Question
How are Pascal’s triangle and binomial expansion such as
related?
The correct answer is: Here, the coefficients of the expansions are the elements of the sixth row of the Pascal’s triangle.
ANSWER:
Hint:
Pascal's Triangle gives us the coefficients for an expanded binomial of the form (a + b)n, where n is the row of the triangle. The Binomial Theorem tells us we can use these coefficients to find the entire expanded binomial, with a couple extra tricks thrown in.
Step 1 of 1:
![](data:image/png;base64,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)
Pascal's Triangle is a method to know the binomial coefficients of terms of binomial expression (x + y)n, where n can be any positive integer and x,y are real numbers. Pascal Triangle is represented in a triangular form, it is kind of a number pattern in the form of a triangular arrangement.
The binomial expansion of
is:
![left parenthesis a plus b right parenthesis to the power of 5 equals 5 C subscript 0 a to the power of 5 plus 5 C subscript 1 left parenthesis a right parenthesis to the power of 4 left parenthesis b right parenthesis plus 5 C subscript 2 left parenthesis a right parenthesis cubed left parenthesis b right parenthesis squared plus 5 C subscript 3 left parenthesis a right parenthesis squared left parenthesis b right parenthesis cubed plus 5 C subscript 4 left parenthesis a right parenthesis left parenthesis b right parenthesis to the power of 4 plus 5 C subscript 5 left parenthesis b right parenthesis to the power of 5](data:image/png;base64,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)
![equals a to the power of 5 plus 5 a to the power of 4 b plus 10 a cubed b squared plus 10 a squared b cubed plus 5 a b to the power of 4 plus b to the power of 5](data:image/png;base64,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)
Here, the coefficients of the expansions are the elements of the sixth row of the Pascal’s triangle.
Note:
You can find the expansion of
using both Pascal’s triangle and binomial expansion
Related Questions to study
Explain how to use a polynomial identity to factor
.
We use identities to speed up the process of multiplication and simplification. There are some basic polynomial identities that you need to by heart.
Explain how to use a polynomial identity to factor
.
We use identities to speed up the process of multiplication and simplification. There are some basic polynomial identities that you need to by heart.
Use polynomial identities to factor the polynomials or simplify the expressions :
![10 cubed plus 5 cubed](data:image/png;base64,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)
Use polynomial identities to factor the polynomials or simplify the expressions :
![10 cubed plus 5 cubed](data:image/png;base64,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)
Explain why the middle term
is 10x.
Explain why the middle term
is 10x.
Use polynomial identities to factor the polynomials or simplify the expressions :
![9 cubed plus 6 cubed](data:image/png;base64,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)
Use polynomial identities to factor the polynomials or simplify the expressions :
![9 cubed plus 6 cubed](data:image/png;base64,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)
How can you use polynomial identities to rewrite expressions efficiently ?
How can you use polynomial identities to rewrite expressions efficiently ?
Use binomial theorem to expand![left parenthesis 2 c plus d right parenthesis to the power of 6](data:image/png;base64,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)
Use binomial theorem to expand![left parenthesis 2 c plus d right parenthesis to the power of 6](data:image/png;base64,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)
Use polynomial identities to factor the polynomials or simplify the expressions :
![open parentheses 1 over 16 x to the power of 6 minus 25 y to the power of 4 close parentheses](data:image/png;base64,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)
Use polynomial identities to factor the polynomials or simplify the expressions :
![open parentheses 1 over 16 x to the power of 6 minus 25 y to the power of 4 close parentheses](data:image/png;base64,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)
Use binomial theorem to expand .![left parenthesis x minus 1 right parenthesis to the power of 7](data:image/png;base64,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)
Use binomial theorem to expand .![left parenthesis x minus 1 right parenthesis to the power of 7](data:image/png;base64,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)
Use polynomial identities to factor the polynomials or simplify the expressions :
![64 x cubed minus 125 y to the power of 6](data:image/png;base64,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)
Use polynomial identities to factor the polynomials or simplify the expressions :
![64 x cubed minus 125 y to the power of 6](data:image/png;base64,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)
How are Pascal’s triangle and binomial expansion such as (a + b)5 related?
You can find the expansion of (x + y)n using both Pascal’s triangle and binomial expansion.
How are Pascal’s triangle and binomial expansion such as (a + b)5 related?
You can find the expansion of (x + y)n using both Pascal’s triangle and binomial expansion.
Use binomial theorem to expand .![open parentheses s squared plus 3 close parentheses to the power of 5](data:image/png;base64,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)
Use binomial theorem to expand .![open parentheses s squared plus 3 close parentheses to the power of 5](data:image/png;base64,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)
Use polynomial identities to factor the polynomials or simplify the expressions :
![216 plus 27 y to the power of 12](data:image/png;base64,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)
Use polynomial identities to factor the polynomials or simplify the expressions :
![216 plus 27 y to the power of 12](data:image/png;base64,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)
Explain why the middle term
is 10x.
In the Binomial Expansion's middle term, in the expansion of (a + b)n, there are (n + 1) terms. Therefore, we can write the middle term or terms of (a + b)n based on the value of n. It follows that there will only be one middle term if n is even and two middle terms if n is odd.
The binomial expansions of (x + y)n are used to find specific terms, such as the term independent of x or y.
Practice Questions
1. Find the expansion of (9x - 2y)12's coefficient of x5y7.
2. In the expansion of (2x - y)11, locate the 8th term.
Explain why the middle term
is 10x.
In the Binomial Expansion's middle term, in the expansion of (a + b)n, there are (n + 1) terms. Therefore, we can write the middle term or terms of (a + b)n based on the value of n. It follows that there will only be one middle term if n is even and two middle terms if n is odd.
The binomial expansions of (x + y)n are used to find specific terms, such as the term independent of x or y.
Practice Questions
1. Find the expansion of (9x - 2y)12's coefficient of x5y7.
2. In the expansion of (2x - y)11, locate the 8th term.