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Just writing "81" is mathematical enough for my taste. After all, that's a number, and numbers are mathematical.
A 1-dimensional object is an entity that has only one measurable extent, which is typically length. It does not possess width or height, making it effectively a line or a line segment. Examples of 1-dimensional objects include a straight line, a curve, or a segment of a string. In geometry, these objects are often used as the simplest form of representation in various mathematical contexts.
To write 250 thousand in numerical form, you would write it as 250,000. In words, it can be expressed as "two hundred fifty thousand." This notation is commonly used in financial, statistical, and mathematical contexts.
To construct a segment congruent to a given segment, you typically use a compass and straightedge. First, draw a line segment of the desired length using the given segment as a reference. Place the compass point on one endpoint of the original segment, adjust it to the other endpoint, and then draw an arc. Finally, use the same compass width to create a new arc from a chosen point on the new line, marking the intersection to form the congruent segment.
To find the perpendicular bisector of a line segment, first, determine the midpoint of the segment by averaging the x-coordinates and y-coordinates of the endpoints. Next, calculate the slope of the line segment and find the negative reciprocal of that slope to get the slope of the perpendicular bisector. Then, use the midpoint and the new slope to write the equation of the perpendicular bisector in point-slope form. Finally, you can convert it to slope-intercept form if needed.
2.5X102
Just writing "81" is mathematical enough for my taste. After all, that's a number, and numbers are mathematical.
to write in number form
The mathematical form of Ohms law is I=V divided by R. I is current, V is voltage while R is the resistance.
The complementary sequence to ggactgtta is ccatgacaa. So, the new DNA segment that would form next to ggactgtta would be ccatgacaa.
Line segments are parts of a line that have fixed endpoints. In Geometry, line segment form the edges of the polygon and appear in countless ways. This can only measure the length of segment but not of a line.
When numbers are separated into individual place values and decimal places they can also form a mathematical expression. 5,325 in expanded notation form is 5,000 + 300 + 20 + 5 = 5,325. You can write numbers using expanded form in multiple ways.
To write 250 thousand in numerical form, you would write it as 250,000. In words, it can be expressed as "two hundred fifty thousand." This notation is commonly used in financial, statistical, and mathematical contexts.
If you mean "what is the radius of a circle", then the answer is the line segment or length from the center of circle to the set of points that form the circle. The radius is also half of the diameter.
A line segment that is bent to form part of a circle would be considered an arc.
To find the perpendicular bisector of a line segment, first, determine the midpoint of the segment by averaging the x-coordinates and y-coordinates of the endpoints. Next, calculate the slope of the line segment and find the negative reciprocal of that slope to get the slope of the perpendicular bisector. Then, use the midpoint and the new slope to write the equation of the perpendicular bisector in point-slope form. Finally, you can convert it to slope-intercept form if needed.
If available, a protractor or a right drawing triangle can be used. If restricted to ruler and compass, a right angle can also be constructed to a given line segment by drawing a circle, with a radius less than the length of the line segment but more than half that length, with each end of the line segment as a center and connecting the two points of intersection of the two circles above and below the line. The line connecting to two intersections of these circles will form as right angle to the line segment.