TW201742603A - Surgery assistant system characterized in that the surgeon can see all informations related to the patient's affected region through a lens in front of the surgeon's eyes without looking up at other display interfaces - Google Patents

Abstract

A surgery assistant system is provided for a surgeon to perform surgery on an affected region and comprises a surgery navigation device, an electronic device, a host and a head-mounted display device. The surgery navigation device continuously generates a simulated three-dimensional image signal related to a probe and the affected region and transmits the simulated three-dimensional image signal to a host. The electronic device generates a first indication message, displays the first indication message on a touch display panel, and receives a first feedback signal corresponding to the first indication message generated by the electronic device under operation so as to transmit the first feedback signal to the host. The host generates a first output message according to the simulated three-dimensional image signal and the first feedback signal.The head-mounted display device continuously receives the first output message and controls a lens to display the first output message.

Description

Surgical assist system

The present invention relates to a surgical assist system, and more particularly to a surgical assist system for awake craniotomy.

During the current conscious craniotomy of the patient, the rehabilitation physician asks the conscious patient to perform some tasks such as cognition, language, counting, exercise, etc. by verbal or paper instructions. The neurosurgeon is near the tumor at the same time. The electrode array is attached to measure the signal pattern of the cerebral cortical potential (ECoG), or the electrode probe is used to stimulate the area around the tumor of the patient to confirm the main function of the adjacent area. For example, when the cerebral cortex region stimulated by the probe functions as a motion region, the patient's motion task is disturbed, and the neurosurgeon can determine whether the cerebral cortex region stimulated by the probe is the target region.

In addition, the conventional positioning surgical navigation system is combined with the virtual reality imaging of the magnetic resonance imaging technology to perform three-dimensional positioning on brain tumors and surrounding tissues. However, during the operation, the neurosurgeon must constantly look up the display interface of the navigation system, which hinders the operation.

Accordingly, it is an object of the present invention to provide a surgical assist system that solves the aforementioned problems.

Therefore, the surgical aid system of the present invention is used for a doctor to perform surgery on a diseased part of a patient, the surgical assistance system comprising an electroencephalograph, a surgical navigation device, a host, an electronic device and a Head-mounted display device. The surgical navigation device includes a probe that continuously generates a simulated three-dimensional image signal associated with the probe and the affected portion. The electronic device has a touch display panel and a processor. The processor generates a first indication message and displays the first indication message on the touch display panel, and accepts a corresponding correspondence generated by the electronic device being operated. The first feedback signal of the first indication message. The host is electrically coupled to the surgical navigation device and the electronic device to continuously receive the analog 3D video signal and the first feedback signal, and generate a first output message according to the analog 3D video signal and the first feedback signal. The head mounted display device is electrically coupled to the host to continuously receive the first output message from the host, and includes a lens and a processing module electrically connected to the lens and controlling the lens to display the first output message.

In some embodiments, the surgical assistance system further includes an electroencephalograph electrically coupled to the host, the electroencephalograph continuously generating a potential signal related to a potential near the affected part, and transmitting the potential signal To the host; the host also generates the first output message according to the potential signal.

In some implementations, when the host confirms the position of the affected part according to the potential signal, an activation signal is generated and transmitted to the electronic device; and the processor of the electronic device receives the activation signal to generate the first indication message.

In some implementations, the host further includes an input unit configured to generate a second indication signal and transmit the second indication signal to the electronic device; the electronic device further receives the second indication signal, and The processor generates a second indication message according to the second indication signal and displays the second indication message on the touch display panel, and receives a second feedback signal corresponding to the second indication message generated by the operation of the electronic device, and The second feedback signal is transmitted to the host; the host further generates a second output message according to the second feedback signal, and transmits the second output message to the head mounted display device; the head mounted display device receives the The second output message of the host, and the processing module controls the lens to display the second output message.

In some embodiments, the surgical assistance system further includes an image capturing device that continuously captures an image of the patient's expression and generates a third feedback signal related to the image of the patient's expression, and The third feedback signal is transmitted to the host; the host further generates a third output message according to the third feedback signal and transmits the message to the head mounted display device; the head mounted display device further receives the third output message And the processing module controls the lens to display the third output message.

In some embodiments, the head mounted display device further includes an image capturing unit electrically connected to the processing module, and the processing module controls the image capturing unit to continuously capture the surrounding area of the affected part and its adjacent area. The image generates an image signal, and the head mounted display device transmits the image signal to the host for storage in a storage unit of the host.

In some embodiments, the electronic device further includes a sound receiving unit to receive the sound emitted by the patient, and the electronic device generates a fourth feedback signal related to the sound emitted by the patient and transmits the fourth feedback signal to the The host is stored in the storage unit of the host.

In some embodiments, the head mounted display device further includes a recording unit electrically connected to the processor, the processor controlling the recording unit to continuously record the sound of the operation site to generate an audio signal, and the headset The display device transmits the audio signal to the host for storage in the storage unit of the host.

In some implementations, the storage unit of the host is further configured to store the analog 3D image signal, the potential signal, the first indication message, the second indication message, the first feedback signal, and the second feedback signal. The third feedback signal, the first output message, the second output message, and the third output message.

In some implementations, the host communicates with the head mounted display device using wireless communication technology.

The present invention has at least the following effects: using the lens to display the first output message, the physician can see the patient's related information through the lens in front of the eye, including information about the probe and the simulated three-dimensional image signal of the affected part, and Information about the potential of the affected part, and the like. In this way, the doctor does not need to look up the other display interface during the operation, so that the operation process is smoother. In addition, the patient can operate the display panel of the electronic device according to the first indication message, and does not require the rehabilitation doctor to give instructions from the side, thereby saving the manpower configuration of the surgical procedure.

Referring to FIG. 1 , an embodiment of a surgical assist system 100 of the present invention is used for a surgeon to perform surgery on a patient's affected part. The surgical assist system 100 includes a surgical navigation device 1 and a host 2 . An electronic device 3, an image capturing device 4, a head mounted display device 5, and an electroencephalograph 6. In the present embodiment, the surgical assist system 100 is applied, for example, to a neurosurgical surgeon, such as a neurosurgeon, the affected part of which is, for example, a tumor on the brain.

The surgical navigation device 1 includes a probe 11, a communication unit 12, and a control unit 13. The surgical navigation device 1 is electrically coupled to the host 2 for data transmission, for example, by using the communication unit 12 to wirelessly communicate with the host 2 through the first communication network 61, or to electrically connect to the host 2. The control unit 14 continuously generates a simulated three-dimensional image signal related to the probe 11 and the affected part. The control unit 14 controls the communication unit 12 to transmit the analog 3D video signal to the host 2. In the present embodiment, the probe 11 (not shown) of the surgical navigation device 1 is, for example, a reflective camera with an infrared camera (not shown) that can be used in conjunction with the surgical navigation device 1 for three-dimensional positioning, the details of which are conventional techniques. It will not be described in detail here. In this embodiment, the simulated three-dimensional image includes stereoscopic image data that can identify the angle of the probe 11 and its relative position with the affected part, such as a virtual reality image or an augmented reality (Augmented Reality). ) Image, but not limited to it.

In this embodiment, when the physician uses the probe 11 to irritate the area around the affected part, and simultaneously uses the electroencephalograph 6 to measure the surrounding area of the affected part to generate a potential signal related to the potential near the affected part, and The potential signal is transmitted to the host 2. In the present embodiment, for example, the electrode array is attached in the vicinity of the affected part to measure the cortical potential of the brain around the affected part (for example, the outer side of the tumor), and the potential signal is a signal of the cerebral cortical potential sequence (ECoG), but Not limited to this.

In this embodiment, the surgical navigation device 1 transmits the analog 3D video signal, the potential signal and the activation signal to the host 2 by using, for example, a TCP/IP protocol, but is not limited thereto.

In this embodiment, the host 2 includes a network unit 21, a storage unit 22, a user input unit 23, and an electrical connection between the network unit 21, the storage unit 22, and the user input unit 23. Unit 24. The host 2 is electrically coupled to the surgical navigation device 1 via the first communication network 61 via the network unit 21 to continuously receive the analog 3D video signal and the potential signal.

The electronic device 3 has a touch display panel 31 , a communicator 32 , a sound pickup unit 33 , and a processor 34 electrically connected to the touch display panel 31 , the communication device 32 , and the sound pickup unit 33 . In this embodiment, the electronic device 3 is, for example, a tablet computer (not shown), but is not limited thereto. The electronic device 3 is electrically coupled to the host 2, for example, using the communicator 32 to wirelessly communicate with the host 2 via the first communication network 61, or is electrically connected to the host to receive the activation signal. The processor 34 is configured according to the processor 34. The activation signal generates a first indication message and displays the first indication message on the touch display panel 31, and accepts that the electronic device 3 is operated (for example, the patient touches the touch display panel 31 or the radio is received) The unit 33 refers to the first feedback signal corresponding to the first indication message generated by the operation of the number or the specific name, and then the processor 34 controls the communicator 32 to transmit the first feedback signal to the host 2 .

Therefore, the network unit 21 of the host 2 receives the first feedback signal from the electronic device 3, and then the processing unit 24 of the host 2 generates a signal according to the analog 3D video signal, the potential signal and the first feedback signal. The first output message, and the network unit 21 is controlled to transmit the first output message to the head mounted display device 5 via the second communication network 62.

In this embodiment, the first indication message includes a message for guiding the patient to touch the touch panel, for example, guiding the patient to touch a specific position of the touch display panel 31 such as an upper right corner, or a continuous click, etc., but Not limited to this. In this embodiment, the first indication message may be, for example, a slide, but is not limited thereto. In this embodiment, when the host 2 confirms the position of the affected part according to the potential signal, an activation signal is generated and transmitted to the electronic device 3. The processor 34 of the electronic device 3 generates the first indication after receiving the activation signal. message. Thereby, the first indication message can be generated after confirming the position of the affected part, so that the patient starts to operate the touch display panel of the electronic device 3 at a specific time (for example, after the brain craniotomy proceeds to wake up the patient). 31, but not limited to this. In other embodiments, the first indication message can be generated at any time. In other words, the patient can manipulate the electronic device 3 at any time to perform the task.

In the present embodiment, the user input unit 23 is operated by, for example, a rehabilitation physician to generate a second indication signal. Then, the processing unit 24 of the host 2 controls the network unit 21 to transmit the second indication signal to the electronic device 3. Therefore, the communicator 32 of the electronic device 3 further receives the second indication signal, and the processor 34 generates a second indication message according to the second indication signal and displays it on the touch display panel 31, and accepts the electronic device. a second feedback signal corresponding to the second indication message generated by the patient operating (such as touching the touch display panel 31 or speaking a number or a specific name to the radio unit 33), and The second feedback signal is transmitted to the host 2. Then, after the host 2 receives the second feedback signal from the electronic device 3, the network unit 23 of the host 2 generates a second output message according to the second feedback signal, and transmits the second output message to The head mounted display device 5.

In this embodiment, the user input unit 23 of the host 2 is a keyboard (not shown) for inputting instructions to the rehabilitation physician, but is not limited thereto. The content of the second indication signal corresponds to the instruction of the rehabilitation doctor to the patient, for example, the patient is required to repeatedly press a specific area of the touch display panel 31, but not limited thereto. In this embodiment, the second indication message may be, for example, a slide, but is not limited thereto. The patient touches the touch display panel 31 according to the second indication message displayed on the touch display panel 31. The second feedback signal corresponds to the information generated by the patient touching the touch display panel 31 according to the second indication message, but is not limited thereto.

In this embodiment, the image capturing device 4 is electrically coupled to the host 2, and continuously captures an image of the patient's expression and generates a third feedback signal related to the patient's expression and the motion of the limbs. And transmitting the third feedback signal to the host 2. In the embodiment, the image capturing device 4 is a camera, but is not limited thereto. Therefore, the network unit 21 of the host 2 continues to receive the third feedback signal from the image capturing device 4, and the processing unit 24 of the host 2 generates a third output message according to the third feedback signal, and controls the The network unit 21 transmits the third output message to the head mounted display device 5.

In this embodiment, the network unit 21 of the host 2 transmits the first output message, the second output message, and the third output message to the head mounted display device 5 by using, for example, TCP/IP protocol technology. , but not limited to this. The storage unit 22 of the host 2 further stores the analog 3D video signal, the potential signal, the first indication message, the second indication message, the first feedback signal, the second feedback signal, and the third feedback signal. The first output message, the second output message, and the third output message are not limited thereto.

In the embodiment, the sound receiving unit 33 of the electronic device 3 is configured to receive the sound emitted by the patient, and the processor 34 of the electronic device 3 generates the fourth feedback signal related to the sound emitted by the patient and the first The four feedback signals are transmitted to the host 2 for storage in a storage unit 22 of the host 2 for use in, for example, post-operative teaching.

In this embodiment, the head mounted display device 5 is worn by the brain neurosurgeon. In the embodiment, the head mounted display device 5 is a smart glasses (not shown), but limit. The head-mounted display device 5 includes a communication module 51, a lens 52, an image capturing unit 53, a recording unit 54, and an electrical connection module 51, the lens 52, and the image capturing unit 53. The processing module 55 of the recording unit 54. The head mounted display device 5 is electrically coupled to the host 2 via the second communication network 62 to continuously receive the first output message, the second output message, and the third from the host 2 Output a message. Then, the processing module 55 of the head mounted display device 5 controls the lens 52 to display the first output message, the second output message and the third output message for viewing by the brain neurosurgeon, thereby learning about Patient information, without having to look up other viewing interfaces to make the procedure smoother.

In the present embodiment, the host 2 communicates with the head mounted display device 5 by using, for example, a wireless communication technology, but is not limited thereto.

Referring to FIG. 2, in the embodiment, the first output message includes a simulated three-dimensional image 101 of the affected part and its surroundings, a signal map 102 of the cerebral cortical potential sequence (ECoG), and the patient. The information 103 thus generated by the touch display panel 31 of the electronic device 3 is touched back to the first indication message, but is not limited thereto. The second output message includes the information 201 generated by the patient touching the touch display panel 31 and responding to the second indication message. The third output message includes an image 301 showing the expression of the patient. The size and positional relationship of the first output message, the second output message, and the third output message displayed in the lens 52 are configured as shown in FIG. 2, but are not limited thereto. In other embodiments, the image displayed by the lens 52 may be a simulated three-dimensional image 101 of the affected part and its surroundings, a signal map 102 of the cerebral cortical potential sequence (ECoG), and the patient's response to the first indication message. The information 103 and the one of the information generated by the touch display panel 31 of the electronic device 3 are controlled by the physician. For example, the doctor can switch the image by operating the host 2 or switch the image by using gestures or sound control. In other embodiments, other personnel in the operating room, such as a nurse or a rehabilitation physician, may also assist in the handover.

In this embodiment, the processing unit 24 of the host 2 can calculate the reaction time of the patient operating the touch display panel 31 of the electronic device 3 according to the first feedback signal or the second feedback signal, and determine the actual operation of the patient. Whether it is the same as the content of the first indication message or the second indication message, and calculates the correct rate, and determines whether the correct rate is too low. Furthermore, the processing unit 24 can obtain the continuous expression of the patient continuously captured by the image capturing device 4 and the continuous motion of the limbs of the patient according to the third feedback signal, and use the image recognition method to determine the patient's face. Whether the facial expression or limb movement is abnormal. In addition, the processing unit 24 can also determine whether the frequency of the patient's voice recorded by the sound receiving unit 33 is changed according to the fourth feedback signal or whether the response is delayed or the like. When the processing unit 24 determines that the correct rate is too low and one of the facial expressions, limb movements, or sounds of the patient is abnormal, the processing unit 24 determines whether the cerebral cortical potential sequence (ECoG) is abnormal, and if the result is yes, A fifth message can be quickly transmitted from the host 2 to the head mounted display device 5, and the processing module 5 controls the lens 52 to display the fifth message, whereby the neurosurgeon can know the position of the electrode stimulation or the operation. The relationship between the action position and the patient's response. In this embodiment, the fifth message may be a language cortical area or a sports cortex area, but not limited thereto, for prompting the current physician to utilize the electrode stimulation or the region being resected.

In this embodiment, the processing module 55 of the head mounted display device 5 can control the image capturing unit 53 to continuously capture an image including the surrounding area of the affected part and its adjacent area to generate an image signal during the operation. The probe 11 and images of the affected part and surrounding tissues. The processing module 55 controls the communication module 51 to transmit the image signal to the host 2 for storage in the storage unit 22 of the host 2 for use in post-operative teaching.

In this embodiment, the processing module 55 of the head mounted display device 5 can also control the recording unit 54 to continuously record the sound of the operation site during the operation to generate an audio signal, and the processing module 55 controls the communication. The module 51 transmits the audio signal to the host 2 for storage in the storage unit 22 of the host 2 for use in post-operative teaching.

In summary, the surgical aid system of the present invention displays the first output message by using the lens 52 of the head mounted display device 5, and the doctor can see related information of the patient through the lens in front of the eye, including the affected part and The surrounding simulated three-dimensional image 101, the cerebral cortical potential sequence (ECoG) signal map 102, the patient's response to the first indication message and the touch display panel 31 generated information 103, the patient's response should be second The information 201 generated by the touch display panel 31 and the image 301 of the patient's expression are touched by the instruction message, so that the doctor does not need to look up the other display interface during the operation, so that the operation process is smoother. In addition, the patient can operate the touch display panel 31 of the electronic device 3 according to the first indication message, and the rehabilitation physician does not need to give an indication from the side of the surgery, as long as necessary and operate the host 2 The user input unit 23 generates the second indication message, thereby saving the manpower configuration of the surgical procedure. Therefore, the object of the present invention can be achieved.

However, the above is only the embodiment of the present invention, and the scope of the invention is not limited thereto, and all the equivalent equivalent changes and modifications according to the scope of the patent application and the patent specification of the present invention are still The scope of the invention is covered.

100‧‧‧Surgical assisted system
1‧‧‧Surgical navigation device
11‧‧‧Probe
12‧‧‧Communication unit
13‧‧‧Control unit
2‧‧‧Host
21‧‧‧Network Unit
22‧‧‧ storage unit
23‧‧‧User input unit
24‧‧‧Processing unit
3‧‧‧Electronic devices
31‧‧‧Touch display panel
32‧‧‧Communicator
33‧‧‧ Radio unit
34‧‧‧ Controller
4‧‧‧Image capture device
5‧‧‧ head-mounted display device
51‧‧‧Communication Module
52‧‧‧ lenses
53‧‧‧Image capture unit
54‧‧‧Recording unit
55‧‧‧Processing module
61‧‧‧First communication network
62‧‧‧Second communication network
101‧‧‧Simulated 3D imagery
102‧‧‧ Signal Map
103‧‧‧Information
201‧‧‧Information
301‧‧‧ images

Other features and advantages of the present invention will be apparent from the embodiments of the present invention, wherein: Figure 1 is a block diagram illustrating an embodiment of the surgical assist system of the present invention; and Figure 2 is a schematic view, A lens of the head mounted display device of this embodiment will be described.

100‧‧‧Surgical assisted system

1‧‧‧Surgical navigation device

11‧‧‧Probe

12‧‧‧Communication unit

13‧‧‧Processing unit

2‧‧‧Host

21‧‧‧Network Unit

22‧‧‧ storage unit

23‧‧‧User input unit

24‧‧‧Processing unit

3‧‧‧Electronic devices

31‧‧‧Touch display panel

32‧‧‧Communicator

33‧‧‧ Radio unit

34‧‧‧ Controller

4‧‧‧Image capture device

5‧‧‧ head-mounted display device

51‧‧‧Communication Module

52‧‧‧ lenses

53‧‧‧Image capture unit

54‧‧‧Recording unit

55‧‧‧Processing module

61‧‧‧First communication network

62‧‧‧Second communication network

7‧‧‧ brain wave meter

Claims (10)

A surgical aid system for use by a physician in performing surgery on a affected part of a patient, the surgical aid system comprising: a surgical navigation device including a probe, the surgical navigation device continuously generating a correlation with the probe And the electronic device has a touch display panel and a processor, and the electronic device is electrically coupled to the host, the processor generates a first indication message and makes the first The indication message is displayed on the touch display panel, and receives a first feedback signal corresponding to the first indication message generated by the operation of the electronic device; a host is electrically coupled to the surgical navigation device and the electronic device Continuously receiving the analog 3D video signal and the first feedback signal, and generating a first output message according to the analog 3D video signal and the first feedback signal; and a head mounted display device electrically coupled to the host to continue Receiving the first output message from the host, and including a lens and an electrical connection to the lens and controlling the lens to display the first output message Processing module. The surgical aid system of claim 1, further comprising an electroencephalograph electrically coupled to the host, the electroencephalograph continuously generating a potential signal related to a potential near the affected part, and transmitting the potential signal To the host; the host also generates the first output message according to the potential signal. The surgical aid system of claim 2, wherein when the host confirms the position of the affected part according to the potential signal, an activation signal is generated and transmitted to the electronic device; and the processor of the electronic device receives the activation signal to generate the The first indication message. The surgical aid system of claim 3, wherein the host further comprises an input unit operative to generate a second indication signal and to transmit the second indication signal to the electronic device; the electronic device further receives The second indication signal, and the processor generates a second indication message according to the second indication signal and displays the second indication message on the touch display panel, and accepts that the electronic device is operated to generate a second indication message corresponding to the second indication message. a second feedback signal, and the second feedback signal is transmitted to the host; the host further generates a second output message according to the second feedback signal, and transmits the second output message to the head mounted display device; The head mounted display device receives the second output message from the host, and the processing module controls the lens to display the second output message. The surgical aid system of claim 4, further comprising an image capturing device that continuously captures an image of the patient's expression and generates a third feedback signal related to the image of the patient's expression, and The third feedback signal is transmitted to the host; the host further generates a third output message according to the third feedback signal and transmits the message to the head mounted display device; the head mounted display device further receives the third output message And the processing module controls the lens to display the third output message. The surgical aid system of any one of claims 1 to 5, wherein the head mounted display device further comprises an image capturing unit electrically connected to the processing module, the processing module controlling the image capturing The unit continuously captures an image including the surrounding area of the affected part and an adjacent area thereof to generate an image signal, and the head mounted display device transmits the image signal to the host for storage in a storage unit of the host. The surgical aid system of claim 6, wherein the head mounted display device further comprises a recording unit electrically connected to the processing module, the processing module controlling the recording unit to continuously record the sound of the operation site to generate An audio signal, and the head mounted display device transmits the audio signal to the host to be stored in the storage unit of the host. The surgical aid system of claim 7, wherein the electronic device further comprises a sound receiving unit for receiving a sound emitted by the patient, the electronic device generating a fourth feedback signal related to the sound of the patient and The fourth feedback signal is transmitted to the host for storage in the storage unit of the host. The surgical aid system of claim 8, wherein the storage unit of the host is further configured to store the analog 3D image signal, the potential signal, the first indication message, the second indication message, and the first feedback a signal, the second feedback signal, the third feedback signal, the first output message, the second output message, and the third output message. The surgical aid system of claim 9, wherein the host communicates with the head mounted display device using wireless communication technology.