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Nicholas A. T. Brown

Researcher at University of Canberra

Publications -  88
Citations -  3112

Nicholas A. T. Brown is an academic researcher from University of Canberra. The author has contributed to research in topics: Aerodynamic drag & Hamstring. The author has an hindex of 27, co-authored 88 publications receiving 2633 citations. Previous affiliations of Nicholas A. T. Brown include University of Utah & University of Texas at Austin.

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Effect of Running Speed on Lower Limb Joint Kinetics

TL;DR: Of all the major lower limb muscle groups, the hip extensor and knee flexor muscles during terminal swing demonstrated the most dramatic increase in biomechanical load when running speed progressed toward maximal sprinting.
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Mechanics of the human hamstring muscles during sprinting.

TL;DR: It is suggested that this period in the stride cycle may be when the biarticular hamstrings are at greatest injury risk, and hamstring injury prevention or rehabilitation programs should preferentially target strengthening exercises that involve eccentric contractions performed with high loads at longer musculotendon lengths.
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A Prospective Randomized Clinical Trial Comparing Arthroscopic Single- and Double-Row Rotator Cuff Repair Magnetic Resonance Imaging and Early Clinical Evaluation

TL;DR: No clinical or MRI differences were seen between patients repaired with a SR or DR technique and at 1 year, there were no differences in any of the postoperative measures of motion or strength.
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Patellofemoral Contact Pressures and Lateral Patellar Translation after Medial Patellofemoral Ligament Reconstruction

TL;DR: Overtensioning can be avoided by applying low loads to medial patellofemoral ligament reconstructions, which reestablished normal translation and patell ofemoral contact pressures.
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In vivo behavior of the human soleus muscle with increasing walking and running speeds

TL;DR: Investigation of the interaction between the muscle fascicle and tendon components of the human soleus (SO) muscle over a broad range of steady-state walking and running speeds found minimal shortening compared with the muscle-tendon unit (MTU) throughout stance, while greater, more economical ankle torque development is likely explained.