Tahreer Safa’a Mansour was born in Baghdad, Iraq, on July 13, 1976. She has received the bachelor’s degree from The Al-Nahrain University from the College of Communication and Electronics Engineering, Baghdad, Iraq, in 1998. She has received the master’s degree from The Al-Nahrain University from the College of Communication and Electronics Engineering, Baghdad, Iraq, in 2001. She has received a Ph.D. from Baghdad University in laser institute for postgraduate studies, 2009. Design photonic devices to enhance the performance of optical communication systems are an area of interest. She can be contacted at email: [email protected]
• She has received the bachelor’s degree from The Al-Nahrain University from the College of Communication and Electronics Engineering, Baghdad, Iraq, in 1998. • She has received the master’s degree from The Al-Nahrain University from the College of Communication and Electronics Engineering, Baghdad, Iraq, in 2001. • She has received the Ph.D.’s from Baghdad University in laser institute for postgraduate studies, 2009. Assistant prof in 2016.
• She has 57 published papers in the international journals and conferences with also locally papers related to the Baghdad University.
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Photonics devices' coordinator (2012-2014). • Photonics unit manager (2014-2019). • Head of engineering and industrial department (2021-2023). • Photonics devices' manger (2014-till now).
كتاب شكروتقدير لاعداد تقرير عن المنظومة السمعية البصرية كتاي شكر وتقدير لاعداد وتهيئة مؤتمر في المعهد كتاب شكر وتقدير لحصولي على المركز الاول لدورة امناء المخازن كتاب شكر وتقدير لاشتراكي في المؤتمر الاقليمي الثاني للعلوم الهندسية كتاب شكر وتقدير شكر وتقدير كتاب شكر وتقدير تثمينا للجهود المبذولة في اعداد اسئلة اختبار كفاءة الحاسوب كتاب شكر وتقدير كتاب شكر وتقدير كتاب شكر وتقدير
كتاب شكر وتقدير
كتاب شكر وتقدير
كتاب شكر وتقدير كتاب شكر وتقدير كتاب شكر وتقدير كتاب شكر وتقدير كتاب شكر وتقدير كتب شكر وتقدير كتب شكر وتقدير كتب شكر وتقدير كتب شكر وتقدير كتب شكر وتقدير المعرفة(الشبكة السويدية العراقية)
عضوية في اللجنة العلمية لاكاديمية اثراء المعرفة(الشبكة السويدية العراقية) .
- رئيس فريق الاجهزة الفوتونية والبلازمونية لاكاديمية اثراء المعرفة(الشبكة السويدية العراقية
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- Design photonic devices for enhance the performance of optical communication system. -Design optical fiber kits uesd in biophotonics application
- Digital signal processing
- Optical fiber communication
- Optical signal processing
- Digital communcation
- Fourier Optics
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Implementation of All Optical Exclusive –OR gate for Optical communication systems
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Fiber Bragg Grating for Temperature and Pressure Sensing
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Performance Enhancement of SAE-OCDMA using Fiber Bragg grating
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Soliton Generation in Fiber Bragg Grating
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Pulse Compression Using Tunable Etalons Fabry-Perot Photonic Crystal Fiber
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Design and construction all fiber tunable filter and phase modulators based on Mach-zehnder Interferometers
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Design and construction of optical band pass filter using in – Fiber Fabry-Perot Tunable micro - cavities
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Design and Analysis of Optical Frequency Comb Sources for Optical OFDM Systems
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Design of optical plasmonic universal gate
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Design and implementation of network sensing based on OCDMA techniques
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Design and Implementation of In Line Fiber Pulse Compression Using Photonic Crystal Fiber
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Analysis of Micro Cavity's Fiber Splicing Region
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Network Sensing using Micro Fiber
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Design and analysis of laser cascaded bimodal interferometer for detection
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Design and analysis of bimodal interferometer of laser pulse compression
In this paper, a new 5G Passive Optical Network (5G-PON) employing all-optical orthogonal frequency division multiplexing (AO-OFDM) is proposed in hybrid bidirectional standard single mode fiber (SSMF)/free space optical (FSO). Additionally, an optical frequency generator (OFG) source is utilized. The proposed model is simulated using VPI photonics software. Analytical modeling and simulations have been conducted for a new approach to generate OFG by cascaded two-frequency modulators and one electro-absorption modulator. A sinusoidal RF signal source is utilized to drive all these modulators. The results reveal that 64 optical multiplexed carriers with a frequency spacing of 30 GHz are generated. These optical carriers have power variations
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