Errata

This post collects various typos etc. in my publications. If you think you see something wrong that is not listed here, please let me know so I can correct it or include it.

In [1]:

import mmf_setup;mmf_setup.nbinit()

Out[1]:

<IPython.core.display.Javascript object>

The Unitary Fermi Gas: From Monte Carlo to Density Functionals

Equation numbers correspond to the preprint arXiv:1008.3933 but match the book without the prefix. Thus (9.72a) in the preprint corresponds to (72a) in the published book Bulgac:2011.

ParseError: KaTeX parse error: Undefined control sequence: \vect at position 38: …aligned} \nu(\̲v̲e̲c̲t̲{r}) &= \frac{1…

The correct formula should have $g < 0$ for attractive interactions. In this case, $\Delta$ and $\nu$ have opposite signs:

\begin{gather} \Delta = g\nu = g_{\mathrm{eff}} \nu_c\tag{9.74} \end{gather}

\begin{gather} \mathcal{E} = \frac{\hbar^2}{m}\left(\frac{\tau_a+\tau_b}{2}\right) + \Delta^\dagger \nu\tag{9.75} \end{gather}

\begin{gather} \tau_+(k) = \tau_a(k) + \tau_b(k) \rightarrow \frac{2(m^*)^2\Delta^\dagger \Delta}{\hbar^4 k^2}, \qquad \nu(k) \rightarrow - \frac{m^*\Delta}{\hbar^2k^2}\tag{9.81} \end{gather}

and the following equation:

\frac{\hbar^2 \tau_+}{2m^*} + \Delta^\dagger \nu = \frac{\hbar^2}{m}\left(\frac{\alpha_a\tau_a}{2} +\frac{\alpha_b\tau_b}{2}\right) + g\nu^\dagger\nu

\begin{gather} \Delta = g\nu = g_{\mathrm{eff}} \nu_c\tag{9.82} \end{gather}

ParseError: KaTeX parse error: Undefined control sequence: \d at position 91: …1}{2}\int\frac{\̲d̲^3{\vect{k}}}{(…

Errata

The Unitary Fermi Gas: From Monte Carlo to Density Functionals

Product

Resources

Company