A typical control room consists of an audio console, microphones, computers, audio interference, studio monitors and disks players needs magnetism to operate.
Further Explanation:
Answer details
Grade: High School
Subject: Science/ Physics
Chapter: Force, Motion and Electricity
Keywords: magnetism, electromagnetism, electromagnetic induction etc
A person can be identified in a controlroom using the equipment. In general, any equipment that needs to be hooked into an electrical source, such as the audio console, audio interference, and microphones, requires electricity to operate.
What is control room?
The term controlroom refers to the operations of the person are the center in the space are the physical facility or the physically dispersed service and the monitor to see the results. There was n type command in the center and the integrity.
A typical control room includes a radio console, loudspeakers, laptops, audio distortion, studio monitors, and disk drives, all of which rely on magnetic media to work. Magnetic technology is used in the command center in some capacity, either directly or indirectly.
As a result, the typical control room are the identifies in a particular activity are the audio console, microphones, and the audio interference.
Learn more about on control room, here:
#SPJ2
Answer:
The outputs of the code is
2
0
2
Explanation:
First, I'll arrange the code line by line. While arranging the code, I'll make some corrections
#include <iostream>
using namespace std;
void doSomething();
int main(){
int x = 2;
cout << x <<endl;
doSomething(x);
cout << x << endl;
return 0;
}
void doSomething(int &num)
{
num = 0;
cout << num << endl;
}
At line 6, the value of x which is 2 is printed and the line is terminated to prevent printing of value on the same line. So, the next print statement will start on the next line.
At line 7, the function doSomething () is called.
This statement will execute the instructions in the doSomething () function and print value 0. This line is also terminated.
At line 8, the value of x is printed which is also 2
Answer:
following are the answer to this question:
Explanation:
In the given question, firstly we focus solely on the smart homes IoT systems criteria, that can access the whole IoT notion throughout two ways, which be defined as follows:
Initially, whenever it links with the smart home includes ventilation, flower arranging, smart house appliances, device, and the designers will use search engine support, etc. all of this, including several, includes certain components like sensors, hubs, doorbells, fire detector.
In the second way the cloud control devices described from first are provided, however, manufactures should be recorded here through cloud computing, and when the process, entirely controlled, can easily be managed remotely, because it is first performed.
The Zigbee is a great priority when it comes to energy usage due to the extremely reduced wattage or battery capacity, and when it comes with wifi capacity, the best solution is Zigbee and it is too expensive with memory footprint 9 because this is also a very big one) It also allows all of the implements to enter even before wifi permits.
Even so, in wifi, we will not ever realize if it will fall to the ground, however in ZigBee and at the start, they only have to pay tremendous like wifi but it has some repayment options, that lead the user can decide whatever they want. It can pay for our consumption levels.
Answer:
the applicable design step will depend on the findings as to the cause(s) of the problem
Explanation:
First of all, the affected airplane(s) should be examined to find the proximate cause(s) of the indicator flashing. Once that is known, corrective action can be investigated.
If we assume the airplane has been manufactured and maintained in accordance with all released and approved procedures (a big assumption), then the next step might be to revisit the analysis that sets rigging position and limits--both for manufacturing and for maintenance. Attention should be given to all allowable tolerances anywhere in the linkage related to the gear position sensor, and to the sensor behavior in relation to gear position.
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As an engineer responsible for landing gear indication, I have had to deal personally with this issue. A number of factors are involved, including landing gear linkage and its tolerances; sensor rigging and its tolerances; sensor target size, position, and the geometry of its travel in relation to the sensor. Temperature can also be a factor, affecting both the mechanical linkage and the sensor behavior.
Up/down and locked/unlocked sensors for each gear can contribute to the problem. Each has its own geometry, which is not always easy to discern from the multitude of design drawings and different engineering groups involved. Sensor vendors like to work with a specific target geometry and motion that may not be duplicated on the airplane, so sensor behavior is not always well-specified. The specification to the vendor may need to be revisited.
When sensors are located on moving parts, wire routing and protection come into play. In some cases, wiring may be "in the wind" when landing gear is extended, so must be protected against a variety of assaults. When things rub on wires, damage always occurs eventually. The nature and extent of the protection provided can also be something to assess in the investigation.
Maintenance and repair procedures can also be scrutinized. We have seen issues related to the way splices and crimps to wiring are done, and where those are allowed to be located. Deicing fluid is corrosive to wiring, and travels up a wire as though it were a straw. So, careful protection is needed for wire ends exposed to areas where deicing fluid may be found.
Sensors that rely on magnetic properties of materials can be affected by residual magnetism. Manufacturing and maintenance procedures that detect and/or eliminate those effects may need to be reassessed.
The airplanes I worked on did not have a computer between the position sensor and the indicator light. I have worked with indicators that were computer driven, and that did flash. In one case, the intermittent flashing problem took years to solve, and was eventually traced to a poor design choice in the way internal wiring was routed in the computer chassis. So, the design of both computer software and computer hardware may also need to be revisited.
In short, every part of the design process may need to be revisited.
b. eight bits.
c. one hundred bits.
d. one million bits.