mhurhangee/patent-ind-claim-en huggingface dataset:
A blade protection cover for coupling to a blade of a lawn mower apparatus, wherein the blade is fixed to a rotatable plate of the lawn mower apparatus via a screw passing through one end in a longitudinal direction of the blade , the blade protection cover comprising: a first cover for covering one face of the blade ; two second covers connected to the first cover , the second covers covering both edges of the blade in a width direction of the blade , respectively; and a guide disposed on inner faces of both second covers , respectively, wherein the guides are constructed to guide the blade protection cover to slide along both edges of the blade in the width direction of the blade and thus to be coupled to the blade , wherein the blade protection cover further comprises a third cover for covering an edge of the blade of one end in the longitudinal direction of the blade , and wherein the blade protection cover is constructed not to cause interference with the screw when the blade protection cover slides in a sliding direction from inside to outside of the rotatable plate to be coupled to the blade fixed to the rotatable plate via the screw . a first cover for covering one face of the blade ; two second covers connected to the first cover , the second covers covering both edges of the blade in a width direction of the blade , respectively; and a guide disposed on inner faces of both second covers , respectively, wherein the guides are constructed to guide the blade protection cover to slide along both edges of the blade in the width direction of the blade and thus to be coupled to the blade , wherein the blade protection cover further comprises a third cover for covering an edge of the blade of one end in the longitudinal direction of the blade , and wherein the blade protection cover is constructed not to cause interference with the screw when the blade protection cover slides in a sliding direction from inside to outside of the rotatable plate to be coupled to the blade fixed to the rotatable plate via the screw .
A production method of a power module, wherein the power module comprises: a power chip , a connection substrate and a metal substrate , the power chip is disposed above the connection substrate and the metal substrate is disposed under the connection substrate , and the production method comprises: a first step (S101): providing the connection substrate , a second bonding material and the metal substrate ; a second step (S102): stacking the connection substrate , the second bonding material and the metal substrate together in sequence, and heating them to 180°C ∼ 350°C to obtain the connection substrate connected with the metal substrate , wherein the second bonding material is in contact with an upper surface of the metal substrate ; a third step (S103): cooling the connection substrate , the second bonding material and the metal substrate to a first temperature, wherein a coefficient of thermal expansion of the connection substrate is smaller than a coefficient of thermal expansion of the metal substrate and the upper surface and a lower surface of the metal substrate are bendingly deformed toward the connection substrate during the cooling, the upper surface of the metal substrate is formed as a curved surface protruding toward the connection substrate , and the first temperature ∈ [-10°C, 40°C]; a fourth step (S104): processing the lower surface of the metal substrate into a plane. a first step (S101): providing the connection substrate , a second bonding material and the metal substrate ; a second step (S102): stacking the connection substrate , the second bonding material and the metal substrate together in sequence, and heating them to 180°C ∼ 350°C to obtain the connection substrate connected with the metal substrate , wherein the second bonding material is in contact with an upper surface of the metal substrate ; a third step (S103): cooling the connection substrate , the second bonding material and the metal substrate to a first temperature, wherein a coefficient of thermal expansion of the connection substrate is smaller than a coefficient of thermal expansion of the metal substrate and the upper surface and a lower surface of the metal substrate are bendingly deformed toward the connection substrate during the cooling, the upper surface of the metal substrate is formed as a curved surface protruding toward the connection substrate , and the first temperature ∈ [-10°C, 40°C]; a fourth step (S104): processing the lower surface of the metal substrate into a plane.
A flexural pivot , comprising: a first flexure support member ; a second flexure support member rotatably coupled to the first flexure support member for relative rotation about a first axis ; a third flexure support member rotatably coupled to the second flexure support member for relative rotation about a second axis ; and a plurality of cross blade flexures (140a-d) rotatably coupling the flexure support members to one another, each cross blade flexure comprising first and second flexible blade units that have flexible blades arranged in a cross configuration, the flexible blade units comprising blade supports disposed at opposite ends of the flexible blades to facilitate coupling the flexible blade units to the flexure support members, wherein the flexible blade and the blade supports of each flexible blade unit form a monolithic structure, wherein the flexible blades extend perpendicularly from planar surfaces of the blade supports. a first flexure support member ; a second flexure support member rotatably coupled to the first flexure support member for relative rotation about a first axis ; a third flexure support member rotatably coupled to the second flexure support member for relative rotation about a second axis ; and a plurality of cross blade flexures (140a-d) rotatably coupling the flexure support members to one another, each cross blade flexure comprising first and second flexible blade units that have flexible blades arranged in a cross configuration, the flexible blade units comprising blade supports disposed at opposite ends of the flexible blades to facilitate coupling the flexible blade units to the flexure support members, wherein the flexible blade and the blade supports of each flexible blade unit form a monolithic structure, wherein the flexible blades extend perpendicularly from planar surfaces of the blade supports.
A method for configuring resolution of beam direction reports, the method being performed by a radio equipment controller, REC, of an access node , the REC having an REC-RE interface to a radio equipment, RE, of the access node , the method comprising: providing (S106) instructions to the RE regarding with which resolution beam direction reports are to be transmitted to the REC on said REC-RE interface , wherein the resolution pertains to how many beam direction reports in frequency domain are transmitted from the RE to the REC for each received OFDM symbol, the beam direction reports comprise information related to spatial processed uplink reference signals, and receiving said beam direction reports on said REC-RE interface according to said instructions. providing (S106) instructions to the RE regarding with which resolution beam direction reports are to be transmitted to the REC on said REC-RE interface , wherein the resolution pertains to how many beam direction reports in frequency domain are transmitted from the RE to the REC for each received OFDM symbol, the beam direction reports comprise information related to spatial processed uplink reference signals, and receiving said beam direction reports on said REC-RE interface according to said instructions.
An UAV configured to be carried on a vehicle, comprising: a UAV body ; a UAV controller ; a first driving device connected with the UAV controller ; a propeller connected with the first driving device ; a second driving device connected with the UAV controller ; an umbrella unit connected with the second driving device ; a wireless communication module connected with the UAV controller and used for wirelessly communicating with the vehicle ; wherein when the UAV provides the holding umbrella service for an occupant, the UAV controller is configured to control the first driving device to drive the propeller to bring the UAV body to take off from the vehicle and fly above a corresponding door of the vehicle or above the occupant, the UAV controller is configured to control the second driving device to drive the umbrella unit to be opened from a closing state to an opening state, so that the UAV holds the umbrella unit for the occupant; wherein after the UAV finishes the holding umbrella service for the occupant, the UAV controller is configured to control the second driving device to drive the umbrella unit to be closed from the opening state to the closing state, the UAV controller is configured to control the first driving device to drive the propeller to bring the UAV body to return back to the vehicle . a UAV body ; a UAV controller ; a first driving device connected with the UAV controller ; a propeller connected with the first driving device ; a second driving device connected with the UAV controller ; an umbrella unit connected with the second driving device ; a wireless communication module connected with the UAV controller and used for wirelessly communicating with the vehicle ; wherein when the UAV provides the holding umbrella service for an occupant, the UAV controller is configured to control the first driving device to drive the propeller to bring the UAV body to take off from the vehicle and fly above a corresponding door of the vehicle or above the occupant, the UAV controller is configured to control the second driving device to drive the umbrella unit to be opened from a closing state to an opening state, so that the UAV holds the umbrella unit for the occupant; wherein after the UAV finishes the holding umbrella service for the occupant, the UAV controller is configured to control the second driving device to drive the umbrella unit to be closed from the opening state to the closing state, the UAV controller is configured to control the first driving device to drive the propeller to bring the UAV body to return back to the vehicle .
Drainage channel (10; 10'; 10"; 10′′′) with a U-shaped profile, comprising a web as channel bottom and legs adjoining on both sides as side parts , with supports with height-adjustable feet detachably fixed at the ends of the supports , - wherein the ends of the supports , with said ends arranged opposite with respect to the feet , are fixed to a bracket provided transversely to the extension of the drainage channel , and - wherein between each side part and the two ends of the bracket there is arranged a channel recess which is fixed thereto and which is height-displaceable parallel to the adjacent side part , characterized in - that the channel bottom comprises passages for the supports of the feet , and - that , in the area of the passages , each support is fixable at the channel bottom height-adjustably to the feet . - wherein the ends of the supports , with said ends arranged opposite with respect to the feet , are fixed to a bracket provided transversely to the extension of the drainage channel , and - wherein between each side part and the two ends of the bracket there is arranged a channel recess which is fixed thereto and which is height-displaceable parallel to the adjacent side part , characterized in - that the channel bottom comprises passages for the supports of the feet , and - that , in the area of the passages , each support is fixable at the channel bottom height-adjustably to the feet .
A pharmaceutical composition comprising an anti-CD46 antibody for use in a method of treating a cancer characterized by a modification at chromosome location 1q21 in a human subject, the method comprising: administering to the subject identified to have a modification at chromosome location 1q21 a therapeutically effective amount of a CD46-targeted therapy, wherein the CD46-targeted therapy comprises the pharmaceutical composition, and wherein the modification at 1q21 is an amplification of 1q21.
Use of a kit in the in vitro detection or diagnosis of esophageal cancer, said kit comprising a nucleic acid(s) capable of specifically binding to a polynucleotide of an esophageal cancer marker: miR-4257.
A rollable display device , comprising: a rollable structure including a plurality of unit structures (CRi), the rollable structure being rollable and unrollable based on the unit structures (CRi), and the rollable structure defining a flat upper surface when the unit structures (CRi) are unrolled; a display panel structure being attached to the flat upper surface of the rollable structure ; and a plurality of magnetic objects (IB, OB) on a bezel region (BZ) of the rollable structure not overlapped by the display panel structure , wherein respective widths (Wi) of the unit structures (CRi) increase in a direction from a first side (FS) of the rollable structure to a second side (SS) of the rollable structure , the first side (FS) of the rollable structure being opposite to the second side (SS) of the rollable structure , wherein the unit structures (CRi) collectively form first through (n)th rolling cycles (FCY, SCY, TCY), where n is an integer greater than or equal to 2, as the rollable structure is rolled, and a (k)th rolling cycle encircles a (k-1)th rolling cycle, where k is an integer between 2 and n, and wherein the plurality of magnetic objects (IB, OB) aligns the (k)th rolling cycle with the (k-1)th rolling cycle by causing a magnetic attraction between the (k)th rolling cycle and the (k-1)th rolling cycle. a rollable structure including a plurality of unit structures (CRi), the rollable structure being rollable and unrollable based on the unit structures (CRi), and the rollable structure defining a flat upper surface when the unit structures (CRi) are unrolled; a display panel structure being attached to the flat upper surface of the rollable structure ; and a plurality of magnetic objects (IB, OB) on a bezel region (BZ) of the rollable structure not overlapped by the display panel structure , wherein respective widths (Wi) of the unit structures (CRi) increase in a direction from a first side (FS) of the rollable structure to a second side (SS) of the rollable structure , the first side (FS) of the rollable structure being opposite to the second side (SS) of the rollable structure , wherein the unit structures (CRi) collectively form first through (n)th rolling cycles (FCY, SCY, TCY), where n is an integer greater than or equal to 2, as the rollable structure is rolled, and a (k)th rolling cycle encircles a (k-1)th rolling cycle, where k is an integer between 2 and n, and wherein the plurality of magnetic objects (IB, OB) aligns the (k)th rolling cycle with the (k-1)th rolling cycle by causing a magnetic attraction between the (k)th rolling cycle and the (k-1)th rolling cycle.
A battery thermal treatment apparatus comprising, a thermal treatment part , in which a battery is transferred and thermally treated through a closed tube ; and a gas handling part , which cools and performs dust collection of gas generated in the thermal treatment part , wherein the gas handling part comprises, a gas heat-treatment part which communicates with an upper part of the thermal treatment part , to heat-treat gas from the thermal treatment part ; a heat-exchange part communicating with the gas heat-treatment part to cool transferred gas therefrom; a cooling tower which circulates a coolant to the heat-exchange part ; and a second dust collecting part which collects dust from gas emitted from the heat-exchange part , wherein the cooling tower , supplies and circulates a coolant to an end of the thermal treatment plant for cooling a substance treated and discharged therefrom.
A system for bleaching teeth in cosmetic applications comprising a water-containing bleaching agent and a laser system , said bleaching agent having a water contents of at least 50% by weight, said laser system being embodied to generate a laser beam in pulse mode with individual pulses for heating the water-containing bleaching agent applied onto the teeth by means of the laser beam , wherein the laser beam has a wavelength (λ) in a range of 2.6 μm, inclusive, to 3.1 μm, inclusive, or in a range of 9.0 μm, inclusive, to 11.0 μm, inclusive, and wherein the individual pulses each have a fluence (F) that is below a vaporization threshold fluence (F th ) of the bleaching agent .
A black porous polytetrafluoroethylene membrane comprising a porous polytetrafluoroethylene membrane dyed black having a porous structure, wherein the porous structure has voids formed between fibrils of polytetrafluoroethylene as pores in the porous structure, the porous polytetrafluoroethylene membrane is dyed with a black dye that is soluble in solvent, a whiteness of a principal face of the black porous polytetrafluoroethylene membrane as measured according to JIS L 1015 (Hunter method) is 18.0 to 23.0%, and the whiteness of the principal face falls within a range of 18.0 and 25.0% after heating at 350°C for 1 minute, characterized in that the black dye has a melting point higher than 360°C.
A mixer faucet handle for a mixer faucet with a cartridge , said cartridge having a mixer cartridge stem , the mixer faucet handle adapted to convert user handling into controlling rotation and tilt of said mixer cartridge stem to control temperature and flowrate respectively of water poured from said mixer faucet , the mixer faucet handle comprising: - a knob with an outer surface for receiving rotational user handling, - a rotating mechanism converting rotation of a section of said knob outer surface into rotation of said mixer cartridge stem , and - a tilting mechanism being a different mechanism from the rotating mechanism , said tilting mechanism converting rotation of said section of said knob outer surface into tilting said mixer cartridge stem characterized in that the mixer faucet handle further comprises a shifter for switching between a first gear and a second gear of the mixer faucet handle , where: - when the mixer faucet handle is in said first gear, the rotating mechanism is engaged to the knob and the tilting mechanism is disengaged from said knob , and - when the mixer faucet handle is in said second gear, the tilting mechanism is engaged to the knob and said rotating mechanism is disengaged from said knob , - wherein said shifter switches between said first and second gears by disengaging one mechanism and engaging another mechanism. - a knob with an outer surface for receiving rotational user handling, - a rotating mechanism converting rotation of a section of said knob outer surface into rotation of said mixer cartridge stem , and - a tilting mechanism being a different mechanism from the rotating mechanism , said tilting mechanism converting rotation of said section of said knob outer surface into tilting said mixer cartridge stem characterized in that the mixer faucet handle further comprises a shifter for switching between a first gear and a second gear of the mixer faucet handle , where: - when the mixer faucet handle is in said first gear, the rotating mechanism is engaged to the knob and the tilting mechanism is disengaged from said knob , and - when the mixer faucet handle is in said second gear, the tilting mechanism is engaged to the knob and said rotating mechanism is disengaged from said knob , - wherein said shifter switches between said first and second gears by disengaging one mechanism and engaging another mechanism.
Process for the preparation of Trenbolone Acetate of formula (I): wherein Trenbolone Acetate has irregular hexagon plates crystal habit, by crystallization of the Trenbolone Acetate of formula (I) with a C 2 -C 5 alkyl alcohol, wherein the C 2 -C 5 alkyl alcohol is isopropanol. wherein Trenbolone Acetate has irregular hexagon plates crystal habit, by crystallization of the Trenbolone Acetate of formula (I) with a C 2 -C 5 alkyl alcohol, wherein the C 2 -C 5 alkyl alcohol is isopropanol.
A method comprising: sending, by a mobile computing device , a request to perform a ranging operation to a server device ; receiving, by the mobile computing device and from the server device , an indication that the mobile computing device may perform the ranging operation, responsive to receiving the indication that the mobile computing device may perform the ranging operation from the server device , outputting, by the mobile computing device , a first radio signal that includes a first data packet, wherein the first data packet includes information indicating that the mobile computing device is requesting initiation of a ranging operation; after outputting the first radio signal, outputting, by the mobile computing device , an ultrasonic pulse that includes a second data packet; after outputting the ultrasonic pulse , receiving, by the mobile computing device , a third data packet via a second radio signal from a beacon device (10A-C), wherein the third data packet includes information identifying the beacon device as a source of the third data packet; determining, by the mobile computing device, a time difference between outputting the ultrasonic pulse and receiving the second radio signal ; and determining, by the mobile computing device and based at least in part on the third data packet and the time difference, a location of the mobile computing device . sending, by a mobile computing device , a request to perform a ranging operation to a server device ; receiving, by the mobile computing device and from the server device , an indication that the mobile computing device may perform the ranging operation, responsive to receiving the indication that the mobile computing device may perform the ranging operation from the server device , outputting, by the mobile computing device , a first radio signal that includes a first data packet, wherein the first data packet includes information indicating that the mobile computing device is requesting initiation of a ranging operation; after outputting the first radio signal, outputting, by the mobile computing device , an ultrasonic pulse that includes a second data packet; after outputting the ultrasonic pulse , receiving, by the mobile computing device , a third data packet via a second radio signal from a beacon device (10A-C), wherein the third data packet includes information identifying the beacon device as a source of the third data packet; determining, by the mobile computing device, a time difference between outputting the ultrasonic pulse and receiving the second radio signal ; and determining, by the mobile computing device and based at least in part on the third data packet and the time difference, a location of the mobile computing device .