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$20 USD /timme
Flagga för EGYPT
bani swuef, egypt
$20 USD /timme
Datum, tid och plats: 12:07 em
Gick med april 27, 2020
0 Rekommendationer

Taha M.

@TahaAbdelfatah

 5,0 (16 omdömen)
3,1
3,1
75%
75%
$20 USD /timme
Flagga för EGYPT
bani swuef, egypt
$20 USD /timme
100 %
Slutförda jobb
100 %
Inom budget
100 %
Inom tid
43 %
Återanställningsgrad

Electronics and Electrical Communications Engineer

⭐⭐⭐⭐⭐ Area of Experiences and Qualifications ⭐ I am an Electrical and Electronic Engineer I have very much experience in Analog & Digital Electronics, and IC Design using Cadence Virtuoso, OrCAD, and LTspice. Known Concepts for example, but not limited to: ✔️ Discrete circuit design with op-amps. ✔️ Design basic Amplifiers. ✔️ One Stage OTA Topology. ✔️ Filter Design. ✔️ gm/ID Methodology. ✔️ Cascode and Cascaded amplifier Design. ✔️ Operational Transimpedance Amplifier (OTA) Design. ✔️ Constant-gm Bias Circuit, PVT Corners, and Monte Carlo Simulation. ✔️ Negative Feedback. ✔️ Common Mode Feedback (CMFB). ✔️ Variability and mismatch. ✔️ SR, and PSR. ✔️ Bandgap reference (BGR)، and constant gm circuits. ⭐ I am an expert in Digital IC Design in both FULL Custom, and SEMI Custom Design. Known Concepts for example, but not limited to: ✔️ The CMOS technology. ✔️ Interconnects. ✔️ Static Combinational Logic Circuits. ✔️ Dynamic Combinational Logic Circuits. ✔️ Sequential Logic Circuits. ✔️ Clock Uncertainties. ⭐Circuit and system design with: ✔️ Cadence virtuoso ✔️ ORCAD ✔️ LTspice ✔️MATLAB, Simulink and GUI ✔️ Multisim and other CAD tools ✔️ Proteus ✔️ Multisim ✔️ Modelsim ⭐signal and system processing: ✔️ block diagrams, linearity, causality, stability and time-invariance, linear time-invariant (LTI) systems, impulse response. ✔️ Convolution sum & integral; Convolution & correlation; introduction to Stochastic Signals. ✔️ Fourier techniques in signals and systems: Fourier series and transform of signals. ✔️ Frequency response of continuous time LTI circuits and systems. ✔️ Fourier transforms and continuous spectra; Applications, correlation and power spectrum. ⭐Communication Signals and Systems: ✔️ signal and carrier. ✔️ Bandwidth and spectrum allocation. ✔️ Modulation schemes: AM, FM and PM. ✔️ Transmitters and receivers: filters, down- and up-conversion, mixers. ✔️ Modulators and demodulators. ⭐Other skills... ✔️ Excel Formulas, VBA, Macros, verbatim and database analysis ✔️ Data Entry، Internet Research, Web search, copying ✔️ MATLAB and Mathematics ✔️ Business، Article and Content Writing ✔️ C and C++ ✔️ PDF and PowerPoint Designing ✔️ Website Design ✔️ Language Translators (Arabic,English,German,Dutch) ✔️Have a good experience with MS-WORD and EXCEL
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Portfolio

8674171
Design of a fully-differential folded cascode OTA with capacitive feedback that meets the specifications below. Supply voltage 1.8V Closed loop gain 2 2 Phase margin >= 70 OTA current <= 80uA CMFB circuit current <= 40uA CM input range=low <= 0 CM input range – high >= 1.1V Differential output swing 1.2Vpk-to-pk Load 1pF DC Loop gain 60dB Closed loop bandwidth 10MHz
Folded cascode OTA
Design of a fully-differential folded cascode OTA with capacitive feedback that meets the specifications below. Supply voltage 1.8V Closed loop gain 2 2 Phase margin >= 70 OTA current <= 80uA CMFB circuit current <= 40uA CM input range=low <= 0 CM input range – high >= 1.1V Differential output swing 1.2Vpk-to-pk Load 1pF DC Loop gain 60dB Closed loop bandwidth 10MHz
Folded cascode OTA
Design of a fully-differential folded cascode OTA with capacitive feedback that meets the specifications below. Supply voltage 1.8V Closed loop gain 2 2 Phase margin >= 70 OTA current <= 80uA CMFB circuit current <= 40uA CM input range=low <= 0 CM input range – high >= 1.1V Differential output swing 1.2Vpk-to-pk Load 1pF DC Loop gain 60dB Closed loop bandwidth 10MHz
Folded cascode OTA
Design of a fully-differential folded cascode OTA with capacitive feedback that meets the specifications below. Supply voltage 1.8V Closed loop gain 2 2 Phase margin >= 70 OTA current <= 80uA CMFB circuit current <= 40uA CM input range=low <= 0 CM input range – high >= 1.1V Differential output swing 1.2Vpk-to-pk Load 1pF DC Loop gain 60dB Closed loop bandwidth 10MHz
Folded cascode OTA
Design of a fully-differential folded cascode OTA with capacitive feedback that meets the specifications below. Supply voltage 1.8V Closed loop gain 2 2 Phase margin >= 70 OTA current <= 80uA CMFB circuit current <= 40uA CM input range=low <= 0 CM input range – high >= 1.1V Differential output swing 1.2Vpk-to-pk Load 1pF DC Loop gain 60dB Closed loop bandwidth 10MHz
Folded cascode OTA
Design of a fully-differential folded cascode OTA with capacitive feedback that meets the specifications below. Supply voltage 1.8V Closed loop gain 2 2 Phase margin >= 70 OTA current <= 80uA CMFB circuit current <= 40uA CM input range=low <= 0 CM input range – high >= 1.1V Differential output swing 1.2Vpk-to-pk Load 1pF DC Loop gain 60dB Closed loop bandwidth 10MHz
Folded cascode OTA
Design of a fully-differential folded cascode OTA with capacitive feedback that meets the specifications below. Supply voltage 1.8V Closed loop gain 2 2 Phase margin >= 70 OTA current <= 80uA CMFB circuit current <= 40uA CM input range=low <= 0 CM input range – high >= 1.1V Differential output swing 1.2Vpk-to-pk Load 1pF DC Loop gain 60dB Closed loop bandwidth 10MHz
Folded cascode OTA
8689468
System Modeling And Simulation Using Simulink
System Modeling And Simulation Using Simulink
System Modeling And Simulation Using Simulink
System Modeling And Simulation Using Simulink
System Modeling And Simulation Using Simulink
System Modeling And Simulation Using Simulink
System Modeling And Simulation Using Simulink
System Modeling And Simulation Using Simulink
System Modeling And Simulation Using Simulink
System Modeling And Simulation Using Simulink
System Modeling And Simulation Using Simulink
System Modeling And Simulation Using Simulink
System Modeling And Simulation Using Simulink
System Modeling And Simulation Using Simulink
8689076
Signal processing & Modulation using MATLAB
MATLAB Communication system, Modulation & signal processing
Signal processing & Modulation using MATLAB
MATLAB Communication system, Modulation & signal processing
Signal processing & Modulation using MATLAB
MATLAB Communication system, Modulation & signal processing
Signal processing & Modulation using MATLAB
MATLAB Communication system, Modulation & signal processing
Signal processing & Modulation using MATLAB
MATLAB Communication system, Modulation & signal processing
Signal processing & Modulation using MATLAB
MATLAB Communication system, Modulation & signal processing
Signal processing & Modulation using MATLAB
MATLAB Communication system, Modulation & signal processing
Signal processing & Modulation using MATLAB
MATLAB Communication system, Modulation & signal processing
Signal processing & Modulation using MATLAB
MATLAB Communication system, Modulation & signal processing
8469535
Using Proteus simulator, it is required to build a signal conditioning circuit that monitors oven temperature using a digital microcontroller. The microcontroller should take readings every second, it should display current temperature, average temperature at the last minute, an alarm if the signal exceeds the limit of 350 Celsius degrees.
Oven heat monitor using Proteus and arduino uno
Using Proteus simulator, it is required to build a signal conditioning circuit that monitors oven temperature using a digital microcontroller. The microcontroller should take readings every second, it should display current temperature, average temperature at the last minute, an alarm if the signal exceeds the limit of 350 Celsius degrees.
Oven heat monitor using Proteus and arduino uno
Using Proteus simulator, it is required to build a signal conditioning circuit that monitors oven temperature using a digital microcontroller. The microcontroller should take readings every second, it should display current temperature, average temperature at the last minute, an alarm if the signal exceeds the limit of 350 Celsius degrees.
Oven heat monitor using Proteus and arduino uno
Using Proteus simulator, it is required to build a signal conditioning circuit that monitors oven temperature using a digital microcontroller. The microcontroller should take readings every second, it should display current temperature, average temperature at the last minute, an alarm if the signal exceeds the limit of 350 Celsius degrees.
Oven heat monitor using Proteus and arduino uno
Using Proteus simulator, it is required to build a signal conditioning circuit that monitors oven temperature using a digital microcontroller. The microcontroller should take readings every second, it should display current temperature, average temperature at the last minute, an alarm if the signal exceeds the limit of 350 Celsius degrees.
Oven heat monitor using Proteus and arduino uno
8469516
Matlab Gui 1- You can use MATLAB or Python. 2- A GUI for entering system parameters like n, m, a’s, and b’s. 3- A GUI for selecting the input type (unit impulse, unit step). 4- A GUI for visualizing (plotting) the input and output signals. 5- The program computes the state space representation matrices (A, B, C, D) of the system. 6- A GUI to plot or visualize the system states (x 1 (t), x 2 (t), x 3 (t), … , x n (t)). 7- You are not allowed to use any ready-made libraries or functions to implement your simulation. 8- Your program must be able to simulate up to fourth order systems. 9- You may use the available programming libraries for generating the system parameters (a’s and b’s) as random numbers.
MATLAP GUI for 2nd order system impulse & unit step respose
Matlab Gui 1- You can use MATLAB or Python. 2- A GUI for entering system parameters like n, m, a’s, and b’s. 3- A GUI for selecting the input type (unit impulse, unit step). 4- A GUI for visualizing (plotting) the input and output signals. 5- The program computes the state space representation matrices (A, B, C, D) of the system. 6- A GUI to plot or visualize the system states (x 1 (t), x 2 (t), x 3 (t), … , x n (t)). 7- You are not allowed to use any ready-made libraries or functions to implement your simulation. 8- Your program must be able to simulate up to fourth order systems. 9- You may use the available programming libraries for generating the system parameters (a’s and b’s) as random numbers.
MATLAP GUI for 2nd order system impulse & unit step respose
Matlab Gui 1- You can use MATLAB or Python. 2- A GUI for entering system parameters like n, m, a’s, and b’s. 3- A GUI for selecting the input type (unit impulse, unit step). 4- A GUI for visualizing (plotting) the input and output signals. 5- The program computes the state space representation matrices (A, B, C, D) of the system. 6- A GUI to plot or visualize the system states (x 1 (t), x 2 (t), x 3 (t), … , x n (t)). 7- You are not allowed to use any ready-made libraries or functions to implement your simulation. 8- Your program must be able to simulate up to fourth order systems. 9- You may use the available programming libraries for generating the system parameters (a’s and b’s) as random numbers.
MATLAP GUI for 2nd order system impulse & unit step respose
Matlab Gui 1- You can use MATLAB or Python. 2- A GUI for entering system parameters like n, m, a’s, and b’s. 3- A GUI for selecting the input type (unit impulse, unit step). 4- A GUI for visualizing (plotting) the input and output signals. 5- The program computes the state space representation matrices (A, B, C, D) of the system. 6- A GUI to plot or visualize the system states (x 1 (t), x 2 (t), x 3 (t), … , x n (t)). 7- You are not allowed to use any ready-made libraries or functions to implement your simulation. 8- Your program must be able to simulate up to fourth order systems. 9- You may use the available programming libraries for generating the system parameters (a’s and b’s) as random numbers.
MATLAP GUI for 2nd order system impulse & unit step respose
Matlab Gui 1- You can use MATLAB or Python. 2- A GUI for entering system parameters like n, m, a’s, and b’s. 3- A GUI for selecting the input type (unit impulse, unit step). 4- A GUI for visualizing (plotting) the input and output signals. 5- The program computes the state space representation matrices (A, B, C, D) of the system. 6- A GUI to plot or visualize the system states (x 1 (t), x 2 (t), x 3 (t), … , x n (t)). 7- You are not allowed to use any ready-made libraries or functions to implement your simulation. 8- Your program must be able to simulate up to fourth order systems. 9- You may use the available programming libraries for generating the system parameters (a’s and b’s) as random numbers.
MATLAP GUI for 2nd order system impulse & unit step respose
8675334
Design of band gap reference circuit with very challanging specs using cadence virtuoso with technology TSMC 65nm
BGR (band gap reference circuit)
Design of band gap reference circuit with very challanging specs using cadence virtuoso with technology TSMC 65nm
BGR (band gap reference circuit)
Design of band gap reference circuit with very challanging specs using cadence virtuoso with technology TSMC 65nm
BGR (band gap reference circuit)
Design of band gap reference circuit with very challanging specs using cadence virtuoso with technology TSMC 65nm
BGR (band gap reference circuit)
Design of band gap reference circuit with very challanging specs using cadence virtuoso with technology TSMC 65nm
BGR (band gap reference circuit)
Design of band gap reference circuit with very challanging specs using cadence virtuoso with technology TSMC 65nm
BGR (band gap reference circuit)
Design of band gap reference circuit with very challanging specs using cadence virtuoso with technology TSMC 65nm
BGR (band gap reference circuit)
Design of band gap reference circuit with very challanging specs using cadence virtuoso with technology TSMC 65nm
BGR (band gap reference circuit)
Design of band gap reference circuit with very challanging specs using cadence virtuoso with technology TSMC 65nm
BGR (band gap reference circuit)
Design of band gap reference circuit with very challanging specs using cadence virtuoso with technology TSMC 65nm
BGR (band gap reference circuit)
8674171
Design of a fully-differential folded cascode OTA with capacitive feedback that meets the specifications below. Supply voltage 1.8V Closed loop gain 2 2 Phase margin >= 70 OTA current <= 80uA CMFB circuit current <= 40uA CM input range=low <= 0 CM input range – high >= 1.1V Differential output swing 1.2Vpk-to-pk Load 1pF DC Loop gain 60dB Closed loop bandwidth 10MHz
Folded cascode OTA
Design of a fully-differential folded cascode OTA with capacitive feedback that meets the specifications below. Supply voltage 1.8V Closed loop gain 2 2 Phase margin >= 70 OTA current <= 80uA CMFB circuit current <= 40uA CM input range=low <= 0 CM input range – high >= 1.1V Differential output swing 1.2Vpk-to-pk Load 1pF DC Loop gain 60dB Closed loop bandwidth 10MHz
Folded cascode OTA
Design of a fully-differential folded cascode OTA with capacitive feedback that meets the specifications below. Supply voltage 1.8V Closed loop gain 2 2 Phase margin >= 70 OTA current <= 80uA CMFB circuit current <= 40uA CM input range=low <= 0 CM input range – high >= 1.1V Differential output swing 1.2Vpk-to-pk Load 1pF DC Loop gain 60dB Closed loop bandwidth 10MHz
Folded cascode OTA
Design of a fully-differential folded cascode OTA with capacitive feedback that meets the specifications below. Supply voltage 1.8V Closed loop gain 2 2 Phase margin >= 70 OTA current <= 80uA CMFB circuit current <= 40uA CM input range=low <= 0 CM input range – high >= 1.1V Differential output swing 1.2Vpk-to-pk Load 1pF DC Loop gain 60dB Closed loop bandwidth 10MHz
Folded cascode OTA
Design of a fully-differential folded cascode OTA with capacitive feedback that meets the specifications below. Supply voltage 1.8V Closed loop gain 2 2 Phase margin >= 70 OTA current <= 80uA CMFB circuit current <= 40uA CM input range=low <= 0 CM input range – high >= 1.1V Differential output swing 1.2Vpk-to-pk Load 1pF DC Loop gain 60dB Closed loop bandwidth 10MHz
Folded cascode OTA
Design of a fully-differential folded cascode OTA with capacitive feedback that meets the specifications below. Supply voltage 1.8V Closed loop gain 2 2 Phase margin >= 70 OTA current <= 80uA CMFB circuit current <= 40uA CM input range=low <= 0 CM input range – high >= 1.1V Differential output swing 1.2Vpk-to-pk Load 1pF DC Loop gain 60dB Closed loop bandwidth 10MHz
Folded cascode OTA
Design of a fully-differential folded cascode OTA with capacitive feedback that meets the specifications below. Supply voltage 1.8V Closed loop gain 2 2 Phase margin >= 70 OTA current <= 80uA CMFB circuit current <= 40uA CM input range=low <= 0 CM input range – high >= 1.1V Differential output swing 1.2Vpk-to-pk Load 1pF DC Loop gain 60dB Closed loop bandwidth 10MHz
Folded cascode OTA
8689468
System Modeling And Simulation Using Simulink
System Modeling And Simulation Using Simulink
System Modeling And Simulation Using Simulink
System Modeling And Simulation Using Simulink
System Modeling And Simulation Using Simulink
System Modeling And Simulation Using Simulink
System Modeling And Simulation Using Simulink
System Modeling And Simulation Using Simulink
System Modeling And Simulation Using Simulink
System Modeling And Simulation Using Simulink
System Modeling And Simulation Using Simulink
System Modeling And Simulation Using Simulink
System Modeling And Simulation Using Simulink
System Modeling And Simulation Using Simulink
8689076
Signal processing & Modulation using MATLAB
MATLAB Communication system, Modulation & signal processing
Signal processing & Modulation using MATLAB
MATLAB Communication system, Modulation & signal processing
Signal processing & Modulation using MATLAB
MATLAB Communication system, Modulation & signal processing
Signal processing & Modulation using MATLAB
MATLAB Communication system, Modulation & signal processing
Signal processing & Modulation using MATLAB
MATLAB Communication system, Modulation & signal processing
Signal processing & Modulation using MATLAB
MATLAB Communication system, Modulation & signal processing
Signal processing & Modulation using MATLAB
MATLAB Communication system, Modulation & signal processing
Signal processing & Modulation using MATLAB
MATLAB Communication system, Modulation & signal processing
Signal processing & Modulation using MATLAB
MATLAB Communication system, Modulation & signal processing
8469535
Using Proteus simulator, it is required to build a signal conditioning circuit that monitors oven temperature using a digital microcontroller. The microcontroller should take readings every second, it should display current temperature, average temperature at the last minute, an alarm if the signal exceeds the limit of 350 Celsius degrees.
Oven heat monitor using Proteus and arduino uno
Using Proteus simulator, it is required to build a signal conditioning circuit that monitors oven temperature using a digital microcontroller. The microcontroller should take readings every second, it should display current temperature, average temperature at the last minute, an alarm if the signal exceeds the limit of 350 Celsius degrees.
Oven heat monitor using Proteus and arduino uno
Using Proteus simulator, it is required to build a signal conditioning circuit that monitors oven temperature using a digital microcontroller. The microcontroller should take readings every second, it should display current temperature, average temperature at the last minute, an alarm if the signal exceeds the limit of 350 Celsius degrees.
Oven heat monitor using Proteus and arduino uno
Using Proteus simulator, it is required to build a signal conditioning circuit that monitors oven temperature using a digital microcontroller. The microcontroller should take readings every second, it should display current temperature, average temperature at the last minute, an alarm if the signal exceeds the limit of 350 Celsius degrees.
Oven heat monitor using Proteus and arduino uno
Using Proteus simulator, it is required to build a signal conditioning circuit that monitors oven temperature using a digital microcontroller. The microcontroller should take readings every second, it should display current temperature, average temperature at the last minute, an alarm if the signal exceeds the limit of 350 Celsius degrees.
Oven heat monitor using Proteus and arduino uno
8469516
Matlab Gui 1- You can use MATLAB or Python. 2- A GUI for entering system parameters like n, m, a’s, and b’s. 3- A GUI for selecting the input type (unit impulse, unit step). 4- A GUI for visualizing (plotting) the input and output signals. 5- The program computes the state space representation matrices (A, B, C, D) of the system. 6- A GUI to plot or visualize the system states (x 1 (t), x 2 (t), x 3 (t), … , x n (t)). 7- You are not allowed to use any ready-made libraries or functions to implement your simulation. 8- Your program must be able to simulate up to fourth order systems. 9- You may use the available programming libraries for generating the system parameters (a’s and b’s) as random numbers.
MATLAP GUI for 2nd order system impulse & unit step respose
Matlab Gui 1- You can use MATLAB or Python. 2- A GUI for entering system parameters like n, m, a’s, and b’s. 3- A GUI for selecting the input type (unit impulse, unit step). 4- A GUI for visualizing (plotting) the input and output signals. 5- The program computes the state space representation matrices (A, B, C, D) of the system. 6- A GUI to plot or visualize the system states (x 1 (t), x 2 (t), x 3 (t), … , x n (t)). 7- You are not allowed to use any ready-made libraries or functions to implement your simulation. 8- Your program must be able to simulate up to fourth order systems. 9- You may use the available programming libraries for generating the system parameters (a’s and b’s) as random numbers.
MATLAP GUI for 2nd order system impulse & unit step respose
Matlab Gui 1- You can use MATLAB or Python. 2- A GUI for entering system parameters like n, m, a’s, and b’s. 3- A GUI for selecting the input type (unit impulse, unit step). 4- A GUI for visualizing (plotting) the input and output signals. 5- The program computes the state space representation matrices (A, B, C, D) of the system. 6- A GUI to plot or visualize the system states (x 1 (t), x 2 (t), x 3 (t), … , x n (t)). 7- You are not allowed to use any ready-made libraries or functions to implement your simulation. 8- Your program must be able to simulate up to fourth order systems. 9- You may use the available programming libraries for generating the system parameters (a’s and b’s) as random numbers.
MATLAP GUI for 2nd order system impulse & unit step respose
Matlab Gui 1- You can use MATLAB or Python. 2- A GUI for entering system parameters like n, m, a’s, and b’s. 3- A GUI for selecting the input type (unit impulse, unit step). 4- A GUI for visualizing (plotting) the input and output signals. 5- The program computes the state space representation matrices (A, B, C, D) of the system. 6- A GUI to plot or visualize the system states (x 1 (t), x 2 (t), x 3 (t), … , x n (t)). 7- You are not allowed to use any ready-made libraries or functions to implement your simulation. 8- Your program must be able to simulate up to fourth order systems. 9- You may use the available programming libraries for generating the system parameters (a’s and b’s) as random numbers.
MATLAP GUI for 2nd order system impulse & unit step respose
Matlab Gui 1- You can use MATLAB or Python. 2- A GUI for entering system parameters like n, m, a’s, and b’s. 3- A GUI for selecting the input type (unit impulse, unit step). 4- A GUI for visualizing (plotting) the input and output signals. 5- The program computes the state space representation matrices (A, B, C, D) of the system. 6- A GUI to plot or visualize the system states (x 1 (t), x 2 (t), x 3 (t), … , x n (t)). 7- You are not allowed to use any ready-made libraries or functions to implement your simulation. 8- Your program must be able to simulate up to fourth order systems. 9- You may use the available programming libraries for generating the system parameters (a’s and b’s) as random numbers.
MATLAP GUI for 2nd order system impulse & unit step respose
8675334
Design of band gap reference circuit with very challanging specs using cadence virtuoso with technology TSMC 65nm
BGR (band gap reference circuit)
Design of band gap reference circuit with very challanging specs using cadence virtuoso with technology TSMC 65nm
BGR (band gap reference circuit)
Design of band gap reference circuit with very challanging specs using cadence virtuoso with technology TSMC 65nm
BGR (band gap reference circuit)
Design of band gap reference circuit with very challanging specs using cadence virtuoso with technology TSMC 65nm
BGR (band gap reference circuit)
Design of band gap reference circuit with very challanging specs using cadence virtuoso with technology TSMC 65nm
BGR (band gap reference circuit)
Design of band gap reference circuit with very challanging specs using cadence virtuoso with technology TSMC 65nm
BGR (band gap reference circuit)
Design of band gap reference circuit with very challanging specs using cadence virtuoso with technology TSMC 65nm
BGR (band gap reference circuit)
Design of band gap reference circuit with very challanging specs using cadence virtuoso with technology TSMC 65nm
BGR (band gap reference circuit)
Design of band gap reference circuit with very challanging specs using cadence virtuoso with technology TSMC 65nm
BGR (band gap reference circuit)
Design of band gap reference circuit with very challanging specs using cadence virtuoso with technology TSMC 65nm
BGR (band gap reference circuit)

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5,0
$20,00 USD
Project for Taha M.16 Bit full Adder Mirror Part 2
He is doing an excellent job as the required specifications, as he delivers the tasks that are required of him on time. I like to deal with him again.
Electronics
Electrical Engineering
Analog
Analog Electronics
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Closed User
@salmaalame13
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tre år sedan
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$20,00 USD
Project for Taha M. -- 2
He is doing an excellent job. I am satisfied with his works and I highly recommended to work with him.
Electronics
Electrical Engineering
Analog
Analog Electronics
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Closed User
@salmaalame13
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tre år sedan
5,0
$20,00 USD
Project for Taha M.
He is doing a professional works. I highly recomended.
Electronics
Electrical Engineering
Analog
Analog Electronics
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Closed User
@salmaalame13
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tre år sedan
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$55,00 USD
Project for Taha M. -- 8
Professional and an expert when it come to anything electronics related. 10/10 would recommend for sure!
Electronics
Electrical Engineering
Analog
Analog Electronics
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Flagga för Abdulrahman A.
@whatsthepoint0
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tre år sedan
5,0
$15,00 USD
Project for Taha M. -- 7
Taha is a great employer and Expert engineer. Great communication, good projects. Would definitely like to work with him again.
Electronics
Electrical Engineering
Analog
Analog Electronics
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Flagga för Abdulrahman A.
@whatsthepoint0
•
tre år sedan

Erfarenhet

Trainee

Information Technology Institute (ITI)
aug. 2020 - okt. 2020 (2 månader, 1 dag)
CMOS OpAmp design, analog ICs simulation using cadence simulation tools. ( certified )

Utbildning

B.S. in Electronics Engineering

Ain Shams University, Egypt 2017 - 2021
(4 år)

Kontakta Taha M. om ditt uppdrag

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Electronics 16
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Analog 13
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Analog / Mixed Signal / Digital 13

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