This disclosure relates generally to product packaging, and, more particularly, to monitoring a product package.
Many product packages include units of a product contained in separate compartments. When a unit of the product is to be removed, a compartment containing a unit of the product is opened and the product is removed. Compartments containing a unit of product are typically sealed and the unit of product is accessed by breaking the seal. Example product packages include blister packages/packs having individual blisters that serve as the product compartments. Each individual compartment includes an individual tablet, pill, capsule, etc.
The figures are not to scale. Wherever possible, the same reference numbers will be used throughout the drawing(s) and accompanying written description to refer to the same or like parts.
Pharmaceuticals, over-the-counter medications, vitamins, and a number of other products are often supplied in a blister package/pack containing individual compartments housing individual units of the product (e.g., tablets, pills, capsules, etc.) The blister packages typically include a base portion that is molded to form a set of blister-like projections on a planar sheet of plastic. After products are placed in the blister-like projections (or cavities), lidding foil (or other type of material) is attached to a side of the base portion such that the lidding foil forms a lid on a set of cavities defined by the blisters. The lidding foil is typically thin enough to be easily punctured and thereby enable access to a unit of product contained in each of the cavities.
Blister packages provide a number of advantages over other forms of product packaging. For example, blister packages provide an airtight seal around each unit of product thereby preventing product degradation due to environmental changes such as humidity variations. Such humidity control is less easily obtained using a pill bottle. In addition, many consumers find blister packages to be more easily portable than a bottle of pills, tablets, etc. Further, some blister packages are more child proof than bottles. Blister packages can also be more environmentally friendly than other forms of packaging as they are typically manufactured using fewer resources (e.g., less plastic). The consumption of a medication contained in a blister package can also be more easily tracked by counting the number of empty (or full) blisters versus having to count the remaining pills in a bottle.
While blister packages provide many advantages, there is a desire for improved methods to track medication/product consumption. In particular, due to advancements in research, the healthcare and pharmaceutical industries are developing new prescription and non-prescription drugs, vitamins, supplements and health aids at an ever-increasing pace. In addition, various other facts, including a movement toward healthier lifestyles, greater access to medical care, and increasing interest in natural remedies has led to the consumption of a greater number of health-related products (e.g., prescription/non-prescription drugs, vitamins, supplements, etc.) Many such products provide maximum benefit when taken according to a product usage schedule. Further, some products when taken together can cause adverse side effects (i.e., contraindications). Additionally, the potency of many such products can be adversely affected by exposure to temperatures or humidity levels that exceed a specified range, and/or may experience degradation when exposed to light for extended periods of time. Thus, there is a need for improved methods to track the consumption of such products.
Methods, system, apparatus, and articles of manufacture disclosed herein provide smart blister packages/packs that perform product usage tracking/monitoring, and environmental condition monitoring. The smart blister package disclosed herein further communicates product usage information to a wireless device. The wireless device records the product usage information and obtains product information from the Internet based on a product identifier and/or product package identifier. The product information can include instructions about how the product is to be consumed, a product usage schedule, a list of contraindicated products, a list of possible side effects, etc. The wireless device generates a variety of prompts, based on the product usage information and product information obtained from the Internet. The prompts can provide the user with product consumption information and assist the user in complying with the product usage schedule. In addition, the wireless device can respond to environmental information collected and supplied by the smart blister package with prompts indicating when the quality of the product may be compromised or degraded due to unsuitable environmental conditions. Numerous other advantages of the smart blister package disclosed herein are described below with reference to the figures.
In some examples, an example product dispensing monitor 116 (also referred to herein as a smart blister package monitor and a smart product package monitor) is disposed on the example lid 110. In some examples, all or portions of the product dispensing monitor 116 is/are imprinted onto the lid 110 using a conductive ink. In some examples, all or portions of the product dispensing monitor 116 is/are attached to the lid 110 using any adhesive substance. In some examples, all or portions of the product dispensing monitor 116 is/are attached to or imprinted on another sheet of material (e.g., paper, foil, etc.) that is subsequently attached to (and forms a portion of) the lid 112.
Referring still to
In some examples, the remote wireless device 136 is described as being able to wirelessly communicate with the blister package dispensing monitor 116. In some examples, the remote wireless device 136 communicates wirelessly with the blister package dispensing monitor 116 but also includes wired communication capabilities with other devices. In still further examples, the blister package dispensing monitor 116 includes a port (e.g., a USB port, etc.) by which the remote wireless device 136 can be coupled with a wire to the blister package dispensing monitor 116. In yet further examples, the remote wireless device 136 can be replaced with a remote device that communicates with the blister package dispensing monitor 116 via a USB connection.
Referring now to
In some examples, the example sensor circuits 118A-118H are implemented using conductive circuitry configured in a geometric pattern. In some examples, when an electrical current is supplied to one (or any) of the example inputs 120A-120H of the sensor circuits 118A-118H (via a respective one of the example processor outputs 124A-124H) and the portion of the lid at the respective one of the lid locations 138A-138H on which the respective sensor circuit 118A-118H is disposed is intact (is unbroken), a first voltage level appears at a respective one of the example outputs 122A-122H of the respective sensor circuit 118A-118H. In some examples, when an electrical current is supplied to one (or any) of the example inputs 120A-120H of the sensor circuits 118A-118H and the portion of the lid at the respective one of the lid locations 138A-138H on which the respective sensor circuit 118A-118H is disposed is not intact (is broken), a second voltage level appears at a respective one of the example outputs 122A-122H of the respective sensor circuits 118A-118H. In some examples, a change from the first voltage level to the second voltage level occurring at any of the outputs 122A-122H of any of the sensor circuits 118A-118H is referred to as the first output signal/indication and is supplied to the example processor 128. In some examples, the sensor circuits 118A-118H are implemented using circuitry having any desired electrical attribute (e.g., capacitance, inductance, etc.) that changes when a portion of the lid 110 disposed at a respective one of the lid locations 138A-138H is broken.
In some examples, the example first output signal generated by one (or any) of the respective sensing circuits 118A-118H is supplied to a respective one of the set of example processor inputs 126A-126H of the processor 128. The processor 128, which may be implemented using an Intel® Quark™ processor or any other processor, receives the first output signal/indication from each of the sensing circuits 118A-118H and uses the first output signal/indication supplied by each respective sensing circuit 118A-118H to determine the status of the lid at a respective one of the lid locations 138A-138H. In some examples, the power source 130 supplies power to the processor 128 and the sensing circuits 118A-118H and is implemented using a coin cell or a button cell battery. In some examples, the power supply 130 is implemented using a paper battery manufactured using cellulose and nanoscale structures. In some examples, the power supply 130 is implemented using an energy-harvesting battery (e.g., a solar powered battery cell, a mechanical energy harvesting battery cell, etc.).
In some examples, the example processor 128 responds to the set of first output signals/indications supplied by the sensing circuits 118A-118H by generating a second output signal/indication. The processor 128 delivers the second output/indication signal to the example first transceiver 132 for wireless transmission to the remote device(s) 136. In some examples, the temperature sensor 140 senses the temperature of the surroundings of the smart blister package 100 and provides an indication identifying the temperature to the processor 128. The humidity sensor 142 senses the ambient humidity level and provides an indication identifying the humidity level to the processor 128. The light sensor 144 senses the level of light to which the smart blister package 100 is exposed and provides an indication identifying the level of light to the processor 128. In some examples, the processor 128 analyzes the environmental conditions reported by any (or all) of the temperature sensor 140, the humidity sensor 142, and the UV/light sensor 144 and determines whether any of the environmental conditions exceeds or satisfies a corresponding threshold value or falls outside of a corresponding range of threshold values, and, if so, causes a report identifying the offending environmental condition to be transmitted to the remote device(s) 136. In some examples, the processor 128 periodically (or aperiodically) supplies environmental information obtained from any of the environmental sensors 140, 142, and 144 to the first transceiver 132 for delivery to the remote device(s) 136. In some such examples, the remote device 136 is configured to analyze the environmental information to determine whether any of the environmental conditions satisfy or exceed a threshold value or range of values. If the environmental value or range of values are not satisfied, the remote device(s) 136 cause a notification to be generated. The notification informs a user that the example smart blister package 100 is in subject to an environmental condition that may adversely impact the integrity of the product.
In some examples, the example processor 128 receives a probe signal from the example remote wireless device(s) 136. The probe signal can include a request for acknowledgement to which the processor 128 can be programmed/configured to respond with an acknowledgement indicating the processor 128 is operable. In some examples, the first processor 128 can be programmed/configured to respond to the request for acknowledgement from the remote wireless device(s) 136 with a product package identifier/identification code (ID) and/or a product ID. The product package ID and/or the product ID can be stored in the first memory device 129. The product package ID and/or the product ID can be used by the remote wireless device(s) 136 to identify a product contained in the smart blister package 100, the product package ID can be used by the remote wireless device(s) 136 to identify the type of the product/smart blister package 100 associated with the product package ID. In some examples, the request for acknowledgement includes a request to provide the product package ID and/or the product ID. In some examples, the wireless remote device(s) 136 is further configured to transmit a request for information to the processor 128. The request for information can include a request for the product package ID, a request for information identifying the product (e.g., the product ID), a request for information regarding the number of cavities 112A-112H that have been accessed (e.g., have an open/broken lid portion), etc. In some examples, the request for information can include a request for a most recent time at which any of the cavities 112A-112H was accessed. In some examples, the request for information can include a request for a list of times at which any of the cavities 112A-112H were accessed. In some examples, the processor 128 is programmed to respond to the requests with the requested information.
In some examples, the example first processor 128 is programmed/configured to transmit the second output signal/indication identifying that one (or any) of the cavities 112A-112H has been accessed at the time that the access occurs and/or can be programmed to transmit the second output signal/indication in response to a request(s) for such cavity-access information from the example remote wireless device(s) 136. In some examples, the remote wireless device(s) 136 is configured to store information received from the example smart blister package 100 as a record in a data structure. In some examples, the remote wireless device 136 also stores the time at which the second output signal/indication was received in the record. In some examples, the remote wireless device 136 stores the time at which second output signal/indication was received as a time at which a product contained in the example smart blister package 100 was consumed by a user. In some examples, the remote wireless device(s) 136 is configured to use the product package ID and/or the product identifying information received from the smart blister package 100 to download a product usage schedule from the Internet. In some examples, the remote wireless device(s) 136 is configured to use the product usage schedule to generate notifications to a user at times when the product is to be consumed. In some examples, the remote wireless device(s) 136 is configured to record a first time, received from the smart blister package 100, at which a first of the cavities 112A-112H was accessed and to generate a reminder to alert the user at a second time when a next of the products is to be consumed. In some such examples, the remote wireless device 136 is configured to equate the accessing of one of the cavities 112A-112H with a consumption of a product contained within the accessed one of the cavities 112A-112H. In some such examples, the remote wireless device 136 stores, in a data structure, a record indicating that a unit (or units, if more than one of the cavities 112A-112H is accessed at a same time) of the product was consumed at the first time. In some examples, the remote wireless device 136 will prompt the user to verify that a unit (or units) of product was consumed upon receiving one or more of the second output signal/indications indicating that one or more of the cavities 112A-112H was accessed. The prompt can take the form of a message supplied via an audio speaker, or a video display, to which the user may respond by pressing a button on the remote device 136, speaking into a microphone of the remote wireless device 136, shaking the remote wireless device 136, swiping a display on the remote wireless device 136, etc.
In some examples, the example remote wireless device 136 is configured to record a time at which a first (and subsequent ones) of the example cavities 112A-112H was/were accessed (as received from the processor 128) but does not send a reminder to consume another unit of product unless a second output signal/indication fails to be detected by the remote wireless device 136 within a threshold amount of time. In some examples, the threshold amount of time is indicated by the product usage schedule. In some examples, the remote wireless device 136 can respond to a user request to forego sending future prompts regarding the product and/or product consumption.
In some examples, when the product is a medication that a user may need urgently, and without warning, to control, for example, a chronic on-going condition (e.g., diabetes, seizure disorder, asthma, allergies, etc.), the example remote wireless device 136 may be configured to periodically transmit a request for acknowledgement to the processor 128 of the smart blister package 100. In the event the processor 128 does not respond, because, for example, the smart blister package 100 is not within communication range of the remote wireless device 136, the remote wireless device 136 may generate a notification to the user indicating that the smart blister package 100 containing the medication is not within a threshold distance of the user's remote wireless device 136. Assuming, the user keeps the remote wireless device 136 near or on her/his person, the notification will thereby alert the user that the user does not have the medication at hand. The user may then respond by retrieving the smart blister package 100, if desired.
In some examples, the remote wireless device 136 is configured/programmed to respond to one or more of the second output signals/indications identifying that one or more of the cavities 112A-112H has been accessed with a display of one or more questions or reminders for the user. The questions can be regarding any number of topics including, whether the user is experiencing any adverse side effects, whether the user is taking the product with food or liquids (if the product is most effective when taken with food or liquid), whether the user is physically active, whether the user is perceiving any benefit from consuming the product, how the user is feeling physically/mentally, etc. Any responsive information supplied by the user is added to the data structure in which the consumption records are stored.
In some examples, the remote wireless device 136 is configured/programmed to periodically transmit the recorded product consumption/usage information to any of the product manufacturer, the user's physician, a research foundation, a research laboratory, a pharmacy, a personal computer of the user, etc. In some examples, the remote wireless device 136 is configured/programmed to notify the user's pharmacy when a threshold number of the cavities 112A-112H have been accessed, thereby indicating that a product refill may be needed. In some examples, the remote wireless device 136 is configured/programmed to remove any user-identifying information before transmitting the product consumption/usage information to any third party and/or device.
In some examples, the example first transceiver 132 is a first radio frequency identification (RFID) transceiver. In some such examples, the first RFID transceiver 132 receives electromagnetic radiation from the example second transceiver 304 disposed in the remote wireless device 136. In some such examples, the first RFID transceiver 132 converts the received electromagnetic radiation into electrical current to power the example first processor 128. In some such examples, the first power source 130 need not be present or the first power source 130 may be used in a supplemental capacity (e.g., to supplement the power supplied by the RFID signal converter of the first transceiver 132). In some examples, the first transceiver 132 is a first Bluetooth enabled transceiver (and/or Bluetooth Low Energy enabled transceiver) and communicates with the second transceiver 304 (also Bluetooth and/or Bluetooth Low Energy enabled) in the remote wireless device 136. In some examples, the first and second transceivers 132, 304 are implemented using any type of transceiver capable of wireless communication.
Although, in some examples, the smart blister package 100 is described above as transmitting a product ID or product package ID to the wireless device 136, in some examples, the wireless device 136 may prompt the user to enter a product ID or a product package ID displayed on the product package itself The user can be instructed to enter the information via a prompt from the wireless device or in response to an instruction provided on the product package itself The user can also be instructed to download a software app from the Internet for use in collecting and recording cavity access information from the smart blister package 100. In some examples the wireless device 136 prompts the user to scan a Universal Product Code (UPC) label provided on the product package which the wireless device 136 uses to obtain information about the product package and product via the Internet.
While an example manner of implementing the smart blister package 100 is illustrated in
When reading any of the apparatus or system claims of this patent to cover a purely software and/or firmware implementation, at least one of the example sensor circuits 118A-118H, the example first processor 128, the example first memory 129, the example first power supply 130, the example first transceiver 132, the example antenna 134, the example temperature sensor 140, the example humidity sensor 142, the example UV/light sensor 144, the example second processor 302, the example second transceiver 304, the example visual display 306, the example speaker 307, the example microphone 308, the example second memory 310, the example data structure 312, the example input 314, the example second power supply 316, is/are hereby expressly defined to include a tangible computer readable storage device or storage disk such as a memory, a digital versatile disk (DVD), a compact disk (CD), a Blu-ray disk, etc. storing the software and/or firmware. Further still, the example blister package dispenser monitor 116 of
Flowcharts representative of example machine readable instructions for implementing the blister package dispensing monitor 116 of
As mentioned above, the example processes of
Additionally or alternatively, the example processes of
The program 400 of
The program 500 of
The program 700 of
The program 800 of
The program 900 of
The processor platform 1100A of the illustrated example includes a processor 1112A. The processor 1112A of the illustrated example is hardware. For example, the processor 1112A can be implemented by one or more integrated circuits, logic circuits, microprocessors or controllers from any desired family or manufacturer. In some examples in which the processor platform 1100A implements smart blister package monitor 116, the processor 1112A includes the example first processor 128 (see
The processor 1112A of the illustrated example includes a local memory 1113A (e.g., a cache). The processor 1112A of the illustrated example is in communication with a main memory including a volatile memory 1114A and a non-volatile memory 1116A via a bus 1118A. The volatile memory 1114A may be implemented by Synchronous Dynamic Random Access Memory (SDRAM), Dynamic Random Access Memory (DRAM), RAMBUS Dynamic Random Access Memory (RDRAM) and/or any other type of random access memory device. The non-volatile memory 1116A may be implemented by flash memory and/or any other desired type of memory device. Access to the main memory 1114A, 1116A is controlled by a memory controller. In some examples, the volatile memory 1114A includes the example first memory 129 (see
The processor platform 1100A of the illustrated example can also include an interface circuit 1120A. The interface circuit 1120A may be implemented by any type of interface standard, such as an Ethernet interface, a universal serial bus (USB), and/or a PCI express interface.
In the illustrated example, one or more input devices 1122A are connected to the interface circuit 1120A. The example temperature sensor 140A, the example humidity sensor 142A and the example UV/light sensor 144A can be implemented using the input device(s) 1122A.
One or more output devices 1124A can also be connected to the interface circuit 1120A of the illustrated example. The output devices 1124 can be implemented, for example, by display devices (e.g., a light emitting diode (LED), an organic light emitting diode (OLED), a liquid crystal display, emitting diode (LED). The interface circuit 1120A of the illustrated example, thus, typically includes a graphics driver card, a graphics driver chip or a graphics driver processor.
The interface circuit 1120A of the illustrated example also includes a communication device such as a transmitter, a receiver, a transceiver, a modem and/or network interface card to facilitate exchange of data with external machines (e.g., computing devices of any kind) via a network 1126A (e.g., an Ethernet connection, a digital subscriber line (DSL), a telephone line, coaxial cable, a cellular telephone system, a low power wireless area network, etc.). In some examples, the example first transceiver 132 is implemented using the interface circuit 1120A.
The coded instructions 1132A of
The processor platform 1100B of the illustrated example includes a processor 1112B. The processor 1112 B of the illustrated example is hardware. For example, the processor 1112B can be implemented by one or more integrated circuits, logic circuits, microprocessors or controllers from any desired family or manufacturer. In some examples in which the processor platform 1100B implements the wireless device 136, the processor 1112B includes the example second processor 302.
The processor 1112B of the illustrated example includes a local memory 1113B (e.g., a cache). The processor 1112B of the illustrated example is in communication with a main memory including a volatile memory 1114B and a non-volatile memory 1116B via a bus 1118B. The volatile memory 1114B may be implemented by Synchronous Dynamic Random Access Memory (SDRAM), Dynamic Random Access Memory (DRAM), RAMBUS Dynamic Random Access Memory (RDRAM) and/or any other type of random access memory device. The non-volatile memory 1116B may be implemented by flash memory and/or any other desired type of memory device. Access to the main memory 1114B, 1116B is controlled by a memory controller. In some examples, the example second memory is implemented using the volatile memory 1114B.
The processor platform 1100B of the illustrated example also includes an interface circuit 1120B. The interface circuit 1120B may be implemented by any type of interface standard, such as an Ethernet interface, a universal serial bus (USB), and/or a PCI express interface.
In the illustrated example, one or more input devices 1122B are connected to the interface circuit 1120B. The input device(s) 1122B can be implemented with the example keyboard/touch pad 1123B and permit(s) a user to enter data and commands into the processor 1112B. In some examples, the input device(s) can be implemented by, for example, an audio sensor, a microphone, an image sensor (still or video), a keyboard, a button, a mouse, a touchscreen, a track-pad, a trackball, isopoint and/or a voice recognition system. In some examples, the example input 314 and the example microphone 308 are implemented using the input device 1122B.
One or more output devices 1124B are also connected to the interface circuit 1120B of the illustrated example. The output devices 1124B can be implemented, for example, by display devices (e.g., a light emitting diode (LED), an organic light emitting diode (OLED), a liquid crystal display, a cathode ray tube display (CRT), a touchscreen, a tactile output device, a light emitting diode (LED), a printer and/or speakers). The interface circuit 1120B of the illustrated example, thus, typically includes a graphics driver card, a graphics driver chip or a graphics driver processor. In some examples, the example display device/tool 306 and/or the example speaker 307 are implemented using the output device 1124B.
The interface circuit 1120B of the illustrated example also includes a communication device such as a transmitter, a receiver, a transceiver, a modem and/or network interface card to facilitate exchange of data with external machines (e.g., computing devices of any kind) via a network 1126B (e.g., an Ethernet connection, a digital subscriber line (DSL), a telephone line, coaxial cable, a cellular telephone system, a low power wireless area network, etc.). In some examples, the example second transceiver 304 is implemented using the interface circuit 1120B.
The processor platform 1100B of the illustrated example also includes one or more mass storage devices 1128B for storing software and/or data. Examples of such mass storage devices 1128B include floppy disk drives, hard drive disks, compact disk drives, Blu-ray disk drives, RAID systems, and digital versatile disk (DVD) drives. In some examples, the example second memory device 310 is implemented using the mass storage devices 1128B.
The coded instructions 1132B of
From the foregoing, it will appreciated that the above disclosed methods, apparatus, systems and articles of manufacture permit monitoring the removal of products from a blister package or other product container by determining when a cavity containing a unit of product has been accessed. The example methods, systems, apparatus and articles of manufacture disclosed herein are used to identify when a cavity-access on a product contained has occurred (e.g., when a cavity containing a unit of product has been accessed), to report the cavity-access (and a corresponding time of access) to a wireless device, to record the fact of (and time of) the cavity access, the generate user prompts, reminders and instructions regarding cavity accesses and product usage/consumption, to request user information regarding the product and product usage, to monitor compliance with a product usage schedule, to monitor environmental conditions to which the product container is subjected, to identify when the environmental conditions satisfy or exceed threshold environmental conditions, to assist in locating a product container, to obtain a product ID and/or product package ID, to use a product ID and product package ID to obtain product information from the Internet, etc. The example methods, systems, apparatus and articles of manufacture disclosed herein provide a variety of advantages. For example, the methods, system, apparatus and articles of manufacture, tracking cavity-accesses on a blister package containing, for example, medication and correlating the cavity-accesses to medication consumption, can help a medication consumer remain in compliance with a prescribed (or recommended) product usage schedule. In addition, the smart blister packages disclosed herein can help a user to determine when the user is consuming products that are contraindicated with other product also consumed by the user. Further, the smart blister packages can communication a product ID or product package ID to a wireless device which can then use the product ID and/or product package ID to obtain up-to-date information about the product. Moreover, the smart blister packages and wireless devices disclosed herein can be used to determine a most recent location at which the smart blister package transmitted an acknowledgement signal, which can in turn, be used to help the user locate the smart blister package. The smart blister packages disclosed herein are further advantageous in that the product dispensing monitor is installed directly onto the blister package. Further, the product dispensing monitor is thin and lightweight thereby minimizing any impact on the form factor of the blister package. Additionally, the smart blister package can be used to monitor and report the environmental conditions to which the blister package is subjected thereby minimizing any damage that might otherwise be caused by detrimental environmental conditions. Further, the wireless device disclosed can capture and report the product consumption information received from the smart blister package to any of a number of third parties (e.g., the product manufacturer, the user's physician, the user's pharmacy, a research company, etc.) who can use the information to improve the product, the product package, the user's experience, etc.
A plurality of example methods, apparatus, systems, and articles of manufacture are disclosed herein. Example no. 1 is a blister package having a cavity and a lid. The lid includes an open position to provide access to the cavity and a closed position to restrict access to the cavity. The blister package also includes a sensing circuit disposed at a first location on the blister package that detects when the lid on the cavity is in the open position. The sensing circuit exhibits a first output state when the lid on the cavity is in the open position. The blister package further includes a processor disposed at a second location on the blister package. The processor is in communication with the sensing circuit and generates a signal indicating the cavity has been accessed when the sensing circuit exhibits the first output state.
Example no. 2 is the blister package of Example no. 1 and further includes a transceiver disposed at a third location on the blister package. The transceiver is communicatively coupled to the processor and the processor causes the transceiver to transmit the signal.
Example no. 3 is the blister package of Example no. 2, wherein the transceiver includes an antenna and an energy converter. The antenna captures ambient electromagnetic radiation and the energy converter converts the ambient electromagnetic radiation into electrical current to power the processor circuit and the sensing circuit.
Example no. 4 is the blister package of any of Example nos. 2 and 3, wherein the transceiver is at least one of a radio frequency identification transceiver, a Bluetooth enabled transceiver and a Bluetooth Low Energy enabled transceiver.
Example no. 5 is the blister package of Example no. 2, and further includes a power source on the blister package. The power source supplies power to the sensing circuit and to the processor.
Example no. 6 is the blister package of any of Example nos. 1, 2, 3, and 5, wherein the power source is a battery printed on paper attached to the blister package.
Example no. 7 is the blister package of any of Example nos. 1, 2, 3, and 5, wherein the power source is an energy-harvesting battery.
Example no. 8 is the blister package of any of Example nos. 1, 2, 3 and 5 wherein the lid comprises a foil material.
Example no. 9 is the blister package of Example no. 1, wherein the placing of the sensing circuit includes at least one of attaching the sensing circuit to the blister package with an adhesive substance, imprinting the sensing circuit on the blister package, and placing the sensing circuit on another material and attaching the another material to the blister package.
Example no. 10 is the blister package of Example no. 1 wherein the sensing circuit is imprinted on the lid.
Example no. 11 is the blister package of Example no. 1, wherein the sensing circuit has a first level of conductivity when the lid is in the open position and a second level of conductivity when the lid is not in the open position. In Example no. 11, the first level of conductivity causes the sensing circuit to exhibit the first output state and the second level of conductivity causes the sensing circuit to exhibit a second output state.
Example no. 12 is the blister package of Example no. 1, wherein the processor detects when the sensing circuit exhibits the first output state and when the sensing circuit exhibits the second output state.
Example no. 13 is the blister package of Example no. 1, wherein the processor includes a clock mechanism and the processor identifies a time, based on the clock mechanism, at which the sensing circuit begins to exhibit the first output state.
Example no. 14 is the blister package of Example no. 1, wherein the sensing circuit is characterized by a first level of conductance when the lid is open and second level of conductance when the lid is closed. The first level of conductance causes the sensing circuit to exhibit the first output state and the second level of conductance causes the sensing circuit to exhibit a second output state.
Example no. 15 is the blister package of Example no. 1, wherein the sensing circuit is characterized by an electrical attribute that changes from a first level to a second level when the lid moves from a closed position to the open position.
Example no. 16 is the blister package of Example no. 1, wherein the processor includes a clock mechanism and the processor is further to record a time, based on the clock mechanism, at which the sensing circuit begins to exhibit the first output state.
Example no. 17 is the blister package of Example no. 1, further including a memory device. The processor is further to store a record in the memory in response to detecting that the sensing circuit has begun exhibiting the first output state. The record reflects that the sensing circuit has begun exhibiting the first output state.
Example no. 18 is the blister package of Example no. 17, wherein the processor stores, in the memory, a time at which the processor detected that the sensing circuit has begun exhibiting the first output state.
Example no. 19 is the blister package of Example no. 2, wherein the second location and the third location are a same location.
Example no. 20 is an example method to manufacture a product package monitor. The method includes placing a sensing circuit at a first location on a blister package. The blister package has a lid covering a cavity aligned with the first location, the sensing circuit changes from a first state to a second state when the lid covering the cavity is opened. The method also includes placing a processor at a second location on the blister package. The processor is communicatively coupled to the sensing circuit and generates a signal indicating that the lid covering the cavity has been opened in response to detecting that the sensing circuit changed from the first state to the second state.
Example no. 21 is the method of Example no. 20, further including placing a transceiver at a third location on the blister package. The transceiver is communicatively coupled to the processor and transmits the signal.
Example no. 22 is the method of Example no. 21, wherein the transceiver includes an antenna and an energy converter. The antenna captures ambient electromagnetic radiation, and the energy converter converts the ambient electromagnetic radiation into electrical current to power at least one of the processor, the sensing circuit and a battery.
Example no. 23 is the method of any of Example nos. 21 and 22, wherein the transceiver is at least one of a radio frequency identification transceiver, a Bluetooth enabled transceiver, and a Bluetooth Low Energy enabled transceiver.
Example no. 24 is the method of any of Example nos. 20, 21 22 and 23, and further includes placing a power source on the blister package. The power source supplies power to the sensing circuit and the processor.
Example no. 25 is the method of Example no. 24, wherein the power source is a battery printed on a flexible material attached to the blister package.
Example no. 26 is the method of Example no. 24, wherein the power source is an energy-harvesting battery.
Example no. 27 is the method of Example no. 20, wherein the lid includes a foil.
Example no. 28 is the method of Example no. 20, wherein the placing of the sensing circuit includes at least one of attaching the sensing circuit to the blister package with an adhesive substance, imprinting the sensing circuit on the blister package, and placing the sensing circuit onto another material and attaching the another material to the blister package.
Example no. 29 is the method of any of Example nos. 20, 21, 22, 23, and 24, wherein the sensing circuit has a first level of conductivity when the lid is closed and a second level of conductivity when the lid is open. The sensing circuit changes from the first state to the second state by changing from the first level of conductivity to the second level of conductivity.
Example no. 30 is the method of any of Example nos. 20, 22, 23, 24, and 29, wherein the processor detects the change in the sensing circuit from the first level of conductivity to the second level of conductivity at an output of the sensing circuit.
Example no. 31 is the method of any of Example nos. 20, 21, 22, 24, and 29 wherein the processor includes a clock mechanism. In Example no. 31, the processor also identifies a time, based on the clock mechanism, at which the sensing circuit changes from the first state to the second state.
Example no. 32 is the method of Example no. 20, wherein the sensing circuit exhibits an electrical attribute, and the change in the sensing circuit from the first state to the second state includes a change in the electrical attribute of the sensing circuit from a first level to a second level.
Example no. 33 is the method of any of Example nos. 20, 21, 22, 24, and 29, wherein the processor includes a clock mechanism and the processor also records a time, based on the clock mechanism, at which the sensing circuit changes from the first state to the second state.
Example no. 34 is the method of any of Example nos. 20, 21, 22, and 23 and further includes placing a memory device on the blister package. In Example no. 34, the processor stores a record in the memory in response to detecting that the sensing circuit changed from the first state to the second state. The record reflects the change of the sensing circuit from the first state to the second state.
Example no. 35 is the method of any of Example nos. 20, 21, 22, 24, 29, 30, 31, and 34, wherein the processor is further to store, in the memory, a time at which the processor detected the change in the sensing circuit from the first state to the second state.
Example no. 36 is the method of Example no. 21, wherein the second location and the third location are a same location.
Example no. 37 is a method to monitor a product package. The method includes sensing, with a sensing circuit disposed on a lid of a product package, that a portion of the lid covering a cavity containing a unit of product has been broken and also includes generating, with a processor disposed on the product package, a signal indicating that the lid has been broken, in response to the sensing that the lid has been broken by the sensing circuit. The signal includes a time at which the portion of the lid was broken and a product package identifier that identifies the product package.
Example no. 38 is the method of Example no. 37, and further includes storing the time at which the portion of the lid was broken in a memory disposed on the product package.
Example no. 39 is the method of Example no. 37, wherein the signal generated with the processor is delivered to a transceiver disposed on the product package for wireless transmission to a remote device.
Example no. 40 is the method of Example no. 39, wherein the remote device is a mobile telephone.
Example no. 41 is the method of Example no. 39, wherein the wireless transceiver transmits the wireless transmission in response to a probe signal received from the remote device.
Example no. 42 is the method of Example no. 41, wherein the probe signal is a radio frequency identification signal.
Example no. 43 is the method of Example no. 37, wherein an output of the sensing circuit changes from a first state to a second state when the portion of the lid covering the cavity has been broken.
Example no. 44 is the method of Example no. 43, and further includes determining, with the processor, whether the output of the sensing circuit is in the first state or the second state in response to receiving a probe signal from a remote device.
Example no. 45 is the method of Example no. 44, wherein the signal is a first signal. The method of Example no. 45 further includes, generating, with the processor, a second signal indicating that the lid has not been broken in response to determining the output of the sensing circuit is in the first state.
Example no. 46 is the method of Example no. 41, wherein the probe signal represents a request for at least one of the product package device and a product identifier.
Example no. 47 is the method of Example no. 41, wherein the probe signal represents a request for the time at which the portion of the lid was broken.
Example no. 48 is the method of Example no. 37, wherein the product package is a blister package and the cavity is defined by a blister of the blister package.
Example no. 49 is the method of Example no. 48, wherein the product is a medication and the unit is one of a tablet of the medication, or a capsule of the medication.
Example no. 50 is a tangible machine readable storage medium comprising instructions which, when executed, cause a machine to at least determine if an output of a sensing circuit disposed on a lid covering a cavity of a product dispensing device is at a first output level. The first output level indicates the lid has been broken and the cavity contains a unit of product. The instructions also cause the machine to, in response to determining the output of the sensing circuit is at the first output level, generate a signal indicating the lid has been broken.
Example no. 51 is the tangible machine readable storage medium of Example no. 50, wherein the instructions further cause the machine to deliver the signal to a transceiver for transmission to a remote device.
Example no. 52 is the tangible machine readable storage medium of Example no. 50, wherein the remote device is a mobile telephone.
Example no. 53 is the tangible machine readable storage medium of Example no. 50, wherein the instructions further cause the machine to determine a time at which the output of the sensing circuit was determined to be at the first output level, include the time in the signal, and deliver the signal to a transceiver for transmission to a remote device.
Example no. 54 is the tangible machine readable storage medium of Example no. 50, wherein the instructions further cause the machine to deliver at least one of a product dispensing device identifier and a product identifier to a transceiver for transmission to a remote device.
Example no. 55 is the tangible machine readable storage medium of Example no. 53, wherein the instructions further cause the machine to deliver the signal to the transceiver in response to a probe signal received from the remote device.
Example no. 56 is the tangible machine readable storage medium of Example no. 55, wherein the probe signal is at least one of a radio frequency identification signal, a Bluetooth signal, and a Bluetooth Low Energy signal.
Example no. 57 is the tangible machine readable storage medium of Example no. 50, wherein the signal is a first signal and the instructions further to cause the machine to generate a second signal to indicate the lid has not been broken in response to determining the output of the sensing circuit is at a second output level.
Example no. 58 is the tangible machine readable storage medium of Example no. 50, wherein the instructions further cause the machine to respond to a probe signal from the remote device. The probe signal is responsive to the transmission of the signal from the transceiver, and the probe signal includes a request for an identifier of at least one of the product dispensing device and the product.
Example no. 59 is the tangible machine readable storage medium of Example no. 58, wherein the probe signal further includes a request for a time at which the output of the sensing circuit was determined to be at the first output level.
Example no. 60 is the tangible machine readable storage medium of Example no. 50, wherein the product dispensing device is a blister package having a monitor and the cavity is a blister of the blister package.
Example no. 61 is the tangible machine readable storage medium of Example no. 60, wherein the product is a medication and the unit is one of a tablet of the medication, and a capsule of the medication.
Example no. 62 is the tangible machine readable storage medium of Example no. 50, wherein the instructions further cause the machine to identify a time at which the output of the sensing circuit was determined to be at the first output level, generate a record indicating that the lid has been broken and indicating the time at which output of the sensing circuit was determined to be at the first output level, and store the record in a memory disposed on the product dispensing device.
Example no. 63 is a tangible machine readable storage medium comprising instructions which, when executed, cause a machine to at least detect a first indication transmitted from a product dispensing monitor disposed on a product package containing a product. The first indication indicates that a product-containing cavity on the product package has been accessed. The instructions also cause the machine to identify at least one of the product package or the product dispensing monitor that transmitted the first indication and to store a product usage record in a data table, based on the identifying. The product usage record indicates the product-containing cavity was accessed.
Example no. 64 is the tangible machine readable medium of Example no. 63, wherein the instructions further cause the machine to transmit a probe signal to the product package. The probe signal causes the product dispensing monitor to transmit the first indication.
Example no. 65 is the tangible machine readable medium of Example no. 63, wherein the instructions further cause the machine to determine whether the product-containing cavity was accessed in accordance with a product usage schedule and based on whether the product-containing cavity was accessed in conformance with a prescribed product usage schedule, generate a product usage conformance notification.
Example no. 66 is the tangible machine readable medium of Example no. 65, wherein the instructions cause the machine to determine whether the product-containing cavity was accessed in conformance with a product usage schedule by identifying a time at which the product-containing cavity was accessed, and determine whether the time is within a range of time specified by the product usage schedule.
Example no. 67 is the tangible machine readable medium of Example no. 63, wherein the instructions further cause the machine to respond to a second indication signal transmitted from the product dispensing monitor disposed on the product package by generating a temperature alert indicating that the product package is not within a desired temperature range.
Example no. 68 is the tangible machine readable medium of Example no. 67, wherein the instructions further cause the machine to display the temperature alert.
Example no. 69 is the tangible machine readable storage medium of Example no. 63, wherein the product package is a first product package and the instructions further to cause the machine to compare the first product package to a list identifying a plurality of product packages and to determine, based on the comparing of the first product package to the list identifying a plurality of product packages, whether the product contained in the product package is contraindicated with any product contained in the plurality of product packages. The instructions also cause the machine to generate a contraindication notification, if a product contained in the product package is determined to be contraindicated.
Example no. 70 is the tangible machine readable medium of Example no. 63, wherein the product is a first unit of product, and the instructions further to cause the machine to record a time at which the first indication was detected, and, if a second indication indicating that a second product-containing cavity of the product package was accessed is not received within a threshold amount of time, generate an alert. The alert indicates nonconformance with a product usage schedule.
Example no. 71 is a product monitoring system including a product access monitor disposed on a product package. The product access monitor determines when a cavity containing a product in the product package has been accessed. The product access monitor also transmits an indication when the cavity has been accessed. The product monitoring system also includes a device in communication with the product access monitor. The device stores a record indicating that the cavity has been accessed in response to the indication.
Example no. 72 is the product monitoring system of Example no. 71, wherein the product package is a blister package and the cavity is defined by a blister.
Example no. 73 is the product monitoring system of Example no. 72, wherein the product access monitor a sensing circuit disposed on a lid of the cavity. The sensing circuit has an output that changes from a first output state to second output state when the cavity has been accessed. The product access monitor also includes a processor that responds to the change in the output of the sensing circuit by causing the indication to be generated.
Example no. 74 is the product monitoring system of Example no. 73, wherein the output of the sensing circuit changes from the first output state to the second output state when the lid is opened.
Example no. 75 is the product monitoring system of Example no. 71, wherein the device responds to the indication by generating a user-prompt for display, the user prompt to request verification that the access of the cavity corresponds to consumption of a product extracted from the cavity.
Example no. 76 is the product monitoring system of Example no. 71, wherein the product access monitor includes environmental sensors to sense environmental conditions to which the product package is exposed.
Example no. 77 is the product monitoring system of Example no. 76, wherein the product access monitor transmits environmental information collected by the environmental sensors to the device.
Example no. 78 is the product monitoring system of Example no. 77, wherein the device also analyzes the environmental information to determine whether the product package is subjected to adverse environmental conditions. Additionally, the device generates a prompt for display based on whether the product package is determined to be subjected to adverse environmental conditions.
Example no. 79 is the product monitoring system of Example no. 71, wherein the device is a wireless device.
Example no. 80 is the product monitoring system of Example no. 79, wherein the wireless device is a mobile telephone.
Example no. 81 is an apparatus having means to perform any of the methods of the Examples described above.
Example no. 82 is a tangible machine readable storage medium storing instructions that, when executed, cause a machine to implement a method or realize an apparatus as disclosed in any of the Examples provided above.
Although certain example methods, apparatus and articles of manufacture have been disclosed herein, the scope of coverage of this patent is not limited thereto. On the contrary, this patent covers all methods, apparatus and articles of manufacture fairly falling within the scope of the claims of this patent.
Filing Document | Filing Date | Country | Kind |
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PCT/US2016/049950 | 9/1/2016 | WO | 00 |