Answer:
When an instruction is sent to the CPU in a binary pattern, how does the CPU know what instruction the pattern means
Explanation:
When the CPU executes the instructions, it interprets the opcode part of the instruction into individual microprograms, containing their microcode equivalents. Just so you know, a full assembly instruction consists of an opcode and any applicable data that goes with it, if required (register names, memory addresses).
The assembly instructions are assembled (turned into their binary equivalent 0s and 1s, or from now on, logic signals). These logic signals are in-turn interpreted by the CPU, and turned into more low-level logic signals which direct the flow of the CPU to execute the particular instruction.
Answer:
The answer is "Procedure"
Explanation:
In the given statement certain information is missing, that is choices, which can be described as follows:
a. procedure
b. software
c. data
d. hardware
e. memory
The procedure is a way, that accomplishes any task in the following steps, if there is a long process so, we divide this process into parts or modules to accomplish the task, and certain alternative was wrong, that can be described as follows:
- Software is a program, that is accomplished in the procedure.
- data, It describes all procedures.
- hardware, It is a device, in which we work.
- memory, It stores all the data in a procedure.
Answer:
Of translating an idea or a thought into a code
Explanation:
Encoding is the process of translating an idea or a thought into a code.
For example:
You want a friend to get you a gaming Laptop as a birthday gift, while describing the specification and how the laptop should look like. You visualize a fast laptop in black cover. You tell your friend it is "fast and portable". You translate your perceptions on a particular laptop into words that describe the model.
Answer:
Check the explanation
Explanation:
A) Whenever C is sending to D, what other communications are possible?
C’s packet will be seen by A, B and D, but not by E. Thus, D can send to E at the sametime..
B) Whenever B is sending to A, what other communications are likely?
Even though B’s packet will not be seen by D, other nodes, e.g., E, or C, can’t send to D since the packets from these nodes will interfere with the packets from B at A. Therefore, other communications is not likely at the same time.
C) Whenever B is sending to C, what other communications are possible?
B’s packet will be seen by E, A and C, by not by D. therefore, E can send to D at the same point.
