Nutanix, Inc., founded in 2009 by Dheeraj Pandey, Mohit Aron, and Ajeet Singh, is a San Jose, California-based company specializing in cloud software and hyperconverged infrastructure (HCI). It provides a unified platform for managing applications and data across hybrid multicloud environments, including on-premises datacenters, public clouds (AWS, Azure, Google Cloud), and edge locations. 
Nutanix’s core offerings include the Nutanix Cloud Platform, which integrates compute, storage, virtualization, and networking, supporting diverse workloads like enterprise applications, AI, databases, and virtual desktops. Key products include Acropolis Hypervisor (AHV), Prism (management software), Nutanix Cloud Clusters (NC2), and Nutanix Unified Storage.
The company pioneered HCI, combining traditional server, storage, and virtualization silos into a single, software-defined solution. It transitioned from hardware appliances to a software-focused, subscription-based model in 2021, emphasizing scalability, simplicity, and cost-efficiency. Nutanix supports multiple hypervisors (AHV, VMware ESXi, Microsoft Hyper-V) and container platforms, catering to industries like automotive, healthcare, education, and finance. It operates globally, with offices in over 35 countries, and collaborates with partners like Cisco, Dell, Microsoft, and NVIDIA.
Financially, Nutanix is publicly traded (NASDAQ: NTNX) with a market cap of $19.5 billion as of March 2025 and trailing 12-month revenue of $2.32 billion. It has raised $317 million in funding from investors like Lightspeed Venture Partners and Goldman Sachs. The company employs around 8,239 people as of 2023 and is noted for a positive workplace culture, with a 4.2/5 Glassdoor rating and 90% employee approval on Great Place to Work surveys.
Competitors include VMware, Dell EMC, HPE (SimpliVity), and NetApp. Nutanix has benefited from customer shifts away from VMware post its 2023 Broadcom acquisition, with reported revenue growth and a net profit of $56.4 million in Q2 2025. However, it faced challenges like a 2020 furlough of 1,500 employees due to COVID-19 and a 2022 dispute with MinIO over software license violations. Recent initiatives focus on AI integration, sustainability, and partnerships, such as with Pure Storage and Omnissa, to enhance storage and virtual desktop solutions.
| IP Address | MAC Address |
| IP is the short form of Internet Protocol. | MAC is the short form for Media Access Control. |
| It is a four-byte or sixteen-byte hexadecimal address. | It is a four-byte hexadecimal address. |
| It is the logical address of a computer. | It is the physical address of a computer. |
| It works at the network layer. | It works at the datalink layer. |
| We can use IP addresses for broadcasting as well as multicasting. | We can use MAC addresses for broadcasting. |
enabled=false’. And by default, this argument is set to ‘true’.SkipException’ and skips the test.DELETE, INSERT, and UPDATE. A trigger works based on the event-condition-action rule. It means whenever an event occurs, a specific condition is tested. If the condition is met, then there will be definite action.OutOfMemoryError exception is usually thrown whenever the Java Virtual Machine runs out of memory and cannot allocate an object. The trash collector was unable to release any more memory. OutOfMemoryError frequently indicates that you're doing something incorrectly, such as holding on to objects for too long or processing too much data at once. It can also suggest an out-of-control issue, as in a third-party library that caches strings or perhaps an application server that doesn't clear up after deployments. And it doesn't always have anything to do with the items on the heap. When a native allocation cannot be satisfied, the java.lang.OutOfMemoryError exception can be thrown by native library code (for example, if swap space is low). Let's look at some of the scenarios in which the OutOfMemory issue can occur.OutOfMemoryError with a detail MetaSpace is thrown. A java.lang.OutOfMemory Exception is thrown when the amount of native memory required for class metadata surpasses MaxMetaSpaceSize. The exception OutOfMemoryError with a detail MetaSpace is thrown.stack_trace_with_native_method: When this error message (reason stack trace with the native method) is thrown, a stack trace with a native method as the top frame is printed. This indicates that a native method has experienced an allocation failure. SetName(), setAge(), and setWriteOnly() are some examples. To make variables write-only, simply omit the get methods like getName(), getAge(), and so on.// C++
unsigned int multiply(unsigned int x, unsigned int y)
{
int ans = 0; // initialise the ans variable
// While the second number is not equal to 1
while (y > 0)
{
// If second number is odd, we will add the first number to ans
if (y & 1)
ans = ans + x;
// then multiply the first number by 2 and divide the second number by 2
x = x << 1;
y = y >> 1;
}
return ans;
}void delNode(ListNode* ptr)
{
// If the node to be deleted is the
// last node of linked list
if (!ptr->next)
{
free(ptr);
// this will simply make the node_ptr NULL.
return;
}
// if node to be deleted is the first or
// any node in between the linked list.
ListNode* temp = ptr->next;
ptr->val = temp->val;
ptr->next = temp->next;
free(temp);
}const long long MAX_CAP = 1000001;
// is_prime[] : is_prime[i] is true if the number i is prime
// prime[] : stores all the prime number less than N
// SPF[] : stores the smallest prime factor of a number
// [for Exp : smallest prime factor of '4' and '20'
// is '2' so we put SPF[4] = 2 , SPF[20] = 2 ]
vector<long long >is_prime (MAX_CAP , true);
vector<long long >prime;
vector<long long >smallest_prime_factor (MAX_CAP);
// function that generates all prime numbers less than N in O(n) time
void Seive(int N)
{
// 0 and 1 are not prime
is_prime[0] = is_prime[1] = false ;
// Fill the other entries
for (long long int i = 2; i < N ; i++)
{
// If is_prime[i] == true, then i is a
// prime number
if (is_prime[i] == true)
{
// push i into the prime vector
prime.push_back(i);
// A prime number itself is its own smallest
// prime factor
smallest_prime_factor[i] = i;
}
// Remove all multiples of i*prime[k] which are
// not prime by making is_prime[i*prime[j]] = false
// and set the smallest prime factor of i*prime[j] to prime[j]
// this loop will run only once for the number which is not prime
for (long long int k = 0;
k < (int)prime.size() &&
i*prime[k] < N && prime[k] <= smallest_prime_factor[i]; k++)
{
is_prime[i*prime[k]] = false;
// put the smallest prime factor of i*prime[j]
smallest_prime_factor[i*prime[k]] = prime[k];
}
}
}