mhurhangee/ep-ind-claims huggingface dataset:
An additive manufacturing apparatus for building a deposit on a substrate, the apparatus comprising: a feeding unit (6, 8) to feed a build material to a feeding position; an irradiation unit (10, 11, 12) to irradiate the feeding position with a laser beam that melts the build material; a control unit to perform control for building the deposit by stacking beads formed by movement of the feeding position with respect to the substrate and melting of the build material; and an arithmetic unit to execute an arithmetic process of computing parameters for the control unit to perform the control, wherein the beads include two beads (22-1, 22-2) stacked on each other, the two beads are a first bead and a second bead stacked on the first bead, the first bead being formed earlier than the second bead, the feeding position being a first position in formation of the first bead, the feeding positon being a second position in formation of the second bead, characterized in that the arithmetic unit calculates an interval between the first position and the second position in a set direction on a basis of a width of the first bead and a diameter of the laser beam, the set direction being a direction of the width of the first bead, and the control unit performs control for setting the second position to a position shifted from the first position in the set direction by the interval, so as to allow a part of the second bead to protrude from the first bead in the set direction. a feeding unit (6, 8) to feed a build material to a feeding position; an irradiation unit (10, 11, 12) to irradiate the feeding position with a laser beam that melts the build material; a control unit to perform control for building the deposit by stacking beads formed by movement of the feeding position with respect to the substrate and melting of the build material; and an arithmetic unit to execute an arithmetic process of computing parameters for the control unit to perform the control, wherein the beads include two beads (22-1, 22-2) stacked on each other, the two beads are a first bead and a second bead stacked on the first bead, the first bead being formed earlier than the second bead, the feeding position being a first position in formation of the first bead, the feeding positon being a second position in formation of the second bead, characterized in that the arithmetic unit calculates an interval between the first position and the second position in a set direction on a basis of a width of the first bead and a diameter of the laser beam, the set direction being a direction of the width of the first bead, and the control unit performs control for setting the second position to a position shifted from the first position in the set direction by the interval, so as to allow a part of the second bead to protrude from the first bead in the set direction.
A modified positive electrode active material, comprising: a positive electrode active material substrate; a first oxide layer, coated on the surface of the positive electrode active material substrate and selected from one or more of oxides of element M, wherein the element M is selected from the group of one or more of Al and Ti; and a second oxide layer having a continuous layered structure, coated on the surface of the first oxide layer and selected from one or more of oxides of element M', wherein the element M' is selected from one or more of B and P; wherein the B containing second oxide layer is combined with the Al containing first oxide layer and/or the P containing second oxide layer is combined with the Ti containing first oxide layer; and said first oxide layer is different from said second oxide layer in terms of composition. a positive electrode active material substrate; a first oxide layer, coated on the surface of the positive electrode active material substrate and selected from one or more of oxides of element M, wherein the element M is selected from the group of one or more of Al and Ti; and a second oxide layer having a continuous layered structure, coated on the surface of the first oxide layer and selected from one or more of oxides of element M', wherein the element M' is selected from one or more of B and P; wherein the B containing second oxide layer is combined with the Al containing first oxide layer and/or the P containing second oxide layer is combined with the Ti containing first oxide layer; and said first oxide layer is different from said second oxide layer in terms of composition.
A system for transmitting optical power wirelessly to a remote device disposed in a space, comprising: a transmitting unit adapted to direct optical radiation generally into said space, said transmitting unit comprising a gain medium having a front surface adapted to emit optical radiation generally towards said space, and a rear surface having a retro-reflector in optical association therewith; and a receiver unit associated with said device and adapted to receive optical radiation transmitted from said transmitting unit through said space, and comprising a retro-reflector adapted to retro reflect a first portion of said optical radiation received from said transmitting unit back in the direction of said transmitting unit, such that said transmitting unit amplifies said optical radiation reflected back from said receiver unit and retransmits it in the direction of said receiver unit, and adapted to transmit a second portion of said radiation for use by said device; characterised in that the distance between said front and said rear surfaces of said gain medium is substantially less than at least one lateral dimension of said gain medium. a transmitting unit adapted to direct optical radiation generally into said space, said transmitting unit comprising a gain medium having a front surface adapted to emit optical radiation generally towards said space, and a rear surface having a retro-reflector in optical association therewith; and a receiver unit associated with said device and adapted to receive optical radiation transmitted from said transmitting unit through said space, and comprising a retro-reflector adapted to retro reflect a first portion of said optical radiation received from said transmitting unit back in the direction of said transmitting unit, such that said transmitting unit amplifies said optical radiation reflected back from said receiver unit and retransmits it in the direction of said receiver unit, and adapted to transmit a second portion of said radiation for use by said device; characterised in that the distance between said front and said rear surfaces of said gain medium is substantially less than at least one lateral dimension of said gain medium.
A glass article, comprising: a first surface; a second surface; an asymmetric stress profile extending from the first surface to the second surface; a first compressive stress layer extending from the first surface to a first depth of compression in the glass article; a second compressive stress layer extending from the second surface to a second depth of compression in the glass article; and a warpage height, wherein a ratio of the first depth of compression to the second depth of compression is at least 1.5:1, and the warpage height is less than 1% of a maximum dimension of the glass article. a first surface; a second surface; an asymmetric stress profile extending from the first surface to the second surface; a first compressive stress layer extending from the first surface to a first depth of compression in the glass article; a second compressive stress layer extending from the second surface to a second depth of compression in the glass article; and a warpage height, wherein a ratio of the first depth of compression to the second depth of compression is at least 1.5:1, and the warpage height is less than 1% of a maximum dimension of the glass article.
A method for manufacturing a foil material for security elements, having the method steps: a) providing a plastic substrate foil that is suitable for aligning liquid crystal material, b) discontiguously applying a first layer comprising a liquid crystal material to the substrate foil, the liquid crystal material being aligned, characterized in that in step a) a foil that exhibits a surface pattern created upon manufacture is provided as the substrate foil and that has, due to its interior structure, a preferred direction that is sufficient to align the liquid crystal material in the desired form in step b). a) providing a plastic substrate foil that is suitable for aligning liquid crystal material, b) discontiguously applying a first layer comprising a liquid crystal material to the substrate foil, the liquid crystal material being aligned,
HER3 binding polypeptide, comprising a HER3 binding motif, which motif consists of an amino acid sequence selected from: i) EKYX 4 AYX 7 EIW X 11 LPNLTX 17 X 18 QX 20 AAFIGX 26 LX 28 D wherein, independently of each other, X 4 is selected from A, E, L, M, N Q, R, S and T; X 7 is selected from F and Y; X 11 is selected from E and Q; X 17 is selected from K, N, R and V; X 18 is selected from F, M, N, R, T, Y and W; X 20 is selected from A and K; X 26 is selected from K and S; X 28 is selected from E and Q; and ii) an amino acid sequence which has at least 96 % identity to the sequence defined in i), and wherein the K D value of the interaction between said HER3 binding polypeptide and human HER3 is at most 1 x 10 -9 M. i) EKYX 4 AYX 7 EIW X 11 LPNLTX 17 X 18 QX 20 AAFIGX 26 LX 28 D wherein, independently of each other, X 4 is selected from A, E, L, M, N Q, R, S and T; X 7 is selected from F and Y; X 11 is selected from E and Q; X 17 is selected from K, N, R and V; X 18 is selected from F, M, N, R, T, Y and W; X 20 is selected from A and K; X 26 is selected from K and S; X 28 is selected from E and Q; and ii) an amino acid sequence which has at least 96 % identity to the sequence defined in i), and wherein the K D value of the interaction between said HER3 binding polypeptide and human HER3 is at most 1 x 10 -9 M.
Combined cycle plant (1; 50) for energy production comprising: - a gas turbine unit; - an operating unit; - a boiler supplied with exhaust gas from the gas turbine unit and configured to produce steam to be supplied to the operating unit; the boiler comprising at least a first evaporator at a first pressure level and at least a second evaporator at a second pressure level lower than the first pressure level; - a draining circuit (6; 60) configured to drain tainted water from the first evaporator and/or the second evaporator; characterized in that the draining circuit (6; 60) is configured to convert, at least in part, the tainted water drained from the first evaporator and/or the second evaporator in steam and supply the produced steam directly to the boiler in order to increase the steam produced by the boiler. - a gas turbine unit; - an operating unit; - a boiler supplied with exhaust gas from the gas turbine unit and configured to produce steam to be supplied to the operating unit; the boiler comprising at least a first evaporator at a first pressure level and at least a second evaporator at a second pressure level lower than the first pressure level; - a draining circuit (6; 60) configured to drain tainted water from the first evaporator and/or the second evaporator; characterized in that the draining circuit (6; 60) is configured to convert, at least in part, the tainted water drained from the first evaporator and/or the second evaporator in steam and supply the produced steam directly to the boiler in order to increase the steam produced by the boiler.
A battery bracket for mounting a battery pack case at a vehicle, the battery bracket comprising: an outer structure having a lower part and an upper part forming a cavity between the lower part and the upper part; an inner structure arranged in the cavity; wherein the outer structure is configured for being fixed to an outer side face of the battery pack case; wherein the inner structure meanders between the lower part and the upper part in that the inner structure comprises one or more lower contact areas (32, 34) and one or more upper contact areas (31, 33), wherein the inner structure contacts the lower part in the one or more lower contact areas (32, 34) and contacts the upper part in the one or more upper contact areas (31, 33), characterized in that a region of the inner structure is configured for being fixed to an outer side face of the battery pack case. an outer structure having a lower part and an upper part forming a cavity between the lower part and the upper part; an inner structure arranged in the cavity; wherein the outer structure is configured for being fixed to an outer side face of the battery pack case; wherein the inner structure meanders between the lower part and the upper part in that the inner structure comprises one or more lower contact areas (32, 34) and one or more upper contact areas (31, 33), wherein the inner structure contacts the lower part in the one or more lower contact areas (32, 34) and contacts the upper part in the one or more upper contact areas (31, 33), characterized in that a region of the inner structure is configured for being fixed to an outer side face of the battery pack case.
A gateway module, comprising: - interfaces for being connected to a first and to a second communication network, the gateway module being connectable to a plurality of I/O modules (201, 202) via the first communication network, wherein each of the I/O modules is configured as an input and/or output module and has an input and/or output for connecting sensors and/or actuators, and wherein the gateway module is adapted to communicate with the I/O modules (201, 202) via the first communication network in a fail-safe manner to transmit input and/or output data and to receive status data from at least one I/O module (201, 202), said status data relating to the functional state of an input and/or output for connecting sensors and/or actuators of the I/O module and/or to a sensor or actuator connected to an input or output of the I/O module; and - a safety control unit in particular in the form of a safety logic which is adapted for executing safety processing of the status data and of the input and/or output data. - interfaces for being connected to a first and to a second communication network, the gateway module being connectable to a plurality of I/O modules (201, 202) via the first communication network, wherein each of the I/O modules is configured as an input and/or output module and has an input and/or output for connecting sensors and/or actuators, and wherein the gateway module is adapted to communicate with the I/O modules (201, 202) via the first communication network in a fail-safe manner to transmit input and/or output data and to receive status data from at least one I/O module (201, 202), said status data relating to the functional state of an input and/or output for connecting sensors and/or actuators of the I/O module and/or to a sensor or actuator connected to an input or output of the I/O module; and - a safety control unit in particular in the form of a safety logic which is adapted for executing safety processing of the status data and of the input and/or output data.
A microneedle array imaging method comprising: obtaining an inclination angle θ of a side surface with respect to a bottom surface of a plurality of microneedles arranged on a sheet to form a microneedle array; obtaining a critical angle (γ) which is the smallest angle at which total reflection occurs on the side surface of the microneedle; irradiating a surface on a side opposite to a surface on which the plurality of microneedles are arranged on the sheet with parallel light as illumination light; defining a first incident angle (α) as an angle between the direction of light incident on the bottom surface and a normal plane (PL2a) drawn on said bottom surface, wherein the surface is irradiated with the illumination light under conditions in which said first incident angle (α) is 90 - θ° or greater and a second incident angle (β) of light onto the side surface of the microneedle is less than a critical angle (γ), said second incident angle (β) being an angle between the direction of light incident on said side surface and a normal plane (PL2b) drawn on the side surface, and. imaging the microneedle array from a side of the surface on which the microneedles are arranged. obtaining an inclination angle θ of a side surface with respect to a bottom surface of a plurality of microneedles arranged on a sheet to form a microneedle array; obtaining a critical angle (γ) which is the smallest angle at which total reflection occurs on the side surface of the microneedle; irradiating a surface on a side opposite to a surface on which the plurality of microneedles are arranged on the sheet with parallel light as illumination light; defining a first incident angle (α) as an angle between the direction of light incident on the bottom surface and a normal plane (PL2a) drawn on said bottom surface, wherein the surface is irradiated with the illumination light under conditions in which said first incident angle (α) is 90 - θ° or greater and a second incident angle (β) of light onto the side surface of the microneedle is less than a critical angle (γ), said second incident angle (β) being an angle between the direction of light incident on said side surface and a normal plane (PL2b) drawn on the side surface, and.
An industrial equipment management system, characterized by comprising: a reception unit configured to receive setting information which is set for a first industrial equipment which is a prototype of a motor control device, wherein the setting information comprises a parameter, a serial number, a model and a firmware of the motor control device; a generation unit configured to generate a customization ID for making a production order for producing a second industrial equipment which is the motor control device based on the setting information, a setting information registration unit configured to register the customization ID associated with the setting information in a customization information database, a first determination unit configured to determine whether or not the customization ID input by a user when the user places the production order of the second industrial equipment exists in the customization information database; a setting unit configured to perform a production of the second industrial equipment based on the setting information associated with the customization ID in a case where the first determination unit determines that the customization ID exists, wherein the setting unit does not perform the setting of the second industrial equipment in a case where the first determination unit does not determine that the customization ID exists; and an equipment management unit configured to associate, in a case where setting of the second industrial equipment is performed by the setting unit, a serial number of the second industrial equipment with the customization ID. a reception unit configured to receive setting information which is set for a first industrial equipment which is a prototype of a motor control device, wherein the setting information comprises a parameter, a serial number, a model and a firmware of the motor control device; a generation unit configured to generate a customization ID for making a production order for producing a second industrial equipment which is the motor control device based on the setting information, a setting information registration unit configured to register the customization ID associated with the setting information in a customization information database, a first determination unit configured to determine whether or not the customization ID input by a user when the user places the production order of the second industrial equipment exists in the customization information database; a setting unit configured to perform a production of the second industrial equipment based on the setting information associated with the customization ID in a case where the first determination unit determines that the customization ID exists, wherein the setting unit does not perform the setting of the second industrial equipment in a case where the first determination unit does not determine that the customization ID exists; and an equipment management unit configured to associate, in a case where setting of the second industrial equipment is performed by the setting unit, a serial number of the second industrial equipment with the customization ID.
A composite substrate comprising an inorganic insulating sintered-body substrate having a thermal conductivity of at least 5 W/m·K and a volume resistivity of at least 1×10 8 Ω·cm, and a single-crystal semiconductor thin film provided on at least a front surface of the inorganic insulating sintered-body substrate, a silicon coating made of polycrystalline silicon or amorphous silicon, provided between the inorganic insulating sintered-body substrate and the single-crystal semiconductor thin film, covering all of the inorganic insulating sintered-body substrate characterized in that the silicon coating is having a thickness of from 0.1 to 20 μm, and at least one intermediate insulating layer made of a material selected from silicon oxide, silicon nitride, aluminum nitride and sialon, covering the entire said silicon coating that covers the substrate and having a thickness of from 0.1 to 20 μm. an inorganic insulating sintered-body substrate having a thermal conductivity of at least 5 W/m·K and a volume resistivity of at least 1×10 8 Ω·cm, and a single-crystal semiconductor thin film provided on at least a front surface of the inorganic insulating sintered-body substrate, a silicon coating made of polycrystalline silicon or amorphous silicon, provided between the inorganic insulating sintered-body substrate and the single-crystal semiconductor thin film, covering all of the inorganic insulating sintered-body substrate characterized in that the silicon coating is having a thickness of from 0.1 to 20 μm, and at least one intermediate insulating layer made of a material selected from silicon oxide, silicon nitride, aluminum nitride and sialon, covering the entire said silicon coating that covers the substrate and having a thickness of from 0.1 to 20 μm.