Skip to main content
Formatting better. And add reference author and link.
Source Link

Making connections between different areas is very exciting and probability has already made connections with other fields (BM used in proving complex analysis and PDE results).

To keep it short, I will greatly appreciate any references to multidisciplinary proofs for any of the following results:

1)Central limit theorem (simple version, Lindeberg's or Donsker's theorem)

2)Law of large numbers

3)Recurrence in d=1,2 and transience in $d>2$ of random walk.

4)Conformal and time change: if f is conformal then $f(B_{t})\stackrel{d}{=}\widetilde{B}_{\int_{0}^{t}|f'(B_{s})|^{2}ds}$ where B,$\widetilde{B}$ are planar Brownian motions.

5)Feynman-Kac formula of Brownian motion

  1. Central limit theorem (simple version, Lindeberg's or Donsker's theorem)

  2. Law of large numbers

  3. Recurrence in $d=1,2$ and transience in $d>2$ of random walk.

  4. Conformal and time change: if $f$ is conformal then $f(B_{t})\stackrel{d}{=}\widetilde{B}_{\int_{0}^{t}|f'(B_{s})|^{2}ds}$ where $B,\widetilde{B}$ are planar Brownian motions.

  5. Feynman-Kac formula of Brownian motion

The more far-fetched the proofs the better. For example, I will be surprised (and glad) to see proofs using mainly topology, number theory or algebra.

For example CLT has a very interesting approach from information theory:

"An information-theoretic proof of the central limit theorem with the Lindeberg condition", Theory of Probability and its applications"An information-theoretic proof of the central limit theorem with the Lindeberg condition". Ju. V. Linnik (Transl. by R.A. Silverman). Theory of Probability & Its Applications. 1959,. Vol IV, n oNo 3,. 288-299.

Making connections between different areas is very exciting and probability has already made connections with other fields (BM used in proving complex analysis and PDE results).

To keep it short, I will greatly appreciate any references to multidisciplinary proofs for any of the following results:

1)Central limit theorem (simple version, Lindeberg's or Donsker's theorem)

2)Law of large numbers

3)Recurrence in d=1,2 and transience in $d>2$ of random walk.

4)Conformal and time change: if f is conformal then $f(B_{t})\stackrel{d}{=}\widetilde{B}_{\int_{0}^{t}|f'(B_{s})|^{2}ds}$ where B,$\widetilde{B}$ are planar Brownian motions.

5)Feynman-Kac formula of Brownian motion

The more far-fetched the proofs the better. For example, I will be surprised (and glad) to see proofs using mainly topology, number theory or algebra.

For example CLT has a very interesting approach from information theory:

"An information-theoretic proof of the central limit theorem with the Lindeberg condition", Theory of Probability and its applications. 1959, Vol IV, n o 3, 288-299.

Making connections between different areas is very exciting and probability has already made connections with other fields (BM used in proving complex analysis and PDE results).

To keep it short, I will greatly appreciate any references to multidisciplinary proofs for any of the following results:

  1. Central limit theorem (simple version, Lindeberg's or Donsker's theorem)

  2. Law of large numbers

  3. Recurrence in $d=1,2$ and transience in $d>2$ of random walk.

  4. Conformal and time change: if $f$ is conformal then $f(B_{t})\stackrel{d}{=}\widetilde{B}_{\int_{0}^{t}|f'(B_{s})|^{2}ds}$ where $B,\widetilde{B}$ are planar Brownian motions.

  5. Feynman-Kac formula of Brownian motion

The more far-fetched the proofs the better. For example, I will be surprised (and glad) to see proofs using mainly topology, number theory or algebra.

For example CLT has a very interesting approach from information theory:

"An information-theoretic proof of the central limit theorem with the Lindeberg condition". Ju. V. Linnik (Transl. by R.A. Silverman). Theory of Probability & Its Applications. 1959. Vol IV, No 3. 288-299.

Post Made Community Wiki by Todd Trimble
added 2 characters in body
Source Link
user133100
  • 395
  • 1
  • 9

Making connections between different areas is very exciting and probability has already made connections with other fields (BM used in proving complex analysis and PDE results).

To keep it short, I will greatly appreciate any references to multidisciplinary proofs for any of the following results:

1)Central limit theorem (simple version, Lindeberg's or Donsker's theorem)

2)Law of large numbers

3)Recurrence in d=1,2 and transience in $d>2$ of random walk.

4)Conformal and time change: if f is conformal then $f(B_{t})\stackrel{d}{=}\widetilde{B}_{\int_{0}^{t}|f'(B_{s})|^{2}ds}$ where B,$\widetilde{B}$ is aare planar Brownian motionmotions.

5)Feynman-Kac formula of Brownian motion

The more far-fetched the proofs the better. For example, I will be surprised (and glad) to see proofs using mainly topology, number theory or algebra.

For example CLT has a very interesting approach from information theory:

"An information-theoretic proof of the central limit theorem with the Lindeberg condition", Theory of Probability and its applications. 1959, Vol IV, n o 3, 288-299.

Making connections between different areas is very exciting and probability has already made connections with other fields (BM used in proving complex analysis and PDE results).

To keep it short, I will greatly appreciate any references to multidisciplinary proofs for any of the following results:

1)Central limit theorem (simple version, Lindeberg's or Donsker's theorem)

2)Law of large numbers

3)Recurrence in d=1,2 and transience in $d>2$ of random walk.

4)Conformal and time change: if f is conformal then $f(B_{t})\stackrel{d}{=}\widetilde{B}_{\int_{0}^{t}|f'(B_{s})|^{2}ds}$ where $\widetilde{B}$ is a planar Brownian motion.

5)Feynman-Kac formula of Brownian motion

The more far-fetched the proofs the better. For example, I will be surprised (and glad) to see proofs using mainly topology, number theory or algebra.

For example CLT has a very interesting approach from information theory:

"An information-theoretic proof of the central limit theorem with the Lindeberg condition", Theory of Probability and its applications. 1959, Vol IV, n o 3, 288-299.

Making connections between different areas is very exciting and probability has already made connections with other fields (BM used in proving complex analysis and PDE results).

To keep it short, I will greatly appreciate any references to multidisciplinary proofs for any of the following results:

1)Central limit theorem (simple version, Lindeberg's or Donsker's theorem)

2)Law of large numbers

3)Recurrence in d=1,2 and transience in $d>2$ of random walk.

4)Conformal and time change: if f is conformal then $f(B_{t})\stackrel{d}{=}\widetilde{B}_{\int_{0}^{t}|f'(B_{s})|^{2}ds}$ where B,$\widetilde{B}$ are planar Brownian motions.

5)Feynman-Kac formula of Brownian motion

The more far-fetched the proofs the better. For example, I will be surprised (and glad) to see proofs using mainly topology, number theory or algebra.

For example CLT has a very interesting approach from information theory:

"An information-theoretic proof of the central limit theorem with the Lindeberg condition", Theory of Probability and its applications. 1959, Vol IV, n o 3, 288-299.

Source Link
user133100
  • 395
  • 1
  • 9

Proofs of main probability results from other fields

Making connections between different areas is very exciting and probability has already made connections with other fields (BM used in proving complex analysis and PDE results).

To keep it short, I will greatly appreciate any references to multidisciplinary proofs for any of the following results:

1)Central limit theorem (simple version, Lindeberg's or Donsker's theorem)

2)Law of large numbers

3)Recurrence in d=1,2 and transience in $d>2$ of random walk.

4)Conformal and time change: if f is conformal then $f(B_{t})\stackrel{d}{=}\widetilde{B}_{\int_{0}^{t}|f'(B_{s})|^{2}ds}$ where $\widetilde{B}$ is a planar Brownian motion.

5)Feynman-Kac formula of Brownian motion

The more far-fetched the proofs the better. For example, I will be surprised (and glad) to see proofs using mainly topology, number theory or algebra.

For example CLT has a very interesting approach from information theory:

"An information-theoretic proof of the central limit theorem with the Lindeberg condition", Theory of Probability and its applications. 1959, Vol IV, n o 3, 288-299.