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πŸ”— Someone should add a column to this Wikipedia page about Y-Combinator StartUps: Status

πŸ”— California πŸ”— Companies πŸ”— Technology πŸ”— Private Equity πŸ”— California/San Francisco Bay Area

YΒ Combinator is an American seed accelerator launched in March 2005 and has been used to launch over 2,000 companies including Stripe, Airbnb, Cruise Automation, DoorDash, Coinbase, Instacart, and Dropbox. The combined valuation of the top YC companies was over $155Β billion as of October, 2019.

πŸ”— Wikipedia: Don't Be High-Maintenance

Occasionally, some long-time users come to believe they are more important than other editors, and act in ways to seek regular validation of that belief. Validation is obtained by delivering and obtaining compliance with ultimatums, such as threatening to storm off the project in a huff – a "retirement" or long wikibreak. Other examples including threats to make vexatious claims at noticeboards, or to cease all work in a particular topic area. These dramatics are usually accompanied by a long diatribe about whatever petty issue is driving them away this time.

The writer hopes that this fit of pique will attract a flood of "please don't go" messages, along with plenty of support for their side of the dispute that triggered their round of unreasonable demands. The end result sought is that the "high-maintenance" editing behavior gets the editor exactly what they crave – validation and support – leading to a triumphant return to the project or article, at least until the next petty conflict. Because Wikipedia is not therapy (even if it was, this behavior would be undesirable) or, more importantly, not a soapbox, and most other editors can see through this sort of behavior, such an outcome is unlikely, and becomes decreasingly likely the more times such a door-slamming conniption is attempted, until people hope the editor really quits.

Threats to "leave and never come back" inevitably invite the response: don't let the door hit you on the way out.

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πŸ”— Jimmy Carter rabbit incident

πŸ”— United States πŸ”— Media πŸ”— Popular Culture πŸ”— Georgia (U.S. state) πŸ”— United States/United States Presidents πŸ”— Animals in media

The Jimmy Carter rabbit incident, sensationalized as the "killer rabbit attack" by the press, involved a swamp rabbit (Sylvilagus aquaticus) that swam toward then-U.S. President Jimmy Carter's fishing boat on April 20, 1979. The incident caught the imagination of the media after Carter's press secretary, Jody Powell, mentioned the event to a correspondent months later.

Political opponents argued that the incident was symbolic of Carter's purported weakness. According to Powell, anti-Carter political commentators went so far as to blame it for the Soviet invasion of Afghanistan and the Iran hostage crisis.

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πŸ”— Bouncing bomb

πŸ”— Aviation πŸ”— Military history πŸ”— Military history/Military aviation πŸ”— Military history/Military science, technology, and theory πŸ”— Military history/Weaponry πŸ”— Aviation/aircraft πŸ”— Military history/World War II πŸ”— Military history/European military history πŸ”— Military history/British military history

A bouncing bomb is a bomb designed to bounce to a target across water in a calculated manner to avoid obstacles such as torpedo nets, and to allow both the bomb's speed on arrival at the target and the timing of its detonation to be pre-determined, in a similar fashion to a regular naval depth charge. The inventor of the first such bomb was the British engineer Barnes Wallis, whose "Upkeep" bouncing bomb was used in the RAF's Operation Chastise of May 1943 to bounce into German dams and explode underwater, with effect similar to the underground detonation of the Grand Slam and Tallboy earthquake bombs, both of which he also invented.

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πŸ”— War Is a Racket

πŸ”— Military history πŸ”— Military history/North American military history πŸ”— Military history/United States military history πŸ”— Books πŸ”— Business

War Is a Racket is a speech and a 1935 short book by Smedley D. Butler, a retired United States Marine Corps Major General and two-time Medal of Honor recipient. Based on his career military experience, Butler discusses how business interests commercially benefit from warfare. He had been appointed commanding officer of the Gendarmerie during the 1915–1934 United States occupation of Haiti.

After Butler retired from the US Marine Corps in October 1931, he made a nationwide tour in the early 1930s giving his speech "War Is a Racket". The speech was so well received that he wrote a longer version as a short book published in 1935. His work was condensed in Reader's Digest as a book supplement, which helped popularize his message. In an introduction to the Reader's Digest version, Lowell Thomas, who wrote Butler’s oral autobiography, praised Butler's "moral as well as physical courage".

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πŸ”— Pi Calculus

πŸ”— Computing πŸ”— Computer science

In theoretical computer science, the Ο€-calculus (or pi-calculus) is a process calculus. The Ο€-calculus allows channel names to be communicated along the channels themselves, and in this way it is able to describe concurrent computations whose network configuration may change during the computation.

The Ο€-calculus is simple, it has few terms and so is a small, yet expressive language (see #Syntax). Functional programs can be encoded into the Ο€-calculus, and the encoding emphasises the dialogue nature of computation, drawing connections with game semantics. Extensions of the Ο€-calculus, such as the spi calculus and applied Ο€, have been successful in reasoning about cryptographic protocols. Beside the original use in describing concurrent systems, the Ο€-calculus has also been used to reason about business processes and molecular biology.

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πŸ”— The Dead Hand–Soviet semi-autonomous nuclear command and control system

πŸ”— Russia πŸ”— Russia/technology and engineering in Russia πŸ”— Military history πŸ”— Military history/Military science, technology, and theory πŸ”— Russia/Russian, Soviet, and CIS military history πŸ”— Military history/Russian, Soviet and CIS military history

Dead Hand (Russian: БистСма Β«ΠŸΠ΅Ρ€ΠΈΠΌΠ΅Ρ‚Ρ€Β», Systema "Perimetr", lit. "Perimeter" System, with the GRAU Index 15E601, Cyrillic: 15Π­601), also known as Perimeter, is a Cold War-era automatic nuclear weapons-control system (similar in concept to the American AN/DRC-8 Emergency Rocket Communications System) that was used by the Soviet Union. The system remains in use in the post-Soviet Russian Federation. An example of fail-deadly and mutual assured destruction deterrence, it can automatically initiate the launch of the Russian intercontinental ballistic missiles (ICBMs) by sending a pre-entered highest-authority order from the General Staff of the Armed Forces, Strategic Missile Force Management to command posts and individual silos if a nuclear strike is detected by seismic, light, radioactivity, and pressure sensors even with the commanding elements fully destroyed. By most accounts, it is normally switched off and is supposed to be activated during times of crisis; however, it is said to remain fully functional and able to serve its purpose whenever it may be needed.

πŸ”— Abstract Nonsense

πŸ”— Mathematics

In mathematics, abstract nonsense, general abstract nonsense, generalized abstract nonsense, and general nonsense are nonderogatory terms used by mathematicians to describe long, theoretical parts of a proof they skip over when readers are expected to be familiar with them. These terms are mainly used for abstract methods related to category theory and homological algebra. More generally, "abstract nonsense" may refer to a proof that relies on category-theoretic methods, or even to the study of category theory itself.

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πŸ”— Benford's Law: Fraud Detection

πŸ”— Mathematics πŸ”— Statistics

Benford's law, also called the Newcomb–Benford law, the law of anomalous numbers, or the first-digit law, is an observation about the frequency distribution of leading digits in many real-life sets of numerical data. The law states that in many naturally occurring collections of numbers, the leading digit is likely to be small. For example, in sets that obey the law, the number 1 appears as the leading significant digit about 30% of the time, while 9 appears as the leading significant digit less than 5% of the time. If the digits were distributed uniformly, they would each occur about 11.1% of the time. Benford's law also makes predictions about the distribution of second digits, third digits, digit combinations, and so on.

The graph to the right shows Benford's law for base 10, one of infinitely many cases of a generalized law regarding numbers expressed in arbitrary (integer) bases, which rules out the possibility that the phenomenon might be an artifact of the base 10 number system. Further generalizations were published by Hill in 1995 including analogous statements for both the nth leading digit as well as the joint distribution of the leading n digits, the latter of which leads to a corollary wherein the significant digits are shown to be a statistically dependent quantity. ).

It has been shown that this result applies to a wide variety of data sets, including electricity bills, street addresses, stock prices, house prices, population numbers, death rates, lengths of rivers, and physical and mathematical constants. Like other general principles about natural dataβ€”for example the fact that many data sets are well approximated by a normal distributionβ€”there are illustrative examples and explanations that cover many of the cases where Benford's law applies, though there are many other cases where Benford's law applies that resist a simple explanation. It tends to be most accurate when values are distributed across multiple orders of magnitude, especially if the process generating the numbers is described by a power law (which are common in nature).

The law is named after physicist Frank Benford, who stated it in 1938 in a paper titled "The Law of Anomalous Numbers", although it had been previously stated by Simon Newcomb in 1881.

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πŸ”— The Buzzer

πŸ”— Russia πŸ”— Russia/technology and engineering in Russia πŸ”— Russia/mass media in Russia πŸ”— Military history πŸ”— Military history/Military science, technology, and theory πŸ”— Military history/Intelligence πŸ”— Military history/Russian, Soviet and CIS military history πŸ”— Radio Stations

UVB-76, also known as "The Buzzer", is a nickname given by radio listeners to a shortwave radio station that broadcasts on the frequencies 4625 and 4810 kHz. It broadcasts a short, monotonous buzz toneΒ , repeating at a rate of approximately 25 tones per minute, 24 hours per day. Sometimes, the buzzer signal is interrupted and a voice transmission in Russian takes place. The first reports were made of a station on this frequency in 1973.

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