TW202315572A - Method and portable wearable device for real-time detection and analysis of state of eye ball movement in acute stage of vertigo especially beneficial in emergency medical applications - Google Patents
Method and portable wearable device for real-time detection and analysis of state of eye ball movement in acute stage of vertigo especially beneficial in emergency medical applications Download PDFInfo
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Abstract
Description
本發明係與眩暈檢測技術領域相關,尤其是一種利用可攜式穿戴裝置以快速且即時地針對眩暈對象進行眼振檢驗判別之可於眩暈急性期即時檢測分析眼球運動狀態之方法及可攜式穿戴裝置。The present invention is related to the technical field of vertigo detection, in particular a method for detecting and analyzing eye movement state in the acute stage of vertigo and a portable wearable device.
眩暈係指人感覺周遭環境或身體在移/旋轉之一種不適感受,急性眩暈常伴隨嚴重的失衡及噁心嘔吐現象。在眩暈症狀急性發作時,常會產生眼振現象,眼振為平衡系統急性障礙造成的特殊眼球運動,並為診斷眩暈病因的高特異性證據。在臨床方面,現行眩暈評估方式大致可分為兩大類,第一類為調查問卷形式,第二類則是Single-item measures,然而這兩種方式都是針對慢性眩暈患者的回溯性調查。但急性眩暈發作時,診斷上仰賴的疾病史卻常因病人生理與精神狀況極度不佳而無從得知。較客觀的理學、神經學檢查,也因相同原因很難執行與判讀。與前庭相關的檢查,則多需要有經驗人員以及占空間的設備來執行。Vertigo refers to an uncomfortable feeling when people feel the surrounding environment or the body is moving/rotating. Acute vertigo is often accompanied by severe imbalance and nausea and vomiting. During the acute onset of vertigo symptoms, nystagmus often occurs. Nystagmus is a special eye movement caused by an acute disturbance of the balance system, and it is a highly specific evidence for diagnosing the etiology of vertigo. Clinically, the current assessment methods of vertigo can be roughly divided into two categories. The first category is in the form of questionnaires, and the second category is Single-item measures. However, both methods are retrospective surveys for patients with chronic vertigo. However, when acute vertigo occurs, the disease history relied on for diagnosis is often unknown due to the extremely poor physical and mental conditions of the patient. More objective physical and neurological examinations are also difficult to perform and interpret for the same reason. Inspections related to the vestibule usually require experienced personnel and equipment that takes up space.
眼振的觀察相對為一較簡單、較易獲得患者合作且與前庭功能息息相關的檢查。並且,眼振為診斷眩暈病因之一個相當重要的項目,舉例而言,臨床上最多的前庭障礙疾病為良性陣發性姿勢性眩暈(Benign paroxysmal positional, BPPV),發作時其獨特的眼振狀態為建立診斷不可或缺的證據;梅尼爾氏症在急性發作的前後期,有時會出現方向完全相反的眼振;而前庭性神經炎的典型症狀中,常出現超過一日長達數日的眼振;同樣是造成痛苦感強的前庭性偏頭痛(vestibular migraine),則較少有典型的眼振發生;中樞腦血管疾病或腦部腫瘤在腦幹、腦室及小腦者,其引發之眩暈,具體的眼振表現常為方向較特殊的垂直眼振或隨凝視位置不同而改變方向的眼振,該種眼振現象亦是提醒臨床醫師可能有中樞病變的重要證據。The observation of nystagmus is relatively simple, easy to obtain the patient's cooperation and is closely related to the vestibular function. Moreover, nystagmus is a very important item in the diagnosis of the etiology of vertigo. For example, the most common vestibular disorder disease in clinical practice is benign paroxysmal positional (BPPV), and its unique nystagmus state Indispensable evidence for the establishment of a diagnosis; Meniere's disease sometimes presents nystagmus in the opposite direction in the early and late stages of the acute attack; and among the typical symptoms of vestibular neuritis, it often occurs for more than one day and lasts for several days. Day-to-day nystagmus; vestibular migraine (vestibular migraine), which also causes strong pain, is less likely to have typical nystagmus; central cerebrovascular disease or brain tumors in the brainstem, ventricles and cerebellum, which cause Vertigo, the specific nystagmus performance is usually a vertical nystagmus with a special direction or a nystagmus that changes direction with different gaze positions. This kind of nystagmus phenomenon is also an important evidence to remind clinicians that there may be central lesions.
由此可知,眼振的分析是為急性眩暈病因判斷之重要武器,特別是急性眩暈發作時,由於病患痛苦無力,要獲得精確病史並不容易,而眩暈在其他症狀上的雷同,常會造成周邊前庭疾病與腦中樞疾病無法區分,特別是在例如核磁共振等高級影像檢查設備資源不足的醫療場所,要區分周邊前庭疾病與腦中樞疾病更是困難。It can be seen that the analysis of nystagmus is an important weapon for judging the etiology of acute vertigo, especially when acute vertigo occurs, it is not easy to obtain an accurate medical history due to the pain and weakness of the patient, and the similarity of vertigo in other symptoms often leads to Peripheral vestibular diseases cannot be distinguished from central brain diseases, especially in medical settings with insufficient resources for advanced imaging equipment such as MRI, it is even more difficult to distinguish peripheral vestibular diseases from central brain diseases.
然而觀察眼振的一個重大前提,是必須在眩暈急性期進行檢測與觀察,當眩暈發作一段時間後,眼振就會減弱甚至消失,這是因為前庭中樞代償作用會以多種方式補償前庭障礙的缺失,包括前庭眼反射的補償,使得眼振很快減弱,其目的在於維繫正常視覺的穩定。這段代償所需的時間,慢則數日,快則數小時。因此,若不能在急性期盡快觀察眼振,將失去一項珍貴的診斷數據。However, an important prerequisite for observing nystagmus is that it must be detected and observed in the acute stage of vertigo. After a period of time after vertigo, nystagmus will weaken or even disappear, because the vestibular center compensation will compensate for the vestibular disorder in various ways. Deficiency, including compensation of the vestibulo-ocular reflex, causes rapid reduction of nystagmus, the purpose of which is to maintain the stability of normal vision. The time required for this compensation can range from a few days to a few hours. Therefore, if nystagmus is not observed as soon as possible in the acute phase, a valuable diagnostic data will be lost.
目前急診觀察眼振的方法是以肉眼裸視或配合Frenzel goggles(又稱菲倫茲護目鏡)放大眼睛來觀察,對於眼振只能靠人員自行判斷,無法做客觀紀錄。再者,有些病患常有陣發性的眩暈,其發作時間不長且嚴重度不致要至急診治療,因此該些病患的眼振更是無法紀錄,當病患來到醫療院所時,眼振多已消失。由上述內容可知眼振是臨床診察急性眩暈的一個重要指標,但目前急性眩暈發生時的情境與現有醫療前線的設備,眼振的測量只能單憑個人經驗能力來觀察並做判斷,使得眼振是難以被即時客觀量測的,且亦相當缺乏眼振結果的紀錄分析資料,不利於後續的討論或比對。如此,也導致在眩暈病因判斷上,初次看診的誤診率居高不下。The current method of observing nystagmus in emergency departments is to observe with naked eyes or with Frenzel goggles (also known as Firenze goggles) to magnify the eyes. For nystagmus, only personnel can judge by themselves, and objective records cannot be made. In addition, some patients often have paroxysmal vertigo, and the onset time is not long and the severity does not require emergency treatment. Therefore, the nystagmus of these patients cannot be recorded. , the nystagmus has disappeared. From the above content, it can be seen that nystagmus is an important indicator for clinical diagnosis of acute vertigo, but the current situation of acute vertigo and the existing medical front-line equipment, the measurement of nystagmus can only be observed and judged based on personal experience and ability, making the eye It is difficult to measure nystagmus objectively in real time, and there is quite a lack of recorded analysis data of nystagmus results, which is not conducive to subsequent discussion or comparison. This also leads to a high rate of misdiagnosis at the first visit in judging the etiology of vertigo.
有鑑於此,本發明團隊係集結相關領域之豐富專業知識,構思並提出一種可於眩暈急性期即時檢測分析眼球運動狀態之方法及可攜式穿戴裝置,以解決現有設備與診察方式之不足。In view of this, the team of the present invention gathered rich professional knowledge in related fields, conceived and proposed a method and a portable wearable device that can detect and analyze the state of eye movement in the acute stage of vertigo in order to solve the shortcomings of existing equipment and diagnosis methods.
本發明之一目的,旨在提供一種可於眩暈急性期即時檢測分析眼球運動狀態之方法及可攜式穿戴裝置,以在患者眩暈當下即可快速即時地進行眼振測試與觀察,並依據眼振狀態智能判斷分析其眩暈症狀成因,以降低誤診機率並給予患者正確的治療,尤在急診應用上更顯見其必要性與優勢。One purpose of the present invention is to provide a method and a portable wearable device for real-time detection and analysis of the eye movement state in the acute stage of vertigo, so that the nystagmus test and observation can be performed quickly and instantly when the patient is dizzy, and according to the Intelligently judge and analyze the causes of vertigo symptoms based on vibration status, so as to reduce the probability of misdiagnosis and give patients correct treatment, especially in emergency applications.
為達上述目的,本發明係提出一種可於眩暈急性期即時檢測眼球運動狀態之檢測方法,包含以下步驟:提供一可攜式穿戴裝置,以供受測者配戴於眼部;該可攜式穿戴裝置發出至少一檢測導覽指示,導引受測者進行至少一眼振測試項目之作業;於受測者依循該檢測導覽指示作動後,該可攜式穿戴裝置獲取至少一眼球運動資訊,其中該眼球運動資訊係至少包含一波型資料;該可攜式穿戴裝置智能判斷該眼球運動資訊而取得一眼振分析結果,其中該眼振分析結果係包含至少一病症名稱與對應該病症名稱之至少一概率值;及儲存該眼球運動資訊及該眼振分析結果。In order to achieve the above purpose, the present invention proposes a detection method that can detect the state of eye movement in the acute stage of vertigo, including the following steps: providing a portable wearable device for the subject to wear on the eye; The wearable device sends out at least one detection guide instruction to guide the subject to perform at least one eye vibration test item; after the subject follows the detection guide instruction, the portable wearable device obtains at least one eyeball movement information , wherein the eye movement information includes at least one wave type data; the portable wearable device intelligently judges the eye movement information to obtain an eye vibration analysis result, wherein the eye vibration analysis result includes at least one disease name and the corresponding disease name at least one probability value; and storing the eye movement information and the nystagmus analysis result.
較佳地,該可攜式穿戴裝置係投射一虛擬影像以顯示該檢測導覽指示或/及對應該眼振測試項目之誘發圖式,於受測者依據該檢測導覽指示作動時,該可攜式穿戴裝置係拍攝受測者之眼球運動影像,並經解析處理形成該眼球運動資訊,據此可讓受測者更易於依據檢測導覽指示進行相關動作與觀看誘發圖式,同時可阻隔外部干擾,提升眼球運動資訊收集的精確度。Preferably, the wearable wearable device projects a virtual image to display the detection guide instruction or/and the induced pattern corresponding to the nystagmus test item, when the subject acts according to the detection guide instruction, the The portable wearable device shoots the eye movement images of the subjects, and analyzes and processes them to form the eye movement information, which makes it easier for the subjects to perform relevant actions and watch the evoked patterns according to the test navigation instructions, and at the same time Block external interference and improve the accuracy of eye movement information collection.
較佳地,該眼振分析結果係經由一AI演算模型所判讀分析取得,且該AI演算模型為接收複數眼振暨病因關聯資訊後,以神經網路為學習訓練所形成,以導入人工智慧技術輔助提升智能判斷的精準度。Preferably, the nystagmus analysis result is obtained through the interpretation and analysis of an AI calculation model, and the AI calculation model is formed after receiving complex nystagmus and etiology-related information, using neural networks for learning and training, so as to introduce artificial intelligence Technical assistance improves the accuracy of intelligent judgment.
較佳地,該眼振測試項目係為凝視、跳視、追視、動態眼振慢速相、動態眼振快速相及冷水溫差試驗其中之一或其結合者,以利獲取足夠資訊以判別為前庭功能異常或為中樞異常所導致之眩暈。Preferably, the nystagmus test item is one or a combination of staring, saccade, pursuit, dynamic nystagmus slow phase, dynamic nystagmus fast phase and cold water temperature difference test, so as to obtain enough information to distinguish Vertigo caused by abnormal vestibular function or abnormal central nervous system.
較佳地,該眼球運動資訊及該眼振分析結果被儲存後,係再傳輸至一遠端平台,以結合至少一問診紀錄進行二次病因判斷,據此除可將受測的眼球運動資訊及透過智能判別之眼振分析結果加以儲存記錄,更能同時讓不同科別之醫師進行二次評估或作為後續臨床教學之用,以結合患者其他症狀一併做更精確之病因判斷。Preferably, after the eye movement information and the nystagmus analysis result are stored, they are then transmitted to a remote platform to combine with at least one medical inquiry record for secondary etiology judgment, whereby the measured eye movement information can be And the results of nystagmus analysis through intelligent discrimination are stored and recorded, allowing doctors of different disciplines to conduct secondary evaluations or use them for follow-up clinical teaching, so as to make more accurate etiological judgments in combination with other symptoms of patients.
本發明亦提出一種可於眩暈急性期即時檢測分析眼球運動狀態之可攜式穿戴裝置,包含:一可攜式穿戴主體,供受測者配戴於眼部;一處理器,設於該可攜式穿戴主體;一導覽指示模組,設於該可攜式穿戴主體且與該處理器電訊連接,供以發出至少一檢測導覽指示,以導引受測者進行至少一眼振測試項目之作業;一眼球運動擷取模組,設於該可攜式穿戴主體且與該處理器電訊連接,供以擷取受測者依循該檢測導覽指示作動後之眼球運動狀態並傳輸至該處理器形成至少一眼球運動資訊,其中該眼球運動資訊至少包含一波型資料;一一智能判斷模組,設於該可攜式穿戴主體且與該處理器電訊連接,供以判斷該眼球運動資訊而形成該眼振分析結果,其中該眼振分析結果包含至少一病症名稱與對應該病症名稱之至少一概率值;及一記錄模組,與該處理器及該智能判斷模組電訊連接,供以儲存該眼球運動資訊及該眼振分析結果。The present invention also proposes a portable wearable device that can detect and analyze the state of eye movement in real time during the acute stage of vertigo, including: a portable wearable body for the subject to wear on the eyes; a processor installed in the wearable Portable wearable main body; a navigation instruction module, installed on the portable wearable main body and connected to the processor by telecommunication, for issuing at least one detection navigation instruction to guide the subject to perform at least one eye vibration test item operation; the eyeball movement acquisition module is set on the portable wearable body and is connected to the processor by telecommunication, so as to capture the eye movement state of the subject after following the inspection guide instructions and transmit it to the The processor forms at least eye movement information, wherein the eye movement information includes at least one wave type data; an intelligent judgment module, set on the portable wearable body and telecommunications connected with the processor, for judging the eye movement information to form the nystagmus analysis result, wherein the nystagmus analysis result includes at least one disease name and at least one probability value corresponding to the disease name; and a recording module, connected to the processor and the intelligent judgment module by telecommunication, It is used for storing the eye movement information and the nystagmus analysis result.
較佳地,該導覽指示模組係投射一虛擬影像以顯示該檢測導覽指示或/及對應該眼振測試項目之誘發圖式,於受測者依據該檢測導覽指示作動時,該眼球運動擷取模組係以拍攝受測者之眼球運動影像並傳送至該處理器。如此係更易於受測者獨立進行測試,讓受測者能快速清楚檢查流程。Preferably, the navigation instruction module projects a virtual image to display the detection navigation instruction or/and the evoked pattern corresponding to the nystagmus test item, when the subject acts according to the detection navigation instruction, the The eye movement capture module is used to capture the subject's eye movement images and send them to the processor. In this way, it is easier for the subject to conduct the test independently, so that the subject can quickly and clearly check the inspection process.
較佳地,該智能判斷模組係具有一AI演算模型,供以判讀分析該眼球運動資訊取得該眼振分析結果,且該AI演算模型為接收複數眼振暨病因關聯資訊後,以神經網路為學習訓練所形成,以藉由人工智慧技術輔助提升智能判斷的精準度。Preferably, the intelligent judgment module has an AI calculation model for interpreting and analyzing the eye movement information to obtain the nystagmus analysis result, and the AI calculation model is based on neural network after receiving complex nystagmus and cause-related information. The road is formed by learning and training to improve the accuracy of intelligent judgment with the help of artificial intelligence technology.
較佳地,該眼振測試項目係為凝視、跳視、追視、動態眼振慢速相、動態眼振快速相及冷水溫差試驗其中之一或其結合者,以利獲取足夠資訊以判別為前庭功能異常或為中樞異常所導致之眩暈。Preferably, the nystagmus test item is one or a combination of staring, saccade, pursuit, dynamic nystagmus slow phase, dynamic nystagmus fast phase and cold water temperature difference test, so as to obtain enough information to distinguish Vertigo caused by abnormal vestibular function or abnormal central nervous system.
較佳地,該記錄模組係設於該可攜式穿戴主體,且當該記錄模組儲存該眼球運動資訊及該眼振分析結果後,係將該眼球運動資訊及該眼振分析結果傳輸至一遠端平台,以結合至少一問診紀錄進行二次病因判斷。據此除可將受測的眼球運動資訊及透過智能判別之眼振分析結果加以儲存記錄,更能同時讓不同科別之醫師結合患者的其他病症進行二次評估或作為後續臨床教學之用。Preferably, the recording module is set on the portable wearable body, and after the recording module stores the eye movement information and the nystagmus analysis result, it transmits the eye movement information and the nystagmus analysis result to a remote platform to make a secondary etiological judgment in combination with at least one medical inquiry record. According to this, in addition to storing and recording the measured eyeball movement information and the nystagmus analysis results through intelligent discrimination, it is also possible for doctors of different disciplines to conduct secondary evaluations in combination with other diseases of patients or for subsequent clinical teaching.
綜上所述,本發明之可於眩暈急性期即時檢測分析眼球運動狀態之方法及可攜式穿戴裝置,係具備簡易的測試流程與測試裝置,可減少接近百分之70的檢查時間,且全自動無須額外人力,同時在眩暈當下可完整地記錄眼球運動狀態,以免錯失眩暈病因正確診斷的黃金期。透過該方法與該可攜式穿戴裝置,眩暈檢測不再需要仰賴占空間且不利使用的大型機台,同時也無須配置人員引導受測者,大幅簡化測試流程與所需時間,並且藉由智能診斷即可快速知悉此眩暈現象之成因可能性,消除等待報告判讀之時間,以盡可能地盡早得知檢測結果,對於受測者而言亦可使其具有更好的診療感受。To sum up, the method and portable wearable device for real-time detection and analysis of eye movement state in the acute stage of vertigo according to the present invention have a simple test process and test device, which can reduce the inspection time by nearly 70%, and It is fully automatic and does not require additional manpower. At the same time, it can completely record the eye movement state at the moment of vertigo, so as not to miss the golden period of correct diagnosis of the cause of vertigo. Through this method and the portable wearable device, vertigo detection no longer needs to rely on a large machine that takes up space and is unfavorable to use, and also does not need to deploy personnel to guide the subjects, which greatly simplifies the test process and time required, and through intelligent Diagnosis can quickly know the possibility of the cause of the vertigo phenomenon, eliminate the time of waiting for the report interpretation, so as to know the test results as early as possible, and it can also make the subjects have a better diagnosis and treatment experience.
在台灣,約有高達30%的人口具有眩暈問題,亦即每100人中就有3人有眩暈,並每年有超過70萬人次因眩暈症而就診。眩暈病患中,約有1/4會前往急診就醫,尤以65歲以上之老人急診情況中,就有13-38%是因為眩暈問題。由此可見,眩暈症狀著實為困擾許多民眾之病症。然而,現有的眩暈眼振診察方式,無法在眩暈急性期就即時地進行檢測,因此衍生了無法順利判斷眩暈成因與誤診率高之問題。尤其,眩暈的病因不同時,治療方式亦大不相同,例如前庭功能障礙與腦中樞疾病之治療方式即大相逕庭。因此,目前臨床上亟需一種可即時量測分析眩暈急性期之眼振狀態之檢測方法與裝置,以避免錯過檢查與判斷的黃金期,以下即針對本發明提出之一種可於眩暈急性期即時檢測分析眼球運動狀態之方法及可攜式穿戴裝置之技術內容予以說明。In Taiwan, up to 30% of the population suffers from vertigo, that is, 3 out of every 100 people suffer from vertigo, and more than 700,000 people visit a doctor each year due to vertigo. About 1/4 of patients with vertigo will go to the emergency department for medical treatment, especially for the elderly over 65 years old, 13-38% of the emergency cases are due to vertigo. It can be seen that the vertigo symptom is really a disease that plagues many people. However, the existing vertigo-ocular vibration diagnosis method cannot be detected in real time during the acute stage of vertigo, which leads to the problems of inability to successfully determine the cause of vertigo and a high rate of misdiagnosis. In particular, when the etiology of vertigo is different, the treatment methods are also very different. For example, the treatment methods for vestibular dysfunction and central brain disease are very different. Therefore, there is an urgent clinical need for a detection method and device that can measure and analyze the nystagmus state in the acute stage of vertigo in real time, so as to avoid missing the golden period of inspection and judgment. The method of detecting and analyzing the state of eye movement and the technical content of the portable wearable device are explained.
為使本領域具有通常知識者能清楚了解本發明之內容,謹以下列說明搭配圖式,敬請參閱。請參閱第1及3至6圖,其係為本發明較佳實施例之方法流程步驟圖、受測者配戴可攜式穿戴裝置之應用示意圖、受測者進行測試時觀看之檢測導覽指示示意圖、受測者進行測試時觀看之誘發圖式示意圖及眼振分析結果顯示示意圖。該可即時量測分析眩暈急性期之眼振狀態之方法係包含以下步驟,首先,提供一可攜式穿戴裝置1,以供受測者2配戴於眼部(步驟S01)。接著,該可攜式穿戴裝置1發出至少一檢測導覽指示A,導引受測者2進行至少一眼振測試項目之作業(步驟S02)。該可攜式穿戴裝置1所發出之該檢測導覽指示A,係可協助受測者2知悉欲進行知該眼振測試項目的測試方式,以達讓受測者2獨立完成整個測試作業之功效。In order to enable those skilled in the art to clearly understand the content of the present invention, the following descriptions are provided together with the drawings for your reference. Please refer to Figures 1 and 3 to 6, which are the method flow chart of the preferred embodiment of the present invention, the application schematic diagram of the subject wearing a portable wearable device, and the test guide watched by the subject during the test Schematic diagram of instructions, schematic diagram of the evoked pattern viewed by the subject during the test, and a schematic diagram of the display of nystagmus analysis results. The method for real-time measurement and analysis of the nystagmus state in the acute stage of vertigo includes the following steps. First, a portable wearable device 1 is provided for the subject 2 to wear on the eyes (step S01 ). Next, the wearable wearable device 1 sends out at least one test navigation instruction A to guide the subject 2 to perform at least one eye vibration test item (step S02 ). The test navigation instruction A issued by the portable wearable device 1 can help the subject 2 know the test method of the nystagmus test item to be performed, so as to allow the subject 2 to independently complete the entire test operation effect.
於受測者2依循該檢測導覽指示A作動後,該可攜式穿戴裝置1獲取至少一眼球運動資訊,其中該眼球運動資訊係包含一波型資料(步驟S03)。受測者2隨著該檢測導覽指示A進行動作後,該可攜式穿戴裝置1即可自動擷取受測者的眼部狀態,並依據眼部運動狀態處理形成具備該波型資料之該眼球運動資訊,以利於後續之分析判斷。After the subject 2 acts according to the detection navigation instruction A, the portable wearable device 1 obtains at least one eye movement information, wherein the eye movement information includes a wave type data (step S03 ). After the subject 2 moves according to the test guide instruction A, the portable wearable device 1 can automatically capture the subject's eye state, and process it according to the eye movement state to form a waveform data. The eye movement information is useful for subsequent analysis and judgment.
接續,該可攜式穿戴裝置1智能判斷該眼球運動資訊而取得一眼振分析結果,其中該眼振分析結果B係包含至少一病症名稱B1與對應該病症名稱之至少一概率值B2(步驟S04),取得該眼球運動資訊後,該可攜式穿戴裝置1係以智能技術針對該眼球運動資訊進行分析判斷,並取得該眼振分析結果B,讓受測者2檢測後即可快速知悉初步判斷結果,而利於後續之看診治療。最後,儲存該眼球運動資訊及該眼振分析結果B(步驟S05),以收集做為臨床醫學資料,並能提供藥物研發與醫學研究寶貴之資訊,同時也能作為醫師後續追蹤與診察之依據。Next, the portable wearable device 1 intelligently judges the eye movement information to obtain a nystagmus analysis result, wherein the nystagmus analysis result B includes at least one disease name B1 and at least one probability value B2 corresponding to the disease name (step S04 ), after obtaining the eye movement information, the portable wearable device 1 uses intelligent technology to analyze and judge the eye movement information, and obtain the eye vibration analysis result B, so that the subject 2 can quickly know the initial Judgment results are beneficial to follow-up consultation and treatment. Finally, store the eye movement information and the nystagmus analysis result B (step S05) to collect as clinical medical data, which can provide valuable information for drug development and medical research, and can also be used as a basis for follow-up follow-up and diagnosis by doctors .
關於該眼球運動資訊之分析判斷,具體實施上,係可於該可攜式穿戴裝置1設定對於眼振(nystagmus)現象波型之定義,例如當該眼振波型中出現三個來回的圖案時,就會被定義為此眼球運動具有眼振現象。而在波型的判斷中,該可攜式穿戴裝置1會先找到折返點,也就是斜率正負不一的那些點當作端點,接著再將例如斜率、波峰值、波谷值等各種規則加入,以濾除其他影響因素,進而判斷折返點之間的波型是否為所需的來回圖案,如此即可確定受測者是否具有眼球震顫之現象。而後,依據各項目的眼振表現,即可分析得知受測者眩暈的可能病因機率,讓眩暈診察之判斷更為迅速。Regarding the analysis and judgment of the eye movement information, in specific implementation, the definition of the nystagmus phenomenon wave pattern can be set in the portable wearable device 1, for example, when three back and forth patterns appear in the nystagmus wave pattern , it is defined as having nystagmus for this eye movement. In the judgment of the wave type, the portable wearable device 1 will first find the turning points, that is, those points with different positive and negative slopes as endpoints, and then add various rules such as slope, peak value, and valley value , to filter out other influencing factors, and then judge whether the wave pattern between the turning points is the required back and forth pattern, so as to determine whether the subject has nystagmus. Then, according to the nystagmus performance of each item, the possible etiology probability of the subject's vertigo can be analyzed, which makes the judgment of vertigo diagnosis more rapid.
眩暈的原因有非常多可能,除了疾病外,各種生理現象也有可能導致眩暈。臨床上統計,因疾病造成的急性眩暈成因相當多種,例如與耳部相關之BPPV、梅尼爾氏症、前庭神經炎、迷路震盪、外淋巴瘻、耳道帶狀皰疹、上半規管裂隙症候群或反覆性前庭病變,亦有見因聽神經瘤、偏頭痛或中耳炎導致的眩暈,或是與中樞器官較相關之腦幹缺血、暫時性腦中風、小腦中風出血、內耳迷路中風或多發生性硬化症等,其中經統計,眩暈患者約有61%來自於耳石症、梅尼爾氏症、前庭神經炎、前庭偏頭痛及中風或腦瘤。耳石症之眼振表現為具側躺時單方向旋轉眼振,梅尼爾氏症為數日內眼振轉換方向,前庭神經炎為24-72小時內單方向水平強烈眼振,前庭偏頭痛則具少眼振的表現,中風或腦瘤則具有垂直性眼振與多方向眼振。基於各疾病的具體眼振表現,該可攜式穿戴裝置1即可在分析該眼球運動資訊後知悉受測者的眼振狀態,而提供對應各疾病的概率值。例如受測者2的眼球運動較顯著為具有單方向旋轉眼振及單方向水平強烈眼振,則就眼振分析而言,此受測者的該眼振分析結果B為耳石症之概率值為60%,為前庭神經炎的概率值為30%,為梅尼爾氏症之概率值為5%,前庭偏頭痛的概率值為3%,為中風或腦瘤之概率值為小於2%。而該眼振分析結果B之顯示,係可設定為僅顯示最高概率值的該疾病名稱B1及該概率值B2,或是設定顯示該概率值B2前幾高或全部的該疾病名稱B1與該概率值B2。There are many possible causes of vertigo. In addition to diseases, various physiological phenomena may also cause vertigo. According to clinical statistics, there are many causes of acute vertigo caused by diseases, such as ear-related BPPV, Meniere's disease, vestibular neuritis, labyrinthine oscillations, perilymphatic fistula, ear canal herpes zoster, and superior semicircular canal slit syndrome Or recurrent vestibular lesions, vertigo caused by acoustic neuroma, migraine or otitis media, or brainstem ischemia related to central organs, temporary cerebral apoplexy, cerebellar hemorrhage, inner ear labyrinth apoplexy or multiple According to statistics, about 61% of vertigo patients come from otolithiasis, Meniere's disease, vestibular neuritis, vestibular migraine, stroke or brain tumor. Ocular vibration in otolithiasis manifests as one-way rotational eye vibration when lying on one's side, Meniere's disease is eye vibration switching direction within a few days, vestibular neuritis is unidirectional horizontal strong eye vibration within 24-72 hours, and vestibular migraine is With less nystagmus, stroke or brain tumor may have vertical nystagmus and multi-directional nystagmus. Based on the specific nystagmus performance of each disease, the portable wearable device 1 can know the nystagmus state of the subject after analyzing the eye movement information, and provide probability values corresponding to each disease. For example, the eye movement of subject 2 is more obvious with unidirectional rotational nystagmus and unidirectional horizontal strong nystagmus, then in terms of nystagmus analysis, the nystagmus analysis result B of this subject is the probability of otolithiasis The value is 60%, the probability of vestibular neuritis is 30%, the probability of Meniere's disease is 5%, the probability of vestibular migraine is 3%, and the probability of stroke or brain tumor is less than 2 %. The display of the nystagmus analysis result B can be set to only display the disease name B1 and the probability value B2 with the highest probability value, or set to display the highest or all of the disease name B1 and the disease name B1 with the highest probability value B2. Probability value B2.
較佳地,該可攜式穿戴裝置1係以投射一虛擬影像之方式,以顯示該檢測導覽指示A或/及對應該眼振測試項目之誘發圖式C,於受測者2依據該檢測導覽指示A作動時,該可攜式穿戴裝置1係拍攝受測者2之眼球運動影像,並經解析處理形成該眼球運動資訊,而使該可攜式穿戴裝置1為具備影像擷取與影像投射雙重功效之組件。當受測者2配戴該可攜式穿戴裝置1後,該可攜式穿戴裝置1即投射該虛擬影像,使受測者2依據該虛擬影像進行操作,以及依據各誘發圖式C進行眼球運動,以利該可攜式穿戴裝置1擷取眼球運動軌跡而生成該眼球運動資訊。更具體地說,該虛擬影像可為全景式虛擬影像或為局部式虛擬影像,該可攜式穿戴裝置1投射之該虛擬影像為全景式時,受測者2所觀看到的全景環境皆會是虛擬畫面而不會看到現實環境狀態,當該可攜式穿戴裝置1投射之該虛擬影像為局部式時,受測者2觀看到的全景環境會是虛擬影像結合現實場景之狀態,並受測者2係可與該虛擬影像進行互動控制,此部分之實施可透過於該可攜式穿戴裝置1設置如重力加速度感應器、陀螺儀等元件以偵測受測者2之肢體運動而實現。各類眼振測試項目則是為偵測眼球在不同狀況下的運動狀態,例如追視項目,就須導引受測者2以眼追逐平滑移動的目標。受測者2依據指示追逐觀看平移滑動目標,此時該可攜式穿戴裝置1拍攝受測者2的眼球運動影像,並經處理解析後,形成對應其眼球運動狀態之波形圖。更進一步地,該眼振分析結果B亦可透過該可攜式穿戴裝置1以該虛擬影像方式顯示予受測者,讓受測者2即時地知悉其眩暈的可能成因,如此對受測者2而言,可達到使其安心並消除等待報告的焦慮感。Preferably, the portable wearable device 1 projects a virtual image to display the detection navigation instruction A or/and the evoked pattern C corresponding to the nystagmus test item, and the subject 2 according to the When detecting the action of the navigation instruction A, the portable wearable device 1 takes the eye movement image of the subject 2, and forms the eye movement information through analysis and processing, so that the portable wearable device 1 is capable of image capture A component with dual functions of image projection. When the subject 2 wears the portable wearable device 1, the portable wearable device 1 projects the virtual image, so that the subject 2 can operate according to the virtual image, and perform eye movements according to the induced patterns C. movement, so that the portable wearable device 1 captures eye movement trajectories to generate the eye movement information. More specifically, the virtual image can be a panoramic virtual image or a partial virtual image. When the virtual image projected by the portable wearable device 1 is panoramic, the panoramic environment viewed by the subject 2 will be It is a virtual picture and does not see the real environment state. When the virtual image projected by the portable wearable device 1 is partial, the panoramic environment viewed by the subject 2 will be the state of the virtual image combined with the real scene, and The subject 2 can interact and control the virtual image. The implementation of this part can be achieved by setting components such as gravity acceleration sensors and gyroscopes on the portable wearable device 1 to detect the body movements of the subject 2. accomplish. Various nystagmus test items are used to detect the movement state of the eyeball under different conditions. For example, in the pursuit item, it is necessary to guide the subject 2 to chase a smooth moving target with his eyes. The subject 2 chases and watches the translational sliding target according to the instructions. At this time, the portable wearable device 1 captures the eye movement images of the subject 2, and after processing and analysis, a waveform diagram corresponding to the state of his eye movements is formed. Furthermore, the nystagmus analysis result B can also be displayed to the subject in the form of the virtual image through the portable wearable device 1, so that the subject 2 can know the possible cause of his vertigo in real time, so that the subject can 2, it can achieve reassurance and eliminate the anxiety of waiting for the report.
於一較佳實施態樣中,該眼振分析結果B係經由一AI演算模型所判讀分析取得,且該AI演算模型為接收複數眼振暨病因關聯資訊後,以神經網路為學習訓練所形成。為依據獲取之該眼球運動資訊分析與判斷其是否具有眼振現象以及其眼振現象係屬何種病因之具體表徵,該可攜式穿戴裝置1具體上係可據臨床資料庫之資訊如具眼振表現之波型資料、眼振運動影像等,而與該眼球運動資訊進行比對與分析,進而取得該眼振分析結果B,其中臨床資料庫係可建置於該可攜式穿戴裝置1上,或是使臨床資料庫建置於遠端伺服器,再使該可攜式穿戴裝置1與其遠端連線亦可。為了更提升該可攜式穿戴裝置1之智能判斷正確率與精確度,該可攜式穿戴裝置1係可結合人工智慧技術輔以自動學習之方式予以實施。該AI演算模型係可依據輸入的該等眼振暨病因關聯資訊,而以神經網路實施機器學習或更進一步之深度學習,進而達到收斂功效,以精進智能判斷的精準度與正確率。而該等眼振暨病因關聯資訊係可來自前述之臨床資料庫,或為既有臨床資料結合該可攜式穿戴裝置1各次之智能判斷分析結果,以使該AI演算模型自動化地進行學習收斂。其中AI學習技術係已行之多年而屬通常知識,故於此即不再贅述。In a preferred implementation, the nystagmus analysis result B is obtained through interpretation and analysis of an AI calculation model, and the AI calculation model is based on neural network after receiving complex nystagmus and etiology-related information. form. In order to analyze and judge whether it has nystagmus phenomenon and what kind of etiology the nystagmus phenomenon is based on the obtained eye movement information, the portable wearable device 1 can be specifically based on the information in the clinical database. The wave type data of nystagmus performance, nystagmus movement images, etc. are compared and analyzed with the eye movement information, and then the nystagmus analysis result B is obtained. The clinical database can be built on the portable wearable device 1, or build the clinical database on a remote server, and then connect the portable wearable device 1 to the remote end. In order to improve the accuracy and accuracy of the intelligent judgment of the portable wearable device 1, the portable wearable device 1 can be implemented by combining artificial intelligence technology with automatic learning. The AI calculation model can implement machine learning or further in-depth learning with the neural network based on the input information related to the nystagmus and etiology, so as to achieve convergence and improve the accuracy and accuracy of intelligent judgment. The nystagmus and etiology-related information can come from the aforementioned clinical database, or combine the existing clinical data with the intelligent judgment and analysis results of each time of the portable wearable device 1, so that the AI calculation model can automatically learn convergence. Among them, AI learning technology has been practiced for many years and is common knowledge, so it will not be repeated here.
較佳地,該可攜式穿戴裝置1執行之眼振測試項目為凝視、跳視、追視、動態眼振慢速相、動態眼振快速相及冷水溫差試驗其中之一或其結合者。基於前述各誘發測試,係可囊括常見之眩暈病因可能導致的眼振現象,而有利於即時判別眩暈成因。例如前庭性眼振即為來自前庭障礙時,前庭功能失衡而引起前庭眼反射的異常,所產生雙眼共軛性的眼球反覆運動。前庭性眼振有明顯的波型特徵,且其表現的強度與方向可給予臨床醫師診斷病因時很大的幫助。前庭性眼振又具有慢速相及快速相兩個成分,分別來自於前庭眼反射以及視覺跳視的補償運動。而與前庭障礙較無關的先天性眼振,其波型特徵與前庭性眼振不同,因此透過該可攜式穿戴裝置1之眼振測試項目,即可有效地明顯區分兩者。Preferably, the nystagmus test performed by the portable wearable device 1 is one or a combination of gaze, saccade, pursuit, dynamic nystagmus slow phase, dynamic nystagmus fast phase, and cold water temperature difference test. Based on the above-mentioned induction tests, it can include the nystagmus phenomenon that may be caused by common causes of vertigo, and it is beneficial to immediately identify the cause of vertigo. For example, vestibular nystagmus is from the vestibular disorder, the imbalance of vestibular function causes the abnormal vestibulo-ocular reflex, resulting in repeated eyeball movement of binocular conjugate. Vestibular nystagmus has obvious wave pattern characteristics, and the intensity and direction of its performance can be of great help to clinicians in diagnosing the cause. Vestibular nystagmus has two components, the slow phase and the fast phase, which come from the vestibulo-ocular reflex and the compensatory movement of visual saccades, respectively. Congenital nystagmus, which is relatively unrelated to vestibular disorders, has different wave pattern characteristics from vestibular nystagmus. Therefore, through the nystagmus test items of the portable wearable device 1 , the two can be effectively and clearly distinguished.
進一步地,該眼球運動資訊及該眼振分析結果B被儲存後,係再傳輸至一遠端平台,以結合至少一問診紀錄進行二次病因判斷。誠如前述,造成眩暈的可能性非常多,甚至有部分眩暈的原因不是因為疾病,而是例如血壓、疲勞或體位變換等原因所導致,由於本發明可針對急性眩暈發作時的眼振進行即時檢測與紀錄,因此測試完畢之紀錄係可供再結合其餘問診或檢查結果進行二次綜合判斷,以利找出受測者的真正病因,降低延誤治療與誤診的情況發生。例如,偏頭痛導致之眩暈,除了眼振現象外,亦常伴隨著頭痛、視覺上的閃光、畏光等現象,前庭神經炎常見伴隨向病側跌倒之神經學症狀,梅尼爾氏症則可能一併有耳脹、耳痛等聽覺症狀發生,此時受測者2經由醫師問診而記錄其主訴症狀形成該問診紀錄後,醫師可由該遠端平台調閱對應之該眼球運動資訊及該眼振分析結果B做為一併判斷之要件,以確定受測者2之眩暈病因,並於後續給予適當的治療。或者,亦可再透過智能判斷技術,將該問診紀錄結合該眼球運動資訊及該眼振分析結果B,依據臨床資料庫之內容進行智能判斷,同樣地,其判斷結果亦可以病因與其對應之概率值予以呈現。具體判斷方式之一較佳態樣可為使臨床資料庫所儲存之資訊為各病因及其對應之眼振現象、臨床特色與神經學和聽覺症狀等項目,該遠端平台即可依據該問診紀錄、該眼球運動資訊及該眼振分析結果B進行再次判斷,將該些資料與臨床資料庫的資訊進行比對,進而獲取各病因之概率。其中,該眼球運動資訊及該眼振分析結果B係可直接儲存於該可攜式穿戴裝置1上,爾後再依據需求傳輸至其他資料庫或如前述傳輸至該遠端平台,當然也可以於該可攜式穿戴裝置1分析取得該眼振分析結果後即將其傳輸至外部資料庫予以儲存。Furthermore, after the eyeball movement information and the nystagmus analysis result B are stored, they are transmitted to a remote platform for secondary etiological judgment in combination with at least one medical inquiry record. As mentioned above, there are many possibilities of causing vertigo, and even some of the causes of vertigo are not due to diseases, but are caused by reasons such as blood pressure, fatigue or body position changes. Since the present invention can be used for real-time diagnosis and treatment of nystagmus during acute vertigo attacks, Test and record, so the record after the test can be combined with the rest of the consultation or examination results for a second comprehensive judgment, so as to find out the real cause of the test subject and reduce the occurrence of delayed treatment and misdiagnosis. For example, vertigo caused by migraine is often accompanied by headache, visual flashes, and photophobia in addition to nystagmus. Vestibular neuritis is often accompanied by neurological symptoms of falling to the affected side. Meniere's disease There may be auditory symptoms such as ear swelling and ear pain. At this time, subject 2 records his main complaint symptoms through the doctor's consultation and forms the consultation record. The doctor can access the corresponding eye movement information and the corresponding information from the remote platform. The nystagmus analysis result B is used as an element of judgment to determine the cause of subject 2's vertigo and to give appropriate treatment in the follow-up. Or, through the intelligent judgment technology, the interrogation record can be combined with the eye movement information and the nystagmus analysis result B to make an intelligent judgment based on the content of the clinical database. Similarly, the judgment result can also be based on the etiology and its corresponding probability value is presented. One of the better forms of the specific judgment method can be to make the information stored in the clinical database include each cause and its corresponding nystagmus phenomenon, clinical characteristics, neurological and auditory symptoms, etc., and the remote platform can make a diagnosis based on the inquiry The record, the eye movement information and the nystagmus analysis result B are judged again, and these data are compared with the information in the clinical database to obtain the probability of each cause. Wherein, the eye movement information and the nystagmus analysis result B can be directly stored on the portable wearable device 1, and then transmitted to other databases according to requirements or transmitted to the remote platform as mentioned above. After analyzing and obtaining the nystagmus analysis result, the portable wearable device 1 transmits it to an external database for storage.
具體應用上,請參閱第3至6圖,受測者2配戴該可攜式穿戴裝置1後,該可攜式穿戴裝置1係發出該檢測導覽指示A,告知受測者欲進行的項目以及說明,受測者2以手點選該虛擬影像後,即可進行眼部檢測,如第4圖所示。第5圖則是表示受測者2進行追視之該眼振測試項目時之畫面,該可攜式穿戴裝置1會投射出平滑移動之亮點,並讓受測者2以眼追逐,此時該可攜式穿戴裝置1即拍攝受測者2的眼球運動影像,解析處理形成對應之該波型資料。當各該眼振測試項目皆執行完畢後,該可攜式穿戴裝置1將取得的各該眼球運動資訊進行分析判斷,以依據受測者2的眼球運動狀態,判斷造成其眩暈的病因可能為何。例如第6圖所示,即為該眼振分析結果B之一較佳表現,依據受測者2的眼球運動狀態,判斷其可能為耳石症之概率值為60%,前庭神經炎的概率值為30%,梅尼爾氏症之概率值為5%,於此係以該眼振分析結果B透過該可攜式穿戴裝置1以該虛擬影像之投射方式顯示為例,以便於讓受測者2一併知悉。For specific applications, please refer to Figures 3 to 6. After the subject 2 wears the portable wearable device 1, the portable wearable device 1 sends out the test guide instruction A to inform the subject of the desired test. Items and descriptions, after the subject 2 clicks on the virtual image with his hand, the eye detection can be performed, as shown in Figure 4. Fig. 5 shows the screen of the nystagmus test item when the subject 2 is chasing after. The portable wearable device 1 will project a smooth moving bright spot, and let the subject 2 chase it with the eyes. At this time The portable wearable device 1 captures the eye movement images of the subject 2, analyzes and processes them to form the corresponding waveform data. After all the nystagmus test items are completed, the portable wearable device 1 will analyze and judge the eye movement information obtained, so as to determine the possible cause of the dizziness based on the eye movement state of the subject 2 . For example, as shown in Figure 6, it is one of the better performances of the nystagmus analysis result B. According to the eye movement state of subject 2, it is judged that the probability of otolithiasis is 60%, and the probability of vestibular neuritis is 60%. The value is 30%, and the probability value of Meniere's disease is 5%. Here, the nystagmus analysis result B is displayed as an example in the form of projection of the virtual image through the portable wearable device 1, so that the recipient can easily Tester 2 was also informed.
請再一併參閱第2圖,其係為本發明較佳實施例之可攜式穿戴裝置方塊模組示意圖,並請復搭配參閱第3至6圖。本發明亦提出一種可於眩暈急性期即時檢測分析眼球運動狀態之可攜式穿戴裝置1,包含一可攜式穿戴主體10、一處理器11、一導覽指示模組12、一眼球運動擷取模組13、一智能判斷模組14及一記錄模組15。該可攜式穿戴主體10供受測者2配戴於眼部,該處理器11設於該可攜式穿戴主體10,該導覽指示模組12設於該可攜式穿戴主體10且與該處理器11電訊連接,該導覽指示模組12供以發出至少一檢測導覽指示A,以導引受測者2進行至少一眼振測試項目之作業。Please also refer to FIG. 2, which is a schematic diagram of a block module of a portable wearable device according to a preferred embodiment of the present invention, and please refer to FIGS. 3 to 6 together. The present invention also proposes a portable wearable device 1 that can detect and analyze the state of eye movement in real time during the acute stage of vertigo, including a portable
該眼球運動擷取模組13設於該可攜式穿戴主體10且與該處理器11電訊連接,該眼球運動擷取模組13供以擷取受測者2依循該檢測導覽指示A作動後之眼球運動狀態,並傳輸至該處理器11形成至少一眼球運動資訊,其中該眼球運動資訊至少包含一波型資料。該智能判斷模組14設於該可攜式穿戴主體10且與該處理器11電訊連接,該智能判斷模組14供以判斷該眼球運動資訊而形成該眼振分析結果B,其中該眼振分析結果B包含至少一病症名稱B1與對應該病症名稱B1之至少一概率值B2。該記錄模組15與該處理器11及該智能判斷模組14電訊連接,供以儲存該眼球運動資訊及該眼振分析結果B。The eye
該可攜式穿戴裝置1係可做為醫療院所針對眩暈病患之即時檢測裝置,誠如前述,眩暈急性期之眼振狀態收集係為判斷眩暈成因之一相當重要的資訊,而該可攜式穿戴裝置1之檢測使用相當便利且快速,免除受測者2須等待並移動至大型機台,再經歷長時間檢測流程之不便,同時更可避免錯過眼振檢查之黃金時間,防止眼振因應中樞代償現象消失而無法檢測。The portable wearable device 1 can be used as a real-time detection device for vertigo patients in medical institutions. As mentioned above, the collection of eye vibration state in the acute stage of vertigo is a very important information for judging the cause of vertigo. The detection and use of the portable wearable device 1 is very convenient and fast, which saves the subject 2 from having to wait and move to a large machine, and then go through the inconvenience of a long detection process. Vibrations cannot be detected due to the disappearance of central compensatory phenomena.
具體應用上,係如前各段落所述內容,受測者2配戴該可攜式穿戴主體10於眼部後,依據該導覽指示模組12發出之該檢測導覽指示A做對應之動作,該眼球運動擷取模組13即會擷取受測者2的眼球運動狀態而傳輸至該處理器11,經解析處理形成該眼球運動資訊,而後該智能判斷模組14即可判斷該眼球運動資訊而形成該眼振分析結果B。如此,除可大幅縮減眼振檢測流程時間,並可具備全自動而不需額外人力與完整記錄眩暈當下狀態之優點。In the specific application, as described in the previous paragraphs, the subject 2 wears the portable
同樣地,一較佳實施態樣中,該導覽指示模組12係投射一虛擬影像以顯示該檢測導覽指示A或/及對應該眼振測試項目之誘發圖式C,於受測者2依據該檢測導覽指示A作動時,該眼球運動擷取模組13係以拍攝受測者2之眼球運動影像並傳送至該處理器11,以解析形成該波型資料供該智能判斷模組14進行判斷。具體之細部技術特徵與功效,請參閱前述對應段落內容,於此即不再贅述。Similarly, in a preferred implementation mode, the
此外,為依據獲取之該眼球運動資訊分析與判斷其是否具有眼振現象以及其眼振現象係屬何種病因之具體表徵,該可攜式穿戴裝置1具體上係可與一臨床資料庫4相互電訊連接,以使該智能判斷模組14藉由該臨床資料庫4之資訊如具眼振表現之波型資料、眼振運動影像等,而與該眼球運動資訊進行比對與分析,進而取得該眼振分析結果B。更佳地,該智能判斷模組14係具有一AI演算模型141,供以判讀分析該眼球運動資訊取得該眼振分析結果B,且該AI演算模型141為接收複數眼振暨病因關聯資訊後,以神經網路為學習訓練所形成。為提升眩暈判斷之正確率與精確性等,該可攜式穿戴裝置1係可應用人工智慧技術予以自動判別,並透過機器學習或深度學習方式,自行訓練而達逐漸收斂目的,其具體之細部技術特徵與功效,請參閱前述對應段落內容,於此即不再贅述。In addition, in order to analyze and judge whether it has nystagmus phenomenon and what kind of etiology the nystagmus phenomenon is based on the obtained eye movement information, the portable wearable device 1 can be specifically connected with a clinical database 4 Connect with each other by telecommunication, so that the
為利於快速判別受測者2之眩暈成因,該可攜式穿戴裝置1可執行之該眼振測試項目係為凝視、跳視、追視、動態眼振慢速相、動態眼振快速相及冷水溫差試驗其中之一或其結合者,以利快速判斷知悉造成原因。進一步地,該記錄模組15係設於該可攜式穿戴主體10,且當該記錄模組15儲存該眼球運動資訊及該眼振分析結果後,係將該眼球運動資訊及該眼振分析結果B傳輸至一遠端平台4,以結合至少一問診紀錄進行二次病因判斷。具體之細部技術特徵與功效,請參閱前述對應段落內容,於此即不再贅述。In order to quickly identify the cause of vertigo of the subject 2, the nystagmus test items that the portable wearable device 1 can perform are gaze, saccade, pursuit, dynamic nystagmus slow phase, dynamic nystagmus fast phase and One of them or its combination in the cold water temperature difference test, so as to quickly judge and know the cause. Further, the
綜上所述,本發明之可於眩暈急性期即時檢測分析眼球運動狀態之方法及可攜式穿戴裝置,係具備簡易的測試流程與測試裝置,可減少接近百分之70的檢查時間,且全自動無須額外人力,同時在眩暈當下可完整地記錄眼球運動狀態,以免錯失眩暈病因正確診斷的黃金期。透過該方法與該可攜式穿戴裝置,眩暈檢測不再需要仰賴占空間且不利使用的大型機台,同時也無須配置人員引導受測者,大幅簡化測試流程與所需時間,亦藉由智能診斷即可快速知悉此眩暈現象之成因可能性,消除等待報告判讀之時間,以盡可能地盡早得知檢測結果,對於受測者而言亦可使其具有更好的診療感受。導致眩暈的可能因素相當多,除了常見的中樞與前庭疾病,患者的其餘生理狀態亦有可能是產生眩暈的原因,惟眼振仍是一個最主要且重要的眩暈病因檢測要件,眼振表現係相當有效地輔助醫師進行正確診斷。而眼振需在眩暈發生之急性期就進行檢測之緣由已於前述,但目前的醫療院所中仍欠缺能便利且快速、即時應用之檢測裝置與流程,患者皆須耗費時間等待使用大型機械,透過冗長且繁瑣的檢測過程,才能取得眼球運動檢測結果,或是等待醫師直接以目觀之進行判斷。現有的該些方式,基本上都會錯過眼振檢測之黃金期,往往輪到受測者進行檢查時,眼振現象已因應中樞代償而消失,讓醫師於診斷上失去寶貴的資訊。有鑑於此,本發明人係提出如本發明所述之方法與可攜式穿戴裝置,以輔助醫療院所能最即時地對患者進行檢查,並結合智能判斷以求快速取得檢查結果。而受測者之眼球運動資訊與眼振分析結果,都可被完整地保留,以利作為後續臨床醫學資料,或是提供醫師長期追蹤與看診判斷輔助等,同時也有利於醫師進一步結合患者的其他問診內容進行全方位的病因判斷。是以,本發明在眩暈診察領域中,提出了可快速偵測並知悉患者眼振狀態之技術,以利留下對於眩暈病因判斷十分重要之檢查資訊,同時以自動化導覽方式減少醫護人員之配置,甚至達到讓受測者獨立完成檢查之功效,著實可更增進急性眩暈之判斷準確性與快速性。To sum up, the method and portable wearable device for real-time detection and analysis of eye movement state in the acute stage of vertigo according to the present invention have a simple test process and test device, which can reduce the inspection time by nearly 70%, and It is fully automatic and does not require additional manpower. At the same time, it can completely record the eye movement state at the moment of vertigo, so as not to miss the golden period of correct diagnosis of the cause of vertigo. Through this method and the portable wearable device, vertigo detection no longer needs to rely on a large machine that takes up space and is unfavorable to use, and also does not need to deploy personnel to guide the subjects, which greatly simplifies the test process and time required. Diagnosis can quickly know the possibility of the cause of the vertigo phenomenon, eliminate the time of waiting for the report interpretation, so as to know the test results as early as possible, and it can also make the subjects have a better diagnosis and treatment experience. There are quite a lot of possible factors that cause vertigo. In addition to the common central and vestibular diseases, other physiological states of the patient may also be the cause of vertigo. Quite effective in assisting physicians to make a correct diagnosis. The reason why nystagmus needs to be detected in the acute stage of vertigo has been mentioned above, but the current medical institutions still lack convenient, fast, and real-time detection devices and procedures, and patients have to spend time waiting for the use of large machines. , Only through a lengthy and cumbersome detection process can the eye movement detection result be obtained, or wait for the doctor to directly judge it visually. These existing methods will basically miss the golden period of nystagmus detection, and often when it is the turn of the subject to be checked, the nystagmus phenomenon has disappeared due to central compensation, causing doctors to lose valuable information in diagnosis. In view of this, the inventor proposes the method and the portable wearable device as described in the present invention to assist medical institutions to conduct examinations on patients in the most timely manner, and combine intelligent judgment to obtain examination results quickly. The eye movement information and nystagmus analysis results of the subject can be completely preserved, so as to be used as follow-up clinical medical data, or to provide doctors with long-term follow-up and diagnosis assistance, etc., and it is also beneficial for doctors to further integrate with patients A full range of etiological judgments should be made based on the other contents of the consultation. Therefore, in the field of vertigo diagnosis, the present invention proposes a technology that can quickly detect and know the patient's nystagmus state, so as to leave the inspection information that is very important for judging the etiology of vertigo, and at the same time reduce the workload of medical staff by means of automated navigation. The configuration even achieves the effect of allowing the subject to complete the inspection independently, which can really improve the accuracy and speed of judging acute vertigo.
惟,以上所述者,僅為本發明之較佳實施例而已,並非用以限定本發明實施之範圍;故在不脫離本發明之範圍下所作之均等變化與修飾,皆應涵蓋於本發明之專利範圍內。However, the above-mentioned ones are only preferred embodiments of the present invention, and are not used to limit the scope of the present invention; therefore, equivalent changes and modifications made without departing from the scope of the present invention should be covered by the present invention within the scope of the patent.
1:可攜式穿戴裝置 10:可攜式穿戴主體 11:處理器 12:導覽指示模組 13:眼球運動擷取模組 14:智能判斷模組 141:AI演算模型 15:記錄模組 2:受測者 3:遠端平台 4:臨床資料庫 A:檢測導覽指示 B:眼振分析結果 B1:疾病名稱 B2:概率值 C:誘發圖式 S01~S05:步驟 1: Portable wearable device 10: Portable wearable body 11: Processor 12: Navigation instruction module 13: Eye movement capture module 14: Intelligent judgment module 141:AI Calculus Model 15: Recording module 2: Subject 3: Remote platform 4: Clinical database A: Check the navigation instructions B: nystagmus analysis results B1: Disease name B2: Probability value C: evoked schema S01~S05: Steps
第1圖,為本發明較佳實施例之方法流程步驟圖。 第2圖,為本發明較佳實施例之可攜式穿戴裝置方塊模組示意圖。 第3圖,為本發明較佳實施例之受測者配戴可攜式穿戴裝置之應用示意圖。 第4圖,為本發明較佳實施例之受測者進行測試時觀看之檢測導覽指示示意圖。 第5圖,為本發明較佳實施例之受測者進行測試時觀看之誘發圖式示意圖。 第6圖,為本發明較佳實施例之眼振分析結果顯示示意圖。 Fig. 1 is a flow chart of the method flow of a preferred embodiment of the present invention. Fig. 2 is a schematic diagram of a block module of a portable wearable device according to a preferred embodiment of the present invention. Fig. 3 is a schematic diagram of the application of a subject wearing a portable wearable device according to a preferred embodiment of the present invention. Fig. 4 is a schematic diagram of the test guide instructions viewed by the test subject when performing the test in a preferred embodiment of the present invention. Fig. 5 is a schematic diagram of the evoked pattern viewed by the subject during the test in a preferred embodiment of the present invention. Fig. 6 is a schematic diagram showing the results of eye vibration analysis in a preferred embodiment of the present invention.
S01~S05:步驟 S01~S05: Steps
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