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$12 USD / hora
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jaranwala, pakistan
$12 USD / hora
Atualmente, está 3:04 AM aqui
Ingressou em fevereiro 24, 2023
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Raheel A.

@ProElectro128

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$12 USD / hora
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jaranwala, pakistan
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Advanced PCB Designer| PLCLadderLogic| EmbeddedSys

I am an Electrical Engineer with more than two years of experience providing engineering services for clientele in the United States, Canada, Australia, and Europe. I am a highly-rated freelancer with extensive knowledge of advanced PCB Design PLC Ladder logic and other electronics design tools. The skill set that I have enables me to provide a wide range of high-quality and technologically advanced services to you. In particular, I hold expertise in the following domains of electrical and electronics engineering services: ☑ Electronics Circuit Designing ☑ LTSPICE, TinaTI, Circuit Wizard, Proteus, OrCAD PSpice Simulations ☑ NI_MULTISIM & Ultiboard PCB Design ☑ PCB Designing ☑ Altium Designer23, Altium Nexus ☑ KiCAD, EasyEDA, Autodesk Eagle ☑ DipTrace ☑ PLC & SCADA ☑ Delta PLC (WPLSoft) ☑ Omron PLC (CX-one Software) ☑ Siemens PLC's ( SIMATIC STEP 7 (TIA Portal)) ☑ Mitsubishi PLC (GXWorks 2) ☑ Technical Report ☑ MATLAB and Simulink My work has always been praised for its intelligence, technical accuracy, and excellent appearance and feel. Looking forward to hearing from you. Cheers :)
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Contate Raheel A. sobre seu trabalho

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Portfólio

11565081
In this project, I made a simple PCB design for testing purposes in the Laboratory...
Sinle Layered PCB Design using EasyEDA Software
In this project, I made a simple PCB design for testing purposes in the Laboratory...
Sinle Layered PCB Design using EasyEDA Software
In this project, I made a simple PCB design for testing purposes in the Laboratory...
Sinle Layered PCB Design using EasyEDA Software
11553742
A Line Impedance Stabilization Network (LISN) is a specialized device employed in electromagnetic compatibility (EMC) testing to assess and control the conducted electromagnetic interference (EMI) generated by electronic devices. Constructed with precise impedance characteristics, a LISN serves as an interface between the Equipment under Test (EUT), the power source, and the measuring instrument.
PCB Design of Line Impedance Stabilization Network
A Line Impedance Stabilization Network (LISN) is a specialized device employed in electromagnetic compatibility (EMC) testing to assess and control the conducted electromagnetic interference (EMI) generated by electronic devices. Constructed with precise impedance characteristics, a LISN serves as an interface between the Equipment under Test (EUT), the power source, and the measuring instrument.
PCB Design of Line Impedance Stabilization Network
A Line Impedance Stabilization Network (LISN) is a specialized device employed in electromagnetic compatibility (EMC) testing to assess and control the conducted electromagnetic interference (EMI) generated by electronic devices. Constructed with precise impedance characteristics, a LISN serves as an interface between the Equipment under Test (EUT), the power source, and the measuring instrument.
PCB Design of Line Impedance Stabilization Network
A Line Impedance Stabilization Network (LISN) is a specialized device employed in electromagnetic compatibility (EMC) testing to assess and control the conducted electromagnetic interference (EMI) generated by electronic devices. Constructed with precise impedance characteristics, a LISN serves as an interface between the Equipment under Test (EUT), the power source, and the measuring instrument.
PCB Design of Line Impedance Stabilization Network
11549804
I used to work on a four-layered PCB design using Diptrace, which is a very amazing program that is also easier to use than Altium Designer. My PCB design features footprints for SMD components: 0402 0805 1210 2.5mm Pitch pins Solder Pads SOT23-5 SC70-5, SMT - 40 pin, 6-UDFN, 8-HWSON (2x3)
Four Layered PCB Design by using DipTrace
I used to work on a four-layered PCB design using Diptrace, which is a very amazing program that is also easier to use than Altium Designer. My PCB design features footprints for SMD components: 0402 0805 1210 2.5mm Pitch pins Solder Pads SOT23-5 SC70-5, SMT - 40 pin, 6-UDFN, 8-HWSON (2x3)
Four Layered PCB Design by using DipTrace
I used to work on a four-layered PCB design using Diptrace, which is a very amazing program that is also easier to use than Altium Designer. My PCB design features footprints for SMD components: 0402 0805 1210 2.5mm Pitch pins Solder Pads SOT23-5 SC70-5, SMT - 40 pin, 6-UDFN, 8-HWSON (2x3)
Four Layered PCB Design by using DipTrace
I used to work on a four-layered PCB design using Diptrace, which is a very amazing program that is also easier to use than Altium Designer. My PCB design features footprints for SMD components: 0402 0805 1210 2.5mm Pitch pins Solder Pads SOT23-5 SC70-5, SMT - 40 pin, 6-UDFN, 8-HWSON (2x3)
Four Layered PCB Design by using DipTrace
I used to work on a four-layered PCB design using Diptrace, which is a very amazing program that is also easier to use than Altium Designer. My PCB design features footprints for SMD components: 0402 0805 1210 2.5mm Pitch pins Solder Pads SOT23-5 SC70-5, SMT - 40 pin, 6-UDFN, 8-HWSON (2x3)
Four Layered PCB Design by using DipTrace
11497164
Designing a one-channel EEG acquisition circuit involves creating a system that can capture and process the electrical signals from the brain using a single electrode. Here's a simplified explanation of the circuit design. Electrode: Use a conductive electrode to pick up the electrical signals from the scalp. Ensure good skin contact to minimize noise. Instrumentation Amplifier: Connect the electrode to an instrumentation amplifier. Instrumentation amplifiers are designed for precise amplification of low-level signals and can be configured to provide a high common-mode rejection ratio (CMRR), which is crucial for rejecting common-mode noise. High-pass and Low-pass Filters: Implement high-pass and low-pass filters to remove unwanted signals outside the frequency range of interest (typically 0.5 to 50 Hz for EEG signals). Variable Gain Amplifier: Use a variable gain amplifier to allow for adjustment of signal strength. This can be useful for accommodating individual differences in si
One-Channel EEG Acquisition Circuit
Designing a one-channel EEG acquisition circuit involves creating a system that can capture and process the electrical signals from the brain using a single electrode. Here's a simplified explanation of the circuit design. Electrode: Use a conductive electrode to pick up the electrical signals from the scalp. Ensure good skin contact to minimize noise. Instrumentation Amplifier: Connect the electrode to an instrumentation amplifier. Instrumentation amplifiers are designed for precise amplification of low-level signals and can be configured to provide a high common-mode rejection ratio (CMRR), which is crucial for rejecting common-mode noise. High-pass and Low-pass Filters: Implement high-pass and low-pass filters to remove unwanted signals outside the frequency range of interest (typically 0.5 to 50 Hz for EEG signals). Variable Gain Amplifier: Use a variable gain amplifier to allow for adjustment of signal strength. This can be useful for accommodating individual differences in si
One-Channel EEG Acquisition Circuit
Designing a one-channel EEG acquisition circuit involves creating a system that can capture and process the electrical signals from the brain using a single electrode. Here's a simplified explanation of the circuit design. Electrode: Use a conductive electrode to pick up the electrical signals from the scalp. Ensure good skin contact to minimize noise. Instrumentation Amplifier: Connect the electrode to an instrumentation amplifier. Instrumentation amplifiers are designed for precise amplification of low-level signals and can be configured to provide a high common-mode rejection ratio (CMRR), which is crucial for rejecting common-mode noise. High-pass and Low-pass Filters: Implement high-pass and low-pass filters to remove unwanted signals outside the frequency range of interest (typically 0.5 to 50 Hz for EEG signals). Variable Gain Amplifier: Use a variable gain amplifier to allow for adjustment of signal strength. This can be useful for accommodating individual differences in si
One-Channel EEG Acquisition Circuit
10792740
In this project, I design a USB to UART converter circuit, and for this purpose, I use EasyEDA software as per my client's requirements, I also have a strong grip on other PCB design software like Altium, DipTrace, KiCAD, Eagle etc.
USB to UART Convertor
In this project, I design a USB to UART converter circuit, and for this purpose, I use EasyEDA software as per my client's requirements, I also have a strong grip on other PCB design software like Altium, DipTrace, KiCAD, Eagle etc.
USB to UART Convertor
11565081
In this project, I made a simple PCB design for testing purposes in the Laboratory...
Sinle Layered PCB Design using EasyEDA Software
In this project, I made a simple PCB design for testing purposes in the Laboratory...
Sinle Layered PCB Design using EasyEDA Software
In this project, I made a simple PCB design for testing purposes in the Laboratory...
Sinle Layered PCB Design using EasyEDA Software
11553742
A Line Impedance Stabilization Network (LISN) is a specialized device employed in electromagnetic compatibility (EMC) testing to assess and control the conducted electromagnetic interference (EMI) generated by electronic devices. Constructed with precise impedance characteristics, a LISN serves as an interface between the Equipment under Test (EUT), the power source, and the measuring instrument.
PCB Design of Line Impedance Stabilization Network
A Line Impedance Stabilization Network (LISN) is a specialized device employed in electromagnetic compatibility (EMC) testing to assess and control the conducted electromagnetic interference (EMI) generated by electronic devices. Constructed with precise impedance characteristics, a LISN serves as an interface between the Equipment under Test (EUT), the power source, and the measuring instrument.
PCB Design of Line Impedance Stabilization Network
A Line Impedance Stabilization Network (LISN) is a specialized device employed in electromagnetic compatibility (EMC) testing to assess and control the conducted electromagnetic interference (EMI) generated by electronic devices. Constructed with precise impedance characteristics, a LISN serves as an interface between the Equipment under Test (EUT), the power source, and the measuring instrument.
PCB Design of Line Impedance Stabilization Network
A Line Impedance Stabilization Network (LISN) is a specialized device employed in electromagnetic compatibility (EMC) testing to assess and control the conducted electromagnetic interference (EMI) generated by electronic devices. Constructed with precise impedance characteristics, a LISN serves as an interface between the Equipment under Test (EUT), the power source, and the measuring instrument.
PCB Design of Line Impedance Stabilization Network
11549804
I used to work on a four-layered PCB design using Diptrace, which is a very amazing program that is also easier to use than Altium Designer. My PCB design features footprints for SMD components: 0402 0805 1210 2.5mm Pitch pins Solder Pads SOT23-5 SC70-5, SMT - 40 pin, 6-UDFN, 8-HWSON (2x3)
Four Layered PCB Design by using DipTrace
I used to work on a four-layered PCB design using Diptrace, which is a very amazing program that is also easier to use than Altium Designer. My PCB design features footprints for SMD components: 0402 0805 1210 2.5mm Pitch pins Solder Pads SOT23-5 SC70-5, SMT - 40 pin, 6-UDFN, 8-HWSON (2x3)
Four Layered PCB Design by using DipTrace
I used to work on a four-layered PCB design using Diptrace, which is a very amazing program that is also easier to use than Altium Designer. My PCB design features footprints for SMD components: 0402 0805 1210 2.5mm Pitch pins Solder Pads SOT23-5 SC70-5, SMT - 40 pin, 6-UDFN, 8-HWSON (2x3)
Four Layered PCB Design by using DipTrace
I used to work on a four-layered PCB design using Diptrace, which is a very amazing program that is also easier to use than Altium Designer. My PCB design features footprints for SMD components: 0402 0805 1210 2.5mm Pitch pins Solder Pads SOT23-5 SC70-5, SMT - 40 pin, 6-UDFN, 8-HWSON (2x3)
Four Layered PCB Design by using DipTrace
I used to work on a four-layered PCB design using Diptrace, which is a very amazing program that is also easier to use than Altium Designer. My PCB design features footprints for SMD components: 0402 0805 1210 2.5mm Pitch pins Solder Pads SOT23-5 SC70-5, SMT - 40 pin, 6-UDFN, 8-HWSON (2x3)
Four Layered PCB Design by using DipTrace
11497164
Designing a one-channel EEG acquisition circuit involves creating a system that can capture and process the electrical signals from the brain using a single electrode. Here's a simplified explanation of the circuit design. Electrode: Use a conductive electrode to pick up the electrical signals from the scalp. Ensure good skin contact to minimize noise. Instrumentation Amplifier: Connect the electrode to an instrumentation amplifier. Instrumentation amplifiers are designed for precise amplification of low-level signals and can be configured to provide a high common-mode rejection ratio (CMRR), which is crucial for rejecting common-mode noise. High-pass and Low-pass Filters: Implement high-pass and low-pass filters to remove unwanted signals outside the frequency range of interest (typically 0.5 to 50 Hz for EEG signals). Variable Gain Amplifier: Use a variable gain amplifier to allow for adjustment of signal strength. This can be useful for accommodating individual differences in si
One-Channel EEG Acquisition Circuit
Designing a one-channel EEG acquisition circuit involves creating a system that can capture and process the electrical signals from the brain using a single electrode. Here's a simplified explanation of the circuit design. Electrode: Use a conductive electrode to pick up the electrical signals from the scalp. Ensure good skin contact to minimize noise. Instrumentation Amplifier: Connect the electrode to an instrumentation amplifier. Instrumentation amplifiers are designed for precise amplification of low-level signals and can be configured to provide a high common-mode rejection ratio (CMRR), which is crucial for rejecting common-mode noise. High-pass and Low-pass Filters: Implement high-pass and low-pass filters to remove unwanted signals outside the frequency range of interest (typically 0.5 to 50 Hz for EEG signals). Variable Gain Amplifier: Use a variable gain amplifier to allow for adjustment of signal strength. This can be useful for accommodating individual differences in si
One-Channel EEG Acquisition Circuit
Designing a one-channel EEG acquisition circuit involves creating a system that can capture and process the electrical signals from the brain using a single electrode. Here's a simplified explanation of the circuit design. Electrode: Use a conductive electrode to pick up the electrical signals from the scalp. Ensure good skin contact to minimize noise. Instrumentation Amplifier: Connect the electrode to an instrumentation amplifier. Instrumentation amplifiers are designed for precise amplification of low-level signals and can be configured to provide a high common-mode rejection ratio (CMRR), which is crucial for rejecting common-mode noise. High-pass and Low-pass Filters: Implement high-pass and low-pass filters to remove unwanted signals outside the frequency range of interest (typically 0.5 to 50 Hz for EEG signals). Variable Gain Amplifier: Use a variable gain amplifier to allow for adjustment of signal strength. This can be useful for accommodating individual differences in si
One-Channel EEG Acquisition Circuit
10792740
In this project, I design a USB to UART converter circuit, and for this purpose, I use EasyEDA software as per my client's requirements, I also have a strong grip on other PCB design software like Altium, DipTrace, KiCAD, Eagle etc.
USB to UART Convertor
In this project, I design a USB to UART converter circuit, and for this purpose, I use EasyEDA software as per my client's requirements, I also have a strong grip on other PCB design software like Altium, DipTrace, KiCAD, Eagle etc.
USB to UART Convertor

Avaliações

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Nenhuma avaliação aqui!

Experiência

Trainee Engineer

Heavy Electrical Complex
ago. 2022 - fev. 2023 (6 meses, 1 dia)
Working as a trainee engineer for the well-regarded company HEC(Heavy Electric Complex), where my responsibility is to evaluate the electrical installation for T/F and induction motors, has been a terrific experience for me.

Educação

BSc Electrical

University of Engineering and Technology, Taxila, Pakistan 2019 - 2023
(4 anos)

Qualificações

Master PLC Course

Alison
2023
Thrilled to have honed my skills in Programmable Logic Controllers, unlocking a new level of expertise in industrial automation. Delved into advanced PLC programming, mastered troubleshooting, and embraced the latest trends in automation technology.

Professional Circuit & PCB Designer

UET Taxila Bachelor Degree in Electrical
2020
I am a professional circuit and PCB designer working on different PCB designing software like; Altium, DipTrace, KiCAD, AutoDesk Eagle, Fusion 360, EasyEDA, NI_Multisim, and OrCAD PSpice.

Contate Raheel A. sobre seu trabalho

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Principais Habilidades

Electronics
Verilog / VHDL
Technical Writing
Microcontroller
Report Writing

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