mhurhangee/patent-ind-claim-en huggingface dataset:
An optical structure in which a plurality of cells having a pleat structure are regularly aligned in contact with each other on an embossed surface, wherein the pleat structure includes a plurality of inclined surfaces parallel to each other, the pleat structure includes a linear ridge line formed of an inclined surface end, the ridge line is parallel to a straight line approximating a smooth curved line, depths of pleat structures of adjacent cells are uniform, an interval of ridge lines in a cell continuously varies between adjacent cells , an inclined surface group of each aligned cell displays an appearance of a smooth curved surface by reflected light of the inclined surfaces, and a distance of a ridge line , among the ridge lines in each cell , closest to a predetermined reference point of the cell from the predetermined reference point has artificial fluctuation, characterized in that the artificial fluctuation is realized by shifting the ridge line in parallel by a shift amount determined by a random number in any one of the cells . the pleat structure includes a plurality of inclined surfaces parallel to each other, the pleat structure includes a linear ridge line formed of an inclined surface end, the ridge line is parallel to a straight line approximating a smooth curved line, depths of pleat structures of adjacent cells are uniform, an interval of ridge lines in a cell continuously varies between adjacent cells , an inclined surface group of each aligned cell displays an appearance of a smooth curved surface by reflected light of the inclined surfaces, and a distance of a ridge line , among the ridge lines in each cell , closest to a predetermined reference point of the cell from the predetermined reference point has artificial fluctuation, characterized in that the artificial fluctuation is realized by shifting the ridge line in parallel by a shift amount determined by a random number in any one of the cells .
An aseptic connector comprising a first connection unit (102; 202; 302; 402; 502) provided with a first terminal end surface (104; 204; 304; 404; 504) and a second connection unit (106; 206; 306; 406; 506) provided with a second terminal end surface (108; 208; 308; 408; 508); said first and second terminal end surfaces are each provided with at least one first and second opening (110, 112; 210, 212; 310, 312; 410, 412; 510, 512) respectively, which openings are orientated to substantially coincide when said first and second connection units are connected to each other; said first and second openings are sealed by at least one film (114; 214; 314; 414; 514) arranged on said first and second connection units, so that the contact between the film and each connection unit is aseptic; said at least one film is adapted to be mated with a corresponding film on the other connection unit when said first and second connection units are connected to each other; and said mated films are adapted to be pulled out together two and two after mating such that corresponding first and second openings in said first and second terminal end surfaces are mated aseptically, characterised in that at least two first ports (116; 216; 316; 416; 516) connectable to pipes or tubes are arranged on the first connection unit, which first ports have fluid connection with the at least one first opening (110; 210; 310; 410; 510) in the first terminal end surface and in that at least one second port (118; 218; 318; 418; 518) connectable to pipes or tubes is arranged on the second connection unit, wherein the at least one second port has a fluid connection with the at least one second opening (112; 212; 312; 412; 512) in the second terminal end surface, and wherein the at least two first ports and the at least one second port project out of the first and second connection units respectively and are configured to be connected to the pipes or tubes by pushing a pipe or tube over each projecting port to form a leak-tight seal.
Method for producing a fastening device that is suitable for mounting on two rafters , wherein, in the method, - a mounting base is produced, which is embodied in a telescopic manner and is longitudinally adjustable, - for attaching a connection pipe to the mounting base , retaining means are provided, which comprise a clamping element and a mating clamping element , - the clamping element and the mating clamping element are produced, which are connectable together such that the clamping element and the mating clamping element clamp a portion of the mounting base between one another after the fastening device has been mounted, - wherein the clamping element is produced from a one-piece metal body, and - wherein, on the inner side of the clamping element , steps are formed, which, or at least the step edges of which, bearing against the mounting base after the clamping element has been mounted, characterized in that , - on the inner side of the clamping element , steps are cut out by material removal, which extend with a constant step height from one end of the clamping element to the other end of the clamping element in the clamping-element longitudinal direction (X), - wherein the steps extend continuously from one end of the clamping element to the other end, or - in the case of interruptions, for example transversely extending grooves or a transversely extending through-hole - at least along a length of at least 30% of the total distance between the two ends of the clamping element . - a mounting base is produced, which is embodied in a telescopic manner and is longitudinally adjustable, - for attaching a connection pipe to the mounting base , retaining means are provided, which comprise a clamping element and a mating clamping element , - the clamping element and the mating clamping element are produced, which are connectable together such that the clamping element and the mating clamping element clamp a portion of the mounting base between one another after the fastening device has been mounted, - wherein the clamping element is produced from a one-piece metal body, and - wherein, on the inner side of the clamping element , steps are formed, which, or at least the step edges of which, bearing against the mounting base after the clamping element has been mounted, - on the inner side of the clamping element , steps are cut out by material removal, which extend with a constant step height from one end of the clamping element to the other end of the clamping element in the clamping-element longitudinal direction (X), - wherein the steps extend continuously from one end of the clamping element to the other end, or - in the case of interruptions, for example transversely extending grooves or a transversely extending through-hole - at least along a length of at least 30% of the total distance between the two ends of the clamping element .
A brake for an actuator of an industrial robot , the brake comprising, a first element with a plurality of legs arranged at regular intervals, and a second element configured to get in between a pair of legs to engage the brake and to thereby oppose a relative movement between the first and the second elements , the second element further being configured to get out from between the pair of legs to release the brake and to thereby allow a free relative movement between the first and the second elements , characterized in that the legs are configured to bend aside such that the second element comes in between an adjacent pair of legs if braking energy needed to stop the relative movement between the first and the second elements exceeds a threshold value.
Smart gearwheel which has a pitch circle and which comprises, on the one hand, a plurality of teeth each having a tooth tip , and at least one of these teeth comprises a groove which opens at the tip of said at least one of these teeth , and which extends from the tip of said at least one these teeth and in a radial manner, on the other hand, at least two temperature sensors which are configured to detect the temperature and, furthermore, transmission means for transmitting at least data relating to the temperatures detected by said at least two temperature sensors , characterized in that, on the one hand, the groove extends longitudinally over at least part of the length of the tip of said at least one of the teeth and at most up to the pitch circle of the smart gearwheel and, on the other hand, said at least two temperature sensors are located inside the groove of said at least one of these teeth .
A method performed by a first base station , the method is characterized by comprising: receiving , from a second base station , a request to refresh a security key used by the secondary base station , wherein the request to refresh the security key is received before Packet Data Convergence Protocol, PDCP, count for a bearer is about to wrap around; sending , to a user equipment, UE, that is connected to the first base station and the second base station simultaneously through Dual Connectivity, DC, an RRC signaling to the UE to effectuate the security key refresh for the corresponding second base station , wherein the first base station is a primary master base station and the second base station is a secondary base station in the DC; and receiving , from the UE , a message indicating that the refresh for the security key has been completed. receiving , from a second base station , a request to refresh a security key used by the secondary base station , wherein the request to refresh the security key is received before Packet Data Convergence Protocol, PDCP, count for a bearer is about to wrap around; sending , to a user equipment, UE, that is connected to the first base station and the second base station simultaneously through Dual Connectivity, DC, an RRC signaling to the UE to effectuate the security key refresh for the corresponding second base station , wherein the first base station is a primary master base station and the second base station is a secondary base station in the DC; and
An oxidation catalyst composite for abatement of exhaust gas emissions from a lean burn engine, the catalyst composite comprising: a carrier substrate having a length, an inlet end and an outlet end, an oxidation catalyst material on the carrier, the oxidation catalyst material comprising: a first oxidation material including a first refractory metal oxide support, a rare earth oxide component, and palladium (Pd), the first oxidation material being substantially free of platinum; a second oxidation material including a second refractory metal oxide support, and platinum (Pt) and palladium (Pd) in a platinum to palladium ratio of 10:1 to 1:10, the second oxidation material being substantially free of rare earth oxide; and a protective overlayer including a third refractory metal oxide, platinum (Pt) and, optionally, palladium (Pd), and a molecular sieve promoted with Fe, the protective overlayer being substantially free of a rare earth oxide. a first oxidation material including a first refractory metal oxide support, a rare earth oxide component, and palladium (Pd), the first oxidation material being substantially free of platinum; a second oxidation material including a second refractory metal oxide support, and platinum (Pt) and palladium (Pd) in a platinum to palladium ratio of 10:1 to 1:10, the second oxidation material being substantially free of rare earth oxide; and a protective overlayer including a third refractory metal oxide, platinum (Pt) and, optionally, palladium (Pd), and a molecular sieve promoted with Fe, the protective overlayer being substantially free of a rare earth oxide.
A method for using a mattress , comprising: providing a plurality of individual spring assemblies , with each spring assembly including at least one spring and a spring cap (144, 150, 161 164 171, 184, 194, 204), with each spring cap having at least two attachment fittings; attaching the individual spring assemblies to each other via the attachment fittings to form a spring core having an array of attached spring assemblies ; placing a top pad on top of the spring core ; placing one or more side pads around a perimeter of the top pad to form a spring mattress ready for use; removing the side pads and removing the top pad from the spring core ; separating the springs from the spring caps ; stacking the springs onto each other to form a column of springs ; stacking the spring caps onto each other to form a column of spring caps ; and placing the column of spring caps over the column of springs . providing a plurality of individual spring assemblies , with each spring assembly including at least one spring and a spring cap (144, 150, 161 164 171, 184, 194, 204), with each spring cap having at least two attachment fittings; attaching the individual spring assemblies to each other via the attachment fittings to form a spring core having an array of attached spring assemblies ; placing a top pad on top of the spring core ; placing one or more side pads around a perimeter of the top pad to form a spring mattress ready for use; removing the side pads and removing the top pad from the spring core ; separating the springs from the spring caps ; stacking the springs onto each other to form a column of springs ; stacking the spring caps onto each other to form a column of spring caps ; and placing the column of spring caps over the column of springs .
A band take-up device (1; 6) for winding a band meltable by heat input on at least one surface onto a bobbin , comprising a bobbin drive for rotatably driving the bobbin and winding the band supplied to the bobbin onto the bobbin , wherein the band take-up device (1; 6) comprises a band fastening device which is designed for introducing thermal energy into a heating section of the band , characterized in that the fastening device is formed by electrodes and an insulator , wherein the electrodes are spaced apart by the insulator and are designed for generating electric sparks and for introducing the thermal energy, which is created thereby, into the band .
Subsea direct electric heating cable set, , comprising: - at least one piggyback cable extending along a portion of a subsea pipeline that comprises an electrically conducting pipeline material, the at least one piggyback cable being electrically connected in series with the subsea pipeline ; - a power feeder cable extending from a topside AC power supply to a subsea location, the power feeder cable feeding electric power to the piggyback cable and the pipeline , resulting in a heating of the pipeline ; and - an arrangement for reducing a reactive component of the power fed to the subsea pipeline ; characterized in that the arrangement for reducing the reactive component of the power comprises the power feeder cable , the power feeder cable having a distributed capacitance which is sufficient, in the absence of a capacitor, to result in a power factor of an electric circuit comprising the power feeder cable , the subsea pipeline and the piggyback cable in the range 0.9 to 1.0. - at least one piggyback cable extending along a portion of a subsea pipeline that comprises an electrically conducting pipeline material, the at least one piggyback cable being electrically connected in series with the subsea pipeline ; - a power feeder cable extending from a topside AC power supply to a subsea location, the power feeder cable feeding electric power to the piggyback cable and the pipeline , resulting in a heating of the pipeline ; and - an arrangement for reducing a reactive component of the power fed to the subsea pipeline ;
An exhaust gas vibration suppressing device comprising: a first vacuum pump of a positive displacement-type including a suction port and a discharge port ; a second vacuum pump including a suction port and a discharge port and having a discharge capacity smaller than a discharge capacity of the first vacuum pump ; a connection line connecting between the discharge port of the first vacuum pump and the suction port of the second vacuum pump ; a bypass line having a first end (E6) connected to the connection line and a second end (E7) for emitting gas to outside; an on-off valve disposed between the first end (E6) and the second end (E7) of the bypass line ; and a buffer tube (Z1) provided between the first end (E6) and the on-off valve for suppressing flow vibration of gas flowing into the bypass line , characterised in that : the buffer tube (Z1) includes a constricted portion for locally narrowing a flow path of gas passing in the buffer tube (Z1), and the constricted portion has an opening ratio of 20 to 46%. a first vacuum pump of a positive displacement-type including a suction port and a discharge port ; a second vacuum pump including a suction port and a discharge port and having a discharge capacity smaller than a discharge capacity of the first vacuum pump ; a connection line connecting between the discharge port of the first vacuum pump and the suction port of the second vacuum pump ; a bypass line having a first end (E6) connected to the connection line and a second end (E7) for emitting gas to outside; an on-off valve disposed between the first end (E6) and the second end (E7) of the bypass line ; and a buffer tube (Z1) provided between the first end (E6) and the on-off valve for suppressing flow vibration of gas flowing into the bypass line ,
A composition comprising a plurality of particles, wherein said particles comprise: a. 40 to 95 w.t.% polyethylene glycol, wherein the polyethylene glycol has a weight average molecular weight from 4000 to 12000; b. 0.1 to 50 w.t. % saccharide comprising one to ten monosaccharide units; and c. 0.1 to 30 w.t. % perfume materials wherein the saccharide is anhydrous, and wherein the particles further comprise 0.001 to 2 w.t. % colourant. a. 40 to 95 w.t.% polyethylene glycol, wherein the polyethylene glycol has a weight average molecular weight from 4000 to 12000; b. 0.1 to 50 w.t. % saccharide comprising one to ten monosaccharide units; and c. 0.1 to 30 w.t. % perfume materials
Container for the ex vivo treatment of biological fluids, in particular blood, comprising: - a rigid body ; - a reservoir provided inside said body ; - formed by a side wall , a rigid upper wall , and a rigid lower wall ; - said reservoir having an inner thickness defined by the separation between said upper wall and said lower wall ; - at least one of said upper wall or said lower wall having a window region configured to allow the passage of electromagnetic radiation from the outside of said body to said reservoir ; - a first access port for fluids to said reservoir from the outside of said body ; - first closure means for said first port ; - a second access port for fluids to said reservoir from the outside of said body ; - second closure means for said second port ; said reservoir being closed except for said first port and second port ; characterized in that said first closure means and said second closure means being configured to jointly provide a gas and liquid tight seal for said reservoir . - a rigid body ; - a reservoir provided inside said body ; - formed by a side wall , a rigid upper wall , and a rigid lower wall ; - said reservoir having an inner thickness defined by the separation between said upper wall and said lower wall ; - at least one of said upper wall or said lower wall having a window region configured to allow the passage of electromagnetic radiation from the outside of said body to said reservoir ; - formed by a side wall , a rigid upper wall , and a rigid lower wall ; - said reservoir having an inner thickness defined by the separation between said upper wall and said lower wall ; - at least one of said upper wall or said lower wall having a window region configured to allow the passage of electromagnetic radiation from the outside of said body to said reservoir ; - a first access port for fluids to said reservoir from the outside of said body ; - first closure means for said first port ; - a second access port for fluids to said reservoir from the outside of said body ; - second closure means for said second port ; said reservoir being closed except for said first port and second port ; characterized in that said first closure means and said second closure means being configured to jointly provide a gas and liquid tight seal for said reservoir .
A computer, wherein the computer comprises a system bus and at least three hardware devices connected to the system bus; the at least three hardware devices comprise a processor , a storage , and at least one another device ; an operating system of the computer comprises a scheduling subsystem; the operating system is stored in the storage; and a corresponding bus management module is provided in the system bus, wherein the processor is configured to invoke the scheduling subsystem to allocate, to at least one container of the computer, a container identity ID that corresponds one-to-one to the container; the processor or the another device is configured to send a bus request to the system bus , wherein the bus request carries the container ID and a hardware device ID of a hardware device used by the container indicated by the container ID; the bus management module is configured to search, according to the bus request, for a quality of service, QoS , parameter corresponding to both the container ID and the hardware device ID, wherein the QoS parameter is stored in the bus management module ; and the bus management module is further configured to configure, according to the found QoS parameter, a resource required when the container corresponding to the QoS parameter uses the hardware device corresponding to the QoS parameter, wherein the resource comprises at least one of bandwidth, a delay, or a priority; wherein the hardware device used by the container is the another device , and the another device comprises at least one of a network device, an encryption/decryption device, a display device, or a video encoding/decoding device; and in an aspect of sending a bus request to the system bus , the processor is specifically configured to invoke a first memory management MM subsystem in the operating system by using the container, to configure a device page table for the another device and store the device page table in a memory in the storage , wherein the device page table comprises the container ID; the processor is specifically configured to send a page table read instruction to the another device by using the first MM subsystem, wherein the page table read instruction is used to instruct a second MM subsystem in the another device to read the device page table from the memory, and the second MM subsystem is comprised in device software of the another device ; and the another device is specifically configured to send, to the system bus , the bus request that carries the container ID and the hardware device ID, wherein the container ID in the bus request is read by the second MM subsystem from the memory.