#computer-aided engineering design-analyze

[simutechgroup]

Exploring Photonics and the Role of Photonics Simulation

Photonics is a cutting-edge field of science and engineering focused on the generation, manipulation, and detection of light (photons). From powering high-speed internet connections to enabling precision medical diagnostics, photonics drives innovation across industries. With advancements in photonics simulation, engineers and researchers can now design and optimize complex photonic systems with unparalleled accuracy, paving the way for transformative technologies.

What Is Photonics?

Photonics involves the study and application of photons, the fundamental particles of light. It encompasses the behavior of light across various wavelengths, including visible, infrared, and ultraviolet spectrums. Unlike electronics, which manipulates electrons, photonics harnesses light to transmit, process, and store information.

The applications of photonics span diverse fields, such as telecommunications, healthcare, manufacturing, and even entertainment. Technologies like lasers, optical fibers, and sensors all rely on principles of photonics to function effectively.

Why Is Photonics Important?

Photonics is integral to the modern world for several reasons:

Speed and Efficiency Light travels faster than electrons, making photonics-based systems ideal for high-speed data transmission. Fiber-optic networks, for instance, enable lightning-fast internet and communication.

Miniaturization Photonics enables the development of compact and efficient systems, such as integrated photonic circuits, which are smaller and more energy-efficient than traditional electronic circuits.

Precision Applications From laser surgery in healthcare to high-resolution imaging in astronomy, photonics offers unparalleled precision in diverse applications.

The Role of Photonics Simulation

As photonic systems become more complex, designing and optimizing them manually is increasingly challenging. This is where photonics simulation comes into play.

Photonics simulation involves using advanced computational tools to model the behavior of light in photonic systems. It allows engineers to predict system performance, identify potential issues, and fine-tune designs without the need for costly and time-consuming physical prototypes.

Key Applications of Photonics Simulation

Telecommunications Photonics simulation is crucial for designing optical fibers, waveguides, and integrated photonic circuits that power high-speed data networks. Simulations help optimize signal strength, reduce loss, and enhance overall system efficiency.

Healthcare In the medical field, photonics simulation aids in the development of imaging systems, laser-based surgical tools, and diagnostic devices. For instance, simulation tools are used to design systems for optical coherence tomography (OCT), a non-invasive imaging technique for detailed internal body scans. Medical device consulting provides expert guidance on the design, development, and regulatory compliance of innovative medical technologies.

Semiconductors and Electronics Photonics simulation supports the creation of photonic integrated circuits (PICs) that combine optical and electronic components. These circuits are essential for applications in computing, sensing, and communication.

Aerospace and Defense Photonics simulation enables the design of systems like lidar (Light Detection and Ranging), which is used for navigation and mapping. Simulations ensure these systems are accurate, reliable, and robust for real-world applications. Aerospace consulting offers specialized expertise in designing, analyzing, and optimizing aerospace systems for performance, safety, and innovation.

Energy and Sustainability Photonics plays a vital role in renewable energy technologies, such as solar cells. Simulation tools help optimize light capture and energy conversion efficiency, making renewable energy more viable and cost-effective. Clean energy consulting provides expert guidance on implementing sustainable energy solutions, optimizing efficiency, and reducing environmental impact.

Benefits of Photonics Simulation

Cost-Efficiency: By identifying potential issues early in the design phase, simulation reduces the need for multiple physical prototypes, saving time and resources.

Precision and Accuracy: Advanced algorithms model light behavior with high accuracy, ensuring designs meet specific performance criteria.

Flexibility: Simulations can model a wide range of photonic phenomena, from simple lenses to complex integrated circuits.

Innovation: Engineers can experiment with new materials, configurations, and designs in a virtual environment, fostering innovation without risk.

Challenges in Photonics Simulation

Despite its advantages, photonics simulation comes with its own set of challenges:

Complexity of Light Behavior Modeling light interactions with materials and components at nanoscales requires sophisticated algorithms and powerful computational resources.

Integration with Electronics Photonics systems often need to work seamlessly with electronic components, adding layers of complexity to the simulation process.

Material Limitations Accurately simulating new or unconventional materials can be challenging due to limited data or untested behavior.

The Future of Photonics and Photonics Simulation

Photonics is at the forefront of technological innovation, with emerging trends that promise to reshape industries. Some of these trends include:

Quantum Photonics: Leveraging quantum properties of light for applications in secure communication, advanced sensing, and quantum computing.

Silicon Photonics: Integrating photonics with silicon-based technologies for cost-effective and scalable solutions in telecommunications and computing.

Artificial Intelligence (AI) in Photonics: Using AI algorithms to enhance photonics simulation, enabling faster and more accurate designs.

Biophotonics: Exploring the interaction of light with biological systems to advance healthcare and life sciences.

As photonics continues to evolve, the role of simulation will only grow in importance. Advanced simulation tools will empower engineers to push the boundaries of what is possible, enabling innovations that improve lives and drive progress.

Conclusion

Photonics and photonics simulation are shaping the future of technology, offering solutions that are faster, more efficient, and precise. By harnessing the power of light, photonics is revolutionizing industries, from healthcare to telecommunications and beyond. With the aid of simulation tools, engineers can design and optimize photonic systems to meet the challenges of today and tomorrow. As this exciting field continues to advance, its impact on society will be nothing short of transformative.

[jitendra0002]

MCA University In Uttar Pradesh

Navigating the Landscape: Choosing a Distance MCA University in Uttar Pradesh

Uttar Pradesh, India's heartland, is witnessing a surge in demand for upskilling and professional development. With the IT industry boom, the Master of Computer Applications (MCA) program emerges as a sought-after option, especially in its convenient distance learning format. However, navigating the plethora of universities offering distance MCA in Uttar Pradesh can be daunting. This comprehensive guide aims to equip you with the knowledge and insights to make an informed decision.

Factors to Consider When Choosing a Distance MCA University:

University Recognition and Accreditation:

Prioritize universities recognized by the University Grants Commission (UGC) and accredited by the National Assessment and Accreditation Council (NAAC). These accreditations ensure quality education and adherence to national standards. Look for additional accreditations specific to distance learning programs, such as the Distance Education Bureau (DEB) recognition.

Reputation and Ranking:

Research the university's reputation within the academic and professional circles. Check for rankings in renowned publications like NIRF and The Week, particularly for their distance learning programs. Alumni reviews and feedback can also provide valuable insights.

Curriculum and Course Structure:

Evaluate the curriculum's comprehensiveness and relevance to current industry trends. Ensure it encompasses core subjects like computer networks, software engineering, database management, and emerging technologies like Artificial Intelligence and Machine Learning. Check for the flexibility of the course structure and the delivery format (online, offline, blended).

Faculty and Learning Resources:

The quality of faculty plays a crucial role in a distance learning program. Look for universities with experienced, qualified faculty with industry expertise. Assess the availability of quality learning resources like study materials, online lectures, e-libraries, and interactive platforms.

Admission Process and Fees:

Analyze the eligibility criteria, entrance exams (if any), and overall admission process. Compare the fee structure, considering not only the program cost but also additional expenses like study materials, exam fees, and technology requirements. Look for scholarship opportunities and financial aid options.

Placement Assistance and Career Support:

Evaluate the university's track record in providing placement assistance for distance MCA graduates. Assess the strength of their industry connections, career counseling services, and alumni network support.

Top Distance MCA Universities in Uttar Pradesh:

Swami Vivekanand Subharti University (SVSU): Renowned for its academic excellence and industry-oriented curriculum, SVSU offers a well-structured distance MCA program with UGC, DEB, and NAAC accreditations..

Amity University Distance Education: Part of the renowned Amity Education Group, this university leverages its strong industry connections and offers a practical, interactive distance MCA program with NAAC accreditation.

Rajarshi Tandon Open University (RTOU): Established by the Uttar Pradesh government, RTOU is a reputed state-run university known for its affordable and accessible distance MCA program with UGC recognition.

Jain University: Recognized by UGC and AICTE, Jain University offers a well-designed distance MCA program with a focus on emerging technologies and flexible learning options.

Online Manipal: A constituent unit of Manipal Academy of Higher Education (MAHE), Online Manipal boasts an NAAC 'A' grade accreditation and offers a comprehensive distance MCA program with a blended learning approach.

Emerging Trends in Distance MCA Education:

Industry-Integrated Learning: Universities are increasingly collaborating with industry partners to provide internship opportunities, live projects, and industry-specific workshops as part of their distance MCA programs.

Focus on Emerging Technologies: The curriculum is evolving to address the growing demand for skills in Artificial Intelligence, Machine Learning, Cloud Computing, and Data Science.

Virtual Reality and Augmented Reality (VR/AR): VR/AR simulations are being implemented to enhance the learning experience and provide practical exposure in specific technology domains.

Personalized Learning: Adaptive learning platforms and AI-powered tools are being used to personalize the learning journey for each student, adapting to their individual pace and learning styles.

Concluding Thoughts:

Choosing the right distance MCA university in Uttar Pradesh requires careful consideration of your career goals, learning preferences, and financial constraints. By prioritizing UGC recognition, strong curriculum, experienced faculty, and career support, you can choose a program that equips you with the necessary skills and knowledge to succeed in the dynamic IT landscape. Remember, the distance learning format doesn't compromise on quality; with research and dedication, you can unlock your full potential and embark on a fulfilling IT career from the comfort of your own home.

Top 10 MCA colleges in Uttar Pradesh 2024

We understand that selecting a college can be a daunting task, especially when it comes to pursuing an MCA degree. The top MCA colleges in U

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Top 10 Online MCA Colleges With Lowest Fees in India 2024

Looking for the best online MCA colleges in India? Look no further! Our comprehensive guide highlights the top MCA programs available online

[grootpoepjeplasjehoofd]

Pick up any popular history of the Internet and you will generally find a combination of two narratives describing where this computer networking technology came from. The first narrative is that it emerged out of the military’s need for a communication network that could survive a nuclear blast. That led to the development of the early Internet, first known as ARPANET, built by the Pentagon’s Advanced Research Projects Agency (known today as the Defense Advanced Research Projects Agency, or DARPA). The network went live in the late 1960s and featured a decentralized design that could route messages even if parts of the network were destroyed by a nuclear blast. The second narrative, which is the most dominant, contends that there was no military application of the early Internet at all. In this version, the ARPANET was built by radical young computer engineers and playful hackers deeply influenced by the acid-drenched counterculture of the San Francisco Bay Area. They cared not a damn about war or surveillance or anything of the sort, but dreamed of computer-mediated utopias that would make militaries obsolete. They built a civilian network to bring this future into reality, and it is this version of the ARPANET that then grew into the Internet we use today. For years, a conflict has raged between these historical interpretations. These days, most histories offer a mix of the two—acknowledging the first, yet leaning much more heavily on the second.

My research reveals a third historical strand in the creation of the early Internet—a strand that has all but disappeared from the history books. Here, the impetus was rooted not so much in the need to survive a nuclear attack but in the dark military arts of counterinsurgency and America’s fight against the perceived global spread of communism. In the 1960s, America was a global power overseeing an increasingly volatile world: conflicts and regional insurgencies against US-allied governments from South America to Southeast Asia and the Middle East. These were not traditional wars that involved big armies but guerrilla campaigns and local rebellions, frequently fought in regions where Americans had little previous experience. Who were these people? Why were they rebelling? What could be done to stop them? In military circles, it was believed that these questions were of vital importance to America’s pacification efforts, and some argued that the only effective way to answer them was to develop and leverage computer-aided information technology.

The Internet came out of this effort: an attempt to build computer systems that could collect and share intelligence, watch the world in real time, and study and analyze people and political movements with the ultimate goal of predicting and preventing social upheaval. Some even dreamed of creating a sort of early warning radar for human societies: a networked computer system that watched for social and political threats and intercepted them in much the same way that traditional radar did for hostile aircraft. In other words, the Internet was hardwired to be a surveillance tool from the start. No matter what we use the network for today—dating, directions, encrypted chat, email, or just reading the news—it always had a dual-use nature rooted in intelligence gathering and war.

As I traced this forgotten history, I found that I was not so much discovering something new but uncovering something that was plainly obvious to a lot of people not so long ago. Starting in the early 1960s in the United States, a big fear about the proliferation of computer database and networking technologies arose. People worried that these systems would be used by both corporations and governments for surveillance and control. Indeed, the dominant cultural view at the time was that computers and computing technology—including the ARPANET, the military research network that would grow into the Internet we use today—were tools of repression, not liberation.

In the course of my investigation, I was genuinely shocked to discover that as early as 1969, the first year that the ARPANET came online, a group of students at MIT and Harvard attempted to shut down research taking place at their universities under the ARPANET umbrella. They saw this computer network as the start of a hybrid private-public system of surveillance and control—“computerized people-manipulation” they called it—and warned that it would be used to spy on Americans and wage war on progressive political movements. They understood this technology better than we do today. More importantly, they were right. In 1972, almost as soon as the ARPANET was rolled out on a national level, the network was used to help the CIA, the NSA, and the US Army spy on tens of thousands of antiwar and civil rights activists. It was a big scandal at the time, and the ARPANET’s role in it was discussed at length on American television, including NBC Evening News.

Yasha Levine, Surveillance Valley

[polishkirkpl]

4 Actions to Develop Your Product's First Prototype

Typically, around 55 percent of applications submitted receive licenses. One method to enhance your chances of obtaining a patent give is to develop your prototype. While sending a prototype is not purely called for by the U.S. Patent Office for sending your application, it does serve to show that your suggestion has been analyzed in enough detail to value consideration.

Here are four steps to obtain your prototype built so you can transform your concept into a patented, rewarding product. also check how to promote my invention

1. Develop a Concept Sketch

Attract your idea to assist you to visualize your prototype in greater detail. For one point, in the very early stages of developing your prototype, you'll have a lot of concepts running through your mind and competing with each various other.

Maintain a sketch note pad to supply paperwork that can be made use of when sending your patent. It also might be found useful if you ever require to safeguard your ownership of your copyright. Illustrations attracted by hand can bring even more weight in court than electronically created drawings, states intellectual property consultant CreateIP.

2. Develop a Virtual Prototype

At some point, it's mosting likely to be invaluable to develop a digital illustration of your idea. A common electronic style device utilized by engineers and also various other specialists is AutoCAD, which enables them to make both 2-D and 3-D makings.

A 3-D rendering allows you to rotate and also animate your online sketch, so you can imagine it from all angles. Devices such as NVIDIA Iray, CATIA Live Making as well as Quadro can further allow you to transform your 3-D drawing into a photorealistic prototype, aiding you to see roughly how a physical version of your layout will look. If you're not competent with computer drawing and making devices, professional graphic designers or prototype designers can aid you with this step.

Follow inventhelp for more advice https://www.instagram.com/inventhelp/?hl=en

3. Construct a Physical Prototype

Once you have an online prototype, you prepare to develop a physical prototype. If you have the skill, you can build one on your own. If you need assistance, there are numerous kinds of sources you can touch to get this action done. One way is to go to a professional prototype designer. A choice is obtaining a designer or designer to develop your prototype. If you're cash-strapped, you could seek a handyman or promote at a commercial-style university.

As soon as your initial prototype is constructed, you might find defects that require to be corrected before you look for a patent. You may need to build several models to obtain a good one done. Normally, very early working models are built of less costly materials than later variations to save cash while repairing layout imperfections. As you improve your layout, you can ultimately make a prototype that replicates your actual product as it will be marketed to consumers.

4. Situate a Manufacturer

Once you have a working prototype, you're technically all set to make an application for a patent; nevertheless, you could wish to take the added step of situating a maker that can produce your item at a lucrative cost. If your suggestion is going to be profitable, you require to be able to build it at a cost that is low sufficient that you can cover costs without cutting as well far right into your revenue.

Manufacturers that offer free examples, as well as 3-D printing, can help you cut expenses both in testing and also production phases. As an example, manufacturer apple Rubber supplies customized o-ring samples to assist you to examine your prototype and identify how to produce it at a cost-effective cost. Go to several suppliers as well as suppliers to get price quotes, so you can figure out one of the most inexpensive products and also techniques for placing your prototype right into manufacturing.

One means to improve your odds of getting a patent grant is to build your prototype. Once you have a virtual prototype, you're all set to construct a physical prototype. An alternative is getting a developer or engineer to build your prototype. When your very first prototype is developed, you may locate flaws that require to be corrected before you seek a patent. You might require to build several models to get a good one done. You can also get more help with inventions

[xdkah]

Invention Models and also the Refine of Invention Prototypes

Invention prototypes can not be overlooked because they looked to verify the concept of the innovator to possible consumers, suppliers, and also investors-and most importantly, to the innovator himself. This has been the viewpoint of the majority of professionals. The idea behind developing a prototype is the achievement of a lot from creativity, that too without having to place on so much of cash in the suggestion of a product or going with its commitment at an early stage. You can also find out more advice https://www.linkedin.com/company/inventhelp

The building of an 'invention prototype' at a suitable time: It's important to build an 'invention prototype' much before purchasing the tooling for constructing the product or looking for agreement manufacturers. A lot of times, it so occurs that the creator might, in truth, intend to develop a prototype much before obtaining too expensive about computer system drawings. He is likely to burn up loads of cash on 'design illustrations' when possibly what he needs 1st is the papier-mache plainly showing him what is being attempted by him. If that is the case, he is advised to revert to computer-aided drawings. Analyzing the correct time for the prototype is not all that tough. It simply requires evidence of the workability of the item created by the concerned person.

The proper 'invention prototype' for the proper target market: An 'invention prototype' must be intended in the direction of the appropriate audience for doing its work. It suggests that the customizing need be performed in such a way that the needs of the customers get met much to their fulfillment. Not just that, however, the prototype should likewise be able to birth the movie critics of potential companions, capitalists, vendors, and clients. Thus, it must be noted that just friendly assessments are inadequate. The slicker looking and operable the prototype, the 'much better'. It's advisable to not get carried away by the comments. It's far better to spend much less on this production, as there would certainly be many various other locations for spending the start-up funding.

Let > 1 prototype be made

If the overheads are not extremely much, let the 'invention prototype' be made right into numerous versions. Some people additionally have the habit of making 2 models at a time.

- Battery Buddy had a 'looks-like' and also 'works-like' prototype. The first one was created at the 'College of Michigan'. The second one was composed of a plastic box.

Applications as well as Benefits of Quick Prototyping Techniques

In the field of engineering and designing the procedure of developing a prototype is very essential and also necessary one. It supplies the designers, as well as product designers a clear range and also concept of what the product will appear like as well as the concept with a, grow in it. Nevertheless, this process was additionally really pricey as well as took up a lot of resources which is not one of the most efficient methods in the direction of productions. Also check out InventHelp Commercial

This is where fast prototyping ends up being more plausible and reliable in every means. In this, there is no requirement for costly modeling of the prototyping, instead, there are numerous strategies that can be utilized to produce 3D versions of the item part of the assembly. This process is very easy and requires much lesser time and also sources as contrasted to the past methods, and likewise provides liberty in creating and prototyping

Uses of quick prototyping.

Today, it is utilized in several industries for prototyping a selection of items and also their components. Because of the very functional procedure and also techniques included, the industries are using it for various usages. Some of the uses of quick prototyping are:

Useful prototype: there is a significant demand to see the useful prototype before the final manufacturing phase. This is because with the help of the useful prototype the developers and developers can see and understand the details of a model, and also can likewise check its layout, fit, and also manufacturability. With rapid prototyping, developing a useful prototype has ended up being simpler and effective.

Concept prototype: physical concept models are a requirement when it pertains to showcasing a certain suggestion to the customers or investors. It assists the developers to recognize and inspect the suggestion and their presumptions about the model and also the final product and also with quick prototyping, this has become a reality

Convenient prototype: fast prototyping assistance in producing a functioning prototype that presents the aesthetic appeals of the end product as well as additionally gives an in-depth idea about the product's function and also application in the real life.

Benefits of quick prototyping

Several of the benefits of using it as a prototyping approach in the field of making and also engineering are:

One can make changes in the layouts to evaluate the workability as well as the functionality of the layout with the help of rapid prototyping. This will help in brightening and improving the end product of the procedure.

It assists in saving time and money as the procedure aids in envisioning the concepts as well as ideas in a lot easier as well as a time-effective manner. This will help to find out about the idea and also will additionally aid in discovering any kind of sort of defect in it.

One can avoid expensive layout defects which can be the origin of further setting you back issues in the future. One can examine the prototype ahead of time just to evaluate the version entirely.

One can save money and time also since there is no demand for any type of sort of tool or setups required in the process. With minimum costing one can create models and models made of various products with the very same equipment just.

The suggestion behind creating a prototype is the accomplishment of a great deal from creative thinking, that also without having to put on so much of cash in the concept of an item or going for its dedication early on. Get more advice on twitter https://twitter.com/inventhelp

Building and construction of an 'invention prototype' at a suitable time: It's vital to create an 'invention prototype' a lot before purchasing the tooling for constructing the item or looking for agreement makers. The proper 'invention prototype' for the correct target market: An 'invention prototype' ought to be intended in the direction of the appropriate target market for doing its work. In the field of engineering and also creating the process of creating a prototype is an extremely needed and essential one. Useful prototype: there is a major need to see the practical prototype before the last manufacturing stage.

[shivani111blog]

Industrial Design Market Research Report – Global Forecast to 2025

Industrial Design Market Research Report – Global Forecast to 2025

Market Overview:

The industrial design market  has grown steadily in the last few decades due to the growing investment in computer-aided design and computer-aided engineering. The growing global market is likely to be influenced by factors such as the increasing environmental awareness among industrial heavyweights and the growing incorporation of the Internet of Things (IoT) among industrial sectors to make production processes easier and smoother. The global industrial design market is likely to rise at a CAGR of 5.85% over the forecast period (2018-2025). It was valued at USD 32,546.5 million in 2013. The market is expected to almost double in value over the forecast period, with a valuation of USD 61,786.7 million expected for the market by 2025

Green engineering is likely to be a major component of the global market over the forecast period. The industrial design market is expected to be dominated by trends regarding the environmental viability of manufacturing processes as well as the use of environmentally feasible, renewable energy sources in the production of the designed products. The use of solar energy in the manufacturing sector is not uncommon in developing countries and is already the norm in developed countries, which could help propel the adoption of further environmental accountability in the manufacturing sector over the forecast period. Environmentally oriented manufacturing processes are likely to become more popular in the industrial sector over the coming years, shaping the trajectory of the industrial design market as an influential factor.

IoT is also likely to be a major part of the industrial design market in the coming years and a major factor to consider while innovating and working in the industrial design sector. IoT enables automation of industrial processes in an efficient manner and is consequently being adopted into the manufacturing sector all over the world. The market is likely to rely heavily upon IoT tools in the coming years as they gain increasing acceptance in countries across the world and incorporates more advanced tools and mechanisms to incorporate ever more advanced and complicated industrial design procedures.

 Request a Free Sample @ https://www.marketresearchfuture.com/sample_request/6936

 Research Methodology:

Extensive data aggregation on the industrial design market is performed with the help of dynamic primary and secondary research methods. Leading parties in the global market are sought out to gain a relevant picture of the market’s current standing and future growth prospects. This information is backed up by scouring secondary research sources in order to verify and enhance the data gained through primary information. Every precaution is taken to ensure the accuracy of the data gained through this extensive research mechanism. Top-down and bottom-up approaches are used to figure out the market’s overall standing in the global marketplace and the relative role of each segment within the overall market. The global growth prospects of the industrial design market are analyzed by compiling the growth prospects of its various segments.

 Competitive Analysis:

The report contains detailed profiles of leading players in the global industrial design market in order to provide readers with a comprehensive look at the situation in the market. Leading players profiled in the report include IDEO LLC (U.S.), Altran Technologies SA (France), Designworks (BMW AG), ARTOP Group (China), Accenture PLC (Ireland), Ammunition Group (U.S.), Ziba Design (U.S.), BlueFocus Intelligent Communications Group Co. Ltd. (China), PDD Group Ltd. (U.K.), LUNAR Design (U.S.), R&D Design (U.S.), GK Design Group (U.S.), RKS Design (U.S.), and Busse Design (U.S.).

Type

Product     Design

Model     Design and Fabrication

User     Interference and Interaction Design

Other     Industrial Design

Application

Transportation

Electronics

Household

Machinery     and Equipment

Others

Region

North America

The U.S.

Canada

Mexico

Europe Asia Pacific

China

Japan

India

Southeast     Asia

Rest of     Asia Pacific

  Get complete report @ https://www.marketresearchfuture.com/reports/industrial-design-market-6936

  About Market Research Future:

At Market Research Future (MRFR), we enable our customers to unravel the complexity of various industries through our Cooked Research Report (CRR),Half-Cooked Research Reports (HCRR), Raw Research Reports (3R),Continuous-Feed Research (CFR), and Market Research & Consulting Services.

Contact:    

Market Research Future

Office No. 524/528, Amanora Chambers

Magarpatta Road, Hadapsar

Pune – 411028

Maharashtra, India

[phone]

Email: [email protected]

[same-side]

I’m sorry if this is too personal but your bio says mechanical engineer and I just think that’s so freaking cool especially being so young and I was wondering what’s that like? (Please dont feel pressured to talk about this if it makes you uncomfortable!)

Hey there! No worries, I don’t mind talking about it)

this is pretty broad so i guess i’ll just ramble a bit. You’re welcome to ask me any more specific questions you might have! Thank you so much for checking in and just. being curious! c:

“young” omg

I suppose I am. Usually, here, engineering takes five years to get the B.S. because it’s such an intensive programme with so many classes to take. I overloaded myself with credit hours so I could get through school faster. I graduated about a year ago and honestly I do not miss school at all; the working world is so nice!! I was the kind of person that was in student government, several clubs, and interning all on top of classes, so when I got into the working world it was like… I finally had time to breathe and do things I enjoy (like art!).

I’m a mechanical engineer, but we’re a really versatile class of engineer. Our educational and professional scope covers everything from materials engineering to programming. A huge percentage of mechies are design engineers; you would probably assume given my art hobby that I’m a design engineer. Ironically, I don’t find much enjoyment in CAD (computer aided design, 3D) modeling and design work; I’m much more adept at taking a look at problems, analyzing them, and fixing them. In fact, all of the positions I’ve had have been in the testing realm. 

I actually got my undergrad specialization in propulsion; that means I’m really heavily focused on understanding flowpaths and how fluids and heat interact with components. For example, studying and reducing drag on a car, making aircraft faster by controlling the airflow, making an engine more efficient with hotter combustion, or creating piping systems. I plan on getting my masters in fluid mechanics as well, though it will have to wait a few years.

I’m legally not allowed to discuss my current position, but I can tell you about some of what I used to do! 

When I was in college I interned with NASA JPL on the Mars2020 rover team. I was then picked up full time on the Europa Lander team, where I worked for a full year before switching to my current employer.

For the rover teams I worked in testbeds. Simply put, testbed engineers break things. Usually what happens is you have a prototype - in my case, I worked in mobility systems so I was usually testing parts of the robotic arm for the 2020 rover. You look at the specifications and what that prototype is supposed to accomplish, you design different series of controlled tests to push it to its limits, find out where it succeeds, where it fails, etc., and then you design and build the accompanying machinery (testbed) necessary to do so. Oversee the tests, analyze the data, then redesign the components to better succeed at their intended purpose. I really like working in testing because it sees the full scope of engineering. I get to dabble in design work and programming and robotics and materials science and technical writing and hands on building. I get to do all of it, not just the same thing day in and day out. Oftentimes I worked on legacy hardware from the Curiosity Rover; so basically I would take component designs from Curiosity, redesign them, test them, then pass them along to that subcomponent team for review.

For the lander team, I worked cradle-to-grave on the lander’s drill mechanisms. I led a team of three other engineers and we designed, built, tested, and rebuilt the drill for the lander from scratch. It’s important to note here that this was the prototype, non-flight hardware. So what happens now is they’ll take our design and physical drill prototype, rework it a bit, and then very, very carefully make the one that will go on the real lander that gets shot into space. This is to avoid any kinds of contamination and to ensure precision machining of the parts.

My brother is also a mechie and I actually chose to be one because of him. My parents were always super supportive and proud of him, and I wanted that support, too. they. did not believe women should do math or science. So it was a constant struggle of my parents telling me to change my major to something more acceptable. It was also a struggle of oftentimes being the only woman in my classes, not having female professors, things of the sort. I used to do a lot of outreach with children, prospective students, families, corporations, charities, etc. to make sure other underrepresented individuals didn’t have to go through the same scorn I did, and knew how to combat it when they did face it. That’s probably. the only thing I really don’t like about being an engineer, but with each year it gets better.Anyway, I hope that gives a little insight into my life and what I do! Have some pictures!

[antagonistchanremade]

I’ve mentioned before that one of my stories, Stellar Grievances, featured a class system loosely based on the class systems from Fate, Mass Effect, and TF2.

Here’s a bit more of an in-depth look at the system.

Technicians are, lore-wise, tied with Medics and Scouts for being the most intelligent class, though specifically they’re engineers, unlike Medics and Scouts. In terms of actual function? They’re summoners and brawlers. They excel at close-quarters combat due to their brute strength, and they also are capable of deploying self-constructing drones and structures to aid them and their team. The reason that they’re brawlers is because of the tools they use to deploy their robotic buddies, portable micro-factories called Wrenches; Wrenches were initially designed specifically for the deploying purpose, but early Technicians realized that Wrenches were also just really good for hitting stuff. So, they started designing Wrenches with this secondary function in mind, being sturdier and tougher, and also started working out themselves to better effectively wield Wrenches as weapons. Even without a Wrench, Technicians just tend to be the most buff class as a result, since they rely more on muscle mass than any other class (though Knights, Assassins, Marines, and particularly Scouts tend to be in better shape overall). Technicians also have a number of secondary abilities that aren’t quite as crucial to their function as summoning and brawling, and aren’t even universal, but are still interesting, such as hacking enemy computers and equipment to backfire on themselves, or mildly manipulating gravity (but only for themselves).

The main protagonist of Stellar Grievances, Stella Greenfield, is a Technician who wields an arm-mounted Wrench called, well, the Gauntlet Wrench; this means that her fighting style revolves partially around deploying drones and structures, and partially around just punching shit. She also utilizes gravity manipulation quite a bit to enhance her dodging and her punching. Finally, she also designed an AI, Eve, who provides advice, runs all of her drones and structures, and assists in hacking.

Another major Technician is known as Haley, and she wields a Wrench that looks like some kind of cross between an actual wrench and something out of either RWBY or Lyrical Nanoha. She’s noteworthy for being a Technician who doesn’t rely as much on her intellect; sure, she’s just as smart as any other Technician, and she does use her drones and structures at all and utilizes gravity manipulation for the same reasons as Stella... but she mostly focuses on the brawler aspect of being a Technician. She really likes hitting things, and she’s really good at it.

Assassins are, lore-wise, well, assassins. However, that doesn’t actually quite demonstrate their actual function. Their true function is being a stealthy Support class that focuses on debuffing enemies. All Assassins have one major stealth ability, but if they want to learn a new one, they must forget the old one, and all stealth abilities are intended to be sidegrades to each other. More importantly, though, is that Assassins can learn a wide variety of debuff skills that can be cast either at a distance or up-close. See, Assassins did start out as actual assassins, and when they joined the fight, they intended to use those same skills of taking out priority targets, but they quickly found that such skills weren’t as effective here. But, they did find that their weapons could be repurposed for Support purposes. The distance at which a Skill can be cast isn’t dependent on the Skill itself, but rather, on the weapon- some Assassins use things like knives, while others use things like sniper rifles. However, as a side ability, Assassins are still capable of one-hit kills on most enemies, but these one-hit kills are costly and don’t work on particularly tough enemies, so it has limited use.

The secondary protagonist of Stellar Grievances, Madison (no last name), is an Assassin who wields a sniper rifle and has the stealth ability of turning invisible for a short period. Her rifle has multiple delivery methods for debuffs- tranquilizer darts and vials of harmful substances can be fired from it, and it also has a transmitter near the barrel for sending out signals to potentially hack enemy equipment.

Another major Assassin named Ichika has a ninja gimmick- his weapon is a kunai that can be coated in harmful substances and has a sort of communications disruptor attached, and his stealth ability is disguising as enemies.

Another potential stealth ability could be a smokescreen or an EMP.

Medics are, lore-wise, again, tied with Technicians and Scouts as the most intelligent class, but are physicians. Their function is pretty widely varied- they are a combination of a Support class (being a healer and buffer) and a Tank class (being capable of absorbing lots of damage). Medics joined the fight primarily as healers, and quickly adopted the other two functions in order to be more useful. Medics are unique in that they wield two major pieces of equipment, one MedTool, and one shield. The shields are how they function as Tanks; not only can it absorb damage the Medic would have taken, it can also be used to protect teammates. The MedTool, meanwhile, is responsible for their Support class endeavors. It’s responsible for healing and buffing teammates. A secondary “ability” Medics have is being deadly against the undead; “ability” is in quotes because it isn’t really a separate ability, and more like a separate trait of their healing ability. “Healing” an undead enemy does damage. An actual secondary ability is bashing enemies with their shields, though since Medics tend to be the least in-shape class, this has limited effectiveness most of the time.

The team’s Medic is Lily Flowers, who has a prosthetic arm with her MedTool built in and a holographic shield generator affixed to her living arm.

Another major Medic has a MedTool that’s a staff, and his holographic shield generator is actually affixed to the front of the MedTool, so it’s like a two-in-one deal.

Another major Medic, meanwhile, has a force field generator instead of a holographic shield, and the default shield is just plain solid.

Knights are, lore-wise, the oldest class, sorta. While the class system is in general a fairly recent development, all Knights were originally members of an order of knights that has existed for centuries. In terms of function, they are experts at bladed melee, and they’re also psychic. So, they all wield bladed weapons- swords, axes, etc.- and they all have crazy mind powers. Their mind powers mostly just benefit themselves, with abilities like being able to see through the eyes of others or electrocuting enemies or setting their blades aflame.

The team’s Knight is Kyousuke Tenjou, who wields a longsword and often uses telekinesis and sets his blade aflame.

Another Knight named Gabriella wields a rapier, and another one known only as the mysterious Delta Knight uses arm-mounted blades.

Marines are, lore-wise and function-wise, possibly the most boring class to talk about, though that’s not a bad thing; they keep things simple and don’t try to fix what ain’t broke. Lore-wise, they’re soldiers, nothing much else to them. And function-wise, Marines are defined by the fact that they use guns. A lot of them. Most classes are limited to having one piece of primary equipment (Technicians have Wrenches, Knights have Swords, Assassins have their weapons); the two exceptions are Medics (who have two, their MedTool and their shield) and Marines. Marines can carry up to six pieces of primary equipment. And unlike Medics, who have two types of equipment and they can have one of each? Marines only have the one type of equipment, guns. They can just have six of them at once. And that’s really it. They have guns. They’re also fairly slow, which makes them pair up well with Scouts; you’ll see why once we get to them next.

The team’s Marine is James Ferguson. His favorite gun is a laser gun that’s labelled as an “assault rifle” since it fires a steady beam; it looks like a tommygun. He also has a revolver that, when fired at the ground, causes a serious of spikes to shoot out from the ground, kinda like Lurkers from StarCraft. And he has a flamethrower.

Scouts are, lore-wise, the final “intelligent” class, alongside Medics and Technicians, and are specifically scientists. Function-wise, Scouts are the most unique class, and the best descriptor I can come up with for their role is “agile masters of Battlefield Control”. A Scout’s main piece of equipment is their, well, transportation. The piece of equipment that makes them so agile compared to everyone else. As for their skills? That’s where things get complicated. One thing a Scout can do? Instantly swap places with another teammate (hence why they pair so well with Marines). They can also analyze the battlefield to spot things like environmental hazards, traps, drops, pickups, and other things. And they can analyze enemies to learn the enemy’s strengths, weaknesses, and skills. They can also move pickups and put them somewhere else, and send out and pick up distress calls, and operate vehicles with increased skill. They also have some offensive skills, like sending out ricocheting projectiles or just straight up attacking an enemy with a buzzsaw. Just, in general, they have a number of really miscellaneous and esoteric abilities, mostly but not entirely geared towards support.

The team’s Scout is Travis, who has hoverboots.

Other Scout transports include hoverboards, motorcycles, jetpacks, and grappling hooks.