The notation Rn 7s² 25f¹ 26d¹ describes an element in the Periodic Table. It indicates that the element has a filled 6p subshell (Radon, Rn) plus additional electrons in the 7s, 25f, and 26d orbitals. This corresponds to the element Copernicium (Cn), which has the atomic number 112. Copernicium is a synthetic element with very limited availability and is highly unstable.
The element with the smallest atomic radius among K (potassium), Rb (rubidium), and Rn (radon) is Rn (radon). As you move down a group in the periodic table, atomic radii increase due to the addition of electron shells. However, radon is a noble gas with a completely filled outer shell, which leads to a relatively smaller effective radius compared to the alkali metals K and Rb. Therefore, Rn has the smallest radius among the given elements.
Do mean find the polynomial given its roots ? If so the answer is (x -r1)(x-r2)...(x-rn) where r1,r2,.. rn is the given list roots.
Suppose the nth term is = arn where n = 1,2,3, ... Then the sum to the nth term is a*(rn+1 - 1)/(r - 1) or, equivalently, a*(1 - rn+1)/(1 - r)
To determine the remaining mass of Rn-222 after 19.1 days, we need to use its half-life, which is approximately 3.8 days. After 19.1 days, which is about 5 half-lives (19.1 days / 3.8 days), the remaining mass can be calculated using the formula: remaining mass = initial mass × (1/2)^(number of half-lives). Thus, the remaining mass of Rn-222 is 160 mg × (1/2)^5, which equals approximately 5 mg.
Yes. RN's can make as close as 100k a year. Think about the little overtime they do and alternate weekends, a Nurse usually paid $47 an hour comes close to $67 an hour and that is not even counting everyday work.
The noble gas configuration of francium is [Rn]7s^1, where [Rn] represents the electron configuration of radon, a noble gas element. Francium has one valence electron in the 7s orbital, making it highly reactive.
The electron configuration of einsteinium is [Rn]5f11.7s2.
The noble gas configuration for element 117 (Tennessine) is [Rn] 5f^14 6d^10 7s^2 7p^5. This means it has the same electron configuration as Radon up to its 5f electron level, followed by the filling of the 6d and 7s orbitals, and finally with 7p orbitals.
The electron configuration of hassium is: [Rn]5f14.6d6.7s2.
The noble gas notation for berkillium (Bk) is [Rn] 5f^9 7s^2. This notation indicates that berkillium has the same electron configuration as radon (Rn) for its inner electrons, followed by 5f^9 7s^2 for its valence electrons.
The noble gas notation for radium (Ra) is [Rn] 7s². This notation indicates that radium has the same electron configuration as radon (Rn), which is the nearest noble gas, followed by two additional electrons in the 7s subshell.
The electron configuration of mendelevium is [Rn]5f137s2.
The electron configuration of curium is [Rn]5f7.6d1.7s2.
The noble gas configuration for rutherfordium (Rf), which has an atomic number of 104, is [Rn] 5f^14 6d^2 7s^2. This notation indicates that rutherfordium has the electron configuration of radon (Rn) followed by the filling of the 5f, 6d, and 7s orbitals.
The correct electron configuration for mendelevium (Md), which has an atomic number of 101, is [Rn] 5f^13 7s^2. This indicates that it has 13 electrons in the 5f subshell and 2 electrons in the 7s subshell, following the radon (Rn) noble gas core.
This would be a rather large electron configuration with somehwere around 27 valence electrons.... its kind of like playing with fire stating these facts though since this elements has been discovered but not fully confirmed.
The electron configuration for hassium (Hs) is [Rn]5f146d67s2.