Andrew J D Nelson
Overview
Explore the profile of Andrew J D Nelson including associated specialties, affiliations and a list of published articles.
Author names and details appear as published. Due to indexing inconsistencies, multiple individuals may share a name, and a single author may have variations. MedLuna displays this data as publicly available, without modification or verification
Snapshot
Snapshot
Articles
37
Citations
857
Followers
0
Related Specialties
Related Specialties
Top 10 Co-Authors
Top 10 Co-Authors
Published In
Affiliations
Affiliations
Soon will be listed here.
Recent Articles
1.
Yanakieva S, Frost B, Amin E, Nelson A, Aggleton J
Eur J Neurosci
. 2024 Mar;
59(10):2715-2731.
PMID: 38494604
In a changing environment, animals must process spatial signals in a flexible manner. The rat hippocampal formation projects directly upon the retrosplenial cortex, with most inputs arising from the dorsal...
2.
Yanakieva S, Mathiasen M, Amin E, Nelson A, OMara S, Aggleton J
Eur J Neurosci
. 2022 Sep;
56(10):5869-5887.
PMID: 36089888
As the functional properties of a cortical area partly reflect its thalamic inputs, the present study compared collateral projections arising from various rostral thalamic nuclei that terminate across prefrontal (including...
3.
Aggleton J, Nelson A, OMara S
Neurosci Biobehav Rev
. 2022 Aug;
140:104813.
PMID: 35940310
After more than 80 years, Papez serial circuit remains a hugely influential concept, initially for emotion, but in more recent decades, for memory. Here, we show how this circuit is...
4.
Mathiasen M, Nelson A, Amin E, OMara S, Aggleton J
eNeuro
. 2021 Jul;
8(5).
PMID: 34301721
Both nucleus reuniens and the anterior thalamic nuclei are densely interconnected with medial cortical and hippocampal areas, connections that reflect their respective contributions to learning and memory. To better appreciate...
5.
Nelson A
Neurosci Biobehav Rev
. 2021 Mar;
126:1-11.
PMID: 33737105
The anterior thalamic nuclei are a vital node within hippocampal-diencephalic-cingulate circuits that support spatial learning and memory. Reflecting this interconnectivity, the overwhelming focus of research into the cognitive functions of...
6.
Bubb E, Aggleton J, OMara S, Nelson A
Cereb Cortex
. 2020 Nov;
31(4):2169-2186.
PMID: 33251536
In a changing environment, organisms need to decide when to select items that resemble previously rewarded stimuli and when it is best to switch to other stimulus types. Here, we...
7.
Bubb E, Nelson A, Cozens T, Aggleton J
Brain Neurosci Adv
. 2020 Sep;
4:2398212820957160.
PMID: 32964131
Despite considerable interest in the properties of the cingulum bundle, descriptions of the composition of this major pathway in the rodent brain have not kept pace with advances in tract...
8.
Aggleton J, Nelson A
Brain Neurosci Adv
. 2020 Sep;
4:2398212820933471.
PMID: 32954003
Rodents will spontaneously learn the location of an individual object, an ability captured by the object-in-place test. This review considers the network of structures supporting this behavioural test, as well...
9.
Nelson A, Kinnavane L, Amin E, OMara S, Aggleton J
J Neurosci
. 2020 Aug;
40(36):6978-6990.
PMID: 32753513
The hippocampus is essential for normal memory but does not act in isolation. The anterior thalamic nuclei may represent one vital partner. Using DREADDs, the behavioral consequences of transiently disrupting...
10.
Powell A, Connelly W, Vasalauskaite A, Nelson A, Vann S, Aggleton J, et al.
Cereb Cortex
. 2020 Mar;
30(8):4424-4437.
PMID: 32147692
The rodent retrosplenial cortex (RSC) functions as an integrative hub for sensory and motor signals, serving roles in both navigation and memory. While RSC is reciprocally connected with the sensory...