mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device comprising: a first non-conductive cover including a first planar portion defining a first surface of the electronic device; a second non-conductive cover including a second planar portion defining a second surface of the electronic device opposite the first surface, and a curved portion defining a first portion of a lateral surface of the electronic device between the first surface and the second surface; a conductive frame including metal materials and defining a second portion of the lateral surface of the electronic device; an antenna module including a patch antenna configured to transmit signals through at least part of the first portion of the lateral surface of the electronic device , and a non-conductive portion , as viewed cross-sectionally, disposed at least partially between the lateral surface and at least part of a radiating surface of the patch antenna facing the lateral surface, wherein an air gap (1740a1) is provided between the radiating surface and the non-conductive portion , wherein the antenna module is disposed between the first non-conductive cover and the second non-conductive cover such that the radiating surface faces the lateral surface, and wherein, when viewed from the lateral surface, at least half of the radiating surface overlaps with the first portion of the lateral surface and a remaining portion of the radiating surface overlaps with the second portion of the lateral surface. a first non-conductive cover including a first planar portion defining a first surface of the electronic device; a second non-conductive cover including a second planar portion defining a second surface of the electronic device opposite the first surface, and a curved portion defining a first portion of a lateral surface of the electronic device between the first surface and the second surface; a conductive frame including metal materials and defining a second portion of the lateral surface of the electronic device; an antenna module including a patch antenna configured to transmit signals through at least part of the first portion of the lateral surface of the electronic device , and a non-conductive portion , as viewed cross-sectionally, disposed at least partially between the lateral surface and at least part of a radiating surface of the patch antenna facing the lateral surface, wherein an air gap (1740a1) is provided between the radiating surface and the non-conductive portion , wherein the antenna module is disposed between the first non-conductive cover and the second non-conductive cover such that the radiating surface faces the lateral surface, and wherein, when viewed from the lateral surface, at least half of the radiating surface overlaps with the first portion of the lateral surface and a remaining portion of the radiating surface overlaps with the second portion of the lateral surface.
An array substrate, comprising a plurality of thin film transistors arranged in an array, wherein each of the thin film transistors comprises an active layer , and the array substrate further comprises a light absorption layer provided above the active layer , the light absorption layer is adapted for absorbing light irradiated thereon, and an orthographic projection of the light absorption layer on the active layer at least partly covers an active region of the active layer , each of the thin film transistors comprises a gate electrode , a gate insulating layer , and a source-drain electrode connected to a respective pixel electrode of the array substrate, the array substrate further comprises a passivation layer for protecting the thin film transistor, the passivation layer being located on the thin film transistor, and a common electrode , the gate electrode , the gate insulating layer , the active layer , the source-drain electrode , the pixel electrode , the passivation layer , and the light absorption layer together with the common electrode are sequentially arranged in this order on a base substrate , and the passivation layer is directly on the pixel electrode , characterized in that the active layer is an oxide active layer , in that the light absorption layer is formed by performing ion injection on the passivation layer, and in that an ion used for ion injection is any one or more selected from the group consisting of a carbon ion, an iron ion, a nickel ion and a chromium ion. each of the thin film transistors comprises a gate electrode , a gate insulating layer , and a source-drain electrode connected to a respective pixel electrode of the array substrate, the array substrate further comprises a passivation layer for protecting the thin film transistor, the passivation layer being located on the thin film transistor, and a common electrode , the gate electrode , the gate insulating layer , the active layer , the source-drain electrode , the pixel electrode , the passivation layer , and the light absorption layer together with the common electrode are sequentially arranged in this order on a base substrate , and the passivation layer is directly on the pixel electrode , characterized in that the active layer is an oxide active layer , in that the light absorption layer is formed by performing ion injection on the passivation layer, and in that an ion used for ion injection is any one or more selected from the group consisting of a carbon ion, an iron ion, a nickel ion and a chromium ion.
A vacuum insulation body for a refrigerator and/or a freezer comprising an envelope body , wherein the envelope body is an inner container of a refrigerator and/or freezer or an outer housing of a refrigerator and/or freezer; and a diffusion-tight envelope which at least regionally adjoins the envelope body , wherein the envelope is at least partly present as a prefabricated bag or partial bag whose geometry is completely or largely adapted to the shape of the envelope body , wherein the envelope body has one or more projecting or set back contours, and wherein the envelope maps largely or completely maps these contours, characterized in that the envelope is partly or completely adhesively bonded to the envelope body . an envelope body , wherein the envelope body is an inner container of a refrigerator and/or freezer or an outer housing of a refrigerator and/or freezer; and a diffusion-tight envelope which at least regionally adjoins the envelope body , wherein the envelope is at least partly present as a prefabricated bag or partial bag whose geometry is completely or largely adapted to the shape of the envelope body , wherein the envelope body has one or more projecting or set back contours, and wherein the envelope maps largely or completely maps these contours, characterized in that the envelope is partly or completely adhesively bonded to the envelope body .
Inspection system for the automatic optical inspection of a flat glass pane , wherein the inspection system has a conveying device for the linear movement of the flat glass pane along an optical inspection unit , which is part of the inspection system, and a measuring device , which, in the direction parallel to the conveying direction of the conveying device, continuously measures the position of the flat glass pane relative to the optical inspection unit , characterised in that the measuring device has a linear scale aligned parallel to the conveying direction and a calliper movable along the same, the relative position of which to the linear scale can be sensorially detected, and wherein one of the two parts linear scale and calliper is arranged in a fixed position relative to the optical inspection unit , and the other part is moveable with the flat glass pane .
A control diaphragm for controlling a supply of fuel in a diaphragm carburetor of an internal combustion engine, comprising a central sensing region , a functional region enclosing the sensing region concentrically and a peripheral fastening border for fastening the control diaphragm in the diaphragm carburetor; wherein, in the installed state, the control diaphragm closes a control chamber of the diaphragm carburetor in a sealing manner and is operatively connected via the central sensing region to a control lever of the diaphragm carburetor arranged in the control chamber , which control lever senses the axial deflection of the sensing region in a manner which is dependent on an operation-induced pressure change in the control chamber ; characterised in that the control diaphragm consists in one piece of temperature-resistant and fuel-resistant, non-elastomeric plastic; that the functional region is constituted by a multiplicity of concentric corrugations between the fastening border and the sensing region , wherein the outermost concentric corrugation directly adjoins the fastening border and the radius of the outermost concentric corrugation essentially corresponds to the radius of the control chamber; that the sensing region directly adjoins the innermost concentric corrugation of the functional region and the radius of the sensing region corresponds to 5 to 25% of the outer radius of the functional region ; and that the sensing region comprises a reinforcing means .
A storage apparatus, comprising: a door , configured to be slidably coupled to a back panel of a vehicle body ; and a support structure , connected to the door , configured to be unfolded or folded in conjunction with movement of the door and to support the door , characterized in that the door includes an edge panel , a door panel , and a guide block , wherein the edge panel is configured to be rotatably support a first support panel of the support structure , wherein the door panel is rotatably coupled to the edge panel , and wherein the guide block is configured to be coupled to the edge panel and slidably disposed on the back panel of the vehicle body . a door , configured to be slidably coupled to a back panel of a vehicle body ; and a support structure , connected to the door , configured to be unfolded or folded in conjunction with movement of the door and to support the door , characterized in that the door includes an edge panel , a door panel , and a guide block , wherein the edge panel is configured to be rotatably support a first support panel of the support structure , wherein the door panel is rotatably coupled to the edge panel , and wherein the guide block is configured to be coupled to the edge panel and slidably disposed on the back panel of the vehicle body .
A method, comprising: receiving , by a user equipment, UE, or an apparatus which is used for the UE, first downlink control information, DCI that schedules first data communication for the UE, the first DCI being in a first format which is a DCI format 1_0 for a physical downlink shared channel, PDSCH and the first DCI being in a UE specific search space with cyclic redundancy check, CRC, scrambled by a UE identifier, ID, of the UE; and receiving , by the UE or the apparatus, first data according to the first DCI, the first data being scrambled by a first sequence, the first sequence being initialized with a configurable parameter; and receiving , by the UE or the apparatus, second DCI that schedules second data communication for the UE, the second DCI being in the first format and the second DCI being in a common search space with CRC scrambled by the UE ID of the UE; and receiving , by the UE or the apparatus, second data according to the second DCI, the second data being scrambled by a second sequence, the second sequence being initialized with a cell ID. receiving , by a user equipment, UE, or an apparatus which is used for the UE, first downlink control information, DCI that schedules first data communication for the UE, the first DCI being in a first format which is a DCI format 1_0 for a physical downlink shared channel, PDSCH and the first DCI being in a UE specific search space with cyclic redundancy check, CRC, scrambled by a UE identifier, ID, of the UE; and receiving , by the UE or the apparatus, first data according to the first DCI, the first data being scrambled by a first sequence, the first sequence being initialized with a configurable parameter; and receiving , by the UE or the apparatus, second DCI that schedules second data communication for the UE, the second DCI being in the first format and the second DCI being in a common search space with CRC scrambled by the UE ID of the UE; and receiving , by the UE or the apparatus, second data according to the second DCI, the second data being scrambled by a second sequence, the second sequence being initialized with a cell ID.
A lighting device having a front-rear direction (FRD) and comprising: a case made from a material allowing light to penetrate therethrough and having a cylinder shape with a closed bottom in a front end and an opening in a rear end; a substrate including a light emitter configured to emit light; and a cover made from a rigid material, wherein the cover includes a cover body , a pair of cover side walls , and a pair of arms , and press-fitted and installed in the substrate in the tip end portion, the tip end portion being on the side of the front end of the case so as to cover the light emitter , and installed inside the case together with the substrate , wherein the central portion of the substrate in a transverse direction (TD) at the forward end of the substrate is sandwiched by and between the pair of cover side walls and the pair of arms in a longitudinal direction (LD), wherein a direction perpendicular to the front-rear direction (FRD) of the lighting device is referred to as a longitudinal direction (LD), and a direction perpendicular to the front-rear direction and the longitudinal direction is referred to as a transverse direction (TD), and wherein the thickness direction of the substrate in which the light emitter is installed and which has a thin flat plate shape is the longitudinal direction (LD). a case made from a material allowing light to penetrate therethrough and having a cylinder shape with a closed bottom in a front end and an opening in a rear end; a substrate including a light emitter configured to emit light; and a cover made from a rigid material, wherein the cover includes a cover body , a pair of cover side walls , and a pair of arms , and press-fitted and installed in the substrate in the tip end portion, the tip end portion being on the side of the front end of the case so as to cover the light emitter , and installed inside the case together with the substrate , wherein the central portion of the substrate in a transverse direction (TD) at the forward end of the substrate is sandwiched by and between the pair of cover side walls and the pair of arms in a longitudinal direction (LD), wherein a direction perpendicular to the front-rear direction (FRD) of the lighting device is referred to as a longitudinal direction (LD), and a direction perpendicular to the front-rear direction and the longitudinal direction is referred to as a transverse direction (TD), and wherein the thickness direction of the substrate in which the light emitter is installed and which has a thin flat plate shape is the longitudinal direction (LD).
A chest wall oscillation therapy force generator for generating successive force of impact as a therapy regime for a patient to encourage airway clearance, comprising: a piston pump assembly comprising two pistons each disposed within corresponding piston wells , each piston arranged for reciprocating movement within the corresponding piston well to generate pressure between the pistons for chest wall oscillation therapy according to the therapy regime; a drive shaft arranged for connection with a drive motor to provide reciprocating drive for the two pistons , wherein negative pressure generated by driving the pistons outward from each other, and positive pressure generated by driving the pistons inward, is communicated through an outlet ; and a drive linkage operably connected with each of the two pistons and the drive shaft to transfer rotational drive of the drive shaft into reciprocating motion of the pistons . a piston pump assembly comprising two pistons each disposed within corresponding piston wells , each piston arranged for reciprocating movement within the corresponding piston well to generate pressure between the pistons for chest wall oscillation therapy according to the therapy regime; a drive shaft arranged for connection with a drive motor to provide reciprocating drive for the two pistons , wherein negative pressure generated by driving the pistons outward from each other, and positive pressure generated by driving the pistons inward, is communicated through an outlet ; and a drive linkage operably connected with each of the two pistons and the drive shaft to transfer rotational drive of the drive shaft into reciprocating motion of the pistons .
A self-curing organic synthetic resin composition for additive manufacturing, comprising 30-75% by weight of a linear thermoplastic phenolic resin and 25-70% by weight of a phenol modified furan resin.
An apparatus for imaging using microwave or terahertz radiation, said apparatus comprising: a single cell comprising a vapour of atoms; one or more laser sources configured to generate a plurality of laser beams propagating through said cell , said laser beams defining a sensing region in said cell , wherein said laser beams comprise a plurality of coaxial laser beams shaped as a light sheet defining said sensing region in said cell ; one or more microwave or terahertz sources configured to generate an imaging beam for illuminating an obj ect receiving area for receiving an obj ect to be imaged, said imaging beam comprising microwave or terahertz radiation; an imaging system (20, 22; 21) for focussing radiation from the imaging beam to form, in use, an image of said object at said sensing region in said cell ; wherein respective frequencies of said laser beams and said imaging beam are such that at least some of said atoms, when subjected to radiation of both said laser beams and said imaging beam , are excited to a final excited state which decays to a lower energy state by emission of optical fluorescence . a single cell comprising a vapour of atoms; one or more laser sources configured to generate a plurality of laser beams propagating through said cell , said laser beams defining a sensing region in said cell , wherein said laser beams comprise a plurality of coaxial laser beams shaped as a light sheet defining said sensing region in said cell ; one or more microwave or terahertz sources configured to generate an imaging beam for illuminating an obj ect receiving area for receiving an obj ect to be imaged, said imaging beam comprising microwave or terahertz radiation; an imaging system (20, 22; 21) for focussing radiation from the imaging beam to form, in use, an image of said object at said sensing region in said cell ; wherein respective frequencies of said laser beams and said imaging beam are such that at least some of said atoms, when subjected to radiation of both said laser beams and said imaging beam , are excited to a final excited state which decays to a lower energy state by emission of optical fluorescence .
A rearview mirror assembly comprising: a bezel ; and an electro-optic mirror element comprising: a first substrate having an edge extending around at least a portion of a perimeter of the first substrate ; a second substrate having a second edge extending around at least a portion of a perimeter of the second substrate and a surface , wherein the first substrate and the second substrate define a cavity therebetween; and an electro-optic material disposed within the cavity , wherein the bezel is integrally molded to the first substrate and the second substrate , and wherein the second edge is positioned one of inboard of the edge relative to the bezel or outboard of the edge relative to the bezel . a bezel ; and an electro-optic mirror element comprising: a first substrate having an edge extending around at least a portion of a perimeter of the first substrate ; a second substrate having a second edge extending around at least a portion of a perimeter of the second substrate and a surface , wherein the first substrate and the second substrate define a cavity therebetween; and an electro-optic material disposed within the cavity , a first substrate having an edge extending around at least a portion of a perimeter of the first substrate ; a second substrate having a second edge extending around at least a portion of a perimeter of the second substrate and a surface , wherein the first substrate and the second substrate define a cavity therebetween; and an electro-optic material disposed within the cavity , wherein the bezel is integrally molded to the first substrate and the second substrate , and wherein the second edge is positioned one of inboard of the edge relative to the bezel or outboard of the edge relative to the bezel .
An antenna for a mobile communication device, wherein the antenna comprises: a microphone , an antenna feeder , a radio frequency module , and a main board ground terminal , all arranged on a main board of the mobile communication device, wherein the microphone comprises: a body portion ; characterized in that the microphone further comprises : a first ground terminal of the microphone and a second ground terminal of the microphone , wherein the first ground terminal of the microphone is arranged to surround a sidewall of the body portion , the first ground terminal of the microphone is electrically connected with the second ground terminal of the microphone , and the second ground terminal of the microphone is electrically connected with the body portion ; and the radio frequency module is electrically connected with the first ground terminal of the microphone through the antenna feeder , and the main board ground terminal is electrically connected with the second ground terminal of the microphone . a microphone , an antenna feeder , a radio frequency module , and a main board ground terminal , all arranged on a main board of the mobile communication device, wherein the microphone comprises: a body portion ; characterized in that the microphone further comprises : a first ground terminal of the microphone and a second ground terminal of the microphone , wherein the first ground terminal of the microphone is arranged to surround a sidewall of the body portion , the first ground terminal of the microphone is electrically connected with the second ground terminal of the microphone , and the second ground terminal of the microphone is electrically connected with the body portion ; and the radio frequency module is electrically connected with the first ground terminal of the microphone through the antenna feeder , and the main board ground terminal is electrically connected with the second ground terminal of the microphone . a body portion ; characterized in that the microphone further comprises : a first ground terminal of the microphone and a second ground terminal of the microphone , wherein the first ground terminal of the microphone is arranged to surround a sidewall of the body portion , the first ground terminal of the microphone is electrically connected with the second ground terminal of the microphone , and the second ground terminal of the microphone is electrically connected with the body portion ; and the radio frequency module is electrically connected with the first ground terminal of the microphone through the antenna feeder , and the main board ground terminal is electrically connected with the second ground terminal of the microphone .