Under the squared error loss plus linear cost of sampling, we revisit the minimum risk point estimation (MRPE) problem for an unknown normal mean when the variance 2 also remains unknown. We begin by defining a new class of purely sequential MRPE methodologies based on a general estimator W n for satisfying a set of conditions in proposing the requisite stopping boundary. Under such appropriate set of sufficient conditions on W n and a properly constructed associated stopping variable, we show that (i) the normalized stopping time converges in law to a normal distribution (Theorem 3.3), and (ii) the square of such a normalized stopping time is uniformly integrable (Theorem 3.4). These results subsequently lead to an asymptotic second-order expansion of the associated regret function in general (Theorem 4.1). After such general considerations, we include a number of substantial illustrations where we respectively substitute appropriate multiples of Gini's mean difference and the mean absolute deviation in the place of the general estimator W n . These illustrations show a number of desirable asymptotic first-order and secondorder properties under the resulting purely sequential MRPE strategies. We end this discourse by highlighting selected summaries obtained via simulations.