Answer : The measure of angle MBT is 28°.
Step-by-step explanation :
As we see that the ∠NBM is equal to ∠MBT.
That means,
∠NBM = ∠MBT
Given:
∠NBM = (17x - 6)°
∠MBT = (5x + 18)°
According to question:
∠NBM = ∠MBT
(17x - 6)° = (5x + 18)°
17x - 5x = 18° + 6°
12x = 24°
x = 2°
So,
∠NBM = (17x - 6)° = [(17 × 2) - 6]° = 28°
∠MBT = (5x + 18)° = [(5 × 2) + 18]° = 28°
Hence, the measure of angle MBT is 28°.
The measure of angle MBT is
To find the measure of angle MBT, we can use the angle sum property of a triangle, which states that the sum of all angles in a triangle is 180 degrees.
In triangle MBT, we have three angles: angle MBT (which we want to find), angle N (measured as (17x - 6)°), and angle BMT (measured as (5x + 18)°). According to the angle sum property, the sum of these angles is 180 degrees:
Substituting the given angle measures, we get:
Now, combine like terms:
To solve for x, subtract 12 from both sides:
Finally, divide by 22 to solve for x:
The value of x determines the measure of angle MBT. Without the specific value of x, we cannot determine the exact measure of angle MBT. If you provide the value of x, I can help you find the precise measure of angle MBT.
For more such questions on angle
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A) linear
B) power
C) exponential
D) linear and exponential
Answer-
Exponential regression line is the best fit for the data.
Solution-
Taking
x = input variable,
y = output variable.
Taking the data from the table, regression models were generated using Excel.
As shown in the attachments, the co-efficient of determination (R²) is maximum for Exponential Regression model or more closer to 1.
As,
The more closer the value of R² to 1, the better the regression model and the best fit line is.
In general also, when we consider growth or decay, we follow the exponential function approach.
Therefore, the exponential regression models should be followed and so exponential regression line is the best fit for the data.
answer:
The equation of line s is given as y = 2. To find the coordinates of point C of AA'B'C' for Rs, we need to consider the intersection of line s with the x-axis.
When the equation of a line is in the form y = c, where c is a constant, it represents a horizontal line parallel to the x-axis. In this case, the line y = 2 is a horizontal line passing through the y-coordinate 2.
Since the line y = 2 does not intersect the x-axis, there is no point of intersection, and we cannot determine the coordinates of point C.
"i was trying to leave the question but accidently pressed add answer lol"
Alli <3
The next number of the number series 12 21 23 32 34 43 would be; 54
We are given the series as;
12 21 23 32 34 43
First, we have to add 11 to 12
11 + 12 = 23,
then we add 11 to 23
11 + 23 = 34,
Now we have to add 11 to 34
11 + 34 =45,
This is the next number:
12 21 23 32 34 43 45 54
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T
(9x – 19)°
U
111°
((7x + 3)
X
(5x + 8)
128°
W
Answer:
103
Step-by-step explanation:
6 sides
(6-2)180 =720
720 = S×T+U+V+W+X
S=90
720 = 90 + (9X-19) + (111) + (5X+8) + (128) + (7X+3)
COMBINE LIKE TERMS
720= (90-19+111+8+128+3) + (9X+5X+7X)
720 = 321 + 21X
720-321 = 321-321 + 21X
399 = 21X
19 = X
mV = 5X + 8
mV = 5(19) + 8
mV = 95 + 8
mV = 103
the answer is 0.375. just divide
Answer:
Sun is cm away from alpha century.
Sun is m.
Sun is 1.391016 time the size of an atom at this scale.
Step-by-step explanation:
Light year is a measure of distance. It is the distance light travels in an year.
Light year = km
So 4.4 light years = km
km
Lets scale this down to the level of
km
= km
Change the units to centimeters:
cm
= cm
= cm
Therefore on the new scale sun is cm away from alpha century.
Diameter of the sun is 1.391016 million km
Lets change Sun's diameter to the new scale:
km
=km
Lets change kilometers in to meters:
m
=m
Therefore, sun is m
and an atom is
Therefore the sun is 1.391016 time the size of an atom at this scale.
On a 1-to-10^19 scale, the distance from the Sun to the Alpha Centauri is about 44 cm. On this same scale, the Sun itself would have a diameter of about 150 picometers, which is larger than a typical atom.
The 1-to-10^19 scale means for every actual meter in space, we represent 10^19 meters on our model. The Alpha Centauri is 4.4 light-years away from the sun. Considering 1 light-year equals to approximately 9.46x10^15 meters, the real distance from the sun to Alpha Centauri is about 4.16x10^16 meters. So, on the scale, this is about 0.44 meters or 44 cm.
The Sun's real size, with a diameter of 1.5 million kilometers or 1.5x10^9 meters, is represented as 1.5x10^-10 meters or 150 picometers on the scale. This is much bigger than an actual atom, which has a diameter of 0.1 to 0.5 nanometers or 100 to 500 picometers. Hence, on this scale, the Sun would be larger than a typical atom.
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