mhurhangee/ep-ind-claims huggingface dataset:
The method for preparing cerium carbonate-based compound comprising the step of reacting Lanthanite-(Ce) which has chemical formula of (Ce,La) 2 (CO 3) 3 ·8(H 2 O) at 50°C or higher to produce cerium oxycarbonate hydrate (Ce 2 O(CO 3) 2 · H 2 O) with orthorhombic crystal structure, cerium hydroxycarbonate (Ce · (CO 3)) with hexagonal crystal structure, or a mixture thereof, wherein the step of reacting Lanthanite-(Ce) is conducted in liquid-phase medium.
A multimode transformable monument positionable between a floor and a ceiling of an aircraft cabin and proximate to a cabin space of the aircraft cabin, the monument comprising: a partition door pivotably deployable by a user relative to a first vertical axis of a hinge, between a closed position and an open position within the cabin space; and characterized in that the monument further comprises a self-deploying counter having a substantially horizontal top surface and an undersurface opposite the top surface, the counter configured to, as the partition door deploys, pivot relative to a second vertical axis of a tracking cam and track laterally relative to the partition door, the counter pivoting between a stowed position and a deployed position corresponding to the open position of the partition door, wherein the partition door is tracking forward relative to the monument when deployed in the open position. a partition door pivotably deployable by a user relative to a first vertical axis of a hinge, between a closed position and an open position within the cabin space; and characterized in that the monument further comprises a self-deploying counter having a substantially horizontal top surface and an undersurface opposite the top surface, the counter configured to, as the partition door deploys, pivot relative to a second vertical axis of a tracking cam and track laterally relative to the partition door, the counter pivoting between a stowed position and a deployed position corresponding to the open position of the partition door, wherein the partition door is tracking forward relative to the monument when deployed in the open position.
A non-pneumatic tire comprising: a mounting body that is mounted on a vehicle axle; a ring component that is provided with an inner cylindrical body that is fitted onto the outside of the mounting body, and an outer cylindrical body that encircles the inner cylindrical body from the outside in the radial direction of the tire; and a plurality of linking components that are lined up along the circumferential direction of the tire between the inner cylindrical body and the outer cylindrical body, and that link together these two cylindrical bodies (12, 13) such that they can be elastically displaced relative to each other, wherein the ring component and the plurality of linking components are formed integrally as a single unit, characterised in that: recessed portions, which are hollowed out in the tire transverse direction and are formed such that plate components are able to fix the inner cylindrical body to the mounting body in the tire transverse direction, are formed at the mounting body. a mounting body that is mounted on a vehicle axle; a ring component that is provided with an inner cylindrical body that is fitted onto the outside of the mounting body, and an outer cylindrical body that encircles the inner cylindrical body from the outside in the radial direction of the tire; and a plurality of linking components that are lined up along the circumferential direction of the tire between the inner cylindrical body and the outer cylindrical body, and that link together these two cylindrical bodies (12, 13) such that they can be elastically displaced relative to each other, wherein the ring component and the plurality of linking components are formed integrally as a single unit, characterised in that: recessed portions, which are hollowed out in the tire transverse direction and are formed such that plate components are able to fix the inner cylindrical body to the mounting body in the tire transverse direction, are formed at the mounting body.
Method of determining geometrical dimensions of a motor vehicle wheel (rim/tyre assembly) or a part of the wheel by contact-less sensing by at least one sensing device (6, 7, 8), comprising emitting from each sensing device (6, 7, 8) a single linear light beam, which is moved especially swivelled in a planar plane, onto the wheel or at least a part of the wheel, wherein the light beam is reflected at a plurality of impingement points forming a stripe-shaped impingement area on the wheel surface and results in reflected light beams, projecting a plurality of the reflected light beams to a plurality of projected points on a light sensitive area image sensor of the respective sensing device (6, 7, 8), the projected points being proportional to the directions of the emitted and reflected light beams, and evaluating sensing signals generated by the area image sensor and determining the positions of the plurality of impingement points on the wheel surface by individual point triangulation from the directions of the emitted and reflected light beams for determining the shape and/or position of the stripe-shaped impingement area on the wheel or on the part of the wheel. emitting from each sensing device (6, 7, 8) a single linear light beam, which is moved especially swivelled in a planar plane, onto the wheel or at least a part of the wheel, wherein the light beam is reflected at a plurality of impingement points forming a stripe-shaped impingement area on the wheel surface and results in reflected light beams, projecting a plurality of the reflected light beams to a plurality of projected points on a light sensitive area image sensor of the respective sensing device (6, 7, 8), the projected points being proportional to the directions of the emitted and reflected light beams, and evaluating sensing signals generated by the area image sensor and determining the positions of the plurality of impingement points on the wheel surface by individual point triangulation from the directions of the emitted and reflected light beams for determining the shape and/or position of the stripe-shaped impingement area on the wheel or on the part of the wheel.
Method for the thermal processing of a material, in particular of used foundry sand or of road construction material, in a rotary kiln with a rotatable kiln drum, the drum wall of which delimits a heatable drum chamber, through which the material is conveyed from a drum inlet to a drum outlet of the kiln drum, wherein a) the drum chamber is heated directly by conducting a heating gas into the drum chamber; b) the drum chamber is also heated indirectly by warming the drum wall at least in areas; c) the drum wall is warmed by conducting a heating medium from outside onto the drum wall, characterized in that d) the heating medium is conducted along the outside of the drum wall in a direction from the drum outlet to the drum inlet of the kiln drum. a) the drum chamber is heated directly by conducting a heating gas into the drum chamber; b) the drum chamber is also heated indirectly by warming the drum wall at least in areas; c) the drum wall is warmed by conducting a heating medium from outside onto the drum wall, characterized in that d) the heating medium is conducted along the outside of the drum wall in a direction from the drum outlet to the drum inlet of the kiln drum.
An electric motor drive, comprising an electric motor, a controller, and at least one electrical power source which is part of the vehicle electrical system of a motor vehicle, wherein the controller is designed to determine and adjust a nominal torque of the electric motor, characterized in that the electric motor drive has at least one sensor system by means of which a regenerative operation of the electric motor can be detected, wherein the controller is designed to determine at least one reduction factor (R1, R2) for the nominal torque depending on at least one measured variable; wherein both a vehicle electrical system voltage (U B) and a feedback current (I B) are taken into account as measured variables; wherein the controller is designed to determine a first reduction factor depending on the vehicle electrical system voltage (U B) and a second reduction factor depending on the feedback current (I B).
A method for a first network function, wherein the first network function is a network repository function, the method comprising: - receiving, by the first network function, an access token request from a second function, wherein the second function is a network function consumer or an application function; and - responsive to receiving the access token request, transmitting by the first network function to the second function an access token usable in a service request to access a service of a third network function, wherein the third network function is a network exposure function or a network function producer and the access token comprises at least a throughput parameter, wherein the throughput parameter defines a limit on a total number of transactions for which the access token can be used within a lifetime of the access token. - receiving, by the first network function, an access token request from a second function, wherein the second function is a network function consumer or an application function; and - responsive to receiving the access token request, transmitting by the first network function to the second function an access token usable in a service request to access a service of a third network function, wherein the third network function is a network exposure function or a network function producer and the access token comprises at least a throughput parameter, wherein the throughput parameter defines a limit on a total number of transactions for which the access token can be used within a lifetime of the access token.
A method for creating a silicone shell for an implantable prosthesis, the shell having a posterior face and an anterior face, the method comprising: a) providing a mandrel suitably sized and shaped for forming a desired shell; b) rotating the mandrel; c) applying a coating silicone dispersion to the rotating mandrel by spraying the silicone dispersion at low pressure to create a shell having a desired thickness, wherein the dispersion is sprayed by one of: atomizing the dispersion using a flow of air below 138 kPa (20 psi); or rotary atomization, wherein the dispersion is fed into a rotary atomizer at or below 207 kPa (30 psi); d) at least partially curing the silicone shell; and e) removing the silicone shell from the mandrel, wherein the spray volume or speed at which the mandrel is rotated is adjusted as the dispersion is applied such that the dispersion is applied more heavily to one or more parts of the mandrel, such that the average thickness of the formed shell in the region where the posterior and anterior faces meet is one of at least 25%, 50%, 75% or 100% greater than the thickness of the shell in the region of the anterior face. a) providing a mandrel suitably sized and shaped for forming a desired shell; b) rotating the mandrel; c) applying a coating silicone dispersion to the rotating mandrel by spraying the silicone dispersion at low pressure to create a shell having a desired thickness, wherein the dispersion is sprayed by one of: atomizing the dispersion using a flow of air below 138 kPa (20 psi); or rotary atomization, wherein the dispersion is fed into a rotary atomizer at or below 207 kPa (30 psi); atomizing the dispersion using a flow of air below 138 kPa (20 psi); or rotary atomization, wherein the dispersion is fed into a rotary atomizer at or below 207 kPa (30 psi); d) at least partially curing the silicone shell; and e) removing the silicone shell from the mandrel, wherein the spray volume or speed at which the mandrel is rotated is adjusted as the dispersion is applied such that the dispersion is applied more heavily to one or more parts of the mandrel, such that the average thickness of the formed shell in the region where the posterior and anterior faces meet is one of at least 25%, 50%, 75% or 100% greater than the thickness of the shell in the region of the anterior face.
A glow discharge lamp, including: - an elongated envelope, transparent to lighting radiation and containing a plasma gas, - a device for applying an electric field suitable for maintaining a plasma in the region of the envelope called the positive column, including two electrodes (E1, E2) constituting an anode and a cathode situated in the envelope, at each end of said envelope, - a microwave or radio-frequency cathode plasma source positioned in the envelope relative to the electrode constituting the cathode so as to generate a localized high-frequency discharge on the surface of said electrode to generate said plasma. - an elongated envelope, transparent to lighting radiation and containing a plasma gas, - a device for applying an electric field suitable for maintaining a plasma in the region of the envelope called the positive column, including two electrodes (E1, E2) constituting an anode and a cathode situated in the envelope, at each end of said envelope, - a microwave or radio-frequency cathode plasma source positioned in the envelope relative to the electrode constituting the cathode so as to generate a localized high-frequency discharge on the surface of said electrode to generate said plasma.
A method of dissolving a solid chemical feed unit in a solid chemical feed unit dissolver having a solid chemical feed unit chamber including an inwardly tapered surface proximate one end thereof, including the steps of: introducing a solid chemical feed unit in said chamber; creating a seal at a seal location between said solid chemical feed unit and said tapered surface when an edge of said solid chemical feed unit engages said surface; and spraying a diluent onto a face of said solid chemical feed unit defined by said edge, advancing said solid chemical feed unit toward said seal location while spraying said face and dissolving said solid chemical feed unit, and while retaining the seal between said solid chemical feed unit and said tapered surface, characterised in that dissolved chemicals drop towards and through a screen onto a collecting funnel and that a diluted chemical solution falls past a nozzle onto a lower screen at the bottom of the funnel for catching any lumps or pieces of undissolved chemicals falling through the screen. introducing a solid chemical feed unit in said chamber; creating a seal at a seal location between said solid chemical feed unit and said tapered surface when an edge of said solid chemical feed unit engages said surface; and spraying a diluent onto a face of said solid chemical feed unit defined by said edge, advancing said solid chemical feed unit toward said seal location while spraying said face and dissolving said solid chemical feed unit, and while retaining the seal between said solid chemical feed unit and said tapered surface, characterised in that dissolved chemicals drop towards and through a screen onto a collecting funnel and that a diluted chemical solution falls past a nozzle onto a lower screen at the bottom of the funnel for catching any lumps or pieces of undissolved chemicals falling through the screen.
A vehicle assistance control apparatus, comprising: obstacle detection means for detecting a prescribed obstacle in the periphery of a host vehicle; host vehicle speed detection means for detecting a speed of the host vehicle; accelerator operation detection means for detecting presence or absence of an accelerator operation; drive power restriction means for restricting, when the prescribed obstacle is detected by the obstacle detection means, a drive power that is to be generated in the host vehicle by an accelerator operation performed by a driver, compared to when the prescribed obstacle is not detected; and cancellation means for enabling cancellation of the restriction of the drive power by the drive power restriction means, the apparatus is characterised in that the cancellation means for enabling cancellation of the restriction of the drive power by the drive power restriction means by a cancelling operation performed by the driver, when the speed detected by the host vehicle speed detection means is equal to or lower than a prescribed value and when a state where the accelerator operation detection means detects that the accelerator operation is not being performed has continued for a prescribed period of time or longer. obstacle detection means for detecting a prescribed obstacle in the periphery of a host vehicle; host vehicle speed detection means for detecting a speed of the host vehicle; accelerator operation detection means for detecting presence or absence of an accelerator operation; drive power restriction means for restricting, when the prescribed obstacle is detected by the obstacle detection means, a drive power that is to be generated in the host vehicle by an accelerator operation performed by a driver, compared to when the prescribed obstacle is not detected; and cancellation means for enabling cancellation of the restriction of the drive power by the drive power restriction means, the apparatus is characterised in that the cancellation means for enabling cancellation of the restriction of the drive power by the drive power restriction means by a cancelling operation performed by the driver, when the speed detected by the host vehicle speed detection means is equal to or lower than a prescribed value and when a state where the accelerator operation detection means detects that the accelerator operation is not being performed has continued for a prescribed period of time or longer.
Process for preparing a component, intended to constitute an interconnector for a fuel cell (SOFC) or a high-temperature electrolyser, comprising the following steps: a/ preparing a substrate made of metal alloy, of chromia-forming type, the base element of which is iron (Fe) or nickel (Ni), the substrate having two main flat faces, b/ tape casting a thick ceramic layer; c/ localized removal at one or more locations, of material of the tape-cast thick ceramic layer; d/ hot pressing the green thick ceramic layer tape; e/ grooving the thick ceramic layer so as to delimit channels that are suitable for distributing and/or collecting gases, such as H 2 O steam, H 2; air. a/ preparing a substrate made of metal alloy, of chromia-forming type, the base element of which is iron (Fe) or nickel (Ni), the substrate having two main flat faces, b/ tape casting a thick ceramic layer; c/ localized removal at one or more locations, of material of the tape-cast thick ceramic layer; d/ hot pressing the green thick ceramic layer tape; e/ grooving the thick ceramic layer so as to delimit channels that are suitable for distributing and/or collecting gases, such as H 2 O steam, H 2; air.
Cannula assembly, comprising an infusion cannula and a hub, the hub comprising a pressure sensor with a fluid channel, the fluid channel being fluidically arranged upstream of the infusion cannula, c haracterized by the pressure sensor comprising a stack of coplanar layers, the stack of coplanar layers comprising: a) a rigid top layer and a rigid base layer, b) a resilient metallic electrode layer and a metallic counter-electrode layer, the electrode layer and the counter-electrode layer being electrodes of a sensing capacitor, c) a spacer layer which has a through cut-out, the through cut-out defining an electrode cavity, wherein the fluid channel is coupled to the electrode layer such that a positive fluidic pressure of the drug in the fluid channel causes the electrode layer to bend into the electrode cavity, thus modifying the capacitance of the sensing capacitor, and wherein the electrode layer and the spacer layer are made from foils and the layers which are arranged between the top layer and the bottom layer are of substantially the same size. a) a rigid top layer and a rigid base layer, b) a resilient metallic electrode layer and a metallic counter-electrode layer, the electrode layer and the counter-electrode layer being electrodes of a sensing capacitor, c) a spacer layer which has a through cut-out, the through cut-out defining an electrode cavity,
A zoom spotlight with variable beam angle, comprising at least one light source, a focussing optical system for emitting a zoom beam, and a zoom element for adjusting the beam angle of the zoom beam emitted by the focussing optical system, wherein the zoom element is a thin-walled scattering and/or expanding element, which is provided with a light-scattering and/or expanding scattering and/or expanding structure and is provided between the focussing optical system and the light source, wherein said scattering and/or expanding element and/or the focussing optical system is/are mounted so as to be movable to and fro for adjusting the beam angle of the emitted zoom beam, characterised in that a swap-out holder for exchanging the scattering and/or expanding element and inserting differently configured scattering and/or expanding elements for producing differently contoured and/or differently coloured beams has an annular film holder for holding the thin-walled scattering and/or expanding element in a form-fitting and/or frictionally engaged manner, which film holder is fastened releasably to an adjustably mounted holder sleeve, wherein the swap-out holder is mounted so as to be movable longitudinally displaceably substantially parallel to the main beam direction along the entire path from the light source to the focussing optical system, so that the scattering and/or expanding element in one end position is positioned directly at the light exit surface of the light source and in another end position is positioned directly at the focussing optical system.
A safety razor, comprising: a handle having hand gripping structure and a first ejector, slidable along the hand gripping structure and actuable by a user-operated button connected to the first ejector; a razor cartridge connected to the handle, comprising a housing carrying a razor blade, and a connector; the connector including a recess, the recess having an opening portion having a rim, and a remote portion at an end of the recess opposed the opening portion; wherein, when the button is operated, a distal end portion of the first ejector contacts and pushes against an interior surface of the remote portion of the recess; characterized in that the button further comprises a second ejector structure and when the button is operated, the second ejector structure contacts and pushes against the opening portion of the recess; and wherein, in combination, the distal end portion of the first ejector contacting and pushing against the interior surface of the remote portion of the recess and the second ejector structure contacting and pushing against the opening portion of the recess act to disconnect the razor cartridge from the handle. a handle having hand gripping structure and a first ejector, slidable along the hand gripping structure and actuable by a user-operated button connected to the first ejector; a razor cartridge connected to the handle, comprising a housing carrying a razor blade, and a connector; the connector including a recess, the recess having an opening portion having a rim, and a remote portion at an end of the recess opposed the opening portion; wherein, when the button is operated, a distal end portion of the first ejector contacts and pushes against an interior surface of the remote portion of the recess; characterized in that the button further comprises a second ejector structure and when the button is operated, the second ejector structure contacts and pushes against the opening portion of the recess; and wherein, in combination, the distal end portion of the first ejector contacting and pushing against the interior surface of the remote portion of the recess and the second ejector structure contacting and pushing against the opening portion of the recess act to disconnect the razor cartridge from the handle.