13541
The hexadecimal number E78 represents a value in base 16. To convert it to decimal (base 10), you can calculate it as follows: E (which is 14 in decimal) is in the 256's place (16²), 7 is in the 16's place (16¹), and 8 is in the 1's place (16⁰). Therefore, E78 in decimal is calculated as ( (14 \times 256) + (7 \times 16) + (8 \times 1) = 3584 + 112 + 8 = 3704 ). Thus, E78 in decimal is 3704.
E78 = 3704Divide 3704 by decreasing powers of 7 as follows:3704 = 1*7^4 + 3*7^3 + 5*7^2 + 4*7^1 + 1*7^0Then the base7 value is the string formed by the coefficients of the powers of 7, that is, 13541.
1.000.000 (a million) is the smallest 7-digit number in radix 10 (decimal number). Here are some result of converted value form other bases : * Radix 2 : 26 = 128 * Radix 8 : 86 = 262.144 * Radix 16 : 166 = 16.777.216
The radix is a property of a numerical system, not an individual number. It is the number of different digits (or characters) used by the system to represent all numbers. Thus the radix of the binary system is 2: 0 and 1 the radix of the octal system is 8: 0,1,2,3,4,5,6 and 7 the radix of the decimal system is 10: 0,1,2,3,4,5,6,7,8 and 9 and so on. Since a number cannot have a radix, the question does not make sense.
5 (penta = 5, hexa = 6, hepta = 7, octo = 8...)
E78 hex=3704 radix 7 means to the base7 3704=13541 base7
E78 = 3704Divide 3704 by decreasing powers of 7 as follows:3704 = 1*7^4 + 3*7^3 + 5*7^2 + 4*7^1 + 1*7^0Then the base7 value is the string formed by the coefficients of the powers of 7, that is, 13541.
1.000.000 (a million) is the smallest 7-digit number in radix 10 (decimal number). Here are some result of converted value form other bases : * Radix 2 : 26 = 128 * Radix 8 : 86 = 262.144 * Radix 16 : 166 = 16.777.216
The radix is a property of a numerical system, not an individual number. It is the number of different digits (or characters) used by the system to represent all numbers. Thus the radix of the binary system is 2: 0 and 1 the radix of the octal system is 8: 0,1,2,3,4,5,6 and 7 the radix of the decimal system is 10: 0,1,2,3,4,5,6,7,8 and 9 and so on. Since a number cannot have a radix, the question does not make sense.
E7816 = 14 x 256 + 7 x 16 + 8 = 370410 3704 ÷ 7 = 529 r 1 529 ÷ 7 = 75 r 4 75 ÷ 7 = 10 r 5 10 ÷ 7 = 1 r 3 1 ÷ 7 = 0 r 1 ⇒ 370410 = 135417 ⇒ E7816 = 135417 Alternatively, doing the arithmetic in hexadecimal: E7816 ÷ 716 = 21116 r 1 22116 ÷ 716 = 4B16 r 4 4B16 ÷ 716 = A16 r 5 A16 ÷ 716 = 116 r 3 116 ÷ 716 = 016 r 1 ⇒ E7816 = 135417
6 and 7 respectively
Hepta- is for seven.
5 = penta 6 = hexa 7 = hepta 8 = octa 9 = nona 10 = deca
5 (penta = 5, hexa = 6, hepta = 7, octo = 8...)
The polygon of seven(7) sides is named an 'HEPTAGON'. For the given number of sides of other polygons, the prefix is 3 = tri ( trigon / triangle) 4 = tetragon ( rectangle/ quadrilaterial) 5 = penta 6 = hexa 7 = hepta ( as above) 8 = octa 9 = nona 10 = deca.
6 sides, 6 angles tri-3 tetra/quadrilateral-4 penta-5 hexa-6 hepta-7
A loop statement is used to iterate through a set of sequential statements. The syntax of a loop statement is [ loop-label : ] iteration-scheme loop sequential-statements end loop [ loop-label ] ; There are three types of iteration schemes. The first is the for iteration scheme that has the form for identifier in range An example of this iteration scheme is FACTORIAL := 1; for NUMBER in 2 to N loop FACTORIAL := FACTORIAL * NUMBER; end loop; The body of the for loop is executed (N-1) times, with the loop identifier, NUMBER, being incremented by I at the end of each iteration. The object NUMBER is implicitly declared within the for loop to belong to the integer type whose values are in the range 2 to N. No explicit declaration for the loop identifier is, therefore, necessary. The loop identifier, also, cannot be assigned any value inside the for loop. If another variable with the same name exists outside the for loop, these two variables are treated separately and the variable used inside the for loop refers to the 34loop identifier. The range in a for loop can also be a range of an enumeration type such as type HEXA is ('0', '1', '2', '3', '4', ' 5', '6', '7', '8', '9', 'A', 'B', 'C', 'D', 'E', 'F'): . . . for NUM in HEXA'('9') downto HEXA'('0') loop -- NUM will take values in type HEXA from '9' through '0'. . . . end loop; for CHAR in HEXA loop -- CHAR will take all values in type HEXA from '0' through 'F'. . . . end loop; Notice that it is necessary to qualify the values being used for NUM [e.g., HEXA'('9')] since the literals '0' through '9' are overloaded, once being defined in type HEXA and the second time being defined in the predefined type CHARACTER