Where will it end, hopefully with this one instance…
I was reading about the selling of a wedding chapel in Vegas for 12 million dollars. Who gets married in Vegas and at a place called “A Little White Chapel”? Famous people do and did tie the knot there in its 68 years of weddings. I was surprised by the first couple on the list of notables. The reason was that couple stayed together 50 years and were Hollywood A-Listers.
I find it endlessly entertaining how Trump is one big Hypocrisy Detector. I have seen him time and time again make people eat their words. These are some of his greatest hits.
- Will you support the nominee?
- Only a fool would believe that Trump could win. Scorn for thee but not for me.
- Will you support the election results?
- Illegal immigration is always a plus.
- I am above name calling.
- We should negotiate with North Korea. (Unless your name is Trump.)
- It’s only sex.
- Don’t quote the Bible.
I think Trump has the ability to do this because culturally he is like a Democrat. The Democrats are going in a sense after one of their own. They would let most of Trump’s things pass if he had a D after his name but since he doesn’t they show their double standards.
This sucks! As I understand it, nearly anyone can attest to a made up fact that a gun owner is dangerous and his guns will be taken away in violation of the second amendment. The gun owner will have to prove to the state he is not dangerous.
Damn them, I have my compound and re-curve bows and I can still use them effectively.
I’m fairly sure that criminals will turn in other criminals with this law in place. Yea right, keep dreaming.
Read the report, It will disgust you.
You’re white, in your early 30s and you have a 6-year-old child. For ten years you and your wife (you got married four years ago) have been living in a “rehabbing” neighborhood close to the downtown of a large American city. You pioneered this area (along with other couples, singles and homosexuals) when it was heavily inner-city poor and have been a part of the revitalization — bars, boutiques, coffee houses, museums, new residential construction — that turned it into an attractive venue for new migrants and visitors.
But your child is now school age and therein lies a problem. The local elementary school is three blocks away. It is an old building staffed by the typical collection of unionized, mediocre teachers. The school has no academic distinction at all. Test scores are pitiful. It has been labeled a failing school by the State Board of Ed. There have been some “incidents” that your wife has heard about, not in the local newspaper, but at the organic food store and at the farm-to-table restaurant where she sometimes meets friends for lunch. The elementary school student body is overwhelmingly black.
Up until a few years ago there was a good Catholic elementary school attached to the parish church. But the old parishioners long since moved away and the diocese had to shutter both the church and the school to pay damages related to the pedophile priest horrors. That option is gone.
Five miles away, close to the formerly WASP neighborhood of spacious homes that you and your wife cannot come close to affording, there is a well-regarded Quaker private primary school. It is extremely expensive. Test scores are high, the building, while old, is well-tended and constantly upgraded, and the parents of the pupils are highly involved in the school, something that is not true of the public elementary school three blocks away. (“We were the only ones at the PTA meetings,” one of your friends told you about their experience there.) Another friend of yours, a Ph.D in English, took a teaching job at the Quaker school for a below-union salary simply to guarantee that her kids would have preferential admission to it.
You and your wife are still paying off your own student loans. Deciding to become parents was risky enough; now you are being confronted with more tough choices. On the one hand, your values, including your commitment to the neighborhood where you live, mandate that you enroll your child in the local public school. You, your wife, and similarly committed friends could and should work to make that school better, to make a difference. Your wife is happy being a part-time employee and is always home for your child. That means a lot, and it will mean even more if another young one joins the family, as both you and your wife fervently wish.
On the other hand, your kid is only a kid once. You and your wife want the best for your loved one and you’ve often said no sacrifice is too great for family. If you instead opt for the Quaker school, you are going to have to make a lot more money. It’s virtually assured that your wife will have to go to work full-time as well. The plans you have for a second child will have to be postponed. Plus, it seems somehow patronizing to believe that your child is going to make that big a difference in the local school: as one of your friends said, “Why do people think black kids have to sit next to white kids in order to learn?”
As the time for a decision gets closer the image of the actual physical school building three blocks away fades and that image of your child sitting in a predominantly black classroom dominates your thoughts about the matter. At first you agree with your friend — it is condescending. What are you, the White Savior? But gradually, other questions arising from that image push to the forefront of your mind.
How is your child going to learn in that environment, in a school with metal detectors and security guards? In a classroom where the teachers sit passively at their desks because they are in mortal fear of the kids who sit cutting up in the back rows? Where “acting white” is a pejorative? Where fights among the kids are commonplace? Where most of the schoolchildren slip further and further behind standard academic competence as they get older? Where, you’ve heard from a former security guard there, 10-year-olds are engaging in intercourse in the school lavatory? How can your one and only child’s potential be developed amidst that kind of dysfunction?
You and your wife sit down one Saturday morning and decide — you’re going to try home schooling.
Recently I heard there is a golfer who is using single length golf clubs. (H/T Scott Adams) For those who don’t play golf, the standard golf clubs are of various lengths. The lower the number of the club the longer. Single Length golf clubs are all of the same length. One golfer has improved his game by using these clubs. The advantage of a Single Length club is a golfer would have the same stance and therefore one consistent swing is enough.
Any golfers here who want to opine on this. How about people who love science who want to explain the physics between long and short clubs? For anyone else what is your guess? Is this a fad or will everyone be having these clubs? I remember in tennis how the rackets changed all of a sudden. Has anyone seen a wooden racket recently?
The player causing this stir is Bryson DeChambeau. Here is an article to explain things.
I hope people enjoy this site and get to mix with the great people that are here. This is a different place and does not follow the “dinner party” concept. I want to get across that there will be many types of posts. Some will be “extra hot” with robust discussions and others will be “mild”. The “extra hot” will cause heartburn for some people and might be good to be avoided. For others they love the “burning sensation”. When writing your posts on controversial topics, please add “Mild”, “Medium”, or “Extra Hot” so people can grasp what type of discussion might occur. Some topics are by their very nature naturally hot. B
The other way to think of this place is like sports. Some sports are non-contact like tennis and golf where others are physical like football and rugby. It would seem strange to complain about “Someone touched me!” in football. Or to think tackling someone in golf is appropriate. This is analogous to different types of discussions here. Try to respect the author’s intent on what type of “sport” they are “playing”. This is not a “dinner party”.
Continuing on with the sports analogy. No one gets kicks out of a league or suspended for normal fouls. That is how the game is played. The fouls of one game shouldn’t carry over to another game. They are usually forgotten. In basketball if a player has fouled out in a prior game they start with a clean slate in the new game. They don’t foul out over the first foul of the new game. If they do the ref needs to be fired. Fouls happen and are dealt with in most sports simply and efficiently.
Julian Assange has been arrested from the Ecuadorian Embassy in London.
Mollie Hemingway has a article up at The Federalist, Barr Confirms Multiple Intel Agencies Implicated In Anti-Trump Spy Operation. Here is a quote,
Spying on a political campaign is a big deal,” Attorney General William Barr told a Senate committee on Wednesday morning. Barr’s comments came in the context of potential Justice Department reviews of the Trump-Russia investigation and how it began in 2016.
While it is important that the top law enforcement in the United States publicly acknowledged that the Obama administration and its intelligence agencies surveilled its domestic political opponents during the heat of a presidential election, it is what he said next that was most startling: that the CIA and other federal agencies in addition to the FBI may have been involved. “I’m not talking about the FBI necessarily, but intelligence agencies more broadly,” he said.
Again I will bore my fellow Ratburgers with another short from a CD that I made some before I retired 15 or so years ago.
At one time in my life, I thought I had a handle on the meaning of the word “service“… the act of doing things for other people.
Then I heard the terms Internal Revenue Service, Postal Service, Civil Service, Service Stations, and I became confused about the word “service.” This is not what I thought “service” meant.
Then recently, I overheard two horse breeders talking and one of them mentioned that he was having his stallion service a few of his mares.
It all came into perspective. Now I understand what all those “service” agencies are doing to us!
In the first half of the twentieth century Pierre Teilhard de Chardin developed the idea that the process of evolution which had produced complex life and eventually human intelligence on Earth was continuing and destined to eventually reach an Omega Point in which, just as individual neurons self-organise to produce the unified consciousness and intelligence of the human brain, eventually individual human minds would coalesce (he was thinking mostly of institutions and technology, not a mystical global mind) into what he called the noosphere—a sphere of unified thought surrounding the globe just like the atmosphere. Could this be possible? Might the Internet be the baby picture of the noosphere? And if a global mind was beginning to emerge, might we be able to detect it with the tools of science? That is the subject of this book about the Global Consciousness Project, which has now been operating for more than two decades, collecting an immense data set which has been, from inception, completely transparent and accessible to anyone inclined to analyse it in any way they can imagine. Written by the founder of the project and operator of the network over its entire history, the book presents the history, technical details, experimental design, formal results, exploratory investigations from the data set, and thoughts about what it all might mean.
Over millennia, many esoteric traditions have held that “all is one”—that all humans and, in some systems of belief, all living things or all of nature are connected in some way and can interact in ways other than physical (ultimately mediated by the electromagnetic force). A common aspect of these philosophies and religions is that individual consciousness is independent of the physical being and may in some way be part of a larger, shared consciousness which we may be able to access through techniques such as meditation and prayer. In this view, consciousness may be thought of as a kind of “field” with the brain acting as a receiver in the same sense that a radio is a receiver of structured information transmitted via the electromagnetic field. Belief in reincarnation, for example, is often based upon the view that death of the brain (the receiver) does not destroy the coherent information in the consciousness field which may later be instantiated in another living brain which may, under some circumstances, access memories and information from previous hosts.
Such beliefs have been common over much of human history and in a wide variety of very diverse cultures around the globe, but in recent centuries these beliefs have been displaced by the view of mechanistic, reductionist science, which argues that the brain is just a kind of (phenomenally complicated) biological computer and that consciousness can be thought of as an emergent phenomenon which arises when the brain computer’s software becomes sufficiently complex to be able to examine its own operation. From this perspective, consciousness is confined within the brain, cannot affect the outside world or the consciousness of others except by physical interactions initiated by motor neurons, and perceives the world only through sensory neurons. There is no “consciousness field”, and individual consciousness dies when the brain does.
But while this view is more in tune with the scientific outlook which spawned the technological revolution that has transformed the world and continues to accelerate, it has, so far, made essentially zero progress in understanding consciousness. Although we have built electronic computers which can perform mathematical calculations trillions of times faster than the human brain, and are on track to equal the storage capacity of that brain some time in the next decade or so, we still don’t have the slightest idea how to program a computer to be conscious: to be self-aware and act out of a sense of free will (if free will, however defined, actually exists). So, if we adopt a properly scientific and sceptical view, we must conclude that the jury is still out on the question of consciousness. If we don’t understand enough about it to program it into a computer, then we can’t be entirely confident that it is something we could program into a computer, or that it is just some kind of software running on our brain-computer.
It looks like humans are, dare I say, programmed to believe in consciousness as a force not confined to the brain. Many cultures have developed shamanism, religions, philosophies, and practices which presume the existence of the following kinds of what Dean Radin calls Real Magic, and which I quote from my review of his book with that title.
- Force of will: mental influence on the physical world, traditionally associated with spell-casting and other forms of “mind over matter”.
- Divination: perceiving objects or events distant in time and space, traditionally involving such practices as reading the Tarot or projecting consciousness to other places.
- Theurgy: communicating with non-material consciousness: mediums channelling spirits or communicating with the dead, summoning demons.
Starting in the 19th century, a small number of scientists undertook to investigate whether these phenomena could possibly be real, whether they could be demonstrated under controlled conditions, and what mechanism might explain these kinds of links between consciousness and will and the physical world. In 1882 the Society for Psychical Research was founded in London and continues to operate today, publishing three journals. Psychic research, now more commonly called parapsychology, continues to investigate the interaction of consciousness with the outside world through (unspecified) means other than the known senses, usually in laboratory settings where great care is taken to ensure no conventional transfer of information occurs and with elaborate safeguards against fraud, either by experimenters or test subjects. For a recent review of the state of parapsychology research, I recommend Dean Radin’s excellent 2006 book, Entangled Minds.
Parapsychologists such as Radin argue that while phenomena such as telepathy, precognition, and psychokinesis are very weak effects, elusive, and impossible to produce reliably on demand, the statistical evidence for their existence from large numbers of laboratory experiments is overwhelming, with a vanishingly small probability that the observed results are due to chance. Indeed, the measured confidence levels and effect sizes of some categories of parapsychological experiments exceed those of medical clinical trials such as those which resulted in the recommendation of routine aspirin administration to reduce the risk of heart disease in older males.
For more than a quarter of a century, an important centre of parapsychology research was the Princeton Engineering Anomalies Research (PEAR) laboratory, established in 1979 by Princeton University’s Dean of Engineering, Robert G. Jahn. (The lab closed in 2007 with Prof. Jahn’s retirement, and has now been incorporated into the International Consciousness Research Laboratories, which is the publisher of the present book.) An important part of PEAR’s research was with electronic random event generators (REGs) connected to computers in experiments where a subject (or “operator”, in PEAR terminology) would try to influence the generator to produce an excess of one or zero bits. In a large series of experiments [PDF] run over a period of twelve years with multiple operators, it was reported that an influence in the direction of the operator’s intention was seen with a highly significant probability of chance of one in a trillion. The effect size was minuscule, with around one bit in ten thousand flipping in the direction of the operator’s stated goal.
If one operator can produce a tiny effect on the random data, what if many people were acting together, not necessarily with active intention, but with their consciousnesses focused on a single thing, for example at a sporting event, musical concert, or religious ceremony? The miniaturisation of electronics and computers eventually made it possible to build a portable REG and computer which could be taken into the field. This led to the FieldREG experiments in which this portable unit was taken to a variety of places and events to monitor its behaviour. The results were suggestive of an effect, but the data set was far too small to be conclusive.
In 1998, Roger D. Nelson, the author of this book, realised that the rapid development and worldwide deployment of the Internet made it possible to expand the FieldREG concept to a global scale. Random event generators based upon quantum effects (usually shot noise from tunnelling across a back-biased Zener diode or a resistor) had been scaled down to small, inexpensive devices which could be attached to personal computers via an RS-232 serial port. With more and more people gaining access to the Internet (originally mostly via dial-up to commercial Internet Service Providers, then increasingly via persistent broadband connections such as ADSL service over telephone wires or a cable television connection), it might be possible to deploy a network of random event generators at locations all around the world, each of which would constantly collect timestamped data which would be transmitted to a central server, collected there, and made available to researchers for analysis by whatever means they chose to apply.
As Roger Nelson discussed the project with his son Greg (who would go on to be the principal software developer for the project), Greg suggested that what was proposed was essentially an electroencephalogram (EEG) for the hypothetical emerging global mind, an “ElectroGaiaGram” or EGG. Thus was born the “EGG Project” or, as it is now formally called, the Global Consciousness Project. Just as the many probes of an EEG provide a (crude) view into the operation of a single brain, perhaps the wide-flung, always-on network of REGs would pick up evidence of coherence when a large number of the world’s minds were focused on a single event or idea. Once the EGG project was named, terminology followed naturally: the individual hosts running the random event generators would be “eggs” and the central data archiving server the “basket”.
In April 1998, Roger Nelson released the original proposal for the project and shortly thereafter Greg Nelson began development of the egg and basket software. I became involved in the project in mid-summer 1998 and contributed code to the egg and basket software, principally to allow it to be portable to other variants of Unix systems (it was originally developed on Linux) and machines with different byte order than the Intel processors on which it ran, and also to reduce the resource requirements on the egg host, making it easier to run on a non-dedicated machine. I also contributed programs for the basket server to assemble daily data summaries from the raw data collected by the basket and to produce a real-time network status report. Evolved versions of these programs remain in use today, more than two decades later. On August 2nd, 1998, I began to run the second egg in the network, originally on a Sun workstation running Solaris; this was the first non-Linux, non-Intel, big-endian egg host in the network. A few days later, I brought up the fourth egg, running on a Sun server in the Hall of the Servers one floor below the second egg; this used a different kind of REG, but was otherwise identical. Both of these eggs have been in continuous operation from 1998 to the present (albeit with brief outages due to power failures, machine crashes, and other assorted disasters over the years), and have migrated from machine to machine over time. The second egg is now connected to Raspberry Pi running Linux, while the fourth is now hosted on a Dell Intel-based server also running Linux, which was the first egg host to run on a 64-bit machine in native mode.
Here is precisely how the network measures deviation from the expectation for genuinely random data. The egg hosts all run a Network Time Protocol (NTP) client to provide accurate synchronisation with Internet time server hosts which are ultimately synchronised to atomic clocks or GPS. At the start of every second a total of 200 bits are read from the random event generator. Since all the existing generators provide eight bits of random data transmitted as bytes on a 9600 baud serial port, this involves waiting until the start of the second, reading 25 bytes from the serial port (first flushing any potentially buffered data), then breaking the eight bits out of each byte of data. A precision timing loop guarantees that the sampling starts at the beginning of the second-long interval to the accuracy of the computer’s clock.
This process produces 200 random bits. These bits, one or zero, are summed to produce a “sample” which counts the number of one bits for that second. This sample is stored in a buffer on the egg host, along with a timestamp (in Unix time() format), which indicates when it was taken.
Buffers of completed samples are archived in files on the egg host’s file system. Periodically, the basket host will contact the egg host over the Internet and request any samples collected after the last packet it received from the egg host. The egg will then transmit any newer buffers it has filled to the basket. All communications are performed over the stateless UDP Internet protocol, and the design of the basket request and egg reply protocol is robust against loss of packets or packets being received out of order.
(This data transfer protocol may seem odd, but recall that the network was designed more than twenty years ago when many people, especially those outside large universities and companies, had dial-up Internet access. The architecture would allow a dial-up egg to collect data continuously and then, when it happened to be connected to the Internet, respond to a poll from the basket and transmit its accumulated data during the time it was connected. It also makes the network immune to random outages in Internet connectivity. Over two decades of operation, we have had exactly zero problems with Internet outages causing loss of data.)
When a buffer from an egg host is received by the basket, it is stored in a database directory for that egg. The buffer contains a time stamp identifying the second at which each sample within it was collected. All times are stored in Universal Time (UTC), so no correction for time zones or summer and winter time is required.
This is the entire collection process of the network. The basket host, which was originally located at Princeton University and now is on a server at global-mind.org, only stores buffers in the database. Buffers, once stored, are never modified by any other program. Bad data, usually long strings of zeroes or ones produced when a hardware random event generator fails electrically, are identified by a “sanity check” program and then manually added to a “rotten egg” database which causes these sequences to be ignored by analysis programs. The random event generators are very simple and rarely fail, so this is a very unusual circumstance.
The raw database format is difficult for analysis programs to process, so every day an automated program (which I wrote) is run which reads the basket database, extracts every sample collected for the previous 24 hour period (or any desired 24 hour window in the history of the project), and creates a day summary file with a record for every second in the day with a column for the samples from each egg which reported that day. Missing data (eggs which did not report for that second) is indicated by a blank in that column. The data are encoded in CSV format which is easy to load into a spreadsheet or read with a program. Because some eggs may not report immediately due to Internet outages or other problems, the summary data report is re-generated two days later to capture late-arriving data. You can request custom data reports for your own analysis from the Custom Data Request page. If you are interested in doing your own exploratory analysis of the Global Consciousness Project data set, you may find my EGGSHELL C++ libraries useful.
The analysis performed by the Project proceeds from these summary files as follows.
First, we observe than each sample (xi) from egg i consists of 200 bits with an expected equal probability of being zero or one. Thus each sample has a mean expectation value (μ) of 100 and a standard deviation (σ) of 7.071 (which is just the square root of half the mean value in the case of events with probability 0.5).
Then, for each sample, we can compute its Stouffer Z-score as Zi = (xi −μ) / σ. From the Z-score, it is possible to directly compute the probability that the observed deviation from the expected mean value (μ) was due to chance.
It is now possible to compute a network-wide Z-score for all eggs reporting samples in that second using Stouffer’s formula:
over all k eggs reporting. From this, one can compute the probability that the result from all k eggs reporting in that second was due to chance.
Squaring this composite Z-score over all k eggs gives a chi-squared distributed value we shall call V, V = Z² which has one degree of freedom. These values may be summed, yielding a chi-squared distributed number with degrees of freedom equal to the number of values summed. From the chi-squared sum and number of degrees of freedom, the probability of the result over an entire period may be computed. This gives the probability that the deviation observed by all the eggs (the number of which may vary from second to second) over the selected window was due to chance. In most of the analyses of Global Consciousness Project data an analysis window of one second is used, which avoids the need for the chi-squared summing of Z-scores across multiple seconds.
The most common way to visualise these data is a “cumulative deviation plot” in which the squared Z-scores are summed to show the cumulative deviation from chance expectation over time. These plots are usually accompanied by a curve which shows the boundary for a chance probability of 0.05, or one in twenty, which is often used a criterion for significance. Here is such a plot for U.S. president Obama’s 2012 State of the Union address, an event of ephemeral significance which few people anticipated and even fewer remember.
What we see here is precisely what you’d expect for purely random data without any divergence from random expectation. The cumulative deviation wanders around the expectation value of zero in a “random walk” without any obvious trend and never approaches the threshold of significance. So do all of our plots look like this (which is what you’d expect)?
Well, not exactly. Now let’s look at an event which was unexpected and garnered much more worldwide attention: the death of Muammar Gadaffi (or however you choose to spell it) on 2011-10-20.
Now we see the cumulative deviation taking off, blowing right through the criterion of significance, and ending twelve hours later with a Z-score of 2.38 and a probability of the result being due to chance of one in 111.
What’s going on here? How could an event which engages the minds of billions of slightly-evolved apes affect the output of random event generators driven by quantum processes believed to be inherently random? Hypotheses non fingo. All, right, I’ll fingo just a little bit, suggesting that my crackpot theory of paranormal phenomena might be in play here. But the real test is not in potentially cherry-picked events such as I’ve shown you here, but the accumulation of evidence over almost two decades. Each event has been the subject of a formal prediction, recorded in a Hypothesis Registry before the data were examined. (Some of these events were predicted well in advance [for example, New Year’s Day celebrations or solar eclipses], while others could be defined only after the fact, such as terrorist attacks or earthquakes).
The significance of the entire ensemble of tests can be computed from the network results from the 500 formal predictions in the Hypothesis Registry and the network results for the periods where a non-random effect was predicted. To compute this effect, we take the formal predictions and compute a cumulative Z-score across the events. Here’s what you get.
Now this is…interesting. Here, summing over 500 formal predictions, we have a Z-score of 7.31, which implies that the results observed were due to chance with a probability of less than one in a trillion. This is far beyond the criterion usually considered for a discovery in physics. And yet, what we have here is a tiny effect. But could it be expected in truly random data? To check this, we compare the results from the network for the events in the Hypothesis Registry with 500 simulated runs using data from a pseudorandom normal distribution.
Since the network has been up and running continually since 1998, it was in operation on September 11, 2001, when a mass casualty terrorist attack occurred in the United States. The formally recorded prediction for this event was an elevated network variance in the period starting 10 minutes before the first plane crashed into the World Trade Center and extending for over four hours afterward (from 08:35 through 12:45 Eastern Daylight Time). There were 37 eggs reporting that day (around half the size of the fully built-out network at its largest). Here is a chart of the cumulative deviation of chi-square for that period.
The final probability was 0.028, which is equivalent to an odds ratio of 35 to one against chance. This is not a particularly significant result, but it met the pre-specified criterion of significance of probability less than 0.05. An alternative way of looking at the data is to plot the cumulative Z-score, which shows both the direction of the deviations from expectation for randomness as well as their magnitude, and can serve as a measure of correlation among the eggs (which should not exist in genuinely random data). This and subsequent analyses did not contribute to the formal database of results from which the overall significance figures were calculated, but are rather exploratory analyses at the data to see if other interesting patterns might be present.
Had this form of analysis and time window been chosen a priori, it would have been calculated to have a chance probability of 0.000075, or less than one in ten thousand. Now let’s look at a week-long window of time between September 7 and 13. The time of the September 11 attacks is marked by the black box. We use the cumulative deviation of chi-square from the formal analysis and start the plot of the P=0.05 envelope at that time.
Another analysis looks at a 20 hour period centred on the attacks and smooths the Z-scores by averaging them within a one hour sliding window, then squares the average and converts to odds against chance.
Dean Radin performed an independent analysis of the day’s data binning Z-score data into five minute intervals over the period from September 6 to 13, then calculating the odds against the result being a random fluctuation. This is plotted on a logarithmic scale of odds against chance, with each 0 on the X axis denoting midnight of each day.
The following is the result when the actual GCP data from September 2001 is replaced with pseudorandom data for the same period.
So, what are we to make of all this? That depends upon what you, and I, and everybody else make of this large body of publicly-available, transparently-collected data assembled over more than twenty years from dozens of independently-operated sites all over the world. I don’t know about you, but I find it darned intriguing. Having been involved in the project since its very early days and seen all of the software used in data collection and archiving with my own eyes, I have complete confidence in the integrity of the data and the people involved with the project. The individual random event generators pass exhaustive randomness tests. When control runs are made by substituting data for the periods predicted in the formal tests with data collected at other randomly selected intervals from the actual physical network, the observed deviations from randomness go away, and the same happens when network data are replaced by computer-generated pseudorandom data. The statistics used in the formal analysis are all simple matters you’ll learn in an introductory stat class and are explained in my “Introduction to Probability and Statistics”.
If you’re interested in exploring further, Roger Nelson’s book is an excellent introduction to the rationale and history of the project, how it works, and a look at the principal results and what they might mean. There is also non-formal exploration of other possible effects, such as attenuation by distance, day and night sleep cycles, and effect sizes for different categories of events. There’s also quite a bit of New Age stuff which makes my engineer’s eyes glaze over, but it doesn’t detract from the rigorous information elsewhere.
The ultimate resource is the Global Consciousness Project’s sprawling and detailed Web site. Although well-designed, the site can be somewhat intimidating due to its sheer size. You can find historical documents, complete access to the full database, analyses of events, and even the complete source code for the egg and basket programs.
A Kindle edition is available.
All graphs in this article are as posted on the Global Consciousness Project Web site.
Nelson, Roger D. Connected: The Emergence of Global Consciousness. Princeton: ICRL Press, 2019. ISBN 978-1-936033-35-5.
Here is a one hour interview of author Roger D. Nelson by Jeffrey Mishlove.