mhurhangee/patent-ind-claim-en huggingface dataset:
Aerosol generator having: a liquid reservoir defining in a sealed state a volume V R holding an initial volume of liquid V L ; a membrane having openings, the liquid reservoir being connected to the membrane so as to feed liquid to one side of the membrane, the membrane being oscillatable to transport the liquid through the openings whereby the liquid is emitted in the form of an aerosol on the other side of the membrane, and a negative pressure generating device cooperating with the liquid reservoir so as to increase an initial volume V RI of the liquid reservoir before the membrane is oscillated to the volume V R of the liquid reservoir in the sealed state, whereby an initial negative pressure is generated in the liquid reservoir, wherein the volume V R of the liquid reservoir before the membrane is oscillated contains more than 5 ml of gas at an initial volume of the liquid V L of at least 5 ml and wherein the ratio of the volume of the liquid reservoir V R to the initial volume V L of liquid in the liquid reservoir is more than 2. a liquid reservoir defining in a sealed state a volume V R holding an initial volume of liquid V L ; a membrane having openings, the liquid reservoir being connected to the membrane so as to feed liquid to one side of the membrane, the membrane being oscillatable to transport the liquid through the openings whereby the liquid is emitted in the form of an aerosol on the other side of the membrane, and a negative pressure generating device cooperating with the liquid reservoir so as to increase an initial volume V RI of the liquid reservoir before the membrane is oscillated to the volume V R of the liquid reservoir in the sealed state, whereby an initial negative pressure is generated in the liquid reservoir, wherein the volume V R of the liquid reservoir before the membrane is oscillated contains more than 5 ml of gas at an initial volume of the liquid V L of at least 5 ml and wherein the ratio of the volume of the liquid reservoir V R to the initial volume V L of liquid in the liquid reservoir is more than 2.
A machine for insert-molding a gasket on a tank (HT) of plastic material, in particular on a header tank for a car engine cooling radiator, said tank having a peripheral edge (PE) provided with a flange (F), wherein the machine comprises a molding part movable along a first axis (z), said molding part having frontally a coupling surface adapted to receive the peripheral edge (PE) of the tank (HT), and on which there is formed a cavity configured to be supplied with a second plastic material in fluid state and form with said second plastic material a gasket on the peripheral edge (PE) of the tank (HT), and at least one pair of opposed carriages slidable along a second axis (y) orthogonal to the first axis (z), said carriages being movable between an open position, in which the carriages allow the tank (HT) to be positioned on or removed from the molding part , and a holding position, in which the carriages cooperate to define an aperture having a cross section smaller than the cross section of the flange (F) of the tank (HT), characterized in that the molding part is controllable to take the flange (F) of the tank (HT) against an edge of the carriages in holding position and apply against the carriages a closure force directed along said first axis so that the flange (F) of the tank (HT) is clamped between the edge of the carriages and the coupling surface of the molding part . a molding part movable along a first axis (z), said molding part having frontally a coupling surface adapted to receive the peripheral edge (PE) of the tank (HT), and on which there is formed a cavity configured to be supplied with a second plastic material in fluid state and form with said second plastic material a gasket on the peripheral edge (PE) of the tank (HT), and at least one pair of opposed carriages slidable along a second axis (y) orthogonal to the first axis (z), said carriages being movable between an open position, in which the carriages allow the tank (HT) to be positioned on or removed from the molding part , and a holding position, in which the carriages cooperate to define an aperture having a cross section smaller than the cross section of the flange (F) of the tank (HT), characterized in that the molding part is controllable to take the flange (F) of the tank (HT) against an edge of the carriages in holding position and apply against the carriages a closure force directed along said first axis so that the flange (F) of the tank (HT) is clamped between the edge of the carriages and the coupling surface of the molding part .
Concrete transport vehicle , wherein the concrete transport vehicle comprises: - a vehicle chassis , a concrete drum unit and a drum lift apparatus , - wherein the vehicle chassis carries the concrete drum unit and the drum lift apparatus , - wherein the concrete drum unit comprises a concrete drum , wherein the concrete drum is adapted to discharge concrete, and - wherein the drum lift apparatus is adapted to lift the concrete drum unit with reference to the vehicle chassis from a transport position (TP) to a discharge position (DP), wherein a vehicle height (VH) of the concrete transport vehicle is lowered in the transport position (TP) compared to the discharge position (DP) and wherein a drumrear (DR) and a drumfront (DF) of the concrete drum unit each is lifted in the discharge position (DP) compared to the transport position (TP), and - characterized in that the drum lift apparatus comprises a rearlift apparatus and a frontlift apparatus , - wherein the rearlift apparatus and the frontlift apparatus each is adapted to lift at least a part of the concrete drum unit with reference to the vehicle chassis , and - wherein the rearlift apparatus is positioned rearward compared to the frontlift apparatus . - a vehicle chassis , a concrete drum unit and a drum lift apparatus , - wherein the vehicle chassis carries the concrete drum unit and the drum lift apparatus , - wherein the concrete drum unit comprises a concrete drum , wherein the concrete drum is adapted to discharge concrete, and - wherein the drum lift apparatus is adapted to lift the concrete drum unit with reference to the vehicle chassis from a transport position (TP) to a discharge position (DP), wherein a vehicle height (VH) of the concrete transport vehicle is lowered in the transport position (TP) compared to the discharge position (DP) and wherein a drumrear (DR) and a drumfront (DF) of the concrete drum unit each is lifted in the discharge position (DP) compared to the transport position (TP), and - characterized in that the drum lift apparatus comprises a rearlift apparatus and a frontlift apparatus , - wherein the rearlift apparatus and the frontlift apparatus each is adapted to lift at least a part of the concrete drum unit with reference to the vehicle chassis , and - wherein the rearlift apparatus is positioned rearward compared to the frontlift apparatus .
A method comprising: reducing a quantity of messages sent during map-reduce rounds used to determine a cluster assignment for a node in a large distributed graph being distributed across leaf servers by: at least one root computing device performing a predetermined quantity of rounds of a map stage and a reduce stage for the nodes of the graph, the map stage causing messages to be sent between the leaf servers, and wherein performing the predetermined number of rounds generates, for each node, a set of potential cluster assignments , the at least one root computing device generating a data structure in memory on the at least one root computing device to store a mapping between each node and its potential cluster assignment , and the at least one root computing device using the data structure during remaining map-reduce rounds, wherein the remaining map-reduce rounds are performed on the data structure without sending messages between the leaf servers ; and the at least one root computing device storing the cluster assignment for each node in the memory. reducing a quantity of messages sent during map-reduce rounds used to determine a cluster assignment for a node in a large distributed graph being distributed across leaf servers by: at least one root computing device performing a predetermined quantity of rounds of a map stage and a reduce stage for the nodes of the graph, the map stage causing messages to be sent between the leaf servers, and wherein performing the predetermined number of rounds generates, for each node, a set of potential cluster assignments , the at least one root computing device generating a data structure in memory on the at least one root computing device to store a mapping between each node and its potential cluster assignment , and the at least one root computing device using the data structure during remaining map-reduce rounds, wherein the remaining map-reduce rounds are performed on the data structure without sending messages between the leaf servers ; and at least one root computing device performing a predetermined quantity of rounds of a map stage and a reduce stage for the nodes of the graph, the map stage causing messages to be sent between the leaf servers, and wherein performing the predetermined number of rounds generates, for each node, a set of potential cluster assignments , the at least one root computing device generating a data structure in memory on the at least one root computing device to store a mapping between each node and its potential cluster assignment , and the at least one root computing device using the data structure during remaining map-reduce rounds, wherein the remaining map-reduce rounds are performed on the data structure without sending messages between the leaf servers ; and the at least one root computing device storing the cluster assignment for each node in the memory.
Saddle tree system for a riding saddle or pack saddle, wherein the individual skirt areas to the left and right of the spine each consist of several, preferably three to ten, flat, thin, shell-like and inherently rigid skirt segments which are separate from one another, which are arranged on each side one behind the other in the longitudinal direction and have in the longitudinal direction a slight distance between them at least so large that in a maximal shortening of the back carrying area the edges of the skirt segments do not touch and are each adapted to the shape of the back carrying area covered by them, and that in each case adjacent, that is located to the left and right of the spine, skirt segments are connected with an inherently rigid bridge, wherein said skirt segment bridge , which also forms the space for the spine, rests with its ends in an articulated manner approximately in the middle of the area of the skirt segments or is firmly connected to the skirt segments , and together with them forms a so-called saddle tree segment .
An insert sleeve designed for being inserted into a through hole of an implant , comprising a body with a through hole defining an axial direction for receiving a bone anchoring element , in particular a bone screw, said body being made of a material having a first modulus of elasticity and including multiple recesses arranged in circumferential direction around said through hole of said insert sleeve , characterized in that the transverse stiffness of the insert sleeve is time-dependent.
A method for monitoring the content of iron containing materials in a particulate ash stream of a fluidized bed boiler, characterized by the steps of: a. measuring magnetic susceptibility of a particulate ash stream from an ash outlet of the boiler; b. magnetic separation of this ash stream into a magnetizable and non-magnetizable fraction; c. measuring magnetic susceptibility of the magnetizable fraction ; d. calculating the weight specific magnetic susceptibility of the particulate ash stream and the magnetizable fraction ; e. calculating the normalized magnetic susceptibility by dividing the weight specific magnetic susceptibility of the particulate ash stream through the weight specific magnetic susceptibility of the magnetizable fraction ; f. using this normalized magnetic susceptibility as an indicator of the content of iron containing materials in the ash stream. a. measuring magnetic susceptibility of a particulate ash stream from an ash outlet of the boiler; b. magnetic separation of this ash stream into a magnetizable and non-magnetizable fraction; c. measuring magnetic susceptibility of the magnetizable fraction ; d. calculating the weight specific magnetic susceptibility of the particulate ash stream and the magnetizable fraction ; e. calculating the normalized magnetic susceptibility by dividing the weight specific magnetic susceptibility of the particulate ash stream through the weight specific magnetic susceptibility of the magnetizable fraction ; f. using this normalized magnetic susceptibility as an indicator of the content of iron containing materials in the ash stream.
An induction cooking device comprising at least one inductor positioned under a thermally strengthened glass plate, characterized in that the composition of the glass being of lithium aluminosilicate type, wherein the c/a ratio of the glass before strengthening is at most 0.5 after Vickers indentation under a load of 1 kg, c being the length of the radial cracks and a being the half-diagonal of the Vickers impression, and the σ/e.E.α ratio of the thermally tempered glass is at least 20 K.mm -1 , σ being the maximum stress generated at the core of the glass by the thermal strengthening, e being the thickness of the glass in mm, E being the Young's modulus and α being the linear thermal expansion coefficient of the glass.
A device for monitoring flaring activities on a drill ship , the device comprising: a resistive temperature detector located on the drill ship and configured to determine a temperature within a sensing area of the resistive temperature detector, the resistive temperature detector installed within a distance of a flaring boom where a flaring heat of a flaring activity is detected, and configured to determine a temperature within a sensing area of the resistive temperature detector; and a communication device operably connected to the resistive temperature detector, wherein the communication device is configured to receive the temperature data from the resistive temperature detector and to send the temperature data to a flare monitoring system that is operable to record a start time, a duration, and an end time of the flaring activity. a resistive temperature detector located on the drill ship and configured to determine a temperature within a sensing area of the resistive temperature detector, the resistive temperature detector installed within a distance of a flaring boom where a flaring heat of a flaring activity is detected, and configured to determine a temperature within a sensing area of the resistive temperature detector; and a communication device operably connected to the resistive temperature detector, wherein the communication device is configured to receive the temperature data from the resistive temperature detector and to send the temperature data to a flare monitoring system that is operable to record a start time, a duration, and an end time of the flaring activity.
A robotic assembly for servicing a gas turbine engine comprising: a robotic arm; a lubrication dispenser configured to dispense a medium comprising a lubricant to one or more fasteners of the engine; and a tool; characterised in that the robotic assembly is configured to: detect that the engine has cooled from an initial temperature from a use of the engine to an appropriate engine temperature for applying the medium prior to initially dispensing, at least partially autonomously, the lubricant, and wait a duration of time for the lubricant to penetrate while the engine is at elevated temperatures above a human safety threshold temperature in excess of 200°F (93.3°C) ; and operate on the one or more fasteners before the engine cools to the human safety threshold temperature. a robotic arm; a lubrication dispenser configured to dispense a medium comprising a lubricant to one or more fasteners of the engine; and a tool; characterised in that the robotic assembly is configured to: detect that the engine has cooled from an initial temperature from a use of the engine to an appropriate engine temperature for applying the medium prior to initially dispensing, at least partially autonomously, the lubricant, and wait a duration of time for the lubricant to penetrate while the engine is at elevated temperatures above a human safety threshold temperature in excess of 200°F (93.3°C) ; and operate on the one or more fasteners before the engine cools to the human safety threshold temperature. detect that the engine has cooled from an initial temperature from a use of the engine to an appropriate engine temperature for applying the medium prior to initially dispensing, at least partially autonomously, the lubricant, and wait a duration of time for the lubricant to penetrate while the engine is at elevated temperatures above a human safety threshold temperature in excess of 200°F (93.3°C) ; and operate on the one or more fasteners before the engine cools to the human safety threshold temperature.
A method comprising: obtaining seismic information of a region resulting from a source waveform applied to the region ; obtaining an estimate of one or more visco-elastic properties of a near-surface layer of the region ; determining, using a computing device, an estimate of propagation of guided waves in the region based on the estimate of one or more visco-elastic properties of the near-surface layer of the region ; determining an estimate of the source waveform based on the estimate of propagation of the guided waves, wherein the estimate of the source waveform represents the source waveform after being applied to the region by a seismic source, as modified by the region ; determining, using the computing device, a model of the guided waves in the near-surface layer of the region using the estimate of propagation of the guided waves and an estimate of the source waveform ; and determining, using the computing device, a filtered output of the seismic information by removing the model of the guided waves from the seismic information . obtaining seismic information of a region resulting from a source waveform applied to the region ; obtaining an estimate of one or more visco-elastic properties of a near-surface layer of the region ; determining, using a computing device, an estimate of propagation of guided waves in the region based on the estimate of one or more visco-elastic properties of the near-surface layer of the region ; determining an estimate of the source waveform based on the estimate of propagation of the guided waves, wherein the estimate of the source waveform represents the source waveform after being applied to the region by a seismic source, as modified by the region ; determining, using the computing device, a model of the guided waves in the near-surface layer of the region using the estimate of propagation of the guided waves and an estimate of the source waveform ; and determining, using the computing device, a filtered output of the seismic information by removing the model of the guided waves from the seismic information .
A method for operating a wireless receiver comprising: • receiving wireless signals from a transmitter at a first antenna and a second antenna, the wireless signals comprising a signal carrier and one or more data symbols modulated onto the signal carrier, wherein each of the one or more data symbols is modulated onto the signal carrier during a different symbol period; • decoding the one or more data symbols in a first portion of the wireless signals to determine a symbol phase contribution, wherein the symbol phase contribution is a change in the phase of the signal carrier due to modulation of the one or more data symbols; • estimating a phase of the wireless signals received at the first antenna within a second portion of the wireless signals at one or more symbol periods to provide a first set of phase measurements; • estimating a phase of the wireless signals received at the second antenna within the second portion of the wireless signals at one or more symbol periods to provide a second set of phase measurements; • subtracting the symbol phase contribution from the first set of phase measurements to provide a first corrected set of phase measurements; • subtracting the symbol phase contribution from the second set of phase measurements to provide a second corrected set of phase measurements; and • analyzing the first corrected set of phase measurements and the second corrected set of phase measurements to estimate an angle of arrival of the wireless signals. • receiving wireless signals from a transmitter at a first antenna and a second antenna, the wireless signals comprising a signal carrier and one or more data symbols modulated onto the signal carrier, wherein each of the one or more data symbols is modulated onto the signal carrier during a different symbol period; • decoding the one or more data symbols in a first portion of the wireless signals to determine a symbol phase contribution, wherein the symbol phase contribution is a change in the phase of the signal carrier due to modulation of the one or more data symbols; • estimating a phase of the wireless signals received at the first antenna within a second portion of the wireless signals at one or more symbol periods to provide a first set of phase measurements; • estimating a phase of the wireless signals received at the second antenna within the second portion of the wireless signals at one or more symbol periods to provide a second set of phase measurements; • subtracting the symbol phase contribution from the first set of phase measurements to provide a first corrected set of phase measurements; • subtracting the symbol phase contribution from the second set of phase measurements to provide a second corrected set of phase measurements; and • analyzing the first corrected set of phase measurements and the second corrected set of phase measurements to estimate an angle of arrival of the wireless signals.
Printing system for printing print material with - a number of digital printing stations , - at least one pre- and/or post-treatment station and - a number of print product carriers for taking up a print product and for transporting the print product to the stations , characterized in that - the print product carriers each have their own drive, a steerable chassis and a control unit for independent movement of the print product carriers on a factory floor as a transport surface and - in that the stations are arranged on the transport surface , on which the print product carriers are freely movable. - a number of digital printing stations , - at least one pre- and/or post-treatment station and - a number of print product carriers for taking up a print product and for transporting the print product to the stations , characterized in that - the print product carriers each have their own drive, a steerable chassis and a control unit for independent movement of the print product carriers on a factory floor as a transport surface and - in that the stations are arranged on the transport surface , on which the print product carriers are freely movable.
An electrochemical sensor, comprising: a reference electrode and a counter electrode; a sensing well disposed between said reference electrode and said counter electrode; and a functionalized working electrode disposed within said sensing well; characterised in that one or more of a molecular recognition unit to a stress marker is encapsulated in mesoporous carbon inks of the sensor and coupled to said functionalized working electrode. a reference electrode and a counter electrode; a sensing well disposed between said reference electrode and said counter electrode; and a functionalized working electrode disposed within said sensing well; characterised in that one or more of a molecular recognition unit to a stress marker is encapsulated in mesoporous carbon inks of the sensor and coupled to said functionalized working electrode.