Lenticular Blade
Lenticular Blade - Related Videos
04:15
Ye's Swing Technique for Small-incision Lenticule Extraction Surgery
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2025
We introduced an optimized surgical approach for small incision lenticule extraction, termed the Ye's Swing Technique. This technique enables the surgeon to perform lenticule separation and extraction more easily while minimizing the risk of incision-edge tears and lenticule fragmentation. The results of this study proved its safety and efficacy.
11:37
Propeller Characterization: Variations in Pitch, Diameter, and Blade Number on Performance
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2023
Source: Shreyas Narsipur, Mechanical and Aerospace Engineering, North Carolina State University, Raleigh, NC A propeller is a twisted airfoil, where the angle of the chord changes with respect to the location, along the radial station, as shown in Figure 1. Propellers are widely used in aircraft and watercraft propulsion systems thereby necessitating detailed characterizations of propellers to design high performance vehicles. Figure 1. Chord, thickness, and pitch at a radial station. One of...
09:59
An “All-laser” Endothelial Transplant
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Cited by 5 •
2015
An all laser procedure is proposed in the endothelial transplant. The surgical technique is based on the use of a femtosecond laser to prepare the donor tissue. Laser welding technique is then used to secure the donor endothelium in the correct position.
06:33
Preparing Wedge Brain Slices to Visualize Auditory Neurons
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2025
This video demonstrates the process of preparing wedge-shaped brain slices in a laboratory setting. Using a vibratome, a wedge-shaped slice from a mouse's brain is crafted with varying thickness. This slice contains the auditory nerve root positioned on the thicker end, while the hearing-related neurons are located on the thinner end.
07:46
Data Acquisition Protocol for Determining Embedded Sensitivity Functions
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2016
The data acquisition procedure for determining embedded sensitivity functions is described. Data is acquired and representative results are shown for a residential scale wind turbine blade.
FAQs
Orientation determines how the blade interacts with the surrounding air or water. Depending on its position relative to the moving fluid and the operating conditions, the blade may emphasize lift, drag, or rotational torque. This relationship matters because changing orientation can alter how effectively a turbine converts fluid motion into useful rotational movement.
The curved, lens-shaped geometry changes pressure distribution and flow behavior around the blade. Those changes influence the forces available for rotation and therefore affect energy capture. Researchers study the geometry to identify configurations that support efficient fluid interaction while also considering the structural demands placed on the blade during operation.
The resulting force depends primarily on blade orientation and operating conditions, together with the behavior of the moving air or water around the profile. These variables determine how pressure and flow are redistributed. Comparing them helps explain why the same blade geometry may perform differently across turbine arrangements or environmental settings.
Material selection and blade configuration affect more than force generation. They also contribute to structural performance and durability, which influence how reliably an energy device can operate. In environmental engineering, evaluating these factors alongside fluid interaction helps researchers compare designs not only by energy capture, but also by their broader environmental performance.
A useful evaluation examines the blade geometry, its interaction with moving air or water, and the resulting lift, drag, or rotational torque. Researchers can then compare energy-capture behavior with structural performance, while considering material and configuration choices. This approach supports informed comparisons among renewable-energy devices without treating geometry as the only design variable.
These designs are relevant wherever wind or water turbines use blade-fluid interactions to capture renewable energy. Their study can support comparisons of energy-conversion devices, analysis of fluid-flow behavior, and assessment of structural performance. The environmental context is especially important because researchers can relate blade configuration and durability to overall energy capture and environmental performance.