View allAll Photos Tagged Computational
I'm now adding 9 in the 9th position from the left (the rightmost position, the ones position). This is done in 2 steps: add 10, subtract 1. In this step I subtract 1.
This completes the computation. The final result of the computation can be read off as 246913578, which is indeed 123456789 + 123456789.
Deborah Lawler-Dormer Artistic experimental testing using computational modeling of the human brain.
How are integrated cognitive responses triggered in multisensate environments?
As a new media curator, I work with artistic practices that engage particular perceptual dynamics to create unique environments. Given the increase in mutlisensate environments, and the resultant complex demands made of audiences, the need to better understand these practices is required by artists, their viewers, critics and gallery professionals. I have consequently embarked on a creative practice PhD at both University of Auckland and University of New South Wales examining cognitive perceptual integration in multisensate environments.
In the Laboratory for Animate Technologies at the Auckland Bioengineering Institute, Dr Mark Sagar and his team are building a computational model of the brain and face. Working with research teams at the Centre for Brain Research, these computational models contain current neuroscientific understandings. Dr Mark Sagar is a double academy award winner for his animation in Avatar and King Kong. Sagar states: “We are building a collaborative modular model of the face and brain, a brain and face Lego with swappable and re-shapable parts. Both scientists and artists who want an interactive context to test and visualise their work can design, combine, integrate, inspect, react, be reacted to, and redesign.” This collaborative research initiative involves staff and students from computer science, architecture, neuroscience, engineering and the arts.
This paper looks at this computational brain model and the transdisciplinary collaborative processes that have helped develop it. How is this model useful to transdisciplinary practitioners who want to understand the neural responses to specific types of sensory input? My own personal PhD research will be briefly described and the methodology for testing. In addition, the paper will begin to look at the problematic of using a computational virtual model for artistic testing.
PI: Noa Marom, Tulane University
Results from this research will advance the current state-of-the-art in first-principles and multiscale simulations, and allow researchers to reveal essential details of these interfaces that are difficult to resolve experimentally. The theoretical understanding developed in this project will catalyze the emergence of new design paradigms for next-generation solar cell technologies.
This image depicts vertical ionization potential (VIP) vs. vertical electron affinity (VEA) for the best 10 structures found by each property-based genetic algorithm (GA) for (TiO2)n clusters with n=2-20. The loci of constant fundamental gaps are indicated by diagonal lines.
Image credit Reproduced from Phys. Rev. B 91, 241115(R) (2015)
Scientific discipline: Materials Science
This research used resources of the Argonne Leadership Computing Facility at Argonne National Laboratory.
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National Brand Computation Notebook 4 X 4 Quad Brown Green Paper 11.75 x 9.25 Inches 75 Sheets (43648)
The Phantôm Restaurant,Opera Garnier
HDA : technical design & engineering
Client : Gumery
Architect : ODBC
Date : 2009 - 2011
ASCENSION: An Interactive Installation
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The Project
Willpower (William Ismael) + Carrie Mae Rose collaborate in the duo FLUID THUNDER for the interactive projection mapping of the tetrahedron winged computational fashion installation at Eyebeam (Art + Technology Center in New York City).
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The Process
Carrie Mae creates hand-built wing structures out of wire tetrahedrons and fabric. Willpower codes 2 animations in Processing, which is an open-source programming language, development environment, and online community. He uses Leap Motion, which is a sensory technology, detecting human hands and fingers. He uses a Processing Library by onformative (a studio for generative design based in Berlin) called LeapMotionForProcessing to use Processing seemlessly with Leap Motion. Willpower attaches his interactive human generated animations to the Leap Motion sensor. They follow a person's hand movements in real-time and on key with accurate precision. The public interacts with the installation by activating the wings through their physical movements.
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The Story
The animation displays beams of light representing solar neutrinos and the love we have access to at all times. Wings symbolize aspiration and ascension. The light is symbolic of angelic light coming from realms above, shining down to inspire and remind us that we are pure love in our hearts. The bubble eruptions represent both the thunderous fire energy residing inside our human forms and the Big Bang Theory that we are all becoming lighter and lighter each moment in time throughout our expansion into infinite space.
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The Experience
Human beings generate the art on the angel wings by moving their hands. They become part of the art. They create the art. An ongoing 3D generative animation is mapped behind the wings. An interactive animation generated by people is mapped onto the wings. Without human movements, no animation is created on the tetrahedron angel wings. We include you to be part of the art because it is about us. It is about the interaction between the artists and the visitors. We communicate and transcend messages which are experienced beyond just looking at a piece by making you a co-creator of the piece. It is about us coming together and interacting in the space with 'others' we may have not engaged in a conversations with otherwise. It becomes an unique shared experience.
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Credits
Installed at Eyebeam.
Sculpture by Carrie Mae Rose.
Interactive Projection Mapping by WILLPOWER STUDIOS (William Ismael).
Video Shot + Edited + Music by WILLPOWER STUDIOS (William Ismael).
Watch Video: vimeo.com/78205976
Download Press Package: fluidthunder.com/ASCENSION-Press.zip
To know more about project, visit FluidThunder.com
Computational analysis of Suzhou's Garden of the Master of Nets. More details on the LMN Tech Studio blog: Suzhou Space.
I'm now subtracting 7 in the 7th position from the left. This is done in 2 steps: subtract 10, add 3. In this step I add 3.
Mike North is an Argonne computational scientist, developing analytical methods and tools that can be used to understand and manage complex systems.
31048D
I'm now subtracting 9 in the 9th position from the left. This is done in 2 steps: subtract 10, add 1. In this step I subtract 10 by subtracting 1 in the 8th position from the left.
Aragonite is a carbonate mineral, one of the three most common naturally occurring crystal forms of calcium carbonate, CaCO3 (the other forms being the minerals calcite and vaterite). It is formed by biological and physical processes, including precipitation from marine and freshwater environments.
Aragonite Crystal Structure
The crystal lattice of aragonite differs from that of calcite, resulting in a different crystal shape, an orthorhombic crystal system with acicular crystal.[5] Repeated twinning results in pseudo-hexagonal forms. Aragonite may be columnar or fibrous, occasionally in branching helictitic forms called flos-ferri ("flowers of iron") from their association with the ores at the Carinthian iron mines.[6]
Occurrence
The type location for aragonite is Molina de Aragón in the Province of Guadalajara in Castilla-La Mancha, Spain, for which it was named in 1797.[7] Aragonite is found in this locality as cyclic twins inside gypsum and marls of the Keuper facies of the Triassic.[8] This type of aragonite deposit is very common in Spain, and there are also some in France.[6]
An aragonite cave, the Ochtinská Aragonite Cave, is situated in Slovakia.[9]
In the US, aragonite in the form of stalactites and "cave flowers" (anthodite) is known from Carlsbad Caverns and other caves.[10] For a few years in the early 1900s, aragonite was mined at Aragonite, Utah (now a ghost town).[11]
Massive deposits of oolitic aragonite sand are found on the seabed in the Bahamas.[12]
Aragonite is the high pressure polymorph of calcium carbonate. As such, it occurs in high pressure metamorphic rocks such as those formed at subduction zones.[13]
Aragonite forms naturally in almost all mollusk shells, and as the calcareous endoskeleton of warm- and cold-water corals (Scleractinia). Several serpulids have aragonitic tubes.[14] Because the mineral deposition in mollusk shells is strongly biologically controlled,[15] some crystal forms are distinctively different from those of inorganic aragonite.[16] In some mollusks, the entire shell is aragonite;[17] in others, aragonite forms only discrete parts of a bimineralic shell (aragonite plus calcite).[15] The nacreous layer of the aragonite fossil shells of some extinct ammonites forms an iridescent material called ammolite.[18]
Aragonite also forms naturally in the endocarp of Celtis occidentalis.[19]
Aragonite also forms in the ocean inorganic precipitates called marine cements (in the sediment) or as free crystals (in the water column).[20][21] Inorganic precipitation of aragonite in caves can occur in the form of speleothems.[22] Aragonite is common in serpentinites where magnesium-rich pore solutions apparently inhibit calcite growth and promote aragonite precipitation.[23]
Aragonite is metastable at the low pressures near the Earth's surface and is thus commonly replaced by calcite in fossils. Aragonite older than the Carboniferous is essentially unknown.[24] It can also be synthesized by adding a calcium chloride solution to a sodium carbonate solution at temperatures above 60 °C (140 °F) or in water-ethanol mixtures at ambient temperatures.[25]
Physical properties
Aragonite is not the thermodynamically stable phase of calcium carbonate at any pressure below about 3,000 bars (300,000 kPa) at any temperature.[26] Aragonite nonetheless frequently forms in near-surface environments at ambient temperatures. The weak Van der Waals forces inside aragonite give an important contribution to both the crystallographic and elastic properties of this mineral.[27] The difference in stability between aragonite and calcite, as measured by the Gibbs free energy of formation, is small, and effects of grain size and impurities can be important. The formation of aragonite at temperatures and pressures where calcite should be the stable polymorph may be an example of Ostwald's step rule, where a less stable phase is the first to form.[28] The presence of magnesium ions may inhibit calcite formation in favor of aragonite.[29] Once formed, aragonite tends to alter to calcite on scales of 107 to 108 years.[30] Comparing to the calcite, aragonite
The mineral vaterite, also known as μ-CaCO3, is another phase of calcium carbonate that is metastable at ambient conditions typical of Earth's surface, and decomposes even more readily than aragonite.[31][32]
Uses
In aquaria, aragonite is considered essential for the replication of reef conditions. Aragonite provides the materials necessary for much sea life and also keeps the pH of the water close to its natural level, to prevent the dissolution of biogenic calcium carbonate.[33]
Aragonite has been successfully tested for the removal of pollutants like zinc, cobalt and lead from contaminated wastewaters.[34]
Claims that magnetic water treatment can reduce scaling, by converting calcite to aragonite, have been met with skepticism,[35] but continue to be investigated.[36][37]
References
Warr, L.N. (2021). "IMA–CNMNC approved mineral symbols". Mineralogical Magazine. 85 (3): 291–320. Bibcode:2021MinM...85..291W. doi:10.1180/mgm.2021.43. S2CID 235729616.
pubmed.ncbi.nlm.nih.gov/34876711/
geologyscience.com/minerals/aragonite/
Bragg, William Lawrence (1924-01-01). "The structure of aragonite". Proceedings of the Royal Society of London. Series A, Containing Papers of a Mathematical and Physical Character. 105 (729): 16–39. Bibcode:1924RSPSA.105...16B. doi:10.1098/rspa.1924.0002. ISSN 0950-1207.
Sinkankas, John (1964). Mineralogy for amateurs. Princeton, N.J.: Van Nostrand. pp. 371–372. ISBN 0442276249.
Cairncross, B.; McCarthy, T. (2015). Understanding Minerals & Crystals. Cape Town: Struik Nature. p. 187. ISBN 978-1-43170-084-4.
Calvo, Miguel (2012). Minerales y Minas de España. Vol. V. Carbonatos y Nitratos. Madrid: Escuela Técnica Superior de Ingenieros de Minas de Madrid. Fundación Gómez Pardo. pp. 314–398. ISBN 978-84-95063-98-4.
Pukanská, Katarína; Bartoš, Karol; Bella, Pavel; Gašinec, Juraj; Blistan, Peter; Kovanič, Ľudovít (4 July 2020). "Surveying and High-Resolution Topography of the Ochtiná Aragonite Cave Based on TLS and Digital Photogrammetry". Applied Sciences. 10 (13): 4633. doi:10.3390/app10134633.
Gonzalez, Luis A.; Lohmann, Kyger C. (1988). "Controls on Mineralogy and Composition of Spelean Carbonates: Carlsbad Caverns, New Mexico". In James, Noel P.; Choquette, Philip W. (eds.). Paleokarst. New York: Springer-Verlag. pp. 81–101. doi:10.1007/978-1-4612-3748-8. ISBN 978-1-4612-3748-8.
Balaz, Christine (2009). An Explorer's Guide: Utah. Vermont: The Countryman Press. p. 368. ISBN 978-0-88150-738-6.
Newell, Norman D.; Purdy, Edward G.; Imbrie, John (1960). "Bahamian Oölitic Sand". The Journal of Geology. 68 (5): 481–497. Bibcode:1960JG.....68..481N. doi:10.1086/626683. ISSN 0022-1376. S2CID 129571671.
Nesse, William D. (2000). Introduction to mineralogy. New York: Oxford University Press. pp. 336–337. ISBN 9780195106916.
Boggs, Sam (2006). Principles of sedimentology and stratigraphy (4th ed.). Upper Saddle River, N.J.: Pearson Prentice Hall. pp. 161–164. ISBN 0131547283.
Belcher, A. M.; Wu, X. H.; Christensen, R. J.; Hansma, P. K.; Stucky, G. D.; Morse, D. E. (May 1996). "Control of crystal phase switching and orientation by soluble mollusc-shell proteins". Nature. 381 (6577): 56–58. Bibcode:1996Natur.381...56B. doi:10.1038/381056a0. S2CID 4285912.
Chateigner, D.; Ouhenia, S.; Krauss, C.; Belkhir, M.; Morales, M. (February 2010). "Structural distortion of biogenic aragonite in strongly textured mollusc shell layers". Nuclear Instruments and Methods in Physics Research Section B: Beam Interactions with Materials and Atoms. 268 (3–4): 341–345. Bibcode:2010NIMPB.268..341C. doi:10.1016/j.nimb.2009.07.007.
Loftus, Emma; Rogers, Keith; Lee-Thorp, Julia (November 2015). "A simple method to establish calcite:aragonite ratios in archaeological mollusc shells: CALCITE:ARAGONITE IN ARCHAEOLOGICAL SHELLS". Journal of Quaternary Science. 30 (8): 731–735. doi:10.1002/jqs.2819. S2CID 130591343.
Mychaluk, Keith A.; Levinson, Alfred A.; Hall, Russel L. (Spring 2001). "Ammolite: Iridescent fossilized ammonite from southern Alberta, Canada" (PDF). Gems & Gemology. 37 (1): 4–25. doi:10.5741/GEMS.37.1.4. Retrieved 1 August 2021.
Wang, Jang; Jahren, A. Hope; Amundsen, Ronald (1996). "Potential For [Carbon 14] Dating Of Biogenic Carbon In Hackberry (Celtis) Endocarps" (PDF). Quaternary Research. 47: 337–343. doi:10.1006/qres.1997.1894. S2CID 49232599.[permanent dead link]
Bialik, Or M.; Sisma-Ventura, Guy; Vogt-Vincent, Noam; Silverman, Jacob; Katz, Timor (24 September 2022). "Role of oceanic abiotic carbonate precipitation in future atmospheric CO2 regulation". Scientific Reports. 12 (1): 15970. doi:10.1038/s41598-022-20446-7. PMC 9509385. PMID 36153366.
Tucker, Maurice E. (1990). Carbonate sedimentology. Oxford [England]: Blackwell Scientific Publications. ISBN 9781444314175.
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Bonatti, E.; Lawrence, J.R.; Hamlyn, P.R.; Breger, D. (August 1980). "Aragonite from deep sea ultramafic rocks". Geochimica et Cosmochimica Acta. 44 (8): 1207–1214. Bibcode:1980GeCoA..44.1207B. doi:10.1016/0016-7037(80)90074-5.
Runnegar, B. (1987). "Shell microstructures of Cambrian molluscs replicated by phosphate". Alcheringa: An Australasian Journal of Palaeontology. 9 (4): 245–257. doi:10.1080/03115518508618971.
Sand, K.K., Rodriguez-Blanco, J.D., Makovicky, E., Benning, L.G. and Stipp, S. (2012) Crystallization of CaCO3 in water-ethanol mixtures: spherulitic growth, polymorph stabilization and morphology change. Crystal Growth & Design, 12, 842-853. doi:10.1021/cg2012342.
Carlson, W.D. (1980). "The calcite–aragonite equilibrium: effects of Sr substitution and anion orientational disorder". American Mineralogist. 65 (11–12): 1252–1262. Retrieved 31 July 2021.
Ulian, Gianfranco; Valdrè, Giovanni (2022-09-01). "Structural and elastic behaviour of aragonite at high-pressure: A contribution from first-principle simulations". Computational Materials Science. 212: 111600. doi:10.1016/j.commatsci.2022.111600. ISSN 0927-0256. S2CID 250059382.
Fyfe, W.S. (1964). "Calcite aragonite problem" (PDF). AAPG Bulletin. 48 (4): 526. Retrieved 31 July 2021.
Kitano, Yasushi; Park, Kilho; Hood, Donald W. (November 1962). "Pure aragonite synthesis". Journal of Geophysical Research. 67 (12): 4873–4874. Bibcode:1962JGR....67.4873K. doi:10.1029/JZ067i012p04873.
Blatt, Harvey; Middleton, Gerard; Murray, Raymond (1980). Origin of sedimentary rocks (2d ed.). Englewood Cliffs, N.J.: Prentice-Hall. ISBN 0136427103.
Ni, M.; Ratner, B.D. (2008). "Differentiation of Calcium Carbonate Polymorphs by Surface Analysis Techniques – An XPS and TOF-SIMS study". Surf. Interface Anal. 40 (10): 1356–1361. doi:10.1002/sia.2904. PMC 4096336. PMID 25031482.
Kamiya, Kanichi; Sakka, Sumio; Terada, Katsuyuki (November 1977). "Aragonite formation through precipitation of calcium carbonate monohydrate". Materials Research Bulletin. 12 (11): 1095–1102. doi:10.1016/0025-5408(77)90038-1.
Orr, J. C., et al. (2005) Anthropogenic ocean acidification over the 21st century and its impact on calcifying organisms. Nature 437: 681-686
Köhler, S., Cubillas, et al. (2007) Removal of cadmium from wastewaters by aragonite shells and the influence of other divalent cations. Environmental Science and Technology, 41, 112-118. doi:10.1021/es060756j
Krauter, PW; Harrar, JE; Orloff, SP; Bahowick, SM (1996). "Test of a Magnetic Device for Amelioration of Scale Formation at Treatment Facility D" (PDF). Internal Report. Lawrence Livermore National Laboratory. doi:10.2172/567404. OSTI 567404. Retrieved 2009-12-11.
Coey, J.M.D. (November 2012). "Magnetic water treatment – how might it work?". Philosophical Magazine. 92 (31): 3857–3865. Bibcode:2012PMag...92.3857C. doi:10.1080/14786435.2012.685968. S2CID 96367372.
Kozic, Viljem; Hamler, Anton; Ban, Irena; Lipus, Lucija C. (October 2010). "Magnetic water treatment for scale control in heating and alkaline conditions". Desalination and Water Treatment. 22 (1–3): 65–71. doi:10.5004/dwt.2010.1549.
I'm now adding 9 in the 9th position from the left (the rightmost position, the ones position). This is done in 2 steps: add 10, subtract 1. In this step I add 10 by adding 1 in the tens position.
Justine Cassell, Associate Dean, Technology, Strategy and Impact, .School of Computer Science, Carnegie Mellon University, USA speaking during the Session "Compassion through Computation: Fighting Algorithmic Bias" at the Annual Meeting 2019 of the World Economic Forum in Davos, January 23, 2019. Congress Centre - Betazone
Copyright by World Economic Forum / Jakob Polacsek
Justine Cassell, Associate Dean, Technology, Strategy and Impact, .School of Computer Science, Carnegie Mellon University, USA speaking during the Session "Compassion through Computation: Fighting Algorithmic Bias" at the Annual Meeting 2019 of the World Economic Forum in Davos, January 23, 2019. Congress Centre - Betazone
Copyright by World Economic Forum / Jakob Polacsek
I'm now subtracting 8 in the 8th position from the left. This is done in 2 steps: subtract 10, add 2. In this step I add 2.
I'm now subtracting 6 in the 6th position from the left. This is done in 3 steps: subtract 10, add 5, subtract 1. In this step I add 5.
This is UGA's only significant building of the 1990s - the Chemistry Annex or Computational Chemistry building, by Lord, Aeck & Sargent (with Joe Greco as project lead). I've always been fond of it. It's a Miesian box, encased in a structural cage and hoisted not only above ground but away from it; the primary entry is by a short but still exciting catwalk. The show-offy structure of the entrance canopy, and the old-school sans-serif font, combine with the dark mullions and reflective glass to make the building seem considerably older than it is; I wouldn't be surprised if it's on somebody's itinerary of mid-century gems in Georgia.
I'm now subtracting 3 in the 3rd position from the left. This is done in 2 steps: subtract 5, add 2. In this step I subtract 5.
THE JOINT COMPUTATIONAL ENGINEERING LABORATORY AT SANDIA NATIONAL LABORATORY.
The Joint Computational Engineering Laboratory can house 175 researchers and support staff. The JCEL facility was funded by DOE-NNSA's Advanced Simulation and Computing Program and represents an integral part of the Microsystems and Engineering Sciences Applications (MESA) Project. JCEL is a significant upgrade, consolidation and enlargement of Sandia's Computational capabilities which are important to DOE/NNSA's stockpile stewardship mission.
For more information or additional images, please contact 202-586-5251.
drawing on canvas with trear physics tendrils using texones creative computing framework which is based on processing
Computationally designed jewelry. Made with Processing + HE_Mesh + OpenSCAD. 3D printed in Gold Plated Brass.
I'm now subtracting 3 in the 3rd position from the left. This is done in 2 steps: subtract 5, add 2. In this step I add 2.
Computation in geometric and combinatorial group theory
Jul 11 - Jul 15, 2016 www.icms.org.uk/workshops/computationgeo
Experiments with Python programming and computational art. This uses the "Boids" Library to create the points for the continuous curves and star positions, and a nice analogous color palette. Similar to some of the example code - with some designer twists.
Justine Cassell, Associate Dean, Technology, Strategy and Impact, .School of Computer Science, Carnegie Mellon University, USA speaking during the Session "Compassion through Computation: Fighting Algorithmic Bias" at the Annual Meeting 2019 of the World Economic Forum in Davos, January 23, 2019. Congress Centre - Betazone
Copyright by World Economic Forum / Jakob Polacsek
Computational domes. The design is generated with shape grammars and the construction is adapted with a catenary-simulation. Scripted in Processing.
The Biological Sciences Facility and the Computational Sciences Facility — together valued at about $75 million — partially replace laboratory and office space Pacific Northwest National Laboratory has been using on the south end of the nearby Hanford Site.
PNNL scientists will advance biological systems science and data-intensive computing using these facilities.
For more information, go to www.pnl.gov/news
Terms of Use: Our images are freely and publicly available for use with the credit line, "Courtesy of Pacific Northwest National Laboratory." Please use provided caption information for use in appropriate context.
PI: Giulia Galli, University of Chicago
The interfaces between solids, nanoparticles and liquids play a fundamental role in determining the properties of materials. With an understanding of the microscopic structure of solid–water and solid–electrolyte interfaces, researchers can better predict the properties of photocathodes for water splitting in the production of clean fuels and energy conversion in solar cells.However, the properties of interfaces are seldom explicitly included in ab initio models, due to the complexity and cost of the associated calculations.
This image depicts complex interfaces between nanoparticles and a solvent.
The results can be used to interpret experiments and to optimize materials properties to improve clean fuel production and solar energy applications. This work will help establish a robust strategy to enable the comparison of ab initio data with experiments carried out at light sources, such as Argonne’s Advanced Photon Source. Ultimately, the results could lead to analysis tools for spectroscopic data that can be used by theorists and experimentalists alike.
Image credit: N. Brawand, University of Chicago.
Scientific discipline: Materials Science: Condensed Matter and Materials
This research used resources of the Argonne Leadership Computing Facility at Argonne National Laboratory.
Paris Philharmonic Hall
HDA : Facade Designer
Architect : Ateliers Jean Nouvel
Client : Philarmonie de Paris
Date : 2007- 2013
See more at : www.hda-paris.com
I'm now subtracting 8 in the 8th position from the left. This is done in 2 steps: subtract 10, add 2. In this step I subtract 10 by subtracting 1 in the 7th position from the left.
Ribbon cutting for the Institute for Advanced Computational Sciences, followed by a reception and tours.
I'm now subtracting 6 in the 6th position from the left. This is done in 3 steps: subtract 10, add 5, subtract 1. In this step I subtract 1.
This is a cartoon character that drew a "poor physical condition of the people."
These illustrations path I have to express the "physical condition is bad various states."
It draws with Photoshop. It is a very unique mascot character.
LINE Sticker
「T-KONI`s Art Gallery」（Imagekind.com）
「T-KONI`s Unique Products 」（Zazzle.com）
Author: Nelson Ribeiro
Date: 2009
Description: The presented finite element meshes of humerus and scapula were used to generate a computational model of an artificial shoulder that, within the Finite Element (FE) formulation, is capable of calculate wear rates in total shoulder prostheses for a certain type of arm movement. In orthopedics, FE models are able to predict pre-surgically the mechanical behavior of prosthesis. Indeed, quantitative data obtained from FE analysis may be an important resource for increasing the probability of successful therapeutic treatments, improving surgical planning, injury prevention and improving prosthesis design towards to better in vivo performances
Source: Ribeiro, N. S., Fernandes, P. C., Lopes, D. S., Folgado, J. O., Fernandes, P. R., 3-D Solid and Finite Element Modeling of Biomechanical Structures - A Software Pipeline, In: Proceedings of the 7th EUROMECH Solid Mechanics Conference, Portugal, 2009
Image and caption provided by: Nelson Ribeiro, IDMEC/IST-TU Lisbon