Jani Pallis

Biomedical engineering principles in sports

I. Golf.- 1. Aerodynamics ofthe Golf Ball.- 2. Engineering Methodology in Golf Studies.- 3. Physics and Mechanics of the Golf Swing.- 4. Eye and Head Movements During the Golf Putting Stroke.- II. Tennis.- 5. Tennis Ball Aerodynamics and Dynamics.- 6. Shoe-Surface Interaction in Tennis.- 7. Biomechanics of Tennis Strokes.- 8. Optimizing Ball and Racket Interaction.- III. Baseball.- 9. Biomechanics of Pitching.- 10. The Rising Fastball and Other Perceptual Illusions of Batters.- IV. Football and Soccer.- 11. Aerodynamics of the Forward Pass.- 12. Biomechanics of Tackling.- 13. Biomechanics and Aerodynamics in Soccer.- V. Basketball.- 14. Aerodynamics and Biomechanics of the Free Throw.- 15. Make Every Free Throw.- VI. Performance and Rehabilitation.- 16. Vision Training and Sports.- 17. Application ofBiomedical Principles to the Maturation of Skills in Children.- 18. Medical Advances in the Treatment of Sports Injuries.

Evaluation of Novel Design Strategies for Developing Zinc Finger Nucleases Tools for Treating Human Diseases

Zinc finger nucleases (ZFNs) are associated with cell death and apoptosis by binding at countless undesired locations. This cytotoxicity is associated with the binding ability of engineered zinc finger domains to bind dissimilar DNA sequences with high affinity. In general, binding preferences of transcription factors are associated with significant degenerated diversity and complexity which convolutes the design and engineering of precise DNA binding domains. Evolutionary success of natural zinc finger proteins, however, evinces that nature created specific evolutionary traits and strategies, such as modularity and rank-specific recognition to cope with binding complexity that are critical for creating clinical viable tools to precisely modify the human genome. Our findings indicate preservation of general modularity and significant alteration of the rank-specific binding preferences of the three-finger binding domain of transcription factor SP1 when exchanging amino acids in the 2nd finger.

Recent Directions in Remote Engineering and Virtual Instrumentation

The 6th Remote Engineering and Virtual instrumentation Conference (REV 2009) was held at the University of Bridgeport in Bridgeport, Connecticut, USA during the period of June 22 â?? 25, 2009. The conference brought together engineering researchers, educators, and professionals to explore the fundamentals, future, and application of remote engineering in both industry and academia. Participants delivered papers, presented demonstrations, research posters, and shared experiences in virtual engineering. REVâ??09 drew more than 100 engineers, scientists and educators from around the world. Most of the participants were from Europe, but many came from Asia, North and South America, the Middle East and as far as Australia. More than 60 papers were presented on topics ranging from Telerobotics to Virtual and Remote Labs. Workshops and Tutorials drew widespread interest and exhibitors displayed their products for integrating remote engineering into academia. Poster sessions discussed topics such as Robotic Surgery and Development of Remote Labs in Physics. The general objective of REV 2009 was to discuss fundamentals, applications and experiences within the field of online engineering, both in industry and academia. The conference presentations and papers addressed several emerging trends in online engineering, remote laboratories, virtual instrumentation and educational applications of remote engineering.

Synopsis of Current Developments: Water Sports

Water sports continue to provide an arena of innovation for the sports engineer. The mixed fluid medium of air and water and the often harsh operating environment provide challenges in the design, instrumentation, technology implementation and material science for these sports.