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David E Speyer
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Changed to omit $\gamma=0$. Also improved some formatting.
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Joe Silverman
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Let $\Lambda$ be a unimodular lattice in R^d$\mathbb R^d$. Then there are constants such that

$$\sum_{\gamma\in \Lambda, |\gamma|<R} \frac{1}{|\gamma|^d} = c_1 \log R + c_2 + o(1)$$$$\sum_{\substack{\gamma\in \Lambda\\0<|\gamma|<R\\}} \frac{1}{|\gamma|^d} = c_1 \log R + c_2 + o(1).$$

My question is questions are: doesDoes $c_2$ depend on the lattice ? If yes, how ?

Let $\Lambda$ be a unimodular lattice in R^d. Then there are constants such that

$$\sum_{\gamma\in \Lambda, |\gamma|<R} \frac{1}{|\gamma|^d} = c_1 \log R + c_2 + o(1)$$

My question is : does $c_2$ depend on the lattice ? If yes, how ?

Let $\Lambda$ be a unimodular lattice in $\mathbb R^d$. Then there are constants such that

$$\sum_{\substack{\gamma\in \Lambda\\0<|\gamma|<R\\}} \frac{1}{|\gamma|^d} = c_1 \log R + c_2 + o(1).$$

My questions are: Does $c_2$ depend on the lattice ? If yes, how ?

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what is the equivalent of the Euler constant for higher dimensional lattices

Let $\Lambda$ be a unimodular lattice in R^d. Then there are constants such that

$$\sum_{\gamma\in \Lambda, |\gamma|<R} \frac{1}{|\gamma|^d} = c_1 \log R + c_2 + o(1)$$

My question is : does $c_2$ depend on the lattice ? If yes, how ?