mhurhangee/ep-ind-claims huggingface dataset:
A method performed in a first communication device for enabling device-to-device communication between the first communication device and a second communication device in a radio communications network, the method comprising: transmitting data in a first data transmission to the second communication device according to a first transmission pattern; and transmitting control information with the data to the second communication device, which control information indicates a second transmission pattern for a next data transmission from the first communication device to the second communication device, wherein the first and second transmission patterns are different; wherein transmitting control information comprises: implicitly transmitting the control information by using a transmission parameter when transmitting the data to the second communication device, which transmission parameter maps to the control information, wherein the transmission parameter comprises a property of reference sequences used in the first transmission. transmitting data in a first data transmission to the second communication device according to a first transmission pattern; and transmitting control information with the data to the second communication device, which control information indicates a second transmission pattern for a next data transmission from the first communication device to the second communication device, wherein the first and second transmission patterns are different; wherein transmitting control information comprises: implicitly transmitting the control information by using a transmission parameter when transmitting the data to the second communication device, which transmission parameter maps to the control information, wherein the transmission parameter comprises a property of reference sequences used in the first transmission.
A mattress for radiotherapy treatment comprising an absorbing device for radiotherapy treatment comprising at least one layer of electromagnetic absorbing material, wherein the absorbing material is for preventing interaction between a target localisation system having a targeted frequency range of between about 300kHz and 500kHz and a treatment table, wherein the absorbing device comprises a ferrite layer and at least one spacer layer positioned above the ferrite layer in a patient-facing direction away from the couch top surface on which the patient lies; wherein the ferrite layer comprises a plurality of sheets of a sintered ferrite material.
A method of controlling a High-Voltage Direct-Current HVDC link with two Voltage-Source Converters VSC and interconnecting two power systems wherein at least one of the power systems interconnected by the HVDC link comprises a weak network with a grid impedance L g exceeding 0.5, comprising (a) determining, at the beginning t* of an extended sampling period, a present state of the HVDC link and the power systems, (b) deriving a sequence of optimum converter current reference values {i dref, i qref} by optimizing, over a prediction horizon t p comprising a plurality of time steps into the future, an objective function based on a prediction model representing the HVDC link and the power systems, (c) passing the first optimum value i dref 1, i qref 1 of said sequence to an inner control loop, (d) deriving, by the inner control loop and based on said received first optimum value i dref 1, i qref 1, optimized pulse-width modulation voltage reference values, (e) applying the optimized pulse-width modulation voltage reference values to a Pulse-Width Modulator unit of a VSC, (f) repeating steps (d) and (e) during the extended sampling period, and (g) closing an outer control loop by returning to step (a) at the end of the extended sampling period. (a) determining, at the beginning t* of an extended sampling period, a present state of the HVDC link and the power systems, (b) deriving a sequence of optimum converter current reference values {i dref, i qref} by optimizing, over a prediction horizon t p comprising a plurality of time steps into the future, an objective function based on a prediction model representing the HVDC link and the power systems, (c) passing the first optimum value i dref 1, i qref 1 of said sequence to an inner control loop, (d) deriving, by the inner control loop and based on said received first optimum value i dref 1, i qref 1, optimized pulse-width modulation voltage reference values, (e) applying the optimized pulse-width modulation voltage reference values to a Pulse-Width Modulator unit of a VSC, (f) repeating steps (d) and (e) during the extended sampling period, and (g) closing an outer control loop by returning to step (a) at the end of the extended sampling period.
A combined cycle fuel cell system comprising: a solid-oxide fuel cell comprising an anode configured to generate a tail gas, and a cathode configured to generate a cathode exhaust stream; a reforming system configured to receive and output at least a portion of the cathode exhaust stream and convert at least a portion of a mixture of input hydrocarbon fuel and input steam into a hydrogen-rich reformate, the hydrogen-rich reformate being utilized by the anode of the fuel cell; a water separator configured to the receive the tail gas of the fuel cell and remove water from the tail gas to form residual tail gas, the water removed from the tail gas being directed to the reforming system as steam to form at least a portion of the input steam; a bottoming cycle comprising a combustion engine; a residual tail gas pathway configured to divert a first portion of the residual tail gas to the bottom cycle to drive the bottom cycle, and to divert a second portion of the residual tail gas to the cathode exhaust stream; wherein the solid-oxide fuel cell receives input air, and wherein the input air is heated via multiple heat exchangers coupled in series. a solid-oxide fuel cell comprising an anode configured to generate a tail gas, and a cathode configured to generate a cathode exhaust stream; a reforming system configured to receive and output at least a portion of the cathode exhaust stream and convert at least a portion of a mixture of input hydrocarbon fuel and input steam into a hydrogen-rich reformate, the hydrogen-rich reformate being utilized by the anode of the fuel cell; a water separator configured to the receive the tail gas of the fuel cell and remove water from the tail gas to form residual tail gas, the water removed from the tail gas being directed to the reforming system as steam to form at least a portion of the input steam; a bottoming cycle comprising a combustion engine; a residual tail gas pathway configured to divert a first portion of the residual tail gas to the bottom cycle to drive the bottom cycle, and to divert a second portion of the residual tail gas to the cathode exhaust stream; wherein the solid-oxide fuel cell receives input air, and wherein the input air is heated via multiple heat exchangers coupled in series.
A treating chemistry dispenser for a laundry treating appliance, the treating chemistry dispenser comprising: a receptacle at least partially defined by a set of walls and a moveable barrier rotatably mounted between a closed position wherein the receptacle and moveable barrier are configured for selectively holding a liquid treating chemistry or a powder treating chemistry and an opened position where the moveable barrier is rotated and configured to allow dispensing of the liquid treating chemistry or the powder treating chemistry; and a water diverter configured to selectively divert a flow of water to the receptacle; wherein the moveable barrier is configured to rotate to the opened position once resulting mixture of the treating chemistry and water added from the water diverter into the receptacle has reached a predetermined height, wherein the moveable barrier includes a wall that is mounted at a pivot point to at least one other portion of the receptacle, characterized in that the pivot point is positioned at one-third the height of a maximum treating chemistry level as defined by the moveable barrier. a receptacle at least partially defined by a set of walls and a moveable barrier rotatably mounted between a closed position wherein the receptacle and moveable barrier are configured for selectively holding a liquid treating chemistry or a powder treating chemistry and an opened position where the moveable barrier is rotated and configured to allow dispensing of the liquid treating chemistry or the powder treating chemistry; and a water diverter configured to selectively divert a flow of water to the receptacle; wherein the moveable barrier is configured to rotate to the opened position once resulting mixture of the treating chemistry and water added from the water diverter into the receptacle has reached a predetermined height, wherein the moveable barrier includes a wall that is mounted at a pivot point to at least one other portion of the receptacle, characterized in that the pivot point is positioned at one-third the height of a maximum treating chemistry level as defined by the moveable barrier.
Adam, comprising: an existing dam structure providing part of a foundation of a new dam at a dam location; an underpinning unit configured to be installed into the ground at the dam location and to penetrate through the existing dam structure; at least two precast segments (1005a-b) configured to be interconnected; a connection component at a lower surface of at least one of the at least two precast segments; at least one connection element configured to couple to the connection component to connect the underpinning unit with the at least one of the at least two precast segments, at least one drop face wall precast segment configured to be installed in front of a face wall of the existing dam structure; at least one interlocking element or structure configured to join the at least two precast segments; and at least one interlocking element or structure configured to join the at least one drop face wall precast segment to at least one of the at least two precast segments to encase the existing dam structure and form the new dam at the dam location. an existing dam structure providing part of a foundation of a new dam at a dam location; an underpinning unit configured to be installed into the ground at the dam location and to penetrate through the existing dam structure; at least two precast segments (1005a-b) configured to be interconnected; a connection component at a lower surface of at least one of the at least two precast segments; at least one connection element configured to couple to the connection component to connect the underpinning unit with the at least one of the at least two precast segments, at least one drop face wall precast segment configured to be installed in front of a face wall of the existing dam structure; at least one interlocking element or structure configured to join the at least two precast segments; and at least one interlocking element or structure configured to join the at least one drop face wall precast segment to at least one of the at least two precast segments to encase the existing dam structure and form the new dam at the dam location.
A work vehicle in which a cabin is supported via an anti-vibration member to a bracket that extends to a vehicle body outer side from a vehicle body frame, wherein: the bracket mounts a weight member; the weight member is attached to a position in the bracket which position is on more outer vehicle body side than the anti-vibration member, with the weight member protruding to the vehicle body outer side from the bracket, characterised in that the bracket includes an attaching portion having an attaching face to which the weight member is to be attached; and the weight member is attached to the attaching face in such a manner that only a limited portion of a facing face thereof facing the attaching face is placed in contact with the attaching face. the bracket mounts a weight member; the weight member is attached to a position in the bracket which position is on more outer vehicle body side than the anti-vibration member, with the weight member protruding to the vehicle body outer side from the bracket, characterised in that the bracket includes an attaching portion having an attaching face to which the weight member is to be attached; and the weight member is attached to the attaching face in such a manner that only a limited portion of a facing face thereof facing the attaching face is placed in contact with the attaching face.
A method, performed by a mobile device or content delivery network, comprising: determining a route of a user having a mobile device that is receiving streaming content at a bit rate comprising a nominal bit rate and a buffer bit rate for buffering a portion of the streaming content in a buffer over a period of time; identifying network coverage availability of the route; calculating a coverage buffer size to provide uninterrupted play of the streaming content by the mobile device based on a physical speed of the mobile device and the network coverage availability of the route; limiting the coverage buffer size to a user buffer size limit in response to determining that the coverage buffer size is larger than the user buffer size limit as previously set by the user via a user interface of the mobile device; calculating a coverage bit rate based on the coverage buffer size; and dynamically requesting an adjusted bit rate based on the coverage bit rate. determining a route of a user having a mobile device that is receiving streaming content at a bit rate comprising a nominal bit rate and a buffer bit rate for buffering a portion of the streaming content in a buffer over a period of time; identifying network coverage availability of the route; calculating a coverage buffer size to provide uninterrupted play of the streaming content by the mobile device based on a physical speed of the mobile device and the network coverage availability of the route; limiting the coverage buffer size to a user buffer size limit in response to determining that the coverage buffer size is larger than the user buffer size limit as previously set by the user via a user interface of the mobile device; calculating a coverage bit rate based on the coverage buffer size; and dynamically requesting an adjusted bit rate based on the coverage bit rate.
A device for converting an input direct voltage (V in) into an output direct voltage (V out) having a predetermined value, comprising: o a set of elementary components comprising: - a voltage source (G in) for generating the input direct voltage (V in); - two output nodes (V out+, V out-); - a plurality of energy-storing elements (B i,j), each consisting of one battery or of a plurality of batteries connected in series or in parallel, the converting device being characterised in that it comprises: ∘ a switching matrix, configured to connect the elementary components to one another in a periodic cycle composed of a plurality of phases; each phase being associated with a different connection configuration chosen such that: - in each energy-storage element, the amount of charge at the start of the cycle is equal to the amount of charge at the end of the cycle; - the two output nodes (V out+, V out-) have a potential difference equal to the predetermined value of the output direct voltage (V out) during all the phases. o a set of elementary components comprising: - a voltage source (G in) for generating the input direct voltage (V in); - two output nodes (V out+, V out-); - a plurality of energy-storing elements (B i,j), each consisting of one battery or of a plurality of batteries connected in series or in parallel, - a voltage source (G in) for generating the input direct voltage (V in); - two output nodes (V out+, V out-); - a plurality of energy-storing elements (B i,j), each consisting of one battery or of a plurality of batteries connected in series or in parallel, the converting device being characterised in that it comprises: ∘ a switching matrix, configured to connect the elementary components to one another in a periodic cycle composed of a plurality of phases; ∘ a switching matrix, configured to connect the elementary components to one another in a periodic cycle composed of a plurality of phases; each phase being associated with a different connection configuration chosen such that: - in each energy-storage element, the amount of charge at the start of the cycle is equal to the amount of charge at the end of the cycle; - the two output nodes (V out+, V out-) have a potential difference equal to the predetermined value of the output direct voltage (V out) during all the phases. - in each energy-storage element, the amount of charge at the start of the cycle is equal to the amount of charge at the end of the cycle; - the two output nodes (V out+, V out-) have a potential difference equal to the predetermined value of the output direct voltage (V out) during all the phases.
Packaging machine for producing packages from a sheet of packaging material, said packaging material comprising a plurality of marks associated with corresponding portions of said packaging material, said packaging machine comprising a working unit having a track arrangement and a plurality of transporting elements, each transporting element supporting a tool arranged for carrying out a working operation on said packaging material, said transporting elements being movable on said track arrangement independently from each other, wherein said working unit is a forming and transverse sealing unit in which a tube formed with said packaging material and filled with a product to be packaged is sealed and cut along equally spaced transverse sections to form packs that are subsequently subjected to mechanical folding operations to obtain said packages, wherein said forming and transverse sealing unit comprises a plurality of pairs of jaws arranged for interacting with said tube to seal and cut said tube and movable independently from each other, wherein said track arrangement comprises a first track on which a plurality of first transporting elements is movable and a second track on which a plurality of second transporting elements is movable, each pair of jaws comprises a first jaw carried by a first transporting element of said plurality of first transporting elements and a second jaw carried by a second transporting element of said plurality of second transporting elements, characterized in that each of said transporting elements comprises a sensor device arranged for detecting a corresponding mark and generating a signal indicating the position of said mark with respect to said transporting element, said packaging machine further comprising a control unit arranged to control the position of said transporting element along said track arrangement on the basis of said signal, and in that each first transporting element comprises a first sensor device and each second transporting element comprises a second sensor device.
A method of adapting charging for an accessory device (108, 208), the method comprising: at a wireless charging device (100, 214): transmitting a first power signal with a first transmission amplitude; measuring a receiving load of the first power signal; and characterised by determining based on the measured receiving load whether a response signal is received from the accessory device and whether a receiving coil of the accessory device magnetically saturates, wherein it is determined that the receiving coil of the accessory device magnetically saturates if an increase of the first transmission amplitude does not lead to an increase of the measured receiving load; and if the wireless charging device does not receive the response signal and the receiving coil of the accessory device magnetically saturates, transmitting a second power signal at a second transmission amplitude that is lower than the first transmission amplitude so as to reduce potential magnetic saturation. transmitting a first power signal with a first transmission amplitude; measuring a receiving load of the first power signal; and characterised by determining based on the measured receiving load whether a response signal is received from the accessory device and whether a receiving coil of the accessory device magnetically saturates, wherein it is determined that the receiving coil of the accessory device magnetically saturates if an increase of the first transmission amplitude does not lead to an increase of the measured receiving load; and if the wireless charging device does not receive the response signal and the receiving coil of the accessory device magnetically saturates, transmitting a second power signal at a second transmission amplitude that is lower than the first transmission amplitude so as to reduce potential magnetic saturation.
An endoscope comprising a handle at the proximal end, an insertion tube connected to the handle, the insertion tube comprising a main tube, a bending section and a tip part at the distal end of the bending section, said endoscope comprising a first control wire and a second control wire for controlling said bending section, said bending section comprising a first elongate bending section part and a second elongate bending section part, said first elongate bending section part comprising a number of first annular members, the first annular members being arranged in a row and interconnected by a number of first bridges so as to form a first comb-like structure, said second elongate bending section part comprising a number of second annular members, the second annular members being arranged in a row and interconnected by a number of second bridges so as to form a second comb-like structure, wherein said first annular members each comprise an outer circumferential surface and an inner circumferential surface and said second annular members each comprise an outer circumferential surface and an inner circumferential surface, and wherein the outer circumferential surface of at least some of said first annular members comprises a groove adapted to receive and accommodate a second bridge of said second bending section part and the outer circumferential surface of at least some of said second annular members comprises a groove adapted to receive and accommodate a first bridge of said first bending section part. said bending section comprising a first elongate bending section part and a second elongate bending section part, said first elongate bending section part comprising a number of first annular members, the first annular members being arranged in a row and interconnected by a number of first bridges so as to form a first comb-like structure, said second elongate bending section part comprising a number of second annular members, the second annular members being arranged in a row and interconnected by a number of second bridges so as to form a second comb-like structure, wherein said first annular members each comprise an outer circumferential surface and an inner circumferential surface and said second annular members each comprise an outer circumferential surface and an inner circumferential surface, and wherein the outer circumferential surface of at least some of said first annular members comprises a groove adapted to receive and accommodate a second bridge of said second bending section part and the outer circumferential surface of at least some of said second annular members comprises a groove adapted to receive and accommodate a first bridge of said first bending section part.