by Joche Ojeda | Apr 20, 2024 | C#
Finding Out the Invoking Methods in .NET
In .NET, it’s possible to find out the methods that are invoking a specific method. This can be particularly useful when you don’t have the source code available. One way to achieve this is by throwing an exception and examining the call stack. Here’s how you can do it:
Throwing an Exception
First, within the method of interest, you need to throw an exception. Here’s an example:
public void MethodOfInterest()
{
throw new Exception("MethodOfInterest was called");
}
Catching the Exception
Next, you need to catch the exception in a higher level method that calls the method of interest:
public void InvokingMethod()
{
try
{
MethodOfInterest();
}
catch (Exception ex)
{
Console.WriteLine(ex.StackTrace);
}
}
In the catch block, we print the stack trace of the exception to the console. The stack trace is a string that represents a stack of method calls that leads to the location where the exception was thrown.
Examining the Call Stack
The call stack is a list of all the methods that were in the process of execution at the time the exception was thrown. By examining the call stack, you can see which methods were invoking the method of interest.
Here’s an example of what a call stack might look like:
at Namespace.MethodOfInterest() in C:\Path\To\File.cs:line 10
at Namespace.InvokingMethod() in C:\Path\To\File.cs:line 20
In this example, InvokingMethod was the method that invoked MethodOfInterest.
Conclusion
By throwing an exception and examining the call stack, you can find out which methods are invoking a specific method in .NET. This can be a useful debugging tool, especially when you don’t have the source code available.
by Joche Ojeda | Apr 19, 2024 | Blockchain
Blockchain in Healthcare: A Revolution in Medical Records Management
Introduction
In the digital age, the healthcare industry is constantly evolving. One of the most promising advancements is the application of blockchain technology, specifically Ethereum-like blockchains, in managing medical records. This technology offers a secure, decentralized, and transparent platform that can address many of the pressing issues in healthcare.
The Problem with Current Systems
The current healthcare systems are often fragmented and siloed, leading to incomplete records at the point of care and difficult access to patients’ own health information. This lack of interoperability between clinical data structures at both individual and community levels often results in patients receiving unnecessary medical services, such as repeated blood tests or physical examinations. Moreover, healthcare providers often do not have complete access to a patient’s medical records, which can lead to inadequate diagnosis or treatment.
The Blockchain Solution
Blockchain technology, particularly Ethereum-like blockchains, can revolutionize the healthcare industry by providing a secure and organized exchange of data within the medical community through shared repositories. These mechanisms aim to protect patient records and anonymity, making doctors more aware of their patients’ medical histories.
Blockchain technology alleviates the reliance on a centralized authority to certify information integrity and ownership, as well as mediate transactions and exchange of digital assets. It possesses key properties, such as immutability, decentralization, and transparency.
Use Cases of Blockchain in Healthcare
Patient Record Management
One of the most promising use cases of blockchain in healthcare is patient record management. Blockchain can enable access to longitudinal, complete, and tamper-aware medical records that are stored in fragmented systems in a secure and pseudo-anonymous fashion. This can grant patients complete ownership of their health records so that they can give or revoke access to their data at any time.
Drug Supply Chain Tracking
Blockchain can also be used to tackle the illicit shipment or unlawful processing of controlled drugs. It offers an opportunity to register, provide a chronology, and show the identity details of drugs in an immutable database. This secure monitoring of the supply chain and the traceability of medical products is important to avoid the sale of illegal or illicit drugs.
Conclusion
The application of Ethereum-like blockchain in healthcare, particularly in managing medical records, presents a promising solution to the current challenges in the healthcare industry. By providing a secure, decentralized, and transparent platform, blockchain technology can revolutionize the way we manage and access medical records, ultimately leading to improved patient care and health outcomes.
by Joche Ojeda | Apr 18, 2024 | Carbon Credits, Uncategorized
As we face the urgent need to address climate change, innovative solutions are crucial. One such solution lies in using blockchain technology, similar to Ethereum, Polygon, or TON, to manage carbon credits. In this article, we’ll break down what carbon credits are, how blockchain can revolutionize their management, and why it matters to you.
What Are Carbon Credits?
Carbon credits are like digital tokens representing a company’s right to emit a specific amount of carbon dioxide. The goal is to reduce overall emissions by making these credits tradeable. Here’s how blockchain can help:
- Transparency and Trust: Blockchain operates as a decentralized digital ledger, recording transactions securely and transparently. This ensures that every carbon credit is unique and not double-counted. Imagine it as a tamper-proof ledger that tracks emissions accurately.
- Efficiency: Automating the tracking and management of carbon credits using smart contracts reduces errors and speeds up the process. It’s like having an automated carbon accountant!
- Security: Blockchain ensures the integrity of each credit. No one can manipulate the system, making it reliable for investors and companies alike.
Use Cases
- Carbon Credit Trading: Blockchain can amplify voluntary carbon markets, channeling billions of dollars toward green investments. It allows seamless trading of credits, benefiting both the environment and investors.
- Parametric Insurance: Smart contracts can facilitate the adoption of parametric insurance for climate events. Imagine insurance payouts triggered automatically based on predefined conditions (e.g., extreme weather events).
- Open Data Infrastructure: Blockchain can create an open data infrastructure for climate information. Reliable climate data helps businesses identify investment opportunities and assess risks related to climate change.
Why Should You Care?
As an American around 50 years old, you’ve witnessed environmental changes. Blockchain can empower you to:
- Invest Responsibly: Understand where your investments go and support companies with sustainable practices.
- Track Your Carbon Footprint: Imagine a personal carbon ledger that shows your impact and helps you make greener choices.
- Advocate for Change: Educate others about blockchain’s potential in combating climate change.
Remember, blockchain isn’t just for tech enthusiasts—it’s a tool for everyone to create a greener future. So, let’s embrace it and contribute to a more sustainable world! 🌎✨
Previous Articles
Carbon Sequestration: A Vital Process for Climate Change Mitigation
Understanding Carbon Credit Allowances
Carbon Credits 101
by Joche Ojeda | Apr 18, 2024 | network, Uncategorized
In today’s digital age, ensuring the security of our online activities and expanding the capabilities of our home networks are more important than ever. Two powerful tools that can help you achieve these goals are OpenVPN and DD-WRT. Here’s a straightforward guide to understanding what these technologies are and how they can be beneficial.
What is OpenVPN?
OpenVPN is a software application that allows you to create a secure connection over the internet between your computer and a server. Think of it as a protective tunnel for your internet traffic, shielding your data from prying eyes. This is particularly useful if you often use public Wi-Fi networks, which can be less secure and more vulnerable to hacking. By using OpenVPN, you can ensure that your sensitive information, such as passwords and personal details, are encrypted and safe from cyber threats.
Key Benefits of OpenVPN:
- Security: Encrypts your internet connection to provide enhanced security.
- Privacy: Masks your IP address, which helps keep your online activities private.
- Accessibility: Allows you to access websites and services that may be restricted in your area.
What is DD-WRT?
DD-WRT is a type of firmware that can replace the default firmware on your wireless router. Firmware is essentially the operating system that runs on your router, managing everything from network traffic to security features. Many factory-installed firmwares provide only basic functionalities. DD-WRT, on the other hand, is an open-source alternative that boosts your router’s capabilities significantly.
Key Benefits of DD-WRT:
- Enhanced Performance: Improves Wi-Fi signal strength and extends the range of your network.
- Advanced Features: Offers features like bandwidth monitoring, access controls, and the ability to set up a virtual private network (VPN).
- Customization: Allows more control over your network’s behavior and settings.
Why Combine OpenVPN with DD-WRT?
Using OpenVPN in conjunction with DD-WRT can transform your router into a powerful gateway that secures your entire home’s internet traffic. By installing OpenVPN on a DD-WRT router, you can ensure that all data passing through your router is encrypted, which adds an extra layer of security to every device connected to your network.
How Can You Get Started?
Setting up OpenVPN and DD-WRT might sound daunting, but there are plenty of resources and guides available to help you. Many communities and forums are dedicated to DD-WRT and OpenVPN, where you can find detailed instructions and get advice from experienced users. Additionally, considering a professional setup might be a good idea if you’re not comfortable undertaking the installation yourself.
Troubleshooting Common OpenVPN Issues on DD-WRT Routers
DD-WRT routers are popular for their robust features and flexibility compared to standard firmware shipped with wireless routers. However, setting up advanced features like an OpenVPN client can sometimes lead to errors if not configured correctly. Two common issues encountered during OpenVPN setups on DD-WRT routers are: unrecognized options in the configuration and errors related to Data Channel Offload (DCO). Here, we’ll walk through solutions to these problems, ensuring a smoother VPN experience.
Issue 1: Unrecognized Option “block-outside-dns“
Problem Description:
The error “Options error: Unrecognized option or missing or extra parameter(s) in [PUSH-OPTIONS]:3: block-outside-dns (2.6.10)” typically indicates that the OpenVPN client on DD-WRT does not recognize or support the `block-outside-dns` directive. This directive is commonly used on Windows clients to prevent DNS leaks but is not applicable or necessary for DD-WRT setups.
Solution Steps:
- Access Your VPN Server Configuration: Log into your OpenVPN server where your VPN configuration files are stored. This might be a PiVPN setup on a Raspberry Pi or any other Linux-based server running OpenVPN.
- Modify the Server Configuration:
- Restart the OpenVPN Service: Apply the changes by restarting the OpenVPN service with
sudo systemctl restart openvpn@server.
- Verify on DD-WRT: Reconnect the DD-WRT router to your VPN to ensure the error does not reappear.
Issue 2: Error Installing Key Material in DCO
Problem Description:
The error “Impossible to install key material in DCO: No such file or directory” refers to problems involving the Data Channel Offload feature, which is intended to enhance VPN performance by offloading certain processing tasks from the CPU.
Solution Steps:
- Check VPN Configuration Files: Ensure all necessary certificates and keys (CA certificate, client certificate, and client key) are correctly placed and accurately referenced in your DD-WRT’s VPN configuration.
- Disable DCO (If Unnecessary):
- DCO might not be supported adequately by all hardware or DD-WRT builds. To disable DCO, access the VPN configuration file on your router via the administration interface.
- Look for any DCO-related directives and disable them (comment out or remove). You can disable DCO by using the following line to the additional configuration section of your OpenVPN configuration
disable-dco
- Firmware Update: Confirm that your DD-WRT firmware is up to date, as updates may include fixes and enhancements for VPN functionalities.
- Check File Paths and Permissions: Use SSH to connect to your router and verify that all referenced files in your VPN configuration exist at the specified paths and have appropriate permissions.
- Consult Community Forums: If the issue persists, the DD-WRT community forums are a valuable resource for troubleshooting specific to your router model and firmware version.
Final Thoughts
Troubleshooting VPN issues on DD-WRT can be complex, but resolving these common errors can greatly enhance your network’s functionality and security. Ensuring that your VPN configuration is appropriate for your specific router and keeping your system up-to-date are critical steps in maintaining a secure and efficient network.
In conclusion, both OpenVPN and DD-WRT are excellent tools to enhance the security and functionality of your home network. Whether you’re looking to protect your personal information or simply want to boost your internet connection across your household, these technologies offer practical solutions that are worth considering. Embrace these tools to take control of your digital home environment and enjoy a safer, more efficient online experience.
by Joche Ojeda | Apr 16, 2024 | Blockchain
Understanding Ethereum and Smart Contracts
The Ethereum Virtual Machine (EVM) is akin to a global, decentralized computer that exists across thousands of individual computers worldwide. This “computer” executes programs known as smart contracts, which are automated contracts whose terms are written directly into code, allowing them to operate independently of intermediaries.
How Smart Contracts Work
Smart contracts streamline processes such as digital agreements and transactions. For example, in a leasing agreement, a smart contract can automate monthly rent payments from a tenant’s digital wallet to a landlord’s wallet, adhering to the terms with precision and reliability. This automation is set into motion through the following steps:
- Creation: A developer writes the contract in a specific programming language.
- Deployment: The contract is uploaded to the Ethereum blockchain.
- Execution: It is then executed automatically by the EVM upon being triggered by transactions.
Comparing Blockchain Platforms
While Ethereum was the pioneer, other blockchains like Solana, Polygon, and TON (The Open Network) also support smart contracts, each offering unique benefits.
Solana
- High Speed: Solana processes thousands of transactions per second, offering a significant speed advantage over Ethereum.
- Low Costs: Its efficiency ensures that transaction fees are minimal, fostering cost-effective operations.
- Scalability: The design allows scaling with hardware advancements, maintaining high-speed capabilities.
Polygon
- Ethereum Compatibility: Acts as a side-chain to Ethereum, facilitating faster and cheaper transactions.
- Low Transaction Fees: By processing transactions off the main Ethereum chain, it reduces costs significantly.
- Speed: Provides quicker transaction processing times, enhancing the user experience.
TON (The Open Network)
- Speed and Efficiency: Designed for quick processing at low costs, suitable for high-load applications.
- Versatility: Supports features like user-friendly wallet services and decentralized storage.
- User-Friendliness: Focuses on accessibility, aiming to bring blockchain to the mainstream.
These platforms enhance user experience through faster transactions and reduced costs, support high transaction volumes, and offer security and reliability due to their decentralized nature. Each blockchain serves different use cases, allowing developers to choose based on their specific needs for efficiency and functionality.
by Joche Ojeda | Mar 8, 2024 | Uncategorized
Navigating the Challenges of Event-Based Systems
Event-based systems have emerged as a powerful architectural paradigm, enabling applications to be more scalable, flexible, and decoupled. By orchestrating system behaviors through events, these architectures facilitate the design of responsive, asynchronous systems that can easily adapt to changing requirements and scale. However, the adoption of event-based systems is not without its challenges. From debugging complexities to ensuring data consistency, developers must navigate a series of hurdles to leverage the full potential of event-driven architectures effectively. This article delves into the critical challenges associated with event-based systems and provides insights into addressing them.
Debugging and Testing Complexities
One of the most daunting aspects of event-based systems is the complexity involved in debugging and testing. The asynchronous and decoupled nature of these systems makes it challenging to trace event flows and understand how components interact. Developers must adopt sophisticated tracing and logging mechanisms to visualize event paths and diagnose issues, which can significantly increase the complexity of testing strategies.
Ensuring Event Ordering
Maintaining a correct sequence of event processing is crucial for the integrity of an event-based system. This becomes particularly challenging in distributed environments, where events may originate from multiple sources at different times. Implementing mechanisms to ensure the orderly processing of events, such as timestamp-based ordering or sequence identifiers, is essential to prevent race conditions and maintain system consistency.
Complex Error Handling
Error handling in event-driven architectures requires careful consideration. The loose coupling between components means errors need to be communicated and handled across different parts of the system, often necessitating comprehensive strategies for error detection, logging, and recovery.
Latency and Throughput Challenges
Balancing latency and throughput is a critical concern in event-based systems. While these architectures can scale effectively by adding more consumers, the latency involved in processing and reacting to events can become a bottleneck, especially under high load conditions. Designing systems with efficient event processing mechanisms and scaling strategies is vital to mitigate these concerns.
Mitigating Event Storms
Event storms, where a flood of events overwhelms the system, pose a significant risk to the stability and performance of event-based architectures. Implementing back-pressure mechanisms and rate limiting can help control the flow of events and prevent system overload.
Dependency Management
Although event-based systems promote decoupling, they can also introduce complex, hidden dependencies between components. Managing these dependencies requires a clear understanding of the event flow and interactions within the system to avoid unintended consequences and ensure smooth operation.
Data Consistency and Integrity
Maintaining data consistency across distributed components in response to events is a major challenge. Event-based systems often require strategies such as event sourcing or implementing distributed transactions to ensure that data remains consistent and accurate across the system.
Security Implications
The need to secure event-driven architectures cannot be overstated. Events often carry sensitive data that must be protected, necessitating robust security measures to ensure data confidentiality and integrity as it flows through the system.
Scalability vs. Consistency
Event-based systems face the classic trade-off between scalability and consistency. Achieving high scalability often comes at the cost of reduced consistency guarantees. Finding the right balance based on system requirements is critical to the successful implementation of event-driven architectures.
Tooling and Monitoring
Effective monitoring and management are essential for maintaining the health of an event-based system. However, the lack of visibility into asynchronous event flows and distributed components can make monitoring challenging. Selecting the right set of tools that offer comprehensive insights into the system’s operation is crucial.
Conclusion
While event-based systems offer numerous advantages, successfully implementing them requires overcoming a range of challenges. By understanding and addressing these challenges, developers can build robust, scalable, and efficient event-driven architectures. The key lies in careful planning, adopting best practices, and leveraging appropriate tools and technologies to navigate the complexities of event-based systems. With the right approach, the benefits of event-driven architecture can be fully realized, leading to more responsive and adaptable applications.
by Joche Ojeda | Mar 7, 2024 | C#, dotnet, netcore, netframework
Understanding AppDomains in .NET Framework and .NET 5 to 8
AppDomains, or Application Domains, have been a fundamental part of isolation and security in the .NET Framework, allowing multiple applications to run under a single process without affecting each other. However, the introduction of .NET Core and its evolution through .NET 5 to 8 has brought significant changes to how isolation and application boundaries are handled. This article will explore the concept of AppDomains in the .NET Framework, their transition and replacement in .NET 5 to 8, and provide code examples to illustrate these differences.
AppDomains in .NET Framework
In the .NET Framework, AppDomains served as an isolation boundary for applications, providing a secure and stable environment for code execution. They enabled developers to load and unload assemblies without affecting the entire application, facilitating application updates, and minimizing downtime.
Creating an AppDomain
using System;
namespace NetFrameworkAppDomains
{
class Program
{
static void Main(string[] args)
{
// Create a new application domain
AppDomain newDomain = AppDomain.CreateDomain("NewAppDomain");
// Load an assembly into the application domain
newDomain.ExecuteAssembly("MyAssembly.exe");
// Unload the application domain
AppDomain.Unload(newDomain);
}
}
}
AppDomains in .NET 5 to 8
With the shift to .NET Core and its successors, the concept of AppDomains was deprecated, reflecting the platform’s move towards cross-platform compatibility and microservices architecture. Instead of AppDomains, .NET 5 to 8 emphasizes on assembly loading contexts for isolation and the use of containers (like Docker) for application separation.
AssemblyLoadContext in .NET 5 to 8
using System;
using System.Reflection;
using System.Runtime.Loader;
namespace NetCoreAssemblyLoading
{
class Program
{
static void Main(string[] args)
{
// Create a new AssemblyLoadContext
var loadContext = new AssemblyLoadContext("MyLoadContext", true);
// Load an assembly into the context
Assembly assembly = loadContext.LoadFromAssemblyPath("MyAssembly.dll");
// Execute a method from the assembly (example method)
MethodInfo methodInfo = assembly.GetType("MyNamespace.MyClass").GetMethod("MyMethod");
methodInfo.Invoke(null, null);
// Unload the AssemblyLoadContext
loadContext.Unload();
}
}
}
Differences and Considerations
- Isolation Level: AppDomains provided process-level isolation without needing multiple processes. In contrast,
AssemblyLoadContext provides a lighter-weight mechanism for loading assemblies but doesn’t offer the same isolation level. For higher isolation, .NET 5 to 8 applications are encouraged to use containers or separate processes.
- Compatibility: AppDomains are specific to the .NET Framework and are not supported in .NET Core and its successors. Applications migrating to .NET 5 to 8 need to adapt their architecture to use
AssemblyLoadContext or explore alternative isolation mechanisms like containers.
- Performance: The move away from AppDomains to more granular assembly loading and containers reflects a shift towards microservices and cloud-native applications, where performance, scalability, and cross-platform compatibility are prioritized.
Conclusion
While the transition from AppDomains to AssemblyLoadContext and container-based isolation marks a significant shift in application architecture, it aligns with the modern development practices and requirements of .NET applications. Understanding these differences is crucial for developers migrating from the .NET Framework to .NET 5 to
by Joche Ojeda | Feb 3, 2024 | Carbon Credits
Carbon sequestration is a critical process that captures and stores carbon dioxide from the atmosphere, playing a significant role in mitigating the effects of global climate change caused by elevated levels of carbon dioxide.
The Carbon Cycle
Carbon, a vital element for life, circulates in various forms on Earth, combining with oxygen to form carbon dioxide (CO2), a gas that traps heat. This gas is emitted both naturally and through human activities, mainly from the combustion of fossil fuels.
Types of Carbon Sequestration
Carbon sequestration is divided into two categories: biological and geological.
Biological Carbon Sequestration
This type of sequestration involves the storage of CO2 in vegetation, soils, and oceans. Plants absorb carbon during photosynthesis, converting it into soil organic carbon (SOC).
Geological Carbon Sequestration
Geological sequestration refers to the storage of CO2 in underground geological formations. The CO2 is liquefied under pressure and injected into porous rock formations.
What Happens to Sequestered Carbon?
Sequestered carbon undergoes various processes. In biological sequestration, it is stored in plant matter and soil, potentially being released back into the atmosphere upon the death of the plant or disturbance of the soil. In geological sequestration, CO2 is stored deep underground, where it may eventually dissolve in subsurface waters.
Side Effects of Carbon Sequestration
While carbon sequestration offers a promising solution to climate change, it comes with potential side effects. For geological sequestration, risks include leakage due to rock layer fractures or well issues, which could contaminate soil and groundwater. Additionally, CO2 injections might trigger seismic events or cause pH levels in water to drop, leading to rock weathering.
In conclusion, carbon sequestration presents a viable method for reducing the human carbon footprint, but its potential side effects and the sequestered carbon must be carefully monitored.
Sources of Information
- “Carbon Sequestration”, National Geographic
- “Carbon Sequestration”, U.S. Department of Energy
- “Geological Carbon Sequestration”, U.S. Geological Survey
- “Seismic events triggered by CO2 injection”, ScienceDirect
- “Effects of CO2 on pH of water samples”, Journal of Environmental Science
- “Soil Organic Carbon”, Soil Science Society of America
- “Carbon Sequestration in Subsurface Waters”, Nature Geoscience
by Joche Ojeda | Jan 31, 2024 | Carbon Credits
Understanding Carbon Credit Allowances
Carbon credit allowances are a key component in the fight against climate change. They are part of a cap-and-trade system designed to reduce greenhouse gas emissions by setting a limit on emissions and allowing the trading of emission units, which are known as carbon credits. One carbon credit is equivalent to one ton of carbon dioxide or the mass of another greenhouse gas with a similar global warming potential1.
How Carbon Credit Allowances Work
In a cap-and-trade system, a governing body sets a cap on the total amount of greenhouse gases that can be emitted by all covered entities. This cap is typically reduced over time to encourage a gradual reduction in overall emissions. Entities that emit greenhouse gases must hold sufficient allowances to cover their emissions, and they can obtain these allowances through initial allocation, auction, or trading with other entities.
Entities Issuing Carbon Credit Allowances in North America
In North America, several entities are responsible for issuing carbon credit allowances:
- California Air Resources Board (CARB): CARB oversees California’s cap-and-trade program, which is one of the largest in the world. It issues allowances that can be traded within California and with linked programs4.
- Regional Greenhouse Gas Initiative (RGGI): RGGI is a cooperative effort among Eastern states to cap and reduce CO2 emissions from the power sector. It provides allowances through auctions2.
- Quebec’s Cap-and-Trade System: Quebec has linked its cap-and-trade system with California’s, forming a large carbon market in North America. The government of Quebec issues offset credits4.
Additionally, there are voluntary standards and registries such as Verra, the Climate Action Reserve, the American Carbon Registry, and Gold Standard that develop and certify projects for carbon credits used in quasi-compliance markets like CORSIA and Emission Trading Schemes1.
Conclusion
Carbon credit allowances are an essential tool for managing greenhouse gas emissions and incentivizing the reduction of carbon footprints. The entities mentioned above play a pivotal role in the North American carbon market, providing the framework for a sustainable future.
For more information on these entities and their programs, you can visit their respective websites:
By understanding and participating in carbon credit allowance systems, businesses and individuals can contribute to the global effort to mitigate climate change and move towards a greener economy.
by Joche Ojeda | Jan 29, 2024 | A.I
Good News for Copilot Users: Generative AI for All!
Exciting developments are underway for users of Microsoft Copilot, as the tool expands its reach and functionality, promising a transformative impact on both professional and personal spheres. Let’s dive into the heart of these latest updates and what they mean for you.
Copilot’s Expanding Horizon
Originally embraced by industry giants like Visa, BP, Honda, and Pfizer, and with support from partners including Accenture, KPMG, and PwC, Microsoft Copilot has already been making waves in the business world. Notably, an impressive 40% of Fortune 100 companies participated in the Copilot Early Access Program, indicating its wide acceptance and potential.
Copilot Pro: A Game Changer for Individuals
The big news is the launch of Copilot Pro, specifically designed for individual users. This is a significant step in democratizing the power of generative AI, making it accessible to a broader audience.
Three Major Enhancements for Organizations
- Copilot for Microsoft 365 Now Widely Available: Small and medium-sized businesses, ranging from solo entrepreneurs to fast-growing startups with up to 300 people, can now leverage the full power of Copilot as it becomes generally available for Microsoft 365.
- No More Seat Limits: The previous requirement of a 300-seat minimum purchase for Copilot’s commercial plans has been lifted, offering greater flexibility and scalability for businesses.
- Expanded Eligibility: In a strategic move, Microsoft has removed the necessity for a Microsoft 365 subscription to use Copilot. Now, Office 365 E3 and E5 customers are also eligible, widening the potential user base.
A Future Fueled by AI
This expansion marks a new chapter for Copilot, now available to a vast range of users, from individuals to large enterprises. The anticipation is high to see the innovative ways in which these diverse groups will utilize Copilot.
Stay Updated
For more in-depth information and to stay abreast of the latest developments in this exciting journey of Microsoft Copilot, be sure to check out Yusuf Mehdi’s blog. You can find the link in the comments below.
Link to Yusuf Mehdi’s blog
