Electric Assistive Technology Explained In Fewer Than 140 Characters

· 4 min read
Electric Assistive Technology Explained In Fewer Than 140 Characters

Electric Assistive Technology

Over a billion people need an assistive device and that number is expected to double by 2030. These devices can be bought; modified, like adding tennis balls to a walker; or even custom made.

A few examples of assistive technology include pencil grips, ergonomic kitchen tools (such as OXO good grips) and keyboards with specialized features. More advanced devices can also be considered, including screen magnifiers.

Functional electrical stimulation

Functional electrical stimulation (FES) provides small electrical charges to muscles that have become weak or weak due to injuries, such as multiple sclerosis or a stroke. The electrical impulses stimulate the muscle to perform its usual movement. This treatment can be used to enhance movement, like walking or grasping. It can also help improve the bladder, bowel, and reduce the risk of pressure sores.

Electrical stimulation can trigger reactions in excitable cells, such as neurons, and it has been used for years to treat a variety of ailments. Examples include cochlear implant to restore hearing, respiration assisters, and systems to help people void their bladder. It also helps reduce the tremors caused by Parkinson's. Electrical stimulation is delivered using electrodes that may be completely implanted into the body or they can be placed on the skin without penetration the skin, which is known as percutaneous or noninvasive electrodes.

The intensity of stimulation can be adjusted to achieve different outcomes. The intensity of a stimulus can, for example, influence the type and location of nerve fibers targeted. Larger fibers located nearer to the electrode are targeted first. The duration of the stimulus is another crucial factor. It can influence the rate of fatigue, by altering the duration that the muscle is stimulated.

While FES can be effective in helping a person suffering from a spinal cord injury regain functional movements, it's not suitable for everyone. It's not recommended for people with epilepsy that isn't controlled or cancerous lesions on the skin to be stimulated, or who are hypersensitive. It is not recommended for people who suffer from a poor skin condition, as the self-adhesive electrodes can lead to irritation or pressure injuries.

Power chairs

Power chairs are motorized wheelchairs that use an electric motor and battery to aid with mobility. They can be controlled by using a joystick or control system, and provide greater independence and accessibility to the world for those who are unable to walk. They also let users travel for longer distances without having to rely on others for assistance. These devices can also be adapted to meet the requirements of specific users.

There are a variety of different kinds of power chair that include portable, indoor/outdoor, and mid-sized. Portable power chairs are extremely lightweight and fold down to fit in small spaces. They are ideal for use at home, or for short distances. Power chairs that are mid-sized offer a balance between flexibility and durability, whereas indoor/outdoor power chairs are designed for outdoor use but can be adjusted to fit indoor conditions. Indoor/outdoor chairs may include grippy tires that can assist in maneuvering over kerbs and they might also come with an kerb-climber.

For those with physical disabilities, assistive technology is a vital tool. The technology can be anything from voice recognition software that is available in stores to specialized seating that enhances the user's comfort and independence. High-tech assistive technologies are often more expensive but offer advanced features and customization options that are suitable for people with a range of requirements.

It is best to seek out advice from a medical or a physical therapist to determine the best solution. They can recommend the right device for you, and help you choose the right size and guide you through the use of it. They can also help you select accessories and integrate the equipment into your daily routine.

Railings

Often simply called handrails, railings run diagonally alongside stairs or ramps to offer an enduring gripping point for individuals navigating the incline. To avoid  indoor electric mobility scooter , many building codes have regulations about the height and spacing of handrails. Handrails can be made into a graspable shape or constructed of materials that are easy to grasp. Functional handrails that comply with ADA regulations feature a finger recess on either or both sides. They should also be sturdy enough to withstand 200 pounds of force.

Handrails can also be a tactile guide for people with visual impairments, helping them to navigate staircases. Handrails allow individuals to feel the number of steps or curves, as well as landings by running their hands along them. In emergency situations, handrails can help direct individuals to safe exit routes.

Electronic pillboxes

The electronic pillbox was developed to aid seniors in remembering to take their medication.  portable electric mobility scooters for adults  uses triple alarms and visual and audible reminders to ensure that seniors take their pills at the right times. This technology can help reduce medication errors, which are a major cause of death in seniors. It can also help to avoid fatal overdoses.

The device is comprised of a medication container with different compartments for each day and the time of the week, an electronic sensor powered by batteries that has an international mobile data connection, and a set of LEDs and speakers that can provide visual/audible notifications of pill dueness. This device is specifically designed for patients who regularly take many vitamins or medicines and caregivers in hospitals and retirement homes.

In the most basic model the pillbox sensor is built inside the lid and is able to monitor the state of each subcompartment lid. The sensors are triggered whenever the lid is opened by the user and a signal sent to the microcontroller. The signal is time-stamped before being saved to an internal memory buffer that is circular in the microcontroller 18LF252 PIC.



The system is designed to be easily reprogrammed with the use of an external Arduino board, which controls each of the different parts. The Arduino board will be responsible for emitting light and sound signals for the pillbox to let the senior know that a pill has to be taken and wirelessly sending the notification to the caregivers. The acoustic and light signals will be on for a brief period of time, then it will bleep every 10 seconds until the senior has a conversation with the device. The pillbox will then dispense the pill, and the LEDs and internal speaker will be turned off.