Technologies developed by electrical engineers have enriched our lives in countless ways and revolutionized our daily environment. Electrical engineers gave the world the internet, telephone, satellite and TV networks along with power distribution networks. Electrical engineers develop new pacemakers for ailing hearts, ultrasonic diagnostic devices for detection of tumours, and NMR machines. They provide secure and reliable communication to expeditions in remote and dangerous locations and to astronauts in space. They are responsible for numerous household and personal items, from your smartphone, electronic wristwatch to your iPod. Electrical engineers work in multimedia, telecommunications, electric power, signal processing and control. They work with physicians on new diagnostic devices and with urban planners on new efficient vehicles. Their work makes our lives more interesting, effective and safe and increases our productivity and standard of living. Electrical engineering is grounded in mathematics and sciences. More than 23 full-time PhD research-active faculty members in all areas of EE with research labs in 9 clusters.
Electrical Engineering Faculty
Dr. Nauman Zaffar Butt in the Electrical Engineering department leads our efforts on…
Dr. Nauman Zaffar Butt in the Electrical Engineering department leads our efforts on photovoltaics which has now crossed over into the realm of agriculture, to produce the budding field of agrivoltaics. Powering agricultural farms through solar energy requires creative designs in both the solar cells as well as how solar cells will be integrated into a solar system that can power agri-farms.
Dr. Butt's PhD student Hassan Imran has now produced an amazing body of work that helps achieve both of these tasks. Novel materials, novel designs of the heterofacial structure of solar cells and employing two-dimensional layers of graphene or carbon nano-tubes can boost the performance of solar cells, achieving almost thermodynamically maximum efficiencies. Creative ways to interface silicon based and organic-inorganic solar cell technologies helps achieve the best of both worlds.
Finally, Hassan has mathematically modeled the role of soil and orientation of solar panels, in achieving high efficiency crop yield from solar enhanced farmlands. This work has immense implications for the country which calls for innovative solutions to address critical problems at the food-energy-water confluence.
The quality of his work is evidenced by the four articles published in the world's leading journal on this topic:
- The IEEE Transactions on Electron Devices [here, here, here and here],
- The IEEE Journal of Photovoltaics [here],
- Solar Energy [here] and
- Renewable Energy [here],
- along with several conference proceedings.
The Water-Food-Energy nexus remains one of the six forefront areas being pursued at the Syed Babar Ali School of Science and Engineering.
In a world increasingly reliant on electricity, power outages can…
In a world increasingly reliant on electricity, power outages can bring daily life to a grinding halt. However, an innovative research by Chaudhry Talha Hassan and Dr Tariq Mahmood Jadoon from the Department of Electrical Engineering significantly accelerated the restoration of electric power after a major blackout by improving the resilience of smart grids. These grids integrate many distributed energy resources (DERs) such as solar panels, wind turbines and energy storage systems.
Shortly, after the study's publication in IEEE Xplore in August 2023, Sir Ganga Ram Hospital in Lahore experienced a power outage due to alleged mismanagement, forcing doctors to use torchlight to complete their procedures. A similar incident had occurred at Services Hospital Lahore less than a month earlier, impeding patient care. More recently, during the Sindh flash floods, the preservation of the Guddu power station played a crucial role in preventing a blackout that could have impacted 25% of Pakistan's population. These recurrent incidents underscore the timeliness of this research, where critical loads in a distribution feeder can be restored by harnessing power from neighboring DERs considering the power network as a cyber-physical power system.
When an entire city or neighborhood experiences an abrupt power loss, the urgency to restore electricity to critical facilities such as hospitals and emergency services is paramount. Bulk power distribution networks typically have a limited number of switchable lines and loads. This limitation can make it challenging to restore power, particularly in situations where many inductive loads are switched on simultaneously.
This is where the innovative concept of "microgrids" comes into play. The researchers have proposed the creation of these smaller, self-sustaining power networks that can swiftly bring power back to affected areas. Unlike the conventional top-to-bottom approach, the research emphasizes harnessing smart grids, using communication tech, reconfiguring networks, and integrating DERs. This ensures the rapid restoration of power to critical loads while addressing challenges like frequency control and practical factors such as switch types and communication constraints.
Inverter-dominated smart grids face unique challenges related to dynamic stability and lower inertia. The research introduces a multi-layered framework that integrates cyber-networks into the restoration process. It also emphasises the importance of monitoring the health of energy storage systems, ensuring safe charging and discharging strategies, and imposing constraints on frequency and voltage to maintain grid stability.
Moreover, the act of restoring power can sometimes introduce problems like system overload. To mitigate these potential issues, the study incorporates dynamic stability constraints into the restoration process, ensuring that the system remains stable even during the reconnection of numerous power sources.
To validate their concepts, the researchers employed computer simulations. These simulations create a virtual representation of the power system, allowing the team to experiment with different strategies without affecting the actual electricity supply.
The research sheds light on the crucial role of synchronous generators as black-start distributed generators (DGs) for service restoration. Unlike renewable energy sources, high-inertia diesel generators can provide reliable power during emergencies. By including backup generators (BUGs) as dispatchable DGs in microgrids, the research demonstrates an innovative approach to harnessing power from non-dispatchable sources, enhancing microgrid stability, and expanding coverage.
Talha's research promises a more efficient and resilient future for power restoration. By harnessing the power of microgrids and cyber-physical systems, this approach promises to revolutionise how we think about restoring electricity in the face of adversity. As our world increasingly relies on electricity, innovations like these are essential for ensuring that the lights stay on even when the grid faces its darkest hours.
Huzaifa Rauf, a brilliant PhD scholar from the Department of…
Huzaifa Rauf, a brilliant PhD scholar from the Department of Electrical Engineering, has within a year earned two significant accolades - the prestigious “Center for Advanced Life Cycle Engineering (CALCE) at the University of Maryland Awards” for his outstanding performance and lasting contribution on “Safe Energy Storage Research”, and the publication of his research paper in the renowned Elsevier’s “Journal for Energy Storage”.
The rise and widespread adoption of electric vehicles (EVs) in recent decades has been primarily fueled by advancements in battery and power technologies and the urgent need to curb greenhouse gas emissions. However, unlike traditional fuel-driven vehicles, EVs face a significant challenge—the degradation of their batteries—which limits their overall lifespan. This issue is particularly concerning considering the resource-intensive nature of battery production, as short-lived batteries have an unintended adverse effect on the environment. Recognising this critical problem, Huzaifa is actively involved in a research group at SSE, LUMS Energy Institute, dedicated to enhancing the area of renewable energy analytics, smart grids, and energy efficiency.
During Huzaifa’s time as a visiting scholar at the University of Maryland, he worked under the supervision of Prof Michael Pecht (member SBASSE advisory board) and Dr Michael David Osterman at CALCE. His dedication and expertise in applying AI and machine learning for reliability improvement in electric vehicle batteries were instrumental in earning him the CALCE award, making him the first visiting PhD from any country to receive this prestigious honour from the Centre. As part of the award, Huzaifa also received a funding grant of $5,000, acknowledging his exceptional research accomplishments.
“Having worked at the initial phase of the battery degradation, swelling and thermal runaway project, I am confident that this stream is going to make a significant impact in domain of energy storage.” Huzaifa expressed great enthusiasm for having his work recognised.
In addition to the research award, Huzaifa has also published a paper titled "A Novel Smart Feature Selection Strategy of Lithium-ion Battery Degradation Modelling for Electric Vehicles Based on Modern Machine Learning Algorithms", under the supervision of Dr Naveed Arshad, founder LUMS Energy Institute.
The paper highlights the importance of accurately predicting battery capacity loss to ensure the batteries' longevity, safety, and reliable operation. To achieve this, the researchers propose a smart feature selection (SFS) strategy-based machine learning framework. The SFS method selects relevant input parameters from battery data from the current and previous time steps, which are then utilized for model training and testing.
The results demonstrate that the proposed SFS method, in combination with various machine learning algorithms, significantly enhances the prediction accuracy and reduces the mean absolute error for battery capacity loss. The paper also emphasizes the importance of predicting a battery calendar, the degradation of a battery’s life over time whether or not it’s used, and cyclic loss, the gradual decrease in battery capacity caused by repeated charge and discharge cycles. Furthermore, it showcases the improved performance achieved by combining the SFS method with machine learning algorithms such as Gaussian Process Regression (GPR), random forest (RF), and XGBoost. This research presents a novel approach to feature selection-based machine learning for independently predicting battery calendar and cyclic loss, making it a valuable contribution to the field.
The publication highlights Huzaifa’s innovative approach to selecting smart features in modelling lithium-ion battery degradation, which has significant implications for electric vehicle performance and longevity. The research paper stands as a testament to his commitment to advancing the field of safe energy storage.
As summer approaches, high temperatures in Pakistan bring a host of…
As summer approaches, high temperatures in Pakistan bring a host of challenges beyond the physical discomfort of the heat. With frequent power outages plaguing the country’s energy grid, keeping cool and comfortable can be a struggle. Pakistan, like many other countries, is turning to renewable energy like rooftop solar panels and net metering to power homes and businesses. However, unlike technologically advanced countries, Pakistan does not have a distribution management system (DMS) to handle the influx of renewable energy from rooftop solar panels.
Dr Raheel Zafar, Assistant Professor from the Department of Electrical Engineering at LUMS, is working on solutions to help manage energy grids more efficiently and reliably, not only for Pakistan but globally. In 2023, he published two papers in IEEE Access, one as the first author of an international collaboration and the other one with his research assistant as the corresponding author. We will take a closer look at another one of Dr Raheel’s recently published papers in the reputed research journal, IEEE Transactions on Sustainable Energy titled Multi-Timescale Coordinated Control with Optimal Network Reconfiguration using Battery Storage Systems in Smart Distribution Grids
The paper proposes a new optimization framework to improve the performance of power distribution networks, which are responsible for bringing electricity from the transmission system to consumers. While the framework was developed by Dr Raheel, the co-author Dr Hemanshu R. Pota, Associate Professor at the University of New South Wales Canberra in Australia, provided valuable input during the structuring and revision stages of the article.
The paper deals with feeder reconfiguration, which involves changing the network’s topology by opening and closing switches to modify the connections between parts of the network. Dr Raheel proposes the co-optimization of feeder reconfiguration, creating a plan to schedule the use of (1) traditional voltage regulating devices, such as the on-load tap changer (OLTCs), to regulate the voltage of the traditional power grid, and (2) utility-scale distributed energy resources like battery energy storage systems and photovoltaic (solar energy) inverter.
To determine the optimal coordination between these different sources of power, Dr Raheel used a mathematical model called “mixed-integer second-order cone program”. This was solved using the GAMS software, an abbreviation for General Algebraic Modeling System, to find the best solution for the power grid, or “global optimum”, by exploring possible solutions and identifying the combinations that produce the best outcomes. Furthermore, the feasibility of the solution was tested using the Distribution System Simulator (OpenDSS) software. The model calculated an optimal switching plan on a daily basis, using 20-minute intervals for batteries and photovoltaic inverters, and hourly intervals for OLTCs.
Through this model, Dr Raheel was able to reduce energy losses by a staggering 24,1% and improve load balancing by 25%, compared to the current fixed topology system. The model could be used for day-ahead scheduling, making it a promising solution for optimizing power distribution.
From late-night chai in the Communications Lab to developing the "brains" behind self-driving cars in Cambridge, Hamza Adnan's journey reflects the intellectual curiosity and interdisciplinary spirit that defines the Syed Babar Ali School of Science and Engineering (SBASSE).
A graduate of the Electrical Engineering programme at LUMS, Hamza is now working as a research engineer in Cambridge after pursuing graduate studies at Oxford. In this conversation with Madiha Rahman, Communications and Partnerships Lead at SBASSE, he reflects on the mentors, friendships, and questions that shaped his journey.
"Karachi prepared me for hostel life"
Madiha: Hamza, let's begin at the beginning. What first sparked your interest in science?
Hamza: I grew up in Karachi, which in many ways is a preview of hostel life - a melting pot of ethnicities, languages, and cultures from across Pakistan.
As a child, I was always fascinated by questions about how things work: how nature behaves, how societies organize themselves, how systems function. For a long time, I thought I would study physics. It seemed like the most philosophical and fundamental of sciences.
But there was also a part of me that wanted to build things with my hands. Electrical Engineering felt like perfect the balance - it allowed me to explore mathematics, physics, engineering, and computing all at the same time.
Another important factor was flexibility. I was always wary of the academic rigidity that exists in many university systems, where you choose a discipline at 17 and follow a fixed path for the rest of your degree. I wanted to experiment - attend a history lecture, explore theoretical physics, spend time in a chemistry lab. LUMS felt like the only place where that kind of intellectual freedom was possible.
Finding community during a pandemic
Madiha: You joined LUMS in 2020 - during the height of COVID-19. That must have been an unusual start to university life.
Hamza:
It definitely was. Only a small number of students with laboratory work were allowed on campus that year, so the community was very small.
But strangely enough, that year turned out to be one of the most meaningful periods of my life.
Against all odds, I ended up meeting people who would become incredibly important to me. That year I met my wife, some of my closest friends, and professors who shaped my intellectual and professional trajectory.
Looking back, those early months set the tone for the next four years: curiosity, mentorship, and a strong sense of community.
Mentors who pushed beyond the classroom
Madiha: Many SSE students talk about the mentorship they receive from faculty. Were there particular professors who influenced your path?
Hamza: Absolutely. Dr. Muhammad Tahir, Dr. Momin Uppal, and Dr. Zubair Khalid were incredibly influential in my journey. They were the first people who encouraged me to go beyond the classroom. Dr. Tahir would often give me additional academic material to strengthen my foundations in areas I was curious about.
Eventually, they hired me as a research assistant in their research group. That experience introduced me to something I hadn't fully appreciated before - the joy of research that is both socially relevant and technically rigorous. It was during that time that I realized graduate school was the path I wanted to pursue.
Chai, chaos, and the Communications Lab
Madiha: What about the student community at SSE? What do you remember most about those years?
Hamza: My peers were some of the most supportive and intellectually stimulating people I've ever met. There was never a dull conversation. Our curiosity constantly fed off one another's questions, and working on labs and projects together taught me what collaboration truly means.
And of course, there was our daily ritual: 5 pm Chai. No matter how intense things got, that break would remind us that we were all in it together.
One memory that really captures the spirit of those years was the night before our final SPROJ presentations. We stayed in the Communications Lab late into the night preparing together, running on Chai and coffee.
The stakes felt enormous, but the atmosphere was strangely calm - almost celebratory. It felt like the culmination of four years of shared effort and curiosity.
There were also some... less controlled experiments along the way. Let's just say we accidentally blew up a piece of high-power equipment in the lab once. I might tell that story again when everyone involved becomes a famous scientist.
Learning that consistency beats perfection
Madiha: Senior year often brings a different kind of pressure. What challenges did you face?
Hamza: Senior year felt different because the decisions suddenly felt very consequential.
Choosing a project direction, deciding on courses, applying to graduate schools - each decision felt like buying a one-way ticket to a particular future.
I struggled a bit with procrastination during that time. But eventually I realized something important: consistency beats perfection.
The habits that brought us this far - showing up, working steadily, staying curious - matter far more than trying to plan every possible outcome.
It's something I'm still learning.
From LUMS to Oxford - and beyond
Madiha: Your academic journey eventually led you to Oxford. How did that experience unfold?
Hamza: Getting onto the programme and receiving a scholarship was a blessing. Like most people applying to competitive programmes, I received a long list of rejections along the way. At the time, it felt discouraging - I even thought some of those institutions might have been better opportunities. But that's simply the reality of competitive applications.
Interestingly, I didn't have much time to prepare for the transition because my scholarship decision came quite late. I mostly relied on excitement and momentum to carry me through those first months. And honestly, excitement can be a rare resource in graduate school.
Building the brains of self-driving cars
Madiha: You're now working as a research engineer in Cambridge. What does your work involve?
Hamza:
I'm working at a startup where we're developing the "brains" behind self-driving cars.
The work constantly reminds me how extraordinary human cognition is. We take our perception and decision-making abilities for granted, but replicating even small parts of that in machines is incredibly difficult.
During my final interview for this job, one of the senior scientists - who also supervises PhD students at Oxford - asked me about my education at LUMS. He was genuinely surprised by the strength of the mathematical foundations I had developed.
That moment made me appreciate something even more clearly: the emphasis SSE places on fundamentals is incredibly valuable. Even without the most powerful computational resources, those foundations stay with you and continue to support you throughout your career.
Advice to SBASSE students
Madiha: Finally, what advice would you share with students currently at SBASSE?
Hamza: TEACH!
It's the best way to learn anything.
And whatever problem you're working on - academic or otherwise - learn to enjoy struggling with it. That process teaches you one of the most underrated skills a scientist or engineer can develop:
The ability to ask good questions.
And good questions open a lot of doors!
From late-night chai in the Communications Lab to developing the "brains" behind self-driving cars in Cambridge, Hamza…
Water insecurity is a critical, often overlooked underlying cause of regional instability. Pakistan is extremely water-stressed and, predictably, faces increasing instability. We propose a two-pronged approach to address water insecurity in Pakistan: accessing fresh water from subsurface fractures and adopting community-led, sustainable water management.
The Indus River Basin (IRB) is Pakistan’s primary water source. Groundwater is being overexploited from IRB aquifers to compensate for depleting surface water supplies. This has led to increased soil salinization and arsenic concentrations, thereby limiting food production and posing serious risks to public health.
The IRB is largely fed by mountain glaciers, which are rapidly melting due to climate change, as well as monsoonal rains that are becoming increasingly erratic and intense. At the same time, the mountains are actively rising, with much of this uplift accommodated by crustal fractures. We suggest that excess glacial melt and monsoonal rainfall may be stored within these fractures. However, fractured-rock reservoirs remain largely unexplored in Pakistan.
To ensure sustainability, we propose accessing fractured-rock aquifers alongside community-led traditional conservation techniques. These approaches are often more resilient to natural calamities while promoting regeneration and long-term preservation. This bottom-up strategy empowers communities to adapt through informed, local decision-making.
This hybrid approach is both holistic and scientifically grounded. It addresses climate-induced water redistribution through community engagement, offering a viable alternative to top-down, costly, and often over-engineered solutions.
Water insecurity is a critical, often overlooked underlying cause of regional instability. Pakistan is extremely water-stressed and, predictably, faces increasing instability.
دنیا بھر میں جدت کے معیار کو برقرار رکھنے کے لئے آئے روز ٹیکنالوجی کی دنیا میں ترقی کی نئی مثالیں قائم ہو رہی ہیں۔ بیشتر ممالک کی طرح ٹیکنالوجی کی اس تگ و دو میں ہم قدم رہنے کے لیے لمز یونیورسٹی کے الیکٹرکل انجینیرنگ ڈیپارٹمینٹ نے رواں سال ایم ایس ڈیجیٹل اینڈ ایمبڈڈ سسٹم پروگرام کی شروعات کیں۔ یہ پروگرام اپنے طرز کا پہلا اور اکیلا پروگرام ہے ۔ جس کا مقصد ٹیکنالوجی کے حصول کے لیے بہترین ممکنہ راہ فراہم کرنا ہے ۔ حالیہ دور میں ڈیجیٹل اینڈ ایمبڈڈ سسٹم کی افادیت و استعمال کو زیرِ غور رکھتے ہوئے اس پروگرام کو تشکیل دیا گیا ہے۔
فروری2023 میں شروع ہونے والا یہ دلچسپ پروگرام بنیادی طور پر دو مضامین پر مشتمل ہے جنھیں تکنیکی زبان میں ڈیجیٹل انٹیگریٹڈ سرکٹ(IC) اور ایمبڈڈ سسٹم کہا جاتا ہے۔ اس پروگرام کے ذریعہ طلبہ کو نہ صرف جدید و نفیس ہارڈویر ذرائع سے روشناس کرایا جائے گا جو ڈیجیٹل سسٹم کی ڈیزایئننگ کے لیے اہم ہیں بلکہ ساتھ ہی ساتھ اعلی درجے کی تربیت کے ذریعے طلبہ کو ایسے سافٹ ویئر ہنروں سے متعارف کرایاجائے گا جو ایمبڈڈ سسٹم کی بین الا قوامی سافٹ ویئر مارکیٹ میں نہایت قدرو قیمت کے حامل ہیں۔
اس کورس کی تشکیل کے وقت مقامی مارکیٹ میں پیدا ہونے والے مسائل اور ضروریات کو زیر غور رکھا گیا ہے۔ اس پروگرام کا حصہ بننے والے طلبہ کو بنیادی سے اعلی درجے تک کی سسٹم ڈیزائننگ کی مشق دی جائے گی۔ اس تعلیم کے ذریعے نہ صرف وہ ڈیجیٹل اینڈ ایمبڈڈ سسٹم کی مقامی بلکہ بین الا قوامی مارکیٹ میں بھی اہم پیشرفت کرنے کے قابل ہوں گے اور الیکٹرانک اور سیمی کنڈکٹر انڈسٹری میں بھی اپنا لوہا منوا سکیں گے۔
اس کورس کے بارے میں مزید جاننے کے لئے ہم نے ایم ایس ڈیجیٹل اینڈ ایمبڈڈ سسٹم کی اولین جماعت کا حصہ بننے والے ہنر مندطالبعلم محمد احد کا انٹرویو کیا۔ احد کا تعلق بورے والا شہر سے ہے اور انہوں نے اپنی بیچلرز کی ڈگری کمپیوٹر انجینیرنگ میں یو ای ٹی UET ٹیکسیلا سے حاصل کی۔ ڈگری حاصل کرنے کے بعد احد نے نہ صرف انڈسٹری بلکہ فری لانسنگ میں قسمت آزمائی اور 10x نامی انجینیرنگ کمپنی میں ٹریننگ حاصل کرنے کا موقع پایا۔
احد کا کہنا تھا کہ بچپن سے ہی ریموٹ کنٹرول کار چلانے سے زیادہ دلچسپی انہیں اس چیز میں تھی کہ یہ چلتی کیسے ہے۔ ان کا کہنا تھا کہ ان کے بچپن میں آنے والی موبائل اور کمپیوٹر جیسی ایجادات نے جہاں دنیا کو حیران کردیا وہیں انہیں اتنا متاثر کیا کہ انہوں نے اس کم عمری میں ہی سوچ لیا کہ انہیں اسی علم کو حاصل کرنا ہے۔ بڑے ہوتے ہوئے جب احد نے ٹیکنالوجی کو پوری دنیا پہ قابض ہوتے دیکھا تو ان کا یہ ارادہ مزید پختہ ہو گیا۔
10x انجینیرنگ میں ٹرینینگ کے دوران انہیں 10x انجینیرنگ کے LinkedIn پیج سےلمز کے ایم ایس ڈیجیٹل اینڈ ایمبڈڈ سسٹم پروگرام کا علم ہوا۔ وہ اس پروگرام کے بارے میں جانتے ہی سمجھ گئے کہ یہی وہ موقع ہے جسکی انہیں تلاش تھی اور انہوں نے بلا تاخیر اس کے لئے درخواست جمع کرائی جہاں ان کا انتخاب ہوا اور وہ ان چند خوش نصیب لوگوں میں شامل ہو سکے جنھیں اس پروگرام کے پہلے دستے کے طور پر چنا گیا۔
احد کا کہنا تھا کہ اس کورس میں کثیرالاہمیت تجرباتی تعلیم, پروجیکٹس اور لیکچرز کے ذریعے ان کی تکنیکی ہنر اور ذہنی قابلیت کو ترقی حاصل ہوئی. ان کا کہنا تھا کہ اس سے قبل (Field Programmable Gate) FGPA Array) جیسا آلہ انہیں دستیاب نہیں تھا۔ لیکن اس کورس میں انہیں اس جدید آلے کی رسائی حاصل ہوئی ۔اس کے ذریعے آپ فیلڈ پر موجود اپنے خیالات کو عملی تشکیل دے سکتے ہیں ۔ایمبڈڈ سسٹم کی فیلڈ میں کام کرنے والوں کے لئے یہ بہترین مو قع فراہم کرتا ہے۔
احد کا مزید کہنا تھا کہ چار ماہ کے مختصر عرصے میں جدید طرز کی تجربہ گاہوں، آلات ،ورکشاپس اورصنعتی دوروں کی صورت میں ملنے والی تعلیم نے انہیں ابھی سے اس قابل بنا دیا ہے کہ وہ ایک اساسی درجے کی ایپ تیار کر سکیں۔ پراسیسر اور کنٹرولر کی کوڈنگ اور ڈیزائیننگ بھی اب ان کے لیے مشکل کام نہیں۔ مختصراً اس کورس کے مواد سے ان کی سوچنے سمجھنے کی صلاحیتوں اور تکنیکی قابلیت کو بے حد فروغ ملا ہے۔
جاتے جاتے احد کا کہنا تھا کہ یہ پروگرام ہر لحاظ سے ان کی امیدوں سے بڑھ کر ثابت ہوا اور وہ ڈیجیٹل اینڈ ایمبڈڈ سسٹم کے شعبے سے منسلک ہر شخص کو یہ تجویز دیں گے کہ اس کورس کا حصہ بنیں۔ انھوں نے مزید کہا کہ اس کورس کے ذریعے انہیں سیکھنے کے ایسے مواقع فراہم ہوئے ہیں جس سے وہ اپنے سیلیکون ویلی میں کام کرنے کے خواب کو عملی جامہ پہنا سکیں گے اور اس کے لیے وہ لمز کے تہہ دل سے شکر گزار ہیں۔
دنیا بھر میں جدت کے معیار کو برقرار رکھنے کے لئے آئے روز ٹیکنالوجی کی دنیا میں ترقی کی نئی مثالیں قائم ہو رہی…
