mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising the steps of: providing a tool having a collet over a collar secured to a stud on a gas turbine engine system; and driving said collet to rotate and remove said collar from said stud ; characterised in that : said collet includes a plurality of collet fingers and said collet fingers being driven between a released and a secured position, with said collet fingers being in said released position when initially placed over said collar , and then driven to said locked position prior to said collet fingers being driven to rotate and remove said collar , wherein said collet fingers move with a piston within a housing and hydraulic fluid drives said piston into said housing to move said collet fingers to a relaxed position at which they define the released position, and a spring operating in opposition to said hydraulic fluid to drive said piston outwardly of said housing and said collet fingers to said secured position, and wherein said piston has a conical surface which is forced against an edge surface of an opening in said housing , with said conical surface being forced against said edge surface to move said collet fingers to said secured position. providing a tool having a collet over a collar secured to a stud on a gas turbine engine system; and driving said collet to rotate and remove said collar from said stud ; characterised in that : said collet includes a plurality of collet fingers and said collet fingers being driven between a released and a secured position, with said collet fingers being in said released position when initially placed over said collar , and then driven to said locked position prior to said collet fingers being driven to rotate and remove said collar , wherein said collet fingers move with a piston within a housing and hydraulic fluid drives said piston into said housing to move said collet fingers to a relaxed position at which they define the released position, and a spring operating in opposition to said hydraulic fluid to drive said piston outwardly of said housing and said collet fingers to said secured position, and wherein said piston has a conical surface which is forced against an edge surface of an opening in said housing , with said conical surface being forced against said edge surface to move said collet fingers to said secured position.
A forming machine to form mattresses or panels from a non-solid material comprising: - a station for loading said non-solid material, - a processing and transferring station comprising an inlet portion of said non-solid material connected to said loading station , a processing and transferring element of said non-solid material, an outlet portion to which said processed non-solid material is directed, - an unloading station positioned downstream of said processing and transferring station and facing said outlet portion , - a drive device , positioned close to said outlet portion of said processing and transferring station , said drive device being configured for directing said non-solid material processed and moved by said processing and transferring station towards predetermined zones of said unloading station , said machine being characterised in that said drive device comprises two deflectors , wherein said two deflectors are movable synchronously with each other or independently of each other. - a station for loading said non-solid material, - a processing and transferring station comprising an inlet portion of said non-solid material connected to said loading station , a processing and transferring element of said non-solid material, an outlet portion to which said processed non-solid material is directed, - an unloading station positioned downstream of said processing and transferring station and facing said outlet portion , - a drive device , positioned close to said outlet portion of said processing and transferring station , said drive device being configured for directing said non-solid material processed and moved by said processing and transferring station towards predetermined zones of said unloading station , said machine being characterised in that said drive device comprises two deflectors , wherein said two deflectors are movable synchronously with each other or independently of each other.
A DC to DC boost converter for a HVAC system, comprising: a first boost circuit having a first inductor and a first set of switches; and a second boost circuit having a second inductor and a second set of switches, wherein the first inductor is connected to the second inductor in series when the first set of switches is off; wherein when the second set of switches is off, the first boost circuit is configured to boost an input DC voltage to a first boosted voltage; and wherein when the first set of switches is off, the first inductor and the second boost circuit are configured to boost the input DC voltage to a second boosted voltage. a first boost circuit having a first inductor and a first set of switches; and a second boost circuit having a second inductor and a second set of switches, wherein the first inductor is connected to the second inductor in series when the first set of switches is off; wherein when the second set of switches is off, the first boost circuit is configured to boost an input DC voltage to a first boosted voltage; and wherein when the first set of switches is off, the first inductor and the second boost circuit are configured to boost the input DC voltage to a second boosted voltage.
A battery module including: a cell assembly including at least one battery cell , a module case accommodating the cell assembly, an upper frame positioned on one surface of the cell assembly in the module case to at least partially cover the cell assembly , a flexible printed circuit board configured to be mounted longitudinally on the upper frame to sense the battery cell , and a protective cover in which a main cover portion parallel to a main surface of the upper frame is mounted on the upper frame so as to cover the flexible printed circuit board in the module case , wherein the flexible printed circuit board includes a bent portion which is bent toward one side of the cell assembly at the end of the upper frame , and the protective cover further includes an eaves portion which is bent and extended to correspond to the bent portion of the flexible printed circuit board at the end of at least one side. a cell assembly including at least one battery cell , a module case accommodating the cell assembly, an upper frame positioned on one surface of the cell assembly in the module case to at least partially cover the cell assembly , a flexible printed circuit board configured to be mounted longitudinally on the upper frame to sense the battery cell , and a protective cover in which a main cover portion parallel to a main surface of the upper frame is mounted on the upper frame so as to cover the flexible printed circuit board in the module case , wherein the flexible printed circuit board includes a bent portion which is bent toward one side of the cell assembly at the end of the upper frame , and the protective cover further includes an eaves portion which is bent and extended to correspond to the bent portion of the flexible printed circuit board at the end of at least one side.
An iterative low density parity check (LDPC) decoder , comprising: a first plurality of shift registers (741-748) configured for storing component vectors of bit estimates, a plurality of banks (721-724) of parity-check node processors (PCNPs) coupled to the first plurality of shift registers, each of the plurality of banks of parity PCNPs configured for processing the component vectors to generate a plurality of messages, a second plurality of shift registers (711-714) coupled to the plurality of banks of PCNPs and configured for storing the plurality of messages, a plurality of combiners configured for combining the plurality of messages with a plurality of bit estimates generated during a previous iteration for producing updated bit estimates, a plurality of fixed permuters (731-738) configured for permuting the updated bit estimates for producing permuted updated bit estimates, and a subtraction module coupled between the first plurality of shift registers (741-748) and the plurality of fixed permuters (731-738) and configured for subtracting messages generated during a predetermined earlier iteration from the permuted updated bit estimates, producing final updated bit estimates which are stored in the first plurality of shift registers (741-748). a first plurality of shift registers (741-748) configured for storing component vectors of bit estimates, a plurality of banks (721-724) of parity-check node processors (PCNPs) coupled to the first plurality of shift registers, each of the plurality of banks of parity PCNPs configured for processing the component vectors to generate a plurality of messages, a second plurality of shift registers (711-714) coupled to the plurality of banks of PCNPs and configured for storing the plurality of messages, a plurality of combiners configured for combining the plurality of messages with a plurality of bit estimates generated during a previous iteration for producing updated bit estimates, a plurality of fixed permuters (731-738) configured for permuting the updated bit estimates for producing permuted updated bit estimates, and a subtraction module coupled between the first plurality of shift registers (741-748) and the plurality of fixed permuters (731-738) and configured for subtracting messages generated during a predetermined earlier iteration from the permuted updated bit estimates, producing final updated bit estimates which are stored in the first plurality of shift registers (741-748).
An electronic device , comprising: a touch display comprising a main region and curved regions, the curved regions comprising a first curved region extending from the main region in a first direction towards a first side of a front surface of the electronic device and a second curved region extending from the main region in a second direction towards a second side of the front surface of the electronic device; and one or more processors ; characterized in that : the one or more processors are configured to: in response to a first touch interaction to touch one point of one of the first and second curved regions and move in a direction toward a location of the main region being detected while a home screen is displayed, control the touch display to display a first UI for inputting a password on an end of the touch display comprising the touched curved region, and in response to an input of a password to the first UI, control the touch display to remove the first UI displayed in the first area and display a second UI including a plurality of icons corresponding to a plurality of applications on an area of the touched curved region. a touch display comprising a main region and curved regions, the curved regions comprising a first curved region extending from the main region in a first direction towards a first side of a front surface of the electronic device and a second curved region extending from the main region in a second direction towards a second side of the front surface of the electronic device; and one or more processors ; in response to a first touch interaction to touch one point of one of the first and second curved regions and move in a direction toward a location of the main region being detected while a home screen is displayed, control the touch display to display a first UI for inputting a password on an end of the touch display comprising the touched curved region, and in response to an input of a password to the first UI, control the touch display to remove the first UI displayed in the first area and display a second UI including a plurality of icons corresponding to a plurality of applications on an area of the touched curved region.
A prosthetic device (100; 200) for implantation at a cardiac valve annulus, the prosthetic device (100; 200) having a radially compressed state and an expanded state and comprising: an expandable annular frame having an inflow end (103; 203), an outflow end (105; 205), at least four rows of circumferentially extending angled struts , and a plurality of axial frame members bridging two of the at least four rows of angled struts, wherein the plurality of axial frame members comprises a plurality of axially extending leaflet attachment members and a plurality of axial struts in a 1:1 ratio, the prosthetic device (100; 200) further comprising a leaflet structure (104; 204) positioned within the frame during the compressed state and the expanded state of the prosthetic device, the leaflet structure (104; 204) having a plurality of commissures that are secured to the frame at the leaflet attachment members , wherein the two rows of angled struts bridged by the plurality of axial frame members comprise a first row and a second row , wherein the first row is closer to the outflow end (105; 205) than the second and the other rows of the at least four rows, and wherein the leaflet attachment members comprise a window frame member with a commissure window and a lower strut portion arranged below the level of the commissure window and towards the inflow end of the frame . an expandable annular frame having an inflow end (103; 203), an outflow end (105; 205), at least four rows of circumferentially extending angled struts , and a plurality of axial frame members bridging two of the at least four rows of angled struts, wherein the plurality of axial frame members comprises a plurality of axially extending leaflet attachment members and a plurality of axial struts in a 1:1 ratio, the prosthetic device (100; 200) further comprising a leaflet structure (104; 204) positioned within the frame during the compressed state and the expanded state of the prosthetic device, the leaflet structure (104; 204) having a plurality of commissures that are secured to the frame at the leaflet attachment members , wherein the two rows of angled struts bridged by the plurality of axial frame members comprise a first row and a second row , wherein the first row is closer to the outflow end (105; 205) than the second and the other rows of the at least four rows, and wherein the leaflet attachment members comprise a window frame member with a commissure window and a lower strut portion arranged below the level of the commissure window and towards the inflow end of the frame .
A computer-implemented method comprising: receiving cardiac electrogram data representing one or more substantially real time electrical signals based on measurements from one or more respective electrodes; selecting at least one subset time interval of one of the electrical signals as a signal of interest (SOI) either in response to a SOI selection user input entered via a user input device, or based on user-programmed selection data defining one or more anatomical landmarks or predefined anatomical regions; storing in memory SOI data corresponding to each selected SOI, the SOI data including location data identifying a respective spatial location for each selected SOI in relation to anatomical geometry and that programmatically links each selected SOI to a respective anatomical location; based on the stored SOI data , including the location data, quantifying changes between signal characteristics of real time cadiac electrogram signals acquired for one or more respective anatomical locations and the at least one SOI that is associated with each of the respective anatomical locations; and generating an output based on the quantifying to characterize spatially local signal changes with respect to each of the respective anatomical locations. receiving cardiac electrogram data representing one or more substantially real time electrical signals based on measurements from one or more respective electrodes; selecting at least one subset time interval of one of the electrical signals as a signal of interest (SOI) either in response to a SOI selection user input entered via a user input device, or based on user-programmed selection data defining one or more anatomical landmarks or predefined anatomical regions; storing in memory SOI data corresponding to each selected SOI, the SOI data including location data identifying a respective spatial location for each selected SOI in relation to anatomical geometry and that programmatically links each selected SOI to a respective anatomical location; based on the stored SOI data , including the location data, quantifying changes between signal characteristics of real time cadiac electrogram signals acquired for one or more respective anatomical locations and the at least one SOI that is associated with each of the respective anatomical locations; and generating an output based on the quantifying to characterize spatially local signal changes with respect to each of the respective anatomical locations.
Drive unit for a grain elevator , in particular for agricultural machines, comprising a drive wheel which is operatively connected to a screw conveyor for conveying crop into the grain elevator , wherein the drive wheel is mounted, resistant against rotation, on a shaft of the screw conveyor , so that the drive wheel can rotate together with the screw conveyor about a longitudinal axis (A), wherein the drive wheel comprises retainers (11; 10c), which can be brought into positive locking and/or friction engagement with endless traction means (6a; 6b) of the grain elevator having a plurality of paddles for driving the endless traction means (6a; 6b), characterised in that in the drive wheel , between arms holding the retainers (11; 10c), a plurality of openings are formed so as to enable and/or facilitate crop conveyed through the screw conveyor into the grain elevator along a direction of conveyance (F) to flow through the drive wheel .
A sample analysis chip comprising, on a base material : a plurality of wells ; a flow passage leading to the respective wells; and an injection port for injecting a solution into the flow passage, and delivers the solution to wells by rotating the base material, wherein the flow passage includes a main flow passage which supplies liquid to the respective wells, as well as a side passage that connects the main flow passage and the wells , wherein the main flow passage is provided closer to a rotation center side than the wells, and is formed so as to have a plurality of valley portions each of which is connected to each well, and one peak portion between neighboring wells in a direction of rotation center, a passage width of the main flow passage is relatively small in the peak portion and large in the valley portions, characterized in that the injection port is provided at one end of the main flow passage and an outlet which serves as an exit of surplus solution and air at the other end of the main flow passage, and wherein the side passage is formed so as to be inclined with respect to the radial direction to the rotation center. a plurality of wells ; a flow passage leading to the respective wells; and an injection port for injecting a solution into the flow passage, and delivers the solution to wells by rotating the base material, wherein the flow passage includes a main flow passage which supplies liquid to the respective wells, as well as a side passage that connects the main flow passage and the wells , wherein the main flow passage is provided closer to a rotation center side than the wells, and is formed so as to have a plurality of valley portions each of which is connected to each well, and one peak portion between neighboring wells in a direction of rotation center, a passage width of the main flow passage is relatively small in the peak portion and large in the valley portions, characterized in that the injection port is provided at one end of the main flow passage and an outlet which serves as an exit of surplus solution and air at the other end of the main flow passage, and wherein the side passage is formed so as to be inclined with respect to the radial direction to the rotation center.
Method for ensuring the sterility of a patient interface which is fastened to an ophthalmological examination and/or treatment apparatus and which is embodied to be fixed to an eye of a patient by vacuum, characterized in that the ophthalmological examination and/or treatment apparatus makes a change in the structure on the patient interface for the purposes of preventing reuse, said structure change modifying the patient interface in respect of certain optical or electrical or fluid-tight properties.
A device-to-device, D2D, communication method, performed by a user equipment, comprising: sending first service cycle indication information to a base station, wherein the first service cycle indication information is used to indicate that a service cycle of to-be-sent data is a first cycle having a first time duration; receiving first transmission resource indication information from the base station, wherein the first transmission resource indication information is used to indicate a first transmission resource for sending the to-be-sent data of the first cycle; performing D2D communication on the first transmission resource; and when the user equipment detects that the service cycle changes, sending second service cycle indication information to the base station, wherein the second service cycle indication information is used to indicate that the service cycle of the to-be-sent data is a second cycle having a second time duration, and the first time duration and the second time duration are different; receiving second transmission resource indication information from the base station, wherein the second transmission resource indication information is used to indicate a second transmission resource for sending the to-be-sent data of the second cycle; and performing D2D communication on the second transmission resource. sending first service cycle indication information to a base station, wherein the first service cycle indication information is used to indicate that a service cycle of to-be-sent data is a first cycle having a first time duration; receiving first transmission resource indication information from the base station, wherein the first transmission resource indication information is used to indicate a first transmission resource for sending the to-be-sent data of the first cycle; performing D2D communication on the first transmission resource; and when the user equipment detects that the service cycle changes, sending second service cycle indication information to the base station, wherein the second service cycle indication information is used to indicate that the service cycle of the to-be-sent data is a second cycle having a second time duration, and the first time duration and the second time duration are different; receiving second transmission resource indication information from the base station, wherein the second transmission resource indication information is used to indicate a second transmission resource for sending the to-be-sent data of the second cycle; and performing D2D communication on the second transmission resource.