mhurhangee/ep-ind-claims huggingface dataset:
A sheave for a belted elevator system comprising: a shaft defining a central axis of the sheave, the sheave rotatable about the central axis; and a sheave outer member operably connected to the shaft via at least one bearing and rotatable about the central axis, the sheave outer member interactive with a belt of the elevator system; wherein the sheave outer member is formed from a molded plastic material; wherein the sheave outer member is supported at the bearing by a metallic support member; characterized in that the metallic support member is a tubular insert disposed radially inboard of the sheave outer surface; or the metallic support member is embedded in the sheave outer member and the metallic support member comprises a plurality of metallic rings molded into the sheave outer member. a shaft defining a central axis of the sheave, the sheave rotatable about the central axis; and a sheave outer member operably connected to the shaft via at least one bearing and rotatable about the central axis, the sheave outer member interactive with a belt of the elevator system; wherein the sheave outer member is formed from a molded plastic material; wherein the sheave outer member is supported at the bearing by a metallic support member; characterized in that the metallic support member is a tubular insert disposed radially inboard of the sheave outer surface; or the metallic support member is embedded in the sheave outer member and the metallic support member comprises a plurality of metallic rings molded into the sheave outer member.
A security element for a value and/or security document which is arranged on a layer which is transparent in the visible and UV wavelength spectrum, e.g. a film (1, 1'), wherein the security element has a first periodic, optical structure in the form of a line matrix (30, 30') or a dot matrix, which forms a first coating on the first side of the transparent layer, and a second periodic, optical structure in the form of a line matrix (40, 40', 40") or a dot matrix, which forms a second coating on the second side lying opposite the first side of the transparent layer, wherein the first optical structure and the second optical structure are arranged overlapping one another in such a manner that they exhibit a colour change effect for an outside observer at a given, predefined viewing angle (a) and under UV radiation, wherein the first coating is a first colour which is not transparent to UV light and contains pigments which have a visible chromatic or achromatic body colour and the second coating has at least a second colour which is different from the first colour and contains luminescent pigments, wherein the first optical structure and the second optical structure are arranged in such a manner to one another that the elements of the first optical structure completely overlap the elements of the second optical structure below a given, predefined viewing angle range or illumination angle range.
A method of adaptively transmitting data in a wireless communication network, wherein the network is enabled to use single-frequency-network techniques, the method comprising: evaluating channel conditions between a mobile terminal and two or more base stations in an active set; and selecting, based on the channel conditions, a transmission mode from a set of available downlink transmission modes, the set including a multi-cell single-frequency-network transmission mode, where simultaneous unicast transmissions from the two or more base stations to the mobile terminal, all use the same spreading and scrambling codes, and a non-interference-coordinated point-to-point transmission mode. evaluating channel conditions between a mobile terminal and two or more base stations in an active set; and selecting, based on the channel conditions, a transmission mode from a set of available downlink transmission modes, the set including a multi-cell single-frequency-network transmission mode, where simultaneous unicast transmissions from the two or more base stations to the mobile terminal, all use the same spreading and scrambling codes, and a non-interference-coordinated point-to-point transmission mode.
A communication method of a base station (11, 100) in a radio communication system including the base station and a plurality of relay stations (25, RS1, RS2, RS3), the method comprising: configuring (S300, S310) a downlink subframe so as to transmit a backhaul signal to the plurality of relay stations among subframes on a radio frame of the base station, wherein the downlink subframe is configured as a downlink subframe in which the backhaul signal is received as a multicast broadcast single frequency network, MBSFN, subframe in a radio frame of the plurality of relay stations; and transmitting (S400, S410) the backhaul signal to some relay stations among the plurality of relay stations in the configured downlink subframe by allocating different radio resources, wherein the radio frame of the plurality of relay stations consists of 10 subframes, and the configured downlink subframe is a downlink subframe except 1 st, 5 th, 6 th, and 10 th subframes in the radio frame of the plurality of relay stations, wherein a 1 st subframe of the radio frame of the plurality of relay stations is spaced apart by a subframe offset from a 1 st subframe of the radio frame of the base station, and wherein i) each of the plurality of relay stations has a different offset value or ii) the plurality of relay stations are divided by the base station into a plurality of groups and those relay stations grouped in one group have the same offset value. configuring (S300, S310) a downlink subframe so as to transmit a backhaul signal to the plurality of relay stations among subframes on a radio frame of the base station, wherein the downlink subframe is configured as a downlink subframe in which the backhaul signal is received as a multicast broadcast single frequency network, MBSFN, subframe in a radio frame of the plurality of relay stations; and transmitting (S400, S410) the backhaul signal to some relay stations among the plurality of relay stations in the configured downlink subframe by allocating different radio resources, wherein the radio frame of the plurality of relay stations consists of 10 subframes, and the configured downlink subframe is a downlink subframe except 1 st, 5 th, 6 th, and 10 th subframes in the radio frame of the plurality of relay stations, wherein a 1 st subframe of the radio frame of the plurality of relay stations is spaced apart by a subframe offset from a 1 st subframe of the radio frame of the base station, and wherein i) each of the plurality of relay stations has a different offset value or ii) the plurality of relay stations are divided by the base station into a plurality of groups and those relay stations grouped in one group have the same offset value.
A pocket filter assembly for removing particles from an air or gas flow, comprising a filter unit comprising a filter bag for removing particles from an air or gas flow wherein said filter unit is arranged to receive at least one filter pocket, said filter bag comprising an opening portion and an end portion opposite said opening portion, said filter unit further comprising a frame arranged at at least a portion of a periphery of said opening portion, and a support structure arranged at at least a portion of a periphery of said end portion for stretching an area of said end portion, wherein said frame and said support structure act to stretch said filter bag into a substantially parallelepiped shape such that said filter unit, in a stretched state, is arranged to provide a free passage for said at least one filter pocket into and out of said filter bag, wherein said filter unit is arranged to fold between said frame and said support structure into a folded state, and wherein said pocket filter assembly further comprises a pre-filter unit comprising at least one filter pocket arranged for insertion into said filter unit, and a releasable connection between said pre-filter unit and said filter unit, the pre-filter unit comprising a fine filter and the filter unit comprising a coarse filter, such that the filter of the pre-filter unit is finer than the filter of the filter unit. a filter unit comprising a filter bag for removing particles from an air or gas flow wherein said filter unit is arranged to receive at least one filter pocket, said filter bag comprising an opening portion and an end portion opposite said opening portion, said filter unit further comprising a frame arranged at at least a portion of a periphery of said opening portion, and a support structure arranged at at least a portion of a periphery of said end portion for stretching an area of said end portion, wherein said frame and said support structure act to stretch said filter bag into a substantially parallelepiped shape such that said filter unit, in a stretched state, is arranged to provide a free passage for said at least one filter pocket into and out of said filter bag, wherein said filter unit is arranged to fold between said frame and said support structure into a folded state, and wherein said pocket filter assembly further comprises a pre-filter unit comprising at least one filter pocket arranged for insertion into said filter unit, and a releasable connection between said pre-filter unit and said filter unit, the pre-filter unit comprising a fine filter and the filter unit comprising a coarse filter, such that the filter of the pre-filter unit is finer than the filter of the filter unit.
A method for coating sampled aerosol particles, the method comprising: aerosolizing a coating material to form a first aerosol comprising liquid particles; providing a sampled aerosol containing analyte particles to form a second aerosol; characterized in providing an acoustic coater to receive said first aerosol and said second aerosol; and, providing an acoustic field to said acoustic coater to urge said first aerosol to impinge upon particles of said second aerosol on-the- fly to form coated aerosol particles comprising a coating of first aerosol on said second aerosol particles. aerosolizing a coating material to form a first aerosol comprising liquid particles; providing a sampled aerosol containing analyte particles to form a second aerosol; providing an acoustic coater to receive said first aerosol and said second aerosol; and, providing an acoustic field to said acoustic coater to urge said first aerosol to impinge upon particles of said second aerosol on-the- fly to form coated aerosol particles comprising a coating of first aerosol on said second aerosol particles.
A recording apparatus comprising: a case; a feeding unit, provided in the case, and configured to feed a recording medium in a feeding direction; a feeding path, provided in the case, and through which the recording medium is fed; a recording unit, provided in the case, and configured to record on the recording medium; an ink tube, connected to the recording unit and an ink cartridge for supplying ink to the recording unit; a first opening, provided in a front face of the case for allowing the recording medium disposed in the feeding path to be removable; a second opening, provided in the front face for allowing the ink cartridge to be installed; an operating unit, provided above the first opening; a first placement unit, configured to place the recording medium thereon, and provided below the first opening; a discharging unit configured to discharge the recording medium is provided between the first opening and the first placement unit; and a cover member, attached to the front face so as to be opened and closed, and configured to cover both of the first opening and the second opening in a state that the cover member is closed, wherein a portion of the ink tube is disposed along an inside of the case at a position lower than the cover member. a case; a feeding unit, provided in the case, and configured to feed a recording medium in a feeding direction; a feeding path, provided in the case, and through which the recording medium is fed; a recording unit, provided in the case, and configured to record on the recording medium; an ink tube, connected to the recording unit and an ink cartridge for supplying ink to the recording unit; a first opening, provided in a front face of the case for allowing the recording medium disposed in the feeding path to be removable; a second opening, provided in the front face for allowing the ink cartridge to be installed; an operating unit, provided above the first opening; a first placement unit, configured to place the recording medium thereon, and provided below the first opening; a discharging unit configured to discharge the recording medium is provided between the first opening and the first placement unit; and a cover member, attached to the front face so as to be opened and closed, and configured to cover both of the first opening and the second opening in a state that the cover member is closed, wherein a portion of the ink tube is disposed along an inside of the case at a position lower than the cover member.
A method for manufacturing optical sheet having a plurality of layers in which at least one layer is an optical functional sheet layer comprising: light-transmissive portions configured to be arranged in a row along the surface of a base material layer; and light-absorbing portions arranged between the light-transmissive portions, the method comprising the steps of: forming the light-transmissive portions on one side of the base material layer; and forming the light-absorbing portions by filling a binder made of a resin in which light-absorbing particles are dispersed in the gaps between the light-transmissive portions and curing the binder, wherein the step of forming the light-absorbing portions is undertaken in more than one filling step, wherein in at least the last step of the more than one filling steps for forming the light-absorbing portions, the density of the light-absorbing particles contained in the binder is lower than the density of the light-absorbing particles in the first filling step for forming the light-absorbing portion and wherein the binder of lower density of light-absorbing particles is filled in recess portions in the gaps between the light-transmissive portions. forming the light-transmissive portions on one side of the base material layer; and forming the light-absorbing portions by filling a binder made of a resin in which light-absorbing particles are dispersed in the gaps between the light-transmissive portions and curing the binder, wherein
A blood flow sensor comprising: an optical sensor portion which has a contact surface contacting a subject and which receives reflected light from the subject through the contact surface, and then outputs a signal; a holding portion holding the optical sensor portion so as to be movable in movement directions crossing the contact surface; a first elastic body energizing the optical sensor portion in a first direction where the contact surface goes away from the holding portion among the movement directions; characterized by a moving member energized in the first direction by the first elastic body; and a pressure sensor abutting on the moving member by movement of the moving member in a second direction opposite to the first direction against energization force of the first elastic body, detecting the abutment, and then outputting a signal. an optical sensor portion which has a contact surface contacting a subject and which receives reflected light from the subject through the contact surface, and then outputs a signal; a holding portion holding the optical sensor portion so as to be movable in movement directions crossing the contact surface; a first elastic body energizing the optical sensor portion in a first direction where the contact surface goes away from the holding portion among the movement directions; characterized by a moving member energized in the first direction by the first elastic body; and a pressure sensor abutting on the moving member by movement of the moving member in a second direction opposite to the first direction against energization force of the first elastic body, detecting the abutment, and then outputting a signal.
Use of a flame retarder to be contained in a resin composition to confer flame retardant properties on said resin composition, said flame retarder comprising: an acrylonitrile-styrene based polymer having a weight-average molecular weight of 5000 to 1000000 obtained by photometric gel permeation chromatography employing known molecular weight samples and containing at least acrylonitrile and styrene; wherein said acrylonitrile-styrene based polymer is sulfonated with a sulfonating agent containing less than 3 wt% of moisture, whereby sulfonic acid groups and/or sulfonate groups have been introduced into said acrylonitrile-styrene based polymer and wherein the amount of said sulfonic acid groups and/or sulfonate groups based on the content of sulfur in the flame retarder is 0.001 wt% to 16 wt%, for providing compatibility to the resin. an acrylonitrile-styrene based polymer having a weight-average molecular weight of 5000 to 1000000 obtained by photometric gel permeation chromatography employing known molecular weight samples and containing at least acrylonitrile and styrene; wherein said acrylonitrile-styrene based polymer is sulfonated with a sulfonating agent containing less than 3 wt% of moisture, whereby sulfonic acid groups and/or sulfonate groups have been introduced into said acrylonitrile-styrene based polymer and wherein the amount of said sulfonic acid groups and/or sulfonate groups based on the content of sulfur in the flame retarder is 0.001 wt% to 16 wt%, for providing compatibility to the resin.
Dry batch for the production of a coarse ceramic, refractory, shaped, fired or unfired magnesia spinel product, in particular for a working casing or a backing of a large-volume industrial furnace, preferably a cement kiln, a lime shaft or lime rotary kiln, a magnesite or dolomite kiln, or a heating kiln or a kiln for energy generation or a steel production kiln or a kiln of the non-ferrous metal industry, comprising a dry substance mixture consisting of a) a granular magnesia component of at least one magnesia having an MgO content < 91.5 ma.-%, preferably < 90 ma.-%, particularly preferably < 89 ma.-%, as the main component in an amount of ≥ 70 ma.-%, preferably in an amount of ≥ 85 ma.-%, b) a granular elastifier component in an amount of 2 to 10 ma.-%, preferably of 3 to 8 ma.-%, particularly preferably of 4 to 6 ma.-%, of at least one sintered bauxite with an Al 2 O 3 content of 70 to 92 ma.-%, preferably of 78 to 91 ma.-%, the elastifier component having a grain size according to DIN 66165-2:2016-08 ≤ 2.5 mm, preferably of ≤ 2 mm, and the elastifier component having grains with a grain size according to DIN 66165-2:2016-08 of ≤ 0.5 mm at most in an amount of ≤ 25 ma.-%, preferably ≤ 20 ma.-%, especially ≤ 15 ma.-%, and c) optionally a further granular magnesia component of at least one magnesia with a higher MgO content than the main component, d) wherein the averaged MgO content of all magnesia grades of the dry substance mixture taken together is 85 to 91.5 ma.-%, preferably 87 to 90 ma.-%, particularly preferably 87 to 89 ma.-%. a) a granular magnesia component of at least one magnesia having an MgO content < 91.5 ma.-%, preferably < 90 ma.-%, particularly preferably < 89 ma.-%, as the main component in an amount of ≥ 70 ma.-%, preferably in an amount of ≥ 85 ma.-%, b) a granular elastifier component in an amount of 2 to 10 ma.-%, preferably of 3 to 8 ma.-%, particularly preferably of 4 to 6 ma.-%, of at least one sintered bauxite with an Al 2 O 3 content of 70 to 92 ma.-%, preferably of 78 to 91 ma.-%, the elastifier component having a grain size according to DIN 66165-2:2016-08 ≤ 2.5 mm, preferably of ≤ 2 mm, and the elastifier component having grains with a grain size according to DIN 66165-2:2016-08 of ≤ 0.5 mm at most in an amount of ≤ 25 ma.-%, preferably ≤ 20 ma.-%, especially ≤ 15 ma.-%, and c) optionally a further granular magnesia component of at least one magnesia with a higher MgO content than the main component, d) wherein the averaged MgO content of all magnesia grades of the dry substance mixture taken together is 85 to 91.5 ma.-%, preferably 87 to 90 ma.-%, particularly preferably 87 to 89 ma.-%.
A method of printing a three-dimensional structural component onto a base, the method comprising: receiving a set of predetermined thicknesses for the three-dimensional structural component; wherein the set of predetermined thicknesses has a first thickness corresponding to a first position of the base and a second thickness corresponding to a second position of the base, the first thickness being greater than the second thickness; instructing a printing device to print a set of layers (1220, 1520) of the three-dimensional structural component using the set of predetermined thicknesses, the set of layers (1220, 1520) comprising at least a first layer and a second layer; printing the first layer of the three-dimensional structural component directly onto the base using the set of predetermined thicknesses; wherein printing the first layer includes printing the first layer to have the first thickness at the first position of the base and wherein printing the first layer includes printing the first layer to have the second thickness at the second position of the base; printing the second layer of the three-dimensional structural component directly onto the first layer using the set of predetermined thicknesses; and wherein printing the second layer includes printing the second layer to have the first thickness at the first position of the base and wherein printing the second layer includes printing the second layer to have the second thickness at the second position of the base. receiving a set of predetermined thicknesses for the three-dimensional structural component; wherein the set of predetermined thicknesses has a first thickness corresponding to a first position of the base and a second thickness corresponding to a second position of the base, the first thickness being greater than the second thickness; instructing a printing device to print a set of layers (1220, 1520) of the three-dimensional structural component using the set of predetermined thicknesses, the set of layers (1220, 1520) comprising at least a first layer and a second layer; printing the first layer of the three-dimensional structural component directly onto the base using the set of predetermined thicknesses; wherein printing the first layer includes printing the first layer to have the first thickness at the first position of the base and wherein printing the first layer includes printing the first layer to have the second thickness at the second position of the base; printing the second layer of the three-dimensional structural component directly onto the first layer using the set of predetermined thicknesses; and wherein printing the second layer includes printing the second layer to have the first thickness at the first position of the base and wherein printing the second layer includes printing the second layer to have the second thickness at the second position of the base.
A catalyst for electrochemical reduction of oxygen comprising a noble metal sulphide single crystalline phase having a purity of more than 90% supported on a conductive carbon, wherein said noble metal sulphide is a rhodium sulphide and said single crystalline phase is (Pm-3m) Rh 17 S 15, or wherein said noble metal sulphide is a sulphide of ruthenium and optionally of an additional transition metal M and said single crystalline phase is (Pa 3) RuS 2 or Ru x M z S y. wherein said noble metal sulphide is a rhodium sulphide and said single crystalline phase is (Pm-3m) Rh 17 S 15, or wherein said noble metal sulphide is a sulphide of ruthenium and optionally of an additional transition metal M and said single crystalline phase is (Pa 3) RuS 2 or Ru x M z S y.