mhurhangee/ep-ind-claims huggingface dataset:
An airfoil vane comprising: an airfoil section including an outer wall that defines an internal cavity; and an insert situated in the internal cavity, a space defined between the insert and the airfoil outer wall, the insert including an insert wall, and a plurality of standoff features (206; 306) extending from the insert wall into the space and contacting the airfoil outer wall at a contact area, whereby the standoff features(206; 306) are configured to block airflow in the space at the contact area and redirect the airflow to gaps between the standoff features (206; 306), wherein the airfoil section is made from ceramic matrix composite. an airfoil section including an outer wall that defines an internal cavity; and an insert situated in the internal cavity, a space defined between the insert and the airfoil outer wall, the insert including an insert wall, and a plurality of standoff features (206; 306) extending from the insert wall into the space and contacting the airfoil outer wall at a contact area, whereby the standoff features(206; 306) are configured to block airflow in the space at the contact area and redirect the airflow to gaps between the standoff features (206; 306), wherein the airfoil section is made from ceramic matrix composite.
A power train system for a hybrid vehicle, including a heat engine, the functioning of which is able to produce exhaust gases, a transformation loop, via a fluid, of the energy of the exhaust gases into mechanical energy, this loop including a mechanical energy auxiliary power shaft connected to a hybridization planetary gear train, characterized in that the planetary gear train comprises a hybridization input driven by said auxiliary power shaft, a main input connected to a main drive shaft connected to a flywheel of the heat engine and a traction output which is adapted to be connected to at least one drive wheel of the hybrid vehicle.
A process comprising: arranging a fluid ejection die on a carrier (54, 206); forming a molded panel (80, 272) that includes the fluid ejection die at least partially embedded in the molded panel with a mold chase (84, 252) that includes a fluid slot feature (88, 256) aligned with the fluid feed holes (66, 216) of the fluid ejection die (52, 204), the mold chase (84, 252) further including a release liner (86, 254) on an interior surface of the mold chase, such that the release liner (86, 254) covers the fluid slot feature (88, 256), and such that the fluid slot feature (88, 256) of the mold chase (84, 252), and the release liner (86, 254) disposed thereon, cover the fluid feed holes (66, 216) during formation of the molded panel (80, 272); and releasing the mold chase (84, 252) and release liner (86, 254) from the molded panel (80, 272) such that the molded panel comprises a fluid slot (102, 302) formed therethrough corresponding to the fluid slot feature (88, 256) of the mold chase, the fluid slot (102, 302) fluidly connected to the fluid feed holes (66, 216) of the fluid ejection die (52, 204). arranging a fluid ejection die on a carrier (54, 206); forming a molded panel (80, 272) that includes the fluid ejection die at least partially embedded in the molded panel with a mold chase (84, 252) that includes a fluid slot feature (88, 256) aligned with the fluid feed holes (66, 216) of the fluid ejection die (52, 204), the mold chase (84, 252) further including a release liner (86, 254) on an interior surface of the mold chase, such that the release liner (86, 254) covers the fluid slot feature (88, 256), and such that the fluid slot feature (88, 256) of the mold chase (84, 252), and the release liner (86, 254) disposed thereon, cover the fluid feed holes (66, 216) during formation of the molded panel (80, 272); and releasing the mold chase (84, 252) and release liner (86, 254) from the molded panel (80, 272) such that the molded panel comprises a fluid slot (102, 302) formed therethrough corresponding to the fluid slot feature (88, 256) of the mold chase, the fluid slot (102, 302) fluidly connected to the fluid feed holes (66, 216) of the fluid ejection die (52, 204).
A method for instant processing of a message, the method comprises: receiving a message from a client; and determining whether the message qualifies to be delivered via a direct delivery system; wherein, if it is determined that the message does not qualify to be delivered via the direct delivery system, the message is sent utilizing a processing hub configured with an email protocol, the processing hub performing a number of operations on the message; and wherein, if it is determined that the message does qualify to be delivered via the direct delivery system, the message is sent using the direct delivery system configured to write the message in a mailbox of one or more recipients, the direct delivery system performing only a subset of operations performed by the processing hub, wherein the subset includes at least one operation selected from a group comprising malware scanning, compliance checking, and SPAM filtering. receiving a message from a client; and determining whether the message qualifies to be delivered via a direct delivery system; wherein, if it is determined that the message does not qualify to be delivered via the direct delivery system, the message is sent utilizing a processing hub configured with an email protocol, the processing hub performing a number of operations on the message; and wherein, if it is determined that the message does qualify to be delivered via the direct delivery system, the message is sent using the direct delivery system configured to write the message in a mailbox of one or more recipients, the direct delivery system performing only a subset of operations performed by the processing hub, wherein the subset includes at least one operation selected from a group comprising malware scanning, compliance checking, and SPAM filtering.
A fabric sleeve for protecting elongate members against at least one of EMI, RFI or ESD, comprising a plurality of yarn filaments extending along a warp direction corresponding to a length of the sleeve and a plurality of yarn filaments extending along a fill direction generally perpendicular to said warp direction, at least some of said warp direction yarn filaments being provided as hybrid yarn filaments (12, 12'), and at least some of said fill direction yarn filaments also being provided as said hybrid yarn filaments, wherein each said hybrid yarn filament has a non-conductive filament (14, 14') and at least one continuous conductive wire filament (16, 16') overlying an outer surface of said non-conductive filament and extending radially outward from an adjacent portion of said outer surface, said wire filament being interlaced in electrical communication with itself or with other ones of said wire filaments along a portion of said sleeve to provide protection to the elongate members against at least one of EMI, RFI or ESD; wherein said wire filaments overlying said warp direction non-conductive filaments are in electrical communication with said wire filaments overlying said fill direction non-conductive filaments; and characterised in that said at least some of said warp direction hybrid yarn filaments (12, 12') have at least two of said continuous conductive wire filaments (16, 16') and said at least some of said fill direction hybrid yarn filaments have a single one of said continuous conductive wire filaments.
An electrode assembly for an ablation catheter system, the electrode assembly comprising: a first strut assembly (100, 102) comprising a first distal end and a first proximal end; and a second strut assembly (104, 106) comprising a second distal end and a second proximal end, wherein the second distal end is positioned between the first distal end and the first proximal end such that the first and second strut assemblies form an interlinked configuration, wherein the first proximal end is positioned between the second distal end and the second proximal end, wherein the first distal end is bonded to the second distal end, and wherein the first proximal end is bonded to the second proximal end such that the first and second strut assemblies are configured to expand and contract simultaneously. a first strut assembly (100, 102) comprising a first distal end and a first proximal end; and a second strut assembly (104, 106) comprising a second distal end and a second proximal end,
A turbine blade comprising a plurality of radially extending flow channels configured in independent forward and aft serpentine cooling circuits, terminating in corresponding forward and aft impingement channels (1,8); a hollow airfoil having partitions joining opposite pressure and suction sides (22,24) and spaced chordally between opposite leading and trailing edges (26,28) to define said serpentine circuits, and said impingement channels (1,8), said first passes (4,5) of said forward and aft serpentine circuits located at a midchord location of said airfoil, said forward serpentine circuit terminating in its last pass in said forward impingement channel, wherein said forward impingement channel is located behind said leading edge, and said aft serpentine circuit terminating in its last pass in said aft impingement channel, wherein said aft impingement channel is located in front of said trailing edge; a dovetail integrally joined to said airfoil at a platform, and including first, second, third and fourth inlet channels (44,46,48,50) separately joined to said serpentine circuits to feed said serpentine circuits with an inlet flow of cooling air for said turbine blade, said first inlet channel joined to said forward serpentine circuit at said last pass thereof, said second inlet channel joined to said forward serpentine circuit at said first pass thereof, said third inlet channel joined to said aft serpentine circuit at said first pass thereof, and said fourth inlet channel joined to said aft serpentine circuit at said last pass thereof; and a metering plate joined to said dovetail to cover said first, second, third and fourth inlet channels (44,46,48,50); said metering plate includes first, second, third, and fourth aperture inlets (54,56,58,60) sized in flow area to correspondingly meter said cooling flow therethrough and into said corresponding first, second, third and fourth inlet channels (44,46,48,50) such that a total flowrate of said cooling flow to said blade is preferentially metered through said aperture inlets to, in use, increase the operating temperature of said airfoil over said midchord region thereof while decreasing the temperature of said airfoil along said leading and trailing edges (26,28) as combustion gases flow over said airfoil; wherein: an airfoil tip of said hollow airfoil comprises a tip floor recessed therein to directly cover said forward and aft serpentine circuits; said first, second, third and fourth inlet channels (44,46,48,50) have larger flow areas than said serpentine circuits; and said first, second, third and fourth metered inlets (54,56,58,60) have smaller flow areas than said first, second, third and fourth inlet channels (44,46,48,50). an airfoil tip of said hollow airfoil comprises a tip floor recessed therein to directly cover said forward and aft serpentine circuits; said first, second, third and fourth inlet channels (44,46,48,50) have larger flow areas than said serpentine circuits; and said first, second, third and fourth metered inlets (54,56,58,60) have smaller flow areas than said first, second, third and fourth inlet channels (44,46,48,50).
A method for inducing differentiation of monocytes contained in an extracorporeal quantity of a mammalian subject's blood sample into immuno-stimulatory autologous dendritic cells, said method comprising at least the steps of: a) subjecting said extracorporeal quantity of said mammalian subject's blood sample to a shear force by passing through a flow chamber which allows for fixed or tunable adjustment of the flow rate; b) wherein the method is performed in the absence of photoactivatable agents such as 8-MOP, and UVA c) wherein the method is performed without the need for addition of a molecular cocktail comprising cytokines; and d) wherein differentiation of monocytes from said blood sample into immuno-stimulatory autologous dendritic cells is identified by increased expression of at least one molecular marker HLA-DR, CD83, CD86, ICAM1 or PLAUR and no increased expression of GILZ when comparing the immuno-stimulatory autologous dendritic cells to the monocytes within the extracorporeal quantity of a mammalian subject's blood sample. a) subjecting said extracorporeal quantity of said mammalian subject's blood sample to a shear force by passing through a flow chamber which allows for fixed or tunable adjustment of the flow rate; b) wherein the method is performed in the absence of photoactivatable agents such as 8-MOP, and UVA c) wherein the method is performed without the need for addition of a molecular cocktail comprising cytokines; and d) wherein differentiation of monocytes from said blood sample into immuno-stimulatory autologous dendritic cells is identified by increased expression of at least one molecular marker HLA-DR, CD83, CD86, ICAM1 or PLAUR and no increased expression of GILZ when comparing the immuno-stimulatory autologous dendritic cells to the monocytes within the extracorporeal quantity of a mammalian subject's blood sample.
A method of measuring concentration of elements of the periodic table in plant leaves; said method comprising: gathering leaves of plants to be tested; conditioning specimens of said leaves; obtaining raw count-per-second X-ray fluorescence, XRF, spectroscopy datasets of said specimens; obtaining raw near-infrared, NIR, spectroscopy datasets of said specimens; obtaining white reference radiance datasets and normalizing said raw NIR spectroscopy datasets on the basis thereof to obtain NIR reflectance spectroscopy datasets; obtaining raw analytical datasets of said specimens; and assessing concentrations of mineral elements within said specimens on the basis of said count-per-second XRF spectroscopy, NIR spectroscopy and analytical datasets; characterized in that said method does not comprise any step of pre-processing said XRF spectroscopy datasets. gathering leaves of plants to be tested; conditioning specimens of said leaves; obtaining raw count-per-second X-ray fluorescence, XRF, spectroscopy datasets of said specimens; obtaining raw near-infrared, NIR, spectroscopy datasets of said specimens; obtaining white reference radiance datasets and normalizing said raw NIR spectroscopy datasets on the basis thereof to obtain NIR reflectance spectroscopy datasets; obtaining raw analytical datasets of said specimens; and assessing concentrations of mineral elements within said specimens on the basis of said count-per-second XRF spectroscopy, NIR spectroscopy and analytical datasets; characterized in that said method does not comprise any step of pre-processing said XRF spectroscopy datasets.
Modular, prefabricated radiant panel, of the type having a sandwich-like structure comprising a thermally insulating rear layer, a front layer with mechanical strength and outer surface finish features and one or more radiant pipes integrated in the panel for the flow of a heat-carrying fluid, and that said radiant pipe is housed in radiant pipe grooves formed in said thermally insulating rear layer, in that in said layer there are further provided housing header grooves for a pair of headers which supply said radiant pipe, which header grooves are substantially parallel to a median line of the panel and are arranged at the two sides thereof, and in that said headers cross the entire panel and end within its perimeter, with connections opening outward of the panel, in correspondence of opposite sides thereof and in that said header grooves have such a transversal dimension to house headers with slight clearance and said radiant pipe grooves have a V-shape of a progressively larger width in correspondence of the end branches of pipes, toward the centre of the panel, in order to allow an easy axial displacement of said headers and a transversal displacement of said end branches of pipes during the fitting operations of T-junctions connecting said end branches of pipes to said headers.
A pumping system for pressurizing a working fluid, the pumping system comprising: a suction manifold; a discharge manifold; one or more pump assemblies coupled between the suction manifold and discharge manifold, wherein the one or more pump assemblies are configured to draw the working fluid from the suction manifold, pressurize the working fluid, and discharge the working fluid to the discharge manifold; wherein each of the one or more pump assemblies includes a driver and a pressure sensor configured to measure a pressure within the corresponding one or more pump assemblies; a pulsation dampening assembly coupled to the discharge manifold; wherein the pressure pulsation dampening assembly comprises a variable volume chamber (1306,1536) fluidly coupled to the discharge manifold; and a controller including one or more circuits configured to determine whether a duration of a pressure pulsation detected by at least one of the pressure sensors is above or below a threshold value; wherein when the duration is above the threshold value, the controller is configured to adjust the rotational speed of the driver; and wherein when the duration is below the threshold value, the controller is configured to adjust a volume of the variable volume chamber (1306,1536) of the pulsation dampening assembly. a suction manifold; a discharge manifold; one or more pump assemblies coupled between the suction manifold and discharge manifold, wherein the one or more pump assemblies are configured to draw the working fluid from the suction manifold, pressurize the working fluid, and discharge the working fluid to the discharge manifold; wherein each of the one or more pump assemblies includes a driver and a pressure sensor configured to measure a pressure within the corresponding one or more pump assemblies; a pulsation dampening assembly coupled to the discharge manifold; wherein the pressure pulsation dampening assembly comprises a variable volume chamber (1306,1536) fluidly coupled to the discharge manifold; and a controller including one or more circuits configured to determine whether a duration of a pressure pulsation detected by at least one of the pressure sensors is above or below a threshold value; wherein when the duration is above the threshold value, the controller is configured to adjust the rotational speed of the driver; and wherein when the duration is below the threshold value, the controller is configured to adjust a volume of the variable volume chamber (1306,1536) of the pulsation dampening assembly.
A cosmetic transparent gel preparation, comprising at least one esterification reaction product selected from the group consisting of an esterification reaction product obtained by reacting glycerol with behenic acid, isostearic acid and eicosanedioic acid, and an esterification reaction product obtained by reacting glycerol with behenic acid and eicosanedioic acid; 12-hydroxystearic acid; and an oil component; wherein an amount of the 12-hydroxystearic acid is 4 to 20% by mass, and an amount of the esterification reaction product is 1 to 15% by mass, relative to the total mass of all the components; and a mass ratio between the 12-hydroxystearic acid and the esterification reaction products is within a range from 20:1 to 1:2.
A coupling assembly for coupling a rod to a bone anchoring element, the coupling assembly comprising a receiving part (5, 5') having a first end, a second end and a central axis extending through the first end and second end, a recess for receiving a rod, the recess having a bottom, and an accommodation space (54, 54') for accommodating a head of an anchoring element, the accommodation space having an opening (55, 55') at the second end sized so as to permit the insertion of the head and a bore extending from the accommodation space to the first end, a retainer element (6, 6') configured to be positioned at least partially in the accommodation space (54, 54') and sized so as to at least partially encompass an inserted head; characterized in that the retainer element (6, 6') comprises at least one spring portion (66a, 66b; 66') that is compressible in an axial direction and that extends in an axial direction at least up to a position toward the first end of the receiving part that is higher than the bottom of the recess for the rod.
An electronic vaporizing device chip with an air pressure sensing unit, comprising an air pressure sensing unit, a control unit, a plurality of auxiliary resistors, a capacitor, and a plurality of pins, wherein the air pressure sensing unit, the control unit, the plurality of auxiliary resistors, the capacitor, and the plurality of pins are electrically connected, characterized in that the control unit comprises a memory, a control logic module, an air pressure sensing unit driving module, a signal amplification module, an analog-to-digital conversion module, a data processing and calibration module, a communication interface module, and an enabling signal input control circuit, the air pressure sensing unit is configured to detect an air pressure generated inside the electronic vaporizing device during suction, the memory is configured to store a relevant parameter, the control logic module is configured for a logic control of an internal circuit of the control unit, the air pressure sensing unit driving module is configured to drive the air pressure sensing unit to work, the signal amplification module is configured to amplify and then transmit an air pressure analog signal detected by the air pressure sensing unit to the analog-to-digital conversion module, the analog-to-digital conversion module is configured to convert the air pressure analog signal into an air pressure digital signal, the data processing and calibration module is configured to process and calibrate the air pressure digital signal, and then convert the air pressure digital signal into an air flow quantity digital signal, the communication interface module is configured for a communication connection with an external component, and the enabling signal input control circuit is configured to receive an external enabling signal and control the communication interface module to work, and the electronic vaporizing device chip further comprises a temperature sensing unit for detecting temperature of the electronic vaporizing device chip, wherein the control unit further comprises a circuit switching module for switching the air pressure analog signal detected by the air pressure sensing unit and a temperature analog signal detected by the temperature sensing unit, and then transmitting the switched air pressure analog signal or the switched temperature analog signal to the analog-to-digital conversion module in turn, and the analog-to-digital conversion module is capable of converting the temperature analog signal into a temperature digital signal.