Mobile single leaf scanner
A leaf imaging system is disclosed which includes a leaf-handling subsystem which includes a first leaf contactor and a second leaf contactor and configured to receive a leaf in therebetween, and an encoder coupled to one of the first or second leaf contactors, the encoder configured to selectively trigger a camera corresponding to motion of the leaf. The leaf imaging system further includes a lightbox in communication with the leaf-handling subsystem and configured to provide light to the leaf as the leaf passes between the first and the second leaf contactors; and a controller in communication with the encoder, the camera, and the lightbox and configured to operate the camera based on output of the encoder.
1. A leaf imaging system, comprising:
a leaf-handling subsystem comprising
a first leaf contactor and a second leaf contactor and configured to receive a leaf in therebetween, and
an encoder coupled to one of the first or second leaf contactors, the encoder configured to selectively trigger a camera corresponding to motion of the leaf;
a lightbox in communication with the leaf-handling subsystem and configured to provide light to the leaf as the leaf passes between the first and the second leaf contactors; and
a controller in communication with the encoder, the camera, and the lightbox and configured to operate the camera based on output of the encoder.
2. The leaf imaging system of claim 1 , the encoder is one or more of an optical encoder, a hall-effect encoder, and a variable reluctance encoder.
3. The leaf imaging system of claim 1 , the lightbox includes a memory chip maintaining camera setting of the camera.
4. The leaf imaging system of claim 1 , wherein the lightbox includes one or more of a halogen light, and a light emitting diode light.
5. The leaf imaging system of claim 1 , wherein the lightbox includes a reflective plate having a reflective surface configured to reflect light through an opening.
6. The leaf imaging system of claim 5 , wherein the lightbox includes a diffusing reflective surface configured to generate a uniform light shone on the reflective plate.
7. The leaf imaging system of claim 1 , the lightbox includes an angel adjustable bulb mount configured to power a bulb.
8. The leaf imaging system of claim 7 , the bulb provides light having selective wavelength based on type of imaging and type leaf being imaged, wherein the type of imaging includes one or more of red-green-blue (RGB) type imaging, hyperspectral type imaging, and multispectral type imaging.
9. The leaf imaging system of claim 1 , the first and second leaf contactors are each spring-biased rollers configured to receive the leaf in therebetween.
10. The leaf imaging system of claim 1 , the first and second leaf contactors are each leaf guiding plates.
11. A method of imaging a leaf, comprising:
placing a leaf between a first leaf contactor and second leaf contactor a leaf-handling subsystem configured to receive the leaf;
providing light to the leaf by a lightbox as the leaf moves between the first and the second leaf contactors;
encoding movement of the leaf in between the first and the second leaf contactors by an encoder configured to generate a signal in response to movement of the leaf; and
selectively triggering a camera signal by a controller and communicate the triggering signal to a camera to obtain images from the leaf in response to the generated encoder signal.
12. The method of claim 11 , the encoder is one or more of an optical encoder, a hall-effect encoder, and a variable reluctance encoder.
13. The method of claim 11 , the lightbox includes a memory chip maintaining camera setting of the camera.
14. The method of claim 11 , wherein the lightbox includes one or more of a halogen light, and a light emitting diode light.
15. The method of claim 11 , wherein the lightbox includes a reflective plate having a reflective surface configured to reflect light through an opening.
16. The method of claim 15 , wherein the lightbox includes a diffusing reflective surface configured to generate a uniform light shone on the reflective plate.
17. The method of claim 11 , the lightbox includes an angel adjustable bulb mount configured to power a bulb.
18. The method of claim 17 , the bulb provides light having selective wavelength based on type of imaging and type leaf being imaged, wherein the type of imaging includes one or more of red-green-blue (RGB) type imaging, hyperspectral type imaging, and multispectral type imaging.
19. The method of claim 11 , the first and second leaf contactors are each spring-biased rollers configured to receive the leaf in therebetween.
20. The method of claim 11 , the first and second leaf contactors are a leaf guiding plate and a sensor unit.