mhurhangee/patent-ind-claim-en huggingface dataset:
Floor structure with peripheral joint filter, comprising - a floor construction, - a peripheral strip , which is laid along a peripheral joint of the floor covering for mechanical decoupling of the floor structure from a wall , the peripheral strip being implemented as a filter, which prevents the passage of particulate and gaseous microbial and chemical pollutants from the floor structure into the room air, characterised in that the peripheral strip comprises a region produced from a conventional insulating foam or nonwoven fabric with the addition of an adsorbent, in particular activated charcoal, activated coke, pyrogenic silica, zeolite and/or a polymer adsorbent. - a floor construction, - a peripheral strip , which is laid along a peripheral joint of the floor covering for mechanical decoupling of the floor structure from a wall , the peripheral strip being implemented as a filter, which prevents the passage of particulate and gaseous microbial and chemical pollutants from the floor structure into the room air, characterised in that the peripheral strip comprises a region produced from a conventional insulating foam or nonwoven fabric with the addition of an adsorbent, in particular activated charcoal, activated coke, pyrogenic silica, zeolite and/or a polymer adsorbent.
An inhaler comprising an elongate housing containing a reservoir of inhalable composition; an outlet for the composition at one end of the housing; an outlet flow path from the reservoir to the outlet; a valve element being biased into a closed position in which it prevents flow from the reservoir; a suction port in the one end of the housing; a diaphragm mounted in the housing defining a suction chamber defined on one side of the diaphragm, the suction chamber being in communication with the suction port, such that suction on the suction port reduces the size of the suction chamber; and an elongate leaf spring mounted to extend longitudinally in the suction chamber, the leaf spring being mounted at one end to the housing at the end of the suction chamber opposite to the suction port, and being pivotally mounted about a pivot point to the housing at an intermediate portion of the leaf spring, the valve element being at the end of the leaf spring opposite to the one end; wherein suction on the suction port is arranged to deflect the diaphragm and hence the leaf spring between the one end and the pivot point causing the opposite end of the leaf spring to pivot about the pivot point thereby causing the valve element to open the flow path.
A wearable article , comprising: a structural material configured to enable the wearable article to the worn on a body; a volatile energy storage device ; a wireless transmission circuit , coupled to the volatile energy storage device , comprising an antenna having a minimum transmission energy; a kinetic energy generator , positioned with respect to the structural material in a configuration to be manipulated to induce a voltage output , the kinetic energy generator coupled to and configured to charge the volatile energy storage device ; a sensor configured to output activity data related to the wearable article; and an electronic data storage , coupled to the sensor , configured to store the activity data; and a controller configured to determine if the energy stored in the volatile energy storage device is equal to or exceeds an energy stored threshold corresponding to the minimum transmission energy; wherein, upon the controller determining that the energy stored in the volatile energy storage device equals or exceeds the energy stored threshold , the controller causes the wireless transmission circuit to draw energy from the volatile energy storage device to transmit the activity data as stored in the electronic data storage . a structural material configured to enable the wearable article to the worn on a body; a volatile energy storage device ; a wireless transmission circuit , coupled to the volatile energy storage device , comprising an antenna having a minimum transmission energy; a kinetic energy generator , positioned with respect to the structural material in a configuration to be manipulated to induce a voltage output , the kinetic energy generator coupled to and configured to charge the volatile energy storage device ; a sensor configured to output activity data related to the wearable article; and an electronic data storage , coupled to the sensor , configured to store the activity data; and a controller configured to determine if the energy stored in the volatile energy storage device is equal to or exceeds an energy stored threshold corresponding to the minimum transmission energy; wherein, upon the controller determining that the energy stored in the volatile energy storage device equals or exceeds the energy stored threshold , the controller causes the wireless transmission circuit to draw energy from the volatile energy storage device to transmit the activity data as stored in the electronic data storage .
A method of collecting and analyzing data from distributed resources in a distributed resource electrical demand system to predict upcoming energy events on an electrical grid, the method comprising: collecting data from a network of distributed resources that includes control systems and sensors, the collected data stored in one or more memory devices; performing, using one or more processors, analysis on the collected data stored in the one or more memory devices; modelling electrical grid conditions at a sub-load aggregation point of the electrical grid; determining values of stored energy, energy generation, and load curtailment in advance of market signals using the modelled electrical grid conditions; predicting a demand pricing distribution event and forecasting a change in price, supply, or both; and executing a modification in electrical consumption based on the predicted demand pricing distribution event; characterized in that the distributed resource electrical demand system takes measurements from the sensors in the nodes across a sub-load aggregation point and predicts a reduction of available sunlight, a scale of the reduction across an entire region, and a speed and direction at which the reduction is spreading using the sensor measurements; and the method further comprises monitoring line voltage to predict grid constraints, demand response events, increased real time price of energy, or combinations thereof, wherein historical data is used in conjunction with real time data to separate a line voltage drop at a single site from a line voltage drop that is impacting an entire Sub-Load Aggregation Point. collecting data from a network of distributed resources that includes control systems and sensors, the collected data stored in one or more memory devices; performing, using one or more processors, analysis on the collected data stored in the one or more memory devices; modelling electrical grid conditions at a sub-load aggregation point of the electrical grid; determining values of stored energy, energy generation, and load curtailment in advance of market signals using the modelled electrical grid conditions; predicting a demand pricing distribution event and forecasting a change in price, supply, or both; and executing a modification in electrical consumption based on the predicted demand pricing distribution event; characterized in that the distributed resource electrical demand system takes measurements from the sensors in the nodes across a sub-load aggregation point and predicts a reduction of available sunlight, a scale of the reduction across an entire region, and a speed and direction at which the reduction is spreading using the sensor measurements; and the method further comprises monitoring line voltage to predict grid constraints, demand response events, increased real time price of energy, or combinations thereof, wherein historical data is used in conjunction with real time data to separate a line voltage drop at a single site from a line voltage drop that is impacting an entire Sub-Load Aggregation Point.
A medical device comprising: a hub including: a hub housing including a passage from a proximal end of the hub housing to a distal end of the hub housing; a valve disposed within the hub, the valve configured to allow passage of an insertable device through the valve while inhibiting leakage of fluid from the valve; a cap engaged to the hub housing, the cap including an opening therethrough sized and shaped to allow passage of the insertable device through the opening, the opening allowing access to the passage of the hub housing; and an angled sidewall disposed within the hub, the angled sidewall being configured to radially compress an outside edge of the valve to retain and deform the valve into a curved shape; and a sheath extending distally from the distal end of the hub housing, the sheath including a lumen through the sheath, the lumen being fluidly coupled to the passage of the hub housing; characterized in that : a center of the valve extends more distally or more proximally than the outside edge of the valve. a hub including: a hub housing including a passage from a proximal end of the hub housing to a distal end of the hub housing; a valve disposed within the hub, the valve configured to allow passage of an insertable device through the valve while inhibiting leakage of fluid from the valve; a cap engaged to the hub housing, the cap including an opening therethrough sized and shaped to allow passage of the insertable device through the opening, the opening allowing access to the passage of the hub housing; and an angled sidewall disposed within the hub, the angled sidewall being configured to radially compress an outside edge of the valve to retain and deform the valve into a curved shape; and a hub housing including a passage from a proximal end of the hub housing to a distal end of the hub housing; a valve disposed within the hub, the valve configured to allow passage of an insertable device through the valve while inhibiting leakage of fluid from the valve; a cap engaged to the hub housing, the cap including an opening therethrough sized and shaped to allow passage of the insertable device through the opening, the opening allowing access to the passage of the hub housing; and an angled sidewall disposed within the hub, the angled sidewall being configured to radially compress an outside edge of the valve to retain and deform the valve into a curved shape; and a sheath extending distally from the distal end of the hub housing, the sheath including a lumen through the sheath, the lumen being fluidly coupled to the passage of the hub housing; characterized in that : a center of the valve extends more distally or more proximally than the outside edge of the valve.
A process for producing nanoparticles of a substance, comprising: in a first chamber, dispersing a substance in a fluid and bringing the fluid into a supercritical state at a selected pressure and temperature to form a dispersion of the substance and the fluid in the supercritical state; passing the dispersion from the first chamber through a cooling device or into a cooling zone in a second chamber, wherein the cooling device or cooling zone configured to reduce temperature of the dispersion below a temperature at which the fluid forms solid particles such that nanoparticles of the substance are formed, wherein the second chamber comprises a surface configured to receive the solid particles of the fluid and the nanoparticles of the substance; allowing at least one of pressure to decrease and temperature to increase in the second chamber such that the solid particles of the fluid are transformed into a gaseous state, removing the fluid in the gaseous state and allowing the nanoparticles to remain on the surface; wherein the surface configured to receive solid particles of the fluid and nanoparticles of the substance is further configured to transport the nanoparticles to a nanoparticle collection zone as the fluid in the gaseous state is removed, and collecting the nanoparticles of the substance from the surface. in a first chamber, dispersing a substance in a fluid and bringing the fluid into a supercritical state at a selected pressure and temperature to form a dispersion of the substance and the fluid in the supercritical state; passing the dispersion from the first chamber through a cooling device or into a cooling zone in a second chamber, wherein the cooling device or cooling zone configured to reduce temperature of the dispersion below a temperature at which the fluid forms solid particles such that nanoparticles of the substance are formed, wherein the second chamber comprises a surface configured to receive the solid particles of the fluid and the nanoparticles of the substance; allowing at least one of pressure to decrease and temperature to increase in the second chamber such that the solid particles of the fluid are transformed into a gaseous state, removing the fluid in the gaseous state and allowing the nanoparticles to remain on the surface; wherein the surface configured to receive solid particles of the fluid and nanoparticles of the substance is further configured to transport the nanoparticles to a nanoparticle collection zone as the fluid in the gaseous state is removed, and collecting the nanoparticles of the substance from the surface.
Servo hydraulic press for sheet metal forming comprising a hydraulic cylinder, a first servo motor and a second servo motor , and a first pump driven by the first servo motor and a second pump driven by the second servo motor , for supplying pressurized fluid to the hydraulic cylinder, wherein the servo motors are operable at variable speed, characterized in that the first pump and the second pump together providing a total pressure of pressurized fluid to the hydraulic cylinder, wherein the first servo motor and the first pump are configured to operate in an opposite direction to the second servo motor and the second pump, providing a reduced total pressure, and wherein the first pump and the second pump are arranged in parallel. a hydraulic cylinder, a first servo motor and a second servo motor , and a first pump driven by the first servo motor and a second pump driven by the second servo motor , for supplying pressurized fluid to the hydraulic cylinder, wherein the servo motors are operable at variable speed, characterized in that the first pump and the second pump together providing a total pressure of pressurized fluid to the hydraulic cylinder, wherein the first servo motor and the first pump are configured to operate in an opposite direction to the second servo motor and the second pump, providing a reduced total pressure, and wherein the first pump and the second pump are arranged in parallel.
A mixing impeller comprising: - a first subassembly in which at least one magnet is accommodated, wherein the magnet is adapted to be magnetically coupled to a drive device to be driven; and - a second subassembly comprising at least one impeller blade for mixing components when rotating the mixing impeller ; wherein the first and second subassemblies are formed as separate entities which are selectively engageable, wherein the first and second subassemblies are engageable by means of a snap-fit mechanism; wherein the first subassembly comprises at least one recess, which extends substantially along a rotation axis (RA) of the mixing impeller , wherein the recess has at least one protrusion ; characterized in that the second subassembly comprises at least one engagement member extending from a lower surface of the second subassembly , which faces the first subassembly in a mounted state, the engagement member has an enlarged end portion at its free end which is engageable with the protrusion in the recess in the first subassembly when inserting the engagement member of the second subassembly into the recess of the first subassembly , and all elements of the second subassembly are unitarily formed. - a first subassembly in which at least one magnet is accommodated, wherein the magnet is adapted to be magnetically coupled to a drive device to be driven; and - a second subassembly comprising at least one impeller blade for mixing components when rotating the mixing impeller ; wherein the first and second subassemblies are formed as separate entities which are selectively engageable, wherein the first and second subassemblies are engageable by means of a snap-fit mechanism; wherein the first subassembly comprises at least one recess, which extends substantially along a rotation axis (RA) of the mixing impeller , wherein the recess has at least one protrusion ; characterized in that the second subassembly comprises at least one engagement member extending from a lower surface of the second subassembly , which faces the first subassembly in a mounted state, the engagement member has an enlarged end portion at its free end which is engageable with the protrusion in the recess in the first subassembly when inserting the engagement member of the second subassembly into the recess of the first subassembly , and all elements of the second subassembly are unitarily formed.
A power tong for making up and breaking out threaded connections between two adjacent segments of pipe, comprising: a body having a bay and a latch post secured to the body proximal to an opening to the bay; and a door pivotally coupled at a proximal end to the body and pivotally movable between a closed position, to close the opening of the bay of the body, and an open position, removed from the opening of the bay of the body, and the door further including a distal end with one or more static latch members , each having a well to engage the latch post of the body; characterised by : a latch cylinder with a proximal end pivotally coupled to the door and a rod hydraulically extendable from the distal end of the latch cylinder , the extendable rod having a distal end pivotally coupled to a pivotal latch member on the door adjacent to the one or more static latch members and having a well to engage the latch post of the body upon pivoting of the pivotal latch member from a retracted position to an engaged position by operation of the latch cylinder. a body having a bay and a latch post secured to the body proximal to an opening to the bay; and a door pivotally coupled at a proximal end to the body and pivotally movable between a closed position, to close the opening of the bay of the body, and an open position, removed from the opening of the bay of the body, and the door further including a distal end with one or more static latch members , each having a well to engage the latch post of the body; characterised by : a latch cylinder with a proximal end pivotally coupled to the door and a rod hydraulically extendable from the distal end of the latch cylinder , the extendable rod having a distal end pivotally coupled to a pivotal latch member on the door adjacent to the one or more static latch members and having a well to engage the latch post of the body upon pivoting of the pivotal latch member from a retracted position to an engaged position by operation of the latch cylinder.
Road paver with a paving screed , the paving screed comprising a tamper , and the road paver further comprising a GNSS receiver and a material conveyor , the road paver being characterized by an electronic control system comprising a memory and a data processor , wherein in the memory digital construction data , comprising a target height profile of a road surface to be produced, a target layer thickness (d S ) of the paving material , a respective on the target layer thickness (d S ) depending pre-compaction degree (k B ) and, if necessary, a height profile of a roadbase are stored, and the control system is configured to automatically control the compaction performance of the paving screed as a function of the target layer thickness (ds) in order to pave the paving material with the respective pre-compaction degree (k B ) for the respective local coordinate point of the road paver determined with the GNSS receiver .
Continuous process for purifying process exhaust air which contains organosilicon compounds and is obtained in the production process for preparing silicones, by separating organosilicon compounds selected from the group consisting of linear, cyclic and branched siloxanes having from 2 to 18 Si atoms, triorganosilanols and mixtures thereof from the process exhaust air stream containing nitrogen and oxygen by means of a membrane separation apparatus which contains a polyoctylmethylsiloxane composite membrane as semipermeable membrane based on silicones, where the membrane is selectively permeable to organosilicon compounds and oxygen relative to nitrogen and the feed gas stream which is to be separated and contains organosilicon compounds, nitrogen and oxygen is continuously introduced at the inlet of the membrane separation apparatus in which it is continuously separated by contacting with the membrane into a retentate gas substream which is depleted in organosilicon compounds and leaves the membrane separation apparatus and a permeate gas substream which is enriched in organosilicon compounds and leaves the membrane separation apparatus and the concentration of the organosilicon compounds in the feed gas is from 0.3 g/m 3 to 1000 g/m 3 in total and the burden of organosilicon compounds present in the feed gas is from 10 g/h to 10 000 g/h in total.
A method of compensating for signal error, comprising: receiving a first signal (1;101) from a first sensor, said first signal (1;101) indicative of a movement characteristic; applying an error compensation to said first signal (1 ;101) to produce an output signal (10; 110); applying a variable gain factor to said error compensation; receiving a second signal (15;115) from a second sensor indicative of said movement characteristic; wherein said error compensation is calculated using the difference between said output signal (10;110) and said second signal (15;115), and said variable gain factor is calculated using said first signal (1;101), characterised in that said first sensor exhibits a lower high frequency noise than said second sensor. receiving a first signal (1;101) from a first sensor, said first signal (1;101) indicative of a movement characteristic; applying an error compensation to said first signal (1 ;101) to produce an output signal (10; 110); applying a variable gain factor to said error compensation; receiving a second signal (15;115) from a second sensor indicative of said movement characteristic; wherein said error compensation is calculated using the difference between said output signal (10;110) and said second signal (15;115), and said variable gain factor is calculated using said first signal (1;101), characterised in that said first sensor exhibits a lower high frequency noise than said second sensor.
A first wireless transmit/receive unit, WTRU, comprising: a processor configured to: determine a first priority associated with the first WTRU based on one or more of downlink control information, DCI, or a logical channel prioritization; receive, from a second WTRU, an interference measurement reference signal, IMRS, transmission; measure the received IMRS transmission; determine a second priority associated with a downlink payload of the second WTRU; determine that the second priority is greater than the first priority; and adjust an uplink transmission power of the first WTRU based on the first priority and the second priority. determine a first priority associated with the first WTRU based on one or more of downlink control information, DCI, or a logical channel prioritization; receive, from a second WTRU, an interference measurement reference signal, IMRS, transmission; measure the received IMRS transmission; determine a second priority associated with a downlink payload of the second WTRU; determine that the second priority is greater than the first priority; and adjust an uplink transmission power of the first WTRU based on the first priority and the second priority.