diffuser (178; 256; 456; 706) and spaced from the light source (176; 192; 258; 458) and the diffuser (178; 256; 456; 706), wherein said wavelength conversion material (182; 196; 254; 454; 704) comprises a globe shaped phosphor carrier with a narrow neck portion adjacent to said heat sink (172; 194; 252; 300; 452; 702), wherein said lighting device (170; 190; 250; 450; 500; 700) fits within the A19 envelope (30; 701) while emitting a substantially uniform emission pattern;