mhurhangee/patent-ind-claim-en huggingface dataset:
A method for information display, the method comprising: determining a distance to an object relative to a display system; calculating a focal length for displaying a first annotation with a display of the display system based on the distance; receiving a multiview viewport for a plurality of views, the multiview viewport defining a field of view displayable by the display, each of the plurality of views defining a respective virtual camera angle; receiving a respective model view projection for each respective view of the plurality of views, the respective model view projection defining how the first annotation is rendered for the respective view; generating a respective viewport for each respective view of the plurality of views, the respective viewports being portions of the multiview viewport; generating a respective model view projection for each respective view of the plurality of views; storing first commands that are specific to each respective view of the plurality of views in a respective first level buffer for each respective view of the plurality of views; storing second commands that are common to each respective view of the plurality of views in a second level buffer, wherein the first commands in the respective first level buffers call the second commands in the second level buffer; rendering the first annotation at the plurality of views at the focal length by executing the respective first level buffers for each of the plurality of views; and displaying, with the display, the first annotation at the focal length. determining a distance to an object relative to a display system; calculating a focal length for displaying a first annotation with a display of the display system based on the distance; receiving a multiview viewport for a plurality of views, the multiview viewport defining a field of view displayable by the display, each of the plurality of views defining a respective virtual camera angle; receiving a respective model view projection for each respective view of the plurality of views, the respective model view projection defining how the first annotation is rendered for the respective view; generating a respective viewport for each respective view of the plurality of views, the respective viewports being portions of the multiview viewport; generating a respective model view projection for each respective view of the plurality of views; storing first commands that are specific to each respective view of the plurality of views in a respective first level buffer for each respective view of the plurality of views; storing second commands that are common to each respective view of the plurality of views in a second level buffer, wherein the first commands in the respective first level buffers call the second commands in the second level buffer; rendering the first annotation at the plurality of views at the focal length by executing the respective first level buffers for each of the plurality of views; and displaying, with the display, the first annotation at the focal length.
A computer-implemented clinical decision support method for estimating a value of a parameter of a blood coagulation system in a subject that is periodically supplied with an anticoagulant, wherein the method comprises the steps of: receiving concentration levels of a set of coagulation proteins in a sample derived from the blood coagulation system at a predetermined point in time relative to the point in time of supply of the last dose of anticoagulant to the blood coagulation system, and estimating the value of the parameter of the blood coagulation system based on the supplied anticoagulant and the received concentration levels of the set of coagulation proteins using an estimating algorithm, wherein the parameter of the blood coagulation system is a period of time taken for the blood coagulation system to reach a state of sufficient coagulation after the point in time of supply of a last dose of anticoagulant to the blood coagulation system. receiving concentration levels of a set of coagulation proteins in a sample derived from the blood coagulation system at a predetermined point in time relative to the point in time of supply of the last dose of anticoagulant to the blood coagulation system, and estimating the value of the parameter of the blood coagulation system based on the supplied anticoagulant and the received concentration levels of the set of coagulation proteins using an estimating algorithm, wherein the parameter of the blood coagulation system is a period of time taken for the blood coagulation system to reach a state of sufficient coagulation after the point in time of supply of a last dose of anticoagulant to the blood coagulation system.
An integrated circuit device for controlling a plurality of LIN slave nodes based on a control signal transmitted by a LIN master control device , comprising: - a slave node circuit comprising a first data line terminal for connecting to a first Local Interconnect Network, LIN, data line and a first LIN protocol controller operably connected to said first data line terminal , said slave node circuit being adapted for processing said control signal when received in the form of a LIN message frame via said first data line terminal , - a master node circuit comprising a second data line terminal for connecting to a second LIN data line and a second LIN protocol controller operably connected to said second data line terminal, said master node circuit being adapted for processing further control signals to be transmitted in the form of LIN message frames via said second data line terminal to said plurality of LIN slave nodes, - a processing unit for controlling said plurality of LIN slave nodes based on said control signal, wherein said controlling of said plurality of LIN slave nodes comprises composing said further control signals for controlling an electrical load and/or a sensor function connected to, or integrated in, each of the plurality of LIN slave nodes in accordance with said further control signals, and - at least one load terminal for connecting to a local electrical load to be controlled, said processing unit being furthermore adapted for controlling a voltage and/or current to be supplied via said at least one load terminal in response to said control signal. - a slave node circuit comprising a first data line terminal for connecting to a first Local Interconnect Network, LIN, data line and a first LIN protocol controller operably connected to said first data line terminal , said slave node circuit being adapted for processing said control signal when received in the form of a LIN message frame via said first data line terminal , - a master node circuit comprising a second data line terminal for connecting to a second LIN data line and a second LIN protocol controller operably connected to said second data line terminal, said master node circuit being adapted for processing further control signals to be transmitted in the form of LIN message frames via said second data line terminal to said plurality of LIN slave nodes, - a processing unit for controlling said plurality of LIN slave nodes based on said control signal, wherein said controlling of said plurality of LIN slave nodes comprises composing said further control signals for controlling an electrical load and/or a sensor function connected to, or integrated in, each of the plurality of LIN slave nodes in accordance with said further control signals, and - at least one load terminal for connecting to a local electrical load to be controlled, said processing unit being furthermore adapted for controlling a voltage and/or current to be supplied via said at least one load terminal in response to said control signal.
A light source module comprising: a number of light sources and a number of light collecting means (209a-g), wherein said light collecting means (209a-g) collect and convert said light from at least one of said light sources into a source light beam, said source light beam propagates primarily along a primary optical axis ; said light source module comprises a cooling module comprising a number of interconnected plane mounting surfaces (301a-g) angled in relation to each other, said number of light sources are arranged on said planar mounting surfaces (301a-g), said cooling module comprises a first side comprising said mounting surfaces (301a-g) and a second side comprising a number of cooling fins defining a number of radial air channels , and characterized in that said light sources are arranged on separate planar metal core electric circuit boards (303a - 303g), and said separate planar metal core electric circuit boards (303a - 303g) are arranged on different planar mounting surfaces (301a-g). a number of light sources and a number of light collecting means (209a-g), wherein said light collecting means (209a-g) collect and convert said light from at least one of said light sources into a source light beam, said source light beam propagates primarily along a primary optical axis ; said light source module comprises a cooling module comprising a number of interconnected plane mounting surfaces (301a-g) angled in relation to each other, said number of light sources are arranged on said planar mounting surfaces (301a-g), said cooling module comprises a first side comprising said mounting surfaces (301a-g) and a second side comprising a number of cooling fins defining a number of radial air channels , and characterized in that said light sources are arranged on separate planar metal core electric circuit boards (303a - 303g), and said separate planar metal core electric circuit boards (303a - 303g) are arranged on different planar mounting surfaces (301a-g).
A negative electrode active material for a negative electrode material of a non-aqueous electrolyte secondary battery, comprising a silicon-based material expressed by SiO x where 0.5≤x≤1.6 and a crystalized fluorine compound in at least a part of a surface layer of the negative electrode active material, the silicon-based material containing at least one of Li 6 Si 2 O 7 , Li 2 Si 3 O 5 , Li 4 SiO 4 , and Li 2 SiO 3 , wherein the crystalized fluorine compound is bis (trifluoromethyl) dicarbonate.
An siRNA or shRNA inhibitor of KIF19 for use in the treatment of metastasis or inhibiting metastasis in a subject having an anaplastic thyroid carcinoma.
Boiler having a heat exchanger which is disposed downstream of a combustion chamber and comprises a downcomer and a riser for the combustion gases, having a deflection chamber which connects the downcomer and the riser and forms a separator for fly ash, having a boiler jacket which accommodates the heat exchanger and has a connecting flange for an induced draught fan , said connecting flange being provided at the exhaust gas outlet of the heat exchanger , having an induced draught fan and having an electrostatic separator , of which the housing , disposed outside the boiler jacket , has, between an inlet and an outlet, a downwardly extending and an upwardly extending flow channel portion with separating electrodes surrounding a spray electrode , and a separating chamber connecting the two flow channel portions , characterised in that the housing of the electrostatic separator is flange-mounted with its inlet on the connecting flange of the boiler jacket for the induced draught fan and accommodates the induced draught fan .
Apparatus to determine and/or monitor the temperature of a medium , comprising at least a temperature sensor , a reference element for the insitu calibration and/or validation of the temperature sensor , and an electronics unit , wherein the reference element consists at least partially of a material , for which at least one phase transition occurs at at least a first predefined phase transition temperature (T ph ) in the temperature range that is relevant for the calibration of the temperature sensor , wherein the material remains in the solid phase for said phase transition, characterized in that the electronics unit is designed to apply an excitation signal (U dyn ), which is dynamic over time, to the reference element and the temperature sensor in the form of an alternating current or an alternating voltage.
A method performed at a transmitting device, comprising: asserting a stop condition on a wire of a serial data link by driving the wire to a first voltage level for a first period of time that is less than a duration of the stop condition ; monitoring the wire after the first period of time ; determining that flow-control has been asserted when the wire remains at a second voltage level for a second period of time that exceeds a minimum period of time defined for flow-control pulses, and after the first period of time has elapsed ; refraining from transmitting data on the wire while the flow-control is asserted ; and transmitting data on the wire when the flow-control is de-asserted . asserting a stop condition on a wire of a serial data link by driving the wire to a first voltage level for a first period of time that is less than a duration of the stop condition ; monitoring the wire after the first period of time ; determining that flow-control has been asserted when the wire remains at a second voltage level for a second period of time that exceeds a minimum period of time defined for flow-control pulses, and after the first period of time has elapsed ; refraining from transmitting data on the wire while the flow-control is asserted ; and transmitting data on the wire when the flow-control is de-asserted .
A method, comprising: receiving , by a service processing control device, a service packet; acquiring , by the service processing control device, a service identity from the service packet, wherein the service identity is used to identify a service to be processed; obtaining , by the service processing control device, a service feature string corresponding to the service identified by the service identity, wherein the service feature string comprises one or more service features in the service and a processing sequence of the service features; obtaining , by the service processing control device, a service label used to represent a service feature of the service feature string; obtaining , by the service processing control device, a routing path corresponding to the service feature string; and generating , by the service processing control device, a service routing entry based on the service identity, the service label and the routing path, wherein the service routing entry comprises the service identity, the service label and the routing path; obtaining , by the service processing control device, the service label and the routing path based on the service identity comprised in the service packet and the service routing entry; and setting , by the service processing control device, the service label in the service packet and sending the service packet to a service processing device based on the routing path. receiving , by a service processing control device, a service packet; acquiring , by the service processing control device, a service identity from the service packet, wherein the service identity is used to identify a service to be processed; obtaining , by the service processing control device, a service feature string corresponding to the service identified by the service identity, wherein the service feature string comprises one or more service features in the service and a processing sequence of the service features; obtaining , by the service processing control device, a service label used to represent a service feature of the service feature string; obtaining , by the service processing control device, a routing path corresponding to the service feature string; and generating , by the service processing control device, a service routing entry based on the service identity, the service label and the routing path, wherein the service routing entry comprises the service identity, the service label and the routing path; obtaining , by the service processing control device, the service label and the routing path based on the service identity comprised in the service packet and the service routing entry; and setting , by the service processing control device, the service label in the service packet and sending the service packet to a service processing device based on the routing path.
A thermally sprayed coating being a thermally sprayed iron-based coating that is formed on an inner circumferential surface of a cylinder bore of an aluminum or aluminum alloy cylinder block, the thermally sprayed coating having a surface roughness (Ra) being 0.1 μm or less and a plastic deformation part on its surface and characterized in an area ratio thereof being 4.6 % or greater.
Use of a histone H3.1 and/or H3.2 and/or H3t binding agent for detecting, isolating and/or purifying cell free nucleosomes of tumor origin or circulating tumor DNA (ctDNA) from a biological sample.
A computer-implemented method for detecting damage to a gas turbine engine having a fan and a plurality of turbine stages including a low pressure turbine stage , the fan being drivably coupled to the low pressure turbine stage , the method comprising: receiving a first signal (S1) indicative of a speed of rotation (N1) of the fan ; receiving a second signal (S2) indicative of a speed of rotation (N1T) of the low pressure turbine stage ; determining , based on the first signal (S1) and the second signal (S2), a difference metric (ΔN) representative of a difference between the speed of rotation (N1) of the fan and the speed of rotation (N1T) of the low pressure turbine stage ; and determining whether a damage event has occurred based on whether the difference metric (ΔN) passes a threshold (TH, TH1, TH2); characterised by : determining an approximate impact energy associated with a damage event based on a magnitude of the difference metric (ΔN); and categorising the damage event as one of a plurality of different possible types of damage event based on the determined approximate impact energy. receiving a first signal (S1) indicative of a speed of rotation (N1) of the fan ; receiving a second signal (S2) indicative of a speed of rotation (N1T) of the low pressure turbine stage ; determining , based on the first signal (S1) and the second signal (S2), a difference metric (ΔN) representative of a difference between the speed of rotation (N1) of the fan and the speed of rotation (N1T) of the low pressure turbine stage ; and determining whether a damage event has occurred based on whether the difference metric (ΔN) passes a threshold (TH, TH1, TH2); determining an approximate impact energy associated with a damage event based on a magnitude of the difference metric (ΔN); and categorising the damage event as one of a plurality of different possible types of damage event based on the determined approximate impact energy.
A battery cell comprising: two or more electrode groups (210/220) having a structure in which electrodes including a positive electrode , a negative electrode , and a separator interposed between the positive electrode and the negative electrode are stacked, wherein each of the electrode groups includes an electrode tab junction (211/221) on one side and is electrically connected to an electrode lead drawn to an outside of a battery case via a conductive connecting member (230/240), wherein the electrode groups (210/220) are composed of a first electrode group and a second electrode group , and the first electrode group and the second electrode group are arranged symmetrically with respect to the electrode lead , wherein the structure includes a first welding junction (231/241) formed between one end of the conductive connecting member (230/240) and the electrode tab junction (211/221) and a second welding junction (232/242) formed between the other end of the conductive connecting member (230/240) and the electrode lead , and wherein each conductive connecting member (230/240) is made of a metal strip, and has a bent part comprising a vertical cross sectional shape of a circular arc bent in a direction toward the electrode groups and . two or more electrode groups (210/220) having a structure in which electrodes including a positive electrode , a negative electrode , and a separator interposed between the positive electrode and the negative electrode are stacked, wherein each of the electrode groups includes an electrode tab junction (211/221) on one side and is electrically connected to an electrode lead drawn to an outside of a battery case via a conductive connecting member (230/240), wherein the electrode groups (210/220) are composed of a first electrode group and a second electrode group , and the first electrode group and the second electrode group are arranged symmetrically with respect to the electrode lead , wherein the structure includes a first welding junction (231/241) formed between one end of the conductive connecting member (230/240) and the electrode tab junction (211/221) and a second welding junction (232/242) formed between the other end of the conductive connecting member (230/240) and the electrode lead , and wherein each conductive connecting member (230/240) is made of a metal strip, and has a bent part comprising a vertical cross sectional shape of a circular arc bent in a direction toward the electrode groups and .
Road train, comprising a towing vehicle with a first box-type superstructure for receiving loads and comprising a trailer with a second box superstructure for receiving loads and also comprising a bridge plate between the first box superstructure and the second box superstructure , characterized by two side walls , each of which can be adjusted between a stowage position, in which they are received by the first box superstructure or the second box superstructure , and an operating position, in which they are each mounted between the two box structures and each laterally delimit the bridge plate.
An apparatus comprising: at least a first and second actuator configured to provide a force to move a display assembly component at least at two separate locations of the display assembly component such that at least one of the at least two separate locations of the display assembly component has a displacement based on a first actuation input, wherein the first actuation input is an actuator input signal for the first actuator; at least one sensor configured to determine the displacement of the display assembly component, wherein the at least one sensor is configured to provide a feedback signal, wherein the at least one sensor and the provided feedback signal are associated with the second actuator; and a control unit , wherein the control unit comprises an adaptive filter , the adaptive filter configured to receive the first actuation input signal and the provided feedback signal and to generate a driving signal to the second actuator to control the motion of the display assembly at a location of the second actuator and localise substantial motion of the display assembly component in a region at the location of the first actuator. at least a first and second actuator configured to provide a force to move a display assembly component at least at two separate locations of the display assembly component such that at least one of the at least two separate locations of the display assembly component has a displacement based on a first actuation input, wherein the first actuation input is an actuator input signal for the first actuator; at least one sensor configured to determine the displacement of the display assembly component, wherein the at least one sensor is configured to provide a feedback signal, wherein the at least one sensor and the provided feedback signal are associated with the second actuator; and a control unit , wherein the control unit comprises an adaptive filter , the adaptive filter configured to receive the first actuation input signal and the provided feedback signal and to generate a driving signal to the second actuator to control the motion of the display assembly at a location of the second actuator and localise substantial motion of the display assembly component in a region at the location of the first actuator.