mhurhangee/ep-ind-claims huggingface dataset:
Method for installing or servicing a wind turbine including at least a rotor blade having a plurality of aerodynamic devices for influencing the airflow flowing from the leading edge of the rotor blade of the wind turbine to the trailing edge of the rotor blade, the method comprising the steps of: - activating the aerodynamic devices, - installing the rotor blade or performing a service on the wind turbine, - deactivating the aerodynamic devices, wherein the phase of activating the aerodynamic devices is performed before or during the phase of installing the rotor blade or performing a service on the wind turbine and the phase of deactivating the aerodynamic devices is performed during or after the phase of installing the rotor blade or performing a service on the wind turbine. - activating the aerodynamic devices, - installing the rotor blade or performing a service on the wind turbine, - deactivating the aerodynamic devices,
A metal-containing precursor comprising: bis (2,2,5,5-tetramethylhex-3-en-3-olato)hexa(ethoxy)di-titanium; bis(2,2,5,5-tetramethylhex-3-en-3-olato)bis(iso-propoxy)titanium; or tris(2,2,5,5-tetramethylhex-3-en-3-olato)(dimethylamido)titanium. bis (2,2,5,5-tetramethylhex-3-en-3-olato)hexa(ethoxy)di-titanium; bis(2,2,5,5-tetramethylhex-3-en-3-olato)bis(iso-propoxy)titanium; or tris(2,2,5,5-tetramethylhex-3-en-3-olato)(dimethylamido)titanium.
A server operable to provide hyper-text transfer protocol (HTTP) adaptive streaming to a plurality of clients, having computer circuitry configured to: determine a bandwidth available to the server for transmitting HTTP adaptive streaming content to the plurality of clients; receive HTTP requests from the plurality of clients for representations offered by the server in a manifest file for the HTTP adaptive streaming; receive quality of experience information from each of the plurality of clients receiving HTTP adaptive streaming from the server; calculate an availability of each representation that is offered in the manifest file for the server, wherein the availability is calculated, at least in part, based on the determined bandwidth and the QOE for each of the plurality of clients; and communicate the availability of each representation from the server to the plurality of clients as a representation access bit for each representation in the manifest file, wherein the RAB for each representation is communicated as an available representation code, wherein the ARC is communicated in response to an HTTP request from a client for the representation. determine a bandwidth available to the server for transmitting HTTP adaptive streaming content to the plurality of clients; receive HTTP requests from the plurality of clients for representations offered by the server in a manifest file for the HTTP adaptive streaming; receive quality of experience information from each of the plurality of clients receiving HTTP adaptive streaming from the server; calculate an availability of each representation that is offered in the manifest file for the server, wherein the availability is calculated, at least in part, based on the determined bandwidth and the QOE for each of the plurality of clients; and communicate the availability of each representation from the server to the plurality of clients as a representation access bit for each representation in the manifest file, wherein the RAB for each representation is communicated as an available representation code, wherein the ARC is communicated in response to an HTTP request from a client for the representation.
Accompanying supply platform comprising an overall drive system, for a very slow-moving mounting unit for large goods, the accompanying supply platform having means for following the mounting unit automatically and without contact, characterized in that the accompanying supply platform has two differently constructed, separate drive systems (7, 8), one drive system comprising a different drive wheel or different drive wheels than the other drive system.
A method implemented by one or more processors, comprising: receiving a set of data points generated based on sensor data from one or more sensors obtained during imitation learning of a robot trajectory, wherein the imitation learning includes physical manipulation of a reference point from an initial point to a target point; generating a dynamical systems control policy that regulates both robot motion and robot interaction with an environment, wherein generating the dynamical systems control policy comprises: constraining a neighborhood space that contains the set of data points into a contracting region, based on the set of data points, calculating a continuous function that corresponds to the robot trajectory, and fitting a polynomial vector field to the continuous function using semidefinite programming, wherein the dynamical systems control policy is defined by the polynomial vector field, and wherein fitting a polynomial vector field to the continuous function using semidefinite programming includes solving a time-varying semidefinite problem using sum-of-squares programming; and controlling a robot based on the dynamical systems control policy. receiving a set of data points generated based on sensor data from one or more sensors obtained during imitation learning of a robot trajectory, wherein the imitation learning includes physical manipulation of a reference point from an initial point to a target point; generating a dynamical systems control policy that regulates both robot motion and robot interaction with an environment, wherein generating the dynamical systems control policy comprises: constraining a neighborhood space that contains the set of data points into a contracting region, based on the set of data points, calculating a continuous function that corresponds to the robot trajectory, and fitting a polynomial vector field to the continuous function using semidefinite programming, wherein the dynamical systems control policy is defined by the polynomial vector field, and wherein fitting a polynomial vector field to the continuous function using semidefinite programming includes solving a time-varying semidefinite problem using sum-of-squares programming; and constraining a neighborhood space that contains the set of data points into a contracting region, based on the set of data points, calculating a continuous function that corresponds to the robot trajectory, and fitting a polynomial vector field to the continuous function using semidefinite programming, wherein the dynamical systems control policy is defined by the polynomial vector field, and wherein fitting a polynomial vector field to the continuous function using semidefinite programming includes solving a time-varying semidefinite problem using sum-of-squares programming; and controlling a robot based on the dynamical systems control policy.
A sensor housing for a force or pressure sensor, in particular for use in a combustion chamber, comprising: - a sensor body; - a membrane stamp; - a metal sheet which closes the sensor body on one side; and - at least one protrusion with respect to the sensor body and/or at least one protrusion with respect to the membrane stamp, wherein the metal sheet is connected to the sensor body and to the membrane stamp by means of a material-closed joint (9, 9') in such a way that the metal sheet forms a membrane, in particular an annular membrane, in a region between the sensor body and the membrane stamp, characterized in that the at least one protrusion (13, 13') is arranged in at least one of two corners defining the articulation points of the membrane and merges continuously into the membrane, which are respectively formed by the metal sheet with the sensor body and the membrane stamp, wherein the at least one protrusion (13, 13') and the membrane cooperate in such a way that the at least one protrusion (13, 13') is deformed when pressure is applied to the membrane, and wherein the at least one protrusion (13, 13') comprises an elastically deformable material which returns to its original shape when the pressure on the membrane decreases. - a sensor body; - a membrane stamp; - a metal sheet which closes the sensor body on one side; and - at least one protrusion with respect to the sensor body and/or at least one protrusion with respect to the membrane stamp,
Method for decelerating a single-track motor vehicle, having the following steps: a) determining a total torque of a rear wheel of the motor vehicle required for controlled overbraking of the rear wheel during the initial braking for a curve by way of a control unit of the motor vehicle, b) ascertaining a braking partial torque and an engine partial torque by way of the control unit as a function of the required total torque, and c) generating the braking partial torque at the rear wheel by activating a braking system of the motor vehicle by way of the control unit and generating the engine partial torque at the rear wheel by activating an engine of the motor vehicle by way of the control unit. a) determining a total torque of a rear wheel of the motor vehicle required for controlled overbraking of the rear wheel during the initial braking for a curve by way of a control unit of the motor vehicle, b) ascertaining a braking partial torque and an engine partial torque by way of the control unit as a function of the required total torque, and c) generating the braking partial torque at the rear wheel by activating a braking system of the motor vehicle by way of the control unit and generating the engine partial torque at the rear wheel by activating an engine of the motor vehicle by way of the control unit.
A heater assembly comprising: a body comprising: a graphite core comprising (i) an upper body defining a heating path, and (ii) a lower body; an overcoat layer encapsulating at least a portion of the graphite core; one or more horizontal insulating areas separating the lower body from the upper body; and one or more slits formed through the one or more insulating areas, the slit being configured to cut-off heat transfer between said upper body and said lower body and a flange disposed at a first end of the body. a body comprising: a graphite core comprising (i) an upper body defining a heating path, and (ii) a lower body; an overcoat layer encapsulating at least a portion of the graphite core; one or more horizontal insulating areas separating the lower body from the upper body; and one or more slits formed through the one or more insulating areas, the slit being configured to cut-off heat transfer between said upper body and said lower body and a graphite core comprising (i) an upper body defining a heating path, and (ii) a lower body; an overcoat layer encapsulating at least a portion of the graphite core; one or more horizontal insulating areas separating the lower body from the upper body; and one or more slits formed through the one or more insulating areas, the slit being configured to cut-off heat transfer between said upper body and said lower body and a flange disposed at a first end of the body.
A use of serum-free and mitogen-free cytokine mixture comprised of specific ratios of cytokines selected from the group of IL-1β, TNF-α, IFN-γ, GM-CSF, Interleukin-2 (IL-2) in the preparation of a medicament for the treatment of cancer treatable by modulating HLA Class II tumor cell surface expression where the specific ratios of IL-1β, TNF-α, IFN-γ, GM-CSF to IL-2 are: IL-1β to IL-2 at a ratio range of 0.4 -1.5; TNF-α to IL-2 at a ratio range of 3.2 - 11.3; IFN-γ to IL-2 at a ratio range of 1.5-10.9; and GM-CSF to IL-2 at a ratio range of 2.2 - 4.8; wherein dosage amount of said serum-free and mitogen-free cytokine mixture is five times a week over a three week period in a daily dose of 200, 400, 800, 1200, 1600, 2400, 3200, 4800, 8000, 9600 or 12000 IU, wherein IU represent International Units for Interleukin-2 given in World Health Organization 1 st International Standard for Human IL-2, 86/504, and wherein one half of the daily dose is administered peritumorally and the other half of the daily dose is administered perilymphatically, wherein the cancer is oral squamous cell carcinoma and is negative for HLA class II expression, and wherein the cytokine mixture is administered prior to surgery followed by radiotherapy. IL-1β to IL-2 at a ratio range of 0.4 -1.5; TNF-α to IL-2 at a ratio range of 3.2 - 11.3; IFN-γ to IL-2 at a ratio range of 1.5-10.9; and GM-CSF to IL-2 at a ratio range of 2.2 - 4.8;
An optical fiber glass preform comprising: a starting rod; a dummy glass configured to be integrally joined to one end of the starting rod; and a clad glass configured to surround a part of the dummy glass and the starting rod, wherein a joining end of the dummy glass is fitted to be wrapped around a joining end of the starting rod. a starting rod; a dummy glass configured to be integrally joined to one end of the starting rod; and a clad glass configured to surround a part of the dummy glass and the starting rod, wherein a joining end of the dummy glass is fitted to be wrapped around a joining end of the starting rod.
An air conditioner comprising: an outdoor unit comprising a compressor and an outdoor heat exchanger; at least one indoor unit connected to the outdoor unit and comprising an indoor heat exchanger; a refrigerant tube connecting the outdoor unit to the indoor unit; a receiver storing at least one portion of refrigerant flowing through the refrigerant tube; an external temperature sensing part disposed on the outdoor unit to sense outdoor temperature; and an indoor load sensing part sensing an operation capacity of the indoor unit; characterised by a control part configured to adjust an amount of refrigerant to be stored in the receiver, based on values sensed by the external temperature sensing part and the indoor load sensing part, wherein an outdoor temperature reference condition and an indoor load reference condition for adjusting the amount of the refrigerant to be stored in the receiver are determined according to an operation mode of the air conditioner, wherein when the air conditioner is in a cooling operation, if the outdoor temperature is equal to or higher than a reference temperature, and the indoor load is greater than a reference load, the control part is configured to increase the amount of the refrigerant to be stored in the receiver, wherein when the air conditioner is in a heating operation, if the outdoor temperature is equal to or higher than a reference temperature, and the indoor load is smaller than a reference load, the control part is configured to increase the amount of the refrigerant to be stored in the receiver. an outdoor unit comprising a compressor and an outdoor heat exchanger; at least one indoor unit connected to the outdoor unit and comprising an indoor heat exchanger; a refrigerant tube connecting the outdoor unit to the indoor unit; a receiver storing at least one portion of refrigerant flowing through the refrigerant tube; an external temperature sensing part disposed on the outdoor unit to sense outdoor temperature; and an indoor load sensing part sensing an operation capacity of the indoor unit; characterised by a control part configured to adjust an amount of refrigerant to be stored in the receiver, based on values sensed by the external temperature sensing part and the indoor load sensing part, wherein an outdoor temperature reference condition and an indoor load reference condition for adjusting the amount of the refrigerant to be stored in the receiver are determined according to an operation mode of the air conditioner, wherein when the air conditioner is in a cooling operation, if the outdoor temperature is equal to or higher than a reference temperature, and the indoor load is greater than a reference load, the control part is configured to increase the amount of the refrigerant to be stored in the receiver, wherein when the air conditioner is in a heating operation, if the outdoor temperature is equal to or higher than a reference temperature, and the indoor load is smaller than a reference load, the control part is configured to increase the amount of the refrigerant to be stored in the receiver.
A processor comprising: a plurality of compute units comprising circuitry configured to execute instructions; and a dispatch unit comprising circuitry configured to dispatch workgroups to the plurality of compute units; wherein the processor is configured to: divide a workgroup into individual wavefronts for dispatch from the dispatch unit, responsive to determining that the workgroup does not fit within a single compute unit based on currently available resources of the plurality of compute units; monitor a plurality of performance counters to track resource contention among the plurality of compute units; calculate a load-rating of each compute unit for each selected resource based on the plurality of performance counters; select compute units with the lowest load-rating for each selected resource as candidates for dispatch; and dispatch the wavefronts of the workgroup to the selected compute units. a plurality of compute units comprising circuitry configured to execute instructions; and a dispatch unit comprising circuitry configured to dispatch workgroups to the plurality of compute units; wherein the processor is configured to: divide a workgroup into individual wavefronts for dispatch from the dispatch unit, responsive to determining that the workgroup does not fit within a single compute unit based on currently available resources of the plurality of compute units; monitor a plurality of performance counters to track resource contention among the plurality of compute units; calculate a load-rating of each compute unit for each selected resource based on the plurality of performance counters; select compute units with the lowest load-rating for each selected resource as candidates for dispatch; and dispatch the wavefronts of the workgroup to the selected compute units. divide a workgroup into individual wavefronts for dispatch from the dispatch unit, responsive to determining that the workgroup does not fit within a single compute unit based on currently available resources of the plurality of compute units; monitor a plurality of performance counters to track resource contention among the plurality of compute units; calculate a load-rating of each compute unit for each selected resource based on the plurality of performance counters; select compute units with the lowest load-rating for each selected resource as candidates for dispatch; and dispatch the wavefronts of the workgroup to the selected compute units.
Glass sheet having a coating provided on a surface thereof wherein the coating comprises in order from the glass a first layer comprising enamel and a second layer comprising a resin, wherein the second layer additionally comprises a frit and is in direct contact with the first layer, the amount of frit in this second layer, before heat treatment is from 20% to 60% by weight.
A non-aqueous electrolyte solution comprising: i) a non-aqueous organic solvent consisting ofcarbonate-based solvent; and ii) lithium bis(fluorosulfonyl)imide (LiFSI), wherein the carbonate-based solvent comprises propylene carbonate, dimethyl carbonate, and ethylmethyl carbonate and does not comprise ethylene carbonate, wherein the non-aqueous electrolyte solution further comprises a lithium salt, and wherein a mixture ratio of the lithium salt to the lithium bis(fluorosulfonyl)imide is in a range of 1:6 to 1:9 as a molar ratio. ii) lithium bis(fluorosulfonyl)imide (LiFSI),
A method for enabling efficient bandwidth utilization of a multipoint network service over an arbitrary topology network that includes at least three network elements, NEs, establishing a virtual private LAN service, comprising the steps of: a) setting up a full connectivity between the NEs of the arbitrary topology network; and, b) providing the multipoint network service between the NEs using said full connectivity, whereby data packets of the multipoint network service are transmitted from one NE that serves as a source NE to at least one other NE that serves as an edge NE through at least one other NE (420-2, 420-3) that serves as an intermediate NE, whereby data packets that need to be flooded are not replicated at said source NE, and said step of setting up full connectivity includes establishing a first plurality of point-to-multipoint connections between each said source NE and said edge NEs, each point-to-multipoint connection of the first plurality associated with a designated destination label. a) setting up a full connectivity between the NEs of the arbitrary topology network; and, b) providing the multipoint network service between the NEs using said full connectivity,
A method of setting up a session in a first wireless device supporting Wi-Fi Direct services, comprising: transmitting, by the first wireless device, a provision discovery request message to a second wireless device; receiving, by the first wireless device, from the second wireless device, a provision discovery response message in response to the provision discovery request message; performing a set up process for setting up a connection between the first wireless device and the second wireless device to create a session for a first service; the method being characterized in that it further comprises: transmitting, by the first wireless device, a session request (REQUEST_SESSION) message to the second wireless device to create a session for a second service using the existing connection, wherein session information on the second service is included in the session request message. transmitting, by the first wireless device, a provision discovery request message to a second wireless device; receiving, by the first wireless device, from the second wireless device, a provision discovery response message in response to the provision discovery request message; performing a set up process for setting up a connection between the first wireless device and the second wireless device to create a session for a first service; the method being characterized in that it further comprises: transmitting, by the first wireless device, a session request (REQUEST_SESSION) message to the second wireless device to create a session for a second service using the existing connection, wherein session information on the second service is included in the session request message. transmitting, by the first wireless device, a session request (REQUEST_SESSION) message to the second wireless device to create a session for a second service using the existing connection, wherein session information on the second service is included in the session request message.