mhurhangee/ep-ind-claims huggingface dataset:
A fuel assembly for a nuclear power boiling water reactor, comprising: a plurality of fuel rods, each comprising a cladding tube and nuclear fuel material positioned in the cladding tube, a fuel channel surrounding said plurality of fuel rods, wherein each one of at least 95% of the fuel rods comprises nuclear fuel material in the form of U enriched in 235 U, wherein each one of at least 20% of the fuel rods belongs to a first set of fuel rods (41, 32, 26, 9), wherein each fuel rod in this first set comprises both U enriched in 235 U and Th, characterised in that said first set of fuel rods comprises at least a first and a second subset of fuel rods (41, 32), wherein the ratio, with regard to weight, between Th and U, in each fuel rod of said first subset, is higher than the ratio, with regard to weight, between Th and U, in each fuel rod of said second subset, wherein the U in the nuclear fuel material in said fuel rods is present in the form of UO 2 and the Th is present in the form of ThO 2. a plurality of fuel rods, each comprising a cladding tube and nuclear fuel material positioned in the cladding tube, a fuel channel surrounding said plurality of fuel rods, wherein each one of at least 95% of the fuel rods comprises nuclear fuel material in the form of U enriched in 235 U, wherein each one of at least 20% of the fuel rods belongs to a first set of fuel rods (41, 32, 26, 9), wherein each fuel rod in this first set comprises both U enriched in 235 U and Th, characterised in that said first set of fuel rods comprises at least a first and a second subset of fuel rods (41, 32), wherein the ratio, with regard to weight, between Th and U, in each fuel rod of said first subset, is higher than the ratio, with regard to weight, between Th and U, in each fuel rod of said second subset, wherein the U in the nuclear fuel material in said fuel rods is present in the form of UO 2 and the Th is present in the form of ThO 2.
A tyre for winter comprising a tread portion having a first tread edge and a second tread edge and sipes provided in at least a part of the tread portion, wherein the tread portion is provided with a plurality of first oblique grooves each extending obliquely from the first tread edge toward the second tread edge, each of the first oblique grooves has an inner end terminating between a tyre equator and the second tread edge, the inner end is not connected with other grooves, and the tread portion includes a crown land region extending continuously over the entire circumference of the tyre without being divided by a groove having a larger groove width than that of each of the sipes, characterized in that a distance in a tyre axial direction between the tyre equator (c) and the inner end is in a range of from 0.05 to 0.15 times a maximum width in the tyre axial direction of the crown land region.
An electrical assembly comprising: processing electronics having a surface with electrical contacts; a sensor cartridge comprising a flow cell with one or more fluid transfer ports (116, 118) which deliver fluid to the flow cell, the flow cell comprising electrical components for detecting analytes contained within the fluid; a clamping member (102, 200) comprising a fluid manifold, the clamping member being operable to urge the sensor cartridge in proximity to the electrical contacts of the processing electronics, wherein the fluid manifold includes fluid ports (128, 205) configured to engage the one or more fluid transfer ports (116, 118) of the sensor cartridge; a conformable electrically conductive membrane disposed between the electrical contacts of the processing electronics and the sensor cartridge and configured as a fluidic barrier between the sensor cartridge and the electrical contacts of the processing electronics, wherein the sensor cartridge comprises one or more electrical contacts conductively coupled to the electrical contacts of the processing electronics through the membrane; and wherein the one or more electrical contacts of the sensor cartridge are selectively conductively coupled to one or more corresponding contacts of the electrical contacts of the processing electronics through conductive pathways formed in the membrane while fluid contained in the sensor cartridge is substantially prevented from contacting the processing electronics by the membrane. processing electronics having a surface with electrical contacts; a sensor cartridge comprising a flow cell with one or more fluid transfer ports (116, 118) which deliver fluid to the flow cell, the flow cell comprising electrical components for detecting analytes contained within the fluid; a clamping member (102, 200) comprising a fluid manifold, the clamping member being operable to urge the sensor cartridge in proximity to the electrical contacts of the processing electronics, wherein the fluid manifold includes fluid ports (128, 205) configured to engage the one or more fluid transfer ports (116, 118) of the sensor cartridge; a conformable electrically conductive membrane disposed between the electrical contacts of the processing electronics and the sensor cartridge and configured as a fluidic barrier between the sensor cartridge and the electrical contacts of the processing electronics, wherein the sensor cartridge comprises one or more electrical contacts conductively coupled to the electrical contacts of the processing electronics through the membrane; and wherein the one or more electrical contacts of the sensor cartridge are selectively conductively coupled to one or more corresponding contacts of the electrical contacts of the processing electronics through conductive pathways formed in the membrane while fluid contained in the sensor cartridge is substantially prevented from contacting the processing electronics by the membrane.
Apparatus for forming an object, comprising an extruding device for supplying a continuous extrudate of polymeric material, at least one separating element for cutting the continuous extrudate thereby separating from the continuous extrudate a dose (6; 106) of polymeric material, the apparatus including at least one mould (5; 105; 205; 305; 405) and at least one transport element (4; 104) movable along a trajectory for conveying the dose (6; 106) from the extruding device towards the mould (5; 105; 205; 305; 405), the trajectory being in the form of a closed loop, the mould (5; 105; 205; 305; 405) comprising a first mould part (9; 109; 209; 309) and a second mould part (8; 108; 508) aligned with each other along a moulding direction, the first mould part (9; 109; 209; 309) and the second mould part (8; 108; 508) being movable relative to one another between an open position, in which the dose (6; 106) is rested on a receiving part selected from the first mould part (9; 109; 209; 309) and the second mould part (8; 108; 508), and a closed position, in which a forming chamber is defined between the first mould part (9; 109; 209; 309) and the second mould part (8; 108; 508), the forming chamber having a shape corresponding to said object, wherein the apparatus further comprises a thermal conditioning device (11; 111; 211; 311; 411), characterized in that the thermal conditioning device (11; 111; 211; 311; 411) is adapted to act on the dose (6; 106) while the dose is interposed between the first mould part (9; 109; 209; 309) and the second mould part (8; 108; 508), after the dose (6; 106) has been released into said at least one mould (5; 105; 205; 305; 405) and before the closed position is reached, by thermally conditioning at least one surface portion (20; 120) of the dose (6; 106) which is distinct from a resting portion (17; 117) of the dose (6; 106) which is resting on the receiving part.
A control apparatus for a vehicle, comprising: - a traveling-state detector (5, 6, 7, 8) configured to detect a traveling state of the vehicle; - a target attitude control amount calculation unit (331, 333, 335) configured to calculate a target attitude control amount of a vehicle body based on the traveling state; - an attitude control amount calculation unit (332, 334, 336) configured to calculate an attitude control amount controlled by an attitude control actuator other than a shock absorber, based on the target attitude control amount; and - a damping force control unit configured to control a damping force of the shock absorber based on the target attitude control amount and the attitude control amount, characterised in that the damping force control unit is configured - to calculate a damping force attitude control amount that is a deviation between the target attitude control amount and the attitude control amount and - to control the damping force based on this damping force attitude control amount. - a traveling-state detector (5, 6, 7, 8) configured to detect a traveling state of the vehicle; - a target attitude control amount calculation unit (331, 333, 335) configured to calculate a target attitude control amount of a vehicle body based on the traveling state; - an attitude control amount calculation unit (332, 334, 336) configured to calculate an attitude control amount controlled by an attitude control actuator other than a shock absorber, based on the target attitude control amount; and - a damping force control unit configured to control a damping force of the shock absorber based on the target attitude control amount and the attitude control amount, characterised in that the damping force control unit is configured - to calculate a damping force attitude control amount that is a deviation between the target attitude control amount and the attitude control amount and - to control the damping force based on this damping force attitude control amount.
A gooseneck assembly comprising: a body operable to be disposed circumferentially about a portion of a riser string; a stab member that is inwardly radially extendable relative to the body so as to engage a receptacle disposed on the riser string; a cartridge assembly engaged with the stab member and having a flexible hose coupling that is rotatable relative to a central axis of the stab member, wherein the coupling is in fluid communication with the receptacle via the stab member; a flexible hose having an end coupled to the flexible hose coupling; and an actuator (40, 80) operable to rotate the flexible hose coupling relative to the central axis of the stab member from an operational position wherein the flexible hose extends vertically downward from the flexible hose coupling to a stored position wherein the end of the flexible hose that is coupled to the flexible hose coupling is at an angle to vertical. a body operable to be disposed circumferentially about a portion of a riser string; a stab member that is inwardly radially extendable relative to the body so as to engage a receptacle disposed on the riser string; a cartridge assembly engaged with the stab member and having a flexible hose coupling that is rotatable relative to a central axis of the stab member, wherein the coupling is in fluid communication with the receptacle via the stab member; a flexible hose having an end coupled to the flexible hose coupling; and an actuator (40, 80) operable to rotate the flexible hose coupling relative to the central axis of the stab member from an operational position wherein the flexible hose extends vertically downward from the flexible hose coupling to a stored position wherein the end of the flexible hose that is coupled to the flexible hose coupling is at an angle to vertical.
A sandwich method for the detection of a chromogranin A polypeptide comprising reacting a sample to be assayed for the presence or quantity of the CGA polypeptide with a set of monoclonal antibodies wherein each monoclonal antibody is used either as a capture antibody or as a detection antibody, and wherein at least one monoclonal antibody is reactive with an epitope in the CGA polypeptide represented by amino acid sequence 236 to 251 of the amino acid sequence of human CGA (represented by SEQ ID NO 2); and wherein at least one other monoclonal antibody is reactive with an epitope in the CGA polypeptide represented by amino acid sequence 264 to 279 of the amino acid sequence of human CGA (represented by SEQ ID NO 3).
A flexible substrate, comprising: a polymer substrate; a plurality of water and oxygen barrier layers (202, 204) provided on the polymer substrate; and a planarization layer (203, 205,...), provided between adjacent water and oxygen barrier layers (202, 204); wherein the planarization layer (203, 205,...) comprises a plurality of planarization units separated in a first direction and a second direction, a projection of the planarization unit in the planarization layer projected on the polymer substrate covers a gap between projections of adjacent planarization units in an adjacent planarization layer projected on the polymer substrate, and projection regions partially overlap, characterized in that the thicknesses of odd layers or even layers of the planarization layers (203, 205,...) are respectively decreased successively in a direction away from the polymer substrate. a polymer substrate; a plurality of water and oxygen barrier layers (202, 204) provided on the polymer substrate; and a planarization layer (203, 205,...), provided between adjacent water and oxygen barrier layers (202, 204); wherein the planarization layer (203, 205,...) comprises a plurality of planarization units separated in a first direction and a second direction, a projection of the planarization unit in the planarization layer projected on the polymer substrate covers a gap between projections of adjacent planarization units in an adjacent planarization layer projected on the polymer substrate, and projection regions partially overlap, characterized in that the thicknesses of odd layers or even layers of the planarization layers (203, 205,...) are respectively decreased successively in a direction away from the polymer substrate.
A tissue collection and processing system for collecting bone fragments and tissue therein, wherein the tissue collection and processing system comprises: a collection vessel having an opening formed therein; a collection vessel cap that is capable of engaging the collection vessel to substantially seal the opening, wherein the collection vessel cap or the collection vessel comprises a first port and a second port; a processing cover that is capable of slidably moving in the opening, wherein the processing cover comprises a connection port, an upper surface and a lower surface, wherein the processing cover has an aperture that extends between the upper surface and the lower surface and at the upper surface the aperture is in communication with the connection port of the processing cover; a first tubing; a second tubing; a bone fragment and tissue harvesting device, wherein the bone fragment and tissue harvesting is capable of accessing an interior of a bone and aspirating bone fragments and tissue from a bone; and wherein the tissue collection and processing system is operable in a first configuration or a second configuration, wherein when in the first configuration, the collection vessel cap is attached to the collection vessel and the first tubing fluidly connects the first port and the bone fragment and tissue harvesting device for delivering a fluid to the collection vessel and wherein when in the second configuration, the processing cover is positioned in the opening and the second tubing is fluidly connected to the connection port for withdrawing a first portion of the fluid in the collection vessel. a collection vessel having an opening formed therein; a collection vessel cap that is capable of engaging the collection vessel to substantially seal the opening, wherein the collection vessel cap or the collection vessel comprises a first port and a second port; a processing cover that is capable of slidably moving in the opening, wherein the processing cover comprises a connection port, an upper surface and a lower surface, wherein the processing cover has an aperture that extends between the upper surface and the lower surface and at the upper surface the aperture is in communication with the connection port of the processing cover; a first tubing; a second tubing; a bone fragment and tissue harvesting device, wherein the bone fragment and tissue harvesting is capable of accessing an interior of a bone and aspirating bone fragments and tissue from a bone; and wherein the tissue collection and processing system is operable in a first configuration or a second configuration, wherein when in the first configuration, the collection vessel cap is attached to the collection vessel and the first tubing fluidly connects the first port and the bone fragment and tissue harvesting device for delivering a fluid to the collection vessel and wherein when in the second configuration, the processing cover is positioned in the opening and the second tubing is fluidly connected to the connection port for withdrawing a first portion of the fluid in the collection vessel.
A method for receiving a downlink signal from a plurality of transmission points by a User Equipment, UE, in a wireless communication system, the method comprising: receiving information about a plurality of parameter set groups related to a specific transmission mode via higher-layer signaling, each of the plurality of parameter set groups including a plurality of parameter sets related to the specific transmission mode; detecting a Physical Downlink Control Channel, PDCCH, including indication information indicating a specific parameter set belonging to one of the plurality of parameter set groups; and receiving a downlink signal using the specific parameter set, characterized in that: each of the plurality of parameter set groups is configured independently per search space for detection of the PDCCH, the search space including a specific subframe group, and a parameter set group to which the specific parameter set belongs from among the plurality of parameter set groups is determined according to a subframe in which the PDCCH is detected. receiving information about a plurality of parameter set groups related to a specific transmission mode via higher-layer signaling, each of the plurality of parameter set groups including a plurality of parameter sets related to the specific transmission mode; detecting a Physical Downlink Control Channel, PDCCH, including indication information indicating a specific parameter set belonging to one of the plurality of parameter set groups; and receiving a downlink signal using the specific parameter set, characterized in that: each of the plurality of parameter set groups is configured independently per search space for detection of the PDCCH, the search space including a specific subframe group, and a parameter set group to which the specific parameter set belongs from among the plurality of parameter set groups is determined according to a subframe in which the PDCCH is detected. each of the plurality of parameter set groups is configured independently per search space for detection of the PDCCH, the search space including a specific subframe group, and a parameter set group to which the specific parameter set belongs from among the plurality of parameter set groups is determined according to a subframe in which the PDCCH is detected.
Digital signal processing device for determining an angle of rotation by means of a periodic input signal, having: - a low-pass filter for low-pass filtering the periodic input signal; - a phase angle determiner for acquiring a digital phase angle value on the basis of the low-pass filtered input signal; - a signal counter for acquiring a digital period count value; and - an output register for outputting the angle of rotation on the basis of the digital phase angle value and the digital period count value, characterized by a time correction device for synchronizing the digital period count value with the digital phase angle value, which time correction device comprises a state machine for calculating an expected value for the angle of rotation on the basis of an angular velocity. - a low-pass filter for low-pass filtering the periodic input signal; - a phase angle determiner for acquiring a digital phase angle value on the basis of the low-pass filtered input signal; - a signal counter for acquiring a digital period count value; and - an output register for outputting the angle of rotation on the basis of the digital phase angle value and the digital period count value,
A method comprising: determining that a particular node has failed, wherein the particular node is in a shared-nothing database system in which at least some particular database data, on which the particular node performed operations, is stored on a particular shared storage device to which the particular node and two or more non-failed nodes have access; and in response to determining that the failure has occurred, performing recovery of the particular database data, including performing parallel recovery, by the two or more non-failed nodes that have access to the particular shared storage device, of the particular database data, wherein performing recovery comprises: a recovery coordinator determining, based at least in part on the size of one or more objects that need to be recovered, that a first set of one or more tasks required for recovery of said failed node should be performed serially, and that a second set of one or more tasks required for recovery of said failed node should be performed in parallel; and performing the first set of one or more tasks serially; and using said two or more non-failed nodes to perform said second set of one or more tasks in parallel. determining that a particular node has failed, wherein the particular node is in a shared-nothing database system in which at least some particular database data, on which the particular node performed operations, is stored on a particular shared storage device to which the particular node and two or more non-failed nodes have access; and in response to determining that the failure has occurred, performing recovery of the particular database data, including performing parallel recovery, by the two or more non-failed nodes that have access to the particular shared storage device, of the particular database data, wherein performing recovery comprises: a recovery coordinator determining, based at least in part on the size of one or more objects that need to be recovered, that a first set of one or more tasks required for recovery of said failed node should be performed serially, and that a second set of one or more tasks required for recovery of said failed node should be performed in parallel; and performing the first set of one or more tasks serially; and using said two or more non-failed nodes to perform said second set of one or more tasks in parallel. a recovery coordinator determining, based at least in part on the size of one or more objects that need to be recovered, that a first set of one or more tasks required for recovery of said failed node should be performed serially, and that a second set of one or more tasks required for recovery of said failed node should be performed in parallel; and performing the first set of one or more tasks serially; and using said two or more non-failed nodes to perform said second set of one or more tasks in parallel.