#DFT design

[mavensilicon]

Advanced VLSI Design and DFT Course | VLSI Design Courses

Enhance your skills with our Advanced VLSI Design & DFT training. Learn VLSI techniques. Enroll now to master design and DFT with 100% placement assistance!

[commandermemorex]

website creativeinkers about selling Digital prints

website about selling Digital prints for shirts - sublimation designs - betty boop sublimation designs - DTF printing

Creativeinkers is a website that specializes in selling high-quality digital prints. With a wide range of unique and creative designs, they offer a variety of options to cater to different tastes and preferences.

 From vibrant illustrations to stunning photographs, Creativeinkers has something for everyone. Their prints are perfect for adding a touch of sophistication and style to any space. With easy navigation and a seamless purchasing process, Creativeinkers ensures a hassle-free shopping experience. Whether you're looking to decorate your home or office, or searching for a unique gift, Creativeinkers is the go-to destination for purchasing top-notch digital prints.

You can get it from this website :

[ccmh-515-uop]

Four Top Reasons Why You Should Take Only Our DFT (Design for Test) Course at Takshila VLSI Institute

With regards to DFT training, we at the Takshila VLSI institute are certainly one of the foremost DFT training institutes in India. DFT – design for testability – is a region of specialization in the pattern of SOC designs, to recognize any manufacturing absconds that may be available in any design. With the dynamically rising multifaceted nature and size of chips which, has been extraordinarily encouraged by the extraordinary headway of manufacturing innovations, DFT has come to really develop as its very own specialization through a certain period. Crafted by DFT engineers is to introduce many varying test structures as a part of any design stream, as respects increasing the testability of recollections, rationale, just as interconnect.

As the foremost DFT training institute in Bangalore and our branch likewise being the foremost of all DFT training institutes in Hyderabad. On the off chance that you are still in question as respects the way that we are the foremost of all DFT institutes in Bangalore, at that point read on to find why you should pursue our DFT course in Bangalore independent of where you may be residing.

1. The Content of Our Course

Our design for test training is designed by the best specialists according to the most trending industry prerequisites. Our understudies are given a few hands-on ventures that depend on ATPG, MBIST, SCAN, just as JTAG. This is to guarantee that they end up being the best DFT engineers that they can be along these lines establishing their place in the industry very quick after they have finished their investigations. That is the thing that makes us extraordinary compared to other design for test training institutes in India.

2. We are the Best Around

Indeed, that is very obvious. We are without a doubt the best design for test training institute in Bangalore and our branch is additionally the best of all design for test training institutes in Hyderabad. In addition, our course is without a doubt minimal effort and likely the most affordable. Specialists all concur that we offer much more incentive than what our understudies pay when you analyze the nature of our exercises, instructors, and teaching materials to the measure of cash we charge for the course.

3. The Amazing Highlights of Our DFT Course

As the foremost of all design for test training institutes in Bangalore, we unquestionably offer the most far reaching just as the most educating design for test course in Bangalore. The amazing features of our amazing DFT course include the way that before the finish of their course our understudies are very ready to;

Break down, audit, just as propose changes for the improvement of testability, and furthermore improving such enhancements by undertaking ATPG, SCAN, just as Simulations.

Analyzing all DRC issues and being ready to find and proffer arrangements during their SCAN and ATPG methods.

Break down the inclusion of the test, propose adjustments for the improvement of the test inclusion to attain intended objectives with the most ideal examples.

Comprehend and apply debugging methods and methodologies that are utilized in debugging tests on recreation just as silicon situations.

every minute of every day lab backing and practice presents just as course material conveyance.

4. Our Placement Program

We are the best DFT training institute with 100% placement open doors for the entirety of our understudies. Our group by and by beginning to remember us as a standout amongst other DFT training institute in India, a minimal effort DFT training institute, and the foremost of all the best DFT training institutes in India, because of our amazing placement program. This placement program puts us among the best 10 DFT institutes and empowers our understudies to completely investigate their possibilities as future DFT engineers and specialists who have moved on from one of the India's best 10 DFT training institutes.

Taking everything into account, is you look at the worth we offer when giving understudies DFT training with the best apparatuses to what we charge for our online DFT courses, you will concur that we are the best training institute, so pursue our DFT course online.

[markrosewater]

There is a growing sentiment in the community that in-universe sets are taking themselves less and less seriously. MKM, OTJ, and DFT feel very similar to playing an Un-set. Do you think this is intentional, or is it just a coincidence?

The pendulum swings, and the last year has been a little more leaning into a certain style of design. The pendulum is starting to swing in a new direction, and I think players with this complaint will be happy with the upcoming in-Multiverse Magic sets.

[trivalentlinks]

so many people hate math but people generally seem to like physics (at least based on responses i got when telling people that I was a math/physics major--i eventually just told people I was a physics major to avoid the "oh, ew, I hate math" response),

this is probably because everyone was forced to learn math for years in school, but most people had only one year of required physics in school, if that

but i'm low key kind of convinced that this is misplaced, because it's actually physics's fault that you had to learn so much math in school

like the math that people struggle the most with, things like trig and conic sections and graphing equations and functions, the things where you have to connect algebraic notions to geometric ones, these things aren't taught in school because math enjoyers love them on principle

(though as a topologist, i do love connecting algebraic notions to geometric ones on principle!)

they're being taught because they're so fundamental to physics (and to mechanical, civil, and electrical engineering, but only because those fields rely on physics, which relies on these mathematical concepts)

like you're only being taught these math concepts you hate so much because *physics* is *like that*

(computer science and statistics are also *like that*, what with things like DFT and distributions and such, but the school math curriculum was designed long before computer science and statistics gained such prominence)

(one could also argue that kids are taught math because medical schools require A's in calculus, but I'm low key convinced that this is circular reasoning in that medical schools probably only require A's in calculus because kids are taught math in school, and the A in calculus signals that you actually went to school and paid attention)

(but then your physics teachers get to show you these fun demonstrations and get all the credit while relying on the years of plodding and painstaking work your math teachers have done)

[soudasouda]

Biblioteca Can Manyer Vilassar de Dalt 2014 design by DFT arquitectos Follow Souda on Tumblr

[materialsscienceandengineering]

A new transformer-based model for identifying alloy properties

Identifying alloy properties can be expensive and time-consuming. Experiments involving alloys often require a number of resources. Calculating alloys can also become extremely complicated, with a seemingly endless number of configurations of properties. Alloy properties can be determined using Density Functional Theory (DFT) calculations; however, this method is limited and can also be extremely time-consuming in the event of a particularly complex alloy. Amir Barati Farimani and his team aim to reduce both the time and cost of this process, and their recent work has led to the creation of AlloyBert, a modeling tool designed to predict the properties of alloys. AlloyBert is a transformer-based model, meaning researchers input simple English-language descriptors to gain their desired output. Descriptors can include information such as the temperature at which the alloy was processed or the chemical composition of an alloy. AlloyBert will then use this information to predict either the elastic modulus or yield strength of the alloy.

Read more.

[littleintellectual]

@smallerontheoutside tumblr is a functioning website, and so I can't directly reply to your reply to my reply on a post, nor can I DM you, but the answer to your question about which HGTV series used to take two participants' design preferences and show how to blend them is: Designing For the Sexes, which is a terrible name but I guess had reasonably good advice (from 1998 but hopefully still good??) if they showed design principles that I probably still use successfully today. and if anyone reading this needs a free idea for a design show, just remake DFTS without the genders

[someverygaymoth]

DFT!AU Grillby thoughts

Grillby distantly remembers being on the surface as a child (he is an old man frfr) and sometimes tells Sans about the things he remembers, and how he wonders if things have changed at all, outside of the underground. Sans is mesmerized by the stories. For all his theoretical physics and knowledge of the outside world in theory, It's easy for him to wonder if there's even an outside at all...

Going to the surface for the first time since he was young is a big thing for Grillby. Especially after hearing the state of the human city... There was no human city near the mountain when he was young. There were no cars nor streets... Only forest and sky. The humans locked them away far from where they lived, of course they did.

To see the surface again is something he never thought he'd get... Being a young flame in the beginnings of the underground, there were a lot of things he believed he'd never get... A normal life being one of them...

But the underground had become home. And the memories of the surface had grown fuzzy and distant. Memories of his mother shielding him from a thundering sky... Or memories of little bugs flocking to the warmth and light of his little flames in the night... Memories of the sun and the sky and the humans...

The sky is too big, and the buildings are too tall... And those creatures out there... They're not monsters. And they're not humans. And the unknown is... Scary. He wants to pick Sans up and drag him back to snowdin... Hide in the bar forever, maybe?

^^potential grillby designs for DFT!AU

DFT!AU is my silly little AU that I've been working on, it's more classic undertale related, rather than UTMV focused.

[research-lighting]

Biblioteca Can Manyer Vilassar de Dalt 2014 design by DFT arquitectos Follow Research.Lighting on Tumblr Source: https://soudasouda.tumblr.com/post/747613007715139584/biblioteca-can-manyer-vilassar-de-dalt-2014-design

[ceramiccity]

Modern Library Interior Design by DFT

Biblioteca Can Manyer Vilassar de Dalt 2014 design by DFT arquitectos - Modern library interior, colorful tile floor, industrial ceiling, wooden bookshelves, natural light. Follow Ceramic City on Tumblr Source: https://soudasouda.tumblr.com/post/747613007715139584/biblioteca-can-manyer-vilassar-de-dalt-2014-design

[resolutegroup]

How to Choose the Right EMS Provider in India for Quality and Faster Time-to-Market

Choosing the right Electronics Manufacturing Services provider in India can significantly impact your product quality, production efficiency, and speed to market. With India's growing reputation as a global electronics manufacturing hub, thanks to initiatives such as Make in India and robust infrastructure development, more businesses are turning to Indian EMS partners for their end-to-end electronic assembly needs.

In this answer, I’ll walk you through the key aspects to consider when selecting an EMS provider in India and how a trusted partner like Resolute GOC can help you accelerate innovation while maintaining high standards.

Why India for Electronics Manufacturing Services?

India has rapidly evolved into a preferred destination for electronics manufacturing for several reasons:

Cost Efficiency: Lower labor and operational costs make Indian EMS providers globally competitive.

Skilled Workforce: A large pool of engineering talent and trained technicians ensures production precision.

Government Support: Policies such as the PLI (Production Linked Incentive) scheme have incentivized electronics production.

Geopolitical Stability: Compared to some other Asian countries, India offers a more stable business environment.

What Should You Look for in an EMS Provider?

When evaluating an Electronics Manufacturing Services provider in India, consider the following factors:

1) Technical Capabilities: Look for a provider with extensive experience in Surface Mount Technology (SMT), Through-Hole Technology (THT), box builds, printed circuit board (PCB) assembly, testing, and final packaging. The more technically diverse the provider is, the more they can support your growth.

2) Quality Certifications: Your EMS partner should comply with international quality standards, such as ISO 9001, ISO 14001, IATF 16949 (for the automotive industry), and IPC-A-610. These certifications ensure that the manufacturer adheres to global quality benchmarks.

3) Design and Engineering Support: An ideal EMS partner should offer Design for Manufacturability (DFM) and Design for Testing (DFT) services to optimize your product from the early stages. Engineering support helps avoid costly mistakes later in the production cycle.

4) Scalability and Flexibility: Can the provider handle your volume requirements as you scale? Whether you're a startup launching a new product or an enterprise managing large-scale production, the ability to ramp up or down without compromising quality is critical.

5) Turnaround Time and Supply Chain: Efficient supply chain management and faster turnaround times will reduce your time-to-market. Look for a provider that maintains strong relationships with component suppliers and demonstrates expertise in managing supply chain risks.

6) Testing and Quality Assurance: A strong EMS partner will have automated and manual testing capabilities, including in-circuit testing, functional testing, burn-in testing, and environmental stress screening. This ensures product reliability and performance.

7) Aftermarket Services: Support doesn’t end with assembly. Services like repair, rework, and reverse logistics demonstrate a provider’s commitment to the entire product lifecycle.

How the Right EMS Partner Can Transform Your Business

Choosing a reliable EMS provider isn’t just about outsourcing production; it’s about establishing a strategic partnership that supports innovation and growth. Here's how:

Improved Product Quality: High-precision assembly processes, real-time monitoring systems, and rigorous quality assurance protocols ensure consistently high-quality output. This results in fewer returns, lower defect rates, and better customer satisfaction.

Faster Time to Market: A full-service EMS provider accelerates the design-to-delivery process. Their expertise in prototyping, tooling, and rapid manufacturing enables you to launch new products more quickly than if you were managing everything in-house.

Cost Reduction: From minimizing BOM (Bill of Materials) costs to reducing labor and operational expenses, EMS companies in India offer significant cost advantages without compromising quality.

Innovation Enablement: Providers like Resolute GOC support innovation with integrated services, including prototyping, product development, and scalable production. This means more time and resources for your team to focus on design and market strategy.

Why Consider Resolute GOC?

Resolute GOC is one of the leading Electronics Manufacturing Services providers in India, offering comprehensive solutions for companies across various sectors, including automotive, industrial, medical, telecom, and consumer electronics. Here’s what sets them apart:

Comprehensive Capabilities: SMT, PCB assembly, product design, and system integration under one roof.

State-of-the-Art Infrastructure: Modern facilities equipped with high-speed pick-and-place machines, AOI, X-ray inspection, and automated testing systems.

Scalability: From low-volume prototypes to high-volume production, Resolute GOC adapts to your needs.

Strong Engineering Backbone: Their engineering team offers DFM and DFT support to improve manufacturability and reliability.

Quality First Approach: Stringent quality control measures and internationally certified processes ensure consistency and compliance.

Whether you’re a startup looking to bring a prototype to life or an OEM seeking volume production, Resolute GOC can serve as a reliable partner throughout your product lifecycle.

Conclusion

Selecting the right Electronics Manufacturing Services provider in India is a strategic decision that influences your product’s success, your brand’s credibility, and your company’s bottom line. By focusing on capabilities, quality, scalability, and reliability, you can find a partner that not only meets your current manufacturing needs but also evolves with you.

As Indian EMS companies continue to invest in advanced technologies and quality frameworks, the opportunity to build globally competitive products has never been more accessible. Explore providers like Resolute GOC, who are well-positioned to deliver innovative, efficient, and scalable solutions tailored to your specific requirements.

If you’re looking to optimize your electronics manufacturing strategy and expand your reach, India’s EMS landscape is ready; the only question is, are you?

[altem-technologies]

Accelerate Innovation with BIOVIA Material Studio 🧪

Discover the power of BIOVIA Material Studio, the leading modeling and simulation environment for materials science and chemistry. From atomic-scale insights to bulk material properties, Material Studio enables researchers, scientists, and product developers to: ✅ Predict material properties with high accuracy using DFT, MD, and MC simulations ✅ Design and optimize polymers, catalysts, nanomaterials, and formulations ✅ Simulate electronic structure, mechanical strength, thermal stability, and more ✅ Integrate seamlessly into your research or R&D pipeline Whether you are in academia, chemicals, energy, or electronics, Material Studio is your virtual lab for faster, smarter material innovation. Know More: https://altem.com/material-studio/

[markrosewater]

Want to give some props for a recent trend in limited, which is cards at uncommon that kind of fill the same role as bomb rares; stuff like Push the Limit and Shefet Archfiend in DFT. I love that they exist in the format to let me play defensive control decks which they give inevitability without needing me to get lucky and open an actual top-ten-cards-in-the-set bomb. Love these designs at low rarity.

Happy to hear that.

[digitalinstrumentsinfo]

Industrial-Grade DFT Meter – Trusted Quality from Stanlay

Stanlay is a trusted name in providing innovative engineering tools for construction and inspection. Our DFT meter – the CT600 Coating Thickness Gauge – offers accurate and reliable dry film thickness measurements on ferrous and non-ferrous substrates. Designed for durability and precision, it is ideal for quality control in various industrial applications. Choose Stanlay for high-performance inspection solutions that meet global standards.

[govindhtech]

Coupled Cluster, DFT: Accuracy Cost Paradox In Drug Design

Explore the dilemma of quantum mechanical techniques like Coupled Cluster and DFT: they provide unique molecular insights but are too expensive for current drug research.

Overview: Drug Development Needs Innovation

Over the past 50 years, pharmaceutical drug development has become increasingly expensive and time-consuming, costing billions of dollars. Drug development must be improved to fulfil unmet medical requirements.

Computational approaches are already critical to pharmaceutical development. Quantum mechanical computations, molecular dynamics, and machine learning are examples. One bottleneck is designing and optimising chemicals to attach to a disease-related target protein. Computational methods predict binding affinity, a key drug candidate efficacy indicator.

However, simulating chemical systems with thousands of atoms in a cellular environment at restricted temperatures is computationally intensive. Current methods, such as molecular simulations with classical force fields, often fail to anticipate binding affinity. Quantum mechanical methods like Coupled Cluster (CC) and Density Functional Theory (DFT) describe molecular interactions better, but their high processing cost makes them unsuitable for drug creation. Because slight inaccuracies might produce considerable dosage prediction errors, great precision, ideally within 1.0 kcal/mol of experimental results, is desired.

Promise of Quantum Computers

Due to its quantum mechanical properties, quantum computers are being studied as a technique to model quantum systems. The promise of precise and effective quantum chemical computations is a major rationale for financing the study.

Quantum computers are expected to improve molecular system ground state energy determination. Traditional methods fail in systems with high correlations.

Strong electronic correlation is indicated by multi-reference wavefunctions, essential spin-symmetry breaking, cluster expansion failure sites, and near-degenerate natural orbitals. Multi-metal systems may require expensive multi-reference treatment.

Potential Quantum Computer Uses: Phase Estimation

Quantum Phase Estimation (QPE) is the typical electronic structure computation approach on fault-tolerant quantum computers. Creating the error-corrected quantum circuit, determining an initial quantum state, and fine-tuning the chemical system geometry usually begin on a classical computer.

Quantum computing then prepares this conventionally defined starting state. The ground state energy is then calculated using QPE. The efficiency of QPE depends on how closely the starting state matches the ground state. With adjustments to this approach, molecular forces and other important properties may be calculated.

Important Challenges Remain

There are many barriers to using quantum computers for large-scale drug discovery, notwithstanding their theoretical benefits.

Limits on Technology:

Noisy Intermediate Scale Quantum (NISQ) technology, with few qubits and noise, is now in use. To gain a quantum advantage for complex chemical calculations, Fault-Tolerant Quantum Computers (FTQCs) must exponentially minimise mistakes. FTQCs are a major engineering difficulty.

Even the iron-molybdenum complex (FeMoco), a difficult chemical, would require 200 logical qubits and millions of physical qubits after error correction. This is much larger than existing hardware can handle. Quantum error correction is a major run-time and qubit count overhead. To lower these overheads, quantum error correction codes and algorithms, hardware with lower error rates, and qubit connection must improve.

Problems with algorithms

Major algorithmic issues remain. Effectively preparing the initial quantum state is difficult. Despite heuristic approaches, more research is needed because the overlap of this starting state with the planned ground state directly influences QPE runtime. Another necessity for minimising processing cost is finding more compact Hamiltonian representations.

Drug design challenges include calculating thermodynamic characteristics like binding affinity, which may be the most significant impediment. Obtaining ensemble properties may involve billions of single-point calculations. Even if quantum computers could speed up individual computations, the sheer volume of calculations necessary makes it impossible to generate conclusions in a timely manner compared to well optimised experiments (current run-time estimates for sophisticated systems are days).

Adding an explicit solvent like water increases computing complexity and requirements. Drug design requires efficient computing of thermodynamic parameters, even when single-point simulations yield insights. Two methods are directly modelling electrons and classical nuclei or building thermal ensembles of geometries on a quantum computer.

Potential Effects and Use Cases

Quantum computing may have other uses in drug development, but its largest impact is predicted to be on lead optimisation computations. These comprise NMR and IR molecular spectra for structure identification and drug manufacturing reaction process refinement. Compared to speeding up core lead optimisation, these regions are expected to have less influence.

Quantum computers are best for precise computations on densely linked systems that classical methods cannot handle. Advanced approaches like DFT and Coupled Cluster would likely have the greatest impact on the pharmaceutical industry, even if used less accurately. Quantum computers may offer new ways to improve classical approaches, such as DFT functionals, even if they cannot speed linear-scaling classical methods like DFT or Hartree-Fock. Coupled Cluster approaches on quantum computers could triple optimisation speed.

Conclusion

The limits of quantum chemistry for drug development are either the high cost of DFT calculations for large biomolecular ensembles or the lack of accuracy for complex systems. Quantum computers may solve the accuracy problem for strongly correlated systems, but ensemble calculations to derive thermodynamic parameters are still expensive.

Quantum methods for electronic structure problems have reduced computational costs in recent decades. In addition to hardware breakthroughs and error correction codes (such as state preparation), more algorithmic advances are needed to go beyond single-point energy calculations and impact the pharmaceutical industry.

Despite the challenges, open research between academia and business may yield the fundamental advances needed to make quantum computing a critical tool for generating better drugs faster. Some of these issues are addressed. For computational drug design to be truly predictive and more broadly applicable, quantum computers must deliver the accuracy and robustness for strongly and weakly correlated systems at rates comparable to lower-precision conventional approaches.

One ambitious future goal that will require massive quantum computers is applying quantum machine learning to quantum calculations to predict pharmacokinetics.