Proposing Rehabilitation Scenarios for Limestone Quarries with 3D Modeling and 3D Print: Case of Jbel El Oust (Tunisian Atlas)

Author(s):  
Soumaya Ben Fredj ◽  
Fetheddine Melki ◽  
Kamel Jridi
Author(s):  
Kostiantyn Romanenko ◽  
Dmytro Prozorovskiy ◽  
Yaroslav Doluda

An adequate planning of the curative measures is an important factor providing good functional results in the treatment of consequences of long bones injuries, in particular, malunions (post traumatic deformities). 3D-modeling in the preoperative planing gives an opportunity to assess both deformity itself and joint status. Visua­lization of injured segment with three-dimensional model manufactured using 3D-print in actual size (1:1 scale) provides additional capacities. Objective. To analyze the capacity provided by the usage of three-dimensional models of damaged segments in scale 1:1 while the planning of corrective surgery. Methods. Practicability of the usage of 3D-models, that was  worked out on the base of CT-scanning, was studied in the treatment of 52 patients with different post traumatic extraarticular deformities of femur and tibia, after the fractures with intraarticular extension. Clinical results were evaluated using SF-36 and AOFAS scales. Results. Calculation for 3D-modeling was performed mostly virtually using standard computer programs with 3D-reconstruction, but 3D-print technology was used for 5 patients with the most severe and sophisticated deformities of the lower extremities. Changes in functional outcomes, according to SF-36 and AOFAS, for the patients undergone opera- tive treatment, were positive at 12 month of follow-up. Fore­ign colleagues expose analogous results of the investigations and suggest that the modeling with 3D-print provides mostly more safe, reliable and standardized clinical decisions for every particular patient. Conclusions. Preoperative usage of 3D-print on the stage of preoperative planing allows the surgeons to simulate different stages of operative intervention on the physical model, thus, help him to realize possible technical problems, choose adequate fixation device and proper instrumentation. It facilitates the shortening of surgery time, elimination of possible complications rate and achievement, in sum, good functional results in the treatment of this kind of patients.


2017 ◽  
Vol 35 (2) ◽  
pp. 240-250 ◽  
Author(s):  
Tara Radniecki

Purpose An increased number of academic libraries are providing access to nontraditional technologies including 3D printers, 3D scanners, laser cutters, and more. However, these new equipment offerings require users to learn new literacies and skills in order to fully utilize them and realize their full potential to impact creativity and innovation on campus. The purpose of this paper is to share how one academic library is providing services and resources to help users acquire the necessary 3D modeling skills to design and successfully 3D print new knowledge objects. Design/methodology/approach The library is providing access to online tutorials on many different 3D modeling programs, gives instruction on 3D modeling through group workshops, and provides individual consultations with 3D modeling experts. These instruction efforts were assessed by analyzing usage statistics, attendance, and user satisfaction surveys. Findings Usage statistics show that the online tutorials are heavily utilized by UNR users and that many different 3D modeling programs are of interest to our community. Usage statistics and user surveys show the individual consultation service to be helpful and often exceeding expectations. Workshop attendance is generally low and appears to positively impact far fewer users than the other services. Originality/value While more libraries begin providing access to maker technologies, few are addressing the need to teach new skills and literacies necessary to utilize those technologies fully. This paper may prove valuable for other academic libraries to start providing avenues of learning for new and nontraditional library skills, such as 3D modeling.


2020 ◽  
Author(s):  
Christopher S. Graffeo ◽  
Avital Perry ◽  
Lucas P. Carlstrom ◽  
Michael J. Link ◽  
Jonathan Morris

2016 ◽  
Vol 1 (1) ◽  
pp. 51-58 ◽  
Author(s):  
Jean François Uhl ◽  
Maxime Chahim ◽  
François Cros ◽  
Amina Ouchene ◽  
◽  
...  

The 3D modeling of the vascular system could be achieved in different ways: In the venous location, the morphological modeling by MSCT venography is used to image the venous system: this morphological modeling tool accurately investigates the 3D morphology of the venous network of our patients with chronic venous disease. It is also a fine educational tool for students who learn venous anatomy, the most complex of the human body. Another kind of modeling (mathematical modeling) is used to simulate the venous functions, and virtually tests the efficacy of any proposed treatments. To image the arterial system, the aim of 3D modeling is to precisely assess and quantify the arterial morphology. The use of augmented reality before an endovascular procedure allows pre-treatment simulation, assisting in pre-operative planning as well as surgical training. In the special field of liver surgery, several 3D modeling software products are available for computer simulations and training purposes and augmented reality.


Author(s):  
Jan Jelínek ◽  
František Staněk ◽  
Radomír Grygar ◽  
Jan Franěk ◽  
Michal Poňavič
Keyword(s):  

2010 ◽  
Vol 24 (1) ◽  
pp. 10-16 ◽  
Author(s):  
Hang Qiu ◽  
Leiting Chen ◽  
Jim X Chen
Keyword(s):  

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