
Superconducting magnetic energy storage (SMES) systems in the created by the flow of in a coil that has been cooled to a temperature below its . This use of superconducting coils to store magnetic energy was invented by M. Ferrier in 1970. A typical SMES system includes three parts: superconducting , power conditioning system a. In this paper, we will deeply explore the working principle of superconducting magnetic energy storage, advantages and disadvantages, practical application scenarios and future development prospects. [pdf]
Superconducting magnetic energy storage system (SMES) is a technology that uses superconducting coils to store electromagnetic energy directly.
Superconducting magnets are the core components of the system and are able to store current as electromagnetic energy in a lossless manner. The system acts as a bridge between the superconducting magnet and the power grid and is responsible for energy exchange.
Superconducting magnet with shorted input terminals stores energy in the magnetic flux density (B) created by the flow of persistent direct current: the current remains constant due to the absence of resistance in the superconductor.
It stores energy in the magnetic field created by the flow of direct current (DC) power in a coil of superconducting material that has been cryogenically cooled. The stored energy can be released back to the network by discharging the coil.
Superconducting coils are made of superconducting materials with zero resistance at low temperatures, enabling efficient energy storage. When the system receives energy, the current creates a magnetic field in the superconducting coil that circulates continuously without loss to store electrical energy.
A SMES operating as a FACT was the first superconducting application operating in a grid. In the US, the Bonneville Power Authority used a 30 MJ SMES in the 1980s to damp the low-frequency power oscillations. This SMES operated in real grid conditions during about one year, with over 1200 hours of energy transfers.

The different kinds of thermal energy storage can be divided into three separate categories: sensible heat, latent heat, and thermo-chemical heat storage. Each of these has different advantages and disadvantages that determine their applications. storage (SHS) is the most straightforward method. It simply means the temperature of some medium is either increased or decreased. This type of storage is the most commerciall. [pdf]
Researchers from Solar Energy Institute at UPM are developing a new energy storage system in which the entry energy, either from solar energy or surplus electricity from a renewable power generation, is stored in the form of heat in molten silicon at very high temperature, around 1400 °C.
“In theory, this is the linchpin to enabling renewable energy to power the entire grid.” MIT engineers have designed a system that would store renewable energy in the form of molten, white-hot silicon, and could potentially deliver that energy to the grid on demand.
Molten salts can be employed as a thermal energy storage method to retain thermal energy. Presently, this is a commercially used technology to store the heat collected by concentrated solar power (e.g., from a solar tower or solar trough).
The new MIT storage concept taps renewable energy to produce heat, which is then stored as white-hot molten silicon. The U.S. researchers have dubbed the technology Thermal Energy Grid Storage – Multi-Junction Photovoltaics. The technology uses two large 10-meter wide graphite tanks, which are heavily insulated and filled with liquid silicon.
A novel system has been created that allows the storage energy in molten silicon which is the most abundant element in Earth's crust.
The sensible heat of molten salt is also used for storing solar energy at a high temperature, termed molten-salt technology or molten salt energy storage (MSES). Molten salts can be employed as a thermal energy storage method to retain thermal energy.

In 2009, the Chávez administration declared a national electric emergency and invested $100 billion US dollars towards solving it. The Chávez administration "distributed million-dollar contracts without bidding that enriched high officials of his government and the works were never built", according to Univision. stated that the government awarded electrical contracts to companies with little experience in the energy sector. Billions of dollars were award. [pdf]
Total energy supply (TES) includes all the energy produced in or imported to a country, minus that which is exported or stored. It represents all the energy required to supply end users in the country.
Several factors have severely hampered Venezuela's energy sector, most notably government mismanagement, international sanctions, and the country's economic crisis.
Considering that in 2016 the Venezuelan total electricity demand was around 18,300 MW there is a significant deficit of 1800 MW , . Table 2, Table 3 present some details of the current advances of the main hydro and thermoelectric on-going projects in Venezuela as well as the investments made for their development.
The Venezuelan energy framework Venezuela plays an important role in global energy markets. Along with the rest of Latin American countries, it has evidenced different stages on its energy evolution. The understanding of some relevant facts about this sector is needed to evaluate current conditions and challenges.
Venezuela's restrictive economic policies (Figure 3) have resulted in a decrease in inflation-adjusted GDP per capita, which has led to a decrease in energy consumption (Figure 4). Venezuela has the refining capacity to meet its domestic demand, but the country’s refineries are in poor condition.
The energy imbalance in Venezuela and the effects on the population. Lack of energy policy programs to introduce renewable energies. Recommendations to implement renewable energy projects. Need for an energy transition towards sustainability.
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