STARFLEET COMMAND's SEVENTH FLEET Advanced Technical

Total Page:16

File Type:pdf, Size:1020Kb

STARFLEET COMMAND's SEVENTH FLEET Advanced Technical STARFLEET COMMAND’S SEVENTH FLEET U.S.S. White Buffalo - NCC 80116 Advanced Technical Specifications for the Luna-Class Production Vehicle U.S.S. White STARFLEET COMMAND’S SEVENTH FLEET Buffalo NCC 80116 Quantum Singularity Core + Slipstream Drive Information Packet Revised: 07 - 2018 | U.S.S. White Buffalo - N.C.C. 80116 (Revised: 07-2018) STARFLEET COMMAND’S SEVENTH FLEET U.S.S. White Buffalo - NCC 80116 Quantum Singularity Core + Slipstream Drive Information Packet Quantum Singularity Core Intro: Since I started working on the White Buffalo’s QSC, I discovered that everything I knew about Quantum Singularities and how they could be manipulated to create enough power to not only sustain a warp reaction, but that they could also power a vessel as large as, or larger than, 1,041.65 Meters Long, 772.43 Meters Width, 285.47 Meters Tall, and with a Mass of 4,320,000 Metric Tons. With this kind of power a Federation Starship would be able to maintain a more stable warp reaction, power all of its systems at one time, (Provided your power network could also maintain the power flow) and even maintain power for systems outside of the ship, like shields, tractor beam, the deflector dish, or much more. I also discovered that few onboard understood the propulsion mechanics involved with the QSC, Including myself. Having to adapt to a power core, and warp system like this because the Orion Syndicate ripped it from a Romulan Warbird and placed it into a Federation Aerie Class starship was interesting enough, but then to figure out how to use it without destroying not only the ship, but possibly the fabric of space-time itself was almost daunting to say the least. So here it is the basics of the Quantum Singularity Core. Quantum Singularity: A quantum singularity, or black hole, is an incredibly dense remnant of a star which has collapsed in on itself with such a force of gravity it pulls in everything in the electromagnetic spectrum, including light. The formation of a black hole could sometimes be observed in a supernova. People in the Federation sometimes referred to them as Hawking black holes after the 20th century Earth scientist, Professor Stephen Hawking. Bringing the QSC Online: The QS is generated by a focused, directed quantum field through the reaction chamber (similar to a deflector dish) which when surrounded by an enhanced Inertial Dampening Field around the reactor stabilizes the chamber reaction and tricks the ship into believing that its “lighter” than it really is. Then with the buildup of the quantum field causes a gravimetric reaction to occur creating an artificial singularity. Fuel: Buzzard ramscoops take in Hydrogen, (matter) to continuously “feed” into the singularity. The gravity from the singularity then pulls the matter together, forcing it to not only fuse, but to bump into each other, etc. This causes an enormous amount of energy to be obtained. Warp/Ship Power: The reactor itself produces enough superheated plasma from the amount of radiation the singularity produces to be fed into the vessels nacelles to power the vessels warp reaction. Stealth: In order to remain undetected while cloaked, nullifier cores were used to precisely balance the radiative emissions of the ship's engines. Shut Down: Once the QSC is online it can never be turned off, unless at a Starbase or Fleet Yard by flooding the core’s tank with an Anti-Gravimetric Polarization Field. Once the QS has been neutralized it cannot be re-initialized, and a new chamber reaction would be needed to start a new Quantum Singularity. Sources: Memory Alpha Memory Beta Search: Romulan Technology Search: Quantum Singularity http://en.memory-alpha.org/wiki/Romulan_technology http://memory-beta.wikia.com/wiki/Quantum_singularity Memory Alpha Freedom Wiki Search: Singularity Search: Quantum Singularity http://en.memory- http://www.startrekfreedom.com/wiki/index.php/Quantum_Singularity alpha.org/wiki/Artificial_quantum_singularity#Artificial_quantum_singularity Rakata Memory Alpha http://www.towardsfreedom.com/wdh/rakata/quantumdrive.htm Search: Hirogen http://en.memory-alpha.org/wiki/Hirogen Images: Quantum Imaging Scan Romulan D’deridex Class Core Note: On the following pages are the ship deck plans, these are not entirely to scale. 1 - (Revised: 07-2018) STARFLEET COMMAND’S SEVENTH FLEET U.S.S. White Buffalo - NCC 80116 Quantum Singularity Core + Slipstream Drive Information Packet Quantum Slipstream Drive Intro: When Starfleet started making changes fleet-wide to all the ships capable of utilizing slipstream, we were lucky enough to get our hands on the impressive technological data so we could include slipstream into our system. Since the QSC was capable of creating our Warp Bubble allowing us to use standard warp this new technology would allow us a new medium for faster than warp propulsion. Slipstream: A faster than warp propulsion system used originally by Voyager from technology acquired from species 116 in the Delta Quadrant in 2374. A test of the drive about a year later almost destroyed Voyager. Propulsion: The QSD is a narrowly-focused, directed warp field through the vessel’s main deflector that is initiated by manipulating the fabric of the space-time continuum at the quantum level, (The Quantum Barrier) Phase Variance: In order to maintain the slipstream, the phase variance of the quantum field had to be constantly adjusted, or the slipstream would collapse, violently throwing the ship back into normal space. Preparing for that, Starfleet Vessels had to be outfitted with special Quantum Variance Sensors to detect the subtle changes. An added micro computer calculates the Quantum Variances automatically and adjusts for the variances. Added Deflector Arrays: Since long term use of the Slipstream through the ships deflector array was never intended or could be maintained, two Spatial Deflector Arrays were added to all Quantum Drive vessels. Power Consumption: Generating slipstream corridors requires more power than forming warp fields; the power required is directly related to the frontal geometry of a vessel and lesser so the ship geometry. Therefore, slipstream propelled ships are generally narrow and compact with aerodynamic lines. Note: Since the White Buffalo is going to be using a Quantum Singularity Core, the power consumption is not a problem, and the gravitational matrix of the ship is already well below that of a standard federation starship due to the Enhanced Inertial dampening field around the Quantum Singularity Core. Focused Energy: Benamite Crystals are used to focus the energy from the core through the Spatial Deflector dish to create the required quantum field. A Benamite Re- crystallization Matrix is used to keep the crystals stable. Sources: Memory Alpha Star Trek Online Search: Quantum Slipstream Drive Search: Quantum Slipstream Drive http://en.memory-alpha.org/wiki/Quantum_slipstream_drive http://www.stogeek.com/wiki/Quantum_Slipstream_Drive Memory Beta Star Trek Expanded Universe Wikia Search: Quantum Slipstream Drive Search: Quantum Slipstream Drive http://memory-beta.wikia.com/wiki/Quantum_slipstream_drive http://stexpanded.wikia.com/wiki/Quantum_slipstream_drive Slipstream Images: Quantum Slipstream Energy Flow Simulation Slipstream Tunnel Note: On the following pages are the ship deck plans, these are not entirely to scale. 2 - (Revised: 07-2018) STARFLEET COMMAND’S SEVENTH FLEET U.S.S. White Buffalo - NCC 80116 Quantum Singularity Core + Slipstream Drive Information Packet Voyager’s Quantum Slipstream Drive Dauntless Quantum Slipstream Drive Transwarp Drive Intro: Ok, Although our Slipstream Drive is much like the Transwarp Drive Described in many sources, I would like to state first that like Slipstream, many races use various forms of Warp, and Faster than Warp Drives. So to pin down one exact form of Warp, or FTW System is not easy since they are all so different, even Starfleet who has experimented with 4 or more various types of Transwarp. U.S.S. Excelsior – Theoretically due to logs, and information gathered by Starfleet The Excelsior’s Transwarp Drive should have worked perfectly. Its Computer system although didn’t. Since Starfleet couldn’t answer to why this system didn’t work after its initial tests, and its shakedown, the project was scrubbed. Since the Warp system of the time was dramatically different from what the USS Enterprise D used it is believed that the Engineers at Utopia Planetia had used the Excelsior’s Transwarp system, but dropped the “Trans” part of the word since it no longer seemed to fit the method of travel. The Enterprise D experimented with a new form of Transwarp when they encountered the Borg, Since the Borg were in fact using a Transwarp Corridor, and thus had never been witnessed by Starfleet, the Enterprise crew were forced to make snap judgments about how it worked. It was theorized at the time that one could travel 20 times Warp Speed though one of these Corridors. The Enterprise was able to open a Corridor using a specific Subspace Frequency, however it now believed that what happened was akin to when the Enterprise A opened a “Wormhole” because of a disruption in their engines, which caused the frequency in the warp field to change. The Enterprise D’s Internal Dampeners are much stronger and would have been able to adapt to the “Wormhole Effect” Inside the ship. USS Voyager experimented with their own form of Transwarp twice. Once was when Lt. Tom Paris piloted a modified Type 9 shuttle, and accelerated to warp 10 and caused Lt. Paris to “occupy every point in time and space” simultaneously. The effect of Voyager’s experimentation was a metamorphosis of anyone breaking the Warp 10 Barrier, giving the effect a new name, Transwarp Evolutionary Syndrome. Ok, so what is Transwarp? Transwarp is a FTW Drive that, like Slipstream, Propels the vessel past the warp speed barrier. Since the understanding of Slipstream, Starfleet has found a way to enter a “Wormhole” and between the Warp 10 to warp 20 speeds catching up to the slowest of Slipstream Velocities.
Recommended publications
  • The Physics of Star Trek the Physics of Star Trek
    The Physics of Star Trek The Physics of Star Trek The Physics of Star Trek The Physics of Star Trek FOREWORD Stephen Hawking I was very pleased that Data decided to call Newton, Einstein, and me for a game of poker aboard the Enterprise. Here was my chance to turn the tables on the two great men of gravity, particularly Einstein, who didn't believe in chance or in God playing dice. Unfortunately, I never collected my winnings because the game had to be abandoned on account of a red alert. I contacted Paramount studios afterward to cash in my chips, but they didn't know the exchange rate. Science fiction like Star Trek is not only good fun but it also serves a serious purpose, that of expanding the human imagination. We may not yet be able to boldly go where no man (or woman) has gone before, but at least we can do it in the mind. We can explore how the human spirit might respond to future developments in science and we can speculate on what those developments might be. There is a two-way trade between science fiction and science. Science fiction suggests ideas that scientists incorporate into their theories, but sometimes science turns up notions that are stranger than any science fiction. Black holes are an example, greatly assisted by the inspired name that the physicist John Archibald Wheeler gave them. Had they continued with their original names of “frozen stars” or “gravitationally completely collapsed objects,” there wouldn't have been half so much written about them.
    [Show full text]
  • Spacetime Geometry from Graviton Condensation: a New Perspective on Black Holes
    Spacetime Geometry from Graviton Condensation: A new Perspective on Black Holes Sophia Zielinski née Müller München 2015 Spacetime Geometry from Graviton Condensation: A new Perspective on Black Holes Sophia Zielinski née Müller Dissertation an der Fakultät für Physik der Ludwig–Maximilians–Universität München vorgelegt von Sophia Zielinski geb. Müller aus Stuttgart München, den 18. Dezember 2015 Erstgutachter: Prof. Dr. Stefan Hofmann Zweitgutachter: Prof. Dr. Georgi Dvali Tag der mündlichen Prüfung: 13. April 2016 Contents Zusammenfassung ix Abstract xi Introduction 1 Naturalness problems . .1 The hierarchy problem . .1 The strong CP problem . .2 The cosmological constant problem . .3 Problems of gravity ... .3 ... in the UV . .4 ... in the IR and in general . .5 Outline . .7 I The classical description of spacetime geometry 9 1 The problem of singularities 11 1.1 Singularities in GR vs. other gauge theories . 11 1.2 Defining spacetime singularities . 12 1.3 On the singularity theorems . 13 1.3.1 Energy conditions and the Raychaudhuri equation . 13 1.3.2 Causality conditions . 15 1.3.3 Initial and boundary conditions . 16 1.3.4 Outlining the proof of the Hawking-Penrose theorem . 16 1.3.5 Discussion on the Hawking-Penrose theorem . 17 1.4 Limitations of singularity forecasts . 17 2 Towards a quantum theoretical probing of classical black holes 19 2.1 Defining quantum mechanical singularities . 19 2.1.1 Checking for quantum mechanical singularities in an example spacetime . 21 2.2 Extending the singularity analysis to quantum field theory . 22 2.2.1 Schrödinger representation of quantum field theory . 23 2.2.2 Quantum field probes of black hole singularities .
    [Show full text]
  • Black Holes Are Quantum Complete
    Black holes are quantum complete Marc Michael Schneider Munchen¨ 2018 Black holes are quantum complete Marc Michael Schneider Dissertation an der Fakult¨at fur¨ Physik der Ludwig{Maximilians{Universit¨at Munchen¨ vorgelegt von Marc Michael Schneider aus Trier Munchen,¨ den 6. August 2018 Erstgutachter: Prof. Dr. Stefan Hofmann Zweitgutachter: Prof. Dr. Peter Mayr Tag der mundlichen¨ Prufung:¨ 14. September 2018 Only those who will risk going too far can possibly find out how far one can go. { Thomas Stearns Eliot { (Preface to Transit of Venus: Poems) Contents Zusammenfassung xi Abstract xiii 1. Concerning singularities 1 2. The fellowship of completeness 7 2.1. Classical completeness . .7 2.2. Quantum mechanical completeness . .9 2.3. Quantum-mechanical versus classical completeness . 14 2.4. Geodesic completeness . 17 2.5. Quantum-mechanical probes of space-time singularities . 21 3. The two singularities 27 3.1. The gravitational singularity . 28 3.2. The generalised Kasner singularity . 36 4. The return of regularity 45 4.1. The Schr¨odinger representation of quantum field theory . 46 4.1.1. Functional calculus . 47 4.1.2. Flat space-time formulation . 50 4.1.3. Curved space-time formulation . 59 4.2. The quantum completeness criterion . 66 viii Contents 4.3. Quantum probing of Schwarzschild . 72 4.3.1. Ground state analysis . 73 4.3.2. Gaussian deviations: Excited states . 79 4.3.3. Influence of polynomial self-interactions . 84 4.3.4. Stress-energy tensor of quantum probes . 91 4.4. Charge conservation inside the black hole . 96 4.5. Quantum probing of the Kasner space-time .
    [Show full text]
  • Area/Entropy Laws, Traversable Wormholes, and the Connections Between Geometry and Entanglement
    University of California Santa Barbara Area/Entropy Laws, Traversable Wormholes, and the Connections Between Geometry and Entanglement A dissertation submitted in partial satisfaction of the requirements for the degree Doctor of Philosophy in Physics by Brianna Michelle Grado-White Committee in charge: Professor Donald Marolf, Chair Professor Gary Horowitz Professor Claudio Campagnari September 2020 The Dissertation of Brianna Michelle Grado-White is approved. Professor Gary Horowitz Professor Claudio Campagnari Professor Donald Marolf, Committee Chair August 2020 Area/Entropy Laws, Traversable Wormholes, and the Connections Between Geometry and Entanglement Copyright c 2020 by Brianna Michelle Grado-White iii Acknowledgements Firstly, I would like to thank my advisor, Don, for not only providing guidance, support, and ideas, but also filling the halls of the sixth floor of Broida with the sounds of echoing laughter. Of course I am also grateful to the larger community of friends and colleagues at UCSB as a whole { Seth, Gabriel, and Alex for our little high energy theory community at UCSB; Marija for a final year of friendship and physics; and Eric Jones (and the rest of UDIP and WIP) for always caring about and improving the larger world around you. Finally, I would like to thank my family for always being the just the right amount of crazy and passing it along to me, as it seems to be a prerequisite for studying physics. This work was supported in part by National Science Foundation's Graduate Research Fellowship. iv Curriculum Vitæ Brianna Michelle Grado-White Education 2020 Ph.D. in Physics (Expected), University of California, Santa Bar- bara.
    [Show full text]
  • Starship Recognition Manual 5
    r SPACEDOCK i STARSHIP RECOGNITION MANUAL - VOLUMEy FIVE SHIPS OF THE ROMULAN STAR EMPIREq n l m b v “AH, ROMULUS. HOW WELL I REMEMBER IT. YOU WILL FIND THE PREDOMINANT COLOUR TO BE GREY– THE BUILDINGS, THE CLOTHES, THE PEOPLE. DID YOU KNOW THAT THE ROMULAN HEART, ITSELF, IS GREYc?” -ELIM GARAK, “INTER ARMA ENIM SILENT LEGES”f d ship recognition manual volume five SHIPS OF THE ROMULAN STAR EMPIRE THE SHIP RECOGNITION MANUAL, VOLUME FIVE: STARSHIPS OF THE ROMULAN STAR EMPIRE Author: Steven S. Long Icon System™ Design: Christian Moore, Steven S. Long with Kenneth Hite, Ross Isaacs Layout: Chris Huth Special Thanks To: Yves Sakai, for even more tapes from Hawaii; Chris Huth, for doing a stellar job with the layout; and Don “the Man” Mappin and Owen Oulton, for making this book available via TrekRPG.Net. Special thanks also to all the Spacedock fans who have waited patiently for about two years now (Er, five years – Ed.) while I found the time to finish this book! Although I’ve been happily chugging along with my Hero-ic pursuits in that period, I’m glad I was finally able to complete the Romulan SRM. Testreaders: My thanks to the fans who took the time to read over the manuscript for this book and help me make it better still: Andreas Bodensohn; Fred Davis; William Elstob; Joe Flynn; Tim Freeby; Dan Gurden; Matt Hegarty; Craig Johnson; Scott MacGregor; Alexan- dre Maier; Russell McKenry; Phoenix Merrick; Peter Michalenka; Doug Odell; Chris Patrick; Ben Pollack; Bill Ramsey; Jody Rich; Dale Russell; Daniel Ryba; Michael Scott; Paul “Legate Legion” Short; SIRSIG; Daniel Stack; N.
    [Show full text]
  • 2007 EDITION STARFLEET MARINE CORPS Xenostudies Romulan Manual
    2007 EDITION STARFLEET MARINE CORPS Xenostudies Romulan Manual 2007 Edition This manual is published by the STARFLEET Marine Corps, a component of STARFLEET, the International Star Trek Fan Association, Inc., and released under the Creative Commons Attribution-NonCommercial-NoDerivs 2.5 License (http://creativecommons.org/licenses/by- nc-nd/2.5/). You may freely copy, distribute, display, and perform this manual, but all other uses are strictly prohibited unless written permission is received from the Commandant or Deputy Commandant, STARFLEET Marine Corps. The STARFLEET Marine Corps holds no claims to any trademarks, copyrights, or other properties held by Paramount, other such companies or individuals. Published: May 2007 XR Manual Contents Part 1 - Introduction ��������������������������������������������������������1 Copyright and Disclaimer ��������������������������������������������������������������������������������������� 1 Pronoun Disclaimer ����������������������������������������������������������������������������������������������� 1 Acknowledgements ������������������������������������������������������������������������������������������������ 1 Reporting Authority ����������������������������������������������������������������������������������������������� 1 Part 2 - The Romulan Star Empire ������������������������������������2 Ch’Rihan ���������������������������������������������������������������������������������������������������������������� 3 Ch’Havran ��������������������������������������������������������������������������������������������������������������
    [Show full text]
  • Hyperspace (Science Fiction) 1 Hyperspace (Science Fiction)
    Hyperspace (science fiction) 1 Hyperspace (science fiction) Hyperspace is a plot device sometimes used in science fiction. It is typically described as an alternate region of space co-existing with our own universe which may be entered using an energy field or other device. Travel in hyperspace is frequently depicted as faster-than-light travel in normal space. Hyperspace is sometimes used to enable and explain faster than light (FTL) travel in science fiction stories where FTL is necessary for interstellar travel or intergalactic travel. Spacecraft able to use hyperspace for FTL travel are sometimes said to have a hyperdrive. Detailed descriptions of the mechanisms of hyperspace travel are often provided in stories using the plot device, sometimes incorporating some actual physics such as relativity or string theory in order to create the illusion of a seemingly plausible explanation. Hyperspace travel is nevertheless a fictional technology. Authors may develop alternative names for hyperspace in their works, such as the Immaterium (used in Warhammer 40,000), slip space in the Halo universe, Z space in Animorphs, or "Underspace" (U-space), commonly referred to in the works of Neal Asher. Normal space In normal 3-D space, the "shortest path" between two events A and B is found in the following way. First, look at all paths in 4-D space-time between A and B, and find the space-time path that takes the shortest time to traverse. Because of relativity, there is no such thing as universal time: so let the time be measured with respect to a clock whose motion matches the space-time path.
    [Show full text]
  • Raychaudhuri Equation at the Crossroads
    Digitized by the Internet Archive in 2018 with funding from Public.Resource.Org https://archive.org/details/raychaudhuriequaOOunse Special issue on Raychaudhuri equation at the crossroads . Special Issue on Raychaudhuri equation at the crossroads Guest Editors Naresh Dadhich Pankaj Joshi Probir Roy Published by Indian Academy of Sciences Bangalore © 2007 Indian Academy of Sciences Reprinted from Pramana - J. Phys. Vol. 69, No. 1, July 2007 ISSN No. 0304-4289 Edited by Naresh Dadhich, Pankaj Joshi and Probir Roy and printed for the Indian Academy of Sciences by Tholasi Prints, Bangalore Contents Preface. 1 A little reminiscence.A K Raychaudhuri 3 A K Raychaudhuri and his equation.JEhlers 1 On the Raychaudhuri equation.George F R Ellis 15 Singularity: Raychaudhuri equation once again.Naresh Dadhich 23 A singularity theorem based on spatial averages.J MM Senovilla 31 The Raychaudhuri equations: A brief review. .Sayan Kar and Soumitra SenGupta 49 Black hole dynamics in general relativity.Abhay Ashteker 77 String theory and cosmological singularities.Sumit R Das 93 Horizons in 2+1-dimensional collapse of particles. .Dieter Brill, Puneet Khetarpal and Vijay Kaul 109 On the genericity of spacetime singularities.Pankaj S Joshi 119 On a Raychaudhuri equation for hot gravitating fluids. .Chandrasekhar Mukku, Swadesh MMahajan and Bindu A Bambah 137 Raychaudhuri equation in quantum gravitational optics. .N Ahmadi and M Nouri-Zonoz 147 ; ' - M 11H111 ■ ■ - | 1 I ..•.. B..I._I ■ ■ Preface In 1953 something extraordinary happened at the Indian Association for the Cultivation of Science in Calcutta. Amal Kumar Raychaudhuri, twenty-seven years of age and employed ungainfuily as a scientific assistant at the Experimen¬ tal X-ray Section, made a startling theoretical discovery in General Relativity (GR).
    [Show full text]