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 of the disclosed embodiments enable adherence to a medication regimen or a healthcare regimen to be monitored using a wearable system. The wearable system can be used to monitor a user's activities by recording activities using a camera that is placed at the anterior part of the user's wrist. The camera, or another sensor, can detect, identify, and verifying movements or gestures of the hand or fingers. A gesture may be a particular hand position, finger movement, or combination of finger movements that are indicative of performance of an activity required as part of a medication or healthcare regimen. The camera can generate a recording of an activity, and the wearable system or a distinct computing device can then analyze the recording and determine compliance to the medication or healthcare regimen based on what action(s), if any, were identified in the recording.

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: A therapeutic event such as administering a medication is established. A trigger is established for the therapeutic event, the trigger being a status of some condition. A determination is made as to whether the trigger is present. A prompt is established for the therapeutic event. If the trigger is present, the prompt is delivered to a subject such as a patient. A determination is able to be made as to whether the prompt is delivered, and/or whether the therapeutic event is executed by the subject.

Abstract: A method, system, apparatus, and/or device for displaying a portion of data so as to not obstruct a portion of a central visual field. The method, system, apparatus, and/or device may include a display configured to display data and a processing device coupled to the display. The processing device may be configured to determine a position of an eye of a viewer with respect to the display, define a first region of the display substantially corresponding with a peripheral vision field of the eye, define a second region of the display substantially corresponding with a central visual field of the eye, send a first portion of the data to be displayed at the first region, and send a second portion of the data to be displayed at the second output region such that a portion of the central visual field is unobstructed by the second portion of the data.

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: Sensors may be engaged with a container to provide data on how the container is manipulated. Data traces from those sensors exhibit signatures of events such as opening the container, dispensing medication, etc. Such medication events and contextual events provide authenticated data on the use of medication, as distinct from self-reported or predicted/modeled data. Multiple signatures may be combined to determine a confidence level for whether a medication has been taken, and/or aspects such as when, how, how much, etc. A container may be retrofitted by engaging a shoe containing sensors with the bottom of the container. Authenticated data may support improved selection and oversight of research subjects to reduce cost, time, etc. of clinical trials. Authenticated data also may support improved patient outcome. Pools of subjects and patients may be developed to inform selection of subjects and prescription of medications to patients.

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: A machine-implemented method includes obtaining input data and generating output data. The status of at least one contextual factor is determined and compared with a standard. If the status meets the standard, a transformation is applied to the output data. The output data is then outputted to the viewer. Through design and/or selection of contextual factors, standards, and transformations, output data may be selectively outputted to viewers in a context-suitable fashion, e.g. on a head mounted display the viewer's central vision may be left unobstructed while the viewer walks, drives, etc. An apparatus includes at least one sensor that senses a contextual factor. A processor determines the status of the contextual factor, determines if the status meets a standard, generates output data, and applies a transformation to the output data if the status meets the standard. A display outputs the output data to the viewer.

Abstract: Introduced herein are a variety of techniques for displaying virtual and augmented reality content to a user through head-mounted display (HMD). The techniques described herein can be used to improve the effectiveness of the HMD, as well as general experience and comfort of a user of the HMD. For example, a binocular HMD system could modify the overlap of digital content in real-time so that the two separate images can be viewed without visual discomfort. The HMD system could also present visual stabilizers to each eye allow the user to more easily visually align the two separate images when viewed together. Techniques such as these decrease the eye fatigue and strain experienced by the user when viewing virtual or augmented reality content on HMDs.

Abstract: This application is related to a head-mounted display system and related methods for entertainment, diagnostics, and treatment. The HMD includes various sensors and tools to take physical measurements, perform physical procedures, adjust physical conditions, or manipulate digital data. In some embodiments, the HMD produces different types of sensory stimuli, such as releasing or filtering certain compounds in liquid or aqueous forms in the space near the HMD, or adjusting different physical features of the space near the HMD, such as temperature and flow, to enhance the augmented or virtual reality environment being displayed. In some embodiments, the HMD performs regular monitoring, a specific examination, a surgical intervention, or other care procedures on the eyes automatically or in conjunction with a device of an eye care professional across a computer network to care for the user's eyes in real time or on an ongoing basis.

Abstract: Introduced here are universal modular attachments that can be attached to medication containers. Because a single modular attachment is typically attachable to medication containers of different sizes, the modular attachment can be referred to as a “universal modular attachment.” For example, some universal modular attachments are attachable to any cylindrical eye drop container having a diameter ranging from 20 millimeters (mm) to 27 mm. A connector ring that substantially matches the diameter of the medication container secures the universal modular attachment to the medication container. The connector ring may be fixedly affixed to the medication container, while the universal modular attachment may be detachably connectable to the connector ring. Each universal modular attachment also includes sensor(s) that are configured to detect administrations of medication.

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: A machine-implemented method includes obtaining input data and generating output data. The status of at least one contextual factor is determined and compared with a standard. If the status meets the standard, a transformation is applied to the output data. The output data is then outputted to the viewer. Through design and/or selection of contextual factors, standards, and transformations, output data may be selectively outputted to viewers in a context-suitable fashion, e.g. on a head mounted display the viewer's central vision may be left unobstructed while the viewer walks, drives, etc. An apparatus includes at least one sensor that senses a contextual factor. A processor determines the status of the contextual factor, determines if the status meets a standard, generates output data, and applies a transformation to the output data if the status meets the standard. A display outputs the output data to the viewer.

Abstract: This application is related to a system for measuring eye pressure and related methods. In some embodiments, the system includes a pressure sensor and a processor. The pressure sensor takes a measurement from a contact with an eyelid. The processor includes an engine that is built from a set of items, each comprising a list of user attribute values, the eye pressure measured by the pressure sensor, and the actual eye pressure level, and can estimate the actual eye pressure level and normalized eye pressure level. Given a new measurement of a user's eye pressure made by the pressure sensor, the processor identifies the user attribute values for the user and runs the engine to estimate the actual eye pressure level and the normalized eye pressure level.

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: Introduced herein are techniques for bringing scented advertisements into digital content (e.g., visual content and non-visual content). Such technology is able to address a fundamental challenge that is inherent in digital transactions, namely, an inability to accurately gauge different characteristics of a product. Several embodiments pertain to scent delivery systems that are able to produce scent(s) as part of a direct advertising campaign or an indirect advertising campaign. More specifically, a scent delivery system may be configured to produce scents that correspond to features of the digital content. For example, different scented materials can be dispensed based on characteristics of a product that is the subject of a scented advertisement.

Abstract: Introduced herein are techniques for bringing scented advertisements into digital content (e.g., visual content and non-visual content). Such technology is able to address a fundamental challenge that is inherent in digital transactions, namely, an inability to accurately gauge different characteristics of a product. Several embodiments pertain to scent delivery systems that are able to produce scent(s) as part of a direct advertising campaign or an indirect advertising campaign. More specifically, a scent delivery system may be configured to produce scents that correspond to features of the digital content. For example, different scented materials can be dispensed based on characteristics of a product that is the subject of a scented advertisement.

Abstract: Introduced herein are techniques for bringing scented advertisements into digital content (e.g., visual content and non-visual content). Such technology is able to address a fundamental challenge that is inherent in digital transactions, namely, an inability to accurately gauge different characteristics of a product. Several embodiments pertain to scent delivery systems that are able to produce scent(s) as part of a direct advertising campaign or an indirect advertising campaign. More specifically, a scent delivery system may be configured to produce scents that correspond to features of the digital content. For example, different scented materials can be dispensed based on characteristics of a product that is the subject of a scented advertisement.

Abstract: The present invention addresses the above described problems by simplifying the assumptions on possible motions made by a user. This simplification process can take place by making an assumption that the motion of the device will travel along a certain preferential motion arc, which will be referred to herein as the “Javal arc.” Calculations of motions of the device can be made based on these Javal arcs. Additionally, the double integration of each accelerometer is now eliminated and the expensive accelerometers are replaced by two magnetic sensors.