mhurhangee/patent-ind-claim-en huggingface dataset:
A system for depowdering additively manufactured parts, the system comprising: a deflection plate ; a hammer device mounted to a first side of the deflection plate ; and a mounting plate operatively connected to a second side of the deflection plate relative to the hammer device , the mounting plate being configured for rotation relative to the deflection plate ; and characterised by an ultrasonic transducer system mounted to the mounting plate for inducing ultrasonic vibrations into the mounting plate; a controller operatively connected to control movement of the mounting plate and actuation of the hammer device and ultrasonic transducer system , wherein the controller includes machine-readable instructions configured to cause the controller to rotate a build plate fixed to the mounting plate through yaw, pitch, and roll angles and to remove powder while doing so by controlling the hammer device and ultrasonic transducer system to vibrate the build plate. a deflection plate ; a hammer device mounted to a first side of the deflection plate ; and a mounting plate operatively connected to a second side of the deflection plate relative to the hammer device , the mounting plate being configured for rotation relative to the deflection plate ; and characterised by an ultrasonic transducer system mounted to the mounting plate for inducing ultrasonic vibrations into the mounting plate; a controller operatively connected to control movement of the mounting plate and actuation of the hammer device and ultrasonic transducer system , wherein the controller includes machine-readable instructions configured to cause the controller to rotate a build plate fixed to the mounting plate through yaw, pitch, and roll angles and to remove powder while doing so by controlling the hammer device and ultrasonic transducer system to vibrate the build plate.
An injection moulding machine having a cover plate , a hot runner plate having a plurality of openings for receiving nozzle housings and a plurality of module systems, characterised in that the module systems respectively comprise an adaptor plate , a plurality of piston housings in each of which is disposed a respective piston connected to a closure needle , a hot runner distributor plate in which a hot runner is arranged, and a plurality of nozzle housings which are so arranged that by a movement of one of the pistons the closure needle connected to said piston selectively opens or closes an opening in the nozzle housing , wherein the adaptor plate connects the cover plate to a plurality of piston housings of an injection moulding machine, wherein the adaptor plate has a first fluid passage for feeding a first control fluid into the piston housings and a second fluid passage for feeding a second control fluid into the piston housings , wherein the first fluid passage has at least one first fluid passage inlet for receiving the first control fluid and a plurality of first fluid passage outlets for discharge of the first control fluid to the piston housings and the second fluid passage has at least one second fluid passage inlet for receiving the second control fluid and a plurality of second fluid passage outlets for discharge of the second control fluid to the piston housings (6. 6').
A particle detection system for detecting particles in an environmental gas, comprising: a sensing chamber comprising an inlet flow nozzle fluidly coupled to the environmental gas, and an outlet flow nozzle , wherein the inlet flow nozzle and the outlet flow nozzle define an interrogation zone ; and a source of negative pressure fluidly coupled to the outlet flow nozzle and capable of drawing environmental gas through the interrogation zone at a defined sample flow rate; an extra flow port located in the sensing chamber remote from the interrogation zone , characterized in that a bypass flow path is coupled to the sensing chamber through the extra flow port in the interior wall of the sensing chamber , said bypass flow path connecting the inlet flow nozzle and the sensing chamber for introducing extra gas into the sensing chamber at a defined flow rate; and the bypass flow path comprises an adjustable orifice and a particle filter . a sensing chamber comprising an inlet flow nozzle fluidly coupled to the environmental gas, and an outlet flow nozzle , wherein the inlet flow nozzle and the outlet flow nozzle define an interrogation zone ; and a source of negative pressure fluidly coupled to the outlet flow nozzle and capable of drawing environmental gas through the interrogation zone at a defined sample flow rate; an extra flow port located in the sensing chamber remote from the interrogation zone , characterized in that a bypass flow path is coupled to the sensing chamber through the extra flow port in the interior wall of the sensing chamber , said bypass flow path connecting the inlet flow nozzle and the sensing chamber for introducing extra gas into the sensing chamber at a defined flow rate; and the bypass flow path comprises an adjustable orifice and a particle filter .
A breakover mechanism for a passenger seat, comprising: a frame member with a rear portion attachable to two opposing sides of a seat back of the passenger seat; at least one moving portion attached to a forward portion of the frame member ; and a carriage portion fixedly attachable to a seat pan of the passenger seat; wherein the frame member is configured such that when its rear portion is so attached, the frame member is at least partially disposed under the seat pan ; and wherein the breakover mechanism comprises a single point mechanism attached to the carriage portion whereby in use loads distributed through the frame member from both sides of the seat back are consolidated into the single point mechanism and, once a threshold loading condition occurs, the single point mechanism changes states to facilitate movement of the moving portion relative to the carriage portion . a frame member with a rear portion attachable to two opposing sides of a seat back of the passenger seat; at least one moving portion attached to a forward portion of the frame member ; and a carriage portion fixedly attachable to a seat pan of the passenger seat; wherein the frame member is configured such that when its rear portion is so attached, the frame member is at least partially disposed under the seat pan ; and wherein the breakover mechanism comprises a single point mechanism attached to the carriage portion whereby in use loads distributed through the frame member from both sides of the seat back are consolidated into the single point mechanism and, once a threshold loading condition occurs, the single point mechanism changes states to facilitate movement of the moving portion relative to the carriage portion .
Method for smoothing a garment using a smoothing cabinet comprising diffusion means for diffusing an air flow and a steam flow onto the garment, the smoothing method comprising diffusing a steam flow onto the garment and diffusing a cold air flow onto the garment, said cold air flow enabling the garment and/or the steam flow to be cooled, the cold air flow being diffused before or at the same time as the steam flow, characterised in that the cold air flow is diffused towards the garment in a direction forming an angle of between 20° and 70° relative to a normal to the surface of the garment to be treated.
A method for fabricating a ceramic core shell casting mold of a turbine blade or a stator vane, comprising: (a) contacting a cured portion of a workpiece with a liquid ceramic photopolymer; (b) irradiating a portion of the liquid ceramic photopolymer adjacent to the cured portion through a window contacting the liquid ceramic photopolymer; (c) removing the workpiece from the uncured liquid ceramic photopolymer; and (d) repeating steps (a) - (c) until a ceramic core shell casting mold is formed, the ceramic core shell casting mold comprising a main core portion, a tip plenum core floating above and disconnected from the main core portion, and a shell portion with at least one cavity between the main core portion and the shell portion , the cavity adapted to define the shape of a cast component upon casting and removal of the ceramic core shell casting mold, and at least one core print filament for holding the tip plenum core in place, the at least one core print filament connecting the tip plenum core and the shell portion . (a) contacting a cured portion of a workpiece with a liquid ceramic photopolymer; (b) irradiating a portion of the liquid ceramic photopolymer adjacent to the cured portion through a window contacting the liquid ceramic photopolymer; (c) removing the workpiece from the uncured liquid ceramic photopolymer; and (d) repeating steps (a) - (c) until a ceramic core shell casting mold is formed, the ceramic core shell casting mold comprising a main core portion, a tip plenum core floating above and disconnected from the main core portion, and a shell portion with at least one cavity between the main core portion and the shell portion , the cavity adapted to define the shape of a cast component upon casting and removal of the ceramic core shell casting mold, and
An adsorption structure unit comprising an adsorption structure, the adsorption structure comprising: a filter portion having a plurality of flow paths divided by a plurality of partition walls made of porous ceramic and a plugged portion shutting a feed water inflow end or a feed water outflow end of the plurality of flow paths ; a water-impermeable outer tube accommodating the filter portion , the outer tube having a length exceeding a total length of the filter portion and both end surfaces of the outer tube forming a flat surface; and a seal material blocking a gap between the filter portion and the outer tube in at least one end portion of the filter portion, the seal material being embedded up to an outside surface of the filter portion ; and a housing for storing the adsorption structure; characterized in that the housing is constituted by a first housing on a side where feed water is supplied and a second housing on a side where the feed water is discharged, and is adapted to supply feed water from one end of the adsorption structure, and to discharge the feed water from the other end; first ring members are disposed between end portions on both sides of the outer tube and an inner surface of the housing to provide a watertight structure; and the first housing and the second housing form a sealed structure via a second ring member different from the first ring members . a filter portion having a plurality of flow paths divided by a plurality of partition walls made of porous ceramic and a plugged portion shutting a feed water inflow end or a feed water outflow end of the plurality of flow paths ; a water-impermeable outer tube accommodating the filter portion , the outer tube having a length exceeding a total length of the filter portion and both end surfaces of the outer tube forming a flat surface; and a seal material blocking a gap between the filter portion and the outer tube in at least one end portion of the filter portion, the seal material being embedded up to an outside surface of the filter portion ; and a housing for storing the adsorption structure; characterized in that the housing is constituted by a first housing on a side where feed water is supplied and a second housing on a side where the feed water is discharged, and is adapted to supply feed water from one end of the adsorption structure, and to discharge the feed water from the other end; first ring members are disposed between end portions on both sides of the outer tube and an inner surface of the housing to provide a watertight structure; and the first housing and the second housing form a sealed structure via a second ring member different from the first ring members .
A remote control apparatus with protection system, characterized in that it comprises a electronic control unit that comprises a plurality of radio control receiver units and a plurality of control units , each control unit being constituted by a transponder receiver unit, said apparatus further comprising at least one radio control transmitter that comprises a plurality of transponders , each transponder emitting a correspondent verification signal at periodic and constant time intervals and a plurality of transmitter units , said plurality of radio control receiver units of the electronic control unit operating actuation means that control remote controlled devices , the actuation of said actuation means being subjected to the presence of said verification signal emitted from said transponders, said electronic control unit comprising a printed circuit board that is constituted by a microcontroller unit with at least two radio control receiver units that can be set up for mono band and/or dual band and/or multi band operation, in such a way that the communication between the radio control receiver units and the transmitter units occurs at different frequencies, whereby, with each radio control signal a transponder signal is associated.
Transport device for transporting containers such as bottles, the transport device comprising at least one movable and one stationary component , wherein the movable component can cause a movement of containers to be transported and a wear surface of the stationary component comprises elements of which the coefficient of friction with respect to glass and/or PET is lower than the coefficient of sliding friction of the wear surface and/or of the movable component with respect to glass and/or PET, wherein: the elements are incorporated into the wear surface, characterised in that the elements are mounted in the wear surface so as to be rotatable about at least one axis.
Device for surface treatment of objects, comprising a process basin and a pump , characterized in that a tubular structure is arranged in or at the process basin , which tubular structure is curved over at least part of its length, wherein the two openings which are delimited by the two ends of the tubular structure face in the same direction, and wherein the length of the tubular structure from its one opening at one end to its other opening at the other end is at most twice as long as the direct distance between the two openings which are delimited by the two ends of the tubular structure , and wherein the pump is arranged within the tubular structure , wherein the pump is a bidirectional pump, which is arranged to be able to change its direction of rotation, and wherein the pump which is arranged within the at least one tubular structure has a power of < 1 kW.
Control structure for a mobile working machine having power participants , of which at least one is a power source , one is a driving load and one is a hydraulic working load , having energy coordinators , which each have a signal connection to a controller assigned to the respective load , wherein a setpoint value is transferred from the energy coordinator to the controller by means of which a power (P limup , P limlow ) of the load is limited depending on the setpoint value, characterized in that the setpoint value for the driving load is a setpoint torque (T reqvarset ) and the setpoint value for the working load is a setpoint pressure medium volume flow (Q set ).
An oil and fat composition for non-tempering-type chocolate or tempering-type chocolate, which composition contains 5-50 ppm of malonylisoflavone glycosides, wherein the composition for non-tempering-type chocolate comprises one or more vegetable oils selected from the group consisting of rapeseed oil, corn oil, cottonseed oil, peanut oil, rice bran oil, safflower oil, olive oil, sesame oil, palm oil, coconut oil, and palm kernel oil, or one or more processed oils obtained by fractionation, hydrogenation, or transesterification of the one or more vegetable oils, and wherein the composition for tempering-type chocolate contains cacao butter, cacao butter equivalent or a combination thereof.
A parameter prediction device comprising: a target setter that sets a target evaluation value set which provides one or more values obtained by quantifying one or more performances of processing of an acoustic signal, or one or more evaluation values of a processed acoustic signal; characterized by an environmental characteristic acquirer that acquires an environmental characteristic quantity set which quantifies one or more characteristics of a sound collection environment for the acoustic signal; a first predictor that inputs the environmental characteristic quantity set and the target evaluation value set as independent variables to a first prediction model, and predicts a control parameter set for controlling the acoustic signal processing. a target setter that sets a target evaluation value set which provides one or more values obtained by quantifying one or more performances of processing of an acoustic signal, or one or more evaluation values of a processed acoustic signal; characterized by an environmental characteristic acquirer that acquires an environmental characteristic quantity set which quantifies one or more characteristics of a sound collection environment for the acoustic signal; a first predictor that inputs the environmental characteristic quantity set and the target evaluation value set as independent variables to a first prediction model, and predicts a control parameter set for controlling the acoustic signal processing.
Arrangement for monitoring the vibration of a rotating component comprising - a distance measurement apparatus that is designed to measure a distance (r) to the component and to generate a distance signal (a) therefrom, - an adaptation device connected to the distance measurement apparatus in order to compensate a switching level drift of the distance measurement apparatus , comprising - a frequency filter that is designed to generate an average value signal (b) from the distance signal (a), and - an amplifier , in particular differential amplifier, that is designed to generate an adaptive signal (c) from the average value signal (b) and the distance signal (a), - a regulation/control unit connected to the adaptation device , which is designed to execute a monitoring function. - a distance measurement apparatus that is designed to measure a distance (r) to the component and to generate a distance signal (a) therefrom, - an adaptation device connected to the distance measurement apparatus in order to compensate a switching level drift of the distance measurement apparatus , comprising - a frequency filter that is designed to generate an average value signal (b) from the distance signal (a), and - an amplifier , in particular differential amplifier, that is designed to generate an adaptive signal (c) from the average value signal (b) and the distance signal (a), - a frequency filter that is designed to generate an average value signal (b) from the distance signal (a), and - an amplifier , in particular differential amplifier, that is designed to generate an adaptive signal (c) from the average value signal (b) and the distance signal (a), - a regulation/control unit connected to the adaptation device , which is designed to execute a monitoring function.
Method for deoxygenation of a first liquid comprising contacting said first liquid with a membrane , wherein the method is carried out using an apparatus according to claim 8.
A channel state information measurement method, comprising: receiving (S401), by a terminal device, configuration information from a network device, wherein the configuration information comprises first indication information and second indication information, the first indication information indicates K channel measurement signal resources, K is greater than or equal to 2, the second indication information indicates the terminal device to measure aggregated channel state information, CSI based on N channel measurement signal resources, and N is less than or equal to K; and measuring (S402), by the terminal device, the N channel measurement signal resources based on the configuration information, and obtaining the aggregated CSI through calculation based on N measurement results, wherein the aggregated CSI is CSI of M antenna ports, and M is a sum of quantities of antenna ports of the N channel measurement signal resources; wherein the configuration information further comprises third indication information indicating the terminal device to measure the aggregated CSI in a plurality of time units, some resources in the plurality of time units are used by the terminal device to measure the aggregated CSI, and a remaining resource in the plurality of time units is used by another device to measure the CSI; wherein the resources used by the terminal device share an OFDM symbol with the remaining resource used by the another device. receiving (S401), by a terminal device, configuration information from a network device, wherein the configuration information comprises first indication information and second indication information, the first indication information indicates K channel measurement signal resources, K is greater than or equal to 2, the second indication information indicates the terminal device to measure aggregated channel state information, CSI based on N channel measurement signal resources, and N is less than or equal to K; and measuring (S402), by the terminal device, the N channel measurement signal resources based on the configuration information, and obtaining the aggregated CSI through calculation based on N measurement results, wherein the aggregated CSI is CSI of M antenna ports, and M is a sum of quantities of antenna ports of the N channel measurement signal resources; wherein the configuration information further comprises third indication information indicating the terminal device to measure the aggregated CSI in a plurality of time units, some resources in the plurality of time units are used by the terminal device to measure the aggregated CSI, and a remaining resource in the plurality of time units is used by another device to measure the CSI; wherein the resources used by the terminal device share an OFDM symbol with the remaining resource used by the another device.
A localised surface plasmon resonance (LSPR) nanopillar assembly for use in sensing the presence of a biomarker when attached to a quantum dot , comprising: a) a substrate ; b) an array comprising: i) a LSPR nanopillar ; and ii) a polymer spacer attached to the nanopillar ; and c) an antibody attached to the at least one polymer spacer ; characterized in that a combined height of the polymer spacer and antibody is selected by varying the number of monomer units of the polymer spacer , so that, when in use with the biomarker and the quantum dot , the quantum dot is at a predetermined distance from the nanopillar ; and in that the polymer spacer comprises two opposed terminal ends, one said terminal end being attached to the nanopillar and an other said terminal end being attached to the antibody . a) a substrate ; b) an array comprising: i) a LSPR nanopillar ; and ii) a polymer spacer attached to the nanopillar ; and i) a LSPR nanopillar ; and ii) a polymer spacer attached to the nanopillar ; and c) an antibody attached to the at least one polymer spacer ;