mhurhangee/ep-ind-claims huggingface dataset:
A manufacturing method of a conductive roller for an image forming apparatus using a xerography comprising: an elastic layer formation step in which a coating for elastic layers containing a water absorbing agent is applied on the outer periphery of a shaft and dried to form an elastic layer; and a surface layer formation step in which, after the elastic layer formation step, a coating for surface layers is applied on the formed elastic layer and dried to form a surface layer, wherein, as the coating for elastic layers and the coating for surface layers, ones containing a water-based coating are used. an elastic layer formation step in which a coating for elastic layers containing a water absorbing agent is applied on the outer periphery of a shaft and dried to form an elastic layer; and a surface layer formation step in which, after the elastic layer formation step, a coating for surface layers is applied on the formed elastic layer and dried to form a surface layer, wherein, as the coating for elastic layers and the coating for surface layers, ones containing a water-based coating are used.
A load and moment sensor comprising: a sensing element; a first resistor circuit including a first plurality of four strain gauges (122a - 122d) located on a plane parallel to a mounting surface of the sensing element, wherein each of the strain gauges of the first plurality of strain gauges (122a - 122d) is located equidistant to a centerline of the sensing element running between a front side and a back side of the load and moment sensor, wherein the first resistor circuit detects a moment in a single plane; and characterised by a second resistor circuit including a second plurality of four strain gauges (122e - 122h) located on the sensing element, wherein each of the strain gauges of the second plurality of strain gauges (122e - 122h) is located on the centerline of the sensing element and two of the second plurality of strain gauges (122e, 122f) are located on the plane parallel to the mounting surface of the sensing element, wherein the second resistor circuit detects a load in a single direction. a sensing element; a first resistor circuit including a first plurality of four strain gauges (122a - 122d) located on a plane parallel to a mounting surface of the sensing element, wherein each of the strain gauges of the first plurality of strain gauges (122a - 122d) is located equidistant to a centerline of the sensing element running between a front side and a back side of the load and moment sensor, wherein the first resistor circuit detects a moment in a single plane; and characterised by a second resistor circuit including a second plurality of four strain gauges (122e - 122h) located on the sensing element, wherein each of the strain gauges of the second plurality of strain gauges (122e - 122h) is located on the centerline of the sensing element and two of the second plurality of strain gauges (122e, 122f) are located on the plane parallel to the mounting surface of the sensing element, wherein the second resistor circuit detects a load in a single direction.
A solid-state imaging device including: a first substrate having a pixel circuit including a pixel array unit formed thereon; a second substrate having a plurality of signal processing circuits (661L; 661R) formed thereon, wherein the plurality of signal processing circuits (661L; 661R) are arranged adjacent to one another and include a scribe region there between, wherein the first substrate and the second substrate are stacked, wherein a first signal processing circuit of the plurality of signal processing circuits (661L; 661R) and a second signal processing circuit of the plurality of signal processing circuits (661L; 661R) are electrically connected, and wherein the first signal processing circuit and the second signal processing circuit are electrically connected through a first wiring layer formed on the second substrate; a first moisture-resistant guard ring that surrounds at least a part of a periphery of the first signal processing circuit; and a second moisture-resistant guard ring that surrounds at least a part of a periphery of the second signal processing circuit. a first substrate having a pixel circuit including a pixel array unit formed thereon; a second substrate having a plurality of signal processing circuits (661L; 661R) formed thereon, wherein the plurality of signal processing circuits (661L; 661R) are arranged adjacent to one another and include a scribe region there between, wherein the first substrate and the second substrate are stacked, wherein a first signal processing circuit of the plurality of signal processing circuits (661L; 661R) and a second signal processing circuit of the plurality of signal processing circuits (661L; 661R) are electrically connected, and wherein the first signal processing circuit and the second signal processing circuit are electrically connected through a first wiring layer formed on the second substrate; a first moisture-resistant guard ring that surrounds at least a part of a periphery of the first signal processing circuit; and a second moisture-resistant guard ring that surrounds at least a part of a periphery of the second signal processing circuit.
A method of manufacturing a magnetoresistive device comprising: a first electrode; a first dielectric layer disposed over the first electrode; a free layer disposed over the first dielectric layer; a second dielectric layer disposed over the free layer; and a second electrode disposed over the second dielectric layer; the method of manufacturing comprising: performing a first etch, said first etch etching at least a portion of the second electrode and at least a portion of the second dielectric layer, so as to expose a portion of the free layer; forming an encapsulation material in contact with the second electrode, the second dielectric layer, or both, wherein the encapsulation material includes aluminum oxide, magnesium oxide, silicon nitride, silicon oxide, or a combination thereof; performing a second etch, said second etch etching through at least a portion of the encapsulation material and at least a portion of the free layer; wherein the etching through at least a portion of the encapsulation material and the free layer includes exposing at least a portion of first dielectric layer. a first electrode; a first dielectric layer disposed over the first electrode; a free layer disposed over the first dielectric layer; a second dielectric layer disposed over the free layer; and a second electrode disposed over the second dielectric layer; performing a first etch, said first etch etching at least a portion of the second electrode and at least a portion of the second dielectric layer, so as to expose a portion of the free layer; forming an encapsulation material in contact with the second electrode, the second dielectric layer, or both, wherein the encapsulation material includes aluminum oxide, magnesium oxide, silicon nitride, silicon oxide, or a combination thereof; performing a second etch, said second etch etching through at least a portion of the encapsulation material and at least a portion of the free layer; wherein the etching through at least a portion of the encapsulation material and the free layer includes exposing at least a portion of first dielectric layer.
A method comprising: in a first case, sending a first part of a first control message and thereafter sending a first transmission using a first modulation, wherein the first part of the first control message comprises: a modulation indicator that indicates the first modulation and a first channelization code set indicator that indicates channelization codes for the first transmission; and in a second case, sending a first part of a second control message and thereafter sending a second transmission using a second modulation, wherein the first part of the second control message comprises: a modulation indicator that indicates other than the first modulation; another modulation indicator that specifically indicates the second modulation; and a second channelization code set indicator that indicates channelization codes for the second transmission; wherein the second channelization code set indicator is shorter than the first channelization code set indicator by the size of the another modulation indicator. in a first case, sending a first part of a first control message and thereafter sending a first transmission using a first modulation, wherein the first part of the first control message comprises: a modulation indicator that indicates the first modulation and a first channelization code set indicator that indicates channelization codes for the first transmission; a modulation indicator that indicates the first modulation and a first channelization code set indicator that indicates channelization codes for the first transmission; and in a second case, sending a first part of a second control message and thereafter sending a second transmission using a second modulation, wherein the first part of the second control message comprises: a modulation indicator that indicates other than the first modulation; another modulation indicator that specifically indicates the second modulation; and a second channelization code set indicator that indicates channelization codes for the second transmission; a modulation indicator that indicates other than the first modulation; another modulation indicator that specifically indicates the second modulation; and a second channelization code set indicator that indicates channelization codes for the second transmission;
A computer-implemented method of evaluating a dental preparation surface comprising: obtaining (210, 610) a digital oral situation and/or a portion thereof, comprising a preparation surface, wherein the preparation surface is configured to receive a digital dental prosthesis; evaluating (220, 630) at least one attainable thickness, wherein the attainable thickness is configured as a distance between the preparation surface and the surrounding(s), the surrounding(s) comprising parts of the digital oral situation that are not part of the preparation surface; and comparing the at least one attainable thickness to at least one minimum thickness as required by the digital dental restoration, characterized in that the method comprises using a software trained to detect the preparation surface by segmenting the oral situation to identify teeth and identifying based on the shape of teeth, the preparation surface. obtaining (210, 610) a digital oral situation and/or a portion thereof, comprising a preparation surface, wherein the preparation surface is configured to receive a digital dental prosthesis; evaluating (220, 630) at least one attainable thickness, wherein the attainable thickness is configured as a distance between the preparation surface and the surrounding(s), the surrounding(s) comprising parts of the digital oral situation that are not part of the preparation surface; and comparing the at least one attainable thickness to at least one minimum thickness as required by the digital dental restoration, characterized in that the method comprises using a software trained to detect the preparation surface by segmenting the oral situation to identify teeth and identifying based on the shape of teeth, the preparation surface.
Printing bar for inkjet comprising printing heads in a row, mounts, each mount holding a printing head, and adjustment devices (4, 5) for adjusting the printing heads relative to one another, every printing head including a nozzle surface with a geometric centre of gravity and every printing head connected to its mount in two connecting points (API, AP2), which are adjustable relative to a fixed point of the mount and connected to one another by an imaginary straight connecting line passing through the centre of gravity of the nozzle surface, wherein for every printing head, a first adjustment device and a second adjustment device are in contact with the mount in such a way that adjusting the two adjustment devices (4, 5) in opposite directions causes the printing head to be adjusted in a first degree of freedom and adjusting the two adjustment devices (4, 5) in the same direction causes the printing head to be adjusted in a second degree of freedom, said first degree of freedom defined by a translatory axis and said second degree of freedom defined by an axis of rotation, characterized in that the adjustments of the two adjustment devices (4, 5) are linear displacements along an axis of rotation and in that each one of the adjustment devices (4, 5) has a taper (12, 13). printing heads in a row, mounts, each mount holding a printing head, and adjustment devices (4, 5) for adjusting the printing heads relative to one another, every printing head including a nozzle surface with a geometric centre of gravity and every printing head connected to its mount in two connecting points (API, AP2), which are adjustable relative to a fixed point of the mount and connected to one another by an imaginary straight connecting line passing through the centre of gravity of the nozzle surface, wherein for every printing head, a first adjustment device and a second adjustment device are in contact with the mount in such a way that adjusting the two adjustment devices (4, 5) in opposite directions causes the printing head to be adjusted in a first degree of freedom and adjusting the two adjustment devices (4, 5) in the same direction causes the printing head to be adjusted in a second degree of freedom, said first degree of freedom defined by a translatory axis and said second degree of freedom defined by an axis of rotation, characterized in that the adjustments of the two adjustment devices (4, 5) are linear displacements along an axis of rotation and in that each one of the adjustment devices (4, 5) has a taper (12, 13).
A method for manufacturing a power electronic module by additive manufacturing, characterized in that it comprises the steps of: - making or fixing preforms of polymer material on at least one face of an insulating substrate covered with at least one layer of metal (2b, 2c), referred to as a metallized substrate, - depositing a first metal layer on the preform, - depositing by electroforming a second metal layer on the first metal layer. - making or fixing preforms of polymer material on at least one face of an insulating substrate covered with at least one layer of metal (2b, 2c), referred to as a metallized substrate, - depositing a first metal layer on the preform, - depositing by electroforming a second metal layer on the first metal layer.
A process enabling a projectile to be navigated and/or guided and/or steered towards a target, such process wherein a calculation of all or some of the projectile's Euler angles (ψ, θ, φ) is used to enable the determination of the attitude and/or location of the projectile within a terrestrial reference frame, process wherein: - before firing, at least one value is programmed into the memory or register of a projectile's computer of the three components (H MB0x, H MB0y, H MB0z) of a reference frame magnetic field in a fixed, direct and orthonormed terrestrial reference frame, such reference frame being centred on the firing position and having a horizontal axis and a vertical axis, the orientation of the reference frame with respect to the target's direction being known and fixed or programmed, - at least one azimuth angle (ψ) value is built in or programme before firing into another memory or register of the projectile's computer, - at least one measurement of the three components (H px, H py, H pz) of the magnetic field is made during the trajectory in an orthonormed reference frame linked to the projectile, - the roll angle φ and/or attitude angle θ is calculated during the trajectory from the values of the magnetic field measured, the value or values of the reference frame field and the azimuth angle value memorised for that part of the trajectory under consideration. - before firing, at least one value is programmed into the memory or register of a projectile's computer of the three components (H MB0x, H MB0y, H MB0z) of a reference frame magnetic field in a fixed, direct and orthonormed terrestrial reference frame, such reference frame being centred on the firing position and having a horizontal axis and a vertical axis, the orientation of the reference frame with respect to the target's direction being known and fixed or programmed, - at least one azimuth angle (ψ) value is built in or programme before firing into another memory or register of the projectile's computer, - at least one measurement of the three components (H px, H py, H pz) of the magnetic field is made during the trajectory in an orthonormed reference frame linked to the projectile, - the roll angle φ and/or attitude angle θ is calculated during the trajectory from the values of the magnetic field measured, the value or values of the reference frame field and the azimuth angle value memorised for that part of the trajectory under consideration.
Mechanical timepiece oscillator including a first rigid support element, a second solid inertial element and, between said first rigid support element and said second solid inertial element, at least two first flexible strips (31; 32) which support said second solid inertial element and are arranged to return the latter to a rest position, wherein said second solid inertial element is arranged to oscillate angularly in an oscillation plane about said rest position, said two first flexible strips (31; 32) do not touch each other and their projections onto said oscillation plane intersect, in the rest position, at a crossing point, through which passes the axis of rotation of said second solid inertial element perpendicularly to said oscillation plane, and the embedding points of said first flexible strips (31; 32) in said first rigid support element and said second solid inertial element define two strip directions (DL1; DL2), which are parallel to said oscillation plane and which form between them, in the rest position, in projection onto said oscillation plane, a vertex angle (a), the position of said crossing point being defined by the ratio X= D/L, where D is the distance between the projection onto said oscillation plane of one of the embedding points of said first strips (31; 32) in said first rigid support element and said crossing point, and where L is the total length of the projection, onto said oscillation plane, of said strip (31; 32), and where the value of said ratio D/L is comprised between 0 and 1, and where said vertex angle (a) is less than or equal to 70°, wherein said first strips (31; 32) and their embedding points define together a pivot which, in projection onto said oscillation plane, is symmetrical with respect to an axis of symmetry passing through said crossing point, wherein in the rest position, in projection onto said oscillation plane, the centre of mass of said second solid inertial element is located on said axis of symmetry of said pivot, and characterised in that, in projection onto said oscillation plane, the centre of mass of said second solid inertial element is at a non-zero distance from said crossing point corresponding to the axis of rotation of said second solid inertial element, which non-zero distance is comprised between 0.1 times and 0.2 times the total length of the projection, onto said oscillation plane, of said strip (31; 32).
An adapter for releasably attaching a syringe to an injector, wherein the syringe comprises a body, a front end having a fluid outlet extending from a forward end of the body, a plunger slideably positioned within the body, and a flange extending around a rearward end of the body, and wherein the injector comprises a front wall, an opening formed in the front wall, and a drive member reciprocally mounted in the injector, the adapter comprising: a mounting mechanism positioned at a rear end of the adapter to mount the adapter in a desired position relative to the front wall of the injector; a syringe carrier section adapted to seat at least a portion of the syringe, the syringe carrier section defining a first opening on a top thereof to allow placement of the syringe therein from the top and a second opening in a rear section thereof to allow the drive member of the injector to communicate forward force to the plunger; characterized in that a cover portion extends over a rearward end of the first opening, the cover portion comprising a body having a front face and rear face that are angled to meet at a top of the body, wherein the front face of the cover portion causes the syringe to pivot in a controlled manner during removal of the syringe from the syringe carrier section. a mounting mechanism positioned at a rear end of the adapter to mount the adapter in a desired position relative to the front wall of the injector; a syringe carrier section adapted to seat at least a portion of the syringe, the syringe carrier section defining a first opening on a top thereof to allow placement of the syringe therein from the top and a second opening in a rear section thereof to allow the drive member of the injector to communicate forward force to the plunger; characterized in that a cover portion extends over a rearward end of the first opening, the cover portion comprising a body having a front face and rear face that are angled to meet at a top of the body, wherein the front face of the cover portion causes the syringe to pivot in a controlled manner during removal of the syringe from the syringe carrier section.
An information processing apparatus comprising: control means arranged to execute a predetermined function in response to a start of operation on an operation member and terminate execution of the predetermined function in response to an end of the operation which has continued from the start of the operation; characterized by time measuring means arranged to measure the time from the start of operation on the operation member; and output means arranged to output a notification about an operation method for continuously executing the predetermined function using the operation member in response to the operation which has continued from the start of the operation ending before the time measured by said time measuring means exceeds a predetermined time after the operation starts. control means arranged to execute a predetermined function in response to a start of operation on an operation member and terminate execution of the predetermined function in response to an end of the operation which has continued from the start of the operation; characterized by time measuring means arranged to measure the time from the start of operation on the operation member; and output means arranged to output a notification about an operation method for continuously executing the predetermined function using the operation member in response to the operation which has continued from the start of the operation ending before the time measured by said time measuring means exceeds a predetermined time after the operation starts.