JP2015509613A - Lens storage unit with programmable and communication elements to monitor lens conditions and their response to geosocial phenomena - Google Patents

Abstract

The present invention provides an apparatus that correlates geosocial phenomena with the state of an ophthalmic lens. The apparatus includes an ophthalmic lens storage unit that stores one or more ophthalmic lenses including programmable, the ophthalmic lens storage unit includes a processor in digital communication with the digital media storage device, the digital media storage device The executable software code is stored, and the apparatus further includes a transmitter and a receiver that are in logical communication with the transmitter and the processor and that are also in logical communication with the communication network. The software is executable on demand, and with the processor, sends and receives digital data via the transmitter, processes the stored digital data from one or more inputs and sources describing multiple events, Operates to determine the priority of the recording describing the event, the priority is determined based on the event affecting the optical performance of the ophthalmic lens, and the software further affects the optical performance of the ophthalmic lens. Identifying one or more events that can provide the following: monitoring the optical performance of the ophthalmic lens in the ophthalmic lens storage unit, correlating changes in the optical performance of the ophthalmic lens in the base unit with the identified event, and And one or more signals to a given network access device based on the correlation of changes in optical performance of the ophthalmic lens It operates to trust.

Description

  The present invention relates to an apparatus for correlating geosocial phenomena with the state of an ophthalmic lens.

  It is well known that contact lenses can be used to improve vision. Various contact lenses have been manufactured commercially for many years. Early designs of contact lenses were made from hard materials. Although these lenses are still used in some applications, they are not comfortable and are not suitable for all patients due to their relatively low permeability to oxygen. Later developments in this field have led to the emergence of soft contact lenses based on hydrogels.

  Hydrogel contact lenses are very popular today. These lenses are often more comfortable to wear than contact lenses made of hard materials. Many hydrogel contact lenses can be worn for longer than a day. However, it is generally desirable to periodically disinfect and disinfect lenses because microorganisms and bacteria accumulate in the lens.

  Conventionally, contact lenses are disinfected by placing the contact lenses in a container or case and exposing the contact lenses to a chemical disinfectant. However, chemical disinfectants are not always as effective as needed. Contact lenses with attached bacteria, mold, or other types of harmful organisms are often reinserted into the user's eye, resulting in eye disease.

  Accordingly, there is a need for new methods and techniques for monitoring contact lens conditions and responses to geosocial phenomena. For example, geosocial phenomena can include weather changes, remaining usage cycles, current lens conditions, user age, pollution in geographic locations, and the like.

  Accordingly, the present invention is an apparatus for correlating geosocial phenomena with the state of an ophthalmic lens, which is a programmable ophthalmic lens storage unit that stores one or more ophthalmic lenses. The storage unit includes a processor in digital communication with the digital media storage device, the digital media storage device in logical communication with the programmable eye lens storage unit for storing executable software code, and the communication A transmitter and receiver that perform logical communication with a network, the software can be executed on demand, and together with the processor, sends and receives digital data via the transmitter, and stores a plurality of stored digital data. Process events from one or more inputs and sources that describe the event and describe the event The priority is determined based on events that affect the optical performance of the ophthalmic lens, and the software, in addition to the processor, affects the optical performance of the ophthalmic lens. Identifying one or more events that may be provided, monitoring the optical performance of the ophthalmic lens in the ophthalmic lens storage unit, correlating changes in the optical performance of the ophthalmic lens in the base unit with the identified event, and An apparatus is provided that includes a transmitter and a receiver that are operative to transmit one or more signals to a predetermined network access device based on a correlation of changes in optical performance of the ophthalmic lens.

  Correlation data can be stored in one or more of the sources.

  The software may further operate to evaluate the correctness of the correlation by comparing the optical performance data of other ophthalmic lenses that receive the same event against the ophthalmic lens storage unit data.

  The software further operates to allow additional inputs to affect priority.

  The apparatus can further include one or more sensors that measure and store digital data describing the optical performance of the ophthalmic lens.

  The sensor can include a device that detects one or both of light intensity and vector direction to generate data describing the optical performance of the ophthalmic lens during disinfection.

  The apparatus can further include a bar code reader that can download and process corresponding data identifying the ophthalmic lens product over a network.

  The corresponding data can include lens specific optical performance specifications.

  Data describing the optical performance of the ophthalmic lens can include the refractive power of the lens and the base curve.

  The measured optical performance can be compared to the lens specification to monitor the actual optical performance of the ophthalmic lens.

  The actual optical performance data measured can be stored during disinfection for future analysis to detect changes in performance over time using a predetermined threshold.

  A processor in the ophthalmic lens storage unit can process data describing particle accumulation at the beginning of the ophthalmic lens disinfection cycle to diagnose an eye infection.

  The sensor can include a device that measures the temperature of the liquid in which the lens is stored.

  The apparatus can further include a user interface that can display a message reminder to the user based on the digital data transmitted by the processor.

  The transmission signal can include a communication element that can send the message to an associated processing device that is used to receive the message and display the message to one or both of the user and the third party.

  The event can be specific to the user's location.

  The user's position can be determined by tracking the position of the base unit.

  The user's location can be determined using an application in the handheld device.

  Events can include changes in atmospheric conditions.

  Atmospheric conditions can include temperature changes.

  Atmospheric conditions can include humidity changes.

  Atmospheric conditions can include atmospheric pressure changes.

  The atmospheric conditions can include tracking the presence of allergenic particles in the air.

  The apparatus can further include a universal serial bus connector that provides logical communication between the processor and one or both of the processor and the digital storage device.

  The apparatus may further include an electrical storage that stores power for operating the storage device base.

  The power storage unit can include one or more rechargeable batteries.

  The power storage unit can include one or more lithium batteries.

  Ophthalmic lens storage unit stores reusable contact lenses while disinfecting lenses during storage using disinfecting radiation to kill unwanted bacteria, viruses, molds, fungi, etc. on contact lenses Can be able to.

  The ophthalmic lens storage unit may include logic circuitry that records and analyzes data to perform various functions. Functions control disinfection radiation during the disinfection cycle, monitor lens usage, evaluate lens optical performance, and display network related devices, or network and related devices to users and third parties One or both of them may send related messages.

  The apparatus can include one or more sensors that measure and store data describing the state of the lens. For example, the sensor can measure optical performance, track the optical performance of the lens, and generate a message alerting the user that the lens must be replaced.

  In addition, a barcode reader can be included to allow scanning of the package in which the lens is housed. Simultaneously with scanning the barcode in the packaging, the disinfection unit can download data corresponding to those lenses using the network. For example, the data includes the number of lenses included in the package, the recommended length of time or wear cycle that the lens can be used before replacement, the origin and lens lot number, prescription information, etc. Can be included.

  In addition, the processor and sensors can be used to monitor the use of the lens and the state before and after use. For example, a light emitter and detector can be used to measure the optical effect of the lens. Optical effects can be measured before, during, and after lens disinfection to monitor the number of particles that have accumulated in the lens during wear and the effect that particles have on lens performance during cleaning. Preservation of particle accumulation and lens state changes can be detected to detect abnormal changes and then alert the user to prevent events such as eye infections, for example.

  Events that are geographical location or user specific can be downloaded. A correlation score can then be assigned to the event in relation to the effect that the event may have on the optical performance of the lens. For example, atmospheric humidity and pollen changes, temperature changes, pollution changes, altitude, water pollution, and changes in the duration of the wash cycle. The event data can be downloaded from a third party source such as a lens manufacturer or weather station according to predetermined settings. In addition, measured lens performance data can be stored in relation to the location where the lens user is located, after which the data can be analyzed, the impact of events within other users of the lens, product quality compliance, and product development studies. Can be sent to manufacturers. Position tracking may be performed using an ophthalmic lens storage unit or related device. For example, a mobile phone with an IC card function having an application for recording position and altitude.

Fig. 5 illustrates steps of a method for collecting and storing user work data. Fig. 4 illustrates steps of a method for collecting and storing sensor data. Fig. 4 illustrates steps of a method for controlling a case function by executing a process or operation. Fig. 5 shows the steps of a method for displaying a user message. Fig. 4 illustrates a method step for programming an ophthalmic lens storage unit. Fig. 4 illustrates steps of a method for communicating data between an ophthalmic lens storage unit and other devices and entities. Indicates a processor. FIG. 2 shows a network diagram with devices that can be used for automated order placement. Fig. 4 shows an exemplary screenshot of a touch screen display of a disinfection unit device showing possible user options for the device. FIG. 6 shows an exemplary screenshot of a pre-cleaned lens and a disinfecting base unit showing the cleaned lens as measured by a sensor that can be incorporated into an ophthalmic lens storage unit. FIG. 5 shows an exemplary screenshot of a disinfection unit device showing some of the user settings that customize the functionality of the ophthalmic lens storage unit. FIG. 6 shows an exemplary screenshot of a disinfection base unit device associated with eye care professional appointments and automated lens ordering. FIG. 5 shows a flowchart with exemplary steps that an ophthalmic lens storage unit may perform to correlate events with changes in optical performance of a lens.

  The present disclosure includes a method and apparatus for storing and analyzing data relating to the state of the ophthalmic lens, controlling the function of the ophthalmic lens storage unit, data analysis, and displaying messages resulting from the data analysis. Also included is an option to program the ophthalmic lens storage unit to communicate with external devices or entities for various purposes. For example, for collecting and analyzing geosocial data.

  The following sections provide a detailed description of one or more embodiments of the invention. It is to be understood by those skilled in the art that the descriptions of both the preferred and alternative embodiments are merely representative embodiments, and variations, modifications, and changes are possible. Thus, it should be understood that these exemplary embodiments do not limit the scope of the underlying invention.

Glossary In this description and in the claims, various terms to which the following definitions apply may be used. As used herein, “related third party” refers to information or information. Refers to a third party who can send to the storage device. For example, a third party may include an eye care professional's examination room, contact lens manufacturer, or retailer.

  As used herein, “authentication feature” refers to a readable feature used in a lens to prevent counterfeit products from being used by a user. For example, the readable feature can be a structural feature, a printed symbol, or a code.

  Automated order: As used herein, “automated order” means, for example, lens usage frequency, lens condition used, user priority, third party input data and purchased lens Refers to orders generated by a processor based on multiple factors, including numbers.

  Correlated events: As used herein, a “correlated event” is one that is usually evaluated (by the system) and the commonality is the lens state with respect to the event and some change in the optical performance of the lens. It has been specified between.

  Correlation score: As used herein, a “correlation score” can be a numerical value that is a measure of how two or more correlated events / states correlate with each other.

  Disinfecting radiation dose: As used herein, “disinfecting radiation dose” refers to an amount of radiation that reduces the amount of organisms, including at least bacteria, viruses, molds and fungi, on a logarithmic scale by at least 2 Logs, preferably 3 Logs or more. Refers to that.

  Disinfecting radiation: As used herein, “disinfecting radiation” refers to the frequency and intensity of radiation sufficient to reduce the expected life of an organism receiving a disinfecting radiation dose.

  Event: As used herein, an “event” is usually any occurrence that is considered to be somewhat important to / by the state of the lens, as determined in advance by a particular user or a given third party. The occurrence of things. Event data can be formatted in a manner that is not source specific (eg, using a standard protocol such as XML). The system includes GPS location for mobile users, weather information, geographical information, local events, time and date, news and current news, and the current source of the system (behavioral science data, health and health status data, medical data Data from sources such as health insurance data, employer data, etc.).

  Geosocial data: As used herein, “geosocial data” refers to location acquisition technology (eg, GPS, telephone) that enables the generation of lifestyle patterns and associates users with frequently visited places. Data from location assessments recorded using a “check-in” application, etc.). The data includes normative data generated in accordance with a particular recorded location or similar location.

  Importance score: As used herein, an “importance score” usually includes a method of prioritizing events, actions, and lens states. For example, the importance score can include a system that assigns a numerical value to each particular event by the system for prioritization.

  Lens: Refers to any ophthalmic device placed in or on the eye. These devices may provide optical correction or may be cosmetic. For example, the term lens refers to contact lenses, intraocular lenses, overlay lenses, eyeball inserts, optical inserts, or cosmetically thereby correcting or altering visual acuity so that the physiological properties of the eye do not interfere with visual acuity. May refer to other similar devices such as those highlighted (eg iris color). The lenses can include soft contact lenses made from silicone elastomers or hydrogels, which silicone elastomers or hydrogels include, but are not limited to, silicone hydrogels and fluorohydrogels.

  Network Access Device: As used herein, “network access device” means a device that accesses a communication network that can convert and receive digital data.

  Normative data: As used herein, “normative data” refers to the various levels (such as age, gender, etc.) that are used to compare user-specific data with objective external standards. Data representing normal or average responses or impacts from any given event (eg, news, etc.).

  Ophthalmic lens storage unit: As used herein, an “ophthalmic lens storage unit” refers to a disinfecting base unit, a disinfecting storage unit or a disinfecting storage unit that stores reusable contact lenses and disinfects lenses during storage. Refers to a combination. For example, through the use of a solution and / or by receiving disinfecting radiation of an appropriate wavelength and intensity to kill unwanted bacteria, viruses, molds, fungi, etc. on contact lenses. The ophthalmic lens storage unit can include more than one storage case for disinfection.

  Radiation disinfection base unit: As used herein, a “radiation disinfection base unit” refers to unwanted bacteria, viruses, optionally on the surface of one or more contact lenses, and optionally even on the surface of a disinfection storage device. Refers to a device capable of accepting one or more radiation disinfecting storage cases to provide disinfecting radiation of a wavelength, duration and intensity suitable for killing molds, fungi and the like.

  Radiation disinfection storage case: As used herein, a “radiation disinfection storage case” stores reusable contact lenses and kills unwanted bacteria, viruses, molds, fungi, etc. on contact lenses It refers to a lens storage case capable of disinfecting lenses during storage by receiving disinfecting radiation of a wavelength and intensity suitable for use.

  Real-time: As used herein, “real-time” means an artificially introduced process, action or transaction without delay.

  Referring now to FIG. 1, a flowchart illustrates exemplary steps that can be used. At 101, the user performs an action that affects the ophthalmic lens storage unit. Such actions include, for example, opening the radiation disinfection base unit or case, closing the radiation disinfection base unit or case, inserting the radiation disinfection storage case, removing the radiation disinfection storage case, or pressing a button. Etc. may be included.

  At 102, data obtained from a user action is transmitted to the processor board. Data transmission may include direct electrical connection, such as via a universal serial bus (USB), or wireless transmission such as, for example, radio frequency transmission (RF transmission), Bluetooth, or other logic communication mechanisms.

  At 103, the processor board executes executable software to process data obtained from user actions. Executable software can reset the lens disinfection cycle counter after the user presses the reset button on the ophthalmic lens storage unit to indicate that a new lens is being used. Additionally or alternatively, executable software may reset the radiation disinfection storage case timer after the user presses a reset button on the radiation disinfection base unit to indicate that the ophthalmic lens storage unit has been replaced. Executable software may increment cleaning cycle counters, lens and storage case usage timers, and other functions related to lens and storage case usage and disinfection.

  At 104, executable software causes the processor board to store data in a digital storage device. The stored data may include changes based on user actions, data based on measurements from sensors, and executable software functions such as resetting counters and timers. The stored data can include dates and times associated with user actions or executable software actions. Data storage may include, for example, one or more storage devices of user preference settings, historical data logs, current lens data logs, and current radiation disinfection storage case data logs. .

  Referring now to FIG. 2, a flowchart illustrates exemplary steps that can be used. In 201, a sensor in the ophthalmic lens storage unit or lens storage case detects information. Sensors may store lenses, for example, LED sensors, charge-coupled device (CCD) arrays, CCD cameras, barcode scanners, or one or both of light intensity and duration of exposure to specific wavelengths of radiation. Other known sensors such as a device for detecting the temperature of the solution, the pH of the solution in which the lens is stored, moisture, the amount of protein accumulated in the lens, or other conditions may be included. At 202, sensor data is transmitted to the processor board. Data transmission may include direct electrical connection, radio frequency transmission, or other mechanisms of logic communication or transmission. The term “sent” is used to describe the transfer of data from the sensor to the processor board, but the data may be polled from the sensor or communicated in some other way. Each communication medium is accompanied by a suitable transmission device. For example, RF transmission includes an RF transmitter placed in a storage case and an RF receiver placed in an ophthalmic lens storage unit. Both the RF transmitter and receiver can be included in the base and storage case. Direct telecommunications includes a conductive path between the sensor in the storage case and the processor in the base.

  At 203, the processor board executes executable software to process the sensor data. The sensor data can be compared with historical data to determine the cleanliness of the contact lens or storage case. In addition, the ability to compare sensor data with stored baseline data will determine whether the radiation disinfection storage case is in the radiation disinfection base unit and whether the contact lens is in the radiation disinfection storage case. Is detected. The ability to compare sensor data with stored lens profile data identifies a unique brand of contact lenses. By being able to compare sensor data with stored lens data, the optical power of each contact lens is detected, which helps the user of the disinfection unit by identifying the right contact lens and the lens contact lens. It becomes.

  For example, a predetermined amount of ultraviolet (UV) radiation can be transmitted through a contact lens stored in a storage case. One or more sensors can be used to detect the amount of ultraviolet radiation that is transmitted through one or more portions of the contact lens. A profile of the amount of radiation transmitted through such one or more portions can be generated. Certain lens types produce identifiable patterns in this profile. The pattern can be used to identify the type of lens, the disinfection rate of a particular lens, or to further identify a particular lens type.

  At 204, executable software causes the processor board to save the data to a digital storage device. Stored data includes data collected by the sensor, as well as, for example, the number of days until the lens needs to be replaced, the number of days until the storage case needs to be replaced, and the lens opacity indicating the cleanliness of the lens. Ratio (%), radiation disinfection storage case opacity ratio (%) indicating the cleanliness of radiation disinfection storage case, presence of radiation disinfection storage case, presence of contact lens, identified lens brand, and identified Data obtained by viable software analysis, such as the optical power of the lens, may be included. The stored data can include date and time associated with sensor data or results from executable software. Data storage may include, for example, one or more storage devices of historical data logs, current lens data logs, current radiation disinfection storage case data logs, and sensor specific data logs. .

  Referring now to FIG. 3, a flowchart illustrates exemplary steps that can be used. At 301, the processor board executes executable software to analyze previously stored data and / or data received from the associated device to determine the appropriate action. The executable software can analyze whether the ophthalmic lens storage unit has been recently plugged in or closed, the current state of the lens, and related events. Executable software can analyze the stored data to determine when a wash cycle should be initiated. Specific details such as the duration, pattern, and intensity of the disinfecting radiation used in the cleaning cycle can be calculated or selected. The executable software can identify whether the radiation disinfection base unit is currently plugged into an external power source.

  At 302, the processor board performs a process or operation, such as by way of non-limiting example, a radiation disinfection base case initialization routine and a radiation disinfection cleaning cycle. Other actions may include, for example, sending a message warding to the user / relevant third party, in particular sending actual data to the server. In operation, the ophthalmic lens storage unit may include power management operations such as charging the battery within, performing the ophthalmic lens storage unit from battery power, or executing the base unit directly from a power source.

  At 303, executable software causes the processor board to store process completion data in a digital storage device. Process completion data includes, for example, detection of LED intensity, detection of the presence of a radiation disinfection storage case, detection of contact lenses in the radiation disinfection storage case, and appropriate lenses in each well of the radiation disinfection storage case Data regarding the case initialization process including frequency detection may be included. Stored data can be related to a radiation disinfection cleaning cycle, including radiation duration, radiation timing pattern, radiation intensity, and post disinfection cleanliness data related to contact lenses and radiation disinfection storage cases . The completion data may include battery charge time, battery charge rate (%), time when the base case is operated using the battery, and time when the base case is operated using the direct power source. The stored data can include a date and time associated with the process completion data. Data storage may include, for example, one or more storage devices of a historical data log, a current lens data log, and a current radiation disinfection storage case data log.

  Referring now to FIG. 4, a flowchart illustrates exemplary steps that can be used. At 401, the processor board executes executable software to analyze pre-stored data and determine an appropriate user message to be displayed. Executable software includes, for example, the remaining life of the lens, the need to make an appointment with an eye care professional, the remaining lens, order information and automatic ordering, and a barcode to confirm that the lens is not a fake lens Analyze lens tracking, lens optical performance, and new product recommendations for specific users.

  At 402, the processor board displays a user message in the message display area of the ophthalmic lens storage unit. The processor board is time to insert and disinfect the contact lens, to begin using a new contact lens, to begin using a new radiation disinfection storage case, A message indicating that it is time to make an appointment, time to order a new lens, and new product information specific to the user can be displayed. For example, the disinfection cycle has been interrupted, the disinfection cycle has not been completed correctly, the barcode is not recognized / does not match the lens based on the database, and the user needs to consult a customer service representative The user immediately misplaces the left and right contact lenses by placing the lens in the wrong well of the radiation disinfecting storage case, for example, when an abnormally large accumulation of microorganisms is detected on the lens. Warning messages such as the need to visit an eye care professional can be displayed. The processor board, for example, indicates that the current battery level, the battery needs to be recharged, that there is not enough battery power to complete the cleaning cycle, and that the unit needs to be connected to an outlet Causes the display of base unit status messages such as when it is no longer possible to recharge and it is time to replace the radiation disinfection base unit, or when one or more LEDs are weak and it is time to replace the radiation disinfection base unit be able to. The processor board can be used to restart the disinfection cycle, restart the disinfection cycle, reprogram the radiation disinfection base unit, store data on a computer or other external device, and an eye care professional or others An instruction message such as how to transmit data to the other party can be displayed.

  At 403, executable software causes the processor board to store user message data in a digital storage device. The user message data includes, for example, an indication of a specific message to be displayed and a reason why the specific message has appeared. For example, a message may be displayed that the contact's radiation disinfection storage case will be replaced due to expiration or because the sensor detects a radiation disinfection storage case replacement indicator. The stored data can include the date and time associated with the user message display. Data storage may include, for example, one or more storage devices of a historical data log, a current lens data log, and a current radiation disinfection storage case data log.

  Referring now to FIG. 5, a flowchart illustrates exemplary steps that can be used. At 501, the user determines how to program the ophthalmic lens storage unit by selecting a particular configuration option. User decisions are based on information provided through the ophthalmic lens storage unit, information obtained on the website, information from the user's eye care professional, information from the lens manufacturer or other sources. Good. A user decision leads to 502, 503, 506, or 509. The user can download different pre-set or customized software at any time. If the user's lens brand or lens parameters change, updated software is available to correct program errors, if the user wants more or less functionality from the ophthalmic lens disinfection unit, And for other reasons, it may be desirable to download new software. After loading a preset or customized program, the user may or may not be given the option to return the ophthalmic lens storage unit to its basic operating state.

  At 502, the user decides to use only the basic storage functions provided by the ophthalmic lens storage unit. No further steps, programming, or configuration are required to use the unit with basic functions. Basic operations may include, by way of non-limiting example, an initialization routine when the user closes the case, a general radiation disinfection cycle suitable for many disposable lenses, and basic user messages.

  At 503, the user selects from a limited number of preset software options for a particular ophthalmic lens storage unit. The preset software can be selected, for example, based on the brand of lens worn by the user, based on the function of the desired case, and based on other criteria. At 504, the selected preset software is downloaded from the website or from a smartphone application, or from a PC using a CD provided with an ophthalmic lens storage unit, or by other known software distribution methods. Downloaded to the ophthalmic lens storage unit. At 505, the ophthalmic lens storage unit is controlled using preset software. In addition to the functions available in basic operation, the pre-configured software is based on, as a non-limiting example, a radiation disinfection cycle specific to the contact lens brand and wear schedule, a standard lens wear schedule Supports counters and reminders, the ability to later upload data from the ophthalmic lens storage unit for analysis, extended user messages, and other functions.

  At 506, the user customizes the software configuration of the ophthalmic lens storage unit. The software can select or block functions such as counters and reminders, for example, by selecting specific brands and lens parameters to be worn for each eye of the user, by selecting a customer-specific wear schedule. By entering a date or other identifying information by entering the date of the previous eye examination or lens purchase by entering the date of the previous eye examination or lens purchase, the option of data communication By selecting, it can be customized by scanning a barcode on the lens package to download detailed information about the lens and by other functions. At 507, the ophthalmic lens disinfection unit can be customized software from a website or from a smartphone application, or from a PC using a CD provided with an ophthalmic lens storage unit, or by other methods of software distribution. To be downloaded. At 508, the ophthalmic lens storage unit is controlled using customized software. In addition to the functions available in the basic operation, the customized software provides, as a non-limiting example, a radiation disinfection cycle specific to the brand and parameters of the contact lenses worn by the user, the wearing of the lens indicated by the user Scheduled counters and reminders, ability to identify wrong contact lens frequency in wrong wells of storage case, ability to later upload data from ophthalmic lens disinfection unit for analysis, customized user message, Support for displaying user names or other identifying information, communicating data with other devices, and other functions.

  At 509, an eye care professional (ECP) programs an ophthalmic lens storage unit for the user in the examination room. The eye care professional (ECP) uses pre-configured software as described in the path starting at step 503 or a customized software configuration as described in the path starting at step 506. can do. At 510, pre-configured or customized software is available for the eye from a PC using a website, a smartphone application, a CD provided with an ophthalmic lens storage unit, or by other known software distribution methods. Downloaded to the lens storage unit. At 511, the ophthalmic lens storage unit can be controlled using preset software as described above in step 505 or customized software as described above in step 508.

  Referring now to FIG. 6, a flowchart illustrates exemplary steps that can be used. At 601, a user can make a decision about communicating data from an ophthalmic lens storage unit. Further, default communication may be executed. The decision by the user may be based on, for example, information provided by the ophthalmic lens storage unit, information obtained on the website, information from the user's eye care professional, or information from other sources. One or both of the user decision and the default communication mode may ultimately lead to 602, 603, 607 or 610.

  At 602, the user decides to use the ophthalmic lens storage unit in a stand-alone manner. The data may be saved for later analysis or simply not recorded.

  At 603, the user enables communication between the ophthalmic lens storage unit and a PC, smartphone, or other device capable of receiving data for the ophthalmic lens storage unit. Data sharing can be facilitated by an application of an ophthalmic lens disinfection unit available via a PC, smart phone, or other device. The application of the ophthalmic lens storage unit may be a stand-alone application that runs on the computing device, or may be an application that is available on a website that is accessed using the computing device, Alternatively, it may be a distributed application having a function executed by both a stand-alone computing device and a website.

  At 604, the ophthalmic lens storage unit data is visualized and analyzed using the ophthalmic lens storage unit application. Data includes text, charts, graphs, and other representation formats. The data includes, but is not limited to, contact lens brands and parameters, contact lens wear schedules, user specific information, cleaning cycle details, contact lens cleanliness data, contact lens and radiation disinfection storage cases. The replacement history, the recommended number of days to contact lens replacement, and the recommended number of days to replace the radiation disinfection storage case may be included. The data includes diagnostic information of the ophthalmic lens storage unit such as battery information, LED information, sensor information, and communication details.

  At 605, the user makes a decision to send the ophthalmic lens storage unit data to an eye care professional. An application for an ophthalmic lens storage unit can, for example, send an e-mail containing text information, send an e-mail containing a data file, or send a file or data on a website accessible to eye care professionals. Data sharing with eye care professionals can be facilitated using known data transmission methods such as making available or other means. Non-limiting examples of ophthalmic lens storage unit data shared with eye care professionals include contact lens brands and parameters, contact lens wear schedule, user specific information, cleaning cycle details, contact Lens cleanliness data, contact lens and radiation disinfection storage case replacement history, recommended contact lens replacement days, recommended radiation disinfection storage case replacement days. The shared data may include diagnostic information of the ophthalmic lens storage unit such as battery information, LED information, sensor information, and communication details. The shared data may be in the form of text, charts, graphs, and other representation formats. An eye care professional may be able to send messages and data to the application of the user's ophthalmic lens storage unit, in which case the messages and data can be viewed in the application or the ophthalmic lens It may be transmitted to the disinfection unit and displayed in the display area. Eye care professional messages and data may include, for example, eye exam reminders, contact lens purchase reminders, sales information, order information, or other information.

  At 606, the user makes a decision to send the ophthalmic lens storage unit data to the contact lens manufacturer or other supplier of contact lenses. Applications for ophthalmic lens storage units include, for example, sending e-mails containing text information, sending e-mails containing data files, and websites accessible to manufacturers or other contact lens suppliers The files or data can be made available above, or data sharing methods such as other means can be used to facilitate sharing of data with the manufacturer or other contact lens suppliers. Non-limiting examples of ophthalmic lens storage unit data shared with manufacturers or other contact lens suppliers include contact lens brands and parameters, contact lens wear schedules, user specific information, May include cleaning cycle details, contact lens cleanliness data, contact lens and radiation disinfection storage case replacement history, recommended contact lens replacement days, recommended radiation disinfection storage case replacement days . For example, diagnostic information of the ophthalmic lens storage unit such as battery information, LED information, sensor information, and communication details can be shared. The shared data may be in the form of text, charts, graphs, and other representation formats. The manufacturer or other contact lens supplier may be able to send messages and data to the application of the user's ophthalmic lens storage unit, in which case the messages and data can be viewed in the application. Alternatively, it may be transmitted to the ophthalmic lens storage unit and displayed in the display area. Manufacturer messages and data include, for example, eye exam reminders, contact lens purchase reminders, order information, and instructions to complete automated orders, contact lens rebate information, contact lens purchase coupons, Or other information may be included.

  At 607, the user provides an ophthalmic lens storage unit to an eye care professional, who can receive data from a PC, smartphone, or ophthalmic lens disinfection unit from the ophthalmic lens storage unit. Communicate to devices in the examination room of an eye care professional such as other devices. An ophthalmic lens storage unit application available via a PC, smart phone or other device can facilitate data sharing. The application of the ophthalmic lens storage unit may be a stand-alone application that runs on the computing device, or may be an application that is available on a website that is accessed using the computing device, Alternatively, it may be a distributed application having a function executed by both a stand-alone computing device and a website. At 608, the ophthalmic lens storage unit data is visualized and analyzed using the ophthalmic lens storage unit application. The data can include text, charts, graphs, and other representations. The data includes, but is not limited to, contact lens brands and parameters, contact lens wear schedules, user specific information, cleaning cycle details, contact lens cleanliness data, contact lens and radiation disinfection storage cases. The replacement history, the recommended number of days to contact lens replacement, and the recommended number of days to replace the radiation disinfection storage case may be included. For example, diagnostic information of the ophthalmic lens storage unit such as battery information, LED information, sensor information, and communication details can be shared. The eye care professional may be able to send messages and data to the user's ophthalmic lens storage unit, in which case the messages and data can be displayed in the display area. Eye care professional messages and data may include, for example, eye exam reminders, contact lens purchase reminders, and sales information.

  At 609, the eye care professional makes a decision to send the ophthalmic lens storage unit to the contact lens manufacturer or other supplier of contact lenses. Applications for ophthalmic lens storage units include, for example, sending e-mails containing text information, sending e-mails containing data files, and websites accessible to manufacturers or other contact lens suppliers The files or data can be made available above, or data sharing methods such as other means can be used to facilitate sharing of data with the manufacturer or other contact lens suppliers. Non-limiting examples of ophthalmic lens storage unit data shared with manufacturers or other contact lens suppliers include contact lens brands and parameters, contact lens wear schedules, user specific information, May include cleaning cycle details, contact lens cleanliness data, contact lens and radiation disinfection storage case replacement history, recommended contact lens replacement days, recommended radiation disinfection storage case replacement days . For example, diagnostic information of the ophthalmic lens storage unit such as battery information, LED information, sensor information, and communication details can be shared. The shared data may be in the form of text, charts, graphs, and other representation formats.

  At 610, the user provides an ophthalmic lens storage unit to a manufacturer or other contact lens supplier eye care professional, and the manufacturer or other contact lens supplier from the ophthalmic lens storage unit to a PC, smartphone. Or communication to a device in the manufacturer's office, such as another device capable of receiving ophthalmic lens storage unit data. An ophthalmic lens storage unit application available via a PC, smart phone or other device can facilitate data sharing. The application of the ophthalmic lens storage unit may be a stand-alone application that runs on the computing device, or may be an application that is available on a website that is accessed using the computing device, Alternatively, it may be a distributed application having a function executed by both a stand-alone computing device and a website. At 611, the ophthalmic lens storage unit data is visualized and analyzed using the ophthalmic lens storage unit application. The data can include text, charts, graphs, and other representations. The data includes, but is not limited to, contact lens brands and parameters, contact lens wear schedules, user specific information, cleaning cycle details, contact lens cleanliness data, contact lens and radiation disinfection storage cases. The replacement history, the recommended number of days to contact lens replacement, and the recommended number of days to replace the radiation disinfection storage case may be included. For example, diagnostic information of the ophthalmic lens storage unit such as battery information, LED information, sensor information, and communication details can be shared. The manufacturer or other contact lens supplier may be able to send messages and data to the user's ophthalmic lens storage unit, in which case the messages and data can be displayed in the display area. . The manufacturer's message and data may include, for example, eye exam reminders, contact lens purchase reminders, contact lens rebate information, contact lens purchase coupons, or other information.

  Referring now to FIG. 7, a controller 700 that can be used is illustrated. The controller 700 includes a processor 710 that may include one or more processor components coupled to the communication device 720. Communication device 720 may be configured to communicate information over a communication channel to electronically transmit and receive digital data associated with the functions described herein.

  The communication device 720 may also be used to communicate with one or more human readable display devices such as, for example, an LCD panel, LED display, or other display device or printer. Some suitable touch screens are utilized that provide an interface between a human and an ophthalmic lens storage unit.

  The processor 710 may also be in communication with the storage device 730. The storage device 730 is a semiconductor storage device such as a magnetic storage device (eg, magnetic tape, RF tag, and hard disk drive), optical storage device, and / or random access memory (RAM) device, read only memory (ROM) device, etc. Any suitable information storage device including a combination of the above may be provided.

  The storage device 730 can record a program 740 for controlling the processor 710. The processor 710 executes instructions of the program 740. For example, the processor 710 may receive information describing the lens, lens inventory, lens optical performance, eye care specialist examination room prescription or appointment information, user preferences, and the like. The storage device 730 receives patient-related data from a source such as an eye care professional's examination room, directly from a manufacturer's network, a third party, or entered by a user in the databases 750 and 760. It can also be stored in one or more.

  Referring now to FIG. 8, the network diagram shows which ophthalmic lens storage unit 801 is connected via the manufacturing network 807, such as the Internet, cellular link, virtual private network, or other means of communicating digital data. It illustrates how it can be connected. The ophthalmic lens storage unit may include sensors, communication devices, and programmed capabilities such as those described in this application. In addition, the apparatus can include a programmable processor and storage device connected to a human readable display device, as discussed further below with respect to FIG.

  Typically, the ophthalmic lens storage unit 801 tracks inventory that is accessible by the ophthalmic lens storage unit 801 and generates an automated order for the ophthalmic lens based on a plurality of stored inputs in memory. Can function as. Automated orders can be programmed to be sent at the same time as confirmation by the user, for example, to the manufacturer's plant or with the retailer, payment information. The memory in the ophthalmic lens storage unit 801 may include information regarding the user, the user's eye care professional, the user's purchased lenses, the number of remaining lenses, the weather, and the user's prescription. Further, when the lens is received by the user, the barcode in the packaging can be scanned with some ophthalmic lens storage unit to provide digital data describing the lens / order.

  The digital data can be processed by storing data in the ophthalmic lens storage unit 801, or can be sent to transfer destinations 802-806 connected to the distributed network 807. This data tracks specific orders of lenses, prevents any use of fake lenses that can be harmful to the user, tracks user feedback related to specific lenses, and produces any negative results Facilitates the collection of any specific product by alerting the user before obtaining it, ensuring consistency with a given product of an eye care professional, and tracking the effect of weather conditions with a specific lens Can be useful for. Furthermore, weather information and allergy alert data can be downloaded by the device for message generation and data analysis. Data analysis can include, for example, correlating weather and allergy information with abnormal protein or microbial accumulation.

  The transfer destinations 802 to 806 can include, for example, a network access device 802 including a display and a keyboard that accesses the distributed network 807 managed by the processor. Thus, the network access device can include a personal computer, a mobile device, a laptop, or a terminal. Other network access devices 803 can be mobile in nature and send and receive digital data across personal digital assistants ("PDAs"), mobile phones with network access capabilities, netbooks, or networks Other relatively small processor-implemented home appliances that have the ability to

  The processor board can include network access devices 804-805 associated with ophthalmic lens and solution stores, ophthalmic lens and solution warehouses, and ophthalmic lens and solution manufacturing facilities.

  Thus, the ophthalmic lens storage unit 801 receives information about the ophthalmic lens and solution, and the user of the device tracks the use of the lens and places an automated order directly at the manufacturing facility to provide an eye care professional. ("ECP") Tracks appointments and helps compare barcode data and lens integrity to detect and signal fake lenses that may cause significant eye problems without meeting health standards be able to. For example, digital data describing the lens manufacturing factory, expiration date, and refractive power specifications. Automated orders can also be sent from the ophthalmic lens storage unit 801 and to any network access device 802-806. Digital data can be transmitted without being induced artificial delays (real time) or periodically in one or both.

  The ophthalmic lens storage unit 801 can collect a report that describes a summary of lenses used by the user and sends the report to a network access device associated with the associated entity. Related entities may be, for example, lens manufacturers, market analysts, ophthalmic lens retailers, ophthalmic lens warehouses, or other interested entities.

  The ophthalmic lens storage unit 801 can function to analyze user-specific data and, for example, propose more trial lenses and solutions to the patient, and even start ordering commercially available lenses. . Order initiation may include the transmission of digital data describing the patient and the lens and solution to be shipped to the patient. Therefore, the starting digital information includes, for example, the following: patient name and address, billing information, payment information, lens SKU, lens quantity, eye care specialist who issues lens prescriptions, weather and allergy data, and Any or all of the other information typically received by online retail sites that target lens sales may be included. One exemplary online sales vehicle includes Acquire-Direct ™ that processes ophthalmic lens orders over a distributed network 807 including the Internet.

  The ophthalmic lens storage unit 801 can function to initiate an automated reminder, such as ACUMINDER ™, to replace the patient's contact lens after the recommended period of wear is complete. The schedule can be initiated based on the type of lens dispensed and the proposed lens wear schedule, or based on data collected from sensor measurements in the ophthalmic lens storage unit. The ophthalmic lens storage unit 801 then automatically displays the reminder on the user interface to send the reminder, or one or more of e.g. email, text message, social media, RSS, and phone. The reminder can be sent via The reminder may include a human readable message that instructs the user to perform a specific action, such as changing a lens.

  Referring now to FIG. 9, an exemplary screenshot of a touch screen display of an ophthalmic lens storage unit is shown. Screen shot 900A of the ophthalmic lens storage unit display shows exemplary options that the user will see in the display over the lens disinfection cycle. Software in the disinfection base unit can indicate to the user when this previous cleaning was performed and how many cycles remained in the lifetime of the particular lens. In addition, the user can specify by changing the remaining battery life, UV intensity, and exposure time in the ophthalmic lens storage unit, as well as other functions that can be programmed within the device. You can see the user settings that can control the disinfection process in time. In addition, detailed information about each process, operational information, or useful data can be provided to the user. For example, operational instructions that can include different functionality of the ophthalmic lens storage unit, as shown in screen shot 900B.

  Referring now to FIG. 10, an exemplary screenshot of an ophthalmic lens storage unit showing pre-cleaned lenses after measurement and lenses after cleaning is shown. At 1000A, the sensor and program can generate an image projected into the ophthalmic lens storage unit touch screen showing the left and right lenses prior to disinfection for viewing by the user. More importantly, the program can take digital data collected by the sensor to track the amount of protein accumulation or bacteria present before washing. This stored digital data can be analyzed to alert the user when there is a particle accumulation or specific bacterial change above what appears to be normal in relation to a preprogrammed threshold. The ophthalmic lens storage unit alerts the user as soon as it detects protein accumulation or an abnormal amount of bacteria in the lens, sends the image directly to an eye care professional, or the related discussed in FIG. A specific message can be sent to the user via one of the network devices.

  Further, as shown in screen shot 1000B, the ophthalmic lens storage unit can also analyze and generate digital data to determine when the lens has not undergone the desired cleaning. For example, this may occur when the lens is defective, when the lens life is over, certain particle accumulation is abnormal, or when the lens expires. Inadequate disinfection can be determined, for example, by tracking the rate at which particles are removed from the lens and the programming threshold.

  Referring now to FIG. 11, an exemplary screenshot of an ophthalmic lens storage unit shown by additional user settings that can be included in the device is shown. At 1100A, exemplary settings associated with a lens wear cycle are illustrated, as shown by the user interface. These settings can include user preferences regarding the duration of the cycle. As described in other sections of this disclosure, this can cause the program to vary the intensity of the disinfecting radiation, the duration of each dose of radiation, and the frequency between the above doses of radiation.

  At 1100B, as described in FIG. 8, settings for network users that can be associated with an ophthalmic lens storage unit are included. In addition, the user can manually change the time and date user settings, or time on a network device, eg, mobile phone, for automatic date / time changes while traveling or changing for daylight saving time. And time and date user settings that allow you to link user settings with date. Furthermore, weather information and allergy alert data can be downloaded by the device for message generation and data analysis. Data analysis can include, for example, correlating weather and allergy information with abnormal protein or microbial accumulation. Alerts can be controlled to prevent undesirable alarms to the user.

  Referring now to FIG. 12, an exemplary screenshot of an ophthalmic lens storage unit associated with an eye care professional appointment and automated lens ordering is shown. At 1200A, the screen shows a reminder corresponding to a scheduled eye appointment. The ophthalmic lens storage unit can further cause the network-related device to send further information about the reminder, eg direction to position, cancellation information, etc. After responding to the appointment, the user can check via the interface that he / she has responded to the appointment, and the ophthalmic lens storage unit records and uses this data to track future appointments. And can be scheduled. Alternatively, information can be received from other sources associated with the device. For example, information may be received directly from an eye care professional's examination room or from a GPS-enabled mobile phone. After that, the software in the GPS-compatible mobile phone records digital data reflecting that the user was at the location as scheduled using, for example, a smartphone application, and sends the digital data to the network or the ophthalmic lens storage unit be able to.

  Referring now to FIG. 13, a flowchart is shown with exemplary steps that an ophthalmic lens storage unit can perform to correlate events with changes in the optical performance of the lens. At 1301, the system may continuously collect data specific to each user's geographic location. Data can enter the server from a direct or indirect input, from a user, or from a non-user via one of different network access devices or an array of different network access devices. At 1305, data received in a consistent format and in real time can be supported by the system and stored in a designated database in the server. At 1310, the received data can be categorized to identify / predict events in the user's life that can affect eye conditions or lens performance. Then, after determining the characteristic events, these events can be linked to different eye health and lens performance topics by the system using user specific data to prioritize for each event 1315. . After prioritization, at 1320, the system can predict lens conditions by identifying the most relevant events that can affect ophthalmic lens performance. Thereafter, the lens can be monitored 1325 by taking data measured during and at the end of the cleaning cycle when the lens begins the cleaning cycle to ensure satisfactory optical performance. . When the lens is not optimal, the device correlates the event that caused the condition and alerts the user or third part 1335 with a message or signal to prevent eye infection or optimal optical performance It is possible to correct the state that hinders.

  At 1340, the system evaluated data from other users who received the same state / event and identified that the occurrence / no occurrence of the state / event was actually the cause of the change in the optical performance of the eye / lens. The possibility that it was a thing can be increased. In addition, the evaluation can include third parties such as lens manufacturers to obtain records of product performance and to collect all data for analysis for product development.

CONCLUSION The present disclosure provides a method for collecting, storing, and analyzing data that monitors lens status, controlling case functions, displaying user messages, and programming an ophthalmic lens storage unit. In addition, the communication option allows data to be sent between the ophthalmic lens storage unit and the external device or entity via a network for lens monitoring, automated ordering, and user vision response to identified events / conditions. Allows to communicate with.

  Although the above description includes many features, they should not be construed as limitations on the scope of any embodiment or method, but as an exemplification of various embodiments. Many other branches and variations are possible within the teachings of various embodiments or methods. Accordingly, the scope should be determined not by the embodiments shown, but by the appended claims and their legal equivalents.

Embodiment
(1) A device that correlates geo-social phenomena with the state of an ophthalmic lens,
A programmable ophthalmic lens storage unit for storing one or more ophthalmic lenses, wherein the ophthalmic lens storage unit includes a processor in digital communication with a digital media storage device, the digital media storage device comprising: The programmable ophthalmic lens storage unit for storing executable software code;
A transmitter and receiver that perform logical communication with the processor and also perform logical communication with a communication network, wherein the software is executable upon request, and together with the processor,
Send and receive digital data via the transmitter,
Processing stored digital data from one or more inputs and sources describing multiple events;
Operative to determine the priority of the recording describing the event, the priority is determined based on the event affecting the optical performance of the ophthalmic lens, and the software is further coupled with the processor;
Identify one or more events that can affect the optical performance of the ophthalmic lens;
Monitoring the optical performance of the ophthalmic lens in the ophthalmic lens storage unit;
Correlating a change in the optical performance of the ophthalmic lens in a base unit with a specified event;
An apparatus comprising: the transmitter and a receiver that are operative to transmit one or more signals to a predetermined network access device based on a correlation of an event and the change in optical performance of the ophthalmic lens.
2. The apparatus of embodiment 1, wherein correlation data is stored in one or more of the sources.
(3) the software is further operable to evaluate the correctness of the correlation by comparing the optical performance data of other ophthalmic lenses that receive the same event in light of the data of the ophthalmic lens storage unit; Embodiment 3. The apparatus according to embodiment 2.
4. The apparatus according to any of embodiments 1-3, wherein the software is further operative to allow further input to affect the priority.
5. The apparatus according to any of embodiments 1-4, further comprising one or more sensors that measure and store digital data describing the optical performance of the ophthalmic lens.

6. The embodiment of claim 5, wherein the sensor includes a device that detects one or both of light intensity and vector direction to generate data describing optical characteristics of the ophthalmic lens during disinfection. apparatus.
(7) The apparatus according to any of the embodiments 1-6, further comprising a barcode reader capable of downloading and processing corresponding data identifying an ophthalmic lens product via a network.
8. The apparatus of embodiment 7, wherein the corresponding data includes the lens specific optical performance specification.
(9) The apparatus according to embodiment 8, wherein the data describing the optical characteristics of the ophthalmic lens includes a refractive power and a base curve of the lens.
(10) The apparatus of embodiment 9, wherein the measured optical performance is compared with the lens specification to monitor the actual optical performance of the ophthalmic lens.

(11) Embodiments 8-10 wherein the measured actual optical performance data is stored during disinfection for future analysis to detect performance changes over time using a predetermined threshold. The apparatus in any one of.
12. The apparatus of embodiment 11, wherein the processor in the ophthalmic lens storage unit processes data describing particle accumulation at the beginning of the ophthalmic lens disinfection cycle to diagnose an eye infection. .
13. The apparatus according to any of embodiments 1-12, further comprising a user interface capable of displaying a message reminder to a user based on the digital data transmitted by the processor.
(14) a communication element capable of sending the message to an associated processing device used to receive the message and display the message to one or both of the user and a third party; The apparatus according to any of embodiments 1-13, comprising:
15. The apparatus according to any of embodiments 1-14, wherein the event is specific to the user's location.

16. The apparatus of embodiment 15, wherein the position of the user is determined by tracking the position of the base unit.
17. The apparatus of embodiment 15, wherein the location of the user is determined using an application in a handheld device.
(18) The apparatus according to any of embodiments 1-17, wherein the event includes a change in atmospheric conditions.
(19) The apparatus according to embodiment 18, wherein the atmospheric condition includes a temperature change.
(20) The apparatus according to embodiment 18, wherein the atmospheric condition includes a change in humidity.

(21) The apparatus according to embodiment 18, wherein the atmospheric condition includes a change in atmospheric pressure.
22. The apparatus of embodiment 18, wherein the atmospheric condition comprises tracking the presence of allergenic particles in the air.

Claims (22)

A device that correlates geosocial phenomena with the state of an ophthalmic lens,
A programmable ophthalmic lens storage unit for storing one or more ophthalmic lenses, wherein the ophthalmic lens storage unit includes a processor in digital communication with a digital media storage device, the digital media storage device comprising: The programmable ophthalmic lens storage unit for storing executable software code;
A transmitter and receiver that perform logical communication with the processor and also perform logical communication with a communication network, wherein the software is executable upon request, and together with the processor,
Send and receive digital data via the transmitter,
Processing stored digital data from one or more inputs and sources describing multiple events;
Operative to determine the priority of the recording describing the event, the priority is determined based on the event affecting the optical performance of the ophthalmic lens, and the software is further coupled with the processor;
Identify one or more events that can affect the optical performance of the ophthalmic lens;
Monitoring the optical performance of the ophthalmic lens in the ophthalmic lens storage unit;
Correlating a change in the optical performance of the ophthalmic lens in a base unit with a specified event;
An apparatus comprising: the transmitter and a receiver that are operative to transmit one or more signals to a predetermined network access device based on a correlation of an event and the change in optical performance of the ophthalmic lens.   The apparatus of claim 1, wherein correlation data is stored in one or more of the sources.   The software is further operative to evaluate the correctness of the correlation by comparing optical performance data of other ophthalmic lenses that receive the same event in light of the data of the ophthalmic lens storage unit. The device described in 1.   4. The apparatus according to any one of claims 1 to 3, wherein the software is further operable to allow further input to influence the priority.   The apparatus according to claim 1, further comprising one or more sensors for measuring and storing digital data describing the optical performance of the ophthalmic lens.   6. The apparatus of claim 5, wherein the sensor includes a device that detects one or both of light intensity and vector direction to generate data describing optical characteristics of the ophthalmic lens during disinfection.   7. Apparatus according to any one of the preceding claims, further comprising a barcode reader capable of downloading and processing corresponding data identifying an ophthalmic lens product via a network.   The apparatus of claim 7, wherein the corresponding data includes an optical performance specification specific to the lens.   The apparatus of claim 8, wherein the data describing the optical properties of the ophthalmic lens includes a refractive power and a base curve of the lens.   The apparatus of claim 9, wherein the measured optical performance is compared to the lens specification to monitor the actual optical performance of the ophthalmic lens.   11. The measured actual optical performance data is stored during disinfection for future analysis to detect performance changes over time using a predetermined threshold. The apparatus according to one item.   The apparatus of claim 11, wherein the processor in the ophthalmic lens storage unit processes data describing particle accumulation at the beginning of the ophthalmic lens disinfection cycle to diagnose an eye infection.   The apparatus according to any one of the preceding claims, further comprising a user interface capable of displaying a message reminder to a user based on the digital data transmitted by the processor.   The transmission signal includes a communication element capable of sending a message to an associated processing device used to receive the message and display the message to one or both of the user and a third party. Item 14. The apparatus according to any one of Items 1 to 13.   15. An apparatus according to any one of the preceding claims, wherein the event is specific to the user's location.   The apparatus of claim 15, wherein the position of the user is determined by tracking the position of the base unit.   The apparatus of claim 15, wherein the location of the user is determined using an application in a handheld device.   The apparatus according to claim 1, wherein the event includes a change in atmospheric conditions.   The apparatus of claim 18, wherein the atmospheric conditions include temperature changes.   The apparatus of claim 18, wherein the atmospheric conditions include humidity changes.   The apparatus of claim 18, wherein the atmospheric conditions comprise atmospheric pressure changes.   The apparatus of claim 18, wherein the atmospheric condition comprises tracking the presence of allergenic particles in the air.

Images