TR201707485A2 - A health monitoring system - Google Patents
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- 238000012544 monitoring process Methods 0.000 title claims abstract description 15
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- WHXSMMKQMYFTQS-UHFFFAOYSA-N Lithium Chemical compound [Li] WHXSMMKQMYFTQS-UHFFFAOYSA-N 0.000 claims description 6
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- G—PHYSICS
- G16—INFORMATION AND COMMUNICATION TECHNOLOGY [ICT] SPECIALLY ADAPTED FOR SPECIFIC APPLICATION FIELDS
- G16H—HEALTHCARE INFORMATICS, i.e. INFORMATION AND COMMUNICATION TECHNOLOGY [ICT] SPECIALLY ADAPTED FOR THE HANDLING OR PROCESSING OF MEDICAL OR HEALTHCARE DATA
- G16H40/00—ICT specially adapted for the management or administration of healthcare resources or facilities; ICT specially adapted for the management or operation of medical equipment or devices
- G16H40/60—ICT specially adapted for the management or administration of healthcare resources or facilities; ICT specially adapted for the management or operation of medical equipment or devices for the operation of medical equipment or devices
- G16H40/67—ICT specially adapted for the management or administration of healthcare resources or facilities; ICT specially adapted for the management or operation of medical equipment or devices for the operation of medical equipment or devices for remote operation
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- G—PHYSICS
- G16—INFORMATION AND COMMUNICATION TECHNOLOGY [ICT] SPECIALLY ADAPTED FOR SPECIFIC APPLICATION FIELDS
- G16H—HEALTHCARE INFORMATICS, i.e. INFORMATION AND COMMUNICATION TECHNOLOGY [ICT] SPECIALLY ADAPTED FOR THE HANDLING OR PROCESSING OF MEDICAL OR HEALTHCARE DATA
- G16H10/00—ICT specially adapted for the handling or processing of patient-related medical or healthcare data
- G16H10/60—ICT specially adapted for the handling or processing of patient-related medical or healthcare data for patient-specific data, e.g. for electronic patient records
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Abstract
Buluş, insana dair sağlık verilerinin toplandığı, depolandığı ve değerlendirmelerin yapılarak, çeşitli sonuçların ve kazanımların alındığı bir sağlık izleme sistemi ile ilgilidir. Bahsedilen sistem, özellikle, uzaktan hasta takibi yapmak için kurgulanmıştır. Hastalar, hastane ortamı dışındayken, önemli sağlık verileri (EKG, nabız gibi), buluştaki sistem üzerinde toplanır ve bahsedilen buluş teknolojisindeki yapay zeka yazılımına gönderilir. Bahsedilen yapay zeka da, aldığı veriler doğrultusunda, hastayla ilgili mantıksal yorumlar yaparak, hasta ve hastanın tedavi sürecine yönelik yönlendirme ve müdahale süreçlerini başlatır.The invention relates to a health monitoring system in which human health data are collected, stored and assessments are made and various results and gains are obtained. The mentioned system has been specially designed to monitor patients remotely. While the patients are out of the hospital environment, important health data (such as EKG, heart rate) are collected on the system of the invention and sent to the artificial intelligence software in the said invention technology. The mentioned artificial intelligence also initiates guidance and intervention processes for the patient and the patient's treatment process by making logical comments about the patient in line with the data it receives.
Description
TARIFNAME Bir saglik izleme sistemi Teknik Alan Bulus, hayati riski olan veya uzaktan saglik verilerinin takip edilmesi gereken bireyler için tasarlanan sistematik ve tümlesik bir saglik ve hastalik yönetim sistemi ile ilgilidir. DESCRIPTION A health monitoring system Technical Area The invention is intended for individuals who are at risk of life or whose health data need to be monitored remotely. It is about a systematic and integrated health and disease management system designed for
Bulus, insana dair saglik verilerinin toplandigi, depolandigi ve degerlendirmelerin yapilarak, çesitli sonuçlarin ve kazanimlarin alindigi bir sistem ile ilgilidir. Bahsedilen sistem, özellikle, uzaktan hasta takibi yapmak için kurgulanmistir. Hastalar, hastane ortami disindayken, önemli saglik verileri (EKG, nabiz gibi), bulustaki sistem üzerinde toplanir ve bahsedilen bulus teknolojisindeki yapay zeka yazilimina gönderilir.The invention is used to collect, store and evaluate human health data. It is about a system in which various results and gains are obtained by doing Said The system is especially designed for remote patient follow-up. patients, hospital important health data (such as EKG, heart rate) on the system in the invention are collected and sent to the artificial intelligence software in the mentioned invention technology.
Bahsedilen yapay zeka da, aldigi veriler dogrultusunda, hastayla ilgili mantiksal yorumlar yaparak, hasta ve hastanin tedavi sürecine yönelik yönlendirme ve müdahale süreçlerini baslatir. The aforementioned artificial intelligence, in accordance with the data it receives, provides a logical understanding of the patient. By making comments, guidance and intervention for the patient and the treatment process of the patient initiates processes.
Bulus, medikal cihaz, saglik, madencilik, enerji, askeriye, savunma sanayisi, silah sanayisi ve tehlikeli is kollarini içinde barindiran tüm alanlarda ve insan sagliginin mevcut durum ve takibini gerektiren her alanda kullanilacak olan bir sistem ile ilgilidir.Invention, medical device, healthcare, mining, energy, military, defense industry, weapons in all areas that contain industry and dangerous business lines, and human health. It is about a system that will be used in every field that requires the current situation and its follow-up.
Teknigin Bilinen Durumu Mevcut bir uygulamada, EKG, seker, nabiz, tansiyon gibi saglik verilerinin ölçümü baz alinmaktadir. Bahsedilen uygulama incelendiginde, sadece, anlik ölçümlerin yapildigi görülmektedir. Yani bireyin EKG ölçümünü yapmak için, sistemin çalismasina baslat komutu verilmekte ve ölçümler alindiktan sonra sistem kapatilmaktadir. Bu sistem, bireylerin saglik parametrelerini sürekli olarak ölçememekte ve olasi olumsuz bir durum hakkinda bilgi verememektedir. Eger bireyin saglik durumu kötüye giderse, bu durumun tespiti için farkli sistemlere ihtiyaç duyulmaktadir. Diger bir yandan, bahsedilen mevcut uygulamada, bireylerden alinan saglik verilerini degerlendirmek için, bahsedilen saglik bilgilerinin, saglik personeline iletilmesi konusunda zorluklar (gerçek zamanli veri aktarimi olmadigindan dolayi telefon, mail vb. iletisim sistemleri kullanilarak zaman kayiplari ve yanlis aktarimlar) söz konusudur. Bu da, birey-doktor- müdahale üçlemindeki sürecin uzamasina ve daha fazla alt yapi ihtiyacina sebep olmaktadir.State of the Art In an existing application, the measurement of health data such as EKG, sugar, pulse, blood pressure is based on is taken. When the mentioned application is examined, only instant measurements are made. is seen. In other words, in order to measure the ECG of the individual, start the system. command is given and the system is shut down after the measurements are taken. This system cannot measure the health parameters of individuals continuously and a possible negative situation cannot provide information about If the individual's health condition deteriorates, this Different systems are needed to detect the situation. On the other hand, In the current practice mentioned, to evaluate the health data obtained from individuals difficulties in transmitting the mentioned health information to health personnel. (Since there is no real-time data transfer, communication systems such as telephone, mail, etc. time losses and wrong transfers) are in question. This is the individual-doctor- cause the process in the intervention triad to prolong and the need for more infrastructure. is happening.
Mevcut sistemlerde ortam bazli degiskenliklerin hesap edilip vücut sistemindeki farkliliklarin çakistirilarak sorunlu bir durum olup olmadigina yönelik bir algoritmik sonuç çikarimi mümkün degildir. Örnegin; soba yaninda oturan bir birey atesi çiktigini farz ederek saglik personelini gereksiz sekilde zaman alici yönde rahatsiz edebilir.In existing systems, environment-based variability can be calculated and An algorithmic analysis of whether there is a problematic situation by coordinating the differences conclusion is not possible. For example; An individual sitting next to the stove has a fire assuming that it may disturb the health personnel in an unnecessarily time-consuming way.
Hâlbuki soba yaninda oturan bir bireyin vücut sicakliginin artis göstermesi dogaldir. Bu sebeple ortam bazli degiskenlikler dikkate alinarak vücut degiskenliklerinin (vücut sicakligi artisi, nabiz artisi gibi) takip edilmesi gereksinimi bulunmaktadir. However, it is natural for an individual sitting next to the stove to have an increase in body temperature. This For this reason, taking into account the environment-based variability, body variability (body temperature increase, pulse increase) is required to be followed.
Sonuç olarak, yukarida anlatilan olumsuzluklardan dolayi ve mevcut çözümlerin konu hakkindaki yetersizligi nedeniyle ilgili teknik alanda bir gelistirme yapilmasi gerekli kilinmistir.As a result, due to the above-mentioned disadvantages and current solutions It is necessary to make an improvement in the relevant technical field due to the inadequacy of the is locked.
Bulusun Amaci Bulus, mevcut durumlardan esinlenerek olusturulup yukarida belirtilen olumsuzluklari çözmeyi amaçlamaktadir. Purpose of the Invention The invention was created by being inspired by the current situations, and the above-mentioned negativities aims to solve.
Bulusun ana amaci, bireyin saglik durumunu kontrol altinda tutabilmek için ilgili olan saglik verilerinin kesintisiz ve gerçek zamanli olarak alinmasini saglamaktir. Bunun için, bulusa konu olan sistemin geneli 7/24 esasina göre çalismaktadir. The main purpose of the invention is to keep the individual's health status under control. is to ensure that health data is obtained uninterruptedly and in real time. This For this purpose, the entire system, which is the subject of the invention, operates on a 24/7 basis.
Bulusun diger bir amaci, sistemdeki bütün bilesenlerin çalisabilmesi için bireylerin özel bir islem yapmasina gerek olmamasidir. Bunun için giyilebilir ölçüm cihazi tasarlanmistir. Birey giyilebilir ölçüm cihazini giyildiginde, bilesenler otomatik olarak vücuttan veri toplamaya baslayarak, gerekli veri tabanina anlik olarak iletmektedir. Another aim of the invention is to make sure that all the components in the system can work. that it does not need to do anything. Wearable measuring device for this is designed. When the individual wears the wearable meter, the components are automatically It starts collecting data from the body and transmits it instantly to the required database.
Böylece, birey için ek bir islem yapma zorunlulugu bulunmamaktadir. Thus, there is no obligation for the individual to take any additional action.
Bulusun diger bir amaci, bireyin yasam alanina ait ortam verilerinin 7/24 esasina göre alinip, gerçek zamanli olarak iletimini saglamaktir (Mevcut sistemlerde depolama esasina göre çalismaktadir ve 7/24 sürekli anlik iletim yapamamaktadir.) . Another purpose of the invention is to collect the environmental data of the individual's living space on a 24/7 basis. is to be received and transmitted in real time (Storage in existing systems It works on a regular basis and cannot make instantaneous transmission 24/7.) .
Bulusun diger bir amaci, gelistirilebilen bir smart buton denilen bir akilli anahtar sayesinde 16 farkli durum bilgisini (acil durum, siddetli agri, bas dönmesi, agizdan kan gelmesi, kusma, ishal, ani gelisen güç kaybi, idrar yapma, diskilama, sisme, kanama, idrara çikma, egzersiz, su tüketimi, yiyecek tüketimi, gögüs agrisi) anlik olarak ölçebilmektir. Ornegin; lavabo yanina yerlestirilen kusma butonu (akilli anahtar) sayesinde her kusma oldugunda hastanin butona basma yönünde daha önceden talimatlandirilmasi sayesinde, hasta bu yönelimle her kusmasinda butona basmasiyla birlikte anlik olarak bu verinin ana sisteme iletilmesi saglanabilmektedir. Another object of the invention is a smart key called an upgradeable smart button. 16 different status information (emergency, severe pain, dizziness, oral blood) vomiting, diarrhea, sudden loss of strength, urination, defecation, swelling, bleeding, urination, exercise, water consumption, food consumption, chest pain) is to measure. For example; vomiting button (smart key) placed next to the sink thanks to the patient's direction of pressing the button every time vomiting occurs. Thanks to the instruction, the patient can push the button every time he vomits with this orientation. This data can be transmitted to the main system instantly.
Bulusun diger bir amaci, bireylerden alinan tüm saglik verilerinin, kablosuz teknolojiler sayesinde merkezi komuta sistemine gelerek, gerçek zamanli olarak otomatik olarak degerlendirilmesidir. Böylece, sistem, gerekli durumlarda, bireyin saglik durumuna müdahale edebilecek hale, hem çok hizli hem de minimum altyapi ile gelebilmektedir. Another aim of the invention is that all health data obtained from individuals, wireless technologies by coming to the central command system, automatically in real time. is the evaluation. Thus, the system monitors the health status of the individual when necessary. It can come to a state that can intervene both very quickly and with minimum infrastructure.
Yukarida anlatilan amaçlari yerine getirmek üzere bulus, karar destek sistemi tarafindan uzaktan saglik verilerinin takip edilmesini, depolanmasini ve degerlendirilmesini saglayan bir saglik izleme sistemi olup, oz› üzerinde, . çoklu sensör giris aparati, . üzerinde bir ucunun insan vücuduna yerlestirilen EKG elektrotu ile bagli oldugu EKG elektrotu kablosunun baglandigi EKG elektrot yuvasi konumlandirilan ve EKG elektrotlarindan verileri alan ve EKG ölçümü yapan EKG devresi, - çoklu sensör giris aparati vasitasiyla insan vücuduna yerlestirilen Sp02 sensöründen verileri alan Sp02 devresi, o çoklu sensör giris aparati vasitasiyla insan vücuduna yerlestirilen vücut sicaklik ve nem sensöründen vücut sicaklik ve nem verilerini alan vücut sicaklik ve nem devresi, o çoklu sensör giris aparati vasitasiyla insan vücuduna yerlestirilen hareket sensöründen verileri alan hareket devresi, - EKG devresinde, bahsedilen SpOz devresinde, vücut sicaklik ve nem devresinde ve hareket devresinde toplanan verilerin iletilmesini saglayan kablosuz haberlesme modülü - 1, o enerji saglayan lityum batarya-1, . bahsedilen kablosuz haberlesme modülü - 1 ile iletilen verilen siralamasini yapan mikro denetleyici - 1 konumlandirilan giyilebilir cihaz, .;. kablosuz haberlesme modülü - 1 vasitasiyla giyilebilir cihazdan verileri alan ve karar destek sistemine ileten veri toplama cihazi içermektedir. In order to fulfill the above-mentioned purposes, the invention, decision support system remote monitoring, storage and use of health data by It is a health monitoring system that allows the evaluation of on oz, . multi-sensor input apparatus, . connected to the ECG electrode, one end of which is placed on the human body. ECG electrode socket where the ECG electrode cable is connected positioned and receiving data from ECG electrodes and measuring ECG EKG circuit, - Sp02 inserted into the human body via the multi-sensor input apparatus Sp02 circuit that receives data from its sensor, body implanted in the human body via the multi-sensor input apparatus body temperature and humidity data from the temperature and humidity sensor temperature and humidity circuit, o motion placed in the human body through the multi-sensor input apparatus motion circuit that receives data from its sensor, - In the ECG circuit, the said SpOz circuit, body temperature and humidity which provides the transmission of data collected in the circuit and motion circuit wireless communication module - 1, o energy-providing lithium battery-1, . said wireless communication module - 1 to transmit data sequence microcontroller - 1 positioned wearable device, .;. wireless communication module - 1 that receives data from the wearable device via data collection device that transmits it to the decision support system contains.
Bulusun yapisal ve karakteristik özellikleri ve tüm avantajlari asagida verilen sekiller ve bu sekillere atiflar yapilmak suretiyle yazilan detayli açiklama sayesinde daha net olarak anlasilacaktir ve bu nedenle degerlendirmenin de bu sekiller ve detayli açiklama göz Önüne alinarak yapilmasi gerekmektedir.The structural and characteristic features and all advantages of the invention are given in the following figures and It is clearer thanks to the detailed explanation written by making references to these figures. will be understood as such, and therefore the assessment will also include these figures and should be taken into account.
Bulusun Anlasilmasina Yardimci Olacak Sekiller Sekil 1, bulusa konu olan saglik izleme sisteminin tercih edilen yapilanmasinin bina içerisindeki ve bina disindaki kullanimini gösteren blok diyagram görünümüdür. Figures to Help Understand the Invention Figure 1 shows the preferred configuration of the inventive health monitoring system. It is a block diagram view showing the usage inside and outside the building.
Sekil 2, giyilebilir cihazin tercih edilen yapilanmasinin üstten üç boyutlu görünümüdür.Figure 2 is a top three-dimensional view of the preferred embodiment of the wearable device.
Sekil 3, giyilebilir cihazin tercih edilen yapilanmasinin alttan üç boyutlu görünümüdür.Figure 3 is a three-dimensional bottom view of the preferred embodiment of the wearable device.
Sekil 4, ortam cihazinin tercih edilen yapilanmasinin yandan 'üç boyutlu görünümüdür.Figure 4 is a three-dimensional side view of the preferred embodiment of the media device.
Sekil 5, ortam cihazinin tercih edilen yapilanmasinin 'üstten iki boyutlu görünümüd'ür.Figure 5 is a 'two dimensional top view' of the preferred embodiment of the media device.
Sekil 6, akilli anahtarin tercih edilen yapilanmasinin yandan üç boyutlu görünümüdür.Figure 6 is a three-dimensional side view of the preferred embodiment of the smart switch.
Sekil 7, akilli anahtarin tercih edilen yapilanmasinin üstten iki boyutlu görünümüdür. Figure 7 is a two-dimensional top view of the preferred embodiment of the smart switch.
Sekil 8, Zigbee USB Dongle Android/lOS'un tercih edilen yapilanmasinin üstten iki boyutlu görünümüdür. Figure 8 is the top two of the preferred configuration of Zigbee USB Dongle Android/IOS. dimensional view.
Sekil 9, gateway cihazinin tercih edilen yapilanmasinin üstten 'üç boyutlu görünümüdür.Figure 9 shows the top 'three-dimensional' configuration of the preferred configuration of the gateway device. is the view.
Parça Referanslarinin Açiklamasi . Giyilebilir cihaz Ç. Çoklu sensör giris aparati .1. EKG devresi .1 .1. EKG elekrotu kablosu .1.2. EKG elektrot yuvasi .2. SpOz devresi 10.21. SpOg sensörü .3. Vücut sicaklik ve nem devresi 103.1. Vücut sicaklik ve nem sensörü .4. Hareket devresi .4.1. Hareket sensörü 10.5. Kablosuz haberlesme modülü - 1 .6. Lityum batarya - 1 .7'. Mikro denetleyici -1 . Ortam cihazi .1. Toz ölçüm devresi 20.1 .1. Toz ölçüm sensörü .2. Oksijen devresi .2.1. Oksijen sensörü .3. Sicaklik ve nem devresi 20.4. Kablosuz haberlesme modülü - 2 . Akilli anahtar .1. Kablosuz haberlesme modülü - 3 .2. Buton 40. Zigbee USB Dongle Android/IOS 40.1. Kablosuz haberlesme modülü - 4 40.2 USB baglantisi 50. Gateway cihazi 50.1. Kablosuz haberlesme agi teknolojileri modülü 50.2. Mikro denetleyici - 2 60. Karar destek sistemi T. Mobil cihaz V. Veri toplama cihazi Bulusun Detayli Açiklamasi Bu detayli açiklamada, bulusa konu olan bir saglik izleme sisteminin tercih edilen yapilanmalari, sadece konunun daha iyi anlasilmasina yönelik olarak açiklanmaktadir. Description of Part References . wearable device C. Multi-sensor input device .one. ECG circuit .11th. EKG electrode cable .1.2. ECG electrode holder .2. SpOz circuit 10.21. SpOg sensor .3. Body temperature and humidity circuit 103.1. Body temperature and humidity sensor .4. motion circuit .4.1. Motion sensor 10.5. Wireless communication module - 1 .6. Lithium battery - 1 .7'. Microcontroller -1 . media device .one. Dust measuring circuit 20.1 .1. Dust measurement sensor .2. Oxygen circuit .2.1. oxygen sensor .3. Temperature and humidity circuit 20.4. Wireless communication module - 2 . smart key .one. Wireless communication module - 3 .2. Button 40. Zigbee USB Dongle Android/IOS 40.1. Wireless communication module - 4 40.2 USB connection 50. Gateway device 50.1. Wireless communication network technologies module 50.2. Microcontroller - 2 60. Decision support system T. Mobile device V. Data acquisition device Detailed Description of the Invention In this detailed description, the preferred choice of a health monitoring system subject to the invention their configuration is explained only for a better understanding of the subject.
Sekil 1'de görüldügü üzere, bulusa konu olan bahsedilen bir saglik izleme sistemi, temelde, bir giyilebilir cihazdan (10), bir ortam cihazindan (20), bir akilli anahtardan (30), bir Zigbee USB Dongle Android/lOS'dan (40) ve bir gateway cihazindan (50) meydana gelmektedir.As seen in Figure 1, said health monitoring system subject to the invention, basically, it consists of a wearable device (10), a media device (20), a smart switch. (30), a Zigbee USB Dongle from Android/IOS (40) and a gateway device (50) is occurring.
Bulusun ev içinde ve disinda olmak üzere iki kullanim ve baglanti sekli bulunmaktadir. The invention has two uses and connections, inside and outside the home.
Bahsedilen giyilebilir cihaz (10), Sekil 2 ve Sekil 3ite görüldügü üzere, insan vücudunun gögüs boslugu bölgesine bir kusak veya yapiskanli pedle yerlestirilmektedir.Said wearable device (10), as seen in Figures 2 and 3, is It is placed in the chest area with a sash or an adhesive pad.
Bahsedilen giyilebilir cihaz (10), ayni zamanda bele takilan bir aparat (yapiskanli kusak) vasitasiyla bel bölgesinde de çalismaktadir. Bahsedilen giyilebilir cihazin (10) üzerinde saglik verilerini ölçmek için EKG devresi (10.1), SpOz devresi (10.2), vücut sicaklik ve nem devresi (10.3), hareket devresi (10.4) ve çoklu sensör giris aparati (Ç) konumlandirilmaktadir. Çoklu sensör giris aparatinin (Ç) amaci giyilebilir cihaz (10) üzerindeki bütün devrelerle (Sp02 devresi (10.2), vücut sicaklik ve nem devresi (10.3), hareket devresi (104)) hasta vücudu üzerine konumlandirilan bütün sensörler (Sp02 arasindaki veri iletisimini saglamaktir. Sensörlerin (Sp02 sensörü (102.1), vücut sicaklik ve nem sensörü (103.1), hareket sensörü (10.4.1)) bir ucu vücut üzerine yerlestirilir ve bir ucu da çoklu sensör giris aparatina (Ç) takilir. Böylece tüm devreler çoklu sensör giris aparatina (Ç) gelen verileri alirlar. Said wearable device (10) is also an apparatus (adhesive) attached to the waist. It also works in the lumbar region via the belt. The said wearable device (10) ECG circuit (10.1), SpOz circuit (10.2), body temperature and humidity circuit (10.3), motion circuit (10.4) and multi-sensor input apparatus (C) is positioned. The purpose of the multi-sensor input apparatus (C) is the wearable device (10) with all circuits on it (Sp02 circuit (10.2), body temperature and humidity circuit (10.3), motion circuit (104)) all sensors (Sp02) positioned on the patient body to provide data communication between Sensors (Sp02 sensor (102.1), body temperature and humidity sensor (103.1), motion sensor (10.4.1)) one end on the body is inserted and one end is attached to the multi-sensor input apparatus (Ç). So all circuits They receive the data coming to the multi-sensor input apparatus (C).
Giyilebilir cihaz (10), her saniye yukarida bahsedilen sensörlerin yaptigi ölçüm verilerini alarak, üzerinde konumlandirilan kablosuz haberlesme modülü-1 (10.5) vasitasiyla, hasta sistemin var oldugu ortam içerisinde iken; zigbee/bluetooth/wifi araciligiyla gateway cihazina (50) iletir. Olçüm verileri gateway cihazindan (50) da kablosuz aktarim ile bulut teknolojisinde çalisan karar destek sistemine (60) gönderilir. Hasta ortam disinda iken (sokakta gibi), giyilebilir cihaz (10) verileri yine kablosuz haberlesme modülü-1 (10.5) vasitasiyla mobil cihaza (T) (akilli telefon, tabletine gibi) takilabilen Zigbee USB Dongle Android/IDS (40) vasitasiyla direkt karar destek sistemine (60) gönderir. The wearable device (10) transmits the measurement data made by the above-mentioned sensors every second. by means of the wireless communication module-1 (10.5) positioned on it, while the patient is in the environment where the system exists; via zigbee/bluetooth/wifi forwards it to the gateway device (50). The measurement data can also be sent from the gateway device (50) wirelessly. It is sent to the decision support system (60) working in cloud technology by transfer. Patient While outside the environment (such as on the street), the data of the wearable device (10) is still wireless. which can be plugged into a mobile device (T) (such as a smartphone, tablet) via module-1 (10.5) Direct decision support system (60) via Zigbee USB Dongle Android/IDS (40) sends it.
Giyilebilir cihaz (10), bir lityum batarya - 1 (10.6) ile çalismakta olup önemli olan özelligi, 7/24 kesintisiz çalisma prensibi ile her saniye ölçüm yapmasidir. The wearable device (10) is powered by a lithium battery - 1 (10.6) and the important thing is Its feature is that it measures every second with its 24/7 uninterrupted working principle.
Giyilebilir cihaz (10) üzerinde, EKG ölçümü için, EKG devresi (10.1) bulunmaktadir.On the wearable device (10), there is an ECG circuit (10.1) for ECG measurement.
EKG devresi ( sayesinde, EKG elektrotu kablosuna ( uçlarindaki elektrotlar bireyin vücuduna yapistirilir ve buradan alinan veriler, EKG devresine ( vasitasiyla üç derivasyonlu EKG ölçümü yapilabilmektedir. Ayrica nabiz ölçümü içinde EKG devresinden (10.1) ve elektrotlarindan faydalanilmaktadir. EKG elektrot verileriyle mevcut bilimsel formüller kullanilarak, EKG durum ve nabiz bilgilerine ulasilmaktadir. Bu yazilim vasitasiyla ulasilir. Bu yazilim EKG devresinde (10.1) de olabilir, karar destek sisteminde de (60) de olabilir. Thanks to the ECG circuit ( EKG electrode cable ( The electrodes at the ends are attached to the body of the individual and the data obtained from here is ECG. circuit ( three-lead via ECG measurement can be made. Also, in the pulse measurement, the ECG circuit (10.1) and electrodes are used. Current scientific formulas with ECG electrode data ECG status and heart rate information can be accessed using Via this software reachable. This software can be in the ECG circuit (10.1) or in the decision support system (60). it can be too.
Giyilebilir cihaz (10) üzerinde, SpOz ölçümü için, SpOz devresi (10.2) konumlanmaktadir. Sp02 devresi (10.2) çoklu sensör giris aparati (Ç) sayesinde Sp02 sensörü (102.1) ile iletisim halindedir. SpOg sensörü (102.1) kablo vasitasiyla vücut üzerine konumlandirilmistir. Mevcut sistemlerdeki SpOz sensörleri, parmaktan ölçüm yapmak için tasarlanmistir. Ancak bizim bulusumuzda bahsedilen SpOz sensörü (102.1) insan vücudu üzerinden (Gögüs boslugu etrafindan sensör gögüs boslugu üzerine yapistirilmaktadir.) ölçüm yapabilmek için revize edilmistir. Gögüs bosluguna yapistirilan Sp02 sensörü (102.1), parmaktan ölçüm yapan ile ayni islevde çalisir. SpOz circuit (10.2) for SpOz measurement on the wearable device (10) is located. Sp02 circuit (10.2) with multi-sensor input apparatus (C) It is in communication with the sensor (102.1). SpOg sensor (102.1) body via cable is positioned on it. SpOz sensors in existing systems, finger measurement is designed to do. However, the SpOz sensor mentioned in our invention (102.1) over the human body (Sensor chest cavity around the chest cavity) It is pasted on it.) has been revised in order to be able to measure. to the chest cavity The attached Sp02 sensor (102.1) works in the same way as the finger measuring.
Giyilebilir cihaz (10) üzerinde, vücut sicakligini ve nemi ölçmek için, vücut sicaklik ve nem devresi (10.3) konumlandirilmaktadir. Vücut sicaklik ve nem devresi (10.3) çoklu sensör giris aparati (Ç) sayesinde vücut sicaklik ve nem sensörü (10.31) ile iletisim halindedir ve ölçümler otomatik olarak yapilmaktadir. To measure body temperature and humidity on the wearable device (10), the humidity circuit (10.3) is positioned. Body temperature and humidity circuit (10.3) multiple Communication with the body temperature and humidity sensor (10.31) thanks to the sensor input apparatus (Ç). and measurements are made automatically.
Giyilebilir cihaz (10) üzerinde, nefes darligi ve düsme-kalkma durum tespiti ölçümü için, hareket devresi (10.4) konumlandirilmaktadir. Hareket devresi (10.4) çoklu sensör giris aparati (Ç) sayesinde hareket sensörü (104.1) ile iletisim halindedir. Nefes darligi tespiti için, her nefes alimi ile birlikte gerçeklesen gögüs kafesinin hareketi ve hareketin hangi siklikta oldugu belirlenmektedir. Ayrica hareket sensörü (104.1) X, Y ve Z koordinat düzlemi tespiti sonucu, hastanin ani ivmelenmesini algilamasiyla, ani ivmelenme verisini hareket devresine (10.4) aktarir. Böylece hastanin aniden düsmesi veya bayilmasi gibi durumlardaki anlik tespit saglanir. On the wearable device (10), for the measurement of shortness of breath and fall-stand status detection, the motion circuit (10.4) is positioned. Motion circuit (10.4) multi-sensor input It is in communication with the motion sensor (104.1) thanks to the apparatus (Ç). Shortness of breath The movement of the rib cage that occurs with each inhalation and the measurement of the movement the frequency is determined. Also motion sensor (104.1) X, Y and Z As a result of the coordinate plane detection, the sudden acceleration of the patient is detected. transfers the acceleration data to the motion circuit (10.4). Thus, the sudden fall of the patient Instant detection is provided in cases such as fainting or fainting.
Bahsedilen ortam cihazi (20), Sekil 4 ve Sekil 5=te görüldügü üzere, bulusa konu olan saglik izleme sisteminin kullanilacagi yere (ev, isyeri, çalisma alani veya hastane gibi) yerlestirilen bir cihazdir. Ortam cihazi (20), prize takili bir sekilde kesintisiz 7/24 çalisma prensibi ile her saniye ölçüm yapmaktadir. Ortam cihazi (20) üzerindeki kablosuz haberlesme modülü - 2 (20.4) yine ortam cihazi (20) üzerindeki devrelerden (toz ölçüm devresi (20.1), oksijen devresi (20.2), sicaklik ve nem devresi (20.3)) alinan verilerin gateway cihazina (50) kablosuz olarak aktarilmasini saglamaktadir. Said media device (20), as seen in Figures 4 and 5, is the subject of the invention. the location where the health monitoring system will be used (such as home, workplace, workplace or hospital) It is an embedded device. The media device (20) is plugged into an outlet 24/7 without interruption. It measures every second with its working principle. on the media device (20) wireless communication module - 2 (20.4) again from the circuits on the media device (20) (dust measuring circuit (20.1), oxygen circuit (20.2), temperature and humidity circuit (20.3)) it provides wireless transmission of data to the gateway device (50).
Ortam cihazi (20) üzerinde, toz düzeyi ölçümü için bir toz devresi (20.1) ve toz sensörü (20.1.1) konumlandirilmaktadir. Toz sensörü (20.1.1), ortamdaki toz miktarini gerçek zamanli olarak ölçüp, bilgileri toz devresine (20.1) iletmektedir. On the media device (20), a dust circuit (20.1) and dust sensor for dust level measurement (20.1.1) is located. The dust sensor (20.1.1) detects the actual dust amount in the environment. it measures in time and transmits the information to the powder circuit (20.1).
Ortam cihazi (20) üzerinde, oksijen düzeyi ölçümü için bir oksijen devresi (20.2) bulunmakta ve oksijen devresi (20.2) üzerinde oksijen sensörü (202.1) konumlandirilmaktadir. Ortamdaki oksijen miktarini gerçek zamanli olarak ölçen oksijen sensörü (202.1) bilgileri oksijen devresine (20.2) aktarmaktadir. On the ambient device (20), an oxygen circuit (20.2) for oxygen level measurement There is an oxygen sensor (202.1) on the oxygen circuit (20.2). is positioned. It measures the amount of oxygen in the environment in real time. The oxygen sensor (202.1) transmits the information to the oxygen circuit (20.2).
Ortam cihazi (20) üzerinde, sicaklik ve nemi ölçmek için, sicaklik ve nem devresi (20.3) bulunmakta ve sicaklik ve nem devresi (20.3) üzerinde sicaklik ve nem sensörü (203.1) konumlandirilmaktadir. Sicaklik ve nem sensörü (203.1) ortamdaki sicaklik ve nem miktarini gerçek zamanli olarak ölçüp, bilgileri sicaklik ve nem devresine (20.3) aktarmaktadir. Temperature and humidity circuit (20.3) on the ambient device (20) to measure temperature and humidity. There is a temperature and humidity sensor on the temperature and humidity circuit (20.3). (203.1) is positioned. Temperature and humidity sensor (203.1) It measures the amount of humidity in real time and sends the information to the temperature and humidity circuit (20.3). transmits.
Yeme-içme, diskilama, kusma, egzersiz gibi otomatik ölçümlerin yapilamadigi durumlarin tespiti için Sekil 6 ve Sekil 7'de görülen bahsedilen akilli anahtar (30) kullanilmaktadir. Akilli anahtara (30) 16 farkli parametre (acil durum, siddetli agri, bas dönmesi, agizdan kan gelmesi, kusma, ishal, ani gelisen güç kaybi, idrar yapma, diskilama, sisme, kanama, idrara çikma, egzersiz, su tüketimi, yiyecek tüketimi ve gögüs agrisi) tanimlanabildigi gibi bu sayinin daha da arttirilmasi mümkün olmaktadir.Automatic measurements such as eating-drinking, defecation, vomiting, exercise cannot be made. the mentioned smart key (30) seen in Figure 6 and Figure 7 to detect the situations is used. 16 different parameters (emergency, severe pain, pressure) to the smart switch (30) dizziness, bleeding from the mouth, vomiting, diarrhea, sudden loss of strength, urination, defecation, bloating, bleeding, urination, exercise, water consumption, food consumption, and chest pain) can be defined, it is possible to increase this number even more.
Akilli anahtar (30) ortam içerisinde, örnegin kusma sayi verisi alinmasi için lavabo yakinina, konumlandirilir. Her parametre için ayri bir yere konumlandirma yapilir. Hasta akilli anahtar bas çek butonuna (30.2) bastiginda o fonksiyona ait olan veri kablosuz haberlesme modülü - 3 (30.1) sayesinde gateway cihazina (50) aktarilir. Akilli anahtarda (30) tanimli ID'Ier sayesinde butona (30.2) her basildiginda hangi akilli anahtardan (30) veri geldigi gateway cihazi (50) tarafindan anlasilir. The smart switch (30) is in the environment, for example, a sink for obtaining vomit number data. located close to it. A separate positioning is made for each parameter. Patient When the smart key presses the push and pull button (30.2), the data belonging to that function is wireless. It is transferred to the gateway device (50) by means of the communication module - 3 (30.1). Clever Thanks to the IDs defined on the switch (30), which smart it is understood by the gateway device (50) that data is coming from the switch (30).
Akilli anahtarin (30) butonuna (30.2) her basildiginda ölçümler manuel olarak sayisal veri anlaminda alinmaktadir. Ornekle kisinin basi agridiginda ilgili akilli anahtara (30) bas çek butonuna (30.2) basarak veri gitmesini saglanir. Akilli anahtarda (30) bir Iityum batarya ile 7/24 çalisma prensibine göre çalismaktadir. Each time the button (30.2) of the smart switch (30) is pressed, the measurements are manually digitalized. taken in terms of data. For example, when the person has a headache, the relevant smart key (30) By pressing the push button (30.2), the data is sent. A Lithium in the smart key (30) It works according to the principle of working 24/7 with a battery.
Bahsedilen Zigbee USB Dongle Android/IOS (40), Sekil 8 'de görüldügü üzere kablosuz haberlesme modülü - 4'ü (40.1) içinde barindiran, kablosuz haberlesme agi teknolojisi ile çalisan, Android/IOS mobil cihazlar (T) için kullanilan cihazdir. Zigbee USB Dongle Android/IOS (40), Android/IOS mobil cihazlara (T) üzerindeki USB baglantisi (, hasta ortam disinda (örnegin sokakta iken) iken giyilebilir cihazdan (10) alinan verilerin internet üzerinden, karar destek sistemine (60) iletimini saglamaktadir. Mentioned Zigbee USB Dongle Android/IOS (40), as seen in Figure 8 wireless communication module - 4 in (40.1) wireless communication network It is a device used for Android/IOS mobile devices (T), working with technology. zigbee USB Dongle Android/IOS (40), USB on Android/IOS mobile devices (T) connection (, patient data received from the wearable device (10) while it is outside the environment (for example, while on the street). It provides transmission to the decision support system (60) over the internet.
Bahsedilen bulut teknolojisine sahip karar destek sistemi (60), giyilebilir cihazin (10), ortam cihazinin (20) ve akilli anahtarin (30) ölçüm degerlerini alan, depolayan, siraya sokan ve mantiksal algoritmalar gelistirerek, kisinin hayati risk durum tespitlerini yapabilen, hastalik tedavi süreçlerinde doktor/hastane/hasta yakinlari için durum raporlari üretebilen, büyük veri teknolojisi ile üretilen bilgisayar programidir. (Onceden sinir veriler karar destek sistemine (60) kaydedilmistir. Ornegin, ates degeri 375nin üzerinde tespit edilirse alarm verilir) Bahsedilen gateway cihazi (50), Sekil @da görüldügü üzere, içinde kablosuz haberlesme agi teknolojilerini (zigbee/Wi-Fi/bluetooth) barindiran cihazdir. Diger cihazlardan (giyilebilir cihaz (10), ortam cihazi (20) ve akilli anahtar (30)) aldigi verileri kablosuz haberlesme agi teknolojileri modülü (50.1) (zigbeeNVi-Fi/bluetooth) ile karar destek sistemine (60) iletmektedir. 7/24 çalisma prensibiyle çalismakta, Iityum piller ve elektrik prizlerine takilarak çalismaktadir. The aforementioned cloud technology decision support system (60), wearable device (10), which takes, stores, queues the measurement values of the media device (20) and the smart key (30) detecting the person's life-threatening situation by developing logical algorithms that situation for doctors/hospitals/patient relatives in disease treatment processes, who can It is a computer program that can produce reports and produced with big data technology. (Previously The neural data is recorded in the decision support system (60). For example, the fire rating of 375 alarm is issued) Said gateway device (50), as seen in Figure @, has a wireless It is a device that hosts communication network technologies (zigbee/Wi-Fi/bluetooth). Other devices (wearable device (10), media device (20) and smart key (30)) Decision with wireless communication network technologies module (50.1) (zigbeeNVi-Fi/bluetooth) transmits it to the support system (60). It works with the principle of working 24/7, lithium batteries and It works by plugging into electrical outlets.
Giyilebilir cihazda (10) mikro denetleyici - 1 (10.7) ve gateway cihazinda (50) da mikro denetleyici - 2 (50.2) bulunmaktadir. Mikro denetleyici - 1 (10.7) verilerin siralamasini belirler. Ornegin hasta hareket halindeyken mikro denetleyici - 1 (10.7) en yakin gateway cihazina (50) verinin gönderilmesini saglar. Microcontroller - 1 (10.7) in wearable device (10) and microcontroller in gateway device (50) controller - 2 (50.2) are available. Microcontroller - 1 (10.7) sequencing of data determines. eg microcontroller with patient on the go - 1 (10.7) closest it enables data to be sent to the gateway device (50).
Sistemin çalisma prensibi; Giyilebilir cihaz (10), insan vücudunun gögüs boslugu bölgesine bir kusak veya yapiskanli pedle yerlestirilmektedir. Giyilebilir cihaz (10), ayni zamanda bele takilan bir aparat (yapiskanli kusak) vasitasiyla bel bölgesinde de çalisabilmektedir. Giyilebilir cihazin (10) üzerinde saglik verilerini ölçmek için EKG devresi (10.1), SpOg devresi (10.2), vücut sicaklik ve nem devresi (10.3) ve hareket devresi (10.4) bulunmaktadir.Working principle of the system; The wearable device (10) is placed on the thorax region of the human body by a girdle or It is placed with an adhesive pad. The wearable device (10) is also a It can also work in the waist area by means of the apparatus (adhesive belt). Wearable ECG circuit (10.1), SpOg circuit for measuring health data on the device (10) (10.2), body temperature and humidity circuit (10.3) and action circuit (10.4).
Bu devrelere bagli olan sensörlerin (Sp02 sensörü (102.1) , vücut sicaklik ve nem sensörü (103.1) ve hareket sensörü (10.4.1) ) bir ucu vücut üzerine yerlestirilir ve bir ucu da çoklu sensör giris aparatina (Ç) takilir. Giyilebilir cihaz (10) üzerindeki, EKG devresi ( sayesinde EKG elektrotu kablosuna ( uçlarindaki elektrotlar bireyin vücuduna yapistirilir ve elektrotlardan alinan veriler EKG devresine ( vasitasiyla üç derivasyonlu EKG ölçümü yapilabilmektedir. Giyilebilir cihaz (10), her saniye yukarida EKG, Sp02, vücut sicaklik ve nem ve hareket ölçümleri yaparak kablosuz haberlesme modülünü - 1 (10.5) vasitasiyla gateway cihazina (50) vei'veya mobil cihaza (T) takilip çikarilabilen Zigbee USB Dongle Android/IOS'a (40) iletir. bulut teknolojisinde çalisan karar destek yazilimina (60) gönderilir. Gateway cihazi (50) ve Zigbee USB Dongle Android/IOS'da bu verileri degerlendirilmek üzere karar destek sistemine (60) iletir. Sensors connected to these circuits (Sp02 sensor (102.1), body temperature and humidity sensor (103.1) and motion sensor (10.4.1) ) one end is placed on the body and a end is attached to the multi-sensor input apparatus (C). ECG on the wearable device (10) circuit ( thanks to the ECG electrode cable (at the ends The electrodes are attached to the body of the individual and the data obtained from the electrodes are sent to the ECG circuit. ( via three-lead ECG measurement can be done. Wearable device (10), ECG, Sp02, body temperature above every second and the wireless communication module - 1 (10.5) by measuring humidity and movement. Zigbee pluggable to gateway device (50) and mobile device (T) via USB Dongle transmits to Android/IOS (40). cloud computing decision support sent to the software (60). Gateway device (50) and Zigbee USB Dongle on Android/IOS transmits this data to the decision support system (60) for evaluation.
Ayrica hasta sistemin var oldugu ortam içerisinde iken ortam cihazi (20) üzerinde, sicaklik ve nem devresi (20.3), toz devresi (20.1) ve oksijen devresi (20.2) bulunmaktadir. Toz ölçüm sensörü (20.1.1) toz devresine (20.1), oksijen sensörü (202.1) oksijen devresine (20.2) anlik olarak ölçtükleri verileri iletmektedirler. Kablosuz haberlesme modülü - 2 (20.4) ortam Cihazi (20) üzerindeki devrelerden (toz devresi (20.1), oksijen devresine (20.2) ve sicaklik ve nem devresi (203)) alinan verilerin gateway cihazina (50) kablosuz olarak aktarilmasini saglamaktadir. In addition, while the patient is in the environment where the system exists, on the media device (20), temperature and humidity circuit (20.3), powder circuit (20.1) and oxygen circuit (20.2) are available. Dust measurement sensor (20.1.1) to dust circuit (20.1), oxygen sensor (202.1) transmit the data they measured instantaneously to the oxygen circuit (20.2). Wireless communication module - 2 (20.4) from the circuits (dust circuit) on the ambient Device (20) (20.1), the oxygen circuit (20.2), and the temperature and humidity circuit (203) to the gateway device (50) wirelessly.
Ayrica otomatik 'ölçümlerin yapilamadigi durumlarin tespiti için akilli anahtar (30) kullanilmaktadir. Akilli anahtara (30), 16 farkli parametre tanimlanabildigi gibi bu sayi daha da artirilmasi mümkün olmaktadir. Akilli anahtar (30) ortam içerisinde (örnegin, kusma sayi verisi alinmasi için lavabo yakinina) konumlandirilir. Her parametre için ayri bir yere konumlandirma yapilir. Hasta akilli anahtar (30) bas çek butonuna (30.2) bastiginda o fonksiyona ait olan veri, kablosuz haberlesme modülü - 3 (30.1) vasitasiyla gateway cihazina (50) aktarilir. Akilli anahtarda (30) tanimli lD'ler sayesinde, butona (30.2) her basildiginda hangi akilli anahtardan (30) veri geldigi gateway cihazi (50) tarafindan anlasilir. Akilli anahtarin (30) butonuna (30.2) her basildiginda ölçümler manuel olarak sayisal veri anlaminda alinmaktadir. Ornegin, kisi basi agridiginda, ilgili akilli anahtarin (30) butonuna (30.2) basarak veri gitmesini 111] __F T El '_-"' 'ED 1III.}I --'-""'_ 1Ü.1.1 33”.? 53”.? SELI fr' ;31% ,f In addition, the smart switch (30) for the detection of situations where automatic 'measurements cannot be made' is used. As 16 different parameters can be defined to the smart switch (30), this number further increase is possible. The smart key (30) is within the environment (for example, It is positioned (near the sink) to obtain vomit number data. For each parameter positioning is done in a separate place. Patient smart key (30) push and pull button (30.2) When pressed, the data belonging to that function, wireless communication module - 3 (30.1) via the gateway device (50). IDs defined in smart switch (30) thanks to which smart switch (30) data comes from each time the button (30.2) is pressed. understood by the gateway device (50). Each time the button (30.2) of the smart key (30) When pressed, measurements are taken manually in terms of numerical data. For example, person When the head hurts, press the button (30.2) of the relevant smart key (30) to send the data. 111] __F T El '_-"' 'ED 1III.}I --'-""'_ 1U.1.1 33”.? 53”.? SELI fr' ;31% ,f
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| PCT/TR2018/050260 WO2019009859A2 (en) | 2017-05-23 | 2018-05-22 | A health monitoring system |
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|---|---|
| TR201707485A2 true TR201707485A2 (en) | 2017-09-21 |
Family
ID=64951176
Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| TR2017/07485A TR201707485A2 (en) | 2017-05-23 | 2017-05-23 | A health monitoring system |
Country Status (2)
| Country | Link |
|---|---|
| TR (1) | TR201707485A2 (en) |
| WO (1) | WO2019009859A2 (en) |
Family Cites Families (4)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| US8002701B2 (en) * | 2006-03-10 | 2011-08-23 | Angel Medical Systems, Inc. | Medical alarm and communication system and methods |
| US7539533B2 (en) * | 2006-05-16 | 2009-05-26 | Bao Tran | Mesh network monitoring appliance |
| US9599632B2 (en) * | 2012-06-22 | 2017-03-21 | Fitbit, Inc. | Fitness monitoring device with altimeter |
| US20140324459A1 (en) * | 2013-04-30 | 2014-10-30 | Hti Ip, L.L.C | Automatic health monitoring alerts |
-
2017
- 2017-05-23 TR TR2017/07485A patent/TR201707485A2/en unknown
-
2018
- 2018-05-22 WO PCT/TR2018/050260 patent/WO2019009859A2/en active Application Filing
Also Published As
| Publication number | Publication date |
|---|---|
| WO2019009859A2 (en) | 2019-01-10 |
| WO2019009859A3 (en) | 2019-04-18 |
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