The "ORG" (for "origin") statement indicates the start of the code segment.
Many assembly language source files start with "ORG 0", indicating that instructions begin at address 0.
Many other assembly language source files, such as COM files, start with "ORG 0x100", indicating that instructions begin at address 0x100.
When an effective program is designed for attracting and serving a chosen segment, that segment is best described as "targeted" or "well-defined." This indicates that the segment has specific characteristics, needs, and preferences that the program addresses effectively. A targeted segment allows for tailored marketing strategies and better resource allocation to meet the unique demands of that group. Ultimately, this leads to enhanced customer satisfaction and loyalty.
A: Seven segment display can give digital number visually from a source like a computer that has binary outputs the number 64 in digital would be 100000 and also can display alphanumeric which is what humans can readily see So basically transfer information from a machine language to human language
In assembly language, you can store calculated numbers into an array by first defining the array in the data segment using directives like .data or .section .data, followed by the array name and its size. After performing your calculations, use the appropriate registers to load the calculated values and store them in the array using the MOV instruction, specifying the array index for storage. For example, if you want to store a value in the first index, you can calculate the address of the array and use an offset for the specific index. Finally, ensure that you manage the array size and boundaries to avoid overflow.
Most people only consider the assembly languages (and plain bytecode) to be "low level" languages. Due to this, the "structure" of a low level language is simply a sequence of instructions for the CPU.
Code Segment, in which all the application code is stored Data Segment, that holds the global data
In 8086 assembly language, a physical address is the actual memory address used by the CPU to access data. It is calculated by combining a segment address with an offset address. The segment address is typically stored in one of the segment registers (CS, DS, SS, or ES), and the offset is specified in the instruction. The formula for calculating the physical address is: Physical Address = (Segment Address × 16) + Offset.
brief note about code segment
Code for An Assembly Language Program to find 2's Complement of given binary number in Assembly LanguageData Segment num db 00000010B Data Ends Code Segment Assume cs:code, ds:data Begin: mov ax, data mov ds, ax mov es, ax mov ah, 0000h mov al, num NOT al mov bl, al adc al, 00000001B mov bl, al Exit: mov ax, 4c00h int 21h Code Ends End Begin
It indicates the "number of bytes the device is willing to accept".
it indicates which layer 4 protocol is carried in a datagram
Line segment AH can be named simply as "AH." In geometry, line segments are typically named by using the endpoints, so AH indicates a segment with endpoints at points A and H. It is also common to refer to it as segment AH or simply as segment A to H for clarity.
A series of 1's and 0's which represent Instructions. Assembly Language is a 1-to-1 representation of machine code in human readable context. Assembly Language can also contain comments and label names which get filtered out when converting assembly to machine code (compiling). If you want to read machine language, you use a disassembler to convert machine code into assembly. Otherwise programs such as notepad or nano will show the contents of the file as gobbly-gook (random characters with no meaning). 32-bit processors parse the file into 32-bit 1's and 0's segments. Each segment gets ran and processed individually. And not all segments are meant to be ran. Some are data and get skipped over, and other instructions load and use that data for their intended purpose.
The graph is pretty nearly useless. A line (or segment) which is going up from left to right) indicates accelerating motion over that period, a horizontal line (segment) indicates motion at a constant speed and a line segment going downwards from left to right indicates retardation. However, there is no way to tell how fast anything is moving.
The paper folding method used to find the midpoint of a line segment is called "folding in half." To do this, simply fold the paper so that the two endpoints of the line segment meet, creating a crease. The crease indicates the midpoint of the segment. This technique relies on the geometric property that folding a straight line segment in half equally divides it.
The language itself doesn't say anything about data (or other) segments.
The TPR segment, or Total Physical Response segment, is an approach to language teaching that emphasizes the coordination of speech and action. Developed by James Asher, it is based on the idea that language learning is more effective when students physically respond to commands or questions in the target language, promoting engagement and retention. This method encourages active participation and helps learners internalize vocabulary and structures through kinesthetic activities. It is particularly effective with young learners and beginners.
To perform a program on the 8086 microprocessor, you typically write assembly language code that consists of instructions executed by the CPU. First, you need to set up the data segment for variables and the code segment for the instructions. After writing the code, you assemble it using an assembler to generate machine code, which can be loaded into memory. Finally, you execute the program by starting the processor at the specified memory address, and the 8086 will process the instructions sequentially.