mhurhangee/ep-ind-claims huggingface dataset:
A communication method in a communication system comprising a transmitting station device and a receiving station device, for transmitting and receiving a multicarrier signal, said multicarrier signal having a frequency band, the communication method comprising: - an interference detection step of detecting an interference band in which subcarriers of the multicarrier signal are interfered by another radio signal; - a frequency allocation step of allocating frequencies to be used by the respective subcarriers based on information on the detected interference band in accordance with a frequency arrangement determination rule, and of changing transmission frequencies to the allocated frequencies; - a transmitting step of setting a superposed rate that is the ratio of the sum of superposed bandwidths between the multicarrier signal and signals adjacent to the multicarrier signal to the bandwidth of the multicarrier signal and transmitting the multicarrier signal thus obtained in both the interference band and a non-interference band. - an interference detection step of detecting an interference band in which subcarriers of the multicarrier signal are interfered by another radio signal; - a frequency allocation step of allocating frequencies to be used by the respective subcarriers based on information on the detected interference band in accordance with a frequency arrangement determination rule, and of changing transmission frequencies to the allocated frequencies; - a transmitting step of setting a superposed rate that is the ratio of the sum of superposed bandwidths between the multicarrier signal and signals adjacent to the multicarrier signal to the bandwidth of the multicarrier signal and transmitting the multicarrier signal thus obtained in both the interference band and a non-interference band.
A method for the manufacture of a component assembly comprising a sheet metal part and a functional element attached to it by a riveting process or by a riveting and piercing process or by a press-in process, wherein the sheet metal part is provided in the region of the attachment of the functional element with an imprint; the imprint is produced prior to attachment of the functional element and consists of a sequence of regions (16, 18) which are raised and recessed relative to one another; during the attachment of the functional element, it is pressed against the sheet metal part in such a way that the imprint of the sheet metal part leads to a complementary shaping of the functional element in the region of the functional element which comes into contact with the imprint; and the imprint is so executed that a ring collar of sheet metal material arises and the sequence is formed in the region of the transition of the sheet metal material into the ring collar.
A method for obtaining polyphosphate from polyphosphate-containing yeast cells, comprising: disrupting polyphosphate-containing yeast cells after their harvest by freezing and thawing; incubating an aqueous solution containing the disrupted polyphosphate-containing yeast cells at a temperature of about 70°C to about 80°C for about 10 minutes, wherein about means within 20%; removing cell debris from the aqueous solution; removing nucleic acids and proteins from the aqueous solution by addition of an acid; neutralizing the remaining aqueous solution; and obtaining polyphosphate from the aqueous solution by precipitation using an alcohol. disrupting polyphosphate-containing yeast cells after their harvest by freezing and thawing; incubating an aqueous solution containing the disrupted polyphosphate-containing yeast cells at a temperature of about 70°C to about 80°C for about 10 minutes, wherein about means within 20%; removing cell debris from the aqueous solution; removing nucleic acids and proteins from the aqueous solution by addition of an acid; neutralizing the remaining aqueous solution; and obtaining polyphosphate from the aqueous solution by precipitation using an alcohol.
An isolated antibody or antigen-binding fragment thereof that binds to α-synuclein (SEQ ID NO:1), wherein the antibody or antigen-binding fragment thereof comprises (a) a heavy chain variable region comprising VH complementarity determining regions (CDRs) 1, 2, and 3, comprising (i) a CDR1 region that is identical to SEQ ID NO:16; (ii) a CDR2 region that is identical to SEQ ID NO:17; and (iii) a CDR3 region that is identical to SEQ ID NO:18; and (b) a light chain variable region comprising VL CDRs 1, 2, and 3, comprising (i) a CDR1 region that is identical to SEQ ID NO:23; (ii) a CDR2 region that is identical to SEQ ID NO:24; and (iii) a CDR3 region that is identical to SEQ ID NO:25. (a) a heavy chain variable region comprising VH complementarity determining regions (CDRs) 1, 2, and 3, comprising (i) a CDR1 region that is identical to SEQ ID NO:16; (ii) a CDR2 region that is identical to SEQ ID NO:17; and (iii) a CDR3 region that is identical to SEQ ID NO:18; and (i) a CDR1 region that is identical to SEQ ID NO:16; (ii) a CDR2 region that is identical to SEQ ID NO:17; and (iii) a CDR3 region that is identical to SEQ ID NO:18; and (b) a light chain variable region comprising VL CDRs 1, 2, and 3, comprising (i) a CDR1 region that is identical to SEQ ID NO:23; (ii) a CDR2 region that is identical to SEQ ID NO:24; and (iii) a CDR3 region that is identical to SEQ ID NO:25. (i) a CDR1 region that is identical to SEQ ID NO:23; (ii) a CDR2 region that is identical to SEQ ID NO:24; and (iii) a CDR3 region that is identical to SEQ ID NO:25.
An electronics enclosure comprising: a blower diffuser received within said enclosure; electronic components also received within said enclosure, with said blower diffuser positioned in contact with at least one of said electronic components, and a shroud surrounding said blower diffuser and said at least one of said electronic components, with said shroud being spaced from an outer surface of at least one of said electronic components; and an opening formed through said shroud, such that air can be driven within said shroud from said blower diffuser, and across at least one of said electronic components, and then outwardly of said opening, with a heat exchanger positioned in the path of air leaving said opening, and characterized in that a top wall of said blower diffuser sits spaced away from an outer wall of said electronics enclosure, such that air can circulate within said electronics enclosure, and reach an inlet of said blower diffuser, and the heat exchanger cools said air leaving said opening which circulates within said electronics enclosure. a blower diffuser received within said enclosure; electronic components also received within said enclosure, with said blower diffuser positioned in contact with at least one of said electronic components, and a shroud surrounding said blower diffuser and said at least one of said electronic components, with said shroud being spaced from an outer surface of at least one of said electronic components; and an opening formed through said shroud, such that air can be driven within said shroud from said blower diffuser, and across at least one of said electronic components, and then outwardly of said opening, with a heat exchanger positioned in the path of air leaving said opening, and characterized in that a top wall of said blower diffuser sits spaced away from an outer wall of said electronics enclosure, such that air can circulate within said electronics enclosure, and reach an inlet of said blower diffuser, and the heat exchanger cools said air leaving said opening which circulates within said electronics enclosure.
A developer supply container adapted to be detachably mountable into a developer receiving apparatus having a receiving opening for receiving a developer and an apparatus shutter for opening and closing the receiving opening, said developer supply container comprising: a container body having an inner space for containing the developer; a discharge opening, provided on a peripheral portion of said container body, for permitting discharge of the developer contained in said container body; characterized by the provision of: an engaging portion, engageable with the apparatus shutter, for opening and closing the apparatus shutter with a rotational movement of said container body, which is mounted into the developer receiving apparatus, between a removal position where removal of said developer supply container from the developer receiving apparatus is permitted and a supply position where the developer in said container body is supplied to the developer receiving apparatus, by opening communication between said discharge opening and the receiving opening, in a rotational direction of said developer supply container; and a cleaning member, provided on a peripheral portion of said container body, for cleaning the apparatus shutter with the rotational movement of said container body between the removal position and the supply position in the rotational direction. a container body having an inner space for containing the developer; a discharge opening, provided on a peripheral portion of said container body, for permitting discharge of the developer contained in said container body; an engaging portion, engageable with the apparatus shutter, for opening and closing the apparatus shutter with a rotational movement of said container body, which is mounted into the developer receiving apparatus, between a removal position where removal of said developer supply container from the developer receiving apparatus is permitted and a supply position where the developer in said container body is supplied to the developer receiving apparatus, by opening communication between said discharge opening and the receiving opening, in a rotational direction of said developer supply container; and a cleaning member, provided on a peripheral portion of said container body, for cleaning the apparatus shutter with the rotational movement of said container body between the removal position and the supply position in the rotational direction.
An hydraulic binder in pulverulent form consisting of a cement, at least one water-soluble calcium salt, and at least one silicate compound selected from sodium silicate, sodium metasilicate, potassium silicate, potassium metasilicate, lithium silicate, lithium metasilicate and mixtures thereof, - the silicate compound representing from 0.1 to 3.5% by dry weight of the weight of the cement, and - the calcium salt representing from 0.1 to 3.5% by dry weight of the weight of the cement. - the silicate compound representing from 0.1 to 3.5% by dry weight of the weight of the cement, and - the calcium salt representing from 0.1 to 3.5% by dry weight of the weight of the cement.
An audio processing method, applied in an external peripheral device and comprising: acquiring a user voice signal gathered by a microphone device; receiving an accompaniment audio signal transmitted by a television device via an integrated physical interface between the external peripheral device and the television device; performing sound-mixing processing on the user voice signal and the accompaniment audio signal; and transmitting directly a sound-mixed signal to a power amplifier circuit of the television device via the integrated physical interface, wherein the television device is configured to play back the sound-mixed signal received by the power amplifier circuit via a built-in speaker of the television device, wherein the integrated physical interface comprises an Inter-IC Sound I2S subinterface configured to transmit an I2S signal; the receiving an accompaniment audio signal transmitted by a television device via an integrated physical interface between the external peripheral device and the television device comprises: receiving the accompaniment audio signal transmitted by the television device via the I2S subinterface; the transmitting a sound-mixed signal to a power amplifier circuit of the television device via the integrated physical interface comprises: transmitting the sound-mixed signal to the power amplifier circuit of the television device via the I2S subinterface, further comprising: transmitting the sound-mixed signal to an application processor AP of the television device via the I2S subinterface in the integrated physical interface, wherein the AP is configured to save the sound-mixed signal as a recording. acquiring a user voice signal gathered by a microphone device; receiving an accompaniment audio signal transmitted by a television device via an integrated physical interface between the external peripheral device and the television device; performing sound-mixing processing on the user voice signal and the accompaniment audio signal; and transmitting directly a sound-mixed signal to a power amplifier circuit of the television device via the integrated physical interface, wherein the television device is configured to play back the sound-mixed signal received by the power amplifier circuit via a built-in speaker of the television device, receiving the accompaniment audio signal transmitted by the television device via the I2S subinterface; the transmitting a sound-mixed signal to a power amplifier circuit of the television device via the integrated physical interface comprises: transmitting the sound-mixed signal to the power amplifier circuit of the television device via the I2S subinterface,
Locking device for the door of household appliances, comprising a body of containment that houses a door latch locking wheel subject to the action of elastic means, a sliding bolt capable of preventing the rotation of said wheel and a time-delay mechanism to actuate a locking pawl for said sliding bolt, characterized by the fact that the wheel is fitted with a cavity that presents a surface tilted with respect to the plane of rotation, so as to interact with the contoured extremity of the sliding bolt, which is likewise tilted so as to resolve the force exerted by the wheel on the sliding bolt while pulling the door, into two components, one working in the direction of translating the sliding bolt, which is capable of causing the sliding bolt to withdraw and therefore the opening of the door from the inside of the household appliance when the door is closed before actuating the door locking pawl.
Protective cap with resilient opening consisting of an upper part and a lower part (2, 3) which are connected to one another to be pivotable on one side via integral hinges (17, 18) and locked to one another in the closed state, wherein the upper part is pretensioned under the spring load of a profiled resilient body (20, 20', 20") in the opening direction with respect to the lower part so that on actuating a latch device, the upper part pivots upwards from the bottom part under the force of a force store and remains in the opened position, wherein the profiled resilient body (20, 20', 20") consists of a soft-elastic elastomeric plastic material and is attached to end-face sides (44, 45) of top part and bottom part (2, 3) by end-side flaps attaching thereto from the same material, characterised in that the protective cap has rib packages (10, 11) or elastomeric pressure cushions opposite one another in its interior, wherein the one rib package or elastomeric pressure cushions is arranged on the inner side of the upper part and the opposite rib package or elastomeric pressure cushions on the inner side of the lower part, and the two rib packages (10, 11) or elastomeric pressure cushions form between them a clamping receiver which protects an object inserted there and to be protected against withdrawal.
A system for controlling remote operation of a ground compaction device, the system comprising: a hand-held device that remotely communicates with a ground compaction device; a first transmitter and a first receiver that provide a radio wavelength wireless communication between the hand-held device and the ground compaction device, the radio wavelength communication communicating operational control commands to the ground compaction device from instructions provided by a user associated with the hand-held device; and a second transmitter and a second receiver that provide an infrared wavelength wireless communication between the hand-held device and the ground compaction device to allow operation of the ground compaction device in accordance with instructions received via the radio wavelength wireless communication during interruption of the infrared wavelength wireless communication and suspends operation of the ground compaction device when the interruption of the infrared wavelength wireless communication satisfies a threshold. a hand-held device that remotely communicates with a ground compaction device; a first transmitter and a first receiver that provide a radio wavelength wireless communication between the hand-held device and the ground compaction device, the radio wavelength communication communicating operational control commands to the ground compaction device from instructions provided by a user associated with the hand-held device; and a second transmitter and a second receiver that provide an infrared wavelength wireless communication between the hand-held device and the ground compaction device to allow operation of the ground compaction device in accordance with instructions received via the radio wavelength wireless communication during interruption of the infrared wavelength wireless communication and suspends operation of the ground compaction device when the interruption of the infrared wavelength wireless communication satisfies a threshold.
A method of developing an underground medium, wherein said underground medium is developed according to a development scheme defined from a representation of said medium, said representation of said medium being established from a two-dimensional grid representing said underground medium, characterized in that the quality of the cells of said grid is optimized by moving nodes of said grid using a method of minimizing the deformation of said grid, said quality of a cell being the capacity of a cell to deliver coherent results during simulations, said quality of a cell being determined by calculating the ratio of the value of the smallest angle of the cell to the value of a right angle, said method of minimizing said grid comprising the following steps: generating a reference grid having only regular cells and covering entirely said grid to be optimized, imposing a displacement of at least one node, known as rigid node, of the reference grid onto a corresponding node in the grid to be optimized, said rigid node is a node belonging to the edge of said grid to be optimized or a node corresponding to a trace of a fault of said underground medium in said grid to be optimized, constructing an optimized two-dimensional grid by moving all the other nodes of said reference grid, by minimizing the displacement field of said nodes, by smoothing all the internal nodes, said smoothing keeping to a certain graduation of the initially deformed quantity that subsides the further one moves away from the vicinity of the rigid nodes of said faults and of said edge. generating a reference grid having only regular cells and covering entirely said grid to be optimized, imposing a displacement of at least one node, known as rigid node, of the reference grid onto a corresponding node in the grid to be optimized, said rigid node is a node belonging to the edge of said grid to be optimized or a node corresponding to a trace of a fault of said underground medium in said grid to be optimized, constructing an optimized two-dimensional grid by moving all the other nodes of said reference grid, by minimizing the displacement field of said nodes, by smoothing all the internal nodes, said smoothing keeping to a certain graduation of the initially deformed quantity that subsides the further one moves away from the vicinity of the rigid nodes of said faults and of said edge.
A blister piercing element for a dry powder inhalation device comprising a plate having a plurality of peripheral blister piercing blades bent out of the plane of the plate along fold lines to form clean air inlet flow openings through the plate, wherein each blade points away from each of the other peripheral piercing blades and the fold line of each peripheral piercing blade lies substantially at 90 degrees to the fold line of each of the adjacent peripheral piercing blades, and characterized in that the blister piercing element further comprises a central piercing blade surrounded by the peripheral piercing blades, the central piercing blade being bent out of the plane of the plate along a fold line.
Heat exchanger assembly for preheating comburent air for a glass furnace, the assembly comprising: - a regenerative heat exchanger, comprising: a) two regeneration chambers in a refractory material, having heat accumulator elements and communicating, in use, with a combustion chamber of said glass furnace; b) an air inlet for comburent airflow; c) a flue gas outlet for flue gas flow; and d) swap valve means (19a,19b), that are interposed between said regeneration chambers and said air inlet and flue gas outlet (16,14) and that can be controlled to swap the comburent airflow and the flue gas flow between said regeneration chambers with cycles of set length; - a recuperative heat exchanger comprising a gas passage and an air passage separated by metal heat-exchange walls; said gas passage communicating at one end with said flue gas outlet to convey said flue gas flow to the opposite end towards a chimney; said air passage communicating with said air inlet to send air heated by said metal walls to said regenerative heat exchanger; - at least one heated air bleeding point (35,40) positioned upstream of said air inlet; characterised in that the outlet of said air passage is connected to said air inlet via a pipe, and in that said heated air bleeding point (35,40) is defined as a branch of said pipe or as a branch along said air passage between two stages (38,39), which are arranged in series and constitute part of said recuperative heat exchanger. - a regenerative heat exchanger, comprising: a) two regeneration chambers in a refractory material, having heat accumulator elements and communicating, in use, with a combustion chamber of said glass furnace; b) an air inlet for comburent airflow; c) a flue gas outlet for flue gas flow; and d) swap valve means (19a,19b), that are interposed between said regeneration chambers and said air inlet and flue gas outlet (16,14) and that can be controlled to swap the comburent airflow and the flue gas flow between said regeneration chambers with cycles of set length; a) two regeneration chambers in a refractory material, having heat accumulator elements and communicating, in use, with a combustion chamber of said glass furnace; b) an air inlet for comburent airflow; c) a flue gas outlet for flue gas flow; and d) swap valve means (19a,19b), that are interposed between said regeneration chambers and said air inlet and flue gas outlet (16,14) and that can be controlled to swap the comburent airflow and the flue gas flow between said regeneration chambers with cycles of set length; - a recuperative heat exchanger comprising a gas passage and an air passage separated by metal heat-exchange walls; said gas passage communicating at one end with said flue gas outlet to convey said flue gas flow to the opposite end towards a chimney; said air passage communicating with said air inlet to send air heated by said metal walls to said regenerative heat exchanger; - at least one heated air bleeding point (35,40) positioned upstream of said air inlet;