DOSAGE FORM PACKAGE AND A FRANGIBLE ELECTRICAL CIRCUIT SHEET THEREFOR

• US 20100089791A1
• Filed: 10/13/2009
• Published: 04/15/2010
• Est. Priority Date: 10/14/2008
• Status: Active Grant

• Current Assignee: MTS Medication Technologies, Inc. (Omnicell Incorporated)
• Original Assignee: MTS Medication Technologies, Inc. (Omnicell Incorporated)
• Inventors: ROSENBAUM, Ronald, DEPKE, Robert J., D'AGOSTINO, Vincent G.
• Granted Patent: US 9,387,148 B2
• Time in Patent Office: Days
• US Class Current: 206/531
• CPC Class Codes: A61J 1/035 Blister-type containers blisters in general B65D75/36
• CPC Class Codes: A61J 2200/30 Compliance analysis for taking medication
• CPC Class Codes: A61J 7/0481 working on a schedule basis
• CPC Class Codes: H05K 1/0286 Programmable, customizable or modifiable circuits by programmable non-printed jumper connections H05K3/222
• CPC Class Codes: H05K 1/0293 Individual printed conductors which are adapted for modification, e.g. fusable or breakable conductors, printed switches
• CPC Class Codes: H05K 1/167 incorporating printed resistors
• CPC Class Codes: H05K 2203/162 Testing a finished product, e.g. heat cycle testing of solder joints
• CPC Class Codes: H05K 2203/175 Configurations of connections suitable for easy deletion, e.g. modifiable circuits or temporary conductors for electroplating; Processes for deleting connections
• CPC Class Codes: H05K 3/005 Punching of holes

Abstract

A frangible electrical circuit sheet for a dosage form package includes a first plurality of electrically conductive trace subnetworks interconnected with one another to form a network of electrically conductive traces and disposed on the sheet. The sheet further includes a second plurality of circuit elements connected to the network of electrically conductive traces such that each circuit element is associated with one of the subnetworks. At least some of the circuit elements have element values that differ from one another.

Claims

1. A frangible electrical circuit sheet for a dosage form package, comprising:

a first plurality of electrically conductive trace subnetworks interconnected with one another to form a network of electrically conductive traces disposed on the sheet; and

a second plurality of circuit elements connected to the network of electrically conductive traces such that each circuit element is associated with one of the subnetworks;

wherein at least some of the of the circuit elements have element values that differ from one another.

2. The dosage form package of claim 1, wherein each circuit element comprises a resistive element.

4. A dosage form package, comprising:

a sheet of material defining a first plurality of cavities; and

a frangible electrical circuit sheet disposed adjacent the sheet of material such that the cavities are fully enclosed at least in part by the circuit sheet, wherein the frangible electrical circuit sheet includes a second plurality of electrically conductive trace subnetworks interconnected with one another to form a network of electrically conductive traces and each subnetwork is aligned with one of the cavities and wherein a third plurality of circuit elements is connected to the network of electrically conductive traces such that each circuit element is associated with one of the subnetworks;

wherein at least some of the of the circuit elements have element values that differ from one another and wherein the sheet of material and the frangible electrical circuit sheet form a unitary package.

5. The dosage form package of claim 4, in combination with a dosage form stored in one of the cavities.

6. The dosage form package of claim 5, in combination with a connector for connecting the network of electrically conductive traces to external circuitry.

7. The dosage form package of claim 6, in combination with a programmed computer coupled to the connector, wherein the computer includes means for detecting breakage of the subnetwork aligned with the one cavity resulting from removal of the dosage form from the one cavity.

8. The dosage form package in combination with the programmed computer and dosage form of claim 7, wherein the computer further includes means for updating a database when breakage of the subnetwork aligned with the one cavity has been detected.

9. The dosage form package of claim 6, wherein the connector includes a transceiver that communicates information wirelessly to a central server.

10. The dosage form package of claim 4, wherein each circuit element comprises a resistive element.

11. The dosage form package of claim 4, wherein the subnetworks and the cavities are positioned in multiple rows and columns, and wherein each circuit element comprises a resistive element having a resistance value that is dependent upon its position within a subnetwork.

12. The dosage form package of claim 11, wherein the resistive elements associated with the subnetworks of one of the rows have resistive values that differ from one another by powers of two.

13. The dosage form package of claim 12, wherein the resistive elements associated with the subnetworks of one of the rows have resistive values that are identical to the resistive values of the resistive elements associated with the subnetworks of another of the rows.

14. A dosage form package, comprising:

a first sheet having a first plurality of openings therethrough;

a second sheet having a second plurality of openings therethrough;

a third sheet having a third plurality of protrusions defining cavities wherein each protrusion extends through an associated one of the first plurality of openings; and

a frangible electrical circuit sheet disposed adjacent the third sheet such that the cavities are enclosed at least in part by the circuit sheet;

wherein the second sheet is disposed adjacent the circuit sheet on a side of the circuit sheet opposite the first and third sheets;

wherein the frangible electrical circuit sheet includes a fourth plurality of electrically conductive trace subnetworks interconnected with one another to form a network of electrically conductive traces and each subnetwork is aligned with one of the cavities and wherein a fifth plurality of circuit elements is connected to the network of electrically conductive traces such that each circuit element is associated with one of the subnetworks;

wherein at least some of the of the circuit elements have element values that differ from one another and at least two of the first, second, third, and circuit sheets are secured together to form a unitary package.

3. The dosage form package of claim 16, wherein the resistive elements associated within each of the subnetworks have resistive values that differ from one another by powers of two.

15. The dosage form package of claim 14, in combination with a dosage form stored in one of the cavities.

16. The dosage form package of claim 15, in combination with a connector for connecting the network of electrically conductive traces to external circuitry and a programmed computer coupled to the connector.

17. The dosage form package in combination with the programmed computer of claim 16, in further combination with a dosage form stored in one of the cavities wherein the computer includes means for detecting breakage of the subnetwork aligned with the one cavity resulting from removal of the dosage form from the one cavity.

18. The dosage form package of claim 14, wherein each circuit element comprises a resistive element.

19. The dosage form package of claim 18, wherein the resistive elements associated with the subnetworks of one of the rows have resistive values that differ from one another by powers of two.

20. The dosage form package of claim 19, wherein the resistive elements associated with the subnetworks of one of the rows have resistive values that are identical to the resistive values of the resistive elements associated with the subnetworks of another of the rows