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Equivalence of Put Pricing Formulas


Pricing options under restricted domainNuméraire — couldn't understand the wiki explanationGil-Palaez Inversion Formula in Black Scholes worldA clarification on the Heston option pricing formulaNumerical Methods for Merton ModelCharacteristic functions for options on futuresODE Solution in Carr's Randomized American PutTrouble understanding jump part in Kou double exponential jump diffusion modelFair value of a binary cash-or-nothing option with a barrier






.everyoneloves__top-leaderboard:empty,.everyoneloves__mid-leaderboard:empty,.everyoneloves__bot-mid-leaderboard:empty margin-bottom:0;








4












$begingroup$


I have to show that:



beginequation
P_t,T(K)=e^-r(T-t) int_0^inftyleft(K-Sright)^+ q_T^S(S)dS
endequation



is equivalent to:
beginequation
P_t,T(K)=e^-r(T-t)int_-infty^Kleft(int_-infty^y q_T^S(z)dzright)dy
endequation



Breeden and Litzenberger have shown that using Leibniz integration rule and differentiating the first equation twice leads to:
beginequation
q_T^S(K)=e^rf(T-t)fracpartial^2P_t,T(K)partial K^2vert_K=S_T
endequation



However, I have difficulties to directly go from the first to the second equation in an elegant way. Does anyone have an idea how this can be achieved?



Many thanks for the help!










share|improve this question









$endgroup$


















    4












    $begingroup$


    I have to show that:



    beginequation
    P_t,T(K)=e^-r(T-t) int_0^inftyleft(K-Sright)^+ q_T^S(S)dS
    endequation



    is equivalent to:
    beginequation
    P_t,T(K)=e^-r(T-t)int_-infty^Kleft(int_-infty^y q_T^S(z)dzright)dy
    endequation



    Breeden and Litzenberger have shown that using Leibniz integration rule and differentiating the first equation twice leads to:
    beginequation
    q_T^S(K)=e^rf(T-t)fracpartial^2P_t,T(K)partial K^2vert_K=S_T
    endequation



    However, I have difficulties to directly go from the first to the second equation in an elegant way. Does anyone have an idea how this can be achieved?



    Many thanks for the help!










    share|improve this question









    $endgroup$














      4












      4








      4


      1



      $begingroup$


      I have to show that:



      beginequation
      P_t,T(K)=e^-r(T-t) int_0^inftyleft(K-Sright)^+ q_T^S(S)dS
      endequation



      is equivalent to:
      beginequation
      P_t,T(K)=e^-r(T-t)int_-infty^Kleft(int_-infty^y q_T^S(z)dzright)dy
      endequation



      Breeden and Litzenberger have shown that using Leibniz integration rule and differentiating the first equation twice leads to:
      beginequation
      q_T^S(K)=e^rf(T-t)fracpartial^2P_t,T(K)partial K^2vert_K=S_T
      endequation



      However, I have difficulties to directly go from the first to the second equation in an elegant way. Does anyone have an idea how this can be achieved?



      Many thanks for the help!










      share|improve this question









      $endgroup$




      I have to show that:



      beginequation
      P_t,T(K)=e^-r(T-t) int_0^inftyleft(K-Sright)^+ q_T^S(S)dS
      endequation



      is equivalent to:
      beginequation
      P_t,T(K)=e^-r(T-t)int_-infty^Kleft(int_-infty^y q_T^S(z)dzright)dy
      endequation



      Breeden and Litzenberger have shown that using Leibniz integration rule and differentiating the first equation twice leads to:
      beginequation
      q_T^S(K)=e^rf(T-t)fracpartial^2P_t,T(K)partial K^2vert_K=S_T
      endequation



      However, I have difficulties to directly go from the first to the second equation in an elegant way. Does anyone have an idea how this can be achieved?



      Many thanks for the help!







      options option-pricing risk-neutral-measure pricing






      share|improve this question













      share|improve this question











      share|improve this question




      share|improve this question










      asked Jun 25 at 13:26









      William BurknechtWilliam Burknecht

      505 bronze badges




      505 bronze badges




















          1 Answer
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          $begingroup$

          The first equation expresses the option price as a discounted expected value of the payoff contingent on an asset price $S geqslant 0$. Without loss of generality, we assume that the probability density function has support in $[0,infty)$, and rewrite as



          $$beginalign P_t,T(K) &=e^-r(T-t) int_-infty^inftyleft(K-Sright)^+ q_T^S(S),dS \ &= e^-r(T-t) int_-infty^Kleft(K-Sright) q_T^S(S),dS endalign $$



          Integrating by parts with $u = K-S$ and $dv = q_T^S(S),dS $, we have $du = -dS $ and



          $$v = int_-infty^S q_T^S(z) , dz,$$



          which with vanishing boundaries terms yields the result



          $$P_t,T(K) = e^-r(T-t) int_-infty^K left(int_-infty^Sq_T^S(z) , dz right) , dS$$






          share|improve this answer









          $endgroup$















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            1 Answer
            1






            active

            oldest

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            active

            oldest

            votes






            active

            oldest

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            6












            $begingroup$

            The first equation expresses the option price as a discounted expected value of the payoff contingent on an asset price $S geqslant 0$. Without loss of generality, we assume that the probability density function has support in $[0,infty)$, and rewrite as



            $$beginalign P_t,T(K) &=e^-r(T-t) int_-infty^inftyleft(K-Sright)^+ q_T^S(S),dS \ &= e^-r(T-t) int_-infty^Kleft(K-Sright) q_T^S(S),dS endalign $$



            Integrating by parts with $u = K-S$ and $dv = q_T^S(S),dS $, we have $du = -dS $ and



            $$v = int_-infty^S q_T^S(z) , dz,$$



            which with vanishing boundaries terms yields the result



            $$P_t,T(K) = e^-r(T-t) int_-infty^K left(int_-infty^Sq_T^S(z) , dz right) , dS$$






            share|improve this answer









            $endgroup$

















              6












              $begingroup$

              The first equation expresses the option price as a discounted expected value of the payoff contingent on an asset price $S geqslant 0$. Without loss of generality, we assume that the probability density function has support in $[0,infty)$, and rewrite as



              $$beginalign P_t,T(K) &=e^-r(T-t) int_-infty^inftyleft(K-Sright)^+ q_T^S(S),dS \ &= e^-r(T-t) int_-infty^Kleft(K-Sright) q_T^S(S),dS endalign $$



              Integrating by parts with $u = K-S$ and $dv = q_T^S(S),dS $, we have $du = -dS $ and



              $$v = int_-infty^S q_T^S(z) , dz,$$



              which with vanishing boundaries terms yields the result



              $$P_t,T(K) = e^-r(T-t) int_-infty^K left(int_-infty^Sq_T^S(z) , dz right) , dS$$






              share|improve this answer









              $endgroup$















                6












                6








                6





                $begingroup$

                The first equation expresses the option price as a discounted expected value of the payoff contingent on an asset price $S geqslant 0$. Without loss of generality, we assume that the probability density function has support in $[0,infty)$, and rewrite as



                $$beginalign P_t,T(K) &=e^-r(T-t) int_-infty^inftyleft(K-Sright)^+ q_T^S(S),dS \ &= e^-r(T-t) int_-infty^Kleft(K-Sright) q_T^S(S),dS endalign $$



                Integrating by parts with $u = K-S$ and $dv = q_T^S(S),dS $, we have $du = -dS $ and



                $$v = int_-infty^S q_T^S(z) , dz,$$



                which with vanishing boundaries terms yields the result



                $$P_t,T(K) = e^-r(T-t) int_-infty^K left(int_-infty^Sq_T^S(z) , dz right) , dS$$






                share|improve this answer









                $endgroup$



                The first equation expresses the option price as a discounted expected value of the payoff contingent on an asset price $S geqslant 0$. Without loss of generality, we assume that the probability density function has support in $[0,infty)$, and rewrite as



                $$beginalign P_t,T(K) &=e^-r(T-t) int_-infty^inftyleft(K-Sright)^+ q_T^S(S),dS \ &= e^-r(T-t) int_-infty^Kleft(K-Sright) q_T^S(S),dS endalign $$



                Integrating by parts with $u = K-S$ and $dv = q_T^S(S),dS $, we have $du = -dS $ and



                $$v = int_-infty^S q_T^S(z) , dz,$$



                which with vanishing boundaries terms yields the result



                $$P_t,T(K) = e^-r(T-t) int_-infty^K left(int_-infty^Sq_T^S(z) , dz right) , dS$$







                share|improve this answer












                share|improve this answer



                share|improve this answer










                answered Jun 25 at 18:31









                RRLRRL

                2,3007 silver badges13 bronze badges




                2,3007 silver badges13 bronze badges



























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