The document provides information about the Biomedical Engineering department at E.G.S. Pillay Engineering College. It summarizes the programs offered (B.E. in Biomedical Engineering), achievements and recognitions including starting the B.E. program in 2019 and signing several MOUs with industry partners. It also outlines the department vision, mission and program educational objectives to produce competent biomedical engineers and maintain state-of-the-art facilities through research and development. Details about students, faculty, laboratories, projects, teaching-learning processes and placement are also included.
Basics refresher on Laser Technology and it's applications. Presentation prepared by (and for) student(s). Level- Karnataka State Pre-university PUC1(India)
This document describes how to determine the birefringence of mica using a Babinet compensator. A Babinet compensator contains two quartz wedges that allow plane polarized light to split into ordinary and extraordinary rays when passed through a birefringent material. By measuring the fringe shift caused when mica is placed between the polarizer and compensator, and using the fringe width and material thickness in an equation, the birefringence of the mica can be calculated. The experiment involves setting up the apparatus, measuring the fringe width without mica, measuring the fringe shift caused when mica is added, and using these values in the equation (no-ne) = λδβ/βt
The term biophotonics denotes a combination of biology and photonics, with photonics being the science and technology of generation, manipulation, and detection of photons, quantum units of light. Photonics is related to electronics and photons. Photons play a central role in information technologies such as fiber optics the way electrons do in electronics.
Biophotonics can also be described as the "development and application of optical techniques, particularly imaging, to the study of biological molecules, cells and tissue". One of the main benefits of using optical techniques which make up biophotonics is that they preserve the integrity of the biological cells being examined.
The document summarizes the history and science behind lasers. It discusses how the laser was first conceived in the 1950s and built in 1960. It then explains the basic components of a laser including an energy input source and a gain medium that produces stimulated emission when pumped with energy. Examples of common laser types and materials are provided. Applications of lasers in spectroscopy, surgery, and distance measurements to the moon are also mentioned.
This document describes the syllabus for a biomedical optics course. It covers 13 topics including Monte Carlo modeling of photon transport, the radiative transfer equation, diffuse optical tomography, and ultrasound-modulated optical tomography. The first chapter introduces motivation for optical imaging in biology, general behavior of light in tissue, and basic light-matter interactions. It discusses optical properties of tissue, Beer's law, absorption and scattering origins and coefficients, and exercises calculating light transmission through absorbing and scattering media. Oxygen saturation and concentration are also introduced.
00a_Modern Physics - Structure of Matter - Crisis, energy quantization & photonsGiuseppe Maruccio
From classical to modern physics – Energy quantization and photons; black body radiation; photoelectric effect; X ray spectra and Bremsstrahlung; Compton effect
This document provides a summary of a presentation on diffraction and diffraction gratings. It discusses Huygens' principle of diffraction, the two types of diffraction (Fresnel and Fraunhofer), conditions for maxima and minima in diffraction patterns, how diffraction gratings produce spectra through different orders, and the condition for absent spectra in diffraction gratings. The summary is presented in 3 bullet points or less.
Basics refresher on Laser Technology and it's applications. Presentation prepared by (and for) student(s). Level- Karnataka State Pre-university PUC1(India)
This document describes how to determine the birefringence of mica using a Babinet compensator. A Babinet compensator contains two quartz wedges that allow plane polarized light to split into ordinary and extraordinary rays when passed through a birefringent material. By measuring the fringe shift caused when mica is placed between the polarizer and compensator, and using the fringe width and material thickness in an equation, the birefringence of the mica can be calculated. The experiment involves setting up the apparatus, measuring the fringe width without mica, measuring the fringe shift caused when mica is added, and using these values in the equation (no-ne) = λδβ/βt
The term biophotonics denotes a combination of biology and photonics, with photonics being the science and technology of generation, manipulation, and detection of photons, quantum units of light. Photonics is related to electronics and photons. Photons play a central role in information technologies such as fiber optics the way electrons do in electronics.
Biophotonics can also be described as the "development and application of optical techniques, particularly imaging, to the study of biological molecules, cells and tissue". One of the main benefits of using optical techniques which make up biophotonics is that they preserve the integrity of the biological cells being examined.
The document summarizes the history and science behind lasers. It discusses how the laser was first conceived in the 1950s and built in 1960. It then explains the basic components of a laser including an energy input source and a gain medium that produces stimulated emission when pumped with energy. Examples of common laser types and materials are provided. Applications of lasers in spectroscopy, surgery, and distance measurements to the moon are also mentioned.
This document describes the syllabus for a biomedical optics course. It covers 13 topics including Monte Carlo modeling of photon transport, the radiative transfer equation, diffuse optical tomography, and ultrasound-modulated optical tomography. The first chapter introduces motivation for optical imaging in biology, general behavior of light in tissue, and basic light-matter interactions. It discusses optical properties of tissue, Beer's law, absorption and scattering origins and coefficients, and exercises calculating light transmission through absorbing and scattering media. Oxygen saturation and concentration are also introduced.
00a_Modern Physics - Structure of Matter - Crisis, energy quantization & photonsGiuseppe Maruccio
From classical to modern physics – Energy quantization and photons; black body radiation; photoelectric effect; X ray spectra and Bremsstrahlung; Compton effect
This document provides a summary of a presentation on diffraction and diffraction gratings. It discusses Huygens' principle of diffraction, the two types of diffraction (Fresnel and Fraunhofer), conditions for maxima and minima in diffraction patterns, how diffraction gratings produce spectra through different orders, and the condition for absent spectra in diffraction gratings. The summary is presented in 3 bullet points or less.
(1) Photonic band gap (PBG) crystals can manipulate light in the same way semiconductors control electric currents. They prevent light propagation within a photonic band gap through Bragg scattering and defects.
(2) PBG crystals are fabricated by drilling holes in a dielectric material in a periodic lattice. This creates a range of frequencies where light is blocked.
(3) Applications include photonic crystal fibers for endlessly single mode fibers, photonic crystal lasers, filters, and planar waveguides for compact integrated photonic circuits. Future directions include all-optical transistors for terabit routing and quantum computing.
This document provides an outline for a course on fundamentals of photonics. It includes information on the course structure such as exams accounting for 30% each of the final grade and homework accounting for 20%. It also briefly outlines some of the topics to be covered in the course including optical properties of materials and metals, reflection and refraction, interference and diffraction. Contact information is provided for the instructor.
Lasers have many uses in ophthalmology, both therapeutic and diagnostic. Therapeutically, lasers are used to treat retinal disorders like diabetic retinopathy, macular edema and retinal detachments. They are also used in procedures like laser iridotomy and trabeculoplasty to treat glaucoma. Diagnostically, lasers are used in optical coherence tomography and scanning laser ophthalmoscopy to image the retina. Different types of lasers like argon, Nd:YAG and excimer interact with tissue in various ways such as coagulation, vaporization or ablation, depending on the wavelength and power. While lasers are generally safe, potential complications include pain, elevated pressure, retinal damage and
The document discusses the history and applications of lasers. It begins with a brief history of lasers, noting they were developed in the 1960s and have since revolutionized optics. It defines lasers as devices that generate light via stimulated emission. One example application is using lasers as the light source for fiber optic communication, allowing information to be transmitted quickly through glass fibers. The document outlines several other applications of lasers, including uses in the military, medicine, communication, and materials processing.
The document provides information on the basics of lasers and laser light. It defines LASER as an acronym for Light Amplification by Stimulated Emission of Radiation. It describes the key properties of laser beams including high coherence, intensity, directionality, and monochromaticity. It also discusses atomic transitions, population inversion, components of lasers including the active medium and optical resonator, and provides examples of specific lasers such as Nd:YAG lasers.
This document summarizes key concepts about laser beams and optical resonators:
1) Laser beam propagation can be described by the Helmholtz equation, with one solution being a Gaussian beam profile. The beam waist radius varies along the beam axis according to the Rayleigh range.
2) Optical resonators provide feedback to turn an amplifier into an oscillator. They contain mirrors between which light bounces and is amplified on each pass through the gain medium.
3) Resonator stability depends on the curvature and separation of the mirrors. Different resonator types support distinct transverse mode patterns within the beam.
This document summarizes the ruby laser. It begins by explaining that a ruby laser uses a synthetic ruby crystal as its laser medium, which was the first successful laser developed in 1960. It emits deep red light at a wavelength of 694.3 nm. The ruby crystal is doped with small amounts of chromium ions, which provide the necessary population inversion to achieve lasing. When optically pumped by a flash lamp, chromium ions are excited to higher energy states and decay to a metastable state, building up population inversion between that state and the ground state. Stimulated emission then produces coherent red light that is amplified as it reflects within the ruby crystal's resonance cavity and emerges through the partially reflective end.
Lasers in medicine, basic principles and applicationAugustine raj
This document discusses the principles of lasers, including:
1) Lasers work using the principle of stimulated emission of radiation, where atoms or molecules in an excited state emit photons when stimulated by an external source, producing an intense beam of coherent and monochromatic light.
2) Key terms include absorption, emission, population inversion, and stimulated emission, which are required for lasers to function.
3) Lasers have characteristics like monochromaticity, coherence, and collimation that make them useful surgical tools, though they also have disadvantages like cost and safety hazards that require special training.
The document discusses the history and theory of lasers. It begins by explaining that a laser is an optical amplifier based on stimulated emission of radiation, as proposed by Einstein in 1917. The first laser was built in 1960 by Maiman using a ruby crystal. Key aspects discussed include:
- Laser operation requires a population inversion between energy levels.
- Common laser types include ruby, He-Ne, and semiconductor lasers.
- Semiconductor lasers use the stimulated emission from a p-n junction.
- Holograms were first made possible by the invention of the laser as a coherent light source. Applications of holography include credit cards, medical imaging, and art.
This document discusses lasers and their applications. It defines lasers as optical devices that generate intense beams of coherent light through stimulated emission. Lasers are then described as having special properties like traveling long distances without spreading out. The document proceeds to list several applications of lasers, including in manufacturing, medicine, metrology, data storage, communications, displays, spectroscopy, microscopy, energy technology, and the military. Specific examples are provided for some of the applications.
What is Polarization?
Types of polarized light
Few related terms
Few laws related to polarization
Applications
FOR MORE VISIT: https://tariqalfayad.blogspot.com/
This belongs to Physical Chemistry portion and it contains most of
things about laser working and principles.
By Aaryan Tyagi's Group
M.Sc. Applied Chemistry (1 Sem)
Amity University, Noida
1) Fresnel's theory of diffraction explains that diffraction occurs due to the interference of secondary wavelets produced by unobstructed portions of the wavefront.
2) When considering the diffraction pattern at a point P, Fresnel divided the wavefront into concentric half-period zones centered on the point's pole O. The contribution of each zone to the intensity at P depends on the zone's area and distance from P.
3) For a large number of zones, the total intensity at P is approximately one fourth of that due to the first zone alone, explaining the dimming of light in diffraction patterns.
PET - Medical Cyclotrons: Overview and Recent Developments@Saudi_nmc
This document outlines a presentation given by Faisal Alrumayan on medical cyclotrons. It describes the cyclotron facilities at KFSHRC including older and newer cyclotrons. It provides basics on how cyclotrons work to accelerate particles and an overview of cyclotron components and critical parameters. The document discusses targetry, cyclotron operations and maintenance, applications of cyclotron beams including medical and industrial uses, and recent developments in the field.
This document discusses the use of lasers in orthopedic surgery. It describes how lasers interact with biological tissues through scattering, penetration and absorption, and how these effects can be used for biostimulation or bioinhibition depending on the wavelength and power. Applications of lasers in orthopedics include pain management, wound healing, nerve regeneration and treatment of injuries to soft tissues, joints, muscles and bones. Lasers provide benefits over traditional surgery such as smaller incisions, less bleeding and swelling, and faster recovery times.
The document discusses lasers, including their basics, how they work, types of lasers, and applications. It explains that lasers emit coherent, monochromatic, directional light through stimulated emission. Common types include solid-state, gas, dye, excimer, and semiconductor lasers. Lasers have many industrial, environmental, research, communications, and medical applications such as laser printers, barcode scanners, fiber optics, surgery, and distance measurement. They are used widely in everyday devices and settings.
This document provides an overview of lasers, including:
1. A definition of a laser as a device that generates light through stimulated emission.
2. Descriptions of the key components and processes that enable laser operation, including population inversion and optical feedback.
3. Examples of common laser applications like CD players, fiber optics, and medical devices.
4. Safety considerations regarding laser hazards and the importance of controls and personal protective equipment when working with lasers.
The document discusses the history and applications of laser technology. It begins with the origins of laser theory in Einstein's work and the invention of the laser in the 1950s. It then explains how different types of lasers work and lists common laser systems like solid state, liquid, gas and semiconductor lasers. The document outlines a wide range of applications for lasers in fields like military, medicine, industry and entertainment. It provides examples of laser use in surgeries, cutting and welding tools, CD players, and holography. In under 3 sentences.
Dr. Siti Uzairiah Mohd Tobi is a senior lecturer at UTM Razak School of Engineering and Advanced Technology, Universiti Teknologi Malaysia. She has a Ph.D in Facilities Management from Salford University, UK and 8 years of experience in property and asset management. Her research interests include facilities management, property management, social enterprise, and qualitative study. She teaches postgraduate students and conducts workshops on qualitative research methods and using NVivo for analysis.
This document provides information about lasers, including their history, principles, applications, characteristics, types, and components. It discusses how lasers were invented in 1958 and work using stimulated emission. Key applications mentioned include uses in CDs/DVDs, barcodes, welding, medicine, and more. The principles of how lasers achieve population inversion and stimulated emission are described. Different types of lasers like gas, solid, liquid, and semiconductor lasers are outlined. The basic elements that make up any laser system including the active medium, pumping energy, optical amplifier, and mirrors are also summarized.
Dept. of Biotechnology, University College of Science, Tumkur Tumkur University, Tumakuru, Dr. Krishna presented department profile to NAAC peer team on 28/11/2018
The document provides information about the Department of Biomedical Engineering at Dr. N.G.P. Institute of Technology. It discusses what biomedical engineering involves, the department's vision and mission, laboratories, faculty, student achievements, placement details, industry tie-ups, MoUs signed, and their aim to achieve excellence through various programs and activities.
(1) Photonic band gap (PBG) crystals can manipulate light in the same way semiconductors control electric currents. They prevent light propagation within a photonic band gap through Bragg scattering and defects.
(2) PBG crystals are fabricated by drilling holes in a dielectric material in a periodic lattice. This creates a range of frequencies where light is blocked.
(3) Applications include photonic crystal fibers for endlessly single mode fibers, photonic crystal lasers, filters, and planar waveguides for compact integrated photonic circuits. Future directions include all-optical transistors for terabit routing and quantum computing.
This document provides an outline for a course on fundamentals of photonics. It includes information on the course structure such as exams accounting for 30% each of the final grade and homework accounting for 20%. It also briefly outlines some of the topics to be covered in the course including optical properties of materials and metals, reflection and refraction, interference and diffraction. Contact information is provided for the instructor.
Lasers have many uses in ophthalmology, both therapeutic and diagnostic. Therapeutically, lasers are used to treat retinal disorders like diabetic retinopathy, macular edema and retinal detachments. They are also used in procedures like laser iridotomy and trabeculoplasty to treat glaucoma. Diagnostically, lasers are used in optical coherence tomography and scanning laser ophthalmoscopy to image the retina. Different types of lasers like argon, Nd:YAG and excimer interact with tissue in various ways such as coagulation, vaporization or ablation, depending on the wavelength and power. While lasers are generally safe, potential complications include pain, elevated pressure, retinal damage and
The document discusses the history and applications of lasers. It begins with a brief history of lasers, noting they were developed in the 1960s and have since revolutionized optics. It defines lasers as devices that generate light via stimulated emission. One example application is using lasers as the light source for fiber optic communication, allowing information to be transmitted quickly through glass fibers. The document outlines several other applications of lasers, including uses in the military, medicine, communication, and materials processing.
The document provides information on the basics of lasers and laser light. It defines LASER as an acronym for Light Amplification by Stimulated Emission of Radiation. It describes the key properties of laser beams including high coherence, intensity, directionality, and monochromaticity. It also discusses atomic transitions, population inversion, components of lasers including the active medium and optical resonator, and provides examples of specific lasers such as Nd:YAG lasers.
This document summarizes key concepts about laser beams and optical resonators:
1) Laser beam propagation can be described by the Helmholtz equation, with one solution being a Gaussian beam profile. The beam waist radius varies along the beam axis according to the Rayleigh range.
2) Optical resonators provide feedback to turn an amplifier into an oscillator. They contain mirrors between which light bounces and is amplified on each pass through the gain medium.
3) Resonator stability depends on the curvature and separation of the mirrors. Different resonator types support distinct transverse mode patterns within the beam.
This document summarizes the ruby laser. It begins by explaining that a ruby laser uses a synthetic ruby crystal as its laser medium, which was the first successful laser developed in 1960. It emits deep red light at a wavelength of 694.3 nm. The ruby crystal is doped with small amounts of chromium ions, which provide the necessary population inversion to achieve lasing. When optically pumped by a flash lamp, chromium ions are excited to higher energy states and decay to a metastable state, building up population inversion between that state and the ground state. Stimulated emission then produces coherent red light that is amplified as it reflects within the ruby crystal's resonance cavity and emerges through the partially reflective end.
Lasers in medicine, basic principles and applicationAugustine raj
This document discusses the principles of lasers, including:
1) Lasers work using the principle of stimulated emission of radiation, where atoms or molecules in an excited state emit photons when stimulated by an external source, producing an intense beam of coherent and monochromatic light.
2) Key terms include absorption, emission, population inversion, and stimulated emission, which are required for lasers to function.
3) Lasers have characteristics like monochromaticity, coherence, and collimation that make them useful surgical tools, though they also have disadvantages like cost and safety hazards that require special training.
The document discusses the history and theory of lasers. It begins by explaining that a laser is an optical amplifier based on stimulated emission of radiation, as proposed by Einstein in 1917. The first laser was built in 1960 by Maiman using a ruby crystal. Key aspects discussed include:
- Laser operation requires a population inversion between energy levels.
- Common laser types include ruby, He-Ne, and semiconductor lasers.
- Semiconductor lasers use the stimulated emission from a p-n junction.
- Holograms were first made possible by the invention of the laser as a coherent light source. Applications of holography include credit cards, medical imaging, and art.
This document discusses lasers and their applications. It defines lasers as optical devices that generate intense beams of coherent light through stimulated emission. Lasers are then described as having special properties like traveling long distances without spreading out. The document proceeds to list several applications of lasers, including in manufacturing, medicine, metrology, data storage, communications, displays, spectroscopy, microscopy, energy technology, and the military. Specific examples are provided for some of the applications.
What is Polarization?
Types of polarized light
Few related terms
Few laws related to polarization
Applications
FOR MORE VISIT: https://tariqalfayad.blogspot.com/
This belongs to Physical Chemistry portion and it contains most of
things about laser working and principles.
By Aaryan Tyagi's Group
M.Sc. Applied Chemistry (1 Sem)
Amity University, Noida
1) Fresnel's theory of diffraction explains that diffraction occurs due to the interference of secondary wavelets produced by unobstructed portions of the wavefront.
2) When considering the diffraction pattern at a point P, Fresnel divided the wavefront into concentric half-period zones centered on the point's pole O. The contribution of each zone to the intensity at P depends on the zone's area and distance from P.
3) For a large number of zones, the total intensity at P is approximately one fourth of that due to the first zone alone, explaining the dimming of light in diffraction patterns.
PET - Medical Cyclotrons: Overview and Recent Developments@Saudi_nmc
This document outlines a presentation given by Faisal Alrumayan on medical cyclotrons. It describes the cyclotron facilities at KFSHRC including older and newer cyclotrons. It provides basics on how cyclotrons work to accelerate particles and an overview of cyclotron components and critical parameters. The document discusses targetry, cyclotron operations and maintenance, applications of cyclotron beams including medical and industrial uses, and recent developments in the field.
This document discusses the use of lasers in orthopedic surgery. It describes how lasers interact with biological tissues through scattering, penetration and absorption, and how these effects can be used for biostimulation or bioinhibition depending on the wavelength and power. Applications of lasers in orthopedics include pain management, wound healing, nerve regeneration and treatment of injuries to soft tissues, joints, muscles and bones. Lasers provide benefits over traditional surgery such as smaller incisions, less bleeding and swelling, and faster recovery times.
The document discusses lasers, including their basics, how they work, types of lasers, and applications. It explains that lasers emit coherent, monochromatic, directional light through stimulated emission. Common types include solid-state, gas, dye, excimer, and semiconductor lasers. Lasers have many industrial, environmental, research, communications, and medical applications such as laser printers, barcode scanners, fiber optics, surgery, and distance measurement. They are used widely in everyday devices and settings.
This document provides an overview of lasers, including:
1. A definition of a laser as a device that generates light through stimulated emission.
2. Descriptions of the key components and processes that enable laser operation, including population inversion and optical feedback.
3. Examples of common laser applications like CD players, fiber optics, and medical devices.
4. Safety considerations regarding laser hazards and the importance of controls and personal protective equipment when working with lasers.
The document discusses the history and applications of laser technology. It begins with the origins of laser theory in Einstein's work and the invention of the laser in the 1950s. It then explains how different types of lasers work and lists common laser systems like solid state, liquid, gas and semiconductor lasers. The document outlines a wide range of applications for lasers in fields like military, medicine, industry and entertainment. It provides examples of laser use in surgeries, cutting and welding tools, CD players, and holography. In under 3 sentences.
Dr. Siti Uzairiah Mohd Tobi is a senior lecturer at UTM Razak School of Engineering and Advanced Technology, Universiti Teknologi Malaysia. She has a Ph.D in Facilities Management from Salford University, UK and 8 years of experience in property and asset management. Her research interests include facilities management, property management, social enterprise, and qualitative study. She teaches postgraduate students and conducts workshops on qualitative research methods and using NVivo for analysis.
This document provides information about lasers, including their history, principles, applications, characteristics, types, and components. It discusses how lasers were invented in 1958 and work using stimulated emission. Key applications mentioned include uses in CDs/DVDs, barcodes, welding, medicine, and more. The principles of how lasers achieve population inversion and stimulated emission are described. Different types of lasers like gas, solid, liquid, and semiconductor lasers are outlined. The basic elements that make up any laser system including the active medium, pumping energy, optical amplifier, and mirrors are also summarized.
Dept. of Biotechnology, University College of Science, Tumkur Tumkur University, Tumakuru, Dr. Krishna presented department profile to NAAC peer team on 28/11/2018
The document provides information about the Department of Biomedical Engineering at Dr. N.G.P. Institute of Technology. It discusses what biomedical engineering involves, the department's vision and mission, laboratories, faculty, student achievements, placement details, industry tie-ups, MoUs signed, and their aim to achieve excellence through various programs and activities.
The document is a report from the principal of Shridevi Institute of Engineering and Technology for the academic year 2009-2010. It provides details about:
1) The institution offers 6 undergraduate and 1 postgraduate courses with a total of 1480 students. It has well equipped labs and facilities like high speed internet.
2) The faculty are highly qualified and several have received doctoral degrees or are pursuing them. The institution has also been recognized as an R&D center.
3) Students participated in various conferences and competitions, with some winning prizes for their presentations. Training and placement activities helped secure placements for 68 students in various companies.
The document describes the Electrical and Electronics Engineering department of V.S.B. Engineering College. It provides information on the department's faculty, students, laboratories, curriculum, projects, and industry interactions. Some key details include that the department has been established since 2002, currently has a intake of 60 UG and 18 PG students, and is NBA accredited. It offers a B.E. in Electrical and Electronics Engineering over 8 semesters. The department has 6 laboratories including an industry supported lab with Tessolve Semiconductor Private Ltd. It outlines the various criteria and processes used for curriculum delivery and student development.
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Collaborative, Program-wide Alignment of Assessments and ePortfolios to Build...ePortfolios Australia
During their course of study, medical science students are generally unaware that they are developing professional skills related to graduate capabilities. Interestingly, at a program level the institution finds it difficult to view the development of these capabilities. In this session we will discuss our own learning journey as discipline specific teachers who have worked collaboratively to implement ePortfolios and rubrics across courses and within the medical science degree program at UNSW Australia. Our approach to supporting student learning and development of reflective practice and professional skills in teamwork by cross-discipline alignment of assessment coupled with ePortfolio thinking and doing will be presented.
ICWES15 - Undergraduate Research Initiative at a Community College. Presented...Engineers Australia
The document outlines a 3-phase action plan to introduce and establish an undergraduate research program at Springfield Technical Community College. Phase I focuses on introducing the concept to faculty and gaining support. Phase II develops the program design and infrastructure. Phase III implements the program by recruiting students and faculty, pursuing funding, and establishing assessment tools. The goals are to enhance the student experience, improve performance and transfer opportunities, and foster collaboration with academic and industry partners.
The document discusses the vision, mission, aims and objectives of the Sant Gadge Baba Amravati University Botany department. It aims to achieve academic excellence in plant science education and research. Key goals include imparting education through teaching and research, motivating students to undertake research, and promoting scientific awareness and environmental conservation. The department offers MSc and PhD programs and has revised its curriculum periodically. It is committed to excellence in teaching-learning and research promotion. Infrastructure includes classrooms, laboratories, library and equipment to support education and research.
This document outlines the criteria and process for defining the vision, mission, program educational objectives, and program outcomes of a Mechanical Engineering department. It discusses gathering input from students, industries, alumni, faculty/staff, management, and the governing body to determine the department's vision and missions. The program outcomes are defined by the National Board of Accreditation and include applying engineering knowledge, designing solutions, using modern tools, understanding professional and ethical responsibility, working in teams, communicating effectively, managing projects, and engaging in lifelong learning.
The document provides an overview of the Electrical and Electronics Engineering department at Jerusalem College of Engineering. It outlines the department's vision and mission to produce competent engineers. It details the department's achievements, faculty, facilities, teaching-learning processes and student performance. The department has received several awards and has carried out funded projects. It aims to assist slow learners and encourage bright students through various programs and incentives.
This document outlines the course syllabus for ELS 13 Fundamentals in Electronics at Bicol University. The course is a 2-unit lecture and 1-unit laboratory course offered in the second semester of the first year for Bachelor of Science in Electronics Technology students. The course covers the fundamentals of electronic devices including vacuum tubes, semiconductors, diodes, transistors, amplifiers, and receivers. The syllabus details the course learning outcomes, topics, assessment methods, references, and policies.
This document provides information about the Chemistry department of Dandkaranya Educational and Cultural Development Research Society Gadchiroli. It includes profiles of 3 faculty members, their qualifications and research contributions. It also discusses the department's vision, mission, objectives, strengths, weaknesses and student enrollment numbers over the years. Key highlights include research publications by faculty, student-teacher ratios, results analysis, departmental webinars and an MOU with the soil testing department. It concludes with details of a best practice involving students distributing soil health cards to local farmers.
The document provides an overview of the Department of Electronics and Communication Engineering at Raghu Institute of Technology. Some key details include:
- The department has been approved by AICTE and affiliated to JNTUK. It has been accredited with an 'A' grade by NBA and NAAC.
- It offers UG and PG programs in ECE with a total sanctioned intake of 180 and 18 students respectively.
- The department has 07 faculty members with PhDs and 12 more pursuing PhDs. Faculty have published over 50 papers in conferences and journals.
- The department has an innovative computing and IoT lab. It also has research collaborations and MoUs with various industries and institutions.
The document outlines the vision, mission, and activities of the Internal Quality Assurance Cell (IQAC) of GFGC College in Byadgi, India. It discusses the IQAC's goals of imparting quality higher education, developing students, and improving teaching quality. It summarizes the IQAC's efforts to enhance teaching-learning, obtain student feedback, organize events, conduct research, and develop infrastructure and student support. The IQAC plans to continue its work while further developing facilities, programs, and interactions between students, teachers, and alumni.
Lecture 1-Introduction to labour market skills (1).pptxShorooqSuleiman1
Introduction to labor market skills in Biology like : Define evidence-based medicine (EBM).
Explain the reasons for practicing EBM.
List the steps for practicing EBM.
Formulate background and foreground questions to be answered by EBM.
Detail the levels of scientific evidence in health care.
Use resources for EBM: pre-appraised evidence (Up-to-date, DynaMed, etc…) or search engines (PubMed, Medline, Google, Google Scholar).
Describe how science and practice of health care is moving forward from basic research to practice (translational science).
Define IT and IoT.
Identify the criteria needed to use IoT in health care.
Describe how technology, basic science and research has changed the job market.
Describe how technology, basic science and research has changed the job market.
Define “Big Data” and how it is collected.
Recognize the advantages and disadvantages of large data collection.
Identify the uses of IoT in medical education.
Describe the uses of IoT in virtual lab and surgical simulation.
The document provides details about the upcoming visit of the UGC Expert Committee to the Department of Civil Engineering at Dr. K. V. Subba Reddy Institute of Technology on February 18-19, 2023. It includes an outline of topics to be covered during the visit related to the department profile, vision and goals, faculty details, achievements, student enrollment, teaching-learning process, facilities, and collaborations. The department aims to provide quality civil engineering education and conduct research and has 27 full-time faculty members and around 191 students currently enrolled.
Dr. Nilesh D. Wagh is an experienced educator and administrator in the field of education management with over 12 years experience. He is currently an Assistant Professor at Amity University Mumbai where he develops curriculum, teaches courses in biotechnology and environmental science, conducts research, and oversees administrative tasks. The document provides details of his educational background, career highlights, skills, research publications, and responsibilities in previous roles as Assistant Professor at North Maharashtra University.
The document summarizes the goals and competencies of the Electrical Engineering program at Tadulako University. The key goals are to develop integrity, entrepreneurship, collaboration skills, and competence in electrical engineering. Main competencies include knowledge of electricity, electronics, control systems, and industrial applications. The program offers laboratories, apprenticeship opportunities, and has partnerships with private companies and government agencies. It aims to prepare students for careers in the electricity sector.
Optimizing Gradle Builds - Gradle DPE Tour Berlin 2024Sinan KOZAK
Sinan from the Delivery Hero mobile infrastructure engineering team shares a deep dive into performance acceleration with Gradle build cache optimizations. Sinan shares their journey into solving complex build-cache problems that affect Gradle builds. By understanding the challenges and solutions found in our journey, we aim to demonstrate the possibilities for faster builds. The case study reveals how overlapping outputs and cache misconfigurations led to significant increases in build times, especially as the project scaled up with numerous modules using Paparazzi tests. The journey from diagnosing to defeating cache issues offers invaluable lessons on maintaining cache integrity without sacrificing functionality.
Electric vehicle and photovoltaic advanced roles in enhancing the financial p...IJECEIAES
Climate change's impact on the planet forced the United Nations and governments to promote green energies and electric transportation. The deployments of photovoltaic (PV) and electric vehicle (EV) systems gained stronger momentum due to their numerous advantages over fossil fuel types. The advantages go beyond sustainability to reach financial support and stability. The work in this paper introduces the hybrid system between PV and EV to support industrial and commercial plants. This paper covers the theoretical framework of the proposed hybrid system including the required equation to complete the cost analysis when PV and EV are present. In addition, the proposed design diagram which sets the priorities and requirements of the system is presented. The proposed approach allows setup to advance their power stability, especially during power outages. The presented information supports researchers and plant owners to complete the necessary analysis while promoting the deployment of clean energy. The result of a case study that represents a dairy milk farmer supports the theoretical works and highlights its advanced benefits to existing plants. The short return on investment of the proposed approach supports the paper's novelty approach for the sustainable electrical system. In addition, the proposed system allows for an isolated power setup without the need for a transmission line which enhances the safety of the electrical network
Batteries -Introduction – Types of Batteries – discharging and charging of battery - characteristics of battery –battery rating- various tests on battery- – Primary battery: silver button cell- Secondary battery :Ni-Cd battery-modern battery: lithium ion battery-maintenance of batteries-choices of batteries for electric vehicle applications.
Fuel Cells: Introduction- importance and classification of fuel cells - description, principle, components, applications of fuel cells: H2-O2 fuel cell, alkaline fuel cell, molten carbonate fuel cell and direct methanol fuel cells.
Embedded machine learning-based road conditions and driving behavior monitoringIJECEIAES
Car accident rates have increased in recent years, resulting in losses in human lives, properties, and other financial costs. An embedded machine learning-based system is developed to address this critical issue. The system can monitor road conditions, detect driving patterns, and identify aggressive driving behaviors. The system is based on neural networks trained on a comprehensive dataset of driving events, driving styles, and road conditions. The system effectively detects potential risks and helps mitigate the frequency and impact of accidents. The primary goal is to ensure the safety of drivers and vehicles. Collecting data involved gathering information on three key road events: normal street and normal drive, speed bumps, circular yellow speed bumps, and three aggressive driving actions: sudden start, sudden stop, and sudden entry. The gathered data is processed and analyzed using a machine learning system designed for limited power and memory devices. The developed system resulted in 91.9% accuracy, 93.6% precision, and 92% recall. The achieved inference time on an Arduino Nano 33 BLE Sense with a 32-bit CPU running at 64 MHz is 34 ms and requires 2.6 kB peak RAM and 139.9 kB program flash memory, making it suitable for resource-constrained embedded systems.
Using recycled concrete aggregates (RCA) for pavements is crucial to achieving sustainability. Implementing RCA for new pavement can minimize carbon footprint, conserve natural resources, reduce harmful emissions, and lower life cycle costs. Compared to natural aggregate (NA), RCA pavement has fewer comprehensive studies and sustainability assessments.
Redefining brain tumor segmentation: a cutting-edge convolutional neural netw...IJECEIAES
Medical image analysis has witnessed significant advancements with deep learning techniques. In the domain of brain tumor segmentation, the ability to
precisely delineate tumor boundaries from magnetic resonance imaging (MRI)
scans holds profound implications for diagnosis. This study presents an ensemble convolutional neural network (CNN) with transfer learning, integrating
the state-of-the-art Deeplabv3+ architecture with the ResNet18 backbone. The
model is rigorously trained and evaluated, exhibiting remarkable performance
metrics, including an impressive global accuracy of 99.286%, a high-class accuracy of 82.191%, a mean intersection over union (IoU) of 79.900%, a weighted
IoU of 98.620%, and a Boundary F1 (BF) score of 83.303%. Notably, a detailed comparative analysis with existing methods showcases the superiority of
our proposed model. These findings underscore the model’s competence in precise brain tumor localization, underscoring its potential to revolutionize medical
image analysis and enhance healthcare outcomes. This research paves the way
for future exploration and optimization of advanced CNN models in medical
imaging, emphasizing addressing false positives and resource efficiency.
ACEP Magazine edition 4th launched on 05.06.2024Rahul
This document provides information about the third edition of the magazine "Sthapatya" published by the Association of Civil Engineers (Practicing) Aurangabad. It includes messages from current and past presidents of ACEP, memories and photos from past ACEP events, information on life time achievement awards given by ACEP, and a technical article on concrete maintenance, repairs and strengthening. The document highlights activities of ACEP and provides a technical educational article for members.
Literature Review Basics and Understanding Reference Management.pptxDr Ramhari Poudyal
Three-day training on academic research focuses on analytical tools at United Technical College, supported by the University Grant Commission, Nepal. 24-26 May 2024
1. E.G.S. PILLAY ENGINEERING COLLEGE
(An Autonomous Institution, Affiliated to Anna University, Chennai)
Nagore Post, Nagapattinam – 611 002, Tamilnadu.
19.07.2023 & 20.07.2023
Presented by
Dr. A. SUNDAR RAJ, M.E., Ph.D.,
Head of the Department & Chairman – BoS
DEPARTMENT OF BIOMEDICAL ENGINEERING
NAAC PEER TEAM
WELCOMES
2. B.E. Biomedical Engineering
PROGRAMMES OFFERED
ACHIEVEMENTS
/
RECOGNITIONS
2019
BE (BME)
Program Started
With 60 Intake
2021
MOU Signed -
J Tech
Instruments,
Chennai,
08.04.2021
2022
MOU Signed
Pinnacle
Medicals, Madurai
21.04.2022
2021
2020 – 2021
3 Events
2021
2021 – 2022
3 Events
2022
2022 – 2023
2 Days Medical
Camp
2022
MOU Signed
Atheena Pandian
21.09.2022
2022
Association
Inaguration
B-MEDEER’S
20.05.2022
2020
ISO Certification
2020
Established the
four Labs
2021
2nd BOS Meeting
Conducted
2020
1st BOS Meeting
Conducted
2022
BMESI –
Institutional
Membership
2022
MOU Signed IBSC
- AMTZ
16.02.2022
3. To provide world class education to the students and to bring out their inherent talents.
To establish state-of- the-art facilities and resources required to achieve excellence in teaching
learning and supplementary processes.
To recruit competent faculty and staff and to provide opportunity to upgrade their knowledge
and skills.
To have regular interaction with the Industries in the area of R&D and offer consultancy,
training and testing services.
To establish centers of excellence in the emerging areas of research.
To offer continuing education and non-formal vocational education programmes that are
beneficial to the society.
Envisioned to transform our institution into a "Global Centre of Academic
Excellence"
INSTITUTION
VISION,
MISSION
4. To produce competent Biomedical Engineers through quality education and training.
To maintain state-of-the-art learning facilities, enhance the competence of faculty and evolve as a
centre of excellence through R&D.
To develop skilled professionals with academic reliability, good communication, attitude towards
lifelong learning, ability to be team player.
To bridge the gap between the industry and academia with expanding collaboration and partnerships
with industry through MOUs, projects and consultancy fulfilling the societal needs.
To achieve excellence in Biomedical engineering education and serve as a valuable resource
Centre to the industry and the society.
DEPARTMENT
VISION,
MISSION
5. PROGRAM EDUCATIONAL OBJECTIVES
VISION,
MISSION
&
PEOs
Program Educational Objectives
PEO1
• Have successful professional career in Biomedical Engineering and its related
disciplines or become an entrepreneur or pursue higher education.
• (Professionalism – Higher Education – Entrepreneur)
PEO2
• Apply the knowledge of Biomedical Engineering to find optimal solution to the
real-world problems in Medical research.
• (Technical Expertise and Research)
PEO3
• Exhibit communication skill, lifelong learning attitude, team work capability,
ethical and moral values and out of box thinking in their professional career.
• (Skills and Attitude)
6. PROGRAM SPECIFIC OUTCOMES
VISION,
MISSION
&
PSOs
6
PSO1
• Identify, analyze and solve the real-life problems by applying principles of Biomedical
engineering with novelty.
PSO2
• Design, develop and specify the mathematical model to understand the inter- relation
among various Physiological systems.
PSO3
• Investigate, implement and demonstrate various applications of the engineering and
physiological subsystems in designing and developing human body systems.
Program Specific Outcomes
7. UG – B.E – BiomedicalEngineering
No. of UG Programs in the Department: 01
Student Details
STUDENTS
INFORMATION
&
CONTRIBUTION
C5
S. No II Year III Year IV Year
Gender Boys Girls Boys Girls Boys Girls
Strength 30 38 33 27 16 43
Total 68 60 59
8. UG – B.E – Biomedical Engineering
No. of UG Programs in the Department: 01
Teaching Faculty Details
FACULTY
INFORMATION
&
CONTRIBUTION
C5
S. No Name Designation Date of Birth Qualification Academic Experience
1 Dr. A. Sundar Raj Professor 18-05-1982
B.E – Electronics and Communication Engineering
M.E – Applied Electronics
Ph.D – Information and Communication Engineering
15 Years and 04 Months
2 Dr. M. Malathi Associate Professor 25-07-1979
B.E – Electronics and Communication Engineering
M.E – Communication Systems
Ph.D –Electronics and Instrumentation Engineering
18 Years and 5 Months
3 S. Jim Hawkinson Assistant Professor 28-06-1984
B.E – Electronics and Communication Engineering
M.E - VLSI
16 Years and 8 Months
4 K. Kalanithi Assistant Professor 29-04-1982
B. E - Electronics and Instrumentation Engineering
M.Tech – Control and Instrumentation
11 Years and 10 Months
5 R. Kiruthika Assistant Professor 12-06-1995
B.E – BioMedical Engineering
M.E – Rehabilitation Instrumentation
3 Years and 3 Months
6 R. Venkatesan Assistant Professor 12-11-1986
B.E – Electrical and Electronics Engineering
M.Tech – Nano Electronics
Ph.D – Electronics and Instrumentation Engineering
5 Years and 6 Months
7 E. Srithaladevi
Assistant Professor
10-11-1995
B.E – Instrumentation and Control Engineering
M.E – Medical Electronics 16 Days
8 S. Sasippriya
Assistant Professor
04-06-1994
B.E – Instrumentation and Control Engineering
M.Tech – Embedded Systems
16 Days
9
N. Vikraman
Assistant Professor 28-05-1984
B.E - Electronics and Communication Engineering
M.E – Medical Electronics
1 Year and 2 Months
10 S. Kiruthiga Assistant Professor 19-08-1994
B.E - Electronics and Communication Engineering
M.E – Communication Systems
2 Years and 3 Months
11 K. Roshini Assistant Professor 30-09-1997
B.E - Electronics and Communication Engineering
M.E – Communication Systems
1 Year and 3 Months
12 K. Ramya Assistant Professor 11-07-1991
B.E - Electronics and Communication Engineering
M.E – Communication Systems
06 Months
9. UG – B.E – Biomedical Engineering
No. of UG Programs in the Department: 01
Non Teaching Details
NON
TEACHING
INFORMATION
&
CONTRIBUTION
C5
S. No Name Designation Date of Birth Qualification Academic Experience
1
M. Tamizharasi
Lab
Assistant
25-04-1997
Electronics and Communication
Engineering
02 Years – Industry
04 Months
2
K. Janaki
Technical
Assistant
15-02-1981
Biochemistry & Microbiology 15 Years
3
G. Vaithegi
Technical
Assistant
25-06-1997
Diploma in Instrumentation and
Control Engineering
03 Months
4
K. Umamaheswari
Technical
Assistant
11-11-1988
ITI – Industrial Electronics 01 Month
10. IJ / NJ 15
Scopus /ISI Indexed 10
SCI/SCI Ex Indexed Journals 15
Total No. of Faculty 12
Ph.D 03
Ph.D (Pursuing) 03
M.E/M.Tech 06
Faculty Qualification
Total No. of Faculty 12
Professor 01
Associate Professor 01
Assistant Professor 10
ACTIVITY COUNT
Journal Reviewer 04
Ph.D Examiner
/DC Member
01
Pursuing Ph.D in our
Research Centre -
Pursuing Ph.D in other
Research centre 03
Keynote Speaker/ Guest
Lecture 02
C5
FACULTY
INFORMATION
&
CONTRIBUTION
Faculty Information
Faculty Qualification
Faculty Cadre
Faculty Publications
Interaction with outside world
C5
11. Laboratory
Biosensor and Transducers Laboratory.
Biomedical Instrumentation / Diagnostic and Therapeutic Equipment's Laboratory.
Bio Chemistry and Human Physiology Laboratory.
Pathology and Microbiology Laboratory.
12. MOU’S SIGNED
The department had signed MoUs with
IBSC – AMTZ, Andhra Pradesh – 530 031.
Atheena Pandian Private Limited, Courtallam – 627 802.
Pinnacle Medicals, 143, Vijay Nagar, Menanedhal, Umachikulam Post, Madurai – 625 014.
J Tech Instruments, Burma Colony, Perungudi, Chennai – 600 096.
18. For Academic Activities:
Top three students in each semester are awarded by
Medal and Certificate in Dr. Chev. G.S. Pillay Academic
Achievers day function.
For Non-Academic Activities:
Motivating students to participate in Association,
Chapters and Professional Societies activities. Also in
Extra and Co-curricular activities such as Sports,
Cultural, NSS, Social Responsibilities, etc.
Motivating students to conduct symposium, association
activities, professional societies and club activities.
Arranging Motivational programmes, career guidance
programmes and skill up gradation programmes
periodically.
ENCOURAGING BRIGHT STUDENTS
19. 19
ASSISTING WEAK STUDENTS
For academic Activities:
For students having arrear in the End semester examination, special classes
are arranged in study holidays and pre-exam holidays
For Students scoring less than 70% of marks in Internal Assessment,
Student counselor follows their progress, regularly advice students about
attending classes, making up classes missed and getting additional help.
Intimating parents to counsel their wards
Students having 100% attendance are honored by certificate in
Dr. Chev. G.S. Pillay academic achievers day function
For Non-academic Activities:
For improving behavioral matters, Counseling by faculty, peer mentoring,
HoD / Principal Counseling, Experts counseling (In house Psychologist) are
arranged
Motivating students to participate curricular, extra-curricular and co-
curricular activities
21. • Conductive environment for research and innovative
thinking
• Practical oriented teaching, Hospital field visits and
assignments
• Science exhibition models into papers - Leads to more
prizes in IITs and NITs
• Students’ Projects into Journal Papers & Conference
• Project Laboratory – In house innovations
• BMESI students chapter
BEST PRACTICES
22. Placement
• One student S. Rahilah Noor placed in CTS
• 15 students placed in Healthwatch Tele
diagnostics Private Limited
• 10 students placed in Episource
23. FEEDBACK, ACTION TAKEN AND IMPROVEMENT
(Outcome Based Education)
COURSES
1. Class Committee meeting
2. Students Feedback
3. Course End Survey
SURVEY
1. Parent Survey
2. Event Feedback
ANALYSIS REPORT
1. Graduate Exit Survey
2. Students Feedback
3. Alumni Survey
4. Course Attainment
SAMPLE
1. Peer Mentor - TLC
2. Self Learning
3. Employer Survey
24. FUTURE PLAN
To establish PG Programme and Research Centre Recognition to promote research on
BME.
R 2023 Curriculum Will be Changed.
Collaboration with foreign universities for advanced research and to carry out Sponsored
& Funded projects.
To inaugurate the BMESI Student Chapter this forthcoming semester.
To start Incubation center in association with IBSC – AMTZ in the forthcoming Academic
year.