improve the effect of mixing
The function of nuclear fuel in a nuclear reactor is to undergo controlled fission reactions, releasing energy in the form of heat. This heat is used to generate steam, which drives turbines to produce electricity. The fuel typically used is uranium or plutonium.
Chemical reactions are undesirable and are not a feature of the intended reactor behaviour. The water quality in the primary circuit in a PWR or BWR must be well controlled both to avoid chemical reactions with the reactor materials (steel and zircaloy) and to avoid picking up radioactivity as far as possible. What is wanted is a reactor assembly that undergoes as little chemical reaction as possible, in order to prolong the reactor life up to 60 years. In gas cooled (that is carbon dioxide cooled) reactors as built in the UK, corrosion of steel components was a problem in the magnox type and resulted in maximum gas temperature being limited with loss of output. In the AGR all the hot end of the reactor had to be made of stainless steel to avoid corrosion.
A nuclear reactor typically includes fuel rods containing uranium or plutonium, control rods to moderate the nuclear reaction, a coolant to transfer heat away from the reactor core, a containment structure to prevent the release of radioactive materials, and a system to convert the heat produced into electricity.
Argon is an inert gas and doesn't react with other substances from the reactor.
The function of a condenser in a chemical reaction is to cool and condense vapors back into liquid form, allowing for the separation and collection of desired products or byproducts.
function of baffles is to prevent swirling in agitation.
A baffle reduces the power of the sound wave. There are baffles inside some speakers, and some theater designs incorporate baffles on the ceiling or walls to reduce sound reflections.
Baffles in reactors help to promote uniform mixing of reactants, improve heat transfer efficiency, and prevent the formation of stagnant zones within the reactor vessel. This is important for maintaining optimal reaction conditions and maximizing the conversion of reactants into products.
Residence time in a chemical reactor refers to the average time a substance stays inside the reactor. For example, if a chemical reaction takes 10 minutes to complete in a reactor with a volume of 100 liters, the residence time would be 10 minutes.
An example of residence time calculation in a chemical reactor is determining the time it takes for a reactant to completely react inside the reactor. This calculation helps in optimizing the reactor design and process efficiency.
In residence time calculation for a chemical reactor, factors such as reactor volume, flow rate of reactants, and reaction kinetics are considered. These factors help determine the time it takes for reactants to stay inside the reactor and undergo the desired chemical reactions.
The residence time in a chemical reactor system is calculated by dividing the volume of the reactor by the volumetric flow rate of the reactants. This calculation helps determine how long the reactants stay in the reactor before exiting.
Control rods are used in a reactor to control the rate at which fission happens.
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simply, the nuclear reactor is the source of heat (or steam) for the nuclear power plant.
Chemical reactor engineering is the overall discipline that uses CFD, computational fluid dynamics, as part of the necessary problem-solving data.
Peter Harriott has written: 'Chemical Reactor Design (Chemical Industries)' 'Chemical reactor design' -- subject(s): Chemical reactors, Design and construction 'The effects of porous and solid fillers on the permeability of cellulose acetate membranes'