CN218115021U - Anti-condensation and anti-frosting ozone generation device - Google Patents
Anti-condensation and anti-frosting ozone generation device Download PDFInfo
- Publication number
- CN218115021U CN218115021U CN202220680903.9U CN202220680903U CN218115021U CN 218115021 U CN218115021 U CN 218115021U CN 202220680903 U CN202220680903 U CN 202220680903U CN 218115021 U CN218115021 U CN 218115021U
- Authority
- CN
- China
- Prior art keywords
- electrode
- ozone
- resistance
- ceramic substrate
- discharge
- Prior art date
- Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
- Active
Links
Images
Landscapes
- Oxygen, Ozone, And Oxides In General (AREA)
Abstract
The utility model discloses an anti-condensation and anti-frosting ozone generating device, which comprises a high-voltage power supply, an ozone sheet, a resistor, a first discharge electrode, a second discharge electrode, a first resistance electrode and a second resistance electrode; the first and second discharge electrodes are respectively connected with the ozone emission electrode and the ozone induction electrode on the ozone sheet; the first and second resistance electrodes are respectively connected with the first and second discharge electrodes, and two ends of the resistor are respectively connected with the first and second resistance electrodes; two poles of the output of the high-voltage power supply are respectively connected with the first discharge electrode and the second discharge electrode; the ozone sheet generates ozone, a current path passing through the first and second discharge electrodes is set as a first path, and the ratio of the path voltage and the current is set as a first resistance value; setting a current path flowing through the first resistance electrode, the resistor, and the second resistance electrode as a second path, the path voltage-to-current ratio being set as a second resistance value; the first resistance value is higher than the second resistance value. The utility model simplifies the preparation process, and the ozone tablet has good adjustability and universality.
Description
Technical Field
The utility model relates to an environmental protection technical field, concretely relates to ozone production device of anti condensation and frosting.
Background
The ozone sheet is difficult to glow under high-humidity and low-temperature conditions, and is mainly limited under the high-humidity conditions, water vapor is easy to generate condensation to shield the ozone generating electrode, the condensation can further generate frosting under the low-temperature conditions, the ozone sheet generating electrode is further isolated from air, and the glow can be influenced.
At present, two main means are used for improving the problem of difficult starting at high humidity and low temperature: 1) The discharge surface of the ozone sheet is covered with an inorganic microporous membrane to prevent water vapor from contacting with a discharge electrode, but the exchange of air is not influenced, so that the starting problem is improved; 2) The heating resistor is arranged on the back or the periphery of the ozone sheet, and the problem of glow starting can be improved by drying the ozone sheet.
CN205076804U introduces an ozone sheet, the ozone sheet is preheated before working by printing a resistor body at the back of an induction type ozone sheet, and the ozone sheet is preheated before starting the ozone sheet; CN109415206A also reaches the purpose of heating the ozone piece and starting the ozone piece by printing a resistor on the back of the ozone piece in the form of electrode fingers and generating different alternating voltages by a power supply.
In the above two methods, although the process of printing the resistor body on the back of the ozone sheet is realized, there is a big problem in the actual process: 1) CN109415206A ozone "electrode finger" type discharge pattern, which needs to be formed synchronously in the sintering process of ozone green body, and the discharge circuit can penetrate into the green body. If preprinting and re-sintering are carried out on the surface of the porcelain, arc discharge is easily caused in the discharge process, and the ozone generation amount is obviously reduced. 2) If rapid heating is realized, the resistance value of the heating resistor is larger, the resistance value of the ruthenium-containing slurry can reach the level of kiloohm or mega ohm, but the sintering temperature of the slurry is generally lower, generally between 800 and 850 ℃, the traditional ozone sheet green blank is generally high temperature co-fired ceramic (HTCC), the sintering temperature is between 1300 and 1700 ℃, and in order to obtain higher resistance value, special low temperature co-fired ceramic (LTCC) is needed. The low-temperature co-fired ceramic is generally used in the fields of communication, microwave multi-chip assembly, national defense, military and the like. 3) There is also a deep contradiction between heating rate and voltage, and in order to avoid overheating of the ozone cell and resulting decomposition of the emission housing, the solution described in CN109415206A requires periodic ignition. 4) In addition to the contradiction of inconsistent processing temperatures, there is also a problem of inconsistent process atmosphere. A high-temperature hydrogen reducing atmosphere or an air atmosphere may be used in the production process of the ozone discharge electrode and the heating resistor body.
In conclusion, the ozone sheets in the above two schemes are complex in process and limited by different processing conditions and process (carrier, sintering temperature and sintering atmosphere) conditions of the ozone discharge electrode, the ozone induction electrode and the resistance heating electrode, and the obtained ozone sheets have no good adjustability and universality.
SUMMERY OF THE UTILITY MODEL
In view of this, the utility model provides an anti-condensation and ozone of frosting produces device has simplified the preparation technology, and the ozone piece possesses good regulation nature and universality.
The utility model adopts the technical scheme as follows:
an anti-condensation and anti-frosting ozone generating device comprises a high-voltage power supply, an ozone sheet, a first discharge electrode, a second discharge electrode, a first resistance electrode, a resistor and a second resistance electrode;
the first discharge electrode and the second discharge electrode are respectively connected with an ozone emission electrode and an ozone induction electrode on the ozone sheet, and ozone is generated through discharge; the first resistance electrode and the second resistance electrode are respectively connected with the first discharge electrode and the second discharge electrode, and two ends of the resistor are respectively connected with the first resistance electrode and the second resistance electrode;
two poles of the high-voltage power supply are respectively connected with the first discharge electrode and the second discharge electrode and are used for generating alternating voltage V1 for exciting the ozone to start and alternating voltage V2 for not generating ozone but preheating the ozone slice, wherein V1 is more than V2;
setting a current path passing through the first discharge electrode and the second discharge electrode as a first path under the action of the alternating voltage V1, and setting a ratio of voltage and current of the first path as a first resistance value; setting a current path flowing through the first resistance electrode, the resistor, and the second resistance electrode as a second path, and setting a ratio of a voltage to a current of the second path as a second resistance value; the first resistance value is higher than the second resistance value.
Further, the ozone sheet comprises a ceramic substrate, emission electrode slurry and induction electrode slurry;
and one surface of the ceramic substrate is attached with emission electrode slurry to form an ozone emission electrode, and the back of the ceramic substrate is attached with induction electrode slurry to form an ozone induction electrode.
Further, the ozone sheet comprises a ceramic substrate upper plate, a ceramic substrate lower plate, emission electrode slurry and induction electrode slurry;
one surface of the ceramic substrate upper plate is attached with an emission electrode slurry to form an ozone emission electrode, and the back of the ceramic substrate upper plate is attached with an induction electrode slurry to form an ozone induction electrode; or one side of the ceramic substrate upper plate is attached with the emission electrode slurry to form an ozone emission electrode, and the inner side of the ceramic substrate lower plate is attached with the induction electrode slurry to form an ozone induction electrode; the ceramic substrate upper plate and the ceramic substrate lower plate are pressed together.
An anti-condensation and anti-frosting ozone generation device comprises a high-voltage power supply, a ceramic substrate upper plate, a ceramic substrate lower plate, emission electrode slurry, induction electrode slurry, a high-voltage discharge electrode, a first resistance electrode, a resistor and a second resistance electrode;
an emission electrode slurry is attached to one surface of the ceramic substrate upper plate to form an ozone emission electrode, and an induction electrode slurry is attached to the back of the ceramic substrate upper plate to form an ozone induction electrode; meanwhile, the high-voltage discharge electrode, the first resistance electrode and the second resistance electrode are printed on the back; the high-voltage discharge electrode is connected with the ozone emission electrode on the surface of the ceramic substrate through the connecting hole, the high-voltage discharge electrode is connected with the first resistance electrode through a lead, and the ozone induction electrode is connected with the second resistance electrode through another lead; the ceramic substrate lower plate is hollowed and pressed on the back of the ceramic substrate upper plate, and the ozone induction electrode, the high-voltage discharge electrode, the first resistance electrode and the second resistance electrode are clamped in the middle and are completely or partially exposed; two ends of the resistor are respectively connected with the first resistance electrode and the second resistance electrode;
two electrodes output by the high-voltage power supply are respectively connected with the high-voltage discharge electrode and the ozone induction electrode and are used for generating alternating voltage V1 for exciting the ozone to start and alternating voltage V2 which does not generate ozone but can preheat the ozone sheet, wherein V1 is larger than V2;
under the action of the alternating voltage V1, setting a current path passing through the high-voltage discharge electrode and the ozone induction electrode as a first path, and setting the ratio of the voltage and the current of the first path as a first resistance value; setting a current path flowing through the first resistance electrode, the resistor, and the second resistance electrode as a second path, and setting a ratio of a voltage to a current of the second path as a second resistance value; the first resistance value is higher than the second resistance value.
Furthermore, a microporous water-proof and breathable film is attached to the ozone emitting electrode side of the ozone sheet.
Furthermore, the microporous water-proof and breathable film is microporous alumina, and the water-proof and breathable film at least covers the ozone emission electrode.
Furthermore, the ceramic substrate upper plate and the ceramic substrate lower plate are all 90-96% of alumina, and the sintering temperature is 1200-1700 ℃.
Further, the resistor is a chip resistor.
Furthermore, the ozone induction electrode is connected with a first discharge electrode in a lap joint mode, the ozone emission electrode is connected with a second discharge electrode printed on the back of the ceramic substrate through a connecting hole, and the first resistance electrode and the second resistance electrode are printed on the back of the ceramic substrate and are connected with the first discharge electrode and the second discharge electrode through lead wires respectively.
Further, the ozone induction electrode side of the ozone sheet is provided with an insulating layer except for the first discharge electrode, the second discharge electrode, the first resistance electrode and the second resistance electrode.
Furthermore, the insulating layer is made of glass glaze or silicon dioxide or aluminum oxide.
Furthermore, a first discharge electrode and a second discharge electrode are printed on one side of the lower plate of the ceramic substrate, the first discharge electrode is connected with the ozone emission electrode through a connecting hole on the lower plate and the upper plate of the ceramic substrate, and the second discharge electrode is connected with the ozone induction electrode through another connecting hole on the lower plate of the ceramic substrate; the ceramic substrate lower plate surface is printed with a first resistance electrode and a second resistance electrode at the same time, and the first resistance electrode and the second resistance electrode are respectively connected with a first discharge electrode and a second discharge electrode through leads.
Has the advantages that:
1. the prior art realizes the resistor body by printing the resistor body, has complex process, gives consideration to the resistor and the discharge electrode, and limits the sintering temperature and the process. The above problems are particularly prominent for products with high resistance. The utility model discloses only need be at traditional ozone piece back welding resistor, reduced the production degree of difficulty and the technological limitation of ozone piece.
And moreover, the resistors with different resistance values are directly welded to realize the regulation and control of the resistance values, the influence of different sintering temperatures on the ozone discharge electrode and the ozone induction electrode is avoided, the preparation process is simplified, different voltages are converted through a power supply, the heating and glow starting are realized, the continuous operation can be realized, and the periodic starting and stopping are not needed.
Secondly, in order to avoid the ozone piece to take place the overheating, overcome the problem that can not continuous operation, under the voltage condition that reaches production ozone, the utility model discloses a first resistance value is higher than the second resistance value, but continuous heating for the ozone piece is equipped with good regulation nature and universality.
2. The utility model discloses a resistor is chip resistor, has avoided the restriction to ozone piece preparation because of sintering temperature, sintering atmosphere and carrier material.
Drawings
FIG. 1 is a schematic front view of an ozone sheet in example 1 (without a microporous water-and gas-permeable membrane attached).
FIG. 2 is a schematic front view of the ozone sheet of example 1 (with microporous water and gas barrier film).
Figure 3 is the embodiment of 1 ozone sheet on the back view (without the insulation layer).
FIG. 4 is a schematic view of the back surface of the ozone sheet of example 1 (with an insulating layer attached).
Figure 5 is the embodiment 2 ozone slice explosion diagram.
Figure 6 is the embodiment of 2 ozone sheet another view explosion diagram.
Figure 7 is the embodiment 2 ozone sheet front view sketch map.
Figure 8 is a side view of the ozone sheet of example 2.
Figure 9 is the embodiment 2 ozone sheet back diagram.
Figure 10 is the embodiment 3 ozone sheet explosion diagram.
Figure 11 is the embodiment of 3 ozone sheet another view explosion diagram.
Figure 12 is the embodiment 3 ozone sheet front view schematic.
Figure 13 is the embodiment 3 ozone sheet side view.
Figure 14 is the embodiment 3 ozone sheet back diagram.
Detailed Description
The present invention will be described in detail below with reference to the accompanying drawings by way of examples.
Example 1
The embodiment provides an ozone generation device of anti-condensation and frost, including high voltage power supply I, ceramic substrate 1, transmitting electrode thick liquids, response electrode thick liquids, first discharge electrode I7, second discharge electrode I9, first resistance electrode I10, resistor I15 and second resistance electrode I11.
As shown in fig. 1 and 3, an emitting electrode paste is attached to one surface of the ceramic substrate 1 to form an ozone emitting electrode i 5, and an induction electrode paste is attached to the back of the ceramic substrate to form an ozone induction electrode i 6. Ozone response electrode I6 overlap joint has first discharge electrode I7, and ozone emitter electrode I5 links to each other through connecting hole I8 and the second discharge electrode I9 of printing in 1 back of ceramic substrate, and first resistance electrode I10 and the printing of second resistance electrode I11 are at the back of ceramic substrate 1, link to each other with first discharge electrode I7 and second discharge electrode I9 through lead wire I12, lead wire II 2 respectively. Two ends of the resistor I15 are fixed between the first resistance electrode I10 and the second resistance electrode I11 through soldering tin. Resistor i 15 is a chip resistor.
Two poles of high voltage power supply I output link to each other with first discharge electrode I7 and second discharge electrode I9 respectively, can produce the alternating voltage V1 that arouses ozone starter and not produce ozone but can preheat the alternating voltage V2 of ozone piece through the control, wherein V1> V2.
Under the action of the high voltage V1, the ozone sheet generates ozone, a current path passing through the first discharge electrode I7 and the second discharge electrode I9 is set as a first path, and the ratio of the voltage and the current of the first path is defined as a first resistance value.
A current path flowing through the first resistance electrode i 10, the resistor i 15, and the second resistance electrode i 11 is set as a second path, and a ratio of a voltage to a current of the second path is defined as a second resistance value.
In order to avoid overheating the ozone sheet, the ozone is decomposed under high temperature condition to cause ozone loss, and the problem of incapability of continuous operation is overcome.
Preferably, as shown in fig. 2, a microporous water-proof and air-permeable membrane 14 is attached to the ozone emitting electrode i 5 side of the ozone sheet, so as to increase the service life and improve the stability under a specific atmosphere (no coating is difficult to glow under a methyl mercaptan atmosphere). The microporous water-proof and breathable film 14 is microporous alumina, and the water-proof and breathable film 14 at least covers the ozone emission electrode I5.
As shown in figure 4, ozone slice ozone induction electrode I6 side, except the first discharge electrode I7, second discharge electrode I9, first resistance electrode I10 and second resistance electrode I11 region with an insulating layer 13, to avoid high voltage leakage. The insulating layer 13 is made of an electrically insulating medium such as glass glaze, silicon dioxide, aluminum oxide, or the like.
The ceramic substrate 1 is 90-96% of alumina and is high-temperature co-fired ceramic, and the sintering temperature is 1200-1700 ℃.
Example 2
The embodiment provides an anti-condensation and anti-frosting ozone generation device, which comprises a high-voltage power supply II, a ceramic substrate upper plate I16, a ceramic substrate lower plate I17, emission electrode slurry, induction electrode slurry, a high-voltage discharge electrode 23, a first resistance electrode II 26, a resistor II 29 and a second resistance electrode II 28.
As shown in fig. 5 to 9, an emitting electrode slurry is attached to one surface of a ceramic substrate I16 to form an ozone emitting electrode II 21, and an induction electrode slurry is attached to the back of the ceramic substrate I to form an ozone induction electrode II 22; meanwhile, a high-voltage discharge electrode 23, a first resistance electrode II 26 and a second resistance electrode II 28 are printed on the back of the ceramic substrate I16; the high-voltage discharge electrode 23 is connected with an ozone emission electrode II 21 on the surface of the ceramic substrate I16 through a connecting hole II 24, the high-voltage discharge electrode 23 is connected with a first resistance electrode II 26 through a lead III 25, and an ozone induction electrode II 22 is connected with a second resistance electrode II 28 through a lead IV 27; the ceramic substrate lower plate I17 is hollowed out and is pressed on the back of the ceramic substrate upper plate I16, the ozone induction electrode II 22, the high-voltage discharge electrode 23, the first resistance electrode II 26 and the second resistance electrode II 28 are clamped in the middle, and the ozone induction electrode II 22 is completely or partially exposed, wherein the high-voltage discharge electrode 23 is partially exposed in the embodiment, and the ozone induction electrode II 22 is completely exposed; two ends of the resistor II 29 are respectively connected with the first resistance electrode II 26 and the second resistance electrode II 28 in a welding mode; resistor II 29 is a chip resistor. And (3) laminating the ceramic substrate upper plate I16 and the ceramic substrate lower plate I17 through a laminating device, and calcining at high temperature to obtain an ozone sheet finished product.
Two output poles of the high-voltage power supply II are respectively connected with the exposed high-voltage discharge electrode 23 and the ozone induction electrode II 22, and an alternating voltage V1 capable of exciting the ozone glow and an alternating voltage V2 capable of not generating ozone but preheating the ozone sheet are generated through control, wherein V1 is larger than V2.
Under the action of the alternating voltage V1, the ozone sheet generates ozone, a current path passing through the high-voltage discharge electrode 23 and the ozone induction electrode II 22 is set as a first path, and the ratio of the voltage to the current of the first path is set as a first resistance value; a current path passing through first resistance electrode ii 26, resistor ii 29, and second resistance electrode ii 28 is defined as a second path, and a ratio of a voltage to a current in the second path is defined as a second resistance value.
In order to avoid overheating the ozone sheet and to overcome the problem of not being able to operate continuously, the first resistance value is higher than the second resistance value when the voltage for generating ozone is reached.
Preferably, a microporous water-proof and air-permeable film is attached to the ozone emitting electrode II 21 side of the ozone sheet, so that the service life is prolonged, and the stability under a specific atmosphere is improved (the film is not easy to glow under a methyl mercaptan atmosphere). The microporous water-proof and gas-permeable film is microporous alumina.
The ceramic substrate upper plate I16 and the ceramic substrate lower plate I17 are 90-96% of alumina and high-temperature co-fired ceramic, and the sintering temperature is 1200-1700 ℃.
Example 3
The embodiment provides an anti-condensation and anti-frosting ozone generation device, which comprises a high-voltage power supply III, a ceramic substrate upper plate II 30, a ceramic substrate lower plate II 31, emission electrode slurry, induction electrode slurry, a first discharge electrode II 37, a second discharge electrode II 38, a first resistance electrode III 42, a resistor III 44 and a second resistance electrode III 43.
As shown in fig. 10 to 14, an emitting electrode paste is attached to one surface of a ceramic substrate II 30 to form an ozone emitting electrode III 35, and an induction electrode paste is attached to the back of the ceramic substrate II to form an ozone induction electrode III 36; or the emitting electrode slurry is attached to one surface of the ceramic substrate upper plate II 30 to form an ozone emitting electrode III 35, and the induction electrode slurry is attached to the inner side surface of the ceramic substrate lower plate II 31 to form an ozone induction electrode III 36; the ceramic substrate upper plate II 30 and the ceramic substrate lower plate II 31 are pressed together, and the ozone induction electrode III 36 is pressed between the two layers.
A first discharge electrode II 37 and a second discharge electrode II 38 are printed on one side of the ceramic substrate lower plate II 31, the first discharge electrode II 37 is connected with an ozone emission electrode III 35 through a connecting hole IV 40 on the ceramic substrate lower plate II 31 and a connecting hole III 39 on the ceramic substrate upper plate II 30, and the second discharge electrode II 38 is connected with an ozone induction electrode III 36 through another connecting hole V41 on the ceramic substrate lower plate II 31; the surface of the ceramic substrate lower plate II 31 is printed with a first resistance electrode III 42 and a second resistance electrode III 43 at the same time, and the first resistance electrode III 42 and the second resistance electrode III 43 are respectively connected with a first discharge electrode II 37 and a second discharge electrode II 38 through a lead V45 and a lead VI 46. Two ends of the resistor III 44 are respectively connected with the first resistance electrode III 42 and the second resistance electrode III 43 in a welding mode; resistor iii 44 is a chip resistor.
Two poles of the output of the high-voltage power supply III are respectively connected with a first discharge electrode II 37 and a second discharge electrode II 38, and an alternating voltage V1 capable of exciting ozone glow and an alternating voltage V2 which does not generate ozone but can preheat an ozone sheet are generated by controlling, wherein V1 is larger than V2.
Under the action of the high voltage V1, the ozone sheet generates ozone, a current path passing through the first discharge electrode II 37 and the second discharge electrode II 38 is set as a first path, and the ratio of the voltage and the current of the first path is defined as a first resistance value.
A current path flowing through the first resistance electrode iii 42, the resistor iii 44, and the second resistance electrode iii 43 is defined as a second path, and a ratio of a voltage to a current of the second path is defined as a second resistance value.
In order to avoid overheating of the ozone sheet and to overcome the problem of not being able to operate continuously, the first resistance value is higher than the second resistance value when the voltage for generating ozone is reached.
Preferably, a microporous water-proof and air-permeable membrane is attached to the ozone emitting electrode III 35 side of the ozone sheet, so that the service life is prolonged, and the stability under a specific atmosphere is improved (the membrane is not easy to glow under a methyl mercaptan atmosphere). The microporous water-proof and breathable film is microporous alumina.
The ceramic substrate upper plate II 30 and the ceramic substrate lower plate II 31 are 90-96% of alumina and are high-temperature co-fired ceramics, and the sintering temperature is 1200-1700 ℃.
In summary, the above is only a preferred embodiment of the present invention, and is not intended to limit the scope of the present invention. Any modification, equivalent replacement, or improvement made within the spirit and principle of the present invention should be included in the protection scope of the present invention.
Claims (11)
1. An anti-condensation and anti-frosting ozone generating device is characterized by comprising a high-voltage power supply, an ozone sheet, a first discharge electrode, a second discharge electrode, a first resistance electrode, a resistor and a second resistance electrode;
the first discharge electrode and the second discharge electrode are respectively connected with an ozone emission electrode and an ozone induction electrode on the ozone sheet, and ozone is generated through discharge; the first resistance electrode and the second resistance electrode are respectively connected with the first discharge electrode and the second discharge electrode, and two ends of the resistor are respectively connected with the first resistance electrode and the second resistance electrode;
two poles of the high-voltage power supply are respectively connected with the first discharge electrode and the second discharge electrode and are used for generating alternating voltage V1 for exciting the ozone to start and alternating voltage V2 for not generating ozone but preheating the ozone slice, wherein V1 is more than V2;
setting a current path passing through the first discharge electrode and the second discharge electrode as a first path under the action of the alternating voltage V1, and setting a ratio of voltage and current of the first path as a first resistance value; setting a current path flowing through the first resistance electrode, the resistor, and the second resistance electrode as a second path, and setting a ratio of a voltage to a current of the second path as a second resistance value; the first resistance value is higher than the second resistance value.
2. The anti-condensation and anti-frost ozone generation apparatus of claim 1, wherein the ozone sheet comprises a ceramic substrate, an emitter electrode paste, and a sensor electrode paste;
and one surface of the ceramic substrate is attached with emission electrode slurry to form an ozone emission electrode, and the back of the ceramic substrate is attached with induction electrode slurry to form an ozone induction electrode.
3. The anti-condensation and anti-frosting ozone generating apparatus of claim 1, wherein the ozone sheet comprises a ceramic substrate upper plate, a ceramic substrate lower plate, an emitter electrode paste and a sensor electrode paste;
one surface of the ceramic substrate upper plate is attached with an emitting electrode slurry to form an ozone emitting electrode, and the back of the ceramic substrate upper plate is attached with an induction electrode slurry to form an ozone induction electrode; or the emission electrode slurry is attached to one surface of the ceramic substrate upper plate to form an ozone emission electrode, and the induction electrode slurry is attached to the inner side surface of the ceramic substrate lower plate to form an ozone induction electrode; the ceramic substrate upper plate and the ceramic substrate lower plate are pressed together.
4. The apparatus as claimed in claim 2, wherein the ozone induction electrode is connected with a first discharge electrode, the ozone emission electrode is connected with a second discharge electrode printed on the back of the ceramic substrate through a connection hole, and the first resistance electrode and the second resistance electrode are printed on the back of the ceramic substrate and connected with the first discharge electrode and the second discharge electrode through lead wires, respectively.
5. The apparatus of claim 2, wherein an insulating layer is attached to the ozone-inducing electrode side except for the first discharge electrode, the second discharge electrode, the first resistance electrode, and the second resistance electrode.
6. The ozone generator of claim 5, wherein the insulating layer is made of glass glaze or silica or alumina.
7. The apparatus of claim 3, wherein a first discharge electrode and a second discharge electrode are printed on one side of the lower plate of the ceramic substrate, the first discharge electrode is connected to the ozone emitter electrode through a connection hole formed in the lower plate and the upper plate of the ceramic substrate, and the second discharge electrode is connected to the ozone induction electrode through another connection hole formed in the lower plate of the ceramic substrate; the ceramic substrate lower plate surface is printed with a first resistance electrode and a second resistance electrode at the same time, and the first resistance electrode and the second resistance electrode are respectively connected with a first discharge electrode and a second discharge electrode through leads.
8. An anti-condensation and anti-frosting ozone generation device is characterized by comprising a high-voltage power supply, a ceramic substrate upper plate, a ceramic substrate lower plate, emission electrode slurry, induction electrode slurry, a high-voltage discharge electrode, a first resistance electrode, a resistor and a second resistance electrode;
an emission electrode slurry is attached to one surface of the ceramic substrate upper plate to form an ozone emission electrode, and an induction electrode slurry is attached to the back of the ceramic substrate upper plate to form an ozone induction electrode; meanwhile, the high-voltage discharge electrode, the first resistance electrode and the second resistance electrode are printed on the back; the high-voltage discharge electrode is connected with the ozone emission electrode on the surface of the ceramic substrate through a connecting hole, the high-voltage discharge electrode is connected with the first resistance electrode through a lead, and the ozone induction electrode is connected with the second resistance electrode through another lead; the ceramic substrate lower plate is hollowed out and is pressed on the back of the ceramic substrate upper plate, the ozone induction electrode, the high-voltage discharge electrode, the first resistance electrode and the second resistance electrode are clamped in the middle, and the ozone induction electrode is completely or partially exposed; two ends of the resistor are respectively connected with the first resistance electrode and the second resistance electrode;
two electrodes output by the high-voltage power supply are respectively connected with the high-voltage discharge electrode and the ozone induction electrode and are used for generating alternating voltage V1 for exciting ozone to start and alternating voltage V2 for not generating ozone but preheating the ozone slice, wherein V1 is more than V2;
under the action of the alternating voltage V1, setting a current path passing through the high-voltage discharge electrode and the ozone induction electrode as a first path, and setting the ratio of the voltage and the current of the first path as a first resistance value; setting a current path flowing through the first resistance electrode, the resistor, and the second resistance electrode as a second path, and setting a ratio of a voltage to a current of the second path as a second resistance value; the first resistance value is higher than the second resistance value.
9. The apparatus according to claim 2, 3 or 8, wherein a microporous water-and gas-permeable membrane is attached to the ozone emitting electrode side of the ozone sheet.
10. The apparatus of claim 9, wherein the microporous, water and gas impermeable membrane is microporous alumina and the water and gas impermeable membrane covers at least the ozone emitter electrode.
11. The anti-condensation and anti-frost ozone generator of claim 1 or 8 wherein the resistor is a chip resistor.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202220680903.9U CN218115021U (en) | 2022-03-27 | 2022-03-27 | Anti-condensation and anti-frosting ozone generation device |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202220680903.9U CN218115021U (en) | 2022-03-27 | 2022-03-27 | Anti-condensation and anti-frosting ozone generation device |
Publications (1)
| Publication Number | Publication Date |
|---|---|
| CN218115021U true CN218115021U (en) | 2022-12-23 |
Family
ID=84493341
Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN202220680903.9U Active CN218115021U (en) | 2022-03-27 | 2022-03-27 | Anti-condensation and anti-frosting ozone generation device |
Country Status (1)
| Country | Link |
|---|---|
| CN (1) | CN218115021U (en) |
Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN114940481A (en) * | 2022-03-27 | 2022-08-26 | 中国船舶重工集团公司第七一八研究所 | Anti-condensation and anti-frosting ozone generation device |
-
2022
- 2022-03-27 CN CN202220680903.9U patent/CN218115021U/en active Active
Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN114940481A (en) * | 2022-03-27 | 2022-08-26 | 中国船舶重工集团公司第七一八研究所 | Anti-condensation and anti-frosting ozone generation device |
Similar Documents
| Publication | Publication Date | Title |
|---|---|---|
| CN218115021U (en) | Anti-condensation and anti-frosting ozone generation device | |
| KR100749886B1 (en) | Heating element using Carbon Nano tube | |
| KR101103453B1 (en) | Heating apparatus and method for making the same | |
| JPH03167461A (en) | Gas detecting sensor | |
| KR20070088983A (en) | Manufacturing method for ceramic heater and its ceramic heater | |
| CN109600867A (en) | A kind of ceramic heating element and the device including the ceramic heating element | |
| CN107548174A (en) | A kind of vehicle thermoregulator ceramic heating element and preparation method thereof | |
| US4626337A (en) | Oxygen sensor | |
| JPH05174852A (en) | Conductive connecting material for solid electrolyte fuel cell | |
| CN114940481A (en) | Anti-condensation and anti-frosting ozone generation device | |
| JPS5620929A (en) | Glow plug heating element and its manufacture | |
| JP2971167B2 (en) | Ceramic heater | |
| EP0177795A1 (en) | Apparatus for sensing oxygen concentration | |
| JP2007248223A (en) | Gas sensor and manufacturing method therefor | |
| JPH11101426A (en) | Combustion apparatus for gas containing combustible constituent | |
| US1032914A (en) | Vapor electric apparatus. | |
| CN111307910B (en) | Switch type zirconium-based oxygen core | |
| JPS61241658A (en) | Oxygen sensor element and its production | |
| JP2004342622A (en) | Ceramic heater | |
| JPH11116209A (en) | Corona discharge element | |
| JPH11326072A (en) | Temperature sensor element and temperature sensor with it | |
| JPH0350397B2 (en) | ||
| US4778376A (en) | Gas ignition | |
| CN107342202B (en) | A kind of manufacture craft of vacuum fluorescent display screen | |
| US1096142A (en) | Ethereal-wave-responsive device. |
Legal Events
| Date | Code | Title | Description |
|---|---|---|---|
| GR01 | Patent grant | ||
| GR01 | Patent grant |