A monitoring officer is responsible to make sure all elected members adhere to the highest standards of conduct. A monitoring officer should report any illegal activities or misconduct and is responsible for the operation of the council's constitution.
as a job sequencer
A Resident monitor (1950s-1970s) was a piece of software that was an integral part of a general-use punch card computer.additional ;Its main function is to control transferring of Computer from one job to another job
her job was to monitor the radar system and to collect evidence from other planets.
There exists and have existed a number of monitor groups. Monitor groups usually specialize in financial, marketing and job consulting services. They really are meant for adults, so there are none which are good for kids.
There job is to monitor the military and veto laws they do not think is fair to the people.
Most IT jobs require that you monitor, analyze and code. You can also be in a position where you build technology.
To Monitor direct and indirect lobor
To monitor the coolant temperature and send that info to the vehicle's computer and or temp gauge.
They are scientists which monitor, record and forecast about earthquakes
A batch system is one in which jobs are bundled together with the instructions necessary to allow them to be processed without intervention. Often jobs of a similar nature can be bundled together to further increase economy The basic physical layout of the memory of a batch job computer is shown below: -------------------------------------- | | | Monitor (permanently resident) | | | -------------------------------------- | | | User Space | | (compilers, programs, data, etc.) | | | -------------------------------------- The monitor is system software that is responsible for interpreting and carrying out the instructions in the batch jobs. When the monitor started a job, it handed over control of the entire computer to the job, which then controlled the computer until it finished. A sample of several batch jobs might look like: $JOB user_spec; identify the user for accounting purposes $FORTRAN; load the FORTRAN compiler source program cards $LOAD; load the compiled program $RUN; run the program data cards $EOJ; end of job $JOB user_spec; identify a new user $LOAD application $RUN data $EOJ Often magnetic tapes and drums were used to store intermediate data and compiled programs. Advantages of batch systems move much of the work of the operator to the computer increased performance since it was possible for job to start as soon as the previous job finished Disadvantages turn-around time can be large from user standpoint more difficult to debug program due to lack of protection scheme, one batch job can affect pending jobs (read too many cards, etc) a job could corrupt the monitor, thus affecting pending jobs a job could enter an infinite loop As mentioned above, one of the major shortcomings of early batch systems was that there was no protection scheme to prevent one job from adversely affecting other jobs. The solution to this was a simple protection scheme, where certain memory (e.g. where the monitor resides) were made off-limits to user programs. This prevented user programs from corrupting the monitor. To keep user programs from reading too many (or not enough) cards, the hardware was changed to allow the computer to operate in one of two modes: one for the monitor and one for the user programs. IO could only be performed in monitor mode, so that IO requests from the user programs were passed to the monitor. In this way, the monitor could keep a job from reading past it's on $EOJ card. To prevent an infinite loop, a timer was added to the system and the $JOB card was modified so that a maximum execution time for the job was passed to the monitor. The computer would interrupt the job and return control to the monitor when this time was exceeded.
A batch system is one in which jobs are bundled together with the instructions necessary to allow them to be processed without intervention. Often jobs of a similar nature can be bundled together to further increase economy The basic physical layout of the memory of a batch job computer is shown below: -------------------------------------- | | | Monitor (permanently resident) | | | -------------------------------------- | | | User Space | | (compilers, programs, data, etc.) | | | -------------------------------------- The monitor is system software that is responsible for interpreting and carrying out the instructions in the batch jobs. When the monitor started a job, it handed over control of the entire computer to the job, which then controlled the computer until it finished. A sample of several batch jobs might look like: $JOB user_spec; identify the user for accounting purposes $FORTRAN; load the FORTRAN compiler source program cards $LOAD; load the compiled program $RUN; run the program data cards $EOJ; end of job $JOB user_spec; identify a new user $LOAD application $RUN data $EOJ Often magnetic tapes and drums were used to store intermediate data and compiled programs. Advantages of batch systems move much of the work of the operator to the computer increased performance since it was possible for job to start as soon as the previous job finished Disadvantages turn-around time can be large from user standpoint more difficult to debug program due to lack of protection scheme, one batch job can affect pending jobs (read too many cards, etc) a job could corrupt the monitor, thus affecting pending jobs a job could enter an infinite loop As mentioned above, one of the major shortcomings of early batch systems was that there was no protection scheme to prevent one job from adversely affecting other jobs. The solution to this was a simple protection scheme, where certain memory (e.g. where the monitor resides) were made off-limits to user programs. This prevented user programs from corrupting the monitor. To keep user programs from reading too many (or not enough) cards, the hardware was changed to allow the computer to operate in one of two modes: one for the monitor and one for the user programs. IO could only be performed in monitor mode, so that IO requests from the user programs were passed to the monitor. In this way, the monitor could keep a job from reading past it's on $EOJ card. To prevent an infinite loop, a timer was added to the system and the $JOB card was modified so that a maximum execution time for the job was passed to the monitor. The computer would interrupt the job and return control to the monitor when this time was exceeded.
A batch system is one in which jobs are bundled together with the instructions necessary to allow them to be processed without intervention. Often jobs of a similar nature can be bundled together to further increase economy The basic physical layout of the memory of a batch job computer is shown below: -------------------------------------- | | | Monitor (permanently resident) | | | -------------------------------------- | | | User Space | | (compilers, programs, data, etc.) | | | -------------------------------------- The monitor is system software that is responsible for interpreting and carrying out the instructions in the batch jobs. When the monitor started a job, it handed over control of the entire computer to the job, which then controlled the computer until it finished. A sample of several batch jobs might look like: $JOB user_spec; identify the user for accounting purposes $FORTRAN; load the FORTRAN compiler source program cards $LOAD; load the compiled program $RUN; run the program data cards $EOJ; end of job $JOB user_spec; identify a new user $LOAD application $RUN data $EOJ Often magnetic tapes and drums were used to store intermediate data and compiled programs. Advantages of batch systems move much of the work of the operator to the computer increased performance since it was possible for job to start as soon as the previous job finished Disadvantages turn-around time can be large from user standpoint more difficult to debug program due to lack of protection scheme, one batch job can affect pending jobs (read too many cards, etc) a job could corrupt the monitor, thus affecting pending jobs a job could enter an infinite loop As mentioned above, one of the major shortcomings of early batch systems was that there was no protection scheme to prevent one job from adversely affecting other jobs. The solution to this was a simple protection scheme, where certain memory (e.g. where the monitor resides) were made off-limits to user programs. This prevented user programs from corrupting the monitor. To keep user programs from reading too many (or not enough) cards, the hardware was changed to allow the computer to operate in one of two modes: one for the monitor and one for the user programs. IO could only be performed in monitor mode, so that IO requests from the user programs were passed to the monitor. In this way, the monitor could keep a job from reading past it's on $EOJ card. To prevent an infinite loop, a timer was added to the system and the $JOB card was modified so that a maximum execution time for the job was passed to the monitor. The computer would interrupt the job and return control to the monitor when this time was exceeded.