mhurhangee/ep-ind-claims huggingface dataset:
A device for degassing granular or powder material, comprising: - a silo defining a containment chamber for granular or powder material and a gas produced by said material and having a flaring bottom portion; and - means for supplying an injection gas comprising at least one blower element for feeding the injection gas into said chamber arranged in correspondence of said bottom portion to mix and/or homogenise the material and the related gas produced by the material itself with the injection gas; characterised in that said blower element is of pneumatic type and comprises a plurality of pulse valves for supplying the injection gas at predetermined pressure and flow rate values and at predetermined intervals; said pulse valves being arranged along a circumferential path defined on the flaring bottom portion. - a silo defining a containment chamber for granular or powder material and a gas produced by said material and having a flaring bottom portion; and - means for supplying an injection gas comprising at least one blower element for feeding the injection gas into said chamber arranged in correspondence of said bottom portion to mix and/or homogenise the material and the related gas produced by the material itself with the injection gas;
A first wireless transmit/receive unit, WTRU, comprising: a processor configured to: determine a first priority associated with the first WTRU based on one or more of downlink control information, DCI, or a logical channel prioritization; receive, from a second WTRU, an interference measurement reference signal, IMRS, transmission; measure the received IMRS transmission; determine a second priority associated with a downlink payload of the second WTRU; determine that the second priority is greater than the first priority; and adjust an uplink transmission power of the first WTRU based on the first priority and the second priority. determine a first priority associated with the first WTRU based on one or more of downlink control information, DCI, or a logical channel prioritization; receive, from a second WTRU, an interference measurement reference signal, IMRS, transmission; measure the received IMRS transmission; determine a second priority associated with a downlink payload of the second WTRU; determine that the second priority is greater than the first priority; and adjust an uplink transmission power of the first WTRU based on the first priority and the second priority.
A process for producing an epoxidized product comprising diepoxide of Formula 1B from a cycloaliphatic diene of Formula IA, the process comprising: (a) reacting a cycloaliphatic diene of Formula IA; with an aqueous hydrogen peroxide oxidant in the presence of a transition metal catalyst at a pH of from 3.5 to 4.5, wherein the amount of the hydrogen peroxide oxidant is from 0 percent to 20 percent stoichiometric excess above the theoretical amount required for complete epoxidation of the double bonds of the cycloaliphatic diene of Formula IA; to form an epoxidized product, wherein the epoxidized product consists of cycloaliphatic epoxy compound; and (b) isolating the epoxidized product from the resulting reaction mixture; wherein the epoxidized product has a percent monoepoxide of less than 10 percent by weight of the total product; and wherein the epoxidized product has an OH-terminated by-products content of less than 8 percent by weight; wherein the cycloaliphatic diene of Formula IA has the following formula: and wherein the diepoxide of Formula 1B has the following formula: (a) reacting a cycloaliphatic diene of Formula IA; with an aqueous hydrogen peroxide oxidant in the presence of a transition metal catalyst at a pH of from 3.5 to 4.5, wherein the amount of the hydrogen peroxide oxidant is from 0 percent to 20 percent stoichiometric excess above the theoretical amount required for complete epoxidation of the double bonds of the cycloaliphatic diene of Formula IA; to form an epoxidized product, wherein the epoxidized product consists of cycloaliphatic epoxy compound; and (b) isolating the epoxidized product from the resulting reaction mixture;
A coiled tubing injector system comprising a coiled tubing injector, a reel for reeling coiled tubing and a motor coupled to the reel, the coiled tubing injector comprising: an injector head comprising a plurality of chains, each of which comprises a continuous loop and carries a plurality of grippers, the plurality of chains being arranged for gripping the coiled tubing placed between the plurality of chains; a frame within which the injector head is mounted; an arched tubing guide having a proximal end coupled with the frame and a distal end extending outwardly from the frame; and a strut extending between the arched tubing guide and the frame for, in use, transferring to the frame at least some of the bending moment on the arched tubing guide generated by tension on the coiled tubing; one or more load sensors (120,302,404,504) positioned within the strut for measuring at least a compressive force on the strut due to said bending moment, characterised in that the system further comprises a load indicator positioned remotely from the coiled tubing injector, wherein each of the one or more load sensors (120,302,404,504) transmits a signal indicative of the compressive force on the strut to the load indicator, further comprising a feedback control loop responsive to load sensed by one of the one or more load sensors, the feedback control loop is adapted for regulating operation of the reel on which the coiled tubing is wound in response to the load sensed by the one or more load sensors. an injector head comprising a plurality of chains, each of which comprises a continuous loop and carries a plurality of grippers, the plurality of chains being arranged for gripping the coiled tubing placed between the plurality of chains; a frame within which the injector head is mounted; an arched tubing guide having a proximal end coupled with the frame and a distal end extending outwardly from the frame; and a strut extending between the arched tubing guide and the frame for, in use, transferring to the frame at least some of the bending moment on the arched tubing guide generated by tension on the coiled tubing; one or more load sensors (120,302,404,504) positioned within the strut for measuring at least a compressive force on the strut due to said bending moment, characterised in that the system further comprises a load indicator positioned remotely from the coiled tubing injector, wherein each of the one or more load sensors (120,302,404,504) transmits a signal indicative of the compressive force on the strut to the load indicator, further comprising a feedback control loop responsive to load sensed by one of the one or more load sensors, the feedback control loop is adapted for regulating operation of the reel on which the coiled tubing is wound in response to the load sensed by the one or more load sensors.
A radiation detector (100, 300, 100', 300') comprising: - a conversion element (110, 310) for converting incident radiation into electrical signals; - a readout circuit (120, 320) for processing said electrical signals; - a heating device, separated from the readout circuit, for heating the conversion element, wherein the heating device comprises a Peltier element and characterized in that the heat source (135', 335') of said Peltier element is oriented towards the conversion element and its heat sink is oriented towards the readout circuit. - a conversion element (110, 310) for converting incident radiation into electrical signals; - a readout circuit (120, 320) for processing said electrical signals; - a heating device, separated from the readout circuit, for heating the conversion element, wherein the heating device comprises a Peltier element and characterized in that the heat source (135', 335') of said Peltier element is oriented towards the conversion element and its heat sink is oriented towards the readout circuit.
A system primarily intended to control/regulate the liquid flow in a vehicle's coolant system consisting of an engine circuit and a body circuit for heating purposes in the vehicle's body section, such that a body thermostat comprising a temperature-sensitive element is provided at the junction point between the vehicle's engine circuit and body circuit, and a leakage flow duct is also provided between said engine circuit and body circuit, wherein the temperature-sensitive element of the body thermostat is situated in the liquid flow of the engine circuit in order to be exposed to engine-tempered coolant and open the body thermostat when the liquid in the engine circuit reaches or exceeds a predetermined temperature level, and thereby ensure the warming of the engine, and that the body circuit is to an intended extent provided with warm coolant characterised in that the temperature-sensitive element of the body thermostat is situated in the liquid flow of the engine circuit upstream of the engine's pump and in that a bypass line is provided in the body circuit so that liquid can circulate freely in the body circuit if the body thermostat is closed, i.e. before the cooling water in the engine circuit and/or the body circuit reaches a high enough temperature to open the body thermostat.
A method for manufacturing a porous ceramic wall flow filter, comprising the steps of: providing a honeycomb structure defining a plurality of cell channels bounded by porous channel walls that extend longitudinally from an upstream inlet end to a downstream outlet end; providing a plugging mixture, the plugging mixture comprising an inorganic powder batch composition; a binder; a liquid vehicle; and a rheology modifier selected from the group consisting of a polyethylene glycol dioleate, an oil, and fumed silica, the rheology modifier being present as a super addition in an amount in the range of from 0.1 weight percent to 15 weight percent relative to the inorganic powder batch composition; the plugging mixture exhibiting an inclined plane flow rate less than 60mm/8 min when measured at an angle of 60 degrees; selectively plugging an end of at least one predetermined channel with the plugging mixture which exhibits a capillary viscosity less than 8000 Pa·s when measured at a shear rate of 10/sec; firing the selectively plugged honeycomb body under conditions effective to form a sintered phase ceramic plug in the at least one selectively plugged channel by converting the plugging material into a primary sintered phase ceramic composition, wherein the firing comprises heating the plugging material at a maximum temperature of at least 400°C. providing a honeycomb structure defining a plurality of cell channels bounded by porous channel walls that extend longitudinally from an upstream inlet end to a downstream outlet end; providing a plugging mixture, the plugging mixture comprising an inorganic powder batch composition; a binder; a liquid vehicle; and a rheology modifier selected from the group consisting of a polyethylene glycol dioleate, an oil, and fumed silica, the rheology modifier being present as a super addition in an amount in the range of from 0.1 weight percent to 15 weight percent relative to the inorganic powder batch composition; the plugging mixture exhibiting an inclined plane flow rate less than 60mm/8 min when measured at an angle of 60 degrees; selectively plugging an end of at least one predetermined channel with the plugging mixture which exhibits a capillary viscosity less than 8000 Pa·s when measured at a shear rate of 10/sec; firing the selectively plugged honeycomb body under conditions effective to form a sintered phase ceramic plug in the at least one selectively plugged channel by converting the plugging material into a primary sintered phase ceramic composition, wherein the firing comprises heating the plugging material at a maximum temperature of at least 400°C.
A base station adapted to communicate data with a mobile station, comprising: a control unit; a communication unit (11, 13) configured to transmit data to the mobile station; a transfer unit (11, 13) configured to transfer a portion of the data to be transmitted to the mobile station to another wireless communication apparatus; and a receiving unit (11, 12) configured to receive, from the mobile station, a PDCP status report on information indicating a state of a buffer of the mobile station, wherein the receiving unit (11, 12) is further configured to transmit the received PDCP status report to the control unit, and the control unit is configured to notify the mobile station of a parameter setting for the PDCP status report, and wherein the parameter setting for the PDCP status report includes i) a notification cycle and ii) a threshold for the retention amount to determine whether to send a notification, the PDCP status report includes a first missing sequence number, FMS, representing a sequence number of the oldest packet among packets that have not arrived from for the another wireless communication apparatus, and a size of the first missing sequence number, FMS, is different depending on the data to be transmitted to the mobile station. a control unit; a communication unit (11, 13) configured to transmit data to the mobile station; a transfer unit (11, 13) configured to transfer a portion of the data to be transmitted to the mobile station to another wireless communication apparatus; and a receiving unit (11, 12) configured to receive, from the mobile station, a PDCP status report on information indicating a state of a buffer of the mobile station, wherein the receiving unit (11, 12) is further configured to transmit the received PDCP status report to the control unit, and the control unit is configured to notify the mobile station of a parameter setting for the PDCP status report, and wherein the parameter setting for the PDCP status report includes i) a notification cycle and ii) a threshold for the retention amount to determine whether to send a notification, the PDCP status report includes a first missing sequence number, FMS, representing a sequence number of the oldest packet among packets that have not arrived from for the another wireless communication apparatus, and a size of the first missing sequence number, FMS, is different depending on the data to be transmitted to the mobile station.
Arrangement for opening and closing an opening provided in a top surface of an interior trim piece of a vehicle, in particular motor vehicle, by means of an adjustable covering element, wherein the covering element is formed by a surface element and is transferable from a closed position, in which the covering element covers said opening, into an open position, in which the covering element, by adjustment thereof, opens up the opening, and back, and wherein the covering element is mounted movably on a frame element, which is connected to the interior trim piece, in such a manner that the frame element has two bearing cheeks (10, 11) which are arranged orthogonally to a surface spanned by the frame element or by the opening and have bearing eyes (12, 13) which lie opposite each other and are arranged coaxially with respect to each other and in which a respective pivot lever (14, 15) is mounted at one end so as to be pivotable about a common first pivot axis, which pivot levers (14, 15) are connected to each other and are mounted at the other end in bearing points (17, 18) of the covering element so as to pivot about a common second pivot axis, characterized in that the cover element has two bearing brackets (23, 24) which are directed towards the first pivot axis and in which a shaft is rotationally mounted, said shaft being arranged axially parallel to the first and second pivot axis (16, 19) and passing through the bearing brackets (23, 24), wherein a first gearwheel (27, 28) is in each case arranged at the free ends of the shaft for rotation therewith, and wherein the first gearwheels (27, 28) each mesh with a first rack (29, 30) arranged on the bearing cheek (11, 12).
Torsion wringer, comprising a contraction device for receiving a wiping head of a mop, the contraction device having an upper part and a lower base, which are connected to one another by contraction slats, the contraction slats being configured and/or attached to the upper part and to the base in such a way that the upper part can be rotated relative to the base, and the contraction device being movable relative to a supporting device along a travel, by which means the upper part is rotated through a rotational angle relative to the supporting device and relative to the base, characterized in that reduction means are provided, by means of which a force which counteracts the rotation of the upper part is reducible.
A fuel cell stack, comprising: a stacked plurality of single cells each comprising a frame supporting a periphery of a membrane electrode assembly and a pair of separators (3, 4) holding the frame therebetween; and a sealing member (6, SL) disposed between the plurality of single cells (C, C), wherein the pair of separators (3, 4) comprises respective supporting portions (9, 10) which are in contact with the frame, in which the sealing member (6, SL) is disposed between one of the supporting portions (9, 10) and an adjacent single cell, a supporting portion of one separator has a different size from a supporting portion of the other separator, and an overlapped portion is formed in which a base surface where the supporting portion of one separator is in contact with the frame is overlapped with a top surface where the supporting portion of the other separator is in contact with the frame in a stacking direction, and the overlapped portion receives and transmits reaction force of the sealing member between the single cells. a stacked plurality of single cells each comprising a frame supporting a periphery of a membrane electrode assembly and a pair of separators (3, 4) holding the frame therebetween; and a sealing member (6, SL) disposed between the plurality of single cells (C, C), wherein the pair of separators (3, 4) comprises respective supporting portions (9, 10) which are in contact with the frame, in which the sealing member (6, SL) is disposed between one of the supporting portions (9, 10) and an adjacent single cell, a supporting portion of one separator has a different size from a supporting portion of the other separator, and an overlapped portion is formed in which a base surface where the supporting portion of one separator is in contact with the frame is overlapped with a top surface where the supporting portion of the other separator is in contact with the frame in a stacking direction, and the overlapped portion receives and transmits reaction force of the sealing member between the single cells.
A method carried out by a base station, comprising: - serving (S410, S610) a cell coverage area with one or more first carriers, each of the one or more first carriers having an identical transmission power necessary for covering the cell coverage area; - serving (S420, S650) a hot-spot within the cell coverage area with one or more beam-formed second carriers; - allocating a total transmission power, wherein the first and second carriers share the allocated total transmission power for serving the cell coverage area_and share a total bandwidth for serving the cell coverage area, the bandwidth being allocated among the first carriers and the second carriers based on traffic demand of the cell coverage area and traffic demand of the hot-spot, characterized in that the method further comprises: - serving a further hot-spot within the area with one or more beam-formed third carriers, wherein the first, second and third carriers share the total transmission power and the total bandwidth and wherein the beam-formed carriers are created by an antenna array comprising a plurality of antenna elements, wherein a respective initial phase and vibration amplitude by which each antenna element is to be driven is calculated and applied the respective antenna element to give rise to a particular direction of antenna pattern. - serving (S410, S610) a cell coverage area with one or more first carriers, each of the one or more first carriers having an identical transmission power necessary for covering the cell coverage area; - serving (S420, S650) a hot-spot within the cell coverage area with one or more beam-formed second carriers; - allocating a total transmission power, - serving a further hot-spot within the area with one or more beam-formed third carriers,
An augmented-reality artificial retina system, comprising: an external device configured to be disposed outside the human body and including a micro display to provide a processed image which is image-processed based on external image information, the external device comprising: a camera to provide the external image information by capturing an external region of the human body, an image processor configured to provide the processed image by image-processing the external image information, and a digital controller configured to provide a first control signal and a second control signal; and an artificial retina device configured to be disposed in an eyeball inside the human body and configured to provide a retinal tissue included in the human body with an electrical signal corresponding to the processed image provided by the micro display, wherein the first control signal is provided to control the image processor and the second control signal is provided to control the artificial retina device, and wherein the digital controller is further configured to wirelessly provide the artificial retina device with data information based on the second control signal, wherein the artificial retina device is configured to control a pulse width and/or a pulse period of the electrical signal based on the data information. an external device configured to be disposed outside the human body and including a micro display to provide a processed image which is image-processed based on external image information, the external device comprising: a camera to provide the external image information by capturing an external region of the human body, an image processor configured to provide the processed image by image-processing the external image information, and a digital controller configured to provide a first control signal and a second control signal; and a camera to provide the external image information by capturing an external region of the human body, an image processor configured to provide the processed image by image-processing the external image information, and a digital controller configured to provide a first control signal and a second control signal; and an artificial retina device configured to be disposed in an eyeball inside the human body and configured to provide a retinal tissue included in the human body with an electrical signal corresponding to the processed image provided by the micro display, wherein the first control signal is provided to control the image processor and the second control signal is provided to control the artificial retina device, and wherein the digital controller is further configured to wirelessly provide the artificial retina device with data information based on the second control signal, wherein the artificial retina device is configured to control a pulse width and/or a pulse period of the electrical signal based on the data information.