mhurhangee/patent-ind-claim-en huggingface dataset:
Load data transformer comprising: a data interface configured to communicatively couple to at least one load data source network (LDSN) and at least one load data receiving network (CRN); a data transformer communicatively coupled to the data interface , and configured to receive load data via the data interface from the load data source network (LDSN), and transform the load data into transformed load data based on a radio access network resources schedule of a broadcast network (BCN), and to output the transformed load data via the data interface to the load data receiving network (CRN); wherein radio access network resources schedule comprises information about reservations of radio access network resources for at least one radio access network (RAN) of the broadcast network (BCN); wherein the data transformer when transforming is configured to transform the requested time for transmission of the load data to an earlier transmission time. a data interface configured to communicatively couple to at least one load data source network (LDSN) and at least one load data receiving network (CRN); a data transformer communicatively coupled to the data interface , and configured to receive load data via the data interface from the load data source network (LDSN), and transform the load data into transformed load data based on a radio access network resources schedule of a broadcast network (BCN), and to output the transformed load data via the data interface to the load data receiving network (CRN); wherein radio access network resources schedule comprises information about reservations of radio access network resources for at least one radio access network (RAN) of the broadcast network (BCN); wherein the data transformer when transforming is configured to transform the requested time for transmission of the load data to an earlier transmission time.
A foam dispensing device comprising a mixer body having a main conduit , extending along the mixer body , having an opening for issuing pressurised foam or mixture comprising at least water, detergent and air; the mixer body has at least one conduit for introducing water under pressure and at least one conduit for introducing a detergent product in the main conduit or, alternatively, a single conduit for introducing water under pressure mixed with the detergent product in the main conduit ; the mixer body has at least one conduit for introducing compressed air in a mixing chamber positioned along the main conduit and in fluid communication with the emission opening ;the mixing chamber being configured to generate the above-mentioned pressurised foam or mixture by interference of the flows of water , detergent product and compressed air with the walls of the mixing chamber ; the device comprising injection means for injecting at least water and detergent in the mixing chamber ; characterised in that the injection means comprise at least a nozzle for introducing at least the pressurised water in the mixing chamber ; the injection means are defined at least partly by a respective stretch (T) of the main conduit having a variable cross section with a diverging extension; the stretch (T) has an inlet opening and an outlet opening for at least water and detergent ; the cross section of the outlet opening has a cross section larger than the cross section of the inlet opening ; the stretch (T) placing in fluid communication the nozzle with the mixing chamber .
A method for preparing a stable bioactive substance comprising a bioactive material, comprising; (a) dissolving the bioactive material in a solution comprising solutes, wherein the solutes are a small molecule, selected from the group consisting of inorganic salts, and sugars, whereby a bioactive solution is obtained, wherein the bioactive solution has a bioactive material concentration of at least 5% and a solute concentration of less than 5% of the bioactive solution, each percentage based on the total weight of the bioactive solution; (b) adsorbing the bioactive solution onto dry non-gelling water-soluble polysaccharide particles in a mass ratio of the bioactive solution to the polysaccharide particles between 0.25: 1 and 1:1, whereby bioactive polysaccharide loaded particles are formed; and (c) drying the bioactive polysaccharide loaded particles, whereby the stable bioactive substance is obtained. (a) dissolving the bioactive material in a solution comprising solutes, wherein the solutes are a small molecule, selected from the group consisting of inorganic salts, and sugars, whereby a bioactive solution is obtained, wherein the bioactive solution has a bioactive material concentration of at least 5% and a solute concentration of less than 5% of the bioactive solution, each percentage based on the total weight of the bioactive solution; (b) adsorbing the bioactive solution onto dry non-gelling water-soluble polysaccharide particles in a mass ratio of the bioactive solution to the polysaccharide particles between 0.25: 1 and 1:1, whereby bioactive polysaccharide loaded particles are formed; and (c) drying the bioactive polysaccharide loaded particles, whereby the stable bioactive substance is obtained.
A method performed by a station, STA, to receive a frame in a wireless local area network, WLAN, system, the method comprising: receiving, at the STA, the frame comprising a signaling, SIG, field for control information and a data field for data, wherein the SIG field comprises a first SIG field, SIG A and a second SIG field, SIG B, wherein the control information of the SIG A includes a bandwidth field, a field for guard interval, GI, length, and a basic service set, BSS, color field, wherein the control information of the SIG B includes user specific information; and processing the bandwidth field within the SIG A, wherein the STA identifies a bandwidth of 20 MHz, 40 MHz, 80 MHz and 160 MHz or 80+80 MHz based on a value of the bandwidth field, if the STA determines the value of the bandwidth field is within a first range of values available for the bandwidth field, wherein the STA identifies a presence of one or more null channels based on a value of the bandwidth field, if the STA determines the value of the bandwidth field is within a second range of values available for the bandwidth field, and wherein the first range of values do not overlap with the second range of values. receiving, at the STA, the frame comprising a signaling, SIG, field for control information and a data field for data, wherein the SIG field comprises a first SIG field, SIG A and a second SIG field, SIG B, wherein the control information of the SIG A includes a bandwidth field, a field for guard interval, GI, length, and a basic service set, BSS, color field, wherein the control information of the SIG B includes user specific information; and processing the bandwidth field within the SIG A, wherein the STA identifies a bandwidth of 20 MHz, 40 MHz, 80 MHz and 160 MHz or 80+80 MHz based on a value of the bandwidth field, if the STA determines the value of the bandwidth field is within a first range of values available for the bandwidth field, wherein the STA identifies a presence of one or more null channels based on a value of the bandwidth field, if the STA determines the value of the bandwidth field is within a second range of values available for the bandwidth field, and wherein the first range of values do not overlap with the second range of values.
A magnetic bearing , comprising a static portion and a rotor portion, wherein the static portion comprises: - a magnetic base ; - at least three actuator bobbins mounted on the magnetic base ; and - magnetic sensors associated with the actuator bobbins , wherein each actuator bobbin comprises an actuator coil holder and an actuator coil wound up around the actuator coil holder , and each magnetic sensor comprises a sensor coil holder and a sensor coil wound up around the sensor coil holder , wherein, when the magnetic bearing is mounted, each sensor coil is positioned next to a corresponding actuator coil along an axial direction defined by a central axis (X1) of the magnetic bearing, said actuator coils and sensor coils being coupled by pairs; and - a connector device (80 ; 180) integrated to the respective actuator and sensor coil holder (21 ; 31) and designed for plugging at least one wire (91 ; 92), the connector device (80 ; 180) being an insulator displacement connector designed for receiving and automatically restraining at least one wire (91; 92); wherein the connector device is a siameze insulator displacement connector, including similar opposite connection portions (81; 82) for plugging distinct wires (91; 92) or the connector device comprises a straight pin and a connection portion for plugging a wire . - a magnetic base ; - at least three actuator bobbins mounted on the magnetic base ; and - magnetic sensors associated with the actuator bobbins , wherein each actuator bobbin comprises an actuator coil holder and an actuator coil wound up around the actuator coil holder , and each magnetic sensor comprises a sensor coil holder and a sensor coil wound up around the sensor coil holder , wherein, when the magnetic bearing is mounted, each sensor coil is positioned next to a corresponding actuator coil along an axial direction defined by a central axis (X1) of the magnetic bearing, said actuator coils and sensor coils being coupled by pairs; and - a connector device (80 ; 180) integrated to the respective actuator and sensor coil holder (21 ; 31) and designed for plugging at least one wire (91 ; 92), the connector device (80 ; 180) being an insulator displacement connector designed for receiving and automatically restraining at least one wire (91; 92);
A method performed by a wireless device configured to operate in a wireless communication system, the method comprising: receiving, from a network, a configuration of a plurality of data subbands, wherein the configuration includes information on a numerology for each of the plurality of data subbands, and wherein one data subband among the plurality of data subbands consists of contiguous physical resource blocks, PRBs; activating (S110) a first data subband among the plurality of data subband; communicating (S120) with the network in the first data subband; receiving (S 100), from the network, downlink control information, DCI, including information on a second data subband among the plurality of data subbands; activating (S1 10) the second data subband by performing a bandwidth adaptation from the first data subband to the second data subband based on the information on the second data subband; and communicating (S120) with the network via resources scheduled by the DCI in the second data subband. receiving, from a network, a configuration of a plurality of data subbands, wherein the configuration includes information on a numerology for each of the plurality of data subbands, and wherein one data subband among the plurality of data subbands consists of contiguous physical resource blocks, PRBs; activating (S110) a first data subband among the plurality of data subband; communicating (S120) with the network in the first data subband; receiving (S 100), from the network, downlink control information, DCI, including information on a second data subband among the plurality of data subbands; activating (S1 10) the second data subband by performing a bandwidth adaptation from the first data subband to the second data subband based on the information on the second data subband; and communicating (S120) with the network via resources scheduled by the DCI in the second data subband.
Method for estimating the dilution ratio of fuel in the oil of an internal combustion engine of a motor vehicle equipped with a combustion gas treatment device requiring post-fuel-injection regeneration phases, said method comprising a step of determination of an overall speed of dilution of the fuel (Vdil), characterized in that , during a preliminary step of the method, a plurality of fractions (F 1 , F 2 , ... F x ) of composition of said fuel are defined, each fraction (F i ) having a different density, and in that the method comprises, repeatedly for a succession of instants (t, t+dt), an estimation of the dilution ratio (T) by addition of the dilution ratio (T(t)) estimated at the preceding instant with a dilution ratio variation value (dT), the dilution ratio variation value (dT) being calculated as a function of an estimation of the variation of the dilution ratio (dTi), between two successive instants (t, t+dt), of each fraction (F i ) of the plurality of fractions (F 1 , F 2 , ... F x ) of composition of said fuel in the oil; the method at each successive instant implementing a step of comparing said estimated dilution ratio (T) to a predetermined threshold; and if the estimated dilution ratio (T) is higher than said predetermined threshold, the method is configured to trigger an alert warning that it is necessary to change the oil in said motor vehicle. and in that the method comprises, repeatedly for a succession of instants (t, t+dt), an estimation of the dilution ratio (T) by addition of the dilution ratio (T(t)) estimated at the preceding instant with a dilution ratio variation value (dT), the dilution ratio variation value (dT) being calculated as a function of an estimation of the variation of the dilution ratio (dTi), between two successive instants (t, t+dt), of each fraction (F i ) of the plurality of fractions (F 1 , F 2 , ... F x ) of composition of said fuel in the oil; the method at each successive instant implementing a step of comparing said estimated dilution ratio (T) to a predetermined threshold; and if the estimated dilution ratio (T) is higher than said predetermined threshold, the method is configured to trigger an alert warning that it is necessary to change the oil in said motor vehicle.
A die casting machine comprising at least one receiving frame for energy modules , said receiving frame having: - Fastening means for fastening the receiving frame to the die casting machine , - 1 to 3 rows 5H, 5H', 5H'' for receiving energy modules , each row 5H, 5H', 5H" comprising two profile pieces (5B, 5B', 5B", 5B"') which, preferably at their ends, are connected to each other by a connecting piece or an energy module , under formation of a quadrangular, preferably rectangular, inner space, the rows having means for arranging energy modules in their internal space and, if there are several rows , being connected to one another, and, wherein the fastening means for fastening the receiving frame to the die casting machine are arranged on a profile piece forming an outer surface of the receiving frame , and the receiving frame is fastened to the die casting machine via the fastening means , preferably under formation of an intermediate space between the die casting machine and the row adjacent to the die casting machine . - Fastening means for fastening the receiving frame to the die casting machine , - 1 to 3 rows 5H, 5H', 5H'' for receiving energy modules , each row 5H, 5H', 5H" comprising two profile pieces (5B, 5B', 5B", 5B"') which, preferably at their ends, are connected to each other by a connecting piece or an energy module , under formation of a quadrangular, preferably rectangular, inner space,
Device for real-time detection of aeropathogens comprising an aerosampler having an air inlet and at least one air collector tube ; a microfluidic system comprising at least one container for receiving a wetting liquid, piping from the container to the at least one air collector tube and at least one micro pump for creating fluid flow through the piping ; the at least one container being configured to supply wetting liquid to an inner wall of the least one collector tube ; and the air inlet being configured to inject air into the at least one collector tube eccentrically and oblique to a bottom of the tube thereby creating a centrifugal force; the device further comprising at least one aeropathogen detection chamber and piping from microfluidic system to the at last one aeropathogen detection chamber , the detection chamber having at least one working electrode being equipped with a functionalized aptamer for binding to an aeropathogen, at least one counter electrode and at least one reference electrode ; at least one electronic detection system connectable to the electrodes of the at least one aeropathogen detection chamber; and an embedded electronic processing system processing data receivable from the at least one electronic detection system.
A liquid container comprising: a pouch including a flexible bag and a spout with a first opening ; and a case with a second opening , the case including a tank configured to store a liquid flowed through the second opening , wherein the spout is fitted into the case, and the bag is positioned in the tank , characterised in that the second opening is positioned above the first opening , and in that the case includes an atmosphere communication hole for communication between inside and outside of the tank , and in that the atmosphere communication hole is positioned above the second opening . a pouch including a flexible bag and a spout with a first opening ; and a case with a second opening , the case including a tank configured to store a liquid flowed through the second opening , wherein the spout is fitted into the case, and the bag is positioned in the tank , characterised in that the second opening is positioned above the first opening , and in that the case includes an atmosphere communication hole for communication between inside and outside of the tank , and in that the atmosphere communication hole is positioned above the second opening .
Method for the amplification of nucleic acids by means of a Polymerase Chain Reaction in a reaction volume comprising a heating means, which consists of one or a plurality of heating elements which are in contact with the reaction volume in order to heat it and which convert a current flow into heat through their ohmic resistance, characterised in that the duration of the heating by the heating means in the denaturation step is in an interval between 1 microsecond and 5 milliseconds.
A method, comprising: acquiring a sample image of a crystalline sample; selecting multiple crystals in the sample image; determining coordinates of the multiple selected crystals; directing an electron beam towards each of the multiple selected crystals, wherein at a location of each selected crystal, adjusting the electron beam to acquire multiple diffraction patterns of the selected crystal at different incident angles, characterized in that the selected crystal is not rotated by a sample holder while the electron beam is directed towards the selected crystal; and extracting crystallographic information from the multiple diffraction patterns. acquiring a sample image of a crystalline sample; selecting multiple crystals in the sample image; determining coordinates of the multiple selected crystals; directing an electron beam towards each of the multiple selected crystals, wherein at a location of each selected crystal, adjusting the electron beam to acquire multiple diffraction patterns of the selected crystal at different incident angles, characterized in that the selected crystal is not rotated by a sample holder while the electron beam is directed towards the selected crystal; and extracting crystallographic information from the multiple diffraction patterns.
A lens apparatus , the lens apparatus comprising a zoom lens unit (UZ) moveable along an optical axis of the lens apparatus to zoom, a storage storing information for light amount compensation of image data, and a communication device configured to transmit, to a camera apparatus , the information for the light amount compensation of the image data, wherein the image data are obtained based on an image formed by the lens apparatus on an image pickup element of the camera apparatus when the lens apparatus is attached to the camera apparatus; wherein the information includes information of a coefficient A 0 of a term of 0-th-order with respect to an image height h in a polynomial of n-th-order with respect to the image height h, the polynomial being D h = ∑ j = 0 n A j h j with A j representing a coefficient of a term of j-th-order with respect to the image height h and D' (h) representing a light amount correction amount with respect to the image height h, wherein the image height h represents a height in a range from a central image height to a peripheral image height, wherein a conditional expression 0 .7 < A 0 Z × Fw/F Z 2 < 1 .3 is satisfied, where a zoom state Z is an optical parameter relating to the zoom lens unit (UZ) when the image is formed, A 0 (Z) represents the coefficient A 0 at the zoom state Z, F(Z) represents an effective F-number of the lens apparatus at the zoom state Z, and Fw represents an effective F-number of the lens apparatus at the wide angle end. wherein the information includes information of a coefficient A 0 of a term of 0-th-order with respect to an image height h in a polynomial of n-th-order with respect to the image height h, the polynomial being D h = ∑ j = 0 n A j h j with A j representing a coefficient of a term of j-th-order with respect to the image height h and D' (h) representing a light amount correction amount with respect to the image height h, wherein the image height h represents a height in a range from a central image height to a peripheral image height, wherein a conditional expression 0 .7 < A 0 Z × Fw/F Z 2 < 1 .3 is satisfied, where a zoom state Z is an optical parameter relating to the zoom lens unit (UZ) when the image is formed, A 0 (Z) represents the coefficient A 0 at the zoom state Z, F(Z) represents an effective F-number of the lens apparatus at the zoom state Z, and Fw represents an effective F-number of the lens apparatus at the wide angle end.
A barbecue or cooker having an outer shell which serves as a housing ; a support shell arranged inside the outer shell and being distanced there-from on all sides; a burner unit located inside the support shell ; a barbecue grate or container arranged above the burner unit; and a gas supply device which generates a fluid flow toward or into the burner unit from below the support shell , whereas a wood charcoal burner unit or a gas burner unit, together with specific attachment elements, can optionally be used as the burner unit, wherein, when the burner unit is used accordingly, a directed air flow can be conducted into or toward the wood charcoal burner unit or flammable gas can be conducted into or toward the gas burner unit via the gas supply device, characterized in that in the floor region of the outer shell, under the support shell , preferably on a floor plate, an exchange mechanism is arranged, which can only be actuated when the burner chamber is removed, and, upon the actuation thereof, after reaching a defined working position for the respective burner device, an insertion and activation of the respective burner chamber, including the specific attachment elements, is possible. whereas a wood charcoal burner unit or a gas burner unit, together with specific attachment elements, can optionally be used as the burner unit, wherein, when the burner unit is used accordingly, a directed air flow can be conducted into or toward the wood charcoal burner unit or flammable gas can be conducted into or toward the gas burner unit via the gas supply device, characterized in that in the floor region of the outer shell, under the support shell , preferably on a floor plate, an exchange mechanism is arranged, which can only be actuated when the burner chamber is removed, and, upon the actuation thereof, after reaching a defined working position for the respective burner device, an insertion and activation of the respective burner chamber, including the specific attachment elements, is possible.