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DeWayfarer · 61-69, M
Because of the misconception that the majority is right and the misconception even a small group of people are the same.
No two people are alike. We don't see, hear, touch, smell or taste the same way, much less think alike.
Even our perception of time is different in multiple ways.
And there is even more differences.
No two people share the same DNA. Even identical twins have different DNA.
Our commonalities are no bigger than our differences. And very likely our differences are bigger than our commonalities.
No two people are alike. We don't see, hear, touch, smell or taste the same way, much less think alike.
Even our perception of time is different in multiple ways.
And there is even more differences.
No two people share the same DNA. Even identical twins have different DNA.
Our commonalities are no bigger than our differences. And very likely our differences are bigger than our commonalities.
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DeWayfarer · 61-69, M
@Thrust Prove it! I've got Ted talks on just the subject of our time perception.
DNA? ...
I only posted what ChatGPT said on DNA alone.
BTW ChatGPT agreed with everything I said in my original comment. Unmodified the first time around.
DNA? ...
DNA and Biology: Even on a biological level, each person's DNA is unique (with even identical twins differing in some aspects). This fact emphasizes that our identities are not just socially constructed but also grounded in profound biological differences.
I only posted what ChatGPT said on DNA alone.
BTW ChatGPT agreed with everything I said in my original comment. Unmodified the first time around.
AthrillatheHunt · 51-55, M
@DeWayfarer time orientation , especially future time orientation varies greatly across groups of people . Even blacks joke about and knowledge CPT
DeWayfarer · 61-69, M
@AthrillatheHunt that Ted talk was very interesting. It went into how the neurons fired differently across the whole Body. As well as the time lag in receiving signals and how the brain attempts to compensate for that lag.
Even that brain compensation is different.
Even that brain compensation is different.
Thrust · 56-60, M
@DeWayfarer
Difference is only superficial post birth changes that do not show up on tests. Identical twins who’s brothers commit horrible crimes have a long nightmare to ever clear themselves
Difference is only superficial post birth changes that do not show up on tests. Identical twins who’s brothers commit horrible crimes have a long nightmare to ever clear themselves
DeWayfarer · 61-69, M
@Thrust just because they can't yet make the distinction between markers YET doesn't mean there is no difference. They have actually made great strives into gene markers even over the last few years.
The markers are not the genes.
The markers are not the genes.
Thrust · 56-60, M
WoWgirll · 36-40, F
@DeWayfarer I'm not a analytical but geezzz
Thrust · 56-60, M
DeWayfarer · 61-69, M
@WoWgirll Please read up on the difference between markers and genes.
DeWayfarer · 61-69, M
@Thrust not quickly! Why they use markers.
WoWgirll · 36-40, F
@DeWayfarer identical twins are the same actually but barely. It's called monochromatic twins in medicine I do know that but not much else
WoWgirll · 36-40, F
@DeWayfarer you are correct stripes are not accurate at all
DeWayfarer · 61-69, M
@WoWgirll Read more in-depth please.
DeWayfarer · 61-69, M
@WoWgirll here are some references....
Here are some recent findings regarding DNA differences in identical twins that can support your position in the debate:
Genetic Variations in Identical Twins
A 2021 study published in Nature Genetics found that out of 381 pairs of identical twins, only 38 had perfectly identical DNA. The study identified an average of 5.2 genetic mutations per twin pair, with some pairs exhibiting more than 100 differences. This suggests that even genetically identical twins can have notable DNA variations that may impact their development and health.
Research Findings on Twin Genetics
According to a report from Smithsonian Magazine, genetic mutations often occur due to replication errors during cell division. This means that if a mutation happens early in embryonic development, one twin might carry DNA changes that the other does not. This was supported by the research led by Kari Stefansson, which reveals that scientists need to reconsider assumptions about the identical nature of twin DNA in studies focused on nature versus nurture.
Methylation and DNA Differences
Advanced genomic studies have shown that epigenetic differences can also play a significant role in how identical twins express their genes. For example, twins share nearly identical DNA but can exhibit different health outcomes due to variations in gene expression influenced by environmental factors and lifestyle. These differences are often revealed through techniques such as DNA methylation testing, which can detect chemical changes in the DNA that occur as twins grow older.
Limitations of Standard DNA Testing
Traditional DNA tests, such as STR (short tandem repeat) analysis, often cannot distinguish between identical twins, as their DNA sequences are nearly indistinguishable. However, newer methods such as whole genome sequencing and methylation testing can identify rare mutations that develop after birth, allowing for differentiation between twins.
Epigenetic Differences in Identical Twins
A 2025 article published in The Scientist discusses how identical twins, despite sharing identical DNA sequences, are epigenetically distinct. Research led by Jordana Bell from King’s College London has highlighted significant individual differences in gene expression among monozygotic twins, suggesting that their epigenetic profiles can diverge with age and environmental exposures.
Advanced DNA Testing Techniques
An article from November 2025 on criminaldefense.kramonandgraham.com explains that while standard DNA tests cannot differentiate between identical twins, advanced methods—like whole genome sequencing and DNA methylation testing—can reveal rare mutations and epigenetic changes that develop over a lifetime. These tools illustrate that twins can indeed exhibit genetic differences, particularly as they age.
Insights from Behavioral Studies
Research highlighted in various publications has shown that monozygotic twins can display different susceptibilities to diseases and behavioral traits, which correlates with observed differences in their DNA and gene expression. Their unique experiences and environments contribute to these differences, suggesting that even ostensibly identical twins can differ significantly at the genetic level.
These findings highlight that while identical twins share a significant amount of genetic material, they can still exhibit important differences at the genetic and epigenetic levels. This complexity is crucial to understanding individual differences that extend beyond mere physical appearances.
Genetic Variations in Identical Twins
A 2021 study published in Nature Genetics found that out of 381 pairs of identical twins, only 38 had perfectly identical DNA. The study identified an average of 5.2 genetic mutations per twin pair, with some pairs exhibiting more than 100 differences. This suggests that even genetically identical twins can have notable DNA variations that may impact their development and health.
Research Findings on Twin Genetics
According to a report from Smithsonian Magazine, genetic mutations often occur due to replication errors during cell division. This means that if a mutation happens early in embryonic development, one twin might carry DNA changes that the other does not. This was supported by the research led by Kari Stefansson, which reveals that scientists need to reconsider assumptions about the identical nature of twin DNA in studies focused on nature versus nurture.
Methylation and DNA Differences
Advanced genomic studies have shown that epigenetic differences can also play a significant role in how identical twins express their genes. For example, twins share nearly identical DNA but can exhibit different health outcomes due to variations in gene expression influenced by environmental factors and lifestyle. These differences are often revealed through techniques such as DNA methylation testing, which can detect chemical changes in the DNA that occur as twins grow older.
Limitations of Standard DNA Testing
Traditional DNA tests, such as STR (short tandem repeat) analysis, often cannot distinguish between identical twins, as their DNA sequences are nearly indistinguishable. However, newer methods such as whole genome sequencing and methylation testing can identify rare mutations that develop after birth, allowing for differentiation between twins.
Epigenetic Differences in Identical Twins
A 2025 article published in The Scientist discusses how identical twins, despite sharing identical DNA sequences, are epigenetically distinct. Research led by Jordana Bell from King’s College London has highlighted significant individual differences in gene expression among monozygotic twins, suggesting that their epigenetic profiles can diverge with age and environmental exposures.
Advanced DNA Testing Techniques
An article from November 2025 on criminaldefense.kramonandgraham.com explains that while standard DNA tests cannot differentiate between identical twins, advanced methods—like whole genome sequencing and DNA methylation testing—can reveal rare mutations and epigenetic changes that develop over a lifetime. These tools illustrate that twins can indeed exhibit genetic differences, particularly as they age.
Insights from Behavioral Studies
Research highlighted in various publications has shown that monozygotic twins can display different susceptibilities to diseases and behavioral traits, which correlates with observed differences in their DNA and gene expression. Their unique experiences and environments contribute to these differences, suggesting that even ostensibly identical twins can differ significantly at the genetic level.
These findings highlight that while identical twins share a significant amount of genetic material, they can still exhibit important differences at the genetic and epigenetic levels. This complexity is crucial to understanding individual differences that extend beyond mere physical appearances.
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