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Sensory Cyborgs, Applications and Research,

 Sensory cyborgs refer to individuals who have integrated technology into their bodies to enhance their sensory abilities. Sensory cyborgs have enhanced or augmented sensory abilities through the use of technology or implants artificial sensors, such as cameras or microphones.

What are Sensory Cyborgs?

 Sensory cyborgs refer to individuals who have integrated technology into their bodies to enhance their sensory abilities. Sensory cyborgs have enhanced or augmented sensory abilities through the use of technology or implants artificial sensors, such as cameras or microphones.

This can include sensory substitution, where one sense is replaced with another, or sensory augmentation, where a sense is enhanced beyond its natural capabilities. The applications of sensory cyborgs are numerous, and they are primarily designed to help people with sensory impairments

Applications of Sensory Cyborgs:

Image of Sensory Cyborg/Neil Harbisson.
Sensory Cyborg-Image of Neil Harbisson an artist and cyborg activist /In 2004, an antenna implanted into his skull allows him to “hear” colours/Image Credit- Wikipedia

Science and technology progressed a lot in the field of Sensory Cyborgs and the applications include;

Hearing Aids:

Hearing aids are a type of sensory cyborg technology that helps people with hearing loss. These devices amplify sounds so that people with hearing loss can hear them more clearly.

Cochlear Implants:

Cochlear implants are another type of sensory cyborg technology that is used to help people with severe hearing loss. They consist of an internal component that is surgically implanted into the inner ear and an external component that is worn behind the ear.

Retinal Implants:

Retinal implants are a type of sensory cyborg technology that is used to help people with vision loss. They consist of an implanted device that stimulates the retina to create visual perceptions.

Prosthetic Limbs:

Prosthetic limbs are a type of sensory cyborg technology that is used to help people who have lost a limb. These devices use sensors to detect movement and provide feedback to the user, allowing them to control the prosthetic limb more accurately.

Brain-Computer Interfaces:

Brain-computer interfaces (BCI) are a type of sensory cyborg technology that allows people to control computers or other devices using their thoughts. This technology can be particularly useful for people with severe physical disabilities.

Brain-machine interfaces (BMIs)/ example of one of the Sensory Cyborgs.
Brain-machine interfaces (BMIs)/ Image Credit/ ResearchGate

Overall, sensory cyborgs have the potential to significantly improve the quality of life for people with sensory impairments. By enhancing their sensory abilities, sensory cyborgs can help these individuals overcome many of the limitations that they face on a daily basis

Research and Development in the Field of Sensory Cyborgs:

Several research projects and developments in the field of sensory cyborgs made to date. For example.

1. Kevin Warwick, a British scientist who has worked extensively in the field of cybernetics and human enhancement, has experimented with sensory implants such as brain-computer interfaces and implanted electrodes to enhance human sensory abilities.

2. The Defence Advanced Research Projects Agency (DARPA) has funded research into sensory cyborg technologies, including developing prosthetic limbs that can provide sensory feedback to the user, and implantable devices that can restore vision or hearing.

3. In 2020, a team of researchers at the University of Chicago developed a system that uses gene therapy to restore vision in blind mice. While still in the experimental stage, this technology could potentially have applications for restoring vision in humans and creating new sensory cyborgs.

4. One notable project is the “Eyeborg Project” by Kshitij Marwah, an Indian engineer and researcher. The project involves developing a wearable device that can translate visual information into sound, allowing visually impaired individuals to “hear” their surroundings. The device uses a camera to capture images, which are then processed and converted into sound signals that the user can hear through bone-conduction headphones.

5. Another project is the development of a “tactile vest” for the deaf-blind, which uses vibrational feedback to provide sensory information about the environment. The vest has sensors that detect sound and convert it into vibrations that the wearer can feel on their skin, allowing them to “hear” their surroundings through touch.

Examples of Sensory Cyborgs:

  1. Neil Harbisson: Neil Harbisson is an artist and cyborg activist who was born with achromatopsia, a condition that causes complete colour blindness. In 2004, an antenna implanted into his skull allowed him to “hear” colours. The antenna translates colours into audible vibrations that he can hear through bone conduction.
  2. Enno Park: Enno Park is a German neuroscientist who had a magnet implanted into his finger. The magnet allows him to sense magnetic fields, which can be useful for navigating unfamiliar environments.
  3. Jens Naumann: Jens Naumann is a Danish software developer who is partially deaf. He had a cochlear implant surgically implanted into his ear, significantly improving his hearing.
  4. Claudia Mitchell: Claudia Mitchell is a former United States Army officer who lost her left arm in a motorcycle accident. She received a prosthetic arm that uses myoelectric sensors to detect muscle movements in her residual limb, allowing her to control the prosthetic with her thoughts.
  5. Rob Spence: Rob Spence is a filmmaker who lost his right eye in a shooting accident. He had a prosthetic eye fitted with a wireless camera that allows him to record footage from his perspective.

These examples demonstrate the wide range of sensory cyborgs and how they can be used to enhance human abilities and overcome disabilities.

Conclusion:

 Overall, the field of sensory cyborgs has the potential to provide significant benefits to individuals with sensory impairments, as well as to enhance human capabilities beyond what is naturally possible. Ongoing research and development in this field will likely continue to push the boundaries of what is possible with sensory augmentation and substitution technologies.

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