Future technology: 22 concepts that will revolutionist our planet.
The future is approaching, and it may arrive sooner than you realize. These coming technologies will transform the way we live, care for our bodies, and help us avoid a climate calamity.
In today’s society, technology advances at an incredible rate. It might feel like new technology and ideas are being introduced on a daily basis, permanently altering our futures. However, with a constant stream of announcements about new enormous future technology advances and interesting devices, it is easy to lose sight of the incredible ways the world is evolving.
For example, there are artificial intelligence computers can write poetry from scratch and generate visuals from a single stated stimulus. There are 3D-printed eyeballs, novel holograms, lab-grown food, and brain-reading robots.
All of this only touches the surface of what is available, therefore we have compiled a list of the most fascinating future technologies below.
Necrobotics
Sometimes new future technology can provide tremendous advancements with the potential to change the future… while also being quite frightening.
This is one way to express the concept of necrobotics, which includes transforming dead objects into robots. While this seems like a storyline for a disturbing horror film, it is actually a technology being studied at Rice University.
A team of researchers transformed a dead spider into a robotic gripper capable of picking up other things. They do this by injecting air into a spider. This works because spiders employ hydraulics to drive their form of blood (haemolymph) into their limbs, causing them to stretch.
Right now, this notion is in its early phases, yet it may represent
Sand batteries
Not all technology that improves our future has to be difficult; others are basic yet incredibly effective.
One of these technologies was developed by Finnish experts who discovered a technique to transform sand into a gigantic battery.
These engineers loaded 100 tons of sand into a 4 x 7-meter steel container. All of the sand was then heated using wind and sun energy.
A local energy firm can then transmit this heat to surrounding buildings to keep them warm. This method allows energy to be stored for an extended length of time.
All of this is achieved through a process known as resistive heating. This is the process of heating a substance using the friction of electrical currents.
Sand, any
E-skin could help us hug long-distance friends
While contemporary technology enables us to interact verbally and visually practically anywhere on the planet, there is presently no dependable way to share the sensation of touch across vast distances. Engineers at the City University of Hong Kong have invented a wireless soft e-skin that might one day enable people to give and receive hugs via the internet.
The e-skin is outfitted with flexible actuators that detect the wearer’s motions and convert them to electrical impulses. These signals can then be sent to another e-skin system via Bluetooth, where the actuators turn them into mechanical vibrations that replicate the initial motions. The researchers believe the technique might be used to allow friends and relatives to ‘feel’ each other across large distances.
Smelly VR
Researchers at the City University of Hong Kong (CityU) recently developed a ‘new, wireless, skin-interfacedolfactory feedback system’. In other words, Virtual Reality attachments that allow you to smell things.
The scents are produced by equipment that heat and melt odorous wax, releasing varying amounts of stench. There are two variations of this technology. One is’mounted’ on your top lip for easy access to your nostrils, while the other is a facemask-style design with hundreds of possible odor combinations.
The institution stated that their new technology has a wide range of uses, including online education and 4D movie watching. That’s right, in the future, you won’t just be able to view your favorite movies in VR, but also smell them.
Catapulting satellites into space
Who would have believed that a handmade catapult was the ideal way to launch satellites into space? Okay, it is far smarter than a catapult, but the technology exists in the same way.
SpinLaunch is a prototype technique for launching satellites and other objects into space. It accomplishes this by utilizing kinetic energy rather than the conventional method of employing chemical fuel found in regular rockets. This system might be capable of spinning payloads at 8,000km/h and 10,000G before propelling them into space via a massive launch tube.
Of course, tiny rocket engines will be required to propel cargo into orbit, but SpinLaunch claims that this technology reduces fuel and infrastructure requirements by 70%.
Xenotransplantation
Inserting a pig’s heart into a person seems like a poor idea, yet it’s one of the most recent medical treatments that is making tremendous development.
Xenotransplantation, which is the process of transplanting, injecting, or infusing a person with cells, tissues, or organs from an animal source, has the potential to transform surgery.
One of the most popular operations conducted thus far is the implantation of a pig’s heart into a human. This has now occurred twice. However, one of the patients only lived for a few months, while the second is currently being monitored.
In these operations, the heart cannot be immediately implanted in a patient; instead, gene editing must occur first. Certain genes must be removed from the heart and replaced with human genes, namely those related to immunological acceptance and ones that limit excessive heart tissue development.
Right present, these operations are dangerous, with no guarantee of success. However, in the near future, xenotransplants may become more common, transferring hearts or tissues from animals to humans in need.
AI image-generation
As artificial intelligence continues to do occupations just as effectively as humans, a new industry joins the list: the realm of art. Researchers at the startup OpenAI have developed software that can generate graphics from simple text cues.
Type in ‘a dog wearing a cowboy hat singing in the rain’ and you’ll receive a slew of wholly unique photos that suit the bill. You may even specify the style of art your request will be returned in. However, the technology is not flawless and still has flaws, such as when we provided it incorrect cues for developing cartoon characters.
This technology, known as Dall-E, is in its second version, and the team behind it intends to continue refining it. In the future, we may see this technology utilized to produce art exhibits, for businesses to obtain rapid, creative images, or, of course, to revolutionize the way we make memes on the Internet.
Midjourney, an AI picture generator, makes gothic masterpieces with a simple language request. We truly live in the future.
Brain reading robots
Brain reading technology is no longer just a science fiction concept; in recent years, it has advanced significantly. Researchers at the Swiss Federal Institute of Technology Lausanne (EPFL) developed one of the most intriguing and practical applications we’ve seen tested thus far.
These researchers used a machine-learning algorithm, a robot arm, and a brain-computer interface to devise a way for tetraplegic patients (those who can’t move their upper or lower bodies) to communicate with the outside world.
During tests, the robot arm would complete simple tasks such as navigating around an obstruction. The system would then read brain signals using an EEG cap and automatically decide whether the arm made a wrong action, such as moving too near to the obstruction or moving too quickly.
Over time, the system may adjust to the individual’s tastes and brain signals. In the future, this might lead to brain-controlled wheelchairs or support gadgets for quadriplegic individuals.
3D printed bones
3D printing is an industry that promises everything from inexpensive home construction to affordable robust armour, but one of the most intriguing applications of the technology is the creation of 3D printed bones.
Ossiform specializes on medical 3D printing, producing patient-specific replacements for various bones using tricalcium phosphate, a material with characteristics comparable to human bones.
Using these 3D printed bones is surprisingly simple. A hospital may do an MRI, which is then transmitted to Ossiform, who will produce a 3D model of the patient-specific implant that is required. The surgeon approves the design, which, once printed, may be utilized in surgery.
What distinguishes these 3D printed bones is the usage of tricalcium phosphate.
