mhurhangee/ep-ind-claims huggingface dataset:
A monitor support comprising: a mounting and support assembly for attaching a monitor support arm to a surface; a static arm configured to mount rotatably to said mounting and support assembly at a proximal end and having a support arm junction at a distal end; a moving arm pivotally attached to said static arm at said support arm junction with a first one-way freewheel friction hub, characterized in that said one-way freewheel friction hub is gravity-based and includes first and second one-way cam assemblies (70a, 70b), each having: a circumferential wall (74a, 74b) surrounding a one-way cam ring with recesses defined by evenly spaced cams; a plurality of friction pins (79a, 79b) captured between said cam rings and said circumferential walls and secured on a side by a friction disc; wherein said cam assemblies use gravity instead of springs to maintain friction pin engagement with the cams of the cam ring; and a monitor mounting structure mounted on a distal end of said moving arm. a mounting and support assembly for attaching a monitor support arm to a surface; a static arm configured to mount rotatably to said mounting and support assembly at a proximal end and having a support arm junction at a distal end; a moving arm pivotally attached to said static arm at said support arm junction with a first one-way freewheel friction hub, characterized in that said one-way freewheel friction hub is gravity-based and includes first and second one-way cam assemblies (70a, 70b), each having: a circumferential wall (74a, 74b) surrounding a one-way cam ring with recesses defined by evenly spaced cams; a plurality of friction pins (79a, 79b) captured between said cam rings and said circumferential walls and secured on a side by a friction disc; wherein said cam assemblies use gravity instead of springs to maintain friction pin engagement with the cams of the cam ring; and a circumferential wall (74a, 74b) surrounding a one-way cam ring with recesses defined by evenly spaced cams; a plurality of friction pins (79a, 79b) captured between said cam rings and said circumferential walls and secured on a side by a friction disc; wherein said cam assemblies use gravity instead of springs to maintain friction pin engagement with the cams of the cam ring; and a monitor mounting structure mounted on a distal end of said moving arm.
Image-generating device comprising a light source that produces a light beam and a screen that is passed through by the light beam and that is designed to modify the light beam so as to form an image, in which device the screen comprises a transparent element (50; 150; 250; 350; 450; 550; 650) that is passed through by the light beam and that is arranged to remove the heat generated in the screen, and the following plate-shaped elements: an entrance polarizer (20, 120, 220, 420, 520), a first glass sheet (12, 112, 212, 312, 412), a liquid-crystal matrix array (10; 110; 210; 310; 410; 510; 610), a second glass sheet (14, 114, 214, 314, 414, 514, 614), a matrix array of colour elements (16, 116, 216, 316, 416, 516, 616), an exit polarizer (22, 122, 222, 322, 422, 522, 622), the transparent element possibly bearing the entrance polarizer and/or forming the first glass sheet; and in which device said transparent element (50; 150; 250; 350; 450; 550; 650) is made of sintered transparent ceramic said ceramic being a magnesium oxide; and in which device the screen comprises a cover formed on the one hand from a first cover (30; 130; 230; 330; 430; 530; 630) and on the other hand from a metal second cover (40; 140; 240; 340; 440; 540; 640), the first cover comprising a transverse portion (31, 131, 231, 331, 431, 531, 631) that extends so as to make contact with an exit face of the exit polarizer (22, 122, 222, 322, 422, 522, 622), a window (32, 132, 232, 332, 432, 532, 632) being formed in said transverse portion in order to allow the light beam generated by the screen to exit, the first cover being accommodated in the second cover, the second cover extending around the first cover over most of the length of the first cover, the second cover comprising a transverse portion (41, 141, 241, 341, 441, 541, 641) that extends in line and makes contact with a circumferential end of the first cover and/or of the entrance polarizer, a window (42, 142, 242, 342, 442, 542, 642) being formed in the transverse portion of the second cover in order to allow the light generated by the light source to enter, the transverse portions of the first and second covers axially retaining the constituent plate-shaped elements of the screen; and in which device the transparent element (50; 150; 250; 350; 450; 550; 650) makes thermal contact with the metal second cover (40; 140; 240; 340; 440; 540; 640).
An apparatus comprising: an input to receive a serial data signal; an edge data tap to sample transition edges in the serial data signal for generating a data edge detection signal; a clock and data recovery, CDR, circuit including a phase detector to receive the serial data signal and the data edge detection signal, and to output a phase lead/lag signal (190, 191) indicating the phase difference between the serial data signal and the data edge detection signal; and a phase adjustment circuit to generate phase lead/lag adjustment data (192, 193), wherein the CDR circuit is to output a recovered clock signal based, at least in part, on the phase lead/lag signal (190, 191) adjusted by the phase lead/lag adjustment data (192, 193), characterized by a decision feedback equalization, DFE, loop to provide equalization to the CDR circuit based, at least in part, on pre-cursor and post-cursor data samples of the serial data signal captured by a pre-cursor tap and a post-cursor tap, respectively, of the DFE loop, wherein the phase adjustment circuit comprises a modulator and a register/ MUX, wherein the modulator receives one of the pre-cursor or the post-cursor data samples captured by the DFE loop and a predetermined scalar and generates a clock whose frequency is proportional to the pre-cursor or the post-cursor data samples and the register/ MUX outputs as the phase lead/lag adjustment data (192, 193) a phase lead/lag skew based on the clock generated by the modulator and a pre-configured skew value, wherein the pre-cursor or post-cursor sign selects the output. an input to receive a serial data signal; an edge data tap to sample transition edges in the serial data signal for generating a data edge detection signal; a clock and data recovery, CDR, circuit including a phase detector to receive the serial data signal and the data edge detection signal, and to output a phase lead/lag signal (190, 191) indicating the phase difference between the serial data signal and the data edge detection signal; and a phase adjustment circuit to generate phase lead/lag adjustment data (192, 193), wherein the CDR circuit is to output a recovered clock signal based, at least in part, on the phase lead/lag signal (190, 191) adjusted by the phase lead/lag adjustment data (192, 193), characterized by a decision feedback equalization, DFE, loop to provide equalization to the CDR circuit based, at least in part, on pre-cursor and post-cursor data samples of the serial data signal captured by a pre-cursor tap and a post-cursor tap, respectively, of the DFE loop, wherein the phase adjustment circuit comprises a modulator and a register/ MUX, wherein the modulator receives one of the pre-cursor or the post-cursor data samples captured by the DFE loop and a predetermined scalar and generates a clock whose frequency is proportional to the pre-cursor or the post-cursor data samples and the register/ MUX outputs as the phase lead/lag adjustment data (192, 193) a phase lead/lag skew based on the clock generated by the modulator and a pre-configured skew value, wherein the pre-cursor or post-cursor sign selects the output.
A method of preparing a yeast fermented beverage, said method comprising the steps of: a. fermenting wort with a biologically active yeast to produce a fermented liquid containing yeast, alcohol, polyphenols and protein; b. combining the fermented liquid with polyvinylpolypyrrolidone (PVPP) particles to bind at least a fraction of the polyphenols and/or the proteins contained in the fermented liquid to said PVPP particles, yeast being contained in the fermented liquid in a concentration of at least 5 mg of wet yeast per kg of fermented liquid; c. removing a slurry containing the PVPP particles and yeast from the fermented liquid; d. separating said slurry into a yeast-enriched fraction and a PVPP-enriched fraction by means of flotation separation, said flotation separation comprising passing a liquid comprising the slurry through a sedimentation separation vessel in an upward flow and by separately removing a yeast enriched fraction and a PVPP enriched fraction, said PVPP enriched fraction being removed downstream and above of where the yeast enriched fraction is removed; e. regenerating the PVPP particles before, during and/or after the separation into the yeast-enriched fraction and the PVPP-enriched fraction by desorbing polyphenols and/or protein from said PVPP-particles and separating the desorbed polyphenols and/or the desorbed protein from the PVPP particles; and f. recirculating the regenerated PVPP particles to step b. a. fermenting wort with a biologically active yeast to produce a fermented liquid containing yeast, alcohol, polyphenols and protein; b. combining the fermented liquid with polyvinylpolypyrrolidone (PVPP) particles to bind at least a fraction of the polyphenols and/or the proteins contained in the fermented liquid to said PVPP particles, yeast being contained in the fermented liquid in a concentration of at least 5 mg of wet yeast per kg of fermented liquid; c. removing a slurry containing the PVPP particles and yeast from the fermented liquid; d. separating said slurry into a yeast-enriched fraction and a PVPP-enriched fraction by means of flotation separation, said flotation separation comprising passing a liquid comprising the slurry through a sedimentation separation vessel in an upward flow and by separately removing a yeast enriched fraction and a PVPP enriched fraction, said PVPP enriched fraction being removed downstream and above of where the yeast enriched fraction is removed; e. regenerating the PVPP particles before, during and/or after the separation into the yeast-enriched fraction and the PVPP-enriched fraction by desorbing polyphenols and/or protein from said PVPP-particles and separating the desorbed polyphenols and/or the desorbed protein from the PVPP particles; and f. recirculating the regenerated PVPP particles to step b.
A transfer apparatus for transferring a work to/from a processing apparatus, comprising: a main body being able to move in a horizontal direction; an arm portion pivotally provided with respect to the main body; a hand portion pivotally provided with respect to the arm portion, and configured to grip the work; and a control means horizontally swinging the arm portion and move the main body in order for the hand portion to linearly move the work, when the hand portion facing the processing apparatus loads/unloads the work into/from the processing apparatus, characterized in that the hand portion has a chuck portion configured to grip the work, the chuck portion has a gripping mechanism configured to grip the work and a pivoting mechanism pivoting the gripping mechanism about a horizontal axis being perpendicular to an open-close direction of the gripping mechanism, and the control means controls a pivoting of the hand portion, the gripping mechanism and the pivoting mechanism. a main body being able to move in a horizontal direction; an arm portion pivotally provided with respect to the main body; a hand portion pivotally provided with respect to the arm portion, and configured to grip the work; and a control means horizontally swinging the arm portion and move the main body in order for the hand portion to linearly move the work, when the hand portion facing the processing apparatus loads/unloads the work into/from the processing apparatus, characterized in that the hand portion has a chuck portion configured to grip the work, the chuck portion has a gripping mechanism configured to grip the work and a pivoting mechanism pivoting the gripping mechanism about a horizontal axis being perpendicular to an open-close direction of the gripping mechanism, and the control means controls a pivoting of the hand portion, the gripping mechanism and the pivoting mechanism.
A helmet comprising: a helmet shell; and an impact-absorbing member disposed along an inner surface of the helmet shell, the helmet shell having a pair of right-hand and left-hand cheek-covering portions, the right-hand, left-hand cheek-covering portion being, at its lower edge, fitted with a side hemming member, the right-hand, left-hand cheek-covering portion having an upwardly cut-out portion formed on its lower-end side, the lower edge of the right-hand, left-hand cheek-covering portion being made in peak form so as to be slanted upward from both sides toward a center thereof in a front-back direction, the side hemming member having a wide portion formed so as to swell upward in peak form for obtaining a wide vertical width in correspondence with the cut-out portion, the wide portion being formed with an air ejection hole, characterized in that the side hemming member has a side engagement portion of U-section which engages the lower edge of the cheek-covering portion, and a side bend edge portion protruding from the lower end of the side engagement portion, that part of the side engagement portion which corresponds to the wide portion is curved in peak form so as to be slanted upward from both sides toward the center in the front-back direction along the lower edge of the cheek-covering portion, and that part of the side bend edge portion which corresponds to the wide portion is made as a wide bend edge part which protrudes downward, while being widened, from the side engagement portion, the wide bend edge part being formed with said air ejection hole. a helmet shell; and an impact-absorbing member disposed along an inner surface of the helmet shell, the helmet shell having a pair of right-hand and left-hand cheek-covering portions, the right-hand, left-hand cheek-covering portion being, at its lower edge, fitted with a side hemming member, the right-hand, left-hand cheek-covering portion having an upwardly cut-out portion formed on its lower-end side, the lower edge of the right-hand, left-hand cheek-covering portion being made in peak form so as to be slanted upward from both sides toward a center thereof in a front-back direction, the side hemming member having a wide portion formed so as to swell upward in peak form for obtaining a wide vertical width in correspondence with the cut-out portion, the wide portion being formed with an air ejection hole, characterized in that the side hemming member has a side engagement portion of U-section which engages the lower edge of the cheek-covering portion, and a side bend edge portion protruding from the lower end of the side engagement portion, that part of the side engagement portion which corresponds to the wide portion is curved in peak form so as to be slanted upward from both sides toward the center in the front-back direction along the lower edge of the cheek-covering portion, and that part of the side bend edge portion which corresponds to the wide portion is made as a wide bend edge part which protrudes downward, while being widened, from the side engagement portion, the wide bend edge part being formed with said air ejection hole.
A light generating device comprising: a first layer; a plurality of light source devices disposed on the first layer and configured to emit light, at least one of the light source devices including a light emitting diode for generating the light; a second layer covering the light source devices; and a light shielding layer disposed on the second layer including at least one through-hole and being configured to selectively transmit the light emitted from the light source devices, characterized in that the light source devices have lateral light emitting surfaces, which emit light in a light emission direction in which the first layer extends; and the light shielding layer is positioned to cover said lateral light emitting surfaces. a first layer; a plurality of light source devices disposed on the first layer and configured to emit light, at least one of the light source devices including a light emitting diode for generating the light; a second layer covering the light source devices; and a light shielding layer disposed on the second layer including at least one through-hole and being configured to selectively transmit the light emitted from the light source devices, characterized in that the light source devices have lateral light emitting surfaces, which emit light in a light emission direction in which the first layer extends; and the light shielding layer is positioned to cover said lateral light emitting surfaces.
An illumination device comprising: a coherent light source that emits a plurality of coherent light beams; an optical device that diffuses the plurality of coherent light beams and illuminates a predetermined illumination area; and a timing control unit that individually controls incident timing of the plurality of coherent light beams to the optical device or illumination timing of the illumination area, wherein the optical device has a plurality of diffusion regions on which respective coherent light beams are incident, the diffusion regions being provided so that each diffusion region corresponds to one of the coherent light beams, the plurality of diffusion regions illuminate the illumination area by diffusion of incident coherent light beams, the plurality of diffusion regions have a plurality of element diffusion regions, the plurality of element diffusion regions illuminate partial regions in the illumination area by diffusion of incident coherent light beams, and at least parts of the partial regions illuminated by the plurality of element diffusion regions are different from one another. a coherent light source that emits a plurality of coherent light beams; an optical device that diffuses the plurality of coherent light beams and illuminates a predetermined illumination area; and a timing control unit that individually controls incident timing of the plurality of coherent light beams to the optical device or illumination timing of the illumination area, wherein the optical device has a plurality of diffusion regions on which respective coherent light beams are incident, the diffusion regions being provided so that each diffusion region corresponds to one of the coherent light beams, the plurality of diffusion regions illuminate the illumination area by diffusion of incident coherent light beams, the plurality of diffusion regions have a plurality of element diffusion regions, the plurality of element diffusion regions illuminate partial regions in the illumination area by diffusion of incident coherent light beams, and at least parts of the partial regions illuminated by the plurality of element diffusion regions are different from one another.
A method of forming containers each having an inner bag and a surrounding outer jacket, the method comprising: conveying a laminate comprising a sheet for forming the bags of the containers and a series of blanks for forming the outer jackets of the containers, wherein the blanks are joined to said sheet such that the longitudinal edges of the sheet extend beyond the longitudinal edges of the blanks in the cross-machine direction; folding or wrapping the laminate about at least one axis extending in the machine direction such that the sheet is arranged inside of the blanks and such that the edges of said sheet that extend beyond the edges of the blanks meet each other; sealing together the edges of the sheet that extend beyond the edges of the blanks so that the sheet material forms, or is capable of forming, a tubular structure; and cutting the sheet material in the cross-machine direction between adjacent blanks so as to release individual partially formed containers; characterised in that said edges of the blanks are not joined to each other and are spaced apart from each other after said sealing step. conveying a laminate comprising a sheet for forming the bags of the containers and a series of blanks for forming the outer jackets of the containers, wherein the blanks are joined to said sheet such that the longitudinal edges of the sheet extend beyond the longitudinal edges of the blanks in the cross-machine direction; folding or wrapping the laminate about at least one axis extending in the machine direction such that the sheet is arranged inside of the blanks and such that the edges of said sheet that extend beyond the edges of the blanks meet each other; sealing together the edges of the sheet that extend beyond the edges of the blanks so that the sheet material forms, or is capable of forming, a tubular structure; and cutting the sheet material in the cross-machine direction between adjacent blanks so as to release individual partially formed containers; characterised in that said edges of the blanks are not joined to each other and are spaced apart from each other after said sealing step.
A vane shroud of a gas turbine engine, comprising a shroud rail for retaining a feather seal in the vane shroud, the shroud rail comprising: a slot traversing the vane shroud and configured for receiving a feather seal, the slot comprising: a slot base extending from a leading edge to a trailing edge of the shroud rail; and a slot wall extending generally perpendicularly from the slot base; characterised by further comprising: a chamfer rail pocket (82; 82B; 108) for lightening the shroud rail, the chamfer rail pocket comprising: a pocket wall (100; 100B) extending along the slot wall; and a chamfer wall (98; 98B; 118) extending from the pocket wall (100; 100B) at an angle oblique to the slot base. a slot traversing the vane shroud and configured for receiving a feather seal, the slot comprising: a slot base extending from a leading edge to a trailing edge of the shroud rail; and a slot wall extending generally perpendicularly from the slot base; a slot base extending from a leading edge to a trailing edge of the shroud rail; and a slot wall extending generally perpendicularly from the slot base; characterised by further comprising: a chamfer rail pocket (82; 82B; 108) for lightening the shroud rail, the chamfer rail pocket comprising: a pocket wall (100; 100B) extending along the slot wall; and a chamfer wall (98; 98B; 118) extending from the pocket wall (100; 100B) at an angle oblique to the slot base. a chamfer rail pocket (82; 82B; 108) for lightening the shroud rail, the chamfer rail pocket comprising: a pocket wall (100; 100B) extending along the slot wall; and a chamfer wall (98; 98B; 118) extending from the pocket wall (100; 100B) at an angle oblique to the slot base. a pocket wall (100; 100B) extending along the slot wall; and a chamfer wall (98; 98B; 118) extending from the pocket wall (100; 100B) at an angle oblique to the slot base.
A porous structure for medical implants, comprising: a repeating unit cell said repeating unit cell comprising a plurality of sub-unit cells; wherein said sub-unit cells comprise a node centrally located within a cuboid volume; wherein said cuboid volume further comprises six faces; characterized in that said node further comprises a square bipyramid with eight node faces and a square plane parallel to a face of said cuboid volume; and wherein said sub-unit cell further comprises a first strut fixed to one of the node faces. a repeating unit cell said repeating unit cell comprising a plurality of sub-unit cells; wherein said sub-unit cells comprise a node centrally located within a cuboid volume; wherein said cuboid volume further comprises six faces; characterized in that said node further comprises a square bipyramid with eight node faces and a square plane parallel to a face of said cuboid volume; and wherein said sub-unit cell further comprises a first strut fixed to one of the node faces.