mhurhangee/patent-ind-claim-en huggingface dataset:
A process for acquiring seismic data in a marine environment using seismic receivers mounted to streamers in the water following behind a tow vessel , the process comprising: a) installing a series of guidance devices along the length of each streamer with a steerable element providing lateral streamer control; b) directing the tow vessel to follow a path through the water where the path that the tow vessel has taken is a navigated path and where the navigated path includes turns and is an "S" shape; the process characterized in that it further comprises c) countersteering the guidance devices to cause the streamers to maintain an "S" shape around a turn and maintaining the path of the streamers to follow the tow vessel navigated "S" shape path; and wherein each guidance device uses its steerable element hydrofoil to exert a force to steer itself along a path relative to the navigated path, the forces exerted vary over time and concurrently different forces between guidance devices and the streamers (20. 120) are towed in flared configuration such that the separation between the streamers at the head of the streamers is smaller than the separation between the streamers at the tail of the streamers. a) installing a series of guidance devices along the length of each streamer with a steerable element providing lateral streamer control; b) directing the tow vessel to follow a path through the water where the path that the tow vessel has taken is a navigated path and where the navigated path includes turns and is an "S" shape; c) countersteering the guidance devices to cause the streamers to maintain an "S" shape around a turn and maintaining the path of the streamers to follow the tow vessel navigated "S" shape path; and wherein each guidance device uses its steerable element hydrofoil to exert a force to steer itself along a path relative to the navigated path, the forces exerted vary over time and concurrently different forces between guidance devices and the streamers (20. 120) are towed in flared configuration such that the separation between the streamers at the head of the streamers is smaller than the separation between the streamers at the tail of the streamers.
A method of processing a sidelink signal, performed by a terminal device , the method comprising: receiving, through higher layer signaling, information regarding a resource reselection condition, selecting, based on sensing, periodic resources having a semi-persistent period in a resource region configured in the terminal device for transmitting multiple sidelink data units; and dropping one or more sidelink transmissions on the selected periodic resources, determining a first number related to a number of times of consecutively dropped sidelink transmissions in the periodic resources selected for the plurality of sidelink data units; performing a resource reselection based on the resource reselection condition , wherein the resource reselection condition includes a first condition which is satisfied based on that the first number becomes a specific number configured in the terminal device through the higher layer signaling, wherein the specific number configured in the terminal device through the higher layer signaling is larger than 1, and wherein, based on that the first number becomes the specific number, the resource reselection is performed irrespective of a counter related to the resource reselection. receiving, through higher layer signaling, information regarding a resource reselection condition, selecting, based on sensing, periodic resources having a semi-persistent period in a resource region configured in the terminal device for transmitting multiple sidelink data units; and dropping one or more sidelink transmissions on the selected periodic resources, determining a first number related to a number of times of consecutively dropped sidelink transmissions in the periodic resources selected for the plurality of sidelink data units; performing a resource reselection based on the resource reselection condition , wherein the resource reselection condition includes a first condition which is satisfied based on that the first number becomes a specific number configured in the terminal device through the higher layer signaling, wherein the specific number configured in the terminal device through the higher layer signaling is larger than 1, and wherein, based on that the first number becomes the specific number, the resource reselection is performed irrespective of a counter related to the resource reselection.
A tank assembly for a heat exchanger , the tank assembly comprising: • a tank cover formed with longitudinally extending first channels and ; • a header comprising portions and that in conjunction with the first channels and formed on tank cover adapted to define a first manifold and a second manifold when the tank cover is assembled to the header , the header further comprising apertures and configured on the respective portions and thereof, the apertures and are adapted to receive corresponding first set of tubular elements and second set of tubular elements of a heat exchanger core therein to configure fluid communication between the first manifold and the first set of tubular elements and fluid communication between the second set of tubular elements and the second manifold , wherein at least one tank cover and the header comprise an extension portion extending therefrom beyond the heat exchanger core to form a connection system formed with an inlet , an outlet and fluid flow passages and configuring fluid communication between the inlet and the outlet and and the respective first and second manifolds and , wherein the tank cover comprises the tank cover extension portion extending along the plane of the tank cover and the header comprises the header extension portion extending along the plane of the header , the tank cover extension portion in conjunction with the header extension portion when assembled together is adapted to define the first fluid flow passage and the second fluid flow passage , the tank assembly being characterized in that the first fluid flow passage defines curved fluid flow trajectory and fluid communication between the inlet and the first manifold , whereas the second fluid flow passage defines curved fluid flow trajectory and fluid communication between the second manifold and the outlet . • a tank cover formed with longitudinally extending first channels and ; • a header comprising portions and that in conjunction with the first channels and formed on tank cover adapted to define a first manifold and a second manifold when the tank cover is assembled to the header , the header further comprising apertures and configured on the respective portions and thereof, the apertures and are adapted to receive corresponding first set of tubular elements and second set of tubular elements of a heat exchanger core therein to configure fluid communication between the first manifold and the first set of tubular elements and fluid communication between the second set of tubular elements and the second manifold ,
A driver state estimation device configured to estimate a state of a driver who is in a movable body, the driver state estimation device comprising: a first measurement section configured to measure a first index value (id1) correlated with an amount of an attention source allocated to top-down attention of the driver in a first area (R10) where the top-down attention of the driver is predominant in the driver's surrounding environment; a second measurement section configured to measure a second index value (id2) correlated with an amount of an attention source allocated to bottom-up attention of the driver in a second area (R20) where the bottom-up attention of the driver is predominant in the driver's surrounding environment; and an estimation section that estimates the driver state including an attention function degraded state of the driver on the basis of the first index value (id1) in the first area (R10) and the second index value (id2) in the second area (R20), wherein a size of the first area (R10) is capable of being changed according to a moving speed of the movable body. a first measurement section configured to measure a first index value (id1) correlated with an amount of an attention source allocated to top-down attention of the driver in a first area (R10) where the top-down attention of the driver is predominant in the driver's surrounding environment; a second measurement section configured to measure a second index value (id2) correlated with an amount of an attention source allocated to bottom-up attention of the driver in a second area (R20) where the bottom-up attention of the driver is predominant in the driver's surrounding environment; and an estimation section that estimates the driver state including an attention function degraded state of the driver on the basis of the first index value (id1) in the first area (R10) and the second index value (id2) in the second area (R20), wherein a size of the first area (R10) is capable of being changed according to a moving speed of the movable body.
Method of locating an RF-emitter on the ground comprising the step of using a fibre optic cable having a tensile strength sufficiently high to act as a stay rope for an aerial platform comprising a balloon with an air-borne antenna for receiving RF signals from the RF-emitter, a wide band amplifier that amplifies electrical signals output by the air-borne antenna , a power supply supplying power to the wide band amplifier , and an electric-optic-converter that converts amplified electrical signals output by the wide band amplifier to optical signals for transmission on the fibre optic cable to a ground based processing unit , characterised in that the ground based processing unit further uses a mast antenna for locating the RF-emitter. a fibre optic cable having a tensile strength sufficiently high to act as a stay rope for an aerial platform comprising a balloon with an air-borne antenna for receiving RF signals from the RF-emitter, a wide band amplifier that amplifies electrical signals output by the air-borne antenna , a power supply supplying power to the wide band amplifier , and an electric-optic-converter that converts amplified electrical signals output by the wide band amplifier to optical signals for transmission on the fibre optic cable to a ground based processing unit , characterised in that the ground based processing unit further uses a mast antenna for locating the RF-emitter.
A method comprising: triggering, by a wireless device , transmission of a scheduling request, SR, based on triggering a beam failure recovery, BFR, of a secondary cell; transmitting a medium access control protocol data unit, MAC PDU; and stopping said configured transmission of the SR triggered prior to transmitting said MAC PDU in response to said the MAC PDU comprising a BFR medium access control control element, BFR MAC CE, comprising information of the BFR. triggering, by a wireless device , transmission of a scheduling request, SR, based on triggering a beam failure recovery, BFR, of a secondary cell; transmitting a medium access control protocol data unit, MAC PDU; and stopping said configured transmission of the SR triggered prior to transmitting said MAC PDU in response to said the MAC PDU comprising a BFR medium access control control element, BFR MAC CE, comprising information of the BFR.
An apparatus comprising: an ultrasound-on-a-chip comprising a top surface and a bottom surface; an interposer layer comprising a top surface and a bottom surface; and a redistribution layer; wherein: the top surface of the ultrasound-on-a-chip device is coupled to the redistribution layer; the bottom surface of the ultrasound-on-a chip device is coupled to the top surface of the interposer layer; and the interposer layer provides a heatsink for the ultrasound-on-a-chip. an ultrasound-on-a-chip comprising a top surface and a bottom surface; an interposer layer comprising a top surface and a bottom surface; and a redistribution layer; wherein: the top surface of the ultrasound-on-a-chip device is coupled to the redistribution layer; the bottom surface of the ultrasound-on-a chip device is coupled to the top surface of the interposer layer; and the interposer layer provides a heatsink for the ultrasound-on-a-chip. the top surface of the ultrasound-on-a-chip device is coupled to the redistribution layer; the bottom surface of the ultrasound-on-a chip device is coupled to the top surface of the interposer layer; and the interposer layer provides a heatsink for the ultrasound-on-a-chip.
A covering for an architectural opening, comprising: a rotatable outer roller defining an elongated slot extending along a length of the outer roller and opening to an interior of the outer roller ; a rotatable inner roller received within the outer roller and defining a central longitudinal axis ; a first shade coupled to the outer roller , the first shade retractable onto and extendable from the outer roller ; and a second shade coupled to the inner roller , the second shade extending through the elongated slot and retractable onto and extendable from the inner roller; characterised in that : the elongated slot is substantially horizontally aligned with the central longitudinal axis of the inner roller when the first shade is in a fully extended position. a rotatable outer roller defining an elongated slot extending along a length of the outer roller and opening to an interior of the outer roller ; a rotatable inner roller received within the outer roller and defining a central longitudinal axis ; a first shade coupled to the outer roller , the first shade retractable onto and extendable from the outer roller ; and a second shade coupled to the inner roller , the second shade extending through the elongated slot and retractable onto and extendable from the inner roller; characterised in that : the elongated slot is substantially horizontally aligned with the central longitudinal axis of the inner roller when the first shade is in a fully extended position.
A method of data protection, comprising: when receiving from a host a write command carrying an address and data to be stored, writing the data to be stored into a first storage space, which corresponds to the address, in a storage unit; writing protection data corresponding the data to be stored into a second storage space, which corresponds to the address, in a protection unit ; when receiving from the host a read command carrying the address, determining recovery data of the data to be stored according to the data stored in the first storage space and the data stored in the second storage space ; and taking the recovery data as response data for the read command . when receiving from a host a write command carrying an address and data to be stored, writing the data to be stored into a first storage space, which corresponds to the address, in a storage unit; writing protection data corresponding the data to be stored into a second storage space, which corresponds to the address, in a protection unit ; when receiving from the host a read command carrying the address, determining recovery data of the data to be stored according to the data stored in the first storage space and the data stored in the second storage space ; and taking the recovery data as response data for the read command .
A tire having a composite body , wherein the composite body comprises: a member composed of a polyester material; a member composed of a rubber material; and an adhesive layer composed of a urethane-based adhesive or an epoxy-based adhesive and provided between the member composed of a polyester material and the member composed of a rubber material, wherein the tire is a non-pneumatic tire having a skeleton member and a tread member provided on the tire radial direction outer side of the skeleton member along at least a portion of the skeleton member, wherein: the skeleton member is the member composed of a polyester material and the tread member is the member composed of a rubber material; and the adhesive layer is provided between the skeleton member and the tread member , characterized in that the tread member has a plurality of rubber layers and the total content of antioxidant, stearic acid and surfactant is larger in a rubber layer thereof on the ground-contact side than in a rubber layer thereof adjacent to the adhesive layer . a member composed of a polyester material; a member composed of a rubber material; and an adhesive layer composed of a urethane-based adhesive or an epoxy-based adhesive and provided between the member composed of a polyester material and the member composed of a rubber material, wherein the tire is a non-pneumatic tire having a skeleton member and a tread member provided on the tire radial direction outer side of the skeleton member along at least a portion of the skeleton member, wherein: the skeleton member is the member composed of a polyester material and the tread member is the member composed of a rubber material; and the adhesive layer is provided between the skeleton member and the tread member , characterized in that the tread member has a plurality of rubber layers and the total content of antioxidant, stearic acid and surfactant is larger in a rubber layer thereof on the ground-contact side than in a rubber layer thereof adjacent to the adhesive layer .
A recording apparatus comprising: a control unit , a droplet discharging head including a nozzle forming portion , the nozzle forming portion including nozzles capable of discharging droplets onto a medium (M), the nozzles being formed in the nozzle forming portion; and characterized by a charging unit configured to impart a positive or negative electrical charge to the medium before the droplets are discharged, the electrical charge having the same polarity as an electrically charged state of the nozzle forming portion after the droplets are discharged, such that: the medium (M) before the droplets are discharged has the same polarity as the electrically charged state of the nozzle forming portion after the droplets are discharged, and in the medium (M) after the droplets are discharged, the electrical charge of a polarity opposite to the electrically charged state of the nozzle forming portion is not greater than a specific amount, wherein the control unit is adapted to set the specific amount based on a discharge rate of the droplets. a control unit , a droplet discharging head including a nozzle forming portion , the nozzle forming portion including nozzles capable of discharging droplets onto a medium (M), the nozzles being formed in the nozzle forming portion; and characterized by a charging unit configured to impart a positive or negative electrical charge to the medium before the droplets are discharged, the electrical charge having the same polarity as an electrically charged state of the nozzle forming portion after the droplets are discharged, such that: the medium (M) before the droplets are discharged has the same polarity as the electrically charged state of the nozzle forming portion after the droplets are discharged, and in the medium (M) after the droplets are discharged, the electrical charge of a polarity opposite to the electrically charged state of the nozzle forming portion is not greater than a specific amount, wherein the control unit is adapted to set the specific amount based on a discharge rate of the droplets. the medium (M) before the droplets are discharged has the same polarity as the electrically charged state of the nozzle forming portion after the droplets are discharged, and in the medium (M) after the droplets are discharged, the electrical charge of a polarity opposite to the electrically charged state of the nozzle forming portion is not greater than a specific amount, wherein the control unit is adapted to set the specific amount based on a discharge rate of the droplets.
A closure element of an immovable property, in particular door, window or the like, comprising a sash element , a blind frame forming a frame element , and a lock system , which has a plurality of locks , which are arranged spaced apart from one another and which are each arranged on the frame element or the sash element of the closure element and have lock elements , which interact in a locking or unlocking manner with locking elements of closing elements arranged on the sash element or on the frame element , wherein the locks are embodied as electrically driven pull locks and each automatically lock independently of one another when the respective lock element can engage behind the respective corresponding locking element , wherein each of the locks has a turnstile member , which can be driven by means of a drive mechanism and is mounted so as to be rotatable about a blocking element axis comprising a plurality of blocking elements , which are located so as to be angularly offset relative to one another across its circumference, as well as a pivoting catch , wherein the pivoting catch has a cam , which interacts with the blocking elements of the turnstile member dependently of the operating state, wherein, in a locked position of the turnstile member , one of the blocking elements acts as tumbler for the pivoting catch , and a dead centre position is present, so that occurring contact pressure forces are deflected without torque into a pivot bearing , which is formed by a stud bolt and a bearing hole of the pivoting catch .
A process for removing pollutants from a flue gas, wherein the pollutant is selected from the group consisting of Hg 0 , SO 2 , NO x and mixtures thereof, comprising treating the flue gas with a liquid absorbent comprising (i) a precursor of chlorine dioxide and (ii) an organic ionic liquid, and releasing a purified flue gas into the atmosphere, characterised in that the liquid absorbent consists of two immiscible phases, one phase consisting of an aqueous solution of the precursor of chlorine dioxide, and the other phase consisting of the organic ionic liquid, wherein the process further comprises the step of recovering sulfate salt, nitrate salt or both from the aqueous component of the liquid absorbent, wherein the precursor of chlorine dioxide is an aqueous solution of chlorite (ClO 2 - ).
A method performed by a network node , the method comprising: signaling at least one user equipment to start performing and logging quality of experience, QoE, related measurements; transmitting a request for a report on handover performance to the at least one user equipment; and receiving the handover performance report from the at least one user equipment, wherein the handover performance report comprises at least one service identifier of a service running on the at least one user equipment and the quality of experience, QoE related measurements; wherein the signaling to start performing and logging QoE related measurements comprises configuring the at least one user equipment to collect handover data for use to train the quality of experience, QoE, model ; and further comprising signaling the at least one user equipment to receive a trained QoE model through at least one of a control channel or traffic channel. signaling at least one user equipment to start performing and logging quality of experience, QoE, related measurements; transmitting a request for a report on handover performance to the at least one user equipment; and receiving the handover performance report from the at least one user equipment, wherein the handover performance report comprises at least one service identifier of a service running on the at least one user equipment and the quality of experience, QoE related measurements; wherein the signaling to start performing and logging QoE related measurements comprises configuring the at least one user equipment to collect handover data for use to train the quality of experience, QoE, model ; and further comprising signaling the at least one user equipment to receive a trained QoE model through at least one of a control channel or traffic channel.