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Robotic Flyby Spectroscopy of an Asteroid
On Apr 6, 2:16*pm, Brad Guth wrote:
On Apr 5, 10:59*am, American wrote: On Apr 1, 7:33*pm, Brad Guth wrote: On Apr 1, 11:01*am, American wrote: You can't even get yourself into the MODE of doing this Guth? The applet program developer for a prospective SAR user community can become an SAR Applet Development Partner. There is no cost involved.. However, all applet programs must be submitted to any developer for testing and approval before Mercenary Marketing will promote any applet to a general SAR user community. Depending on the nature of an applet program, one may distribute it as shareware (free software) or as a purchasable item. An SAR *can assist interested parties in preparing their applets for distribution by, • * * customizing an installation program for applet programs using industry standard installation software • * * assisting you in creating help files for your applet that are accessible through an MM SAR WorkBench help-viewer • * * listing your applet programs on our MM Website and in promotional mailings • * * invoicing, sales processing, product distribution, and accounting for royalty distributions if your applet is distributed as a purchasable item • * * providing direct technical support to an SAR System user who is using your applet programs on the condition that you provide back-end support to MM’s SAR technical support staff. Just some additional thoughts regarding how one can involve others in deciding what could be a winning proposal with more people entering the marketplace of ideas, and for establishing the prospect of asteroid mapping using distributively simulated SAR technology. ~ ? SAR (radar imaging?) Why not use 3D gamma secondary/recoil imaging? *~ BG- Hide quoted text - - Show quoted text - Gamma ray spectroscopy is fully integrated into SAR systems: http://www.grss-ieee.org/ieee-grs-s-...e-paper-award/ For information concerning X-ray Stimulated Photon Spectroscopy (XPS) and Auger Electron Spectroscopy (AES), check out: http://cass.jsc.nasa.gov/publications/psiw/psiw3.html. It was recorded that the AES method uses focused electron beams rather than X-rays to perform molecular studies, but that electron beams have better spatial resolution. However, both of these methods were recommended for on-site inspection of extraterrestial sources. A robotic flyby would use a high resolution imaging spectrophotometer capable of mapping the molecular surface of up to a square mile of territory within a few hours. Parallel processing has already achieved mapping tens of billions of particle collisions to describe flow in fluids. (ref. Brosl Hasslacher, Lattice Gas Automata, published August, 1985, and Springer Proceedings in Physics, Vol. 46, Cellular Automata and Modeling of Complex Systems, p. 312, A Cellular Automata Machine). Image processing could eliminate extraneous signatures to only include the precise location of targeted molecules. (ref. Ronnqvist, Pedersen, Fransson, Gustafsson, Kullander, Kjensmo, Nygard, Kjensmo, Ellingsberg, and Weilhammer, A 64-Channel Pixel Readout Chip For Dynamic X-ray Imaging, p. 351-355, 1996 IEEE Nuclear Science Symposium, Anaheim, California), and Robert T. Cleary, A New CAMAC and VXIbus High Performance Highway Interconnect, p. 460-464). A collection of the most probable densities could then provide a map for exploration, e.g. “Algorithmic Foundation of Spectral Rarefaction for Measuring Satellite Imagery Heterogeneity at Multiple Spatial Scales”: http://www.mdpi.com/1424-8220/9/1/303/pdf All radar systems pass the data from the matched filter to a subsystem, referred to as the Detection Processor (DP), that accomplishes data compression by comparing the matched filtered data to a threshold. *The potential targets (i.e., those that exceed the threshold) are flagged and the remaining data may be rejected. *A block diagram of one possible general DP structure is shown at: http://home.comcast.net/~samuel_ransom/fig1c.gif At the input of the DP is the MCA, or Multi-Channel Analyzer, which involves a FWD radix-4 and INVERSE radix-4 pipeline FFT (see section on pipeline architecture). *After the MCA, is a magnitude calculation which involves a subsystem that approximates the magnitude to the I and Q samples, where I is the intensity of the signal and Q is the number of samples over the block size. This is an amplitude estimator that calculates an estimate of the peak amplitude of the signal based upon the amplitude of the three nearest samples. *This CFAR (Constant False Alarm Rate) subsystem provides an estimate of the ambient noise or clutter level so that the threshold can be varied dynamically to stabilize the false alarm rate. The threshold logic unit selects which of several possible thresholds is to be compared with the estimated signal amplitude thru the CFAR or Multi-Channel Analyzer. MCB or Multi-Channel Background, shows the broad spectrum characteristics of the waveform, which is an input to an MCA emulator for analysis. *Finally, a comparator sets the ith bit of a binary channel (BC) whenever the ith amplitude estimate exceeds the selected threshold level. ~ So why are we not being properly informed as to the surface minerals of our moon/Selene? *~ BG- Hide quoted text - - Show quoted text - As was stated in the parallel post "How to Make Use of an Asteroid on Earth": "The regolith in asteroids is cabonaceous - a clay-like substance that yeilds water upon heating. Stiudies have been done using solar furnaces to extract the water as steam, and then recondense. A ton of oxygen can then be split from 1.125 tons of recondensed water with approximately 5 tons of asteroidal regolith (carbonaceous). Thus there is 1/10 the energy used to extract it compared to what it would take with moon dirt - ilmenite, not to mention the external source of hydrogen required - so on the contrary - the asteroid dirt produces 0.125 tons hydrogen/ton oxygen using electrolysis, and a remote source of water/oxygen is thus validated for use on manned missions." So, as stated earlier, it's just a cheaper way to go. The example that I'm presenting here is a distributively based, GUI- based program whose "master" reads, and then generates and displays a time-domain signal, distributively consisting of two sinusoids plus optional random noise, and then determines and displays the frequency spectrum of the signal. The program displays the time signal and the corresponding frequency spectrum, with GUI elements. American |
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Robotic Flyby Spectroscopy of an Asteroid
On Apr 5, 1:59*pm, American wrote:
On Apr 1, 7:33*pm, Brad Guth wrote: On Apr 1, 11:01*am, American wrote: You can't even get yourself into the MODE of doing this Guth? The applet program developer for a prospective SAR user community can become an SAR Applet Development Partner. There is no cost involved. However, all applet programs must be submitted to any developer for testing and approval before Mercenary Marketing will promote any applet to a general SAR user community. Depending on the nature of an applet program, one may distribute it as shareware (free software) or as a purchasable item. An SAR *can assist interested parties in preparing their applets for distribution by, • * * customizing an installation program for applet programs using industry standard installation software • * * assisting you in creating help files for your applet that are accessible through an MM SAR WorkBench help-viewer • * * listing your applet programs on our MM Website and in promotional mailings • * * invoicing, sales processing, product distribution, and accounting for royalty distributions if your applet is distributed as a purchasable item • * * providing direct technical support to an SAR System user who is using your applet programs on the condition that you provide back-end support to MM’s SAR technical support staff. Just some additional thoughts regarding how one can involve others in deciding what could be a winning proposal with more people entering the marketplace of ideas, and for establishing the prospect of asteroid mapping using distributively simulated SAR technology. ~ ? SAR (radar imaging?) Why not use 3D gamma secondary/recoil imaging? *~ BG- Hide quoted text - - Show quoted text - Gamma ray spectroscopy is fully integrated into SAR systems: http://www.grss-ieee.org/ieee-grs-s-...e-paper-award/ For information concerning X-ray Stimulated Photon Spectroscopy (XPS) and Auger Electron Spectroscopy (AES), check out: http://cass.jsc.nasa.gov/publications/psiw/psiw3.html. It was recorded that the AES method uses focused electron beams rather than X-rays to perform molecular studies, but that electron beams have better spatial resolution. However, both of these methods were recommended for on-site inspection of extraterrestial sources. A robotic flyby would use a high resolution imaging spectrophotometer capable of mapping the molecular surface of up to a square mile of territory within a few hours. Parallel processing has already achieved mapping tens of billions of particle collisions to describe flow in fluids. (ref. Brosl Hasslacher, Lattice Gas Automata, published August, 1985, and Springer Proceedings in Physics, Vol. 46, Cellular Automata and Modeling of Complex Systems, p. 312, A Cellular Automata Machine). Image processing could eliminate extraneous signatures to only include the precise location of targeted molecules. (ref. Ronnqvist, Pedersen, Fransson, Gustafsson, Kullander, Kjensmo, Nygard, Kjensmo, Ellingsberg, and Weilhammer, A 64-Channel Pixel Readout Chip For Dynamic X-ray Imaging, p. 351-355, 1996 IEEE Nuclear Science Symposium, Anaheim, California), and Robert T. Cleary, A New CAMAC and VXIbus High Performance Highway Interconnect, p. 460-464). A collection of the most probable densities could then provide a map for exploration, e.g. “Algorithmic Foundation of Spectral Rarefaction for Measuring Satellite Imagery Heterogeneity at Multiple Spatial Scales”: http://www.mdpi.com/1424-8220/9/1/303/pdf All radar systems pass the data from the matched filter to a subsystem, referred to as the Detection Processor (DP), that accomplishes data compression by comparing the matched filtered data to a threshold. *The potential targets (i.e., those that exceed the threshold) are flagged and the remaining data may be rejected. *A block diagram of one possible general DP structure is shown at: http://home.comcast.net/~samuel_ransom/fig1c.gif At the input of the DP is the MCA, or Multi-Channel Analyzer, which involves a FWD radix-4 and INVERSE radix-4 pipeline FFT (see section on pipeline architecture). *After the MCA, is a magnitude calculation which involves a subsystem that approximates the magnitude to the I and Q samples, where I is the intensity of the signal and Q is the number of samples over the block size. This is an amplitude estimator that calculates an estimate of the peak amplitude of the signal based upon the amplitude of the three nearest samples. *This CFAR (Constant False Alarm Rate) subsystem provides an estimate of the ambient noise or clutter level so that the threshold can be varied dynamically to stabilize the false alarm rate. The threshold logic unit selects which of several possible thresholds is to be compared with the estimated signal amplitude thru the CFAR or Multi-Channel Analyzer. MCB or Multi-Channel Background, shows the broad spectrum characteristics of the waveform, which is an input to an MCA emulator for analysis. *Finally, a comparator sets the ith bit of a binary channel (BC) whenever the ith amplitude estimate exceeds the selected threshold level. ~- Hide quoted text - - Show quoted text - I'm answering myself here. How odd. As was stated in the parallel post "How to Make Use of an Asteroid on Earth": "The regolith in asteroids is cabonaceous - a clay-like substance that yields water upon heating. Studies have been done using solar furnaces to extract the water as steam, and then recondense. A ton of oxygen can then be split from 1.125 tons of recondensed water with approximately 5 tons of asteroidal regolith (carbonaceous). Thus there is 1/10 the energy used to extract it compared to what it would take with moon dirt - ilmenite, not to mention the external source of hydrogen required - so on the contrary - the asteroid dirt produces 0.125 tons hydrogen/ton oxygen using electrolysis, and a remote source of water/oxygen is thus validated for use on manned missions." So, as stated earlier, it's just a cheaper way to go. The example that I'm presenting here is distributively based, GUI- based program whose ‘master’ reads, and then generates and displays a time-domain signal, distributively consisting of two sinusoids plus optional random noise, and then determines and displays the frequency spectrum of the signal. The distributive program displays the time signal and the corres- ponding frequency spectrum, with GUI elements. If a particular user’s applet is distributed as a purchasable item Upon WorkBench approval, then as previously mentioned, technical support to an SAR System user can utilize your applet programs on the condition that you provide back-end support to MM’s SAR technical support staff. Each approved “user” would then have the ability to coordinate the change in frequency, amplitude, and phase of each sinusoid, which would become based upon the actual x-ray and gamma frequency ranges in a “flyby” of scanned regolith. Each scan can be for a different mineral, including H2O “ice” crystal, that may be available in the C2M and C1I (“I” stands for “Ivuna”) classes of carbonaceous chrondites, each containing About 20% H2O (2% H) and 10% H2O. So what's the hangup with Semites/Nazis being too much in control of anything worth investigating - just for the sake of maintaining an interest level? Please stop the topic and/or author bashing without having anything of substance to add, otherwise please help to strengthen the impetus for establishing a better, cheaper earth-to-orbit economy without the usual NASA entitlement programs getting involved. Thanks, American |
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What's the Holdup with Nuclear Pulse Propulsion?
On Apr 7, 4:54*pm, American wrote:
On Apr 5, 1:59*pm, American wrote: On Apr 1, 7:33*pm, Brad Guth wrote: On Apr 1, 11:01*am, American wrote: You can't even get yourself into the MODE of doing this Guth? The applet program developer for a prospective SAR user community can become an SAR Applet Development Partner. There is no cost involved.. However, all applet programs must be submitted to any developer for testing and approval before Mercenary Marketing will promote any applet to a general SAR user community. Depending on the nature of an applet program, one may distribute it as shareware (free software) or as a purchasable item. An SAR *can assist interested parties in preparing their applets for distribution by, • * * customizing an installation program for applet programs using industry standard installation software • * * assisting you in creating help files for your applet that are accessible through an MM SAR WorkBench help-viewer • * * listing your applet programs on our MM Website and in promotional mailings • * * invoicing, sales processing, product distribution, and accounting for royalty distributions if your applet is distributed as a purchasable item • * * providing direct technical support to an SAR System user who is using your applet programs on the condition that you provide back-end support to MM’s SAR technical support staff. Just some additional thoughts regarding how one can involve others in deciding what could be a winning proposal with more people entering the marketplace of ideas, and for establishing the prospect of asteroid mapping using distributively simulated SAR technology. ~ ? SAR (radar imaging?) Why not use 3D gamma secondary/recoil imaging? *~ BG- Hide quoted text - - Show quoted text - Gamma ray spectroscopy is fully integrated into SAR systems: http://www.grss-ieee.org/ieee-grs-s-...e-paper-award/ For information concerning X-ray Stimulated Photon Spectroscopy (XPS) and Auger Electron Spectroscopy (AES), check out: http://cass.jsc.nasa.gov/publications/psiw/psiw3.html. It was recorded that the AES method uses focused electron beams rather than X-rays to perform molecular studies, but that electron beams have better spatial resolution. However, both of these methods were recommended for on-site inspection of extraterrestial sources. A robotic flyby would use a high resolution imaging spectrophotometer capable of mapping the molecular surface of up to a square mile of territory within a few hours. Parallel processing has already achieved mapping tens of billions of particle collisions to describe flow in fluids. (ref. Brosl Hasslacher, Lattice Gas Automata, published August, 1985, and Springer Proceedings in Physics, Vol. 46, Cellular Automata and Modeling of Complex Systems, p. 312, A Cellular Automata Machine). Image processing could eliminate extraneous signatures to only include the precise location of targeted molecules. (ref. Ronnqvist, Pedersen, Fransson, Gustafsson, Kullander, Kjensmo, Nygard, Kjensmo, Ellingsberg, and Weilhammer, A 64-Channel Pixel Readout Chip For Dynamic X-ray Imaging, p. 351-355, 1996 IEEE Nuclear Science Symposium, Anaheim, California), and Robert T. Cleary, A New CAMAC and VXIbus High Performance Highway Interconnect, p. 460-464). A collection of the most probable densities could then provide a map for exploration, e.g. “Algorithmic Foundation of Spectral Rarefaction for Measuring Satellite Imagery Heterogeneity at Multiple Spatial Scales”: http://www.mdpi.com/1424-8220/9/1/303/pdf All radar systems pass the data from the matched filter to a subsystem, referred to as the Detection Processor (DP), that accomplishes data compression by comparing the matched filtered data to a threshold. *The potential targets (i.e., those that exceed the threshold) are flagged and the remaining data may be rejected. *A block diagram of one possible general DP structure is shown at: http://home.comcast.net/~samuel_ransom/fig1c.gif At the input of the DP is the MCA, or Multi-Channel Analyzer, which involves a FWD radix-4 and INVERSE radix-4 pipeline FFT (see section on pipeline architecture). *After the MCA, is a magnitude calculation which involves a subsystem that approximates the magnitude to the I and Q samples, where I is the intensity of the signal and Q is the number of samples over the block size. This is an amplitude estimator that calculates an estimate of the peak amplitude of the signal based upon the amplitude of the three nearest samples. *This CFAR (Constant False Alarm Rate) subsystem provides an estimate of the ambient noise or clutter level so that the threshold can be varied dynamically to stabilize the false alarm rate. The threshold logic unit selects which of several possible thresholds is to be compared with the estimated signal amplitude thru the CFAR or Multi-Channel Analyzer. MCB or Multi-Channel Background, shows the broad spectrum characteristics of the waveform, which is an input to an MCA emulator for analysis. *Finally, a comparator sets the ith bit of a binary channel (BC) whenever the ith amplitude estimate exceeds the selected threshold level. ~- Hide quoted text - - Show quoted text - I'm answering myself here. How odd. As was stated in the parallel post "How to Make Use of an Asteroid on Earth": "The regolith in asteroids is cabonaceous - a clay-like substance that yields water upon heating. Studies have been done using solar furnaces to extract the water as steam, and then recondense. A ton of oxygen can then be split from 1.125 tons of recondensed water with approximately 5 tons of asteroidal regolith (carbonaceous). Thus there is 1/10 the energy used to extract it compared to what it would take with moon dirt - ilmenite, not to mention the external source of hydrogen required - so on the contrary - the asteroid dirt produces 0.125 tons hydrogen/ton oxygen using electrolysis, and a remote source of water/oxygen is thus validated for use on manned missions." So, as stated earlier, it's just a cheaper way to go. The example that I'm presenting here is distributively based, GUI- based program whose ‘master’ reads, and then generates and displays a time-domain signal, distributively consisting of two sinusoids plus optional random noise, and then determines and displays the frequency spectrum of the signal. The distributive program displays the time signal and the corres- ponding frequency spectrum, with GUI elements. If a particular user’s applet is distributed as a purchasable item Upon WorkBench approval, then as previously mentioned, technical support to an SAR System user can utilize your applet programs on the condition that you provide back-end support to MM’s SAR technical support staff. Each approved “user” would then have the ability to coordinate the change in frequency, amplitude, and phase of each sinusoid, which would become based upon the actual x-ray and gamma frequency ranges in a “flyby” of scanned regolith. Each scan can be for a different mineral, including H2O “ice” crystal, that may be available in the C2M and C1I (“I” stands for “Ivuna”) classes of carbonaceous chrondites, each containing About 20% H2O (2% H) and 10% H2O. So what's the hangup with Semites/Nazis being too much in control of anything worth investigating - just for the sake of maintaining an interest level? Please stop the topic and/or author bashing without having anything of substance to add, otherwise please help to strengthen the impetus for establishing a better, cheaper earth-to-orbit economy without the usual NASA entitlement programs getting involved. Thanks, American- Hide quoted text - - Show quoted text - Try establishing even a small nuke-pulsed test facility, and then leap head-first into the overlegislating requirements - "Homeland Security" will outnumber "safe use" practices ten to one! Overlegislated nuclear hazard & handling requirements can stall the delivery of nuclear materials primarily because there are more Dept. Energy "inspectors" involved, who are unable to work together in forming an accurate timeline of deliverables, which would arrive at some propulsion test facility for further manufacturing and processing of the nuclear fuel into propulsive type units. However, prior to arrival of the nuclear material, simulated pellets may be used in a prototype design for a pellet "launcher" with the following characteristics: Feed Line Design Coil for the axial magnetic field "pellet launcher" would be a "simulator" of the LHe-4 superconducting circuit. With specifications for the axial coil calculated, a correlation between the laboratory version and the working model can be made on the basis of coil life expectancy. Assuming that LHe-4 is a perfect magnetic conductor, as well as a heat sink for the injector, the coil life expectancy has to increase to withstand a specific impulse of several minutes. The ratio of coil spacing to coil radius is an important factor in determining coil efficiency. With d = coil spacing, R = effective coil radius, and p_r = pellet radius = 3.94/2, then the exiter coil and axial field coil would depend upon the design velocity, or ddw / (delta)(phi), where ddw represents the incremental change in radial frequency (sec^-1), and delta(phi) is the constant current phase angle difference imposed between adjacent coils in radians. For a 3-dome system, there are 360 coils per dome, with each representing a separate charging unit to the pellet injector. There are 600 total charging units (of 360 coils each) per thruster. The length of a single charging unit (360)(0.01313m) = 4.7268 meters, and so grouping numbers of charging units into a single fuel cell would require the length of the fuel cell to be a multiple of 4.7268 m. A 15 second fuel cell would be 15(4.7268) = 70.902 meters A 10 second fuel cell: 10(4.7268) = 47.268 meters A six second fuel cell: 6(4.7268) = 28.36 meters A five second fuel cell: 5(4.7268) = 23.634 meters 23.634 meters = 77' 6-15/32" Choosing the five second fuel cell for reasons of compacting fuel cells together into a single unit, Fuel cell_total = 600 second total impulse / 5 seconds per cell = 120 cells / thruster We're also assuming that each cell's overall diameter (w/coolant lines attached) is 7.5 cm diameter. The feed lines should support a ten minute charge or six second total specific impulse. This wwould require a total of 111,672 inches of feed lines packed with pellets. 75 lines @ 1,489 inches/line can provide a maximum pellet repitition rate of 120 pellets/second for a ten minute specific impulse. Each feed line has a machined spiral surface contour on its inside surface. The coils are individually charged with dielectric capacitors, whose thicknesses and strengths have been chosen to provide different intensities of magnetohydrodynnamic force along the length of the coil. Ideas of this sort, IMHO, are just one of the many ways in which to drive a more massive earth-to-orbit technology, but it would do so without overextending the regulation that would tend to impede, if not halt, the effort to which the R&D becomes applied. It's also the long-term follow-up that can only serve to expand our ingenuity, as well as our presence in the free-market system of extraterrestrial resource development. American "It has pleased Almighty God to vouchsafe signal victories to the land and naval forces engaged in suppressing an internal rebellion, and at the same time to avert from our country the dangers of foreign intervention and invasion..." - Abraham Lincoln |
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What's the Holdup with Nuclear Pulse Propulsion?
Assuming that each 3.94" diameter pellet weighs 2.261 grams, then
2.261(120 pellets) = 271.33 g Velocity of the pellet into the injector (V_f - V_i) / sec = 4.728 m / sec^2 1 dyne - 1 cm/sec^2/gm (271.33)(4728) = 1,282,848.24 dynes can move 271.33g @ 4,728 cm/sec^2 (assumed w/o friction), so the magnetic force 1,282,848.24 oersted utilizes a field inductor with H = 1,282,848.24 Oe phi = unit of magnetic flux = [N(i)(a)(mue)] / l = [(360)(i)(pi)(0.2m)^2(100,000 henry/meter)] /(0.936m), where for i = 1 amp, = 48,332.1946 webers (or Teslas/m^2) = F/S Additional Notes: 360 = # coils i = #amps 0.2m^2 = radii of coil inductor 100,000 = SuperMalloy absolute permeability @ 20 gauss 1 Newton = 10^5 dynes F/S = magnetomotive force / reluctance = #gilberts / reluctance i_a = F / N_a, where F = # gilberts & N_a = total turns of coil so if i = 1 amp, then 1 amp = 360 gilberts (amp turns) / 360 turns phi = 48,332.1946 = 360 / R - R = reluctance = 0.00744845 |
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What's the Holdup with Nuclear Pulse Propulsion?
On Apr 8, 1:46*pm, American wrote:
Assuming that each 3.94" diameter pellet weighs 2.261 grams, then 2.261(120 pellets) = 271.33 g Velocity of the pellet into the injector (V_f - V_i) / sec = 4.728 m / sec^2 1 dyne - 1 cm/sec^2/gm (271.33)(4728) = 1,282,848.24 dynes can move 271.33g @ 4,728 cm/sec^2 (assumed w/o friction), so the magnetic force 1,282,848.24 oersted utilizes a field inductor with H = 1,282,848.24 Oe phi = unit of magnetic flux = [N(i)(a)(mue)] / l = [(360)(i)(pi)(0.2m)^2(100,000 henry/meter)] /(0.936m), where for i = 1 amp, = 48,332.1946 webers (or Teslas/m^2) = F/S Additional Notes: 360 = # coils i = #amps 0.2m^2 = radii of coil inductor 100,000 = SuperMalloy absolute permeability @ 20 gauss 1 Newton = 10^5 dynes F/S = magnetomotive force / reluctance = #gilberts / reluctance i_a = F / N_a, where F = # gilberts & N_a = total turns of coil so if i = 1 amp, then 1 amp = 360 gilberts (amp turns) / 360 turns phi = 48,332.1946 = 360 / R - R = reluctance = 0.00744845 Can you and Mook work on the same research without either of you going postal? If so, the new and improved NASA think-tank is well on its way towards making serious progress. ~ BG |
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Why Mine for Uranium in Space?
The following is quite possibly not a complete list of the
requirements for the shipment of radioactive materials. Each of these requirements have links to their subparts, which carry ordinances subject to fines, as listed in various other sections, e.g. "Overpack Requirements", 173.25(a), the fine is $3,000, "Reconditioner Requirements", 173.28, the fine is $6,000 to $10,800, “”Portable and IM Tank Requirements”, 173.32e, 173.32c, 173.315, the fines are $3,500 to $7,000, $3,500, and $3,500, respectively, as well as many others listed (~150). Other requirements concerning the transportation of hazardous (i.e. radioactive) materials and their packaging/on-loading/off-loading requirements are spelled out in minute detail, with fines applicable to each phase of the delivery process: Subpart A General 173.1 Purpose and scope. 173.2 Hazardous materials classes and index to hazard class definitions. 173.2a Classification of a material having more than one hazard. 173.3 Packaging and exceptions. 173.4 Small quantity exceptions. 173.5 Agricultural operations. 173.4a Excepted quantities. 173.5a Oilfield service vehicles and mechanical displacement meter provers. 173.4b De minimis exceptions. 173.6 Materials of trade exceptions. 173.7 Government operations and materials. 173.8 Exceptions for non-specification packagings used in intrastate transportation. 173.9 Transport vehicles or freight containers containing lading which has been fumigated. 173.10 Tank car shipments. 173.12 Exceptions for shipment of waste materials. 173.13 Exceptions for class 3, divisions 4.1, 4.2, 4.3, 5.1, 6.1, and classes 8 and 9 materials. Subpart B Preparation of hazardous materials for transportation 173.21 Forbidden materials and packages. 173.22 Shipper’s responsibility. 173.22a Use of packagings authorized under special permits. 173.23 Previously authorized packaging. 173.24 General requirements for packagings and packages. 173.24a Additional general requirements for non-bulk packagings and packages. 173.24b Additional general requirements for bulk packagings. 173.25 Authorized packagings and overpacks. 173.26 Quantity limitations. 173.27 General requirements for transportation by aircraft. 173.28 Reuse, reconditioning and remanufacture of packagings. 173.29 Empty packagings. 173.30 Loading and unloading of transport vehicles. 173.31 Use of tank cars. 173.32 Requirements for the use of portable tanks. 173.33 Hazardous materials in cargo tank motor vehicles. 173.34 [Removed] 173.35 Hazardous materials in IBCs. 173.40 General packaging requirements for toxic materials packaged in cylinders. Subpart C Definitions, Classification and Packaging for Class 1 173.50 Class 1—definitions. 173.51 Authorization to offer and transport explosives. 173.52 Classification codes and compatibility groups of explosives. 173.53 Provisions for using old classifications of explosives. 173.54 Forbidden explosives. 173.56 New explosives—definition and procedures for classification and approval. 173.57 Acceptance criteria for new explosives. 173.58 Assignment of class and division for new explosives. 173.59 Description of terms for explosives. 173.60 General packaging requirements for explosives. 173.61 Mixed packaging requirements. 173.62 Specific packaging requirements for explosives. 173.63 Packaging exceptions. Subpart H [Reserved] Subpart I Class 7 (radioactive) materials 173.401 Scope. 173.403 Definitions. 173.410 General design requirements. 173.411 Industrial packagings. 173.412 Additional design requirements for Type A packages. 173.413 Requirements for Type B packages. 173.415 Authorized Type A packages. 173.416 Authorized Type B packages. 173.417 Authorized fissile materials packages. 173.418 Authorized packages — pyrophoric Class 7 (radioactive) materials. 173.419 Authorized packages — oxidizing Class 7 (radioactive) materials. 173.420 Uranium hexafluoride (fissile, fissile excepted and non- fissile). 173.421 Excepted packages for limited quantities of Class 7 (radioactive) materials. 173.422 Additional requirements for excepted packages containing Class 7 (radioactive) materials. 173.423 Requirements for multiple hazard limited quantity Class 7 (radioactive) materials. 173.424 Excepted packages for radioactive instruments and articles. 173.425 Table of activity limits — excepted quantities and articles. 173.426 Excepted packages for articles containing natural uranium or thorium. 173.427 Transport requirements for low specific activity (LSA) Class 7 (radioactive) materials and surface contaminated objects (SCO). 173.428 Empty Class 7 (radioactive) materials packaging. 173.431 Activity limits for Type A and Type B packages. 173.433 Requirements for determining basic radio-nuclide values, and for the listing of radionuclides on shipping papers and labels. 173.434 Activity-mass relationships for uranium and natural thorium. 173.435 Table of A1 and A2 values for radionuclides. 173.436 Exempt material activity concentrations and exempt consignment activity limits for radionuclides. 173.441 Radiation level limitations and exclusive use provisions. 173.442 Thermal limitations. 173.443 Contamination control. 173.447 Storage incident to transportation — general requirements. 173.448 General transportation requirements. 173.453 Fissile materials — exceptions. 173.457 Transportation of fissile material packages — specific requirements. 173.459 Mixing of fissile material packages with non-fissile or fissile-excepted material packages. 173.461 Demonstration of compliance with tests. 173.462 Preparation of specimens for testing. 173.465 Type A packaging tests. 173.466 Additional tests for Type A packagings designed for liquids and gases. 173.467 Tests for demonstrating the ability of Type B and fissile materials packagings to withstand accident conditions in transportation. 173.468 Test for LSA–III material. 173.469 Tests for special form Class 7 (radioactive) materials. 173.471 Requirements for U.S. Nuclear Regulatory Commission approved packages. 173.472 Requirements for exporting DOT specification Type B and fissile packages. 173.473 Requirements for foreign-made packages. 173.474 Quality control for construction of packaging. 173.475 Quality control requirements prior to each shipment of Class 7 (radioactive) materials. 173.476 Approval of special form Class 7 (radioactive) materials. 173.477 Approval of packagings containing greater than 0.1 kg of non- fissile or fissile-excepted uranium hexafluoride. Subparts J–O [Reserved] Pt. 173, A Appendix A to Part 173 [Reserved] Pt. 173, A Appendix B to Part 173—Procedure for testing chemical compatibility and rate of permeation in plastic packaging and receptacles Pt. 173, A Appendix C to Part 173—Procedure for base-level vibration testing Pt. 173, A Appendix D to Part 173—Test methods for dynamite (explosive, blasting, type A) Pt. 173, A Appendixes E—G to Part 173 [Reserved] Pt. 173, A Appendix H to Part 173—Method of testing for sustained combustibility If these requirements seem a little stiff, then it’s probably because of their transport across populated areas deemed “hazardous” throughout the U.S. via truck, rail, boat, and/or air. One might tend to believe that if there were shipments of radioactive materials being mined on the asteroids, the requirements might be less burdensome, esp. if proper protective clothing, i.e. spacesuits were being worn 24/7 during processing. An example of rad-protective clothing and man-made environments, which may obliterate the burden of regulations surrounding the handling of nuclear materials has been listed as density stats for radiation protection: Space Suit: 0.25 g/cm2 Command module: 7-8 g/cm2 Space Shuttle: 10-11 g/cm2 ISS Hull: 15 g/cm2 Scalar Interferometric Nested Dome: 2,000 g/cm2 The space suit used in the moon mission could only provide limited protection - about 50 rem - which is not lethal, but would cause radiation sickness - 300 rem being the limit. However, 300 rem could be spread out over a few days to limit the exposure. A few interesting side notes from the link: http://groups.google.com/group/sci.s...54ba70bd?hl=en Perhaps the most astonishing finding from cold fusion research is the apparent observation of radioactivity reduction in the process. CETI, one of the first cold fusion companies, recently announced (~ 5 years ago) it had been awarded a US patent on an electrolytic process for reducing the radioactivity of thorium and uranium. The company claims its process can reduce the radioactivity of radioactive materials by over 90 per cent in periods less than 24 hours - compressing into hours what nature takes billions of years to do. A demonstration of this seemingly successful process was included in the same Good Morning America story which described Patterson's prototype water heater, ref. http://www.lightparty.com/Peace/MiracleInTheVoid.html Here is a process of extracting Be-7 for the purpose of Neutron reflecting: http://www.ipm.virginia.edu/people/d...dickAU1999.pdf Interesting, but Be-7 is slightly radioactive, and must be handled w/ extreme care. So, if a radiation absorbing medium can be made to be appreciably thick, perhaps some of the harmful radiation can be drained off using the above methods w/o any harmful exposure effects. Another link for gamma radiation-proof solvents: http://www.rsc.org/Publishing/ChemSc...r_industry.asp Maybe some kind of "solvent duct" between shell housings is the application needed for protection. Here WAS a link for a radiation proof polymer (I still have the leaflet): http://www.hnswp.com/pdfs/polymer_leaflet.pdf The part "Electronic equipment protection from electromagnetic pulses, radio wave effects, and solar radiation interference when directly applied to the electronic equipment or component", was quite interesting. Protected body suits, gloves, and boots with Demron: http://www.radshield.com/ "Radiation Shield Technologies (RST) is proud to offer DemronTM : the new standard in personal radiation protection. This revolutionary technology is currently produced as full body suits, gloves and boots. DemronTM not only protects against particle ionizing/nuclear radiation (such as Beta and Alpha), but does what NO OTHER full body radiation protection can do: shield against X-ray and low-energy Gamma emissions. DemronTM is non-toxic and completely Lead-free. DemronTM suits are constructed from a unique nanotechnology that far surpasses the effectiveness (or ineffectiveness) of current nuclear- biological-chemical (NBC) suits that only protect against radioactive particulate sources." Why Mine for Uranium in Space? Space is rad-intensive anyway. Protective clothing and environment conditioning using the above methods make off-world shipments less burdensome, less costly, and less fearsome, given that a mining enterprise may be able to exercise their own free market ingenuity a bit easier than what regulations have been manufactured to stifle it already. Currently, around 48% of the world’s supply of uranium comes from Africa, and around 10% comes from the Soviet Union, while the rest may be mined in the U.S. The strategic metal cobalt may become mined along with uranium, given a near-Earth L chrondite asteroid. For example, a one kilometer asteroid might end up providing 1.5 million tons of cobalt along with similar amounts of uranium. The results depend upon how mining ships and refining facilities are built orbitally, launched trans-orbitally, and then rendevous- retrieved transport of deliverables to customers. Right off the space station, a nuclear pulsed freighter becomes assembled utilizing modularized components using material specialists, who would assist in the research, acquisition, and post-design modularization of components for both the power satellite construction center and cargo vessel. Since the "Center" as it is called is a place where much of the actual construction for the cargo vessel takes place, some provision for human living quarters, or "habitcons" must be worked out so that the first few people that arrive must be able to work inside an inflatable "bubble" with ceramic/steel framing surrounding the core. See: http://server6.theimagehosting.com/i...mg=bladder.GIF The core "bubble with ceramic/steel frame" should be assembled, with fully functional core "habitcons" in under 100 man hours time. The core consists of an inflatable toroidal bladder that is restrained against expansion by a web of straps. The straps are attached to a rigid ceramic/steel frame using clevice/pin(s) on the internal circumference. Four men, working 25 hours in a weeks time, should have the core project completed and ready for expansion into the construction center. Once the core is complete, a new shuttle arrives with more modules for construction, which are "unpacked" and assembled on to the core by a crew of four men. The expanded core now includes a cargo bay storage area with a cryogenic welding supply system in place, as well as the habitcons with (4) potable water temperature controlled stowages (one for each man). Now the center becomes dependent on the shuttle to deliver replenishment food, water, and air, as well as additional modules for con-struction of the cargo vessel fuselage, fuel cells, etc. One example of a power satellite construction center, as given previously: http://server6.theimagehosting.com/i..._facility..JPG American |
#17
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Why Mine for Uranium in Space?
It seems our moon/Selene has way more than its fair share of thorium
(10 ppm), as though it once belonged to a thorium rich planet such as Venus. http://www.lunar-research-institute....m_grl_1999.pdf ~ BG |
#18
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Why Mine for Uranium in Space?
On Apr 12, 6:59*pm, Brad Guth wrote:
It seems our moon/Selene has way more than its fair share of thorium (10 ppm), as though it once belonged to a thorium rich planet such as Venus. *http://www.lunar-research-institute....1999/thorium_g.... *~ BG Nothing like having a rogue uranium freighter mining the L-Chrondites long before the moon underground becomes populated by a bunch of earth- watchers IMO. What's more fun than a porkulus of moon bats setting up motels on the moon for rich people, so that everything their already-whored earth has to offer them in the form of some twisted "environmental replacement therapy" can only look inward towards their own hidden agenda (more mind control for masses of earthly whoremongers IMO). IMO mining for either thorium or uranium has to be done pretty much on the fly, or we'll end up seeing moon bases like this producing nothing but diminishing returns on the investment. Fruits of labor have to sometimes die and produce yet greater opportunity for succeeding generations of those who can begin again to intentionally imprint their own "seed faith", given the pristine surroundings that are conducive to meditating on some of the more profound scientific theories, hypotheses, and alternatives - alternatives to oppressive scientific regimes, as they exist so much more ever-presently, in this nation and throughout the world. Thus the best opportunities for growth are at the earth, or (earth- like) sphere, however IMO even moon-based 3D VR machines for people like millionaires, entertainment enthusiasts, and those not interested in incessantly promoting the ideas and fortunes of the moon as a very temporal "waystation" should be relegated to their local descending level within Dante's Lunar Inferno. Are you one of these? By the time moon bases are achieved, we (should) have FTL vehicles exploring the galaxy, and new earths being discovered on a monthly basis. What happens when these new earths are ready for the human race to migrate to them? Do you think that most of us will wish to stay "left behind" with our moon bases and 3D VR machines? I can only agree with you that the moon should serve as a nuclear (thorium) fuel depot, and maybe possibly some kind of respite for renewed gravitational reclamation in this case - nothing else is worth the investment, IMO. American |
#19
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Why Mine for Uranium in Space?
On Apr 13, 11:54*am, American wrote:
On Apr 12, 6:59*pm, Brad Guth wrote: It seems our moon/Selene has way more than its fair share of thorium (10 ppm), as though it once belonged to a thorium rich planet such as Venus. *http://www.lunar-research-institute....1999/thorium_g... *~ BG Nothing like having a rogue uranium freighter mining the L-Chrondites long before the moon underground becomes populated by a bunch of earth- watchers IMO. What's more fun than a porkulus of moon bats setting up motels on the moon for rich people, so that everything their already-whored earth has to offer them in the form of some twisted "environmental replacement therapy" can only look inward towards their own hidden agenda (more mind control for masses of earthly whoremongers IMO). IMO mining for either thorium or uranium has to be done pretty much on the fly, or we'll end up seeing moon bases like this producing nothing but diminishing returns on the investment. Fruits of labor have to sometimes die and produce yet greater opportunity for succeeding generations of those who can begin again to *intentionally imprint their own "seed faith", given the pristine surroundings that are conducive to meditating on some of the more profound scientific theories, hypotheses, and alternatives - alternatives *to oppressive scientific regimes, as they exist so much more ever-presently, in this nation and throughout the world. Thus the best opportunities for growth are at the earth, or (earth- like) sphere, however IMO even moon-based 3D VR machines for people like millionaires, entertainment enthusiasts, and those not interested in incessantly promoting the ideas and fortunes of the moon as a very temporal "waystation" should be relegated to their local descending level within Dante's Lunar Inferno. Are you one of these? By the time moon bases are achieved, we (should) have FTL vehicles exploring the galaxy, and new earths being discovered on a monthly basis. What happens when these new earths are ready for the human race to migrate to them? Do you think that most of us will wish to stay "left behind" with our moon bases and 3D VR machines? I can only agree with you that the moon should serve as a nuclear (thorium) fuel depot, and maybe possibly some kind of respite for renewed gravitational reclamation in this case - nothing else is worth the investment, IMO. American You seem to have your FTL cart well ahead of the mule team again. You do realize there's a minor difference between being on the moon as opposed to safely within the moon? ~ BG |
#20
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Why Mine for Uranium in Space?
On Apr 13, 5:03*pm, Brad Guth wrote:
On Apr 13, 11:54*am, American wrote: On Apr 12, 6:59*pm, Brad Guth wrote: It seems our moon/Selene has way more than its fair share of thorium (10 ppm), as though it once belonged to a thorium rich planet such as Venus. *http://www.lunar-research-institute....1999/thorium_g... *~ BG Nothing like having a rogue uranium freighter mining the L-Chrondites long before the moon underground becomes populated by a bunch of earth- watchers IMO. What's more fun than a porkulus of moon bats setting up motels on the moon for rich people, so that everything their already-whored earth has to offer them in the form of some twisted "environmental replacement therapy" can only look inward towards their own hidden agenda (more mind control for masses of earthly whoremongers IMO). IMO mining for either thorium or uranium has to be done pretty much on the fly, or we'll end up seeing moon bases like this producing nothing but diminishing returns on the investment. Fruits of labor have to sometimes die and produce yet greater opportunity for succeeding generations of those who can begin again to *intentionally imprint their own "seed faith", given the pristine surroundings that are conducive to meditating on some of the more profound scientific theories, hypotheses, and alternatives - alternatives *to oppressive scientific regimes, as they exist so much more ever-presently, in this nation and throughout the world. Thus the best opportunities for growth are at the earth, or (earth- like) sphere, however IMO even moon-based 3D VR machines for people like millionaires, entertainment enthusiasts, and those not interested in incessantly promoting the ideas and fortunes of the moon as a very temporal "waystation" should be relegated to their local descending level within Dante's Lunar Inferno. Are you one of these? By the time moon bases are achieved, we (should) have FTL vehicles exploring the galaxy, and new earths being discovered on a monthly basis. What happens when these new earths are ready for the human race to migrate to them? Do you think that most of us will wish to stay "left behind" with our moon bases and 3D VR machines? I can only agree with you that the moon should serve as a nuclear (thorium) fuel depot, and maybe possibly some kind of respite for renewed gravitational reclamation in this case - nothing else is worth the investment, IMO. American You seem to have your FTL cart well ahead of the mule team again. You do realize there's a minor difference between being on the moon as opposed to safely within the moon? *~ BG- Hide quoted text - - Show quoted text - When our government admits with START, that ALL non-nuclear weapons of rogue nations, under the non-proliferation treaty, are either (i) overseas contingencies or (ii) man-caused disasters, and there can be no longer a nuclear option in the event of an intercontinental (as well as off-world) THREAT, and there then is an absolute mandate to accomplish an orbital/off-world PRESENCE, under the umbrella of nuclear protection and power. The current administration is (inadvertantly?) working against establishing an independent, off-world presence by attempting to enforce a progressive indoctrination (and protocol) over its citizenry (us?) without protecting its sovereignity (theirs?). ANYONE can see now that this is a power grab by the noxious adherents (progressives) of America's own scientific and cultural descendency! Admittedly, we should rather be building an army of atomic spaceships, NOT nuclear forensic scientists! American |
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