Optoelectronic modules and methods for operating the same

1. An optoelectronic module comprising:

an illumination module; and

a detection module disposed adjacent to the illumination module,

the illumination module including a light-emitting component and an illumination optical assembly,

the light-emitting component being operable to generate an emission incident on the illumination optical assembly, the emission being characterized by a principal wavelength,

the detection module including a detection optical assembly and an array of light-sensitive components disposed within a plane, wherein the array includes a plurality of light-sensitive components, each light-sensitive component is characterized by a coordinate position, each light-sensitive component is sensitive to the principal wavelength,

the detection optical assembly being characterized by a focal length and an optical axis, wherein the detection optical assembly is aligned to the array of light-sensitive components such that the focal length is incident on the plane and the optical axis is substantially perpendicular to the plane,

the emission incident on the illumination optical assembly together with the illumination optical assembly producing an illumination,

the illumination module being operable to direct the illumination to an object disposed at a distance from the optoelectronic module, and

the detection module being operable to collect a reflection of the illumination reflected from the object, and being further operable to convert the collected reflection into a signal by at least one of the light-sensitive components within the array of light-sensitive components, the signal being associated with a particular coordinate position of the at least one light-sensitive components from which the signal was converted, wherein the particular coordinate position is associated with the distance the object is disposed from the optoelectronic module,

wherein the signal is characterized by a signal magnitude;

wherein:

the light-emitting module further includes an auxiliary light-emitting component;

the auxiliary light-emitting component is operable to generate an auxiliary emission incident on the illumination optical assembly, the auxiliary emission being characterized by an auxiliary wavelength;

the auxiliary emission incident on the illumination optical assembly together with the illumination optical assembly produces an auxiliary illumination; and

the illumination module is operable to direct the auxiliary illumination to the object disposed at the distance from the optoelectronic module;

wherein the light-emitting module further comprises an auxiliary array of light-sensitive components disposed within the plane, the auxiliary array including a plurality of auxiliary light-sensitive components, each auxiliary light-sensitive component is characterized by the coordinate position, and each auxiliary light-sensitive component is sensitive to the auxiliary wavelength; and

wherein the detection module is operable to collect a reflection of the auxiliary illumination reflected from the object, and being further operable to convert the collected reflection into an auxiliary signal by at least one of the auxiliary light-sensitive components within the auxiliary array of light-sensitive components, the auxiliary signal being associated with a particular coordinate position of the at least one auxiliary light-sensitive components from which the auxiliary signal was converted, wherein the particular coordinate position is associated with the distance the object is disposed from the optoelectronic module, wherein the auxiliary signal is characterized by an auxiliary signal magnitude.

2. The optoelectronic module of claim 1 further comprising an intensity modulator, the intensity modulator being operable to modulate the intensity of the emission generated by the light-emitting component.

3. The optoelectronic module of claim 2 wherein the intensity modulator is operable to modulate electrical power to the light-emitting component such that the intensity of the emission generated by the light-emitting component is modulated.

4. The optoelectronic module of claim 2 further including circuitry operable to modulate, via the intensity modulator, the intensity of the emission generated by the light-emitting component according to the signal magnitude.

5. The optoelectronic module of claim 4 further comprising one or more processors communicatively coupled to the illumination module, the detection module, and the intensity modulator, the optoelectronic module further comprising a non-transitory computer-readable medium comprising instructions stored thereon that, when executed by the one or more processors, perform operations including:

increasing the intensity of the emission generated by the light-emitting component when the signal magnitude is below a threshold intensity value; and

decreasing the intensity of the emission generated by the light-emitting component when the signal magnitude is above a threshold intensity value.

6. The optoelectronic module of claim 4 , further comprising one or more processors communicatively coupled to the illumination module, the detection module, the optoelectronic module further comprising a non-transitory computer-readable medium comprising instructions stored thereon that, when executed by the one or more processors, perform operations including:

directing the illumination onto the object disposed at the distance from the optoelectronic module;

collecting the reflection of the illumination reflected from the object disposed at the distance from the optoelectronic module;

converting the collected reflection into the signal, the signal being associated with the particular coordinate position;

directing the illumination onto the object at a subsequent distance from the optoelectronic module;

collecting a reflection of the illumination reflected from the object disposed at the subsequent distance from the optoelectronic module;

converting the collected reflection into a subsequent signal, the subsequent signal being associated with a subsequent coordinate position, the subsequent signal being characterized by a subsequent signal magnitude;

associating the particular coordinate position with the distance from the optoelectronic module;

associating the subsequent coordinate position with the subsequent distance from the optoelectronic module;

normalizing the signal magnitude by the distance, and normalizing the subsequent signal magnitude by the subsequent distance; and

comparing the normalized signal magnitude and normalized subsequent signal magnitude.

7. The optoelectronic module of claim 6 , wherein comparing the normalized signal magnitude and normalized subsequent signal magnitude includes determining the difference between the signal magnitudes.

8. The optoelectronic module of claim 1 , wherein the intensity modulator is operable to modulate the intensity of the auxiliary emission generated by the auxiliary light-emitting component.

9. The optoelectronic module of claim 8 , wherein the intensity modulator is operable to modulate electrical power to the auxiliary light-emitting component such that the intensity of the auxiliary emission generated by the auxiliary light-emitting component is modulated.

10. The optoelectronic module of claim 9 , wherein the intensity of the emission generated by the auxiliary light-emitting component is decreased when the auxiliary signal magnitude is above a threshold intensity value.

11. The optoelectronic module of claim 8 , wherein the auxiliary signal is characterized by an auxiliary signal magnitude, and the circuitry is operable to modulate, via the intensity modulator, the intensity of the auxiliary emission generated by the auxiliary light-emitting component according to the auxiliary signal magnitude.

12. The optoelectronic module of claim 1 , further comprising one or more processors communicatively coupled to the illumination module, the detection module, and an intensity modulator, the optoelectronic module further comprising a non-transitory computer-readable medium comprising instructions stored thereon that, when executed by the one or more processors, perform operations including:

increasing the intensity of the emission generated by the light-emitting component when the signal magnitude is below a threshold intensity value;

decreasing the intensity of the emission generated by the light-emitting component when the signal magnitude is above a threshold intensity value;

increasing the intensity of the auxiliary emission generated by the auxiliary light-emitting component when the auxiliary signal magnitude is below a threshold intensity value; and

decreasing the intensity of the auxiliary emission generated by the auxiliary light-emitting component when the auxiliary signal magnitude is above a threshold intensity value.

13. The optoelectronic module of claim 12 , wherein the non-transitory computer-readable medium comprising instructions stored thereon that, when executed by the one or more processors, perform operations including:

directing the illumination onto the object disposed at the distance from the optoelectronic module, and directing the auxiliary illumination onto the object disposed at the distance from the optoelectronic module;

collecting the reflection of the illumination reflected from the object disposed at the distance from the optoelectronic module, and converting the collected reflection into the signal, the signal being associated with the coordinate position;

collecting the reflection of the auxiliary illumination reflected from the object disposed at the distance from the optoelectronic module, and converting the collected reflection into the auxiliary signal, the auxiliary signal being associated with the coordinate position;

directing the illumination onto the object at a subsequent distance from the optoelectronic module, and directing the auxiliary illumination onto the object at a subsequent distance from the optoelectronic module;

collecting a reflection of the illumination reflected from the object disposed at the subsequent distance from the optoelectronic module; and converting the collected reflection into a subsequent signal, the subsequent signal being associated with a subsequent coordinate position, the subsequent signal being characterized by a subsequent signal magnitude;

collecting a reflection of the auxiliary illumination reflected from the object disposed at the subsequent distance from the optoelectronic module; and converting the collected reflection into a subsequent auxiliary signal, the subsequent auxiliary signal being associated with a subsequent coordinate position, the subsequent auxiliary signal being characterized by a subsequent auxiliary signal magnitude;

associating the coordinate position with the distance from the optoelectronic module, and associating the coordinate position with the distance from the optoelectronic module;

associating the subsequent coordinate position with the subsequent distance from the optoelectronic module, and associating the subsequent coordinate position with the subsequent distance from the optoelectronic module;

normalizing the signal magnitude by the distance, and normalizing the subsequent signal magnitude by the subsequent distance;

normalizing the auxiliary signal magnitude by the distance, and normalizing the subsequent auxiliary signal magnitude by the subsequent distance; and

comparing the normalized signal magnitude, the normalized subsequent signal magnitude, the normalized auxiliary signal magnitude, and the normalized subsequent auxiliary signal magnitude.

14. The optoelectronic module of claim 13 , wherein comparing the normalized signal magnitude, the normalized subsequent signal magnitude, the normalized auxiliary single magnitude, and the normalized subsequent auxiliary signal magnitude includes determining the differences between the signal magnitudes.

15. A method of operating an optoelectronic module, the method comprising:

directing an illumination onto an object disposed at the distance from the optoelectronic module, the illumination being characterized by a principal wavelength;

collecting a reflection of the illumination reflected from the object disposed at the distance from the optoelectronic module;

converting the collected reflection into a signal, the signal being associated with a particular coordinate position;

directing the illumination onto the object at a subsequent distance from the optoelectronic module;

collecting a reflection of the illumination reflected from the object disposed at the subsequent distance from the optoelectronic module;

converting the collected reflection into a subsequent signal, the subsequent signal being associated with a subsequent coordinate position, the subsequent signal being characterized by a subsequent signal magnitude;

associating the particular coordinate position with the distance from the optoelectronic module;

associating the subsequent coordinate position with the subsequent distance from the optoelectronic module;

normalizing the signal magnitude by the distance, and normalizing the subsequent signal magnitude by the subsequent distance;

comparing the normalized signal magnitude and normalized subsequent signal magnitude,

directing an auxiliary illumination onto the object disposed at the distance from the optoelectronic module, the auxiliary illumination being characterized by an auxiliary wavelength;

collecting a reflection of the auxiliary illumination reflected from the object disposed at the distance from the optoelectronic module, and converting the collected reflection into an auxiliary signal, the auxiliary signal being associated with the particular coordinate position;

directing the auxiliary illumination onto the object at a subsequent distance from the optoelectronic module; and

collecting a reflection of the auxiliary illumination reflected from the object disposed at the subsequent distance from the optoelectronic module; and

converting the collected reflection into a subsequent auxiliary signal, the subsequent auxiliary signal being associated with a subsequent coordinate position, the subsequent auxiliary signal being characterized by a subsequent auxiliary signal magnitude.

16. The method of claim 15 further comprising;

comparing the normalized signal magnitude and normalized subsequent signal magnitude includes determining the difference between the signal magnitudes; or

associating peripheral blood circulation with the difference in the signal magnitude and the subsequent signal magnitude.