mhurhangee/ep-ind-claims huggingface dataset:
A method of communication between a calling terminal and a called terminal, which can be connected to each other through at least one mobile communication network (R1,R2), said method comprising the steps of: - sending a connection message from said calling terminal to said called terminal through said at least one communication network (R1,R2), - sending an answer message from said called terminal to said calling terminal through said at least one communication network (R1,R2), characterized in that said called terminal is equipped with means for detecting its geographic position, enters information about its geographic position into said answer message and sends said answer message to said calling terminal. - sending a connection message from said calling terminal to said called terminal through said at least one communication network (R1,R2), - sending an answer message from said called terminal to said calling terminal through said at least one communication network (R1,R2), characterized in that said called terminal is equipped with means for detecting its geographic position, enters information about its geographic position into said answer message and sends said answer message to said calling terminal.
Manual drive cooking preparation appliance comprising a bowl to contain food to process with a side face, a removable rotary working accessory disposed in the bowl, a removable cover disposed on the bowl, the cover comprising a manual command motor to rotate a drive shaft of the rotary working accessory about an axis A of rotation by traction of a cord transversally to the axis A of rotation, a first dynamic seal disposed between the cover and the side face of the bowl in order to fill the space between the cover and the bowl; characterised in that the cover comprises a second dynamic seal, disposed between the cover and the drive shaft in order to fill the space between the drive shaft and the cover; each seal (9; 10) has an inner wall, a connecting part arranged on the cover, an annular lip and a recess, the annular lip being movable and deformable with an angle α of displacement extending outwards with respect to the axis A of rotation, so as to ensure the sealing when the cover is connected to the bowl in the working position. the cover comprising a manual command motor to rotate a drive shaft of the rotary working accessory about an axis A of rotation by traction of a cord transversally to the axis A of rotation, a first dynamic seal disposed between the cover and the side face of the bowl in order to fill the space between the cover and the bowl; characterised in that the cover comprises a second dynamic seal, disposed between the cover and the drive shaft in order to fill the space between the drive shaft and the cover; each seal (9; 10) has an inner wall, a connecting part arranged on the cover, an annular lip and a recess, the annular lip being movable and deformable with an angle α of displacement extending outwards with respect to the axis A of rotation, so as to ensure the sealing when the cover is connected to the bowl in the working position.
An air purification system that generates plasma using voltage, the air purification system comprising: a first linear electrode that is configured to generate electromagnetic resonance when power is supplied; a second electrode disposed surrounding the first electrode in a state of being separated from the first electrode, and comprising an inlet; a power feeder that is configured to supply power to the first electrode; an electric field probe that is configured to measure an intensity of an electric field between the first electrode and the second electrode; and a controller that is configured to control the power supplied to the first electrode, characterised in that the controller is configured to perform control by adjusting a frequency of the power supplied to the first electrode and a position at which the power is supplied to the first electrode, to cause a half wavelength during the electromagnetic resonance in the second electrode to be a sum of the length of the first linear electrode in the longitudinal direction and the length of plasma generated in the same longitudinal direction between one end of the first linear electrode and the inlet, and maximize an output value of a signal indicating the intensity of the electric field measured by the electric field probe. a first linear electrode that is configured to generate electromagnetic resonance when power is supplied; a second electrode disposed surrounding the first electrode in a state of being separated from the first electrode, and comprising an inlet; a power feeder that is configured to supply power to the first electrode; an electric field probe that is configured to measure an intensity of an electric field between the first electrode and the second electrode; and a controller that is configured to control the power supplied to the first electrode, characterised in that the controller is configured to perform control by adjusting a frequency of the power supplied to the first electrode and a position at which the power is supplied to the first electrode, to cause a half wavelength during the electromagnetic resonance in the second electrode to be a sum of the length of the first linear electrode in the longitudinal direction and the length of plasma generated in the same longitudinal direction between one end of the first linear electrode and the inlet, and maximize an output value of a signal indicating the intensity of the electric field measured by the electric field probe.
A network switch, comprising: at least one ingress controller configured to: receive one or more packets via a set of input ports; write the one or more packets into an ingress buffer of an ingress tile shared by the set of input ports; read the one or more packets from the ingress buffer according to a schedule by a scheduler; and forward the read one or more packets to a plurality of output ports; the network switch further comprising: at least one read launcher connected to the at least one ingress controller and separate from the scheduler, the at least one read launcher configured to: determine that multiple read requests issued by the scheduler are for reading cells from a same memory bank of the ingress buffer in a same cycle; and hold one or more of the multiple read requests from the at least one ingress controller until one or more later cycles, when the number of the multiple read requests is greater than N. receive one or more packets via a set of input ports; write the one or more packets into an ingress buffer of an ingress tile shared by the set of input ports; read the one or more packets from the ingress buffer according to a schedule by a scheduler; and forward the read one or more packets to a plurality of output ports; the network switch further comprising: at least one read launcher connected to the at least one ingress controller and separate from the scheduler, the at least one read launcher configured to: determine that multiple read requests issued by the scheduler are for reading cells from a same memory bank of the ingress buffer in a same cycle; and hold one or more of the multiple read requests from the at least one ingress controller until one or more later cycles, when the number of the multiple read requests is greater than N. at least one read launcher connected to the at least one ingress controller and separate from the scheduler, the at least one read launcher configured to: determine that multiple read requests issued by the scheduler are for reading cells from a same memory bank of the ingress buffer in a same cycle; and hold one or more of the multiple read requests from the at least one ingress controller until one or more later cycles, when the number of the multiple read requests is greater than N. determine that multiple read requests issued by the scheduler are for reading cells from a same memory bank of the ingress buffer in a same cycle; and hold one or more of the multiple read requests from the at least one ingress controller until one or more later cycles, when the number of the multiple read requests is greater than N.
Stop log for object protection, comprising an elongated, hollow extruded body with an upper area, a lower area and two side walls which connect the upper area to the lower area, wherein the lower area has two bearing projections on both sides, and the upper area has on at least one side a sealing channel which is provided for introducing a seal onto which at least one of the two bearing projections of an adjacent stop log is fitted, characterized in that there is provided on the top side a lifting channel which has an undercut, and the undercut of the lifting channel is formed under the base of the at least one sealing channel.
A probes arrangement (100, 200, 300), configured to be attached to a receiving unit (109, 209, 309) of a device under charge positioned onto or within a close or half close conductive charging structure or in near field environment having a transmitting unit for transmitting RF energy, characterized in that said probes arrangement (100, 200, 300) comprises at least two probes (102, 104; 202, 204; 302, 304) configured to create closed electromagnetic field lines (140, 240) between them so as to allow high coupling between said transmitting unit and said receiving unit regardless of the position and/or the orientation of the device under charge relative to the conductive charging structure or the near field environment, wherein said at least two probes (102, 104; 202, 204; 302, 304) are disposed to create a two dimensional or a three dimensional structure over axis X-Y-Z and wherein, lines of the electromagnetic field are arranged between them, said closed electromagnetic field lines (140, 240) create a microenvironment between said at least two probes, to minimize changes in the electromagnetic field occurring as a result of changes in the position and/or orientation of the device under charge.
A process for producing ethanol by anaerobic fermentation of a synthesis gas, characterized in that: • said syngas is produced by the thermal conversion at high temperature, above 1000°C, of a feed comprising municipal solid waste, agricultural waste or derivatives thereof such as refused derived fuel or even industrial waste such as non-recyclable plastic waste or a combination thereof, and • further hydrogen is added to said syngas, produced by electrolysis so as to balance the H 2 /CO ratio to a value equal to at least 2,0 ÷ 2,2 in volume, thus maximizing the conversion of the organic components in the fermentation step so as to avoid the emission of CO 2 into the atmosphere, and wherein said process comprises the following steps: • High temperature conversion of the waste with production of raw syngas; • Production of H 2 and O 2 through electrolysis; • Purification of the raw syngas by a purification unit which acts on two pressure levels, the purpose of which is the removal of particulate, metals, chlorides, ammonia, COS, and H 2 S; • Fermentation of the purified syngas for producing raw bioethanol, after the addition of all or part of the hydrogen produced by electrolysis for achieving the optimal H 2 /CO ratio required for the fermentation reactions; • Partial or total conversion of the residual carbon dioxide present in the purge gas outcoming from the fermentation into methane; • Separation of the methane produced by unconverted carbon dioxide, and recycling of all or part of the methane recovered and all the CO 2 separated to the thermal conversion step. • said syngas is produced by the thermal conversion at high temperature, above 1000°C, of a feed comprising municipal solid waste, agricultural waste or derivatives thereof such as refused derived fuel or even industrial waste such as non-recyclable plastic waste or a combination thereof, and • further hydrogen is added to said syngas, produced by electrolysis so as to balance the H 2 /CO ratio to a value equal to at least 2,0 ÷ 2,2 in volume, thus maximizing the conversion of the organic components in the fermentation step so as to avoid the emission of CO 2 into the atmosphere, • High temperature conversion of the waste with production of raw syngas; • Production of H 2 and O 2 through electrolysis; • Purification of the raw syngas by a purification unit which acts on two pressure levels, the purpose of which is the removal of particulate, metals, chlorides, ammonia, COS, and H 2 S; • Fermentation of the purified syngas for producing raw bioethanol, after the addition of all or part of the hydrogen produced by electrolysis for achieving the optimal H 2 /CO ratio required for the fermentation reactions; • Partial or total conversion of the residual carbon dioxide present in the purge gas outcoming from the fermentation into methane; • Separation of the methane produced by unconverted carbon dioxide, and recycling of all or part of the methane recovered and all the CO 2 separated to the thermal conversion step.
A method for a communication network comprising: intercepting a setup request for a session via a small cell network portion associated with a wide area network instance, wherein the WAN instance comprises: the small cell network portion including one or more small cell radios and a central small cell function; and an enterprise network portion including one or more enterprise communication devices and wherein the small cell network portion and the enterprise network portion of the WAN instance are interconnected with each other and to a service provider network; classifying the session to a particular WAN priority queue, wherein a plurality of WAN priority queues are configured respectively for each of the small cell network portion and the enterprise network portion of the WAN instance and available bandwidth is divided between the small cell network portion queues and the enterprise network portion queues; determining whether the particular WAN priority queue has available bandwidth for the session; allocating bandwidth for the particular WAN priority queue if the particular WAN priority queue has available bandwidth; and permitting the session to be established if the particular WAN priority queue has available bandwidth. intercepting a setup request for a session via a small cell network portion associated with a wide area network instance, wherein the WAN instance comprises: the small cell network portion including one or more small cell radios and a central small cell function; and an enterprise network portion including one or more enterprise communication devices and wherein the small cell network portion and the enterprise network portion of the WAN instance are interconnected with each other and to a service provider network; classifying the session to a particular WAN priority queue, wherein a plurality of WAN priority queues are configured respectively for each of the small cell network portion and the enterprise network portion of the WAN instance and available bandwidth is divided between the small cell network portion queues and the enterprise network portion queues; determining whether the particular WAN priority queue has available bandwidth for the session; allocating bandwidth for the particular WAN priority queue if the particular WAN priority queue has available bandwidth; and permitting the session to be established if the particular WAN priority queue has available bandwidth.
A firing-pin mechanism for automatic and semi-automatic pistols comprising a straight-running firing pin, a container for housing and guiding of the firing pin and a blocking element for the firing pin, wherein the container comprises a through hole for mounting of the firing pin and for guiding and sliding motion of said firing pin in the direction of the axis of the hole which corresponds to the longitudinal axis of the firing pin, wherein said container is fitted with said blocking element for the firing pin, which is attached to the container in a rotary way, characterized in that the hole is fitted with a top guide and a bottom guide for straight guiding of the firing pin in the hole and with radius recesses (21 and 22) on the lateral sides of the hole to reduce the contact area between the surface of the firing pin and the surface walls of the hole to reduce the friction forces acting against the sliding movement of the firing pin.
Heat shield arrangement for a component guiding a hot gas, comprising a number of heat shield elements (26A, 26B) disposed next to each other on a supporting structure with a gap in between, wherein a heat shield element (26A, 26B) can be mounted on the supporting structure such that an internal space is formed, which is delimited in areas by a hot gas wall to be cooled, with an inlet channel for admitting a coolant into the internal space, wherein the heat shield element (26A, 26B) has a side wall, which is inclined in relation to the hot gas wall in the direction of the supporting structure and a coolant discharge channel is provided for the controlled discharge of coolant from the internal space, said channel discharging from the internal space into the gap, characterised in that the coolant discharge channel penetrates the side wall and a sealing element with a mechanical damping function is fitted between the side wall and the supporting structure.
A display device comprising - a first support plate and a second support plate, at least one of which is transparent; - electrodes provided on a first surface of the first support plate, the electrodes being spaced apart from each other; - an intermediate layer provided on the electrodes and on the first support plate in an area between said electrodes; - a space between the first support plate and the second support plate, the intermediate layer facing the second support plate, and said space comprising a first fluid and a second fluid immiscible with each other, the second fluid being electroconductive or polar; - pixel walls provided on the intermediate layer in the area between said electrodes, the pixel walls extending into said space but not extending to the second support plate; wherein the intermediate layer is less wettable to the second fluid than to the first fluid, surfaces provided on the pixel walls are more wettable to the second fluid than to the first fluid and lower parts of the pixel walls adjacent to the intermediate layer are more wettable to the first fluid than to the second fluid. - a first support plate and a second support plate, at least one of which is transparent; - electrodes provided on a first surface of the first support plate, the electrodes being spaced apart from each other; - an intermediate layer provided on the electrodes and on the first support plate in an area between said electrodes; - a space between the first support plate and the second support plate, the intermediate layer facing the second support plate, and said space comprising a first fluid and a second fluid immiscible with each other, the second fluid being electroconductive or polar; - pixel walls provided on the intermediate layer in the area between said electrodes, the pixel walls extending into said space but not extending to the second support plate;
A process for depositing coatings, preferably consisting of a stack of thin layers on both faces of a glass substrate, comprising the following steps: - in a first deposition device, in which the substrate is arranged horizontally, depositing a first coating onto a first face of the substrate, - depositing onto the first coating a temporary protective layer, within the first device, - turning over the substrate in such a way that the face coated with the coating and the protective layer are in contact with conveying means for conveying to a second deposition device, - in the second deposition device, in which the substrate moves horizontally on the conveying means, depositing a second coating, identical or different to the first coating, onto the second face, - optionally depositing onto the second coating a temporary protective layer, preferably within the second device, wherein the first and second devices are magnetron sputtering devices and wherein the temporary protective layer is a layer comprising carbon. - in a first deposition device, in which the substrate is arranged horizontally, depositing a first coating onto a first face of the substrate, - depositing onto the first coating a temporary protective layer, within the first device, - turning over the substrate in such a way that the face coated with the coating and the protective layer are in contact with conveying means for conveying to a second deposition device, - in the second deposition device, in which the substrate moves horizontally on the conveying means, depositing a second coating, identical or different to the first coating, onto the second face, - optionally depositing onto the second coating a temporary protective layer, preferably within the second device,
An antenna, comprising a plurality of antenna units arranged in an array, wherein each antenna unit comprises: a first radiating element and a second radiating element, wherein the first radiating element comprises a first slot disposed on a metal layer, the second radiating element is a metal sheet-like radiating element, the second radiating element comprises at least one radiating stub, and the first slot is coupled to the at least one radiating stub; and each antenna unit further comprises a feeder, characterized in that in any two adjacent antenna units, a feeder of one antenna unit is connected to a first radiating element of the antenna unit, and a feeder of the other antenna unit is connected to a second radiating element of the antenna unit. a first radiating element and a second radiating element, wherein the first radiating element comprises a first slot disposed on a metal layer, the second radiating element is a metal sheet-like radiating element, the second radiating element comprises at least one radiating stub, and the first slot is coupled to the at least one radiating stub; and each antenna unit further comprises a feeder, characterized in that in any two adjacent antenna units, a feeder of one antenna unit is connected to a first radiating element of the antenna unit, and a feeder of the other antenna unit is connected to a second radiating element of the antenna unit.
A method (300; 400) for manufacturing a semiconductor device including a shallow trench isolation structure, the method comprising: providing a semiconductor substrate comprising a first region and a second region, a plurality of fins disposed on the first and second regions, and a hardmask layer on an upper surface of the fins; forming a first dielectric layer on the semiconductor substrate covering the fins; forming a first mask layer including an opening exposing a portion of the first dielectric layer between the first and second regions; implanting dopant ions into the exposed portion of the first dielectric layer; removing the first mask layer; performing an etching process on the first dielectric layer to form a first isolation region between the first and second regions and a second isolation region between the fins. providing a semiconductor substrate comprising a first region and a second region, a plurality of fins disposed on the first and second regions, and a hardmask layer on an upper surface of the fins; forming a first dielectric layer on the semiconductor substrate covering the fins; forming a first mask layer including an opening exposing a portion of the first dielectric layer between the first and second regions; implanting dopant ions into the exposed portion of the first dielectric layer; removing the first mask layer; performing an etching process on the first dielectric layer to form a first isolation region between the first and second regions and a second isolation region between the fins.