mhurhangee/ep-ind-claims huggingface dataset:
A method of monitoring an air cycle machine of an aircraft comprising: driving a rotary shaft of an air cycle machine of an aircraft; disconnecting a driving source to allow the rotary shaft to decelerate; extrapolating a shutdown cycle data and estimating when a shutdown cycle time will breach a predetermined threshold; and monitoring a shutdown cycle of the rotary shaft. driving a rotary shaft of an air cycle machine of an aircraft; disconnecting a driving source to allow the rotary shaft to decelerate; extrapolating a shutdown cycle data and estimating when a shutdown cycle time will breach a predetermined threshold; and monitoring a shutdown cycle of the rotary shaft.
A self-contained apparatus for isolating nucleic acid from at least one unprocessed sample, said apparatus to be used with an instrument, said apparatus consisting of a macrofluidic component, a microfluidic component, at least one pneumatic drive line and two inputs, a first input for receiving the at least one unprocessed sample from a collection device and a second input for interfacing the drive mechanism on said instrument: (i) said macrofluidic component comprising: at least one chamber for receiving said at least one unprocessed sample from a collection device; at least two pre-filled lysis reagent storage reservoirs formed within the macrofluidic component; a pre-filled wash reagent storage reservoir formed within the macrofluidic component; and a pre-filled elution reagent storage reservoir formed within the macrofluidic component; (ii) a microfluidic component in communication with said macrofluidic component via at least one microfluidic element, said microfluidic component further comprising at least one nucleic acid purification matrix; and (iii) at least one pneumatic drive line for connection to a drive mechanism on said instrument for driving said first and second lysis reagents, said wash reagent, and said elution reagent sequentially through said microfluidic element and said nucleic acid purification matrix, wherein the only inputs to said apparatus are via said chamber and said at least one drive line, and further wherein all reagents used to isolate nucleic acid from the at least one unprocessed sample are contained on-board the apparatus in pre-filled chambers. (i) said macrofluidic component comprising: at least one chamber for receiving said at least one unprocessed sample from a collection device; at least two pre-filled lysis reagent storage reservoirs formed within the macrofluidic component; a pre-filled wash reagent storage reservoir formed within the macrofluidic component; and a pre-filled elution reagent storage reservoir formed within the macrofluidic component; at least one chamber for receiving said at least one unprocessed sample from a collection device; at least two pre-filled lysis reagent storage reservoirs formed within the macrofluidic component; a pre-filled wash reagent storage reservoir formed within the macrofluidic component; and a pre-filled elution reagent storage reservoir formed within the macrofluidic component; (ii) a microfluidic component in communication with said macrofluidic component via at least one microfluidic element, said microfluidic component further comprising at least one nucleic acid purification matrix; and (iii) at least one pneumatic drive line for connection to a drive mechanism on said instrument for driving said first and second lysis reagents, said wash reagent, and said elution reagent sequentially through said microfluidic element and said nucleic acid purification matrix,
A method of forging a feature in a workpiece, comprising: bringing a tool set into proximity to a surface of a workpiece; using at least a first tool in the tool set to form a generally enclosed cavity adjacent the workpiece surface; and using at least a second tool in the tool set to plasticize by friction heating and extrude a portion of the work-piece into the cavity, wherein plasticizing a portion of the workpiece includes heating the workpiece by frictionally engaging the workpiece surface with the second tool, characterized in that the frictional engagement is performed by oscillating the second tool relative to the workpiece surface. bringing a tool set into proximity to a surface of a workpiece; using at least a first tool in the tool set to form a generally enclosed cavity adjacent the workpiece surface; and using at least a second tool in the tool set to plasticize by friction heating and extrude a portion of the work-piece into the cavity, wherein plasticizing a portion of the workpiece includes heating the workpiece by frictionally engaging the workpiece surface with the second tool, characterized in that the frictional engagement is performed by oscillating the second tool relative to the workpiece surface.
A process for making a viscous composition comprising at least 8.0% by weight of whey protein, comprising the following steps of: Step 1) preparing a Mass 1 composition comprising at least 8.8% by weight of whey protein and heat-treating at a temperature of higher than 85°C, and Step 2) adding at least one aqueous preparation comprising at least one polysaccharide, comprising a native starch, Step 3) filling the composition in a packaging container, wherein the ratio by weight between Mass 1 and the aqueous preparation is of at least 50/50, preferably between 60/40 to 90/10. Step 1) preparing a Mass 1 composition comprising at least 8.8% by weight of whey protein and heat-treating at a temperature of higher than 85°C, and Step 2) adding at least one aqueous preparation comprising at least one polysaccharide, comprising a native starch, Step 3) filling the composition in a packaging container,
An x-ray apparatus comprising: an electron source capable of generating electrons; at least one first target arranged to receive electrons from the electron source, the at least one first target comprising material that, in response to being irradiated by the electrons, emits broad spectrum x-ray radiation; at least one second target arranged to receive at least some of the broad spectrum x-ray radiation, the at least one second target comprising material that, in response irradiation by broad spectrum x-ray radiation from the first target, emits monochromatic x-ray radiation; at least one detector positioned to detect at least some of the monochromatic x-ray radiation emitted from the at least one second target and transmitted through the target tissue to form, at least in part, at least one image of the target tissue; and a power control capable of varying the power levels of the x-ray apparatus depending on whether the x-ray apparatus is being used for imaging or radiation therapy. an electron source capable of generating electrons; at least one first target arranged to receive electrons from the electron source, the at least one first target comprising material that, in response to being irradiated by the electrons, emits broad spectrum x-ray radiation; at least one second target arranged to receive at least some of the broad spectrum x-ray radiation, the at least one second target comprising material that, in response irradiation by broad spectrum x-ray radiation from the first target, emits monochromatic x-ray radiation; at least one detector positioned to detect at least some of the monochromatic x-ray radiation emitted from the at least one second target and transmitted through the target tissue to form, at least in part, at least one image of the target tissue; and a power control capable of varying the power levels of the x-ray apparatus depending on whether the x-ray apparatus is being used for imaging or radiation therapy.
Microscale aerial vehicle comprising a remote-controlled fixed-wing microdrone, having a longitudinal vertical plane of symmetry XZ, said microdrone comprising propulsion means (23, 24) characterized in that it comprises side wheels attached to the lateral ends of a wing of the fixed wing surface of the microdrone, the axis of rotation Y1 of the side wheels being parallel to the transverse axis Y of the microdrone, the side wheels having a diameter D such that the propulsion means (23, 24) and the fixed wing surface do not project beyond the cylinder defined by the two side wheels.
A batch of shaped abrasive particles comprising shaped abrasive particles comprising: a body comprising a two-dimensional shape selected from the group consisting of triangular, quadrilateral, rectangular, trapezoidal, pentagonal, hexagonal, heptagonal, octagonal, and a combination thereof, the body including: an upper surface, a bottom major surface opposite the upper surface, a first side surface extending between the bottom major surface and the upper surface, and a second side surface extending between the bottom major surface and the upper surface wherein the side surfaces comprise an innermost point and an outermost point; a percent flashing (f) for a total side area of the body; and a width (w) and a height (hi), the width being the longest dimension of the body and extending along a side, wherein the height (hi) is an interior height of the body, wherein the interior height is the smallest height between the bottom major surface and the upper surface within the interior of the body wherein a median interior height of the batch is at least about 33% of a median width of the shaped abrasive particles of the batch, wherein a median percent flashing of the batch is at least about 16% and not greater than about 45%. a body comprising a two-dimensional shape selected from the group consisting of triangular, quadrilateral, rectangular, trapezoidal, pentagonal, hexagonal, heptagonal, octagonal, and a combination thereof, the body including: an upper surface, a bottom major surface opposite the upper surface, a first side surface extending between the bottom major surface and the upper surface, and a second side surface extending between the bottom major surface and the upper surface wherein the side surfaces comprise an innermost point and an outermost point; a percent flashing (f) for a total side area of the body; and a width (w) and a height (hi), the width being the longest dimension of the body and extending along a side, wherein the height (hi) is an interior height of the body, wherein the interior height is the smallest height between the bottom major surface and the upper surface within the interior of the body wherein a median interior height of the batch is at least about 33% of a median width of the shaped abrasive particles of the batch, wherein a median percent flashing of the batch is at least about 16% and not greater than about 45%.
Dispenser pump comprising a plunger and a body, the body comprising a body cylinder including a cylinder of the pump, and a body insert fitting into the top of the body cylinder; the plunger having a head, a stem and a piston and being rotatable relative to the body between axially locked and axially unlocked positions, including a locked-down position in which the plunger is held relatively retracted into the body; the pump defining a vent path between the container interior and the cylinder interior including a vent opening of the body cylinder; characterised in that the vent path includes a radial clearance between the body insert and body cylinder, and the body insert comprises a projecting vent-control formation extending around the body insert, engaging the cylinder wall of the cylinder and having high and low portions (561,562) lying respectively axially above and axially below the axial position of the vent opening at the interior thereof, the body insert being rotatable relative to the body cylinder whereby when a said high portion of the vent-control formation aligns circumferentially with the interior of the vent opening the vent path is open and when a said low portion of the vent-control formation aligns circumferentially with the interior of the vent opening the vent path is closed. the body comprising a body cylinder including a cylinder of the pump, and a body insert fitting into the top of the body cylinder; the plunger having a head, a stem and a piston and being rotatable relative to the body between axially locked and axially unlocked positions, including a locked-down position in which the plunger is held relatively retracted into the body; the pump defining a vent path between the container interior and the cylinder interior including a vent opening of the body cylinder; characterised in that the vent path includes a radial clearance between the body insert and body cylinder, and the body insert comprises a projecting vent-control formation extending around the body insert, engaging the cylinder wall of the cylinder and having high and low portions (561,562) lying respectively axially above and axially below the axial position of the vent opening at the interior thereof, the body insert being rotatable relative to the body cylinder whereby when a said high portion of the vent-control formation aligns circumferentially with the interior of the vent opening the vent path is open and when a said low portion of the vent-control formation aligns circumferentially with the interior of the vent opening the vent path is closed.
Load carrier with an operating mechanism for operating a clamp mechanism, the operating mechanism comprising a lever pivotably supported on a support about a pivot and configured to be operated by a user to actuate the clamp mechanism, a force application joint connected to said lever, wherein in a tensioning position of the lever, the force application joint is positioned at a presettable distance from said support, a force transmitting element pivotably connected to said force application joint, characterized in that said force transmitting element is pivotably connected to an operated member of said clamp mechanism at a force application section for applying a force on said operated member, wherein a pivotal distance between said force application joint and said pivot is smaller than a pivotal distance between said force application joint and said force application section, and in that said load carrier further comprises an adjustment means for presetting said presettable distance between said force application joint and said support in order to adapt said tensioning force on said operated member.
A vacuum insulated structure for an appliance, comprising: a trim breaker defining a first groove and a second groove; a first panel disposed within the first groove and coupled to the trim breaker; a second panel disposed within the second groove and coupled to the trim breaker; and an adhesive disposed within the first groove and within the second groove and coupled to the first panel and to the second panel, respectively, characterised in that the trim breaker comprises a polyethylene terephthalate copolyester resin. a trim breaker defining a first groove and a second groove; a first panel disposed within the first groove and coupled to the trim breaker; a second panel disposed within the second groove and coupled to the trim breaker; and an adhesive disposed within the first groove and within the second groove and coupled to the first panel and to the second panel, respectively,
Application session characterized in that said application session (SAS 1, SAS 2, SAS 1A, SAS 1B, SAS 2A, SAS 2B, SAS 2A') comprises a first (SS 11, SS 21, SS 1A1, SS 1B1, SS 2A1, SS 2B1, SS' 21) and a second communication session (SS 12, SS 1A2, SS 1B2, SS 22, SS 2A2, SS 2B2), • the first communication session (SS 11, SS 21, SS 1A1, SS 1B1, SS 2A1, SS 2B1, SS' 21) being a static session with an equipment (UE A, S, UE B, UE C), and • the second communication session (SS 12, SS 22, SS 1A2, SS 1B2, SS 2A2, SS 2B2, SS' 22) being a dynamic session, said dynamic session being able to allow a call to a second communication session (SS 22, SS 12, SS 2A2, SS 1B2, SS 2B2, SS 1A2) of a second application session (SAS 2, SAS2A, SAS 2B, SAS 1, SAS 1A, SAS 1B). • the first communication session (SS 11, SS 21, SS 1A1, SS 1B1, SS 2A1, SS 2B1, SS' 21) being a static session with an equipment (UE A, S, UE B, UE C), and • the second communication session (SS 12, SS 22, SS 1A2, SS 1B2, SS 2A2, SS 2B2, SS' 22) being a dynamic session, said dynamic session being able to allow a call to a second communication session (SS 22, SS 12, SS 2A2, SS 1B2, SS 2B2, SS 1A2) of a second application session (SAS 2, SAS2A, SAS 2B, SAS 1, SAS 1A, SAS 1B).
Apparatus having a membrane, an anode adjacent one side of said membrane, a cathode adjacent an opposite side of said membrane forming a membrane electrode assembly, a first structural film layer disposed at a periphery of said membrane electrode assembly, a second structural film layer adhered to said first structural film layer by an adhesive, at least one of said first and second structural film layers (25a, 25b) also being adhered to one of said anode and cathode by said adhesive, said membrane electrode assembly and said first and second structural film layers (25a, 25b) being sandwiched by a pair of gas diffusion layers (23, 23'), characterized in that: a. said first structural film layer has a plurality of vias therein; and b. said second structural film layer has a plurality of vias therein which are in non-overlapping relation to said vias in said first structural film layer; c. wherein said adhesive extends through said vias in said first structural film layer to adhere one of said pair of gas diffusion layers (23, 23') to said first structural film layer, and said adhesive extends through said vias in said second structural film layer to adhere the other of said pair of gas diffusion layers (23, 23') to said second structural film layer. a. said first structural film layer has a plurality of vias therein; and b. said second structural film layer has a plurality of vias therein which are in non-overlapping relation to said vias in said first structural film layer; c. wherein said adhesive extends through said vias in said first structural film layer to adhere one of said pair of gas diffusion layers (23, 23') to said first structural film layer, and said adhesive extends through said vias in said second structural film layer to adhere the other of said pair of gas diffusion layers (23, 23') to said second structural film layer.
Home gateway connected to a conventional telephone line, said gateway being intended to receive, on one of its ports, termed first port, digital signals sent via said conventional telephone line by a network device in a given frequency band and to send, on said first port, to said network device, digital signals in another given frequency band, the gateway internally including a balancing impedance, presented to the line, with a predefined value and variable-gain amplifiers that are intended to amplify the signals both on sending and on reception, said gains having predefined values, characterized in that it includes means for determining that the telephone line is unbundled and a means for modifying said value of the balancing impedance and of the gains of said amplifiers depending on the features of said telephone line when the line has been determined beforehand as being unbundled.
Method to control a dynamic scale for flat goods lying on their side, comprises a controlling of the transport of the flat goods with a continuous counting of encoder pulses, and with a weight measurement of a moving flat good which is started when the trailing edge of the flat good reaches a first sensor, with storage of a first count state W1 of a counter if the leading edge of a flat good reaches a second sensor but a valid weight measurement result is not present; and with a step of the method in which a weight measurement takes place with a transport velocity reduced step by step; wherein after a step-down of the transport velocity of the flat good, a subsequent weight measurement is performed with a next lowest transport velocity, wherein the current counter state W is then queried and stored if neither a valid weight measurement result, nor can it be established that the trailing edge of the flat good has reached the first sensor, although the leading edge of a flat good has reached a second sensor; as well as with check as to whether the current counter state corresponds to a sum of the stored counter state and a predetermined count value; and repetition of the querying and sub-steps of the step after the check as long as the current counter state has not yet reached the sum; and with an additional step-down of the transport velocity of the flat good and validity check of the weight measurement result in at least one additional step (113,..., 119) if the current counter state reaches the sum.
A method for authenticating a device in a communication network, the method comprising: receiving (52; 120), at a residential gateway (8; 110), an Ethernet frame, wherein the Ethernet frame encapsulates i) a first Extensible Authentication Protocol, EAP, packet, which includes an EAP ID, Identity response and comprises i) a first destination address and a ii) source address; swapping (58; 122), by the residential gateway, the first destination address of the received Ethernet frame for a second destination address, to create a second Ethernet frame comprising the second destination address, the source address and the first EAP ID response, the second destination address being a media access control, MAC, address different from the first destination address; and transmitting (58; 124), by the residential gateway, the second Ethernet frame toward the second destination address, the first destination address being a multicast address selected from a Spanning Tree Protocol address range, and the second destination address being the MAC address of an access node associated with an authentication server. receiving (52; 120), at a residential gateway (8; 110), an Ethernet frame, wherein the Ethernet frame encapsulates i) a first Extensible Authentication Protocol, EAP, packet, which includes an EAP ID, Identity response and comprises i) a first destination address and a ii) source address; swapping (58; 122), by the residential gateway, the first destination address of the received Ethernet frame for a second destination address, to create a second Ethernet frame comprising the second destination address, the source address and the first EAP ID response, the second destination address being a media access control, MAC, address different from the first destination address; and transmitting (58; 124), by the residential gateway, the second Ethernet frame toward the second destination address, the first destination address being a multicast address selected from a Spanning Tree Protocol address range, and the second destination address being the MAC address of an access node associated with an authentication server.