- Following 96
- Followers 24.8K
- Engagement 1.46%
- Avg likes 340
- Avg comments 55
About MangalTalks||Chip Design/VLSI -Educator
MangalTalks||Chip Design/VLSI -Educator (@mangaltalks) is an Education creator on Instagram, also filed under Pets. The account has 24,829 followers and 636 published posts. Recent posts average 340 likes and 55 comments, an engagement rate of 1.46%.
With 24.8K followers, MangalTalks||Chip Design/VLSI -Educator is a micro creator by the common 10,000 to 100,000 definition. Set against 96 accounts followed, the audience works out to about 259 followers per account MangalTalks||Chip Design/VLSI -Educator follows. MangalTalks||Chip Design/VLSI -Educator is set up as an Instagram business account. Flinque files MangalTalks||Chip Design/VLSI -Educator under Education, with Pets as a secondary category.
The Instagram bio for MangalTalks||Chip Design/VLSI -Educator runs to 24 words across 2 lines. Emoji sit alongside the words. The latest activity Flinque has on record for MangalTalks||Chip Design/VLSI -Educator dates from September 2024.
Story Highlights
Unlocking shows the title and cover image of every story highlight this creator keeps pinned to the profile.
636 Posts
Of the 10 most recent posts shown for MangalTalks||Chip Design/VLSI -Educator, 7 are videos and 3 are carousels. That mix leans toward videos. MangalTalks||Chip Design/VLSI -Educator has built a substantial archive of 636 posts. Against the audience, that is roughly 39 followers for each post published. MangalTalks||Chip Design/VLSI -Educator also keeps 22 story highlights on the profile. All 10 carry captions, averaging 202 words each. The captions are written mainly in English. Words that recur across them include germany, netherlands, designer, srivastava and semiconductor. The captions tag #chipdesign, #semiconductor, #vlsi, #asic and #courses.
I am living for the last 14 years in the Europe but here what I see see differently now 👉 Europe is entering a massive semiconductor research era — and 2026 could become one of the biggest opportunities for future chip researchers, master students, and paid PhD aspirants. 🇪🇺
The world is no longer focused only on making smaller chips. Research is now shifting toward smarter architectures, energy-efficient computing, AI hardware, advanced packaging, photonics, neuromorphic systems, chiplets, and next-generation semiconductor materials. You can Google and check that these countries are investing in billions 💶
✅Universities and research institutes across Germany, the Netherlands, and Belgium are investing heavily in semiconductor innovation because the future of AI, robotics, autonomous systems, healthcare devices, and edge computing depends on new chip technologies.
But here’s the exciting part:
Most of these fields are still evolving, which means this is the perfect time for students and researchers to enter the ecosystem early. 🔥
👉Europe especially needs engineers and researchers who can combine theory with practical hardware understanding — people who understand real silicon behavior, system integration, power efficiency, reliability, and scalable architectures.
Hence in this reels I am sharing some detailed info about what reserach and in which university it’s going on if you comment “new” 🙌
And if you want to learn the chip design from me then for your information I have designed my courses not only for engineering students, but also for working professionals and even beginners with no prior knowledge of semiconductors. My goal is simple: help people avoid common mistakes, learn the right skills, and stand out instead of just following the herd.
M. Srivastava
Prof. Chip designer (14rs+) R&D
The Netherlands 🇳🇱, M.Sc Germany 🇩🇪
On this page I have shared more than 50+ reels/posts about learning chip design with free resources.
#ChipDesign #Semiconductor #PhD #VLSI #Research
👉Your Waveforms in the simulation may look clean. Timing may close. The architecture may seem flawless on paper. But real silicon behaves differently when exposed to real-time conditions, noise, variations, thermal effects, power fluctuations, routing complexities, and unpredictable interactions inside hardware. That is where actual chip engineering begins. 🔥
👉The real chip designers are not just the ones who create impressive simulations — they are the ones who understand the practical behavior of silicon in the real world. They know that designing a chip is not only about equations, tools, or verification reports. It is about deeply understanding how hardware behaves in real conditions hence a lot of cross functionality team meetings are done when tapeout is in the process. Those meetings are tiring 😏
👉A working chip demands experience, observation, debugging skills, patience, and the ability to think critically under real constraints. Every successful silicon tells the story of engineers who looked beyond textbooks and learned from practical challenges.
Future chip designers must remember this:
Theory builds the foundation, but practical understanding makes the chip alive. 🚀 Hence keep building projects
Because in the end, the real achievement is not a beautiful simulation…
It is silicon that works reliably in real time.
👉 Check my highlights “Paid courses” if you want to learn the integrated circuit design by a professional.
👉 Want to do study abroad, DM me!
M. Srivastava
Prof. Chip designer (14rs+) R&D
The Netherlands 🇳🇱, M.Sc Germany 🇩🇪
On this page I have shared more than 50+ reels/posts about learning chip design with free resources.
#ChipDesign #VLSI #Semiconductor #ASIC #paidcourse
Reality is far more interesting.
Modern semiconductor chips combine multiple technologies because different circuit blocks have completely different requirements.
Advanced nodes like 3nm are excellent for high-density digital logic such as CPUs, GPUs, and AI accelerators where speed and power efficiency matter most.
But analog, RF, PMIC, I/O, and high-voltage circuits often perform better on mature nodes like 28nm, 45nm, 65nm, or even 130nm.
Why?
Because advanced nodes operate at extremely low voltages with ultra-thin gate oxides. They are optimized for fast digital switching — not necessarily for precision analog behavior, voltage tolerance, low noise, or long-term reliability.
That’s why semiconductor companies still rely heavily on mature processes even while pushing cutting-edge digital logic to 3nm and below.
Smaller node ≠ better for everything.
And that’s one of the most misunderstood concepts in chip design.
👉 DM me for career counselling
👉 Check my highlights “Paid courses” if you want to learn circuit design by professional.
👉 Want to do study abroad, DM me!
M. Srivastava
Prof. Chip designer (14rs+) R&D
The Netherlands 🇳🇱, M.Sc Germany 🇩🇪
On this page I have shared more than 50+ reels/posts about learning chip design with free resources.
#ChipDesign #ASIC #Electronics #AnalogDesign #DigitalDesign
What you are seeing the output of the second order delta sigma modulator which is used in precision electronics. The FFT is used to check the output if adc is sampled based becuase it much easier to see a lot of information in frequency domain. So that if they is any ambiguity, designers can tune th circuit before the tapeout becuase any error on silicon is very costly. 👉hence rigorous verification need to be done ✅
👉 Check my highlights “Paid courses” if you want to learn IC/Chip/PCB design by a professional.
👉 Want to do study abroad, DM me!
M. Srivastava
Prof. Chip designer (14rs+) R&D
The Netherlands 🇳🇱, M.Sc Germany 🇩🇪
On this page I have shared more than 50+ reels/posts about learning chip design with free resources.
———-
While many followed the conventional path ) and there was non social media like that in 2010), I focused on building unique skills and understanding the semiconductor industry deeply. That mindset pushed me to complete my Master’s in Germany 🇩🇪( in Microelectronics and Microsystems) and work with leading research institutes and organizations across Germany, the Netherlands 🇳🇱, and other parts of Europe.
————-
The journey was never easy. It came with struggles, a hell lot of rejections, uncertainty, and continuous learning at every stage. But those experiences shaped my understanding of both the technical and practical side of the semiconductor world.
—————
👉Today, I use that experience to mentor students and professionals who want to build a real career in chip design. I have designed my courses not only for engineering students, but also for working professionals and even beginners with no prior knowledge of semiconductors. My goal is simple: help people avoid common mistakes, learn the right skills, and stand out instead of just following the herd.
👉 Check my highlights “Paid courses” if you want to learn circuit design by professional.
👉 Want to do study abroad, DM me!
M. Srivastava
Prof. Chip designer (14rs+) R&D
The Netherlands 🇳🇱, M.Sc Germany 🇩🇪
On this page I have shared more than 50+ reels/posts about learning chip design with free resources.
#courses #europe #chipdesign #vlsi #icdesign
Modern Chips are evolving faster than ever, but one challenge continues to dominate semiconductor design — POWER CONSUMPTION.
From smartphones and wearables to AI accelerators and IoT devices, today’s systems demand high performance with lower energy usage. This is exactly where Low Power VLSI Design becomes critical.
What makes this field even more exciting is its growing industry demand.That’s why companies working in AI, Automotive, Consumer Electronics, IoT, and High-Performance Computing are actively looking for engineers skilled in low power design methodologies.
For students and professionals entering VLSI, understanding low power concepts is no longer just an advantage — it’s becoming an essential semiconductor skill for the future.
👉 Check my highlights “Paid courses” if you want to learn circuit design by professional.
👉 Want to do study abroad, DM me!
M. Srivastava
Prof. Chip designer (14rs+) R&D
The Netherlands 🇳🇱, M.Sc Germany 🇩🇪
#chipdesign #courses #semiconductor
1️⃣ Concept Phase – Define the problem statement, application, performance targets, power budget, and technology requirements. This comes mostly talking from the cross functional teams.
2️⃣ Design Phase – Develop the chip architecture, circuit behavior, logic implementation, and system-level functionality.
For this rigours work and deep technical expertise is required.
3️⃣ Layout Phase – Transform the design into physical silicon layout while optimizing area, power, routing, and manufacturability. One to closely talk to the layout team to deliver a highly reliable chip.
4️⃣ Verification Phase – Validate functionality, timing, reliability, signal integrity, after the post layout optimisation. Also a good architect make ensure the design works under real-world conditions by making crucial simulations.
5️⃣ Testing Phase – Fabricate the chip, perform silicon bring-up, debugging, characterization, and production testing.
ASIC design is not just coding.
It is the combination of electronics, semiconductor physics, materials science, and manufacturing engineering. 🚀
📘 If you truly want to grow in this field, you need to focus on building strong fundamentals and understanding how each step connects in the real industry flow.
👉That’s exactly why I’ve designed my course—to simplify this journey and help you learn the complete chip design flow using open-source tools, in a practical and industry-relevant way. For course details DM me!
M. Srivastava
Prof. Chip designer (14rs+) R&D
The Netherlands 🇳🇱, M.Sc Germany 🇩🇪
On this page I have shared more than 50+ reels/posts about learning chip design with free resources.
#course #icdesign #chipdesign #semiconductor careeradvice
Do you know how chip design industry is veering shaped by artificial intelligence? This post explores about that 💪
👉 In essence, AI focuses on letting engineers do much more with the same or fewer resources — and less drudgery.
M. Srivastava
Senior Chip designer, R&D
The Netherlands 🇳🇱, M.Sc Germany 🇩🇪
#careeradvice #careercoach #careergoals #careerdevelopment #videoblogger
Counseling duration:45min -1 h
I have seen a lot of student are wasting their money for taking professional courses (6months, 3 months) which is really not relevant for the industry. Hence I have started my very low fee career counselling session for the students who want to make their career not only in VLSI, but also in semiconductor industry. paid fee will go to non profit organisations Motiavte India, working in education sector specially in rural areas
To book an appointment you can message me directly on Instagram or you can email me on
Here are a few popular open-source PDKs:
1. FreePDK 3nm By North Carolina State University and Synopsys Inc:
2. ASAP 7nm By Arizona State University and ARM Research:
3. TIGFET 10nm By University of Utah:
4. FreePDK 45nm By North Carolina State University and Oklahoma State University:
5. Skywater 130nm By Google:
Here are some of the most popular open-source toolchains:
1. OpenROAD: OpenROAD is an end-to-end, RTL-to-GDSII open-source flow with several best-in-class open-source tools. Link:
2. Hammer VLSI, By University of California, Berkeley: Hammer VLSI is a Verilog-to-GDSII tool ideal for small and medium-sized projects.. Link:
3. QFlow: QFlow is a complete digital synthesis and place-and-route system It is ideal for smaller designs. Link:
4. OpenRAM By University of California, Santa Cruz: OpenRAM is a toolchain for creating memory compilers that produce highly optimized memory layouts. Link:
#careeradvice #careercoach #careergoals #careerdevelopment #videoblogger
MangalTalks||Chip Design/VLSI -Educator's engagement
MangalTalks||Chip Design/VLSI -Educator's engagement rate on Instagram is 1.46%, between 1% and 3%, or 1 to 3 likes and comments per 100 followers. On a typical post that comes to about 1 like or comment for every 68 followers. Comments stay close to likes on MangalTalks||Chip Design/VLSI -Educator's posts, at 340 likes and 55 comments on average, about 6.2 likes per comment.
Engagement rate
1.46%
- Avg likes
- 340
- Avg comments
- 55
- Interactions : followers
- 1 : 68
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Who is MangalTalks||Chip Design/VLSI -Educator?
MangalTalks||Chip Design/VLSI -Educator (@mangaltalks) is an Education creator on Instagram, also filed under Pets. MangalTalks||Chip Design/VLSI -Educator is set up as an Instagram business account. The Instagram bio for MangalTalks||Chip Design/VLSI -Educator runs to 24 words across 2 lines.
How many followers does MangalTalks||Chip Design/VLSI -Educator have?
MangalTalks||Chip Design/VLSI -Educator has 24,829 followers on Instagram (24.8K). Set against 96 accounts followed, the audience works out to about 259 followers per account MangalTalks||Chip Design/VLSI -Educator follows. MangalTalks||Chip Design/VLSI -Educator has built a substantial archive of 636 posts.
What is MangalTalks||Chip Design/VLSI -Educator's engagement rate?
MangalTalks||Chip Design/VLSI -Educator's engagement rate on Instagram is 1.46%, between 1% and 3%, or 1 to 3 likes and comments per 100 followers. On a typical post that comes to about 1 like or comment for every 68 followers. Comments stay close to likes on MangalTalks||Chip Design/VLSI -Educator's posts, at 340 likes and 55 comments on average, about 6.2 likes per comment.
What does MangalTalks||Chip Design/VLSI -Educator post about on Instagram?
Flinque files MangalTalks||Chip Design/VLSI -Educator under Education, with Pets as a secondary category. Of the 10 most recent posts shown for MangalTalks||Chip Design/VLSI -Educator, 7 are videos and 3 are carousels. The 10 recent Instagram captions Flinque holds for MangalTalks||Chip Design/VLSI -Educator repeatedly use the words germany, netherlands, designer, srivastava and semiconductor. MangalTalks||Chip Design/VLSI -Educator's captions carry hashtags such as #chipdesign, #semiconductor and #vlsi. MangalTalks||Chip Design/VLSI -Educator writes those captions mainly in English. MangalTalks||Chip Design/VLSI -Educator keeps 22 story highlights, which open with a free Flinque account.
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MangalTalks||Chip Design/VLSI -Educator's contact details are not published on Flinque's public profile. The Instagram bio links to 2 external sites, and a free Flinque account opens those links. The account is registered as an Instagram business account. Brands with a free Flinque account can shortlist MangalTalks||Chip Design/VLSI -Educator and use Flinque's outreach tools wherever a contact route is on file.
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