mhurhangee/ep-ind-claims huggingface dataset:
An apparatus, comprising: a plurality of first radio frequency modules, each configured to process RF signals to generate first intermediate frequency signals, wherein the plurality of first RF modules are coupled to each other via a first interface comprising transmission lines carrying the first IF signals and at least one of a local oscillator signal or a control signal; at least one second RF module (209, 530); and a baseband module (207, 520) configured to process the first IF signals and provide the at least one of the LO signal or the control signal to one of the first RF modules via a second interface, wherein the second interface directly couples the baseband module to one of the first RF modules, wherein the baseband module is further configured to process one or more second IF signals received from the second RF module via a third interface, wherein the third interface directly couples the baseband module to the second RF module, and wherein the baseband module and the second RF module are fabricated as a single integrated circuit whereas the plurality of first RF modules is positioned apart. a plurality of first radio frequency modules, each configured to process RF signals to generate first intermediate frequency signals, wherein the plurality of first RF modules are coupled to each other via a first interface comprising transmission lines carrying the first IF signals and at least one of a local oscillator signal or a control signal; at least one second RF module (209, 530); and a baseband module (207, 520) configured to process the first IF signals and provide the at least one of the LO signal or the control signal to one of the first RF modules via a second interface, wherein the second interface directly couples the baseband module to one of the first RF modules, wherein the baseband module is further configured to process one or more second IF signals received from the second RF module via a third interface, wherein the third interface directly couples the baseband module to the second RF module, and wherein the baseband module and the second RF module are fabricated as a single integrated circuit whereas the plurality of first RF modules is positioned apart.
Orthosis for supporting at least a part of the body of a person, comprising: - a casing; - at least one deformable element disposed in the casing, the deformable element being filled with a medium curable by activation or fillable with a curable medium, for supporting the part of the body of the person after curing of the medium, characterized in that the casing has a contact surface for lying against the part of the body, wherein the deformable element is disposed over only a part of the contact surface and not over another part thereof. - a casing; - at least one deformable element disposed in the casing, the deformable element being filled with a medium curable by activation or fillable with a curable medium, for supporting the part of the body of the person after curing of the medium,
A system for sorting particles in a microfluidic system, which includes in sequence: an orientation stage comprising one or more optical waveguides (10a - 10d) arranged to expose particles to optical radiation pressure of at least one first optical radiation pressure source, to cause a majority of particles in a fluid flow to adopt a particular orientation; a detection stage arranged to detect at least one difference or discriminate between particles in the fluid flow past the detection stage, and a switching stage comprising a plurality of second optical radiation pressure sources comprising more than one waveguide (11a - 11e) which extend across or abut a channel of the microfluidic system and past which the particles move sequentially so that each particle passes a series of optical radiation pressure sources, and the system further comprising: a controller arranged to switch based on an input from the detection stage, radiation energy of the second optical radiation pressure sources to cause a change in direction of movement of selected particles in the fluid flow to sort the particles so that each particle is directed into one of at least two different outputs (6, 7). an orientation stage comprising one or more optical waveguides (10a - 10d) arranged to expose particles to optical radiation pressure of at least one first optical radiation pressure source, to cause a majority of particles in a fluid flow to adopt a particular orientation; a detection stage arranged to detect at least one difference or discriminate between particles in the fluid flow past the detection stage, and a switching stage comprising a plurality of second optical radiation pressure sources comprising more than one waveguide (11a - 11e) which extend across or abut a channel of the microfluidic system and past which the particles move sequentially so that each particle passes a series of optical radiation pressure sources, and the system further comprising: a controller arranged to switch based on an input from the detection stage, radiation energy of the second optical radiation pressure sources to cause a change in direction of movement of selected particles in the fluid flow to sort the particles so that each particle is directed into one of at least two different outputs (6, 7).
A pump system with at least one fluid container (2; 2') which comprises an inlet (4; 4') and an outlet (6; 6'), with at least one pump (8; 8') which is arranged in the inlet or the outlet, and with a control device which comprises a flow evaluation device for determining a flow through the fluid container (2;2') of the pump system, wherein the flow evaluation device is designed in a manner such that it uses a system model for determining the flow, wherein the system model consists of at least two different sub-models (22, 24), a sub-model which describes the inflow behaviour of the fluid container (2; 2') and a sub-model which describes the outflow behaviour of the fluid container (2; 2'), characterised in that the control device comprises memory means which are designed to store data acquired in the pump system, and a parameter evaluation device which is designed to determine parameters of the at least two sub-models (22, 24) on the basis of the stored data and is designed in a manner such that the parameters of the first sub-model and the parameters of the second sub-model are simultaneously determined.
An apparatus for coating an electrode slurry on a current collector, composed of a lower plate, a middle plate and an upper plate, the apparatus comprising: a first discharge port formed between the lower plate and the middle plate and configured to discharge a slurry forming a lower slurry layer onto the current collector; a second discharge port formed between the middle plate and the upper plate, positioned to be spaced apart from the first discharge port in a downstream side in a coating direction, and configured to discharge a slurry forming an upper slurry layer onto the lower slurry layer on the current collector; and a movement controller configured to move the apparatus in a direction opposite to a discharge direction, wherein ends of the lower plate, the middle plate, and the upper plate are located on a same straight line, and characterized in that: the apparatus further comprises a first valve configured to open and close a discharge of the first discharge port; a second valve configured to open and close a discharge of the second discharge port; and a valve controller configured to control opening and closing of the first and second valves, and that the valve controller is configured to open the first valve when the electrode slurry coating starts, and configured to open the second valve when the coating apparatus moves in a direction opposite to discharge direction. a first discharge port formed between the lower plate and the middle plate and configured to discharge a slurry forming a lower slurry layer onto the current collector; a second discharge port formed between the middle plate and the upper plate, positioned to be spaced apart from the first discharge port in a downstream side in a coating direction, and configured to discharge a slurry forming an upper slurry layer onto the lower slurry layer on the current collector; and a movement controller configured to move the apparatus in a direction opposite to a discharge direction, wherein ends of the lower plate, the middle plate, and the upper plate are located on a same straight line, and characterized in that: the apparatus further comprises a first valve configured to open and close a discharge of the first discharge port; a second valve configured to open and close a discharge of the second discharge port; and a valve controller configured to control opening and closing of the first and second valves, and that the valve controller is configured to open the first valve when the electrode slurry coating starts, and configured to open the second valve when the coating apparatus moves in a direction opposite to discharge direction. the apparatus further comprises a first valve configured to open and close a discharge of the first discharge port; a second valve configured to open and close a discharge of the second discharge port; and a valve controller configured to control opening and closing of the first and second valves, and that the valve controller is configured to open the first valve when the electrode slurry coating starts, and configured to open the second valve when the coating apparatus moves in a direction opposite to discharge direction.
A wind turbine nacelle platform structure comprising - a beam assembly comprising at least two beams attached to the top of the wind turbine nacelle, characterized in that the beams are arranged to extend from a front region of the nacelle outward beyond the back end of the nacelle; and in that the platform structure further comprises - a platform assembly mounted to the underside of the outward extending portion of the beam assembly. - a beam assembly comprising at least two beams attached to the top of the wind turbine nacelle, characterized in that the beams are arranged to extend from a front region of the nacelle outward beyond the back end of the nacelle; and in that the platform structure further comprises - a platform assembly mounted to the underside of the outward extending portion of the beam assembly.
An information notification method, comprising: determining at least two resource groups and channel state information, CSI, configuration information corresponding to each of the resource groups, wherein each of the resource groups comprises a subframe set and a carrier, the CSI configuration information is used to indicate a CSI candidate set, the CSI candidate set is a preset CSI table of a plurality of preset CSI tables, and at least one of the at least two preset CSI tables comprises 256 quadrature amplitude modulation, QAM, and the at least two preset CSI tables have different ranges of signal-to-noise ratios; and notifying a user equipment, UE, of the at least two resource groups and the CSI configuration information corresponding to each of the resource groups. determining at least two resource groups and channel state information, CSI, configuration information corresponding to each of the resource groups, wherein each of the resource groups comprises a subframe set and a carrier, the CSI configuration information is used to indicate a CSI candidate set, the CSI candidate set is a preset CSI table of a plurality of preset CSI tables, and at least one of the at least two preset CSI tables comprises 256 quadrature amplitude modulation, QAM, and the at least two preset CSI tables have different ranges of signal-to-noise ratios; and notifying a user equipment, UE, of the at least two resource groups and the CSI configuration information corresponding to each of the resource groups.
An exhaust gas purification apparatus comprising: a reduction catalyst converter that reduces and purifies nitrogen oxides in exhaust gas; a tank that stores a liquid reducing agent or precursor thereof; an injection nozzle that injects the liquid reducing agent or precursor thereof stored in the tank on an exhaust gas upstream side of the reduction catalyst converter; and a bypass pipe that allows some of the exhaust gas flowing through an exhaust pipe to be diverted to the tank, to cause an exchange of heat between the diverted exhaust gas and the liquid reducing agent or precursor thereof stored in the tank, characterized in that the exhaust gas purification apparatus further comprises an outside-air mixer that mixes outside air with the exhaust gas flowing through the bypass pipe. a reduction catalyst converter that reduces and purifies nitrogen oxides in exhaust gas; a tank that stores a liquid reducing agent or precursor thereof; an injection nozzle that injects the liquid reducing agent or precursor thereof stored in the tank on an exhaust gas upstream side of the reduction catalyst converter; and a bypass pipe that allows some of the exhaust gas flowing through an exhaust pipe to be diverted to the tank, to cause an exchange of heat between the diverted exhaust gas and the liquid reducing agent or precursor thereof stored in the tank, characterized in that the exhaust gas purification apparatus further comprises an outside-air mixer that mixes outside air with the exhaust gas flowing through the bypass pipe.
An integrated circuit (10; 11), comprising: a shared resource for providing data; a buffer for storing data; a buffer level monitor, coupled to the buffer, for monitoring a monitored level of data in the buffer; a retrieving circuit, coupled to the buffer, for retrieving the data from the buffer, according to a timing constraint; a filling circuit coupled to the buffer for writing the data to the buffer and coupled to the shared resource for receiving the data from the shared resource when the filling circuit has access to the shared resource; characterized in further comprising: an access-requesting circuit coupled to the shared resource for receiving the data from the shared resource when the access-requesting circuit has access to the shared resource; an arbiter, coupled to the shared resource, the filling circuit, and the access-requesting circuit, for receiving access requests from the filling circuit and from the access-requesting circuit, and for granting to a selected one thereof access to the shared resource; and a controller, coupled to the buffer level monitor and to the access-requesting circuit, for causing the access-requesting circuit to reduce a rate of access requests sent to the arbiter when a condition indicating an anticipated violation of the timing constraint is fulfilled, the condition at least involving the monitored level of data in the buffer. a shared resource for providing data; a buffer for storing data; a buffer level monitor, coupled to the buffer, for monitoring a monitored level of data in the buffer; a retrieving circuit, coupled to the buffer, for retrieving the data from the buffer, according to a timing constraint; a filling circuit coupled to the buffer for writing the data to the buffer and coupled to the shared resource for receiving the data from the shared resource when the filling circuit has access to the shared resource; characterized in further comprising: an access-requesting circuit coupled to the shared resource for receiving the data from the shared resource when the access-requesting circuit has access to the shared resource; an arbiter, coupled to the shared resource, the filling circuit, and the access-requesting circuit, for receiving access requests from the filling circuit and from the access-requesting circuit, and for granting to a selected one thereof access to the shared resource; and a controller, coupled to the buffer level monitor and to the access-requesting circuit, for causing the access-requesting circuit to reduce a rate of access requests sent to the arbiter when a condition indicating an anticipated violation of the timing constraint is fulfilled, the condition at least involving the monitored level of data in the buffer.
A balloon catheter (10,110) comprising: an elongated shaft (20,120) having a proximal end and a distal end; a bioabsorbable balloon (40,140) having a proximal portion (46,146) and a distal portion (50,150) and being disposed adjacent the distal end of the elongated shaft (20,120); and a radiopaque marker band (60,160) attaching the proximal portion (46,146) and/or the distal portion (50,150) of the balloon (40,140) to the elongated shaft (20,120). an elongated shaft (20,120) having a proximal end and a distal end; a bioabsorbable balloon (40,140) having a proximal portion (46,146) and a distal portion (50,150) and being disposed adjacent the distal end of the elongated shaft (20,120); and a radiopaque marker band (60,160) attaching the proximal portion (46,146) and/or the distal portion (50,150) of the balloon (40,140) to the elongated shaft (20,120).
An information authentication method based on a virtual reality scenario, comprising: acquiring to-be-authenticated information in the virtual reality scenario, wherein the to-be-authenticated information exists in the virtual reality scenario; sending the to-be-authenticated information to an authentication device in a reality scenario, wherein the authentication device is configured to perform authentication on the to-be-authenticated information; and receiving an authentication result sent by the authentication device, wherein the authentication result is received in the virtual reality scenario, and the authentication result indicates that the to-be-authenticated information is authenticated successfully or fails to be authenticated. acquiring to-be-authenticated information in the virtual reality scenario, wherein the to-be-authenticated information exists in the virtual reality scenario; sending the to-be-authenticated information to an authentication device in a reality scenario, wherein the authentication device is configured to perform authentication on the to-be-authenticated information; and receiving an authentication result sent by the authentication device, wherein the authentication result is received in the virtual reality scenario, and the authentication result indicates that the to-be-authenticated information is authenticated successfully or fails to be authenticated.
A method (500, 600) of programming a memory device, the memory device comprising a plurality of planes (141, 142), a row driver and a controller, the method (500, 600) comprising: in a program operation, the row driver applying a program pulse to a plurality of memory cells (C(1, 1) to C(M, N)) of each of the plurality of planes (141, 142); after the row driver applies the program pulse to the plurality of memory cells (C(1, 1) to C(M, N)), the controller verifying if the plurality of memory cells (C(1, 1) to C(M, N)) of the first plane among the plurality of planes (141, 142) have reached a predetermined program state (S to S(Q-1)); and if a preset number of the plurality of memory cells (C(1, 1) to C(M, N)) of the first plane have failed to reach the predetermined program state (S to S(Q-1)) after the plurality of memory cells (C(1, 1) to C(M, N)) have been verified for a predetermined number of times, the controller disabling the first plane among the plurality of planes(141,142). in a program operation, the row driver applying a program pulse to a plurality of memory cells (C(1, 1) to C(M, N)) of each of the plurality of planes (141, 142); after the row driver applies the program pulse to the plurality of memory cells (C(1, 1) to C(M, N)), the controller verifying if the plurality of memory cells (C(1, 1) to C(M, N)) of the first plane among the plurality of planes (141, 142) have reached a predetermined program state (S to S(Q-1)); and if a preset number of the plurality of memory cells (C(1, 1) to C(M, N)) of the first plane have failed to reach the predetermined program state (S to S(Q-1)) after the plurality of memory cells (C(1, 1) to C(M, N)) have been verified for a predetermined number of times, the controller disabling the first plane among the plurality of planes(141,142).
An implant comprising a receiver for receiving first ultrasound signals emitted by a transmitting unit of a further apparatus, which receiver is in the form of a piezo element which is excited by the first ultrasound signals at a first resonance frequency and in so doing converts mechanical energy transferred with the first ultrasound signals into electrical energy, the piezo element additionally being excitable at a second resonance frequency and being operable at the second resonance frequency as a transmitter of second ultrasound signals, characterised in that the first resonance frequency is a first series resonance frequency, and in that the second resonance frequency is a second series resonance frequency, which differs from the first series resonance frequency.
A mode-locked laser system comprising: a laser source; an annealed, frequency-conversion crystal; a housing configured to protect the crystal from impurities during standard operation thereby maintaining an annealed condition of the crystal; first beam shaping optics configured to receive a beam from the laser source and focus the beam to an elliptical cross section at a beam waist located in the crystal; and a harmonic separation block to divide an output from the crystal into beams of different frequencies separated in space; characterized in that the crystal has a length approximately equal to a smaller of twice a Rayleigh range in a non-walk-off direction and a length of twice a beam waist radius in a walk-off direction divided by a walk-off angle in radians. a laser source; an annealed, frequency-conversion crystal; a housing configured to protect the crystal from impurities during standard operation thereby maintaining an annealed condition of the crystal; first beam shaping optics configured to receive a beam from the laser source and focus the beam to an elliptical cross section at a beam waist located in the crystal; and a harmonic separation block to divide an output from the crystal into beams of different frequencies separated in space; characterized in that the crystal has a length approximately equal to a smaller of twice a Rayleigh range in a non-walk-off direction and a length of twice a beam waist radius in a walk-off direction divided by a walk-off angle in radians.