mhurhangee/patent-ind-claim-en huggingface dataset:
A method for performing interference coordination in a Long Term Evolution, LTE, trunking communication system, in which a great number of wireless subscribers share a small number of wireless channels, for each base station, the method comprises following operations: recording time-frequency resources occupancy information of cells in service coverage of a base station in a semi-static scheduling period; when a preset time-frequency resource interaction period is reached, broadcasting the recorded time-frequency resources occupancy information to base stations of all other neighbor cells of the cells in the service coverage of the base station; when time-frequency resources occupancy information sent by other base stations are received, updating time-frequency resources occupancy information of corresponding neighbor cells maintained by the base station itself; when allocating time-frequency resources to trunking services of a cell in the service coverage of the base station, the base station preferentially allocating time-frequency resources which are not occupied by the other neighbor cells of the cell according to the obtained time-frequency resources occupancy information about time-frequency resources occupied by trunking sevices of the other neighbor cells of the cell, wherein if there is no time-frequency resources left for allocating to the cell except from time-frequency resources occupied by the neighbor cells, the time-frequency resources occupied by the other neighbor cells can be used. recording time-frequency resources occupancy information of cells in service coverage of a base station in a semi-static scheduling period; when a preset time-frequency resource interaction period is reached, broadcasting the recorded time-frequency resources occupancy information to base stations of all other neighbor cells of the cells in the service coverage of the base station; when time-frequency resources occupancy information sent by other base stations are received, updating time-frequency resources occupancy information of corresponding neighbor cells maintained by the base station itself; when allocating time-frequency resources to trunking services of a cell in the service coverage of the base station, the base station preferentially allocating time-frequency resources which are not occupied by the other neighbor cells of the cell according to the obtained time-frequency resources occupancy information about time-frequency resources occupied by trunking sevices of the other neighbor cells of the cell, wherein if there is no time-frequency resources left for allocating to the cell except from time-frequency resources occupied by the neighbor cells, the time-frequency resources occupied by the other neighbor cells can be used.
A method performed at a user equipment , the method comprising: receiving a cyclic redundancy check protected uplink resource allocation message, the uplink resource allocation message comprising a New Data Indicator, NDI, specifying whether the resource allocation is intended for a first transmission of data or retransmission of the data; and retransmitting the data in response to the received uplink resource allocation message comprising the NDI specifying that the resource allocation is intended for retransmission of the data, wherein the resource allocation message is generated according to a dynamic scheduling scheme for a retransmission of the data. receiving a cyclic redundancy check protected uplink resource allocation message, the uplink resource allocation message comprising a New Data Indicator, NDI, specifying whether the resource allocation is intended for a first transmission of data or retransmission of the data; and retransmitting the data in response to the received uplink resource allocation message comprising the NDI specifying that the resource allocation is intended for retransmission of the data, wherein the resource allocation message is generated according to a dynamic scheduling scheme for a retransmission of the data.
A connection circuit arranged to connect at least one piece of electrical equipment situated downstream from the connection circuit to an optical fiber situated upstream from the connection circuit and that might convey light signals of different wavelengths and in compliance with different optical communication standards, the connection circuit comprising a wavelength multiplexer having an upstream port for connection to the optical fiber and a plurality of downstream ports , characterized by a plurality of optical-electrical interfaces each compatible with at least one optical communication standard and each having both an optical port connected to one of the downstream ports of the wavelength multiplexer and also an electrical port , an electrical processor component having a communication port via which the electrical processor component is arranged to emit and/or receive light signals (TXD, RXD), and a switch controlled by the electrical processor component and arranged to connect the communication port of the electrical processor component selectively to an electrical port of one of the optical-electrical interfaces, the electrical processor component being situated downstream from the switch.
A heat exchanger comprising: a plurality of heat transfer tubes arranged with each other; a header to which end portions of the heat transfer tubes are connected; and a plurality of fins joined to the heat transfer tubes, wherein as viewed in a longitudinal direction of the header, the header is divided into a circulation space including, when the heat exchanger is used as an evaporator, a first space in which refrigerant flows in a first direction along the longitudinal direction of the header and a second space in which the refrigerant flows in a second direction that is a direction along the longitudinal direction of the header and that is opposite to the first direction, wherein the header includes a circulation member that divides the first space from the second space, characterized in that as viewed in a longitudinal direction of the header, the header is further divided into an insertion space into which the heat transfer tubes are inserted, and the header further includes an insertion space forming member that divides the circulation space from the insertion space. a plurality of heat transfer tubes arranged with each other; a header to which end portions of the heat transfer tubes are connected; and a plurality of fins joined to the heat transfer tubes, wherein as viewed in a longitudinal direction of the header, the header is divided into a circulation space including, when the heat exchanger is used as an evaporator, a first space in which refrigerant flows in a first direction along the longitudinal direction of the header and a second space in which the refrigerant flows in a second direction that is a direction along the longitudinal direction of the header and that is opposite to the first direction, wherein the header includes a circulation member that divides the first space from the second space, characterized in that as viewed in a longitudinal direction of the header, the header is further divided into an insertion space into which the heat transfer tubes are inserted, and a circulation space including, when the heat exchanger is used as an evaporator, a first space in which refrigerant flows in a first direction along the longitudinal direction of the header and a second space in which the refrigerant flows in a second direction that is a direction along the longitudinal direction of the header and that is opposite to the first direction, wherein the header includes a circulation member that divides the first space from the second space, characterized in that as viewed in a longitudinal direction of the header, the header is further divided into an insertion space into which the heat transfer tubes are inserted, and the header further includes an insertion space forming member that divides the circulation space from the insertion space.
A pin member , comprising: - an elongated shank having a first end, a second end opposite the first end, a cylindrical shank portion having an outer surface, a head located at the first end of the elongated shank , the head including a bearing surface located on the underside of the head , and a threaded portion located at the second end of the elongated shank , wherein the outer surface of the cylindrical shank portion is textured; and wherein a surface micro-roughness (Sa) value of the textured bearing surface of the head and/or the textured outer surface of the cylindrical shank portion is greater than 0.5 μm. - an elongated shank having a first end, a second end opposite the first end, a cylindrical shank portion having an outer surface, a head located at the first end of the elongated shank , the head including a bearing surface located on the underside of the head , and a threaded portion located at the second end of the elongated shank ,
A method for monitoring a nozzle mouthpiece with regard to deposits on a nozzle for spraying substances, in particular dispersions, emulsions or suspensions, comprising - a nozzle body which has a nozzle mouthpiece , - wherein the nozzle body comprises an inner pipe , said inner pipe being connected to a feed for the substance to be sprayed and comprising an inner wall and an exit opening , and an outer pipe , said outer pipe being distanced to the inner pipe , being connected to a feed for a gas and comprising an exit opening , and - the exit opening of the inner pipe and the exit opening of the outer pipe are arranged in the region of the nozzle mouthpiece , characterised in that an inlay is arranged on the inner pipe or on the outer pipe , wherein the inlay is arranged such that it can be brought or is brought into oscillation by way of the substance to be sprayed which exits out of the exit opening of the inner pipe and/or by way of the gas which flows out of the exit opening of the outer pipe , in order to minimise or prevent deposits in the exit region of the substance to be sprayed and/or of the gas, wherein a sensor which is connected to a control unit monitors the nozzle mouthpiece with regard to deposits and transmits signals to the control unit and given a deposition in the exit region of the substance to be sprayed and/or of the gas, said deposition being determined by the sensor , the control unit transmits a signal to a device . - a nozzle body which has a nozzle mouthpiece , - wherein the nozzle body comprises an inner pipe , said inner pipe being connected to a feed for the substance to be sprayed and comprising an inner wall and an exit opening , and an outer pipe , said outer pipe being distanced to the inner pipe , being connected to a feed for a gas and comprising an exit opening , and - the exit opening of the inner pipe and the exit opening of the outer pipe are arranged in the region of the nozzle mouthpiece ,
A gas turbine engine comprising: a plurality of rotating components housed within a main compressor section and a turbine section (112/114); a first tap connected to said main compressor section and configured to deliver air at a first pressure; a heat exchanger connected downstream of said first tap ; a cooling air valve configured to selectively block flow of bypass cooling air across the heat exchanger ; a cooling compressor connected downstream of said heat exchanger ; first means for stopping flow between the heat exchanger and the cooling compressor ; a second tap configured to deliver air at a second pressure which is higher than said first pressure; a mixing chamber connected downstream of said cooling compressor and said second tap , wherein said mixing chamber is configured to deliver air to at least one of said plurality of rotating components; second means for stopping flow between the cooling compressor and the plurality of rotating components by stopping rotation of the cooling compressor ; and a controller configured to modulate flow between the heat exchanger and the plurality of rotating components under certain power conditions of the gas turbine engine ; characterised in that : said controller is programmed such that flow is stopped between the heat exchanger and the cooling compressor only after the cooling compressor has been stopped. a plurality of rotating components housed within a main compressor section and a turbine section (112/114); a first tap connected to said main compressor section and configured to deliver air at a first pressure; a heat exchanger connected downstream of said first tap ; a cooling air valve configured to selectively block flow of bypass cooling air across the heat exchanger ; a cooling compressor connected downstream of said heat exchanger ; first means for stopping flow between the heat exchanger and the cooling compressor ; a second tap configured to deliver air at a second pressure which is higher than said first pressure; a mixing chamber connected downstream of said cooling compressor and said second tap , wherein said mixing chamber is configured to deliver air to at least one of said plurality of rotating components; second means for stopping flow between the cooling compressor and the plurality of rotating components by stopping rotation of the cooling compressor ; and a controller configured to modulate flow between the heat exchanger and the plurality of rotating components under certain power conditions of the gas turbine engine ; characterised in that : said controller is programmed such that flow is stopped between the heat exchanger and the cooling compressor only after the cooling compressor has been stopped.
A method of preparing one or more cords for a forming process of a belt for suspending and/or driving an elevator car , comprising: arranging a plurality of wires into a one or more cords ; directing the one or more cords in a cord travel direction toward a jacket former ; directing a 3-10 bar airflow at the one or more cords of the belt to remove volatile contaminants from the one or more cords in a direction away from the jacket former ; characterized in that the method further comprises utilizing a vacuum system located between the airflow and the jacket former to remove contaminants dislodged by the airflow . arranging a plurality of wires into a one or more cords ; directing the one or more cords in a cord travel direction toward a jacket former ; directing a 3-10 bar airflow at the one or more cords of the belt to remove volatile contaminants from the one or more cords in a direction away from the jacket former ; characterized in that the method further comprises utilizing a vacuum system located between the airflow and the jacket former to remove contaminants dislodged by the airflow .
A method for wireless communications at a wireless device , comprising: transmitting , to a base station, signaling comprising an indication of a physical configuration of the wireless device and a request for channel information for a subsequent communication with the base station, the transmitting based at least in part on the physical configuration of the wireless device failing to correspond to at least one analog beamforming codebook of the wireless device; wherein the physical configuration comprises a foldable state of the wireless device corresponding to different possible foldings of a flexible display unit; and receiving , from the base station, the channel information in response to the request. transmitting , to a base station, signaling comprising an indication of a physical configuration of the wireless device and a request for channel information for a subsequent communication with the base station, the transmitting based at least in part on the physical configuration of the wireless device failing to correspond to at least one analog beamforming codebook of the wireless device; wherein the physical configuration comprises a foldable state of the wireless device corresponding to different possible foldings of a flexible display unit; and receiving , from the base station, the channel information in response to the request.
A smoking article comprising an electrical power source ; an aerosol precursor composition within a reservoir , the aerosol precursor composition being in the form of a liquid or gel at ambient conditions; an atomizing chamber comprising an entry adapted for receiving aliquots of the aerosol precursor composition from the reservoir and an exit adapted for passage of the formed vapor therefrom; a controller adapted to control active flow of the aliquots of the aerosol precursor composition into the atomizing chamber ; and a microheater in electrical connection with the electrical power source and thermal connection with the atomizing chamber , characterized in that the microheater comprises a patterned electrically conductive material overlying a supporting layer and being configured to vaporize the aliquots of the aerosol precursor composition , wherein the atomizing chamber is defined by a wall , a cover , and a protective layer overlying the microheater , and wherein the atomizing chamber is positioned within an outer shell .
Method for producing liquid fuel from waste treatment without the use of catalytic compounds, which through appropriate devices and high frequency technology applications, under specific operation conditions, converts waste to liquid fuel, with friendly way to environment, by executing the following steps: 1) waste entrance to the system for treatment, in pellets form or free or packaged 2) mechanical degradation and homogenization treatment using high frequency pulsators system 3) material UV degradation treatment to UV radiation exposure, in the range of 170nm to 450nm 4) thermal degradation, i.e. small size waste treatment using a continuous flow special reactor for the conversion of the feeding material to gaseous, exposure to temperatures between 250-600°C 5) condensation of produced reactive gases to a liquid material, using a three stage system of condensers , exposure to temperatures up to 10°C 6) automatic adjustment of final product pH between 4-4.5 and viscosity stabilization through special operating systems of regulated operation 7) filtering of liquid material to remove viscous fraction, tar and coal. 1) waste entrance to the system for treatment, in pellets form or free or packaged 2) mechanical degradation and homogenization treatment using high frequency pulsators system 3) material UV degradation treatment to UV radiation exposure, in the range of 170nm to 450nm 4) thermal degradation, i.e. small size waste treatment using a continuous flow special reactor for the conversion of the feeding material to gaseous, exposure to temperatures between 250-600°C 5) condensation of produced reactive gases to a liquid material, using a three stage system of condensers , exposure to temperatures up to 10°C 6) automatic adjustment of final product pH between 4-4.5 and viscosity stabilization through special operating systems of regulated operation 7) filtering of liquid material to remove viscous fraction, tar and coal.
A stackable toilet comprising: a housing cabinet comprising a shower unit , a commode unit , and a wash basin ; the shower unit being arranged in the upper portion of the housing cabinet ; the commode unit arranged in a lower portion of the housing cabinet ; and the wash basin arranged in the upper portion of the housing cabinet alongside the shower unit , characterised in that the commode unit comprises: pull doors ; a commode connected with a back plate arranged on a wheel base , the commode being connected with a soil pipe and two or more telescopic rails for enabling the forward movement of the commode unit ; and a handle to pull the commode . a housing cabinet comprising a shower unit , a commode unit , and a wash basin ; the shower unit being arranged in the upper portion of the housing cabinet ; the commode unit arranged in a lower portion of the housing cabinet ; and the wash basin arranged in the upper portion of the housing cabinet alongside the shower unit , characterised in that the commode unit comprises: pull doors ; a commode connected with a back plate arranged on a wheel base , the commode being connected with a soil pipe and two or more telescopic rails for enabling the forward movement of the commode unit ; and a handle to pull the commode . pull doors ; a commode connected with a back plate arranged on a wheel base , the commode being connected with a soil pipe and two or more telescopic rails for enabling the forward movement of the commode unit ; and a handle to pull the commode .
Polycondensation method, characterised in that it comprises the dielectric heating of polyhydric alcohols to obtain polymers of polyhydric alcohols; and is characterised in that : - the reaction time, which is a function of the device used, of the temperature achieved and of the product which is to be obtained (in other words of the degree of polymerisation which is to be achieved), is between 1 hour and 10 hours; - the frequencies of the electromagnetic waves used in the dielectric heating vary from 30 GHz to 3 MHz; - the temperature to which the reagent or the reaction mixture, and optionally the catalyst(s), is subjected is between 60 and 300°C, preferably between 160 and 260°C; and - the time in which temperature is increased is chosen between 3 and 180 minutes. - the reaction time, which is a function of the device used, of the temperature achieved and of the product which is to be obtained (in other words of the degree of polymerisation which is to be achieved), is between 1 hour and 10 hours; - the frequencies of the electromagnetic waves used in the dielectric heating vary from 30 GHz to 3 MHz; - the temperature to which the reagent or the reaction mixture, and optionally the catalyst(s), is subjected is between 60 and 300°C, preferably between 160 and 260°C; and - the time in which temperature is increased is chosen between 3 and 180 minutes.
A method of constructing a box, the method comprising: (a) winding a continuous strip on a plurality of posts of a mandrel in a helical configuration by engaging a stepped mating interface (319,321; 419,421) on adjacent bands of a main body in direct vertical alignment so as to define the main body with a plurality of bands, the main body comprising four panels (19-1, 19-2, 19-3, 19-4) provided from the plurality of bands; (b) coupling together adjacent bands to secure the shape of the main body; (c) forming a plurality of linear notches or scores on an exterior surface of the main body, perpendicular to said posts, each notch or score being arranged to create a region of weakness that facilitates a folding of a respective flap ; (d) after forming said notches or scores, contracting the mandrel to facilitate removal of the box from the mandrel, and (e) removing the box from the mandrel. (a) winding a continuous strip on a plurality of posts of a mandrel in a helical configuration by engaging a stepped mating interface (319,321; 419,421) on adjacent bands of a main body in direct vertical alignment so as to define the main body with a plurality of bands, the main body comprising four panels (19-1, 19-2, 19-3, 19-4) provided from the plurality of bands; (b) coupling together adjacent bands to secure the shape of the main body; (c) forming a plurality of linear notches or scores on an exterior surface of the main body, perpendicular to said posts, each notch or score being arranged to create a region of weakness that facilitates a folding of a respective flap ; (d) after forming said notches or scores, contracting the mandrel to facilitate removal of the box from the mandrel, and (e) removing the box from the mandrel.