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Recent questions and answers in Operating System

2 votes
2 answers
1
ISRO2020-31
Three CPU-bound tasks, with execution times of $15,12$ and $5$ time units respectively arrive at times $0,t$ and $8$, respectively. If the operating system implements a shortest remaining time first scheduling algorithm, what should be the value of $t$ to have $4$ context switches? Ignore the context switches at time $0$ and at the end. $0<t<3$ $t=0$ $t<=3$ $3<t<8$
Three CPU-bound tasks, with execution times of $15,12$ and $5$ time units respectively arrive at times $0,t$ and $8$, respectively. If the operating system implements a shortest remaining time first scheduling algorithm, what should be the value of $t$ to have $4$ context switches? Ignore the context switches at time $0$ and at the end. $0<t<3$ $t=0$ $t<=3$ $3<t<8$
answered Apr 4 in Operating System heisenberggg 942 views
1 vote
3 answers
2
TIFR2020-B-8
Jobs keep arriving at a processor. A job can have an associated time length as well as a priority tag. New jobs may arrive while some earlier jobs are running. Some jobs may keep running indefinitely. A ... following job-scheduling policies is starvation free? Round - robin Shortest job first Priority queuing Latest job first None of the others
Jobs keep arriving at a processor. A job can have an associated time length as well as a priority tag. New jobs may arrive while some earlier jobs are running. Some jobs may keep running indefinitely. A ... the following job-scheduling policies is starvation free? Round - robin Shortest job first Priority queuing Latest job first None of the others
answered Apr 4 in Operating System heisenberggg 279 views
5 votes
4 answers
3
GATE CSE 2020 | Question: 50
Consider the following set of processes, assumed to have arrived at time $0$. Consider the CPU scheduling algorithms Shortest Job First (SJF) and Round Robin (RR). For RR, assume that the processes are scheduled in the order$P_1, P_2, P_3, P_4$ ... of the difference between the average turnaround times (in ms) of SJF and RR (round off to $2$ decimal places is_______
Consider the following set of processes, assumed to have arrived at time $0$. Consider the CPU scheduling algorithms Shortest Job First (SJF) and Round Robin (RR). For RR, assume that the processes are scheduled in the order$P_1, P_2, P_3, P_4$ ... absolute value of the difference between the average turnaround times (in ms) of SJF and RR (round off to $2$ decimal places is_______
answered Apr 4 in Operating System heisenberggg 3.7k views
2 votes
3 answers
4
GATE CSE 2020 | Question: 35
Consider the following five disk five disk access requests of the form (request id, cylinder number) that are present in the disk scheduler queue at a given time. $(P, 155), (Q,85), (R,110),(S, 30), (T,115)$ Assume the head is positioned at ... ,but before $T$. The head reverses its direction of movement between servicing of $Q$ and $P$. $R$ is serviced before $P$.
Consider the following five disk five disk access requests of the form (request id, cylinder number) that are present in the disk scheduler queue at a given time. $(P, 155), (Q,85), (R,110),(S, 30), (T,115)$ Assume the head is positioned at cylinder $100$. The ... $S$,but before $T$. The head reverses its direction of movement between servicing of $Q$ and $P$. $R$ is serviced before $P$.
answered Apr 4 in Operating System heisenberggg 1.9k views
5 votes
7 answers
5
GATE CSE 2020 | Question: 12
Consider the following statements about process state transitions for a system using preemptive scheduling. A running process can move to ready state. A ready process can move to running state. A blocked process can move to running state. A blocked process can move to ready state. ... TRUE? I, II, and III only II and III only I, II, and IV only I, II, III and IV only
Consider the following statements about process state transitions for a system using preemptive scheduling. A running process can move to ready state. A ready process can move to running state. A blocked process can move to running state. A blocked process can move to ready state. Which of the above statements are TRUE? I, II, and III only II and III only I, II, and IV only I, II, III and IV only
answered Apr 4 in Operating System heisenberggg 4.7k views
0 votes
1 answer
6
UGCNET-Jan2017-III: 66
Names of some of the Operating Systems are given below: MS-DOS XENIX OS/$2$ In the above list, following operating systems didn’t provide multiuser facility. (a) only (a) and (b)only (b) and (c) only (a),(b) and (c)
Names of some of the Operating Systems are given below: MS-DOS XENIX OS/$2$ In the above list, following operating systems didn’t provide multiuser facility. (a) only (a) and (b)only (b) and (c) only (a),(b) and (c)
answered Apr 3 in Operating System heisenberggg 71 views
0 votes
1 answer
7
UGCNET-Jan2017-III: 54
Which statements is not correct about “init” process in Unix? It is generally the parent of the login shell. It has PID $1$. It is the first process in the system. Init forks and execs a ‘getty’ process at every port connected to a terminal.
Which statements is not correct about “init” process in Unix? It is generally the parent of the login shell. It has PID $1$. It is the first process in the system. Init forks and execs a ‘getty’ process at every port connected to a terminal.
answered Apr 3 in Operating System heisenberggg 135 views
0 votes
2 answers
8
NIELIT 2017 July Scientist B (IT) - Section B: 46
Consider three CPU-intensive processes, which require $10,20$ and $30$ time units and arrive at times $0,2$ and $6$, respectively. How many context switches are needed if the operating system implements a shortest remaining time first scheduling algorithm? Do not count the context switches at time zero and at the end. $1$ $2$ $3$ $4$
Consider three CPU-intensive processes, which require $10,20$ and $30$ time units and arrive at times $0,2$ and $6$, respectively. How many context switches are needed if the operating system implements a shortest remaining time first scheduling algorithm? Do not count the context switches at time zero and at the end. $1$ $2$ $3$ $4$
answered Apr 3 in Operating System heisenberggg 353 views
0 votes
2 answers
9
NIELIT 2017 July Scientist B (IT) - Section B: 45
Consider three processes, all arriving at time zero, with total execution time of $10,20$ and $30$ units, respectively. Each process spends the first $20\%$ of execution time doing I/O, the next $70\%$ of time doing computation, and the last $10\%$ ... possible. For what percentage of time does the CPU remain idle? $0\%$ $10.6\%$ $30.0\%$ $89.4\%$
Consider three processes, all arriving at time zero, with total execution time of $10,20$ and $30$ units, respectively. Each process spends the first $20\%$ of execution time doing I/O, the next $70\%$ of time doing computation, and the last $10\%$ of time doing I/O again. The ... as much as possible. For what percentage of time does the CPU remain idle? $0\%$ $10.6\%$ $30.0\%$ $89.4\%$
answered Apr 3 in Operating System heisenberggg 237 views
0 votes
2 answers
10
NIELIT 2016 MAR Scientist B - Section C: 38
Determine the number of page faults when references to pages occur in the following order: $1,2,4,5,2,1,2,4$. Assume that the main memory can accommodate $3$ pages and the main memory already has the pages $1$ and $2$, with page $1$ having been brought earlier than page $2$.(LRU algorithm is used). $3$ $5$ $4$ None of these.
Determine the number of page faults when references to pages occur in the following order: $1,2,4,5,2,1,2,4$. Assume that the main memory can accommodate $3$ pages and the main memory already has the pages $1$ and $2$, with page $1$ having been brought earlier than page $2$.(LRU algorithm is used). $3$ $5$ $4$ None of these.
answered Apr 3 in Operating System heisenberggg 253 views
2 votes
2 answers
12
NIELIT 2017 OCT Scientific Assistant A (CS) - Section B: 4
If a processor has $32$-bit virtual address, $28$-bit physical address, $2$ kb pages. How many bits are required for the virtual, physical page number? $17,21$ $21,17$ $6,10$ None
If a processor has $32$-bit virtual address, $28$-bit physical address, $2$ kb pages. How many bits are required for the virtual, physical page number? $17,21$ $21,17$ $6,10$ None
answered Apr 3 in Operating System heisenberggg 253 views
1 vote
2 answers
13
UGCNET-Oct2020-II: 84
Assuming that the system call $\text{fork}()$ never fails, consider the following C program $P1$ and $P2$ ... $II$ are false Statement $I$ is correct but Statement $II$ is false Statement $I$ is incorrect but Statement $II$ is true
Assuming that the system call $\text{fork}()$ never fails, consider the following C program $P1$ and $P2$ ... Both Statement $I$ and Statement $II$ are false Statement $I$ is correct but Statement $II$ is false Statement $I$ is incorrect but Statement $II$ is true
answered Apr 3 in Operating System heisenberggg 163 views
0 votes
1 answer
14
UGCNET-Oct2020-II: 17
Suppose you have a Linux file system where the block size is $2K$ bytes, a disk address is $32$ bits, and an $i-$node contains the disk addresses of the first $12$ direct blocks of file, a single indirect block and a double indirect block. Approximately, what is the largest file that can be represented by an $i-$node? $513$ Kbytes $513$ MBytes $537$ Mbytes $537$ KBytes
Suppose you have a Linux file system where the block size is $2K$ bytes, a disk address is $32$ bits, and an $i-$node contains the disk addresses of the first $12$ direct blocks of file, a single indirect block and a double indirect block. Approximately, what is the largest file that can be represented by an $i-$node? $513$ Kbytes $513$ MBytes $537$ Mbytes $537$ KBytes
answered Apr 3 in Operating System heisenberggg 171 views
0 votes
3 answers
15
UGCNET-Oct2020-II: 16
Consider a disk system having $60$ cylinders. Disk requests are received by a disk drive for cylinders $10,22,20,2,40,6$ and $38$, in that order. Assuming the disk head is currently at cylinder $20$, what is the time taken to ... adjacent one and Shortest Seek Time First (SSTF) algorithm is used? $240$ milliseconds $96$ milliseconds $120$ milliseconds $112$ milliseconds
Consider a disk system having $60$ cylinders. Disk requests are received by a disk drive for cylinders $10,22,20,2,40,6$ and $38$, in that order. Assuming the disk head is currently at cylinder $20$, what is the time taken to satisfy all the ... cylinder to adjacent one and Shortest Seek Time First (SSTF) algorithm is used? $240$ milliseconds $96$ milliseconds $120$ milliseconds $112$ milliseconds
answered Apr 3 in Operating System heisenberggg 235 views
0 votes
2 answers
16
UGCNET-Oct2020-II: 15
Consider a hypothetical machine with $3$ pages of physical memory, $5$ pages of virtual memory, and $<A, B, C, D, A, B, E, A, B, C, D, E, B, A, B>$ as the stream of page reference by an application. If $P$ and $Q$ are the number of page faults that ... , then $(P,Q)=$ _______(Assuming enough space for storing $3$ page frames) $(11,10)$ $(12,11)$ $(10,11)$ $(11,12)$
Consider a hypothetical machine with $3$ pages of physical memory, $5$ pages of virtual memory, and $<A, B, C, D, A, B, E, A, B, C, D, E, B, A, B>$ as the stream of page reference by an application. If $P$ and $Q$ are the number of page faults that the application ... respectively, then $(P,Q)=$ _______(Assuming enough space for storing $3$ page frames) $(11,10)$ $(12,11)$ $(10,11)$ $(11,12)$
answered Apr 3 in Operating System heisenberggg 328 views
26 votes
4 answers
17
GATE CSE 2007 | Question: 17
Consider the following statements about user level threads and kernel level threads. Which one of the following statements is FALSE? Context switch time is longer for kernel level threads than for user level threads. User level threads do ... be scheduled on different processors in a multi-processor system. Blocking one kernel level thread blocks all related threads.
Consider the following statements about user level threads and kernel level threads. Which one of the following statements is FALSE? Context switch time is longer for kernel level threads than for user level threads. User level threads do not need any ... threads can be scheduled on different processors in a multi-processor system. Blocking one kernel level thread blocks all related threads.
answered Apr 3 in Operating System heisenberggg 9k views
8 votes
3 answers
18
Self Doubt Context Switching Threads
S1: Context Switching occurs only in kernel mode. :TRUE S2: Context Switching in user mode is faster as compared to context switching in kernel mode. : TRUE If Context Switching occurs only in kernel mode, then how is CS in user mode faster ... switching and then change back to user mode which means more time should be taken as compared to CS in kernel mode.
S1: Context Switching occurs only in kernel mode. :TRUE S2: Context Switching in user mode is faster as compared to context switching in kernel mode. : TRUE If Context Switching occurs only in kernel mode, then how is CS in user mode faster as compared to that ... , perform context switching and then change back to user mode which means more time should be taken as compared to CS in kernel mode.
answered Apr 2 in Operating System heisenberggg 1k views
0 votes
3 answers
19
NIELIT 2017 OCT Scientific Assistant A (CS) - Section B: 35
Disk request come to a disk driver for cylinders in the order $10,22,20,2,40,6$ and $38,$ at a time when the disk drive is reading from cylinder $20$. The total seek time, if the disk arm scheduling algorithm is first-come-first-served is $900$ ms $850$ ms $360$ ms $876$ ms
Disk request come to a disk driver for cylinders in the order $10,22,20,2,40,6$ and $38,$ at a time when the disk drive is reading from cylinder $20$. The total seek time, if the disk arm scheduling algorithm is first-come-first-served is $900$ ms $850$ ms $360$ ms $876$ ms
answered Apr 2 in Operating System heisenberggg 228 views
3 votes
3 answers
21
Paging question
A computer system implements a 36 bit virtual address. Page size is 4KB and size of physical memory is 30 bits. The approximate size of page table in the system is ___ MB ? Is it 36MB or 48MB ?
A computer system implements a 36 bit virtual address. Page size is 4KB and size of physical memory is 30 bits. The approximate size of page table in the system is ___ MB ? Is it 36MB or 48MB ?
answered Apr 2 in Operating System heisenberggg 2.1k views
0 votes
5 answers
22
GATE CSE 2021 Set 1 | Question: 25
Three processes arrive at time zero with $\text{CPU}$ bursts of $16,\;20$ and $10$ milliseconds. If the scheduler has prior knowledge about the length of the $\text{CPU}$ bursts, the minimum achievable average waiting time for these three processes in a non-preemptive scheduler (rounded to nearest integer) is _____________ milliseconds.
Three processes arrive at time zero with $\text{CPU}$ bursts of $16,\;20$ and $10$ milliseconds. If the scheduler has prior knowledge about the length of the $\text{CPU}$ bursts, the minimum achievable average waiting time for these three processes in a non-preemptive scheduler (rounded to nearest integer) is _____________ milliseconds.
answered Apr 1 in Operating System Nikhil_dhama 365 views
1 vote
2 answers
23
ugc net 2007
Que. The aging algorithm with a=0.5 is used to predict run times. The previous four runs from oldest to most recent are 40, 20, 20 and 15 msec. The prediction for the next time will be: a. 15 msec b. 25 msec c. 39 msec d. 40 msec
Que. The aging algorithm with a=0.5 is used to predict run times. The previous four runs from oldest to most recent are 40, 20, 20 and 15 msec. The prediction for the next time will be: a. 15 msec b. 25 msec c. 39 msec d. 40 msec
answered Mar 30 in Operating System Vishal_kumar98 2k views
0 votes
1 answer
24
[OS] Compile time vs load time address binding
Why logical address and physical address are same in case of compile and load time binding ? In complie time as i have read compiler will generate absoute address ,but this adress for the meain memory location.Logical address can be anything?Why it has ti be same as physical address?
Why logical address and physical address are same in case of compile and load time binding ? In complie time as i have read compiler will generate absoute address ,but this adress for the meain memory location.Logical address can be anything?Why it has ti be same as physical address?
answered Mar 27 in Operating System manikantsharma 1.3k views
2 votes
1 answer
25
GATE CSE 2021 Set 2 | Question: 43
Consider a computer system with multiple shared resource types, with one instance per resource type. Each instance can be owned by only one process at a time. Owning and freeing of resources are done by holding a global lock ... not occur The scheme may lead to live-lock The scheme may lead to starvation The scheme violates the mutual exclusion property
Consider a computer system with multiple shared resource types, with one instance per resource type. Each instance can be owned by only one process at a time. Owning and freeing of resources are done by holding a global lock $(L)$. The ... that deadlocks will not occur The scheme may lead to live-lock The scheme may lead to starvation The scheme violates the mutual exclusion property
answered Mar 12 in Operating System ascend 681 views
1 vote
2 answers
26
GATE CSE 2021 Set 1 | Question: 46
Consider the following pseudocode, where $\textsf{S}$ is a semaphore initialized to $5$ in line $\#2$ and $\textsf{counter}$ is a shared variable initialized to $0$ in line $\#1$. Assume that the increment operation in line $\#7$ ... is $0$ after all the threads successfully complete the execution of $\textsf{parop}$ There is a deadlock involving all the threads
Consider the following pseudocode, where $\textsf{S}$ is a semaphore initialized to $5$ in line $\#2$ and $\textsf{counter}$ is a shared variable initialized to $0$ in line $\#1$. Assume that the increment operation in line $\#7$ is $\textit{not}$ ... $0$ after all the threads successfully complete the execution of $\textsf{parop}$ There is a deadlock involving all the threads
answered Feb 22 in Operating System Kanwae Kan 710 views
1 vote
2 answers
27
GATE CSE 2021 Set 2 | Question: 42
Consider the following multi-threaded code segment (in a mix of C and pseudo-code), invoked by two processes $P_1$ and $P_2$, and each of the processes spawns two threads $T_1$ and $T_2$: int x = 0; // global Lock L1; // global main () { create a ... the value of $y$ as $2.$ Both $T_1$ and $T_2$, in both the processes, will print the value of $y$ as $1.$
Consider the following multi-threaded code segment (in a mix of C and pseudo-code), invoked by two processes $P_1$ and $P_2$, and each of the processes spawns two threads $T_1$ and $T_2$: int x = 0; // global Lock L1; // global main () { create a thread to execute foo( ... will print the value of $y$ as $2.$ Both $T_1$ and $T_2$, in both the processes, will print the value of $y$ as $1.$
answered Feb 21 in Operating System Arjun 781 views
3 votes
3 answers
28
GATE CSE 2021 Set 1 | Question: 14
Which of the following standard $C$ library functions will always invoke a system call when executed from a single-threaded process in a $\text{UNIX/Linux}$ operating system? $\textsf{exit}$ $\textsf{malloc}$ $\textsf{sleep}$ $\textsf{strlen}$
Which of the following standard $C$ library functions will always invoke a system call when executed from a single-threaded process in a $\text{UNIX/Linux}$ operating system? $\textsf{exit}$ $\textsf{malloc}$ $\textsf{sleep}$ $\textsf{strlen}$
answered Feb 20 in Operating System Persistent 1.1k views
1 vote
2 answers
29
GATE CSE 2021 Set 1 | Question: 11
In the context of operating systems, which of the following statements is/are correct with respect to paging? Paging helps solve the issue of external fragmentation Page size has no impact on internal fragmentation Paging incurs memory overheads Multi-level paging is necessary to support pages of different sizes
In the context of operating systems, which of the following statements is/are correct with respect to paging? Paging helps solve the issue of external fragmentation Page size has no impact on internal fragmentation Paging incurs memory overheads Multi-level paging is necessary to support pages of different sizes
answered Feb 19 in Operating System Ashwani Kumar 2 556 views
1 vote
1 answer
30
GATE CSE 2021 Set 2 | Question: 14
Which of the following statement(s) is/are correct in the context of $\text{CPU}$ scheduling? Turnaround time includes waiting time The goal is to only maximize $\text{CPU}$ utilization and minimize throughput Round-robin policy ... $\text{CPU}$ time required by each of the processes is not known apriori Implementing preemptive scheduling needs hardware support
Which of the following statement(s) is/are correct in the context of $\text{CPU}$ scheduling? Turnaround time includes waiting time The goal is to only maximize $\text{CPU}$ utilization and minimize throughput Round-robin policy can be used even when the $\text{CPU}$ time required by each of the processes is not known apriori Implementing preemptive scheduling needs hardware support
answered Feb 19 in Operating System pranav_mehta 590 views
5 votes
3 answers
31
GATE CSE 2021 Set 2 | Question: 48
Consider a three-level page table to translate a $39$-bit virtual address to a physical address as shown below: The page size is $\text{4 KB}$ = ($\text{1KB}$ $=2^{10}$ bytes) and page table entry size at every level is $8$ bytes. ... $P$ across all levels is _________ $\text{KB}$.
Consider a three-level page table to translate a $39$-bit virtual address to a physical address as shown below: The page size is $\text{4 KB}$ = ($\text{1KB}$ $=2^{10}$ bytes) and page table entry size at every level is $8$ bytes. A process $P$ is ... $\text{2GB}$ of physical memory. The minimum amount of memory required for the page table of $P$ across all levels is _________ $\text{KB}$.
answered Feb 19 in Operating System Deepakk Poonia (Dee) 1k views
1 vote
1 answer
32
GATE CSE 2021 Set 1 | Question: 15
Consider a linear list based directory implementation in a file system. Each directory is a list of nodes, where each node contains the file name along with the file metadata, such as the list of pointers to the data blocks. Consider a given directory ... $\textsf{foo}$ Renaming of an existing file in $\textsf{foo}$ Opening of an existing file in $\textsf{foo}$
Consider a linear list based directory implementation in a file system. Each directory is a list of nodes, where each node contains the file name along with the file metadata, such as the list of pointers to the data blocks. Consider a given directory $\textsf{foo}$. Which of ... file from $\textsf{foo}$ Renaming of an existing file in $\textsf{foo}$ Opening of an existing file in $\textsf{foo}$
answered Feb 18 in Operating System wander 713 views
2 votes
1 answer
33
GATE CSE 2021 Set 2 | Question: 21
A data file consisting of $1,50,000$ student-records is stored on a hard disk with block size of $4096$ bytes. The data file is sorted on the primary key $\textrm{RollNo}$. The size of a record pointer for this disk is $7$ bytes. ... that the records of data file and index file are not split across disk blocks. The number of blocks in the index file is ________
A data file consisting of $1,50,000$ student-records is stored on a hard disk with block size of $4096$ bytes. The data file is sorted on the primary key $\textrm{RollNo}$. The size of a record pointer for this disk is $7$ bytes. Each student-record has ... disk. Assume that the records of data file and index file are not split across disk blocks. The number of blocks in the index file is ________
answered Feb 18 in Operating System Amcodes 511 views
2 votes
2 answers
34
UGCNET-Oct2020-II: 18
Consider a single-level page table system, with the page table stored in the memory. If the hit rate to TLB is $80\%$, and it takes $15$ nanoseconds to search the $TLB$, and $150$ nanoseconds to access the main memory, then what is the effective memory access time, in nanoseconds? $185$ $195$ $205$ $175$
Consider a single-level page table system, with the page table stored in the memory. If the hit rate to TLB is $80\%$, and it takes $15$ nanoseconds to search the $TLB$, and $150$ nanoseconds to access the main memory, then what is the effective memory access time, in nanoseconds? $185$ $195$ $205$ $175$
asked Nov 20, 2020 in Operating System jothee 210 views
0 votes
2 answers
35
UGCNET-Oct2020-II: 65
Match $\text{List I}$ with $\text{List II}$ ... D-IV$ $A-II, B-IV, C-III, D-I$ $A-II, B-IV, C-I, D-III$ $A-IV, B-III, C-II, D-I$ Match $
Match $\text{List I}$ with $\text{List II}$ ... C-III, D-IV$ $A-II, B-IV, C-III, D-I$ $A-II, B-IV, C-I, D-III$ $A-IV, B-III, C-II, D-I$ Match $
asked Nov 20, 2020 in Operating System jothee 147 views
0 votes
1 answer
36
UGCNET-Oct2020-II: 91
Comprehension: For the question given below: concern a disk with a sector size of $512$ bytes, $2000$ tracks per surface, $50$ sectors per track, five double-sided platters, and average seek time of $10$ milliseconds. If $T$ is the capacity of a track in bytes, and $S$ is the capacity of ... $(50 K, 50000 K)$ $(25 K, 25000 K)$ $(25 K, 50000 K)$ $(40 K, 36000 K)$
Comprehension: For the question given below: concern a disk with a sector size of $512$ bytes, $2000$ tracks per surface, $50$ sectors per track, five double-sided platters, and average seek time of $10$ milliseconds. If $T$ is the capacity of a track in bytes, and $S$ is the capacity of each surface in ... $(T,S)=$ _______ $(50 K, 50000 K)$ $(25 K, 25000 K)$ $(25 K, 50000 K)$ $(40 K, 36000 K)$
asked Nov 20, 2020 in Operating System jothee 113 views
0 votes
1 answer
37
UGCNET-Oct2020-II: 92
Comprehension: For the question given below: concern a disk with a sector size of $512$ bytes, $2000$ tracks per surface, $50$ sectors per track, five double-sided platters, and average seek time of $10$ milliseconds. What is the capacity of the disk, in bytes? $25,000 K$ $500,000 K$ $250,000 K$ $50,000 K$
Comprehension: For the question given below: concern a disk with a sector size of $512$ bytes, $2000$ tracks per surface, $50$ sectors per track, five double-sided platters, and average seek time of $10$ milliseconds. What is the capacity of the disk, in bytes? $25,000 K$ $500,000 K$ $250,000 K$ $50,000 K$
asked Nov 20, 2020 in Operating System jothee 107 views
0 votes
1 answer
38
UGCNET-Oct2020-II: 93
Comprehension: For the question given below: concern a disk with a sector size of $512$ bytes, $2000$ tracks per surface, $50$ sectors per track, five double-sided platters, and average seek time of $10$ milliseconds. Given below are two statements: ... are false Statement $I$ is correct but Statement $II$ is false Statement $I$ is incorrect but Statement $II$ is true
Comprehension: For the question given below: concern a disk with a sector size of $512$ bytes, $2000$ tracks per surface, $50$ sectors per track, five double-sided platters, and average seek time of $10$ milliseconds. Given below are two statements: Statement $I$: The ... $II$ are false Statement $I$ is correct but Statement $II$ is false Statement $I$ is incorrect but Statement $II$ is true
asked Nov 20, 2020 in Operating System jothee 117 views
0 votes
1 answer
39
UGCNET-Oct2020-II: 94
Comprehension: For the question given below, concern a disk with a sector size of $512$ bytes, $2000$ tracks per surface, $50$ sectors per track, five double-sided platters, and average seek time of $10$ ... , then approximately what is the maximum rotational delay? $0.011$ seconds $0.11$ seconds $0.0011$ seconds $1.1$ seconds
Comprehension: For the question given below, concern a disk with a sector size of $512$ bytes, $2000$ tracks per surface, $50$ sectors per track, five double-sided platters, and average seek time of $10$ milliseconds. If the disk platters rotate at $5400$ rpm ( ... minute), then approximately what is the maximum rotational delay? $0.011$ seconds $0.11$ seconds $0.0011$ seconds $1.1$ seconds
asked Nov 20, 2020 in Operating System jothee 150 views
1 vote
1 answer
40
UGCNET-Oct2020-II: 95
For the question given below, concern a disk with a sector size of $512$ bytes, $2000$ tracks per surface, $50$ sectors per track, five double-sided platters, and average seek time of $10$ milliseconds. If one track of data can be transferred per revolution, ... is the data transfer rate? $2,850$ KBytes/second $4,500$ KBytes/second $5,700$ KBytes/second $2,250$ KBytes/second
For the question given below, concern a disk with a sector size of $512$ bytes, $2000$ tracks per surface, $50$ sectors per track, five double-sided platters, and average seek time of $10$ milliseconds. If one track of data can be transferred per revolution, then what is the data transfer rate? $2,850$ KBytes/second $4,500$ KBytes/second $5,700$ KBytes/second $2,250$ KBytes/second
asked Nov 20, 2020 in Operating System jothee 89 views
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