@@ -159,7 +159,6 @@ The excited-state 1-RDMs can be calculated as follows::
159159The 1-RDMs can be used to compute excited-state one-particle properties,
160160such as dipole moments, see the following example:
161161:source: `examples/adc/07-closed_shell_1RDMS.py `.
162- The 1-RDM functionality is currently limited, see below.
163162
164163Transition 1-RDMs between the ground and excited states are also available
165164for all methods, except EE-RADC.
@@ -275,10 +274,6 @@ Current limitations
275274
276275Some limitations of current implementation are listed below:
277276
278- * The EE-RADC code does not support calculating oscillator strengths.
279- This property can be computed using the EE-UADC code (i.e., by using
280- the UHF reference) for a closed- or open-shell molecule.
281-
282277* The EE- and IP/EA-RADC codes compute only the states of lowest spin:
283278 S = 0 (singlet) and S = 1/2 (doublet), respectively. Using the
284279 corresponding UADC code allows to compute excitations with ΔS = 0,
@@ -287,14 +282,3 @@ Some limitations of current implementation are listed below:
287282* Computing spin square expectation values is currently only available for
288283 EE-UADC.
289284
290- * The reference and excited-state 1-RDMs are not implemented for EE-RADC.
291- Also, the reference 1-RDMs are not available for any UADC method.
292-
293- * The EE-UADC(3) calculations of excited-state one-particle reduced density
294- matrices include correlation contributions up to EE-UADC(2)-X, i.e. the
295- third-order terms are missing from the singles-singles and singles-doubles
296- coupling sectors.
297-
298- * The EE-UADC(3) oscillator strengths do not include the contributions from
299- third-order amplitudes.
300-
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