专利摘要:
Liquid separator provided with a housing (2) consisting of an at least partially cylindrical wall (3) defining a separation space (4) closed at one end (5) by means of a bottom (6) and at the other end ( 7) by means of a cover (8) in which there is a gas outlet (14) for discharging the treated gas, wherein a shield (13) is provided in the above-mentioned separation space (4) which is located around the above-mentioned gas outlet (14) extending into said separation space (4) from said cover (8), wherein the liquid separator (1) is provided with an inlet (15) for a liquid-gas mixture to be treated, characterized in that the inlet (15) is located in said cover (8), so that the liquid-gas mixture ends up tangentially in the separation space (4) in the space (28) between said wall (3) and the shield (13).
公开号:BE1024631B1
申请号:E2016/5762
申请日:2016-10-11
公开日:2018-05-14
发明作者:Yáñez Pablo Manuel Fraguela;Viktor Maurits Ingrid Vriens;Elisabeth Anika Simonne Rabaey;Karen Anna Leon Mariën;Tom André Jenny Potters
申请人:Atlas Copco Airpower Naamloze Vennootschap;
IPC主号:
专利说明:

(30) Priority data:
(73) Holder (s):
ATLAS COPCO AIRPOWER public limited company
2610, WILRIJK
Belgium (72) Inventor (s):
FRAGUELA YÂNEZ Pablo Manuel
2610 WILRIJK
Belgium
FRIENDS Viktor Maurits Ingrid
2610 WILRIJK
Belgium
RABAEY Elisabeth Anika Simonne
2610 WILRIJK
Belgium
MARIES Karen Anna Leon
2610 WILRIJK
Belgium
POTTERS Tom André Jenny
2610 WILRIJK
Belgium (54) Liquid separator (57) Liquid separator provided with a housing (2) consisting of an at least partially cylindrical wall (3) delimiting a partition (4) which is closed at one end (5) by means of a bottom ( 6) and at the other end (7) by means of a cover (8) in which there is a gas outlet (14) for the discharge of the treated gas, wherein in the above-mentioned separation space (4) a shield (13) is provided which around the said gas outlet (14) extends into said separation space (4) from said lid (8), the liquid separator (1) being provided with an inlet (15) for a liquid-gas mixture to be treated, characterized in that the inlet (15) is located in the aforementioned cover (8), so that the liquid-gas mixture enters tangentially in the separation space (4) in the space (28) between the aforementioned wall (3) and the shield (13).

BELGIAN INVENTION PATENT
FPS Economy, K.M.O., Self-employed & Energy
Intellectual Property Office
Publication number: 1024631 Filing number: BE2016 / 5762
International classification: B01D 45/16 Date of issue: 14/05/2018
The Minister of Economy,
Having regard to the Paris Convention of 20 March 1883 for the Protection of Industrial Property;
Having regard to the Law of March 28, 1984 on inventive patents, Article 22, for patent applications filed before September 22, 2014;
Having regard to Title 1 Invention Patents of Book XI of the Economic Law Code, Article XI.24, for patent applications filed from September 22, 2014;
Having regard to the Royal Decree of 2 December 1986 on the filing, granting and maintenance of inventive patents, Article 28;
In view of the application for an invention patent received by the Intellectual Property Office on 11/10/2016.
Whereas for patent applications that fall within the scope of Title 1, Book XI, of the Code of Economic Law (hereinafter WER), in accordance with Article XI.19, § 4, second paragraph, of the WER, the granted patent will be limited. to the patent claims for which the novelty search report was prepared, when the patent application is the subject of a novelty search report indicating a lack of unity of invention as referred to in paragraph 1, and when the applicant does not limit his filing and does not file a divisional application in accordance with the search report.
Decision:
Article 1
ATLAS COPCO AIRPOWER public limited company, Boomsesteenweg 957, 2610 WILRIJK Belgium;
represented by
VAN VARENBERG Patrick, Arenbergstraat 13, 2000, ANTWERP;
a Belgian invention patent with a term of 20 years, subject to payment of the annual fees as referred to in Article XI.48, § 1 of the Code of Economic Law, for: Liquid separator.
INVENTOR (S):
FRAGUELA YÀNEZ Pablo Manuel, c / o Atlas Copco Airpower N.V. Boomsesteenweg 957, 2610, WILRIJK;
FRIENDS Viktor Maurits Ingrid, c / o Atlas Copco Airpower N.V. Boomsesteenweg 957, 2610, WILRIJK;
RABAEY Elisabeth Anika Simonne, c / o Atlas Copco Airpower N.V. Boomsesteenweg 957, 2610, WILRIJK;
MARIA Karen Anna Leon, c / o Atlas Copco Airpower N.V. Boomsesteenweg 957, 2610, WILRIJK;
POTTERS Tom André Jenny, c / o Atlas Copco Airpower N.V. Boomsesteenweg 957, 2610, WILRIJK;
PRIORITY:
BREAKDOWN:
Split from basic application: Filing date of the basic application:
Article 2. - This patent is granted without prior investigation into the patentability of the invention, without warranty of the Merit of the invention, nor of the accuracy of its description and at the risk of the applicant (s).
Brussels, 14/05/2018,
With special authorization:
B E2016 / 5762
Liquid separator.
The present invention relates to a liquid separator.
More specifically, the invention is intended for separating liquid, such as, for example, water, from compressed gas from a compressor.
Oil-injected compressors are already known, with oil being injected into the rotor chamber for lubrication, sealing and cooling. As a result, the compressed air will contain oil.
For the pharmaceutical industry, paint industry and in food-related and electronics applications, however, it is necessary to be able to supply oil-free compressed air.
Therefore, filters are provided after the compressor element, in order to filter the oil from the air.
However, these filters will never extract all the oil from the air, so this air cannot be used in critical or very demanding applications in the aforementioned sectors, since even the smallest amount of oil in pharmaceuticals, paint, electronics or food makes the products in question useless and they must all be destroyed.
B E2016 / 5762
In addition, it poses a risk of failure of these filters, causing oil to spill into the air and, consequently, to the applications or devices using this air with all its adverse consequences.
There are also oil-free compressors where no oil is injected so that 100% oil-free compressed air is obtained. A drawback is that, due to the lack of cooling, the temperature of the gas rises very high, so that extra cooling must be provided.
Water-injected compressors are also known, in which water is injected into the compressor element for its cooling, lubrication and sealing.
These have the advantage that there is no risk of oil pollution in applications in, for example, the pharmaceutical, electronics, paint or food sector.
In order to be able to remove the water from the compressed air, a so-called liquid separator is used, which is provided with a housing consisting of an at least partially cylindrical wall that delimits a separation space that is closed at one end by means of a bottom and at the other end by means of a cover in which there is a gas outlet for the discharge of the treated gas, wherein a shield is provided in the above-mentioned separation space, which extends around the above-mentioned gas outlet in the said separation space from the above-mentioned cover.
B E2016 / 5762
The liquid separator housing is further provided with a tangentially placed inlet for a liquid-gas mixture to be treated, which can be connected to the outlet of the compressor element.
In such known liquid separators, which are also referred to as centrifugal separators and which are used, for example, for separating oil or water from compressed air, the liquid-gas mixture will be purified by the fact that the heavier liquid particles present are driven or flung against the walls of the housing by the center fugal forces caused by the cyclonic flow path of the mixture created by the tangentially positioned inlet in the cylindrical wall of the housing.
The shield will prevent the mixture from leaving the separation space directly through the outlet without passing through the cyclone flow path.
However, to avoid problems with rust and the like, the water separator is often made of stainless steel or stainless steel, which makes the water separator and thus the compressor very expensive and heavy.
For this reason, there is often still an industry in favor of the cheaper and lighter solution of an oil-injected compressor, with the risk of oil pollution of the compressed air.
B E2016 / 5762
The present invention aims to overcome at least one of the above and other disadvantages, by providing an inexpensive and light liquid separator that can be used in water-injected compressors to make it possible to generate oil-free compressed air with a cheaper machine.
It is clear that a liquid separator according to the invention can also be used in other machines.
The present invention has an object liquid separator which is provided with a housing consisting of an at least partially cylindrical wall defining a separation space which is closed at one end by means of a bottom and at the other end by means of a lid in which a gas outlet is located for the discharge of the treated gas, wherein in the said separation space a shield is provided which extends around the said gas outlet in the said separation space from the aforementioned lid, the liquid separator being provided with an inlet for a liquid-gas mixture to be treated the inlet being located in said lid, so that the liquid-gas mixture tangentially enters the separation space in the space between said wall and shield.
An advantage is that by providing the inlet in the lid, it is no longer necessary to insert the inlet in the wall
B E2016 / 5762 with the housing, what. is detrimental to the strength of this wall.
This opens up the possibility of using materials other than stainless steel for the housing, without the risk of a tangentially placed inlet in the wall weakening the housing.
Another advantage is that by realizing the inlet in such a way that the liquid-gas mixture ends up tangentially in the separation space, in the space between the wall and the shield, the liquid-gas mixture will run a cyclonic path around the shield, along the wall .
As a result, the separation or separation of the present liquid particles or liquid drops will be done efficiently by depositing them on the wall.
In the most preferred embodiment, the wall of the housing is built up from a housing, a composite being arranged or wound around this housing.
This has the advantage that the weight of the liquid separator can be drastically reduced.
By providing the inlet in the lid, no passage will have to be made in the composite to realize such an inlet, so that the strength of the composite remains guaranteed.
B E2016 / 5762
Another advantage is that by using the housing where the composite is wrapped around, a smooth inner wall can be provided, so that the deposited water particles against this wall can smoothly sink to the bottom of the liquid separator for separation via a drain for separated liquid.
In addition, this housing can also ensure the gas tightness of the housing.
In a practical embodiment, the inlet is designed as a channel in and through the lid, where preferably the cross-section of the channel, viewed in the direction of flow of the liquid-gas mixture, gradually changes from mainly circular to D-shaped and then transitions to C-shaped, with the opening of the C-shape facing the housing and the channel bent at least at the location of the C-shaped cross section and following the shape of the housing.
This has the advantage that the circular inlet makes it easy to connect the outlet of a compressor or other supply line of a liquid-gas mixture.
The curved shape of the channel will ensure that the liquid-gas mixture will enter the separation space according to a cyclonic flow path, so that the cyclone separation can proceed optimally. The liquid-gas mixture will hereby be ejected, as it were, against the housing.
B Ε 2016/5762
In addition, the C-shape at the end of the channel will ensure that the liquid particles of the liquid-gas mixture can already hit the wall at the start of entering the separation space and can be separated.
After all, as soon as liquid particles have hit the wall, they will be able to sink down to the bottom of the liquid separator in order to be separated via a discharge for separated liquid.
Liquid particles deposited against the walls of the channel, on the other hand, will be entrained from the channel by the flow of the liquid-gas mixture and thus return to the mixture.
With the insight to better demonstrate the features of the invention, some preferred Variants of a liquid separator according to the invention are described below, by way of example without any limitation, with reference to the accompanying drawings, in which:
figure 1 schematically represents a liquid separator according to the invention;
figure 2 represents a vertical section of the liquid separator of figure 1;
figures 3 and 4 schematically represent the bottom of the liquid separator of figures 1 and 2;
B E2016 / 5762 figures 5 to 8 schematically show different views and a cross section of the cover of the liquid separator of figures 1 and 2.
The liquid separator 1 according to the invention, schematically shown in Figures 1 and 2, mainly comprises a housing 2 consisting of an at least partly cylindrical wall 3 which delimits a separating space 4 which is closed at one end, the underside 5, by means of a bottom 6 and at the other end, the top 7, by means of a lid 8.
As can be seen in figure 2, in the shown example the wall 3 of the housing 2 is built up from a sleeve 9, wherein a composite 10 is arranged or wound around this sleeve.
The sleeve 9 is constructed from a plastic or polymer such as, for example, HDPE, yet it is not excluded that another material is used.
The composite 10 is composed of glass fiber, aramid or carbon fiber in a matrix of epoxy resin or the like.
In this case, both the bottom 6 and the lid 8 are made of anodized aluminum. That material is cheaper and lighter than, for example, stainless steel.
In order to ensure a good sealing, seals 11 are provided between the bottom 6 and the cover 8 on the one hand and the sleeve 9 on the other.
B E2016 / 5762
This is shown in figure 2, in which in this embodiment an O-ring is used as seal 11, yet it is not excluded that another type of seal 11 is used. Figure 3 shows that this Ciring is provided in the bottom 6 in a groove 12 provided for this purpose.
In the aforementioned separating space 4, a shield 13 is provided, which extends from the aforementioned lid 8 and around a gas outlet 14 for treated gas which is provided in this lid 8.
The shield 13 in this case is designed as a tube and in this case is made of HDPE.
The aforementioned gas outlet 14 in this case, but not necessarily, is arranged centrally in the lid 8.
According to the invention, the lid 8 is also provided with an inlet 15 for a liquid-gas mixture to be treated.
A drain 16 is also provided for separated liquid which is arranged at the bottom 5 in the bottom 6, as visible in figures 3 and 4. It is not excluded that this drain 16 is arranged in the wall 3 of the housing 2 near the bottom 6.
The bottom 6 is provided with means 17 for fixing the liquid separator 1 to a surface or machine. In this case, these are supports or legs, but
B E2016 / 5762 it is clear that these means 17 can be implemented in different ways.
Furthermore, a demister 18 or droplet separator 18 is arranged in the housing 2, which often consists of a spongy and / or maize material. This drop separator 18 is arranged at the bottom 5 in the housing 2.
The housing 2 is also provided with means 19 for determining the level of the liquid in the housing 2.
In the example shown, these means 19 are designed in the form of a sensor located centrally in the housing 2.
However, it is not excluded that the sensor is placed on or against the inner wall 20 of the sleeve 9, for example.
Figures 5 to 8 show the lid 8 in more detail. This cover 8 is placed on the top 7 of the cylindrical wall 2, opposite the bottom 6.
The inlet 15 is designed as a channel 21 in and through the lid 8. The channel 21 will guide the liquid-gas mixture to be treated to and into the separation space 4.
The channel 21 in this case is curved according to an opening spiral viewed in the direction of flow of the liquid-gas mixture.
BE2016 / 5762
In this way, the liquid-gas mixture will enter the separation space 4 in a cyclone or vortex-shaped flow path, so that the cyclone separation against the inner wall of the sleeve 9 can proceed optimally.
As can be seen in figure 5, a part of the channel, as it were, rests on or against the cover 8 as a conduit or tube. However, it is also possible that the cover 8 is made thicker and that the channel. 21 in the cover 8 is worked out.
Also, the shape of the cross-section of the channel 21 is muted along the length of the channel 21.
In this case, this cross section, viewed in the flow direction of the liquid-gas mixture through the channel 21, will gradually change from substantially circular (Figure 6) to D-shaped (Figure 8) and then transition to C-shaped (Figures 6 and 7).
The circular inlet 22 of the channel 21 will make connection to a pipe from, for example, a compressor easy to realize.
C-shaped here means that the channel will be open on one side. This means that the straight side 23 of the D-shape will open at a certain place, i.e. the straight side 23 is omitted, so that an open and C-shaped cross section is obtained.
B E2016 / 5762
The C-shaped cross-section at the outlet 24 of the channel 21 will be oriented such that the opening of the C-shape is directed towards the housing 9, the channel 21 being bent or curved at the location of the C-shaped cross-section and the shape of the housing 2 or the inner wall 20 of the housing 9.
Although in the example shown, the channel 21 is curved along its full length, it is possible that the channel is curved only at the location of the C-shaped cross-section.
In the example shown, the channel 21 has a C-shaped cross-section from the moment it is located in the separation space 4, that is, from the moment that a separation of the liquid-gas mixture can take place by depositing liquid particles against the inner wall 20. of the house 9.
Figures 5 to 7 clearly show that one end of the channel, ie the outlet 24, is located on the side of the lid 8 which faces the separating space 4 and that the other end of the channel, ie the entrance 22 is located on the side of the lid 8 which faces away from the separating space 4. In other words, neither the entrance 22 nor the exit 24 are sideways.
As a result, the periphery 25 of the cover 8 is free from any passageways.
B E2016 / 5762
This will have advantageous consequences in the manufacture of a liquid separator 1 according to the invention.
After all, it is then possible to apply the composite 10 at least partly over or around the cover 8. This is shown in Figure 2.
By arranging the possible drain 16 in the bottom 6 at an appropriate location, the periphery 26 of the bottom 6 will also be free of any passages, so that the composite 10 can also be applied over or around the bottom 6.
This will ensure that the bottom 6, the lid 8 and the housing 9 can be held together by the composite 10 to form the housing 2 without closing or blocking the inlet 15 or the outlet 16.
Moreover will it composite 10 to be firmness preserve since none passages in it composite 10 made should turn into.
As shown in figures 3 until 7, there are in the edge 25, 2 6 of it lid 8 and the bottom 6 one or Lake
surface irregularities 27 applied.
In this case these are local recesses 27 in which the composite 10 is arranged, but it is also possible that these are local protuberances over which the composite 10 is applied.
B E2016 / 5762
This makes it possible to realize a rotatable connection between the composite 10 and the cover 8 and the bottom 6,
The composite 10 provided in the local recesses 27 will stop or prevent rotation of the cover 8 and the bottom 6 relative to the composite 10 and the housing 9.
In the example shown, six recesses 27 are provided along the periphery 25, 26 of the lid 8 and the bottom 6, but it is clear that the invention is not limited to this. In principle, one recess 27 would be sufficient, but the number is freely selectable.
It is of course also possible that only the cover 8 or only the bottom 6 is provided with one or more surface irregularities 27.
If the bottom 6 or cover 8 are free from surface irregularities 27, it is possible that they are still rotatable relative to the housing 9 and the composite 10. This rotatability can be used to install a liquid separator 1, a enable final adjustment so that, for example, all pipes can be easily and smoothly connected to the liquid separator 1.
The operation of the liquid separator 1 is very simple and as follows.
B E2016 / 5762
The liquid-gas mixture, which for example concerns a water-air mixture originating from a water-injected compressor element, is introduced at the top 7 of the housing 2 via the inlet 15 into the separation space 4 of the liquid separator 1 into the space 28 between the wall 3 and the shield 13. Hereby the mixture will flow through the channel 21.
The liquid-gas mixture flows through this space 28 from top to bottom, ie from the lid to the bottom, the liquid-gas mixture following the cylindrical wall 3 of the housing 2, because the channel 21 is bent in such a way that the mixture ends up tangentially in the separating space 4. During this movement, the mixture thus travels a distance several times greater than the circumference of the housing 2.
Due to the centrifugal forces, the heavier liquid particles of the mixture end up against the wall 3 of the housing 2, more specifically against the inner wall 20 of the housing 9, so that these particles then pass along this
inner wall 20 down flow. The liquid it becomes separated is at the bottom the housing 2 collected. When it mixture the underside from the shield 13 it flows around the free end 29 of it
shield 13 and then continue his way up.
B E2016 / 5762
Because the mixture is forced to make a 180 ° bend, the heavier liquid particles will maintain their downward movement due to their inertia. In this way, a second separation phase takes place.
The demister 18 or droplet separator will ensure that the liquid particles are, as it were, trapped in its interior, so that the lightest liquid particles, under the influence of the upward movement of the mixture, are not entrained by the mixture in the direction of the gas outlet 14.
When the mixture continues its way upwards, more than 99% of the water is separated.
It is not excluded that a fine filter has been fitted which extends around the gas outlet 14 in the separation space 4 from the lid 8 and is surrounded by the shield 13, so that the mixture undergoes a third separation via this fine filter. In this way, up to 99.99% of the liquid can be removed from the mixture.
The treated gas relieves the liquid separator 1 via the gas outlet 14 in the cover 8.
The gas can then be used in a downstream application, for example in the case of compressed air for compressed air applications.
The wording bottom 6, lid 8, top 7, bottom 5 and bottom have always been used in this
B E2016 / 5762 the light of the attached figures 1 and 2. Nevertheless, it goes without saying that the liquid separator 1 according to the invention does not necessarily have to be arranged completely vertically, as shown in the figures, but that it can also be arranged in other positions employed.
The present invention is by no means limited to the embodiments described as shown in the foregoing and shown in the figures, but such a liquid separator can be made in various shapes and sizes without departing from the scope of the invention.
B E2016 / 5762
权利要求:
Claims (19)
[1]
Conclusions.
1.- Liquid separator provided with a housing (2) consisting of an at least partially cylindrical wall (3) delimiting a partition (4} which is closed at one end (5) by means of a bottom (6) and at the other end (7) by means of a cover (8) in which there is a gas outlet (14) for the discharge of the treated gas, wherein in the aforesaid separation space (4) a shield (13) is provided which surrounds the aforementioned gas outlet (14) extending into said separating space (4) from said lid (8), the liquid separator (1) having an inlet (15) for a liquid-gas mixture to be treated, characterized in that the inlet (15) located in the aforementioned cover (8), so that the liquid-gas mixture tangentially enters the separation space (4) in the space (28) between the aforementioned wall (3) and the shield (13).
[2]
Liquid separator according to claim 1, characterized in that the wall (3) of the housing is composed of a sleeve (9), a composite (10) being arranged or wound around this sleeve (9).
[3]
Liquid separator according to claim 2, characterized in that said composite (10) is composed of glass fiber, aramid or carbon fiber in a matrix of epoxy resin or the like and / or that the sleeve (9) is constructed of a plastic or polymer such as HDPE .
B E2016 / 5762
[4]
Liquid separator according to claim 2 or 3, characterized in that the composite (10) is arranged at least partly over or around the said lid (8) and bottom (6).
[5]
Liquid separator according to claim 4, characterized in that one or more surface irregularities (27) in or over which the composite (10) is arranged in the edge (25, 26) of the cover (8) and / or the bottom (6). is arranged to provide a rotatable connection between the composite (10) and the cover (8) and / or the bottom (6).
[6]
Liquid separator according to any one of the preceding claims 2 to 5, characterized in that seals (11) are provided between the bottom (6) and the cover (8) and the housing (9).
[7]
Liquid separator according to claim 6, characterized in that the above-mentioned seals (11) are an O-ring,
[8]
Liquid separator according to one of the preceding claims, characterized in that the bottom (6) and / or the lid (8) are made of anodised aluminum.
[9]
Liquid separator according to one of the preceding claims, characterized in that the inlet (15) is designed as a channel (21) in and through the cover (8).
B E2016 / 5762
[10]
Liquid separator according to claim 9, characterized in that the cross-section of the channel (21), viewed in the flow direction of the liquid-gas mixture, gradually changes from mainly circular to D-shaped and then changes to C-shaped, wherein the opening of the C-shape is directed towards the housing (9) and wherein the channel (21) is bent at least at the location of the C-shaped cross section and forms the shape of the housing (2).
[11]
Liquid separator according to claim 9 or 10, characterized in that the channel (21) is bent according to an opening spiral viewed in the flow direction of the liquid-gas mixture.
[12]
Liquid separator according to any one of the preceding claims 9 to 11, characterized in that one end (24) of the channel (21) is on the side of the cover (8) facing the separating space (4) and that the other end (22) of the channel (21) is on the side of the lid (8) facing away from the separation space (4).
[13]
Liquid separator according to any one of the preceding claims, characterized in that the gas outlet (14) is placed centrally in the lid (8).
[14]
Liquid separator according to one of the preceding claims, characterized in that means (19) are provided for determining the level of the liquid in the housing (2).
B E2016 / 5762
[15]
Liquid separator according to claim 14, characterized in that the above-mentioned means (19) are in the form of a sensor centrally located in the housing
5 (2) or is placed on the inner wall (20) of the housing (2).
[16]
Liquid separator according to one of the preceding claims, characterized in that in the housing (2) a
10 demister (18) or droplet separator is fitted.
[17]
Liquid separator according to one of the preceding claims, characterized in that the liquid separator (1) has a discharge (16) for separating
Liquid placed in the bottom (6) or in the wall (3) of the housing (2) near the bottom (6).
[18]
Liquid separator according to any one of the preceding claims, characterized in that the bottom (6) is provided
[19]
20 is or can be of supports or legs or of means (17) for fixing the liquid separator (1) to a surface or machine.
BE2016 / 5762 /
/
BE2016 / 5762
B E2016 / 5762 β

E & 4
B E2016 / 5762
B E2016 / 5762
B E2016 / 5762
Liquid separator.
Liquid separator provided with a housing (2) consisting of an at least partially cylindrical wall (3) delimiting a separation space (4) which is closed at one end (5) by means of a bottom (6) and at the other end ( 7) by means of a cover (8) in which there is a gas outlet (14) for the discharge of the treated gas, wherein in the said separation space (4) a shield (13) is provided which surrounds the aforementioned gas outlet (14) extending into said separating space (4) from said lid (8), the liquid separator (1) being provided with an inlet (15) for a liquid-gas mixture to be treated, characterized in that the inlet (15) is located in said lid (8), so that the liquid-gas mixture tangentially enters the separation space (4) in the space (28) between said wall (3) and the shield (13).
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引用文献:
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法律状态:
2018-06-28| FG| Patent granted|Effective date: 20180514 |
优先权:
申请号 | 申请日 | 专利标题
BE20165762A|BE1024631B9|2016-10-11|2016-10-11|Liquid separator|BE20165762A| BE1024631B9|2016-10-11|2016-10-11|Liquid separator|
EP17797182.7A| EP3525909B1|2016-10-11|2017-10-09|Liquid separator|
ES17797182T| ES2858427T3|2016-10-11|2017-10-09|Liquid separator|
RU2019113889A| RU2727494C1|2016-10-11|2017-10-09|Liquid separator|
CA3037120A| CA3037120C|2016-10-11|2017-10-09|Separator for liquid-gas mixture incorporating a sleeve|
KR1020197012754A| KR102245521B1|2016-10-11|2017-10-09|Liquid separator|
BR112019006944A| BR112019006944A2|2016-10-11|2017-10-09|liquid separator|
PCT/IB2017/056219| WO2018069812A1|2016-10-11|2017-10-09|Liquid separator|
US16/336,948| US11130085B2|2016-10-11|2017-10-09|Liquid separator|
CN201780062825.8A| CN109803741B|2016-10-11|2017-10-09|Liquid separator|
TW108113431A| TW201929939A|2016-10-11|2017-10-11|Liquid separator|
TW106134663A| TWI670109B|2016-10-11|2017-10-11|Liquid separator|
CN201721309285.2U| CN207462834U|2016-10-11|2017-10-11|Liquid separator|
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