Each isotope has another half life.
The half life is different for each isotope of plutonium; name the isotope for a calculation.
The intermediate product is neptunium 237 ( a very long-lived radioisotope).
the attack and decay are two parts of a note's envelope which have an attack phase, a sustain phase, a decay then finally a release phase. the attack is how quickly the note reaches its loudest point,. take a guitar for example, when the string is plucked it is immediately at its loudest, that is the attack, the sustain is how long the note stays at its loudest point, with a guitar this depends on the strength of the pluck, a strong pluck will give a long sustain where a soft pluck will have a small sustain decay is how long the note takes to drop to go from its highest point to its release point, which is considered its quietest phase, the trail of the note when in the decay phase goes from loud to almost silent, if you look at a guitar string audio wave the decay phase is where the tail begins to get smaller. release is where the sound finally dissipates with a guitar release is immediate after decay, however with electronic synthesis, you have the option to allow a longer release allowing the note to persist for greater time.
Not by a long shot. The most radioactive isotopes will decay very rapidly and be safe in much less than 50 years (e.g. iodine-131 with a halflife of about 8 days will be gone in less than 2 months), but less radioactive isotopes will decay so slowly they can be around for hundreds of thousand of years (e.g. plutonium-239 with a halflife of 24400 years will be gone in under 200000 years) to longer than the age of the universe (e.g. uranium-238). Slightly oversimplified, the most dangerous isotopes in nuclear waste tend on average to disappear first with less dangerous isotopes persisting for longer periods.
The equation for the beta decay of 60Co is: 2760Co --> 2860Ni + -10e where the -10e is a negative beta particle or electron.
9987.3844 or 9,990
9,990 years
The half life is different for each isotope of plutonium; name the isotope for a calculation.
It will take 25.0898 minutes, approx.
One Half-Life :-)
On long term, the useful isotopes of plutonium are not renewable.
Plutonium is not used in batteries.
2014 - 1875 = 139 years
Plutonium-238 power cells were used to power cardiac pacemakers some time ago (it prevented an operation to replace the battery -- back then, batteries weren't as efficient), but nowadays, long-life lithium batteries are being used. Plutonium is toxic to the body, radioactive effects aside, so it's not used in medicine that I know of. Its half-life is somewhere in the neighborhood of 87 years, and generally you don't want something that takes that long to decay in the body.
Not plutonium, but iodine-131 !!The half life of 131I is 8,0197 days.
For plutonium (or any other radionuclide) to decay to one eighth of its original activity, it will take 3 half-lives of the material. In one half-life, half is gone. Half will be left. In another half-life, half of the half that was left is gone, and one quarter will be left. In a third half-life, half the one quarter will be left, and that's one eighth of the original. In the case of plutonium, there are a number of isotopes of this highly radioactive stuff. The isotope 239Pu, which is commonly used in nuclear weapons, has a half-life of 2.41 x 104 years. That's 24,100 years. For 239Pu to decay to 1/8 th of its original amount, it will take 3 time the half-life, which is 7.23 x 104 years, or 72,300 years. And yes, that is a long time. A very long time....
No. Pitchblende is an ore of Uranium. It's been a long time since plutonium occured in nature.