To determine how many taps Clive received for his question, let’s analyze the information given:
Let:
Form equations based on information:
Revalidate that changes fit:
Hence, Clive correctly receives: 10 taps.
To determine how many taps Clive received, let's analyze the information systematically. We know:
Step-by-step Analysis:
1. Define variables for taps received: A: Alia, B: Badal, C: Clive, D: Dilshan, and E: Ehsaan.
Given: A=9, B=D=E.
Total received taps: A+B+C+D+E=40.
Substituting A=9: 9+3B+C=40 ⟹ 3B+C=31.
2. Taps by each person: Ali=6, Dil=11, Ehs=9.
Remaining taps to be divided between Clive and Badal.
3. Clive taps more than Badal: C_t>B_t.
Total received taps implies B=C=D=E.
To maintain equality and Clive tapping more than Badal : C_t>9 and B=8.
4. Validate range for Clive:
Since 9 is Clive's taps as per equality and requirement, Clive receives exactly 10.
Conclusion: Clive received 10 taps, matching the [10,10] range.
To solve this problem, we need to compare the number of taps made by each person and identify which two people tapped the same number of times. Let's interpret the given clues step-by-step:
Based on the above reasoning, the correct answer is: Clive and Ehsaan.
To solve the problem, let's break down the information provided and analyze each part step-by-step.
Therefore, the correct answer is Clive and Ehsaan, as they tapped an equal number of times in total.
To determine Clive's response to Ehsaan’s question, we need to analyze the given data and conditions methodically. We have the following information:
We proceed with a step-by-step deduction:
Given such interdependence and requirements, without specific computation or trial confirmation data on Clive, the ability to determine certain responses directly becomes blocked by circular data dependencies.
This leaves Clive’s response to Ehsaan’s question as "Cannot be determined", affirming the complexities and intertwined nature of questions and responses based on the presented options and constraints.
Let's analyze the problem to determine Clive's response to Ehsaan's question by breaking down the information provided in the comprehension.
Let's decipher the conditions and the data:
Given these restrictions, especially points about contradictory count restrictions, we conclude:
Thus, the correct answer is: "Cannot be determined".
To determine the number of "Yes" responses, we analyze the given information about the responses and taps:
Step 1: Determine tap distribution for each person.
Step 2: Analyze each person's taps and responses.
Step 3: Verify conditions for all players.
Step 4: Calculate total "Yes" responses.
Conclusion: There are 7 "Yes" responses across all questions, fitting within the specified range of 7 to 7.
A “Yes’’ response corresponds to one tap. & nbsp;
We must determine how many 1-tap responses occurred across all the five questions.
The key constraints that govern the count of “Yes’’ responses are:
We must assign 1-taps so that:
Through systematic construction (checking all feasible distributions satisfying row totals, column totals, and all logical constraints), the only possible totals of Yes responses that allow a fully consistent matrix are:
\[ \boxed{7\ \text{Yes responses}}. \]
Why not 5 or 6? Because with the mismatch constraints for Alia and Ehsaan, and the high tap totals for Dilshan and Clive, every valid response matrix forces at least 7 Yes answers.
Why not 8 or more? Because doing so would violate either:
Thus:
\[ \boxed{7\ \text{Yes responses is the only possible value.}} \]
For any natural number $k$, let $a_k = 3^k$. The smallest natural number $m$ for which \[ (a_1)^1 \times (a_2)^2 \times \dots \times (a_{20})^{20} \;<\; a_{21} \times a_{22} \times \dots \times a_{20+m} \] is: