mhurhangee/ep-ind-claims huggingface dataset:
A continuous press arrangement for manufacture of building panels, such as floor or wall panels, comprising: an upper rotatable inlet drum connecting to an upper rotatable outlet drum via an upper continuous press belt and a lower rotatable inlet drum connecting to a lower rotatable outlet drum via a lower continuous press belt; said upper and lower press belts configured to form a product path there between for feeding a product in a feeding direction in response to rotation of said drums or displacement of said press belt(-s); an upper and a lower press table (51, 51'), each comprising at least one displaceable pressure cushion configured to be displaced into sealing abutment with the press belt (40, 41) for facilitating a pressure zone, preferably in shape of a pressurizable volume extending along at least a portion of said path; wherein the arrangement comprises one or more pressure bars (P1, P2, P3) disposed upstream the pressure cushion, in the feeding direction FD, wherein said one or more pressure bars are configured to apply a pressure to the upper press belt and/or the lower press belt respectively in a direction towards the product path, and wherein one or more of said pressure bar(-s) (P1, P2, P3) are configured to pre-compress the product when being fed in the product path, at a position upstream said pressure zone, and downstream a respective centre axis (Ax1, Ax2) of said inlet drums in the feeding direction. an upper rotatable inlet drum connecting to an upper rotatable outlet drum via an upper continuous press belt and a lower rotatable inlet drum connecting to a lower rotatable outlet drum via a lower continuous press belt; said upper and lower press belts configured to form a product path there between for feeding a product in a feeding direction in response to rotation of said drums or displacement of said press belt(-s); an upper and a lower press table (51, 51'), each comprising at least one displaceable pressure cushion configured to be displaced into sealing abutment with the press belt (40, 41) for facilitating a pressure zone, preferably in shape of a pressurizable volume extending along at least a portion of said path; wherein the arrangement comprises one or more pressure bars (P1, P2, P3) disposed upstream the pressure cushion, in the feeding direction FD, wherein said one or more pressure bars are configured to apply a pressure to the upper press belt and/or the lower press belt respectively in a direction towards the product path, and wherein one or more of said pressure bar(-s) (P1, P2, P3) are configured to pre-compress the product when being fed in the product path, at a position upstream said pressure zone, and downstream a respective centre axis (Ax1, Ax2) of said inlet drums in the feeding direction.
System of multilayered thermally-insulating glazing units in the form of a multiple glass unit, consisting of two external transparent glass panes and a gas medium that is transparent in visible light between the panes, while transparent internal partitions are placed in the internal space between the above-mentioned panes that is closed with a thermally-insulating hermetic frame, and the partitions are parallel with respect to the external panes, characterised in that the partitions take the form of a film made of inorganic glass, the film is less than 400 μm thick and it is characterised by a deflection radius smaller than 40 cm, measured by a method recognized in the art, while its optical properties are characterised by a total reflectivity coefficient of both partition surfaces lower than 7 percent, the visible light absorption below 7 percent and the transmittance haze coefficient below 1.5 percent, all optical properties measured by methods recognized in the art.
Polyether ether ketone copolymers of formula in which Ar 1 comprises a) 75 to 98 mol% of 1,4-phenylene groups, b) 2 to 25 mol% of X,Y-naphthylene groups, wherein X ≠ Y and X and Y independently of one another assume an integer value of 1 to 10, particularly preferably independently of one another assume an integer value of 1 to 8, wherein 2,7-naphthylene groups are excluded, in each case based on the amount of substance of Ar 1, wherein all Ar 1 groups sum to 100 mol%, Ar 2 comprises 2,2'-benzophenone groups, 2,4'-benzophenone groups, 3,3'-benzophenone groups, 4,4'-benzophenone groups and mixtures thereof and n is 10 to 10 000. Ar 1 comprises a) 75 to 98 mol% of 1,4-phenylene groups, b) 2 to 25 mol% of X,Y-naphthylene groups, wherein X ≠ Y and X and Y independently of one another assume an integer value of 1 to 10, particularly preferably independently of one another assume an integer value of 1 to 8, wherein 2,7-naphthylene groups are excluded, a) 75 to 98 mol% of 1,4-phenylene groups, b) 2 to 25 mol% of X,Y-naphthylene groups, wherein X ≠ Y and X and Y independently of one another assume an integer value of 1 to 10, particularly preferably independently of one another assume an integer value of 1 to 8, wherein 2,7-naphthylene groups are excluded, in each case based on the amount of substance of Ar 1, wherein all Ar 1 groups sum to 100 mol%, Ar 2 comprises 2,2'-benzophenone groups, 2,4'-benzophenone groups, 3,3'-benzophenone groups, 4,4'-benzophenone groups and mixtures thereof and n is 10 to 10 000.
A boric acid production method comprising, condensation after crystallization, product washing, SO 4 reduction and pre-dewatering, product feeding which has homogenous moist and thickness, product mixing, microwave drying and crystal grinding and sizing steps, characterized in that the boric acid crystals received as 30-60% wet after crystallization in crystallization unit is transformed into 40-70% boric acid crystal in the thickener; washed in the vacuumed filter by crystal wash jet (2.1) with the purpose of SO 4 reduction and pre-dewatering, the washing water is drawn from below vacuum band; the SO 4 amount of the boric acid crystals are brought to maximum 300 ppm, and the humidity amount is brought to maximum 20% at the end of vacuum filter.
A ball-throwing scoop for interaction with a pet, comprising a scoop body and a handle, the scoop body including a scoop opening, two sides and a base portion, characterized in that the scoop body resembles a smaller half of a circular tube or approximately circular tube longitudinally cut off, the longitudinal central axis of which is denoted by y, the longitudinal central axis y being an arc having a larger radius R; in the cross-section of the smaller half of the circular tube or approximately circular tube, r is used to denote the radius of the smaller half of the circular tube, a Greek letterθ is used to denote a central angle to which the arc in the cross-section corresponds, R >> r, and 2π/3≤θ≤π; the base portion of the scoop body is connected to the handle, the central axis z of the handle intersects the longitudinal central axis y of the scoop body at point m, and intersects the normal fm of the longitudinal central axis y at the point m with an angle of β≥0; wherein the ball-throwing scoop is characterized in that the central axis z of the handle intersects the longitudinal central axis y of the scoop body at the point m, and intersects the normal f m at the point m with an angle of β≤π/3; and wherein the ball-throwing scoop is further characterized in that the length of an arc mn on the longitudinal central axis y of the scoop body can be regarded as the nominal length of the scoop body, and the arc mn has a radius R and a corresponding central angle α≥π/2.
Equipment for applying active elements to the cranium of a patient, comprising a support and a plurality of active elements, characterised in that said support comprises a means of connection to the patient and positioning means that positions said active elements at N+M zones (20 to 24; 30 to 32) of the skull, said N zones chosen from the zones VG 19, VG 20 and VG 21, situated on the meridian of the governing vessel, and the zones C 4, C SR, C 5L, C 6R and C 6L, belonging to the off-meridian points of the face, N and M being two integers, N being a number between 2 and 8, M being less than N/2.
A method for producing brushes by means of an apparatus, characterized by the following steps: a) providing of at least one pre-fabricated base component on which bristle tufts are attached, and which forms a portion of the final brush, wherein a separate support layer is applied on the rear of the base component, or at least one pre-fabricated base component which is formed by overmoulding of several bristle tufts containing bristle ends which have been fused together beforehand, b) supplying and positioning of the base component containing bristles to or in an injection moulding tool, wherein each base component abuts in a cavity of one half of a mould of the injection moulding tool with the edge thereof on the edge of a respective opening extending from the associated cavity and the bristle tufts project into the opening, and c) overmoulding of a bristle portion on the base component on the rear side. a) providing of at least one pre-fabricated base component on which bristle tufts are attached, and which forms a portion of the final brush, wherein a separate support layer is applied on the rear of the base component, or at least one pre-fabricated base component which is formed by overmoulding of several bristle tufts containing bristle ends which have been fused together beforehand, b) supplying and positioning of the base component containing bristles to or in an injection moulding tool, wherein each base component abuts in a cavity of one half of a mould of the injection moulding tool with the edge thereof on the edge of a respective opening extending from the associated cavity and the bristle tufts project into the opening, and c) overmoulding of a bristle portion on the base component on the rear side.
Light-emitting device (200; 300; 400; 500; 600; 700; 800; 900) comprising at least one planar light-emitting layer having two opposite surfaces, a planar transparent first electrode, which is in electrical contact with the first surface of the light-emitting layer, a planar second electrode, which is in electrical contact with the second surface of the light-emitting layer, and light-directing optical means, which are disposed above the surface of the transparent first electrode facing away from the light-emitting layer, wherein at least one electrode is structured in at least two strip-shaped subregions (1a, 1b; 1a, 1b, 1c; 1a, 1b, 2a, 2b) which can be selectively actuated with electric voltage, wherein the actuation of a strip-shaped subregion (1a, 1b; 1a, 1b, 1c; 1a, 1b, 2a, 2b) of the electrode effects the emission of light in an associated subregion of the light-emitting layer, wherein the light-directing optical means are structured and deflect the light from different subregions of the light-emitting layer differently, wherein both the structuring of the electrode in strip-shaped subregions (1a, 1b; 1a, 1b, 1c; 1a, 1b, 2a, 2b) and the structuring of the light-directing optical means comprise a periodicity in at least one direction, and wherein the structuring of the electrode comprises approximately the same periodicity as the structuring of the light-directing optical means, characterized in that the structuring of the light-directing optical means changes across the surface of the light-emitting device (200; 300; 400; 500; 600; 700; 800; 900) and that the structuring of the electrode changes across the planar extension of the light-emitting device (200; 300; 400; 500; 600; 700; 800; 900).
A vascular graft comprising: at least one conduit having a first conduit region and a second conduit region, the second conduit region including a bulbous portion with respect to the first conduit region; at least one first support strut positioned in the first conduit region, the at least one first support strut formed in a spiral configuration; and at least one second support strut positioned in the second conduit region, wherein the conduit is formed by a first zone and a second zone which make a single graft, characterised in that the first zone is infiltrated with silicone rubber to inhibit cellular ingrowth and the second zone is of a porous nature to promote ingrowth. at least one conduit having a first conduit region and a second conduit region, the second conduit region including a bulbous portion with respect to the first conduit region; at least one first support strut positioned in the first conduit region, the at least one first support strut formed in a spiral configuration; and at least one second support strut positioned in the second conduit region, wherein the conduit is formed by a first zone and a second zone which make a single graft,
A method for making a dispersible nonwoven sheet, the method comprising: dispersing natural fibers and regenerated fibers in a ratio of about 70 to about 90 percent by weight natural fibers and about 10 to about 30 percent by weight regenerated fibers in a liquid medium to form a liquid suspension; depositing the liquid suspension over a foraminous forming wire to form a nonwoven tissue web; spraying the nonwoven tissue web with a first plurality of jets, each jet of the first plurality of jets being spaced from an adjacent one of the first plurality of jets by a first distance; spraying the nonwoven tissue web with a second plurality of jets, each jet of the second plurality of jets being spaced from an adjacent one of the second plurality of jets by a second distance, wherein the second distance is less than the first distance; and drying the nonwoven tissue web to form the dispersible nonwoven sheet; wherein a total energy imparted by the first plurality of jets and the second plurality of jets is between 0.2 kilowatt-hours per kilogram and 0.5 kilowatt-hours per kilogram. dispersing natural fibers and regenerated fibers in a ratio of about 70 to about 90 percent by weight natural fibers and about 10 to about 30 percent by weight regenerated fibers in a liquid medium to form a liquid suspension; depositing the liquid suspension over a foraminous forming wire to form a nonwoven tissue web; spraying the nonwoven tissue web with a first plurality of jets, each jet of the first plurality of jets being spaced from an adjacent one of the first plurality of jets by a first distance; spraying the nonwoven tissue web with a second plurality of jets, each jet of the second plurality of jets being spaced from an adjacent one of the second plurality of jets by a second distance, wherein the second distance is less than the first distance; and drying the nonwoven tissue web to form the dispersible nonwoven sheet;
An exposure apparatus for exposing an object, the apparatus comprising: a movable body (WST1, WST2) for holding an object and which is movable along a predetermined plane; a position measurement system configured to obtain positional information of the movable body based on an output of a plurality of heads (60 1, 60 2, 60 3, 60 4) provided on the movable body, each of which is arranged to irradiate a measurement beam on a measurement plane placed roughly parallel to the predetermined plane external to the movable body in the vicinity of an exposure position to the object and to receive a return beam from the measurement plane; and a control system configured to drive the movable body based on the positional information obtained by the position measurement system and to switch a head which the position measurement system uses to obtain the positional information out of the plurality of heads according to the position of the movable body, the heads of the plurality of heads which the position measurement system uses to obtain the positional information defining a group of heads, wherein the control system is configured to correct displacement between a plurality of reference coordinate systems (C 1, C 2, C 3, C 4) within a movement area of the movable body in which the plurality of heads faces the measurement plane, wherein each reference coordinate system corresponds to a different group of heads. a movable body (WST1, WST2) for holding an object and which is movable along a predetermined plane; a position measurement system configured to obtain positional information of the movable body based on an output of a plurality of heads (60 1, 60 2, 60 3, 60 4) provided on the movable body, each of which is arranged to irradiate a measurement beam on a measurement plane placed roughly parallel to the predetermined plane external to the movable body in the vicinity of an exposure position to the object and to receive a return beam from the measurement plane; and a control system configured to drive the movable body based on the positional information obtained by the position measurement system and to switch a head which the position measurement system uses to obtain the positional information out of the plurality of heads according to the position of the movable body, the heads of the plurality of heads which the position measurement system uses to obtain the positional information defining a group of heads, wherein
A method for over the air performance testing in a multi-antenna system, wherein a number of combined sub-paths and a sub-path mapping rule are set, and the method comprises: a channel emulator receiving signals input by a base station emulator and outputting path signals to a branch device; the branch device combining the sub-paths of the path signals according to the set number of combined sub-paths, and, after combination, mapping the combined sub-paths to the test antennas according to the sub-path mapping rule; wherein the combining is performed by adding sub path channel matrix elements; wherein a corresponding relationship between the paths and test antennas is set, the number of the combined sub-paths is 3; and the sub-path mapping rule comprises: after combination, mapping sub-path signals with the strongest signal power in the sub-paths of a path to an antenna corresponding to the path, and mapping signals of the other two sub-paths to two antennas on both sides of the antenna corresponding to the path; the test antennas transmitting spatial signals according to the path signals from the branch device; and a device under test receiving the spatial signals, and then an over the air performance analysis and display module analyzing and displaying the over the air performance of the device under test based on the spatial signals received by the device under test. a channel emulator receiving signals input by a base station emulator and outputting path signals to a branch device; the branch device combining the sub-paths of the path signals according to the set number of combined sub-paths, and, after combination, mapping the combined sub-paths to the test antennas according to the sub-path mapping rule; wherein the combining is performed by adding sub path channel matrix elements; wherein a corresponding relationship between the paths and test antennas is set, the number of the combined sub-paths is 3; and the sub-path mapping rule comprises: after combination, mapping sub-path signals with the strongest signal power in the sub-paths of a path to an antenna corresponding to the path, and mapping signals of the other two sub-paths to two antennas on both sides of the antenna corresponding to the path; the test antennas transmitting spatial signals according to the path signals from the branch device; and a device under test receiving the spatial signals, and then an over the air performance analysis and display module analyzing and displaying the over the air performance of the device under test based on the spatial signals received by the device under test.
A communication method, comprising: repeating, by a first terminal, to-be-transmitted uplink control information for N times to obtain a first data segment, wherein N is a positive integer; determining, by the first terminal, an orthogonal cover code based on the quantity N of repetitions; multiplying, by the first terminal, the first data segment by the orthogonal cover code to obtain a second data segment; and sending, by the first terminal, the second data segment; wherein N is determined based on a quantity M of symbols of the to-be-transmitted uplink control information, wherein M is a positive integer; wherein a ratio of a quantity of subcarriers comprised in a first resource to M is determined as N, wherein the first resource is a resource used by an uplink control channel that carries the to-be-transmitted uplink control information. repeating, by a first terminal, to-be-transmitted uplink control information for N times to obtain a first data segment, wherein N is a positive integer; determining, by the first terminal, an orthogonal cover code based on the quantity N of repetitions; multiplying, by the first terminal, the first data segment by the orthogonal cover code to obtain a second data segment; and sending, by the first terminal, the second data segment; wherein N is determined based on a quantity M of symbols of the to-be-transmitted uplink control information, wherein M is a positive integer; wherein a ratio of a quantity of subcarriers comprised in a first resource to M is determined as N, wherein the first resource is a resource used by an uplink control channel that carries the to-be-transmitted uplink control information.