Difference between revisions of "Bio-inspired Computing"
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[https://en.wikipedia.org/wiki/Bio-inspired_computing Bio-inspired Computing] is a subset of [https://en.wikipedia.org/wiki/List_of_metaphor-based_metaheuristics metaphor-based metaheuristics] | [https://en.wikipedia.org/wiki/Bio-inspired_computing Bio-inspired Computing] is a subset of [https://en.wikipedia.org/wiki/List_of_metaphor-based_metaheuristics metaphor-based metaheuristics] | ||
− | Bio-inspired AI or Nature-inspired AI is a branch of artificial intelligence that seeks to develop intelligent agents by mimicking the behavior of natural systems. This can include the behavior of animals, plants, or even entire ecosystems. | + | Bio-inspired AI or Nature-inspired AI is a branch of artificial intelligence that seeks to develop intelligent agents by mimicking the behavior of natural systems. This can include the behavior of animals, plants, or even entire ecosystems. Bio-inspired AI is a field of study that seeks to develop artificial intelligence (AI) systems by taking inspiration from biological systems. This can include the structure and function of biological organisms, as well as the principles of evolution and natural selection. |
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+ | There are many different areas of bio-inspired AI, but some of the most common include: | ||
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+ | * <b>Artificial neural networks</b>: are inspired by the structure and function of the human brain. They are made up of interconnected nodes that can learn to recognize patterns and make decisions. | ||
+ | * <b>Genetic algorithms</b>: are inspired by the process of natural selection. They use a technique called mutation to randomly change the parameters of an algorithm, and then select the best-performing algorithms to continue evolving. | ||
+ | * <b>Evolutionary computation</b>: is a broad term that encompasses a variety of techniques inspired by evolution, such as genetic algorithms, genetic programming, and differential evolution. | ||
+ | * <b>Swarm intelligence</b>: is inspired by the behavior of social insects, such as ants and bees. These insects are able to coordinate their actions to achieve complex tasks, such as building nests and foraging for food. | ||
+ | * <b>Biomimetics</b>: is the field of engineering that seeks to design artificial systems that mimic the function of biological systems. This can include the development of artificial limbs, organs, and sensors. | ||
Revision as of 20:09, 19 August 2023
YouTube search... ...Google search
- Symbiotic Intelligence ... Bio-inspired Computing ... Neuroscience ... Connecting Brains ... Nanobots ... Molecular ... Neuromorphic ... Evolutionary/Genetic
- Collective Animal Intelligence ... Animal Ecology ... Animal Language ... Bird Identification
- History of Artificial Intelligence (AI) ... Creatives
- Lifelong Learning - Catastrophic Forgetting Challenge
- Other Challenges in Artificial Intelligence
- AI Solver ... Algorithms ... Administration ... Model Search ... Discriminative vs. Generative ... Optimizer ... Train, Validate, and Test
- Cybersecurity ... OSINT ... Frameworks ... References ... Offense ... NIST ... DHS ... Screening ... Law Enforcement ... Government ... Defense ... Lifecycle Integration ... Products ... Evaluating
- Sakana ... inspired by the way that fish and other animals work together in groups
- An AI Experiment Generated 40,000 Hypothetical Bioweapons in Just 6 Hours | David Nield - Science Alert
Bio-inspired Computing is a subset of metaphor-based metaheuristics
Bio-inspired AI or Nature-inspired AI is a branch of artificial intelligence that seeks to develop intelligent agents by mimicking the behavior of natural systems. This can include the behavior of animals, plants, or even entire ecosystems. Bio-inspired AI is a field of study that seeks to develop artificial intelligence (AI) systems by taking inspiration from biological systems. This can include the structure and function of biological organisms, as well as the principles of evolution and natural selection.
There are many different areas of bio-inspired AI, but some of the most common include:
- Artificial neural networks: are inspired by the structure and function of the human brain. They are made up of interconnected nodes that can learn to recognize patterns and make decisions.
- Genetic algorithms: are inspired by the process of natural selection. They use a technique called mutation to randomly change the parameters of an algorithm, and then select the best-performing algorithms to continue evolving.
- Evolutionary computation: is a broad term that encompasses a variety of techniques inspired by evolution, such as genetic algorithms, genetic programming, and differential evolution.
- Swarm intelligence: is inspired by the behavior of social insects, such as ants and bees. These insects are able to coordinate their actions to achieve complex tasks, such as building nests and foraging for food.
- Biomimetics: is the field of engineering that seeks to design artificial systems that mimic the function of biological systems. This can include the development of artificial limbs, organs, and sensors.
The world of AI has a lot of things around it to thank for its existence in our technological landscape of today. Not only have humans spent decades of research perfecting the mathematical calculations to make these wonderfully complex learning algorithms work but during this time we have looked further than our own species as inspiration to make the next generation of intelligent presence on our planet. Mother Nature, and all that it encompasses, has it’s roots firmly planted in the workings of Artificial Intelligence — and it’s here to stay. 5 Ways mother nature inspires artificial intelligence | Luke James - Towards Data Science
- Bacterial Foraging Optimization Algorithm | Jason Brownlee
- Bat algorithm | Wikipedia
- Bees
- Biodegradability Prediction | Wikipedia
- Neuroscience - brain architecture - Cognitive Brain Function (Neurons) - Neural Network
- Cells
- Classical/Pavlov Conditioning - Reinforcement Learning (RL)
- Cuckoo Search | Wikipedia
- Cuttlefish Optimization Algorithm | Wikipedia
- Epidemiology of Infectious Disease (networks) | L. Danon, A.P. Ford, T. House, C.P. Jewell, M. Keeling, G.O. Roberts, J.V. Ross, and M.C. Vernon
- Collective Animal Intelligence:
- Flocking (birds) | Wikipedia
- Ant Colony Optimization Algorithms (insects) | Wikipedia
- DARPA Thinks Insect Brains Might Hold the Secret to Next-Gen AI (insects) | Nextgov
- Swarm intelligence (insects) | Wikipedia
- Particle Swarm Optimization | Wikipedia
- Shoaling & Schooling (fish) | Wikipedia
- Herd Behavior (land animals) | Wikipedia
- Evolution Strategy | Wikipedia
- Excitable Media; forest fires, "the wave", heart conditions, axons | Wikipedia
- Firefly Algorithm | Wikipedia
- Fish School Search | Wikipedia
- Fly Algorithm | Wikipedia
- {Leaping} Frog | R. Shivakumar, P.Tamilarasu and M.Panneerselvam
- Genetic Algorithm | Wikipedia - Survival of the Fittest/Evolution
- Grafting (decision trees) | Wikipedia
- (Artificial) Immune System
- (Artificial) Plant Optimization Algorithm | Wikipedia
- Plant Structures | Wikipedia
- Sensory Organs | Wikipedia
Swarm
- Robotics ... Vehicles ... Drones ... 3D Model ... 3D Simulation Environments ... Simulated Environment Learning ... Point Cloud
- Swarm robotic platforms | Wikipedia
- Swarming (military) | Wikipedia
One of the most well-known examples of nature-inspired AI is swarm intelligence. Swarm intelligence is a type of collective behavior that emerges from the interactions of simple agents. Swarm intelligence is a rapidly growing field of research, and there are many new and exciting applications being developed all the time. As our understanding of swarm intelligence continues to grow, we can expect to see even more innovative and practical applications in the years to come. These agents are often autonomous and have limited capabilities, but they can achieve complex tasks by working together. Some examples of swarms in nature include flocks of birds, schools of fish, and colonies of ants.
The advantages of swarm intelligence include:
- It is scalable. Swarms can be made up of a large number of agents, which makes them well-suited for solving problems that are too complex for a single agent to solve.
- It is robust. Swarms can continue to function even if some of the agents are lost or damaged.
- It is adaptive. Swarms can learn and adapt to changes in their environment.
Some of the applications of swarm intelligence include:
Here are some specific examples of the advantages of swarm intelligence in real-world applications:
- In robotics, swarms of robots can be used to perform tasks that are too dangerous or difficult for humans, such as defusing bombs or exploring hazardous environments.
- In traffic control, swarm intelligence can be used to optimize traffic flow and reduce congestion. This can be done by using sensors to monitor traffic conditions and then adjusting the speed and direction of vehicles in real time.
- In financial trading, swarm intelligence can be used to make trading decisions and predict market trends. This can be done by using historical data to train a swarm of agents to identify patterns in the market.
- In data mining, swarm intelligence can be used to find patterns in large datasets. This can be done by using swarm agents to explore the dataset and identify clusters of data that are similar to each other.