17 results about "Energy plant" patented technology

A wind energy plant with a nacelle, a rotor, which features at least one rotor blade adjustable in its blade pitch angle, a central control device for controlling the wind energy plant and a control unit disposed in the rotor for controlling the blade pitch angle of the at least one rotor blade, wherein the central control device and the control unit in the rotor can exchange data with each other via a data link, which comprises at least one first sending and receiving device at the nacelle side and at least one second sending and receiving device at the rotor side, wherein a wireless network connection with a safety-oriented communication protocol is provided between the at least one first sending and receiving device and the at least one second sending and receiving device, and that one monitoring- and communication device at a time is associated to the first and / or the second sending and receiving device, which can monitor the function of the sending and receiving device and initiate a predetermined action in the case of an error.

A system for generating power with reduced or negative carbon emissions. The system includes a power plant portion having a power generation unit having an input coupled to a supply of a hydrocarbon fuel and having an energy exchange pathway. The system also includes a direct air capture (DAC) portion having a CO2 adsorption device having a CO2 adsorption material and a blower electrically coupled to the power generation unit, the blower directing a flow of air through the CO2 adsorption device in a carbon capture mode, wherein the CO2 adsorption device is coupled to and in energy communication with the energy exchange pathway for releasing adsorbed CO2 in a carbon release mode.

The invention relates to a multi-terminal arc suppression coil cooperative control method based on neutral point flexible grounding, and the method comprises the steps: a control host sends a compensation amount to a grounding transformer arc suppression coil host, and a control slave sends the compensation amount to each grounding transformer arc suppression coil slave; fault detection and phase selection; closed-loop control based on voltage; fault judgment: if the zero-sequence voltage of the system is reduced, judging that the fault is a single-phase instantaneous grounding fault; and if the zero sequence voltage of the system still exceeds 20% of the phase voltage after the injection of the neutral point current is stopped, determining that the fault is a permanent fault. A hierarchical cooperative control architecture is adopted, a master-slave mode is adopted, a control host of an arc suppression coil of a system substation serves as a master controller, a control slave of an arc suppression coil of a new energy plant station serves as slave equipment, and network plant arc suppression coil cooperative compensation is achieved through an optical fiber communication network; accurate supplement is carried out on the arc suppression coil, power frequency and active components are fully compensated, and 100% arc suppression is realized; the current injected into the neutral point of the flexible grounding device is dynamically adjusted, and the inductive and capacitive modes are automatically switched.

This disclosure provides a method, apparatus, and equipment for controlling a "lights-out" waste-to-energy plant, relating to the field of industrial automation technology. The method includes: acquiring economic parameters and operational data of the waste-to-energy plant; determining the current operational state of the waste-to-energy plant; when the current operational state is a stable waste supply, controlling the operation of the waste-to-energy plant based on the economic parameters and operational data with the objective of maximizing power generation revenue; and when the current operational state is a waste surge, controlling the operation of the waste-to-energy plant based on the economic parameters and operational data with the objective of maximizing waste processing capacity. This method can improve intelligence and automation, and increase control efficiency.

This application discloses a safety protection control device and method for an unloading gate, a waste bin, and a waste-to-energy plant. The waste bin, used in a waste-to-energy plant, has a ground-opening unloading gate installed on one side, which is opened and closed by a hydraulic cylinder. It includes two movable door protective covers, with a door body slidably connected inside each cover. A drive chamber is installed inside each cover, containing a servo motor and a ball screw. Two human body sensors are fixedly installed on the surfaces of the two movable door protective covers, and laser sensors are fixedly installed on the bottom and side surfaces of both covers. A vehicle sensor is fixedly installed on the protruding edge of the waste bin. By setting up an intelligent control device, the coordinated operation of the human body sensors, vehicle sensors, and laser sensors can accurately identify the status of the unloading vehicle, avoiding ineffective opening or closing of the gate due to misjudgment.

The present application relates to the field of environmental protection equipment, especially a biomass energy equipment with carbon capture and storage, comprising an absorbent storage unit, an adaptive capture unit arranged on one side of the absorbent storage unit, a rich liquid pump arranged on one side of the adaptive capture unit, a rich liquid preheating unit arranged on one side of the rich liquid pump, a carbon dioxide desorption unit arranged on one side of the rich liquid preheating unit, and a multi-stage compressor arranged on one side of the carbon dioxide desorption unit, wherein the present application establishes an energy consumption model based on the detection data of the carbon dioxide concentration sensor and the gas flow rate sensor, dynamically adjusts the ammonia solution circulation amount and the heat input of the reboiler, realizes on-demand capture and energy optimization, and avoids unnecessary energy consumption caused by excessive capture; the lean liquid is introduced into the heat exchanger body to exchange waste heat with the rich liquid, preheats the rich liquid, and improves the energy utilization rate of the device.

A system for generating power with reduced or negative carbon emissions includes a power plant portion having a power generation unit including a solid oxide fuel cell (SOFC) system. The SOFC system includes a SOFC fuel cell reactor and a combustor having an energy exchange pathway. The combustor is coupled to the fuel cell reactor to combust unutilized fuel. The system also includes a direct air capture (DAC) portion having a carbon dioxide (CO2) adsorption device having a CO2 adsorption material and a ventilator electrically coupled to the generator for flowing ambient air through the CO2 adsorption device in a carbon capture mode. The CO2 adsorption device is coupled to and in energy communication with the energy exchange pathway for releasing adsorbed CO2 in a carbon release mode.

The invention relates to the technical field of sewage treatment, in particular to a waste water zero discharge treatment control method and device for a waste incineration power plant, the waste water zero discharge treatment control device for the waste incineration power plant comprises a flotation tank, and the flotation tank is an annular area. The annular flotation tank is arranged, the water inlet area, the reaction area, the air flotation contact area and the separation area are arranged at intervals from inside to outside, and the straight line where the water flow direction of wastewater flowing into the separation area from the air flotation contact area is located is inclined to the radial line of the flotation tank, so that the wastewater has tangential force after flowing into the separation area; according to the air-flotation slag removal device, waste water in the separation area and scum floating above the liquid level rotate in the circumferential direction at the same time, the scum above the liquid level is thrown into the slag collection area under the action of centrifugal force, therefore, separation of the scum and the waste water is achieved, in the whole air-flotation slag removal process, due to the fact that a scraping plate does not need to be used for scraping the scum, additional machine halt for scum removal is not needed, and the cost is reduced. Therefore, the foam scraping efficiency can be improved.

This utility model relates to the field of new energy power plant technology, specifically a miniature lens adjustment structure for an ultraviolet imager in a new energy power plant. The structure includes a miniature lens adjustment unit, which comprises a mounting part, an air pump, and a mounting base. Positioning sleeves corresponding to the mounting part are respectively arranged around the mounting base. A first L-shaped support arm, a second L-shaped support arm, and a mounting plate are sequentially arranged on the top of the mounting base. A first servo reduction motor is installed in the center of the mounting base. The miniature lens adjustment unit provides a lens adjustment assembly for the detection lens of the ultraviolet imager used in new energy power plants, enabling adjustment of the lens's shooting angle and quick installation and removal of the adjustment mechanism. This increases the flexibility of the ultraviolet imager lens in the new energy power plant environment, improves the efficiency of installation and disassembly of the adjustment equipment, and enhances the ease of use of the ultraviolet imager lens.

The invention relates to a method for monitoring the state of a wind turbine (1) by evaluating vibrations of at least one rotor blade (6) of a rotor (4) of the wind turbine (1). The method comprises the following steps: detecting vibrations of the at least one rotor blade (6) by means of at least one vibration sensor arranged in or on the rotor blade (6); detecting at least one acceleration value and / or rotation rate value at at least one position of an acceleration sensor (11, 21) and / or a gyroscope sensor (12, 22) arranged in or on the rotor blade (6); determining an operating state of the rotor (4) and / or the rotor blades (6) as a function of the at least one acceleration value and / or rotation rate value; and analyzing the vibrations of the at least one rotor blade (6) taking into account the operating state of the rotor (4) and / or of the rotor blade (6). The invention further relates to a device for monitoring the state of a wind turbine (1), comprising at least one vibration sensor arranged in or on at least one rotor blade (6) of the wind turbine (1) for detecting vibrations of the at least one rotor blade (6). The device is characterized in that acceleration sensors (11, 21) and / or gyroscopic sensors (12, 22) are arranged in or on the rotor blade (6), and in that an evaluation device is provided for carrying out such a method for evaluating the detected vibrations.

This invention provides a method for detecting carbon emission concentration during waste incineration. By detecting the oxygen concentration data in the flue gas after waste combustion and combining this data with the properties of the waste fed into the furnace, carbon emission data during the waste incineration process can be obtained. For current waste-to-energy plants, monitoring the oxygen concentration in the flue gas is an existing detection item. Therefore, this method can indirectly detect carbon emission data during waste incineration without the need for additional detection equipment, demonstrating high feasibility and practicality.

This invention relates to the field of waste treatment technology and discloses a dredging device for leachate grating in a waste-to-energy plant. The device includes a base, a lower frame fixedly connected to the top of the base, and a support assembly fixedly connected to the top of the lower frame. The support assembly is used to fix the dredging device as a whole within the leachate channel of the waste storage area. A connecting plate is installed on the top of the lower frame, a connecting seat is fixedly connected to the top of the connecting plate, and a lifting mechanism is fixedly connected to the top of the connecting plate. An upper frame is threadedly connected to the lifting mechanism, and a guide plate is fixedly connected to the inner side of the upper frame. By adding a second explosion-proof motor-driven cam transmission to the top of the dredging push rod, the sleeve and telescopic rod slide and vibrate, shaking off attached waste. Combined with a first spring buffer, this solves the problems of material snagging on the push rod, incomplete dredging, and jamming, improving dredging cleanliness, operational efficiency, enhancing equipment operational stability, and reducing mechanism wear.