mhurhangee/ep-ind-claims huggingface dataset:
Component (10; 110; 120) which comprises steel at least in a section, wherein the section extends from a surface (20; 160; 170) of the component (10; 110; 120) into an interior of the component (10; 110; 120), wherein the component (10; 110; 120) has, in the section, surface hardening (40; 200; 210) extending from the surface (30; 160; 170) of the component (10; 110; 120), and wherein the steel is 50CrMo4 or 43CrMo4 which is alloyed with an additional alloying element, where the additionally alloying element is tantalum, niobium, titanium or vanadium and where the steel comprises the additional alloying element in a proportion of from 0.01 to 2 percent by weight.
A method for designing a prosthetic structure that includes a tooth portion and a base portion, the method comprising: acquiring a set of data relating to the natural anatomy of a patient, building the prosthetic tooth portion in a computer software program using the set of data, whereby the user sculpts and positions teeth with techniques and tools utilized in the software displayed in a computer interface; displaying the base portion of the prosthetic structure in a direct or exploded view under the tooth portion of the prosthetic structure, wherein parameters for the dimensions of the base portion are pre-loaded,, wherein the base portion has a base structure including pockets, root eminences, gingiva, ruggae, minimum thickness and other anatomical landmarks that demark and mimic the functional and aesthetic characteristics of the natural anatomy of the patient; modifying the tooth portion in a designing operation in the software; characterized by simultaneously adapting the base portion of the prosthetic structure to the modifying of the tooth portion, so that the anatomical landmarks and shapes are mimicked within the parameters for the dimensions of the base portion in that the parameters for the dimensions of the base portion are defined such that portions of at least one of the following surfaces of the base portions are controlled so that they do not change: the intaglio surface, the borders of the base portion, buccal reflections, vestibule, so that the base portion retains a complementary relationship to the natural anatomy of the patient. acquiring a set of data relating to the natural anatomy of a patient, building the prosthetic tooth portion in a computer software program using the set of data, whereby the user sculpts and positions teeth with techniques and tools utilized in the software displayed in a computer interface; displaying the base portion of the prosthetic structure in a direct or exploded view under the tooth portion of the prosthetic structure, wherein parameters for the dimensions of the base portion are pre-loaded,, wherein the base portion has a base structure including pockets, root eminences, gingiva, ruggae, minimum thickness and other anatomical landmarks that demark and mimic the functional and aesthetic characteristics of the natural anatomy of the patient; modifying the tooth portion in a designing operation in the software; characterized by simultaneously adapting the base portion of the prosthetic structure to the modifying of the tooth portion, so that the anatomical landmarks and shapes are mimicked within the parameters for the dimensions of the base portion in that the parameters for the dimensions of the base portion are defined such that portions of at least one of the following surfaces of the base portions are controlled so that they do not change: the intaglio surface, the borders of the base portion, buccal reflections, vestibule, so that the base portion retains a complementary relationship to the natural anatomy of the patient.
An encoding apparatus for compression of a point cloud in a multi-dimensional space, wherein the encoding apparatus comprises: a processing circuitry configured to partition the multi-dimensional space into a plurality of cells (410a-g), wherein each point (101a,d) of the point cloud has a position within one of the plurality of cells (410a-g) and wherein each cell of the plurality of cells (410a-g) defines a primary reference position and at least one secondary reference position (401a-d); characterized in that the processing circuitry is further configured to determine for each point (101a,d) of the point cloud a refinement vector (403a,d), wherein the refinement vector (403a,d) defines depending on the position of the point (101a,d) the difference between the position of the point (101a,d) and the primary reference position or the difference between the position of the point (101a,d) and the at least one secondary reference position (401a-d); wherein the processing circuitry is further configured to encode the point cloud by encoding for each point (101a,d) of the point cloud depending on its position an identifier of the primary reference position or the at least one secondary reference position (401a-d) and the refinement vector (403a,d). a processing circuitry configured to partition the multi-dimensional space into a plurality of cells (410a-g), wherein each point (101a,d) of the point cloud has a position within one of the plurality of cells (410a-g) and wherein each cell of the plurality of cells (410a-g) defines a primary reference position and at least one secondary reference position (401a-d); characterized in that the processing circuitry is further configured to determine for each point (101a,d) of the point cloud a refinement vector (403a,d), wherein the refinement vector (403a,d) defines depending on the position of the point (101a,d) the difference between the position of the point (101a,d) and the primary reference position or the difference between the position of the point (101a,d) and the at least one secondary reference position (401a-d); wherein the processing circuitry is further configured to encode the point cloud by encoding for each point (101a,d) of the point cloud depending on its position an identifier of the primary reference position or the at least one secondary reference position (401a-d) and the refinement vector (403a,d).
An ink comprising: a polyoxyalkylene alkyl ether represented by General Formula below; an alkanediol; and a silicone-based compound in an amount of 0.2% by mass or more but 1.0% by mass or less relative to a mass of the ink, wherein a mass ratio of an amount of the polyoxyalkylene alkyl ether represented by the General Formula to an amount of the silicone-based compound is 2.0 or more but 4.0 or less: where R 1, R 2, R 3, and R 4 each independently represent a hydrogen atom or an alkyl group having 1 or more but 5 or less carbon atoms, and n represents an integer of 4 or more but 10 or less. a polyoxyalkylene alkyl ether represented by General Formula below; an alkanediol; and a silicone-based compound in an amount of 0.2% by mass or more but 1.0% by mass or less relative to a mass of the ink, wherein a mass ratio of an amount of the polyoxyalkylene alkyl ether represented by the General Formula to an amount of the silicone-based compound is 2.0 or more but 4.0 or less: where R 1, R 2, R 3, and R 4 each independently represent a hydrogen atom or an alkyl group having 1 or more but 5 or less carbon atoms, and n represents an integer of 4 or more but 10 or less.
A strut for reinforcing a vehicle body of a vehicle, especially of an engine compartment, wherein the strut has: a first fastening portion and a second fastening portion for fastening the strut to the vehicle body; and further fastening portions (5, 6) located between the first and second fastening portion (2, 3) for further fastening the strut to points of the vehicle, characterised in that the strut between the first fastening portion and the second fastening portion in the installed state projects onto an X-Y plane a profile with at least two vertices (42, 43). a first fastening portion and a second fastening portion for fastening the strut to the vehicle body; and further fastening portions (5, 6) located between the first and second fastening portion (2, 3) for further fastening the strut to points of the vehicle, characterised in that the strut between the first fastening portion and the second fastening portion in the installed state projects onto an X-Y plane a profile with at least two vertices (42, 43).
A gypsum plasterboard production plant comprising at least one circulating conveyor belt device for receiving a gypsum layer formed from a top-side casing and a bottom-side casing and a single-layer or multilayer gypsum core arranged therebetween, and for forming and hardening the gypsum layer, wherein the conveyor belt device has a supporting belt for supporting a bottom side of the gypsum layer, and wherein, in the area of the conveyor belt device, there is arranged an ultrasound application device having one or more ultrasound transmitters (15, 20, 22, 24), characterized in that at least one bottom-side ultrasound transmitter is arranged between the supporting belt and the bottom side of the gypsum layer, and the supporting belt in the area of said ultrasound transmitter is guided over a deflection device.
An imaging system, comprising: a radiation source configured to emit radiation that traverses an examination region; a hybrid data acquisition system configured to receive radiation that traverses the examination region, the hybrid data acquisition system, including: a phase-contrast sub-portion spanning a sub-portion of a full field of view; and at least one of an integrating portion (302, 702, 804, 806, 902) or a spectral portion (402, 704, 706, 802, 1002) spanning the full field of view, wherein the hybrid data acquisition system is configured to generate a phase-contrast signal and at least one of an integration signal or a spectral signal; and a reconstructor configured to reconstruct the phase-contrast signal and at least one of the integration single or the spectral signal to generate volumetric image data indicative of the examination region, characterised in that the hybrid data acquisition system includes the integrating portion and the spectral portion, which in aggregate, span the full field of view. a radiation source configured to emit radiation that traverses an examination region; a hybrid data acquisition system configured to receive radiation that traverses the examination region, the hybrid data acquisition system, including: a phase-contrast sub-portion spanning a sub-portion of a full field of view; and at least one of an integrating portion (302, 702, 804, 806, 902) or a spectral portion (402, 704, 706, 802, 1002) spanning the full field of view, wherein the hybrid data acquisition system is configured to generate a phase-contrast signal and at least one of an integration signal or a spectral signal; and a reconstructor configured to reconstruct the phase-contrast signal and at least one of the integration single or the spectral signal to generate volumetric image data indicative of the examination region, characterised in that the hybrid data acquisition system includes the integrating portion and the spectral portion, which in aggregate, span the full field of view.
A rear vehicle-body structure of a vehicle comprising: a rear bumper reinforcement having a rear bumper beam extending substantially in a vehicle width direction along a rear bumper and load absorbing parts extending from left and right ends of the rear bumper beam toward a vehicle front side; and rear side frames extending substantially in a vehicle front-rear direction respectively along left and right side portions of a rear floor and coupled at rear ends to front ends of the load absorbing parts, wherein a vehicle component being disposed under the rear floor, and wherein a vertical center (Cl) of the rear bumper beam is located below a vertical center of the rear side frames, characterized in that a stepped portion extending substantially downward is formed as a fragile portion relative to a load applied in a front-rear direction on an upper side of a border (α) between a front-side part and a rear-side part of the rear side frames and on an upper side of a front end portion of a rear side upper wall member of the rear side frame. a rear bumper reinforcement having a rear bumper beam extending substantially in a vehicle width direction along a rear bumper and load absorbing parts extending from left and right ends of the rear bumper beam toward a vehicle front side; and rear side frames extending substantially in a vehicle front-rear direction respectively along left and right side portions of a rear floor and coupled at rear ends to front ends of the load absorbing parts, wherein a vehicle component being disposed under the rear floor, and wherein a vertical center (Cl) of the rear bumper beam is located below a vertical center of the rear side frames, characterized in that a stepped portion extending substantially downward is formed as a fragile portion relative to a load applied in a front-rear direction on an upper side of a border (α) between a front-side part and a rear-side part of the rear side frames and on an upper side of a front end portion of a rear side upper wall member of the rear side frame.
A moving image processing apparatus, comprising: detection means (31, 32, 33, 34) for detecting a boundary between two adjacent transformation blocks; determination means (55, 56, 60) for determining a strength of the boundary detected by the detection means (31, 32, 33, 34); and deciding means (37, 38, 61) for deciding whether or not a deblocking filter is to be applied to decoded pixels of each of the two adjacent transformation blocks along the boundary detected by the detection means (31, 32, 33, 34), characterized in that, if a first size of a first transformation block of the two adjacent transformation blocks, on one side of the boundary, is greater than or equal to a first threshold, the deciding means (37, 38, 61) is configured to decide that a strongest filter among a plurality of filters is to be applied to the decoded pixels of the first transformation block as the deblocking filter; and if a second size of a second transformation block of the two adjacent transformation blocks, on the other side of the boundary, is less than the first threshold, the deciding means (37, 38, 61) is configured to decide the deblocking filter to be applied to the decoded pixels of the second transformation block based on the strength of the boundary determined by the determination means (55, 56, 60). detection means (31, 32, 33, 34) for detecting a boundary between two adjacent transformation blocks; determination means (55, 56, 60) for determining a strength of the boundary detected by the detection means (31, 32, 33, 34); and deciding means (37, 38, 61) for deciding whether or not a deblocking filter is to be applied to decoded pixels of each of the two adjacent transformation blocks along the boundary detected by the detection means (31, 32, 33, 34), characterized in that, if a first size of a first transformation block of the two adjacent transformation blocks, on one side of the boundary, is greater than or equal to a first threshold, the deciding means (37, 38, 61) is configured to decide that a strongest filter among a plurality of filters is to be applied to the decoded pixels of the first transformation block as the deblocking filter; and if a second size of a second transformation block of the two adjacent transformation blocks, on the other side of the boundary, is less than the first threshold, the deciding means (37, 38, 61) is configured to decide the deblocking filter to be applied to the decoded pixels of the second transformation block based on the strength of the boundary determined by the determination means (55, 56, 60).
A flame resistant polymer composition comprising: a thermoplastic polymer, the thermoplastic polymer being present in the polymer composition in an amount greater than about 60% by weight, the thermoplastic polymer comprising a polyester polymer; a flame retardant composition contained within the polymer composition, the flame retardant composition comprising a combination of a metal phosphinate, a metal phosphite, and a nitrogen-containing synergist; and polytetrafluoroethylene. a thermoplastic polymer, the thermoplastic polymer being present in the polymer composition in an amount greater than about 60% by weight, the thermoplastic polymer comprising a polyester polymer; a flame retardant composition contained within the polymer composition, the flame retardant composition comprising a combination of a metal phosphinate, a metal phosphite, and a nitrogen-containing synergist; and polytetrafluoroethylene.
A catalyst system for polymerization of propylene comprising: (a) a titanium supported on magnesium dichloride pro-catalyst carrying internal donor; (b) organoaluminium co-catalyst; and (c) external donor comprising pentamethyldiethylenetriamine and an alkoxy silane. (a) a titanium supported on magnesium dichloride pro-catalyst carrying internal donor; (b) organoaluminium co-catalyst; and (c) external donor comprising pentamethyldiethylenetriamine and an alkoxy silane.
A device for cleaning a sensor, comprising: a support structure that includes a first set of channels arranged to channel air from an air compressor; and a platform assembly,; the device being characterised in that the platform assembly comprises: a platform structure coupled to the support structure, the platform structure having a sensor mounted thereon, and including a second set of channels connected to the first set of channels and arranged to receive the air from the first set of channels; and a first raised lip structure provided around at least a portion of a perimeter of the sensor, the first raised lip structure including (i) a set of cavities connected to receive the air from the second set of channels, and (ii) a set of openings arranged to output the air from the set of cavities to outside the first raised lip structure in a direction towards a centre of the platform structure. a support structure that includes a first set of channels arranged to channel air from an air compressor; and a platform assembly,; the device being characterised in that the platform assembly comprises: a platform structure coupled to the support structure, the platform structure having a sensor mounted thereon, and including a second set of channels connected to the first set of channels and arranged to receive the air from the first set of channels; and a first raised lip structure provided around at least a portion of a perimeter of the sensor, the first raised lip structure including (i) a set of cavities connected to receive the air from the second set of channels, and (ii) a set of openings arranged to output the air from the set of cavities to outside the first raised lip structure in a direction towards a centre of the platform structure. a platform structure coupled to the support structure, the platform structure having a sensor mounted thereon, and including a second set of channels connected to the first set of channels and arranged to receive the air from the first set of channels; and a first raised lip structure provided around at least a portion of a perimeter of the sensor, the first raised lip structure including (i) a set of cavities connected to receive the air from the second set of channels, and (ii) a set of openings arranged to output the air from the set of cavities to outside the first raised lip structure in a direction towards a centre of the platform structure.
A saddle-ride type vehicle comprising: a rear cover disposed in a rear portion of a vehicle; a tail light including a light-emitting element and a lens, the lens being formed from a translucent material and disposed rearward of the light-emitting element; and a cylindrical tail light cover formed from an opaque material and protruding rearward from the rear cover, covering the periphery of the light-emitting element; wherein the lens is disposed in a rear surface of the tail light cover; and the rear cover includes: a left protuberance and a right protuberance protruding rearward, each being spaced at similar gap from the external peripheral surface of the tail light cover in a rear view of the vehicle, and a left recess section and a right recess section is disposed between the left protuberance and the right protuberance, respectively. a rear cover disposed in a rear portion of a vehicle; a tail light including a light-emitting element and a lens, the lens being formed from a translucent material and disposed rearward of the light-emitting element; and a cylindrical tail light cover formed from an opaque material and protruding rearward from the rear cover, covering the periphery of the light-emitting element; wherein the lens is disposed in a rear surface of the tail light cover; and the rear cover includes: a left protuberance and a right protuberance protruding rearward, each being spaced at similar gap from the external peripheral surface of the tail light cover in a rear view of the vehicle, and a left recess section and a right recess section is disposed between the left protuberance and the right protuberance, respectively. a left protuberance and a right protuberance protruding rearward, each being spaced at similar gap from the external peripheral surface of the tail light cover in a rear view of the vehicle, and a left recess section and a right recess section is disposed between the left protuberance and the right protuberance, respectively.
A propylene polymer resin comprising: a. a xylene soluble content greater than 2 % as measured according to D5492-10; b. a mesopentad content in the xylene-insoluble fraction greater than 93.5 % mmmm from 13 C NMR spectra; c. a M w /M n greater than 5.5; d. a M z /M n greater than 20; and e. a critical frequency for onset of shear-thinning, 1/K, less than 1.2 s -1, where K is a Cross model constant determined in accordance with ASTM D4440-08 at 200°C and 5 % strain, and a melt strength greater than 15 cN at 190°C. a. a xylene soluble content greater than 2 % as measured according to D5492-10; b. a mesopentad content in the xylene-insoluble fraction greater than 93.5 % mmmm from 13 C NMR spectra; c. a M w /M n greater than 5.5; d. a M z /M n greater than 20; and e. a critical frequency for onset of shear-thinning, 1/K, less than 1.2 s -1, where K is a Cross model constant determined in accordance with ASTM D4440-08 at 200°C and 5 % strain, and a melt strength greater than 15 cN at 190°C.
A method for fabricating a label for embedding in a secondary object, the method comprising the steps of: depositing a photaligning release material onto a substrate; aligning the photaligning release material with a linearly polarized light to create a homogenous background on the substrate; arranging a mask on a predetermined position in front of the substrate; exposing the homogenous background on the substrate to interfering light beams of orthogonal polarization states through the mask; coating the substrate with a reactive liquid crystal film; polymerizing the reactive liquid crystal film; releasing the polymerized liquid crystal polymer film from the substrate; and transferring at least a portion of the released film to the secondary object. depositing a photaligning release material onto a substrate; aligning the photaligning release material with a linearly polarized light to create a homogenous background on the substrate; arranging a mask on a predetermined position in front of the substrate; exposing the homogenous background on the substrate to interfering light beams of orthogonal polarization states through the mask; coating the substrate with a reactive liquid crystal film; polymerizing the reactive liquid crystal film; releasing the polymerized liquid crystal polymer film from the substrate; and transferring at least a portion of the released film to the secondary object.