mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a three-dimensional object, comprising: (i) placing a liquid polymer resin and at least one occluding fluid in a vat, wherein the density of the at least one occluding fluid is less than the density of the liquid polymer resin such that the occluding fluid sits on top of the liquid polymer resin; (ii) immersing a build table into the vat; (iii) depositing a layer of the liquid polymer resin on a surface of the build table; (iv) projecting light from a light-source to cure a portion of the resin layer; (v) depositing a new layer on the previously cured resin layer; (vi) projecting light from the light source to cure a portion of the newly deposited resin layer (vii) repeating steps (iii) through (vi) until the three-dimensional object is formed. (i) placing a liquid polymer resin and at least one occluding fluid in a vat, wherein the density of the at least one occluding fluid is less than the density of the liquid polymer resin such that the occluding fluid sits on top of the liquid polymer resin; (ii) immersing a build table into the vat; (iii) depositing a layer of the liquid polymer resin on a surface of the build table; (iv) projecting light from a light-source to cure a portion of the resin layer; (v) depositing a new layer on the previously cured resin layer; (vi) projecting light from the light source to cure a portion of the newly deposited resin layer (vii) repeating steps (iii) through (vi) until the three-dimensional object is formed.
A fixing device for fixing a toner image onto a medium, the fixing device comprising: a circulating member for fixing toner and having an annular peripheral wall movable circularly; a pressure member facing an outer peripheral surface of the circulating member and forming a nip with the circulating member; a heater inside the circulating member and operable to heat the circulating member; a reflector inside the circulating member and operable to reflect radiant heat of the heater to the circulating member; a heat storage section provided integrally with the reflector or connected to the reflector; and a driving device operable to move the heat storage section to abut on or separate from an inner peripheral surface of the circulating member, characterized in that the driving device includes a first temperature sensor provided in the circulating member and a second temperature sensor provided in the heat storage section, and the driving device causes the heat storage section to abut on or separate from the inner peripheral surface of the circulating member according to a temperature difference between a detected temperature at the first temperature sensor and a detected temperature at the second temperature sensor. a circulating member for fixing toner and having an annular peripheral wall movable circularly; a pressure member facing an outer peripheral surface of the circulating member and forming a nip with the circulating member; a heater inside the circulating member and operable to heat the circulating member; a reflector inside the circulating member and operable to reflect radiant heat of the heater to the circulating member; a heat storage section provided integrally with the reflector or connected to the reflector; and a driving device operable to move the heat storage section to abut on or separate from an inner peripheral surface of the circulating member, characterized in that the driving device includes a first temperature sensor provided in the circulating member and a second temperature sensor provided in the heat storage section, and the driving device causes the heat storage section to abut on or separate from the inner peripheral surface of the circulating member according to a temperature difference between a detected temperature at the first temperature sensor and a detected temperature at the second temperature sensor.
A waveguide display element for guiding an image from a first lateral zone of the element to a second lateral zone of the element, the element comprising a plurality of waveguide layers on top of each other (10A-C, 40A-D), and at least one intermediate diffractive optical element (14AB, 14BC; 44AB, 44BC, 44AD, 44DE) arranged between two of said waveguide layers, the intermediate diffractive optical element being adapted to change the distribution of propagating light power between the waveguide layers, and wherein the waveguide has a staircase profile comprising at least one discrete step in the propagation path of light from said first zone to said second zone, the waveguide has plural waveguide layers of said plurality of waveguide layers in each of said first zone and said second zone upstream and downstream said discrete step respectively, at least one of which continues over said step as a continuous layer, and the intermediate diffractive optical element is adapted to control the distribution of light between said waveguide layers for assisting the propagating light power to pass the step. a plurality of waveguide layers on top of each other (10A-C, 40A-D), and at least one intermediate diffractive optical element (14AB, 14BC; 44AB, 44BC, 44AD, 44DE) arranged between two of said waveguide layers, the intermediate diffractive optical element being adapted to change the distribution of propagating light power between the waveguide layers, and wherein the waveguide has a staircase profile comprising at least one discrete step in the propagation path of light from said first zone to said second zone, the waveguide has plural waveguide layers of said plurality of waveguide layers in each of said first zone and said second zone upstream and downstream said discrete step respectively, at least one of which continues over said step as a continuous layer, and the intermediate diffractive optical element is adapted to control the distribution of light between said waveguide layers for assisting the propagating light power to pass the step.
An ion microscope, comprising an ion source including an electrically conductive tip having a terminal shelf with three to twenty atoms, the electrically conductive tip includes an apex point and a second point, both located on a longitudinal axis of the electrically conductive tip, with the second point spaced one μm from the apex point along the longitudinal axis, a first imaginary line extends perpendicular to the longitudinal axis and through the second point, the first imaginary line intersecting a profile of the electrically conductive tip at third and fourth points; a left cone angle θl is the angle between a tangent to a profile of the electrically conductive tip at the third point and a second imaginary line through the third point and extending parallel to the longitudinal axis; a right cone angle θr is the angle between a tangent to a profile of the electrically conductive tip at the fourth point and a third imaginary line through the fourth point and extending parallel to the longitudinal axis; a full cone angle of the electrically conductive tip is the sum of the magnitudes of the right cone angle θr and the left cone angle θl; an average full cone angle of the electrically conductive tip is determined by measuring the full cone angle for eight different side views of the tip and then calculating the average of the eight full cone angles, each side view being rotated 45° about the longitudinal axis with respect to the previous side view of the tip; and wherein the average full cone angle of the electrically conductive tip is from 15° to 45°.
A system comprising: a tool; and a device for compressing composite plies against said tool, said device comprising: a body adapted to be placed against the plies; and at least one magnet on the body adapted to generate a magnetic force that compresses the plies against the tool; wherein the tool is formed of a ferromagnetic material and the body includes a face formed of paramagnetic material, the face being adapted to engage and compress the composite plies into a corner of the tool. a tool; and a device for compressing composite plies against said tool, said device comprising: a body adapted to be placed against the plies; and at least one magnet on the body adapted to generate a magnetic force that compresses the plies against the tool; a body adapted to be placed against the plies; and at least one magnet on the body adapted to generate a magnetic force that compresses the plies against the tool; wherein the tool is formed of a ferromagnetic material and the body includes a face formed of paramagnetic material, the face being adapted to engage and compress the composite plies into a corner of the tool.
A steel rebar, characterized in comprising the following ingredients calculated in weight percentage: 0.005%-0.030% of C, 0.3%-0.6% of Si, 1.2%-2.5% of Mn, 0.01% or less of P, 0.01% or less of S, 8.0%-10.0% of Cr, 1.0%-3.0% of Mo, 0.2%-0.4% of Sn, 0.01%-0.05% of Rare Earth element, 0.04%-0.18% of V and/or 0.010%-0.030% of Ti, and the remainder being Fe and unavoidable impurities. 0.005%-0.030% of C, 0.3%-0.6% of Si, 1.2%-2.5% of Mn, 0.01% or less of P, 0.01% or less of S, 8.0%-10.0% of Cr, 1.0%-3.0% of Mo, 0.2%-0.4% of Sn, 0.01%-0.05% of Rare Earth element, 0.04%-0.18% of V and/or 0.010%-0.030% of Ti, and the remainder being Fe and unavoidable impurities.
A process for producing a C 6 -C 15 oxygenate by hydroformylating a C 5 -C 14 olefin feed in the presence of a hydroformylation catalyst comprising a first metal that is cobalt, to form an organic cobalt-containing hydroformylation reaction product, which process comprises a demetalling step for removing cobalt from the reaction product thereby producing a cobalt-containing aqueous product and an organic cobalt-depleted reaction product, and in which process a gas stream containing volatile cobalt carbonyl is separated from the reaction product and the gas stream is treated with an absorption liquid for absorbing at least part of the volatile cobalt carbonyl contained in the gas, thereby forming a cobalt-containing absorption liquid, characterised in that the cobalt-containing absorption liquid is recycled to the demetalling step.
Transfer or shoe press belt, suitable for use in a paper machine, with a paper side intended for supporting a paper or felt web and a machine side facing away from the paper side, and with a carrier, wherein the transfer or shoe press belt further comprises a structured cover layer arranged on the paper side of the carrier, which consists of a coating material comprising or consisting of at least one polymer, in particular polyurea and/or polyurethane, and which is at least on its side facing away from the carrier characterized by a structured surface having a plurality of elevations and depressions, and is ground on its side facing away from the carrier, or further comprises a structured cover layer arranged on the machine side of the carrier, which consists of a coating material comprising or consisting of at least one polymer, in particular polyurea and/or polyurethane, and which is at least on its side facing away from the carrier characterized by a structured surface having a plurality of elevations and depressions, and is ground on its side facing away from the carrier, or further comprises a structured cover layer arranged on the machine side and on the paper side of the carrier, which consist of a coating material comprising or consisting of at least one polymer, in particular polyurea and/or polyurethane, and which are at least on their side facing away from the carrier characterized by a structured surface having a plurality of elevations and depressions, and are ground on their side facing away from the carrier, wherein the coating material of the paper side and/or the machine side structured cover layer has been produced from a reactive multicomponent system with two or more components for producing an elastomer coating, and the coating material of the paper side and/or the machine side structured cover layer is such that it is characterized by a viscosity of less than 3000 mPa s at a processing temperature in the range from 20°C to 120°C, in particular from 60°C to 90°C.
A locking electrical connector for use in forming a secure electrical connection by mating engagement with a mating electrical connector, comprising: a housing forming said locking connector and housing at least one electrical contact for selectively establishing and breaking said electrical connection, said housing comprising: a first housing portion including an outer shell (3551, 3571) for receiving said mating connector therein; and a second housing portion including at least one locking tab (3553, 3567) moveable relative to said first housing portion between first and second positions, and an actuator assembly for moving said second housing portion between said first and second positions, characterized in that in said first position, said locking tab (3553, 3567) extends between an inner surface of said outer shell (3551, 3571) and an outer surface of said mating connector such that said locking connector and said mating connector are frictionally locked at an interface therebetween so as to resist breaking of said connection and, in said second position, said locking connector and said mating connector can be easily separated. a housing forming said locking connector and housing at least one electrical contact for selectively establishing and breaking said electrical connection, said housing comprising: a first housing portion including an outer shell (3551, 3571) for receiving said mating connector therein; and a second housing portion including at least one locking tab (3553, 3567) moveable relative to said first housing portion between first and second positions, and a first housing portion including an outer shell (3551, 3571) for receiving said mating connector therein; and a second housing portion including at least one locking tab (3553, 3567) moveable relative to said first housing portion between first and second positions, and an actuator assembly for moving said second housing portion between said first and second positions, characterized in that in said first position, said locking tab (3553, 3567) extends between an inner surface of said outer shell (3551, 3571) and an outer surface of said mating connector such that said locking connector and said mating connector are frictionally locked at an interface therebetween so as to resist breaking of said connection and, in said second position, said locking connector and said mating connector can be easily separated.
A work vehicle having an engine mounted thereto, comprising: a vehicle body frame extending in the longitudinal direction of the work vehicle; a seat supporting deck supported to the vehicle body frame via a suspension unit; a driver's seat supported to the seat supporting deck upwardly of the seat supporting deck; a fuel tank supported to the seat supporting deck downwardly of the driver's seat and configured to supply fuel to the engine; and a canister fixed to the lower surface of the seat supporting deck in the vicinity of and at a position forwardly of the fuel tank, the canister being connected to the fuel tank via a canister hose to restrict emission of fuel gas evaporated inside the fuel tank into the atmosphere. a vehicle body frame extending in the longitudinal direction of the work vehicle; a seat supporting deck supported to the vehicle body frame via a suspension unit; a driver's seat supported to the seat supporting deck upwardly of the seat supporting deck; a fuel tank supported to the seat supporting deck downwardly of the driver's seat and configured to supply fuel to the engine; and a canister fixed to the lower surface of the seat supporting deck in the vicinity of and at a position forwardly of the fuel tank, the canister being connected to the fuel tank via a canister hose to restrict emission of fuel gas evaporated inside the fuel tank into the atmosphere.
Packaging of abrasive products into a bundle of a plurality of sheets or components, each of which has a face carrying abrasive grains, the components of the bundle in the packaging being united by a casing; said packaging being characterized in that the casing for holding together the components of the bundle is constituted by the abrasive sheet that forms the bottom of the bundle, said sheet having at least one dimension that is greater than the corresponding dimension of the other components, so that its portions (5a and 5b, or 8a and 8b) that protrude from its ends and/or its sides beyond those components form flaps that, after being folded on the components of the bundle, leave the central portion of the bundle visible, and that leave their faces that are not provided with abrasive grains on view, those faces bearing indications about the composition, the purposes, grain size, or the specific use of the sheets of the bundle.
A method for dynamically controlling buffer size in a computing device in a portable computing device, PCD, the method comprising: determining with a monitor module of a system on a chip, SoC, a first use case for the PCD, the first use case defining a first activity level for a plurality of components of the SoC; setting a plurality of buffers to a first buffer size based on the first use case, wherein each of the plurality of buffers is associated one of the plurality of components of the SoC, the first buffer size for each of the buffers is based on the first activity level of the associated component of the SoC; determining with the monitor module a second use case for the PCD different from the first use case, the second use case defining a second activity level for the plurality of components of the SoC; and setting at least one of the plurality of buffers to a second buffer size based on the second use case, wherein the second buffer size for the at least one buffer is based on the second activity level of the associated component of the SoC, the second buffer size different from the first buffer size. determining with a monitor module of a system on a chip, SoC, a first use case for the PCD, the first use case defining a first activity level for a plurality of components of the SoC; setting a plurality of buffers to a first buffer size based on the first use case, wherein each of the plurality of buffers is associated one of the plurality of components of the SoC, the first buffer size for each of the buffers is based on the first activity level of the associated component of the SoC; determining with the monitor module a second use case for the PCD different from the first use case, the second use case defining a second activity level for the plurality of components of the SoC; and setting at least one of the plurality of buffers to a second buffer size based on the second use case, wherein the second buffer size for the at least one buffer is based on the second activity level of the associated component of the SoC, the second buffer size different from the first buffer size.
A thermally expandable microcapsule comprising a volatile expansion agent included in a shell as a core agent and the shell formed of a polymer, the shell containing a thermosetting resin and a polymer obtained by polymerization of a monomer composition containing a nitrile-type monomer and a monomer having a carboxyl group, and the thermosetting resin having no radical-polymerizable double bond and at least two functional groups reactive with a carboxyl group per molecule, wherein the thermosetting resin has a gel fraction of less than 5% at T1.0 and a gel fraction of not less than 5% at T1.5, wherein T1.0 indicates a temperature when the core agent shows a vapor pressure of 1.0 MPa and T1.5 indicates a temperature when the core agent shows a vapor pressure of 1.5 MPa.
A method for monitoring the protection separation of a secondary circuit in a current generator having an equipotential bonding conductor, characterized by the method steps: (a) applying a functional grounding for measuring purposes, (b) measuring a first voltage (U PAE1) at a alterable measuring impedance switched between the equipotential bonding conductor and the functional grounding, the measuring impedance having a first impedance value (Z m1), (c) comparing the first voltage (U PAE1) to a voltage threshold (d) if the first voltage (U PAE1) exceeds the voltage threshold, measuring a second voltage (U PAE2) at the alterable measuring impedance switched between the equipotential bonding conductor and the functional grounding, the measuring impedance having a second impedance value (Z m2) different to the first impedance value (Z m1), (e) detecting a corresponding phasing of the first and the second voltage (U PAE1, U PAE2), (f) determining a source impedance (Z 0) and a source voltage (Uo) from the first voltage (U PAE1), the second voltage (U PAE2), the first impedance value (Z m1) and the second impedance value (Z m2), (g) determining a maximal shock current (I kmax) from the source voltage (U 0) and the source impedance (Z 0), (h) testing whether the maximal shock current (I kmax) exceeds a shock current threshold and emitting a warning signal when exceeded. (a) applying a functional grounding for measuring purposes, (b) measuring a first voltage (U PAE1) at a alterable measuring impedance switched between the equipotential bonding conductor and the functional grounding, the measuring impedance having a first impedance value (Z m1), (c) comparing the first voltage (U PAE1) to a voltage threshold (d) if the first voltage (U PAE1) exceeds the voltage threshold, measuring a second voltage (U PAE2) at the alterable measuring impedance switched between the equipotential bonding conductor and the functional grounding, the measuring impedance having a second impedance value (Z m2) different to the first impedance value (Z m1), (e) detecting a corresponding phasing of the first and the second voltage (U PAE1, U PAE2), (f) determining a source impedance (Z 0) and a source voltage (Uo) from the first voltage (U PAE1), the second voltage (U PAE2), the first impedance value (Z m1) and the second impedance value (Z m2), (g) determining a maximal shock current (I kmax) from the source voltage (U 0) and the source impedance (Z 0), (h) testing whether the maximal shock current (I kmax) exceeds a shock current threshold and emitting a warning signal when exceeded.