HUMAN INTERFACE MULTI-POINTING WIRELESS DEVICE
Abstract: This paper describes a wireless mouse that can be controlled by a user’s arm movement alone .The main purpose of this mouse is to control various computer systems by a single user. It focuses on the invention of the arm controlled mouse that employs one tilt sensor placed on the hand. The primary goals of the system are to have a comfortable and easily wearable device without interfering with other everyday activities while tracking particular movements of hand that could be used to control a wearable mouse or other wearable devices. The system uses accelerometer based tilt sensor to detect the user’s hand tilt in order to direct the mouse movement through a sensor. Clicks of the mouse are provided with the use of pressure sensor. The system is made wireless using RF Communication. This system was invented to assist people in their multitasking jobs where they can keep control over more things simultaneously.
Keywords: Wireless mouse, tilt sensor, pressure sensor, multitasking
Introduction: The purpose of this project is to explore the possibility of creating a wireless mouse that could be used in any location without having a flat surface to move it on. For this reason, we are trying to create a handheld device that uses accelerometer and gyro to detect its own orientation a feature that can be controlled by a user 's arm movements alone. We are trying to make the device transmit data wirelessly to a base station so
Orbacle essentially acts as a companion toy to a smartphone. Its core processing unit is a Raspberry Pi, and it establishes a connection with the smartphone using a Bluetooth dongle. Orbacle will comprise of two components: a physical ball that can be controlled through the smartphone or voice commands, and a virtual pet called the Orbys that exists in the accompanying application. The motor system is a hamster ball component with an internal weight mechanism. The aforesaid commands will move the internal weight mechanism, which consequently offsets the ball and causes it to move. With a gyroscope and a proportional-integral-derivative tuning system, the Orbacle can perform accurate rotations relative to the user. Orbacle is also very durable
Generally, there are two key forms of monitor interfaces that should be highly considered in the process of designing different computer applications namely the multi-touch screen interface and the mouse-driven interface. The controlling actions that are carried out by different computer users tend to have different preferences when it comes to the use of different computer applications uses (Dearden, 2008). As such, the application of the multi-touch screen gives computer users an opportunity to interact with the computer applications via a touch screen that will give them a chance to tap, swipe, long tap, and pinch the screens for purposes of performing their required
My knowledge in this area is reflected with my understanding in the concept of remotely monitoring patients is not new but recently a lot of attention has been placed on smart wearable body sensors (SWS). Therefore, these devices contain an assortment of different sensors which can be used to monitor variables and transmit data either to a personal device or to a storage site. The variety of the sensors can be attributed to the types of stimuli that they respond to, for an example, physiological vital signs, body movements, and organic substances and their placements clothing, subcutaneous implant, body part accessory, and many more. These devices have the opportunity to meet the patients’ needs by administering information in real-time to the patient’s smartphone, computer or other wireless devices and has the potential to influence their behaviours. The sensors allow patients to self-monitor, track, and assess human physiological data, while also providing interfaces and a dashboard for healthcare providers. These sensors are easily managed and are becoming increasingly accurate and reliable for patient care. The SWS’s can also be utilized as a diagnostic tool to
Our Smartphones are touchscreen and we are used to touchscreen tablets so now is the time for touchscreen laptops. One advantage these laptops are having is the Keyboard on which most of the computer functions are dependent. The machine on which you can ‘Touch’ or ‘Type’.
Portable systems support computing and communication activities where they are defined by their design for mobile users, and from an ergonomic point of view they are not homogeneous. Some portable systems are designed for outdoor use and hence they can be used during adverse environmental conditions Huber, 2002).
A. K. Whitchurch, University of Arkansas, Fayetteville, J. K. Abraham ; V. K. Varadan, authors of, Design of a Wireless Remote Point-of-Care Monitoring System. The paper spoke about the design and development of a remote point-of-care patient monitoring system which can be used for the patient to be monitored remotely while any restriction of user’s location.Wireless data acquisition occurs and which is used for real-time evaluation of the patient's conditions as well as data logging.
URL: : http://en.,.wikipedia.org/wiki/wearable_computer Date accessed: The page was last modified on 9 August 2014 at 10:19
A pointing device (typically a mouse or a trackball) is a device that aids the user in the general use of a computer. Whilst it is not important in the basic use of computers it is needed when working with digital graphics as the use of a pointing device means that you can edit images and move anything without issue. The average mouse costs around £10 and below. A trackball costs slightly more with an average around £25.
Advancements in technology are causing dynamic changes that further enhance our lifestyle on a daily basis. Did you ever imagine you can answer a complex question only with the power of a handheld device, or what about tracking your every move using only a wristband? Are we capable of streamlining this powerful technology for application into the medical field?
Technologies are getting more and more advanced day by day, as if we would never know what technologies will become by the next day morning, it grow fast and it keeps on changing. We could not deny that today’s technology changes our world and our way of living, most of the new devices that are invented are replacing the old ones, just as those phones with a physical keypad design are replaced with our new touch screen smart phone today, these changes occur rapidly. In this technology leading world, have you ever wondered, what are the next incredible devices will be invent? In this research report, I am going to introduce you, a brand new technology that were recently invented by Google, a device which is yet
There is an explosive growth in wearable computing devices over the past couple of years mostly due to technological advances in smart devices. Although most of these are self-care monitoring devices the need for assisted living where a patient can be monitored continuously using these devices are emerging fast. In a typical tracking system, various vital biological signals, fall risks and changes in predetermined health conditions are collected via sensors and shared with medical professionals for intervention if necessary. Most popular applications of self-care monitoring include daily activity monitoring, emergency and fall detection, and rehabilitation. Despite these useful applications, the paradigms such as autonomy, context awareness, and spontaneous interactions are not well integrated into these existing systems yet.
In the contemporary gadgeted era, human patients are continuously monitored during their stay in the hospital. It gives rise to inconvenience and psychological strain to the patients during their stay in hospitals. Factors like trauma, pain, treatment cost, time spent and human energy also add up to the stress and health detoriation, which leads to early discharge from hospital care. This heath issue can be carried over at home as well with minimal or no monitoring. To avoid this kind of issues, improving the monitoring facilities and identifying the health condition before the emergency in remote areas or at patient’s home can be done by using Wireless Body Sensor Networks (WBSN).
Abstract- This article will be talking about how technology started to be wearable, how it affects our lives. The usage, advantages and disadvantages of 20 different wearable devices. An expectation about wearable technology future.
This web article on wearable electronics is well developed and stays within the topic. It helps touch on issues that are undoubtedly important in terms of their potential impacts on users. Security and privacy issues are aspects that have been found to have a significant impact on devices such as smartphones, which operate on a similar platform as wearable electronics. In addition, the author makes
We first started seeing wearable computing technology sometime in the 1960’s. Helicopter pilots during the Vietnam War wore head mounted displays for night missions and even office ID badges can be considered a type of wearable. The technology since that time has grown exponentially and the advancement of miniaturization as well battery life leaves us at the brink of a technology revolution. The term “wearable” is the name for these devices because they are worn on the body like normal items, such as watches, glasses and jewelry. These devices consist of three module components: sensors, displays and a computing architecture. Not all modules must be