mhurhangee/ep-ind-claims huggingface dataset:
Guide rail, in particular for guiding a guide shoe fastened to the sliding window of a motor vehicle door, this guide rail being made from an injected plastic material and comprising at least one portion having the shape of a tubular profile, which has a recess over its entire length and which is provided over at least one portion of its length with a longitudinal slot, characterised in that this tubular profile is curved in the shape of an arc of a circle, this arc of a circle being inscribed in a plane, in such a way that the outer surface of said tubular profile has a concave longitudinal zone, an opposite convex longitudinal zone and two opposite lateral longitudinal zones (15, 16), with each lateral longitudinal zone (15, 16) extending from the concave zone to the convex zone, and in that said longitudinal slot extends along one of the two lateral longitudinal zones (15, 16) or along the concave longitudinal zone.
A method for reprofiling at least one switch blade (11, 12) of a railroad switch laid in a railway track by means of at least a first machining aggregate (35, 35') held on a machining vehicle and adjustable relative thereto, with a first machining tool (33, 33'), whereby the following steps are performed: - travelling on the laid rails (5-1, 5-2) of the railway track with the machining vehicle up into the area outside of the railroad switch to be reprofiled, - spaced arrangement of the switch blade (11, 12) to be reprofiled from the stock rail (9, 10) of the rails (5-1, 5-2) which interacts with the switch blade (11, 12) in transverse direction with respect to a track axis defined by the railway track and thereby formation of a gap extending in the direction of the track axis between the stock rail (9, 10) and the switch blade (11, 12) to be reprofiled, - conveyance of the machining vehicle with its at least first machining tool (33, 33') to the switch blade (11, 12) to be reprofiled, - positioning and conveyance of at least one counterhold held on the machining vehicle within the gap formed between the stock rail (9, 10) and the switch blade (11, 12) to be reprofiled, - performance of a first machining step of the profiling by reprofiling on the switch blade (11, 12) to be reprofiled whereby the at least first machining aggregate (35, 35') with its first machining tool (33, 33') is guided along the switch blade (11, 12) to be reprofiled, and - pressing the switch blade (11, 12) to be reprofiled against the counterhold during profiling by means of at least a first machining tool (33, 33') and supporting the switch blade (11, 12) to be reprofiled on the counterhold in a transverse direction with respect to the track axis. - travelling on the laid rails (5-1, 5-2) of the railway track with the machining vehicle up into the area outside of the railroad switch to be reprofiled, - spaced arrangement of the switch blade (11, 12) to be reprofiled from the stock rail (9, 10) of the rails (5-1, 5-2) which interacts with the switch blade (11, 12) in transverse direction with respect to a track axis defined by the railway track and thereby formation of a gap extending in the direction of the track axis between the stock rail (9, 10) and the switch blade (11, 12) to be reprofiled, - conveyance of the machining vehicle with its at least first machining tool (33, 33') to the switch blade (11, 12) to be reprofiled, - positioning and conveyance of at least one counterhold held on the machining vehicle within the gap formed between the stock rail (9, 10) and the switch blade (11, 12) to be reprofiled, - performance of a first machining step of the profiling by reprofiling on the switch blade (11, 12) to be reprofiled whereby the at least first machining aggregate (35, 35') with its first machining tool (33, 33') is guided along the switch blade (11, 12) to be reprofiled, and - pressing the switch blade (11, 12) to be reprofiled against the counterhold during profiling by means of at least a first machining tool (33, 33') and supporting the switch blade (11, 12) to be reprofiled on the counterhold in a transverse direction with respect to the track axis.
A transmitting unit for transmitting a flow of indexed data packets towards a receiving unit, characterized in that said transmitting unit comprises: - a transmission status computing means adapted to sequentially update the vector components of a Transmission Status vector TSV whenever a new outgoing data packet (Dj-1) is scheduled for transmission, which TSV matching a corresponding Reception Status vector RSV at said receiving unit whose vector components are similarly updated whenever a new incoming data packet (Dj-1), the index of which is the next expected data packet index, is validly received, - a communication means adapted, upon request from said receiving unit, to transmit at least one current component value (sk,m) for respective ones of at least one vector component of said TSV, which when combined with a lastly updated vector value (sj-1) of said RSV, and with otherwise validly received data packets (Dj+1,..., Dk), allows recovering of at least one missing or corrupted data packet (Dj). - a transmission status computing means adapted to sequentially update the vector components of a Transmission Status vector TSV whenever a new outgoing data packet (Dj-1) is scheduled for transmission, which TSV matching a corresponding Reception Status vector RSV at said receiving unit whose vector components are similarly updated whenever a new incoming data packet (Dj-1), the index of which is the next expected data packet index, is validly received, - a communication means adapted, upon request from said receiving unit, to transmit at least one current component value (sk,m) for respective ones of at least one vector component of said TSV, which when combined with a lastly updated vector value (sj-1) of said RSV, and with otherwise validly received data packets (Dj+1,..., Dk), allows recovering of at least one missing or corrupted data packet (Dj).
A method comprising: maintaining, in a memory of a wireless sensing device (102, 801), information on one or more desired movement properties for a moving element of a mechanical system powered by an electrical machine which is controlled by a drive, wherein the wireless sensing device (102, 801) is a computing device comprising one or more sensors and being configured to communicate wirelessly with the drive over at least one wireless communication link, the one or more sensors comprising one or more kinematic sensors; performing, by the wireless sensing device (102, 801) being detachably fixed to the moving element of the mechanical system when the moving element is in motion, a plurality of measurements using the one or more sensors; and during the performing, comparing, by the wireless sensing device (102, 801), results of the plurality of measurements with the one or more desired movement properties and communicating, by the wireless sensing device (102, 801), with the drive over said at least one wireless communication link to adjust one or more drive parameters of the drive based on the comparing to achieve the one or more desired movement properties for the moving element. maintaining, in a memory of a wireless sensing device (102, 801), information on one or more desired movement properties for a moving element of a mechanical system powered by an electrical machine which is controlled by a drive, wherein the wireless sensing device (102, 801) is a computing device comprising one or more sensors and being configured to communicate wirelessly with the drive over at least one wireless communication link, the one or more sensors comprising one or more kinematic sensors; performing, by the wireless sensing device (102, 801) being detachably fixed to the moving element of the mechanical system when the moving element is in motion, a plurality of measurements using the one or more sensors; and during the performing, comparing, by the wireless sensing device (102, 801), results of the plurality of measurements with the one or more desired movement properties and communicating, by the wireless sensing device (102, 801), with the drive over said at least one wireless communication link to adjust one or more drive parameters of the drive based on the comparing to achieve the one or more desired movement properties for the moving element.
A computer-implemented method for outputting object recognition data by implementing a convolutional neural network, CNN, comprising: applying a depth-wise convolution to a plurality of input feature maps (411, 811) to generate a plurality of separate 2D feature maps (412, 812), wherein the plurality of input feature maps (411, 811) is associated with input image data, the plurality of input feature maps (411, 811) having n channels; applying a condense point-wise convolution to the plurality of separate 2D feature maps (412, 812) to generate a first plurality of combined feature maps (413, 813), wherein the first plurality of combined feature maps (413, 813) has a first number of channels, the first number of channels being n/g channels, where g is a condense factor that reduces the number of channels and where is greater than 1; applying an expansion point-wise convolution to the first plurality of combined feature maps (413, 813) to generate a second plurality of combined feature maps (414, 814), wherein the second plurality of combined feature maps (414, 814) has a second number of channels greater than the first number of channels, the second number of channels is equal to n channels; and outputting object recognition data corresponding to the input image data based at least in part on the second plurality of combined feature maps (414, 814). applying a depth-wise convolution to a plurality of input feature maps (411, 811) to generate a plurality of separate 2D feature maps (412, 812), wherein the plurality of input feature maps (411, 811) is associated with input image data, the plurality of input feature maps (411, 811) having n channels; applying a condense point-wise convolution to the plurality of separate 2D feature maps (412, 812) to generate a first plurality of combined feature maps (413, 813), wherein the first plurality of combined feature maps (413, 813) has a first number of channels, the first number of channels being n/g channels, where g is a condense factor that reduces the number of channels and where is greater than 1; applying an expansion point-wise convolution to the first plurality of combined feature maps (413, 813) to generate a second plurality of combined feature maps (414, 814), wherein the second plurality of combined feature maps (414, 814) has a second number of channels greater than the first number of channels, the second number of channels is equal to n channels; and outputting object recognition data corresponding to the input image data based at least in part on the second plurality of combined feature maps (414, 814).
A transmitter device for a communication system, the transmitter device being configured to obtain an information message ( m) for transmission; select a subset of columns of a projection matrix based on the information message ( m); and superpose the selected subset of columns of the projection matrix so as to obtain a signal for transmission ( z) comprising M number of transmission symbols, characterized in that the projection matrix is a concatenation of a plurality of submatrices ( F = [ F 1 F 2... F C]), wherein each sub-matrix ( F c) has M number of rows, and wherein two columns in the same sub-matrix are orthogonal, and wherein two columns belonging to different submatrices ([ F 1 F 2... F C]) have a correlation that is equal to or less than 1 / M. obtain an information message ( m) for transmission; select a subset of columns of a projection matrix based on the information message ( m); and superpose the selected subset of columns of the projection matrix so as to obtain a signal for transmission ( z) comprising M number of transmission symbols, characterized in that the projection matrix is a concatenation of a plurality of submatrices ( F = [ F 1 F 2... F C]), wherein each sub-matrix ( F c) has M number of rows, and wherein two columns in the same sub-matrix are orthogonal, and wherein two columns belonging to different submatrices ([ F 1 F 2... F C]) have a correlation that is equal to or less than 1 / M.
A method for the sterilisation of preforms made of thermoplastic material, said preforms being provided for the manufacture of blow moulded containers, characterised in that - the sterilisation is carried out after the preform has been inserted into a blowing station by applying a plasma, wherein the plasma is generated outside the preform and is introduced into the preform, and wherein, along with the blowing station, a plasma generator generating the plasma is transported in a circumferential movement by a blow moulding wheel. - the sterilisation is carried out after the preform has been inserted into a blowing station by applying a plasma, wherein the plasma is generated outside the preform and is introduced into the preform, and wherein, along with the blowing station, a plasma generator generating the plasma is transported in a circumferential movement by a blow moulding wheel.
Biomedical device for the injection of contrast means for the execution of fistulography and urethrography, comprising: - a hollow body which defines at least a chamber having an opening turned to the outside and intended to be restingly positioned on the body of a patient and a suction mouth; and - at least a cannula associated with said body, which crosses said chamber and which has at least an inlet gap and at least an outlet gap of a contrast means, said outlet gap being positionable inside the organ to be inspected; wherein the outlet gap protrudes from said opening so that it can be introduced inside said organ, the cannula being isolated from the chambre and its inlet gap and its outlet gap being placed in communication with the outside and do not therefore communicate with the chamber itself, and said cannula comprises locator means, defining a swelling, and placed along the cannula so as to define an insertion section of the cannula between the outlet gap and the locator means, the latter being able to externally rest on said body so as to prevent a further insertion of the outlet gap inside said organ, and wherein said locator means define at least a locator surface intended to contact the patient's body, characterized by the fact that said cannula is associated sliding with said body and said locator surface is arranged in proximity to said outlet gap. - a hollow body which defines at least a chamber having an opening turned to the outside and intended to be restingly positioned on the body of a patient and a suction mouth; and - at least a cannula associated with said body, which crosses said chamber and which has at least an inlet gap and at least an outlet gap of a contrast means, said outlet gap being positionable inside the organ to be inspected;
An LED lighting module comprising: - input terminals (13 hi, 13 lo) for connecting to an input voltage (U in); - an LED load arranged to be supplied by the input voltage (U in) and realized to operate at an LED nominal voltage; characterized in that the LED lighting module further comprises a regulation circuit (11, 12) realized to decrease LED current (I LED) through the LED load in a dimming way when the input voltage (U in) is greater than an upper threshold voltage level (V dim), wherein the upper threshold voltage level (V dim) is equal to or larger than the LED nominal voltage and wherein a light output is constant as long as the input voltage (U in) lies between the LED nominal voltage and the upper threshold voltage level (V dim). - input terminals (13 hi, 13 lo) for connecting to an input voltage (U in); - an LED load arranged to be supplied by the input voltage (U in) and realized to operate at an LED nominal voltage; characterized in that the LED lighting module further comprises a regulation circuit (11, 12) realized to decrease LED current (I LED) through the LED load in a dimming way when the input voltage (U in) is greater than an upper threshold voltage level (V dim), wherein the upper threshold voltage level (V dim) is equal to or larger than the LED nominal voltage and wherein a light output is constant as long as the input voltage (U in) lies between the LED nominal voltage and the upper threshold voltage level (V dim).
A method of imparting twist to an optical fiber in which, in a path where an optical fiber is reeled out from a supply bobbin, taken up by take-up means, and wound by a winding bobbin, twists are imparted to the optical fiber by a twist imparting portion, characterized in that said method includes the steps of: providing a zone where a high tension load is allowed to be applied to the optical fiber without affecting winding tension of the winding bobbin, providing a free path length of optical fiber in said zone, applying a high tension load to the optical fiber in said zone, and alternately imparting twists to the optical fiber in said zone, such that the twisting amount of the optical fiber is at least 2 turns/m, wherein the twisting amount, the free path length and the tension have the following approximate relationship: R = a x T x L b, wherein R is measured in turns/meter, L is measured in meters and T is measured in grams, and a and b are constants dependent upon easiness of twisting and swing period (velocity). providing a zone where a high tension load is allowed to be applied to the optical fiber without affecting winding tension of the winding bobbin, providing a free path length of optical fiber in said zone, applying a high tension load to the optical fiber in said zone, and alternately imparting twists to the optical fiber in said zone, such that the twisting amount of the optical fiber is at least 2 turns/m, wherein the twisting amount, the free path length and the tension have the following approximate relationship: R = a x T x L b, wherein R is measured in turns/meter, L is measured in meters and T is measured in grams, and a and b are constants dependent upon easiness of twisting and swing period (velocity).
A system for generating a vapor from a liquid comprising: a) an electric heater having a body comprising at least one sidewall that defines an interior void, at least one inner surface, at least one outer surface, and a plurality of apertures through the at least one sidewall, the electric heater comprising an electrically resistive material contained within a heat diffusing material; b) an elongate wick having a longitudinal axis, a first end, a second end, and an outer surface, the elongate wick comprising a durable elongate structure having a plurality of liquid-conducting features on the outer surface; wherein at least a portion of the liquid-conducting features of the elongate wick proximate the first end engage at least a portion of the at least one inner surface of the electric heater and at least a portion of the liquid-conducting features of the elongate wick are capable of conducting a liquid from a source proximate the second end of the wick along the outer surface of the elongate wick to the electric heater; characterized in that the liquid-conducting features comprise a plurality of longitudinally extending channels defined by longitudinally extending ribs formed on the outer surface of the elongate wick; and the elongate wick has an inner bore having a diameter disposed along its longitudinal axis and wherein the diameter of the inner bore is greater than a distance separating adjacent longitudinally extending ribs. a) an electric heater having a body comprising at least one sidewall that defines an interior void, at least one inner surface, at least one outer surface, and a plurality of apertures through the at least one sidewall, the electric heater comprising an electrically resistive material contained within a heat diffusing material; b) an elongate wick having a longitudinal axis, a first end, a second end, and an outer surface, the elongate wick comprising a durable elongate structure having a plurality of liquid-conducting features on the outer surface;
A mouse adapted to stand or lie on a supporting surface, characterized by comprising: a housing; a power source, disposed in the housing; and a power switch unit, disposed in the housing, comprising: a pivot shaft; a weight element, being adapted to pivoting on the pivot shaft, wherein the weight element pivots between a first orientation and a second orientation, and when the mouse is placed standing on the supporting surface, the weight element is in the first orientation, and when the mouse lies on the supporting surface, the weight element is in the second orientation; a first contact, disposed on the pivot shaft; and a second contact, disposed on the pivot shaft, wherein when the weight element is in the second orientation, the weight element electrically connects the first contact to the second contact to turn on the mouse. a housing; a power source, disposed in the housing; and a power switch unit, disposed in the housing, comprising: a pivot shaft; a weight element, being adapted to pivoting on the pivot shaft, wherein the weight element pivots between a first orientation and a second orientation, and when the mouse is placed standing on the supporting surface, the weight element is in the first orientation, and when the mouse lies on the supporting surface, the weight element is in the second orientation; a first contact, disposed on the pivot shaft; and a second contact, disposed on the pivot shaft, wherein when the weight element is in the second orientation, the weight element electrically connects the first contact to the second contact to turn on the mouse. a pivot shaft; a weight element, being adapted to pivoting on the pivot shaft, wherein the weight element pivots between a first orientation and a second orientation, and when the mouse is placed standing on the supporting surface, the weight element is in the first orientation, and when the mouse lies on the supporting surface, the weight element is in the second orientation; a first contact, disposed on the pivot shaft; and a second contact, disposed on the pivot shaft, wherein when the weight element is in the second orientation, the weight element electrically connects the first contact to the second contact to turn on the mouse.