mhurhangee/patent-ind-claim-en huggingface dataset:
A rod inserter for delivering a spinal fixation rod through an access channel, the rod inserter comprising: a first member comprising an elongate tube with a proximal end and a distal end, with a passage extending from the proximal end to the distal end; a second member comprising an elongate shaft configured to move along the passage of the first member; a third member comprising a first end and a second end, the first end coupled to the second member; a rod holder comprising a leading end coupled to the distal end of the first member and a trailing end coupled to the second end of the third member, the rod holder configured to transition from an aligned configuration, wherein a longitudinal axis of the rod holder is generally parallel with a longitudinal axis of the second member, to an angled configuration wherein the longitudinal axis of the rod holder is at an angle to the longitudinal axis of the second member, the rod holder configured to releasably couple with a rod ; and an actuator toward the proximal end of the first member configured to translate the second member, wherein translation of the second member transitions the rod holder between the aligned configuration and the angled configuration; wherein the rod holder comprises a mechanism for changing the rod holder between a clamping configuration and a release configuration; wherein the second member comprises a longitudinal channel for accessing the mechanism from the proximal end. a first member comprising an elongate tube with a proximal end and a distal end, with a passage extending from the proximal end to the distal end; a second member comprising an elongate shaft configured to move along the passage of the first member; a third member comprising a first end and a second end, the first end coupled to the second member; a rod holder comprising a leading end coupled to the distal end of the first member and a trailing end coupled to the second end of the third member, the rod holder configured to transition from an aligned configuration, wherein a longitudinal axis of the rod holder is generally parallel with a longitudinal axis of the second member, to an angled configuration wherein the longitudinal axis of the rod holder is at an angle to the longitudinal axis of the second member, the rod holder configured to releasably couple with a rod ; and an actuator toward the proximal end of the first member configured to translate the second member, wherein translation of the second member transitions the rod holder between the aligned configuration and the angled configuration; wherein the rod holder comprises a mechanism for changing the rod holder between a clamping configuration and a release configuration; wherein the second member comprises a longitudinal channel for accessing the mechanism from the proximal end.
A voice prosthesis insertion device , comprising: an elongated inserter body having a first end and a second end and including an aperture therein extending axially along the elongated inserter body , characterized in the elongated inserter body including a ring member at the second end that is supported by a pair of straps , the elongated inserter body having a collapsible portion ; and a rod disposed in the aperture of the elongated inserter body , the rod including a first end and a second end and the second end including a peg extending therefrom, the peg being adapted to be inserted into an aperture of a tether of a voice prosthesis device , wherein the collapsible portion of the elongated inserter body is flexible to allow the elongated inserter body to be longitudinally collapsed to expose the peg of the rod for engagement with the tether of the voice prosthesis and the elongated inserter body is extendable from the collapsed position to extend over the peg . an elongated inserter body having a first end and a second end and including an aperture therein extending axially along the elongated inserter body , characterized in the elongated inserter body including a ring member at the second end that is supported by a pair of straps , the elongated inserter body having a collapsible portion ; and a rod disposed in the aperture of the elongated inserter body , the rod including a first end and a second end and the second end including a peg extending therefrom, the peg being adapted to be inserted into an aperture of a tether of a voice prosthesis device , wherein the collapsible portion of the elongated inserter body is flexible to allow the elongated inserter body to be longitudinally collapsed to expose the peg of the rod for engagement with the tether of the voice prosthesis and the elongated inserter body is extendable from the collapsed position to extend over the peg .
A composition comprising a transgene encoding calsequestrin 2 (CASQ2), for use in the therapeutic treatment of dominant catecholaminergic polymorphic ventricular tachycardia (CPVT) in a human patient in need thereof, wherein the patient exhibits a gain-of-function mutation in an endogenous gene encoding ryanodine receptor 2 (RYR2).
Layer system for thin-film solar cells , comprising: - an absorber layer that contains a chalcogenide compound semiconductor, - a buffer layer that is arranged on the absorber layer , wherein the buffer layer contains Na x In 1 S y Cl z with 0.05 ≤ x < 0.2 or 0.2 < x ≤ 0.5 , 0.6 ≤ x / z ≤ 1.4 , and 1 ≤ y ≤ 2 wherein the buffer layer contains a fraction of oxygen ≤ 10 atom-% and/or a fraction of copper ≤ 10 atom-%, wherein the buffer layer contains mole fractions of other elements besides sodium, chlorine, indium, sulfur, oxygen, and copper of ≤ 1 atom-%. - an absorber layer that contains a chalcogenide compound semiconductor, - a buffer layer that is arranged on the absorber layer , wherein the buffer layer contains Na x In 1 S y Cl z with 0.05 ≤ x < 0.2 or 0.2 < x ≤ 0.5 , 0.6 ≤ x / z ≤ 1.4 , and 1 ≤ y ≤ 2 wherein the buffer layer contains a fraction of oxygen ≤ 10 atom-% and/or a fraction of copper ≤ 10 atom-%, wherein the buffer layer contains mole fractions of other elements besides sodium, chlorine, indium, sulfur, oxygen, and copper of ≤ 1 atom-%. wherein the buffer layer contains a fraction of oxygen ≤ 10 atom-% and/or a fraction of copper ≤ 10 atom-%, wherein the buffer layer contains mole fractions of other elements besides sodium, chlorine, indium, sulfur, oxygen, and copper of ≤ 1 atom-%.
A prepreg at least comprising: a fiber layer made of reinforcing fibers; a matrix resin; and a plurality of conductive parts formed on one surface or both surfaces of the fiber layer , wherein a volume resistivity p (Ωcm) of the fiber layer in a thickness direction measured by the method described in the description, a thickness t (cm) of the fiber layer measured by the method described in the description and an average interval L (cm) of the conductive parts disposed on the surface of the prepreg measured by the method described in the description satisfy the following Equation : t / ρ × 1 / L × 100 ≥ 0.5 wherein the average interval L is 0.025 cm or more, and each of the conductive parts are formed at an interval between the conductive parts in a range within ± 50% of the average interval L. a fiber layer made of reinforcing fibers; a matrix resin; and a plurality of conductive parts formed on one surface or both surfaces of the fiber layer , wherein a volume resistivity p (Ωcm) of the fiber layer in a thickness direction measured by the method described in the description, a thickness t (cm) of the fiber layer measured by the method described in the description and an average interval L (cm) of the conductive parts disposed on the surface of the prepreg measured by the method described in the description satisfy the following Equation : t / ρ × 1 / L × 100 ≥ 0.5 wherein the average interval L is 0.025 cm or more, and each of the conductive parts are formed at an interval between the conductive parts in a range within ± 50% of the average interval L.
Waveguide Spectrometer to carry out integrated interferogram scanning, comprising: - at least one substrate layer with at least one waveguide , each waveguide is extending from an inlet face and is configured to guide the received light, - at least one evanescent field sampler in the waveguide , configured to out-couple light out from the waveguide , at least one light sensing unit configured to detect the out-coupled light, each electrically connected to an electronic read out system, and - means to achieve counter propagating optical signals inside the waveguide configured to obtain interference between the counter propagating optical signals generating an interference pattern along the waveguide in an interferogram, at least one integrated modulator configured to enable conditioning of the guided optical signals and configured for changing the refractive index, wherein said at least one integrated modulator is realised by electrodes (30; 30') placed aside neighboured to the waveguide generating an optical phases shift required for modulating the interferogram and wherein a distance (d) between the waveguide and each of the electrodes (30; 30') is d ≥ 0 mm, characterized in that the electrodes (30; 30') are placed on opposing side faces on the outside of the substrate layer aside the waveguide and proceeding perpendicular to the front side (I) of the substrate layer along a length (le). - at least one substrate layer with at least one waveguide , each waveguide is extending from an inlet face and is configured to guide the received light, - at least one evanescent field sampler in the waveguide , configured to out-couple light out from the waveguide , at least one light sensing unit configured to detect the out-coupled light, each electrically connected to an electronic read out system, and - means to achieve counter propagating optical signals inside the waveguide configured to obtain interference between the counter propagating optical signals generating an interference pattern along the waveguide in an interferogram,
Cable drum for supplying energy to an electrically operated utility vehicle, having an axially extending winding body , which can be put into rotation by means of a winding drive for the purpose of reeling-up or unreeling an electric line , and having spacing means for segmenting a winding layer reeled-up onto the winding body , in such a manner that a passage region , through which cooling air, generated by means of an air conveying means , flows outward, out of the interior of the winding body , is kept clear between adjacent segments of the winding layer , characterized in that a control unit adapts the cooling air flow by closed-loop control of the rotational speed of the air conveying means on the basis of a model-based estimation of the actual cooling or volumetric flow requirement, according to electrical and thermal properties of the electric line used and also according to the wound state of the cable drum , obtained from sensor information of the rotary position sensor and the electric power carried by the electric line , the ambient temperature sensed by means of a temperature sensor additionally being included by the control unit .
Method for producing a spectacle lens, wherein a material is applied in liquid form to the edge of the edged spectacle lens , which is worked out of a spectacle lens blank, the material runs on the application surface prior to hardening and is hardened chemically or by radiation, wherein the material on the lens forms at least one functional layer which has an optical function, magnetic function or electrical or electronic function, characterized in that, prior to the application of the material, the edge of the spectacle lens is measured with regard to its edge thickness (Δx) at a multiplicity of peripherally successive measurement positions and the quantity (ΔV) and/or position of the material application is effected in controlled fashion depending on the acquired measured values, wherein the control is effected in connection with at least one application device which is used to apply the material liquidly to the edge, wherein the previously acquired measured values are fed as control variables to this application device.
Drive device for a cable drum of a winch, comprising a drive motor with a drive shaft , a gear mechanism and an output shaft driving the cable drum , wherein the gear mechanism has a first drive connection between the drive shaft of the drive motor and the output shaft to the cable drum , and the gear mechanism has a second drive connection between the drive motor and the output shaft , and the second drive connection is designed separate from the first drive connection as a parallel drive path, and both drive connections are jointly driven by the drive shaft of the drive motor , characterised in that the first drive connection drives the output shaft over a first speed range (DB1) in a first gear, the second drive connection drives the output shaft over a second speed range (DB2) in a second gear, and if the output shaft is driven by way of the second drive connection , the first drive connection remains switched on, but the power flow of the first drive connection from the drive shaft to the output shaft is interrupted in such a way that the first drive connection or the second drive connection is optionally connected to the output shaft in a torque-transmitting manner.
A visible light catalytic material, characterized in that it comprises a carrier and an active component supported on a surface of the carrier, wherein the carrier is a conductive ceramic; the active component is P-C 3 N 4 /reduced graphene oxide/BiVO 4 ; the conductive ceramic is prepared by a process comprising mixing graphene, aluminum oxide and zinc oxide, sequentially crushing the resulting mixture, tableting molding and sintering to obtain conductivity ceramics, wherein a mass ratio of the graphene, aluminum oxide and zinc oxide is 1: (8-9): (1-2); the active component is prepared by a process comprising mixing P-C 3 N 4 , graphene oxide and water and performing modification treatment to obtain P-C 3 N 4 /GO; mixing the P-C 3 N 4 /GO, ammonium metavanadate, water and an acetic acid solution of bismuth nitrate to perform a recombination reaction to obtain P-C 3 N 4 / RGO/BiVO 4 , wherein the P-C 3 N 4 is prepared by a process comprising mixing melamine, ammonium dihydrogen phosphate and water, sequentially performing polymerization reaction, drying and calcining to obtain the P-C 3 N 4 . the carrier is a conductive ceramic; the active component is P-C 3 N 4 /reduced graphene oxide/BiVO 4 ; the conductive ceramic is prepared by a process comprising mixing graphene, aluminum oxide and zinc oxide, sequentially crushing the resulting mixture, tableting molding and sintering to obtain conductivity ceramics, wherein a mass ratio of the graphene, aluminum oxide and zinc oxide is 1: (8-9): (1-2); the active component is prepared by a process comprising mixing P-C 3 N 4 , graphene oxide and water and performing modification treatment to obtain P-C 3 N 4 /GO; mixing the P-C 3 N 4 /GO, ammonium metavanadate, water and an acetic acid solution of bismuth nitrate to perform a recombination reaction to obtain P-C 3 N 4 / RGO/BiVO 4 , wherein the P-C 3 N 4 is prepared by a process comprising mixing melamine, ammonium dihydrogen phosphate and water, sequentially performing polymerization reaction, drying and calcining to obtain the P-C 3 N 4 .
A crystalline material comprising a basic crystal based on at least one host element (We), which basic crystal is doped with at least one element of the rare earths (Do), the crystalline material having the formula: We1 (a) We2 (b) Ta (c) Do1 (d) Do2 (e) Hal (w) O (x) Te (y) Se (z) , where We1 and We2 are independently and differently selected from elements from the group consisting of niobium, aluminium, barium, gadolinium, lanthanum, yttrium, cerium, and titanium; Do 1 and Do 2 are independently and differently selected from elements of the group of rare earths; Hal is fluoride, chloride, bromide or iodide; the indices (a)-(z) each being 0 to 3 independently of one another, though at least one of (a) and (b) is greater than 0, at least one of (d) and (e) is greater than 0, and at least one of (w), (x), (y) and (z) is greater than 0; wherein the sum of (a)+(b)+(c)=1-2, preferably 1 or 2, and the sum of (w)+(x)+(y)+(z)= 2 or 3, with the proviso that (c) is > 0 if We 1 = Ce, Do 1 = Er and (b) = (e) = (w) = (y) = (z) = 0, wherein (x) is >0, characterised in that the rare-earth element is selected from erbium, ytterbium, thulium and holmium, preferably a combination of two rare-earth oxides, preferably erbium oxide and ytterbium oxide.
A method for determining a length of feedback response information, characterized by comprising: receiving (S301), by a terminal, configuration signaling sent by a network-side device, the configuration signaling comprising an indication about a maximum transmission delay for feedback response information; dynamically determining (S302), by the terminal, a hybrid automatic repeat request, HARQ, feedback timing; determining (S303), by the terminal, a total number of bits of feedback response information to be transmitted according to the maximum transmission delay, wherein the maximum transmission delay is a maximum time interval between a time unit where downlink data is carried and a time unit where the feedback response information for the downlink data is carried; and sending (S304), by the terminal to the network-side device, the feedback response information to be transmitted with the total number of bits. receiving (S301), by a terminal, configuration signaling sent by a network-side device, the configuration signaling comprising an indication about a maximum transmission delay for feedback response information; dynamically determining (S302), by the terminal, a hybrid automatic repeat request, HARQ, feedback timing; determining (S303), by the terminal, a total number of bits of feedback response information to be transmitted according to the maximum transmission delay, wherein the maximum transmission delay is a maximum time interval between a time unit where downlink data is carried and a time unit where the feedback response information for the downlink data is carried; and sending (S304), by the terminal to the network-side device, the feedback response information to be transmitted with the total number of bits.
A closing system for closing a closing panel of a door or window , comprising: - a magnetic induction closing catch applicable on a first portion of a door or window and configured to retain a closing panel in a closing condition of the door or window, said magnetic induction closing catch comprising a catch adapted to be mounted on a first portion of said closing panel and comprising at least one permanent magnet , said magnetic induction closing catch comprising an armature adapted to be mounted on a first portion of said support frame and comprising at least one permanent magnet , wherein said first portion of said closing panel comprises a front wall of said closing panel and said first portion of said support frame is a portion of the support frame facing said front wall, wherein the front wall is the wall of thickness of the closing panel interposed between two main opposing faces of the closing panel ; - mechanical locking means applicable on a second portion of the door or window for locking the closing panel in the closing condition of said door or window , said mechanical locking means comprising a lock body and a dead bolt adapted to be mounted on a second portion of said closing panel and a striking plate mountable on a second portion of said support frame , wherein said catch is housed in said lock body and wherein said armature is housed in said striking plate . - a magnetic induction closing catch applicable on a first portion of a door or window and configured to retain a closing panel in a closing condition of the door or window, said magnetic induction closing catch comprising a catch adapted to be mounted on a first portion of said closing panel and comprising at least one permanent magnet , said magnetic induction closing catch comprising an armature adapted to be mounted on a first portion of said support frame and comprising at least one permanent magnet , wherein said first portion of said closing panel comprises a front wall of said closing panel and said first portion of said support frame is a portion of the support frame facing said front wall, wherein the front wall is the wall of thickness of the closing panel interposed between two main opposing faces of the closing panel ; - mechanical locking means applicable on a second portion of the door or window for locking the closing panel in the closing condition of said door or window , said mechanical locking means comprising a lock body and a dead bolt adapted to be mounted on a second portion of said closing panel and a striking plate mountable on a second portion of said support frame , wherein said catch is housed in said lock body and wherein said armature is housed in said striking plate . or window for locking the closing panel in the closing condition of said door or window , said mechanical locking means comprising a lock body and a dead bolt adapted to be mounted on a second portion of said closing panel and a striking plate mountable on a second portion of said support frame , wherein said catch is housed in said lock body and wherein said armature is housed in said striking plate .
A method for modeling a dental arch of a patient, said method comprising the following steps: a) creating a historical library of over 1,000 tooth models, known as "historical tooth models", and assign each historical tooth model a value for at least one tooth attribute, or "tooth attribute value"; b) analyzing at least one "analysis image" of the dental arch by means of a deep learning system, so as to determine at least one tooth analysis zone and at least one tooth attribute value associated with said tooth analysis zone; c) for each tooth analysis zone determined in the previous step, searching the historical library for a historical tooth model having maximum proximity to the analysis image or to the tooth analysis zone, or "optimal tooth model" and having, for at least one tooth attribute, the same value as said tooth analysis zone; d) arranging the set of optimal tooth models to create a model with maximum proximity to the analysis image, or "assembled model"; e) optionally, replacing at least one optimal tooth model with another tooth model determined by means of a metaheuristic method and repeated in step d) so as to maximize the match between the assembled model and the analysis image; f) optionally, repeating step b) with another analysis image and, in step d) and/or e), search for maximum match with the set of analysis images used. a) creating a historical library of over 1,000 tooth models, known as "historical tooth models", and assign each historical tooth model a value for at least one tooth attribute, or "tooth attribute value"; b) analyzing at least one "analysis image" of the dental arch by means of a deep learning system, so as to determine at least one tooth analysis zone and at least one tooth attribute value associated with said tooth analysis zone; c) for each tooth analysis zone determined in the previous step, searching the historical library for a historical tooth model having maximum proximity to the analysis image or to the tooth analysis zone, or "optimal tooth model" and having, for at least one tooth attribute, the same value as said tooth analysis zone; d) arranging the set of optimal tooth models to create a model with maximum proximity to the analysis image, or "assembled model"; e) optionally, replacing at least one optimal tooth model with another tooth model determined by means of a metaheuristic method and repeated in step d) so as to maximize the match between the assembled model and the analysis image; f) optionally, repeating step b) with another analysis image and, in step d) and/or e), search for maximum match with the set of analysis images used.