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(a)
Interpretation:
More stable nuclide has to be identified among the given pair.
Concept Introduction:
Nuclear stability means that the nucleus is stable meaning that it does not spontaneously emit any kind of radioactivity.
Nuclear stability can be explained based on neutron to proton ratio (N/Z) in the nucleus.
For a stable atoms having low
For a stable nucleus N/Z ratio is one and which lies in the belt of stability of graph of number of protons to number neutrons.
When an isotope is above the belt of stability, N/Z ratio is high and there exists a beta emission to decrease the stability.
General rules for predicting the nuclear stability is given below,
- If the nucleus contains 2, 8,20,50,82 or 126 protons or neutrons, then they are generally considered as stable than the nuclei that do not possess these numbers.
- If the nuclei has even number of both protons and neutrons, then they are considered as stable as those with odd number of these particles.
- All
isotopes of elements with atomic number higher than 83 are radioactive.
(b)
Interpretation:
More stable nuclide has to be identified among the given pair.
Concept Introduction:
Nuclear stability means that the nucleus is stable meaning that it does not spontaneously emit any kind of radioactivity.
Nuclear stability can be explained based on neutron to proton ratio (N/Z) in the nucleus.
For a stable atoms having low atomic number, n/p ratio is close to 1. When atomic number increases N/Z becomes greater than 1.
For a stable nucleus N/Z ratio is one and which lies in the belt of stability of graph of number of protons to number neutrons.
When an isotope is above the belt of stability, N/Z ratio is high and there exists a beta emission to decrease the stability.
General rules for predicting the nuclear stability is given below,
- If the nucleus contains 2, 8,20,50,82 or 126 protons or neutrons, then they are generally considered as stable than the nuclei that do not possess these numbers.
- If the nuclei has even number of both protons and neutrons, then they are considered as stable as those with odd number of these particles.
- All isotopes of elements with atomic number higher than 83 are radioactive.
(c)
Interpretation:
More stable nuclide has to be identified among the given pair.
Concept Introduction:
Nuclear stability means that the nucleus is stable meaning that it does not spontaneously emit any kind of radioactivity.
Nuclear stability can be explained based on neutron to proton ratio (N/Z) in the nucleus.
For a stable atoms having low atomic number, n/p ratio is close to 1. When atomic number increases N/Z becomes greater than 1.
For a stable nucleus N/Z ratio is one and which lies in the belt of stability of graph of number of protons to number neutrons.
When an isotope is above the belt of stability, N/Z ratio is high and there exists a beta emission to decrease the stability.
General rules for predicting the nuclear stability is given below,
- If the nucleus contains 2, 8,20,50,82 or 126 protons or neutrons, then they are generally considered as stable than the nuclei that do not possess these numbers.
- If the nuclei has even number of both protons and neutrons, then they are considered as stable as those with odd number of these particles.
- All isotopes of elements with atomic number higher than 83 are radioactive.
(d)
Interpretation:
More stable nuclide has to be identified among the given pair.
Concept Introduction:
Nuclear stability means that the nucleus is stable meaning that it does not spontaneously emit any kind of radioactivity.
Nuclear stability can be explained based on neutron to proton ratio (N/Z) in the nucleus.
For a stable atoms having low atomic number, n/p ratio is close to 1. When atomic number increases N/Z becomes greater than 1.
For a stable nucleus N/Z ratio is one and which lies in the belt of stability of graph of number of protons to number neutrons.
When an isotope is above the belt of stability, N/Z ratio is high and there exists a beta emission to decrease the stability.
General rules for predicting the nuclear stability is given below,
- If the nucleus contains 2, 8,20,50,82 or 126 protons or neutrons, then they are generally considered as stable than the nuclei that do not possess these numbers.
- If the nuclei has even number of both protons and neutrons, then they are considered as stable as those with odd number of these particles.
- All isotopes of elements with atomic number higher than 83 are radioactive.
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Chapter 24 Solutions
Student Study Guide for Silberberg Chemistry: The Molecular Nature of Matter and Change
- < 10:44 5GW 10 Question 7/8 Show Answer Convert 46.0 mm to inches (1 inch = 2.54 cm) 46.0 DAM STARTING AMOUNT 1 cm 1 in 46.0 mm x ☑ 10 mm 10 cm ADD FACTOR DELETE x() X × = 1.81 in = 1 10 Dam ANSWER RESET ១ 2.54 0.0460 mm 10 1000 in 0.001 11.7 m 4.60 18.1 cm 100 1.81 0.394 1 0.1 46.0 0.01 Tap here for additional resourcesarrow_forward< 10:44 Question 6/8 5GW (10 Submit A cake recipe calls for 230.0 mL of buttermilk. How 230.0 many cups is this? DAL STARTING AMOUNT × 1 cups 230.0 mL x = 0.9722 cups 230.0 mL ADD FACTOR DELETE (( ) = 1 cups 230.0 DAE ANSWER RESET ១ 9.722 × 105 0.8706 cups 8.706 × 104 1 L 8.706 × 105 0.9722 quart 10 100 mL 0.001 0.1 6.076 × 103 0.01 9.722 × 104 230.0 0.06076 4 1.0567 1000 6.076 × 104 Tap here for additional resourcesarrow_forward< 10:44 Question 6/8 5GW (10 Submit A cake recipe calls for 230.0 mL of buttermilk. How 230.0 many cups is this? DAL STARTING AMOUNT × 1 cups 230.0 mL x = 0.9722 cups 230.0 mL ADD FACTOR DELETE (( ) = 1 cups 230.0 DAE ANSWER RESET ១ 9.722 × 105 0.8706 cups 8.706 × 104 1 L 8.706 × 105 0.9722 quart 10 100 mL 0.001 0.1 6.076 × 103 0.01 9.722 × 104 230.0 0.06076 4 1.0567 1000 6.076 × 104 Tap here for additional resourcesarrow_forward
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- Can you explain this problem to me? I'm only given a PD table, so how can I determine the answer? I guess there’s a way to subtract the TI-84 EN values.arrow_forwardSapp ektiv.com Free Response Work-Aktiv Problem 2 of 35 Your Response Submit Aldehyde electrophiles generally react more quickly than ketones in nucleophilic addition reactions. Explain the difference in reactivity. Make a clear claim about these structures and the characteristics of this reaction. Briefly state the evidence and relate the evidence clearly to your explanation. Type in your prompt for the question. Click "Add Equation/Symbols" to insert symbols and expressions. 回 =Add Equation/Symbols Feb 15 9:54arrow_forwardCan you please color-code and explain how to solve this and any molecular orbital diagram given? I'm so confused; could you provide baby steps regardless of which problem type they gave me?arrow_forward
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