mhurhangee/ep-ind-claims huggingface dataset:
A device for providing light therapy to a subject suffering from a motor-related neurological condition, comprising: at least one light source, which is configured for ocular administration, to emit at least one first bandwidth of visible light having a collective irradiance of greater than 28.5 μW/cm 2 and an intensity peak at a wavelength that treats a motor-related neurological condition and/or a symptom of a motor-related neurological condition, wherein the wavelength of the intensity peak is in a range of 520 run to 565 nm, and to emit at least one second bandwidth of visible light having a collective irradiance of less than 6.7 μW/cm 2, the second bandwidth being in the range of more than 570 nm to 640 nm.
An imaging device, comprising: a package (2, 2a-2d) having a case including a first plate-shaped portion and a second plate-shaped portion facing the first plate-shaped portion, and a cover (6, 6a-6d), arranged on an outer surface of the second plate-shaped portion, for covering an opening formed in the second plate-shaped portion; a photodetecting element having a light incident surface and being contained in the case so that the light incident surface faces the first plate-shaped portion; and a fixing unit, arranged between the second plate-shaped portion and the cover (6, 6a-6d), for fixing to the package (2, 2a-2d) a signal cable connected to the photodetecting element extending via the opening from the inside to the outside of the case, wherein the fixing unit includes first and second fixing members (32a, 32b) arranged to face each other in a manner to sandwich the signal cable on the outer surface of the second plate-shaped portion, characterized in that on a surface of the first fixing member facing the second fixing member, and on a surface of the second fixing member facing the first fixing member, a plurality of grooves extending parallel to one another are formed, respectively. a package (2, 2a-2d) having a case including a first plate-shaped portion and a second plate-shaped portion facing the first plate-shaped portion, and a cover (6, 6a-6d), arranged on an outer surface of the second plate-shaped portion, for covering an opening formed in the second plate-shaped portion; a photodetecting element having a light incident surface and being contained in the case so that the light incident surface faces the first plate-shaped portion; and a fixing unit, arranged between the second plate-shaped portion and the cover (6, 6a-6d), for fixing to the package (2, 2a-2d) a signal cable connected to the photodetecting element extending via the opening from the inside to the outside of the case, wherein the fixing unit includes first and second fixing members (32a, 32b) arranged to face each other in a manner to sandwich the signal cable on the outer surface of the second plate-shaped portion, characterized in that on a surface of the first fixing member facing the second fixing member, and on a surface of the second fixing member facing the first fixing member, a plurality of grooves extending parallel to one another are formed, respectively.
Conductor terminal having an insulating material housing, a busbar, a clamping spring and an actuating lever which is pivotably accommodated in the insulating material housing via a pivot region and can be pivoted between an open position and a closed position, wherein the clamping spring has an actuating leg which is deflected via a spring driver of the actuating lever at least in the open position, wherein the actuating lever is supported in the open position at a first and a second bearing point (84, 85) spaced therefrom, and the actuating lever is pulled against the first and second bearing points (84, 85) by a tensile force of the clamping spring acting on the spring driver from the actuating leg, the second bearing point being arranged on the conductor rail, a straight connecting line running through the first and second bearing points (84, 85) or a straight line parallel to the straight connecting line has a point of intersection with the actuating leg, wherein an angle (α) from the actuating leg to the straight connecting line or the straight line parallel thereto is less than 90 degrees, characterized in that the angle (α) from the actuating leg to the straight connecting line or the straight line parallel thereto is greater than 20°.
A multilayered feedthrough for an implantable medical device, the feedthrough including a first edge and a second edge, comprising: a substrate having a first edge corresponding to the first edge of the feedthrough, a second edge corresponding to the second edge of the feedthrough, a substrate length, a first surface and a second surface opposite the first surface; and characterized by a first plurality of traces formed on the first surface and extending along the substrate length; a first plurality of contact pads electrically coupled with the first plurality of traces; a first insulator layer formed on the first surface and the first plurality of traces; a first ground plane layer; and a second ground plane layer; characterized by a second plurality of traces formed on the second surface and extending along the substrate length; a second plurality of contact pads electrically coupled with the second plurality of traces; a second insulator layer formed on the second surface and the second plurality of traces; wherein the first and second plurality of contact pads extend to the first and second edges of the substrate; and said multilayered feedthrough further comprising an integrated transceiver formed on the first surface of the substrate; wherein the first plurality of traces includes at least one power line and at least one signal line for the integrated transceiver; and wherein the first plurality of contact pads and the second plurality of contact pads extend around the first and second edges of the substrate. a substrate having a first edge corresponding to the first edge of the feedthrough, a second edge corresponding to the second edge of the feedthrough, a substrate length, a first surface and a second surface opposite the first surface; and characterized by a first plurality of traces formed on the first surface and extending along the substrate length; a first plurality of contact pads electrically coupled with the first plurality of traces; a first insulator layer formed on the first surface and the first plurality of traces; a first ground plane layer; and a second ground plane layer; characterized by a second plurality of traces formed on the second surface and extending along the substrate length; a second plurality of contact pads electrically coupled with the second plurality of traces; a second insulator layer formed on the second surface and the second plurality of traces; wherein the first and second plurality of contact pads extend to the first and second edges of the substrate; and said multilayered feedthrough further comprising an integrated transceiver formed on the first surface of the substrate; wherein the first plurality of traces includes at least one power line and at least one signal line for the integrated transceiver; and wherein the first plurality of contact pads and the second plurality of contact pads extend around the first and second edges of the substrate.
An active-energy-ray-curable resin composition comprising, as essential components, a (meth)acrylate compound, a polyester resin, and a polymerization initiator, the (meth)acrylate compound having a weight-average molecular weight (Mw) in a range of 5,000 to 30,000 and including, in a molecular structure, a (meth)acryloyl group and a polyester moiety that is obtained by reacting an aliphatic polyol and an aliphatic or aromatic polybasic acid that serve as main raw material components, and the polyester resin having an acid value in a range of 40 to 90 mgKOH/g and being obtained by reacting an aliphatic polyol and an aliphatic or aromatic polybasic acid that serve as main raw material components.
Hand-held locating device for detecting objects enclosed in a medium, with a transmitting and/or receiving unit which has at least one antenna, characterized in that the transmitting and/or receiving unit has at least one switching unit which is provided for switching over between at least two transmission and/or reception characteristics (22, 24, 26) of an individual antenna, the at least two transmission and/or reception characteristics (22, 24, 26) being designed as directional characteristics of the transmitting and/or receiving unit.
An induction heating cooker comprising an upper plate made of a material like glass or ceramic, more than one induction coil disposed under the upper plate, providing the cooking container of ferromagnetic feature to be heated by the magnetic field it generates, more than one circuit board providing the induction coils to be energized, more than one switching element like IGBT or diode bridge connected to the circuit boards, carrying high value electric current and overheated due to effect of the current and a lower plate disposed at the underside of the upper plate, whereon the circuit boards are arranged horizontally, side by side at intervals, characterized by - a circular opening arranged on the lower plate between the circuit boards, - an axial type fan disposed in the opening, blowing the air sucked from underside of the lower plate through the circuit boards to between the lower plate and the upper plate and - a heat sink comprising a cap, configured symmetrically with respect to the center of the opening, disposed over the opening to be concentric with the fan and surrounding the fan, the two opposite lateral sides of the cap which lie over the circuit boards, cover the upper side of the fan and direct the air that the fan blows upwards through the opening in the vertical direction to the switching elements and the circuit boards at the lateral sides thereof by distributing it to the sides in the horizontal direction.
An endless metal ring manufacturing method including: a barrel polishing step of polishing an endless metal ring by use of a barrel made of resin; a rolling step of rolling the endless metal ring having been washed; a nitriding step of nitriding the rolled endless metal ring; and a resin removal step of removing the resin that has adhered to the endless metal ring, wherein the resin removal step is performed after the barrel polishing step and before the rolling step to prevent the resin from being fixed to a surface of the endless metal ring in the rolling step, the resin removal step includes performing ultrasonic washing while soaking the endless metal ring in a decomposition treatment liquid capable of dissolving and removing the resin to remove the resin. a barrel polishing step of polishing an endless metal ring by use of a barrel made of resin; a rolling step of rolling the endless metal ring having been washed; a nitriding step of nitriding the rolled endless metal ring; and a resin removal step of removing the resin that has adhered to the endless metal ring, wherein the resin removal step is performed after the barrel polishing step and before the rolling step to prevent the resin from being fixed to a surface of the endless metal ring in the rolling step, the resin removal step includes performing ultrasonic washing while soaking the endless metal ring in a decomposition treatment liquid capable of dissolving and removing the resin to remove the resin.
An art object carrier for fastening to a wall surface, consisting of at least two separate parts, whereas a circumferential frame forms the first part and said frame surrounds at least one flat and superficial inner part as a second part with an interval in-between, characterised in that at least one hook is provided, with which at least one inner part is fixed to the wall surface, covered for an observer, so that a spacer is arranged between the long branch of the hook and the wall surface and that the thickness of the spacer corresponds to the thickness of a sheet metal, out of which the frame is made.
A method of operating an aircraft propeller, the propeller moving through a fluid, the method comprising: measuring a value of a property of the fluid; measuring a value of a parameter, the parameter related to one or more forces applied to the propeller or derived at least in part from the action of the propeller; using the measured value of the property of the fluid and the measured value of the parameter, determining a rotational speed for the propeller; and controlling the propeller such that the rotational speed of the propeller is equal to the determined rotational speed. measuring a value of a property of the fluid; measuring a value of a parameter, the parameter related to one or more forces applied to the propeller or derived at least in part from the action of the propeller; using the measured value of the property of the fluid and the measured value of the parameter, determining a rotational speed for the propeller; and controlling the propeller such that the rotational speed of the propeller is equal to the determined rotational speed.
A monocrystalline SiC substrate with an asymmetric shape for enhancing substrate stiffness against thermal induced deformations, the substrate comprising: a main region; and an asymmetric region located at a peripheral region of the substrate and adjacent to the main region, wherein the asymmetric region is inclined inwards, relative to the main region, to provide an asymmetric shape to the substrate; wherein the asymmetric region is delimited between a substrate rim and the main region, and wherein the asymmetric region joins the main region in a continuous manner, the inclination between the asymmetric and main regions defining an elbow or shoulder in the asymmetric shape of the substrate. a main region; and an asymmetric region located at a peripheral region of the substrate and adjacent to the main region, wherein the asymmetric region is inclined inwards, relative to the main region, to provide an asymmetric shape to the substrate; wherein the asymmetric region is delimited between a substrate rim and the main region, and wherein the asymmetric region joins the main region in a continuous manner, the inclination between the asymmetric and main regions defining an elbow or shoulder in the asymmetric shape of the substrate.
A solid oral dosage form comprising: (a) the compound trisodium [3-((1S,3R)-1-biphenyl-4-ylmethyl-3-ethoxycarbonyl-1-butylcarbamoyl) propionate- -3'-methyl-2'-(pentanoyl{2"-(tetrazol-5-ylate)biphenyl-4'-ylmethyl}amino)butyrate]hemipentahydrate in a concentration from 4% to 90% by weight of the composition; and (b) at least one pharmaceutically acceptable excipient, wherein the compound is present in in a dose strength of 100, 200 or 400 mg corresponding to the respective combined amount of valsartan free acid and (2 R,4 S)-5-biphenyl-4-yl-4-(3-carboxy-propionylamino)-2-methyl-pentanoic acid ethyl ester in a 1:1 ratio per unit dosage form, and wherein the solid oral dosage form is a roller compacted tablet. (a) the compound trisodium [3-((1S,3R)-1-biphenyl-4-ylmethyl-3-ethoxycarbonyl-1-butylcarbamoyl) propionate- -3'-methyl-2'-(pentanoyl{2"-(tetrazol-5-ylate)biphenyl-4'-ylmethyl}amino)butyrate]hemipentahydrate in a concentration from 4% to 90% by weight of the composition; and (b) at least one pharmaceutically acceptable excipient,
A method for cross carrier scheduling, comprising: determining, by a network (102, 104, 798, 799), that a candidate cross-carrier-scheduling downlink control information, DCI (202, 302, 402), for a user equipment, UE, schedules a dynamic grant, DG, physical data shared channel, PDSCH (204, 304, 404), that at least partially overlaps a scheduled semi-persistent scheduling, SPS (306, 406), PDSCH for the UE, wherein the candidate DCI (202, 302, 402) contains instructions to cancel the SPS PDSCH (306, 406) and the candidate DCI (202, 302, 402) is configured to be transmitted on a first component carrier, CC, having a first subcarrier spacing, SCS, and the DG PDSCH (204, 304, 404) is configured for transmission on a second CC having a second SCS different from the first SCS; identifying, by the network (102, 104, 798, 799), a smallest of the first SCS and the second SCS; determining, by the network (102, 104, 798, 799), a timing gap based on the smallest of the first SCS and the second SCS; determining, by the network (102, 104, 798, 799), that an available time between the scheduled SPS PDSCH (306, 406) and the candidate DCI (202, 302, 402) is equal to or greater than the timing gap; cancelling, by the network (102, 104, 798, 799), the SPS PDSCH (306, 406) responsive to determining that the available time between the scheduled SPS PDSCH (306, 406) and the candidate DCI (202, 302, 402) is equal to or greater than the timing gap; and transmitting, by the network (102, 104, 798, 799), the candidate DCI (202, 302, 402) to the UE. determining, by a network (102, 104, 798, 799), that a candidate cross-carrier-scheduling downlink control information, DCI (202, 302, 402), for a user equipment, UE, schedules a dynamic grant, DG, physical data shared channel, PDSCH (204, 304, 404), that at least partially overlaps a scheduled semi-persistent scheduling, SPS (306, 406), PDSCH for the UE, wherein the candidate DCI (202, 302, 402) contains instructions to cancel the SPS PDSCH (306, 406) and the candidate DCI (202, 302, 402) is configured to be transmitted on a first component carrier, CC, having a first subcarrier spacing, SCS, and the DG PDSCH (204, 304, 404) is configured for transmission on a second CC having a second SCS different from the first SCS; identifying, by the network (102, 104, 798, 799), a smallest of the first SCS and the second SCS; determining, by the network (102, 104, 798, 799), a timing gap based on the smallest of the first SCS and the second SCS; determining, by the network (102, 104, 798, 799), that an available time between the scheduled SPS PDSCH (306, 406) and the candidate DCI (202, 302, 402) is equal to or greater than the timing gap; cancelling, by the network (102, 104, 798, 799), the SPS PDSCH (306, 406) responsive to determining that the available time between the scheduled SPS PDSCH (306, 406) and the candidate DCI (202, 302, 402) is equal to or greater than the timing gap; and transmitting, by the network (102, 104, 798, 799), the candidate DCI (202, 302, 402) to the UE.
An assembly comprising a luminescent body, a thermally conductive element, and a coating layer, wherein: - the luminescent body comprises a luminescent material, wherein the luminescent body comprises a ceramic luminescent body, and wherein the luminescent body comprises an external surface; - the thermally conductive element comprises metal material; - at least 25% of the external surface is in thermal contact with the thermally conductive element; - wherein the coating layer is configured between the luminescent body and the thermally conductive element; - wherein the coating layer and the thermally conductive element are conformal to the luminescent body; - wherein the thermally conductive element comprises supersonic particle deposited metal material; - wherein 25-95% of the external surface is surrounded by the thermally conductive element; - wherein the supersonic particle deposited metal material has a porosity selected from the range of 5-30%. - the luminescent body comprises a luminescent material, wherein the luminescent body comprises a ceramic luminescent body, and wherein the luminescent body comprises an external surface; - the thermally conductive element comprises metal material; - at least 25% of the external surface is in thermal contact with the thermally conductive element; - wherein the coating layer is configured between the luminescent body and the thermally conductive element; - wherein the coating layer and the thermally conductive element are conformal to the luminescent body; - wherein the thermally conductive element comprises supersonic particle deposited metal material; - wherein 25-95% of the external surface is surrounded by the thermally conductive element; - wherein the supersonic particle deposited metal material has a porosity selected from the range of 5-30%.
A food probe for determining the temperature or the temperatures in the interior of food stuff, wherein - the food probe comprises an elongated rod, - a front portion of the rod is provided for penetrating the food stuff, - the rod includes a cone end arranged at its front end, - the food probe comprises at least three temperature sensors (32, 34, 36), - the food probe comprises a connector (38, 40, 42) provided for an electric connection to a control unit, and - the connector comprises at least three connector elements (38, 40, 42) connected to the temperature sensors (32, 34, 36), wherein the rod is subdivided into at least three pipe sections (16, 18, 20) arranged serially, wherein at most one of the temperature sensors (32, 34, 36) is arranged inside one pipe section and/or inside the cone end, and wherein the pipe sections (16, 18, 20) and/or the cone end are separated by thermal insulating elements (24, 26, 28), characterized in that the temperature sensor (32, 34, 36) includes the three connector elements (38, 40, 42) wherein a first temperature sensor is connected in parallel to a series including a second temperature sensor and a third temperature sensor, wherein the first temperature sensor and said series are interconnected between a first connector element and a third connector element, while the crosspoint of the second temperature sensor and the third temperature sensor is connected to a second connector element, wherein a diode is connected upstream the second temperature sensor. - the food probe comprises an elongated rod, - a front portion of the rod is provided for penetrating the food stuff, - the rod includes a cone end arranged at its front end, - the food probe comprises at least three temperature sensors (32, 34, 36), - the food probe comprises a connector (38, 40, 42) provided for an electric connection to a control unit, and - the connector comprises at least three connector elements (38, 40, 42) connected to the temperature sensors (32, 34, 36), wherein the rod is subdivided into at least three pipe sections (16, 18, 20) arranged serially, wherein at most one of the temperature sensors (32, 34, 36) is arranged inside one pipe section and/or inside the cone end, and wherein the pipe sections (16, 18, 20) and/or the cone end are separated by thermal insulating elements (24, 26, 28), characterized in that the temperature sensor (32, 34, 36) includes the three connector elements (38, 40, 42) wherein a first temperature sensor is connected in parallel to a series including a second temperature sensor and a third temperature sensor, wherein the first temperature sensor and said series are interconnected between a first connector element and a third connector element, while the crosspoint of the second temperature sensor and the third temperature sensor is connected to a second connector element, wherein a diode is connected upstream the second temperature sensor.