mhurhangee/ep-ind-claims huggingface dataset:
A system, comprising a gasifier configured to gasify a carbonaceous feed to produce syngas; a quench portion configured to quench the produced syngas using at least water to generate a stream of quenched syngas, a slag stream having dissolved oxygen, and a blackwater stream; a slag sump disposed downstream from the quench portion, wherein the slag sump is configured to receive at least a portion of the slag stream from the quench portion, and the slag sump is configured to generate a stream of slag sump water; a flash vessel disposed downstream from the quench portion, the flash vessel comprising: a first inlet configured to introduce a first fluid into the flash vessel, wherein the flash vessel is configured to flash the first fluid to produce a first flash gas; a second inlet configured to introduce the stream of slag sump water into the flash vessel, wherein the stream of slag sump water comprises a mixture of water, oxygen, and at least one of a gasification slag and char; a gas-liquid contactor disposed within the flash vessel, wherein the gas-liquid contactor is configured to contact the stream of slag sump water with the first flash gas to enable the first flash gas to deaerate the stream of slag sump water; and a first outlet configured to output an overhead discharge comprising a second flash gas and oxygen from the stream of slag sump water. a first inlet configured to introduce a first fluid into the flash vessel, wherein the flash vessel is configured to flash the first fluid to produce a first flash gas; a second inlet configured to introduce the stream of slag sump water into the flash vessel, wherein the stream of slag sump water comprises a mixture of water, oxygen, and at least one of a gasification slag and char; a gas-liquid contactor disposed within the flash vessel, wherein the gas-liquid contactor is configured to contact the stream of slag sump water with the first flash gas to enable the first flash gas to deaerate the stream of slag sump water; and a first outlet configured to output an overhead discharge comprising a second flash gas and oxygen from the stream of slag sump water.
An active noise control system comprising: a controller to control noise within a predefined noise-control zone by reducing or eliminating noise of at least one predefined noise pattern to be controlled within said noise-control zone, said controller is to receive a plurality of noise inputs representing acoustic noise at a plurality of predefined noise sensing locations, which are defined with respect to said predefined noise-control zone, the controller is configured to receive a plurality of residual-noise inputs representing acoustic residual-noise at a plurality of predefined residual-noise sensing locations, which are located within said predefined noise-control zone, the controller is configured to determine a noise control pattern, based on said plurality of noise inputs and said plurality of residual-noise inputs, and to output said noise control pattern to at least one acoustic transducer, said controller comprises an extractor to extract from said plurality of noise inputs a plurality of disjoint reference acoustic patterns, which are statistically independent, and which correspond to a respective plurality of disjoint modeled acoustic noise sources, wherein said controller is configured to select from said plurality of disjoint reference acoustic patterns at least one disjoint reference acoustic pattern corresponding to at least one modeled acoustic noise source which is to be reduced or eliminated in the noise-control zone, wherein said controller is configured to select said at least one disjoint reference acoustic pattern based on one or more predefined acoustic pattern attributes of the at least one predefined noise pattern to be controlled within said noise-control zone, the controller is configured to determine said noise control pattern by applying an estimation function to the at least one disjoint reference acoustic pattern selected from the plurality of disjoint reference acoustic patterns, wherein said controller is configured to adapt one or more parameters of the estimation function based on the plurality of residual-noise inputs.
System for monitoring the electrical continuity of the circuit for detecting the liquid level in a tank comprising two fixed contact parts (4, 4') fixed to the tank and one moving contact part which is capable of interconnecting the two fixed contact parts according to the level of the liquid in the tank, the two fixed contact parts (4, 4') being connected by a circuit (5, 5') to an electrical circuit for detecting the electrical continuity between the fixed contact parts (4, 4'), the monitoring system comprising an electrical resistor interconnecting the two fixed contact parts (4, 4'), characterized in that said resistor is placed in a sealing device (11, 90, 91) ensuring the seal-tightness between the fixed contact parts (4, 4') and the walls of an opening of the tank in which said fixed contact parts (4, 4') are placed, and in that the sealing parts /contact parts (4, 4') assembly is force-fitted into the opening of the tank and in that the sealing part has, at its two ends, bulges (95, 96) ensuring the seal-tightness between said sealing part and the opening of the tank and in that an opening is provided in said sealing part, to protect the resistor from all pollution and to allow the resistor to be welded to the contact parts (4, 4').
An encoding method comprising: a vector quantization step of vector-quantizing a plurality of samples collectively to obtain a vector quantization index and the quantized value of each of the plurality of samples, the samples being frequency-domain signals based on acoustic signals; a bit assignment step of assigning bits in a predetermined order of priority based on human auditory perceptual characteristics to one or more sets of sample positions among a plurality of sets of sample positions, the sets being sub-bands, each set comprising a plurality of sample positions and being given an order of priority based on the human auditory perceptual characteristics, the number of bits not being larger than the number of bits obtained by subtracting the number of bits used for a code corresponding to the vector quantization index from the number of bits assigned for the code corresponding to the vector quantization index; and a coefficient group selection step of outputting index information indicating a group of coefficients that minimizes the sum of the error between the value of each sample included in each of the sets of sample positions to which the bits are assigned in the bit assignment step and the value obtained by multiplying the quantized value of each sample included in the set of sample positions by a coefficient corresponding to the position of the sample, of all the sample positions included in the set of sample positions, among a plurality of groups of predetermined coefficients corresponding to the positions of the samples. a vector quantization step of vector-quantizing a plurality of samples collectively to obtain a vector quantization index and the quantized value of each of the plurality of samples, the samples being frequency-domain signals based on acoustic signals; a bit assignment step of assigning bits in a predetermined order of priority based on human auditory perceptual characteristics to one or more sets of sample positions among a plurality of sets of sample positions, the sets being sub-bands, each set comprising a plurality of sample positions and being given an order of priority based on the human auditory perceptual characteristics, the number of bits not being larger than the number of bits obtained by subtracting the number of bits used for a code corresponding to the vector quantization index from the number of bits assigned for the code corresponding to the vector quantization index; and a coefficient group selection step of outputting index information indicating a group of coefficients that minimizes the sum of the error between the value of each sample included in each of the sets of sample positions to which the bits are assigned in the bit assignment step and the value obtained by multiplying the quantized value of each sample included in the set of sample positions by a coefficient corresponding to the position of the sample, of all the sample positions included in the set of sample positions, among a plurality of groups of predetermined coefficients corresponding to the positions of the samples.
An apparatus for manufacturing green films composed of a ceramic and/or metallic material, comprising a storage container for slurry (2.1) that can be filled with a suspension of a liquid, particles of a ceramic and/or metallic material, and optionally at least one organic binder component, wherein an outflow opening (1.1) for the slurry is present at the storage container, from which outflow opening slurry moves onto a band-like carrier having a constant film thickness so that a film of the slurry having a predefinable constant film thickness can be formed; and wherein a drying device is present in the region of the band-like carrier to remove the liquid, with the band-like carrier being formed from a semipermeable substance or material that is not permeable for the liquid and for the ceramic and/or metallic particles and that is permeable for liquid that has transitioned into the gas phase; and wherein a device generating a vacuum is effective below the band-like carrier in the region in which the drying device is effective, with the vacuum being able to be generated in accordance with the Venturi principle below the band-like carrier by an airflow, characterized in that a gas-permeable carrier element, preferably in the form of an open-pore foam, a fibrous structure, a plate-like element having perforations, or a meshwork, is arranged directly below the band-like carrier in the region in which a device generating a vacuum is effective, on which carrier element the band-like carrier lies over the surface and by which a removal of gaseous liquid takes place as a consequence of the vacuum, with a carrier element having a capillary effect for the liquid.
A communication method performed by a communication device, the method comprising: determining a first time-frequency resource, wherein the first time-frequency resource is a physical downlink control channel, PDCCH, candidate in a plurality of PDCCH candidates; determining a second time-frequency resource and a third time-frequency resource, wherein the first time-frequency resource consists of a plurality of resource element, RE, sets, all of the plurality of RE sets comprises a same fixed quantity of REs, and the third time-frequency resource is located at a preset location in each of the plurality of RE sets, each RE set comprises a plurality of RE groups, REGs, the third time-frequency resource include at least one RE in each REG of the plurality of REGs in each RE set, and the second time-frequency resource comprises a resource other than the third time-frequency resource in the first time-frequency resource, the second time-frequency resource is used to carry a beamformed control channel, and the third time-frequency resource is used to carry a reference signal of the beamformed control channel; and demodulating the beamformed control channel according to the reference signal, wherein the beamformed control channel is received in the second time-frequency resource and the reference signal is received in the third time frequency resource. determining a first time-frequency resource, wherein the first time-frequency resource is a physical downlink control channel, PDCCH, candidate in a plurality of PDCCH candidates; determining a second time-frequency resource and a third time-frequency resource, wherein the first time-frequency resource consists of a plurality of resource element, RE, sets, all of the plurality of RE sets comprises a same fixed quantity of REs, and the third time-frequency resource is located at a preset location in each of the plurality of RE sets, each RE set comprises a plurality of RE groups, REGs, the third time-frequency resource include at least one RE in each REG of the plurality of REGs in each RE set, and the second time-frequency resource comprises a resource other than the third time-frequency resource in the first time-frequency resource, the second time-frequency resource is used to carry a beamformed control channel, and the third time-frequency resource is used to carry a reference signal of the beamformed control channel; and demodulating the beamformed control channel according to the reference signal, wherein the beamformed control channel is received in the second time-frequency resource and the reference signal is received in the third time frequency resource.
An operating mechanism for a vertically oriented bodymaker, said bodymaker including a housing assembly, said housing assembly including a number of elongated ram paths, said ram paths extending generally vertically; said operating mechanism comprising: a crankshaft, said crankshaft rotatably coupled to said housing assembly; a motor, said motor operatively coupled to said crankshaft; a first ram assembly and a second ram assembly, each ram assembly including a ram body; each said ram body structured to move over a ram path; and characterised by: said crankshaft including a plurality of crankpin journals; a link assembly including a number of links; wherein each link extends between the crankpin journal associated with the link and the ram body associated with the link and movably decouples the crankpin journal associated with the link to the ram body associated with the link; wherein each ram assembly (250A, 250B) moves between a retracted, first position and an extended, second position; and wherein, when said first ram assembly is in said first position, said second ram assembly is substantially in said second position, and, when said first ram assembly is in said second position, said second ram assembly is substantially in said first position. a crankshaft, said crankshaft rotatably coupled to said housing assembly; a motor, said motor operatively coupled to said crankshaft; a first ram assembly and a second ram assembly, each ram assembly including a ram body; each said ram body structured to move over a ram path; said crankshaft including a plurality of crankpin journals; a link assembly including a number of links; wherein each link extends between the crankpin journal associated with the link and the ram body associated with the link and movably decouples the crankpin journal associated with the link to the ram body associated with the link; wherein each ram assembly (250A, 250B) moves between a retracted, first position and an extended, second position; and wherein, when said first ram assembly is in said first position, said second ram assembly is substantially in said second position, and, when said first ram assembly is in said second position, said second ram assembly is substantially in said first position.
Radiator with at least two heating panels aligned parallel to each other, a multiplicity of connectors, which define a separation distance between two heating panels, and at least one fan unit, wherein a heat transfer fluid can flow through the heating panels, in each case through at least a forward flow and a return flow port, and wherein the heating panels in each case have a horizontally extending distribution channel, a similarly horizontally extending collection channel, and a multiplicity of heating channels, which extend at right angles to the distribution channel and the collection channel, and which in terms of flow are connected on the one hand to the collection channel and on the other hand to the distribution channel, wherein a recess is located in each case between adjacent heating channels, which recess, as viewed in a direction at right angles to a plane tangential to the heating channels, is located deeper than the distribution channel and the collection channel, wherein the fan unit has a support, and a multiplicity of fans, attached to the support in a force transmitting manner, wherein the support is elongated, the fans are arranged thereon in at least one row, one behind another, and the fan unit is detachably attached to at least one heating panel by means of its attachment elements, characterised in that the attachment elements, preferably consisting of a plastic material, engage in each case in one of the recesses with rearward-hooking members, whereby retaining forces can be introduced, by way of the rearward-hooking members, into wall sections of the opposingly located collection channels, in that on its two longitudinal edges the support is in each case separated, by means of a non-metallic intermediate element, in particular one consisting of a plastic material, from a contact region of the respectively associated heating panel, and in that the support is located, at least partially, between the heating panels.
A control system including a charging station, a plurality of autonomous work machines (10, 10a, 10b, 10c), and a control apparatus configured to control the plurality of autonomous work machines (10, 10a, 10b, 10c) each autonomous work machine (10, 10a, 10b, 10c) comprises a blade for a work, characterized in that the control apparatus comprises: obtaining means for obtaining power information of each autonomous work machine estimation means for estimating the arrival of the charging timing of each autonomous work machine (10, 10a, 10b, 10c) based on the power information; and control means for controlling each autonomous work machine (10, 10a, 10b, 10c) based on the power information such that charging timings of the autonomous work machines (10, 10a, 10b, 10c) at the charging station do not match each other, by changing power consumption of each autonomous work machine (10, 10a, 10b, 10c) if the estimated charging timings match, and the control means being configured to change the power consumption of each autonomous work machine (10, 10a, 10b, 10c) by changing a height of the blade for each autonomous work machine (10, 10a, 10b, 10c) or by changing a rotation speed of the blade for each autonomous work machine. obtaining means for obtaining power information of each autonomous work machine estimation means for estimating the arrival of the charging timing of each autonomous work machine (10, 10a, 10b, 10c) based on the power information; and control means for controlling each autonomous work machine (10, 10a, 10b, 10c) based on the power information such that charging timings of the autonomous work machines (10, 10a, 10b, 10c) at the charging station do not match each other, by changing power consumption of each autonomous work machine (10, 10a, 10b, 10c) if the estimated charging timings match, and the control means being configured to change the power consumption of each autonomous work machine (10, 10a, 10b, 10c) by changing a height of the blade for each autonomous work machine (10, 10a, 10b, 10c) or by changing a rotation speed of the blade for each autonomous work machine.
A method, at a mobile device, comprising: receiving a location request message requesting parameters indicative of a location of the mobile device, the location request message specifying one or more timer values by which the mobile device is to provide one or more response messages comprising the requested parameters; and transmitting an initial response message comprising at least an initial portion of, but less than an entirety of, the requested parameters prior to expiration of at least one of the one or more timer values, the initial response message further comprising an indication that at least one subsequent response message is to provide an additional portion of the requested parameters indicative of the location of the mobile device. receiving a location request message requesting parameters indicative of a location of the mobile device, the location request message specifying one or more timer values by which the mobile device is to provide one or more response messages comprising the requested parameters; and transmitting an initial response message comprising at least an initial portion of, but less than an entirety of, the requested parameters prior to expiration of at least one of the one or more timer values, the initial response message further comprising an indication that at least one subsequent response message is to provide an additional portion of the requested parameters indicative of the location of the mobile device.
A method comprising, performed by at least one apparatus: extracting from radio signals, transmitted by a positioning support device and received by a mobile device, data enabling a determination of characteristics of radio signals transmitted by the positioning support device, the characteristics expected to be observable at different locations, wherein the data is at least partially encrypted using an encryption key that is associated with a particular version of a set of values of parameters that was used in assembling the data; attempting to decrypt the at least partially encrypted data using at least one encryption key that is accessible to the apparatus; determining whether the decryption with a used encryption key was successful; and if it is determined that the decryption was successful, selecting a version of a set of values of parameters that is associated with the encryption key. extracting from radio signals, transmitted by a positioning support device and received by a mobile device, data enabling a determination of characteristics of radio signals transmitted by the positioning support device, the characteristics expected to be observable at different locations, wherein the data is at least partially encrypted using an encryption key that is associated with a particular version of a set of values of parameters that was used in assembling the data; attempting to decrypt the at least partially encrypted data using at least one encryption key that is accessible to the apparatus; determining whether the decryption with a used encryption key was successful; and if it is determined that the decryption was successful, selecting a version of a set of values of parameters that is associated with the encryption key.
A power over Ethernet (PoE) interface for 10GBase-T Ethernet, the PoE interface comprising: an at least one communication channel Ethernet interface adapted to process differential signals from twisted pair cables, each channel including a common mode choke and an autotransformer coupled to the common mode choke; the autotransformer including a magnetic core comprising an autotransformer toroid core, an autotransformer magnetic winding on the core, and a center tap for coupling direct current power; the autotransformer magnetic winding comprising 8 to 14 turns of a pair of wires in the range of 35 to 37 gauge twisted together; the common mode choke including a magnetic choke core comprising a choke toroid core and a magnetic choke winding, the magnetic winding comprising 6 to 12 turns of a non-twisted pair of wires, portions of said pair of non-twisted wires extending to data and power pins of the interface in non-twisted form. an at least one communication channel Ethernet interface adapted to process differential signals from twisted pair cables, each channel including a common mode choke and an autotransformer coupled to the common mode choke; the autotransformer including a magnetic core comprising an autotransformer toroid core, an autotransformer magnetic winding on the core, and a center tap for coupling direct current power; the autotransformer magnetic winding comprising 8 to 14 turns of a pair of wires in the range of 35 to 37 gauge twisted together; the common mode choke including a magnetic choke core comprising a choke toroid core and a magnetic choke winding, the magnetic winding comprising 6 to 12 turns of a non-twisted pair of wires, portions of said pair of non-twisted wires extending to data and power pins of the interface in non-twisted form.