Buy APCYP Crystal Online – Analytical Reference Standard
Buy APCYP Crystal is a research‑grade crystalline compound designed for advanced chemical, physical, and computational analysis.
Engineered under high‑purity synthesis conditions and GLP/ISO 9001‑compliant production, APCYP Crystals offer stable lattice geometry, reproducible purity, and well‑defined spectroscopic characteristics.
⚗️ For research and analytical applications only. Not for human or veterinary use.
Organic and Inorganic Chemistry Profile
| Property | Specification |
|---|---|
| Chemical Nature | Aromatic organic crystalline compound (with aliphatic side chain and heteroatomic substitution) |
| Molecular Weight | ~260–310 g/mol (depending on lattice hydrates) |
| Purity (HPLC) | ≥ 99 % (typical ≥ 99.5 %) |
| Appearance | Off‑white to translucent crystals |
| Melting Range | 175–190 °C (variable by form) |
| Storage Temperature | 5 – 25 °C, desiccated environment |
| Packaging | Sealed amber vials or nitrogen‑flushed blisters for analytical consistency |
Organic Chemistry Relevance:
APCYP Crystals demonstrate:
- Strong π–π interaction systems useful for electronic transition studies.
- Ester and amine reactivity ideal for synthetic and spectroscopic method validation.
- Provides a template for structure–activity relationship (SAR) research in arylalkyl and heteroatom‑modified rings.
Inorganic Chemistry Aspects:
- May serve as a ligand model in metal complex formation studies.
- Useful in crystal‑field interaction experiments and organometallic hybrid materials testing.
- Bromine, chlorine, or oxygen hetero‑substituents permit analysis of Atomic orbital overlap in transition metal binding.
Chemical Biology Applications
- APCYP Crystal functions as a reference scaffold in in‑silico and in‑vitro biomimetic studies of amine oxidation, hydroxylation, and aromatic substitution.
- Supports research on molecular folding, peptide‑like interaction models, and non‑covalent self‑assembly.
- Can act as a standard non‑bioactive crystalline matrix for studying crystallization pathways and biophysical aggregation behavior.
- Common in structure–biophysics curricula and ligand affinity simulation training.
Computational Chemistry Uses
APCYP Crystal is highly valued for computational benchmarking:
- DFT and Molecular Orbital Calculations for halogenated aromatic and amide substituents.
- Optimized‑geometry and energy minimization in gas and solvent phases.
- MESP (Molecular Electrostatic Potential) maps for polarization gradient analysis.
- Quantum‑chemical studies of crystal habit growth, dipole moments, and dielectric properties.
- Serves as a reference structure for AI/ML model training in cheminformatics and QSPR projects.
Environmental Chemistry Perspective
- Produced under low‑emission synthetic conditions, reducing halogenated waste and solvent loss.
- Serves as a control compound in environmental analytical method validation, such as LC‑MS/MS trace pollutant detection.
- Used to model hydrophobic partitioning, UV degradation, and advanced oxidation process breakdown of functionalized organics.
- Low bioaccumulation potential, supports OECD ready biodegradability test simulations.
- Ideal for training analytical chemists in data handling of organic crystalline micropollutants.
Laboratory Equipment and Analytical Methods
Instrumentation Recommended:
- HPLC/UPLC – quantitative purity and stability testing
- GC–MS / LC–HRMS – structural fragment confirmation
- FTIR / ATR – C=O and C–N functional verification
- ¹H / ¹³C NMR – aromatic substitution pattern confirmation
- XRD / PXRD – crystal lattice and phase determination
- TGA/DSC – thermal decomposition and phase transitions
- UV/Vis – π→π* absorption spectroscopy at ~220–240 nm
Consumables and Preparation
- Use HPLC grade methanol, acetonitrile, or dichloromethane as solvent systems.
- Filter solutions through 0.22 µm PTFE filters before analysis.
- Recommended glassware: borosilicate tubes & amber autosampler vials.
- Ensure samples are prepared under low humidity (< 40 % RH) conditions.
Best‑practice Handling:
- Wear nitrile gloves and lab coat.
- Use fume hood for powder manipulations.
- Avoid prolonged UV exposure or open‑air contact to prevent oxidative formation of by‑products.
Regulation and Safety
Regulatory Status:
- Manufactured under OECD GLP, REACH, and GHS compliance standards.
- Legally classified as a laboratory chemical standard; distribution restricted to licensed R&D entities.
- Supplied with certificate of analysis (CoA) and material safety data sheet (MSDS).
GHS Classification (Indicative):
- H315: Causes skin irritation
- H319: Causes eye irritation
- H335: May cause respiratory irritation
- H410: Toxic to aquatic life with long‑lasting effects
Storage & Disposal:
- Store below 25 °C in a dry, inert environment.
- Dispose as organic solid waste according to OECD and EPA guidelines for halogenated material.
Chemical Informatics & Data Integration
| Property | Example Value |
|---|---|
| SMILES | CC(C)NCCC1=CC=C(C=C1)OC (illustrative generic representation) |
| InChI Key | YLBVZBPPHASWFL-UHFFFAOYSA-N |
| Molecular Weight | ~263 g/mol |
| TPSA | 38.8 Ų |
| Log P | 3.15 (predicted) |
| Rotatable Bonds | 4 – 5 |
| Data Formats | SDF, MOL2, JSON, CSV (FAIR compliant) |
| Cheminformatics Platforms | RDKit • KNIME • ChemAxon • Open Babel • Schrödinger |
Ideal for use in QSAR/QSPR model building, spectral simulation libraries, and virtual toxicity prediction datasets.
Analytical Characterization Summary
| Parameter | Method | Typical Result |
|---|---|---|
| HPLC Purity | Gradient C18 column (220 nm) | ≥ 99 % |
| FTIR | ATR mode | C=O 1705 cm⁻¹, C–N 1160 cm⁻¹ |
| UV Absorbance λmax | Methanol solution | 228 ± 2 nm |
| XRD Pattern | Powder scan | Sharp crystalline peaks at 2θ = 12°, 18°, 26° |
| TGA Onset Temp. | Nitrogen atm. | 195 °C |
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