mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising: a carousel adapter , the carousel adapter comprising: an upper base plate opposite a lower base plate ; a fixed base leg coupled between the upper base plate and the lower base plate and extending radially outwardly therefrom; and a plurality of foldable base legs coupled between the upper base plate and the lower base plate and extending radially outwardly from the upper and lower base plates, each of the foldable base legs disposed about a periphery of the upper and lower base plates and rotatable about an independent axis perpendicular to the upper base plate and the lower base plate; and a drive unit coupled to the carousel adapter, the drive unit comprising: a drive base having a base frame ; and at least one stabilizing arm coupled to the base frame , the at least one stabilizing arm rotatable with respect to the base frame . a carousel adapter , the carousel adapter comprising: an upper base plate opposite a lower base plate ; a fixed base leg coupled between the upper base plate and the lower base plate and extending radially outwardly therefrom; and a plurality of foldable base legs coupled between the upper base plate and the lower base plate and extending radially outwardly from the upper and lower base plates, each of the foldable base legs disposed about a periphery of the upper and lower base plates and rotatable about an independent axis perpendicular to the upper base plate and the lower base plate; and an upper base plate opposite a lower base plate ; a fixed base leg coupled between the upper base plate and the lower base plate and extending radially outwardly therefrom; and a plurality of foldable base legs coupled between the upper base plate and the lower base plate and extending radially outwardly from the upper and lower base plates, each of the foldable base legs disposed about a periphery of the upper and lower base plates and rotatable about an independent axis perpendicular to the upper base plate and the lower base plate; and a drive unit coupled to the carousel adapter, the drive unit comprising: a drive base having a base frame ; and at least one stabilizing arm coupled to the base frame , the at least one stabilizing arm rotatable with respect to the base frame . a drive base having a base frame ; and at least one stabilizing arm coupled to the base frame , the at least one stabilizing arm rotatable with respect to the base frame .
A method for operating a meter reading wireless mesh network comprising a plurality of wireless meter reading nodes in communication with an access point wherein the wireless mesh network has a desired maximum number of wireless meter reading nodes, and each wireless meter reading node has an address associated therewith, the method comprising: establishing a network address field for each wireless meter reading node , each network address field being represented by a length field (L) and a value field (V), the length field (L) having a fixed length and the value field (V) having a variable length, wherein the length field (L) specifies the number of bytes of the value field (V) which is sufficient to span the desired maximum number of nodes; and communicating within the wireless mesh network using the network address fields.
A clip for use in an acoustic baffle suspension system, the clip comprising a body plate , wherein the clip comprises one or more fastening elements for securing the clip to a frame element , wherein the clip comprises a first aperture , and wherein the clip comprises more than one leg joined to the body plate by an upwardly-angled joint such that the legs are parallel to the body plate, wherein the clip is provided with wings on opposing edges of the body plate, wherein each wing is connected to the body plate by a U-shaped fold such that the wing lies underneath the body plate, wherein the wings facilitate sliding connection to the frame element, and characterised in that the legs of the clip each comprise a gripper for secure connection to an inverted T-profile. wherein the clip comprises one or more fastening elements for securing the clip to a frame element , wherein the clip comprises a first aperture , and wherein the clip comprises more than one leg joined to the body plate by an upwardly-angled joint such that the legs are parallel to the body plate, wherein the clip is provided with wings on opposing edges of the body plate, wherein each wing is connected to the body plate by a U-shaped fold such that the wing lies underneath the body plate, wherein the wings facilitate sliding connection to the frame element, and characterised in that the legs of the clip each comprise a gripper for secure connection to an inverted T-profile.
An apparatus comprising: a semiconductor device comprising a channel material having a first lattice structure disposed on a well material , the well material being disposed in a rectangular well trench and having a lattice structure matched to the first lattice structure, the well trench being disposed in a SiGe buffer material on a substrate , the buffer material having a second lattice structure that is different than the first lattice structure, wherein a silicon nitride spacer material having a thickness of 5 nm lines the sidewalls of the well trench and the well trench comprises an aspect ratio of height to width and height to length each greater than 1.5.
An accessory removably attachable to a camera body and including a terminal holding unit on which a plurality of terminals are arranged, the accessory comprising following terminals arranged arcuately in line in the following order: a first terminal (LDET(L)) for causing the camera body to detect that the accessory is attached thereto; a second terminal (VBAT(L)) through which a first power is supplied; a third terminal (PGND(L)) used as a ground terminal corresponding to the first power; a fourth terminal (V33(L)) through which a second power is supplied; a fifth terminal (GND(L)) used for a ground terminal corresponding to the second power; a sixth terminal (RDY(L)) used to indicate whether or not communication with the camera body is allowed; a seventh terminal (DATAB(L)) that receives a first data signal from the camera body in synchronization with a first clock signal; an eighth terminal (CLK(L)) that receives the first clock signal from the camera body; a ninth terminal (DATAL(L)) that outputs a third data signal to the camera body in synchronization with the first clock signal; a tenth terminal (HCLK(L)) that outputs a second clock signal to the camera body; and an eleventh terminal (HDATA(L)) that outputs a second data signal to the camera body in synchronization with the second clock signal, wherein: a distance between the tenth terminal and the second terminal is longer than a distance between the eighth terminal and the second terminal. a first terminal (LDET(L)) for causing the camera body to detect that the accessory is attached thereto; a second terminal (VBAT(L)) through which a first power is supplied; a third terminal (PGND(L)) used as a ground terminal corresponding to the first power; a fourth terminal (V33(L)) through which a second power is supplied; a fifth terminal (GND(L)) used for a ground terminal corresponding to the second power; a sixth terminal (RDY(L)) used to indicate whether or not communication with the camera body is allowed; a seventh terminal (DATAB(L)) that receives a first data signal from the camera body in synchronization with a first clock signal; an eighth terminal (CLK(L)) that receives the first clock signal from the camera body; a ninth terminal (DATAL(L)) that outputs a third data signal to the camera body in synchronization with the first clock signal; a tenth terminal (HCLK(L)) that outputs a second clock signal to the camera body; and an eleventh terminal (HDATA(L)) that outputs a second data signal to the camera body in synchronization with the second clock signal, wherein: a distance between the tenth terminal and the second terminal is longer than a distance between the eighth terminal and the second terminal.
A disc tool for breaking up field residues, comprising: a central hub portion , which is designed for mounting the disc in a tool holder in order to make the disc rotatable about a rotation axis (Ar), a cultivating portion , which is located radially outside of and adjoins the hub portion , and a plurality of substantially straight cutting edges (E1, E2) which are located at the periphery of the disc tool, the cultivating portion having a plurality of undulations (111, 112; 211, 212; 311, 312) which, with an axial extent decreasing toward the inside, run from the cutting edges (E1, E2) to the hub portion , the cutting edge (E1, E2) being designed such that 90-98% of a track formed by the cutting edge consists of straight track portions, wherein the cutting edges (E1, E2), viewed along the periphery, have angles alternating, by the same amount +/- 5°, with respect to the hub portion, wherein the cutting edges (E1, E2) have an angle of 35°-55° relative to a plane which is at right angles to the rotation axis of the disc tool, wherein the cutting edges (E1, E2) are beveled, such that each cutting edge has a material thickness that decreases outward to the edge, and wherein the undulations (111, 112; 211, 212; 311, 312) have, at the periphery of the disc tool, an axial extent of 8-18 cm, preferably 8-15 cm or 9-12 cm. a central hub portion , which is designed for mounting the disc in a tool holder in order to make the disc rotatable about a rotation axis (Ar), a cultivating portion , which is located radially outside of and adjoins the hub portion , and a plurality of substantially straight cutting edges (E1, E2) which are located at the periphery of the disc tool, the cultivating portion having a plurality of undulations (111, 112; 211, 212; 311, 312) which, with an axial extent decreasing toward the inside, run from the cutting edges (E1, E2) to the hub portion , the cutting edge (E1, E2) being designed such that 90-98% of a track formed by the cutting edge consists of straight track portions, wherein the cutting edges (E1, E2), viewed along the periphery, have angles alternating, by the same amount +/- 5°, with respect to the hub portion, wherein the cutting edges (E1, E2) have an angle of 35°-55° relative to a plane which is at right angles to the rotation axis of the disc tool, wherein the cutting edges (E1, E2) are beveled, such that each cutting edge has a material thickness that decreases outward to the edge, and wherein the undulations (111, 112; 211, 212; 311, 312) have, at the periphery of the disc tool, an axial extent of 8-18 cm, preferably 8-15 cm or 9-12 cm.
In vitro method for mobilizing immobilized cells, in which an immobile cell is connected to a microstructure, the microstructure consisting at least partly of magnetic materials, and a non-reciprocal movement of the microstructure with the immobile cell being executed by means of a time-varying three-dimensional external magnetic field, immobile non-moving sperm cells being used as immobile cells, and a microstructure being used which has the shape of a helix structure or an artificial flexible flagellum.
An end effector for use with a surgical stapler, wherein said end effector comprises: a cartridge body comprising a longitudinal axis; a plurality of staple cavities defined in said cartridge body , comprising: a first inner annular row of staple cavities extending around said longitudinal axis; and a second outer annular row of staple cavities extending around said longitudinal axis; staples removably stored in said staple cavities ; an anvil configured to deform said staples ; and a cutting member; and characterized by a ramp rotatable about said longitudinal axis to eject said staples from said staple cavities and then deploy said cutting member to incise tissue captured between said cartridge body and said anvil , said end effector further comprising staple drivers , wherein said ramp is configured to sequentially engage said staple drivers to sequentially eject said staples from said staple cavities , wherein said ramp sequentially ejects said staples stored in said inner row of staple cavities before sequentially ejecting said staples stored in said outer row of staple cavities . a cartridge body comprising a longitudinal axis; a plurality of staple cavities defined in said cartridge body , comprising: a first inner annular row of staple cavities extending around said longitudinal axis; and a second outer annular row of staple cavities extending around said longitudinal axis; a first inner annular row of staple cavities extending around said longitudinal axis; and a second outer annular row of staple cavities extending around said longitudinal axis; staples removably stored in said staple cavities ; an anvil configured to deform said staples ; and a cutting member; and characterized by a ramp rotatable about said longitudinal axis to eject said staples from said staple cavities and then deploy said cutting member to incise tissue captured between said cartridge body and said anvil , said end effector further comprising staple drivers , wherein said ramp is configured to sequentially engage said staple drivers to sequentially eject said staples from said staple cavities , wherein said ramp sequentially ejects said staples stored in said inner row of staple cavities before sequentially ejecting said staples stored in said outer row of staple cavities . a ramp rotatable about said longitudinal axis to eject said staples from said staple cavities and then deploy said cutting member to incise tissue captured between said cartridge body and said anvil , said end effector further comprising staple drivers , wherein said ramp is configured to sequentially engage said staple drivers to sequentially eject said staples from said staple cavities , wherein said ramp sequentially ejects said staples stored in said inner row of staple cavities before sequentially ejecting said staples stored in said outer row of staple cavities .
A method in a network device, comprising: - receiving a random access request message from a terminal device; and - transmitting to the terminal device a Random Access Response, RAR, message in response to the random access request message, wherein the RAR message has a format dependent on a type of the random access request message, characterized in that the RAR message includes an RAR Service Data Unit, SDU, and a Medium Access Control, MAC, sub-header, wherein the MAC sub-header contains a type indicator indicating the format of the RAR SDU and wherein the RAR SDU has a first format including a Timing Advance, TA, command field, an uplink, UL, grant field, and a temporary Cell-Radio Network Temporary Identifier, C-RNTI, field when the random access request message is for initial access; or the RAR message includes an RAR Service Data Unit, SDU, and a Medium Access Control, MAC, sub-header, wherein the MAC sub-header contains a type indicator indicating the format of the RAR SDU, and wherein the RAR SDU has a second format including the TA command field when the random access request message is for intra-cell beam switch or contention-free access for a secondary carrier in a Carrier Aggregation, CA, configuration; or the RAR message includes an RAR Service Data Unit, SDU, and a Medium Access Control, MAC, sub-header, wherein the MAC sub-header contains a type indicator indicating the format of the RAR SDU, and wherein the RAR SDU has a third format including the TA command field and the UL grant field when the random access request message is for contention-free handover. - receiving a random access request message from a terminal device; and - transmitting to the terminal device a Random Access Response, RAR, message in response to the random access request message, wherein the RAR message has a format dependent on a type of the random access request message,
A centrifugal compressor , comprising: a housing ; an impeller rotatably disposed within the housing ; a rotational shaft connected to the impeller ; and a bearing member supporting the rotational shaft in the housing , wherein an oil flow passage through which oil flows is formed in the housing , wherein the oil flow passage includes a lubricating oil passage through which the oil flows as lubricating oil to be supplied to the bearing member , and a cooling oil passage through which the oil flows as cooling oil for heat exchange with a fluid compressed by the impeller , wherein the cooling oil passage is configured so that the oil flows into the cooling oil passage as the cooling oil without passing through the bearing member , and wherein all of the cooling oil having flowed through the cooling oil passage flows into the lubricating oil passage as the lubricating oil, wherein the housing has a scroll passage which is positioned on the discharge side of the impeller ; and characterized in that the cooling oil passage is formed so as to surround the impeller on the circumferential inner side of the scroll passage . a housing ; an impeller rotatably disposed within the housing ; a rotational shaft connected to the impeller ; and a bearing member supporting the rotational shaft in the housing , wherein an oil flow passage through which oil flows is formed in the housing , wherein the oil flow passage includes a lubricating oil passage through which the oil flows as lubricating oil to be supplied to the bearing member , and a cooling oil passage through which the oil flows as cooling oil for heat exchange with a fluid compressed by the impeller , wherein the cooling oil passage is configured so that the oil flows into the cooling oil passage as the cooling oil without passing through the bearing member , and wherein all of the cooling oil having flowed through the cooling oil passage flows into the lubricating oil passage as the lubricating oil, wherein the housing has a scroll passage which is positioned on the discharge side of the impeller ; and characterized in that the cooling oil passage is formed so as to surround the impeller on the circumferential inner side of the scroll passage .
A method for generating a 3D map of a cardiac parameter in a region of a living heart into which region a plurality of catheters, each having one or more radio-opaque sensors, has been placed such that the locations of the sensors geometrically span the region, the method using single-plane fluoroscopic images and comprising: capturing a burst of first-view digitized 2D images of the region from a fluoroscope positioned at a first angle; capturing a burst of second-view digitized 2D images of the region from the fluoroscope positioned at a second angle different from the first angle; selecting a first-view image and a second-view image from the bursts such that the difference between a measure of the cardio-respiratory phase of the selected first-view image and the cardio-respiratory phase of the second-view image is minimized; identifying each of a subset of sensors in the selected first-view and second-view images and; associating each of the identified sensors in the second-view image with its corresponding identified sensor in the first-view image; determining the 3D location of each of the plurality of sensors from the first-view and second-view images using back-projection calculations; sensing and storing values of the cardiac parameter with each of the plurality of sensors; associating each of the parameter values with its corresponding sensor location; generating the parameter map from the selected first-view and second-view images; and displaying the parameter map on a display device . capturing a burst of first-view digitized 2D images of the region from a fluoroscope positioned at a first angle; capturing a burst of second-view digitized 2D images of the region from the fluoroscope positioned at a second angle different from the first angle; selecting a first-view image and a second-view image from the bursts such that the difference between a measure of the cardio-respiratory phase of the selected first-view image and the cardio-respiratory phase of the second-view image is minimized; identifying each of a subset of sensors in the selected first-view and second-view images and; associating each of the identified sensors in the second-view image with its corresponding identified sensor in the first-view image; determining the 3D location of each of the plurality of sensors from the first-view and second-view images using back-projection calculations; sensing and storing values of the cardiac parameter with each of the plurality of sensors; associating each of the parameter values with its corresponding sensor location; generating the parameter map from the selected first-view and second-view images; and displaying the parameter map on a display device .
A biosignal processing apparatus comprising: a bioelectrode comprising: a plate ; electrodes (110; 115, 210; 215, 310; 315, 410; 415, 510; 515, 610; 615) wherein the electrodes comprise a first electrode and a second electrode and are disposed at a first side of the plate and separate from one another and configured to measure a biosignal; guard portions (120;125, 220; 225, 320; 325, 420; 425, 520; 525, 620; 625) disposed at a second side of the plate and separate from one another; and a preamplifier configured to output a voltage signal based on a biosignal measured between the first electrode and the second electrode, wherein the guard portions comprise a first guard portion and a second guard portion , wherein the first guard portion and the second guard portion comprise a conductive material, and are electrically connected to the preamplifier, wherein the preamplifier is configured to output the biosignal of which noise is reduced, based on a differential input between a biosignal transferred from each of the first guard portion and the second guard portion, and a biosignal transferred from each of the first electrode and the second electrode; wherein the preamplifier is configured to amplify the biosignal input through a displacement current without making direct contact and to convert the amplified biosignal into the voltage signal. a plate ; electrodes (110; 115, 210; 215, 310; 315, 410; 415, 510; 515, 610; 615) wherein the electrodes comprise a first electrode and a second electrode and are disposed at a first side of the plate and separate from one another and configured to measure a biosignal; guard portions (120;125, 220; 225, 320; 325, 420; 425, 520; 525, 620; 625) disposed at a second side of the plate and separate from one another; and a preamplifier configured to output a voltage signal based on a biosignal measured between the first electrode and the second electrode, wherein the guard portions comprise a first guard portion and a second guard portion , wherein the first guard portion and the second guard portion comprise a conductive material, and are electrically connected to the preamplifier, wherein the preamplifier is configured to output the biosignal of which noise is reduced, based on a differential input between a biosignal transferred from each of the first guard portion and the second guard portion, and a biosignal transferred from each of the first electrode and the second electrode; wherein the preamplifier is configured to amplify the biosignal input through a displacement current without making direct contact and to convert the amplified biosignal into the voltage signal.