mhurhangee/patent-ind-claim-en huggingface dataset:
A dishmachine comprising: a wash chamber comprising at least one wash arm and at least one spray nozzle on the wash arm ; an outlet in the wash chamber through which water vapor can flow; a heat recovery system with a heat exchanger as first heat exchanger in fluid communication with the outlet comprising at least one heat exchanger coil , an exhaust port , and a drain configured to drain back the water that has been condensed inside the heat exchanger into the wash chamber, wherein the drain is in fluid communication with the wash chamber ; and a source of freshwater in fluid communication with the interior of the heat exchanger coil ; characterised in that the heat exchanger is configured to draw the air from the outlet and the environment outside of the wash chamber into the heat exchanger through an inlet of the heat exchanger ; and wherein the heat transfer capacity of the heat recovery system is specified and matched to the expected heat load of the dishmachine so that the heat exchanger coil is capable of heating the freshwater by at least 16.7°C (30°F). a wash chamber comprising at least one wash arm and at least one spray nozzle on the wash arm ; an outlet in the wash chamber through which water vapor can flow; a heat recovery system with a heat exchanger as first heat exchanger in fluid communication with the outlet comprising at least one heat exchanger coil , an exhaust port , and a drain configured to drain back the water that has been condensed inside the heat exchanger into the wash chamber, wherein the drain is in fluid communication with the wash chamber ; and a source of freshwater in fluid communication with the interior of the heat exchanger coil ; characterised in that the heat exchanger is configured to draw the air from the outlet and the environment outside of the wash chamber into the heat exchanger through an inlet of the heat exchanger ; and wherein the heat transfer capacity of the heat recovery system is specified and matched to the expected heat load of the dishmachine so that the heat exchanger coil is capable of heating the freshwater by at least 16.7°C (30°F).
A method to determine analyte concentration in a blood sample, the method comprising: depositing a blood sample in a test chamber of a test strip having at least first and second electrodes in contact with a reagent and third and fourth electrodes not in contact with the reagent; driving a non-oscillating signal to the at least first and second electrodes to cause a reaction between glucose present in the blood sample and the reagent; measuring a current output of the reaction to establish a preliminary analyte concentration; applying a first oscillating input signal at a first frequency to third and fourth electrodes; determining a first estimated hematocrit based on a impedance from output signals of the third and fourth electrodes; applying a second oscillating input signal at a second frequency higher than the first frequency to the third and fourth electrodes; ascertaining a second estimated hematocrit based on a phase angle of output signals from the third and fourth electrodes; estimating a hematocrit of the blood sample based on the first and second estimated hematocrits; and deriving a final analyte concentration based on the preliminary analyte concentration and the hematocrit from the estimating step. depositing a blood sample in a test chamber of a test strip having at least first and second electrodes in contact with a reagent and third and fourth electrodes not in contact with the reagent; driving a non-oscillating signal to the at least first and second electrodes to cause a reaction between glucose present in the blood sample and the reagent; measuring a current output of the reaction to establish a preliminary analyte concentration; applying a first oscillating input signal at a first frequency to third and fourth electrodes; determining a first estimated hematocrit based on a impedance from output signals of the third and fourth electrodes; applying a second oscillating input signal at a second frequency higher than the first frequency to the third and fourth electrodes; ascertaining a second estimated hematocrit based on a phase angle of output signals from the third and fourth electrodes; estimating a hematocrit of the blood sample based on the first and second estimated hematocrits; and deriving a final analyte concentration based on the preliminary analyte concentration and the hematocrit from the estimating step.
A Pelton turbine comprising an impeller comprising a plurality of buckets, and at least one nozzle arranged such that a jet of water emerging from the at least one nozzle can impinge on the buckets of the impeller , and wherein the at least one nozzle comprises a movable needle for adjusting a flow of water through the nozzle , and wherein the Pelton turbine comprises a control device for controlling a position of the needle, and wherein the at least one nozzle comprises a main housing , a servomotor housing which is arranged inside the main housing , and at least one support , which connects the servomotor housing to the main housing , characterised in that the Pelton turbine comprises a device for detecting measured pressure values and the at least one nozzle comprises at least two pressure sensors , which are each arranged on a support of the nozzle , that during operation of the Pelton turbine, pressure measurement values can be detected by the device , and that a difference in the detected pressure measurement values can represent a measure of a flow rate through the associated nozzle or a measure of a homogeneity of the water distribution in the associated nozzle .
A method for detecting non-visible vehicles (B) in a driven vehicle's environment, wherein each vehicle (A, B) is equipped with at least one proximity sensor (210-230) and wherein a non-visible vehicle is defined as a vehicle located behind an obstacle obstructing the view between the two vehicles, the method comprising for the driven vehicle (A) the steps of: - screening, by a receiver of the proximity sensor of the driven vehicle (A), any incoming proximity signal capable of propagating through the air along a non-linear path without reflective surfaces so that a light beam would not be able to reach non-visible vehicles from the driven vehicle; - receiving an incoming proximity signal (PS B ) emitted by the proximity sensor of a non-visible vehicle (B); - processing the received proximity signal (PS B ) to detect the non-visible vehicle (B); and - warning a driver and/or an advanced driver-assistance system about the detected non-visible vehicle. - screening, by a receiver of the proximity sensor of the driven vehicle (A), any incoming proximity signal capable of propagating through the air along a non-linear path without reflective surfaces so that a light beam would not be able to reach non-visible vehicles from the driven vehicle; - receiving an incoming proximity signal (PS B ) emitted by the proximity sensor of a non-visible vehicle (B); - processing the received proximity signal (PS B ) to detect the non-visible vehicle (B); and - warning a driver and/or an advanced driver-assistance system about the detected non-visible vehicle.
A method for fault location in a power transmission line connecting a first terminal with a second terminal, wherein the method is implemented with a processor of a device associated with the power transmission line, the method comprising: obtaining a plurality of parameters associated with travelling waves detected from measurements carried out at the first and second terminals, wherein the plurality of parameters comprises arrival times of a first peak and a second peak of the travelling waves detected from the measurements carried out at the first and second terminals respectively, and rise times of the first peaks of the corresponding travelling waves; identifying one of a first half, a second half, and a mid-point of the power transmission line, as having the fault, based on a comparison of the rise time of the first peak of the travelling wave detected from measurements carried out at the first terminal, with the rise time of the first peak of the travelling wave detected from measurements carried out at the second terminal; and estimating the fault location based on the identification of the first half, the second half and the mid-point, as having the fault, and one or more of the arrival times of the first and second peaks of the travelling waves detected from measurements carried out at the first and second terminals, velocity of propagation of the travelling wave in the power transmission line, and length of the power transmission line. obtaining a plurality of parameters associated with travelling waves detected from measurements carried out at the first and second terminals, wherein the plurality of parameters comprises arrival times of a first peak and a second peak of the travelling waves detected from the measurements carried out at the first and second terminals respectively, and rise times of the first peaks of the corresponding travelling waves; identifying one of a first half, a second half, and a mid-point of the power transmission line, as having the fault, based on a comparison of the rise time of the first peak of the travelling wave detected from measurements carried out at the first terminal, with the rise time of the first peak of the travelling wave detected from measurements carried out at the second terminal; and estimating the fault location based on the identification of the first half, the second half and the mid-point, as having the fault, and one or more of the arrival times of the first and second peaks of the travelling waves detected from measurements carried out at the first and second terminals, velocity of propagation of the travelling wave in the power transmission line, and length of the power transmission line.
Pneumatic vehicle tyre having a tread with at least one shoulder-side profile-block row with profile blocks which are separated by transverse channels extending parallel to one another and which are provided with sipes , having sipe walls , which extend in particular parallel to the transverse channels , wherein the sipes , as seen in plan view, extend over three sipe zones , of which one is assigned to a shoulder-side, one is assigned to a middle, and one is assigned to a tread-inner-side, circumferentially encircling profile-block-row portion of the profile-block row , said shoulder-side circumferentially encircling profile-block-row portion being situated at least for the most part outside the ground contact area, wherein the depth of the sipes and the design of the sipe walls in each sipe zone differs from the depth of the sipes and the design of the sipe walls in the two other sipe zones in such a way that the lateral stiffness of the shoulder-side profile-block row decreases from the shoulder-side profile-block-row portion to the tread-inner-side profile-block-row portion , characterized in that the sipes in the sipe zone assigned to the tread-inner-side profile-block-row portion at least sectionally extend in an undulating manner in plan view, in the sipe zone assigned to the middle profile-block-row portion extend in a zigzag-shaped, in particular sawtooth-like, manner in plan view, and in the sipe zone assigned to the shoulder-side profile-block-row portion extend in a straight manner in plan view, wherein the sipes in the sipe zones have a greatest depth which decreases in a stepwise manner from the tread-inner-side profile-block-row portion to the shoulder-side profile-block-row portion via the middle profile-block-row portion .
Device for mounting and holding a coater unit of a metal 3D printer, comprising two rotary blocks arranged opposite one another in a mirror image, each comprising a base with which carrier elements that face the relevant other rotating block and in each case form a support are associated, the supports of the carrier elements forming a common support plane in the case of a mirror-image alignment, characterized in that clamping jaws that can be moved along a guide are associated with the two supports and the clamping jaws either enclose a defined distance between said jaws and the supports or a planar depression is associated with each of the supports and the clamping jaws rest directly on the plane of the support under pretension, the rotary blocks also being fixed at a defined distance on both sides of a powder basin for collecting metal powder by means of a screw connection .
Method for operating a steam turbine plant with a steam turbine and a steam generator , wherein the steam turbine plant comprises a heat accumulator assigned to the steam turbine , from which steam is extracted and fed to the steam turbine , wherein the steam is fed to the steam turbine while the steam generator is not in operation, characterized in that the heat accumulator is charged with saturated water from a steam drum of the steam generator while a power demand for the steam turbine plant from a power grid is below a predefined limit value.
Pane arrangement , comprising: - a pane with an inner surface (IV) and an outer surface (III), - a low-E coating , which is arranged at least partially on the inner surface (IV) of the pane , - at least one coating-free first partition line , which is formed in the low-E coating and by which at least one capacitive switching region is electrically isolated from a surrounding region of the low-E coating , wherein the surrounding region surrounds the capacitive switching region at least partially, in particular completely, and wherein the capacitive switching region has a contact region , a supply line region , and a first connection region , wherein the supply line region electrically connects the contact region to the first connection region , - at least one coating-free second partition line , which is formed in the low-E coating and by which the surrounding region is electrically isolated from an outer region of the low-E coating , wherein the outer region at least partially, in particular completely, surrounds the surrounding region , - a capacitive sensor electronics system , which is electrically connected to the first connection region of the capacitive switching region and to the surrounding region by means of a second connection region . - a pane with an inner surface (IV) and an outer surface (III), - a low-E coating , which is arranged at least partially on the inner surface (IV) of the pane , - at least one coating-free first partition line , which is formed in the low-E coating and by which at least one capacitive switching region is electrically isolated from a surrounding region of the low-E coating , wherein the surrounding region surrounds the capacitive switching region at least partially, in particular completely, and wherein the capacitive switching region has a contact region , a supply line region , and a first connection region , wherein the supply line region electrically connects the contact region to the first connection region , - at least one coating-free second partition line , which is formed in the low-E coating and by which the surrounding region is electrically isolated from an outer region of the low-E coating , wherein the outer region at least partially, in particular completely, surrounds the surrounding region , - a capacitive sensor electronics system , which is electrically connected to the first connection region of the capacitive switching region and to the surrounding region by means of a second connection region .
Computer-implemented method for inspecting the surface quality of workpieces, the method comprising - determining a first set of surface parameter values of a workpiece on the basis of first measured raw data from a surface sensor system, wherein surface data acquisition for the first measured raw data is subject in this case to a first setup representing variables influencing the surface data acquisition by means of the surface sensor system ; - storing the first set of surface parameter values in a storage module in the form of a surface parameter value matrix, wherein the first setup is assigned to the surface parameter value matrix; - classifying the surface parameter value matrix into quality classes by means of a trained classifier system of the associated setup, wherein the quality classes comprise a first good class, a first undecided class and a first poor class, wherein the quality classes do not overlap, and wherein the classifier system was trained by means of annotated training data in order to form a classification model in order to assign a surface parameter value matrix to one of a plurality of predefined classes, - determining a second set of surface parameter values for the workpiece for a second setup on the basis of second measured raw data from a second surface sensor system for the undecided class of the first setup, and - categorizing the surface parameter matrix of the workpiece into a second good class or a second poor class on the basis of the determined second set of surface parameter values. - determining a first set of surface parameter values of a workpiece on the basis of first measured raw data from a surface sensor system, wherein surface data acquisition for the first measured raw data is subject in this case to a first setup representing variables influencing the surface data acquisition by means of the surface sensor system ; - storing the first set of surface parameter values in a storage module in the form of a surface parameter value matrix, wherein the first setup is assigned to the surface parameter value matrix; - classifying the surface parameter value matrix into quality classes by means of a trained classifier system of the associated setup, wherein the quality classes comprise a first good class, a first undecided class and a first poor class, wherein the quality classes do not overlap, and wherein the classifier system was trained by means of annotated training data in order to form a classification model in order to assign a surface parameter value matrix to one of a plurality of predefined classes, - determining a second set of surface parameter values for the workpiece for a second setup on the basis of second measured raw data from a second surface sensor system for the undecided class of the first setup, and - categorizing the surface parameter matrix of the workpiece into a second good class or a second poor class on the basis of the determined second set of surface parameter values.
Use of alcalase for producing a desired level of pliability in a collagen-containing tissue matrix by contacting the collagen-containing matrix with the alcalase.
A door comprising: a door leaf movable between an open position, in which it at least partially uncovers a wall opening, and a closed position, in which it at least partially closes the wall opening; and a guiding arrangement for guiding the door leaf movement along a predetermined path between the open position and the closed position, wherein the guide arrangement has at least one guide web with two outer boundary surfaces which is fixedly arranged with respect to the wall opening and extends along at least a section of the predetermined path, wherein a first outer boundary surface of the guide web forms a guide surface for a first guide device of the door leaf and a second outer boundary surface of the guide web forms a second guide surface for a second guide device of the door leaf , wherein at least one guide device has a door-leaf-side magnetic field generating device , and a web-side magnetic field generating device is associated with the guide web , wherein the magnetic field generating devices are designed to obtain contactless guiding of the door leaf movement along at least a section of the predetermined path in the region of at least one of the opposite lateral edges of the door leaf ; characterised in that the boundary surfaces are arranged approximately parallel to each other and spaced apart in a direction perpendicular to the guide surfaces, the guide web is arranged between two guide devices (32, 34; 1010), in particular between two guide rollers whose axes are spaced apart in a direction perpendicular to the guide surfaces and preferably extend approximately parallel to each other, and two guide devices (32, 34; 1010) are fixed on a common carrier (40; 1040), wherein the common carrier (40; 1040) is removable attached to the door leaf preferably on its side facing away from the guide devices (32, 34; 1010), in particular the guide rollers .
A coated pane comprising a glass substrate and a coating on the glass substrate, the coating comprising both an indium tin oxide film and a tin oxide film, the tin oxide film being located further from the glass pane than is the indium tin oxide film, the indium tin oxide film having a thickness of between 1100 angstroms and 1500 angstroms, the tin oxide film having a thickness of between 100 angstroms and 700 angstroms, the indium tin oxide film having a sheet resistance of less than 20 ohms/square, and the coated pane having a visible transmission of greater than 75%, the coating being devoid of a metal layer.
A pharmaceutical formulation containing at least a pellet, the pellet comprising: a core comprising a pharmaceutically acceptable inert material; a drug layer surrounding the core, wherein the drug layer comprises a therapeutically effective amount of a drug for treating an enteric disease; a glycosaminoglycan layer directly surrounding the drug layer, wherein the glycosaminoglycan layer comprises a glycosaminoglycan; an isolation layer surrounding the glycosaminoglycan layer, wherein the isolation layer comprises a hydrophobic polymer, which is dissolved at a pH value of at least 5.5; and an enteric coating layer surrounding the isolation layer, wherein the enteric coating layer comprises an enteric polymer, which is dissolved at a pH value of at least 6.8. a core comprising a pharmaceutically acceptable inert material; a drug layer surrounding the core, wherein the drug layer comprises a therapeutically effective amount of a drug for treating an enteric disease; a glycosaminoglycan layer directly surrounding the drug layer, wherein the glycosaminoglycan layer comprises a glycosaminoglycan; an isolation layer surrounding the glycosaminoglycan layer, wherein the isolation layer comprises a hydrophobic polymer, which is dissolved at a pH value of at least 5.5; and an enteric coating layer surrounding the isolation layer, wherein the enteric coating layer comprises an enteric polymer, which is dissolved at a pH value of at least 6.8.
A display device comprising: a display panel having a first side including a display area configured to emit light and a second side opposite the first side; an auxiliary layer disposed on the second side of the display panel and including an opening (OP1); a sensor overlapping the opening (OP1); and an adhesive layer connected between the sensor and the auxiliary layer characterized in that the auxiliary layer comprises an ultraviolet absorber , and in that the adhesive layer is an ultraviolet adhesive layer. a display panel having a first side including a display area configured to emit light and a second side opposite the first side; an auxiliary layer disposed on the second side of the display panel and including an opening (OP1); a sensor overlapping the opening (OP1); and an adhesive layer connected between the sensor and the auxiliary layer characterized in that the auxiliary layer comprises an ultraviolet absorber , and in that the adhesive layer is an ultraviolet adhesive layer.