mhurhangee/patent-ind-claim-en huggingface dataset:
A mobile computing device configured to provide access to visually obscured elements of a three-dimensional model, the device comprising: a touchscreen configured to receive touch input from a user, the touchscreen configured to display a view plane of the three-dimensional model showing at least one visible element , the at least one visible element at least partially obstructing at least one visually obscured element of the three-dimensional model, a processor , and a memory storing instructions that, when executed by the processor , cause the mobile computing device to: in response to a first touch input, define a region (401; 605) at a location on the touchscreen associated with the at least one visible element of the three-dimensional model, and to define at least one visually obscured element to include elements of the three-dimensional model that intersect with a volume defined by the region (401; 605), the location on the touchscreen, and a vector that is orthogonal to the view plane, and in response to a second touch input relating to the region (401; 605), superimpose a representation of the at least one visually obscured element (410; 415; 420) over the view plane . a touchscreen configured to receive touch input from a user, the touchscreen configured to display a view plane of the three-dimensional model showing at least one visible element , the at least one visible element at least partially obstructing at least one visually obscured element of the three-dimensional model, a processor , and a memory storing instructions that, when executed by the processor , cause the mobile computing device to: in response to a first touch input, define a region (401; 605) at a location on the touchscreen associated with the at least one visible element of the three-dimensional model, and to define at least one visually obscured element to include elements of the three-dimensional model that intersect with a volume defined by the region (401; 605), the location on the touchscreen, and a vector that is orthogonal to the view plane, and in response to a second touch input relating to the region (401; 605), superimpose a representation of the at least one visually obscured element (410; 415; 420) over the view plane . in response to a first touch input, define a region (401; 605) at a location on the touchscreen associated with the at least one visible element of the three-dimensional model, and to define at least one visually obscured element to include elements of the three-dimensional model that intersect with a volume defined by the region (401; 605), the location on the touchscreen, and a vector that is orthogonal to the view plane, and in response to a second touch input relating to the region (401; 605), superimpose a representation of the at least one visually obscured element (410; 415; 420) over the view plane .
A milling attachment for a work machine, comprising: a frame including first and second frame side walls ; a milling drum including first and second drum mounting flanges ; a motor mounting plate removably mounted on the second frame side wall ; a first drive motor mounted on the first frame side wall and including a drive end connected to the first drum mounting flange by a plurality of threaded fasteners ; and a second drive motor mounted on the motor mounting plate and connected to the second drum mounting flange by a stab-in non-threaded connector . a frame including first and second frame side walls ; a milling drum including first and second drum mounting flanges ; a motor mounting plate removably mounted on the second frame side wall ; a first drive motor mounted on the first frame side wall and including a drive end connected to the first drum mounting flange by a plurality of threaded fasteners ; and a second drive motor mounted on the motor mounting plate and connected to the second drum mounting flange by a stab-in non-threaded connector .
An in-vitro method for detecting lung cancer, characterized by measuring from a human biological sample the amount of a putative N-glycosylation site of pancreatic ribonuclease 1 linked with an N-glycan chain or not linked with an N-glycan chain.
A negative electrode active material for electric device comprising a silicon-containing alloy having a composition represented by the following Chemical Formula (I): [Chemical Formula 1] Si x Sn y M z A a (I) (in Chemical Formula (I) above, A is unavoidable impurities, M is one or two or more transition metal elements, x, y, z, and a represent values of percent by mass, and 0 < x < 100, 0 < y < 100, 7 < z < 100, and 0 ≤ a < 0.5 and x + y + z + a= 100), wherein a lattice image of the silicon-containing alloy obtained by using a transmission electron microscope (TEM) is subjected to Fourier transform processing to obtain a diffraction pattern, and a distance between Si regular tetrahedrons is 0.48 nm or more when the distance between Si regular tetrahedrons in an amorphous region is calculated from a Fourier image obtained by subjecting a diffraction ring portion present in a width of from 0.7 to 1.0 when the distance between Si regular tetrahedrons is 1.0 in the diffraction pattern to inverse Fourier transform, wherein the negative electrode active material further comprises an alloy having a first phase containing silicon as a main body to form a parent phase, wherein a second phase containing a silicide of the transition metal and silicon is dispersed in the first phase, wherein the negative electrode active material has been produced by a method comprising an alloying treatment in a ball mill apparatus operated at 500 rpm or more, the time for the alloying treatment being 10 hours or longer, and/or by a liquid quenching method comprising quenching and solidifying molten material obtained by melting the raw materials, cooling and rapid solidification. M is one or two or more transition metal elements, x, y, z, and a represent values of percent by mass, and 0 < x < 100, 0 < y < 100, 7 < z < 100, and 0 ≤ a < 0.5 and x + y + z + a= 100), wherein a lattice image of the silicon-containing alloy obtained by using a transmission electron microscope (TEM) is subjected to Fourier transform processing to obtain a diffraction pattern, and a distance between Si regular tetrahedrons is 0.48 nm or more when the distance between Si regular tetrahedrons in an amorphous region is calculated from a Fourier image obtained by subjecting a diffraction ring portion present in a width of from 0.7 to 1.0 when the distance between Si regular tetrahedrons is 1.0 in the diffraction pattern to inverse Fourier transform, wherein the negative electrode active material further comprises an alloy having a first phase containing silicon as a main body to form a parent phase, wherein a second phase containing a silicide of the transition metal and silicon is dispersed in the first phase, wherein the negative electrode active material has been produced by a method comprising an alloying treatment in a ball mill apparatus operated at 500 rpm or more, the time for the alloying treatment being 10 hours or longer, and/or by a liquid quenching method comprising quenching and solidifying molten material obtained by melting the raw materials, cooling and rapid solidification.
A radio frequency identification, RFID, system , comprising: an RFID tag including a flexible substrate foldable between a planar configuration and a tubular configuration, a conductive element disposed at least on a first side of the flexible substrate, and an RFID tag chip disposed at least on the first side of the flexible substrate electrically coupled with the conductive element; a capsule structured and dimensioned for ingestion by a biological subject, the capsule including a shell structured and dimensioned to enclose a medication for the biological subject simultaneously with the RFID tag when the flexible substrate is in the tubular configuration, but not when the flexible substrate is in the planar configuration; and a pH switch structure coupled to an exterior surface of the capsule, the pH switch configured to deactivate the RFID tag in a first configuration of the pH switch structure and to permit activation of the RFID tag in a second configuration of the pH switch structure within the biological subject, characterized in that the pH switch structure includes an electrically conductive material having a shorted turned structure coupled to the exterior surface of the capsule, wherein a portion of the shorted turn structure has a material thickness that is thinner than the other portions of the shorted turn structure, and wherein the shorted turn structure configured to absorb energy transmitted between an RFID reader and the RFID tag. an RFID tag including a flexible substrate foldable between a planar configuration and a tubular configuration, a conductive element disposed at least on a first side of the flexible substrate, and an RFID tag chip disposed at least on the first side of the flexible substrate electrically coupled with the conductive element; a flexible substrate foldable between a planar configuration and a tubular configuration, a conductive element disposed at least on a first side of the flexible substrate, and an RFID tag chip disposed at least on the first side of the flexible substrate electrically coupled with the conductive element; a capsule structured and dimensioned for ingestion by a biological subject, the capsule including a shell structured and dimensioned to enclose a medication for the biological subject simultaneously with the RFID tag when the flexible substrate is in the tubular configuration, but not when the flexible substrate is in the planar configuration; and a pH switch structure coupled to an exterior surface of the capsule, the pH switch configured to deactivate the RFID tag in a first configuration of the pH switch structure and to permit activation of the RFID tag in a second configuration of the pH switch structure within the biological subject, characterized in that the pH switch structure includes an electrically conductive material having a shorted turned structure coupled to the exterior surface of the capsule, wherein a portion of the shorted turn structure has a material thickness that is thinner than the other portions of the shorted turn structure, and wherein the shorted turn structure configured to absorb energy transmitted between an RFID reader and the RFID tag.
A method for providing a three-dimensional object , the method comprising the steps of: • providing a representation of the three-dimensional object ; • determining a polygon mesh of a polyhedral resembling the object , wherein the polyhedral fits within the object ; • determining a surface difference between an outer surface of the object and an outer surface of the polyhedral ; and • defining a relief layer corresponding to the polygon mesh based on said surface difference; and • instructing a printing assembly to provide the relief layer ; the method characterized by the step of • folding the relief layer in accordance with the polygon mesh to form the polyhedral resembling the three-dimensional object . • providing a representation of the three-dimensional object ; • determining a polygon mesh of a polyhedral resembling the object , wherein the polyhedral fits within the object ; • determining a surface difference between an outer surface of the object and an outer surface of the polyhedral ; and • defining a relief layer corresponding to the polygon mesh based on said surface difference; and • instructing a printing assembly to provide the relief layer ; the method characterized by the step of • folding the relief layer in accordance with the polygon mesh to form the polyhedral resembling the three-dimensional object .
A hydratable concentrated surfactant composition comprising: a) an anionic surfactant; b) an zwitterionic surfactant; c) from 1 to 16% by weight C 6 -C 14 acid, with the proviso that when the zwitterionic surfactant to anionic surfactant weight ratio is less than 1.5, structuring agent makes up 27% by weight or less of the total weight of surfactant in the composition, d) from 30 to 85% by weight water, and e) from 0.5 to 5% by weight of at least one of a mono- di- or tri-hydroxyfunctionalized compound having a weight percent of oxygen from 8 to 35, wherein the amount of oil in the hydratable concentrated surfactant composition is less than 0.3% by weight of the end use composition, and wherein the amount of sulphate is less than 6.0% by weight of the end use composition, and preferably, is free of oil and sulphate. a) an anionic surfactant; b) an zwitterionic surfactant; c) from 1 to 16% by weight C 6 -C 14 acid, with the proviso that when the zwitterionic surfactant to anionic surfactant weight ratio is less than 1.5, structuring agent makes up 27% by weight or less of the total weight of surfactant in the composition, d) from 30 to 85% by weight water, and e) from 0.5 to 5% by weight of at least one of a mono- di- or tri-hydroxyfunctionalized compound having a weight percent of oxygen from 8 to 35,
A method of controlling the distribution of electronic assets to a test application in a manufacturing process, said method comprising: providing a daemon application programming interface (API) on an instance of said test application to provide assets upon detecting a request therefor, and to obtain log data from said instance of said test application during testing; initiating a daemon in connection with said daemon API to obtain said log data from said daemon API and to provide said assets to said daemon API, said daemon hosting an agent API for communicating with an appliance remote to said instance of said test application; utilizing said agent API to obtain a batch comprising a plurality of assets and to provide one or more log reports containing said log data separately from said instance of said test application; and said daemon: caching said assets to provide a quantity of said assets to said daemon API upon request therefrom to enable said daemon API to provide said assets to said instance of said test application thereby avoiding session establishment between said instance of said test application and said appliance for obtaining said electronic assets; and maintaining a record of assets not used when said instance of said test application terminates for a next instance of the test application. providing a daemon application programming interface (API) on an instance of said test application to provide assets upon detecting a request therefor, and to obtain log data from said instance of said test application during testing; initiating a daemon in connection with said daemon API to obtain said log data from said daemon API and to provide said assets to said daemon API, said daemon hosting an agent API for communicating with an appliance remote to said instance of said test application; utilizing said agent API to obtain a batch comprising a plurality of assets and to provide one or more log reports containing said log data separately from said instance of said test application; and said daemon: caching said assets to provide a quantity of said assets to said daemon API upon request therefrom to enable said daemon API to provide said assets to said instance of said test application thereby avoiding session establishment between said instance of said test application and said appliance for obtaining said electronic assets; and maintaining a record of assets not used when said instance of said test application terminates for a next instance of the test application.
Drivable axle for a vehicle, in particular a rigid axle, comprising an axle beam , configured for receiving an axle shaft, and a receiving structure for receiving a vehicle element for incorporation into a drive train, the receiving structure being connected to the axle beam , the receiving structure being configured to receive a drive unit of the vehicle and having openings for connection to the axle shaft, characterized in that the receiving structure has at least one fixing region which has at least one damping element for fixing the drive unit in a vibration-damping manner on the receiving structure . an axle beam , configured for receiving an axle shaft, and a receiving structure for receiving a vehicle element for incorporation into a drive train, the receiving structure being connected to the axle beam , the receiving structure being configured to receive a drive unit of the vehicle and having openings for connection to the axle shaft, characterized in that the receiving structure has at least one fixing region which has at least one damping element for fixing the drive unit in a vibration-damping manner on the receiving structure .
A key management method in a first-type electronic control unit out of a plurality of electronic control units (ECUs) in an onboard network system installed in a vehicle, the onboard network system having the plurality of electronic control units (ECUs) that perform communication by frames via a network of the onboard network system , the method comprising: storing a shared key to be mutually shared with one or more second-type electronic control units (100a-100d) other than the first-type electronic control unit , for transmission of a session key used for encryption relating to a frame transmitted or received via the network, the shared key also being stored in the one or more second-type electronic control units (100a-100d) other than the first-type electronic control unit ; characterised by skipping inspection of a security state of the shared key stored by driving system electronic control units related to driving, out of the one or more second-type electronic control units (100a-100d) other than the first-type electronic control unit , and executing inspection of a security state of the shared key stored by the second-type electronic control units (100b-100d) other than the driving system electronic control units , in a state where the vehicle is driving. storing a shared key to be mutually shared with one or more second-type electronic control units (100a-100d) other than the first-type electronic control unit , for transmission of a session key used for encryption relating to a frame transmitted or received via the network, the shared key also being stored in the one or more second-type electronic control units (100a-100d) other than the first-type electronic control unit ; characterised by skipping inspection of a security state of the shared key stored by driving system electronic control units related to driving, out of the one or more second-type electronic control units (100a-100d) other than the first-type electronic control unit , and executing inspection of a security state of the shared key stored by the second-type electronic control units (100b-100d) other than the driving system electronic control units , in a state where the vehicle is driving.
An ablation catheter comprising: an elongate catheter body having a central axis, a distal end, and a proximal end, said elongate catheter body configured to be steered within a body cavity; and a branch electrode element having a base end and a working end, wherein the base end is secured to the elongate catheter body at a location spaced proximally of the distal end and an effector on the working end, wherein the branch electrode element is configured to evert when the distal end of the elongate catheter body is in the body cavity so that the effector can be selectively engaged against tissue locations surrounding an opening into the body cavity which differ in radial direction and distance, characterised by a constraint coupled to the branch electrode element to adjust an amount of eversion of the branch electrode element, wherein the constraint is configured to be translated relative to one or more of the elongate catheter body or the branch electrode element to adjust the amount of eversion of the branch electrode element; and a push-pull wire coupled to the elongate catheter body and the constraint, wherein the push-pull wire is configured to be translated to adjust the amount of eversion of the branch electrode element. an elongate catheter body having a central axis, a distal end, and a proximal end, said elongate catheter body configured to be steered within a body cavity; and a branch electrode element having a base end and a working end, wherein the base end is secured to the elongate catheter body at a location spaced proximally of the distal end and an effector on the working end, wherein the branch electrode element is configured to evert when the distal end of the elongate catheter body is in the body cavity so that the effector can be selectively engaged against tissue locations surrounding an opening into the body cavity which differ in radial direction and distance, characterised by a constraint coupled to the branch electrode element to adjust an amount of eversion of the branch electrode element, wherein the constraint is configured to be translated relative to one or more of the elongate catheter body or the branch electrode element to adjust the amount of eversion of the branch electrode element; and a push-pull wire coupled to the elongate catheter body and the constraint, wherein the push-pull wire is configured to be translated to adjust the amount of eversion of the branch electrode element.
A semiconductor device, comprising: a substrate including a p-channel metal-oxide-semiconductor, PMOS, region (A), an N-well tap forming region (B), and a boundary region (C) between the PMOS region and the N-well tap forming region; PMOS field effect transistors on the PMOS region; an N-well tap region doped with N-type impurities in the N-well tap forming region; a first metal pattern connected to at least one impurity region of the PMOS field effect transistors, wherein the first metal pattern extends so that an end of the first metal pattern is positioned on the boundary region; a second metal pattern electrically connected to the N-well tap region, wherein the second metal pattern extends so that an end of the second metal pattern is positioned on the boundary region; a first contact plug on the first metal pattern; a second contact plug on the second metal pattern; and an upper wiring on the first and second contact plugs. a substrate including a p-channel metal-oxide-semiconductor, PMOS, region (A), an N-well tap forming region (B), and a boundary region (C) between the PMOS region and the N-well tap forming region; PMOS field effect transistors on the PMOS region; an N-well tap region doped with N-type impurities in the N-well tap forming region; a first metal pattern connected to at least one impurity region of the PMOS field effect transistors, wherein the first metal pattern extends so that an end of the first metal pattern is positioned on the boundary region; a second metal pattern electrically connected to the N-well tap region, wherein the second metal pattern extends so that an end of the second metal pattern is positioned on the boundary region; a first contact plug on the first metal pattern; a second contact plug on the second metal pattern; and an upper wiring on the first and second contact plugs.