The elements above Atomic number 86 generaly redioactive.
As atomic number represents the number of protons,above A.N 86 the elemens will be radio active in specific conditions.exception,C-13 is a radioactive isotope of carbon.
Protons basically determine what type of element you end up with. All you really have to do is add or subtract protons and you will end up with a completely different element. Also removing or adding specific numbers of neutrons can result in radioactive isotopes of that element.
To determine how many different elements are represented by the nuclei in the table, you would need to count the unique atomic numbers or symbols listed. Each element has a distinct atomic number, which corresponds to the number of protons in its nucleus. If the table includes multiple isotopes of the same element, they would still count as one element. Without the specific table provided, I can't give an exact number, but the process involves identifying and counting these unique identifiers.
To determine the number of protons in C₁₂H₂₂O₁₁ (sucrose), we need to count the protons contributed by each element. Carbon (C) has 6 protons, hydrogen (H) has 1 proton, and oxygen (O) has 8 protons. Therefore, the total number of protons is (12 × 6) + (22 × 1) + (11 × 8) = 72 + 22 + 88 = 182 protons.
Protons must collide at high speeds to overcome their electrical repulsion caused by their positive charges. The high speeds provide enough kinetic energy to bring the protons close enough together for the strong nuclear force to then overcome the electromagnetic force and bind them into deuterium.
Radioactive dumps are facilities where radioactive waste is stored or disposed of. This waste typically includes materials that have been contaminated with radioactive substances and need to be managed carefully to prevent harm to the environment and human health. Specialized methods and controls are used to handle and monitor the radioactive material in these facilities.
Heavy nuclei need to have a balanced ratio of protons to neutrons to remain stable. They also need to have the strong nuclear force between nucleons overcome the electrostatic repulsion between protons. Additionally, the nuclei need to have a sufficient binding energy to hold the nucleus together.
Yes. Alpha particles can be a product of radioactive decay, and alpha particles are simply Helium nuclei. Unless they interact with other atoms, they will tend to pick up stray electrons (they need two) and become stable 4He atoms.
Oh honey, a proton is about as radioactive as a teddy bear. Protons are stable particles found in the nucleus of an atom, not some wild emission causing havoc. So, no need to worry about those little guys causing any radioactive chaos.
Yes, its called transmutation. It is the process by which one element changes into another. This can only be done with a nuclear reaction, but alchemists once believed it might be possible, for example, to transmute lead into gold. They tried many bizarre things, but were never successful. Only nuclear reactions, such as fusion, fission, radioactive decay, etc, can induce a transmutation. Alpha decay is a kind of radioactive decay in which an alpha particle is emitted from an atom. An alpha particle consists of two protons and two neutrons. Therefore, when an atom of an element undergoes alpha decay, it loses two protons, which changes the atom from one element to another. This is because each different element is identified by the number of protons in its atomic nuclei.
3 protons are need tp produce 1ATP
Protons basically determine what type of element you end up with. All you really have to do is add or subtract protons and you will end up with a completely different element. Also removing or adding specific numbers of neutrons can result in radioactive isotopes of that element.
No. Not under normal conditions. It is true that protons within the nucleus attract each other due to the residual binding energy left over from the binding energy that holds quarks together to form protons and neutrons, but that force does not extend beyond the nucleus before the electromagnetic force, a repulsive force, would override the residual binding energy. In order to bind protons from different nuclei together, more formally, different nuclei together, you need nuclear fusion, and that requires high temperature and high pressure, first to ionize the atom and strip away the electron shells, and second to bring the nuclei close enough together that the residual binding energy can overcome the electromagnetic force.
Neutrons help stabilize the nucleus by balancing the repulsive forces between positively charged protons. The presence of neutrons adds an attractive nuclear force that overcomes the electrostatic repulsion between protons, contributing to the stability of the nucleus. Additionally, neutrons play a crucial role in preventing spontaneous decay of the nucleus by helping to balance the number of protons and neutrons in the nucleus.
To a certain extent yes. In a balanced element the number of electrons match the number of protons in the core of the element. If electrons have been added or removed (as in an ion) then you would need to know the exact number added/removed, or rebalance the element, in order to determine the specific element.
To determine how many different elements are represented by the nuclei in the table, you would need to count the unique atomic numbers or symbols listed. Each element has a distinct atomic number, which corresponds to the number of protons in its nucleus. If the table includes multiple isotopes of the same element, they would still count as one element. Without the specific table provided, I can't give an exact number, but the process involves identifying and counting these unique identifiers.
No, some radioactive materials are not solids. Most radioactive materials are solids (uranium, plutonium, isotopes of many other materials) Some radioactive materials are gases (Radon) or isotopes of gases (Tritium, carbon fourteen, etc.)
Isotopes that are unstable are prone to nuclear decay. They decay because the nuclei of the atoms of that isotope are unstable. The instability within the nuclei creates possibilities for a breakdown in the nuclear arrangement with the emission of a particle or particles and/or energy. The particular arrangement of neutrons and protons in the nucleus, i.e., the relative numbers of these nucleons, will predispose some of the isotopes to undergo spontaneous nuclear transmutation. Put another way, the neutrons and protons in a given nucleus might not like being packed in their because there isn't a "happy correlation" between the number of protons and the number of neutrons. If we take a given isotope of a given element and add, say, a neutron, it becomes another isotope. Is this new isotope stable? Does it like the new arrangement or will it be unstable and prone to decay? What if we add another neutron? How about then? How about with another neutron? Get it? It's the same if we start fooling around with the number of protons. Some isotopes of a given element are stable and some are not. There may not be any stable isotopes of a given element, like with radon. Hope this helps.