Arcesium is a global financial technology and professional services firm that provides advanced solutions for asset managers, hedge funds, banks, and institutional investors. Here's a quick overview:
Founded: 2015 (as a spin-off from the D. E. Shaw Group)
Headquarters: New York City, USA
Other Offices: Hyderabad and Bengaluru (India), London (UK)
Employees: Thousands globally
Arcesium specializes in data, operations, and financial technology. Its main products and services include:
Technology Platform:
A modular platform that helps with post-trade processing, data management, reconciliation, and more.
Highly scalable and cloud-native.
Managed Services:
Offers outsourcing solutions including trade support, treasury, accounting, and reconciliation.
Data Platform:
Tools for managing, integrating, and analyzing large volumes of financial data.
Financial Operations Services:
Assists with operational workflows to improve accuracy and efficiency in trade lifecycle management.
Asset managers, hedge funds, private equity firms, and banks.
Known for serving complex and high-volume trading firms.
Arcesium was built on the technology developed in-house at D. E. Shaw, giving it credibility in handling complex financial systems.
It operates at the intersection of fintech, data management, and financial services.
Competes with firms like BlackRock’s Aladdin, SS&C, and other fintech service providers.
Criteria of Graduation | Details |
---|---|
Branch of Study or Department of Study |
|
Mode of Study | Full-time courses approved by the Indian Central or State governments. (Not the part-time or correspondence courses.) |
Minimum Percentage criteria with which Graduation needs to be done. | Seventy Percent (70%) or 7CGPA. |
Experience | Extensive software engineering skills from past projects or internships are required. It is a huge boost if the individual has relevant work experience or has done competitive coding. It's a plus if you've been published in periodicals or are involved in active campaigns. |
Backlogs | No Backlogs are active during the Arcesium Recruitment Process. |
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~Complex();
main.cpp
#include <bits/stdc++.h>
using namespace std;
void printPairs (int arr[ ], int n)
{
for (int i = 0; i < n; i++) {
for (intj = 0; j< n; j++ ) {
cout <<”(“ <<arr[i] <<”,”
<<arr[j]<<”)”
<<”,”;
}
}
/tmp/v4DdQImt.o
(1, 1), (1, 2), (1, 3), (2, 1), (2, 2), (2, 3), (3, 1), (3, 3), (3, 3),
Spring Boot |
Spring |
It is a framework with which we can build REST APIs |
It is a framework that we use to develop applications. |
We don’t need a deployment descriptor to run applications. |
We need a deployment descriptor to run spring applications. |
It supports in-memory databases |
It doesn’t support in-memory databases |
It has default configurations. |
We need to configure it manually. |
We just need a single dependency to build a web application. |
We need many dependencies to create a web application. |
Finalize |
Finally |
It is a method in Java |
It is a block in Java. We place essential codes in these blocks. |
It is associated with objects. |
It is always associated with a ‘try and catch’ block. |
It performs clean-up activities associated with objects before destroying them. |
It cleans up resources in the ‘try’ block. |
It is executed just before destroying objects. |
It is executed soon after the ‘try and catch’ block is executed. |
main.py
import re
string = ‘all the best ‘
pattern = ‘ the ’
match= (re.search( pattern, string ))
print ( “ starting index”, match. start())
print ( “start and end index”, match.span())
starting index 4
start and end index ( 4, 7)
HTTP | HTTPS |
HTTP refers to HyperText Transfer Protocol |
HTTPS refers to HyperText Transfer Protocol Secure |
This protocol provides insecure connection or communication |
This protocol provides secure communication |
It works at the application layer |
It works at the transport layer |
It lacks security, so data is vulnerable. |
It provides security. It offers reliable communication between the server and the client. |
It is faster than HTTPS |
It performs encryption which in turn slows down communication. |
class Node {
int data:
Node left, right;
public Node(int data)
{
this.data = data;
Left = right = nu11;
}
}
class BinaryTree {
Node root;
static int findMax(Node node)
{
if (node == nu11)
return Integer.MIN VALUE;
int res = node.data;
int 1res = findMax(node.left);
intrress = findMax(node.right);
if(1res> res)
res = 1res;
if(rres> res)
res = rres;
}
public static void main (Sting argos[ ])
}
BinaryTree tree = new BinaryTree();
tree.root = new Node(2);
Tree.root.left = new Node(7);
tree.root.right = new Node(5);
tree.root.left.right = new Node(6);
tree.root.left.right.left = new Node(1);
tree.root.left.right.right = new Nodel(10);
tree.root.right.left = new Node(9);
tree.root.right.right.left = new Node(4);
System.out.print1n(“Maximum element is “
+tree.findMax(tree.root));
}
}
java -cp /tmp/VfsLLBx0eD BinaryTree
Maximum elements is 10
Deep Copy |
Shallow Copy |
It stores copies of object values. |
It stores references of objects in memory addresses. |
It is slower since we allocate new memory. |
It is faster since we don’t allocate any new memory. |
It is expensive. |
It is not costly. |
By overriding the clone () method, we can allow it to support deep copy. |
Default Clone () method supports shallow copy. |
Original objects, as well as cloned objects, are disjoint. |
Original objects, as well as cloned objects, are not disjoint. |
Min heap |
Max heap |
Each node in the tree has a value greater than its children |
Each node in the tree has a value less than its children |
The root node usually has the minimum value. |
The root node usually has the maximum value. |
The minor component is jumped from the heap first. |
The highest component is bounced from the heap first. |
It follows the descending priority. |
It follows the ascending priority |