Romans 10:9-10 "That if you confess with your mouth, "Jesus is Lord," and believe in your heart that God raised him from the dead, you will be saved. For it is with your heart that you believe and are justified, and it is with your mouth that you confess and are saved.
The *Law of Dominance* is one of *Gregor Mendel’s* fundamental principles of inheritance, based on his experiments with pea plants in the mid-1800s. It states that when two different alleles for a trait are present in an organism, **one allele can mask the expression of the other**. The allele that is expressed is called the **dominant allele**, while the one that is not expressed in the presence of the dominant allele is called the **recessive allele**.
Mendel observed this pattern in *monohybrid crosses**, where he studied a single trait at a time, such as plant height. For example, when he crossed a pure tall plant (TT) with a pure dwarf plant (tt), all the offspring in the first generation (F₁) were tall (Tt). Even though the offspring had one allele for tallness and one for dwarfness, only the tall trait appeared. This led Mendel to conclude that the tall trait was **dominant* over the dwarf trait, which was **recessive**.
At the genetic level, this law reflects how alleles interact. Each gene has two alleles—one from each parent. In a heterozygous condition (e.g., Tt), the *dominant allele* (T) is sufficient to express the trait (tallness), while the *recessive allele* (t) only shows its effect when *both alleles are recessive* (tt). Thus, the recessive trait only appears in the *absence* of the dominant allele. This principle helps explain why some traits can "skip" a generation and reappear later.
However, the Law of Dominance does not apply to all traits. Many traits show **incomplete dominance**, **codominance**, or are influenced by **multiple genes (polygenic inheritance)**. For instance, in incomplete dominance, neither allele is completely dominant, and the heterozygous condition results in a blend of traits (like red and white flowers producing pink offspring). Despite these exceptions, the Law of Dominance remains a basic and essential concept in classical genetics, helping to explain how traits are passed from parents to offspring.
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on the start of video he said "goar for today"
SIX SEVEN 39:14
Hnmm.
I love the 4 "alex sir" deck
4:55 that scream of victory after a sweaty match be like 😂
Bro that tumb nail is crazy😂
39:14 come again?
im gooning to ts 🥀🥀🥀🥀🥀🥀
poor terry😭😭😭
Romans 10:9-10 "That if you confess with your mouth, "Jesus is Lord," and believe in your heart that God raised him from the dead, you will be saved. For it is with your heart that you believe and are justified, and it is with your mouth that you confess and are saved.
“Where’s the minor” jnxyi 2025
Playing with that high avg elixir would make the game feel slower
Gng
Level 11 theory 😭😭
Bro spent 51 minutes proving he can't do math while blaming it on the cards 💀
Jynxzi Sr tumbao te domo 2 veces.He owned u twice
39:14 SIX SEVEENNNNNNNNNNNNNNNNNNNNNNNNNNNNNNNNNNNNNN
Poor Terry probably thinks he's In a mental asylum when Jynxzi streams
The *Law of Dominance* is one of *Gregor Mendel’s* fundamental principles of inheritance, based on his experiments with pea plants in the mid-1800s. It states that when two different alleles for a trait are present in an organism, **one allele can mask the expression of the other**. The allele that is expressed is called the **dominant allele**, while the one that is not expressed in the presence of the dominant allele is called the **recessive allele**.
Mendel observed this pattern in *monohybrid crosses**, where he studied a single trait at a time, such as plant height. For example, when he crossed a pure tall plant (TT) with a pure dwarf plant (tt), all the offspring in the first generation (F₁) were tall (Tt). Even though the offspring had one allele for tallness and one for dwarfness, only the tall trait appeared. This led Mendel to conclude that the tall trait was **dominant* over the dwarf trait, which was **recessive**.
At the genetic level, this law reflects how alleles interact. Each gene has two alleles—one from each parent. In a heterozygous condition (e.g., Tt), the *dominant allele* (T) is sufficient to express the trait (tallness), while the *recessive allele* (t) only shows its effect when *both alleles are recessive* (tt). Thus, the recessive trait only appears in the *absence* of the dominant allele. This principle helps explain why some traits can "skip" a generation and reappear later.
However, the Law of Dominance does not apply to all traits. Many traits show **incomplete dominance**, **codominance**, or are influenced by **multiple genes (polygenic inheritance)**. For instance, in incomplete dominance, neither allele is completely dominant, and the heterozygous condition results in a blend of traits (like red and white flowers producing pink offspring). Despite these exceptions, the Law of Dominance remains a basic and essential concept in classical genetics, helping to explain how traits are passed from parents to offspring.
anything but playing siege