Answer:
The spin of the complex is 5.92 B.M
Explanation:
Please see the attachments below
The [Fe(H₂O)₆]³⁺ complex is a high-spin complex due to the relatively small energy required to promote an electron from the t2g to the eg orbital. As such, it is reasonable to predict that it has a high-spin state with five unpaired electrons.
The [Fe(H₂O)₆]³⁺ complex is a type of coordination complex in which the central metal atom, Fe³⁺, is surrounded by six water molecules acting as ligands. The spin state of such a complex can be determined based on the energy required to promote an electron from the t2g to the eg.
In [Fe(H₂O)₆]³⁺, the field produced by the water ligands is relatively weak, resulting in a small crystal field splitting (Aoct <P). Given that it requires less energy for the electrons to occupy the eg orbitals than to pair up, there will be an electron in each of the five 3d orbitals before any pairing occurs. Hence, for the six d electrons on the Fe³⁺ ion in [Fe(H₂O)₆]³⁺, there should be one pair (two electrons) and four unpaired electrons.
High-spin complexes are those in which the electrons tend not to pair up because the crystal field splitting is not large enough to make it energetically favorable for them to do so. Given that the [Fe(H₂O)₆]³⁺ complex falls under the categories of high-spin complexes, it is reasonable to predict that it exhibits a high-spin state with five unpaired electrons.
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Answer:
A chemical reaction is the process in which atoms present in the starting substances rearrange to give new chemical combinations present in the substances formed by the reaction. These starting substances of a chemical reaction are called the reactants, and the new substances that result are called the products.
4.289 x 10^0 can be written as a regular number by moving the decimal point to the right or left based on the exponent value. Since the exponent is 0, the decimal point does not need to be moved. Therefore, the regular number form of 4.289 x 10^0 is simply 4.289.
Explanation:
because T is const so
deltaS=Q/T=nRLn(V2/V1)
=(14/28)x8.314xLn(30/10)=4,567 J/k
Question 3 options:
34.05 amu
31.03 amu
30.02 amu
15.01 amu
Answer: 34.05
Explanation:
2N and 6H = abt 34
Answer: The value of is
Explanation:
We are given:
Initial moles of ammonia = 0.0120 moles
Initial moles of oxygen gas = 0.0170 moles
Volume of the container = 1.00 L
Concentration of a substance is calculated by:
So, concentration of ammonia =
Concentration of oxygen gas =
The given chemical equation follows:
Initial: 0.0120 0.0170
At eqllm: 0.0120-4x 0.0170-3x 2x 6x
We are given:
Equilibrium concentration of nitrogen gas =
Evaluating the value of 'x', we get:
Now, equilibrium concentration of ammonia =
Equilibrium concentration of oxygen gas =
Equilibrium concentration of water =
The expression of for the above reaction follows:
Putting values in above expression, we get:
Hence, the value of is
Zn+2 (aq) + 2e− → Zn(s) Eo=−0.763V
Answer the following questions about this cell.
Write a balanced equation for the half-reaction that happens at the cathode.
Write a balanced equation for the half-reaction that happens at the anode.
Write a balanced equation for the overall reaction that powers the cell. Be sure the reaction is spontaneous as written. Do you have enough information to calculate the cell voltage under standard conditions
Answer: The reaction is spontaneous and there is not enough information to calculate the cell voltage.
Explanation:
The substance having highest positive reduction potential will always get reduced and will undergo reduction reaction.
Oxidation reaction occurs at anode and reduction reaction occurs at cathode.
The half reactions for the cell occurring at cathode follows:
The half reactions for the cell occurring at anode follows:
( × 2)
The balanced equation for the overall reaction of the cell follows:
For the reaction to be spontaneous, the Gibbs free energy of the reaction must come out to be negative.
Relationship between standard Gibbs free energy and standard electrode potential follows:
For a reaction to be spontaneous, the standard electrode potential must be positive.
To calculate the of the reaction, we use the equation:
Putting values in above equation, we get:
As, the standard electrode potential of the cell is coming out to be positive, the reaction is spontaneous in nature.
As, the concentrations and partial pressures are not given. So, there is not enough information to calculate the cell voltage.
Hence, the reaction is spontaneous and there is not enough information to calculate the cell voltage.