Question
An underlying asset (such as a stock) has a gamma of 1.00, which can be used to hedge gamma from an options position. True or
An underlying asset (such as a stock) has a gamma of 1.00, which can be used to hedge gamma from an options position.
True or False
You are a trader in S&P 500 Index options for an investment bank. Your position has the following net greeks (after multiplying the position size times the gamma per exercise price and the price multiplier): delta = 0, gamma = -$400. The S&P 500 Index is currently at $2665.
(1) if the S&P 500 Index moves to $2664, what is the new net delta of the position? (show work)
it is still zero
-$400
+$400
-$800
+$800
none of the above
(2) given your answer in 13(1) above, what offsetting transaction would you do to hedge the delta dynamically?
buy 400 shares of the S&P 500 Index
sell 800 shares of the S&P 500 Index
sell 400 shares of the S&P 500 Index
nothing, because the position is already delta-neutral
buy 800 shares of the S&P 500 Index
You are a trader in S&P 500 Index options for an investment bank. Your position has the following net greeks (after multiplying the position size times the gamma per exercise price and the price multiplier): delta = 0, gamma = +$700. The S&P 500 Index is currently at $2665.
(1) if the S&P 500 Index moves to $2666, what is the new net delta of the position? (show work)
it is still zero
-$700
+$700
-$1400
+$1400
none of the above
Given your answer in 14(1) above, what offsetting transaction would you do to hedge the delta dynamically?
buy 700 shares of the S&P 500 Index
sell 1400 shares of the S&P 500 Index
sell 700 shares of the S&P 500 Index
nothing, because the position is already delta-neutral
buy 1400 shares of the S&P 500 Index
If you no longer wanted to be long +$700 gamma, what would you try to do to hedge the gamma dynamically?
sell an extra 700 shares of the S&P 500 Index
buy an extra 700 shares of the S&P 500 Index
sell an option in a quantity such that the net gamma of that trade would equal
- $700 gamma, thereby offsetting the original +$700 gamma
d. buy an option in a quantity such that the net gamma of that trade would equal + $700 gamma, thereby offsetting the original +$700 gamma
The at-the-money option typically has the highest vega compared to in-the-money options and out-of-the-money options with the same expiration date and other variables.
True or False
You are a trader in IBM options for an investment bank. Your position is 100 of the Jan 200 calls long, and that option has the following greeks: delta = .35, gamma = 0, vega = $1.68. IBM stock is currently at $195.
(1) if you wanted to hedge the vega risk of the position, which of the following trades would help to accomplish that goal?
buy 1680 shares of IBM stock
sell any IBM options that totaled $1.68 of vega
sell 1680 shares of IBM stock
sell an IBM option with a .35 delta
none of the above
Which is not a popular method of calculating Value at Risk?
Variance-Covariance Method
Delta Normal Method
Historical Method
Monte Carlo Simulation
Casablanca Simulation
Use the table above for the following questions if necessary.
An underlying asset (such as a stock) has a gamma of 1.00, which can be used to hedge gamma from an options position.
True or False
You are a trader in S&P 500 Index options for an investment bank. Your position has the following net greeks (after multiplying the position size times the gamma per exercise price and the price multiplier): delta = 0, gamma = -$400. The S&P 500 Index is currently at $2665.
(1) if the S&P 500 Index moves to $2664, what is the new net delta of the position? (show work)
it is still zero
-$400
+$400
-$800
+$800
none of the above
(2) given your answer in 13(1) above, what offsetting transaction would you do to hedge the delta dynamically?
buy 400 shares of the S&P 500 Index
sell 800 shares of the S&P 500 Index
sell 400 shares of the S&P 500 Index
nothing, because the position is already delta-neutral
buy 800 shares of the S&P 500 Index
You are a trader in S&P 500 Index options for an investment bank. Your position has the following net greeks (after multiplying the position size times the gamma per exercise price and the price multiplier): delta = 0, gamma = +$700. The S&P 500 Index is currently at $2665.
(1) if the S&P 500 Index moves to $2666, what is the new net delta of the position? (show work)
it is still zero
-$700
+$700
-$1400
+$1400
none of the above
Given your answer in 14(1) above, what offsetting transaction would you do to hedge the delta dynamically?
buy 700 shares of the S&P 500 Index
sell 1400 shares of the S&P 500 Index
sell 700 shares of the S&P 500 Index
nothing, because the position is already delta-neutral
buy 1400 shares of the S&P 500 Index
If you no longer wanted to be long +$700 gamma, what would you try to do to hedge the gamma dynamically?
sell an extra 700 shares of the S&P 500 Index
buy an extra 700 shares of the S&P 500 Index
sell an option in a quantity such that the net gamma of that trade would equal
- $700 gamma, thereby offsetting the original +$700 gamma
d. buy an option in a quantity such that the net gamma of that trade would equal + $700 gamma, thereby offsetting the original +$700 gamma
The at-the-money option typically has the highest vega compared to in-the-money options and out-of-the-money options with the same expiration date and other variables.
True or False
You are a trader in IBM options for an investment bank. Your position is 100 of the Jan 200 calls long, and that option has the following greeks: delta = .35, gamma = 0, vega = $1.68. IBM stock is currently at $195.
(1) if you wanted to hedge the vega risk of the position, which of the following trades would help to accomplish that goal?
buy 1680 shares of IBM stock
sell any IBM options that totaled $1.68 of vega
sell 1680 shares of IBM stock
sell an IBM option with a .35 delta
none of the above
Which is not a popular method of calculating Value at Risk?
Variance-Covariance Method
Delta Normal Method
Historical Method
Monte Carlo Simulation
Casablanca Simulation
Use the table above for the following questions if necessary.
Step by Step Solution
There are 3 Steps involved in it
Step: 1
Get Instant Access with AI-Powered Solutions
See step-by-step solutions with expert insights and AI powered tools for academic success
Step: 2
Step: 3
Ace Your Homework with AI
Get the answers you need in no time with our AI-driven, step-by-step assistance
Get Started