mhurhangee/ep-ind-claims huggingface dataset:
Axle link for a vehicle axle, which is composed of a front link portion in the direction of travel and a rear link portion in the direction of travel, the link portions (11, 12) being provided with support surfaces formed integrally thereon for support against a rotary axle body of the vehicle axle and being connected to one another by tension elements (33, 34), characterized in that the support surface of the front link portion is divided into individual shells (21, 22) having a shell contour curved in the axle circumferential direction, and a support surface-free circumferential portion is located between the shells (21, 22), and in that the support surface of the rear link portion is also divided into individual shells (23, 24) having a shell contour curved in the axle circumferential direction, and a support surface-free circumferential portion is located between the shells (23, 24).
Condenser tumble-dryer having facilities for accommodating the following components - an air-cooled condenser with a heat-exchanger, - a drive motor for a clothes drum and for a fan for the process air and the cooling air, - ducts and conduit facilities for both airstreams, - a condensate collection tray and - a condensate pump, and having a base module which is made of plastic and which serves as part of the supporting structure of the tumble-dryer, into which base module said accommodation facilities are moulded, characterised in that the base module is configured as a compact uniform plastic body for all said components and has separating surfaces for connection to front and rear components (6, 5), each of which surfaces is essentially located in at least one perpendicular plane or in at least two perpendicular planes that are offset in a staggered manner in relation to each other, and the base module is connected in a seal-free manner to the front and back components (6, 5) via the perpendicular separating surfaces. - an air-cooled condenser with a heat-exchanger, - a drive motor for a clothes drum and for a fan for the process air and the cooling air, - ducts and conduit facilities for both airstreams, - a condensate collection tray and - a condensate pump,
Movement apparatus for loading/unloading containers into/from a freeze dryer provided with a freeze drying chamber having at least one shelf for receiving and supporting said containers, comprising a push bar to engage and push said containers and movement means for moving said push bar through said freeze drying chamber along a direction of movement, wherein said movement means comprises at least a first rigid interlocking chain linear actuator having a first movement rigid interlocking chain mobile along said direction of movement and provided with a first operating end connected to said push bar, characterized in that said movement means further comprises at least a second rigid interlocking chain linear actuator arranged to rotate said push bar about a rotation axis at least between a lowered position wherein said push bar is arranged to engage and push said containers, and a raised position wherein said push bar does not interact with said containers, said rotation axis being transverse, in particular substantially orthogonal, to said direction of movement.
A composition for use in a method of reducing viral load or suppressing viral replication in a Varroa destructor mite, the method comprising providing to the Varroa destructor mite a composition comprising an effective amount of at least one trigger polynucleotide which comprises a nucleic acid sequence which downregulates expression of a bee viral gene in the Varroa destructor mite, thereby reducing viral load or suppressing viral replication in the Varroa destructor mite.
An ultrasound diagnosis apparatus comprising: a controller configured to recognize an object included in an ultrasound image based on environment setting information of the ultrasound diagnosis apparatus, wherein the environment setting information of the ultrasound apparatus comprises a type of application and a type of a probe used for acquiring the ultrasound image of the object and retrieve at least one piece of texture information corresponding to the recognized object from at least one piece of texture information stored in a memory; a display configured to display the ultrasound image and the retrieved at least one piece of texture information; a user interface configured to receive an input for selecting one piece of texture information from among the retrieved at least one piece of texture information; and an image processor configured to perform texture mapping of the selected piece of texture information onto at least one region in the ultrasound image of the object. a controller configured to recognize an object included in an ultrasound image based on environment setting information of the ultrasound diagnosis apparatus, wherein the environment setting information of the ultrasound apparatus comprises a type of application and a type of a probe used for acquiring the ultrasound image of the object and retrieve at least one piece of texture information corresponding to the recognized object from at least one piece of texture information stored in a memory; a display configured to display the ultrasound image and the retrieved at least one piece of texture information; a user interface configured to receive an input for selecting one piece of texture information from among the retrieved at least one piece of texture information; and an image processor configured to perform texture mapping of the selected piece of texture information onto at least one region in the ultrasound image of the object.
A mobile station for wireless communication comprising: a communication unit configured to receive a first channel state information, CSI, reference signal and a second CSI reference signal, the second reference signal being weighted by a first matrix of transmission weights; a weight determination unit configured to determine first transmission weight information based on reception of the first CSI reference signal and second transmission weight information based on reception of the second CSI reference signal, the first transmission weight information being the first matrix of transmission weights and the second transmission weight information being a second matrix of transmission weights, wherein the communication unit is further configured to periodically transmit the first transmission weight information according to a first period and the second transmission weight information according to a second period, the first period being different from the second period. a communication unit configured to receive a first channel state information, CSI, reference signal and a second CSI reference signal, the second reference signal being weighted by a first matrix of transmission weights; a weight determination unit configured to determine first transmission weight information based on reception of the first CSI reference signal and second transmission weight information based on reception of the second CSI reference signal, the first transmission weight information being the first matrix of transmission weights and the second transmission weight information being a second matrix of transmission weights, wherein the communication unit is further configured to periodically transmit the first transmission weight information according to a first period and the second transmission weight information according to a second period, the first period being different from the second period.
A co-culture system for production of single-cell protein material, pyruvate and/or pyruvate derived products, the co-culture system comprising a microbial component and a substrate, wherein the microbial component comprises or consists of a first and a second microbial cell, wherein the first and the second microbial cells are different strains of the species Cupriavidus necator, wherein the substrate comprises at least a first carbon source and a second carbon source, the first carbon source being different from the second carbon source, wherein the first microbial cell is capable of metabolizing the first carbon source, wherein the second microbial cell is capable of metabolizing the second carbon source, and wherein said pyruvate derived products are growth-associated metabolites selected from alcohols, biofuels and/or amino acids; and/or homo- and co-polymeric polyhydroxyalkanoates, co-polymeric polythioesters, monomeric hydroxyalkanoates and/or cyanophycin. wherein the microbial component comprises or consists of a first and a second microbial cell, wherein the first and the second microbial cells are different strains of the species Cupriavidus necator, wherein the substrate comprises at least a first carbon source and a second carbon source, the first carbon source being different from the second carbon source, wherein the first microbial cell is capable of metabolizing the first carbon source, wherein the second microbial cell is capable of metabolizing the second carbon source, and wherein said pyruvate derived products are growth-associated metabolites selected from alcohols, biofuels and/or amino acids; and/or homo- and co-polymeric polyhydroxyalkanoates, co-polymeric polythioesters, monomeric hydroxyalkanoates and/or cyanophycin.
Method for forming a holder for a fluid product by means of blow moulding, whereby the holder comprises a wall and an edge, formed integrally with the wall, protruding outside the wall, whereby a thermoplastic preform is pushed outwards under gas pressure against a first mould part and a second mould part to form a thermoplastic intermediate form, in which the second mould part is then moved inwards such that a part of the intermediate form is pushed inwards by the second mould part in order to form the edge in the space between the first mould part and the second mould part, whereby the first mould part and the second mould part are of such a shape that the edge formed comprises a first edge part and a second edge part, whereby the second edge part is closer to the wall than the first edge part and the first edge part makes a first angle (α) to the direction in which the second mould part is moved and the second edge part makes a larger angle (β) to this direction, whereby the first edge part makes an angle (α) of greater than 10° to the direction of movement of the second mould part, whereby the first mould part and the second mould part are of such a shape that the first edge part and the second edge part connect, characterised in that the first mould part and the second mould part are of such a shape that the first edge part and the second edge part are straight in a vertical cross-section.
A method for determining, by a terminal, the duration of a rapid on state or off state of a micro-cell base station, the method comprising: determining a state duration of the micro-cell base station by detecting in real-time an on state or an off state of a micro-cell base station on each sub-frame, if the micro-cell base station is a single sub-frame level on/off micro-cell base station which can be switched in a single sub-frame; and determining the state duration of the micro-cell base station by receiving a notification message sent by the micro-cell base station or a macro-cell base station, if the micro-cell base station is a multiple sub-frame level on/off micro-cell base station which cannot be switched in a single sub-frame. determining a state duration of the micro-cell base station by detecting in real-time an on state or an off state of a micro-cell base station on each sub-frame, if the micro-cell base station is a single sub-frame level on/off micro-cell base station which can be switched in a single sub-frame; and determining the state duration of the micro-cell base station by receiving a notification message sent by the micro-cell base station or a macro-cell base station, if the micro-cell base station is a multiple sub-frame level on/off micro-cell base station which cannot be switched in a single sub-frame.
Peripheral power module for electronic detonator, comprising an on-board power source, means of wireless communication with a remote control console, means of processing and means of wired communication with at least one electronic detonator, characterised in that means of forming a switch (K 0, K 1, K 2) are fitted between this on-board power source on the one hand and these means of wireless communication, these means of processing and these means of wired communication on the other hand, this peripheral power module also comprising means of detecting connection of at least one electronic detonator, these means of detecting connection being adapted to control these means of forming a switch (K 0) to supply these means of processing by this on-board power source when at least one electronic detonator is connected to this peripheral power module, so that this peripheral power module is in an activated mode.
A method comprising: authenticating, by a wireless docking center, a wireless dockee, to a wireless docking service of the wireless docking center using a Wi-Fi direct service, WFDS, application service platform, ASP; establishing, by the wireless docking center, a wireless docking service session using the WFDS ASP; advertising by the wireless docking center, to the wireless dockee, a a peripheral function service using said WFDS ASP whereas the peripheral function service is associated with the peripheral that is communicatively coupled with the wireless docking center; performing, by the wireless docking center, capability negotiation for the peripheral function service; and authenticating, by the wireless docking center, the wireless dockee, with the peripheral function service of the wireless docking center; creating, by the wireless docking center, a peripheral function service session for the peripheral function service using the WFDS ASP. authenticating, by a wireless docking center, a wireless dockee, to a wireless docking service of the wireless docking center using a Wi-Fi direct service, WFDS, application service platform, ASP; establishing, by the wireless docking center, a wireless docking service session using the WFDS ASP; advertising by the wireless docking center, to the wireless dockee, a a peripheral function service using said WFDS ASP whereas the peripheral function service is associated with the peripheral that is communicatively coupled with the wireless docking center; performing, by the wireless docking center, capability negotiation for the peripheral function service; and authenticating, by the wireless docking center, the wireless dockee, with the peripheral function service of the wireless docking center; creating, by the wireless docking center, a peripheral function service session for the peripheral function service using the WFDS ASP.
A control method for an inverter arrangement capable to provide reverse power, in particular a solar cell inverter of a photovoltaic system, comprising a DC-DC converter for generating half-waves of an output-side voltage (u') and a bridge circuit which is connected downstream of the DC-DC converter and forms a desired alternating voltage from the output-side voltage (u') of the DC-DC converter, characterized in that a first control method is carried out in a first section and a second control method is carried out in a second section for the DC-DC converter and/or the bridge circuit, which are selected as a function of the output voltage (u') of the DC-DC converter, wherein in the first section the DC-DC converter generates half-waves of the output voltage of the DC-DC converter, the DC-DC converter regulating the absolute value of the output voltage and the bridge circuit acting as an unfolding bridge on the half-waves and setting only the sign of the output voltage, and wherein in the second section the DC-DC converter and the bridge circuit are controlled in such a way that the DC-DC converter sets a constant voltage (u' = U schwell) and the bridge circuit controls the absolute value and the sign of the output voltage, whereby a reactive power capability is obtained.
An intermittent coating method of intermittently applying a coating liquid to a base material sent out from a first roller while causing said base material to travel continuously by winding the base material around a second roller, the method comprising the steps of: (a) bringing a slit nozzle having a liquid pool of a coating liquid at its tip to be close to said base material supported on a backup roller, in which a spacing between said tip of said slit nozzle and a front surface of said base material is a first spacing with which said liquid pool comes into contact with the front surface of said base material; (b) moving said slit nozzle such that the spacing between said tip of said slit nozzle and the front surface of said base material is equal to a second spacing different from said first spacing after said liquid pool comes into contact with the front surface of said base material; and (c) applying a coating liquid to the front surface of said base material from said slit nozzle while keeping the spacing between said tip of said slit nozzle and the front surface of said base material at said second spacing (TG, wherein said first spacing in said step (a) is set to become larger and the liquid pool formed at the tip of said slit nozzle in said step (a) becomes larger with a larger film thickness of a coating formed on the front surface of said base material in said step (c). (a) bringing a slit nozzle having a liquid pool of a coating liquid at its tip to be close to said base material supported on a backup roller, in which a spacing between said tip of said slit nozzle and a front surface of said base material is a first spacing with which said liquid pool comes into contact with the front surface of said base material; (b) moving said slit nozzle such that the spacing between said tip of said slit nozzle and the front surface of said base material is equal to a second spacing different from said first spacing after said liquid pool comes into contact with the front surface of said base material; and (c) applying a coating liquid to the front surface of said base material from said slit nozzle while keeping the spacing between said tip of said slit nozzle and the front surface of said base material at said second spacing (TG,
A liner panel (72, 74) for use in a combustor of a gas turbine engine, the liner panel (72, 74) comprising: a grommet that forms a lip; and a seal boss surrounding the lip, wherein a support shell (68, 70) is supported and slides on the seal boss in response to thermal excursions and mechanical tolerances in use, the lip including a chamfer with a first radius and a second radius adjacent to an entry of a dilution passage defined by the grommet, characterized in that the liner panel (72, 74) further comprises a third radius at an exit of the dilution passage, wherein the third radius is located adjacent to the exit of the dilution passage to blend an inner bore wall surface of the dilution passage into the hot side, wherein the first, second and third radius (162, 164, 170) facilitates application of a coating that increases the oxidation life of the liner panel (72, 74). a grommet that forms a lip; and a seal boss surrounding the lip, wherein a support shell (68, 70) is supported and slides on the seal boss in response to thermal excursions and mechanical tolerances in use, the lip including a chamfer with a first radius and a second radius adjacent to an entry of a dilution passage defined by the grommet, characterized in that the liner panel (72, 74) further comprises a third radius at an exit of the dilution passage, wherein the third radius is located adjacent to the exit of the dilution passage to blend an inner bore wall surface of the dilution passage into the hot side, wherein the first, second and third radius (162, 164, 170) facilitates application of a coating that increases the oxidation life of the liner panel (72, 74).
A separator for an electrochemical device which comprises: a porous polymer substrate having a plurality of pores; a porous coating layer formed on at least one surface of the porous polymer substrate, and comprising a plurality of inorganic particles and a binder polymer disposed partially or totally on the surface of the inorganic particles to connect and fix the inorganic particles with each other; and an adhesive layer coated on the surface of the porous coating layer, and comprising a first adhesive resin particles having a diameter corresponding to 0.8-3 times of the diameter of the inorganic particles and a second adhesive resin particles having a diameter corresponding to 0.2-0.6 times of the diameter of the inorganic particles, wherein the first adhesive resin particles are present in an amount of 30-90 wt% based on the total weight of the first adhesive resin particles and the second adhesive resin particles, wherein the particle diameters of the adhesive resin particles and the inorganic particles are determined by using a laser diffraction method and wherein the term diameter refers to the average particle diameter (D 50) of the inorganic particles or adhesive resin particles, and may be defined as particle diameter corresponding to 50% of particle diameter distribution. a porous polymer substrate having a plurality of pores; a porous coating layer formed on at least one surface of the porous polymer substrate, and comprising a plurality of inorganic particles and a binder polymer disposed partially or totally on the surface of the inorganic particles to connect and fix the inorganic particles with each other; and an adhesive layer coated on the surface of the porous coating layer, and comprising a first adhesive resin particles having a diameter corresponding to 0.8-3 times of the diameter of the inorganic particles and a second adhesive resin particles having a diameter corresponding to 0.2-0.6 times of the diameter of the inorganic particles, wherein the first adhesive resin particles are present in an amount of 30-90 wt% based on the total weight of the first adhesive resin particles and the second adhesive resin particles, wherein the particle diameters of the adhesive resin particles and the inorganic particles are determined by using a laser diffraction method and wherein the term diameter refers to the average particle diameter (D 50) of the inorganic particles or adhesive resin particles, and may be defined as particle diameter corresponding to 50% of particle diameter distribution.