mhurhangee/patent-ind-claim-en huggingface dataset:
A nuclear medicine image reconstruction device comprising: an electronic processor ; and a non-transitory storage medium storing instructions readable and executable by the electronic processor to perform an image reconstruction method including: generating a reconstructed image by performing iterative image reconstruction on nuclear medicine imaging data wherein the iterative image reconstruction produces a sequence of update images ; characterized by during the iterative image reconstruction, applying a standardized uptake value (SUV) transform to convert an update image to an update SUV image , wherein the SUV transform operates to scale values of voxels of the update image to SUV values using scaling factors including at least a body size metric and a dose metric; and by during the iterative image reconstruction, adjusting at least one parameter of the iterative image reconstruction using the update SUV image,wherein the adjusting includes adjusting a parameter of a prior or filter used in the iterative image reconstruction . an electronic processor ; and a non-transitory storage medium storing instructions readable and executable by the electronic processor to perform an image reconstruction method including: generating a reconstructed image by performing iterative image reconstruction on nuclear medicine imaging data wherein the iterative image reconstruction produces a sequence of update images ; characterized by during the iterative image reconstruction, applying a standardized uptake value (SUV) transform to convert an update image to an update SUV image , wherein the SUV transform operates to scale values of voxels of the update image to SUV values using scaling factors including at least a body size metric and a dose metric; and by during the iterative image reconstruction, adjusting at least one parameter of the iterative image reconstruction using the update SUV image,wherein the adjusting includes adjusting a parameter of a prior or filter used in the iterative image reconstruction . generating a reconstructed image by performing iterative image reconstruction on nuclear medicine imaging data wherein the iterative image reconstruction produces a sequence of update images ; characterized by during the iterative image reconstruction, applying a standardized uptake value (SUV) transform to convert an update image to an update SUV image , wherein the SUV transform operates to scale values of voxels of the update image to SUV values using scaling factors including at least a body size metric and a dose metric; and by during the iterative image reconstruction, adjusting at least one parameter of the iterative image reconstruction using the update SUV image,wherein the adjusting includes adjusting a parameter of a prior or filter used in the iterative image reconstruction .
An attachment portion of a medical robot , to which a surgical tool is attached, the surgical tool at least comprising a main body that comprises a driven portion configured to transmit a driving force to a treatment portion for performing a medical treatment; and a driven side hole in which the driven portion is housed and the driven portion is arranged so as to be relatively linearly movable, the attachment portion at least comprising: an attachment surface configured to face a surface of the main body in which the driven side hole is provided; a transmission side hole in which a transmitter to transmit a driving force in a linear motion direction to the driven portion is arranged; an attachment engagement portion configured to attach the surgical tool to the attachment portion by relative movement of the surgical tool and the attachment portion in a direction along the attachment surface and intersecting the linear motion direction; characterized by a guide groove provided in the attachment surface and extending in a direction in which the surgical tool relatively moves with respect to the attachment portion , and configured to engage with a projection projecting from the driven portion when attaching the surgical tool to the attachment portion , thereby guiding the driven portion to a specified position of the transmission side hole ; and an introducer provided at least at one end of the guide groove along a relative movement direction of the surgical tool and the attachment portion , the introducer being recessed from the attachment surface and continuous to the guide groove , the introducer having a greater groove width in a direction away from the transmission side hole . an attachment surface configured to face a surface of the main body in which the driven side hole is provided; a transmission side hole in which a transmitter to transmit a driving force in a linear motion direction to the driven portion is arranged; an attachment engagement portion configured to attach the surgical tool to the attachment portion by relative movement of the surgical tool and the attachment portion in a direction along the attachment surface and intersecting the linear motion direction; characterized by a guide groove provided in the attachment surface and extending in a direction in which the surgical tool relatively moves with respect to the attachment portion , and configured to engage with a projection projecting from the driven portion when attaching the surgical tool to the attachment portion , thereby guiding the driven portion to a specified position of the transmission side hole ; and an introducer provided at least at one end of the guide groove along a relative movement direction of the surgical tool and the attachment portion , the introducer being recessed from the attachment surface and continuous to the guide groove , the introducer having a greater groove width in a direction away from the transmission side hole .
A method performed , comprising: providing authentication credentials enabled for making access decisions in an access control system with respect to a wearable device ; receiving, via one or more sensors of the wearable device , information corresponding to a state of the wearable device ; determining, based on rules stored in a memory, whether the state of the wearable device allows for the authentication credentials enabled for making access decisions in the access control system with respect to the wearable device to continue to be enabled; and disabling the authentication credentials when the state of the wearable device restricts the authentication credentials, wherein the state of the wearable device indicates that the wearable device has been removed from a user and thereby disabling the authentication credentials and continuous authentication. providing authentication credentials enabled for making access decisions in an access control system with respect to a wearable device ; receiving, via one or more sensors of the wearable device , information corresponding to a state of the wearable device ; determining, based on rules stored in a memory, whether the state of the wearable device allows for the authentication credentials enabled for making access decisions in the access control system with respect to the wearable device to continue to be enabled; and disabling the authentication credentials when the state of the wearable device restricts the authentication credentials, wherein the state of the wearable device indicates that the wearable device has been removed from a user and thereby disabling the authentication credentials and continuous authentication.
A metal/ceramic bonding substrate comprising: a ceramic substrate of aluminum nitride; and a metal plate bonded to the ceramic substrate, wherein the ceramic substrate has a residual stress of not higher than -50 MPa and wherein a bonded surface of the ceramic substrate to the metal plate has an arithmetic average roughness Ra of 0.15 to 0.30 μ m. a ceramic substrate of aluminum nitride; and a metal plate bonded to the ceramic substrate, wherein the ceramic substrate has a residual stress of not higher than -50 MPa and wherein a bonded surface of the ceramic substrate to the metal plate has an arithmetic average roughness Ra of 0.15 to 0.30 μ m.
Transmission for a hybrid drive arrangement, which transmission can be coupled to two drive units , having an input shaft and an output shaft , at least a first, a second and a third shifting element (SE1, SE2, SE3), and at least one double planetary transmission , having a first sun gear and a first internal gear and a second sun gear and a second internal gear and a planetary carrier, it being possible for the input shaft to be coupled by means of the second shifting element (SE2) to the first sun gear of the double planetary transmission , and it being possible for said input shaft to be coupled by means of the third shifting element (SE3) to the first internal gear of the double planetary transmission , and the output shaft being coupled to the planetary carrier of the double planetary transmission , characterized in that it is possible for the input shaft to be coupled by means of the first shifting element (SE1) to the planetary carrier of the double planetary transmission . having an input shaft and an output shaft , at least a first, a second and a third shifting element (SE1, SE2, SE3), and at least one double planetary transmission , having a first sun gear and a first internal gear and a second sun gear and a second internal gear and a planetary carrier, it being possible for the input shaft to be coupled by means of the second shifting element (SE2) to the first sun gear of the double planetary transmission , and it being possible for said input shaft to be coupled by means of the third shifting element (SE3) to the first internal gear of the double planetary transmission , and the output shaft being coupled to the planetary carrier of the double planetary transmission , characterized in that it is possible for the input shaft to be coupled by means of the first shifting element (SE1) to the planetary carrier of the double planetary transmission .
A system for use in blood clot removal via aspiration, the system comprising: a first tube ; a second tube slidable within the first tube ; and a self-expanding receiver having a membrane and positioned at least partially within the second tube , wherein the second tube is configured to be moved proximally relative to the receiver , wherein the receiver is configured to be radially expandable such that in a state when the second tube and a proximal portion of the receiver are positioned within a distal end portion of the first tube and a distal end of the second tube is positioned proximally of a proximal end of the receiver : the proximal portion of the receiver radially expands and makes contact with the distal end portion of the first tube ; and a distal portion of the receiver radially expands such that it has an inner diameter that is at least 10% larger than an inner diameter of the first tube , the proximal portion of the receiver is configured to cause the distal end portion of the first tube to radially expand when the proximal portion makes contact with the distal end portion of the first tube and thus exerts pressure on the distal end portion , and the proximal portion of the receiver is configured to engage and thereby create a seal with the distal end portion of the first tube when a vacuum is applied at a proximal end of the first tube . a first tube ; a second tube slidable within the first tube ; and a self-expanding receiver having a membrane and positioned at least partially within the second tube , wherein the second tube is configured to be moved proximally relative to the receiver , wherein the receiver is configured to be radially expandable such that in a state when the second tube and a proximal portion of the receiver are positioned within a distal end portion of the first tube and a distal end of the second tube is positioned proximally of a proximal end of the receiver : the proximal portion of the receiver radially expands and makes contact with the distal end portion of the first tube ; and a distal portion of the receiver radially expands such that it has an inner diameter that is at least 10% larger than an inner diameter of the first tube , the proximal portion of the receiver radially expands and makes contact with the distal end portion of the first tube ; and a distal portion of the receiver radially expands such that it has an inner diameter that is at least 10% larger than an inner diameter of the first tube , the proximal portion of the receiver is configured to cause the distal end portion of the first tube to radially expand when the proximal portion makes contact with the distal end portion of the first tube and thus exerts pressure on the distal end portion , and the proximal portion of the receiver is configured to engage and thereby create a seal with the distal end portion of the first tube when a vacuum is applied at a proximal end of the first tube .
An ion sensor comprising: an SOI substrate including a base layer , an insulating layer , and an active layer , an ion filter formed in the active layer , the ion filter including a first electrode and a second electrode , the first electrode and the second electrode facing each other; an ion sensing electrode with which an ion that has passed through the ion filter collides, the ion sensing electrode formed in the base layer and including a third electrode and a fourth electrode ; and an insulator formed by the insulating layer , the insulator configured to electrically insulate the ion sensing electrode from the first electrode and the second electrode ; wherein a first serpentine slit is formed in the active layer , a second serpentine slit is formed in the base layer , and a third serpentine slit is formed in the insulating layer, the first, second and third slits overlapping with each other in a planar view of the SOI substrate ; the active layer includes two first trenches connected to respective ends of the first slit , such that the first slit and first trenches together divide the active layer into the first electrode and the second electrode; the base layer includes two second trenches connected to respective ends of the second slit , such that the second slit and second trenches together divide the base layer into the third electrode and the fourth electrode ; and positions of the first trenches are displaced from positions of the second trenches such that the first trenches do not overlap with the second trenches in a planar view of the SOI substrate . an SOI substrate including a base layer , an insulating layer , and an active layer , an ion filter formed in the active layer , the ion filter including a first electrode and a second electrode , the first electrode and the second electrode facing each other; an ion sensing electrode with which an ion that has passed through the ion filter collides, the ion sensing electrode formed in the base layer and including a third electrode and a fourth electrode ; and an insulator formed by the insulating layer , the insulator configured to electrically insulate the ion sensing electrode from the first electrode and the second electrode ; wherein a first serpentine slit is formed in the active layer , a second serpentine slit is formed in the base layer , and a third serpentine slit is formed in the insulating layer, the first, second and third slits overlapping with each other in a planar view of the SOI substrate ; the active layer includes two first trenches connected to respective ends of the first slit , such that the first slit and first trenches together divide the active layer into the first electrode and the second electrode; the base layer includes two second trenches connected to respective ends of the second slit , such that the second slit and second trenches together divide the base layer into the third electrode and the fourth electrode ; and positions of the first trenches are displaced from positions of the second trenches such that the first trenches do not overlap with the second trenches in a planar view of the SOI substrate .
A display apparatus , comprising: a display configured to have a curvature that is changeable; a curvature motor; and a processor configured to: display a predetermined object in a game content on the display, identify a speed value of the predetermined object and a movement direction of the predetermined object in the game content displayed on the display, determine a curvature value of the display by which a left side curvature of the display and a right side curvature of the display are to be changed respectively by the curvature motor based on the identified speed value of the predetermined object, and the identified movement direction of the predetermined object, and control the curvature motor to bend the display to change the left side curvature of the display and the right side curvature of the display based on the determined curvature value. a display configured to have a curvature that is changeable; a curvature motor; and a processor configured to: display a predetermined object in a game content on the display, identify a speed value of the predetermined object and a movement direction of the predetermined object in the game content displayed on the display, determine a curvature value of the display by which a left side curvature of the display and a right side curvature of the display are to be changed respectively by the curvature motor based on the identified speed value of the predetermined object, and the identified movement direction of the predetermined object, and control the curvature motor to bend the display to change the left side curvature of the display and the right side curvature of the display based on the determined curvature value. display a predetermined object in a game content on the display, identify a speed value of the predetermined object and a movement direction of the predetermined object in the game content displayed on the display, determine a curvature value of the display by which a left side curvature of the display and a right side curvature of the display are to be changed respectively by the curvature motor based on the identified speed value of the predetermined object, and the identified movement direction of the predetermined object, and control the curvature motor to bend the display to change the left side curvature of the display and the right side curvature of the display based on the determined curvature value.
Energy conversion device which contains one or more collection units suitable for receiving electromagnetic energy as well as a conversion unit in an electrically conducting connection with the collection unit with the help of a cable , at least one of the collection units is formed by a set of metal material pipe members , while the conversion unit has a condenser part-unit consisting of metal armoured plates separated from each other by a gap (T) and located in the cover , as well as a frequency-setting part-unit cooperating with the condenser part-unit , where the frequency-setting part-unit has a reception space located within the cover of the conversion unit and enclosed by a delimiting shell in the vicinity of the condenser part-unit and a charge located in the reception space , and the charge contains an organic component and an inorganic component distributed in a carrier medium , characterised that the cable connecting the collection unit and the conversion unit to each other is made from a metal alloy containing a maximum of 0.7 mass% gold, a maximum of 0.7 mass% silver, between 2-8 mass% iron and at least 90 mass% bronze components, and the cable has at least two bending zones , where the normal to the initial section of the cable entering the bending zone and the normal to the exit section of the cable leaving the bending zone are at an angle (a) of at least 10° to each other, the organic component of the charge contains a maximum of 50 v/v% regenerating type microorganism group, where a part of the microorganism group contains photosynthesising bacteria and/or lactic acid bacteria and/or yeasts and/or actinomycetes and/or fermenting fungi, while the inorganic component of the charge contains at least 5 v/v% of a gold-bronze powder mixture, the condenser part-unit is connected to an earth cable , and when the device is in its use position the first armoured plate of the condenser part-unit is connected to the electrically conducting body belonging to the environment via the earth cable , and the second armoured plate of the condenser part-unit , beside the cable , is in an electrically conducting connection with the charge .
An abutment device for a roller shutter , said roller shutter including two guiderails provided, at the upper end thereof, with a guide element and an apron formed of a plurality of horizontal slats, including a lower final slat provided, at each of the lateral ends thereof, with an inner housing , which are hinged to each other and whose lateral ends are displaced vertically inside said guiderails , where said abutment device is configured to be inserted at least partly in each inner housing in a direction parallel to the longitudinal axis of the latter and includes a lever pivoting, when the abutment device is inserted, about a horizontal axis perpendicular to the longitudinal axis of said housing , and including at least one protrusion which, when the abutment device is inserted, is displaced inside the associated guiderail and is capable of abutting against the guide element to block the final slat when the roller shutter is raised, the lever pivoting between a "low" position in which the protrusion protrudes from the lower longitudinal edge of said final slat allowing the total erasure of said final slat when said roller shutter is totally open, and a "high" position in which the protrusion does not protrude from said lower longitudinal edge allowing a total occultation when said roller shutter is completely closed.