mhurhangee/patent-ind-claim-en huggingface dataset:
Processs for gasification and conversion into electricity of moist biomass with supercritical water, where an educt of the gasification plant is given which is composed of dry matter and water and, in order to achieve a constant biomass concentration, the biomass to be gasified, depending on the water content, is still diluted with water or enriched with biomass containing dry matter, and after preconditioning by comminution and mixing of the biomass suspension, a pumpable biomass slurry is obtained, uniform starting material, which is then brought to a pressure of about 27 bar and fed to a first heat exchanger, which heats the suspension to 225 °C and subsequently the biomass suspension is fed at this temperature into the liquefaction reactor, where it is kept at the inlet temperature for 30 min, and then the suspension is brought to the gasification pressure of about 350 bar and subsequently the biomass mixture passes through a second heat exchanger, in which it is heated to a temperature of about 630 °C by heat transfer with the gasification product, and in the process the water changes to the supercritical state and a gasification reaction begins, whereby the solubility of the water for organic substances is increased by the change to the supercritical state, while the solubility for salts decreases, which accordingly precipitate to a large extent and are also transferred to the gasification reactor and, in order to reach the gasification temperature of 700 °C, an additional heat input is necessary which is provided by electric heating elements in the gasification reactor, and then, after passing through the gasification reactor, the biomass is converted to a large extent into gases, which contain in particular gases such as carbon dioxide, methane, hydrogen and ethane, and furthermore the gasification product consists mainly of unreacted supercritical water and precipitated salts and non-gasified organic particles, and subsequently the precipitated salts are separated as a salt solution by means of a sump discharge, and then the product is cooled by heat recovery in the two heat exchangers to 275 °C and 65 °C correspondingly at an unchanged high pressure level, whereby, from a temperature of 374 °C, water is present in the liquid aggregate state and can therefore be separated from the product gas after heat recovery in a water separator, the product gas present now consists mainly of carbon dioxide, methane, hydrogen and ethane, and the necessary CO 2 separation for gas treatment is then carried out by cooling, and a refrigeration machine cools the product gas to a temperature below 30 °C, since, at this temperature and the prevailing high pressure, both CO 2 and ethane are liquid and are separated in the CO 2 and ethane separator by phase separation, the remaining fuel gas, which consists of methane and hydrogen, can now be used in the electricity generation process independent of the gasification process.
A 360-degree video data processing method performed by a 360-degree video receiving device, the method comprising: receiving (S4400) 360-degree video data including encoded pictures; acquiring (S4410) metadata; decoding (S4420) pictures; and rendering (S4430) the decoded pictures and an overlay based on the metadata, wherein: the metadata includes overlay related metadata, and the overlay is rendered on a sphere surface based on the overlay related metadata, characterized in that the overlay related metadata includes distance information indicating a distance from a center of a unit sphere for representing the 360-degree video. receiving (S4400) 360-degree video data including encoded pictures; acquiring (S4410) metadata; decoding (S4420) pictures; and rendering (S4430) the decoded pictures and an overlay based on the metadata, wherein: the metadata includes overlay related metadata, and the overlay is rendered on a sphere surface based on the overlay related metadata, characterized in that the overlay related metadata includes distance information indicating a distance from a center of a unit sphere for representing the 360-degree video. the metadata includes overlay related metadata, and the overlay is rendered on a sphere surface based on the overlay related metadata, characterized in that the overlay related metadata includes distance information indicating a distance from a center of a unit sphere for representing the 360-degree video.
A system for controlling movement of an aircraft panel comprising: a hinge linkage configured to couple an aircraft beam to the aircraft panel, the hinge linkage comprising: an aircraft beam fitting configured to couple to a web of the aircraft beam and be disposed between an upper flange and a lower flange of the aircraft beam; an aircraft panel fitting configured to couple to the aircraft panel; and a plurality of links coupling the aircraft beam fitting to the aircraft panel fitting and configured to articulate to move the aircraft panel between at least a closed position and an open position, wherein, when in the closed position, the aircraft panel covers substantially all of a side of the lower flange and an edge of the aircraft panel is substantially collinear to an edge of the web. an aircraft beam fitting configured to couple to a web of the aircraft beam and be disposed between an upper flange and a lower flange of the aircraft beam; an aircraft panel fitting configured to couple to the aircraft panel; and a plurality of links coupling the aircraft beam fitting to the aircraft panel fitting and configured to articulate to move the aircraft panel between at least a closed position and an open position, wherein, when in the closed position, the aircraft panel covers substantially all of a side of the lower flange and an edge of the aircraft panel is substantially collinear to an edge of the web.
A sensor system for a loading dock , the sensor system comprising: at least one pedestrian sensor to monitor a first pedestrian zone or a second pedestrian zone in front of a dock face of a loading dock , the at least one pedestrian sensor to attempt to detect a pedestrian in at least one of the first pedestrian zone or the second pedestrian zone , the first pedestrian zone being different than the second pedestrian zone ; a first vehicle detector to attempt to detect a vehicle near the first pedestrian zone ; a second vehicle detector to attempt to detect the vehicle near the second pedestrian zone ; and a sensor manager characterized in that the sensor manager is configured to disable the first pedestrian zone when the first vehicle detector detects the vehicle approaching the first pedestrian zone and the at least one pedestrian sensor does not detect the pedestrian in the first pedestrian zone , and the sensor manager to disable the second pedestrian zone when the second vehicle detector detects the vehicle approaching the second pedestrian zone and at least one of the at least one pedestrian sensor does not detect the pedestrian in the second pedestrian zone . at least one pedestrian sensor to monitor a first pedestrian zone or a second pedestrian zone in front of a dock face of a loading dock , the at least one pedestrian sensor to attempt to detect a pedestrian in at least one of the first pedestrian zone or the second pedestrian zone , the first pedestrian zone being different than the second pedestrian zone ; a first vehicle detector to attempt to detect a vehicle near the first pedestrian zone ; a second vehicle detector to attempt to detect the vehicle near the second pedestrian zone ; and a sensor manager
A computer-implemented method of assessing the validity of a previously determined calibration transformation between a surface imaging system and a tracking system, the method comprising: detecting, with the tracking system, signals associated with fiducial markers located on a tracking marker support structure, wherein the tracking marker support structure is removably attached to a patient, and acquiring surface data using the surface imaging system, wherein the surface data is obtained from a spatial region that includes at least a portion of the tracking marker support structure; processing the signals to determine a position and orientation of the tracking marker support structure; determining, based on the position and orientation of the tracking marker support structure, and based on the previously determined calibration transformation between a reference frame of the surface imaging system and a reference frame of the tracking system, a spatial subregion, in the reference frame of the surface imaging system, that is associated with the tracking marker support structure; segmenting the surface data within the spatial subregion to obtain a segmented surface associated with the tracking marker support structure; registering the segmented surface to reference surface data characterizing a surface of the tracking marker support structure, thereby obtaining a spatially registered reference surface; and employing the position and orientation of the tracking marker support structure and the spatially registered reference surface to assess the validity of the previously determined calibration transformation. detecting, with the tracking system, signals associated with fiducial markers located on a tracking marker support structure, wherein the tracking marker support structure is removably attached to a patient, and acquiring surface data using the surface imaging system, wherein the surface data is obtained from a spatial region that includes at least a portion of the tracking marker support structure; processing the signals to determine a position and orientation of the tracking marker support structure; determining, based on the position and orientation of the tracking marker support structure, and based on the previously determined calibration transformation between a reference frame of the surface imaging system and a reference frame of the tracking system, a spatial subregion, in the reference frame of the surface imaging system, that is associated with the tracking marker support structure; segmenting the surface data within the spatial subregion to obtain a segmented surface associated with the tracking marker support structure; registering the segmented surface to reference surface data characterizing a surface of the tracking marker support structure, thereby obtaining a spatially registered reference surface; and employing the position and orientation of the tracking marker support structure and the spatially registered reference surface to assess the validity of the previously determined calibration transformation.
A drive system of a washing machine , wherein the washing machine at least comprises the drive system , an outer tub , a drum , and a pulsator , the drum being rotatably arranged within the outer tub , and the pulsator being rotatably arranged at a bottom of the drum , wherein the drive system comprises: a pulsator shaft having a first end connected to the pulsator ; a drum shaft sleeve fitted over an outer periphery of the pulsator shaft , the pulsator shaft being rotatable relative to the drum shaft sleeve , and a first end of the drum shaft sleeve being connected to the drum ; a bracket component , the drum shaft sleeve being arranged on the bracket component and rotatable relative to the bracket component , and the bracket component being connected to the outer tub ; a motor ; a belt transmission mechanism configured to transmit power of the motor to the drum shaft sleeve and drive the drum shaft sleeve to rotate; a gear transmission mechanism , a second end of the pulsator shaft being connected to the belt transmission mechanism through the gear transmission mechanism ; and a clutch mechanism configured to cooperate with one of the gear transmission mechanism and the bracket component , wherein in a configuration where the clutch mechanism cooperates with the gear transmission mechanism , the pulsator shaft and the drum shaft sleeve rotate synchronously; characterized in that in a configuration where the clutch mechanism cooperates with the bracket component , the pulsator shaft and the drum shaft sleeve rotate at different speeds. a pulsator shaft having a first end connected to the pulsator ; a drum shaft sleeve fitted over an outer periphery of the pulsator shaft , the pulsator shaft being rotatable relative to the drum shaft sleeve , and a first end of the drum shaft sleeve being connected to the drum ; a bracket component , the drum shaft sleeve being arranged on the bracket component and rotatable relative to the bracket component , and the bracket component being connected to the outer tub ; a motor ; a belt transmission mechanism configured to transmit power of the motor to the drum shaft sleeve and drive the drum shaft sleeve to rotate; a gear transmission mechanism , a second end of the pulsator shaft being connected to the belt transmission mechanism through the gear transmission mechanism ; and a clutch mechanism configured to cooperate with one of the gear transmission mechanism and the bracket component , wherein in a configuration where the clutch mechanism cooperates with the gear transmission mechanism , the pulsator shaft and the drum shaft sleeve rotate synchronously; characterized in that in a configuration where the clutch mechanism cooperates with the bracket component , the pulsator shaft and the drum shaft sleeve rotate at different speeds.
Network entity installed in a network in which at least one SON Function is deployed, characterized in that the network entity comprises: - an operator objective interface for receiving operator objectives; - a SON-Function model interface for receiving at least one SON Function model of a deployed SON Function; - wherein the network entity is adapted to link the operator objectives with the SON Function model by reading the at least one SON Function model as SON Function Configuration Parameter Value SCV sets, each set mapped to ones of the operator objectives the set fulfils and conditions under which the set is applicable, and given a prioritized set of the operator objectives and a set of the conditions, filtering out all SCV sets not applicable under the set of the conditions and selecting a fulfilling SCV set considering one of the operator objectives with a highest priority, and - wherein the network entity is adapted for influencing a network behavior through the SON Function based on the selected SCV set. - an operator objective interface for receiving operator objectives; - a SON-Function model interface for receiving at least one SON Function model of a deployed SON Function; - wherein the network entity is adapted to link the operator objectives with the SON Function model by reading the at least one SON Function model as SON Function Configuration Parameter Value SCV sets, each set mapped to ones of the operator objectives the set fulfils and conditions under which the set is applicable, and given a prioritized set of the operator objectives and a set of the conditions, filtering out all SCV sets not applicable under the set of the conditions and selecting a fulfilling SCV set considering one of the operator objectives with a highest priority, and reading the at least one SON Function model as SON Function Configuration Parameter Value SCV sets, each set mapped to ones of the operator objectives the set fulfils and conditions under which the set is applicable, and given a prioritized set of the operator objectives and a set of the conditions, filtering out all SCV sets not applicable under the set of the conditions and selecting a fulfilling SCV set considering one of the operator objectives with a highest priority, and - wherein the network entity is adapted for influencing a network behavior through the SON Function based on the selected SCV set.
A tethered anchor point (14A-D, 114) for a shoelace, the tethered anchor point comprising: a tensile strand (16A-D) having an end portion (26A, B) attachable to a footwear article, the tensile strand including a tethering portion that extends away from the end portion and that transitions to a looped portion ; and a tensile-strand reinforcement (18A-D, 418) coupled to the looped portion of the tensile strand, the tensile-strand reinforcement including a channel (32A-C) having a radial wall (34A-C) with an internal surface facing toward the channel and an external surface facing away from the channel, wherein the internal surface of the radial wall at least partially circumscribes a central axis (40A-C) of the channel that extends from one terminal end of the channel to an opposing terminal end of the channel; wherein the channel includes a bend between the one terminal end and the opposing terminal end, such that the central axis of the channel extends along a path that bends at least about 180 degrees; wherein the tensile strand is positioned in the channel and is at least partially circumscribed by the internal surface; wherein the bend of the channel radially extends at least partially around a lace passageway ; and characterized in that portions of the radial wall are omitted to form one or more slots . a tensile strand (16A-D) having an end portion (26A, B) attachable to a footwear article, the tensile strand including a tethering portion that extends away from the end portion and that transitions to a looped portion ; and a tensile-strand reinforcement (18A-D, 418) coupled to the looped portion of the tensile strand, the tensile-strand reinforcement including a channel (32A-C) having a radial wall (34A-C) with an internal surface facing toward the channel and an external surface facing away from the channel, wherein the internal surface of the radial wall at least partially circumscribes a central axis (40A-C) of the channel that extends from one terminal end of the channel to an opposing terminal end of the channel; wherein the channel includes a bend between the one terminal end and the opposing terminal end, such that the central axis of the channel extends along a path that bends at least about 180 degrees; wherein the tensile strand is positioned in the channel and is at least partially circumscribed by the internal surface; wherein the bend of the channel radially extends at least partially around a lace passageway ; and characterized in that portions of the radial wall are omitted to form one or more slots .
Surface cleaning head for cleaning a surface, with a hood-shaped housing that is open downward in a horizontal use position of the surface cleaning head and comprises a working space in which at least one spray arm with a cleaning nozzle is mounted so as to be rotatable about an axis of rotation , wherein the cleaning nozzle can be acted upon with pressurized cleaning liquid and together with the spray arm circulates about the axis of rotation for acting upon a region of a surface to be cleaned that is covered by the housing during the use of the surface cleaning head with a cleaning liquid jet, characterized in that the surface cleaning head comprises at least one first non-rotationally held additional nozzle , wherein a region of the surface to be cleaned that is not covered by the housing during the use of the surface cleaning head can be acted upon by the at least one first additional nozzle with a cleaning liquid jet, wherein the dirt released by the cleaning nozzle can be rinsed off the surface by means of the at least one first non-rotationally held additional nozzle .
Conching arrangement for a chocolate mass with a housing arrangement , in which at least one kneading or agitator mechanism for introducing shear forces into the chocolate mass is mounted in such a way that it can be driven by at least one drive machine , wherein the housing arrangement comprises a closable chocolate feed opening , at least one ingredient opening , at least one fresh air opening which is to be opened temporarily, and at least one process gas opening which is to be opened temporarily, wherein at least one measuring arrangement for determining the quality of the chocolate mass is provided, and wherein a control device is provided, which controls at least a feed of ingredients via the ingredient opening , wherein the measuring arrangement comprises at least one process gas sensor which is arranged within the housing arrangement , characterized in that the process gas sensor is provided in the at least one process gas opening , wherein the at least one process gas sensor is provided as a resistance sensor for determining the concentration as well as the composition of carbon gases.
Embossing roll with an interior hollow chamber to which a reduced pressure can be applied, and with, surrounding the hollow chamber , a wall with a structured surface , comprising elevations and depressions , and also pores communicating with the interior hollow chamber , where the wall comprises a plurality of discrete layers following one another from the hollow chamber in the direction of the surface , and the individual layers are configured on the basis of epoxy resin mixtures filled with fillers, and comprise capillaries communicating with one another and comprise cavities to form the pores, characterized in that it comprises, starting from an outermost layer in the vicinity of the surface, at least three further layers of which the innermost layer has higher mechanical strength than the other layers .
A downlink control channel detection method, applied to a terminal, comprising: obtaining first auxiliary information and second auxiliary information, wherein the first auxiliary information indicates a time-domain duration of a control resource set of a downlink control channel, which is allocated by a base station, the second auxiliary information indicates a resource mapping mode from a resource element group, REG, of the control resource set to a control channel elements, CCE; and, performing a blind detection on the downlink control channel, based on the first auxiliary information and the second auxiliary information. obtaining first auxiliary information and second auxiliary information, wherein the first auxiliary information indicates a time-domain duration of a control resource set of a downlink control channel, which is allocated by a base station, the second auxiliary information indicates a resource mapping mode from a resource element group, REG, of the control resource set to a control channel elements, CCE; and, performing a blind detection on the downlink control channel, based on the first auxiliary information and the second auxiliary information.