mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: determining, based on a first image, a first dynamic range of luminous intensity, the first dynamic range being determined from the first image; normalizing the first dynamic range of luminous intensity to a configured dynamic range of luminous intensity, the configured dynamic range being supported by a display system; rendering the first image on the display system using the configured dynamic range of luminous intensity; determining, based on a second different image, a second dynamic range of luminous intensity, the second dynamic range being determined from the second image and differing from the first dynamic range; wherein the first dynamic range represents a wider dynamic range than the second dynamic range; normalizing the second dynamic range of luminous intensity to the same configured dynamic range of luminous intensity; and rendering the second image on the display system using the same configured dynamic range of luminous intensity; wherein at least one of the first image and the second image comprises a low dynamic range image, the method characterized in that the configured dynamic range comprises a high dynamic range, and at least one of the first dynamic range and the second dynamic range is smaller than the configured dynamic range. determining, based on a first image, a first dynamic range of luminous intensity, the first dynamic range being determined from the first image; normalizing the first dynamic range of luminous intensity to a configured dynamic range of luminous intensity, the configured dynamic range being supported by a display system; rendering the first image on the display system using the configured dynamic range of luminous intensity; determining, based on a second different image, a second dynamic range of luminous intensity, the second dynamic range being determined from the second image and differing from the first dynamic range; wherein the first dynamic range represents a wider dynamic range than the second dynamic range; normalizing the second dynamic range of luminous intensity to the same configured dynamic range of luminous intensity; and rendering the second image on the display system using the same configured dynamic range of luminous intensity; wherein at least one of the first image and the second image comprises a low dynamic range image, the method characterized in that the configured dynamic range comprises a high dynamic range, and at least one of the first dynamic range and the second dynamic range is smaller than the configured dynamic range.
A feedback information transmission method in a coordinated multipoint multi-stream system formed of N transmission points, comprising a serving transmission point and N-1 coordinated transmission points, wherein the serving transmission point serves a terminal device and wherein the method comprises: receiving, by a terminal device, M data blocks corresponding to control information of N downlink control channels, from the serving transmission point and the N-1 coordinated transmission points, the M data blocks are carried on a same carrier, the same carrier is a frequency domain resource with a specified width, N is a positive integer greater than or equal to 2, and M is a positive integer greater than or equal to 2, and the N pieces of downlink control information are corresponding to the N downlink control channels; and determining, by the terminal device, a target resource; and sending, by the terminal device, to the N transmission points, feedback information comprising ACK/NACK information for the M data blocks on the target resource in a preset format, wherein the preset format is obtained from pre-stored information in the terminal device, such that the feedback information is used to indicate feedback results for different data streams from the N transmission points. receiving, by a terminal device, M data blocks corresponding to control information of N downlink control channels, from the serving transmission point and the N-1 coordinated transmission points, the M data blocks are carried on a same carrier, the same carrier is a frequency domain resource with a specified width, N is a positive integer greater than or equal to 2, and M is a positive integer greater than or equal to 2, and the N pieces of downlink control information are corresponding to the N downlink control channels; and determining, by the terminal device, a target resource; and sending, by the terminal device, to the N transmission points, feedback information comprising ACK/NACK information for the M data blocks on the target resource in a preset format, wherein the preset format is obtained from pre-stored information in the terminal device, such that the feedback information is used to indicate feedback results for different data streams from the N transmission points.
Chamber of a gas turbine, wherein the chamber is limited by an inner surface of at least one wall and comprises an acoustic damper, wherein the acoustic damper comprises a neck and a damping volume, wherein the neck comprises a mouth being in fluid connection with the chamber, wherein the wall comprises a recess and wherein the mouth of the neck opens into the recess, characterized in that at the inner surface of the at least one wall and adjacent to the recess at least one shield protrudes into the chamber.
Compound for use in a method of treating dry eye in a human in need thereof, the compound having the formula: wherein, R 1 is an unsubstituted alkyl or alkenyl; R 2 is an unsubstituted alkyl L 1 is -L 2 -C -L 3 - or -CH(-L 4 -R 3)-L 3 -; L 2 is a bond or an unsubstituted alkylene; L 3 and L 4 are independently unsubstituted alkylene R 3 is a hydroxyl or -O-C -R 4 and R 4 is unsubstituted alkyl; said compound provided in an ophthalmically acceptable carrier. R 1 is an unsubstituted alkyl or alkenyl; R 2 is an unsubstituted alkyl L 1 is -L 2 -C -L 3 - or -CH(-L 4 -R 3)-L 3 -; L 2 is a bond or an unsubstituted alkylene; L 3 and L 4 are independently unsubstituted alkylene R 3 is a hydroxyl or -O-C -R 4 and R 4 is unsubstituted alkyl; said compound provided in an ophthalmically acceptable carrier.
A network element at a network node for routing an arriving packet having a destination node comprising: a router configured to forward (409, 410, 415, 505, 509) said arriving packet to a next-hop neighbor node according to one of a first pointer and a second pointer associated to said destination node in a forwarding information table stored in a forwarding information memory storage; said first pointer is directed to a first next-hop neighbor node which is on the shortest path from said network node to said destination node; and said second pointer is directed to a second next-hop neighbor node different from said first next-hop neighbor node, said second next-hop neighbor node on a candidate cycle containing both said network node and said destination node having the greatest overlap with a sink tree rooted at said destination node; wherein said router configured to forward (415, 509) said arriving packet according to said second pointer in the event (403, 504) that said arriving packet arrives from the next-hop neighbor node indicated by said first pointer. a router configured to forward (409, 410, 415, 505, 509) said arriving packet to a next-hop neighbor node according to one of a first pointer and a second pointer associated to said destination node in a forwarding information table stored in a forwarding information memory storage; said first pointer is directed to a first next-hop neighbor node which is on the shortest path from said network node to said destination node; and said second pointer is directed to a second next-hop neighbor node different from said first next-hop neighbor node, said second next-hop neighbor node on a candidate cycle containing both said network node and said destination node having the greatest overlap with a sink tree rooted at said destination node; wherein said router configured to forward (415, 509) said arriving packet according to said second pointer in the event (403, 504) that said arriving packet arrives from the next-hop neighbor node indicated by said first pointer.
A traceable vial comprising: a vial configured to hold contents therein; and a tracking assembly (120, 200) fitted to an exterior portion of the vial and housing electronic components configured to transmit a signal indicating a status of the vial; wherein the tracking assembly (120, 200) includes an antenna configured to transmit the signal and a battery configured to power the antenna, characterized in that: the tracking assembly (120, 200) includes a temperature sensor and the antenna is configured to transmit a signal indicating a temperature reading by the temperature sensor, and the tracking assembly (120, 200) is structured and designed to fit around a lower base portion of the vial. a vial configured to hold contents therein; and a tracking assembly (120, 200) fitted to an exterior portion of the vial and housing electronic components configured to transmit a signal indicating a status of the vial; wherein the tracking assembly (120, 200) includes an antenna configured to transmit the signal and a battery configured to power the antenna, characterized in that: the tracking assembly (120, 200) includes a temperature sensor and the antenna is configured to transmit a signal indicating a temperature reading by the temperature sensor, and the tracking assembly (120, 200) is structured and designed to fit around a lower base portion of the vial. the tracking assembly (120, 200) includes a temperature sensor and the antenna is configured to transmit a signal indicating a temperature reading by the temperature sensor, and the tracking assembly (120, 200) is structured and designed to fit around a lower base portion of the vial.
A method of dynamically selecting a data rate and/or transmit power in a communications network including a plurality of devices, including at least one receiving device and at least one transmitting device, comprising the steps of: dividing time into a sequence of at least one superframe; at the at least one receiving device, including a feedback in a beacon, said feedback comprising a first information related to the selection of data rate and/or transmit power; transmitting the beacon in a superframe; and at a transmitting device selecting a data rate and/or a transmit power based at least in part upon the feedback from the at least one receiving device, characterized by further comprising the steps of: • at the at least one receiving device receiving from the transmitting device a second information in a beacon regarding the current, past or future transmit parameters; and • at the at least one receiving device said first information comprised in the feedback being determined as a recommendation for data rate and/or transmit power at least in part based on the second information and wherein the beacons of said plurality of devices in the superframe are grouped into at least one Beacon Period. dividing time into a sequence of at least one superframe; at the at least one receiving device, including a feedback in a beacon, said feedback comprising a first information related to the selection of data rate and/or transmit power; transmitting the beacon in a superframe; and at a transmitting device selecting a data rate and/or a transmit power based at least in part upon the feedback from the at least one receiving device, characterized by further comprising the steps of: • at the at least one receiving device receiving from the transmitting device a second information in a beacon regarding the current, past or future transmit parameters; and • at the at least one receiving device said first information comprised in the feedback being determined as a recommendation for data rate and/or transmit power at least in part based on the second information and wherein the beacons of said plurality of devices in the superframe are grouped into at least one Beacon Period. • at the at least one receiving device receiving from the transmitting device a second information in a beacon regarding the current, past or future transmit parameters; and • at the at least one receiving device said first information comprised in the feedback being determined as a recommendation for data rate and/or transmit power at least in part based on the second information and wherein the beacons of said plurality of devices in the superframe are grouped into at least one Beacon Period.
A method for performing a handover by a source home evolved node B, HeNB, the method comprising: transmitting, to a source HeNB gateway, a handover requirement message for a handover to a target HeNB of a user equipment, UE; if a handover command message indicating performing of the handover to a target HeNB of the UE is received from the source HeNB gateway, transmitting the handover command message to the UE; receiving a UE context release command message from the source HeNB gateway, and releasing a context of the UE based on the UE context release command message; and transmitting a UE context release completion message to the source HeNB gateway, wherein the handover requirement message comprises a next-hop chaining counter, NCC, and an encryption key for a communication between the UE and the target HeNB, and wherein the NCC and the encryption key are transmitted to the target HeNB from a target HeNB gateway, after the NCC and the encryption key are delivered to the target HeNB gateway from the source HeNB gateway. transmitting, to a source HeNB gateway, a handover requirement message for a handover to a target HeNB of a user equipment, UE; if a handover command message indicating performing of the handover to a target HeNB of the UE is received from the source HeNB gateway, transmitting the handover command message to the UE; receiving a UE context release command message from the source HeNB gateway, and releasing a context of the UE based on the UE context release command message; and transmitting a UE context release completion message to the source HeNB gateway, wherein the handover requirement message comprises a next-hop chaining counter, NCC, and an encryption key for a communication between the UE and the target HeNB, and wherein the NCC and the encryption key are transmitted to the target HeNB from a target HeNB gateway, after the NCC and the encryption key are delivered to the target HeNB gateway from the source HeNB gateway.
A computing device for maintaining data distribution in networks, comprising: an acknowledgement module configured to transmit a reply acknowledging data received from a client (310A-D); a negotiation module configured to negotiate backup viability of a first client based at least on shared Network Address Translation, NAT, profile information; and a backup application module configured to transmit an application providing host information to the first client, wherein the first client is capable to connect to all other clients (310B-D) from a plurality of clients (310A-D) based on at least the host information and to receive data from a second client; wherein the NAT profile information includes information regarding a NAT type behind which a client is situated, and wherein the negotiation module is configured to negotiate backup viability of the first client based on at least the NAT type. an acknowledgement module configured to transmit a reply acknowledging data received from a client (310A-D); a negotiation module configured to negotiate backup viability of a first client based at least on shared Network Address Translation, NAT, profile information; and a backup application module configured to transmit an application providing host information to the first client, wherein the first client is capable to connect to all other clients (310B-D) from a plurality of clients (310A-D) based on at least the host information and to receive data from a second client; wherein the NAT profile information includes information regarding a NAT type behind which a client is situated, and wherein the negotiation module is configured to negotiate backup viability of the first client based on at least the NAT type.
A transmission assembly for an electric vehicle, the transmission assembly comprising a first gear and a second gear, the transmission assembly further comprising: - a torque transfer clutch mechanism; and - a power-shift clutch; the torque transfer clutch mechanism being configured to transfer torque when the transmission assembly is operating in either one of the first gear and the second gear; and the power-shift clutch being configured to transfer torque only during gear-shifting, characterized in that the power-shift clutch being arranged to transfer torque only during down-shifting from the second gear to the first gear. - a torque transfer clutch mechanism; and - a power-shift clutch; the torque transfer clutch mechanism being configured to transfer torque when the transmission assembly is operating in either one of the first gear and the second gear; and the power-shift clutch being configured to transfer torque only during gear-shifting, characterized in that the power-shift clutch being arranged to transfer torque only during down-shifting from the second gear to the first gear.
An antibody-drug conjugate having a cyclic benzylidene acetal linker represented by formula or formula: wherein, in the formula and the formula, Y is an antibody; D is a drug; R 1 and R 6 are each independently a hydrogen atom or a hydrocarbon group; R 2, R 3, R 4 and R 5 are each independently an electron-withdrawing or electron-donating substituent or a hydrogen atom; s is 1 or 2, t is 0 or 1, and s + t is 1 or 2; w is an integer of 1 to 20; and Z 1 and Z 2 are each independently a selected divalent spacer, wherein the antibody is a monoclonal antibody, a single chain monoclonal antibody, a bispecific antibody, a monoclonal antibody fragment that binds to a target cell, a resurfaced monoclonal antibody, a resurfaced single chain monoclonal antibody, a resurfaced monoclonal antibody fragment that binds to a target cell, a human monoclonal antibody, a humanized monoclonal antibody, a humanized single chain monoclonal antibody or a humanized monoclonal antibody fragment that binds to a target cell. wherein, in the formula and the formula, Y is an antibody; D is a drug; R 1 and R 6 are each independently a hydrogen atom or a hydrocarbon group; R 2, R 3, R 4 and R 5 are each independently an electron-withdrawing or electron-donating substituent or a hydrogen atom; s is 1 or 2, t is 0 or 1, and s + t is 1 or 2; w is an integer of 1 to 20; and Z 1 and Z 2 are each independently a selected divalent spacer, wherein the antibody is a monoclonal antibody, a single chain monoclonal antibody, a bispecific antibody, a monoclonal antibody fragment that binds to a target cell, a resurfaced monoclonal antibody, a resurfaced single chain monoclonal antibody, a resurfaced monoclonal antibody fragment that binds to a target cell, a human monoclonal antibody, a humanized monoclonal antibody, a humanized single chain monoclonal antibody or a humanized monoclonal antibody fragment that binds to a target cell.
A method comprising reacting (meth)acrylic acid with a biobased oil comprising at least one linear hydrocarbon group comprising at least one unsaturation to provide acrylation of unsaturations of the biobased oil; the reacting occurring in the presence of an acid catalyst comprising an inorganic or organic acid having at least one oxygen atom present thereon and which possesses at least one acid functionality having an ionization constant in water which is not greater than 3, and wherein the acid catalyst comprises a sulfuric acid catalyst or a sulfonic acid catalyst.
A seat control device comprising: one or more motors; at least one touch sensitive interface device; and at least one processor in data communication with the one or more motors, the at least one interface device, and a memory storing processor executable code for configuring the at least one processor to: render a set of input controls on the interface device; receive an input from the interface device; continuously track a current location of an uninterrupted contact with the interface device; activate at least one of the one or more motors; and continuously re-render the input controls at different locations on the interface device based on the current location of the uninterrupted contact with the interface device to maintain a relative position between the input controls and the current location. one or more motors; at least one touch sensitive interface device; and at least one processor in data communication with the one or more motors, the at least one interface device, and a memory storing processor executable code for configuring the at least one processor to: render a set of input controls on the interface device; receive an input from the interface device; continuously track a current location of an uninterrupted contact with the interface device; activate at least one of the one or more motors; and continuously re-render the input controls at different locations on the interface device based on the current location of the uninterrupted contact with the interface device to maintain a relative position between the input controls and the current location. render a set of input controls on the interface device; receive an input from the interface device; continuously track a current location of an uninterrupted contact with the interface device; activate at least one of the one or more motors; and continuously re-render the input controls at different locations on the interface device based on the current location of the uninterrupted contact with the interface device to maintain a relative position between the input controls and the current location.
A peritoneal dialysis machine comprising: a fluid pumping cassette comprising a flexible membrane and flexible sheeting, the fluid pumping cassette forming a pumping chamber; a vacuum chamber; a mechanical actuator positioned in the vacuum chamber; and a processor operable with a pressure sensor to perform pressure decay tests and characterized by a mechanically actuated piston head positioned in the vacuum chamber and extending from the mechanical actuator, the mechanically actuated piston head including vacuum ports and operable to move towards and away from the fluid pumping cassette so as to contact and push the flexible membrane of the fluid pumping cassette; and wherein the vacuum chamber is operable to maintain a vacuum that forces the flexible membrane of the fluid pumping cassette to follow the mechanically actuated piston head as the mechanically actuated piston head moves towards or away from the fluid pumping cassette. a fluid pumping cassette comprising a flexible membrane and flexible sheeting, the fluid pumping cassette forming a pumping chamber; a vacuum chamber; a mechanical actuator positioned in the vacuum chamber; and a processor operable with a pressure sensor to perform pressure decay tests and characterized by a mechanically actuated piston head positioned in the vacuum chamber and extending from the mechanical actuator, the mechanically actuated piston head including vacuum ports and operable to move towards and away from the fluid pumping cassette so as to contact and push the flexible membrane of the fluid pumping cassette; and wherein the vacuum chamber is operable to maintain a vacuum that forces the flexible membrane of the fluid pumping cassette to follow the mechanically actuated piston head as the mechanically actuated piston head moves towards or away from the fluid pumping cassette.