mhurhangee/patent-ind-claim-en huggingface dataset:
A display device (DS) comprising: a display panel (DP); and a color filter (CFP) on the display panel (DP) and including a plurality of color filter portions (CCF1, CCF2, CCF3), wherein a first color filter portion (CCF1) is configured to transmit red light, a second color filter portion (CCF2) is configured to transmit green light, a third color filter portion (CCF3) is configured to transmit blue light or is formed of a transparent photoresist resin, wherein each color filter portion (CCF1, CCF2, CCF3) of the color filter portions (CCF1, CCF2, CCF3) comprises a scattering agent (SP) having an average diameter (D SP ) of 50 nanometers (nm) or more and 500 nm or less, preferably of 100 nanometers (nm) or more and 400 nm or less, more preferably of 200 nanometers (nm) or more and 300 nm or less, wherein, a first content of the scattering agent (SP) included in a first color filter portion (CCF1) is greater than a second content of the scattering agent (SP) included in the second color filter portion (CCF2) and a third content of the scattering agent (SP) included in the third color filter portion (CCF3). a display panel (DP); and a color filter (CFP) on the display panel (DP) and including a plurality of color filter portions (CCF1, CCF2, CCF3), wherein a first color filter portion (CCF1) is configured to transmit red light, a second color filter portion (CCF2) is configured to transmit green light, a third color filter portion (CCF3) is configured to transmit blue light or is formed of a transparent photoresist resin, wherein each color filter portion (CCF1, CCF2, CCF3) of the color filter portions (CCF1, CCF2, CCF3) comprises a scattering agent (SP) having an average diameter (D SP ) of 50 nanometers (nm) or more and 500 nm or less, preferably of 100 nanometers (nm) or more and 400 nm or less, more preferably of 200 nanometers (nm) or more and 300 nm or less, wherein, a first content of the scattering agent (SP) included in a first color filter portion (CCF1) is greater than a second content of the scattering agent (SP) included in the second color filter portion (CCF2) and a third content of the scattering agent (SP) included in the third color filter portion (CCF3).
A concrete mattress for use in underwater environments, the mattress comprising a plurality of blocks linked together by linkage means , said linkage means comprising one or more ropes cast within each block to retain the blocks within the mattress in a flexible relationship to each other, said plurality of blocks further comprising profiled edge blocks and central blocks, the blocks being linked in an array comprising rows and columns of blocks, wherein the composition and reaction conditions used in the production of said concrete mattress provide sufficient physical characteristics to support the forces associated with moving more than one mattress during loading and unloading without said rope pulling out of said concrete mattress, characterised in that from an edge block at the end of each row and column the rope is formed into a loop in which either or both ends are fixed into a single block , or each end of the loop is fixed into adjacent blocks .
A wind turbine comprising a nacelle and a cooling circuit , wherein the cooling circuit comprises at least one internal cooling device within the nacelle and at least one external cooling device outside of the nacelle , wherein a heat exchanging device coupling the cooling circuit with a second cooling circuit is provided, wherein the second cooling circuit comprises a further external cooling device outside of the nacelle , characterized in that a control device of the wind turbine is provided, wherein the control device is configured to control the operation of the second cooling circuit such that if the cooling circuit does not provide enough cooling power, the maximum possible cooling power is increased by the operation of the second cooling circuit , wherein the control device is configured to control the operation of the second cooling circuit with respect to a temperature information.
A hydraulic thrust reverser system (TRAS) including: a first return line having a first check valve therein; and a second return line having a second check valve therein; wherein the first return line and the second return line are in fluid communication with each other via a fluid restrictor ; wherein the first return line extends from a piston system of the TRAS, the piston system being for moving at least one thrust reverser door (122a,b); and wherein the second return line extends from a lock system of the TRAS, the lock system being for controlling locks (128a,b) to selectively prevent the movement of the at least one thrust reverser door (122a,b); characterised in that the fluid restrictor is located upstream of the first and second check valves (142a,b). a first return line having a first check valve therein; and a second return line having a second check valve therein; wherein the first return line and the second return line are in fluid communication with each other via a fluid restrictor ; wherein the first return line extends from a piston system of the TRAS, the piston system being for moving at least one thrust reverser door (122a,b); and wherein the second return line extends from a lock system of the TRAS, the lock system being for controlling locks (128a,b) to selectively prevent the movement of the at least one thrust reverser door (122a,b); characterised in that the fluid restrictor is located upstream of the first and second check valves (142a,b).
An address generator for a computer with a single instruction multiple data architecture comprising several elementary processors (PE0, PE1, PE2, PE3), each associated with a local memory, each elementary processor having access to its local memory and at least one access to a neighbouring local memory of another elementary processor, the address generator being configured, in response to a computing instruction, to determine an identical memory access address (ADMEM) for all elementary processors, the address generator comprising: - a first computing unit for computing a first access offset value in a first addressing dimension (D0), and - an adder (ADD) for computing the memory access address (ADMEM) as the sum of the first access offset value and of a predetermined initial offset value dependent on a memory access type indicated by the computing instruction from among a memory access to the local memory or a memory access to any one of the neighbouring local memories. - a first computing unit for computing a first access offset value in a first addressing dimension (D0), and - an adder (ADD) for computing the memory access address (ADMEM) as the sum of the first access offset value and of a predetermined initial offset value dependent on a memory access type indicated by the computing instruction from among a memory access to the local memory or a memory access to any one of the neighbouring local memories.
A driving assistance method comprising causing a controller to perform: processing (S9, S29) of determining presence or absence of a parked vehicle ahead on a route of an own vehicle ; processing (S5, S25) of determining whether or not turning of the own vehicle is to be performed; processing (S11, S31) of determining whether or not a distance (D) between a turning position at which the turning is performed and the parked vehicle satisfies a predetermined condition; trajectory generation processing (S13, S34) of generating a target travel trajectory ; and processing (S15, S36) of performing travel control, based on the target travel trajectory, characterized in that the target travel trajectory is generated in such a way that, when the distance (D) between the turning position and the parked vehicle satisfies the predetermined condition and the own vehicle turns after having passed beside the parked vehicle on the route, the own vehicle passes beside the parked vehicle at a predetermined side position with a predetermined interval (IL) interposed between the parked vehicle and the own vehicle on one side of the parked vehicle and a turning start position coincides with the predetermined side position in a width direction of a road on which the parked vehicle is parked. processing (S9, S29) of determining presence or absence of a parked vehicle ahead on a route of an own vehicle ; processing (S5, S25) of determining whether or not turning of the own vehicle is to be performed; processing (S11, S31) of determining whether or not a distance (D) between a turning position at which the turning is performed and the parked vehicle satisfies a predetermined condition; trajectory generation processing (S13, S34) of generating a target travel trajectory ; and processing (S15, S36) of performing travel control, based on the target travel trajectory, characterized in that the target travel trajectory is generated in such a way that, when the distance (D) between the turning position and the parked vehicle satisfies the predetermined condition and the own vehicle turns after having passed beside the parked vehicle on the route, the own vehicle passes beside the parked vehicle at a predetermined side position with a predetermined interval (IL) interposed between the parked vehicle and the own vehicle on one side of the parked vehicle and a turning start position coincides with the predetermined side position in a width direction of a road on which the parked vehicle is parked.
A polycarbonate-polysiloxane copolymer comprising a polysiloxane unit represented by Formula 1: wherein R 1 and R 2 are each independently a C 1 -C 10 alkyl group, a C 6 -C 18 aryl group, or a halogenated or alkoxylated C 1 -C 10 alkyl or C 6 -C 18 aryl group, each X is a C 1 -C 20 alkyl group, and n is an integer from 20 to 100, wherein the polycarbonate-polysiloxane copolymer has a haze of about 8% or less and a transmittance of about 75% or more as measured at a thickness of 3 mm, a 1/8" Izod impact strength of about 70 kgf·cm/cm or more as measured at room temperature by ASTM D256, and a 1/8" Izod impact strength of about 55 kgf·cm/cm or more as measured at -30 °C by ASTM D256.
A method for operating an electronic device for verifying data integrity of a block device , the method comprising: providing a secure execution environment configured to monitor changes to data blocks of a block device ; determining whether a secure marker is present, wherein the secure marker indicates that the block device is verified; in response to a determination that the secure marker is not present, generating a hash for changed data blocks of the block device in the secure execution environment ; verifying a cryptographic signature regarding the hash for the changed data blocks in the secure execution environment . providing a secure execution environment configured to monitor changes to data blocks of a block device ; determining whether a secure marker is present, wherein the secure marker indicates that the block device is verified; in response to a determination that the secure marker is not present, generating a hash for changed data blocks of the block device in the secure execution environment ; verifying a cryptographic signature regarding the hash for the changed data blocks in the secure execution environment .
A method for ascertaining the presence of cracks in sealed containers, said method comprising the steps of: - defining a detection zone adapted to receive a sealed container (CT); - placing the container (CT) in said detection zone ; - ascertaining the presence of a thermal gradient determined by said container in the detection zone , said thermal gradient being indicative of the presence of a crack in said container (CT), characterized in that a step is provided of putting said detection zone in communication with at least one temperature sensor through at least one duct , and a step of sucking gases from said detection zone through said duct and transferring the gases to the sensor for ascertaining the presence of the thermal gradient caused by the presence of the fluid leakage from said container (CT). - defining a detection zone adapted to receive a sealed container (CT); - placing the container (CT) in said detection zone ; - ascertaining the presence of a thermal gradient determined by said container in the detection zone , said thermal gradient being indicative of the presence of a crack in said container (CT),
An automobile cowl grille structure wherein a cowl grille is made of resin, and is provided to cover an upper portion of a cowl box , the cowl grille includes an upper wall portion , and a front wall portion separated from the upper wall portion and provided with a bending promotion portion for inducing bending deformation upon action of load from above, the front wall portion includes a front wall body portion , and at least one attachment piece portion extending backward from the front wall body portion and fastened to a front portion of the upper wall portion , and a weak portion for load in an upper-to-lower direction is formed by the attachment piece portion , characterized in that the attachment piece portion includes multiple attachment piece portions each formed with spacing in a vehicle width direction in a vicinity of fastening portions for the upper wall portion . an upper wall portion , and a front wall portion separated from the upper wall portion and provided with a bending promotion portion for inducing bending deformation upon action of load from above, a front wall body portion , and at least one attachment piece portion extending backward from the front wall body portion and fastened to a front portion of the upper wall portion , and
A phase-change electric water heater, comprising: a circulation pipeline ; a phase-change material for heat accumulation; and a liner , provided with an accommodating space therein, wherein the phase-change material and a portion of the circulation pipeline that is in contact with the phase-change material are arranged in the accommodating space ; wherein an inlet end or an outlet end of the circulation pipeline is provided with a pump and a heater , characterized in that wherein the inlet end or the outlet end of the circulation pipeline is further provided with a first flow sensor for measuring a water flow in the circulation pipeline , and wherein the inlet end or the outlet end of the circulation pipeline is further provided with a first temperature sensor for measuring a water temperature in the circulation pipeline , wherein the first flow sensor or the first temperature sensor is arranged at a connecting pipe section of the circulation pipeline between the water outlet of the heater and the phase-change material . a circulation pipeline ; a phase-change material for heat accumulation; and a liner , provided with an accommodating space therein, wherein the phase-change material and a portion of the circulation pipeline that is in contact with the phase-change material are arranged in the accommodating space ; wherein an inlet end or an outlet end of the circulation pipeline is provided with a pump and a heater , characterized in that wherein the inlet end or the outlet end of the circulation pipeline is further provided with a first flow sensor for measuring a water flow in the circulation pipeline , and wherein the inlet end or the outlet end of the circulation pipeline is further provided with a first temperature sensor for measuring a water temperature in the circulation pipeline , wherein the first flow sensor or the first temperature sensor is arranged at a connecting pipe section of the circulation pipeline between the water outlet of the heater and the phase-change material .
Method for determining the placement accuracy of a plurality of electrode sheets , wherein the electrode sheets extend in mutually parallel planes and are arranged in a manner stacked on top of one another and form a stack ; wherein the placement accuracy describes positions of the edges of all of the electrode sheets relative to one another in the stack ; wherein the method is carried out using a measuring device having a two-dimensionally resolving X-ray system with at least one beam source for X-ray radiation and a detector , and comprises at least the following steps: a) providing the stack and arranging the stack in the measuring device between the at least one beam source and the detector ; b) irradiating the stack with the at least one beam source from a first spatial coordinate , wherein a beam direction extends at least transversely to the planes and towards the detector , wherein a beam from the beam source detects the edges of the electrode sheets that are arranged one above the other and project a two-dimensional first contour of the edges of the stack onto the detector ; c) irradiating the stack with the at least one beam source from at least one second spatial coordinate that differs from the first spatial coordinate , wherein the beam detects the edges of the electrode sheets that are arranged one above the other and projects a two-dimensional second contour of the edges of the stack onto the detector ; d) detecting the first contour using the detector ; e) detecting the at least one second contour using the detector ; f) evaluating the different contours and determining the positions of the edges of the electrode sheets . a) providing the stack and arranging the stack in the measuring device between the at least one beam source and the detector ; b) irradiating the stack with the at least one beam source from a first spatial coordinate , wherein a beam direction extends at least transversely to the planes and towards the detector , wherein a beam from the beam source detects the edges of the electrode sheets that are arranged one above the other and project a two-dimensional first contour of the edges of the stack onto the detector ; c) irradiating the stack with the at least one beam source from at least one second spatial coordinate that differs from the first spatial coordinate , wherein the beam detects the edges of the electrode sheets that are arranged one above the other and projects a two-dimensional second contour of the edges of the stack onto the detector ; d) detecting the first contour using the detector ; e) detecting the at least one second contour using the detector ; f) evaluating the different contours and determining the positions of the edges of the electrode sheets .
A valve assembly for dispensing a flowable product from a pressurised container, the valve assembly comprising: a resilient sleeve member comprising a lower fixing portion , an intermediate deformable portion and an upper sealing portion , a valve stem extending within the resilient sleeve member and fixed to the lower fixing portion of the resilient sleeve member, an actuator mounted on the upper sealing portion of the resilient sleeve member, wherein the valve stem includes a hollow cylindrical body , an end cap closing an upper end of the hollow cylindrical body, and one or more apertures arranged around the circumference of the hollow cylindrical body adjacent to the end cap, the apertures being covered by the upper sealing portion of the resilient sleeve member in a closed position of the valve assembly, and wherein the actuator includes an interior flow passage and a first actuator bearing surface adapted to engage with a corresponding bearing surface on the upper sealing portion of the resilient sleeve member, such that movement of the actuator downwards from the closed position of the valve assembly to an open position of the valve assembly causes the intermediate deformable portion of the resilient sleeve member to deform such that the apertures are not covered by the upper sealing portion of the resilient sleeve member. a resilient sleeve member comprising a lower fixing portion , an intermediate deformable portion and an upper sealing portion , a valve stem extending within the resilient sleeve member and fixed to the lower fixing portion of the resilient sleeve member, an actuator mounted on the upper sealing portion of the resilient sleeve member, wherein the valve stem includes a hollow cylindrical body , an end cap closing an upper end of the hollow cylindrical body, and one or more apertures arranged around the circumference of the hollow cylindrical body adjacent to the end cap, the apertures being covered by the upper sealing portion of the resilient sleeve member in a closed position of the valve assembly, and wherein the actuator includes an interior flow passage and a first actuator bearing surface adapted to engage with a corresponding bearing surface on the upper sealing portion of the resilient sleeve member, such that movement of the actuator downwards from the closed position of the valve assembly to an open position of the valve assembly causes the intermediate deformable portion of the resilient sleeve member to deform such that the apertures are not covered by the upper sealing portion of the resilient sleeve member.
A method for estimating a capacitance (C dc ) of a DC link of a three-phase voltage-source converter , wherein the voltage-source converter comprises means for controlling a power flow of the DC link responsive to a control reference (p ref ), the power flow representing a difference between a first power (p dc ) flowing to the DC link and a second power (p sw ) flowing out from the DC link, and wherein the method comprises generating an excitation signal with a plurality of levels of the power flow, using the excitation signal temporarily as the control reference in order to control a temporary change to the power flow, monitoring a voltage response induced to the DC link voltage (u dc ) by the temporary change in the power flow, calculating a change in energy (W) stored in the DC link caused by the temporary change in the power flow, and estimating the capacitance of the DC link on the basis of the voltage response and the change in energy stored in the DC link, wherein the monitoring of the voltage response comprises sampling the DC link voltage in order to determine the voltage response during an observation period, and forming a first set of data points on the basis of the voltage response, wherein each data point represents a difference between a square of a sampled DC link voltage and a square of an initial value of the DC link voltage at the beginning of the observation period, and wherein the calculating of the change in the energy stored in the DC link comprises determining an initial power flow of the DC link at the beginning of the observation period, calculating values of the power flow during the observation period, forming a second set of data points, wherein each data point represents an integral of the calculated values of the power flow of the DC link.