mhurhangee/ep-ind-claims huggingface dataset:
A downhole fluid flow control system comprising: a fluidic module having a main fluid pathway through the fluidic module and a bridge network with first and second branch fluid pathways (163, 164) each including at least one fluid flow resistor and a pressure output terminal (178, 184); wherein the first and second branch fluid pathways (163, 164) each have a common fluid inlet from the main fluid pathway and a common fluid outlet into the main fluid pathway, the fluid in- and outlets being common, such that the fluidic pathways (163, 164) and the main fluidic pathway directly or indirectly share the same pressure source; wherein a pressure difference between the pressure output terminals (178,184) of the first and second branch fluid pathways (163,164) is operable to control fluid flow through the fluidic module; wherein the fluidic module further comprises a valve having first and second positions, in the first position, the valve is operable to allow fluid flow through the main fluid pathway, in the second position, the valve is operable to prevent fluid flow through the main fluid pathway and wherein the pressure difference between the pressure output terminals (178, 184) of the first and second branch fluid pathways is operable to shift the valve between the first and second positions. a fluidic module having a main fluid pathway through the fluidic module and a bridge network with first and second branch fluid pathways (163, 164) each including at least one fluid flow resistor and a pressure output terminal (178, 184); wherein the first and second branch fluid pathways (163, 164) each have a common fluid inlet from the main fluid pathway and a common fluid outlet into the main fluid pathway, the fluid in- and outlets being common, such that the fluidic pathways (163, 164) and the main fluidic pathway directly or indirectly share the same pressure source; wherein a pressure difference between the pressure output terminals (178,184) of the first and second branch fluid pathways (163,164) is operable to control fluid flow through the fluidic module; wherein the fluidic module further comprises a valve having first and second positions, in the first position, the valve is operable to allow fluid flow through the main fluid pathway, in the second position, the valve is operable to prevent fluid flow through the main fluid pathway and wherein the pressure difference between the pressure output terminals (178, 184) of the first and second branch fluid pathways is operable to shift the valve between the first and second positions.
A multifunctional robot system, comprising: a movable supply station comprising a power supply system; a plurality of robot units; and a traction device (6, 7) for driving the movable supply station, wherein the movable supply station is connected with each of the plurality of robot units through a connecting cable, the connecting cable comprises a plurality of branch power cables, and the power supply system is configured to provide power for each robot unit respectively through the plurality of branch power cables; wherein each of the plurality of robot units is provided with a robot driving device, an operation execution device, a robot adsorption device and a robot moving device; and wherein the robot driving device is configured to enable the each of the plurality of robot units to move on a working surface, the robot adsorption device is configured to adhere the each of the plurality of robot units to the working surface, the plurality of robot units are configured to move on a horizontal or vertical plane or over a bevel, and the movable supply station is configured to follow the plurality of robot units, characterized by further comprising: a plurality of coupling devices configured to flexibly connect the plurality of robot units to the movable supply station. a movable supply station comprising a power supply system; a plurality of robot units; and a traction device (6, 7) for driving the movable supply station, wherein the movable supply station is connected with each of the plurality of robot units through a connecting cable, the connecting cable comprises a plurality of branch power cables, and the power supply system is configured to provide power for each robot unit respectively through the plurality of branch power cables; wherein each of the plurality of robot units is provided with a robot driving device, an operation execution device, a robot adsorption device and a robot moving device; and wherein the robot driving device is configured to enable the each of the plurality of robot units to move on a working surface, the robot adsorption device is configured to adhere the each of the plurality of robot units to the working surface, the plurality of robot units are configured to move on a horizontal or vertical plane or over a bevel, and the movable supply station is configured to follow the plurality of robot units, characterized by further comprising: a plurality of coupling devices configured to flexibly connect the plurality of robot units to the movable supply station.
An analysis apparatus (200, 300, 400) that receives biological information measured by a biological information measurement apparatus for measuring a blood sugar level or a blood hemoglobin level of a user as the biological information and analyses the biological information, the analysis apparatus (200, 300, 400) characterized by comprising: a biological information input unit that inputs the biological information measured before a meal and after the meal by the biological information measurement apparatus; a biological information analysis unit (22, 34) that analyzes a change between pre-meal and post-meal biological information on the basis of pre-meal and post-meal biological information input by the biological information input unit and times at which the pre-meal and post-meal biological information were obtained, an advice provision unit that provides meal-related advice on the basis of analysis results from the biological information analysis unit (22, 34), a captured image input unit that inputs a captured image captured by an imaging device when the user operates the imaging device; an image determination unit that analyzes the captured image input by the captured image input unit and determines whether the captured image that has been input is an image of a meal; and a measurement guidance unit, wherein when the image determination unit determines that the captured image is an image of a meal, the measurement guidance unit notifies a message prompting measurement of the biological information by the biological information measurement apparatus when the determination is made and notifies the message again after a predetermined amount of time. a biological information input unit that inputs the biological information measured before a meal and after the meal by the biological information measurement apparatus; a biological information analysis unit (22, 34) that analyzes a change between pre-meal and post-meal biological information on the basis of pre-meal and post-meal biological information input by the biological information input unit and times at which the pre-meal and post-meal biological information were obtained, an advice provision unit that provides meal-related advice on the basis of analysis results from the biological information analysis unit (22, 34), a captured image input unit that inputs a captured image captured by an imaging device when the user operates the imaging device; an image determination unit that analyzes the captured image input by the captured image input unit and determines whether the captured image that has been input is an image of a meal; and a measurement guidance unit, wherein when the image determination unit determines that the captured image is an image of a meal, the measurement guidance unit notifies a message prompting measurement of the biological information by the biological information measurement apparatus when the determination is made and notifies the message again after a predetermined amount of time.
A coated cutting tool, comprising: a substrate; and a coating layer formed on at least part of a surface of the substrate, wherein, the coating layer includes at least one composite nitride layer having a composition represented by formula below: (Ti x Aly)N wherein, x denotes an atomic ratio of a Ti element based on a total of the Ti element and an Al element, y denotes an atomic ratio of the Al element based on a total of the Ti element and the Al element, and 0.10 ≤ x ≤ 0.50, 0.50 ≤ y ≤ 0.90, and x + y = 1 are satisfied; wherein the composite nitride layer has a phase having a lattice constant of from 0.400 nm or more to 0.430 nm or less, and a phase having a lattice constant of from 0.755 nm or more to 0.810 nm or less, and wherein the composite nitride layer has an average thickness of from 1.5 μm or more to 12.0 μm or less. a substrate; and a coating layer formed on at least part of a surface of the substrate, wherein, the coating layer includes at least one composite nitride layer having a composition represented by formula below: (Ti x Aly)N wherein, x denotes an atomic ratio of a Ti element based on a total of the Ti element and an Al element, y denotes an atomic ratio of the Al element based on a total of the Ti element and the Al element, and 0.10 ≤ x ≤ 0.50, 0.50 ≤ y ≤ 0.90, and x + y = 1 are satisfied; wherein the composite nitride layer has a phase having a lattice constant of from 0.400 nm or more to 0.430 nm or less, and a phase having a lattice constant of from 0.755 nm or more to 0.810 nm or less, and wherein the composite nitride layer has an average thickness of from 1.5 μm or more to 12.0 μm or less.
A single-use test-strip for the quantitative determination of sodium concentration and creatinine concentration in a patient's urine sample, said test-strip comprising: - a substrate which either is electrically insulating or which has an electrically insulating layer applied thereon, - an electrode assembly applied on said substrate or on said electrically insulating layer, if present, said electrode assembly comprising at least - one sodium-selective working electrode; - one creatinine-selective working electrode; - either one joint reference electrode for both said sodium-selective working electrode and said creatinine-selective working electrode, or a reference electrode for said sodium-selective working electrode and a separate reference electrode for said creatinine-selective working electrode; - optionally; one or two neutral electrodes for measuring and eliminating interferences, - an interface for electrically connecting said electrode assembly to a read out-meter device. - a substrate which either is electrically insulating or which has an electrically insulating layer applied thereon, - an electrode assembly applied on said substrate or on said electrically insulating layer, if present, said electrode assembly comprising at least - one sodium-selective working electrode; - one creatinine-selective working electrode; - either one joint reference electrode for both said sodium-selective working electrode and said creatinine-selective working electrode, or a reference electrode for said sodium-selective working electrode and a separate reference electrode for said creatinine-selective working electrode; - optionally; one or two neutral electrodes for measuring and eliminating interferences, - one sodium-selective working electrode; - one creatinine-selective working electrode; - either one joint reference electrode for both said sodium-selective working electrode and said creatinine-selective working electrode, or a reference electrode for said sodium-selective working electrode and a separate reference electrode for said creatinine-selective working electrode; - optionally; one or two neutral electrodes for measuring and eliminating interferences, - an interface for electrically connecting said electrode assembly to a read out-meter device.
A hand-held power tool including a grip, a battery pack mount located below the grip, and at least one connection terminal (30, 31) coupled to the battery pack mount, wherein: the battery pack mount has a rear wall inclined toward the front side; the at least one connection terminal (30, 31) includes an outer terminal portion (36, 37) and an inner terminal portion (34, 35) that are formed by bending a metal plate; the outer terminal portion (36, 37) includes a distal end extending from a lower surface of the battery pack mount to provide an electrical contact for a battery pack; the inner terminal portion (34, 35) is arranged above the outer terminal portion (36, 37) and includes a distal end extending into the grip or the battery pack mount to provide an electric contact for a conductive member located in the grip or the battery pack mount; the inner terminal portion (34, 35) is non-parallel to the outer terminal portion (36, 37); and when the outer terminal portion (36, 37) lies along a sagittal plane that extends in a front-to-rear direction and a vertical direction of the power tool, the inner terminal portion (34, 35) lies along a plane that differs from the sagittal plane; the power tool being characterized in that the inner terminal portion (34, 35) is bent in the diagonally upward direction to extend along the sloped form of the rear wall. the battery pack mount has a rear wall inclined toward the front side; the at least one connection terminal (30, 31) includes an outer terminal portion (36, 37) and an inner terminal portion (34, 35) that are formed by bending a metal plate; the outer terminal portion (36, 37) includes a distal end extending from a lower surface of the battery pack mount to provide an electrical contact for a battery pack; the inner terminal portion (34, 35) is arranged above the outer terminal portion (36, 37) and includes a distal end extending into the grip or the battery pack mount to provide an electric contact for a conductive member located in the grip or the battery pack mount; the inner terminal portion (34, 35) is non-parallel to the outer terminal portion (36, 37); and when the outer terminal portion (36, 37) lies along a sagittal plane that extends in a front-to-rear direction and a vertical direction of the power tool, the inner terminal portion (34, 35) lies along a plane that differs from the sagittal plane; the power tool being characterized in that the inner terminal portion (34, 35) is bent in the diagonally upward direction to extend along the sloped form of the rear wall.
Method of producing a coffee drink from coffee grinds by means of a brewing process at a coffee machine with a control device as well as with a brewing cylinder in which is movably arranged a piston having a piston drive so that the volume of a brewing chamber is variable, wherein the brewing process comprises at least the following method steps: S1: a quantity of coffee grinds is introduced into the brewing chamber; S2: water is conducted through the coffee grinds, which have been introduced into the brewing chamber, in order to prepare the coffee drink, wherein a volume flow, in particular the volume flow of the water flowing through the brewing chamber, is determined as regulating variable and compared with a volume flow target value; and S3: in the case of differences detected in step S2 from a predetermined volume flow target value the position of the piston in the brewing chamber is changed in regulated manner as setting variable so as to regulate the volume flow to the volume flow target value, wherein the steps S2 and S3 are repeatedly run through during the brewing process. S1: a quantity of coffee grinds is introduced into the brewing chamber; S2: water is conducted through the coffee grinds, which have been introduced into the brewing chamber, in order to prepare the coffee drink, wherein a volume flow, in particular the volume flow of the water flowing through the brewing chamber, is determined as regulating variable and compared with a volume flow target value; and S3: in the case of differences detected in step S2 from a predetermined volume flow target value the position of the piston in the brewing chamber is changed in regulated manner as setting variable so as to regulate the volume flow to the volume flow target value,
A fabrication method of a back contact solar cell having a plurality of different conductive type semiconductor regions on a rear surface of a first conductive type semiconductor substrate comprising the following steps: (a) a first step of forming oxide layers (321, 323) on front and rear surfaces of the substrate; (b) a second step of partially removing the oxide layer by irradiating laser light to the oxide layer formed on the rear surface of the substrate at predetermined intervals, characterized by the following sequence of steps: (c) a third step of forming first conductive type semiconductor regions at the removed portions of the oxide layer, after the second step; (d) a fourth step of partially removing the oxide layer between the first conductive type semiconductor regions by irradiating laser light to the oxide layer formed on the rear surface of the substrate at predetermined intervals from the first conductive type semiconductor regions, after the third step; and (e) a fifth step of forming second conductive type semiconductor regions at the removed portions of the oxide layer between the first conductive type semiconductor regions at predetermined intervals from the first conductive type semiconductor regions, after the fourth step. (a) a first step of forming oxide layers (321, 323) on front and rear surfaces of the substrate; (b) a second step of partially removing the oxide layer by irradiating laser light to the oxide layer formed on the rear surface of the substrate at predetermined intervals, characterized by the following sequence of steps: (c) a third step of forming first conductive type semiconductor regions at the removed portions of the oxide layer, after the second step; (d) a fourth step of partially removing the oxide layer between the first conductive type semiconductor regions by irradiating laser light to the oxide layer formed on the rear surface of the substrate at predetermined intervals from the first conductive type semiconductor regions, after the third step; and (e) a fifth step of forming second conductive type semiconductor regions at the removed portions of the oxide layer between the first conductive type semiconductor regions at predetermined intervals from the first conductive type semiconductor regions, after the fourth step.
process for removing a cyclododecanone-rich target fraction from a dehydrogenation mixture comprising low boilers, cyclododecanone (CDON), medium boilers, cyclododecanol (CDOL) and high boilers, characterized by the following steps: a) providing the dehydrogenation mixture; b) distillatively removing the low boilers from the dehydrogenation mixture to obtain a first mixture comprising cyclododecanone (CDON), medium boilers, cyclododecanol (CDOL) and high boilers; c) feeding the first mixture into a primary side draw column; d) drawing off a first cyclododecanone-rich fraction from the top of the primary side draw column; e) drawing off a first fraction comprising cyclododecanol (CDOL) and high boilers from the bottom of the primary side draw column; f) drawing off a second mixture comprising cyclododecanone (CDON), cyclododecanol (CDOL) and medium boilers from the side draw of the primary side draw column; g) feeding the second mixture into a secondary side draw column; h) drawing off a second cyclododecanone-rich fraction from the top of the secondary side draw column; i) drawing off a second fraction comprising cyclododecanol (CDOL) and high boilers from the bottom of the secondary side draw column; j) drawing off a third mixture comprising cyclododecanone (CDON), cyclododecanol (CDOL) and medium boilers from the side draw of the secondary side draw column; k) combining the first cyclododecanone-rich fraction and the second cyclododecanone-rich fraction to obtain the cyclododecanone-rich target fraction. a) providing the dehydrogenation mixture; b) distillatively removing the low boilers from the dehydrogenation mixture to obtain a first mixture comprising cyclododecanone (CDON), medium boilers, cyclododecanol (CDOL) and high boilers; c) feeding the first mixture into a primary side draw column; d) drawing off a first cyclododecanone-rich fraction from the top of the primary side draw column; e) drawing off a first fraction comprising cyclododecanol (CDOL) and high boilers from the bottom of the primary side draw column; f) drawing off a second mixture comprising cyclododecanone (CDON), cyclododecanol (CDOL) and medium boilers from the side draw of the primary side draw column; g) feeding the second mixture into a secondary side draw column; h) drawing off a second cyclododecanone-rich fraction from the top of the secondary side draw column; i) drawing off a second fraction comprising cyclododecanol (CDOL) and high boilers from the bottom of the secondary side draw column; j) drawing off a third mixture comprising cyclododecanone (CDON), cyclododecanol (CDOL) and medium boilers from the side draw of the secondary side draw column; k) combining the first cyclododecanone-rich fraction and the second cyclododecanone-rich fraction to obtain the cyclododecanone-rich target fraction.
An irrigation system ground spike for securing at least one component of an irrigation system, the ground spike comprising a spike portion for penetrating soil to hold the ground spike in position and at least two holding portions (53, 54, 55, 56, 57), each holding portion for holding a respective component of an irrigation system, wherein the ground spike comprises a main body from which the spike portion projects, one of the holding portions comprises a supply hose securing lug which projects from the main body portion, the ground spike comprises a second supply hose securing lug such that there is a pair of hose securing lugs each projecting from a respective opposite side of the main body, the lugs being useful for retaining supply hose as well as for user when removing the ground spike from the ground, and each lug defines a space between the main body portion and the respective lug which acts as a supply hose receiving portion, characterized in that a first of the two holding portions differs from a second of the two portions so facilitating use of the spike for selectively securing respective different components. wherein the ground spike comprises a main body from which the spike portion projects, one of the holding portions comprises a supply hose securing lug which projects from the main body portion, the ground spike comprises a second supply hose securing lug such that there is a pair of hose securing lugs each projecting from a respective opposite side of the main body, the lugs being useful for retaining supply hose as well as for user when removing the ground spike from the ground, and each lug defines a space between the main body portion and the respective lug which acts as a supply hose receiving portion, characterized in that a first of the two holding portions differs from a second of the two portions so facilitating use of the spike for selectively securing respective different components.
A dummy element, in particular a dummy vehicle, comprising a dummy body having an illumination region which simulates an illumination device to be simulated of an element to be simulated, in particular of a vehicle, a lighting means, wherein the dummy body in the illumination region comprises an opening in which the lighting means is arranged, characterized in that the lighting means is formed without a housing, wherein no housing and no frame which are present in the opening are formed around the lighting means itself. a dummy body having an illumination region which simulates an illumination device to be simulated of an element to be simulated, in particular of a vehicle, a lighting means, wherein the dummy body in the illumination region comprises an opening in which the lighting means is arranged, characterized in that the lighting means is formed without a housing, wherein no housing and no frame which are present in the opening are formed around the lighting means itself.