Publications

Peer-reviewed research from the Mackenzie Lab.

A curated selection from Google Scholar, spanning two decades of work on dopamine circuits, VGLUT2 and the subthalamic nucleus. For the complete list including conference abstracts and protocols, visit the Scholar profile.

Showing 56 of 56 publications

  1. 2025
    Cited by 1
  2. 2024
    Cited by 65

    Architecture of the subthalamic nucleus

    AA Prasad, Å Wallén-Mackenzie

    Communications Biology 7 (1), 78

  3. 2024
    Cited by 17
  4. 2024
    Cited by 1
  5. 2023
    Cited by 21

    A role for the subthalamic nucleus in aversive learning

    GP Serra, A Guillaumin, B Vlcek, L Delgado-Zabalza, A Ricci, E Rubino, et al.

    Cell Reports 42 (11)

  6. 2023
    Cited by 14

    Anatomical characterisation of three different psychosurgical targets in the subthalamic area

    MN Santin, N Tempier, H Belaid, M Zenoni, S Dumas, et al.

    Brain Structure and Function 228 (8), 1977–1992

  7. 2023
    Cited by 6

    Vesicular glutamate transporter 2 expression in the ventral tegmental area of outbred male rats following exposure to nicotine and alcohol

    M Vrettou, SB Thalhammer, AL Svensson, S Dumas, KW Nilsson, et al.

    Drug and Alcohol Dependence Reports 8, 100180

  8. 2023
    Cited by 3

    Increased sucrose consumption in mice gene-targeted for Vmat2 selectively in NeuroD6-positive neurons of the ventral tegmental area

    Z Bimpisidis, GP Serra, N König, Å Wallén-Mackenzie

    Frontiers in Molecular Neuroscience 16, 1069834

  9. 2023
    Cited by 1

    Aldh1a1 and additional markers of dopamine cell heterogeneity in substantia nigra and ventral tegmental area identified as preserved in two transgenic α-synuclein mouse models

    B Vlcek, S Dumas, S Ekmark-Lewén, E Rubino, M Ingelsson, et al.

    Exploration of Neuroprotective Therapy 3 (5), 299–327

  10. 2022
    Cited by 2

    Improving well-being and survival in the 6-OHDA lesion model of Parkinson's disease in mice: literature review and step-by-step protocol

    A Guillaumin, B Vlcek, Å Wallén-Mackenzie

    Scandinavian Journal of Laboratory Animal Science 48, 1–21

  11. 2021
    Cited by 56

    Experimental investigation into the role of the subthalamic nucleus (STN) in motor control using optogenetics in mice

    A Guillaumin, GP Serra, F Georges, Å Wallén-Mackenzie

    Brain Research 1755, 147226

  12. 2021
    Cited by 17

    Midbrain dopamine neurons defined by TrpV1 modulate psychomotor behavior

    GP Serra, A Guillaumin, S Dumas, B Vlcek, Å Wallén-Mackenzie

    Frontiers in Neural Circuits 15, 726893

  13. 2021
    Cited by 9

    DNA methylation of Vesicular Glutamate Transporters in the mesocorticolimbic brain following early-life stress and adult ethanol exposure

    M Vrettou, L Yan, KW Nilsson, Å Wallén-Mackenzie, I Nylander, et al.

    Scientific Reports 11 (1), 15322

  14. 2020
    Cited by 69

    Spatio-molecular domains identified in the mouse subthalamic nucleus and neighboring glutamatergic and GABAergic brain structures

    Å Wallén-Mackenzie, S Dumas, M Papathanou, MM Martis Thiele, B Vlcek, et al.

    Communications Biology 3 (1), 338

  15. 2020
    Cited by 19
  16. 2020
    Cited by 18

    Selective Knockout of the Vesicular Monoamine Transporter 2 (Vmat2) Gene in Calbindin2/Calretinin-Positive Neurons

    N König, Z Bimpisidis, S Dumas, Å Wallén-Mackenzie

    Frontiers in Behavioral Neuroscience 14, 578443

  17. 2019
    Cited by 50
  18. 2019
    Cited by 47
  19. 2019
    Cited by 34

    The NeuroD6 subtype of VTA neurons contributes to psychostimulant sensitization and behavioral reinforcement

    Z Bimpisidis, N König, S Stagkourakis, V Zell, B Vlcek, S Dumas, B Giros, et al.

    eNeuro 6 (3)

  20. 2019
    Cited by 30
  21. 2019
    Cited by 14

    VGLUT2 rs2290045 genotype moderates environmental sensitivity to alcohol-related problems in three samples of youths

    M Vrettou, KW Nilsson, C Tuvblad, M Rehn, C Åslund, AK Andershed, et al.

    European Child & Adolescent Psychiatry 28 (10), 1329–1340

  22. 2018
    Cited by 49

    Targeting VGLUT2 in mature dopamine neurons decreases mesoaccumbal glutamatergic transmission and identifies a role for glutamate co-release in synaptic plasticity

    M Papathanou, M Creed, MC Dorst, Z Bimpisidis, S Dumas, H Pettersson, et al.

    Frontiers in Neural Circuits 12, 64

  23. 2018
    Cited by 13

    Validated multi-step approach for in vivo recording and analysis of optogenetically evoked glutamate in the mouse globus pallidus

    T Viereckel, Å Konradsson-Geuken, Å Wallén-Mackenzie

    Journal of Neurochemistry 145 (2), 125–138

  24. 2017
    Cited by 53

    Disrupting glutamate co-transmission does not affect acquisition of conditioned behavior reinforced by dopamine neuron activation

    DV Wang, T Viereckel, V Zell, Å Konradsson-Geuken, CJ Broker, et al.

    Cell Reports 18 (11), 2584–2591

  25. 2017
    Cited by 28

    Ethanol affects limbic and striatal presynaptic glutamatergic and DNA methylation gene expression in outbred rats exposed to early-life stress

    M Vrettou, L Granholm, A Todkar, KW Nilsson, Å Wallén-Mackenzie, et al.

    Addiction Biology 22 (2), 369–380

  26. 2016
    Cited by 61

    Midbrain gene screening identifies a new mesoaccumbal glutamatergic pathway and a marker for dopamine cells neuroprotected in Parkinson's disease

    T Viereckel, S Dumas, CJA Smith-Anttila, B Vlcek, Z Bimpisidis, et al.

    Scientific Reports 6 (1), 35203

  27. 2016
    Cited by 26

    Reduced Vglut2/Slc17a6 gene expression levels throughout the mouse subthalamic nucleus cause cell loss and structural disorganization

    N Schweizer, T Viereckel, CJA Smith-Anttila, K Nordenankar, E Arvidsson, et al.

    eNeuro 3 (5), 0264-16.2016

  28. 2015
    Cited by 161

    In situ proximity ligation assay (PLA)

    S Bagchi, R Fredriksson, Å Wallén-Mackenzie

    ELISA: Methods and Protocols, 149–159

  29. 2015
    Cited by 53

    SLC10A4 is a vesicular amine-associated transporter modulating dopamine homeostasis

    M Larhammar, K Patra, M Blunder, L Emilsson, C Peuckert, E Arvidsson, et al.

    Biological Psychiatry 77 (6), 526–536

  30. 2015
    Cited by 52

    Cre-driven optogenetics in the heterogeneous genetic panorama of the VTA

    S Pupe, Å Wallén-Mackenzie

    Trends in Neurosciences 38 (6), 375–386

  31. 2015
    Cited by 38

    Increased hippocampal excitability and impaired spatial memory function in mice lacking VGLUT2 selectively in neurons defined by tyrosine hydroxylase promoter activity

    K Nordenankar, CJA Smith-Anttila, N Schweizer, T Viereckel, C Birgner, et al.

    Brain Structure and Function 220 (4), 2171–2190

  32. 2015
    Cited by 7

    Targeted deletion of Vglut2 expression in the embryonal telencephalon promotes an anxiolytic phenotype of the adult mouse

    K Nordenankar, A Bergfors, Å Wallén-Mackenzie

    Upsala Journal of Medical Sciences 120 (3), 144–156

  33. 2014
    Cited by 176

    The multilingual nature of dopamine neurons

    LE Trudeau, TS Hnasko, Å Wallén-Mackenzie, M Morales, S Rayport, et al.

    Progress in Brain Research 211, 141–164

  34. 2014
    Cited by 65

    Limiting glutamate transmission in a Vglut2-expressing subpopulation of the subthalamic nucleus is sufficient to cause hyperlocomotion

    N Schweizer, S Pupe, E Arvidsson, K Nordenankar, CJA Smith-Anttila, et al.

    PNAS 111 (21), 7837–7842

  35. 2014
    Cited by 22

    Age- and sex-dependence of dopamine release and capacity for recovery identified in the dorsal striatum of C57/Bl6J mice

    E Arvidsson, T Viereckel, S Mikulovic, Å Wallén-Mackenzie

    PLoS One 9 (6), e99592

  36. 2014
    Cited by 13
  37. 2012
    Cited by 89

    Glutamate corelease promotes growth and survival of midbrain dopamine neurons

    GM Fortin, MJ Bourque, JA Mendez, D Leo, K Nordenankar, C Birgner, et al.

    Journal of Neuroscience 32 (48), 17477–17491

  38. 2012
    Cited by 52

    Ultrastructural characterization of the mesostriatal dopamine innervation in mice, including two mouse lines of conditional VGLUT2 knockout in dopamine neurons

    N Bérubé-Carrière, G Guay, GM Fortin, K Kullander, L Olson, et al.

    European Journal of Neuroscience 35 (4), 527–538

  39. 2011
    Cited by 480

    From glutamate co-release to vesicular synergy: vesicular glutamate transporters

    S El Mestikawy, Å Wallén-Mackenzie, GM Fortin, L Descarries, et al.

    Nature Reviews Neuroscience 12 (4), 204–216

  40. 2011
    Cited by 117

    Enhanced sucrose and cocaine self-administration and cue-induced drug seeking after loss of VGLUT2 in midbrain dopamine neurons in mice

    J Alsiö, K Nordenankar, E Arvidsson, C Birgner, S Mahmoudi, B Halbout, et al.

    Journal of Neuroscience 31 (35), 12593–12603

  41. 2011
    Cited by 60

    A sensory subpopulation depends on vesicular glutamate transporter 2 for mechanical pain, and together with substance P, inflammatory pain

    MC Lagerström, K Rogoz, B Abrahamsen, AL Lind, C Ölund, C Smith, et al.

    PNAS 108 (14), 5789–5794

  42. 2010
    Cited by 265

    VGLUT2-dependent sensory neurons in the TRPV1 population regulate pain and itch

    MC Lagerström, K Rogoz, B Abrahamsen, E Persson, B Reinius, et al.

    Neuron 68 (3), 529–542

  43. 2010
    Cited by 149

    VGLUT2 in dopamine neurons is required for psychostimulant-induced behavioral activation

    C Birgner, K Nordenankar, M Lundblad, JA Mendez, C Smith, M le Grevès, et al.

    PNAS 107 (1), 389–394

  44. 2010
    Cited by 79
  45. 2010
    Cited by 56

    Reduced VGLUT2 expression increases motor neuron viability in Sod1G93A mice

    H Wootz, A Enjin, Å Wallén-Mackenzie, D Lindholm, K Kullander

    Neurobiology of Disease 37 (1), 58–66

  46. 2009
    Cited by 64
  47. 2006
    Cited by 239

    Vesicular glutamate transporter 2 is required for central respiratory rhythm generation but not for locomotor central pattern generation

    Å Wallén-Mackenzie, H Gezelius, M Thoby-Brisson, A Nygård, A Enjin, et al.

    Journal of Neuroscience 26 (47), 12294–12307

  48. 2006
    Cited by 34

    Role of glutamate in locomotor rhythm generating neuronal circuitry

    H Gezelius, Å Wallén-Mackenzie, A Enjin, M Lagerström, K Kullander

    Journal of Physiology-Paris 100 (5–6), 297–303

  49. 2004
    Cited by 200

    Nurr1, an orphan nuclear receptor with essential functions in developing dopamine cells

    T Perlmann, Å Wallén-Mackenzie

    Cell and Tissue Research 318 (1), 45–52

  50. 2004
    Cited by 67

    Congenital hypoventilation and impaired hypoxic response in Nurr1 mutant mice

    E Nsegbe, Å Wallén-Mackenzie, S Dauger, JC Roux, Y Shvarev, et al.

    The Journal of Physiology 556 (1), 43–59

  51. 2003
    Cited by 198

    p57Kip2 cooperates with Nurr1 in developing dopamine cells

    B Joseph, Å Wallén-Mackenzie, G Benoit, T Murata, E Joodmardi, S Okret, et al.

    PNAS 100 (26), 15619–15624

  52. 2003
    Cited by 175

    Nurr1-RXR heterodimers mediate RXR ligand-induced signaling in neuronal cells

    Å Wallén-Mackenzie, A Mata de Urquiza, S Petersson, FJ Rodriguez, et al.

    Genes & Development 17 (24), 3036–3047

  53. 2003
    Cited by 144

    Transcriptional control of dopamine neuron development

    Å Wallén, T Perlmann

    Annals of the New York Academy of Sciences 991 (1), 48–60

  54. 2001
    Cited by 168

    Orphan nuclear receptor Nurr1 is essential for Ret expression in midbrain dopamine neurons and in the brain stem

    Å Wallén, DS Castro, RH Zetterström, M Karlén, L Olson, J Ericson, et al.

    Molecular and Cellular Neuroscience 18 (6), 649–663

  55. 1999
    Cited by 587

    Abnormal reaction to central nervous system injury in mice lacking glial fibrillary acidic protein and vimentin

    M Pekny, CB Johansson, C Eliasson, J Stakeberg, Å Wallén, T Perlmann, et al.

    The Journal of Cell Biology 145 (3), 503–514

  56. 1999
    Cited by 310

    Fate of mesencephalic AHD2-expressing dopamine progenitor cells in NURR1 mutant mice

    Å Wallén, RH Zetterström, L Solomin, M Arvidsson, L Olson, T Perlmann

    Experimental Cell Research 253 (2), 737–746