mhurhangee/ep-ind-claims huggingface dataset:
A communication method in a first base station configured to operate a first cell, the method comprising: establishing a signaling bearer between the first base station and a mobility management apparatus in a core network; establishing a Radio Resource Control, RRC, connection between the first base station and a user equipment, UE,, the UE configured to establish, while the RRC connection is maintained in the first cell, a data radio bearer, DRB, in a second cell operated by a second base station; determining to establish a DRB between the second base station and the UE; receiving, from the mobility management apparatus, bearer configuration information; transmitting (S105, S106), to the second base station, the bearer configuration information for requesting the second base station to establish a user plane bearer between the second base station and a data transfer apparatus located in the core network and to establish the DRB, wherein the data transfer apparatus terminates a bearer between the UE and the data transfer apparatus; receiving, from the second base station, a response to the bearer configuration information, the response indicating that establishment of the user plane bearer and establishment of the DRB have been completed; and transmitting, to the mobility management apparatus, a message including configuration information for the user plane bearer. establishing a signaling bearer between the first base station and a mobility management apparatus in a core network; establishing a Radio Resource Control, RRC, connection between the first base station and a user equipment, UE,, the UE configured to establish, while the RRC connection is maintained in the first cell, a data radio bearer, DRB, in a second cell operated by a second base station; determining to establish a DRB between the second base station and the UE; receiving, from the mobility management apparatus, bearer configuration information; transmitting (S105, S106), to the second base station, the bearer configuration information for requesting the second base station to establish a user plane bearer between the second base station and a data transfer apparatus located in the core network and to establish the DRB, wherein the data transfer apparatus terminates a bearer between the UE and the data transfer apparatus; receiving, from the second base station, a response to the bearer configuration information, the response indicating that establishment of the user plane bearer and establishment of the DRB have been completed; and transmitting, to the mobility management apparatus, a message including configuration information for the user plane bearer.
Method for determining an undetermined number of plate-shaped products (11 - 16) from wood or wood substitutes, in which a. a radiation source is used which is directed to the undetermined number of plate-shaped products (11 -16) and is irradiated with electromagnetic radiation f(t), in particular radar or terahertz radiation, emitted from the radiation source, wherein the emitted radiation f(t) is emitted as an output signal as a function of time t with periodically changed frequency, b. the echo a(t) of the emitted radiation is picked up as an input signal by a receiver arranged in particular at the site of the radiation source, wherein the echo a(t) contains a sum of reflection signals a1(t), a2(t),..., an(t) representative of the existing interfaces (1 -8) of the undetermined number of plate-shaped products (11 -16); c. a mix signal m(t) is formed from the output signal f(t) and the input signal a(t), in particular in the form of a link of the two signals f(t) and a(t), d. the number of the undetermined number and/or the thicknesses of the plate-shaped products and/or the height of a stack of the plate-shaped products (11 -16) and/or the quality of the plate-shaped products (11 -16) is/are determined on the basis of the mix signal m(t). a. a radiation source is used which is directed to the undetermined number of plate-shaped products (11 -16) and is irradiated with electromagnetic radiation f(t), in particular radar or terahertz radiation, emitted from the radiation source, wherein the emitted radiation f(t) is emitted as an output signal as a function of time t with periodically changed frequency, b. the echo a(t) of the emitted radiation is picked up as an input signal by a receiver arranged in particular at the site of the radiation source, wherein the echo a(t) contains a sum of reflection signals a1(t), a2(t),..., an(t) representative of the existing interfaces (1 -8) of the undetermined number of plate-shaped products (11 -16); c. a mix signal m(t) is formed from the output signal f(t) and the input signal a(t), in particular in the form of a link of the two signals f(t) and a(t), d. the number of the undetermined number and/or the thicknesses of the plate-shaped products and/or the height of a stack of the plate-shaped products (11 -16) and/or the quality of the plate-shaped products (11 -16) is/are determined on the basis of the mix signal m(t).
A mirror device for a head-up display device comprising: a mirror including a rotation shaft pivotably supported and a reflecting surface for reflecting display light; a gear unit having gear teeth and coupled to the rotation shaft and pivot integrally with the mirror; a worm that meshes directly with the gear teeth; a holding member that rotatably supports the worm; and a motor that is held by the holding member, connected to the worm, and configured to rotationally drive the rotation shaft via the worm and the gear teeth, characterized in a stopper mechanism that has a rotating member disposed coaxially with the worm, and restricts a rotation range of the worm, wherein the gear unit is rotated by receiving a driving force from the worm via the gear teeth, the rotating member is rotatable relative to the holding member and the worm individually, the stopper mechanism includes: a first contact portion that is provided on the rotating member and comes in contact with the worm to receive force in the rotation direction from the worm; and a second contact portion that is provided on the rotating member and is locked by the holding member, and the stopper mechanism is configured to allow the worm to rotate relative to the holding member by more than one rotation. a mirror including a rotation shaft pivotably supported and a reflecting surface for reflecting display light; a gear unit having gear teeth and coupled to the rotation shaft and pivot integrally with the mirror; a worm that meshes directly with the gear teeth; a holding member that rotatably supports the worm; and a motor that is held by the holding member, connected to the worm, and configured to rotationally drive the rotation shaft via the worm and the gear teeth, characterized in a stopper mechanism that has a rotating member disposed coaxially with the worm, and restricts a rotation range of the worm, wherein the gear unit is rotated by receiving a driving force from the worm via the gear teeth, the rotating member is rotatable relative to the holding member and the worm individually, the stopper mechanism includes: a first contact portion that is provided on the rotating member and comes in contact with the worm to receive force in the rotation direction from the worm; and a second contact portion that is provided on the rotating member and is locked by the holding member, and a first contact portion that is provided on the rotating member and comes in contact with the worm to receive force in the rotation direction from the worm; and a second contact portion that is provided on the rotating member and is locked by the holding member, and the stopper mechanism is configured to allow the worm to rotate relative to the holding member by more than one rotation.
A medical device comprising: an elongated shaft portion; and an expansion body provided at a distal portion of the shaft portion to be expandable and contractable in a radial direction, wherein the shaft portion includes an outer tube, and an inner tube that is slidable in an axial direction inside the outer tube, the expansion body includes a first connecting portion connected to the outer tube, and a second connecting portion connected to the inner tube, the outer tube includes an open end at which an opening portion is formed, the inner tube entering and exiting from the opening portion, the expansion body is deformable to be in a reference form in which the expansion body is widened in the radial direction in a natural state, and is deformable to be in a contracted form in which the expansion body is contracted in the radial direction by the first connecting portion and the second connecting portion being more separated from each other in the contracted form than in the reference form, and in the reference form, the open end is located between the first connecting portion and the second connecting portion and when the expansion body is deformed from the reference form into the contracted form, a part of the inner tube is extracted from the opening portion, characterized in that in the reference form where the expansion body is widened with no external force acting on the expansion body, a distance L1 from the first connecting portion to the open end is 30% to 80% of a distance L2 from the first connecting portion to the second connecting portion. an elongated shaft portion; and an expansion body provided at a distal portion of the shaft portion to be expandable and contractable in a radial direction, wherein the shaft portion includes an outer tube, and an inner tube that is slidable in an axial direction inside the outer tube, the expansion body includes a first connecting portion connected to the outer tube, and a second connecting portion connected to the inner tube, the outer tube includes an open end at which an opening portion is formed, the inner tube entering and exiting from the opening portion, the expansion body is deformable to be in a reference form in which the expansion body is widened in the radial direction in a natural state, and is deformable to be in a contracted form in which the expansion body is contracted in the radial direction by the first connecting portion and the second connecting portion being more separated from each other in the contracted form than in the reference form, and in the reference form, the open end is located between the first connecting portion and the second connecting portion and when the expansion body is deformed from the reference form into the contracted form, a part of the inner tube is extracted from the opening portion,
An antibody which binds to the ORF2i protein of hepatitis E virus and wherein said antibody does not bind to the ORF2g protein nor to the ORF2c protein of hepatitis E virus, and wherein the antibody binds to an epitope comprising the amino acid sequence as set forth in SEQ ID NO: 4.
An array substrate, comprising a plurality of pixel units disposed on a base substrate, wherein, each pixel unit comprises a thin-film transistor region and a display region other than the thin-film transistor region; a thin-film transistor structure is formed in the thin-film transistor region, and an organic light-emitting diode driven by the thin-film transistor structure is disposed in the display region; the organic light-emitting diode comprises a transparent first electrode, a light-emitting layer, and a second electrode for reflecting light that are sequentially formed in a direction away from the base substrate; a transflective layer is formed in the display region; a color filter film is formed in the display region and is disposed between the second electrode of the organic light-emitting diode and the transflective layer; the second electrode of the organic light-emitting diode and the transflective layer form a microcavity structure; the color filter films in the pixel units of different colors have different thicknesses; characterized in that the thin-film transistor structure comprises: a first gate electrode and a second gate electrode formed on the base substrate; a gate insulating layer formed on the first gate electrode and the second gate electrode; a first active layer and a second active layer formed on the gate insulating layer; an insulating layer formed on the first active layer and the second active layer; a first source electrode and a first drain electrode formed on the insulating layer and corresponding to the first active layer, and a second source electrode and a second drain electrode formed on the insulating layer and corresponding to the second active layer; a portion of the transflective layer is formed below the first source electrode, the first drain electrode, the second source electrode and the second drain electrode of the thin-film transistor structure, and a pattern of the portion of the transflective layer is same as patterns of the first source electrode, the first drain electrode, the second source electrode and the second drain electrode.
Well tool device comprising: - a housing having an inner surface defining a through bore; - bodies provided in the housing; characterized in that - the housing is a production tubing comprising perforations; - the bodies are frangible glass bodies; - the frangible glass bodies are provided in the respective perforations; - a sealing device is provided between each frangible glass body and the housing; - each frangible glass body is provided as one glass body comprising a barrier portion supported by the housing and a neck portion faced radially inwards towards the center of the housing; - the diameter of the neck portion is smaller than the diameter of the barrier portion. - a housing having an inner surface defining a through bore; - bodies provided in the housing; characterized in that - the housing is a production tubing comprising perforations; - the bodies are frangible glass bodies; - the frangible glass bodies are provided in the respective perforations; - a sealing device is provided between each frangible glass body and the housing; - each frangible glass body is provided as one glass body comprising a barrier portion supported by the housing and a neck portion faced radially inwards towards the center of the housing; - the diameter of the neck portion is smaller than the diameter of the barrier portion.
A planar heat transfer device for distributing heat and removing heat from a planar heat source, having a cavity bounded by a first wall for coupling to the planar heat source and an opposing second wall and including a working fluid, wherein the cavity is sealed in a vacuum-tight manner to form a vapor space for the working fluid, characterized by a capillary support structure made of a capillary acting wire mesh, wherein the capillary support structure extends folded in at least one direction between the first wall and the second wall to provide a support action and a capillary action for condensed working fluid, such that transport of condensed working fluid through the capillary support structure from the second wall to the first wall is possible, and wherein folds of the capillary support structure separate the cavity into a plurality of portions (155, 156), and wherein the capillary support structure has mechanical stability to maintain the first wall and the second wall at a predetermined distance from one another. removing heat from a planar heat source, having a cavity bounded by a first wall for coupling to the planar heat source and an opposing second wall and including a working fluid, wherein the cavity is sealed in a vacuum-tight manner to form a vapor space for the working fluid, characterized by a capillary support structure made of a capillary acting wire mesh, wherein the capillary support structure extends folded in at least one direction between the first wall and the second wall to provide a support action and a capillary action for condensed working fluid, such that transport of condensed working fluid through the capillary support structure from the second wall to the first wall is possible, and wherein folds of the capillary support structure separate the cavity into a plurality of portions (155, 156), and wherein the capillary support structure has mechanical stability to maintain the first wall and the second wall at a predetermined distance from one another.
An apparatus for treating contaminated water comprising: (a) an electrocoagulation reactor comprising: (i) a reaction vessel having an inlet for inflow of water and an outlet for outflow of water from the reaction vessel; (ii) a sacrificial anode; (iii) a rotatable cathode; (iv) a non-sacrificial anode; (v) a first gap between the sacrificial anode and the cathode, the first gap comprising a first treatment zone downstream of the inlet, the sacrificial anode and the cathode being adapted to apply a first voltage across the first gap; (vi) a second gap between the non-sacrificial anode and the cathode, the second gap comprising a second treatment zone downstream of the first treatment zone, the non-sacrificial anode and the cathode being adapted to apply a second voltage across the second gap, whereby a flow path of water through the reaction vessel is from the inlet to the first treatment zone, then to the second treatment zone and then to the outlet (a) an electrocoagulation reactor comprising: (i) a reaction vessel having an inlet for inflow of water and an outlet for outflow of water from the reaction vessel; (ii) a sacrificial anode; (iii) a rotatable cathode; (iv) a non-sacrificial anode; (v) a first gap between the sacrificial anode and the cathode, the first gap comprising a first treatment zone downstream of the inlet, the sacrificial anode and the cathode being adapted to apply a first voltage across the first gap; (vi) a second gap between the non-sacrificial anode and the cathode, the second gap comprising a second treatment zone downstream of the first treatment zone, the non-sacrificial anode and the cathode being adapted to apply a second voltage across the second gap, whereby a flow path of water through the reaction vessel is from the inlet to the first treatment zone, then to the second treatment zone and then to the outlet (i) a reaction vessel having an inlet for inflow of water and an outlet for outflow of water from the reaction vessel; (ii) a sacrificial anode; (iii) a rotatable cathode; (iv) a non-sacrificial anode; (v) a first gap between the sacrificial anode and the cathode, the first gap comprising a first treatment zone downstream of the inlet, the sacrificial anode and the cathode being adapted to apply a first voltage across the first gap; (vi) a second gap between the non-sacrificial anode and the cathode, the second gap comprising a second treatment zone downstream of the first treatment zone, the non-sacrificial anode and the cathode being adapted to apply a second voltage across the second gap, whereby a flow path of water through the reaction vessel is from the inlet to the first treatment zone, then to the second treatment zone and then to the outlet
A method of monitoring a hydrocarbon liquid mixture stored within a storage tank, comprising: determining real-time parameters associated with evaporative loss of said liquid including at least one condition within said storage tank using sensors including a liquid level sensor, liquid temperature sensor, vapor temperature sensor, and vapor pressure sensor installed on said storage tank and at least one environmental condition, wherein said storage tank is breathing through a breather vent having an open position and a closed position and wherein said storage tank is available for transferring said hydrocarbon liquid mixture into or out of said storage tank; and using a computing device implementing an inventory calculation algorithm stored in an associated non-transitory memory that uses said real-time parameters and at least one known physical property of said hydrocarbon liquid mixture within said storage tank as input parameters, automatically calculating in real-time a static evaporative loss and a dynamic evaporative loss occurring when said hydrocarbon liquid mixture is being transferred into and out of said storage tank for said liquid, said inventory calculation algorithm further comprising combining said static evaporative loss and said dynamic evaporative loss with hydrocarbon liquid mixture transfers into and out of said storage tank to automatically calculate a corrected total mass balance for said storage tank. determining real-time parameters associated with evaporative loss of said liquid including at least one condition within said storage tank using sensors including a liquid level sensor, liquid temperature sensor, vapor temperature sensor, and vapor pressure sensor installed on said storage tank and at least one environmental condition, wherein said storage tank is breathing through a breather vent having an open position and a closed position and wherein said storage tank is available for transferring said hydrocarbon liquid mixture into or out of said storage tank; and using a computing device implementing an inventory calculation algorithm stored in an associated non-transitory memory that uses said real-time parameters and at least one known physical property of said hydrocarbon liquid mixture within said storage tank as input parameters, automatically calculating in real-time a static evaporative loss and a dynamic evaporative loss occurring when said hydrocarbon liquid mixture is being transferred into and out of said storage tank for said liquid, said inventory calculation algorithm further comprising combining said static evaporative loss and said dynamic evaporative loss with hydrocarbon liquid mixture transfers into and out of said storage tank to automatically calculate a corrected total mass balance for said storage tank.
Air compressor device which mainly consists of a case containing a compressor element which is powered by a variable speed motor with a control box with a set maximum number of revolutions (Nmax) for the compressor element, an air cooling which sucks environmental air via an inlet and blows it back to the environment through the case and via an exhaust and a cooling circuit for the cooling of the gas which has been compressed by the compressor element, characterized in that the control box is equipped with an algorithm which reduces the abovementioned maximum allowed set number of revolutions (Nmax) by a certain level as soon as the measured environmental temperature rises above a maximum set level (Tmax) and the maximum allowed set number of revolutions (Nmax) rises again as soon as the environmental temperature falls below the abovementioned level (Tmax).