(petri dish use in laboratory)
Petri dishes are indispensable tools in laboratories, particularly in chemistry and microbiology. Their primary petri dish chemistry use involves culturing cells, analyzing chemical reactions, and testing antimicrobial agents. With a global market projected to grow at a CAGR of 6.8% by 2030 (Grand View Research, 2023), these tools are evolving to meet advanced research needs. Laboratories now prioritize dishes with enhanced optical clarity, chemical resistance, and stackability for high-throughput workflows.
The demand for petri dishes is driven by increased R&D spending and advancements in material science. In 2023, the global petri dish market was valued at $1.2 billion, with pharmaceutical companies accounting for 42% of purchases. Key growth factors include:
Contemporary designs feature gas-permeable lids for aerobic cultures and ultra-low attachment surfaces for 3D cell cultures. Manufacturers like Thermo Fisher and Corning now offer dishes with:
Brand | Material | Size (mm) | Sterilization | Price/Unit ($) | Capacity (mL) |
---|---|---|---|---|---|
Thermo Fisher | Polystyrene | 90x15 | Autoclave | 0.85 | 20 |
Corning | COC Polymer | 100x20 | Gamma | 1.20 | 25 |
Merck | Glass | 60x10 | Dry Heat | 2.50 | 10 |
Customization options address niche requirements like:
Leading suppliers provide rapid prototyping services, delivering sample batches within 14 working days for 78% of orders (LabTech Solutions, 2023).
A recent case study demonstrated petri dish use in laboratory
environments for nanoparticle synthesis. Researchers achieved 94% yield efficiency using Corning’s plasma-treated dishes compared to standard models. Other applications include:
The use of petri dish in chemistry laboratory settings will see integration with IoT systems for real-time monitoring. Emerging technologies include QR-coded dishes for automated tracking and biodegradable resins reducing plastic waste by 40%. As laboratories adopt AI-driven analysis, next-gen dishes will likely incorporate machine-readable surface patterns and integrated sensor arrays.
(petri dish use in laboratory)
A: Petri dishes in chemistry labs are often used for evaporating solvents, observing crystallization, or conducting small-scale reactions. They provide a shallow, flat surface for easy monitoring. Their transparency also allows clear visual analysis under light.
A: Petri dishes are typically sterilized using an autoclave, which applies high-pressure steam to eliminate contaminants. In chemistry labs, they may also be rinsed with ethanol or acetone for specific experiments. Proper sterilization ensures contamination-free results.
A: Yes, glass petri dishes can be reused after thorough cleaning and sterilization. Disposable plastic ones are discarded post-experiment to avoid cross-contamination. Reusability depends on material and experimental requirements.
A: Their wide, flat design allows even spreading of agar or gel-based media for chemical or biological samples. The lid minimizes airborne contamination. Transparency aids in tracking reactions or microbial growth.
A: Always wear gloves to prevent chemical residue transfer. Avoid sudden temperature changes to prevent cracking. Store them inverted to reduce surface contamination risk during storage.