Rotating Shrink Label for Medication Dosage Measurement
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Solution Overview
Problem
Consumer product containers, particularly those for medications, face challenges in conveying dosage and frequency information due to limited outer surface area, leading to non-compliance issues that result in significant medical expenses and deaths, exacerbated by confusion, forgetfulness, and illiteracy, as well as misuse of dose-dispensing devices.
Innovation Solution
A rotating shrink label measurement system comprising a base label with measurement information and an opaque top label that shrinks when exposed to an energy source, featuring a transparent window to display specific units of measurement, including gradient lines, which indicates the level of material dispensed, and a tamper evident sleeve to secure the container and measuring device.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Loss of information
If all dosage and frequency information is printed on the container label, then complete information is provided to consumers, but the limited outer surface area of the container cannot accommodate all required information
Solution Approach 1:
The label is divided into multiple segments: a base label with general information and a rotating top label with dosage information. The top label can be rotated to display different dosage values (e.g., 5mL, 10mL, 15mL) corresponding to different patient ages or conditions, allowing comprehensive information to be displayed in a limited space.
Solution Approach 2:
The solution transitions from a two-dimensional flat label to a three-dimensional rotating structure. The top label rotates around the container, adding a rotational dimension that allows multiple pieces of information to be displayed sequentially, effectively increasing the information capacity beyond the limited surface area.
2Loss of information
If detailed text instructions are provided on the label, then complete dosage guidance is available, but consumers with vision problems or illiteracy cannot understand the instructions
Solution Approach 1:
The label uses color-coded indicators (e.g., colored bands or highlights) corresponding to different dosage levels. For example, different colors may represent different patient age groups or dosage amounts, allowing consumers to quickly identify the correct dosage without reading text. The gradient lines on the measuring device are also colored to match the label indicators.
Solution Approach 2:
The label includes visual copies or representations of the measuring device with gradient lines that directly correspond to the dosage information. Instead of just text describing dosage volumes, the label visually replicates the measuring device markings, allowing consumers to visually match the required dosage level.
3Measurement precision
If a dose-dispensing device is included with the medication, then accurate dosage measurement is enabled, but consumers may misuse household spoons instead, leading to overdosing or underdosing
Solution Approach 1:
The measuring device is integrated with the container through a tamper-evident sleeve that holds both the container and measuring device together. This merging makes it convenient to use the provided measuring device and reduces the likelihood of consumers substituting it with household spoons. The label information is also aligned to work directly with the measuring device's gradient lines.
Solution Approach 2:
The tamper-evident sleeve acts as an intermediary that securely holds both the medication container and the measuring device together. This intermediary structure ensures that consumers receive both items as a set and makes it difficult to separate them, thereby ensuring the measuring device is used as intended.
4Adaptability or versatility
If the label provides extensive dosage information for different patient conditions, then comprehensive dosing guidance is available, but the label becomes complex and difficult to navigate
Solution Approach 1:
The top label is designed to rotate, transforming a static complex label into a dynamic interactive element. Consumers can actively rotate the top label to find their specific dosage requirement rather than searching through extensive printed information. This dynamic interaction simplifies the user experience while maintaining comprehensive dosage options.
Solution Approach 2:
Different parts of the label have different functions: the base label provides general product information while the rotating top label provides specific dosage information. The gradient lines on the measuring device provide localized visual cues that correspond to specific dosage levels. This division of functional quality across different label regions reduces overall complexity.
Applied Scientific Principles
This section explains which scientific principles are used to turn an abstract innovation direction into a practical engineering solution.
Function Achieved in This Case
The system enhances compliance by clearly displaying dosage information without requiring consumers to read instructions, reduces errors in medication administration, and provides a tamper-evident feature for security, thereby minimizing medical complications and costs.
Implementation Method 1
The top label may comprise a polymer film that shrinks when exposed to an energy source
Data Source
AI summary
The present application is directed to a rotating shrink label measurement systems for a container and methods thereof. A base label may be adhered to the container, and measurement information displayed on the base label. A top label may cover at least a portion of the base label. The top label may be rotatable about the base label to a specific unit of measurement. The top label may have a transparent window allowing measurement information for the specific unit of measurement to be visible through the transparent window. The container and top label may be enclosed by a tamper evident sleeve.