mhurhangee/ep-ind-claims huggingface dataset:
A flexible display device comprising: a display panel configured to comprise a flexible first substrate that comprises a plurality of pixels, a second substrate that is facing-coupled to the first substrate and a back plate provided at a bottom of the first substrate; and a panel driver configured to comprise a first flexible circuit board connected to the first substrate, wherein a driving IC which supplies a driving signal to the display panel is mounted on the first flexible circuit board, wherein the first substrate comprises: a display part covered by the second substrate, and configured to comprise the plurality of pixels; a non-display part provided near the display part, and coupled to the second substrate; a bending part configured to extend from one side of the non-display part, and bent to under the first substrate at a certain curvature; and a pad part, disposed in one side of the bending part under the first substrate, connected to one side of the first flexible circuit board, and wherein the flexible display device further comprises an adhesive member provided at a bottom of the back plate which adheres to the panel driver and is configured to restrict an elastic restoration force of the bending part for a shape of the bending part to be maintained. a display panel configured to comprise a flexible first substrate that comprises a plurality of pixels, a second substrate that is facing-coupled to the first substrate and a back plate provided at a bottom of the first substrate; and a panel driver configured to comprise a first flexible circuit board connected to the first substrate, wherein a driving IC which supplies a driving signal to the display panel is mounted on the first flexible circuit board, wherein the first substrate comprises: a display part covered by the second substrate, and configured to comprise the plurality of pixels; a non-display part provided near the display part, and coupled to the second substrate; a bending part configured to extend from one side of the non-display part, and bent to under the first substrate at a certain curvature; and a pad part, disposed in one side of the bending part under the first substrate, connected to one side of the first flexible circuit board, and a display part covered by the second substrate, and configured to comprise the plurality of pixels; a non-display part provided near the display part, and coupled to the second substrate; a bending part configured to extend from one side of the non-display part, and bent to under the first substrate at a certain curvature; and a pad part, disposed in one side of the bending part under the first substrate, connected to one side of the first flexible circuit board, and wherein the flexible display device further comprises an adhesive member provided at a bottom of the back plate which adheres to the panel driver and is configured to restrict an elastic restoration force of the bending part for a shape of the bending part to be maintained.
A tube end form (20, 40, 60), comprising: a first section (23, 43, 63) arranged next to an end (22, 42, 62) of the tube end form and including a first radially outward facing surface (24, 44, 64); a second section (29, 49, 69) including a second radially outward facing surface (30, 50, 70); and, a shoulder (27, 47, 67) axially arranged next to the first section and between the first and second sections and having a radially outward facing surface (26, 46, 66) increasing in diameter in the axial direction away from the end (22, 42, 62), the radially outward facing surface including: a first frusto-conical surface (26A, 46A, 66A) arranged at a first angle (α1, α3, α5) relative to the first radially outward facing surface; and a second frusto-conical surface (26B, 46B, 66B) arranged at a second angle (α2, α4, α6) relative to the first radially outward facing surface; wherein the first angle is greater than the second angle. a first section (23, 43, 63) arranged next to an end (22, 42, 62) of the tube end form and including a first radially outward facing surface (24, 44, 64); a second section (29, 49, 69) including a second radially outward facing surface (30, 50, 70); and, a shoulder (27, 47, 67) axially arranged next to the first section and between the first and second sections and having a radially outward facing surface (26, 46, 66) increasing in diameter in the axial direction away from the end (22, 42, 62), the radially outward facing surface including: a first frusto-conical surface (26A, 46A, 66A) arranged at a first angle (α1, α3, α5) relative to the first radially outward facing surface; and a second frusto-conical surface (26B, 46B, 66B) arranged at a second angle (α2, α4, α6) relative to the first radially outward facing surface; a first frusto-conical surface (26A, 46A, 66A) arranged at a first angle (α1, α3, α5) relative to the first radially outward facing surface; and a second frusto-conical surface (26B, 46B, 66B) arranged at a second angle (α2, α4, α6) relative to the first radially outward facing surface; wherein the first angle is greater than the second angle.
A method of detecting a subject suffering from, or at risk of suffering from, bladder cancer the method comprising i) providing a urine sample isolated from a subject; ii) isolating cells from said sample to provide a cell sample; iii) contacting the sample with a specific binding member capable of binding to a minichromosome maintenance polypeptide(s); iv) determining the binding of said specific binding member to the cell sample; v) counting those cells in said cell sample which bound to said specific binding member to provide a cell count; vi) determining, based on the cell count, whether the subject has, or is at risk of having, bladder cancer; wherein the MCM is MCM 2 wherein said determining step (vi) is based upon a measurement of MCM labelled cells relative to a threshold number, wherein said measurement above or equal to said threshold is indicative of bladder cancer or a risk of bladder cancer and wherein the threshold number is at least 50 cells per total cell count of 5000 cells or at least 200 cells per total cell count of 5000 cells when the subject has a previous occurrence of bladder cancer. i) providing a urine sample isolated from a subject; ii) isolating cells from said sample to provide a cell sample; iii) contacting the sample with a specific binding member capable of binding to a minichromosome maintenance polypeptide(s); iv) determining the binding of said specific binding member to the cell sample; v) counting those cells in said cell sample which bound to said specific binding member to provide a cell count; vi) determining, based on the cell count, whether the subject has, or is at risk of having, bladder cancer; wherein the MCM is MCM 2 wherein said determining step (vi) is based upon a measurement of MCM labelled cells relative to a threshold number, wherein said measurement above or equal to said threshold is indicative of bladder cancer or a risk of bladder cancer and wherein the threshold number is at least 50 cells per total cell count of 5000 cells or at least 200 cells per total cell count of 5000 cells when the subject has a previous occurrence of bladder cancer.
A method of performing a handover of a mobile station from a source base station to a target base station, comprising: determining, at the source base station, a communication delay (212,316) between the source base station and the target base station; computing, at the source base station, a first action time (214, 318) taking into account the determined communication delay, the first action time specifying a time when the target base station is able to allocate resources to the mobile station for the handover; sending the first action time (220, 324) to the target base station for use by the target base station to allocate resources for the handover; the method further characterized by: a second action time (214, 318) different from the first action time, the second action time also taking into account the determined communication delay; and sending the second action time (216, 320) to the mobile station to indicate to the mobile station a time at which the mobile station is expected to receive a message from the target base station regarding allocation of resources for the handover. determining, at the source base station, a communication delay (212,316) between the source base station and the target base station; computing, at the source base station, a first action time (214, 318) taking into account the determined communication delay, the first action time specifying a time when the target base station is able to allocate resources to the mobile station for the handover; sending the first action time (220, 324) to the target base station for use by the target base station to allocate resources for the handover; the method further characterized by: a second action time (214, 318) different from the first action time, the second action time also taking into account the determined communication delay; and sending the second action time (216, 320) to the mobile station to indicate to the mobile station a time at which the mobile station is expected to receive a message from the target base station regarding allocation of resources for the handover. a second action time (214, 318) different from the first action time, the second action time also taking into account the determined communication delay; and sending the second action time (216, 320) to the mobile station to indicate to the mobile station a time at which the mobile station is expected to receive a message from the target base station regarding allocation of resources for the handover.
A stent graft comprising: a main body stent graft having a distal end and a proximal end, wherein the main body stent graft has a length in the range from about 100 mm to about 120 mm, wherein the main body stent graft has a diameter at the proximal end in the range from about 30 mm to about 45 mm; the stent graft comprises a first lumen defined at the distal end of the main body stent graft, wherein the first lumen has a diameter in the range from about 18 mm to about 20 mm; the stent graft comprises a second lumen defined at the distal end of the main body stent graft, wherein the second lumen has a diameter in the range from about 16 mm to about 18 mm, wherein the first lumen and the second lumen have the same length from about 50 mm to about 70 mm, wherein the first lumen is secured to the second lumen along a shared length; and wherein the main body stent graft defines a tubular wall that is contiguous with the first lumen and the second lumen such that any fluid entering the main body stent graft must exit through one of the first lumen or the second lumen. a main body stent graft having a distal end and a proximal end, wherein the main body stent graft has a length in the range from about 100 mm to about 120 mm, wherein the main body stent graft has a diameter at the proximal end in the range from about 30 mm to about 45 mm; the stent graft comprises a first lumen defined at the distal end of the main body stent graft, wherein the first lumen has a diameter in the range from about 18 mm to about 20 mm; the stent graft comprises a second lumen defined at the distal end of the main body stent graft, wherein the second lumen has a diameter in the range from about 16 mm to about 18 mm, wherein the first lumen and the second lumen have the same length from about 50 mm to about 70 mm, wherein the first lumen is secured to the second lumen along a shared length; and wherein the main body stent graft defines a tubular wall that is contiguous with the first lumen and the second lumen such that any fluid entering the main body stent graft must exit through one of the first lumen or the second lumen.
A method in a mobile device for communicating data packets with a first cell operating on an unlicensed carrier, said method comprising: monitoring, in the mobile device, for a signal addressed to the mobile device from the first cell during an active time having an initial duration equal to an initial active time: characterized by extending, in the mobile device, the active time in response to a determination that the unlicensed carrier is occupied during at least a portion of the initial active time; and communicating a data packet between the mobile device and the first cell during the extended active time when the unlicensed carrier is not otherwise occupied, and wherein the active time comprises a discontinuous reception, DRX, active time. monitoring, in the mobile device, for a signal addressed to the mobile device from the first cell during an active time having an initial duration equal to an initial active time: characterized by extending, in the mobile device, the active time in response to a determination that the unlicensed carrier is occupied during at least a portion of the initial active time; and communicating a data packet between the mobile device and the first cell during the extended active time when the unlicensed carrier is not otherwise occupied, and wherein the active time comprises a discontinuous reception, DRX, active time.
A computer-implemented method of predicting the collection of particles impinging on the surface of an object moving in a flow field, comprising the following steps: - preparing a discrete model of said object and the surrounding flow, including a particle projection area formed by a mesh of cells, and a mesh of cells of said surface; - simulating and analysing the launching of particles from said projection area to the object surface; whereby the particle trajectories are calculated using a Lagrangian approach characterized in that the particles projection area is formed by a mesh of cells with an identical size, for each cell of the projection area, both the density Di of launched particles and their size distribution are identical, and for each cell of said surface the local collection efficiency parameter β is obtained by dividing the density Df of particles impacting against said cell by the density Di of particles launched from the projection area. - preparing a discrete model of said object and the surrounding flow, including a particle projection area formed by a mesh of cells, and a mesh of cells of said surface; - simulating and analysing the launching of particles from said projection area to the object surface; whereby the particle trajectories are calculated using a Lagrangian approach characterized in that the particles projection area is formed by a mesh of cells with an identical size, for each cell of the projection area, both the density Di of launched particles and their size distribution are identical, and for each cell of said surface the local collection efficiency parameter β is obtained by dividing the density Df of particles impacting against said cell by the density Di of particles launched from the projection area.
A method for transferring charge from a photo sensing region to a charge-coupled device in an image sensor, the method comprising the steps of: (a) providing a plurality of pixels including a photo sensing region for collecting photo-generated charge and a charge-coupled device region between which is a transfer region; (b) providing a barrier in the charge-coupled device for causing the transfer of the charge through the charge-coupled device; characterised in that the method further comprises the steps of: (c) providing the transfer region having a lower barrier than the charge-coupled device so that excess charge in the charge-coupled device flows into the photo sensing region; (d) reading out a first image, wherein step (d) comprises the steps of lowering the barrier of the transfer region to cause the transfer of charge from the photo sensing region to the charge-coupled device; raising the barrier of the transfer region to allow excess charge in the charge-coupled device to flow into the photo sensing region; and alternately lowering and raising the barrier and one or more additional barriers in the charge couple-device for reading out the image; and repeating steps, and for reading out a second image. (a) providing a plurality of pixels including a photo sensing region for collecting photo-generated charge and a charge-coupled device region between which is a transfer region; (b) providing a barrier in the charge-coupled device for causing the transfer of the charge through the charge-coupled device; characterised in that the method further comprises the steps of: (c) providing the transfer region having a lower barrier than the charge-coupled device so that excess charge in the charge-coupled device flows into the photo sensing region; (d) reading out a first image, wherein step (d) comprises the steps of lowering the barrier of the transfer region to cause the transfer of charge from the photo sensing region to the charge-coupled device; raising the barrier of the transfer region to allow excess charge in the charge-coupled device to flow into the photo sensing region; and alternately lowering and raising the barrier and one or more additional barriers in the charge couple-device for reading out the image; and repeating steps, and for reading out a second image.
A pipette for use with a pipette tip, comprising • a pipette housing, • a spigot protruding outwards from the pipette housing for clamping a seating region on the inner circumference of a tip cylinder of a pipette tip having a mounting opening on the upper end, wherein the spigot has a through-bore for inserting a plunger rod of a tip plunger of the pipette tip, • a drive apparatus comprising a stroke rod, which is aligned with the through-bore and is guided in the pipette housing displaceably in the longitudinal direction of the spigot, with an axial bore and a hole on the lower end for inserting the upper end of the plunger rod and for displacing a plunger of the tip plunger that is guided in a sealing manner in a plunger travel region between a tip opening on the lower end and the seating region of the tip cylinder, and • a clamping apparatus comprising at least one clamping slot (29.1, 29.2), which is open toward the axial bore, on the outer circumference of the stroke rod and a clamping spring that sits on the outer circumference of the stroke rod, engages in the clamping slot (29.1, 29.2) with a leg (30.2, 30.3), and projects into the axial bore to firmly clamp the plunger rod, which has an insertion bevel and/or a clamping groove, in the axial bore of the stroke rod. • a pipette housing, • a spigot protruding outwards from the pipette housing for clamping a seating region on the inner circumference of a tip cylinder of a pipette tip having a mounting opening on the upper end, wherein the spigot has a through-bore for inserting a plunger rod of a tip plunger of the pipette tip, • a drive apparatus comprising a stroke rod, which is aligned with the through-bore and is guided in the pipette housing displaceably in the longitudinal direction of the spigot, with an axial bore and a hole on the lower end for inserting the upper end of the plunger rod and for displacing a plunger of the tip plunger that is guided in a sealing manner in a plunger travel region between a tip opening on the lower end and the seating region of the tip cylinder, and • a clamping apparatus comprising at least one clamping slot (29.1, 29.2), which is open toward the axial bore, on the outer circumference of the stroke rod and a clamping spring that sits on the outer circumference of the stroke rod, engages in the clamping slot (29.1, 29.2) with a leg (30.2, 30.3), and projects into the axial bore to firmly clamp the plunger rod, which has an insertion bevel and/or a clamping groove, in the axial bore of the stroke rod.
Driving dynamics control system for vehicles, comprising at least one driving dynamics controller that is fed setpoint specifications ( w), on the one hand, and driving state variables ( x) on the other hand, as input data, and comprising a plurality of actuators (1,,m) that can be controlled and/or regulated and modify the dynamics of the vehicle, such as steering, adjustable independently of the driver, on a front and/or rear axle of the vehicle, a chassis adjustable independently of the driver, a brake adjustable independently of the driver, and a drive train adjustable independently of the driver, the driving dynamics controller determining a central control specification ( v) from the setpoint specifications ( w) and the driving state variables ( x) and feeding it to a distribution algorithm that distributes the control specification ( v) into manipulated variables ( u) for driving the actuators (1,,m), the distribution algorithm being fed the state of the actuators (1 to m) in order, when generating the manipulated variables ( u), to take account of the current control potential and the current actuating speed of the actuators (1 to m) and their possible contribution to the implementation of the control specification (v), characterized in that the distribution algorithm includes a matrix with the aid of which the manipulated variables ( u) are multiplied in order to obtain the control specification ( v), the matrix including for each operating point the current control potential of the actuators (1 to m) in order to ensure an optimum distribution of the control specification ( v) into the manipulated variables ( u) of the actuators (1 to m).
A method of operating a base station in a cellular telecommunications network, the base station having a central base station unit and a distributed base station unit, wherein the central base station unit and distributed base station unit communicate over a fronthaul link, and the cellular telecommunications network further includes a User Equipment, UE, consuming a service via the base station in which communications between the central base station unit and UE utilise a configurable error mitigation technique, the method comprising the steps of: communicating samples over the fronthaul link at a first bit width; determining whether a latency measure, or derivative thereof, of the service satisfies a threshold; and characterised in that, in response, to the determination: reconfiguring the samples to use a second bit width, wherein, if it is determined that the latency measure, or derivative thereof, of the service is more than the threshold, then the second bit width has more bits per sample than the first bit width, and if it is determined that the latency measure, or derivative thereof, of the service is less than the threshold, then the second bit width has fewer bits per sample than the first bit width, and reconfiguring the error mitigation technique; communicating samples over the fronthaul link at the second bit width; and communicating between the central base station unit and UE using the reconfigured error mitigation technique. communicating samples over the fronthaul link at a first bit width; determining whether a latency measure, or derivative thereof, of the service satisfies a threshold; and characterised in that, in response, to the determination: reconfiguring the samples to use a second bit width, wherein, if it is determined that the latency measure, or derivative thereof, of the service is more than the threshold, then the second bit width has more bits per sample than the first bit width, and if it is determined that the latency measure, or derivative thereof, of the service is less than the threshold, then the second bit width has fewer bits per sample than the first bit width, and reconfiguring the error mitigation technique; reconfiguring the samples to use a second bit width, wherein, if it is determined that the latency measure, or derivative thereof, of the service is more than the threshold, then the second bit width has more bits per sample than the first bit width, and if it is determined that the latency measure, or derivative thereof, of the service is less than the threshold, then the second bit width has fewer bits per sample than the first bit width, and reconfiguring the error mitigation technique; communicating samples over the fronthaul link at the second bit width; and communicating between the central base station unit and UE using the reconfigured error mitigation technique.