This document is a resume for Gaurav Gandhi, a Biomedical Engineer with over 3 years of experience in research and development. He has a Master's degree in Biomedical Engineering from Drexel University and is currently working on developing medical devices at Artann Labs, including an ultrasonometer for skeletal assessment and a method for enhancing brain drug delivery using acoustic techniques. He is proficient in various engineering and programming skills and seeks opportunities in the medical device industry.
Suitable for:
1. Technicians, engineers and researchers
2. Decision makers, policy makers, and managers
Engineering materials are the core of any engineering products. The performance of the products is determined by the behaviour and characteristics of the designed materials according to their required specifications. Therefore, it is extremely important to understand the characteristics of the materials. This can be done by performing an appropriate and reliable characterization or testing on the materials. By doing that, information that is of interest namely electrical, mechanical, thermal, optical, and chemical property can be acquired and subsequently correlate with the product performance. To acquire this information, knowledge of characterization tools, limitation of the tools, and application of the tools is essential. By having this knowledge, it may help engineers and researchers to select a suitable tool for a specific purpose. The characterization techniques being introduced are suitable for materials with dimensionality ranging from nanometer to macrometer scale (or nanostructures to bulk materials).
Suitable for: 1. Technical Personnel and Decision-Makers are encouraged to participate in this training. 2. DECISION MAKERS: Technical Directors, Managers, Purchasers. 3. TECHNICAL PERSONNEL: Lecturers, Technical Sales, Marketing, Failure Analysis, Research & Development, Quality Control and Assurance, Production Engineers or Technicians. The characteristic of surface and near-surface regions of materials can be characterised by various surface analysis techniques. Applications of many engineering materials are determined by the surface and near-surface structures. Therefore, the well being of this region is essential in order to obtain a pre-required condition for those materials to be applied for a specific application. Typically, failure of engineering products may be traced back to surface/near-surface contamination or surface reconstruction. In order to obtain more information related to the failure, in-sight of these regions need to be exposed. This course is outlined to introduce basic principles of surface science, which serve as an essential foundation to explain the operation concepts and applications of several important surface analysis techniques. Know-how of interpreting the analysis data is also explained in this “easy-to-follow” and “easy-to-understand” training course. With these and the support of brief but sufficient fundamental theories, skill of selecting a relevant technique with respect to its practical engineering usage will be covered. Ultimate goal for this course is to increase level of knowledge in making a correct technical decision to solve surface related issues and transform knowledge into applications.
Suitable for:
1. Technicians, engineers and researchers
2. Decision makers, policy makers, and managers
Engineering materials are the core of any engineering products. The performance of the products is determined by the behaviour and characteristics of the designed materials according to their required specifications. Therefore, it is extremely important to understand the characteristics of the materials. This can be done by performing an appropriate and reliable characterization or testing on the materials. By doing that, information that is of interest namely electrical, mechanical, thermal, optical, and chemical property can be acquired and subsequently correlate with the product performance. To acquire this information, knowledge of characterization tools, limitation of the tools, and application of the tools is essential. By having this knowledge, it may help engineers and researchers to select a suitable tool for a specific purpose. The characterization techniques being introduced are suitable for materials with dimensionality ranging from nanometer to macrometer scale (or nanostructures to bulk materials).
Suitable for: 1. Technical Personnel and Decision-Makers are encouraged to participate in this training. 2. DECISION MAKERS: Technical Directors, Managers, Purchasers. 3. TECHNICAL PERSONNEL: Lecturers, Technical Sales, Marketing, Failure Analysis, Research & Development, Quality Control and Assurance, Production Engineers or Technicians. The characteristic of surface and near-surface regions of materials can be characterised by various surface analysis techniques. Applications of many engineering materials are determined by the surface and near-surface structures. Therefore, the well being of this region is essential in order to obtain a pre-required condition for those materials to be applied for a specific application. Typically, failure of engineering products may be traced back to surface/near-surface contamination or surface reconstruction. In order to obtain more information related to the failure, in-sight of these regions need to be exposed. This course is outlined to introduce basic principles of surface science, which serve as an essential foundation to explain the operation concepts and applications of several important surface analysis techniques. Know-how of interpreting the analysis data is also explained in this “easy-to-follow” and “easy-to-understand” training course. With these and the support of brief but sufficient fundamental theories, skill of selecting a relevant technique with respect to its practical engineering usage will be covered. Ultimate goal for this course is to increase level of knowledge in making a correct technical decision to solve surface related issues and transform knowledge into applications.
An Efficient Approach for Ultrasonic Characterization of Biomaterials using N...inventionjournals
The methodology for characterization of biomaterial is the source of signal, Biomaterial and the response detector. The high frequency ultrasonic signal generator generates signals of high frequency suitable for biomaterial characterization. In this system, Ultrasonic signals are made to fall on the biomaterial to be characterized. While passing through the biomaterial, the ultrasonic signals are absorbed, reflected and scattered along different directions. The transmitted and reflected received signals are sense and detect by receiving transducer. The sensor produces proportional current in microamperes. This current will be applied to sensing circuit, which converts current into proportional amplified voltage with the help of Op-Amp. An Analog to Digital Converter (ADC) converts analog signal into digital signal. This digital signal provides data to a computer. Data acquisition circuit interconnects the PC and driver software to which the data is input. Driver software makes NI LabVIEW to interact with hardware. The PC with LabVIEW platform is used to study characteristics of the biomaterials.
To associate with an organization where I can utilize my skills and academic knowledge and be a part of the team that works towards the growth of the organization.
To associate with an organization where I can utilize my skills and academic knowledge and be a part of the team that works towards the growth of the organization.
1. GAURAV GANDHI
2517 Dunksferry Road, Apt M-107 gauravcgandhi@gmail.com
Bensalem, PA-19020 Mobile: 267-252-7708
OBJECTIVE
I am a Biomedical Engineer with more than 3 years of R&D experience. I am looking for career opportunities in medical
device industry. I want to work in a fast paced and result oriented environment where, I can contribute to the organization and
at the same time continue my quest of knowledge.
EDUCATION
Masters of Science, Biomedical Engineering (2006-2009)
Drexel University, Philadelphia, PA – 19104, GPA – 3.6
Bachelor of Technology, Bioengineering (2002-2006)
Shanmugha Arts, Science, Technology and Research Academy, India, GPA – 3.6
SKILL SET
Techniques – Transducer design and characterization, Hydrophone calibration (Upto 100 MHz, Using TDS,
TGFA and Time Reversal Acoustic (TRA)), Acoustic Measurements using PVDF membrane/Needle
hydrophone and Optical Fibers, Non Destructive Testing(NDT) using TRA to detect different mechanical
defects, Characterize electro mechanical devices using Laser Vibrometer.
Instruments – Network Analyzer, Function Generator, Power Amplifier, Spectrum Analyzer, SonoSite’s
Handheld Ultrasound Imaging system, HIFU systems, Polytec Laser Vibrometer.
Languages
Software - Matlab, AutoCAD, Labview, Image J, MSOffice
Operating System – Windows (2000/XP/VISTA)
FDA protocols and 510K development, Phase II and Phase III proposals for devices.
PROFESSIONAL EXPERIENCE
Artann Labs
Biomedical Engineer (April 2009-Present)
Currently working on development of Scanning Ultrasonometer for assessment of skeletal system.
- Responsible for design validation/verification, assembling and characterization of sonometer system for
diagnosis of Osteoporosis/Osteopenia and other skeletal system conditions according to physician’s demands
and ergonomics.
- Development of a comprehensive testing protocol for the system, with understanding of acoustics and its
biological implications.
- Worked with the regulatory team to prepare the system for IRB and subsequent clinical trials.
Development of a novel NDT technique for Friction Stirred Weld using Nonlinear Time Reversal
Acoustics.
Working on the project regarding development of a methodology to enhance brain drug delivery using Time
Reversal Acoustics. The Project involves understanding of acoustic propagation through skull, transducer
design and characterization. Involved in development of in-house hydrophone and its calibration for the
desired frequency using TRA.
Experience in writing funding grants of advanced Phase III NASA grants.
Drexel University, Philadelphia, Pa
School of Biomedical Engineering Science and Health System, (Jan 2007-March 2009)
Research Assistant
Determination of phase characteristics for PVDF membrane hydrophones in the frequency range 1-100 MHz
using nonlinear acoustics approach.
Obtain the Acoustic, Pressure Time waveform generated by a HIFU source and a Needle or Sonora/Marconi
Hydrophone.
Simulation of nonlinear field generated by a HIFU source, using the JW model on MathCAD and FORTRAN, to
model the pressure time waveform considering similar boundary conditions as used for measurement.
Calibration of the measurements with respect to the model and.
Calibration verification using PiezoCAD to simulate the response of a hydrophone with specified boundary
conditions.
Signal processing and signal analysis using MATLAB.
2. School of Biomedical Engineering Science and Health System, (April – June 2008).
Student
Conceptualized and conceived a design and project development plan for a Wireless Embedded Intracranial
Pressure Monitoring Device according to FDA regulation protocol. The device proposed would provide real
time intracranial pressure monitoring during neurological surgeries.
Understand the hazards associated with the device, and developed its requirements and design specifications.
Developed its 510(k) Application of FDA for the implantable device.
Hahnemann Hospital, Drexel University, (2007)
Clinical Analyst
Keenly observed the dynamics of ICU and Emergency units of a world renowned hospital. Studied the surgeries
performed on heart and knee, and prepared reports for it.
Presented and submitted a paper; OCR (Optical Character Recognition) Based Hospital Management
System, suggesting improvements in the management and the economics of the hospital using an auto updating
and smart OCR system.
Drexel Plasma Institute, (Oct-Dec 2006)
Research Fellow
Designed the Plasma reactor on AutoCAD which satisfied the parameters obtained from the simulations for H 2S
dissociation using non equilibrium plasma of gliding arc tornado discharge for hydrogen extraction.
The design for carried forward to the mechanical department for the final construction of the plasma reactor.
Drexel University, (Sep2007-March 2009)
Instructor and Teaching Assistant for Graduate Courses: Bioacoustics (Theory and Lab) & Ultrasound Imaging
Supported students with problems regarding the course content and assigned projects.
Conducted extra study sessions to clear the concepts of the courses for the students and supported them with the
needed materials.
Assisted to design the course material and exercises.
Indian Institute of Chemical Technology, Hyderabad, India, (Jan-March 2006)
Summer Intern
Biohydrogen production using anaerobic fermentation, from Industrial waste.
Designed and conducted the experiments to record the activity of the reactor on a daily basis.
Improved the functioning and the efficiency of the reactor by utilizing the previously obtained results of
biochemical reactions in bacterial metabolism.
Monitored the growth and condition of the Bacteria, and took critical decisions regarding the feed and the
temperature, and documented the results for future experiments.
B.V. Patel PERD Centre, Ahmadabad, India, (May - July 2005)
Summer Term Trainee
Protein structural modeling of check point protein - NIBRIN.
Researched about the Protein NIBRIN, It’s functioning; it’s various physical and chemical properties.
Predicted the three dimensional structure of the protein using Homology Modeling and Protein Threading, using
BLAST, MODELLER, and SWISS PDB.
PUBLICATIONS AND AWARDS
“Broadband Fiber Optic Hydrophone Sensors for Sub-Millimeter Ultrasound Resolutions,” R. Gopinath, P.Arora, G.
Gandhi, L. Bansal, A.S. Daryoush, P.A. Lewin ,M. El-Sherif, MWP 2008, Gold coast, Australia, September 2008.
Best poster award - “ Thin film metal coated Fiber Optic Hydrophone Probe,” R. Gopinath, P.Arora, G. Gandhi, A.S.
Daryoush, P.A. Lewin, M. El-Sherif, Photonics 2008, IIT Delhi, India, December 2008.
Rupa Gopinath Minasamudram, Piyush Arora, Gaurav Gandhi, Afshin S. Daryoush, Mahmoud A. El-Sherif, and
Peter A. Lewin, "Thin film metal coated fiber optic hydrophone probe," Applied. Optics. 48, G77-G82, 2009.
ACTIVITIES & PROFESSIONAL MEMBERSHIPS
Institute of Electrical and Electronics Engineers IEEE, Drexel University, (Jan 2007-Jan 2008).
Treasurer
Managed all the funds of the IEEE Drexel Chapter of Graduate Students (DIG), ranging from $8000-$10000 per
annum.
Networked with other organizations, and worked with a team for organizing Events and Educate new students
regarding the benefits of IEEE
Organized IEEE Technical Poster Symposium at Drexel University in March 2008, and won Star Organization
Award for the same.