mhurhangee/ep-ind-claims huggingface dataset:
A method of fabricating a solar cell, the method comprising: providing a film stack comprising a first film and a second film, the first film being formed over the second film, wherein the first film comprises a material that is absorptive in a wavelength of operation of a laser source and wherein the first film comprises silicon; wherein the second film comprises silicon dioxide; in a single pulse repetition of the laser source firing at a pulse repetition rate, forming a hole through the first film, the second film and a third film comprising silicon nitride, the third film being formed over the first film, to expose another layer of material under the second film; wherein the hole exposes a diffusion region (203, 204) of the solar cell. providing a film stack comprising a first film and a second film, the first film being formed over the second film, wherein the first film comprises a material that is absorptive in a wavelength of operation of a laser source and wherein the first film comprises silicon; wherein the second film comprises silicon dioxide; in a single pulse repetition of the laser source firing at a pulse repetition rate, forming a hole through the first film, the second film and a third film comprising silicon nitride, the third film being formed over the first film, to expose another layer of material under the second film; wherein the hole exposes a diffusion region (203, 204) of the solar cell.
Process for manufacturing a composite panel, in particular in a turbomachine, comprising the following steps: a) making a first wall, a second wall, a third wall and a fourth wall of composite materials comprising an oxide matrix and long oxide fibres, b) from the first and second walls (20, 22), forming a honeycomb core having a plurality of cells, each cell having a first end and an opposite second end, c)covering said first and second ends of the cells of said honeycomb core with said third wall and said fourth wall, respectively, so as to close the ends of said cells, the method comprising the following step: i. forming the first wall so as to obtain a corrugated wall having alternating first and second apex portions (36, 38) interconnected by apex connecting portions, and being characterised in that it comprises the following steps: ii. cutting slots in said first apex portions and in said apex connecting portions of the first wall, iii. making cuts in the second wall so as to obtain a plurality of strips, iv. inserting said strips into the slots of the first wall so as to delimit a plurality of cells. a) making a first wall, a second wall, a third wall and a fourth wall of composite materials comprising an oxide matrix and long oxide fibres, b) from the first and second walls (20, 22), forming a honeycomb core having a plurality of cells, each cell having a first end and an opposite second end, c)covering said first and second ends of the cells of said honeycomb core with said third wall and said fourth wall, respectively, so as to close the ends of said cells, i. forming the first wall so as to obtain a corrugated wall having alternating first and second apex portions (36, 38) interconnected by apex connecting portions, and being characterised in that it comprises the following steps: ii. cutting slots in said first apex portions and in said apex connecting portions of the first wall, iii. making cuts in the second wall so as to obtain a plurality of strips, iv. inserting said strips into the slots of the first wall so as to delimit a plurality of cells.
An apparatus for identifying transition points in a chemical reaction, the apparatus comprising: a property value receiver, configured to receive a plurality of values of a physical property as measured during the chemical reaction; a linear function calculator, associated with said property value receiver, configured to calculate a linear function by connecting two of the received values, the two values pertaining to a start and end of a time period of at least a part of the reaction, respectively; a difference calculator, associated with said linear function calculator, configured to calculate a difference between the linear function and a plurality of the received values pertaining to the same time period of at least a part of the reaction, the time period having said start and end, each value of the difference being calculated between a value of the linear function and a value of the received values, the two values that the value of the difference is calculated between pertaining to a same point in time of the reaction; and a transition point identifier, associated with said difference calculator, configured to identify at least one transition point in the chemical reaction, using the calculated difference, by finding at least one extremum point of the difference between the linear function and the received values, wherein the chemical reaction is a Polymerase Chain Reaction. a property value receiver, configured to receive a plurality of values of a physical property as measured during the chemical reaction; a linear function calculator, associated with said property value receiver, configured to calculate a linear function by connecting two of the received values, the two values pertaining to a start and end of a time period of at least a part of the reaction, respectively; a difference calculator, associated with said linear function calculator, configured to calculate a difference between the linear function and a plurality of the received values pertaining to the same time period of at least a part of the reaction, the time period having said start and end, each value of the difference being calculated between a value of the linear function and a value of the received values, the two values that the value of the difference is calculated between pertaining to a same point in time of the reaction; and a transition point identifier, associated with said difference calculator, configured to identify at least one transition point in the chemical reaction, using the calculated difference, by finding at least one extremum point of the difference between the linear function and the received values, wherein the chemical reaction is a Polymerase Chain Reaction.
Labelling device for applying labels to containers, comprising - an unwinding unit for receiving at least one supply roll (21, 22) having a label strip; - a drive unit having a driven conveying roller for conveying the unwound label strip; and - comprising a processing unit arranged downstream of the drive unit for separating the label strip into the labels, for optional gluing and for transferring the labels to the containers, the drive unit comprising a guide element having a guide surface (S F) which is directed towards the conveying roller and is designed so as to be arched around the conveying roller in order to guide the label strip around the conveying roller during threading, characterised in that the guide element is a plastics element, and in that the guide surface (S F) is formed with ribs in order to discharge an air cushion when threading the label strip. - an unwinding unit for receiving at least one supply roll (21, 22) having a label strip; - a drive unit having a driven conveying roller for conveying the unwound label strip; and - comprising a processing unit arranged downstream of the drive unit for separating the label strip into the labels, for optional gluing and for transferring the labels to the containers,
An input unit comprising: a display section configured to display a setting screen for changing a setting of a patient monitor connected to the input unit; an input section configured to receive an input of setting information indicative of an instruction for changing the setting of the patient monitor; and a communication section configured to transmit a biological signal of a patient, acquired from a sensor attached to the patient, to the patient monitor to allow the patient monitor to display vital sign information of the patient and also to transmit the setting information that is input from the input section to the patient monitor when an instruction for transmitting setting information due to an operation on the display and input section is issued; wherein the communication section is configured to receive a current setting status from the patient monitor, and wherein the display section is configured to display the setting screen for the patient monitor, the setting screen being based on the received setting status. a display section configured to display a setting screen for changing a setting of a patient monitor connected to the input unit; an input section configured to receive an input of setting information indicative of an instruction for changing the setting of the patient monitor; and a communication section configured to transmit a biological signal of a patient, acquired from a sensor attached to the patient, to the patient monitor to allow the patient monitor to display vital sign information of the patient and also to transmit the setting information that is input from the input section to the patient monitor when an instruction for transmitting setting information due to an operation on the display and input section is issued; wherein the communication section is configured to receive a current setting status from the patient monitor, and wherein the display section is configured to display the setting screen for the patient monitor, the setting screen being based on the received setting status.
A process for recovery of nalmefene hydrochloride from an aqueous composition containing nalmefene hydrochloride and naltrexone, said process comprising the step of isolating nalmefene hydrochloride from an aqueous suspension comprising naltrexone bisulfite adduct and solid nalmefene hydrochloride.
A fountain comprising: a drape (614, 714) made from weaved metal strands of an antimicrobial metal such that any undesirable substances captured from the air are killed or rendered inert; a catch basin (624, 724) located below the drape (614, 714) and oriented to catch a fluid flowing at least one of over and through the drape (614, 714) of the fountain; a conduit (628, 728) fluidly connected to the catch basin (624, 724) forming a circuit to return the fluid in the catch basin (624, 724) to flow at least one of over and through the drape (614, 714); a pump (626, 726) fluidly connected to the circuit and configured to pump the fluid through the conduit (628, 728); and an ultraviolet light configured to illuminate ultraviolet light on the fluid located in either the catch basin (624, 724) or on the drape (614, 714) to kill or render inert various bio-matter, wherein the drape (614, 714) includes a surface oriented to contact the fluid and the surface includes at least one of copper and silver; and wherein at least one of the catch basin (624, 724), and/or the conduit (628, 728) includes a surface oriented to contact the fluid and the surface includes at least one of copper and silver. a drape (614, 714) made from weaved metal strands of an antimicrobial metal such that any undesirable substances captured from the air are killed or rendered inert; a catch basin (624, 724) located below the drape (614, 714) and oriented to catch a fluid flowing at least one of over and through the drape (614, 714) of the fountain; a conduit (628, 728) fluidly connected to the catch basin (624, 724) forming a circuit to return the fluid in the catch basin (624, 724) to flow at least one of over and through the drape (614, 714); a pump (626, 726) fluidly connected to the circuit and configured to pump the fluid through the conduit (628, 728); and an ultraviolet light configured to illuminate ultraviolet light on the fluid located in either the catch basin (624, 724) or on the drape (614, 714) to kill or render inert various bio-matter, wherein the drape (614, 714) includes a surface oriented to contact the fluid and the surface includes at least one of copper and silver; and
A method of providing a mobile communication service of a wearable device comprising: connecting to a mobile device; receiving, from a server of a mobile communication service provider, a phone call request made to a phone number of the mobile device; and answering a phone call according to the received phone call request; the method characterized by the steps of: transmitting, to the mobile device, information on the termination of the phone call, when the phone call is terminated by the wearable device, in order to enable the mobile device to update a recent call history based on information of the terminated phone call; and updating a recent call history of the wearable device based on the information of the terminated phone call. connecting to a mobile device; receiving, from a server of a mobile communication service provider, a phone call request made to a phone number of the mobile device; and answering a phone call according to the received phone call request; the method characterized by the steps of: transmitting, to the mobile device, information on the termination of the phone call, when the phone call is terminated by the wearable device, in order to enable the mobile device to update a recent call history based on information of the terminated phone call; and updating a recent call history of the wearable device based on the information of the terminated phone call. transmitting, to the mobile device, information on the termination of the phone call, when the phone call is terminated by the wearable device, in order to enable the mobile device to update a recent call history based on information of the terminated phone call; and updating a recent call history of the wearable device based on the information of the terminated phone call.
A vehicle comprising: a first electrical generator; a second electrical generator; an engine arranged to drive the first and second electrical generators (404, 405); a first electrical distribution system connected to the first electrical generator and arranged to distribute electrical power within the vehicle, the first electrical distribution system comprising a transmission path and a return path; a second electrical distribution system connected to the second electrical generator, the second electrical distribution system comprising a transmission path and a return path; an electric motor configured to provide propulsion for the vehicle and connected to the second electrical generator via the second electrical distribution system; wherein the return path of the second electrical distribution system provides a portion of the return path of the first electrical distribution system; characterised in that the second electrical distribution system comprises a shielded coaxial cable connected between the second electrical generator and the electric motor, an outer electrical conductor of the coaxial cable providing the return path of the second electrical distribution system and an inner electrical conductor providing the transmission path of the second electrical distribution system. a first electrical generator; a second electrical generator; an engine arranged to drive the first and second electrical generators (404, 405); a first electrical distribution system connected to the first electrical generator and arranged to distribute electrical power within the vehicle, the first electrical distribution system comprising a transmission path and a return path; a second electrical distribution system connected to the second electrical generator, the second electrical distribution system comprising a transmission path and a return path; an electric motor configured to provide propulsion for the vehicle and connected to the second electrical generator via the second electrical distribution system; wherein the return path of the second electrical distribution system provides a portion of the return path of the first electrical distribution system; characterised in that the second electrical distribution system comprises a shielded coaxial cable connected between the second electrical generator and the electric motor, an outer electrical conductor of the coaxial cable providing the return path of the second electrical distribution system and an inner electrical conductor providing the transmission path of the second electrical distribution system.
An air-conditioning apparatus, comprising: a heat source-side refrigerant circuit for circulating heat source-side refrigerant, in which a compressor, a heat source-side heat exchanger, an expansion device, and a heat source-side refrigerant passage in an intermediate heat exchanger are connected in series by pipes; and a heat medium circuit for circulating a heat medium, in which a pump, a use-side heat exchanger, and a heat medium passage in the intermediate heat exchanger are connected in series by pipes, the heat source-side refrigerant circuit and the heat medium circuit being cascade-connected so that the heat source-side refrigerant and the heat medium exchange heat in the intermediate heat exchanger, the heat medium circuit including a relief valve, the relief valve being actuated when the heat source-side refrigerant flows into the heat medium circuit and a pressure in the heat medium circuit reaches a predetermined value, to thereby expel the heat source-side refrigerant and the heat medium, and the predetermined value is determined based on a kind of the heat source-side refrigerant and a kind of the heat medium, characterized in that a Cv value of the relief valve satisfies a value obtained by dividing a product of a Cv value of a communication hole formed between the heat source-side refrigerant circuit and the heat medium circuit and a square root of a difference between the maximum pressure of the heat source-side refrigerant and a working pressure of the relief valve by a square root of the working pressure of the relief valve. a heat source-side refrigerant circuit for circulating heat source-side refrigerant, in which a compressor, a heat source-side heat exchanger, an expansion device, and a heat source-side refrigerant passage in an intermediate heat exchanger are connected in series by pipes; and a heat medium circuit for circulating a heat medium, in which a pump, a use-side heat exchanger, and a heat medium passage in the intermediate heat exchanger are connected in series by pipes, the heat source-side refrigerant circuit and the heat medium circuit being cascade-connected so that the heat source-side refrigerant and the heat medium exchange heat in the intermediate heat exchanger, the heat medium circuit including a relief valve, the relief valve being actuated when the heat source-side refrigerant flows into the heat medium circuit and a pressure in the heat medium circuit reaches a predetermined value, to thereby expel the heat source-side refrigerant and the heat medium, and the predetermined value is determined based on a kind of the heat source-side refrigerant and a kind of the heat medium, characterized in that a Cv value of the relief valve satisfies a value obtained by dividing a product of a Cv value of a communication hole formed between the heat source-side refrigerant circuit and the heat medium circuit and a square root of a difference between the maximum pressure of the heat source-side refrigerant and a working pressure of the relief valve by a square root of the working pressure of the relief valve.
Method for producing sintered material from mineral raw materials, implemented in an installation comprising: - a cyclone preheater, - a rotary furnace, - a grate cooler, method wherein the raw materials are preheated in the cyclone preheater, they are possible precalcined in a precalcinator associated with a cyclone preheater, the preheated materials are calcined and sintered in the rotary furnace, and the calcined materials are cooled by blowing cooling air (4,40) in the grate cooler, generating hot air, and wherein the hot air is separated into three fractions, from upstream to downstream, according to the direction of advancement of the materials in the grate cooler, with said three fractions of hot air being at decreasing temperatures, comprising respectively a first air fraction acting as combustion air in at least the combustion zone of the rotary furnace and/or of the potential precalciner of the installation, a second intermediate air fraction, and a third air fraction, at lower temperature, characterised in that: at least one portion of the air of the third fraction is directed to said at least one combustion zone of the rotary furnace and/or of the precalcinator to be used as combustion air with said first air fraction, and said second air fraction, greater than the combustion air needs, is valorised for the production of energy. - a cyclone preheater, - a rotary furnace, - a grate cooler,
A UZM-14 aggregate material comprising globular aggregates of crystallites having a MOR framework type comprising 12-ring channels, a mesopore volume of at least 0.10 cc/gram, and a mean crystallite length parallel to the direction of the 12-ring channels of 60 nm or less; wherein the UZM-14 aggregate material further comprises a binder selected from one or more of alumina, silica and silica-alumina and a metal component comprising one or more elements selected from groups VIB, VIIB, VIII and IVA of the Periodic Table to form a catalyst suitable for the conversion of aromatic hydrocarbons; and wherein the metal component consists essentially of at least one of nickel and molybdenum.
A multilevel converter that comprises a continuous voltage source, at least one basic cell formed by: a) a first power switch that interconnects the positive bus between said at least one basic cell and an at least another basic cell connected in cascade with each other; b) a second power switch that interconnects the negative bus between said at least one basic cell and an at least another basic cell connected in cascade with each other; and c) a capacitor with a third power switch, both of them being connected in series with each other and interconnected between the positive and negative bus; CHARACTERIZED in that it comprises at least one additional basic cell formed by: a) a first power switch that interconnects the positive bus between said at least one additional basic cell and the continuous voltage source; b) a second power switch that interconnects the negative bus between said at least one additional basic cell and the continuous voltage source; and c) a capacitor with a third power switch, both of them being connected in series with each other and interconnected between the positive and negative bus, wherein an output of each multilevel converter phase is obtained at a midpoint of two output power switches comprised by the multilevel converter, wherein the two output power switches are connected in series with each other and in parallel between the positive and negative pole of the last basic cell connected of the multilevel converter. a) a first power switch that interconnects the positive bus between said at least one basic cell and an at least another basic cell connected in cascade with each other; b) a second power switch that interconnects the negative bus between said at least one basic cell and an at least another basic cell connected in cascade with each other; and c) a capacitor with a third power switch, both of them being connected in series with each other and interconnected between the positive and negative bus; a) a first power switch that interconnects the positive bus between said at least one additional basic cell and the continuous voltage source; b) a second power switch that interconnects the negative bus between said at least one additional basic cell and the continuous voltage source; and c) a capacitor with a third power switch, both of them being connected in series with each other and interconnected between the positive and negative bus,