Sensing heart beat and body temperature digitally using Arduino

Thomas, Salomi S.; Saraswat, Amar; Shashwat, Anurag; Bharti, Vishal

doi:10.1109/scopes.2016.7955737

Cited by 44 publications

(12 citation statements)

References 5 publications

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“…The nRF24L01 module has various uses, for example, wireless peripherals for computers, data transmission, wireless sensors, and ultra-low power sensor systems. The adopted heart rate sensor has a low cost, low power drain, and small size, with a diameter of 16 mm [36,37]. To minimize the power drain of the heart rate sensor, a low supply voltage was adopted (3.3 V) for its functioning.…”

Section: Experiments Configurationmentioning

confidence: 99%

Design of Powering Wireless Medical Sensor Based on Spiral-Spider Coils

Mahmood

Gharghan

Mohammed

et al. 2021

Designs

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Biomedical sensors help patients monitor their health conditions and receive assistance anywhere and at any time. However, the limited battery capacity of medical devices limits their functionality. One advantageous method to tackle this limited-capacity issue is to employ the wireless power transfer (WPT) technique. In this paper, a WPT technique using a magnetic resonance coupling (MRC-WPT)-based wireless heart rate (WHR) monitoring system—which continuously records the heart rate of patients—has been designed, and its efficiency is confirmed through real-time implementation. The MRC-WPT involves three main units: the transmitter, receiver, and observing units. In this research, a new design of spiral-spider coil was designed and implemented for transmitter and receiver units, respectively, to supply the measurement unit, which includes a heart rate sensor, microcontroller, and wireless protocol (nRF24L01) with the operating voltage. The experimental results found that an adequate voltage of 5 V was achieved by the power component to operate the measurement unit at a 20 cm air gap between the receiver and transmitter coils. Further, the measurement accuracy of the WHR was 99.65% comparative to the benchmark (BM) instrument. Moreover, the measurements of the WHR were validated based on statistical analyses. The results of this study are superior to those of leading works in terms of measurement accuracy, power transfer, and Transfer efficiency.

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Section: Experiments Configurationmentioning

confidence: 99%

Design of Powering Wireless Medical Sensor Based on Spiral-Spider Coils

Mahmood

Gharghan

Mohammed

et al. 2021

Designs

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show abstract

“…The monitoring and measurement of ST can be performed with contact and contacless methods i.e utiliziation of arduino controller [16][17][18][19][20][21][22][23][24], a wireless sensor technology incorporating radio frequency technology (RFT) [25] and android application [26]. These developed measuring prototypes were not suitable to use on large scale applications due to the designing limitation.…”

Section: Emotional Statesmentioning

confidence: 99%

Design of a contactless body temperature measurement system using Arduino

Rahimoon

Abdullah

Taib

2020

IJEECS

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<span lang="EN-US">The recent advances in electronics and microelectronics devices allow the development of newly low-cost monitoring tools used by peoples for health preventive purposes. Sensors used in medical equipments convert various forms of human body vital signs into electrical signals. Therefore, the healthcare monitoring systems considering non-invasive and wearable sensors with integrated communication mediums allow an efficient solution to live a comfortable home life. This paper presents the remote monitoring of human body temperature (HBT) wirelessly by means of Arduino controller with different sensors and open source internet connection. The proposed monitoring system uses an internet network via wireless fieldity (wifi) connection to be linked with online portal on smart phone or computer. The proposed system is comprised of an Arduino controller, LM-35 (S1), MLX-90614 (S2) temperature sensors and ESP-wifi shield module. The obtained result has shown that real time temperature monitoring data can be transferred to authentic observer by utilizing internet of things (IoT) applications. The findings from this research indicates that the difference of average temperature in between Sensor S1 and S2 is about 15 <sup>0</sup>C</span>

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“…The heart rate is the number of heartbeats in a specific period, while pulse changeability refers to the variety in the intervals between continuous heartbeats. Besides, the heart rate sensor was linked to low voltage for decreased power consumption, was small, i.e., 16-mm diameter, and low cost [11,12]. The wireless protocol nRF24L01 is an independent module; it has low-power consumption, low cost, is small and has a long data-sending distance, i.e., up to 100 meters; it uses a 2.4-GHz radio frequency.…”

Section: Receiver Sensormentioning

confidence: 99%

Ultrasound Sensor-Based Wireless Power Transfer for Low-Power Medical Devices

Mahmood

Mohammed

Gharghan

2019

JLPEA

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Ultrasonic power transfer (UPT) is a promising method for wireless power transfer technology for low-power medical applications. Most portable or wearable medical devices are battery-powered. Batteries cannot be used for a long time and require periodic charging or replacement. UPT is a candidate technology for solving this problem. In this work, a 40-KHz ultrasound transducer was used to design a new prototype for supplying power to a wearable heart rate sensor for medical application. The implemented system consists of a power unit and heart rate measurement unit. The power unit includes an ultrasonic transmitter and receiver, rectifier, boost converter and super-capacitors. The heart rate measurement unit comprises measurement and monitoring circuits. UPT-based transfer power and efficiency were achieved using 1-, 4- and 8-Farad (F) super-capacitors. At 4 F, the system achieved 69.4% transfer efficiency and 0.318 mW power at 4 cm. In addition, 97% heart rate measurement accuracy was achieved relative to the benchmark device. The heart rate measurements were validated with statistical analysis. Our results show that this work outperforms previous works in terms of transfer power and efficiency with a 4-cm gap between the ultrasound transmitter and receiver.

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Sensing heart beat and body temperature digitally using Arduino

Cited by 44 publications

References 5 publications

Design of Powering Wireless Medical Sensor Based on Spiral-Spider Coils

Design of Powering Wireless Medical Sensor Based on Spiral-Spider Coils

Design of a contactless body temperature measurement system using Arduino

Ultrasound Sensor-Based Wireless Power Transfer for Low-Power Medical Devices

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