mhurhangee/ep-ind-claims huggingface dataset:
Medical resector for ablating, cutting or coagulating human or animal tissue, with: a rotatable radiofrequency electrode at the distal end of a straight shank of the medical resector; a rigid, straight shaft which has a single, straight rotation axis and which extends from the proximal end to the distal end of the shank and, at the distal end, is mechanically coupled to the radiofrequency electrode, wherein the shaft, at the distal end of the shank, is arranged at the centre or as close as possible to the centre of the cross section of the shank, and, at the proximal end of the shank, is arranged at the edge or as close as possible to the edge of the cross section of the shank, and the rotation axis extends such that the distance of the rotation axis from the centre of the cross section of the shank of the medical resector decreases strictly monotonically from the proximal end to the distal end of the shank. a rotatable radiofrequency electrode at the distal end of a straight shank of the medical resector; a rigid, straight shaft which has a single, straight rotation axis and which extends from the proximal end to the distal end of the shank and, at the distal end, is mechanically coupled to the radiofrequency electrode, wherein the shaft, at the distal end of the shank, is arranged at the centre or as close as possible to the centre of the cross section of the shank, and, at the proximal end of the shank, is arranged at the edge or as close as possible to the edge of the cross section of the shank, and the rotation axis extends such that the distance of the rotation axis from the centre of the cross section of the shank of the medical resector decreases strictly monotonically from the proximal end to the distal end of the shank.
A power control apparatus, comprising: a generation unit and a sending unit, wherein the generation unit is configured to generate a correspondence between a power control command and a serving cell of the user equipment; and the sending unit is configured to: after the generation unit generates the correspondence, send the generated correspondence, and send multiple power control commands in one serving cell of the user equipment according to the correspondence generated by the generation unit; wherein a power control command in the multiple power control commands is used to instruct the user equipment to adjust transmit power of the user equipment in a serving cell; wherein different power control commands corresponding to different serving cells are sent in different subframes or timeslots; characterized in that the power control commands of a first cell are sent on the even subframe, and the power control commands of a second cell are sent on the odd subframe.
A method for water disinfection comprising exposing water to a combination of at least two ultraviolet irradiation sources, for a sufficient period of time, wherein at least one of said UV irradiation sources comprises a low-pressure UV irradiation source emitting light at a wavelength of about 254nm, or at least one UV light-emitting diode irradiation source each independently emitting light at a wavelength of between 260nm and 275nm; at least another one of said UV irradiation sources comprises a sole UV LED irradiation source or a plurality of UV LED irradiation sources emitting light at either the same or different wavelengths of between 295nm and 305nm; and the exposure of said water to said at least two UV irradiation sources is carried out simultaneously.
Process for preparing polyether carbonates containing alkoxysilyl groups, characterized in that (a) an unsaturated polyether carbonate polyol is reacted with (b) an alkoxysilane compound of the formula Si m n o where X = H, Y-S-H and Y = C1-C22 alkylene, C6-C14 arylene, C7-C14 aralkylene, C7-C14 alkylarylene; R1 = C1-C8-alkoxy, C7-C20-aralkoxy, C6-C14-aroxy, C7-C20-alkylaroxy; R2 = C1-C22 alkyl, C6-C14 aryl, C7-C14 aralkyl, C7-C14 alkylaryl and m and n are independently an integer ≥ 1, o is zero or an integer ≥ 1 and m + n + o = 4. (a) an unsaturated polyether carbonate polyol is reacted with (b) an alkoxysilane compound of the formula Si m n o where X = H, Y-S-H and Y = C1-C22 alkylene, C6-C14 arylene, C7-C14 aralkylene, C7-C14 alkylarylene; R1 = C1-C8-alkoxy, C7-C20-aralkoxy, C6-C14-aroxy, C7-C20-alkylaroxy; R2 = C1-C22 alkyl, C6-C14 aryl, C7-C14 aralkyl, C7-C14 alkylaryl and m and n are independently an integer ≥ 1, o is zero or an integer ≥ 1 and m + n + o = 4. X = H, Y-S-H and Y = C1-C22 alkylene, C6-C14 arylene, C7-C14 aralkylene, C7-C14 alkylarylene; R1 = C1-C8-alkoxy, C7-C20-aralkoxy, C6-C14-aroxy, C7-C20-alkylaroxy; R2 = C1-C22 alkyl, C6-C14 aryl, C7-C14 aralkyl, C7-C14 alkylaryl and m and n are independently an integer ≥ 1, o is zero or an integer ≥ 1 and m + n + o = 4.
An anti-ice system, comprising: an airfoil structure (112, 302) having a camber line, including a leading-edge portion facing a wind direction, and including an outer skin and an inner skin forming a plurality of channels, each channel being formed between an inner surface of the outer skin and an outer surface of the inner skin, each channel having an air inlet above the camber line and an air outlet below the camber line, said air outlet being in fluid communication with an exterior of the airfoil structure (112, 302), an air delivery duct inside the airfoil structure above the camber line, the air delivery duct extending substantially transverse to the wind direction, the air delivery duct having a plurality of openings directed toward the air inlets of the plurality of channels, and an air supply configured to provide hot air to the air delivery duct. an airfoil structure (112, 302) having a camber line, including a leading-edge portion facing a wind direction, and including an outer skin and an inner skin forming a plurality of channels, each channel being formed between an inner surface of the outer skin and an outer surface of the inner skin, each channel having an air inlet above the camber line and an air outlet below the camber line, said air outlet being in fluid communication with an exterior of the airfoil structure (112, 302), an air delivery duct inside the airfoil structure above the camber line, the air delivery duct extending substantially transverse to the wind direction, the air delivery duct having a plurality of openings directed toward the air inlets of the plurality of channels, and an air supply configured to provide hot air to the air delivery duct.
A composition for use in therapy, comprising a pharmaceutically acceptable excipient and a compound represented by structure I wherein: C + represents independently for each occurrence an alkali metal cation, or other suitable metal cation; and A n- represents an anionic ligand for a mammalian cellular receptor, wherein said anionic ligand is a phosphorylated inositol comprising 1,2 or 3 internal pyrophosphate rings; and n is an integer in the range of 1 to 10 inclusive. C + represents independently for each occurrence an alkali metal cation, or other suitable metal cation; and A n- represents an anionic ligand for a mammalian cellular receptor, wherein said anionic ligand is a phosphorylated inositol comprising 1,2 or 3 internal pyrophosphate rings; and n is an integer in the range of 1 to 10 inclusive.
A transmitting apparatus comprising: an encoder configured to encode input bits to generate parity bits based on a low density parity check, LDPC, code according to a code rate of 6/15 and a code length of 64800; an interleaver configured to interleave the parity bits, split a codeword comprising the input bits and the interleaved parity bits into a plurality of bit groups and interleave the plurality of bit groups to provide an interleaved codeword; and a modulator configured to map bits of the interleaved codeword onto constellation points for 1024-quadrature amplitude modulation, QAM, wherein the interleaver is configured to interleave the plurality of bit groups based on a following equation: Y j = X π j for 0 ≤ j < N group, where X π(j) is a π(j)-th bit group among the plurality of bit groups, Y j is a j-th bit group among the interleaved plurality of bit group, N group is a total number of the plurality of bit groups, and π(j) denotes a permutation order for interleaving the plurality of bit groups, wherein the π(j) is represented as follows: an encoder configured to encode input bits to generate parity bits based on a low density parity check, LDPC, code according to a code rate of 6/15 and a code length of 64800; an interleaver configured to interleave the parity bits, split a codeword comprising the input bits and the interleaved parity bits into a plurality of bit groups and interleave the plurality of bit groups to provide an interleaved codeword; and a modulator configured to map bits of the interleaved codeword onto constellation points for 1024-quadrature amplitude modulation, QAM, wherein the interleaver is configured to interleave the plurality of bit groups based on a following equation: Y j = X π j for 0 ≤ j < N group, where X π(j) is a π(j)-th bit group among the plurality of bit groups, Y j is a j-th bit group among the interleaved plurality of bit group, N group is a total number of the plurality of bit groups, and π(j) denotes a permutation order for interleaving the plurality of bit groups, wherein the π(j) is represented as follows: where X π(j) is a π(j)-th bit group among the plurality of bit groups, Y j is a j-th bit group among the interleaved plurality of bit group, N group is a total number of the plurality of bit groups, and π(j) denotes a permutation order for interleaving the plurality of bit groups, wherein the π(j) is represented as follows:
Liquid phase process for producing indium oxide-containing layers from nonaqueous solution, characterized in that an anhydrous composition containing i) at least one indium oxo alkoxide of the generic formula M x O y z [O(R'O) c H] a X b[ R"OH] d where x = 3-25, y = 1-10, z = 3-50, a = 0-25, b = 0-20, c = 0-1, d = 0-25, M = In, R, R', R" = organic radical, X = F, Cl, Br, I and ii) at least one solvent are applied to a substrate, optionally dried, and converted to an indium oxide-containing layer. i) at least one indium oxo alkoxide of the generic formula M x O y z [O(R'O) c H] a X b[ R"OH] d where x = 3-25, y = 1-10, z = 3-50, a = 0-25, b = 0-20, c = 0-1, d = 0-25, M = In, R, R', R" = organic radical, X = F, Cl, Br, I and x = 3-25, y = 1-10, z = 3-50, a = 0-25, b = 0-20, c = 0-1, d = 0-25, M = In, R, R', R" = organic radical, X = F, Cl, Br, I and ii) at least one solvent
A food concentrate in the form of a paste comprising a) 20 to 70 wt% of water by weight of the total food concentrate; b) 15 to 40 wt% of salt by weight of the total water content of the food concentrate; c) an effective amount of a taste booster selected from glutamate, 5'-ribonucleotides, sucrose, glucose, fructose, lactic acid, citric acid and mixtures thereof; d) 10 to 55 wt% by weight of the total food concentrate of a delayed-swelling physically modified non-gelatinised starch characterised by Ref Tonset of at least 70°C; e) an effective amount of a thickening agent; f) preferably, less than 5 wt%, preferably less than 3 wt%, more preferably less than 1 wt% of a sorbitol by weight of the total food concentrate and most preferably no sorbitol at all. a) 20 to 70 wt% of water by weight of the total food concentrate; b) 15 to 40 wt% of salt by weight of the total water content of the food concentrate; c) an effective amount of a taste booster selected from glutamate, 5'-ribonucleotides, sucrose, glucose, fructose, lactic acid, citric acid and mixtures thereof; d) 10 to 55 wt% by weight of the total food concentrate of a delayed-swelling physically modified non-gelatinised starch characterised by Ref Tonset of at least 70°C; e) an effective amount of a thickening agent; f) preferably, less than 5 wt%, preferably less than 3 wt%, more preferably less than 1 wt% of a sorbitol by weight of the total food concentrate and most preferably no sorbitol at all.
An indoor air quality, IAQ, system for a building, comprising: a temperature sensor configured to measure a temperature of air within the building; a relative humidity, RH, sensor configured to measure a RH of the air within the building; and at least one of a thermostat and an IAQ control module configured to, during cooling of the air within the building, based on the RH, control operation of: a blower of an air handler unit of a heating, ventilation, and air conditioning, HVAC, system of the building; and a compressor of a condenser unit of the HVAC system of the building, characterized in that the at least one of the thermostat and the IAQ control module is configured to, while the compressor is off: operate the blower at a first predetermined speed when the RH is less than a first predetermined RH but greater than a second predetermined RH; and operate the blower at a second predetermined speed that is greater than the first predetermined speed when the RH is less than the second predetermined RH. a temperature sensor configured to measure a temperature of air within the building; a relative humidity, RH, sensor configured to measure a RH of the air within the building; and at least one of a thermostat and an IAQ control module configured to, during cooling of the air within the building, based on the RH, control operation of: a blower of an air handler unit of a heating, ventilation, and air conditioning, HVAC, system of the building; and a compressor of a condenser unit of the HVAC system of the building, characterized in that the at least one of the thermostat and the IAQ control module is configured to, while the compressor is off: operate the blower at a first predetermined speed when the RH is less than a first predetermined RH but greater than a second predetermined RH; and operate the blower at a second predetermined speed that is greater than the first predetermined speed when the RH is less than the second predetermined RH. a blower of an air handler unit of a heating, ventilation, and air conditioning, HVAC, system of the building; and a compressor of a condenser unit of the HVAC system of the building, characterized in that the at least one of the thermostat and the IAQ control module is configured to, while the compressor is off: operate the blower at a first predetermined speed when the RH is less than a first predetermined RH but greater than a second predetermined RH; and operate the blower at a second predetermined speed that is greater than the first predetermined speed when the RH is less than the second predetermined RH. operate the blower at a first predetermined speed when the RH is less than a first predetermined RH but greater than a second predetermined RH; and operate the blower at a second predetermined speed that is greater than the first predetermined speed when the RH is less than the second predetermined RH.
A tape with quick and neat removal from a package box cover seal, comprising an elongated substrate, and the substrate having a first surface and a second surface facing toward each other, the first surface having an adhesive layer coated continuously thereon along a length direction of the substrate, and the second surface having a release layer coated continuously thereon along the length direction thereof, wherein the adhesive layer is coated at a partial area on a width direction of the first surface of the substrate in order to allow the first surface to continuously form a guidance peeling strip of a small width (w) and uncoated with the adhesive layer on the width direction from at least one side edge of the substrate to another side edge in an opposite direction thereof and extending along the length direction of the substrate, characterized in that: wherein the side edge of the substrate along a length direction of the guidance peeling strip is formed into a non-linear shape.
A fan motor comprising: an impeller including a hub connected to a rotary shaft and at least one blade disposed at an outer surface of the hub; a shroud that surrounds an outer circumference of the impeller; and a coating layer provided at an inner circumferential surface of the shroud, wherein the coating layer includes: a polymer, a hardness of the polymer being less than a hardness of the blade, and a plurality of beads mixed with the polymer, a hardness of the plurality of beads being greater than the hardness of the polymer, wherein the impeller is a centrifugal impeller, and wherein the blade includes polyether ether ketone, PEEK, and the polymer includes silicon-based resin, and the polymer has a hardness in a range from 30 Shore A to 50 Shore A. an impeller including a hub connected to a rotary shaft and at least one blade disposed at an outer surface of the hub; a shroud that surrounds an outer circumference of the impeller; and a coating layer provided at an inner circumferential surface of the shroud, wherein the coating layer includes: a polymer, a hardness of the polymer being less than a hardness of the blade, and a plurality of beads mixed with the polymer, a hardness of the plurality of beads being greater than the hardness of the polymer, wherein the impeller is a centrifugal impeller, and wherein a polymer, a hardness of the polymer being less than a hardness of the blade, and a plurality of beads mixed with the polymer, a hardness of the plurality of beads being greater than the hardness of the polymer, wherein the impeller is a centrifugal impeller, and wherein the blade includes polyether ether ketone, PEEK, and the polymer includes silicon-based resin, and the polymer has a hardness in a range from 30 Shore A to 50 Shore A.
A method of providing, by a mobile robot device comprising an arm device, a service to a user, the method comprising: obtaining sensing information obtained by sensing a surrounding environment of the mobile robot device while the mobile robot device is traveling; the method characterized by: obtaining, based on the sensing information, information about a type of person around the mobile robot device and information about the surrounding environment of the mobile robot device; changing, based on the information about the type of person and the information about the surrounding environment, a safety operation level of the mobile robot device; and controlling, based on the changed safety operation level, an operation of the mobile robot device, wherein the safety operation level is a level for controlling an operation related to a movement of the mobile robot device and a motion of the arm device, and the mobile robot device changes the safety operation level by applying the obtained information about the type of person and the obtained information about the surrounding environment to a training model trained using an artificial intelligence algorithm. obtaining sensing information obtained by sensing a surrounding environment of the mobile robot device while the mobile robot device is traveling; the method characterized by: obtaining, based on the sensing information, information about a type of person around the mobile robot device and information about the surrounding environment of the mobile robot device; changing, based on the information about the type of person and the information about the surrounding environment, a safety operation level of the mobile robot device; and controlling, based on the changed safety operation level, an operation of the mobile robot device, wherein the safety operation level is a level for controlling an operation related to a movement of the mobile robot device and a motion of the arm device, and the mobile robot device changes the safety operation level by applying the obtained information about the type of person and the obtained information about the surrounding environment to a training model trained using an artificial intelligence algorithm. obtaining, based on the sensing information, information about a type of person around the mobile robot device and information about the surrounding environment of the mobile robot device; changing, based on the information about the type of person and the information about the surrounding environment, a safety operation level of the mobile robot device; and controlling, based on the changed safety operation level, an operation of the mobile robot device, wherein the safety operation level is a level for controlling an operation related to a movement of the mobile robot device and a motion of the arm device, and the mobile robot device changes the safety operation level by applying the obtained information about the type of person and the obtained information about the surrounding environment to a training model trained using an artificial intelligence algorithm.
A double-vision backlight module, comprising a non-parallel backlight source and a diffuser plate, wherein the double-vision backlight module further comprises at least three prism sheets disposed between the diffuser plate and a LCD panel, the at least three prism sheets are superimposed along a first direction, the axes of the prism sheets are perpendicular to a line in a second direction connecting left and right view areas for left and right eyes, and the axes of the prism sheets are parallel to each other, wherein, a first prism sheet adjacent to the diffuser plate is arranged such that a side having the prisms thereon of the first prism sheet faces the LCD panel, for converging light incident from the non-parallel backlight source, and the other prism sheets of the at least three prism sheets are used for splitting the converged light and converging the split light into the left and right view areas for left and right eyes, wherein the double-vision backlight module is characterized in that the at least three prism sheets are arranged such that a side having the prisms thereon of each prism sheet faces the LCD panel, wherein a prism apex angle of the first prism sheet that is adjacent to the diffuser plate is arranged such that a beam angle of the light incident from the non-parallel back light source and outputted by the first prism sheet is no larger than 45°, that a prism apex angle of the first prism sheet that is adjacent to the diffuser plate is 28°∼42°; a prism apex angle of the second prism sheet is 114°∼122°; and a prism apex angle of the third prism sheet that is adjacent to the LCD panel is 28°∼42°, such that the split light is converged to an area between ±14° and ±45°.