mhurhangee/ep-ind-claims huggingface dataset:
A display device comprising: a display panel having a folding area and a non-folding area (1000NF1, 1000NF2) and comprising a base layer, a circuit layer on the base layer, and a display element layer on the circuit layer; an input sensor below the display panel and defining a sensing area overlapping the non-folding area in a plan view; and a light shielding layer between the display element layer and the input sensor, wherein the light shielding layer includes a plurality of holes in a first portion of the light shielding layer at the non-folding area, and includes a cut portion in a second portion of the light shielding layer overlapping the folding area, and wherein the cut portion comprises one or more elongated slits where a material of the light shielding layer is at least partially removed in a thickness direction of the light shielding layer. a display panel having a folding area and a non-folding area (1000NF1, 1000NF2) and comprising a base layer, a circuit layer on the base layer, and a display element layer on the circuit layer; an input sensor below the display panel and defining a sensing area overlapping the non-folding area in a plan view; and a light shielding layer between the display element layer and the input sensor, wherein the light shielding layer includes a plurality of holes in a first portion of the light shielding layer at the non-folding area, and includes a cut portion in a second portion of the light shielding layer overlapping the folding area, and wherein the cut portion comprises one or more elongated slits where a material of the light shielding layer is at least partially removed in a thickness direction of the light shielding layer.
A display device comprising: at least one virtual object image source; and at least one variable lens, wherein the at least one variable lens comprises at least two variable optical cells, each of the at least two variable optical cells comprises an electrode pattern for adjusting a focal length of the at least one variable lens, and the electrode pattern is configured to change optical power of the at least one variable lens to an equidistant dioptric step, wherein the at least two variable optical cells comprises a first variable optical cell including a first electrode and a second electrode and a second variable optical cell including a third electrode and a fourth electrode, and wherein the second electrode provided on a side of a substrate and the third electrode provided on another side of the substrate. at least one virtual object image source; and at least one variable lens, wherein the at least one variable lens comprises at least two variable optical cells, each of the at least two variable optical cells comprises an electrode pattern for adjusting a focal length of the at least one variable lens, and the electrode pattern is configured to change optical power of the at least one variable lens to an equidistant dioptric step, wherein the at least two variable optical cells comprises a first variable optical cell including a first electrode and a second electrode and a second variable optical cell including a third electrode and a fourth electrode, and wherein the second electrode provided on a side of a substrate and the third electrode provided on another side of the substrate.
Oscilloscope for measuring an input measurement signal with an analogue/digital converter, which samples an analogue signal with a predetermined sampling rate, wherein a frequency converter converts the input measurement signal into a converted analogue signal by reducing the frequency, characterised in that the frequency converter comprises a mixer and a local oscillator and both the mixer and the local oscillator are arranged inside a sampling head of the oscilloscope.
A method implemented by an electronic processing apparatus (16, 20) for responding to a request for a mobile terminal's geographic position, the method characterized by: computing a joint QoS metric for the request, wherein the joint QoS metric is a single metric that jointly depends on two or more individual positioning QoS parameters associated with the request, by: determining a service type of the request; determining weighting values based on the service type; and computing the joint QoS metric as a weighted combination of the two or more individual positioning QoS parameters according to said weighting values; and sending the request and the joint QoS metric to another apparatus for selection of a positioning method, or a sequence of positioning methods, based on the joint QoS metric. computing a joint QoS metric for the request, wherein the joint QoS metric is a single metric that jointly depends on two or more individual positioning QoS parameters associated with the request, by: determining a service type of the request; determining weighting values based on the service type; and computing the joint QoS metric as a weighted combination of the two or more individual positioning QoS parameters according to said weighting values; and determining a service type of the request; determining weighting values based on the service type; and computing the joint QoS metric as a weighted combination of the two or more individual positioning QoS parameters according to said weighting values; and sending the request and the joint QoS metric to another apparatus for selection of a positioning method, or a sequence of positioning methods, based on the joint QoS metric.
A steam generator comprising: a heat transfer tube group that is formed of a plurality of heat transfer tubes in each of which both ends thereof are secured to a tube plate and each of which has a U-shaped free end in which a heat medium flows from one end toward the other end; an annular channel that is formed so as to cover the circumference of the heat transfer tube group and that has an opening, at a lower portion thereof, that communicates with the heat transfer tube group; a water supply unit that is disposed at an upper portion of the annular channel and that supplies water to a descending-side portion serving as an area where the heat medium in the heat transfer tubes descends toward the other end; and a steam/water separator that is disposed above the heat transfer tube group and that separates water heated while passing from the annular channel along the circumference of the heat transfer tubes into steam and hot water, characterized by comprising an air bubble removing member for removing air bubbles provided above an upper entrance of the annular channel, in a rising-side portion serving as an area where the heat medium in the heat transfer tubes rises from the one end, the air bubble removing member is a water supply member that supplies water for condensing the air bubbles. a heat transfer tube group that is formed of a plurality of heat transfer tubes in each of which both ends thereof are secured to a tube plate and each of which has a U-shaped free end in which a heat medium flows from one end toward the other end; an annular channel that is formed so as to cover the circumference of the heat transfer tube group and that has an opening, at a lower portion thereof, that communicates with the heat transfer tube group; a water supply unit that is disposed at an upper portion of the annular channel and that supplies water to a descending-side portion serving as an area where the heat medium in the heat transfer tubes descends toward the other end; and a steam/water separator that is disposed above the heat transfer tube group and that separates water heated while passing from the annular channel along the circumference of the heat transfer tubes into steam and hot water, characterized by comprising an air bubble removing member for removing air bubbles provided above an upper entrance of the annular channel, in a rising-side portion serving as an area where the heat medium in the heat transfer tubes rises from the one end, the air bubble removing member is a water supply member that supplies water for condensing the air bubbles.
Facility with at least one autonomously acting transport vehicle, which can be loaded with transport goods and is designed as an automated guided vehicle, and at least one manipulator device of a mobile design, which comprises a manipulator kinematic having at least one manipulator, wherein the at least one transport vehicle has a coupling device (105, 200), by means of which the transport vehicle can be releasably connected to the manipulator device, characterized in that the coupling device is formed by a transport support arranged on the at least one transport vehicle, and in that the manipulator device comprises a platform with a transport holder, which can be loaded by means of the transport support.
A method of adjusting the torque transmitted along a drive train of a hybrid vehicle to drive wheels of the vehicle and corresponding to a set torque (K 0,set), wherein the torque (K 0,actual) actually transmitted by a clutch on the drive train is approximately determined in the following steps: • Setting a closed state of the clutch and transmitting a torque along the drive train, • Preparing a three-dimensional model of state of the drive train, • Calculating a theoretically transmittable or transmitted torque (K 0,theoretical) by the clutch when closed, on the basis of a preset physical model of the clutch and of the set closing state, • Approximately calculating the torque (K 0,actual) actually transmitted by the clutch by adding the theoretically transmittable or transmitted torque (K 0,theoretical) and a calculated interfering torque (K 0,interfering) wherein the interfering torque is obtained on the basis of • The three-dimensional model of state and a Kalman filter and • Actual speeds of individual drive train components and/or actual torques transmitted by individual drive train components, wherein the actual speeds or the actual torques are directly measured in the observed state or are derived from other measured or otherwise or known parameters of state of the drive train, is determined, and, • The interfering torque (K 0,interfering) observed at the clutch is compensated by impressing a compensation torque, using an electric machine, on a rotary component of the drive train and by altering the closed state of the clutch, or is compensated by an electric machine on a rotary component of the drive train. • Setting a closed state of the clutch and transmitting a torque along the drive train, • Preparing a three-dimensional model of state of the drive train, • Calculating a theoretically transmittable or transmitted torque (K 0,theoretical) by the clutch when closed, on the basis of a preset physical model of the clutch and of the set closing state, • Approximately calculating the torque (K 0,actual) actually transmitted by the clutch by adding the theoretically transmittable or transmitted torque (K 0,theoretical) and a calculated interfering torque (K 0,interfering) wherein the interfering torque is obtained on the basis of • The three-dimensional model of state and a Kalman filter and • Actual speeds of individual drive train components and/or actual torques transmitted by individual drive train components, wherein the actual speeds or the actual torques are directly measured in the observed state or are derived from other measured or otherwise or known parameters of state of the drive train, is determined, and, • The interfering torque (K 0,interfering) observed at the clutch is compensated by impressing a compensation torque, using an electric machine, on a rotary component of the drive train and by altering the closed state of the clutch, or is compensated by an electric machine on a rotary component of the drive train.
A lens driving device, comprising: a housing; a bobbin disposed in the housing; a base disposed below the housing; a first coil disposed on the bobbin; a magnet disposed on the housing and facing the first coil; a FPCB disposed on the base; a second coil disposed on the FPCB and facing the magnet; and a solder electrically connecting the FPCB and the second coil, the FPCB comprises a body portion disposed on an upper surface of the base, a lateral portion extending from the body portion and disposed on a lateral surface of the base and a conductive portion formed of a conductive material and coupled with said solder, characterized in that the FPCB comprises a hole disposed at a position corresponding to that of an outer edge of the upper surface of the base, and the conductive portion comprises a first conductive portion disposed on an outer edge of the body portion of the FPCB and coupled with said solder, and a second conductive portion disposed on an inner edge of the hole of the FPCB and coupled with said solder. a housing; a bobbin disposed in the housing; a base disposed below the housing; a first coil disposed on the bobbin; a magnet disposed on the housing and facing the first coil; a FPCB disposed on the base; a second coil disposed on the FPCB and facing the magnet; and a solder electrically connecting the FPCB and the second coil, the FPCB comprises a body portion disposed on an upper surface of the base, a lateral portion extending from the body portion and disposed on a lateral surface of the base and a conductive portion formed of a conductive material and coupled with said solder, characterized in that the FPCB comprises a hole disposed at a position corresponding to that of an outer edge of the upper surface of the base, and the conductive portion comprises a first conductive portion disposed on an outer edge of the body portion of the FPCB and coupled with said solder, and a second conductive portion disposed on an inner edge of the hole of the FPCB and coupled with said solder.
A moisture curable composition, comprising: a silyl-functional polymer; an asphalt; and a compatibilizing plasticizer in an amount effective to wet and help disperse the asphalt in the silyl-functional polymer, wherein the silyl-functional polymer is a polyester having reactive silyl groups, a polyether having reactive silyl groups, or a polyurethane having reactive silyl groups. a silyl-functional polymer; an asphalt; and a compatibilizing plasticizer in an amount effective to wet and help disperse the asphalt in the silyl-functional polymer, wherein the silyl-functional polymer is a polyester having reactive silyl groups, a polyether having reactive silyl groups, or a polyurethane having reactive silyl groups.
A system for holding in a conduit cables and/or ducts with different diameters, the system comprising a plurality of rubbery or rubber-like sleeves for inserting in such a conduit, the plurality of sleeves comprising a number of units of bonded sleeves which are oriented parallel to each other, wherein within each unit the sleeves have corresponding outer dimensions, wherein at least one unit has a sleeve having an inner diameter which differs from an inner diameter of a sleeve of at least one other unit of the number of units, wherein each sleeve is free from peelable layers so that the inner diameter is prefixed and free from inner ribs that could provide annular sealing rings in contact with an outer surface of a cable so that due to the absence of sealing properties sliding of a cable through a sleeve is facilitated, in a unit each of the sleeves is block-shaped wherein the units have a block-shaped outer shape, wherein at least one of the units has on its outside a flat surface which extends in a length direction of the sleeves and which extends in a layer direction of the sleeves in the respective unit, wherein the number of the units and the dimensions of the units are such that therewith a stack of units can be made, in the stack of units each sleeve is also oriented parallel to any of the other sleeves, the stack of units having a rectangular shape of which each side is in detail shaped by the presence of a number of the sleeves and of which each edge is in detail shaped by the presence of one, two or three of the sleeves, wherein the system is free from a controllable mechanism for putting the block-shaped units under an enhanced pressure when the block-shaped units are installed in the conduit in use.
Activation device for a battery for an electronic ignition mechanism, comprising an ampoule filled with an electrolyte and a device for breaking the ampoule, characterized in that the breaking device comprises two leaf spring elements (9, 10), which are fixed with a prestress on a common component in the housing interior and between which the ampoule is clamped, at least the leaf spring element which supports the ampoule on the bottom side snapping from a first shape into a second shape when a force due to acceleration is applied.
A rotary encoder that comprises a rotor rotating in the measurement direction about a predetermined rotating shaft, a stator receiving a detection signal from the rotor, and a calculating unit for calculating a rotation angle based on a detection signal received by the stator, wherein the rotor comprises: a first rotor pattern with a plurality of unit patterns arranged along the measurement direction about the rotating shaft as the center; and a second rotor pattern with unit patterns, which are smaller in number than the plurality of unit patterns in the first rotor pattern, arranged along the measurement direction about the rotating shaft as the center, wherein the number of the plurality of unit patterns of the first rotor pattern and the number of the plurality of unit patterns of the second rotor pattern is provided such that the maximum common divisor therebetween is two or more, the calculating unit calculates the rotational angle of the rotor based on the detection signals detected from each of the first and second rotor patterns (31, 32) by the stator, wherein the first rotor pattern and the second rotor pattern are continuous magnetic flux coupling windings centered on the rotating shaft, respectively, wherein the stator comprises: a transmitting winding group arranged to be magnetic flux-coupled with the first rotor pattern and the second rotor pattern; and a receiving winding group arranged to be magnetic flux-coupled with the first rotor pattern and the second rotor pattern. a first rotor pattern with a plurality of unit patterns arranged along the measurement direction about the rotating shaft as the center; and a second rotor pattern with unit patterns, which are smaller in number than the plurality of unit patterns in the first rotor pattern, arranged along the measurement direction about the rotating shaft as the center, wherein the number of the plurality of unit patterns of the first rotor pattern and the number of the plurality of unit patterns of the second rotor pattern is provided such that the maximum common divisor therebetween is two or more, the calculating unit calculates the rotational angle of the rotor based on the detection signals detected from each of the first and second rotor patterns (31, 32) by the stator, wherein the first rotor pattern and the second rotor pattern are continuous magnetic flux coupling windings centered on the rotating shaft, respectively, wherein the stator comprises: a transmitting winding group arranged to be magnetic flux-coupled with the first rotor pattern and the second rotor pattern; and a receiving winding group arranged to be magnetic flux-coupled with the first rotor pattern and the second rotor pattern. a transmitting winding group arranged to be magnetic flux-coupled with the first rotor pattern and the second rotor pattern; and a receiving winding group arranged to be magnetic flux-coupled with the first rotor pattern and the second rotor pattern.
An energy transfer system, comprising a) a first panel configured for securely mounting on a base and including a first header with a first pair of terminals, the first panel having a first coefficient of expansion; b) a second panel configured for securely mounting on the base and including a second header with a second pair of terminals, the second panel having a second coefficient of thermal expansion, wherein the first and second panels are configured to be mounted adjacent each other; wherein the first and second pairs of terminals each include a contact comprising a nickel-based undercoat surface and a noble metal plating that covers the undercoat surface; and wherein the undercoat surface is rough and includes peaks and valleys; and c) a connector configured to mate to the first and second headers, the connector including a third pair of terminals configured to respectively electrically couple the first and second pair of terminals; wherein the third pair of terminals is configured to engage the corresponding contact of the first or second pair of terminals. a) a first panel configured for securely mounting on a base and including a first header with a first pair of terminals, the first panel having a first coefficient of expansion; b) a second panel configured for securely mounting on the base and including a second header with a second pair of terminals, the second panel having a second coefficient of thermal expansion, wherein the first and second panels are configured to be mounted adjacent each other; wherein the first and second pairs of terminals each include a contact comprising a nickel-based undercoat surface and a noble metal plating that covers the undercoat surface; and wherein the undercoat surface is rough and includes peaks and valleys; and c) a connector configured to mate to the first and second headers, the connector including a third pair of terminals configured to respectively electrically couple the first and second pair of terminals;
A torsional vibration reduction device to be provided inside of a fluid power transmitting device that has a driving side member configured to generate a fluid flow and a driven side member driven by the fluid flow, the torsional vibration reduction device comprising: a rolling element configured to move in a reciprocating manner according to a variation in torque inputted in the rolling element; an annular retaining member that has a rolling chamber configured to house the rolling element in a manner that enables the rolling element to move in the reciprocating manner; and a housing that is fixed to the driven side member and is configured to shield the rolling element and the rolling chamber from fluid inside of the fluid power transmitting device, characterized by the housing including an annular recessed portion (18; 37) and a lid (19; 38), an outer peripheral portion and an inner peripheral portion in the radial direction of the annular retaining member being sandwiched by the annular recessed portion (18; 37) and the lid (19; 38) such that the retaining member is fixed and enclosed inside of the housing. a rolling element configured to move in a reciprocating manner according to a variation in torque inputted in the rolling element; an annular retaining member that has a rolling chamber configured to house the rolling element in a manner that enables the rolling element to move in the reciprocating manner; and a housing that is fixed to the driven side member and is configured to shield the rolling element and the rolling chamber from fluid inside of the fluid power transmitting device, characterized by the housing including an annular recessed portion (18; 37) and a lid (19; 38), an outer peripheral portion and an inner peripheral portion in the radial direction of the annular retaining member being sandwiched by the annular recessed portion (18; 37) and the lid (19; 38) such that the retaining member is fixed and enclosed inside of the housing.