about
Modification of a hydrophobic layer by a point mutation in syntaxin 1A regulates the rate of synaptic vesicle fusionMitochondrial free Ca²⁺ levels and their effects on energy metabolism in Drosophila motor nerve terminalsPresynaptic mitochondria in functionally different motor neurons exhibit similar affinities for Ca2+ but exert little influence as Ca2+ buffers at nerve firing rates in situ.The redistribution of Drosophila vesicular monoamine transporter mutants from synaptic vesicles to large dense-core vesicles impairs amine-dependent behaviorsExpression of multiple transgenes from a single construct using viral 2A peptides in Drosophila.The lack of CuZnSOD leads to impaired neurotransmitter release, neuromuscular junction destabilization and reduced muscle strength in mice.Formation and function of synapses with respect to Schwann cells at the end of motor nerve terminal branches on mature amphibian (Bufo marinus) muscle.Differential control of presynaptic CaMKII activation and translocation to active zonesCytosolic calcium coordinates mitochondrial energy metabolism with presynaptic activitySynaptic homeostasis on the fast track.Neuron-specific expression of CuZnSOD prevents the loss of muscle mass and function that occurs in homozygous CuZnSOD-knockout miceNa+ /H+ exchange via the Drosophila vesicular glutamate transporter mediates activity-induced acid efflux from presynaptic terminals.High-Probability Neurotransmitter Release Sites Represent an Energy-Efficient Design.A TRPV channel in Drosophila motor neurons regulates presynaptic resting Ca2+ levels, synapse growth, and synaptic transmission.Mitochondria: enigmatic stewards of the synaptic vesicle reserve pool.Drosophila Miro is required for both anterograde and retrograde axonal mitochondrial transport.Fast calcium signals in Drosophila motor neuron terminals.Calcium imaging at the Drosophila larval neuromuscular junction.Correction: Modification of a Hydrophobic Layer by a Point Mutation in Syntaxin 1A Regulates the Rate of Synaptic Vesicle Fusion.Synaptic vesicles: test for a role in presynaptic calcium regulation.Genetic analysis of soluble N-ethylmaleimide-sensitive factor attachment protein function in Drosophila reveals positive and negative secretory roles.The GTPase dMiro is required for axonal transport of mitochondria to Drosophila synapses.Vesicle-associated proteins and quantal release at single active zones of amphibian (Bufo marinus) motor-nerve terminals.Single neuron activity in the Drosophila larval CNS detected with calcium indicators.Direct injection of indicators for calcium imaging at the Drosophila larval neuromuscular junction.Forward-filling of dextran-conjugated indicators for calcium imaging at the Drosophila larval neuromuscular junction.Genetically encoded pH-indicators reveal activity-dependent cytosolic acidification of Drosophila motor nerve termini in vivo.Endogenous Tagging Reveals Differential Regulation of Ca Channels at Single Active Zones during Presynaptic Homeostatic Potentiation and DepressionCalcium dependence of quantal secretion from visualized sympathetic nerve varicosities on the mouse vas deferensProbability of quantal secretion and the mobilization of vesicles at the active zones of endplatesThe application of 'kisser' probes for resolving the distribution and microenvironment of membrane proteins in situNeuronal Glutamatergic Synaptic Clefts Alkalinize Rather Than Acidify during Neurotransmission
P50
Q21563602-46CDE455-7225-4F84-85D7-9B62B44371E5Q22337349-316FC344-FA89-43E0-8AFC-E577A3FB7208Q30480138-B7AC6F14-2D7C-460C-AC46-85A09F3A6ACAQ33605801-0FC0E355-3164-446D-85DC-C9FF693681D3Q33779781-8CE6D16A-1844-4386-B763-7B0D08F038F7Q33817376-9486D8B9-C456-40FA-81E3-431EF02B20B5Q33939353-D2F0B3CB-4E99-4253-ADDB-2BD703886738Q35069706-73A9BBB1-216E-489E-A93D-BE82BC3733AAQ36493484-147FDF58-7F49-462D-80FE-31088AB7277DQ36657366-A498F7A8-6107-48FD-9DB9-57FCCB7CB40DQ37657156-4194E79A-21CD-4688-96DE-999DFFDE1F12Q38435944-2FEEC022-B3ED-4A91-82E1-4CBCC82A8EA8Q38436124-E1C3AC1A-587B-4579-A2E7-59D71ECAC284Q38446556-A713795D-2D9F-44AD-9DDD-2F46497C80C0Q42574874-BFBC4C40-DA88-4DAF-B804-48581DA26323Q43099615-82952222-656B-476C-B5E5-CBFCEA8867FFQ44211137-4735F29C-6606-4504-947D-A197A3678FFCQ46080870-9F287139-1B5F-47FD-B913-31823F954EB1Q46597564-61B318A3-79DE-4531-9DBB-04EECCE69C6EQ47071110-1F328DF2-53F2-496A-9714-507BC2993181Q47071286-6C067427-E153-441D-9BFA-6E79B800F10FQ47072349-688F3278-468D-44C6-87F2-6975ECC29C66Q52205013-9A37B35E-4F1E-4DA7-9AA0-0419D4A60B1BQ52609936-08418740-B8CC-4295-A88F-CECF61112018Q52739960-C8C0C02F-3A65-485F-A42E-5E758F8C39CFQ52739969-5AF4C4EA-C14C-4A91-8B05-EAEA2D614AFAQ52751009-932D3D70-ADAE-46CE-87E0-7E15725EE97AQ64113374-1F1ACA7B-A680-498B-9168-1B980D05027BQ72538486-C9550AA2-7B27-47EF-A72D-0024E7D17575Q74665325-0E7050C5-B772-4A0B-B638-BAC71247941BQ91269717-662C1BED-FEA3-428C-B380-2D5E63A80C1EQ92822079-CE6BD178-3A3D-4B13-B2DC-82AA123CE22E
P50
description
researcher, ORCID id # 0000-0003-3782-6968
@en
wetenschapper
@nl
name
Gregory T Macleod
@ast
Gregory T Macleod
@en
Gregory T Macleod
@nl
type
label
Gregory T Macleod
@ast
Gregory T Macleod
@en
Gregory T Macleod
@nl
prefLabel
Gregory T Macleod
@ast
Gregory T Macleod
@en
Gregory T Macleod
@nl
P106
P21
P31
P496
0000-0003-3782-6968