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Published online by Cambridge University Press: 20 November 2018
In the characterization of the range of the Radon transform, one encounters the problem of the holomorphic extension of functions defined on   ${{\mathbb{R}}^{2}}\backslash \,{{\Delta }_{\mathbb{R}}}$  (where
 ${{\mathbb{R}}^{2}}\backslash \,{{\Delta }_{\mathbb{R}}}$  (where   ${{\Delta }_{\mathbb{R}}}$  is the diagonal in
 ${{\Delta }_{\mathbb{R}}}$  is the diagonal in   ${{\mathbb{R}}^{2}}$ ) and which extend as “separately holomorphic” functions of their two arguments. In particular, these functions extend in fact to
 ${{\mathbb{R}}^{2}}$ ) and which extend as “separately holomorphic” functions of their two arguments. In particular, these functions extend in fact to   ${{\mathbb{C}}^{2}}\,\backslash \,{{\Delta }_{\mathbb{C}}}$  where
 ${{\mathbb{C}}^{2}}\,\backslash \,{{\Delta }_{\mathbb{C}}}$  where   ${{\Delta }_{\mathbb{C}}}$  is the complexification of
 ${{\Delta }_{\mathbb{C}}}$  is the complexification of   ${{\Delta }_{\mathbb{R}}}$ . We take this theorem from the integral geometry and put it in the more natural context of the
 ${{\Delta }_{\mathbb{R}}}$ . We take this theorem from the integral geometry and put it in the more natural context of the   $\text{CR}$  geometry where it accepts an easier proof and amore general statement. In this new setting it becomes a variant of the celebrated “edge of the wedge” theorem of Ajrapetyan and Henkin.
 $\text{CR}$  geometry where it accepts an easier proof and amore general statement. In this new setting it becomes a variant of the celebrated “edge of the wedge” theorem of Ajrapetyan and Henkin.