NB-5-MeO-DALT Oxalate Powder
NB-5-MeO-DALT Oxalate Powder (systematically recognized as tert-butyl 3-{2-[di(prop-2-en-1-yl)amino]ethyl}-5-methoxy-1H-indole-1-carboxylate oxalate) is an advanced N-protected derivative of the synthetic tryptamine 5-MeO-DALT. By incorporating a tert-butyloxycarbonyl (N-Boc) shielding group onto the primary indole nitrogen, this compound serves as a highly specialized chemical mask or “prodrug” matrix within contemporary pharmacological testing. The raw crystalline oxalate salt format is manufactured exclusively for in vitro laboratory replication, high-resolution mass spectrometry calibration, and thermal degradation profiling.
Isolating this targeted molecule within a stable oxalate crystalline matrix provides analytical laboratories with an exceptionally stable reference standard. It allows forensic and biochemical networks to establish highly accurate baselines for tracking the structural transformations, metabolic pathways, and thermo-chemical behaviors of N-Boc modified novel psychoactive substances (NPS).
Why Source Raw NB-5-MeO-DALT Oxalate Powder?
Sourcing an analytically pure NB-5-MeO-DALT Oxalate Powder is crucial for ensuring chemical stability, precise mass-spectrometry tracking, and reproducible experimental data during advanced tryptamine testing.
1. Enhanced Structural Thermal Resilience and Shelf Life
Raw, unprotected tryptamine freebases are notoriously sensitive to ambient air exposure, moisture accumulation, and localized UV degradation, often breaking down quickly into secondary variants. The pairing of the N-Boc protective group with a rigid oxalate salt matrix significantly raises the molecule’s decomposition threshold. This configuration shields the active sites from premature degradation, extending the compound’s archival shelf life and preserving its structural integrity during long-term observation cycles.
2. Advanced Cleavage and Pyrolytic Mapping
The primary purpose of researching N-Boc modified tryptamines centers on analyzing how the molecule sheds its protective mask under specific conditions:
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Controlled Thermal Cleavage: This reference standard allows laboratories to simulate and track pyrolytic pathways. When subjected to precise thermal energy, the N-Boc barrier cracks cleanly away via a predictable elimination loop, generating volatile sub-products ($CO_2$ and isobutylene) and releasing the underlying parent tryptamine, 5-MeO-DALT.
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Forensic Screening Validation: As automated custom designer variations continue to expand globally, having pure crystalline NB-Boc standards empowers toxicological screening facilities to update gas chromatography-mass spectrometry (GC-MS) libraries, ensuring accurate identification of masked derivatives.
The Structural Science of NB-5-MeO-DALT Oxalate
The molecular architecture of NB-5-MeO-DALT Oxalate features unique shielding characteristics that differentiate it from classic, unmodified indolealkylamines documented in established chemical databases like the National Center for Biotechnology Information (NCBI) PubChem Database.
Plaintext
O
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O-C-O-C(CH3)3 <-- N-Boc Protective Group on Indole Nitrogen
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[Indole Core]--CH2-CH2-N(CH2-CH=CH2)2 <-- Diallyl Side Chain
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CH3O (5-Methoxy)
1. Nitrogen-Shielded Molecular Mechanics
The addition of the tert-butyloxycarbonyl cluster fundamentally alters the chemical properties of the tryptamine core:
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Elimination of Hydrogen-Bonding Networks: In a standard 5-MeO-DALT freebase matrix, the secondary indole $N-H$ site forms strong intermolecular hydrogen bonds that organize the molecules into tight zigzag crystalline chains. Masking this specific site with the bulky Boc group removes the donor hydrogen, drastically altering the molecule’s crystal packing properties and lipophilic transport traits.
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Altered Binding Kinetics: The steric bulk introduced by the N-Boc cluster temporarily hinders the molecule’s ability to lock directly into central serotonin receptors ($5-HT_{1A}$, $5-HT_{2A}$). This makes it a highly useful model for studying step-by-step enzymatic or thermal activation behaviors.
2. High-Purity Oxalate Salt Conjugation
Binding the modified freebase to high-purity oxalic acid creates a highly predictable analytical matrix:
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Immaculate Sample Homogeneity: The oxalate salt configuration yields a uniform crystalline powder that resists clumping, allowing researchers to measure exact micro-gram weights for consistent laboratory dilutions.
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Optimized Spectral Definition: Because the raw compound is processed without heavy binders or flow-controlling silicas, running the material through high-performance liquid chromatography (HPLC) profiles yields razor-sharp, unambiguous baseline peaks.
Technical Specifications: NB-5-MeO-DALT Oxalate Assay
To facilitate precise experimental calibration and rigorous data validation, all promotional descriptions are omitted in favor of verified chemical properties.
| Parameter | Detailed Empirical Specification |
| Chemical Identification | NB-5-MeO-DALT Oxalate (5-MeO-DALT BOC Oxalate) |
| Substance Class | N-Boc Protected Substituted Tryptamines |
| CAS Registry Number | 2701255-80-7 (Freebase Core: 2710495-77-7) |
| Systemic Purity Level | ≥98.0% Pure Active Assay via HPLC / GC-MS |
| Molecular Formula | $C_{22}H_{30}N_{2}O_{3} \cdot C_{2}H_{2}O_{4}$ |
| Combined Formula Weight | 460.52 g/mol |
| Primary Solubility Profile | Soluble in DMF (up to 20 mg/mL), DMSO, and Methanol |
Frequently Asked Questions Regarding Reconstitution
What are the primary solubility parameters of this oxalate salt configuration?
NB-5-MeO-DALT Oxalate exhibits strong compatibility with organic solvents. It dissolves cleanly in dimethylformamide (DMF) at concentrations up to 20 mg/mL, and shows excellent stability when reconstituted in high-purity DMSO, methanol, or anhydrous laboratory ethanol for analytical tracking assays.
How does the N-Boc group impact automated forensic mass spectrometry detection?
During standard GC-MS screening routines, the high temperatures within the injection port often induce partial or complete thermal cleavage of the N-Boc group. Consequently, the resulting spectra may reveal a mixture of the intact protected molecule alongside the parent 5-MeO-DALT fragments. To map the true molecular weight without inducing accidental thermal breakdown, laboratories utilize liquid chromatography-mass spectrometry (LC-MS) under mild ionization conditions.
Is this compound cleared for medical applications or clinical trials?
No. This material is synthesized exclusively for in vitro laboratory analysis, forensic reference calibration, and scientific research. It is a completely unapproved novel psychoactive derivative with no recognized therapeutic value, and is strictly prohibited from human consumption, veterinary trials, or any form of in vivo clinical testing.
Secure Industrial Chemical Excellence
Do not compromise your laboratory’s analytical data or ongoing research cycles on unverified, loosely handled chemical products that exhibit heavy localized degradation. By selecting our NB-5-MeO-DALT Oxalate Powder, you introduce uncompromising laboratory purity, verifiable chemical stability, and immaculate baseline precision into your experimental workflow. The resulting mitigation of trace impurities, highly predictable solubility profiles, and clear assay metrics will empower your research collective to break through analytical plateaus with absolute, unwavering confidence.