mhurhangee/patent-ind-claim-en huggingface dataset:
A communication adapter for a gas turbine engine of an aircraft , the communication adapter comprising: an internal sensor system comprising a plurality of sensors within the communication adapter ; a memory system ; and processing circuitry configured to: receive a plurality of time series data at the communication adapter from an engine control during operation of the gas turbine engine , the time series data comprising engine control parameters ; record a plurality of internal sensor data versus time in the memory system until an end condition is met, wherein the sensors of the internal sensor system are adapted to collect the internal sensor data; form an enhanced data set by correlating, via time stamp data, the time series data comprising engine control parameters with the internal sensor data based on an alignment in time between the time series data comprising engine control parameters and the internal sensor data to compensate for varying delays; and transmit the enhanced data set from the communication adapter to an offboard system based on a transmit condition. an internal sensor system comprising a plurality of sensors within the communication adapter ; a memory system ; and processing circuitry configured to: receive a plurality of time series data at the communication adapter from an engine control during operation of the gas turbine engine , the time series data comprising engine control parameters ; record a plurality of internal sensor data versus time in the memory system until an end condition is met, wherein the sensors of the internal sensor system are adapted to collect the internal sensor data; form an enhanced data set by correlating, via time stamp data, the time series data comprising engine control parameters with the internal sensor data based on an alignment in time between the time series data comprising engine control parameters and the internal sensor data to compensate for varying delays; and transmit the enhanced data set from the communication adapter to an offboard system based on a transmit condition. receive a plurality of time series data at the communication adapter from an engine control during operation of the gas turbine engine , the time series data comprising engine control parameters ; record a plurality of internal sensor data versus time in the memory system until an end condition is met, wherein the sensors of the internal sensor system are adapted to collect the internal sensor data; form an enhanced data set by correlating, via time stamp data, the time series data comprising engine control parameters with the internal sensor data based on an alignment in time between the time series data comprising engine control parameters and the internal sensor data to compensate for varying delays; and transmit the enhanced data set from the communication adapter to an offboard system based on a transmit condition.
A rotary active side air curtain assembly for a motor vehicle, comprising a wind guide element , a rotating element , and a driving mechanism , characterized in that the rotating element comprises a rotating shaft and a blade that are fixed to one another, the blade being mounted on the wind guide element through the rotating shaft , in that the driving mechanism is connected to the rotating shaft and can drive the rotating shaft to rotate so as to drive the blade to rotate between an open position and a closed position, characterised in that the wind guide element is provided with a top part and a base part that are opposite to each other, and the rotating shaft is pivotably mounted between the top part and the base part , and in that the top part is provided with a mounting base in which the driving mechanism is mounted, and a top end of the rotating shaft pivotably runs through the top part and extends upward and is connected to the driving mechanism .
A chimeric antigen receptor (CAR) comprising: a) an extracellular domain that comprises an anti-CD79A antibody or antigen binding fragment thereof that binds one or more epitopes of a human CD79A polypeptide, wherein the anti-CD79A antibody or antigen binding fragment thereof comprises i) a variable light chain sequence comprising CDRL1-CDRL3 sequences set forth in SEQ ID NOs: 1-3 and a variable heavy chain sequence comprising CDRH1-CDRH3 sequences set forth in SEQ ID NOs: 4-6; or ii) a variable light chain sequence comprising CDRL1-CDRL3 sequences set forth in SEQ ID NOs: 9-11 and a variable heavy chain sequence comprising CDRH1-CDRH3 sequences set forth in SEQ ID NOs: 12-14; or iii) a variable light chain sequence comprising CDRL1-CDRL3 sequences set forth in SEQ ID NOs: 17-19 and a variable heavy chain sequence comprising CDRH1-CDRH3 sequences set forth in SEQ ID NOs: 20-22; b) a transmembrane domain; c) one or more intracellular co-stimulatory signaling domains; and d) a primary signaling domain. a) an extracellular domain that comprises an anti-CD79A antibody or antigen binding fragment thereof that binds one or more epitopes of a human CD79A polypeptide, wherein the anti-CD79A antibody or antigen binding fragment thereof comprises i) a variable light chain sequence comprising CDRL1-CDRL3 sequences set forth in SEQ ID NOs: 1-3 and a variable heavy chain sequence comprising CDRH1-CDRH3 sequences set forth in SEQ ID NOs: 4-6; or ii) a variable light chain sequence comprising CDRL1-CDRL3 sequences set forth in SEQ ID NOs: 9-11 and a variable heavy chain sequence comprising CDRH1-CDRH3 sequences set forth in SEQ ID NOs: 12-14; or iii) a variable light chain sequence comprising CDRL1-CDRL3 sequences set forth in SEQ ID NOs: 17-19 and a variable heavy chain sequence comprising CDRH1-CDRH3 sequences set forth in SEQ ID NOs: 20-22; i) a variable light chain sequence comprising CDRL1-CDRL3 sequences set forth in SEQ ID NOs: 1-3 and a variable heavy chain sequence comprising CDRH1-CDRH3 sequences set forth in SEQ ID NOs: 4-6; or ii) a variable light chain sequence comprising CDRL1-CDRL3 sequences set forth in SEQ ID NOs: 9-11 and a variable heavy chain sequence comprising CDRH1-CDRH3 sequences set forth in SEQ ID NOs: 12-14; or iii) a variable light chain sequence comprising CDRL1-CDRL3 sequences set forth in SEQ ID NOs: 17-19 and a variable heavy chain sequence comprising CDRH1-CDRH3 sequences set forth in SEQ ID NOs: 20-22; b) a transmembrane domain; c) one or more intracellular co-stimulatory signaling domains; and d) a primary signaling domain.
A drape for a covering a C-arm imaging machine , the drape comprising: a detector body cover configured to be positioned around a detector of an imaging machine ; a C-arm body cover configured to be positioned along at least a portion of a length of a C-arm of the imaging machine , the C-arm body cover defining a tunnel configured to surround the C-arm ; and an elastic banding extending about a perimeter of a junction between the detector body cover and the C-arm body cover , the elastic banding providing a biasing force configured to draw the junction between the detector body cover and the C-arm body cover closed, characterized in that the tunnel extends from a first end at the junction to a second end configured to be positioned down the length of the C-arm , and the C-arm body cover further comprises a tail sheet extending outwardly from the second end of the tunnel. a detector body cover configured to be positioned around a detector of an imaging machine ; a C-arm body cover configured to be positioned along at least a portion of a length of a C-arm of the imaging machine , the C-arm body cover defining a tunnel configured to surround the C-arm ; and an elastic banding extending about a perimeter of a junction between the detector body cover and the C-arm body cover , the elastic banding providing a biasing force configured to draw the junction between the detector body cover and the C-arm body cover closed, characterized in that the tunnel extends from a first end at the junction to a second end configured to be positioned down the length of the C-arm , and the C-arm body cover further comprises a tail sheet extending outwardly from the second end of the tunnel.
An anti-skid device for a vehicle wheel comprising: - a first and a second portion of chain, flanked to one another and destined to extend along an extension of a tread of the wheel; - a first support of the first and the second portion of chain, said first support being destined to superpose on a tread; said first support comprising first anti-skid means comprising a plurality of anti-skid teeth being part of a single piece and destined to carry out the action thereof on a road surface; characterised in that it comprises a plurality of spokes which at a radially more inner end connect in a reciprocal joining zone ; one of said spokes , in a radially more outer position, being associated to said first support . - a first and a second portion of chain, flanked to one another and destined to extend along an extension of a tread of the wheel; - a first support of the first and the second portion of chain, said first support being destined to superpose on a tread; said first support comprising first anti-skid means comprising a plurality of anti-skid teeth being part of a single piece and destined to carry out the action thereof on a road surface; characterised in that it comprises a plurality of spokes which at a radially more inner end connect in a reciprocal joining zone ; one of said spokes , in a radially more outer position, being associated to said first support .
A method for purification of contaminated oil, said method comprising the steps of: - providing contaminated oil and a separation aid in a tank , wherein said separation aid is liquid at the temperature at which the process is carried out and will by chemical interactions absorb contaminating solids or dissolved impurities in the oil to be purified and wherein the separation aid composition is substantially insoluble in the oil to be purified because of its polar properties, forming a two-phase mixture upon mixing with the oil to be purified and wherein the separation aid has a density different from that of the oil to be purified; - allowing a sludge phase comprising the separation aid together with impurities from the oil to settle in a bottom part of the tank ; - reusing the sludge phase for purification of new contaminated oil, wherein said method further comprises the steps of: - transferring clean oil out from the tank when the sludge phase has settled in the bottom part of the tank ; - adding new contaminated oil to the tank; - mixing the newly added contaminated oil with the sludge phase previously settled in the bottom part of the tank; - allowing a new sludge phase comprising the old sludge phase and new impurities from the new oil to settle in the bottom part of the tank. - providing contaminated oil and a separation aid in a tank , wherein said separation aid is liquid at the temperature at which the process is carried out and will by chemical interactions absorb contaminating solids or dissolved impurities in the oil to be purified and wherein the separation aid composition is substantially insoluble in the oil to be purified because of its polar properties, forming a two-phase mixture upon mixing with the oil to be purified and wherein the separation aid has a density different from that of the oil to be purified; - allowing a sludge phase comprising the separation aid together with impurities from the oil to settle in a bottom part of the tank ; - reusing the sludge phase for purification of new contaminated oil, wherein said method further comprises the steps of: - transferring clean oil out from the tank when the sludge phase has settled in the bottom part of the tank ; - adding new contaminated oil to the tank; - mixing the newly added contaminated oil with the sludge phase previously settled in the bottom part of the tank; - allowing a new sludge phase comprising the old sludge phase and new impurities from the new oil to settle in the bottom part of the tank.
A display device comprising: a substrate (SUB) including a bent area (BA) and a flat area (FA1, FA2), a plurality of island-shaped inorganic insulating patterns (IIP) arranged on the substrate (SUB) in the bent area (BA) to be separate from each other; chatracterized by an organic insulating layer including a concavo-convex surface covering the inorganic insulating patterns (IIP) in the bent area (BA); and wiring lines (LP, L2) arranged on the organic insulating layer and overlapping the inorganic insulating patterns (IIP) and having a concavo-convex part over the concavo-convex surface of the organic insulation layer. a substrate (SUB) including a bent area (BA) and a flat area (FA1, FA2), a plurality of island-shaped inorganic insulating patterns (IIP) arranged on the substrate (SUB) in the bent area (BA) to be separate from each other; chatracterized by an organic insulating layer including a concavo-convex surface covering the inorganic insulating patterns (IIP) in the bent area (BA); and wiring lines (LP, L2) arranged on the organic insulating layer and overlapping the inorganic insulating patterns (IIP) and having a concavo-convex part over the concavo-convex surface of the organic insulation layer.
A medical system , comprising a plurality of devices forming nodes of a network, wherein each device of said plurality of devices is configured to communicate with another device of the network in a wireless fashion by receiving a message from another device in the network or by transmitting a message to another device in the network, and wherein a priority is assigned to each device , wherein as long as no other transmission of a message is ongoing in the network, each device is configured to initiate a transmission of a message by transmitting a start signal (S1, S2, S3), wherein the higher the priority of the respective device , the higher the duration (D1, D2, D3) of the start signal (S1, S2, S3) allocated to the respective device , and wherein in case several devices in the network simultaneously initiate a transmission of a message by transmitting a start signal, a permission to transmit a message is automatically granted to the device in the network with the highest priority, wherein each device is configured to be in a receiving mode (R1, R2, R3) in which the respective device is able to receive a message from another device and is able to transmit a message of its own and is not inhibited by an ongoing or initiated message of another device of the network, and wherein the respective device is configured to return into the receiving mode (R1, R2, R3) for a pre-defined time period after having transmitted a start signal (S1, S2, S3), wherein in case the respective device sees a start signal (S1, S2, S3) from another device during this time period, the respective device is configured to postpone transmission of its own message until the ongoing transmission of the start signal from the other device ends, and wherein the respective device is configured to transmit its own message in case the respective device sees no ongoing transmission of a start signal from a different device after its own start signal has ended. each device is configured to be in a receiving mode (R1, R2, R3) in which the respective device is able to receive a message from another device and is able to transmit a message of its own and is not inhibited by an ongoing or initiated message of another device of the network, and wherein the respective device is configured to return into the receiving mode (R1, R2, R3) for a pre-defined time period after having transmitted a start signal (S1, S2, S3), wherein in case the respective device sees a start signal (S1, S2, S3) from another device during this time period, the respective device is configured to postpone transmission of its own message until the ongoing transmission of the start signal from the other device ends, and wherein the respective device is configured to transmit its own message in case the respective device sees no ongoing transmission of a start signal from a different device after its own start signal has ended.
An aircraft monitoring system comprising: targets associated with a wing of an aircraft ; a camera system configured to generate images of the targets on the wing during operation of the aircraft ; and a monitor configured to measure a movement of the targets using the images characterized in that the monitor is further configured to calculate stress in the wing based on the movement of the targets ; wherein the monitor is further configured to perform, with the calculation of stress , an action selected from initiating a maneuver and halting a maneuver. targets associated with a wing of an aircraft ; a camera system configured to generate images of the targets on the wing during operation of the aircraft ; and a monitor configured to measure a movement of the targets using the images characterized in that the monitor is further configured to calculate stress in the wing based on the movement of the targets ; wherein the monitor is further configured to perform, with the calculation of stress , an action selected from initiating a maneuver and halting a maneuver.
Radiator bracket comprising upper and lower support members for engagement with a radiator or a retainer thereon and a locking device for preventing accidental lifting of the radiator is arranged at an upper end of the bracket , and the locking device is engageable with the retainer , or the radiator , thereby, in use, fixing the lateral position of the locking device on the retainer , or radiator , for preventing lateral shift of the radiator on the bracket , wherein the locking device is provided with at least one projection , for extending through an opening in the retainer or radiator , and the locking device has a series of projections , for extending through corresponding openings in the retainer or radiator , thereby, in use, blocking any movement laterally of the retainer in relation to the bracket , characterized in that and the locking device is pivotable around an axis between an open and a locked position respectively.
A system for determining a quality of a flame sensing signal, comprising: a capacitor connectable to a flame amplifier or flame sensor ; an interface circuit having an input connected to the capacitor ; and a microcontroller having an input connected to an output of the interface circuit, a first output connected to the interface circuit, and a second output connected to the capacitor; and wherein: the interface circuit provides a connection between the capacitor and the microcontroller that compensates for a difference of an impedance at the capacitor and the impedance at the input of the microcontroller ; the first output from the microcontroller provides a voltage to the interface circuit for biasing a flame detection signal to the input of the microcontroller ; and the second output from the microcontroller provides a drive signal that recharges the capacitor having at least some discharge caused by an occurrence of the flame detection signal at the capacitor. a capacitor connectable to a flame amplifier or flame sensor ; an interface circuit having an input connected to the capacitor ; and a microcontroller having an input connected to an output of the interface circuit, a first output connected to the interface circuit, and a second output connected to the capacitor; and wherein: the interface circuit provides a connection between the capacitor and the microcontroller that compensates for a difference of an impedance at the capacitor and the impedance at the input of the microcontroller ; the first output from the microcontroller provides a voltage to the interface circuit for biasing a flame detection signal to the input of the microcontroller ; and the second output from the microcontroller provides a drive signal that recharges the capacitor having at least some discharge caused by an occurrence of the flame detection signal at the capacitor. the interface circuit provides a connection between the capacitor and the microcontroller that compensates for a difference of an impedance at the capacitor and the impedance at the input of the microcontroller ; the first output from the microcontroller provides a voltage to the interface circuit for biasing a flame detection signal to the input of the microcontroller ; and the second output from the microcontroller provides a drive signal that recharges the capacitor having at least some discharge caused by an occurrence of the flame detection signal at the capacitor.
Method for updating software for a plurality of cloud gateways (20-24) via which automation solutions (12-16) are connected to what is known as the cloud , having the following steps: ascertaining a rank of the cloud gateways (20-24) according to a hazard potential of the or each automation solution (12-16) connected to each cloud gateway (20-24); updating the cloud gateway (20-24) or a group of cloud gateways (20-24) having the lowest hazard potential; checking the success of the update effected in the preceding step; continuing updating with a cloud gateway (20-24) or a group of cloud gateways (20-24) having the next highest hazard potential if it has been ascertained in the step of checking the success of the preceding update that the update has been effected without error, or terminating updating if it has been ascertained in the step of checking the success of the preceding update that the update has not been effected without error, and repeating the step of continuing updating and checking the success of the preceding update until the update has also been effected for the cloud gateway (20-24) or a group of cloud gateways (20-24) having the highest hazard potential, characterized in that the ascertaining of a rank of the cloud gateways (20-24) according to a hazard potential of the or each automation solution (12-16) connected to the cloud gateways (20-24) involves allowance being made for a hazard potential of functional units that are part of an automation solution (12-16) and the hazard potential of said functional units in turn being ascertained on the basis of prescribed or prescribable and in a database maintained in the cloud . ascertaining a rank of the cloud gateways (20-24) according to a hazard potential of the or each automation solution (12-16) connected to each cloud gateway (20-24); updating the cloud gateway (20-24) or a group of cloud gateways (20-24) having the lowest hazard potential; checking the success of the update effected in the preceding step; continuing updating with a cloud gateway (20-24) or a group of cloud gateways (20-24) having the next highest hazard potential if it has been ascertained in the step of checking the success of the preceding update that the update has been effected without error, or terminating updating if it has been ascertained in the step of checking the success of the preceding update that the update has not been effected without error, and repeating the step of continuing updating and checking the success of the preceding update until the update has also been effected for the cloud gateway (20-24) or a group of cloud gateways (20-24) having the highest hazard potential, characterized in that the ascertaining of a rank of the cloud gateways (20-24) according to a hazard potential of the or each automation solution (12-16) connected to the cloud gateways (20-24) involves allowance being made for a hazard potential of functional units that are part of an automation solution (12-16) and the hazard potential of said functional units in turn being ascertained on the basis of prescribed or prescribable and in a database maintained in the cloud .