mhurhangee/patent-ind-claim-en huggingface dataset:
A process for the preparation of compound 8, having the structure: or stereoisomers, geometric isomers, tautomers, and pharmaceutically acceptable salts thereof, wherein: R 1 is selected from - CH 3 , - CH 2 CH 3 , cyclopropyl, and cyclobutyl; R 2 is selected from - CH 3 , - CHF 2 , - CH 2 F, and - CF 3 ; comprising reacting compound 7, having the structure: with H 2 NCH(R 1 )CO 2 H and a copper catalyst, followed by ammonium chloride, and HATU (1-[Bis(dimethylamino)methylene]-1H-1,2,3-triazolo[4,5-b]pyridinium 3-oxide hexafluorophosphate) to form 8. R 1 is selected from - CH 3 , - CH 2 CH 3 , cyclopropyl, and cyclobutyl; R 2 is selected from - CH 3 , - CHF 2 , - CH 2 F, and - CF 3 ; comprising reacting compound 7, having the structure: with H 2 NCH(R 1 )CO 2 H and a copper catalyst, followed by ammonium chloride, and HATU (1-[Bis(dimethylamino)methylene]-1H-1,2,3-triazolo[4,5-b]pyridinium 3-oxide hexafluorophosphate) to form 8.
Method for determining an optimum sea depth for locating and/or concealing an object underwater by way of a data processing device and/or a navigation device , comprising the following steps: - selecting a profile of a speed of sound at a sea depth for a coordinate from a database or ascertaining the profile of the speed of sound at the sea depth for the coordinate, - selecting characteristic points on the profile of the speed of sound at the sea depth, wherein a characteristic and/or abrupt change of a course of the profile occurs at the characteristic points , - performing a sound propagation calculation method by way of an algorithm of the data processing device and/or of the navigation device for propagation of the acoustic energies of a transmitted and/or received acoustic signal at the selected characteristic points, - ascertaining a distance-dependent signal-to-noise ratio of the ascertained acoustic energies for the selected characteristic points, - defining the optimum sea depth on the basis of the signal-to-noise ratio of the ascertained acoustic energies for detecting and/or for concealing an object underwater. - selecting a profile of a speed of sound at a sea depth for a coordinate from a database or ascertaining the profile of the speed of sound at the sea depth for the coordinate, - selecting characteristic points on the profile of the speed of sound at the sea depth, wherein a characteristic and/or abrupt change of a course of the profile occurs at the characteristic points , - performing a sound propagation calculation method by way of an algorithm of the data processing device and/or of the navigation device for propagation of the acoustic energies of a transmitted and/or received acoustic signal at the selected characteristic points, - ascertaining a distance-dependent signal-to-noise ratio of the ascertained acoustic energies for the selected characteristic points, - defining the optimum sea depth on the basis of the signal-to-noise ratio of the ascertained acoustic energies for detecting and/or for concealing an object underwater.
Beverage system for providing a cold beverage, comprising: a water supply unit for providing water; cooling means for cooling the water provided by the water supply unit , wherein the cooling means are arranged downstream of the water supply unit ; dispensing means for dispensing a beverage, wherein the dispensing means are arranged downstream of the cooling means ; valve means arranged downstream of the cooling means and upstream of the dispensing means , wherein the valve means are operable to direct water from the cooling means either in a loop back to the cooling means for a further cooling of the water or to the dispensing means for dispensing a cold beverage; and a control module adapted to operate the valve means , wherein the beverage system further comprises a flowmeter for measuring the water flowrate, wherein the flowmeter is arranged downstream of the water supply unit and upstream of the cooling means , characterized in that the valve means are openable to direct water from the cooling means at a position upstream of the flowmeter and downstream of the water supply unit. a water supply unit for providing water; cooling means for cooling the water provided by the water supply unit , wherein the cooling means are arranged downstream of the water supply unit ; dispensing means for dispensing a beverage, wherein the dispensing means are arranged downstream of the cooling means ; valve means arranged downstream of the cooling means and upstream of the dispensing means , wherein the valve means are operable to direct water from the cooling means either in a loop back to the cooling means for a further cooling of the water or to the dispensing means for dispensing a cold beverage; and a control module adapted to operate the valve means , wherein the beverage system further comprises a flowmeter for measuring the water flowrate, wherein the flowmeter is arranged downstream of the water supply unit and upstream of the cooling means , characterized in that the valve means are openable to direct water from the cooling means at a position upstream of the flowmeter and downstream of the water supply unit.
A sealing press comprising a pair of isothermally heated dies , the pair including a forward and a reverse die each comprising a sealing surface opposed to each other and adapted to hold therebetween a sample processing device positioned along a sealing plane , wherein the forward and reverse dies are each independently positioned on and controlled by a forward and reverse alignment slider, respectively, the forward and reverse alignment sliders are connected to an actuator which provides thrust for synchronized movement of the forward and reverse dies, wherein each of the forward and reverse alignment sliders are mounted to a forward and reverse caliper arm, respectively, and the forward and reverse caliper arms are each mounted to a mechanical linkage connected to the actuator , wherein the mechanical linkage comprises a lever , a first con rod and a second con rod , wherein the lever comprises a central pivot point and a first and second end, wherein the first con rod is pivotally connected to the first end of the lever and pivotally connected to one end of the reverse caliper arm, wherein the second con rod is pivotally connected to the second end of the lever and pivotally connected to one end of the forward caliper arm, wherein the first and second caliper arms are connected to the forward and reverse alignment sliders, respectively, characterized by the sealing press further comprising an independent forward die control mechanism , the mechanism is connected to the forward die and comprises a forward die driver connected to a supplemental forward die linear slider and an independent forward die controller , wherein the mechanism is configured to independently actuate the forward die from the forward caliper arm, thereby adjusting the contact pressure between the sealing surfaces .
An oral treatment device comprising: a head for use in treating an oral cavity of a user, the oral cavity comprising a plurality of oral cavity zones; an inertial measurement unit, IMU , operable to output signals dependent on position and/or movement of the head of the oral treatment device; a fluid delivery system for delivering working fluid to the oral cavity of the user; and a controller configured to: receive signals from the IMU : indicating position and/or movement of the head of the oral treatment device relative to the oral cavity of the user; process the received signals using a trained non-linear classification algorithm to obtain classification data, wherein the classification algorithm is trained to identify, from the plurality of oral cavity zones, an oral cavity zone in which the head of the oral treatment device is located, wherein the obtained classification data indicates the oral cavity zone in which the head of the oral treatment device is located; control the oral treatment device to perform an action using the classification data, comprising outputting a control signal to the fluid delivery system to control delivery of the working fluid based on the classification data. a head for use in treating an oral cavity of a user, the oral cavity comprising a plurality of oral cavity zones; an inertial measurement unit, IMU , operable to output signals dependent on position and/or movement of the head of the oral treatment device; a fluid delivery system for delivering working fluid to the oral cavity of the user; and a controller configured to: receive signals from the IMU : indicating position and/or movement of the head of the oral treatment device relative to the oral cavity of the user; process the received signals using a trained non-linear classification algorithm to obtain classification data, wherein the classification algorithm is trained to identify, from the plurality of oral cavity zones, an oral cavity zone in which the head of the oral treatment device is located, wherein the obtained classification data indicates the oral cavity zone in which the head of the oral treatment device is located; control the oral treatment device to perform an action using the classification data, comprising outputting a control signal to the fluid delivery system to control delivery of the working fluid based on the classification data. receive signals from the IMU : indicating position and/or movement of the head of the oral treatment device relative to the oral cavity of the user; process the received signals using a trained non-linear classification algorithm to obtain classification data, wherein the classification algorithm is trained to identify, from the plurality of oral cavity zones, an oral cavity zone in which the head of the oral treatment device is located, wherein the obtained classification data indicates the oral cavity zone in which the head of the oral treatment device is located; control the oral treatment device to perform an action using the classification data, comprising outputting a control signal to the fluid delivery system to control delivery of the working fluid based on the classification data.
Device for applying a flowable medium (7; 8) with a chamber system which transfers the flowable medium (7; 8) with a first application weight to a rotatable roller , and with a scraper (14; 140), wherein the scraper (14; 140) is arranged at an adjustable distance parallel to the roller and scrapes off the excess flowable medium in such a manner that a homogenized flowable medium in the direction of rotation behind the scraper (14; 140) has a second application weight which is smaller than the first application weight, wherein the homogenized flowable medium is transferred to a carrier substrate with the aid of a counter roller , characterized in that the roller is an engraving roller and the engraving roller and the counter roller are suitable for rotating in the same direction of rotation and a gap between the engraving roller and the scraper (14; 140) has a geometry which results from a circular-arc-shaped surface of the engraving roller and a circular-arc-shaped surface of the scraper , wherein the gap tapers through the two circular-arc-shaped top sides to a sharp edge on the circumference of the scraper (14; 140) and has the smallest gap width at the sharp edge .
Washing machine, comprising at least one nozzle and a water supply line , a fluidic oscillator being arranged between the at least one nozzle and the water supply line , the fluidic oscillator being connected to the water supply line and the at least one nozzle in such a way that water is conducted via the water supply line through the fluidic oscillator into a nozzle , characterised in that a nozzle is arranged in a channel and a further nozzle is arranged in a further channel , and in that the channel and the further channel are arranged adjacently to an output of the fluidic oscillator , and in that the fluidic oscillator is arranged between the water supply line and the channel and the further channel in such a way that, during operation, it conducts the water flowing through said oscillator from the water supply line into the channel and the further channel in a periodically switching manner, so that one nozzle and the other nozzle are alternately supplied with water.
Measuring device for determining a fluid variable relating to a fluid and/or to a fluid flow of the fluid, having a control device , having a measurement tube , which receives the fluid and/or through which the fluid can flow, and having a first and a second vibration transducer , which are arranged spaced apart from one another on the measurement tube, wherein, by way of the control device , the first and/or the second vibration transducer can be actuated so as to induce a wave which is guided through a or a respective side wall of the measurement tube , wherein the guided wave induces compressional oscillations of the fluid that can be guided via the fluid to the in each case other vibration transducer and, there, can be detected by the control device for determining measurement data, wherein the fluid variable can be determined by the control device as a function of the measurement data, wherein at least one further side wall of the measurement tube has at least one depression (18-21) which extends in the flow direction and which enlarges the flow cross section of the measurement tube , wherein the measurement tube , at least in a measurement section situated between the first and second vibration transducers , has an internal cross section which, apart from the at least one depression (18-21), is rectangular, wherein the depression (18-21) or depressions (18-21) are provided exclusively in side walls on which none of the vibration transducers are arranged, wherein the first and second vibration transducers are arranged on the same side wall and the inner surface of this side wall and of an opposite side wall define a main flow volume, or wherein the first and second vibration transducers are arranged on mutually opposite side walls , whose inner surfaces define the main flow volume, wherein the at least one depression (18-21) is situated outside the main flow volume and forms a respective secondary flow volume.
Method for controlling a data flow transmitted in accordance with a domain name system protocol, called DNS, comprising: - a step of reception, by a DNS resolution server (RES), of a DNS request sent by a terminal (TC), the DNS request comprising a question relating to a domain name, - a step of sending, by the DNS resolution server (RES), of recursive requests to authoritative servers, so as to obtain an appropriate response to said DNS request, - a step of reception (E39), by the DNS resolution server, of a response from the authoritative server acting as authority for said domain name, in response to one of said recursive requests; said method being characterized in that it comprises, prior to said reception (E39) by the DNS resolution server of a response from the authoritative server acting as authority for said domain name: - a step of reception (E32), by a control module (CTRL), of said DNS request; - when said DNS request verifies at least one predetermined criterion, • a step of generation (E36), by the control module, of a valid DNS response for the DNS resolution server, said DNS response comprising at least one incorrect response element to said question contained in said received DNS request, • a step of sending (E37), by the control module to said DNS resolution server, of said generated DNS response, • a step of transmission (E38), by the DNS resolution server to said terminal (TC), of said DNS response generated by the control module. - a step of reception, by a DNS resolution server (RES), of a DNS request sent by a terminal (TC), the DNS request comprising a question relating to a domain name, - a step of sending, by the DNS resolution server (RES), of recursive requests to authoritative servers, so as to obtain an appropriate response to said DNS request, - a step of reception (E39), by the DNS resolution server, of a response from the authoritative server acting as authority for said domain name, in response to one of said recursive requests; - a step of reception (E32), by a control module (CTRL), of said DNS request; - when said DNS request verifies at least one predetermined criterion, • a step of generation (E36), by the control module, of a valid DNS response for the DNS resolution server, said DNS response comprising at least one incorrect response element to said question contained in said received DNS request, • a step of sending (E37), by the control module to said DNS resolution server, of said generated DNS response, • a step of transmission (E38), by the DNS resolution server to said terminal (TC), of said DNS response generated by the control module. • a step of generation (E36), by the control module, of a valid DNS response for the DNS resolution server, said DNS response comprising at least one incorrect response element to said question contained in said received DNS request, • a step of sending (E37), by the control module to said DNS resolution server, of said generated DNS response, • a step of transmission (E38), by the DNS resolution server to said terminal (TC), of said DNS response generated by the control module.
Analysing and mixing device for providing a liquid-manure mixture having a predetermined chemical composition, comprising a first reservoir for liquid manure , a first conveying apparatus for conveying the liquid manure into a mixing chamber , at least one second reservoir for a solid to be added, or a liquid or suspension to be added, further reservoirs (8, 8', 8") for further solids to be added, and a second conveying apparatus for conveying the solid, the liquid or suspension into the mixing chamber , characterized by a sensor for the continuous or discrete chemical analysis of the liquid manure on the conveying path to the mixing chamber , and a computing apparatus for calculating the amount to be added, and/or the volume, of a solid, a suspension or a liquid on the basis of analysis data from the sensor , and in that, in the at least one second reservoir and the further reservoirs (8, 8', 8"), there is in each case a solid for adding, the solid comprising nitrogen, phosphorus or potassium, in particular in the form of their salts, or a complete fertilizer or compound fertilizer.
A dynamic control system for controlling an amusement park ride, comprising: a game server configured to generate game data that describes movement of a virtual vehicle through a virtual environment; a programmable logic controller (PLC) of a ride vehicle configured to receive and conditionally execute instructions of a dynamic ride profile relative to one or more stored limits to operate physical actions of the ridevehicle ; a dynamic ride profile server communicatively coupled to the game server and the PLC , wherein the dynamic ride profile server is configured to: receive input data from one or more input devices, sensor data from one or more sensors, and the game data from the game server ; provide the input data , the sensor data , and the game data as inputs to one or more physical models to generate a portion of a dynamic ride profile based on the movement of the virtual vehicle through the virtual environment; and provide the portion of the dynamic ride profile to the PLC for conditional execution. a game server configured to generate game data that describes movement of a virtual vehicle through a virtual environment; a programmable logic controller (PLC) of a ride vehicle configured to receive and conditionally execute instructions of a dynamic ride profile relative to one or more stored limits to operate physical actions of the ridevehicle ; a dynamic ride profile server communicatively coupled to the game server and the PLC , wherein the dynamic ride profile server is configured to: receive input data from one or more input devices, sensor data from one or more sensors, and the game data from the game server ; provide the input data , the sensor data , and the game data as inputs to one or more physical models to generate a portion of a dynamic ride profile based on the movement of the virtual vehicle through the virtual environment; and provide the portion of the dynamic ride profile to the PLC for conditional execution. receive input data from one or more input devices, sensor data from one or more sensors, and the game data from the game server ; provide the input data , the sensor data , and the game data as inputs to one or more physical models to generate a portion of a dynamic ride profile based on the movement of the virtual vehicle through the virtual environment; and provide the portion of the dynamic ride profile to the PLC for conditional execution.
A method for sealing together a first section and a second section of a piece of packaging material , said method comprising arranging the piece of packaging material such that the first and second section lie against each other, melting at least one plastic layer in the first and second section by feeding the piece of packaging material through a heating station , wherein the heating station comprises at least one ultra-sonic horn placed on a first side of the piece and a first group of anvil elements placed on a second side of the piece , wherein the first side is opposite to the second side, wherein each of the anvil elements comprises an anvil head connected to a spring element , wherein a surface of the anvil head is configured for being held against the piece as this is fed through the heating station such that a pressure (P) is exerted onto the piece , cooling down the piece of packaging material such that the at least one plastic layer is solidified, and wherein the surface comprises a mid-section protrusion , characterized in that the surface comprises a curved inlet area and a flat area . arranging the piece of packaging material such that the first and second section lie against each other, melting at least one plastic layer in the first and second section by feeding the piece of packaging material through a heating station , wherein the heating station comprises at least one ultra-sonic horn placed on a first side of the piece and a first group of anvil elements placed on a second side of the piece , wherein the first side is opposite to the second side, wherein each of the anvil elements comprises an anvil head connected to a spring element , wherein a surface of the anvil head is configured for being held against the piece as this is fed through the heating station such that a pressure (P) is exerted onto the piece , cooling down the piece of packaging material such that the at least one plastic layer is solidified, and wherein the surface comprises a mid-section protrusion , characterized in that the surface comprises a curved inlet area and a flat area .