Methylene Blue Solution
Methylene Blue Solution
Methylene Blue solution (5 mg/ml) provides the same phenothiazine redox mediator as the capsule format in a pre-dissolved aqueous solution, enabling precise volume-based dosing and immediate use without powder weighing or dissolution steps.
-25% en todo – hasta el 31 de octubre
25% sobre los precios habituales, en sustitución de otras ofertas. Acumulable solo con el descuento crypto.
Descripción
Methylene Blue solution (5 mg/ml) provides the same phenothiazine redox mediator as the capsule format in a pre-dissolved aqueous solution, enabling precise volume-based dosing and immediate use without powder weighing or dissolution steps.
The solution format is suited to parenteral administration route studies (IP, IV, SC) in preclinical models and to in vitro assays requiring defined aqueous methylene blue concentrations. Research applications are identical to the capsule format: mitochondrial ETC bypass, tau aggregation inhibition, MAO inhibition, and photodynamic research.
- High Purity – 99% Purity Guaranteed
- Independently Lab Tested
- Research Grade Quality
- For Laboratory Research Use Only
Propiedades
| Chemical Formula | C16H18ClN3S |
|---|---|
| Synonyms | Methylthioninium chloride, 3,7-Bis(dimethylamino)phenothiazin-5-ium chloride |
| Molar Mass | 319.85 g/mol |
| CAS Number | 61-73-4 |
| PubChem CID | 6099 |
| Total Compound Content | 150 mg (5 mg per 1 ml) |
| Shelf Life | 24 months |
Investigación
Methylene Blue solution (5 mg/mL) contains the same phenothiazine-derived redox-active compound as the capsule format in a pre-dissolved aqueous preparation. The solution format is useful for analytical chemistry applications, solution-based experimental systems, assay development, concentration-response investigations, and studies requiring precise concentration control without additional formulation steps. Methylene Blue functions as a reversible redox-active molecule capable of cycling between oxidized and reduced states, making it a valuable research tool for investigating electron-transfer processes, redox chemistry, mitochondrial signaling mechanisms, and molecular oxidation-reduction pathways. Experimental studies have also examined its interactions with enzyme-associated signaling systems, protein aggregation processes, photochemical reactions, and spectrophotometric applications supported by its characteristic absorbance profile. Independently third-party HPLC-tested; COA available per batch.FAQ
What are the practical advantages of methylene blue solution over capsules for preclinical research?
The solution format enables parenteral administration routes (IV, IP, SC) not feasible with capsules, which are limited to oral delivery. For in vitro assays, direct dilution from the 5 mg/ml stock into assay medium avoids organic solvent introduction that capsule powder dissolution typically requires.
Volume-based dosing also eliminates powder weighing steps and the associated measurement error in small-dose animal studies. The capsule format is preferred for oral administration protocols where solution handling is not required.
What concentration range should researchers use for methylene blue in mitochondrial ETC bypass applications?
For mitochondrial ETC Complex III bypass studies, methylene blue is typically active at nanomolar to low micromolar concentrations in cell-based assays (0.1–10 µM). At these concentrations, the redox potential of MB/MBH2 cycling enables electron shuttling between NADH/Complex I and cytochrome c, bypassing Complex III.
Importantly, MB exhibits hormetic behaviour — low concentrations are cytoprotective (ETC enhancement), while higher concentrations (>10–100 µM) can be pro-oxidant. The 5 mg/ml stock (15.6 mM) requires approximately 1,000-fold dilution for typical assay working concentrations.
How does the methylene blue solution format support photodynamic research applications?
Methylene Blue absorbs maximally at 664 nm and, upon irradiation at this wavelength, undergoes intersystem crossing to its excited triplet state, which transfers energy to molecular oxygen to generate singlet oxygen (¹O₂) — the primary cytotoxic species in photodynamic applications.
The solution format simplifies preparation of defined MB concentrations for photosensitisation experiments, enables even distribution in assay well plates without dissolution heterogeneity, and allows precise control of photosensitiser concentration. Irradiation source intensity, exposure duration, and MB concentration are the key experimental variables in photodynamic research protocols.