Abstract: A wearable ultrasound device and method for using the same are disclosed. In some embodiments, the wearable ultrasound device includes an ultrasound transducer configured to transmit ultrasound signals and receive reflected ultrasound based on the ultrasound signals and a fastener configured to secure the wearable ultrasound device proximate to a procedure site. The wearable ultrasound device can also include a processor configured to generate, based on the reflected ultrasound, patient data and a display device implemented to display a visual representation of the patient data.

Abstract: Embodiments of ultrasound utility station and methods for using the same are disclosed. In some embodiments, the method includes displaying a status of the ultrasound machine that indicates a location of the ultrasound machine and an amount of charge of a battery of the ultrasound machine, and displaying an additional status that indicates an additional location of the ultrasound utility station and one or more available ultrasound probes on the ultrasound utility station. After receiving a selection of an ultrasound probe of the available ultrasound probes and a user input that determines a schedule for said configuring the ultrasound machine, the method instructs the ultrasound utility station to charge the battery of the ultrasound machine and provide the ultrasound probe for transfer to the ultrasound machine.

Abstract: Embodiments of ultrasound utility station and methods for using the same are disclosed. In some embodiments, the method includes displaying a status of the ultrasound machine that indicates a location of the ultrasound machine and an amount of charge of a battery of the ultrasound machine, and displaying an additional status that indicates an additional location of the ultrasound utility station and one or more available ultrasound probes on the ultrasound utility station. After receiving a selection of an ultrasound probe of the available ultrasound probes and a user input that determines a schedule for said configuring the ultrasound machine, the method instructs the ultrasound utility station to charge the battery of the ultrasound machine and provide the ultrasound probe for transfer to the ultrasound machine.

Abstract: Systems and methods for a virtual sonography team are described. An ultrasound system includes an ultrasound scanner that is configured to generate ultrasound data based on reflections of ultrasound signals transmitted by the ultrasound scanner and communicate the ultrasound data over a communication network to at least one display device and an archiver. An ultrasound machine is coupled to the ultrasound scanner and is configured to determine examination data for the ultrasound examination and communicate the examination data to the archiver over the communication network. The display device is configured to generate an ultrasound image based on the ultrasound data as part of an ultrasound examination and communicate the ultrasound image to the archiver for aggregation with the examination data into a patient record of the ultrasound examination.

Abstract: Embodiments of ultrasound utility station and methods for using the same are disclosed. In some embodiments, the method includes displaying a status of the ultrasound machine that indicates a location of the ultrasound machine and an amount of charge of a battery of the ultrasound machine, and displaying an additional status that indicates an additional location of the ultrasound utility station and one or more available ultrasound probes on the ultrasound utility station. After receiving a selection of an ultrasound probe of the available ultrasound probes and a user input that determines a schedule for said configuring the ultrasound machine, the method instructs the ultrasound utility station to charge the battery of the ultrasound machine and provide the ultrasound probe for transfer to the ultrasound machine.

Abstract: Systems and methods for repeatable ultrasound using multi-array scanners are disclosed. These techniques include one or more robotic manipulators that couple to one or more multi-array ultrasound scanners to perform ultrasound examinations. The system uses ultrasound data generated by the scanner to generate registration data, which is usable to create movement instructions for the robotic manipulator(s) for controlling movement, positioning, and operation of the scanner, another scanner, or an interventional instrument (e.g., needle). In an example, one robotic manipulator uses a scanner to generate ultrasound data usable to determine positioning and orientation for a second robotic manipulator to insert an interventional instrument or to operate a second scanner. In aspects, the multi-array scanner can generate ultrasound data using a first array, and the ultrasound data is usable to determine where and how to use a second array to generate additional ultrasound data.

Abstract: Systems and methods for managing ultrasound devices are disclosed. Multiple ultrasound devices, such as ultrasound scanners, ultrasound machines, ultrasound carts, etc., can be tracked. For example, the ultrasound device's location (e.g., geotag location) or network connection can be tracked and used to determine a state of the ultrasound device on a state machine. The system can then initiate one or more actions appropriate to the state of the ultrasound device. Additionally, the system includes containers for charging, cleaning, and testing ultrasound devices. The system can also include a charger array on a table, wall, or cart to wirelessly charge the ultrasound device. The ultrasound device can include an inertial measurement unit (IMU), which can enable a user to move the device in the air to perform a gesture with the device, and resulting IMU data can be used to trigger an action by the system.

Abstract: Systems and methods for a combination ocular ultrasound and ophthalmoscope are described. In some implementations, a combination ocular ultrasound and ophthalmoscope device generates first ultrasound data from an ultrasound scan of an eye of a user using a first ultrasound scanner and generates optical data from an optical scan of the eye of the user using an optical sensor. The device generates an ultrasound image from the first ultrasound data and an optical image from the optical data. A hybrid image can be generated by the device from the first ultrasound data and the optical data, the hybrid image generated through the use of a machine-learned model. The combination ocular ultrasound and ophthalmoscope device can increase diagnosis confidence, injury identification, and patient comfort and experience in comparison to conventional, disconnected ultrasound and ophthalmoscope devices and systems.

Abstract: Systems and methods for a virtual sonography team are described. An ultrasound system includes an ultrasound scanner that is configured to generate ultrasound data based on reflections of ultrasound signals transmitted by the ultrasound scanner and communicate the ultrasound data over a communication network to at least one display device and an archiver. An ultrasound machine is coupled to the ultrasound scanner and is configured to determine examination data for the ultrasound examination and communicate the examination data to the archiver over the communication network. The display device is configured to generate an ultrasound image based on the ultrasound data as part of an ultrasound examination and communicate the ultrasound image to the archiver for aggregation with the examination data into a patient record of the ultrasound examination.

Abstract: Embodiments of ultrasound utility station and methods for using the same are disclosed. In some embodiments, the method includes displaying a status of the ultrasound machine that indicates a location of the ultrasound machine and an amount of charge of a battery of the ultrasound machine, and displaying an additional status that indicates an additional location of the ultrasound utility station and one or more available ultrasound probes on the ultrasound utility station. After receiving a selection of an ultrasound probe of the available ultrasound probes and a user input that determines a schedule for said configuring the ultrasound machine, the method instructs the ultrasound utility station to charge the battery of the ultrasound machine and provide the ultrasound probe for transfer to the ultrasound machine.

Abstract: Systems and methods for a combination ocular ultrasound and ophthalmoscope are described. In some implementations, a combination ocular ultrasound and ophthalmoscope device generates first ultrasound data from an ultrasound scan of an eye of a user using a first ultrasound scanner and generates optical data from an optical scan of the eye of the user using an optical sensor. The device generates an ultrasound image from the first ultrasound data and an optical image from the optical data. A hybrid image can be generated by the device from the first ultrasound data and the optical data, the hybrid image generated through the use of a machine-learned model. The combination ocular ultrasound and ophthalmoscope device can increase diagnosis confidence, injury identification, and patient comfort and experience in comparison to conventional, disconnected ultrasound and ophthalmoscope devices and systems.

Abstract: Ultrasound systems, ultrasound scanners, and methods that are used for performing oral procedures. In some embodiments, an ultrasound system includes: an ultrasound scanner including a mouth guard configured to, when inserted into a patient mouth to at least partially cover one or more teeth, transmit ultrasound at a patient anatomy and receive reflections of the ultrasound from the patient anatomy; and a processor system coupled to the ultrasound scanner and configured to generate, based on the reflections of the ultrasound, an assessment of patient health.

Abstract: Embodiments of ultrasound utility station and methods for using the same are disclosed. In some embodiments, the method includes displaying a status of the ultrasound machine that indicates a location of the ultrasound machine and an amount of charge of a battery of the ultrasound machine, and displaying an additional status that indicates an additional location of the ultrasound utility station and one or more available ultrasound probes on the ultrasound utility station. After receiving a selection of an ultrasound probe of the available ultrasound probes and a user input that determines a schedule for said configuring the ultrasound machine, the method instructs the ultrasound utility station to charge the battery of the ultrasound machine and provide the ultrasound probe for transfer to the ultrasound machine.

Abstract: An ultrasound probe with thermal management and methods for using and manufacturing the same are described. In some embodiments, an ultrasound probe includes electronics configured to control transmission and reception of ultrasound signals and a battery configured to provide power to the electronics. The ultrasound probe also includes a battery holder configured to house the battery and transfer heat away from the electronics and an enclosure configured to establish a seal that isolates the electronics from the battery and an environment external to the ultrasound probe.

Abstract: An ultrasound probe with thermal management and methods for using and manufacturing the same are described. In some embodiments, an ultrasound probe includes electronics configured to control transmission and reception of ultrasound signals and a battery configured to provide power to the electronics. The ultrasound probe also includes a battery holder configured to house the battery and transfer heat away from the electronics and an enclosure configured to establish a seal that isolates the electronics from the battery and an environment external to the ultrasound probe.

Abstract: Systems and methods for a combination ocular ultrasound and ophthalmoscope are described. In some implementations, a combination ocular ultrasound and ophthalmoscope device generates first ultrasound data from an ultrasound scan of an eye of a user using a first ultrasound scanner and generates optical data from an optical scan of the eye of the user using an optical sensor. The device generates an ultrasound image from the first ultrasound data and an optical image from the optical data. A hybrid image can be generated by the device from the first ultrasound data and the optical data, the hybrid image generated through the use of a machine-learned model. The combination ocular ultrasound and ophthalmoscope device can increase diagnosis confidence, injury identification, and patient comfort and experience in comparison to conventional, disconnected ultrasound and ophthalmoscope devices and systems.

Abstract: Systems and methods for a virtual sonography team are described. An ultrasound system includes an ultrasound scanner that is configured to generate ultrasound data based on reflections of ultrasound signals transmitted by the ultrasound scanner and communicate the ultrasound data over a communication network to at least one display device and an archiver. An ultrasound machine is coupled to the ultrasound scanner and is configured to determine examination data for the ultrasound examination and communicate the examination data to the archiver over the communication network. The display device is configured to generate an ultrasound image based on the ultrasound data as part of an ultrasound examination and communicate the ultrasound image to the archiver for aggregation with the examination data into a patient record of the ultrasound examination.

Abstract: Systems and methods to detect electromagnetic (EM) emissions on ultrasound systems are described. In some embodiments, an ultrasound system includes an ultrasound scanner that is configured to generate ultrasound data based on reflections of ultrasound signals transmitted by the ultrasound scanner. An ultrasound machine is coupled to the ultrasound scanner and configured to generate an ultrasound image based on the ultrasound data. A circuit is coupled to the ultrasound machine and configured to make a determination whether the ultrasound image is corrupted by a noise process.

Abstract: Embodiments of ultrasound utility station and methods for using the same are disclosed. In some embodiments, the method includes displaying a status of the ultrasound machine that indicates a location of the ultrasound machine and an amount of charge of a battery of the ultrasound machine, and displaying an additional status that indicates an additional location of the ultrasound utility station and one or more available ultrasound probes on the ultrasound utility station. After receiving a selection of an ultrasound probe of the available ultrasound probes and a user input that determines a schedule for said configuring the ultrasound machine, the method instructs the ultrasound utility station to charge the battery of the ultrasound machine and provide the ultrasound probe for transfer to the ultrasound machine.

Abstract: Systems and methods for a virtual sonography team are described. An ultrasound system includes an ultrasound scanner that is configured to generate ultrasound data based on reflections of ultrasound signals transmitted by the ultrasound scanner and communicate the ultrasound data over a communication network to at least one display device and an archiver. An ultrasound machine is coupled to the ultrasound scanner and is configured to determine examination data for the ultrasound examination and communicate the examination data to the archiver over the communication network. The display device is configured to generate an ultrasound image based on the ultrasound data as part of an ultrasound examination and communicate the ultrasound image to the archiver for aggregation with the examination data into a patient record of the ultrasound examination.