mhurhangee/patent-ind-claim-en huggingface dataset:
Method for connecting a post to a frame profile in a window or a door made of plastic, wherein the post has a hollow profile and is connected to the frame profile using a post connector which comprises a base part , which is fastened on the frame profile , and an attachment part , which is fitted onto the base part , wherein the base part is connected to the frame profile , the attachment part is connected to the post , and the two parts are connected to one another, by latching, characterized in that the base part has on its underside, which is directed towards the frame profile , and on its upper side, and the attachment part has on its upper side, which is directed towards the post , a respective arrangement of groove-form and/or surface-area cutouts which, in the joined-together state of the connecting arrangement, are connected to one another via in each case at least one connecting channel (19, 20; 23, 24) formed in the base part and in the attachment part , wherein the open sides of the cutouts are covered on the underside of the base part by the attachment surface of the frame profile , on the upper side of the base part by surfaces on the fitted-on attachment part and on the upper side of the latter by surfaces on the facing end region of the post , and wherein all the covered cutouts on the base part and on the attachment part are filled with a curing, permanently elastic liquid adhesive through a filling opening provided in the attachment surface of the frame profile .
A firmware updating method, applicable to an electronic device , wherein the electronic device comprises a non-volatile memory , and the non-volatile memory comprises a firmware partition (PTN1) and a spare partition (PTN2), the firmware updating method comprising: executing an auxiliary firmware, wherein the firmware partition (PTN1) comprises a first block (PTN1-1) and a second block (PTN1-2), and the auxiliary firmware is in the first block (PTN1-1) and comprises a disk partition table of the non-volatile memory ; receiving a system update file corresponding to a system firmware of the electronic device ; and when a storage space required by the system firmware is larger than an available storage space of the second block (PTN1-2), writing the system firmware into the second block (PTN1-2) of the firmware partition (PTN1) and a spare block (PTN2-2) of the spare partition (PTN2) according to the disk partition table and the system update file. executing an auxiliary firmware, wherein the firmware partition (PTN1) comprises a first block (PTN1-1) and a second block (PTN1-2), and the auxiliary firmware is in the first block (PTN1-1) and comprises a disk partition table of the non-volatile memory ; receiving a system update file corresponding to a system firmware of the electronic device ; and when a storage space required by the system firmware is larger than an available storage space of the second block (PTN1-2), writing the system firmware into the second block (PTN1-2) of the firmware partition (PTN1) and a spare block (PTN2-2) of the spare partition (PTN2) according to the disk partition table and the system update file.
Bogie for a rail vehicle, having at least one internally mounted first wheelset with a first wheelset axle, a first wheel and a second wheel, characterised in that at least one first tensioning arrangement is tensioned with the at least one first wheelset , wherein the at least first tensioning arrangement has a tensioning piece , a central screw and a counter piece , wherein the tensioning piece is pretensioned by means of the central screw and the counter piece , by means of the transmission of forces from the central screw to the tensioning piece and under the effect of a radial force between the at least first tensioning arrangement and the at least first wheelset , wherein a support apparatus for arranging components on the exterior sides of the bogie is mounted on the at least first tensioning arrangement and a further bogie component, wherein the support apparatus is mounted on the tensioning piece by means of a first roller bearing pair .
A composition comprising - at least one polymer containing silane groups, - at least one epoxy resin, and - at least one amine of the formula (I) where A is an alkylene radical having 2 to 15 carbon atoms which optionally contains one or more nitrogen atoms, each R independently is a hydrogen or methyl or phenyl radical, Q is a five-, six- or seven-membered cycloalkyl or aryl radical optionally having an oxygen, sulfur or nitrogen atom in the ring and having 4 to 7 carbon atoms, Y represents identical or different radicals selected from the group consisting of alkyl, alkoxy and dialkylamino having 1 to 18 carbon atoms, m is 1 or 2, and n is 0 or 1 or 2 or 3. - at least one polymer containing silane groups, - at least one epoxy resin, and - at least one amine of the formula (I) where A is an alkylene radical having 2 to 15 carbon atoms which optionally contains one or more nitrogen atoms, each R independently is a hydrogen or methyl or phenyl radical, Q is a five-, six- or seven-membered cycloalkyl or aryl radical optionally having an oxygen, sulfur or nitrogen atom in the ring and having 4 to 7 carbon atoms, Y represents identical or different radicals selected from the group consisting of alkyl, alkoxy and dialkylamino having 1 to 18 carbon atoms, m is 1 or 2, and n is 0 or 1 or 2 or 3. A is an alkylene radical having 2 to 15 carbon atoms which optionally contains one or more nitrogen atoms, each R independently is a hydrogen or methyl or phenyl radical, Q is a five-, six- or seven-membered cycloalkyl or aryl radical optionally having an oxygen, sulfur or nitrogen atom in the ring and having 4 to 7 carbon atoms, Y represents identical or different radicals selected from the group consisting of alkyl, alkoxy and dialkylamino having 1 to 18 carbon atoms, m is 1 or 2, and n is 0 or 1 or 2 or 3.
A discrete semiconductor transistor device comprising: a transistor having a first terminal (E) and a second terminal (C) for connecting the transistor into an external circuit in order to control current flow through said external circuit, and a control terminal; a controller circuitry having an output that is connected to the control terminal (B) of the transistor in order to control operation of the transistor ; the controller circuitry comprising at least one input to allow the discrete semiconductor transistor device to receive control and/or data signals from an external source and wherein the controller circuitry comprises analogue computing circuitry and digital computing circuitry ; characterised in that the analogue computing circuitry comprises multiple sub circuits, each for carrying out a different mathematical operation selected from addition, inversion, multiplication, integration, exponentiation, division, logarithm and differentiation; and in which the digital computing circuitry is configurable to program the analogue computing circuity which comprises selecting one or more of the sub-circuits to select a mathematical operation . a transistor having a first terminal (E) and a second terminal (C) for connecting the transistor into an external circuit in order to control current flow through said external circuit, and a control terminal; a controller circuitry having an output that is connected to the control terminal (B) of the transistor in order to control operation of the transistor ; the controller circuitry comprising at least one input to allow the discrete semiconductor transistor device to receive control and/or data signals from an external source and wherein the controller circuitry comprises analogue computing circuitry and digital computing circuitry ; characterised in that the analogue computing circuitry comprises multiple sub circuits, each for carrying out a different mathematical operation selected from addition, inversion, multiplication, integration, exponentiation, division, logarithm and differentiation; and in which the digital computing circuitry is configurable to program the analogue computing circuity which comprises selecting one or more of the sub-circuits to select a mathematical operation .
Connection element comprising a main element (10, 10', 10") and an attachment element , wherein the connection element is formed by selecting a variable installation depth VE in a length-adjustable manner, wherein it is possible to set a length L, and comprising a securing element , by means of which the length L can be reversibly determined, wherein the length L is determined by the securing element abutting the main element (10, 10', 10") and the main element (10, 10', 10"), the securing element and the attachment element being braced via their respective contact surfaces, characterised in that the securing element comprises at least one third hole , and a hammer-head bolt is inserted by being guided into a first opening and through a second opening , and the head of said bolt is arranged so as to be turned such that the sides thereof abut the attachment element .
Method for operating an apparatus for heat-shrinking a sheet-like material onto a group of individual packs, having at least one heating zone (I, II) with a plurality of electrical heating devices (HR), wherein the method comprises the following method steps: - sensing the actual temperature in the region of the heating zone (I, II) and comparing the actual temperature in the region of the heating zone (I, II) with a desired temperature (ST); - switching into a first operating mode by reducing the number of active heating devices (2, 2', 2") in the heating zone (I, II) to a predefined number of heating devices (HR) when the actual temperature (IT) in the region of the heating zone (I, II) has exceeded the desired temperature (ST), wherein the predefined number of heating devices (HR) was determined by taking at least one operating parameter into consideration; and - switching from the first operating mode into a second operating mode by increasing the number of active heating devices (HR) in the heating zone (I, II) in order to increase the actual temperature in the region of the heating zone (I, II) to the desired temperature (ST). - sensing the actual temperature in the region of the heating zone (I, II) and comparing the actual temperature in the region of the heating zone (I, II) with a desired temperature (ST); - switching into a first operating mode by reducing the number of active heating devices (2, 2', 2") in the heating zone (I, II) to a predefined number of heating devices (HR) when the actual temperature (IT) in the region of the heating zone (I, II) has exceeded the desired temperature (ST), wherein the predefined number of heating devices (HR) was determined by taking at least one operating parameter into consideration; and - switching from the first operating mode into a second operating mode by increasing the number of active heating devices (HR) in the heating zone (I, II) in order to increase the actual temperature in the region of the heating zone (I, II) to the desired temperature (ST).
A method for controlling an excitation of a synchronous generator, the method comprising: - producing an amplitude signal indicative of amplitude of voltage of the synchronous generator, and - operating a voltage control loop for controlling the excitation of the synchronous generator on the basis of the amplitude signal and reference amplitude of the voltage, characterized in that the voltage control loop comprises a band-rejection filter having a stop-band covering at least partly a frequency area of torsional mode oscillations of a rotating system comprising a rotor of the synchronous generator, wherein an input signal of the band-rejection filter comprises at least the amplitude signal. - producing an amplitude signal indicative of amplitude of voltage of the synchronous generator, and - operating a voltage control loop for controlling the excitation of the synchronous generator on the basis of the amplitude signal and reference amplitude of the voltage,
A polymer blend comprising a first polymer and a second polymer, wherein the first polymer is a random copolymer having an aromatic vinyl compound-derived constituent unit, a conjugated diene compound-derived constituent unit, and an ethylene-derived constituent unit, the second polymer is a non-hydrogenated random copolymer having an aromatic vinyl compound-derived constituent unit and a conjugated diene compound-derived constituent unit, and a value obtained by subtracting an SP value of the second polymer from an SP value of the first polymer is 0 or more and 0.6 or less, wherein SP value means compatibility parameter. the first polymer is a random copolymer having an aromatic vinyl compound-derived constituent unit, a conjugated diene compound-derived constituent unit, and an ethylene-derived constituent unit, the second polymer is a non-hydrogenated random copolymer having an aromatic vinyl compound-derived constituent unit and a conjugated diene compound-derived constituent unit, and a value obtained by subtracting an SP value of the second polymer from an SP value of the first polymer is 0 or more and 0.6 or less, wherein SP value means compatibility parameter.
A diaphragm pacing system, comprising: an electrode assembly including a plurality of electrodes (6a-6r); at least one sensor configured to monitor a diaphragm response to stimulation signals; and a stimulation control unit configured to: send a plurality of stimulation signals to a combination of electrodes of the plurality of electrodes, where each stimulation signal includes a corresponding charge, and the corresponding charges differ among the plurality of stimulation signals; determine a recruitment curve relating the corresponding charges to diaphragm responses resulting from the corresponding charges, wherein determining the recruitment curve includes determining a charge causing zero recruitment of the phrenic nerve; after determining the recruitment curve, send a secondary stimulation signal, including a secondary charge, to the combination of electrodes; using the recruitment curve, determine an expected diaphragm response resulting from the secondary stimulation signal; and compare an actual diaphragm response to the expected diaphragm response. an electrode assembly including a plurality of electrodes (6a-6r); at least one sensor configured to monitor a diaphragm response to stimulation signals; and a stimulation control unit configured to: send a plurality of stimulation signals to a combination of electrodes of the plurality of electrodes, where each stimulation signal includes a corresponding charge, and the corresponding charges differ among the plurality of stimulation signals; determine a recruitment curve relating the corresponding charges to diaphragm responses resulting from the corresponding charges, wherein determining the recruitment curve includes determining a charge causing zero recruitment of the phrenic nerve; after determining the recruitment curve, send a secondary stimulation signal, including a secondary charge, to the combination of electrodes; using the recruitment curve, determine an expected diaphragm response resulting from the secondary stimulation signal; and compare an actual diaphragm response to the expected diaphragm response. send a plurality of stimulation signals to a combination of electrodes of the plurality of electrodes, where each stimulation signal includes a corresponding charge, and the corresponding charges differ among the plurality of stimulation signals; determine a recruitment curve relating the corresponding charges to diaphragm responses resulting from the corresponding charges, wherein determining the recruitment curve includes determining a charge causing zero recruitment of the phrenic nerve; after determining the recruitment curve, send a secondary stimulation signal, including a secondary charge, to the combination of electrodes; using the recruitment curve, determine an expected diaphragm response resulting from the secondary stimulation signal; and compare an actual diaphragm response to the expected diaphragm response.
A multiturn magnetic absolute encoder, comprising: a first counting unit with an input shaft and M further counting units, where M is an integer greater than or equal to 1; a single turn signal processing unit ; and a multiturn signal processing unit , wherein the first counting unit and further counting units are successively connected, each further counting unit being connected to a preceding counting unit by a reduction gear , and wherein, each counting unit includes: a permanent magnet coaxially mounted in a counting wheel , wherein the permanent magnets provide a detection plane that is located adjacent and parallel to an end circular face of the permanent magnet; and a tunneling magnetoresistive angular displacement sensor to detect the magnetic field component produced by the permanent magnet in the detection plane of the permanent magnet and output a signal, wherein within each counting unit, the tunneling magnetoresistive angular displacement sensor is located in a circular region of the detection plane of the cylindrical ring permanent magnet that is centered on the cylindrical ring permanent magnet's axis, within which circular region the permanent magnet produces a magnetic field in the detection plane with a component oriented at an angle that is linearly related to the rotation angle of the rotating permanent magnet, the single turn processing unit is configured to process the output signal of the first counting unit in order to calculate a code representative of the absolute rotational position of the counting wheel within one rotation, and the multiturn signal processing unit is configured to calculate and output the integer number of rotations of the input shaft using sensor signals from the further counting units, characterized in that the permanent magnet has a cylindrical ring structure and contains a first permanent magnet unit and a second permanent magnet unit , and the first permanent magnet unit and the second permanent magnet unit have shapes that are symmetrically located with respect to the diametral cross section of the permanent magnet, and the magnetization of the first permanent magnet unit and the magnetization of the second permanent magnet unit are parallel to the central axis cylindrical ring permanent magnet, but aligned in opposite directions. a first counting unit with an input shaft and M further counting units, where M is an integer greater than or equal to 1; a single turn signal processing unit ; and a multiturn signal processing unit , a permanent magnet coaxially mounted in a counting wheel , wherein the permanent magnets provide a detection plane that is located adjacent and parallel to an end circular face of the permanent magnet; and a tunneling magnetoresistive angular displacement sensor to detect the magnetic field component produced by the permanent magnet in the detection plane of the permanent magnet and output a signal,
A system , comprising: a non-transitory memory device for storing computer-readable program code; and a processor in communication with the memory device , the processor being operative with the computer-readable program code to perform operations including retrieving project metadata and at least one predefined project template, providing an integrated development environment IDE via a Web browser , generating, via the IDE , source code for different Internet of Things IoT applications based on the project metadata and the project template by combining the project template with the project metadata, receiving configuration data associated with the applications and multiple IoT targets, wherein the multiple IoT targets comprise at least one cloud platform , at least one mobile device and at least one IoT device , and deploying, in response to a single user input received via the IDE , the IoT applications to the multiple IoT targets simultaneously and based on the configuration data. a non-transitory memory device for storing computer-readable program code; and a processor in communication with the memory device , the processor being operative with the computer-readable program code to perform operations including retrieving project metadata and at least one predefined project template, providing an integrated development environment IDE via a Web browser , generating, via the IDE , source code for different Internet of Things IoT applications based on the project metadata and the project template by combining the project template with the project metadata, receiving configuration data associated with the applications and multiple IoT targets, wherein the multiple IoT targets comprise at least one cloud platform , at least one mobile device and at least one IoT device , and deploying, in response to a single user input received via the IDE , the IoT applications to the multiple IoT targets simultaneously and based on the configuration data. retrieving project metadata and at least one predefined project template, providing an integrated development environment IDE via a Web browser , generating, via the IDE , source code for different Internet of Things IoT applications based on the project metadata and the project template by combining the project template with the project metadata, receiving configuration data associated with the applications and multiple IoT targets, wherein the multiple IoT targets comprise at least one cloud platform , at least one mobile device and at least one IoT device , and deploying, in response to a single user input received via the IDE , the IoT applications to the multiple IoT targets simultaneously and based on the configuration data.
A composition for oral use comprising an extract of Tamarindus indica, hyaluronic acid and / or its salts and at least one block copolymer of ethylene oxide and propylene oxide.
Stable liquid ready-to-use ketoprofen formulation for administration by parenteral route, comprising ketoprofen solubilised in a solely aqueous solvent with a buffer agent added composed of acetic acid and sodium acetate, said formulation being adjusted to a pH above 5.5 and below 6.5, the quantity of ketoprofen being between 0.01% and 1% by weight.