mhurhangee/patent-ind-claim-en huggingface dataset:
A mobility assistance device comprising: a mast ; a first base leg connected to the mast; a second base leg connected to the mast; wherein the first and second base legs form a two-sided base footprint ; and an oxygen tank holder characterised in that it comprises an upper tank holder connected to the mast for coupling with an upper portion of an oxygen tank; and a lower tank holder connected to the first or the second base leg for coupling with a base portion of the oxygen tank. a mast ; a first base leg connected to the mast; a second base leg connected to the mast; wherein the first and second base legs form a two-sided base footprint ; and an oxygen tank holder characterised in that it comprises an upper tank holder connected to the mast for coupling with an upper portion of an oxygen tank; and a lower tank holder connected to the first or the second base leg for coupling with a base portion of the oxygen tank.
A decoration member comprising: a color expression layer comprising a light reflection layer and a light absorption layer provided on the light reflection layer ; and a substrate provided on one surface of the color expression layer , wherein the light absorption layer comprises a copper nickel oxide (Cu a Ni b O x ), and ω represented by Equation 1 is in a range of 0.001 to 0.7 when a component analysis is performed with respect to any one point of the light absorption layer : ω = T x × σ x f T 1 = T 1 T 0 0 < T 1 ≤ T 0 f T 1 = f T 1 + n × T 0 σ x = a + b x × 1.2 wherein, in Equation 1, T x represents a function value depending on T 1 of a function represented by the f(T 1 ), n represents a positive integer of 1 or more, and σ x is represented by Equation 3, wherein, in Equation 2, T 1 represents a thickness of the light absorption layer comprising any one point of the light absorption layer in which the component analysis is performed and T 0 is 60 nm, and wherein, in Equation 3, a means an element content ratio of copper (Cu), b means an element content ratio of nickel (Ni), and x means an element content ratio of oxygen (O). a color expression layer comprising a light reflection layer and a light absorption layer provided on the light reflection layer ; and a substrate provided on one surface of the color expression layer , wherein the light absorption layer comprises a copper nickel oxide (Cu a Ni b O x ), and ω represented by Equation 1 is in a range of 0.001 to 0.7 when a component analysis is performed with respect to any one point of the light absorption layer : ω = T x × σ x f T 1 = T 1 T 0 0 < T 1 ≤ T 0 f T 1 = f T 1 + n × T 0 σ x = a + b x × 1.2 wherein, in Equation 1, T x represents a function value depending on T 1 of a function represented by the f(T 1 ), n represents a positive integer of 1 or more, and σ x is represented by Equation 3, wherein, in Equation 2, T 1 represents a thickness of the light absorption layer comprising any one point of the light absorption layer in which the component analysis is performed and T 0 is 60 nm, and wherein, in Equation 3, a means an element content ratio of copper (Cu), b means an element content ratio of nickel (Ni), and x means an element content ratio of oxygen (O).
A radio physical layer protocol data unit, PPDU, sending method, comprising: obtaining, by a sending apparatus, a PPDU , wherein the PPDU includes a high efficiency-signal field A, HE-SIG-A, and a high efficiency-signal field B, HE-SIG-B; the HE-SIG-A includes a field used to indicate a quantity of OFDM symbols in the HE-SIG-B, wherein a value of the field in the HE-SIG-A field indicates a quantity of OFDM symbols in the HE-SIG-B field is greater than or equal to 16, and the quantity is inferred based on a common field in the HE-SIG-B; and sending, by the sending apparatus, the PPDU . obtaining, by a sending apparatus, a PPDU , wherein the PPDU includes a high efficiency-signal field A, HE-SIG-A, and a high efficiency-signal field B, HE-SIG-B; the HE-SIG-A includes a field used to indicate a quantity of OFDM symbols in the HE-SIG-B, wherein a value of the field in the HE-SIG-A field indicates a quantity of OFDM symbols in the HE-SIG-B field is greater than or equal to 16, and the quantity is inferred based on a common field in the HE-SIG-B; and sending, by the sending apparatus, the PPDU .
A computer-implemented method for rendering vector data in conjunction with a three-dimensional model , comprising: presenting a viewport in a user interface on a display device ; rendering the three-dimensional model in the viewport ; based on a depth offset, generating a transparent layer overlaying the three-dimensional model , the transparent layer being offset in a depth direction by the depth offset from a surface of the three-dimensional model; and texture mapping the vector data to the transparent layer such that the vector data appears to be located along a surface of the three-dimensional model in the viewport , wherein the transparent layer has been generated based at least in part on a smoothing algorithm. presenting a viewport in a user interface on a display device ; rendering the three-dimensional model in the viewport ; based on a depth offset, generating a transparent layer overlaying the three-dimensional model , the transparent layer being offset in a depth direction by the depth offset from a surface of the three-dimensional model; and texture mapping the vector data to the transparent layer such that the vector data appears to be located along a surface of the three-dimensional model in the viewport ,
A spraying unit for the spraying of a liquid in the form of droplets for the treatment of a target , such as, for example, a hedge of vegetation, said spraying unit including a nozzle formed by a conduit that extends along a longitudinal axis (X), delimiting on the inside a main inner space and being open at its ends to form an air inlet opening and an air outlet opening , the main inner space receiving at least one rotary atomizer mounted in rotation around a first axis of rotation (X1), directing means for directing the liquid, originating from a supply system with a controlled variable flow rate, as far as the rotary atomizer , a fan comprising at least one propeller mounted in rotation around a second axis of rotation (X2) and making it possible to generate a stream of carrier air in the main inner space toward and beyond the air outlet opening and a drive system with electric motor(s) making it possible to ensure driving in rotation of said rotary atomizer and propeller, means for connecting to an electrical energy source for providing the electrical energy to the drive system , and an inner fuselage that has an aerodynamic profile defined by a lateral surface delimiting on the inside a secondary inner space and being kept axially in the main inner space between the fan and the air outlet opening in such a way as to define, between the fuselage and the nozzle , an annular channel for circulation of the stream of carrier air surrounding said fuselage, the spraying unit characterized in that said rotary atomizer includes a receiving surface that is provided to receive the liquid and to ensure exclusively, on its periphery or its end , in the state of rotation of said rotary atomizer, the breaking up of the liquid into droplets and their propulsion into the stream of carrier air, and in that the fuselage includes a rotary section that is formed by the rotary atomizer in such a way that the periphery or the end of the receiving surface substantially fits within the lateral surface of the fuselage while making possible the rotation of the rotary atomizer and the propulsion, preferably substantially perpendicular to the longitudinal axis (X), of the droplets in said channel to be incorporated in the air stream.
A lithium secondary battery which comprises a cylindrical jelly roll in which a sheet-like electrode assembly having a stacked structure of a sheet-like positive electrode , a sheet-like separator and a sheet-like negative electrode is wound cylindrically, wherein a semi-cylindrical first winding core and second winding core are spaced apart from each other by a predetermined interval at a core portion of the cylindrical jelly roll , while facing each other, so that the core portion comprises a winding core member having a cylindrical shape as a whole; the sheet-like positive electrode comprises a non-coated portion sheet that is positioned at one end of the positive electrode, is not coated with an active material and has a positive electrode tab fused thereto and a coated portion sheet which occupies the whole portion of the positive electrode except the non-coated portion sheet of the positive electrode and is coated with an active material, and the non-coated portion sheet and the coated portion sheet are attached to the positive electrode by a tape , in a state where they are overlapped with each other by a predetermined length; the non-coated portion of the sheet-like positive electrode is positioned at the core portion of the cylindrical jelly roll ; and the portion of the sheet-like positive electrode having the tape is positioned around the circumference of the winding core member, with the proviso that the portion of the sheet-like positive electrode having the tape avoids the portion where the first winding core is spaced apart from the second winding core by a predetermined interval.
A system to determine an extent of a power or service outage, the system comprising: at least one central facility server coupled for communications with at least one remotely configurable gateway over an Internet Protocol, IP, based communications network , wherein the at least one remotely configurable gateway is coupled for communications with at least one meter ; wherein the at least one central facility server is configured to reconfigure at least one remotely configurable gateway by multicasting configuration data to the at least one remotely configurable gateway to report data from every meter that it hears, wherein the reported data is used to determine the extent of the power or service outage by identifying Internet Service Providers, ISPs, or a customer's premises equipment, CPE, of the meters which have lost and regained power, wherein gateways previously configured to report data from the at least one meter that they were paired with are reconfigured to report data from all meters that they can hear. at least one central facility server coupled for communications with at least one remotely configurable gateway over an Internet Protocol, IP, based communications network , wherein the at least one remotely configurable gateway is coupled for communications with at least one meter ; wherein the at least one central facility server is configured to reconfigure at least one remotely configurable gateway by multicasting configuration data to the at least one remotely configurable gateway to report data from every meter that it hears, wherein the reported data is used to determine the extent of the power or service outage by identifying Internet Service Providers, ISPs, or a customer's premises equipment, CPE, of the meters which have lost and regained power, wherein gateways previously configured to report data from the at least one meter that they were paired with are reconfigured to report data from all meters that they can hear.
Process for the recovery of one or more transition metals, and lithium as Li-salt, typically from a material comprising waste lithium ion batteries or parts thereof, which process comprises the steps of (a) providing a particulate material containing a transition metal compound and/or transition metal, the transition metal being selected from the group consisting of Ni and Co, and at least a fraction of said Ni and/or Co are in an oxidation state lower than +2; which particulate material further contains a lithium salt; (b) treating the material provided in step (a) with a polar solvent, typically a protic solvent; (c) separating the solid residue containing the transition metal from the liquid, optionally followed by subjecting said solid residue to a solid-solid separation for the removal of transition metal such as Ni; and (d) treating the solids containing the transition metal in a smelting furnace to obtain a metal melt containing Ni and/or Co; provided that, in case that the solid residue separated in step (c) is subjected to said solid-solid separation for the removal of transition metal such as Ni before carrying out present step (d), the polar solvent used in step (b) contains an alkaline earth hydroxide. (a) providing a particulate material containing a transition metal compound and/or transition metal, the transition metal being selected from the group consisting of Ni and Co, and at least a fraction of said Ni and/or Co are in an oxidation state lower than +2; which particulate material further contains a lithium salt; (b) treating the material provided in step (a) with a polar solvent, typically a protic solvent; (c) separating the solid residue containing the transition metal from the liquid, optionally followed by subjecting said solid residue to a solid-solid separation for the removal of transition metal such as Ni; and (d) treating the solids containing the transition metal in a smelting furnace to obtain a metal melt containing Ni and/or Co;
Method for producing a hardened sheet metal product comprising the steps of: - placing a sheet metal piece in a heating station , - heating selected areas of the sheet metal piece in the heating station by means of induction, wherein a coil induces alternating currents that flow in a front metal layer (9; 25) on a front side of the coil , where heating is intended to take place, and first and second opposing ends of the front metal layer (9; 25) are interconnected by a short-circuiting arrangement running on a rear side of the coil , the short-circuiting arrangement comprising a material with lower resistivity than the front metal layer (9; 25), - moving the heated sheet metal piece to a pressing station , and - pressing the sheet metal piece while cooling said heated areas . - placing a sheet metal piece in a heating station , - heating selected areas of the sheet metal piece in the heating station by means of induction, wherein a coil induces alternating currents that flow in a front metal layer (9; 25) on a front side of the coil , where heating is intended to take place, and first and second opposing ends of the front metal layer (9; 25) are interconnected by a short-circuiting arrangement running on a rear side of the coil , the short-circuiting arrangement comprising a material with lower resistivity than the front metal layer (9; 25), - moving the heated sheet metal piece to a pressing station , and - pressing the sheet metal piece while cooling said heated areas .
A trajectory frame for use with a surgical system, comprising: a base having a patient access aperture formed therein, wherein the base is configured to be secured to a body of a patient; a yoke movably mounted to the base and rotatable about a roll axis; a platform movably mounted to the yoke and rotatable about a pitch axis; an elongated guide secured to the platform, wherein the guide comprises opposite proximal and distal end portions, wherein the guide distal end portion is positioned proximate the patient access aperture, wherein the guide comprises a bore therethrough that extends from the proximal end portion to the distal end portion, and at least one device received by the guide within the bore, wherein the at least one device is removably secured to the guide, characterised in that the at least one device that is received within the bore is an elongate tracking probe mount (1160; 1190m) holding a tracking probe (1162; 1190) with reflective members (1164; 1194) arranged in a fixed geometric relationship relative to each other, and wherein the reflective members are configured to be detectable by a camera-based tracking system (10N/10T) wherein the tracking probe mount (1160; 1190m) and the trajectory frame comprise image fiducials detectable in CT and/or MRI images to thereby allow a circuit to calculate an intrabody trajectory using two different methods, one calculated using image interrogation of images with the image fiducials and another calculated using a camera-based system with the reflective members. a base having a patient access aperture formed therein, wherein the base is configured to be secured to a body of a patient; a yoke movably mounted to the base and rotatable about a roll axis; a platform movably mounted to the yoke and rotatable about a pitch axis; an elongated guide secured to the platform, wherein the guide comprises opposite proximal and distal end portions, wherein the guide distal end portion is positioned proximate the patient access aperture, wherein the guide comprises a bore therethrough that extends from the proximal end portion to the distal end portion, and at least one device received by the guide within the bore, wherein the at least one device is removably secured to the guide, characterised in that the at least one device that is received within the bore is an elongate tracking probe mount (1160; 1190m) holding a tracking probe (1162; 1190) with reflective members (1164; 1194) arranged in a fixed geometric relationship relative to each other, and wherein the reflective members are configured to be detectable by a camera-based tracking system (10N/10T) wherein the tracking probe mount (1160; 1190m) and the trajectory frame comprise image fiducials detectable in CT and/or MRI images to thereby allow a circuit to calculate an intrabody trajectory using two different methods, one calculated using image interrogation of images with the image fiducials and another calculated using a camera-based system with the reflective members.
A support structure for road equipment , comprising a pole , formed by a hollow cylindrical, elliptical, prismatic, polygonal, truncated pyramid-shaped, or truncated cone-shaped mast, comprising a lower end (2.1) adapted for being fixed to a terrain by means of a foundation , and a connecting device adapted for being arranged between the lower end (2.1) of the pole and the foundation , wherein the connecting device comprises a hollow drum (1.1), having a circular, elliptical, or polygonal cross-section, adapted for being arranged with its longitudinal axis parallel to a longitudinal axis of the pole , the hollow drum (1.1) comprising a first end (1.11), a second end (1.12), and a central part (1.13) arranged between said ends (1.11, 1.12), where the first end (1.11) is adapted for being fixed to the foundation by means of an anchoring piece (1.2) which is connected to said first end (1.11) of the hollow drum (1.1), the hollow drum (1.1) is adapted for fitting onto the outside of the lower end (2.1) of the pole , and the second end (1.12) is fixed to the lower end (2.1) of the pole , such that in use, the second end (1.12) of the hollow drum (1.1), which is fixed to the lower end (2.1) of the pole , is arranged below the anchoring piece (1.2) for anchoring to the foundation , and the hollow drum (1.1) and the lower end (2.1) of the pole are arranged inside a hollow space (4.1) formed in the foundation , characterized in that the central part (1.13) of the hollow drum (1.1) comprises a wall portion configured for deforming in a controlled manner under compression when an impact force (F) acts on the pole , such that the lower end (2.1) of the pole is adapted for being displaced upwards or being raised and twisted in the direction of the impact force (F), the lower end (2.1) of the pole remaining fixed to the second end (1.12) of the hollow drum (1.1).
A computing device comprising: a processor; a kernel-mode component configured to be operated by the processor to perform at least one of monitoring, analysis, reporting, or remediation; and an integrity manager configured to be operated by the processor to determine integrity of the kernel-mode component by: detecting that a system action associated with a known reaction has occurred; determining whether the known reaction occurred responsive to the system action, wherein the known reaction includes generation of an event and processing of the event; and in response to determining that the known reaction did not occur, performing at least one of a remediation action or notifying a remote security service. a processor; a kernel-mode component configured to be operated by the processor to perform at least one of monitoring, analysis, reporting, or remediation; and an integrity manager configured to be operated by the processor to determine integrity of the kernel-mode component by: detecting that a system action associated with a known reaction has occurred; determining whether the known reaction occurred responsive to the system action, wherein the known reaction includes generation of an event and processing of the event; and in response to determining that the known reaction did not occur, performing at least one of a remediation action or notifying a remote security service. detecting that a system action associated with a known reaction has occurred; determining whether the known reaction occurred responsive to the system action, wherein the known reaction includes generation of an event and processing of the event; and in response to determining that the known reaction did not occur, performing at least one of a remediation action or notifying a remote security service.
A cardiopulmonary resuscitation, CPR, device for enhancing the delivery of CPR to a patient, the device comprising: a patient side for engagement with the chest of the patient; and a user side for engagement with the hands of a user delivering CPR to the patient, wherein one or more of the surface of the patient side and the surface of the user side is at least partially formed of a material with variable contact characteristics configured to be controlled so as to regulate the lateral force distribution profile at the one or more of the surface of the patient side and the surface of the user side from a force applied to the device by the user and transferred through the device to the patient. a patient side for engagement with the chest of the patient; and a user side for engagement with the hands of a user delivering CPR to the patient, wherein one or more of the surface of the patient side and the surface of the user side is at least partially formed of a material with variable contact characteristics configured to be controlled so as to regulate the lateral force distribution profile at the one or more of the surface of the patient side and the surface of the user side from a force applied to the device by the user and transferred through the device to the patient.