mhurhangee/ep-ind-claims huggingface dataset:
Method for producing a substrate adapter according to claim 9 used in particular for contacting semiconductor elements, comprising the steps: - structuring of an electrically conducting metal element, - encasing the structured metal material, at least in sections, with an electrically insulating material, more particularly plastic, and - applying a contacting material on a first side of the metal element characterised by joining the structured metal element to a carrier and the contacting material. - structuring of an electrically conducting metal element, - encasing the structured metal material, at least in sections, with an electrically insulating material, more particularly plastic, and - applying a contacting material on a first side of the metal element
A lead free fuel composition comprising: (a) a major amount of a mixture of hydrocarbons in the gasoline boiling range and (b) a minor amount of N-methyl-p-methoxyaniline, wherein the N-methyl-p-methoxyaniline is present in an amount of at least 0.01% by weight and less than 0.1% by weight of the total fuel composition.
Windscreen wiper device for a vehicle, in particular motor vehicle, with an arcuate, flexible wiper arm which is formed in a manner prestressed orthogonally with respect to the windscreen of the vehicle and is formed by an elongate core element and a sleeve-like casing element surrounding the same, wherein the core element is composed of an elastomer and the casing element is composed of a fibre-reinforced plastic, and wherein the core element partially occupies the cavity of the sleeve-like casing element and is of tubular design, characterized in that the core element nestles against an inner casing surface of the casing element.
A connector terminal (20; 20v) including first and second spring terminals (21, 22; 21 v, 22v) between which a male connector terminal of a male electric connector is sandwiched, the connector terminal (20; 20v) is formed by bending a strip-shaped plate about lines (51, 52, 53, 54) intersecting with a longitudinal line of the plate; the first and second spring terminals (21, 22; 21 v, 22v) are formed with a limiter (25; 25v) for preventing the first and second spring terminals (21, 22; 21 v, 22v) from being outwardly deflected; the connector terminal (20; 20v) further includes a joint portion (23; 23v) through which the first and second spring terminals (21, 22; 21 v, 22v) are connected; characterized in that the limiter (25; 25v) being comprised of a step (25; 25v) formed on the first and second spring terminals (21,22; 21 v, 22v) and the joint portion (23; 23v) to extend along the first and second spring terminals (21, 22; 21v, 22v) and across the joint portion (23; 23v) for preventing the first and second spring terminals (21, 22; 21 v, 22v) and the joint portion (23; 23v) from being deformed, wherein the step (25, 25v) being formed to have a recessed surface on one of surfaces of the first spring terminal (21, 21 v), the second spring terminal (22, 22v) and the joint portion (23, 23v) and a raised surface on the other surface of the first spring terminal (21, 21 v), the second spring terminal (22, 22v) and the joint portion (23, 23v), the raised surface facing a space formed between the first spring terminal (21, 21 v) and the second spring terminal (22, 22v), the male connector terminal of the male electrical connector being sandwiched in the space between the first spring terminal (21, 21 v) and the second spring terminal (22, 22v).
The basic amino acid derivative represented by the formula: wherein an acyl group represented by R 1 -CO- is an acyl group derived from a saturated or unsaturated fatty acid having 6 - 18 carbon atoms; R 2 is a hydrogen atom or a saturated or unsaturated straight chain or branched chain hydrocarbon group having 1 - 15 carbon atoms; m is an integer of 1 - 4; n is an integer of 0 - 9; and R 3 and R 4 are each independently a hydrogen atom, or a saturated or unsaturated straight chain or branched chain hydrocarbon group having 1 - 6 carbon atoms, or a salt thereof. an acyl group represented by R 1 -CO- is an acyl group derived from a saturated or unsaturated fatty acid having 6 - 18 carbon atoms; R 2 is a hydrogen atom or a saturated or unsaturated straight chain or branched chain hydrocarbon group having 1 - 15 carbon atoms; m is an integer of 1 - 4; n is an integer of 0 - 9; and R 3 and R 4 are each independently a hydrogen atom, or a saturated or unsaturated straight chain or branched chain hydrocarbon group having 1 - 6 carbon atoms,
A system for cleaning an ink chamber with a cleaning liquid, comprising a source of compressed gas, and a jet pump driven by said compressed gas and connected to the ink chamber, wherein the jet pump is arranged to drain the cleaning liquid from the ink chamber, characterized in that the system comprises a valve body arranged to open and close said drain passage and operated by said compressed gas and wherein the jet pump is incorporated in the valve body and wherein the jet pump or a separate jet pump supplies the cleaning liquid to the ink chamber.
An apparatus (100, 800) for exposing a printing plate (130, 830), the printing plate comprising a photosensitive polymer activated by exposure to radiation, the printing plate (130, 830) having a non-printing back side and a printing front side with a mask for defining an image to be printed, the apparatus comprising: - one or more radiation sources (110, 120, 810, 820) collectively arranged to expose the front side and the back side of the printing plate (130, 180) to radiation, and - a holder (160, 860) configured to receive the printing plate (130, 830) in a position to receive incident radiation from the one or more radiation sources (110, 120, 810, 820), and - a controller (140, 840) connected to the one or more radiation sources (110, 120, 810, 820), wherein the apparatus is configured to, for each specific coordinate corresponding to a cross-sectional portion of the printing plate (130, 830), first commence irradiating the non-printing back side of the printing plate, then automatically impose a defined time delay, and then immediately after the time delay elapses, commence irradiating the printing front side of the printing plate (130, 830), without exposing any specific coordinate to front side and back side irradiation simultaneously. - one or more radiation sources (110, 120, 810, 820) collectively arranged to expose the front side and the back side of the printing plate (130, 180) to radiation, and - a holder (160, 860) configured to receive the printing plate (130, 830) in a position to receive incident radiation from the one or more radiation sources (110, 120, 810, 820), and - a controller (140, 840) connected to the one or more radiation sources (110, 120, 810, 820), wherein the apparatus is configured to, for each specific coordinate corresponding to a cross-sectional portion of the printing plate (130, 830), first commence irradiating the non-printing back side of the printing plate, then automatically impose a defined time delay, and then immediately after the time delay elapses, commence irradiating the printing front side of the printing plate (130, 830), without exposing any specific coordinate to front side and back side irradiation simultaneously.
A protective jacket for enclosing a portable computing device, the jacket comprising: a recessed portion formed at a back surface of the jacket; an electronic reader, within the recessed portion, to receive an electronic device, wherein the electronic reader includes a smart card reader and wherein the electronic device includes the smart card; and a cover movably attached to a back surface of the jacket, the cover to: fit an opening of the recessed portion and function as a kickstand to support the portable computing device in a plurality of viewing angles when the cover is in an open position, wherein the cover includes an inner portion, and an outer portion and wherein the inner portion includes a rubber member disposed spaced from and along an inner periphery of the cover to seal the smart card reader and the smart card, if in use, from external environment, when the cover is in the closed position. a recessed portion formed at a back surface of the jacket; an electronic reader, within the recessed portion, to receive an electronic device, wherein the electronic reader includes a smart card reader and wherein the electronic device includes the smart card; and a cover movably attached to a back surface of the jacket, the cover to: fit an opening of the recessed portion and function as a kickstand to support the portable computing device in a plurality of viewing angles when the cover is in an open position, wherein the cover includes an inner portion, and an outer portion and wherein the inner portion includes a rubber member disposed spaced from and along an inner periphery of the cover to seal the smart card reader and the smart card, if in use, from external environment, when the cover is in the closed position.
A power supply maintaining circuit for a load supplied via a main converter from a supply network having a supply voltage, said power supply maintaining circuit comprising a primary stage and a secondary stage, the primary stage comprising: - a voltage converter connected to the supply network, and - a primary winding connected to the voltage converter and configured to be powered by the voltage converter the secondary stage comprising: - a secondary winding facing the primary winding such that the primary winding and the secondary winding form two coupled inductances, - a voltage controller to which the secondary winding is connected, the voltage controller being connected to the load and being configured to control a voltage across the load the hold circuit being configured such that the directions of the currents flowing in the primary winding and the secondary winding are opposite, and the voltage converter is configured to stop supplying power to the primary winding when the supply voltage is less than a threshold voltage and to resume supplying power to the primary winding when the supply voltage is greater than a threshold voltage. - a voltage converter connected to the supply network, and - a primary winding connected to the voltage converter and configured to be powered by the voltage converter - a secondary winding facing the primary winding such that the primary winding and the secondary winding form two coupled inductances, - a voltage controller to which the secondary winding is connected, the voltage controller being connected to the load and being configured to control a voltage across the load
Device for mounting a radar for a motor vehicle, comprising a support on which the radar is to be mounted, a first structure element being positioned above a second structure element, a first portion of the support being connected to the first structure element and a second portion of the support being positioned in front of the second structure element, characterized in that the second structure element comprises an opening, the support passing through said opening.
A method for detecting the level of alertness of a person, the method comprising the steps: detecting eyelid movements of the person; creating an electric signal (s(t)) that represents the detected eyelid movements; analyzing the electric signal (s(t)); and determining, based on the analysis results, whether the level of alertness of the person falls below a certain threshold; where the step of analyzing the electric signal (s(t)) comprises fitting a modeled signal (y(t)) against the electric signal (s(t)) and determining whether the modeled signal (y(t)) constitutes an eyelid blink, where the step of determining whether the level of alertness of the person falls below a certain threshold uses a number of modeled signals (y(t)) that each has been determined to constitute an eyelid blink, characterized in that each modeled signal (y(t)) is defined as y t = { k 1 ⋅ log t 2 − t + m 1 for t 1 ≤ t < t 2 m 2 for t 2 ≤ t < t 3 k 3 ⋅ log t − t 3 + m 3 for t 3 < t ≤ t 4 where k 1, k 3, m 1, m 2 and m 3 are constants that are defined for each eyelid blink and the times t 1, t 2, t 3, t 4 define time intervals of said modeled signal (y(t)), and where the step of fitting a modeled signal (y(t)) against the electric signal (s(t)) comprises calculating an error ε according to ε = 1 N. ∑ i = sample t 1 sample t 4 | s i − y i | such that the times t 1, t 2, t 3, t 4 defining the time intervals as well as the constant m 2 are varied to minimize the error ε; and estimating the other constants k 1, k 3, m 1 and m 3 by using regression, where the modelled signal (y(t)) is fitted against the electric signal (s(t)) only when the error ε is below a predetermined threshold. detecting eyelid movements of the person; creating an electric signal (s(t)) that represents the detected eyelid movements; analyzing the electric signal (s(t)); and determining, based on the analysis results, whether the level of alertness of the person falls below a certain threshold;
A method performed by a controller for protection of a voltage source converter comprising one or more phases (L1, L2, L3), each phase (L1, L2, L3) comprising a plurality of series-connected converter cells (2 1L1, 2 2L1,..., 2 nL1; 3 1L2, 3 2L2,..., 3 nL2; 4 1L3, 4 2L3,..., 4 nL3), each phase (L1, L2, L3) being connected to an electrical power grid via a respective phase reactor, each converter cell comprising a by-pass switch (S 1L1, S 2L1,..., S nL1; S 1L2, S 2L2,..., S nL2; S 1L3, S 2L3,..., S nL3) for enabling by-pass thereof, the method comprising the steps of: - detecting an over-voltage condition, - controlling simultaneously the by-pass switches (S 1L1, S 2L1,..., S nL1; S 1L2, S 2L2,..., S nL2; S 1L3, S 2L3,..., S nL3) Of each converter cell (2 1L1, 2 2L1,..., 2 nL1; 3 1L2, 3 2L2,..., 3 nL2; 4 1L3, 4 2L3,..., 4 nL3) so as to bypass the converter cells (2 1L1, 2 2L1,..., 2 nL1; 3 1L2, 3 2L2,..., 3 nL2; 4 1L3, 4 2L3,..., 4 nL3) upon detection of such over-voltage condition, characterised by the step of controlling the voltage source converter to enter a passive mode upon the converter cells (2 1L1, 2 2L1,..., 2 nL1; 3 1L2, 3 2L2,..., 3 nL2; 4 1L3, 4 2L3,..., 4 nL3) being bypassed, in which passive mode the respective phase reactor (5 L1, 5 L2, 5 L3) of the one or more phases (L1, L2, L3) absorbs inductive overcurrent caused by the detected overvoltage condition. - detecting an over-voltage condition, - controlling simultaneously the by-pass switches (S 1L1, S 2L1,..., S nL1; S 1L2, S 2L2,..., S nL2; S 1L3, S 2L3,..., S nL3) Of each converter cell (2 1L1, 2 2L1,..., 2 nL1; 3 1L2, 3 2L2,..., 3 nL2; 4 1L3, 4 2L3,..., 4 nL3) so as to bypass the converter cells (2 1L1, 2 2L1,..., 2 nL1; 3 1L2, 3 2L2,..., 3 nL2; 4 1L3, 4 2L3,..., 4 nL3) upon detection of such over-voltage condition,
A method for identifying a structure in a volume of interest, comprising - continuously acquiring a plurality of points from a position sensing element comprised in a catheter device located within said structure such that the plurality of points forms a volumetric point cloud, wherein each acquired point pertains to a location in said structure, and subsequently - registering said points to a previously acquired imaging dataset of said structure. - continuously acquiring a plurality of points from a position sensing element comprised in a catheter device located within said structure such that the plurality of points forms a volumetric point cloud, wherein each acquired point pertains to a location in said structure, and subsequently - registering said points to a previously acquired imaging dataset of said structure.
A system for controlling the pitch of fan blades of a turbine engine propeller, the system comprising: an actuator capable of being secured to a casing of the turbine engine, having a movable portion that is movable in translation relative to said casing, the movable portion being capable of being mechanically coupled to a load transfer bearing having an outer ring that is coupled to fan blade pivots so that a movement in translation of the movable portion of the actuator leads to a change in the pitch angle of said fan blade, characterized by at least one locking peg capable of being secured to the casing of the turbine engine and suitable, in the event of the actuator malfunctioning, for mechanically locking the load transfer bearing in a position in which the fan blades are feathered. an actuator capable of being secured to a casing of the turbine engine, having a movable portion that is movable in translation relative to said casing, the movable portion being capable of being mechanically coupled to a load transfer bearing having an outer ring that is coupled to fan blade pivots so that a movement in translation of the movable portion of the actuator leads to a change in the pitch angle of said fan blade, characterized by at least one locking peg capable of being secured to the casing of the turbine engine and suitable, in the event of the actuator malfunctioning, for mechanically locking the load transfer bearing in a position in which the fan blades are feathered.
A device having a collar adapted to be worn by an animal, said device comprising: a housing attached to the collar, the housing defining an interior and a through-opening, said interior being adapted to receive an electronic apparatus therein; an electrical conductor passing through said through-opening; the collar including: a first flexible member having a first end and a second end, said first flexible member molded around at least a part of said electrical conductor, said first end molded to said housing and said through-opening to form a substantially watertight seal with said housing around said through-opening; and a second flexible member secured to said housing, said second flexible member cooperating with said first flexible member to releasably encircle a part of the animal and allow the animal to carry the electronic apparatus when the collar is worn by the animal. a housing attached to the collar, the housing defining an interior and a through-opening, said interior being adapted to receive an electronic apparatus therein; an electrical conductor passing through said through-opening; the collar including: a first flexible member having a first end and a second end, said first flexible member molded around at least a part of said electrical conductor, said first end molded to said housing and said through-opening to form a substantially watertight seal with said housing around said through-opening; and a second flexible member secured to said housing, said second flexible member cooperating with said first flexible member to releasably encircle a part of the animal and allow the animal to carry the electronic apparatus when the collar is worn by the animal. a first flexible member having a first end and a second end, said first flexible member molded around at least a part of said electrical conductor, said first end molded to said housing and said through-opening to form a substantially watertight seal with said housing around said through-opening; and a second flexible member secured to said housing, said second flexible member cooperating with said first flexible member to releasably encircle a part of the animal and allow the animal to carry the electronic apparatus when the collar is worn by the animal.
A printing apparatus comprising: a plurality of image forming units, each of which ejects ink onto an outer circumferential surface of a rotating can body to form an image on the outer circumferential surface; a receiving gear that is provided to move with the can body and to rotate linked with rotation of the can body; and a transmission gear that is arranged along a moving route of the can body and is engaged with the receiving gear, wherein the receiving gear engaged with the transmission gear moves while rotating when the can body moves from one of two of the image forming units adjacent to each other to the other one, and characterised in that number of rotations of the can body in moving between the one to the other is set depending on the receiving gear and the transmission gear, and the can body is rotated an integer number of times during a period from starting to move the can body from the one to reaching the other. a plurality of image forming units, each of which ejects ink onto an outer circumferential surface of a rotating can body to form an image on the outer circumferential surface; a receiving gear that is provided to move with the can body and to rotate linked with rotation of the can body; and a transmission gear that is arranged along a moving route of the can body and is engaged with the receiving gear, wherein the receiving gear engaged with the transmission gear moves while rotating when the can body moves from one of two of the image forming units adjacent to each other to the other one, and characterised in that number of rotations of the can body in moving between the one to the other is set depending on the receiving gear and the transmission gear, and the can body is rotated an integer number of times during a period from starting to move the can body from the one to reaching the other.
A method for a wireless device for transmitting a random access preamble, the method comprising: receiving system information indicating a location within a time-frequency grid, wherein the system information comprises a system information block type 2, SIB2, wherein, for each of a given number of narrowband physical random access channel, NPRACH, bands, three bits in SIB2 indicate a tone index corresponding to the starting subcarrier of that NPRACH band, wherein each NPRACH band comprises a plurality of subcarriers and corresponds to a different coverage class; selecting one of the indicated tone indices based on a coverage class, wherein the selected tone index is associated with a first NPRACH band; determining a location within a frequency band for transmitting the random access preamble based on the selected tone index; and causing transmission of a random access preamble using the determined location within the frequency band. receiving system information indicating a location within a time-frequency grid, wherein the system information comprises a system information block type 2, SIB2, wherein, for each of a given number of narrowband physical random access channel, NPRACH, bands, three bits in SIB2 indicate a tone index corresponding to the starting subcarrier of that NPRACH band, wherein each NPRACH band comprises a plurality of subcarriers and corresponds to a different coverage class; selecting one of the indicated tone indices based on a coverage class, wherein the selected tone index is associated with a first NPRACH band; determining a location within a frequency band for transmitting the random access preamble based on the selected tone index; and causing transmission of a random access preamble using the determined location within the frequency band.