mhurhangee/ep-ind-claims huggingface dataset:
An enclosure for a HVAC system comprising: at least one wall defining said enclosure; a fluid inlet; a fluid outlet; an access opening to permit access to the enclosure; a closure member for closing the access opening; and a guide element slidingly receiving and supporting the closure member; wherein the guide element is movable between a first operative position in which it holds the closure member in a closed position to close the access opening and a second operative position in which the closure member is spaced from the access opening and wherein in the second operative position the closure member is able to slide relative to the guide element away from the access opening to permit access to the enclosure through the access opening. at least one wall defining said enclosure; a fluid inlet; a fluid outlet; an access opening to permit access to the enclosure; a closure member for closing the access opening; and a guide element slidingly receiving and supporting the closure member; wherein the guide element is movable between a first operative position in which it holds the closure member in a closed position to close the access opening and a second operative position in which the closure member is spaced from the access opening and wherein in the second operative position the closure member is able to slide relative to the guide element away from the access opening to permit access to the enclosure through the access opening.
A method for grouping ions using data obtained during an LC/MS experiment, comprising: separating a sample mixture into two or more components; generating one or more mass chromatograms; identifying mass chromatographic peaks corresponding to one or more ions in the mass chromatograms; grouping the ions into one or more ion groups on the basis of a retention time associated with the identified peaks; and analyzing each of the ion groups to exclude those ions whose chromatographic peaks do not match a reference chromatographic peak profile, characterized in that the method further comprises using a standard chromatographic peak profile to derive the reference chromatographic peak profile. separating a sample mixture into two or more components; generating one or more mass chromatograms; identifying mass chromatographic peaks corresponding to one or more ions in the mass chromatograms; grouping the ions into one or more ion groups on the basis of a retention time associated with the identified peaks; and analyzing each of the ion groups to exclude those ions whose chromatographic peaks do not match a reference chromatographic peak profile, characterized in that the method further comprises using a standard chromatographic peak profile to derive the reference chromatographic peak profile.
A medical drape (106, 206) comprising: a polyurethane film layer (108, 208), an adhesive layer (110, 210) having a thickness greater than 80 microns, the adhesive layer (110, 210) having a first and second surface wherein the first surface is coupled to the polyurethane film layer (108, 208), and wherein the second surface of the adhesive layer (110, 210) is for adhering at least to a tissue site and covering a manifold to create a sealed space over the manifold within the tissue site; characterized in that the polyurethane film layer (108, 208) has a thickness of less than 5 microns. a polyurethane film layer (108, 208), an adhesive layer (110, 210) having a thickness greater than 80 microns, the adhesive layer (110, 210) having a first and second surface wherein the first surface is coupled to the polyurethane film layer (108, 208), and wherein the second surface of the adhesive layer (110, 210) is for adhering at least to a tissue site and covering a manifold to create a sealed space over the manifold within the tissue site; characterized in that the polyurethane film layer (108, 208) has a thickness of less than 5 microns.
A ventilator adapted to deliver a flow of gas to an airway of a user, the ventilator includes a source of gas adapted to provide the flow of gas, a conduit (63, 42) that carries the flow of gas to the airway of a patient, a first valve operatively coupled to the conduit and adapted to control a pressure or rate of the flow of gas provided to the patient by the ventilator, a pressure sensor operatively coupled to the conduit between the valve and the patient and adapted to monitor a pressure of the gas in the conduit, and a controller adapted to control the valve based on an output of the pressure sensor, characterized in that: a restrictor is provided in the conduit between the pressure sensor and the patient such that a first volume V B is defined in the conduit between the valve and the restrictor and a second volume Vc, is defined in the conduit between the patient and the restrictor, wherein the first volume V B is less than the second volume Vc, a control system including the controller and the valve is arranged to control the pressure of the first volumeV B, and wherein a flow restriction created by the restrictor is at least two times greater than a resistance along the conduit from the valve to the patient, such that the control system is better able to accurately and quickly control the pressure of volume VB, and in a much more stable fashion, than that of volume VA, which is defined as VA=VB+VC.
A method of sensing aircraft wheel speed, the method comprising: applying a carrier voltage signal to a pair of conductors (108a, 108b) coupled to a stator winding, the stator winding disposed about a rotor (106, 203) that moves upon rotation of an aircraft wheel, wherein the stator winding includes multiple magnet wire coils, wherein the magnet wire coils are wound on major stator teeth in alternating senses of direction all the way around the circumference of a stator core, the stator winding configured to render a modulated current signal on the pair of conductors in response to movement of the rotor, the modulated current signal having a frequency that is proportional or equal to a rotational speed of the aircraft wheel; receiving a carrier voltage signal at the stator winding, the carrier voltage signal being received from the pair of conductors external to an electric machine that can be used to detect the speed or position of an aircraft wheel and that includes the stator, the rotor, and a housing; rendering, by the stator winding, the modulated current signal on the pair of conductors in response to movement of the rotor; and detecting the modulated current signal. applying a carrier voltage signal to a pair of conductors (108a, 108b) coupled to a stator winding, the stator winding disposed about a rotor (106, 203) that moves upon rotation of an aircraft wheel, wherein the stator winding includes multiple magnet wire coils, wherein the magnet wire coils are wound on major stator teeth in alternating senses of direction all the way around the circumference of a stator core, the stator winding configured to render a modulated current signal on the pair of conductors in response to movement of the rotor, the modulated current signal having a frequency that is proportional or equal to a rotational speed of the aircraft wheel; receiving a carrier voltage signal at the stator winding, the carrier voltage signal being received from the pair of conductors external to an electric machine that can be used to detect the speed or position of an aircraft wheel and that includes the stator, the rotor, and a housing; rendering, by the stator winding, the modulated current signal on the pair of conductors in response to movement of the rotor; and detecting the modulated current signal.
A machine for preparing drinks by means of infusion, comprising a body, a module for extracting a product to be infused, contained in a packaging and comprising a drip tray, with the machine being so designed as to have a deployed position in which the drip tray can support a container (20, 20a) intended to receive the drink and a retracted position in which the drip tray is accommodated at least partially inside the body of the machine, with the machine being so configured as to move from the deployed position to the retracted position and vice versa by sliding, characterized in that it is so configured that it is supported by a work top and so that the drip tray has at least one support point intended to rest on said work top.
A polypropylene-based composite material comprising: polypropylene; and an olefin-based polymer that is a copolymer of an ethylene monomer and an alpha-olefin comonomer and that satisfies the following conditions of to: density: from 0.850 g/cc to 0.910 g/cc, melt index (190°C, 2.16 kg load conditions): from 0.1 g/10 min to 100 g/10 min, molecular weight distribution: from 1.5 to 3.0, and i) two peaks are shown in a temperature range of - 20°C to 120°C when taking measurements of temperature rising elution fractionation (TREF), and ii) a relation of T -T ≥60°C is satisfied (where T is a temperature at which 90 wt% of the olefin-based polymer is eluted, and T is a temperature at which 50 wt% of the olefin-based polymer is eluted); wherein TREF is measured using an o-dichlorobenzene solvent in a range of -20°C to 120°C. density: from 0.850 g/cc to 0.910 g/cc, melt index (190°C, 2.16 kg load conditions): from 0.1 g/10 min to 100 g/10 min, molecular weight distribution: from 1.5 to 3.0, and i) two peaks are shown in a temperature range of - 20°C to 120°C when taking measurements of temperature rising elution fractionation (TREF), and ii) a relation of T -T ≥60°C is satisfied (where T is a temperature at which 90 wt% of the olefin-based polymer is eluted, and T is a temperature at which 50 wt% of the olefin-based polymer is eluted); wherein TREF is measured using an o-dichlorobenzene solvent in a range of -20°C to 120°C.
A microwave ablation probe, comprising: a microwave emission section, a rigid section, and a flexible section, wherein the microwave emission section is positioned distal to the rigid section, wherein the rigid section is positioned distal to the flexible section, wherein the rigid section comprises one or more protrusions configured to engage with a grasping portion of a laparoscopic instrument, wherein the microwave emission section is configured to emit microwave energy. a microwave emission section, a rigid section, and a flexible section, wherein the microwave emission section is positioned distal to the rigid section, wherein the rigid section is positioned distal to the flexible section, wherein the rigid section comprises one or more protrusions configured to engage with a grasping portion of a laparoscopic instrument, wherein the microwave emission section is configured to emit microwave energy.
A crystal consisting of an anti-PCSK9 IgG antibody comprising a light chain variable region having the amino acid sequence set forth in SEQ ID NO:9 or SEQ ID NO:11 and a heavy chain variable region comprising the amino acid sequence set forth in SEQ ID NO:5 or SEQ ID NO:7.
A method of retrofitting vortex generators on a wind turbine blade, the wind turbine blade being mounted on a wind turbine hub and extending in a longitudinal direction and having a tip end and a root end, the wind turbine blade further comprising a profiled contour including a pressure side and a suction side, as well as a leading edge and a trailing edge with a chord having a chord length extending there between, the profiled contour, when being impacted by an incident airflow, generating a lift, the method comprising - determining the distribution of deposit on at least a section of the suction side of the wind turbine blade and identifying a separation line based on the distribution of deposit, and - mounting one or more vortex panels including a first vortex panel comprising at least one vortex generator on the suction side of the wind turbine blade between the separation line and the leading edge of the wind turbine blade. - determining the distribution of deposit on at least a section of the suction side of the wind turbine blade and identifying a separation line based on the distribution of deposit, and - mounting one or more vortex panels including a first vortex panel comprising at least one vortex generator on the suction side of the wind turbine blade between the separation line and the leading edge of the wind turbine blade.
A method for registering an imaging detector to a surface, the method executed at least in part on a computer and comprising: projecting and recording (S100, S110), on a portion of the surface, a sequence comprising a first sparse pattern of lines followed by a second sparse pattern of lines, wherein a first subset of positions on the surface is illuminated by lines from both first and second sparse patterns (F1, F2) corresponding to a first label, a second subset of positions on the surface is illuminated only by lines from the first sparse pattern corresponding to a second label; and a third subset of positions on the surface is illuminated only by lines from the second sparse pattern corresponding to a third label; decoding the first, second, and third labels from the surface positions and registering each member element of the first, second, and third subsets of positions to the imaging detector according to the decoded labels; projecting and recording (S140, S150) one or more dense patterns of lines that are positionally correlated with registered member elements of the decoded labels; and forming and displaying an image of the surface contour according to the recorded patterns. projecting and recording (S100, S110), on a portion of the surface, a sequence comprising a first sparse pattern of lines followed by a second sparse pattern of lines, wherein a first subset of positions on the surface is illuminated by lines from both first and second sparse patterns (F1, F2) corresponding to a first label, a second subset of positions on the surface is illuminated only by lines from the first sparse pattern corresponding to a second label; and a third subset of positions on the surface is illuminated only by lines from the second sparse pattern corresponding to a third label; decoding the first, second, and third labels from the surface positions and registering each member element of the first, second, and third subsets of positions to the imaging detector according to the decoded labels; projecting and recording (S140, S150) one or more dense patterns of lines that are positionally correlated with registered member elements of the decoded labels; and forming and displaying an image of the surface contour according to the recorded patterns.
Set of a hand held and/or hand guided power tool in the form of a polisher or sander, the tool comprising a housing with a motor located inside the housing and a working element performing an actuating movement if the tool is actuated, the motor being adapted to actuate a tool shaft in order to make it perform a rotational movement, and the tool further comprising at least one functional unit (27; 27'), wherein the working element and a carrier element (28; 28') functionally located between the tool shaft and the working element for translating the rotational movement of the tool shaft into the actuating movement of the working element make part of the at least one functional unit (27; 27'), the at least one functional unit (27; 27') constituting a unit separate from the rest of the tool and comprising means (29; 30; 30') for detachably fixing the functional unit (27; 27') to the rest of the tool, characterized in that the set comprises a plurality of different functional units (27, 27'), each of which can be detachably fixed to the rest of the tool and each of which has a carrier element (28; 28') designed such that the working element of the functional unit (27; 27') performs a certain type of actuating movement, wherein the actuating movements of the working elements of the different functional units (27; 27') differ from one another by type and/or degree, wherein each of the differing types of actuating movements performed by the working elements of the different functional units (27; 27') is one of a rotational and a random-orbital actuating movement, and wherein each of the plurality of different functional units (27; 27') has a working element adapted for a polishing or sanding a workpiece.
A surgical instrument, comprising: (a) an ultrasonic transducer, wherein the ultrasonic transducer is operable to convert electrical power into ultrasonic vibrations; and (b) an ultrasonic blade (370; 470) in acoustic communication with the ultrasonic transducer such that the ultrasonic transducer is operable to drive the ultrasonic blade to vibrate ultrasonically, wherein the ultrasonic blade is operable to penetrate bone, wherein the ultrasonic blade defines a longitudinal axis, wherein the ultrasonic blade further defines a plurality of lateral recesses (376; 476) extending proximally on an exterior surface of a distal portion of the ultrasonic blade, wherein the plurality of recesses include: (i) a first lateral recess extending parallel to the longitudinal axis of the blade, (ii) a second lateral recess extending obliquely relative to the longitudinal axis of the blade, wherein the second lateral recess is in fluid communication with the first lateral recess, and (iii) a third lateral recess extending obliquely relative to the longitudinal axis of the blade, wherein the third lateral recess is in fluid communication with the first lateral recess. (a) an ultrasonic transducer, wherein the ultrasonic transducer is operable to convert electrical power into ultrasonic vibrations; and (b) an ultrasonic blade (370; 470) in acoustic communication with the ultrasonic transducer such that the ultrasonic transducer is operable to drive the ultrasonic blade to vibrate ultrasonically, wherein the ultrasonic blade is operable to penetrate bone, wherein the ultrasonic blade defines a longitudinal axis, wherein the ultrasonic blade further defines a plurality of lateral recesses (376; 476) extending proximally on an exterior surface of a distal portion of the ultrasonic blade, wherein the plurality of recesses include: (i) a first lateral recess extending parallel to the longitudinal axis of the blade, (ii) a second lateral recess extending obliquely relative to the longitudinal axis of the blade, wherein the second lateral recess is in fluid communication with the first lateral recess, and (iii) a third lateral recess extending obliquely relative to the longitudinal axis of the blade, wherein the third lateral recess is in fluid communication with the first lateral recess. (i) a first lateral recess extending parallel to the longitudinal axis of the blade, (ii) a second lateral recess extending obliquely relative to the longitudinal axis of the blade, wherein the second lateral recess is in fluid communication with the first lateral recess, and (iii) a third lateral recess extending obliquely relative to the longitudinal axis of the blade, wherein the third lateral recess is in fluid communication with the first lateral recess.
A method, comprising: encoding a first transport block, TB1, to be transmitted to a first user equipment, UE, over a time-frequency resource by a base station; encoding a second transport block, TB2, to be transmitted to a second UE, wherein the second TB2 is superposed with the first TB1; determining a first new data indicator, NDI1, and a second new data indicator, NDI2, indicating whether TB1 and TB2 are new transport blocks or retransmission transport blocks respectively; and transmitting encoded information bits of the transport blocks to the UEs, wherein the base station also transmits NDI1 and NDI2 to the first UE for interference cancellation; wherein the base station schedules the first UE and the second UE for non-orthogonal multiple access NOMA operation, and wherein the first UE is a high-geometric UE and the second UE is a low-geometric UE respectively; wherein TB1 and TB2 are superposed and transmitted over the same time-frequency resource but with different transmission power levels; wherein the base station schedules the first UE to decode and cancel the superposed second transport block TB2 via codeword level interference cancellation, CW-IC. encoding a first transport block, TB1, to be transmitted to a first user equipment, UE, over a time-frequency resource by a base station; encoding a second transport block, TB2, to be transmitted to a second UE, wherein the second TB2 is superposed with the first TB1; determining a first new data indicator, NDI1, and a second new data indicator, NDI2, indicating whether TB1 and TB2 are new transport blocks or retransmission transport blocks respectively; and transmitting encoded information bits of the transport blocks to the UEs, wherein the base station also transmits NDI1 and NDI2 to the first UE for interference cancellation; wherein the base station schedules the first UE and the second UE for non-orthogonal multiple access NOMA operation, and wherein the first UE is a high-geometric UE and the second UE is a low-geometric UE respectively; wherein TB1 and TB2 are superposed and transmitted over the same time-frequency resource but with different transmission power levels; wherein the base station schedules the first UE to decode and cancel the superposed second transport block TB2 via codeword level interference cancellation, CW-IC.
A pervaporation element comprising: a ceramic monolith having an array of parallel channels separated by porous channel walls extending along an axial length of the ceramic monolith; a functional membrane coating a first plurality of the porous channel walls along the axial length of the ceramic monolith, the functional membrane functioning to separate a fluid into a retentate portion and a permeate portion, and wherein the porous channel walls coated by the functional membrane define a plurality of discrete through segments; wherein each of the discrete through segments are separated from one another by a plurality of uncoated porous channel walls; characterized in that the element further comprises a segmented end cap positioned at an axial end of the ceramic monolith, the segmented end cap having a plurality of openings positioned to expose the plurality of discrete through segments and cover the plurality of uncoated porous channel walls such that the segmented end cap is configured to direct the fluid to flow into the plurality of discrete through segments; and wherein the pervaporation element is configured to separate fluid entering the discrete through segments into a retentate portion that exits in substantial portion through the discrete through segments and a permeate portion that exits the ceramic monolith radially outward through a skin of the ceramic monolith. a ceramic monolith having an array of parallel channels separated by porous channel walls extending along an axial length of the ceramic monolith; a functional membrane coating a first plurality of the porous channel walls along the axial length of the ceramic monolith, the functional membrane functioning to separate a fluid into a retentate portion and a permeate portion, and wherein the porous channel walls coated by the functional membrane define a plurality of discrete through segments; wherein each of the discrete through segments are separated from one another by a plurality of uncoated porous channel walls; characterized in that the element further comprises a segmented end cap positioned at an axial end of the ceramic monolith, the segmented end cap having a plurality of openings positioned to expose the plurality of discrete through segments and cover the plurality of uncoated porous channel walls such that the segmented end cap is configured to direct the fluid to flow into the plurality of discrete through segments; and wherein the pervaporation element is configured to separate fluid entering the discrete through segments into a retentate portion that exits in substantial portion through the discrete through segments and a permeate portion that exits the ceramic monolith radially outward through a skin of the ceramic monolith.