The problem requires determining the maximum number of patients the clinic can handle in a single day from 9 a.m. to 11:30 a.m. This is equivalent to 150 minutes, as calculated below:
Since three doctors are sharing the available rooms, it is essential to compute the number of patients each doctor can see individually, assuming optimal room allocation:
Considering simultaneous use of rooms and continuous patient handling, let's allocate time to maximize output:
The combination that provides the largest number of patients under room constraints and time is:
By optimized allocation using room freedoms and patients ranking upon room availability, we calculate effects:
Doctor | Number of Patients |
---|---|
Dr. Ben | 15 |
Dr. Kane | 10 |
Dr. Wayne | 6 |
Thus, the correct answer is that the clinic can cater to 31 patients on any single day based on the given situation and optimal use of room and time resources.
The queue is never empty on one particular Saturday. Which of the three doctors would earn the maximum amount in consultation charges on that day?
Dr. Ben
To determine the day Mr. Singh was at the clinic for the maximum duration, we need to calculate the time he spent on each day based on the doctors' schedules. Mr. Singh, with token number 13, arrived at 8:50 a.m. When the clinic opens at 9 a.m., his wait time depends on the doctors' consultation times per patient.
Doctor | Consultation Time | Charges | Room |
---|---|---|---|
Dr. Ben | 10 min | Rs. 100 | 1 |
Dr. Kane | 15 min | Rs. 200 | 2 |
Dr. Wayne | 25 min | Rs. 300 | 3 |
From 9:00 a.m., doctors start consulting patients. The sequence in which patients are attended is based on token numbers and room availability.
Mr. Singh, with token number 13, will be attended next. As it is calculated:
Thus, Mr. Singh was at the clinic for the maximum duration on Monday, as there was the earliest start without necessity for significant wait or patient lineup adjustment could facilitate earlier on-site consultation, conjoined with every other noted factor in practice.
On a slow Thursday, only two patients are waiting at 9 a.m. After that two patients keep arriving at exact 15 minute intervals starting at 9:15 a.m. -- i.e. at 9:15 a.m., 9:30 a.m., 9:45 a.m. etc. Then the total duration in minutes when all three doctors are simultaneously free is
In this problem, we need to determine the time when all three doctors are simultaneously free. Let's analyze the given information:
1. Three doctors with different consultation times:
2. The clinic's operating hours are from 9 a.m. to 11:30 a.m.
3. Patients start arriving at 9 a.m., with two patients waiting. More patients arrive at 15-minute intervals starting from 9:15 a.m.
4. Patients go to the available room with the lowest number.
We need to calculate when all three doctors will be free simultaneously.
Initially, at 9 a.m., two patients enter rooms 1 and 2 to see Dr. Ben and Dr. Kane, respectively.
At 9:10 a.m., Dr. Ben finishes with the first patient.
At 9:15 a.m., Dr. Kane finishes with the second patient, and two more patients arrive. Room 1 becomes free, the next patient enters Dr. Ben's room.
At 9:20 a.m., Dr. Ben finishes with the next patient and another patient enters.
At 9:25 a.m., Dr. Wayne finishes and another patient enters.
When does the cycle repeat?
The Least Common Multiple (LCM) of these times is the earliest time when they all will be free. Calculating the LCM: The prime factors are 21 * 52 = 50 minutes.
Since the calculation starts at 9 a.m., after 50 minutes, the time will be 9:50 a.m.
Let's verify if they are free at 9:50 a.m.:
Dr. Wayne finishes his patient at 9:50 a.m., but Dr. Kane's next simultaneous finish is at 10:00 a.m. Thus, all doctors aren't free simultaneously. Repeating this for subsequent intervals, they do not align simultaneously by the clinic closing time.
Conclusively, the total time during which all doctors are simultaneously free is 0 minutes.
A | B | C | D | Average |
---|---|---|---|---|
3 | 4 | 4 | ? | 4 |
3 | ? | 5 | ? | 4 |
? | 3 | 3 | ? | 4 |
? | ? | ? | ? | 4.25 |
4 | 4 | 4 | 4.25 |