A method for monitoring and visualizing a patient's medical condition, wherein a graphical representation of the patient comprising a body having at least a torso and a head, as well as particularly two legs and two arms, is displayed using a display device, wherein said displayed graphical representation comprises at least one region which is allocated to at least one or several provided (e.g. measured and/or determined) patient monitoring quantities, and wherein the appearance of the at least one region is altered in real-time when the at least one patient monitoring quantity to which said at least one region is allocated changes.

A surgical system includes a robotic device, and a surgical tool coupled to the robotic device and comprising a distal end. The system further includes a neural monitor configured to generate an electrical signal and apply the electrical signal to the distal end of the surgical tool, wherein the electrical signal causes innervation of a first portion of a patient's anatomy which generates an electromyographic signal, and a sensor configured to measure the electromyographic signal. The neural monitor is configured to determine a distance between the distal end of the surgical tool and a portion of nervous tissue based on the electrical signal and the electromyographic signal, and cause feedback to be provided to a user based on the distance.

A method and apparatus may capture a video of a crowd of people near a first person, transmit the video of the crowd to a second device, and receive, from the second device, an indication that a second person in the crowd appears to be at least one of (a) interested in meeting the first person, and (b) a threat to the first person. A display on the frame may display the received indication to the first person.

Novel tools and techniques are provided for implementing intelligent assistance (“IA”) ecosystem. In various embodiments, a computing system might receive device data associated with a device(s) configured to perform a task(s), might receive sensor data associated with sensors configured to monitor at least one of biometric, biological, genetic, cellular, or procedure-related data of a subject, and might receive imaging data associated with an imaging device(s) configured to generate images of a portion(s) of the subject. The computing system might analyze the received device data, sensor data, and imaging data (collectively “received data”), might map two or more of the received data to a 3D or 4D representation of the portion(s) of the subject based on the analysis, might generate and present (using a user experience (“UX”) device) one or more extended reality (“XR”) images or experiences based on the mapping.

Disclosed is a medical system for displaying and recording injection sites of patients. After patient identification based on the patient's vein patterns, the system can retrieve and display previous injection sites (e.g., for blood draw or injection) of the patient as overlaid at actual positions of the injection sites. The system can determine potential new injection sites based on the locations of the previous injection sites. The system can also ensure workflow compliance by displaying and tracking procedures performed by the healthcare professional.

A system, method, and apparatus for displaying a fused reconstructed image with a multidimensional image are disclosed. An example imaging system receives a selection corresponding to a portion of a displayed multidimensional visualization of a surgical site. At the selected portion of the multidimensional visualization, the imaging system displays a portion of a three-dimensional image which corresponds to the selected multidimensional visualization such that the displayed portion of the at least one of the three-dimensional image or model is fused with the displayed multidimensional visualization.

A device and method for treating disease involves inserting a scope into a patient's body, the scope having a light source, a camera and a cartridge connected thereto. The cartridge has two chambers separated by membrane, a first one of the chambers containing a virus, and a second one of the chambers being connected to a plurality of microneedles configured for extending into the patient's tissue upon insertion of the scope. Cells from the patient are removed via suction from the microneedles and are deposited in the second chambers. The membrane is then broken to mix the virus with the cells to infect the cells, and the infected cells are then transported back into the patient to treat the disease.

In an embodiment, an electrogram (EGM) processing system provides, for display by a head-mounted display (HMD) worn by a user, a holographic rendering of intracardiac geometry. The HMD also displays an electrogram waveform. The EGM processing system determines a gaze direction of the user by processing sensor data from the HMD. The HMD displays a marker overlaid on the electrogram waveform at a location based on an intersection point between the gaze direction and the electrogram waveform. The EGM processing system determines a measurement of the electrogram waveform using the location of the marker. The HMD displays the measurement of the electrogram waveform.

A system or device includes a member structure, a plurality of flexible members, and a plurality of tips disposed at ends of the flexible members. The member structure includes an ultrasonic emitter configured to emit an ultrasonic imaging signal. The plurality of flexible members are coupled to the member structure. The plurality of tips are disposed at ends of the flexible members. At least one tip of the plurality of tips includes an image sensor configured to receive an infrared exit signal.

A holographic augmented reality visualization and guidance system for performing a medical procedure includes an augmented reality system for displaying operating information to a user. The operating information can include preoperative data, intraoperative data, and fused data of an anatomical structure. A computer system is in communication with the augmented reality system and is configured to selectively generate the fused data by merging the preoperative data and the intraoperative data, identify deformation of the anatomical structure via differences between the preoperative data and the intraoperative data, transmit the operating information to the augmented reality system, and compensate for the deformation of the anatomical structure according to the deformation engine in real-time.