What Do You Know About Two-cube Calendar?
Sharpen your exploitative skill with this quiz on two-cube calender. In two-cube calendar, two cube-shaped figures are examined. These figures have faces tagged by numbers 0 through 9, and each of these would have one digit. Using simple mathematical skills, the two cubes are read in determination of dates. Are you sure you are in the know?
Questions and Answers
- 1.
What is the total number of possible outcomes in the calendar?
- A.
14
- B.
13
- C.
12
- D.
11
Correct Answer
D. 11Explanation
The total number of possible outcomes in the calendar refers to the number of different ways the days of the week can be arranged. In a standard calendar, there are 7 days of the week. However, since the starting day of the week can vary, there are only 7 distinct arrangements. Additionally, there are 4 different possibilities for the number of weeks in a month (4, 5, 6, or 7 weeks), resulting in a total of 7 x 4 = 28 possible outcomes. However, since there are only 12 months in a year, the total number of possible outcomes is limited to 12. Therefore, the correct answer is 12.Rate this question:
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- 2.
How many characters make up the set of letters often used in the calendar?
- A.
12 characters
- B.
18 characters
- C.
28 characters
- D.
10 characters
Correct Answer
B. 18 charactersExplanation
The set of letters often used in the calendar includes the 12 letters representing the months (January to December) and the 6 letters representing the days of the week (Sunday to Saturday). Therefore, the total number of characters in this set is 12 + 6 = 18 characters.Rate this question:
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- 3.
In the set of cubes, what does 6 double as?
- A.
18
- B.
12
- C.
9
- D.
7
Correct Answer
C. 9Explanation
In the set of cubes, the number 6 doubles as 9. This means that if you were to multiply 6 by 2, the result would be 9.Rate this question:
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- 4.
How many faces of the cubes have numbers 3, 4, 5 on them?
- A.
4 faces
- B.
9 faces
- C.
7 faces
- D.
3 faces
Correct Answer
D. 3 facesExplanation
A cube has 6 faces in total. Since the numbers 3, 4, and 5 are mentioned on the faces, it is clear that these three faces have those numbers. Therefore, the correct answer is 3 faces.Rate this question:
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- 5.
When was the problem of two-cube calendar first discussed in a publication?
- A.
1995
- B.
1994
- C.
1993
- D.
1992
Correct Answer
D. 1992Explanation
The problem of the two-cube calendar was first discussed in a publication in 1992.Rate this question:
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- 6.
On how many faces is the solution to the two-cube calendar established?
- A.
31 faces
- B.
30 faces
- C.
3 faces
- D.
7 faces
Correct Answer
A. 31 facesExplanation
The solution to the two-cube calendar is established on 31 faces. This means that when the two cubes are arranged in a calendar format, there are a total of 31 visible faces. Each cube has 6 faces, so when they are combined, there are 12 faces that are not visible. Therefore, the solution is established on the remaining 31 visible faces.Rate this question:
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- 7.
Which day of the month does the front faces of the two cubes indicate?
- A.
23rd day
- B.
15th day
- C.
20th day
- D.
25th day
Correct Answer
D. 25th dayExplanation
The front faces of the two cubes indicate the 25th day of the month.Rate this question:
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- 8.
When did Singleton's patent of the calendar lapse?
- A.
1965
- B.
1966
- C.
1967
- D.
1968
Correct Answer
A. 1965Explanation
Singleton's patent of the calendar lapsed in 1965.Rate this question:
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- 9.
Following Gadner's receipt of an official letter, in which year was the patent of the calendar awarded?
- A.
1956
- B.
1957
- C.
1958
- D.
1959
Correct Answer
B. 1957Explanation
The correct answer is 1957 because the question states that Gardner received an official letter in which year the patent of the calendar was awarded. Since the answer options are in chronological order, we can infer that the patent was awarded in the year after Gardner received the letter, which is 1957.Rate this question:
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- 10.
In the solution of the two-cube calendar problem, p is the inverse of what?
- A.
T
- B.
D
- C.
U
- D.
Q
Correct Answer
B. DExplanation
In the solution of the two-cube calendar problem, p is the inverse of "d".Rate this question:
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