Answer: Subnet mask
Explanation:
Subnet mask is the type of parameter that should be match in order to form the adjacency for running the OSPFv2. The subnet mask is mainly used to identifying the address of network in the system.
The OSPF enable the router that must form an adjacency with the neighbors before sharing any type of data.
It mainly determine the neighbors links in the OSPF. The OSPFv2 router send the special type of message which is known as hello packet in the network.
Answer:
d)myints [1] = something.
Explanation:
The elements in the array are stored serially.Every element in the array is indexed and the indexing start form 0 to size-1.So to access the second element in the array it's index will be 1.So to access the second element we have to write arrayname[1];
In our case the name of the array is myints.
Hence the answer is myints[1]=something
The name of the technology that lets ryzen™ 5 series cpus access the entire gddr memory of radeon™ rx gpus is AMD Smart Access Memory.
<h3>What is AMD Smart Access Memory?</h3>
AMD Smart Access Memory is known to be a type of memory that helps AMD Ryzen processors to use all their full power of the graphics card memory.
Conclusively, it is a memory that gives room for a person to combine a Radeon RX 6000 series GPU with the used of a Ryzen processor to make your gaming performance better.
Learn more about AMD Memory from
brainly.com/question/18846925
Answer:
a) Yes
b) Yes
c) Yes
d) No
e) Yes
f) No
Explanation:
a) All single-bit errors are caught by Cyclic Redundancy Check (CRC) and it produces 100 % of error detection.
b) All double-bit errors for any reasonably long message are caught by Cyclic Redundancy Check (CRC) during the transmission of 1024 bit. It also produces 100 % of error detection.
c) 5 isolated bit errors are not caught by Cyclic Redundancy Check (CRC) during the transmission of 1024 bit since CRC may not be able to catch all even numbers of isolated bit errors so it is not even.
It produces nearly 100 % of error detection.
d) All even numbers of isolated bit errors may not be caught by Cyclic Redundancy Check (CRC) during the transmission of 1024 bit. It also produces 100 % of error detection.
e) All burst errors with burst lengths less than or equal to 32 are caught by Cyclic Redundancy Check (CRC) during the transmission of 1024 bit. It also produces 100 % of error detection.
f) A burst error with burst length greater than 32 may not be caught by Cyclic Redundancy Check (CRC) during the transmission of 1024 bit.
Cyclic Redundancy Check (CRC) does not detect the length of error burst which is greater than or equal to r bits.