#Vitalstream_Caretaker_Medical #vitalstream_caretaker_メディカルテクニカ #メディカルテクニカ_VitalStream_術後ケア_20種類血行動態 #メディカルテクニカ_Labtech_Holter_VectorECG_突然死予診

#元気カプセル紹介 #vitalstream_caretaker_メディカルテクニカ #vitalstream_caretaker_メディカルテクニカ #メディカルテクニカ_VitalStream_術後ケア_20種類血行動態 #メディカルテクニカ_Labtech_Holter_VectorECG_突然死予診

#ワイヤレス #１２誘導負荷心電計 #vitalstream_caretaker_メディカルテクニカ #メディカルテクニカ_VitalStream_術後ケア_20種類血行動態 #メディカルテクニカ_Labtech_Holter_VectorECG_突然死予診

#超音波画像のパソコン画面に心電図などを切り替えて同時表示 #メディカルテクニカ

#vitalstream_caretaker_メディカルテクニカ　#メディカルテクニカ_VitalStream_術後ケア_20種類血行動態 #メディカルテクニカ_Labtech_Holter_VectorECG_突然死予診

#自律神経解析ソフト #vitalstream_caretaker_メディカルテクニカ #vitalstream_caretaker_メディカルテクニカ #メディカルテクニカ_VitalStream_術後ケア_20種類血行動態 #メディカルテクニカ_Labtech_Holter_VectorECG_突然死予診

#Mobile_Cloud_Cardiology_12leadsECG\transmission_STEMI_Emergency #急性心筋梗塞発症を救いたい

#Caretaker Medical--- #メディカルテクニカ #vitalstream_caretaker_メディカルテクニカ #メディカルテクニカ_VitalStream_術後ケア_20種類血行動態 #メディカルテクニカ_Labtech_Holter_VectorECG_突然死予診

#Caretaker LVET by Tablet 19Jan22 #vitalstream_caretaker_メディカルテクニカ

#vitalstream_caretaker_メディカルテクニカ　#メディカルテクニカ_VitalStream_術後ケア_20種類血行動態 #メディカルテクニカ_Labtech_Holter_VectorECG_突然死予診

#Vitalstream検査例 #vitalstream_caretaker_メディカルテクニカ #メディカルテクニカ_VitalStream_術後ケア_20種類血行動態 #メディカルテクニカ_Labtech_Holter_VectorECG_突然死予診

d応対

#Nanotechnology: A New Frontier #VitalStream #Labtech #ShimmerSensing #Arteriograph #pedcath8

#vitalstream_caretaker_メディカルテクニカ　#メディカルテクニカ_VitalStream_術後ケア_20種類血行動態 #メディカルテクニカ_Labtech_Holter_VectorECG_突然死予診

#Nanofibers – electrospinning technique #VitalStream #Labtech #ShimmerSensing #Arteriograph #pedcath8

#vitalstream_caretaker_メディカルテクニカ　#メディカルテクニカ_VitalStream_術後ケア_20種類血行動態 #メディカルテクニカ_Labtech_Holter_VectorECG_突然死予診

#Nanocellulose: It's a Wrap! | Vegar Ottesen | TEDxTrondheim #VitalStream #Labtech #ShimmerSensing #Arteriograph #pedcath8

#Labtech_12leadsECG_Holter #ラブテック社12誘導心電図ホルタの高精度解析一覧表 #Caretaker_Medical_VitalStream_メディカルテクニカ #Labtech_Holter_VectorECG_SuddenDeath_メディカルテクニカ #少子化対策_先天性心疾患ソフト_Pedcath8_メディカルテクニカ

#ロボットはAIの次なる主戦場か 世界最高峰のロボット国際会議「ICRA」【橋本幸治の理系通信】#VitalStream #Labtech #ShimmerSensing #Arteriograph #pedcath8

#vitalstream_caretaker_メディカルテクニカ　#メディカルテクニカ_VitalStream_術後ケア_20種類血行動態 #メディカルテクニカ_Labtech_Holter_VectorECG_突然死予診

#AMD - Technology changes the world #VitalStream_連続心拍出量_連続血流速_連続ストロークボリューム _連続動脈硬化指標など血行動態20種類 #メディカルテクニカ #VectorECG_Labtech_Holter #Pedcath8_Mennen_medical #wavelet_PwaveAutoDetectHolter_HeartVest_MyoVista

#VitalStream_連続心拍出量_連続血流速_連続ストロークボリューム _連続動脈硬化指標など血行動態20種類 #メディカルテクニカ #VectorECG_Labtech_Holter #Pedcath8_Mennen_medical #wavelet_PwaveAutoDetectHolter_HeartVest_MyoVista #VitalStreamtype1_type2_type3　#vitalstream_caretaker_メディカルテクニカ　#メディカルテクニカ_VitalStream_術後ケア_20種類血行動態 #メディカルテクニカ_Labtech_Holter_VectorECG_突然死予診

#ケアテイカとケアテイカメディカル Dec2018 #Labtech_Holter #Arteriograph #Shimmer_Sensing #Cardionics_Stethoscope #Pedcath8_Mennen_Medical #wavelet\algorithm #Heart_Vest_gTec #Vitalstream #Caretaker_type4 #連続心拍出量 #連続ストロークボリューム #メディカルテクニカ #VitalStreamtype1 #VitalStreamtype2 #VitaStreamtyp3 #MyoVista_wavelet_Heart

#Labtech_Holter #Arteriograph #Shimmer_Sensing #Cardionics_Stethoscope #Pedcath8_Mennen_Medical #wavelet\algorithm #Heart_Vest_gTec #Vitalstream #Caretaker_type4 #連続心拍出量　#連続ストロークボリューム　#メディカルテクニカ #VitalStreamtype1 #VitalStreamtype2 #VitaStreamtyp3 #MyoVista_wavelet_Heart　#vitalstream_caretaker_メディカルテクニカ　#メディカルテクニカ_VitalStream_術後ケア_20種類血行動態 #メディカルテクニカ_Labtech_Holter_VectorECG_突然死予診

#メディカルテクニカ自己紹介 #Labtech_Atrial_Fibrillation_Autodetect_wavelet_ECG_Holter

#Labtech_Holter #Arteriograph #Shimmer_Sensing #Cardionics_Stethoscope #Pedcath8_Mennen_Medical #wavelet\algorithm #Heart_Vest_gTec #Vitalstream #Caretaker_type4 #連続心拍出量　#連続ストロークボリューム　#メディカルテクニカ #VitalStreamtype1 #VitalStreamtype2 #VitaStreamtyp3 #MyoVista_wavelet_Heart #Labtech_12leadsECG_Holter #ラブテック社12誘導心電図ホルタの高精度解析一覧表 #Caretaker_Medical_VitalStream_メディカルテクニカ #Labtech_Holter_VectorECG_SuddenDeath_メディカルテクニカ #少子化対策_先天性心疾患ソフト_Pedcath8_メディカルテクニカ

#超音波画像のパソコン画面に #心電図などを切り替えて #同時表示メディカルテクニカ #Labtech_Holter #Arteriograph #Shimmer_Sensing #Cardionics_Stethoscope #Pedcath8_Mennen_Medical #wavelet\algorithm #Heart_Vest_gTec #Vitalstream #Caretaker_type4 #連続心拍出量 #連続ストロークボリューム #メディカルテクニカ #VitalStreamtype1 #VitalStreamtype2 #VitaStreamtyp3 #MyoVista_wavelet_Heart

#Labtech_Holter #Arteriograph #Shimmer_Sensing #Cardionics_Stethoscope #Pedcath8_Mennen_Medical #wavelet\algorithm #Heart_Vest_gTec #Vitalstream #Caretaker_type4 #連続心拍出量　#連続ストロークボリューム　#メディカルテクニカ #VitalStreamtype1 #VitalStreamtype2 #VitaStreamtyp3 #MyoVista_wavelet_Heart #Labtech_12leadsECG_Holter #ラブテック社12誘導心電図ホルタの高精度解析一覧表 #Caretaker_Medical_VitalStream_メディカルテクニカ #Labtech_Holter_VectorECG_SuddenDeath_メディカルテクニカ #少子化対策_先天性心疾患ソフト_Pedcath8_メディカルテクニカ

#元気カプセル紹介 #vitalstream_caretaker_メディカルテクニカ #Labtech_Holter #Arteriograph #Shimmer_Sensing #Cardionics_Stethoscope #Pedcath8_Mennen_Medical #wavelet\algorithm #Heart_Vest_gTec #Vitalstream #Caretaker_type4 #連続心拍出量 #連続ストロークボリューム #メディカルテクニカ #VitalStreamtype1 #VitalStreamtype2 #VitaStreamtyp3 #MyoVista_wavelet_Heart

#Labtech_Holter #Arteriograph #Shimmer_Sensing #Cardionics_Stethoscope #Pedcath8_Mennen_Medical #wavelet\algorithm #Heart_Vest_gTec #Vitalstream #Caretaker_type4 #連続心拍出量　#連続ストロークボリューム　#メディカルテクニカ #VitalStreamtype1 #VitalStreamtype2 #VitaStreamtyp3 #MyoVista_wavelet_Heart

#ケアテイカ _タイプ４ #caretaker type４ #FDA 認可（2017年、2020年、2022年）#Labtech_Holter #Arteriograph #Shimmer_Sensing #Cardionics_Stethoscope #Pedcath8_Mennen_Medical #wavelet\algorithm #Heart_Vest_gTec #Vitalstream #Caretaker_type4 #連続心拍出量 #連続ストロークボリューム #メディカルテクニカ #VitalStreamtype1 #VitalStreamtype2 #VitaStreamtyp3 #MyoVista_wavelet_Heart

#Labtech_Holter #Arteriograph #Shimmer_Sensing #Cardionics_Stethoscope #Pedcath8_Mennen_Medical #wavelet\algorithm #Heart_Vest_gTec #Vitalstream #Caretaker_type4 #連続心拍出量　#連続ストロークボリューム　#メディカルテクニカ #VitalStreamtype1 #VitalStreamtype2 #VitaStreamtyp3 #MyoVista_wavelet_Heart

#Caretaker_type4 #メディカルテクニカ #連続非観血式 #ストロークボリューム #動脈硬化指標 研究用

#Labtech_Holter #Arteriograph #Shimmer_Sensing #Cardionics_Stethoscope #Pedcath8_Mennen_Medical #wavelet\algorithm #Heart_Vest_gTec #Vitalstream #Caretaker_type4 #連続心拍出量　#連続ストロークボリューム　#メディカルテクニカ #VitalStreamtype1 #VitalStreamtype2 #VitaStreamtyp3 #MyoVista_wavelet_Heart

#Vitalstream #Caretaker_type4 #連続心拍出量 #連続ストロークボリューム 研究用 #メディカルテクニカ #VitalStreamtype1 #VitalStreamtype2 #VitaStreamtyp3

#Vitalstream #Caretaker_type4 #連続心拍出量　#連続ストロークボリューム　#メディカルテクニカ #VitalStreamtype1 #VitalStreamtype2 #VitaStreamtyp3

Five times stronger than steel: new 'wood' #nanofiber #Yamaha #Japan #VitalStream #VectorECG

The Promise of #Cellulose #Nanofibers | #nippon.com #VitaStream #VectorECG #Medical_Devices

#Nanofibers #nanotechnology #nanomaterials #nanotech #VitalStream #VectorECG #Medical_Devices

NASK：The Magic of #Nanofiber_Technology #Medical_Technology #VitalStream #VectorECG

#Nanofibers #VitalStream #Caretaker #Future_Capability #Revolution #Medical_Technology

米国 #Caretaker_Medical 社製 #VitalStream #Caretakertype4 について

#vitalstream 解説 #VitalStream #VitalStream_メディカルテクニカ #VitalStream_caretaker #VitalStream_vitalstream_Caretaker_typ4 #Labtech_VectorECG_Holter #Labtech_wavelet #Pedcath8_Mennen_Medical #Heart_Vest_gTec #VitalStream_生体情報_血行動態 　　#非観血式計測で、#連続観血血圧を解析できる #ケアテイカメディカル製品は、 本邦では、研究用として、#２００７年から導入して参りました、 ( #先天性心疾患ソフトウエア #Pedcath8の開発なさった #バージニア大学と同じ） #ケアテイカのタイプ１，タイプ２、タイプ３、タイプ４， ２０２３年からタイプ５が #バイタルストリームと名称が変わり、導入しております、 本製品は、タイプ３以降２０１７年 #米国FDA認可されています、 #非観血式計測データが #観血血圧値に相当する原理は、 #wavelet_algorithm の一種の理論が発明されて解析されています、 #２０００年から当該開発者が米軍中央研究所の協力を得て、世界で検証が 行われてきました、残念ながら、本邦においてはご参加頂ける先生が 現われませんでした、 最大の特徴は、#ケアテイカタイプ４以降の製品が、 #wavelet_analysis の #生体情報計測に必須の手法で解析されており、 かつ、 現在必須の #人工知能システムに適合した出力を提供できる設計になっている点です、 #人工知能を用いた #病態研究・#創薬研究において、#生体情報を人工知能に取り込むには、 #基線安定・#ノイズ無し・#完全ディジタルでなければならず、 本製品の出力データが必須です、 かつ、本製品のディジタル設計は、#アップル・#マイクロソフト・3グーグル等が参加しております、 弊社は、同種の原理を用いた#１２誘導心電図システム #Labtech社を #２００２年から本邦に導入した 経験及び #レートポテンシャル解析の #ART社の経験から本邦に於けるご評価は いずれ認められるものと確信しております、 #メディカルテクニカでは、全て、#バックアップを揃え自家検査した上で納入させて頂いています、 なお、#周波数分析手法及び #ディジタル手法は、#世界最先端 #Biomation社・#SDC社及び #Mennen Medical社を経験しております、

#Ventricular_Angiography: A Forgotten #Diagnostic_Tool? #VitalStream_caretaker #Labtech_Holter #wavelet_algorithm #Pedcath8

#Vitalstream #Caretaker_Medical #VitalStream_Cardiac_Output #vitalstream_caretaker #VitalStream_LVEF #Labtech_Holter #メディカルテクニカ #Labtech_Holter_Pwave_AutoDetect #Pedcath8 ＃Caretaker,#Heart_Vast_gtec #Continuous #Wireless, #Non-Invasive #Blood_Pressure #VitaStream #メディカルテクニカ #連続動脈硬化指標 Ventricular Angiography: A Forgotten Diagnostic Tool? by Georgiana Pintea Bentea Department of Cardiology, CHU Brugmann, Diagnostics 2024, 14(13), 1434;Accepted: 3 July 2024 / Published: 5 July 2024 A 76-year-old male patient presented to the emergency room with acute decompensated right heart failure and presyncope episodes. Upon admission, his electrocardiogram (ECG) showed sustained #monomorphic_ventricular_tachycardia at 180 bpm, which was electrically cardioverted, and the patient was subsequently admitted to the #intensive_care_unit. The echocardiography showed a very dilated right ventricle (RV) with global systolic dysfunction and akinetic anterior and lateral walls. The coronary angiography was normal. The cardiac magnetic resonance showed signs of fibro-fatty replacement of the #RV_myocardium. Furthermore, the ECG after cardioversion showed #inverted_T_waves and an epsilon wave in V1–V3 leads and #late_potentials by signal-averaged ECG. As such, a diagnosis of #arrhythmogenic_right_ventricular_cardiomyopathy (ARVC) was suspected. However, he presented no familial history of ARVC, was 76 years of age at the time of diagnosis and was asymptomatic until now. Given these considerations, we performed a right ventricular angiography which showed dilatation of the RV with akinetic/dyskinetic bulging, creating the “pile d’assiettes” image suggestive of ARVC. In the case of this patient, the RV angiography contributed to establish a diagnosis of ARVC with a very late presentation, to our knowledge the latest presentation in terms of age described in the literature. Figure 1. Right ventricular angiography showing dilatation of the right ventricle with akinetic/dyskinetic bulgings, creating the “pile d’assiettes” image suggestive of arrhythmogenic right ventricular cardiomyopathy. A 76-year-old male patient with past history of chronic obstructive pulmonary disease, right iliac artery stenting, dyslipidaemia, high blood pressure and previous smoking, presented to the emergency department of our institution with chest tightness, signs and symptoms of acute decompensated right heart failure and presyncope episodes. Upon admission, his electrocardiogram (ECG) showed sustained monomorphic ventricular tachycardia at 180 bpm, with left bundle branch morphology and a superior axis, which was electrically cardioverted, and the patient was subsequently admitted to the intensive care unit. The troponin (601 ng/L) and NTproBNP (24,019 ng/L) levels were elevated, the echocardiography showed a very dilated right ventricle (RV) (a diameter of the RV outflow track in end-diastole of 44 mm in parasternal short axis view) with global systolic dysfunction and akinetic anterior and lateral walls. The coronary angiography was normal. The cardiac magnetic resonance (CMR) confirmed global RV dysfunction with regional akinesia and aneurysms and showed signs of fibro-fatty replacement of the RV myocardium. There were no left ventricular abnormalities identified by echocardiography or CMR. Furthermore, the ECG after cardioversion showed inverted T waves and an epsilon wave in V1-V3 leads, in the absence of right bundle branch block and late potentials by signal-averaged ECG. As such, the patient presented criteria for the diagnosis of arrhythmogenic right ventricular cardiomyopathy (ARVC) as described by the 2020 “Padua Criteria” for the diagnosis of ARVC [1], recently revised by the 2024 European Task Force consensus report [2]. However, he presented no familial history of ARVC, was 76 years of age at the time of diagnosis and was asymptomatic until now. Given these considerations, we performed a right ventricular angiography which showed dilatation of the RV with akinetic/dyskinetic bulging, creating the “pile d’assiettes” image suggestive of ARVC (Video S1). The RV angiography has a diagnostic specificity of more than 90% [3] and was considered the gold standard diagnostic exam for ARVC, particularly before the era of advancements in cardiac magnetic resonance imaging [4], while more recent studies on this subject are sparse. In the case of this patient, the RV angiography contributed to establish a diagnosis of ARVC with a very late presentation, to our knowledge the latest presentation in terms of age described in the literature. Subsequently, the patient was implanted with a defibrillator, and his family benefited from screening. #VitalStream_caretaker_medical #Labtech_Holter #Arteriograph #Shimmer_Sensing #Cardionics_Stethoscope #Pedcath8_Mennen_Medical #wavelet\algorithm #Heart_Vest_gTec #VitalStream_caretaker_medical #Labtech_Holter #Arteriograph #Shimmer_Sensing #Cardionics_Stethoscope #Pedcath8_Mennen_Medical #wavelet\algorithm #Heart_Vest_gTec

an emerging trend supports the use of #commercial_smart_wearable_devices to manage health. #VitalStream #Labtech_Holter #Arteriograph #Shimmer_Sensing #Cardionics_Stethoscope #Pedcath8

#Vitalstream #Caretaker_Medical #VitalStream_Cardiac_Output #vitalstream_caretaker #VitalStream_LVEF #Labtech_Holter #メディカルテクニカ #Labtech_Holter_Pwave_AutoDetect #Pedcath8 #Smart_wearable_devices_in_cardiovascular_care: where we are and how to move forward Published: 04 March 2021 Karim Bayoumy, Mohammed Gaber, Abdallah Elshafeey,Tarakji & Mohamed B. Elshazly Technological innovations reach deeply into our daily lives and an emerging trend supports the use of #commercial_smart_wearable devices to manage health. In the era of remote, decentralized and increasingly personalized patient care, catalysed by the COVID-19 pandemic, the cardiovascular community must familiarize itself with the wearable technologies on the market and their wide range of clinical applications. In this Review, we highlight the basic engineering principles of common wearable sensors and where they can be error-prone. We also examine the role of these devices in the remote screening and diagnosis of common cardiovascular diseases, such as arrhythmias, and in the management of patients with established cardiovascular conditions, for example, heart failure. To date, challenges such as device accuracy, clinical validity, a lack of standardized regulatory policies and concerns for patient privacy are still hindering the widespread adoption of smart wearable technologies in clinical practice. We present several recommendations to navigate these challenges and propose a simple and practical ‘ABCD’ guide for clinicians, personalized to their specific practice needs, to accelerate the integration of these devices into the clinical workflow for optimal patient care. #VitalStream_caretaker_medical #Labtech_Holter #Arteriograph #Shimmer_Sensing #Cardionics_Stethoscope #Pedcath8_Mennen_Medical #wavelet\algorithm #Heart_Vest_gTec