mhurhangee/ep-ind-claims huggingface dataset:
A method of processing a bitstream comprising a plurality of content substreams, each representing an audio signal, the method including: from the bitstream, extracting one or more presentation data structures, each comprising a reference (404, 405) to a plurality of said content substreams, each presentation data structure further comprising a reference to loudness data and dynamic range compression data included in a metadata substream, wherein said loudness data is dedicated to said presentation data structure and indicates what the loudness of the combination of the referenced plurality of content substreams will be when decoded, and wherein the DRC data includes multiple sets of one or more DRC gains, and corresponds to multiple DRC profiles; receiving data indicating a selected presentation data structure out of said one or more presentation data structures, and a desired loudness level; decoding the plurality of content substreams referenced by the selected presentation data structure; and forming an output audio signal on the basis of the decoded content substreams, the method further including processing the decoded plurality of content substreams or the output audio signal on the basis of the loudness data referenced by the selected presentation data structure and at least one set of the multiple sets of one or more DRC gains to attain the desired loudness level. from the bitstream, extracting one or more presentation data structures, each comprising a reference (404, 405) to a plurality of said content substreams, each presentation data structure further comprising a reference to loudness data and dynamic range compression data included in a metadata substream, wherein said loudness data is dedicated to said presentation data structure and indicates what the loudness of the combination of the referenced plurality of content substreams will be when decoded, and wherein the DRC data includes multiple sets of one or more DRC gains, and corresponds to multiple DRC profiles; receiving data indicating a selected presentation data structure out of said one or more presentation data structures, and a desired loudness level; decoding the plurality of content substreams referenced by the selected presentation data structure; and forming an output audio signal on the basis of the decoded content substreams, the method further including processing the decoded plurality of content substreams or the output audio signal on the basis of the loudness data referenced by the selected presentation data structure and at least one set of the multiple sets of one or more DRC gains to attain the desired loudness level.
Paddle device for water vehicles on which the user sits or stands with a single or double paddle which is movably and detachably articulated to a height-adjustable spar, wherein the spar can be movably and detachably connected to a floating body of the water vehicle, characterized by a device for fixing the spar to the rear in the direction of a stern or to the front and rear which limits pivotability in said direction, wherein pivoting in other directions is still possible.
A sterilized adhesive composition comprising (i) a cyanoacrylate monomer, (ii) 0.01 % to 0.8 % by weight of the total weight of the cyanoacrylate composition of one or more poloxamer(s), (iii) one or more free radical stabilizer, and (iv) at least one anionic stabilizer, wherein the sterilized adhesive composition has a viscosity of from 30 to 300 mPa·s (cp). (i) a cyanoacrylate monomer, (ii) 0.01 % to 0.8 % by weight of the total weight of the cyanoacrylate composition of one or more poloxamer(s), (iii) one or more free radical stabilizer, and (iv) at least one anionic stabilizer,
Anhydrous composition comprising: 1) at least particles comprising a core containing at least one beneficial agent and a shell surrounding the core; the said shell comprising at least one hydrophobic-modified polysaccharide chosen from starch C 5 -C 20 -alkenyl succinates and at least one water-soluble carbohydrate chosen from maltodextrins having a Dextrose Equivalent ranging from 4 to 20; the said particles simultaneously exhibiting a poured powder density ranging from 300.0 g/l to 600.0 g/l and an absolute density of greater than 1.0, and the particles being spherical and having a number-average diameter ranging from 1 to 30 μm and a volume-average diameter ranging from 5 to 150 μm, and 2) at least one propellant. 1) at least particles comprising a core containing at least one beneficial agent and a shell surrounding the core; the said shell comprising at least one hydrophobic-modified polysaccharide chosen from starch C 5 -C 20 -alkenyl succinates and at least one water-soluble carbohydrate chosen from maltodextrins having a Dextrose Equivalent ranging from 4 to 20; the said particles simultaneously exhibiting a poured powder density ranging from 300.0 g/l to 600.0 g/l and an absolute density of greater than 1.0, and the particles being spherical and having a number-average diameter ranging from 1 to 30 μm and a volume-average diameter ranging from 5 to 150 μm, and 2) at least one propellant.
A method for determining an inductance of an oscillating circuit, comprising the steps of: - modifying the oscillating circuit (LC; 20) by introducing an additional impedance (C x) into the oscillating circuit (LC; 20); - determining a predetermined oscillating circuit parameter (f x) of the oscillating circuit (LC'; 20') modified by introducing the impedance, wherein the oscillating circuit parameter (f x) of the modified oscillating circuit (LC'; 20') is in a predetermined relationship to the inductance of the non-modified oscillating circuit (LC; 20), - determining the inductance of the non-modified oscillating circuit (LC; 20) on the basis of the predetermined oscillating circuit parameter (f x) of the modified oscillating circuit (LC'; 20'), the predetermined oscillating circuit parameter (f Ø) of the non-modified oscillating circuit (LC; 20) and the introduced impedance (C x); characterized in that the additional impedance (C x) during introduction (S1.1) is coupled into the oscillating circuit (LC; 20) in contactless manner and the step of determining the predetermined oscillating circuit parameter (f x) comprises a contactless measurement; and the step of determining the predetermined oscillating circuit parameter (f x) of the modified oscillating circuit (LC'; 20') comprises the following partial steps of: - exciting (S2.1) the modified oscillating circuit (LC'; 20') by means of an energy pulse; - detecting (S2.2) an oscillation of the modified oscillating circuit (LC'; 20') in response to the excitation (S2.1); - evaluating (S2.3) a detected oscillation of the modified oscillating circuit (LC'; 20') with respect to the predetermined oscillating circuit parameter (f x). - modifying the oscillating circuit (LC; 20) by introducing an additional impedance (C x) into the oscillating circuit (LC; 20); - determining a predetermined oscillating circuit parameter (f x) of the oscillating circuit (LC'; 20') modified by introducing the impedance, wherein the oscillating circuit parameter (f x) of the modified oscillating circuit (LC'; 20') is in a predetermined relationship to the inductance of the non-modified oscillating circuit (LC; 20), - determining the inductance of the non-modified oscillating circuit (LC; 20) on the basis of the predetermined oscillating circuit parameter (f x) of the modified oscillating circuit (LC'; 20'), the predetermined oscillating circuit parameter (f Ø) of the non-modified oscillating circuit (LC; 20) and the introduced impedance (C x); - exciting (S2.1) the modified oscillating circuit (LC'; 20') by means of an energy pulse; - detecting (S2.2) an oscillation of the modified oscillating circuit (LC'; 20') in response to the excitation (S2.1); - evaluating (S2.3) a detected oscillation of the modified oscillating circuit (LC'; 20') with respect to the predetermined oscillating circuit parameter (f x).
Switch comprising at least one PCM portion that can be in a conducting or blocked state depending on the amorphous or crystalline state of the PCM that can change state when it is heated, in which the PCM portion is continuous and has an elongated shape such that an input and an output of the switch are connected to two ends (108, 110) of the PCM portion respectively that are spaced at a distance from each other corresponding to the largest dimension of the PCM portion, and comprising a device to control the state of the switch capable of passing heating currents through the PCM portion, approximately perpendicular to the largest dimension of the PCM portion, from at least two input points at a distance from each other and at a distance from the ends (108, 110) of the PCM portion, to at least two output points at a distance from each other and at a distance from the ends (108, 110) of the PCM portion.
A method for transmitting a message from an online object to an offline object, the method comprising the steps of: - providing an online object being an online software application generating a message including identification data of a target offline object being an offline apparatus, - providing (530, 560) a web-based message exchange server, a mobile device and a target offline object, - transmitting the message from the online object to the web-based message exchange server, - receiving, at the message exchange server, the message that is generated and transmitted by the online object, - forwarding, by the message exchange server, the message to the mobile device, while the mobile device is connected to the message exchange server via a wireless data channel, - receiving, by the mobile device, the message from the message exchange server, - storing the received message in a memory of the mobile device for delivering the message at a later instant, - establishing a data connection between the mobile device and the target offline object, including a substep of moving the mobile device to the neighborhood of the offline object, - delivering the message at the target offline object, via the established data connection, and - receiving, at the target offline object, the message from the mobile device, wherein the step of establishing a data connection between the mobile device and the target offline object is performed upon receipt of the message from the message exchange server at the mobile device, and wherein the step of delivering the message at the target offline object includes the substep of verifying whether the identification data included in the message correspond to identification features of the target offline object. - providing an online object being an online software application generating a message including identification data of a target offline object being an offline apparatus, - providing (530, 560) a web-based message exchange server, a mobile device and a target offline object, - transmitting the message from the online object to the web-based message exchange server, - receiving, at the message exchange server, the message that is generated and transmitted by the online object, - forwarding, by the message exchange server, the message to the mobile device, while the mobile device is connected to the message exchange server via a wireless data channel, - receiving, by the mobile device, the message from the message exchange server, - storing the received message in a memory of the mobile device for delivering the message at a later instant, - establishing a data connection between the mobile device and the target offline object, including a substep of moving the mobile device to the neighborhood of the offline object, - delivering the message at the target offline object, via the established data connection, and - receiving, at the target offline object, the message from the mobile device,
Procedure for the manufacture of a measuring tube for an electromagnetic flowmeter, wherein the electromagnetic flowmeter comprises: a measuring tube on which a magnet system and two or more measuring electrodes are arranged and/or fixed, wherein the measuring tube has an inlet and an outlet zone (11, 12) with a first cross-section and wherein the measuring tube comprises a middle segment between the inlet zone and the outlet zone (11, 12), said segment having a second cross-section, wherein the measuring tube is a plastic tube, wherein the measuring electrodes are arranged in the middle segment of the measuring tube, characterized in that the middle segment is surrounded, at least in the area of the measuring electrodes, by a tube holder, said holder counteracting a cross-sectional deformation of the second cross-section caused by the medium flowing through the measuring tube, wherein the second cross-section is set by the reshaping of the measuring tube. a measuring tube on which a magnet system and two or more measuring electrodes are arranged and/or fixed, wherein the measuring tube has an inlet and an outlet zone (11, 12) with a first cross-section and wherein the measuring tube comprises a middle segment between the inlet zone and the outlet zone (11, 12), said segment having a second cross-section, wherein the measuring tube is a plastic tube, wherein the measuring electrodes are arranged in the middle segment of the measuring tube, characterized in that the middle segment is surrounded, at least in the area of the measuring electrodes, by a tube holder, said holder counteracting a cross-sectional deformation of the second cross-section caused by the medium flowing through the measuring tube, wherein the second cross-section is set by the reshaping of the measuring tube.
Method for producing an aircraft structural component having the steps: - introducing a plurality of semi-finished product layers for producing a component from a fibre-reinforced, thermoplastic plastic material into a compression mould, - applying pressure to the stacked semi-finished product layers, the stacked semi-finished product layers being fixed, before pressure is applied, at particular points in their position in the compression mould and/or relative to one another in a central region and/or a marginal region of the semi-finished product layers in such a way that, while pressure is being applied to the semi-finished product layers stacked in the compression mould, a sliding movement of the semi-finished product layers relative to one another and/or relative to the compression mould, preventing wrinkling in the semi-finished product layers, takes place, and - removing the aircraft structural component from the compression mould, characterised in that the pressure applied to the stacked semi-finished product layers is controlled in such a way that, during a first pressure-applying phase, a pressure applied to a central region of the stacked semi-finished product layers is higher than a pressure applied to a marginal region of the stacked semi-finished product layers. - introducing a plurality of semi-finished product layers for producing a component from a fibre-reinforced, thermoplastic plastic material into a compression mould, - applying pressure to the stacked semi-finished product layers, the stacked semi-finished product layers being fixed, before pressure is applied, at particular points in their position in the compression mould and/or relative to one another in a central region and/or a marginal region of the semi-finished product layers in such a way that, while pressure is being applied to the semi-finished product layers stacked in the compression mould, a sliding movement of the semi-finished product layers relative to one another and/or relative to the compression mould, preventing wrinkling in the semi-finished product layers, takes place, and - removing the aircraft structural component from the compression mould, characterised in that the pressure applied to the stacked semi-finished product layers is controlled in such a way that, during a first pressure-applying phase, a pressure applied to a central region of the stacked semi-finished product layers is higher than a pressure applied to a marginal region of the stacked semi-finished product layers.
A method for selection of an initialization technique corresponding to a protocol for a communications device, an initialization technique being a technique within a communications protocol used to initialize communication and the exchange of information between the communications device and a second communications device, the method comprising: selecting a primary initialization technique associated with a protocol from a set list of initialization techniques; implementing the primary initialization technique to initialize and move the communications device from one upstream/downstream port to another upstream/downstream port; and determining whether the communications device has been initialized and moved, and, when the communications device has not been initialized and moved upon implementing the primary initialization technique, selecting an additional initialization technique from the set list of initialization techniques and implementing the additional initialization technique to initialize and move the communications device from said one upstream/downstream port to said another upstream/downstream port. selecting a primary initialization technique associated with a protocol from a set list of initialization techniques; implementing the primary initialization technique to initialize and move the communications device from one upstream/downstream port to another upstream/downstream port; and determining whether the communications device has been initialized and moved, and, when the communications device has not been initialized and moved upon implementing the primary initialization technique, selecting an additional initialization technique from the set list of initialization techniques and implementing the additional initialization technique to initialize and move the communications device from said one upstream/downstream port to said another upstream/downstream port.
A ventilation and cooling system for capturing airborne contaminants in a selective deposition modeling apparatus dispensing a curable build material, the ventilation and cooling system comprising: a containment chamber surrounding the selective deposition modeling apparatus, the containment chamber having at least one air inlet duct and at least one air exit duct; at least one air-moving device in communication with the air inlet of the containment chamber creating a first flow of air entering the apparatus; at least one air-moving device in communication with the air exit duct creating a second flow of air exiting the apparatus (io), the second flow of air having a flow rate that is greater than the flow rate of the first flow of air; a filter in communication with the air exit duct for receiving the second flow of air to capture airborne contaminants from the second flow of air, the airborne contaminants comprising vapors of the curable build material; characterized in that the containment chamber has unsealed gaps, and wherein a third flow of air is drawn into the apparatus at a flow rate which, when added to the flow rate of the first flow of air, substantially equals the flow rate of the second flow of air when a steady state condition is established between the first flow of air, the second flow of air, and the third flow of air. a containment chamber surrounding the selective deposition modeling apparatus, the containment chamber having at least one air inlet duct and at least one air exit duct; at least one air-moving device in communication with the air inlet of the containment chamber creating a first flow of air entering the apparatus; at least one air-moving device in communication with the air exit duct creating a second flow of air exiting the apparatus (io), the second flow of air having a flow rate that is greater than the flow rate of the first flow of air; a filter in communication with the air exit duct for receiving the second flow of air to capture airborne contaminants from the second flow of air, the airborne contaminants comprising vapors of the curable build material; characterized in that the containment chamber has unsealed gaps, and wherein a third flow of air is drawn into the apparatus at a flow rate which, when added to the flow rate of the first flow of air, substantially equals the flow rate of the second flow of air when a steady state condition is established between the first flow of air, the second flow of air, and the third flow of air.
A power supply circuit, comprising: a primary unit, configured to generate a first voltage to-be-modulated according to alternating current, AC, input; a modulating unit, configured to modulate the first voltage to generate a second voltage; a transformer, configured to generate a third voltage according to the second voltage; a secondary rectifier-filter unit, configured to generate an output voltage of the power supply circuit by rectifying and filtering the third voltage; a voltage feedback unit, configured to receive the output voltage, and to send a feedback signal to the modulating unit when magnitude of the output voltage reaches a preset value; the modulating unit being configured to modulate the first voltage to generate the second voltage according to the feedback signal, to limit the magnitude of the output voltage within a first voltage range or a second voltage range different from the first voltage range; and a control unit, configured to communicate with a device to-be-charged to adjust output power of the power supply circuit, to make at least one of the output voltage and output current of the power supply circuit match a present charging stage of a battery of the device to-be-charged characterized in that the primary unit comprises a primary rectifier unit without a liquid electrolytic capacitor, and the first voltage to-be-modulated is a voltage which is output by the primary rectifier unit and has a magnitude varying periodically. a primary unit, configured to generate a first voltage to-be-modulated according to alternating current, AC, input; a modulating unit, configured to modulate the first voltage to generate a second voltage; a transformer, configured to generate a third voltage according to the second voltage; a secondary rectifier-filter unit, configured to generate an output voltage of the power supply circuit by rectifying and filtering the third voltage; a voltage feedback unit, configured to receive the output voltage, and to send a feedback signal to the modulating unit when magnitude of the output voltage reaches a preset value; the modulating unit being configured to modulate the first voltage to generate the second voltage according to the feedback signal, to limit the magnitude of the output voltage within a first voltage range or a second voltage range different from the first voltage range; and a control unit, configured to communicate with a device to-be-charged to adjust output power of the power supply circuit, to make at least one of the output voltage and output current of the power supply circuit match a present charging stage of a battery of the device to-be-charged characterized in that the primary unit comprises a primary rectifier unit without a liquid electrolytic capacitor, and the first voltage to-be-modulated is a voltage which is output by the primary rectifier unit and has a magnitude varying periodically.