Faculty of Science

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About Faculty of Science

Faculty of Science

The Faculty of Science is the core at the University of Tripoli, as it was the first that established in this prestigious university. It is also the first faculty of science in Libya. At the present, it includes ten scientific departments: Departments of Zoology, Mathematics, Physics, Chemistry, Botany, Geology, Computer Science and Statistics, Atmospheric science and geophysics. It currently works to create a new department of Archaeology in order to study the scientific and research side of the historical heritage of the Libyan people. Graduates of this college have worked in various governmental sectors, such as oil exploration, extraction and refining, chemical industries complexes in Abu Kamash and Ras Al-Anuf, as well as plastics companies in production and manufacturing, and in factories for soap, cleaning materials and others. They were also recruited by the education sector in different research and pedagogical areas.

 

The graduates of this faculty have led the scientific process for many years and still represent the first building block in all colleges of science, and some other colleges in all Libyan universities for the past five decades. The scope of work for graduates included Faculties of Medicine (in the field of basic sciences, biochemistry, anatomy, histology and microbiology), many departments in the Faculty of Agriculture, general engineering, chemical and geological engineering; in particular, medical technology and pharmacy, and the Faculty of Economics and Arts. The Faculty of Science provides teaching assistants to other faculties and universities in the Libyan state.

 

The Faculty of Science is the first to create graduate studies programs in Libya, despite the nature of graduate studies in basic sciences, which need capabilities other than competent professors. Teaching staff in this institution graduated from international universities in the West and the East (USA, UK, Australia, and other European countries). They graduated from universities that are well-known for their high academic standard.

 

Having obtained their first university degree or higher degrees of specialization from Libya or abroad, graduates of Faculty of Science worked for industrial and nuclear research centers, petroleum sector, marine life, biotechnology, plastics, and other specialized research centers.

 

The Faculty has also enriched the scientific research movement in the fields of basic sciences in the Libyan state through the issuance of refereed basic science journal.

Facts about Faculty of Science

We are proud of what we offer to the world and the community

209

Publications

272

Academic Staff

1818

Students

686

Graduates

Faculty of Science Announcements

2022-10-01
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Programs

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Master of Science
Major Physics

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Who works at the Faculty of Science

Faculty of Science has more than 272 academic staff members

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Dr. yazeed musa abouzeed benshaban

يزيد بن شعبان هو احد اعضاء هيئة التدريس بقسم الكيمياء بكلية العلوم. يعمل السيد يزيد بن شعبان بجامعة طرابلس كـمحاضر منذ 2017-09-06 وله العديد من المنشورات العلمية في مجال تخصصه

Publications

Some of publications in Faculty of Science

The Completeness, Consistency and Independent of Rosser Axiomatic System

هدف هذه الرسالة هو دراسة النسق المنطقي ل Rosserمن خلال إثبات جميع مبرهنات النسق المنطقي RA. ثم اثباث ان كل مبرهنة في RA صحيحة (Valid) -(ٍSoundness) وكذلك اثباث خاصية الاكتمال (Completeness) من خلال انه إذا كانت Aϵ RA(Tautology) فان A مبرهنة في RA(. (i.e ├R A ⊃ ╞R Aوأخيرا ثم اثباث استقلالية النسق (Independency) وذلك من خلال استقلال كل مسلمة على حده. Abstract The aim of this thesis is to show the Soundness, Completeness and Independency of Rosser Axiomatic System RA. by proving the following: - Every theorem of RA is a tautology (i.e ├RA ⊃╞R A) (The soundness) - If A is a Wff. of RA and A is a tautology , then├R A(The Completeness) -The Independency of AxR1 , AxR2 and AxR3.
مبروكة على الطوير (2010)
Publisher's website

Surface Hardening of Al-Bronze Alloys and Microdrilling with Ruby Laser

من الاختراع الاول لليزر الياقوت قي عام 1960م تم الحصول على عملية الليزر في عدة أوساط، الغازية، السائلة والصلبة ...الخ. وبالامكان الآن الحصول علي شعاع الكهرومغنطيس المترابط من موجات الراديو الي منطقة الاشعة السنية للمستويات قدرة تتراوح بين جزء من الواتالي بليون وات. هذه الاشعة للاجهزة المتنوعة الا ستعمال لها تأثير بعيد المدي على كل المستويات العلمية والتقنية، وفي الحقيقة فأن تقنية الليزر اليوم تكون قيالمرتبات العليا العلمية والتقنية، وفي الحقيقة قأن تقنية أنصاف الموصلات وما هي هذه الا البدية. هذاالبحث يختص بأحدى هذه التطبيقات وهي معالجة المواد بأستخدام ليزر الياقوت حيث تم أستعمال ليزر الياقوت ذى قدرة قصوى مقدارها أربعة كيلوات في خطتشغيله العادي لدراسة تحسين صلادة السطح لسبائك البرونز الالوميني وكذلك عمل ثقوب دقيقة جداً في بعض المعادن والسبائك والمواد العازلة. الفصل الاول من هذا البحث يعطي ملخصاً مقتضباًلأساسيات الليزر وخواص بعض الليزارات منها بينما يتعلق الفصل الثاني بمناقشة التطبيقات الةاسعة لليزر ويتركزأكثر على معالجة المواد بواسطة الليزر. تفاصيل وخواص ليزر الياقوت (من شركة كوادر الامريكية موديل 1500 ك) الذي تمأستعماله في هذا البحث يشملها الفصل الثالث. بينما يتعلق الفصل الرابع بالدراة الرئسية في هذا البحث والتي تتعلق بتحسين صلادة السطح بواسطة ليزر الياقوت والتأثير الناتج عن تغير كثافة الطاقة وعدد الطلقات الليزرية على عينات البرونز الالوميني ذات التكوين الطوري المختلف. كما أن النتائج التي تم الحصول عليها من قياسات الصلادة وحيود الاشعة السبنية والتصوير الدقيق توضح بجلاء أن كثافة القدرة تزيد من صلادة السطح وأن نتيجة لتكوين بنية أنتقالية شبه مستقرة (مارتينزيت) خلال مراحل المعالجة الليزرية الحرارية للعينات، وعلي الجانب الاخر وجدنا أن زيادة عدد الطلقات ليس له تأثير يذكر علي صلادة السطح. الفصل الاخير يختص بجزء الحفر الدقيق من هذه الدراسة على قليل من المعادن والسبائك والمواد العازلةحيث برهن أن ليزر الياقوت يعتبر أداة ناجحة في الحفر الدقيق. Abstract Since the invention of the first Ruby laser in 1960, laser action has been obtained in many media: gases, liquids, solids, etc. Now coherent electromagnetic radiation is available from R.F. to near X-ray region with power level ranging from a fraction of a watt to billion watts. Such versatile devices have far reaching impact on all scientific and technological levels. In fact laser technology ranks perhaps next only to nuclear engineering and semiconductor technologies and this is just the beginning. This thesis pertains to one such application, namely material processing using Ruby laser. A Ruby laser of 4 KW peak power, in normal mode operation has been used to study surface hardness enhancement of AI-Bronze alloys and micro- drilling of few metals, alloys and insulators. The first chapter gives a brief outline of the principle of lasers and the characteristics of a few, most inportant lasers, while the second chapter deals with a discussion of the wide range of laser applications with emphasis of material processing using lasers. The details of the characteristics of the Ruby laser and the system we used in this study (KORAD, Model K 1500), are included in Chapter 3. Chapter 4 deals with our main study of the surface hardness enhancement using the Ruby laser and the effect of changing the power density and the number of shots on Aluminium-bronze samples of different phase composition. The results of hardness measurements, x-ray diffraction, and microphotography clearly show that increasing the power density increases the surface hardness and that is due to the martensite formation during the different stages of the laser heat treatment of the samples. on the other hand we found that increasing the number of shots does not have much influence on the surface hardness. The final chapter pertains to the microdrilling part of this study on few metals, alloys, and insulators where we prove that a Ruby laser is a successful tool in micro drilling.
عبد السلام الباهي (1989)
Publisher's website

Structural Evolution of 146–158 Nd Isotopes Using IBM-2 Hamiltonian

: Neodymium isotopes (Z=60) lie in the traditional rotational to transitional-spherical region that occurs at the range of deformed nuclei. The identity of 146−158 Neodymium nuclei have been determined in framework of Interacting Boson Model-2, a simulation program with NPBOS has been used to obtain the theoretical energy levels for Neodymium isotopes. The parameters of the best fit to the measured data are determined. The energy positive parity bands of those isotopes were calculated using (IBM-2) and then it compared with the experimental values. The mentioned isotopes ratios (E(4_1^+))/(E(2_1^+)) have calculated and also E-GOS curves (( E_γ)/I) have drawn as a function of the spin I, to classify symmetry of the nuclei. The electromagnetic transition probabilities B(E2) of these nuclei was calculated as well, where a good agreement for low lying energy states were obtained between experimental results and theoretical calculations. The results have been shown that the interested nuclei 152-158Nd have rotational characters SU (3), and O (6) symmetry is substantiated for 146-148Nd, as well as the critical point X (5) has been determined for 150Nd isotope.
D. Nasef, Najat S. Eshaftri, Ayad E. Ezwam, Suad M. Bogrin, Asma A. Elbendag, Sadiq M. El-kadi(12-2021)
Publisher's website

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