mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: a plurality of sensors configured to sense electrical activity at locations distributed across a conductive volume, locations of each of the plurality of sensors being predetermined with respect to a spatial coordinate system and stored in memory as geometry data ; a source electrode configured to be positioned within the conductive volume at an unknown location that is to be determined; a signal generator to supply electrical energy to the source electrode, corresponding to a generated source voltage, which generates an electric field, a circuit path extending from the source electrode to an electrical ground at a position on the outer surface of the conductive volume, which is coupled to the signal generator; and a location calculator configured to compute the location of the source electrode by minimizing a difference between the determined source voltages that are determined for multiple pairs of the plurality of sensors, each determined source voltage being determined based on sensor measurements of the electrical field for each respective one of the plurality of sensors and based on the geometry data. a plurality of sensors configured to sense electrical activity at locations distributed across a conductive volume, locations of each of the plurality of sensors being predetermined with respect to a spatial coordinate system and stored in memory as geometry data ; a source electrode configured to be positioned within the conductive volume at an unknown location that is to be determined; a signal generator to supply electrical energy to the source electrode, corresponding to a generated source voltage, which generates an electric field, a circuit path extending from the source electrode to an electrical ground at a position on the outer surface of the conductive volume, which is coupled to the signal generator; and a location calculator configured to compute the location of the source electrode by minimizing a difference between the determined source voltages that are determined for multiple pairs of the plurality of sensors, each determined source voltage being determined based on sensor measurements of the electrical field for each respective one of the plurality of sensors and based on the geometry data.
Track structure with at least one track for rail vehicles, wherein the track is arranged on a base slab by means of track fastenings , wherein a roadway structure is fastened detachably on the base slab by means of fastening elements , wherein the roadway structure comprises a track slab which is arranged between the track , characterised in that the track slab comprises on both sides spherical-cup-shaped recesses for reaching over the track fastenings of the track , while undercuts which cover the track bases are present in the region between the track fastenings .
Shrinking apparatus comprising an induction coil configured for shrinking tool shanks into and out of tool holders, characterized in that the induction coil and its first casing made of a magnetically conductive and electrically nonconductive material are surrounded on the outer circumference by a second casing, which consists of magnetically nonconductive and electrically conductive material and is designed such that, by forming eddy currents, it weakens a stray field occurring in its surroundings.
A tube rack apparatus , comprising: a bottom portion having a first length; a plurality of indents formed in the bottom portion and configured to receive tubes and keep tubes straight and restrict the movement of a bottom of the tubes , the plurality of indents exposing a lower surface of the bottom portion ; a plurality of legs extending from the bottom portion ; a top portion having a second length longer than the first length; a plurality of openings formed in the top portion , the plurality of openings aligned with the plurality of indents ; and at least one handle member extending from a first end of the top portion , characterized in that the plurality of legs include slanted legs configured to fit into angled drawers , wherein the slanted legs extend between the bottom portion and the top portion forming an open space that is configured to stack multiple tube racks . a bottom portion having a first length; a plurality of indents formed in the bottom portion and configured to receive tubes and keep tubes straight and restrict the movement of a bottom of the tubes , the plurality of indents exposing a lower surface of the bottom portion ; a plurality of legs extending from the bottom portion ; a top portion having a second length longer than the first length; a plurality of openings formed in the top portion , the plurality of openings aligned with the plurality of indents ; and at least one handle member extending from a first end of the top portion , characterized in that the plurality of legs include slanted legs configured to fit into angled drawers , wherein the slanted legs extend between the bottom portion and the top portion forming an open space that is configured to stack multiple tube racks .
An in vitro method for differentiating monocytes into dendritic cells, comprising: introducing into the monocytes an expression construct encoding human VentX polypeptide, wherein the VentX polypeptide is overexpressed in the monocytes, and culturing the monocytes under conditions allowing differentiation of the monocytes into dendritic cells, whereby the monocytes differentiate into dendritic cells. introducing into the monocytes an expression construct encoding human VentX polypeptide, wherein the VentX polypeptide is overexpressed in the monocytes, and culturing the monocytes under conditions allowing differentiation of the monocytes into dendritic cells, whereby the monocytes differentiate into dendritic cells.
A method of preparing a quantum dot light-emitting diode substrate, comprising: Step 1 : forming a layer of a bonding material on a substrate and patterning the layer of the bonding material to form a bonding layer corresponding to a pattern of a plurality of sub-pixel light-emitting regions; Step 2: applying a continuous quantum dot layer comprising quantum dots onto the bonding layer; Step 3: allowing the quantum dots to be bonded to the bonding layer by an external initiation condition so as to fix the quantum dots in a corresponding sub-pixe! light-emitting region: and Step 4: removing unbonded quantum dots to form a light-emitting layer comprising the bonding layer and quantum dots bonded to the bonding layer; wherein organic functional group(s) of the bonding layer are reacting with organic functional group(s) of the quantum dots to form a crosslinked network taking a quantum dot inorganic core as the center, thereby fixing the quantum dots in a corresponding sub-pixel light-emitting region; wherein the organic functional group(s) of the quantum dots are one or more selected from the group consisting of 1,7-octadiene, 1,9-octadiyne, mercapto, isoprene, amino, pyridine, carboxylic acid, thiol, phenol, or any combination thereof. Step 1 : forming a layer of a bonding material on a substrate and patterning the layer of the bonding material to form a bonding layer corresponding to a pattern of a plurality of sub-pixel light-emitting regions; Step 2: applying a continuous quantum dot layer comprising quantum dots onto the bonding layer; Step 3: allowing the quantum dots to be bonded to the bonding layer by an external initiation condition so as to fix the quantum dots in a corresponding sub-pixe! light-emitting region: and Step 4: removing unbonded quantum dots to form a light-emitting layer comprising the bonding layer and quantum dots bonded to the bonding layer;
An over torque detection system, the system comprising: a mechanical torque sensor that includes: a first contact element ; a moveable element coupled to the first contact element; and a second contact element ; wherein in a normal operational state the moveable element is in contact with the second contact element and creates an electrical pathway between the first contact element and second contact element and when in over torque operational state the movable element moves such that it does not contact the second contact element and breaks any electrical pathway between the first contact element and the second contact element; and a radio frequency identification, RFID, tag connected to the first contact element and the second contact element such that when the mechanical torque sensor is in the normal operation state the RFID tag does not transmit information, and when the mechanical torque sensor is in the over torque operation state the RFID tag does transmit information. a mechanical torque sensor that includes: a first contact element ; a moveable element coupled to the first contact element; and a second contact element ; wherein in a normal operational state the moveable element is in contact with the second contact element and creates an electrical pathway between the first contact element and second contact element and when in over torque operational state the movable element moves such that it does not contact the second contact element and breaks any electrical pathway between the first contact element and the second contact element; and a first contact element ; a moveable element coupled to the first contact element; and a second contact element ; wherein in a normal operational state the moveable element is in contact with the second contact element and creates an electrical pathway between the first contact element and second contact element and when in over torque operational state the movable element moves such that it does not contact the second contact element and breaks any electrical pathway between the first contact element and the second contact element; and a radio frequency identification, RFID, tag connected to the first contact element and the second contact element such that when the mechanical torque sensor is in the normal operation state the RFID tag does not transmit information, and when the mechanical torque sensor is in the over torque operation state the RFID tag does transmit information.
A nacelle for a turbojet engine including a thrust reverser comprising thrust reverser cascades disposed around the nacelle, at least one movable cowl which is adjacent to these cascades in a closed position, an actuation generating a recoil movement of the cascades or of the cowl towards an open position, connection systems connecting the movable cowls and the cascades , and tilting flaps for closing the annular cold air flow path, each connection system being disposed radially outside the cascades , includes, in a tangential plane, a lever , connecting rods , and hinges allowing a movement substantially in this plane, comprising a fixed hinge linked to the fixed structure of the nacelle, a cascade hinge linked to the cascades and a cowl hinge linked to the movable cowl , this connection system giving, at the end of the opening movement, a stroke of the movable cowl which is greater than that of the cascades , characterized in that the lever , called first lever , comprises two arms forming a « V », and two connecting rods each fastened to the end of an arm by a hinge .
Piece for fixing a panel to an enclosure profile , wherein - the panel comprises a mesh of vertical and horizontal rods , with an end vertical rod (4.1) for being fixed to the profile ; - the profile comprises a core (3.1) and wings (3.2) that bend at their ends defining facing projections (3.3); - the piece comprises a first and second lateral ends and a central section between them, a first face configured to be coupled to the core (3.1) of the profile by said central section , a second opposite face and at least a first housing of an end vertical rod (4.1), having such a dimension that it allows its rotation inside; wherein the first and second lateral ends form fitting means in the respective projections (3.3) of the wings (3.2) of the profile , characterized in that the first lateral end is substantially straight and perpendicular to the central section , and, the second lateral end is curved, both oriented in the opposite direction to the first face . - the panel comprises a mesh of vertical and horizontal rods , with an end vertical rod (4.1) for being fixed to the profile ; - the profile comprises a core (3.1) and wings (3.2) that bend at their ends defining facing projections (3.3); - the piece comprises a first and second lateral ends and a central section between them, a first face configured to be coupled to the core (3.1) of the profile by said central section , a second opposite face and at least a first housing of an end vertical rod (4.1), having such a dimension that it allows its rotation inside;
A method for providing a haptic effect from a portable terminal , the method comprising: in response to a first touch input on a shortcut icon displayed on a touch screen , executing an application; displaying an application screen of the application on the touch screen; when a local haptic environment setting is selected in an environment setting displayed on the application screen, displaying a local haptic environment setting screen, wherein the local haptic environment setting screen displays a representative image of the application in a size-reduced form and a local haptic environment setting menu including a region selection menu option for the user's designation of a local haptic region, a setting menu option for completion of a selection of the local haptic region, and a complete menu option for completing the local haptic environment setting; setting the selected area in the reduced representative image as a local haptic area, after the region selection menu is selected in the environment setting menu; setting the selected haptic pattern as the haptic pattern in the set local haptic area, after the setting menu is selected in the environment setting menu; when the complete menu option is selected, returning to an application mode from a local haptic environment setting mode; displaying an application screen of the application on the touch screen ; detecting a second touch input in the local haptic region; and providing a haptic effect corresponding to the local haptic region in response to the second touch input. in response to a first touch input on a shortcut icon displayed on a touch screen , executing an application; displaying an application screen of the application on the touch screen; when a local haptic environment setting is selected in an environment setting displayed on the application screen, displaying a local haptic environment setting screen, wherein the local haptic environment setting screen displays a representative image of the application in a size-reduced form and a local haptic environment setting menu including a region selection menu option for the user's designation of a local haptic region, a setting menu option for completion of a selection of the local haptic region, and a complete menu option for completing the local haptic environment setting; setting the selected area in the reduced representative image as a local haptic area, after the region selection menu is selected in the environment setting menu; setting the selected haptic pattern as the haptic pattern in the set local haptic area, after the setting menu is selected in the environment setting menu; when the complete menu option is selected, returning to an application mode from a local haptic environment setting mode; displaying an application screen of the application on the touch screen ; detecting a second touch input in the local haptic region; and providing a haptic effect corresponding to the local haptic region in response to the second touch input.
A thermoformed multilayer film structure comprising: a core layer and at least two outer layers disposed externally relative to the core layer, wherein at least one layer of the thermoformed multilayer film structure comprises a first composition comprising at least one ethylene-based polymer, wherein the first composition comprises a Molecular Weighted Comonomer Distribution Index (MWCDI) value greater than 0.9, and a melt index ratio (I 10 /I 2 ) that meets the following equation: I 10 /I 2 ≥ 7.0 - 1.2 x log (I 2 ), wherein the thermoformed multilayer film is a thermoformed coextruded blown film, and wherein melt index I 2 is measured in accordance with ASTM D-1238 at 190°C at 2.16 kg; and MWCDI is measured as described in the description. a core layer and at least two outer layers disposed externally relative to the core layer, wherein at least one layer of the thermoformed multilayer film structure comprises a first composition comprising at least one ethylene-based polymer, wherein the first composition comprises a Molecular Weighted Comonomer Distribution Index (MWCDI) value greater than 0.9, and a melt index ratio (I 10 /I 2 ) that meets the following equation: I 10 /I 2 ≥ 7.0 - 1.2 x log (I 2 ), wherein the thermoformed multilayer film is a thermoformed coextruded blown film, and wherein melt index I 2 is measured in accordance with ASTM D-1238 at 190°C at 2.16 kg; and MWCDI is measured as described in the description.
Locking drive for locking and unlocking a sash/leaf of a window, of a door or the like, having a housing ; a mechanical locking energy store for locking the sash/leaf via the energy which can be stored in this locking energy store ; a mechanical unlocking energy store for unlocking the sash/leaf via the energy which can be stored in this unlocking energy store ; a tensioning device , which can be acted upon by the closing sash/leaf and which can be coupled to the energy stores , for pretensioning the energy stores ; and a control device , wherein the unloading of the pretensioned locking energy store can be triggered via the control device to lock the sash/leaf , and the unloading of the pretensioned unlocking energy store can be triggered via the control device to unlock the sash/leaf , and the tensioning device is connected to the energy stores via a coupling which, with the sash/leaf opening, can be operated in idle to cancel the coupling between the tensioning device and the energy stores and via which, with the sash/leaf closing, the tensioning device and the energy stores can be coupled to one another to pretension the energy stores by means of the closing sash/leaf .
A susceptor that generates heat by induction heating, the susceptor comprising: a graphite base material ; and a ceramic coating layer, characterized in that the graphite base material has a coefficient of thermal expansion of 3.5 × 10 -6 /K or higher and 4.5 × 10 -6 /K or lower, an electrical resistivity (ρ 0 ) of 8.0 μΩ·m or higher and 13.0 μΩ·m or lower, a bulk density of 1.70 to 1.80 g/cm 3 and a flexural strength of 35 to 60 MPa and exhibits a variation (ρ max /ρ min ) of an in-plane electrical resistivity distribution at room temperature of 1.00 or higher and 1.05 or lower and a rate of high-temperature change (ρ 1600 /ρ 800 ) of electrical resistivity at 1600°C to that at 800°C of 1.14 or higher and 1.30 or lower. a graphite base material ; and a ceramic coating layer, characterized in that the graphite base material has a coefficient of thermal expansion of 3.5 × 10 -6 /K or higher and 4.5 × 10 -6 /K or lower, an electrical resistivity (ρ 0 ) of 8.0 μΩ·m or higher and 13.0 μΩ·m or lower, a bulk density of 1.70 to 1.80 g/cm 3 and a flexural strength of 35 to 60 MPa and exhibits a variation (ρ max /ρ min ) of an in-plane electrical resistivity distribution at room temperature of 1.00 or higher and 1.05 or lower and a rate of high-temperature change (ρ 1600 /ρ 800 ) of electrical resistivity at 1600°C to that at 800°C of 1.14 or higher and 1.30 or lower.
A cutting drum for earth moving equipment, comprising: a drum portion comprising a plurality of ring segments ; a plurality of cutting tools disposed on an outwardly facing surface of the drum portion, the cutting tools forming a cutting tool lacing design, each ring segment comprising at least one cutting tool ; wherein the rotational position of at least one ring segment is adjustable relative to at least one other ring segment such that the cutting tool lacing design is adjustable. a drum portion comprising a plurality of ring segments ; a plurality of cutting tools disposed on an outwardly facing surface of the drum portion, the cutting tools forming a cutting tool lacing design, each ring segment comprising at least one cutting tool ; wherein the rotational position of at least one ring segment is adjustable relative to at least one other ring segment such that the cutting tool lacing design is adjustable.
A method for transferring a motor vehicle from a current position to a target position, wherein both the current position and the target position are located in an area which is separated from the general road traffic, preferably by a barrier system and/or gate system, and wherein the motor vehicle can be operated in an autonomously or partially autonomous first driving mode M 1 in which the motor vehicle automatically carries out, using a driver assistance system, vehicle guidance comprising both longitudinal guidance and transverse guidance of the motor vehicle , along a setpoint path , comprising the steps: - transmission of at least one vehicle information item relating to a property of the motor vehicle , from the motor vehicle to a vehicle-external planning device ; - determination of a setpoint path from the current position of the motor vehicle to the target position of the motor vehicle by the vehicle-external planning device taking into account the transmitted at least one vehicle information item; - transmission of the setpoint path , determined by the vehicle-external planning device , to the motor vehicle ; and - transfer of the motor vehicle from the current position to the target position in the first driving mode M 1 along the transmitted setpoint path ; characterized in that if at least one further motor vehicle is in the area which is separated from the general road traffic, the step of the determination of the setpoint path of the motor vehicle by the vehicle-external planning device is carried out independently of the step of the determination of the setpoint path of the at least one further motor vehicle . - transmission of at least one vehicle information item relating to a property of the motor vehicle , from the motor vehicle to a vehicle-external planning device ; - determination of a setpoint path from the current position of the motor vehicle to the target position of the motor vehicle by the vehicle-external planning device taking into account the transmitted at least one vehicle information item; - transmission of the setpoint path , determined by the vehicle-external planning device , to the motor vehicle ; and - transfer of the motor vehicle from the current position to the target position in the first driving mode M 1 along the transmitted setpoint path ; characterized in that if at least one further motor vehicle is in the area which is separated from the general road traffic, the step of the determination of the setpoint path of the motor vehicle by the vehicle-external planning device is carried out independently of the step of the determination of the setpoint path of the at least one further motor vehicle .