mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for reconstructing a single media stream from a plurality of received media streams, the apparatus comprising: a RTP header parser configured to parse data packets of a plurality of media streams to identify a respective sequence number index of each of the data packets in each of the plurality of media streams; a packet sequencer validator configured to assign a flow ID to each of the plurality of media streams based on a header from each respective data packet that identifies at least one of a source IP address or a destination IP address of each of the respective media streams; a data packet recorder (127, 227) configured to align the plurality of media streams based on the respective flow IDs and the identified sequence number index of each of the data packets and to store a reconstructed media stream in a memory buffer based on the respective sequence number indexes; a data packet player (129, 229) configured to fetch the respective data packets of the reconstructed media stream stored in the memory buffer and route the fetched data packets over a packet player channel for playout of the reconstructed media stream on a media consumption device, wherein the reconstructed media stream is stored in the memory buffer without storing the plurality of media streams in separate media buffers before the data packet recorder (127, 227) stores the reconstructed media stream in the memory buffer. a RTP header parser configured to parse data packets of a plurality of media streams to identify a respective sequence number index of each of the data packets in each of the plurality of media streams; a packet sequencer validator configured to assign a flow ID to each of the plurality of media streams based on a header from each respective data packet that identifies at least one of a source IP address or a destination IP address of each of the respective media streams; a data packet recorder (127, 227) configured to align the plurality of media streams based on the respective flow IDs and the identified sequence number index of each of the data packets and to store a reconstructed media stream in a memory buffer based on the respective sequence number indexes; a data packet player (129, 229) configured to fetch the respective data packets of the reconstructed media stream stored in the memory buffer and route the fetched data packets over a packet player channel for playout of the reconstructed media stream on a media consumption device, wherein the reconstructed media stream is stored in the memory buffer without storing the plurality of media streams in separate media buffers before the data packet recorder (127, 227) stores the reconstructed media stream in the memory buffer.
An exhaust system for a vehicular lean burn internal combustion engine that emits oxides of nitrogen (NO x) and particulate matter, the system comprising a NO x reduction catalyst for reducing NO x in the presence of a reductant, means for introducing reductant into a flowing exhaust gas and a source of reductant selected from the group consisting of a hydrocarbon reductant, a nitrogenous reductant, hydrogen and mixtures of any two or more thereof, a filter for removing PM from exhaust gas flowing in the exhaust system, an oxidation catalyst for oxidising NO to nitrogen dioxide located upstream of the filter and/or the NO x reduction catalyst, and a low pressure exhaust gas recirculation circuit for connecting the exhaust system downstream of the filter to an air intake of the engine, wherein the EGR circuit comprises a NO x adsorber catalyst comprising a nitric oxide adsorbent.
A nucleic acid construct comprising the following structure: A-X-B in which A is nucleic acid sequence encoding a first polypeptide which comprises a first signal peptide having a tripartite structure containing a hydrophobic core region (h-region) flanked by an n-region and a c-region; B is nucleic acid sequence encoding a second polypeptide which comprises a second signal peptide having a tripartite structure containing a hydrophobic core region (h-region) flanked by an n-region and a c-region, and X is a nucleic acid sequence which encodes a cleavage site, wherein the first signal peptide and the second signal peptide are derivable from the same sequence, but one signal peptide comprises one or more amino acid deletions/substitutions in the h-region to remove/replace one or more hydrophobic amino acids compared to the other signal peptide, wherein the first signal peptide and the second signal peptide have the same n- and c-regions, and wherein the difference between the first and the second signal peptides is such that, when the nucleic acid construct is expressed in a cell, there is differential relative expression of the first and second polypeptides at the cell surface. A is nucleic acid sequence encoding a first polypeptide which comprises a first signal peptide having a tripartite structure containing a hydrophobic core region (h-region) flanked by an n-region and a c-region; B is nucleic acid sequence encoding a second polypeptide which comprises a second signal peptide having a tripartite structure containing a hydrophobic core region (h-region) flanked by an n-region and a c-region, and X is a nucleic acid sequence which encodes a cleavage site, wherein the first signal peptide and the second signal peptide are derivable from the same sequence, but one signal peptide comprises one or more amino acid deletions/substitutions in the h-region to remove/replace one or more hydrophobic amino acids compared to the other signal peptide, wherein the first signal peptide and the second signal peptide have the same n- and c-regions, and wherein the difference between the first and the second signal peptides is such that, when the nucleic acid construct is expressed in a cell, there is differential relative expression of the first and second polypeptides at the cell surface.
A face coupling structured to transmit a torque load from a first component to a second component, said face coupling comprising: a plurality of driving teeth extending axially from said first component, each driving tooth having a driving tooth pressure surface and a driving tooth tip edge adjacent to the driving tooth pressure surface; and a plurality of driven teeth extending axially from said second component, each driven tooth having a driven tooth pressure surface, wherein said plurality of driving teeth and said plurality of driven teeth are structured to cooperate to transmit said torque load from said first component to said second component via the driving tooth pressure surfaces acting against the driven tooth pressure surfaces; and wherein said plurality of driven teeth include a first root transition structured to prevent said driving tooth tip edge from contacting an adjacent driven tooth; characterized in that, said first root transition includes a root recess comprising an undercut in the flank of the adjacent driven tooth. a plurality of driving teeth extending axially from said first component, each driving tooth having a driving tooth pressure surface and a driving tooth tip edge adjacent to the driving tooth pressure surface; and a plurality of driven teeth extending axially from said second component, each driven tooth having a driven tooth pressure surface, wherein said plurality of driving teeth and said plurality of driven teeth are structured to cooperate to transmit said torque load from said first component to said second component via the driving tooth pressure surfaces acting against the driven tooth pressure surfaces; and wherein said plurality of driven teeth include a first root transition structured to prevent said driving tooth tip edge from contacting an adjacent driven tooth; characterized in that, said first root transition includes a root recess comprising an undercut in the flank of the adjacent driven tooth.
An electric pulse generation system comprising: a memory; a display; a user input device; a sample holder comprising a first electrode and a second electrode disposed on opposite sides of the sample holder, wherein the sample holder is configured to receive a sample container; pulse generating circuitry configured to supply a pulse to the first electrode and the second electrode; a capacitive element external to the sample holder and disposed in series between the pulse generating circuitry and the sample holder; and a processor configured to execute instructions stored on the memory to control the pulse generating circuitry, wherein the pulse generating circuitry is configured to capacitively couple to the sample container, characterized in that: the pulse generating circuitry comprises the capacitive element and circuitry coupled to the first and second electrodes (16, 18) allowing the pulse to bypass the capacitive element; and the processor is configured to receive an input from the user input device to control the pulse generating circuitry to either allow the pulse to bypass the capacitive element or route the pulse through the capacitive element. a memory; a display; a user input device; a sample holder comprising a first electrode and a second electrode disposed on opposite sides of the sample holder, wherein the sample holder is configured to receive a sample container; pulse generating circuitry configured to supply a pulse to the first electrode and the second electrode; a capacitive element external to the sample holder and disposed in series between the pulse generating circuitry and the sample holder; and a processor configured to execute instructions stored on the memory to control the pulse generating circuitry, wherein the pulse generating circuitry is configured to capacitively couple to the sample container, characterized in that: the pulse generating circuitry comprises the capacitive element and circuitry coupled to the first and second electrodes (16, 18) allowing the pulse to bypass the capacitive element; and the processor is configured to receive an input from the user input device to control the pulse generating circuitry to either allow the pulse to bypass the capacitive element or route the pulse through the capacitive element. the pulse generating circuitry comprises the capacitive element and circuitry coupled to the first and second electrodes (16, 18) allowing the pulse to bypass the capacitive element; and the processor is configured to receive an input from the user input device to control the pulse generating circuitry to either allow the pulse to bypass the capacitive element or route the pulse through the capacitive element.
A method for multiple-input multiple-output, MIMO, orthogonal frequency division multiplexing, OFDM, communication, the method comprising: receiving channel quality information, wherein the channel quality information is used to determine a coding rate and a modulation scheme per group of subcarriers; encoding a data stream; multiplexing the encoded data stream into a number of data streams, the number of data streams being determined based on the determined coding rate and modulation scheme, and mapping symbols of the data streams to a plurality of available spatial streams; applying a transmission coding scheme being spatial multiplexing, SM, without frequency diversity, FD, wherein one data symbol is sent per subcarrier for each spatial stream; and transmitting the plurality of available spatial streams. receiving channel quality information, wherein the channel quality information is used to determine a coding rate and a modulation scheme per group of subcarriers; encoding a data stream; multiplexing the encoded data stream into a number of data streams, the number of data streams being determined based on the determined coding rate and modulation scheme, and mapping symbols of the data streams to a plurality of available spatial streams; applying a transmission coding scheme being spatial multiplexing, SM, without frequency diversity, FD, wherein one data symbol is sent per subcarrier for each spatial stream; and transmitting the plurality of available spatial streams.
Abase station for handling a signal transmission on an unlicensed component carrier, CC, comprising: a storage unit for storing instructions of: detecting at least one first signal transmitted by at least one other base station on an unlicensed CC; determining at least one first time interval where the at least one first signal is transmitted by the at least one other base station; and transmitting at least one second signal on the unlicensed CC in at least one second time interval to a communication device, wherein the at least one second time interval is not overlapped with the at least one first time interval; and a processing means, coupled to the storage unit, configured to execute the instructions stored in the storage unit; wherein the instruction of detecting the at least one first signal comprises decoding the at least one first signal, to know a location of orthogonal frequency division multiplexing, OFDM, symbols, a location of time slots, a location of subframes and transmission intervals where the at least one first signal is transmitted; wherein the at least one first signal comprises a primary synchronization signal, PSS; and wherein the at least one second signal comprises a second PSS, different from the first PSS. a storage unit for storing instructions of: detecting at least one first signal transmitted by at least one other base station on an unlicensed CC; determining at least one first time interval where the at least one first signal is transmitted by the at least one other base station; and transmitting at least one second signal on the unlicensed CC in at least one second time interval to a communication device, wherein the at least one second time interval is not overlapped with the at least one first time interval; and detecting at least one first signal transmitted by at least one other base station on an unlicensed CC; determining at least one first time interval where the at least one first signal is transmitted by the at least one other base station; and transmitting at least one second signal on the unlicensed CC in at least one second time interval to a communication device, wherein the at least one second time interval is not overlapped with the at least one first time interval; and a processing means, coupled to the storage unit, configured to execute the instructions stored in the storage unit; wherein the instruction of detecting the at least one first signal comprises decoding the at least one first signal, to know a location of orthogonal frequency division multiplexing, OFDM, symbols, a location of time slots, a location of subframes and transmission intervals where the at least one first signal is transmitted; wherein the at least one first signal comprises a primary synchronization signal, PSS; and wherein the at least one second signal comprises a second PSS, different from the first PSS.
A decoration film, comprising: a first base layer; a gluing agent coated on an upper surface of the first base layer for allowing the decoration film to be attached to a glass panel; a second base layer disposed below the first base layer; a printing layer disposed between the first base layer and the second base layer; a third base layer disposed below the second base layer and adhered to a lower surface of the second base layer by an adhesive, characterized in that the printing layer is formed on an upper surface of the second base layer, wherein the second base layer is adhered to a lower surface of the first base layer by an adhesive which is coated on an upper surface of the printing layer, wherein the third base layer is a scattering prevention film which allows the glass panel to be adhered to the decoration film after the glass panel is broken, and wherein the second base layer is a non-conductive mirror polyethylene terephthalate film comprising a plurality of polymer layers having different refractive indices and thicknesses. a first base layer; a gluing agent coated on an upper surface of the first base layer for allowing the decoration film to be attached to a glass panel; a second base layer disposed below the first base layer; a printing layer disposed between the first base layer and the second base layer; a third base layer disposed below the second base layer and adhered to a lower surface of the second base layer by an adhesive, characterized in that the printing layer is formed on an upper surface of the second base layer, wherein the second base layer is adhered to a lower surface of the first base layer by an adhesive which is coated on an upper surface of the printing layer, wherein the third base layer is a scattering prevention film which allows the glass panel to be adhered to the decoration film after the glass panel is broken, and wherein the second base layer is a non-conductive mirror polyethylene terephthalate film comprising a plurality of polymer layers having different refractive indices and thicknesses.
A pharmaceutical dry powder composition consisting of a micronized powder of a thyroid hormone with an average particle size between 1 and 10 micrometer, diluted in solid carrier particles of a size in the range of 20 to 400 micrometer suitable for inhalation, wherein the thyroid hormone drug is one of levothyroxine or liothyronine or their salts, comprising as a single carrier a non-reducing sugar or sugar alcohol and absent of any other excipient, antioxidant or preservative.
A method of inserting elongate elements positioned in end-to-end relationship into a continuous resilient flexible sleeve comprising a wall that extends around and partially encloses said elongate elements to hold them in position within the sleeve when inserted therein, the wall having a longitudinally extending opening configured to enable a user to make contact with elongate elements held by said sleeve through said opening to push them along the sleeve towards, and out of, one end of the sleeve, characterised in that the insertion method comprises: continuously feeding the sleeve over a member that deforms a region of the sleeve to enlarge the opening and simultaneously feeding a continuous length of elongate elements positioned in end-to-end relationship into the sleeve through the enlarged opening in said region.
Automatic coffee machine with at least one capsule storage unit for storing coffee capsules arranged one above the other with a housing with a rear and two curved limbs (5, 6) protruding therefrom, which together form a C-shaped cross-section and which encompass the coffee capsules, characterised in that the two limbs (5, 6) taper downward toward the rear, so that the respective lowermost coffee capsule can be removed from the capsule storage unit, while the coffee capsules arranged thereabove are still retained in the housing by means of the two limbs (5, 6), and that a holding contour for fixing the capsule storage unit on the automatic coffee machine is arranged on an upper end of the rear, wherein the automatic coffee machine has an at least partially peripheral channel in the upper edge region, which is embodied to complement the holding contour of the capsule storage unit embodied as a hook, so that the capsule storage unit is held on the automatic coffee machine by means of the hook engaging into the channel.
A compensation filter, comprising: a digital filter having a plurality of filter taps, the digital filter coupled to receive sequential samples of a received signal and to generate a compensated signal, the received signal received in response to a transmitted signal; and an electronic memory coupled to the plurality of filter taps, wherein the electronic memory is operable to store a plurality of filter coefficient values, wherein the electronic memory is further operable to provide different sequential groups of the plurality of stored filter coefficient values to the plurality of filter taps synchronously with each received sample of the sequential samples of the received signal, resulting in the digital filter applying different filter transfer characteristics to the sequential samples at different times of the received signal, and wherein the different sequential groups of the plurality of filter coefficient values are selected to compensate for absorption loss of a transmission medium by flattening a frequency spectrum of the compensated signal at the different times of the received signal. a digital filter having a plurality of filter taps, the digital filter coupled to receive sequential samples of a received signal and to generate a compensated signal, the received signal received in response to a transmitted signal; and an electronic memory coupled to the plurality of filter taps, wherein the electronic memory is operable to store a plurality of filter coefficient values, wherein the electronic memory is further operable to provide different sequential groups of the plurality of stored filter coefficient values to the plurality of filter taps synchronously with each received sample of the sequential samples of the received signal, resulting in the digital filter applying different filter transfer characteristics to the sequential samples at different times of the received signal, and wherein the different sequential groups of the plurality of filter coefficient values are selected to compensate for absorption loss of a transmission medium by flattening a frequency spectrum of the compensated signal at the different times of the received signal.
A respiratory interface device comprising: a patient interface device; a patient circuit; a pressure generating assembly including a number of first pressure generating devices and a number of second pressure generating devices; the number of first pressure generating devices structured to generate a first pressure; the number of second pressure generating devices structured to generate a second pressure; the number of first pressure generating devices coupled to, and in fluid communication, with the patient circuit; the patient circuit coupled to, and in fluid communication, with the patient interface device; and the number of second pressure generating devices coupled to, and in fluid communication, with the patient interface device; characterised in that the number of first pressure generating devices are structured to generate a greater volume of fluid flow relative to the number of second pressure generating devices; and wherein the number of second pressure generating devices have a smaller size, footprint and/or volume than the number of first pressure generating devices. a patient interface device; a patient circuit; a pressure generating assembly including a number of first pressure generating devices and a number of second pressure generating devices; the number of first pressure generating devices structured to generate a first pressure; the number of second pressure generating devices structured to generate a second pressure; the number of first pressure generating devices coupled to, and in fluid communication, with the patient circuit; the patient circuit coupled to, and in fluid communication, with the patient interface device; and the number of second pressure generating devices coupled to, and in fluid communication, with the patient interface device; characterised in that the number of first pressure generating devices are structured to generate a greater volume of fluid flow relative to the number of second pressure generating devices; and wherein the number of second pressure generating devices have a smaller size, footprint and/or volume than the number of first pressure generating devices.