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Perceptions in AI

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[Leaning Tower of Pisa - Jordi Serra Ramon]
 

- Overview

In the context of AI, perception generally refers to the ability of a system to interpret and make sense of information from the environment. In the case of AI, perception often involves the use of sensors and data processing techniques to understand the world.

Perception is the process of interpreting, acquiring, selecting, and organizing sensory information captured in the real world. For example, humans have sensory receptors for touch, taste, smell, sight, and hearing. As a result, messages received from these receptors are transmitted to the human brain, which organizes the data. 

Information response is achieved by interacting with the environment in order to manipulate and navigate the objects within it. Perception and action are key concepts in robotics. 

There is an important difference between AI programs and robots. AI programs operate in computer simulations, while robots operate in the real world. In chess, for example, an AI program might be able to make moves by searching for different nodes, even though it lacks the ability to sense or touch the physical world. However, by interacting with the physical world, chess-playing robots can make moves and catch pieces. 

Here are some examples of how AI uses perception:

  • Computer vision: Uses computers to interpret visual data from images and videos. This technology can be used for facial recognition, object detection, and tracking.  
  • Speech recognition: Allows machines to understand and interpret spoken language. 
  • Autonomous driving: Uses AI's perception capabilities to scan the environment and navigate.

 

- Machine Perception

Machine perception is the ability of a machine to process sensory information from its environment to learn about the world and interact with it. This information can come from sensors like cameras, microphones, and more. 

The goal of machine perception is to make machines see, feel, and perceive the world in a similar way to humans. This would allow machines to make decisions, explain why they didn't work out, and warn humans when something goes wrong.

The process is as follows:

  • Data collection: Sensors like cameras and microphones collect data.
  • Data preprocessing: The data is preprocessed to remove noise and improve its quality.
  • Data analysis: ML algorithms analyze the data and extract relevant features.
  • Decision making: The features are used to make predictions or decisions.
 

The goal of machine perception is to make machines see, feel, and perceive the world in a similar way to humans. This would allow machines to make decisions, explain why they didn't work out, and warn humans when something goes wrong.

 

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[Mittenwald, Bavaria, Germany]

- Machine Perception vs Computer Vision

Machine perception is a computer's ability to process sensory information, similar to how humans perceive the world, while computer vision is a technology that allows computers to understand digital images:

  • Machine perception: Computers can use sensors to mimic human senses like sight, sound, touch, and taste. Machine perception can also include taking in information in ways that humans can't. 
  • Computer vision: Computer vision uses algorithms to analyze digital images, allowing computers to understand the content of an image. Computer vision can perform tasks like object detection, facial recognition, and image segmentation. 

 

Machine perception includes computer vision, but also other uses of computers to sense aspects of the world that humans sense. Those uses include machine hearing (for example, speech recognition) and machine touch (as might be used in a robotic hand).

Here are some differences between machine vision and computer vision:

  • Use cases: Machine vision is used in real-world interfaces, like factory lines, while computer vision can be applied independently of other systems. 
  • Image processing: Machine vision is limited to processing images captured by the system's cameras, while computer vision can process pre-existing visual media. 
  • Versatility: Computer vision is versatile and can be applied across a wide range of theoretical and practical applications.

 



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