Abstract: Various embodiments relate to systems and methods for performing eye examinations using an HMD that is able to present an image to each eye individually and then to both eyes simultaneously. Because the HMD, rather than a patient, controls conditions (e.g., glare, brightness) during the examination, test results are more likely to be accurate and reliable. In some embodiments, the HMD employs voice recognition to replicate the conversational exchange that would typically occur between the patient and the ophthalmologist or optometrist. The HMD may also be configured to change the visual environment experienced by the patient during testing. Further yet, the HMD, or another distinct computing system, may be configured to identify abnormal test results in real-time and, in some embodiments, the examination is modified accordingly. For example, tests scheduled to be performed during the examination can be modified or removed and new tests can be added.

Abstract: Various embodiments relate to systems and methods for performing eye examinations using an HMD that is able to present an image to each eye individually and then to both eyes simultaneously. Because the HMD, rather than a patient, controls conditions (e.g., glare, brightness) during the examination, test results are more likely to be accurate and reliable. In some embodiments, the HMD employs voice recognition to replicate the conversational exchange that would typically occur between the patient and the ophthalmologist or optometrist. The HMD may also be configured to change the visual environment experienced by the patient during testing. Further yet, the HMD, or another distinct computing system, may be configured to identify abnormal test results in real-time and, in some embodiments, the examination is modified accordingly. For example, tests scheduled to be performed during the examination can be modified or removed and new tests can be added.

Abstract: Systems and methods for medication management are provided. Some embodiments provide for a portable medication management and monitoring system for eye drop instillation in ocular chronic conditions. At least one embodiment includes a device having one or more of the following elements: (a) a jacket that goes around an eye drop bottle; (b) tactile sensors to detect the user's fingers and generate data to activate the system; (c) motion sensors to detect the motion of the medication bottle when it is grabbed and moved by the user; (d) a wireless communication module to send and receive data to a computer and portable communication devices; and/or (e) a compartment for holding the electronic components.

Abstract: Network-connected (i.e., “smart”) containers are described herein that include an electronic display on which personalized information can be presented. For example, the electronic display (and other necessary components, such as memory, processors, and communication modules) can be integrated into the cap or the body of a container, which holds a skin care product (e.g., a medication or a personal care product, such as a cosmetic) that is applied by the user as part of a skin care regimen. More specifically, a smart container can include an electronic display that presents relevant information to a user for review. Such information can include the name of the skin care product, textual instructions for complying with a skin care regimen, animations illustrating how to apply the skin care product, user information, messages (e.g., text messages delivered via a cloud service), notifications, and device information (e.g., battery status and network connectivity status).

Abstract: Various embodiments relate to systems and methods for monitoring adherence to a medication regimen through the use of a smart medication container. The container can include an electronic display that presents relevant information, such as dosage and/or medication information, instructions, user information, messages, notifications, and device information (e.g., battery status, network connectivity status). A pair of conductive elements positioned on either side of the container's opening can be configured to continually measure capacitance in order to identify when contents (e.g., pills) leave the container. More than one pair of conductive elements may be used to improve accuracy and reduce the effects of noise. A processor is able to analyze the capacitance data and determine whether medication has been dispensed from the container and, if so, how much medication was dispensed. A computer system can then compare the results to a planned medication regimen to determine a state of compliance.