mhurhangee/ep-ind-claims huggingface dataset:
A method of separating and recovering an entire liquid hydrocarbon sample using an accelerated solvent extractor, the method comprising: inserting a filter into a bottom portion of an extraction cell of the accelerated solvent extractor; inserting at least an adsorbent into the extraction cell, wherein the adsorbent occupies more than 75% of the volume of the extraction cell; introducing the hydrocarbon sample on top of the adsorbent in the extraction cell; placing the extraction cell comprising the hydrocarbon sample into a cell tray of the accelerated solvent extractor; extracting a saturate fraction of the hydrocarbon sample using a first solvent, wherein the saturate fraction is collected in a first collection vial; extracting an aromatics fraction of the hydrocarbon sample using a second solvent, wherein the aromatics fraction is collected in a second collection vial; and extracting a resins fraction of the hydrocarbon sample using a third solvent, wherein the resins fraction is collected in a third collection vial, wherein the entire liquid hydrocarbon sample is extracted. inserting a filter into a bottom portion of an extraction cell of the accelerated solvent extractor; inserting at least an adsorbent into the extraction cell, wherein the adsorbent occupies more than 75% of the volume of the extraction cell; introducing the hydrocarbon sample on top of the adsorbent in the extraction cell; placing the extraction cell comprising the hydrocarbon sample into a cell tray of the accelerated solvent extractor; extracting a saturate fraction of the hydrocarbon sample using a first solvent, wherein the saturate fraction is collected in a first collection vial; extracting an aromatics fraction of the hydrocarbon sample using a second solvent, wherein the aromatics fraction is collected in a second collection vial; and extracting a resins fraction of the hydrocarbon sample using a third solvent, wherein the resins fraction is collected in a third collection vial, wherein the entire liquid hydrocarbon sample is extracted.
A drain treatment system (1, 51) which discharges drain from a facility apparatus (2, 52) into a drain treatment apparatus (3, 53) through a drain discharge pipe (4, 54), comprising: a balance pipe (9, 59) for connecting the drain treatment apparatus with the drain discharge pipe; and a communicating tube (20, 30, 40, 60) provided through the drain discharge pipe for connecting a part of the balance pipe on the side of the drain discharge pipe with the facility apparatus, the system being characterized in that there is provided, at an end of the communicating tube on the side of the facility apparatus, a member (21, 31, 41, 61) which allows a flow of gas from the communicating tube to the facility apparatus (2, 52) and prevents a flow of drain from the facility apparatus to the communicating tube. a balance pipe (9, 59) for connecting the drain treatment apparatus with the drain discharge pipe; and a communicating tube (20, 30, 40, 60) provided through the drain discharge pipe for connecting a part of the balance pipe on the side of the drain discharge pipe with the facility apparatus, the system being characterized in that there is provided, at an end of the communicating tube on the side of the facility apparatus, a member (21, 31, 41, 61) which allows a flow of gas from the communicating tube to the facility apparatus (2, 52) and prevents a flow of drain from the facility apparatus to the communicating tube.
A tilt assembly for a powered wheelchair, comprising: an elongated base member provided with an axial channel, a lifting member configured to be received by the base member and to move rectilinearly in the channel, between a retracted position and an extended position relative to the base member, a tilt frame pivotally connected to the lifting member, the tilt frame being configured for mounting a seat assembly thereto, and an actuator arm pivotally connected to the base member and to the tilt frame, the actuator arm being configured to be actuated between a retracted actuator position and a fully extended actuator position, wherein the tilt frame is configured to obtain a perpendicular orientation relative to a central axis of the lifting member when the lifting member is in the retracted position and the actuator arm is in the retracted actuator position and to be inclined relative to the central axis when the lifting member is in an extended position and the actuator arm is in the retracted position, to thereby provide a tilt functionality. an elongated base member provided with an axial channel, a lifting member configured to be received by the base member and to move rectilinearly in the channel, between a retracted position and an extended position relative to the base member, a tilt frame pivotally connected to the lifting member, the tilt frame being configured for mounting a seat assembly thereto, and an actuator arm pivotally connected to the base member and to the tilt frame, the actuator arm being configured to be actuated between a retracted actuator position and a fully extended actuator position, wherein the tilt frame is configured to obtain a perpendicular orientation relative to a central axis of the lifting member when the lifting member is in the retracted position and the actuator arm is in the retracted actuator position and to be inclined relative to the central axis when the lifting member is in an extended position and the actuator arm is in the retracted position, to thereby provide a tilt functionality.
A reissue instruction system for a microprocessor, wherein the microprocessor includes a reservation stations module that dispatches instructions for execution and a reorder buffer that reissues instructions to the reservation stations module during a reissue state, said reissue instruction system comprising: at least one first pipeline stage that provides a first reissue instruction from a reissue data path to the reservation stations module during the reissue state, and that stores said first reissue instruction when a first full signal is asserted, wherein said first full signal is asserted once the reservation stations module is determined to be full during the reissue state; and at least one second pipeline stage that provides a pointer selected by the reorder buffer to the reorder buffer, in which the reorder buffer provides said first reissue instruction corresponding to said selected pointer onto said reissue data path, wherein said at least one second pipeline stage is placed into a hold state when a second full signal is asserted. at least one first pipeline stage that provides a first reissue instruction from a reissue data path to the reservation stations module during the reissue state, and that stores said first reissue instruction when a first full signal is asserted, wherein said first full signal is asserted once the reservation stations module is determined to be full during the reissue state; and at least one second pipeline stage that provides a pointer selected by the reorder buffer to the reorder buffer, in which the reorder buffer provides said first reissue instruction corresponding to said selected pointer onto said reissue data path, wherein said at least one second pipeline stage is placed into a hold state when a second full signal is asserted.
Method for controlling a compressor, wherein a variable is determined using a simulation or a model, and the compressor can be switched off as a function of the determined variable, wherein the variable is a temperature, characterized in that the temperature is determined as a function of an efficiency level of the compressor.
An electromagnetic contactor comprising: an arc-extinguishing chamber in which a movable contact and a fixed contact are disposed; a case having an arc-extinguishing chamber housing portion in which the arc-extinguishing chamber is housed; and an arc-extinguishing cover mounted on the case and configured to cover the arc-extinguishing chamber housing portion, wherein at least one of the case and the arc-extinguishing cover has a first engaging portion and a second engaging portion, the other of the case and the arc-extinguishing cover has a third engaging portion (26,28) configured to engage with the first engaging portion and the second engaging portion, and the arc-extinguishing cover is held to the case in either a first state in which the first engaging portion and the third engaging portion are engaged with each other or a second state in which the second engaging portion is engaged with the third engaging portion. an arc-extinguishing chamber in which a movable contact and a fixed contact are disposed; a case having an arc-extinguishing chamber housing portion in which the arc-extinguishing chamber is housed; and an arc-extinguishing cover mounted on the case and configured to cover the arc-extinguishing chamber housing portion, wherein at least one of the case and the arc-extinguishing cover has a first engaging portion and a second engaging portion, the other of the case and the arc-extinguishing cover has a third engaging portion (26,28) configured to engage with the first engaging portion and the second engaging portion, and the arc-extinguishing cover is held to the case in either a first state in which the first engaging portion and the third engaging portion are engaged with each other or a second state in which the second engaging portion is engaged with the third engaging portion.
A method in a mobile device (10, 200) comprising: setting a timer associated with a source of transmit data to expire at a time out duration, expiry of the timer defining a time at which the source of transmit data is to transmit data if there is data to transmit; in the event there is an active data connection, adjusting the timer at least once such that the timer expires before the timeout duration; and if the source of transmit data has data to transmit at the time, transmitting the data. setting a timer associated with a source of transmit data to expire at a time out duration, expiry of the timer defining a time at which the source of transmit data is to transmit data if there is data to transmit; in the event there is an active data connection, adjusting the timer at least once such that the timer expires before the timeout duration; and if the source of transmit data has data to transmit at the time, transmitting the data.
A catheter comprising: an elongated body (12, 112); an inflatable balloon (14, 114) carried by the elongated body, the balloon having an inner surface and an outer surface; at least one shock wave source (20, 20', 120) within the inflatable balloon; characterized in that the catheter further comprises a biasing means for biasing the shock wave source in a direction towards the inner surface of the balloon; and at least one stand-off (32, 132), that maintains the at least one shock wave source a substantially fixed distance from the inner surface of the balloon. an elongated body (12, 112); an inflatable balloon (14, 114) carried by the elongated body, the balloon having an inner surface and an outer surface; at least one shock wave source (20, 20', 120) within the inflatable balloon;
System for dispensing beverages and/or infusions made from ground powder, comprising - a dispensing machine having at least one dispensing unit for dispensing said beverages or infusions, by means of water acting on a predetermined dose of ground powder contained in a filter, - a grinding device having at least one grinding unit comprising a reservoir of grains or beans and grinding means of the grains or beans for obtaining said ground powder, - wherein the dispensing machine and the grinding device are operatively interconnected by means of a control unit programmed to control and regulate the grinding means in order to obtain a certain degree of fineness of the ground powder, depending on at least one infusion parameter of the dispensing machine so that said infusion parameter remains within a predetermined range, - characterized in that the system for dispensing beverages is equipped with at least one weighing device which weighs the amount of ground powder produced by the grinding device, ensuring that said amount is always within a predetermined range, regardless of the adjustment made of the grinding means depending on the infusion parameter or changes in environmental conditions that change the grinding behavior of the grains or beans. - a dispensing machine having at least one dispensing unit for dispensing said beverages or infusions, by means of water acting on a predetermined dose of ground powder contained in a filter, - a grinding device having at least one grinding unit comprising a reservoir of grains or beans and grinding means of the grains or beans for obtaining said ground powder, - wherein the dispensing machine and the grinding device are operatively interconnected by means of a control unit programmed to control and regulate the grinding means in order to obtain a certain degree of fineness of the ground powder, depending on at least one infusion parameter of the dispensing machine so that said infusion parameter remains within a predetermined range, - characterized in that the system for dispensing beverages is equipped with at least one weighing device which weighs the amount of ground powder produced by the grinding device, ensuring that said amount is always within a predetermined range, regardless of the adjustment made of the grinding means depending on the infusion parameter or changes in environmental conditions that change the grinding behavior of the grains or beans.
A method of manufacturing a personal protection equipment mask, comprising: providing a stock of polymer material and a functionalizing material; creating nanofibers from the stock polymer material by electrospinning at least the polymer material to form a nanofiber material that is electrospun and functionalized by addition of the functionalizing material; placing the nanofiber material onto a convex mold, wherein the convex mold comprises at least one of five standard face shapes relating to ISO 17420; and cutting the nanofiber material to the shape of a personal protection equipment mask, wherein the nanofiber material of the personal protection equipment mask is functionalized by the functionalizing material to remove a gas, wherein cutting the nanofiber material allows for folding of the personal protection equipment mask at a nose and chin area. providing a stock of polymer material and a functionalizing material; creating nanofibers from the stock polymer material by electrospinning at least the polymer material to form a nanofiber material that is electrospun and functionalized by addition of the functionalizing material; placing the nanofiber material onto a convex mold, wherein the convex mold comprises at least one of five standard face shapes relating to ISO 17420; and cutting the nanofiber material to the shape of a personal protection equipment mask, wherein the nanofiber material of the personal protection equipment mask is functionalized by the functionalizing material to remove a gas, wherein cutting the nanofiber material allows for folding of the personal protection equipment mask at a nose and chin area.
A catheter comprising: an elongated body having a multi-layered portion with a magnetic-based sensor assembly, a control handle proximal of the elongated body, and a distal section distal of the elongated body, the distal section having an electrode, wherein the multi-layered portion has a first layer, a braided mesh over the first layer, and a second layer, the first layer defining a lumen, the second layer having a reflowed construction over the braided mesh and the first layer, the first and second layers being of similar thermoplastic materials, and wherein the magnetic-based sensor assembly has a first wire sensor with a first coil portion, a first distal portion and a first proximal portion, the first coil portion being at a first location on the second layer of the elongated body, the first distal portion and the first proximal portion extending toward a proximal end of the elongated body. wherein the magnetic-based sensor assembly includes an encapsulation coating encasing the coil and surrounding it circumferentially on the multi-layered portion. an elongated body having a multi-layered portion with a magnetic-based sensor assembly, a control handle proximal of the elongated body, and a distal section distal of the elongated body, the distal section having an electrode, wherein the multi-layered portion has a first layer, a braided mesh over the first layer, and a second layer, the first layer defining a lumen, the second layer having a reflowed construction over the braided mesh and the first layer, the first and second layers being of similar thermoplastic materials, and wherein the magnetic-based sensor assembly has a first wire sensor with a first coil portion, a first distal portion and a first proximal portion, the first coil portion being at a first location on the second layer of the elongated body, the first distal portion and the first proximal portion extending toward a proximal end of the elongated body. wherein the magnetic-based sensor assembly includes an encapsulation coating encasing the coil and surrounding it circumferentially on the multi-layered portion.
A method of producing a fuel distribution pipe to be attached to a cylinder head, the method comprising: providing a forged bar made of metal; forming a main bore in the forged bar so as to extend along an axial direction of the forged bar, the main bore through which fuel is allowed to flow; forming an injector bore in the forged bar, the injector bore having an injector opening and directly communicating with the main bore, the injector bore being configured to receive an injector therein through the injector opening; forming a bolt through hole in the forged bar, the bolt through hole having a bolt opening and not communicating with the main bore, the bolt through hole through which a bolt is to be passed to fix the pipe to the cylinder head; obtaining a base pipe having the main bore, the injector bore, and the bolt through hole from the forged bar; and bending the base pipe such that the injector opening of the injector bore and the bolt opening of the bolt through hole are provided along a line parallel to the axis of the main bore. providing a forged bar made of metal; forming a main bore in the forged bar so as to extend along an axial direction of the forged bar, the main bore through which fuel is allowed to flow; forming an injector bore in the forged bar, the injector bore having an injector opening and directly communicating with the main bore, the injector bore being configured to receive an injector therein through the injector opening; forming a bolt through hole in the forged bar, the bolt through hole having a bolt opening and not communicating with the main bore, the bolt through hole through which a bolt is to be passed to fix the pipe to the cylinder head; obtaining a base pipe having the main bore, the injector bore, and the bolt through hole from the forged bar; and bending the base pipe such that the injector opening of the injector bore and the bolt opening of the bolt through hole are provided along a line parallel to the axis of the main bore.
A device for stabilizing a left atrial appendage of a heart, the device comprising: a distal portion configured to be positioned within a pericardial space proximate the left atrial appendage, the distal portion including a stabilization element in fluid communication with a source of cryogenic fluid and a vacuum source, the stabilization element being transitionable from a delivery configuration to an expanded flattened configuration, the stabilization element being configured to cryoadhere to left atrial appendage tissue, the stabilization element including: a planar first face having a first width; a planar second face opposite the planar first face, the planar second face having the first width; and an edge extending between the planar first face and the planar second face, the edge having a second width that is less than the first width when in an expanded flattened configuration; wherein activation of the vacuum source ensures the stabilization element is maintained in the expanded flattened configuration when cryogenic fluid is circulated within the stabilization element. a distal portion configured to be positioned within a pericardial space proximate the left atrial appendage, the distal portion including a stabilization element in fluid communication with a source of cryogenic fluid and a vacuum source, the stabilization element being transitionable from a delivery configuration to an expanded flattened configuration, the stabilization element being configured to cryoadhere to left atrial appendage tissue, the stabilization element including: a planar first face having a first width; a planar second face opposite the planar first face, the planar second face having the first width; and an edge extending between the planar first face and the planar second face, the edge having a second width that is less than the first width when in an expanded flattened configuration; wherein activation of the vacuum source ensures the stabilization element is maintained in the expanded flattened configuration when cryogenic fluid is circulated within the stabilization element. a planar first face having a first width; a planar second face opposite the planar first face, the planar second face having the first width; and an edge extending between the planar first face and the planar second face, the edge having a second width that is less than the first width when in an expanded flattened configuration; wherein activation of the vacuum source ensures the stabilization element is maintained in the expanded flattened configuration when cryogenic fluid is circulated within the stabilization element.