mhurhangee/ep-ind-claims huggingface dataset:
Microfluidic analysis device comprising: - a substrate in which a separation channel is formed in which an electrolyte circulates, a part of the separation channel being covered by a polarisable surface; - two longitudinal field electrodes (8a, 8b) located on each side of the separation channel; - at least one control electrode (6a, 6b) positioned in the separation channel, the control electrodes (6a, 6b) being adapted to polarise the polarisable surface so as to control the electroosmotic flow velocity in the separation channel; the microfluidic analysis device being characterised in that the polarisable surface comprises an insulating sub-layer made of amorphous silicon carbide (a-SiC) and a polarisable upper layer in direct contact with the electrolyte, the control electrodes (6a, 6b) being positioned between the insulating sublayer made of amorphous silicon carbide (a-SiC) and the polarisable upper layer. - a substrate in which a separation channel is formed in which an electrolyte circulates, a part of the separation channel being covered by a polarisable surface; - two longitudinal field electrodes (8a, 8b) located on each side of the separation channel; - at least one control electrode (6a, 6b) positioned in the separation channel, the control electrodes (6a, 6b) being adapted to polarise the polarisable surface so as to control the electroosmotic flow velocity in the separation channel;
A power-module substrate made by bonding a metal plate (12, 13) made of aluminum or aluminum alloy to at least one surface of a ceramic substrate by brazing, wherein when a cross section of the metal plate is observed by a scanning electron microscope in a field of 3000 magnifications in a depth extent of 5 μm from a bonded interface between the metal plate (12, 13) and the ceramic substrate in a width area of 200 μm from a side edge of the metal plate (12, 13), residual-continuous oxide existing continuously by 2 μm or more along the bonded interface has total length of 70% or less with respect to a length of the field.
Method for controlling a wind turbine which has a generator having a stator and a rotor for eliminating moisture condensation on electrically sensitive components of the wind turbine, in particular on components of the generator of the wind turbine, characterised by the steps of: - detecting the temperature of the generator and the temperature of the air in the environment of the wind turbine, - establishing the temperature difference, and - heating the generator when the temperature of the generator is below the temperature of the ambient air by short-circuiting the generator stator and applying a predeterminable excitation current to the generator rotor. - detecting the temperature of the generator and the temperature of the air in the environment of the wind turbine, - establishing the temperature difference, and - heating the generator when the temperature of the generator is below the temperature of the ambient air by short-circuiting the generator stator and applying a predeterminable excitation current to the generator rotor.
A detection apparatus comprising: a light-emitting element array including a plurality of light-emitting partitions; a light-receiving element array including a plurality of light-receiving partitions configured to receive reflected light of light emitted from the light-emitting element array to an object to be detected; and a control unit configured to selectively drive the plurality of light-emitting partitions and to cause the plurality of light-emitting partitions to emit light and cause each first light-emitting partition of the plurality of light-emitting partitions corresponding to a first light-receiving partition having received light amounts less than a predetermined threshold to emit light by being driven by the control unit to detect the object to be detected in a first detection step, wherein the control unit detects the object to be detected in the first detection step based on a received amount of light received by only the light-receiving partitions corresponding to the first light-emitting partitions, wherein the control unit detects the object to be detected in a second detection step by causing a second light-emitting partition corresponding to a second light-receiving partition having received light amount equal to or larger than the threshold to emit light at a number of times of light emission smaller than a number of times of light emission of the first light-emitting partitions, and wherein the second detection step is executed after the first detection step. a light-emitting element array including a plurality of light-emitting partitions; a light-receiving element array including a plurality of light-receiving partitions configured to receive reflected light of light emitted from the light-emitting element array to an object to be detected; and a control unit configured to selectively drive the plurality of light-emitting partitions and to cause the plurality of light-emitting partitions to emit light and cause each first light-emitting partition of the plurality of light-emitting partitions corresponding to a first light-receiving partition having received light amounts less than a predetermined threshold to emit light by being driven by the control unit to detect the object to be detected in a first detection step, wherein the control unit detects the object to be detected in the first detection step based on a received amount of light received by only the light-receiving partitions corresponding to the first light-emitting partitions, wherein the control unit detects the object to be detected in a second detection step by causing a second light-emitting partition corresponding to a second light-receiving partition having received light amount equal to or larger than the threshold to emit light at a number of times of light emission smaller than a number of times of light emission of the first light-emitting partitions, and wherein the second detection step is executed after the first detection step.
Method for improving the control behaviour of an electronic motor vehicle brake system, comprising at least the function of a slip control system, in which wheel dynamics information which is evaluated on a wheel-specific basis as a criterion for the initiation of a control intervention is used and compared with controlled thresholds for a pressure reduction phase, a pressure holding phase and a pressure increasing phase for generating corresponding braking torques by means of a vehicle brake system, wherein - the expected change in acceleration (j exp) at a vehicle wheel is calculated from a change in pressure at this vehicle wheel which is brought about by a control intervention - the actual change in acceleration (j act) at the vehicle wheel, which is brought about by the change in pressure, is determined from measured wheel speeds as wheel dynamics information, - when an actual change in acceleration (j act) differs from the expected change in acceleration (j exp) by a defined amount, the control behaviour of the slip control system is adapted in such a way that the difference is minimized, characterized in that - the pressure change signals which are used for the determination of the expected change in acceleration (j exp) and the wheel speed signals which are used for the determination of the actual change in acceleration (j act) are synchronized with one another. - the expected change in acceleration (j exp) at a vehicle wheel is calculated from a change in pressure at this vehicle wheel which is brought about by a control intervention - the actual change in acceleration (j act) at the vehicle wheel, which is brought about by the change in pressure, is determined from measured wheel speeds as wheel dynamics information, - when an actual change in acceleration (j act) differs from the expected change in acceleration (j exp) by a defined amount, the control behaviour of the slip control system is adapted in such a way that the difference is minimized, - the pressure change signals which are used for the determination of the expected change in acceleration (j exp) and the wheel speed signals which are used for the determination of the actual change in acceleration (j act) are synchronized with one another.
A TV device for providing, to a mobile terminal, a connection program for controlling the TV device, the TV device comprising: a communication unit configured to receive system information regarding the mobile terminal from the mobile terminal and transmit, to the mobile terminal, a list of the connection programs that are executable in the mobile terminal, wherein the system information regarding the mobile terminal comprises information indicating a performance of the mobile terminal; and a program detecting unit configured to create, based on the received system information, the list of the connection programs. a communication unit configured to receive system information regarding the mobile terminal from the mobile terminal and transmit, to the mobile terminal, a list of the connection programs that are executable in the mobile terminal, wherein the system information regarding the mobile terminal comprises information indicating a performance of the mobile terminal; and a program detecting unit configured to create, based on the received system information, the list of the connection programs.
A method for manufacturing a control box for a circulator pump, particularly for a circulator pump using a synchronous motor, comprising the steps of: a) producing a casing part on which a first set of electrical contacts is fixed and a second set of electrical contacts is pre-positioned; b) securing the second set of electrical contacts relative to the casing part by insert molding. a) producing a casing part on which a first set of electrical contacts is fixed and a second set of electrical contacts is pre-positioned; b) securing the second set of electrical contacts relative to the casing part by insert molding.
A telecommunications system operable to provide a facility for mobile communications to a mobile device, the system comprising a core network, an access control function and a plurality of radio access networks, each radio access network operable to communicate data to and from the mobile device in accordance with one of a plurality of radio access technologies, and in response to an attach request from the mobile device requesting a connection via a chosen radio access technology with the core network, said attach request comprising a code corresponding to the chosen radio access technology, the core network is operable to establish a connection with the mobile device via at least one of the plurality of radio access technologies for communicating data to and from the mobile device, the access control function is operable to identify the mobile device requesting the connection with the core network and in accordance with one or more access control criteria to generate an attach response indicating whether the mobile device may establish the connection with the chosen radio access technology and to communicate the attach response to the radio access network via which the mobile device has requested the connection, and at least one access control criteria includes a subscriber profile information associated with the identified mobile device.
Nadolol for use in treating an inflammatory bowel disorder in a human in need thereof, wherein the nadolol is formulated for release in the small intestine or the large intestine of the human.
A paper sheet comprising: cellulose ester staple fibers; pulp fibers; and a binder, wherein a plurality of creped portions are formed on the paper sheet, such that the creped portions are arranged in a flow direction of the cellulose ester staple fibers and the pulp fibers and extend in an orthogonal direction orthogonal to the flow direction. cellulose ester staple fibers; pulp fibers; and a binder, wherein a plurality of creped portions are formed on the paper sheet, such that the creped portions are arranged in a flow direction of the cellulose ester staple fibers and the pulp fibers and extend in an orthogonal direction orthogonal to the flow direction.
A method of controlling a Heating, Ventilating and Air Conditioning HVAC system comprising a fluid transportation network that comprises one or more network sections (F, F a-z), each network section (F, F a-z) being connected to a fluid transportation circuit (C, C a-z) through respective supply line(s) (LS, LS a-z) and return line(s) (LR, LR a-z), each network section (F, F a-z) comprising a plurality of parallel zones (Z 1-n, Z a-z.1-n), the method comprising: - arranging a pressure regulating device (PR, PR a-z) in the supply line(s) (LS, LS a-z) and/or respective return line(s) (LR, LR a-z) of the network section(s) (F, F a-z); - arranging flow regulating devices (PI 1-n, PI a-z.1-n) in the zones (Z 1-n, Z a-z.1-n) of the network sections (F a-z); - arranging a pressure sensor (SP, SP a-z, SP H, SPc) for measurement of a remote differential pressure dp Rem, dp Rem.a-z in a first zone (Z maxRes, Z maxRes,a-z), the first zone (Z maxRes, Z maxRes,a-z) having a highest fluid resistance amongst the plurality of zones (Z 1-n, Z a-z.1-n) within the respective network section (F, F a-z) of the one or more network sections (F, F a-z); - measuring the remote differential pressure dp Rem, dp Rem, a-z of the fluid in the first zone (Z maxRes, Z maxRes, a-z); and - controlling, by a controller, the pressure regulating device(s) (PR, PR a-z) of each network section(s) (F, F a-z) to maintain the measured remote differential pressure dp Rem, dp Rem, a-z within a specified differential pressure range - arranging a pressure regulating device (PR, PR a-z) in the supply line(s) (LS, LS a-z) and/or respective return line(s) (LR, LR a-z) of the network section(s) (F, F a-z); - arranging flow regulating devices (PI 1-n, PI a-z.1-n) in the zones (Z 1-n, Z a-z.1-n) of the network sections (F a-z); - arranging a pressure sensor (SP, SP a-z, SP H, SPc) for measurement of a remote differential pressure dp Rem, dp Rem.a-z in a first zone (Z maxRes, Z maxRes,a-z), the first zone (Z maxRes, Z maxRes,a-z) having a highest fluid resistance amongst the plurality of zones (Z 1-n, Z a-z.1-n) within the respective network section (F, F a-z) of the one or more network sections (F, F a-z); - measuring the remote differential pressure dp Rem, dp Rem, a-z of the fluid in the first zone (Z maxRes, Z maxRes, a-z); and - controlling, by a controller, the pressure regulating device(s) (PR, PR a-z) of each network section(s) (F, F a-z) to maintain the measured remote differential pressure dp Rem, dp Rem, a-z within a specified differential pressure range
A method for manufacturing a heat resistant spun yarn having improved elasticity, comprising: a single yarn manufacturing process of twisting a heat resistant fiber in a first direction with a twist number in a predetermined range; a first heat setting process of applying heat at a first temperature in a predetermined range to a single yarn manufactured according to the single yarn manufacturing process; a ply yarn manufacturing processs of combining at least two single yarns subjected to the first heat setting process and twisting the single yarns in the first direction with a first twist number in a predetermined range; a second heat setting process of applying heat at a second temperature in a predetermined range to a ply yarn manufactured according to the ply yarn manufacturing process; a reverse twisting process of twisting the ply yarn subjected to the second heat setting process in a second direction that is contrary to the first direction with a second twist number in a predetermined range; and a third heat setting process of applying heat at a third temperature in a predetermined range to the ply yarn subjected to the reverse twisting process. a single yarn manufacturing process of twisting a heat resistant fiber in a first direction with a twist number in a predetermined range; a first heat setting process of applying heat at a first temperature in a predetermined range to a single yarn manufactured according to the single yarn manufacturing process; a ply yarn manufacturing processs of combining at least two single yarns subjected to the first heat setting process and twisting the single yarns in the first direction with a first twist number in a predetermined range; a second heat setting process of applying heat at a second temperature in a predetermined range to a ply yarn manufactured according to the ply yarn manufacturing process; a reverse twisting process of twisting the ply yarn subjected to the second heat setting process in a second direction that is contrary to the first direction with a second twist number in a predetermined range; and a third heat setting process of applying heat at a third temperature in a predetermined range to the ply yarn subjected to the reverse twisting process.
A method for producing a casing made of a composite material for an aircraft turbine engine, this casing having an annular shape and comprising an annular fibrous preform formed by winding a fibrous cloth and embedded in a polymer matrix, the method comprising the steps of: a) positioning an edge of the cloth on a moulding drum, the cloth having a generally elongate shape and said edge being located at a first longitudinal end of the cloth, b) winding the cloth on the drum over at least one turn so as to obtain the preform wound around the drum, c) moulding the preform and hardening the resin which is injected into the preform or pre-impregnated on the preform, characterised in that it comprises, before step a), a step i) of mounting a removable abutment on the drum, and in that step a) comprises abutting said edge against this abutment. a) positioning an edge of the cloth on a moulding drum, the cloth having a generally elongate shape and said edge being located at a first longitudinal end of the cloth, b) winding the cloth on the drum over at least one turn so as to obtain the preform wound around the drum, c) moulding the preform and hardening the resin which is injected into the preform or pre-impregnated on the preform,
A mixture of amphiphilic water-soluble alkoxylated polyalkyleneimines comprising in condensed form repeating units of formulae,, and wherein # in each case denotes a bond between a nitrogen atom and the free binding position of a group A 1 of two adjacent repeating units of formulae,, or; and wherein the variables in each case are defined as follows: A 1 is independently selected from linear or branched C 2 -C 6 -alkylene; E is independently selected from alkyleneoxy units of the formula wherein * in each case denotes the bond to the nitrogen atom of the repeating unit of formula, or; A 2 is in each case independently selected from 1,2-propylene, 1,2-butylene and 1,2-isobutylene; A 3 is 1,2-propylene; R is in each case independently selected from hydrogen and C 1 -C 4 -alkyl; m has an average value in the range of from 0 to 2; n has an average value in the range of from 24 to 50; and p has an average value in the range of from 10 to 50; the individual alkoxylated polyalkyleneimines consisting of 1 repeating unit of formula, x repeating units of formula, y repeating units of formula and y+1 repeating units of formula, wherein x and y in each case have a value in the range of from 0 to 150; and the number average molecular weight of the polyalkyleneimine backbone in each case having a value in the range of from 60 to 10 000 g/mol; and mixtures of quaternization products thereof. # in each case denotes a bond between a nitrogen atom and the free binding position of a group A 1 of two adjacent repeating units of formulae,, or; and A 1 is independently selected from linear or branched C 2 -C 6 -alkylene; E is independently selected from alkyleneoxy units of the formula * in each case denotes the bond to the nitrogen atom of the repeating unit of formula, or; A 2 is in each case independently selected from 1,2-propylene, 1,2-butylene and 1,2-isobutylene; A 3 is 1,2-propylene; R is in each case independently selected from hydrogen and C 1 -C 4 -alkyl; m has an average value in the range of from 0 to 2; n has an average value in the range of from 24 to 50; and p has an average value in the range of from 10 to 50;
A protective cover for slideways of a machine tool, comprising: - a driving cover member associable with a movable part of a machine tool movable translationally along the slideways; - a plurality of first cover members located on a first side of the driving cover member and operatively associated therewith and configured to overlap and slide relative to each other along a direction of motion of the slideway when the driving cover member moves; - a plurality of second cover members located on a second side of the driving cover member and operatively associated therewith and configured to overlap and slide relative to each other along a direction of motion of the slideway when the driving cover member moves; - driving means configured to allow translational movement in a predetermined succession at least of the first cover members and the second cover members when a driving cover member moves; wherein the protective cover comprises a plurality of locking means operatively associated between the first cover members and the second cover members, each locking means of the plurality of locking means having at least two distinct locking parts (51, 52) to allow reversible coupling between each first cover member in the plurality of first cover members and a corresponding second cover member in the plurality of second cover members. - a driving cover member associable with a movable part of a machine tool movable translationally along the slideways; - a plurality of first cover members located on a first side of the driving cover member and operatively associated therewith and configured to overlap and slide relative to each other along a direction of motion of the slideway when the driving cover member moves; - a plurality of second cover members located on a second side of the driving cover member and operatively associated therewith and configured to overlap and slide relative to each other along a direction of motion of the slideway when the driving cover member moves; - driving means configured to allow translational movement in a predetermined succession at least of the first cover members and the second cover members when a driving cover member moves;