mhurhangee/ep-ind-claims huggingface dataset:
A method of a mobile terminal, the method comprising: displaying, on a display module including a touch screen panel, a first group of objects and a second group of objects, the first group of objects corresponding to stereoscopic three-dimensional, 3D, images and the second group of objects corresponding to two-dimensional, 2D, images; receiving a first user input to distinguish the first group of objects; in response to receiving the first user input, exclusively displaying, on the display module, the first group of objects without displaying the second group of objects; receiving a predefined gesture input when the first user input is entered; and performing a 3D control operation in response to receiving the predefined gesture input, wherein the 3D control operation includes adjusting a depth of a stereoscopic 3D image in response to the predefined gesture being a multi-touch input and moving between layers with different depths in response to the predefined gesture being a flick input. displaying, on a display module including a touch screen panel, a first group of objects and a second group of objects, the first group of objects corresponding to stereoscopic three-dimensional, 3D, images and the second group of objects corresponding to two-dimensional, 2D, images; receiving a first user input to distinguish the first group of objects; in response to receiving the first user input, exclusively displaying, on the display module, the first group of objects without displaying the second group of objects; receiving a predefined gesture input when the first user input is entered; and performing a 3D control operation in response to receiving the predefined gesture input, wherein the 3D control operation includes adjusting a depth of a stereoscopic 3D image in response to the predefined gesture being a multi-touch input and moving between layers with different depths in response to the predefined gesture being a flick input.
A positioning information determining method, wherein the method comprises: receiving, by a positioning management device, first information sent by a terminal device, wherein the first information comprises a plurality of antenna identifiers of the terminal device and local antenna coordinates corresponding to each antenna identifier; receiving, by the positioning management device, measurement information sent by the terminal device, wherein the measurement information comprises the plurality of antenna identifiers of the terminal device and a measurement result that is of a downlink reference signal and that corresponds to each antenna identifier; and determining, by the positioning management device, positioning information of the terminal device based on the first information and the measurement information, wherein the positioning information comprises one or more of the following information: absolute coordinates of the terminal device, orientation or posture information of the terminal device, a rotation angle of the terminal device, or uptilt and downtilt angles of the terminal device, wherein the first information further comprises local coordinates of a reference point of the terminal device and/or an antenna identifier that is of the terminal device and that corresponds to the reference point, and the absolute coordinates of the terminal device are absolute coordinates of the reference point of the terminal device. receiving, by a positioning management device, first information sent by a terminal device, wherein the first information comprises a plurality of antenna identifiers of the terminal device and local antenna coordinates corresponding to each antenna identifier; receiving, by the positioning management device, measurement information sent by the terminal device, wherein the measurement information comprises the plurality of antenna identifiers of the terminal device and a measurement result that is of a downlink reference signal and that corresponds to each antenna identifier; and determining, by the positioning management device, positioning information of the terminal device based on the first information and the measurement information, wherein the positioning information comprises one or more of the following information: absolute coordinates of the terminal device, orientation or posture information of the terminal device, a rotation angle of the terminal device, or uptilt and downtilt angles of the terminal device, wherein the first information further comprises local coordinates of a reference point of the terminal device and/or an antenna identifier that is of the terminal device and that corresponds to the reference point, and the absolute coordinates of the terminal device are absolute coordinates of the reference point of the terminal device.
A camera device, comprising: an image pickup element; a substrate mounted with the image pickup element thereon; and a housing accommodating the image pickup element therein, wherein the housing comprises an upper half and a lower half; wherein the upper half of the housing is provided with a plurality of support members which extend upright and to which an external edge portion of the substrate is stuck with an adhesive, and the substrate is provided with application areas (25, 26) to which the adhesive is applied, at the external edge portion stuck with the support members, wherein an ultraviolet curable adhesive is used on the application areas (25, 26); and characterized in that along a pair of opposite lateral walls (20, 21) of the upper half of the housing the plurality of support members are pillars juxtaposed to each other along each of the lateral walls and integrally provided on the internal surface of the opposite lateral walls (20, 21) of the upper half, and the plurality of pillars are stuck to opposite lateral application areas (25, 26) of the substrate. an image pickup element; a substrate mounted with the image pickup element thereon; and a housing accommodating the image pickup element therein, wherein the housing comprises an upper half and a lower half; wherein the upper half of the housing is provided with a plurality of support members which extend upright and to which an external edge portion of the substrate is stuck with an adhesive, and the substrate is provided with application areas (25, 26) to which the adhesive is applied, at the external edge portion stuck with the support members, wherein an ultraviolet curable adhesive is used on the application areas (25, 26); and characterized in that along a pair of opposite lateral walls (20, 21) of the upper half of the housing the plurality of support members are pillars juxtaposed to each other along each of the lateral walls and integrally provided on the internal surface of the opposite lateral walls (20, 21) of the upper half, and the plurality of pillars are stuck to opposite lateral application areas (25, 26) of the substrate.
A compressed-air energy-storage system comprising: at least one variable-nozzle expander (115, 215) configured to receive an airflow at a first pressure and partially expand said airflow at a second pressure, said second pressure being lower than said first pressure, expansion of said airflow in said variable-nozzle expander (115, 215) producing useful mechanical power, wherein said variable-nozzle expander (115, 215) is controlled to maintain said second pressure within a pressure range around a constant pressure value; at least one heat generator component (125, 225) configured to receive a fuel and a partially expanded airflow from said variable-nozzle expander (115, 215); and at least one turbine (131, 231) configured to receive combustion gas from said heat generator component (125, 225) and expand said combustion gas producing useful mechanical power; characterised by further comprising at least one first thermal-energy storage device and at least one second thermal-energy storage device each configured to selectively store thermal energy and deliver thermal energy to said airflow; wherein said at least one second thermal-energy storage device is configured and arranged to deliver thermal energy to said airflow upstream of said variable-nozzle expander (115, 215) and said at least one first thermal-energy storage device is configured and arranged to deliver thermal energy to said airflow between said variable-nozzle expander (115, 215) and said heat generator component (125, 225). at least one variable-nozzle expander (115, 215) configured to receive an airflow at a first pressure and partially expand said airflow at a second pressure, said second pressure being lower than said first pressure, expansion of said airflow in said variable-nozzle expander (115, 215) producing useful mechanical power, wherein said variable-nozzle expander (115, 215) is controlled to maintain said second pressure within a pressure range around a constant pressure value; at least one heat generator component (125, 225) configured to receive a fuel and a partially expanded airflow from said variable-nozzle expander (115, 215); and at least one turbine (131, 231) configured to receive combustion gas from said heat generator component (125, 225) and expand said combustion gas producing useful mechanical power; characterised by further comprising at least one first thermal-energy storage device and at least one second thermal-energy storage device each configured to selectively store thermal energy and deliver thermal energy to said airflow; wherein said at least one second thermal-energy storage device is configured and arranged to deliver thermal energy to said airflow upstream of said variable-nozzle expander (115, 215) and said at least one first thermal-energy storage device is configured and arranged to deliver thermal energy to said airflow between said variable-nozzle expander (115, 215) and said heat generator component (125, 225).
An immunoglobulin single variable domain that specifically binds to the EL1 extracellular loop of potassium channel 3 (Kv1.3), wherein the immunoglobulin single variable domain modulates the activity of Kv1.3 by reducing by at least 70% or even totally inhibiting the efflux of potassium ions from T-cells, as determined in Patch Clamp assay; wherein the immunoglobulin single variable domain essentially consists of 4 framework regions (FR1 to FR4, respectively) and 3 complementarity determining regions (CDR1 to CDR3, respectively), in which: i) CDR1 is chosen from the group consisting of SEQ ID NOs: 181-210; and ii) CDR2 is chosen from the group consisting of SEQ ID NOs: 268-289 and SEQ ID NOs: 541-555; and iii) CDR3 is chosen from the group consisting of SEQ ID NOs: 393-415. i) CDR1 is chosen from the group consisting of SEQ ID NOs: 181-210; and ii) CDR2 is chosen from the group consisting of SEQ ID NOs: 268-289 and SEQ ID NOs: 541-555; and iii) CDR3 is chosen from the group consisting of SEQ ID NOs: 393-415.
A user equipment for use in a LTE network, the user equipment comprising: an RF transceiver for providing an LTE air interface for communicating with a base station operating as an evolved Node B; processing circuitry interfaced to the RF transceiver and arranged to, if a background packet aggregation mode is enabled and no uplink resources for transmitting scheduling requests to the evolved Node B are currently allocated to the device, start a packet aggregation timer, buffer background packets having a relaxed latency requirement, and request uplink resources from the evolved Node B via a random access procedure to transmit the buffered packets upon expiration of the packet aggregation timer; characterized in that the processing circuitry is configured to request uplink resources from the evolved Node B if the background packet aggregation mode is enabled for transmitting the buffered background packets prior to expiration of the packet aggregation timer if the number of background packets that have been buffered exceeds a specified threshold. an RF transceiver for providing an LTE air interface for communicating with a base station operating as an evolved Node B; processing circuitry interfaced to the RF transceiver and arranged to, if a background packet aggregation mode is enabled and no uplink resources for transmitting scheduling requests to the evolved Node B are currently allocated to the device, start a packet aggregation timer, buffer background packets having a relaxed latency requirement, and request uplink resources from the evolved Node B via a random access procedure to transmit the buffered packets upon expiration of the packet aggregation timer; characterized in that the processing circuitry is configured to request uplink resources from the evolved Node B if the background packet aggregation mode is enabled for transmitting the buffered background packets prior to expiration of the packet aggregation timer if the number of background packets that have been buffered exceeds a specified threshold.
A forceps for gripping an intervertebral implant, said forceps comprising two rigid arms that are hinged relative to one another at a connection member, the two arms defining between them an internal space, each arm forming a jaw, the two jaws being for coming into engagement with an intervertebral implant, the jaws being movable between an open position and a closed position in clamping engagement with the implant, at least one of the two arms including a cam surface for urging the jaws in the open position; said forceps being characterized in that the cam surface extends outside the internal space defined between the arms.
A curtain wall mullion or transom for use on a curtain wall system, the mullion or transom comprising: a metal mullion or transom structure (430, 430', 530, 530', 630) having an outer side (433, 533, 633); and a fiberglass reinforced thermally insulating polymer component (440, 540/541, 540'/541', 640/641) having a width which spans a total width of the outer side of the metal mullion or transom structure (430, 430', 530, 530', 630), wherein the component (440, 540/541, 540'/541', 640/641) abuts the outer side of the structure (430, 430', 530, 530', 630) and covers the entirety of the outer side of the structure (430, 430', 530, 530', 530), the component (440, 540/541, 540'/541', 640/641) being connected to the metal structure (430, 430', 530, 530', 630) at the outer side by a first fastener having a head, characterized by the first fastener passing through the metal structure (430, 430', 530, 530', 630) and into the component (440, 540/541, 540'/541', 640/641), the head positioned at an inside of the structure (430, 430', 530, 530', 630). a metal mullion or transom structure (430, 430', 530, 530', 630) having an outer side (433, 533, 633); and a fiberglass reinforced thermally insulating polymer component (440, 540/541, 540'/541', 640/641) having a width which spans a total width of the outer side of the metal mullion or transom structure (430, 430', 530, 530', 630), wherein the component (440, 540/541, 540'/541', 640/641) abuts the outer side of the structure (430, 430', 530, 530', 630) and covers the entirety of the outer side of the structure (430, 430', 530, 530', 530), the component (440, 540/541, 540'/541', 640/641) being connected to the metal structure (430, 430', 530, 530', 630) at the outer side by a first fastener having a head, characterized by the first fastener passing through the metal structure (430, 430', 530, 530', 630) and into the component (440, 540/541, 540'/541', 640/641), the head positioned at an inside of the structure (430, 430', 530, 530', 630).
A method for defending against wireless attack, the method comprising: collecting external RF signals through at least one external antenna mounted on a battery pack; determining an attack signal from the collected external RF signals; and canceling an external RF signal corresponding to the attack signal; wherein the canceling comprises: generating a canceling RF signal having the same frequency and opposite phase as the RF signal corresponding to the attack signal; and transmitting the canceling RF signal through the external antenna. collecting external RF signals through at least one external antenna mounted on a battery pack; determining an attack signal from the collected external RF signals; and canceling an external RF signal corresponding to the attack signal; wherein the canceling comprises: generating a canceling RF signal having the same frequency and opposite phase as the RF signal corresponding to the attack signal; and transmitting the canceling RF signal through the external antenna. generating a canceling RF signal having the same frequency and opposite phase as the RF signal corresponding to the attack signal; and transmitting the canceling RF signal through the external antenna.
A method of converting a control element of an application software of a mobile device into a reduced distraction mode, comprising the following steps: (a) recognizing a control element within the APP based on analyzing an image of the APP presented on a display of the mobile device and a position of the control element; (b) recognizing a textual content of the control element by a character recognition unit; (c) generating a layout description including the control element, the position and the textual content of the control element by a control handler and transmitting it to a graphical user interface engine, wherein the GUI engine is part of an infotainment system of a vehicle; and (d) rebuilding an user interface of the APP into the reduced distraction mode via the GUI engine. (a) recognizing a control element within the APP based on analyzing an image of the APP presented on a display of the mobile device and a position of the control element; (b) recognizing a textual content of the control element by a character recognition unit; (c) generating a layout description including the control element, the position and the textual content of the control element by a control handler and transmitting it to a graphical user interface engine, wherein the GUI engine is part of an infotainment system of a vehicle; and (d) rebuilding an user interface of the APP into the reduced distraction mode via the GUI engine.
A segmented electroluminescent device comprising a plurality of segments, each segment comprising an electroluminescent layer with a first electrode layer arranged on a first side of the electroluminescent layer and a second electrode layer having a first square resistance arranged on a second side of the electroluminescent layer, and a resistive layer having a second square resistance, the resistive layer connecting a first one of the segments with a neighbouring second one of the segments, the resistive layer connecting the second electrode layer of the first one of the segments with the first electrode layer of the second one of the segments, characterised in that the second square resistance is larger than the first square resistance.
A reverse-acting rupture disk, comprising: a dome-shaped rupturable portion (21, 511, 512, 513, 61, 91); a flange portion (22, 521, 522, 523, 62); and a transition area (23, 331, 63, 433, 434, 435, 531, 532, 533) connecting the rupturable portion (21, 511, 512, 513, 61, 91) and the flange portion (22, 521, 522, 523, 62), wherein the transition area (23, 63, 333, 433, 434, 435, 531, 532, 533) comprises a radius-of-transition, wherein the radius-of-transition is configured to determine a pressure at which the rupturable portion will rupture, and the rupture disk has a diameter of about 25 mm (one inch) or less; characterized in that the radius-of-transition is smaller than the thickness of the flange portion (22, 521, 522, 523, 62) of the rupture disk. a dome-shaped rupturable portion (21, 511, 512, 513, 61, 91); a flange portion (22, 521, 522, 523, 62); and a transition area (23, 331, 63, 433, 434, 435, 531, 532, 533) connecting the rupturable portion (21, 511, 512, 513, 61, 91) and the flange portion (22, 521, 522, 523, 62), wherein the transition area (23, 63, 333, 433, 434, 435, 531, 532, 533) comprises a radius-of-transition,
A biological fluid separation device adapted to receive a blood sample having a cellular portion and a plasma portion, the biological fluid separation device comprising: an outer housing having an open end, a closed end, and a sidewall extending therebetween and defining an interior; a dispenser unit removably connectable to the outer housing; and an inner housing within the outer housing, the inner housing comprising: a blood chamber having a blood chamber inlet and a blood chamber outlet, the blood chamber receives the blood sample, the blood chamber outlet in fluid communication with a portion of the interior of the outer housing; a plasma chamber having a plasma chamber outlet; a separator disposed between the blood chamber and the plasma chamber, the separator adapted to trap the cellular portion in the blood chamber and allow the plasma portion to pass through the separator into the plasma chamber; and a plasma collection channel extending from the plasma chamber outlet into the dispenser unit. an outer housing having an open end, a closed end, and a sidewall extending therebetween and defining an interior; a dispenser unit removably connectable to the outer housing; and an inner housing within the outer housing, the inner housing comprising: a blood chamber having a blood chamber inlet and a blood chamber outlet, the blood chamber receives the blood sample, the blood chamber outlet in fluid communication with a portion of the interior of the outer housing; a plasma chamber having a plasma chamber outlet; a separator disposed between the blood chamber and the plasma chamber, the separator adapted to trap the cellular portion in the blood chamber and allow the plasma portion to pass through the separator into the plasma chamber; and a plasma collection channel extending from the plasma chamber outlet into the dispenser unit. a blood chamber having a blood chamber inlet and a blood chamber outlet, the blood chamber receives the blood sample, the blood chamber outlet in fluid communication with a portion of the interior of the outer housing; a plasma chamber having a plasma chamber outlet; a separator disposed between the blood chamber and the plasma chamber, the separator adapted to trap the cellular portion in the blood chamber and allow the plasma portion to pass through the separator into the plasma chamber; and a plasma collection channel extending from the plasma chamber outlet into the dispenser unit.
An article of footwear comprising: a sole; a braided upper attached to the sole; wherein the upper includes a first portion and a second portion, each extending along the length of the article of footwear, along a longitudinal direction from a forefoot portion through a midfoot portion to a heel portion; wherein the first portion has a Jacquard braid pattern having a first tensile strength; wherein the second portion is in direct contact with a sole structure of the article of footwear, and has a Non-Jacquard braid pattern having a second tensile strength, wherein the first tensile strength is different than the second tensile strength; and wherein the upper comprises a seamless braided structure.
A spiro three-membered ring, spiro five-membered ring peptide deformylase inhibitor for use as an anti-tumor agent, wherein the structure of the inhibitor is represented by the following formula: wherein in the formula, n=2 or 4; R 1 is n-butyl or cyclopentylmethyl; R 2 is selected from aromatic ring, aromatic heterocyclic ring, heterocyclic ring, or alkyl; and R 3 is hydrogen or alkyl.