Official Blog

Digital India: A Planning towards future or Enforcement of Technology

A lot has been done till date by the government of India with the Digital India plan, the idea behind this plan was definitely to just improve ourselves as to digital world and to adopt the changes as the world is changing so not to lack behind. It is mentioned in the website of digital India, that Digital India has a vision transform India into a digitally empowered society and knowledge economy. But my main concern is after the two years of the program being launched I dont see much of the people which is other than the young generation is not at all ready to run parallel to the rest India.

Digital India to them is like thrusting a piece of cake to their neck, it is good, it is healthy and even delicious but still not adaptive to the ones who dont want to eat. This is felt by most of the people in this country.

The main problem is that nobody knows what to do, how to do, and after some struggle if feels uncomfortable to them to do. The initiatives on infrastructure, services, and empowerment are really appreciable yet not reachable by most of the audience. What is needed is the consultation, which is also provided but not in the well-guided manner, which eventually makes out of no fruit.

The plans under digital India, Startup India, and Skill India also impacting great but still the thrust of hammer not enough to bend the metal, means a lot of promotion and consultation is needed to do reach out to people, ideas are endless by people for rural development and strong infrastructure and economic growth proper monitoring is needed, as a tree needed the most care when was a plant.

Digital India plan is definitely a boon for all individuals if they can utilize the opportunity, a complete description of approach and methodology for digital India program which looks very active words when you see in website but what is been acted, very little as per my knowledge.

 

Well, I am not here to just talk about everything that is dark going on in this world, many things goes positive and actually has changed after the Digital India plan. Plans which actually made an impact to the governance under the digital india are can be mentions as

  • High-speed connectivity and high-speed internet at most remote and inaccessible areas to grow the communication and connect India to the world and newer ideas. Its a National Rural Internet Mission.
  • E-Governance?Improving governance using technology. This is to improve the government to citizen interface for various service deliveries.
  • E-Kranti ?Deliver services electronically and thus in a faster and time-bound manner. This is helpful in education, healthcare, planning, security, financial inclusion, justice, farmers, etc.
  • Information for all –This will bring in transparency and accountability by easy and open access to documents and information to the citizens.
  • Electronics manufacturing ?This will encourage manufacturing of electronics in India and reduce electronics import and help in job creation too. This will help in achieving goals of Make in India initiative also.
  • Cyber Security ? Government giving now focus on the security part of the data that usually leaks and the data can be used in important hands
  • IT for jobs ?Skill India mission under the Digital India mission helping students to learn the practical and industrial level experience to enhance their performance.

After seeing all this points I think I have increased your dilemma that Digital India plan/campaign is really doing any good or was and is doing great. Well my point in this is that we are doing good, but changes always happen when you do great and with a great pace, I am much of concerned about over very slow growing and learning speed. We need to implement everything fast but at the same time made it convenient for people to use else it wont to anyone till we act on it strongly and boldly on it.

C James Yen said beautifully once that, Technical know-how of the experts must be transformed into practical do-how of the people.

Artificial Eye

The Artificial Eye: A Marvel of Medical and Engineering Innovation

By Author – Rishabh Sontakke

An artificial eye is a prosthetic replacement for a natural eye lost due to injury, disease, or congenital conditions. While it does not restore vision, it serves an important cosmetic and psychological role, helping individuals regain confidence and a natural appearance. Modern artificial eyes are not only realistic in appearance but can also move in coordination with the natural eye, thanks to advanced surgical and material innovations.


The Evolution of Artificial Eyes

Before artificial eyes were developed, people who lost an eye often wore an eye patch to cover the empty socket. With progress in medical technology, ocular prosthetics emerged as a more aesthetic and functional solution.
Today, most artificial eyes are made from medical-grade plastic, offering durability and lifelike realism. The average lifespan of a prosthetic eye is about 10 years, although children require more frequent replacements due to growth changes. A child may need four to five prostheses from infancy to adulthood.

According to the Society for the Prevention of Blindness, between 10,000 and 12,000 people lose an eye each year. Around 50% or more of these losses result from accidents, with men being more affected than women. Other causes include congenital conditions such as:

  • Microphthalmia – a condition where the eye is abnormally small and often non-functional.

  • Anophthalmia – a rare birth defect where one or both eyes are absent.

  • Retinoblastoma – a hereditary eye cancer present at birth that may require surgical removal of the affected eye to save the patient’s life.


The Surgical Process of Eye Replacement

Replacing a natural eye with an artificial one involves two key surgical steps, performed by an ophthalmologist or ocular surgeon.

1. Enucleation

In this procedure, the entire eyeball is removed. The surgeon severs the muscles attached to the sclera (the white part of the eye) and cuts the optic nerve, carefully extracting the eyeball from the socket.

A spherical implant made of materials like plastic, silicone, or glass is then inserted into the socket to restore volume and movement.

2. Evisceration

Here, the contents of the eyeball are removed, but the sclera and eye muscles remain intact. A prosthetic ball is placed inside the eye cavity and the wound is closed, allowing for natural-looking eye movement.

3. Conformer Placement

A conformer, a small plastic disc, is placed in the socket to maintain its shape and prevent shrinking during healing. This ensures a proper fit for the future prosthesis. The healing process typically takes four to six weeks, after which a custom artificial eye is fitted.


Materials Used in Artificial Eyes

The manufacturing of an artificial eye involves a variety of specialized materials:

  • Plastic – the main component of the prosthesis.

  • Wax and Plaster of Paris – used to create detailed molds.

  • Alginate – a seaweed-derived white powder used in the molding process.

  • High-quality paints and coatings – used to replicate the natural iris, veins, and sclera texture.

Each eye is custom-made to match the patient’s natural eye color, shape, and size — making every prosthesis a unique work of art and science.


The Manufacturing Process

Creating an artificial eye requires both artistic skill and medical precision. The entire process typically takes about 3 to 4 hours, though it may vary depending on the patient and the ocularist’s method.

There are two primary types of artificial eyes:

  1. Shell Type: A thin prosthesis fitted over a damaged or disfigured natural eye.

  2. Full Impression Type: Designed for patients who have had their eyeball completely removed.

Steps Involved:

  1. Inspection: The ocularist examines the eye socket’s shape and condition.

  2. Iris Painting: The iris is hand-painted to perfectly match the patient’s existing eye.

  3. Wax Mold Creation: A wax shell is carved and fitted into the socket to achieve comfort and alignment.

  4. Impression Making: Alginate cream is used to create a precise impression of the socket.

  5. Casting: A plaster-of-Paris cast is made from the mold to shape the prosthesis.

  6. Plastic Forming: The final prosthesis is cast using medical-grade plastic with the painted iris embedded.

  7. Polishing and Fitting: The artificial eye is polished, fitted into the socket, and adjusted for comfort and natural movement.

The result is a lifelike prosthetic eye that closely matches the real one — restoring not sight, but dignity, confidence, and normal appearance.


Future of Artificial Eyes

The future of ocular prosthetics looks promising, blending biomedical engineering, electronics, and computing innovations. Research is already underway to create bionic eyes capable of partially restoring sight.

One groundbreaking invention was the Bio-Eye Implant, approved by the U.S. FDA in 1989. Made from hydroxyapatite, a material derived from ocean coral, it mimics the structure of human bone and allows better integration with surrounding tissues. Over 25,000 people worldwide have benefited from this technology, which provides improved movement and prevents socket complications.

Researchers at MIT and Harvard University are now developing an artificial retina that may one day restore limited vision. This involves a biochip that interfaces with the retina’s ganglion cells and communicates with an external infrared laser system through special glasses worn by the patient.

If successful, such advancements could bridge the gap between cosmetic prosthetics and functional vision restoration, transforming millions of lives worldwide.


Conclusion

The development of artificial eyes stands as a testament to the incredible fusion of medicine, art, and technology. From ancient glass prostheses to modern computer-assisted designs, artificial eyes have evolved far beyond aesthetics — offering comfort, mobility, and hope.

While today’s artificial eyes cannot restore sight, ongoing research in bionics, robotics, and neural engineering holds the promise of making that vision a reality in the future.
Until then, artificial eyes continue to reflect not just light — but the resilience of the human spirit.

Introduction to Java

Understanding Java: The Language That Changed Programming Forever

By Author – Rashmita Soge

Java is one of the most influential and widely used programming languages in the world today. Created by James Gosling at Sun Microsystems in 1991, Java was designed with a clear mission — write once, run anywhere. This meant that a program written in Java could run seamlessly across multiple operating systems without needing to be rewritten.

The first public version, Java 1.0, was launched in 1995, marking the beginning of a new era in software development. Later, in 2010, Oracle Corporation acquired Sun Microsystems and took over the stewardship of Java. To support the open-source community, Java was made available under the GNU General Public License (GPL), and Oracle continues to manage its open-source version through OpenJDK.
Today, one of the most popular versions in use is Java 8, known for its efficiency, simplicity, and powerful features.


What is Java?

Java is a general-purpose, class-based, and object-oriented programming language. It is platform-independent, meaning programs can run on any system that supports Java, without modification. Java is also secure, portable, multithreaded, dynamic, and robust, making it an ideal choice for a wide range of applications — from desktop and mobile apps to enterprise and web-based systems.

In essence, Java allows developers to write code once and execute it anywhere, providing unmatched flexibility in today’s multi-platform world.


A Brief History of Java

The journey of Java began when James Gosling and his team — Michael Sheridan and Patrick Naughton — started working on a project called Project Green in 1991. Their goal was to develop a programming language for smart appliances and interactive devices that could deliver high performance, security, and portability.

Initially, the language was named Oak, after the tree outside Gosling’s office. However, due to a trademark conflict, it was later renamed Java. The first version, Java 1.0a2, along with the HotJava browser, was released in 1995 — introducing the world to the power of platform-independent programming.

The team set out some core principles for Java, ensuring that it was:

  • Secure and reliable

  • High performing

  • Portable and architecture-neutral

  • Threaded, interpreted, and dynamic

  • Entirely object-oriented

Over time, Java became the foundation of enterprise software and web technologies, powering millions of applications globally.


How Java Works

To understand Java’s power, it’s important to look at how it functions differently from other languages.

In traditional languages like C or C++, the compiler generates machine-specific code. For instance, a C++ program compiled on Windows will not run on Linux without recompilation.

Java solves this problem through its Java Virtual Machine (JVM). When you write Java code, it is compiled into bytecode instead of platform-specific code. This bytecode runs on the JVM, which acts as an interpreter between the Java program and the underlying operating system.

This process ensures that the same Java program can run on any device or OS that has a JVM installed — whether it’s Windows, macOS, or Linux.
In short, Java follows a compile once, run anywhere model.


Key Features of Java

Here are some of the most important characteristics that make Java a preferred language among developers:

  1. Platform Independent – Java programs run on any device that supports the JVM.

  2. Object-Oriented – Everything in Java is treated as an object, allowing for modular, reusable, and flexible code.

  3. Strongly Typed – Java requires explicit data type declarations, reducing errors.

  4. Interpreted and Compiled – Java code is both compiled into bytecode and interpreted by the JVM for faster execution.

  5. Automatic Memory Management – The Java Garbage Collector automatically frees up memory by removing unused objects, making the process safer and more efficient.


The Future of Java

Despite being more than two decades old, Java remains one of the most relevant and in-demand programming languages in the world. The continuous updates and strong community support ensure it stays modern and capable.

The Apache Maven build automation tool, widely used in Java-based projects, proves that Java continues to evolve with modern development practices. With Oracle’s ongoing commitment to enhancing Java, newer versions keep introducing improvements in performance, scalability, and developer productivity.

Even with competition from newer languages like .NET, Python, and Kotlin, Java continues to dominate due to its stability, strong security features, and massive ecosystem of frameworks and libraries.

Java’s long history has made it a trusted choice for enterprise-level applications, Android development, and large-scale web systems. Its simplicity, combined with power and reliability, ensures that Java is not going anywhere — it will continue to be a vital part of the programming world for decades to come.


Conclusion

From its humble beginnings in the early 90s to becoming a global standard in software development, Java has proven its worth as a versatile, secure, and efficient programming language.
It not only changed how software is written but also how it is executed across diverse platforms. With continued innovation and community support, Java will remain a cornerstone of modern programming — empowering developers to build reliable, high-performance applications that shape the future of technology.

By Author – Rashmita Soge

 

Java is a programming language created by James Gosling from Sun Microsystems (Sun) in 1991. The target of Java is to write a program once and then run this program on multiple operating systems. The first publicly available version of Java (Java 1.0) was released in 1995. Sun Microsystems was acquired by the Oracle Corporation in 2010. Oracle has now the steermanship for Java. In 2006 Sun started to make Java available under the GNU General Public License (GPL). Oracle continues this project called OpenJDK. Over time new enhanced versions of Java have been released. The current version of Java is Java 1.8 which is also known as Java 8.

Java is defined by a specification and consists of a programming language, a compiler, core libraries and a runtime (Java virtual machine) The Java runtime allows software developers to write program code in other languages than the Java programming language which still runs on the Java virtual machine. The Java platform is usually associated with the Java virtual machine and the Java core libraries.

What is java?

Java is a General Purpose, class-based, object-oriented, Platform independent, portable, Architecturally neutral, multithreaded, dynamic, distributed, Portable and robust interpreted Programming Language.

It is intended to let application developers “write once, run anywhere” meaning that compiled Java code can run on all platforms that support Java without the need for

History of Java

Java is the brainchild of Java pioneer James Gosling, who traces Javas core idea of, Write Once, Run Anywhere back to work he did in graduate school.

After spending time at IBM, Gosling joined Sun Microsystems in 1984. In 1991, Gosling partnered with Sun colleagues, Michael Sheridan and Patrick Naughton on Project Green, to develop new technology for programming next-generation smart appliances. Gosling, Naughton, and Sheridan set out to develop the project based on certain rules. They were specifically tied to performance, security, and functionality. Those rules were that Java must be:

  1. Secure and robust
  2. High performance
  3. Portable and architecture-neutral, which means it can run on any combination of software and hardware
  4. Threaded, interpreted, and dynamic
  5. Object-oriented

Over time, the team added features and refinements that extended the heirloom of C++ and C, resulting in a new language called Oak, named after a tree outside Goslings office.

After efforts to use Oak for interactive television failed to materialize, the technology was re-targeted for the world wide web. The team also began working on a web browser as a demonstration platform.

Because of a trademark conflict, Oak was renamed, Java, and in 1995, Java 1.0a2, along with the browser, name HotJava, was released. The Java language was designed with the following properties:

  • Platform independent: Java programs use the Java virtual machine as abstraction and do not access the operating system directly. This makes Java programs highly portable. A Java program (which is standard-compliant and follows certain rules) can run unmodified on all supported platforms, e.g., Windows or Linux.
  • Object-orientated programming language: Except the primitive data types, all elements in Java are objects.
  • Strongly-typed programming language: Java is strongly-typed, e.g., the types of the used variables must be pre-defined and conversion to other objects is relatively strict, e.g., must be done in most cases by the programmer.
  • Interpreted and compiled language: Java source code is transferred into the bytecode format which does not depend on the target platform. These bytecode instructions will be interpreted by the Java Virtual machine (JVM). The JVM contains a so-called Hotspot-Compiler which translates performance critical bytecode instructions into native code instructions.
  • Automatic memory management: Java manages the memory allocation and de-allocation for creating new objects. The program does not have direct access to the memory. The so-called garbage collector automatically deletes objects to which no active pointer exists.

How Java Works?

To understand the primary advantage of Java, you’ll have to learn about platforms. In most programming languages, a compiler generates code that can execute on a specific target machine. For example, if you compile a C++ program on a Windows machine, the executable file can be copied to any other machine but it will only run on other Windows machines but never another machine. A platform is determined by the target machine along with its operating system. For earlier languages, language designers needed to create a specialized version of the compiler for every platform. If you wrote a program that you wanted to make available on multiple platforms, you, as the programmer, would have to do quite a bit of additional work.? You would have to create multiple versions of your source code for each platform.

Java succeeded in eliminating the platform issue for high-level programmers because it has reorganized the compile-link-execute sequence at an underlying level of the compiler. Details are complicated but, essentially, the designers of the Java language isolated those programming issues which are dependent on the platform and developed low-level means to abstractly refer to these issues. Consequently, the Java compiler doesn’t create an object file, but instead it creates a bytecode file which is, essentially, an object file for a virtual machine.? In fact, the Java compiler is often called the JVM compiler. To summarize how Java works, think about the compile-link-execute cycle. In earlier programming languages, the cycle is more closely defined as “compile-link then execute”. In Java, the cycle is closer to “compile then link-execute”.

Future of Java

Java is not a legacy programming language, despite its long history. The robust use of Maven, the building tool for Java-based projects, debunks the theory that Java is outdated. Although there are a variety of deployment tools on the market, Apache Maven has by far been one of the largest automation tools developers use to deploy software applications.

With Oracles commitment to Java for the long haul, its not hard to see why Java will always be a part of programming languages for years to come and will remain as the chosen programming language. 2017 will see the release of the eighth version of Java-Java EE 8.

Despite its areas for improvement, and threat from rival programming languages like.NET, Java is here to stay. Oracle has plans for a new version release in the early part of 2017, with new supportive features that will strongly appeal to developers. Javas multitude of strengths as a programming language means its use in the digital world will only solidify. A language that was inherently designed for easy use has proved itself as functional and secure over the course of more than two decades. Developers who appreciate technological changes can also rest assured the tried-and-true language of Java will likely always have a significant place in their toolset.

GPS aircraft tracking

The Power of GPS in Aircraft Tracking: Revolutionizing Safety and Navigation

By Author – Samata Shelare

GPS technology has transformed the way we navigate on land, and now it’s revolutionizing how we fly. In aviation, GPS aircraft tracking plays a crucial role in ensuring both safety and convenience, serving commercial airlines, private planes, and even flight schools.

While GPS in cars helps us reach destinations on the road, its function in aircraft is far more advanced. It not only tracks the position of an aircraft in the sky but also keeps pilots, passengers, and air traffic controllers connected and safe throughout every journey.


How GPS Aircraft Tracking Works

Understanding how GPS tracking works in aviation helps reveal why it’s so valuable.
A small device with a GPS sensor is installed in the aircraft, transmitting real-time location data to a ground-based server. This allows air traffic controllers to monitor an aircraft’s exact position, altitude, and movement at any given time.

The placement of the GPS sensor may vary depending on the aircraft’s design, but the principle remains the same—continuous, precise tracking that ensures safer skies.


Beyond Safety: The Many Benefits of GPS Tracking

While safety is the most obvious advantage, GPS aircraft tracking offers many additional benefits.

  • Accurate Flight Time Estimation: Pilots can calculate precise departure and arrival times, helping airlines plan better and reduce delays.

  • Accident Assistance: In the rare event of an incident, GPS data can help rescuers locate the aircraft quickly.

  • Flight Training Support: Flight schools use GPS tracking to help student pilots follow specific flight paths set by instructors, ensuring better learning and safety.

In short, GPS tracking enhances not just aviation safety but also efficiency, planning, and education within the industry.


The Role of ADS-B Technology

A major advancement in aviation tracking is the Automatic Dependent Surveillance–Broadcast (ADS-B) system. Around 100 air traffic facilities around the world already use this technology, nearly half of the total 230 global facilities.

Experts estimate that by 2020, every major air traffic center would be equipped with ADS-B, making flight tracking more accurate and reliable. The biggest challenge lies in upgrading older aircraft with compatible systems.

ADS-B doesn’t just track airplanes—it also provides real-time weather updates and other environmental data to pilots. This helps them make better, faster decisions in response to changing flight conditions.


Addressing Tracking Challenges

Traditional radar systems have limitations, especially over oceans or remote regions where signals weaken or disappear entirely. This gap in radar coverage has been a significant issue in aviation safety.

Incidents like the missing Malaysian Airlines flight highlighted these vulnerabilities, as aircraft over vast bodies of water often become difficult to track. The introduction of GPS-based tracking systems like ADS-B helps overcome this challenge, allowing continuous communication and monitoring even in remote airspaces.


The Future of Safer Skies

Some international flights—particularly those traveling across the Atlantic and Pacific Oceans—already require GPS tracking systems due to the risks of losing radar contact. As technology advances, GPS-based navigation and tracking are becoming the new standard for global aviation.

GPS aircraft tracking may differ from the GPS we use in our daily commutes, but its impact is far greater. It ensures safer, smarter, and more connected skies, empowering pilots with real-time insights and giving passengers greater peace of mind.

ARCTIC APPLE

The Science Behind Non-Browning Apples — A Biotech Marvel

By Author – Ashish Kasture

We’ve all heard the saying, “An apple a day keeps the doctor away.” But now, thanks to biotechnology, you can have that apple with even more ease — without worrying about it turning brown after slicing.

Why Do Apples Float and Turn Brown?

Ever wondered why apples float on water? It’s because they contain about 25% air, making them less dense than water. Interestingly, apples also contain antioxidants and oxygen, which, when exposed to air, undergo a process called oxidation, leading to browning.

But modern biotechnology has given us a solution — non-browning apples.


Meet the Arctic Apple

The Arctic Apple is the world’s first genetically engineered apple approved for commercial sale. These trademarked apples maintain their original color even after being sliced, bitten, or bruised — all thanks to biotechnology and genetic engineering.

Developed by Okanagan Specialty Fruits, the innovation relies on gene silencing to reduce the expression of polyphenol oxidase (PPO) — the enzyme responsible for browning.


How Genetic Engineering Made It Possible

The Arctic Apple was created using a powerful biotech tool called RNA interference (RNAi).
This method silences PPO gene expression to less than 10% of normal levels, without affecting other traits of the apple.

Here’s how it works:

  • A transgene containing PPO-controlling sequences is introduced into the apple’s DNA.

  • Promoter and terminator genes ensure proper gene function.

  • A marker gene produces a protein (NPTII) that makes the plant resistant to antibiotics like kanamycin — confirming successful genetic transformation.

The result? Apples that stay fresh and white long after being cut, making them more convenient and visually appealing.


Convenience Meets Innovation

Arctic Apples are not “slow-browning” or “low-browning” — they’re non-browning.
By silencing the enzyme that causes browning, popular varieties like Golden Delicious and Granny Smith have been enhanced with what’s called the Arctic Advantage.

This breakthrough comes from the vision of Neal Carter, founder of Okanagan Specialty Fruits in 1996. Observing the decline in apple consumption alongside rising obesity rates, he aimed to make apples more accessible, convenient, and appealing.


Tackling Food Waste

Did you know that around 40% of all apples grown are wasted — mostly due to browning?
Non-browning apples significantly reduce food waste, as consumers are more likely to eat apples that look fresh and appetizing.

For busy lifestyles, pre-sliced Arctic Apples are ideal grab-and-go snacks. Traditional sliced apples require anti-browning treatments that can alter taste and add cost — but Arctic Apples stay naturally white and crisp.


Understanding Browning in Apples

There are two types of browning in apples:

  1. Primary (Enzymatic) Browning – caused by oxidation when cells are damaged, allowing PPO to react with phenolic compounds.

  2. Secondary Browning – occurs as the apple decomposes due to bacteria or fungi.

The severity of enzymatic browning varies among apple varieties depending on:

  • Levels of malic or citric acids (which slow reactions)

  • Amount of phenolic compounds

  • Cell wall strength

  • Natural PPO enzyme levels

Even slow-browning varieties still oxidize over time — but Arctic Apples do not, because their PPO enzyme activity is nearly eliminated.


The Future of Fruit

Arctic Apples mark a major milestone in agricultural biotechnology. They’re healthy, tasty, and help combat food waste, while supporting modern consumer needs for convenience and nutrition.

With Arctic Apples, enjoying a crisp, fresh, and beautiful apple has never been easier — no lemon juice, no preservatives, no rush. Just pure apple goodness, anytime.

GEAR DE-BURRING MACHINE

Gear deburring is a process that has changed substantially over the past 10 years. There have been advancements in the types of tools used for deburring operations and the development of “wet” machines, automatic load and unload, automatic part transfer and turnover, and vision systems for part identification, etc.

Three types of tools are used in the gear deburring process, including grinding wheels, brushes, and carbide tools. A discussion of each method is as follows.

Grinding Wheels
There are many wheel grits available, from 320 grit for small burrs and light chamfers, to 57 grit for large burrs and heavy chamfers, with numerous grit sizes in between. Grinding wheels will usually provide the required cosmetic appearance for a deburred gear. Setting up the grinding wheel is critical for good wheel life and consistent chamfers. The point of contact for the grinding wheel should be equal to the approach angle of the grinding head. For example, set a 45 approach angle for the grinding head with a protractor. Next, draw a line through the center of the grinding wheel followed by a line drawn 45 to the first line. The contact point between the gear and the grinding wheel should be at the 45 line.

The size of the chamfer attainable is determined by the size of the burr to be removed from the part. Further, three additional factors that affect chamfer size are wheel grit size, the speed of the work spindle, and the amount of pressure applied to the part by the grinding wheel. Grinding wheel speed is noted on the grinding wheel, and it is usually 15,000 to 18,000 RPM. The grinding wheels used most often are aluminum oxide.

Brushes
Parts with small burrs can be effectively deburred with a brush. Two types of brushes are used for deburring operations, those being wire and nylon. Wire brushes are made with straight, crimped, or knotted bristles. The wire diameter and length will determine how aggressively the brush will deburr. Nylon brushes can be impregnated with either aluminum oxide or silicon carbide, with grit size ranging from 80 to 400. The specific application will determine which type of brush is required. In applications where a heavy burr is to be removed with a grinding wheel or carbide tool, a brush is often used as a secondary process for removing small burrs created by the first process.
Carbide Tools
The use of carbide deburring tools is a relatively new development. There are three advantages to using carbide tools:
? Reduced deburring time. The carbide tools can run at 40,000 RPM, vs. 15,000 to 18,000 RPM for grinding wheels.

? Reduced setup time, because there is no need to establish an approach angle as with a grinding wheel.

? Ability to deburr cluster gears, or gears having the root of the tooth close to the gear shaft or hub.
Deburring Machine Features
The deburring process is accomplished with floating-style deburring heads having variable RPM air motors or turbines. The floating heads have air-operated, adjustable counterweights for adjusting the pressure applied to the part being deburred.
The floating heads can use grinding wheels, brushes, or carbide tools, and change-over from one to the other can be accomplished in a matter of minutes, providing versatility for doing a number of different parts on one machine.
ADVANTAGES:
1. Quick action clamping.
2. Precise indexing.
3. Multi-module indexer makes all range of spur gear de-burring possible
4. Fast action de-burring due to the sequential operation of the grinding head and indexer mechanism
5. Low-cost automation.
6. The flexibility of circuit design / can be converted into the fully automatic mode with minimal circuit components.
7. Low-cost automation process
8. Saves labor cost and monotony of operation.

APPLICATIONS:
1. Machine tool manufacturing industry.
2. Agriculture machinery manufacturing.
3. Molded gear industry.
4. Timer pulley manufacturing.
5. Sprocket and chain wheel manufacturing ..etc.

ReactJS

What is React?

React is a front-end library developed by Facebook. It is used for handling the view layer for web and mobile apps.

React is a library for building composable user interfaces. It encourages the creation of reusable UI components, which present data that changes over time. Lots of people use React to the V in MVC (Model View Controller). React abstracts away the DOM (Document Object Model) from you, offering a simpler programming model and better performance. React can also render on the server using Node, and it can power native apps using React Native. React implements one-way reactive data flow, which reduces the boilerplate and is easier to reason about than traditional data binding.

What is ReactJS?

ReactJS allows us to create reusable UI components. It is currently one of the most popular JavaScript libraries and has a strong foundation and large community behind it.

If you want to work with ReactJS, you need to have solid knowledge of?JavaScript, HTML5, and?CSS. Even though ReactJS doesn’t use HTML, the JSX is similar so your HTML knowledge will be very helpful.

Capabilities of ReactJS:-

  • JSX JSX is JavaScript syntax extension. It isn’t necessary to use JSX in React development, but it is recommended.
  • Components React is all about components. One need to think of everything as a component. This will help maintain the code when working on larger scale projects.
  • Unidirectional data flow and Flux React implements one-way data flow which makes it easy to reason about the app. Flux is a pattern that helps to keep your data unidirectional.
  • License React is licensed under the Facebook Inc. Documentation is licensed under CC BY 4.0.

Advantages of ReactJS:-

?

Adaptability

One of the most heartwarming features of React JS is its adaptability. What makes react perfectly is the capacity to get adopted with ease and convenience. Because of the short list of lifecycle approaches, this is very easy to understand and use. With the advent of ES2015 and ES2016, a more functional and user-friendly programming has become a cyber norm and render function of React JS makes it easy for React JS to comply with a user-friendly and functional programming style.

Usefulness of JSX
The separation of HTML from Java is still a hot debate among programmers. The makers of React JS believe that this separation is indeed a very shallow one as both of them were very well integrated. Thus they introduce JSX and React JS features make it very easy because JSX makes the reasoning of a module easier than ever.

?Free and OpenSource
If a software is free and it is open source, there is needless to say that it is going to be the new favorite of programmers and relevant community. React JS usage is although subject to the curation by Facebooks developers, it is still free and open source, which gives you a chance to get codes developed by elite and most enthusiastic developers.

?SCMA Script
Programmer community believes that React JS features will touch new heights because of the availability of ECMAScipt6 and 7. While the latter is still in progress, its features are being used by big-shot libraries. With help of any good ES transpiler, you can use these stunning features.

?Decorators from ES7
As it has been mentioned before, you do not need to wait for the ES7 features being supported by the Internet Explorer; you can use a transpiler for that. Decorators are one of the most useful features of React JS and they allow you to augment a functions behavior by simply wrapping that in a different function.

Server-side Communication
One of the main reasons why people expect a mass use of React JS is because of React JS features like server-side communication. The library of React JS empowers the programmers by giving them lifecycle hooks to enable the service requests. With help of this feature, you understand the mechanism of XHR requests and thus easily update your library to use them.

Light Railing for Applications
React JS is being used by different companies, developers, and programmers, but one reason why every IT company should consider React JS features, is its lifecycle methods, state and props capacity to provide enough railing to create useful apps. This railing, however, would not smother the free use of different libraries.

Asynchronous Functions & Generators
One of the main reasons for the immense React JS usage is the asynchronous functions and generators offered by ES6. The freedom to pause and resume the execution of a JavaScript function makes these generators popular among developers and programmers.

Flux Library
Like it has been said, React JS is actually a library made of Java scripts. Flux is one of the best libraries that complement React JS and make it very easy for the programmers to manage data across the whole application.

Destructuring Assignments
In ES6, Destructuring Assignments were introduced to the programmers. They allow the programmers to bring a compound object on the left side of an assignment. Having such an amazing feature, one can save some keystrokes and also load only a subset of a required module.
Out verdict goes in favor of React JS and considering very useful features that React JS introduces to the community, we can predict that React JS features will only make it skyrocket in the coming years.

Disadvantages of ReactJS

  1. The high pace of development:?The environment constantly changes, and developers must regularly relearn the new ways of doing things. Everything is evolving, and some developers are not comfortable with keeping up with such a pace.
  2. Poor documentation:?The problem with documentation traces back to constant releases of new tools. Different and new libraries like Redux and Reflux are promising to accelerate the work of a library or improve the entire React ecosystem. Developers struggle with integrating these tools with ReactJS.

Some members of the community think that React technologies are updating and accelerating so fast that there is no time to write proper instruction.

?HTML in my JavaScript!???JSX as a barrier

ReactJS uses?JSX. Some members of the development community consider JSX to be a serious disadvantage. Developers and designers complain about JSXs complexity and consequent steep learning curve.

React isn’t a framework

The looseness with which React can be employed is great for experimentation but challenging when you’re trying to do things the?right?way. Knowing there isn’t one yet will save you some time here.

Future Generation Mobile Phone -NOKIA MORPH TECHNOLOGY

No doubt that everybody is aware of the campaign Nokia- Connecting People. Nokia, from always has been the other name for Reinvention. People all over the globe found Nokia useful and trustworthy in both hardware and software. People found OS highly user-friendly that is used in Nokia mobile. Nokia creates the technology to connect the world. Lets know something about Nokia.
Nokia is a Finnish multinational corporation founded on the 12 May 1865 as a single paper mill operation. Through the 19th century, the company expanded, branching into several different products. In 1967, the Nokia Corporation was formed. In the late 20th century, the company took advantage of the increasing popularity of computer and mobile phones. However, increased competition and other market forces caused changes in Nokia’s business arrangements. In 2014, Nokia was sold to Microsoft. However, the use of Nokia branding and Nokia’s licensed technology continues. This was all about Nokia. Every successful company has some pros and cons, and so as with Nokia. There was a time when Nokia sold itself to Microsoft. There is the big story behind it, It all started in January 2013 with a phone call from Microsoft CEO Steve Ballmer to Nokia Chairman Risto Siilasmaa. Both Nokia and Microsoft were frustrated with the single digit market share of Windows Phone, despite both companies pouring money into marketing. Four main meetings resulted in the deal. Steve Ballmer at one point tripped over a glass table during meetings, resulted in a gash on his forehead. The deal stalled over both sides not seeing eye-to-eye on how much Nokia was worth and the value of HERE services.

We never did anything wrong but somehow we lost
Nokia CEO

This seems sad but Nokia never gives up. They are back with the motivation to achieve success once. This will of course take time, but not Failure.
As they never give up they are back with a new innovative idea NOKIA MORPH

Now, what is NOKIA MORPH?
The Nokia Morph is a concept mobile phone created by Finnish company Nokia. The concept, which was unveiled on February 25, 2008, at The Museum of Modern Art in New York City, was the product of a joint study into the future of mobile phones by the Nokia Research Center and the University of Cambridge’s Nanoscience Centre. The device was presented as part of the museum’s “Design and The Elastic Mind” exhibit. According to Bob Iannucci, Nokia’s chief technology officer, the “Nokia Research Center is looking at ways to reinvent the form and function of mobile devices… The Morph concept shows what might be possible.”
The device, which is non-functional, is intended to provide a conceptual showcase for future applications of nanotechnology in the realm of consumer electronics. The phone’s theoretical feature list would include the ability to bend into numerous shapes, so it can be worn around the wrist or held up to the face; transparent electronics, which would allow the device to be see-through yet functional; self-cleaning surfaces that can absorb solar energy to recharge the phone’s battery; and a wide range of fully integrated sensors. Nokia released a computer-generated video demonstrating the capabilities the Morph might have if it were a real mobile phone. The manufacturer believed that some of the device’s imagined features could appear in high-end devices by 2015.
On an iPhone, you touch on the digital keyboard and you know how the letter pops up and shows up bigger so youre making sure you are touching the correct letter? Thats Nokia Innovation

Some of its highlights will be:
Changing Design: Nanotechnology enables materials and components that are flexible, stretchable, transparent and remarkably strong. Fibril proteins are woven into a three-dimensional mesh that reinforces thin elastic structures. Using the same principle behind spider silk, this elasticity enables the device to literally change shapes and configure itself to adapt to the task at hand.
A folded design would fit easily in a pocket and could lend itself ergonomically to being used as a traditional handset. An unfolded larger design could display more detailed information, and incorporate input devices such as keyboards and touchpads. Even integrated electronics, from interconnects to sensors, and could share these flexible properties. Further, utilization of biodegradable materials might make production and recycling of devices easier and ecologically friendly.
Self-Cleaning: Nanotechnology also can be leveraged to create self-cleaning surfaces on mobile devices, ultimately reducing corrosion, wear and improving longevity. Nanostructured surfaces, such as Nanoflowers naturally repel water, dirt, and even fingerprints utilizing effects also seen in natural systems.
Solar Power Source: Nanotechnology holds out the possibility that the surface of a device will become a natural source of energy via a covering of Nanograss structures that harvest solar power. At the same time, new high energy density storage materials allow batteries to become smaller and thinner, while also quicker to recharge and able to endure more charging cycles.
Nokia Morph, Wrist-mode
Environment Sensation: Nanosensors would empower users to examine the environment around them in completely new ways, from analyzing air pollution to gaining insight into biochemical traces and processes. New capabilities might be as complex as helping us monitor evolving conditions in the quality of our surroundings, or as simple as knowing if the fruit we are about to enjoy should be washed before we eat it. Our ability to tune into our environment in these ways can help us make key decisions that guide our daily actions and ultimately can enhance our health.
Beneficial or Not?
In addition to the above-mentioned advantages, the integrated electronics shown in the Morph concept could cost less and include more functionality in a much smaller space, even as interfaces are simplified and usability is enhanced. All of these new capabilities will unleash new applications and services that will allow us to communicate and interact in unprecedented ways.
Will this phone be on the market soon?
Elements of Morph might be available in the market to integrate into handheld devices within 7 years, though initially only at the high-end. However, nanotechnology may one day lead to low-cost manufacturing solutions, and offers the possibility of integrating complex functionality at a low price.
Is Nokia working such technologies?
Nokia Research Center is working on technology up to seven years in the future and creating concepts that challenge conventional practices and spark new innovations.
How would mobile phones look like in the future?
Nanotechnology is just one key future research area for NRC, but an important one that will give us the freedom to design materials by manipulating atoms and molecules at the nanometer level. It hence has the potential of being both evolutionary and revolutionary when applied to mobile technology. A few years from now, phones will have new and innovative features different to the ones that are widely used today.

Nokia was number 1 for 14 years and still has the chance to be so again

The Future Of Business – ARTIFICIAL INTELLIGENCE

Technological Innovations have been the fundamental drivers of economic growth for more than 250 years. Most important of these are the steam engine, electricity, and the internal combustion engine. For example, The Internal Combustion Engine gave rise to cars, trucks, Airplanes, Chainsaws, Big-Box retailers, Shopping Centers, etc.
The most important general-purpose technology of our era is Artificial Intelligence.
Humans are more likely to work with the smart machine in the digital enterprises of the future than being ousted by them, but the possibility of economic and social disruption needs to be on the political agenda.
In the sphere of business, AI is poised to have a transformational impact, on the scale of earlier general- purpose technologies. The effects of AI will be magnified in the coming decade, as Manufacturing, Retailing, Entertainment, Education and Virtually every other Industry transform their core process and business models to take advantages of machine learning.
We see business plans liberally sprinkled with references to machine learning, neural nets and another form of technology. For example, simply calling a dating site AI-Powered, doesnt make it any more effective, but it might help in fundraising.
Artificial Intelligence is not about building a mind; its about the improvement of tools to solve problems.

Business Opportunity in Artificial Intelligence

Human x Process x Data = BUSINESS VALUE

HUMAN-
Improving the relationship between people and machines.AI will improve how we live and work as individuals and a society. People will be able to spend more time on creative work. People and AI will Co-evolve, improving peoples life and IQ. People who design, build and program them will also be smarter. As people will be smarter machine will also be smarter.
PROCESS-
AI technologies will reinvent processes, removing not only time and distance but also human limitations. There will be a number of tools that will help in Business Process. Such as,
-Which next step the employee should take,
-The decision of action to be taken or not.
-Select an employee for particular task depending on previous work data of employee.
-Root cause analysis of Business loss.
-Business improvement deals and many more

DATA-
Combining AI and machine learning with Data will make the process more efficient. We are in the era where computers are capable of programming themselves. They will update algorithm with data by themselves to evolve faster. Artificial Intelligence will use important data to improve business to large extent.
A year spent in Artificial Intelligence is enough to make one believe in God
images
Sophia ? A Humanoid Robot
A great Achievement towards Artificial Intelligence is the robot SOPHIA. Sophia was developed by a Hong Kong-based company Hanson Robotics. In October 2017, the robot became a Saudi Arabian citizen, the first robot to receive citizenship of any country. Cameras within Sophias eyes allow her to see. She can follow faces and recognize individuals. She is able to have a conversation using Alphabets Google Chrome voice recognition technology and SingularityNET, which powers her brain.Sophia was activated on April 19, 2015. She is modeled after actress Audrey Hepburn and is known for her humans like appearance and behavior. The information is shared in the cloud that helps Sophia to learn things. Many robots like Sophia are connected to a particular cloud, such that whatever Sophia will learn will get updated to cloud helping other robots to automatically learn.
Sophia has been interviewed in the same manner as a human. Some replies have been nonsensical and some impressed interviewers so much. In the future robots like Sophia might go to school, study, make art, Startup business and even have its own home and family. They might also serve Therapy, Healthcare, Education and Customer service.
Robots such as Sophia, if programmed for business then it can perform excellently for business growth reducing human effort and guiding executives successfully throughout a particular Business.
Artificial intelligence will be the ultimate version of Google. The ultimate search engine that would understand everything on the web. It would understand exactly what you wanted and it would give you the right thing. We are getting incrementally closer to that, and that is basically what we work on
There are some ways where AI can be used into business.
Assisted Intelligence is improving whatever people and organizations are already doing.
Augmented Intelligence is in the beginning stage now. It will enable companies to do things they couldnt do.
Autonomous Intelligence is still in developing process and is about creating and deploying machines that will work on their own.
While possible impacts of AI is very broad. For example, If a customer calls a company, company agents take them to a Series of the question so the customer can be added to various systems. It’s only when the agent can deal with the particular problem. If AI is introduced that can automatically complete the onboarding process, the experience becomes easier and efficient for both agent and computer.
What AI can do in future is beyond our imagination, but the base of future AI technology has already been started. There is number of AI tools that most of the Top Companies are using. Top 10 Artificial Intelligence tools are listed below :
1-Textio
2-Conversica
3-X.ai
4-Guru
5-Tamar
6-Digital Genius
7-Quill
8-Recorded Future
9-Intra pexion
10-DataRPM
Above listed Tools are efficient in different fields such as; Prediction technology, Sales assistant, Smart assistant (handles meeting request), Tracking tool (keep track on the calendar, track events, meetings, etc.), Data Integration, Natural Language Processing, Threat intelligence etc.

Computers will overtake humans with AI within the next 100 years. When that happens, we need to make sure the computers have GOALS ALIGNED WITH US

Introduction of Ruby

Ruby Programming Language: Simplicity, Power, and Future Potential

Introduction

Ruby is an object-oriented, open-source programming language designed with simplicity and productivity in mind. It offers an elegant, human-friendly syntax that is easy to read and write. Ruby comes with a rich core library and a powerful API, making it one of the most versatile and developer-friendly languages in the programming world.

Inspired by languages like Lisp, Smalltalk, and Perl, Ruby combines the flexibility of scripting languages with the structure of object-oriented design. It’s easy for programmers familiar with C or Java to learn Ruby quickly because of its logical and readable syntax.

Developed primarily on Linux, Ruby is cross-platform, working efficiently across UNIX, Windows, macOS, BeOS, and OS/2. Its simplicity allows developers to focus more on solving problems rather than struggling with complex syntax.


History of Ruby

Ruby was developed by Yukihiro Matsumoto, often called Matz, in 1993. He wanted to create a programming language that balanced functional and imperative programming — simple yet powerful.

According to Matsumoto, Ruby’s core design was inspired by Lisp’s simplicity, Smalltalk’s object system, and Perl’s practicality. He envisioned a language that would make programming both productive and enjoyable.

The name “Ruby” was chosen during an online chat between Matsumoto and Keiju Ishitsuka on February 24, 1993. Two names were proposed — Coral and Ruby. Matsumoto selected Ruby, inspired by the birthstone of one of his colleagues.

The language officially appeared in 1995, and its popularity grew rapidly due to its ease of use and strong web development capabilities.

Ruby was particularly designed for web-related tasks — dynamically generating pages, managing databases, and interacting with web servers and browsers. Its general-purpose design, however, makes it suitable for a wide range of applications, much like Python and Perl.

At its heart, Ruby emphasizes developer happiness, ease of use, and clean, intuitive code — making it an ideal language for both beginners and experienced programmers.


Why Ruby Stands Out

1. Feature-Rich Language

Ruby combines the best ideas from several programming languages — both dynamic and strongly-typed. Its object-oriented paradigm helps developers achieve more with less code. The result is clean, structured, and easily maintainable software that encourages experimentation and reuse.

2. Open Source and Community Driven

Ruby is completely open source, and its global community is one of its strongest assets. The Ruby community is known for being active, supportive, and creative. Developers around the world continuously improve libraries, frameworks, and tools to make Ruby more capable and enjoyable.

3. Code-Based Data Model

In Ruby on Rails — the most famous Ruby framework — the data model is defined in code. After the initial model is created, developers can modify and manage it through migration scripts. This makes Ruby development flexible and scalable.

4. Excellent Documentation and Resources

Ruby is exceptionally well-documented. The internet is filled with tutorials, guides, and video courses — many of which are free. These resources, along with large online forums and communities, make it easy for developers to find help and learn faster.

5. Wide Range of Development Tools

Ruby offers a simple yet powerful ecosystem. Developers can choose from several Integrated Development Environments (IDEs) and open-source tools for coding, debugging, and deployment. The language’s ecosystem ensures that every development need — from database management to automation — can be met efficiently.

6. Rapid Development with Ruby on Rails

Ruby on Rails follows the philosophy of “Convention over Configuration.” This means that once you learn the Ruby way of doing things, the framework automates much of the repetitive work for you. This leads to faster development, fewer errors, and greater productivity — especially in web applications.

7. Advantages Over PHP

Ruby offers several advantages compared to older web languages like PHP. While PHP allows flexibility, it often leads to inconsistent code. Ruby, on the other hand, enforces structure and clean syntax, reducing bugs and simplifying maintenance. Developers often find Ruby more enjoyable and efficient for building scalable, maintainable applications.


The Future of Ruby

Ruby’s future remains bright thanks to its clean design philosophy and strong developer community. While newer languages continue to emerge, Ruby maintains a loyal following in web development, automation, and prototyping.

Frameworks like Ruby on Rails continue to evolve, ensuring that Ruby remains relevant in modern web development. Its ability to balance simplicity, power, and productivity ensures that it will stay a preferred choice for developers seeking fast, maintainable, and human-friendly code.


Conclusion

Ruby is more than just a programming language — it’s a philosophy that values developer happiness and elegant simplicity. From startups to large-scale enterprise applications, Ruby continues to empower developers around the world to build smarter and faster.

If you’re new to programming or looking to boost your productivity, Ruby is one of the best languages to start with. Its strong community, clean syntax, and robust framework support make it a true gem in the world of programming.

Request a Free Estimate
Enter Your Information below and we will get back to you with an estimate within few hours
0