mhurhangee/ep-ind-claims huggingface dataset:
An RFID tag (100; 200; 300;...), comprising: a substrate having a first wiring layer and a second wiring layer, the first wiring layer being formed on the upper surface of the substrate; a semiconductor package (10; 10a; 10b; 10c) mounted on the substrate, the semiconductor package including a semiconductor chip encapsulated therein and a plurality of connection terminals (T1, T2, T3,...) thereon, the plurality of connection terminals including signal terminals and dummy terminals; and an antenna pattern (311, 312, 361, 362; 411, 412, 461;...) formed on the substrate and electrically connected to the signal terminals; characterized in that the second wiring layer is formed on the lower surface of the substrate and in that the antenna pattern includes: a first pattern (311, 312; 411, 412;...) that is formed over a region of the first wiring layer except a mounting region on which the semiconductor package is mounted; and a second pattern (361, 362; 461;...) that is formed over a region of the second wiring layer so as to overlap with at least a part of said mounting region, the second pattern being placed partly under the semiconductor package, and electrically connected to each of the first pattern and the signal terminals through via holes (351, 352; 451, 452; 551, 552;...). a substrate having a first wiring layer and a second wiring layer, the first wiring layer being formed on the upper surface of the substrate; a semiconductor package (10; 10a; 10b; 10c) mounted on the substrate, the semiconductor package including a semiconductor chip encapsulated therein and a plurality of connection terminals (T1, T2, T3,...) thereon, the plurality of connection terminals including signal terminals and dummy terminals; and an antenna pattern (311, 312, 361, 362; 411, 412, 461;...) formed on the substrate and electrically connected to the signal terminals; characterized in that the second wiring layer is formed on the lower surface of the substrate and in that the antenna pattern includes: a first pattern (311, 312; 411, 412;...) that is formed over a region of the first wiring layer except a mounting region on which the semiconductor package is mounted; and a second pattern (361, 362; 461;...) that is formed over a region of the second wiring layer so as to overlap with at least a part of said mounting region, the second pattern being placed partly under the semiconductor package, and electrically connected to each of the first pattern and the signal terminals through via holes (351, 352; 451, 452; 551, 552;...). a first pattern (311, 312; 411, 412;...) that is formed over a region of the first wiring layer except a mounting region on which the semiconductor package is mounted; and a second pattern (361, 362; 461;...) that is formed over a region of the second wiring layer so as to overlap with at least a part of said mounting region, the second pattern being placed partly under the semiconductor package, and electrically connected to each of the first pattern and the signal terminals through via holes (351, 352; 451, 452; 551, 552;...).
An electric motor having an electronics for controlling the electric motor, wherein the electronics is divided into a power part and a connection part, wherein the connection part and the power part are each formed on a separate board, respectively, wherein the boards are electrically connected to each other via a plug-in connection, wherein the connection part comprises a micro controller being configured as a master unit having a non-volatile memory for storing of the setting parameters of the electric motor, which transmits the setting parameters to a micro controller of the power part being configured as slave unit, wherein the motor connection cable is connected to the board of the connection part.
A heat exchanger comprising a heat transfer tube group in which a plurality of first heat transfer tubes through which a first fluid flows and a plurality of second heat transfer tubes through which a second fluid that exchanges heat with the first fluid flows are arranged alternately while being in contact with each other, the heat transfer tube group being formed in a spiral shape so as to have a shape of a flat rectangular plate by being wound in a perpendicular direction perpendicular to an arrangement direction in which the first heat transfer tubes and the second heat transfer tubes are arranged, characterized in that a plurality of concave portions (3a, 4a) are provided on both sides, in the perpendicular direction in which the first heat transfer tubes and the second heat transfer tubes are out of contact with each other, of an outer circumferential surface of each of the first heat transfer tubes, along an extending direction of the first heat transfer tube, the plurality of concave portions (3a, 4a) form convex portions on an inner circumferential surface of the first heat transfer tube.
A user equipment, UE, context release method, characterized by comprising: a source evolved Node B, eNB, determining whether gateway release determination information sent from a home eNB gateway has been received after user equipment finishes handover; if the source eNB has received the gateway release determination information, prohibiting a signaling, which is used to indicate the home eNB gateway to release context of the user equipment, from being sent to the home eNB gateway; characterized in that the home eNB gateway receives an X2 UE context release message; and when the signaling indicating the home eNB gateway to release the context of the user equipment sent by the source eNB is not received, the home eNB gateway releases the context of the user equipment according to the received X2 UE context release message. a source evolved Node B, eNB, determining whether gateway release determination information sent from a home eNB gateway has been received after user equipment finishes handover; if the source eNB has received the gateway release determination information, prohibiting a signaling, which is used to indicate the home eNB gateway to release context of the user equipment, from being sent to the home eNB gateway;
Crystalline Compound I having the formula: characterized by an x-ray powder diffraction pattern with peaks at 8.2, 13.8, 14.0, 18.4, and 20.9 ± 0.15 degrees two-theta.
A fluid power component diagnostic and response system comprising: a predictive algorithm determining based on real-time inputs when a fluid power system component is nearing an end of its useful life and when it has failed, wherein said fluid power system component is a fluid power hose wherein said predictive algorithm is a cumulative hose damage algorithm, wherein the system further comprises a plurality of pressure and temperature sensors, each of said sensors disposed in a different area of a fluid power system and providing said real-time inputs to said predictive algorithm, wherein measuring of the pressures and temperatures is carried out by sampling the output of the sensors with a frequency high enough to pick up every pressure peak and trough occurring in the fluid power system, wherein said algorithm employs said real-time inputs from said plurality of pressure sensors and temperature sensors, wherein said algorithm calculates damage to the hose caused by each measured pressure peak, based at least in part on the relative level of the pressure peak, and the real-time temperature of fluid in the hose; means for determining ground position of equipment mounting said fluid power system; and means for transmitting information about said fluid power system component together with fluid power system component specifications, fluid power system details, and said ground position to a central location. a predictive algorithm determining based on real-time inputs when a fluid power system component is nearing an end of its useful life and when it has failed, wherein said fluid power system component is a fluid power hose wherein said predictive algorithm is a cumulative hose damage algorithm, wherein the system further comprises a plurality of pressure and temperature sensors, each of said sensors disposed in a different area of a fluid power system and providing said real-time inputs to said predictive algorithm, wherein measuring of the pressures and temperatures is carried out by sampling the output of the sensors with a frequency high enough to pick up every pressure peak and trough occurring in the fluid power system, wherein said algorithm employs said real-time inputs from said plurality of pressure sensors and temperature sensors, wherein said algorithm calculates damage to the hose caused by each measured pressure peak, based at least in part on the relative level of the pressure peak, and the real-time temperature of fluid in the hose; means for determining ground position of equipment mounting said fluid power system; and means for transmitting information about said fluid power system component together with fluid power system component specifications, fluid power system details, and said ground position to a central location.
An interface module for use with an electrical stimulation generator and an electrosurgical unit, the interface module comprising: a first input configured to receive electrical stimulation signals from the electrical stimulation generator; a first set of relays (40, 44) coupled to the first input; a second input configured to receive radio frequency signals from the electrosurgical unit; a second set of relays(42, 43) coupled to the second input; an output configured to deliver output signals to an instrument and coupled to the first set of relays and the second set of relays; a signal detector configured to receive an indication to deliver one of the electrical stimulation signals and the radio frequency signals as the output signals; and a controller coupled to the first input, the second input, the signal detector, the first set of relays and the second set of relays, the controller configured to selectively energize the first set of relays and the second set of relays based on the indication from the signal detector so as to deliver the output signals to the output. a first input configured to receive electrical stimulation signals from the electrical stimulation generator; a first set of relays (40, 44) coupled to the first input; a second input configured to receive radio frequency signals from the electrosurgical unit; a second set of relays(42, 43) coupled to the second input; an output configured to deliver output signals to an instrument and coupled to the first set of relays and the second set of relays; a signal detector configured to receive an indication to deliver one of the electrical stimulation signals and the radio frequency signals as the output signals; and a controller coupled to the first input, the second input, the signal detector, the first set of relays and the second set of relays, the controller configured to selectively energize the first set of relays and the second set of relays based on the indication from the signal detector so as to deliver the output signals to the output.
A set for the maintenance cleaning of toilets, comprising - at least one block-shaped cleaning agent, - a device for accommodating said at least one block-shaped cleaning agent, said device, which may be fastened to the rim of a toilet bowl, comprising at least one shell for accommodating said at least one block-shaped cleaning agent and each shell having only one opening, characterised in that this opening faces towards the interior of the toilet bowl when the device is fastened to the rim of the toilet bowl by means of the bracket and in that the set further comprises an adhesive and an applicator for inserting said at least one block-shaped cleaning agent into the device. - at least one block-shaped cleaning agent, - a device for accommodating said at least one block-shaped cleaning agent,
A facility comprising: a heat exchanger; and a heat storage mechanism, of the heat exchanger, for storing heat of the heat exchanger during stop of operation of the facility, including an outflow prevention unit, provided in an exhaust passage through which a heating medium of the heat exchanger is discharged to an outside, to prevent the heating medium from flowing out to the outside during stop of operation of the facility, wherein the outflow prevention unit includes: a bent portion, provided in the exhaust passage, for turning around the heating medium that has passed through the heat exchanger and flowed upward, such that the heating medium is directed downward; and a deflection portion, provided at a downstream side of the bent portion, for deflecting the heating medium flowing downward from the bent portion such that the heating medium is directed in a horizontal direction or upward, characterized in that the deflection portion is provided with an air introduction valve configured to be opened during stop of operation to introduce outside air into the deflection portion. a heat exchanger; and a heat storage mechanism, of the heat exchanger, for storing heat of the heat exchanger during stop of operation of the facility, including an outflow prevention unit, provided in an exhaust passage through which a heating medium of the heat exchanger is discharged to an outside, to prevent the heating medium from flowing out to the outside during stop of operation of the facility,
A radio communication device for use in a radio communication system, the radio communication device performing transmission on a sub-frame basis having a first slot and a second slot temporally continuously arranged, the radio communication device comprising: a pre-coding multiplication section that performs pre-coding to form a predetermined beam by multiplying a signal to be output to one of a plurality of antennas by a pre-coding weight, and uses cyclic delay diversity to shift the phase of the pre-coding weight such that the phase in the pre-coding weight is cyclically changed on the frequency axis; a phase shift amount instruction section (346;1446) that instructs that the phase shift amount to be applied by the pre-coding multiplication section is changed by 2π in an allocated frequency bandwidth of the local device, and assigns the phase shift amount for the pre-coding multiplication section such that the phase shift amount differs by π between the first slot and the second slot in an allocated sub-frame of the local device; and a transmitting section that transmits a transmission signal including the signal subjected to the pre-coding to a receiving device as the other communication party. a pre-coding multiplication section that performs pre-coding to form a predetermined beam by multiplying a signal to be output to one of a plurality of antennas by a pre-coding weight, and uses cyclic delay diversity to shift the phase of the pre-coding weight such that the phase in the pre-coding weight is cyclically changed on the frequency axis; a phase shift amount instruction section (346;1446) that instructs that the phase shift amount to be applied by the pre-coding multiplication section is changed by 2π in an allocated frequency bandwidth of the local device, and assigns the phase shift amount for the pre-coding multiplication section such that the phase shift amount differs by π between the first slot and the second slot in an allocated sub-frame of the local device; and a transmitting section that transmits a transmission signal including the signal subjected to the pre-coding to a receiving device as the other communication party.
An endoscope video processing system configured for controlling blooming in an image frame of a video data signal generated by a viewing element of an endoscope, to facilitate an increased luminance digital gain in regions of a first brightness within the image frame while maintaining a decreased luminance digital gain in regions of a second brightness, wherein the first brightness is lower than the second brightness, said video processing system comprising: a processor; a memory in communication with the processor; a digital signal processor (422, 506, 511, 516) in communication with the processor, for applying a reduced digital gain to a luminance component of the video data signal to generate an attenuated signal, wherein the reduced digital gain is defined by a weight, wherein said weight comprises a first weight and a second weight; and a local blooming control module configured for: calculating an average luminance value of luminance levels of a plurality of pixels neighboring a pixel of the attenuated signal; operating a sigmoid function on the average luminance value to generate a smoothly transitioning digital gain, wherein a center point of the sigmoid function decreases as the second weight increases and said center point increases as the second weight decreases; conditioning the smoothly transitioning digital gain using said weight to generate a customizable digital gain; and applying the customizable digital gain to the attenuated signal. a processor; a memory in communication with the processor; a digital signal processor (422, 506, 511, 516) in communication with the processor, for applying a reduced digital gain to a luminance component of the video data signal to generate an attenuated signal, wherein the reduced digital gain is defined by a weight, wherein said weight comprises a first weight and a second weight; and a local blooming control module configured for: calculating an average luminance value of luminance levels of a plurality of pixels neighboring a pixel of the attenuated signal; operating a sigmoid function on the average luminance value to generate a smoothly transitioning digital gain, wherein a center point of the sigmoid function decreases as the second weight increases and said center point increases as the second weight decreases; conditioning the smoothly transitioning digital gain using said weight to generate a customizable digital gain; and applying the customizable digital gain to the attenuated signal. calculating an average luminance value of luminance levels of a plurality of pixels neighboring a pixel of the attenuated signal; operating a sigmoid function on the average luminance value to generate a smoothly transitioning digital gain, wherein a center point of the sigmoid function decreases as the second weight increases and said center point increases as the second weight decreases; conditioning the smoothly transitioning digital gain using said weight to generate a customizable digital gain; and applying the customizable digital gain to the attenuated signal.
A tire service hammer, comprising: 1.1 a handle portion; and 1.2 a head portion that comprises: 1.21 a sledge portion; 1.22 a relief portion formed in a peripheral portion of the sledge portion; 1.23 a wedge portion; and 1.23 a body portion connecting the sledge portion and the wedge portion, 1.24 wherein the wedge portion includes a bead breaking wedge having a smooth or beveled bead breaking edge and a hook extension having a smooth or beveled bead breaking edge. 1.1 a handle portion; and 1.2 a head portion that comprises: 1.21 a sledge portion; 1.22 a relief portion formed in a peripheral portion of the sledge portion; 1.23 a wedge portion; and 1.23 a body portion connecting the sledge portion and the wedge portion, 1.24 wherein the wedge portion includes a bead breaking wedge having a smooth or beveled bead breaking edge and a hook extension having a smooth or beveled bead breaking edge. 1.21 a sledge portion; 1.22 a relief portion formed in a peripheral portion of the sledge portion; 1.23 a wedge portion; and 1.23 a body portion connecting the sledge portion and the wedge portion, 1.24 wherein the wedge portion includes a bead breaking wedge having a smooth or beveled bead breaking edge and a hook extension having a smooth or beveled bead breaking edge.
A braking arrangement with a shaft which is to be braked, which is mounted by means of a bearing in a housing part, in particular bearing flange, wherein the housing part is connected non-rotatably to a coil winding, in particular brake coil, wherein an armature disc is connected non-rotatably but axially movably to the housing part, wherein a first and a second brake lining carrier are connected in each case non-rotatably but axially movably to the shaft, wherein a non-rotatably but axially movably disc plate [sic] is arranged axially between the brake lining carriers, wherein the disc plate is axially limited by means of a limiting means, and wherein the limiting means is connected to the housing part, characterised in that the housing part has a braking surface, against which a brake lining of the first or second brake lining carrier can be pressed, wherein the limiting means has a stop portion, wherein the stop portion is extended further radially than the portion of the limiting means which connects the stop portion to the coil core, wherein the stop portion is a nut screwed onto a screwing part or a screw head of a screwing part.
Reagent preparation device for particle analysis devices, comprising a diluent inlet, a concentrated reagent inlet, a first circuit connected to the diluent inlet, a second circuit connected to a concentrated reagent inlet, and a mixer connected to the first circuit and to the second circuit and arranged to produce a reagent by mixing diluent and concentrated reagent, characterised in that it further comprises a heat exchanger connected to the first circuit and to the second circuit, upstream of the mixer and downstream of the diluent inlet and of the concentrated reagent inlet and arranged to perform heat exchange between diluent of the first circuit and concentrated reagent of the second circuit.
A connector assembly for a thermal cutting system or welding system comprising: a housing including a locking device characterised by; the locking device causing, upon application of a translational force, engagement of the connector assembly relative to a stationary receiving mechanism; the locking device causing, upon application of a force on a button that a user can depress or apply an orthogonal action upon, disengagement of the locking device relative to the stationary receiving mechanism; a central conduit disposed in the housing, the central conduit-configured to carry a gas and a torch current to the thermal cutting system or welding system; and a plurality of current carrying members disposed radially relative to the central conduit, wherein at least one current carrying member is configured to carry a pilot current. a housing including a locking device characterised by; the locking device causing, upon application of a translational force, engagement of the connector assembly relative to a stationary receiving mechanism; the locking device causing, upon application of a force on a button that a user can depress or apply an orthogonal action upon, disengagement of the locking device relative to the stationary receiving mechanism; the locking device causing, upon application of a translational force, engagement of the connector assembly relative to a stationary receiving mechanism; the locking device causing, upon application of a force on a button that a user can depress or apply an orthogonal action upon, disengagement of the locking device relative to the stationary receiving mechanism; a central conduit disposed in the housing, the central conduit-configured to carry a gas and a torch current to the thermal cutting system or welding system; and a plurality of current carrying members disposed radially relative to the central conduit, wherein at least one current carrying member is configured to carry a pilot current.