A biotech firm discovers a microbe that degrades pollutants, doubling every 2.5 hours. If 300 cells are introduced into a polluted lake, how many cells will exist after 24 hours?

Mon, 04 May 2026 19:40:54 +0000

**A biotech firm discovers a microbe that degrades pollutants, doubling every 2.5 hours. If 300 cells are introduced into a polluted lake, how many cells will exist after 24 hours?** In an era where environmental innovation drives both scientific breakthroughs and global conversation, a cutting-edge biotech discovery is reshaping how we think about natural pollutant cleanup. Researchers have identified a rare microbe with the extraordinary ability to double in numbers every 2.5 hours—transforming a small population into a vast microbial force in just days. When applied to polluted ecosystems, this microbe holds promise far beyond the lab, offering scalable solutions for cleaning complex environmental challenges. Now, a compelling question emerges: What happens when 300 of these cells are introduced into a polluted lake over a full day? **Why This Breakthrough Is Gaining Traction in the U.S.**
With rising concerns over water quality, industrial pollution, and sustainable recovery, this microbial innovation stands out. The doubling time of 2.5 hours means rapid growth potential—underscoring why industry experts, environmental scientists, and policy-makers are taking notice. As communities demand actionable tools to combat contamination, this microbe exemplifies how biology is being harnessed not just for cleanup, but for long-term ecological resilience. Its application aligns with national efforts to strengthen environmental restoration and sustainable resource management. **How Does This Microbe Double Every 2.5 Hours?**
The strain’s rapid growth follows predictable exponential patterns. Starting with 300 cells, each 2.5-hour interval doubles the population. Twenty-four hours contains 24 ÷ 2.5 = 9.6 intervals—meaning full doubling occurs 9 full cycles with a partial tenth. Using mathematical precision, the final count results in over 41 billion cells—illustrating powerful proliferation potential. This demonstrates how engineered microbes can amplify their impact when conditions support growth.