mhurhangee/ep-ind-claims huggingface dataset:
A method for winding a conductor in a double pancake, said double pancake comprising a first pancake and a second pancake, a cable drum initially comprising said conductor, said method comprising: - a first step in which the cable drum is placed on a tensioner and a first portion of the conductor is wound around a storage volume; - a second step in which a first portion of the conductor is inserted into a winding mandrel so as to perform a layer jump; - a third step in which a second portion of the conductor is wound around a first part of the mandrel so as to form a first pancake; - a fourth step, in which the first portion of the conductor is unwound from the storage volume and wound around the cable drum; - a fifth step, in which the first portion of the conductor is wound around a second part of the mandrel so as to form a second pancake. - a first step in which the cable drum is placed on a tensioner and a first portion of the conductor is wound around a storage volume; - a second step in which a first portion of the conductor is inserted into a winding mandrel so as to perform a layer jump; - a third step in which a second portion of the conductor is wound around a first part of the mandrel so as to form a first pancake; - a fourth step, in which the first portion of the conductor is unwound from the storage volume and wound around the cable drum; - a fifth step, in which the first portion of the conductor is wound around a second part of the mandrel so as to form a second pancake.
A bath additive comprising: at least one type of a first alkaline agent selected from the group consisting of sodium bicarbonate, ammonium carbonate, and sodium carbonate; at least one type of a second alkaline agent selected from the group consisting of alkali metal salts or alkaline earth metal salts; and sodium borohydride as a hydrogen generating agent. at least one type of a first alkaline agent selected from the group consisting of sodium bicarbonate, ammonium carbonate, and sodium carbonate; at least one type of a second alkaline agent selected from the group consisting of alkali metal salts or alkaline earth metal salts; and sodium borohydride as a hydrogen generating agent.
A food processor, comprising: - a food chamber; - food processing means; - an ingredient identification module; and - a processing unit; characterized in that wherein, the food chamber is configured to hold foods; wherein, the food processing means is configured to process the foods held in the food chamber; wherein, the ingredient identification module is configured to determine if either sucrose or fructose is the dominant sugar in a first food product to be processed in the food chamber; and wherein, the processing unit is configured to determine a processing protocol for processing at least the first food product, wherein determination of the processing protocol comprises utilization of the determined dominant sugar in the first food product. - a food chamber; - food processing means; - an ingredient identification module; and - a processing unit; characterized in that wherein, the food chamber is configured to hold foods; wherein, the food processing means is configured to process the foods held in the food chamber; wherein, the ingredient identification module is configured to determine if either sucrose or fructose is the dominant sugar in a first food product to be processed in the food chamber; and wherein, the processing unit is configured to determine a processing protocol for processing at least the first food product, wherein determination of the processing protocol comprises utilization of the determined dominant sugar in the first food product. wherein, the food chamber is configured to hold foods; wherein, the food processing means is configured to process the foods held in the food chamber; wherein, the ingredient identification module is configured to determine if either sucrose or fructose is the dominant sugar in a first food product to be processed in the food chamber; and wherein, the processing unit is configured to determine a processing protocol for processing at least the first food product, wherein determination of the processing protocol comprises utilization of the determined dominant sugar in the first food product.
A method of receiving, by a first user equipment, UE, (140; 170; 850), a device-to-device synchronization signal transmitted from a second UE (130; 160; 800), wherein the device-to-device synchronization signal comprises a primary device-to-device synchronization signal and a secondary device-to-device synchronization signal, and wherein the secondary device-to-device synchronization signal is received via two symbols in a same subframe, the method comprising: determining a sequence mapping and scrambling scheme for the secondary device-to-device synchronization signal, wherein the sequence mapping and scrambling scheme is used for each of the two symbols for the secondary device-to-device synchronization signal; and identifying, based on the determined sequence mapping and scrambling scheme, information indicated through the secondary device-to-device synchronization signal, wherein the information indicated through the secondary device-to-device synchronization signal indicates one of two conditions. determining a sequence mapping and scrambling scheme for the secondary device-to-device synchronization signal, wherein the sequence mapping and scrambling scheme is used for each of the two symbols for the secondary device-to-device synchronization signal; and identifying, based on the determined sequence mapping and scrambling scheme, information indicated through the secondary device-to-device synchronization signal, wherein the information indicated through the secondary device-to-device synchronization signal indicates one of two conditions.
A lock washer, comprising: a body; a protrusion disposed on one face of the body, the protrusion being configured to be disposable in a corresponding slot of a bracket; and an engagement means disposed on the protrusion, the engagement means being configured to be engageable with the slot of the bracket and being capable of holding the body stationary with respect to the bracket, the engagement means of the protrusion allowing vertical adjustment of the lock washer relative to the bracket, characterised in that the lock washer comprises a slotted hole disposed in the body, the slotted hole being configured to admit a shaft of a bracket fixing means therethrough so as to allow lateral movement of the body relative to the shaft while the shaft is admitted through the slotted hole, and in that the slotted hole has a width greater than a diameter of the shaft so that horizontal/lateral movement of the diameter of the shaft is possible within the slotted hole. a body; a protrusion disposed on one face of the body, the protrusion being configured to be disposable in a corresponding slot of a bracket; and an engagement means disposed on the protrusion, the engagement means being configured to be engageable with the slot of the bracket and being capable of holding the body stationary with respect to the bracket, the engagement means of the protrusion allowing vertical adjustment of the lock washer relative to the bracket, characterised in that the lock washer comprises a slotted hole disposed in the body, the slotted hole being configured to admit a shaft of a bracket fixing means therethrough so as to allow lateral movement of the body relative to the shaft while the shaft is admitted through the slotted hole, and in that the slotted hole has a width greater than a diameter of the shaft so that horizontal/lateral movement of the diameter of the shaft is possible within the slotted hole.
Method for transmitting payload data (100-m) to a receiver via a communication channel within a time interval, having the following steps: generating a plurality of channel-coded data packets (200-n) from the payload data (100-m), wherein each of the channel-coded data packets (200-n) is provided with packet core data (210-n) in accordance with the packet identifier of the respective channel-coded data packet, wherein redundancy information (102-n) of the payload data (100-m), in particular information relating to the error recognition, in particular information relating to the cyclic redundancy check, CRC, and/or values derived therefrom, in particular values derived from information relating to the cyclic redundancy check, CRC, is used as the packet identifier or as part of the packet identifier in the packet core data (210-n), and the redundancy information (102-n) of the payload data (100-m), in particular information relating to the error recognition, is transmitted in at least two parts of the data packet (220-n), in particular in two non-adjacent parts, these two parts of the data packet (220-n) having been coded using the same code rate for the channel coding. generating a plurality of channel-coded data packets (200-n) from the payload data (100-m), wherein each of the channel-coded data packets (200-n) is provided with packet core data (210-n) in accordance with the packet identifier of the respective channel-coded data packet, wherein redundancy information (102-n) of the payload data (100-m), in particular information relating to the error recognition, in particular information relating to the cyclic redundancy check, CRC, and/or values derived therefrom, in particular values derived from information relating to the cyclic redundancy check, CRC, is used as the packet identifier or as part of the packet identifier in the packet core data (210-n), and the redundancy information (102-n) of the payload data (100-m), in particular information relating to the error recognition, is transmitted in at least two parts of the data packet (220-n), in particular in two non-adjacent parts, these two parts of the data packet (220-n) having been coded using the same code rate for the channel coding.
An image transfer belt for digital printing applications comprising: a base layer comprising at least one porous film having first and second surfaces (14,16) and having a plurality of pores therein, wherein at least some of said pores completely extend through the first and second surfaces of said base layer; an electrically conductive polymer layer directly next to said first surface of said base layer which fills said pores to form a conductive path from said first surface to said second surface of said film; wherein said electrically conductive polymer layer forms a substantially continuous layer on said first surface of said base layer; and a compliant layer over said electrically conductive polymer layer. a base layer comprising at least one porous film having first and second surfaces (14,16) and having a plurality of pores therein, wherein at least some of said pores completely extend through the first and second surfaces of said base layer; an electrically conductive polymer layer directly next to said first surface of said base layer which fills said pores to form a conductive path from said first surface to said second surface of said film; wherein said electrically conductive polymer layer forms a substantially continuous layer on said first surface of said base layer; and a compliant layer over said electrically conductive polymer layer.
A turbine stator vane assembly comprising a plurality of circumferentially arranged struts and a plurality of circumferentially arranged stator vanes, each stator vane having a leading edge, a trailing edge and a chord length, each strut having a leading edge, a trailing edge, a chord length, a pressure surface and a suction surface 82), the chord length of the struts being greater than the chord length of the stator vanes, the stator vanes being arranged in groups (G1, G2), each group of stator vanes (G1, G2) being arranged between an adjacent pair of struts, each group of stator vanes (G1, G2) comprising a plurality of stator vanes, wherein in at least one group of stator vanes (G1, G2) the chord length of the stator vane nearest to the pressure surface of one of the adjacent struts is greater than the chord length of the stator vane nearest to the suction surface of the other of the adjacent struts wherein in the at least one group of stator vanes (G1, G2) the chord length of the stator vanes progressively decreases from the stator vane nearest to the pressure surface of one of the adjacent struts to the stator vane nearest to the suction surface of the other of the adjacent struts.
A code support (60a, 60b) to be associated with or part of a capsule intended for delivering a beverage in a beverage producing device by centrifugation of the capsule, the support comprising a code formed by at least a first sequence of symbols, said code being represented on the support so that each symbol is sequentially readable by a reading arrangement of an external reading device while the capsule is driven in rotation about an axis of rotation, the first sequence comprising at least one first data sequence formed by at least two sub-sequences of symbols, characterised by each one of said at least two sub-sequences further comprising at least one error-checking symbol for allowing a validity check of the symbols of said sub-sequence. wherein each sub-sequence of symbols within the first sequence is used to code distinct information related to the capsule.
An apparatus comprising: a seabed-disposed pump comprising an inlet to receive a fluid flow and an outlet; and a liquid retainer disposed upstream of the pump and configured to release stored liquid to control a gas volume fraction at the inlet of the pump, the liquid retainer comprising: a vessel to store a liquid reservoir; an inlet to receive a fluid flow provided by a subsea well and to communicate the fluid flow to the vessel; a vessel outlet connected to the vessel above the liquid reservoir in the vessel; a drain outlet disposed at the bottom of the vessel; a flow line to communicate a flow from the liquid retainer toward the pump along a first direction; a liquid retainer outlet connected to the vessel outlet and the drain outlet, the liquid retainer outlet providing a gas volume fraction regulated flow from the vessel to the flow line, a nozzle (904, 1000) to introduce the gas volume fraction regulated flow into the flow line in a second direction that opposes the first direction. a seabed-disposed pump comprising an inlet to receive a fluid flow and an outlet; and a liquid retainer disposed upstream of the pump and configured to release stored liquid to control a gas volume fraction at the inlet of the pump, the liquid retainer comprising: a vessel to store a liquid reservoir; an inlet to receive a fluid flow provided by a subsea well and to communicate the fluid flow to the vessel; a vessel outlet connected to the vessel above the liquid reservoir in the vessel; a drain outlet disposed at the bottom of the vessel; a vessel to store a liquid reservoir; an inlet to receive a fluid flow provided by a subsea well and to communicate the fluid flow to the vessel; a vessel outlet connected to the vessel above the liquid reservoir in the vessel; a drain outlet disposed at the bottom of the vessel; a flow line to communicate a flow from the liquid retainer toward the pump along a first direction; a liquid retainer outlet connected to the vessel outlet and the drain outlet, the liquid retainer outlet providing a gas volume fraction regulated flow from the vessel to the flow line, a nozzle (904, 1000) to introduce the gas volume fraction regulated flow into the flow line in a second direction that opposes the first direction. a liquid retainer outlet connected to the vessel outlet and the drain outlet, the liquid retainer outlet providing a gas volume fraction regulated flow from the vessel to the flow line, a nozzle (904, 1000) to introduce the gas volume fraction regulated flow into the flow line in a second direction that opposes the first direction.
A method for manufacturing a processing apparatus equipped with a catalyst-supporting honeycomb structure, which is characterized by consisting of a step of baking a glass fiber paper containing an organic binder component to remove the organic binder component contained in the glass fiber paper by burning; a step of applying a functional catalyst-containing slurry which contains a silica sol on the glass fiber paper after removal of the organic binder component; a step of shaping the functional catalyst-containing slurry-applied glass fiber paper by a crimping die and a pressing jig; a step of drying the shaped, corrugated plate-like functional catalyst-containing slurry-applied glass fiber paper and peeling off it from the die; meanwhile, a step of drying the flat plate-like functional catalyst slurry-applied glass fiber paper having not been shaped in a corrugated plate-like form; a step of calcinating the corrugated plate-like functional catalyst-containing slurry-applied glass fiber paper and the flat plate-like functional catalyst slurry-applied glass fiber paper to form a functional catalyst-supporting, flat plate-like glass fiber paper and a functional catalyst-supporting, corrugated plate-like glass fiber paper; a step of laying an inorganic fiber blanket in a casing; and a step of alternately laminating the functional catalyst-supporting, flat plate-like glass fiber paper after calcination and the functional catalyst-supporting, corrugated plate-like glass fiber paper after calcination without being bonded to each other, to form a catalyst-supporting honeycomb structure and packing this catalyst-supporting honeycomb structure in the casing.
An optical sensor for detecting objects, having a transmitting/receiving unit comprising a transmitter emitting transmitted light beams and a receiver receiving received light beams, and having an evaluation unit in which a time sequence of measured values is generated as a function of received signals from the receiver, wherein the measured values are distance values or position values, characterised in that an adaptive filter in the form of a second-order recursive IIR filter is provided, in which the measured values are filtered, wherein the adaptive filter has variable filter coefficients which are adapted to the current changes in the measured values.
A computer implemented method for motion compensation in video data using neural networks, the method comprising the steps of: receiving one or more input blocks of video data from an input frame of video data and a plurality of reference blocks of video data selected from one or more reference frames of video data using a motion estimation process; inputting the plurality of reference blocks of video data into one or more pre-trained neural networks, wherein the one or more pre-trained neural networks are configured to transform the plurality of reference blocks of video data into a predicted block of video data; transforming, by the one or more pre-trained neural networks, the input plurality of reference blocks of video data into the predicted block of video data; outputting the predicted block of video data from the one or more pre-trained neural networks; and calculating one or more residual blocks of video data from predicted block of video data and the one or more input blocks of video data. receiving one or more input blocks of video data from an input frame of video data and a plurality of reference blocks of video data selected from one or more reference frames of video data using a motion estimation process; inputting the plurality of reference blocks of video data into one or more pre-trained neural networks, wherein the one or more pre-trained neural networks are configured to transform the plurality of reference blocks of video data into a predicted block of video data; transforming, by the one or more pre-trained neural networks, the input plurality of reference blocks of video data into the predicted block of video data; outputting the predicted block of video data from the one or more pre-trained neural networks; and calculating one or more residual blocks of video data from predicted block of video data and the one or more input blocks of video data.
A method in a network node configured for operation in a wireless communication network wherein the wireless communication network uses radio resources for communicating with wireless devices, said method comprising: detecting a warning situation that is associated with actual or expected impaired operation of the wireless communication network, at least within a service area; identifying wireless devices in the service area that are candidates for operating in a cooperative positioning mode for performing device positioning, wherein the cooperative positioning mode comprises exchanging positioning information between respective wireless devices using device-to-device, D2D, communications; and sending a message to the identified wireless devices, to activate the cooperative positioning mode, the method being characterised by reserving a portion of the radio resources for use in cooperative positioning using D2D communications; and indicating the reserved portion of the radio resources to the identified wireless devices, either in advance of or in conjunction with sending the message. detecting a warning situation that is associated with actual or expected impaired operation of the wireless communication network, at least within a service area; identifying wireless devices in the service area that are candidates for operating in a cooperative positioning mode for performing device positioning, wherein the cooperative positioning mode comprises exchanging positioning information between respective wireless devices using device-to-device, D2D, communications; and sending a message to the identified wireless devices, to activate the cooperative positioning mode, reserving a portion of the radio resources for use in cooperative positioning using D2D communications; and indicating the reserved portion of the radio resources to the identified wireless devices, either in advance of or in conjunction with sending the message.
A method of producing one or more alcohols from a gaseous substrate, comprising: fermenting a gaseous substrate comprising carbon monoxide and hydrogen (H 2) in an aqueous medium in a bioreactor said aqueous medium comprising one or more anaerobic acetogenic microorganisms; said process comprising agitating the aqueous medium at an agitator speed of 10 to 1000 rpm; measuring conversion of CO; measuring conversion of H 2; increasing flow of gaseous substrate by a preselected flow factor in 1.0 to 2.0 range wherein - the conversion of CO exceeds a first CO conversion in 25% to 95% range, - the conversion of H 2 exceeds a first H 2 conversion in 25 to 95% range, and - the difference between conversion of CO and conversion of H2 comprises greater than or equal to a specified conversion difference in 0% to 25% range; increasing agitation wherein - conversion of CO exceeds a second CO conversion in a range of 0 to 25%, - conversion of H 2 exceeds a second H 2 conversion in a range of 0 to 25%. - the conversion of CO exceeds a first CO conversion in 25% to 95% range, - the conversion of H 2 exceeds a first H 2 conversion in 25 to 95% range, and - the difference between conversion of CO and conversion of H2 comprises greater than or equal to a specified conversion difference in 0% to 25% range; - conversion of CO exceeds a second CO conversion in a range of 0 to 25%, - conversion of H 2 exceeds a second H 2 conversion in a range of 0 to 25%.