mhurhangee/ep-ind-claims huggingface dataset:
An enclosure, comprising: at least a base substrate and a cover substrate, which constitute at least a part of the enclosure, wherein the enclosure either comprises the base substrate and the cover substrate as two layers or wherein the enclosure further comprises at least one intermediate layer (4, 4a, 4b, 4c, 4d, 4e) positioned in between the base layer and the cover layer; a function zone (12, 13) situated such that it is at least partly enclosed in the enclosure; wherein at least the cover substrate comprises a glass or glass-like material or a silicon based material and wherein preferably also the base substrate comprises a glass or glass-like material or a silicon based material; wherein the base substrate and the cover substrate are welded by means of at least one laser weld line; where the laser weld line comprises a height HL in a direction perpendicular to its connecting plane, wherein the enclosure comprises at least a second laser weld line (8a, 8b, 8c, 8d, 8e, 8f) situated next to the first laser weld line and/or situated such that the mechanical stress in the at least one laser weld line is reduced by means of the second laser weld line, thus improving the mechanical stability of the enclosure. at least a base substrate and a cover substrate, which constitute at least a part of the enclosure, wherein the enclosure either comprises the base substrate and the cover substrate as two layers or wherein the enclosure further comprises at least one intermediate layer (4, 4a, 4b, 4c, 4d, 4e) positioned in between the base layer and the cover layer; a function zone (12, 13) situated such that it is at least partly enclosed in the enclosure; wherein at least the cover substrate comprises a glass or glass-like material or a silicon based material and wherein preferably also the base substrate comprises a glass or glass-like material or a silicon based material; wherein the base substrate and the cover substrate are welded by means of at least one laser weld line; where the laser weld line comprises a height HL in a direction perpendicular to its connecting plane, wherein the enclosure comprises at least a second laser weld line (8a, 8b, 8c, 8d, 8e, 8f) situated next to the first laser weld line and/or situated such that the mechanical stress in the at least one laser weld line is reduced by means of the second laser weld line, thus improving the mechanical stability of the enclosure.
Projection display comprising an imager implemented to generate individual images in a distribution of sub-areas (33-1 to 33-7) of an imaging plane of the imager, the individual images in the sub-areas being identical in content, multi-channel optics including several optical channels (44-1 to 44-7) and being configured to map, per channel (44-1 to 44-7), one allocated sub-area (33-1 to 33-7) of the imager in each case into a projection area, so that the mappings of the individual images combine to form an overall image in the projection area, characterized in that the sub-areas (33-1 to 33-7) of the imager as well as the optical channels (44-1 to 44-7) of the multi-channel optics are each arranged in an elongated array, so that the multi-channel optics comprises a anisotropic artificial overall aperture, wherein the elongated array of the sub-areas (33-1 to 33-7) is oriented in a manner similar to that of at least one elongated image feature of the overall image, so that the artificial overall aperture of the multi-channel optics is larger in one direction along the at least one elongated image feature than in a direction orthogonally thereto. an imager implemented to generate individual images in a distribution of sub-areas (33-1 to 33-7) of an imaging plane of the imager, the individual images in the sub-areas being identical in content, multi-channel optics including several optical channels (44-1 to 44-7) and being configured to map, per channel (44-1 to 44-7), one allocated sub-area (33-1 to 33-7) of the imager in each case into a projection area, so that the mappings of the individual images combine to form an overall image in the projection area, characterized in that the sub-areas (33-1 to 33-7) of the imager as well as the optical channels (44-1 to 44-7) of the multi-channel optics are each arranged in an elongated array, so that the multi-channel optics comprises a anisotropic artificial overall aperture, wherein the elongated array of the sub-areas (33-1 to 33-7) is oriented in a manner similar to that of at least one elongated image feature of the overall image, so that the artificial overall aperture of the multi-channel optics is larger in one direction along the at least one elongated image feature than in a direction orthogonally thereto.
A CO 2 recovering apparatus comprising: a CO 2 absorber that brings flue gas containing CO 2 and O 2 into contact with CO 2 absorbing liquid to reduce CO 2 in the flue gas; a regenerator that reduces CO 2 in rich solvent that has absorbed CO 2 in the CO 2 absorber to regenerate the CO 2 absorbing liquid, so that lean solvent having CO 2 reduced in the regenerator is reused in the CO 2 absorber, characterized in that the CO 2 recovering apparatus further comprises an air-bubble gathering member located in a lower liquid reservoir of the CO 2 absorber to gather air bubbles included in the CO 2 absorbing liquid. a CO 2 absorber that brings flue gas containing CO 2 and O 2 into contact with CO 2 absorbing liquid to reduce CO 2 in the flue gas; a regenerator that reduces CO 2 in rich solvent that has absorbed CO 2 in the CO 2 absorber to regenerate the CO 2 absorbing liquid, so that lean solvent having CO 2 reduced in the regenerator is reused in the CO 2 absorber, characterized in that the CO 2 recovering apparatus further comprises an air-bubble gathering member located in a lower liquid reservoir of the CO 2 absorber to gather air bubbles included in the CO 2 absorbing liquid.
Method for remotely activating an air-conditioning function of a motor vehicle by way of a mobile communication device, wherein the motor vehicle has a receiver device as part of a communication device which is configured to wirelessly communication with the mobile device, having the steps: a) sending an activation signal by means of a mobile communication device to a receiver device of the motor vehicle; b) receiving the activation signal by way of the receiver device of the motor vehicle; characterised by the steps: c) determining a current location by way of a location determination device of the motor vehicle; d) with the requirement that the activation signal has been received by the receiver device in step b), transmitting a position information item regarding the determined location of the motor vehicle to the mobile communication device and displaying the location of the motor vehicle to the user on a display device of the mobile communication device; and e) activating the air-conditioning function of the motor vehicle if an actuation signal sent from the mobile communication device has been received by the receiver device, wherein the actuation signal is only sent from the mobile communication device if at least the condition is met whereby the position information regarding the location of the motor vehicle has been transmitted to the mobile communication device. a) sending an activation signal by means of a mobile communication device to a receiver device of the motor vehicle; b) receiving the activation signal by way of the receiver device of the motor vehicle; c) determining a current location by way of a location determination device of the motor vehicle; d) with the requirement that the activation signal has been received by the receiver device in step b), transmitting a position information item regarding the determined location of the motor vehicle to the mobile communication device and displaying the location of the motor vehicle to the user on a display device of the mobile communication device; and e) activating the air-conditioning function of the motor vehicle if an actuation signal sent from the mobile communication device has been received by the receiver device, wherein the actuation signal is only sent from the mobile communication device if at least the condition is met whereby the position information regarding the location of the motor vehicle has been transmitted to the mobile communication device.
Overcurrent switch (1a..1c), comprising - a first input and a first output, - a first current path which connects the first input to the first output, - an electronic switch in the first current path, - a first sensor which is adapted to measure the current in the first current path and - a first controller which is set up to change the electronic switch into a non-conducting or high-resistance state when the current determined by the first sensor exceeds a first predeterminable threshold value, characterised by - an electromechanical switch in a second current path which connects a second input to a second output, the two current paths being provided for switching in a common circuit, and - a second controller which is set up to change the electromechanical switch into a non-conducting state when the current determined by the first sensor falls below a second predeterminable threshold value and/or a predeterminable time period after the changing of the electronic switch into a non-conducting or high-resistance state has elapsed. - a first input and a first output, - a first current path which connects the first input to the first output, - an electronic switch in the first current path, - a first sensor which is adapted to measure the current in the first current path and - a first controller which is set up to change the electronic switch into a non-conducting or high-resistance state when the current determined by the first sensor exceeds a first predeterminable threshold value, - an electromechanical switch in a second current path which connects a second input to a second output, the two current paths being provided for switching in a common circuit, and - a second controller which is set up to change the electromechanical switch into a non-conducting state when the current determined by the first sensor falls below a second predeterminable threshold value and/or a predeterminable time period after the changing of the electronic switch into a non-conducting or high-resistance state has elapsed.
Piece of furniture with a furniture carcass and a furniture part, such as a drawer, a furniture door, a pull-out element or the like, which can be moved from an operating position located in and/or on the furniture carcass into an open position, wherein a motorised drive is provided for an opening movement of the furniture part, wherein the motorised drive has a lifting device via which the furniture part can be transferred in a motorised manner from the operating position located in and/or on the furniture carcass into a partially open position such that the furniture part can be decoupled from the lifting device in the partially open position and can be manually moved from the partially open position into the fully open position and in that a self-closing device is provided via which the furniture part can be automatically transferred from the partially open position into the operating position located in and/or on the furniture carcass and wherein the lifting device of the motorised drive has a lifting length that is shorter than the lifting length of a lifting device of the self-closing device and wherein the motorised drive has a gear wheel which can be moved along a curved track provided with gears and is designed so as to be pivotable.
Radiant heating unit for use in the open air, in particular for a balcony, terrace or garden, preferably in the form and configuration of a patio heater, having a heat source which radiates heat, wherein the heat source is constructed as a combustion device for solid combustion material, that is to say, for wood, charcoal or coal, and wherein the combustion device comprises a combustion chamber for receiving the combustion material, and the combustion chamber is surrounded by the wall of a housing with spacing therefrom, wherein the combustion chamber rests on a brazier which is arranged in the housing and which forms the base of the combustion chamber, wherein the brazier can act as an ignition bowl for receiving a paste-like firelighter, characterised in that within the housing below the brazier, at least slightly spaced apart therefrom, there is provided an intermediate base which acts as a heat reflector and which where applicable serves to receive combustion residues or ash, wherein inside the housing, below the intermediate base, there is provided a space for an air supply device by means of which an air flow which is directed into the combustion chamber can be produced, wherein the air supply device comprises a ventilator/fan which blows an air flow into an air inlet pipe which is directed into the combustion chamber, and in that the region below the intermediate base is constructed as a ventilator housing.
Oval wheel flow meter for measuring a flow of at least one process medium in a dispensing system, the oval wheel flow meter comprising a housing (110, 115) in which a measuring chamber, an inlet portion and an outlet portion are formed, two oval wheels (150, 160) which are rotatably mounted in the measuring chamber between the inlet portion and the outlet portion, and a detecting means for detecting a position of the oval wheels (150, 160), a groove facing the measuring chamber being formed in at least one housing part or portion of the housing (110, 115), characterised in that the groove is arranged between axes of rotation (355, 365) of the oval wheels (150, 160), a longitudinal axis of the groove extending between the inlet portion and the outlet portion along a flow meter longitudinal axis connecting the inlet portion to the outlet portion, and a longitudinal dimension of the groove being selected such that a gas-permeable connection is provided between the inlet portion and the outlet portion by means of the groove.
A thin-film transistor comprising a dielectric layer, wherein the dielectric layer comprises a molecular glass, and wherein the molecular glass comprises an amorphous molecular material.
A battery module comprising: a battery cell assembly comprising at least one battery cell, and at least one cooling fin configured to contact the at least one battery cell and to be exposed on opposite side parts of the battery cell assembly and on a side part perpendicular to the opposite side parts; a first end plate comprising at least one first insulating member mounted on an internal wall of the first end plate to contact the at least one cooling fin exposed on the opposite side parts of the battery cell assembly, and configured to support the opposite side parts of the battery cell assembly; a second end plate coupled to the first end plate to cover the battery cell assembly, and configured to support the side part of the battery cell assembly; a cooling plate arranged between the second end plate and the side part of the battery cell assembly, and configured to receive heat from the at least one cooling fin; and at least one second insulating member arranged between the cooling plate and the at least one cooling fin exposed on the side part of the battery cell assembly. a battery cell assembly comprising at least one battery cell, and at least one cooling fin configured to contact the at least one battery cell and to be exposed on opposite side parts of the battery cell assembly and on a side part perpendicular to the opposite side parts; a first end plate comprising at least one first insulating member mounted on an internal wall of the first end plate to contact the at least one cooling fin exposed on the opposite side parts of the battery cell assembly, and configured to support the opposite side parts of the battery cell assembly; a second end plate coupled to the first end plate to cover the battery cell assembly, and configured to support the side part of the battery cell assembly; a cooling plate arranged between the second end plate and the side part of the battery cell assembly, and configured to receive heat from the at least one cooling fin; and at least one second insulating member arranged between the cooling plate and the at least one cooling fin exposed on the side part of the battery cell assembly.
A method for providing information about a spatial gain distribution of a scintillator for a primary radiation, the method comprising the step: irradiating said scintillator with a secondary radiation in a reference scintillator state before a bright burn event, for generating a reference image of a spatial secondary gain distribution of said scintillator for said secondary radiation, wherein said spatial secondary gain distribution image corresponds to an image of said spatial primary gain distribution of said scintillator for said primary radiation, wherein the secondary radiation is blue light and said primary radiation is X-ray radiation; irradiating said scintillator with said secondary radiation in an actual scintillator state after a bright burn event, for generating an actual image of secondary gain distribution, the bright burn event caused at least partly by charge carrier trapping in the scintillator; and, generating a true actual image of spatial secondary gain distribution from said reference spatial secondary gain distribution image and said actual spatial secondary gain distribution image. irradiating said scintillator with a secondary radiation in a reference scintillator state before a bright burn event, for generating a reference image of a spatial secondary gain distribution of said scintillator for said secondary radiation, wherein said spatial secondary gain distribution image corresponds to an image of said spatial primary gain distribution of said scintillator for said primary radiation, wherein the secondary radiation is blue light and said primary radiation is X-ray radiation; irradiating said scintillator with said secondary radiation in an actual scintillator state after a bright burn event, for generating an actual image of secondary gain distribution, the bright burn event caused at least partly by charge carrier trapping in the scintillator; and, generating a true actual image of spatial secondary gain distribution from said reference spatial secondary gain distribution image and said actual spatial secondary gain distribution image.
A system for loading ends of profiles for the attachment thereof, the system comprising: - at least one mobile frame comprising a first holding area (1.1), an attachment area (1.2), at least one first holding element, located in the holding area (1.1) of the frame, and configured for holding the profiles,and at least two attachment molds; - at least two guiding elements configured for adjusting and leveling the profiles such that the ends of the profiles are arranged at the same height, - at least one robot arm, and - a control system configured for controlling the at least one mobile frame and the at least two guiding elements, the system characterized in that the at least two attachment molds are located in the attachment area (1.2) of the frame, the robot arm comprises a gripping implement configured for gripping, transporting and introducing the profiles in the attachment molds, and the control system is also configured for controlling the at least one robot arm and the at least two attachment molds. - at least one mobile frame comprising a first holding area (1.1), an attachment area (1.2), at least one first holding element, located in the holding area (1.1) of the frame, and configured for holding the profiles,and at least two attachment molds; a first holding area (1.1), an attachment area (1.2), at least one first holding element, located in the holding area (1.1) of the frame, and configured for holding the profiles,and at least two attachment molds; - at least two guiding elements configured for adjusting and leveling the profiles such that the ends of the profiles are arranged at the same height, - at least one robot arm, and - a control system configured for controlling the at least one mobile frame and the at least two guiding elements,
A circuit breaker comprising: an enclosure (110, 210, 310, 410, 510) thereof; and a terminal switching unit (120, 320, 420) mounted in the enclosure, wherein the terminal switching unit accommodates, in a base (130, 330, 430) as an outer casing thereof: a fixed contactor fixed thereto; a movable contactor contactable with and separated from the fixed contactor; a sliding unit rotatably supporting the movable contactor; and a detection mechanism to detect a fault current, characterized in that radiators (R1, R3, R4, R5), each radiating heat to the outside of the base, are provided at side portions of at least one of: a contact portion the sliding unit and the detection mechanism, the contact portion corresponding to a portion where the movable contactor comes in contact with the fixed contactor, wherein each sidewall (132, 432) of the base (130, 430) is configured such that an outer wall surface (132a, 432a) of a first portion thereof with the radiator (R1, R4) provided thereon is more recessed than an outer wall surface (132b, 432b) of a second portion located at a periphery of the first portion. an enclosure (110, 210, 310, 410, 510) thereof; and a terminal switching unit (120, 320, 420) mounted in the enclosure, wherein the terminal switching unit accommodates, in a base (130, 330, 430) as an outer casing thereof: a fixed contactor fixed thereto; a movable contactor contactable with and separated from the fixed contactor; a sliding unit rotatably supporting the movable contactor; and a detection mechanism to detect a fault current, characterized in that radiators (R1, R3, R4, R5), each radiating heat to the outside of the base, are provided at side portions of at least one of: a contact portion the sliding unit and the detection mechanism, the contact portion corresponding to a portion where the movable contactor comes in contact with the fixed contactor, wherein each sidewall (132, 432) of the base (130, 430) is configured such that an outer wall surface (132a, 432a) of a first portion thereof with the radiator (R1, R4) provided thereon is more recessed than an outer wall surface (132b, 432b) of a second portion located at a periphery of the first portion. a fixed contactor fixed thereto; a movable contactor contactable with and separated from the fixed contactor; a sliding unit rotatably supporting the movable contactor; and a detection mechanism to detect a fault current, characterized in that radiators (R1, R3, R4, R5), each radiating heat to the outside of the base, are provided at side portions of at least one of: a contact portion the sliding unit and the detection mechanism, the contact portion corresponding to a portion where the movable contactor comes in contact with the fixed contactor, wherein each sidewall (132, 432) of the base (130, 430) is configured such that an outer wall surface (132a, 432a) of a first portion thereof with the radiator (R1, R4) provided thereon is more recessed than an outer wall surface (132b, 432b) of a second portion located at a periphery of the first portion.