mhurhangee/ep-ind-claims huggingface dataset:
A staple removing device (1A- 1J, 1001) comprising: a placing table on which a sheet bundle bound by a staple is placed; a sheet pressing part configured to press against the sheet bundle placed on the placing table; a removing part (120,1122, 1222, 1322, 1422, 1522) located below the placing table, configured to remove the staple from the sheet bundle placed on the placing table, and including a tip end portion (122S; 1122S) that can be inserted between the sheet bundle and the staple and is configured to be movable along the placing table between a first position and a second position (L2A) and to be inserted between the sheet bundle and the staple when the tip end portion (122S; 1122S) moves to the second position (L2A); and motor configured to move the removing part, wherein the placing table is provided with an opening into which the tip end portion can protrude, characterized in that the tip end portion (122S; 1122S) moves while maintaining a state of protruding from the placing table via the opening at least until passing through the second position (L2A) from a front of the second position (L2a). a placing table on which a sheet bundle bound by a staple is placed; a sheet pressing part configured to press against the sheet bundle placed on the placing table; a removing part (120,1122, 1222, 1322, 1422, 1522) located below the placing table, configured to remove the staple from the sheet bundle placed on the placing table, and including a tip end portion (122S; 1122S) that can be inserted between the sheet bundle and the staple and is configured to be movable along the placing table between a first position and a second position (L2A) and to be inserted between the sheet bundle and the staple when the tip end portion (122S; 1122S) moves to the second position (L2A); and motor configured to move the removing part, wherein the placing table is provided with an opening into which the tip end portion can protrude, characterized in that the tip end portion (122S; 1122S) moves while maintaining a state of protruding from the placing table via the opening at least until passing through the second position (L2A) from a front of the second position (L2a).
Process for manufacturing aromatic polyimides, characterized in that it comprises the following steps: (a) preparing one or more solid salts by reacting one or more aromatic tetracarboxylic acids and one or more diamines in a mole ratio ranging from 0.95 to 1.05; (b) drying the solid salt(s); (c) adding to the dry salt derived from step (b) one or more compounds; (d) solid-state polymerization of said solid salt(s) in the presence of the compound(s); characterized in that the compound(s) are chosen from pyromellitic acid, phthalic acid and mixtures thereof. (a) preparing one or more solid salts by reacting one or more aromatic tetracarboxylic acids and one or more diamines in a mole ratio ranging from 0.95 to 1.05; (b) drying the solid salt(s); (c) adding to the dry salt derived from step (b) one or more compounds; (d) solid-state polymerization of said solid salt(s) in the presence of the compound(s);
A method for a network device comprising a plurality of microphones (702, 702a-g, 802, 802a-g) including at least a first microphone and a second microphone, or for a first network device comprising a plurality of microphones including at least a first microphone and a second network device comprising at least a second microphone, the method comprising: capturing, via at least a portion of the plurality of microphones (702a, 702b), a plurality of respective audio signals including a first audio signal obtained by the first microphone and a second audio signal obtained by the second microphone; identifying, for at least the first audio signal, a first noise content; determining, based on the identified noise content, an estimated noise content captured by the plurality of microphones (702, 702a-g, 802, 802a-g); generating at least a first noise-suppressed audio signal and a second noise-suppressed audio signal by suppressing the estimated noise contents in the first audio signal and the second audio signal respectively; combining the first and second noise-suppressed audio signals into a third audio signal; determining whether the third audio signal includes a voice input comprising a wake word; and when it is determined that the third audio signal comprises the voice input comprising the wake word, transmitting at least a portion of the voice input to a remote computing device for voice processing to identify a voice utterance different from the wake word. capturing, via at least a portion of the plurality of microphones (702a, 702b), a plurality of respective audio signals including a first audio signal obtained by the first microphone and a second audio signal obtained by the second microphone; identifying, for at least the first audio signal, a first noise content; determining, based on the identified noise content, an estimated noise content captured by the plurality of microphones (702, 702a-g, 802, 802a-g); generating at least a first noise-suppressed audio signal and a second noise-suppressed audio signal by suppressing the estimated noise contents in the first audio signal and the second audio signal respectively; combining the first and second noise-suppressed audio signals into a third audio signal; determining whether the third audio signal includes a voice input comprising a wake word; and when it is determined that the third audio signal comprises the voice input comprising the wake word, transmitting at least a portion of the voice input to a remote computing device for voice processing to identify a voice utterance different from the wake word.
Pneumatically regulated movement cushion for deep relaxation having a plurality of mutually independent chambers (3A-3D) and a respective single supply tube (5A-5D) per chamber, via which the respective chamber can be filled and emptied, wherein the movement cushion comprises at least one first, one second and one third chamber and wherein the supply tube for the third chamber and optionally each further chamber extends between two adjacent chambers, and wherein a first weld seam and a second weld seam are provided between the first chamber and the second chamber, wherein the first and second weld seams form a guide channel and wherein the supply tube for the third chamber and the supply tube for each further chamber is guided through the guide channel.
A process for production of sulfur from a feedstock gas comprising from 15%, 20%, 30 vol%, 40 vol% or 50% to 99 vol% or 100 vol% H 2 S and a stream of sulfuric acid involving the steps of a. providing a Claus reaction furnace feed stream comprising said feedstock gas, an amount of sulfuric acid, an amount of oxygen and optionally an amount of fuel, wherein the amount of oxygen is substoichiometric, b. directing said Claus reaction furnace feed stream to a Claus reaction furnace operating at elevated temperature such as above 900°C, providing a Claus converter feed gas c. cooling said Claus converter feed gas to provide a cooled Claus converter feed gas and optionally withdrawing elemental sulfur from the gas d. directing said cooled Claus converter feed gas after optional reheating to contact a material catalytically active in the Claus reaction, e. withdrawing a Claus tail gas and elemental sulfur, optionally by cooling the effluent from said material catalytically active in the Claus reaction, f. directing a stream comprising said Claus tail gas to a Claus tail gas treatment, characterized in said sulfuric acid directed to said Claus reaction furnace being in the form of droplets with a droplet size distribution characterized by 90% of the mass of the droplets having a diameter below 500 μm, 200 μm or 100 μm. a. providing a Claus reaction furnace feed stream comprising said feedstock gas, an amount of sulfuric acid, an amount of oxygen and optionally an amount of fuel, wherein the amount of oxygen is substoichiometric, b. directing said Claus reaction furnace feed stream to a Claus reaction furnace operating at elevated temperature such as above 900°C, providing a Claus converter feed gas c. cooling said Claus converter feed gas to provide a cooled Claus converter feed gas and optionally withdrawing elemental sulfur from the gas d. directing said cooled Claus converter feed gas after optional reheating to contact a material catalytically active in the Claus reaction, e. withdrawing a Claus tail gas and elemental sulfur, optionally by cooling the effluent from said material catalytically active in the Claus reaction, f. directing a stream comprising said Claus tail gas to a Claus tail gas treatment,
A method in a user equipment comprising: receiving an indication of a first uplink resource allocation of resource blocks for a transmission on a first carrier; receiving an indication of a second uplink resource allocation of resource blocks for a transmission on a second carrier; receiving an indication of a downlink allocation for receiving a downlink signal; identifying a higher order intermodulation product for the first and second uplink resource allocations, which is co-located with a lower order intermodulation product for the first and second uplink resource allocations, resulting from any respective higher order and lower order transceiver nonlinearities; determining whether the identified higher order intermodulation product has a region of overlap with the downlink allocation; and adjusting the reference sensitivity requirement in the region of overlap between the higher order intermodulation product and the downlink allocation, when the higher order intermodulation product has a region of overlap with the downlink allocation. receiving an indication of a first uplink resource allocation of resource blocks for a transmission on a first carrier; receiving an indication of a second uplink resource allocation of resource blocks for a transmission on a second carrier; receiving an indication of a downlink allocation for receiving a downlink signal; identifying a higher order intermodulation product for the first and second uplink resource allocations, which is co-located with a lower order intermodulation product for the first and second uplink resource allocations, resulting from any respective higher order and lower order transceiver nonlinearities; determining whether the identified higher order intermodulation product has a region of overlap with the downlink allocation; and adjusting the reference sensitivity requirement in the region of overlap between the higher order intermodulation product and the downlink allocation, when the higher order intermodulation product has a region of overlap with the downlink allocation.
An outdoor unit for an air conditioner, comprising: a casing, including a portion defining an outlet through which air is discharged from the outdoor unit; an axial flow fan disposed in the casing for blowing air through the outlet, wherein the axial flow fan comprises: a hub; a plurality of main wings extending from the hub; and a rim connecting the main wings to one other and rotating integrally with the main wings; and a plurality of auxiliary wings disposed at a clearance space between the rim and the portion of the casing defining the outlet, wherein the rim includes a front edge, a rear edge, an inner surface and an outer surface, wherein the front edge is closer to the outlet than the rear edge, and wherein the plurality of auxiliary wings are formed on the outer surface of the rim, wherein each auxiliary wing has a leading edge at which air flow begins and a trailing edge opposite the leading edge, wherein the leading edge is positioned further forward towards the direction of rotation than the trailing edge, wherein the trailing edge is positioned further forward towards the front of the rim than the leading edge, wherein an outer radius of the front of the rim is less than an outer radius of the back of the rim, wherein a distance between the leading edge of the auxiliary wing and the axis of the axial flow fan is greater than a distance between the trailing edge of the auxiliary wing and the axis of the axial flow fan. a casing, including a portion defining an outlet through which air is discharged from the outdoor unit; an axial flow fan disposed in the casing for blowing air through the outlet, wherein the axial flow fan comprises: a hub; a plurality of main wings extending from the hub; and a rim connecting the main wings to one other and rotating integrally with the main wings; and a hub; a plurality of main wings extending from the hub; and a rim connecting the main wings to one other and rotating integrally with the main wings; and a plurality of auxiliary wings disposed at a clearance space between the rim and the portion of the casing defining the outlet, wherein the rim includes a front edge, a rear edge, an inner surface and an outer surface, wherein the front edge is closer to the outlet than the rear edge, and wherein the plurality of auxiliary wings are formed on the outer surface of the rim, wherein each auxiliary wing has a leading edge at which air flow begins and a trailing edge opposite the leading edge, wherein the leading edge is positioned further forward towards the direction of rotation than the trailing edge, wherein the trailing edge is positioned further forward towards the front of the rim than the leading edge, wherein an outer radius of the front of the rim is less than an outer radius of the back of the rim, wherein a distance between the leading edge of the auxiliary wing and the axis of the axial flow fan is greater than a distance between the trailing edge of the auxiliary wing and the axis of the axial flow fan.
An inflow assembly for controlling fluid flow between a hydrocarbon reservoir and a production casing in a well, comprising: - a first tubular having at least a first and a second inlet, - a second tubular rotatable within the first tubular, having a wall and an outlet penetrating the wall, and characterised in that the second tubular is rotatable from a first position in which the outlet is aligned with the first inlet and the wall is opposite the second inlet to a second position in which the outlet is aligned with the second inlet and the wall is opposite the first inlet, or to a third position in which the wall is opposite the first and the second inlets. - a first tubular having at least a first and a second inlet, - a second tubular rotatable within the first tubular, having a wall and an outlet penetrating the wall, and
Removal device for removing dirt particles and/or gas bubbles from a flow of liquid in a liquid conduit system, the removal device comprising: - a housing having an entry and an exit, the housing defining an inner space within the housing, - a main inner channel constructed to guide a greater part of the flow through the inner space from the entry to the exit, wherein the main inner channel comprises a tube having a cross-section which is smaller than a cross-section of the entry and a diameter which is smaller than a diameter of the entry, and wherein the tube extends between a branch location and a merge location, - at least one branch flow channel, which branches off from the main inner channel at the branch location, the branch flow channel being configured to - in use - branch off a smaller part of the main flow, - at least one quiet zone in the inner space, wherein in use the at least one branch flow channel discharges into the at least one quiet zone, the quiet zone being constructed and arranged so that in use, a velocity of the liquid in the at least one quiet zone is lower than in the main inner channel and low enough to allow: ∘ dirt particles to settle in the at least one quiet zone and/or ∘ gas bubbles to form and rise in the at least one quiet zone, - at least one return flow channel for a return flow from the at least one quiet zone, wherein the return flow channel merges with the main inner channel at the merge location, wherein an entry to the branch flow channel is provided as a gap which surrounds the main inner channel. - a housing having an entry and an exit, the housing defining an inner space within the housing, - a main inner channel constructed to guide a greater part of the flow through the inner space from the entry to the exit, wherein the main inner channel comprises a tube having a cross-section which is smaller than a cross-section of the entry and a diameter which is smaller than a diameter of the entry, and wherein the tube extends between a branch location and a merge location, - at least one branch flow channel, which branches off from the main inner channel at the branch location, the branch flow channel being configured to - in use - branch off a smaller part of the main flow, - at least one quiet zone in the inner space, wherein in use the at least one branch flow channel discharges into the at least one quiet zone, the quiet zone being constructed and arranged so that in use, a velocity of the liquid in the at least one quiet zone is lower than in the main inner channel and low enough to allow: ∘ dirt particles to settle in the at least one quiet zone and/or ∘ gas bubbles to form and rise in the at least one quiet zone, ∘ dirt particles to settle in the at least one quiet zone and/or ∘ gas bubbles to form and rise in the at least one quiet zone, - at least one return flow channel for a return flow from the at least one quiet zone, wherein the return flow channel merges with the main inner channel at the merge location,
An apparatus for use in electrical conversion comprising a bridge rectifier having an input side and an output side, and a switched capacitor line connected across the output side of the rectifier, wherein the switched capacitor line comprises a capacitor, a charging leg and a switched discharge leg, and wherein the charging leg incorporates a transistor controlled so as to maintain a substantially constant charging current when the transistor is conductive, wherein when the output from the bridge rectifier is greater than a predetermined value and is higher than that of the capacitor then the transistor is controlled to that charging of the capacitor occurs at a constant current, and characterised in that once a point is reached at which the capacitor charge exceeds the rectifier output to the capacitor charging will cease, the switched discharge leg being controlled such that the capacitor charge is maintained, and subsequently controlling the switch of the switched discharge leg to allow discharge of the capacitor.
Use of the compound of the formula (I-2) for controlling insects and/or spider mites and/or nematodes, where the application of the active compound is carried out by droplet application to the soil.
Rail vehicle having a central body portion and a vehicle head, which adjoins the body portion and, when the vehicle is in operation, forms a free end of the vehicle, characterized in that the vehicle head has a roof region, which provides a hood-like overhang and arches over a side-wall region of the vehicle head, said side-wall region being located beneath the roof region and being curved inwards in the direction of the centre of the vehicle, the roof region, which provides a hood-like overhang, and the inwardly curved side-wall region, which is located beneath the roof region, are separated by an edge at which the outer surface of the overhanging roof region and an upper surface-area portion of the inwardly curved side-wall region meet at an angle in relation to one another, and - as seen in the longitudinal direction of the vehicle - the edge, in its entirety or at least in part, forms a separation edge on the leeward side for crosswind, in particular for crosswind with a direction of airflow between 10° and 30° in relation to the direction of travel.
An ultrasonic through-body communication device comprising: a transmitter adapted to provide digital information data for transmission to a receiver; a data encoder, responsive to data provided by the transmitter and enabling a DC-free data coding into an encoded data signal; a transducer driver coupled to receive the encoded data signal from the data encoder and adapted to provide an amplified drive signal at an ultrasonic frequency, wherein the amplified drive signal comprises the encoded data signal; a CMUT transducer adapted to operate at the ultrasonic frequency and responsive to the amplified drive signal, wherein the ultrasonic frequency belongs to a frequency band between 100 kHz up to about 40 MHz; and a bias circuit coupled to provide a bias voltage to the CMUT transducer, wherein the provided bias voltage enables the CMUT transducer to operate in a collapsed mode, and wherein the CMUT transducer is acoustically coupled to a water-like body to transmit ultrasonic data signals comprising the encoded data signal through the water-like body for reception by the receiver at a data transfer rate of at least Mb/sec. a transmitter adapted to provide digital information data for transmission to a receiver; a data encoder, responsive to data provided by the transmitter and enabling a DC-free data coding into an encoded data signal; a transducer driver coupled to receive the encoded data signal from the data encoder and adapted to provide an amplified drive signal at an ultrasonic frequency, wherein the amplified drive signal comprises the encoded data signal; a CMUT transducer adapted to operate at the ultrasonic frequency and responsive to the amplified drive signal, wherein the ultrasonic frequency belongs to a frequency band between 100 kHz up to about 40 MHz; and a bias circuit coupled to provide a bias voltage to the CMUT transducer, wherein the provided bias voltage enables the CMUT transducer to operate in a collapsed mode, and wherein the CMUT transducer is acoustically coupled to a water-like body to transmit ultrasonic data signals comprising the encoded data signal through the water-like body for reception by the receiver at a data transfer rate of at least Mb/sec.
A fusion protein comprising: (i) a retinol-binding protein and albumin, or (ii) an RBP and at least one of an albumin I domain and an albumin III domain. (i) a retinol-binding protein and albumin, or (ii) an RBP and at least one of an albumin I domain and an albumin III domain.