FIRE SUPPRESSION DEVICE
The disclosed technology includes a fire suppression device including a non-conductive support layer and an intumescent coating. The non-conductive support layer can include a plurality of non-conductive strands arranged to form a plurality of apertures. The intumescent coating can be disposed on at least a portion of the plurality of non-conductive strands. The intumescent coating can be configured to expand to at least partially close a portion of the plurality of apertures upon the intumescent coating being heated to a temperature greater than or equal to a threshold temperature.
1 . A fire suppression device comprising:
a non-conductive support layer including a plurality of non-conductive strands arranged to form a plurality of apertures: and
an intumescent coating disposed on at least a portion of the plurality of non-conductive strands, the intumescent coating configured to expand to at least partially close a portion of the plurality of apertures upon the intumescent coating being heated to a temperature greater than or equal to a threshold temperature.
2 . The fire suppression device of claim 1 , wherein the plurality of non-conductive strands comprises basalt fiber.
3 . The fire suppression device of claim 1 , wherein the plurality of non-conductive strands comprises at least one of carbon fiber, glass fiber, aramid, fiberglass, and quartz fiber.
4 . The fire suppression device of claim 1 , wherein the plurality of non-conductive strands comprises a first non-conductive composition and a second non-conductive composition, the first non-conductive composition being different than the second non-conductive composition.
5 . The fire suppression device of claim 1 , wherein each aperture of the plurality of apertures has a predetermined height and a predetermined width, the predetermined height being between approximately 3.25 mm and approximately 4.75 mm and the predetermined width being between approximately 3.25 mm and approximately 4.75 mm.
6 . The fire suppression device of claim 1 , wherein a predetermined amount of intumescent coating is disposed on at least a portion of the plurality of non-conductive strands, the predetermined amount being between approximately 0.08 and approximately 0.20 pounds per square foot of the support layer.
7 . The fire suppression device of claim 1 , wherein the intumescent coating comprises a temperature-sensitive pigment configured to change color upon the intumescent coating being heated to the temperature greater than or equal to the threshold temperature.
8 . The fire suppression device of claim 1 , wherein the threshold temperature is between approximately 280° F. and approximately 300° F.
9 . The fire suppression device of claim 1 , wherein the intumescent coating expands to form a char layer of a predetermined thickness, the predetermined thickness being between approximately 10 mm and approximately 30 mm.
10 . The fire suppression device of claim 1 , wherein the intumescent coating expands (i) outwardly toward a source of heat: (ii) inwardly away from the source of heat: and (iii) laterally to at least partially close at least a portion of the plurality of apertures.
11 . A method of manufacturing a fire suppression device comprising:
providing a plurality of non-conductive strands forming a plurality of apertures; and
applying an intumescent coating on at least a portion of the plurality of non-conductive strands, the intumescent coating configured to expand to at least partially close a portion of the plurality of apertures upon the intumescent coating being heated to a temperature greater than or equal to a threshold temperature.
12 . The method of claim 11 , wherein providing the plurality of non-conductive strands comprises weaving the plurality of non-conductive strands together to form a mesh-like configuration.
13 . The method of claim 11 , wherein a predetermined amount of intumescent coating is applied to at least a portion of the plurality of non-conductive strands, the predetermined amount of intumescent coating being between approximately 0.08 pounds per square foot to approximately 0.20 pounds per square foot.
14 . The method of claim 11 , wherein a predetermined amount of intumescent coating is applied to at least a portion of the plurality of non-conductive strands, the predetermined amount of intumescent coating being based at least in part on an estimated magnitude of fires expected to occur at a location in which the fire suppression device is used.
15 . The method of claim 11 , further comprising curing the intumescent coating applied to at least the portion of the plurality of non-conductive strands at a temperature below a boiling point of the intumescent coating.
16 . A fire suppression system comprising:
a structure; and
a fire suppression device affixed to at least a portion of the structure, the tire suppression device comprising:
a non-conductive support layer including a plurality of non-conductive strands arranged to form a plurality of apertures; and
an intumescent coating disposed on at least a portion of the plurality of non-conductive strands, the intumescent coating configured to expand to at least partially close a portion of the plurality of apertures upon the intumescent coating being heated to a temperature greater than or equal to a threshold temperature.
17 . The tire suppression system of claim 16 , wherein the structure is a wooden utility pole.
18 . The fire suppression system of claim 16 , wherein the tire suppression device is wrapped around the structure to conform to the shape of the structure.
19 . The tire suppression system of claim 16 , wherein each aperture of the plurality of apertures is sized to allow for water moisture to permeate into the structure and out of the structure.
20 . The fire suppression system of claim 16 , wherein the intumescent coating expands (i) outwardly away from the structure: (ii) inwardly toward the structure: and (iii) laterally to at least partially close at least a portion of the plurality of apertures.