mhurhangee/ep-ind-claims huggingface dataset:
A method of characterizing an inertial measurement unit comprising a block carrying at least one accelerometer (10x, 10y, 10z) having a sensing axis positioned on an axis of a measurement reference frame (Rm) and having at least one inertial angular sensor arranged to determine the orientation of the measurement reference frame relative to an inertial reference frame, the method comprising the steps of:. keeping the inertial measurement unit centered on a point that is stationary relative to the ground and that is in a predetermined environment, in order to obtain accelerometer signals that are images of at least one component of the specific force vector in the measurement reference frame and also angular signals that are images of at least one component of the instantaneous rotation of the measurement reference frame relative to an inertial reference frame;. processing the signals in order to obtain data representative of projecting the specific force vector into the inertial reference frame after compensating the projection for the rotation of the Earth about the measurement axis of the inertial angular sensor; and. calculating Allan variance on the data and comparing it with reference data.. keeping the inertial measurement unit centered on a point that is stationary relative to the ground and that is in a predetermined environment, in order to obtain accelerometer signals that are images of at least one component of the specific force vector in the measurement reference frame and also angular signals that are images of at least one component of the instantaneous rotation of the measurement reference frame relative to an inertial reference frame;. processing the signals in order to obtain data representative of projecting the specific force vector into the inertial reference frame after compensating the projection for the rotation of the Earth about the measurement axis of the inertial angular sensor; and. calculating Allan variance on the data and comparing it with reference data.
A charging control method, applied to an electronic device having a first circuit board, a second circuit board that is provided on the first circuit board, and a charge pump chipset having at least two charge pump chips (132, 133) provided on the first circuit board and at least two charge pump chips (131, 134) provided on the second circuit board, and the at least two charge pump chips (132, 133) provided on the first circuit board and the at least two charge pump chips (131, 134) provided on the second circuit board being connected in parallel; characterized by the method comprising: controlling one charge pump chip on the first circuit board and at least one charge pump chip on the second circuit board to simultaneously be in a working state; and in response to a temperature of the charge pump chip in the working state on the first circuit board being higher than a set threshold, switching any charge pump chip on the first circuit board with the temperature lower than the set threshold to the working state, and turning off the charge pump chip on the first circuit board with the temperature higher than the set threshold; wherein two charge pump chips are provided on the first circuit board, and two charge pump chips are provided on the second circuit board, the charge pump chips on the first circuit board and the second circuit board are respectively located at four vertices of a quadrilateral, and controlling one charge pump chip on the first circuit board and at least one charge pump chip on the second circuit board to simultaneously be in a working state comprises: controlling two charge pump chips located on a same diagonal of the quadrilateral are controlled to simultaneously be in the working state. controlling one charge pump chip on the first circuit board and at least one charge pump chip on the second circuit board to simultaneously be in a working state; and in response to a temperature of the charge pump chip in the working state on the first circuit board being higher than a set threshold, switching any charge pump chip on the first circuit board with the temperature lower than the set threshold to the working state, and turning off the charge pump chip on the first circuit board with the temperature higher than the set threshold; wherein two charge pump chips are provided on the first circuit board, and two charge pump chips are provided on the second circuit board, the charge pump chips on the first circuit board and the second circuit board are respectively located at four vertices of a quadrilateral, and controlling one charge pump chip on the first circuit board and at least one charge pump chip on the second circuit board to simultaneously be in a working state comprises: controlling two charge pump chips located on a same diagonal of the quadrilateral are controlled to simultaneously be in the working state.
An indoor farming management system associated with a farming system located within an indoor environment, the indoor farming management system comprising: at least one sensor; a central processing unit arranged in signal communication with the at least one sensor; a device in one of an operative state and a non-operative state; wherein the central processing unit is operable to control the at least one indoor environmental parameter, based on data received from the sensor; wherein the central processing unit is operable to send a control signal to the device, wherein the device is configurable to switch between the operative state and the non-operative state based on the control signal, the farming system further comprises a plurality of farming modules, wherein each farming module is configured to grow at least one type of plant, wherein switching of the device between the operative state and the non-operative state is based at least on a stage of growth of the type of plant, the farming system further comprises a growth rack adapted to store the plurality of farming modules, wherein the device is adapted to store or retrieve at least one farming module. at least one sensor; a central processing unit arranged in signal communication with the at least one sensor; a device in one of an operative state and a non-operative state; wherein the central processing unit is operable to control the at least one indoor environmental parameter, based on data received from the sensor; wherein the central processing unit is operable to send a control signal to the device, wherein the device is configurable to switch between the operative state and the non-operative state based on the control signal, the farming system further comprises a plurality of farming modules, wherein each farming module is configured to grow at least one type of plant, wherein switching of the device between the operative state and the non-operative state is based at least on a stage of growth of the type of plant, the farming system further comprises a growth rack adapted to store the plurality of farming modules, wherein the device is adapted to store or retrieve at least one farming module.
A delivery device, which comprises: a mounting part, is provided with a mounting slot of which an opening extends upward and is configured to hook an object to be delivered, a biasing part, is provided on the mounting part and is made to deform under the gravity of the object to be delivered when it is lifted, which resets to drive the object to be delivered out of the mounting slot when the object to be delivered falls to the ground, and characterized by a blocking part, which is connected to the biasing part and is constructed to seal the opening of the mounting slot when the object to be delivered is hooked but not lifted and to open the opening of the mounting slot when the object to be delivered is lifted. a mounting part, is provided with a mounting slot of which an opening extends upward and is configured to hook an object to be delivered, a biasing part, is provided on the mounting part and is made to deform under the gravity of the object to be delivered when it is lifted, which resets to drive the object to be delivered out of the mounting slot when the object to be delivered falls to the ground, and characterized by a blocking part, which is connected to the biasing part and is constructed to seal the opening of the mounting slot when the object to be delivered is hooked but not lifted and to open the opening of the mounting slot when the object to be delivered is lifted.
Monitoring device attachable to a first mold half of an injection mold comprising: a. a housing; b. a first processing unit arranged in the housing; c. a sensor interface by which during operation at least one sensor is interconnected to the first processing unit; d. a second processing unit, interconnected to the first processing unit via a data bus, configured to exchange data with the first processing unit; e. at least one user interface interconnected to the second processing unit is configured to exchange information with a user; f. wherein the first processing unit is configured to monitor of the thereto interconnected injection mold; g. wherein the first processing unit and the second processing unit each comprise a micro-controller. a. a housing; b. a first processing unit arranged in the housing; c. a sensor interface by which during operation at least one sensor is interconnected to the first processing unit; d. a second processing unit, interconnected to the first processing unit via a data bus, configured to exchange data with the first processing unit; e. at least one user interface interconnected to the second processing unit is configured to exchange information with a user; f. wherein the first processing unit is configured to monitor of the thereto interconnected injection mold; g. wherein the first processing unit and the second processing unit each comprise a micro-controller.
A method of manufacturing a flexible grinding product, the method comprising the following steps: a) preparing an open cloth of knitted or woven fabric; b) applying a coating to one surface of the cloth, wherein the coated surface of the cloth has one or more flat plateaus; c) applying a grinding agent to the coated surface of the cloth, wherein step b) includes: b1) applying the coating to one surface of the cloth; b2) flattening at least part of the coated surface, wherein step b2) includes pressing the surface against a working surface of a smoothing element, the working surface of the smoothing element preferably being provided with a structural pattern for producing a pattern of plateaus in the coated surface, and/or step b2) comprises sanding the coated surface for producing one or more flat plateaus. a) preparing an open cloth of knitted or woven fabric; b) applying a coating to one surface of the cloth, wherein the coated surface of the cloth has one or more flat plateaus; c) applying a grinding agent to the coated surface of the cloth, b1) applying the coating to one surface of the cloth; b2) flattening at least part of the coated surface,
A system for estimating friction, the system including: a contact surface comprising a plurality of protrusions extending from a base surface, the contact surface further including a first contact surface region and a second contact surface region, the first contact surface region being configured to resist slip less than the second contact surface region; and a sensor arrangement configured for detecting displacement of at least three of the plurality of protrusions in three different dimensions to measure a three-dimensional force applied to the at least three of the plurality of protrusions at a moment of slippage of the first contact surface region. a contact surface comprising a plurality of protrusions extending from a base surface, the contact surface further including a first contact surface region and a second contact surface region, the first contact surface region being configured to resist slip less than the second contact surface region; and a sensor arrangement configured for detecting displacement of at least three of the plurality of protrusions in three different dimensions to measure a three-dimensional force applied to the at least three of the plurality of protrusions at a moment of slippage of the first contact surface region.
A system comprising: a Phased Array Antenna, PAA, comprising: a plurality of array elements that are arranged to handle Radio Frequency, RF, signals; and a circuit (120, 200) comprising: an amplifier (320, 340) that is arranged to consume current to amplify RF signals for the PAA; and a sensor (322, 342) that is arranged to measure temperature at the circuit (120, 200); and an array controller that is arranged to adjust the current for the amplifier (320, 340) based on a temperature measured by the sensor (322, 342); characterized in that the array controller is further arranged to: identify a threshold value; reduce the current for the amplifier (320, 340) in response to detecting that the temperature measured by the sensor (322, 342) exceeds the threshold value; and scale the amount of reduction to the current based on a difference between the threshold value and the temperature measured by the sensor (322, 342). a Phased Array Antenna, PAA, comprising: a plurality of array elements that are arranged to handle Radio Frequency, RF, signals; and a circuit (120, 200) comprising: an amplifier (320, 340) that is arranged to consume current to amplify RF signals for the PAA; and a sensor (322, 342) that is arranged to measure temperature at the circuit (120, 200); and a plurality of array elements that are arranged to handle Radio Frequency, RF, signals; and a circuit (120, 200) comprising: an amplifier (320, 340) that is arranged to consume current to amplify RF signals for the PAA; and a sensor (322, 342) that is arranged to measure temperature at the circuit (120, 200); and an amplifier (320, 340) that is arranged to consume current to amplify RF signals for the PAA; and a sensor (322, 342) that is arranged to measure temperature at the circuit (120, 200); and an array controller that is arranged to adjust the current for the amplifier (320, 340) based on a temperature measured by the sensor (322, 342); characterized in that the array controller is further arranged to: identify a threshold value; reduce the current for the amplifier (320, 340) in response to detecting that the temperature measured by the sensor (322, 342) exceeds the threshold value; and scale the amount of reduction to the current based on a difference between the threshold value and the temperature measured by the sensor (322, 342). identify a threshold value; reduce the current for the amplifier (320, 340) in response to detecting that the temperature measured by the sensor (322, 342) exceeds the threshold value; and scale the amount of reduction to the current based on a difference between the threshold value and the temperature measured by the sensor (322, 342).
An oral care composition comprising: (a) a stannous ion source; (b) a zinc ion source; (c) polyphosphate; and (d) a thickening agent comprising: (i) 1 to 3.5 weight % of polyvinylpyrrolidone, (ii) 0.2 to 0.45 weight % of a polysaccharide gum, and (iii) 0.05 to 0.3 weight % of carboxymethyl cellulose wherein the weight % is by weight of the composition. (a) a stannous ion source; (b) a zinc ion source; (c) polyphosphate; and (d) a thickening agent comprising: (i) 1 to 3.5 weight % of polyvinylpyrrolidone, (ii) 0.2 to 0.45 weight % of a polysaccharide gum, and (iii) 0.05 to 0.3 weight % of carboxymethyl cellulose (i) 1 to 3.5 weight % of polyvinylpyrrolidone, (ii) 0.2 to 0.45 weight % of a polysaccharide gum, and (iii) 0.05 to 0.3 weight % of carboxymethyl cellulose
A snow sliding device comprising: a first end body (10, 110, 210, 310) to which one end of a boot is fastened; a second end body (30, 130, 230, 330) provided opposite the first end body (10, 110, 210, 310), such that the other end of the boot is fastened to the second end body (30, 130, 230, 330); and a main body (50, 150, 250, 350) provided between the first end body and the second end body (30, 130, 230, 330) to connect the first end body and the second end body (30, 130, 230, 330), wherein an edge surface (55, 255, 355) of the main body directed toward the ground is changeable to be selectively used, wherein the main body is separably connected to the first end body and the second end body, and when a direction in which the main body is connected to the first end body and the second end body is varied, the edge surface of the main body directed toward the ground is changed, and wherein at least one of the first end body and the second end body comprises a curved surface, a central portion of which protrudes parallel to a longitudinal direction of the snow sliding device. a first end body (10, 110, 210, 310) to which one end of a boot is fastened; a second end body (30, 130, 230, 330) provided opposite the first end body (10, 110, 210, 310), such that the other end of the boot is fastened to the second end body (30, 130, 230, 330); and a main body (50, 150, 250, 350) provided between the first end body and the second end body (30, 130, 230, 330) to connect the first end body and the second end body (30, 130, 230, 330), wherein an edge surface (55, 255, 355) of the main body directed toward the ground is changeable to be selectively used, wherein the main body is separably connected to the first end body and the second end body, and when a direction in which the main body is connected to the first end body and the second end body is varied, the edge surface of the main body directed toward the ground is changed, and wherein at least one of the first end body and the second end body comprises a curved surface, a central portion of which protrudes parallel to a longitudinal direction of the snow sliding device.
A core for an electric shunt reactor, the core comprising: a first and a second yoke (4, 6); and at least one column assembly (10; 20) arranged along a respective longitudinal column axis (11; 21), wherein the column assembly (10; 20) comprises an intermediate section (12; 22) and at least two distal column elements (14, 16; 24, 26); wherein the column assembly (10; 20) connects the first and second yoke (4, 6) in order to establish a magnetic path; wherein a duct (18; 28) extends along the longitudinal column axis (11; 21) through the column assembly (10; 20) and through the first and second yokes (4, 6), the duct (18; 28) interfering with the magnetic path; characterized in that a respective distal column element (14; 16; 24; 26) has a lamination pattern differing from a lamination pattern of the intermediate section (12; 22) and differing from a lamination pattern of the neighboring yoke (4; 6) in order to mitigate the interference of the duct (18; 28). a first and a second yoke (4, 6); and at least one column assembly (10; 20) arranged along a respective longitudinal column axis (11; 21), wherein the column assembly (10; 20) comprises an intermediate section (12; 22) and at least two distal column elements (14, 16; 24, 26); wherein the column assembly (10; 20) connects the first and second yoke (4, 6) in order to establish a magnetic path; wherein a duct (18; 28) extends along the longitudinal column axis (11; 21) through the column assembly (10; 20) and through the first and second yokes (4, 6), the duct (18; 28) interfering with the magnetic path; characterized in that a respective distal column element (14; 16; 24; 26) has a lamination pattern differing from a lamination pattern of the intermediate section (12; 22) and differing from a lamination pattern of the neighboring yoke (4; 6) in order to mitigate the interference of the duct (18; 28).
Melting plant for the production of steel, comprising a melting furnace, a feeding conveyor laterally connected to said melting furnace for feeding a - metal charge inside said furnace, said conveyor being disposed at least partly inside a tunnel in which the fumes exiting from a discharge element of said melting furnace are made to transit in counter-flow with respect to said metal charge in order to heat it, and discharge means able to discharge said fumes from said tunnel towards the outside environment, characterized in that it also comprises diversion means, located between said melting furnace and said discharge means, able to be selectively connected to said discharge element to convey said fumes directly into said discharge means, excluding the passage of the fumes through said tunnel.
An RNAi-inducing double-stranded nucleic acid molecule having cell penetrating ability and comprising at least one 2'-O-alkyl modified nucleotide, comprising: a first strand of having a nucleotide sequence consisting of the nucleotide sequence of SEQ ID NO: 154and comprising at least one phosphorothioate or phosphorodithioate bond; and a second strand having a nucleotide sequence consisting of the nucleotide sequence SEQ ID NO: 153 and comprising at least one phosphorothioate or phosphorodithioate bond and further comprising a cholesterol moiety covalently attached to its 3' end; wherein the second strand binds to the first strand such that the first strand has a double-stranded region to which the second strand binds and a single-stranded region to which the second strand does not bind, and wherein the 5' end of the first strand and the 3' end of the second strand form a blunt end. a first strand of having a nucleotide sequence consisting of the nucleotide sequence of SEQ ID NO: 154and comprising at least one phosphorothioate or phosphorodithioate bond; and a second strand having a nucleotide sequence consisting of the nucleotide sequence SEQ ID NO: 153 and comprising at least one phosphorothioate or phosphorodithioate bond and further comprising a cholesterol moiety covalently attached to its 3' end; wherein the second strand binds to the first strand such that the first strand has a double-stranded region to which the second strand binds and a single-stranded region to which the second strand does not bind, and wherein the 5' end of the first strand and the 3' end of the second strand form a blunt end.
A non-contact power transmitting/receiving system, comprising: a power transmission device; and a vehicle including a battery and a power receiving device that is configured to receive electric power from the power transmission device in a contactless manner and charge the battery, wherein in course of charging the battery with an electric power transmitted from the power transmission device to the power receiving device in a contactless manner, the non-contact power transmitting/receiving system is configured to detect the power difference and urges a driver to adjust the position of the vehicle when the detected power difference between the transmitted power of the power transmission device and a received power of the power receiving device is greater than a reference value. a power transmission device; and a vehicle including a battery and a power receiving device that is configured to receive electric power from the power transmission device in a contactless manner and charge the battery, wherein in course of charging the battery with an electric power transmitted from the power transmission device to the power receiving device in a contactless manner, the non-contact power transmitting/receiving system is configured to detect the power difference and urges a driver to adjust the position of the vehicle when the detected power difference between the transmitted power of the power transmission device and a received power of the power receiving device is greater than a reference value.