The Armories of the Latter Day Laputas, Part 5

By Mike Darwin

Figure 1: Cryonics, a bridge to tomorrow, or snow choked  catastrophe in the making?

Failure: What is the Really Big Risk?

What I have had to say in the four articles in this series to date has been almost exclusively failure analysis, or put less delicately, criticism. While good criticism isn’t easy, it is unarguably a lot easier than proposing solutions, and more importantly, solutions that are at least worthy of consideration, if not demonstrably practical. The inevitable first response that occurs when a course action other than the one those currently (and for a long time now) in control of cryonics organizations are committed to is to say, “That’s all very and good, but we can’t afford it! We are barely making ends meet now, and we constantly have to increase charges to members and beg for more money.”

Thus, before considering existential risks and other positive changes in priorities in detail, I will need to consider other more mundane, but likely much more serious risks to the failure of cryonics, some of which appear to be upon  us, or nearly so, even as I write these words. Because we never undertook any serious and systematic risk analysis for failure in cryonics we now find ourselves confronting the most common and the most mundane risk of failure of all: organizational failure. Most new business undertakings, regardless of whether they are profit or nonprofit, tax exempt charities or hard driven efforts to make a large financial gain, fail within the first 5-10 years of start-up. Viewed in this light, the “high” failure rate of the relatively (and absolutely) very small number of cryonics enterprises that have existed over the years is not extraordinary; it is par for the course (Figure 2).

Figure 2: While it is well known that most start-up businesses fail, the uniformity of that failure is generally under-appreciated by members of the general public. Historically the rate of start-up failure in the US has been in the range of 98%, however, since the 1940s this has declined to ~5% of all new business enterprises.[1]

What is assumed is that after this brief initial period of high mortality, businesses that do survive experience a far lower failure rate. This is, in fact correct; those few enterprises that survive gradually absorb the market sector and human and capital resources of the many who fail. However, as can be seen in Figure 3, if we “re-set” the graph at 5 years, and then follow the remaining cohort of enterprises out to the 10 year mark, the mortality rate is still quite high with only 29% of businesses surviving.

Figure 3: Failure rate of start-up businesses in the US over the ten year period from 1992 to 2002.[2]

There is also surprisingly little spread between business types in terms of 10 year survival as can be seen in Figure 4; the difference between sectors is ~ 20%.The shortest surviving businesses are those offering leisure and travel services and the longest surviving are those engaged in providing education and health; with manufacturing falling about midway between these two.

While the general public may not have a good grasp of these numbers with precision, it would strain credibility to assert that they do not have a general feel for the volatility and the short lifespan of most business enterprises. In fact, the older and more experienced the individual is, the more reasonable it would be to assume that his understanding of the ephemeral nature of enterprise is improved. It is thus quite possible, if not likely, that an underlying reason for the lack of credibility of cryonics in that segment of the population most likely to find it desirable is that that same cohort has the most experience with and understanding of the improbability of the very long term (i.e., 100-200 years) survival of any human enterprise. As many scholars and pundits alike have noted, with the exception of the Roman Catholic and various branches of the Orthodox Church, few if any institutions have continuously endured for millenia. Similarly, institutions that have endured for may centuries, such as universities (Oxford and Cambridge come to mind) are typically creatures of nation-states – the other class of entities that have shown endurance in the millennial range. In short, corporations, including NPOs, are almost exclusively short lived creatures that fill a market niche, do their business and then die.

In 2009, the Japanese business analysis and survey firm Tokyo Shoko Research (a combination of Dunn and Bradstreet and TRW in Japan), conducted an examination of the founding dates of the 1,975,620 enterprises in their database.They found 21,666 companies which have existed for over 100 years.  The Bank of Korea conducted a similar evaluation of their database and found that there are 3,146 firms founded over 200 years ago in Japan, 837 in Germany, 222 in the Netherlands and 196 in France. There are 7 companies in Japan over 1,000 years old; 89.4% of the companies with over 100 years of history are for profit businesses. However, a closer examination of the history of these long-surviving enterprises reveals that many underwent takeovers, buyouts and essentially a complete restructuring of mission and the nature of the business the firms were engaged in – often more than once in their history. Thus, the chances of a business entity (excluding religious and academic institutions) surviving for >100 years is 1.096%.

Figure 4: Survival of business enterprises in the US by type of business.[2]

In recent years there has been increased attention paid to why businesses experience such a high failure rate, and in particular why the early mortality is so punishingly high.. There have been a number of academic studies, as well as a variety of failure analysis books written by businessmen and assorted “consultants” and “gurus” offering tip and techniques for avoiding failure.[3-5]

Of considerably more relevance is how 501c3 non-profit organizations fare over time. Figure 5 shows the aggregate survival of non-profit organizations (NPOs) as a cohort from 1969 to 2008, a period of nearkly 40 years. Whilst the early mortality rate is high, it is not nearly as high as is the case for for-profit organizations. NPOs experience heavy mortality over the first decade, with the rate of failure slowing considerably over the second decade of life. However, by the 30 year mark, ~95% of NPOs have failed. The data presented in Figure 5 are probably unrepresentative of what lies ahead for US 501c3 NPOs in the near future, because the number of these organizations has grown from 464,138 in 1989 to 819,008 in 2000 – a doubling in a little over a decade. Not surprisingly, the high rate of failure amongst NPOs is now occurring  in part because of the current severe economic Recession, but also because of the entry into the NPO marketplace of a broader cross-section of the population with less experience in the founding and operation of charitable organizations, or indeed businesses of any kind.[3]

Figure 5: Survival of US 501c3 non-profit organizations (aggregate) from 1969 to 2008.[6]

Many reasons exist for the high mortality rate in businesses both initially and over time. There are many “top 10,” “top 7” and” top 5″ lists of reasons given by various pundits and advisers. In the case of NPOs, some of the most commonly cited causes are shown in Table 1.

Consistently near the top of most lists of reasons for the failure of NPOs are dysfunctional management and failure to maintain and file adequate financial records. In recent years there has also been increasing focus on the criticality of the NPOs’ boards of directors to the success or failure of the organizations.[3, 7-9] In 2003 Judith Miller reported on her extensive longitudinal study of the boards of 12 non-profit organizations. She discovered that there were two primary factors that determined how effective NPO directors were at discharging their duty to monitor and intervene in the action of their NPO. The first of these factors was how the individual board members defined their relationship with the CEO and how well and how well they understood the scope of their monitoring function. Her findings also demonstrated that, given ambiguous rules of accountability and unclear measures of performance, NPO board members tend to monitor in ways that reflect their professional or personal competencies, rather than paying attention to measures that actually indicate progress toward the mission-related goals and initiatives of the organization; and thus of its success or failure. And of course, the degree of commitment and the seriousness with which the directors undertook their monitoring function was also critical.[9]

Figure 6: Using the “Cryonics Calculator” developed by Brook Norton (http://www.cryonicscalculator.com/), and assuming a very conservative risk of organizational failure of 30% for the first two decades of cryopreservation, 75% for the second 20 year interval, 10% for the third 20 year interval, 3% for the fourth 20 year interval and 2% for last 20 year interval the probability of being recovered from cryopreservation is only 17%. [This assumes that you are currently 50 years old and will be cryopreserved at age 90 and that you have a 5% risk of autopsy, or other catastrophic destruction of your remains prior to cryopreservation.]

 Using a very simple model of the impact of institutional failure on the chances of recovery from cryopreservation and (approximately) applying the historical NPO failure rate data shown in Figure 5, the chances that a person will be recovered from cryopreservation over a 100 year period of storage are only 8%. This outcome does not consider other risks, such as government proscription of cryonics or existential risks such as fire, flood, earthquake, pandemic disease, etc. Very importantly, it does not take into account the probability that existing cryopreservation procedures may not be sufficiently advanced to allow for recovery of today’s patients (the default  assigned autopsy risk is 5%, which is also quite low). Given such a high probability of failure solely from lack of institutional continuity, it should be clear why so many people, especially those who are knowledgeable  and world-wise, fail to find cryonics sufficiently attractive to commit to it personally.

Money

One conclusion which may be drawn from the above is that cryonics organizations must have “Übercredibility” in every area of their operations where it is possible for them to do so. Certainly Cryonics hasn’t been a commercial success as a “fee for services” operation. There is no large queue of clients or customers waiting at the door, cash in hand, asking to be cryopreserved. The market is and has been microscopic relative to the ~57 million people who die each year on this planet. A simple summing up of the number of cryonics organization and the yearly “service fees” of various kinds they collect from their members yields a dismal number. That dollar amount for the Alcor Life Extension Foundation for the fiscal years 1990 to 2007 would come to only ~ $2,790,997.00. Over 17 years that works out to a paltry $164,176 per year. Whilst that would provide a handsome salary for the two employees at the Cryonics Institute (CI) (and likely cover all of their ancillary operating expenses not paid by patients), it would hardly suffice to pay for the number of employees Alcor has had since at least 1990, when there were 4 full-time employees being paid from the General Operating Fund (there are currently 9 full-time employees and Alcor is advertising for a tenth)..

Fundamental Financial Accountability

Repeated requests by a number of individuals have failed to elicit annual (or any other) comprehensive financial reports for the fiscal years 2006 and 2008-2010. Additionally, the 2005 Financial Statement is available only as a draft, not as the completed, certified document. Figure 8: Failure to maintain financial accountability and to file the required government paperwork to preserve the corporate shield and to maintain tax exempt status is an indication that an organization may have become terminally dysfunctional.

When corporations, large or small, cease to maintain proper financial accounting, as well as transparency and accountability to their shareholders or their members, they are signaling to the world that they are about to become, or have become terminally mismanaged. The failure to maintain and produce federally and state required financial records speaks not just to the dysfunction of the chief financial officer (CFO) and chief executive officer (CEO), but to the board of directors and the entire management team. If such lack of accountability is allowed to persist over a period of years, it may fairly be said that the members or stakeholders are also remiss by failing to demand not only financial accountability from management, but for jeopardizing the tax exempt status and the corporate shield of the organization as well.

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NOTE: In the comments section follwing this article, Alcor President and CEO Max More states that,” the (Alcor) 2008 and 2009 financial statements are complete and should be issued by the accounting firm ready to put on Alcor’s website around the end of July.” Max More, Steve Bridge and others also pointed out errors and oversights on my part relating to Alcor’s 990 Report status with the IRS. I have endeavored to correct these problems by editing this article and apologizing for any inconvenience.

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Graphic History of the Alcor Life Extension Foundation’s Financial and Membership Growth from 1984-2007

 

Figure 9: A graphic (incomplete) financial history of the Alcor Life Extension Foundation. Reasonably complete and consecutive data are available for the years 1987 to 2007. The two largest (known) bequests by cryopreservation patients are indicated by the large green and purple colored arrows.  Money from the Jones estate began to flow into Alcor in 1988 (green arrow) and from the Zubkoff estate in 2001(purple arrow). Periods for which no data are available (1985-1987 and 1988-1990) appear as blank spaces on the graph. Because Alcor has used a variety of methods of charging members for services, ranging from Cryonics magazine to cryopreservation itself, all charges for member services such as dues and emergency responsibility fees have been consolidated into a single category, “Member Charges.” Similarly, all member Contributions, including those from bequests and directed donations have been combined under the heading of contributions. “Total Revenues” have been shown as inflation adjusted (year by year) under the heading of ÏA.”Inflation Adjustments” (IA) were carried out using “The Inflation Calculator: http://www.westegg.com/inflation/,which employs the Statistical Abstracts of the United States as its source for inflation adjustment data. Research expenditures are essentially invisible in this graph because, after 1989, Alcor spent very little on research with the exception of fiscal year2007. Tabular data for the graph above are present in Table 2.The number of Alcor Members (black print) and patients (red print) are shown at ~ 2 year intervals from 1984 to 2007 as indicated by the blue arrows. The sharp dip in revenues, expenses and contributions which takes place between ~1993 and 1994 represents the period during which Alcor underwent schism (red arrow).

When Alcor was a tiny organization with total annual revenues of less than $30,000, financial reports were prepared monthly and annual financial reports we completed and mailed to members and to all subscribers of Cryonics magazine, typically no later than the February or March following the end of the calendar year (which was also the fiscal year) ending on 31December. This level of accountability was achieved even though Alcor had no money to pay bookkeepers or accountants. Alcor’s last Form 990, which was for the fiscal year of 2009 and which was filed on 14 June, 2011 indicates that Alcor’s total assets were $9,362,293.00 (as of the end of that fiscal year).Prior to the filing of the 2009 Form 990, Alcor made a public announcement that it had received a bequest of ~ $7 million from a member who was recently cryopreserved, which is to be divided equally between the Patient Care Trust and an Endowment Fund, the latter of which is to have a maximum legally allowed annual distribution of 2% per year ($70 K/yr).[12] Thus on no account can financial hardship be an element in this failure to account. Additionally, Alcor has 9 paid full time staff members, including a full time finance director (Bonnie Magee) as well one full time volunteer.[13]  As of 2009, its CEO was paid $88,819.00; a respectable sum for an organization with only 913 members and 87 patients in storage.

Table 2: Some of Alcor’s Financial parameters from 1984-2007

The data contained in the area shaded in gray are those that were obtained from formal, year-end comprehensive reports. Other data were obtained from year-end accounting summaries given to Alcor Directors at monthly meetings. Data for 1984 and 1987 are approximate (taken from a graph). “Contributions” for the purpose of this table consists of all funds given by living members as well as those given by bequest, including directed donations that supported Alcor’s non-patient care operations. Monies for long term care of patients and directed donations to the Patient Care Fund (now the Patient Care Trust) are excluded from consideration here. The source for yearly membership and patient numbers was the Alcor website.

Alcor did not get its first employee until July of 1984 and the salary for this employee  was paid directly to the employee by the donor until payroll capability was put in place in 1986.

A cursory examination of Alcor’s finances over the past 17 years, from 1990-2007 (data past 2007 are not available from Alcor) reveals some remarkable things. Adjusted for inflation (to 2010 dollars) Alcor has averaged an income of ~ $1,224,000.00 per year, or ~ $20,800,321 over those 17 years. Again, crudely adjusted for inflation Alcor spent ~ $289,973.00 of that ~$21 million in income on research, of which $160,114 (of the total expended on research) was disbursed in a single year (2007); in other words, 1.39%. In 4 of those 17 years the annual expenditure for research was zero.[1] However, it should noted that in both 1989 and 1990 virtually all of Alcor’s resources above those required for basic operations were necessarily committed to fight the numerous legal battles that resulted from an attempt by the state of California to outlaw the practice of cryonics.[14] Table 2 shows selected financial parameters from Alcor’s annual financial reports/statements for the years 1984- 1985 and 1987-1988 (the financial report for fiscal year 1986 is not available) and from 1990-2007.

Where’s the Beef?

When I began this analysis I had no Alcor financial data prior to 1990. After acquiring the data prior to that time in a piecemeal fashion from several resources, I added it to the spreadsheet (Table 2) but decided not to include it in the analysis of the data from 1990-2007 for several reasons; principally because 1990 is the year that the large influx of money from the Jones estate bequest  had begun to dramatically transform Alcor, and it is also the year that Alcor’s new management philosophy became manifest.[15-17][i]

During this period Alcor grew from 188 members and 17 patients in cryopreservation to 838 members and 76 patients in cryopreservation. Employee compensation started to rise precipitously beginning ~ 2000, and by ~2007 it totaled ~ $500,000/yr (not adjusted for inflation).  For the last year for which there are data available (2007) Alcor had year-end net assets of $103,317 and $339,052 of cash, or cash equivalents on hand. This practice of spending almost all of Alcor’s yearly revenues was not unusual. Despite a highly variable, but overall increasing revenue stream, Alcor consistently spent almost all available income, and in 2005, exceeded it. In examining the financial reports of Alcor there is no evidence of sinking funds, or other mechanisms of cash cushions to deal with the inherently erratic nature of NPO contributed income, or for major unexpected expenses such as litigation, equipment failure, publicity which adversely impacts income, or other kinds of man-made or natural calamities.

Financial records for the decade of 1972 to 1982 are apparently no longer available and may no longer exist. I was unable to locate complete financial reports for the years 1983 and 1989, although I have a number of monthly financial reports from these two years. In October of 1981 Alcor and the Institute for Advanced Biological Studies, Inc., (IABS) merged.[18] From the interval of ~ 1979 to September of 1981 Alcor was almost completely inactive; its sole patient and its member services, including patient storage, were contracted out to Trans Time, Inc., (cryopreservation services) and IABS (monthly magazine). The merger effectively transferred the human, financial and administrative resources of IABS to Alcor and marked the beginning of a fundamentally new and different organization from either IABS, or the pre-merger Alcor. Alcor did not get its first employee until July of 1984.[19] It would thus be of great interest to evaluate the financial history if Alcor from the period of 10/1981 through the end of fiscal year 1989.

As of this writing, the closest it is possible for me to come in determining the financial status of Alcor from the period of 10/82 through the end of fiscal year 1989 is to refer to a graph of Alcor yearly revenues that was prepared for in-house use sometime in 1990. Based on that graph, a rough estimate of Alcor revenues for 1982 was ~ $3,000, for 1983 ~ $13,500 and for ~ $1989 it was $320,000.  Thus, a very rough summing up of Alcor’s total revenues for the period from 10/82 through 12/31/1989, adjusted for inflation to 2010 dollars, would be $1,167,595, or $ 194,599 per year. In other words, Alcor’s 6 year averaged yearly revenues for that period were ~5.61% of its averaged annual revenues for the period of 1990-2007.

End of Part 5


[1] No detailed accounting is available for fiscal year 2005; the financial data for that year which was used to prepare Figure 7 and Table II were obtained from Alcor’s Form 990 filing with the IRS.

Footnotes


[i] While there were major changes to management structure in 1988, the Dora Kent and DHS litigation consumed almost all of Alcor’s time, attention and resources until early 1990. Once these matters were resolved the new management’s next focus was to initiate litigation against the California Attorney General seeking to allow Dr. Thomas K. Donaldson to be cryopreserved prior to medico-legal death because he was dying from an incurable malignant brain tumor that threatened to seriously (and irreversibly) damage or destroy his brain prior to medico-legal death.

References

 1.            Knaup A: Survival and longevity in business employment dynamics data: http://www.bls.gov/osmr/pdf/st060040.pdf. Monthly Labor Review 2005.(May):50-56.

2.            Shane S: The Illusions of Entrepreneurship: The Costly Myths That Entrepreneurs, Investors, and Policy Makers Live By: Yale University Press; 2008.

3.            Powell W, Steinberg, R.: The Nonprofit Sector: A Research Handbook. In., 2nd Edition edn: Yale University Press; 2006.

4.            Keough D: The Ten Commandments for Business Failure. New Yoek: Penguin; 2008.

5.            Muehlhausen J: The 51 Fatal Business Errors and How to Avoid Them, 3rd edition edn: Mulekick Publishing; 2008.

6.            IRS: Data Source: IRS Business Master File, 2011. 2011.

7.            Middleton M: Nonprofit Boards of Directors: Beyond the Governance Function. New Haven: Yale University; 1987.

8.            Oster SM: Strategic Management for Nonprofit Organizations: Theory and Cases. New York: Oxford University Press; 1995.

9.            Miller J: The Board as Monitor of Organizational Activity: The Applicability of Agency Theory to Nonprofit Boards,. Nonprofit Management and Leadership 2002, 12(4):429-450.

10.          IRS: 501. Exemption from tax on corporations, certain trusts, etc:  http://www.law.cornell.edu/uscode/26/usc_sec_26_00000501—-000-.html. 2010.

11.          Brzezinski Z: Out of Control: Global Turmoil on the Eve of the Twenty-first Century. New York: Prentice Hall & IBD; 1994.

12.          Alcor Gratefully Receives Large Bequest: http://www.alcor.org/blog/?p=1432

13.          Alcor Staff: http://www.alcor.org/AboutAlcor/meetalcorstaff.html

14.          Perry R: Alcor’s Legal Battles: http://www.alcor.org/Library/html/legalbattles.html. Cryonics 1999, 1st Quarter.

15.          Mondragon C: A New Era Begins: http://www.alcor.org/cryonics/cryonics9301.pdf. Cryonics 1993, 14(1):10-15.

16.          Mondragón C: A Stunning Legal Victory for Alcor. Cryonics 1990, 3(7).

17.          Darwin M: Thomas Donaldson Files Lawsuit. Cryonics 1990, 11(6):2.

18.          Staff: IABS and Alcor  merge. Cryonics 1981, November(28):1.

19.          Staff: Full time Alcor president. Cryonics 1984, August(49):8.

20.          Kunen J, Moneysmith, M.: Reruns Will Keep Sitcom Writer Dick Clair on Ice-indefinitely: http://www.people.com/people/archive/article/0,,20120770,00.html. People 1989.

 

 

Posted in Cryonics History, Cryonics Philosophy, Cryonics Technology (General) | 24 Comments

Status Report: 08 July, 2011

 As a scientist I am keenly interested in the outcome of my experiments. As a cryonicist I’m even more keenly interested in the outcome of Chronosphere, because I believe that a paradigm shift in cryonics is essential to its success, if not to its very survival. I will go further and say that the same paradigm shift is also essential to the survival not of just Mike Darwin, or any other individual of our species, but to humanity as a whole. However, I won’t belabor those points now. My purpose here is simply to report on one measure of progress, namely how many views Chronosphere receives per day.

Both the trend and the absolute numbers are important and by both criteria Chronosophere is progressing. At just under 4 months of operation the number of views per month is well over 8,000. The daily average is ~ 200, with a high of 340 and a low of 115. Most days over the past month have been well above 200.

It is possible to tell a little more about the character and the quality of the traffic by examining which individual posts are accessed. This helps to separate out casual browsers and stumbled upon hits from those genuinely interested in the content. My seat of the pants evaluation of that data indicates that roughly 50 people are paying reasonably close attention to what is being said here on a regular basis. Beyond that, the existing statistical tools do not allow much more to be inferred.

Other indices are even more subjective and unreliable, but I’ll report them anyway. Google searches related to cryonics and to topics in medicine touched upon in Chronosphere show significant use of the unique illustrations present in these posts. There is also increasing mention of Chronosphere posts in blogs and web commentary – interestingly most of which is unrelated to cryonics. Perhaps even more interestingly, on the various cryonics chat forums there is virtually no mention of either Chronosphere, or any individual articles or posts which have appeared here.

Thanks should certainly be given to Aschwin deWolf for his consistent referencing of those Chronosphere posts he deems worthwhile and relevant on his excellent blog, Depressed Metabolism. I believe there is now significant overlap in the cryonicist readership of both sites.

I also note with wry amusement that Chronosphere now beats out the “ChronoSphere Command & Conquer Wiki” and “ChronoSphere Red Alert” sites on Google searches where the search term is “chronosphere.” Both of these “other” chronosphere sites are related to the Westwood Studios video game franchise of the same name.

Finally, I am disappointed at the relative lack of commentary and of the total absence of others willing to contribute content to the site. Perhaps continued growth in readership will help to address this problem. – Mike Darwin

Posted in Administrative | 38 Comments

The Armories of the Latter Day Laputas, Part 4

By Mike Darwin

Introduction

The principal reason that I have told the story here of the latter day Laputa’s is not because it so technologically amazing, but rather because it so fundamentally prosaic. The story of the Cold War is not just the story of people behaving dangerously, indeed insanely badly; it is the story of people behaving in perfectly pedestrian ways. It is the story of people behaving as they always have, except in this instance doing so with technology that has the capacity to end human civilization indefinitely.  Thirty six years ago, when Fred and Linda Chamberlain and I made the long trek up to Yuba City to explore Titan Missile Site 1, we did so motivated by the understanding that our species is dangerously immature and that a streak of the irrational, territorial and reflexively violent beast is in all of us – cryonicist and non-cryonicist alike. If we cryonicists can fairly say that we are stuck here on this planet with  6,775,235,700 suicidal madmen[1], then we must add to that number the 1,000 or so cryonicists who unarguably behave only a little better. [1]

We were, of course, also mindful of what have now come to be called “existential risks.” An existential risk is a risk one that “is both global (affects all of humanity, present and future) and terminal (destroys or irreversibly cripples the target).” Bostrom and Tuchin define such risks as those “where an adverse outcome would either annihilate Earth-originating intelligent life or permanently and drastically curtail its potential.”[2, 3]

Figure 1: The sweep of human wealth production is nicely summarized in this graph of the gross domestic product over the course of the lat 5,000 of civilization. Because of the large time frame and the (necessary) use of a logarithmic scale, global disasters which severely impacted the wellbeing of then extant civilizations are not readily apparent.

The history of humanity is littered with great calamities that do not appear on most graphs charting our species’ progress. Consider the graphs that appear above and below this paragraph. The one above shows global gross domestic product from 5,000 BCE to 2,000 CE in 1990 US dollars. The graph below shows milestones in evolution from 1011 years ago through 2005.[4] Where is the Toba super volcanic eruption that occurred 50,000 to 70,000 years ago and plunged the earth into a volcanic winter that lasted 6-to-10-years and that resulted in the global human population being reduced to ~ 10,000[5], the Ice Age (12000-8000 BCE),[6] the Global Drought Starting in ~ 2200 BCE, it lasted the entire 22nd century BCE. It is very likely to have caused the collapse of the Old Kingdom in Egypt as well as the Akkadian Empire in Mesopotamia[7], the  catastrophic eruption of the Thera volcano in 1628 BCE[8], The Little Ice Age (1300-1500 CE), [4] the Black Death  (1134 to 1348 CE)[9], the “Dark Ages” of Europe (500 to 1000 CE)[10], World War I (1914 to 1918)[11] and the 1918 Flu Pandemic[12] and World War II (1939-1945)[13] on these graphs?

Figure 2: This even longer time line of biological and human technological evolution similarly fails to show truly massive setbacks in the course of biological and cultural evolution, such as the Permian extinction, which destroyed ~ 90% of all life on the planet, the Holocene Ice Age, or the century long global drought which began in 2200 BCE.

Because of the scale of these graphs and the relatively brief of these events they are invisible – but not insignificant. While the character of exponential progress and increase in human wealth and knowledge is well represented on these graphs and on other like them, they fail to show the comparatively brief but nevertheless catastrophic events that are equally inescapable parts of human history. In the early 1980s, as I became more aware of the details of human history, I began to realize that quite apart from existential events that pose a threat to humanity, cryonics was in an even more sensitive position. Human life is resilient. Some paleoanthropologists estimate that Toba Catastrophe may have reduced human numbers to as few as 2,000 breeding pairs – this on the basis of the huge loss of genetic variety in humans that can be traced to this time period. Self-replicating life forms can withstand tremendous insults and still recover.

Cryopatient Destroying Events

Cryonics, however, depends upon highly sophisticated industrial technology in order to maintain uninterrupted cryogenic refrigeration for many decades, or even centuries. A quick glance at the recent historical past would suggest that the odds of success in such a venture are not very good. Perhaps the most recent example of global disruption that would have almost certainly resulted in destruction of any cryopatients in storage at the time is World War II (WWII). WWII was truly a planet-wide conflict. The United Kingdom, Europe, Russia, China and Japan were the sites of active, infrastructure-destroying combat. While the US, Canada and Great Britain did not experience ground invasion, or the wholesale destruction of infrastructure that Europe, Russia and China did, their economies were completely engaged in provisioning the prosecution of the war.

Figure 3: Virtually every consumer item from meat to fuel was rationed in the US and Canada during World War II. Virtually the entire manufacturing capacity of both nations was focused on war production which included subsistence production for the populations of both nations. http://www.ameshistoricalsociety.org/exhibits/events/rationing.htm

The US and Canada were under strict rationing of fuel, food, and virtually every other industrial commodity that comes to mind. For the duration of US involvement in the war not a single civilian vehicle, automobile tire, or pair of nylon stockings was manufactured. Petrol was tightly rationed and the penalties for black market activity were swift, severe, and surprisingly certain. The situation is Australia and South America were little different. WWII consumed essentially all of the energy and materiel of the global civilization for a period of at least 5 years. Any careful assessment of the conditions in Great Britain, Europe, Russia, China, and Japan for some years after the war would have disclosed a similarly dire and impoverished economic state for at least 5-10 years more. It is ludicrous to think that and energy intensive commodity such as liquid nitrogen would have been available, let alone allocated for the purpose of “cryogenically storing corpses for possible future reanimation.”

WWII thus constitutes a recent and prototypical “cryopatient destroying event” (CPE). It would by no means have destroyed either humanity or cryonics – recovery is clearly possible in both instances. However, it would have destroyed any patients in storage at that time. Larger catastrophes, on the scale of existential events risks (ERs) would no doubt have destroyed cryonics as well. Cryonics is a novel, opened-ended undertaking which must endure indefinitely. That is something which has never been attempted by our species before: even the ancient Egyptians employed a protected, “hidden cache approach” in attempting to secure long-term survival for their mummified remains. Thus, at the very least, it behoves us as cryonicists to understand the historical risk of CPEs, as well as to have a reasonable assessment of the risk of ERs.

Mathematician and writer Alexi Turchin has noted that when humans undertake fundamentally new kinds of engineering or technological endeavors they consistently underestimate the amount of risk involved. In the case of the Space Shuttle, the risk of a catastrophic failure was estimated to be no greater than 1 in 1,000 Shuttle flights. However, the first failure occurred on the 25th flight, meaning that the real risks were on the order of 1 in 25, rather than 1 in 1,000. Similarly, nuclear power plants of the Chernobyl design were calculated to have a failure rate of one in one million years. The Chernobyl failure occurred after less than 10 000 stations-years of operation demonstrating the real failure rate was 100 times greater than specified in the engineering risk assessment projections. Tuchin concludes that when humans undertake such novel endeavors they tend to underestimate the risks by factors of ten.[5]

The practical reasons for such failures are well surveyed by Tenner[14] and Savage[15] and the psychological and cognitive reasons by Yudkowsky.[16]  Both authors note that not only are estimates of failure much greater than initially projected, the confidence level (calibration) of the engineers, scientists and mathematicians who generate these risk assessments is also excessively optimistic.  As a consequence, risk assessment estimates for new technologies are plagued not only by inaccuracy, but also by an unjustified high degree of confidence their accuracy. The history of cryonics suggests a similar degree of underestimating the risks of failure; as well as excessive optimism about the nature and rate and progress in the field.[17-19]

Figure 4: Fifty years on, cryonicists have yet to rigorously study these questions.

One of the most common (and accurate) statements made by critics of cryonics and by the journalists is that “cryonics depend upon, or counts upon faith in the future for its success.” Implied in that statement is not just faith that the enabling technologies will eventually be developed to rescue today’s cryopatients, but also that the patients will remain secure against a wide range of risks, including but not limited to natural disasters, pandemic disease, anti-cryonics Luddite violence, technological Armageddon and last but not least, financial ruin. People adopt or reject a novel technology in large measure because it passes or fails their “credibility sniff test.”

The credibility sniff test is the sum of many factors in a person’s mind that changes the estimation of a technology from interesting, desirable and even possible, to “I think this will work for me.” Implied in that favorable summing up are many complex and subtle factors, some of which are in the province of what is known as “marketing.” Marketing addresses issues such as “Is this technology socially desirable or at least socially acceptable? Can I afford it? Why should I want it? Will it improve my status, make me richer, grant me that sweetest of boons; revenge on my enemies?” In short, ”Is it cool and is it something I just can’t live without out?” Most of the frenzied focus over the past half century on “fixing” cryonics has been on these “marketing” issues and on trying to find away to tweak the message, or to reconfigure it altogether in order make cryonics a “success.” Alas, it doesn’t work that way.

Cardiac surgery is a painful and terrifying ordeal. The idea of having your breastbone sawed in half, your blood pumped through a machine and your heart stilled is viscerally revolting.  And yet there are few reading this (in the West) who do not know at least one, and often several people who have had this done to them. No advertising campaign was necessary to get the population to suspend their disbelief, or to overcome uncertainty about where their souls would be residing during the minutes of chilled cardiac arrest. This technology became a commonplace because people understood, despite their deep and natural fear, that there was a reasonable chance it would work for them. Seeing a good outcome in others was no doubt critical to a decision to undergo such a procedure. But so was the enormous and hidden infrastructure of protections and safeguards which gives people confidence in their surgeon, the medical staff, and the hospital that will care for them.

Few would elect to undergo cardiac surgery if, after the last suture was thrown, the surgeon inquired, “Where is this patient’s family? They need to come get him out of my operating room so I can proceed to the next case.” An integral part of the credibility of a complex and dangerous procedure like heart surgery are the largely unseen bulwarks of institutional and professional infrastructure that are designed to shepherd the patient not just through the surgical procedure, but onto the best possible recovery he can achieve.

Figure 5: Optimism about the ability of existing cryonics organizations and their respective facilities to endure the test of time – of the passage of many decades, or even centuries – seems confined almost exclusively to cryonicists. To understand why this should be so it is only necessary to contemplate the cartoon above.

Underlying that infrastructure is a vast body of experience, risk assessment and protective procedures and equipment the purpose of which is to eliminate risk wherever possible, and minimize it where it is unavoidable. Nowhere is such risk aversion and minimization technology more highly developed than in the airline industry. The vast majority of people are terrified of extreme heights. The fear of falling is a biologically inborn trait (the Moro reflex)[20] which can be interestingly (if sadistically) demonstrated by placing a human infant atop a glass-topped table. Terror and vocalizations of distress are the immediate result. Because heavier than air flight evokes a primal fear in humans, the airline industry has been compelled to develop safety systems that are so remarkable that they border on the unbelievable, especially when closely examined.

People are afraid of flying and this fear is greatly exacerbated when their perceived ability to control their personal situation is removed and handed off to others; namely the pilots, the flight crew, the myriads of technicians and engineers and the air traffic controllers.[21] And yet, millions of people fly each year. The fundamental reason for this is that the airline industry has figured out how to pass the credibility sniff test. Cryonics has not. No doubt, a significant part of the reason that flying has passed the credibility sniff test is that planes do indeed fly reliably, and roughly 75% of adult Americans have flown (word wide estimates are in the range of 2-5% of the population). However, reality isn’t everything and perception can be incredibly important. Nor is perception the same thing as a delusion. As Freud remarked: “An illusion is not the same thing as an error; nor is it necessarily an error… In the case of delusions, we emphasize as essential their being in contradiction with reality. Illusions need not be necessarily false – that is to say, unrealizable or in contradiction to reality.” [22]

Figure 6: Timeship: a viable cryonics research and patient storage complex. or an impractical edifice complex?

Ostensibly, the idea of Timeship was created to address the shortcomings cryonics has historically suffered from in terms of failing to project an image of solidity and durability.[23] Timeship is to be a “six-acre structure that will be the world’s largest facility for life extension research and for the cryopreservation of DNA, biological tissues, human organs and patients…the “Fort Knox” of biological materials. DNA, tissue samples and cryopreserved patients will be housed in Timeship, and their safety and security against all threats, both natural and human-made, will have to be maintained for hundreds of years. Timeship has been designed to provide that security at every level, from defense against terrorist attack, to sea level changes due to global warming, to interruption of energy supplies due to any catastrophe.”.[23]

Cryonics commentator Mark Plus derisively refers to Timeship as the “Saulsoleum,” after the originator of the idea, long-time cryonics activist and co-founder of the Life Extension Foundation, Saul Kent.[24]  Viewed from above the Timeship concept, a design product of award winning architect Steven Valentine, looks like nothing so much as a large bull’s-eye inviting aerial assault. It is a structure that is all walls and no roof – something Mezoamerican – a structure conceived before a time when even catapults had been invented, let alone flying machines. I believe that Timeship is sadly best understood not as viable mechanism to protect cryonics patients, but rather through the lens of the “edifice complex.”

In his ponderous but nevertheless worthwhile book, The Edifice Complex: How the Rich and Powerful Shape the World, the Director of the Design Museum in London, Deyan Sudjic explores the psychology of why the wealthy so often embark upon lavish construction projects that typically make no economic or practical sense, and which are almost invariably triumphs of form over function. Sudjic argues that such structures are an egoistic attempt to compensate for looming mortality. As such, they needn’t be practical; indeed their only raison d’être is to impress and to endure.  To the extent that a man is synonymous with his name, as the ancient Egyptians believed, then Kufu (2613-2498 BCE) has indeed outwitted the passage of time, so far. The Great pyramid stands battered but triumphant on the plains of Giza even now. Whatever else Timeship may be it is neither a rational nor a practical haven for cryonics patients.

If cryonicists wish to be taken seriously, then they should have at their disposal a voluminous corpus of detailed evaluations of probability and risk; and also have at hand credible infrastructure to mitigate those risks, if not obviate them completely. Fanciful talk of an imminent singularity and of Mesoamerican mirages in the desert outside of San Antonio, Texas are not going to be sufficient to achieve this end for cryonics. These things are fantasies and they are recognized as such by most thinking people and as such, they fail to pass the credibility sniff test.

End of Part 4

References

1.           World Bank WDI: Population: Midyear estimates of the resident population of the world: http://www.google.com/publicdata?ds=wb-wdi&met_y=sp_pop_totl&tdim=true&dl=en&hl=en&q=current+world+population. Last updated Apr 26, 2011.

2.            Bostrom N: Existential risks: analyzing human extinction and related scenarios. Journal of Evolution and Technology: http://wwwnickbostromcom/existential/riskshtml 2002, 9(1).

3.            Tuchin A: Structure of the Global Catastrophe. Moscow: Russian Transhumanist Movement; 2008.

4.            Kurzweil R: The Singularity Is Near : When Humans Transcend Biology. New York: Viking, Adult; 2005.

5.            Ambrose S: Late Pleistocene human population bottlenecks, volcanic winter, and differentiation of modern humans. Journal of Human Evolution 1998, 34(6):623-651.

6.            Kuhle M: A relief-specific model of the ice age on the basis of uplift-controlled glacier areas in Tibet and the corresponding albedo increase as well as their positive climatological feedback by means of the global radiation geometry. Climate Research 2002, 20(1-7).

7.            deMenocal P: Cultural Responses to Climate Change During the Late Holocene. Science 2001, 292(5517):667-673.

8.            McLeish T: Santorini eruption much larger than originally believed. In.: University of Rhode Island; 2006.

9.            Austin Alchon S: A pest in the land: new world epidemics in a global perspective. Albuquerque: University of New Mexico Press; 2003.

10.          Berglund B: Human impact and climate changes-synchronous events and a causal link?: http://www.geol.lu.se/personal/bnb/pdf-papers/human_impact.pdf. Quaternary International 2003, 105:7-12.

11.          Willmott H: World War I,. New York: Dorling Kindersley; 2003.

12.          Patterson K, Pyle, GF.: The geography and mortality of the 1918 influenza pandemic. Bull Hist Med 1991, 65(1):4-21.

13.          Brzezinski Z: Out of Control: Global Turmoil on the Eve of the Twenty-first Century. New York: Prentice Hall & IBD; 1994.

14.          Tenner E: Why Things Bite Back : Technology and the Revenge of Unintended Consequences Vintage Books; 1997.

15.          Savage S: The Flaw of Averages: Why We Underestimate Risk in the Face of Uncertainty New York: Wiley; 2009.

16.          Yudkowsky E: Cognitive biases potentially affecting judgment of global risks: http://singinst.org/ourresearch/publications/cognitive-biases.pdf. In.; 2006.

17.          Perry R: Suspension failures: lessons from the early years: http://www.alcor.org/Library/html/suspensionfailures.html. In. Phoenix: Alcor Life Extension Foundation, Inc.; Last updated June 2010.

18.          Sheskin A: Cryonics: A Sociology of Death and Bereavement Irvington; 1980.

19.          Platt C: A short history of cryonics: http://www.cryocare.org/index.cgi?subdir=&url=history.txt. In.: CryoCare Foundation; 1994.

20.          Zafeiriou D: Primitive reflexes and postural reactions in the neurodevelopmental examination. Pediatr Neurol 2004, 31(1).

21.          Medialdea J TF: Phobic fear of flying in aircrews: epidemiological aspects and comorbidity. Aviat Space Environ Med 2005, 76(6):566-568.

22.          Freud S: The Freud Reader. In. Edited by Gay P. New York: W. W. Norton & Company, ; 1995: 720.

23.          http://www.timeship.org/.

24.          Plus M: http://lesswrong.com/lw/6fc/cryonics_facility_coming_to_texas/.



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Posted in Cryonics History, Cryonics Philosophy, Cryonics Technology (General), Culture & Propaganda, Philosophy | 10 Comments

In Camera Historia: Air Hearse, 1974

10 February, 1974 “Air Hearse”

I was 19 years old and I had never flown in a light aircraft before. I had had very little sleep for the three days prior to the start of the flight. “Gasoline rationing” was in effect in the United States and most of the West, and there was an atmosphere of impending socioeconomic doom. We arrived at the airport in Cumberland, Maryland on an overcast and freezing day. The skies were spitting snow flurries and our fingers were numb and stiff with the cold. The hearse pulled up next to a gleaming Cessna Piper Cherokee and a stunning looking woman dressed in tight jeans and a  leather jacket and boots emerged from the cockpit. Her long brown hair was lofted and buffeted by the freezing wind, and her eyes were two mirrored orbs of reflective plastic. I don’t notice women much, but even these many years later I can see her in mind’s eye and realize that she was an extraordinary human being, and a beautiful woman. Her name has vanished from my memory, but the name of her plane, at least the non-numerical portion of it , is not forgotten, it was Whiskey.

She ran a company called Air Hearse and her business was the quick transport of the dead to anyplace her Cherokee could reach. We stood on the freezing tarmac discussing possible destinations. Could she take us directly to Emeryville, in Northern California? She lifted the sunglasses exposing her eyes to the tiny shards of wind driven ice. Matter of factly she said, “That would be difficult and a bit dangerous. I’d have to gain a lot of altitude to get over the Rockies. We’d definitely need supplemental oxygen. It’s gonna cost you plenty.”

The mortician, shifting his weight from leg to leg and shivering in the cold, suggested that we get our cargo out of his terrestrial hearse and into her celestial one, so he could be on his way. We could sort out where were going on our own time.

The Cherokee had a large slide-aside access door to the cargo area which was opened, and the hearse was backed up, end to side, to the aircraft. I don’t recall how many of us there were, but it was not enough. The patient was in an inexpensive cloth covered fiberboard coffin. He was not a petite man and he was covered in approximately 300 pounds of dry ice. A weight of 500 or 600 pounds was probably reasonable for the frigid bier and the still incompletely frozen man inside of it. The pilot was used to the mechanics of loading bodies into the tiny hold of the Cherokee, but this was another matter altogether. Without rolling dowels, the coffin became enormously difficult to turn and slide inside the confined space of the cargo hold. The pilot began to shout that we take care not to damage her aircraft. I became concerned that the now frigid, flimsy, glued together coffin would disintegrate under the load and the torque of being heaved into the airplane. Frozen fingers and jostling bodies made the task almost impossible to accomplish. But we did it.

The runway at the Cumberland airport extends to the edge of a cliff and then gives way to sky and space, or to earth and death. We were heavily overloaded. As we left the end of the runway the Cherokee sank sickeningly, and then recovered. The snow dusted crags and crevices of the Ridge-and-Valley Appalachians unfolded before us. The view was fogged slightly white with lightly falling snow. As I looked around and tried to recover my equilibrium from the terror of takeoff, I noticed that I was not succeeding. Over the ensuing minutes I became increasingly breathless and the mother of all headaches began to descend. I was sufficiently self absorbed in trying to stem my “rising panic” that a few perilous minutes more passed by before I looked over at the pilot. She was breathing rapidly; almost on the edge of panting.

I looked back over my shoulder at the gray fabric draped coffin. It was virtually un-insulated – perhaps an 1/8th of an inch of fiberboard with another ½” or so of shredded wood excelsior.  More to the point, the patient inside was still mostly well above 0C and covered in dry ice. The volume of sublimated gaseous carbon dioxide being generated must have been some fearsome number of liters per minute. I turned to the pilot and asked if she was short of breath. The answer was a thoughtful shake of her head in the affirmative. Once I explained the situation we were in I learned something interesting about light aircraft, or at least about Piper Cherokees: you can’t simply roll down the window to let fresh air in.

By this point, we were both panting and our visual fields were becoming impaired. Things begin to get dark around the periphery and it becomes a task to focus on the still clear center of your visual field. Fortunately, “Whiskey” had two small, flap-like cutouts in the glass of both the pilot’s and passenger’s side windows. We could breathe as long as we kept our noses and mouths in close approximation to the small apertures admitting wisps of fresh air into the cabin. Finally, my heart rate settled down to a brisk staccato and I twisted around in the seat, the shoulder belt biting into my neck, and took a picture. The Polaroid SX-70 spit out a milky gray rectangle that slowly matured into a spotted and slightly out of focus image.

If you want to see into the mind of a man give him a camera and see what he photographs. That is as close as you will come to seeing the world through his eyes. There are no photos of the beautiful and remarkable pilot, or of the harsh and craggy Appalachians. There is only this solitary photo of a man cooling to dry ice temperature in a desperate bid for immortality. For me, that was enough, then and now.

As we headed towards Detroit, our destination, the sublimation rate declined and the ingress of fresh air began to better sweep out the evolving carbon dioxide. Still, it was barely enough. It was then that I got my first lesson in the physics of the partial pressures of gases. The pilot informed me that the decreased pO2 due to our altitude was probably making the hypercarbia from the sublimating dry ice worse. We would have to descend. This information was communicated to an air traffic controller who, after a quick consult with his colleagues, averred: We could not descend; the flight path was not clear. “Well boys,” our pilot said with icy calm, “I suggest you clear a fucking flight path for us, because I have no intention of suffocating up here.”

I did not see Detroit from the air that day. Forced as we were to fly at a reduced altitude we entered into the heart of one of the worst snow storms the Detroit metro area had experience in many years. The pilot ignored the many orders to divert Whiskey to another airport and we landed in snow that was halfway up my calves. Unloading the heavy coffin was a nightmare in the snow, and I feared that the elderly Mr. Mott, the Cryonics Society of Michigan’s mortician, would be felled from a heart attack amidst the swirling snow cloud that enveloped us.

The trip from the airport to the mortuary proceeded at a crawl through the fast accumulating snow. Thick sheets of snow alternately coated and peeled off from the slowly turning tires of the few cars ahead of us that were still out on the road. It was warm and dark inside the front of the hearse and Mr. Mott had the radio on. “Well son, just your luck to get here in the middle of a blizzard,” he said. “Yes, just my luck,” I replied, as I looked out into darkness of a city now fully engulfed in both snow and night.

– Mike Darwin

Posted in Cryonics Biography, Cryonics History | 1 Comment

In Camera Historia: Audrey U. Smith, (1915–1981)

Audrey U. Smith, circa 1960s

Audrey U. Smith (1915–1981), the mother of Cryobiology, was born in India on 21 May 1915. She was educated King’s College, London (first-class B.Sc., 1935); Bedford College for Women (first-class B.Sc. in physiology, 1936); registered for a Ph.D. degree at King’s College (1937); Vassar College (1937–1938); Marine Biological Institute at Woods Hole; King’s College (M.D., 1956). Professional experience: King’s College Hospital, house physician (1942), clinical pathologist (1943–1944); Epsom, public health laboratory, pathologist (1944–1945); Emergency Public Health Laboratory Service, Nottingham, pathologist (1945–1946); National Institute for Medical Research, then at Hampstead, researcher (1946–1970); Royal National Orthopaedic Hospital at Stanmore, staff (1970–1981).

Smith began her research in cryobiology in 1946 at Mill Hill in Britain’s Medical Research Council (MRC). Working with Sir Alan Parkes and Christopher Polge Smith attempted to develop a workable cryopreservation technique for animal semen. After many failed efforts Smith had success, however attempts to replicate the feat using the concentrated egg albumen that had previously conferred cryoprotection were unsuccessful. Smith noted that the particular bottle of albumen that had yielded success was not the one used in the subsequent, unsuccessful experiments and she undertook to analyze it. As she prepared to evaluate the contents of the bottle she accidentally dropped it in a laboratory sink where it shattered. As the bottle broke, a droplet of the liquid it contained traveled “in a long arc” from the sink where it landed on a laboratory hot plate. The result was a pungently acrid puff of smoke. Smith immediately recognized the odor of acrolein in the smoke; acrolein is a primary pyrolysis product of glycerol.

Hypothesizing that bottles in the chemical cupboard may have become mixed up – perhaps two loose labels had been affixed to the wrong bottles – Smith decided to try glycerol in the next round of experiments. This proved successful, and thus the first practical cryoprotectant molecule was discovered. Smith quickly extended her initial success with fowl semen to bull and human semen. This led to the development of the artificial insemination industry for dairy cattle, and the creation of human sperm banks, which were initially used as a resource primarily for married couples where the husband was infertile.

The impact of artificial insemination (AI) on milk production has been astonishing. Mostly as a result of AI, annual milk production per cow in the US has risen from 252.27 kg (13,555 lbs) in 1961 to 9,164.4 kg (20,204 lbs) in 2007, exclusive of the milk consumed by cow’s the calves. This is the primary reason why milk remains a highly affordable foodstuff and that it and its byproducts can be produced in vast surplus for export to the developing world as a major source of high quality protein.

Smith and her colleagues extended their work to tissue culture, and to a wide range of cells and tissues, including mammalian ovaries and embryos. In 1950, Smith published a paper documenting the successful cryopreservation of red blood cells. Smith expanded this technique into a workable method for cryobanking red blood cells for transfusion – a technique that is still in use to treat anemia from a variety of causes. Smith was also the first to achieve successful cryopreservation of lymphocytes and of bone marrow stem cells. The latter discovery is responsible for the existence of contemporary bone marrow banks and thus the feasibility of heterologous bone marrow transplantation in medicine.

In addition to her work on cryoprotection and the mechanics of cryoinjury, Smith, along with Sir James Lovelock and Alan Parkes, published an extraordinary series of papers documenting the ability of the golden hamster to withstand conversion of ~ 50% of their body water into ice and recover with no lasting harm. Smith and Lovelock extended this to work to rabbits and galagoes (a small primate) demonstrating acute success, but not long term survival of the animals.

In 1967 Smith was appointed head of the Division of Low Temperature Biology of the Clinical Research Centre. However when the Centre moved from Mill Hill to Harrow in 1970, Smith did not move with it due to her strong ethical objections to the application of cryopreservation to human embryos. Whilst Smith had worked closely with Robert Edwards and Patrick Steptoe, who were the first to achieve in vitro fertilization and cryopreservation of human embryos (with the birth of Louise Brown in 1978, in Oldham) she was virulently opposed to the cryopreservation of human embryos. When Smith headed the Division of Low Temperature Biology she successfully petitioned Sir Charles Harrington, then Director of the MRC, to ban all in vitro fertilization research on humans.

Smith strongly disapproved of cryonics and had such antipathy towards the father of cryonics, Robert Ettinger, that she would refer to him in conversation only as “that man.” Smith died of cancer in 1981 in Stanmore, which is located in Northwest London.

Selected Bibliography

A. U. Smith. Prevention of Haemolysis during Freezing and Thawing of Red Blood Cells.” Lancet 2 (1950):910–911.

A. U. Smith, J.E. Lovelock, A. S. Parkes. Resuscitation of hamsters after supercooling or partial crystallization at body temperature below 0 degrees C. Nature. 1954 Jun 12;173(4415):1136–1137.

C. Polge, A. Smith, and A. Parkes. Revival of spermatozoa after vitrification and dehydration. Nature (London), 164:666, 1949.

D. E. Pegg. The history and principles of cryopreservation. Semin Reprod Med, 20(1):5–13, 2002.

A. U. Smith. Biological Effects of Freezing and Supercooling, Williams and Wilkinns, London, 1961.

Posted in Cryobiology | 1 Comment

In Camera Historia, Trans Time, Inc., 08 February, 1974

 

08 February, 1974

Trans Time’s first two patients, shortly after being placed head down inside a dual patient Minnesota Valley Engineering cryogenic dewar, on 08 February 1974 in Emeryville, California.  The dewar was originally constructed to store cryonics patient Clara Dostal, at the facilities of the Cryonics Society of New York on West Babylon, Long Island, NY. However, when Dostal’s son and daughter decided not to proceed with her cryopreservation, the dewar was sold to the son of the patient (RM) whose foil-wrapped feet are visible in the upper part of the unit.

The dewar rests horizontally on a castered wooden dolly awaiting being hoisted into an upright position for filling with refrigerating liquid nitrogen. This cumbersome system was later replaced with a simple and elegant “capsule rocker” developed by Trans Time engineer John Day.

Today, RM is in liquid nitrogen storage at Alcor’s facilities in Scottsdale, AZ. The other patient in the dewar that day (MD) is now in storage at the Cryonics Institute, along with her husband and son.

Photo by Jim Yount.

Posted in Cryonics History, Cryonics Technology (General) | Leave a comment

Casual Conversation: A Remembrance of Things Past

“We don’t receive wisdom; we must discover it for ourselves after a journey that no one can take for us or spare us.”

- Marcel Proust

By Mike Darwin

A Digital Ark

A couple of years ago I did a “document dump” of scanned/digitized cryonics historical materials to the CryoEuro Wiki, which is  hosted and maintained by Eugen Leitl (http://cryoeuro.eu:8080/pages/viewpageattachments.action?pageId=425990&startIndex=0). I’ve been scanning the cryonics historical material in my possession for about 4 years now.  It is slow going and the results are often less than gratifying. I have 3 flatbed scanners at my disposal – two of which have been made ancient by the so far relentless march of Moore’s law. Still, they allow me the luxury of improving my efficiency a bit; while one scanner is arduously capturing a page and writing it to the hard drive, I can proceed to scan another page on another scanner.

I labor under such constraints because apparently (with the exception of Dr. Mike Perry) no one else gives a damn whether these resources survive or perish. Cynical words, I know, but also words that are true.

Why should anyone care? The past is the past and the science and technology of cryonics have moved on. The social, economic and political milieu that cryonics struggles in today is also greatly changed; perhaps so much so it might be argued, that the past is of relevance only as a curiosity, or as resource for future academics and historians of cryonics to use in writing learned dissertations and advancing peculiar theories about why things happened as they did, or turned out in the way they will? From my compromised vantage point (as a player in these events) it is hard for me to tell. My gut feeling is that the near complete absence of interest in this material, and in the historical epoch it chronicles, is a sign that something is wrong in cryonics. Or, maybe more accurately and promisingly, that something is simply missing at the moment.

Figure 1: The build up and collapse of sand piles exhibit the property of surface fractals – also called cellular automata. The spikes (green) in the graph at the right of the illustration above show the ups and down of the sand pile’s height over time. The inset (blue) graph shows the Dow Jones Industrial Average during January of 2009. The similarity in the pattern of activity between the DJIA and the behavior of sand piles is almost certainly not a coincidence.

I think that most who seriously study the history of cryonics will conclude that there appear to be cycles of activism and interest. There is nothing remarkable in this: the same is true in almost any area of human undertaking, and of human history in general: peace-war, peace-war, boom-bust, boom-bust… Dribble grains of sand onto a sand pile and you’ll see a similar (if not identical) phenomenon. In fact, it seems to be a fundamental property of living systems. Physicists Per Bak, Chao Tang and Kurt Wiesenfeld noted that as grains of sand are randomly added to a sand pile and it experiences build ups and collapses, this behavior exhibits the property of surface fractals – also called cellular automata, with the “avalances” obeying the Eden Growth Model (Figure 1). This is the same rule that underlies the growth of bacterial colonies on an agar plate. In short, there is nothing mysterious about it. The overall pattern of build up and collapse over time looks much like like the Dow Jones Industrial Average over the period of a month or so (see blue insert graph in Figure 1). So goes sand piles, so goes cryonics and so goes the world.

Sand Piles & Soothsayers?

The Bak–Tang–Wiesenfeld sand pile model is lovely to know about, but it won’t help you pick a high performing stock, or even tell you what the market will do – beyond the fact that it will most likely exhibit behavior similar to that seen Figure 1 – except every great (and equally unpredictable) once in awhile, when it will behave very, very differently (so-called Black Swan events).  Again, this is nice to know, but it is of little practical utility to the day trader, or the casual investor. And therein lies the rub – because we cryonicists are ostensibly in it for the long haul. And that’s where the history of cryonics becomes potentially very useful.

Figure 2: Alcor membership from 1972 to 2010. What can be learned from a careful analysis of these data? Is there a discernible reason(s) why growth in membership became nearly exponential, briefly, during the early 1980s?

Figure 3: The Alcor patient population from 1975 to 2010.

At the most basic level, it allows us to see what the pattern of activity has historically been like in cryonics. That does not necessarily mean that it will continue in the same way. However, there is now nearly 50 years of cryonics history. That’s a substantial baseline, and if you chart the progress of cryonics over that time by almost any measure, and you look at the primary historical record, you’ll immediately notice that in no way has cryonics behaved as it was predicted to do by the first generation of cryonicists (or for that matter, by any subsequent generation). There was no widespread “revolutionary” adoption of the idea, and if Alcor membership and patient statistics are examined, it is immediately apparent that growth was not only not logarithmic, it has been (mostly) linear (Figures 2 & 3). The Google N-gram for the frequency with which the word cryonics appears in published books (English language) similarly shows a lack of logarithmic growth (Figure 4).

Figure 4: Google N-gram for the frequency with which the word “cryonics” appears in books published in the English language from 1964 to 2010.  Does the shape of this curve reliably correlate with historical events in cryonics?

Beyond these basic observations, if we want to understand if there are any reasons for “bad” or “good” intervals on these, or other indices of how cryonics has performed over time, we will necessarily have to have recourse to history. Did anything happen of historical note to jump start Alcor’s growth in the 1980s? If so, what was it, and can anything be learned from examining the historical record in detail that might prove useful in assisting the growth of Alcor, and more generally the growth of cryonics, today? Do the pauses in growth and the occasional downturns that are in evidence to varying degrees in all of these charts mean anything? If so, are there lessons for us? What strategies were suggested (and tried) in the past, and did they work? Are the same kinds of errors being made now that were made a decade ago, or even 40 years ago? What kind of people, with what kinds of skills were responsible for growth spurts or paradigm shifts within cryonics? Indeed, what were the paradigm shifts, and did they matter?

Figure 5: The rates at which novel consumer technologies were adopted in the United States.

More generally, can we look to the ‘adoption curves’ of other technologies and draw any useful conclusions for cryonics? If nothing else, a quick glance at Figure 5 shows the profound delaying effect that the economic havoc of the 1929 stock market crash followed by the Great Depression and World War II had on some, but not all technologies. Are there implications for cryonics in such metrics both now, and in the future?

I don’t know the answers to these questions with certainty. But I do know, from experience, that carefully studying what worked and what didn’t, and paying close attention to membership and patient growth curves (not just in Alcor, but in cryonics as a whole) was essential to the success that Alcor enjoyed from ~ 1981 to ~ 1990. These data were critical in shaping the decisions that I and others made during that interval.[1] As George Santayana famously said, “Those who cannot remember the past are condemned to repeat it.”

Leaving aside the practical utility of the historical record of cryonics, I believe it is both fascinating and rewarding to peruse. It is also part of our duty as cryonicists to be aware of our history and to hold gratitude for, and give credit to those who worked to create it. Imagine waking up one day to find that all but the barest memory of your past had vanished? You know your name, where you work, perhaps where you were born, most of the things you need to get through the day; but nothing of where you came from, or what your experiences were 5 years ago, let alone 10, 15 or 20 years previously. Aside from the fact that much in your life and your experience would be puzzling and frustrating, there would also be the reality that you would have a suffered a terrible loss. The tapestry of our lives – the events, experiences and memories we hold as individuals, constitute the anchoring core of our being. Without them, we become shallow and lost. The same is true of institutional, scientific and academic disciplines. It is possible to participate in these disciplines without knowledge of their history; but only as a yeoman or a technician – as cog in the wheel.

The Corpus

The idea was to organize the material now residing on CryoEuro in such a way that it would be easily accessible. Materials would be grouped by type, by time and by the organizations that produced them.They were to have had brief, objective introductions explaining what they are and how they relate to others items in the archive. Alas, several years have passed, and this seems unlikely to happen anytime soon. While I doubt there are many (if any) others currently active in cryonics who will find this material of either great interest or great use, I can’t know that for sure, and what’s more, this effort is an investment in the future of cryonics. It may lie fallow for some time, but the fact that the data are there is important, and its wider dissemination should not be delayed further.

Since the materials are not currently cataloged or organized in any way, I thought it would be a good idea to at least provide the barest overview of the documents that are there, along with URLs that will allow the curious to sample them.

There is a good deal of the literature of the first cryonics organizations, as well as significant media coverage from the period. Science fiction writer Fred Pohl’s 1964 Playboy magazine is there:

http://cryoeuro.eu:8080/download/attachments/425990/IntimationsofImmortality_Playboy_Jun1964.pdf

as well as the Paris Match article (if you read French) detailing Dr. James Bedford’s cryopreservation:

http://cryoeuro.eu:8080/download/attachments/425990/BedfordParisMatch4March1967.pdf

The Paris Match article is almost a direct translation of the famous LIFE magazine article which was scuttled when astronauts Grissom, Chaffee and White were incinerated in an oxygen fire in Apollo 1.

There is low-end tabloid-style coverage of cryonics from 1968, such as the True men’s magazine article about Steven Mandel’s cryopreservation:

http://cryoeuro.eu:8080/download/attachments/425990/ScienceonVeergeofConqueringDeath_True+Magazine_+1968.pdf

Critical commentary from influential thinks of the time, such as Isaac Asimov is also present:

http://cryoeuro.eu:8080/download/attachments/425990/SeeYouintheHereafter_+Penthouse_1971.pdf

as are later, more cynical articles, such as the 1978 Playboy piece, “Frozen Guys”:

http://cryoeuro.eu:8080/download/attachments/425990/Frozen_Guys_Playboy%2C_August_1978.pdf

There are also articles from the late 1980s documenting the Dora Kent incident, though the record as represented here is far from complete:

http://cryoeuro.eu:8080/download/attachments/425990/Freezing+Heads%2CNew+York+Newsday+Sunday+Magazine%2C+31+January%2C+1988.pdf

Most of the first (still extant) newsletters of the Cryonics Society of New York (CSNY) are present starting in 1966 and going forward until Immortality, the successor magazine to the original Cryonics Reports ceased publication :

http://cryoeuro.eu:8080/download/attachments/425990/Cryonics+Reports+2%289%29+1967.pdf

http://cryoeuro.eu:8080/download/attachments/425990/CryonicsReports3%2810%291968.pdf

http://cryoeuro.eu:8080/download/attachments/425990/Cryonics+Reports+2%285%29+1967.pdf

Promotional material from the early days of cryonics, such as the full color Cryo-Span brochure have been carefully scanned and restored:

http://cryoeuro.eu:8080/download/attachments/425990/CryoSpanBrochure.pdf

The full proceedings of the First Annual National Cryonics Conference which was held in 1968 is also available:

http://cryoeuro.eu:8080/download/attachments/425990/Proc1stAnn+Cryo+ConfNYC1968.pdf

Isamu Suda’s Nature article documenting his claim that cat brains can recover EEG activity after days of frozen storage at -20oC was used by CSNY (and all succeeding cryonics organizations) as a promotional tool, and a copy of that article, as distributed by CSNY is present:

http://cryoeuro.eu:8080/download/attachments/425990/SudaNature1966.pdf

I believe that all of the issues of the Chamberlain’s extraordinary effort, Manrise Technical Review, are presented and accounted for. A sampling is here:

http://cryoeuro.eu:8080/download/attachments/425990/ManriseTechRev1%281%291971.pdf

http://cryoeuro.eu:8080/download/attachments/425990/ManriseTechRev3%281%291973+.pdf

With the exception of the last 2 issues, all of Life Extension, later to become Long Life magazine has been scanned. Yes, that’s right; there was both a Life Extension, and a Long Life magazine long before the current efforts by the Life Extension Foundation and the Cryonics Institute:

http://cryoeuro.eu:8080/download/attachments/425990/Life+Extension+Magazine%2C+1%281%291977001.pdf

http://cryoeuro.eu:8080/download/attachments/425990/LongLifeMag2%285%2910_1979.pdf

A few issues of the  complete Cryonics (1980s) magazine (with illustrations) have been scanned.

http://cryoeuro.eu:8080/download/attachments/425990/CryonicsMagJune9%286%291988.pdf

http://cryoeuro.eu:8080/download/attachments/425990/CryonicsMagJune9%286%291988.pdf

Since I was informed that Alcor will shortly be scanning and uploading these issues of Cryonics to their website library, I have not proceeded further with this arduous task. [Because I am using a flatbed scanner which will not accommodate 8.5” x 14” images, each issue of Cryonics that I scan must be completely disassembled – aligning the pages is also an onerous task.]

The original, professionally published (color cover) of Cryonics: Reaching for Tomorrow is present, as well as this prototypical 1989 version:

http://cryoeuro.eu:8080/download/attachments/425990/AlcorReachingForTomorrow1989.pdf

There are also a fair number of scientific journal articles relating to cryobiology, cardiopulmonary resuscitation, cerebral resuscitation, cerebral ischemia and liquid ventilation, which are likely to be of interest only to researchers working in these areas. One classic paper which deserves mention is the original work of Ames, et al., documenting the no-reflow in the brain after cardiac arrest[2]:

http://cryoeuro.eu:8080/download/attachments/425990/amesnoreflowii1968.pdf

Considerations Past, Present & Future

There is a staggering amount of material still in need of scanning – literally thousands of pages. I’ve tried to digitize the documents that seemed most historically relevant; but that is my subjective judgment and it is no doubt deeply flawed.

There will be accidentally omitted pages and other errors in these documents. These are mostly raw, unedited scans. There was no one to proof my work when I first undertook it, and that is still the case today. I apologize for errors or omissions but also want to be note that I did the best job I could, given my personal and technical limitations.

In many instances, documents which still remain to be scanned, exist as the only copy. This is a dangerous situation: several years ago the plastic sprinkler pipe in our home froze while we were away, inundating the whole house with countless gallons of water. Some of the archival material (fortunately a very small fraction) were damaged, and some (a few items) were completely destroyed.  The bulk of the archive was saved because it was stored in closets that were largely inaccessible to the 3-day long downpour from the ceiling. Since then, the materials have been repacked in covered plastic bins. Whilst this makes ready access very difficult and time consuming, it was a necessary tradeoff.

Dr. Mike Perry is similarly slowly laboring to digitize the cache of material he has accumulated. Sadly, a significant fraction of the CSNY archive was sent off to Underground Vaults and Storage in Kansas, and I’ve long since given up hope of seeing it again anytime soon (the cost of retrieval is ~$2,000). Mike has digitized all of Ev Cooper’s Life Extension Society newsletters Freeze-Wait-Reanimate as well as the all of the Cryonics Society of Michigan (now the Immortalist Society/Cryonics Institute) newsletters The Outlook and The Immortalist. Hopefully these will be available on-line soon, as well.

I will add to this archive as I can and I would encourage others to do so as well. If you have media articles, literature, correspondence, photos or items you think might be of historical import to cryonics, please contact either Eugen Leitl (eleitl@gmail.com) or me.

 

Footnotes

[1] I was President of Alcor from 1982 to 1988 and a critical force in management until shortly before my departure in 1992.

[2] After ~ 6 minutes of cardiac arrest it becomes difficult bordering on impossible to restore blood flow to the brain under normal clinical conditions. Even now, over 30 years later, the mechanisms which underlie the no-reflow phenomenon are not fully understood.

Posted in Administrative, Cryonics History, Cryonics Philosophy, Culturomics | 20 Comments

The Armories of the Latter Day Laputas, Part 4

By Mike Darwin

“Possibly the most important discovery we have made about ourselves is that Man is a Wild Animal. He cannot be tamed and remain man: his genius is bound up in the very qualities that make him wild…Not even the H-bomb could change our inner nature. We have learned most bloodily that the H-bomb does nothing that the stone axe did not do – and neither weapon could tame us. Man can be chained, but he cannot be domesticated, and eventually he always breaks his chains.

Robert A. Heinlein, “The Third Millennium Opens,” 1956.

What was the physical state affairs at the ICBM installations in the USSR at the time the arms race began and the much touted Missile Gap was announced to American public and to the US’ allies in NATO? I know of no open sources of photo-documentation of the four ICBM sites that existed in the USSR at that time. One of them was Baikinour, located in the desert on the frigid steppes of Kazakhstan.  With the dawn of the “space age,” with the launch of Sputnik I in October of 1957, it became the Baikinour Cosmodrome.  The other sites are not available for “authorized” public inspection; they are falling to ruin and far too dangerous for tourists clamber around in. However, they are fair game for the Urban Explorer and one such site has been photographed (see Figures 44-50, below).

The Pervomaysk site itself dates back to ~1962, and the exterior facade to that facility is visible, and it is singularly unimpressive. It might even be said it is quite sad when compared to the Titan I sites that were blossoming in the US at the same time.

Figure 40: The Soviet “equivalent” of the Titan 1 Missile Site in Pervomaysk, Ukraine. This site was active in 1961 and was one of the first operational ICBM sites.

The Soviet R-7/SS-6 Sapwood missile was certainly impressive in it’s range of ~ 8,000 km and its throw weight of 3000 kg. Because Soviet thermonuclear weapons were heavier and bulkier than their US counterparts, the Russians were forced to design and build boosters with heavy lift capacity. Additionally, because the state-of-art electronics and the variety of off the shelf components were much more limited in the USSR than in the US, the R-7 missiles had to be engineered with simplicity, ruggedness and reliability in mind. The relative lack of GDP of the USSR, when compared to the US, also meant that the systems being built had to serve their purpose over a prolonged period of time; rapid obsolescence and the associated high costs were simply not an option.

Figure 41: The comparative bulk and weight of Soviet thermonuclear weapons (as contrasted with those of the US at the time) necessitated the construction of heavy lift boosters with a high specific impulse of thrust. This positioned them perfectly for launching small payloads into stable earth orbit and for launching heavier payloads, such as manned spacecraft, into low earth orbit. All heavy life boosters currently operating are lineal descendants of the SS-6 ICBM.

The legacy of that design envelope is still being enjoyed today, not only by the Russians, but by the world. The basic platform of the SS series went on to become the Vokstok and it is the descendants of the Vokstok that today are the only truly heavy lift boosters humanity has for accessing space. These spacecraft are the largely unnoticed and unremarked upon workhorses that routinely complete their duties carrying both men and materiel to the International Space Station.

Figure 43: Two views of the SS-6: at left, the rocket is shown in its horizontal configuration for transport to the launch site. At right, the rocket is shown ensconced in its launch gantry. The SS-6 employed kerosene and liquid oxygen as its propellants. This combination provides a high specific impulse providing the rocket with maximum fuel efficiency.

Some idea of what the Russian equivalent of the Titan 1 ICBM facilities looked like can be gleaned from photos taken in one of the abandoned (gutted) facilities that were documented by Urban Explorers after the collapse of the Soviet Union. As can be seen from the photos below, they were a small fraction of the size of US installations and were constructed at a small fraction of the costs.

Figure 44: Access tunnel leading to the operations and engineering centers of a 1960s era Soviet SS-6 ICBM site. The brackets on the right originally supported electrical cables.

Figure 45: Blast door protecting the personnel entrance into the engineering center.

Figure 46: Launch control room.

Figure 47: Engineering room.

Figure 50: Propellant storage room.

The R-7 was stored horizontally in earth sheltered bunkers. To be readied for launch, the missile was removed from the bunker, erected upright in a complex steel truss assembly (Figure 43), and then fueled for launch with kerosene and LOX. Sergei Korolev, the chief designer of the R-7, made a number of fundamental design improvements over his Nazi predecessors’ V-2. He abandoned exhaust jet vanes for control (which decreased thrust and were difficult to engineer reliably) and instead employed dedicated control engines mounted near the top of the rocket.. The control engines also served as the last stage’s vernier thrusters, thus adding greater precision to targeting. Korolev also abandoned the launch pad system and instead, suspended the rocket in a web-work of steel trusses that bore the vertical weight load, and served to protect the rocket against horizontal wind forces.

As previously noted, the process of preparing the-7 for launch took hours and each of the four R-7s could deliver only one nuclear weapon of comparatively low mega-tonnage. In other words, the whole arms race began over pathetically little, and escalated largely on the basis of very serious fears on the part of the Soviets that US was preparing for a first strike, and that the massive construction boom of US nuclear missile sites, at the cost of billions of US dollars, was proof positive of these intentions.

Similarly, in the US, there was deep mistrust of the USSR, particularly as a result of posturing and because of the long stated intention of the USSR to expand its sphere of influence wherever, whenever possible, including by the use of military action. Lack of information due to state imposed secrecy on both sides, coupled with the personal angst and enmity that the leaders of the two empires felt towards their opposite nation state, ensured that the escalation would continue unabated. A much better understanding of the Soviet mindset can be had by reading the extraordinary collection of documents in “John Hines’ Report- Soviet Intentions, 1965-1985” (see the Special Bibliography at the end of this article). The inescapable conclusion is that Soviet arms proliferation was driven primarily by a fear of a US first strike.

As the arms race escalated throughout the 1970s and into the 1980s and 1990s, the USSR developed a “lower” technology, less expensive, but still very lethal land-based nuclear delivery platform. It was that technology that I went to Pervomaysk to explore.

Figure 51: Layout of a typical Soviet ICBM site in the 1980s and 1990s. A lower security area of the base fronted the access road and consisted of first tier security facilities, vehicle bays, barracks and infrastructure for base security and support personnel. In back of this area was the high security zone enclosing the missile and associated launch infrastructure. This consisted of housing for the officers and political apparatchiks (D), the underground launch command/control center (A), the R-36 missile silo (B), a hardened security bunker (C) and a surface engineering and power generating plant.

Figure 52: Inner perimeter high tension electric fence. This fence was not present as just as a deterrent; contact with it would have been immediately lethal.

The basic layout of a Soviet ICBM site as it was configured in the 1980s is shown in Figure 51, above.  These sites maintained a significant contingent of regular army and their command personnel present on the site. The Pervomaysk site was under the command of the 46th Missile Division of the 43rd Rocket Army.  This site was occupied since ~1960 and housed successive generations of SS-series ICBMs beginning with the SS-4 through to the SS-24 in 1996.

Security consisted of multiple perimeters, beginning with a barbed wire fence and guard shack with a standoff area that was patrolled by armed troops. Inside that perimeter was a triple layer of fences; another barbed wire fence in close juxtaposition to high tension electrical fence, followed by another barbed wire fence, the latter of which enclosed the whole of the actual missile launch complex itself. The road access guard shack was supplemented by a hardened, machine gun equipped bunker on the campus of the missile site itself which is labeled “C” in Figure 51, above. Housing for the command and control crew was also placed inside the innermost perimeter (D). Guard dogs were also present and allowed to move freely within the innermost perimeter. It was interesting to note that poison ivy had once been planted along the length of the inner perimeter high tension electrical fence – there are still some healthy specimens, of nearly man-height, growing there today.

Figure 53: The control center was a modular 12-storey facility that was trucked to and from the site for deployment and refurbishment. The control center was shock mounted to withstand a direct nuclear hit with a low mega-tonnage weapon such as the US used at that time. The control center housed the launch control facilities, communications, crew housing and basic life support infrastructure sufficient to permit the survival of 3 men for 45 days.

Figure 54: At left, one of the specialized vehicles used to raise and lower the command center from its concrete bunker. The circular structure to the right of the vehicle is the top of the command silo, which would be removed to allow the command center to be removed or emplaced.

Lacking the enormous capital of the US to expend on ICBM sites, the Soviets engineered against obsolescence. One of their cleverest maneuvers was to configure the subterranean command and control facilities in a modular way so that the entire facility could be “pulled and replaced” using specialized trucks. Communications, ancillary electronics, crew housing, basic life support equipment, and the command and launch control facilities were configured into a “subterranean submarine” that could be lowered into or removed from a hardened, steel reinforced concrete silo (Figures 53 & 54).

Figure 55: Underground access tunnel connecting the above ground facilities and engineering bunker to the command center.

This facility was accessed by a series of underground tunnels, at least one of which connected it with topside underground bunkers containing power generating, water pumping, heating, cooling and air handling equipment for routine, day-to-day operations. Water was supplied by an on-site well. While these facilities were located below ground and were hardened, it seemed unlikely that they could withstand a direct hit.  There was no spring/cantilever mounting of the industrial infrastructure and the blast protection also appeared to be inadequate to withstand a direct hit with a nuclear weapon.

Figure 56: Electrical distribution center in engineering bunker at the R-36 site in Pervomaysk. This bunker was located approximately 4 meters underground adjacent to the missile command center.

Figure 57: Some of the air handling equipment supporting the control center located in the engineering bunker.

When I inquired about this, I encountered  a raised eyebrow and a sly smile. This problem had been overcome by the expedient of installing a below ground ~120,000 liter insulated water tank which was  filled water refrigerated to well below 0C. In other words,  there were 264,000 kilgrams of ice stored underground. In the event that the high capacity generating and cooling facilities were destroyed in a first strike, the crew and the site could continue to operate for ~45 days with more conpact and less sophiosticated power generation facilities contained within the command and control structure. The massive and complex infrastructure required to provide cooling and power could thus be sacrificed if need be, eliminating the need for the vast concrete domes and associated engineering works that dominated much of the Titan I  and Titan II sites.

Figure 58: At left, primary personnel entry blast door which protects the control center silo contents. At right, just beyond the blast door is a 3-3 man elevator that provided routine acess to the control center.

Personnel access to the command and control “submarine” was via a heavy blast door which protected the inteerior of the concrete silo and a small 2-man personnel elevator that provides access to the structure. Again, modularizing this element of the site meant that there was no need for massive infrastructure to move equipment in and out of the facility for updating or servicing.

Figure 59: The author, sitting in the commander’s chair at the R-36 launch control panel.  The Soviet’s used a two key system that operated on the same principle as that employed in US ICBM installations. Each officer had a key and both keys and accompaning codes were required to be used before launch could take place. The officers staffing the control center were stationed at two launch control consoles sufficiently far apart that both men would have to be present and functioning in order to initiate a launch. Unless, of course, there was an override from the Kremlin.

One of the costs of this trade-off was that the crew quarters and the launch control facilities were small – submarine small – as can be seen by examinig  the wall radius in Figures 59 & 60. Functional areas were stacked atop each other with the launch control room sitting atop the crew quarters at the very bottom (and thus most protected) part of the structure. Since the top of the structure had to be accessible for removal of the command/control module, it could not be earth sheltered from radiation. Thus, much of the shielding was supplied by the structure itself.

Figure 60: The author, descending from the launch control room to the crew quarters in the control center. The crew quarters were very small and were not used for routine, day-in , day-out housing; off duty launch control officers were quarted in above ground structures on the base.

Figure 61: The crew quarters were capable of housing 3 men for a period of up to 45 days. Launch control officers spent only brief periods of time resting in these quarters during a normal 9 hour shift.

Figure 62: Sanitary facilities in the command center. The sense of the place was very much like that of being in a submarine or a spacecraft.

Figure 63: R-36/SS-18 Satan ICBM decomissioned and cut open for viewing.

Figure 64: At left above, our guide explains that the “cap” covering the combustion chambers of the R-36 is an explosive device designed to boost the missile clear of the silo before rocket engine ignition. At right, the “boost cap” (red arrow) can be seen falling away from an R-36 immediately after engine ingnition.

The Pervomaysk sites were home to a variety of  ICBMs over the years, the last and most impressive of which was the R-36/SS-18 “Satan.” If the USSR achieved effective first strike capability it was with the R-36. The Satan was comprised of a first stage with a 460,000 kgf (4.5 MN) thrust motor with four combustion chambers and exhaust nozzles, and a second stage consisting of  a single-chamber 77,000 kgf (755 kN) thrust motor giving the Satan a throw weight of 8,800 kg. This made the R-36 the world’s heaviest ICBM; by comparison, the heaviest US ICBM (the now retired LGM-118, Peacekeeper) had less than a half  the Satan’s throw weight (4,000 kg). The first generation R-36 carried a single warhead of up to 20 mt  and the R-36M, the most deployed configuration, carried ten MIRV ~600 k KT yield warheads that were deployed with and up to 40 penetration aids.

A number of intelligence analysts believed that this capability was  sufficient to destroy most of the US’ LGM-30 Minuteman ICBM silos and their launch control centers before  retaliation was possible. By 1979 a number of the R-36 sites had been outfitted with with a single reentry vehicle carrying an 18-25 MT warhead (SS-18 Mod 3). The high yield of these warheads is generally believed sufficient to have destroyed the heavily hardened US Minuteman III sites. The deployment of the R-36M (there were 308 of them in place by the mid-1980s), was a major factor in motivating US President Ronald Reagan to initiate his fanciful Strategic Defense Initiative (SDI) program, dubbed “Star Wars.” The ostensible  goal of  SDI was the deployment of a land and  space-based anti-missile system that would have used lasers to intercept hostile incoming ICBMs during every phase of their post launch flight. In one of the most remarkable bluffs of the Cold War, Reagan managed to cause sufficient suspension of disbelief to allow this then technologically impractical (if not impossible) program to be taken seriously and to influence Soviet arms policy.

Unlike the R-7, the Satan used unsymmetrical dimethylhydrazine (UDHD) as one of its bipropellants, however,  nitrogen tetroxide replaced LOX as the oxidizer. The use of nitrogen tetroxide eliminated the large industrial infrastructure required to produce liquid air and separate the LOX. Since LOX comprises only ~21% of  liquified air, the liquefaction process is not only energy intensive, it very inefficient. Eliminating LOX as the oxidizer also abolished the need for the substantial cryogenic infrastructure required to store it.

I do not know if US ICBM sites had (or have) a similar mechanism in place, but the device in Figure 64, below, is one of several “remote launch” antennaes on the site. The Soviets provisioned all their ground based ICBM sites with the capability to be remotely launched by the Kremlin without need for the assent or cooperation of the on site personnel. As I stood there on that sunny, beautiful day and contemplated the remote launch antenna (there was at least one more, adjacent to the missile silo) the old Russian proverb, oft used by Comrade Lenen, “Доверяй, но проверяй,”came to mind. As the former launch control officer who served as our guide wryly noted, “Anywhere you are on the site, if you can see one of the remote launch antennae, then you know in which direction Moscow lies.”

Figure 65: One of the remote launch antennae pointed towards Moscow.

The interior of the missile silo  was also contructed so that it could accept any of a variety of the Satan series ICBMs.  All missiles in this series used an explosive charge to boost the missile clear of the silo prior to engine ignition (Figure 64). This greatly simplified silo design, elimnated the need for complex and costly elevators, and allowed for the silo to be reused, should the need arise, post Armageddon.

 

Figure 65: Top: Blast hardened cover to the R-36 silo. Bottom: A peek inside an R-36 missile silo. Decomissioned silos were filled with concrete and there is standing rainwater barely visible towards the bottom center of the photo above. The uptilting metal plates present in two tiers adjacent to the ladder were work platforms to allow technicians to service themissile in situ.

Perversion of a Noble Goal

The men who ordered these astonishing feats of doomsday engineering built are as old and as common as Caesar, Atilla, Napoleon or the local bully or gangster. They are as old as mankind, in fact, far older, and it is that reality, the reality that the elements in us which empower violence, the the threat of violence and ultimately war on a planet-wide scale often without reason or justification, predate humanity. As Heinlein says in the quote that opens this piece, “man can be chained, but he cannot be domesticated.” This, I think, is likely the truth – a reality built into our biology. No easy solution to this problem exists, or seems likely to. As cryonicists we must proceed accordingly. We must be aware that it is very likely that only the most carefully contemplated and executed changes to our fundamental neurobiology will restrain the behaviors and the paranoid mental states that underlie them. Those changes may well be unpopular; may in fact lead to the fragmentation of our species. From our poor vantage point today, it is impossible to know what the outcome will be – or even if any fundamental re-engineering of man will be attempted. We can only speculate, try to gauge the threats to our existence in the meanwhile, and act accordingly.

End of Part 4

Special Bibliography

John Hines’ Report- Soviet Intentions, 1965-1985

Document 1: Memo for Distribution by Andrew W. Marshall, director of Net Assessment, Office of Secretary of Defense, “John Hines’ Report- Soviet Intentions, 1965-1985,” 22 September 1995

In this memorandum, Marshall wrote that study director John Hines left BDM before finishing the report and that he (Marshall) was not entirely satisfied with the findings.  Marshall did not specify which aspect of the report was incomplete, but it is evident that that he was not persuaded by the argument about the role of the defense industrial complex in establishing force levels.

Document 2:

Soviet Intentions 1965-1985, Volume I: An Analytical Comparison of U.S.-Soviet Assessments During the Cold War by John Hines, Ellis M. Mishulovich, and John F. Shulle
BDM Federal, Inc., September 22, 1995, Unclassified, excised copy.

Front Matter: Acknowledgements, Introduction/Preface, The Research Process-Debriefing Unhappy Cold Warriors … i-vi

Chapter I  Macro Trends in Soviet Strategy 1965 –1985 … 1-8

Chapter II  Soviet View of the Strategic Relationship … 9-21
Parity … 9
Deterrence … 13

Chapter III. Evolution of Soviet Strategy … 22-47
Utility of Nuclear Weapons … 22
Outcome of Nuclear War … 25
Preemption … 27
Limited Nuclear Options … 35
Escalation … 40

Chapter IV Factors in Soviet Force Building and Strategic Decision Making … 48-67
Ineffectual Leadership at the Top … 50
Struggles Among the Princes … 52
Rule of the Industrialists … 59
Strategic Consequences … 65

Chapter V Conclusions, with Appendix A: A Chronology of Soviet Strategy and Bibliography … 68-77


Soviet Intentions 1965-1985 Volume II: Soviet Post-Cold War Testimonial Evidence
, Unclassified, excised copy.

Front Matter: Comments on Interview Process and Table of Contents … i

Marshal Sergei F. Akhromeev, Advisor to the President of the USSR … 3-6

Gen.-Lt. Gelii Viktorovich Batenin, First Deputy Chief of the General Staff  … 7-10

Sergei Blagovolin, Head of Department for Military-Economic and Military-Political Research, Institute of the World Economy and International Relations (IMEMO) …. 11-12

Harold Brown, Secretary of Defense … 13-15

Zbigniew Brzezinski, Assistant to the President for National Security Affairs … 16-17

Dmitrii S. Chereshkin, Head of a Department in the All-Union Scientific-Research Institute for Systems Studies (VNIISI) … 18

Gen.-Col. (Ret.) Adrian A. Danilevich, Special Advisor for military doctrine to the Chief of the General Staff … 19-71

Gen. Makhmut A. Gareev, Special Representative of the Soviet Ministry of Defense in Afghanistan …72-76

Fred C. Iklé, Under Secretary of Defense for Policy… 77-78

Gen.-Col. Igor’ V. Illarionov, Assistant to Ustinov for special assignments …79-85

A. S. Kalashnikov, Chairman of the State Commission on Nuclear Testing at Semipalatinsk … 86-95

Vitalii Leonidovich Kataev, Senior Advisor to the Chairman of the Defense Industrial Department of the Communist Party Central Committee … 96-101

Gen.-Maj. (Ret.) Iurii A. Kirshin, Deputy Director, Institute of Military History… 102-104

Robert W. Komer, Under Secretary of Defense for Policy … 105

Gen.-Col. (Ret.) Varfolomei Vladimirovich Korobushin, Director of the General Staff’s Center For Operational and Strategic Research (TsOSI) … 106-108

Gen.-Lt. (Ret.) Nikolai Vasil’evich Kravets, SRF officer … 109-110

Gen.-Col. Gegorii Fedorovich Krivosheev, Deputy Chief of the General Staff, Chief of the Main Directorate for Organization and Mobilization … 111-114

Colonel Petr M. Lapunov, director of department for force analysis, TsOSI General Staff … 115-117

Andrew W. Marshall, Director, OSD Net Assessment … 118-119

Rod McDaniel, NSC Staffer … 120-121

Iu. A. Mozzhorin, General Director of TsNIIMash, the main research and design institute of the Ministry of General Machine Building (MOM) … 122-126

Vladimir Rubanov, former official in the Soviet Ministry of Aviation … 127

James R. Schlesinger, Secretary of Defense … 128-130

Vitalii V. Shlykov, Deputy Chairman, Russian Soviet Federated Socialist Republic State Committee on Defense … 131

Boris Aleksandrovich Strogonov, Defense Industrial Department of Central Committee … 132

Viktor M. Surikov, President of the Institute for Defense Studies (INOBIS) … 134-135

Dr. Vitalii Nikolaevich Tsygichko, Senior Analyst at VNIISI … 136-157

Gen.-Col. Dmitrii Volkogonov, Director, Institute of Military History … 158

APPENDIX A: Partial List of Decision Makers and Analysts … 159-160

APPENDIX B: Research Questions for Soviet Interview Respondents … 161-164

APPENDIX C: Research Questions for U.S. Interview Respondents … 165

APPENDIX D: List of Acronyms and Abbreviations … 166-167

APPENDIX E: Tsygichko’s Kommentarii k interv’iu v 1990-1991 godu … 168 [Detailed summary/translation prepared by Svetlana Savranskaya]

Index … 178

Document 3: SALT II and the Growth of Mistrust: Conference # 2 of the Carter-Brezhnev Project: A Conference of U.S. and Russian Policymakers and Scholars Held at Musgrove Plantation, St. Simons Island, Georgia 6-9 May 1994, Excerpt (May 7, Morning Session)

Document 4: Vitalii Nikolaevich Tsygichko, Models in the System of Military-Strategic Decision Making in the USSR (Moscow, 2005), with English-language summary prepared by Svetlana Savranskaya attached

Document 5: Jan Hoffenaar and Christopher Findlay, editors, Military Planning for European Theater Conflict during the Cold War: An Oral History Roundtable Stockholm, 24-25 April 2006 (Center for Security Studies, ETH Zurich, 2006)

Posted in Cryonics Philosophy | Leave a comment

Casual Conversation, 29 June, 2011

 

The story below, claiming that Britney Spears is interested in making cryopreservation arrangements with the Alcor Life Extension Foundation, appeared in the British tabloid The Sun on 25 May, 2011. The Sun is one of Rupert Murdoch’s many (Fox News) sad efforts at journalism. And whilst it is a tabloid, it is enormous in its size and reach. This means that objective claims it makes about celebrities must be taken more seriously than, say, those of the National Enquirer, in the US. This is so because The Sun is published in the United Kingdom and Republic of Ireland (where it is known as The Irish Sun) where libel and invasion of privacy laws are quite strict and the penalties for defamation, or even for just invading personal privacy, can be severe. With an average daily circulation of ~ 2,904,180, The Sun has a lot to lose if it too cavalierly publishes detailed  lies – even if they are about a celebrity as notoriously volatile and controversial as the pop singing star Britney Spears. The Sun is by far the largest newspaper in the UK (having long ago eclipsed The Times and The Guardian ) with an estimated daily readership of ~ 7,700,000; and it is the 10th largest newspaper in the world.

This makes the Spears story worthy of notice here.  – Mike Darwin

http://www.thesun.co.uk/sol/homepage/showbiz/bizarre/2985847/Britney-Spears-wants-to-be-frozen-after-her-death.html

It’s a little Brit chilly

Published: 25 May 2010

BRITNEY SPEARS wants to be FROZEN after her death – so she can be brought back to life later.

The eccentric star wants her body preserved in LIQUID NITROGEN so future generations can enjoy her dance routines in red plastic catsuits.

Britney is so enamoured by the idea – “cryogenic” freezing – that she’s investing in a firm specialising in it.

The Alcor Life Extension Foundation is one of the oldest companies of its kind, founded in 1972. On its website, the Arizona-based firm gives its aim as: “Using ultra-cold temperature to preserve human life with the intent of restoring good health when technology becomes available to do so.”

A pal of the star said: “Brit gets these obsessions and this is the latest.

“It started when someone told her Walt Disney had been preserved by cryogenics to be revived in the future. That was a myth but it got her researching the foundation and she became convinced it was worth a shot.

“Brit found the whole thing so interesting she spent most of her Mother’s Day trip to Disneyland researching the subject on the internet while a nanny took the boys round the park.

“She looked into having her ashes turned into diamonds after she is gone but settled on the chance of getting to live in the future.”

But before she invests loads of cash, she has to convince her dad Jamie, who currently holds the purse strings.

The source went on: “Jamie is quite happy to let Brit have her little obsessions, especially when it means she’s holed up on the internet safely or watching the Discovery Channel.

“And if she wants to invest her money in cryogenics that’s fine, we’re only talking $350,000 tops. However, much more than that and he may change his mind.”

The company has been the subject of controversy in the past.

Last year ex-employee Larry Johnson alleged, in his book Frozen, that a former baseball star’s head stored on the premises had been walloped by staff practising their batting swing.

That would bring terrible new meaning to the song (Hit Me) Baby One More Time…

Read more: http://www.thesun.co.uk/sol/homepage/showbiz/bizarre/2985847/Britney-Spears-wants-to-be-frozen-after-her-death.html#ixzz1QnfaBA6h

 

 

Posted in Culture & Propaganda | 11 Comments

Future Babble: A Review and Commentary

 

  • McClelland & Stewart (October 12, 2010)
  • ISBN-10: 0771035195

Book Review and Commentary by Mike Darwin

The success of cryonics, both in absolute and relative terms, arguably depends upon the accuracy and precision with which we (cryonicists) can predict the future. Our ability as seers is important in the absolute sense, because failure to accurately anticipate the requisite social, economic and scientific developments necessary for the success of cryonics would mean that we are wasting our time, energy and money – and perhaps should  concentrate those assets on other strategies for survival (or more simply, stop tilting at windmills and enjoy our life in the here and now). Our predictive ability is also important to cryonics’ success relatively, since failure to accurately foresee the short- to intermediate-term future of cryonics is very likely to erode our credibility with both the general public and the professional and scientific communities and result in failure to anticipate lethal problems that might otherwise have been avoided.

If you doubt that this is so, there is a simple on-line “game” that you can “play” that was developed by cryonicist and computer programmer Brook Norton.  It is called The Cryonics Calculator: Derivation of Cryonics Probabilities, and it allows you to enter the risk of various possible failure modes for your hypothetical (or real) cryonics organization and then see what happens to the probability you that you will remain cryopreserved long enough to be revived: http://www.cryonicscalculator.com/index.php?option=com_content&view=article&id=2&Itemid=3.The results might be described as the reverse of compound interest: small risks for any short period of time become lethal risks over long periods of time. In plugging scenarios into the The Cryonics Calculator, I was also reminded of the liability of complex systems with hundreds or thousands of critical components to failure, even if the per component reliability is 99%. Spacecraft, as any Shuttle engineer will tell you, are a good example of this phenomenon.

So, how do we do in predicting the future? That question isn’t hard to answer in the case of most cryonicists, because there is a fairly large base of written material available to peruse in making an assessment. The answer is that we do horribly. Really horribly.

Of course, cryonicists are by no means the only people interested in predicting the future. To some extent, everybody wants to know what tomorrow holds. Economists, politicians, investors, corporations, in fact just about every human institution and enterprise, has a strong incentive to accurately predict what lies ahead.  Indeed, many people make their livings doing just that; stock market analysts, commodities advisers, government intelligence analysts, and even the neighborhood fortune teller are all  paid to peer into the future and tell us what lies in store. In answer to the question of how well these more conventional (and vastly more respected) seers perform, Canadian journalist Dan Gardner wrote the book Future Babble: Why Expert Predictions Fail and Why We Believe Them Anyway. Gardner’s conclusion, informed heavily by the research of Philip Tetlock, Professor of Psychology at the University of Pennsylvania,  is that the experts, be they economists, petroleum experts, futurists, or political pundits are about as accurate in forecasting the future as as a group of “dart-throwing monkeys.”

In fact, on average, you’d be better off making decisions about what is to come based on a simple coin toss, or deciding that “things will stay about the same.” The first question that comes to mind is, “why are the experts (and indeed humans in general) so bad at predicting the future?” Gardner explores the answers to this question in clear, easy to understand terms in text that is as concise as it is fast paced. At the most basic level, predicting the future suffers from the problems of complexity and chaos that are inherent in the real world. Want to know when “peak oil” production will occur? How hard that can be to figure out? There is clearly a finite amount of oil on the planet, it would seem we know how much is left, and it is certainly easy enough to plug in various numbers for the rate at which oil is being consumed. What’s so difficult about that?

As it turns out, even such a seemingly simple problem is enormously complex. Knowing where and how much untapped oil exists is more difficult than it seems. Technological advances cannot only make formerly unreachable oil accessible, it can also make long abandoned oil fields formerly considered “exhausted” highly productive.  And, as prices rise, previously economically nonviable sources of oil, such as oil sands, become cost effective to recover. While there is no question that oil will eventually run out, there is a huge difference between that happening in the 1980s, versus it not having happened 20 years later. Accuracy isn’t enough; precision is critically important as well.

If complexity weren’t a bad enough problem, to it can be added the problem of chaos, as in chaos theory. Modern chaos theory originated with the work of mathematician and meteorologist Edward N. Lorenz, who noticed that even infinitesimal changes to the numbers used in maths models of weather prediction resulted in radically altered outcomes.  It was Lorenz who discredited linear statistical models in meteorology and who famously asked, “Does the flap of a butterfly’s wings in Brazil set off a tornado in Texas?” The answer is, yes, it can, and thus was born the term “the butterfly effect.”  Chaos powerfully limits both accuracy and precision in predicting the behavior of complex systems, of which the everyday world is certainly one.

A central point that Gardner considers is Tetlock’s study (and resulting book) Expert Political Judgment: How Good Is It? How Can We Know? (2005) which describes his 20-year long prospective study in which 284 experts in many fields, from university professors to journalists, and with many ideological orientations, from ultra-left Marxists to libertarian free-marketeers, were asked to make 28,000 predictions about the future. Tetlock found their performance dismal: they were only slightly more accurate than chance. His study was complex, but his conclusion was brutally simple: the experts were not only worse than run of the mill statistical models, they could barely eke out a tie with the proverbial dart-throwing chimps. And there was no difference in ideological bias; capitalists and Marxists performed equally poorly.

None of this should be too surprising. Lots of other authors have explored this phenomena in detail, most notably Tetlock himself  (i.e., Expert Political Judgement), and Nassim Taleb, in his superb book Fooled by Randomness (and the later in The Black Swan). The useful things about Gardener’s book are that it presents these ideas in a highly readable and accessible format, and that it explores the underlying psychology and biology of why we humans are such “seer-suckers.” We just can’t help coming back for more – usually from the same “discredited” experts who misled us only a few years, months or even weeks before.

Implications for Cryonics

Recently, in preparation for another piece of writing, I hauled out my copy of science fiction author Robert Heinlein’s 1980 book, Expanded Universe. Included in the book are his essays “1950 Where To?” and “The Third Millennium Opens.” The former are his predictions about the year 2000 made in 1950, and the latter are his predictions about the year 2001, made from the vantage point of 1980. In reading these, it is impossible to conclude anything other than that Heinlein was terrible, in fact ridiculously terrible at predicting the future.  “Where to?” is 7 pages long, whereas his attempt to justify and waffle on the failed predictions he makes there runs to (a pathetic) 29 pages!  Heinlein was neither stupid nor ignorant; he had access to some of the best  scientific, technical and military minds of his day (as did future forecasters Herman Kahn and Robert Prehoda) and yet he failed utterly to see what lay even 20  years ahead of him, as did virtually all of the other technological seers before him.

What does this mean for cryonics? At first glance the news would seem to be all bad. It is pretty clear that we can’t predict the future, even the very near term future (5-10 years), either in terms of technological advances or man-made or natural catastrophes.  The future remains as it has always been; not just to be seen “through a glass darkly,” but not to be seen at all. However, there is some more hopeful news summarized in Gardner’s book (and present in considerably greater detail in Tetlock’s superb book Expert Political Judgment), which I believe has real and useful application to cryonics. Not all seers in Tetlock’s study were equally bad. Some were truly  terrible, and those were invariably the experts who informed their decision making on the basis of an ideological agenda. It did not matter if the experts were Marxists or Capitalists; to the extent their decision making was ideologically based, it was invariably less accurate. The best decision makers relied on multiple sources of data, entered the problem solving process with minimal biases, and had little or no ego investment in their conclusions. In other words, they were willing to revise their thinking, admit errors and reevaluate their conclusions as necessary. That’s a fairly uncommon trait in humans, even amongst scientists.

The Directors, Officers and in particular the Chief Executive Officers of cryonics organizations are the ones on whom the proximate responsibility rests for shepherding the organization’s members and patients into the future.  In the past, no attention has been given to how these people should be selected. In large measure this has been because the pool of candidates has been vanishingly small, and all too often almost anyone willing to serve had to be accepted, for lack of any alternative. Hopefully, the future will offer more choice, and if and when it does, it would behoove us to carefully examine the background and the corpus of writing of those whom we choose to lead us. We should look for the accuracy and precision of their past decision making, as well for the extent to which they are “calibrated” in their decision making. If a person says (on average) that he is  ~80% confident his predictions will come true, and in fact, ~80% of them do prove correct, then he is 100% calibrated. This is important, because knowing how much confidence to place in your judgment is often crucial. Overconfidence can be a killer, as can endless waffling and the inability to act.

Beyond the leader as seer there are, of course, many duties and qualities required. These are beyond the scope of consideration here. However, it seems a good place to start that we not empower people to decide our futures who are demonstrably terrible at predicting it. Not just ‘flip of the coin bad,’ but truly terribly bad. Such people, it turns out, are fairly easy to spot by examining the corpus of their past work and decision making. This is quite different than looking at a “markers,” such as economic success. A used car salesman, a stock broker, or a huckster of commemorative coins may be tremendously financially successful. The question that should be asked in such cases is, “At whose expense?”

____________________________________________________________

Afterword

A few months ago, I was scanning (digitizing) some back issues of Cryonics magazine from 1988, and I happened to notice I had written (with assistance from Steve Harris, M.D.) an article predicting the future of medicine 20 years hence, entitled The Future of Medicine, Cryonics, January, 1988 pp. 31-40: http://www.alcor.org/cryonics/cryonics8802.txt and in Cryonics, February 1988, pp 10-20: http://www.alcor.org/cryonics/cryonics8803.txt. I had forgotten I’d even written the article! You can read it and see how well (or poorly) I did.

That article led me to more comprehensively review my writings over the years. The results were interesting. For those of you who write, publicly or privately, I can promise you that rereading your writings in the decades to come will be a fascinating undertaking. Socrates famously said, “The unexamined life is not worth living.” Well, maybe, but I think that just perhaps, the unexamined life may be a lot more fun.

 

 

Posted in Cryonics History, Cryonics Philosophy, Culturomics, Economics, Philosophy, Uncategorized | 8 Comments