mhurhangee/patent-ind-claim-en huggingface dataset:
A method for printing on a multi-dimensional object, the method comprising: by a processor, controlling a movement of a mounting structure relative to a plurality of print heads, wherein a multi-dimensional object is held within an integrated packaging and object holder mounted on the mounting structure, by: receiving identifying information corresponding to the integrated packaging and object holder mounted on the mounting structure; retrieving , using the identifying information, information relating to the integrated packaging and object holder and the multi-dimensional object held within the integrated packaging and object holder; determining , using the retrieved information, a position of at least one printable area on the multi-dimensional object with respect to the plurality of print heads; and using the determined position to control the movement of the mounting structure relative to the plurality of print heads; and by the processor, operating the plurality of print heads to eject marking material onto the multi-dimensional object mounted on the mounting structure. by a processor, controlling a movement of a mounting structure relative to a plurality of print heads, wherein a multi-dimensional object is held within an integrated packaging and object holder mounted on the mounting structure, by: receiving identifying information corresponding to the integrated packaging and object holder mounted on the mounting structure; retrieving , using the identifying information, information relating to the integrated packaging and object holder and the multi-dimensional object held within the integrated packaging and object holder; determining , using the retrieved information, a position of at least one printable area on the multi-dimensional object with respect to the plurality of print heads; and using the determined position to control the movement of the mounting structure relative to the plurality of print heads; and receiving identifying information corresponding to the integrated packaging and object holder mounted on the mounting structure; retrieving , using the identifying information, information relating to the integrated packaging and object holder and the multi-dimensional object held within the integrated packaging and object holder; determining , using the retrieved information, a position of at least one printable area on the multi-dimensional object with respect to the plurality of print heads; and using the determined position to control the movement of the mounting structure relative to the plurality of print heads; and by the processor, operating the plurality of print heads to eject marking material onto the multi-dimensional object mounted on the mounting structure.
Elevator system comprising: an elevator shaft ; and a protective roof arranged inside the elevator shaft , wherein the protective roof has a central roof structure and a peripheral flank structure , wherein the flank structure has flank walls which are fixed to the roof structure and which are arranged to project outward from the central roof structure at an angle with respect to the horizontal . an elevator shaft ; and a protective roof arranged inside the elevator shaft , wherein the protective roof has a central roof structure and a peripheral flank structure , wherein the flank structure has flank walls which are fixed to the roof structure and which are arranged to project outward from the central roof structure at an angle with respect to the horizontal .
An electrical equipment system , comprising: an electrical equipment component ; a thermal management system configured to direct air over features of the electrical equipment component ; a rectangular fan housing of the thermal management system ; and a centrifugal fan disposed within the fan housing , wherein an axis of rotation of the centrifugal fan is offset relative to a geometric center point of the rectangular fan housing , wherein said offset of the centrifugal fan within the rectangular fan housing is optimized such that a high pressure zone between a first wall and an outer circumference of the centrifugal fan disposed a first distance from said first wall of the rectangular fan housing is larger than a low pressure zone between a second wall and the outer circumference of the centrifugal fan disposed a second distance from said second wall of the rectangular fan housing , wherein the first wall is opposite the second wall and wherein a ratio of the first distance to the second distance is 2.50 to 1.50. an electrical equipment component ; a thermal management system configured to direct air over features of the electrical equipment component ; a rectangular fan housing of the thermal management system ; and a thermal management system configured to direct air over features of the electrical equipment component ; a rectangular fan housing of the thermal management system ; and a centrifugal fan disposed within the fan housing , wherein an axis of rotation of the centrifugal fan is offset relative to a geometric center point of the rectangular fan housing , wherein said offset of the centrifugal fan within the rectangular fan housing is optimized such that a high pressure zone between a first wall and an outer circumference of the centrifugal fan disposed a first distance from said first wall of the rectangular fan housing is larger than a low pressure zone between a second wall and the outer circumference of the centrifugal fan disposed a second distance from said second wall of the rectangular fan housing , wherein the first wall is opposite the second wall and wherein a ratio of the first distance to the second distance is 2.50 to 1.50.
A method implemented in a mobile network and comprising: defining network slices as a function of user equipment, UE, types, wherein UEs in a mobile network are associated with said network slices according to said UE types; defining network slice specific tracking areas as groups of one or more mobile base stations according to said network slices; receiving a signal from a given UE from among said UEs at a receiving mobile base station from among said one or more mobile base stations; and paging said given UE in a network slice specific tracking area from among said network slice specific tracking areas, wherein said receiving mobile base station is in said network slice specific tracking area, and said given UE is associated with said network slice specific tracking area according to an associated UE type from among said UE types. defining network slices as a function of user equipment, UE, types, wherein UEs in a mobile network are associated with said network slices according to said UE types; defining network slice specific tracking areas as groups of one or more mobile base stations according to said network slices; receiving a signal from a given UE from among said UEs at a receiving mobile base station from among said one or more mobile base stations; and paging said given UE in a network slice specific tracking area from among said network slice specific tracking areas, wherein said receiving mobile base station is in said network slice specific tracking area, and said given UE is associated with said network slice specific tracking area according to an associated UE type from among said UE types.
A frame part for insulating and/or sealing at least one outer peripheral side of a window or door frame attached to an opening in an outer wall of a building, wherein the frame part (4, 4', 4") is designed to be placed on the outer peripheral side of the window or door frame , wherein the frame part has a profile part made of a membrane material and at least one external film adhesively bonded to the profile part , wherein the cover film comprises at least one external film, dimensioned and attached to at least one first long side of the profile part so that it protrudes at least beyond long sides of the profile part which are arranged adjacent to the first long side ; and furthermore the profile part consists of a membrane material capable of adapting to the contour of a frame fastening part or is cut out accordingly, so that the profile part overlaps the frame fastening part closely adapted to its contour or can accommodate it in a cutout and can terminate with a termination plane for attachment to the outer wall of a masonry wall and/or an external insulation , due to which the protruding part of the cover film extends from an outer side of the window or door frame over the profile part up to an outer side of a masonry wall of the outer wall and can be adhesively bonded there in each case, characterized in that the frame part has a filler , using which the cutout is filled up after accommodating the frame fastening part, and/or the frame part has an inner film , which is attachable between the inner side of the window or door frame and an inner side of the masonry wall .
A hand held electronic device (50; 100), comprising: a controller; a first touch screen comprising a first touch sensitive surface (52A; 106) positioned in front of a first display (56A; 104) and located on a front surface of the hand held electronic device (50; 100), wherein the first touch sensitive surface is capable of sensing multiple points of contact on the first touch sensitive surface at the same time and reporting the multiple points of contact to the controller; and a second touch sensitive surface; the hand held electronic device being characterised by a second touch screen comprising the second touch sensitive surface positioned in front of a second display located on a top, bottom, left or right surface of the hand held electronic device, wherein the second touch sensitive surface is capable of sensing at least one point of contact on the second touch sensitive surface at the same time and reporting the at least one point of contact to the controller. a controller; a first touch screen comprising a first touch sensitive surface (52A; 106) positioned in front of a first display (56A; 104) and located on a front surface of the hand held electronic device (50; 100), wherein the first touch sensitive surface is capable of sensing multiple points of contact on the first touch sensitive surface at the same time and reporting the multiple points of contact to the controller; and a second touch sensitive surface; the hand held electronic device being characterised by a second touch screen comprising the second touch sensitive surface positioned in front of a second display located on a top, bottom, left or right surface of the hand held electronic device, wherein the second touch sensitive surface is capable of sensing at least one point of contact on the second touch sensitive surface at the same time and reporting the at least one point of contact to the controller.
A refrigerator with a refrigerating air supply assembly, the refrigerator comprising a freezing compartment, a refrigerating compartment, a freezing fan , a fan bracket , an evaporator , a freezing air duct, a refrigerating air duct , a refrigerating liner and a foamed cabinet , wherein the freezing compartment is communicated with the refrigerating compartment by the freezing air duct provided therein with a refrigerating air supply damper , wherein the refrigerator is configured as a side-by-side refrigerator, characterized in that the refrigerating air supply damper is provided in the freezing compartment and integrated into an upper portion of the evaporator , the refrigerating air duct includes a first section extending to the upper section of a mullion horizontally and a second section extending along the mullion downwards, and is led to the refrigerating compartment through air outlets, a damper insulator is further provided at the refrigerating air supply damper which is fixed at the fan bracket by the damper insulator and a bracket claw.
A corrosion sensor comprising: an insulating substrate ; a thin film of a first metallic material formed on the substrate; and characterised by: an array of areas comprising a second metallic material provided at the surface of the thin film, the second metallic material being selected such that, in use of the sensor, the second metallic material is cathodic relative to the first metallic material; electrical terminals defined on the thin film such that the electrical resistance of the thin film can be monitored; and a plurality of resistive tracks defined on the thin film connecting the electrical terminals, and wherein the areas comprising a second metallic material are provided at the surface of the resistive tracks. an insulating substrate ; a thin film of a first metallic material formed on the substrate; and characterised by: an array of areas comprising a second metallic material provided at the surface of the thin film, the second metallic material being selected such that, in use of the sensor, the second metallic material is cathodic relative to the first metallic material; electrical terminals defined on the thin film such that the electrical resistance of the thin film can be monitored; and a plurality of resistive tracks defined on the thin film connecting the electrical terminals, and wherein the areas comprising a second metallic material are provided at the surface of the resistive tracks. an array of areas comprising a second metallic material provided at the surface of the thin film, the second metallic material being selected such that, in use of the sensor, the second metallic material is cathodic relative to the first metallic material; electrical terminals defined on the thin film such that the electrical resistance of the thin film can be monitored; and a plurality of resistive tracks defined on the thin film connecting the electrical terminals, and wherein the areas comprising a second metallic material are provided at the surface of the resistive tracks.
A sensing device for a windshield , comprising: an attachment member being a first housing of the sensing device and attachable to a surface of said windshield ; a sensing element comprising a transducer , said transducer being embedded in a flexible film ; the sensing element comprising a first portion and a second portion comprising the transducer ; wherein the sensing element is bent in a manner to form an angle (α), different from a flat angle, between the first portion and the second portion ; and wherein the attachment member comprises a pressing means , the pressing means being configured to apply a pressure on or over the transducer of the sensing element when the attachment member is attached to the surface of the windshield , so as to keep the transducer pressed against the surface of the windshield . an attachment member being a first housing of the sensing device and attachable to a surface of said windshield ; a sensing element comprising a transducer , said transducer being embedded in a flexible film ; the sensing element comprising a first portion and a second portion comprising the transducer ; wherein the sensing element is bent in a manner to form an angle (α), different from a flat angle, between the first portion and the second portion ; and wherein the attachment member comprises a pressing means , the pressing means being configured to apply a pressure on or over the transducer of the sensing element when the attachment member is attached to the surface of the windshield , so as to keep the transducer pressed against the surface of the windshield .
A gas turbine engine comprising: a mid-turbine frame located axially between a first turbine and a second turbine , the mid-turbine frame comprising: an outer frame case ; an inner frame case including a fluid passage; at least one spoke (65;65A) connecting the outer frame case to the inner frame case , wherein the spoke (65;65A) includes an inlet passage (118;118') with at least one branch (124;124') extending in an axial direction in fluid communication with the fluid passage; a swirler tube (142;242;242';342;442;542) in fluid communication with the fluid passage and configured to direct cooling airflow in a radial inward and downstream direction, characterised by : a fitting extending through the inner frame case and connecting the fluid passage to the swirler tube . a mid-turbine frame located axially between a first turbine and a second turbine , the mid-turbine frame comprising: an outer frame case ; an inner frame case including a fluid passage; at least one spoke (65;65A) connecting the outer frame case to the inner frame case , wherein the spoke (65;65A) includes an inlet passage (118;118') with at least one branch (124;124') extending in an axial direction in fluid communication with the fluid passage; a swirler tube (142;242;242';342;442;542) in fluid communication with the fluid passage and configured to direct cooling airflow in a radial inward and downstream direction, an outer frame case ; an inner frame case including a fluid passage; at least one spoke (65;65A) connecting the outer frame case to the inner frame case , wherein the spoke (65;65A) includes an inlet passage (118;118') with at least one branch (124;124') extending in an axial direction in fluid communication with the fluid passage; a swirler tube (142;242;242';342;442;542) in fluid communication with the fluid passage and configured to direct cooling airflow in a radial inward and downstream direction, characterised by : a fitting extending through the inner frame case and connecting the fluid passage to the swirler tube .
A delivery system for percutaneously deploying a stented prosthetic heart valve , the system comprising: an inner shaft assembly including an intermediate portion providing a coupling structure configured to selectively engage a stented prosthetic heart valve ; a delivery sheath capsule slidably disposed over the inner shaft assembly and configured to compressively contain a stented prosthetic heart valve engaged with the coupling structure ; and a recapture assembly slidably disposed over the inner shaft assembly , the recapture assembly including a recapture frame and a sleeve coupled to the frame , wherein the frame is transitionable from a compressed arrangement to an expanded arrangement in which the frame has a distally increasing diameter, configured to recapture a partially deployed prosthetic heart valve where the recapture assembly is configured to be maneuvered into contact with a distal region of the prosthetic heart valve, and wherein the recapture frame forms a support structure defining an internal surface, and wherein the sleeve is attached to the internal surface; wherein the system is configured to provide a loaded state in which the capsule compressively retains the stented prosthetic heart valve over the inner shaft assembly and the recapture assembly is longitudinally displaced from the stented prosthetic heart valve , wherein the system is further configured to provide a recapturing state in which a distal region of the stented prosthetic heart valve is distal the capsule and the recapture assembly is slidably disposed over the stented prosthetic heart valve distal the capsule . an inner shaft assembly including an intermediate portion providing a coupling structure configured to selectively engage a stented prosthetic heart valve ; a delivery sheath capsule slidably disposed over the inner shaft assembly and configured to compressively contain a stented prosthetic heart valve engaged with the coupling structure ; and a recapture assembly slidably disposed over the inner shaft assembly , the recapture assembly including a recapture frame and a sleeve coupled to the frame , wherein the frame is transitionable from a compressed arrangement to an expanded arrangement in which the frame has a distally increasing diameter, configured to recapture a partially deployed prosthetic heart valve where the recapture assembly is configured to be maneuvered into contact with a distal region of the prosthetic heart valve, and wherein the recapture frame forms a support structure defining an internal surface, and wherein the sleeve is attached to the internal surface; wherein the system is configured to provide a loaded state in which the capsule compressively retains the stented prosthetic heart valve over the inner shaft assembly and the recapture assembly is longitudinally displaced from the stented prosthetic heart valve , wherein the system is further configured to provide a recapturing state in which a distal region of the stented prosthetic heart valve is distal the capsule and the recapture assembly is slidably disposed over the stented prosthetic heart valve distal the capsule .
Parking device for motor vehicles with at least one platform which can be raised or lowered and is provided to carry the at least one motor vehicle to be parked; and the platform is arranged between at least two hydraulic cylinders which can be loaded with pressure and volume of a hydraulic fluid, a hydraulic pump pressurises the hydraulic fluid, and the platform is connected to the extendable elements of the hydraulic cylinder, and the movement of the extendable elements causes a lifting or lowering of the platform; and on the platform , at least one tilt sensor is arranged which measures the tilt angle (α) of the platform about the longitudinal axis of the platform , the value of the tilt angle (α) is supplied to a control unit , and the control unit compares the measured value of the tilt angle (α) to a reference value; and the control unit is electrically connected to the pump drive of the hydraulic pump and/or, via a respective control line , cooperates with valves arranged in the hydraulic supply lines of the hydraulic cylinders , and at a cycle rate set by a control frequency acts on the pump drive and/or the valves depending on the comparison between the reference value and the measured tilt angle (α); characterised in that the control unit changes the control frequency and the opening width of the valves depending on the change of the tilt angle (α') over time.