mhurhangee/patent-ind-claim-en huggingface dataset:
A method for interacting with virtual objects using a wearable device , the method comprising, under control of the wearable device comprising a display system and hardware processor: receiving, via an input device, a selection of a target virtual object displayed to a user at a first position in a three-dimensional space; measuring, via one or more sensors of the input device or an outward facing camera of the wearable device, a first amount of movement of the input device along a first trajectory in the 3D space; using the hardware processor, analyzing a distance between the first position of the target virtual object and a position of the user; calculating a multiplier to map the first amount of movement of the input device into a second amount of movement for the target virtual object, the multiplier calculated based on the distance between the first position of the target virtual object and the position of the user, wherein the multiplier is one when the distance is within the user's hand reach and the multiplier increases with the distance beyond the user's hand reach until reaching a maximum threshold at which the multiplier is constant; calculating the second amount of movement along a second trajectory for the target virtual object, the second amount of movement calculated based at least partly on the first amount of movement and the multiplier; and causing the target virtual object to be displayed to the user at a second position, the second position based at least in part on the first position and the second amount of movement. receiving, via an input device, a selection of a target virtual object displayed to a user at a first position in a three-dimensional space; measuring, via one or more sensors of the input device or an outward facing camera of the wearable device, a first amount of movement of the input device along a first trajectory in the 3D space; using the hardware processor, analyzing a distance between the first position of the target virtual object and a position of the user; calculating a multiplier to map the first amount of movement of the input device into a second amount of movement for the target virtual object, the multiplier calculated based on the distance between the first position of the target virtual object and the position of the user, wherein the multiplier is one when the distance is within the user's hand reach and the multiplier increases with the distance beyond the user's hand reach until reaching a maximum threshold at which the multiplier is constant; calculating the second amount of movement along a second trajectory for the target virtual object, the second amount of movement calculated based at least partly on the first amount of movement and the multiplier; and causing the target virtual object to be displayed to the user at a second position, the second position based at least in part on the first position and the second amount of movement.
Method for aggregating lane information for creating and/or updating a digital roadmap, wherein the method comprises at least the following steps: a) capturing multiple position coordinates of a first vehicle along a route section together with timestamps associated with the respective position coordinates; and b) capturing multiple further position coordinates of at least one further vehicle along the route section together with timestamps associated with the respective further position coordinates; wherein a route profile of the route section is ascertained on the basis of the position coordinates of the first vehicle that are captured in step a) and the further position coordinates of the at least one further vehicle that are captured in step b), wherein in each case the position coordinates of the first vehicle and the further position coordinates of the at least one further vehicle with timestamps within an identical or overlapping period of time are taken into consideration; characterized in that the period of time is between 1 second and 1 minute, the route section being shorter than 500 metres. a) capturing multiple position coordinates of a first vehicle along a route section together with timestamps associated with the respective position coordinates; and b) capturing multiple further position coordinates of at least one further vehicle along the route section together with timestamps associated with the respective further position coordinates; a route profile of the route section is ascertained on the basis of the position coordinates of the first vehicle that are captured in step a) and the further position coordinates of the at least one further vehicle that are captured in step b), wherein in each case the position coordinates of the first vehicle and the further position coordinates of the at least one further vehicle with timestamps within an identical or overlapping period of time are taken into consideration; characterized in that the period of time is between 1 second and 1 minute, the route section being shorter than 500 metres.
An airflow control system for a gas turbine system , comprising: a compressor component of a gas turbine system for generating an excess flow of air ; a plurality of inlet guide vanes in the air intake section upstream from the compressor component, a flow of air passing through the inlet guide vanes, the inlet guide vanes controlling the flow of air passing through the air intake section to the compressor component, each inlet guide vane being selectively controllable by an independent actuator ; a mixing area for receiving an exhaust gas stream produced by the gas turbine system ; an air extraction system for extracting at least a portion of the excess flow of air generated by the compressor component of the gas turbine system to provide bypass air, and for diverting the bypass air into the mixing area to reduce a temperature of the exhaust gas stream , the air extraction system including a bypass duct for diverting the bypass air around the gas turbine system into the mixing area to reduce the temperature of the exhaust gas stream in the mixing area; and a selective catalytic reduction (SCR) system for processing the reduced temperature exhaust gas stream from the mixing area. a compressor component of a gas turbine system for generating an excess flow of air ; a plurality of inlet guide vanes in the air intake section upstream from the compressor component, a flow of air passing through the inlet guide vanes, the inlet guide vanes controlling the flow of air passing through the air intake section to the compressor component, each inlet guide vane being selectively controllable by an independent actuator ; a mixing area for receiving an exhaust gas stream produced by the gas turbine system ; an air extraction system for extracting at least a portion of the excess flow of air generated by the compressor component of the gas turbine system to provide bypass air, and for diverting the bypass air into the mixing area to reduce a temperature of the exhaust gas stream , the air extraction system including a bypass duct for diverting the bypass air around the gas turbine system into the mixing area to reduce the temperature of the exhaust gas stream in the mixing area; and a selective catalytic reduction (SCR) system for processing the reduced temperature exhaust gas stream from the mixing area.
A mobile terminal , comprising a display screen, a circuit board, a heat emitting element , a side frame and a holder , wherein the holder comprises a heat conduction area and a heat insulation area , wherein , the heat insulation area is close to an edge of the holder , and the heat insulation area is adjacent to the heat conduction area , wherein the heat insulation area is located between the side frame and the heat conduction area , the heat emitting element on the circuit board is proximate to the heat conduction area , the holder is located between the display screen and the circuit board, wherein the side frame surrounds the holder , wherein the heat conduction area is configured to transfer heat generated by the heat emitting element , in a process of transferring heat in the heat conduction area to the side frame , the heat insulation area is configured to impede the heat; and characterized in that the heat insulation area is provided with a heat insulation cavity , and the heat insulation cavity is vacuum.
Conveyor belt assembly for transporting single sheets or stacks of a packaging material, comprising at least one conveyor belt being arranged over at least two pulleys (20a - 20d), wherein at least one of the pulleys (20a - 20d) is adapted to drive the conveyor belt in a conveying direction , wherein one or more rigid support devices are mounted on the conveyor belt , the conveyor belt assembly comprising a conveying section adapted for transporting the sheets or stacks and a return section adapted to return the conveyor belt from an end of the conveying section to a beginning of the conveying section , wherein the conveying section comprises a middle section , in which the conveyor belt is arranged in a substantially flat manner, characterised in that the conveying section comprises at least one transition section arranged between the middle section and the respective pulley (20a - 20d), with the conveyor belt being arranged in the transition section in a retracted position with respect to a plane defined by the middle section to produce a gap between said transition section and said plane , and in that each of the support devices comprises a multitude of teeth whose tips form a substantially flat support surface , configured to support the single sheets or stacks of packaging material. characterised in that the conveying section comprises at least one transition section arranged between the middle section and the respective pulley (20a - 20d), with the conveyor belt being arranged in the transition section in a retracted position with respect to a plane defined by the middle section to produce a gap between said transition section and said plane , and in that each of the support devices comprises a multitude of teeth whose tips form a substantially flat support surface , configured to support the single sheets or stacks of packaging material.
A mobile terminal, comprising: a wireless interface for communication over the same wireless interface with a cellular communication network in accordance with a plurality of different cellular protocol modes, wherein each of the plurality of different cellular protocol modes is associated with different parameter setting of the wireless interface , and a logic (27; 57) configured to - control the wireless interface to perform a mode switching signalling (41; 48) to cause activation of a protocol mode selected from the plurality of different cellular protocol modes for communicating over the wireless interface , and characterized by being further configured to - selectively activate or deactivate at least one signal processing unit (24, 25; 54, 55) as a function of the selected protocol mode, the at least one signal processing unit (24, 25; 54, 55) being configured to process data received or transmitted via the wireless interface . a wireless interface for communication over the same wireless interface with a cellular communication network in accordance with a plurality of different cellular protocol modes, wherein each of the plurality of different cellular protocol modes is associated with different parameter setting of the wireless interface , and a logic (27; 57) configured to - control the wireless interface to perform a mode switching signalling (41; 48) to cause activation of a protocol mode selected from the plurality of different cellular protocol modes for communicating over the wireless interface , and characterized by being further configured to - selectively activate or deactivate at least one signal processing unit (24, 25; 54, 55) as a function of the selected protocol mode, the at least one signal processing unit (24, 25; 54, 55) being configured to process data received or transmitted via the wireless interface . - control the wireless interface to perform a mode switching signalling (41; 48) to cause activation of a protocol mode selected from the plurality of different cellular protocol modes for communicating over the wireless interface , and characterized by being further configured to - selectively activate or deactivate at least one signal processing unit (24, 25; 54, 55) as a function of the selected protocol mode, the at least one signal processing unit (24, 25; 54, 55) being configured to process data received or transmitted via the wireless interface .
An aerosol provision device , comprising: a housing delimiting a first opening at a first end of the housing , through which to receive aerosol generating material, and delimiting a second opening at a second end of the housing ; and at least one heater arranged within the housing and configured to heat the aerosol generating material received within the housing thereby to generate an aerosol; and a hollow member arranged within the housing and extending at least partially between the second and first openings, wherein: the hollow member defines an axis; characterised in that : an outer wall of the hollow member at the end of the hollow member has a first wall thickness measured in a direction perpendicular to the axis; a part of the hollow member arranged closer to the first end of the housing than the end of the hollow member has a second wall thickness measured in a direction perpendicular to the axis; the first wall thickness is smaller than the second wall thickness ; and the hollow member has an end that faces the second opening and is configured to discourage capillary flow around the end. a housing delimiting a first opening at a first end of the housing , through which to receive aerosol generating material, and delimiting a second opening at a second end of the housing ; and at least one heater arranged within the housing and configured to heat the aerosol generating material received within the housing thereby to generate an aerosol; and a hollow member arranged within the housing and extending at least partially between the second and first openings, wherein: the hollow member defines an axis; characterised in that : an outer wall of the hollow member at the end of the hollow member has a first wall thickness measured in a direction perpendicular to the axis; a part of the hollow member arranged closer to the first end of the housing than the end of the hollow member has a second wall thickness measured in a direction perpendicular to the axis; the first wall thickness is smaller than the second wall thickness ; and the hollow member has an end that faces the second opening and is configured to discourage capillary flow around the end. an outer wall of the hollow member at the end of the hollow member has a first wall thickness measured in a direction perpendicular to the axis; a part of the hollow member arranged closer to the first end of the housing than the end of the hollow member has a second wall thickness measured in a direction perpendicular to the axis; the first wall thickness is smaller than the second wall thickness ; and the hollow member has an end that faces the second opening and is configured to discourage capillary flow around the end.
A radio-frequency identification (RFID) connector, comprising: a connector , including: a first component comprising an inward facing surface , a first end , and a second end ; and, a second component comprising an outward facing surface , the second component connected to the first component; and, an RFID assembly , including: an RFID tag ; a first contact electrically connected to the RFID tag; and, a second contact electrically connected to the RFID tag and arranged on the outward facing surface of the second component; wherein: in an unlocked state of the RFID connector, the second contact is not electrically connected to the first component; and, in a locked state of the RFID connector, the second contact is electrically connected to the first component; the radio-frequency identification (RFID) connector being characterised in that the first contact is electrically connected to the second component . a connector , including: a first component comprising an inward facing surface , a first end , and a second end ; and, a second component comprising an outward facing surface , the second component connected to the first component; and, a first component comprising an inward facing surface , a first end , and a second end ; and, a second component comprising an outward facing surface , the second component connected to the first component; and, an RFID assembly , including: an RFID tag ; a first contact electrically connected to the RFID tag; and, a second contact electrically connected to the RFID tag and arranged on the outward facing surface of the second component; an RFID tag ; a first contact electrically connected to the RFID tag; and, a second contact electrically connected to the RFID tag and arranged on the outward facing surface of the second component; wherein: in an unlocked state of the RFID connector, the second contact is not electrically connected to the first component; and, in a locked state of the RFID connector, the second contact is electrically connected to the first component; in an unlocked state of the RFID connector, the second contact is not electrically connected to the first component; and, in a locked state of the RFID connector, the second contact is electrically connected to the first component;
An apparatus for manufacturing carbon fiber by using microwaves, the apparatus comprising: a heat treatment furnace which stabilizes a precursor; and a carbonization furnace which is positioned at one side of the heat treatment furnace and carbonizes the stabilized precursor, wherein the carbonization furnace carbonizes the precursor by using microwaves as a heat source, wherein the carbonization furnace includes: a main body ; a microwave emitting unit which is positioned inside or outside the main body , and emits microwaves to the stabilized precursor; and a heating body which is positioned inside the main body and is heated by the microwaves; and the heating body occupies 0.1% to 5% of a volume of the main body . a heat treatment furnace which stabilizes a precursor; and a carbonization furnace which is positioned at one side of the heat treatment furnace and carbonizes the stabilized precursor, wherein the carbonization furnace carbonizes the precursor by using microwaves as a heat source, wherein the carbonization furnace includes: a main body ; a microwave emitting unit which is positioned inside or outside the main body , and emits microwaves to the stabilized precursor; and a heating body which is positioned inside the main body and is heated by the microwaves; and the heating body occupies 0.1% to 5% of a volume of the main body . a main body ; a microwave emitting unit which is positioned inside or outside the main body , and emits microwaves to the stabilized precursor; and a heating body which is positioned inside the main body and is heated by the microwaves; and the heating body occupies 0.1% to 5% of a volume of the main body .
A vehicle tire with a damaged area and a repair patch, the repair patch comprising - a cover layer , - a connecting layer for placement on a damaged spot of the vehicle tire, and - at least one intermediate layer , which is arranged between the cover layer and the connecting layer, wherein - the repair patch has external dimensions such that a dimensional quotient (Q), which is formed at least by means of at least one size parameter of the damaged spot , is within a predetermined value range, and - the number of intermediate layers is dependent on the at least one size parameter of the damaged spot , wherein a dimensional quotient QL results at least from a width of the repair patch in relation to at least the size parameter of a length of the damaged spot in a circumferential direction of the vehicle tire, wherein the predetermined value range is QL = 2 - 9, and a dimensional quotient QR results at least from a length of the repair patch in relation to at least the size parameter of a length of the damaged spot in a radial direction of the vehicle tire, wherein the predetermined value range is QR = 4 - 13. - a cover layer , - a connecting layer for placement on a damaged spot of the vehicle tire, and - at least one intermediate layer , which is arranged between the cover layer and the connecting layer, wherein - the repair patch has external dimensions such that a dimensional quotient (Q), which is formed at least by means of at least one size parameter of the damaged spot , is within a predetermined value range, and - the number of intermediate layers is dependent on the at least one size parameter of the damaged spot , wherein a dimensional quotient QL results at least from a width of the repair patch in relation to at least the size parameter of a length of the damaged spot in a circumferential direction of the vehicle tire, wherein the predetermined value range is QL = 2 - 9, and a dimensional quotient QR results at least from a length of the repair patch in relation to at least the size parameter of a length of the damaged spot in a radial direction of the vehicle tire, wherein the predetermined value range is QR = 4 - 13.
Apparatus for use in, or forming part of, a separation process to be implemented in separation processor technology, said apparatus comprising synthetic bubbles or beads, the separation process involving the use of the synthetic bubbles or beads, wherein: the synthetic bubbles or beads are configured as solid polymer bubbles or beads with a polymer or polymer-based material functionalized to attach to a valuable material in a mixture having water so as to form enriched synthetic bubbles or beads having the valuable material attached thereto, and are also configured to be separated from the mixture based at least partly on a difference in a physical property between the enriched synthetic bubbles or beads having the valuable material attached thereto and the mixture, wherein the valuable material comprises mineral particles, and wherein the polymer or polymer-based material comprises a surface configured with a hydrophobic polymer selected from a group consisting of polydimethylsiloxane, polysiloxanates.