device for the twisting of a body in a hole autofilettante smoothly arranged a structure to receive the body

• 1. 用于越过身体管腔中的分叉递送医疗装置的系统、装置和方法 [P] . 中国专利： CN113423338A . 2021-09-21
• 2. 用于将椎间植入物插入身体中的装置及包括该装置的系统 [P] . 中国专利： CN102824233B . 2016.09.28
• 3. device for the twisting of a body in a hole autofilettante smoothly arranged a structure to receive the body [P] . IT1223888B . 1990-09-29

  机译： 用于在孔中自动旋转身体的装置

• 4. Device for mounting a body self atarrachante in a flat smooth predisposed in a structure to receive such a body [P] . BR8905634A . 1990-06-05

  机译： 用于将身体自我矫正器安装在易于容纳在这样的身体中的结构中的平坦光滑物中的装置

• 5. Plastic material base preparation system for dental working model, has stainless steel square body positioned on pilot points, and plastic material bases arranged on body to drill holes that receive metallic pivot [P] . 法国专利： FR2869526A1 . 2005-11-04

  机译： 用于牙科工作模型的塑料材料准备系统，具有在导向点上定位的不锈钢方形主体，并在该主体上布置有用于接收接收金属枢轴的孔的塑料材料基座

• 1. Mechanical Design of Long-Term Body-Adhered Medical Devices to Maximize On-Body Survival [J] . Brian Ferry, John Abraham 生物医学工程（英文） . 2021,第009期
• 2. The vertebral body structure as well as the whole body and nerve injury after treatment of thoracolumbar fractures through paraspinal muscle approach and traditional approach [J] . Chuan Wu 海南医科大学学报（英文版） . 2017,第008期
• 3. The vertebral body structure as well as the whole body and nerve injury after treatment of thoracolumbar fractures through paraspinal muscle approach and traditional approach [J] . Chuan Wu 海南医科大学学报(英文版) . 2017,第008期
• 4. Effective body contact in SOI devices by partial trench isolated body-tied (PTIBT) structure [C] . Min, B.W., Mendicino, . 2001
• 5. Van der Waals Heterostructure Devices: From Monolayer Graphene to Twisted Bilayer Graphene [D] . Lv, Rui. 2019
• 6. Structure of an N276-Dependent HIV-1 Neutralizing Antibody Targeting a Rare V5 Glycan Hole Adjacent to the CD4 Binding Site [O] . Constantinos Kurt Wibmer, Jason Gorman, Colin S. Anthony, 2016
• 7. ABSTRACT Various body parts or organs can be analysed to identify the different diseases in the human body. Fingernail analysis is one of the ways to identify disease in the human body. Nails are the body part which are farthest from the heart and therefore receive oxygen at last. As a result the nails are the first who show the symptoms of a disease in the human body. Fingernails can be easily captured for diagnosis and there are no heavy equipment or no specific conditions required to use nail image for disease diagnosis, like in other tests and scanning processes. Human nails deliver beneficial information about complaints or any nutritive imbalances in the human body depending upon their shape, texture and colour. In human beings, numerous systemic and skin diseases can be easily analyzed through careful examination of nails of both the limbs. A lot of nail illnesses have been found to be primary signs of numerous underlying systemic illnesses. The colour, texture or shape changes in nails are signs of many diseases mainly affecting nails. Considering all these properties of nails a system is proposed that uses digital image processing (DIP) methods for identifying such changes in the human nail to get more precise results and predict numerous diseases effortlessly. With the emerging Internet of Things (IOT) concept the generated report is made available remotely, this will help users to reduce transportation efforts. As the system has to deal with large and private data, the security of data must be ensured. To keep the data confidential, the Blockchain concept which is one of the most emerging concepts in the field of data management is used. The paper contains the implementation of the digital image processing for feature extraction of nail images, usage of IOT (ThingSpeak cloud) for data storage and implementation of Blockchain to keep the system secured and theft free. KEY WORDS: Int ernet of thin gs (IOT), Image proc essin g, Thin gSpeak, RG B vavalues, Mean pi xel vavalues, Bloc kchain , Hash key. Disease Diagnostic System: Abnormalities in Human Nail [O] . Pranav S. Wazarkar 2020
• 8. A transonic wind-tunnel investigation of the effects of twist and camber with and without incidence, twist and body indentation on the aerodynamic characteristics of a 45 degree sweptback wing-body configuration [R] . Cooper, J Lawrence 1954

• 1. On the Internal Structure of a Black Hole Utilizing a 4-D Spatial Blackbody Radiation Model [J] . Christopher Pilot . 高能物理（英文） . 2019,第3期
• 2. An Experimental Study on the Motion of Floating Bodies Arranged in Series for Wave Power Generation [J] . Seiki Chiba1 ,Kenta Hasegawa2 ,Mikio Waki3 . 材料科学与工程：中英文A版 . 2017,第006期
• 3. 一种应用于煤矿孔中探测的太赫兹天线 [C] . Wang Rui ,王锐 ,Guishan Yuan . 2013年全国天线年会 . 2013
• 4. 陈箴装置作品中的“身体指向”与“灵魂治愈” [A] . 肖彩 . 2013