mhurhangee/patent-ind-claim-en huggingface dataset:
A system for generating a model of a patient specific cut guide instrument for harvesting a graft, comprising: a model of a graft defined by an implant interface surface, a bone interface surface, and a spatial geometry therebetween, the model being specific to a patient; a patient-specific instrument generator for outputting the model of the patient specific cut guide instrument, the patient-specific instrument generator including a position determination module for orienting and positioning at least a first guide axis, and for positioning an abutment on a model of a donor bone as a function of the spatial geometry, and an instrument body generator module for generating a model of the patient specific cut guide instrument comprising a body supporting a cut guide to perform a depth cut in the donor bone positioned and oriented as a function of a contact of the body with the abutment on the donor bone, and of the model of the graft, a first guide portion for alignment with the first guide axis, and at least one anchor guide for securing the patient specific instrument cut guide on the donor bone as abutted with the abutment and aligned with the first guide axis, whereby the patient specific cut guide instrument is used for harvesting the graft for subsequent implanting without alterations to the spatial geometry of the graft. a model of a graft defined by an implant interface surface, a bone interface surface, and a spatial geometry therebetween, the model being specific to a patient; a patient-specific instrument generator for outputting the model of the patient specific cut guide instrument, the patient-specific instrument generator including a position determination module for orienting and positioning at least a first guide axis, and for positioning an abutment on a model of a donor bone as a function of the spatial geometry, and an instrument body generator module for generating a model of the patient specific cut guide instrument comprising a body supporting a cut guide to perform a depth cut in the donor bone positioned and oriented as a function of a contact of the body with the abutment on the donor bone, and of the model of the graft, a first guide portion for alignment with the first guide axis, and at least one anchor guide for securing the patient specific instrument cut guide on the donor bone as abutted with the abutment and aligned with the first guide axis, whereby the patient specific cut guide instrument is used for harvesting the graft for subsequent implanting without alterations to the spatial geometry of the graft.
Omega-3 fatty acid(s) for use in the therapeutic treatment of the human or animal body, characterized by use in a disease caused by impaired sphingolipid metabolism and a) impaired sphingolipid synthesis or/and excessive sphingolipid degradation, b) absent, reduced or/and incorrect formation of a sphingomyelin synthase enzyme in the body or/and c) an insufficient sphingolipid content in the blood or/and in a testis of the body, wherein the omega-3 fatty acid(s) comprise(s) polyunsaturated omega-3 fatty acid(s). characterized by use in a disease caused by impaired sphingolipid metabolism and a) impaired sphingolipid synthesis or/and excessive sphingolipid degradation, b) absent, reduced or/and incorrect formation of a sphingomyelin synthase enzyme in the body or/and c) an insufficient sphingolipid content in the blood or/and in a testis of the body, a) impaired sphingolipid synthesis or/and excessive sphingolipid degradation, b) absent, reduced or/and incorrect formation of a sphingomyelin synthase enzyme in the body or/and c) an insufficient sphingolipid content in the blood or/and in a testis of the body, wherein the omega-3 fatty acid(s) comprise(s) polyunsaturated omega-3 fatty acid(s).
A method performed by an electronic device having a processor and a memory coupled to the processor, comprising: receiving, by the electronic device as part of an unlock of the electronic device, a device user authentication ; receiving, by the electronic device, a payment request for a further transaction ; determining whether one or more payment conditions corresponding to the device user authentication are satisfied upon receipt of the payment request ; and authorizing, by the electronic device, a payment application to process the payment request when the one or more payment conditions is satisfied , and performing, by the electronic device, a device user authentication and then authorizing, by the electronic device, a payment application to process the payment request when one of the one or more payment conditions is not satisfied, wherein one of the one or more payment conditions is satisfied if the payment request for a further transaction occurs within a predetermined time after the unlock of the electronic device. receiving, by the electronic device as part of an unlock of the electronic device, a device user authentication ; receiving, by the electronic device, a payment request for a further transaction ; determining whether one or more payment conditions corresponding to the device user authentication are satisfied upon receipt of the payment request ; and authorizing, by the electronic device, a payment application to process the payment request when the one or more payment conditions is satisfied , and performing, by the electronic device, a device user authentication and then authorizing, by the electronic device, a payment application to process the payment request when one of the one or more payment conditions is not satisfied, wherein one of the one or more payment conditions is satisfied if the payment request for a further transaction occurs within a predetermined time after the unlock of the electronic device.
A lighting system for projecting a line of light (LL) on a surface (S), said lighting system comprising: a light generating unit comprising: one or more light sources , and an optical element configured to receive light from the one or more light sources and to emit a first, line-shaped light beam with a first opening angle; said lighting system being characterized by further comprising: a reflective element configured to receive the first light beam and to reflect the received first light beam towards the surface as a second light beam with a second opening angle, which is larger than the first opening angle, in order to be able to project a line of light (LL) on the surface (S); a first adjusting unit configured to adjust a distance (D) between the optical element and the reflective element . one or more light sources , and an optical element configured to receive light from the one or more light sources and to emit a first, line-shaped light beam with a first opening angle; said lighting system being characterized by further comprising: a reflective element configured to receive the first light beam and to reflect the received first light beam towards the surface as a second light beam with a second opening angle, which is larger than the first opening angle, in order to be able to project a line of light (LL) on the surface (S); a first adjusting unit configured to adjust a distance (D) between the optical element and the reflective element . a reflective element configured to receive the first light beam and to reflect the received first light beam towards the surface as a second light beam with a second opening angle, which is larger than the first opening angle, in order to be able to project a line of light (LL) on the surface (S); a first adjusting unit configured to adjust a distance (D) between the optical element and the reflective element .
A thermoplastic resin composition, comprising: 10 to 59 % by weight of an acrylic graft copolymer resin (a) having a graft efficiency of 50 to 95 %; 1 to 20 % by weight of an acrylic graft copolymer resin (b) having a graft efficiency of 10 to 20 %; and 21 to 89 % by weight of an aromatic vinyl compound-vinyl cyan compound copolymer resin (c), wherein a weight ratio of (a) : (b) is 1 : 1 to 10 : 1, wherein graft efficiency is measured as follows: A polymer is separated into particles and then dried. Subsequently, the dried polymer is swollen in acetone at room temperature, and then centrifuged at 12000 rpm for 120 minutes at 0 °C. A separated acetone-insoluble gel and acetone-soluble sol are collected, and then dried in a hot air drier to obtain a value according to Mathematical Equation 1 below: * Graft efficiency % = Total weight of grafted monomer / total weight of shell monomer × 100 , and wherein the thermoplastic resin composition does not comprise a diene-based graft copolymer. 10 to 59 % by weight of an acrylic graft copolymer resin (a) having a graft efficiency of 50 to 95 %; 1 to 20 % by weight of an acrylic graft copolymer resin (b) having a graft efficiency of 10 to 20 %; and 21 to 89 % by weight of an aromatic vinyl compound-vinyl cyan compound copolymer resin (c), wherein a weight ratio of (a) : (b) is 1 : 1 to 10 : 1, wherein graft efficiency is measured as follows: A polymer is separated into particles and then dried. Subsequently, the dried polymer is swollen in acetone at room temperature, and then centrifuged at 12000 rpm for 120 minutes at 0 °C. A separated acetone-insoluble gel and acetone-soluble sol are collected, and then dried in a hot air drier to obtain a value according to Mathematical Equation 1 below: * Graft efficiency % = Total weight of grafted monomer / total weight of shell monomer × 100 , and wherein the thermoplastic resin composition does not comprise a diene-based graft copolymer. A polymer is separated into particles and then dried. Subsequently, the dried polymer is swollen in acetone at room temperature, and then centrifuged at 12000 rpm for 120 minutes at 0 °C. A separated acetone-insoluble gel and acetone-soluble sol are collected, and then dried in a hot air drier to obtain a value according to Mathematical Equation 1 below: * Graft efficiency % = Total weight of grafted monomer / total weight of shell monomer × 100 , and wherein the thermoplastic resin composition does not comprise a diene-based graft copolymer.
An integrated side guide roller tray assembly for a cargo management system , comprising: a guide rail ; a first end mounting bracket coupled to a first end of the guide rail ; a second end mounting bracket coupled to a second end of the guide rail opposite the first end; characterized by a mid-mounting bracket coupled to the guide rail , wherein the mid-mounting bracket is located half-way between the first end mounting bracket and the second end mounting bracket ; a first roller tray coupled to the first end mounting bracket and the mid-mounting bracket , the first roller tray comprising a first roller ; and a second roller tray coupled to the second end mounting bracket and the mid-mounting bracket , the second roller tray comprising a second roller . a guide rail ; a first end mounting bracket coupled to a first end of the guide rail ; a second end mounting bracket coupled to a second end of the guide rail opposite the first end; characterized by a mid-mounting bracket coupled to the guide rail , wherein the mid-mounting bracket is located half-way between the first end mounting bracket and the second end mounting bracket ; a first roller tray coupled to the first end mounting bracket and the mid-mounting bracket , the first roller tray comprising a first roller ; and a second roller tray coupled to the second end mounting bracket and the mid-mounting bracket , the second roller tray comprising a second roller .
A three dimensional printing system comprising: a vertical support extending along a vertical axis; a support plate extending from the vertical support along a first lateral axis from a proximal end to a distal end; a resin vessel disposed above the support plate and having a pair of latch features disposed at opposing ends of the resin vessel relative to a second lateral axis, the vertical axis, the first lateral axis, and the second lateral axis are mutually orthogonal; a pair of latches disposed adjacently to the opposing ends of the resin vessel ; characterised by a movable plate that includes a central opening to provide access to the resin vessel and is configured to engage the pair of latches with a single movement of the movable plate whereby the latches in response engage the latch features of the resin vessel . a vertical support extending along a vertical axis; a support plate extending from the vertical support along a first lateral axis from a proximal end to a distal end; a resin vessel disposed above the support plate and having a pair of latch features disposed at opposing ends of the resin vessel relative to a second lateral axis, the vertical axis, the first lateral axis, and the second lateral axis are mutually orthogonal; a pair of latches disposed adjacently to the opposing ends of the resin vessel ; characterised by a movable plate that includes a central opening to provide access to the resin vessel and is configured to engage the pair of latches with a single movement of the movable plate whereby the latches in response engage the latch features of the resin vessel .
Shift by wire shifter device for controlling a vehicle transmission, the device comprising a selector that is movable relative to a fixed part according to a first shifting movement defined by a first shifting path (P1) and according to a second shifting movement defined by a second shifting path (P2) for selecting gearshift positions, at least one of said shifting paths (P1, P2) extending from different gearshift positions, and said first and second shifting paths (P1, P2) lying on the same plane, and intersecting with each other, with the second shifting path (P2) being defined by a curved line, wherein the selector and the fixed part are directly joined by a joint member such that the first shifting movement is a translational movement and the second shifting movement is a rotational movement defined by the second shifting path (P2) relative to the position of the joint member , wherein it further includes selector position sensing means comprising a lever attached to the selector at one end thereof, a magnet attached to the lever at another end thereof, a sensor located proximate the magnet for determining the position of the selector , characterized in that it further includes at least one ball and socket joint (88a; 88b) for coupling of at least one of the lever to the selector and the magnet to the fixed part .
Room-air treatment system having a, preferably cube-shaped, basic module which has a first air-treatment unit and a control device for controlling the first air-treatment unit ; at least one, in particular cube-shaped, second air-treatment unit ; and coupling elements for coupling the basic module , in particular the first air-treatment unit , to the at least one second air-treatment unit , wherein the control device is configured to control both the first air-treatment unit and the at least one second air-treatment unit ; characterised in that the coupling elements are symmetrically designed, in order to be able to arrange the individual air-treatment units , when these are arranged above one another, so as to be twisted relative to one another about their longitudinal axis, and to be able to vary the alignment of the individual air-treatment units . at least one, in particular cube-shaped, second air-treatment unit ; and coupling elements for coupling the basic module , in particular the first air-treatment unit , to the at least one second air-treatment unit , wherein the control device is configured to control both the first air-treatment unit and the at least one second air-treatment unit ; characterised in that the coupling elements are symmetrically designed, in order to be able to arrange the individual air-treatment units , when these are arranged above one another, so as to be twisted relative to one another about their longitudinal axis, and to be able to vary the alignment of the individual air-treatment units .
An outdoor unit for an air conditioning device, the outdoor unit comprising: - a heat exchanger including (i) heat transfer tubes arranged with a space (S) provided between the heat transfer tubes and each having one end connected to a refrigerant tube to transfer heat of refrigerant contained in the refrigerant tube , and (ii) fins extending from the heat transfer tubes to exchange heat between the heat transfer tubes and outside air; - a first protective member having (i) a first flat plate that covers one-end portions of the heat transfer tubes and an endmost fin of the fins that is located nearest the one-end portions of the heat transfer tubes , and (ii) a first protrusion that protrudes from the first flat plate toward the space (S) between the heat transfer tubes near the one-end portions of the heat transfer tubes ; - a second protective member having (i) a second flat plate that covers one-end portions of the heat transfer tubes and the endmost fin oppositely from the first flat plate , and (ii) a second protrusion that protrudes from the second flat plate toward the space (S) near the one-end portions of the heat transfer tubes ; - a first cover member that covers the first flat plate ; - a second cover member that covers the second flat plate ; and - a housing that houses the heat exchanger , the first protective member , the second protective member , the first cover member , and the second cover member , and that has an inner wall abutting the first cover member and an inner wall abutting the second cover member . - a heat exchanger including (i) heat transfer tubes arranged with a space (S) provided between the heat transfer tubes and each having one end connected to a refrigerant tube to transfer heat of refrigerant contained in the refrigerant tube , and (ii) fins extending from the heat transfer tubes to exchange heat between the heat transfer tubes and outside air; - a first protective member having (i) a first flat plate that covers one-end portions of the heat transfer tubes and an endmost fin of the fins that is located nearest the one-end portions of the heat transfer tubes , and (ii) a first protrusion that protrudes from the first flat plate toward the space (S) between the heat transfer tubes near the one-end portions of the heat transfer tubes ; - a second protective member having (i) a second flat plate that covers one-end portions of the heat transfer tubes and the endmost fin oppositely from the first flat plate , and (ii) a second protrusion that protrudes from the second flat plate toward the space (S) near the one-end portions of the heat transfer tubes ; - a first cover member that covers the first flat plate ; - a second cover member that covers the second flat plate ; and - a housing that houses the heat exchanger , the first protective member , the second protective member , the first cover member , and the second cover member , and that has an inner wall abutting the first cover member and an inner wall abutting the second cover member .
A method for wireless communication comprising: sending configuration information to a terminal device, wherein the configuration information is used to configure a time-domain position of a first resource, the first resource is used to transmit a physical downlink control channel, the configuration information comprises first configuration information and second configuration information, the first configuration information indicates at least one first time-domain unit, each first time-domain unit of the at least one first time-domain unit indicated by the first configuration information comprises the first resource, the second configuration information indicates at least one second time-domain unit in the first time-domain unit indicated by the first configuration information, and each second time-domain unit comprises a part or all of the first resource in time domain; and transmitting the physical downlink control channel to the terminal device on the first resource, wherein the first configuration information indicates an occurrence period of the first time-domain unit, or the first configuration information indicates a time-domain position of the at least one first time-domain unit in a first time period, and the second configuration information indicates a time-domain position of the at least one second time-domain unit in the first time-domain unit. sending configuration information to a terminal device, wherein the configuration information is used to configure a time-domain position of a first resource, the first resource is used to transmit a physical downlink control channel, the configuration information comprises first configuration information and second configuration information, the first configuration information indicates at least one first time-domain unit, each first time-domain unit of the at least one first time-domain unit indicated by the first configuration information comprises the first resource, the second configuration information indicates at least one second time-domain unit in the first time-domain unit indicated by the first configuration information, and each second time-domain unit comprises a part or all of the first resource in time domain; and transmitting the physical downlink control channel to the terminal device on the first resource, wherein the first configuration information indicates an occurrence period of the first time-domain unit, or the first configuration information indicates a time-domain position of the at least one first time-domain unit in a first time period, and the second configuration information indicates a time-domain position of the at least one second time-domain unit in the first time-domain unit.
A wireless communication method that selectively adjusts a beam scanning frequency for wireless transmission comprising: performing beam scanning for wireless transmission at an assigned frequency , wherein the frequency denotes the time period between beam scans; determining a beam variance rate of change, wherein the beam variance is based on the number of changes in selected beams over a number of beam scans; and based at least on the determined beam variance rate of change, adjusting a frequency at which the beam scanning is performed . performing beam scanning for wireless transmission at an assigned frequency , wherein the frequency denotes the time period between beam scans; determining a beam variance rate of change, wherein the beam variance is based on the number of changes in selected beams over a number of beam scans; and based at least on the determined beam variance rate of change, adjusting a frequency at which the beam scanning is performed .