[HTML][HTML] Manganese-enhanced magnetic resonance imaging depicts brain activity in models of acute and chronic pain: A new window to study experimental …

JJ Burston, A Lillywhite, MJ Prior - Neuroimage, 2017 - Elsevier
Application of functional imaging techniques to animal models is vital to understand pain
mechanisms, but is often confounded by the need to limit movement artefacts with …

[PDF][PDF] Manganese-enhanced magnetic resonance imaging depicts brain activity in models of acute and chronic pain: A new window to study experimental …

IM Devonshire, JJ Burston, L Xu, A Lillywhite, MJ Prior… - NeuroImage, 2017 - core.ac.uk
Application of functional imaging techniques to animal models is vital to understand pain
mechanisms, but is often confounded by the need to limit movement artefacts with …

Manganese-enhanced magnetic resonance imaging depicts brain activity in models of acute and chronic pain: a new window to study experimental spontaneous pain …

IM Devonshire, J Burston, L Xu, A Lillywhite… - … - eprints.nottingham.ac.uk
Application of functional imaging techniques to animal models is vital to understand pain
mechanisms, but is often confounded by the need to limit movement artefacts with …

Manganese-enhanced magnetic resonance imaging depicts brain activity in models of acute and chronic pain: A new window to study experimental spontaneous pain …

IM Devonshire, JJ Burston, L Xu, A Lillywhite… - …, 2017 - pubmed.ncbi.nlm.nih.gov
Application of functional imaging techniques to animal models is vital to understand pain
mechanisms, but is often confounded by the need to limit movement artefacts with …

Manganese-enhanced magnetic resonance imaging depicts brain activity in models of acute and chronic pain: A new window to study experimental spontaneous pain …

IM Devonshire, JJ Burston, L Xu, A Lillywhite… - Neuroimage, 2017 - europepmc.org
Application of functional imaging techniques to animal models is vital to understand pain
mechanisms, but is often confounded by the need to limit movement artefacts with …

Manganese-enhanced magnetic resonance imaging depicts brain activity in models of acute and chronic pain: A new window to study experimental spontaneous pain …

IM Devonshire, JJ Burston, L Xu, A Lillywhite… - NeuroImage, 2017 - psycnet.apa.org
Application of functional imaging techniques to animal models is vital to understand pain
mechanisms, but is often confounded by the need to limit movement artefacts with …

[引用][C] Manganese-enhanced magnetic resonance imaging depicts brain activity in models of acute and chronic pain: A new window to study experimental …

IM Devonshire, JJ Burston, L Xu, A Lillywhite, MJ Prior… - NeuroImage, 2017 - cir.nii.ac.jp
Manganese-enhanced magnetic resonance imaging depicts brain activity in models of acute
and chronic pain: A new window to study experimental spontaneous pain? | CiNii Research …

[HTML][HTML] Manganese-enhanced magnetic resonance imaging depicts brain activity in models of acute and chronic pain: A new window to study experimental …

IM Devonshire, JJ Burston, L Xu, A Lillywhite… - Neuroimage, 2017 - ncbi.nlm.nih.gov
Application of functional imaging techniques to animal models is vital to understand pain
mechanisms, but is often confounded by the need to limit movement artefacts with …

Manganese-enhanced magnetic resonance imaging depicts brain activity in models of acute and chronic pain: a new window to study experimental spontaneous pain …

IM Devonshire, J Burston, L Xu, A Lillywhite… - … - nottingham-repository.worktribe.com
Application of functional imaging techniques to animal models is vital to understand pain
mechanisms, but is often confounded by the need to limit movement artefacts with …

[引用][C] Manganese-enhanced magnetic resonance imaging depicts brain activity in models of acute and chronic pain: A new window to study experimental …

IM Devonshire, J Burston, L Xu, A Lillywhite… - …, 2017 - orca.cardiff.ac.uk
Application of functional imaging techniques to animal models is vital to understand pain
mechanisms, but is often confounded by the need to limit movement artefacts with …