Climate change and global warming can have significant impacts on the global ocean conveyor belt, also known as the Atlantic Meridional Overturning Circulation (AMOC), and these changes can, in turn, affect marine life in various ways. Here's how these two phenomena are interconnected:

In summary, the relationship between climate change, global warming, the global ocean conveyor belt (AMOC), and marine life is complex and interconnected. Climate change can influence ocean circulation patterns, alter marine climates, and impact marine ecosystems in various ways. These changes can have cascading effects on marine biodiversity, food webs, and the overall health of the world's oceans. Addressing climate change and its impacts is essential to mitigate the potential harm to marine life and maintain the health of our oceans.

Dr Gaurav H Tandon thank you for your contribution to the discussion

Ocean temperature plays a key role in the conveyor belt, so a change in Earth's climate might have drastic effects on the system. If one part of the conveyor belt were to break down if cold water is not lifted to the surface in upwelling, for instance nutrients will not be distributed to start the food chain. Global climate change could disrupt the global conveyer belt, causing potentially drastic temperature changes in Europe and even worldwide. The global conveyor belt is a strong, but easily disrupted process. Research suggests that the conveyor belt may be affected by climate change. The conveyor belt is also a vital component of the global ocean nutrient and carbon dioxide cycles. Warm surface waters are depleted of nutrients and carbon dioxide, but they are enriched again as they travel through the conveyor belt as deep or bottom layers. There is some evidence to suggest that an increase in global temperature may reduce the amount of sea ice formation. A decrease in the amount of sea ice formation would reduce the formation of bottom water. The decreasing temperature and rising salt content makes the water denser, causing it to sink as it heads back south all while subtropical water keeps on heading north, continually fueling the conveyor. But that once-dependable process may be changing. The world is rapidly warming, particularly at the poles. If the currents were to stop completely, the average temperature of Europe would cool 5 to 10 degrees Celsius. There would also be impacts on fisheries and hurricanes in the region. The currents in the North Atlantic are part of a global pattern as thermohaline circulation, or the global ocean conveyor.The movement of water north and south throughout the Atlantic might be weakening due to climate change, which could become a problem. To help understand why, let's explore what drives large-scale ocean circulation. Winds and Earth's rotation create large-scale surface currents in the ocean. Rising water temperatures, acidification, and low oxygen levels can combine with natural ocean cycles to create extreme marine events. Marine heat waves, dead zones, and coral bleaching are just a few examples of these events, which are projected to become more common and severe. The ocean is a significant influence on Earth's weather and climate. The ocean covers 70% of the global surface. This great reservoir continuously exchanges heat, moisture, and carbon with the atmosphere, driving our weather patterns and influencing the slow, subtle changes in our climate. The rising temperature contributes to a rise in sea levels. Other effects include ocean acidification, sea ice decline, increased ocean stratification and reductions in oxygen levels. Rising temperatures in the oceans affect marine organisms. Corals are particularly vulnerable to rising temperatures and ocean acidification can make it harder for shellfish and corals in the upper ocean to form shells and hard skeletons. We have also seen changes in occurrence of marine algae blooms.