Difference between revisions of "User:Ebontrio"
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'''Exposure (chemical- biological - radiological - nuclear):''' 744 hours on externally filtered air for OSHA/NIOSH red zone threats which call for level "A" protective equipment, including protection against alpha/beta radiation with gamma radiation mitigation (directed attacks significantly reduce the effectiveness of CBRN exposure times and are dependent on the intensity of the attack). <br/> | '''Exposure (chemical- biological - radiological - nuclear):''' 744 hours on externally filtered air for OSHA/NIOSH red zone threats which call for level "A" protective equipment, including protection against alpha/beta radiation with gamma radiation mitigation (directed attacks significantly reduce the effectiveness of CBRN exposure times and are dependent on the intensity of the attack). <br/> | ||
| − | '''Notes'''The life support system allows continuous exoskeleton operation from a maximum safe depth of 547 meters below sea level to a maximum safe altitude of 21, 336 meters without the need for special equipment. Operation above and below these limits requires additional consideration and modification as the situation requires. Critical operational limits allow intermittent operation above these limits but mean time before the onset of critical failure is haphazard at best and is fully dependent on environmental factors and preexisting operational stress imposed on the exoskeleton. The life support system is further augmented by a first aid/advanced life support diagnostics array that utilizes a defibrillator and several onboard drugs dispensed through pneumatic injection in conjunction with other hardware adaptations in order to counter toxins and revive the occupant as well as counter cardiac and respiratory arrest. The FA/ALS system is also configured to provide performance enhancement of the occupant in situations that require increased response and activity levels as well as providing limited environmental adaptation when onboard systems cannot effectively cope with the threat. The life support system is further augmented with onboard nutrient and water stores (including water reclamation) so that the occupant can remain functional for up to 168 hours without the need to seek external nourishment. <br/> | + | '''Notes:''' The life support system allows continuous exoskeleton operation from a maximum safe depth of 547 meters below sea level to a maximum safe altitude of 21, 336 meters without the need for special equipment. Operation above and below these limits requires additional consideration and modification as the situation requires. Critical operational limits allow intermittent operation above these limits but mean time before the onset of critical failure is haphazard at best and is fully dependent on environmental factors and preexisting operational stress imposed on the exoskeleton. The life support system is further augmented by a first aid/advanced life support diagnostics array that utilizes a defibrillator and several onboard drugs dispensed through pneumatic injection in conjunction with other hardware adaptations in order to counter toxins and revive the occupant as well as counter cardiac and respiratory arrest. The FA/ALS system is also configured to provide performance enhancement of the occupant in situations that require increased response and activity levels as well as providing limited environmental adaptation when onboard systems cannot effectively cope with the threat. The life support system is further augmented with onboard nutrient and water stores (including water reclamation) so that the occupant can remain functional for up to 168 hours without the need to seek external nourishment. <br/> |
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'''Exoskeleton Power Supply''' | '''Exoskeleton Power Supply''' | ||
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'''Data Feedback:''' Retinal scan display, 3D positional audio, and tactile sensation. <br/> | '''Data Feedback:''' Retinal scan display, 3D positional audio, and tactile sensation. <br/> | ||
| − | '''Notes'''The primary computer's function is the implementation of the VIos which allows the control system to seamlessly integrate all exoskeleton operations with near zero response time under nearly every predicted theater of operation without limit to the occupants commands pursuant to the operational limits of the exoskeleton and its hardware. The VIos offers near artificial intelligence capability without the danger and unpredictability of an operating system that is essentially self aware with only minimal expense to the exoskeletons environmental adaptability. The secondary control system speeds the exoskeletons major system response time and in conjunction with the tertiary control system provides continuous error checking for all control systems. The secondary system also provides emergency backup control in the event of primary system failure with a substantial reduction in exoskeleton adaptability. the tertiary system provides even more basic control in the event of primary and secondary control system failure and also allows autonomous control of individual armor segments in the event of separation. <br/> | + | '''Notes:''' The primary computer's function is the implementation of the VIos which allows the control system to seamlessly integrate all exoskeleton operations with near zero response time under nearly every predicted theater of operation without limit to the occupants commands pursuant to the operational limits of the exoskeleton and its hardware. The VIos offers near artificial intelligence capability without the danger and unpredictability of an operating system that is essentially self aware with only minimal expense to the exoskeletons environmental adaptability. The secondary control system speeds the exoskeletons major system response time and in conjunction with the tertiary control system provides continuous error checking for all control systems. The secondary system also provides emergency backup control in the event of primary system failure with a substantial reduction in exoskeleton adaptability. the tertiary system provides even more basic control in the event of primary and secondary control system failure and also allows autonomous control of individual armor segments in the event of separation. <br/> |
Revision as of 22:57, 13 February 2010
| |
| WarMain | |
| Player: @ebon3 | |
| Server: Pinnacle | |
| Origin: | Technology |
|---|---|
| Archetype: | Blaster |
| Security Level: | 50 |
| Personal Data | |
| Real Name: | Arno Stone |
| Known Aliases: | WarMain |
| |
Human |
| Age: | 40 |
| Height: | 1.75 meters (as WarMain 1.91 meters) |
| Weight: | 72.58 kilograms (as WarMain 232 kilograms) |
| Eye Color: | Blue (as WarMain obscured) |
| Hair Color: | Black (as WarMain obscured) |
| Biographical Data | |
| Nationality: | American |
| Occupation: | ECoB of ACADI, Hero |
| Place of Birth: | Pargagon City, Rhode Island |
| Base of Operations: | Paragon City, Rhode Island |
| Marital Status: | Widowed |
| Known Relatives: | Mary Stone (mother), Walter Stone (father), Henry Stone (brother), Samantha Stone (wife, deceased) |
| Known Powers | |
| Energy Blast, Energy Manipulation, Fighting, Fitness, Flight, Munitions Mastery, Speed | |
| Known Abilities | |
| Genius level intellect | |
| Equipment | |
| Mark III Delta “WarMain” Powered Exoskeleton | |
| No additional information available. | |
WarMain
Real Name: Arno Achilles Stone
Occupation: Executive Chairman of the Board (Advanced Cybernetics And Dynamics Industrial), Inventor, Hero
Identity: Secret
Legal Status: Legal Citizen of the United States with no known criminal record, offcially recognized hero of Paragon City
Place of Birth: Paragon City, Rhode Island
Marital Status: Widowed
Known Relatives: Mary Stone (mother), Walter Stone (father), Henry Stone (brother), Samantha Stone (wife, deceased)
Group Affiliation: Justice Avengers
Base of Operations: Paragon City, Rhode Island
Background
Arno Achilles Stone was born January 3rd, 1969 to Mary and Walter Stone at the M. Harvey Medical Center in the Founders' Fall district of Paragon City and from an early age it was apparent that Arno possessed a keen intellect and a natural predilection toward things mechanical. As a child, Arno was able to build fairly complex mechanical devices scavenged from a variety of materials found around his home. By his teens, Arno had an uncanny grasp in several disciplines of engineering and by the time he had completed high school was considered a prodigy. Arno's college years were no less productive as his insatiable drive for knowledge and inventive genius allowed the young Arno to surpass his peers and teachers.
During Arno's time in college, he had invented and patented several new technologies and used the gains from his inventions to provide the startup capital for an engineering firm. During this time Arno would meet the love of his life, Samantha Smith, who worked as a paralegal for his father's practice. The attraction was instant and mutual and despite a long courtship, the two were married after Arno had successfully matured his small firm into the much larger Advanced Cybernetics and Dynamics Industrial (ACADI).
ACADI's primary business was in developing ultra high performance materials and proccesses for use in advanced prothetic devices of all sorts, from artificial limbs to sensory replacements. The company also branched out into several other areas of engineering, including working for DARPA in the development of powered exoskeletons. ACADI had prospered until the rikti invasion. While the primary business was more important than ever, Arno also realized that the resources of his company could also be used to help stem or eliminate ther rikti threat. After the war, Arno leveraged his compsny's relationship with the government to aquire research projects based on captured rikti technology for both the military and civilian sectors. The act did not come without consequences as one of ACADI's chief rivals, Crey Industires, took notice after thier monopoly on captured rikti tech was lost.
Initially, Crey complained bitterly and sought legal action in an effort to prevent Arno and ACADI from carrying out thier program. When that failed, Crey offered to buy ACADI from Arno with the promis of a healthy fortune. Despite the offer, Arno remained faithful to his employees and his business. Afterwhich Crey again made an offer and again Arno refused. Ultimately Crey began an illicit campaign to undermine ACADI itself, force Arno out and liquidate the buisness gaing its contracts and developments for itself.
The plan like the offer proved unsucessful, forcing Crey to step up its actions against ACADI which resulted in a manufactured publicity stunt between Crey's own Paragon Protectors and the Freakshow. The effort was staged near the ACADI campus in Independance Port and was desinged to heavily damage the property and create several casualties. The plan proved partly successful as property damagew was kept to a minimum, however the latter part of the action had proved incredibly successful as Arno's wife had been caught in the crossfire and sustained severe injuries which resulted in her death while Arno watched helplessly from a distance.
Almost immediately after, it was made known to Arno that the event had been no accident and that it wouldn't be the last unless Arno capitulated. A greiving Arno instead choose to again take the huge conglomerate on in a more direct fashion. Retreating to his private lab and the advanced concepts and research division of ACADI, Arno pooled the best minds and resources of his company to take a previous program to a new level. Arno reopened Project WarMain (the original internal codename for the powered exoskeleton DARPA project) and in less than a year had a working model that had completely eclipsed any previous work. The effort produced the mark one alpha powered exoskeleton dubbed "WarMain".
Arno had orignally planned to don the armor and go after Crey directly, however the threat posed by the Outbreak riot proved a more immediate threat. After helping the authorities in the riot, Arno realized he didn't have the skills or talent nessecary to take Crey on directly. Instead the fledgling hero decided to take to the streets of Paragon city in an effort to hone his skills and perfect his armor.
While unable to put an end to Crey Industries and its illegal operations, Arno in the guise of WarMain has been an ever present thorn in thier side, setting them back on several occasions, including the personal capture of Countess Crey herself. Ultimately, Arno realized no measure of personal revenge would bring his dead wife back. Instead Arno as WarMain works with other heros and his company in an effort to make Paragon City and the world a better safer place.
Project WarMain
Specifications: Mark III Delta “WarMain” Powered Exoskeleton
Design Team: Arno Stone (ECoB), Sol Cogley, John Brahms, Fenton Mullhall, Vickie Palmer, and Preston Potts
Major Contractor: Advanced Cybernetics and Dynamics Industrial – Advanced Concepts and Research (ACaDI-ACaR)
Price as Constructed: 40,000,000,000 USD
Armor Exterior Dimensions and Weight
Height (overall): 1.91 meters
Width (overall): .81 meters
Depth (overall): .58 meters
Weight (empty): 159 kilograms
Exoskeleton Armor Composition
The surface layer’s signature blue/gold color scheme is comprised of an ablative ceramic applied over the primary layer and is engineered to resist and scatter a wide range of electromagnetic frequencies and magnitudes deemed harmful to both armor and occupant with a secondary function of limiting the armor’s infrared and radar signature.
The primary layer is composed of yttrium, zirconium, and aluminum oxides vapor deposited over irregularly stacked hexagonal micro-tiles composed of rhenium-tungsten laced cryo-milled beryllium bonded to a titanium diboride faced fused aluminum/titanium foil laminate shell reinforced by a beta-carbon nitride honeycomb lattice backed by carbon fiber reinforced radiopaque polymer sheathing for rigid armor elements and overlapping and interlocking micro-scales of the same composition (as the tiles) mechanically affixed to radiopaque carbon nanotube and modified para-aramid nano-weave sheathing for flexible armor elements. Rigid armor segments are attached directly to the exoskeleton chassis via electromagnetic, thermal, and kinetic attenuating hard points while flexible armor elements are attached to the rigid elements.
The secondary layer houses a multi-layer insulation/beta cloth jacketed flexible segmented polyamide-imide membrane containing a network of biomemetic electroactive polymer fiber bundles suspended in silicon based magnetorheological fluid (for kinetic energy management) and attached to a titanium diboride laced geodetic silicon carbide/titanium matrix chassis with integrated electric motors for articulation and support.
The tertiary layer is comprised of a nano-composite impregnated isobutylene polymer radiopaque membrane bonded to graduated density modified polychloroprene dilatant cellular foam padding for added insulation and protection. The padding is embedded with a silicon micro-tube network utilizing resonant laser micro-pumps connected to strategically located bladders for internal temperature, acceleration and pressure control.
Notes:The armor composition denotes a typical cross-section in a typical region of the armor. Specialized regions utilize hardened structures to support and protect dedicated and/or specialized systems. In addition each layer possesses integrated electronics and power handling systems which are heavily redundant and cross-linked for rapid and almost uninterrupted function as systems and components are damaged in use. Also embedded in the armor is a network of sensors for malfunction detection and environmental control. Embedded in the upper two layers of the armor are waveguide arrays arranged to allow discrete control over the armor’s various energy operations.
Exoskeleton Articulation/Mobility
Type: Electrochemomechanical biomemetic fiber bundles attached to a titanium diboride laced geodetic silicon carbide/titanium matrix chassis with integrated electric motor assistance.
Musculature Enhancement: The exoskeleton allows the wearer to lift/press approximately 10,160 kilograms under normal operating conditions.
Limits: Under maximum operating conditions, the exoskeleton can enable the wearer to lift/press approximately 15,240 kilograms for approximately 30 seconds before system degradation occurs and system performance suffers. With sufficiently diverted power the exoskeleton can boost maximum operating performance to 19,304 kilograms for approximately 10 seconds before onset of critical system failure.
Notes:The biomemetic fiber bundles are designed to reflexively contract under impact, creating localized zones of higher density that are better able to resist impacts that would otherwise injure the occupant. The electric motors provide minimal assist to the fiber bundles and are instead used to provide low power articulation and mobility both to conserve energy and when the exoskeleton is low on power. The exoskeleton itself is designed to mostly mimic the normal range of human movement except where such movements would hyperextend the occupants body. Another feature of the exoskeleton are the telefactoring gauntlets which mimic the function of the occupants own hands while providing increased protection and additional space for specialized tools or functions.
Exoskeleton Flight System
Type: Variable specific impulse electrodeless magnetoplasmadynamic arcjet thrusters in conjunction with a drag reducing energy field
Flight Control: Plasma bleed to reaction control thrusters for low speed/fine control and drag reducing energy field for high speed/gross control.
Maximum Speed/Acceleration: 1496 kph @ 117.7 m/s^2 at sea level.
Lift Capacity: 1000 kg
Maximum Thrust ("Dry"): 20.58 kN
Maximum Thrust ("Wet"): 27.85 kN
Range: Unlimited in atmosphere, limited to 900 seconds in a complete vacuum at maximum "wet" thrust.
Fuel: Liquid Xenon as "wet" thrust and propellant in a vacuum and/or low density atmospheric conditions.
Notes:The energy field makes high speed flight possible by reducing the exoskeleton's coefficient of drag as well as providing protection from the extreme amount of heat generated during high speed flight in addition to deflecting small debris in the exoskeleton's flight path. In operation the energy field is somewhat reminiscent of a lifting body in shape for typical flight operations with the shape being deformed for optimal operation as the situation dictates.
Exoskeleton Articulation Seals/Reinforcement
Type: Reinforced and shielded cam locks in conjunction with ferrofluidic hermetic face seals for all major exoskeleton attachment points with pressure compensated rotary joints and labyrinth seals at all articulation points augmented by a positive a pressure environment.
Exoskeleton Life Support System
Type:Self contained full environmental control and advanced life support.
Duration:744 hours on filtered external air or 168 hours utilizing onboard rebreathing mechanism augmented with liquid oxygen stores.
Exposure (thermal): 172 to 1500 Kelvin external while maintaining 277 to 316 Kelvin internal environment with up to a maximum external flash/blast limit of 3695 Kelvin for approximately 5 seconds.
Exposure (pressure): 0 to 5472 kilopascals external while maintaining 101 to 162 kilopascals internal.
Exposure (chemical- biological - radiological - nuclear): 744 hours on externally filtered air for OSHA/NIOSH red zone threats which call for level "A" protective equipment, including protection against alpha/beta radiation with gamma radiation mitigation (directed attacks significantly reduce the effectiveness of CBRN exposure times and are dependent on the intensity of the attack).
Notes: The life support system allows continuous exoskeleton operation from a maximum safe depth of 547 meters below sea level to a maximum safe altitude of 21, 336 meters without the need for special equipment. Operation above and below these limits requires additional consideration and modification as the situation requires. Critical operational limits allow intermittent operation above these limits but mean time before the onset of critical failure is haphazard at best and is fully dependent on environmental factors and preexisting operational stress imposed on the exoskeleton. The life support system is further augmented by a first aid/advanced life support diagnostics array that utilizes a defibrillator and several onboard drugs dispensed through pneumatic injection in conjunction with other hardware adaptations in order to counter toxins and revive the occupant as well as counter cardiac and respiratory arrest. The FA/ALS system is also configured to provide performance enhancement of the occupant in situations that require increased response and activity levels as well as providing limited environmental adaptation when onboard systems cannot effectively cope with the threat. The life support system is further augmented with onboard nutrient and water stores (including water reclamation) so that the occupant can remain functional for up to 168 hours without the need to seek external nourishment.
Exoskeleton Power Supply
Type:Hybrid Collector/Converter array coupled to a high density storage medium.
Primary: Zero Point Energy Collector array coupled to a Motionless Electromagnetic Converter.
Secondary: Ambient electromagnetic recharging in conjunction with strategically placed piezoelectric generator arrays.
Tertiary: Thermal and electromagnetic waste recovery and conversion.
Energy Storage: Advanced insulated gate bipolar self regulating ceramic “ne plus” ultracapacitor cells.
Exoskeleton Control System
Type: Hierarchical computer array utilizing a heuristic near artificial intelligence operating system.
Primary: 3D array of 4096 complex nanoprocessors with 128 terabytes of shared memory and a peak performance in the 1.8 petaflop range allowing the implementation of the VIos (Virtual Intelligence operating system).
Secondary: 5 task specific computers (defense - life support - mobility - offense - power) slaved to the primary system with each consisting of an asynchronous 2D array of 256 complex nanoprocessors with 25 terabytes of shared memory and peak performance in the range 113 teraflops.
Tertiary: Numerous local component asynchronous simple processor arrays featuring 1 terabyte of memory and a peak performance in the 50 gigaflop range.
Control Interface: Non-invasive cybernetic interface in conjunction with verbal commands, biofeedback, body motion sensing and visual target acquisition.
Data Feedback: Retinal scan display, 3D positional audio, and tactile sensation.
Notes: The primary computer's function is the implementation of the VIos which allows the control system to seamlessly integrate all exoskeleton operations with near zero response time under nearly every predicted theater of operation without limit to the occupants commands pursuant to the operational limits of the exoskeleton and its hardware. The VIos offers near artificial intelligence capability without the danger and unpredictability of an operating system that is essentially self aware with only minimal expense to the exoskeletons environmental adaptability. The secondary control system speeds the exoskeletons major system response time and in conjunction with the tertiary control system provides continuous error checking for all control systems. The secondary system also provides emergency backup control in the event of primary system failure with a substantial reduction in exoskeleton adaptability. the tertiary system provides even more basic control in the event of primary and secondary control system failure and also allows autonomous control of individual armor segments in the event of separation.
