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Oxidopamine hydrochloride (Alias: 6-OHDA hydrochloride, 6-Hydroxydopamine hydrochloride)

Catalog No. T12352 Copy Product Info
Purity: 99.85%
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Oxidopamine hydrochloride (6-Hydroxydopamine hydrochloride) is a widely used neurotoxin and an antagonist of the neurotransmitter dopamine. It selectively destroys dopaminergic neurons, promotes COX-2 activation, induces PGE2 synthesis, and stimulates the secretion of the inflammatory cytokine IL-1β. It is commonly used to establish animal models of Parkinson’s disease (PD).

Oxidopamine hydrochloride

Copy Product Info
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Catalog No. T12352
Alias 6-OHDA hydrochloride, 6-Hydroxydopamine hydrochloride

Oxidopamine hydrochloride (6-Hydroxydopamine hydrochloride) is a widely used neurotoxin and an antagonist of the neurotransmitter dopamine. It selectively destroys dopaminergic neurons, promotes COX-2 activation, induces PGE2 synthesis, and stimulates the secretion of the inflammatory cytokine IL-1β. It is commonly used to establish animal models of Parkinson’s disease (PD).

Oxidopamine hydrochloride
Cas No. 28094-15-7
Pack SizePriceUSA StockGlobal StockQuantity
5 mg$39In StockIn Stock
10 mg$59In StockIn Stock
25 mg$105In StockIn Stock
50 mg$178In StockIn Stock
100 mg$272In StockIn Stock
In stock · Estimated delivery: USA Stock (1-2 days) Global Stock (5-7 days)
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For research use only—not for human use. No sales to individuals. Use as intended only.
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Purity:99.85%
Color:White to Yellow
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Product Introduction

Oxidopamine hydrochloride AI Summary
Oxidopamine hydrochloride exhibits multiple bioactivities across various biological targets and systems. It is effective in inhibiting plant growth by reducing the elongation of pinto bean plants' second internode by 26.0% at both 50 µg and 150 µg concentrations over 4 days. In medical and biological contexts, it demonstrates potent inhibition of several targets such as Menin-MLL interaction (relevant to MLL-related leukemias), RECQ1, HSD17B4, JMJD2E, TDP1, and Tau Fibril Formation. It affects key pathways including the ERK signaling pathway and inhibits a range of tumor cell lines such as MDA-N Breast, SN12C Renal, ACHN Renal, UO-31 Renal, DU-145 Prostate, SK-MEL-5 Melanoma, SF-539 Central Nervous System, and K-562 Leukemia. Additionally, Oxidopamine hydrochloride displays antiviral properties by inhibiting viral entry of pathogens such as Lassa, Marburg, Ebola, Hepatitis C, and SARS-CoV-2. It inhibits SARS-CoV-2 3CL-Pro protease by 55.73% at 20 µM and reduces SARS-CoV-2 induced cytotoxicity in both VERO-6 and Caco-2 cells. It also impacts sodium fluorescein uptake in OATP1B3- and OATP1B1-transfected CHO cells at a 10 µM concentration. In bacterial systems, it significantly inhibits Escherichia coli GroEL/GroES proteins' function, and it shows bioactivity as an AGO2 inhibitor with an IC50 of 1610.0 nM..
Note: Summary generated by AI. Data source: ChEMBL
Bioactivity
Description
Oxidopamine hydrochloride (6-Hydroxydopamine hydrochloride) is a widely used neurotoxin and an antagonist of the neurotransmitter dopamine. It selectively destroys dopaminergic neurons, promotes COX-2 activation, induces PGE2 synthesis, and stimulates the secretion of the inflammatory cytokine IL-1β. It is commonly used to establish animal models of Parkinson’s disease (PD).
Disease Modeling Protocol
Parkinson's Disease (PD) Model
  • Modeling Mechanism:

    Oxidopamine hydrochloride, as a neurotoxin specific to dopaminergic neurons, induces PD pathology through multiple mechanisms: ① It is selectively taken up by dopamine transporters (DAT), generating large amounts of reactive oxygen species (ROS) within neurons, triggering oxidative stress damage; ② It disrupts mitochondrial function, activates apoptosis pathways, leading to progressive death of tyrosine hydroxylase (TH)-positive dopaminergic neurons in the substantia nigra pars compacta (SNc) of the midbrain; ③ It damages dopaminergic projection fibers in the medial forebrain tract (MFB), leading to striatal dopamine neurotransmitter depletion; simultaneously, as the disease progresses, it causes dysfunction of the hypothalamic orexin system, mimicking PD-related sleep disorders.

  • Related Products:

    Oxidopamine hydrochloride (T12352)

  • Modeling Method:

    Experimental Subject:

    Rats: Sprague Dawley (SD) strain, male, body weight 250–300 g

    Dosage and Administration Route:

    ① Core modelling: Oxidopamine (4 μg/μL) – dissolved in 0.2% ascorbic acid solution – bilateral two-point injection into the medial forebrain bundle (MFB) (coordinates: AP: 3.7/4.4 mm, ML: 1.7/1.2 mm, DV: 8.4/8.2 mm) – 6 μL injected per point;
    ② Surgical procedure: Intraperitoneal anaesthesia with sodium pentobarbital (40 mg/kg), stereotaxic fixation of head, microinjection via slow syringe injection after cranial drilling (avoiding backflow);
    ③ Control treatment: Equal volume of 0.2% ascorbic acid solution administered via identical injection protocol;
    ④ Model validation: From day 14 post-surgery, weekly intraperitoneal apomorphine injections (0.5 mg/kg) administered with rotational behaviour recorded; ≥7 revolutions per minute indicated successful model establishment

    Dosing Frequency and Duration Model:

    Single-dose Oxidopamine injection

  • Validation:

    Pathological indicators: Neuronal degeneration: 7 days post-surgery, 62.0±6.2% of TH-positive neurons remained; 14 days later, this decreased to 24.5±3.5%; and 21 days later, only 2.1±0.4% remained. Orexin-A-positive neurons began to decrease at 21 days, decreased by 30% at 49 days (72.0±6.0% remaining), and showed no further decrease at 63 days. Behavioral indicators: Rats with successful modeling exhibited apomorphine-induced rotational behavior, accompanied by typical PD motor symptoms such as bradykinesia and rigidity. Molecular indicators: Cerebrospinal fluid orexin-A levels showed no significant fluctuations, and the density of orexin-A-positive fibers in the tuberous-papillary nucleus (TN) region did not decrease significantly. Specificity verification: The results conformed to the core characteristics of PD: "progressive loss of dopaminergic neurons - motor dysfunction - sleep-related neuropeptide system disorder," consistent with the pathological progression of clinical PD patients.

*Precautions: Cerebrospinal fluid collection should be performed at ZT 0 (with lights on) to avoid interfering with circadian rhythms.

*References:Cui LB,et,al. Progressive changes of orexin system in a rat model of 6-hydroxydopamine-induced Parkinson's disease. Neurosci Bull. 2010 Oct;26(5):381-7. doi: 10.1007/s12264-010-0410-9. Erratum in: Neurosci Bull. 2016 Jun 22;32(4):421.

Synonyms6-OHDA hydrochloride, 6-Hydroxydopamine hydrochloride
Chemical Properties
Molecular Weight205.64
FormulaC8H12ClNO3
Cas No.28094-15-7
SmilesCl.NCCc1cc(O)c(O)cc1O
Relative Density.no data available
Storage & Solubility Information
Storagestore under nitrogen,The compound is unstable in solution. Please use soon,store at low temperature | Powder: -20°C for 3 years | Shipping with blue ice/Shipping at ambient temperature.
Solubility Information
H2O: 62.49 mg/mL (303.88 mM), Sonication and heating are recommended.The compound is unstable in solution, please use soon.
DMSO: 62.49 mg/mL (303.88 mM), Sonication and heating are recommended.The compound is unstable in solution, please use soon.
In Vivo Formulation
10% DMSO+40% PEG300+5% Tween 80+45% Saline: 2 mg/mL (9.73 mM), Sonication is recommended.
Please add the solvents sequentially, clarifying the solution as much as possible before adding the next one. Dissolve by heating and/or sonication if necessary. Working solution is recommended to be prepared and used immediately. The formulation provided above is for reference purposes only. In vivo formulations may vary and should be modified based on specific experimental conditions.
Solution Preparation Table
H2O/DMSO
1mg5mg10mg50mg
1 mM4.8629 mL24.3143 mL48.6287 mL243.1434 mL
5 mM0.9726 mL4.8629 mL9.7257 mL48.6287 mL
10 mM0.4863 mL2.4314 mL4.8629 mL24.3143 mL
20 mM0.2431 mL1.2157 mL2.4314 mL12.1572 mL
50 mM0.0973 mL0.4863 mL0.9726 mL4.8629 mL
100 mM0.0486 mL0.2431 mL0.4863 mL2.4314 mL
Note : The dilution table applies only to solid products. For liquid products, please calculate the stock solution based on the stated concentration and/or density.

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In Vivo Formulation Calculator (Clear solution)

Please enter your animal experiment information in the following box and click Calculate to obtain the stock solution preparation method and in vivo formula preparation method:
TargetMol | Animal experiments For example, if the intended dosage is 10 mg/kg for animals weighing 20 g , with a dosing volume of 100 μL per animal, TargetMol | Animal experiments and a total of 10 animals are to be administered, using a formulation of TargetMol | reagent 10% DMSO+ 40% PEG300+ 5% Tween 80+ 45% Saline/PBS/ddH2O , the resulting working solution concentration would be 2 mg/mL.
Stock Solution Preparation:

Dissolve 2 mg of the compound in 100 μL DMSOTargetMol | reagent to obtain a stock solution at a concentration of 20 mg/mL . If the required concentration exceeds the compound's known solubility, please contact us for technical support before proceeding.

Preparation of the In Vivo Formulation:

1) Add 100 μL of the DMSOTargetMol | reagent stock solution to 400 μL PEG300TargetMol | reagent and mix thoroughly until the solution becomes clear.

2) Add 50 μL Tween 80 and mix well until fully clarified.

3) Add 450 μL Saline,PBS or ddH2OTargetMol | reagent and mix thoroughly until a homogeneous solution is obtained.

This example is provided solely to demonstrate the use of the In Vivo Formulation Calculator and does not constitute a recommended formulation for any specific compound. Please select an appropriate dissolution and formulation strategy based on your experimental model and route of administration.
All co-solvents required for this protocol, includingDMSO, PEG300/PEG400, Tween 80, SBE-β-CD, and Corn oil, are available for purchase on the TargetMol website.
1 Enter information below:
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2 Enter the in vivo formulation:
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%
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