Cc Generals Quotes

Life isn't supposed to be easy. Generally speaking, the harder something is the more rewarding the results will be.

There are two famous quips of Stalin which are both grounded in this logic. When Stalin answered the question "Which deviation is worse, the Rightist or the Leftist one?" by "They are both worse!", the underlying premise is that the Leftist deviation is REALLY ("objectively," as Stalinists liked to put it) not leftist at all, but a concealed Rightist one! When Stalin wrote, in a report on a party congress, that the delegates, with the majority of votes, unanimously approved the CC resolution, the underlying premise is, again, that there was really no minority within the party: those who voted against thereby excluded themselves from the party... In all these cases, the genus repeatedly overlaps (fully coincides) with one of its species. This is also what allows Stalin to read history retroactively, so that things "become clear" retroactively: it was not that Trotsky was first fighting for the revolution with Lenin and Stalin and then, at a certain stage, opted for a different strategy than the one advocated by Stalin; this last opposition (Trotsky/Stalin) "makes it clear" how, "objectively," Trotsky was against revolution all the time back. We find the same procedure in the classificatory impasse the Stalinist ideologists and political activists faced in their struggle for collectivization in the years 1928-1933. In their attempt to account for their effort to crush the peasants' resistance in "scientific" Marxist terms, they divided peasants into three categories (classes): the poor peasants (no land or minimal land, working for others), natural allies of the workers; the autonomous middle peasants, oscillating between the exploited and exploiters; the rich peasants, "kulaks" (employing other workers, lending them money or seeds, etc.), the exploiting "class enemy" which, as such, has to be "liquidated." However, in practice, this classification became more and more blurred and inoperative: in the generalized poverty, clear criteria no longer applied, and other two categories often joined kulaks in their resistance to forced collectivization. An additional category was thus introduced, that of a subkulak, a peasant who, although, with regard to his economic situation, was to poor to be considered a kulak proper, nonetheless shared the kulak "counter-revolutionary" attitude.

Aa – pronounced as ah, as in father Bb – pronounced as bay Cc – Generally, its French pronunciation is say. However, its pronunciation will change depending on the situation. If this letter comes before I and E, it must be pronounced as the English S (similar to how C in the word center is pronounced). If it comes before A, O, and U, its pronunciation must be the same as c in cat. Dd – pronounced as day, or similar to D in the word dog Ee – must sound like euh, similar to the emphasis of U in the word burp Ff – sounds like eff, similar to how F is pronounced in the word fog Gg – As a general rule, this letter is pronounced as jhay. However, its pronunciation will change depending on the word. If this letter is found before the vowels A, O, and U, it must sound like the g in the word get. On the other hand, if it’s placed before I and E, the pronunciation must be similar to the S in the word measure. Hh – While this letter generally sounds as ash and is found in French written words, it is ALWAYS silent, even if the word begins with this letter. However, H has two kinds in the French language that are useful in writing. In non-aspirated H (or H muet), the letter H is treated as a vowel and the word requires either liaisons or contractions (other rules will be discussed in a later section). On the other hand, in an aspirated H (or H aspiré), the word is treated is a consonant and will not require liaisons or contractions. To determine which words are aspirated or not so that words can be spelled and pronounced correctly, French dictionaries place an asterisk (or any other symbol) on words starting with an H to indicate that they are aspirated. Ii – sounds like ee, or similar to how the letters ea in the word team is pronounced Jj – pronounced as ghee, and sounds like the S in the word measure Kk – sounds like kah, and is pronounced like the K in the word kite Ll – a straightforward el pronunciation, similar to L in the word lemon Mm – simply pronounced as emm, from M in the word minute Nn – similar to N in the word note, as it sounds like enn Oo – This letter can be pronounced as the O in the word nose, or can also sound similar to the U in nut. Pp – pronounced as pay, or similar to the letter P in the word pen Qq – sounds like ku, or how the K in kite is pronounced Rr – must sound like you’re saying air. To do this correctly in French, you must try to force air as if it’s going to the back of your throat. Your tongue must be near the position where you gargle, but the letter must sound softly. Ss – Generally, it must sound like ess. However, the pronunciation might change depending on the word. If the word begins with an S or has 2 S’s, it must sound like the S in sister. However, if the word only has one S, it must sound like the Z in the word amazing. Tt – pronounced as tay, just like t in the word top Uu – To pronounce this properly, you must say the letter E as how it is said in English while making sure that your lips follow the position like you’re saying “oo”. Vv – pronounced as vay, and sounds like the V in violin. Ww – pronounced as dubla-vay as the general rule. However, this may be changed depending on the word. It can sound like V in the word violin, or as W in the word water. Xx – sounds like eeks, and can be pronounced either like gz (as how the word exit is said) or as ks (when the word socks is said). Yy – pronounced as ee-grehk, or similar to ea in leak. Zz – sounds as zed, or like the letter Z in zebra

As Maxwell recognized, if atoms and molecules operated on the same principles as the Solar System, the world would be very different. Every atom would be different from every other, and every atom would change over time. Such a world wouldn't have chemistry as we know it, with definite substances and fixed rules. It is not immediately obvious what makes atomic systems behave so differently. In both cases we have a massive central body attracting several small ones. The forces in play, gravitational or electrical, are broadly similar-both decrease as the square of the distance. But there are three factors which make the physical outcome very different, giving us stereotyped atoms but individualized solar systems: 1. Whereas planets differ from one another (as do stars), all electrons have exactly the same properties (as do all nuclei of a given element, or more precisely a given isotope). 2. Atoms obey the rules of quantum mechanics. 3. Atoms are starved for energy. The first item in this explanation begs the question, of course. We're trying to explain why atoms can be the same as each other, and we start off by asserting that some other things, electrons, are all the same as each other! We'll come back to that later. But having the same parts doesn't guarantee the same outcome, by any means. Even if all planets were the same as one another, and all stars were the same as one another, there would still be many possible designs for solar systems, and they'd all be subject to change. We've seen how quantum mechanics brings discreteness, and fixed patterns, into the description of continuous objects that obey dynamical equations. It's the story you'll recall, that unfolds in figures 24 (page 172), 25 (page 174), and 26 (page 187), and plate CC. To close the loop, we need to understand why the electrons in atoms are usually found in just one among their infinite variety of patterns. That's where our third item comes in. The pattern with lowest energy-the so-called ground state-is the one we generally find, because atoms are starved for energy. Why are atoms starved for energy? Ultimately, it is because the Universe is big, cold, and expanding. Atoms can pass from one pattern to another by emitting light, and losing energy, or absorbing light, and gaining energy. If emission and absorption were balanced, many patterns would be in play. That's what would happen in a hot, closed system. Light emitted at one time would be absorbed later, and a balanced equilibrium would set in. But in a big, cold, expanding Universe, emitted light leaks into vast interstellar spaces, carrying away energy that is not returned. In this way we find that dynamical equations, which by themselves cannot impose structure, do so through jujitsu (gentle skill), focusing the power of other principles. They guide the constraining powers of quantum mechanics and cosmology. Cosmology explains their poverty of energy, and quantum mechanics shows how poverty of energy imposes structure.

As a general rule, shy away from web sources with untrustworthy domain names (e.g. bizarremom.com, getrichnowtranslations.net, cloudninelingua.org, etc.) and awkward domain extensions (.xyz, .cc, wtf and the like).

Peculiar, isn’t it, how an elderly woman over-revving her Fiat Panda’s 900cc engine is mocked heartily by people but doing the exact same thing in a performance car commands general respect?

On November 15, 2004, John Langel wrote a letter to Jim Scherr, the CEO of the USOC, and he CC’d Dan Flynn, U.S. Soccer’s secretary general. It was a scathing rebuke of not just U.S. Soccer’s decision to cut the national team’s schedule in 2005, but the federation’s treatment of the team over the years up to that point. “These recent events are shocking,” Langel wrote, after summarizing the back-and-forth over the 2005 schedule. “It is unethical and violates the USSF’s obligations of transparency to misrepresent to United States Olympic athletes about the reason they will be denied the right to compete in protected competitions.” “Unfortunately, over the years, there have been a number of other telling illustrations of discrimination,” the letter continued.