mhurhangee/ep-ind-claims huggingface dataset:
A bicycle, comprising: a frame including a head tube; a lower headset bearing coupled to the head tube and located proximate to a bottom of the head tube; a cup proximate to a top of the head tube; and a fork including a steer tube; wherein: the steer tube is located through the lower headset bearing and the cup such that the steer tube is configured to rotate within the lower headset bearing and the cup; and the steer tube is configured to flex within the head tube; characterized in that: the cup is gimbaled to the head tube. a frame including a head tube; a lower headset bearing coupled to the head tube and located proximate to a bottom of the head tube; a cup proximate to a top of the head tube; and a fork including a steer tube; the steer tube is located through the lower headset bearing and the cup such that the steer tube is configured to rotate within the lower headset bearing and the cup; and the steer tube is configured to flex within the head tube; the cup is gimbaled to the head tube.
Primary support-pylon structure for an aircraft propulsion unit, having a lower spar and two lateral walls substantially orthogonal to the lower spar; characterized in that the lower spar and the two lateral walls are formed in a single piece or welded so as to form a U-shaped lower part, in that it has an upper cover closing the U-shaped lower part, the lower part or the cover having flanges for the fastening of the cover with the lower part, and in that the lateral walls have a cellular structure and in that the structure comprises a central rib and a rear rib that are interposed transversely in the U and have attachments for linking with the structure of the aircraft, and in that the structure comprises a front rib.
A gown comprising: a body covering portion with an opening in a back of the gown from a top neck area of the gown to a bottom area of the gown creating a first panel and a second panel; wherein the gown further comprises at least one elastic strap (4, 8) with first and second ends, wherein, in a neck area on the gown, the first end of the at least one elastic strap is attached to the first panel and the second end of the at least one elastic strap is attached to the second panel; characterized in that; the gown can be pulled over the user's head and then secured without the user needing to reach behind themselves to their back; a portion of the first panel is designed to extend over the second panel; and the gown further comprises a weight (6, 7) added on the portion of the first panel that is designed to extend over the second panel, wherein the weight is configured to assist in keeping the portion of the first panel in place overlapping the second panel. a body covering portion with an opening in a back of the gown from a top neck area of the gown to a bottom area of the gown creating a first panel and a second panel; wherein the gown further comprises at least one elastic strap (4, 8) with first and second ends, wherein, in a neck area on the gown, the first end of the at least one elastic strap is attached to the first panel and the second end of the at least one elastic strap is attached to the second panel; characterized in that; the gown can be pulled over the user's head and then secured without the user needing to reach behind themselves to their back; a portion of the first panel is designed to extend over the second panel; and the gown further comprises a weight (6, 7) added on the portion of the first panel that is designed to extend over the second panel, wherein the weight is configured to assist in keeping the portion of the first panel in place overlapping the second panel.
A photoelectric sensor, comprising: a light projecting element configured to project light onto an object through a light projecting lens; a light receiving element configured to receive the light reflected and diffused by the object through a light receiving lens, the photoelectric sensor being configured to measure or determine a distance to the object on the basis of a light receiving position on the light receiving element; and a lens mounted to the light projecting element at a position that opposes the light projecting lens and configured such that a curvature in a direction perpendicular to a straight line passing through a center of the light projecting lens and a center of the light receiving lens is greater than a curvature in a direction parallel to the straight line passing through the center of the light projecting lens and the center of the light receiving lens. a light projecting element configured to project light onto an object through a light projecting lens; a light receiving element configured to receive the light reflected and diffused by the object through a light receiving lens, the photoelectric sensor being configured to measure or determine a distance to the object on the basis of a light receiving position on the light receiving element; and a lens mounted to the light projecting element at a position that opposes the light projecting lens and configured such that a curvature in a direction perpendicular to a straight line passing through a center of the light projecting lens and a center of the light receiving lens is greater than a curvature in a direction parallel to the straight line passing through the center of the light projecting lens and the center of the light receiving lens.
An industrial vehicle comprising: a counterweight located at a rear portion of a vehicle body; a radiator disposed in front of the counterweight; a radiator fan configured to generate cooling air flowing behind the vehicle body; and an exhaust pipe disposed inside the counterweight to release exhaust gas from an engine into the atmosphere, wherein the exhaust pipe has a tail pipe extending in a vehicle width direction of the vehicle body, wherein a first exhaust port configured to discharge the exhaust gas rearward from the vehicle body and a second exhaust port configured to discharge the exhaust gas rearward from the vehicle body at a tip end side of the tail pipe with respect to the first exhaust port are provided in a circumferential surface portion of the tail pipe, wherein the first exhaust port and the second exhaust port are disposed in a region where the cooling air flows, and characterized in that a closure part configured to close an opening of the tail pipe is provided at a tip end portion of the tail pipe, and in that a throttling part (20, 44) configured to change a flow path area for the exhaust gas is disposed between the first exhaust port and the second exhaust port in the tail pipe. a counterweight located at a rear portion of a vehicle body; a radiator disposed in front of the counterweight; a radiator fan configured to generate cooling air flowing behind the vehicle body; and an exhaust pipe disposed inside the counterweight to release exhaust gas from an engine into the atmosphere, wherein the exhaust pipe has a tail pipe extending in a vehicle width direction of the vehicle body, wherein a first exhaust port configured to discharge the exhaust gas rearward from the vehicle body and a second exhaust port configured to discharge the exhaust gas rearward from the vehicle body at a tip end side of the tail pipe with respect to the first exhaust port are provided in a circumferential surface portion of the tail pipe, wherein the first exhaust port and the second exhaust port are disposed in a region where the cooling air flows, and characterized in that a closure part configured to close an opening of the tail pipe is provided at a tip end portion of the tail pipe, and in that a throttling part (20, 44) configured to change a flow path area for the exhaust gas is disposed between the first exhaust port and the second exhaust port in the tail pipe.
A hemostatic tissue anchor (120, 320, 420) deliverable within a catheter to a target site, the hemostatic tissue anchor (120, 320, 420) configured to be anchored to a cardiac tissue wall at the target site, the hemostatic tissue anchor (120, 320, 420) comprising: an anchor portion supported by a generally elongate anchor shaft releasably securable to the catheter, the anchor portion positioned at a distal end of the generally elongate anchor shaft, the anchor portion configured to expand from a first generally elongate configuration to a second expanded configuration such that the anchor portion in the second expanded configuration can be drawn tightly against the cardiac tissue wall at the target site when a tensile force is applied to the anchor portion; and two or more discs (126, 326) coupled to the elongate anchor shaft, the two or more discs (126, 326) surrounding the elongate anchor shaft, the two or more discs (126, 326) being configured to be disposed entirely within the cardiac tissue wall at the target site, whereby, once the two or more discs (126, 326) are implanted entirely within the cardiac tissue wall at the target site, the two or more discs (126, 326) act as a hemostatic seal of an opening through the cardiac tissue wall, through which opening the elongate anchor shaft is disposed, characterised in that: the hemostatic tissue anchor (120, 320, 420) further comprises a sleeve (124, 330) surrounding at least a portion of the elongate anchor shaft, and wherein the two or more discs (126, 326) are integral with the sleeve (124, 330) and coupled to the elongate anchor shaft via the sleeve (124, 330). an anchor portion supported by a generally elongate anchor shaft releasably securable to the catheter, the anchor portion positioned at a distal end of the generally elongate anchor shaft, the anchor portion configured to expand from a first generally elongate configuration to a second expanded configuration such that the anchor portion in the second expanded configuration can be drawn tightly against the cardiac tissue wall at the target site when a tensile force is applied to the anchor portion; and two or more discs (126, 326) coupled to the elongate anchor shaft, the two or more discs (126, 326) surrounding the elongate anchor shaft, the two or more discs (126, 326) being configured to be disposed entirely within the cardiac tissue wall at the target site,
A culture device, comprising a plurality of culture units, wherein each unit comprises (i) a culture chamber, containing living eukaryotic cell material comprising immune cells embedded in a matrix, (ii) an inlet port for reversibly connecting the unit with an external liquid supply and (iii) an outlet port for discharging liquid from the unit into a waste container, a sample collector or analysis device, wherein the inlet port is in fluid communication with the culture chamber and the culture chamber is in fluid communication with the outlet port for allowing a liquid flow through the culture chamber, whereby the mainstream of the liquid flow traverses the culture chamber within the plane of the culture device. (i) a culture chamber, containing living eukaryotic cell material comprising immune cells embedded in a matrix, (ii) an inlet port for reversibly connecting the unit with an external liquid supply and (iii) an outlet port for discharging liquid from the unit into a waste container, a sample collector or analysis device,
Manually actuated sampling pipette, comprising a control rod the lower end of which controls displacement of a piston housed in a suction chamber of the pipette and free to slide in it, the top end of the control rod being provided with a control button that will be moved by axial actuation pressure of an operator so that the piston undergoes a dispensing movement during which the first elastic return means are loaded, followed by a purge movement during which the second elastic return means are loaded, said pipette comprising an electronic device that will receive a switching signal notifying passage of the piston through a predetermined position along its dispensing distance or its purge distance, position in which said first and/or second elastic return means (54, 70) have a predetermined deformation, the pipette also including a switch that outputs said switching signal to said electronic device when activated by switching control means, characterised in that said control means comprise a mobile actuation device fixed to an elastic support capable of deforming elastically under the effect of said axial actuation pressure applied by the operator on the control button, said pipette being designed such that elastic deformation of the support, bringing the mobile device from an inactive position into an actuation position, is caused only when the intensity of said axial pressure is greater than or equal to the intensity bringing said first and/or second elastic means (54, 70) to their predetermined strain level.
A blade bearing or nacelle bearing (1; 1'; 1"; 1) of a wind turbine, comprising two rings (7, 8; 7', 8') mounted adjacent to each other and rotatable relative to each other for connection on one side to the hub of the wind turbine and on the other side to a blade of same, or for connection on one side to the tower of the wind turbine and on the other side to the gondola of same, wherein the two rings (7, 8; 7', 8') rotatable relative to each other are provided with or coupled to a respective disk (2, 3; 2', 3') and are each provided with or non-rotatably coupled to a circumferential inner toothing (18, 22; 18', 22'), for the purpose of joint tooth engagement by one or more toothed planet gears (32; 32') revolving around a central sun gear (26, 34), which planet gears (32; 32') themselves are meshing with the toothed sun gear (26, 34) and are mounted between the two disks (2, 3; 2', 3') in cantilever fashion, i.e., without a planet carrier.
A servomotor drive device comprising: an encoder configured to detect rotation of a servomotor that is a driving source for a driving target object; a servo amplifier configured to perform feedback control of the rotation of the servomotor based on a count value, hereinafter referred to as an encoder value, of the encoder; and an amp control section configured to control operation of the servo amplifier, wherein the amp control section includes a function for sending an initialization instruction for initializing the encoder to the servo amplifier in a state of fixed cycle connection over a servo network between the servo amplifier and the encoder when an error occurs with the encoder, and further includes a function for, after sending the initialization instruction, checking the state of initialization of the encoder via the servo network to determine if initialization is complete before resuming control of the servo amplifier; and the servo amplifier includes a function for performing initialization of the encoder without disconnecting the servo network when receiving the initialization instruction sent from the amp control section, and further includes a function for maintaining a state in which it is possible to determine a state of initialization of the encoder and an encoder value as encoder information. an encoder configured to detect rotation of a servomotor that is a driving source for a driving target object; a servo amplifier configured to perform feedback control of the rotation of the servomotor based on a count value, hereinafter referred to as an encoder value, of the encoder; and an amp control section configured to control operation of the servo amplifier, wherein the amp control section includes a function for sending an initialization instruction for initializing the encoder to the servo amplifier in a state of fixed cycle connection over a servo network between the servo amplifier and the encoder when an error occurs with the encoder, and further includes a function for, after sending the initialization instruction, checking the state of initialization of the encoder via the servo network to determine if initialization is complete before resuming control of the servo amplifier; and the servo amplifier includes a function for performing initialization of the encoder without disconnecting the servo network when receiving the initialization instruction sent from the amp control section, and further includes a function for maintaining a state in which it is possible to determine a state of initialization of the encoder and an encoder value as encoder information.
A button controller assembly for a headset of an electronic device, comprising: first and second housing portions positioned opposite one another and defining an air gap there between, the first and second housing portions (200, 202) comprising engagement structures attaching the first and second housing portions (200, 202) together while allowing the first and second housing portions (200, 202) to float with respect to each other, the first housing portion having a first and second button actuation region; a plurality of switches mounted between the first and second housing portions (200, 202), wherein each switch (226A, 226C) is aligned with a respective button actuation region (102, 106) of the first housing portion; a first cable (94, 204) connecting the button controller assembly to a set of speakers; a second cable (108, 204) connecting the button controller assembly to a jack; and a microphone in an inner space formed by the housing portions and configured to receive sound from outside the button controller assembly through the air gap, wherein a press on the first button actuation region results in actuation of a first switch of the plurality of switches, and a press on the second button actuation region results in actuation of a second switch of the plurality of switches. first and second housing portions positioned opposite one another and defining an air gap there between, the first and second housing portions (200, 202) comprising engagement structures attaching the first and second housing portions (200, 202) together while allowing the first and second housing portions (200, 202) to float with respect to each other, the first housing portion having a first and second button actuation region; a plurality of switches mounted between the first and second housing portions (200, 202), wherein each switch (226A, 226C) is aligned with a respective button actuation region (102, 106) of the first housing portion; a first cable (94, 204) connecting the button controller assembly to a set of speakers; a second cable (108, 204) connecting the button controller assembly to a jack; and a microphone in an inner space formed by the housing portions and configured to receive sound from outside the button controller assembly through the air gap, wherein a press on the first button actuation region results in actuation of a first switch of the plurality of switches, and a press on the second button actuation region results in actuation of a second switch of the plurality of switches.
A cationic peptide-linked morpholino antisense oligonucleotide for use in a method for treating or preventing myotonic dystrophy type 1 in an individual in need thereof, wherein the cationic peptide-linked morpholino antisense oligonucleotide comprises: (a) a morpholino antisense oligonucleotide sequence complementary to at least 3 polyCUG repeat sequences in a 3' untranslated region of a dystrophia myotonica protein kinase (DMPK) RNA transcript target, and (b) a spacer moiety separating the morpholino antisense oligonucleotide from the cationic peptide, wherein the spacer moiety comprises and wherein the cationic peptide is separated from the morpholino antisense oligonucleotide by the spacer moiety linked at the 5' end of the morpholino antisense oligonucleotide. (a) a morpholino antisense oligonucleotide sequence complementary to at least 3 polyCUG repeat sequences in a 3' untranslated region of a dystrophia myotonica protein kinase (DMPK) RNA transcript target, and (b) a spacer moiety separating the morpholino antisense oligonucleotide from the cationic peptide,
A system for forming a particle layer comprising: at least one sprayer configured to spray particles towards a substrate, the particles comprising at least one selected from the group of an electrochemical material, an ionically conductive material, an electrically conductive material, and a separator material; a first mask movable to selectively mask the substrate from the particles in a first region of the substrate; a second mask movable to selectively mask the substrate from the particles in a second region of the substrate, wherein the at least one sprayer directs the spray of particles towards a portion of the substrate between the first mask and the second mask; and a heater configured to heat the substrate, characterized in that the first mask is a clamp actuated by an actuator (11 0A), wherein the clamp is configured to selectively grasp the substrate. at least one sprayer configured to spray particles towards a substrate, the particles comprising at least one selected from the group of an electrochemical material, an ionically conductive material, an electrically conductive material, and a separator material; a first mask movable to selectively mask the substrate from the particles in a first region of the substrate; a second mask movable to selectively mask the substrate from the particles in a second region of the substrate, wherein the at least one sprayer directs the spray of particles towards a portion of the substrate between the first mask and the second mask; and a heater configured to heat the substrate, characterized in that the first mask is a clamp actuated by an actuator (11 0A), wherein the clamp is configured to selectively grasp the substrate.