Wireless Umbilical Cord Clamp with Tamper-Evident Switch
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Solution Overview
Problem
Conventional umbilical cord clamp technologies lack a dedicated platform for seamless wireless tracking of clamp integrity and location within a hospital setting, with limited tamper-indication capabilities and separation of tracking tags and clamps as distinct devices.
Innovation Solution
A wireless-enabled umbilical cord clamp system comprising a transceiver, console unit, and server that integrates a tamper-evident switch and sensor technologies to monitor and alert on clamp status, location, and integrity, preventing unauthorized tampering and ensuring secure newborn tracking.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If conventional umbilical cord clamps are used without integrated tracking capabilities, then the device complexity is reduced and ease of manufacture is improved, but the ability to track clamp integrity and location in real-time is lost
Solution Approach 1:
The patent merges the umbilical cord clamp with a tracking tag into a single integrated device. The clamp includes an integrated circuit with processor, memory, wireless transceiver, and tamper-evident switch, combining the mechanical clamping function with electronic tracking and monitoring capabilities in one unified device rather than using separate components.
Solution Approach 2:
The integrated clamp device performs multiple functions simultaneously: mechanical clamping of the umbilical cord, wireless transmission of location data, monitoring of clamp integrity through tamper-evident switches, and providing security alerts. This multi-functional design eliminates the need for separate tracking tags and clamps.
2Reliability
If tracking tags and umbilical cord clamps are separated as distinct devices, then ease of manufacture and device simplicity are improved, but tamper-indication capabilities are limited
Solution Approach 1:
The patent combines the clamp and tracking tag into a single integrated unit with shared electronics. The tamper-evident switch is integrated into the clamp mechanism itself, allowing the same device to both clamp the cord and detect tampering attempts, rather than requiring separate detection mechanisms.
Solution Approach 2:
The integrated clamp device autonomously monitors its own integrity through built-in tamper-evident switches and sensors. The device self-detects when it is removed from the umbilical cord or when unauthorized access is attempted, and automatically transmits alerts without requiring external monitoring equipment.
3Reliability
If wireless tracking components are integrated into the umbilical cord clamp, then real-time monitoring and newborn security are improved, but the use of energy and device complexity increase
Solution Approach 1:
The wireless transceiver in the integrated clamp operates in periodic intervals rather than continuously. The device transmits location and status data at scheduled intervals and activates wireless communication only when needed, such as when tamper conditions are detected or during routine status updates, thereby reducing overall energy consumption.
Solution Approach 2:
The clamp device autonomously manages its own power consumption by intelligently activating wireless transmission only when necessary. The integrated processor monitors system conditions and triggers wireless communication only during critical events such as tamper detection, clamp removal, or location updates, minimizing unnecessary energy use while maintaining security.
Data Source
AI summary
Systems, methods, and apparatus are disclosed involving an electronic medical records (EMR) system and security platform adapted for the safety and security of newborn babies. An exemplary device comprises a wireless-enabled umbilical cord clamp apparatus having a wireless-enabled tag and a tamper-evident switch. An exemplary system further includes a server, a wireless transceiver, a console apparatus, and a wireless-enabled umbilical cord clamp apparatus. The wireless transceiver may act as a tag reader within a matrix of other tag readers distributed throughout a hospital. The console interacts with the wireless tag and the server. The wireless tag is used to generate location data and status data for determination by the server and/or console of the location and status of the clamp apparatus within the hospital matrix. The server and/or console may receive and interpret such tag data, and compute appropriate responses thereof, such as locking down hospital perimeter doors.