System and method for assessing fluid distribution
A system and method for assessing fluid distribution. According to one aspect of the disclosure, a fluid detection network is used to assess the fluid distribution of a fluid collection article having a plurality of tested regions. Each tested region of the fluid collection article is serviced by the fluid detection network. The fluid detection network is configured to indicate a fluid distribution of the fluid collection article. According to another aspect of the disclosure, a monitoring subsystem assesses a fluid distribution of a test area serviced by a fluid detection network, wherein the fluid detection network has a net characteristic indicative of the fluid distribution of the test area.
1. A monitoring subsystem for assessing an energy-absorption pattern of an energy-converting module, the monitoring subsystem comprising:
an inducer module configured to establish an energy distribution between the energy-converting module and the monitoring subsystem;
a sampling module configured to measure the energy distribution; and
an analyzing module configured to determine the energy-absorption pattern of the energy-converting module by comparing the measured energy distribution to a reference energy distribution, wherein the reference energy distribution corresponds to an energy distribution unaffected by the energy-converting module and measured at the sampling module.
2. The monitoring subsystem of claim 1 , wherein the analyzing module includes a memory, and wherein the reference energy distribution is stored in the memory.
3. The monitoring subsystem of claim 1 , wherein the analyzing module is configured to recognize interference by comparing the measured energy distribution to the reference energy distribution.
4. The monitoring subsystem of claim 3 , wherein the analyzing module is configured to compensate for the interference.
5. The monitoring subsystem of claim 3 , further comprising a notification module, wherein the notification module is configured to report that an environment is not suitable for detection if the interference cannot be compensated for.
6. The monitoring subsystem of claim 3 , further comprising a notification module, wherein the notification module is configured to report that an environment is suitable for detection if an uncorrectable interference is not present.
7. The monitoring subsystem of claim 1 , wherein the sampling module is positionally fixed relative to the inducer module.
8. The monitoring subsystem of claim 1 , wherein the analyzing module is configured to find an intersection of the measured energy distribution and the reference energy distribution.
9. The monitoring subsystem of claim 8 , wherein the analyzing module uses a frequency of the intersection to look up the energy-absorption pattern.
10. The monitoring subsystem of claim 8 , wherein the analyzing module uses an angle of the intersection to look up the energy-absorption pattern.
11. The monitoring subsystem of claim 1 , wherein the analyzing module is configured to determine the energy-absorption pattern of the energy-converting module by comparing the reference energy distribution and two or more measured energy distributions from different times.
12. The monitoring subsystem of claim 11 , wherein the two measured energy distributions correspond to two different positions of the inducer module relative to the energy-converting module.
13. The monitoring subsystem of claim 11 , wherein the two measured energy distributions are measured by different sampling modules.
14. The monitoring subsystem of claim 1 , further comprising a notification module configured to report the energy-absorption pattern.
15. The monitoring subsystem of claim 1 , wherein the energy converting module is an LC circuit.
16. The monitoring subsystem of claim 1 , wherein the monitoring subsystem is configured for assessing a fluid distribution of a test area serviced by a urine detection network, wherein the urine detection network has a net characteristic indicative of the fluid distribution of the test area, wherein the inducer module is configured to generate an energy field, wherein an energy field is generated within an operative distance of the urine detection network to establish an energy distribution between the urine detection network and the monitoring subsystem that is predictably influenced by the net characteristic of the urine detection network, and wherein the analyzing module is configured to determine the net characteristic of the urine detection network from the energy distribution between the urine detection network and the monitoring subsystem.
17. The monitoring subsystem of claim 16 , wherein the analyzing module is configured to determine the net characteristic of the urine detection network by comparing two or more measured energy distributions measured at different times.
18. The monitoring subsystem of claim 16 , further comprising a notification module configured to report a fluid distribution derived from the determined net characteristic.
19. The monitoring subsystem of claim 16 , wherein the net characteristic is capacitance.
20. A monitoring subsystem for assessing an energy-absorption pattern of an energy-converting module, the monitoring subsystem comprising:
an inducer module configured to establish an energy distribution between the energy-converting module and the monitoring subsystem;
a sampling module configured to measure the energy distribution; and
an analyzing module configured to determine the energy-absorption pattern of the energy-converting module by comparing the measured energy distribution to a reference energy distribution,
wherein the monitoring subsystem is configured for assessing a fluid distribution of a test area serviced by a urine detection network, wherein the urine detection network has a net characteristic indicative of the fluid distribution of the test area, wherein the inducer module is configured to generate an energy field, wherein an energy field is generated within an operative distance of the urine detection network to establish an energy distribution between the urine detection network and the monitoring subsystem that is predictably influenced by the net characteristic of the urine detection network, wherein the analyzing module is configured to determine the net characteristic of the urine detection network from the energy distribution between the urine detection network and the monitoring subsystem, and wherein the analyzing module is configured to recognize interference by comparing the measured energy distribution to the reference energy distribution.
21. The monitoring subsystem of claim 20 , wherein the analyzing module is configured to compensate for the interference.
22. The monitoring subsystem of claim 20 , further comprising a notification module, wherein the notification module is configured to report that an environment is not suitable for detection if the interference cannot be compensated for.
23. The monitoring subsystem of claim 20 , further comprising a notification module, wherein the notification module is configured to report that an environment is suitable for detection if an uncorrectable interference is not present.
24. A monitoring subsystem for assessing an energy-absorption pattern of an energy-converting module, the monitoring subsystem comprising:
an inducer module configured to establish an energy distribution between the energy-converting module and the monitoring subsystem;
a sampling module configured to measure the energy distribution; and
an analyzing module configured to determine the energy-absorption pattern of the energy-converting module by comparing the measured energy distribution to a reference energy distribution,
wherein the analyzing module is configured to determine the energy-absorption pattern of the energy-converting module by comparing the reference energy distribution and two or more measured energy distributions from different times.
25. The monitoring subsystem of claim 24 , wherein the analyzing module is configured to determine the energy-absorption pattern of the energy-converting module by finding an intersection point of the two measured energy distributions.
26. The monitoring subsystem of claim 25 , wherein the two measured energy distributions correspond to two different positions of the inducer module relative to the energy-converting module.
27. The monitoring subsystem of claim 24 , wherein the two measured energy distributions are measured by different sampling modules.