project

These are devices which primarily monitors and accesses exercise intensity. They mostly

useful monitoring individuals exercise intensity in cardiac since the heart rate is related to uptake

of oxygen. Designed machines that physically interact with humans accredit new forms for

technology to console human activity. The necessity to achieve stability, performance and safety

can be addressed using interaction control which aims at designing control system on behaviour

of machine interaction.

Many wireless devices have been implemented to enable tracking of personal health. In

this way, OHRM (Optical Heart Rate monitoring) is capable of providing unobtrusive and

continuous monitoring of physiological metrics. In this paper, illustration of a fully integrated

AFE (analogue front-end) IC is designed particularly for OHRM will help to ease designing

challenges then enabling heart rate measurement be accurate where artifacts like ambient light

and motion are present. One idea of implementing HMR is that we need to take purse measures

using a more convenient and efficient way, in older days people were able to record heart rate

manually holding wrist then count pulse. This has not yet been enough for technology companies

to cease producing heart data collection devices. Mostly these devices will collect ones Resting

Heart Rate (RHR) which are taken when one is relaxed often the first duty during the morning.

Another idea for developing this device would be helping physicians be able to track patients for

timely treatment. This helps in making diagnosis as they happen or in case of symptom arise

making the idea to be a more essential tool to physicians. Lastly, but not the least, monitors can

provide 24-48 hours or continuous monitoring of person’s heart activity and when the symptoms

occurs in a patient.

Most convenient idea of all this is the idea of developing device for purse measurement.

This will be able to cover up the other two candidate ideas at the end of the task evaluation. To

be implementing, designing and evaluating the device or any app for human interface.

Developing this device will assist patients with heart failures to be able to track their pulse rate

and access medication as soon as they as required reach them.

We have fetal heart rate (FHR) which is vital in monitoring all fetal well-being. FHR

based on techniques which are acoustic is non-invasive and passive (Wang, 2014). There are

various ways of FHM where Doppler Ultrasonic Monitoring has been highly used in obstetric

clinics/hospitals. Another way of supporting this idea of monitoring would be use of

telemedicine in post evacuation. These helps in addressing inadequate responsive care in some

specialities who will save resources in management and providing procedures of evaluation

(Chang, 2015).

HRM provides immediate feedback regarding how hard one is working so that can make

valid adjustments in order to achieve greatest benefit from exercise regime. The devices can be

used by all categories of individuals to regularly test their status in heart functioning. To be more

categorical, specialists and physicians use it to trace the medication problems in blood related

problems. Other users are people in exercise activities like athletes who use the gargets fixed

with HRM to be able to exercise within their target heart rate for maximum effect. Other users

might be fixing the system with gym equipment such as stationary bike, treadmills, stair climbers

and elliptical machines.

Scenarios for the system

1st scenario- runners and athletes uses this idea to ensure that they are always at their prescribed

target rate zones. This is specially practised by the people of older ages ranging from 50’s.

2nd scenario – in gym collections, all equipment are equipped with HRM that are chest strap or

finger base pulse monitors

3rd scenario- in walking, skiing, climbing and hiking have heart rate monitors which are typically

designed and modified for cardiovascular exercise.

Design direction

Originally as proposed, this design was designed to test heart pulse rate monitoring in all

individuals and Make necessary adjustments in heart failures and related measures. The monitor

was to consist of sensors and electrocardiogram (ECG), which is embedded on a watch or tape.

The device accepts signals through a watch. User interface and supporting analysis software are

then implemented for use in personal computers and smartphones to receive physiological

information from the HRM track; it performs all necessary analysis and de-multiplexing thus

display the measured information in a descriptive and user friendly way. The output data from

the device is intent to consist of single signal received by ILS (infra-led light sensors).

References

By Anand Udupa, Praveen Aroul, (2014) texas instruments As retrieved from:

https://www.mdtmag.com/article/2014/09/designing-heart-rate-monitor-wearable-

devices

By Brian Kolski, MD (2017) as retrived from: https://myheart.net/articles/heart-monitors-what-

every-patient-needs-to-know/

By Ian Tucker, (2016) biometrics tried and tested as retrieved from:

https://www.theguardian.com/technology/2016/aug/21/five-best-cardio-health-

monitoring-devices

Chang, C. W., Tsai, H. H., Yi, C. W., Wang, Y. C., Kuo, J. Y., & Wang, J. S. (2015, April).

FetalCare: A mobile cardiotocograph system. In Intelligent Sensors, Sensor Networks

and Information Processing (ISSNIP), 2015 IEEE Tenth International Conference

on (pp. 1-2). IEEE.

Yang, W., Yang, K., Jiang, H., Wang, Z., Lin, Q., & Jia, W. (2014, June). Fetal heart rate

monitoring system with mobile internet. In Circuits and Systems (ISCAS), 2014 IEEE

International Symposium on (pp. 443-446). IEEE.