mhurhangee/ep-ind-claims huggingface dataset:
A separation membrane element comprising a pair of separation membranes containing - two separation membranes arranged so that the filtrate-side surfaces thereof are disposed in mutually opposed relation, - wherein the two mutually opposed filtrate surfaces of the separation membranes are bonded via resin members that are designed to connect the separation membranes while maintaining a predetermined gap of 50 μm or more and 5,000 μm or less, which provides a flow channel, - the peripheral edge of the pair of separation membranes being sealed with resin to form a sealing member, - wherein the resin members are aligned to form broken lines from one resin member as a start point to another resin member as an end point, wherein the broken line extends from the start point in a vertical, horizontal or inclined at an arbitrary angle α direction to the end point - or wherein the resin members form a checkered-steel-plate-like checkered pattern composed of short ridges A aligned in one direction and a group of short ridges B aligned in a direction perpendicular to the direction of the ridges A, with the ridges A and the ridges B being arranged alternately - or wherein the resin members form a dotted arrangement. - two separation membranes arranged so that the filtrate-side surfaces thereof are disposed in mutually opposed relation, - wherein the two mutually opposed filtrate surfaces of the separation membranes are bonded via resin members that are designed to connect the separation membranes while maintaining a predetermined gap of 50 μm or more and 5,000 μm or less, which provides a flow channel, - the peripheral edge of the pair of separation membranes being sealed with resin to form a sealing member, - wherein the resin members are aligned to form broken lines from one resin member as a start point to another resin member as an end point, wherein the broken line extends from the start point in a vertical, horizontal or inclined at an arbitrary angle α direction to the end point - or wherein the resin members form a checkered-steel-plate-like checkered pattern composed of short ridges A aligned in one direction and a group of short ridges B aligned in a direction perpendicular to the direction of the ridges A, with the ridges A and the ridges B being arranged alternately - or wherein the resin members form a dotted arrangement.
A method of fabricating an organic electronic device (210,300,405), characterized in that said method comprises: fabricating a lower electrode layer (220,330,411) upon a substrate (310,408) of said device, wherein said lower electrode layer (220,330,411) having a top exposed surface, wherein said lower electrode layer (220,330,411) comprises indium tin oxide, wherein said substrate (310,408) having a surface; placing said device in a chamber; placing a hole transporting monomer material into said chamber; vapor depositing said hole transporting monomer onto said device, and polymerizing at least a portion of said hole transporting monomer, wherein the step of depositing and polymerizing is processed selectively on said top exposed surface of said lower electrode layer (220,330,411) wherein said polymerization forms a hole transporting layer (260,417) over said top exposed surface of said lower electrode layer (220,330,411). fabricating a lower electrode layer (220,330,411) upon a substrate (310,408) of said device, wherein said lower electrode layer (220,330,411) having a top exposed surface, wherein said lower electrode layer (220,330,411) comprises indium tin oxide, wherein said substrate (310,408) having a surface; placing said device in a chamber; placing a hole transporting monomer material into said chamber; vapor depositing said hole transporting monomer onto said device, and polymerizing at least a portion of said hole transporting monomer, wherein the step of depositing and polymerizing is processed selectively on said top exposed surface of said lower electrode layer (220,330,411) wherein said polymerization forms a hole transporting layer (260,417) over said top exposed surface of said lower electrode layer (220,330,411).
Adjustment system for aligning optical elements and samples in vacuum for projecting optical or electromagnetic radiation, consisting of - at least one vacuum chamber (3"), - at least one mirror adjustable in spatial direction, and/or of - at least one optical element adjustable in spatial direction, and/or of - at least one sample adjustable in spatial direction, where in the undeflected state (idle state) translational actuators (X1, X2, Z1, Y, Z2, Z3) are provided for adjusting the alignment of the at least one mirror adjustable in spatial direction and/or of the at least one optical element adjustable in spatial direction or of the at least one sample adjustable in spatial direction in a maximum of three essentially mutually perpendicular spatial directions (X, Y, Z), characterized in that the at least one mirror adjustable in spatial direction (X, Y, Z, x, y, z) and/or the at least one optical element adjustable in spatial direction (X, Y, Z, x, y, z) and/or sample within the vacuum chamber (3") are mounted in a fixed position in relation to the vacuum chamber (3"), with the vacuum chamber (3") being directly or indirectly connected with translational actuators (X1, X2, Z1, Z2, Z3) for aligning the spatial position of the mirror and/or the optical element or the sample, whereby the translational actuators for the three translational degrees of freedom do not act on the object to be adjusted in such a way that the three form a joint point of intersection, but it is provided that actuators (X1, X2, Z1, Z2) act on the corners of an imaginary cuboid, whose volume holds the mirror and/or optical element and/or sample to be adjusted, though enclosed in the vacuum chamber (3"), whereby for changing the spatial orientation of the mirror, the optical element and/or sample in relation to the electromagnetic radiation these are jointly aligned together with the whole vacuum chamber, whereby actuators (X1, X2, Z1, Z2) act from the outside on the vacuum chamber. - at least one vacuum chamber (3"), - at least one mirror adjustable in spatial direction, and/or of - at least one optical element adjustable in spatial direction, and/or of - at least one sample adjustable in spatial direction,
A method of manufacturing a security sheet for displaying personal data, the method comprising: heating a plastic substrate to an at least softened state; and characterised by applying a resin to a first and/or second outer surface (15, 16) of the plastic substrate such that the resin fuses with the plastic substrate during the heating step to form at least one raised structure. heating a plastic substrate to an at least softened state; and characterised by applying a resin to a first and/or second outer surface (15, 16) of the plastic substrate such that the resin fuses with the plastic substrate during the heating step to form at least one raised structure.
A pipe comprising at least one metallocene-catalyzed polyethylene resin, wherein the polyethylene resin has a multimodal molecular weight distribution and comprises at least two metallocene-catalyzed polyethylene fractions A and B, wherein fractions A and B are prepared in different reactors of at least two reactors connected in series, wherein the polyethylene resin comprises: at least 30% by weight and at most 50% by weight of the polyethylene fraction A, based on the total weight of the polyethylene resin, wherein fraction A has a melt index MI 2 of at least 50 g/10 min as determined on the fluff of fraction A according to ISO 1133:1997 condition D at a temperature of 190°C and under a load of 2.16 kg; wherein the polyethylene resin has a melt index MI 5 of at least 0.10 g/10 min and of at most 1.0 g/10 min as determined according to ISO 1133:1997, condition T, at 190°C and under a load of 5 kg; an HLMI of at least 4.0 g/10 min and at most 14.0 g/10min, as measured according to the procedure of ISO 1133:1997 condition G with a temperature of 190°C and a load of 21.6 kg; and a density of at least 0.9420 g/cm 3 and of at most 0.9460 g/cm 3 as determined on the pelletized resin according to the procedure of ASTM D-1505 at a temperature of 23°C; and wherein fraction B has a density of at most 0.9210 g/cm 3, which is calculated by using the following equation: d = 0.9995 * W A * d A + 1.0046 1 − W A * d B wherein d is the density of the final polyethylene pellets, W A is the weight fraction of fraction A, d A is the density of fraction A as calculated on the fluff as d A =0.9578+0.002815*In(MI 2), d B is the density of fraction B as calculated on the fluff, and wherein the sum of both fractions A and B by weight (W A +W B) is 1. at least 30% by weight and at most 50% by weight of the polyethylene fraction A, based on the total weight of the polyethylene resin, wherein fraction A has a melt index MI 2 of at least 50 g/10 min as determined on the fluff of fraction A according to ISO 1133:1997 condition D at a temperature of 190°C and under a load of 2.16 kg; wherein the polyethylene resin has a melt index MI 5 of at least 0.10 g/10 min and of at most 1.0 g/10 min as determined according to ISO 1133:1997, condition T, at 190°C and under a load of 5 kg; an HLMI of at least 4.0 g/10 min and at most 14.0 g/10min, as measured according to the procedure of ISO 1133:1997 condition G with a temperature of 190°C and a load of 21.6 kg; and a density of at least 0.9420 g/cm 3 and of at most 0.9460 g/cm 3 as determined on the pelletized resin according to the procedure of ASTM D-1505 at a temperature of 23°C; and wherein fraction B has a density of at most 0.9210 g/cm 3, which is calculated by using the following equation: d = 0.9995 * W A * d A + 1.0046 1 − W A * d B wherein d is the density of the final polyethylene pellets, W A is the weight fraction of fraction A, d A is the density of fraction A as calculated on the fluff as d A =0.9578+0.002815*In(MI 2), d B is the density of fraction B as calculated on the fluff, and wherein the sum of both fractions A and B by weight (W A +W B) is 1.
A printing device (100; 400), comprising: a mask raising/lowering mechanical part for raising/lowering, in a state of holding a screen mask, the screen mask in a vertical direction and positioning the screen mask relative to a substrate; a frame part (40; 440) disposed in a state of being independent from a raising/lowering operation of the screen mask; a print head unit provided movably to the frame part (40; 440) and performing squeegeeing of the screen mask to which a solder has been supplied; and a horizontal positioning mechanical part enabling the mask raising/lowering mechanical part to move in a horizontal direction, wherein the frame part (40; 440) includes a support part extending in a horizontal direction above the mask raising/lowering mechanical part, with a clearance being formed between the support part and the mask raising/lowering mechanical part, and also includes a leg part (41; 441) extending in a vertical direction, connected to the support part and supporting the support part from below, and the frame part (40; 440) is formed in a gate-shaped structure by the leg part (41; 441) and the support part, the print head unit is movably supported in a horizontal direction by the support part, and the mask raising/lowering mechanical part is disposed inside the frame part (40; 440) having the gate-shaped structure, characterized in that the leg part (41; 441) of the frame part (40; 440) is fixed to the horizontal positioning mechanical part. a mask raising/lowering mechanical part for raising/lowering, in a state of holding a screen mask, the screen mask in a vertical direction and positioning the screen mask relative to a substrate; a frame part (40; 440) disposed in a state of being independent from a raising/lowering operation of the screen mask; a print head unit provided movably to the frame part (40; 440) and performing squeegeeing of the screen mask to which a solder has been supplied; and a horizontal positioning mechanical part enabling the mask raising/lowering mechanical part to move in a horizontal direction, wherein the frame part (40; 440) includes a support part extending in a horizontal direction above the mask raising/lowering mechanical part, with a clearance being formed between the support part and the mask raising/lowering mechanical part, and also includes a leg part (41; 441) extending in a vertical direction, connected to the support part and supporting the support part from below, and the frame part (40; 440) is formed in a gate-shaped structure by the leg part (41; 441) and the support part, the print head unit is movably supported in a horizontal direction by the support part, and the mask raising/lowering mechanical part is disposed inside the frame part (40; 440) having the gate-shaped structure, characterized in that the leg part (41; 441) of the frame part (40; 440) is fixed to the horizontal positioning mechanical part.
A washing machine comprising a case and a control panel base with function of automatically adding detergent, wherein the control panel base is mounted at top of the case and an upper cover is mounted on the control panel base, the control panel base comprising: at least one chamber configured to dispense solid detergents, at least one container configured to contain liquid detergents, and an automatic detergent dispensing apparatus which is in communication with both the chamber and the container, a water inlet valve in communication with the automatic detergent dispensing apparatus, the control panel base comprising an upper end surface provided with at least two detergent dispensing ports, an outer circumferential wall, an inner circumferential wall, and a clothing feeding port formed by the inner circumferential wall; wherein the outer circumferential wall and the inner circumferential wall are connected to the upper end surface separately, wherein each of the detergent dispensing ports is respectively in communication with the chamber and the container correspondingly; the control panel base further comprising an accommodation space formed by the outer circumferential wall, the upper end surface connected to the outer circumferential wall, and the inner circumferential wall is below the control panel base; and the chamber, the container and the automatic detergent dispensing apparatus are all disposed in the accommodation space; characterized in that the automatic detergent dispensing apparatus comprises a Venturi tube through which flowing of water can generate a negative pressure, and a measurement apparatus in communication with a negative pressure area of the Venturi tube; the measurement apparatus is in communication with the container; and a detergent dispensing control valve is disposed between the measurement apparatus and the container, wherein the Venturi tube is in communication with the chamber through a water outlet pipeline such that the automatic detergent dispensing apparatus is configured to pump liquid detergents in the container using the negative pressure caused by flowing of inlet water from the water inlet valve through the Venturi tube for quantitative delivery, and to cause the liquid detergents pumped from the container to flow to the chamber through the water outlet pipeline.
A rotary end face seal assembly configured to seal a process fluid operating near to its vapor point without a separate cooling water delivery system, the rotary end face seal assembly comprising: a mating ring having an annular mating ring seal face; an axially movable primary ring having an annular primary ring seal face; and a biasing element biasing said primary ring toward the mating ring, the mating ring seal face and the primary ring seal face disposed in face-to-face sealing relation and defining a seal interface between a radial outer peripheral edge and a radial inner peripheral edge of the primary ring seal face; characterized in that the primary ring seal face defines a plurality of hydro-pad recesses and a plurality of radial feeder grooves, the plurality of hydro-pad recesses extending radially inwardly at peripherally spaced intervals from the radial outer peripheral edge, and the plurality of radial feeder grooves extending radially inwardly from the same radial outer peripheral edge between at least some of the hydro-pad recesses, wherein the combined interaction of the plurality of hydro-pad recesses and the plurality of radial feeder grooves draws sufficient process fluid between the mating ring seal face and the primary ring seal face to ensure that the process fluid within the seal interface - operating at pressure and temperature conditions near to its vapor point - remains in the liquid state. a mating ring having an annular mating ring seal face; an axially movable primary ring having an annular primary ring seal face; and a biasing element biasing said primary ring toward the mating ring, the mating ring seal face and the primary ring seal face disposed in face-to-face sealing relation and defining a seal interface between a radial outer peripheral edge and a radial inner peripheral edge of the primary ring seal face; characterized in that the primary ring seal face defines a plurality of hydro-pad recesses and a plurality of radial feeder grooves, the plurality of hydro-pad recesses extending radially inwardly at peripherally spaced intervals from the radial outer peripheral edge, and the plurality of radial feeder grooves extending radially inwardly from the same radial outer peripheral edge between at least some of the hydro-pad recesses, wherein the combined interaction of the plurality of hydro-pad recesses and the plurality of radial feeder grooves draws sufficient process fluid between the mating ring seal face and the primary ring seal face to ensure that the process fluid within the seal interface - operating at pressure and temperature conditions near to its vapor point - remains in the liquid state.
A hand-held binding apparatus for binding a branch to a support using wire, the binding apparatus comprising, a housing; a pulling member which can hold a wire, and which is operable to move around the branch and support, so that the pulling member pulls the wire around said branch and support; a cutting system comprising a wire holder which is fixed relative to the housing and which can hold the wire, and a cutting member which is mounted pivotably with respect to the wire holder, an actuating member which can engage the cutting member to cut the wire, wherein the actuating member is provided on the pulling member and positioned on the pulling member such that the actuating member engages the cutting member to force the cutting member to rotate relative to the wire holder to cut the wire after the pulling member has moved around the branch and support.
A method of generating binaural headphone playback signals given multiple audio source signals with associated metadata and a binaural room impulse response, BRIR, database, wherein the audio source signals can be channel-based, object-based, or a mixture of both signals, the method comprising: computing instant head-relative positions of the audio sources with respect to a position of a user head and a facing direction; grouping the source signals according to the instant head-relative positions of the audio sources in a hierarchical manner; characterized by dividing BRIR to be used for rendering into blocks and frames, wherein the BRIR is divided into a direct block and diffuse blocks and the direct block is further divided into the frames; dividing each source signal to be rendered into a number of blocks and frames, wherein the source signal is divided into a current block and a number of previous blocks and the current block is further divided into the frames; performing, for each source signal individually, a convolution of a latest frame of the source signal with a zeroth frame of the BRIR to be used for rendering; averaging, for each of previous frames of the source signals different from the latest frame, the divided BRIR identified with a hierarchically grouping result by downmixing the previous frames of the source signals according to the hierarchically grouping result, and performing a convolution with the downmixed previous frame. computing instant head-relative positions of the audio sources with respect to a position of a user head and a facing direction; grouping the source signals according to the instant head-relative positions of the audio sources in a hierarchical manner; characterized by dividing BRIR to be used for rendering into blocks and frames, wherein the BRIR is divided into a direct block and diffuse blocks and the direct block is further divided into the frames; dividing each source signal to be rendered into a number of blocks and frames, wherein the source signal is divided into a current block and a number of previous blocks and the current block is further divided into the frames; performing, for each source signal individually, a convolution of a latest frame of the source signal with a zeroth frame of the BRIR to be used for rendering; averaging, for each of previous frames of the source signals different from the latest frame, the divided BRIR identified with a hierarchically grouping result by downmixing the previous frames of the source signals according to the hierarchically grouping result, and performing a convolution with the downmixed previous frame.
A grate element for a grate cooler for cooling and transporting bulk material in a forward direction, wherein the grate element - has at least a box like support structure for an upside facing rest for supporting the bulk material, - has a front element which is supported by the support structure and covers at least a section of the front side of the support structure characterized in that the support structure has at least one recess and the front element has at least one protrusion engaging into the recess, thereby interlocking the front element against translation in at least a forward direction relative to the grate element. - has at least a box like support structure for an upside facing rest for supporting the bulk material, - has a front element which is supported by the support structure and covers at least a section of the front side of the support structure
Use of a photosensitive device to generate electrical current from incident electromagnetic radiation, the photosensitive device comprising: a first electrode; a second electrode; a photoactive region disposed between and electrically connected to the first electrode and the second electrode, the photoactive region further comprising: an organic donor layer; an organic acceptor layer, disposed such that the organic donor layer and the organic acceptor layer form a donor-acceptor heterojunction; the photosensitive device characterized by the mobility of holes in the organic donor layer is greater than the mobility of electrons in the organic acceptor layer by a factor of at least 100, and the mobility of holes in the organic donor layer is greater than 0.001 cm 2 / V·sec. a first electrode; a second electrode; a photoactive region disposed between and electrically connected to the first electrode and the second electrode, the photoactive region further comprising: an organic donor layer; an organic acceptor layer, disposed such that the organic donor layer and the organic acceptor layer form a donor-acceptor heterojunction; the photosensitive device characterized by the mobility of holes in the organic donor layer is greater than the mobility of electrons in the organic acceptor layer by a factor of at least 100, and the mobility of holes in the organic donor layer is greater than 0.001 cm 2 / V·sec. an organic donor layer; an organic acceptor layer, disposed such that the organic donor layer and the organic acceptor layer form a donor-acceptor heterojunction; the photosensitive device characterized by the mobility of holes in the organic donor layer is greater than the mobility of electrons in the organic acceptor layer by a factor of at least 100, and the mobility of holes in the organic donor layer is greater than 0.001 cm 2 / V·sec.