Robotic systems with separate photoacoustic receivers
A surgical robotic visualization system comprises a first robotic arm, a second robotic arm, a photoacoustic receiver coupled to the first robotic arm, an emitter assembly coupled to the second robotic arm, and a control circuit. The control circuit is configured to cause the emitter assembly to emit electromagnetic radiation toward an anatomical structure at a plurality of wavelengths capable of penetrating the anatomical structure and reaching an embedded structure located below a surface of the anatomical structure, receive an input of the photoacoustic receiver indicative of an acoustic response signal of the embedded structure, and detect the embedded structure based on the input from the photoacoustic receiver.
1. A surgical robotic visualization system, comprising:
a first robotic arm;
a second robotic arm;
a photoacoustic receiver coupled to the first robotic arm;
an emitter assembly coupled to the second robotic arm; and
a control circuit configured to:
cause the emitter assembly to emit electromagnetic radiation toward an anatomical structure at a plurality of wavelengths capable of penetrating the anatomical structure and reaching an embedded structure located below a surface of the anatomical structure;
receive an input of the photoacoustic receiver indicative of an acoustic response signal of the embedded structure;
detect the embedded structure based on the input from the photoacoustic receiver;
cause the first robotic arm to move the photoacoustic receiver into contact with the surface of the anatomical structure; and
cause the first robotic arm to increase a pressure applied by the photoacoustic receiver onto the surface of the anatomical structure.
2. The surgical robotic visualization system of claim 1 , wherein the electromagnetic radiation comprises a near infrared radiation.
3. The surgical robotic visualization system of claim 1 , further comprising a robotic control unit configured to control movement of at least one of the first robotic arm and the second robotic arm.
4. The surgical robotic visualization system of claim 1 , wherein the first robotic arm is movable independently from the second robotic arm.
5. The surgical robotic visualization system of claim 1 , wherein the emitter assembly comprises a structured light emitter configured to emit a structured light pattern onto the surface of the anatomical structure.
6. A surgical robotic visualization system, comprising:
a robotic arm;
a photoacoustic receiver coupled to the robotic arm;
an emitter assembly, comprising:
a near infrared light emitter; and
a structured light emitter;
a waveform sensor assembly; and
a control circuit configured to:
cause the structured light emitter to emit a structured light pattern onto a surface of an anatomical structure;
construct a three-dimensional digital representation of the anatomical structure from the reflected structured light pattern detected by the waveform sensor assembly;
receive a user input indicative of a selected position of the photoacoustic receiver with respect to the surface of the anatomical structure;
cause the robotic arm to move the photoacoustic receiver to the selected position;
cause the near infrared light emitter to emit pulses that reach tissue within the anatomical structure; and
cause the robotic arm to adjust a position of the photoacoustic receiver to improve quality of acoustic response signals received by the photoacoustic receiver from the tissue excited by the near infrared light pulses;
wherein the control circuit is configured to cause the robotic arm to increase a pressure applied by the photoacoustic receiver onto the surface of the anatomical structure.
7. The surgical robotic visualization system of claim 6 , wherein the control circuit is configured to cause the robotic arm to decrease a pressure applied by the photoacoustic receiver onto the surface of the anatomical structure.
8. The surgical robotic visualization system of claim 6 , further comprising a robotic control unit configured to control movement of the robotic arm.
9. The surgical robotic visualization system of claim 6 , further comprising a display configured to selectively depict a three-dimensional rendering of the anatomical structure based on the three-dimensional digital representation of the anatomical structure.
10. The surgical robotic visualization system of claim 9 , wherein the display is configured to solicit the user input regarding the selected position.
11. The surgical robotic visualization system of claim 6 , wherein the control circuit is configured to determine a pressure applied by the photoacoustic receiver onto the surface of the anatomical structure from the reflected structured light pattern detected by the waveform sensor assembly.
12. A surgical robotic visualization system, comprising:
a robotic arm;
a photoacoustic receiver coupled to the robotic arm;
a near infrared light emitter; and
a control circuit configured to:
receive a user input indicative of a selected position of the photoacoustic receiver with respect to a surface of an anatomical structure;
cause the robotic arm to move the photoacoustic receiver to the selected position;
cause the near infrared light emitter to emit pulses that reach tissue within the anatomical structure; and
cause the robotic arm to adjust a position of the photoacoustic receiver to improve quality of acoustic response signals received by the photoacoustic receiver from the tissue excited by the near infrared light pulses;
wherein the control circuit is configured to cause the robotic arm to increase a pressure applied by the photoacoustic receiver onto the surface of the anatomical structure.
13. The surgical robotic visualization system of claim 12 , wherein the control circuit is configured to cause the robotic arm to decrease a pressure applied by the photoacoustic receiver onto the surface of the anatomical structure.
14. The surgical robotic visualization system of claim 12 , further comprising a robotic control unit configured to control movement of the robotic arm.
15. The surgical robotic visualization system of claim 12 , wherein the control circuit is further configured to:
construct a three-dimensional digital representation of the anatomical structure; and
convey the three-dimensional digital representation to an imaging system.
16. The surgical robotic visualization system of claim 15 , wherein the control circuit is further configured to cause the imaging system to selectively depict a three-dimensional rendering of the anatomical structure based on the three-dimensional digital representation of the anatomical structure.
17. The surgical robotic visualization system of claim 16 , wherein the imaging system is configured to solicit the user input regarding the selected position.
18. A surgical robotic visualization system, comprising:
a robotic arm;
a photoacoustic receiver coupled to the robotic arm;
an emitter assembly; and
a control circuit configured to:
cause the emitter assembly to emit electromagnetic radiation toward an anatomical structure at a plurality of wavelengths capable of penetrating the anatomical structure and reaching an embedded structure located below a surface of the anatomical structure;
receive an input of the photoacoustic receiver indicative of an acoustic response signal of the embedded structure;
detect the embedded structure based on the input from the photoacoustic receiver;
cause the robotic arm to move the photoacoustic receiver into contact with the surface of the anatomical structure; and
cause the robotic arm to increase a pressure applied by the photoacoustic receiver onto the surface of the anatomical structure.
19. A surgical robotic visualization system, comprising:
a robotic arm;
a photoacoustic receiver coupled to the robotic arm;
an emitter assembly, comprising:
a near infrared light emitter; and
a structured light emitter;
a waveform sensor assembly; and
a control circuit configured to:
cause the structured light emitter to emit a structured light pattern onto a surface of an anatomical structure;
construct a three-dimensional digital representation of the anatomical structure from the reflected structured light pattern detected by the waveform sensor assembly;
cause the robotic arm to move the photoacoustic receiver to a selected position of the photoacoustic receiver with respect to the surface of the anatomical structure;
cause the near infrared light emitter to emit pulses that reach tissue within the anatomical structure; and
cause the robotic arm to adjust position of the photoacoustic receiver to improve quality of acoustic response signals received by the photoacoustic receiver from the tissue excited by the near infrared light pulses,
wherein the control circuit is configured to cause the robotic arm to increase a pressure applied by the photoacoustic receiver onto the surface of the anatomical structure.