CUET UG Applied Mathematics Booster Test 3 - Bonds, Yield and Bond Valuation
📌 Answers are locked once submitted — results and explanations appear at the end.
QUESTION 1 OF 20
In a network graph representing financial entities, if a bond is modeled as a directed edge from Node A (Lender) to Node B (Borrower), the weight of this edge when reversed at maturity represents:
QUESTION 2 OF 20
A bond specifies equal time intervals (in months) between interest payments. For four consecutive payouts, the intervals are 6, 6, 6, and 6 months. What is the 2-period moving average of these intervals?
QUESTION 3 OF 20
A company issues 100 bonds. Out of these, 40 bonds have a face value of ₹1,000 and 60 bonds have a face value of ₹2,000. What is the probability of randomly selecting a bond with face value ₹1,000?
QUESTION 4 OF 20
For a theoretical bond with infinite maturity, the present value of the redemption amount is given by
\(C(1+i)^{-n}.\)
As \(n\rightarrow \infty\), what does this expression approach?
QUESTION 5 OF 20
In a graphical interpretation, if the total area representing the face value is (F) and the area In a graphical interpretation, if the total area representing the face value is \(F\) and the area representing the market price is \(P_{0}\), where \(P_{0}<F\), what represents the discount?
QUESTION 6 OF 20
Let a scalar (k) relate market price and face value such that
\(\vec{P}_{market}=k\vec{F}_{face}.\)
For a bond selling at a premium, which condition must (k) satisfy?
QUESTION 7 OF 20
Assertion (A):
The coupon rate is calculated as the coupon payment (C) expressed as a percentage of the face value (F).
Reason (R):
The coupon rate represents the annual interest rate paid by the issuer to the bondholder.
QUESTION 8 OF 20
Arrange the steps to compute the periodic dividend payment (R):
1. Multiply the face value \(C\) by the periodic rate \(i_{d}\)
2. Identify the nominal rate of interest
3. Compute the rate per period \(i_{d}\)
4. Determine the face value \(C\)
QUESTION 9 OF 20
Match the yield types with their corresponding formulas or descriptions.
| List I | List II |
|---|---|
| 1. Coupon yield | a. Internal rate of return |
| 2. Current yield | b. ( \dfrac{C}{F} \times 100 ) |
| 3. Yield to Maturity | c. ( \dfrac{C}{P_0} \times 100 ) |
| 4. Face Value | d. Par value |
QUESTION 10 OF 20
A bond has a face value of ₹2000 and carries an 8% annual coupon rate. It is redeemable at the end of 10 years at 105% of face value. Determine the redemption value (C).
\(C=1.05\times 2000\)
QUESTION 11 OF 20
Which of the following mathematical statements is INCORRECT for a bond selling at a discount?
QUESTION 12 OF 20
When a bond sells at a premium, which of the following relations hold true?
I. Market price (>) Face value
II. Coupon yield (>) Current yield
III. Current yield (>) Yield to Maturity (YTM)
QUESTION 13 OF 20
QUESTION 14 OF 20
\(\int_{0}^{n}\,Re^{-it} dt.\)
Evaluate this integral.
QUESTION 15 OF 20
Let the payment vector be
\(\vec{u}=[R_{1},R_{2},…,R_{n}]\)
and the discount vector be
\(\vec{v}=[d_{1},d_{2},…,d_{n}].\)
The present value (P_1) of these payments is given by:
QUESTION 16 OF 20
Consider the function
\(P_{2}=C(1+i)^{-n}.\)
When plotted against continuous time (n), what is the nature of this curve?
QUESTION 17 OF 20
In a perfectly efficient market, what is the probability that a bond remains continuously overvalued for an infinite period without correction?
QUESTION 18 OF 20
The undervaluation gap (fair value − market price) for a bond over three months is ₹12, ₹15, and ₹18. What is the 3-month moving average of this gap?
QUESTION 19 OF 20
Arrange the correct sequence of steps in the relative pricing approach:
1. Determine the yield to maturity based on the bond's credit rating relative to the benchmark.
2. Identify a benchmark (usually a government security).
3. Assess the spread between the required return and the benchmark YTM.
4. Price the bond relative to this benchmark.
QUESTION 20 OF 20
A government benchmark security has a Yield to Maturity (YTM) of 5.0%. A highly rated corporate bond carries a credit spread of 1.5% over this benchmark. What is the required return (YTM) for the corporate bond?
\(Required Return=5.0\%+1.5\%=6.5\%\)
Test Complete!
Answer Review
1 In a network graph representing financial entities, if a bond is modeled as a directed edge from Node A (Lender) to Node B (Borrower), the weight of this edge when reversed at maturity represents:
The bond initially transfers funds from lender to borrower. At maturity, payments flow back to the lender. These include coupon payments and redemption of principal.
A bond represents a debt relationship where the lender provides funds to the borrower. During the bond's life: The borrower pays periodic coupon (interest) payments. At maturity, the borrower repays the redemption amount (principal). In a directed graph, reversing the direction of the financial flow at maturity represents these payments returning to the lender. Therefore, the reversed edge represents the redemption price together with periodic interest payments. Hence, Option D is correct.
- Option A: The initial loan principal.
- Incorrect because this represents the original flow from lender to borrower, not the reverse flow.
- Option B: The equity share ownership.
- Incorrect because bonds do not represent ownership.
- Option C: The depreciation schedule.
- Incorrect because depreciation has no relation to bond cash flows.
used
- Contextual/Tonal Matching
Application:
- Interpret the financial meaning of the reverse cash-flow direction in the network graph.
Final Logic:
- Reverse cash flow represents repayment of principal and coupon interest; therefore Option D.
"Reverse Edge = Money Returns."
2 A bond specifies equal time intervals (in months) between interest payments. For four consecutive payouts, the intervals are 6, 6, 6, and 6 months. What is the 2-period moving average of these intervals?
A moving average uses consecutive observations. Every interval equals 6 months. Therefore, every moving average is also 6.
A 2-period moving average is calculated by averaging two consecutive observations. For the last two intervals, (6 + 6) / 2 = 6 Since every interval is identical, every 2-period moving average equals 6 months. Hence, Option C is correct.
- Option A: 3
- Incorrect because the average of 6 and 6 is not 3.
- Option B: 12
- Incorrect because 12 is the sum, not the average.
- Option D: 0
- Incorrect because all intervals are positive.
used
- Substitution
Application:
- Substitute the last two observations into the moving-average formula.
Final Logic:
- Since
- (6 + 6) / 2 = 6
- Option C is correct.
"Equal Numbers → Same Average."
3 A company issues 100 bonds. Out of these, 40 bonds have a face value of ₹1,000 and 60 bonds have a face value of ₹2,000. What is the probability of randomly selecting a bond with face value ₹1,000?
Favorable bonds = 40. Total bonds = 100. Divide favorable outcomes by total outcomes.
The probability is P = Number of favorable bonds / Total number of bonds Substituting, P = 40 / 100 = 0.4 Therefore, the probability of selecting a ₹1,000 face-value bond is 0.04 Hence, Option B is correct.
- Option A: (0.6)
- Incorrect because it represents the probability of selecting a ₹2,000 bond.
- Option C: (0.5)
- Incorrect because the favorable outcomes are not half the total.
- Option D: (1.0)
- Incorrect because selection is not certain.
used
- Substitution
Application:
- Apply the probability formula using the given frequencies.
Final Logic:
- Since
- 40 / 100 = 0.4
- Option B is correct.
"Probability = Favorable ÷ Total."
4 For a theoretical bond with infinite maturity, the present value of the redemption amount is given by
\(C(1+i)^{-n}.\)
As \(n\rightarrow \infty\), what does this expression approach?
The discount factor decreases as (n) increases. For positive interest rates, the discount factor approaches zero. Hence, the present value of redemption tends to zero.
The present value of the redemption amount is P = C(1 + i)^(-n) where: C = Redemption value i > 0 = Interest rate n = Number of periods As n → ∞, (1 + i)^(-n) = 1/(1 + i)^n → 0 Therefore, lim(n → ∞) [C(1 + i)^(-n)] = C × 0 = 0 This means that a payment received infinitely far in the future has negligible present value. Hence, Option A is correct.
- Option B: (\infty)
- Incorrect because discounting decreases the present value over time.
- Option C: (C)
- Incorrect because the redemption amount is heavily discounted as maturity approaches infinity.
- Option D: (1)
- Incorrect because the expression approaches zero, not one.
used
- Elimination
Application:
- Apply the limit of the compound discount factor for very large values of (n).
Final Logic:
- Since
- Plain text:
- (1 + i)^(-n) → 0
- the present value also approaches zero; therefore Option A.
"Infinite Delay ⇒ Zero Present Value."
5 In a graphical interpretation, if the total area representing the face value is (F) and the area In a graphical interpretation, if the total area representing the face value is \(F\) and the area representing the market price is \(P_{0}\), where \(P_{0}<F\), what represents the discount?
Discount is the excess of face value over market price. Face value exceeds market price for a discount bond. Subtract market price from face value.
A bond sells at a discount when P₀ < F The amount of discount equals Discount = F − P₀ This represents the difference between the face value and the lower market price. Therefore, Discount = F − P₀.Hence, Option A is correct.
- Option B: (P₀ − F)
- Incorrect because it produces a negative value for a discount bond.
- Option C: (F/P₀)
- Incorrect because this is a ratio, not the discount amount.
- Option D: (F + P₀)
- Incorrect because adding the two values has no financial meaning here.
used
- Substitution
Application:
- Use the definition of discount by subtracting the market price from the face value.
Final Logic:
- Since
- Plain text:
- F > P₀,
- the discount equals
- F − P₀.
- therefore Option A.
"Discount = Face − Market."
6 Let a scalar (k) relate market price and face value such that
\(\vec{P}_{market}=k\vec{F}_{face}.\)
For a bond selling at a premium, which condition must (k) satisfy?
Premium bonds sell above face value. Therefore, market price exceeds face value. The scaling factor must be greater than one.
Given P⃗market = kF⃗face The scalar k represents the ratio k = Market Price / Face Value For a premium bond, Market Price > Face Value Therefore, k > 1. Hence, Option D is correct.
- Option A: (k=0)
- Incorrect because a bond cannot have zero market price under normal conditions.
- Option B: (k<1)
- Incorrect because this represents a discount bond.
- Option C: (k=1)
- Incorrect because this represents a bond selling at par.
used
- Elimination
Application:
- Interpret the scalar (k) as the ratio of market price to face value and compare it with premium bond conditions.
Final Logic:
- Since premium bonds satisfy
- Plain text:
- Market Price > Face Value,
- the scalar must satisfy
- k > 1.
- therefore Option D.
"Premium ⇒ Ratio Above 1."
7 Assertion (A):
The coupon rate is calculated as the coupon payment (C) expressed as a percentage of the face value (F).
Reason (R):
The coupon rate represents the annual interest rate paid by the issuer to the bondholder.
Coupon rate measures annual interest relative to face value. It is fixed when the bond is issued. Both the assertion and reason correctly describe the coupon rate.
The coupon rate is calculated as Plain text: Coupon Rate = (Annual Coupon Payment / Face Value) × 100 Equivalently, i_d = R / F where: • R = Annual coupon payment • F = Face value Thus, the coupon payment can also be written as R = F × i_d The coupon rate represents the annual interest rate promised by the issuer, expressed as a percentage of the bond's face value. Therefore, both the Assertion and the Reason are true, and the Reason correctly explains the Assertion. Hence, Option C is correct.
- Option A: Both A and R are false.
- Incorrect because both statements are correct.
- Option B: A is true, R is false.
- Incorrect because the reason correctly defines the coupon rate.
- Option D: A is false, R is true.
- Incorrect because the assertion correctly states the coupon-rate formula.
used
- Elimination
Application:
- Recall the definition and formula for the coupon rate before evaluating the assertion and reason.
Final Logic:
- Since the coupon rate equals annual coupon payment divided by face value and represents the annual interest rate, Option C is correct.
"Coupon Rate = Coupon ÷ Face Value."
8 Arrange the steps to compute the periodic dividend payment (R):
1. Multiply the face value \(C\) by the periodic rate \(i_{d}\)
2. Identify the nominal rate of interest
3. Compute the rate per period \(i_{d}\)
4. Determine the face value \(C\)
First identify the face value. Then determine the nominal interest rate. Compute the periodic rate before calculating the coupon payment.
To compute the periodic dividend (coupon payment), follow these steps: Step 1: Determine the face value (C). Step 2: Identify the nominal rate of interest. Step 3: Convert it into the periodic rate (i_d), if necessary. Step 4: Calculate the periodic payment using R = C × i_d Thus, the correct sequence is 4 → 2 → 3 → 1 Hence, Option B is correct.
- Option A: 1, 2, 3, 4
- Incorrect because multiplication cannot be performed before identifying the required quantities.
- Option C: 2, 4, 1, 3
- Incorrect because the periodic rate must be computed before multiplication.
- Option D: 3, 1, 4, 2
- Incorrect because the face value and nominal rate must be identified first.
used
- Elimination
Application:
- Arrange the computational steps in the logical order followed during coupon calculation.
Final Logic:
- Face Value → Nominal Rate → Periodic Rate → Coupon Payment; therefore Option B.
"Face → Rate → Period → Multiply."
9 Match the yield types with their corresponding formulas or descriptions.
| List I | List II |
|---|---|
| 1. Coupon yield | a. Internal rate of return |
| 2. Current yield | b. ( \dfrac{C}{F} \times 100 ) |
| 3. Yield to Maturity | c. ( \dfrac{C}{P_0} \times 100 ) |
| 4. Face Value | d. Par value |
Coupon yield is based on face value. Current yield uses market price. Yield to Maturity is the internal rate of return.
The correct matching is: • Coupon Yield = (C / F) × 100 → b • Current Yield = (C / P₀) × 100 → c • Yield to Maturity → Internal rate of return (a) • Face Value → Par value (d) Thus, the correct matching is: • (1 → b) • (2 → c) • (3 → a) • (4 → d) Hence, Option C is correct.
- Option A
- Incorrect because Coupon Yield is not the internal rate of return.
- Option B
- Incorrect because Current Yield is not the internal rate of return.
- Option D
- Incorrect because Face Value means par value, not internal rate of return.
used
- Option Grouping
Application:
- Recall the standard formulas for each type of bond yield before matching them.
Final Logic:
- Coupon → Face Value, Current → Market Price, YTM → Internal Rate of Return, Face Value → Par Value; therefore Option C.
"Coupon–Face, Current–Market, YTM–IRR."
10 A bond has a face value of ₹2000 and carries an 8% annual coupon rate. It is redeemable at the end of 10 years at 105% of face value. Determine the redemption value (C).
\(C=1.05\times 2000\)
Redemption is at 105% of face value. Multiply the face value by 1.05. The redemption value is ₹2100.
The redemption value is calculated as C = 1.05 × 2000 Thus, C = 2100. Therefore, the bondholder receives ₹2100 at maturity. Hence, Option C is correct.
- Option A: ₹2000
- Incorrect because redemption is above par (105%), not at par.
- Option B: ₹1000
- Incorrect because it is only half the face value.
- Option D: ₹1050
- Incorrect because it represents 105% of ₹1000, not ₹2000.
used
- Substitution
Application:
- Use the redemption formula directly by substituting the given face value.
Final Logic:
- Since
- 1.05 × 2000 = 2100
- Option C is correct.
"105% = 1.05 × Face Value."
11 Which of the following mathematical statements is INCORRECT for a bond selling at a discount?
Discount bonds sell below par. Their YTM is the highest yield. Hence, YTM cannot be less than current yield.
For a bond selling at a discount, the standard relationship is 1.05 × 2000 = 2100 This occurs because: Market price is below face value. Current yield exceeds the coupon yield. Yield to Maturity is highest because it includes both coupon income and capital gain at redemption. Therefore, the statement "YTM is less than the current yield" is mathematically incorrect. Hence, Option B is correct.
- Option A: Market price is less than its par value.
- Correct because this is the definition of a discount bond.
- Option C: Current yield is greater than the coupon yield.
- Correct because the lower market price increases the current yield.
- Option D:
- YTM > Current Yield > Coupon Yield
- Correct because this is the standard inequality for discount bonds.
used
- Elimination
Application:
- Recall the yield relationships for discount bonds and eliminate the correct statements.
Final Logic:
- Discount bonds always satisfy
- YTM > Current Yield
- therefore Option B is incorrect.
"Discount → YTM Highest."
12 When a bond sells at a premium, which of the following relations hold true?
I. Market price (>) Face value
II. Coupon yield (>) Current yield
III. Current yield (>) Yield to Maturity (YTM)
Premium bonds sell above face value. Coupon yield exceeds current yield. Current yield exceeds YTM.
For a premium bond: Since the market price exceeds face value Market Price > Face Value. Thus, Statement I is correct. The standard yield relationship is Coupon Yield > Current Yield > YTM. Therefore, Statement II is correct. Statement III is also correct. Hence, all three statements are true. Therefore, Option D is correct.
- Option A: I and II only.
- Incorrect because Statement III is also true.
- Option B: II and III only.
- Incorrect because Statement I is also true.
- Option C: I and III only.
- Incorrect because Statement II is also true.
used
- Elimination
Application:
- Recall the standard inequalities associated with premium bonds before checking each statement.
Final Logic:
- All three relationships hold for a premium bond; therefore Option D.
"Premium → Price High, YTM Low."
13
Bond valuation is based on present value. Future cash flows are discounted. Their sum gives the theoretical fair value.
According to the passage, a bond generates a stream of future cash flows consisting of: Periodic coupon payments, and Redemption value at maturity. Each future cash flow is discounted to its present value using an appropriate discount rate. The sum of these discounted values gives the theoretical fair value of the bond. Thus, Bond Value = PV of Coupons + PV of Redemption Value Therefore, Option D is correct.
- Option A: By compounding them to their future value.
- Incorrect because bond valuation uses discounting rather than compounding.
- Option B: By converting them into equity shares.
- Incorrect because bonds are debt instruments, not equity.
- Option C: By multiplying them with the coupon rate.
- Incorrect because coupon rate determines coupon payments but does not determine the present value.
used
- Contextual/Tonal Matching
Application:
- Identify the valuation principle emphasized in the passage.
Final Logic:
- Future cash flows are discounted to obtain present value; therefore Option D.
"Bond Value = Discount Future Cash Flows."
14
\(\int_{0}^{n}\,Re^{-it} dt.\)
Evaluate this integral.
Integrate the exponential function. Apply the limits from (0) to (n). Simplify the resulting expression.
Evaluate ∫₀ⁿ Re^(-it) dt Since R is constant, = R ∫₀ⁿ e^(-it) dt Now, ∫ e^(-it) dt = -e^(-it) / i Applying the limits, R[-e^(-it)/i]₀ⁿ = R[(1 - e^(-in))/i] Hence, ∫₀ⁿ Re^(-it) dt = R(1 - e^(-in))/i Therefore, Option A is correct.
- Option B:
- Re^(in)
- Incorrect because it is not the result of integration.
- Option C:
- R/i
- Incorrect because this would be obtained only as n → ∞.
- Option D:
- R(e^(-in) − 1)
- Incorrect because it omits the division by i and has the incorrect sign.
- Incorrect because it is missing division by (i) and has the wrong sign.
used
- Substitution
Application:
- Use the standard integral of an exponential function and apply the given limits.
Final Logic:
- Integrating Re^(-it) from 0 to n gives
- R(1 − e^(-in))/i
- therefore Option A.
"Integrate (e^{-x}) → Negative Exponential."
15 Let the payment vector be
\(\vec{u}=[R_{1},R_{2},…,R_{n}]\)
and the discount vector be
\(\vec{v}=[d_{1},d_{2},…,d_{n}].\)
The present value (P_1) of these payments is given by:
Each payment is multiplied by its discount factor. The discounted payments are added together. This is exactly the dot product of two vectors.
The present value of multiple cash flows is P₁ = R₁d₁ + R₂d₂ + ... + Rₙdₙ This expression is precisely the dot product of the payment vector and the discount vector: P₁ = u⃗ · v⃗ Therefore, Option B is correct.
- Option A: u⃗ × v⃗
- Incorrect because the cross product is defined only for three-dimensional vectors and does not represent present value.
- Option C: |u⃗| + |v⃗|
- Incorrect because adding vector magnitudes does not discount cash flows.
- Option D: u⃗ / v⃗
- Incorrect because vector division is not defined in standard vector algebra and does not represent present value.
- Incorrect because vector division is not defined in this context.
used
- Contextual/Tonal Matching
Application:
- Recognize that present value is obtained by multiplying corresponding entries and summing them.
Final Logic:
- Discounted cash flows are summed using the dot product; therefore Option B.
"PV = Dot Product."
16 Consider the function
\(P_{2}=C(1+i)^{-n}.\)
When plotted against continuous time (n), what is the nature of this curve?
The exponent is negative. As (n) increases, the present value decreases. The curve approaches zero asymptotically.
The present value of the redemption amount is P₂ = C(1 + i)^(-n) where i > 0. As n increases, (1 + i)^(-n) = 1/(1 + i)^n, which decreases exponentially toward zero. Hence, P₂ → 0 as n → ∞. Therefore, the graph is an exponential decay curve approaching the horizontal axis. Thus, Option A is correct.
- Option B: Linear growth.
- Incorrect because the function decreases exponentially rather than increasing linearly.
- Option C: A circular curve.
- Incorrect because exponential functions do not form circular graphs.
- Option D: Exponential growth approaching infinity.
- Incorrect because the negative exponent causes exponential decay.
used
- Contextual/Tonal Matching
Application:
- Recognize that a negative exponent produces exponential decay.
Final Logic:
- Since
- (1 + i)^(-n)
- decreases continuously toward zero, Option A is correct.
"Negative Exponent → Exponential Decay."
17 In a perfectly efficient market, what is the probability that a bond remains continuously overvalued for an infinite period without correction?
Efficient markets rapidly correct mispricing. Persistent overvaluation cannot continue indefinitely. Therefore, the probability is zero.
According to the Efficient Market Hypothesis (EMH), security prices quickly incorporate all available information. If a bond becomes overvalued, investors recognize the mispricing, selling pressure increases, the market price adjusts toward its intrinsic value. Hence, a bond cannot remain continuously overvalued forever in a perfectly efficient market. Therefore, the probability is Thus, Option B is correct.
- Option A: 1
- Incorrect because perpetual overvaluation contradicts market efficiency.
- Option C: 0.5
- Incorrect because no random probability applies under a perfectly efficient market assumption.
- Option D: 0.99
- Incorrect because persistent mispricing is inconsistent with the Efficient Market Hypothesis.
used
- Elimination
Application:
- Recall the assumptions of a perfectly efficient market before evaluating the options.
Final Logic:
- Efficient markets eliminate persistent overvaluation; therefore Option B.
"Efficient Market = No Permanent Mispricing."
18 The undervaluation gap (fair value − market price) for a bond over three months is ₹12, ₹15, and ₹18. What is the 3-month moving average of this gap?
Add the three monthly gaps. Divide by the number of observations. The result is ₹15.
A 3-month moving average is calculated by averaging the three observations: (12 + 15 + 18) / 3 = 45 / 3 = 15 Therefore, the average undervaluation gap is ₹15. Hence, Option C is correct.
- Option A: ₹12
- Incorrect because it represents only the first month's gap.
- Option B: ₹18
- Incorrect because it represents only the final month's gap.
- Option D: ₹16
- Incorrect because the arithmetic average equals ₹15.
used
- Substitution
Application:
- Substitute the given observations into the moving-average formula.
Final Logic:
- Since
- (12 + 15 + 18) / 3 = 15
- Option C is correct.
"Moving Average = Sum ÷ Number of Values."
19 Arrange the correct sequence of steps in the relative pricing approach:
1. Determine the yield to maturity based on the bond's credit rating relative to the benchmark.
2. Identify a benchmark (usually a government security).
3. Assess the spread between the required return and the benchmark YTM.
4. Price the bond relative to this benchmark.
First identify a benchmark security. Determine the bond's required yield. Assess the spread and then price the bond.
The relative pricing approach follows a logical sequence: Step 1: Identify a suitable benchmark security, usually a government bond with a similar maturity. Step 2: Determine the bond's Yield to Maturity (YTM) based on its credit rating relative to the benchmark. Step 3: Assess the spread between the required return and the benchmark YTM. Step 4: Use this required return to price the bond relative to the benchmark. Thus, the correct order is 2 → 1 → 3 → 4 Hence, Option D is correct.
- Option A: 1, 2, 3, 4
- Incorrect because the benchmark must be identified before determining the required yield.
- Option B: 4, 3, 2, 1
- Incorrect because pricing is the final step, not the first.
- Option C: 2, 4, 1, 3
- Incorrect because pricing cannot be done before determining the required return and spread.
used
- Elimination
Application:
- Arrange the steps according to the logical workflow used in bond valuation through relative pricing.
Final Logic:
- Benchmark → Required Yield → Spread → Pricing; therefore Option D.
"Benchmark → Yield → Spread → Price."
20 A government benchmark security has a Yield to Maturity (YTM) of 5.0%. A highly rated corporate bond carries a credit spread of 1.5% over this benchmark. What is the required return (YTM) for the corporate bond?
\(Required Return=5.0\%+1.5\%=6.5\%\)
Required return equals benchmark yield plus credit spread. Add 5.0% and 1.5%. The result is 6.5%.
The required return for a corporate bond is calculated as Required Return = Benchmark YTM + Credit Spread Substituting the given values, = 5.0% + 1.5% = 6.5% Therefore, the corporate bond should offer a Yield to Maturity of 6.5%. Hence, Option A is correct.
- Option B: 3.5%
- Incorrect because it subtracts the credit spread instead of adding it.
- Option C: 5.0%
- Incorrect because it ignores the additional risk premium.
- Option D: 7.5%
- Incorrect because the total exceeds the required return obtained from the given data.
used
- Substitution
Application:
- Apply the standard formula for required return by adding the benchmark yield and the credit spread.
Final Logic:
- Since
- 5.0% + 1.5% = 6.5%
- Option A is correct.
"Benchmark + Spread = Required Return."
