mhurhangee/ep-ind-claims huggingface dataset:
A torrefaction reactor comprising: a vibrating reactor; a solid waffle plate bifurcating the reactor into a bottom plenum and a top plenum, said solid plate sealed at either end to the ends of said reactor such that said bottom plenum and said top plenum are sealed one from the other, said solid waffle plate angled downwardly such that vibration of said reactor results in the movement of the biomass from said input airlock device to said output airlock device, and said plate being undulating thereby providing more surface area to transfer energy; motors having offset weights for vibrating said reactor; an input airlock device at one end of said reactor above said solid plate for injecting a biomass onto the top of said solid waffle plate and an exit airlock device on the opposite end of said solid plate for the removal of torrefied material, and including a source of heated non-volatile gas and duct work between said source and said reactor for injecting the heated non-volatile gas to the underside of said solid plate. a vibrating reactor; a solid waffle plate bifurcating the reactor into a bottom plenum and a top plenum, said solid plate sealed at either end to the ends of said reactor such that said bottom plenum and said top plenum are sealed one from the other, said solid waffle plate angled downwardly such that vibration of said reactor results in the movement of the biomass from said input airlock device to said output airlock device, and said plate being undulating thereby providing more surface area to transfer energy; motors having offset weights for vibrating said reactor; an input airlock device at one end of said reactor above said solid plate for injecting a biomass onto the top of said solid waffle plate and an exit airlock device on the opposite end of said solid plate for the removal of torrefied material, and including a source of heated non-volatile gas and duct work between said source and said reactor for injecting the heated non-volatile gas to the underside of said solid plate.
A method for scheduling a task from a plurality of tasks to a processor core of a cluster of processor cores, the processor cores sharing caches, the method being performed by a controller, the method comprising: determining group-wise task relationships between the plurality of tasks based on a duration of cache misses resulting from running groups of the plurality of tasks on processor cores sharing the same cache; wherein each group-wise task relationship at a time index n is based on averaged individual task relationships at the time index n, wherein there are as many group-wise task relationships as there are caches, and wherein each individual task relationship is based on a ratio between the duration,tc1-tc0, of cache misses and a total duration,ti-to, of running one of the tasks, wherein an individual task relationship at the time index n for running a task A on a processor core sharing a cache X has a value R(A,X)[n] given by: R A X n = k − 1 ⋅ R A X n − 1 + tc 1 − tco / t 1 − to / k, where k>1 is a parameter, and scheduling the task to one of the processor cores based on its individual group-wise task relationship with the other tasks, wherein the task is scheduled to the processor core corresponding to the group-wise task relationship of the task with minimum value. determining group-wise task relationships between the plurality of tasks based on a duration of cache misses resulting from running groups of the plurality of tasks on processor cores sharing the same cache; wherein each group-wise task relationship at a time index n is based on averaged individual task relationships at the time index n, wherein there are as many group-wise task relationships as there are caches, and wherein each individual task relationship is based on a ratio between the duration,tc1-tc0, of cache misses and a total duration,ti-to, of running one of the tasks, wherein an individual task relationship at the time index n for running a task A on a processor core sharing a cache X has a value R(A,X)[n] given by: R A X n = k − 1 ⋅ R A X n − 1 + tc 1 − tco / t 1 − to / k, where k>1 is a parameter, and scheduling the task to one of the processor cores based on its individual group-wise task relationship with the other tasks,
Electric valve device, comprising a hollow body (2, 6) with an inlet (3; 22) and an outlet for a flow of a fluid, in particular a liquid, between which, inside said body (2, 6), there is defined a chamber in which there is provided a valve seat intended to cooperate with an associated closing member so as to control communication between the inlet (3; 22) and the outlet; and a tubular guiding formation which is nominally coaxial with the valve seat and inside which there is mounted, axially displaceably to and from said seat, a core which carries the closing member and the position of which with respect to the seat can be electromagnetically controlled by means of a winding or solenoid arranged around said tubular formation; said body (2, 6) and the tubular guiding formation being made as a single piece of moulded plastic; and wherein the distal end of said tubular formation, opposite the valve seat, is closed in a fluid-tight manner by an associated closing element separate from and connected to said tubular formation, and said winding or solenoid is surrounded at least in part by an associated magnetic flux conducting member, forming therewith an assembly provided with a through-opening inside which said tubular formation extends, and is axially locked on said body (2, 6) by means of said closing element; the electric valve device being characterized in that the distal end of said tubular formation extends through the whole assembly including the winding or solenoid and said magnetic-flux conducting member and protrudes outside said assembly, and the associated closing element is a plug or cover made of non-magnetic material, in particular moulded plastic.
A method for producing moulded bodies in a mould, from a base substance, in particular from cellulose, in a kneading reactor for mixing the base substance with a solvent, wherein the base substance is mixed with the solvent to produce a moulding solution and then this solvent is partly removed from the mixture and the moulding solution is supplied to a further means for further processing of the product, wherein the moulding solution is diluted before the further processing, characterised in that the dilution is supplied into the kneading reactor towards the end of the kneading reactor before a discharge means and/or into the discharge means.
An injection molding machine that manufactures a molding product by filling molten resin into a mold, the injection molding machine comprising: a cylinder to which resin is supplied; a heater that heats the cylinder; a screw that plasticizes the resin within the cylinder; and a cooler that cools the resin that is being transferred at a resin supply portion (52Z1) of the screw using a cooling gas, characterized in that the cooler includes an exhaust pipe that discharges the cooling gas outside the cylinder. a cylinder to which resin is supplied; a heater that heats the cylinder; a screw that plasticizes the resin within the cylinder; and a cooler that cools the resin that is being transferred at a resin supply portion (52Z1) of the screw using a cooling gas, characterized in that the cooler includes an exhaust pipe that discharges the cooling gas outside the cylinder.
Device (10; 100; 300) for compressed air control of stretch blow moulding devices, wherein the device (10; 100; 300) has the following: a blow block (20; 120; 320) which has a housing (21; 121; 321) and at least two valve modules (23a to 23f; 123a to 123f; 323a to 323f); a control unit (30; 130; 330) which can be electrically connected by means of a separate control line to each of the at least two valve modules (23a to 23f; 123a to 123f; 323a to 323f), characterised in that the separate control lines (28a to 28f; 128a to 128f; 328a to 328f) are arranged exclusively inside the housing (21; 121, 321). a blow block (20; 120; 320) which has a housing (21; 121; 321) and at least two valve modules (23a to 23f; 123a to 123f; 323a to 323f); a control unit (30; 130; 330) which can be electrically connected by means of a separate control line to each of the at least two valve modules (23a to 23f; 123a to 123f; 323a to 323f), characterised in that the separate control lines (28a to 28f; 128a to 128f; 328a to 328f) are arranged exclusively inside the housing (21; 121, 321).
An apparatus for measuring bioelectrical impedance of a patient, comprising: a portable device for measuring bioelectrical impedance provided with a controller, an electrical energy accumulator and a wireless data receiving and transmitting unit, a first pair of electrodes and a second pair of electrodes, a first band having a conformation suitable for fitting on a hand of a patient and incorporating said first pair of electrodes and at least a first motion sensor, a second band having a conformation suitable for fitting on a foot of the patient and incorporating said second pair of electrodes and at least a second motion sensor, first connecting means of said first pair of electrodes with said portable device, and second connecting means of said second pair of electrodes with said portable device, said first connecting means comprising a first electric cable having a terminal connector removably connected to an electrical connector of said first band, said second connecting means comprising a second electric cable having a terminal connector removably connected to an electrical connector of said second band, said first band is made of a soft material and has a rigid insert housing said first pair of electrodes and said first motion sensor, said second band is made of a soft material and has a rigid insert housing said second pair of electrodes and second motion sensor, each rigid insert (33, 34) having an elongated box-like conformation and being applied to a longitudinal section of the respective band (11, 16), each insert (33, 34) having an exposed base wall on which the respective provided electrodes (10, 15) in the form of longitudinal strips are positioned, and an exposed lateral wall, on which the respective electrical connector (23, 26) is positioned.
An optical node device which sets an optical path for other optical node devices (#2-#7, #6-#7) contained in a route from the optical node device itself (#1, #5) to a destination node (#7) both inclusive, the destination node being defined as an optical node device at an end point of the optical path, one hop at a time in order from a next hop adjacent optical node device, the optical node device itself being a source node (#1 or a 3R source node (#5) whereby a preset section of an optical path in which data transmission is possible without 3R relay is defined as a 3R section, an optical node device at a start point of the 3R section is defined as a 3R source node and an optical node device being a source of a setting request for an optical path is defined as a source node, a report of deterioration being communicated between optical node devices, the optical node device itself characterized by comprising: a transmitting unit which transmits an optical test signal each time an optical path is set for the other optical node devices contained in the route from the optical node device itself to the destination node both inclusive one hop at a time in order from the next hop adjacent optical node device; a receiving unit which, each time the optical test signal is transmitted to the other optical node devices contained in the route to the destination node inclusive one hop at a time in order from the next hop adjacent optical node device by the transmitting unit, receives a report of deterioration in the state of the optical test signal from another optical node device (#6) receiving the optical test signal; and a unit which, when the deterioration in the state of the optical test signal based on the report received by the receiving unit satisfies a predetermined deterioration condition, requests another optical node device (#5) corresponding to one hop before the other optical node device from which the report of the deterioration that satisfies the predetermined deterioration condition has been received to implement 3R relay. a transmitting unit which transmits an optical test signal each time an optical path is set for the other optical node devices contained in the route from the optical node device itself to the destination node both inclusive one hop at a time in order from the next hop adjacent optical node device; a receiving unit which, each time the optical test signal is transmitted to the other optical node devices contained in the route to the destination node inclusive one hop at a time in order from the next hop adjacent optical node device by the transmitting unit, receives a report of deterioration in the state of the optical test signal from another optical node device (#6) receiving the optical test signal; and a unit which, when the deterioration in the state of the optical test signal based on the report received by the receiving unit satisfies a predetermined deterioration condition, requests another optical node device (#5) corresponding to one hop before the other optical node device from which the report of the deterioration that satisfies the predetermined deterioration condition has been received to implement 3R relay.
A welding device for a plate laminated body, the plate laminated body being constituted by a plurality of non-circular plates with the same outer shape laminated in a lamination direction orthogonal to a plate surface of each of the non-circular plates, said welding device comprising: a welding torch; a first chuck for gripping the plate laminated body with the lamination direction being in a horizontal position, the first chuck being configured to rotate the plate laminated body around an axis along the lamination direction; a second chuck for gripping a plate to be welded to the plate laminated body, the second chuck being configured to rotate the plate around the axis along the lamination direction; at least one support extending along the lamination direction for supporting the plate laminated body from below, the at least one support being constituted by a support roller, wherein the welding device further comprises: a drive part for moving the support along a vertical direction; and a control part for controlling an operation of the drive part and controlling a support height of the support based on a rotation angle of the first chuck and the second chuck such that a rotation center of the plate laminated body including the non-circular plates is kept at a fixed position while outer peripheral edges of the plates constituting the plate laminated body are welded. a welding torch; a first chuck for gripping the plate laminated body with the lamination direction being in a horizontal position, the first chuck being configured to rotate the plate laminated body around an axis along the lamination direction; a second chuck for gripping a plate to be welded to the plate laminated body, the second chuck being configured to rotate the plate around the axis along the lamination direction; at least one support extending along the lamination direction for supporting the plate laminated body from below, the at least one support being constituted by a support roller, wherein the welding device further comprises: a drive part for moving the support along a vertical direction; and a control part for controlling an operation of the drive part and controlling a support height of the support based on a rotation angle of the first chuck and the second chuck such that a rotation center of the plate laminated body including the non-circular plates is kept at a fixed position while outer peripheral edges of the plates constituting the plate laminated body are welded. a drive part for moving the support along a vertical direction; and a control part for controlling an operation of the drive part and controlling a support height of the support based on a rotation angle of the first chuck and the second chuck such that a rotation center of the plate laminated body including the non-circular plates is kept at a fixed position while outer peripheral edges of the plates constituting the plate laminated body are welded.
A program product comprising a non-transitory processor readable medium on which program instructions are embodied, wherein the program instructions are configured, when executed by at least one programmable processor, to cause the at least one programmable processor to: detect, external to a very high frequency, VHF, data radio, that (i) at least one of: an aircraft is on ground, an exterior aircraft door is open, aircraft brakes are on, the aircraft is stationary, and all aircraft engines are off, and (ii) at least one of (a) during a first counter period, receives data indicating that the VHF data radio has received uplink data but does not receive any acknowledgement for data intended to be transmitted by the VHF data radio when the VHF data radio is configured to operate, in a VHF channel, in VHF digital link, VDL, mode 2, and (b) during a second counter period, receives data indicating that the VHF data radio has received uplink data and a VHF channel utilization exceeds an utilization threshold; and send a message to the VHF data radio to change a mode of the VHF data radio from VDL mode 2 to VDL mode A; wherein channel utilization is a representation of total power in the VHF channel of the VHF data radio. detect, external to a very high frequency, VHF, data radio, that (i) at least one of: an aircraft is on ground, an exterior aircraft door is open, aircraft brakes are on, the aircraft is stationary, and all aircraft engines are off, and (ii) at least one of (a) during a first counter period, receives data indicating that the VHF data radio has received uplink data but does not receive any acknowledgement for data intended to be transmitted by the VHF data radio when the VHF data radio is configured to operate, in a VHF channel, in VHF digital link, VDL, mode 2, and (b) during a second counter period, receives data indicating that the VHF data radio has received uplink data and a VHF channel utilization exceeds an utilization threshold; and send a message to the VHF data radio to change a mode of the VHF data radio from VDL mode 2 to VDL mode A; wherein channel utilization is a representation of total power in the VHF channel of the VHF data radio.
A fluid detergent composition comprising: a. from 1% to 70% by weight of a surfactant selected from the group: anionic, nonionic surfactants and mixtures thereof; b. from 0.01 wt% to 10 wt% of a di-amido gellant, wherein the di-amido gellant has the following formula: wherein: R 1 and R 2 are aminofunctional end-groups which may be the same or different, wherein: R 1 is R 3 or and R 2 is R 4 or wherein AA is selected from the group consisting of: and R 3 and R 4 independently have the formula: (L') m -(L")q R, where (m + q) is from 1 to 10, such that R 1 and R 2 are aminofunctional end-groups. wherein L', L" from formula are independently selected from the group consisting of: *the arrow indicates up to 4 substitutions in the positions indicated, and X - an anion and R, R' and R" are independently selected from the group consisting of: and L is a linking moiety of molecular weight from 14 to 500 g/mol. a. from 1% to 70% by weight of a surfactant selected from the group: anionic, nonionic surfactants and mixtures thereof; b. from 0.01 wt% to 10 wt% of a di-amido gellant, wherein the di-amido gellant has the following formula: wherein: R 1 and R 2 are aminofunctional end-groups which may be the same or different, wherein: R 1 is R 3 or and R 2 is R 4 or wherein AA is selected from the group consisting of: and R 3 and R 4 independently have the formula: (L') m -(L")q R, where (m + q) is from 1 to 10, such that R 1 and R 2 are aminofunctional end-groups. wherein L', L" from formula are independently selected from the group consisting of: *the arrow indicates up to 4 substitutions in the positions indicated, and X - an anion and R, R' and R" are independently selected from the group consisting of: and L is a linking moiety of molecular weight from 14 to 500 g/mol. (L') m -(L")q R, where (m + q) is from 1 to 10, such that R 1 and R 2 are aminofunctional end-groups.
A camera for use in a minimally invasive surgical system, the camera comprising: a prismatic element having a lens within the prismatic element; wherein the prismatic element is configured to pass one of a visible light spectrum and a non-visible light spectrum though a straight optical path, wherein the prismatic element is configured to pass an other of the visible light spectrum and the non-visible light spectrum through a folded optical path, and wherein the lens is configured to correct a focus of an image formed from the one of the visible light spectrum and the non-visible light spectrum so that the focus of the image is about the same as a focus of another image formed from the other of the visible light spectrum and the non-visible light spectrum that passes through the prismatic element. a prismatic element having a lens within the prismatic element; wherein the prismatic element is configured to pass one of a visible light spectrum and a non-visible light spectrum though a straight optical path, wherein the prismatic element is configured to pass an other of the visible light spectrum and the non-visible light spectrum through a folded optical path, and wherein the lens is configured to correct a focus of an image formed from the one of the visible light spectrum and the non-visible light spectrum so that the focus of the image is about the same as a focus of another image formed from the other of the visible light spectrum and the non-visible light spectrum that passes through the prismatic element.