mhurhangee/ep-ind-claims huggingface dataset:
A multilayer optical film (110; 210; 410; 610; 710; 810; 820; 830), comprising: a plurality of interior microlayers (A, B; 314, 316; 416) arranged to selectively reflect light by constructive or destructive interference, the microlayers (A, B; 314, 316; 416) extending in a lateral fashion parallel to the surface of the film from a first zone (112; 422; 812; 822; 832) to a neighboring second zone (114, 116; 420, 424; 814; 824; 834) of the film (110; 210; 410; 610; 710; 810; 820; 830); wherein in the first zone (112; 422; 812; 822; 832) the plurality of interior microlayers (A, B; 314, 316; 416) provides a first reflective characteristic and in the second zone (114, 116; 420, 424; 814; 824; 834) the plurality of interior microlayers (A, B; 314, 316; 416) provides a second reflective characteristic different from the first reflective characteristic; wherein the plurality of interior microlayers (A, B; 314, 316; 416) comprises a first set of microlayers that are birefringent in the first zone (112; 422; 812; 822; 832) and less birefringent or isotropic in the second zone (114, 116; 420, 424; 814; 824; 834), the first set of microlayers comprising a first material; and wherein the plurality of interior microlayers (A, B; 314, 316; 416) comprises a second set of microlayers that are birefringent in the first zone (112; 422; 812; 822; 832), the second set of microlayers comprising a second material different from the first material. a plurality of interior microlayers (A, B; 314, 316; 416) arranged to selectively reflect light by constructive or destructive interference, the microlayers (A, B; 314, 316; 416) extending in a lateral fashion parallel to the surface of the film from a first zone (112; 422; 812; 822; 832) to a neighboring second zone (114, 116; 420, 424; 814; 824; 834) of the film (110; 210; 410; 610; 710; 810; 820; 830); wherein in the first zone (112; 422; 812; 822; 832) the plurality of interior microlayers (A, B; 314, 316; 416) provides a first reflective characteristic and in the second zone (114, 116; 420, 424; 814; 824; 834) the plurality of interior microlayers (A, B; 314, 316; 416) provides a second reflective characteristic different from the first reflective characteristic; wherein the plurality of interior microlayers (A, B; 314, 316; 416) comprises a first set of microlayers that are birefringent in the first zone (112; 422; 812; 822; 832) and less birefringent or isotropic in the second zone (114, 116; 420, 424; 814; 824; 834), the first set of microlayers comprising a first material; and wherein the plurality of interior microlayers (A, B; 314, 316; 416) comprises a second set of microlayers that are birefringent in the first zone (112; 422; 812; 822; 832), the second set of microlayers comprising a second material different from the first material.
A method of converting undistilled and unfractionated hydrocarbon material into a hydrocarbon product using a direct catalytic cracking system, the method comprising the steps of: introducing a moving bed reactor feed into a moving catalyst bed reactor of the direct catalytic cracking system such that the moving bed reactor feed intermingles with a direct cracking catalyst contained in a catalytic reaction zone within the moving catalyst bed reactor, where the moving bed reactor feed comprises steam and an undistilled and unfractionated hydrocarbon material; introducing the direct cracking catalyst into the catalytic reaction zone of the moving catalyst bed reactor; and operating the direct catalytic cracking system such that an internal temperature profile is maintained along an operative length of the moving catalyst bed reactor, such that a moving catalyst bed comprising the direct cracking catalyst is maintained in the catalytic reaction zone, such that the hydrocarbon material converts in the presence of the direct cracking catalyst into a product hydrocarbon and the direct cracking catalyst converts into a spent direct cracking catalyst in the catalytic reaction zone, such that the spent direct cracking catalyst passes from the catalytic reaction zone to a catalyst regeneration system, and such that the hydrocarbon product is produced from the moving catalyst bed reactor, the hydrocarbon product comprising light olefins and C6-8 aromatics; where the direct catalytic cracking system includes the moving catalyst bed reactor and the catalyst regeneration system, and where the moving catalyst bed reactor has the catalyst reaction zone and is operable to maintain the internal temperature profile for the moving catalyst bed reactor along its operative length, wherein the internal temperature profile is maintained as more than one fixed temperature zone between a position of introduction for the moving bed reactor feed and a position of passing for the hydrocarbon product, where a first fixed temperature zone having a first temperature is positioned proximate to the position of introduction and a second fixed temperature zone having a second temperature is positioned proximate to the position of passing, and where the second temperature is greater than the first temperature, wherein the temperature increases from the first temperature to the second temperature along the operative length.
Adapter for a rolling assembly having an axis of rotation (YY'), the rolling assembly comprising: - a tyre having two beads, - a rim having two rim bead seats, - for each bead, the said adapter providing the connection between the bead and the rim, the said adapter comprising: - an axially inner end connected to the rim, - an axially outer end comprising an outer reinforcing element and intended to come into contact, via a substantially radial axially inner face, or bearing face, with a bead, the outer reinforcing element being completely axially on the outside of the bearing face once assembled, - a body connecting the axially outer end to the axially inner end, comprising at least one main reinforcement providing the connection between the outer reinforcing element and the inner reinforcing element, and comprising a substantially axial adapter seat intended to come into contact with a bead, characterized in that the outer reinforcing element is a substantially annular structure, referred to as a bead wire, of substantially polygonal section, comprising an individual metal wire of diameter D1, the said wire being coated in an elastomer composition and wound contiguously around a support at least three times in an axial direction and at least twice in a radial direction. - a tyre having two beads, - a rim having two rim bead seats, - for each bead, the said adapter providing the connection between the bead and the rim, - an axially inner end connected to the rim, - an axially outer end comprising an outer reinforcing element and intended to come into contact, via a substantially radial axially inner face, or bearing face, with a bead, the outer reinforcing element being completely axially on the outside of the bearing face once assembled, - a body connecting the axially outer end to the axially inner end, comprising at least one main reinforcement providing the connection between the outer reinforcing element and the inner reinforcing element, and comprising a substantially axial adapter seat intended to come into contact with a bead,
A drive assembly for a conveyor belt, comprising a pair of opposing end plates; a drive mounted to and extending between the pair of opposing end plates; and a limiter-scraper assembly mounted to the pair of opposing end plates, the limiter-scraper assembly including opposing assembly mounting arms for mounting a position limiter and a scraper assembly therebetween, each assembly mounting arm including a lower mounting portion including an opening for a position limiter bearing, the drive assembly being characterized by a front saddle for a scraper assembly and a rear-facing finger terminating in an outward-facing stop for latching the assembly mounting arm to an end plate. a pair of opposing end plates; a drive mounted to and extending between the pair of opposing end plates; and a limiter-scraper assembly mounted to the pair of opposing end plates, the limiter-scraper assembly including opposing assembly mounting arms for mounting a position limiter and a scraper assembly therebetween, each assembly mounting arm including a lower mounting portion including an opening for a position limiter bearing, the drive assembly being characterized by a front saddle for a scraper assembly and a rear-facing finger terminating in an outward-facing stop for latching the assembly mounting arm to an end plate.
Q-switched solid-state laser having a peak power of more than 1 MW, comprising a resonator which guides a laser beam having a beam axis and which has a first and a second end mirror (6, 7), one of which forms an output coupler mirror, and comprising optical elements which co-operate with the laser beam between the first and the second end mirrors (6, 7) and which comprise a pumped laser medium, the laser beam being reflected by the first end mirror in a direction which is parallel to and in the same direction as the direction in which the laser beam is reflected by the second end mirror or differs therefrom by less than 30°, the resonator taking the form of an unstable resonator and the output coupler mirror that of a gradient index mirror, characterised in that the optical elements which co-operate with the laser beam between the first and the second end mirrors (6, 7) are such that, when an image is propagated starting from the first end mirror, they cause the image to be, when looking in the direction of propagation, non-reversed and rotated through 180° +/- α about the beam axis from its original orientation relative to the beam axis as seen in the direction of propagation, being so after its propagation through the optical elements situated between the first and the second end mirrors (6, 7) and its reflection at the second end mirror, with α being less than 30° and this rotated and non-reversed transmission of the image taking place as a result only of reflections of the laser beam at the optical elements situated between the first and the second end mirrors (6, 7) and at the second end mirror, and in that the first and the second end mirrors (6, 7) are connected together rigidly.
A progressive resistance device comprising: a conductive cylinder having an outer wall defining an inner chamber; a first axle about which said cylinder is rotatable; an eccentric axle surrounding said first axle and is rotatable relative said first axle; a torsional spring encircling a portion of the eccentric axle, the torsional spring configured to provide an opposing force to that created by an eddy current in the conductive cylinder; a magnet carrier partially encircling said eccentric axle; a magnet is carried by said magnet carrier; a bearing is nested between said magnet carrier and said eccentric axle, said magnet carrier is rotatable about said eccentric axle on an axis eccentric to the axis of said first axle, whereby the distance between said magnet and said outer wall is variable as defined by the rotative position of said magnet carrier relative said outer wall; wherein the conductive cylinder is oriented such that rotation allows the magnet carrier to move against the torsional spring to result in a progressive relationship between speed and resistance. a conductive cylinder having an outer wall defining an inner chamber; a first axle about which said cylinder is rotatable; an eccentric axle surrounding said first axle and is rotatable relative said first axle; a torsional spring encircling a portion of the eccentric axle, the torsional spring configured to provide an opposing force to that created by an eddy current in the conductive cylinder; a magnet carrier partially encircling said eccentric axle; a magnet is carried by said magnet carrier; a bearing is nested between said magnet carrier and said eccentric axle, said magnet carrier is rotatable about said eccentric axle on an axis eccentric to the axis of said first axle, whereby the distance between said magnet and said outer wall is variable as defined by the rotative position of said magnet carrier relative said outer wall;
A method of making a cleaning article having a longitudinal axis, a transverse axis perpendicular thereto, a pair of spaced apart longitudinal edges and a pair of spaced apart transverse edges, said method comprising the steps of: providing a precursor sheet having discrete tufts of tow fibers disposed thereon, and cutting out spaces in said precursor sheet and said tufts, to remove a plurality of tufts and portions of said precursor sheet therefrom whereby at least some of said tufts remaining on said precursor sheet are unequally spaced from adjacent said tufts on said precursor sheet.
A bioabsorbable, bioresorbable or biodegradable polymer blend, comprising: a mixture of a first polymeric component and a second polymeric component, wherein the first polymeric component has a weight average molecular weight of 42,000 Daltons to 175,000 Daltons, and the second polymeric component has a weight average molecular weight of 1,400 Daltons to 24,000 Daltons, wherein said second polymeric component comprises at least 1.25 wt.% of the blend, wherein at least one of said components is at least partially end-capped by a carboxylic acid group, wherein the term end-capping means the chemical modification of a polymer chain terminus, and wherein an acid level of said blend is 0.3 % or higher. a mixture of a first polymeric component and a second polymeric component, wherein the first polymeric component has a weight average molecular weight of 42,000 Daltons to 175,000 Daltons, and the second polymeric component has a weight average molecular weight of 1,400 Daltons to 24,000 Daltons, wherein said second polymeric component comprises at least 1.25 wt.% of the blend, wherein at least one of said components is at least partially end-capped by a carboxylic acid group, wherein the term end-capping means the chemical modification of a polymer chain terminus, and wherein an acid level of said blend is 0.3 % or higher.
HPEM source for the emission of an HPEM pulse in a desired radiation direction, - with at least three antennas fitted at a fixed position relative to one another for the respective emission of a pulse component, - wherein at least two of the antennas are combined in each case into a group, and at least two groups of antennas which differ from one another in terms of at least one antenna are present, - wherein one main direction is assigned to each of the groups and at least two different main directions are present, and - wherein, for at least two of the groups, all antennas of the group are arranged along a straight line, wherein the straight line is the respective main direction, wherein at least two of the respective straight lines are different diameter lines of an imaginary circle, wherein the antennas of a respective group are distributed along the straight lines on one radius or on the entire diameter, - with a control unit which is configured to control the antennas in terms of the activation and the phase angle of their respective pulse component in such a way that, for at least one of the groups, at least two antennas of the group are actively controlled, wherein the pulse components of the actively controlled antennas are superimposed on one another to form the HPEM pulse, the current radiation direction of which is in a specific angle range around the respective main direction, wherein the angle range is less than 360°. - with at least three antennas fitted at a fixed position relative to one another for the respective emission of a pulse component, - wherein at least two of the antennas are combined in each case into a group, and at least two groups of antennas which differ from one another in terms of at least one antenna are present, - wherein one main direction is assigned to each of the groups and at least two different main directions are present, and - wherein, for at least two of the groups, all antennas of the group are arranged along a straight line, wherein the straight line is the respective main direction, wherein at least two of the respective straight lines are different diameter lines of an imaginary circle, wherein the antennas of a respective group are distributed along the straight lines on one radius or on the entire diameter, - with a control unit which is configured to control the antennas in terms of the activation and the phase angle of their respective pulse component in such a way that, for at least one of the groups, at least two antennas of the group are actively controlled, wherein the pulse components of the actively controlled antennas are superimposed on one another to form the HPEM pulse, the current radiation direction of which is in a specific angle range around the respective main direction, wherein the angle range is less than 360°.
A method for administering multiple management agents (222, 232, 242, 322, 324, 422, 520, 530, 540, 622) on a mobile device comprising: receiving, at a policy manager (150, 210, 310, 410, 510, 610) on the mobile device, a policy from each of the multiple management agents; determining a current state of the mobile device; consolidating the policies based on rules within the policy manager and the current state of the mobile device wherein the consolidating uses a hierarchy of trust by the policy manager (150, 210, 310, 410, 510, 610); and determining, at the policy manager on the mobile device, the policies to apply on the mobile device wherein determining the policies to be applied on the mobile device is based on whether there is a conflict between the policies received from each of the multiple management agents and the policy manager resolving such conflicts by removing the policies of the least trusted management agent of the multiple management agents within the hierarchy of trust until there is no conflict for the remaining subset of policies and applying the remaining policies, within the hierarchy of trust, to the mobile device. receiving, at a policy manager (150, 210, 310, 410, 510, 610) on the mobile device, a policy from each of the multiple management agents; determining a current state of the mobile device; consolidating the policies based on rules within the policy manager and the current state of the mobile device wherein the consolidating uses a hierarchy of trust by the policy manager (150, 210, 310, 410, 510, 610); and determining, at the policy manager on the mobile device, the policies to apply on the mobile device wherein determining the policies to be applied on the mobile device is based on whether there is a conflict between the policies received from each of the multiple management agents and the policy manager resolving such conflicts by removing the policies of the least trusted management agent of the multiple management agents within the hierarchy of trust until there is no conflict for the remaining subset of policies and applying the remaining policies, within the hierarchy of trust, to the mobile device.
System for setting in motion a nozzle for applying a product, comprising a flexible duct terminated by a nozzle, a magnetic device comprising a plurality of permanent magnets attached to the nozzle and a plurality of electromagnets placed at a distance around the permanent magnets of the nozzle, this magnetic device generating eccentric oscillations of the nozzle with respect to a central axis of the system, each of the electromagnets comprising an iron core and an electrically supplied coil, characterized in that the iron core has a part extending radially opposite the permanent magnets of the nozzle and in that the iron core has a damper located opposite to the nozzle.
A backlight unit, comprising: a bottom cover; a protruding portion which vertically protrudes from an upper surface and at a side edge of the bottom cover; a light guiding plate placed on the bottom cover; and an LED assembly disposed at a position adjacent to the light guiding plate and arranged to emit light towards the light guiding plate, the LED assembly including: a substrate vertically placed on and perpendicular to the bottom cover, at least one LED light source mounted on the substrate and facing a side surface of the light guiding plate, a support on which the substrate is mounted, the support being placed on the upper surface of the bottom cover and having an opening, characterized in that the support has a bar shape of rectangular cross-section that does not protrude at a lower portion towards the LED light source or the light guiding plate, and in that the protruding portion forms part of the bottom cover and is inserted in the opening of the support placed on the upper surface of the bottom cover. a bottom cover; a protruding portion which vertically protrudes from an upper surface and at a side edge of the bottom cover; a light guiding plate placed on the bottom cover; and an LED assembly disposed at a position adjacent to the light guiding plate and arranged to emit light towards the light guiding plate, the LED assembly including: a substrate vertically placed on and perpendicular to the bottom cover, at least one LED light source mounted on the substrate and facing a side surface of the light guiding plate, a support on which the substrate is mounted, the support being placed on the upper surface of the bottom cover and having an opening, characterized in that the support has a bar shape of rectangular cross-section that does not protrude at a lower portion towards the LED light source or the light guiding plate, and in that the protruding portion forms part of the bottom cover and is inserted in the opening of the support placed on the upper surface of the bottom cover. a substrate vertically placed on and perpendicular to the bottom cover, at least one LED light source mounted on the substrate and facing a side surface of the light guiding plate, a support on which the substrate is mounted, the support being placed on the upper surface of the bottom cover and having an opening, characterized in that the support has a bar shape of rectangular cross-section that does not protrude at a lower portion towards the LED light source or the light guiding plate, and in that the protruding portion forms part of the bottom cover and is inserted in the opening of the support placed on the upper surface of the bottom cover.
A loudspeaker comprising an acoustic waveguide comprising one or more flexible parts (202, 207), the acoustic waveguide being configured to change the shape of the flexible part (202, 207) in order to change the directivity of sound emitted by the loudspeaker, and an adjustment device being configured to change the shape of the flexible part (202, 207), characterized in that the adjustment device is configured to change the shape of the flexible part (202, 207) by applying a magnetic field to the flexible parts. an acoustic waveguide comprising one or more flexible parts (202, 207), the acoustic waveguide being configured to change the shape of the flexible part (202, 207) in order to change the directivity of sound emitted by the loudspeaker, and an adjustment device being configured to change the shape of the flexible part (202, 207), characterized in that the adjustment device is configured to change the shape of the flexible part (202, 207) by applying a magnetic field to the flexible parts.