Bytelearn - cat image with glassesAI tutor

Welcome to Bytelearn!

Let’s check out your problem:

59(F32)\frac{5}{9}(F - 32) The equation above shows how temperature FF, measured in degrees Fahrenheit, relates to a temperature CC, measured in degrees Celsius. Based on the equation, which of the following must be true?\newlineA temperature increase of 11 degree Fahrenheit is equivalent to a temperature increase of 59\frac{5}{9} degree Celsius.\newlineA temperature increase of 11 degree Celsius is equivalent to a temperature increase of 1.81.8 degrees Fahrenheit.\newlineA temperature increase of 59\frac{5}{9} degree Fahrenheit is equivalent to a temperature increase of 11 degree Celsius.

Full solution

Q. 59(F32)\frac{5}{9}(F - 32) The equation above shows how temperature FF, measured in degrees Fahrenheit, relates to a temperature CC, measured in degrees Celsius. Based on the equation, which of the following must be true?\newlineA temperature increase of 11 degree Fahrenheit is equivalent to a temperature increase of 59\frac{5}{9} degree Celsius.\newlineA temperature increase of 11 degree Celsius is equivalent to a temperature increase of 1.81.8 degrees Fahrenheit.\newlineA temperature increase of 59\frac{5}{9} degree Fahrenheit is equivalent to a temperature increase of 11 degree Celsius.
  1. Given Equation: We are given the equation that relates temperature in Fahrenheit (F) to temperature in Celsius (C):\newlineC=59(F32) C = \frac{5}{9}(F - 32) \newlineTo find the relationship between a temperature increase in Fahrenheit and a temperature increase in Celsius, we need to consider how a change in Fahrenheit affects Celsius.
  2. Temperature Increase Analysis: Let's consider an increase of 11 degree Fahrenheit. We can represent this as F+1 F + 1 . To find out how much this increases the temperature in Celsius, we substitute F+1 F + 1 into the equation in place of F F :\newlineCnew=59((F+1)32) C_{new} = \frac{5}{9}((F + 1) - 32)
  3. Simplifying Equation: We can simplify the equation by distributing the 59 \frac{5}{9} across the terms inside the parentheses:\newlineCnew=59F+5959×32 C_{new} = \frac{5}{9}F + \frac{5}{9} - \frac{5}{9} \times 32
  4. Temperature Increase in Celsius: The original temperature in Celsius is given by:\newlineC=59(F32) C = \frac{5}{9}(F - 32) \newlineSo the increase in temperature in Celsius (ΔC \Delta C ) when Fahrenheit increases by 11 degree is:\newlineΔC=CnewC \Delta C = C_{new} - C \newlineΔC=(59F+5959×32)(59F59×32) \Delta C = \left(\frac{5}{9}F + \frac{5}{9} - \frac{5}{9} \times 32\right) - \left(\frac{5}{9}F - \frac{5}{9} \times 32\right)
  5. Reverse Analysis: Notice that the terms 59F \frac{5}{9}F and 59×32 -\frac{5}{9} \times 32 will cancel out because they are present in both Cnew C_{new} and C C , leaving us with:\newlineΔC=59 \Delta C = \frac{5}{9} \newlineThis means that an increase of 11 degree Fahrenheit is equivalent to an increase of 59 \frac{5}{9} degree Celsius.
  6. Isolating New Fahrenheit: Now let's consider the reverse: an increase of 11 degree Celsius. We want to find out how much this increases the temperature in Fahrenheit. We can start by adding 11 to the Celsius temperature and then solving for the new Fahrenheit temperature.\newlineC+1=59(Fnew32) C + 1 = \frac{5}{9}(F_{new} - 32)
  7. Temperature Increase in Fahrenheit: To isolate Fnew F_{new} , we multiply both sides by 95 \frac{9}{5} and then add 3232:\newline95(C+1)=Fnew32 \frac{9}{5}(C + 1) = F_{new} - 32 \newlineFnew=95(C+1)+32 F_{new} = \frac{9}{5}(C + 1) + 32
  8. Temperature Increase in Fahrenheit: To isolate Fnew F_{new} , we multiply both sides by 95 \frac{9}{5} and then add 3232:\newline95(C+1)=Fnew32 \frac{9}{5}(C + 1) = F_{new} - 32 \newlineFnew=95(C+1)+32 F_{new} = \frac{9}{5}(C + 1) + 32 The original Fahrenheit temperature is given by:\newlineF=95C+32 F = \frac{9}{5}C + 32 \newlineSo the increase in temperature in Fahrenheit (ΔF \Delta F ) when Celsius increases by 11 degree is:\newlineΔF=FnewF \Delta F = F_{new} - F \newlineΔF=(95(C+1)+32)(95C+32) \Delta F = \left(\frac{9}{5}(C + 1) + 32\right) - \left(\frac{9}{5}C + 32\right)
  9. Temperature Increase in Fahrenheit: To isolate Fnew F_{new} , we multiply both sides by 95 \frac{9}{5} and then add 3232:\newline95(C+1)=Fnew32 \frac{9}{5}(C + 1) = F_{new} - 32 \newlineFnew=95(C+1)+32 F_{new} = \frac{9}{5}(C + 1) + 32 The original Fahrenheit temperature is given by:\newlineF=95C+32 F = \frac{9}{5}C + 32 \newlineSo the increase in temperature in Fahrenheit (ΔF \Delta F ) when Celsius increases by 11 degree is:\newlineΔF=FnewF \Delta F = F_{new} - F \newlineΔF=(95(C+1)+32)(95C+32) \Delta F = \left(\frac{9}{5}(C + 1) + 32\right) - \left(\frac{9}{5}C + 32\right) Again, the terms 95C \frac{9}{5}C and 3232 will cancel out, leaving us with:\newlineΔF=95 \Delta F = \frac{9}{5} \newlineThis means that an increase of 11 degree Celsius is equivalent to an increase of 95 \frac{9}{5} degrees Fahrenheit, which is the same as 11.88 degrees Fahrenheit.

More problems from Convert between Celsius and Fahrenheit