mhurhangee/ep-ind-claims huggingface dataset:
A touch sensor comprising: a base comprising: a sensing region comprising a rounded corner; and a non-sensing region outside the sensing region; first sensing electrode columns extending in a first direction on the base, each first sensing electrode column among the first sensing electrode columns comprising a plurality of first sensing electrodes, each first sensing electrode among the first sensing electrodes comprising a plurality of sub-electrodes (SUE1, SUE2, SUE3, SUE4); and second sensing electrode columns alternately disposed with the first sensing electrode columns on the base, each second sensing electrode column among the second sensing electrode columns comprising a plurality of second sensing electrodes, wherein the sub-electrodes of one first sensing electrode among the first sensing electrodes are respectively electrically connected to sub-electrodes of an adjacent first sensing electrode, wherein a sub-electrode (SUE1_1, SUE1_2, SUE1_3, SUE1_4, SUE1_5) closest to the rounded corner among the sub-electrodes comprises a rounded edge corresponding to the rounded corner, and wherein a second sensing electrode (TSE2_1, TSE2_2, TSE2_3, TSE2_4, TSE2_5) closest to the rounded corner among the second sensing electrodes comprises: a rounded edge corresponding to the rounded corner; and a protrusion part (PTA, PTA_1, PTA_2, PTA_3, PTA_4) protruding toward the sub-electrode comprising the rounded edge. a base comprising: a sensing region comprising a rounded corner; and a non-sensing region outside the sensing region; a sensing region comprising a rounded corner; and a non-sensing region outside the sensing region; first sensing electrode columns extending in a first direction on the base, each first sensing electrode column among the first sensing electrode columns comprising a plurality of first sensing electrodes, each first sensing electrode among the first sensing electrodes comprising a plurality of sub-electrodes (SUE1, SUE2, SUE3, SUE4); and second sensing electrode columns alternately disposed with the first sensing electrode columns on the base, each second sensing electrode column among the second sensing electrode columns comprising a plurality of second sensing electrodes, wherein the sub-electrodes of one first sensing electrode among the first sensing electrodes are respectively electrically connected to sub-electrodes of an adjacent first sensing electrode, wherein a sub-electrode (SUE1_1, SUE1_2, SUE1_3, SUE1_4, SUE1_5) closest to the rounded corner among the sub-electrodes comprises a rounded edge corresponding to the rounded corner, and wherein a second sensing electrode (TSE2_1, TSE2_2, TSE2_3, TSE2_4, TSE2_5) closest to the rounded corner among the second sensing electrodes comprises: a rounded edge corresponding to the rounded corner; and a protrusion part (PTA, PTA_1, PTA_2, PTA_3, PTA_4) protruding toward the sub-electrode comprising the rounded edge. a rounded edge corresponding to the rounded corner; and a protrusion part (PTA, PTA_1, PTA_2, PTA_3, PTA_4) protruding toward the sub-electrode comprising the rounded edge.
Device for two-channel transmission of signals between two assemblies (1, 2) that are rotatable relative to one another about an axis, wherein the first assembly comprises a photodetector (11.1) and an electronic receiver circuit (11.3) and also at least one connecting line (11.4) between the photodetector (11.1) and the receiver circuit (11.3), the second assembly comprises an illuminant (21.1) and an electronic transmitter circuit (21.3) and also at least one connecting line (21.4) between the illuminant (21.1) and the transmitter circuit (21.3), wherein the at least one connecting line (11.4, 21.4) of the first assembly and/or of the second assembly comprises at least one section (11.41, 21.41) extending with a radial direction component, and in order to transmit an electrical signal on a first channel, said electrical signal is convertible into an optical signal by the transmitter circuit (21.3) and the illuminant (21.1), which optical signal is convertible again into an electrical signal by the photodetector (11.1) and the receiver circuit (11.3), and on a second channel a further optical signal is transmittable, the beam path of which extends with an axial direction component radially outside relative to the beam path of the optical signal of the first channel past the section (11.41, 21.41) of the at least one connecting line (11.4, 21.4), wherein for transmission on the second channel a) the first assembly comprises a further illuminant (12.1) and a further electronic transmitter circuit (12.3) connected thereto, and the second assembly comprises a further photodetector (22.1) and a further electronic receiver circuit (22.3) connected thereto, or b) the first assembly comprises the further photodetector (22.1) and a and the further electronic receiver circuit (22.3) connected thereto, and the second assembly comprises the further illuminant (12.1) and the further electronic transmitter circuit (12.3) connected thereto, wherein the illuminant (21.1) and the further illuminant (12.1) and also the photodetector (11.1) and the further photodetector (22.1) are arranged coaxially in relation to the axis. a) the first assembly comprises a further illuminant (12.1) and a further electronic transmitter circuit (12.3) connected thereto, and the second assembly comprises a further photodetector (22.1) and a further electronic receiver circuit (22.3) connected thereto, or b) the first assembly comprises the further photodetector (22.1) and a and the further electronic receiver circuit (22.3) connected thereto, and the second assembly comprises the further illuminant (12.1) and the further electronic transmitter circuit (12.3) connected thereto, wherein
A prussian blue analog having a core-shell structure, characterized by having a core and a cladding layer that clads the core, wherein the chemical formula of the core is the following Formula 1, Na x Mn[Fe 6] δ ·zH 2 O Formula 1 wherein 0<x≤2, 0<δ≤1, and 0≤z≤10, the chemical formula of the cladding layer is the following Formula 2, A y Mn[Fe 6] α ·wH 2 O Formula 2 wherein the A is an alkali metal element other than sodium, and 0<y≤2, 0<α≤1, and 0≤w≤10. the chemical formula of the core is the following Formula 1, Na x Mn[Fe 6] δ ·zH 2 O Formula 1 wherein 0<x≤2, 0<δ≤1, and 0≤z≤10, the chemical formula of the cladding layer is the following Formula 2, A y Mn[Fe 6] α ·wH 2 O Formula 2 wherein the A is an alkali metal element other than sodium, and 0<y≤2, 0<α≤1, and 0≤w≤10.
A method by a user equipment, UE (102; 1102), comprising: receiving a Radio Resource Control, RRC, message including a first parameter related to a maximum number of scheduling request transmissions for a secondary cell, in order to allow the UE to perform a scheduling request procedure; and transmitting a scheduling request on a Physical Uplink Control Channel, PUCCH, on the secondary cell, wherein the RRC message further includes a second parameter related to a maximum number of scheduling request transmissions for a primary cell and the scheduling request procedure is performed based on the first parameter or the second parameter. receiving a Radio Resource Control, RRC, message including a first parameter related to a maximum number of scheduling request transmissions for a secondary cell, in order to allow the UE to perform a scheduling request procedure; and transmitting a scheduling request on a Physical Uplink Control Channel, PUCCH, on the secondary cell, wherein the RRC message further includes a second parameter related to a maximum number of scheduling request transmissions for a primary cell and the scheduling request procedure is performed based on the first parameter or the second parameter.
An image forming apparatus, comprising: a cleaning cartridge including an image bearing member, and a cleaning member arranged to come into contact with the image bearing member and clean the image bearing member; a developing cartridge having a developing agent bearing member arranged to convey developing agent to the image bearing member; and a control unit arranged to execute a supply process of developing agent supplied from the developing cartridge to the cleaning member via the image bearing member during a non-image-forming period, wherein the cleaning cartridge and the developing cartridge are each detachably mounted to an apparatus main body of the image forming apparatus, and wherein the control unit is configured to decide a supply amount of the developing agent supplied from the developing cartridge to the cleaning member in the supplying process of the developing agent, based on a value relating to an amount of developing agent recovered by the cleaning member and a value relating to a usage amount of the developing cartridge, wherein, in a case where the usage amount of the developing cartridge is fixed, the control unit is configured to control so that the supply amount of the developing agent decreases as the amount of the developer recovered by the cleaning member increases. a cleaning cartridge including an image bearing member, and a cleaning member arranged to come into contact with the image bearing member and clean the image bearing member; an image bearing member, and a cleaning member arranged to come into contact with the image bearing member and clean the image bearing member; a developing cartridge having a developing agent bearing member arranged to convey developing agent to the image bearing member; and a control unit arranged to execute a supply process of developing agent supplied from the developing cartridge to the cleaning member via the image bearing member during a non-image-forming period, wherein the cleaning cartridge and the developing cartridge are each detachably mounted to an apparatus main body of the image forming apparatus, and wherein the control unit is configured to decide a supply amount of the developing agent supplied from the developing cartridge to the cleaning member in the supplying process of the developing agent, based on a value relating to an amount of developing agent recovered by the cleaning member and a value relating to a usage amount of the developing cartridge, wherein, in a case where the usage amount of the developing cartridge is fixed, the control unit is configured to control so that the supply amount of the developing agent decreases as the amount of the developer recovered by the cleaning member increases.
A fume capture and removal system for capturing and removing welding fumes generated when mounted to a welding torch (14, 114), comprising (a) a fume diverter, (b) a boot assembly, and (c) a vacuum hose assembly, characterized in that the boot assembly comprises a boot mount, a boot positioner and a boot and that the boot positioner is a clamping device comprising a clip and a clamp spring, wherein the connection between the boot mount and the fume diverter is rotatable such that the boot mount is free to rotate relative to the fume diverter, and whereby, in use, the fume diverter is installed over the torch neck and, in use, the boot positioner is clipped onto the neck of the welding torch. (a) a fume diverter, (b) a boot assembly, and (c) a vacuum hose assembly, characterized in that the boot assembly comprises a boot mount, a boot positioner and a boot and that the boot positioner is a clamping device comprising a clip and a clamp spring, wherein the connection between the boot mount and the fume diverter is rotatable such that the boot mount is free to rotate relative to the fume diverter, and whereby, in use, the fume diverter is installed over the torch neck and, in use, the boot positioner is clipped onto the neck of the welding torch.
A method performed by a terminal in a serving cell for controlling an interference in a wireless communication system, the terminal including a first communication module for a first communication technology and a second communication module for a second communication technology, the method comprising: receiving, from a base station of the serving cell, a radio resource control, RRC, message including first information that indicates to transmit second information for reporting an interference in the serving cell which is detected based on a first signal on a first frequency band received by the first communication module included in the terminal and a second signal on a second frequency band coming from the second communication module included in the terminal interfering the first signal; wherein the first information comprises a first condition indicating that second information to be reported if signal quality on the first frequency band in the serving cell and in peripheral cells are simultaneously worse than a preset threshold; detecting the interference occurring between the first communication module and the second communication module based on the first information; generating the second information including the first frequency band suffering from the interference and sub-frame information related to the interference; transmitting the second information for reporting the interference to the base station; and receiving, from the base station, third information that commands a handover to another cell using a third frequency band for the first communication technology. receiving, from a base station of the serving cell, a radio resource control, RRC, message including first information that indicates to transmit second information for reporting an interference in the serving cell which is detected based on a first signal on a first frequency band received by the first communication module included in the terminal and a second signal on a second frequency band coming from the second communication module included in the terminal interfering the first signal; wherein the first information comprises a first condition indicating that second information to be reported if signal quality on the first frequency band in the serving cell and in peripheral cells are simultaneously worse than a preset threshold; detecting the interference occurring between the first communication module and the second communication module based on the first information; generating the second information including the first frequency band suffering from the interference and sub-frame information related to the interference; transmitting the second information for reporting the interference to the base station; and receiving, from the base station, third information that commands a handover to another cell using a third frequency band for the first communication technology.
A block copolymer at least comprising (i) a block obtained or obtainable by reacting (a) a triblock copolymer having the structure A-B-A', where block B is selected from polyethers or polyesters and blocks A and A' are identical or different, and (b) at least one polymer selected from the group consisting of polyesters and polyethers, (ii) and a block selected from the group consisting of polyamides and polyesters. (i) a block obtained or obtainable by reacting (a) a triblock copolymer having the structure A-B-A', where block B is selected from polyethers or polyesters and blocks A and A' are identical or different, and (b) at least one polymer selected from the group consisting of polyesters and polyethers, (a) a triblock copolymer having the structure A-B-A', where block B is selected from polyethers or polyesters and blocks A and A' are identical or different, and (b) at least one polymer selected from the group consisting of polyesters and polyethers, (ii) and a block selected from the group consisting of polyamides and polyesters.
A laundry treating apparatus comprising: a cabinet; an accommodation space provided in the cabinet and configured to receive laundry; a discharge portion that discharges air from the accommodation space to the outside of the cabinet; a supply portion that supplies air into the accommodation space when the air in the accommodation space is discharged through the discharge portion; and characterized in that the laundry treating apparatus includes: at least one pressure reduction portion configured to discharge the air from the accommodation space into the cabinet when a pressure in the accommodation space is equal or higher than a predetermined reference pressure; and wherein the cabinet further comprises a cabinet inlet port allowing the interior of the cabinet to communicate with an exterior of the cabinet, wherein the cabinet inlet port is provided separately from a projection of the pressure reduction portion onto the cabinet for preventing air discharged from the pressure reduction portion to be discharged from the cabinet through the cabinet inlet port. a cabinet; an accommodation space provided in the cabinet and configured to receive laundry; a discharge portion that discharges air from the accommodation space to the outside of the cabinet; a supply portion that supplies air into the accommodation space when the air in the accommodation space is discharged through the discharge portion; and characterized in that the laundry treating apparatus includes: at least one pressure reduction portion configured to discharge the air from the accommodation space into the cabinet when a pressure in the accommodation space is equal or higher than a predetermined reference pressure; and wherein the cabinet further comprises a cabinet inlet port allowing the interior of the cabinet to communicate with an exterior of the cabinet, at least one pressure reduction portion configured to discharge the air from the accommodation space into the cabinet when a pressure in the accommodation space is equal or higher than a predetermined reference pressure; and wherein the cabinet further comprises a cabinet inlet port allowing the interior of the cabinet to communicate with an exterior of the cabinet, wherein the cabinet inlet port is provided separately from a projection of the pressure reduction portion onto the cabinet for preventing air discharged from the pressure reduction portion to be discharged from the cabinet through the cabinet inlet port.
Method for locating a parked vehicle in a parking structure, comprising following steps: a) a park position of the vehicle is stored (step S3) in a parking structure, b) a mobile terminal is coupled (step S2) with the parking structure in order to provide a radio transmission link, c) via the mobile terminal, at the parking structure a navigation to the parked vehicle is requested (step S5), d) the parking structure generates light trajectories, in order to navigate (step S6) a user to the park position of the vehicle, wherein for generating the light trajectories a plurality of light sources of the parking structure are appropriately controlled, wherein in this case the light sources present for an illumination of the parking structure are further developed such that they can be used for generating the light trajectories, characterised in that the parking structure accompanies the path of the user along the light trajectories and the generation of the light trajectories with respect to its local extension adjusts to the current location of the user in that the corresponding light trajectories are generated only in a predeterminable area around the user. a) a park position of the vehicle is stored (step S3) in a parking structure, b) a mobile terminal is coupled (step S2) with the parking structure in order to provide a radio transmission link, c) via the mobile terminal, at the parking structure a navigation to the parked vehicle is requested (step S5), d) the parking structure generates light trajectories, in order to navigate (step S6) a user to the park position of the vehicle, wherein for generating the light trajectories a plurality of light sources of the parking structure are appropriately controlled, wherein in this case the light sources present for an illumination of the parking structure are further developed such that they can be used for generating the light trajectories,
An apparatus for processing reusable fuel comprising: a first-type cyclone cooler having a first configuration; one or more second-type cyclone coolers, wherein each one or more second-type cyclone coolers has a substantially identical second configuration to respective other one or more second-type cyclone coolers, wherein the second configuration is different than the first configuration; an air cooled heat exchanger; a coil condenser; and one or more bubblers, wherein the first-type cyclone cooler and the one or more second-type cyclone coolers are connected, wherein one of the one or more second-type cyclone coolers is connected to the air cooled heat exchanger, wherein the air cooled heat exchanger is connected to the coil condenser, wherein the coil condenser is connected to the one or more bubblers. a first-type cyclone cooler having a first configuration; one or more second-type cyclone coolers, wherein each one or more second-type cyclone coolers has a substantially identical second configuration to respective other one or more second-type cyclone coolers, wherein the second configuration is different than the first configuration; an air cooled heat exchanger; a coil condenser; and one or more bubblers, wherein the first-type cyclone cooler and the one or more second-type cyclone coolers are connected, wherein one of the one or more second-type cyclone coolers is connected to the air cooled heat exchanger, wherein the air cooled heat exchanger is connected to the coil condenser, wherein the coil condenser is connected to the one or more bubblers.
A circuit subassembly, comprising a conductive layer disposed on a dielectric substrate layer having a dielectric constant of less than 3.5 and a dissipation factor of less than 0.006 at 10 GHz, wherein the composition of the dielectric substrate layer comprises: a polymer matrix material; and hollow borosilicate microspheres, characterized in that the borosilicate microspheres are a product of a process of subjecting the borosilicate microspheres to an alkaline solution, wherein the microspheres have a sodium oxide content of not more than 5 weight percent, as measured by XPS surface analysis. a polymer matrix material; and hollow borosilicate microspheres, characterized in that the borosilicate microspheres are a product of a process of subjecting the borosilicate microspheres to an alkaline solution, wherein the microspheres have a sodium oxide content of not more than 5 weight percent, as measured by XPS surface analysis.