mhurhangee/ep-ind-claims huggingface dataset:
An airflow-generating device, comprising: a volume-adjustable air chamber, comprising: an inlet structure; an outlet structure, wherein an air chamber space is formed between the inlet structure and the outlet structure, and wherein a deflector structure (40,42,44) for adjusting pressure or direction of airflow is arranged on the outlet structure; and an adjustment unit configured for adjusting an inlet-outlet distance between the inlet structure and the outlet structure to adjust an air chamber volume of the adjustable air chamber; and an airflow-generating unit arranged in the volume-adjustable air chamber and configured for generating the airflow introduced from the inlet structure into the air chamber space and exhausted from the outlet structure; characterized by a control unit electrically connected to the airflow-generating unit and the adjustment unit, wherein the control unit is configured to control the adjustment unit to stretch the inlet-outlet distance for increasing the air chamber volume to improve a noise level caused by the airflow when a rotation rate of the airflow-generating unit speeds up, and to shrink the inlet-outlet distance for reducing the air chamber volume to aggrandize the pressure and speed of the airflow when a rotation rate of the airflow-generating unit slows down. an inlet structure; an outlet structure, wherein an air chamber space is formed between the inlet structure and the outlet structure, and wherein a deflector structure (40,42,44) for adjusting pressure or direction of airflow is arranged on the outlet structure; and an adjustment unit configured for adjusting an inlet-outlet distance between the inlet structure and the outlet structure to adjust an air chamber volume of the adjustable air chamber; and an airflow-generating unit arranged in the volume-adjustable air chamber and configured for generating the airflow introduced from the inlet structure into the air chamber space and exhausted from the outlet structure; characterized by a control unit electrically connected to the airflow-generating unit and the adjustment unit, wherein the control unit is configured to control the adjustment unit to stretch the inlet-outlet distance for increasing the air chamber volume to improve a noise level caused by the airflow when a rotation rate of the airflow-generating unit speeds up, and to shrink the inlet-outlet distance for reducing the air chamber volume to aggrandize the pressure and speed of the airflow when a rotation rate of the airflow-generating unit slows down.
A wireless transmit/receive unit, WTRU, (102, 1202) comprising: a processor configured to: send a request to a first network to establish a first session with the first network for transmission of data, the data comprising control plane data and user plane data; receive quality of service, QoS, mapping rules for assigning QoS indications to transmissions in the first network that comprise the data; assign a first QoS indication to a first packet for transmission in the first network; assign a second QoS indication to a second packet for transmission in the first network; and send the first packet and the second packet via the first session associated with the first network, characterized in that the data that are transmitted over the first network, are associated with a second network, the QoS mapping rules comprise first QoS mapping information for the control plane data and second QoS mapping information for the user plane data, assigning the first and second QoS indications to the first and second packets comprises using the first QoS mapping information based on the first packet comprising control plane data associated with the second network and using the second QoS mapping information based on the second packet comprising user plane data associated with the second network. a processor configured to: send a request to a first network to establish a first session with the first network for transmission of data, the data comprising control plane data and user plane data; receive quality of service, QoS, mapping rules for assigning QoS indications to transmissions in the first network that comprise the data; assign a first QoS indication to a first packet for transmission in the first network; assign a second QoS indication to a second packet for transmission in the first network; and send the first packet and the second packet via the first session associated with the first network, send a request to a first network to establish a first session with the first network for transmission of data, the data comprising control plane data and user plane data; receive quality of service, QoS, mapping rules for assigning QoS indications to transmissions in the first network that comprise the data; assign a first QoS indication to a first packet for transmission in the first network; assign a second QoS indication to a second packet for transmission in the first network; and send the first packet and the second packet via the first session associated with the first network, the data that are transmitted over the first network, are associated with a second network, the QoS mapping rules comprise first QoS mapping information for the control plane data and second QoS mapping information for the user plane data, assigning the first and second QoS indications to the first and second packets comprises using the first QoS mapping information based on the first packet comprising control plane data associated with the second network and using the second QoS mapping information based on the second packet comprising user plane data associated with the second network.
Sole for footwear, comprising at least one body and at least one insertable element, in which said at least one body comprises an upper surface intended, in use, to come into contact with the user's foot or with a midsole or insole of a shoe and a lower surface intended, in use, to come into contact at least partially with the external environment or with the ground, said body having a certain thickness, in which said sole and/or said surfaces (1b, 1c) comprise at least a front portion or area of the forefoot, at least a rear portion or area of the rearfoot and at least an intermediate portion or area of the midfoot which connects said front portion with said rear portion, said sole and/or said at least one body comprising, at at least said at least one front portion or area of the forefoot and/or said at least one rear portion or area of the rearfoot, at least one through opening, said at least one through opening crossing the thickness of said sole, extending from said upper surface to said lower surface, wherein said at least one insertable element comprising an upper surface, intended, in use, to come into contact with the user's foot or with a midsole or insole of a shoe, a lower surface, suitable in use to come into contact with said upper surface of said body, and a thickness, wherein said at least one insertable element can be inserted at least partially into said at least one through opening.
A semiconductor device, comprising: a substrate; a gate electrode, a source electrode, and a drain electrode, the gate electrode, the source electrode and the drain electrode being formed on the substrate; a plurality of nonconductive nanowires formed two-dimensionally on an upper surface of the substrate so as to extend perpendicularly to the upper surface of the substrate; an electrode pad formed at upper ends of the plurality of nanowires so as to have a gap between the electrode pad and the substrate, the electrode pad being supported by the plurality of nanowires; and an extraction electrode connecting the electrode pad and the gate electrode. a substrate; a gate electrode, a source electrode, and a drain electrode, the gate electrode, the source electrode and the drain electrode being formed on the substrate; a plurality of nonconductive nanowires formed two-dimensionally on an upper surface of the substrate so as to extend perpendicularly to the upper surface of the substrate; an electrode pad formed at upper ends of the plurality of nanowires so as to have a gap between the electrode pad and the substrate, the electrode pad being supported by the plurality of nanowires; and an extraction electrode connecting the electrode pad and the gate electrode.
A method for the acid dissolution of LiCoO 2 contained in the cathode of Li-ion batteries, using acetic or tartaric acid as leaching agent, wherein the method comprises a first stage and a second stage, wherein said first stage comprises the step of separating the cathode components, while said second stage comprises the step of dissolving the pure LiCoO 2 with at least one of the leaching agents acetic or tartaric acid; wherein said first stage comprises dissolving the glue by means of diluted H 2 SO 4 and obtaining on the one hand, an aluminum foil as recycling material and on the other hand pure LiCoO 2 to be treated in the next stage, together with a generated effluent containing remainders of H 2 SO 4; and wherein said effluent generated after several reuse stages of H 2 SO 4 acid is treated using calcium hydroxide for precipitation as calcium sulfate. wherein said first stage comprises dissolving the glue by means of diluted H 2 SO 4 and obtaining on the one hand, an aluminum foil as recycling material and on the other hand pure LiCoO 2 to be treated in the next stage, together with a generated effluent containing remainders of H 2 SO 4; and wherein said effluent generated after several reuse stages of H 2 SO 4 acid is treated using calcium hydroxide for precipitation as calcium sulfate.
An X-ray CT imaging device, comprising: a revolution section that is configured to cause an X-ray generation source and an electric X-ray detector, facing each other while having a subject therebetween, to revolve about a revolution shaft; a revolution driving section that is configured to drive the revolution section to revolve with respect to the subject; an X-ray radiation area setting section that is configured to accept a setting of a local area of the subject as an X-ray radiation area; a control section that is configured to control at least the revolution driving section; and a high sensitivity site specification section that is configured to specify a high sensitivity site in a biological body that is highly sensitive to an X-ray; wherein the revolution section is configured to be revolved with respect to the X-ray radiation area to perform CT imaging; and wherein, when radiation of an X-ray flux in a revolving movement is performed during the CT imaging in accordance with the X-ray radiation area accepted by the X-ray radiation area setting section, the control section is configured to control at least one of an X-ray revolution plane formed by the X-ray flux along with the revolution of the revolution section by changing an X-ray radiation angle upward or downward in a direction parallel to an axial direction of the revolution shaft, and a revolution range of the revolution section, such that the high sensitivity site is located out of an area which is irradiated doubly by the X-ray, in accordance with the X-ray radiation area and the high sensitivity site. a revolution section that is configured to cause an X-ray generation source and an electric X-ray detector, facing each other while having a subject therebetween, to revolve about a revolution shaft; a revolution driving section that is configured to drive the revolution section to revolve with respect to the subject; an X-ray radiation area setting section that is configured to accept a setting of a local area of the subject as an X-ray radiation area; a control section that is configured to control at least the revolution driving section; and a high sensitivity site specification section that is configured to specify a high sensitivity site in a biological body that is highly sensitive to an X-ray; wherein the revolution section is configured to be revolved with respect to the X-ray radiation area to perform CT imaging; and wherein, when radiation of an X-ray flux in a revolving movement is performed during the CT imaging in accordance with the X-ray radiation area accepted by the X-ray radiation area setting section, the control section is configured to control at least one of an X-ray revolution plane formed by the X-ray flux along with the revolution of the revolution section by changing an X-ray radiation angle upward or downward in a direction parallel to an axial direction of the revolution shaft, and a revolution range of the revolution section, such that the high sensitivity site is located out of an area which is irradiated doubly by the X-ray, in accordance with the X-ray radiation area and the high sensitivity site.
A valve plate assembly for disposition between a compressor head and a compressor body, said valve plate assembly comprising: a first plate defining a first discharge passage to be associated with a first cylinder of a compressor and a second discharge passage to be associated with a second cylinder of the compressor; a second plate; and a spacer disposed between said first plate and said second plate, said spacer supporting a compressive load when the valve plate assembly is secured between a compressor head and a compressor body; characterized by: said spacer being disposed between said first and second discharge passages, said spacer including a through hole adapted to receive a fastener (68, 168) for securing said valve plate assembly to a compressor body when a compressor head is secured to the compressor body. a first plate defining a first discharge passage to be associated with a first cylinder of a compressor and a second discharge passage to be associated with a second cylinder of the compressor; a second plate; and a spacer disposed between said first plate and said second plate, said spacer supporting a compressive load when the valve plate assembly is secured between a compressor head and a compressor body; characterized by: said spacer being disposed between said first and second discharge passages, said spacer including a through hole adapted to receive a fastener (68, 168) for securing said valve plate assembly to a compressor body when a compressor head is secured to the compressor body.
A method of estimating the position of a radio signal receiver comprising; estimating the position of a first stationary radio signal transmitter using a primary set of positioning resources available to the receiver; adding the position of the first transmitter to a secondary set of positioning resources (A, B, C) available to the receiver; and using the secondary set of positioning resources (A, B, C) to estimate the position of the receiver, wherein the position estimation is carried out without two-way communication between the radio signal receiver and the first stationary radio signal transmitter and/or the primary set of positioning resources, and wherein the primary set of positioning resources comprises a global satellite navigation system, wherein estimating the position of the first transmitter using a primary set of positioning resources comprises correlating different sets of information, each set of information corresponding to a different relative position of the receiver to the first transmitter, characterised in that correlation comprises applying a Bayesian estimation filter, said Bayesian estimation filter processing a state vector comprising the position of the receiver and of the first stationay radio signal transmitter to simultaneously improve the position estimates of the radio signal receiver and the first stationary radio signal transmitter.
A method by a terminal in a communication system, the method comprising: receiving system information including a time division duplex, TDD, configuration, wherein the TDD configuration is one of a predetermined set of TDD configurations; receiving configuration information including information associated with a subframe via higher layer signaling; receiving, on a control channel, control information based on the subframe; and identifying an uplink or downlink configuration based on the control information, wherein the identified uplink or downlink configuration is included in a changed TDD configuration that is one of a subset of the predetermined set of TDD configurations, and wherein a radio frame includes a plurality of subframes, and a type of each of the plurality of subframes is identified based on the TDD configuration or the changed TDD configuration. receiving system information including a time division duplex, TDD, configuration, wherein the TDD configuration is one of a predetermined set of TDD configurations; receiving configuration information including information associated with a subframe via higher layer signaling; receiving, on a control channel, control information based on the subframe; and identifying an uplink or downlink configuration based on the control information, wherein the identified uplink or downlink configuration is included in a changed TDD configuration that is one of a subset of the predetermined set of TDD configurations, and wherein a radio frame includes a plurality of subframes, and a type of each of the plurality of subframes is identified based on the TDD configuration or the changed TDD configuration.
A motor comprising HALBACH array, the motor comprising an assembly of a stator and a rotator, a plurality of tooth (11, 21) structures and groove (12, 22) structures are formed on the opposite surfaces of the stator and the rotator, characterized in that, the motor further comprises a plurality of HALBACH array permanent magnet units distributed in the plurality of grooves (12, 22) of the stator and the rotator.
Inhaler for powdery, in particular medical, substances, with a suction air channel leading to a mouthpiece, also with a storage chamber for the substance and with a linearly movable dosing chamber for apportioning a defined amount of substance from the storage chamber into the area of a transfer point to the suction air stream, wherein a component of the suction air stream lying in the direction of extent of the dosing chamber empties the dosing chamber, characterized in that the dosing chamber is configured as a transverse bore of a spindle that is displaceable in dependence on a closure cap which is part of the inhaler, and further characterized by a docking point between the spindle and the closure cap, which docking point lies on the mouthpiece side and disengages if overloaded, wherein the mouthpiece-side end of the closure cap forms the docking point, disengaging if overloaded, between spindle and closure cap, wherein, at the docking point, a latching means is a ring of hooks capable of resilient deflection, and inwardly directed lugs of the resilient tongues of the ring of hooks engage in a narrow waist-like annular groove.
Stick supply unit for a lollipop forming unit, which supplies sticks to a rotating stick drum, wherein the stick drum comprises a multitude of indentations at its circumference each accommodating a single stick, characterized in that the radius of a section of the circumference of the stick drum located between two adjacent indentations increases, preferably in the direction of rotation of the stick drum.
A thermoplastic polyester resin composition comprising a thermoplastic polyester resin, an epoxy compound having an epoxy equivalent of from 200 to 3,000 g/eq, and a hydroxy group-containing resin having a number average molecular weight of from 2,000 to 500,000 and a halogen element content of 1,000 ppm or less, wherein the epoxy compound is blended in an amount of from 0.05 to 10 parts by weight with respect to 100 parts by weight in total of 70 to 99.9 parts by weight of the thermoplastic polyester resin and 0.1 to 30 parts by weight of the hydroxy group-containing resin, wherein the epoxy compound includes an epoxy compound having two or more epoxy groups in one molecule and wherein all the recited parameters have been measured by the relevant method as indicated in the description.
An electronic package comprising: a plurality of electronic components; an enclosure in which the plurality of electronic components reside, the enclosure comprising a thermally conductive cover overlying the plurality of electronic components; at least one heat transfer element coupled to, or integrated with, the thermally conductive cover of the enclosure and residing between a main surface of the thermally conductive cover of the enclosure and at least one electronic component of the plurality of electronic components, the at least one heat transfer element being thermally conductive and spaced from the at least one electronic component; and a thermal interface material disposed between and coupling the at least one heat transfer element and the at least one electronic component, and facilitating conductive transfer of heat from the at least one electronic component to the thermally conductive cover of the enclosure through the at least one heat transfer element, the thermally conductive cover facilitating spreading and dissipating the transferred heat outwards, characterised in that the enclosure is surrounded by a tamper-respondent sensor, and the tamper-respondent sensor is surrounded by an encapsulant, the at least one heat transfer element and the thermally conductive cover facilitating dissipating the heat from the at least one electronic component, outwards through the tamper-respondent sensor and the surrounding encapsulant. a plurality of electronic components; an enclosure in which the plurality of electronic components reside, the enclosure comprising a thermally conductive cover overlying the plurality of electronic components; at least one heat transfer element coupled to, or integrated with, the thermally conductive cover of the enclosure and residing between a main surface of the thermally conductive cover of the enclosure and at least one electronic component of the plurality of electronic components, the at least one heat transfer element being thermally conductive and spaced from the at least one electronic component; and a thermal interface material disposed between and coupling the at least one heat transfer element and the at least one electronic component, and facilitating conductive transfer of heat from the at least one electronic component to the thermally conductive cover of the enclosure through the at least one heat transfer element, the thermally conductive cover facilitating spreading and dissipating the transferred heat outwards, characterised in that the enclosure is surrounded by a tamper-respondent sensor, and the tamper-respondent sensor is surrounded by an encapsulant, the at least one heat transfer element and the thermally conductive cover facilitating dissipating the heat from the at least one electronic component, outwards through the tamper-respondent sensor and the surrounding encapsulant.