mhurhangee/ep-ind-claims huggingface dataset:
A humidity control system having: a refrigerant circuit comprising a compressor, a first heat exchanger carrying an adsorbent thereon, an expansion valve adjustable in opening and a second heat exchanger carrying an adsorbent thereon, the humidity control system being configured to supply humidity-controlled air to a room by operating alternately in a first batch mode in which the second heat exchanger adsorbs moisture in air and the first heat exchanger releases moisture to air and a second batch mode in which the first heat exchanger adsorbs moisture in air and the second heat exchanger releases moisture to air, and an opening control means configured to control the opening of the expansion valve, when a valve control start time has reached a predetermined time after the start of each of the first and second batch modes, characterized in that the opening control means is configured to keep the opening of the expansion valve at a fixed value from the start of each of the first and second batch modes until the valve control start time in each of the first and second batch modes has been reached and to control the opening of the expansion valve when the valve control start time in each of the first and second batch modes has reached so that the degree of superheat of refrigerant in the refrigerant circuit reaches a predetermined value. a refrigerant circuit comprising a compressor, a first heat exchanger carrying an adsorbent thereon, an expansion valve adjustable in opening and a second heat exchanger carrying an adsorbent thereon, the humidity control system being configured to supply humidity-controlled air to a room by operating alternately in a first batch mode in which the second heat exchanger adsorbs moisture in air and the first heat exchanger releases moisture to air and a second batch mode in which the first heat exchanger adsorbs moisture in air and the second heat exchanger releases moisture to air, and an opening control means configured to control the opening of the expansion valve, when a valve control start time has reached a predetermined time after the start of each of the first and second batch modes, characterized in that the opening control means is configured to keep the opening of the expansion valve at a fixed value from the start of each of the first and second batch modes until the valve control start time in each of the first and second batch modes has been reached and to control the opening of the expansion valve when the valve control start time in each of the first and second batch modes has reached so that the degree of superheat of refrigerant in the refrigerant circuit reaches a predetermined value.
A method for managing a number of Ethernet links of a cable connecting a first node to a second node, the first and second nodes comprising a respective media access controller (108, 308), MAC, and physical layer entity (109, 309), PHY, the method comprising: identifying a number of Ethernet links to utilize a number of channels of a cable (104, 206, 216, 306) based on a number of capabilities and a number of policies of the MACs (108, 308) and of the PHYs (109, 309) of both the first and second nodes; determining a number of Ethernet link types to be configured for the cable (104, 206, 216, 306) based on the capabilities and policies of the MACs (108, 308) and PHYs (109, 309), whereby the determining comprises determining if the communication link type is a central management or a port management; negotiating a number of parameters to allow multi-channel ports of the first and second nodes connected to the cable (104, 206, 216, 306) to establish communications through the number of Ethernet links based on the determined number of Ethernet link types and the utilized number of channels; managing the cable configuration describing the MACs (108, 308) to be supported by the number of channels within the cable based on the number of policies; and determining a length of the cable (104, 206, 216, 306) to determine the number of channels to allocate to allow the number of nodes to establish communications. identifying a number of Ethernet links to utilize a number of channels of a cable (104, 206, 216, 306) based on a number of capabilities and a number of policies of the MACs (108, 308) and of the PHYs (109, 309) of both the first and second nodes; determining a number of Ethernet link types to be configured for the cable (104, 206, 216, 306) based on the capabilities and policies of the MACs (108, 308) and PHYs (109, 309), whereby the determining comprises determining if the communication link type is a central management or a port management; negotiating a number of parameters to allow multi-channel ports of the first and second nodes connected to the cable (104, 206, 216, 306) to establish communications through the number of Ethernet links based on the determined number of Ethernet link types and the utilized number of channels; managing the cable configuration describing the MACs (108, 308) to be supported by the number of channels within the cable based on the number of policies; and determining a length of the cable (104, 206, 216, 306) to determine the number of channels to allocate to allow the number of nodes to establish communications.
Method of preparing a sample for imaging or diffraction experiments under cryogenic conditions, comprising the steps of applying a sample to an hydrophilic film on a support, in particular a grid comprising such a film on a support, and vitrifying the sample, wherein applying the sample comprises displacing a droplet of the sample from a capillary or adhering a droplet to a pin, approaching the hydrophilic film with the capillary or pin until the droplet touches the film, characterized by spreading the droplet to create a thin layer by moving the capillary or pin along the film, or vice versa, in a systematic pattern comprising parallel straight lines, concentric circles, or a spiral.
A method, comprising: receiving at a processor a first current data and at least one first past data from a database or local feedback information relating to a first pressure at a first portion of a pipeline, wherein a first valve is coupled to the first portion; receiving at the processor a second current data and at least one second past data from a database or local feedback information relating to a second pressure at a second portion of the pipeline, wherein a second valve is coupled to the second portion; receiving at the processor a third current data and at least one third past data from a database or local feedback information relating to a first status of a first pump coupled to the pipeline; receiving at the processor a fourth current data and at least one fourth past data from a database or local feedback information relating to a second status of a second pump coupled to the pipeline; automatically adjusting, via the processor, at least two of the first pump, the second pump, the first valve or the second valve, simultaneously, based on the first current data, the at least one first past data, the second current data, the at least one second past data, the third current data, the at least one third past data, the fourth current data, and the at least one fourth past data, to at least one of maintain or stabilize a flow rate of the pipeline in real time and at a future point in time. receiving at a processor a first current data and at least one first past data from a database or local feedback information relating to a first pressure at a first portion of a pipeline, wherein a first valve is coupled to the first portion; receiving at the processor a second current data and at least one second past data from a database or local feedback information relating to a second pressure at a second portion of the pipeline, wherein a second valve is coupled to the second portion; receiving at the processor a third current data and at least one third past data from a database or local feedback information relating to a first status of a first pump coupled to the pipeline; receiving at the processor a fourth current data and at least one fourth past data from a database or local feedback information relating to a second status of a second pump coupled to the pipeline; automatically adjusting, via the processor, at least two of the first pump, the second pump, the first valve or the second valve, simultaneously, based on the first current data, the at least one first past data, the second current data, the at least one second past data, the third current data, the at least one third past data, the fourth current data, and the at least one fourth past data, to at least one of maintain or stabilize a flow rate of the pipeline in real time and at a future point in time.
A HVAC system having a plurality of HVAC components, one or more terminal units and a control system, the control system comprising: a controller having a processor and a memory, the controller in signal communication with at least one of the plurality of HVAC components, the controller configured to: determine an aggregate demand of the HVAC system, wherein the aggregate demand is a total thermal heating or cooling demand required by a building or a system served by the HVAC system; determine an initial setpoint in response to the aggregate demand; determine a demand forecast in response to the aggregate demand; determine a setpoint offset in response to the demand forecast; generate an adaptive setpoint by combining the initial setpoint and the setpoint offset; and provide the adaptive setpoint to the at least one of the plurality of HVAC components; characterized in that the aggregate demand is determined by ΔT Cool = ∑ NFCooling V i ΔT i Vtot or ΔT Heat = ∑ NFHeating ViΔT i Vtot, where ΔT i = RAT SP,i - RAT i is the difference between the room/zone air temperature setpoint RAT SP,i and the measured room air temperature RAT i (with i referring to the terminal unit number), where the ΔT i are weighted according to a sizing factor Vi for each terminal unit, wherein the weighting factors Vi are one or more of a unit rated capacity, an area or a volume of a zone served by the terminal unit, or a priority measure chosen by the building owner; and wherein the Vtot measure is the sum of all the weighting factors over all the terminal units installed in the HVAC system. determine an aggregate demand of the HVAC system, wherein the aggregate demand is a total thermal heating or cooling demand required by a building or a system served by the HVAC system; determine an initial setpoint in response to the aggregate demand; determine a demand forecast in response to the aggregate demand; determine a setpoint offset in response to the demand forecast; generate an adaptive setpoint by combining the initial setpoint and the setpoint offset; and provide the adaptive setpoint to the at least one of the plurality of HVAC components; characterized in that the aggregate demand is determined by ΔT Cool = ∑ NFCooling V i ΔT i Vtot or ΔT Heat = ∑ NFHeating ViΔT i Vtot, where ΔT i = RAT SP,i - RAT i is the difference between the room/zone air temperature setpoint RAT SP,i and the measured room air temperature RAT i (with i referring to the terminal unit number), where the ΔT i are weighted according to a sizing factor Vi for each terminal unit, wherein the weighting factors Vi are one or more of a unit rated capacity, an area or a volume of a zone served by the terminal unit, or a priority measure chosen by the building owner; and wherein the Vtot measure is the sum of all the weighting factors over all the terminal units installed in the HVAC system.
A current breaker case comprising a polycarbonate resin composition that comprises a polycarbonate-polyorganosiloxane copolymer and has a viscosity-average molecular weight of 18000 to 25000, wherein the viscosity-average molecular weight means a value obtained by measuring the limiting viscosity [η] of methylene chloride at 20°C and then calculating in accordance with the Schnell's formula [η] = 1.23 × 10 -5 × Mv 0.83.
Reclosable pouring element for cardboard/plastic composite packages, in particular beverage packages, with a base element having a circumferential fastening flange as well as an external thread, with opening means arranged at least in the unopened state of the pouring element in the interior of the base element and with a screw cap with internal thread, wherein the opening means are designed such that when the composite package is initially opened by unscrewing the screw cap by breaking the composite material of the package or a barrier layer located in the base element, a pour opening is created inside the pouring element and wherein at least one tamper-evident seal is arranged between the base element and the screw cap, characterised in that an anchor ring is arranged below the screw cap and is connected to the screw cap via a hinge in a rotationally fixed manner and in that the tamper-evident seal consists of an indicating element, whose one end is fixedly connected to the anchor ring or the screw cap and in which the other end is connected to the anchor ring by means of a predetermined breaking point in such manner that the predetermined breaking point of at least one mandrel element arranged on the fastening flange is broken when the screw cap is unscrewed and thus indicates to the consumer that an initial opening has already taken place.
An aircraft fuselage nose section including a cockpit, a cabin accessible to passengers which is separated from said cockpit by a partition wall provided with a cockpit door, and separating means located on the passenger cabin side with respect to said partition wall and comprising at least one movable element, said movable element being slidingly movable between: - an extended closing position wherein said separating means bound, with said cockpit door, a transition zone between the cockpit and the passenger cabin, and prevent people from passing between the passenger cabin and said transition zone; and - a retracted opening position wherein said separating means allow people to pass between the passenger cabin and said transition zone; characterised in that said movable element extends, in the extended closing position, along the entire perimeter of the transition zone adjoining the passenger cabin. - an extended closing position wherein said separating means bound, with said cockpit door, a transition zone between the cockpit and the passenger cabin, and prevent people from passing between the passenger cabin and said transition zone; and - a retracted opening position wherein said separating means allow people to pass between the passenger cabin and said transition zone;
A device-to-device (D2D) content providing method for a device to receive the content from another device storing all or a part of the content, the method comprising steps of: at the device: creating a neighboring device list by discovering at least one connectible neighboring device; transmitting to a communication control server which is configured to register and manage information about devices participating in the D2D communication 1 and to control the transmission of content between the devices participating in the D2D communication 2: the neighboring device list and information about an available communication interface of the device, and a content possession list, which is a list of one or more contents possessed by the device; receiving identification information about one or more optimal 3 content providing device specified by the communication control server from among neighboring devices contained in the neighboring device list, based on the information about the communication interface and as a response to a request for D2D communication regarding specific content 4; and requesting the content to the one or more optimal content providing device and receiving the content from the one or more optimal content providing device. at the device: creating a neighboring device list by discovering at least one connectible neighboring device; transmitting to a communication control server which is configured to register and manage information about devices participating in the D2D communication 1 and to control the transmission of content between the devices participating in the D2D communication 2: the neighboring device list and information about an available communication interface of the device, and a content possession list, which is a list of one or more contents possessed by the device; the neighboring device list and information about an available communication interface of the device, and a content possession list, which is a list of one or more contents possessed by the device; receiving identification information about one or more optimal 3 content providing device specified by the communication control server from among neighboring devices contained in the neighboring device list, based on the information about the communication interface and as a response to a request for D2D communication regarding specific content 4; and requesting the content to the one or more optimal content providing device and receiving the content from the one or more optimal content providing device.
Method for radiographically inspecting a component by means of X-rays, where at least one component surface to be radiographed is provided with a surface structure, where at least the surface provided with the surface structure is smoothed by means of a smoothing material to level out the surface structure, with at least one organic compound and at least one metal powder being used as smoothing material, with the X-ray absorption behaviour of the smoothing material essentially equalling the X-ray absorption behaviour of the material of the component, characterized in that the smoothing material consists by 35 to 45 percent by volume of the organic compound and by 55 to 65 percent by volume of a metal powder mixture, mixed with the organic compound, where the metal powder mixture is predominantly made up of the base material of the component and an additional metal powder consisting of lead or iron.
An end fitting for a spacer assembly for fitting to a drug delivery inhaler device, said spacer assembly having a spacer body with opposing first and second axial ends, the end fitting comprising: an end panel having opposing first and second end faces; a first annular recess on the first end face for receiving the first axial end of the spacer body in a first configuration; a second annular recess on the second end face for receiving the second axial end of the spacer body in a second configuration; an open-ended tubular projection extending from the second end face, the tubular projection forming a mouthpiece in the first configuration; and an aperture extending through the end panel from the first end face to the tubular projection to provide fluid communication from within the spacer body to the mouthpiece in the first configuration and for receiving a mouthpiece of a drug delivery inhaler device and allowing fluid communication through the tubular projection into the spacer body in the second configuration.
Method for manufacturing an authenticable industrially printed material, comprising: • Generating, with a pseudo-random generator initialized with a seed key, a reference two dimensional authentication mark as a pattern of dots; • Engraving cells on a cylinder, said cells defining the mark as a function of a transparent liquid substance volume deposited in the cell, wherein the transparent liquid substance is a low viscosity liquid and is capable of solidification upon drying over the industrially printed material; • Applying the transparent liquid substance of the cylinder to the printed material, said substance modifying the reflectance of the underlying industrially printed material surface as a function of the deposited substance thickness, the substance being deposited with a first thickness in areas other than individual locations defined by the dots of the authentication mark and with a reduced or increased thickness of the first thickness to produce thickness irregularities, invisible for the naked eye at the individual locations defined by the dots. • Generating, with a pseudo-random generator initialized with a seed key, a reference two dimensional authentication mark as a pattern of dots; • Engraving cells on a cylinder, said cells defining the mark as a function of a transparent liquid substance volume deposited in the cell, wherein the transparent liquid substance is a low viscosity liquid and is capable of solidification upon drying over the industrially printed material; • Applying the transparent liquid substance of the cylinder to the printed material, said substance modifying the reflectance of the underlying industrially printed material surface as a function of the deposited substance thickness, the substance being deposited with a first thickness in areas other than individual locations defined by the dots of the authentication mark and with a reduced or increased thickness of the first thickness to produce thickness irregularities, invisible for the naked eye at the individual locations defined by the dots.
Thermoplastic polyurethane obtainable by reaction of (a) isocyanates with a (b) polyol component comprising at least one polyester diol, at least one polyether diol and at least one polycarbonate diol, each with a molecular weight in the range from 500 to 5000 g/mol, and also with (c) at least one diol having a molecular weight of 62 g/mol to 500 g/mol, wherein the polyether polyol component comprises between 20 mol% and 40 mol% of polyol component (b), the polycarbonate polyol component comprises between 40 mol% and 60 mol% of polyol component (b), the rest of polyol component (b) being formed by polyester polyol. (a) isocyanates with a (b) polyol component comprising at least one polyester diol, at least one polyether diol and at least one polycarbonate diol, each with a molecular weight in the range from 500 to 5000 g/mol, and also with (c) at least one diol having a molecular weight of 62 g/mol to 500 g/mol, wherein
Method for analyzing samples of a gas in a rotary cement kiln by means of gas sampling probes, characterized in that a first and a second gas sampling probe (1,2) are provided, wherein the first gas sampling probe is moved so as to reach a sampling position, wherein gas samples are withdrawn from the kiln and analyzed by means of the first gas sampling probe being in the sampling position, while the second gas sampling probe is kept in a retracted position and is purged, whereupon the second gas sampling probe is moved so as to reach a sampling position, and the first gas sampling probe is moved from the sampling position to the retracted position and is purged, while gas samples are withdrawn from the kiln and analyzed by means of the second gas sampling probe being in the sampling position.