Abstract:Recently a lot of papers have been devoted to partial infinite reciprocal sums of a higher-order linear recursive sequence. In this paper, we continue this program by finding a sequence which is asymptotically equivalent to partial infinite sums, including a reciprocal of polynomial applied to linear higher order recurrences.
“…For more the nearest integer of the sums of reciprocal of the recurrence sequence studies, see [18][19][20][21]. Specifically, in [19], Trojorský considered finding a sequence that is "asymptotically equivalent" to partial infinite sums and proved that…”
Section: Introductionmentioning
confidence: 99%
“…Inspired by [19], in this paper, we apply a different research method from the previous one and use the properties of error estimation and the analytic method to study the reciprocal products of {f n }, {l n } and {u n }. We derive some sequences that are asymptotically equivalent to reciprocal products including {f n }, {l n } and {u n }.…”
In this paper, we use the properties of error estimation and the analytic method to study the reciprocal products of the bi-periodic Fibonacci sequence, the bi-periodic Lucas sequence, and the mth-order linear recursive sequence.
“…For more the nearest integer of the sums of reciprocal of the recurrence sequence studies, see [18][19][20][21]. Specifically, in [19], Trojorský considered finding a sequence that is "asymptotically equivalent" to partial infinite sums and proved that…”
Section: Introductionmentioning
confidence: 99%
“…Inspired by [19], in this paper, we apply a different research method from the previous one and use the properties of error estimation and the analytic method to study the reciprocal products of {f n }, {l n } and {u n }. We derive some sequences that are asymptotically equivalent to reciprocal products including {f n }, {l n } and {u n }.…”
In this paper, we use the properties of error estimation and the analytic method to study the reciprocal products of the bi-periodic Fibonacci sequence, the bi-periodic Lucas sequence, and the mth-order linear recursive sequence.