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An Artificial Intelligence Based Smart Pillow For Patient Health Monitoring

Abstract: The heart rate, body temperature, ECG, respiration, noninvasive blood pressure, oxygen saturation, and other vitals of the patient are all monitored by the patient monitoring system. These vitals are monitored remotely using equipment that wirelessly transmit patient data to remote places. A smart pillow is presented in this invention to monitor patient health conditions such as whether they are normal or abnormal depending on their body temperature, sleep patterns, and other factors. Heart rate sensor, temperature sensor, humidity sensor, pressure sensor, PIR sensor, pulse sensor, and buzzer are all included. These sensors capture patient data via a smart pillow and transfer it to a cloud server for analysis of the patient's condition. This innovation uses an Artificial Neural Network Algorithm to assess a patient's health status, whether normal or abnormal. If the patient's health is abnormal and the threshold value of patient input parameters is going high or low, a buzzer attached to the smart pillow will emit a continuous beep sound. It will sound a buzzer to warn the patient's guardian. Another aspect of this invention is that it uses a PIR and a pressure sensor data are sent to the guardian about the patient's aberrant health state when the guardian crosses the patient during the night. PIR sensor placed close to a pillow by someone who is close to the sufferer. After that, the patient can apply extra pressure to the pillow. This pressure will be monitored by a pressure sensor, and an automatic buzzer will sound a warning if the pressure on the cushion is too high. Further, the patient's guardian will be notified, and the patient's life will be saved.

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Notices, Deadlines & Correspondence

Patent Information

Application #
Filing Date
07 December 2021
Publication Number
50/2021
Publication Type
INA
Invention Field
BIO-MEDICAL ENGINEERING
Status
Email
rajasekaratr@gmail.com
Parent Application

Applicants

1. Dr. RAJASEKAR RANGASAMY
Associate professor, Department of Computer Science and Engineering- AI &ML, School of Engineering, Malla Reddy University, Maisammaguda, Dhullapally Road, Hyderabad. Ph:9443273878 E-Mail: rajasekaratr@gmail.com
2. Dr. S. P. ANANDARAJ
Associate professor, Department of Computer Science and Engineering, Presidency University, Itgalpur, Rajanakunte, Yelahanka, Bengaluru, Karnataka 560064. E-Mail: anandaraj@presidencyuniversity.in
3. Dr. NIDAMANURI SUDHEER
Associate Professor, Department of Computer Science and Engineering (Data Science) Malla Reddy University, Maisammaguda, Dhullapally Road, Hyderabad, Telangana. Ph:7780152899 E-Mail: nidamanuri.sudheer@gmail.com
4. VEENA RANI
Assistant Professor, Vettuvelil, Vrindhavan Koovappally p.o Kanjirappally, Kerala-686518. Ph:9581840909 E-Mail: veena@mallareddyuniversity.ac.in v4veena.rani@gmail.com
5. MALEPATI CHANDRA SEKHAR
Assistant Professor, Department of Computer Science and Engineering, Presidency University, Itgalpur, Rajanakunte, Yelahanka, Bengaluru, Karnataka 560064. E-Mail: mchandrasekhar@presidencyuniversity.in, chandragvp@gmail.com
6. ZAFAR ALI KHAN N
Assistant Professor, Program Head – CSE, Department of Computer Science and Engineering, Presidency University, Itgalpur, Rajanakunte, Yelahanka, Bengaluru, Karnataka 560064 Ph: 7338021015 E-Mail: zafaralikhan@presidencyuniversity.in, jafar.trichy@gmail.com

Inventors

1. Dr. RAJASEKAR RANGASAMY
Associate professor, Department of Computer Science and Engineering- AI &ML, School of Engineering, Malla Reddy University, Maisammaguda, Dhullapally Road, Hyderabad. Ph:9443273878 E-Mail: rajasekaratr@gmail.com
2. Dr. S. P. ANANDARAJ
Associate professor, Department of Computer Science and Engineering, Presidency University, Itgalpur, Rajanakunte, Yelahanka, Bengaluru, Karnataka 560064. E-Mail: anandaraj@presidencyuniversity.in
3. Dr. NIDAMANURI SUDHEER
Associate Professor, Department of Computer Science and Engineering (Data Science) Malla Reddy University, Maisammaguda, Dhullapally Road, Hyderabad, Telangana. Ph:7780152899 E-Mail: nidamanuri.sudheer@gmail.com
4. VEENA RANI
Assistant Professor, Vettuvelil, Vrindhavan Koovappally p.o Kanjirappally, Kerala-686518. Ph:9581840909 E-Mail: veena@mallareddyuniversity.ac.in v4veena.rani@gmail.com
5. MALEPATI CHANDRA SEKHAR
Assistant Professor, Department of Computer Science and Engineering, Presidency University, Itgalpur, Rajanakunte, Yelahanka, Bengaluru, Karnataka 560064. E-Mail: mchandrasekhar@presidencyuniversity.in, chandragvp@gmail.com
6. ZAFAR ALI KHAN N
Assistant Professor, Program Head – CSE, Department of Computer Science and Engineering, Presidency University, Itgalpur, Rajanakunte, Yelahanka, Bengaluru, Karnataka 560064 Ph: 7338021015 E-Mail: zafaralikhan@presidencyuniversity.in, jafar.trichy@gmail.com

Specification

Claims:1. A smart pillow having a heart rate sensor, temperature sensor, humidity sensor, pressure sensor, PIR sensor, pulse sensor, and buzzer built in it.
2. According to claim 1, the Heart Beat Sensor measures the patient's heart rate every second.
3. A temperature sensor is utilized to monitor the patient's forehead temperature while he or she is sleeping, according to Claim 1.
4. Humidity Sensor is utilized to identify patient respiratory behavior while sleeping, according to Claim 1.
5. A PIR sensor is employed to detect human motion near the patient, according to Claim 1.
6. According to Claim 1, the patient's pressure level is monitored by a pressure sensor based on head movement on the pillow.
7. According to Claim 1, a pulse sensor is employed to continuously monitor the patient's pulse rate.
8. According to Claim 1, a buzzer sensor emits a sound to alert the patient's guardian of any anomalies.
, Description:FIELD OF THE INVENTION
The current invention relates to an artificial intelligence-based Smart Pillow for Patient Health Monitoring. It improves the patient's sleep quality and monitors any abnormalities.

BACKGROUND OF THE INVENTION

KR101763302B1- The present invention pertains to a smart functional pillow, a sleep disorder diagnostic management system that uses the pillow, and a sleep disorder diagnosis management technique that uses the pillow. A plurality of sensors collects biometric information from a user; a sleep pattern information generation module generates sleep pattern information, including sleep disturbance information, based on the user's biometric information; and a communication module transmits the sleep pattern information to an external device are all included in the smart functional pillow.
US7107642B2- A sensing mat positioned on the top face of a mattress affects microprocessor-controlled optimization of the contour of the mattress and a pillow based on a user's posture, according to the invention. The invention's novel adjustable mattress and pillow system, in one embodiment, provides real-time contour optimization through the use of a variety of sensing techniques, making it particularly useful in environments such as hospital critical care facilities, where proper positioning of a user on a mattress and a pillow can be critical to the user's health.
KR102222216B1- A general control unit with a Z-stage inside and a bottom case in the shape of a square box with a lower surface on which one side is in contact with the ground and an open upper section; A precision control unit placed above the general control unit, with an infrared and acoustic sensor on the left and right sides, a plurality of actuators at the upper portion, and a cylindrical member attached to the upper part of the plurality of actuators to place a pressure sensor; A memory foam material sitting section is positioned above the plurality of actuators of the precision control unit. A smart pillow with an automatically height-adjustable smart pillow is unveiled. A general control unit having a lower case with one side in contact with the ground and an open upper surface in the shape of a rectangular box, and a Z-stage inside the lower case, according to one aspect of the present invention; A precision control unit positioned above the general control unit, with an infrared sensor and an acoustic sensor on the left and right sides, a plurality of actuators provided above, and a pressure sensor provided above the plurality of actuators; and a memory foam seating portion positioned above the precision control unit's plurality of actuators.
CN206729880U- The utility model reveals a type of intelligent health pillow, with the pillowcase being adapted to include a pillow and with the described pillow, as well as health monitoring systems, which are comprised of a pressure sensor, pulse transducer, temperature sensor, wave filter, microcontroller, power module, and terminal device. The pressure sensor, pulse transducer, and temperature sensor are all connected to the microcontroller via a wave filter. The described pressure sensor number is at least three, and the pressure sensor is put in the pillow in the centre and on both sides; The pulse transducer and temperature sensor are mounted individually on the pressure sensor, and the keying of the pulse transducer and temperature sensor is controlled by the pressure sensor, which detects human pressure. The microcontroller is mounted on the side of the cushion, and it is connected to the power module, as well as the mentioned microcontroller and the described terminal device. Allows the user to comprehend and enhance sleep quality on a targeted basis, with data support.
CN102960994B- An intelligent pillow is disclosed in the invention. The intelligent pillow has a first surface and a second surface, which together form the intelligent pillow's sealed space; the intelligent pillow also has at least one sensor, which is positioned in the sealed space and close to the internal surface of the second surface; the intelligent pillow also has a processor, which is connected to the sensor; and the intelligent pillow also has a dispensing mechanism; the display is connected to the processor; various distribution information of a user in the sleeping process, such as pressure, motion, and head direction, are detected through the sensor of the intelligent pillow; and the sleeping situation of the user is dynamically displayed by comparing the various distribution information with a user sleeping curve table to help the user adjust or change the beddings for sleeping or change the sleeping habit.
CN109602234A- The invention discloses an intelligent pillow and a remote auto method of adjustment for detecting sleep quality, including a method in which a sensor increases PVDF stress using molybdenum disulfide and graphene mixing material, heart rate, respiratory rate, body movements, and snoring signal while people sleep. By modifying the pillow angle, the pillow can detect the sleeper's heart rate, breathing rate, and open the oxygenation mechanism in the event of a heart rate exception, making the body dynamic to reach side and sleep, and inhibiting the purpose of snoring in snoring. It is demonstrated. Furthermore, terminal APP displays heart rate, breathing rate, snoring situation, and body emotional condition, as well as through mutually exchanging data between WiFi or bluetooth and circuit system and control peripheral equipment. The time spent monitoring this pillow not only saves time, but it also enhances sleep quality and protects the sleeper's health.
CN212382431U - The utility model discloses an intelligent safety pillow that includes an upper-layer pillow core, a lower-layer pillow core, and an intelligent control device, with the upper-layer pillow core and lower-layer pillow core being tightly attached; the bottom of the lower pillow core has a groove for accommodating an intelligent control device; A mounted circuit board holds a power supply module, a switch auxiliary module, a motor module, an induction monitoring module, a wireless connection module, and a controller module, with the power supply module managing the device's power supply and power off. The switch and switch auxiliary module are used to turn on and off the device; the induction monitoring module is used to collect and monitor physiological indexes of the user during sleep in real time and send the physiological indexes to the controller module; the motor module is used to simulate the gradually increasing vibration frequency of the natural tide and to wake up the user when the user's breathing is interrupted.
TWM567887U- The current invention provides a smart pillow that includes a pillow body, a temperature sensor, a control processor, and a transfer unit, each of which is powered by an internal or external power source, and the pillow body is used to place the user's head. The temperature sensor, in particular, is used to sense the internal temperature of the pillow body in order to generate and transmit a temperature sensing signal to the control processor, and then rises as the internal temperature rises from the starting temperature to the preset heating time to reach a stable temperature. The temperature warning signal is created and transferred to the transmitting unit instantly when the temperature exceeds the specified upper limit temperature, and then to the warning unit or the server host. As a result of the automatic detection and warning function, personnel can be saved and overwork avoided.
CN201480832U - The utility model reveals an intelligent healthcare cushion that belongs to the category of pillows. A pillow core is divided into three areas along the length of the pillow, with two side parts stuffed with high elastic materials and the middle part stuffed with soft elastic materials; a plurality of permanent magnetic sheets are evenly distributed at intervals on the upper surface of the pillow core; the left and right side parts of the pillow are respectively provided with an ear hole; and the ear hole is internally provided with a loofah. The intelligent healthcare pillow has the advantages of being reasonable in structure and comfortable for people to pillow, maintaining optimal height whether a person lies on their back or side, effectively preventing cervical spondylopathy caused by stiff neck,' being conducive to treating insomnia, and having various comprehensive healthcare functions.
CN2540856Y - The utility model reveals an intelligent healthy pillow with an outside cover, a coat, and an elastic core body, the outer cover being made of 100% cotton plus materials and the coat being made of 100% cotton velour plus materials. The far-infrared ray emitter coating, a netting elastic fabric layer inlaid with magnets, and an intelligent memorising material layer make up the elastic core body in that order. The utility model not only has the function of intelligent memorising, but also of bacteria prevention, bacteria killing, deodorization, worms expelling and preventing, decompression, hyperglycemic deceasing, fatigue elimination, aching pain in the neck, shoulder, waist, and leg relieving, and other functions, making it adaptable for widespread use in daily life.
CN203290614U- The utility model reveals an intelligent adjustment health pillow that addresses the technological difficulty of maintaining the physiological curve of the cervical vertebra while a person sleeps, thereby protecting the spine and improving sleeping quality. A hollow soft capsule body is arranged in the pillow body, and the soft capsule body is connected to a liquid inlet of a container tank arranged outside the pillow body and loaded with filling liquid through a liquid outlet pipe and a control valve; the soft capsule body is connected to a liquid outlet of the container tank through a liquid inlet pipe and a plunger pump, and a controller is arranged outside the pillow body. The utility model reveals an intelligent adjustment health pillow that addresses the technical difficulty of maintaining the physiological curve of the cervical vertebra while a person sleeps, ensuring that the spine of the body is properly aligned. In contrast to the prior art, the soft capsule body is arranged in the pillow body, and the filling liquid amount of the soft capsule body is controlled by the controller via a position signal detected by the position sensor, allowing the pillow body's height to be adjusted, the body's spine to be protected, and sleeping quality to be improved.
CN2857691Y- A healthcare cool pillow improves on the negative impacts of previous cool pillows by removing summer heat and the heat-evil, chilling, ventilation, and perspiration. The utility model includes a left and right baffle plate with air holes, a front wallboard, a rear wallboard, a motherboard with bottom plate holes, support strips, bar bamboo chips, stainless steel belts, and nails, with the left and right baffle plates, front wallboard, rear wallboard, and motherboard arranged on the left and right baffle plates, respectively; the support strips are arranged on the left and right baffle plates; and the support strips are arranged on the left and right baffle plates; A row of bar bamboo chips is put on the support strips at intervals; the stainless steel belts pressing the bar bamboo chips are secured to the support strips with nails; and the support strips and stainless steel belts are connected to both sides of the bar bamboo chips via working fit. The utility model's healthcare cool pillow helps preserve brains in hot summers, restoring brain health swiftly and improving sleep quality.
CN203953131U - The utility model relates to the technical field of health-care bedding, specifically to a type of health-care pillow, and it consists of pillow body, pillow body is provided with depressed area, both sides of depressed area are provided with loudspeaker, and depressed area is inlaid with some germanite grains, and pillow body is made of memory sponge. The utility model's broad feature set includes the ability to play audio frequencies that aid sleep through a loudspeaker, assisting the user in entering a sleep state. Also, germanite grain to the brain generating biological magnetic line of force, to facilitate blood circulation; and the pillow body composed of memory sponge has powerful antibacterial capabilities, cervical spondylopathy, etc. has a certain healing effect. Furthermore, in the utility model pillow body, an intelligent health monitoring system collects data such as blood pressure, heart rate, use sleep state, total sleep time, deep sleep time, and supervisory user's health status to improve user's sleep quality.
CN105476361B- Bushing, memory sponge liner, rubber net, electromagnetic self-locking mechanism, plastics end liner, bottom plate, first thin slice pressure sensor, and second thin slice pressure sensor are all adjustable in the health care pillow. The present invention is about a self-adapting intelligent system. Some electromagnetic self-locking mechanisms are attached to the bottom plate with a plastic end liner, while the second thin slice pressure sensor is attached to a rubber net and placed in the electromagnetic self-locking mechanism with rubber net. The quantity of the second thin slice pressure sensor is the same as the quantity of electromagnetic self-locking mechanism, and installation corresponds to electromagnetic self-locking mechanism position. The first thin slice pressure sensor is placed to the bottom plate's extension; the memory sponge liner is fixedly connected to the plastics end liner, and the bushing is fixedly connected to the memory sponge liner, which wraps around the entire pillow. The current invention can effectively decrease the occurrence of cervical spondylosis and alleviate the minor disease experienced by patients with cervical spondylosis.
CN2242103Y - The utility model is about a hypnosis cushion for individuals. A cavity is arranged in the middle of a pillow body; liquid is filled in the cavity; an ultrasonic oscillator is provided in the lower part of the pillow body; the oscillation head of the ultrasonic oscillator is positioned in the liquid of the cavity; a press sheet switch corresponding to the contact position of the head of a human body is provided in the upper part of the pillow body; and a music integrated electronic line, a loudspeaker, and an ultrasonic electroni Multiple functions and an optimal hypnogenetic impact are advantages of the utility model.

PRIOR ART SEARCH
US9510784B2- Mattress health monitoring: 2016-12-06
KR101763302B1- Smart pillow, system and method for managing/diagnosing sleep disturbance using the same
US7107642B2- Adjustable mattress and pillow system: 2006-09-19
US20090056020A1- Pressure detection and measurement sensor incorporating at least one resistive force-detector cell: 2009-03-05
WO2009061455A1- A method and system for identification and management of patients for sleep disorders: 2009-05-14
WO2017026611A1- Smart bed, user state monitoring system using same, and user state monitoring method: 2017-02-16
WO2019207570A1- An autonomous intelligent mattress for an infant: 2019-10-31
CN110464332A- A kind of health risk early warning reply system and method based on the perception of intelligent mattress: 2019-11-19
US5577399A- Pressure sensor for appliance products: 1996-11-26
US20150164238A1- Mattress health monitoring: 2015-06-18
KR102222216B1-Smart Pillow: 2021-03-02
CN206729880U-A kind of intelligent health pillow: 2017-12-12
CN102960994B-Intelligent pillow: 2014-08-20
CN108969235A-improved clinical care intelligent bed: 2018-12-11
CN109602234A-A kind of intelligent pillow and remote auto method of adjustment for detecting sleep quality: 2019-04-12
CN212382431U- Intelligent safety pillow: 2021-01-22
CN112021894A-Intelligent safety pillow: 2020-12-04
TWM567887U- Intelligent pillow: 2018-10-01
CN201480832U-Intelligent healthcare pillow: 2010-05-26
CN2540856Y- Intelligence health pillow: 2003-03-26
CN105663852A- Health care pillow for nourishing brain and tonifying intelligence: 2016-06-15
CN203290614U- Intelligent adjustment health pillow: 2013-11-20
CN206473455U- Health-care pillow: 2017-09-08
CN2857691Y- Health care cool pillow: 2007-01-17
CN203953131U- A kind of health-care pillow: 2014-11-26
CN106691049A- Intelligent pillow and intelligent pillow control method: 2017-05-24
CN110301791A- A kind of Intelligent pillow based on the long-range monitoring of sleep quality in real time: 2019-10-08
CN105476361B- A kind of self-adapting intelligent adjusts health care pillow: 2017-08-11
CN206137757U- Protect neck health care pillow: 2017-05-03
CN105411305A- Intelligent health-care pillow: 2017-06-06
CN100438806C- Health-care medicated pillow: 2008-12-03
CN2242103Y- ultrasonic electronic physiotherapy health-care hypnogenetic pillow: 2005-11-01
CN2865463Y- Flexible health care pillow: 2007-02-07

:REFERENCES:
1. Tsung-Te Chung et.al, “Efficacy of a Smart Antisnore Pillow in Patients with Obstructive Sleep Apnea Syndrome”, Applications of Theranostics for Detecting and Targeting CNS Injuries and Diseases, Volume 2021
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OBJECTIVES OF THE INVENTION
• To use a smart pillow to monitor a patient's health.
• To improve the patient's sleep quality.
• To determine the health status of the patient.
• To notify the guardian if the patient's condition deteriorates.
• Using buzzer sounds to save the patient's life.

SUMMARY OF THE INVENTION

Pillows are an essential part of people's lives, and getting enough sleep is essential for a healthy and normal workday. And whether or not the pillow height is of sufficient quality, which directly impacts people's sleep, can have an impact on human health. A Remote Healthcare System can remotely capture important health data such as contactless body temperature and provide prompt aid when needed. With busy work schedules, maintaining a healthy lifestyle has become impossible. The solution to the aforesaid problems is a smart health monitoring system. Different types of stakeholders, such as clinicians, patients, doctors, and other organizations, make up a smart healthcare system. Even some hospitals have begun to adopt smart beds, which can detect a patient's current state without the need for a nurse. Smart health monitoring health devices provide a number of useful characteristics, including preventing unnecessary hospital visits and allowing doctors to check the real-time condition of patients remotely. Hackers cannot access the data generated by these devices. Today's healthcare services are expensive, and these devices assist to alleviate this problem, which is a significant advancement in the medical profession.

The patient monitoring system keeps track of the patient's heart rate, body temperature, ECG, respiration, noninvasive blood pressure, oxygen saturation, and other vitals. These vitals are remotely monitored with equipment that wirelessly transmits patient data to distant locations. This innovation includes a smart pillow that can detect whether a patient's health is normal or abnormal based on their body temperature, sleep habits, and other characteristics. The package includes a heart rate sensor, temperature sensor, humidity sensor, pressure sensor, PIR sensor, pulse sensor, and buzzer. These sensors use a smart pillow to collect patient data and send it to a cloud server for study of the patient's condition. This innovation uses an Artificial Neural Network Algorithm to assess a patient's health status, whether normal or abnormal. If the patient's health is abnormal and the threshold value of patient input parameters is going high or low, a buzzer attached to the smart pillow will emit a continuous beep sound. It will sound a buzzer to warn the patient's guardian. Another aspect of this invention is that it uses a PIR and a pressure sensors datas are sent to the guardian about the patient's aberrant health state when the guardian crosses the patient during the night. PIR sensor placed close to a pillow by someone who is close to the sufferer. After that, the patient can apply extra pressure to the pillow. This pressure will be monitored by a pressure sensor, and an automatic buzzer will sound a warning if the pressure on the cushion is too high. Further, the patient's guardian will be notified, and the patient's life will be saved.

BRIEF DESCRIPTION OF THE INVENTION

Remote patient monitoring is a type of healthcare delivery that collects patient data outside of regular healthcare facilities using the latest breakthroughs in information technology. The goal of remote patient management is to move more healthcare out of traditional settings and into people's homes. Continuous glucose monitors, which remind diabetes patients to take their insulin while allowing their physician to monitor the disease, and digital blood pressure monitors, which allow patients to send their blood pressure and blood oxygen levels to their doctors remotely, are common examples of remote health monitoring devices. This concept uses an intelligent pillow with embedded sensors and a Raspberry Pi to provide remote patient monitoring.
Intelligent Pillow:
This cushion is made to keep track of a patient's health as they sleep. Because it is sometimes difficult for guardians and even nurses to keep track of a patient's physical condition. This pillow can keep track of their health at all times and alert a guardian by sounding a buzzer alarm. In the event of an emergency, it will assist the patient in saving their life.
Temperature sensor and Heart beat sensor
The temperature of the patient's forehead is measured using a temperature sensor placed in the pillow. The heartbeat of the patient is also measured every second using a heart beat sensor. These sensors' data is taken from the patient's body and transferred to a Raspberry Pi for further analysis of the patient's health problems.
Humidity sensor
The Humidity Sensor is used to detect the breathing behaviour of patients when they are sleeping.
Pressure sensor
In a wide range of settings, pressure sensors can monitor a patient's state by providing definite and trustworthy diagnostics. This can involve measuring blood pressure, monitoring oxygen therapy effectiveness in oxygen concentrators, automating drug infusion by giving the correct volume and rate of fluid in infusion pumps, and even monitoring oxygen therapy effectiveness in oxygen concentrators.
PIR Sensor
When the patient is sleeping, this invention uses a PIR sensor to detect movements near the patient.
Pulse Sensor
The pulse sensor records the patient's pulse rate every second. It's utilised to spot people who are starting to decompensate due to respiratory problems. It evaluates and monitors critically ill patients. Determine whether the patient is hypoxic and, in conjunction with the respiratory rate and heart rate, whether the patient is hypoxic.
Raspberry Pi Module
In this intelligent pillow, a Raspberry Pi-optimized version of the Linux distribution Debian is employed. The Raspberry Pi is running Debian, a Raspberry Pi-optimized Linux distribution. It's based on the same processor as the Raspberry Pi 4 and, as a result, offers better performance than previous models. It gathers data from sensors and sends it to the cloud for analysis of patient health.
Buzzer
A buzzer is a gadget that emits an audible signal. It can transform audio signals to sound and alert the patient's guardian if anything is wrong.

Documents

Application Documents

# Name Date
1 202141056897-REQUEST FOR EARLY PUBLICATION(FORM-9) [07-12-2021(online)].pdf 2021-12-07
2 202141056897-FORM-9 [07-12-2021(online)].pdf 2021-12-07
3 202141056897-FORM 1 [07-12-2021(online)].pdf 2021-12-07
4 202141056897-DRAWINGS [07-12-2021(online)].pdf 2021-12-07
5 202141056897-COMPLETE SPECIFICATION [07-12-2021(online)].pdf 2021-12-07