Description
Specifications
Product Name – RNA Double Helical Model
Quantity/Pack Size – Single Unit
Form – 3D Molecular Replica
Grade – Laboratory Grade
Application – Molecular Structure Study, Visualization, Laboratory Demonstration
product overview
The RNA Double Helical Model is a meticulously designed laboratory-grade replica illustrating the complex three-dimensional structure of ribonucleic acid molecules. Constructed from durable, non-toxic materials, this model emphasizes the spatial arrangement of the sugar-phosphate backbone, nucleotide bases, and helical twist, allowing detailed examination of RNA’s structural characteristics. Each nucleotide is distinctly colored to differentiate between adenine, cytosine, guanine, and uracil, enhancing visual clarity and making it easier to study base-pairing relationships and helical geometry. The model accurately represents the double helical nature of RNA, including its major and minor grooves, providing a tangible reference for molecular visualization and structural analysis. Mounted on a stable base, the replica allows for secure handling and multi-angle observation, making complex molecular concepts accessible and easier to understand. Its durable construction ensures longevity and suitability for repeated laboratory use, maintaining visual integrity and precise structural fidelity over time. This RNA Double Helical Model is an essential laboratory tool for exploring molecular architecture, enabling detailed examination, demonstration, and comparison with other nucleic acid models. Its combination of high-quality materials, accurate structural representation, and practical design makes it ideal for researchers, students, and educators requiring a reliable and precise molecular model for advanced laboratory study and observation.
FAQs
1. Does this model represent all nucleotide bases?
Yes, adenine, cytosine, guanine, and uracil are distinctly colored for clear identification.
2. Can this RNA model be used alongside DNA replicas?
Yes, it is fully compatible for comparative studies with other nucleic acid models in laboratories.
3. What is the recommended storage condition for this model?
Store in a dry, dust-free environment, avoiding direct sunlight to preserve colors and structural integrity.
4. Are individual components replaceable if damaged?
Certain parts of the model can be replaced to maintain structural accuracy and usability over time.
5. Is it safe to handle frequently during laboratory demonstrations?
Yes, the model is constructed from durable, laboratory-grade materials suitable for repeated handling.
