mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a toner, comprising steps of: mixing a first medium in which a plurality of microcapsules that contains a fragrant material is dispersed and a second medium in which a plurality of particles that contains a binder resin is dispersed to form a mixed medium; causing a first aggregation of the microcapsules and the particles into a plurality of primary aggregate particles in the mixed medium in which a cohesive agent is used; mixing a third medium in which a plurality of particles that contains a binder resin is dispersed into the mixed medium; and causing a second aggregation of the particles contained in the third medium and the primary aggregate particles into a plurality of toner particles in which a cohesive agent is used, wherein the method further comprises adjusting the type or the added amount of the cohesive agents and the type or the added amount of particles that contain the binder resin so that a ratio of a number of toner particles that contain at least one microcapsule in a region from a surface thereof to 1 μm in depth with respect to a total number of toner particles in the toner as measured according to the description is equal to or greater than 60%, wherein a content ratio of the part medium with respect to the toner particles is equal to or greater than 25% and equal to or smaller than 65%. mixing a first medium in which a plurality of microcapsules that contains a fragrant material is dispersed and a second medium in which a plurality of particles that contains a binder resin is dispersed to form a mixed medium; causing a first aggregation of the microcapsules and the particles into a plurality of primary aggregate particles in the mixed medium in which a cohesive agent is used; mixing a third medium in which a plurality of particles that contains a binder resin is dispersed into the mixed medium; and causing a second aggregation of the particles contained in the third medium and the primary aggregate particles into a plurality of toner particles in which a cohesive agent is used, wherein the method further comprises adjusting the type or the added amount of the cohesive agents and the type or the added amount of particles that contain the binder resin so that a ratio of a number of toner particles that contain at least one microcapsule in a region from a surface thereof to 1 μm in depth with respect to a total number of toner particles in the toner as measured according to the description is equal to or greater than 60%, wherein a content ratio of the part medium with respect to the toner particles is equal to or greater than 25% and equal to or smaller than 65%.
Circuitry for an implantable medical device, comprising: charging circuitry for providing power to a battery terminal node; isolation circuitry comprising first and second load switches (152, 154) coupled in parallel between the battery terminal node and a load voltage (Vload); and active circuitry within the implantable medical device, wherein the load voltage (Vload) comprises a power supply voltage for the active circuitry, the circuitry being configured such that the first load switch is opened if a voltage at the battery terminal node falls below a threshold, and the second load switch is opened if either the voltage at the battery terminal node falls below a threshold or if at least one other fault condition is asserted. charging circuitry for providing power to a battery terminal node; isolation circuitry comprising first and second load switches (152, 154) coupled in parallel between the battery terminal node and a load voltage (Vload); and active circuitry within the implantable medical device, wherein the load voltage (Vload) comprises a power supply voltage for the active circuitry, the first load switch is opened if a voltage at the battery terminal node falls below a threshold, and the second load switch is opened if either the voltage at the battery terminal node falls below a threshold or if at least one other fault condition is asserted.
A method for average EIRP control of at least two radio signal paths (170a, 170b), the method being performed by a coordinating controller of a site, the site comprising the at least two radio signal paths (170a, 170b), the method comprising: obtaining, from a respective inner controller (300a, 300b) of each of the at least two radio signal paths (170a, 170b), long-term time averaged traffic related information for each of the at least two radio signal paths (170a, 170b); determining control information for each of the at least two radio signal paths (170a, 170b) based on the long-term time averaged traffic related information, antenna gain information for each of the at least two radio signal paths (170a, 170b), and a condition on total average EIRP for the site; and performing individual average EIRP control of each of the at least two radio signal paths (170a, 170b) by providing, to each respective inner controller (300a, 300b), the control information. obtaining, from a respective inner controller (300a, 300b) of each of the at least two radio signal paths (170a, 170b), long-term time averaged traffic related information for each of the at least two radio signal paths (170a, 170b); determining control information for each of the at least two radio signal paths (170a, 170b) based on the long-term time averaged traffic related information, antenna gain information for each of the at least two radio signal paths (170a, 170b), and a condition on total average EIRP for the site; and performing individual average EIRP control of each of the at least two radio signal paths (170a, 170b) by providing, to each respective inner controller (300a, 300b), the control information.
A method for facilitating the set-up of a conference call over a telecommunication network, the call being between a first user and a second user of said network, the method comprising: receiving at a server a set-up request triggered by a first device associated with the first user, wherein the request is for setting-up the conference call, the request including an identification number associated with a second device associated with the second user; characterised in that, the method further comprises: sending from the server to the first device, in response to receiving the set-up request from the first device, a first number for enabling the first device to connect to the conference call, such that receipt of the first number at the first device automatically triggers a call in accordance with the first number for enabling the first device to connect to the conference call; and in parallel, or subsequently, triggering a call from the server to the second device in accordance with the received identification number, wherein the call is for enabling the second device to connect to the conference call. receiving at a server a set-up request triggered by a first device associated with the first user, wherein the request is for setting-up the conference call, the request including an identification number associated with a second device associated with the second user; characterised in that, the method further comprises: sending from the server to the first device, in response to receiving the set-up request from the first device, a first number for enabling the first device to connect to the conference call, such that receipt of the first number at the first device automatically triggers a call in accordance with the first number for enabling the first device to connect to the conference call; and in parallel, or subsequently, triggering a call from the server to the second device in accordance with the received identification number, wherein the call is for enabling the second device to connect to the conference call. sending from the server to the first device, in response to receiving the set-up request from the first device, a first number for enabling the first device to connect to the conference call, such that receipt of the first number at the first device automatically triggers a call in accordance with the first number for enabling the first device to connect to the conference call; and in parallel, or subsequently, triggering a call from the server to the second device in accordance with the received identification number, wherein the call is for enabling the second device to connect to the conference call.
Flexographic or gravure printing machine for printing onto a web of printed material, with at least one inking unit, with a detecting means, which detects a printed image printed onto the web of printed material by the inking unit, with an open-loop and closed-loop control unit, which carries out a comparison between a digitized target form of the printed image that is stored in the open-loop and closed-loop control unit and the printed image detected by the detecting means and from it generates comparison values, with means for passing on or further utilizing the comparison values, and with means for calculating a quantity of ink and composition of ink necessary for the correction of the printed image, which are assigned to the open-loop and closed-loop control unit, characterized in that the relative position of rollers involved in the printing and inking process can also be set or verified during the printing process in dependence on the output signal of the detecting means.
A projector comprising: a display control section configured to acquire display data from a server through a network, the display data including equipment control information, and to control other equipment according to the equipment control information, characterized in that wherein the equipment control information includes an address that identifies the other equipment and a command that identifies operation of the other equipment, and the display control section is configured to transmit the command to the address. a display control section configured to acquire display data from a server through a network, the display data including equipment control information, and to control other equipment according to the equipment control information, characterized in that wherein the equipment control information includes an address that identifies the other equipment and a command that identifies operation of the other equipment, and the display control section is configured to transmit the command to the address.
A wall lining for industrial kilns for the protection of a wall made of concrete, steel, sheet metal or the like coated with a heat-resistant material, wherein the lining of the wall consists of three layers (4; 3; 2), a wearing surface, a pressurizable blocking layer and an insulation layer on the wall side, characterized in that metallic anchors are provided which fasten the wearing surface to the wall, wherein the metallic anchors penetrate the blocking layer and the insulation layer and are partially arranged in the wearing surface and are encapsulated with a material which, when subjected to operating temperatures, exhibits one of the following characteristics: melting, burning, softening, shrinking, contracting, sublimation, evaporation or vaporizing such that, in the wearing surface, a void develops around the metallic anchor concerned into which the pressurized gas forming the blocking layer may flow and protect the metallic anchors in the voids from corrosion.
A thermoplastic resin composition, comprising: 100 parts by weight of a base resin comprising: ≥ 35 wt% to ≤ 55 wt% of an acrylic graft copolymer; ≥ 35 wt% to ≤ 55 wt% of an aromatic vinyl-vinyl cyanide copolymer; and ≥ 2 wt% to ≤ 15 wt% of an alkyl(meth)acrylate-based resin; ≥ 0.4 parts by weight to ≤ 2 parts by weight of a first sterically hindered amine represented by Chemical Formula 1; and ≥ 0.4 parts by weight to ≤ 2 parts by weight of a second sterically hindered amine represented by Chemical Formula 2: wherein, in Chemical Formula 2, m is an integer of 2 to 20. ≥ 35 wt% to ≤ 55 wt% of an acrylic graft copolymer; ≥ 35 wt% to ≤ 55 wt% of an aromatic vinyl-vinyl cyanide copolymer; and ≥ 2 wt% to ≤ 15 wt% of an alkyl(meth)acrylate-based resin; ≥ 0.4 parts by weight to ≤ 2 parts by weight of a first sterically hindered amine represented by Chemical Formula 1; and ≥ 0.4 parts by weight to ≤ 2 parts by weight of a second sterically hindered amine represented by Chemical Formula 2: wherein, in Chemical Formula 2, m is an integer of 2 to 20.
A biological sample temperature measurement method of measuring a temperature of a biological sample in a sensor chip (200; 201a; 210b; 210c) including: a temperature electrode unit (11, 12) formed by a working electrode and a counter electrode, the working and counter electrodes (11, 12) respectively including a reagent (20; 220a; 220b; 220c) containing an electrolyte; and a capillary allowing the biological sample to be introduced therein, the temperature measurement method comprising: an introducing step of introducing a predetermined amount of the biological sample into the capillary; and a temperature measurement step of measuring the temperature of the biological sample by applying a predetermined voltage to the temperature electrode unit (11, 12) when the temperature of the biological sample is measured, wherein the predetermined voltage is a voltage with a potential difference of 1.0 V or greater. an introducing step of introducing a predetermined amount of the biological sample into the capillary; and a temperature measurement step of measuring the temperature of the biological sample by applying a predetermined voltage to the temperature electrode unit (11, 12) when the temperature of the biological sample is measured, wherein the predetermined voltage is a voltage with a potential difference of 1.0 V or greater.
Electrical energy storage device comprising - several capacitors, and - a busbar for electric power distribution, wherein the busbar is covered at least partially by an insulation layer and the capacitors are connected to the busbar, wherein the busbar comprises a first conductive layer and a second conductive layer, wherein the first conductive layer and the second conductive layer are insulated from each other by a further insulation layer andare stacked on each other along the stacking direction, wherein for reducing an inductance the capacitors are arranged directly on the insulation layer of the busbar, wherein the capacitors comprise a positive contact and a negative contact, wherein the capacitors are oriented such that - all negative contacts or all positive contacts face away from the busbar, - all negative contacts facing away from the busbar are located in a first row and all positive contacts facing away from the busbar are located in a second row or - a negative contact of a first capacitor facing away from the busbar is located adjacent to a positive contact of a neighbouring capacitor facing away from the busbar in the first row and/or the second row characterized in that a first set of capacitors is arranged in the first row and a second set of capacitors is arranged in the second row, wherein - - the first set of capacitors and the second set of capacitors are connected to the first conductive layer by a common connection means, - - the first set of capacitors is connected to the first conductive layer by the connection mean and the second set of capacitors is connected to the first conductive layer by the further connection mean or - - the capacitors of the first set of capacitors and the capacitors of the second set of capacitors are each connected to the first conductive layer by the connection means or the further connector mean, individually. - several capacitors, and - a busbar for electric power distribution, - all negative contacts or all positive contacts face away from the busbar, - all negative contacts facing away from the busbar are located in a first row and all positive contacts facing away from the busbar are located in a second row or - a negative contact of a first capacitor facing away from the busbar is located adjacent to a positive contact of a neighbouring capacitor facing away from the busbar in the first row and/or the second row characterized in that a first set of capacitors is arranged in the first row and a second set of capacitors is arranged in the second row, - - the first set of capacitors and the second set of capacitors are connected to the first conductive layer by a common connection means, - - the first set of capacitors is connected to the first conductive layer by the connection mean and the second set of capacitors is connected to the first conductive layer by the further connection mean or - - the capacitors of the first set of capacitors and the capacitors of the second set of capacitors are each connected to the first conductive layer by the connection means or the further connector mean, individually.
Kit for controlling the quality of cleaning a sample, which comprises: - a solution for colouring by soaking said sample, said colouring solution comprising a colourant in a dilution phase, and - a solution for revelation by soaking said sample, said revelation solution comprising said dilution phase, characterised in that said colourant in said dilution phase is comprised in the group of colourants consisting of Coomassie blue, Amido black, said colouring solution comprises a colourant at a concentration going from 0.05% to 1%, said dilution phase comprises at least citric acid and/or lactic acid; said dilution phase is a dilution phase compatible with the requirements linked to the medical sector, from which said sample comes, containing one or more medical devices, possibly contaminated by protein compounds and/or organic matters and/or biofilms present on said medical devices. - a solution for colouring by soaking said sample, said colouring solution comprising a colourant in a dilution phase, and - a solution for revelation by soaking said sample, said revelation solution comprising said dilution phase,
An interlinking system for overhead transfer devices comprising: - at least two portals for the transport of workpieces or workpieces on pallets between machines and/or supply/removal devices and vice versa, - at least one loading unit (4a, 4b; 5a, 5b) per portal, with each loading unit (4a, 4b; 5a, 5b) being movable in the horizontal direction along the portal carrier (2, 3) of the corresponding portal and with each loading unit (4a, 4b; 5a, 5b) having a gripper (6a, 6b; 7a, 7b) moveable in a vertical direction for receiving a workpiece or a workpiece pallet; - a transfer module for conveying the workpieces or the workpieces on pallets between a transfer position of the first portal and a transfer position of the second portal, wherein the transfer module is equipped with a transport device for receiving one or more workpieces or workpiece pallets and with a linear guidance, with the transport device being movable at the linear guidance between the transfer positions in the horizontal direction und the transfer module being provided with at least one loading opening, characterized in that the at least one loading opening through which one or more loading units (4a, 4b; 5a, 5b) can engage downwardly through the transfer module can be covered in the transfer module as required by an inwardly pivotable and/or displaceable loading hatch; and in that the lower side of the transfer module is configured as a security and drip tray (20, 21). - at least two portals for the transport of workpieces or workpieces on pallets between machines and/or supply/removal devices and vice versa, - at least one loading unit (4a, 4b; 5a, 5b) per portal, with each loading unit (4a, 4b; 5a, 5b) being movable in the horizontal direction along the portal carrier (2, 3) of the corresponding portal and with each loading unit (4a, 4b; 5a, 5b) having a gripper (6a, 6b; 7a, 7b) moveable in a vertical direction for receiving a workpiece or a workpiece pallet; - a transfer module for conveying the workpieces or the workpieces on pallets between a transfer position of the first portal and a transfer position of the second portal,
An apparatus comprising: a flexible transparent substrate; a sensor arranged to detect electromagnetic radiation, the sensor being mounted on the transparent substrate; and a flexible reflective surface, formed by depositing a reflective material onto a flexible surface, shaped and positioned relative to the sensor to reflect electromagnetic radiation that has passed through the transparent substrate at a given angle or range of angles onto the sensor, wherein the sensor comprises two dimensional material arranged to enable an electrical output to be provided in response to incident electromagnetic radiation on the sensor. a flexible transparent substrate; a sensor arranged to detect electromagnetic radiation, the sensor being mounted on the transparent substrate; and a flexible reflective surface, formed by depositing a reflective material onto a flexible surface, shaped and positioned relative to the sensor to reflect electromagnetic radiation that has passed through the transparent substrate at a given angle or range of angles onto the sensor, wherein the sensor comprises two dimensional material arranged to enable an electrical output to be provided in response to incident electromagnetic radiation on the sensor.
Shaft furnace, in particular blast furnace, comprising a bustle pipe arrangement, in particular for feeding pressurized hot gas into said shaft furnace, wherein said bustle pipe arrangement comprises: a circumferential bustle pipe arranged along the outer casing of said shaft furnace, at a certain distance therefrom; a plurality of first support arms connecting said bustle pipe to said outer casing of said shaft furnace on a first level; a plurality of second support arms connecting said bustle pipe to said outer casing of said shaft furnace on a second level; wherein said first and second support arms (22, 24) are configured to support said circumferential bustle pipe, said first level being different from said second level, such that said bustle pipe arrangement is self-supporting; and wherein first blow channels are arranged through said first support arms for blowing gas from said bustle pipe to the interior of said shaft furnace; and wherein second blow channels are arranged through said second support arms for blowing gas from said bustle pipe to the interior of said shaft furnace; characterized in that said bustle pipe comprises access ports (36, 38) in a wall portions opposite said first and/or second blow channels (26, 30), in linear alignment with respective first and/or second blow channels (26, 30). a circumferential bustle pipe arranged along the outer casing of said shaft furnace, at a certain distance therefrom; a plurality of first support arms connecting said bustle pipe to said outer casing of said shaft furnace on a first level; a plurality of second support arms connecting said bustle pipe to said outer casing of said shaft furnace on a second level; wherein said first and second support arms (22, 24) are configured to support said circumferential bustle pipe, said first level being different from said second level, such that said bustle pipe arrangement is self-supporting; and wherein first blow channels are arranged through said first support arms for blowing gas from said bustle pipe to the interior of said shaft furnace; and wherein second blow channels are arranged through said second support arms for blowing gas from said bustle pipe to the interior of said shaft furnace; characterized in that said bustle pipe comprises access ports (36, 38) in a wall portions opposite said first and/or second blow channels (26, 30), in linear alignment with respective first and/or second blow channels (26, 30).