mhurhangee/ep-ind-claims huggingface dataset:
A method for aligning dental arch pairs (50, 54), the method being performed by a processor and comprising steps of: receiving a first digital 3D model of at least a portion of a person's mandible and a second a digital 3D model of at least a portion of the person's maxilla; estimating a first representative plane in the first digital 3D model for the mandible and a second representative plane in the second digital 3D model for the maxilla; a first transforming step of transforming the first digital 3D model and the second digital 3D model such that the first representative plane and the second representative plane are each aligned with respective coordinate systems; a second transforming step of transforming the first digital 3D model and the second digital 3D model such that the mandible and the maxilla in the digital 3D models are each aligned with a same coordinate system; and bringing the first digital 3D model into bite alignment with the second digital 3D model, after the transforming steps, such that the mandible is bite-aligned with the maxilla in the digital 3D models, wherein the method further comprises detecting whether the first digital 3D model represents a full-arch or a quadrant arch of the mandible and whether the second digital 3D model represents a full-arch or a quadrant arch of the maxilla, and wherein the second transforming step comprises a different in-plane rotation depending on whether the first digital 3D model represents a full-arch or a quadrant arch of the mandible and whether the second digital 3D model represents a full-arch or a quadrant arch of the maxilla. receiving a first digital 3D model of at least a portion of a person's mandible and a second a digital 3D model of at least a portion of the person's maxilla; estimating a first representative plane in the first digital 3D model for the mandible and a second representative plane in the second digital 3D model for the maxilla; a first transforming step of transforming the first digital 3D model and the second digital 3D model such that the first representative plane and the second representative plane are each aligned with respective coordinate systems; a second transforming step of transforming the first digital 3D model and the second digital 3D model such that the mandible and the maxilla in the digital 3D models are each aligned with a same coordinate system; and bringing the first digital 3D model into bite alignment with the second digital 3D model, after the transforming steps, such that the mandible is bite-aligned with the maxilla in the digital 3D models, wherein the method further comprises detecting whether the first digital 3D model represents a full-arch or a quadrant arch of the mandible and whether the second digital 3D model represents a full-arch or a quadrant arch of the maxilla, and wherein the second transforming step comprises a different in-plane rotation depending on whether the first digital 3D model represents a full-arch or a quadrant arch of the mandible and whether the second digital 3D model represents a full-arch or a quadrant arch of the maxilla.
Lighting device comprising: - at least one first light source (DE 1; DE' 1) for providing illumination, - at least one second light source (DE 2; DE' 2) for transmitting data by modulating the light, - first and second optical refractor devices (DR 1, DR 2; DR' 1, DR' 2) positioned, respectively, with respect to said first and second light sources so as to capture the light emitted by said sources and to form, respectively, distinct first and second light beams, said second light beam defining a zone suitable for the transmission of data, the lighting device being characterized in that it includes a variator device for varying the luminosity and/or the colour of the first light beam, which device is activated in order to identify the availability of a data transmission service provided in the transmission zone, by means of varying the luminosity and/or the colour of the first light beam that produces luminous effects for accentuating or decreasing the visibility of the edge of the data transmission zone defined by said second light beam, the variator device being configured to be deactivated when the data transmission service provided in the transmission zone is unavailable. - at least one first light source (DE 1; DE' 1) for providing illumination, - at least one second light source (DE 2; DE' 2) for transmitting data by modulating the light, - first and second optical refractor devices (DR 1, DR 2; DR' 1, DR' 2) positioned, respectively, with respect to said first and second light sources so as to capture the light emitted by said sources and to form, respectively, distinct first and second light beams, said second light beam defining a zone suitable for the transmission of data, the lighting device being characterized in that it includes a variator device for varying the luminosity and/or the colour of the first light beam, which device is activated in order to identify the availability of a data transmission service provided in the transmission zone, by means of varying the luminosity and/or the colour of the first light beam that produces luminous effects for accentuating or decreasing the visibility of the edge of the data transmission zone defined by said second light beam, the variator device being configured to be deactivated when the data transmission service provided in the transmission zone is unavailable.
A wastewater treatment system comprising: a reactor tank tapered from a first cross-section to a second cross-section smaller than the first cross-section, the first cross-section being above the second cross-section; an inlet for wastewater to enter the reactor tank below or near the bottom of the second cross-section; a recycling path arranged to take in wastewater from an intake downstream from the first cross-section and to return at least part of the removed wastewater into the reactor tank upstream from the recycling path intake and upstream of the inlet; a flow distributor in the reactor tank, the flow distributor comprising an array of ports arranged to draw wastewater from a plurality of locations distributed across a cross-section of the reactor tank, and the flow distributor being configured to collect wastewater from the reactor tank and deliver it to the recycling path intake; an outlet for water to exit the reactor tank downstream from the recycling path intake; and a harvest section in the reaction tank, where struvite pellets are harvested; wherein the inlet is located at the base of the harvest section. a reactor tank tapered from a first cross-section to a second cross-section smaller than the first cross-section, the first cross-section being above the second cross-section; an inlet for wastewater to enter the reactor tank below or near the bottom of the second cross-section; a recycling path arranged to take in wastewater from an intake downstream from the first cross-section and to return at least part of the removed wastewater into the reactor tank upstream from the recycling path intake and upstream of the inlet; a flow distributor in the reactor tank, the flow distributor comprising an array of ports arranged to draw wastewater from a plurality of locations distributed across a cross-section of the reactor tank, and the flow distributor being configured to collect wastewater from the reactor tank and deliver it to the recycling path intake; an outlet for water to exit the reactor tank downstream from the recycling path intake; and a harvest section in the reaction tank, where struvite pellets are harvested; wherein the inlet is located at the base of the harvest section.
An orthopedic implant, comprising: an implant body comprising a bone contact surface configured to be in contact or near contact with a bone structure during use, wherein the implant body comprises a web structure comprising a plurality of planar truss units joined together to form a space truss; a bone interface structure; comprising a first elongated portion configured to be at least partially pressed into the bone structure during use, and a second elongated portion configured to be at least partially pressed into the bone structure during use, wherein the second elongated portion is coupled to the first elongated portion and extends from the first elongated portion at an angle oblique to the first elongated portion; characterised in that the web structure comprises a plurality of smaller sized space trusses and wherein the bone interface structure comprises a plurality of larger sized space trusses that extend between and above the smaller sized space trusses. an implant body comprising a bone contact surface configured to be in contact or near contact with a bone structure during use, wherein the implant body comprises a web structure comprising a plurality of planar truss units joined together to form a space truss; a bone interface structure; comprising a first elongated portion configured to be at least partially pressed into the bone structure during use, and a second elongated portion configured to be at least partially pressed into the bone structure during use, wherein the second elongated portion is coupled to the first elongated portion and extends from the first elongated portion at an angle oblique to the first elongated portion; characterised in that the web structure comprises a plurality of smaller sized space trusses and wherein the bone interface structure comprises a plurality of larger sized space trusses that extend between and above the smaller sized space trusses.
Process for regulating the film thickness profile of single-layer or multi-layer tubular film produced with film blowing lines by detecting the thickness profile of the film tube, subsequently comparing the detected actual profile with the specified set-point profiles in order to generate a control variable which permits influencing the thickness profile of the film tube to be produced, whereby the control process to generate the control variable comprises a cascading control process based on superposition of the following profiles: - a basic profile which adjusts the thickness of the extruded film tube around the film tube circumference to a specified thickness set-point profile by means of a film thickness profile control system, - a roll profile which measures the film thickness across the roll width summated over the length of the tube and should gauge bands develop on the reel, a control operation is performed so that the set-point thickness displacement is adjusted across the entire film width, characterised in that the superimposed profile also includes a scatter profile in addition which constitutes a fixed function or a function calculated by means of an algorithm, and a thick-thin spots displacement is generated across the film circumference, whereby the rotation angle and the rotation velocity of the oscillating take-off unit or of the film die head or of the winder are less than the rotation angle and rotation velocity necessary if the control process is not superimposed by a scatter profile. - a basic profile which adjusts the thickness of the extruded film tube around the film tube circumference to a specified thickness set-point profile by means of a film thickness profile control system, - a roll profile which measures the film thickness across the roll width summated over the length of the tube and should gauge bands develop on the reel, a control operation is performed so that the set-point thickness displacement is adjusted across the entire film width,
An apparatus for delivering an implantable device, the apparatus comprising: a camming barrel having a first groove on the surface of the camming barrel; a sheath, having a distal region for storing the implantable device; and a first cam follower coupled to the sheath, wherein the first cam follower is configured to travel within the first groove of the camming barrel and to retract the sheath with respect to the camming barrel; characterised in that the apparatus further comprises: a locking mechanism comprising a handle, the locking mechanism adapted to prevent rotation of the camming barrel when engaged, wherein proximal retraction of the handle disengages the locking mechanism and permits rotation of the camming barrel. a camming barrel having a first groove on the surface of the camming barrel; a sheath, having a distal region for storing the implantable device; and a first cam follower coupled to the sheath, wherein the first cam follower is configured to travel within the first groove of the camming barrel and to retract the sheath with respect to the camming barrel; characterised in that the apparatus further comprises: a locking mechanism comprising a handle, the locking mechanism adapted to prevent rotation of the camming barrel when engaged, wherein proximal retraction of the handle disengages the locking mechanism and permits rotation of the camming barrel.
An optical device comprising, in sequence: a surface formed of a metal oxide; a samarium oxide-containing layer in contact with the surface formed of a metal oxide; and a magnesium fluoride-containing layer in contact with the samarium oxide-containing layer. a surface formed of a metal oxide; a samarium oxide-containing layer in contact with the surface formed of a metal oxide; and a magnesium fluoride-containing layer in contact with the samarium oxide-containing layer.
A mobile device configured to navigate a surface, the mobile device comprising a movement mechanism configured to move the mobile device among poses on the surface, each pose comprising a device location and a device orientation; a mapping module configured to update a map representing data about the surface, the map associating map locations with one or more properties sufficient to indicate unexplored, explored, and occupied locations, wherein a frontier indicates a boundary between an explored location and an unexplored location, and an edge indicates a boundary between an explored location and an occupied location; an initialization module configured to establish an initial pose; a first region-covering module configured to cause the movement mechanism to move the mobile device relative to the initial pose to a first sector so as to cover a region of the surface and to cause the mapping module to update the map; a second region-covering module configured to cause the movement mechanism to move the mobile device relative to the initial pose to a second sector so as to cover at least one additional region of the surface and to cause the mapping module to update the map; an edge-following module configured to cause the movement mechanism to move the mobile device along edges, and to cause the mapping module to update the map, and a third region-covering module configured to cause the movement mechanism to move the mobile device to cover a further region of the surface, if a frontier, which is suitable for region based covering, has been created in the course of moving the mobile device along edges, otherwise the edge-following module causes the movement mechanism to again move the mobile device along edges.
Bushing for connecting a separable connector to a switchgear or to a transformer in a power distribution network of a national grid for distributing electrical power at medium or high voltages, the bushing comprising a) a bushing body comprising a solidified, electrically insulating casting material; b) a bushing conductor, embedded in the casting material, for conducting power at medium or high voltages into the switchgear or the transformer, and c) an integrated primary capacitor, operable in a high-voltage portion of a voltage divider for sensing a voltage of the bushing conductor, wherein the primary capacitor comprises a low-voltage electrode, a high-voltage electrode and a dielectric; wherein the high-voltage electrode is a section of the bushing conductor; wherein the low-voltage electrode is embedded in the casting material and comprises a circumferential wall surrounding the bushing conductor and forming a cavity; wherein the dielectric is formed by a portion of the casting material arranged in the cavity, and wherein the circumferential wall comprises a mesh of conductive wires forming a plurality of apertures between the conductive wires to allow the casting material radially outside the circumferential wall to be mechanically connected with the casting material in the cavity, characterized in that the bushing further comprises at least one low-voltage capacitor, comprised in a low-voltage portion of the voltage divider and electrically connected in series to the primary capacitor, wherein the at least one low-voltage capacitor is a discrete capacitor, such as a surface-mount capacitor, embedded in the casting material. a) a bushing body comprising a solidified, electrically insulating casting material; b) a bushing conductor, embedded in the casting material, for conducting power at medium or high voltages into the switchgear or the transformer, and c) an integrated primary capacitor, operable in a high-voltage portion of a voltage divider for sensing a voltage of the bushing conductor, wherein the primary capacitor comprises a low-voltage electrode, a high-voltage electrode and a dielectric; wherein the high-voltage electrode is a section of the bushing conductor; wherein the low-voltage electrode is embedded in the casting material and comprises a circumferential wall surrounding the bushing conductor and forming a cavity; wherein the dielectric is formed by a portion of the casting material arranged in the cavity, and wherein the circumferential wall comprises a mesh of conductive wires forming a plurality of apertures between the conductive wires to allow the casting material radially outside the circumferential wall to be mechanically connected with the casting material in the cavity, characterized in that the bushing further comprises at least one low-voltage capacitor, comprised in a low-voltage portion of the voltage divider and electrically connected in series to the primary capacitor, wherein the at least one low-voltage capacitor is a discrete capacitor, such as a surface-mount capacitor, embedded in the casting material.
A method of forming a superconducting article comprising: providing a substrate tape; forming a superconducting layer on the substrate tape, the superconducting layer having an as-formed critical current I C; electrodepositing a stabilizer layer overlying the superconducting layer characterized in that, in the step of electrode depositing the stabilizer layer a solution is used that is non-reactive to the superconducting layer, the superconducting layer having a post-stabilized critical current I C, at least about 95% of the I C. providing a substrate tape; forming a superconducting layer on the substrate tape, the superconducting layer having an as-formed critical current I C; electrodepositing a stabilizer layer overlying the superconducting layer characterized in that, in the step of electrode depositing the stabilizer layer a solution is used that is non-reactive to the superconducting layer, the superconducting layer having a post-stabilized critical current I C, at least about 95% of the I C.
A thermoelectric material comprising: a p-type skutterudite material of the following Chemical Formula 1, greater than 0 wt% and 7.5 wt% or less of AlSb, and greater than 0 wt% and 20 wt% or less of FeSb 2: [Chemical Formula 1] m (Fe) a (A') a' (Co) b (B') b' (Sb) c (C') c' in Chemical Formula 1, M is at least one of element selected from the group consisting of S, In, Nd, Pr, Ce, Yb, La, Sr, Ba, Ca, Sm, Eu, and Gd, 0<m<1.5, A' is at least one of element selected from the group consisting of Ni, Mn, Tc, and Pd, 1<(a+a')≤4, and 0≤a'<1, B' is at least one of element selected from the group consisting of Ni, Ru, Os, Ir, and Pt, 0<(b+b')<3, and 0≤b'<1, C' is at least one of element selected from the group consisting of Sn and Te, and 11<(c+c')<13.5, and 0≤c'<1. a p-type skutterudite material of the following Chemical Formula 1, greater than 0 wt% and 7.5 wt% or less of AlSb, and greater than 0 wt% and 20 wt% or less of FeSb 2: [Chemical Formula 1] m (Fe) a (A') a' (Co) b (B') b' (Sb) c (C') c' in Chemical Formula 1, M is at least one of element selected from the group consisting of S, In, Nd, Pr, Ce, Yb, La, Sr, Ba, Ca, Sm, Eu, and Gd, 0<m<1.5, A' is at least one of element selected from the group consisting of Ni, Mn, Tc, and Pd, 1<(a+a')≤4, and 0≤a'<1, B' is at least one of element selected from the group consisting of Ni, Ru, Os, Ir, and Pt, 0<(b+b')<3, and 0≤b'<1, C' is at least one of element selected from the group consisting of Sn and Te, and 11<(c+c')<13.5, and 0≤c'<1. M is at least one of element selected from the group consisting of S, In, Nd, Pr, Ce, Yb, La, Sr, Ba, Ca, Sm, Eu, and Gd, 0<m<1.5, A' is at least one of element selected from the group consisting of Ni, Mn, Tc, and Pd, 1<(a+a')≤4, and 0≤a'<1, B' is at least one of element selected from the group consisting of Ni, Ru, Os, Ir, and Pt, 0<(b+b')<3, and 0≤b'<1, C' is at least one of element selected from the group consisting of Sn and Te, and 11<(c+c')<13.5, and 0≤c'<1.
A climate control system, in particular for a motor vehicle, with a refrigerant circuit which has an evaporator and a condenser, and with a coolant circuit, wherein the refrigerant circuit and the coolant circuit are thermally coupled to each other in particular in the region of the evaporator and in the region of the condenser, wherein the coolant circuit has a line system with junctions (10, 11, 12, 13, 14, 15, 16, 17, 18), wherein a heating body, a cooling body, an external heat exchanger, an additional heat source are integrated into the line system, characterised in that: a first bypass line and a second bypass line are integrated into the line system, wherein the first bypass line bypasses the additional heat source from the cooling body to the external heat exchanger and the second bypass line bypasses the additional heat source from the heating body to the external heat exchanger.
A male or female electrical terminal to form part of an electrically conducting junction to establish an electrical conduit or circuit, comprising: a substrate; a metallic conductive layer provided on the substrate; an organic passivation film provided on the metallic conductive layer; and a fluorophore provided at the passivation layer. a substrate; a metallic conductive layer provided on the substrate; an organic passivation film provided on the metallic conductive layer; and a fluorophore provided at the passivation layer.