PF94 Formerly referred as Chazpelo And now referred as Chaziz is a Guy who makes Sivitygans,He's known to be a lover of which He Lost obsession (Possibly because He didn't like Wubbzy or isn't what he expected)
History
Gamerappa's first surviving recorded history in the internet is Roblox, having joined Roblox under the name of Chazpelo in mid-2013.
Before late-2019, there were traces of Gamerappa in Moshi Monsters, which has since been shutdown.
Gamerappa did not start making videos until January 15, 2014 (his 7th birthday), in which he made his first YouTube channel, which later evolved into the pre-September 2015 Chaziz Video Entertainment archive channel.
He would later join Discord in July 2016, and get into a argument with a semi-popular tech YouTuber in August 2016 after joining their official Discord server.
Sometime around early-2017, he would join a software organization (for a lack of a better word) called Csoftware, he later left Csoftware in late-2017, only to surprisingly rejoin it in late-2020. He was later banned in the semi-popular tech YouTuber's Discord server sometime around mid-2017 to early-2018, and moved into the (controversial) MessengerGeek community, he was active in the community up until mid-2020, in which he stepped back as a lurker, occasionally posting replies if needed.
In September 2020, he posted hints that he was likely transgender on gamerappaCommunity, however, he quickly stopped this for a unknown reason.
History
Gamerappa's first surviving recorded history in the internet is Roblox, having joined Roblox under the name of Chazpelo in mid-2013.
Before late-2019, there were traces of Gamerappa in Moshi Monsters, which has since been shutdown.
Gamerappa did not start making videos until January 15, 2014 (his 7th birthday), in which he made his first YouTube channel, which later evolved into the pre-September 2015 Chaziz Video Entertainment archive channel.
He would later join Discord in July 2016, and get into a argument with a semi-popular tech YouTuber in August 2016 after joining their official Discord server.
Sometime around early-2017, he would join a software organization (for a lack of a better word) called Csoftware, he later left Csoftware in late-2017, only to surprisingly rejoin it in late-2020. He was later banned in the semi-popular tech YouTuber's Discord server sometime around mid-2017 to early-2018, and moved into the (controversial) MessengerGeek community, he was active in the community up until mid-2020, in which he stepped back as a lurker, occasionally posting replies if needed.
In September 2020, he posted hints that he was likely transgender on gamerappaCommunity, however, he quickly stopped this for a unknown reason.
The maximum genetic diversity hypothesis is a scientific hypothesis about the process of molecular evolution, the study of genetic change in populations over time. This difference in the observed rate of mutation means some regions of the genome appear to mutate faster than others, and is theorized to relate to balancing the preservation of vital information relating to a species' function against its ability to mutate and adapt to new environmental niches.
The maximum genetic diversity hypothesis asserts that only slow-mutating genes accurately reflect shared evolutionary history, relationships between species can alternatively be calculated by their "maximum genetic diversity," which is determined by measuring the frequency of mutations in specific corresponding regions of orthologous genes instead of using raw overall genetic similarity. Also due to this grouping into fast and slow, it is proposed that over time complex organisms become genetically fragile and less tolerant to mutation as their genetic diversity decreases, since an increasing proportion of their genome will have become slow-mutating over time.
The hypothesis asserts that this is because increased organismal and social complexity means more of the genome is needed to preserve the expanding instructional manual necessary for complex behavior and function, and so more of an organism's genome must become slow-mutating as the organism increases in complexity, since being slow-mutating preserves and protects those vital instructions.
Furthermore, beyond the fact that the hypothesis is still relatively unknown, it also contradicts the current paradigm in molecular evolution, since the neutral theory's fundamental premises are still nearly ubiquitously utilized in genetic analysis and admixture studies.
Overview
According to the maximum genetic diversity hypothesis, modern evolutionary theory becomes an interplay between short-term microevolution which follows the neutral theory's expectation of random but predictable rate of linear change, and longer-term macroevolution that cannot be timed with the same clock as microevolution since diversification can flow in punctuated fits and starts over long periods of time when a complex species disperses into an array of diverse environmental niches.
As this occurs, the hypothesis predicts that each population will preserve the slow-mutating section of its genome which holds its most fundamental instructions from mutations, but quickly preserve mutations at sites that provide greater environmental fitness depending on the pressures of each unique niche. Support for this supposition is provided by a genetic model that seeks to solve the inconsistencies between the way regions of proteins seem to mutate in unison and the speed at which that happens, which observed that mutations seem to occur in "avalanches" that drastically alter not only specific regions of the genome as commonly assumed, but also only for short periods of time, using modeling to create a model of evolutionary change.
The fact that some genomic regions preserve mutations at different rates than others can be demonstrated when any three species separated by significant evolutionary time are compared two at a time: each pair can have aligned overlapping genomic positions in orthologous proteins where mutations get preserved at a far higher rate than the neutral theory's random drift statistically allows. Calculations using the hypothesis yield results that capture the branching and punctuated nature of speciation, preserve its gradual increasing fractal complexity over time, and are consistent with patterns of speciation deduced from the fossil record. the amount of genetic diversity in populations was accepted to tick steadily at a rate timed by a molecular clock set by the mutation of a hemoglobin protein in most vertebrates, which was first calculated by Emanuel Margoliash. This conclusion, that genetic diversity would accumulate within a population indefinitely over time, was reached because it was assumed that every population's genome would continually accumulate mutations as time passed - and so the more mutations that were observed the more basal and older a population was assumed to be since there was thought to be no upper limit as to how many mutations could accumulate.
Timing this presumably stable and universal rate of mutation and hence diversity using the molecular clock was first theorized by Motoo Kimura, but popularized by Émile Zuckerkandl and Linus Pauling. It was assumed to regulate all genetic variation both within and between species. Subsequently, the neutral theory and molecular clock were used in a variety of settings, most notably in phylogenetics, or the study of how different species change and pass on traits over time. Many measurements that are nearly ubiquitous in population genetics, such as the fixation index, are also based on the molecular clock.
However, since its inception there have been points against the neutral theory and its molecular clock's fundamental assumptions, such evidence that they may be affected by natural selection. Despite this, the molecular clock was assumed to regulate all orthologous genes inherited from a common ancestor, and used to set the historic rate of speciation across the animal kingdom, as well as answer questions around the evolutionary and genetic relationships between species. and the neutral theory fails to note and explain the common occurrence of overlapping mutations: where mutations in independently evolving species occur at orthologous overlapping protein positions at a rate too high to be neutral. - meaning that all mutations on earth were set by that protein and had a biologically universal rate that is constant and steady - the genetic equidistance phenomenon could also be explained by the assumption that mutation-rates are specific to each gene and might vary across species and within populations.
Fast and slow
Because simpler organisms are less likely to be affected at all by any one single-base mutation in their exons, or functionally active coding stretches of their genome, the hypothesis considers them to be more genetically robust than more complex organisms whose genomes are less tolerant to mutation and so are thought to be more fragile. The hypothesis states that the variability in the rate of change causes evolutionary selective pressures to sort alleles into two rough groups: slow-mutating ones involved with an organism's most basic structure and function, and fast-mutating ones that respond quickly in order to increase the odds a beneficial mutation occurs and is preserved.<ref name="handbook2010"/>
The hypothesis posits that when two populations have different genetic diversity levels, it does not necessarily mean that the population with lower genetic diversity is descended from the one with higher genetic diversity as implied by the neutral theory.<ref name"equal2017"/> Under the neutral theory's molecular clock, the most basal or older populations will always have the highest rate of diversity because existing first means more mutations would have had time to accumulate in their genome. However, higher overall genomic diversity may simply be due to having more fast-mutating alleles needed to deal with a wider array of environmental challenges, but since genetic distance can only be measured by slow-mutating genes, raw overall diversity rates alone should not to used to derive genetic relationships since slow-mutating genes may make up a minority of the genome.<ref name"auto"/>
The fact that most broad phenotypic traits are regulated by multiple loci is also incompatible with the neutral theory, since it would be statistically unlikely for enough linkage disequilibrium to form across the genome if mutations were occurring randomly. The hypothesis accounts for this, since phenotypically linked fast-mutating SNPs are recognized to respond to selective pressures more rapidly than the slow-mutating more basal SNPs.<ref name"auto"/> The hypothesis also explains why raw genetic diversity does not flow temporally from basal to more modern as a concrete rule.<ref name"handbook2010"/>
The hypothesis contradicts the fixation index, which assumes the neutral theory applies across the entire genome and only considers fast-mutating autosomal DNA in population genetics analyses.<ref name"riddle2016"/><ref name"handbook2010"/>
The maximum genetic diversity hypothesis asserts that only slow-mutating genes accurately reflect shared evolutionary history, relationships between species can alternatively be calculated by their "maximum genetic diversity," which is determined by measuring the frequency of mutations in specific corresponding regions of orthologous genes instead of using raw overall genetic similarity. Also due to this grouping into fast and slow, it is proposed that over time complex organisms become genetically fragile and less tolerant to mutation as their genetic diversity decreases, since an increasing proportion of their genome will have become slow-mutating over time.
The hypothesis asserts that this is because increased organismal and social complexity means more of the genome is needed to preserve the expanding instructional manual necessary for complex behavior and function, and so more of an organism's genome must become slow-mutating as the organism increases in complexity, since being slow-mutating preserves and protects those vital instructions.
Furthermore, beyond the fact that the hypothesis is still relatively unknown, it also contradicts the current paradigm in molecular evolution, since the neutral theory's fundamental premises are still nearly ubiquitously utilized in genetic analysis and admixture studies.
Overview
According to the maximum genetic diversity hypothesis, modern evolutionary theory becomes an interplay between short-term microevolution which follows the neutral theory's expectation of random but predictable rate of linear change, and longer-term macroevolution that cannot be timed with the same clock as microevolution since diversification can flow in punctuated fits and starts over long periods of time when a complex species disperses into an array of diverse environmental niches.
As this occurs, the hypothesis predicts that each population will preserve the slow-mutating section of its genome which holds its most fundamental instructions from mutations, but quickly preserve mutations at sites that provide greater environmental fitness depending on the pressures of each unique niche. Support for this supposition is provided by a genetic model that seeks to solve the inconsistencies between the way regions of proteins seem to mutate in unison and the speed at which that happens, which observed that mutations seem to occur in "avalanches" that drastically alter not only specific regions of the genome as commonly assumed, but also only for short periods of time, using modeling to create a model of evolutionary change.
The fact that some genomic regions preserve mutations at different rates than others can be demonstrated when any three species separated by significant evolutionary time are compared two at a time: each pair can have aligned overlapping genomic positions in orthologous proteins where mutations get preserved at a far higher rate than the neutral theory's random drift statistically allows. Calculations using the hypothesis yield results that capture the branching and punctuated nature of speciation, preserve its gradual increasing fractal complexity over time, and are consistent with patterns of speciation deduced from the fossil record. the amount of genetic diversity in populations was accepted to tick steadily at a rate timed by a molecular clock set by the mutation of a hemoglobin protein in most vertebrates, which was first calculated by Emanuel Margoliash. This conclusion, that genetic diversity would accumulate within a population indefinitely over time, was reached because it was assumed that every population's genome would continually accumulate mutations as time passed - and so the more mutations that were observed the more basal and older a population was assumed to be since there was thought to be no upper limit as to how many mutations could accumulate.
Timing this presumably stable and universal rate of mutation and hence diversity using the molecular clock was first theorized by Motoo Kimura, but popularized by Émile Zuckerkandl and Linus Pauling. It was assumed to regulate all genetic variation both within and between species. Subsequently, the neutral theory and molecular clock were used in a variety of settings, most notably in phylogenetics, or the study of how different species change and pass on traits over time. Many measurements that are nearly ubiquitous in population genetics, such as the fixation index, are also based on the molecular clock.
However, since its inception there have been points against the neutral theory and its molecular clock's fundamental assumptions, such evidence that they may be affected by natural selection. Despite this, the molecular clock was assumed to regulate all orthologous genes inherited from a common ancestor, and used to set the historic rate of speciation across the animal kingdom, as well as answer questions around the evolutionary and genetic relationships between species. and the neutral theory fails to note and explain the common occurrence of overlapping mutations: where mutations in independently evolving species occur at orthologous overlapping protein positions at a rate too high to be neutral. - meaning that all mutations on earth were set by that protein and had a biologically universal rate that is constant and steady - the genetic equidistance phenomenon could also be explained by the assumption that mutation-rates are specific to each gene and might vary across species and within populations.
Fast and slow
Because simpler organisms are less likely to be affected at all by any one single-base mutation in their exons, or functionally active coding stretches of their genome, the hypothesis considers them to be more genetically robust than more complex organisms whose genomes are less tolerant to mutation and so are thought to be more fragile. The hypothesis states that the variability in the rate of change causes evolutionary selective pressures to sort alleles into two rough groups: slow-mutating ones involved with an organism's most basic structure and function, and fast-mutating ones that respond quickly in order to increase the odds a beneficial mutation occurs and is preserved.<ref name="handbook2010"/>
The hypothesis posits that when two populations have different genetic diversity levels, it does not necessarily mean that the population with lower genetic diversity is descended from the one with higher genetic diversity as implied by the neutral theory.<ref name"equal2017"/> Under the neutral theory's molecular clock, the most basal or older populations will always have the highest rate of diversity because existing first means more mutations would have had time to accumulate in their genome. However, higher overall genomic diversity may simply be due to having more fast-mutating alleles needed to deal with a wider array of environmental challenges, but since genetic distance can only be measured by slow-mutating genes, raw overall diversity rates alone should not to used to derive genetic relationships since slow-mutating genes may make up a minority of the genome.<ref name"auto"/>
The fact that most broad phenotypic traits are regulated by multiple loci is also incompatible with the neutral theory, since it would be statistically unlikely for enough linkage disequilibrium to form across the genome if mutations were occurring randomly. The hypothesis accounts for this, since phenotypically linked fast-mutating SNPs are recognized to respond to selective pressures more rapidly than the slow-mutating more basal SNPs.<ref name"auto"/> The hypothesis also explains why raw genetic diversity does not flow temporally from basal to more modern as a concrete rule.<ref name"handbook2010"/>
The hypothesis contradicts the fixation index, which assumes the neutral theory applies across the entire genome and only considers fast-mutating autosomal DNA in population genetics analyses.<ref name"riddle2016"/><ref name"handbook2010"/>
Columbus Hotel Monte-Carlo is a 3-star boutique hotel located at 23, Avenue des Papalins in the Fontvieille area of western Monaco. It was created by Scottish hotelier Ken McCulloch in partnership with Formula One racing car driver David Coulthard until McCulloch sold his shares in 2008 to concentrate in developing his Dakota hotels in the UK. Coulthard sold out to London and Regional Properties in April 2010. The hotel was opened on April 21, 2001 by Rainier III, Prince of Monaco.
The interior of the hotel was originally designed by international designer Amanda Rosa (McCulloch's wife) in the cosy and boutique style with light colour palettes and natural furnishings of leather, marble, wood and stone. The hotel has 157 rooms and 23 suites, 1 apartment and a lobby bar. An extensive program of renovation started in August 2017 to be completed by April 2018. 13 studio and apartments and one penthouse will be created, along with the refurbishment of the 181 rooms and suites - Certified Clef Verte (Green Key) - <ref name="MCH"/>
The hotel and Coulthard featured in an episode of Piers Morgan's travelogue series Piers Morgan On... looking at Monaco.
The interior of the hotel was originally designed by international designer Amanda Rosa (McCulloch's wife) in the cosy and boutique style with light colour palettes and natural furnishings of leather, marble, wood and stone. The hotel has 157 rooms and 23 suites, 1 apartment and a lobby bar. An extensive program of renovation started in August 2017 to be completed by April 2018. 13 studio and apartments and one penthouse will be created, along with the refurbishment of the 181 rooms and suites - Certified Clef Verte (Green Key) - <ref name="MCH"/>
The hotel and Coulthard featured in an episode of Piers Morgan's travelogue series Piers Morgan On... looking at Monaco.
Wings 2 () is an upcoming Russian 2021 3D comedy adventure film produced by Paradiz Production Center. It is a sequel to the 2012's film.
Set in a world populated entirely by talking planes and other vehicles, the main character Vityaz the fighter plane must defend his city from an enemy from outer space. The film is a joint production venture between Armenia animation studio Touch FX Animation Studio. The film has an anticipated release date on 1 January 2021.
Plot
In the first part of the adventure, the plane Vityaz won the competition and exposed the villain Thunder. He wanted to build a successful career in aviation and a relationship with the Lightning plane. It would seem that the knight managed to realize all his plans, but fate decided otherwise.
20 years have passed since the events of the first part. New electrolytes have replaced the old diesel technology. With his friends, they spent their time in a sanatorium for decommissioned aircraft. Suddenly their peace is disturbed by an emergency message from the government — earth has been invaded by outer space robots. Stuffed with electronics, new-generation aircraft are instantly disabled. Vityaz understands that this is not his business and the Earth has its own defenders, so he decides not to interfere. When he and his friends witness the fall of the electronic aircraft, Vityaz changes his mind and comes into the fight with the invaders. The faithful Lightning and other diesel planes shake off the rust, lubricate the mechanisms and take the fight.
Production
Wings 2 is a continuation of the 2012 animated film. However, the setting for the sequel will be twenty years after the first film. The main characters featured as talking planes will be based on a script that describes the confrontation a society recently upgraded from diesel to alternative energy. The film is evocative of the Russian fighter airplanes and jets, as the first film in 2012 was released for the 100th anniversary of the Russian air force. The main character Vityaz is a SU-27 fighter jet.
Originally scheduled for 30 April 2020, the film moved to a new release date of 1 January 2021. Tlum.ru, a Russian publication about children's media, tabulated a list of the most anticipated releases in spring. Wings 2 came 15th place according to the audience survey. It was planned that on the May holidays in 2019, in honor of independence day in Russia, films about the Soviet Union would be given more support. Wings 2 was one of the two animated films depicting Soviet Union setting that received support.
The production company Paradiz Production Center is the animation studio co-produced also by the Yerevan, Armenia-based animation house Touch FX Animation Studio. Wings 2 is the second joint project of Russian and Armenian animators after the historical release of ' in 2011. The film is directed by Vahe Sargsyan.
Set in a world populated entirely by talking planes and other vehicles, the main character Vityaz the fighter plane must defend his city from an enemy from outer space. The film is a joint production venture between Armenia animation studio Touch FX Animation Studio. The film has an anticipated release date on 1 January 2021.
Plot
In the first part of the adventure, the plane Vityaz won the competition and exposed the villain Thunder. He wanted to build a successful career in aviation and a relationship with the Lightning plane. It would seem that the knight managed to realize all his plans, but fate decided otherwise.
20 years have passed since the events of the first part. New electrolytes have replaced the old diesel technology. With his friends, they spent their time in a sanatorium for decommissioned aircraft. Suddenly their peace is disturbed by an emergency message from the government — earth has been invaded by outer space robots. Stuffed with electronics, new-generation aircraft are instantly disabled. Vityaz understands that this is not his business and the Earth has its own defenders, so he decides not to interfere. When he and his friends witness the fall of the electronic aircraft, Vityaz changes his mind and comes into the fight with the invaders. The faithful Lightning and other diesel planes shake off the rust, lubricate the mechanisms and take the fight.
Production
Wings 2 is a continuation of the 2012 animated film. However, the setting for the sequel will be twenty years after the first film. The main characters featured as talking planes will be based on a script that describes the confrontation a society recently upgraded from diesel to alternative energy. The film is evocative of the Russian fighter airplanes and jets, as the first film in 2012 was released for the 100th anniversary of the Russian air force. The main character Vityaz is a SU-27 fighter jet.
Originally scheduled for 30 April 2020, the film moved to a new release date of 1 January 2021. Tlum.ru, a Russian publication about children's media, tabulated a list of the most anticipated releases in spring. Wings 2 came 15th place according to the audience survey. It was planned that on the May holidays in 2019, in honor of independence day in Russia, films about the Soviet Union would be given more support. Wings 2 was one of the two animated films depicting Soviet Union setting that received support.
The production company Paradiz Production Center is the animation studio co-produced also by the Yerevan, Armenia-based animation house Touch FX Animation Studio. Wings 2 is the second joint project of Russian and Armenian animators after the historical release of ' in 2011. The film is directed by Vahe Sargsyan.