Surgical robot system and method of controlling the same
A surgical robot system capable of storing all data transmitted and received in the surgical robot system and a method of controlling the same includes a slave device performing surgery on a patient, a master device controlling a surgical operation of the slave device, an imaging device transmitting a medical image regarding the patient to the slave device and the master device, and a monitoring device comprising a storage module receiving all data transmitted and received among the slave device, the master device, and the imaging device, serializing the received data on a per transmission-time-information basis to generate serial packets, and storing the generated serial packets, and a reproduction module dividing the stored serial packets into a plurality of unit packets and transmitting the unit packets to a device for display.
1. A surgical robot system comprising: a slave device performing surgery on a patient; a master device controlling a surgical operation of the slave device; an imaging device transmitting a medical image regarding the patient to the slave device and the master device; and a monitoring device comprising: a storage module receiving all data transmitted among the slave device, the master device, and the imaging device, serializing the received data on a per transmission-time-information basis to generate a plurality of serial packets, and storing the generated serial packets; and a reproduction module dividing the stored serial packets into a plurality of unit packets and transmitting the unit packets to a device for reproduction, and wherein the storage module comprises: a data classifier classifying the received data according to the type of data; a sampler generating the plurality of unit packets by respectively sampling the classified data; a multiplexer generating the plurality of serial packets by serializing the generated plurality of unit packets on a per transmission-time information basis; and a storage unit storing the generated serial packets.
2. The surgical robot system according to claim 1 , wherein the sampler samples the data according to frames per second (FPS) or a control period according to a data type of the classified data.
3. The surgical robot system according to claim 1 , wherein the plurality of unit packets respectively comprises a header in which identification information is recorded and a payload in which data is recorded.
4. The surgical robot system according to claim 3 , wherein the identification information comprises transmission time information and transmission flow direction information of the data recorded in the payload.
5. A surgical robot system comprising: a slave device performing surgery on a patient; a master device controlling a surgical operation of the slave device; an imaging device transmitting a medical image regarding the patient to the slave device and the master device; and a monitoring device comprising: a storage module receiving all data transmitted among the slave device, the master device, and the imaging device, serializing the received data on a per transmission-time-information basis to generate a plurality of serial packets, and storing the generated serial packets; and a reproduction module dividing the stored serial packets into a plurality of unit packets and transmitting the unit packets to a device for reproduction, and wherein the reproduction module comprises: a demultiplexer dividing the stored serial packets into the plurality of unit packets and classifying the divided unit packets according to the data type of each unit packet; and a data distributor respectively transmitting the classified unit packets to at least one of the slave device, the master device and the imaging device in accordance with the transmission time information and transmission flow direction information.
6. The surgical robot system according to claim 1 , wherein each serial packet among the serial plurality of packets comprises a main header and a plurality of unit packets.
7. The surgical robot system according to claim 6 , wherein the main header comprises at least one of identification information, generation time, generation order, storage time, and storage order.
8. The surgical robot system according to claim 6 , wherein the plurality of unit packets comprises one image unit packet, one sound unit packet, and a plurality of unit packets each comprising control signal and status information.
9. The surgical robot system according to claim 6 , wherein the plurality of unit packets comprises a plurality of image unit packets, a plurality of sound unit packets, and a plurality of unit packets each comprising control signal and status information.
10. The surgical robot system according to claim 1 , wherein the monitoring device is contained in one device selected from the group consisting of the slave device, the master device, and the imaging device.
11. The surgical robot system according to claim 1 , further comprising a simulator receiving the plurality of unit packets from the reproduction module, generating a simulation image, and displaying the simulation image.
12. The surgical robot system according to claim 1 , wherein:
the imaging device comprises a simulation image generator receiving the plurality of unit packets from the reproduction module to generate a simulation image and outputting the generated simulation image; and
the master device comprises a display receiving the simulation image output from the simulation image generator of the imaging device and displaying the simulation image.
13. A monitoring device for a surgical robot system comprising: a storage module receiving all data transmitted among a slave device, a master device, and an imaging device, serializing the received data on a per transmission-time-information basis to generate a plurality of serial packets, and storing the generated serial packets; and a reproduction module dividing the stored serial packets into a plurality of unit packets and transmitting the unit packets to a display device, and wherein the storage module comprises: a data classifier classifying the received data according to the type of data; a sampler generating the plurality of unit packets by respectively sampling the classified data; a multiplexer generating the plurality of serial packets by serializing the generated plurality of unit packets on a per transmission-time information basis; and a storage unit storing the generated serial packets.
14. The monitoring device according to claim 13 , further comprising a simulator receiving the plurality of unit packets from the reproduction module, generating a simulation image, and displaying the simulation image.
15. A monitoring device for a surgical robot system comprising: a storage module receiving all data transmitted among a slave device, a master device, and an imaging device, serializing the received data on a per transmission-time-information basis to generate a plurality of serial packets, and storing the generated serial packets; and a reproduction module dividing the stored serial packets into a plurality of unit packets and transmitting the unit packets to a display device, and wherein the reproduction module comprises: a demultiplexer dividing the stored serial packets into the plurality of unit packets and classifying the divided unit packets according to the data type of each unit packet; and a data distributor respectively transmitting the classified unit packets to at least one of the slave device, the master device and the imaging device in accordance with the transmission time information and transmission flow direction information.