A translation of 4 units to the right followed by a dilation of a factor of 2
These are called the second differences. If they are all the same (non-zero) then the original sequence is a quadratic.
It is the sequence of first differences. If these are all the same (but not 0), then the original sequence is a linear arithmetic sequence. That is, a sequence whose nth term is of the form t(n) = an + b
A sequence of transformations can be named based on the specific operations applied, such as translations, rotations, reflections, or dilations. Each transformation can be described in order, often using notation like T1, T2, etc., where each T represents a distinct transformation. Additionally, the context or the geometric figures involved can influence the naming, allowing for more descriptive titles like "rotation followed by reflection." Ultimately, clarity and consistency in naming are key for effective communication.
The sequence represents a non-convergence sequence. The sequences carries out -27, 17, 19, -21, 44, 2, -40,-42,-42. This is a math sequencing solution that gives a pattern to the original numbers given.
A translation of 4 units to the right followed by a dilation of a factor of 2
The transformation process is an 'enlargement'
To show congruency between two shapes, you can use a sequence of rigid transformations such as translations, reflections, rotations, or combinations of these transformations. By mapping one shape onto the other through these transformations, you can demonstrate that the corresponding sides and angles of the two shapes are congruent.
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first they say their planet name then they say after their planet name:planet power,make up!Example:http://wiki.answers.com/index.php?title=Uranus_Planet_Power,_Make_Up(sailor uranus transformation sequence)
The identity transformation.
Light energy is transformed into chemical energy
A backmutation is a mutation in genetics which restores the original sequence and the original phenotype.
It means that more than one transformation is used.
Proving that two figures are congruent using rigid motions involves demonstrating that one figure can be transformed into the other through a series of translations, rotations, and reflections without changing the size or shape of the original figure. This proof relies on the principle that rigid motions preserve distance and angle measures. By showing that the corresponding parts of the two figures align perfectly after applying these transformations, it can be concluded that the figures are congruent.
These are called the second differences. If they are all the same (non-zero) then the original sequence is a quadratic.
It is the sequence of first differences. If these are all the same (but not 0), then the original sequence is a linear arithmetic sequence. That is, a sequence whose nth term is of the form t(n) = an + b