mhurhangee/patent-ind-claim-en huggingface dataset:
An X-ray image processor for generating X-ray imaging information on an imaging region of a subject (M1) to which X-ray CT imaging is executed, the X-ray image processor comprising: an image information generator generating stitch imaging information by joining first X-ray imaging information on a first imaging region to which the X-ray CT imaging is executed first and second X-ray imaging information on a second imaging region to which the X-ray CT imaging is executed after the first imaging region, the first imaging region and the second imaging region being partially overlapping each other along an axial direction of an imaging central axis of the imaging region, at least one of the first X-ray imaging information and the second X-ray imaging information, based on which the stitch imaging information is generated, being offset CT imaging information on the imaging region to which an offset CT imaging is executed. an image information generator generating stitch imaging information by joining first X-ray imaging information on a first imaging region to which the X-ray CT imaging is executed first and second X-ray imaging information on a second imaging region to which the X-ray CT imaging is executed after the first imaging region, the first imaging region and the second imaging region being partially overlapping each other along an axial direction of an imaging central axis of the imaging region, at least one of the first X-ray imaging information and the second X-ray imaging information, based on which the stitch imaging information is generated, being offset CT imaging information on the imaging region to which an offset CT imaging is executed.
A composition comprising active agents CHIR99021 at 0.5 micromolar to 10 micromolar; LDN193189 at 10 nanomolar to 500 nanomolar; A83-01 at 0.05 micromolar to 5 micromolar; Hh-Agl.5 at 0.1 micromolar to 100 micromolar; retinoic acid at 0.1 micromolar to 100 micromolar; SMER28 at 0.1 micromolar to 100 micromolar; RG108 at 0.5 micromolar to 50 micromolar, parnate at 0.1 micromolar to 25 micromolar, and bFGF at 0.5-100 ng/mL. CHIR99021 at 0.5 micromolar to 10 micromolar; LDN193189 at 10 nanomolar to 500 nanomolar; A83-01 at 0.05 micromolar to 5 micromolar; Hh-Agl.5 at 0.1 micromolar to 100 micromolar; retinoic acid at 0.1 micromolar to 100 micromolar; SMER28 at 0.1 micromolar to 100 micromolar; RG108 at 0.5 micromolar to 50 micromolar, parnate at 0.1 micromolar to 25 micromolar, and bFGF at 0.5-100 ng/mL.
An irrigation pipe having a pipe wall and comprising an irrigation pipe connector attached to an inner surface of the pipe wall, the irrigation pipe connector comprising: a core having an axis (c) and being adapted to connect to an irrigation element; a wing connected to the core and extending radially outwardly therefrom relative to the axis (c), the wing comprising a radially inward segment and a peripheral segment that extends radially outwardly from the radially inward segment; wherein: a thickness (W2) of the peripheral segment is smaller than a thickness (W1) of the radially inward segment , the thicknesses of the segments being taken in a direction along the axis (C), characterized in that the inner surface of the pipe wall being coated by a water impervious layer and the irrigation pipe connector being attached by welding to the water impervious layer. a core having an axis (c) and being adapted to connect to an irrigation element; a wing connected to the core and extending radially outwardly therefrom relative to the axis (c), the wing comprising a radially inward segment and a peripheral segment that extends radially outwardly from the radially inward segment; wherein: a thickness (W2) of the peripheral segment is smaller than a thickness (W1) of the radially inward segment , the thicknesses of the segments being taken in a direction along the axis (C), characterized in that the inner surface of the pipe wall being coated by a water impervious layer and the irrigation pipe connector being attached by welding to the water impervious layer. a thickness (W2) of the peripheral segment is smaller than a thickness (W1) of the radially inward segment , the thicknesses of the segments being taken in a direction along the axis (C), characterized in that the inner surface of the pipe wall being coated by a water impervious layer and the irrigation pipe connector being attached by welding to the water impervious layer.
A method for monitoring charge capacity of a battery cell, the method comprising: while the battery cell is in an idle state, determining an initial state of charge of the battery cell; thereafter monitoring a total amount of charge transferred from or to the battery cell while the battery cell is an active state; after the battery cell returns to the idle state, determining a final state of charge of the battery cell; computing an unfiltered charge capacity value using the initial state of charge, the final state of charge, and the total amount of charge transferred; updating a charge capacity estimate using the unfiltered charge capacity value; characterised in that the method further comprises: computing a magnitude of change in the charge capacity estimate relative to a previous estimate; and generating a cell capacity fault notification in the event that the magnitude of change in the charge capacity exceeds a threshold value. while the battery cell is in an idle state, determining an initial state of charge of the battery cell; thereafter monitoring a total amount of charge transferred from or to the battery cell while the battery cell is an active state; after the battery cell returns to the idle state, determining a final state of charge of the battery cell; computing an unfiltered charge capacity value using the initial state of charge, the final state of charge, and the total amount of charge transferred; updating a charge capacity estimate using the unfiltered charge capacity value; characterised in that the method further comprises: computing a magnitude of change in the charge capacity estimate relative to a previous estimate; and generating a cell capacity fault notification in the event that the magnitude of change in the charge capacity exceeds a threshold value. computing a magnitude of change in the charge capacity estimate relative to a previous estimate; and generating a cell capacity fault notification in the event that the magnitude of change in the charge capacity exceeds a threshold value.
A method for wireless communication at a user equipment, UE , comprising: receiving a first synchronization signal block, SSB, in a radio frequency band of a first cell of a first base station (105-b); reporting a physical cell identifier, PCI, for the first cell to a second base station (105-a) based at least in part on the received first SSB; receiving , from the second base station (105-a) in response to the reported PCI, an instruction to report a global cell identifier, CGI, for the first base station (105-b); and transmitting the CGI to the second base station (105-a) based at least in part on the received instruction and whether the radio frequency band of the first SSB was received in a synchronization raster. receiving a first synchronization signal block, SSB, in a radio frequency band of a first cell of a first base station (105-b); reporting a physical cell identifier, PCI, for the first cell to a second base station (105-a) based at least in part on the received first SSB; receiving , from the second base station (105-a) in response to the reported PCI, an instruction to report a global cell identifier, CGI, for the first base station (105-b); and transmitting the CGI to the second base station (105-a) based at least in part on the received instruction and whether the radio frequency band of the first SSB was received in a synchronization raster.
A mask comprising: an air chamber ; a filter for filtering air; a fan for drawing air from outside the air chamber into the air chamber and/or drawing air from inside the air chamber to the outside; a means for determining a rotation speed of the fan; and a controller , characterized in that the controller is adapted to: derive from the determined fan rotation speed or change in fan rotation speed a first value which, when the mask is worn, relates to a depth of breathing and a second value which, when the mask is worn, relates to a rate of breathing; and determine whether or not the mask is worn based on the first and second values. an air chamber ; a filter for filtering air; a fan for drawing air from outside the air chamber into the air chamber and/or drawing air from inside the air chamber to the outside; a means for determining a rotation speed of the fan; and a controller , characterized in that the controller is adapted to: derive from the determined fan rotation speed or change in fan rotation speed a first value which, when the mask is worn, relates to a depth of breathing and a second value which, when the mask is worn, relates to a rate of breathing; and determine whether or not the mask is worn based on the first and second values. derive from the determined fan rotation speed or change in fan rotation speed a first value which, when the mask is worn, relates to a depth of breathing and a second value which, when the mask is worn, relates to a rate of breathing; and determine whether or not the mask is worn based on the first and second values.
A method, comprising: detecting , by an accelerometer disposed in a mobile station motion of said mobile station ; changing a power state of the accelerometer in response to the accelerometer detecting motion of said device ; characterized in that the method further comprises: changing a power state of a gyroscope , also disposed in said mobile station , from a sleep mode to a normal operational mode to perform a first measurement activity in response to said detecting said motion of the device, the sleep mode being different from the normal operational mode, wherein said changing the power state of the accelerometer comprises changing the power state of the accelerometer from a low-power mode to a normal operational mode in response to detecting said motion of the device in order to perform a second measurement activity, the low-power mode drawing more power than in a sleep mode; and changing the power state of the gyroscope back to the sleep mode, and the power state of the accelerometer back to the low-power mode, upon completion of the first or second measurement activity. detecting , by an accelerometer disposed in a mobile station motion of said mobile station ; changing a power state of the accelerometer in response to the accelerometer detecting motion of said device ; characterized in that the method further comprises: changing a power state of a gyroscope , also disposed in said mobile station , from a sleep mode to a normal operational mode to perform a first measurement activity in response to said detecting said motion of the device, the sleep mode being different from the normal operational mode, wherein said changing the power state of the accelerometer comprises changing the power state of the accelerometer from a low-power mode to a normal operational mode in response to detecting said motion of the device in order to perform a second measurement activity, the low-power mode drawing more power than in a sleep mode; and changing the power state of the gyroscope back to the sleep mode, and the power state of the accelerometer back to the low-power mode, upon completion of the first or second measurement activity. changing a power state of a gyroscope , also disposed in said mobile station , from a sleep mode to a normal operational mode to perform a first measurement activity in response to said detecting said motion of the device, the sleep mode being different from the normal operational mode, wherein said changing the power state of the accelerometer comprises changing the power state of the accelerometer from a low-power mode to a normal operational mode in response to detecting said motion of the device in order to perform a second measurement activity, the low-power mode drawing more power than in a sleep mode; and changing the power state of the gyroscope back to the sleep mode, and the power state of the accelerometer back to the low-power mode, upon completion of the first or second measurement activity.
A method comprising: receiving data characterizing a notification indicative of modification to a first source code of a first layer of a software architecture including multiple layers, wherein the first layer is stored in a first repository of a plurality of repositories of a microservice, the layers being stored in different repositories where each layer includes a source code and the source codes are independently compilable by the source codes being arranged to pass dependencies externally instead of being hard-coded, wherein if a user is modifying the source code of a given layer, modifications to source code of a different layer stored in a second repository can be prevented; generating a modified first package including a first computer-executable code generated by at least compiling the first source code and assigning a unique first name to the modified first package indicative of the modification made to the first source code that triggered the notification; transmitting an instruction to a repository manager of a package repository to store the modified first package with the assigned first name in the package repository; and generating by an integration pipeline a first modified container image including packages associated with multiple layers, the container image including the newest package for each layer, the container image including a microservice layer to facilitate communication between the packages and serving as an external interface to handle requests from users. receiving data characterizing a notification indicative of modification to a first source code of a first layer of a software architecture including multiple layers, wherein the first layer is stored in a first repository of a plurality of repositories of a microservice, the layers being stored in different repositories where each layer includes a source code and the source codes are independently compilable by the source codes being arranged to pass dependencies externally instead of being hard-coded, wherein if a user is modifying the source code of a given layer, modifications to source code of a different layer stored in a second repository can be prevented; generating a modified first package including a first computer-executable code generated by at least compiling the first source code and assigning a unique first name to the modified first package indicative of the modification made to the first source code that triggered the notification; transmitting an instruction to a repository manager of a package repository to store the modified first package with the assigned first name in the package repository; and generating by an integration pipeline a first modified container image including packages associated with multiple layers, the container image including the newest package for each layer, the container image including a microservice layer to facilitate communication between the packages and serving as an external interface to handle requests from users.
A medical scanner accessory system for a medical scanner, wherein the medical scanner accessory system comprises - a base part ; - a drum part rotatably connected to the base part , the drum part having a rotation axis (X); and - a cable comprising a jacket, wherein the cable has a first connector at a first end and a second connector at a second end thereof, wherein the first connector is connectable to a movable part of the medical scanner and the second connector is connectable to an electronic device, wherein the cable is configured to be coiled on a first part of the drum part, characterized in that the medical scanner accessory system comprises: - a coiling mechanism comprising a first coiling part and a second coiling part , wherein the first coiling part comprises a first shaft and a first set of first guide wheels rotatably arranged on the first shaft, wherein the second coiling part comprises a second shaft and a second set of second guide wheels rotatably arranged on the second shaft, - an elastic cord with a first point attached to the base part or to the coiling mechanism and a second point attached to the drum part, wherein the elastic cord is configured to be coiled on the coiling mechanism, and wherein the elastic cord is configured to apply a force to the drum part for rotating the drum part in a coiling direction of rotation about the rotation axis thereby coiling the cable on the first part of the drum part and wherein the elastic cord is configured to be coiled on at least one or more of the first guide wheels and on at least one or more of the second guide wheels . - a base part ; - a drum part rotatably connected to the base part , the drum part having a rotation axis (X); and - a cable comprising a jacket, wherein the cable has a first connector at a first end and a second connector at a second end thereof, wherein the first connector is connectable to a movable part of the medical scanner and the second connector is connectable to an electronic device, wherein the cable is configured to be coiled on a first part of the drum part, - a coiling mechanism comprising a first coiling part and a second coiling part , wherein the first coiling part comprises a first shaft and a first set of first guide wheels rotatably arranged on the first shaft, wherein the second coiling part comprises a second shaft and a second set of second guide wheels rotatably arranged on the second shaft, - an elastic cord with a first point attached to the base part or to the coiling mechanism and a second point attached to the drum part, wherein the elastic cord is configured to be coiled on the coiling mechanism, and wherein the elastic cord is configured to apply a force to the drum part for rotating the drum part in a coiling direction of rotation about the rotation axis thereby coiling the cable on the first part of the drum part and wherein the elastic cord is configured to be coiled on at least one or more of the first guide wheels and on at least one or more of the second guide wheels .
A waveguide body having a longitudinal axis and a lateral axis perpendicular to the longitudinal axis , comprising: at least one plurality of light extraction features , wherein at least two of the light extraction features are separated from one another along the longitudinal axis and wherein at least one of the extraction features has a lateral extent; and at least one light coupling cavity adapted to transmit light from a light source into the waveguide body ; and wherein the waveguide body comprises a first portion comprising a first plurality of light extraction features of the at least one plurality of light extraction features with a linear shape and a second portion comprising a second plurality of light extraction features of the at least one plurality of light extraction features with at least one of a piecewise linear shape approximating a curve and a curved shape, characterized in that the first portion is spaced from the second portion by a transition portion along the longitudinal axis such that the first plurality of light extraction features are spaced from the second plurality of extraction features along the longitudinal axis , wherein the extraction features are configured to develop an asymmetric light distribution. at least one plurality of light extraction features , wherein at least two of the light extraction features are separated from one another along the longitudinal axis and wherein at least one of the extraction features has a lateral extent; and at least one light coupling cavity adapted to transmit light from a light source into the waveguide body ; and wherein the waveguide body comprises a first portion comprising a first plurality of light extraction features of the at least one plurality of light extraction features with a linear shape and a second portion comprising a second plurality of light extraction features of the at least one plurality of light extraction features with at least one of a piecewise linear shape approximating a curve and a curved shape, characterized in that the first portion is spaced from the second portion by a transition portion along the longitudinal axis such that the first plurality of light extraction features are spaced from the second plurality of extraction features along the longitudinal axis , wherein the extraction features are configured to develop an asymmetric light distribution.
A work centre to process section bars , in particular made of aluminium, light alloys, PVC or the like, the work centre comprising an elongated base extending in a first direction ; at least one processing station , which is obtained along the base and is provided with at least one operating unit to process the section bars ; a feeding device to feed the section bars along the base and through the processing station in the first direction ; and an unloading station to pick up the section bars that were just processed from the feeding device ; the unloading station comprising, in turn, a store to store the section bars that were just processed; and being characterized in that the store comprises at least one rack , which is delimited by a substantially horizontal bottom wall and is provided with a plurality of inclined pockets , each delimited by two side walls , which are parallel to one another and are inclined at an angle other than 90° relative to the bottom wall .
A piston for an internal combustion engine, the piston comprising: a body comprising a piston pin boss for inserting a piston pin thereinto, and a skirt corresponding to a cylinder wall; and a cooling channel provided in the body to allow a refrigerant for cooling the body , to flow therethrough, and having a ring shape comprising a first channel provided from a refrigerant inlet (H1) to a refrigerant outlet (H2) along a first outer circumferential direction of the body , and a second channel provided from the refrigerant inlet (H1) to the refrigerant outlet (H2) along a second outer circumferential direction of the body , wherein, in the cooling channel , to increase a supply speed and a discharge speed of the refrigerant by inducing the refrigerant supplied through the refrigerant inlet (H1), toward the refrigerant outlet (H2), a first space cross-sectional area of a first part of the first channel is less than a second space cross-sectional area of a second part of the first channel characterised in that the first channel has a space cross-sectional area gradually increased from the refrigerant outlet (H2) to the refrigerant inlet (H1), and the second channel has a space cross-sectional area gradually increased from the refrigerant inlet (H1) to the refrigerant outlet (H2). a body comprising a piston pin boss for inserting a piston pin thereinto, and a skirt corresponding to a cylinder wall; and a cooling channel provided in the body to allow a refrigerant for cooling the body , to flow therethrough, and having a ring shape comprising a first channel provided from a refrigerant inlet (H1) to a refrigerant outlet (H2) along a first outer circumferential direction of the body , and a second channel provided from the refrigerant inlet (H1) to the refrigerant outlet (H2) along a second outer circumferential direction of the body , wherein, in the cooling channel , to increase a supply speed and a discharge speed of the refrigerant by inducing the refrigerant supplied through the refrigerant inlet (H1), toward the refrigerant outlet (H2), a first space cross-sectional area of a first part of the first channel is less than a second space cross-sectional area of a second part of the first channel characterised in that the first channel has a space cross-sectional area gradually increased from the refrigerant outlet (H2) to the refrigerant inlet (H1), and the second channel has a space cross-sectional area gradually increased from the refrigerant inlet (H1) to the refrigerant outlet (H2).