1. In class, we have discussed how the computer represents numbers in double precision in the memory. The largest number and the smallest positive normalized number that can be presented are given by the predefined variables realmax and realmin respectively. The machine epsilon is given by eps. Another way to represent numbers is to use the single precision. It uses N = 23 digits for the fraction part. The exponent falls in the range L-126 esU 127. (a) What is the largest and the smallest normalized real numbers that can be exactly represented in thesin gle precision? Write down the expressions in the binary form. Then transform the binary representation into the decimal form and evaluate it in MATLAB. b) What is the machine epsilon for the single precision? Write down the expression in both binary and decimal form and evaluate it in MATLAB. (c) How many digits are meaningful in the single precision? (d) Write down two numbers that are equivalent in the single precision Hint: You can check your answers to (a) and (b) with the MATLAB predefined variables realmin('single') realmax('single') and eps ('single'). 1. In class, we have discussed how the computer represents numbers in double precision in the memory. The largest number and the smallest positive normalized number that can be presented are given by the predefined variables realmax and realmin respectively. The machine epsilon is given by eps. Another way to represent numbers is to use the single precision. It uses N = 23 digits for the fraction part. The exponent falls in the range L-126 esU 127. (a) What is the largest and the smallest normalized real numbers that can be exactly represented in thesin gle precision? Write down the expressions in the binary form. Then transform the binary representation into the decimal form and evaluate it in MATLAB. b) What is the machine epsilon for the single precision? Write down the expression in both binary and decimal form and evaluate it in MATLAB. (c) How many digits are meaningful in the single precision? (d) Write down two numbers that are equivalent in the single precision Hint: You can check your answers to (a) and (b) with the MATLAB predefined variables realmin('single') realmax('single') and eps ('single')