mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling an HVACR unit in a heating, ventilation, air conditioning, and refrigeration (HVACR) system that includes an HVACR unit through which a process fluid can be pumped to meet a temperature control demand, comprising: monitoring, by a controller, a flowrate of the process fluid through the HVACR unit; characterised in that in response to the monitoring: when the flowrate of the process fluid is greater than a minimum flowrate threshold, providing the process fluid to a plurality of terminals (106A-106N) in the HVACR system via the HVACR unit according to the temperature control demand, and disabling a bypass flow of the process fluid through a bypass line configured to bypass a selected terminal of the plurality of terminals, by changing a state of a valve fluidly connected to the bypass line and the selected terminal to a flow disabled state; when the flowrate of the process fluid is below the minimum flowrate threshold, enabling, by the controller, the bypass flow of the process fluid through the bypass line by changing the state of the valve fluidly connected to the bypass line and to the selected terminal to a flow enabled state. monitoring, by a controller, a flowrate of the process fluid through the HVACR unit; characterised in that in response to the monitoring: when the flowrate of the process fluid is greater than a minimum flowrate threshold, providing the process fluid to a plurality of terminals (106A-106N) in the HVACR system via the HVACR unit according to the temperature control demand, and disabling a bypass flow of the process fluid through a bypass line configured to bypass a selected terminal of the plurality of terminals, by changing a state of a valve fluidly connected to the bypass line and the selected terminal to a flow disabled state; when the flowrate of the process fluid is below the minimum flowrate threshold, enabling, by the controller, the bypass flow of the process fluid through the bypass line by changing the state of the valve fluidly connected to the bypass line and to the selected terminal to a flow enabled state. when the flowrate of the process fluid is greater than a minimum flowrate threshold, providing the process fluid to a plurality of terminals (106A-106N) in the HVACR system via the HVACR unit according to the temperature control demand, and disabling a bypass flow of the process fluid through a bypass line configured to bypass a selected terminal of the plurality of terminals, by changing a state of a valve fluidly connected to the bypass line and the selected terminal to a flow disabled state; when the flowrate of the process fluid is below the minimum flowrate threshold, enabling, by the controller, the bypass flow of the process fluid through the bypass line by changing the state of the valve fluidly connected to the bypass line and to the selected terminal to a flow enabled state.
A triarylamine derivative represented by general formula where, in the general formula, R 1 and R 2 each represent, independently of one another, a chemical group selected from the group consisting of a halogen atom, an optionally substituted alkyl group having a carbon number of at least 1 and no greater than 6, an optionally substituted alkoxy group having a carbon number of at least 1 and no greater than 6, and an optionally substituted aryl group having a carbon number of at least 6 and no greater than 12, m and n each represent an integer of at least 0 and no greater than 4, when m represents an integer greater than 1, chemical groups R 1 bonded to the same aromatic ring may be the same or different to one another, and when n represents an integer greater than 1, chemical groups R 2 bonded to the same aromatic ring may be the same or different to one another. R 1 and R 2 each represent, independently of one another, a chemical group selected from the group consisting of a halogen atom, an optionally substituted alkyl group having a carbon number of at least 1 and no greater than 6, an optionally substituted alkoxy group having a carbon number of at least 1 and no greater than 6, and an optionally substituted aryl group having a carbon number of at least 6 and no greater than 12, m and n each represent an integer of at least 0 and no greater than 4, when m represents an integer greater than 1, chemical groups R 1 bonded to the same aromatic ring may be the same or different to one another, and when n represents an integer greater than 1, chemical groups R 2 bonded to the same aromatic ring may be the same or different to one another.
A phosphor having a garnet structure represented by General Formula: (Lu a,Y b) w Al x (O c,N d) y: Ce z, wherein a + b = 1, 0 < a < 1, 0 < b < 1, 10 ≤ c × d × y ≤ 16, 1.4 ≤ c / d, 2 ≤ w + z ≤ 4, and 4.0 < x ≤ 7.0; the molar ratio of Ce and (sum of Lu+Y) is 0.015≤Ce/(Lu + Y)and the nitrogen content is 0.007 mass % or more.
A cosmetic composition comprising: an omithine decarboxylase inhibitor which is ursolic acid; an anti-angiogenic active which is a sphingo lipid; an anti-inflammatory which is a gorgonian extract; and a cosmetically acceptable vehicle. an omithine decarboxylase inhibitor which is ursolic acid; an anti-angiogenic active which is a sphingo lipid; an anti-inflammatory which is a gorgonian extract; and a cosmetically acceptable vehicle.
A semiconductor device comprising: an array of memory cells, wherein each of the memory cells includes a tunnel dielectric, a well region including a first current electrode, a second current electrode, and a channel region between the first current electrode and the second current electrode, a floating gate wherein the tunnel dielectric is over the channel region and the floating gate is over the tunnel dielectric, an interface dielectric over the floating gate, and a control gate over the interface dielectric; and a controller coupled to the memory cells, wherein the controller includes logic to determine when to perform a healing process in the tunnel dielectric of the memory cells, and to apply a first voltage to the first current electrode of the memory cells and to apply a second voltage to the second current electrode and the control gate, during the healing process to remove trapped electrons and holes from the tunnel dielectric, such that the first voltage is sufficient to draw at least some of the trapped electrons out of the tunnel dielectric, characterised in that the logic is configured to perform the healing process after a threshold number of program and erase cycles and to perform subsequent healing processes after successively reduced numbers of program and erase cycles. an array of memory cells, wherein each of the memory cells includes a tunnel dielectric, a well region including a first current electrode, a second current electrode, and a channel region between the first current electrode and the second current electrode, a floating gate wherein the tunnel dielectric is over the channel region and the floating gate is over the tunnel dielectric, an interface dielectric over the floating gate, and a control gate over the interface dielectric; and a controller coupled to the memory cells, wherein the controller includes logic to determine when to perform a healing process in the tunnel dielectric of the memory cells, and to apply a first voltage to the first current electrode of the memory cells and to apply a second voltage to the second current electrode and the control gate, during the healing process to remove trapped electrons and holes from the tunnel dielectric, such that the first voltage is sufficient to draw at least some of the trapped electrons out of the tunnel dielectric, characterised in that the logic is configured to perform the healing process after a threshold number of program and erase cycles and to perform subsequent healing processes after successively reduced numbers of program and erase cycles.
A microscope device with an objective, a light source for illuminating a sample over an illumination beam path, an arrangement (14, 18, 22, 50) for producing a flat illumination pattern which is structured in both directions of space on the sample and which has three main axes of symmetry, a surface detector for detecting light coming from the sample over one picture beam path, an arrangement for shifting the illumination pattern on the sample in a single displacement direction, as well as a control unit which is made to take one picture at a time of the light detected by the detector as phase picture in different positions of the pattern along the displacement direction and to computationally reconstruct from these phase pictures an overall structured illumination microscope picture of the illuminated sample region by solving a system of linear equations, characterized in that the displacement direction is oblique to the three main axes of symmetry (40, 40', 40", 140, 140') of the illumination pattern and has been chosen (a) such that the number of phase pictures which is necessary for the reconstruction of the SIM picture using said system of linear equations corresponds to a theoretically minimally required value for the number of Fourier orders of the illumination pattern intensity, which are recombined for the reconstruction of the SIM picture; and (b) such that a condition number associated with said system of linear equations assumes a minimum value, the condition number indicating how errors propagate in the system of equations, wherein the illumination pattern is a hexagonal point pattern and the displacement direction is chosen to be in the range from 1 to 20 degrees relative to one of the three main axes of symmetry (40, 40', 40"), and at least 7 phase pictures is the minimally required value. (a) such that the number of phase pictures which is necessary for the reconstruction of the SIM picture using said system of linear equations corresponds to a theoretically minimally required value for the number of Fourier orders of the illumination pattern intensity, which are recombined for the reconstruction of the SIM picture; and (b) such that a condition number associated with said system of linear equations assumes a minimum value, the condition number indicating how errors propagate in the system of equations, wherein the illumination pattern is a hexagonal point pattern and the displacement direction is chosen to be in the range from 1 to 20 degrees relative to one of the three main axes of symmetry (40, 40', 40"), and at least 7 phase pictures is the minimally required value.
A geared architecture for a gas turbine engine comprising: a fan shaft; a frame which supports said fan shaft, said frame defines a frame lateral stiffness (Kframe); a gear system which drives said fan shaft; a flexible support which at least partially supports said gear system; and an input coupling to said gear system, characterised in that: said flexible support defines a flexible support lateral stiffness with respect to said frame lateral stiffness (Kframe) of greater than 11% and less than 20% of said frame lateral stiffness (Kframe); and said input coupling defines an input coupling lateral stiffness with respect to said frame lateral stiffness (Kframe) of greater than 11% and less than 20% of said frame lateral stiffness (Kframe). a fan shaft; a frame which supports said fan shaft, said frame defines a frame lateral stiffness (Kframe); a gear system which drives said fan shaft; a flexible support which at least partially supports said gear system; and an input coupling to said gear system, said flexible support defines a flexible support lateral stiffness with respect to said frame lateral stiffness (Kframe) of greater than 11% and less than 20% of said frame lateral stiffness (Kframe); and said input coupling defines an input coupling lateral stiffness with respect to said frame lateral stiffness (Kframe) of greater than 11% and less than 20% of said frame lateral stiffness (Kframe).
A connector keying system comprising: a plurality of terminal posts; and a plurality of connectors each having a housing body, with a post receiving passage for receiving one said post therein, characterized in that each said housing body has at least one keying member receiving recess provided proximate a first end of the post receiving passage, wherein a projection receiving relief or recess extends from the keying receiving recess in a direction away from a bottom of the housing body that has the first end of the post receiving passage, and towards a top end of the housing body; wherein the connector keying system further comprises a plurality of keying members each configured to be positioned on one said post and maintained thereon, and configured to be received in the member receiving recess of one said connector when that connector is properly inserted onto the post; wherein each keying member has an opening which receives one said post therethrough, and a keying projection which extends about a circumference of the opening; wherein the projection receiving recess of each housing body is positioned proximate the post receiving passage and extends about a circumference of the post receiving passage, wherein spacings between the projection receiving recess and the post receiving passage of the housing bodies vary; and wherein the keying projections of the keying members extend about, but are spaced from, the circumferences of the openings at varying distances from one another, so that each keying member is configured to be received in the keying member receiving recess of a respective connector with the keying projection of the keying member aligned to cooperates with the projection receiving recess of the respective connector, allowing the respective connector to be fully mated with the post having the keying member, so as to prevent the mating of that connector onto a wrong post. a plurality of terminal posts; and a plurality of connectors each having a housing body, with a post receiving passage for receiving one said post therein,
A heat exchanger, comprising: at least one first conduit section for the flow of a first fluid in heat exchange with a second fluid in a flow path which passes the at least one first conduit section, in which each first conduit section comprises a flow path via at least one tube from an inlet to an outlet; and an intermediate header provided in the flow path between the inlet and outlet for flow communication with an intermediate fluid flow path; wherein the intermediate header comprises an outer enclosure for enclosing first fluid characterised in that the intermediate header further comprises an injector for injecting intermediate fluid flow into the outer enclosure. at least one first conduit section for the flow of a first fluid in heat exchange with a second fluid in a flow path which passes the at least one first conduit section, in which each first conduit section comprises a flow path via at least one tube from an inlet to an outlet; and an intermediate header provided in the flow path between the inlet and outlet for flow communication with an intermediate fluid flow path; wherein the intermediate header comprises an outer enclosure for enclosing first fluid characterised in that the intermediate header further comprises an injector for injecting intermediate fluid flow into the outer enclosure.
A container for transporting and storing liquid, viscous or free-flowing substances, in particular of the intermediate bulk container type, having a bottom, a sidewall and at least one outlet recess in the bottom and/or in the sidewall, in which an outlet valve is arranged or arrangeable and which is closable on the outside of the container via a cover, wherein the cover has a base portion via which the cover is fixed or fixable to the container, and a closure portion which is hinged to the base portion via a hinge assembly so as to be pivotable about an axis of rotation, such that said closure portion is transferable from a first position closing the outlet recess into a second position releasing the outlet recess, characterized in that the hinge assembly is configured to hold or lock the closure portion in the second position releasing the outlet recess in a self-supporting manner, and the base portion has a guiding rib and the container has a corresponding guiding slit in the region of the outlet recess. the cover has a base portion via which the cover is fixed or fixable to the container, and a closure portion which is hinged to the base portion via a hinge assembly so as to be pivotable about an axis of rotation, such that said closure portion is transferable from a first position closing the outlet recess into a second position releasing the outlet recess, characterized in that the hinge assembly is configured to hold or lock the closure portion in the second position releasing the outlet recess in a self-supporting manner, and the base portion has a guiding rib and the container has a corresponding guiding slit in the region of the outlet recess.
Process for producing purified phosgene vapour, comprising the steps of 1) providing a gas stream comprising phosgene and carbon monoxide, obtainable from the reaction of chlorine with carbon monoxide, 2) condensing the gas stream in one or more stages and removing uncondensable residual gases, 3) evaporating the liquid phosgene obtained in step 2) in one or more stages and optionally superheating the phosgene vapour generated, wherein there is energy integration between one or more of the condensation stages of step 2) and one or more of the evaporation stages in step 3) and the pressure in the last condensation stage is between ≥ 0.2 and ≤ 6.0 bar higher than in the first evaporation stage. 1) providing a gas stream comprising phosgene and carbon monoxide, obtainable from the reaction of chlorine with carbon monoxide, 2) condensing the gas stream in one or more stages and removing uncondensable residual gases, 3) evaporating the liquid phosgene obtained in step 2) in one or more stages and optionally superheating the phosgene vapour generated,
A multi-functional fuel nozzle for a combustion turbine engine, comprising: a nozzle cap disposed at a downstream end of the nozzle, wherein the nozzle cap comprises a bore arranged to accommodate a downstream portion of a fluid-injecting lance that extends along a longitudinal axis of the nozzle, the downstream portion of the fluid-injecting lance comprising a centrally-located atomizer to form a first atomized ejection cone, and an array of atomizers in the nozzle cap, the array of atomizers circumferentially disposed about the longitudinal axis of the lance, the array of atomizers being positioned radially outwardly relative to the centrally-located atomizer to form an array of respective second atomized ejection cones, wherein the nozzle cap further comprises a plurality of gas fuel channels circumferentially disposed about the longitudinal axis of the nozzle, the plurality of gas fuel channels being positioned radially outwardly relative to array of atomizers, wherein the nozzle cap comprises a plurality of castellations circumferentially arranged on a forward face of the nozzle cap, wherein the gas fuel channels comprise respective outlets arranged at respective top surfaces of the castellations. a nozzle cap disposed at a downstream end of the nozzle, wherein the nozzle cap comprises a bore arranged to accommodate a downstream portion of a fluid-injecting lance that extends along a longitudinal axis of the nozzle, the downstream portion of the fluid-injecting lance comprising a centrally-located atomizer to form a first atomized ejection cone, and an array of atomizers in the nozzle cap, the array of atomizers circumferentially disposed about the longitudinal axis of the lance, the array of atomizers being positioned radially outwardly relative to the centrally-located atomizer to form an array of respective second atomized ejection cones, wherein the nozzle cap further comprises a plurality of gas fuel channels circumferentially disposed about the longitudinal axis of the nozzle, the plurality of gas fuel channels being positioned radially outwardly relative to array of atomizers, wherein the nozzle cap comprises a plurality of castellations circumferentially arranged on a forward face of the nozzle cap, wherein the gas fuel channels comprise respective outlets arranged at respective top surfaces of the castellations.
A sign holder comprising a sign, where the sign is received on one arm of a rocker, where the rocker is pivotably suspended on an axle that constitutes the delineation between the two arms of the rocker, and where the rocker in its other arm is provided with a counter weight, characterised in that the axle is connected to at least one electrical generator (3a-b), that the sign holder comprises at least one battery that receives electrical power generated by the at least one electrical generator (3a-b), and that the battery is arranged on the rocker in such a way that it constitutes the counter weight.
A method of operating a wireless mesh network having a plurality of nodes (A, B, C, D, E, F, X, Y, Z) capable of transmitting and receiving messages, the method comprising the steps of: synchronizing the nodes (A, B, C, D, E, F, X, Y, Z) of the network to a global regular active schedule that defines when messages can be transmitted and received by the nodes for transmission to a gateway node considered as a data sink for all network messages transmitted toward the gateway node; the method being characterized by: locally synchronizing a transmitting node and a receiving node to a fast active schedule based upon a parameter that indicates a depth of a pending message queue in the transmitting node to send messages, wherein locally synchronizing comprises: transmitting a message containing the parameter that indicates the depth of the pending message queue in the transmitting node; and determining at the receiving node whether to operate in the fast active schedule with the transmitting node based on the parameter. locally synchronizing a transmitting node and a receiving node to a fast active schedule based upon a parameter that indicates a depth of a pending message queue in the transmitting node to send messages, wherein locally synchronizing comprises: transmitting a message containing the parameter that indicates the depth of the pending message queue in the transmitting node; and determining at the receiving node whether to operate in the fast active schedule with the transmitting node based on the parameter. transmitting a message containing the parameter that indicates the depth of the pending message queue in the transmitting node; and determining at the receiving node whether to operate in the fast active schedule with the transmitting node based on the parameter.