mhurhangee/ep-ind-claims huggingface dataset:
A surgical instrument comprising: an elongated shaft defining a central axis and having a distal end portion configured to operably support a circular staple cartridge therein; at least one detection member, operably supported within said elongated shaft; a light on said distal portion of said detection member; at least one acquisition member operably supported within said elongated shaft, each said acquisition member having a tissue-piercing distal portion that is radially deployable away from said central axis upon application of a deployment motion to said acquisition member; and characterised by; each detection member having a distal portion that is radially deployable away from said central axis upon application of a deployment motion thereto; at least one flexible knife member movably supported in said elongated shaft, each said knife member having a distal cutting portion that is axially advanceable out of said distal end portion of said elongated shaft upon application of an axial actuation motion thereto, each said knife member being selectively rotatable about said central axis upon application of a rotary actuation motion thereto. an elongated shaft defining a central axis and having a distal end portion configured to operably support a circular staple cartridge therein; at least one detection member, operably supported within said elongated shaft; a light on said distal portion of said detection member; at least one acquisition member operably supported within said elongated shaft, each said acquisition member having a tissue-piercing distal portion that is radially deployable away from said central axis upon application of a deployment motion to said acquisition member; and characterised by; each detection member having a distal portion that is radially deployable away from said central axis upon application of a deployment motion thereto; at least one flexible knife member movably supported in said elongated shaft, each said knife member having a distal cutting portion that is axially advanceable out of said distal end portion of said elongated shaft upon application of an axial actuation motion thereto, each said knife member being selectively rotatable about said central axis upon application of a rotary actuation motion thereto.
An integrated transparent ultrasonic audio speaker and touchscreen panel, comprising: a first transparent layer (45,46) comprising a first base layer (45b,46b) and a first conductive layer (45a,46a); and a second transparent layer (45,46) disposed adjacent the first transparent layer, the second transparent layer comprising a second base layer (45b,46b) and a second conductive layer (45a,45b), the second conductive layer (45a,46a) having a plurality of overlapping rows and columns of conductive material, the touchscreen panel being configured to scan each possible combination of a row and a column of the plurality of rows and columns one at a time to detect the presence of a touch; wherein the second transparent layer (45,46) is a touchscreen configured to detect the presence of a touch; and wherein the integrated transparent ultrasonic audio speaker and touchscreen panel is configured to drive, while the scanning is occurring, remaining rows and columns that are not used in the scanning to cause the integrated transparent ultrasonic audio speaker and touchscreen panel to produce an ultrasonic audio signal. a first transparent layer (45,46) comprising a first base layer (45b,46b) and a first conductive layer (45a,46a); and a second transparent layer (45,46) disposed adjacent the first transparent layer, the second transparent layer comprising a second base layer (45b,46b) and a second conductive layer (45a,45b), the second conductive layer (45a,46a) having a plurality of overlapping rows and columns of conductive material, the touchscreen panel being configured to scan each possible combination of a row and a column of the plurality of rows and columns one at a time to detect the presence of a touch;
A communications method, performed by a network device, comprising: • sending indication information of a second time-frequency resource of a first dedicated control channel by using a preset first time-frequency resource (S 120), the second time-frequency resource of the first dedicated control channel is a first search space for one or more terminal devices which include a target terminal device and currently need scheduling; • sending indication information of a third time-frequency resource to the target terminal device by using the first dedicated control channel, and sending indication information of a fourth time-frequency resource of a second dedicated control channel to the target terminal device by using the third time-frequency resource, wherein the third time-frequency resource belongs to a time-frequency resource of a physical downlink shared channel, PDSCH (S 130); and • sending dedicated scheduling information for the target terminal device to the target terminal device by using the second dedicated control channel (S 140); • wherein the first dedicated control channel or the second dedicated control channel is carried in a symbol where three subcarriers of twelve continuous subcarriers are used for carrying reference signals and an offset of two of the three subcarriers, closest to each other, is four subcarriers and the other subcarriers except the three subcarriers are used for carrying the first dedicated control channel or the second dedicated control channel. • sending indication information of a second time-frequency resource of a first dedicated control channel by using a preset first time-frequency resource (S 120), the second time-frequency resource of the first dedicated control channel is a first search space for one or more terminal devices which include a target terminal device and currently need scheduling; • sending indication information of a third time-frequency resource to the target terminal device by using the first dedicated control channel, and sending indication information of a fourth time-frequency resource of a second dedicated control channel to the target terminal device by using the third time-frequency resource, wherein the third time-frequency resource belongs to a time-frequency resource of a physical downlink shared channel, PDSCH (S 130); and • sending dedicated scheduling information for the target terminal device to the target terminal device by using the second dedicated control channel (S 140); • wherein the first dedicated control channel or the second dedicated control channel is carried in a symbol where three subcarriers of twelve continuous subcarriers are used for carrying reference signals and an offset of two of the three subcarriers, closest to each other, is four subcarriers and the other subcarriers except the three subcarriers are used for carrying the first dedicated control channel or the second dedicated control channel.
A method of forming a curved preform comprising: applying at least one set of mating clamps (502a, 502b) to fibers of a preform fabric advancing from a loom, the at least one pair of mating clamps (502a, 502b) capturing at least a portion of the preform fabric there between, the at least one set of clamps (502a, 502b) having a geometry to cause an increase in a length of fibers by pulling at least some of the fibers advancing from the loom; and shaping the preform into a curve, wherein the fibers are continuous along a length of the preform fabric. applying at least one set of mating clamps (502a, 502b) to fibers of a preform fabric advancing from a loom, the at least one pair of mating clamps (502a, 502b) capturing at least a portion of the preform fabric there between, the at least one set of clamps (502a, 502b) having a geometry to cause an increase in a length of fibers by pulling at least some of the fibers advancing from the loom; and shaping the preform into a curve, wherein the fibers are continuous along a length of the preform fabric.
A method for generating a tire rubber asphalt compound comprising: receiving an asphalt compound; heating the asphalt compound to 160 °C to 216 °C (320°F to 420°F); adding a tire rubber to the asphalt compound; generating the tire rubber asphalt compound by mixing the asphalt compound and the tire rubber for 60 minutes to 360 minutes, wherein the asphalt compound and the tire rubber are heated to 274 °C to 371 °C (525°F to 700°F) during mixing, applying a neutral gas when generating the tire rubber asphalt compound such that there is little or no oxidation of the asphalt compound, the tire rubber, and the tire rubber asphalt compound; and cooling the tire rubber asphalt compound to 260 °C (500°F) to 178 °C (350°F). receiving an asphalt compound; heating the asphalt compound to 160 °C to 216 °C (320°F to 420°F); adding a tire rubber to the asphalt compound; generating the tire rubber asphalt compound by mixing the asphalt compound and the tire rubber for 60 minutes to 360 minutes, wherein the asphalt compound and the tire rubber are heated to 274 °C to 371 °C (525°F to 700°F) during mixing, applying a neutral gas when generating the tire rubber asphalt compound such that there is little or no oxidation of the asphalt compound, the tire rubber, and the tire rubber asphalt compound; and cooling the tire rubber asphalt compound to 260 °C (500°F) to 178 °C (350°F).
A tag writer for a programmable tag, wherein the tag writer is operable to generate a security identifier during writing of data to the tag, the security identifier being dependent on one or more of the data written, data already on the tag, metadata associated with the data, the tag and/or the writing of the data, characterised in that the tag writer is arranged to write the security identifier to a remote data repository, the security identifier being recreatable from data in the tag for future authentication of the tag against the security identifier in the remote data repository, the security identifier further being non-recreatable upon changing of predetermined portions of data in the tag.
A fuel cell comprising: a membrane electrode assembly; a first separator stacked on a first surface of the membrane electrode assembly; a second separator stacked on a second surface of the membrane electrode assembly; a first sealing member disposed on the first separator and configured to seal a space between the first separator and the membrane electrode assembly; and a second sealing member disposed on the second separator and configured to seal a space between the second separator and the membrane electrode assembly; characterized by a fastening part configured to fasten the first sealing member to the second sealing member, wherein the fastening part comprises a first fastening clip disposed on the first sealing member and configured to be fastened to the second sealing member. a membrane electrode assembly; a first separator stacked on a first surface of the membrane electrode assembly; a second separator stacked on a second surface of the membrane electrode assembly; a first sealing member disposed on the first separator and configured to seal a space between the first separator and the membrane electrode assembly; and a second sealing member disposed on the second separator and configured to seal a space between the second separator and the membrane electrode assembly;
Table comprising a support plane having a finishing layer, and support means for said support plane; wherein said finishing layer is permeable to air, and is intended to achieve an external finish of the support plane; and wherein said support plane comprises a lower layer, between said finishing layer and said lower layer there being present at least one resonant inner layer comprising an alveolar structure; wherein the finishing layer is permeable to air through micro holes; and in that alveolar structure is able to realize a plurality of resonant cavities; characterized in that the resonant cavities have variable shape and/or thickness depending on the location of said alveolar structure, such variation altering the acoustic impedance of the panel, wherein said resonant cavities acoustically act as Helmholtz resonators.
A data interaction method, comprising grouping user equipments and allocating virtual resources for user equipments in each user equipment group; notifying each user equipment of a group identifier and a virtual resource location corresponding to the user equipment; determining that data interaction needs to be performed with user equipments in a user equipment group; and activating virtual resources pre-allocated to the user equipment group, and performing data interaction with the user equipments in the user equipment group over the activated virtual resources.
A method for controlling a trajectory (530a, 730) of at least one of upper and lower members of a humanoid robot, said method comprising: - Storing an initial trajectory with a target point in a memory of the robot; - Acquiring, from at least a sensing procedure controlled from on-board the robot, data representative of a position of one or more obstacles (540b, 910c); - Calculating, by a processor on-board the robot: an envelope (410b, 810) of said robot; a relative position of the envelope and the one or more obstacles; a probability of collision of the envelope with an obstacle; and, a series of commands comprising: - detecting a presence of an obstacle in the envelope; - if the presence of an obstacle in the envelope is detected: ∘ calculating a point of the initial trajectory; ∘ calculating a straight line between the point of the initial trajectory, and the target point; ∘ calculating a speed of the robot in the straight line to rejoin the target point at the initial timing; ∘ defining the trajectory of the robot as the initial trajectory until the point of the initial trajectory, then the straight line between the point of the initial trajectory, and the target point. - Storing an initial trajectory with a target point in a memory of the robot; - Acquiring, from at least a sensing procedure controlled from on-board the robot, data representative of a position of one or more obstacles (540b, 910c); - Calculating, by a processor on-board the robot: an envelope (410b, 810) of said robot; a relative position of the envelope and the one or more obstacles; a probability of collision of the envelope with an obstacle; and, an envelope (410b, 810) of said robot; a relative position of the envelope and the one or more obstacles; a probability of collision of the envelope with an obstacle; and, - detecting a presence of an obstacle in the envelope; - if the presence of an obstacle in the envelope is detected: ∘ calculating a point of the initial trajectory; ∘ calculating a straight line between the point of the initial trajectory, and the target point; ∘ calculating a speed of the robot in the straight line to rejoin the target point at the initial timing; ∘ defining the trajectory of the robot as the initial trajectory until the point of the initial trajectory, then the straight line between the point of the initial trajectory, and the target point. ∘ calculating a point of the initial trajectory; ∘ calculating a straight line between the point of the initial trajectory, and the target point; ∘ calculating a speed of the robot in the straight line to rejoin the target point at the initial timing; ∘ defining the trajectory of the robot as the initial trajectory until the point of the initial trajectory, then the straight line between the point of the initial trajectory, and the target point.
A method for positional control of at least a first downhole actuator, the method comprising the steps of: applying pressure to both an input line and a first output line, connected to the first downhole actuator; then releasing a first predetermined volume of fluid from the first output line, thereby displacing a piston of the first downhole actuator a corresponding first predetermined distance; characterised by opening a valve in the first output line for a predetermined period of time to permit the first predetermined volume of fluid to flow from the first output line. applying pressure to both an input line and a first output line, connected to the first downhole actuator; then releasing a first predetermined volume of fluid from the first output line, thereby displacing a piston of the first downhole actuator a corresponding first predetermined distance; characterised by opening a valve in the first output line for a predetermined period of time to permit the first predetermined volume of fluid to flow from the first output line.
A composition for controlling populations of a microorganism in food product, comprising: a) an h-mutant virus: incapable of: infecting a multicellular organism; transferring genes for virulence factors, toxins, or antibiotic resistance to an infected host microorganism; and, converting from a lytic state to a temperate state; and capable of: infecting in a food product a variation of a target strain of the microorganism that is resistant to a wild-type of the h-mutant virus, the microorganism comprising an enteric microorganism pathogenic to a mammal; and, b) a carrier microorganism infected with the virus, wherein the carrier microorganism comprises an avirulent microorganism. a) an h-mutant virus: incapable of: infecting a multicellular organism; transferring genes for virulence factors, toxins, or antibiotic resistance to an infected host microorganism; and, converting from a lytic state to a temperate state; and capable of: infecting in a food product a variation of a target strain of the microorganism that is resistant to a wild-type of the h-mutant virus, the microorganism comprising an enteric microorganism pathogenic to a mammal; and, incapable of: infecting a multicellular organism; transferring genes for virulence factors, toxins, or antibiotic resistance to an infected host microorganism; and, converting from a lytic state to a temperate state; and infecting a multicellular organism; transferring genes for virulence factors, toxins, or antibiotic resistance to an infected host microorganism; and, converting from a lytic state to a temperate state; and capable of: infecting in a food product a variation of a target strain of the microorganism that is resistant to a wild-type of the h-mutant virus, the microorganism comprising an enteric microorganism pathogenic to a mammal; and, b) a carrier microorganism infected with the virus, wherein the carrier microorganism comprises an avirulent microorganism.
Method for operating a forage harvester with the steps: a) taking photographs of chopped material produced in the forage harvester with a camera, b) identifying images of grain-like particles in the photographs, c) sorting the images of the grain-like particles into at least two size fractions (S3-S5), and d) determining the magnitude of the size fractions. a) taking photographs of chopped material produced in the forage harvester with a camera, b) identifying images of grain-like particles in the photographs, c) sorting the images of the grain-like particles into at least two size fractions (S3-S5), and d) determining the magnitude of the size fractions.
A substantially spherical, swellable microsphere for use in the treatment of a tumour in a mammal by active embolization, wherein the microsphere comprises i) a biocompatible, cross-linked and substantially hydrophilic polymer selected from the group consisting of sodium acrylate polymer, acrylamide polymer, acrylamide derivative polymer or copolymer, sodium acrylate and vinyl alcohol copolymer, vinyl acetate and acrylic acid ester copolymer, vinyl acetate and methyl maleate copolymer, isobutylene-maleic anhydride crosslinked copolymer, starch-acrylonitrile graft copolymer, crosslinked sodium polyacrylate polymer, and crosslinked polyethylene oxide and ii) and one or more active components selected from taxol, doxorubicin, tamoxifen, or a combination thereof. i) a biocompatible, cross-linked and substantially hydrophilic polymer selected from the group consisting of sodium acrylate polymer, acrylamide polymer, acrylamide derivative polymer or copolymer, sodium acrylate and vinyl alcohol copolymer, vinyl acetate and acrylic acid ester copolymer, vinyl acetate and methyl maleate copolymer, isobutylene-maleic anhydride crosslinked copolymer, starch-acrylonitrile graft copolymer, crosslinked sodium polyacrylate polymer, and crosslinked polyethylene oxide and ii) and one or more active components selected from taxol, doxorubicin, tamoxifen, or a combination thereof.
A high-speed door assembly comprising: a flexible door panel (12, 104, 110) wound on and unwound from drum in an orientation such that the door panel defines at least one vertical plane when unwound from the drum to prevent and permit access to an opening in a wall; one or more seals, characterized in that said one or more seals make contact with the door panel when the door panel is substantially unwound, the one or more seals assisting in sealing the opening; the vertical plane of the door panel being spaced farther from the wall to which the door assembly is mountable than the longitudinal axis of the drum and the door panel being oriented on the drum so that the door panel moves away from the one or more seals as the door panel is wound up and the door panel moves closer to the one or more seals as the door panel is unwound. a flexible door panel (12, 104, 110) wound on and unwound from drum in an orientation such that the door panel defines at least one vertical plane when unwound from the drum to prevent and permit access to an opening in a wall; one or more seals, characterized in that said one or more seals make contact with the door panel when the door panel is substantially unwound, the one or more seals assisting in sealing the opening; the vertical plane of the door panel being spaced farther from the wall to which the door assembly is mountable than the longitudinal axis of the drum and the door panel being oriented on the drum so that the door panel moves away from the one or more seals as the door panel is wound up and the door panel moves closer to the one or more seals as the door panel is unwound.
A formaldehyde-free binder composition for panels containing lignocellulose obtainable in a method comprising the steps of a) reaction of at least one mono- and/or disaccharide with at least one amide of the general formula R 1 -CONH 2, wherein - R 1 is alkoxy, carboxy, substituted and unsubstituted amino, aryloxy, acyloxy, alkylcarbonyl, substituted and unsubstituted alkyl, substituted and unsubstituted aryl, substituted and unsubstituted alkenyl, substituted and unsubstituted alkynyl, substituted and unsubstituted cycloalkyl, substituted and unsubstituted cycloalkenyl, which may be interrupted by -O- or -NH-, b) adding at least one dialdehyde or at least one dialdehyde equivalent to the mixture of step a), and c) adding at least one thickening agent. a) reaction of at least one mono- and/or disaccharide with at least one amide of the general formula R 1 -CONH 2, wherein - R 1 is alkoxy, carboxy, substituted and unsubstituted amino, aryloxy, acyloxy, alkylcarbonyl, substituted and unsubstituted alkyl, substituted and unsubstituted aryl, substituted and unsubstituted alkenyl, substituted and unsubstituted alkynyl, substituted and unsubstituted cycloalkyl, substituted and unsubstituted cycloalkenyl, which may be interrupted by -O- or -NH-, - R 1 is alkoxy, carboxy, substituted and unsubstituted amino, aryloxy, acyloxy, alkylcarbonyl, substituted and unsubstituted alkyl, substituted and unsubstituted aryl, substituted and unsubstituted alkenyl, substituted and unsubstituted alkynyl, substituted and unsubstituted cycloalkyl, substituted and unsubstituted cycloalkenyl, which may be interrupted by -O- or -NH-, b) adding at least one dialdehyde or at least one dialdehyde equivalent to the mixture of step a), and c) adding at least one thickening agent.