Jim's 3D Printing Resources

Conventional topographic databases, obtained by capture on aerial or spatial images provide a simplified 3D modeling of our urban environment, answering the needs of numerous applications (development, risk prevention, mobility management, etc.). However, when we have to represent and analyze more complex sites (monuments, civil engineering works, archeological sites, etc.), these models no longer suffice and other acquisition and processing means have to be implemented. This book focuses on the study of adapted lifting means for "notable buildings". The methods tackled in this book cover lasergrammetry and the current techniques of dense correlation based on images using conventional photogrammetry.

France's Le FabShop has extensive experience testing 3D printers and creating digital models for them. From an articulated Makey Robot to a posable elephant model, Samuel N. Bernier and the rest of Le FabShop's team have created some of the most-printed designs in the 3D printing world. This book uses their work to teach you how to get professional results out of a desktop 3D printer without needing to be trained in design. Through a series of tutorials and case studies, this book gives you the techniques to turn a product idea into a 3D model and a prototype. Focusing on free design software and affordable technologies, the exercises in this book are the perfect boost to any beginner looking to start designing for 3D printing. Designing for the tool and finding a good tool to fit the design--these are at the core of the product designer's job, and these are the tools this book will help you master. Foreword by Carl Bass, Autodesk's CEO, a passionate and prolific Maker. In Design For 3D Printing, you'll: Learn the different 3D printing technologies Choose the best desktop 3D printer Discover free 3D modeling software Become familiar with 3D scanning solutions Find out how to go from a bad to a good 3D source file, one that's ready-to-print

Extended reality (XR)—a wide range of technologies along a continuum, with
the real world at one end and fully immersive simulations at the other—is having
a dramatic impact on pedagogy in higher education. To explore the potential of
XR technologies in higher education, EDUCAUSE and HP collaborated on the
Campus of the Future: 3D Technologies in Academe project, focusing on those
XR technologies encompassing 3D simulations, modeling, and production.
This project sought to identify current innovative uses of these 3D technologies,
how these uses are currently impacting teaching and learning, and what this
information can tell us about possible future uses for these technologies in higher
education ...

This book provides new and seasoned users with step-by-step procedures on creating and modifying 3D models, working with cameras and lights, assigning materials to objects, rendering, and printing. Unlike many AutoCAD competitors, it uses both metric and imperial units to illustrate the myriad tools for this popular application. Use the companion CD to set up drawing exercises and projects and see all of the book's figures including color. AutoCAD 2021 3D Modelingincludes 50 "mini-workshops," that complete small projects from concept through actual plotting. Solving all of the workshops will simulate the creation of full projects (architectural and mechanical) from beginning to end, without overlooking any of the basic commands and functions in AutoCAD 2021. FEATURES * Provides new and seasoned users with step-by-step procedures on creating and modifying 3D models in both metric and imperial units * CD can be used to set up in-text drawing exercises and projects and to see the book's figures in color

This resource contains materials related to Additive Manufacturing. Feel free to use any of the materials and modify them as needed for your class, ...

The bestselling book on 3D printing 3D printing is one of the coolest inventions we've seen in our lifetime, and now you can join the ranks of businesspeople, entrepreneurs, and hobbyists who use it to do everything from printing foods and candles to replacement parts for older technologies--and tons of mind-blowing stuff in between! With 3D Printing For Dummies at the helm, you'll find all the fast and easy-to-follow guidance you need to grasp the methods available to create 3D printable objects using software, 3D scanners, and even photographs through open source software applications like 123D Catch. Thanks to the growing availability of 3D printers, this remarkable technology is coming to the masses, and there's no time like the present to let your imagination run wild and actually create whatever you dream up--quickly and inexpensively. When it comes to 3D printing, the sky's the limit! Covers each type of 3D printing technology available today: stereolithology, selective sintering, used deposition, and granular binding Provides information on the potential for the transformation of production and manufacturing, reuse and recycling, intellectual property design controls, and the commoditization of products Walks you through the process of creating a RepRap printer using open source designs, software, and hardware Offers strategies for improved success in 3D printing On your marks, get set, innovate!

This guide takes the reader through the 3D Printing for Repair (3DP4R) process. It consists of guidelines and tools to create a 3D printable version of spare parts needed for a product repair. 3D printing a spare part is more than just printing the original part. Instead, it is an iterative process in which the part is analysed, redesigned, manufactured, and tested, in order to come to a final part. This guide will describe these four phases in detail. The guide is meant for anybody who is interested in trying to manufacture spare parts with 3D printing technologies, remakers, tinkerers, volunteer repairers, professional repairers, and everyone who is interested in repair initiatives.

The present Special Issue proposes articles in the area of Additive Manufacturing with particular attention to the different employed technologies and the several possible applications. The main investigated technologies are the Selective Laser Sintering (SLS) and the Fused Deposition Modelling (FDM). These methodologies, combined with the Computer Aided Design (CAD), provide important advantages. Numerical, analytical and experimental knowledge and models are proposed to exploit the potential advantages given by 3D printing for the production of modern systems and structures in aerospace, mechanical, civil and biomedical engineering fields. The 11 selected papers propose different additive manufacturing methodologies and related applications and studies.

Although 3D printing promises a revolution in many industries, primarily industrial manufacturing, nowhere are the possibilities greater than in the field of product design and modular architecture. Ronald Rael and Virginia San Fratello, of the cutting-edge San Francisco-based design firm Emerging Objects, have developed remarkable techniques for "printing" from a wide variety of powders, including sawdust, clay, cement, rubber, concrete, salt, and even coffee grounds, opening an entire realm of material, phenomenological, and ecological possibilities to designers. In addition to case studies and illustrations of their own work, Rael and San Fratello offer guidance for sourcing alternative materials, specific recipes for mixing compounds, and step-by-step instructions for conducting bench tests and setting parameters for material testing, to help readers to understand the process of developing powder-based materials and their unique qualities.

A recent trend concerning archaeological research has focused on producing a real-time methodology for 3D digital models as archaeological documentation within the excavation setting. While such methodologies have now firmly been established, what remains is to examine how 3D models can be integrated more fully alongside other forms of archaeological documentation. This work explored one avenue by developing a method that combines the interpretative power of traditional archaeological drawings and the realistic visualisation capacity of 3D digital models. An experiment was initiated during archaeological excavations at Uppåkra, Sweden where photographic data was captured to produce 3D digital models through Photoscan. These models were geospatially located within ESRI's 3D GIS ArcScene where shapefile editing tools were used to draw overtop of their surfaces in three-dimensions. All drawings closely followed the single context method of drawing, were allotted context numbers, and given descriptive geodatabase attributes. This methodology resulted in the further integration of 3D models alongside other forms of archaeological documentation. The drawings increased the communicative powers of archaeological interpretation by enabling the information to be disseminated in a 3D environment alongside other formats of data that would have otherwise been disconnected in 2D space. Finally, the database attributes permitted the drawings complete integration within the geodatabase, thereby making them available for query and other analytical procedures. Archaeological information is three-dimensional; therefore, archaeologists must begin to approach documentation bearing this in mind. This technique has demonstrated that 3D models are a fluidic form of documentation allowing for accurate preservation of archaeology while enabling new forms of data to be derived all within a limited amount of time. Archaeologists must begin to affect change towards embracing 3D models and their associated applications as a standard tool within the excavator's toolbox.