mhurhangee/ep-ind-claims huggingface dataset:
A stereo source image calibration method comprising: receiving an input of a stereo source image, and extracting features respectively from left and right source images; generating feature correspondence information by matching the features, extracted respectively from the left and right source images, with each other; generating a vertical disparity map with respect to the left and right source images, based on a difference between coordinate values from the feature correspondence information; and calibrating a difference between the left and right source images by using the generated vertical disparity map; characterised by further comprising performing photometric calibration on the left and right source images by using the feature correspondence information, wherein the photometric calibration comprises: calculating a statistics value of the left and right source images in a location corresponding to the feature correspondence information, and performing first color calibration on the left and right source images based on the calculated statistics value; and performing second color calibration by performing histogram matching on left and right source images that are obtained by performing the first color calibration, wherein the photometric calibration is for example performed in a color space selected from RGB, CIELab, and YCbCr. receiving an input of a stereo source image, and extracting features respectively from left and right source images; generating feature correspondence information by matching the features, extracted respectively from the left and right source images, with each other; generating a vertical disparity map with respect to the left and right source images, based on a difference between coordinate values from the feature correspondence information; and calibrating a difference between the left and right source images by using the generated vertical disparity map; characterised by further comprising performing photometric calibration on the left and right source images by using the feature correspondence information, wherein the photometric calibration comprises: calculating a statistics value of the left and right source images in a location corresponding to the feature correspondence information, and performing first color calibration on the left and right source images based on the calculated statistics value; and performing second color calibration by performing histogram matching on left and right source images that are obtained by performing the first color calibration, wherein the photometric calibration is for example performed in a color space selected from RGB, CIELab, and YCbCr. calculating a statistics value of the left and right source images in a location corresponding to the feature correspondence information, and performing first color calibration on the left and right source images based on the calculated statistics value; and performing second color calibration by performing histogram matching on left and right source images that are obtained by performing the first color calibration, wherein the photometric calibration is for example performed in a color space selected from RGB, CIELab, and YCbCr.
A curable composition comprising: a polyoxyalkylene polymer and/or a (meth)acrylate polymer containing a silicon-containing group being capable of crosslinking by forming siloxane bonds, a titanium chelate represented by the following general formula or, and a photostabilizer, wherein a main component of the photostabilizer is a photostabilizer (C-1) having no benzotriazole ring which is one or more kinds selected from benzoate ultraviolet absorbers, triazine ultraviolet absorbers, cyano acrylate ultraviolet absorbers, benzophenone ultraviolet absorbers and hindered amine photostabilizers, and the photostabilizer (C-1) having no benzotriazole ring is contained in an amount of from 0.1 to 10 parts by weight with respect to 100 parts by weight of the polymer, General formula: wherein each of n R 1 s is independently a substituted or unsubstituted hydrocarbon group having 1 to 20 carbon atoms, each of (4-n) R 2 s is independently hydrogen atom or a substituted or unsubstituted hydrocarbon group having 1 to 20 carbon atoms, each of (4-n) R 3 s and (4-n) R 4 s is independently a substituted or unsubstituted hydrocarbon group having 1 to 20 carbon atoms, n is 0, 1, 2 or 3, General formula: wherein R 2, R 3 and R 4 are the same as defined above, R 5 is a substituted or unsubstituted divalent hydrocarbon group having 1 to 20 carbon atoms. a polyoxyalkylene polymer and/or a (meth)acrylate polymer containing a silicon-containing group being capable of crosslinking by forming siloxane bonds, a titanium chelate represented by the following general formula or, and a photostabilizer,
A safety system having at least one checking station, having at least one mobile key unit with an evaluation unit and having a key station with a receiver for the key unit, wherein at least one spatially bounded access zone is arranged having an access station for a facility; wherein the checking station is arranged in a fixed position; wherein the key unit is configured for reading data from at least one checking station within a safety zone of the facility, with the data comprising identification data for the checking station, and with the mobile key unit having an interface by means of which the data can be wirelessly transmitted from the checking station to the key unit; wherein the checking station is only accessible via the access zone such that the access zone can only be passed through by a person having the key unit before reaching the checking station and after leaving the checking station, with the data of the key unit being able to be transmitted to the key station; and wherein the facility is activated when at least one mobile key unit is in the key station and the facility is deactivated when at least one key unit has been removed from the key station.
A method of extracting oxidised lipids from a lipid solution, the method comprising (a) a derivatisation step, comprising contacting a carboxy group containing derivatisation agent with the lipid solution such that aldehydic oxidised lipids and/or α,β-unsaturated oxidised lipids, if present in the lipid solution, are derivatised to include the carboxy group, and (b) an oxidised lipid capture step, in which nanoparticles comprising or consisting of a metal oxide are contacted with the lipid solution, wherein the nanoparticles selectively bind to the carboxy group, and wherein the derivatisation agent is selected from 2-aminoanthranilic acid, 4-aminoanthranilic acid, 3-(4-aminophenyl)-propionic acid, 6-aminocaproic acid and a compound according to formula: or a salt, solvate or hydrate thereof; wherein - X represents a carboxylic acid group; - each L independently represents a single bond or linker group; - n is an integer from 0 to 4; and - A represents an optionally substituted heteroaryl or aryl group. (a) a derivatisation step, comprising contacting a carboxy group containing derivatisation agent with the lipid solution such that aldehydic oxidised lipids and/or α,β-unsaturated oxidised lipids, if present in the lipid solution, are derivatised to include the carboxy group, and (b) an oxidised lipid capture step, in which nanoparticles comprising or consisting of a metal oxide are contacted with the lipid solution, wherein the nanoparticles selectively bind to the carboxy group, and - X represents a carboxylic acid group; - each L independently represents a single bond or linker group; - n is an integer from 0 to 4; and - A represents an optionally substituted heteroaryl or aryl group.
A computer-implemented method for processing seismic data characterized by comprising: jointly inverting primary wave seismic data (PP data) and shear wave seismic data (PS data) as part of a nonlinear tomography process which adheres to one or more co-depthing constraints, said jointly inverting step comprising: kinematically re-migrating the seismic data using PP and PS residual moveout invariants and at least one of P or S horizon invariants; evaluating a cost function which includes at least one term associated with the one or more co-depthing constraints; performing a linear update of multi-layer velocity attributes using an output of the evaluating step which is constrained by co-depthing; and repositioning the at least one of the P or S horizons, wherein the one or more co-depthing constraints includes a reflector constraint which minimizes discrepancies between kinematically re-migrated seismic reflectors in PP and PS domains by adding an additional weighted term to the cost function. kinematically re-migrating the seismic data using PP and PS residual moveout invariants and at least one of P or S horizon invariants; evaluating a cost function which includes at least one term associated with the one or more co-depthing constraints; performing a linear update of multi-layer velocity attributes using an output of the evaluating step which is constrained by co-depthing; and repositioning the at least one of the P or S horizons,
A weighing balance comprising a base body, a weighing chamber rear wall, and a top wall; the weighing chamber rear wall comprising a first side and a second side with the first side facing the draft shield and the second side located opposing the first side; the weighing balance further comprising a mounting unit movably connected to the first side of the weighing chamber rear wall and positioned above the top wall, the weighing chamber rear wall further comprising an elongate slot extending from the first side through the second side and receiving the mounting unit and the top wall about the first side and guiding the mounting unit and the top wall in a direction normal to the base body characterized by a position control unit located on the second side and comprising a lower carriage operatively connected to the top wall, an upper carriage operatively connected to the mounting unit such that the mounting unit and the top wall are movable together along the elongate slot wherein the lower carriage is stoppable by a stopper at a predetermined position away from the base body while allowing the upper carriage to advance beyond said stopper thereby separating the mounting unit spatially from the top wall.
A wearing article having a longitudinal direction and a transverse direction and comprising a skin-facing side, a non-skin-facing side, a front waist region, a rear waist region and a crotch region extending between the front and rear waist regions and further comprising a waist belt member defining the front and rear waist regions, a crotch member defining parts of the front and rear waist regions and the crotch region, a plurality of waist-elastic elements attached under tension to the waist belt member to extend in the transverse direction and a plurality of crotch-elastic elements attached under tension to the crotch member to extend in the longitudinal direction wherein the waist belt member includes a waist-side end extending in the transverse direction and defining a waist-opening and a leg-side end opposite to the waist-side end to define parts of respective leg-openings and wherein the crotch member includes a front end and a rear end extending in the transverse direction and both side edges extending in the longitudinal direction wherein the front end is bonded to the front waist region of the waist belt member via a front bonded region and the rear end is bonded to the rear waist region of the waist band member via a rear bonded region, the wearing article being characterized in that; the front bonded region is formed on the non-skin-facing side of the front waist region; non-bonded regions in which the front end of the crotch member and the waist belt member are not bonded to each other are formed outboard of both side edges of the front bonded region as viewed in the transverse direction; and at least parts of the waist-elastic elements and at least parts of the crotch-elastic elements extend from the non-bonded regions to the front bonded region and the parts of the waist-elastic elements intersect the parts of the crotch-elastic elements in the front bonded region.
A method for slicing a three-dimensional model for printing of a corresponding object by a 3D printer, the slicing made within a space having a Z axis, the Z axis being perpendicular to a printing plane, the method comprising: obtaining a representation of an envelope of an object as a collection of planar polygons, each polygon defined by shape, location coordinates and a direction vector that is perpendicular to the respective polygon, said direction vector pointing outwardly of said object and thereby distinguishing an inward face of said polygon from an outward face of said polygon; defining a slicing plane characterized by a Z0 coordinate along the Z axis; and dividing said slicing plane into regions that are within the object, regions that belong to a support structure and regions that are outside the object and not to be printed, characterized in that said defining regions within said slice comprises: finding a closest polygon of said envelope that is positioned with respect to said z axis above a respective region to be identified; where no polygon is identified, then marking a corresponding region as a no-print region; if a direction vector of a closest above polygon has a positive component in the Z direction, then marking said corresponding region as a model region; if a direction vector of said closest above polygon has a negative component in the Z direction, then marking the region as a support region. obtaining a representation of an envelope of an object as a collection of planar polygons, each polygon defined by shape, location coordinates and a direction vector that is perpendicular to the respective polygon, said direction vector pointing outwardly of said object and thereby distinguishing an inward face of said polygon from an outward face of said polygon; defining a slicing plane characterized by a Z0 coordinate along the Z axis; and dividing said slicing plane into regions that are within the object, regions that belong to a support structure and regions that are outside the object and not to be printed, characterized in that said defining regions within said slice comprises: finding a closest polygon of said envelope that is positioned with respect to said z axis above a respective region to be identified; where no polygon is identified, then marking a corresponding region as a no-print region; if a direction vector of a closest above polygon has a positive component in the Z direction, then marking said corresponding region as a model region; if a direction vector of said closest above polygon has a negative component in the Z direction, then marking the region as a support region. finding a closest polygon of said envelope that is positioned with respect to said z axis above a respective region to be identified; where no polygon is identified, then marking a corresponding region as a no-print region; if a direction vector of a closest above polygon has a positive component in the Z direction, then marking said corresponding region as a model region; if a direction vector of said closest above polygon has a negative component in the Z direction, then marking the region as a support region.
A cable termination sleeve having an outer housing and an inner housing, wherein the outer housing comprises contact means for raising, lowering or holding a load, wherein the inner housing is provided for receiving a cable termination, in that a cable termination can be connected with the inner housing through socketing of the cable termination in the inner housing and wherein a releasable connectivity of the inner housing with the outer housing allows an adjustment of an axial position of the inner housing in the outer housing as well as a compensation of a possible elongation of a cable combined with the cable termination sleeve, wherein the inner housing has an external thread and the outer housing has an internal thread, which is matched to the external thread, in an area provided for receiving the inner housing, wherein the axial position of the inner housing in the outer housing is adjustable by means of screwing the inner housing into the outer housing, characterized in that the outer housing has at least one bore in the form of an oblong hole for the insertion of a pin and the inner housing has one or more stop mechanisms or lugs on an upper edge, wherein the pin interacts in the inserted state respectively with at least one stop mechanism or lug in such a way that a complete revolution of the inner housing in the outer housing is prevented.
Method for transferring a layer (16, 28) of circuits or component, known as transplant layer, comprising: the trimming of a first chamfered wafer (12, 22) of material, in which the transplant layer is made, at least around or on the periphery of this transplant layer, over a thickness ed less than the thickness e of the first wafer, but greater than the thickness of said transplant layer (16, 28) said trimming starting from the face of the first wafer to be assembled with a second wafer, made of a semiconductor material or of a piezoelectric material, said trimming being performed over a width Ld, measured on a plane parallel to that of the first wafer, at least equal to the width L of the chamfered edge of said chamfered wafer, measured on the same plane; - then the transferring of this layer onto a said second wafer (14, 24) of material. the trimming of a first chamfered wafer (12, 22) of material, in which the transplant layer is made, at least around or on the periphery of this transplant layer, over a thickness ed less than the thickness e of the first wafer, but greater than the thickness of said transplant layer (16, 28) said trimming starting from the face of the first wafer to be assembled with a second wafer, made of a semiconductor material or of a piezoelectric material, said trimming being performed over a width Ld, measured on a plane parallel to that of the first wafer, at least equal to the width L of the chamfered edge of said chamfered wafer, measured on the same plane; - then the transferring of this layer onto a said second wafer (14, 24) of material. - then the transferring of this layer onto a said second wafer (14, 24) of material.
Motorized respiratory assistance device (1a, 1b) with integrated cooling system, the device (1a, 1b) comprising an enclosure forming a compartment delimited by a jacket housing a motor block, the motor block comprising a casing receiving at least a rotor and a stator forming a motor driving at least two turbines (8a, 8b) mounted at the respective axial ends of a motor shaft driven by the rotor, said turbines (8a, 8b) being composed of at least one main turbine generating a main air flow from which is derived a patient gas, and a secondary turbine generating a cooling air flow for the motor, the enclosure forming an aeraulic circuit composed at least of two aeraulic paths composed of at least one main aeraulic path conveying the main air flow and at least one secondary aeraulic path conveying the cooling air flow, each comprising an air inlet (E1, E2) for the turbines (8a, 8b) to the inside of the device (1a, 1b) and an air outlet (S1, S2) to the outside of the device (1a, 1b), characterized in that the secondary aeraulic path comprises an inner portion for circulation of the cooling air flow originating from the corresponding air inlet and extending inside the motor between the stator and the rotor, and an outer portion extending, parallel to the inner portion, inside an annular space formed around the motor block between the casing of the motor block and the jacket of the enclosure to the corresponding air outlet formed in the jacket on the side of the cooling air inlet, the cooling air flow circulating successively in opposite directions in the inner and outer portions, and in that the main aeraulic path (E1, E6, S1) and the secondary aeraulic path (E2, E4, E5, 22, E3, S2) are separated from one another by a partitioning formed between them, said partitioning separating the circulation of the main air flow and the circulation of the cooling air flow inside the device (1a, 1b).
Vacuum-cleaner brush comprising a shaft having a rotation axis, and at least two blades (6, 7) mounted on the shaft by an attachment edge (21, 22) of the blades (6, 7), and the blades (6, 7) each comprise a free edge (14, 15) alternately and regularly different from one another, characterised in that the attachment edges (21, 22) of the blades (6, 7) have a rectilinear profile and the attachment edges (21, 22) are mounted on the shaft parallel to the axis of said shaft, and characterised in that the free edge of one of the at least two blades (6, 7) comprises at the middle a concave hollowed-out part.
A processor-implemented method comprising: Receiving, at a first entity in response to a transaction at a first time, encrypted information blocks pertaining to the transaction from one or more second entities, wherein each encrypted information block is received from a distinct second entity and comprises at least one sub-block (280, 480) decryptable by the first entity; Decrypting, by the first entity, the decryptable sub-blocks; Augmenting, by the first entity, a multi-dimensional blockchain, wherein the multi-dimensional blockchain is augmented with a multi-dimensional block formed by linking at least one of the encrypted information blocks received from the one or more second entities to a current block being added to a blockchain associated with the transaction and maintained by the first entity, wherein the multi-dimensional block comprises a data record (520, 530, 540) in each dimension, wherein the data record corresponding to a dimension forms a block in a distinct conventional blockchain (525, 535) associated with a corresponding second entity (120, 130); and enabling access to the multi-dimensional blockchain for at least one of the one or more second entities. Receiving, at a first entity in response to a transaction at a first time, encrypted information blocks pertaining to the transaction from one or more second entities, wherein each encrypted information block is received from a distinct second entity and comprises at least one sub-block (280, 480) decryptable by the first entity; Decrypting, by the first entity, the decryptable sub-blocks; Augmenting, by the first entity, a multi-dimensional blockchain, wherein the multi-dimensional blockchain is augmented with a multi-dimensional block formed by linking at least one of the encrypted information blocks received from the one or more second entities to a current block being added to a blockchain associated with the transaction and maintained by the first entity, wherein the multi-dimensional block comprises a data record (520, 530, 540) in each dimension, wherein the data record corresponding to a dimension forms a block in a distinct conventional blockchain (525, 535) associated with a corresponding second entity (120, 130); and enabling access to the multi-dimensional blockchain for at least one of the one or more second entities.