In C++, an array is a collection of elements of the same data type stored in contiguous memory locations. Arrays are used to store multiple values in a single variable, instead of declaring separate variables for each value
C++ - UNIT_-_IV.pptx which contains details about PointersANUSUYA S
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Pointer is a variable in C++ that holds the address of another variable. Pointers allow accessing the memory location of other variables. There are different types of pointers based on the data type they are pointing to such as integer, character, class etc. Pointers are declared using an asterisk * before the pointer variable name. The address of a variable can be assigned to a pointer using the & address of operator. Pointers can be used to access members of a class and pass arrays to functions. The this pointer represents the address of the object inside member functions. Virtual functions allow dynamic binding at runtime in inheritance.
Homework Assignment â Array Technical DocumentWrite a technical .pdfaroraopticals15
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Homework Assignment â Array Technical Document
Write a technical document that describes the structure and use of arrays. The document should
be 3 to 5 pages and include an Introduction section, giving a brief synopsis of the document and
arrays, a Body section, describing arrays and giving an annotated example of their use as a
programming construct, and a conclusion to revisit important information about arrays described
in the Body of the document. Some suggested material to include:
Declaring arrays of various types
Array pointers
Printing and processing arrays
Sorting and searching arrays
Multidimensional arrays
Indexing arrays of various dimension
Array representation in memory by data type
Passing arrays as arguments
If you find any useful images on the Internet, you can use them as long as you cite the source in
end notes.
Solution
Array is a collection of variables of the same type that are referenced by a common name.
Specific elements or variables in the array are accessed by means of index into the array.
If taking about C, In C all arrays consist of contiguous memory locations. The lowest address
corresponds to the first element in the array while the largest address corresponds to the last
element in the array.
C supports both single and multi-dimensional arrays.
1) Single Dimension Arrays:-
Syntax:- type var_name[size];
where type is the type of each element in the array, var_name is any valid identifier, and size is
the number of elements in the array which has to be a constant value.
*Array always use zero as index to first element.
The valid indices for array above are 0 .. 4, i.e. 0 .. number of elements - 1
For Example :- To load an array with values 0 .. 99
int x[100] ;
int i ;
for ( i = 0; i < 100; i++ )
x[i] = i ;
To determine to size of an array at run time the sizeof operator is used. This returns the size in
bytes of its argument. The name of the array is given as the operand
size_of_array = sizeof ( array_name ) ;
2) Initialisg array:-
Arrays can be initialised at time of declaration in the following manner.
type array[ size ] = { value list };
For Example :-
int i[5] = {1, 2, 3, 4, 5 } ;
i[0] = 1, i[1] = 2, etc.
The size specification in the declaration may be omitted which causes the compiler to count the
number of elements in the value list and allocate appropriate storage.
For Example :- int i[ ] = { 1, 2, 3, 4, 5 } ;
3) Multidimensional array:-
Multidimensional arrays of any dimension are possible in C but in practice only two or three
dimensional arrays are workable. The most common multidimensional array is a two
dimensional array for example the computer display, board games, a mathematical matrix etc.
Syntax :type name [ rows ] [ columns ] ;
For Example :- 2D array of dimension 2 X 3.
int d[ 2 ] [ 3 ] ;
A two dimensional array is actually an array of arrays, in the above case an array of two integer
arrays (the rows) each with three elements, and is stored row-wise in memory.
For Example :- Program to fill .
Functions: Function Definition, prototyping, types of functions, passing arguments to functions, Nested Functions, Recursive functions.
Strings: Declaring and Initializing strings, Operations on strings, Arrays of strings, passing strings to functions. Storage Classes: Automatic, External, Static and Register Variables.
This document provides an overview of arrays and strings in C programming. It discusses single and multidimensional arrays, including array declaration and initialization. It also covers string handling functions. Additionally, the document defines structures and unions, and discusses nested structures and arrays of structures. The majority of the document focuses on concepts related to single dimensional arrays, including array representation, accessing array elements, and common array operations like insertion, deletion, searching, and sorting. Example C programs are provided to demonstrate various array concepts.
The document discusses strings, arrays, pointers, and sorting algorithms in C programming. It provides definitions and examples of:
1) Strings as null-terminated character arrays. It demonstrates initializing and printing a string.
2) One-dimensional and two-dimensional arrays. It shows how to declare, initialize, access, and print multi-dimensional arrays.
3) Pointers as variables that store memory addresses. It explains pointer declaration and dereferencing pointers using asterisk (*) operator.
4) Bubble sort algorithm that iterates through an array and swaps adjacent elements if out of order, putting largest elements at the end of the array in each iteration.
An array is a group of data items of same data type that share a common name. Ordinary variables are capable of holding only one value at a time. If we want to store more than one value at a time in a single variable, we use arrays.
An array is a collective name given to a group of similar variables. Each member in the group is referred to by its position in the group.
Arrays are alloted the memory in a strictly contiguous fashion. The simplest array is a one-dimensional array which is a list of variables of same data type. An array of one-dimensional arrays is called a two-dimensional array.
Arrays are a commonly used data structure that store multiple elements of the same type. Elements in an array are accessed using subscripts or indexes, with the first element having an index of 0. Multidimensional arrays can store elements in rows and columns, accessed using two indexes. Arrays are stored linearly in memory in either row-major or column-major order, which affects how elements are accessed.
Here is the program to copy elements of an array into another array in reverse order:
#include <iostream>
using namespace std;
int main() {
int arr1[10], arr2[10];
cout << "Enter 10 integer inputs: ";
for(int i=0; i<10; i++) {
cin >> arr1[i];
}
for(int i=0, j=9; i<10; i++, j--) {
arr2[j] = arr1[i];
}
cout << "Array 1: ";
for(int i=0; i<10; i++) {
cout << arr1[i
C programming language provides arrays as a data structure to store a fixed-size collection of elements of the same type. An array stores elements in contiguous memory locations. Individual elements in an array can be accessed using an index. Common array operations in C include declaration, initialization, accessing and modifying individual elements, and passing arrays to functions.
The document discusses arrays in C++. It defines an array as a group of consecutive memory locations with the same name and type. Arrays allow storing multiple values using a single name. The document covers one-dimensional and two-dimensional arrays, including how to declare, initialize, access elements, and write programs to input and output array values. It provides examples of programs that input values into arrays, find the maximum/minimum values, and store/display 2D arrays.
Arrays allow storing and accessing multiple values of the same data type. A two-dimensional array represents data in a tabular form and can be used to store values in a matrix. It is declared with two sets of brackets and initialized with nested curly braces. Elements are accessed using two indices, such as array[row][column]. Memory for a two-dimensional array is allocated in a contiguous block, with the first dimension iterating fastest.
The document provides information about arrays and pointers in C++. It discusses how to declare, initialize, access elements of arrays including multi-dimensional arrays. It also covers pointers, how they store memory addresses rather than values, and how to declare and assign addresses to pointers. Key topics include declaring arrays with syntax like dataType arrayName[size]; initializing arrays; accessing elements using indices; multi-dimensional arrays of different sizes; declaring pointers with syntax like int* pointer; and assigning addresses to pointers using &operator.
This document discusses arrays and pointers in C++. It begins by explaining that arrays allow storing multiple values of the same type, and that arrays have a fixed size and type after declaration. It then covers how to declare, initialize, access elements of, and iterate through arrays using indexes and loops. Multidimensional arrays are also explained, including how they can be thought of as tables with rows and columns. The document concludes by introducing pointers as variables that store the memory addresses of other variables.
An array is a contiguous block of memory that stores elements of the same data type. Arrays allow storing and accessing related data collectively under a single name. An array is declared with a data type, name, and size. Elements are accessed via indexes that range from 0 to size-1. Common array operations include initialization, accessing elements using loops, input/output, and finding highest/lowest values. Arrays can be single-dimensional or multi-dimensional. Multi-dimensional arrays represent matrices and elements are accessed using multiple indexes. Common array applications include storing student marks, employee salaries, and matrix operations.
This document discusses arrays and strings in C++. It defines an array as a collection of identical data objects stored in consecutive memory locations under a common name. Arrays allow storing multiple values of the same type using one variable name. Strings are represented using arrays of character type (char). Strings are terminated with a null character (\0) to indicate the end of the valid characters. Arrays and strings can be initialized using individual values or constant strings enclosed in double quotes. Arrays and strings share properties like indexing elements from 0 to size-1.
C programming language allows for the declaration of arrays, which can store a fixed number of elements of the same data type. Arrays provide an efficient way to store and access related data sequentially in memory. Individual elements in an array are accessed via an index, and multi-dimensional arrays can model tables of data with multiple indices to access each element.
Arrays & Strings can be summarized as follows:
1. Arrays are fixed-size collections of elements of the same data type that are used to store lists of related data. They can be one-dimensional, two-dimensional, or multi-dimensional.
2. Strings in C are arrays of characters terminated by a null character. They are commonly used to store text data. Common string operations include reading, writing, combining, copying, comparing, and extracting portions of strings.
3. Arrays are declared with a data type, name, and size. They can be initialized with a block of comma-separated values. Individual elements are accessed using indexes in square brackets. Two-dimensional arrays represent tables
Arrays allow storing multiple values of the same type sequentially in memory. An array is declared with the type, name, and size. Elements are accessed using indexes from 0 to size-1. Strings are represented as character arrays terminated with a null character. Arrays can be passed to and returned from functions, and multidimensional arrays store arrays within arrays. Standard libraries provide functions for string and character manipulation.
The objective of the Level 5 Diploma in Information Technology is to provide learners with an excellent foundation for a career in a range of organisations. It designed to ensure that each learner is âbusiness readyâ: a confident, independent thinker with a detailed knowledge of Information Technology, and equipped with the skills to adapt rapidly to change.
The document provides an overview of arrays in Java, including:
- Arrays can hold multiple values of the same type, unlike primitive variables which can only hold one value.
- One-dimensional arrays use a single index, while multi-dimensional arrays use two or more indices.
- Elements in an array are accessed using their index number, starting from 0.
- The size of an array is set when it is declared and cannot be changed, but reference variables can point to different arrays.
- Common operations on arrays include initializing values, accessing elements, looping through elements, and copying arrays.
Arrays are ordered sets of elements of the same type that allow direct access to each element through an index. In C++, arrays have a fixed size that is declared, with elements accessed using square brackets and integers representing their position. Multidimensional arrays arrange data in tables and can be thought of as arrays of arrays. Elements are accessed using multiple indices separated by commas within the brackets.
Arrays allow storing multiple values of the same type in contiguous memory locations. They are declared with the data type, name, and number of elements. Each element can then be accessed via its index number. Arrays must be initialized before use, which can be done by assigning values within curly brackets when declaring the array. Values in arrays can then be accessed and modified using indexing syntax like name[index].
The document discusses various operations that can be performed on arrays, including traversing, inserting, searching, deleting, merging, and sorting elements. It provides examples and algorithms for traversing an array, inserting and deleting elements, and merging two arrays. It also discusses two-dimensional arrays and how to store user input data in a 2D array. Limitations of arrays include their fixed size and issues with insertion/deletion due to shifting elements.
Pointers in C++ object oriented programmingAhmad177077
Â
Pointers in C++ are variables that store the memory address of another variable. They are powerful tools that allow you to directly access and manipulate memory, making them essential in systems programming, dynamic memory allocation, and data structures.
6. Functions in C ++ programming object oriented programmingAhmad177077
Â
In C++, functions are used to organize code into modular blocks that can perform specific tasks. Functions allow you to avoid code repetition, improve code readability, and make your program more manageable.
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Here is the program to copy elements of an array into another array in reverse order:
#include <iostream>
using namespace std;
int main() {
int arr1[10], arr2[10];
cout << "Enter 10 integer inputs: ";
for(int i=0; i<10; i++) {
cin >> arr1[i];
}
for(int i=0, j=9; i<10; i++, j--) {
arr2[j] = arr1[i];
}
cout << "Array 1: ";
for(int i=0; i<10; i++) {
cout << arr1[i
C programming language provides arrays as a data structure to store a fixed-size collection of elements of the same type. An array stores elements in contiguous memory locations. Individual elements in an array can be accessed using an index. Common array operations in C include declaration, initialization, accessing and modifying individual elements, and passing arrays to functions.
The document discusses arrays in C++. It defines an array as a group of consecutive memory locations with the same name and type. Arrays allow storing multiple values using a single name. The document covers one-dimensional and two-dimensional arrays, including how to declare, initialize, access elements, and write programs to input and output array values. It provides examples of programs that input values into arrays, find the maximum/minimum values, and store/display 2D arrays.
Arrays allow storing and accessing multiple values of the same data type. A two-dimensional array represents data in a tabular form and can be used to store values in a matrix. It is declared with two sets of brackets and initialized with nested curly braces. Elements are accessed using two indices, such as array[row][column]. Memory for a two-dimensional array is allocated in a contiguous block, with the first dimension iterating fastest.
The document provides information about arrays and pointers in C++. It discusses how to declare, initialize, access elements of arrays including multi-dimensional arrays. It also covers pointers, how they store memory addresses rather than values, and how to declare and assign addresses to pointers. Key topics include declaring arrays with syntax like dataType arrayName[size]; initializing arrays; accessing elements using indices; multi-dimensional arrays of different sizes; declaring pointers with syntax like int* pointer; and assigning addresses to pointers using &operator.
This document discusses arrays and pointers in C++. It begins by explaining that arrays allow storing multiple values of the same type, and that arrays have a fixed size and type after declaration. It then covers how to declare, initialize, access elements of, and iterate through arrays using indexes and loops. Multidimensional arrays are also explained, including how they can be thought of as tables with rows and columns. The document concludes by introducing pointers as variables that store the memory addresses of other variables.
An array is a contiguous block of memory that stores elements of the same data type. Arrays allow storing and accessing related data collectively under a single name. An array is declared with a data type, name, and size. Elements are accessed via indexes that range from 0 to size-1. Common array operations include initialization, accessing elements using loops, input/output, and finding highest/lowest values. Arrays can be single-dimensional or multi-dimensional. Multi-dimensional arrays represent matrices and elements are accessed using multiple indexes. Common array applications include storing student marks, employee salaries, and matrix operations.
This document discusses arrays and strings in C++. It defines an array as a collection of identical data objects stored in consecutive memory locations under a common name. Arrays allow storing multiple values of the same type using one variable name. Strings are represented using arrays of character type (char). Strings are terminated with a null character (\0) to indicate the end of the valid characters. Arrays and strings can be initialized using individual values or constant strings enclosed in double quotes. Arrays and strings share properties like indexing elements from 0 to size-1.
C programming language allows for the declaration of arrays, which can store a fixed number of elements of the same data type. Arrays provide an efficient way to store and access related data sequentially in memory. Individual elements in an array are accessed via an index, and multi-dimensional arrays can model tables of data with multiple indices to access each element.
Arrays & Strings can be summarized as follows:
1. Arrays are fixed-size collections of elements of the same data type that are used to store lists of related data. They can be one-dimensional, two-dimensional, or multi-dimensional.
2. Strings in C are arrays of characters terminated by a null character. They are commonly used to store text data. Common string operations include reading, writing, combining, copying, comparing, and extracting portions of strings.
3. Arrays are declared with a data type, name, and size. They can be initialized with a block of comma-separated values. Individual elements are accessed using indexes in square brackets. Two-dimensional arrays represent tables
Arrays allow storing multiple values of the same type sequentially in memory. An array is declared with the type, name, and size. Elements are accessed using indexes from 0 to size-1. Strings are represented as character arrays terminated with a null character. Arrays can be passed to and returned from functions, and multidimensional arrays store arrays within arrays. Standard libraries provide functions for string and character manipulation.
The objective of the Level 5 Diploma in Information Technology is to provide learners with an excellent foundation for a career in a range of organisations. It designed to ensure that each learner is âbusiness readyâ: a confident, independent thinker with a detailed knowledge of Information Technology, and equipped with the skills to adapt rapidly to change.
The document provides an overview of arrays in Java, including:
- Arrays can hold multiple values of the same type, unlike primitive variables which can only hold one value.
- One-dimensional arrays use a single index, while multi-dimensional arrays use two or more indices.
- Elements in an array are accessed using their index number, starting from 0.
- The size of an array is set when it is declared and cannot be changed, but reference variables can point to different arrays.
- Common operations on arrays include initializing values, accessing elements, looping through elements, and copying arrays.
Arrays are ordered sets of elements of the same type that allow direct access to each element through an index. In C++, arrays have a fixed size that is declared, with elements accessed using square brackets and integers representing their position. Multidimensional arrays arrange data in tables and can be thought of as arrays of arrays. Elements are accessed using multiple indices separated by commas within the brackets.
Arrays allow storing multiple values of the same type in contiguous memory locations. They are declared with the data type, name, and number of elements. Each element can then be accessed via its index number. Arrays must be initialized before use, which can be done by assigning values within curly brackets when declaring the array. Values in arrays can then be accessed and modified using indexing syntax like name[index].
The document discusses various operations that can be performed on arrays, including traversing, inserting, searching, deleting, merging, and sorting elements. It provides examples and algorithms for traversing an array, inserting and deleting elements, and merging two arrays. It also discusses two-dimensional arrays and how to store user input data in a 2D array. Limitations of arrays include their fixed size and issues with insertion/deletion due to shifting elements.
Pointers in C++ object oriented programmingAhmad177077
Â
Pointers in C++ are variables that store the memory address of another variable. They are powerful tools that allow you to directly access and manipulate memory, making them essential in systems programming, dynamic memory allocation, and data structures.
6. Functions in C ++ programming object oriented programmingAhmad177077
Â
In C++, functions are used to organize code into modular blocks that can perform specific tasks. Functions allow you to avoid code repetition, improve code readability, and make your program more manageable.
Operators in c++ programming types of variablesAhmad177077
Â
In C++, a variable is a named storage location in memory that can hold a value. Variables allow programmers to store, modify, and retrieve data during program execution. Each variable has a data type that defines the kind of data it can hold, such as integers, floating-point numbers, characters, etc.
2. Variables and Data Types in C++ proramming.pptxAhmad177077
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In C++, a variable is a named storage location in memory that can hold a value. Variables allow programmers to store, modify, and retrieve data during program execution. Each variable has a data type that defines the kind of data it can hold, such as integers, floating-point numbers, characters, etc.
Introduction to c++ programming languageAhmad177077
Â
C++ is a powerful, high-performance, general-purpose programming language that supports procedural, object-oriented, and generic programming paradigms. It is widely used for developing applications where efficiency and performance are critical, such as operating systems, game development, and real-time systems.
Selection Sort is a simple comparison-based sorting algorithm. It works by repeatedly finding the smallest (or largest, depending on the sorting order) element from the unsorted portion of the list and swapping it with the first element of the unsorted portion.
Strassen's Matrix Multiplication divide and conquere algorithmAhmad177077
Â
The Strassen Matrix Multiplication Algorithm is a divide-and-conquer algorithm for matrix multiplication that is faster than the standard algorithm for large matrices. It was developed by Volker Strassen in 1969 and reduces the number of multiplications required to multiply two matrices.
Recursive Algorithms with their types and implementationAhmad177077
Â
A recursive algorithm is a method of solving a problem where the solution depends on solutions to smaller instances of the same problem. The algorithm repeatedly breaks the problem into smaller sub-problems until it reaches a base case, which is the simplest instance that can be solved directly without further recursion.
Graph Theory in Theoretical computer scienceAhmad177077
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1. Introduction to Graph Theory
What is Graph Theory? History and importance.
Definition of a graph:
Vertices (nodes) and edges (links)
Graphs as a mathematical representation of relationships
Applications of graph theory:
Social networks
Computer networks
Pathfinding (e.g., Google Maps)
Data structures (e.g., trees)
2. Types of Graphs
Undirected vs. directed graphs
Weighted vs. unweighted graphs
Simple graphs, multigraphs, and pseudographs
Special types of graphs:
Complete graph (
đž
đ
K
n
â
)
Bipartite graph
Cyclic and acyclic graphs
Trees and forests
Planar graphs
3. Graph Representations
Adjacency matrix
Adjacency list
Incidence matrix
Edge list
Comparison of representations (memory and efficiency)
4. Basic Graph Properties
Degree of a vertex (in-degree, out-degree)
Path and cycle
Simple path, closed path, Hamiltonian path, and Eulerian path
Connectedness:
Connected and disconnected graphs
Strongly and weakly connected components in directed graphs
Subgraphs and spanning subgraphs
Propositional Logics in Theoretical computer scienceAhmad177077
Â
1. Introduction to Propositional Logic
Definition of propositional logic
Propositions: what they are and examples
Importance of propositional logic in computer science (e.g., algorithms, programming, and AI)
Applications in real-world problems (e.g., decision-making, automated reasoning)
2. Syntax and Semantics
Syntax of propositional logic:
Propositional variables
Logical connectives: AND (â§), OR (â¨), NOT (ÂŹ), IMPLICATION (â), BICONDITIONAL (â)
Truth values and truth tables
Well-formed formulas (WFFs)
Examples of valid and invalid formulas
3. Logical Equivalences
Concept of logical equivalence
Common equivalences:
Identity laws
Domination laws
Double negation law
De Morganâs laws
Distributive laws
Absorption laws
Contrapositive and its importance
Simplifying logical expressions using equivalences
4. Truth Tables and Tautologies
Constructing truth tables
Identifying tautologies, contradictions, and contingencies
Examples of tautologies (e.g.,
đ
â¨
ÂŹ
đ
Pâ¨ÂŹP) and their significance
5. Logical Implication and Inference
Understanding logical implication
Rules of inference:
Modus Ponens and Modus Tollens
Hypothetical Syllogism
Disjunctive Syllogism
Addition, Simplification, and Conjunction
Resolution method
Using inference rules in proofs
1. Introduction to C++ and brief historyAhmad177077
Â
C++ is a powerful, high-level programming language that was developed by Bjarne Stroustrup in 1983. It's an extension of the C programming language with added features such as object-oriented programming (OOP) and generic programming capabilities.
Here are some key concepts and features of C++:
Object-Oriented Programming (OOP): C++ supports OOP principles such as classes, objects, inheritance, polymorphism, and encapsulation. This allows for the creation of modular and reusable code.
Syntax: C++ syntax is similar to C, but with additional features. It uses semicolons to end statements and curly braces to define blocks of code. It also supports a wide range of operators for arithmetic, logical, and bitwise operations.
Standard Template Library (STL): C++ provides a rich set of libraries known as the Standard Template Library (STL), which includes containers (like vectors, lists, maps), algorithms (such as sorting and searching), and iterators.
Memory Management: Unlike some higher-level languages, C++ gives programmers control over memory management. It allows manual memory allocation and deallocation using new and delete operators. However, this also introduces the risk of memory leaks and segmentation faults if not used carefully.
Portability: C++ code can be compiled to run on various platforms, making it a portable language. However, platform-specific code may need adjustments for different environments.
Performance: C++ is known for its high performance and efficiency. It allows low-level manipulation of resources, making it suitable for system-level programming, game development, and other performance-critical applications.
Community and Resources: C++ has a vast community of developers and extensive documentation available online. There are many tutorials, forums, and books to help programmers learn and master the language.
When learning C++, it's essential to understand the fundamentals thoroughly, including data types, control structures (like loops and conditionals), functions, and pointers. As you become more proficient, you can explore advanced topics like templates, exception handling, multithreading, and more.
Overall, C++ is a versatile language with a wide range of applications, from system programming to game development to web applications. Mastering it can open up many opportunities for software development.Community and Resources: C++ has a vast community of developers and extensive documentation available online. There are many tutorials, forums, and books to help programmers learn and master the language.
When learning C++, it's essential to understand the fundamentals thoroughly, including data types, control structures (like loops and conditionals), functions, and pointers. As you become more proficient, you can explore advanced topics like templates, exception handling, multithreading, and more.
Overall, C++ is a versatile language with a wide range of applications, from system programming to game development to web
Vaibhav Gupta BAML: AI work flows without Hallucinationsjohn409870
Â
Shipping Agents
Vaibhav Gupta
Cofounder @ Boundary
in/vaigup
boundaryml/baml
Imagine if every API call you made
failed only 5% of the time
boundaryml/baml
Imagine if every LLM call you made
failed only 5% of the time
boundaryml/baml
Imagine if every LLM call you made
failed only 5% of the time
boundaryml/baml
Fault tolerant systems are hard
but now everything must be
fault tolerant
boundaryml/baml
We need to change how we
think about these systems
Aaron Villalpando
Cofounder @ Boundary
Boundary
Combinator
boundaryml/baml
We used to write websites like this:
boundaryml/baml
But now we do this:
boundaryml/baml
Problems web dev had:
boundaryml/baml
Problems web dev had:
Strings. Strings everywhere.
boundaryml/baml
Problems web dev had:
Strings. Strings everywhere.
State management was impossible.
boundaryml/baml
Problems web dev had:
Strings. Strings everywhere.
State management was impossible.
Dynamic components? forget about it.
boundaryml/baml
Problems web dev had:
Strings. Strings everywhere.
State management was impossible.
Dynamic components? forget about it.
Reuse components? Good luck.
boundaryml/baml
Problems web dev had:
Strings. Strings everywhere.
State management was impossible.
Dynamic components? forget about it.
Reuse components? Good luck.
Iteration loops took minutes.
boundaryml/baml
Problems web dev had:
Strings. Strings everywhere.
State management was impossible.
Dynamic components? forget about it.
Reuse components? Good luck.
Iteration loops took minutes.
Low engineering rigor
boundaryml/baml
React added engineering rigor
boundaryml/baml
The syntax we use changes how we
think about problems
boundaryml/baml
We used to write agents like this:
boundaryml/baml
Problems agents have:
boundaryml/baml
Problems agents have:
Strings. Strings everywhere.
Context management is impossible.
Changing one thing breaks another.
New models come out all the time.
Iteration loops take minutes.
boundaryml/baml
Problems agents have:
Strings. Strings everywhere.
Context management is impossible.
Changing one thing breaks another.
New models come out all the time.
Iteration loops take minutes.
Low engineering rigor
boundaryml/baml
Agents need
the expressiveness of English,
but the structure of code
F*** You, Show Me The Prompt.
boundaryml/baml
<show donât tell>
Less prompting +
More engineering
=
Reliability +
Maintainability
BAML
Sam
Greg Antonio
Chris
turned down
openai to join
ex-founder, one
of the earliest
BAML users
MIT PhD
20+ years in
compilers
made his own
database, 400k+
youtube views
Vaibhav Gupta
in/vaigup
[email protected]
boundaryml/baml
Thank you!
Train Smarter, Not Harder â Let 3D Animation Lead the Way!
Discover how 3D animation makes inductions more engaging, effective, and cost-efficient.
Check out the slides to see how you can transform your safety training process!
Slide 1: Why 3D animation changes the game
Slide 2: Site-specific induction isnât optionalâitâs essential
Slide 3: Visitors are most at risk. Keep them safe
Slide 4: Videos beat textâespecially when safety is on the line
Slide 5: TechEHS makes safety engaging and consistent
Slide 6: Better retention, lower costs, safer sites
Slide 7: Ready to elevate your induction process?
Can an animated video make a difference to your site's safety? Let's talk.
Big Data Analytics Quick Research Guide by Arthur MorganArthur Morgan
Â
This is a Quick Research Guide (QRG).
QRGs include the following:
- A brief, high-level overview of the QRG topic.
- A milestone timeline for the QRG topic.
- Links to various free online resource materials to provide a deeper dive into the QRG topic.
- Conclusion and a recommendation for at least two books available in the SJPL system on the QRG topic.
QRGs planned for the series:
- Artificial Intelligence QRG
- Quantum Computing QRG
- Big Data Analytics QRG
- Spacecraft Guidance, Navigation & Control QRG (coming 2026)
- UK Home Computing & The Birth of ARM QRG (coming 2027)
Any questions or comments?
- Please contact Arthur Morgan at [email protected].
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Array In C++ programming object oriented programming
1. 1
Array in C++
Ahmad Baryal
Saba Institute of Higher Education
Computer Science Faculty
Nov 04, 2024
2. 2 Table of contents
ď§ Introduction to Array
ď§ Properties of Array
ď§ Declaration of Array
ď§ Initialization of Array
ď§ Accessing an Element of an Array
ď§ Traverse an Array
ď§ Size of an Array
ď§ Relation between Arrays and Pointers in C++
ď§ Multidimensional Arrays
ď§ Two Dimensional Array
3. 3 C++ Arrays
ď§ In C++, an array is a data structure that is used to store multiple values of similar data
types in a contiguous memory location.
ď§ For example, if we have to store the marks of 4 or 5 students then we can easily store
them by creating 5 different variables but what if we want to store marks of 100
students or say 500 students then it becomes very challenging to create that
numbers of variable and manage them. Now, arrays come into the picture that can
do it easily by just creating an array of the required size.
4. 4 Properties of Arrays in C++
⢠An Array is a collection of data of the same data type, stored at a contiguous
memory location.
⢠Indexing of an array starts from 0. It means the first element is stored at the 0th
index, the second at 1st, and so on.
⢠Elements of an array can be accessed using their indices.
⢠Once an array is declared its size remains constant throughout the program.
⢠An array can have multiple dimensions.
⢠The number of elements in an array can be determined using the sizeof
operator.
⢠We can find the size of the type of elements stored in an array by subtracting
adjacent addresses.
5. 5 Array Declaration in C++
In C++, we can declare an array by simply specifying the data type first and
then the name of an array with its size.
data_type array_name[Size_of_array]; Example: int arr[5];
Here,
⢠int: It is the type of data to be stored in the array. We can also use other
data types such as char, float, and double.
⢠arr: It is the name of the array.
⢠5: It is the size of the array which means only 5 elements can be stored in
the array.
6. 6 Initialization of Array in C++
⢠In C++, we can initialize an array in many ways but we will discuss some
most common ways to initialize an array. We can initialize an array at the
time of declaration or after declaration.
1. Initialize Array with Values in C++
We have initialized the array with values. The values enclosed in curly braces â{}â are
assigned to the array. Here, 1 is stored in arr[0], 2 in arr[1], and so on. Here the size of the
array is 5.
int arr[5] = {1, 2, 3, 4, 5};
2. Initialize Array with Values and without Size in C++
We have initialized the array with values but we have not declared the length of the
array, therefore, the length of an array is equal to the number of elements inside curly
braces.
int arr[] = {1, 2, 3, 4, 5};
7. 7 Initialization of Array in C++
3. Initialize Array after Declaration (Using Loops)
We have initialized the array using a loop after declaring the array. This method is
generally used when we want to take input from the user or we cant to assign elements
one by one to each index of the array. We can modify the loop conditions or change
the initialization values according to requirements.
for (int i = 0; i < N; i++) {
arr[i] = value;
}
4. Initialize an array partially in C++
Here, we have declared an array âpartialArrayâ with size â5â and with values â1â and â2â
only. So, these values are stored at the first two indices, and at the rest of the indices â0â
is stored.
int partialArray[5] = {1, 2};
8. 8 Accessing an Element of an Array in C++
Elements of an array can be accessed by specifying the name of the array, then the index of
the element enclosed in the array subscript operator []. For example, arr[i].
Example 1: The C++ Program to Illustrate How to Access Array Elements
int arr[3];
// Inserting elements in an array
arr[0] = 10;
arr[1] = 20;
arr[2] = 30;
// Accessing and printing elements of the array
cout << "arr[0]: " << arr[0] << endl;
cout << "arr[1]: " << arr[1] << endl;
cout << "arr[2]: " << arr[2] << endl;
9. 9 Traverse an Array in C++
We can traverse over the array with the help of a loop using indexing in C++. First, we have
initialized an array âtable_of_twoâ with a multiple of 2. After that, we run a for loop from 0 to
9 because in an array indexing starts from zero. Therefore, using the indices we print all
values stored in an array.
Example 2: The C++ Program to Illustrate How to Traverse an Array
// Initialize the array
int table_of_two[10]
= { 2, 4, 6, 8, 10, 12, 14, 16, 18, 20 };
// Traverse the array using for loop
for (int i = 0; i < 10; i++) {
// Print the array elements using indexing
cout << table_of_two[i] << " ";
}
10. 10 Size of an Array in C++
In C++, we do not have the length function as in Java to find array size but we can calculate
the size of an array using sizeof() operator trick. First, we find the size occupied by the whole
array in the memory and then divide it by the size of the type of element stored in the array.
This will give us the number of elements stored in the array.
data_type size = sizeof(Array_name) / sizeof(Array_name[index]);
Example 3: The C++ Program to Illustrate How to Find the Size of an Array
int arr[] = { 1, 2, 3, 4, 5 };
cout << "Size of arr[0]: " << sizeof(arr[0]) << endl;
cout << "Size of arr: " << sizeof(arr) << endl;
// Length of an array
int n = sizeof(arr) / sizeof(arr[0]);
cout << "Length of an array: " << n << endl;
11. 11 Relation between Arrays and Pointers in C++
In C++, arrays and pointers are closely related to each other. The array name is treated as a
pointer that stored the memory address of the first element of the array. As we have
discussed earlier, In array elements are stored at contiguous memory locations thatâs why we
can access all the elements of an array using the array name.
// Defining an array
int arr[] = { 1, 2, 3, 4 };
// Define a pointer
int* ptr = arr;
// Printing address of the arrary using array name
cout << "Memory address of arr: " << &arr << endl;
// Printing address of the array using ptr
cout << "Memory address of arr: " << ptr << endl;
Explanation:
In the above code, we first define
an array âarrâ and then declare a
pointer âptrâ and assign the array
âarrâ to it. We are able to assign arr
to ptr because arr is also a pointer.
After that, we print the memory
address of arr using reference
operator (&) and also print the
address stored in pointer ptr and
we can see arr and ptr, both stores
the same memory address.
12. 12 Example 5: Printing Array Elements without Indexing in C++
We generally access and print the array elements using indexing. For example to access the
first element we use array_name[0]. We have discussed above that the array name is a
pointer that stored the address of the first element and array elements are stored at
contiguous locations. Now, we are going to access the elements of an array using the array
name only.
// Define an array
int arr[] = { 11, 22, 33, 44 };
// Print elements of an array
cout << "first element: " << *arr << endl;
cout << "Second element: " << *(arr + 1) << endl;
cout << "Third element: " << *(arr + 2) << endl;
cout << "fourth element: " << *(arr + 3) << endl;
Explanation
⢠In the above code, we first declared an array âarrâ
with four elements. After that, we are printing the
array elements. Letâs discuss how we do it. We
discussed that the array name is a pointer that
stores the address of the first element of an array
so, to print the first element we have dereferenced
that pointer (*arr) using dereferencing
operator (*) which prints the data stored at that
address.
⢠To print the second element of an array we first
add 1 to arr which is equivalent to (address of arr +
size_of_one_element *1) that takes the pointer to
the address just after the first one and after that,
we dereference that pointer to print the second
element. Similarly, we print rest of the elements of
an array without using indexing.
13. 13 Passing Array to Function in C++
To use arrays efficiently we should know how to pass arrays to function. We can pass arrays to
functions as an argument same as we pass variables to functions but we know that the array
name is treated as a pointer using this concept we can pass the array to functions as an
argument and then access all elements of that array using pointer.
1. Passing Array as a Pointer
In this method, we simply pass the array name in function call which means we pass the
address to the first element of the array. In this method, we can modify the array elements
within the function.
Syntax
return_type function_name ( data_type *array_name ) {
// set of statements
}
14. 14 Passing Array as a Pointer Example
Explanation:
1.Function Definition:
void modifyArray(int* arr, int size): This function
takes an integer pointer (arr) and the size of the
array as parameters.
2. Array Modification:
arr[i] *= 2;: Inside the function, each element of
the array is modified. In this example, each
element is multiplied by 2.
3. Function Call:
modifyArray(myArray, 5);: The array myArray is
passed to the function modifyArray along with its
size (5).
4. Printing Modified Array:
The main function prints the modified array after
the function call.
15. 15 Passing Array to Function in C++
2. Passing Array as an Unsized Array
In this method, the function accepts the array using a simple array declaration with no size as an argument.
Syntax: return_type function_name ( data_type array_name[] ) {
// set of statements }
Explanation:
1. Function Definition:
void modifyArray(int arr[], int size): This function
takes an integer array (arr) and the size of the
array as parameters.
2. Array Modification:
arr[i] *= 3;: Inside the function, each element of
the array is modified. In this example, each
element is multiplied by 3.
3. Function Call:
modifyArray(myArray, 5);: The array myArray is
passed to the function modifyArray along with its
size (5).
4. Printing Modified Array:
The main function prints the modified array after
the function call.
16. 16 Passing Array to Function in C++
3. Passing Array as a Sized Array
In this method, the function accepts the array using a simple array declaration with size as an argument. We use this
method by sizing an array just to indicate the size of an array.
Syntax : return_type function_name(data_type array_name[size_of_array]){
// set of statements }
Explanation:
1. Function Definition:
void modifyArray(int arr[5]): This function takes an
integer array (arr) with a specified size of 5.
2. Array Modification:
arr[i] += 5;: Inside the function, each element of
the array is modified. In this example, each
element is incremented by 5.
3. Function Call:
modifyArray(myArray);: The array myArray is
passed to the function modifyArray. The size is not
explicitly mentioned in the function call because
it is implicitly known from the array declaration.
4. Printing Modified Array:
The main function prints the modified array after
the function call.
17. 17 Multidimensional Arrays in C++
Arrays declared with more than one dimension are called multidimensional arrays. The most widely used
multidimensional arrays are 2D arrays and 3D arrays. These arrays are generally represented in the form of
rows and columns.
Multidimensional Array Declaration
Data_Type Array_Name[Size1][Size2]...[SizeN];
where,
Data_Type: Type of data to be stored in the array.
Array_Name: Name of the array.
Size1, Size2,âŚ, SizeN: Size of each dimension.
Example of a 2D Array Declaration:
18. 18 Two Dimensional Array in C++
ď´ In C++, a two-dimensional array is a grouping of elements arranged in rows and columns.
Each element is accessed using two indices: one for the row and one for the column,
which makes it easy to visualize as a table or grid.
Syntax of 2D array: data_Type array_name[n][m];
Where,
n: Number of rows.
m: Number of columns.
19. 19 Example: Program to Illustrate 2D Array
Explanation:
The provided C++ example initializes a 2D
array named matrix with integer values.
Using nested loops, it iterates through each
element of the array, accessing them with
the syntax matrix[i][j]. A placeholder
variable element is introduced to represent
each value during the iteration. The
program performs a generic print
operation for each element,
demonstrating the process of accessing
and displaying values in a 2D array. Finally,
it moves to a new line after printing each
row. The example aims to illustrate the
fundamental structure of processing and
printing elements in a 2D array in a concise
manner.