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Sodium channel
protein type 9
subunit alpha
Muscarinic
acetylcholine
receptor M1
Muscarinic
acetylcholine
receptor M2
Sigma
non-opioid
intracellular
receptor 1
5-
hydroxytryptamine
receptor 1A
D(1A) dopamine
receptor
Alpha-1A
adrenergic
receptor
Sodium-
dependent
dopamine
transporter
Sodium-
dependent
serotonin
transporter
Synaptic
vesicular amine
transporter
Synaptic
vesicular amine
transporter
Synaptic
vesicular amine
transporter
Multidrug
resistance
protein 1
Tryptophan
5-hydroxylase 1
Aromatic-L-
amino-acid
decarboxylase
Tyrosine
3-monooxygenase
Aromatic-L-
amino-acid
decarboxylase
Dopamine
beta-hydroxylase
Sodium-
dependent
noradrenaline
transporter
Serotonin
Dopamine
Cocaine
Serotonin
Serotonin
Serotonin
Na+
Na+
Dopamine
Dopamine
Norepinephrine
Norepinephrine
Cocaine
L-Tryptophan
Tetrahydrobiopterin
O2
5-Hydroxy-L-
tryptophan
4a-
Hydroxytetrahydrobiopterin
CO2
L-Tyrosine
L-Dopa
CO2
Ascorbic acid
O2
Norepinephrine
Dehydroascorbic
acid
H2 O
Na+
Dopamine
Na+
Norepinephrine
Na+
Na+
Fe2+
Pyridoxal
5'-phosphate
Fe2+
Pyridoxal
5'-phosphate
Pyrroloquinoline
quinone
Copper
Cocaine
Presynaptic cell
Synaptic Cleft
Post synaptic cell
Synaptic Vesicle
Cytosol
Cocaine MOA
Serotonin that accumulates
in the synaptic cleft binds
to the 5-HT 1A receptors.
5-HT 1A receptors are
responsible for lower
anxiety and antidepressant
effects.
Dopamine accumulates in the
cleft and can bind to
various dopamine receptors.
Shown here is the dopamine
1A receptor, a common
Gs-couplesd target in
treating depression.
Norepinephrine is another
monoamine that accumulates
in the cleft as a result of
venlafaxine's inhibitory
action. Norepinephrine can
act on many adrenergic
receptors in the nervous
system (here, the α-1A
receptor is shown, which is
also a common antipsychotic
target) to aid in
anti-depressive signaling.
Cocaine can cross the blood
brain barrier via MDRP1.
SCN9A
CHRM1
CHRM2
SIGMAR1
HTR1A
DRD1
ADRA1A
SLC6A3
SLC6A4
SLC18A2
SLC18A2
SLC18A2
ABCB1
TPH1
DDC
TH
DDC
DBH
SLC6A2
Serotonin
Dopamine
Cocaine
Serotonin
Serotonin
Serotonin
Sodium
Sodium
Dopamine
Dopamine
Norepinephrine
Norepinephrine
Cocaine
L-Tryptophan
Tetrahydrobiopterin
Oxygen
5-Hydroxy-L-
tryptophan
4a-
Hydroxytetrahydrobiopterin
Carbon dioxide
L-Tyrosine
L-Dopa
Carbon dioxide
Ascorbic acid
Oxygen
Norepinephrine
Dehydroascorbic
acid
Water
Sodium
Dopamine
Sodium
Norepinephrine
Sodium
Sodium
Cocaine
SCN9A
CHRM1
CHRM2
SIGMAR1
HTR1A
DRD1
ADRA1A
SLC6A3
SLC6A4
SLC18A2
SLC18A2
SLC18A2
ABCB1
TPH1
DDC
TH
DDC
DBH
SLC6A2
5-HT
LDP
Cocaine
5-HT
5-HT
5-HT
Na+
Na+
LDP
LDP
Norpp
Norpp
Cocaine
Trp
BH4
O2
5-HTP
4aHtHbp
CO2
Tyr
L-Dopa
CO2
VitC
O2
Norpp
DHAA
H2 O
Na+
LDP
Na+
Norpp
Na+
Na+
Fe2+
Pyr-5'P
Fe2+
Pyr-5'P
Pqq
Cu
Cocaine
Presynaptic cell
Synaptic Cleft
Post synaptic cell
Synaptic Vesicle
Cytosol
Cocaine MOA
Serotonin that accumulates
in the synaptic cleft binds
to the 5-HT 1A receptors.
5-HT 1A receptors are
responsible for lower
anxiety and antidepressant
effects.
Dopamine accumulates in the
cleft and can bind to
various dopamine receptors.
Shown here is the dopamine
1A receptor, a common
Gs-couplesd target in
treating depression.
Norepinephrine is another
monoamine that accumulates
in the cleft as a result of
venlafaxine's inhibitory
action. Norepinephrine can
act on many adrenergic
receptors in the nervous
system (here, the α-1A
receptor is shown, which is
also a common antipsychotic
target) to aid in
anti-depressive signaling.
Cocaine can cross the blood
brain barrier via MDRP1.
SCN9A
CHRM1
CHRM2
SIGMAR1
HTR1A
DRD1
ADRA1A
SLC6A3
SLC6A4
SLC18A2
SLC18A2
SLC18A2
ABCB1
TPH1
DDC
TH
DDC
DBH
SLC6A2
5-HT
LDP
Cocaine
5-HT
5-HT
5-HT
Na+
Na+
LDP
LDP
Norpp
Norpp
Cocaine
Trp
BH4
O2
5-HTP
4aHtHbp
CO2
Tyr
L-Dopa
CO2
VitC
O2
Norpp
DHAA
H2O
Na+
LDP
Na+
Norpp
Na+
Na+
Cocaine