mhurhangee/ep-ind-claims huggingface dataset:
Toggle fastener comprising - a screw element with an external thread, extending along a centre axis, - a toggle element extending along a main axis and a nut element with an internal thread, in which the external thread engages, - wherein the nut element is pivotably mounted about a pivot axis in at least one bearing opening in the toggle element, - wherein the toggle element is pivotable from a mounting position, in which the main axis runs substantially parallel to the centre axis, into a fastening position, in which the main axis runs substantially transversely to the centre axis, and - wherein the toggle element upon actuation of the screw element is moveable in the direction of the centre axis, - wherein the toggle fastener further comprises at least one guide element (8, 9) for guiding the toggle element in upon actuation of the screw element, - wherein one of the at least one guide elements provides a guide for the toggle element upon the movement from the mounting position into the fastening position, - and wherein the external thread of the screw element is followed at the end side by a threadless portion, wherein in the mounting position the external thread is no longer in engagement with the internal thread of the nut element, wherein a spring element presses the toggle element with the nut element against the external thread in such a manner that upon a rotation of the screw element the engagement between external thread and internal thread can be re-established. - a screw element with an external thread, extending along a centre axis, - a toggle element extending along a main axis and a nut element with an internal thread, in which the external thread engages, - wherein the nut element is pivotably mounted about a pivot axis in at least one bearing opening in the toggle element, - wherein the toggle element is pivotable from a mounting position, in which the main axis runs substantially parallel to the centre axis, into a fastening position, in which the main axis runs substantially transversely to the centre axis, and - wherein the toggle element upon actuation of the screw element is moveable in the direction of the centre axis, - wherein the toggle fastener further comprises at least one guide element (8, 9) for guiding the toggle element in upon actuation of the screw element, - wherein one of the at least one guide elements provides a guide for the toggle element upon the movement from the mounting position into the fastening position, - and wherein the external thread of the screw element is followed at the end side by a threadless portion, wherein in the mounting position the external thread is no longer in engagement with the internal thread of the nut element, wherein a spring element presses the toggle element with the nut element against the external thread in such a manner that upon a rotation of the screw element the engagement between external thread and internal thread can be re-established.
Method for connecting metallic components, in particular for structures in metal or railing construction, in which at least two components (9, 10), preferably but not exclusively consisting of aluminum, are connected by means of at least one pin-like connecting element made of stainless steel, which is provided at the first end with a thread-forming part and the second end of which is designed as a hexagonal screw head, and is provided between the first end and the second end with a retaining mechanism, furthermore with means for guiding and pressing the components (9, 10) together, characterized in that in a first step the first end of the at least one connecting element is screwed into the first borehole of the first component by means of the thread-forming part and in a second step, the at least one connecting element is inserted with the second end into the second borehole of the second component and is positioned by means of positioning and holding means, and in a third step, the second component is pressed non-releasably to the first component by means of the at least one connecting element.
An ultrasonic motion generator comprising: a non-resonant inverter configured to invert direct current to alternating current having a first frequency; an ultrasonic transducer electrically coupled with the non-resonant inverter and configured to generate an ultrasonic motion based on the alternating current; a motional sensing circuit for sensing motional current passing through the ultrasonic transducer; and a comparator configured to automatically detect a deviation of the first frequency from a resonant frequency of the ultrasonic transducer based on the motional current passing through the ultrasonic transducer and to generate an output signal based on the deviation to drive the non-resonant inverter wherein the motional sensing circuit includes a capacitor having a capacitance value C3 in series with a resistor having a resistance value R3, which are in parallel with two resistors having resistance values R4 and R2, which ultrasonic transducer comprising a Band Pass Filter circuit comprising a motion resistor (Rm), a motion capacitor (Cm), a motion inductor (Lm) and a parasitic capacitor (Cp), the motion capacitor (Cm), the motion resistor (Rm) and the motion inductance (Lm) being in a series relationship and the parasitic capacitor being in parallel to the series relationship. a non-resonant inverter configured to invert direct current to alternating current having a first frequency; an ultrasonic transducer electrically coupled with the non-resonant inverter and configured to generate an ultrasonic motion based on the alternating current; a motional sensing circuit for sensing motional current passing through the ultrasonic transducer; and a comparator configured to automatically detect a deviation of the first frequency from a resonant frequency of the ultrasonic transducer based on the motional current passing through the ultrasonic transducer and to generate an output signal based on the deviation to drive the non-resonant inverter wherein the motional sensing circuit includes a capacitor having a capacitance value C3 in series with a resistor having a resistance value R3, which are in parallel with two resistors having resistance values R4 and R2, which ultrasonic transducer comprising a Band Pass Filter circuit comprising a motion resistor (Rm), a motion capacitor (Cm), a motion inductor (Lm) and a parasitic capacitor (Cp), the motion capacitor (Cm), the motion resistor (Rm) and the motion inductance (Lm) being in a series relationship and the parasitic capacitor being in parallel to the series relationship.
A method for use in a motion sensing device having an inertial measurement unit with a strap down integration unit, and an application processing unit, the method comprising: sensing at least one acceleration value and at least one rotational value at the inertial measurement unit; converting the sensed acceleration value and rotational value into velocity and orientation increments by strap down integration; storing the velocity and orientation increments in a first buffer at the inertial measurement unit; and characterized by receiving an update request at the inertial measurement unit from the application processing unit over a first link and in response transmitting the contents of the first buffer from the inertial measurement unit to the application processing unit over a second link. sensing at least one acceleration value and at least one rotational value at the inertial measurement unit; converting the sensed acceleration value and rotational value into velocity and orientation increments by strap down integration; storing the velocity and orientation increments in a first buffer at the inertial measurement unit; and characterized by receiving an update request at the inertial measurement unit from the application processing unit over a first link and in response transmitting the contents of the first buffer from the inertial measurement unit to the application processing unit over a second link.
Device for connecting a cutting blade for single or multi-layer cutting of flat, pliable material with the cutting head of a cutting machine, comprising a tappet having a blade receptacle and connecting means arranged opposite thereto for connecting the tappet with the cutting head, wherein the blade receptacle has an insertion channel for receiving a blade shaft having a recess, and securing means are assigned to the blade receptacle, wherein further, securing means in the form of a securing ring are provided, characterized in that the insertion channel has a transverse opening crossing it and that the securing ring can be inserted through the transverse opening right into the insertion channel, wherein the transverse opening is designed as a transverse slot, the securing ring is held in the transverse slot by means of a compression spring in such a manner that a securing section of the securing ring projects into the insertion channel and that at least one centering recess is assigned to the securing ring on its side where it projects into the insertion channel.
Device for recovering heat from a liquid medium, comprising: - a heat exchanger having at least two heat-exchanger cells (3.1, 3.2, 3.3, 3.4) which are at least partially thermally separated from one another and which serve for receiving the liquid medium, wherein each of the heat-exchanger cells (3.1, 3.2, 3.3, 3.4) has a temperature sensor for ascertaining a temperature of the liquid medium which is situated therein, - at least one pipeline (4, 4.1) for conducting drinking water and/or heating water, which at least one pipeline passes through at least one of the heat-exchanger cells (3.1, 3.2, 3.3, 3.4), - a feed line in which the liquid medium is conducted, - a distributor device by means of which the liquid medium is selectively suppliable to the heat-exchanger cells (3.1, 3.2, 3.3, 3.4) from the feed line, - at least one temperature sensor for measuring a temperature of the liquid medium in the feed line, wherein the distributor device is open loop and/or closed loop controllable in such a way that the liquid medium is fed from the feed line to that heat-exchanger cell (3.1, 3.2, 3.3, 3.4) whose present temperature is the least colder than that of the liquid medium in the feed line, characterized in that a further pipeline (4.1) is provided as a return line of a heating installation, which passes through the heat-exchanger cells (3.1, 3.2, 3.3, 3.4) from bottom to top, wherein, between the heat-exchanger cells (3.1, 3.2, 3.3, 3.4) and above the uppermost heat-exchanger cell (3.1), the pipeline (4.1) is connected via connecting pipes in each case to a supply line, wherein, in the connecting pipes, controllable flaps are provided by means of which a predefined supply temperature is settable in the supply line. - a heat exchanger having at least two heat-exchanger cells (3.1, 3.2, 3.3, 3.4) which are at least partially thermally separated from one another and which serve for receiving the liquid medium, wherein each of the heat-exchanger cells (3.1, 3.2, 3.3, 3.4) has a temperature sensor for ascertaining a temperature of the liquid medium which is situated therein, - at least one pipeline (4, 4.1) for conducting drinking water and/or heating water, which at least one pipeline passes through at least one of the heat-exchanger cells (3.1, 3.2, 3.3, 3.4), - a feed line in which the liquid medium is conducted, - a distributor device by means of which the liquid medium is selectively suppliable to the heat-exchanger cells (3.1, 3.2, 3.3, 3.4) from the feed line, - at least one temperature sensor for measuring a temperature of the liquid medium in the feed line,
Method for controlling a steam turbine installation having a reheater arranged between high-pressure turbine and medium-pressure turbine or low-pressure turbine, a low-pressure bypass with a low-pressure bypass being also present, which low-pressure bypass leads from the reheater outlet into a condenser, characterized in that characteristic curves for the required value of the reheater pressure are used for controlling the low-pressure bypass valve during run-up, during (partial) load rejection procedures or during idling, which characteristic curves depend on at least one of the following first parameters: load applied to the installation; pressure before the high-pressure turbine blading; reheater steam flow, and also additionally on at least one of the following second parameters: high-pressure turbine exhaust steam temperature (THD; temperature of the live steam introduced into the high-pressure turbine; pressure (pFD) of the live steam introduced into the high-pressure turbine; reheater pressure. load applied to the installation; pressure before the high-pressure turbine blading; reheater steam flow, and also additionally on at least one of the following second parameters: high-pressure turbine exhaust steam temperature (THD; temperature of the live steam introduced into the high-pressure turbine; pressure (pFD) of the live steam introduced into the high-pressure turbine; reheater pressure. high-pressure turbine exhaust steam temperature (THD; temperature of the live steam introduced into the high-pressure turbine; pressure (pFD) of the live steam introduced into the high-pressure turbine; reheater pressure.
A computer-implemented method comprising: generating a partition table (120, 300, 404, 406) used to cluster a plurality of data points based on attribute values associated with the plurality of data points by mapping the data points to an ordered range of values associated with the partition table, the partition table including a first set of partitions defining a first segmentation of a total range of the ordered range of values; receiving a data point including an attribute value; determining that the first set of partitions does not include a partition mapped to the attribute value and that there is not a partition of the first set of partitions to which no attribute value is currently assigned, to which the attribute value can be mapped; generating a second set of partitions having more partitions than the first set of partitions, the second set of partitions defining a second segmentation of the total range of the ordered range of values, wherein generating the second set of partitions comprises bifurcating each partition of the first set of partitions; mapping the attribute value to a particular partition of the second set of partitions to which no attribute value is currently assigned; mapping the particular partition of the second set of partitions to one or more physical storage resources (118, 122); and storing the data point at the one or more physical storage resources, wherein generating the partition table used to cluster the plurality of data points is performed during ingestion of the plurality of data points. generating a partition table (120, 300, 404, 406) used to cluster a plurality of data points based on attribute values associated with the plurality of data points by mapping the data points to an ordered range of values associated with the partition table, the partition table including a first set of partitions defining a first segmentation of a total range of the ordered range of values; receiving a data point including an attribute value; determining that the first set of partitions does not include a partition mapped to the attribute value and that there is not a partition of the first set of partitions to which no attribute value is currently assigned, to which the attribute value can be mapped; generating a second set of partitions having more partitions than the first set of partitions, the second set of partitions defining a second segmentation of the total range of the ordered range of values, wherein generating the second set of partitions comprises bifurcating each partition of the first set of partitions; mapping the attribute value to a particular partition of the second set of partitions to which no attribute value is currently assigned; mapping the particular partition of the second set of partitions to one or more physical storage resources (118, 122); and storing the data point at the one or more physical storage resources,
Household refrigeration appliance with an outer housing, in which an inner container of the household refrigeration appliance is arranged, and with a receiving space for foodstuffs, which is limited by walls of the inner container, and with at least one separate heat-conducting element arranged outside the receiving space, with which heat from a heat source separate from the heat-conducting element can be conducted to a condensation-critical point of the refrigeration appliance, wherein the heat-conducting element is arranged on a front flange of the inner container and extends from the front flange to the condensation-critical point, wherein thermal insulation foam is introduced in an intermediate space between the outer housing and the inner container and the heat-conducting element is embedded in foam in this intermediate space, characterised in that the heat-conducting element is embodied in a brace-like manner, so that a clamping self-retaining effect is achieved at the front flange and the condensation-critical point, at least in part.
An electrical assembly comprising: a first control system (CTRL1) adapted to control a power conversion system and requiring an electric supply for operation thereof; a sensor system adapted to detect conditions relating to the first control system (CTRL1), the conditions comprising temperature and/or humidity, and the first control system (CTRL1) being adapted to receive information from the sensor system; and a heating system adapted to heat the first control system (CTRL1) of the electrical assembly; characterized in that the electrical assembly further comprises a second control system (CTRL2) which is adapted to receive information from the sensor system and in connection with turning on the electrical assembly to selectively turn on the first control system (CTRL1) and/or the heating system based on conditions detected by the sensor system and relating to the first control system (CTRL1), such that in connection with turning on the electrical assembly the second control system (CTRL2) is adapted to turn on the first control system (CTRL1) if the detected conditions relating to the first control system (CTRL1) are inside ranges accepted by the second control system (CTRL2), and to turn on the heating system if the detected conditions relating to the first control system (CTRL1) are outside ranges accepted by the second control system (CTRL2), the second control system (CTRL2) being capable of operating in more harsh conditions than the first control system (CTRL1), the more harsh conditions including lower temperature and/or higher humidity. a first control system (CTRL1) adapted to control a power conversion system and requiring an electric supply for operation thereof; a sensor system adapted to detect conditions relating to the first control system (CTRL1), the conditions comprising temperature and/or humidity, and the first control system (CTRL1) being adapted to receive information from the sensor system; and a heating system adapted to heat the first control system (CTRL1) of the electrical assembly; characterized in that the electrical assembly further comprises a second control system (CTRL2) which is adapted to receive information from the sensor system and in connection with turning on the electrical assembly to selectively turn on the first control system (CTRL1) and/or the heating system based on conditions detected by the sensor system and relating to the first control system (CTRL1), such that in connection with turning on the electrical assembly the second control system (CTRL2) is adapted to turn on the first control system (CTRL1) if the detected conditions relating to the first control system (CTRL1) are inside ranges accepted by the second control system (CTRL2), and to turn on the heating system if the detected conditions relating to the first control system (CTRL1) are outside ranges accepted by the second control system (CTRL2), the second control system (CTRL2) being capable of operating in more harsh conditions than the first control system (CTRL1), the more harsh conditions including lower temperature and/or higher humidity.
Method for determining the position of an actuation element of a user in a motor vehicle as an object (12, 13) of the user, which comprises the actuation element, approaches a surface, comprising the following steps of: capturing sensor signals from contactlessly measuring sensors, the sensor signals each being a measure of a distance between the object (12, 13) and a corresponding sensor position, and determining the position of the actuation element on the basis of the sensor signals from the sensors, a centre of gravity position (14-17, 33) of the object (12, 13) approaching with the actuation element first of all being determined on the basis of the sensor signals, characterized in that the position of the actuation element is determined on the basis of the centre of gravity position (14-17, 33) taking into account an offset (24-27, 55) dependent on the centre of gravity position (14-17, 33), the offset (24-27, 55) being predetermined or being able to be calculated from predetermined offsets on the basis of the centre of gravity position (14-17, 33). capturing sensor signals from contactlessly measuring sensors, the sensor signals each being a measure of a distance between the object (12, 13) and a corresponding sensor position, and determining the position of the actuation element on the basis of the sensor signals from the sensors, a centre of gravity position (14-17, 33) of the object (12, 13) approaching with the actuation element first of all being determined on the basis of the sensor signals, characterized in that the position of the actuation element is determined on the basis of the centre of gravity position (14-17, 33) taking into account an offset (24-27, 55) dependent on the centre of gravity position (14-17, 33), the offset (24-27, 55) being predetermined or being able to be calculated from predetermined offsets on the basis of the centre of gravity position (14-17, 33).
A spray gun comprising: a spray gun body; an air cap; a fluid spray nozzle having a fluid tip; a hollow needle; at least one air distribution channel for atomizing air; and at least one air distribution channel for fan air, wherein the fluid spray nozzle and the air cap are configured to direct an atomization air flow at an angle of 10 to 75 degrees relative to a pre-atomized coating composition jet, into the pre-atomized coating composition jet, wherein the hollow needle is coupled via a duct to an atomizing air channel and transports 50-150 l/min of the atomizing air into the fluid spray nozzle to generate an area of low pressure in front of the fluid tip and a pre-atomization in the fluid spray nozzle. a spray gun body; an air cap; a fluid spray nozzle having a fluid tip; a hollow needle; at least one air distribution channel for atomizing air; and at least one air distribution channel for fan air, wherein the fluid spray nozzle and the air cap are configured to direct an atomization air flow at an angle of 10 to 75 degrees relative to a pre-atomized coating composition jet, into the pre-atomized coating composition jet, wherein the hollow needle is coupled via a duct to an atomizing air channel and transports 50-150 l/min of the atomizing air into the fluid spray nozzle to generate an area of low pressure in front of the fluid tip and a pre-atomization in the fluid spray nozzle.
A liquid pharmaceutical formulation suitable for oral administration, comprising (a) a suspension of an effective amount of micronized 2-(2-nitro-4-trifluoromethylbenzoyl)-1,3-cyclohexanedione (nitisinone); and (b) citric acid buffer having a pH in the range of 2.5 to 3.5, preferably pH 3.0. (a) a suspension of an effective amount of micronized 2-(2-nitro-4-trifluoromethylbenzoyl)-1,3-cyclohexanedione (nitisinone); and (b) citric acid buffer having a pH in the range of 2.5 to 3.5, preferably pH 3.0.