mhurhangee/ep-ind-claims huggingface dataset:
A plant growing cabinet comprising; a body in which at least one growing unit is placed, a tray in which a turf mixture enabling the plants to grow is placed and wherein the tray is placed on to the growing unit forming a volume in between the growing unit and the tray, a water tank inside the body, an irrigation line and a discharge line extending between the water tank and the growing unit, a pump to pump the water from the water tank to the growing unit, a sensor to detect the water level inside the water tank, a filter inside the water tank configured to filter out micro particles coming through the discharge line, a control unit configured to activate the pump on predetermined time intervals to transfer the water from the water tank to the tray and wherein the control unit is in communication with the sensor the control unit configured to measure the water volume difference inside the water tank before and after the activation of the pump via the water level data measured by the sensor and; to terminate the irrigation procedure if the water volume difference is equal or greater than a predetermined value (ΔV) or to reactive the pump and increase the volume of water to be pumped if the water volume difference is smaller than said volume difference (ΔV) characterized by, a separator slidably and water tightly placed inside the water tank to divide the water tank into two smaller volume along its height and depth, the pump and the sensor being located inside the same volume. a body in which at least one growing unit is placed, a tray in which a turf mixture enabling the plants to grow is placed and wherein the tray is placed on to the growing unit forming a volume in between the growing unit and the tray, a water tank inside the body, an irrigation line and a discharge line extending between the water tank and the growing unit, a pump to pump the water from the water tank to the growing unit, a sensor to detect the water level inside the water tank, a filter inside the water tank configured to filter out micro particles coming through the discharge line, a control unit configured to activate the pump on predetermined time intervals to transfer the water from the water tank to the tray and wherein the control unit is in communication with the sensor the control unit configured to measure the water volume difference inside the water tank before and after the activation of the pump via the water level data measured by the sensor and; to terminate the irrigation procedure if the water volume difference is equal or greater than a predetermined value (ΔV) or to reactive the pump and increase the volume of water to be pumped if the water volume difference is smaller than said volume difference (ΔV) characterized by, a separator slidably and water tightly placed inside the water tank to divide the water tank into two smaller volume along its height and depth, the pump and the sensor being located inside the same volume.
Quick coupling comprising a male fitting and a female coupling for the hydraulic connection of a pressurised fluid line, said male fitting comprising, within a main body of the male fitting, a main valve of the male fitting for the closing/opening of the hydraulic line of said male fitting and said female coupling comprising, within a main body of the female coupling, a main valve of the female coupling for the closing/opening of the hydraulic line of said female coupling, comprising at least one decompression chamber, which, when the fitting connects the hydraulic line and pressurised fluid flows within, is filled by said pressurised fluid so that said pressurised fluid inside said decompression chamber creates a hydraulic lock adapted to keep said main valves (1, 2) of said male and female couplings in an open position, and further comprising a system for the compensation of the changes in pressure of the residual fluid that remains contained in said decompression chamber when pressurised fluid no longer flows within said fitting, characterized in that said compensation system for changes in pressure comprises at least one compensator element, that moves axially in respect of the body of said female coupling adapted to translate by effect of an increase in the pressure of the fluid inside said decompression chamber, increasing the volume of said decompression chamber, said system for the compensation of changes in pressure of the fluid contained within the decompression chamber further comprising a micro-valve that is internally positioned in said compensator element in an axial position and moves axially in respect of said element and the body of the female coupling, the contact between said micro-valve and said compensator, thus creating a hydraulic seal in respect of said decompression chamber.
Ski transportation device, comprising a supporting element for a ski with said supporting element being adapted to be placed on the outer side of a ski boot, the aforesaid supporting element having a movable part formed by a rotatable body and a fixed part on which the movable part is coupled rotatingly, the rotatable body including a receptacle for receiving the rear end section of the ski; characterised in that the receptacle of the rotatable body is delimited by an elastic frontal retaining and support rim for the ski and adjustable runners that can be adapted to the width of the ski, the edges of which butt against a part of the adjustable runners when these are stably adjusted to the width of the corresponding ski, and when the ski is inserted into the receptacle, the rotatable body incorporating a circular base from which the elastic rim begins, said circular base being coupled to the adjustable runners.
Method for generating a halftone image comprising output pixels from an input image comprising input pixels having input pixels values, comprising: for each input pixel, adding an error term to the input pixel value to obtain a modified input pixel value, wherein the error term is a weighted sum of error values of previous pixels to be directed to the input pixel; determining an error diffusion threshold level T based on the input pixel value; applying a quantization operation to the modified input pixel value using the determined error diffusion threshold level for obtaining an output pixel value; determining an error value of the input pixel that is a difference between the output pixel value and the modified input pixel value, characterised in that the error diffusion threshold level depends on a result Y of a comparison operation performed between the input pixel value and a threshold value D selected from a set of threshold values, the selection of the threshold value being based on the position of the input pixel in the input image, wherein the result of the comparison operation takes a value of 0 or 1, and the error diffusion threshold level is determined by T = To - R(2Y-1)/K, where T 0 is a fixed threshold level, R is a constant which represents the intensity range, and K is a factor value between 1 and 5.
A molten salt nuclear fission reactor comprising: - a reactor core through which a fuel salt, comprising heavy nuclei likely to fission, flows, - a primary enclosure containing the reactor core, which primary enclosure is impervious to liquid salts, - a sarcophagus in which the primary enclosure is housed, - the reactor core comprising a parallelepiped matrix (10; 10') comprising alternating layers (11; 11') of fuel salt channels, in which the fuel salt circulates, and layers (12; 12') of heat transfer salt channels, in which a heat transfer salt circulates, - heat transfer salt circulation means (40, 41) for circulating the heat transfer salt within the primary enclosure between a heat transfer salt inlet orifice (43, 52) of the primary enclosure, the heat transfer salt channels (120; 120') of the matrix, then a heat transfer salt outlet orifice (42, 51) of the primary enclosure, - fuel salt circulation means (30, 31) for circulating the fuel salt in the fuel salt channels (110; 110') of the matrix, characterised in that the fuel salt circulation means are configured to extract the fuel salt from a portion of the fuel salt channels via one face (13; 13') of the matrix and to propel the fuel salt into the other portion of the fuel salt channels via this same face of the matrix. - a reactor core through which a fuel salt, comprising heavy nuclei likely to fission, flows, - a primary enclosure containing the reactor core, which primary enclosure is impervious to liquid salts, - a sarcophagus in which the primary enclosure is housed, - the reactor core comprising a parallelepiped matrix (10; 10') comprising alternating layers (11; 11') of fuel salt channels, in which the fuel salt circulates, and layers (12; 12') of heat transfer salt channels, in which a heat transfer salt circulates, - heat transfer salt circulation means (40, 41) for circulating the heat transfer salt within the primary enclosure between a heat transfer salt inlet orifice (43, 52) of the primary enclosure, the heat transfer salt channels (120; 120') of the matrix, then a heat transfer salt outlet orifice (42, 51) of the primary enclosure, - fuel salt circulation means (30, 31) for circulating the fuel salt in the fuel salt channels (110; 110') of the matrix,
Prosthetic hand with a chassis and at least one base element for fastening a prosthetic finger to the chassis, characterized in that a longitudinal guide for the base element is arranged or formed on the chassis, in which longitudinal guide the base element is mounted, wherein the longitudinal guide blocks two translatory degrees of freedom and a clamping element is associated with the longitudinal guide, which clamping element is displaceably mounted in or on the chassis or the base element between a locking position and an unlocking position and effects a blocking of the third translatory degree of freedom in the locking position.
A method performed by a terminal in wireless communication systems, the method comprising: identifying an unused available spectrum of a first signal based on an occupied signal bandwidth of the first signal and a spectral mask for the occupied signal bandwidth, generating a spectral mask filling, SMF, sequence in a time domain by modulating the SMF sequence in a frequency domain corresponding to the unused available spectrum, the first signal including a first peak and the SMF sequence in the time domain including a second peak aligned with the first peak; generating a second signal corresponding to the first signal in which the first peak is cancelled by using the SMF sequence in the time domain; and transmitting, to a base station, the second signal; wherein the SMF sequence in the frequency domain is generated based on an equation defined as: C f = { 0 f ≤ f D A f f D < f ≤ f 1 0 f 1 < f ≤ f S where: fs is a sampling frequency, f D is the occupied signal bandwidth, f 1 is a maximum frequency under the spectral mask, A(f) is a normalized amplitude of a corresponding power spectral density mask, and C(f) is the sequence in the frequency domain. identifying an unused available spectrum of a first signal based on an occupied signal bandwidth of the first signal and a spectral mask for the occupied signal bandwidth, generating a spectral mask filling, SMF, sequence in a time domain by modulating the SMF sequence in a frequency domain corresponding to the unused available spectrum, the first signal including a first peak and the SMF sequence in the time domain including a second peak aligned with the first peak; generating a second signal corresponding to the first signal in which the first peak is cancelled by using the SMF sequence in the time domain; and transmitting, to a base station, the second signal; wherein the SMF sequence in the frequency domain is generated based on an equation defined as: C f = { 0 f ≤ f D A f f D < f ≤ f 1 0 f 1 < f ≤ f S where: fs is a sampling frequency, f D is the occupied signal bandwidth, f 1 is a maximum frequency under the spectral mask, A(f) is a normalized amplitude of a corresponding power spectral density mask, and C(f) is the sequence in the frequency domain. fs is a sampling frequency, f D is the occupied signal bandwidth, f 1 is a maximum frequency under the spectral mask, A(f) is a normalized amplitude of a corresponding power spectral density mask, and C(f) is the sequence in the frequency domain.
A microwave assisted magnetic recording (MAMR) write head, comprising: a main pole and a trailing shield; and a spin torque oscillator device disposed between the main pole and the trailing shield; wherein the spin torque oscillator device comprises a free layer; and in that the microwave assisted magnetic recording write head further comprises: a trailing shield hot seed layer disposed between the spin torque oscillator device and the trailing shield, characterized by the trailing shield hot seed layer comprising a magnetic material doped with a rare earth element; wherein: the trailing shield hot seed layer comprises the rare earth element in an atomic percent content of between 2% and 10% atomic percent; and/or the trailing shield hot seed layer has intrinsic damping of between 0.02 and 0.2. a main pole and a trailing shield; and a spin torque oscillator device disposed between the main pole and the trailing shield; wherein the spin torque oscillator device comprises a free layer; and in that the microwave assisted magnetic recording write head further comprises: a trailing shield hot seed layer disposed between the spin torque oscillator device and the trailing shield, characterized by the trailing shield hot seed layer comprising a magnetic material doped with a rare earth element; wherein: the trailing shield hot seed layer comprises the rare earth element in an atomic percent content of between 2% and 10% atomic percent; and/or the trailing shield hot seed layer has intrinsic damping of between 0.02 and 0.2. a trailing shield hot seed layer disposed between the spin torque oscillator device and the trailing shield, characterized by the trailing shield hot seed layer comprising a magnetic material doped with a rare earth element; wherein: the trailing shield hot seed layer comprises the rare earth element in an atomic percent content of between 2% and 10% atomic percent; and/or the trailing shield hot seed layer has intrinsic damping of between 0.02 and 0.2. the trailing shield hot seed layer comprises the rare earth element in an atomic percent content of between 2% and 10% atomic percent; and/or the trailing shield hot seed layer has intrinsic damping of between 0.02 and 0.2.
Support for a ball joint housing for a connecting rod of a wiper actuating linkage system, the support comprising a ball joint housing extending along a longitudinal axis and configured to be received in a complementary orifice on the connecting rod, characterized in that the support is configured to be assembled by rotation with the connecting rod, and comprises: - at least one rotational-guidance element (271, 273, 275) guiding the rotation of the connecting rod about the longitudinal axis of the ball joint housing into a final assembly position, - at least one retaining element configured to collaborate with the connecting rod and keep it in the final assembly position in which it is assembled with the support of the ball joint housing, and - at least one rotation-blocking element configured to prevent the connecting rod from rotating out of the final assembly position, the support defining a receptacle configured to at least partially receive the connecting rod having an elongate overall shape, in the final assembly position, the receptacle comprising: a first part equipped with the ball joint housing, configured to receive a longitudinal end of the connecting rod exhibiting the orifice complementary to the ball joint housing, and a second part extending transversely with respect to the longitudinal axis of the ball joint housing, configured to receive a longitudinal portion of the connecting rod in the axial continuation of the longitudinal end, and characterised in that the second part of the receptacle has at least two opposite rotation-blocking and retaining surfaces between which the longitudinal portion of the connecting rod is configured to be received in the final assembly position. - at least one rotational-guidance element (271, 273, 275) guiding the rotation of the connecting rod about the longitudinal axis of the ball joint housing into a final assembly position, - at least one retaining element configured to collaborate with the connecting rod and keep it in the final assembly position in which it is assembled with the support of the ball joint housing, and - at least one rotation-blocking element configured to prevent the connecting rod from rotating out of the final assembly position, a first part equipped with the ball joint housing, configured to receive a longitudinal end of the connecting rod exhibiting the orifice complementary to the ball joint housing, and a second part extending transversely with respect to the longitudinal axis of the ball joint housing, configured to receive a longitudinal portion of the connecting rod in the axial continuation of the longitudinal end, and characterised in that the second part of the receptacle has at least two opposite rotation-blocking and retaining surfaces between which the longitudinal portion of the connecting rod is configured to be received in the final assembly position.
A method for radio data transmission in a radio communication system including a radio terminal apparatus and a radio base station apparatus, the method comprising: transmitting simultaneously, by the radio base station apparatus, a signal indicating a pattern for random access and data to be decoded by an asynchronous radio terminal apparatus not synchronized with the radio base station apparatus on an uplink to the asynchronous radio terminal apparatus if an event occurs where the radio base station apparatus transmits the data to the asynchronous radio terminal apparatus; and transmitting, by the asynchronous radio terminal apparatus to the radio base station apparatus via a random access channel, a reply signal generated by modulating the pattern indicated by the signal for random access based on whether or not the data has been correctly decoded, the reply signal including a first modulated pattern if the data has been correctly decoded and a second modulated pattern, different to the first modulated pattern, if the data has not been correctly decoded. transmitting simultaneously, by the radio base station apparatus, a signal indicating a pattern for random access and data to be decoded by an asynchronous radio terminal apparatus not synchronized with the radio base station apparatus on an uplink to the asynchronous radio terminal apparatus if an event occurs where the radio base station apparatus transmits the data to the asynchronous radio terminal apparatus; and transmitting, by the asynchronous radio terminal apparatus to the radio base station apparatus via a random access channel, a reply signal generated by modulating the pattern indicated by the signal for random access based on whether or not the data has been correctly decoded, the reply signal including a first modulated pattern if the data has been correctly decoded and a second modulated pattern, different to the first modulated pattern, if the data has not been correctly decoded.
A mechanical seal comprising an elastomeric member, a spring biasing means, a longitudinally floating first member comprising a seal face, a longitudinally non-floating second member and a longitudinally floating third member; the elastomeric member being in sealing engagement with the first member, second member and third members; the spring biasing means being longitudinally positioned between the first member and the second member, one of the first member and the second member being provided with at least one protruding male portion and the other of the first member and the second member being provided with corresponding female portion into which the male portion locates, characterised in that the profile of the elastomeric member comprising one or more convolutions which extend outwardly to allow the floating (4,6) to move in an axial direction, and a groove being provided on the outer surface of the second member to allow an inwardly protruding portion of the elastomeric member to engage therewith.
A system for visualizing a flow within a volume of a 3-dimensional (3-D) image, the system comprising: - a first transfer unit for applying a first transfer function, which assigns a renderable property to each location of a first plurality of locations within the volume, on the basis of a flow pattern class assigned to said location, the flow pattern class being assigned from a plurality of flow pattern classes for classifying the flow at said location; - a second transfer unit for applying a second transfer function, which assigns a renderable property to each location of a second plurality of locations within the volume, on the basis of a value of the 3-D image assigned to said location; and - a mixing unit for computing a 2-D image based on the renderable property assigned to each location of the first plurality of locations and on the renderable property assigned to each location of the second plurality of locations, wherein the plurality of flow pattern classes are defined by ranges of curvature and torsion values, and wherein the flow pattern class assigned to each location of the first plurality of locations is assigned based on curvature and torsion values of a flow curve associated with the flow at said each location, wherein said curvature and torsion values of the flow curve are calculated at said each location. - a first transfer unit for applying a first transfer function, which assigns a renderable property to each location of a first plurality of locations within the volume, on the basis of a flow pattern class assigned to said location, the flow pattern class being assigned from a plurality of flow pattern classes for classifying the flow at said location; - a second transfer unit for applying a second transfer function, which assigns a renderable property to each location of a second plurality of locations within the volume, on the basis of a value of the 3-D image assigned to said location; and - a mixing unit for computing a 2-D image based on the renderable property assigned to each location of the first plurality of locations and on the renderable property assigned to each location of the second plurality of locations, wherein the plurality of flow pattern classes are defined by ranges of curvature and torsion values, and wherein the flow pattern class assigned to each location of the first plurality of locations is assigned based on curvature and torsion values of a flow curve associated with the flow at said each location, wherein said curvature and torsion values of the flow curve are calculated at said each location.