capital equipment and discharge and waste problems alike,back on Earth where they can be better handled. Thus the useof water based emulsifiers and other organic agents in earlylunar industries is unlikely in the first place.For cleaning, sonic methods may do in some uses. Inothers, such as degreasing, water-based methods in closed loopsystems may be the only practical option - unless alternativescan be found for the occasioning use of lubricants and grease inthe first place - here is the place to start in ‘option-storming’.In using fine-tuned jets of water under pressure as acutting and shaping tool, typically relatively small amounts ofwater are used and simply recycled. This judgment may alsoapply to some uses of pressurized abrasive suspensions insurface cleaning and treatment. Still, it is certainly worthexploring xero-process methods in both cases.For cooling, little treatment if any is needed of theused water and it can be immediately recycled. Yet othermethods are certainly preferable especially if the amounts andtypes of heat production allow. Options include heat pipes(possibly incorporating eutectic NaK, a Sodium-Potassiumalloy that is liquid at room temperature) combined with surfaceradiators. If the heat could be useful for application in anotherpart of the process, or in a “next door” companion industry,this needs to be considered in a decision whether or not to usewater-assisted heat transport and whether or not to tie that intoa power cogeneration scheme using steam.If the industry’s processes are segregated into energyintensive and heat producing operations that can all be done indayspan, and labor-intensive and heat absorbing operations thatcan be postponed and reserved for nightspan, then heatpumpingthermal output into and out of a water-ice reservoirmakes sense. But as soon as a NaK production facility is online and can meet the demand, substitution of this lunarsourcedeutectic alloy for water as a heat bank would saveenormously on capital costs, translating to earlier startups andfaster diversification.Since it does come down to significant differences inrequired initial import tonnage and consequent time-is-of-theessencediversification timetables and decisions, the choicemay not be left up to industry. Where the settlement’s industrialand enterprise Review Board deems it practical, xeroprocessingand xero-manufacturing methods may be mandated,especially if already pre-developed. Whether a potential jointventure partner uses xero-industrial methods will then alsomake a difference in submission of a wining bid.And what about agriculture and food processing? Inthe absence of regular-enough rainfall, plants and crops mustbe irrigated, and salts leached from the soil must be carried offalong with waste fertilizers and pesticides. At food processingfacilities, produce has to be washed, cooked or blanched, andoften water-packed. Each specific step and operation has to beanalyzed to see if it can be redesigned for either waterlessmethods or at the minimum for water use methods that cutdown on the total capital volume of water needed as well asmake the treatment and reuse of that water easier.Nor can we wait for any of this until we are on theMoon and it is time to add a new startup industry. If we are notprepared to hit the ground running with enterprises thoroughlyredesigned for lunar-appropriate methods, then valuable timewill be lost one way or the other. Either we choose to pay thepiper by bringing up a greater and costlier mass of capitalequipment and capital water endowment for inappropriateoperations, forcing a delay in ability to import additionalindustries, or we tread water waiting for an industrial operationto be redesigned then - something that could have been donealready.So how do we see too it that when we need them,industries and enterprises using lunar-appropriate methods suchas xero-processing are thoroughly thought out, engineered,field tested and debugged - already to go? One way is to set upan Institute of Lunar Industrial Design, NOW! This couldbe part of a University of Luna - Earthside, also set up now,not on the undergraduate teaching level, but on the graduateindustry-subscribed research and development level. Wepropose to see to it that this is done, ready for its debut at ISDC‘97 (in Milwaukee? hint, hint!)<strong>MMM</strong> #68 - SEP 1993“Colombian coffee is served in Sector Six!”How do you dock with a spinning space station orspace settlement? At the unspinning central hub you say? Butwhat if the spinning torus or cylinder is temporarily offbalance, the masses inside not evenly enough distributed alongthe rim? In that case, from the viewpoint of an approachingship, the hub would appear to oscillate eccentrically about thetrue “center of gravity” shifted somewhat from the “center ofstructure” by centimeters, even meters, making docking tricky,if not dangerous. Solution? See fl “Roundtables in the Sky”BUREAUCRATIUMFrom the Space Frontier Foundation e-mail messageservice* OPENFRONTIER@delphi.com - 10/16/’93Nuclear Scientists at Harwell have discovered theheaviest element in the Universe, which they have namedBureaucratium. This extraordinary element has no protonsor electrons, and its atomic number is zero. What it doeshave is one neutron, eight assistant neutrons, ten executiveneutrons, 35 vice-neutrons and 256 assistant vice-neutrons.These parti-cles are held together by a force that involvesthe continuous exchange of meson-like particles called'morons'. Bureaucra-tium is completely inert but can bedetected since it impedes every reaction it comes intocontact with. ----------------------------------------- Contributedto the Space Frontier Foundation by Arthur C. ClarkeMoon Miners’ Manifesto <strong>Classics</strong> - <strong>Year</strong> 7 - Republished January 2006 - Page 50
Lunar Industrialization: Part Vby Peter KokhSettlers can’t live by bread alone! Farm “Pods”can churn out many other needed productsRelevant READINGS FROM Backissues of <strong>MMM</strong>[included in <strong>MMM</strong> <strong>Classics</strong> #1]<strong>MMM</strong> #4 APR 87 p9 “Paper Chase”, Peter Kokh[included in <strong>MMM</strong> <strong>Classics</strong> #2]<strong>MMM</strong> #13 MAR 88 p8 “Apparel”, Peter Kokh<strong>MMM</strong> #15 MAY 88 p5 “Threads”, Aleta Jackson[included in <strong>MMM</strong> <strong>Classics</strong> #4]<strong>MMM</strong> #40 NOV 90 p6 “METHANE”, Peter Kokh[included in <strong>MMM</strong> <strong>Classics</strong> #5]<strong>MMM</strong> #48 SEP ‘91 p8 “Naturally Colored Cotton”, P. Kokh[included in <strong>MMM</strong> <strong>Classics</strong> #6]<strong>MMM</strong> #55 MAY 92 p9 “Agri-Garments”, Michael ThomasINTRODUCTIONTo date, Experimental Lunar Agriculture has concentratedon the production of fresh vegetables needing little or noprocessing (lettuce and salad stuffs) and on such staples as thepotato (Ted Tibbits at the University of Wisconsin Biotron)and wheat and soybeans (Bill Easterwood at EPCOT Center).But this is just a start. Not only will Lunar farm podseventually produce far more food crops than those experimentedupon to date, but it will be called upon to grow cropsfor quite other purposes. Fiber for clothing, toweling, andfurnishings will be especially important. Household preparations,cosmetics, pharmaceuticals, and chemical feedstocks willtake their place as well in the agricultural sector of the settlementeconomy. Anything organic that consists in major fractionof lunar-sourceable oxygen is potentially cheaper to growon site rather than import from Earth. Different frontiercommunities will have their specialties, and trade betweenthem should be brisk.As an industrial activity, lunar agriculture will start as“small potatoes” yielding “produce” only that has to be “homemade” into meals. Farm pods will be highly automated, savinglabor for mining, materials processing and manufacturing ofbuilding materials and energy stuffs for export as well as foruse on the frontier to defray imports.Food processing, which in America employs far morepeople than does food growing, will be insignificant at first,starting up essentially as part-time after hours cottage industry.As the number of people on the frontier grows, economies ofscale in other areas of industrial activity will gradually make itpossible to justify a growing primary employment in the foodindustry. Condiments, sauces, gravies, preserves, baked goods,precooked packaged meals, will no longer be flea market itemsbut take their place beside “produce” in “grocery” stores.The demand will be augmented by the growth in thenumber of small outposts of humanity - on the Moon, in space,in space ships, among the asteroids etc. Small incipientoutposts would be stuck in the “salad bar” mode indefinitely ifit were not for trade with larger more agriculturally diversifiedsettlements on the Moon, out in L5, or elsewhere.Agriculture will slowly emerge as a major sector ofthe industrializing lunar economy. To turn an old phrase on itshead, pioneers can not eat, nor clothe themselves, by metal,glass, and ceramic alone!Cotton Plant ByproductsIn a response to a question about the possibility ofgrowing cotton to meet clothing needs, Dr. Tibbits gave thesort of horse-blindered response typical of a specialist unawareof the universe at large. “That would mean withdrawals fromthe lunar biosphere, making it inefficient. We can’t do that!”To the contrary, if a non-luxury settlement need canbe met with an agricultural product that is 50% lunar oxygenby weight, and the only remaining viable option is to importsomething with 0% lunar content, then net efficiency of thefarming unit be damned. It is the gross efficiency of the Settlementwith all its systems that is the bottom line.The “synthesis position” here is that any and all farmproducts withdrawn from the settlement’s biosphere must beprocessed, treated, and fabricated solely in ways that allow theitem, material, or preparation to be eventually recycled and/orreturned to the biosphere by composting. This holds of fibers,fabrics, and dyestuffs as well as of cosmetics and householdpreparations. We need to keep our eyes on this larger picture.From the point of view of the plant species chosen forcultivation, in the interests of efficiency we ought to be lookingfor suitable ways to use the parts of the plant not normallyeaten, as well as ways to derive food and other products fromthe composting remnant waste biomass. “Waste not, want not”must be the watchword of Lunar Agri-Business.It seems quaintly out of touch, however, given all theongoing progress in plant breeding, genetic manipulation, andbiomass treatment, to reject a suggested crop on the groundsthat too large a portion of the individual plant does not servethe primary purpose for growing it. What is to prevent therecombinant DNA researcher from putting into future cottonplants genetic instructions that make the rest of the planta) edible; b) a source of pharmaceutical or other desireablecompounds? The cotton plant - its not just for Haines anymore!Recombinant DNA opportunities aide, three moreconservative measures suggest themselves. First it is possibleto develop varieties to maximize yield and minimize “waste”.Second, we ought to be looking at the waste of the unalteredplant as potential feed stock for useful by-products.Third, biomass waste for which no useful purpose hasbeen found does not have to go on the compost heap to produce“nothing but methane and mushrooms”, useful as both may be.In Wisconsin, Biotronics Technologies (W226 N555BEastmound Dr., Waukesha WI 53186) has developed - forNASA - “biodigesters” which turn “waste” biomass into anMoon Miners’ Manifesto <strong>Classics</strong> - <strong>Year</strong> 7 - Republished January 2006 - Page 51
- Page 1 and 2: MMM ClassicsThe First Ten YearsYear
- Page 3: the eventual rise of intelligence s
- Page 6 and 7: In reality, most of our conjectured
- Page 8 and 9: and time mean nothing. The message
- Page 10 and 11: economies, and set up patterns by w
- Page 12 and 13: ice sheet and glaciers are blocked
- Page 14 and 15: InnerSolarSystemTradeRoutesby Peter
- Page 16 and 17: From “dust in”to products out:t
- Page 18 and 19: port planet December 7th, 1992. As
- Page 20 and 21: 1. Fe - Iron and SteelIron, as it w
- Page 22 and 23: By Peter Kokhce RAM ics: [Greek ker
- Page 24 and 25: of potassium, sodium, and calcium),
- Page 26 and 27: supply the range of functional micr
- Page 28 and 29: • Lesson #3: Making a biosphere v
- Page 30 and 31: additions to the total biomass of t
- Page 32 and 33: pursuing such a mandate faithfully
- Page 34 and 35: The Jekyl-side of a Moon-available
- Page 36 and 37: Now the “Tonnage Of Imports Defra
- Page 38 and 39: eassigned and/or cannibalized is su
- Page 40 and 41: power). In every case, the Utility
- Page 42 and 43: The order of the day will be to min
- Page 44 and 45: “A question of not wasting spent
- Page 46 and 47: large amounts of carbon and nitroge
- Page 48 and 49: these cycling systems through this
- Page 52 and 53: edible tofu-like product that can b
- Page 54 and 55: for a Wheeled Space StationBy Peter
- Page 56 and 57: On the Moon, the cheapest fabric wi
- Page 58 and 59: surface aboard one way space craft
- Page 60 and 61: ockets are available that can signi
- Page 62 and 63: Eastern Sea (misnamed because it is
- Page 64 and 65: ◊ What are the power options avai
- Page 66 and 67: Of course, there can be no protrudi
- Page 68: planetary scientists will lead them