mhurhangee/patent-ind-claim-en huggingface dataset:
Hydraulic cylinder comprising a valve device and comprising a first cylinder port (A) for connection to the valve device attached to the hydraulic cylinder, the valve device comprising a first cylinder port connection (A') for connection to the first cylinder port (A) on the hydraulic cylinder , the first cylinder port connection (A') being arranged such that it is optionally connected, via a directional valve of the valve device , to a first pressure connection (P1) on the pressure side (P) of a pressure supply means, such as a hydraulic pump, or to a first tank connection (T1) to a tank (T), the valve device containing a first cylindrical opening for encompassing a cylindrical connection element , characterised in that the cylindrical connection element comprises a first radial fluid opening in the form of a radial hole which is connected to the first cylinder port (A), in that the cylindrical opening contains the first cylinder port connection (A') on the inside, and in that at least two seals are arranged such that they close the first radial fluid opening in a sealed manner, on both sides, such that a sealed connection results between the first cylinder port connection (A') and the first radial fluid opening when the cylindrical connection element is inserted into the first cylindrical opening , in that the hydraulic cylinder comprises a connection pipe that is rigidly connected, at the first end thereof, to the first cylinder port (A) and the cylindrical connection element comprises at least one radial hole which leads into a part of the cylindrical connection element of the hydraulic cylinder, said part leading to the first end of the connection pipe , in that the radial hole is connected to an encompassing element in the valve device said element containing, on the inside, the first cylinder port connection (A') for encompassing connection to the radial hole of the cylindrical connection element .
A system for localizing a body structure in dosimetry of a target tissue or organ , said system comprising: an ultrasound probe for sweeping a field of view of said target tissue or organ ; a medical tool comprising at least one embedded ultrasound sensor for insertion in said body structure ; and a controller for determining locations of the at least one ultrasound sensor based on output signals of said at least one ultrasound sensor during said sweeping and for delineating a course of said body structure based on the determined locations of said at least one ultrasound sensor . an ultrasound probe for sweeping a field of view of said target tissue or organ ; a medical tool comprising at least one embedded ultrasound sensor for insertion in said body structure ; and a controller for determining locations of the at least one ultrasound sensor based on output signals of said at least one ultrasound sensor during said sweeping and for delineating a course of said body structure based on the determined locations of said at least one ultrasound sensor .
A method of uniquely identifying and quantifying n single protein molecules, comprising providing n single protein molecules in a mixture of protein molecules, wherein the single protein molecules are conjugated to a substrate and spatially separated such that each individual protein molecule has a unique, optically resolvable, spatial address, each protein being assigned an indexed address by coordinates; iteratively applying m affinity reagents to the substrate, wherein n is larger than m, and wherein the affinity reagents are modified to have attached detection moieties; determining the binding addresses for each modified affinity reagent applying a software tool to determine the most likely identity of each protein at each coordinate of the substrate from information about which affinity reagents bound to the coordinate, wherein the software comprises a machine learning algorithm. providing n single protein molecules in a mixture of protein molecules, wherein the single protein molecules are conjugated to a substrate and spatially separated such that each individual protein molecule has a unique, optically resolvable, spatial address, each protein being assigned an indexed address by coordinates; iteratively applying m affinity reagents to the substrate, wherein n is larger than m, and wherein the affinity reagents are modified to have attached detection moieties; determining the binding addresses for each modified affinity reagent applying a software tool to determine the most likely identity of each protein at each coordinate of the substrate from information about which affinity reagents bound to the coordinate, wherein the software comprises a machine learning algorithm.
Combination of a transmission and a device for blocking the transmission with at least one shaft and at least one locking wheel coaxially arranged on the shaft, wherein the locking wheel coaxially arranged on the shaft is connected by a rotationally flexible connection to the shaft of the transmission to be blocked , characterized in that the rotationally flexible connection between the locking wheel and shaft is a hollow shaft , wherein either - the shaft is a drive shaft of the transmission , and the locking wheel is coaxially arranged by the rotationally flexible hollow shaft on the drive shaft of the transmission and the hollow shaft is rotationally fixedly connected to a drive pinion of a first spur gear stage , the drive pinion being arranged on the drive shaft of the transmission , or - the shaft is an intermediate shaft of the transmission and the locking wheel is coaxially arranged by the rotationally flexible hollow shaft on the intermediate shaft of the transmission and the hollow shaft is rotationally fixedly connected to a spur gear of a first spur gear stage of the transmission , the spur gear being arranged on the intermediate shaft of the transmission . - the shaft is a drive shaft of the transmission , and the locking wheel is coaxially arranged by the rotationally flexible hollow shaft on the drive shaft of the transmission and the hollow shaft is rotationally fixedly connected to a drive pinion of a first spur gear stage , the drive pinion being arranged on the drive shaft of the transmission , or - the shaft is an intermediate shaft of the transmission and the locking wheel is coaxially arranged by the rotationally flexible hollow shaft on the intermediate shaft of the transmission and the hollow shaft is rotationally fixedly connected to a spur gear of a first spur gear stage of the transmission , the spur gear being arranged on the intermediate shaft of the transmission .
Irrigation system for an at least partially overbuilt plant, in particular a tree, having: - at least one gutter body which has a gutter in which precipitation water is received and passed on in the region of the plant, - a cleaning device for cleaning the precipitation water, which cleaning device is connected to the gutter of the gutter body in a fluid-communicating manner such that the precipitation water is fed to the cleaning device , - a container for storing the cleaned precipitation water, which container is connected to the cleaning device in a fluid-communicating manner such that precipitation water is fed to said container, and - at least one irrigation outlet for watering the plant, which irrigation outlet is connected in a fluid-communicating manner to the container such that the stored precipitation water can escape therefrom for watering the plant, - wherein at least one flow limiter is arranged in the fluidly communicating connection between the container and the at least one irrigation outlet , which flow limiter limits the flow of the stored precipitation water to a maximum value, wherein - the flow limiter is adjustable with respect to its maximum value and - the flow limiter is mechanically adjustable with respect to its maximum value due to the fact that the flow limiter is designed as a valve. - at least one gutter body which has a gutter in which precipitation water is received and passed on in the region of the plant, - a cleaning device for cleaning the precipitation water, which cleaning device is connected to the gutter of the gutter body in a fluid-communicating manner such that the precipitation water is fed to the cleaning device , - a container for storing the cleaned precipitation water, which container is connected to the cleaning device in a fluid-communicating manner such that precipitation water is fed to said container, and - at least one irrigation outlet for watering the plant, which irrigation outlet is connected in a fluid-communicating manner to the container such that the stored precipitation water can escape therefrom for watering the plant, - wherein at least one flow limiter is arranged in the fluidly communicating connection between the container and the at least one irrigation outlet , which flow limiter limits the flow of the stored precipitation water to a maximum value, - the flow limiter is adjustable with respect to its maximum value and - the flow limiter is mechanically adjustable with respect to its maximum value due to the fact that the flow limiter is designed as a valve.
A medical information processing apparatus comprising: an image control section that is configured to control processing of a captured image from a camera; and an arm control section that is configured to control a motion of an arm section that supports the camera, wherein one of the image control section and the arm control section is configured to execute control on a basis of control information from another control section ; wherein the image control section is configured to send an enlargement instruction to the camera, and when the image control section determines that enlargement by movement of the arm section is more suitable than enlargement by the camera, the image control section is configured to send control information for controlling the arm section to the arm control section; wherein the enlargement by the camera includes an optical zoom and an electronic zoom, and either in a case in which a mode that prioritizes image quality is selected, the image control section is configured to control the optical zoom prior to the electronic zoom, or in a case in which a mode that prioritizes a speed of enlarging an image is selected, the image control section is configured to execute zoom operations in order of fastest response speed of the zoom operation by controlling the electronic zoom prior to the optical zoom; wherein the electronic zoom subsequently decreases as the optical zoom increases so that the electronic zoom is replaced by the optical zoom. an image control section that is configured to control processing of a captured image from a camera; and an arm control section that is configured to control a motion of an arm section that supports the camera, wherein one of the image control section and the arm control section is configured to execute control on a basis of control information from another control section ; wherein the image control section is configured to send an enlargement instruction to the camera, and when the image control section determines that enlargement by movement of the arm section is more suitable than enlargement by the camera, the image control section is configured to send control information for controlling the arm section to the arm control section; wherein the enlargement by the camera includes an optical zoom and an electronic zoom, and either in a case in which a mode that prioritizes image quality is selected, the image control section is configured to control the optical zoom prior to the electronic zoom, or in a case in which a mode that prioritizes a speed of enlarging an image is selected, the image control section is configured to execute zoom operations in order of fastest response speed of the zoom operation by controlling the electronic zoom prior to the optical zoom; wherein the electronic zoom subsequently decreases as the optical zoom increases so that the electronic zoom is replaced by the optical zoom.
A medical waste collection system for collecting medical waste material through a manifold during a medical procedure, the medical waste collection system comprising: a waste container ; a vacuum source configured to provide a vacuum on said waste container ; a receiver coupled to said waste container and comprising: a housing comprising an opening into which the manifold is configured to be inserted, said housing further comprising a receiver outlet ; and an inlet mechanism coupled to said housing so as to be movable in proximal and distal directions, wherein said inlet mechanism comprises a suction inlet , and a suction outlet in fluid communication with said suction inlet ; characterized in that the medical waste collection system further comprises: a sled assembly movably coupled to said housing and operably coupled to said inlet mechanism , wherein said sled assembly is configured to be moved in a proximal direction during insertion of the manifold into said receiver in the proximal direction to facilitate said inlet mechanism moving correspondingly in the distal direction to establish fluid communication between said suction outlet and said receiver outlet . a waste container ; a vacuum source configured to provide a vacuum on said waste container ; a receiver coupled to said waste container and comprising: a housing comprising an opening into which the manifold is configured to be inserted, said housing further comprising a receiver outlet ; and an inlet mechanism coupled to said housing so as to be movable in proximal and distal directions, wherein said inlet mechanism comprises a suction inlet , and a suction outlet in fluid communication a housing comprising an opening into which the manifold is configured to be inserted, said housing further comprising a receiver outlet ; and an inlet mechanism coupled to said housing so as to be movable in proximal and distal directions, wherein said inlet mechanism comprises a suction inlet , and a suction outlet in fluid communication with said suction inlet ;
A field device for use in monitoring or controlling an industrial process comprising: first and second loop terminals configured to couple to a two-wire process control loop; device circuitry configured to monitor a process variable or control a control device, the device circuitry powered by power from the two-wire process control loop; a current regulator in series with the first and second loop terminals and the device circuitry , the current regulator configured to regulate a loop current flowing through the two-wire process control loop and the first and second loop terminals ; a first shunt voltage regulator connected in series with the current regulator and the first and second loop terminals , and in parallel with the device circuitry , the first shunt voltage regulator configured to regulate a first voltage across the device circuitry and to power the device circuitry , wherein the first shunt voltage regulator is coupled to the device circuitry which is configured to provide a voltage control signal for controlling the first voltage; supplemental circuitry connected in series with the first shunt voltage regulator and the second loop terminal , and powered by power from the two-wire process control loop shunted through the first shunt voltage regulator ; and a second shunt voltage regulator connected in series with the first shunt voltage regulator and the second loop terminal , and in parallel with the supplemental circuitry , the second shunt voltage regulator configured to control a second voltage across the supplemental circuitry , and to power the supplemental circuitry through the second voltage. first and second loop terminals configured to couple to a two-wire process control loop; device circuitry configured to monitor a process variable or control a control device, the device circuitry powered by power from the two-wire process control loop; a current regulator in series with the first and second loop terminals and the device circuitry , the current regulator configured to regulate a loop current flowing through the two-wire process control loop and the first and second loop terminals ; a first shunt voltage regulator connected in series with the current regulator and the first and second loop terminals , and in parallel with the device circuitry , the first shunt voltage regulator configured to regulate a first voltage across the device circuitry and to power the device circuitry , wherein the first shunt voltage regulator is coupled to the device circuitry which is configured to provide a voltage control signal for controlling the first voltage; supplemental circuitry connected in series with the first shunt voltage regulator and the second loop terminal , and powered by power from the two-wire process control loop shunted through the first shunt voltage regulator ; and a second shunt voltage regulator connected in series with the first shunt voltage regulator and the second loop terminal , and in parallel with the supplemental circuitry , the second shunt voltage regulator configured to control a second voltage across the supplemental circuitry , and to power the supplemental circuitry through the second voltage.
A carbon fiber carbonization apparatus using a microwave, comprising: a carbonization furnace in which a carbon fiber is carbonized; a moving tube which passes through the carbonization furnace and through which the carbon fiber moves; a heating element disposed inside the carbonization furnace , the heating element being disposed outside the moving tube ; and an irradiation part configured to irradiate the microwave into the carbonization furnace , wherein the heating element has a structure of which one side is opened; wherein the heating element is opened in a direction in which the microwave is irradiated so that the microwave is directly irradiated to the carbon fiber; and wherein the heating element occupies 1.7% or less of an internal volume of the carbonization furnace . a carbonization furnace in which a carbon fiber is carbonized; a moving tube which passes through the carbonization furnace and through which the carbon fiber moves; a heating element disposed inside the carbonization furnace , the heating element being disposed outside the moving tube ; and an irradiation part configured to irradiate the microwave into the carbonization furnace , wherein the heating element has a structure of which one side is opened; wherein the heating element is opened in a direction in which the microwave is irradiated so that the microwave is directly irradiated to the carbon fiber; and wherein the heating element occupies 1.7% or less of an internal volume of the carbonization furnace .
A siphonic flush toilet bowl assembly comprising tank configured for receiving fluid from a source of fluid, at least one jet flush valve assembly having a jet flush valve inlet and a jet flush valve outlet that is in fluid connection with a closed jet fluid pathway that comprises at least one jet channel , the jet flush valve assembly being configured for delivery of fluid from the jet flush valve outlet to said closed jet fluid pathway ; at least one rim flush valve assembly having a rim flush valve inlet and a rim flush valve outlet that is in fluid connection with at least one rim inlet port , the at least one rim flush valve assembly being configured for delivery of fluid from the rim flush valve outlet to at least one rim inlet port ; a bowl having an interior surface that defines an interior area and comprising (a) the at least one rim inlet port for introducing water to a rim channel of the bowl ; (b) a jet that defines the at least one jet channel , the jet having a jet inlet port in fluid communication with the jet flush valve outlet and a jet outlet port that is positioned in a lower portion of the bowl ; (c) a sump area having a jet trap defined by an interior surface of the bowl and having an inlet end and an outlet end , wherein the inlet end of the jet trap receives fluid from the jet outlet port and the interior area of the bowl and the outlet end of the jet trap is in communication with a trapway inlet ; and a trapway having a weir ; wherein the jet outlet port of the jet is configured for discharging fluid to the sump area of the bowl and is in fluid communication with the sump area of the bowl , the sump area being in fluid communication with the trapway inlet to the trapway ; wherein the jet flush valve assembly is positioned above the weir of the trapway , wherein the closed jet fluid pathway comprising the jet channel extends from the jet flush valve outlet to the jet outlet port , wherein an upper surface of the jet outlet port is within the jet trap and is positioned at a seal depth ( x ) that is below an upper surface of the trapway inlet as measured longitudinally through the sump area , and characterized in that the jet flush valve assembly is configured to be closed before the level of water in the tank of the toilet bowl assembly falls to the level of the jet flush valve inlet ; such that once primed, the closed jet fluid pathway remains primed with fluid and assists in preventing air from entering the closed jet fluid pathway before actuation of and after completion of a flush cycle. (a) the at least one rim inlet port for introducing water to a rim channel of the bowl ; (b) a jet that defines the at least one jet channel , the jet having a jet inlet port in fluid communication with the jet flush valve outlet and a jet outlet port that is positioned in a lower portion of the bowl ; (c) a sump area
A robot system comprising: a robot including a robotic arm , at least one motor , and at least one non-excitation actuated electromagnetic brake that is provided for the respective at least one motor , the robotic arm including at least one joint shaft (JT1 to JT6) that is provided with the respective at least one motor ; and a short circuit that is electrically connected to the robot and provided separately from a robot controller configured to control the robot , the short circuit being configured to apply a dynamic brake to each motor , characterized in that the robot system further comprises an auxiliary power supply configured to supply electric power to the non-excitation actuated electromagnetic brake when the non-excitation actuated electromagnetic brake is not supplied with electric power from a main power supply of the robot . a robot including a robotic arm , at least one motor , and at least one non-excitation actuated electromagnetic brake that is provided for the respective at least one motor , the robotic arm including at least one joint shaft (JT1 to JT6) that is provided with the respective at least one motor ; and a short circuit that is electrically connected to the robot and provided separately from a robot controller configured to control the robot , the short circuit being configured to apply a dynamic brake to each motor , characterized in that the robot system further comprises an auxiliary power supply configured to supply electric power to the non-excitation actuated electromagnetic brake when the non-excitation actuated electromagnetic brake is not supplied with electric power from a main power supply of the robot .
A process for preparing a yeast hydrolysate characterized in that the process comprises the step of contacting a gluten containing yeast hydrolysate with a proline-specific endoprotease classified as EC 3.4.21.26 of Aspergillus niger and a phosphodiesterase to produce 5'-ribonucleotides resulting in a yeast hydrolysate comprising less than 100 ppm gluten and at least 1 ppm gluten based on salt-free yeast dry matter and further comprising 5'-ribonucleotides 5'-GMP and / or 5'-IMP, wherein the total amount of 5'-GMP and 5'-IMP is at least 1.5% based on the NaCl free dry matter of the yeast hydrolysate.