Multi-layered ventilation apparatus and methods of manufacturing thereof
Disclosed is an apparatus for venting buildings, specifically attic spaces, such vents being predominantly shape-conform to the components from which a wall or a roof is built (typically tiles, in the context of roofs), the vent typically being fabricated from a metallic, plastic, or ceramic core as well as one or more layers from other materials or compounds which modify the overall characteristics of the vent, such as the surface characteristics. Furthermore disclosed are methods of manufacturing such ventilation apparatuses.
1. A ventilation apparatus comprising:
at least one shape predominantly conforming in predominantly two dimensions to a structure of one or more components from which a wall or a roof of a building is made, wherein the two dimensions extend approximately parallel to a plane formed by the wall or the roof, and wherein the apparatus permits airflow into or out of the building predominantly through the plane formed by the wall or the roof;
a predominantly metallic, plastic, or ceramic vent core; and
at least one layer of material with chemically or physically substantially different properties than the core, such that at least one functional characteristic of the ventilation apparatus differs compared to another ventilation apparatus using only the vent core material;
wherein the at least one layer is on the vent core and exhibits the property of being hydrophobic, super-hydrophobic, icephobic, anti-icing, or any combinations thereof; and
wherein the at least one layer is selected from
(i) a single type of nanoparticle deposited onto the vent core;
(ii) a mix of different types of nanoparticles deposited onto the vent core; or
(iii) a nanostructured surface created on the vent core.
2. The ventilation apparatus according to claim 1 wherein the at least one layer is produced by predominantly depositing polymers or polymer precursors.
3. The ventilation apparatus according to claim 1 wherein the at least one layer is produced by predominantly depositing at least one silicone or silicone precursor.
4. The ventilation apparatus according to claim 1 wherein the at least one layer is produced by predominantly depositing at least one synthetic fluoropolymer or its precursor.
5. The ventilation apparatus according to claim 1 wherein the at least one layer is produced on a raw material used to form the vent core prior to forming the vent core.
6. The ventilation apparatus according to claim 1 wherein the at least one layer is produced on the vent core after forming the vent core.
7. The ventilation apparatus according to claim 1 wherein the at least one layer is produced on the ventilation apparatus after it has been installed in a building.
8. The ventilation apparatus according to claim 1 wherein the at least one layer is directly on the vent core.
9. The ventilation apparatus according to claim 1 wherein the at least one layer is on the vent core, said layer having a substantially different thermal conductivity than the vent core.
10. The ventilation apparatus according to claim 9 wherein the at least one layer is produced on a raw material used to form the vent core prior to forming the vent core.
11. The ventilation apparatus according to claim 9 wherein the at least one layer is produced on the vent core after forming the vent core.
12. The ventilation apparatus according to claim 9 wherein the at least one layer is produced on the ventilation apparatus after it has been installed in a building.
13. The ventilation apparatus according to claim 1 wherein the at least one layer has a substantially different optical reflectivity than the vent core.
14. The ventilation apparatus according to claim 13 wherein the at least one layer is produced on a raw material used to form the vent core prior to forming the vent core.
15. The ventilation apparatus according to claim 13 wherein the at least one layer is produced on the vent core after forming the core vent.
16. The ventilation apparatus according to claim 13 wherein the at least one layer is produced on the ventilation apparatus after it has been installed in a building.
17. The ventilation apparatus according to claim 1 wherein the at least one layer is configured to mimic the visual appearance and surface texture of a surrounding wall or roof.
18. The ventilation apparatus according to claim 1 wherein the at least one layer is produced by a physical vapor deposition process.
19. The ventilation apparatus according to claim 1 wherein the at least one layer is produced by a process or technique selected from the group consisting of
(a) a chemical vapor deposition or plasma-enhanced chemical vapor deposition process;
(b) an electro-chemical process;
(c) a thermal spray process;
(d) a laser assisted surface coating process;
(e) a plasma transfer arc process;
(f) a bonding process;
(g) a sol-gel process;
(h) a layer-by-layer assembly technique;
(i) an atomized-spray-plasma deposition process; and
(j) a low temperature coating process of painting, spray painting, spin coating, or dip coating.
20. The ventilation apparatus according to claim 1 wherein the at least one layer is formed predominantly from metal.
21. The ventilation apparatus according to claim 1 wherein the at least one layer is formed predominantly from ceramic.
22. The ventilation apparatus according to claim 1 wherein the at least one layer is formed from predominantly one or more dissolved polymers.
23. The ventilation apparatus according to claim 1 wherein the at least one layer is formed by applying predominantly one or more polymer precursors and finishing polymerization thereafter.
24. The ventilation apparatus according to claim 1 wherein the at least one layer is formed by applying predominantly one or more silicones or silicone precursors.
25. The ventilation apparatus according to claim 1 wherein the at least one layer is formed by applying predominantly at least one synthetic fluoropolymer or its precursors.
26. The ventilation apparatus according to claim 1 wherein the at least one layer contains nanocomposite materials.
27. The ventilation apparatus according to claim 1 wherein the at least one layer is formed by a process selected from the group consisting of:
a) embedding at least one type of nanoparticle in a matrix material;
b) depositing predominantly metal oxide nanoparticles embedded in a predominantly polymer based matrix;
c) depositing predominantly metal oxide nanoparticles embedded in a predominantly acrylate polymer based matrix;
d) depositing predominantly metal oxide nanoparticles embedded in a predominantly silicone based matrix;
e) depositing predominantly metal oxide nanoparticles embedded in a predominantly synthetic fluoropolymer based matrix;
f) depositing predominantly carbon nanoparticles embedded in a predominantly polymer based matrix;
g) depositing predominantly carbon nanoparticles embedded in a predominantly acrylate polymer based matrix;
h) depositing predominantly carbon nanoparticles embedded in a predominantly silicone based matrix;
i) depositing predominantly carbon nanoparticles embedded in a predominantly synthetic fluoropolymer based matrix;
j) depositing predominantly naturally occurring nanoparticles embedded in a predominantly polymer based matrix;
k) depositing predominantly naturally occurring nanoparticles embedded in a predominantly acrylate polymer based matrix;
l) depositing predominantly naturally occurring nanoparticles embedded in a predominantly silicone based matrix;
m) depositing predominantly naturally occurring nanoparticles embedded in a predominantly synthetic fluoropolymer based matrix;
n) depositing predominantly metal nanoparticles embedded in a predominantly polymer based matrix;
o) depositing predominantly metal nanoparticles embedded in a predominantly acrylate polymer based matrix;
p) depositing predominantly metal nanoparticles embedded in a predominantly silicone based matrix;
q) depositing predominantly metal nanoparticles embedded in a predominantly synthetic fluoropolymer based matrix;
r) depositing a composite of a matrix and at least a single type of nanoparticles or a mix of different types of nanoparticles and wherein said nanoparticles are embedded into the matrix;
s) depositing predominantly at least one type of nanoparticle embedded in a matrix of predominantly polymers or polymer precursors;
t) depositing predominantly at least one type of nanoparticle embedded in a matrix of predominantly silicones or silicone precursors; and
u) depositing predominantly at least one type of nanoparticle embedded in a matrix of predominantly synthetic fluoropolymers or synthetic fluoropolymer precursors.
28. A ventilation apparatus comprising:
at least one shape predominantly conforming in predominantly two dimensions to a structure of one or more components from which a wall or a roof of a building is made, wherein the two dimensions extend approximately parallel to a plane formed by the wall or the roof, and wherein the apparatus permits airflow into or out of the building predominantly through the plane formed by the wall or the roof;
a predominantly metallic, plastic, or ceramic vent core; and
at least one layer of material with chemically or physically substantially different properties than the core, such that at least one functional characteristic of the ventilation apparatus differs compared to another ventilation apparatus using only the vent core material;
wherein the at least one layer is on the vent core and exhibits the property of being hydrophobic, super-hydrophobic, icephobic, anti-icing, or any combinations thereof; and
wherein the at least one layer contains nanocomposite materials.
29. The ventilation apparatus according to claim 28 wherein the at least one layer is selected from
(i) a single type of nanoparticle deposited onto the vent core;
(ii) a mix of different types of nanoparticles deposited onto the vent core; or
(iii) a nanostructured surface created on the vent core.
30. The ventilation apparatus according to claim 28 wherein the at least one layer is produced by predominantly depositing polymers or polymer precursors.
31. The ventilation apparatus according to claim 28 wherein the at least one layer is produced by predominantly depositing at least one silicone or silicone precursor.
32. The ventilation apparatus according to claim 28 wherein the at least one layer is produced by predominantly depositing at least one synthetic fluoropolymer or its precursor.
33. The ventilation apparatus according to claim 28 wherein the at least one layer is produced on a raw material used to form the vent core prior to forming the vent core.
34. The ventilation apparatus according to claim 28 wherein the at least one layer is produced on the vent core after forming the vent core.
35. The ventilation apparatus according to claim 28 wherein the at least one layer is produced on the ventilation apparatus after it has been installed in a building.
36. The ventilation apparatus according to claim 28 wherein the at least one layer is directly on the vent core.
37. The ventilation apparatus according to claim 28 wherein the at least one layer is on the vent core, said layer having a substantially different thermal conductivity than the vent core.
38. The ventilation apparatus according to claim 37 wherein the at least one layer is produced on a raw material used to form the vent core prior to forming the vent core.
39. The ventilation apparatus according to claim 37 wherein the at least one layer is produced on the vent core after forming the vent core.
40. The ventilation apparatus according to claim 37 wherein the at least one layer is produced on the ventilation apparatus after it has been installed in a building.
41. The ventilation apparatus according to claim 28 wherein the at least one layer has a substantially different optical reflectivity than the vent core.
42. The ventilation apparatus according to claim 41 wherein the at least one layer is produced on a raw material used to form the vent core prior to forming the vent core.
43. The ventilation apparatus according to claim 41 wherein the at least one layer is produced on the vent core after forming the core vent.
44. The ventilation apparatus according to claim 41 wherein the at least one layer is produced on the ventilation apparatus after it has been installed in a building.
45. The ventilation apparatus according to claim 28 wherein the at least one layer is configured to mimic the visual appearance and surface texture of a surrounding wall or roof.
46. The ventilation apparatus according to claim 28 wherein the at least one layer is produced by a physical vapor deposition process.
47. The ventilation apparatus according to claim 28 wherein the at least one layer is produced by a process or technique selected from the group consisting of
(a) a chemical vapor deposition or plasma-enhanced chemical vapor deposition process;
(b) an electro-chemical process;
(c) a thermal spray process;
(d) a laser assisted surface coating process;
(e) a plasma transfer arc process;
(f) a bonding process;
(g) a sol-gel process;
(h) a layer-by-layer assembly technique;
(i) an atomized-spray-plasma deposition process; and
(j) a low temperature coating process of painting, spray painting, spin coating, or dip coating.
48. The ventilation apparatus according to claim 28 wherein the at least one layer is formed predominantly from metal.
49. The ventilation apparatus according to claim 28 wherein the at least one layer is formed predominantly from ceramic.
50. The ventilation apparatus according to claim 28 wherein the at least one layer is formed from predominantly one or more dissolved polymers.
51. The ventilation apparatus according to claim 28 wherein the at least one layer is formed by applying predominantly one or more polymer precursors and finishing polymerization thereafter.
52. The ventilation apparatus according to claim 28 wherein the at least one layer is formed by applying predominantly one or more silicones or silicone precursors.
53. The ventilation apparatus according to claim 28 wherein the at least one layer is formed by applying predominantly at least one synthetic fluoropolymer or its precursors.
54. The ventilation apparatus according to claim 28 wherein the at least one layer is formed by a process selected from the group consisting of:
a) embedding at least one type of nanoparticle in a matrix material;
b) depositing predominantly metal oxide nanoparticles embedded in a predominantly polymer based matrix;
c) depositing predominantly metal oxide nanoparticles embedded in a predominantly acrylate polymer based matrix;
d) depositing predominantly metal oxide nanoparticles embedded in a predominantly silicone based matrix;
e) depositing predominantly metal oxide nanoparticles embedded in a predominantly synthetic fluoropolymer based matrix;
f) depositing predominantly carbon nanoparticles embedded in a predominantly polymer based matrix;
g) depositing predominantly carbon nanoparticles embedded in a predominantly acrylate polymer based matrix;
h) depositing predominantly carbon nanoparticles embedded in a predominantly silicone based matrix;
i) depositing predominantly carbon nanoparticles embedded in a predominantly synthetic fluoropolymer based matrix;
j) depositing predominantly naturally occurring nanoparticles embedded in a predominantly polymer based matrix;
k) depositing predominantly naturally occurring nanoparticles embedded in a predominantly acrylate polymer based matrix;
l) depositing predominantly naturally occurring nanoparticles embedded in a predominantly silicone based matrix;
m) depositing predominantly naturally occurring nanoparticles embedded in a predominantly synthetic fluoropolymer based matrix;
n) depositing predominantly metal nanoparticles embedded in a predominantly polymer based matrix;
o) depositing predominantly metal nanoparticles embedded in a predominantly acrylate polymer based matrix;
p) depositing predominantly metal nanoparticles embedded in a predominantly silicone based matrix;
q) depositing predominantly metal nanoparticles embedded in a predominantly synthetic fluoropolymer based matrix;
r) depositing a composite of a matrix and at least a single type of nanoparticles or a mix of different types of nanoparticles and wherein said nanoparticles are embedded into the matrix;
s) depositing predominantly at least one type of nanoparticle embedded in a matrix of predominantly polymers or polymer precursors;
t) depositing predominantly at least one type of nanoparticle embedded in a matrix of predominantly silicones or silicone precursors; and
u) depositing predominantly at least one type of nanoparticle embedded in a matrix of predominantly synthetic fluoropolymers or synthetic fluoropolymer precursors.
55. A ventilation apparatus comprising:
at least one shape predominantly conforming in predominantly two dimensions to a structure of one or more components from which a wall or a roof of a building is made, wherein the two dimensions extend approximately parallel to a plane formed by the wall or the roof, and wherein the apparatus permits airflow into or out of the building predominantly through the plane formed by the wall or the roof;
a predominantly metallic, plastic, or ceramic vent core; and
at least one layer of material with chemically or physically substantially different properties than the core, such that at least one functional characteristic of the ventilation apparatus differs compared to another ventilation apparatus using only the vent core material;
wherein the at least one layer is on the vent core and exhibits the property of being hydrophobic, super-hydrophobic, icephobic, anti-icing, or any combinations thereof; and
wherein the at least one layer is formed by a process selected from the group consisting of:
a) embedding at least one type of nanoparticle in a matrix material;
b) depositing predominantly metal oxide nanoparticles embedded in a predominantly polymer based matrix;
c) depositing predominantly metal oxide nanoparticles embedded in a predominantly acrylate polymer based matrix;
d) depositing predominantly metal oxide nanoparticles embedded in a predominantly silicone based matrix;
e) depositing predominantly metal oxide nanoparticles embedded in a predominantly synthetic fluoropolymer based matrix;
f) depositing predominantly carbon nanoparticles embedded in a predominantly polymer based matrix;
g) depositing predominantly carbon nanoparticles embedded in a predominantly acrylate polymer based matrix;
h) depositing predominantly carbon nanoparticles embedded in a predominantly silicone based matrix;
i) depositing predominantly carbon nanoparticles embedded in a predominantly synthetic fluoropolymer based matrix;
j) depositing predominantly naturally occurring nanoparticles embedded in a predominantly polymer based matrix;
k) depositing predominantly naturally occurring nanoparticles embedded in a predominantly acrylate polymer based matrix;
l) depositing predominantly naturally occurring nanoparticles embedded in a predominantly silicone based matrix;
m) depositing predominantly naturally occurring nanoparticles embedded in a predominantly synthetic fluoropolymer based matrix;
n) depositing predominantly metal nanoparticles embedded in a predominantly polymer based matrix;
o) depositing predominantly metal nanoparticles embedded in a predominantly acrylate polymer based matrix;
p) depositing predominantly metal nanoparticles embedded in a predominantly silicone based matrix;
q) depositing predominantly metal nanoparticles embedded in a predominantly synthetic fluoropolymer based matrix;
r) depositing a composite of a matrix and at least a single type of nanoparticles or a mix of different types of nanoparticles and wherein said nanoparticles are embedded into the matrix;
s) depositing predominantly the at least one type of nanoparticle embedded in a matrix of predominantly polymers or polymer precursors; and
t) depositing predominantly at least one type of nanoparticle embedded in a matrix of predominantly synthetic fluoropolymers or synthetic fluoropolymer precursors.
56. The ventilation apparatus according to claim 55 wherein the at least one layer is produced by predominantly depositing polymers or polymer precursors.
57. The ventilation apparatus according to claim 55 wherein the at least one layer is produced by predominantly depositing at least one silicone or silicone precursor.
58. The ventilation apparatus according to claim 55 wherein the at least one layer is produced by predominantly depositing at least one synthetic fluoropolymer or its precursor.
59. The ventilation apparatus according to claim 55 wherein the at least one layer is produced on a raw material used to form the vent core prior to forming the vent core.
60. The ventilation apparatus according to claim 55 wherein the at least one layer is produced on the vent core after forming the vent core.
61. The ventilation apparatus according to claim 55 wherein the at least one layer is produced on the ventilation apparatus after it has been installed in a building.
62. The ventilation apparatus according to claim 55 wherein the at least one layer is directly on the vent core.
63. The ventilation apparatus according to claim 55 wherein the at least one layer is on the vent core, said layer having a substantially different thermal conductivity than the vent core.
64. The ventilation apparatus according to claim 63 wherein the at least one layer is produced on a raw material used to form the vent core prior to forming the vent core.
65. The ventilation apparatus according to claim 63 wherein the at least one layer is produced on the vent core after forming the vent core.
66. The ventilation apparatus according to claim 63 wherein the at least one layer is produced on the ventilation apparatus after it has been installed in a building.
67. The ventilation apparatus according to claim 55 wherein the at least one layer has a substantially different optical reflectivity than the vent core.
68. The ventilation apparatus according to claim 67 wherein the at least one layer is produced on a raw material used to form the vent core prior to forming the vent core.
69. The ventilation apparatus according to claim 67 wherein the at least one layer is produced on the vent core after forming the core vent.
70. The ventilation apparatus according to claim 67 wherein the at least one layer is produced on the ventilation apparatus after it has been installed in a building.
71. The ventilation apparatus according to claim 55 wherein the at least one layer is configured to mimic the visual appearance and surface texture of a surrounding wall or roof.
72. The ventilation apparatus according to claim 55 wherein the at least one layer is produced by a physical vapor deposition process.
73. The ventilation apparatus according to claim 55 wherein the at least one layer is produced by a process or technique selected from the group consisting of
(a) a chemical vapor deposition or plasma-enhanced chemical vapor deposition process;
(b) an electro-chemical process;
(c) a thermal spray process;
(d) a laser assisted surface coating process;
(e) a plasma transfer arc process;
(f) a bonding process;
(g) a sol-gel process;
(h) a layer-by-layer assembly technique;
(i) an atomized-spray-plasma deposition process; and
(j) a low temperature coating process of painting, spray painting, spin coating, or dip coating.
74. The ventilation apparatus according to claim 55 wherein the at least one layer is formed predominantly from metal.
75. The ventilation apparatus according to claim 55 wherein the at least one layer is formed predominantly from ceramic.
76. The ventilation apparatus according to claim 55 wherein the at least one layer is formed from predominantly one or more dissolved polymers.
77. The ventilation apparatus according to claim 55 wherein the at least one layer is formed by applying predominantly one or more polymer precursors and finishing polymerization thereafter.
78. The ventilation apparatus according to claim 55 wherein the at least one layer is formed by applying predominantly one or more silicones or silicone precursors.
79. The ventilation apparatus according to claim 55 wherein the at least one layer is formed by applying predominantly at least one synthetic fluoropolymer or its precursors.
80. The ventilation apparatus according to claim 55 wherein the at least one layer contains nanocomposite materials.