mhurhangee/patent-ind-claim-en huggingface dataset:
A flame retardant composition based on ammonium polyphosphate, characterised in that the composition comprises: - as a corrosion inhibitor: a mixture comprising (a) urea, at a percentage between 3 and 10% by weight of the total weight of the composition and in aqueous solution form; (b) sodium polyphosphates with a chain length between 2 and 6; (c) Zn derivatives excluding phosphates, and, (d) triazole derivatives; - as an inorganic thickener: micronised modified sepiolite at a percentage between 1.5 and 2.5% by weight of the total weight of the composition; - as an organic thickener: granulated xanthan gum at a percentage between 0.4 and 0.8% by weight of the total weight of the composition; - as inorganic pigment dyes: derivatives from the family of iron oxides at a percentage between 0.5 and 1.5% by weight of the total weight of the composition, and; - as fugitive dyes: derivatives from the family of cochineal red dyes at a percentage between 0.2 and 0.6% by weight of the total weight of the composition. - as a corrosion inhibitor: a mixture comprising (a) urea, at a percentage between 3 and 10% by weight of the total weight of the composition and in aqueous solution form; (b) sodium polyphosphates with a chain length between 2 and 6; (c) Zn derivatives excluding phosphates, and, (d) triazole derivatives; - as an inorganic thickener: micronised modified sepiolite at a percentage between 1.5 and 2.5% by weight of the total weight of the composition; - as an organic thickener: granulated xanthan gum at a percentage between 0.4 and 0.8% by weight of the total weight of the composition; - as inorganic pigment dyes: derivatives from the family of iron oxides at a percentage between 0.5 and 1.5% by weight of the total weight of the composition, and; - as fugitive dyes: derivatives from the family of cochineal red dyes at a percentage between 0.2 and 0.6% by weight of the total weight of the composition.
A segmented rotor blade for a wind turbine , which, with respect to a longitudinal axis of the rotor blade , is formed by at least one first rotor blade segment and one second rotor blade segment , wherein the first rotor blade segment has at a first connection end a first connecting region , in particular along the longitudinal axis , and the second rotor blade segment has at a second connection end , which is associated with the first connection end , a second connecting region , in particular along the longitudinal axis , the two connecting regions are connected at a segmentation point of the rotor blade and form a common segmentation region , in the segmentation region of the rotor blade , a common outer contour of the rotor blade , which is formed by the connection of both rotor blade segments , is singly curved, wherein an ascent slope of a pre-bending of the rotor blade is constant along the longitudinal axis in the segmentation region , characterized by that the common outer contour is singly curved in the segmentation region to define only a curvature transverse to the longitudinal axis , and the segmented rotor blade has a profile thickness and a profile depth , which are constant in the segmentation region . the first rotor blade segment has at a first connection end a first connecting region , in particular along the longitudinal axis , and the second rotor blade segment has at a second connection end , which is associated with the first connection end , a second connecting region , in particular along the longitudinal axis , the two connecting regions are connected at a segmentation point of the rotor blade and form a common segmentation region , in the segmentation region of the rotor blade , a common outer contour of the rotor blade , which is formed by the connection of both rotor blade segments , is singly curved, wherein an ascent slope of a pre-bending of the rotor blade is constant along the longitudinal axis in the segmentation region , characterized by that the common outer contour is singly curved in the segmentation region to define only a curvature transverse to the longitudinal axis , and the segmented rotor blade has a profile thickness and a profile depth , which are constant in the segmentation region .
A control apparatus , comprising: a signal information recording part recording information indicating a temporal change of a time series signal output from a device; a comparison condition storage part storing information indicating a temporal change of a predetermined comparison condition; a shift part shifting one or both of the temporal change of the signal recorded in the signal information recording part and the temporal change of the comparison condition stored in the comparison condition storage part in a time axis direction to reduce a deviation in the time axis direction; and a comparison part comparing the signal with the comparison condition by using a temporal change after shifting performed by the shift part , wherein the control apparatus is characterized in that the shift part detects a characteristic portion satisfying the predetermined comparison condition in the waveform of the signal, and then, the shift part detects a time corresponding to the detected characteristic portion as a characteristic time and shifts the signal. a signal information recording part recording information indicating a temporal change of a time series signal output from a device; a comparison condition storage part storing information indicating a temporal change of a predetermined comparison condition; a shift part shifting one or both of the temporal change of the signal recorded in the signal information recording part and the temporal change of the comparison condition stored in the comparison condition storage part in a time axis direction to reduce a deviation in the time axis direction; and a comparison part comparing the signal with the comparison condition by using a temporal change after shifting performed by the shift part , wherein the control apparatus is characterized in that the shift part detects a characteristic portion satisfying the predetermined comparison condition in the waveform of the signal, and then, the shift part detects a time corresponding to the detected characteristic portion as a characteristic time and shifts the signal.
A method for training a neural network to calculate an output characterizing how strongly a particular aptamer binds to a particular target molecule for each of a plurality of SELEX rounds in an iterative SELEX process, the method comprising: obtaining data defining a plurality of sequences for aptamers, each aptamer comprising a string of nucleobases, each sequence having a respective label comprising characteristics of how strongly the respective aptamer binds to the particular target molecule for each of the plurality of SELEX rounds in the iterative SELEX process; encoding the data to generate training data for a neural network; and training the neural network on the training data, the neural network configured to output characteristics of how strongly a particular input sequence binds to the particular target molecule for each of the plurality of SELEX rounds in the iterative SELEX process, wherein the output characteristics of how strongly the aptamer binds comprises a plurality of SELEX round outputs, each SELEX round output corresponding to a respective round in the iterative SELEX process, wherein each SELEX round output characterizes how strongly the aptamer binds to the particular target molecule for the corresponding SELEX round. obtaining data defining a plurality of sequences for aptamers, each aptamer comprising a string of nucleobases, each sequence having a respective label comprising characteristics of how strongly the respective aptamer binds to the particular target molecule for each of the plurality of SELEX rounds in the iterative SELEX process; encoding the data to generate training data for a neural network; and training the neural network on the training data, the neural network configured to output characteristics of how strongly a particular input sequence binds to the particular target molecule for each of the plurality of SELEX rounds in the iterative SELEX process, wherein the output characteristics of how strongly the aptamer binds comprises a plurality of SELEX round outputs, each SELEX round output corresponding to a respective round in the iterative SELEX process, wherein each SELEX round output characterizes how strongly the aptamer binds to the particular target molecule for the corresponding SELEX round.
A video and/or image projecting structure comprising: a first transparent layer having a surface on which random irregularities are formed; a reflection layer formed on the surface of the first transparent layer ; and a second transparent layer formed on the reflection layer , characterized in that an average roughness Ra of the irregularities of the first transparent layer satisfies less than or equal to 1.2 μm and greater than or equal to 0.01 μm, wherein an autocorrelation r of the random irregularities expressed by Equation 7, after obtaining an extreme value when a degree h is changed from 0 to positive or negative, is less than or equal to 0.7, r = ∑ n = 1 N z x n − z m z x n + h − z m ∑ n = 1 N z x n − z m 2 wherein: x n represents the coordinate of a plane parallel to a main plane of the first transparent layer ; z ( x n ) represents the heights of the irregularities of the coordinates x n ; z m represents the average value of the height in the measuring range; N represents a positive integer; and n represents integers from 1 to N. a first transparent layer having a surface on which random irregularities are formed; a reflection layer formed on the surface of the first transparent layer ; and a second transparent layer formed on the reflection layer , characterized in that an average roughness Ra of the irregularities of the first transparent layer satisfies less than or equal to 1.2 μm and greater than or equal to 0.01 μm, wherein an autocorrelation r of the random irregularities expressed by Equation 7, after obtaining an extreme value when a degree h is changed from 0 to positive or negative, is less than or equal to 0.7, r = ∑ n = 1 N z x n − z m z x n + h − z m ∑ n = 1 N z x n − z m 2 wherein: x n represents the coordinate of a plane parallel to a main plane of the first transparent layer ; z ( x n ) represents the heights of the irregularities of the coordinates x n ; z m represents the average value of the height in the measuring range; N represents a positive integer; and n represents integers from 1 to N. x n represents the coordinate of a plane parallel to a main plane of the first transparent layer ; z ( x n ) represents the heights of the irregularities of the coordinates x n ; z m represents the average value of the height in the measuring range; N represents a positive integer; and n represents integers from 1 to N.
An assembly, the assembly comprising: a droplet formation module comprising a sample inlet connected to a channel at a junction, wherein the channel is connected to a second inlet suitable for an immiscible fluid, wherein the droplet formation module is configured to produce a plurality of droplets comprising a sample surrounded by the immiscible fluid; and a separation chamber in fluid communication with the droplet formation module via an inlet from the channel , wherein the separation chamber is configured to receive the droplets and the immiscible fluid via the channel, wherein the separation chamber comprises a droplet receiving outlet positioned at an upper portion of the separation chamber to collect rising droplets, characterized in that the droplet receiving outlet is in fluid connection with a proximal end of a slide , wherein the proximal end of the slide is higher than a distal end of the slide , wherein the slide is configured to carry droplets from the outlet to an output nozzle 807 on the distal end of the slide to facilitate collection of the droplets in a connected PCR tube . a droplet formation module comprising a sample inlet connected to a channel at a junction, wherein the channel is connected to a second inlet suitable for an immiscible fluid, wherein the droplet formation module is configured to produce a plurality of droplets comprising a sample surrounded by the immiscible fluid; and a separation chamber in fluid communication with the droplet formation module via an inlet from the channel , wherein the separation chamber is configured to receive the droplets and the immiscible fluid via the channel, wherein the separation chamber comprises a droplet receiving outlet positioned at an upper portion of the separation chamber to collect rising droplets, characterized in that the droplet receiving outlet is in fluid connection with a proximal end of a slide , wherein the proximal end of the slide is higher than a distal end of the slide , wherein the slide is configured to carry droplets from the outlet to an output nozzle 807 on the distal end of the slide to facilitate collection of the droplets in a connected PCR tube .
Gas hotplate having a gas burner which comprises an inner burner and at least one outer burner , and a gas supply unit which is designed such that - in a first power range of the gas burner the gas flow to the inner burner is at least temporarily open and the gas flow to the outer burner is interrupted, and that - in a second power range of the gas burner the gas flow to the inner burner is continuously open and the gas flow to the outer burner is at least temporarily open and the open gas flow to the outer burner is varied to adjust the burner power between a minimum value and a maximum value, in the second power range of the gas burner the gas flow to the inner burner is additionally also varied between a minimum value and a maximum value to adjust the burner power, and that the second power range comprises a first power stage and a second power stage ; characterised in that the first power range and the second power range merge into one another, and that in the first stage the gas flow to the inner burner is adjusted to a smaller value than in other stages of the second power range , such that in the first power stage a power output of the gas burner is achieved overall which is greater than a greatest power within the first power range and smaller than an overall power of the gas burner in the second power stage . - in a first power range of the gas burner the gas flow to the inner burner is at least temporarily open and the gas flow to the outer burner is interrupted, and that - in a second power range of the gas burner the gas flow to the inner burner is continuously open and the gas flow to the outer burner is at least temporarily open and the open gas flow to the outer burner is varied to adjust the burner power between a minimum value and a maximum value,
A superabsorbent material comprising agar, carrageenan, and konjac gum, wherein the agar, the carrageenan, and the konjac gum form a porous structure without any chemical cross-linking, and wherein the superabsorbent material is prepared by a method comprising the steps of: adding agar, carrageenan, and konjac gum to water to form a mixture; heating the mixture to a temperature of between 80 oC and 100 oC until carrageenan and konjac gum are completely dissolved; allowing the mixture to cool to form a gel; freezing the gel; and drying the gel to obtain the superabsorbent material. adding agar, carrageenan, and konjac gum to water to form a mixture; heating the mixture to a temperature of between 80 oC and 100 oC until carrageenan and konjac gum are completely dissolved; allowing the mixture to cool to form a gel; freezing the gel; and drying the gel to obtain the superabsorbent material.
A robot system, comprising: a robotic arm having an end effector configured to perform a work to a work object; a memory part storing information that causes the end effector to move as scheduled route information; a motion controller configured to operate the robotic arm by using the scheduled route information to move the end effector ; a camera configured to image the work object; an image generator configured to generate a synthesized image by synthesizing a scheduled route of the end effector obtained from the scheduled route information with a captured image sent from the camera , wherein the image generator uses the captured image sent from the camera as the background, and superimposes the scheduled route of the tip-end part of the end effector on the captured image; and a monitor configured to display the synthesized image, characterized by a route correcting device configured to generate, by being manipulated by an operator manipulating the route correcting device , manipulating information to correct a route of the end effector during movement on real time. a robotic arm having an end effector configured to perform a work to a work object; a memory part storing information that causes the end effector to move as scheduled route information; a motion controller configured to operate the robotic arm by using the scheduled route information to move the end effector ; a camera configured to image the work object; an image generator configured to generate a synthesized image by synthesizing a scheduled route of the end effector obtained from the scheduled route information with a captured image sent from the camera , wherein the image generator uses the captured image sent from the camera as the background, and superimposes the scheduled route of the tip-end part of the end effector on the captured image; and a monitor configured to display the synthesized image, characterized by a route correcting device configured to generate, by being manipulated by an operator manipulating the route correcting device , manipulating information to correct a route of the end effector during movement on real time.
A method for isolating gold from a gold-bearing material, comprising: adding HX and an acid to the gold-bearing material to form a first dissolved gold solution; adding a base to the first dissolved gold solution to form a second dissolved gold solution; adding a cyclodextrin (CD) to the second dissolved gold solution to form a precipitate in the second dissolved gold solution; and isolating the precipitate from the second dissolved gold solution, wherein HX comprises a hydrogen halide and the precipitate comprises a gold-cyclodextrin complex. adding HX and an acid to the gold-bearing material to form a first dissolved gold solution; adding a base to the first dissolved gold solution to form a second dissolved gold solution; adding a cyclodextrin (CD) to the second dissolved gold solution to form a precipitate in the second dissolved gold solution; and isolating the precipitate from the second dissolved gold solution, wherein HX comprises a hydrogen halide and the precipitate comprises a gold-cyclodextrin complex.
A sphygmomanometer cuff for a wearable sphygmomanometer comprising a cuff body for wrapping around a predetermined portion of a body, the cuff body comprising an air bag , a retaining plate and an air tube ; the air bag comprising a top layer and a bottom layer , a sealed cavity being defined between the top layer and the bottom layer ; the retaining plate attached to an outer surface of the top layer of the air bag ; the air tube extending through the retaining plate and connecting with the sealed cavity of the air bag , wherein an intermediate layer is disposed between the top layer and the bottom layer and separates the top layer and the bottom layer , and the intermediate layer has a rough surface; characterized in that the retaining plate is suitable for securing a sphygmomanometer to the cuff body; and a bottom surface of the retaining plate is arcuate, the bottom surface recesses toward a top surface of the retaining plate , a plurality of securing feet are formed intermittently on a bottom of the retaining plate and intermittently contact the outer surface of the top layer of the air bag , and a plurality of interspaces are formed between any two of the securing feet at the bottom of the retaining plate and the outer surface of the top layer .
Pipe construction , preferably for integration into an exhaust system of a vehicle, comprising: a pipe for guiding a fluid, preferably for guiding an exhaust gas of an internal combustion engine, wherein the pipe comprises a pipe cross-section ; and at least one collecting pipe , wherein the at least one collecting pipe is arranged in the pipe cross-section and comprises two open pipe ends and at least one opening for extracting fluid from the pipe cross-section and preferably extends over the entire pipe cross-section , and a collection chamber which is fluidically connected to the two open pipe ends and via which extracted fluid can be supplied to a measuring device , characterized in that the collection chamber is arranged outside the pipe and a first of the two pipe ends is fluidically connected to the collection chamber at a first region of the pipe cross section , and a second of the two pipe ends is fluidically connected to the collection chamber at a second region of the pipe cross section , which is located opposite the first region. a pipe for guiding a fluid, preferably for guiding an exhaust gas of an internal combustion engine, wherein the pipe comprises a pipe cross-section ; and at least one collecting pipe , wherein the at least one collecting pipe is arranged in the pipe cross-section and comprises two open pipe ends and at least one opening for extracting fluid from the pipe cross-section and preferably extends over the entire pipe cross-section , and a collection chamber which is fluidically connected to the two open pipe ends and via which extracted fluid can be supplied to a measuring device , characterized in that the collection chamber is arranged outside the pipe and a first of the two pipe ends is fluidically connected to the collection chamber at a first region of the pipe cross section , and a second of the two pipe ends is fluidically connected to the collection chamber at a second region of the pipe cross section , which is located opposite the first region.
An artificial cement based ultrahigh performance stone, comprising: a cement-based plate body , wherein the plate body is made from a main ingredient of cement, silica fume, aggregate, and water reducing agent, and prepared with a characteristic of ultra-high-performance concrete by main means about strong vibration, strong pressure and vacuum; a mesh embedded in the plate body ; a nut arranged on the mesh , wherein a screw mouth of the nut is exposed on a back of the plate body , wherein the back of the plate body is provided with regular or irregular protrusions, and wherein a groove between any two protrusions is close to the mesh .