View allAll Photos Tagged replicator
Denna video visar uppackningen och demonstration av en MakerBot Replicator personliga FDM 3D-skrivare.
Vi är svenska återförsäljare av personliga 3D-skrivare. Kontakta info@creativetools.se eller 035-77 77 880 för mer information.
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This video shows the unboxing, setup and a short demonstration of the MakerBot Replicator personal 3D printer.
We are Swedish resellers of MakerBot. (info@creativetools.se / +46 35-77 77 880)
Replicate Designs produces Architectural Scale Models and Custom Displays along with props for advertising, movies and more.
Denna video visar uppackningen och demonstration av en MakerBot Replicator personliga FDM 3D-skrivare.
Vi är svenska återförsäljare av personliga 3D-skrivare. Kontakta info@creativetools.se eller 035-77 77 880 för mer information.
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This video shows the unboxing, setup and a short demonstration of the MakerBot Replicator personal 3D printer.
We are Swedish resellers of MakerBot. (info@creativetools.se / +46 35-77 77 880)
A loopable 360 degrees turntable study of the MakerBot Replicator 2X 3D printer.
makerbot.creativetools.se
My girl is wearing new fashion handmade by me. This green lace skirt is handsewn with a lower white cotton skirt and teal lace trimming.
A Moldovan army soldier (right), replicating Afghan National Army, drags a casualty to safety with the assistance of Georgian army soldiers from Alpha Company, 23rd Infantry Battalion during a training exercise at the Joint Multinational Readiness Center (JMRC) in Hohenfels, Germany, Feb. 23, 2012. The JMRC, working with U.S. Marine Forces Europe as part of the Georgia Deployment Program-International Security Assistance Force, conducts mission rehearsal exercises for Georgian infantry battalions to assist them in preparing to deploy for operations in Afghanistan.
(U.S. Army photo by Spc. Evangelia Grigiss/Not Released)
This shot was taken for the "Our Daily Challenge" topic of "Attempt to replicate something that has been on ODC Explore."
This is my attempt to replicate "The Pearl" by gloworm09
I think I like the lighting of the original better.
Denna video visar uppackningen och demonstration av en MakerBot Replicator personliga FDM 3D-skrivare.
Vi är svenska återförsäljare av personliga 3D-skrivare. Kontakta info@creativetools.se eller 035-77 77 880 för mer information.
---
This video shows the unboxing, setup and a short demonstration of the MakerBot Replicator personal 3D printer.
We are Swedish resellers of MakerBot. (info@creativetools.se / +46 35-77 77 880)
Raspberry Pi Case
www.thingiverse.com/thing:24721
Printed in translucent PLA on MakerBot Replicator.
HBP set to 60C with painter's tape surface.
Raspberry Pi Case
www.thingiverse.com/thing:24721
Printed in translucent PLA on MakerBot Replicator.
HBP set to 60C with painter's tape surface.
“Any users, found to replicate, reproduce, circulate, distribute, download, manipulate or otherwise use my images without my written consent will be in breach of copyright laws as well as contract laws.”
“The Eye Moment photos by Nolan H. Rhodes”
nrhodesphotos@yahoo.com
The right hand side and middle are my lines. The left hand side is the original pinstriping, which I had to copy over to the right, as well as the lettering.
The famous Replicator avatar of Grendel's Children. I did not use one in its entirety but assembled the elements of several of them around Alpha; since in their original state these avatars diverge too far from the human and would probably fall outside the Uncanny Valley's threshold.
I have replaced the "Drow" skin with the "Forge" skin designed by Vry Offcourse. This is not really a "nude" skin in that it covers the entire body with metal plates... I think this skin does actually bring Alpha closer into the threshold range.
Genome dynamics and stability are the ne plus ultra requirements for cellular life. No matter whether life began with metabolism, with self-replicating genetic molecules, or as a cooperative chemical phenomenon, all cells and viruses maintain a genome capable of multiplication, variation and heredity. A population of living entities with these properties will evolve by natural selection, and while modern metabolism supplies the monomers from which genomes (i.e. replicators) are made, genomes alter the kinds of chemical reactions occurring in metabolism (Maynard Smith and Szathmary 1997). This book deals with DNA repair and replication. Together with two other planned volumes,one on transposable elements and genome dynamics and another on recombination and meiosis as a key issue of the metazoan germline development, this volume introduces the conceptual frame work of the series. An earlier review on the classic monograph Mobile DNA (Berg and Howe 1989) was entitled“On the Impossibility of Knowing More. ”It states:“This big book indeed tells us everything but says nothing. It provides no conceptual framework as to what the burgeoning bulk of molecular data means, not out of intent but because it is swept along by an attitude found increasingly in science of ‘never mind the quality, feel the width’ ... the book is essentially uninformative regarding the biological importance of transposable elements in ontogeny and phylogeny” (Dover 1990). The present book series tries to circumvent such criticism. Of course, there have been milder opinions of the monumental Mobile DNA book as well (Brookfield 1989; Fincham 1989). Actually, the 2002 publication of its successor Mobile DNA II (Craig et al. 2002) impressively demonstrates the swift progress int his significant research field, which now not only largely addresses questions of evolutionary relevance but pragmatically feeds additional knowledge applied in human gene therapy or helps to understand the somatic maturation of the immune system by V(D)J recombination. The latter actually demonstrates the closeness of transposable element transposition to DNA repair as the V(D)J recombination reaction is completed by the non-homologous end joining (NHEJ) DNA repair pathway in lymphocyte development where the DNA double-strand break (DSB) is generated through the transposase (i.e. endonuclease) activity of an ancient transposable element. This transposon inserted into an ancestral vertebrate genome some 450 million years ago(Yuetal.1999). In line with this important interface between a vertebrate transposon and DSB repair, the second chapter of Part II of this book reports on asimilar relationship of the Drosophila P elements triggering DSBs and facilitating the understanding of the mechanisms of replication-dependent DSB repair. Other molecularly fossilized but experimentally revitalized transposable elements which promise to be o fbiomedical relevance are planned for an upcoming book volume. As Carl Woese recently said, it seems to be about time that biology makes a choice between the comfortable path of continuing to follow molecular biology’s lead or the more refreshing one seeking a new and inspiring vision of the living world (Woese 2004). To accomplish this is my goal with the book series Genome Dynamics and Stability, where this first volume is dedicated to integrative aspects of replication and DNA repair providing an overview of some facets and perspectives of genome integrity. DNA integrity is relevant for all organisms, and therefore it opens avenues of curiosity ranging from viroids in applied plant research to grasping biodiversity. This vision however must include pragmatic aspects of biomedical relevance as well. The book at hand is entitled Genome Integrity: Facets and Perspectives. It contains a rather broad spectrum of chapters representing key aspects of DNA repair with a slight bias towards DSB repair as justified by its importance. Actually, every chapter is self-sufficient and could serve as an independent entry point to the whole book. The sequence chosen starts with three chapters introducing replication as a fundamental aspect of life. Here, the first chapter gives a general introduction to replication worth to be read by undergraduate students as well as academics, while the second chapter attempts to present a concept towards an anatomy of the eukaryotic replication fork. The third chapter adds the aspect of human diseases to the two more fundamental aspects in Part I. Replication is then linked by two interface-chapters in Part II to the world of DSB repair. The second chapter of Part II first reviews the history of the discovery of the physical nature of the gene and gene mutations. Exploiting gene targeting as an experimental, technical pillar, it attempts to compose the different models of DSB repair into a unifying synthesis. This joins Part II with four key aspects of DSB repair representing Part III. These four key aspects review the structure and function of the Rad50/SMC protein complexes in chromosome biology, further focus on the simplest pathway for DSB repair, i.e. non-homologous endjoining (NHEJ), and focus on a central gatekeeper crucial to avoiding cancer development, i.e. p53, and the most complex role of chromatin in DSB repair. The chapter on DNA base damage recognition in Part IV introduces DNA repair pathways involving one-strand lesions and their pleiotropic interactions with cell physiological functions, such as cell cycle, apoptosis and examples of major human diseases. While DSBs can be triggered and their repair can be studied at precisely defined positions on nucleotide level within a given chromosome, DNA damage introduced through radiation and other genotoxic stress factors follows a slightly different research lead. This is the common theme of the four chapters in Part IV. Ion irradiation as a tool to reveal tracts of damage throughout the eukaryote nucleus reminds us of cloud or Wilson chamber experiments in atomic physics detecting elementary particles of ionizing radiation. Here, in the final chapter of Part V, the tract of damage in a cloud of chromatin is monitored using antibodies to proteins characteristic of specific DNA repair pathways, as discussed in the last chapter of Part III. The four final chapters are important for many reasons, ranging from a significance for irradiation treated cancer patients, or victims of the Chernobyl disaster to the exposure to cosmic radiation of astronauts on long-term space missions. The original idea forthis book came from the 8thmeeting of the DNA Repair Network in Ulm, Germany, and would not have been possible without the support of the Deutsche Gesellschaft für DNA-Reparaturforschung (DGDR). Here I would like to mention especially Jürgen Thomale, Alexander Bürkle, Lisa Wiesmüller, Bernd Kaina and Friederike Eckardt-Schupp, who supported the initial idea and acted in the background.Further I would like to thank the anonymous referees for doing a great job in peer reviewing and improving the manuscripts. I also thank the University of Heidelberg, which gave access to their electronic journal collection. Last but not least, I have to thank Sabine Schreck (Springer, Heidelberg) without whom I could never have engaged in this project. Ursula Gramm(Springer,Heidelberg) and Michael Reinfarth (LETeXGbR, Leipzig) did a fine job copye diting all manuscripts and the Springer team succeeded well in establishing the SpringerLink OnlineFirst version of this bookseries, which provides authors withmore flexibility in the individual handling of their contributions.
Small self-replicating bits of nucleic acid are a simple and essential intermediate in the origin of life, but calling them "viruses" is a stretch. The distinction is that so far as I know, every modern virus known to man is a) incapable of making protein and b) requires protein to function. This is no small distinction, because the entire elaborate structure of the ribosome and its associated factors and metabolic machinery are required for usual methods of protein synthesis. (There are some clever alternatives used for making antibiotics - see Nonribosomal peptide - but I'm not aware of any virus making a capsid, etc. using such tricks) I cannot swear to you that no primordial snippet of catalytic RNA could have survived from the beginning of the world until this day without ever having been part of a normal cycle of cell replication, but if it did, it has somewhere along the line developed a great need for ribosomes it doesn't have, and has borrowed enough sequences from ribosome-containing cells to make all the protein-coding genes we identify in it today.
Of course, you could postulate that self-replicating RNAs developed protein synthesis before the proper cell membrane, and then some never became part of cells. The problem is that it is hard to picture a complete protein biochemistry, at least one of the usual ribosome-oriented type with loose aminoacyl-tRNAs and the wizard's stew of biochemical precursors to amino acids, existing free or within a typical tight-packed viral capsid. One would think that the such a protein synthesis machinery open to the environment would have special adaptations to keep components from escaping, and probably would have use some more rudimentary genetic code than the completed cell. Yet none of these primitive features show up in viruses either.
The bottom line is that viruses by their nature could have picked up snippets of code anywhere, but they are not primordial organisms from the first days of life. Wnt (talk) 15:32, 8 August 2008 (UTC)
Replicate Designs produces Architectural Scale Models and Custom Displays along with props for advertising, movies and more.
Following up on the exploration of Alan Jaras, David Hull and John Swierzbin I used my modified brain wave camera to examine the area around BL86/DS51/R15. It seems John's worst fears regarding gamma ray energy are confirmed. These high energy sources are somehow combining to form light or energy entities. They seem able to replicate. Is this a new lifeform. If so it seems more like a virus using whole planets and stars as a host in order to multiply. The edge of the galaxy is now littered with lifeless dead planets
Single long macro exposure
Replicating a move by the Pennsylvania Reading Seashore Lines from years ago where trains from Camden would come to Tuckahoe, and then split up depending on which shore point they were headed to. In this case, the RDC was headed south on the Cape May Branch - November 2006
Here's a view of Aaron Delehanty’s desk in the Replications Lab. He is testing resin samples with different surface treatments and colors. Replicating objects with the degree of accuracy required for exhibitions involves a deep understanding of your materials. The work demands diligence, curiosity, continued practice, and ongoing experimentation with materials. Replications artists are a bit like chemists perfecting a formula.
(c) The Field Museum, photo by Emily Krakoff
Replicating the Geek to Freak chapter from the 4 Hour Body. It is the Science of Building Lean Muscle FAST!!!
See my progress on with the routine on geektoFREAK.net
Follow on twitter @geektoFREAK
Veterans Memorial Park, Cape Coral, Florida. This memorial park was a very moving experience for me and I was compelled to take a moment for a silent prayer and to salute the flag as a former member of the US Navy.