mhurhangee/ep-ind-claims huggingface dataset:
A pump comprising: a housing having a cylindrical shape to contain water; a rotatable impeller to discharge the water in the housing to an external; a heater cover to form a bottom surface of the housing; a heater plate joined to a lower side of the heater cover; and characterized in that: a heater joined to a lower side of the heater plate to heat the heater plate, wherein the heater plate heated by the heater is configured to heat the heater cover, such that the heater is not in direct contact with the heater cover, wherein an external side surface of the heater body is spaced apart from an external side surface of the cover holder, wherein an external side surface of the cover holder is spaced apart from a side surface of the housing. a housing having a cylindrical shape to contain water; a rotatable impeller to discharge the water in the housing to an external; a heater cover to form a bottom surface of the housing; a heater plate joined to a lower side of the heater cover; and characterized in that: a heater joined to a lower side of the heater plate to heat the heater plate, wherein the heater plate heated by the heater is configured to heat the heater cover, such that the heater is not in direct contact with the heater cover, wherein an external side surface of the heater body is spaced apart from an external side surface of the cover holder, wherein an external side surface of the cover holder is spaced apart from a side surface of the housing. a heater joined to a lower side of the heater plate to heat the heater plate, wherein the heater plate heated by the heater is configured to heat the heater cover, such that the heater is not in direct contact with the heater cover, wherein an external side surface of the heater body is spaced apart from an external side surface of the cover holder, wherein an external side surface of the cover holder is spaced apart from a side surface of the housing.
A gear train speed reducer, comprising a radially internal planet gear capable of pivoting about an axis, a radially external annular planet gear coaxial with the internal planet gear, at least one satellite gear meshing with the internal planet gear and with the external planet gear, the satellite gear being mounted to pivot about an axis belonging to a satellite carrier, the satellite gear being formed by a toothed wheel extending along an axis and comprising at least two annular toothed areas (18, 19) and an annular groove axially located between said toothed areas (18, 19), for collecting lubricating oil from said toothed areas (18, 19), said groove being delimited by an axially extending bottom surface and radially extending lateral surfaces, characterized in that the groove has at least one projecting portion extending radially outwards from the bottom surface of the groove.
Shell (1, 26, 35) intended for firing from a mortar weapon, the shell (1, 26, 35) being designed for locking in the mortar to prevent movement of the shell (1, 26, 35) when adjusting the angle of elevation of the mortar prior to firing, the shell (1, 26, 35) comprises a locking part, the locking part forming an integral part of the shell (1, 26, 35) and being designed so that the shell (1, 26, 35), after ramming home in the mortar, is locked to a corresponding securing device arranged in the mortar, characterized in that the locking part comprises a deformable mechanically weakened section to facilitate deformation of the weakened section.
A positioning system, comprising: a DUT, Device Under Test,, comprising a first wireless communication module; and a mobile device, comprising a second wireless communication module, a sensor, and a processor, wherein a wireless connection is established between the second wireless communication module and the first wireless communication module, and the second wireless communication module of the mobile device is moved along a path comprising at least three different measurement positions (P1, P2, P3), the sensor is adapted to detect a relative relationship between the measurement positions (P1, P2, P3), the mobile device is adapted to measure a distance between the DUT and each of the measurement positions (P1, P2, P3), and the processor is adapted to calculate a target position at which the DUT is located according to the measurement positions (P1, P2, P3) and the distances (d1, d2, d3), wherein the mobile device is a notebook computer, the notebook computer comprises an upper cover and a lower cover, and the second wireless communication module is disposed in the upper cover and, wherein the mobile device is further adapted to measure the distances (d1, d2, d3) while the notebook computer is being opened. a DUT, Device Under Test,, comprising a first wireless communication module; and a mobile device, comprising a second wireless communication module, a sensor, and a processor, wherein a wireless connection is established between the second wireless communication module and the first wireless communication module, and the second wireless communication module of the mobile device is moved along a path comprising at least three different measurement positions (P1, P2, P3), the sensor is adapted to detect a relative relationship between the measurement positions (P1, P2, P3), the mobile device is adapted to measure a distance between the DUT and each of the measurement positions (P1, P2, P3), and the processor is adapted to calculate a target position at which the DUT is located according to the measurement positions (P1, P2, P3) and the distances (d1, d2, d3), wherein the mobile device is a notebook computer, the notebook computer comprises an upper cover and a lower cover, and the second wireless communication module is disposed in the upper cover and, wherein the mobile device is further adapted to measure the distances (d1, d2, d3) while the notebook computer is being opened.
A method for manufacturing a card comprising the steps of: adhering a laminate of a front printed sheet, an antenna coil, a winded inlay sheet and a rear-printed sheet in sequence; and exposing the antenna coil of the inlay sheet through a grooving operation, characterized in that the method further comprises the steps of: adhering the antenna coil to the connector of an integrated circuit, IC, chip by igniting to explode a priming by applying an external heat of 160°C∼210°C for 0.5 to 1 second to the priming. adhering a laminate of a front printed sheet, an antenna coil, a winded inlay sheet and a rear-printed sheet in sequence; and exposing the antenna coil of the inlay sheet through a grooving operation, characterized in that the method further comprises the steps of: adhering the antenna coil to the connector of an integrated circuit, IC, chip by igniting to explode a priming by applying an external heat of 160°C∼210°C for 0.5 to 1 second to the priming.
Residual current circuit breaker with a summation current transformer, having primary windings as well as a secondary winding and a tertiary winding, wherein the secondary winding is connected by circuitry with mains voltage independent tripping electronics, wherein the tertiary winding is connected by circuitry with mains voltage-dependent tripping electronics, wherein the residual current circuit breaker has an electronic control unit which is designed to control a switch for specifiable control by the properly functioning mains voltage-dependent tripping electronics, wherein the switch in the activated state interrupts the contact of the secondary winding to the mains voltage-independent tripping electronics and establishes the contact of the tertiary winding to the mains voltage-dependent tripping electronics, and wherein the control unit is otherwise designed to electrically separate the main voltage-dependent tripping electronics from the tertiary winding of the total current converter and at the same time establish the contact between the line-voltage-independent tripping electronics and the secondary winding of the summation current transformer.
A garment having underarm externally accessible breast pockets for wearing by a driver of a tandem seating vehicle and comprising: a garment trunk; depending from the garment trunk a left garment arm and a right garment arm; a garment left side extending downwardly from an intersection of said garment left arm with said garment trunk; a garment right side extending downwardly from an intersection of said garment right arm with said garment trunk; a pocket mouth (22, 42) disposed directly below each of said intersection of said left garment arm with said garment trunk and said intersection of said right garment arm with said garment trunk; and a pocket (20, 40) communicating with each pocket mouth (22, 24), the garment characterised in that: the garment pocket mouths and pockets are sized to admit a passenger's hand and arm and in that non-slip material is attached to the inside of each pocket (20, 40). a garment trunk; depending from the garment trunk a left garment arm and a right garment arm; a garment left side extending downwardly from an intersection of said garment left arm with said garment trunk; a garment right side extending downwardly from an intersection of said garment right arm with said garment trunk; a pocket mouth (22, 42) disposed directly below each of said intersection of said left garment arm with said garment trunk and said intersection of said right garment arm with said garment trunk; and a pocket (20, 40) communicating with each pocket mouth (22, 24), the garment characterised in that: the garment pocket mouths and pockets are sized to admit a passenger's hand and arm and in that non-slip material is attached to the inside of each pocket (20, 40). the garment pocket mouths and pockets are sized to admit a passenger's hand and arm and in that non-slip material is attached to the inside of each pocket (20, 40).
A display device, comprising a display panel and a slit grating superimposed on the display panel, wherein the display panel comprises a color filter comprising a black matrix, a plurality of color resists and a plurality of pixel regions; the black matrix comprises a plurality of first black matrix strips extending along a row direction and a plurality of second black matrix strips extending along a column direction, and the plurality of first black matrix strips and the plurality of second black matrix strips are intersected with each other to form a plurality of mesh regions arranged in a matrix; the plurality of color resists are respectively disposed in the plurality of mesh regions and comprise red resists, green resists and blue resists; and the plurality of pixel regions are arranged in a matrix, each of the pixel regions comprises a red sub-pixel region, a green sub-pixel region and a blue sub-pixel region; the red sub-pixel region comprises an even number of red sub-sub-pixel regions, each of the red sub-sub-pixel regions is provided with one of the red resists (R1; R2) therein; the green sub-pixel region comprises an even number of green sub-sub-pixel regions, each of the green sub-sub-pixel regions is provided with one of the green resists (G1; G2) therein; and the blue sub-pixel region comprises an even number of blue sub-sub-pixel regions, and each of the blue sub-sub-pixel regions is provided with one of the blue resists (B1; B2) therein; and the display device is characterized in that the slit grating comprises light-blocking strips and light-transmitting strips, which are alternated; wherein a width Ww of one light-transmitting strip of the slit grating, a sum Ws of a width of one light-blocking strip and the width of one light-transmitting strip, \ a distance D between the slit grating and a display surface of the display panel, a width Wp of a single sub-pixel in the display panel, a distance Q between a left eye and a right eye of a human, and a distance L between the display surface of the display panel and eyes of the human satisfy the following equations: Ww = Q × Wp Q + Wp, Ws = K × Q × Wp Q + Wp, D = L × Wp Q + Wp, wherein K is a constant coefficient.
A method for filtering a time domain data signal, comprising receiving from a radio receiving device a digital baseband signal data; using at least one electronic circuit in a filter device to double a sample size of the digital baseband signal data by forming an enhanced data set, the enhanced data set obtained by combining samples from a current block of time domain data with an immediately preceding block of time domain data; apply a windowing function to the enhanced data set; perform a Fast Fourier Transform, FFT, operation using the enhanced data set which has been windowed to obtain a plurality FFT samples, each FFT sample comprised of instantaneous frequency bin values which include a real in-phase part and an imaginary quadrature part; calculate an instantaneous magnitude value and an average magnitude value for each frequency bin based on the plurality of instantaneous frequency bin values; calculate a noise floor based on the average magnitude values of a plurality of the frequency bins; using the noise floor to identify at least one frequency bin which contains spectral energy associated with an interfering signal; selectively reduce the instantaneous frequency bin values of the at least one frequency bin that contains the spectral energy associated with the interfering signal; after said reducing, perform an inverse FFT operation based on the instantaneous frequency bin values to calculate a notched time domain digital data set in which spectral components of the interfering signal have been reduced; apply an inverse of the windowing function to the notched time domain digital data set. double a sample size of the digital baseband signal data by forming an enhanced data set, the enhanced data set obtained by combining samples from a current block of time domain data with an immediately preceding block of time domain data; apply a windowing function to the enhanced data set; perform a Fast Fourier Transform, FFT, operation using the enhanced data set which has been windowed to obtain a plurality FFT samples, each FFT sample comprised of instantaneous frequency bin values which include a real in-phase part and an imaginary quadrature part; calculate an instantaneous magnitude value and an average magnitude value for each frequency bin based on the plurality of instantaneous frequency bin values; calculate a noise floor based on the average magnitude values of a plurality of the frequency bins; using the noise floor to identify at least one frequency bin which contains spectral energy associated with an interfering signal; selectively reduce the instantaneous frequency bin values of the at least one frequency bin that contains the spectral energy associated with the interfering signal; after said reducing, perform an inverse FFT operation based on the instantaneous frequency bin values to calculate a notched time domain digital data set in which spectral components of the interfering signal have been reduced; apply an inverse of the windowing function to the notched time domain digital data set.
Process for producing impact-modified polycarbonate compositions containing the steps (i), (ii) and optionally (iii), wherein (i) in a first step A) 10 to 98 parts by weight of at least one polymer selected from the group of aromatic polycarbonates and aromatic polyester carbonates, B) 0.001 to 0.3 parts by weight of at least one organic Brønsted acid, C) 0.0001 to 0.004 parts by weight of at least one inorganic Brønsted-acidic phosphorus compound, D) 1 to 90 parts by weight of at least one rubber-containing vinyl (co)polymer, E) optionally up to 90 parts by weight of at least one polyester, F) optionally up to 30 parts by weight of at least one additive, wherein the ratio of the parts by weight of the components B to C employed in process step (i) is in the range from 2 to 100, are heated by supplying thermal and/or mechanical energy, at least the components A) and D) are thus melted and all employed components are thus mixed with one another, dissolved in one another or dispersed in one another and in a further step (ii) the melt resulting from process step (i) is (ii) resolidified by cooling and (iii) optionally pelletized, wherein the process steps (ii) and (iii) may be performed in any desired sequence relative to one another. (i) in a first step A) 10 to 98 parts by weight of at least one polymer selected from the group of aromatic polycarbonates and aromatic polyester carbonates, B) 0.001 to 0.3 parts by weight of at least one organic Brønsted acid, C) 0.0001 to 0.004 parts by weight of at least one inorganic Brønsted-acidic phosphorus compound, D) 1 to 90 parts by weight of at least one rubber-containing vinyl (co)polymer, E) optionally up to 90 parts by weight of at least one polyester, F) optionally up to 30 parts by weight of at least one additive, A) 10 to 98 parts by weight of at least one polymer selected from the group of aromatic polycarbonates and aromatic polyester carbonates, B) 0.001 to 0.3 parts by weight of at least one organic Brønsted acid, C) 0.0001 to 0.004 parts by weight of at least one inorganic Brønsted-acidic phosphorus compound, D) 1 to 90 parts by weight of at least one rubber-containing vinyl (co)polymer, E) optionally up to 90 parts by weight of at least one polyester, F) optionally up to 30 parts by weight of at least one additive,
An electricity meter for determining electricity consumption in a three-phase electricity distribution network, wherein the electricity meter comprises: - a circuit for determining a voltage V a, V b, V c and a current I a, I b, I c at each phase (a, b, c) of the electricity distribution network, - at least one microcontroller for calculating electricity consumption from the electricity distribution network, and - an impedance learning algorithm for being executed by the at least one microcontroller, wherein the impedance learning algorithm is configured to determine, based on a plurality of changes in the determined voltage ΔV a, ΔV b, ΔV c and current ΔI a, ΔI b, ΔI c at each phase of the electricity distribution network, a zero sequence impedance Z 0 and a negative sequence impedance Z 2 of the electricity distribution network, characterised in that the impedance learning algorithm is configured to determine an impedance value Z a, Z b, Z c for each phase (a, b, c) of the electricity distribution network by determining correlation terms z 20, z 02, wherein the correlation term z 20 is indicative of a correlation between a zero sequence voltage V 0 and a negative sequence current I 2, and wherein the correlation term z 02 is indicative of a correlation between a zero sequence current I 0 and a negative sequence voltage V 2. - a circuit for determining a voltage V a, V b, V c and a current I a, I b, I c at each phase (a, b, c) of the electricity distribution network, - at least one microcontroller for calculating electricity consumption from the electricity distribution network, and - an impedance learning algorithm for being executed by the at least one microcontroller, wherein the impedance learning algorithm is configured to determine, based on a plurality of changes in the determined voltage ΔV a, ΔV b, ΔV c and current ΔI a, ΔI b, ΔI c at each phase of the electricity distribution network, a zero sequence impedance Z 0 and a negative sequence impedance Z 2 of the electricity distribution network,
A capped barrel system for aging liquids comprising: a barrel including: a plurality of staves made of a wood suitable for aging liquids, at least one hoop for holding the staves together, a head coupled to the staves, a bunghole formed in the head, and an exterior surface formed at least in part by the plurality of staves; and a barrel cap removably couplable to the barrel and including: a lid including a top portion positionable above the head of the barrel and a rim extending downwardly from the top portion, wherein the rim includes an inner surface, and an outer surface; an opening formed in the top portion of the lid that is generally aligned with the bunghole when the barrel cap is coupled to the barrel; and a closure removably positioned in the opening to seal the opening; characterized in that the rim further includes a seal that defines at least a portion of the inner surface and is co-operable with the exterior surface of the barrel to provide a gas tight fit between the barrel and the barrel cap. a barrel including: a plurality of staves made of a wood suitable for aging liquids, at least one hoop for holding the staves together, a head coupled to the staves, a bunghole formed in the head, and an exterior surface formed at least in part by the plurality of staves; and a plurality of staves made of a wood suitable for aging liquids, at least one hoop for holding the staves together, a head coupled to the staves, a bunghole formed in the head, and an exterior surface formed at least in part by the plurality of staves; and a barrel cap removably couplable to the barrel and including: a lid including a top portion positionable above the head of the barrel and a rim extending downwardly from the top portion, wherein the rim includes an inner surface, and an outer surface; an opening formed in the top portion of the lid that is generally aligned with the bunghole when the barrel cap is coupled to the barrel; and a closure removably positioned in the opening to seal the opening; a lid including a top portion positionable above the head of the barrel and a rim extending downwardly from the top portion, wherein the rim includes an inner surface, and an outer surface; an opening formed in the top portion of the lid that is generally aligned with the bunghole when the barrel cap is coupled to the barrel; and a closure removably positioned in the opening to seal the opening;
An MgB 2 -based superconducting wire for a liquid hydrogen fluid level sensor constituted by a superconducting core and a tubular metal sheath which covers the core, characterized in that the composition of the superconducting core is expressed by the formula MgB y Al x, the composition contains Mg, B, and Al in a molar ratio 1: y: x = 1: 1.8 - 2.2: 0.05 - 0.25, the core has a critical temperature at which the electrical resistance becomes zero of 20 - 25 K, and the core has a transition width of at most 5K, the transition width being the difference between the temperature at which the electrical resistance begins to decrease towards the critical temperature and the critical temperature.