mhurhangee/patent-ind-claim-en huggingface dataset:
A drill string rod to form a part of a drill string, the rod comprising: an elongate hollow main length section extending axially between a first end and a second end ; a male spigot portion provided at the second end having an externally threaded section and a non-threaded shank positioned axially intermediate the main length section and the threaded section ; the shank having a transition section positioned adjacent the main length section or a radially projecting shoulder at the second end , the transition section having an outside diameter that increases in a direction from the spigot portion to the main length section or the shoulder ; wherein the cross-sectional shape profile of the outer surface of the transition section in the plane of the longitudinal axis comprises a segment of an ellipse having semi-major axis (a); a semi-minor axis (b) and an exponential factor (n) according to the equation: x a n + y b n = 1 characterised in that : the ratio of the semi-major to semi-minor axes (a:b) is within the range 2b<a<8b. an elongate hollow main length section extending axially between a first end and a second end ; a male spigot portion provided at the second end having an externally threaded section and a non-threaded shank positioned axially intermediate the main length section and the threaded section ; the shank having a transition section positioned adjacent the main length section or a radially projecting shoulder at the second end , the transition section having an outside diameter that increases in a direction from the spigot portion to the main length section or the shoulder ; wherein the cross-sectional shape profile of the outer surface of the transition section in the plane of the longitudinal axis comprises a segment of an ellipse having semi-major axis (a); a semi-minor axis (b) and an exponential factor (n) according to the equation: x a n + y b n = 1 characterised in that : the ratio of the semi-major to semi-minor axes (a:b) is within the range 2b<a<8b.
A method of providing a battery power notification in a mobile device to a user, the method comprising: determining a future application to be run on the mobile device ; receiving , from a peripheral device that is connected with the mobile device , information on a remaining battery life of the peripheral device , the peripheral device being used in running at least a part of the future application; determining whether the remaining battery life of the peripheral device is enough to run the at least part of the future application, based on a power consumption of a preceding application running before the future application; and outputting an alarm indicating a battery insufficiency of the peripheral device in response to the determining that the remaining battery life of the peripheral device is not enough. determining a future application to be run on the mobile device ; receiving , from a peripheral device that is connected with the mobile device , information on a remaining battery life of the peripheral device , the peripheral device being used in running at least a part of the future application; determining whether the remaining battery life of the peripheral device is enough to run the at least part of the future application, based on a power consumption of a preceding application running before the future application; and outputting an alarm indicating a battery insufficiency of the peripheral device in response to the determining that the remaining battery life of the peripheral device is not enough.
A wiper blade holder for a wiper blade to be used to remove the printing fluid off, comprising: a planar surface ; a curved mounting surface coupled adjacent to the planar surface ; and wherein a wiper blade is clamped to the planar surface , characterized in that a bottom of the wiper blade rests on the curved mounting surface such that a free length of the wiper blade is different at a plurality of points along a width of the wiper blade . a planar surface ; a curved mounting surface coupled adjacent to the planar surface ; and wherein a wiper blade is clamped to the planar surface , characterized in that a bottom of the wiper blade rests on the curved mounting surface such that a free length of the wiper blade is different at a plurality of points along a width of the wiper blade .
A semiconductor device structure, comprising: a substrate , wherein the substrate comprises a device region and a boundary region , and the device region comprises a channel region and a source/drain region ; vertically stacked nanosheet layers formed on the channel region , surrounded by a gate stack , and vertically stacked nanosheet layers parallel to the vertically stacked nanosheet layers formed on the channel region , formed on the boundary region ; epitaxial structures formed on the source/drain region surrounded by a first contact structure and separate epitaxial structures formed on the boundary region surrounded by a second contact structure , the contact structures separated by an interlayer dielectric and interconnected by a metal layer on the contact structures ; and a power rail formed directly above the epitaxial structures on the boundary region and electrically connected to the metal layer with a via , wherein the epitaxial structures formed on the source/drain region are in contact with the nanosheet layers formed on the channel region and function as a source/drain, and wherein the epitaxial structures on the source/drain region on the device region and the epitaxial structures on the boundary region are spaced apart from each other. a substrate , wherein the substrate comprises a device region and a boundary region , and the device region comprises a channel region and a source/drain region ; vertically stacked nanosheet layers formed on the channel region , surrounded by a gate stack , and vertically stacked nanosheet layers parallel to the vertically stacked nanosheet layers formed on the channel region , formed on the boundary region ; epitaxial structures formed on the source/drain region surrounded by a first contact structure and separate epitaxial structures formed on the boundary region surrounded by a second contact structure , the contact structures separated by an interlayer dielectric and interconnected by a metal layer on the contact structures ; and a power rail formed directly above the epitaxial structures on the boundary region and electrically connected to the metal layer with a via , wherein the epitaxial structures formed on the source/drain region are in contact with the nanosheet layers formed on the channel region and function as a source/drain, and wherein the epitaxial structures on the source/drain region on the device region and the epitaxial structures on the boundary region are spaced apart from each other.
An electron microscope comprising: an electron optical system; and a control unit that controls the electron optical system, the control unit performing: processing for determining a standard deviation of a brightness distribution of an electron microscope image; processing for determining an optimum value of a parameter of the electron optical system such that the standard deviation becomes the maximum, by Gaussian process regression; and processing for capturing the electron microscope image with setting a value of the parameter to the optimum value, and the control unit repeating the processing for determining the standard deviation, the processing for determining the optimum value, and the processing for capturing the electron microscope image to determine a value of the parameter. an electron optical system; and a control unit that controls the electron optical system, the control unit performing: processing for determining a standard deviation of a brightness distribution of an electron microscope image; processing for determining an optimum value of a parameter of the electron optical system such that the standard deviation becomes the maximum, by Gaussian process regression; and processing for capturing the electron microscope image with setting a value of the parameter to the optimum value, and the control unit repeating the processing for determining the standard deviation, the processing for determining the optimum value, and the processing for capturing the electron microscope image to determine a value of the parameter. processing for determining a standard deviation of a brightness distribution of an electron microscope image; processing for determining an optimum value of a parameter of the electron optical system such that the standard deviation becomes the maximum, by Gaussian process regression; and processing for capturing the electron microscope image with setting a value of the parameter to the optimum value, and the control unit repeating the processing for determining the standard deviation, the processing for determining the optimum value, and the processing for capturing the electron microscope image to determine a value of the parameter.
An image processing method comprising: estimating sensor responses of the human visual system for an input image , the sensor responses including sensor responses for cone sensors including a first cone sensor set for a first human observer or observer type and a second, different, cone sensor set for a second human observer or observer type, the first cone sensor set being a normal cone sensor set and the second cone sensor set being an anomalous cone sensor set; and, determining, in dependence on the sensor responses, a transform mapping for application to a source image to generate a modified image ; characterised in that the step of determining the transform mapping includes optimizing an objective function with respect to the modified image , the modified image being an optimal solution of the objective function when the modified image simultaneously induces the same estimated responses for the normal cone sensor set and the anomalous cone sensor set. estimating sensor responses of the human visual system for an input image , the sensor responses including sensor responses for cone sensors including a first cone sensor set for a first human observer or observer type and a second, different, cone sensor set for a second human observer or observer type, the first cone sensor set being a normal cone sensor set and the second cone sensor set being an anomalous cone sensor set; and, determining, in dependence on the sensor responses, a transform mapping for application to a source image to generate a modified image ; characterised in that the step of determining the transform mapping includes optimizing an objective function with respect to the modified image , the modified image being an optimal solution of the objective function when the modified image simultaneously induces the same estimated responses for the normal cone sensor set and the anomalous cone sensor set.
A computer-implemented method , comprising: receiving data corresponding to a plurality of radiographic imaging slices of a body; determining a position of a needle inserted in the body based on combining information from at least one of the radiographic imaging slices comprising an indication of a first portion of the needle outside the body and at least one other of the radiographic imaging slices comprising an indication of a second portion of the needle inside the body, characterized in that the method further comprises: the determining of the position of the needle comprises generating a combined needle region by merging data corresponding to a position of the first portion of the needle outside the body with data corresponding to a position of the second portion of the needle inside the body; and generating display data for providing a visual representation of the needle in an image of the body in combination with a visual representation of at least the first and second portions of the needle superimposed on the image, wherein the image is in a plane that is digitally tilted with respect to a plane parallel to the plurality of radiographic imaging slices. receiving data corresponding to a plurality of radiographic imaging slices of a body; determining a position of a needle inserted in the body based on combining information from at least one of the radiographic imaging slices comprising an indication of a first portion of the needle outside the body and at least one other of the radiographic imaging slices comprising an indication of a second portion of the needle inside the body, characterized in that the method further comprises: the determining of the position of the needle comprises generating a combined needle region by merging data corresponding to a position of the first portion of the needle outside the body with data corresponding to a position of the second portion of the needle inside the body; and generating display data for providing a visual representation of the needle in an image of the body in combination with a visual representation of at least the first and second portions of the needle superimposed on the image, wherein the image is in a plane that is digitally tilted with respect to a plane parallel to the plurality of radiographic imaging slices. the determining of the position of the needle comprises generating a combined needle region by merging data corresponding to a position of the first portion of the needle outside the body with data corresponding to a position of the second portion of the needle inside the body; and generating display data for providing a visual representation of the needle in an image of the body in combination with a visual representation of at least the first and second portions of the needle superimposed on the image, wherein the image is in a plane that is digitally tilted with respect to a plane parallel to the plurality of radiographic imaging slices.
A urinary stone collecting device comprising: a filter part having a concave face and an opposite convex face, and a multiplicity of holes forming a filter , a lid part connected to the filter part by a hinge , so as to be movable between a deployed position where it acts as a handle, and a closed position where it covers the concave face of the filter part and encloses a volume between the filter and lid parts, in order to retain urinary stones collected by the filter, and a locking device for the filter and lid parts in the closed position, characterized in that the filter part comprises a receptacle for collecting urine for performing a urine pH analysis. a filter part having a concave face and an opposite convex face, and a multiplicity of holes forming a filter , a lid part connected to the filter part by a hinge , so as to be movable between a deployed position where it acts as a handle, and a closed position where it covers the concave face of the filter part and encloses a volume between the filter and lid parts, in order to retain urinary stones collected by the filter, and a locking device for the filter and lid parts in the closed position, characterized in that the filter part comprises a receptacle for collecting urine for performing a urine pH analysis.
Asymmetric solar receiver suitable for its installation in heliostat tower solar power plants, said receiver being adapted to cover at least an angular region of 180° around a tower , wherein the receiver comprises an effective surface comprising a plurality of panels, wherein one of the panels has a height lower than an adjacent panel, so that the effective surface density of the receiver for receiving radiation varies depending on its orientation over the covered angular region thereof.
A surface-modified nanofiber comprising: a molecular modification site on the surface of a polymer nanofiber, and which is characterized in that the molecular modification site exhibits proton conductivity and the molecular modification site has features A), B) and C) below, A) The molecular modification site has a functional group that can interact with a polymer nanofiber; B) The molecular modification site is composed from an acidic substance and a basic substance; C) The acidic substance and the basic substance comprise an alternating layered structure. and which is characterized in that the molecular modification site exhibits proton conductivity and the molecular modification site has features A), B) and C) below, A) The molecular modification site has a functional group that can interact with a polymer nanofiber; B) The molecular modification site is composed from an acidic substance and a basic substance; C) The acidic substance and the basic substance comprise an alternating layered structure. A) The molecular modification site has a functional group that can interact with a polymer nanofiber; B) The molecular modification site is composed from an acidic substance and a basic substance; C) The acidic substance and the basic substance comprise an alternating layered structure.
A semiconductor device comprises: a plurality of transistor sections (T1) that are separated from each other, wherein each of the plurality of transistor sections (T1) comprises an emitter electrode and a collector electrode ; and a plurality of diode sections (D1) that are separated from each other, wherein each of the plurality of diode sections (D1) comprises an anode electrode and a cathode electrode , wherein each of the plurality of transistor sections (T1) is electrically coupled to a common gate pad , and a resulting ratio between an active transistor part and an active diode part of the semiconductor device may be adjusted by activating a first number of transistor sections (T1) by selectively contacting the emitter electrodes and the collector electrodes of the first number of transistor sections (T1), and by activating a second number of diode sections (D1) by selectively contacting the anode electrodes and the cathode electrodes of the second number of diode sections (D1). a plurality of transistor sections (T1) that are separated from each other, wherein each of the plurality of transistor sections (T1) comprises an emitter electrode and a collector electrode ; and a plurality of diode sections (D1) that are separated from each other, wherein each of the plurality of diode sections (D1) comprises an anode electrode and a cathode electrode , wherein each of the plurality of transistor sections (T1) is electrically coupled to a common gate pad , and a resulting ratio between an active transistor part and an active diode part of the semiconductor device may be adjusted by activating a first number of transistor sections (T1) by selectively contacting the emitter electrodes and the collector electrodes of the first number of transistor sections (T1), and by activating a second number of diode sections (D1) by selectively contacting the anode electrodes and the cathode electrodes of the second number of diode sections (D1).
A method for Bluetooth connection, performed by a wearable device comprising a first processor, a second processor, a first Bluetooth module, and a second Bluetooth module, the first processor being configured to run a first system, the second processor being configured to run a second system, the first processor being configured to communicate with the first Bluetooth module, and the second processor being configured to communicate with the second Bluetooth module, wherein the wearable device comprises a watch mode and a bracelet mode, and when the wearable device is in the watch mode, the first system and the second system run simultaneously; when the wearable device is in the bracelet mode, the first system is turned off and the second system is running, the method comprises: when the wearable device is in the watch mode and the first system is running, pairing (202; 502) with a terminal through the first Bluetooth module so as to obtain a terminal identifier corresponding to the terminal; in response to a mode switching instruction, turning off (204; 504) the first system and the first Bluetooth module and turning on the second Bluetooth module, wherein the mode switching instruction indicates the wearable device to switch from the watch mode to the bracelet mode; and establishing (206; 506) by the second system, a connection to the terminal through the second Bluetooth module according to the terminal identifier. when the wearable device is in the watch mode and the first system is running, pairing (202; 502) with a terminal through the first Bluetooth module so as to obtain a terminal identifier corresponding to the terminal; in response to a mode switching instruction, turning off (204; 504) the first system and the first Bluetooth module and turning on the second Bluetooth module, wherein the mode switching instruction indicates the wearable device to switch from the watch mode to the bracelet mode; and establishing (206; 506) by the second system, a connection to the terminal through the second Bluetooth module according to the terminal identifier.
A method for transmitting control information, for a control information transmitting terminal, the control information comprising a first part of control information and a second part of control information; the method comprising: transmitting the first part of control information to a control information receiving terminal through a first physical layer channel occupying a first time-frequency resource; transmitting first indication information to the control information receiving terminal, the first indication information being configured to indicate a size of a second time-frequency resource and the second time-frequency resource being configured to be occupied when transmitting the second part of control information; and transmitting the second part of control information to the control information receiving terminal through a second physical layer channel occupying the second time-frequency resource, wherein the method further comprises: calculating the size of the second time-frequency resource based on a first parameter; and determining the first indication information based on a value of the first parameter, wherein the second physical layer channel is a physical layer channel for data transmission; and the first parameter includes a parameter for adjusting a ratio of coding efficiencies of the second part of control information and data information. transmitting the first part of control information to a control information receiving terminal through a first physical layer channel occupying a first time-frequency resource; transmitting first indication information to the control information receiving terminal, the first indication information being configured to indicate a size of a second time-frequency resource and the second time-frequency resource being configured to be occupied when transmitting the second part of control information; and transmitting the second part of control information to the control information receiving terminal through a second physical layer channel occupying the second time-frequency resource, wherein the method further comprises: calculating the size of the second time-frequency resource based on a first parameter; and determining the first indication information based on a value of the first parameter, wherein the second physical layer channel is a physical layer channel for data transmission; and the first parameter includes a parameter for adjusting a ratio of coding efficiencies of the second part of control information and data information. calculating the size of the second time-frequency resource based on a first parameter; and determining the first indication information based on a value of the first parameter, wherein the second physical layer channel is a physical layer channel for data transmission; and the first parameter includes a parameter for adjusting a ratio of coding efficiencies of the second part of control information and data information.