mhurhangee/patent-ind-claim-en huggingface dataset:
A needle guide assembly comprising: a needle guide body comprising at least two separable portions ; and a controller communicatively coupled to the needle guide body ; wherein the needle guide body is operable by the controller to actuate between a closed configuration and an open configuration, wherein in the closed configuration, the at least two portions combine to define a channel therethrough for receiving a needle , and wherein in the open configuration, the at least two portions separate to release the received needle from the channel ; wherein the channel comprises a proximal end and a distal end , and wherein the needle is configured to be received at the proximal end and inserted through the channel toward the distal end ; wherein an axis of the channel is aligned in use with a needle insertion site adjacent the distal end , and wherein the needle guide body is pivotable about the distal end ; and characterized in that the needle guide body is movable laterally to a next needle insertion site based on a sequence determined by the controller that minimises movement. a needle guide body comprising at least two separable portions ; and a controller communicatively coupled to the needle guide body ; wherein the needle guide body is operable by the controller to actuate between a closed configuration and an open configuration, wherein in the closed configuration, the at least two portions combine to define a channel therethrough for receiving a needle , and wherein in the open configuration, the at least two portions separate to release the received needle from the channel ; wherein the channel comprises a proximal end and a distal end , and wherein the needle is configured to be received at the proximal end and inserted through the channel toward the distal end ; wherein an axis of the channel is aligned in use with a needle insertion site adjacent the distal end , and wherein the needle guide body is pivotable about the distal end ; and characterized in that the needle guide body is movable laterally to a next needle insertion site based on a sequence determined by the controller that minimises movement.
A cable splice enclosure for inserting a cable therein, characterized by comprising: a first portion ; and a second portion connected to the first portion and forming a water-tight seal with the first portion for fixing the cable , wherein the second portion is formed with one of an elasticity shrinkable tube-shrinkable waterproof mechanism and a combination of a mechanical waterproof mechanism and an elasticity shrinkable tube-shrinkable waterproof mechanism, wherein a second elasticity shrinkable tube covers the second portion and a part of the cable in the second elasticity shrinkable tube . a first portion ; and a second portion connected to the first portion and forming a water-tight seal with the first portion for fixing the cable , wherein the second portion is formed with one of an elasticity shrinkable tube-shrinkable waterproof mechanism and a combination of a mechanical waterproof mechanism and an elasticity shrinkable tube-shrinkable waterproof mechanism, wherein a second elasticity shrinkable tube covers the second portion and a part of the cable in the second elasticity shrinkable tube .
A method for recording auditory steady-state responses of a person (U), the method comprising a) providing an acoustic stimulus signal (ac-stim) to an ear of the person (U), b) recording the auditory steady-state responses (rec n ) of the person originating from said acoustic stimulus signal (ac-stim), wherein the acoustic stimulus signal comprises a speech-like stimulus provided as a combination of a series of frequency-specific stimuli (fs-stim), each having a specified, e.g. predetermined, a) frequency bandwidth, b) presentation rate, c) amplitude and d) amplitude-modulation, CHARACTERIZED IN THAT said amplitude modulation of the individual frequency-specific stimuli (fs-stim) corresponds to a low-frequency modulation which occurs in normal speech.
A firing direction limitation device for controlling the allowed launch angle range of a directable firing device tiltable between at least two allowed maximum launch angles (MaxLA1, MaxLA2) defining a launch sector , where the firing direction limitation device comprises: • a moveable limiting structure configured to be arranged in connection with the directable firing device , the limiting structure is configured to be moveable between a first position (P1) and a second position (P2), where, when the limiting structure is set in the first positon (P1), the directable firing device is moveable within a first launch angle range (LARa1), and when the limiting structure is set in the second positon (P2), the directable firing device is moveable within a second launch angle range (LARa2), where the second launch angle range (LARa2) is limited in relation to the first launch angle range (LARa1), whereby the allowed launch angle range of the directable firing device is controllable, characterized in that the directable firing device is a variable magazine , where the variable magazine comprises a plurality of longitudinal cartridge cases forming the variable magazine , where each cartridge case comprises side walls and a front opening , where the side walls of two adjacent cartridge cases are arranged to each other in a slidable manner in a longitudinal direction, and where the variable magazine comprises a tilting means adapted to tilt the cartridge cases , such that the openings of the cartridge cases can be directed in a selected direction. • a moveable limiting structure configured to be arranged in connection with the directable firing device ,
A device for receiving an intraocular lens , comprising a first and a second half-shell which are connected to each other in an articulated manner by a first joint and which can be moved relative to each other from an open position into a closed position, wherein - the half-shells form an open chamber in the open position, which is used for the insertion of a lens and - the half-shells form an enclosed chamber in the closed position, which defines an ejection passage and is used for ejecting the lens, characterized in that , at least one stopper is displaceably or pivotally arranged on the first of the two half-shells , said stopper bounding the open chamber in the open position and being positioned substantially outside of the enclosed chamber laterally to the ejection passage in the closed position. - the half-shells form an open chamber in the open position, which is used for the insertion of a lens and - the half-shells form an enclosed chamber in the closed position, which defines an ejection passage and is used for ejecting the lens,
A method for entropy coding run/data value pair data corresponding to a stream of integer-valued data, wherein each run has a value between 1 and a predetermined maximum length and is encoded in one of three ways, said method comprising: classifying each of said runs based on its length as either 1, short or long; if the run is 1, selecting a first code with a length of 1 bit; if the run is classified as short, selecting a first code with a first predetermined length, each first code of first predetermined length having a preamble to distinguish the other run classifications, and having a value based on the run's length; if the run is classified as long, selecting a first code with a second predetermined length, each first code of second predetermined length having a preamble to distinguish the other run classifications, and having a value based on the run's length; and outputting the selected first code to a channel. classifying each of said runs based on its length as either 1, short or long; if the run is 1, selecting a first code with a length of 1 bit; if the run is classified as short, selecting a first code with a first predetermined length, each first code of first predetermined length having a preamble to distinguish the other run classifications, and having a value based on the run's length; if the run is classified as long, selecting a first code with a second predetermined length, each first code of second predetermined length having a preamble to distinguish the other run classifications, and having a value based on the run's length; and outputting the selected first code to a channel.
A method for determining a real-time running speed of a train, comprising: acquiring (S101) an axle speed of a target axle in a braking system and rotation speeds of one or more traction motors in a traction system in a target train; converting (S102) the rotation speeds into a first real-time running speed by using a preset correspondence between a traction motor rotation speed and a train running speed if determining that the traction system is in a normal state; converting (S103) the axle speed into a second real-time running speed by using a preset correspondence between the axle speed and the train running speed if determining that the braking system is in a normal state; determining (S104) the second real-time running speed as an effective real-time running speed of the target train in a case where both the traction system and the braking system are in the normal state; and determining (S105) whether the effective real-time running speed is greater than a preset running speed threshold, and correcting the effective real-time running speed by using a third real-time running speed measured by a global positioning system, GPS, in a case where the effective running speed is greater than the preset running speed threshold. acquiring (S101) an axle speed of a target axle in a braking system and rotation speeds of one or more traction motors in a traction system in a target train; converting (S102) the rotation speeds into a first real-time running speed by using a preset correspondence between a traction motor rotation speed and a train running speed if determining that the traction system is in a normal state; converting (S103) the axle speed into a second real-time running speed by using a preset correspondence between the axle speed and the train running speed if determining that the braking system is in a normal state; determining (S104) the second real-time running speed as an effective real-time running speed of the target train in a case where both the traction system and the braking system are in the normal state; and determining (S105) whether the effective real-time running speed is greater than a preset running speed threshold, and correcting the effective real-time running speed by using a third real-time running speed measured by a global positioning system, GPS, in a case where the effective running speed is greater than the preset running speed threshold.
An air duct assembly for an axial flow fan, comprising an air inlet shroud and an air outlet shroud ; wherein the air inlet shroud comprises a plurality of mutually angled air inlet surfaces, and a ratio of an area of the air inlet surfaces of the air inlet shroud to that of air outlet surfaces of the air outlet shroud is 1.1 to 1.35, wherein the air inlet shroud comprises a first air inlet surface , a second air inlet surface and a third air inlet surface which are mutually angled, wherein a grille of the air outlet shroud comprises a plurality of grid bars, characterized in that each of the grid bars has a gradually increased cross-sectional area along the air outflow direction, so that an air outlet area between two adjacent grid bars gradually decreases along the air outflow direction.
Kit comprising (a) a composition comprising ivermectin intended to be administered at a therapeutically effective dose of between 100 μg and 5 g per day, and (b) a composition comprising doxycycline or a pharmaceutically acceptable salt thereof, intended to be administered at a therapeutically effective dose of 40, 100, or 200 mg per day, as a combination product for its simultaneous, separate, or prolonged use in the treatment and/or delay of the onset of rosacea symptoms.
An array substrate for use in a terminal device , comprising an antenna , an underlying substrate , and a component layer that are located on a same side of the underlying substrate, wherein the component layer and the antenna are disposed at intervals, and the component layer comprises a plurality of metal laminates and a plurality of dielectric laminates that are stacked, and the metal laminates and the dielectric laminates are alternately disposed to form a plurality of thin film transistors; wherein the array substrate comprises a cable layer and at least one antenna array comprising a plurality of antennas, wherein the cable layer, the antenna array, and the component layer are all located on a same side of the underlying substrate, and the antenna array and the cable layer are disposed at intervals; and wherein the cable layer comprises a connecting portion and a cable exit portion , one end of the connecting portion is connected to one of the plurality of thin film transistors in the component layer and the other end of the connecting portion is connected to the cable exit portion; and the cable exit portion of the cable layer is located between the component layer and a first edge of the underlying substrate and the cable exit portion is connectable to a main printed circuit board included in the terminal device; wherein the first edge is a top edge or a bottom edge of the underlying substrate, and the antenna array is located between the component layer and the first edge. wherein the array substrate comprises a cable layer and at least one antenna array comprising a plurality of antennas, wherein the cable layer, the antenna array, and the component layer are all located on a same side of the underlying substrate, and the antenna array and the cable layer are disposed at intervals; and wherein the cable layer comprises a connecting portion and a cable exit portion , one end of the connecting portion is connected to one of the plurality of thin film transistors in the component layer and the other end of the connecting portion is connected to the cable exit portion; and the cable exit portion of the cable layer is located between the component layer and a first edge of the underlying substrate and the cable exit portion is connectable to a main printed circuit board included in the terminal device; wherein the first edge is a top edge or a bottom edge of the underlying substrate, and the antenna array is located between the component layer and the first edge.
A battery module, comprising batteries and busbar components, wherein the batteries are plural in number and laid out consecutively along a longitudinal direction (Y), and each battery comprises a first electrode terminal (T1) and a second electrode terminal (T2); the busbar components are plural in number and connected to the plurality of batteries; the plurality of batteries comprise a first battery and a second battery , and the first electrode terminal (T1) of the first battery and the first electrode terminal (T1) of the second battery are laid out along the longitudinal direction (Y); the plurality of busbar components comprise a first busbar component , and the first busbar component comprises a first part , a second part , and a third part ; the first part is connected to the first electrode terminal (T1) of the first battery , the second part is connected to the second electrode terminal (T2) of the second battery , and the third part connects the first part and the second part ; a through hole (H) is disposed on the third part ; each battery comprises an explosion-proof valve (V), the explosion-proof valve (V) is located between the first electrode terminal (T1) and the second electrode terminal (T2); at least a part of the through hole (H) is located exactly above the explosion-proof valve (V); the third part comprises a first edge , and the first edge slants against the longitudinal direction (Y) and a transverse direction (X); and the through hole (H) takes on a strip shape and extends along a direction parallel to the first edge . the batteries are plural in number and laid out consecutively along a longitudinal direction (Y), and each battery comprises a first electrode terminal (T1) and a second electrode terminal (T2); the busbar components are plural in number and connected to the plurality of batteries; the plurality of batteries comprise a first battery and a second battery , and the first electrode terminal (T1) of the first battery and the first electrode terminal (T1) of the second battery are laid out along the longitudinal direction (Y); the plurality of busbar components comprise a first busbar component , and the first busbar component comprises a first part , a second part , and a third part ; the first part is connected to the first electrode terminal (T1) of the first battery , the second part is connected to the second electrode terminal (T2) of the second battery , and the third part connects the first part and the second part ; a through hole (H) is disposed on the third part ; each battery comprises an explosion-proof valve (V), the explosion-proof valve (V) is located between the first electrode terminal (T1) and the second electrode terminal (T2); at least a part of the through hole (H) is located exactly above the explosion-proof valve (V); the third part comprises a first edge , and the first edge slants against the longitudinal direction (Y) and a transverse direction (X); and the through hole (H) takes on a strip shape and extends along a direction parallel to the first edge .
A recording apparatus comprising: a recording unit configured to record an image on a recording medium by causing at least one print head , which includes a plurality of nozzles for ejecting ink, to perform scanning; an adjustment-chart output unit configured to output an adjustment chart containing a plurality of recording patterns used for adjusting deviation of a print position between a first dot and a second dot, the dots being printed to form images on the recording medium at different timings by using the print head ,the plurality of recording patterns being arranged such that respective deviation amounts with respect to a reference pattern differ from each other; and an ejection-position adjusting unit configured to adjust an ejection position of the print head based on an adjustment value that is calculated from a deviation amount of a recording pattern selected from the plurality of the recording patterns, wherein the adjustment chart contains M number of pattern groups, each containing the plurality of recording patterns, where M is an integer equal to or greater than 2, and the recording patterns contained in the same group pattern have respective deviation amounts that are different by M-times of the recording density from minimum deviation amounts that other recording patterns in the same group have. a recording unit configured to record an image on a recording medium by causing at least one print head , which includes a plurality of nozzles for ejecting ink, to perform scanning; an adjustment-chart output unit configured to output an adjustment chart containing a plurality of recording patterns used for adjusting deviation of a print position between a first dot and a second dot, the dots being printed to form images on the recording medium at different timings by using the print head ,the plurality of recording patterns being arranged such that respective deviation amounts with respect to a reference pattern differ from each other; and an ejection-position adjusting unit configured to adjust an ejection position of the print head based on an adjustment value that is calculated from a deviation amount of a recording pattern selected from the plurality of the recording patterns, wherein the adjustment chart contains M number of pattern groups, each containing the plurality of recording patterns, where M is an integer equal to or greater than 2, and the recording patterns contained in the same group pattern have respective deviation amounts that are different by M-times of the recording density from minimum deviation amounts that other recording patterns in the same group have.
A position controller for controlling a rotation center of a tilting head (S) to which a tool is secured in a machining center, comprising: an offset attachment having a body combined to the tilting head (S) and a spherical contact secured to the body ; an offset detector built in the machining center such that the offset detector selectively move out into a process area of the machining center and automatically detects a tool offset from a contact point with the spherical contact as a position error of a tip point of the tool in a numerical controller of the machining center; an offset data processor connected to the offset detector and individually storing at least a pair of first tool offset (T1(x1,z1)) and second tool offset (T2(x2, z2)) that are detected from first and second rotation positions of the tilting head (S), respectively; and an operator connected to the offset data processor and obtaining a center error between an actual position of the rotation center and a control position of the rotation center that is algorithmically calculated in the numerical controller by a difference of rotational transforms of the first tool offset (T1) (T1(x1,z1)) between when the tilting head (S) is rotated with respect to the actual position and when the tilting head (S) is rotated with respect to the control position. an offset attachment having a body combined to the tilting head (S) and a spherical contact secured to the body ; an offset detector built in the machining center such that the offset detector selectively move out into a process area of the machining center and automatically detects a tool offset from a contact point with the spherical contact as a position error of a tip point of the tool in a numerical controller of the machining center; an offset data processor connected to the offset detector and individually storing at least a pair of first tool offset (T1(x1,z1)) and second tool offset (T2(x2, z2)) that are detected from first and second rotation positions of the tilting head (S), respectively; and an operator connected to the offset data processor and obtaining a center error between an actual position of the rotation center and a control position of the rotation center that is algorithmically calculated in the numerical controller by a difference of rotational transforms of the first tool offset (T1) (T1(x1,z1)) between when the tilting head (S) is rotated with respect to the actual position and when the tilting head (S) is rotated with respect to the control position.