초록 ▼

A laser scanner for optically scanning and measuring an environment is provided. The laser scanner includes a light transmitter for emitting a light beam to measure a plurality of points in the environment, the light transmitter coupled to the rotating unit. A receiver is provided for receiving a re

A laser scanner for optically scanning and measuring an environment is provided. The laser scanner includes a light transmitter for emitting a light beam to measure a plurality of points in the environment, the light transmitter coupled to the rotating unit. A receiver is provided for receiving a reflected light beam reflected from the plurality of measurement points, the receiver being coupled to the rotating unit. A first image acquisition unit is configured to record a visible image of an area of the environment that includes the plurality of points. A sensing device is configured to record data of the area. A processor is operably coupled to the receiver, the first image acquisition unit and the sensing device, the processor is configured to associate a color value from the visible image and a recorded data value from the sensing device with each of the plurality of points.

대표청구항 ▼

1. A laser scanner that measures three-dimensional (3D) coordinates of a surface comprising: a measuring head, a base, a light source, a first motor, a second motor, a first angle measuring device, a second angle measuring device, a rotary mirror, a distance meter, a sensing device, and a processor;

1. A laser scanner that measures three-dimensional (3D) coordinates of a surface comprising: a measuring head, a base, a light source, a first motor, a second motor, a first angle measuring device, a second angle measuring device, a rotary mirror, a distance meter, a sensing device, and a processor;the measuring head mounted on the base such that the measuring head is rotated about a vertical axis;the light source attached to the measuring head and configured to launch a first light beam;the first motor configured to rotate the measuring head about the vertical axis;the second motor attached to the measuring head and configured to rotate the rotary mirror about a horizontal axis;the first light beam deflected by the rotary mirror to a first direction, the first light beam intersecting the surface at a first point;the first angle measuring device configured to measure a first angle of rotation about the vertical axis, the second angle measuring device configured to measure a second angle of rotation about the horizontal axis, the first direction determined by the first angle of rotation and the second angle of rotation;the distance meter configured to receive the first light beam reflected off the first point and to determine a first distance from the scanner to the first point, the first distance based at least in part on a speed of light in air of the first light beam;the sensing device attached to the measuring head the sensing device configured to capture a first emission from the first point, the sensing device a radiation detector, wherein the radiation detector is capable of measuring at least one of the group consisting of alpha radiation, beta radiation, and gamma radiation; andthe processor configured to determine the 3D coordinates of the first point and to determine a value obtained from the sensing device corresponding to the first point, the 3D coordinates based at least in part on the first angle of rotation, the second angle of rotation, and the first distance, the processor further configured to associate the 3D coordinates of the first point and the value obtained from the sensing device. 2. The laser scanner of claim 1, wherein the sensing device is an x-ray array detector. 3. The laser scanner of claim 2, wherein the sensing device further comprises a lens. 4. The laser scanner of claim 2, wherein the sensing device further comprises a pinhole plate placed between the surface and the array detector. 5. The laser scanner of claim 1, further comprising a camera selected from the group consisting of a monochrome camera, a color camera, and a near infrared camera. 6. The laser scanner of claim 1, wherein the sensing device is further configured to capture the first emission from the first point by a reflection from the rotary mirror. 7. The laser scanner of claim 6, further comprising a dichroic beam-splitter between the sensing device and the rotary mirror. 8. The laser scanner of claim 1, wherein the processor is further configured to determine gray-scale information for the received first light reflected off the first point. 9. The laser scanner of claim 8, wherein the processor is further configured to associate the 3D coordinates of the first point with the gray-scale information. 10. The laser scanner of claim 4 wherein the pinhole plate is made from lead. 11. A method for measuring three-dimensional coordinates of a surface, comprising: providing a laser scanner having a measuring head, a base, a light source, a first motor, a second motor, a first angle measuring device, a second angle measuring device, a rotary mirror, a distance meter, a sensing device, and a processor, the measuring head mounted on the base such that the measuring head is rotated about a vertical axis, the light source attached to the measuring head and configured to launch a first light beam, the first motor configured to rotate the measuring head about the vertical axis, the second motor attached to the measuring head and configured to rotate the rotary mirror about a horizontal axis, the first light beam deflected by the rotary mirror to a first direction, the first light beam intersecting the surface at a first point, the first angle measuring device configured to measure a first angle of rotation about the vertical axis, the second angle measuring device configured to measure a second angle of rotation about the horizontal axis, the first direction determined by the first angle of rotation and the second angle of rotation, the distance meter configured to receive the first light beam reflected off the first point and to measure a first distance from the scanner to the first point, the first distance based at least in part on a speed of light in air of the first light beam, the sensing device attached to the measuring head, the sensing device configured to capture a first emission from the first point, the sensing device is a radiation detector, wherein the radiation detector is capable of measuring at least one of the group consisting of alpha radiation, beta radiation, and gamma radiation;directing the first light beam to the first point;measuring the first distance, the first angle of rotation, and the second angle of rotation;determining by the processor the three-dimensional coordinates of the first point based at least in part on the measured first distance, the measured first angle, and the measured second angle;directing the laser scanner such that the sensing device is responsive to the first emission from the first point;measuring a value for the first emission from the first point by the sensing device;associating the measured value for the first emission with the three-dimensional coordinates of the first point; andstoring the three-dimensional coordinates of the first point and the measured value for the first emission. 12. The method of claim 11 wherein, in the step of measuring the first distance, the first motor is rotated at a first constant angular velocity during the measuring. 13. The method of claim 11 wherein, in the step of measuring the first distance, the second motor is rotated at a second constant angular velocity during the measuring. 14. The method of claim 11 wherein, in the step of providing the laser scanner, the sensing device is further configured to capture the first emission from the first point by a reflection from the rotary mirror. 15. The method of claim 11, further comprising a step of determining gray-scale information for the received first light reflected off the first point. 16. The method of claim 11, further comprising a step of associating the three-dimensional coordinates of the first point with the gray-scale information for the received first light reflected off the first point. 17. The method of claim 11 further comprising providing a pinhole plate between the radiation detector and the first point. 18. The method of claim 17 further comprising transmitting the first emission is transmitted through the pinhole plate prior to being captured by the radiation detector. 19. The method of claim 18 wherein the pinhole plate is made from lead.