Single and multi-layer, flat glass-sensor structures
A single and multi-layer flat glass-sensor structure and method of making the flat glass-sensor structure. The flat glass sensor structure comprises at least one flat glass layer, a sensor and a heater. The flat glass layer has a plurality of cutouts that are configured to “suspend” the sensor on top of or in plane with the flat glass layer. The sensor is an electrochemical wafer with at least one sensory element and flat glass connectors. Each flat glass connector is in minimal contact with at least one sensory sub-area. The heater is a resistive heating element that is on top of or in plane with the flat glass layer configured to heat the sensor. The flat glass connectors are configured to provide support for electrical leads to the heater and membrane. The flat glass connectors are also configured to provide temperature insulation of the suspended sensor.
1. A flat glass-sensor structure comprising:
at least four flexible flat glass layers comprising at least one cavity housed but not contained by overlapping openings through at least two of the flat glass layers;
at least one sensor operably coupled with the at least one cavity, said at least one sensor comprising:
a membrane with at least one sensory sub-area and a plurality of flat glass connectors, wherein each flat glass connector of the plurality of flat glass connectors is in contact with the at least one sensory sub-area; and
a resistive heating element that is on top of or in plane with one of the flat glass layers.
2. The flat glass-sensor structure of claim 1 , wherein the at least one sensor is within the at least one cavity.
3. The flat glass-sensor structure of claim 1 , wherein the flat glass-sensor structure further comprises at least one alignment hole through at least one of the at least two flat glass layers having overlapping openings.
4. The flat glass-sensor structure of claim 1 , wherein the flat glass-sensor structure further comprises at least one alignment post configured in at least one of the at least two flat glass layers having overlapping openings.
5. The flat glass-sensor structure of claim 1 , wherein the flat glass-sensor structure further comprises at least one alignment hole in mechanical union with at least one alignment post.
6. The flat glass-sensor structure of claim 1 , wherein the flat glass-sensor structure further comprises at least one alignment hole disposed in each layer of a plurality of layers, wherein the at least one alignment hole disposed in one layer of the plurality of layers is in mechanical union with at least one alignment post configured in another layer of the plurality of layers.
7. The flat glass-sensor structure of claim 1 , wherein the flat glass-sensor structure further comprises at least one alignment hole disposed in at least one of the at least two flat glass layers having overlapping openings, and at least one alignment post in mechanical union with the at least one alignment hole, wherein the at least one alignment post is configured in a layer distinct from the layer having the at least one alignment hole.
8. The flat glass-sensor structure of claim 1 , wherein the flat glass-sensor structure further comprises a pattern cut in at least two stacked layers.
9. The flat glass-sensor structure of claim 8 , wherein the flat glass-sensor structure further comprises a different pattern cut in each layer of the at least two stacked layers.
10. The flat glass-sensor structure of claim 9 , wherein the at least one cavity further comprises a continuous channel defined by a distinct pattern cut in each layer of the at least two stacked layers.