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Antonio Fabrizi : "the Russian and European space agencies are planning to jointly develop a new type of carrier rocket."
From: http://en.rian.ru/science/20050816/41166463.html What could it be? And for what purpose? And for when? To launch the Clipper shuttle? A Soyuz with a new cryo upper stage (vinci)? But this new launcher, could it be without marketing? But there is already so many launchers for a so small market... Clipper: 14 tonnes in LEO... The launcher could put 6 tonnes in GTO... Bad news for the rivals? If you have an idea... then I am all ears. Rémy |
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I think they're going for establishing the LSE-CM/ISS before China or
India gets any independent notions of accomplishing it first. ~ In spite of the ongoing orchestrated status quo, it seems there's been other life upon Venus http://guthvenus.tripod.com/gv-town.htm Russian/China LSE-CM/ISS (Lunar Space Elevator) as interactive within the ME-L1/EM-L2 sweet-spot http://guthvenus.tripod.com/lunar-space-elevator.htm Of things Sirius, proto-moons, Venus, Earthly ETs & somewhat testy topics by; Brad Guth / GASA-IEIS http://guthvenus.tripod.com/gv-topics.htm China and Brad Guth seem eye to eye, as well as do the Muslim parts of this world that are not backing down anytime soon. |
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Here's a wee bit more of an updated lunar tidbit, as to what our moon
is actually good for, of which I do not believe all of European influx is going to worth 10% of what the likes of Russia/China can't afford not to toss at the moon. Moon Physics via Russian LSE-CM/ISS and He3 update: In spite of our best perpetrated cold-war efforts, as to know thy enemy and to snooker thy humanity, Russia and now China seems to have retained just about everything else under the sun to work with (certainly having been a whole lot more rocket-science smarter than we are), so I'd have to honestly speculate they have whatever it takes for accomplishing a fusion reactor, or at least they'll soon have such fully established by the time their first shipments of lunar He3 arrive. However, as for their getting whatever safely and energy efficiently to/from the lunar surface needs to first deal with securing the basis of their establishing a good Lunar Space Elevator, which has been technically doable within existing laws of physics and well as within existing technology and of products that unlike spendy nano-tubes are insead of mostly continuous basalt fiber, thus dirt/rock cheap and basically off the shelf as being 100% capable of being provided by way of the moon, via raw basalt processing along with usage of all the pure solar energy of what's way more than sufficient for the task of producing such unlimited composite fibers on behalf of creating tethers without taking another kg worth of Earthly substance nor energy. This is not a joke, whereas a robotic deployment of applied technology that's perfectly capable of processing upon the local basalt and whatever other elements, as processed via solar farm of perhaps 1e6 m2 should be capable of deriving 1e9 j/m2 worth of process heat that's happening within a near vacuum with only the purity of Argon and a few other clean and obviously dry gasses to deal with, which should only improve upon the basalt foundry process while insuring the ultimate fiber of 4.84 GPa, if not a whole lot better. Getting folks and of whatever robotic stuff and of exporting products safely away from the LSE-CM/ISS that's being tether held just slightly towards Earth gravity isn't 1% of the risk factor nor of is it taking 1% the overall energy/kg as per having to fly-by-rocket such items and folks directly to/from the lunar surface. A se of counter balance elevators and electromagnetic breaking actually becomes another energy generating consideration. Terraforming the moon with itself becomes too obvious, as from the high-ground of 62,000 km is from where any number of methods for artificially impacting the moon becomes exceedingly efficient and safe. Here's another brief (less wordy) rundown on the LSE-CM/ISS, of which since others can't seem to be bothered and/or would rather not be implicated in disclosing the truth and nothing but the truth, thus I've given my less than ideal math another lose cannon shot in the dark because, I know as a matter of physics fact that I'm essentially right, and just because my math hasn't been up to your standards isn't a disqualification of the truth that's here to behold, it's just proving that I'm a whole lot more right about so much other that's been related about our moon, as well as per the ulterior motives and hidden agendas of so many as having been running us amuck for decades, as every bit as much as I'd thought possible, and then some. I'd thought honest folks already knew about the LSE-CM/ISS, whereas this Lunar Space Elevator as outfitted with a rather sizable (1e6 m3) ISS abode within, as being situated roughly 62,000 km off the highly reactive lunar deck (perhaps +/- a few thousand km) depends upon how the tethers are having to tensioned, along with the deployed dipole element and the CCM aspects as providing methods of interactively keeping the CM/ISS gravity-well usage situation within the relative safety and energy efficiency of approprately taking advantage of the EM-L2/ME-L1 sweet-spot, though perhaps having to reside a sufficient distance towards mother Earth is the most likely solution that could have the CM/ISS residing as much as 66,000 km off the lunar deck. (E)------EM-L2=322,400 km------CM/ISS--ME-L1=62,000 km--(M) Beside gravity issues, there's a slight but quite usable factor of Centrifugal or Apparent Force of revolution as based upon a period of 27.3217 days. Whereas 655.728 hrs/revolution = 2.3606e6 seconds/revolution Circumference @1r of 1738 km = 10.9202e6 meters Surface (1r)velocity = 10.9202e6/2.3606e6 = 4.626 m/s (roughly 1% of Earth) 1r = (10.92e6 m)= 4.626 m/s 2r = (21.84e6 m)= 9.252 m/s 4r = 18.504 m/s 8r = 37.008 m/s 16r = 74.016 m/s 32r = 148.032 m/s ME-L1+ @35.673r (62,000 km) = 389.5575e6 meters circumference = 165.025 m/s Actually, if that 62,000 km CM/ISS position were taken from the lunar surface becomes an average of roughly 2.2 km towards Earth, thus if anything there's a slight Earthly pull upon the CM/ISS, although since everything is supposedly interactive and adjustable, there's absolutely anything you'd care to create in terms of tether tension. However, for my basic calculations and of limited math is where I've come up with the following data that can obviously be computer modeled to any point of being 3D and as much interactive worthy of absolutes as necessary. Speeding up the computer model by 1e6:1 should be quite entertaining at 2.36 seconds per revolution, or 2.55 seconds/Synodic period. Centripetal force calculation of the CM/ISS as 50,000 t at 62,000 km traveling at 165 m/s http://hyperphysics.phy-astr.gsu.edu/hbase/cf.html#cf The centrifugal or Apparent force of the LSE-CM at 50,000 tonnes = 2239 kg 2239 kg worth of centrifugal or apparent force applied onto the tether is rather obviously in of itself insufficient for tensioning the primary tethers as anchored into the moon, thus placing the CM/ISS a bit further away from the moon is option No.1 (@50,000t each 0.001G = 50 tonnes), increasing the overall mass of the CM/ISS to 100,000 t or even 500,000 t becomes option No.2, and/or of having deployed a fairly substantial tether dipole element as headed directly towards mother Earth, as perhaps reaching that element to within 50,000 km (closer if you'd dare since there's a +/- 22,000 km variable to deal with that can also be made fully interactive so as to regulate the platform distance) and of that dipole element having the substantial termination pod or platform of hosting a dozen or so of those nifty star-wars 100 GW laser cannons, whereas perhaps this item affording yet another sizable ISS abode and DoD star-wars outpost worth 5,800t becomes worth 100 t of tether pull, whereas 58,000t is still doable at creating something less than 1,000t of apparent average gravity force while situated at the range of 50,000 km, that plus having to accommodate 272,500 km worth of a robust composite tether weighing in at perhaps 1 kg/m is 272,500 tonnes. However, because of it's average distance of 161,200 km from Earth shouldn't represent more than 272,500/605 = 500 tonnes of apparent force. Thus a given design 500 tonnes + 1000 tonnes = 1500 tonnes extra primary tether tensioning as pulling upon the CM/ISS towards Earth. BTW; this LSE is not imposing any significant threat to the rescssion and/or orbit of our moon, whereas I'd been previously informed or perhap intentionally misinformed by others having been fooling with my head as to believe that roughly 5 terajoules of tidal and velocity sustaining energy is responsible for sustaining the current velocity and recession of 38 mm/year. Obviously this amount seems in error if we're talking about the entire moon being worth 7.35e22 kg, and of moving that sucker away at the velocity of 38 mm/year. Thus how about the apparent velocity of .038/31.536e6 = 1.205e-9 m/s 7.35e22 * 1.205e-9 = 88.5675e12 joules without having included for whatever Vt/slug drag coeficient which should place that moon recession and maintaince of velocity at something better than 100 terajoules. Even dividing that energy equally between Earth and the moon = 50 terajoules. Another confusing method for my dyslexic brain but otherwise suggested by the likes of an online "ENERGY UNIT CONVERSION CALCULATOR" of work/energy calculation as based upon the kgf.m/s of a 7.35e22 kg moon that's moving itself off supposedly via tital energy by 0.038 m/year seems to have come up with 868.53 TJ. Thus either way we're looking at way more than whatever influence an LSE and tether dipole element can apply. In other related words of my limited wisdom; if you wanted to terraform a given hot and nastly planet with that of an icy proto-moon, such as ours being perhaps worth 4000 km upon arrivial, whereas such godly or whatever astrophsics happenstance of such items going bump in the night, it seems that ours (meaning on behalf of terraforming mother Earth) is about as good as it gets, plus having left us with a nifty hulk of a de-iced moon that's just hanging aound for us village idiots to do something with. Another energy related thought; each 1000t of tether force/m/s = 9.80665 MJ Even though there's an average transition of +/- 17.34 m/s (thus +/- 170 MJ/1000t) associated within every 29.5 days, that's obviously a give and take situation that month by month should nullify. As purely another suggestion; the primary tethers might be at least twice the mass as per the dipole element, thus 62,000 km = 124,000 tonnes worth of basalt/silica composite tethers that isn't hardly worth anything because of the 1/6th gravity of the moon to start off with, then being an average distance 31,000 km represents a gravity force reduction of 318:1, thereby 124,000/6/318 = 65 tonnes of tether mass pulling down upon the 50,000t CM/ISS. Thus perhaps it'll be a good notion of making the primary tethers four fold tougher than the dipole element (better safe than sorry). It's certainly a bit more complicated than all of that, being that I have an available nearby CCM(counter-counter mass) element placed as an interactive(vertically moving) moonward pulling compensation element, that plus whatever the final CM/ISS mass, and/or of it's linear placement and of the tether dipole element are entirely adjustable in terms of their overall mass and of their linear placements, so that there'd be no possible situation that couldn't be fully R&D engineered to suit and/or robotically accommodated while on the fly. The only part of the plan that'll require being regulated or floating at nearly the exact ME-L1/EM-L2(zero gravity) is of the massive counter-rotating energy storage flywheels, whereas them massive and powerful energy storage suckers should not affect tether tensioning either way unless this active energy storage element were utilized as to replace the interactive CCM component. As usual, I'll have to keep working this one over a bit in order to update into a few of my previously established external pages as having been pertaining to the Lunar Space Elevator. Any feedback as viable contributions and whatever math corrections will certainly be appreciated and given the fullest of credits for your efforts, which obviously excludes 99.9% of such all-knowing USENET folks that are simply far too cloak and dagger brown-nosed to give an incest cloned borg's worth of a tinkers damn about any of this, or of anything other that'll honestly benefit humanity, or otherwise they wouldn't dare contribute squat (other than MOS of their dog-wagging flak) out of lethal fears as per their Skull and Bones nondisclosure enforcements by those MEN-in-BLACK that took care of JFK and of that whistle-blowing NASA safety engineer and of his entire family to boot. Actually, I believe the MI5/NSA Whistleblowing Code is a code of nondisclosure/silence, or else. ~ Life on Venus, Township w/Bridge and ET/UFO Park-n-Ride Tarmac: http://guthvenus.tripod.com/gv-town.htm The Russian/China LSE-CM/ISS (Lunar Space Elevator) http://guthvenus.tripod.com/lunar-space-elevator.htm Venus ETs, plus the updated sub-topics; Brad Guth / GASA-IEIS http://guthvenus.tripod.com/gv-topics.htm "In war there are no rules" - Brad Guth |
#4
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Here's a wee bit more of an updated lunar tidbit, as to what I believe
our moon is actually good for, of which I do not think that all of European influx is going to become worth 10% of what the likes of Russia/China can't possibly afford not to toss at the moon. Moon Physics via Russian LSE-CM/ISS and He3 update: In spite of our best perpetrated cold-war efforts, as to know thy enemy and to snooker thy humanity, it seems Russia and now China have retained just about everything else under the sun to work with (certainly having been a whole lot more rocket-science smarter than we are), so I'd have to honestly speculate they have whatever it takes for accomplishing a fusion reactor, or at least they'll soon have such fully established by the time their first shipments of lunar He3 arrive. However, as for their getting whatever safely and energy efficiently to/from the lunar surface needs to first deal with securing the basis of their establishing a good Lunar Space Elevator, which has been technically doable within existing laws of physics and well as within existing technology and of products that unlike spendy nano-tubes are insead of mostly continuous basalt fiber, thus dirt/rock cheap and basically off the shelf as being 100% capable of being provided by way of the moon, via raw basalt processing along with usage of all the pure solar energy of what's way more than sufficient for the task of producing such unlimited composite fibers on behalf of creating tethers without taking another kg worth of Earthly substance nor energy. This is not a joke, whereas a robotic deployment of applied technology that's perfectly capable of processing upon the local basalt and whatever other elements, as processed via solar farm of perhaps 1e6 m2 should be capable of deriving 1e9 j/m2 worth of process heat that's happening within a near vacuum with only the purity of Argon and a few other clean and obviously dry gasses to deal with, which should only improve upon the basalt foundry process while insuring the ultimate fiber of 4.84 GPa, if not a whole lot better. Getting folks and of whatever robotic stuff and of exporting products safely away from the LSE-CM/ISS that's being tether held just slightly towards Earth gravity isn't 1% of the risk factor nor of is it taking 1% the overall energy/kg as per having to fly-by-rocket such items and folks directly to/from the lunar surface. A se of counter balance elevators and electromagnetic breaking actually becomes another energy generating consideration. Terraforming the moon with itself becomes too obvious, as from the high-ground of 62,000 km is from where any number of methods for artificially impacting the moon becomes exceedingly efficient and safe. Here's another brief (less wordy) rundown on the LSE-CM/ISS, of which since others can't seem to be bothered and/or would rather not be implicated in disclosing the truth and nothing but the truth, thus I've given my less than ideal math another lose cannon shot in the dark because, I know as a matter of physics fact that I'm essentially right, and just because my math hasn't been up to your standards isn't a disqualification of the truth that's here to behold, it's just proving that I'm a whole lot more right about so much other that's been related about our moon, as well as per the ulterior motives and hidden agendas of so many as having been running us amuck for decades, as every bit as much as I'd thought possible, and then some. I'd thought honest folks already knew about the LSE-CM/ISS, whereas this Lunar Space Elevator as outfitted with a rather sizable (1e6 m3) ISS abode within, as being situated roughly 62,000 km off the highly reactive lunar deck (perhaps +/- a few thousand km) depends upon how the tethers are having to tensioned, along with the deployed dipole element and the CCM aspects as providing methods of interactively keeping the CM/ISS gravity-well usage situation within the relative safety and energy efficiency of approprately taking advantage of the EM-L2/ME-L1 sweet-spot, though perhaps having to reside a sufficient distance towards mother Earth is the most likely solution that could have the CM/ISS residing as much as 66,000 km off the lunar deck. (E)------EM-L2=322,400 km------CM/ISS--ME-L1=62,000 km--(M) Beside gravity issues, there's a slight but quite usable factor of Centrifugal or Apparent Force of revolution as based upon a period of 27.3217 days. Whereas 655.728 hrs/revolution = 2.3606e6 seconds/revolution Circumference @1r of 1738 km = 10.9202e6 meters Surface (1r)velocity = 10.9202e6/2.3606e6 = 4.626 m/s (roughly 1% of Earth) 1r = (10.92e6 m)= 4.626 m/s 2r = (21.84e6 m)= 9.252 m/s 4r = 18.504 m/s 8r = 37.008 m/s 16r = 74.016 m/s 32r = 148.032 m/s ME-L1+ @35.673r (62,000 km) = 389.5575e6 meters circumference = 165.025 m/s Actually, if that 62,000 km CM/ISS position were taken from the lunar surface becomes an average of roughly 2.2 km towards Earth, thus if anything there's a slight Earthly pull upon the CM/ISS, although since everything is supposedly interactive and adjustable, there's absolutely anything you'd care to create in terms of tether tension. However, for my basic calculations and of limited math is where I've come up with the following data that can obviously be computer modeled to any point of being 3D and as much interactive worthy of absolutes as necessary. Speeding up the computer model by 1e6:1 should be quite entertaining at 2.36 seconds per revolution, or 2.55 seconds/Synodic period. Centripetal force calculation of the CM/ISS as 50,000 t at 62,000 km traveling at 165 m/s http://hyperphysics.phy-astr.gsu.edu/hbase/cf.html#cf The centrifugal or Apparent force of the LSE-CM at 50,000 tonnes = 2239 kg 2239 kg worth of centrifugal or apparent force applied onto the tether is rather obviously in of itself insufficient for tensioning the primary tethers as anchored into the moon, thus placing the CM/ISS a bit further away from the moon is option No.1 (@50,000t each 0.001G = 50 tonnes), increasing the overall mass of the CM/ISS to 100,000 t or even 500,000 t becomes option No.2, and/or of having deployed a fairly substantial tether dipole element as headed directly towards mother Earth, as perhaps reaching that element to within 50,000 km (closer if you'd dare since there's a +/- 22,000 km variable to deal with that can also be made fully interactive so as to regulate the platform distance) and of that dipole element having the substantial termination pod or platform of hosting a dozen or so of those nifty star-wars 100 GW laser cannons, whereas perhaps this item affording yet another sizable ISS abode and DoD star-wars outpost worth 5,800t becomes worth 100 t of tether pull, whereas 58,000t is still doable at creating something less than 1,000t of apparent average gravity force while situated at the range of 50,000 km, that plus having to accommodate 272,500 km worth of a robust composite tether weighing in at perhaps 1 kg/m is 272,500 tonnes. However, because of it's average distance of 161,200 km from Earth shouldn't represent more than 272,500/605 = 500 tonnes of apparent force. Thus a given design 500 tonnes + 1000 tonnes = 1500 tonnes extra primary tether tensioning as pulling upon the CM/ISS towards Earth. BTW; this LSE is not imposing any significant threat to the rescssion and/or orbit of our moon, whereas I'd been previously informed or perhap intentionally misinformed by others having been fooling with my head as to believe that roughly 5 terajoules of tidal and velocity sustaining energy is responsible for sustaining the current velocity and recession of 38 mm/year. Obviously this amount seems in error if we're talking about the entire moon being worth 7.35e22 kg, and of moving that sucker away at the velocity of 38 mm/year. Thus how about the apparent velocity of .038/31.536e6 = 1.205e-9 m/s 7.35e22 * 1.205e-9 = 88.5675e12 joules without having included for whatever Vt/slug drag coeficient which should place that moon recession and maintaince of velocity at something better than 100 terajoules. Even dividing that energy equally between Earth and the moon = 50 terajoules. Another confusing method for my dyslexic brain but otherwise suggested by the likes of an online "ENERGY UNIT CONVERSION CALCULATOR" of work/energy calculation as based upon the kgf.m/s of a 7.35e22 kg moon that's moving itself off supposedly via tital energy by 0.038 m/year seems to have come up with 868.53 TJ. Thus either way we're looking at way more than whatever influence an LSE and tether dipole element can apply. In other related words of my limited wisdom; if you wanted to terraform a given hot and nastly planet with that of an icy proto-moon, such as ours being perhaps worth 4000 km upon arrivial, whereas such godly or whatever astrophsics happenstance of such items going bump in the night, it seems that ours (meaning on behalf of terraforming mother Earth) is about as good as it gets, plus having left us with a nifty hulk of a de-iced moon that's just hanging aound for us village idiots to do something with. Another energy related thought; each 1000t of tether force/m/s = 9.80665 MJ Even though there's an average transition of +/- 17.34 m/s (thus +/- 170 MJ/1000t) associated within every 29.5 days, that's obviously a give and take situation that month by month should nullify. As purely another suggestion; the primary tethers might be at least twice the mass as per the dipole element, thus 62,000 km = 124,000 tonnes worth of basalt/silica composite tethers that isn't hardly worth anything because of the 1/6th gravity of the moon to start off with, then being an average distance 31,000 km represents a gravity force reduction of 318:1, thereby 124,000/6/318 = 65 tonnes of tether mass pulling down upon the 50,000t CM/ISS. Thus perhaps it'll be a good notion of making the primary tethers four fold tougher than the dipole element (better safe than sorry). It's certainly a bit more complicated than all of that, being that I have an available nearby CCM(counter-counter mass) element placed as an interactive(vertically moving) moonward pulling compensation element, that plus whatever the final CM/ISS mass, and/or of it's linear placement and of the tether dipole element are entirely adjustable in terms of their overall mass and of their linear placements, so that there'd be no possible situation that couldn't be fully R&D engineered to suit and/or robotically accommodated while on the fly. The only part of the plan that'll require being regulated or floating at nearly the exact ME-L1/EM-L2(zero gravity) is of the massive counter-rotating energy storage flywheels, whereas them massive and powerful energy storage suckers should not affect tether tensioning either way unless this active energy storage element were utilized as to replace the interactive CCM component. As usual, I'll have to keep working this one over a bit in order to update into a few of my previously established external pages as having been pertaining to the Lunar Space Elevator. Any feedback as viable contributions and whatever math corrections will certainly be appreciated and given the fullest of credits for your efforts, which obviously excludes 99.9% of such all-knowing USENET folks that are simply far too cloak and dagger brown-nosed to give an incest cloned borg's worth of a tinkers damn about any of this, or of anything other that'll honestly benefit humanity, or otherwise they wouldn't dare contribute squat (other than MOS of their dog-wagging flak) out of lethal fears as per their Skull and Bones nondisclosure enforcements by those MEN-in-BLACK that took care of JFK and of that whistle-blowing NASA safety engineer and of his entire family to boot. Actually, I believe the MI5/NSA Whistleblowing Code is a code of nondisclosure/silence, or else. ~ Life on Venus, Township w/Bridge and ET/UFO Park-n-Ride Tarmac: http://guthvenus.tripod.com/gv-town.htm The Russian/China LSE-CM/ISS (Lunar Space Elevator) http://guthvenus.tripod.com/lunar-space-elevator.htm Venus ETs, plus the updated sub-topics; Brad Guth / GASA-IEIS http://guthvenus.tripod.com/gv-topics.htm "In war there are no rules" - Brad Guth |
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