mhurhangee/ep-ind-claims huggingface dataset:
A scanner including at least: - a support including at least one first movable part (110, 124), - an actuator configured to move the first movable part (110, 124) of the support, and - a phased optical grating (116, 140) disposed on the first movable part (110, 124) of the support and including at least one plurality of optical phase shifters and an optical source coupled to the plurality of optical phase shifters which is able to emit an optical beam coming from the optical source, the optical phase shifters being configured to emit an optical beam by constructive interferences or destructive interferences. - a support including at least one first movable part (110, 124), - an actuator configured to move the first movable part (110, 124) of the support, and - a phased optical grating (116, 140) disposed on the first movable part (110, 124) of the support and including at least one plurality of optical phase shifters and an optical source coupled to the plurality of optical phase shifters which is able to emit an optical beam coming from the optical source, the optical phase shifters being configured to emit an optical beam by constructive interferences or destructive interferences.
Cosmetic composition comprising, in a cosmetically acceptable medium: - from 3 to 30 wt.% of one or more volatile linear alkanes having from 7 to 15 carbon atoms relative to the total weight of said composition, - at least 0.5 wit.% of one or more aminated silicones relative to the total weight of said composition, - from 3 to 20 wt.% of one or more vegetable oils different from the volatile linear alkanes relative to the total weight of said composition. - from 3 to 30 wt.% of one or more volatile linear alkanes having from 7 to 15 carbon atoms relative to the total weight of said composition, - at least 0.5 wit.% of one or more aminated silicones relative to the total weight of said composition, - from 3 to 20 wt.% of one or more vegetable oils different from the volatile linear alkanes relative to the total weight of said composition.
Device for detecting liquid, in particular in the event of a leakage, having a housing on which a capacitive sensor is arranged on a base, which sensor is connected to a control unit for detecting a liquid running under the base, wherein the base can be set down on foot elements (10, 11, 12) at a distance from a substrate, characterized in that the foot elements (10, 11, 12) have a different height, so that the base is aligned inclined to the horizontal in the case of a horizontal flat substrate.
An antenna apparatus, comprising a ground plate, a radiator, and a signal source, wherein the radiator is disposed on the ground plate, the signal source is configured to feed an electromagnetic wave signal of a first frequency band into the radiator, a first slot and a second slot are disposed on the ground plate, both the first slot and the second slot are closed slots and surround the radiator, and the first slot and the second slot are configured to restrain current distribution on the ground plate, so that a current generated by the electromagnetic wave signal of the first frequency band is confined in and around the first slot and the second slot; wherein the first slot and the second slot are symmetrically disposed by using a joint between the radiator and the ground plate as a center, wherein the first slot is arc shaped; characterized in that a radial distance from the radiator to the first slot ranges from 0.2xλ 1 to 0.3xλ 1, wherein λ 1 is a wavelength of the electromagnetic wave signal of the first frequency band; a distance between an inner side of the first slot and a center of the radiator is 0.25xλ 1; and a length of the first slot extending in a circumference direction is 0.5xλ 1. wherein the first slot and the second slot are symmetrically disposed by using a joint between the radiator and the ground plate as a center, wherein the first slot is arc shaped; characterized in that a radial distance from the radiator to the first slot ranges from 0.2xλ 1 to 0.3xλ 1, wherein λ 1 is a wavelength of the electromagnetic wave signal of the first frequency band; a distance between an inner side of the first slot and a center of the radiator is 0.25xλ 1; and a length of the first slot extending in a circumference direction is 0.5xλ 1.
A method of forming an inlaid pattern in an asphalt surface comprising: (a) providing a portable heating apparatus having a frame extendable over said asphalt surface and at least one heater movable on said frame; (b) gradually heating said asphalt surface in situ by moving said heater on said frame over said asphalt surface until said asphalt is in a pliable state; (c) providing a template having a predetermined pattern; (d) impressing said template into said asphalt surface when said asphalt surface is in said pliable state; and (e) fixing said template in position to form said inlaid pattern. (a) providing a portable heating apparatus having a frame extendable over said asphalt surface and at least one heater movable on said frame; (b) gradually heating said asphalt surface in situ by moving said heater on said frame over said asphalt surface until said asphalt is in a pliable state; (c) providing a template having a predetermined pattern; (d) impressing said template into said asphalt surface when said asphalt surface is in said pliable state; and (e) fixing said template in position to form said inlaid pattern.
A vaporizer device for generating an inhalable aerosol, the device comprising: a body including a mouthpiece; a reservoir for storing an aerosolizable material; a housing including a heating chamber including a heating element and a pressure sensor for controlling operation of the heating element; a power source for powering the heating element and pressure sensor; a vapor tube extending from the mouthpiece to the heating chamber; and a PCB tube extending from the mouthpiece to the pressure sensor, wherein the vapor tube and PCB tube are integrally formed with the body; characterized in that: the body includes an interior chamber into which the reservoir and the housing are inserted; and each of the vapor tube and the PCB tube comprise a metal hypotube. a body including a mouthpiece; a reservoir for storing an aerosolizable material; a housing including a heating chamber including a heating element and a pressure sensor for controlling operation of the heating element; a power source for powering the heating element and pressure sensor; a vapor tube extending from the mouthpiece to the heating chamber; and a PCB tube extending from the mouthpiece to the pressure sensor, wherein the vapor tube and PCB tube are integrally formed with the body; characterized in that: the body includes an interior chamber into which the reservoir and the housing are inserted; and each of the vapor tube and the PCB tube comprise a metal hypotube. the body includes an interior chamber into which the reservoir and the housing are inserted; and each of the vapor tube and the PCB tube comprise a metal hypotube.
A display apparatus comprising: a display panel having a plurality of pixels connected between a plurality of gate lines and a plurality of data lines, each pixel including a switching element electrically connected to one of the gate lines and to one of the data lines; a gate driver connected to the plurality of gate lines and configured to generate a gate signal (Gn) having at least one gate-on voltage and at least one gate-off voltage (VOFF) and to provide the plurality of gate lines with the gate signal (Gn); and a gate controller connected to the gate driver and configured to generate a clock signal (CK1, CK2) having at least one high level and at least one low level and to provide the gate driver with the clock signal (CK1, CK2), characterized in that the gate controller is arranged so that in the vertical blanking period (VBk) of a frame cycle (Fk) the clock signal (CK1, CK2) provided to the gate driver has pulses having a duty ratio smaller than the duty ratio of the clock signal (CK1, CK2) in an active period (ACk) of the frame cycle (Fk). a display panel having a plurality of pixels connected between a plurality of gate lines and a plurality of data lines, each pixel including a switching element electrically connected to one of the gate lines and to one of the data lines; a gate driver connected to the plurality of gate lines and configured to generate a gate signal (Gn) having at least one gate-on voltage and at least one gate-off voltage (VOFF) and to provide the plurality of gate lines with the gate signal (Gn); and a gate controller connected to the gate driver and configured to generate a clock signal (CK1, CK2) having at least one high level and at least one low level and to provide the gate driver with the clock signal (CK1, CK2), characterized in that the gate controller is arranged so that in the vertical blanking period (VBk) of a frame cycle (Fk) the clock signal (CK1, CK2) provided to the gate driver has pulses having a duty ratio smaller than the duty ratio of the clock signal (CK1, CK2) in an active period (ACk) of the frame cycle (Fk).
Method for controlling a cable winch of a tracked piste grooming vehicle having the following steps: - counting the revolutions of a reel on which a cable is held to be windable and unwindable, - detecting a rotation angle of a winding arm guiding the cable during winding or unwinding from the reel, - specifying a number of cable windings per winding layer on the reel, - comparing the detected revolutions and rotation angles to a specification, and - signalling an error message in response to a result of the comparison, characterized in that the method has the following step: - transmitting the error message to a drivers cab of a driver of the piste grooming vehicle. - counting the revolutions of a reel on which a cable is held to be windable and unwindable, - detecting a rotation angle of a winding arm guiding the cable during winding or unwinding from the reel, - specifying a number of cable windings per winding layer on the reel, - comparing the detected revolutions and rotation angles to a specification, and - signalling an error message in response to a result of the comparison, characterized in that the method has the following step: - transmitting the error message to a drivers cab of a driver of the piste grooming vehicle.
A composite positive active material comprising a composite represented by Formula 1: Formula 1 δLi 2 MO 3 ·(1-δ)[xLi 2 MnO 3 ·(1-x)Li d Ni a CO b M' c O 2] wherein, in Formula 1, M is Ti or Zr; M' is Mn, V, Mg, Ga, Si, W, Mo, Fe, Cr, Cu, Zn, Ti, Al, B, or a combination thereof; 0<x<0.3; a+b+c≤1; wherein the compound represented by Formula 1 is a compound represented by Formula 2, a compound represented by Formula 3, a compound represented by Formula 4, or a compound represented by Formula 5: Formula 2 δLi 2 TiO 3 ·(1-δ)[xLi 2 MnO 3 ·(1-x)Li d Ni a CO b Mn c O 2] wherein, in Formula 2, 0<δ<0.1, 0<x<0.1, a+b+c≤1, 0<a<1, 0<b<1, 0<c<1, and 0.95≤d≤1.05, Formula 3 δLi 2 ZrO 3 ·(1-δ)[xLi 2 MnO 3 ·(1-x)Li d Ni a CO b Mn c O 2] wherein, in Formula 3, 0<δ<0.1, 0<x<0.1, a+b+c≤1, 0<a<1, 0<b<1, 0<c<1, and 0.95≤d≤1.05, Formula 4 δLi 2 TiO 3 ·(1-δ)[xLi 2 MnO 3 ·(1-x)Li d Ni a Co b Al c O 2] wherein, in Formula 4, 0<δ<0.1, 0<x<0.1, a+b+c≤1, 0<a<1, 0<b<1, 0<c<1, and 0.95≤d≤1.05, and Formula 5 δLi 2 ZrO 3 ·(1-δ)[xLi 2 MnO 3 ·(1-x)Li d Ni a Co b Al c O 2] wherein, in Formula 5, 0<δ<0.1, 0<x<0.1, a+b+c≤1, 0<a<1, 0<b<1, 0<c<1, and 0.95≤d≤1.05 M is Ti or Zr; M' is Mn, V, Mg, Ga, Si, W, Mo, Fe, Cr, Cu, Zn, Ti, Al, B, or a combination thereof; 0<x<0.3; a+b+c≤1; wherein the compound represented by Formula 1 is a compound represented by Formula 2, a compound represented by Formula 3, a compound represented by Formula 4, or a compound represented by Formula 5:
An apparatus for dental tissue treatment, the apparatus comprising: an optical system (3, 4, 5) for directing a laser beam to dental tissue being treated, whereby the laser beam has an energy profile at a location in proximity to the dental tissue; and a feedback-controlled beam guidance system for targeting the laser beam within a specified area of a surface of the dental tissue, characterised in that: the feedback-controlled beam guidance system includes: a mirror; a galvanometer that includes (i) an actuator for adjusting a position of the mirror, and (ii) a sensor for determining the position of the mirror; and a controller for controlling the actuator in a step, in response to the determined position of the mirror relative to a desired position of the mirror. an optical system (3, 4, 5) for directing a laser beam to dental tissue being treated, whereby the laser beam has an energy profile at a location in proximity to the dental tissue; and a feedback-controlled beam guidance system for targeting the laser beam within a specified area of a surface of the dental tissue, characterised in that: the feedback-controlled beam guidance system includes: a mirror; a galvanometer that includes (i) an actuator for adjusting a position of the mirror, and (ii) a sensor for determining the position of the mirror; and a controller for controlling the actuator in a step, in response to the determined position of the mirror relative to a desired position of the mirror. the feedback-controlled beam guidance system includes: a mirror; a galvanometer that includes (i) an actuator for adjusting a position of the mirror, and (ii) a sensor for determining the position of the mirror; and a mirror; a galvanometer that includes (i) an actuator for adjusting a position of the mirror, and (ii) a sensor for determining the position of the mirror; and a controller for controlling the actuator in a step, in response to the determined position of the mirror relative to a desired position of the mirror.
An implantable heart assist system, comprising: a pumping chamber (380, 380a, 380b) formed of a flexible material and being adapted to be placed in fluid connection with the thoracic aorta; and a pump system (300, 300a, 300b) comprising a first rigid member (330, 330a, 330b), a second rigid member (350, 350a, 350b) spaced from the first rigid member (330, 330a, 330b) so that at least a portion of the pumping chamber may be positioned between the first rigid member (330, 330a, 330b) and the second rigid member (350, 350a, 350b), a drive system comprising a motor in connection with the first rigid member (330, 330a, 330b) and the second rigid member (350, 350a, 350b) and an actuating mechanism to convert rotary motion of the motor to linear motion to cause the second rigid member (350, 350a, 350b) to move toward the first rigid member (330, 330a, 330b) or away from the first rigid member (330, 330a, 330b), and a controller (361, 361a, 361b) in operative connection with the drive system and controlling the motor, wherein movement of the second rigid member (350, 350a, 350b) toward the first rigid member (330, 330a, 330b) results in compression of the pumping chamber (380, 380a, 380b) and movement of the second rigid member (350, 350a, 350b) away from the first rigid member (330, 330a, 330b) causes expansion of the pumping chamber (380, 380a, 380b), wherein the first rigid member (330, 330a, 330b) is adapted to be positioned adjacent the chest wall posterior to the thoracic aorta and the second rigid member (350, 350a, 350b) is adapted to be positioned adjacent the surface of the left lung. a pumping chamber (380, 380a, 380b) formed of a flexible material and being adapted to be placed in fluid connection with the thoracic aorta; and a pump system (300, 300a, 300b) comprising a first rigid member (330, 330a, 330b), a second rigid member (350, 350a, 350b) spaced from the first rigid member (330, 330a, 330b) so that at least a portion of the pumping chamber may be positioned between the first rigid member (330, 330a, 330b) and the second rigid member (350, 350a, 350b), a drive system comprising a motor in connection with the first rigid member (330, 330a, 330b) and the second rigid member (350, 350a, 350b) and an actuating mechanism to convert rotary motion of the motor to linear motion to cause the second rigid member (350, 350a, 350b) to move toward the first rigid member (330, 330a, 330b) or away from the first rigid member (330, 330a, 330b), and a controller (361, 361a, 361b) in operative connection with the drive system and controlling the motor, wherein movement of the second rigid member (350, 350a, 350b) toward the first rigid member (330, 330a, 330b) results in compression of the pumping chamber (380, 380a, 380b) and movement of the second rigid member (350, 350a, 350b) away from the first rigid member (330, 330a, 330b) causes expansion of the pumping chamber (380, 380a, 380b), wherein the first rigid member (330, 330a, 330b) is adapted to be positioned adjacent the chest wall posterior to the thoracic aorta and the second rigid member (350, 350a, 350b) is adapted to be positioned adjacent the surface of the left lung.
A procoagulant compound having a formula: Hetl-Zy-Bx-Pepl wherein Het1 is a heterologous molecule comprising a half-life extending moiety that Zy is a protease-cleavable substrate; Bx is a self-immolative spacer that will spontaneously separate from Pep1 if the bond of Bx to Zy is cleaved; and Pep1 is Factor VII (FVII). Het1 is a heterologous molecule comprising a half-life extending moiety that Zy is a protease-cleavable substrate; Bx is a self-immolative spacer that will spontaneously separate from Pep1 if the bond of Bx to Zy is cleaved; and Pep1 is Factor VII (FVII).
A method for continuous operation of a rotating machine having an inner stator and an outer stator, comprising: - setting a reference operational value for the rotating machine; - obtaining (Sno) operational parameters for the inner stator of the rotating machine and for the outer stator of the rotating machine, wherein the operational parameters include magnetic cross-coupling between the inner and outer stators; - determining a reference operational value for the inner stator and a reference operational value for the outer stator based on the set reference operational value for the rotating machine and the obtained operational parameters; and - driving the rotating machine based on the determined reference operational value for the inner stator and on the determined reference operational value for the outer stator, wherein the determined reference operational value for the inner stator differs from the determined reference operational value for the outer stator. - setting a reference operational value for the rotating machine; - obtaining (Sno) operational parameters for the inner stator of the rotating machine and for the outer stator of the rotating machine, wherein the operational parameters include magnetic cross-coupling between the inner and outer stators; - determining a reference operational value for the inner stator and a reference operational value for the outer stator based on the set reference operational value for the rotating machine and the obtained operational parameters; and - driving the rotating machine based on the determined reference operational value for the inner stator and on the determined reference operational value for the outer stator, wherein the determined reference operational value for the inner stator differs from the determined reference operational value for the outer stator.
Device for improving the aerodynamics on a vehicle, in particular on a rear side of a truck or of a trailer for a truck, said device comprising a side flap which can be attached to a side wall or to a door of the vehicle and which is mounted via hinges such as to be pivotable about a vertical axis, and a roof flap which can be attached to a roof or to a door of the vehicle and which is mounted via hinges such as to be pivotable about a horizontal axis, wherein the side flap is coupled to the roof flap via connecting means and the roof flap is pivotable by pivoting the side flap, characterized in that the connecting means comprise an arcuate curve guide forming a guide path for a dog which is mounted such as to be movable in the curve guide and which ensures forced guidance of the roof flap when the side flap is moved.
A method for a User Equipment, UE, comprising: receiving a first configuration of Timing Advance, TA, report, wherein the first configuration indicates whether to enable TA report during a Random Access, RA, procedure; receiving a second configuration of TA report, wherein the second configuration configures TA report in a RRC connected mode; and determining whether to trigger a second TA report upon receiving the second configuration based on whether a first TA report has been transmitted to a serving cell, wherein the determining comprises: triggering the first TA report based on the first configuration being enabled, and not triggering the second TA report upon receiving the second configuration based on the first TA report having been transmitted to the serving cell; or not triggering the first TA report based on the first configuration not being enabled, and triggering the second TA report upon receiving the second configuration based on the first TA report having not been transmitted to the serving cell. receiving a first configuration of Timing Advance, TA, report, wherein the first configuration indicates whether to enable TA report during a Random Access, RA, procedure; receiving a second configuration of TA report, wherein the second configuration configures TA report in a RRC connected mode; and determining whether to trigger a second TA report upon receiving the second configuration based on whether a first TA report has been transmitted to a serving cell, wherein the determining comprises: triggering the first TA report based on the first configuration being enabled, and not triggering the second TA report upon receiving the second configuration based on the first TA report having been transmitted to the serving cell; or not triggering the first TA report based on the first configuration not being enabled, and triggering the second TA report upon receiving the second configuration based on the first TA report having not been transmitted to the serving cell. triggering the first TA report based on the first configuration being enabled, and not triggering the second TA report upon receiving the second configuration based on the first TA report having been transmitted to the serving cell; or not triggering the first TA report based on the first configuration not being enabled, and triggering the second TA report upon receiving the second configuration based on the first TA report having not been transmitted to the serving cell.