mhurhangee/patent-ind-claim-en huggingface dataset:
A housing for an electronic device, the housing comprising: a woven material comprising TPU, thermoplastic polyurethane, yarns and holes between the TPU yarns; and a light emission module comprising light emitting circuitry and disposed behind a surface of the woven material, wherein the light emission module is configured to emit light through the woven material , characterized in that said light emission module is further configured to display varying information about the electronic device in a form of variable light pattern, on the surface of the woven material , based on the light being transmitted through at least one of the TPU yarns, and in that the TPU yarn includes a transparent core and TPU coating surrounding the core, the core comprising a transparent monofilament . a woven material comprising TPU, thermoplastic polyurethane, yarns and holes between the TPU yarns; and a light emission module comprising light emitting circuitry and disposed behind a surface of the woven material,
Organic molecule, comprising a structure of formula I wherein T, V, W, X, Y is independently selected from the group consisting of H and tert-butyl; R T , R V , R W , R X , R Y is independently selected from the group consisting of H and tert-butyl; wherein at least one kind of substituent selected from the group consisting of T, V, W, X, Y, R T , R V , R W , R X , R Y is tert-butyl at each occurrence. T, V, W, X, Y is independently selected from the group consisting of H and tert-butyl; R T , R V , R W , R X , R Y is independently selected from the group consisting of H and tert-butyl; wherein at least one kind of substituent selected from the group consisting of T, V, W, X, Y, R T , R V , R W , R X , R Y is tert-butyl at each occurrence.
Linear transport system, comprising an assembly composed of multiple mutually adjacently arranged linear transport system modules , and a vehicle with a carrier , wherein each transport system module has a stator device , wherein each stator device comprises multiple magnetic field generators which have at least one coil and which can be individually electrically energized, wherein the magnetic field generators of the stator device define a travelling path for the vehicle, along which the vehicle can be moved, wherein a first linear transport system module is of straight form and a second linear transport system module is of arcuate form, and wherein the carrier of the vehicle comprises at least one reaction part which is designed to interact with the magnetic field formed by means of the magnetic field generators of the assembly , characterized in that tunnels are formed in the individual stator devices , and a multiplicity of mutually adjacently arranged stator devices forms an overall tunnel, in which circuit boards for the electrical contacting of mutually adjacently arranged stator devices can be inserted, wherein electrical connecting means for the electrical contacting between electrical components of the stator devices and the inserted circuit boards are arranged in the tunnels.
A vinylidene fluoride resin fiber obtained using a plurality of vinylidene fluoride resin filaments, the fiber having a glass transition temperature of not lower than -28°C and a thermal shrinkage at 100°C of not less than 2%, wherein the inherent viscosity of the vinylidene fluoride resin is not less than 0.75 dL/g and not greater than 0.90 dL/g, wherein the glass transition temperature, the thermal shrinkage and the inherent viscosity are determined using the respective methods disclosed herein.
A threaded connection for pipe or tube comprising a pin and a box , the pin and the box each including a contact surface that includes a thread portion and an unthreaded metal contact portion , the threaded connection for pipe or tube characterized by comprising: on the contact surface of at least one of the pin and the box , a first plating layer consisting of a Zn-Ni alloy having Ni content of 10 to 15 mass% and having a thickness of at least 1 μm; a second plating layer on the first plating layer , the second plating layer consisting of Zn or a Zn alloy having a porosity of 5 to 80% and having a thickness of at least 2 μm; and a lubricating coating on the second plating layer . on the contact surface of at least one of the pin and the box , a first plating layer consisting of a Zn-Ni alloy having Ni content of 10 to 15 mass% and having a thickness of at least 1 μm; a second plating layer on the first plating layer , the second plating layer consisting of Zn or a Zn alloy having a porosity of 5 to 80% and having a thickness of at least 2 μm; and a lubricating coating on the second plating layer .
A safety system for a working vehicle comprising a working equipment , e.g. a crane or a working tool, the safety system comprises a control unit , a controller , e.g. a remote controller, configured to control said working equipment , and a display unit , wherein said control unit is configured to: - define a set of three-dimensional safety spaces in relation to the vehicle , wherein each safety space is defined by a data representation of boundaries of the safety space, wherein one of said safety spaces in said set of safety spaces is around said controller , - present at least one safety space from said set of safety spaces on said display unit , characterised by said at least one safety space being presented overlaid on an image of at least a part of the working vehicle and working equipment , and wherein each presented safety space being presented in a position, defined by space position parameters, in relation to the working vehicle and working equipment, and wherein said control unit is further configured to: - receive a first input signal comprising space position parameters representing at least one chosen safety space among the presented safety spaces, and to designate each at least one chosen safety space as an active safety space , and to - receive a second input signal comprising a safety space state command either allowing or preventing said working equipment to be moved into said at least one active safety space , and to apply a state command signal to said controller that in turn is configured to control said working equipment in dependence of said safety space state command. - define a set of three-dimensional safety spaces in relation to the vehicle , wherein each safety space is defined by a data representation of boundaries of the safety space, wherein one of said safety spaces in said set of safety spaces is around said controller , - present at least one safety space from said set of safety spaces on said display unit , characterised by said at least one safety space being presented overlaid on an image of at least a part of the working vehicle and working equipment , and wherein each presented safety space being presented in a position, defined by space position parameters, in relation to the working vehicle and working equipment, and wherein said control unit is further configured to: - receive a first input signal comprising space position parameters representing at least one chosen safety space among the presented safety spaces, and to designate each at least one chosen safety space as an active safety space , and to - receive a second input signal comprising a safety space state command either allowing or preventing said working equipment to be moved into said at least one active safety space , and to apply a state command signal to said controller that in turn is configured to control said working equipment in dependence of said safety space state command.
A metadata processing method in a storage device, wherein the method comprises: receiving , by a network interface card in the storage device, an input/output IO request, wherein the IO request comprises a data read request or a data write request; executing , by the network interface card, a metadata processing task corresponding to the IO request; and when the network interface card determines that the metadata processing task fails to be executed, requesting , by the network interface card, a central processing unit, CPU in the storage device to execute the metadata processing task; characterized in that when the IO request is a data read request, a case in which the metadata processing task fails to be executed comprises: an address length of a logical address carried in the data read request exceeds a length threshold. receiving , by a network interface card in the storage device, an input/output IO request, wherein the IO request comprises a data read request or a data write request; executing , by the network interface card, a metadata processing task corresponding to the IO request; and when the network interface card determines that the metadata processing task fails to be executed, requesting , by the network interface card, a central processing unit, CPU in the storage device to execute the metadata processing task; characterized in that when the IO request is a data read request, a case in which the metadata processing task fails to be executed comprises: an address length of a logical address carried in the data read request exceeds a length threshold.
Method for planning a surgical intervention during which an implant is implanted in a patient's anatomical structure, comprising: - computing at least one pseudo-radiographic image from a 3D image of the anatomical structure, said pseudo-radiographic image being a 2D image wherein each pixel integrates the information of the 3D image along a determined direction of integration, said determined direction of integration being selected based on the planned position of the implant with respect to the anatomical structure; - displaying said at least one pseudo-radiographic image on a display unit; - displaying a representation of the implant on said pseudo-radiographic image; - modifying, in the pseudo-radiographic image, a position of the implant with respect to the anatomical structure; - computing at least one updated direction of integration based on the modified position of the implant; - updating the pseudo-radiographic image based on the updated direction of integration. - computing at least one pseudo-radiographic image from a 3D image of the anatomical structure, said pseudo-radiographic image being a 2D image wherein each pixel integrates the information of the 3D image along a determined direction of integration, said determined direction of integration being selected based on the planned position of the implant with respect to the anatomical structure; - displaying said at least one pseudo-radiographic image on a display unit; - displaying a representation of the implant on said pseudo-radiographic image; - modifying, in the pseudo-radiographic image, a position of the implant with respect to the anatomical structure; - computing at least one updated direction of integration based on the modified position of the implant; - updating the pseudo-radiographic image based on the updated direction of integration.
A sensor device for a motor vehicle, having a substrate on which a sensor electrode of at least one capacitive sensor and a near-field transmission coil with at least one winding of at least one inductive near-field transmission device are arranged in a planar manner, wherein the sensor electrode is at least partially surrounded by the near-field transmission coil , wherein the sensor electrode has a plurality of sensor sections extending linearly and connected to one another, and at least one connecting section , characterized in that the sensor sections of the plurality of sensor sections are divided into groups , the sensor sections of which are connected in series and directly to one another such that a first sensor section of each group directly transitions into an immediately following second sensor section of the group, wherein the first sensor section and the second sensor section enclose an angle between one another, wherein two respective groups of sensor sections are signally connected in series to one another by a respective connecting section . having a substrate on which a sensor electrode of at least one capacitive sensor and a near-field transmission coil with at least one winding of at least one inductive near-field transmission device are arranged in a planar manner, wherein the sensor electrode is at least partially surrounded by the near-field transmission coil , wherein the sensor electrode has a plurality of sensor sections extending linearly and connected to one another, and at least one connecting section , characterized in that the sensor sections of the plurality of sensor sections are divided into groups , the sensor sections of which are connected in series and directly to one another such that a first sensor section of each group directly transitions into an immediately following second sensor section of the group, wherein the first sensor section and the second sensor section enclose an angle between one another, wherein two respective groups of sensor sections are signally connected in series to one another by a respective connecting section .
A method of wireless communication comprising: beginning to transmit a packet to a receiving device; transmitting control information to the receiving device that is required for receiving a transmission back from the receiving device, the control information comprising at least one of a pilot, a transmitting power control, TPC, and a transport format combination indicator, TFCI; receiving an acknowledgement, Ack, of early decoding of the packet prior to transmission of the entire packet; ceasing transmission of the packet upon receipt of the Ack of early decoding of the packet; continuing to transmit at least a portion of the control information; receiving a packet from the receiving device during a same time interval in which the transmitted packet began to be transmitted; transmitting a second Ack for the received packet and thereupon ceasing transmission of the control information. beginning to transmit a packet to a receiving device; transmitting control information to the receiving device that is required for receiving a transmission back from the receiving device, the control information comprising at least one of a pilot, a transmitting power control, TPC, and a transport format combination indicator, TFCI; receiving an acknowledgement, Ack, of early decoding of the packet prior to transmission of the entire packet; ceasing transmission of the packet upon receipt of the Ack of early decoding of the packet; continuing to transmit at least a portion of the control information; receiving a packet from the receiving device during a same time interval in which the transmitted packet began to be transmitted; transmitting a second Ack for the received packet and thereupon ceasing transmission of the control information.
A mobile terminal for satellite selection within a multi-satellite communication system, comprising: a receiver; a transmitter; an antenna coupled to the receiver and the transmitter and configured to send and receive radio frequency (RF) signals; and a processing module configured to execute instructions stored on a non-transitory storage medium, the instructions causing the processing module to perform the operations, comprising: determine a plurality of user spot beams available to the mobile terminal from at least a first satellite and a second satellite of the multi-satellite communication system; calculate a normalized distance metric for the plurality of user spot beams based on the distance from the centre of a user spot beam to the mobile terminnal; select the user spot beam with the lowest normalized distance metric; determine which of the at least first or second satellite is transmitting the selected user spot beam , and select an outroute on the selected user spot beam using the antenna. a receiver; a transmitter; an antenna coupled to the receiver and the transmitter and configured to send and receive radio frequency (RF) signals; and a processing module configured to execute instructions stored on a non-transitory storage medium, the instructions causing the processing module to perform the operations, comprising: determine a plurality of user spot beams available to the mobile terminal from at least a first satellite and a second satellite of the multi-satellite communication system; calculate a normalized distance metric for the plurality of user spot beams based on the distance from the centre of a user spot beam to the mobile terminnal; select the user spot beam with the lowest normalized distance metric; determine which of the at least first or second satellite is transmitting the selected user spot beam , and select an outroute on the selected user spot beam using the antenna. determine a plurality of user spot beams available to the mobile terminal from at least a first satellite and a second satellite of the multi-satellite communication system; calculate a normalized distance metric for the plurality of user spot beams based on the distance from the centre of a user spot beam to the mobile terminnal; select the user spot beam with the lowest normalized distance metric; determine which of the at least first or second satellite is transmitting the selected user spot beam , and select an outroute on the selected user spot beam using the antenna.
A processing method of a battery pack (BP) that includes at least a battery body and a resin, the processing method comprising: - a step of storing the battery pack (BP) in a container , wherein the container comprises a slag pan that receives slag (S) discharged from an electric furnace , or is a hole formed in ground, - a step of covering the battery pack (BP) with a slag (S) that has a temperature, equal or higher than 700 °C, wherein the battery pack (BP) is stored in the container . - a step of storing the battery pack (BP) in a container , wherein the container comprises a slag pan that receives slag (S) discharged from an electric furnace , or is a hole formed in ground, - a step of covering the battery pack (BP) with a slag (S) that has a temperature, equal or higher than 700 °C,
Method for detecting malfunctions in inertial measurement units used in a vehicle for measuring angular velocities (ω A , ω B , ω C ) and specific forces (f A , f B , f C ), wherein at least three inertial measurement units are used, each having multiple sensors, comprising accelerometers and gyroscopic sensors, wherein a first inertial measurement unit is used as the master inertial measurement unit, and wherein a second inertial measurement unit and a third inertial measurement unit , the performance capabilities of which may be lower than those of the first inertial measurement unit , are used as slave inertial measurement units, wherein measurements of the master inertial measurement unit are used as reference values in order to compensate measurements of the slave inertial measurement units by estimation of error model parameters compared with the master inertial measurement unit , in order to detect a malfunction in one of the three sensor signals on the basis of the respective three corresponding sensor signals by way of 2-out-of-3 comparison, wherein that one of the three inertial measurement units whose sensor signal is at a distance from the median (M, D) of the three sensor signals that exceeds a threshold value is detected as faulty, wherein a malfunction of the master inertial measurement unit leads to a changeover to the signals of one of the still functioning slave inertial measurement units in consideration of a previously calculated precompensation, wherein the slave inertial measurement units are precompensated using a master-slave configuration, wherein time delays are applied to estimated sensor outputs (f B_estimated , f C_estimated ), wherein if an error of the first inertial measurement unit is detected within the time delay, the estimated sensor errors of the slave inertial measurement units are frozen to the values at the output of the time delay.
A single level spinal fusion system , comprising: a first fastener assembly , wherein the first fastener assembly , comprises: a first fastener ; and a fastener , wherein an interior surface of the fastener is threaded to secure the fastener to an exterior surface of a head of the first fastener ; a second fastener assembly ; and an elongate member with a first end and a second end , wherein the elongate member couples the first fastener assembly to the second fastener assembly , and wherein the first end engages the first fastener assembly and the second end is hingedly connected to the second fastener assembly . a first fastener assembly , wherein the first fastener assembly , comprises: a first fastener ; and a fastener , wherein an interior surface of the fastener is threaded to secure the fastener to an exterior surface of a head of the first fastener ; a first fastener ; and a fastener , wherein an interior surface of the fastener is threaded to secure the fastener to an exterior surface of a head of the first fastener ; a second fastener assembly ; and an elongate member with a first end and a second end , wherein the elongate member couples the first fastener assembly to the second fastener assembly , and wherein the first end engages the first fastener assembly and the second end is hingedly connected to the second fastener assembly .
A slab support arrangement of slabs forming a walk-on surface and laid in a floating manner on a water-permeable subgrade , wherein an edge of the walk-on surface is at least partially formed by edge slabs adapted with respect to the dimensions of the surface , wherein the slab support arrangement comprises said slabs , edge slabs and at least one shim element , characterised in that , for supporting an edge slab , at least one elongated flexurally rigid shim element is provided on a slab adjacent to the side of the edge slab facing away from the edge, wherein the elongated shim element is configured with a width which is significantly greater relative to its length, and wherein the length (L) of the shim element is adapted to the slab dimensions such that the shim element extends from a side of the edge slab facing the edge at least to a side of the adjacent slab facing away from the edge.