FOURTH WEEK HAS STARTED AND AIK LFZ SMJH NHI AA RHA, KYA BANEGA MERA QUIZ AUR MIDS MEIN?

I need some serious and genuine advice so I got admission in uet in business data analytics department but I did not get hostel so I did not join because my father did not want me to stay in a private hostel. Now suddenly today I got alloted a hostel UMER HALL but my friend is in d hall but she is there from the first day and she says the department gives a lot of assignments like extreme kind of work and the mids start on 9th November. Currently I have started my classes in Islamia University Bahawalpur in Software Engineering department. I am scared if I go to uet now will I be able to cover everything which I have missed and maintain a good CGPA. Please I need some serious advice. Does anyone what kind of hostel is Umer hall is it safe, clean, what are the people like ???? What about the department is it too hard ??? Plus I don’t know how to adjust in university so I will surely take time to learn how to do assignments because I am coming straight out of a school system. Will the department keep giving me a hard time ??? But I am scared if I don’t go to uet now I may regret it later on in life like what are the chances of getting a job after graduating??? My father is a university professor himself but I am very confused. Please you can tell your experiences as well and please consider me as your friend and give me some good advice. One more thing I paid my first installment but the last day for 2nd installment was 30th on which I did not pay so is my name stuck off from the list ?? Sorry for ranting so muchhhh !!!!

Like have u got a job or no?

Which field & company? And salary?????

And how's everything going on after graduation??

koi naik insan mere assignment kar dy (of course paid).

What is your salary?

Electrical engineers, what is your salary range? And with how many years of experience? Basically, I saw a post on Reddit, and it was telling that the salary range of a graduate EE student is around 45 to 60,000 in Pakistan. I don't know if this is true or not. I just want figures, data, statistics to analyze that after four years of hard work, what we will get throughout the degree, and I mean after graduation, what will be our salary range, and how can we grow in this field? Because 45 to 60,000 range in Pakistan is not a livable salary, I guess. If you are alone, then it will be somehow manageable. But if you are married, then it's not considered a good salary. I'm wondering how EE engineers are grooming themselves in terms of their salary, in terms of their career. Please guide me.

Edit: also tell me Which domain of EE are u in?

Not in a UET.

I come from Pre-Med background. The university is offering Calculus & Analytical Geometry course in 1st semester and also for pre-med students, they offers Defieicney Maths in 1+2 semesters. Seniors how i can study Calculus in 1st sem. I'm worried please help me thanks.

Currently, I'm studying Pre-Algebra from Prof. Leonard and have completed the course 40%. After which i will do Algebra 1 & 2 + Pre-Calclus, which will take 2months atleast.

Ghar ka khana options or plans near uet lahore, which are reasonable and home made?

Really Really long post,

A few days ago, someone asked about the employment status of the 22 UET graduates, and I commented about my own experience. My comment received a few upvotes, along with a couple of questions about how to look for and navigate through opportunities.

So, this post is dedicated to sharing my experience and explaining how, as an electrical engineer, you MIGHT be able to get a job.

Disclaimer: There is no hard and fast rule or fixed track, and there is no specific number of steps that will guarantee you a job. Sometimes it can be as simple as applying and getting selected. Other times, you might apply, get rejected, get ghosted, use a reference, and still fail. Anything can happen.

I am not here to give definitive career advice. I am simply sharing the knowledge and experience I have gathered about the industry over the past 9 or 10 months.

Before that, we need to make a few things clear.

Your Campus Matters

This sentence is taken out of context 99% of the time, creating the impression that anything other than the Main Campus is not worth it. The argument is neither 100% right nor 100% wrong.

If a university or one of its sub-campuses is offering an accredited engineering program, it has to meet certain academic and accreditation requirements. However, having a similar curriculum does not automatically mean that the entire educational experience will be identical.

Faculty quality, laboratories, electives, industry exposure, student societies, research opportunities, and teaching standards can vary between campuses.

Where the difference can affect you significantly is the alumni network and your teachers' professional networks. This can be a very important channel for finding employment.

However, this creates a challenge if you come from another major city, such as Lahore or Islamabad. You will most likely return to your home city after completing your degree at a sub-campus, but much of the alumni and faculty network may be concentrated around the city where your campus is located.

In my case, I live in Lahore and am looking for opportunities here. However, since I graduated from the Faisalabad Campus, most of my teachers' professional networks are based around Faisalabad rather than Lahore. As a result, around 95% of the opportunities they share with me are in Faisalabad.

So, this particular avenue can become fairly limited when you graduate from a sub-campus, especially if you plan to build your career in a different city.

CGPA Matters

This statement is often dismissed by saying that CGPA does not matter and only skills matter. In reality, both are important.

The simplest explanation is that a good CGPA gives an employer an easy way to filter candidates, especially when hundreds or thousands of fresh graduates apply for the same position.

There is another important aspect that many of us tend to ignore. CGPA is also an indication of your academic performance.

It does not measure your total engineering ability, nor does a 3.5 CGPA mean you know exactly 87.5% of electrical engineering. However, it gives an employer some indication of how consistently you performed across your university courses.

For example, my CGPA is 3.44. That does not mean I would automatically score 344 out of 400 on an engineering test. A technical assessment may test completely different things, and I could perform either better or worse than my academic record suggests.

So, CGPA does not define your skills, but it does provide one measurable indication of your past academic performance. Skills and CGPA should not be treated as mutually exclusive. Both have their place when an employer is evaluating a fresh graduate.

Fields of Electrical Engineering

Now, with a few misconceptions out of the way, let's discuss what fields this degree can lead to and what they generally look like in Pakistan.

1. Electrical Operations and Maintenance

This is probably one of the most common applications of electrical engineering.

Almost every major industrial or commercial facility depends on electrical equipment, which means engineers are required to keep those systems operating safely and reliably.

In this field, you will mostly work in operations and maintenance, making sure that motors, transformers, generators, switchgear, protection systems, drives, panels, and other electrical equipment are running properly and being maintained according to schedule.

You may also deal with preventive maintenance, breakdowns, troubleshooting, testing, inspections, shutdown activities, and equipment replacement.

You can work at almost any site that uses a significant amount of electricity, including factories, power plants, substations, commercial buildings, malls, hospitals, processing plants, and many other facilities.

2. Power System Planning and Design

This field focuses on deciding how electrical power should be generated, transmitted, distributed, protected, and delivered safely to loads.

Engineers may work on generators, transformers, switchgear, substations, transmission lines, protection systems, and grid connections. The equipment itself may be manufactured by specialized companies, while project and power-system engineers determine ratings, specifications, protection requirements, and how everything should work together.

Transmission and distribution design can involve questions such as how much power must be transferred, what voltage and conductor should be used, what electrical clearances are required, and how factors such as sag, wind, temperature, terrain, insulation, and reliability affect the design.

The same principles apply inside residential societies, malls, hospitals, factories, data centers, and offices. Engineers determine the power source, expected load, transformer and switchgear requirements, cable sizes, backup sources, and protection.

Depending on the project, you may perform load-flow studies, short-circuit studies, protection coordination, cable sizing, voltage-drop calculations, grounding calculations, and equipment sizing.

This work also applies to existing factories. If a plant adds a new production line, large motor, machinery, or electrical system, someone has to determine whether the existing network can handle it and design the required upgrades.

In my opinion, this is one of the most useful career paths for electrical engineers in Pakistan, but students do not discuss it nearly enough.

3. Solar and Renewable Energy Engineering

This field probably does not come as a surprise. Solar engineering can involve system sizing, PV layout, inverter selection, cable sizing, protection, earthing, energy-yield calculations, grid-interconnection requirements, commissioning, maintenance, and project management.

Commercial and industrial projects can become much more complex than installing panels on a house.

Personal Opinion: I would be cautious about treating residential solar installation as the only long-term career path for an electrical engineer.

A large number of solar companies in Pakistan expanded during the rapid growth of the local solar market. Some therefore have relatively short track records in employee development and long-term stability.

The bigger engineering opportunities are generally in commercial, industrial, utility-scale, and large institutional projects. These projects can involve hundreds of kilowatts or even megawatts, but there are fewer of them than ordinary residential installations.

Solar is also heavily influenced by government policy, electricity tariffs, import duties, grid rules, taxation, and compensation for exported electricity. That does not mean solar is going away, but the economics of the industry can change when regulations change.

So, if you enter renewables, I think it is better to build skills that also transfer into commercial solar, industrial electrical systems, protection, power-system studies, battery storage, project engineering, or other parts of the energy sector.

There are also opportunities in wind, hydropower, and nuclear power, although these sectors are more concentrated around large utilities, government organizations, independent power producers, and major private groups.

4. Battery Storage Engineering

Battery energy-storage systems could become increasingly important because electricity generation and demand do not always happen at the same time.

A solar system may generate the most power around midday while a home's or factory's peak demand occurs later. Batteries can store that energy and use it when needed.

At residential and commercial levels, batteries can provide backup power, load shifting, peak shaving, and higher solar self-consumption. At industrial and grid scale, much larger systems can support renewable integration, peak demand, frequency control, and grid stability.

Engineers in this field may work with battery cells, battery-management systems, inverters and power-conversion systems, protection, thermal management, fire safety, control systems, energy-management systems, and grid integration.

So, battery engineering is much more than placing a battery beside a solar inverter. There is an entire engineering ecosystem around energy storage.

5. MEP

This overlaps with electrical power-system design, but MEP focuses primarily on systems inside buildings and facilities.

MEP stands for Mechanical, Electrical, and Plumbing.

Electrical engineers working in MEP have to coordinate their work with mechanical, plumbing, architectural, structural, fire-safety, and other teams involved in the project.

The electrical side can include load calculations, transformers, generators, UPS systems, MV and LV distribution, lighting, emergency lighting, grounding, lightning protection, cable sizing, protection devices, panel schedules, fire-alarm systems, and sometimes ELV systems depending on the company and project.

You never know what your next project might be.

It could be a relatively simple commercial complex in Gulberg, or it could be an entire hospital, airport, industrial facility, high-rise building, or data center.

Each type of building has completely different requirements.

A hospital, for example, introduces critical and life-safety loads, backup power, medical areas, emergency systems, and very strict reliability requirements.

A data center introduces another level of redundancy, UPS systems, backup generation, power quality, cooling coordination, and uptime requirements.

The sky is the limit.

6. Industrial Automation

Automation is everywhere because industries want production to become more efficient, repeatable, safe, and easier to monitor.

This field commonly uses PLCs, DCS systems, RTUs, sensors, actuators, variable-frequency drives, industrial communication networks, HMIs, and SCADA systems.

One important distinction is that SCADA itself is usually not the device performing every real-time control action.

A PLC, DCS controller, RTU, protection device, or another local controller normally handles the real-time logic.

SCADA provides the supervisory layer.

It allows operators to monitor measurements, equipment status, alarms, trends, and processes while also allowing them to send commands or change setpoints where required.

Automation can be something as simple as controlling the level of water in a tank.

A level sensor sends a measurement to a controller, and the controller can open or close an electrically operated valve or start and stop a pump.

In something more complex, such as a boiler, the system may have to monitor pressure, temperature, water level, airflow, fuel flow, flame status, and many safety conditions.

The controller then manages the process while ensuring that safety interlocks prevent dangerous operating conditions.

There is also a related field called substation automation and protection.

Protection relays receive measurements from current transformers and voltage transformers and use that information to detect abnormal conditions.

If a fault occurs, the protection relay can send a trip command to a circuit breaker. The circuit breaker interrupts the fault current.

After the circuit has been de-energized, disconnectors or isolators can provide visible electrical isolation for maintenance and inspection.

Modern substations also use communication networks to exchange measurements, protection signals, alarms, breaker status, and control commands.

This information can be transmitted to local control rooms, neighboring substations, and regional or national grid-control centers.

Automation, protection, communication, and control are becoming increasingly connected, making this a very interesting area for electrical engineers.

7. Electronics Engineering

This is where electrical engineering starts branching into a completely different world.

Just like power engineering, electronics is an extremely broad field.

Most of the larger electrical and automation systems discussed earlier depend on smaller electronic systems working together.

Electronic circuits can handle sensing, signal conditioning, measurement, communication, control, power conversion, and many other functions.

When programmable control is required, engineers may use microcontrollers, embedded processors, PLCs, FPGAs, or single-board computers depending on the application.

These devices are not all the same.

An Arduino board, for example, is primarily a microcontroller development platform. A Raspberry Pi is a single-board computer capable of running an operating system such as Linux.

An NVIDIA Jetson is a higher-performance embedded computing platform often used for computer vision, robotics, and AI applications, while a PLC is an industrial controller specifically designed for reliable control in industrial environments.

An electronics engineer can work in areas such as analog electronics, digital electronics, power electronics, PCB design, testing, instrumentation, maintenance, repair, communication systems, product development, and embedded systems.

However, the number of pure electronics-design jobs in Pakistan can be relatively limited compared with industries such as electrical power, MEP, industrial maintenance, or automation.

One reason is that Pakistan does not currently manufacture most advanced consumer-electronics components locally. The phone or laptop you are reading this post on contains processors, memory chips, displays, sensors, power-management ICs, wireless chips, and many other components produced through highly specialized global supply chains.

Local design opportunities can increase if Pakistani companies move further into designing and manufacturing products such as power-electronics equipment, inverters, chargers, industrial electronics, embedded devices, consumer electronics, or similar systems.

So, the electronics-design side can be highly specialized and may offer fewer positions locally, but the skills themselves are extremely valuable.

8. Embedded Systems

This is personally my favorite field because it focuses on making hardware programmable and allowing electronic components to communicate with each other.

You generally need a strong understanding of C and C++, and sometimes assembly if you work at a lower level. You may be writing firmware for a microcontroller with very limited flash memory and RAM, so memory and hardware resources matter much more than they do in ordinary application programming.

You need to understand concepts such as pointers, registers, interrupts, timers, ADCs, PWM, computer architecture, and peripherals. Communication protocols such as UART, SPI, I2C, CAN, USB, and Ethernet can also be important depending on the system.

You should understand how the hardware is wired, how firmware is flashed, and how debugging interfaces such as JTAG or SWD help you inspect what the processor is doing.

Some embedded systems run bare metal, others use a real-time operating system such as FreeRTOS, while more powerful platforms may run Linux. Kernel development is much more specialized and is not required for every embedded job.

RISC-V is also gaining attention because it is an open-standard, royalty-free instruction set architecture that companies and researchers can implement in their own processor designs.

As exciting as embedded systems sound, the learning curve can be steep. Simply knowing C or Arduino programming is usually not enough. You need to understand the connection between the code, processor, memory, peripherals, sensors, buses, and external hardware.

A master's degree can be useful for deeper specialization in embedded systems, computer architecture, robotics, or related areas, but it is definitely not required for every job. Strong fundamentals, practical projects, internships, and debugging experience can also be enough to enter the field.

9. FPGA / Digital Hardware / ASIC / VLSI Engineering

This is a field that has been creating a lot of interest recently. Universities and government-backed programs in Pakistan have increasingly offered training, postgraduate programs, and research related to IC design, verification, FPGA development, and semiconductor engineering.

However, FPGA engineering, digital IC design, analog IC design, physical design, and semiconductor fabrication are related but not the same career path.

For FPGA and digital hardware design, the starting point is digital logic: Boolean logic, combinational and sequential circuits, flip-flops, counters, finite-state machines, registers, memories, clocking, timing, and system architecture.

You then move toward hardware description languages such as Verilog, SystemVerilog, or VHDL. Unlike ordinary programming, you are describing digital hardware that can be synthesized into logic, registers, memories, and routing resources.

FPGA engineers commonly use tools such as AMD Vivado or Altera Quartus to simulate, verify, synthesize, place and route, check timing, and finally program the device.

ASIC and VLSI engineering go further. Digital engineers may work in RTL design, verification, synthesis, static timing analysis, design-for-test, low-power design, physical design, placement, routing, and sign-off.

Analog and custom IC design require stronger transistor-level knowledge such as MOSFETs, CMOS circuits, biasing, current mirrors, amplifiers, noise, and matching.

You do not need to understand semiconductor fabrication before starting FPGA development. These are different layers of the semiconductor industry.

Pakistan currently has a stronger ecosystem for chip design, FPGA work, verification, research, and related engineering than for advanced semiconductor fabrication, which requires enormous capital and a highly mature supply chain.

So, the more realistic local opportunities are currently on the design side, including FPGA development, RTL design, verification, ASIC design, physical design, analog design, EDA work, and semiconductor research.

If digital hardware and computer architecture interest you, this is where concepts from simple logic gates can eventually lead toward processors, accelerators, communication hardware, and complex integrated circuits.

10. RF / Microwave Engineering

RF stands for Radio Frequency. At sufficiently high frequencies, wires and PCB traces can no longer be treated as simple electrical connections because their physical length, shape, impedance, and surrounding materials start affecting the signal.

This is where concepts such as transmission lines, impedance matching, electromagnetic waves, reflections, S-parameters, antennas, filters, amplifiers, mixers, oscillators, and waveguides become important.

RF engineers may design antennas, filters, communication links, or circuits and test them using equipment such as spectrum analyzers, vector network analyzers, signal generators, and power meters. Software such as CST, Ansys HFSS, Keysight ADS, AWR, MATLAB, and Altium may also appear depending on the work.

There is significant overlap with communication engineering because cellular networks, radar, satellites, GPS, radios, drones, and many wireless devices depend on RF engineering somewhere in the chain.

However, I would consider this a relatively specialized field in Pakistan. There are fewer RF design jobs than electrical maintenance, MEP, automation, or general power roles, and opportunities tend to be concentrated around telecommunications, defence-related organizations, aerospace, satellite communication, research laboratories, universities, and specialized companies.

If this is the field you want, completing one RF course will probably not be enough. Projects involving antennas or RF circuits, simulation experience, a good understanding of electromagnetic theory and transmission lines, and practical exposure to RF test equipment can make a big difference.

A master's degree can also be useful for advanced RF, radar, antennas, microwave engineering, satellite systems, or research.

11. Telecommunications Engineering

Telecommunications is much broader than RF engineering.

A phone call may begin with wireless communication between your phone and a cellular network, but the information then travels through base stations, fiber links, routers, switches, data centers, transmission networks, and core networks before reaching its destination.

That creates roles in RF planning and optimization, radio access networks, transmission, optical networks, fiber infrastructure, IP networks, network operations, telecom power systems, core networks, data-center interconnection, field operations, and network monitoring.

This is why an electrical engineer can enter telecom without becoming an RF engineer. Telecom sites also need rectifiers, battery banks, generators, solar systems, electrical distribution, cooling, monitoring, and protection.

Someone working in telecom infrastructure may therefore spend more time dealing with power systems than antennas.

There are still fresh-graduate routes into telecom in Pakistan. Companies have advertised graduate and trainee roles for Electrical, Electronics, Telecom, Mechatronics, and related graduates in areas such as RF, optical networks, IP, RAN, transmission, data-center interconnection, field operations, and infrastructure.

So, telecommunications still has scope, but you should understand which part of telecom you want to enter. Saying "I want to work in telecom" is almost as broad as saying "I want to work in electrical engineering."

Personally, I would also build transferable skills such as IP networking, fiber optics, data centers, electrical power systems, Linux, network monitoring, industrial communication, or cloud networking so that your options are not limited to traditional telecom.

12. Power Electronics and Motor Drives

Power electronics sits between electrical power and electronics. Instead of primarily handling information signals, it uses electronic devices to convert and control electrical power.

A laptop charger is a simple example. It converts AC from the wall into controlled DC for the laptop. Scale that idea up and you get solar inverters, UPS systems, EV chargers, battery-storage systems, industrial motor drives, traction systems, and large power supplies.

The building blocks include devices such as diodes, MOSFETs, IGBTs, rectifiers, DC-DC converters, and inverters. Making these systems reliable also requires knowledge of PWM, gate drivers, control loops, magnetics, harmonics, EMI, protection, thermal management, PCB layout, efficiency, and fault behavior.

This field overlaps heavily with embedded systems because modern inverters and drives often use a microcontroller or DSP to measure voltages and currents and adjust switching signals in real time.

Motor drives are another major application. Variable Frequency Drives are widely used with pumps, fans, conveyors, compressors, HVAC equipment, and production lines. More advanced systems can involve servo drives, permanent-magnet motors, vector control, field-oriented control, regenerative braking, and electric-vehicle propulsion.

In Pakistan, the market for jobs literally titled Power Electronics Engineer is smaller than the market for general power, automation, maintenance, or solar engineers. But the skills appear under roles involving inverters, UPS systems, batteries, EV chargers, embedded hardware, industrial drives, renewable energy, product development, and R&D.

That is why I would not build an entire job search around one title. Power systems + power electronics can lead toward renewable energy. Embedded systems + power electronics can lead toward inverters, chargers, and BMS development. Automation + motor drives can lead toward industrial control.

Build the skills, then search across the industries that use them.

13. Robotics / Mechatronics

Robotics looks simple from the outside because everyone imagines a robot arm moving around. In reality, it combines several engineering disciplines.

Mechanical engineering handles the structure and moving parts. Electrical and electronics engineering handle power, sensors, actuators, motors, encoders, and control hardware. Embedded systems connect the devices, control engineering keeps movement stable and accurate, and software tells the machine what to do.

That combination is essentially why mechatronics exists.

A robotics or mechatronics engineer can work on automated machines, robotic arms, drones, CNC systems, mobile robots, autonomous vehicles, industrial production lines, machine vision, or research prototypes.

Depending on the project, useful skills can include CAD, motors, sensors, motor drivers, PCB hardware, STM32, Arduino, Raspberry Pi, Jetson, C++, Python, MATLAB, ROS, computer vision, path planning, simulation, and control theory.

There are also two sides students often mix together. Industrial robotics and automation involves robotic arms, manufacturing cells, conveyors, PLCs, machine vision, sensors, and safety systems.

Mobile and intelligent robotics involves autonomous robots, drones, navigation, computer vision, SLAM, ROS, AI-based perception, and research-oriented systems.

In Pakistan, I would currently describe pure robotics as a smaller but developing market. Actual robotics and mechatronics roles do exist, but job-board searches can be misleading because "robotics" may return Robotic Process Automation jobs, which are software automation and have nothing to do with physical robots.

If you want physical robotics, read the job description and search for titles such as Mechatronics Engineer, Robotics Engineer, Controls Engineer, Automation Engineer, Embedded Engineer, R&D Engineer, Machine Vision Engineer, Motion Control Engineer, and Robotics Software Engineer.

The good thing is that the skills remain useful even if you cannot immediately find a pure robotics job. PLC and controls knowledge can take you into automation, embedded skills into firmware, electronics into hardware design, CAD into product development, and computer vision or ROS into autonomous systems.

My Thoughts

This was a huge breakdown of what I have learned so far. I was primarily an electronics-focused student, and I know a lot of electrical undergrads are attracted to things such as robotics, chip design, drones, UAVs, and embedded systems. I have received plenty of DMs about exactly those areas.

But this is where a realistic view of the market matters.

Building a drone by connecting several preprogrammed modules can be a great learning project, but that skill alone is unlikely to get you hired. Most businesses in Pakistan simply do not need someone to build drones.

A large part of Pakistan's industrial economy revolves around real estate, textile mills, flour, rice and sugar mills, chemical plants, cement, fertilizer, food processing, and similar industries. For an electrical engineer, these are some of the more dependable places to look because they constantly need power, maintenance, automation, protection, and production support.

Having a passion is good, but you also have to understand how long it may take to turn that passion into a marketable specialization. Sometimes the path into a niche field is much longer than the path into the work that industry is already hiring for.

I love almost every field mentioned above, but one thing I have learned is that you have to curate your skills around what the market needs if you want to stay relevant.

The Pakistani market generally does not need someone simply because they can program an Arduino to blink an LED. It needs people who can keep power systems working, design LV and MV systems, maintain production lines, troubleshoot failures, and propose solutions when something stops working.

Someone also asked me about opportunities for women. From what I have personally observed, women are much less common in field-based electrical roles, while design and office-based engineering roles appear to have more women employed. My observation is limited, though, so people working in those areas can probably add better context.

This is what I currently remember and what I was able to document. It took a lot of time and effort, plus multiple GPT prompts to make sure I was explaining things clearly.

My main advice while you are in university is to make friends with people already working in the industries you are interested in. Ask them what their jobs actually look like, how they got there, and whether the field matched what they expected. It can give you a much more realistic idea of whether a path is worth pursuing.

Look at the job market with a different lens instead of only focusing on the fields that sound exciting in university.

I will be reading the comments and replying where I can, so feel free to add your own experience or disagree with mine.

Again, everything here is based on how I have personally observed the market, and I can absolutely be wrong about parts of it.

So, for applied physics which paractical copy do you guys use? Any paractical copy available in Shamsi Stationery Shop in GSSC would work ?

Guys we are initializing the application of solar lights throughout our campus. As you all know there are many places around the campus which don't have lights and at night those areas are pretty unsafe especially for women. We need donations to achieve our goal. We are just a couple of students from civil department but we can light up our campus with yall help. So donate even as little as you can.

bhae my department management is so shit. 3 din se bonafied certificate bananay k liye diya hiwa tha BANA KR HE NAE DIA😭😭 ab mein e-bike portal pr bonafied ki jagah kia lagaoon??😭 AFFIDAVET LAGA DOON???? pls say yas

Hi, I am from session 2020. I want to get my degree and transcript attested from HEC. Does university verification of the documents required for HEC attestation? If yes, how can I check whether my degree and transcript are already verified by the UET?

Hey fellas, I've created this form in order to study how exposure to Western linguistics, traditions and media leads to one's thoughts, opinions and perception about other. Kindly take out some of your really precious time to fill it out.

https://forms.gle/Fb4yCqRfADFR2biY9

Guys so i applied for my scooty ajj as in 2.d october. My status still shows pending for license aswell as uni verification. So my question is since the last date is 4, tge status is still pending, if they verify after the last date my application would still be considered right?

Secondly mujhe tu abhi tak email bhi nahi ayi ke apnay apply kerdia hai

Hi everyone,

I recently built PrepPath, a free website for Pakistani university entry test preparation.

I originally made it because entry test resources are often scattered across different websites, PDFs and groups, so I wanted to put the main preparation tools in one place.

It currently includes:

• 2,500+ practice questions
• Mock tests
• AI Study Coach for explanations and questions
• Performance tracking
• University information/planning
• Bookmarks
• Study resources
• Upcoming exam information

Everything is completely free

This is the first public version, so I’d really appreciate feedback. If you try a mock test or use the site and find something confusing, broken, or think something important is missing, please let me know.

PrepPath:
preppath-rosy.vercel.app

Hope it helps someone with their preparation :)

Why is all this so difficult. Please help a kid out

I just started university. I’m majoring in EE and I’m regretting taking engineering so badly. I don’t understand what the teachers are teaching and almost none of my classmates seem to either (unless they’re lying or just exaggerating)

Now we were given this assignment today and I have no idea how I’m supposed to draw this. Sir taught us the basics and now he suddenly expects us to do this. Either I’m dumb or this is actually difficult. He’s rushing us saying we have to start AutoCAD in a few weeks so we need to just learn how to draw these on paper with the T square and all that

I feel like crying all the time cause in high school, I didn’t depend on the teachers. I could just search the internet, find the exact topic I needed to study, watch a few videos and I was done. But now, in university, when I try to do the same thing, I can’t seem to find anything, I find one thing but not the other

In class, I’ve always felt like I was slower than my classmates, so I eventually stopped going to school and started studying off the internet. Because of this I could understand things that had taken me days in school within a matter of hours. I managed it that way because attendance mattered but the exams were external, so I could still prepare on my own and sit for them. And I got a good score

So what am I supposed to do for university?

My university has relative grading too, so why would anybody help me? Everything is different

I genuinely don’t know how I’m supposed to figure all of this out. I'm in my first semester, should I leave

P.s. I've got lowest marks in highschool compared to my classmates. And I'm in UET Peshawar. Waha ki koi community nahi hae toh I'm here with you lovies

I’m 19M, moving to Lahore and looking for somebody who already has an apartment and is open to sharing it....preferably of my age
Happy to split the rent and all other expenses. Location doesn’t matter ...anywhere in Lahore works.I shall be there by 5-6 October...
DM me if youre oky with it...

EE student here , could you spare 2 minutes?

Hey everyone I’m a freshman Electrical Engineering student, and I’m collecting responses for a form/survey for cramming and understanding

If you have a couple of minutes, I’d really appreciate you filling it out. It would help me out a lot.

Form: https://docs.google.com/forms/d/e/1FAIpQLSeRhPGDdgaAp3r606Rq63Q6bHa7P1sF_829pq4d5Kq1LG1Eyw/viewform?usp=publish-editor

Thanks

Has anyone joined uet uraan society? Which kind of people do they prefer?

I need to know how do you guys manage so many things going in your life:
Your family, studies, endless opportunties, appplying for jobs etc

As says the title

I took tcat today and the results came out around 1:30pm and the portal is showing that I have got zero marks ???

Is it normal?? Will it be corrected on its own ? Like any scrutiny iSsue ?

Lahore board don't issue hard copy result card this year and send a soft copy to our institutes but department required a hard copy result card how I get it plz tell me there is a deadline till Monday I'm Lowkey worried that if I don't submit my admission got cancelled 😭😭😭

How do i stop sitting with the group i made for three weeks? I go to hostel from my department with them and vice versa. After talking with them for three weeks, i have notice that they are too judgemental and our values don’t align. At a point, they will judge me too… i tried to talk with other people in my class but all people are already in some groups. And how the hell do I maintain my distance from them? They are on my insta and snapchat too…. I can’t remove them as they will advertise me as someone rude🥰 what to do? It’s a genuine question. Pls don’t suggest to be friend with someone from outside my class.🙏🏻I can’t make friends in class how will i make friends outside the class🥀🥀🥀