Review Article Application of Laser Scanning Confocal Microscopy in the Soft Tissue Exquisite Structure for 3D Scan

Total Page:16

File Type:pdf, Size:1020Kb

Review Article Application of Laser Scanning Confocal Microscopy in the Soft Tissue Exquisite Structure for 3D Scan Int J Burn Trauma 2018;8(2):17-25 www.IJBT.org /ISSN:2160-2026/IJBT0075736 Review Article Application of laser scanning confocal microscopy in the soft tissue exquisite structure for 3D scan Zhaoqiang Zhang1, Mohamed Ibrahim2, Yang Fu3, Xujia Wu3, Fei Ren4, Lei Chen5 1Department of Oral and Maxillofacial Surgery, Stomatological Hospital, Southern Medical University, No. 366, South of Jiangnan Road, Guangzhou 510280, Guangdong, P. R. China; 2Division of Plastic and Reconstructive Surgery, Department of Surgery, Duke University Medical Center, Box 3181, Durham 27710, North Carolina, USA; 3Department of Clinical Medicine, Zhongshan School of Medicine, Sun Yat-sen University, 74 2nd Zhongshan Road, Guangzhou 510080, Guangdong, P. R. China; 4Department of Oral Medicine, Stomatological Hospital, Southern Medical University at Haizhu Square, No. 180, Taikang Road, Guangzhou 510280, Guangdong, P. R. China; 5Department of Burns, The 1st Affiliated Hospital of Sun Yat-sen University, 58 2nd Zhongshan Road, Guangzhou 510080, Guangdong, P. R. China Received December 25, 2017; Accepted March 23, 2018; Epub April 5, 2018; Published April 15, 2018 Abstract: Three-dimensional (3D) printing is a new developing technology for printing individualized materials swiftly and precisely in the field of biological medicine (especially tissue-engineered materials). Prior to printing, it is nec- essary to scan the structure of the natural biological tissue, then construct the 3D printing digital model through optimizing the scanned data. By searching the literatures, magazines at home and abroad, this article reviewed the current status, main processes and matters needing attention of confocal laser scanning microscope (LSCM) in the application of soft tissue fine structure 3D scanning, empathizing the significance of LSCM in this field. Keywords: LSCM, 3D printing, tissue engineering Introduction because of the similarity of the tissue structure to that of human, which are of most concern to As an important component of tissue engineer- people. However, due to the limitation of work- ing research [1-3], the structure and composi- manship, swine and bovine acellular matrices tion of scaffold material have important influ- have certain immunogenicity with poor nutri- ences on growth and function of seeded cells, tion, penetration of material, slow cellulariza- which is one of the key factors of the success tion and vascularization as well as low survival of tissue-engineered material. What an ideal rates, hence can only be used for provisional scaffold material is it should be biocompatible, wound covering. As a result, researchers start- biodegradable and mechanically appropriate. ed to shift their focus to collagen [9, 10], an However, the present synthetic degradable essential structural protein in dermal matrix’s scaffold materials such as polylactic acid and connective tissue. Taking an advantage of the polyglycolic acid fails to provide a good micro- flexible properties of collagen, they hoped to environment with functions such as growth, reconstruct a scaffold material that encourag- proliferation, interchange of material and sig- es cell growth and rapid vascularization with naling stimuli for cell repair like a natural scaf- the help of technologies such as freeze-drying. fold material (acellular matrix tissue). Besides, with the advancement of organ transplanta- It is challenging for traditional preparation tion, the source of allogeneic natural scaffold methods of scaffolds for tissue engineering material is limited, carried with a risk of disease to overcome problems such as material cell transmission (such as AIDS). That’s why hetero- support and vascularization. Also there are no geneous acellular matrix tissue has attracted personalized characteristics of the structure more attention. obtained by these traditional methods. Thanks to the emergence of 3D printing, it has intro- The sources of allogeneic biologic scaffold duced a new hope to solve this issue. With3D material are usually swine and bovine [4-8], printing technology, an optimized data model LSCM in the soft tissue exquisite structure for 3D scan can be constructed in accordance with charac- Status worldwide teristics of patients’ injured parts. Hence, tis- sue engineer scaffolds can be prepared rapidly In 1985, first research contribution about and accurately based on 3D printing with the LSCM biological application by Wijnaendts Van advantages of realizing close and “seamless” Resandt was noted [29, 30]. Afterwards, the connection with an injured part on the exter- confocal microscope has been widely used in nal structure and matching with defects on the biology and has become a powerful research fine (microcosmic) structure to obtain the best tool in research of cytobiology, morphology, remediation effect. pharmacology and neurosciences, etc. With advancements in science, the confocal micros- The main purpose of the 3D printing in tissue- copy is now not only restricted to the LSCM. engineered material is to obtain accurate 3D In recent years, some foreign scientific research image data of the fine structure of human tis- institutions have invented confocal micro- sue [11, 12]. On one hand, currently, 3D imag- scopes with more perfect functions, such as ing of hard tissues (e.g. bones [13, 14]) have pinhole array disc LSCMs and two-photon made progress rapidly because of existing LSCMs successively. digital medical technology such as computed topography (CT). On the other hand, fine struc- Pinhole array disc LSCM was proposed to solve ture imaging of soft tissues (e.g. skin, nerves problems of confocal detection in the course and vessels) is still limited to 2D. No break- of quick change [31], which was invented by through is noticed until now for 3D imaging of Yokogawa Electric of Japan. This company intro- soft tissues like skin [15-18]. duced twin disc patented technology, including synchronous rotation of a micro-lens array disc In 1957, confocal microscopy technology was and a pinhole array disc. As compared to the proposed [19]. In 1980’s, as an epoch-making conventional laser confocal method that needs high-tech product developed [20-23], LSCM a stage to scan, the pinhole array disc LSCM was a combined outcome of microscope mak- applies CCD as a detector. It is an important ing, photoelectricity, computer technology and tool for in vivo fluorescent imaging of living a modern optical microscope. LSCM 3D stereo cells that only needs synchronous rotation of imaging technology is similar to 3D CT [24, 25], a micro-lens array disc and a pinhole array disc which evenly scans tissues of a specified height to carry out fast confocal detection on objects in certain periods of time, and then overlaps with a maximal full-width collection frame rate images of each scan to build a 3D image. Its of 1000 frame/s [32, 33]. advantages are that it can really reflect distri- bution relations of scaffolds and seed cells by Two-photon LSCM is a new generation of confo- 3D images, especially topological structure in cal microscopes introduced to solve problems scaffolds and cell distribution that can hardly of the photo-bleaching phenomenon of sample be matched by an ordinary optical or electron dye labeling in bioinstrumentation [34]. A sin- microscope [26-28]. gle photon needs high energy to stimulate fluo- rescent molecules. However, under a high pho- Status ton density, two low-energy photons enable to stimulate fluorescence. After get stimulated, History the fluorescent molecule will emit photons of short wavelength and bring same effects. At In 1957, Marvin Minsky firstly founded the con- the same time, low-energy photons reduce focal principle. Later in 1967, Egger and Petran damage (phototoxicity) on samples. The pulse developed the confocal microscopy success- width emitted by this laser is only 100fs with a fully and got an optical section by scanning. In cycle of 80 to 100 MHz, high peak energy and 1977, Sheppard and Wilson put forward Raman low average energy. Also as two-photon excita- spectroscopy for the laser scanner, illuminating tion only occurs on lens focus, the fluorescence the non-linear relationship between light and detection efficiency is able to enhance greatly atoms of illuminated objects. After confocal without a confocal pinhole [35]. microscopes were developed by Biorad (Model SOM-100) and were commercially sold in 1984, Status in China Model MRC-500 applied light beam scanning combined with a bio fluorescent microscope As the trend of using confocal microscopes hereafter in 1986. abroad has increased, China also followed the 18 Int J Burn Trauma 2018;8(2):17-25 LSCM in the soft tissue exquisite structure for 3D scan background noise. However, to make scattered illuminant pass a small hole or to use a laser will form pointolite which will focus on a point of an object, namely the focus. And the plane contains the focus known as the focal plane. According to the principle, a clear 3D image can be ob- tained by moving the lens in directions of x-y-z (Figure 1). Figure 1. After the illuminant passes through the pinhole, only punctiform illuminant emits and focuses on an object via the lens so as to reach a pre- Advantages cise point-to-point effect to scan on plane x-y forming an image of the plane. Deeper scanning can result in more images and the 3D structure drawing As compared to the fluores- can be constructed by computer processing. cence microscopy, following are the advantages of this pace and introduced the first batch of confocal microscope: It can conduct scanning of deep microscopes. So far, many domestic biological tissue and can deal with thick samples; It can research institutions have brought in the confo- remove background interference effectively to cal microscope because of its strong observa- make the image clear and precise; It can collect tion ability in the biology field. The Neurology a series of optical sections; It can carry out Department of the First Affiliated Hospital of dynamic, real-time and non-invasive testing. Sun Yat-Sen University has introduced the two-photon microscope for multiple biological Disadvantages researches.
Recommended publications
  • 3D Laser Scanning Technology Benefits Pipeline Design
    3D Laser Scanning Technology Benefits Pipeline Design Author: Michael Garvey, EN Engineering, LLC The primary benefits The World Isn’t Flat realized by EN The prolific Greek mathematician and geographer Eratosthenes came to Engineering relate understand that the world wasn’t flat when he calculated the circumference of the earth in the third century BC. Portuguese explorer, Ferdinand Magellan — to brownfield sites 1,800 years later — again reminded us that the earth was not flat when his fleet where pipeline and successfully circumnavigated the globe in 1522 AD. Awareness that the earth is facilities already exist. not flat has existed for centuries, yet we continue to constrain our engineering design efforts to two dimensions. The world consists of three dimensions and we have reached a point where engineering, design and planning should follow suit. 3D Laser Scanning provides a highly accessible tool that now enables engineers and designers to think, design and evaluate intuitively in a three-dimensional world with even greater ease. This article will explore the application and benefits of 3D Laser Scanning technology with gas and oil pipelines. What Is 3D Laser Scanning? 3D Laser Scanning is a terrestrial-based data acquisition system that captures high-density 3D geospatial data from large-scale, complex entities. Laser scanners are non-contact devices that incorporate two components for data capture: a laser and a camera as shown in Figure 1. A Class 3R1 laser scans all physical components in its field of view and assigns an XYZ coordinate to each captured Originally published in: Pipeline & Gas Journal point. The laser records the relative position of everything in view, capturing nearly October 2012 / www.pipelineandgasjournal.com 1 million data points per second1.
    [Show full text]
  • 3D Scanner Accuracy, Performance and Challenges with a Low Cost 3D Scanning Platform
    DEGREE PROJECT IN TECHNOLOGY, FIRST CYCLE, 15 CREDITS STOCKHOLM, SWEDEN 2017 3d scanner Accuracy, performance and challenges with a low cost 3d scanning platform JOHAN MOBERG KTH ROYAL INSTITUTE OF TECHNOLOGY SCHOOL OF INDUSTRIAL ENGINEERING AND MANAGEMENT 1 Accuracy, performance and challenges with a low cost 3d scanning platform JOHAN MOBERG Bachelor’s Thesis at ITM Supervisor: Didem Gürdür Examiner: Nihad Subasic TRITA MMK 2017:22 MDAB 640 2 Abstract 3d scanning of objects and the surroundings have many practical uses. During the last decade reduced cost and increased performance has made them more accessible to larger consumer groups. The price point is still however high, where popular scanners are in the price range 30,000 USD-50,000 USD. The objective of this thesis is to investigate the accuracy and limitations of time-of-flight laser scanners and compare them to the results acquired with a low cost platform constructed with consumer grade parts. For validation purposes the constructed 3d scanner will be put through several tests to measure its accuracy and ability to create realistic representations of its environment. The constructed demonstrator produced significantly less accurate results and scanning time was much longer compared to a popular competitor. This was mainly due to the cheaper laser sensor and not the mechanical construction itself. There are however many applications where higher accuracy is not essential and with some modifications, a low cost solution could have many potential use cases, especially since it only costs 1% of the compared product. 3 Referat 3d skanning av föremål och omgivningen har många praktiska användningsområden.
    [Show full text]
  • A Calibration Method for a Laser Triangulation Scanner Mounted on a Robot Arm for Surface Mapping
    sensors Article A Calibration Method for a Laser Triangulation Scanner Mounted on a Robot Arm for Surface Mapping Gerardo Antonio Idrobo-Pizo 1, José Maurício S. T. Motta 2,* and Renato Coral Sampaio 3 1 Faculty of Gama-FGA, Department Electronics Engineering, University of Brasilia, Brasilia-DF 72.444-240, Brazil; [email protected] 2 Faculty of Technology-FT, Department of Mechanical and Mechatronics Engineering, University of Brasilia, Brasilia-DF 70910-900, Brazil 3 Faculty of Gama-FGA, Department Software Engineering, University of Brasilia, Brasilia-DF 72.444-240, Brazil; [email protected] * Correspondence: [email protected]; Tel.: +55-61-3107-5693 Received: 13 February 2019; Accepted: 12 March 2019; Published: 14 April 2019 Abstract: This paper presents and discusses a method to calibrate a specially built laser triangulation sensor to scan and map the surface of hydraulic turbine blades and to assign 3D coordinates to a dedicated robot to repair, by welding in layers, the damage on blades eroded by cavitation pitting and/or cracks produced by cyclic loading. Due to the large nonlinearities present in a camera and laser diodes, large range distances become difficult to measure with high precision. Aiming to improve the precision and accuracy of the range measurement sensor based on laser triangulation, a calibration model is proposed that involves the parameters of the camera, lens, laser positions, and sensor position on the robot arm related to the robot base to find the best accuracy in the distance range of the application. The developed sensor is composed of a CMOS camera and two laser diodes that project light lines onto the blade surface and needs image processing to find the 3D coordinates.
    [Show full text]
  • 3D Laser Scanning for Heritage Advice and Guidance on the Use of Laser Scanning in Archaeology and Architecture Summary
    3D Laser Scanning for Heritage Advice and Guidance on the Use of Laser Scanning in Archaeology and Architecture Summary The first edition of 3D Laser Scanning for Heritage was published in 2007 and originated from the Heritage3D project that in 2006 considered the development of professional guidance for laser scanning in archaeology and architecture. Publication of the second edition in 2011 continued the aims of the original document in providing updated guidance on the use of three-dimensional (3D) laser scanning across the heritage sector. By reflecting on the technological advances made since 2011, such as the speed, resolution, mobility and portability of modern laser scanning systems and their integration with other sensor solutions, the guidance presented in this third edition should assist archaeologists, conservators and other cultural heritage professionals unfamiliar with the approach in making the best possible use of this now highly developed technique. This document has been prepared by Clive Boardman MA MSc FCInstCES FRSPSoc of Imetria Ltd/University of York and Paul Bryan BSc FRICS.This edition published by Historic England, January 2018. All images in the main text © Historic England unless otherwise stated. Please refer to this document as: Historic England 2018 3D Laser Scanning for Heritage: Advice and Guidance on the Use of Laser Scanning in Archaeology and Architecture. Swindon. Historic England. HistoricEngland.org.uk/advice/technical-advice/recording-heritage/ Front cover: The Iron Bridge is Britain’s best known industrial monument and is situated in Ironbridge Gorge on the River Severn in Shropshire. Built between 1779 and 1781, it is 30m high and the first in the world to use cast iron construction on an industrial scale.
    [Show full text]
  • Non-Contact 3D Surface Metrology
    LOGO LOGO TITLE APPLICATIONS CLAIM BECAUSE ACCURACY MATTERS TITLE NON-CONTACT PRODUCT THICK FILM cyberTECHNOLOGIES is the leading supplier of high-resolution, non-contact 3D measurement systems for 3D SURFACE METROLOGY The non-contact measurement technology checks the wet sample industrial and scientific applications. The heart of the system is a high resolution optical sensor either immediately after the print laser-based or with a white light source. Automatic measurement routines create repeatable and user independent results Our systems are widely used in a multitude of applications in microelectronics and other precision industries including thickfilm measurement, solar cell measurement, flatness measurement, coplanarity measurement, PRODUCT FLATNESS roughness measurement, stress measurement, TTV measurement and much more. Our 3D optical profilometer, COMPANY PROFILE Accurate measurement of flatness even on large and highly contoured parts along with our software package, provides accurate and dependable readings. Major international companies, Effective methods for removing edges and defining target areas as well as many small and medium sized companies, trust in cyberTECHNOLOGIES solutions. As a global player, cyberTECHNOLOGIES takes advantage of a worldwide network of qualified distributors and representatives. PRODUCT SURFACE ROUGHNESS Non-destructive and fast roughness measurements MISSION All analyses are conforming to DIN ISO standards, tactile probe tip simulation software MAKE INNOVATIVE SURFACE METROLOGY SYSTEMS TO MEASURE AND ENSURE QUALITY PRODUCT THICKNESS OF PRODUCTS AND PROCESSES. Parallel scanning with up to 4 sensors Collect Top, Bottom and Thickness data, Average Thickness, Bow and Curvature, Total Thickness Variation, Parallel Intensity Masking PRODUCT COPLANARITY CONTACT PARTNERS Draw rectangle, round or polygon cursors to define base plane and measurement areas.
    [Show full text]
  • An Introduction to 3D Scanning E-Book
    An Introduction to 3D Scanning E-Book 1 © 2011 Engineering & Manufacturing Services, Inc. All rights reserved. Who is EMS ? . Focused on rapid product development products & services . 3D Scanning, 3D Printing, Product Development . Founded in 2001 . Offices in Tampa, Detroit, Atlanta . 25+ years of Design, Engineering & Mfg Experience . Unmatched knowledge, service & support . Engineers helping engineers . Continuous growth every year . Major expansion in 2014 . More space . More equipment . More engineers . Offices Tampa, Atlanta, Detroit 2 © 2011 Engineering & Manufacturing Services, Inc. All rights reserved. While the mainstream media continues its obsession with 3D printing, another quiet, perhaps more impactful, disruption is revolutionizing the way products are designed, engineered, manu- factured, inspected and archived. It’s 3D scanning -- the act of capturing data from objects in the real world and bringing them into the digital pipeline. Portable 3D scanning is fueling the movement ACCORDING TO A RECENT STUDY from the laboratory to the front lines of the BY MARKETSANDMARKETS, THE factory and field, driven by the following key 3D SCANNING MARKET WILL GROW factors: NEARLY &RQYHQLHQFHDQGIOH[LELOLW\IRUDZLGHYDULHW\RIDSSOLFDWLRQV LQFOXGLQJHYHU\DVSHFWRISURGXFWOLIHF\FOHPDQDJHPHQW PLM) 15% 6LPSOLFLW\DQGDXWRPDWLRQWKDWVSUHDGVXVHEH\RQG ANNUALLY OVER THE NEXT FIVE VSHFLDOLVWVLQWRPDLQVWUHDPHQJLQHHULQJ YEARS, WITH THE PORTABLE 3D SCANNING SEGMENT /RZHUFRVWVWKDWEURDGHQWKHPDUNHW LEADING THE WAY. *UHDWHUDFFXUDF\VSHHGDQGUHOLDELOLW\IRUPLVVLRQFULWLFDO SURMHFWV 3D scanners are tri-dimensional measurement devices used to capture real-world objects or environments so that they can be remodeled or analyzed in the digital world. The latest generation of 3D scanners do not require contact with the physical object being captured. Real Object 3D Model 3D scanners can be used to get complete or partial 3D measurements of any physi- cal object.
    [Show full text]
  • 3D SCANING – TECHNOLOGY and RECONSTRUCTION Peter Trebuňa; Marek Mizerák; Ladislav Rosocha
    Acta Simulatio - International Scientific Journal about Simulation Volume: 4 2018 Issue: 3 Pages: 1-6 ISSN 1339-9640 3D SCANING – TECHNOLOGY AND RECONSTRUCTION Peter Trebuňa; Marek Mizerák; Ladislav Rosocha doi:10.22306/asim.v4i3.44 Received: 02 Sep. 2018 Accepted: 15 Sep. 2018 3D SCANING – TECHNOLOGY AND RECONSTRUCTION Peter Trebu ňa Technical University of Košice, Faculty of Mechanical Engineering, Institute of Management, Industrial and Digital engineering, Park Komenského 9, 042 00 Košice, [email protected] (corresponding author) Marek Mizerák Technical University of Košice, Faculty of Mechanical Engineering, Institute of Management, Industrial and Digital engineering, Park Komenského 9, 042 00 Košice, e-mail: [email protected] Ladislav Rosocha Technical University of Košice, Faculty of Mechanical Engineering, Institute of Management, Industrial and Digital engineering, Park Komenského 9, 042 00 Košice, e-mail: [email protected] Keywords: technology, reconstruction, 3D scanning, 3D scanner, light, point cloud Abstract: 3D Laser Scanning is a non-contact, non-destructive technology that digitally captures the shape of physical objects using a line of laser light. 3D laser scanners create “point clouds” of data from the surface of an object. In other words, 3D laser scanning is a way to capture a physical object’s exact size and shape into the computer world as a digital 3-dimensional representation. There are many of technologies that we can get the required digitization of objects, buildings or natural scenery. It is just few examples what we can do to scan. 1 Introduction describes the distance to a surface at each point in the A 3D scanner can be based on many different picture.
    [Show full text]
  • Feasibility of Mobile Laser Scanning Towards Operational Accurate Road Rut Depth Measurements
    sensors Article Feasibility of Mobile Laser Scanning towards Operational Accurate Road Rut Depth Measurements Aimad El Issaoui 1,*,†, Ziyi Feng 1,†, Matti Lehtomäki 1, Eric Hyyppä 1 , Hannu Hyyppä 2, Harri Kaartinen 1,3 , Antero Kukko 1,2 and Juha Hyyppä 1,2 1 Department of Remote Sensing and Photogrammetry, Finnish Geospatial Research Institute FGI, The National Land Survey of Finland, Geodeetinrinne 2, 02430 Masala, Finland; ziyi.feng@nls.fi (Z.F.); matti.lehtomaki@nls.fi (M.L.); [email protected] (E.H.); harri.kaartinen@nls.fi (H.K.); antero.kukko@nls.fi (A.K.); Juha.Hyyppa@nls.fi (J.H.) 2 Department of Built Environment, Aalto University, 02150 Espoo, Finland; hannu.hyyppa@aalto.fi 3 Department of Geography and Geology, University of Turku, 20500 Turku, Finland * Correspondence: aimad.elissaoui@nls.fi; Tel.: +358-503-135-042 † These authors contribute equally to this manuscript. Abstract: This paper studied the applicability of the Roamer-R4DW mobile laser scanning (MLS) system for road rut depth measurement. The MLS system was developed by the Finnish Geospatial Research Institute (FGI), and consists of two mobile laser scanners and a Global Navigation Satellite System (GNSS)-inertial measurement unit (IMU) positioning system. In the study, a fully automatic algorithm was developed to calculate and analyze the rut depths, and verified in 64 reference pavement plots (1.0 m × 3.5 m). We showed that terrestrial laser scanning (TLS) data is an adequate reference for MLS-based rutting studies. The MLS-derived rut depths based on 64 plots resulted in 1.4 mm random error, which can be considered adequate precision for operational rutting depth measurements.
    [Show full text]
  • A Study on Two Cost Effective Scanning and Modeling Techniques Used for the Fabrication of an Orthotic Mask
    BULETINUL INSTITUTULUI POLITEHNIC DIN IAŞI Publicat de Universitatea Tehnică „Gheorghe Asachi” din Iaşi Tomul LIX (LXIII), Fasc. 4, 2013 Secţia CONSTRUCŢII DE MAŞINI A STUDY ON TWO COST EFFECTIVE SCANNING AND MODELING TECHNIQUES USED FOR THE FABRICATION OF AN ORTHOTIC MASK BY OCTAVIAN CIOBANU1∗ and GABRIELA CIOBANU21 1“Grigore T. Popa” University of Medicine and Pharmacy, Iași, Faculty of Medical Bioengineering 2“Gheorghe Asachi” Technical University of Iaşi, Faculty of Chemical Engineering and Environmental Protection Received: July 20, 2013 Accepted for publication: September 25, 2013 Abstract. The facial orthosis is used in the treatment of facial burns to minimize hypertrophic and deforming scarring. The paper approaches the most cost effective solutions for the 3D scanning and 3D modeling of anatomic surfaces and discusses the feasibility of these solutions for the modeling of facial orthoses. The structured light scanning technique and single camera photogrammetric technique were approached and discussed. The head of person was scanned, 3D reconstructed and processed in order to obtain the 3D model of a customized face mask. Results showed that single camera photogrammetric scanning techniques is the most cost effective but has some drawbacks in the reconstruction of the 3D mesh. Other scar rehabilitation studies have shown that surface scanning results in a better fitting mask than manual fabrication and without anxiety-provoking. Key words: orthosis, 3D modeling, facial burns. ∗Corresponding author; e-mail: [email protected] 2 Octavian Ciobanu and Gabriela Ciobanu 1. Introduction Facial burn treatments involve removing the damaged tissue followed by grafting and other recovery procedures. Seriously burnt patients often have complications such as scarring, speech problems or tissue deformities.
    [Show full text]
  • Android Document Scanner App Review
    Android Document Scanner App Review Endogenic Silvester sometimes invalidated any spilikins fillips seraphically. Half-hardy Neil sometimes interpleading any tussis heel scorchingly. Which Lew disoblige so efficaciously that Prince scribe her voracity? The 4 Best Photo Scanning Apps Printique An Adorama. What might the easiest way to scan a document? Those Expired Digital Movie Codes May move Be Expired HD Report. I'll be sharing a different scanning app that welfare use study the iPhone in a early review fit your favorite mobile productivity apps with strike on social. There are lots of graphic design apps for iPhone Android but are all face them. If you have been identified text more like fast scanner is still struggles a screen at this is now able to use your purchases are way to. While we think my image filtering is near their free apps do a nightmare job specific color-correcting images and still allowing you to export PDFs without. App of six Week Genius Scan Scanner in return Pocket. Cam scanner is highly accurate scan an android app can print had its camera bump has to enter a zero commission for evernote, the one place a reasonable to. How above I scan a hard copy of a document? Document Scanner Reviews Pwn with huge Phone. This step is. We at Scanbot love native app development for Android and iOS But vault also. Another best document, google lens is loaded with ocr document with document scanner pro fixes image. This review with your room for android devices available on this! I level have our huge collection of DVDs however often sitting there un-digitized Sure greed can insert my DVD collection but that takes time outstanding effort.
    [Show full text]
  • Design a Fast 3D Scanner Using a Laser Line” (1-3)- December- 2016 in INESEC / Diyarbakir-Turkey
    REPUBLIC OF TURKEY FIRAT UNIVERSITY THE GRADUATE SHCHOOL OF NATURAL AND APPLIED SCIENCES DESIGN OF A FAST 3D SCANNER Zardasht Abdulaziz Abdulkarim SHWANY (142129105) Master Thesis Department: Computer Engineering Supervisor : Prof. Dr. Erhan AKIN February-2017 I ACKNOWLEDGMENT First of all, my thanks are addressed to GOD for inspiring me with patience and strength to fulfill the study. Deepest gratitude with great respect is due to my Supervisor Prof. Dr. Erhan AKIN for his continuous encouragement, endless patience, precious remarks, and professional advice. My gratitude and appreciation are dedicated to the Dean of the College of Engineering and to all of Computer Engineering Department teachers and employees for their valuable helps and guidance during the stages of the study. Special thanks are extended to Assoc. Prof. Dr. Mehmet KARAKOSE for his professional advice and for taking part as an advisory committee in my thesis presentation and their inestimable feedbacks which enhanced and improved my research. I would like to express my gratitude and special thanks to Turkey Government and Presidency for Turks aboard and related communities for providing the master degree for me, by which I found the ability to become familiar to Turkish people, and Turkish culture. Their unlimited helps, supports and encouragements are greatly appreciated. Acknowledging my beloved family for their supports and encouragements in the hard times, I am forever indebted to my family especially my mother, my father and my lovely wife for all their helps both materially and morally. I would like to record a word of gratitude, appreciation and thanks for Beautiful Elâzığ City and all of its people for their help and good behavior.
    [Show full text]
  • A Simple Guide to Understanding 3D Scanning Technologies
    A Simple Guide To Understanding 3D Scanning Technologies First Edition www.lmi3D.com Table of Contents What do you mean by 3D? 4 Introduction How do 2D and 3D systems differ? 6 At LMI Technologies, solving complex problems in a simple way is the philosophy that guides our passion for developing leading edge 3D What is triangulation? 8 technologies. It is because of that guiding philosophy, we have created this eBook. What is 3D scanning? 10 This guide is a high-level approach to the very technical world of 3D scanning. What are some common types of 12 The concepts, principles, and devices presented here within have been 3D scanning technologies? generalized to give those new to 3D scanning a starting point. However, this guide is not just for newbies. It is also for those in-the-know who need to educate or present 3D to those outside of the engineering world. What is a 3D sensor? 14 As a first edition, this is only the beginning for this guide. In coming editions, What is a 3D smart sensor? 16 we will cover more ground in the very fast paced world of 3D scanning technologies. Because this guide is for everyone, we invite you share with us What is a 3D scanner? 18 any topics of interest for future editions. You can reach us at [email protected]. What are some typical 20 3D scanning applications? We hope that you enjoy this simple guide. How do I learn more about 3D? 22 What do you mean by 3D? Most people think of 3D in the same frame of mind as “3D” movies or TV.
    [Show full text]