mhurhangee/patent-ind-claim-en huggingface dataset:
A filtration device comprising: a filtration cassette; and a sealing case that is not bonded or overmolded to the filtration cassette, wherein the sealing case surrounds the filtration cassette on at least a front and back surface of the filtration cassette and at least one side surface of the filtration cassette, the sealing case further comprising at least one opening that aligns with at least one port in the filtration cassette, wherein the internal surface of the sealing case is substantially flat, wherein substantially flat means that the internal surface of the sealing case is without raised projections, edges or rings and wherein the internal surface of the sealing case does not protrude into a corresponding port in the filtration cassette, the filtration device having a fluid-tight seal between the sealing case and around the at least one port in the filtration cassette when installed in a filtration system with a clamping device applying pressure to the sealing case, wherein the sealing case comprises two halves that are configured to mate together using a snap-fit combination, and be fitted to the filtration cassette without use of an adhesive or other bonding method, wherein the snap-fit combination comprises a two-step indentation in the edges of one half of the sealing case designed to fit a complementary shaped counterpart in the edges of the other half of the sealing case, and wherein the sealing case provides a fluid-tight seal without the need for separate gaskets. a filtration cassette; and a sealing case that is not bonded or overmolded to the filtration cassette, wherein the sealing case surrounds the filtration cassette on at least a front and back surface of the filtration cassette and at least one side surface of the filtration cassette, the sealing case further comprising at least one opening that aligns with at least one port in the filtration cassette, wherein the internal surface of the sealing case is substantially flat, wherein substantially flat means that the internal surface of the sealing case is without raised projections, edges or rings and wherein the internal surface of the sealing case does not protrude into a corresponding port in the filtration cassette, the filtration device having a fluid-tight seal between the sealing case and around the at least one port in the filtration cassette when installed in a filtration system with a clamping device applying pressure to the sealing case, wherein the sealing case comprises two halves that are configured to mate together using a snap-fit combination, and be fitted to the filtration cassette without use of an adhesive or other bonding method, wherein the snap-fit combination comprises a two-step indentation in the edges of one half of the sealing case designed to fit a complementary shaped counterpart in the edges of the other half of the sealing case, and wherein the sealing case provides a fluid-tight seal without the need for separate gaskets.
A method for feeding back channel state information, comprising: determining , by a user equipment, a second parameter y of a feedback mode according to the number of Channel-State Information - reference signals (CSI-RS) ports and indication information indicating whether to feed back pre-coding matrix indicator (PMI) and rank indicator (RI); determining , by the user equipment, the feedback mode according to a transmission mode configured by high layer signaling, a first parameter x of the feedback mode and the second parameter y of the feedback mode; and feeding back , by the user equipment, the channel state information according to the determined feedback mode, wherein the feedback mode is specified according to the long term evolution standard, LTE, Release 10 and wherein the transmission mode is the transmission mode 9 as specified in LTE Release 10. determining , by a user equipment, a second parameter y of a feedback mode according to the number of Channel-State Information - reference signals (CSI-RS) ports and indication information indicating whether to feed back pre-coding matrix indicator (PMI) and rank indicator (RI); determining , by the user equipment, the feedback mode according to a transmission mode configured by high layer signaling, a first parameter x of the feedback mode and the second parameter y of the feedback mode; and feeding back , by the user equipment, the channel state information according to the determined feedback mode, wherein the feedback mode is specified according to the long term evolution standard, LTE, Release 10 and wherein the transmission mode is the transmission mode 9 as specified in LTE Release 10.
A method, comprising: collecting, by a terminal, action attribute information of a user when the user performs a specified operation, wherein the action attribute information includes an acceleration value and motion direction information of the terminal; determining a proportion value based on a weighting of the acceleration value and a weighting of the motion direction information; determining whether the action attribute information matches standard information based on whether the proportion value is greater than a similarity threshold; in response to determining that the action attribution information matches standard information, performing corresponding processing according to the specified operation; and in response to determining that the action attribution information does not match standard information, refusing to perform the corresponding processing according to the specified operation. collecting, by a terminal, action attribute information of a user when the user performs a specified operation, wherein the action attribute information includes an acceleration value and motion direction information of the terminal; determining a proportion value based on a weighting of the acceleration value and a weighting of the motion direction information; determining whether the action attribute information matches standard information based on whether the proportion value is greater than a similarity threshold; in response to determining that the action attribution information matches standard information, performing corresponding processing according to the specified operation; and in response to determining that the action attribution information does not match standard information, refusing to perform the corresponding processing according to the specified operation.
Spacer for multipane insulating glazing units, comprising at least: a polymeric main body comprising two pane contact surfaces (3.1, 3.2) running parallel to one another, a glazing interior surface , an adhesive bonding surface , wherein the pane contact surfaces (3.1, 3.2) and the adhesive bonding surface are connected to one another directly or via connection surfaces (6.1, 6.2), and an insulation film , which is applied at least on the adhesive bonding surface , wherein the insulation film has a metal-containing barrier layer with a thickness of 1 μm to 20 μm facing the adhesive bonding surface , and the insulation film comprises a polymeric layer with a thickness of 5 μm to 80 μm and a metal-containing thin layer with a thickness of less than 100 nm adjacent the polymeric layer .
A system for monitoring at least one motion parameter of a main shaft in a gyratory or cone crusher comprising: a magnetic element mounted to a top end of the main shaft , wherein the magnetic element is a lifting lug formed of a ferromagnetic material capable of affecting a magnetic field; a magnetic sensor positioned in proximity to the magnetic element and operable to detect changes in a magnetic flux caused by movement of the magnetic element; and a controller coupled to the magnetic sensor to determine the at least one motion parameter based on the detected changes in the magnetic flux. a magnetic element mounted to a top end of the main shaft , wherein the magnetic element is a lifting lug formed of a ferromagnetic material capable of affecting a magnetic field; a magnetic sensor positioned in proximity to the magnetic element and operable to detect changes in a magnetic flux caused by movement of the magnetic element; and a controller coupled to the magnetic sensor to determine the at least one motion parameter based on the detected changes in the magnetic flux.
Method of manufacturing an implant configured for application on one or more bones (14, 16, 18, 23, 68 70), the method comprising : - providing a dataset of at least a part of each of the one or more bones (14, 16, 18, 23, 68 70); - creating a model of the one or more bones (14, 16, 18, 23, 68 70) on the basis of the dataset; - defining in the model a range of motion of the one or more bones (14, 16, 18, 23, 68 70) within predetermined boundaries; - positioning a model of an implant with predetermined shape in the model of the one or more bones (14, 16, 18, 23, 68 70), wherein a first rotation point of the model implant is placed at a most probable position in the model of the one or more bones (14, 16, 18, 23, 68 70); - modifying the positioned model implant by removing parts of the model implant which overlap the model of the one or more bones (14, 16, 18, 23, 68 70); - simulating movements of the model of the one or more bones with the modified model implant , wherein the simulated movements are encompassed by the defined range of motion of the one or more bones (14, 16, 18, 23, 68 70) in the model; - selecting parts of the model implant which during the simulation limit the simulated movements which cause the defined range of motion not to be reached; - further modifying the model implant by removing the selected parts; - manufacturing the further modified model implant so that the implant is obtained. - providing a dataset of at least a part of each of the one or more bones (14, 16, 18, 23, 68 70); - creating a model of the one or more bones (14, 16, 18, 23, 68 70) on the basis of the dataset; - defining in the model a range of motion of the one or more bones (14, 16, 18, 23, 68 70) within predetermined boundaries; - positioning a model of an implant with predetermined shape in the model of the one or more bones (14, 16, 18, 23, 68 70), wherein a first rotation point of the model implant is placed at a most probable position in the model of the one or more bones (14, 16, 18, 23, 68 70); - modifying the positioned model implant by removing parts of the model implant which overlap the model of the one or more bones (14, 16, 18, 23, 68 70); - simulating movements of the model of the one or more bones with the modified model implant , wherein the simulated movements are encompassed by the defined range of motion of the one or more bones (14, 16, 18, 23, 68 70) in the model; - selecting parts of the model implant which during the simulation limit the simulated movements which cause the defined range of motion not to be reached; - further modifying the model implant by removing the selected parts; - manufacturing the further modified model implant so that the implant is obtained.
A computer-implemented method, comprising: receiving , by a server, information corresponding to a combinational two-dimensional code that includes static two-dimensional code information and a random feature value, the random feature value based upon dynamic feature information obtained from the combinational two-dimensional code at a first time and a second time subsequent to the first time; identifying , by the server, a stored random feature value stored by the server that corresponds to the received static two-dimensional code information; determining , by the server, whether the received random feature value is the same as the stored random feature value; and in response to determining that the received random feature value is the same as the stored random feature value, sending , by the server, a code scanning success notification. receiving , by a server, information corresponding to a combinational two-dimensional code that includes static two-dimensional code information and a random feature value, the random feature value based upon dynamic feature information obtained from the combinational two-dimensional code at a first time and a second time subsequent to the first time; identifying , by the server, a stored random feature value stored by the server that corresponds to the received static two-dimensional code information; determining , by the server, whether the received random feature value is the same as the stored random feature value; and in response to determining that the received random feature value is the same as the stored random feature value, sending , by the server, a code scanning success notification.
A folding roller comprising: - a cylindrical sleeve having a rotation axis , an outer surface and an inner surface delimiting an axial cavity of the cylindrical sleeve ; - an inner body axially extending in the axial cavity of the cylindrical sleeve , the cylindrical sleeve being arranged so as to rotate around the inner body ; - a suction chamber inside the cylindrical sleeve ; - a plurality of suction holes extending from the outer surface up to the inner surface of the cylindrical sleeve ; wherein the suction holes are arranged according to longitudinal alignments that are approximately parallel to the rotation axis of the cylindrical sleeve and angularly spaced apart with respect to one another; characterized in that inside the suction chamber a plurality of stationary shutters are arranged, spaced from one another along the rotation axis of the cylindrical sleeve , each shutter having a closing surface co-acting with the inner surface of the cylindrical sleeve to close the suction holes . - a cylindrical sleeve having a rotation axis , an outer surface and an inner surface delimiting an axial cavity of the cylindrical sleeve ; - an inner body axially extending in the axial cavity of the cylindrical sleeve , the cylindrical sleeve being arranged so as to rotate around the inner body ; - a suction chamber inside the cylindrical sleeve ; - a plurality of suction holes extending from the outer surface up to the inner surface of the cylindrical sleeve ; wherein the suction holes are arranged according to longitudinal alignments that are approximately parallel to the rotation axis of the cylindrical sleeve and angularly spaced apart with respect to one another;
An isolated anti-LOX-1 antibody or fragment thereof, comprising (i) a heavy chain variable region of SEQ ID NO: 14 and a light chain variable region of SEQ ID NO: 24, or (ii) a heavy chain variable region of SEQ ID NO: 34 and a light chain variable region of SEQ ID NO: 44. (i) a heavy chain variable region of SEQ ID NO: 14 and a light chain variable region of SEQ ID NO: 24, or (ii) a heavy chain variable region of SEQ ID NO: 34 and a light chain variable region of SEQ ID NO: 44.
A delivery apparatus (100; 200; 400) for implanting a prosthetic heart valve comprising: a handle (102; 202; 402); a first shaft extending from a distal end of the handle (102; 202; 402); a second shaft extending through a lumen of the first shaft and the handle (102; 202; 402); and a gripper (112; 212) located proximal to a proximal end of the handle (102; 202; 402); wherein a proximal end of the second shaft is connected to the gripper (112; 212), and the gripper (112; 212) is axially moveable relative to the handle (102; 202; 402) such that axial movement of the gripper (112; 212) causes corresponding axial movement of the second shaft relative to the first shaft ; and wherein the gripper (112; 212) has a bottom surface that is substantially coplanar with a bottom surface of the handle (102; 202; 402). a handle (102; 202; 402); a first shaft extending from a distal end of the handle (102; 202; 402); a second shaft extending through a lumen of the first shaft and the handle (102; 202; 402); and a gripper (112; 212) located proximal to a proximal end of the handle (102; 202; 402); wherein a proximal end of the second shaft is connected to the gripper (112; 212), and the gripper (112; 212) is axially moveable relative to the handle (102; 202; 402) such that axial movement of the gripper (112; 212) causes corresponding axial movement of the second shaft relative to the first shaft ; and wherein the gripper (112; 212) has a bottom surface that is substantially coplanar with a bottom surface of the handle (102; 202; 402).
A filter system comprising: a filter cartridge housing having a removable housing portion ; a filter medium disposed within the filter cartridge housing ; an optical analyte sensor comprising a detection medium that changes at least one of its optical characteristics in response to an analyte, the optical analyte sensor disposed within the filter cartridge housing and mounted on a wall of the filter cartridge housing such that the detection medium is in fluid communication with the filter medium; and an optical reader comprising at least one light source and at least one detector, the optical reader attached to the removable housing portion such that, when the removable housing portion is attached to the filter cartridge housing , at least a portion of light emitted by at least one light source is reflected from the optical analyte sensor and captured by at least one detector , wherein the filter cartridge housing wall comprises a transparent portion on which the optical analyte sensor is mounted and through which the optical analyte sensor is optically interrogatable by the optical reader . a filter cartridge housing having a removable housing portion ; a filter medium disposed within the filter cartridge housing ; an optical analyte sensor comprising a detection medium that changes at least one of its optical characteristics in response to an analyte, the optical analyte sensor disposed within the filter cartridge housing and mounted on a wall of the filter cartridge housing such that the detection medium is in fluid communication with the filter medium; and an optical reader comprising at least one light source and at least one detector, the optical reader attached to the removable housing portion such that, when the removable housing portion is attached to the filter cartridge housing , at least a portion of light emitted by at least one light source is reflected from the optical analyte sensor and captured by at least one detector , wherein the filter cartridge housing wall comprises a transparent portion on which the optical analyte sensor is mounted and through which the optical analyte sensor is optically interrogatable by the optical reader .
A vehicle barrier apparatus comprising: a base ; a vehicle receiving member coupled to the base and having proximal and distal ends; and a deployable element rotatably coupled to the base and coupled to the vehicle receiving member at a slide rod mechanical coupler extending from the deployable element and into a slot defined by the vehicle receiving member, the slide rod mechanical coupler located closer to the distal end than to the proximal end, the deployable element configured to receive a transfer force , from the vehicle receiving member, via the slide rod mechanical coupler, responsive to the vehicle receiving member receiving an applied force from a vehicle at the proximal end, the deployable element configured to deploy from a stored orientation to a deployed orientation responsive to the transfer force, and_the slide rod mechanical coupler configured to slide within the slot as the vehicle receiving member applies the transfer force to the deployable element. a base ; a vehicle receiving member coupled to the base and having proximal and distal ends; and a deployable element rotatably coupled to the base and coupled to the vehicle receiving member at a slide rod mechanical coupler extending from the deployable element and into a slot defined by the vehicle receiving member, the slide rod mechanical coupler located closer to the distal end than to the proximal end, the deployable element configured to receive a transfer force , from the vehicle receiving member, via the slide rod mechanical coupler, responsive to the vehicle receiving member receiving an applied force from a vehicle at the proximal end, the deployable element configured to deploy from a stored orientation to a deployed orientation responsive to the transfer force, and_the slide rod mechanical coupler configured to slide within the slot as the vehicle receiving member applies the transfer force to the deployable element.
A storage system comprising a storage grid structure having a top rail grid upon which container handling vehicles work to store and retrieve storage containers in and from storage columns beneath the top rail grid, a picking/stocking station for picking/stocking items between a storage container and a packaging box , and an unloading/loading assembly for unloading/loading packaging boxes containing such items, wherein the picking/supply station is operatively connected to a transfer column of the storage grid structure , such that a storage container may be transferred between the picking/stocking station and the storage columns , characterised in that the storage system comprises multiple transfer rails forming a horizontal transfer rail grid arranged at a level below the top rail grid, at least one transport vehicle operating on the transfer rail grid, wherein the transport vehicle is arranged to move upon the transfer rail grid in two perpendicular directions and comprises a carrier platform , and wherein the transfer rail grid is arranged to allow access for the transport vehicle to transport one or more packaging boxes at a time between the picking/stocking station and the unloading/loading assembly .
An electrolyte additive composition comprising: a borate-based lithium compound represented by Formula 1; and a nitrile-based compound represented by Formula 2, wherein the electrolyte additive composition does not comprise a phosphate-based compound: wherein, in Formula 1, Y 1 to Y 4 are each independently oxygen (O) or sulfur (S), and [Formula 2] N≡C-R 1 -C≡N wherein, in Formula 2, R 1 is an alkylene group having 1 to 5 carbon atoms. a borate-based lithium compound represented by Formula 1; and a nitrile-based compound represented by Formula 2, wherein the electrolyte additive composition does not comprise a phosphate-based compound: wherein, in Formula 1, Y 1 to Y 4 are each independently oxygen (O) or sulfur (S), and [Formula 2] N≡C-R 1 -C≡N wherein, in Formula 2, R 1 is an alkylene group having 1 to 5 carbon atoms.