Question
Expand 
using binomial theorem.
Hint:
The binomial expansion is 
.
We are asked to find the binomial expansion of using binomial theorem.
The correct answer is: Pascal’s triangle
Step 1 of 2:
The given expression is 
. The value of n=3. Thus, the number of terms would be n+1=3+1=4.
Step 2 of 2:
Substitute the values in the expression to get the terms of the binomial expansion;
Thus, the expansion is: 
.
Thus, the expansion is:
.The answer can be found using the Pascal’s triangle. For 
, we would consider the (n+1)th row as the coefficients.
Related Questions to study
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Factor in the form . Then find the value of a,b and c.
Find the fifth term of the binomial expansion 
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The expansion of has n+1 terms while expanding. The answer can be found using the Pascal’s triangle or binomial expansion.
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Using Pascal's Triangle, where n can be any positive integer as x and y are real numbers, one can determine the binomial coefficients of the terms of the binomial formula (x + y)n. Pascal Triangle is a type of number pattern that appears as a triangular arrangement and is represented by triangles. It starts with '1' at the top and continues with '1' on the triangle's two sides. Each new number in the Pascal triangle has equal values to the sum of the two integers above and below. The probability conditions in which this triangle is utilized vary. Every row represents this table's coefficient of expansion of (x + y)n. Zero row n = 0, (x + y)0
The sum of the coefficients in the expansion of the expression is 64. Use Pascal’s triangle to find the value of n.
Using Pascal's Triangle, where n can be any positive integer as x and y are real numbers, one can determine the binomial coefficients of the terms of the binomial formula (x + y)n. Pascal Triangle is a type of number pattern that appears as a triangular arrangement and is represented by triangles. It starts with '1' at the top and continues with '1' on the triangle's two sides. Each new number in the Pascal triangle has equal values to the sum of the two integers above and below. The probability conditions in which this triangle is utilized vary. Every row represents this table's coefficient of expansion of (x + y)n. Zero row n = 0, (x + y)0
A student says that the expansion of the expression 
has seven terms. Describe and correct
the error the student may have made ?
A student says that the expansion of the expression has seven terms. Describe and correct
the error the student may have made ?
Expand the expression 
.what is the sum of the coefficients?
Expand the expression .what is the sum of the coefficients?
Use Pascal’s triangle and the binomial theorem to expand 
. Justify your work.
Use Pascal’s triangle and the binomial theorem to expand . Justify your work.
Emma factored 
Describe and correct the error Emma made in factoring the polynomial.
A polynomial is factored when expressed as the product of more than one factor; this is somewhat the opposite of multiplying. The following properties or identities, along with other methods, are typically used to factor polynomials.
¶A number is quickly factorized into smaller digits or factors of the number using the factorization formula. Finding the zeros of the polynomial expression or the values of the variables in the given expression are both made possible by factoring polynomials.
¶There are many ways to factorize a polynomial of the form axn + bxn - 1 + cxn - 2+ ........., px + q, including grouping, using identities, and substituting.
Emma factored Describe and correct the error Emma made in factoring the polynomial.
A polynomial is factored when expressed as the product of more than one factor; this is somewhat the opposite of multiplying. The following properties or identities, along with other methods, are typically used to factor polynomials.
¶A number is quickly factorized into smaller digits or factors of the number using the factorization formula. Finding the zeros of the polynomial expression or the values of the variables in the given expression are both made possible by factoring polynomials.
¶There are many ways to factorize a polynomial of the form axn + bxn - 1 + cxn - 2+ ........., px + q, including grouping, using identities, and substituting.
