Inside a pyrolysis reactor, organic materials are heated in the absence of oxygen to break down into smaller molecules, gases, and char. This process creates bio-oil, gases like methane and hydrogen, and solid biochar. These byproducts can be used for energy production and various industrial applications.
Boron is used inside a nuclear reactor inside a control rod which is used to 'soak' up the neutrons inside the nuclear reactor, a control rod can be used to control the rate of fission inside a nuclear reactor.
A Thorium Molten Salt Reactor is a type of nuclear reactor that uses thorium as a fuel instead of uranium. It operates at high temperatures and uses a liquid fuel mixture of molten salts. One potential advantage of this type of reactor is reduced nuclear waste production compared to traditional reactor designs.
When wood is heated, the moisture inside evaporates, causing the wood to dry out and shrink. As the temperature increases further, the wood undergoes chemical changes and eventually starts to decompose through a process called pyrolysis. This leads to the release of volatile gases and the formation of charcoal.
The chemical process that causes the production of ignitable vapors from solid wood fuels is called pyrolysis. Pyrolysis is a thermochemical decomposition of organic material at elevated temperatures in the absence of oxygen. During pyrolysis, the wood breaks down into volatile gases, which can ignite when exposed to a heat source, leading to combustion.
Argon is an inert gas and doesn't react with other substances from the reactor.
The fission happens in the fuel, which is usually in fuel rods inside the reactor. The rods are spaced at a particular distance apart and fill the reactor.
An isothermal reactor is a type of chemical reactor where the temperature inside the reactor remains constant throughout the reaction. This is typically achieved by controlling the heat exchange inside the reactor. Maintaining isothermal conditions can help improve reaction selectivity and efficiency.
Inside a nuclear reactor, controlled nuclear fission occurs. This process produces heat, which is used to generate steam. The steam then drives turbines connected to generators, producing electricity. Heat removal systems and control mechanisms are in place to regulate the reaction.
Control rods are used in a reactor to control the rate at which fission happens.
The nuclear core goes into a process known as 'meltdown' if it becomes too hot. For a reactor to reach critical temperature something serious has to malfunction, this could be a lack of water inside the reactor, pressure loss inside the reactor or no control rods inside the reactor, all of these faults could lead to severe damage to the reactor core and a possible lead to a thermal explosion(not a mushroom cloud explosion).
A reactor jacket is a protective outer covering surrounding a reactor vessel or tank. It helps to regulate the temperature inside the reactor by providing insulation and allowing for temperature control through the circulation of heating or cooling fluids. This helps to maintain optimal conditions for chemical reactions or other processes taking place inside the reactor.
Boron is used inside a nuclear reactor inside a control rod which is used to 'soak' up the neutrons inside the nuclear reactor, a control rod can be used to control the rate of fission inside a nuclear reactor.
The nuclear energy - which is a type of potential energy - gets converted to gamma rays (photons). Inside a reactor, or inside the Sun, these will soon be absorbed and converted into heat energy.
Nuclear fission occurs in the reactor core of a nuclear reactor. This is where nuclear fuel, typically uranium, is arranged in such a way that it sustains a chain reaction of splitting atoms, releasing energy in the process.
Plutonium, an element not found in nature, is formed from uranium during reactor operation
The lifespan of a kilogram of uranium inside a nuclear reactor depends on the type of reactor and its operating conditions. Typically, a kilogram of uranium in a reactor can generate energy for several years before needing to be replaced or refueled. The amount of energy generated also depends on the efficiency and design of the reactor.
One wants a reactor to have some stability, at least in the short term. Thus if something happens to increase the reactor power, in otherwise steady operation, it is desirable to have some negative feedback so that the increased temperature in the reactor will reduce its reactivity. This is called having a negative reactivity coefficient. Of course in the longer term the control rods are also used to keep the reactor at a steady power.