mhurhangee/patent-ind-claim-en huggingface dataset:
An image processing apparatus comprising: first image obtaining means for obtaining a first image of an object in a first shape state; imaging region setting means for setting an imaging region of the object in a second shape state; deformation information obtaining means for obtaining deformation information indicating deformation of the object from the second shape state to the first shape state; corresponding region calculating means for calculating a corresponding region that corresponds to the imaging region in the first shape state based on the deformation information; and display image generating means for generating a display image by overlapping the corresponding region on the first image before imaging the object in the second shape state, wherein the imaging region setting means outputs information of the imaging region to a medical imaging apparatus in order to image the imaging region of the object in the second shape state. first image obtaining means for obtaining a first image of an object in a first shape state; imaging region setting means for setting an imaging region of the object in a second shape state; deformation information obtaining means for obtaining deformation information indicating deformation of the object from the second shape state to the first shape state; corresponding region calculating means for calculating a corresponding region that corresponds to the imaging region in the first shape state based on the deformation information; and display image generating means for generating a display image by overlapping the corresponding region on the first image before imaging the object in the second shape state, wherein the imaging region setting means outputs information of the imaging region to a medical imaging apparatus in order to image the imaging region of the object in the second shape state.
A powered surgical handpiece comprising: a housing comprising a motor; a surgical tool removably coupled to the housing and configured to be driven by the motor, wherein the surgical tool includes a radio frequency identification (RFID) tag ; an antenna for wirelessly transmitting RF energy; and a coupler that is electrically isolated from the antenna and the RFID tag and that is configured to guide the transmitted RF energy to the RFID tag, characterized in that the coupler is a passive rigid metal structure that is encapsulated in plastic, is electrically isolated and is of a single-piece or single construction a housing comprising a motor; a surgical tool removably coupled to the housing and configured to be driven by the motor, wherein the surgical tool includes a radio frequency identification (RFID) tag ; an antenna for wirelessly transmitting RF energy; and a coupler that is electrically isolated from the antenna and the RFID tag and that is configured to guide the transmitted RF energy to the RFID tag, characterized in that the coupler is a passive rigid metal structure that is encapsulated in plastic, is electrically isolated and is of a single-piece or single construction
An apparatus for monitoring the driving path of a vehicle (F) with at least six cameras (K1 to K6) arranged on the vehicle for monitoring the surrounding area and a calculating means (BE), wherein the cameras (K1 to K6) are formed by wide angle cameras with an effective viewing area (W) of at least 165°, characterized in that two cameras (K1, K2) are arranged on the front side of the vehicle at a predetermined distance (d1), so that the camera axes (A1, A2) of the respective camera (K1, K2) are inclined outwardly at a respectively predetermined angle (N1, N2) relative to the vehicle longitudinal axis, two cameras (K4, K5) are arranged on the rear side of the vehicle at a predetermine distance(d2), so that the camera axes (A4, A5) of the respective camera (K4, K5) are inclined outwardly at a respectively predetermined angle (N4, N5) relative to the vehicle longitudinal axis (LA), one camera (K3, K6) is arranged on each side of the vehicle (F), so that the camera axis (A3, A6) of the respective camera (K3, K6) is arranged parallel to the vehicle transverse axis (QA), the two frontal cameras (K1, K2) form a frontal stereo viewing area (G12), the two rear cameras (K4, K5) form a rear stereo viewing area (G45), the left side camera (K6) with the frontal left camera (K1) forms a left front stereo area (G16) and the right side camera with the frontal right camera forms a right front stereo area (G23), the left side camera (K6) with the rear left camera (K5) forms a left rear stereo area (G56) and the right side camera (K3) with the rear right camera (K4) forms a right rear stereo area (G34), the left side camera (K6) forms a side left mono area (G6), and the right side camera (K3) forms a side right mono area (G3), and the image data of the cameras (K1 to K6) are combined in the calculation unit (BE) so that the at least eight viewing areas (G12, G23, G3, G34, G45, G56, G6, G16) are formed.
A pouch in its closed position comprising a first pocket and a second pocket , wherein the first pocket and the second pocket are symmetric about a mirror folding line , characterized in that each of the first and the second pocket comprises - a pocket front wall and a pocket rear wall , - an access opening, wherein the access opening is provided between the upper edges of the pocket front wall and the pocket rear wall , - a cover flap , wherein the cover flap extends from the pocket rear wall , and - an extension flap , wherein the extension flap extends from the cover flap , wherein the cover flap is folded over the pocket front wall , wherein the extension flap is folded inwardly such that it is arranged between pocket front wall and the cover flap , wherein the inner surface of the extension flap adheres to the inner surface of the cover flap . - a pocket front wall and a pocket rear wall , - an access opening, wherein the access opening is provided between the upper edges of the pocket front wall and the pocket rear wall , - a cover flap , wherein the cover flap extends from the pocket rear wall , and - an extension flap , wherein the extension flap extends from the cover flap ,
A method to re-identify a carrier on a laboratory transport system , wherein the carrier is associated with an identity , the identity being an identifier for distinct identification of the carrier and/or its payload, wherein the carrier is configured to move over a transport plane of the laboratory transport system , wherein the laboratory transport system comprises a monitoring system configured to monitor motion positions of the carrier on the transport plane when the laboratory transport system is activated, wherein the laboratory transport system comprises a control unit , wherein the method comprises the following steps : a) monitoring, by the monitoring system , motion positions of the carrier on the transport plane b) generating, by the control unit , log data of the carrier and the associated identity based on the monitored motion positions c) predicting, by the control unit , the position of the identity based on the generated log data after a system failure of the laboratory transport system , wherein the system failure causes dissociation of the identity from the carrier , wherein after the system failure the carrier keeps moving on the transport plane d) detecting, by the monitoring system , the actual position of the carrier after reactivation of the laboratory transport system e) comparing, by the control unit , the predicted position of the identity with the actual position of the carrier f) assigning, by the control unit , the identity to the carrier if the predicted position of the identity matches with the actual position of the carrier . a) monitoring, by the monitoring system , motion positions of the carrier on the transport plane b) generating, by the control unit , log data of the carrier and the associated identity based on the monitored motion positions c) predicting, by the control unit , the position of the identity based on the generated log data after a system failure of the laboratory transport system , wherein the system failure causes dissociation of the identity from the carrier , wherein after the system failure the carrier keeps moving on the transport plane d) detecting, by the monitoring system , the actual position of the carrier after reactivation of the laboratory transport system e) comparing, by the control unit , the predicted position of the identity with the actual position of the carrier f) assigning, by the control unit , the identity to the carrier if the predicted position of the identity matches with the actual position of the carrier .
A battery module comprising: a battery cell stack in which a plurality of battery cells are stacked, a module frame having a structure in which a U-shaped frame and an upper plate are combined, the module frame housing the battery cell stack , a first busbar frame that is housed in the module frame and covers the front surface of the battery cell stack , and a second busbar frame that is housed in the module frame and covers the rear surface of the battery cell stack , wherein a terminal busbar is mounted to the first busbar frame , and a module connector is mounted to the second busbar frame , and wherein the module frame is formed with a venting part (900; 910; 920) penetrating the upper plate, and the venting part (900; 910; 920) is located closer to the module connector than the terminal busbar . a battery cell stack in which a plurality of battery cells are stacked, a module frame having a structure in which a U-shaped frame and an upper plate are combined, the module frame housing the battery cell stack , a first busbar frame that is housed in the module frame and covers the front surface of the battery cell stack , and a second busbar frame that is housed in the module frame and covers the rear surface of the battery cell stack , wherein a terminal busbar is mounted to the first busbar frame , and a module connector is mounted to the second busbar frame , and wherein the module frame is formed with a venting part (900; 910; 920) penetrating the upper plate, and the venting part (900; 910; 920) is located closer to the module connector than the terminal busbar .
A method for configuring a lighting system including one or more sensors for controlling one or more lighting units for providing illumination of an area, said method comprising: - obtaining (S602) one or more images of the area; - for a given sensing function, identifying (S606), based on said obtained one or more images, at least one target area where said sensing function is to occur; the method characterised by : - determining, based on said obtained one or more images and said identified at least one target area , one or more sensor locations suitable for providing said sensing function at said target area; and - prompting a user to provide a new sensor or move an existing sensor to said one or more sensor locations. - obtaining (S602) one or more images of the area; - for a given sensing function, identifying (S606), based on said obtained one or more images, at least one target area where said sensing function is to occur; the method characterised by : - determining, based on said obtained one or more images and said identified at least one target area , one or more sensor locations suitable for providing said sensing function at said target area; and - prompting a user to provide a new sensor or move an existing sensor to said one or more sensor locations. - determining, based on said obtained one or more images and said identified at least one target area , one or more sensor locations suitable for providing said sensing function at said target area; and - prompting a user to provide a new sensor or move an existing sensor to said one or more sensor locations.
A method for producing a book-like security and/or value document comprising the following method steps: A) bringing together at least two layers of a data sheet formed from organic polymeric materials, one layer having smaller dimensions than at least one adjacent layer , the step of bringing together being carried out with the proviso that the data sheet forms a gap or a step along an edge , the gap or the step being filled with an auxiliary piece having a thickness which substantially corresponds to the thickness D1 of the layer of smaller dimensions, the auxiliary piece being formed from a material which is not laminable with the layers , B) subjecting the stack of step A) to a lamination step, all layers being laminated with each other, not however with the auxiliary piece C) removing the auxiliary piece , D) introducing a data sheet region of a cover tab into the gap or into the step of the data sheet and connected with the data sheet in a form-fit, force-fit, or material-fit fashion, and E) binding a cover region of the cover tab into the cover of the security and/or value document . A) bringing together at least two layers of a data sheet formed from organic polymeric materials, one layer having smaller dimensions than at least one adjacent layer , the step of bringing together being carried out with the proviso that the data sheet forms a gap or a step along an edge , the gap or the step being filled with an auxiliary piece having a thickness which substantially corresponds to the thickness D1 of the layer of smaller dimensions, the auxiliary piece being formed from a material which is not laminable with the layers , B) subjecting the stack of step A) to a lamination step, all layers being laminated with each other, not however with the auxiliary piece C) removing the auxiliary piece , D) introducing a data sheet region of a cover tab into the gap or into the step of the data sheet and connected with the data sheet in a form-fit, force-fit, or material-fit fashion, and E) binding a cover region of the cover tab into the cover of the security and/or value document .
A self-cleaning ionizer comprising: - at least one flexible and movable ionizing electrode that defines an axis along a stationary linear working length thereof, the electrode establishing a linear ion cloud along the working length thereof in response to the application of an ionizing signal to the electrode; - at least one stationary electrode-cleaner that may selectively engage the movable electrode along the linear working length thereof; - means for applying an ionizing signal to the electrode to thereby establish the linear ion cloud, wherein the working length of the electrode has a surface that develops degradation products in response to the application of the ionizing signal; - means for moving the electrode along the axial working length thereof such that the electrode-cleaner removes at least some of the surface degradation products from the electrode during movement; and - means for tensioning the electrode on the means for moving such that a substantially constant tensional force is maintained on the electrode, characterized in that the self-cleaning ionizer is a linear ionizer , and that the means for moving the electrode comprises first and second spool assemblies disposed on opposite sides of the linear working length, and wherein first and second ends of the electrode are respectively affixed to the first and second spool assemblies such that the working length of the flexible wire electrode is disposed there between, and wherein the means for tensioning comprises a constant-force spring motor assembly operatively associated with at least one of the first and second spool assemblies . - at least one flexible and movable ionizing electrode that defines an axis along a stationary linear working length thereof, the electrode establishing a linear ion cloud along the working length thereof in response to the application of an ionizing signal to the electrode; - at least one stationary electrode-cleaner that may selectively engage the movable electrode along the linear working length thereof; - means for applying an ionizing signal to the electrode to thereby establish the linear ion cloud, wherein the working length of the electrode has a surface that develops degradation products in response to the application of the ionizing signal; - means for moving the electrode along the axial working length thereof such that the electrode-cleaner removes at least some of the surface degradation products from the electrode during movement; and - means for tensioning the electrode on the means for moving such that a substantially constant tensional force is maintained on the electrode,
A torque plate for mounting a disc brake assembly of a heavy-duty vehicle, said torque plate being for rigid attachment to an axle of said heavy-duty vehicle, said torque plate comprising: an axle ring , said axle ring having a thickness (RW) and defining an opening for receiving said axle, with the axle ring engaging an outer diameter of the axle; a pair of bodies , each having a thickness, said bodies extending radially outwardly in opposite directions from said axle ring, and a pair of carrier mounting bosses , each having a thickness and extending radially outwardly from a respective one of said bodies , and wherein each one of said carrier mounting bosses is formed with a plurality of openings for receiving fasteners, said openings forming a bolt triangle, and wherein a ratio R5 of a shortest distance (SD) extending from an inner surface of said axle ring to a centre of the radially outermost one of said openings to a shortest distance (BD) extending from said inner surface of the axle ring to the centre of the bolt triangle is between 1.30 and 1.70. an axle ring , said axle ring having a thickness (RW) and defining an opening for receiving said axle, with the axle ring engaging an outer diameter of the axle; a pair of bodies , each having a thickness, said bodies extending radially outwardly in opposite directions from said axle ring, and a pair of carrier mounting bosses , each having a thickness and extending radially outwardly from a respective one of said bodies , and wherein each one of said carrier mounting bosses is formed with a plurality of openings for receiving fasteners, said openings forming a bolt triangle, and wherein a ratio R5 of a shortest distance (SD) extending from an inner surface of said axle ring to a centre of the radially outermost one of said openings to a shortest distance (BD) extending from said inner surface of the axle ring to the centre of the bolt triangle is between 1.30 and 1.70.
A child safety seat including: a seat base having an upper surface and a lower surface and comprising at least one elongate slot extending through the seat base between the upper surface and the lower surface ; a crotch strap extending downwardly from a buckle , which is above the upper surface of the seat base , wherein the crotch strap extends through the at least one elongate slot and has at least one end slidably retained in relation to the seat base ; and a crotch strap adjustment mechanism configured to act on an intermediate portion of the crotch strap , the crotch strap adjustment mechanism being slidable with respect to the seat base in an oblique direction relative to the direction of elongation of the at least one elongate slot to adjust both the position of the crotch strap exiting the at least one elongate slot and the length of the crotch strap extending above the upper surface of the seat base . a seat base having an upper surface and a lower surface and comprising at least one elongate slot extending through the seat base between the upper surface and the lower surface ; a crotch strap extending downwardly from a buckle , which is above the upper surface of the seat base , wherein the crotch strap extends through the at least one elongate slot and has at least one end slidably retained in relation to the seat base ; and a crotch strap adjustment mechanism configured to act on an intermediate portion of the crotch strap , the crotch strap adjustment mechanism being slidable with respect to the seat base in an oblique direction relative to the direction of elongation of the at least one elongate slot to adjust both the position of the crotch strap exiting the at least one elongate slot and the length of the crotch strap extending above the upper surface of the seat base .
A one pot process for the preparation of an amorphous form of 4-[4-[4-[4-[[ -5-(2,4-difluorophenyl)tetrahydro-5(1H-1,2,4-triazol-1-ylmethyl)-3-furanyl]methoxy]phenyl]-1-piperazinyl]phenyl]-2-[ -1-ethyl-2-hydroxypropyl]-2,4-dihydro-3H-1,2,4-triazol-3-one of the structural formula (IV), the process comprising: a) Treating 4-(4-(4-(4-(((3R,SR)-5-((1H-1,2,4-triazol-1-yl)methyl)-5-(2,4-difluoro phenyl)-tetrahydrofuran-3 -yl)methoxy)phenyl)piperazin-1 -yl)phenyl)-1 -((2S,3 S)-2-(benzyloxy)-pentan-3-yl)-1H-1,2,4-triazol-5 -one of the structural formula (III) with concentrated hydrochloric acid and stirring the reaction mixture at a temperature of 55 - 70 °C, b) Cooling the reaction mixture and adding dichloromethane, c) Separating the layers, d) Adding dichloromethane to the aqueous layer and adjusting the pH to 8 - 12, e) Partially concentrating the organic layer and optionally adding acetone to the reaction mixture, f) Mixing the reaction mixture of step e) and cyclohexane at a temperature of 10-25 °C, and g) Filtering and optionally washing with cyclohexane to provide amorphous compound of the structural formula IV. a) Treating 4-(4-(4-(4-(((3R,SR)-5-((1H-1,2,4-triazol-1-yl)methyl)-5-(2,4-difluoro phenyl)-tetrahydrofuran-3 -yl)methoxy)phenyl)piperazin-1 -yl)phenyl)-1 -((2S,3 S)-2-(benzyloxy)-pentan-3-yl)-1H-1,2,4-triazol-5 -one of the structural formula (III) with concentrated hydrochloric acid and stirring the reaction mixture at a temperature of 55 - 70 °C, b) Cooling the reaction mixture and adding dichloromethane, c) Separating the layers, d) Adding dichloromethane to the aqueous layer and adjusting the pH to 8 - 12, e) Partially concentrating the organic layer and optionally adding acetone to the reaction mixture, f) Mixing the reaction mixture of step e) and cyclohexane at a temperature of 10-25 °C, and g) Filtering and optionally washing with cyclohexane to provide amorphous compound of the structural formula IV.