mhurhangee/ep-ind-claims huggingface dataset:
A method for the production of a sweetening composition, which comprises a weight percentage of erythritol that is higher than or equal to 55 wt% and less or equal to 85 wt% and a weight percentage of an intensive sweetener that is higher than or equal to 10 wt% and less than or equal to 40 wt%; erythritol and the intensive sweetener are combined so as to determine a combined form; the combined form differs from the crystalline form of pure erythritol; the method comprising: a step of wet mixing, during which a wet mixture is mixed; the wet mixture comprises a percentage of erythritol that is higher than or equal to 55 wt% and less or equal to 85 wt%, with respect to the weight of the wet mixture, a percentage of an intensive sweetener that is higher than or equal to 10 wt% and less than or equal to 40 wt%, with respect to the weight of the wet mixture, and a percentage of water from 1 wt% to 10 wt%, with respect to the weight of the wet mixture; a drying step, which is at least partially subsequent to the step of wet mixing and during which the wet mixture is at least partially dried so as to obtain a substantially dry mixture; the substantially dry mixture comprises from 0.1 wt% to 0.6 wt%, with respect to the weight of the substantially dry mixture, of water; a granulation step, which is subsequent to the drying step and during which the substantially dry mixture is granulated; and a compression step, during which granules obtained during the granulation step are pressed together so as to obtain tablets. a step of wet mixing, during which a wet mixture is mixed; the wet mixture comprises a percentage of erythritol that is higher than or equal to 55 wt% and less or equal to 85 wt%, with respect to the weight of the wet mixture, a percentage of an intensive sweetener that is higher than or equal to 10 wt% and less than or equal to 40 wt%, with respect to the weight of the wet mixture, and a percentage of water from 1 wt% to 10 wt%, with respect to the weight of the wet mixture; a drying step, which is at least partially subsequent to the step of wet mixing and during which the wet mixture is at least partially dried so as to obtain a substantially dry mixture; the substantially dry mixture comprises from 0.1 wt% to 0.6 wt%, with respect to the weight of the substantially dry mixture, of water; a granulation step, which is subsequent to the drying step and during which the substantially dry mixture is granulated; and a compression step, during which granules obtained during the granulation step are pressed together so as to obtain tablets.
Fuel injection system of an internal combustion engine, comprising a high-pressure fuel pump, upstream of the high-pressure region of which there is connected a metering unit by means of which an amount of fuel delivered from a storage tank is supplied to the high-pressure region in dosed fashion via a supply line, wherein a zero-delivery line branches off from the supply line, which zero-delivery line opens into a return in the region of a constriction of a Venturi throttle, characterized in that the Venturi throttle has in each case one filter (22, 23) in a feed and/or in an opening-in section into the constriction.
A shackle comprising a securing mechanism having a pair of opposed legs (14, 16) with an opening (18, 20) at one end of each of said pair of opposed legs (14, 16) to form a pair of opposed openings (18, 20), which mechanism comprises: a shackle bolt having a head at one end and a circumferential groove near an opposed end wherein such shackle bolt is received through said pair of opposed openings (18, 20) in said shackle, a two piece clamp assembly (40; 70) received in said circumferential groove to retain said shackle bolt in said shackle, which consists of two semi-circular pieces, characterised in that said pieces are hingedly connected at their one end, and provided with a securing device (50, 52, 54) at their other end. a shackle bolt having a head at one end and a circumferential groove near an opposed end wherein such shackle bolt is received through said pair of opposed openings (18, 20) in said shackle, a two piece clamp assembly (40; 70) received in said circumferential groove to retain said shackle bolt in said shackle, which consists of two semi-circular pieces, characterised in that said pieces are hingedly connected at their one end, and provided with a securing device (50, 52, 54) at their other end.
Apparatus for treating laundry with steam, comprising an ironing and/or smoothing tool and a support device for placing the tool stably in a storage position during inactive ironing and/or smoothing phases, said tool comprising a treatment surface which is provided with at least one hole for steam emission and which is covered by a body comprising a handle, characterised in that the tool is held in the storage position by inserting a holding finger supported by the support device, into an opening provided on a part of the body located at the foot of the handle and preferably under the latter, the holding finger and the opening having shapes which engage with one another in order to prevent any pivoting movement of the tool about the holding finger.
A method for creating a porous ceramic structure comprising: creating a composition, wherein the composition comprises a liquid, a plurality of particles disposed within the liquid, a catalyst material disposed within the liquid, and a pore-forming agent disposed within the liquid; wherein the liquid comprises one or more siloxane species; the plurality of particles comprises a ceramic material; the pore-forming agent comprises an agent that is substantially inert with respect to the liquid, further comprising (a) a silicon-bearing agent that has a number average molecular weight less than 1,300 grams per mole, or (b) a molecule having a molecular mass less than 1,000 grams per mole and a freezing point between -40° C and 25° C that is soluble in the liquid, or any combination of the two; disposing the composition in any desired shape; volatilizing at least a portion of the pore-forming agent; curing the composition to form a green body; and firing the green body. creating a composition, wherein the composition comprises a liquid, a plurality of particles disposed within the liquid, a catalyst material disposed within the liquid, and a pore-forming agent disposed within the liquid; wherein the liquid comprises one or more siloxane species; the plurality of particles comprises a ceramic material; the pore-forming agent comprises an agent that is substantially inert with respect to the liquid, further comprising (a) a silicon-bearing agent that has a number average molecular weight less than 1,300 grams per mole, or (b) a molecule having a molecular mass less than 1,000 grams per mole and a freezing point between -40° C and 25° C that is soluble in the liquid, or any combination of the two; disposing the composition in any desired shape; volatilizing at least a portion of the pore-forming agent; curing the composition to form a green body; and firing the green body.
A network component comprising: a memory (504, 506, 508) coupled to a processor, wherein the memory comprises instructions that cause the processor to: select a first multicast routing mode from a plurality of multicast routing modes supported by a network comprising the network component; assign the first multicast routing mode to a first multicast flow; advertise a first information frame to a first plurality of nodes, wherein the first information frame provides the assignment of the first multicast routing mode to the first multicast flow; select a second multicast routing mode from the multicast routing modes supported by the network; assign the second multicast routing mode to a second multicast flow; and advertise a second information frame to a second plurality of nodes, wherein the second information frame provides the assignment of the second multicast routing mode to the second multicast flow; wherein the first multicast routing mode and the second multicast routing mode are different multicast routing modes. select a first multicast routing mode from a plurality of multicast routing modes supported by a network comprising the network component; assign the first multicast routing mode to a first multicast flow; advertise a first information frame to a first plurality of nodes, wherein the first information frame provides the assignment of the first multicast routing mode to the first multicast flow; select a second multicast routing mode from the multicast routing modes supported by the network; assign the second multicast routing mode to a second multicast flow; and advertise a second information frame to a second plurality of nodes, assign the second multicast routing mode to a second multicast flow; and advertise a second information frame to a second plurality of nodes, wherein the second information frame provides the assignment of the second multicast routing mode to the second multicast flow; wherein the first multicast routing mode and the second multicast routing mode are different multicast routing modes.
A combination comprising a compound of formula or a pharmaceutically acceptable salt thereof, and abacavir or a pharmaceutically acceptable salt thereof.
Method (100, 100') of operating a hearing device comprising a first antenna, a first transceiver (6, 36) coupled to the first antenna (4, 34), an acoustic output transducer, a microphone, and a primary processing unit, the primary processing unit being coupled to the first transceiver, the acoustic output transducer, and the microphone, the method comprising - pairing the hearing device with an audio system (30, 30'); - initiating detection of hearing device motion; - sending position data indicative of hearing device position to the audio system (30, 30'), if a position change criterion is fulfilled; - wirelessly receiving a first audio stream based on the position data of the hearing device; - converting the first audio stream to a first wireless input signal; - mixing the first wireless input signal with an audio input signal from the microphone to form an input signal; - processing the input signal to form an output signal; and - converting the output signal to an audio output signal. - pairing the hearing device with an audio system (30, 30'); - initiating detection of hearing device motion; - sending position data indicative of hearing device position to the audio system (30, 30'), if a position change criterion is fulfilled; - wirelessly receiving a first audio stream based on the position data of the hearing device; - converting the first audio stream to a first wireless input signal; - mixing the first wireless input signal with an audio input signal from the microphone to form an input signal; - processing the input signal to form an output signal; and - converting the output signal to an audio output signal.
An optical system, comprising a planar array of optical resonators, wherein said array of optical resonators comprises at least a first type of optical resonators each having a resonant response to an optical field at a first wavelength, and a second type of optical resonators each having a resonant response to an optical field at a second wavelength, being different from said first wavelength, wherein each of a plurality of optical resonators of said first type is laterally displaced from any optical resonator of said second type, and each of a plurality of optical resonators of said first type partially overlaps with at least one optical resonator of said second type, wherein said array of optical resonators is configured to focus both said first and said second wavelengths generally onto the same focal plane. wherein said array of optical resonators comprises at least a first type of optical resonators each having a resonant response to an optical field at a first wavelength, and a second type of optical resonators each having a resonant response to an optical field at a second wavelength, being different from said first wavelength, wherein each of a plurality of optical resonators of said first type is laterally displaced from any optical resonator of said second type, and each of a plurality of optical resonators of said first type partially overlaps with at least one optical resonator of said second type, wherein said array of optical resonators is configured to focus both said first and said second wavelengths generally onto the same focal plane.
A data processing device comprising: a first chip that is configured to perform encryption and decryption using a first common key, and is further configured to hold a first counter value; and a second chip that is configured to perform encryption and decryption using the first common key, and is further configured to hold a second counter value, wherein the first chip is configured to encrypt a command and the first counter value, and is further configured to transmit the command and the first counter value in encrypted form to the second chip, the second chip is configured to encrypt an execution result of the command decrypted and the second counter value, and is further configured to transmit the execution result and the second counter value in encrypted form to the first chip, and the first chip and the second chip are configured to synchronize the first counter value and the second counter value, each time transmitting or receiving data to or from each other. a first chip that is configured to perform encryption and decryption using a first common key, and is further configured to hold a first counter value; and a second chip that is configured to perform encryption and decryption using the first common key, and is further configured to hold a second counter value, wherein the first chip is configured to encrypt a command and the first counter value, and is further configured to transmit the command and the first counter value in encrypted form to the second chip, the second chip is configured to encrypt an execution result of the command decrypted and the second counter value, and is further configured to transmit the execution result and the second counter value in encrypted form to the first chip, and the first chip and the second chip are configured to synchronize the first counter value and the second counter value, each time transmitting or receiving data to or from each other.
A method of manufacturing a photovoltaic module, comprising: applying a photoactive composition to a conductive substrate to produce a continuous sheet of photovoltaic material; removing photoactive composition from the photovoltaic material to create a plurality of electrically isolated interconnection areas each electrically isolated from the photoactive composition disposed outside the interconnection areas; cutting the photovoltaic material into at least first and second discrete, physically separate photoactive cells wherein the first cell includes the interconnection areas; placing the cells in contact with an optically transmissive top sheet and thereby placing a conductive grid pattern of the top sheet into electrical contact with the interconnection areas of the first cell and the photoactive composition of the second cell; and electrically interconnecting the cells by converting photoactive composition within the interconnection areas of the first cell into material having low ohmic resistance by laser welding, thus electrically connecting a portion of the grid pattern in electrical contact with the photoactive composition of the second cell to portions of the substrate located within the interconnection areas of the first cell. applying a photoactive composition to a conductive substrate to produce a continuous sheet of photovoltaic material; removing photoactive composition from the photovoltaic material to create a plurality of electrically isolated interconnection areas each electrically isolated from the photoactive composition disposed outside the interconnection areas; cutting the photovoltaic material into at least first and second discrete, physically separate photoactive cells wherein the first cell includes the interconnection areas; placing the cells in contact with an optically transmissive top sheet and thereby placing a conductive grid pattern of the top sheet into electrical contact with the interconnection areas of the first cell and the photoactive composition of the second cell; and electrically interconnecting the cells by converting photoactive composition within the interconnection areas of the first cell into material having low ohmic resistance by laser welding, thus electrically connecting a portion of the grid pattern in electrical contact with the photoactive composition of the second cell to portions of the substrate located within the interconnection areas of the first cell.
Carbon fibers having an elongation of 1.4 % or more and a density of 1.79 g/cm 3 or less, and satisfying the relationship represented by formula and one of the relationships represented by formulas to: La ≥ 1 La ≤ − 0.5 + 0.01 × TM, when 170 ≤ TM ≤ 230 La ≤ − 37.3 + 0.17 × TM, when 230 < TM ≤ 240 La ≤ − 2.5 + 0.025 × TM, when 240 < TM ≤ 300 and La ≤ 2 + 0.01 × TM, when 300 < TM where La is a crystal size in nm in a direction parallel to an axis of the fibers measured with X-ray diffraction, and TM is a tensile modulus in GPa, where the tensile properties are measured according to the method specified in the description.
An introducer for insertion of a medical device into a patient's vasculature, the introducer comprising: an elongate introducer body having a longitudinal axis, a proximal region, a distal region, and an inner lumen; a hub coupled to the proximal region of the introducer body; and a hemostatic valve disposed within the hub and forming a liquid-tight seal across the inner lumen, wherein: the hub and the hemostatic valve are configured to part together, the hemostatic valve includes a distal surface and a proximal surface, the proximal surface having a sloped region configured to guide an object towards a center of the hemostatic valve during insertion of the object through the hemostatic valve, and the proximal surface comprises a flat central region that is substantially perpendicular to the longitudinal axis of the elongate introducer body. an elongate introducer body having a longitudinal axis, a proximal region, a distal region, and an inner lumen; a hub coupled to the proximal region of the introducer body; and a hemostatic valve disposed within the hub and forming a liquid-tight seal across the inner lumen, wherein: the hub and the hemostatic valve are configured to part together, the hemostatic valve includes a distal surface and a proximal surface, the proximal surface having a sloped region configured to guide an object towards a center of the hemostatic valve during insertion of the object through the hemostatic valve, and the proximal surface comprises a flat central region that is substantially perpendicular to the longitudinal axis of the elongate introducer body. the hub and the hemostatic valve are configured to part together, the hemostatic valve includes a distal surface and a proximal surface, the proximal surface having a sloped region configured to guide an object towards a center of the hemostatic valve during insertion of the object through the hemostatic valve, and the proximal surface comprises a flat central region that is substantially perpendicular to the longitudinal axis of the elongate introducer body.
A method of three-dimensionally reconstituting the shape of a singular body in a reference coordinate system and on the basis of initial imaging data acquired by an imaging system of the scanner or MRI type, characterized in that the method comprises: • a modification phase of parameters of a parameterizable generic model as a function of descriptive parameters derived from initial data in order to constitute an approximate three-dimensional model of the singular body; • a correction phase of the approximate model by comparing the approximate model with the initial imaging data, and by deforming the outside surface of the approximate modeling in corresponding manner. • a modification phase of parameters of a parameterizable generic model as a function of descriptive parameters derived from initial data in order to constitute an approximate three-dimensional model of the singular body; • a correction phase of the approximate model by comparing the approximate model with the initial imaging data, and by deforming the outside surface of the approximate modeling in corresponding manner.
Vehicle window antenna comprising the following features: - a heat conductor field which is intended at least for VHF reception and LF, MF and HF reception, - the heat conductor field comprises a plurality of heat conductors, by means of which the entire window in the region not covered by the black print can be completely heated, - at least one decoupling element which is intended at least for LF, MF and HF reception and VHF reception, - the decoupling element has a high-frequency yet non-galvanic connection to the heat conductor field, - the decoupling element is designed as a linear conductor and/or as an open conductor loop and/or as a closed conductor loop, - the decoupling element is arranged next to the heat conductor field so as to produce a capacitive coupling, for very high frequencies, to the heat conductor, characterised by the following additional features: - the decoupling element is arranged next to a heat conductor such that a capacitive coupling is produced at least for the very high frequency, - the decoupling element is furthermore arranged, in this case, in the heat conductor field between two adjacent heat conductors, and - antenna conductors are arranged in the heat conductor field so as to extend perpendicularly to the heat conductors and are galvanically connected to the heat conductors. - a heat conductor field which is intended at least for VHF reception and LF, MF and HF reception, - the heat conductor field comprises a plurality of heat conductors, by means of which the entire window in the region not covered by the black print can be completely heated, - at least one decoupling element which is intended at least for LF, MF and HF reception and VHF reception, - the decoupling element has a high-frequency yet non-galvanic connection to the heat conductor field, - the decoupling element is designed as a linear conductor and/or as an open conductor loop and/or as a closed conductor loop, - the decoupling element is arranged next to the heat conductor field so as to produce a capacitive coupling, for very high frequencies, to the heat conductor, - the decoupling element is arranged next to a heat conductor such that a capacitive coupling is produced at least for the very high frequency, - the decoupling element is furthermore arranged, in this case, in the heat conductor field between two adjacent heat conductors, and - antenna conductors are arranged in the heat conductor field so as to extend perpendicularly to the heat conductors and are galvanically connected to the heat conductors.