mhurhangee/ep-ind-claims huggingface dataset:
Electric motor for an electric power tool, comprising a rotor that is rotatable about a longitudinal axis of the electric motor, and a stator engaging at least in part around said rotor, wherein an air gap (D L) is formed between an inner circumferential surface of the stator and an outer circumferential surface of the rotor, and also a sliding switch for activating the electric motor, wherein the sliding switch has at least one switching member which can interact with an on/off switch of the electric motor and is arranged so as to be displaceable relative thereto, wherein the switching member extends substantially along the longitudinal axis of the electric motor through the air gap (D L) between the rotor and stator, characterized in that the switching member, as seen in cross section, has a substantially circular curvature on its side facing the rotor, at least in the region which extends through the air gap (D L), said curvature extending concentrically with the outer circumference of the rotor.
A thermal head control device, comprising: a printing rate calculation range determination unit configured to determine, as a printing rate calculation range, a range from a left-end energization dot to a right-end energization dot among energization dots present in printing data, each energization dot corresponding to heating elements to be controlled among a plurality of heating elements included in a thermal head; a printing rate calculation unit configured to calculate a printing rate of the printing rate calculation range determined by the printing rate calculation range determination unit; an energizing time calculation unit configured to calculate an energizing time for which a current is caused to flow through the heating elements based on the printing rate calculated by the printing rate calculation unit; and an output unit configured to output a control signal for driving the heating elements of the thermal head, that are to be controlled based on the calculated energizing time. a printing rate calculation range determination unit configured to determine, as a printing rate calculation range, a range from a left-end energization dot to a right-end energization dot among energization dots present in printing data, each energization dot corresponding to heating elements to be controlled among a plurality of heating elements included in a thermal head; a printing rate calculation unit configured to calculate a printing rate of the printing rate calculation range determined by the printing rate calculation range determination unit; an energizing time calculation unit configured to calculate an energizing time for which a current is caused to flow through the heating elements based on the printing rate calculated by the printing rate calculation unit; and an output unit configured to output a control signal for driving the heating elements of the thermal head, that are to be controlled based on the calculated energizing time.
A sensor (100, 200), comprising: a first conductor (110, 210); a second conductor (120, 220) spaced apart from the first conductor (110, 210), and configured to form capacitance with the first conductor (110, 210); and one or more variable resistance elements (130, 230) connected with the first conductor (110,210), characterized in that resistance of at least one of the variable resistance elements (130, 230) and the capacitance of the variable resistance elements (130, 230) change in accordance with a pressure applied to the sensor (100. 200) from the outside, the first conductor (110, 210) has a mesh structure comprising metal lines including a plurality of openings; wherein the metal lines comprises a first metal line and a second metal line which are spaced apart from each other, and the variable resistance elements (130, 230) are connected between the first metal line and the second metal line, wherein the openings include a first opening and a second opening, wherein the second opening is positioned farther from the center of the first conductor than the first opening, and wherein the size of the second opening is smaller than the size of the first opening. a first conductor (110, 210); a second conductor (120, 220) spaced apart from the first conductor (110, 210), and configured to form capacitance with the first conductor (110, 210); and one or more variable resistance elements (130, 230) connected with the first conductor (110,210), characterized in that resistance of at least one of the variable resistance elements (130, 230) and the capacitance of the variable resistance elements (130, 230) change in accordance with a pressure applied to the sensor (100. 200) from the outside, the first conductor (110, 210) has a mesh structure comprising metal lines including a plurality of openings; wherein the metal lines comprises a first metal line and a second metal line which are spaced apart from each other, and the variable resistance elements (130, 230) are connected between the first metal line and the second metal line, wherein the openings include a first opening and a second opening, wherein the second opening is positioned farther from the center of the first conductor than the first opening, and wherein the size of the second opening is smaller than the size of the first opening.
A fluid control valve comprising: a body portion to be provided at a circulation flow passage that circulates fluid between an internal combustion engine and a heat exchanger; an inflow passage causing the fluid to flow into the body portion; an outflow passage causing the fluid to flow out of the body portion; a valve element adjusting a flow rate of the fluid; a valve seat including a contact portion relative to the valve element, the contact portion being provided to face a downstream side of a circulating direction of the fluid; a solenoid causing the valve element to make contact with the valve seat in a state where the solenoid is supplied with an electric power; and a spring mechanism holding the valve element to be balanced at a position at which the valve element is away from the valve seat by a predetermined distance in a case where the solenoid is inhibited from being supplied with the electric power and the fluid is inhibited from flowing, wherein the spring mechanism includes a first spring biasing the valve element to approach the valve seat and a second spring biasing the valve element to separate from the valve seat, and characterized in that the spring mechanism is configured so that the second coil spring is inhibited from making contact with the valve element and is inhibited from generating a biasing force relative to the valve element in association with a movement of the valve element in a direction away from the valve seat. a body portion to be provided at a circulation flow passage that circulates fluid between an internal combustion engine and a heat exchanger; an inflow passage causing the fluid to flow into the body portion; an outflow passage causing the fluid to flow out of the body portion; a valve element adjusting a flow rate of the fluid; a valve seat including a contact portion relative to the valve element, the contact portion being provided to face a downstream side of a circulating direction of the fluid; a solenoid causing the valve element to make contact with the valve seat in a state where the solenoid is supplied with an electric power; and a spring mechanism holding the valve element to be balanced at a position at which the valve element is away from the valve seat by a predetermined distance in a case where the solenoid is inhibited from being supplied with the electric power and the fluid is inhibited from flowing, wherein the spring mechanism includes a first spring biasing the valve element to approach the valve seat and a second spring biasing the valve element to separate from the valve seat, and characterized in that the spring mechanism is configured so that the second coil spring is inhibited from making contact with the valve element and is inhibited from generating a biasing force relative to the valve element in association with a movement of the valve element in a direction away from the valve seat.
A transceiver for sending and receiving data from a controller area network bus, the transceiver includes a microcontroller port, a transmitter, a receiver, and a glitch detector, wherein the glitch detector includes a RXD timing recovery module, wherein the RXD timing recovery module is configured to monitor a RXD line coupled between the receiver and the microcontroller port, wherein the glitch detector is configured to determine bit timings from a data frame received by the receiver, wherein the glitch detector includes a violation detector, wherein the violation detector is configured to detect attempts to introduce a signal glitch in a predetermined portion of the data frame, wherein the detection of the signal glitch includes monitoring a change in the signal amplitude beyond a predetermined threshold during the predetermined portion, and wherein upon detection of the signal glitch, the glitch detector is configured to invalidate the data frame on a transmission line coupled between the microcontroller port and the transmitter and/or to disable the transmitter for a predetermined period. wherein the glitch detector includes a RXD timing recovery module, wherein the RXD timing recovery module is configured to monitor a RXD line coupled between the receiver and the microcontroller port, wherein the glitch detector is configured to determine bit timings from a data frame received by the receiver, wherein the glitch detector includes a violation detector, wherein the violation detector is configured to detect attempts to introduce a signal glitch in a predetermined portion of the data frame, wherein the detection of the signal glitch includes monitoring a change in the signal amplitude beyond a predetermined threshold during the predetermined portion, and wherein upon detection of the signal glitch, the glitch detector is configured to invalidate the data frame on a transmission line coupled between the microcontroller port and the transmitter and/or to disable the transmitter for a predetermined period.
Identification document comprising an anti-counterfeiting element able to display different data and/or images when tilting the document, characterized in that said anti-counterfeiting element is created in predetermined locations that are arranged in different planes through the thickness and depth of an at least translucent portion (23, 20) of the document, characterized in that said planes are placed at different angles, and each data and/or image to be revealed at a predetermined tilt angle is created into one of said plans (24; 25(XOY')), and comprises pixels, each pixel being arranged at predetermined location into said plan (24; 25(XOY')).
A method to identify single base substitution, insertion, and deletion mutations in an analyte nucleic acid fragment, comprising: attaching a unique identifier nucleic acid sequence to a first end of each of a plurality of analyte nucleic acid fragments to form uniquely identified analyte nucleic acid fragments; redundantly determining the nucleotide sequence of a uniquely identified analyte nucleic acid fragment, wherein determined nucleotide sequences which share a UID form a family of members; identifying a nucleotide sequence as accurately representing an analyte nucleic acid fragment when at least 50 % of members of the family contain the sequence, and the sequence is found in at least two families; and identifying a single base substitution, insertion, or deletion mutation in the analyte nucleic acid fragment when the nucleotide sequence that accurately represents the analyte nucleic acid fragment is different from an expected sequence by a single base substitution, insertion, or deletion in the analyte nucleic acid fragment. attaching a unique identifier nucleic acid sequence to a first end of each of a plurality of analyte nucleic acid fragments to form uniquely identified analyte nucleic acid fragments; redundantly determining the nucleotide sequence of a uniquely identified analyte nucleic acid fragment, wherein determined nucleotide sequences which share a UID form a family of members; identifying a nucleotide sequence as accurately representing an analyte nucleic acid fragment when at least 50 % of members of the family contain the sequence, and the sequence is found in at least two families; and identifying a single base substitution, insertion, or deletion mutation in the analyte nucleic acid fragment when the nucleotide sequence that accurately represents the analyte nucleic acid fragment is different from an expected sequence by a single base substitution, insertion, or deletion in the analyte nucleic acid fragment.
A system for detecting user credentials, comprising: a data chunker for breaking input data into a plurality of data chunks; a data chunk storage for storing the plurality of data chunks; a bytewise checker for checking that each byte of a data chunk of the plurality of data chunks comprises an appropriate value, wherein the appropriate value comprises a value in a range of ASCII values; a bit counter for: determining whether a continuous number of bytes having the appropriate value is greater than or equal to a threshold number of bytes, wherein the threshold number of bytes comprises a minimum credential length; and in the event the continuous number of bytes having the appropriate value is greater than or equal to a threshold number of bytes, determining a credential address range corresponding to the continuous number of bytes; and a credential checker for: determining whether data stored in the data chunk storage corresponding to the credential address range comprises a credential. a data chunker for breaking input data into a plurality of data chunks; a data chunk storage for storing the plurality of data chunks; a bytewise checker for checking that each byte of a data chunk of the plurality of data chunks comprises an appropriate value, wherein the appropriate value comprises a value in a range of ASCII values; a bit counter for: determining whether a continuous number of bytes having the appropriate value is greater than or equal to a threshold number of bytes, wherein the threshold number of bytes comprises a minimum credential length; and in the event the continuous number of bytes having the appropriate value is greater than or equal to a threshold number of bytes, determining a credential address range corresponding to the continuous number of bytes; and a credential checker for: determining whether data stored in the data chunk storage corresponding to the credential address range comprises a credential. determining whether a continuous number of bytes having the appropriate value is greater than or equal to a threshold number of bytes, wherein the threshold number of bytes comprises a minimum credential length; and in the event the continuous number of bytes having the appropriate value is greater than or equal to a threshold number of bytes, determining a credential address range corresponding to the continuous number of bytes; and a credential checker for: determining whether data stored in the data chunk storage corresponding to the credential address range comprises a credential.
An automatic roller blind, in particular for roof windows, comprising a curtain, a motor driving the curtain, a rechargeable battery to store energy required to operate the motor, a photovoltaic panel charging said rechargeable battery and a microcontroller to control an operation of the blind in response to control signals characterised in that at least a control signal represents a sunlight level being an output electrical power of the photovoltaic panel and a control signal represents the output voltage of said rechargeable battery, said microcontroller works in at least two working modes including: a manual working mode, where automatic control of a blind is disabled, wherein the microcontroller works in said manual working mode if the output voltage of said rechargeable battery is higher than a predefined manual working mode voltage threshold; and an automatic working mode, where position of the curtain is set as often as necessary in response to said control signals, wherein the microcontroller works in said automatic working mode if the output voltage of said rechargeable battery is higher than a predefined automatic working mode voltage threshold. a manual working mode, where automatic control of a blind is disabled, wherein the microcontroller works in said manual working mode if the output voltage of said rechargeable battery is higher than a predefined manual working mode voltage threshold; and an automatic working mode, where position of the curtain is set as often as necessary in response to said control signals, wherein the microcontroller works in said automatic working mode if the output voltage of said rechargeable battery is higher than a predefined automatic working mode voltage threshold.
Ultraporous organic-inorganic nanoporous hybrids in which a mesoporous material including organic groups on the surface thereof is covalently - bonded with a crystalline organic-inorganic hybrid, the composite produced by the steps of: (a) mixing an organic precursor for introducing a primary organic functional group, an inorganic precursor and a surfactant to form a mixture and then reacting the mixture to prepare a mesoporous cellular foam (MCF-R) (R is an organic functional group); (b) mixing the MCF-R with a solution of a metal-organic framework and a nonporous organic-inorganic hybrid (NOIH) to prepare an MCF-R-MOF composite; and (c) crystallizing the MCF-R-MOF composite, wherein said organic functional group is selected from the group consisting of an alkyl group of 1 to 20 carbon atoms, the alkyl group being unsubstituted or substituted with the halogen atom, an alkenyl group, an alkynyl group, a vinyl group, an amino group, an cyano group, and a mercapto group; the inorganic precursor includes one or more of a salt or an alkoxide composed of a typical element selected from among silicon (Si), aluminum (Al) and combinations thereof; and a salt or an alkoxide composed of a metal selected from among transition metals and lanthanide metals wherein the organic precursor for introducing the primary organic functional group is selected from organosilane compounds represented by Chemical Formulae 1 to 4 below: [Chemical Formula 1] Si 4-x R x (0.1 ≤ x ≤ 3) [Chemical Formula 2] Si 4-(x+y)R x Z y (0.1 ≤ x+y ≤ 3.9) [Chemical Formula 3] Si 4-x R x Si (0.1 ≤ x ≤ 3) [Chemical Formula 4] Si 4-(x+y) R x Z y Si (0.1 ≤ x+y ≤ 3.9) wherein Z is a halogen atom, and R is defined as above and wherein the ratio of the inorganic precursor to the organic precursor is 1-50. (a) mixing an organic precursor for introducing a primary organic functional group, an inorganic precursor and a surfactant to form a mixture and then reacting the mixture to prepare a mesoporous cellular foam (MCF-R) (R is an organic functional group); (b) mixing the MCF-R with a solution of a metal-organic framework and a nonporous organic-inorganic hybrid (NOIH) to prepare an MCF-R-MOF composite; and (c) crystallizing the MCF-R-MOF composite,
Dynamic joint brace comprising - a first and second bar (1, 2) which are attachable to limbs and interconnected by means of a rotational joint, - a force-generating means which, in an unblocked state, exerts a force upon the first bar in a determined direction of rotation, - a rotatably mounted coupling disc, by means of which the force of the force-generating means can be transferred to the first bar, - a housing that is arranged in the region of the rotational joint and in which the force-generating means and coupling disc are arranged, - a force-blocking mechanism which can be brought from a non-blocking state, in which the force of the force-generating means can be freely transferred to the first bar by means of the coupling disc, into a blocking state, in which the force of the force-generating means is decoupled from the first bar and absorbed by the force-blocking mechanism, such that the first bar is pivotable without force being applied, characterised in that the force-blocking mechanism comprises a pivotably mounted pawl in the form of a rocker that is arranged in the interior of the housing and a manually operable pawl-operating means (73, 74), by means of which an end region of the rocker can be brought into and out of latching engagement with the coupling disc. - a first and second bar (1, 2) which are attachable to limbs and interconnected by means of a rotational joint, - a force-generating means which, in an unblocked state, exerts a force upon the first bar in a determined direction of rotation, - a rotatably mounted coupling disc, by means of which the force of the force-generating means can be transferred to the first bar, - a housing that is arranged in the region of the rotational joint and in which the force-generating means and coupling disc are arranged, - a force-blocking mechanism which can be brought from a non-blocking state, in which the force of the force-generating means can be freely transferred to the first bar by means of the coupling disc, into a blocking state, in which the force of the force-generating means is decoupled from the first bar and absorbed by the force-blocking mechanism, such that the first bar is pivotable without force being applied, characterised in that the force-blocking mechanism comprises a pivotably mounted pawl in the form of a rocker that is arranged in the interior of the housing and a manually operable pawl-operating means (73, 74), by means of which an end region of the rocker can be brought into and out of latching engagement with the coupling disc.
Method for manufacturing drawers, wherein the drawers comprise walls as well as a bottom, wherein said walls comprise at least a front wall, rear wall and two sidewalls, and wherein at least a first and a second of said walls comprise profiles which fit into each other in a locking manner and which to this aim make use of a tongue and a groove with locking parts, wherein said profiles can be joined into each other laterally, and wherein the respective groove is provided on the inner side of the first wall, whereas the respective tongue is provided on the distal end of the second wall, characterized in that two or more walls are manufactured of one board; that herein the profiles of the respective walls are formed by means of a treatment, whether or not consisting of a plurality of partial treatments, performed on said board; and that said board is divided into two or more walls only after at least parts of said profiles have been formed.
An aerosol provision system comprising: an aerosol source for generating an aerosol from a source liquid comprising a liquid formulation; and an air channel wall defining an air channel connecting between the aerosol source and an opening through which a user can inhale the aerosol during use; characterised in that at least a portion of an inner surface of the air channel wall is provided with a surface finish to increase its wettability for the liquid formulation. an aerosol source for generating an aerosol from a source liquid comprising a liquid formulation; and an air channel wall defining an air channel connecting between the aerosol source and an opening through which a user can inhale the aerosol during use; characterised in that at least a portion of an inner surface of the air channel wall is provided with a surface finish to increase its wettability for the liquid formulation.