12 results about "Energy transition" patented technology

The invention discloses a multi-energy cooperative control method and system with a self-adaptive disturbance discrimination function, and relates to the technical field of energy cooperative control, and the method comprises the following steps: constructing a multi-band phase fingerprint sequence based on the instantaneous voltage response of a photovoltaic array, and forming an initial energy transition baseline through extracting microsecond phase deviation tracks in different bands; and based on the initial energy transition baseline, constructing time series dynamic gradient mapping, converting the phase deviation trajectory into continuous power gradient distribution, and identifying a potential acceleration fragment in the power gradient distribution. According to the method, a high-sensitivity energy identification mechanism is constructed, pre-judgment is carried out in advance before photovoltaic output sharply rises, and power of different frequency bands is guided to enter a layered energy storage path based on a high-risk window, so that energy deposition according to needs is realized, local thermal stress concentration is avoided, and structural damage and energy storage attenuation of a heat storage body are effectively prevented; the stability and safety of electric heating are improved, and the service life of heat storage materials is prolonged.

The invention discloses an intelligent equipment remote maintenance autonomous monitoring method, and relates to the technical field of intelligent equipment operation and maintenance, and the method comprises the following steps: building a unified time baseline, deploying a zero delay bypass sampling mechanism, extracting an unsmooth energy transition track from continuously collected multi-source signals, and generating an event sequence of full time domain resolution; a transition confidence window set is constructed based on an event sequence, a pulse signal is analyzed by using a high-order cumulant, and key signal fragments are screened in combination with a sparse peak value extraction method. According to the method, a closed-loop regulation and control system driven by a unified time baseline is constructed, event sequence capture, high-order statistical analysis and time reversal intervention are fused, real-time recognition and active hedging of equipment transition energy are achieved, the fault prediction and self-healing capacity is improved, the service life of the structure is prolonged, and the operation and maintenance cost is reduced.

The present invention provides a carbon emission allowance trading system in which a carbon credit is granted according to a carbon reduction amount, the system comprising: a platform server; a vehicle owner or driver terminal for receiving carbon emission amount data from a vehicle in real time; a carbon emission amount data server for receiving, storing, and managing the carbon emission amount data received by the terminal; a blockchain server for mapping the carbon emission amount data stored and managed in the carbon emission amount data server to a blockchain network; a verification authority server for verifying carbon emission amount reduction data calculated on the basis of the carbon emission amount data; a carbon emission allowance exchange server for handling trading of a carbon emission allowance granted to a carbon reduction policy participant, on the basis of a result of the verification by the verification authority server; and a purchaser terminal for purchasing a carbon emission allowance through a carbon emission allowance exchange. According to the present invention, while carbon emission amount information is not limited to a transportation sector, but is classified into various sectors such as an energy transition sector, a building sector, and a factory sector, and is again integrally managed nationwide, carbon credits or reward certificates can be granted to carbon emission amount reduction activities, and carbon credit allowance exchanges are configured for each sector and separately managed, and can be networked so that the exchanges are linked with each other and trades are concluded during large-scale carbon emission allowance trading.

This application provides a method for constructing a thickened flame surface model for hydrogen turbulent combustion, belonging to the field of hydrogen fuel cell engine technology. Specifically, it includes: constructing a hydrogen fuel turbulent flame velocity scaling rate under wide operating conditions to model the diffusion enhancement effect and flame surface wrinkling effect caused by multi-scale turbulence, thus more accurately describing the hydrogen fuel combustion process. Furthermore, based on a thin reaction zone combustion mode, key physical quantities are extracted, the combustion efficiency function is optimized, and multi-scale turbulence and differential diffusion effects are considered to further improve the thickened flame surface model. The development of this method will provide strong technical support for realizing forward design of hydrogen fuel cell engines based on numerical simulation, promote the engineering application of hydrogen fuel cell engines, and help them play a greater role in the efficient, clean, and safe energy transition.

The invention relates to the technical field of building structure monitoring, in particular to an intelligent monitoring and safety early warning system and implementation method for an ultra-long cantilever formwork support, and the system comprises an energy transition recognition module, a delay analysis module, a risk area division module, a risk area analysis module and a real-time early warning module. According to the method, three response data of stress, displacement and vibration are collected in real time and subjected to normalization processing and weighted fusion, the overall energy value of the cantilever formwork support is obtained through calculation, dynamic capture of transient response of the structure is achieved, the defect of traditional regular collection of static data is overcome, the overall energy value is compared with a reference base value, and the overall energy value of the cantilever formwork support is obtained. According to the method, the energy transition moment of the structure state can be identified, an accurate time reference is provided for analyzing a dynamic event, further, the energy transfer delay condition is quantified by analyzing the time difference of the transition moment between different parts, and the energy transfer path and efficiency in the structure can be revealed in the mode.

According to the aromatic hydrocarbon synthesis system for coupling direct air to capture CO2 provided by the invention, the heat exchanger is arranged to realize cyclic utilization of heat energy, reduce dependence of the calcining furnace on external energy and reduce use of non-renewable energy sources (such as natural gas), so that energy transformation is promoted, and the production cost is reduced. And heat loss in the system is effectively reduced by using the heat exchanger, and the overall energy utilization efficiency is improved.

Carbon fibres (CF) combine high strength, rigidity and low density in a unique manner. On account of this combination of properties, they are considered indispensable for use in lightweight construction, a technology which is key to achieving the desired energy transition with greater climate neutrality and resource efficiency. CFs are used in particular in the mobility sector, for example in aerospace or in the automotive sector, where significant weight savings can be achieved by using CFs, thus enabling fuel consumption to be reduced. In addition, CFs are also used in other end applications, including in the rotors of wind turbines, hydrogen pressure tanks, sports equipment and medical products. Almost all CFs used in these applications are produced from polyacrylonitrile copolymer (PAN)-based precursor fibres (precursors), which together make up a market share of 96 to 98%. However, CFs based on PAN precursors (ex-PAN CF) are petroleum-based, cost-intensive and CO2-intensive to produce and, during the conversion process, cause large amounts of toxic substances such as hydrocyanic acid (~20 wt.%). Bio-based alternatives based on natural resources such as cellulose or CF produced therefrom (ex-cellulose CF) are therefore experiencing a renaissance since they do not have the disadvantages listed for PAN and, in comparison to same, potentially enable a reduction in CO2 emissions and production costs.

The present invention provides a process for using fossil fuel to produce energy with net zero carbon emissions, a CCS system and a blue carbon power station, which are engineering technology solutions of energy transition based on nature. Only natural seawater and carbon-free electricity are used. Carbon capture of deep seawater absorption and ocean carbon storage of bicarbonate ion are performed to fossil energy facilities such as coastal power station. The entire process complies with current international conventions and environmental regulations, and is friendly to marine ecological environment. It can achieve green and low-carbon transition of fossil energy facilities such as power station using gas, oil or coal at extremely low cost, and it can also be integrated with renewable energy for mutually beneficial development. It creates necessary conditions for the utilization of marine natural carbon sink on a power station scale, which is necessary to achieve the 2050 climate goal of net zero carbon emissions.

This application discloses a comprehensive scheduling optimization method based on coal-fired power, electricity-to-gas (EPG), combined heat and power (CHP), and demand response. It constructs and initializes an energy scheduling system architecture model; establishes a comprehensive objective function with the goal of minimizing the total operating cost of the energy scheduling system; and sequentially constructs dynamic models for coal-fired power units and carbon capture, EPG and carbon cycle, CHP, and energy storage systems to form thermal balance constraints. Based on the dynamic models of the CHP and energy storage systems, a two-stage optimization scheduling framework demand response model is constructed and optimized using thermal balance constraints, thereby achieving dynamic modeling and closed-loop adaptive scheduling of demand response. This application realizes the synergistic optimization of different energy systems to minimize the total system operating cost, reduce carbon emissions, and improve the flexibility and reliability of the energy system, thus supporting a more efficient and greener energy transition process.

Unfortunately, hydroelectric power plants are very rarely feasible as an energy source for private households when located on naturally flowing water. This invention changes that and makes energy from hydropower possible for many people. This is achieved by combining various time-tested technologies and utilizing some of the physical properties of water to create an artificial hydraulic height without having to supply artificial energy from the outside, such as electricity. The Archimedean displacement principle, the principle of communicating vessels, and the technology of the water-saving lock make it possible to to bring water to a certain starting level, about using a water turbine to convert its potential energy into electrical energy, and to bring it back to this initial level by adding a small amount of water in relation to the total water volume This invention enables people with larger properties or farms to obtain enough electricity for household use and heating from hydropower, and completely emission-free. By expanding the facility, neighbors can also jointly operate their somewhat larger facilities for shared use. Thus, Archimedes could become a major step towards achieving the so-called climate goals and the energy transition.

Carbon fibers (CF) uniquely combine high strength, stiffness, and low density. This combination of properties makes them indispensable for lightweight construction, a key technology on the path to the desired energy transition with greater climate neutrality and resource efficiency. CFs are used particularly in the mobility sector, for example in aerospace and automotive, where their use enables significant weight savings and thus reduces fuel consumption. Furthermore, CFs are also used in other end applications, including wind turbine rotors, hydrogen pressure tanks, sporting goods, and medical devices. Almost all CFs used in these applications are produced from polyacrylonitrile copolymer (PAN)-based precursor fibers, which together account for a market share of 96 to 98%.However, CFs based on PAN precursors (ex-PAN CF) are petroleum-based, cost- and CO2-intensive to produce, and generate large quantities of toxic substances such as hydrogen cyanide during the conversion process. 7 20 wt.%). Therefore, bio-based alternatives based on natural resources such as cellulose or CF produced from it (ex-cellulose CF) are experiencing a renaissance, as they do not have the disadvantages listed for PAN, and in comparison, potentially enable a reduction in CO2 emissions as well as production costs.

A generator set with Stirling engines supplied with thermal energy by an external body, characterized in that this external body transmits, by thermal conduction to the heat exchanger of the Stirling engines constituting the device, the energy necessary for their operation. In particular embodiments, by way of non-limiting example, a metallic external body in the shape of a hexagonal prism could supply six to eight Stirling engines equipped with electric generators, thus multiplying the total electrical production capacity by six or eight, with an energy consumption very close to that required for the operation of a single one of these engines.This device can, depending on different modes of implementation, serve as an auxiliary generator, empower individual homes, also ensure autonomy for buildings where the supply of electricity is strategic, such as hospitals or mobile hospital units, allow the charging of electric vehicles and participate in the energy transition through the production of boilers, ovens and even blast furnaces that themselves produce the energy necessary for their operation.