The reactor vessel in a boiling water reactor typically has a diameter of around 4.5 meters and a height of around 7 meters.

'Stirred vessel'? Not an expression I know.

The reactor vessel is the main container that houses the nuclear fuel, control rods, and coolant in a nuclear reactor. Its purpose is to contain and shield the nuclear reactions happening inside, and to provide structural support and safety for the reactor core.

The pressure vessel of a nuclear reactor contains the reactor core and helps to maintain a high pressure environment to prevent coolant water from boiling. It also serves as a barrier to contain radioactive materials and provide structural support for the reactor.

The pressure vessel in a nuclear reactor contains the reactor core and coolant, maintaining high pressure to prevent the coolant from boiling and aiding in the transfer of heat. The turbine in a nuclear reactor converts the heat energy produced by the reactor into mechanical energy, which is then used to generate electricity.

The necessary components for a nuclear reactor include the reactor core (containing fuel rods), control rods, coolant (like water or gas), moderator (to slow down neutrons), pressure vessel, steam generator, and containment structure to prevent radiation leakage. These components work together to achieve controlled nuclear fission reactions that generate heat to produce electricity.

A steam turbine/generating unit, or a naval vessel

The nuclear reactor core is the part of a nuclear power plant where fission reactions occur. Within the reactor core, nuclear fuel such as uranium undergoes controlled fission reactions, generating heat energy that is then used to produce electricity.

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.

The basic parts of a nuclear reactor include the fuel rods, control rods, moderator, coolant, reactor vessel, and containment structure. The fuel rods contain the nuclear fuel, while the control rods regulate the nuclear reactions. The moderator slows down neutrons to sustain the chain reaction, and the coolant removes heat from the reactor core. The reactor vessel houses these components, and the containment structure provides a protective barrier.

High pressure reactor is a chemical reaction vessel which can conduct a reaction under pressure. The pressure can be caused by the reaction itself or created by an external source. Reactor can be used for sample modification with hydrogen, carbon dioxide, acetylene etc.

Fuel rods in the reactor vessel are typically made of zirconium alloy tubes, which contain uranium fuel pellets inside. The zirconium alloy provides structural support, while also allowing for the efficient transfer of heat generated during the fission process.

Only the neutron bombarded and activated materials of the reactor vessel itself, which should not be a problem until decommissioning.

In the most severe reactor accident, the fuel will melt and, due to radioactive decay heat, will continue to be very hot. In fact, it will be hot enough to melt through the bottom of the reactor pressure vessel (several inches of steel), and possibly melt/burn through the concrete floor of the reactor building and get into the soil beneath the building. This is what is referred to as the China syndrome, the idea being that the molten mass of fuel is heading toward China on the other side of the earth as it melts through the vessel, concrete, and then soil and rock below the reactor building.

Making the base of a reactor vessel out of a neutron absorbing material like the control rods are made out of (like boron) would have little effect on a meltdown. The primary source of heat in a meltdown is the radioactive decay of fission fragments. This decay heat cannot be stopped by anything. It can only be carried away by a coolant of some kind. If a meltdown is severe, the molten fuel and cladding will pool on the bottom of the reactor vessel and melt through it. This will be true in a gross meltdown regardless of the material from which the reactor vessel bottom is made.

The thick steel vessel containing the reactor core helps contain and shield the radioactive materials within, protecting the environment from potential leaks. The concrete walls provide an additional layer of physical protection and help absorb radiation to further enhance safety measures. Together, these layers prevent radiation exposure and ensure the integrity of the reactor system.

A nuclear reactor is surrounded by several layers of physical barriers designed to contain and shield the reactor core. These layers typically include a reactor pressure vessel, a primary containment structure, and secondary containment buildings made of materials like steel and concrete to prevent the release of radioactive materials in case of an accident.

A nuclear reactor in a power plant is a core where controlled nuclear reactions occur to produce heat. This heat is used to generate steam, which drives a turbine to produce electricity. Nuclear reactors use uranium or other radioactive materials as fuel.

to control the radiation

No, operating nuclear reactors do not make a lot of sound. The primary sources of noise in a nuclear power plant typically come from pumps, compressors, and other mechanical equipment rather than the reactor itself. Additionally, reactor designs incorporate measures to reduce noise levels to ensure a safe and controlled operating environment.

The dimensions of a nuclear power reactor can vary depending on its design and capacity. However, as a general reference, a typical pressurized water reactor (PWR) might have a containment building around 150-200 feet tall and about 100 feet in diameter, while a boiling water reactor (BWR) might have similar dimensions but a taller primary containment. The reactor vessel itself is usually several stories tall and can be around 15-20 feet in diameter.

This question is too wide to be answered. If you mean a nuclear reactor, say so in the question. If you mean a chemical reaction vessel, say so and indicate what kind of reaction. If you mean something else, tell us what. Please submit a new question.

Keeping the cooling water separate from the water used to produce steam helps prevent contamination of the reactor core and radioactive materials. If the two systems were to mix, it could lead to potential safety hazards and radioactive leaks. Additionally, the cooling water used for the reactor vessel is operated at higher pressure and temperature compared to the water used in the turbine generators.

The part of a nuclear power plant that undergoes a fission reaction is called the reactor core. This is where the nuclear fuel, such as uranium or plutonium, is housed and where the chain reaction occurs to produce heat energy.

A meltdown at a nuclear power plant occurs when the reactor core overheats to the point where the fuel rods melt, releasing radiation into the environment. This can lead to a loss of containment and the potential for widespread contamination. Emergency measures, such as cooling the reactor and preventing the release of radioactive materials, are taken to mitigate the impact of a meltdown.

A packed bed reactor is a type of chemical reactor where a solid catalyst is packed into a tube or vessel, and reactants flow through this catalyst bed. The reaction occurs on the surface of the solid catalyst, allowing for efficient heat and mass transfer. Packed bed reactors are commonly used in industries for various catalytic reactions due to their high surface area and effectiveness in heterogeneous catalysis.

To contain the following equipment; Core (fuel), Upper and lower supporting structures, Core barrel, Control rod cluster and drives mechanisms, Incore instrumentation.

To contain the following equipment; Core (fuel), Upper and lower supporting structures, Core barrel, Control rod cluster and drives mechanisms, Incore instrumentation.

Actor, redactor.
Actor, akhtar, lacter, pachter, schachter, schlachter, tractor, compactor, detractor, ham actor, reactor, refractor,chain reactor, fast reactor, breeder reactor, character actor, fusion reactor, atomic reactor, chemical reactor, nuclear reactor, boiling water reactor, thermonuclear reactor
actor, tractor, reactor

the boiling water reactor, pressurized water reactor, and the LMFB reactor

For a PWR, how about: Pressure Vessel, Closure Head Assembly, Core Support, Inlet/Outlet Nozzles, Fuel assemblies, Control Rods and Drive Mechanisms

a completely mixed reactor. the concentration in the reactor is the same that flows our of the reactor

The nuclear reactor is built from a variety of materials, almost all of which are metals. In a pressurized water reactor, for example, a special steel alloy is used to build the reactor vessel, which is like a gigantic pressure cooker. It comes in two pieces, too, with both the vessel and the lid. The core goes inside the pressure vessel. It is the core that contains the fuel, which is enriched uranium in most cases. The fuel is welded shut inside tubes or plates. The outer material containing the fuel, the so-called cladding, is often zircaloy, an alloy with a high percentage of zirconium in it. The control rods are in there, too, and they are often made of boron. That's a brief rundown. Use links below to related questions and related posts.

A core meltdown in a nuclear reactor occurs when the fuel rods overheat and the core is damaged, leading to the release of radioactive materials. If not contained, the reactor core can breach its containment vessel, resulting in a significant release of radiation into the environment. This can have severe consequences for both human health and the environment.

A nuclear power plant generates electricity by turning turbines that turn

generators. This is no different than fossil fueled plants.

The difference in nuclear power is the source of the steam. Instead of a fossil fuel

boiler, there is a nuclear reactor that uses the power of the release of binding energy

(Strong Atomic Force) from the fissioning of (generally) Uranium-235.

There are several designs. The two primary designs are the Boiling Water Reactor (BWR)

and the Pressurized Water Reactor (PWR).

The BWR forms steam in the reactor vessel which is transported to the turbines.

The spent steam is condensed, reheated, treated, and returned to the reactor.

The PWR forms heated water in the reactor vessel which generates steam in

a separate steam generator (heat exchanger) which then is transported to the

turbines. The rest of the cycle is similar to the BWR, but the return water goes

to the steam generators instead of the reactor.

Nuclear reactor kinetics is the branch of reactor engineering and reactor physics and control that deals with long term time changes in reactor fuel and nuclear reactors.

The uranium 235 atoms in the nuclear fuel are what actually fission, or split into two other atoms. The uranium is in ceramic fuel pellets that are inserted into fuel rods, that make up fuel elements, that are in the reactor core that is located in the reactor vessel of the nuclear power plant. After the fuel has been in the reactor it begins to produce plutonium 239 atoms within the fuel which will also undergo a fission reaction.

The reactor in a nuclear power plant is typically housed within the containment building. This building is designed to provide a robust barrier to contain any potential releases of radiation in case of accidents or malfunctions.

A Nuclear Reactor.

A breeder reactor is one type of nuclear reactor, but not a type that is in general commercial use at the present time

Uranium is the fuel... moderators can be water... control rods are various substances to absorb extra neutrons some use carbon. Steel (iron) is what the reactor vessel is made of.

The amount of uranium in a nuclear reactor can vary depending on the size and type of reactor. Generally, a small reactor can contain several hundred pounds of uranium, while a larger reactor can contain several tons.

There is a reactor in Ruuppur, Pakshi

Severe overheating of a nuclear reactor core, known as a meltdown, occurs when the core loses its ability to cool down, potentially leading to fuel melting and damage to the reactor containment. It can release harmful radiation into the environment and pose serious health and safety risks. Containment measures such as cooling systems and emergency response protocols are in place to prevent and mitigate such events.

Luckily, nuclear rectors are too large to be ran over by a tow truck. However, if one did get ran over by a tow truck, nothing would happen. The containment vessel is enormously strong, and the outer structure is even stronger, so no meltdown would happen.

R. Johnson has written:

'Resolution of the reactor vessel materials toughness safety issue' -- subject(s): Safety measures, Steel, Testing, Brittleness, Design and construction, Materials, Nuclear facilities, Nuclear reactors

'Resolution of generic safety issue 29' -- subject(s): Equipment and supplies, Bolts and nuts, Fatigue, Nuclear power plants

'Radiation effects on reactor pressure vessel supports' -- subject(s): Steel, Testing, Effect of radiation on, Nuclear pressure vessels, Embrittlement

explain how a fusion reactor would be similar to a fission reaction

Air must be excluded from the reactor vessel during cracking because oxygen can react with the hydrocarbons being cracked, leading to combustion reactions that can result in thermal runaway and damage to the reactor. It can also lead to the formation of unwanted byproducts. Therefore, it is essential to maintain an inert atmosphere to ensure a controlled cracking process.

L. E. Steele has written:

'Analysis of reactor vessel radiation effects surveillance programs' -- subject(s): Effect of radiation on, Nuclear pressure vessels, Steel, Testing

Homogeneous reactor- the reactor where one phase exist for both the reactants.

Hetrogenous reactor - the reactors where more than one phase exist among the reactants gas-liquid-solid.