mhurhangee/patent-ind-claim-en huggingface dataset:
A hydroelectric power plant for converting hydrostatic water pressure into electric energy, the hydroelectric power plant comprising: - a supply water pipe - two support structures for the hydroelectric power plant - troughs moving to the same direction between the support structures , the troughs being open from one side and configured to move in a closed circle essentially in vertical direction, the troughs being configured to be filled with water in a top dead centre of the vertical movement of the troughs and to be drained from water in a bottom dead centre of the vertical movement of the troughs - bearing means (23a, 23b, 23d, 24a1, 24a2) for attaching an individual trough in an articulated manner to at least two parallel chains - at least two parallel chains , parallel gearwheels and rotating shafts , wherein the parallel chains are installed to said parallel gearwheels , which are installed in a fixed manner to said rotating shafts so that the vertical movement of the parallel chains is configured to rotate the gearwheels supporting these and said rotating shafts - a first end of the rotating shafts is bearing-mounted to a first support structure of the hydroelectric power plant and a second end to a second support structure , and - a stator shaft of an electric generator is attached to at least one rotating shaft , characterized in that at least at the first end of each rotating shaft there are provided load relief gearwheels , which are configured to rotate together by means of auxiliary gearwheels for reducing the load of the parallel chains moving in the vertical direction. - a supply water pipe - two support structures for the hydroelectric power plant - troughs moving to the same direction between the support structures , the troughs being open from one side and configured to move in a closed circle essentially in vertical direction, the troughs being configured to be filled with water in a top dead centre of the vertical movement of the troughs and to be drained from water in a bottom dead centre of the vertical movement of the troughs - bearing means (23a, 23b, 23d, 24a1, 24a2) for attaching an individual trough in an articulated manner to at least two parallel chains - at least two parallel chains , parallel gearwheels and rotating shafts , wherein the parallel chains are installed to said parallel gearwheels , which are installed in a fixed manner to said rotating shafts so that the vertical movement of the parallel chains is configured to rotate the gearwheels supporting these and said rotating shafts - a first end of the rotating shafts is bearing-mounted to a first support structure of the hydroelectric power plant and a second end to a second support structure , and - a stator shaft of an electric generator is attached to at least one rotating shaft , characterized in that at least at the first end of each rotating shaft there are provided load relief gearwheels , which are configured to rotate together by means of auxiliary gearwheels for reducing the load of the parallel chains moving in the vertical direction.
Control method for a hand-held drilling/chiselling power tool for working a substrate by means of a drill , the hand-held power tool having a tool holder for holding a drill on a working axis , a rotary drive for turning the tool holder about the working axis and a striking mechanism for exerting impacts on the drill , comprising the step of: overlaying a periodic striking of the drill with a number of impacts and the turning of the tool holder with a rotational speed in a rotating direction, characterized by the steps of: determining by means of a sensor of the hand-held power tool a material of the substrate worked by the drill , setting the rotational speed and/or rotating direction on the basis of the material determined, the rotational speed being set to a first value and a first rotating direction being set in the case of an iron-based material, the rotational speed being set to a second value and a second rotating direction being set in the case of a mineral material and the first value being lower than the second value and/or the first rotating direction being anticlockwise and the second rotating direction being clockwise. overlaying a periodic striking of the drill with a number of impacts and the turning of the tool holder with a rotational speed in a rotating direction, characterized by the steps of: determining by means of a sensor of the hand-held power tool a material of the substrate worked by the drill , setting the rotational speed and/or rotating direction on the basis of the material determined, the rotational speed being set to a first value and a first rotating direction being set in the case of an iron-based material, the rotational speed being set to a second value and a second rotating direction being set in the case of a mineral material and the first value being lower than the second value and/or the first rotating direction being anticlockwise and the second rotating direction being clockwise. determining by means of a sensor of the hand-held power tool a material of the substrate worked by the drill , setting the rotational speed and/or rotating direction on the basis of the material determined, the rotational speed being set to a first value and a first rotating direction being set in the case of an iron-based material, the rotational speed being set to a second value and a second rotating direction being set in the case of a mineral material and the first value being lower than the second value and/or the first rotating direction being anticlockwise and the second rotating direction being clockwise.
A method for receiving data in a first wireless network and transmitting data in at least a second wireless network, the method comprising: receiving, by a receiver of a wireless communication device, a channel of a first wireless network when a transmitter of the wireless communication device is transmitting to a second wireless network; determining a first condition for the received channel of the first wireless network when the transmitter for the second wireless network is transmitting ; determining a second condition for the received channel when the transmitter for the second wireless network is not transmitting ; determining a difference between the first condition and the second condition ; and in response to determining that the difference between the first condition and the second condition exceeds a predetermined threshold, modifying transmission characteristics for the transmitter for the second wireless network , wherein determining the first condition for the received channel of the first wireless network further comprises determining the first condition when the transmitter for the second wireless network and a transmitter for the first wireless network are both transmitting. receiving, by a receiver of a wireless communication device, a channel of a first wireless network when a transmitter of the wireless communication device is transmitting to a second wireless network; determining a first condition for the received channel of the first wireless network when the transmitter for the second wireless network is transmitting ; determining a second condition for the received channel when the transmitter for the second wireless network is not transmitting ; determining a difference between the first condition and the second condition ; and in response to determining that the difference between the first condition and the second condition exceeds a predetermined threshold, modifying transmission characteristics for the transmitter for the second wireless network , wherein determining the first condition for the received channel of the first wireless network further comprises determining the first condition when the transmitter for the second wireless network and a transmitter for the first wireless network are both transmitting.
Functional electrical stimulation system allowing to offer coordinated and natural movements for people or animals with motor system damage, wherein the functional electrical stimulation system includes at least one electrical stimulation device and at least one sensing device , characterized in that : - the at least one electrical stimulation device is configured to deliver a configurable electrostimulation signal to form dynamic stimulation curves through at least one stimulation channel by means of repositionable electrodes , and further comprises at least one main processor , which communicates with a communication unit , with a high voltage generator and with a current controller , which are powered by a first power source ; - the at least one sensing device is bi-directionally connected to the electrical stimulation device , wherein the sensing device comprises at least one processor connected to a communication unit and at least one set of independent sensors for collecting information, fed by a second power source ; wherein the sensing device is configured to process and transmit said information to predictively stimulate according to the user needs; and wherein the functional electrical stimulation system further comprises: - a computational device bi-directionally connected to the electrical stimulation device , wherein the computational device comprises a display screen , a configuration unit and a communication unit in communication with the electrical stimulation device . - the at least one electrical stimulation device is configured to deliver a configurable electrostimulation signal to form dynamic stimulation curves through at least one stimulation channel by means of repositionable electrodes , and further comprises at least one main processor , which communicates with a communication unit , with a high voltage generator and with a current controller , which are powered by a first power source ; - the at least one sensing device is bi-directionally connected to the electrical stimulation device , wherein the sensing device comprises at least one processor connected to a communication unit and at least one set of independent sensors for collecting information, fed by a second power source ; wherein the sensing device is configured to process and transmit said information to predictively stimulate according to the user needs; - a computational device bi-directionally connected to the electrical stimulation device , wherein the computational device comprises a display screen , a configuration unit and a communication unit in communication with the electrical stimulation device .
A homopolypropylene resin for non-woven fabric, wherein the homopolypropylene resin has tacticity of 80 % to 87 %, molecular weight distribution of 2.4 or less, melt index of 20 g/10min to 30 g/10min, melting point of 145 °C or less, and residual stress rate of 0.05 % or less, wherein the tacticity is measured through NMR analysis using a hexachlorobutadiene solution based on tetramethylsilane, and calculating the rate of the area of the peaks appearing at 21.0 ppm to 21.9 ppm to the entire area of the peaks appearing at 19.5 ppm to 21.9 ppm; the molecular weight distribution is measured by measuring the weight average molecular weight (Mw) and number average molecular weight (Mn) of homopolypropylene resin, respectively, using gel permeation chromatography (GPC), and calculating the rate of the weight average molecular weight to the number average molecular weight (Mw/Mn); wherein the melt index is measured measured at 230 °C under load of 2.16 kg according to ASTM D 1238; the melting point is measured by increasing the temperature of the homopolypropylene resin to 220 °C, maintaining that temperature for 5 minutes, decreasing temperature to 20 °C, and then, increasing temperature again, and defining the top of the DSC curve as the melting point; and the residual stress rate is a value measured according to the following Calculation Formula 1: Residual stress rate = RS 1 / RS 0 × 100 In the Calculation Formula 1, RS 0 is residual stress at one time point (t 0 ) of less than 0.05 seconds after applying 200 % strain to the homopolypropylene resin, and RS 1 is residual stress at one time point (t 1 ) between 0.05 seconds to 1.50 seconds after applying 200 % strain to the homopolypropylene resin. wherein the tacticity is measured through NMR analysis using a hexachlorobutadiene solution based on tetramethylsilane, and calculating the rate of the area of the peaks appearing at 21.0 ppm to 21.9 ppm to the entire area of the peaks appearing at 19.5 ppm to 21.9 ppm; the molecular weight distribution is measured by measuring the weight average molecular weight (Mw) and number average molecular weight (Mn) of homopolypropylene resin, respectively, using gel permeation chromatography (GPC), and calculating the rate of the weight average molecular weight to the number average molecular weight (Mw/Mn); wherein the melt index is measured measured at 230 °C under load of 2.16 kg according to ASTM D 1238; the melting point is measured by increasing the temperature of the homopolypropylene resin to 220 °C, maintaining that temperature for 5 minutes, decreasing temperature to 20 °C, and then, increasing temperature again, and defining the top of the DSC curve as the melting point; and the residual stress rate is a value measured according to the following Calculation Formula 1: Residual stress rate = RS 1 / RS 0 × 100 In the Calculation Formula 1, RS 0 is residual stress at one time point (t 0 ) of less than 0.05 seconds after applying 200 % strain to the homopolypropylene resin, and RS 1 is residual stress at one time point (t 1 ) between 0.05 seconds to 1.50 seconds after applying 200 % strain to the homopolypropylene resin.
A convex stoma chassis comprising a rubber disc , a plastic part fixed on the rubber disc, and a hot melt adhesive connected between the rubber disc and the plastic part; wherein the rubber disc comprises a convex surface , a concave backing corresponding to the convex surface, a hydrocolloid positioned in the concave backing, and a release film connected with the convex surface; a welding ring is disposed between the plastic part and the concave backing.
A cabinet, in particular a safety cabinet, with at least one swing-leaf door and with a spring element which is connected to the swing-leaf door and acts upon the latter at least in the direction of the closed position, wherein the spring element is lockable in at least one predefined open position of the swing-leaf door and, after the locking has been removed by an operator, serves for automatic closing of the door, wherein - the spring element is connected by means of a pull/push rod to a connecting element which is mounted displaceably in guides and arranged in the region of a ceiling wall and which in turn is coupled to the at least one swing-leaf door , wherein - the connecting element formed as a cross-beam extending between the guides is able to carry out linear movements in the transverse direction of the ceiling wall with the aid of the guides , wherein further - a push rod connected to the swing-leaf door is coupled to a cantilever of the connecting element , wherein further - the spring element is mounted displaceably along a spring element guide which extends substantially perpendicular to the direction of movement of the connecting element and is arranged parallel to the extent of the connecting element between the two guides , and wherein - opening of the swing-leaf door compresses the spring element along the spring member guide , whereby the spring element is released from one or both of the end stops of the spring element guide and can be displaced along the spring element guide . - the spring element is connected by means of a pull/push rod to a connecting element which is mounted displaceably in guides and arranged in the region of a ceiling wall and which in turn is coupled to the at least one swing-leaf door , wherein - the connecting element formed as a cross-beam extending between the guides is able to carry out linear movements in the transverse direction of the ceiling wall with the aid of the guides , wherein further - a push rod connected to the swing-leaf door is coupled to a cantilever of the connecting element , wherein further - the spring element is mounted displaceably along a spring element guide which extends substantially perpendicular to the direction of movement of the connecting element and is arranged parallel to the extent of the connecting element between the two guides , and wherein - opening of the swing-leaf door compresses the spring element along the spring member guide , whereby the spring element is released from one or both of the end stops of the spring element guide and can be displaced along the spring element guide .
Support for a frame of a photovoltaic panel, the support comprising: - a body having an upper wall that is equipped with a recess suited to receive a part of a flange system to attach one or more photovoltaic panels to the support and a lower wall that is suited to face a crest of a corrugation of a corrugated shell ; - two wings , delimiting a passage allowing for the positioning of the wings of the support supported on opposite sides of a corrugation of the shell ; characterised in that : the body of the support has a height between 80 and 160 mm. - a body having an upper wall that is equipped with a recess suited to receive a part of a flange system to attach one or more photovoltaic panels to the support and a lower wall that is suited to face a crest of a corrugation of a corrugated shell ; - two wings , delimiting a passage allowing for the positioning of the wings of the support supported on opposite sides of a corrugation of the shell ;
A 3-dimensional printing system, comprising: a powder bed comprising an amorphous polymer powder; a fluid jet printer comprising a reservoir of a coalescent fluid comprising a viscosity reducing agent, said reservoir fluidly coupled to a fluid ejector configured to print the coalescent fluid onto the powder bed, wherein the viscosity reducing agent is present in an amount from 2 wt% to 100 wt%, with respect to the total weight of the coalescent fluid; and wherein the viscosity reducing agent lowers the viscosity of the amorphous polymer powder; and an electromagnetic radiation fusing source to emit electromagnetic radiation sufficient to fuse amorphous polymer powder that has been printed with the coalescent fluid; wherein the fluid jet printer further comprises a reservoir of a thermal coalescent fluid comprising a thermal fusing agent capable of absorbing electromagnetic radiation to produce heat, said reservoir of thermal coalescent fluid fluidly coupled to a second fluid ejector configured to print the thermal coalescent fluid onto the powder bed; wherein the thermal fusing agent is present in an amount of 0.1 wt% to 20 wt% of the thermal coalescent fluid. a powder bed comprising an amorphous polymer powder; a fluid jet printer comprising a reservoir of a coalescent fluid comprising a viscosity reducing agent, said reservoir fluidly coupled to a fluid ejector configured to print the coalescent fluid onto the powder bed, wherein the viscosity reducing agent is present in an amount from 2 wt% to 100 wt%, with respect to the total weight of the coalescent fluid; and wherein the viscosity reducing agent lowers the viscosity of the amorphous polymer powder; and an electromagnetic radiation fusing source to emit electromagnetic radiation sufficient to fuse amorphous polymer powder that has been printed with the coalescent fluid; wherein the fluid jet printer further comprises a reservoir of a thermal coalescent fluid comprising a thermal fusing agent capable of absorbing electromagnetic radiation to produce heat, said reservoir of thermal coalescent fluid fluidly coupled to a second fluid ejector configured to print the thermal coalescent fluid onto the powder bed; wherein the thermal fusing agent is present in an amount of 0.1 wt% to 20 wt% of the thermal coalescent fluid.
A ceramic resin composite housing, comprising a ceramic member and a resin member that is molded on the ceramic member through injection molding, wherein a surface that is of the ceramic member and that is bonded with the resin member comprises a plurality of long-strip-shaped holes extending from the surface to the inside of the ceramic member; the long-strip-shaped holes have an open hole structure; characterised in that pore sizes of the long-strip-shaped holes range from 700 nm to 500 μm, and lengths of at least some of the long-strip-shaped holes are greater than 100 μm and less than or equal to 1000 μm; and the long-strip-shaped holes are filled with a resin material that constitutes the resin member. a surface that is of the ceramic member and that is bonded with the resin member comprises a plurality of long-strip-shaped holes extending from the surface to the inside of the ceramic member; the long-strip-shaped holes have an open hole structure; characterised in that pore sizes of the long-strip-shaped holes range from 700 nm to 500 μm, and lengths of at least some of the long-strip-shaped holes are greater than 100 μm and less than or equal to 1000 μm; and the long-strip-shaped holes are filled with a resin material that constitutes the resin member.
A method for performing automatic exposure control, AEC, comprising: capturing a first digital image of a scene using an image sensor while applying a first set of values to one or more exposure control parameters; performing at least one computer vision, CV, operation using image data from the first digital image, thereby generating a first set of CV features extracted from the first digital image, wherein the first set of CV features are from a set of possible CV features; obtaining a mask comprising a value for each feature of the set of possible CV features, wherein either the mask comprises binary values and wherein said binary mask identifies a subset of the set of possible CV features relevant to a particular classifier, or wherein the mask comprises real values representing different weights for each feature of the set of possible CV features; using the mask, obtaining a first measure of abundance of relevant CV features among the first set of CV features extracted from the first digital image; and based on the first measure of abundance of relevant CV features, generating an updated set of values for applying to the one or more exposure control parameters for capturing a subsequent digital image of the scene. capturing a first digital image of a scene using an image sensor while applying a first set of values to one or more exposure control parameters; performing at least one computer vision, CV, operation using image data from the first digital image, thereby generating a first set of CV features extracted from the first digital image, wherein the first set of CV features are from a set of possible CV features; obtaining a mask comprising a value for each feature of the set of possible CV features, wherein either the mask comprises binary values and wherein said binary mask identifies a subset of the set of possible CV features relevant to a particular classifier, or wherein the mask comprises real values representing different weights for each feature of the set of possible CV features; using the mask, obtaining a first measure of abundance of relevant CV features among the first set of CV features extracted from the first digital image; and based on the first measure of abundance of relevant CV features, generating an updated set of values for applying to the one or more exposure control parameters for capturing a subsequent digital image of the scene.