Optowaves, Inc.

Ninepoint Medical, Inc.

Tsung-Han Tsai

Hao Wu

Shanxing Su

Jie Jensen Hou

Eman Namati

Jonathan Lawrence Goodwin

Brian G Connor

Jiaqi Zhang

An exemplary capsule apparatus is provided, which includes a capsule having a first end and a second end opposite to the first end. A terminal portion of the capsule at the first end has a tapered end that has a section which curves toward a center of the terminal portion. Additionally, a tethered capsule apparatus includes a capsule configured to provide imaging optics having an orifice provided at least one end thereof. A tether having a proximal end and a distal end is also be provided. The distal end of the tether has an enlarged end portion that has a width that is greater than a width of a neighboring portion, and the enlarged end portion can be positioned and configured to be secured in the orifice.

Enclosed imaging apparatus and method for use thereof

A multiplexed LiDAR system generates an image of an object based on the distance of various point measurements to the object. The multiplexed LiDAR utilizes at least two sets of light source emissions to a scanner to simultaneously form multiple scanning patterns that effectively increase the scanning speed, scanning area, or image pixel density of the LiDAR system.

Multiplexed light detection and ranging apparatus

A TOI LiDAR System generates an image of an object based on the distance of various point measurements to the object. The TOI LiDAR System detects the envelope of an electrical signal created from an interference light signal. The interference light signal is produced from the back-reflected light resulting from a sampling arm light emission to the object combined with a reference light emission. The reference light emission is created by splitting a pulse-modulated coherent light source's emission signal and passing the reference light emission through a reference arm. The optical interference signal is transferred to a balanced photodetector to convert to an electrical signal converted to digital data. The digital data is evaluated to determine the rising edges or falling edges of a digitized electrical interference signal to determine a time delay between the reference light emission and back-reflected light used to calculate the distance.

High-speed time-of-interference light detection and ranging apparatus

A TOI Lidar System generates an image of an object based on the distance of various point measurements to the object. The TOI Lidar System detects the envelope of an electrical signal created from an interference light signal. The interference light signal is produced from the back-reflected light resulting from a sampling arm light emission to the object combined with a reference light emission. The reference light emission is created by splitting a pulse-modulated coherent light source's emission signal and passing the reference light emission through a reference arm. The optical interference signal is transferred to a balanced photodetector to convert to an electrical signal converted to digital data. The digital data is evaluated to determine the rising edges or falling edges of a digitized electrical interference signal to determine a time delay between the reference light emission and back-reflected light used to calculate the distance.

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Newton, MA, United States of America

Tsung-Han Tsai