Cloud Engineering is a subfield of Information Technology (IT) that prepare individuals to work in the constantly expanding cloud-computing industry. The cloud computing business is poised to surpass $330 billion by 2022, and it has become a lucrative career option for students aspiring to work in the technology industry. 

The evolution of Cloud Computing over the past few years and the subsequent rise of Cloud Engineers are nothing short of astounding. Therefore, it is not surprising that the position continues to gain significance among employers.

Cloud Engineering - A rising industry
Cloud Engineering – A rising industry

Examples of prominent Cloud Providers

Some of the most well-known cloud service providers are Microsoft with Azure, Amazon with AWS, and Google with the Google Cloud Platform. Among them, the cloud service provider AWS, which is part of the Amazon group, stands out. It provides services to Facebook, Twitter, Netflix, LinkedIn, and other popular social media sites.

Many Cloud Service providers, such as Dropbox, Oracle Cloud, Salesforce, and VMware, offer one-off services. For example, Salesforce’s primary goal is to keep track of company-to-customer (C2C) relationships.

Skills required to become a Cloud Engineering

Cloud Engineering provides significant work opportunities since the skills required are not limited to infrastructure management alone. It includes network management, security, data protection, disaster recovery, and many others. Every day, you can work on new projects.

The skills required to excel as a Cloud Engineer are as follows:

Hard skills – Proficiency in Operating systems, networking, and programming languages.

Soft Skills – Ability to communicate effectively, willingness to learn, attention to detail, and leadership qualities.

Understanding of how software works – A technology background in software is an asset for becoming a Cloud Engineer. Knowledge of Java, Python and SQL also helps Cloud Engineers solve real-world problems affecting people worldwide.

Thus, cloud computing involves creative and varied skills pivotal to software development, utilising DevOps, Web Security, Disaster Recovery, Networking, Machine Learning and System Design skills.

Cloud Engineering presents limitless possibilities
Cloud Engineering presents limitless possibilities

Different roles of Cloud Engineers

As the cloud computing industry rises, cloud engineers enjoy more security and leverage when advancing their careers. Their primary job roles include:

Cloud Architecture – Cloud architects oversee a vast portion of the cloud network. They work on planning and management of all the cloud components, which includes the hardware, software or applications. A cloud architect is in charge of assessing the company’s needs and the pathway of its service expansions. In addition, they regularly review cloud performance and develop technical solutions to overcome obstacles posed by cloud components that may interfere with cloud services.

Cloud Development – Cloud development entails programming procedures that centre on the cloud architect’s vision in order to produce codes on the appropriate platforms. Here, traditional technical abilities are coupled with cloud knowledge competence in order to develop, deploy, and optimise cloud-based applications. Cloud developers utilise their software development expertise in app development, computer networking, UX, UI, and other areas to advance the coding paths.

Cloud Support – Cloud support is a type of service in which the engineer works directly with cloud clients to meet their requirements and maintain the various cloud components. The engineer has knowledge of certain cloud technologies or hosting services and therefore collaborates effectively with the client. Occasionally, cloud support engineers collaborate with cloud architects to explore new technologies and troubleshoot solutions for larger-scale challenges.

Cloud Administration – Cloud administration entails monitoring an organisation’s on-premises gear and software, whilst cloud engineers are solely concerned with cloud services. Their key responsibilities include the creation and implementation of cloud services, the management of requests for new technology, and the establishment of a secure cloud environment.

Cloud Engineering offers lucrative opportunities in diverse roles
Cloud Engineering offers lucrative opportunities in diverse roles

Steps to Become a Cloud Engineer

To become a cloud engineer, you must consider the following points, which act as guidelines to acquire expertise in the field. These points are:

  • Pursue a bachelor’s degree in computer science and gain expertise in Java, Angular JS, and Python. An extensive knowledge of software and Cloud networking will help you excel.
  • Learn about deployment models, auto-scaling, clustering, data storage infrastructure, DevOps, and other cloud concepts.
  • Acquire familiarity with Cloud tools like VMware, Jenkins, Ansible, Docker, and others.
  • Get certified to work with cloud computing services such as Microsoft Azure, Amazon Web Services (AWS), and Google Cloud Platform.
  • Finally, be prepared to apply for jobs with a solid résumé.

OmDayal Group of Institutions: Pioneering Education

The OmDayal Group of Institutions was founded in 2010 in order to educate progressive architects and engineers. The institution provides engineering and architecture courses linked with MAKAUT (Maulana Abul Kalam Azad University of Technology). It is accredited by the NAAC, and the Architecture and Engineering programmes are approved by the AICTE and COA. The students have access to a solid foundation, a vibrant learning environment, and knowledgeable faculty.

The institute also offers on-job training in collaboration with the National Small Industries Corporation (NSIC), a government-owned enterprise in India, in order to assist better placements. OmDayal Group of Institutions, a premier college in West Bengal, comprehensively prepares its students as future professionals.

For more information, visit https://omdayal.com.

Disclaimer:

OmDayal Group of Institutions blog posts has been written with the information gathered from approved articles and websites online. Our research and technical team strive to provide relevant information through such articles.

References:

  1. https://in.indeed.com/career-advice/finding-a-job/how-to-become-cloud-engineer
  2. https://www.edureka.co/blog/cloud-engineer-roles-and-responsibilities/
The Rise of Data Science

Data Science is the academic discipline that integrates domain expertise, programming abilities, and mathematics and statistics to extract valuable insights from data. It has gained popularity because it enables firms to process and interpret data efficiently. People can use this information to make informed company decisions, promote growth, optimise spending, and enhance performance.

Data Science is on the rise

What is Data Science?

Data Science is an amalgamation of data cleaning, analysis, and preparation. It uses several scientific methods to find patterns in raw data that might not be obvious initially. It also includes using prototypes, algorithms, predictive models, and custom analysis to solve business problems in multidimensional ways.

It finds application in various sectors such as banking, finance, transport, healthcare, E-commerce, pharmaceuticals and others.

Consequently, data analysis skills is much in demand, where data scientists do the process of analysing big data through an algorithmic or mechanical process to understand the correlations between each other and draw conclusions about the information they contain.

Applications of Data Science

Skills associated with Data Science

These are the skills needed to excel as a Data Scientist:

  1. A sound foundation in financials – A strong background in finance forms the ideal foundation for success in machine learning, artificial intelligence and data science. Data scientists need to know the basics of supervised and unsupervised learning, the difference between regression and classification, and the difference between data engineering and business analytics.
  2. Proficiency in programming – Data scientists need to know how to use programming languages like Python, Perl, SQL, Java, and C/C++. They help the data scientists put the different kinds of unstructured data in order.
  3. Statistics – Having a basic understanding of descriptive statistics, including mean, mode, standard deviation, variance, probability distributions, CLT, sample and population, and inferential statistics, is essential.
  4. Data Visualisation – Data visualisation is the visual depiction of data and information. By employing visual elements such as charts, graphs, and maps, data visualisation tools facilitate identifying and comprehending trends, outliers, and patterns in data.
  5. Deep Learning – Deep learning is a subset of machine learning. A neural network with three or more layers is what deep learning is. These neural networks try to mimic how the human brain works, even though they aren’t very good at it. It lets them “learn” from large amounts of data. To do well in Deep Learning, you also need to know how to use Tensor Flow, Pytorch, and Keres.
  6. Big data – Big Data can help in data mining, leading to better decisions and strategic business moves. It cuts costs, saves time, plans new products, and makes intelligent decisions.

Data Science is on the rise and is a promising career for engineers to pursue.

Data Science promises to be a lucrative career opportunity

OmDayal Group of Institutions: Maintaining Excellence in Education

The OmDayal Group of Institutions was founded in 2010 with the goal of training progressive architects and engineers. The college offers engineering and architecture courses affiliated with MAKAUT (Maulana Abul Kalam Azad University of Technology). It is accredited by NAAC, and the Architecture and Engineering courses are approved by AICTE and COA. Students benefit from a solid foundation, a conducive learning environment, and experienced professors. The Institute is also associated with the West Bengal State Council of Technical and Vocational Education and Skill Development and offers Vocational Diploma programmes. It also provides flexible on-the-job training in collaboration with the National Small Industries Corporation (NSIC), a Government of India Enterprise, in order to achieve better placements. OmDayal Group of Institutions, a leading college in West Bengal, thoroughly develops its students to be future professionals.

For more information, visit: https://omdayal.com.

Disclaimer:

OmDayal Group of Institutions blog posts has been written with the information gathered from approved articles and websites online. Our research and technical team strive to provide relevant information through such articles.

References:

  1. https://learning.shine.com/talenteconomy/career-help/the-rise-of-data-science-heres-how-you-can-upskill-and-give-a-boost-to-your-career/
  2. https://tdwi.org/Articles/2011/01/05/Rise-of-Data-Science.aspx

Photovoltaic glazing (PV glazing) is a revolutionary technology that turns sunlight into electricity and decreases energy usage in cooling, heating and artificial lighting.

The semiconductor-based PV cells are sandwiched between two sheets of glass. They are also known as solar cells. Although photovoltaic glass is not entirely transparent, it does allow some light to flow through. The buildings that use photovoltaic structures in their construction can generate a portion of their electrical needs.

Photovoltaic panels installed on a roof

Applications in construction

Photovoltaic cells (PV) convert sunlight directly into energy. Solar cells, measuring roughly 150mm, could generate up to 5 volts. To create a greater voltage, one would require a large number of PV cells to make a panel and a large number of panels to build an array. However, new technologies continue to enhance the application for PV cells in construction.

Building-integrated photovoltaics (BIPV)

Traditional PV systems have evolved into building-integrated photovoltaics to boost their efficiency and reduce the amount of materials utilised in buildings. These photovoltaic materials may be utilised in various construction settings, including roofs, facades, curtain walls and glass stairwells.

Building integrated photovoltaic glazing is a technique that enables buildings to generate power by converting the entire structure into a solar panel. The primary objective of this system is to maximise energy efficiency to meet the energy needs of the building. It is possible to design windows, skylights and facade shelves to receive more solar energy.

Due to technological advancements, BIPV may also be incorporated into existing building infrastructures. Additionally, it helps the development of net-zero energy buildings.

Given the current need for sustainable infrastructure, incorporating PV cells and PV glazing will be a game-changer. PV cell production has improved performance and helped reduced the use of construction materials while lowering carbon impact. The most common form of photovoltaic cell is crystalline PV, which can generate more electricity per square foot.

Photovoltaic panels can be a part of everyday life

Advantages of PV Glazing

The advantages offered by PV glazing are as follows:

  • PV electricity is considered green or clean energy since its source is renewable and does not contribute to pollution.
  • Photovoltaic glass reduces the facility’s carbon footprint and improves the organisation’s reputation.
  • PV Glazing is visually pleasing and helps improve the infrastructure’s overall architecture.
  • PV Glazing aids in building cost-effectiveness. BIPV replaces some of the building materials and becomes a dual-purpose solution for construction & power generation. Instead of purchasing glass windows, it is sufficient to purchase photovoltaic glazing, which generates power and functions as windows. Therefore, BIPV systems reduce the cost of conventional structures.
  • PV Glazing can aid in the creation of zero-energy structures. Integrating renewable energy and energy-saving methods is crucial to the zero-energy construction paradigm.
Concept of sustainable building

OmDayal Group of Institutions: Maintaining a Global Standard in Education

The OmDayal Group of Institutions was established in 2010 with a vision to prepare progressive architects and engineers. The college offers engineering and architecture courses affiliated with MAKAUT (Maulana Abul Kalam Azad University of Technology). It is accredited by NAAC, and the Architecture and Engineering courses are approved by AICTE and COA. The students have a strong foundation, a robust learning environment, and experienced faculty. The Institute also offers Vocational Diploma courses and is affiliated with the West Bengal State Council of Technical and Vocational Education and Skill Development. It also offers flexible timing and on-job-training in partnership with the National Small Industries Corporation (NSIC), Govt. of India Enterprise, to facilitate better placements. A leading college in West Bengal, OmDayal Group of Institutions holistically prepares its students as future professionals.

For more information, visit: https://omdayal.com.

References:

  1. https://www.skyfilabs.com/project-ideas/photovoltaic-glazing-system
  2. http://ijasret.com/VolumeArticles/FullTextPDF/462_8.PHOTOVOLTAIC_GLAZING_IN_BUILDINGS.pdf
  3. https://www.globalcad.co.uk/photovoltaic-glaze-the-future-of-sustainable-buildings/

Mixed Reality (MR) uses augmented and virtual reality to combine the real and virtual worlds into an interactive environment filled with digital and physical components.

It is situated at the intersection between the physical and virtual reality environments, where users can interact with physical and virtual objects. Mixed Reality Architecture (MRA) dynamically links and overlays physical and virtual spaces. It offers an exciting new paradigm for architects. By projecting a BIM model directly over a physical site in mixed reality, architects can communicate design ideas to the team and clients in an immersive and interactive way.

A truly immersive experience

VR, AR & MR

Virtual reality (VR) uses a computer to create a simulated environment wholly isolated from the physical environment. It offers an immersive experience but also blocks any relationship between the virtual and physical worlds. While, augmented reality (AR), a technology that has been around for decades, presents virtual information on top of a real physical environment.

Now, Mixed Reality (MR) using the HoloLens falls between AR and VR, where an individual can experience the virtual objects merged with the physical objects.

AR, VR & MR

Deep dive into MR

Design communication is advancing rapidly. Using tools such as virtual reality (VR) has become commonplace for design teams. Mixed reality offers additional benefits to virtual reality by overlaying virtual objects onto a natural physical environment. It could be a game-changing tool for all phases of design and communication.

The objectives of MR are to explore design communication using mixed reality for all phases of architectural design. The design spaces explored are:

Concept Design: Small-scale building modelling.

Schematic Design: Interior space designs, spatial alignment, and options.
Construction Administration: Clash detection for interior spaces, spatial annotation, and recording data.

Technological inventions such as Microsoft’s HoloLens, Sketchup Viewer and other equipment have enabled the MRA endeavours. HoloLens is a Mixed Reality set of “smart glasses” that uses tracking technology first developed for Kinect, the motion-tracking add-on for Xbox gaming consoles. HoloLens has sprouted many applications in industries ranging from medicine to architecture. Designers can also jump back and forth from a scale model to the 1:1 virtual space and share their experience with other architects, contractors, and clients.

Diverse applications of emerging technologies

Gamma AR – The future of architecture

Gamma AR, a mobile application, connects a designer’s office and project sites using fully interactive overlays of building information models. With Gamma AR, designers can overlay and edit 3D models of anything from walls to HVAC systems on a project under construction and share this information with on-site contractors or clients through a smart device. It allows for remote management and supervision of a site. It eliminates many potential misunderstandings that frequently cost firms both time and costs.

For example, renovating a vacation home could be expedited by sharing design ideas via HoloLens, allowing clients to visualize design decisions and immerse themselves in space long before construction starts. Solutions targeting the construction process itself are currently being explored. The HoloLens application accurately positions digital content in any physical space. It has already been used in constructing wireframe pavilion-scale structures. This partial automation of the design process and the ability to deliver clear instructions to builders is relevant to residential design and disaster relief initiatives.

The challenges in MR may be the expensive hardware. Still, there are already applications out there that exploit the immense potential of this technology and address immediate challenges facing our industry.

It is safe to say the future of architecture lies with designers guiding the entire construction process remotely by sharing interactive digital content. Using MR in the design and remote fabrication of construction materials opens the door to an increasingly automated building process. Projects that could be easily assembled by local personnel with little training or experience.

OmDayal Group of Institutions: Maintaining Excellence in Education

The OmDayal Group of Institutions was established in 2010 with a vision to prepare progressive architects and engineers. The college offers engineering and architecture courses affiliated with MAKAUT (Maulana Abul Kalam Azad University of Technology). It is accredited by NAAC, and the Architecture and Engineering courses are approved by AICTE and COA. The students have a strong foundation, a robust learning environment, and experienced faculty. The Institute also offers Vocational Diploma courses and is affiliated with the West Bengal State Council of Technical and Vocational Education and Skill Development. It also offers flexible timing and on-job-training in partnership with the National Small Industries Corporation (NSIC), Govt. of India Enterprise, to facilitate better placements. A leading college in West Bengal, OmDayal Group of Institutions, holistically prepares its students as future professionals.

For more information, visit: https://omdayal.com.

References:

  1. https://vellumad.com/mixed-reality-the-future-of-architecture-today/
  2. https://www.researchgate.net/publication/30876077_Mixed_Reality_In_Architecture_Design_And_Construction

Drones are famous for their agility, speed, excellent acceleration and manoeuvrability. They are adept at providing smooth and stable flights for aerial views, surveying and photography.

In engineering, drones are becoming popular as they improve efficiency and minimise the risks and costs of specific tasks.

These tasks are as follows:

  • Project Surveillance – Construction engineers use drones to gather real-time data about projects. They can gather accurate information without being physically present on site. Aerial insights help improve progress tracking, detect problems before they become costly, and add weeks to a project’s timeline.

    Drones offer advantages in project surveillance
  • Project Planning – Getting a brief idea of the land is a vital planning phase in construction projects. Surveying is done by drones using two methods – photogrammetry and LiDAR surveys. The drone-based surveys generate 3D models of the surface and terrain. It can aid civil engineers in site location. It can also be used as a basis for volume and distance calculations. An accurate 3D model is also an essential component of the building information modelling (BIM) process, which is a reliable model for information in construction planning.
  • Hazardous or hard-to-reach sites – Civil engineers use drones to cover areas where it is difficult for humans to reach. They can monitor hazardous work sites, like hydropower dams, highways and other construction sites.
  • Non-Destructive Testing – Drones can fly inside the equipment structures and execute visual inspections or Non-Destructive Testing, eliminating the need for confined spray entry. The drone can even test the combination of the hazardous compounds.
  • Inspection of grid stations and pylons – Electrical engineers can inspect pylons and grid stations at heights difficult for a human to access. Thus, engineers can detect and repair any power outage on towers or overhead faults over the high-tension power lines.

    Drone can seamlessly conduct land surveys
  • Detailed 3D models – Drones can be used to survey and generate 3D high-resolution models of sites where no data or low-quality data is available. Thus, high-accuracy cadastral maps are produced rapidly and easily, even in complex or challenging terrain.
  • Inspection of existing infrastructure – Inspecting an infrastructure such as a skyscraper, bridge, or tunnel can be a complex, rigorous and hazardous task. Inspection crews can be time-consuming and unreliable if required to walk the stretch of the mega structures. Drones can easily access these areas without compromising safety and health issues for any human. The drone footage is reliable and well documented.
  • Renewable Energy Sector – The engineers in the renewable energy sector use drones to monitor solar PV harms or wind farms, widespread across acres of land.
  • Drones with Cloud-based features and Predictive AI – Drone with cloud-based features and AI present the future. The inspection photos taken by the drone can be synced to a cloud server which can be further fed into a complex algorithm supported by top-of-the-line processing power. This analysis can be downloaded, and the AI can develop predictive functions for identifying potential defects and repair.

    Drone can carry out infrastructure inspection
  • Drones are helpful technological advancements whose applications have changed how things are done across the engineering industry.

OmDayal Group of Institutions: Maintaining Excellence in Education

The OmDayal Group of Institutions was established in 2010 with a vision to prepare progressive architects and engineers. The college offers engineering and architecture courses affiliated with MAKAUT (Maulana Abul Kalam Azad University of Technology). It is accredited by NAAC, and the Architecture and Engineering courses are approved by AICTE and COA. The students have a strong foundation, a robust learning environment, and experienced faculty. The Institute also offers Vocational Diploma courses and is affiliated with the West Bengal State Council of Technical and Vocational Education and Skill Development. It also offers flexible timing and on-job-training in partnership with the National Small Industries Corporation (NSIC), Govt. of India Enterprise, to facilitate better placements. A leading college in West Bengal, OmDayal Group of Institutions, holistically prepares its students as future professionals.

For more information, visit: https://omdayal.com

Disclaimer:

Om Dayal Group of Institutions blog posts have been written with the information gathered from approved articles and websites online. Our research and technical team strive to provide relevant information through such articles.

References:

  1. https://www.engineeringpassion.com/10-best-drones-for-engineers-and-geeks/
  2. https://www.coffeyeng.com/blog/application-of-drones-in-engineering-surveying
  3. https://3dinsider.com/civil-engineering-drones/

Generative design for architecture is a new design process that enables the discovery of innovative ideas and the negotiation of trade-offs between high-performing designs, sketch restrictions, and goals, as opposed to form and human-computer co-design. It mixes parametric design and artificial intelligence with designer-supplied constraints and data.

Generative design is a method for enhancing human resources by algorithmically automating design thinking. Instead of modelling one object at a time, generative design software allows us to develop several alternatives simultaneously. Even “fortuitous coincidences” that are difficult to recognise can be identified using standard methods, along with unique and unexpected solutions and deviations.

Parametric design in action

Generative Design Illustrated

Consider trees as an illustration. Large tree trunks are broad and solid at the base to bear the strain and weight of the wind. From there, countless other slender branches sprout leaves. The selected shape is ideal for their surroundings, and there are no physical remnants. Natural selection has drastically transformed the composition of trees on sandy soils in windy locations over millions of years.

The same applies to beauty, design, and building. The forms generated by generative design are only sometimes detailed and organic. It can exacerbate the already laborious and iterative design process with which we are familiar. Architects, engineers, and contractors may use computers to handle the design and construction, allowing them to focus on creating stunning projects and constructions.

Creative Concepts inside the design studio

Generative Design for architecture is initially conceptualised in the design studio. The building industry is undergoing a digital-to-computational transition. Digital is all about “creating data” with technologies like CAD and digital photographs. However, computational designers are now “using data” computers to produce, modify, and use data to enhance results.

People have utilised digital documents, including CAD drawings and spreadsheets, for decades. When scripts are applied to CAD software and spreadsheets, architectural, engineering, and construction (AEC) data may be accessed, modified, and even produced in new ways. It is the Generation Design idea utilised in construction and building design.

Architects utilised a procedure known as scripting or programming with conventional design consequences a couple of decades back. Today, scripts are complex algorithms that govern the new notion of generative design and production.

Conceptualisation in a design studio

Generative Design on the Building Site

Generativity is not restricted to the design studio. It may select the optimally modelled technique for erecting a structure using precast panels. In addition, the algorithm can monitor the site, the position of the cranes that lower the panels, the most efficient building design process, equipment capabilities, and access points. The architect has created the generative script and devised an assembly strategy. The whole project team can access this information to guarantee a systems-based approach. Everything unfolds as expected.

In conclusion, the construction industry will let teams employ computational knowledge to improve outcomes and procedures. Thus, Generative Design has helped revolutionise architecture.

The Heydar Aliyev Centre, an example of generative design in architecture

OmDayal Group of Institutions: Pioneering Education

The OmDayal Group of Institutions was established in 2010 with a vision to prepare progressive architects and engineers. The college offers engineering and architecture courses affiliated with MAKAUT (Maulana Abul Kalam Azad University of Technology). It is accredited by NAAC, and the Architecture and Engineering courses are approved by AICTE and COA. The students have a strong foundation, a robust learning environment, and experienced faculty.

The institute also provides flexible timing and on-job training in partnership with the National Small Industries Corporation (NSIC), Govt. of India Enterprise, to facilitate better placements. A leading college in West Bengal, OmDayal Group of Institutions, holistically prepares its students as future professionals.

For more information, visit https://omdayal.com.

References:

  1. https://www.autodesk.com/autodesk-university/article/Generative-Design-Architectural-Space-Planning
  2. https://www.archdaily.com/937772/how-will-generative-design-impact-architecture

Engineering is all about applying the theories of science to solve practical problems. The technology and the smart gadgets we use are inventions by our esteemed engineering fraternity. India has produced numerous engineers who did pioneering work in their field and became inspirational figures for the country. Some of our pioneers and their contributions are highlighted below: 

Verghese Kurien

Heis considered the father of the White Revolution in India. His “1 billion litre idea”, Operation Flood, has transformed dairy products into India’s largest self-sufficient industry and primary rural employment sector. He pioneered the Anand model of the dairy cooperative. He replicated it nationwide based on various top-down and bottom-up approaches. 

With this approach, farmers did not refuse milk, and 70-80% of the price was paid in cash by consumers to the dairy farmers who control the marketing. This model has made India the largest milk producer in the world, quadrupling milk production in 30 years. 

Verghese Kurien – Father of the White Revolution in India

Sir Mokshagundam Visvesvaraya

He is known for revolutionising the flood control system in Hyderabad and was the chief engineer of the Krishnarajasagaladam near Mysore. He is famous for inventing “automatic locks” and “block irrigation systems”, which are considered engineering wonders. In 1895, he devised an efficient way to filter water through “collector wells,” which were rarely seen anywhere in the world. Recognising his achievement, he received India’s highest award, Bharat Ratna. His birthday is on September 15th and is celebrated as Engineer’s Day. 

Kalpana Chawala

Kalpana Chawala was the first Indian woman to go to space. She earned a degree in Aeronautical Engineering from Punjab Engineering College before moving to the United States. In 1988, she completed her doctorate in aerospace engineering from the University of Colorado.  

In November 1997, she had her first opportunity to enter space aboard her STS-87 space shuttle, Columbia. Her second flight took place in 2003. However, on her way back to Earth, she lost her life along with her other crew members. Kalpana continues to be an inspiration to young women across the world.

Dr A P J Abdul Kalam

As an aerospace engineer, he was known as an Indian rocket man for his involvement in developing ballistic missiles and rocket technology. He was the project leader for India’s first domestic satellite launch vehicle (SLV-III), successfully launching the Rohini satellite into low earth orbit in July 1980. He played an essential organisational, technical and political role in India’s 1998 Pokhran II nuclear test. Moreover, he served as the 11th President of India (2002-2007). 

E Sreedharan

He is known as the Indian Metro Man. He designs projects such as Delhi Metro and Kolkata Metro. For his contributions to the public transport system, he received the Padma Shri Medal in 2001 and the Padma Viboushan Award in 2008. He was also awarded France’s highest folk decoration, the Medal of Honour.

Vinod Dham

He is the father of the Pentium microprocessor chip, a common term in the computer domain. Vinod is also the co-inventor of flash memory technology, commonly known as SD card, widely used in USB drives and digital cameras. Later he invented the AMD K6, known as the “Pentium Killer”. He is also one of the first co-inventors of Intel’s Flash Memory Technology (ETOX). He has been promoted to Vice President of the Microprocessor Group at Intel Co. 

Vinod Dham – Father of the Pentium microprocessor chip

Sundar Pichai

He serves as the CEO of Alphabet Inc. and leads product management and innovation efforts for many Google client software products, including Google Chrome and Chrome OS. He was mainly in charge of Google Drive. He also oversaw the development of other applications such as Gmail and Google Maps. In 2010, Pichai announced the open sourcing of Google’s new video codec VP8, introducing a new video format, WebM. In 2013, Pichai added Android to the list of Google products he supervises. 

Satya Nadella

He is the CEO of Microsoft, leading key projects such as the move to cloud computing and the development of the world’s largest cloud infrastructure. He was praised for helping to deploy Microsoft’s databases, Windows Server, and developer tools in the Azure cloud. In 2022, Nadella was awarded the third highest civilian honour, Padma Bhushan, by the Government of India. 

Numerous brilliant engineers in India have made a tremendous contribution, who have invented processes, products, gadgets and structures to make it a better world.

Satya Nadella – CEO of Microsoft

OmDayal Group of Institutions: Committed to High Standards in Education 

The OmDayal Group of Institutions was established in 2010 with a vision to prepare progressive architects and engineers. The college offers engineering and architecture courses affiliated with MAKAUT (Maulana Abul Kalam Azad University of Technology). It is accredited by NAAC, and the Architecture and Engineering courses are approved by AICTE and COA. The students have a strong foundation, a robust learning environment, and experienced faculty.  

The Institute provides flexible timing and on-job training in partnership with the National Small Industries Corporation (NSIC), Govt. of India Enterprise, to facilitate better placements. A leading college in West Bengal, OmDayal Group of Institutions, holistically prepares its students as future professionals.  

For more information, visit: https://omdayal.com

References: 

  1. https://www.thefamouspeople.com/indian-engineers.php
  2. https://www.jagranjosh.com/articles/top-10-indian-engineers-1474546207-1
  3. https://www.newsbharati.com/Encyc/2020/9/15/Engineer-s-Day.amp.html

Cloud computing involves delivering various services over the internet. From software analytics to data storage, anything can be delivered over the cloud. In the dynamic field of engineering, workload fluctuations can majorly affect the project and the demand for resources may also vary. Cloud computing is leveraged by systems and processes that adapt to the business needs. Companies are quick to adopt cloud computing to save on budgets and personnel significantly.

Cloud computing offers immense applications from security to storage

Advantages of cloud computing

With its increasing use, it becomes important to understand cloud computing and its potential. Cloud computing can provide the following advantages:

  • Stay ahead of the game – Cloud computing gives the time advantage to the business without any accrued investment in expensive equipment or playing with complicated systems. It allows access to infrastructure equivalent to a large corporate company in the market on a small business budget.
  • Fulfils business needs – Cloud computing is considered to be quite flexible. Companies can sign up, use features that the business needs, and increase or decrease them per their requirement. 
  • Accessibility feature – Data systems can be accessed from anywhere, anytime, on any device. It enables users to access and update project information, order supplies or request services, track time, input timesheets, pay bills or collaborate with colleagues.
  • Documents sharing and storage – Cloud computing helps address situations where compressing and storing large files are daunting. It stores and shares documents seamlessly. Cloud document storage options are a cost-effective way of storing and instantly accessing plans, sitemaps, data sheets, instruction manuals and application-specific information.
New technology to enhance productivity and collaboration
  • Complete job visibility and effortless collaboration – Documents can be updated by multiple stakeholders who can view and evaluate changes and expedite the decision-making process. It mitigates miscommunication, repetition and errors, ultimately reducing time and costs. It lets people work more efficiently and effectively than ever before. No need to book conference rooms or take flights when people across the world can meet over a Skype call. You no longer need to take the print-out copies of the reports – they all are accessible on the cloud.
  • Ease of job management – With cloud-based job management systems to help the administration process, from quoting, costing, time tracking and invoicing, all in one place.
  • Enhanced security – Cloud software providers have the resources to invest significant money in ensuring that servers, data centres and connections are entirely secure with constant streaming. Research says that 94% of businesses improved security after switching to the cloud while 91% said that the cloud has made it easier to meet government compliance requirements. 
  • Reduced overheads and a better ROI – Cloud computing support save on IT-related costs such as servers and IT support infrastructure. It means having professional software expertise available on demand. Cloud computing also provides you with more flexible subscriptions and variety in terms of software usage.
  • Real time reporting – Organisations can forecast profit centres, profitable employees, profitability across clients, estimated hours for a project, and customisation of fields to create project reports. All this gives a competitive edge to the business.
  • Disaster recovery – As the data is hosted on external servers, any disaster due to theft, fire, flood, technology outage or unforeseen incident; cannot hamper business operations. With the help of cloud computing, organisations can easily and quickly recover their data in the event of emergencies.
  • Environmental benefit – Cloud computing needs fewer physical servers for setup. Companies downsize data centres or even eliminate them while storing data on the cloud. Cloud data storage is 79 % to 93% more efficient.

Cloud computing has enhanced the quality of computer technology over the last few years. It provides more geographic reach, better-quality websites and servers, enhanced monitoring systems, multiple servers, and scale applications as considerable benefits to the world.

Providing protection against hindrances and interruptions

OmDayal Group of Institutions: Providing high quality education

The OmDayal Group of Institutions was established in 2010 with a vision to prepare progressive architects and engineers. The college offers engineering and architecture courses affiliated with MAKAUT (Maulana Abul Kalam Azad University of Technology). It is accredited by NAAC, and the Architecture and Engineering courses are approved by AICTE and COA. The students have a strong foundation with a robust learning environment and experienced faculty. 

The institute also offers flexible timing and on-job training in partnership with the National Small Industries Corporation (NSIC), Govt. of India Enterprise, to facilitate better placements. A leading college in West Bengal, OmDayal Group of Institutions, holistically prepares its students as future professionals.

For more information, visit: https://omdayal.com.

References:

  1. https://www.e2enetworks.com/blog/benefits-of-cloud-computing-in-engineering
  2. https://www.workflowmax.com/blog/10-advantages-of-cloud-computing-for-engineers

Climate change impacts every aspect of our life and alters the environmental conditions in which the buildings and structures exist. Soaring temperatures, increased carbon dioxide emission and melting ice of the polar region are among its immediate effects. The buildings we live and work in are designed to withstand the local climate. They are built using standards and materials compatible with the range of temperature, rainfall, snow and wind pressures expected in the area, including any climatic deterrents such as earthquakes, floods, tsunamis, groundwater levels and other natural changes. However, climate change threaten our structures and cause significant damage to them.

The need to address climate change is immediate

Climate change and its impact

When climatic conditions exceed the normal parameters, it directly impacts the structure of the building. Climate change will breed conditions where these parameters are exceeded more often and to a far greater degree. What was previously considered once in a century flood may become a regular occurrence. The impacts are certainly more drastic. As already evident, heat waves are more drastic now, affecting the building structures. Frequently occurring floods are wiping away entire dwellings with them. Some effects may be controllable, but the insidious effects of climate change can gradually undermine the core functions of a building.

Withstanding extreme weather conditions takes a toll on structures

Damage to Structures

The impacts of Climate Change on infrastructure can be observed as follows:

  • External cladding of buildings will be damaged more rapidly with the consistent and intense wind and rain. Leaking may also be possible on continuous damage due to water.
  • Wet structures will give way to termite infestation when tempered with high temperatures. The timber-eating termites can cause significant structural damage.
  • Stagnation of water can also lead to the breeding of mosquitoes and malaria prevalence. Living spaces need to be designed to combat this condition.
  • As temperatures get higher, materials such as metal expand, leading them to buckle once buildings’ design tolerance is exceeded. As in an incident in China, a skyscraper needed to be evacuated as the structure made of metal began to shake when the steel frame stretched in the heat. 
  • Extreme temperatures can even cause metals to melt, causing irreversible damage. The surface layer of bitumen on roads begins to soften at extremely high temperatures, causing bleeding.
  • Buildings with foundations in clay soil are vulnerable to cracking or collapse in the ground as they absorb more water and then harden and shrink with time. It is expedited by the changing rainfall patterns.  
  • Reinforced concrete is a popular construction material used in buildings. It is used from the skyscrapers and bridges to the lintels above windows in homes; reinforced concrete is made by placing steel rods within a mould and pouring wet concrete in. Once dry, this produces robust structures. A damper and warmer climate will affect the durability of this material. The steel inside the frame will get wet, rust and expand, thus cracking the concrete and weakening the structure. It is referred to as Concrete Cancer. In coastal regions, the high chloride content in the salt water accelerates rusting.
  • In places on the sea coast, the rising sea levels raise the water table and make it saltier, thus, affecting the building foundations. The strong winds give rise to salt spray, further damaging building exteriors.
  • The ring CO2 in the atmosphere means more carbonation. The CO2 reacts with the cement to form a different chemical element called calcium carbonate. It lowers the pH of concrete and makes the steel more exposed to corrosion.
Terminate infestations can cause tremendous internal damage to structures

The impact of climate change on infrastructure is evident and imminent. However, with sustainable building design, we may counter climate change and its effects more effectively.

OmDayal Group of Institutions: Maintaining Excellence in Education

The OmDayal Group of Institutions was established in 2010 with a vision to prepare progressive architects and engineers. The college offers engineering and architecture courses affiliated with MAKAUT (Maulana Abul Kalam Azad University of Technology). It is accredited by NAAC, and the Architecture and Engineering courses are approved by AICTE and COA. The students have a strong foundation with a robust learning environment and experienced faculty.

The Institute also offers flexible timing and on-job training in partnership with the National Small Industries Corporation (NSIC), Govt. of India Enterprise, to facilitate better placements. A leading college in West Bengal, OmDayal Group of Institutions holistically prepares its students as future professionals.

For more information, visit: https://omdayal.com

References:

  1. https://www.firstpost.com/tech/science/climate-change-is-affecting-buildings-as-they-were-designed-for-a-different-environment-9780001.html
  2. https://www.archdaily.com/931240/the-facts-about-architecture-and-climate-change
  3. https://www.nationalacademies.org/news/2021/07/infrastructure-for-a-changing-climate
  4. https://www.smartcitiesdive.com/ex/sustainablecitiescollective/how-climate-change-affects-building-design/1080271/

Remote Virtual Inspection (RVI) in construction engineering is a method that allows the inspector or inspection team to perform their duties remotely. It helps facilitate the social distancing norms during the onset of the Covid-19 pandemic.

The construction industry is closely associated with actual physical space, and now virtual reality offers immense benefits to people engaged within the industry. The applications are tremendous and may become a standard tool for inspection in the future.

Technology has enabled the successfully implementation of remote virtual inspection

Benefits offered by Virtual Inspections

  1. Reduce On-Site visits – Construction workers, managers, and supervisors are the people whose presence on construction sites is vital. Besides them, many stakeholders and key team members such as architects, designers, and company representatives are involved in the project. Virtual inspection, then, promotes their engagement without visiting the real-life location.
  2. Efficient System – When a problem arises during construction, there is no delay or disruption in work. The manager adapts to VR to assess the situation and provide the solution. Performance efficiency of the manager to handle multiple projects simultaneously is also achievable by RVI. It is particularly beneficial in global construction companies since it allows experts to advice without needing transit experts to visit the site.
  3. Proactive Solutions to Problems – Virtual inspections detect errors abundantly and fix them before a project begins. This proactive approach is easy as a problem discovered during the construction could be expensive and causes delays. The virtual model offers details and accuracy, which are highly beneficial.
  4. Cost Control  – VR cuts the cost on unnecessary supplies and enables better logistics control. Extra materials required, the feasibility of reuse and waste management of materials impact cost control and profitability.
  5. Ease of Workflow – Augmented Reality (AR) enables the construction worker or manager to work hands-free (using headsets and glasses) on virtual plans to specify the actual layouts in physical space, precise installation and placement of components and fixtures. The AR model on the job helps overlay the 3D model with the real world, allowing users to view spatial relationships with pinpoint accuracy and identify issues with the mechanical, electrical, and plumbing systems before they occur.
Augmented Reality presented in a theoretical concept of engine inspection
  1. Improve Customer Experience – It is possible with RVI to give the customer a guided tour through their new building even before the construction commences. Owners and shareholders can have a clear project vision, and the builder can meet the client’s expectations. The client can schedule virtual site visits and track the project’s status.
  2. Better Training and Safety – VR can train the staff for machine operations, refresher training or simulator training. Training becomes more accessible as the Training simulators create a 3D environment where operators learn how to use their tools and fix problems in contingency situations without being exposed to natural physical aberrations. It ensures minimal damage to equipment and the safety of the trainees.
  3. Increased Safety – VR ensures better planning, fewer accidents and a safer environment. Remote operation of machines is possible, with mitigation of any danger to the people on the premise.
  4. Upgrade Collaboration – BIM (Building Information Modelling) are Business Intelligence systems which store information about the project centrally so that any team member can work on models. A new feature or renovation can more easily involve stakeholder collaboration on a virtual model. The combination of cloud computing and BIM is a powerful medium, keeping everyone on the same page.
  5. Involve Top of the Line Industry Expertise – Cloud data sets and VR ensure accurate 3D models to get the best people on the job globally without geographical barriers, eliminating travel time and top-of-the-line expertise.
BIM technology combined with VR possessed immense potential in creating working models

Inspections at the construction site are an integral part of the project site. Safety planning, improved construction quality, better task focus, greener construction, resource waste prevention, and time schedules can ease operations when done virtually in construction engineering.

OmDayal Group of Institutions: Maintaining a Global Standard in Education

The OmDayal Group of Institutions was established in 2010 with a vision to prepare progressive architects and engineers. The college offers engineering and architecture courses affiliated with MAKAUT (Maulana Abul Kalam Azad University of Technology). It is accredited by NAAC, and the Architecture and Engineering courses are approved by AICTE and COA. With a robust learning environment and experienced faculty, the students have a strong foundation.

The institution also provide flexible timing and on-job training in partnership with the National Small Industries Corporation (NSIC), Govt. of India Enterprise, to facilitate better placements. A leading college in West Bengal, OmDayal Group of Institutions holistically prepares its students as future professionals.

For more information, visit: https://omdayal.com.

References:

  1. https://www.iccsafe.org/advocacy/safety-toolkits/remote-virtual-inspections/
  2. https://info.vercator.com/blog/embracing-vr-in-the-construction-industry

Invisible architecture is a new trend in architectural design that focuses on ways to minimise or hide the structure’s appearance. Whether it is a building, a walkway or a partition separating different spaces, the architecture creates an illusion of ”nothingness”. This style is taken up when the architect considers a novel concept as an accentuating feature in the design. Sometimes, the most desired part of the design is the surrounding nature and the green beauty reflected in the building’s camouflage.

The Maraya Concert Hall – A modern marvel

How is Invisible Architecture achieved?

The buildings blend into their environments and disappear from view. The technology and paradigms used in building design for the invisible feature can be explained as follows:

  • Emerging technologies like artificial intelligence (AI) and LED panels make the structures possible to disappear from view.
  • Structures are digitally visible but physically absent, as in BIM architecture. Building information models (BIM) are virtual files that help with decision-making during the construction process. A BIM model is a three-dimensional visual design for a project created using building information modelling software. BIM designers collaborate closely with architects and engineers to create designs for customers.
  • With Augmented Reality in Architecture, making buildings disappear with physical means will be replaced with manipulating physical environments with digital means to augment alternative overlays.
  • Digitally rendered ghost architecture may come to define our future urban spaces. Virtually generated interior designs will become the norm.
  • Mirrors are used to visually expand nature. The goal is to make the structure as unobtrusive as possible. It is often sufficient to just use glass to allow visitors to look into/straight through the structure from the outside and inside.
  • Sometimes, a complex system of high-definition cameras and LED panels to capture the surrounding sky is used, projected onto its façade. It allows the structure to blend visually with the surrounding atmosphere, making it almost invisible to the naked eye.
Desert X by Doug Aitken – Invisible Architecture amidst a desert landscape

Examples of Invisible Architecture

While on Invisible Architecture, it will be fair to highlight some marvels of Invisible Architecture worldwide.

  • The Optical Glass House by Hiroshi Nakamura – utilises glass bricks so that people can see both out and inside the house. The only prominent section from the outside is the garden which creates greater privacy for the proper living space and a green area for the inhabitants.
  • The Glass House by the Santambrogiomilao Group – is a concept house built entirely of glass – even furniture. It is an example of invisible architecture where one can see right through it.
  • The Moses Bridge in the Netherlands is built on a body of water to create an illusion that anyone walking on it feels literal like he is walking on water. Invisible Architecture Design can also be used for privacy partitions, walkways and public sculptures.

The calling card of science fiction design, Invisible Architecture, is a fantasy widely explored by the architect community, and it is becoming a reality now.

Mirage by Doug Aitken – Another showcase of creative brilliance

OmDayal Group of Institutions: Pioneers in Education

The OmDayal Group of Institutions was established in 2010 with a vision to prepare progressive architects and engineers. The college offers engineering and architecture courses affiliated with MAKAUT (Maulana Abul Kalam Azad University of Technology). It is accredited by NAAC, and the Architecture and Engineering courses are approved by AICTE and COA. With a robust learning environment and experienced faculty, the students are equipped with a strong foundation.

The institute also provides flexible timing and on-job training in partnership with the National Small Industries Corporation (NSIC), Govt. of India Enterprise to facilitate better placements. A leading college in West Bengal, OmDayal Group of Institutions, holistically prepares its students as future professionals.

For more information, visit: https://omdayal.com.

References:

  1. https://blog.rooroofing.com.au/invisible-architecture
  2. https://speculative.space/explorations/2020/6/29/mirrored-architecture

Bridges are made primarily to connect people and reduce the distance between two places over physical barriers like water, valleys or caverns. They tend to become a landmark and iconic element in the city’s skyline, imparting identity and character. The Golden Gate Bridge of San Francisco, Tower Bridge of London and even the Howrah Bridge connecting Howrah and Calcutta serve as ideal examples.

Howrah Bridge is an iconic landmark of Kolkata

Inception & Evolution of Bridges

The evolution of bridge construction is old in history. Initially, timber and stone were used, and the ancient Romans even used pozzolana cement made of ingredients like water, lime, sand and volcanic rock to build them. With the onset of the industrial revolution, materials with high tensile strength like steel were initiated to build bigger bridges with longer spans.

Hypnotic Bridges – Presenting the future

With the integration of AI and machine learning, bridges have undergone a massive transformation. Now, the suspension bridges or arched overpasses have taken a backseat. Hypnotic bridges are widely considered the future of bridges. In contrast to the square or oval type of design, the architects are moving towards a cleaner and fluid design concept, including curved shapes and natural twists and a more colourful and bright representation for the bridge design.

The bridges of the future have some changes in design elements:

  • Building Information Modeling (BIM) in the bridge design and the execution of large bridge projects have facilitated structures with a more fluid design concept.
  • Concrete and steel mean more robust and more resilient materials for constructing bridges.
  • The inclusion of minor adaptations of the existing longitudinal configurations facilitates the design and construction of multi-span suspension bridges easier. Classic illustrations of these are the Taizhou Bridge in China & Chacao Bridge in Chile, with partially earth-anchored cable-stayed bridges for spans up to 2000 m.
  • Prefabrication enables construction in a controlled environment using high-quality materials and standardized production processes. The amount of building at the site reduces the amount of time that the construction workforce and motorists are exposed to the dangers of work zones. It also leads to improved quality for extension of the structure service life. Furthermore, it assists in keeping a project on schedule and grip environmental limitations. This way, construction can be undertaken over complex sites such as water bodies, valleys or uneven terrain.
A pedestrian bridge which incorporates futuristic design elements

The Lucky Knot – more than just a connection between two places

A classic and recent example is the hypnotic bridge, ‘The Lucky Knot’ bridge, in Changsha, China. This unique footbridge is inspired by the Mobius strip. The design has three lanes swirling over in a continuous curvaceous manner at different heights. It gives pedestrians an option of various routes across the Dragon King Harbour River. This bridge has been designed based on two concepts: the exciting connections of a Mobius ring and a Chinese knot.

The bridge connects multiple levels, the river banks, the road, and a park, all at different heights. Accessibility to various sites at different levels is a new concept altogether. The knots connect all of these routes. Its length is 285 meters, and its height of 22 meters. It offers a picturesque view of the river and the surrounding mountain range. With its distinctive appearance, it aims to develop an identity for the city of Changsha in China.

A Mobius strip inspired design

OmDayal Group of Institutions: Bringing Innovation in Architecture and Engineering

The OmDayal Group of Institutions was established in 2010 with a vision to prepare progressive architects and engineers. The college offers engineering and architecture courses affiliated with MAKAUT (Maulana Abul Kalam Azad University of Technology). It is accredited by NAAC, and the Architecture and Engineering courses are approved by AICTE and COA. With a robust learning environment and experienced faculty, the students are equipped with a strong foundation.

The institute also offers flexible timing and on-job training in partnership with the National Small Industries Corporation (NSIC), Govt. of India Enterprise to facilitate better placements. A leading college in West Bengal, OmDayal Group of Institutions, holistically prepares its students as future professionals.

For more information, visit: https://omdayal.com.

References:

  1. https://scaranoarchitect.com/hypnotic-bridges/
  2. https://www.archdaily.com/512235/14-architectural-trends-that-will-define-the-next-decade
  3. https://11and4tht.wordpress.com/2013/11/17/prefabrication-in-bridges-and-aircraft/
  4. https://www.zingyhomes.com/latest-trends/hypnotic-bridge-architecture-changsa-bridge-china/

The Internet of Things (IoT) is a network of physical things embedded with sensors, software, and other technologies that allow devices and systems to connect and share data. Physical objects may range from everyday domestic items to industrial instruments. According to research, there are around 7.62 billion people in the world. With a growing trend of IoT devices, there may be about 20 billion IoT smart devices up and operating by 2022, with a rise in the need for 5G networks.

IoT – A versatile technology for better connectivity in diverse fields

Applications of IoT

Before we understand the implication of IoT, it is crucial to understand the applications of IoT in the various engineering fields. These applications are:

  • Mechanical Engineering – IoT helps improve communication, strengthen ethical systems and impart value to digital twin technology. Virtual data will help the engineers govern machines through remotely controlled software.
  • Electronic Engineering – IoT has revolutionised electronic engineering by enabling home automation, improving security and surveillance systems, instructing solar panels, and microcontroller monitoring.
  • Civil Engineering – IoT prevents breakdowns and provides real-time construction management solutions, automated documentation, worker safety, and timely decision-making in project construction.
  • Bio Medical Engineering – IoT finds various applications in health care. Typical examples would be health tracking IoT wearable devices. Moreover, it may lead to an early and fast diagnosis and fewer hospital visits.
Smart Home with the improved security and remotely controlled devices

Advantages of IoT

IoT has emerged as a widely accepted technology which better integrates devices. It offers significant advantages such as:

  • Improved Quality and Ease of Life – Using sensors embedded in different products, IoT can gather information on the expiration date of consumable products. Thus, it ensures a good quality as well as ease of life.
  • Time Management in Everyday Decisions – Data influences effective decision-making. Everyday decisions become precise while time management becomes more effective through IoT.
  • Cost-Effective – IoT could be a considerable cost-saving technology for managing workforce requirements and monitoring and maintaining supplies.
  • Enhance Device to Device Communication – IoT is a web of physical devices connected which are interacting. Hence, this system improves device-to-device communication.
  • Automation – Machines can give faster outputs and reduce any interaction gap through automation brought forward by IoT.

Challenges of IoT

Along with the advantages, IoT applications will bring with them numerous challenges:

  • Data Traffic – IoT creates a massive amount of data that will have an unpredictable impact on the networking systems. The devices may share the same emails and apps, making device management cumbersome.
  • Agility – To manage the flexibility and scalability of data, a cloud solution to manage the network and resources will be required.
  • Security of Data – Keeping the integrity and privacy of sensitive information intact presents the biggest challenge.

IoT can provide efficient data management, making everyday life accessible and qualitative. 

Connectivity the world seamlessly through a vast network of interconnected devices

OmDayal Group of Institutions: Instilling Excellence in Engineering

The OmDayal Group of Institutions was established in 2010 with a vision to prepare progressive architects and engineers. The college offers engineering and architecture courses affiliated with MAKAUT (Maulana Abul Kalam Azad University of Technology). It is accredited by NAAC, and the Architecture and Engineering courses are approved by AICTE and COA. With a robust learning environment and experienced faculty, the students are equipped with a strong foundation.

The institution also provides flexible timing and on-job training in partnership with the National Small Industries Corporation (NSIC), Govt. of India Enterprise to facilitate better placements. A leading college in West Bengal, OmDayal Group of Institutions, holistically prepares its students as future professionals. 

For more information, visit: https://omdayal.com.

References:

  1. https://technosofteng.com/applications-of-internet-of-things-iot-in-engineering/
  2. https://blog.externetworks.com/implications-of-the-internet-of-things/

The transportation industry has witnessed the emergence of significant trends to accommodate the need for environmentally friendly and resilient ways of commuting. Rapid advancements in technology, especially in engineering, offer more refinement in this regard. There is a common understanding that technology will mould the transportation industry in the coming years. The trends are associated with improved speeds, less commute time and the rise of autonomous modes of movement, made possible by engineering concepts.

High-Speed Travel – High speeds travelling options will revolutionise the industry, with Hyperloops rapidly gaining traction worldwide. Hyperloop is a fast mass transport system, much faster than the traditional transportation system. The speed could reach up to 700 miles per hour, almost the speed of an aircraft or supersonic jet. It uses the technology of magnetic levitation, where long tubes connecting one location to the other above or underground is possible. The passenger carrying cars called Pods travel inside these tubes, and the accelerators are made of magnets to get the speed of 700 mph. The magnetic accelerators are placed throughout the tubes to help the pods accelerate speed. The pressure inside the tubes is extremely low, so the pods are surrounded by little air. Thus, supersonic speed would become possible.

Hyperloop design concept

Radical New Technologies – Transportation is about to move ahead more rapidly in the coming years with the advent of new technologies -frictionless vehicles and binary power. The flying cars are seen on the radar screen to become a next generation automotive technology. They will begin with a more convenient version of today’s aeroplanes and eventually convert to frictionless cars.

Fully automated vehicles for Human freedom and control – Automotive companies will focus on fully automated vehicles where people can “punch in” or “speak” the place they want to go to, and the car will automatically take them there. This feature will give a sense of freedom and control to the human system; and be highly compatible with the elderly, physically disabled, and visually and mentally challenged people. Fully automatic navigation systems for ground-based vehicles will become the future trend.

autonomous car concept

Luminous Pathways to Increase Safety – The road surface is covered with a synthetic material that has material to absorb the solar energy during the day and transforms it into a glow at night. This technology ensures better visibility on pathways even without light sources, and it can improve traffic safety and the visual appeal of streets and the city.

Solar Panel Roads to Generate Electricity – Solar panels are installed on road surfaces to boost local renewable energy production significantly. The Netherlands has already piloted this venture in the future of transportation, and solar panelled cycling pathways could be the future promise.

Hydrogen Fuel for Greener Transport in the Future – Hydrogen is an ideal fuel from the environmental and climate point of view because it is pollution-free and abundantly available. Overcoming the challenges of hydrogen production from resources apart from fossil fuels and the storage of hydrogen as it is highly explosive – could revolutionise the future of transport by being used as fuel for, e.g. cars, trains, aeroplanes, and airships.

Hydrogen fuel trams in city

AI and Data drove Maritime Transport – The advancement of AI is a crucial driver in technological change in the transport system. Autonomous ships with AI to calculate transport velocity, weather, and sea currents could produce intelligent maritime transport systems for efficient cargo transport.

Cabins on Robot Platforms – Robot vehicles will give way to a new technology, whereby a Robot Drone carrying a passenger can be moved from one transportation platform to another without the need for the passenger to enter and exit another vehicle: the cabin can travel on a railway carriage, ship, in a vacuum tube, or on an aerial vehicle. It could be an economy worth billion and create a service economy of cabin entertainment while in transport mode.

Thus, we can enhance the transport industry through advancements in technology and engineering. We can ensure greater security for commuters and sustainability for the public and the environment. Engineering concepts like artificial intelligence can enhance and innovate the current modes of transport. It can also revolutionise the industry for the foreseeable future.

OmDayal Group of Institutions: Providing high-quality education

The OmDayal Group of Institutions was established in 2010 with a vision to prepare progressive architects and engineers. The college offers engineering and architecture courses affiliated with MAKAUT (Maulana Abul Kalam Azad University of Technology). It is accredited by NAAC, and the architecture and engineering courses are approved by AICTE and COA. With a robust learning environment and experienced faculty, the students are equipped with a strong foundation. The Institute also provides flexible timing and on-job training in partnership with the National Small Industries Corporation (NSIC), Govt. of India Enterprise to facilitate better placements. A leading college in West Bengal, OmDayal Group of Institutions, holistically prepares its students as future professionals. 

For more information, visit: https://omdayal.com.

References

  1. https://www.futuresplatform.com/blog/12-trends-will-drive-future-transport
  2. https://www.engineeringpassion.com/hyperloop-technology-the-future-of-transportation/
  3. https://futuristspeaker.com/future-scenarios/2050-and-the-future-of-transportation/

Machine Learning (ML) has assumed significant importance in architecture in recent times. When coupled with data science technology, ML offers substantial advantages in data forecasting and predictive analysis. Moreover, it involves the processes of data acquisition, data processing, model engineering, excursion and deployment within its ambit.

Link between Machine Learning and Predictive Analysis within Data Science

Urbanisation and carbon dioxide emissions

With the influx of urbanisation predicted to cause a 70% increase in urban population over the next 15 years, the need for construction is very high. About 7 billion people will live in cities, and this boom will further contribute to climate catastrophe and further devastation. Urbanisation generates a significant amount of carbon dioxide emissions, adversely affecting the environment. Thus, there is a need to apply sustainable solutions to architecture and construction, and ML can offer a helping hand in this endeavour.

Application in architecture

Machine Learning will contribute toward the reduction of CO2 emissions by incorporating aspects of architecture and building design:

  • ML provides the foundation for long term, sustainable and adaptable solutions to global sustainable architecture problems. A systematic map of the consumption of building materials without wastage will determine environmental impact.
  • Increasing the energy efficiency of the systems based on renewable energy resources and integrating ML models in the design will facilitate the optimal flow of energy in a green building.
  • Due to access to big data available, ML systems will enable individual needs and preferences in the design and interior of a home and focus on mass personalisation with almost zero waste.
  • Movable walls and mobile infrastructure made possible by ML based model designs will increase space flexibility in architecture.
  • The minimisation of construction waste is an important area of impact. ML will recommend suitable solutions to component use based on environmental impact and the budgets available. Implementing reusable components will be a huge disruptive change.
  • ML models will suggest the optimal location of objects in home design using platforms and artificial intelligence based on user needs. A uniform communication system will thus get enabled.
  • Intelligent environments can be created with the advancement of the Internet of Things (IoT) and applications that connect the environment and users.
  • Decentralised systems can be developed with the help of blockchain technology and the IoT. ML models help with the amount of data and minimise the impact on the environment.
  • Digital platforms and the use of artificial intelligence will help create user-oriented environments. ML will help provide solutions to this for each user.
  • The construction industry’s potential can be enhanced by introducing integrated solutions to optimise the construction process in terms of the carbon footprint. The use of biodegradable materials and natural fibres is sustainable, and ML will suggest optimal materials vis a vis environmental impact, cost and durability. It also offers single transport modules for transportation of building construction material and can recommend the infrastructure and transport capacity constraints.
  • ML will help create a sustainable urban environment. Due to the construction of many residencies and multi-functional buildings, it will help to optimise resources sustainably.
Machine Learning is the future in architecture and engineering

Moving forward with Machine Learning

The integration of Machine Learning in architecture can be very beneficial in reducing the carbon footprint and sustainable building design. It presents the way forward in architecture and construction.

OmDayal Group of Institutions: Cultivating excellence in the next generation of engineers

The OmDayal Group of Institutions was established in 2010 with a vision to prepare progressive architects and engineers. The college offers engineering and architecture courses affiliated with MAKAUT (Maulana Abul Kalam Azad University of Technology). It is accredited by NAAC and approved by AICTE and COA. With a robust learning environment and experienced faculty, the students are equipped with a strong foundation. The Institute also offers Vocational Diploma courses and is affiliated with the West Bengal State Council of Technical and Vocational Education and Skill Development. It also provides flexible timing and on-job training in partnership with the National Small Industries Corporation (NSIC), Govt. of India Enterprise to facilitate better placements. A leading college in West Bengal, OmDayal Group of Institutions, holistically prepares its students as future professionals.

For more information, visit https://omdayal.com.

References:

  1. https://medium.com/mlearning-ai/machine-learning-change-the-architecture
  2. https://www.educba.com/machine-learning-architecture
  3. https://medium.com/mlearning-ai/greenwashing-in-architecture

5G will be one of the crucial factors in establishing and enabling advances in engineering. It offers manufacturers and telecom operators the opportunity to set up smart factories and leverage automation, artificial intelligence, augmented reality for troubleshooting, and the Internet of Things (IoT).

With its signature features such as superfast broadband, ultra-reliable low latency communication, massive machine-type communications, high reliability/availability and efficient energy usage, 5G presents the way forward. Industry digitalisation can leverage unprecedented connectivity, optimal energy and utility use to address shorter product and business life cycles. It also leverages cloud infrastructure, virtualised network core and intelligent edge services.

5G offers seamless connectivity and fast communication in diverse industries

5G in the field of engineering

  • 5G and the automotive industry – With 5G technology, the first generation of automated cars will be manufactured. A surreal collaboration between an autonomous car and a smart city can be seen. The automatic car will be able to sense and choose the optimal route on the roads with the ETA based on traffic data communicated from other cards and roadways. Another feature will be the facilitation by 5G for smart parking through efficient management of parking spaces, thereby reducing traffic and pollution. The union of the 5G network and intelligent devices will make the system scalable. The development of Artificial Intelligence and 5G supported Vehicle-to-Everything (V2X) communication will play a key role in enhancing the efficiency of traffic and reducing collisions.
5G plays a vital role in the production of the next generation of smart cars
  • Healthcare Sector – It is estimated that more than $1 trillion in products and services will be enabled by 5G for the global healthcare sector. Patients can wear a medical remote sensor which will transmit their vital signs to the healthcare providers. This data can be duly monitored by the doctors and provide medical advice via a webcam. In this way, instead of patients approaching doctors, the patients and doctors can be connected worldwide. It will also eliminate expensive in-patient care by connecting more medical devices to IoT, which will enable doctors to monitor patients remotely. Digital imaging and scan reports can be sent anywhere across the globe for expert analysis. Wearable devices like fitness trackers and smart watches can transmit vital statistics to doctors and notify doctors of any changes immediately. The elderly and physically challenged people will be significantly benefitted from these services.
  • 5G and the Internet of Things (IoT) – 5G is ten times faster than 4G. Thus, it can connect seamlessly with multiple devices at a time, and it could eliminate the problems involving latency in cellular networks. It can connect to the cloud for storage, which can quickly solve the network latency issues, which will lead to increased efficiency and allow more connected devices. Since 5G will be able to swiftly transmit data, more connected devices could be set up by companies without the fear of an overcrowded network, worsening existing latency issues. Thus, 5G can help solve the most prominent mobile development challenges and fulfil the potential of ultrafast networks, powerful mobile devices and limitless developer imagination.

The vital functional drivers of 5G will unlock a broad range of opportunities, including optimising service delivery, decision-making, and end-user experience. It will result in $13.2 trillion in global economic value by 2035, generating 22.3 million jobs in the 5G global value chain alone.

5G revolutionising healthcare by providing more connectivity between doctors and patients

OmDayal Group of Institutions: Pioneering Education

The OmDayal Group of Institutions was established in 2010 with a vision to prepare progressive architects and engineers. The college offers engineering and architecture courses affiliated with MAKAUT (Maulana Abul Kalam Azad University of Technology). It is accredited by NAAC, and the Architecture and Engineering courses are approved by AICTE and COA. With a robust learning environment and experienced faculty, the students are equipped with a strong foundation.

The Institute also provides flexible timing and on-job training in partnership with the National Small Industries Corporation (NSIC), Govt. of India Enterprise, to facilitate better placements. A leading college in West Bengal, Om Dayal Group of Institutions, holistically prepares its students as future professionals.

For more information, visit: https://omdayal.com.

References:

  1. https://www.ericsson.com/en/reports-and-papers/5g-for-manufacturing
  2. https://www.pwc.com/gx/en/about/contribution-to-debate/world-economic-forum/the-impact-of-5g.html
  3. https://www.prescouter.com/2018/01/5g-impact-different-industries/

The Covid-19 pandemic has changed the world and compelled us to adapt to the new normal. There is a conscious change in how we live, work, eat or entertain. Architects speculate how these changes will influence the next generation of homes, offices and other buildings around us. In the face of transformation, we have to learn to live with increased isolation and reduced contact. In the post pandemic world, adaptability and creation of spaces will be more functional than aesthetic. The several changes in diverse architectural forms are as follows:

Homes or Living Spaces

Designing homes or living spaces will require a whole new approach. With the possibility of being confined to the house, living spaces will be more ventilated, with a private outdoor space like a balcony or garden as a priority. The apartment schematics will reflect pandemic anxiety, as the kitchen, dining room, and living room are separate entities instead of flowing together. The bedrooms will be spaced apart for better acoustic buffering as workspaces and include more space for work desks to accommodate the work from home needs. 

Technologically abled and competent homes will be the new avatar in homes. People will travel less for pleasure and focus more on their local quality of life, with a critical focus being their home. Hence, outdoor space and fresh air with daylight are perceived as lifestyle-enhancing and may become more desirable. Suburban living is preferred, which offers a more spacious home and open greens at affordable budgets.

Private outdoor spaces are increasingly becoming popular

Office or Work Spaces

Covid-19 calls for the prophylactic design, which means the consideration of the upkeep of health and not the mere absence of disease. Open plans at workplaces will be healthier than co-working spaces. As work from home and staggered office attendance is the new normal, segregation of desks with solid material and social distance norms will be more common. Conference-room chairs have been thinned out, and closed spaces must be exited clockwise, in unison, so that co-workers are socially distanced. As demand for virtual meetings, acoustic isolation will require architecture and furniture design innovations. An intentional blurring of the natural outdoor environments with interior space makes the office more comfortable, inviting, and healthful for the people who use it.

Home office are easily adaptable to modern homes

City Spaces

The big turnaround post pandemic is that public spaces in cities are accessed defensively. With public places such as restaurants, bars, hotels, and cafés reopening, people use them as the covid protocol demands. Life has transgressed majorly to an online mode, especially in the case of the retail sector. The pandemic’s impact on urbanism has emerged in small changes that can be implemented faster than a new building or zoning plan. Infrastructure like parks, pools, beaches, playgrounds and other facilities in dense urban living is anxiety-inducing. The temptation to visit them is balanced by the threat of exposure to the virus. So, architects have shifted their onus to introduce open spaces blending into the interiors. In cities and public areas, a new hygienic style has emerged. 

City infrastructure must adopt measures to protect the public

Industry Specific Systems

Architecture is more than busy adapting to the changes in the various industry sectors. While the retail industry has witnessed a major online shift, the growing industry of the design industry is healthcare. The interior design of the increasing healthcare industry is to make hospitals and clinics as comfortable as possible and be able to mitigate crowding at any point in time. Catering to the patients’ psychological needs by incorporating design elements that spell openness, peace, and calm.

OmDayal Group of Institutions: Preparing the next generations of architects

The OmDayal Group of Institutions was established in 2010 with a vision to prepare progressive architects and engineers. The college offers engineering and architecture courses affiliated with MAKAUT (Maulana Abul Kalam Azad University of Technology). It is accredited by NAAC and approved by AICTE and COA. With a robust learning environment and experienced faculty, the students are equipped with a strong foundation. The Institute also offers Vocational Diploma courses and is affiliated with the West Bengal State Council of Technical and Vocational Education and Skill Development. It also provides flexible timing and on-job training in partnership with the National Small Industries Corporation (NSIC), Govt. of India Enterprise to facilitate better placements. A leading college in West Bengal, OmDayal Group of Institutions, holistically prepares its students as future professionals.

For more information, visit: https://omdayal.com.

References:

  1. https://www.newyorker.com/culture/dept-of-design/how-the-coronavirus-will-reshape-architecture
  2. https://gwtoday.gwu.edu/how-coronavirus-changing-architecture
  3. https://commonedge.org/how-might-the-covid-19-pandemic-change-architecture-and-urban-design/

Gated communities or townships consist of residencies with shared amenities and streets. The demand for holiday homes and independent floors and villas within a gated community is now the prima donna of architecture. Prospective buyers look for managed standard amenities offering a healthy lifestyle and a safe environment. Thus, gated communities are on the rise in the real estate industry.

Concept of a Gated Township

The concept of townships has become extremely popular due to ever-increasing housing demand, particularly among the elite rich. It embraces the provision of basic facilities, including schools, hospitals and recreational centres. Premium and exclusive condominiums, villas, penthouses, row houses and duplexes with beautiful landscapes are the new attractions of the rich who seek a luxurious lifestyle.

High-end amenities within the apartments are a part of the package. Sought after features such as planned landscaping, huge large-scale layouts, facilities like central air conditioning, electronic access controls, swimming pools with Jacuzzis, and recreational spaces are included in luxury apartments. It makes it possible for residents to stay within the community for most daily activities.

Amenities should enhance the locational experience and make the apartment a coherent part of the natural surroundings. Residencies now emphasise smart living, greener homes and ample space to accommodate work and learn from home for the family members.

The location is also a significant factor as it should signify pride and dignity for the customer. The connectivity to retail, education and entertainment areas also adds value to the homeowner.

Luxury Apartment with modern facilities, ample space and home office

Requirement of a Gated Township

The gated township must be stylish, striking, and a symbol of the global lifestyle. Alongside with multi-layered security facility, it is considered a must-have by customers.

Exclusivity is the key feature. Right from the apartment premises, everything should be exclusive. The entrance foyer, the parking areas, the lift lobbies, fine interiors of the apartments, fully equipped kitchen, and utility spaces – should be well designed.

The scope for providing amenities is becoming increasingly evident by the day. Landscaped gardens with lakes and waterer fall, temperature-controlled swimming pools, a well-equipped Clubhouse, conference halls, sports area, gymnasium, squash courts, yoga room, tennis courts, fitness centre, cafe, salon, spas, lavish decks are all the essential features. These are for the luxurious baby boomers.

Brand millennials are educated, tech-savvy, curious, goal-oriented, financially astute, eco-conscious, and trendy. They think Green and opt for energy-efficient appliances such as high-efficiency stoves, refrigerators, washing machines, water heaters, furnaces, or air conditioning units. They seek pet-friendly and low maintenance houses. Millennials enjoy entertaining, and they prefer an open floor plan that fully engages the homeowner with their guests in a casual fashion. Also, a home office workspace is a must-have. 

An example of an open concept floor plan

Choosing a home in gated townships

Indians are better placed monetarily now and demand world-class amenities with value-added services. Builders are willing to comply with customers eager to spend handsomely for better facilities. The security and well-being of the residents are of primary importance. Therefore, a layered security system with home level burglar alarms and security cameras and personnel at the entrance gates becomes mandatory.

Premium and luxury segments account for 14-15% of overall gated communities. Their contribution may go up to 20% in the next five years. The industry is shifting towards ready to move in houses, especially in condominiums and integrated townships. They offer a secured environment with more lavish amenities and facilities within the gated communities. Independent floors remain an attractive investment option due to lower investment costs.

While Millennials, with more investment income, continue to play a dominant role in today’s housing market. This generation knows what it wants, so gated townships are transcending to include features of green appliances, pet-friendly landscaping, and WFH capabilities. It is time to tout the open spaces inside and the low-maintenance outdoors.

Modern homes emphasise security with new features including CCTV and locking systems

Pioneers in Education

The OmDayal Group of Institutions was established in 2010 with a vision to prepare progressive architects and engineers. The college offers engineering and architecture courses affiliated with MAKAUT (Maulana Abul Kalam Azad University of Technology). It is accredited by NAAC, and the Architecture and Engineering courses are approved by AICTE and COA. With a robust learning environment and experienced faculty, the students are equipped with a strong foundation in engineering and architecture.

The Institute also offers Vocational Diploma courses and is affiliated with the West Bengal State Council of Technical and Vocational Education and Skill Development. It also provides flexible timing and on-job training in partnership with the National Small Industries Corporation (NSIC), Govt. of India Enterprise to facilitate better placements. A leading college in West Bengal, OmDayal Group of Institutions, holistically prepares its students as future professionals.

For more information, visit: https://omdayal.com

References:

  1. https://economictimes.indiatimes.com/industry/services/property-/-cstruction/demand-for-homes-in-gated-communities-on-the-rise
  2. https://www.tamrawade.com/home-features-that-millenial-home-buyers-love/

The incorporation of steel has been an essential innovation in architecture. It facilitates stronger and taller structures with reduced construction costs than stone, wood or brick. It also ensures greater unsupported spans over openings and interior and exterior spaces. The evolution of a steel frame in construction changed the entire concept of the wall and support technique in architecture.

Incorporating steel in architecture was a game-changer

History of Steel Architecture

In the history of architecture, Cast Iron was the first metal substituted for traditional and structural materials to build bridges. Its ability to bear loads, resistance to fire and corrosion encouraged architects to adapt. In the 19th century, cast iron was replaced mainly by steel, which is more uniformly robust, elastic and workable, with inherently high resistance. The Eiffel Tower, constructed in 1887-89 by Gustave Eiffel in Paris, stands as an ideal example of this transition. Other iconic steel structures such as the Brooklyn Bridge (the world’s first suspension bridge) constructed in 1883 and the world’s first steel skyscraper, the Home Insurance Building in Chicago, were also built.

Attributes of Steel as a Construction Material

Steel as a building material has specific attributes by which it has numerous applications and wide usage in architecture and construction:

  • Steel structures weigh less than typical structures.
  • It has high strength, is ductile, can be made into different shapes, and withstand high pressure.
  • It is highly durable with a longer lifespan than other construction materials and requires less maintenance.
  • With the ability to be prefabricated, it requires less construction time.
  • Its properties are controllable and predictable, unlike concrete.
  • Steel may be an expensive choice for construction material but is more economical in the long run.
  • It can be recycled on a large scale and hence a sustainable construction material.
Steel in more durable and is cost-effective in the long-term

Applications and Usage of Steel in Architecture

In architecture, steel has a wide range of possibilities.

  • Skyscrapers – In constructing tall buildings, steel is the primary material. Steel is used in beams, frames and trusses. The tallest building in the world, the 830 m high Burj Khalifa, is built from steel-reinforced concrete. Its spire, about 200 m high, is constructed from structural steel. The 1000 m high Jeddah Towers, with a construction area of 530,000 sq. m., will be the centrepiece of the Jeddah Economic City Development in Jeddah, Saudi Arabia, near the Red Sea.
  • Long Spans – Steel allows long clear spans, which result in flexible internal spaces. Currently, the world’s longest clear span belongs to the Dallas Cowboys stadium in the US with two colossal arches, rising 292 feet above the ground and spanning 1225 feet in length. Both these are covered with a single retractable roof, covering a total area of 73 acres.
  • Cantilevers – Traditionally, cantilevers made of concrete could extend up to 1.5 to 2 m without buckling. With the use of steel, cantilevers can extend 40 times in length. The world’s longest cantilever is in South Korea’s Busan Cinema Centre and is 85 m long. Its gigantic roof is 163 m long and 60 m wide.
  • Finishings – Steel can also be used as a cladding material and framing doors and windows. Various buildings in modern architecture showcase steel as a finishing material. It can be used as straight and inclined columns to create a dramatic effect. Steel Frame Structure Foundation – Steel framed structure construction begins with the construction of the foundation of the building. The reinforced bearing pads or strip foundation help transfer loads to the soil capable of bearing this load.
  • Floor Systems – Steel frame structure construction in floors supports vertically applied loads. They act like diaphragms and resist lateral loads through the use of bracings.
Steel is the future of architecture

With its many desirable characteristics, which make steel suitable for many applications in construction, steel has become popular in the fields of architecture and construction.

Inculcating Excellence in the Next Generation of Architects

The OmDayal Group of Institutions was established in 2010 with a vision to prepare progressive architects and engineers. The college offers engineering and architecture courses affiliated with MAKAUT (Maulana Abul Kalam Azad University of Technology). It is accredited by NAAC, and the Architecture and Engineering courses are approved by AICTE and COA. With a robust learning environment and experienced faculty, the students are equipped with a strong foundation. The Institute also offers Vocational Diploma courses and is affiliated with the West Bengal State Council of Technical and Vocational Education and Skill Development. It also provides flexible timing and on-job training in partnership with the National Small Industries Corporation (NSIC), Govt. of India Enterprise to facilitate better placements. A leading college in West Bengal, OmDayal Group of Institutions, holistically prepares its students as future professionals.

For more information, visit https://omdayal.com.

References:

  1. https://www.britannica.com/topic/architecture/Iron-and-steel
  2. https://www.arch2o.com/steel-structures-changed-architecture/
  3. https://theconstructor.org/structures/construction-steel-structure-foundations-columns-beams-floors/18648/

Carbon neutrality refers to a state of net-zero carbon dioxide emissions. It is achieved by balancing carbon emissions with carbon offsetting or reducing and eliminating emissions from society. Carbon emission can be associated with processes in the transport industry, energy production, autonomous robotics technology, architectural projects and others. Accountability of carbon footprints and moving towards “Net Zero” is a commitment toward decarbonization and climate action by including more activities under the scope of indirect emissions of carbon.

Carbon Footprint Concept

Efforts to Reduce Carbon Emissions

The endeavours toward reducing carbon emissions through engineering are summarised as follows:

In the manufacturing industry, manufacturers can lower their carbon dioxide emissions management of eco-design. It is achieved by minimizing the environmental impact by using biodegradable materials, substituting the input material and designing with fewer input materials and lightweight designs. Processes from material extraction and supply to the end of the life cycle should be environmentally friendly.

Additive manufacturing uses less energy, produces fewer waste products and is highly versatile. (1) In the actual process, two carbon dioxide molecules are made for every molecule of ammonia produced. But producing ammonia through electrochemical processes could reduce the carbon footprint and global energy usage on a larger scale. (2)

In Autonomous Robotics, mobile robots used for various applications such as mapping, rescue, hazard detection and others; rely on traditional energy resources such as oil and electricity, which produce toxic emissions and a carbon footprint. Shifting to solar energy as an option could help mitigate the carbon emissions and damage ecosystems. (3)

The adoption of sustainable practices to reduce carbon emissions

Sustainable Adaptations in Architecture

In Architecture, architects can make significant impacts during the building stages of the project. Renovation and reuse of buildings can save 50 to 75 per cent of embodied carbon emissions compared to the construction of new buildings. Specify low carbon concrete mixes by using fly ash, slag, and calcined clays should be made feasible.

In construction, materials such as aluminium, plastics, and foam insulation can reduce the carbon footprint.

Choosing low carbon materials and choosing carbon sequestering materials can significantly impact the embodied carbon in a project. Using straw and hemp insulation, which are annually renewable, is a good option instead of wood.

The reuse of materials is energy efficient. Whenever possible, the preference to salvage materials such as bricks, metals, broken concrete, or wood is an eco-friendly option.

Carbon emissions can be reduced by using high-recycled materials, fewer finish metals and minimizing waste. These contribute toward carbon savings and carbon sequestering. (4)

Sustainable Adaptations in Engineering

Engineering solutions in the transport industry, such as the proliferation of engineered Electrical vehicles, green lanes, and Eco-Driving, can reduce fuel consumption in the transport industry and reduce carbon footprint. (5)

Connectivity will be a crucial enabler for most exponential climate solutions. It is estimated that the digital technology sector is probably the world’s most potent influencer to accelerate action to stabilize global temperatures well below 2°C. While driving exponential growth in data performance, it has the opportunity to cut global emissions in half by 2030. The digital sector can also move towards 100% renewable energy demand. (6)

Engineering helps the transition towards renewable sources of energy to reduce carbon emission

Sustainability and carbon emission management techniques are the way forward to address the imminent risk of tipping points in the Earth’s life support systems by efficiently reducing the carbon footprint so evident today.

OmDayal Group of Institutions: Providing High-Quality Education

The OmDayal Group of Institutions was established in 2010 with a vision to prepare progressive architects and engineers. The college offers engineering and architecture courses affiliated with MAKAUT (Maulana Abul Kalam Azad University of Technology). It is accredited by NAAC, and the Architecture and Engineering courses are approved by AICTE and COA. With a robust learning environment and experienced faculty, the students are equipped with a strong foundation. The Institute also offers Vocational Diploma courses and is affiliated with the West Bengal State Council of Technical and Vocational Education and Skill Development. It also provides flexible timing and on-job training in partnership with the National Small Industries Corporation (NSIC), Govt. of India Enterprise to facilitate better placements. A leading college in West Bengal, OmDayal Group of Institutions, holistically prepares its students as future professionals.

For more information, visit: https://omdayal.com

References:

  1. https://matmatch.com/resources/blog/five-ways-manufacturers-can-reduce-carbon-emissions/
  2. https://engineering.tamu.edu/news/2022/04/chen-producing-ammonia-through-electrochemical-processes-could-reduce-carbon-dioxide-emissions.html
  3. https://www.iri.upc.edu/files/scidoc/1873-Solutions-to-reduce-CO%3Csub%3E2%3C-sub%3E-emissions-for-autonomous-robotics.pdf
  4. https://www.aia.org/articles/70446-ten-steps-to-reducing-embodied-carbon
  5. https://www.oecd.org/derec/adb/47170274.pdf
  6. https://www.weforum.org/agenda/2019/01/why-digitalization-is-the-key-to-exponential-climate-action/

Automation is about designing a system capable of operating and making decisions independently that requires little to no human involvement. It is an autonomous integration of different mechanics at play, reducing human efforts and assuring fewer defects for various products. It is applicable in multiple fields.

Engineering harnesses the power of automation to develop devices and design sites and data for companies to run their operations smoothly. It allows going beyond the traditional methods of production.

Automation is applied in many industries

Application of automation in engineering

The word ‘automation’ was coined in 1947 and has become an indispensable part of our lives. (1) Almost every human task or industrial production requires machines, and automation provides several benefits. 

Engineering is another aspect that affects humans at every level! It has modernised and upgraded everyday tasks conceivable.

Automation in engineering allows for the smooth functioning of various manufacturing and computer processes. Automation engineers update, change and program existing or new technologies to reduce human effort and monitoring! 

Broadly dividing the engineering sector into two sections, there are several implementations of automation in the industry:

Mechanical engineering: Automation in this sector focuses on designing, manufacturing and developing controls for complex and minimal machines, making them easier to produce. 

  • The automotive industry is heavily reliant on streamlining within its production process. Robots handle complex and heavy machinery building, allowing faster and better output. Artificial intelligence is a subdivision of automation that allows driverless/autonomous cars. (2) These devices learn from their surroundings to improve functionality and efficiency using different sensors.
  • Another ingenuity of automation in the engineering field is – ‘Machine Vision’ (MV). It detects flaws, facilitates practical positioning, bar code reading, etc. (3) It works like the eye of cameras and smart sensors devices. MV is an amalgamation of mechanical and software engineering. (2)
Automation in automobile production line

Software engineering: Businesses are increasingly adopting automation to run things smoothly.

  • ‘Chatbots’ are one example that navigates customers to the right person or solution for their enquiries. These bots give an automated response to the pre-stated questions. It reduces the time spent by each employee and client as simple doubts like – tracking details.
  • Self-checkouts at grocery stores have reduced human effort and involvement. Aside from saving costs for the company, it also reduces waiting time for the customers. 
Automation in software engineering concept

Does automation create or destroy jobs?

While automation is a part of most industries, improving products and services for companies, the question arises of whether it creates or reduces jobs. Since the industrial revolution, workers have been concerned that machines might replace manual tasks, hence their jobs. According to Harvard Business Review, The World Economic Forum estimates that by 2025, technology will generate about 12 million more jobs than it destroys. (4) Although there can be various aspects in play, like education and training.

Automation is ushering the world into a new era of development! Harnessing the technique with care can help unlock technologies for safer and more reliable products and services.

OmDayal Group of Institutions: Aiming for excellence

Established in 2010, The OmDayal Group of Institutions offer courses affiliated with MAKAUT (Maulana Abul Kalam Azad University of Technology), accredited by NAAC and AICTE and approved by COA. We offer a wide range of courses in the engineering field to prepare future architects and engineers with world-class infrastructure, qualified faculty and updated course structures. Students are provided with multiple opportunities for comprehensive development and growth.

We train students and prepare them for future interviews by focusing on soft skill development.

For more information, visit https://omdayal.com

Reference:

  1. https://www.britannica.com/technology/automation
  2. https://www.plantautomation-technology.com/articles/top-automation-technologies-used-in-automotive-industry
  3. https://www.iqsdirectory.com/articles/machine-vision-system.html
  4. https://hbr.org/2021/11/automation-doesnt-just-create-or-destroy-jobs-it-transforms-them

Digital Twinning in Engineering and Architecture is a dynamic and updated replica of the product, process, system or facility. It aims at stimulating, predicting and advocating decisions in engineering, architecture and construction. (1)

The concept has been adopted for decades, particularly in the aerospace industry. Digital twinning replicates the physical assets of a building, a campus, a city or an infrastructure; that collates design, construction and real-time operational data using digital technology.

The benefits of Digital Twinning are manifold. It helps to give a multidimensional view into how an asset is designed and its performance using space utilization and traffic patterns. It is applied across industries to monitor performance and detect issues, simulate design without building a physical object, and provide visibility into a building or machine without the need for physical access. The impact of the invention, weather disruptions, security events, and others can be deciphered through this technology.

Digital twinning works by integrating the building’s system, sensor and utility meter data with intelligent multidimensional models. The ‘digital twin’ has the behavioural and operational awareness required to simulate, predict and inform the decisions based on real-world conditions. The technology provides many benefits, including improved data sharing, collaboration, safety, and trustworthiness. It also provides increased productivity, the capability to manage operations in real-time, conduct simulations and experiments, cost-effectiveness, and optimize asset performance and sustainability. (2)

Digital Twin of a car during manufacturing

Types of Digital Twins:

Each type of digital twin possesses a greater degree of maturity and digital transformation, offering increased value to the business.

  • Status Twins are typically used for basic condition monitoring applications such as dashboards and simple alerting systems. Status twins include operating parameters and are created with visualization tools.
  • Operational twins provide more detailed information than status twins, allowing for use in decision making. These types of twins are linked to a set of actions or workflows so that users can interact with the twin and change operating parameters by informing decisions.
  • Simulation Twins different leverage types of simulation and uses AI capabilities to predict, forecast or provide insight into future operational states. It can be used for predictive maintenance or to improve the recovery yield of a processing plant. It operates using advanced algorithms for simulation and 3D visualization.
Digital Twin concept in Architecture

Application in Industries

Digital twinning has various benefits when applied to industries.

  • In the Architecture and Engineering Sector, a digital twin is in the form of an inbuilt asset. In the design of an office building, there is a digital replica of the entire building, which is a digital twin. The further detailed design incorporation becomes more accessible and accurate. Project life- cycles can be predicted well.
  • In the Manufacturing Industry, a digital twin is a virtual representation of the real-world product or asset, with an additional benefit of continuous real-time data from the object. It helps to improve business practices, reduce downtime and increase the ROI.
  • In the Construction industry, the simulation power of Digital twinning has a significant impact because it incorporates raw data, and the digital simulations can develop blueprints. The Construction companies thus have a foolproof method to conduct operations. (1)

Despite its benefits, the adoption of Digital Twinning in the Engineering and Construction Industry faces challenges and is slow to be adopted.

  • Technology – Digital twinning is nascent and requires time, skilled resources, proper governance and a clear implementation strategy. Many Engineering and Construction companies yet do not possess in house expertise. They need to depend on an outsourced technology service provider.
  • Financial – Incorporation of digital twinning need an upfront investment with a long ROI period. Companies should consider value addition to the project when initiating a digital twinning project decision. Projects should be prioritized where this technology is required. Not every project will eventually need the Digital Twinning technology.
  • Cultural – Challenges aim to slow the adoption of ant new technology and apply it to digital twinning.
  • Structure of the Industry – is a challenge per se. The procurement practices, fragmented nature of the industry and more should be assessed while considering the cost-benefit analysis in adopting the digital twinning technology of that particular industry.

Digital Twinning can simulate real-life situations and thus facilitate optimizing the systems and processes and is particularly beneficial in its application to the architecture and engineering industry.

Futuristic concept of Digital Twinning

OmDayal Group of Institutions

The OmDayal Group of Institutions was established in 2010 with a vision to prepare progressive architects and engineers. The college offers engineering and architecture courses affiliated with MAKAUT (Maulana Abul Kalam Azad University of Technology). It is accredited by NAAC, and the Architecture and Engineering courses are approved by AICTE and COA. With a robust learning environment and experienced faculty, the students are equipped with a strong foundation. The Institute also offers Vocational Diploma courses and is affiliated with the West Bengal State Council of Technical and Vocational Education and Skill Development. It also provides flexible timing and on-job training in partnership with National Small Industries Corporation (NSIC), Govt. of India Enterprise to facilitate better placements. A leading college in West Bengal, OmDayal Group of Institutions, holistically prepares its students as future professionals.

For more information, visit: https://omdayal.com.

References:

  1. https://www.autodesk.com/solutions/digital-twin/architecture-engineering-construction
  2. https://www.parsons.com/2020/12/digital-twinning-in-architecture-engineering-and-construction/

In an era where the Earth is being devastated by climate change and global warming, scientists have developed the concept of Green Engineering. 

Green Engineering is the concept of design, commercialization and use of products and processes to reduce pollution, promote sustainability and minimize negative impacts on human health and the environment without reducing economic viability and efficiency. It uses cost-effectiveness as a significant factor in designing and developing a process or product. 

Green engineering concept

Principles of Green Engineering

The need for Green Engineering is based on 12 Principles:

  1. Inherent Rather than Circumstantial – Engineers and designers ensure that all material and energy are inherently non-hazardous.
  2. Prevention instead of Treatment – The principle essentially means proactively avoiding creating waste rather than treating or cleaning up post-formation.
  3. Design for Separation – The processes of Separation and Purification operations is designed to minimize energy consumption and materials used in the engineering process.
  4. Maximize Efficiency – As per Green Engineering, the processes, products, and systems should be designed to maximize energy, space, mass and time efficiency.
  5. Conserve Complexity – While making design choice decisions on recycling, reuse or beneficial waste disposal, the engineering system should consider the complexity and degree of randomness in the system.
  6. Output Pulled vs Input Pushed – In Green Engineering, the systems should be output pulled rather than input pushed by energy and materials.
  7. Durability rather than Immortality – The design goal in Green Engineering should be focused on durability.
  8. Meet Need, Minimize Excess – The concept of One Size Fits All solutions is a fundamental design flaw, but design for unnecessary capacity or capability.
  9. Minimize Material Diversity – Multi-component products can be minimized to promote disassembly and value retention.
  10. Integrate Material and Energy Flows – Integration and Interconnectivity with the available energy and materials must be included in the design of products and processes.
  11. Designed for a Commercial Afterlife – Products, processes and systems should be prepared for performance in a commercial afterlife.
  12. Renewable Rather than Depleting – Material and Energy input should be of the renewable type. Depletable sources should be avoided.
Incorporating Green engineering objectives to design

Incorporating Different Methods and Practices

Green Engineering encompasses a continuously evolving group of methods and materials from technology to techniques to generate energy. The way forward includes deploying engineering processes to manufacture products, reducing waste and pollution and innovation in developing alternatives to traditional technology.

A Green future can be built through policy, education, incentives, government-industry interface, continuous innovation and application of technology.

Eco-friendly industrial concept

OmDayal Group of Institutions: Inculcating Excellence

The OmDayal Group of Institutions was established in 2010 with a vision to prepare progressive architects and engineers. The college offers engineering and architecture courses affiliated with MAKAUT (Maulana Abul Kalam Azad University of Technology). It is accredited by NAAC, and the Architecture and Engineering courses are approved by AICTE and COA.

With a robust learning environment and experienced faculty, the students are instilled with a strong foundation. The Institute also offers Vocational Diploma courses and is affiliated with the West Bengal State Council of Technical and Vocational Education and Skill Development. It also provides flexible timing and on-job training in partnership with National Small Industries Corporation (NSIC), Govt. of India Enterprise to facilitate better placements. A leading college in West Bengal, OmDayal Group of Institutions, holistically prepares its students to be future professionals.

For more information, visit: https://omdayal.com.

References:

  1. https://greenchemistry.yale.edu/about/principles-green-engineering
  2. https://www.green-technology.org/green-technology-what-is-it/

The energy produced from natural renewable sources and readily replenished is termed Renewable Energy. These sources are sunlight, water, wind, tides, geothermal heat and biomass found in nature. Architecture and building design with a strategy to include renewable energy resources in the 21st century will be a crucial disruption. New energy options and energy alternatives give shape to environment-friendly Green Buildings.

Green Building Features

Features that contribute to making a Green Building are:

  • Efficient use of energy, water and other renewable resources.
  • Incorporation of pollution and waste reduction processes and supporting re-use and recycling waste.
  • Good indoor environmental air quality index.
  • Use of materials that are non-toxic, ethical and sustainable.
  • Consideration of the environment in design, construction and operation.
  • Reviewing the quality of life of occupants in design, construction and operation.
  • Structures that enable adaptation to changing climates.

Green Buildings may be office, home, school, hospital, community centre, or any other type of building that includes the features listed above.

Installed solar panels in cities

Applications of Renewable Energy in Architecture & Urban Development

It is essential to understand the various types of Renewable resources and their application in Architecture and Building Design.

  • Solar Energy – Topping the list of sources of Renewable Energy Resources, Solar Energy is a sustainable, safe and reliable resource. Solar power converts sunlight into electricity directly through photovoltaic (PV) cells or indirectly using Concentrated Solar Power (CSP). It is the cheapest form of renewable energy source, and their integration in building design is evident now. It can pump water, can be used for refrigeration, communication and charging batteries. Architects are busy innovating scale, proportion, material, colour scheme, and balance of buildings to include this technology in design. In 2014, the Netherlands unveiled the ‘solar bike paths in an endeavour to harness this energy. The Solar Road bike path comprises concrete modules, each measuring 2.5 to 3.5 metres, embedded with solar panels covered in tempered glass.
  • Wind Energy – It is generated when wind turbines convert the kinetic energy in the wind into mechanical power that runs a generator to produce clean energy, sans any greenhouse gas emissions. About 1% of the global energy generation comes from wind power. A 2-megawatt turbine can produce emission-free energy to power 500 homes for one year! Today, wind energy is a widely developed form of alternative energy globally. Wind energy may also be used in design for natural ventilation and temperature regulation in buildings and thereby reduce energy consumption by replacing air conditioners. The Masdar City in Abu Dhabi has tried to create natural ventilation by catching wind from above and percolating it to the lower levels, akin to the traditional Wind towers mechanism.
  • Hydropower – It is the power derived from the kinetic energy of flowing or falling water in water bodies like lakes, streams, reservoirs, rivers, dams and lagoons. Water energy is also harnessed to generate electricity in the naturally occurring water cycle when water evaporates to form clouds that come down as rain. This technology is well-proven and reliable, there is little use of fuel in the generation, and so emissions are very low. The amount of energy produced depends on the volume of water and also the sources of water available, especially in urban areas. Hydel power dams are productive in the use of this renewable energy.
  • Geothermal Energy -It is a clean and renewable resource derived from the heat of the Earth. It can be harnessed almost from anywhere to produce heat and electricity. It can be recognised in hot springs, geothermal energy is used for residential heating and cooling, and electricity generation. Geothermal energy is the most sustainable system of energy. A cold country as Iceland generates the country’s 25% total energy production from geothermal energy.
  • Biomass Energy -For Green Buildings, Biomass Energy is the most conducive yet under-utilised energy source. Biomass is an organic material that originates from plants and animals and is a valuable renewable energy source. The biomass contains stored energy from the sun, which is released as heat on burning. It can be converted to liquid biofuel or biogas also. By-products of the agricultural industry such as wood, straw, sugarcane may be green resources. These are available locally and at a low cost to support housing for all.
Wine Turbine installation concept

Architects are directing research and knowledge towards the development of Green Buildings; and, thus, increasing the efficiency of buildings by using renewable sources of energy, water and materials. The impact of good design and using the sustainable resources in the building has a definite effect on human health and the environment through better design, construction, operation and maintenance. By supporting local renewable resources, the community economies are strengthened, thereby setting up affordable housing and reducing economic inequality.

Incorporating Renewable Energy Sources in Urban Development

OmDayal Group of Institutions: Constant Innovation

The OmDayal Group of Institutions was established in 2010 with a vision to prepare progressive architects and engineers. The college offers engineering and architecture courses affiliated with MAKAUT (Maulana Abul Kalam Azad University of Technology). It is accredited by NAAC, and the Architecture and Engineering courses are approved by AICTE and COA. With a robust learning environment and experienced faculty, the students are instilled with a strong foundation. It also provides flexible timing and on-job training in partnership with National Small Industries Corporation (NSIC), Govt. of India Enterprise to facilitate better placements. A leading college in West Bengal, OmDayal Group of Institutions, prepares its students with a holistic approach to turn out as complete future professionals.

For more information, visit: https://omdayal.com.

References:

  1. https://byjus.com/physics/renewable-energy/
  2. https://www.worldgbc.org/what-green-building
  3. https://www.re-thinkingthefuture.com/architects-lounge/a334-5-renewable-energy-sources-that-are-going-to-impact-the-building-industry-in-the-future/

Robotics is the interdisciplinary branch of technology that deals with the design, construction, operation and application of robots. It aims to develop machines that can replicate human actions. (1) Mechanical engineering is a significant branch in engineering, having to its credit the design and uses of some wonders such as aeroplanes, ships, automobiles, and automation. Robotics in mechanical engineering encompasses the composition and structure of robots. It aims to design intelligent machines that can help and assist humans in their day-to-day lives and keep them safe when used in dangerous environments.

A team of engineers working on a robotic model

Robotics: Scope and Applications

Robots are effective in high-risk environments, like inspection of radioactive materials, bomb detection and deactivation and manufacturing processes. Robots may be made of any form and size. Still, the bio-inspired models are designed to resemble human conditions and can replicate human behaviours. They can simulate human speech, cognition, walking, lifting and other human activities. Robots may require user input to operate, while different types may function autonomously. (1)

Robotics Engineering has a broad set of applications. Robots are used in the manufacturing, assembly, packaging, earth and space, transport, weaponry, surgery, research and mass production of consumer durables and industrial goods. On integration with IA, robots could learn to perform tasks more accurately, reliably and cheaply than humans. (2)

With such a vast and ever-advancing arena of Robotics, the career avenues for Mechanical Engineering students are limitless. The college degree awarded will be a Mechanical Engineering degree, but many institutes may offer a specialised Robotics Engineering degree. These engineers can find jobs in the industries that use robotics at scales, such as manufacturing, energy, healthcare, and mining.

With the trend of continuous technology advancement, Robotics Engineering will be a much-in-demand career. Human Resource demand will be high, with good salary pay-outs. The skills essential to pursue a career in Robotics Engineering will typically be:

  • Building or hands-on construction of the robots and the tools and processes to build the robots. Being adept at 3D printing technology will be favourable too.
  • Computer-aided Draft and Design to work upon blueprints for the robotic systems using 3D modelling programs.
  • Research and Development – Robotic systems require research, redesign and upgradations. So, academic researchers, experts at critical thinking and soft skills, analysis and communications will enable valuable knowledge in research and design.
Robotic arm in development

Robotic Engineers in jobs are primarily responsible for designing, testing, and building robots that perform functions faster, efficiently, safer, and cost-efficiently than humans. Responsibilities of a Robotic Engineer will include:

  • Defining problems, data collection, and presenting facts and conclusions
  • Evaluating and calibrating systems for optimal efficiency
  • Maintaining accurate records and documents
  • Programming of the complex robotics systems
  • Reading, writing, analysis, and interpretation of the technical procedures and schematics
  • Research, develop and sustain robotics systems and components
  • Troubleshoot the robotics systems and applications
  • Write software, build electronics, and design mechanisms

Based on their job responsibilities, the Job roles of the Robotic Engineers may be Robotic Research Engineers, Robotic Engineers for the manufacturing as Robotic Test Engineers or Automation System Engineers. They can efficiently function from the designing phase to the machinery assembly line phase in the robotic industry. Robotic Engineers are skilled and responsible for creating an integrated environment between the people and machinery. 

The marvels of Robotic Engineering are evident. The popularity of Google Home, Amazon Echo and Apple’s Siri are unprecedented. The concept of Smart Homes for convenience and the ability to save on utility improves upon comfort and security. The world of computing is boundless, and the future of Robotics in mechanical engineering is bright.

Robotic arm in the testing phase

Robotics in Industry 4.0

Industry 4.0 refers to the present industrial revolution, which is being driven by the advancement of robots, automation, and the internet of things (IoT). The term “Industry 4.0” denotes an era of “smart” systems and digital integration; it was coined in 2011. The related trend is reverberating throughout practically every business on the planet.

Robotics, automation, and artificial intelligence (AI) are expected to take control as the global industrial industry approaches its fourth revolution. The number of active industrial robots globally is rising by about 14% year on year, and automation results in new types of robots with increased usefulness and function. Future factories will most certainly include robots and people working together to fulfil customer demand – a unique environment for which business owners need to be prepared.

Robotics can:

  • Improve productivity
  • Lower overhead costs
  • Innovative technology can reduce human error (3)

Imparting High-Quality Education

OmDayal Group of Institutions is a private engineering and architecture college located in Uluberia, Howrah, West Bengal, India. It offers four-year undergraduate (B.Tech & B.Arch) engineering and five-year architecture degrees. In engineering, it provides courses in four disciplines – Computer Science and Engineering, Mechanical Engineering, Civil Engineering and Electrical Engineering. The college is accredited by NAAC, approved by AICTE and COA, and affiliated with Maulana Abul Kalam Azad University of Technology (MAKAUT). Opened in 2010, it has is a fully-digital library with ten systems having access to E-Journals, E-books and CDs/DVDs. It also provides students with all the basic infrastructural facilities for a smooth learning experience.

OmDayal offers flexible and on-job training in partnership with the National Small Industries Corporation (NSIC), a Government of India Enterprise, to facilitate better placement opportunities.

References:

  1. https://mechanicalengineeringhq.com/what-is-robotics-engineering/
  2. https://www.robots.com/articles/mechanical-engineering-for-robots
  3. https://roboticsandautomationnews.com/2021/04/22/the-role-of-robotics-and-automation-in-industry-4-0/42638/

3D printing is a highly novel concept with exciting and unique advantages in engineering and manufacturing. With ever changing aspirations and paradigms in the global populous, 3D printing in technology has been the point of disruption. The world can access changes in manufactured products as swiftly as the people’s paradigms changed- the pace which was challenging to the traditional manufacturing process.

Also known as Additive Manufacturing (AM), 3D printing is a revolution in the engineering and manufacturing industry, enabling the making of a three-dimensional physical model based on a digital model. The 3D printer uses Computer-aided design (CAD) to make 3D structures from powders or molten plastic. (1)

3D printing has great potential in the medical device industry. They have been used in healthcare to produce parts to repair faulty ventilators during the COVID-19 pandemic. Classrooms display 3D dinosaurs and mechanical components as teaching aids. Since its emergence about three decades back, 3D printing has gained more industrial significance than before. Its market share has grown exponentially into a billion-dollar revenue system and is forecasted to rise more globally. (2)

3D printed material being used in the field of engineering

Significance of 3D Printing

  • 3D printers are as highly reliable and quick as rapid prototyping in technology. They are versatile vis a vis the tools used and what they can print. This technology has helped the manufacturing industry save a considerable cost outlay and time spent on R&D to produce designs in a matter of hours. It dramatically accelerates the design process because components can be obtained within a few hours and design change is possible.
  • 3D printing is easy and cheap, displacing the lengthy and costly process of machining the prototype. Print on demand is possible, saving on an extensive and expensive inventory freeing up inventory space and financial assets. 3D printing designs can be stored as CAD and STL files, as a virtual library to be printed only when required.
  • Plastic is used as the primary raw material in 3D printing. Although inferior to steel and aluminium, the plastics are lighter, making them more viable in automobile parts manufacturing making the vehicle more fuel-efficient.
  • 3D printing services generate significantly less waste, and raw material costs are minimized. It also ensures reduced production phases and an overall low cost of operations. Resource optimization is possible with minimal supervision and reduced labour costs.
  • Setting up a 3D printer can be costly, so that the services may be outsourced to a 3D Printer service provider. In this way, budgets and costs can be controlled.
  • 3D printing can be more environmentally sustainable. The technology is simplified with minimal wastage and makes products that are durable, ergonomic and 50% lighter than the standard manufactured ones. The 3D printing technology can be made more environmentally sustainable as component size can be modified to conserve the materials and resources. 
3D printing process of a Jet Turbine Propeller

3D Printing: Challenges

With a plethora of significance, 3D printing is also faced with some real challenges. The range of raw materials is not comprehensive. The build volume is limited, which disables the production of components bigger than the build chamber. Most 3D parts require extensive post-processing, which spurs up manual processing costs. 3D Printing may not be a safe manufacturing tool when huge volumes are needed. Above all, most 3D printing materials are neither recyclable nor food safe. It makes their usage limited. (1)

3D Printing is a game-changer in the manufacturing industry. It is commercially successful due to the quality and speed at which it works.

3d printed hand model

OmDayal Group of Institutions: Taking Pride in Imparting Education

The OmDayal Group of Institutions was established in 2010 with a vision to prepare progressive architects and engineers. The college offers engineering and architecture courses affiliated with MAKAUT (Maulana Abul Kalam Azad University of Technology). It is accredited by NAAC, and the Architecture and Engineering courses are approved by AICTE and COA. With a robust learning environment and experienced faculty, the students are equipped with a strong foundation. The Institute also offers Vocational Diploma courses and is affiliated with the West Bengal State Council of Technical and Vocational Education and Skill Development. It also provides flexible timing and on-job training in partnership with National Small Industries Corporation (NSIC), Govt. of India Enterprise to facilitate better placements. A leading college in West Bengal, OmDayal Group of Institutions, holistically prepares its students as future professionals.

For more information, visit: https://omdayal.com.

References:

  1. https://makenica.com/3d-printing-revolutionizing-the-product-engineering/
  2. https://www.sphinxworldbiz.com/blog/3d-printing-revolutionizing-the-world/

It is safe to say that hands-on experience has become a vital prerequisite to getting a job in your desired career choice. With growing globalization and more technologies developed daily, new skill sets are required for different job profiles. Attaining these new skills cannot be achieved through books alone.

Engineering universities have recently adopted experiential learning to develop soft skills and prepare students for the real world. Going beyond textbooks and classrooms and experimenting with their knowledge helps the students solve problems in real time. Even if a student has zero practical expertise in their fields, colleges have embraced ways to prepare students and help them gain new experience.

Overview of Experiential Learning

David Kolb’s theory of experiential learning:

David Allen Kolb is an American educational theorist who says that knowledge is created by transforming experience in real life. (1) His theory named – Kolb’s theory of experiential learning is often referred to when applying the technique into use. (2) It is divided into four parts:

  • Concrete Experience: This is the first step, which emphasizes gaining new experience or working on existing one to gain new knowledge.
  • Reflective Observation: The students reflect on the task and the experience and communication their understanding of the same.
  • Abstract conceptualization: It refers to using analytical skills in abstract situations to conceptualize and solve different problems in life to gain experience.
  • Active experimentation: The person should be able to apply the knowledge from experience gained, which require cognitive abilities such as problem-solving and decision-making skills.

This circular model is a never-ending process of gaining new experience and applying it in real-life scenarios.

Overview of David Kolb’s Theory of Experiential Learning

The recent technique of gaming developed in experimental learning:

Learning through gaming is one common way of experiential learning and keeping the students more engaged. It has been suggested that events or activities that require collaboration and team-building help studies build a more comprehensive way of thinking, leadership and teamwork skills. (3)

Aside from engaging the students, the aim of gamification of learning, as popularly known, is to make the learning process more fun and motivate students to keep playing, hence keep learning. Ultimately, learning different aspects of working with a team and used the subjective experience gained in real life. (3)

Experimental learning is more open-ended in problem-solving and science than the traditional, which does not inspire creativity. (3)

Gaming covers all the points given by Kolb. People gain new experiences, or by using pre-existing knowledge of a solving problem, one tries to use the same on current and future issues.

Kolb’s theory can be used in various other ways for a holistic approach towards education.

Gamification in brief

Advantages of experiential learning:

As established above, experiential learning is an everlasting process aiding students to gain new knowledge required to sustain themselves in this fast-paced world. Further, it gives them a sense of responsibility and critically assess their mistakes. Failing through this process is again an experience!

Adopting innovative techniques, we try to do the same and make education more experience-oriented and fun. It helps each student have a unique ability to work in the competitive world, setting them apart from the competition.

Bringing Innovation in the Education:

Since its inception in 2010, the NAAC-accredited and MAKAUT-affiliated OmDayal Group of Institutions has emerged as one of the leading architecture colleges in West Bengal. We are reputed for continuously innovating its teaching and learning curriculum to provide global standards to each student. We instil our students with a competitive edge as new-age technology professionals.

Strong management, experienced faculty and a robust learning environment are other hallmarks responsible for the spectacular success enjoyed by our institute. We also offer flexible timings and partner with National Small Industries Corporation (NSIC) to provide on-job training and excellent placement opportunities for our students.

References:

  1. https://www.verywellmind.com/experiential-learning-2795154
  2. https://educationaltechnology.net/kolbs-experiential-learning-theory-learning-styles/
  3. https://journals.sagepub.com/doi/full/10.1177/0306419017749580