HU229850B1 - Rotary piston pump for uniform flow - Google Patents

Abstract

The invention relates to a medium transmission unit with circulation blades for the realizations of even medium transmission which has a medium transmission space. The characteristic of the solution is that there is an equalizations space established in the internal space of the house which is periodically connected to the medium transmission space through passage openings, where at least some of the sealing pieces of the control body are arranged In the equalizations space in such a way so that they cannot move, furthermore the number of propulsion elements positioned on a transmission body is at least two, the propulsion elements are coincident, the part of space through which the propulsion elements pass has a rotational body ring shape, and the propulsion elements are of a size and shape adapted to the size and shape of the cross-section of the medium transmission space, they have the geometric shape that fills in the cross-section of the medium transmission space.

Description

BACKGROUND OF THE INVENTION The present invention relates to a rotary blade fluid transfer unit for delivering a fluid fluid that encapsulates a housing enclosing a fluid transfer space and an interior space comprising an inlet and outlet in communication with the fluid transfer space, and a body and a control body assigned to the conveying body by means of a movement co-ordinating assembly, wherein the control body has one or more closures extending into the interior of the housing and the conveying body and the control body being movably inserted in the housing.

A feature of the solution is that in the interior space (20) of the housing (10) a compensating space (26) is provided in a periodic connection with the passages (24, 25) through the fluid transfer space (23), where At least a portion of the sliding elements (31, 32) on a conveying body (30) are at least two, the sliding elements (31, 32) coinciding with each other, the sliding elements (31, 32) ), the slider members (31, 32) have a geometric shape and a shape that fits in with the cross-section of the fluid delivery space (23) and is adapted to the cross-sectional dimension and shape of the fluid transport space (23).

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Moving-coordinating portions of an enclosure enclosing an interior space communicating with a salvage space, as well as fluid housing members and an old body for moving the control body into the interior of the housing and the control body are long known for compressing solid gases.

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W ^va S>'^ oo closing iron is inserted into the housing.

as well as medium

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such a solution is disclosed, inter alia, in FB WD12 patent application. In essence, the housing of the device comprises two working spaces that are coordinated with one another and are designed to have an effective volume of fluid transported.

However, due to the necessity of operation, as the piston moves, as shown in Figure 3 of the description, the two cylindrical volumes and the intermediate working space are in a given period, a recapitulation coefficient, i.e. a fully permeable octagonal space, is created. As a result, the structure is significant. the disadvantage is that it is not suitable for continuous volume filtration.

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Known solutions may be distressing, but at least eat;

and the transmission channels are partially constant Ιδη losses

I move very accurate date

crying. It is the b abundance that comes from it

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of

Your job was to create a tool that would last for a single stone and last a lifetime at the right time for your breasts

doing a constant amount at all times, so the task can be solved.

Suitable for the cooked purpose, the spheroidal paddle unit according to the present invention is a uniform fluid spreader meavalosfasam, which comprises a casing enclosing a central opening enclosing a space between the opening and the opening including the opening and the opening. , and carrying a conveying body carrying them, something to the conveying body;

painted

ohan is inserted in the house - openings in the ode so wide

Some of the remaining items are parts of the body

they are each other ga, the sliders are pes s adjustable in size and shape, a

and a rotary vane handpiece body according to the invention arranged on the other side of the divider.

In another version of the circulating blade conveyor assembly, more than one conveying body is provided and the conveying bodies are sewn to the same control body. It has more than one regulating body and the regulating bodies have the same

It may be advantageous for the invention if it is located on a single regulating body on a single closure or if the number of closures on a single regulating body is at least two.

In another embodiment of the circulating fluid delivery unit, the number of bean members on the conveyor body and the number of closures on the control body are the same.

again, the body part of the body is in the shape of an article of a rotary body or a rotary body.

The auger is an additional protruding body. &

and radius za

in part of the transmitter, the stonewall measured from the axis of rotation of the regulating body blurs between the equalizing space at least a portion of the radius of the radius of its two horseshoes at least in a portion of the zance fittings.

the outer boundary surface of the sliding elements

the inner boundary surface of the removable body on the regulating body

the meenaa conveying body and / or the track tracking element of at least Periodically contacted with the regulating body the surface of the pk electromagnet members and the surface of its forced path.

the most important advantage of the experience-based nail conveyor unit is that due to its easy-to-use, locking-in connecting space and its usual conveying body and regulating body, despite its simpler and cost-effective structural elements,

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it can also be classified to make its surfaces wider

> structural elements involved in space, since the sealing

and the unit is operating at a favorable rate, which can also improve it. From this

units are hereinafter exemplified

Figure 1 is a perspective view of a possible embodiment of the fluid transfer unit of the present invention, with the middle view of Figure 1 in the mud image of Figure 1, an embodiment of the body for conveying the beverage unit; ne3, <.

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Figure 4 is a perspective view of an embodiment of a housing of a fluid conveyor assembly of Figure L,

Figure 5 is a schematic view of Figure 1 of his. Figure 1 is a cross-sectional view of an embodiment of the second housing of the serimation unit, the conveying body and the embodiment. FIG. 1 is a sectional view of the pile conveyor assembly of FIG. 1, the transfer body, and FIG

Fig. k is a sectional view of another embodiment of a fluid transfer unit according to the invention, showing another embodiment of the fluid transfer unit according to the invention.

engraving cross-sectional engraving

Figure 12 is a circuit according to the invention

Fig. 13 is a perspective view of a version of a stone according to the invention

Figure 14 is a perspective view of another embodiment of the present invention.

Figure 1 shows a variant of the fluid conveyor unit, in which the housing 10 consists of two brake pads. The inside of the housing 10 includes a conveying body 30 with a sliding element 31, a sliding element 32 and an axis 35, and a control body 40 with a closing element 41, a closing element 42 and an axis 45. The axis 35 of the conveying body 30 exits the interior space 20 of the housing 10 at one of the shaft openings 12 of one half of the housing 10, while the axis 45 of the regulating body 40 passes through the other axis 13 of the same half of the housing 10. The axes 35 and 45 extending from the housing 10 are connected to one another by means of the motion-sensing assembly 50 and also to a drive unit (not shown) which may be e.g. electric motor. The motion alignment assembly 50 is, in this embodiment, attached to the shaft 35. The drive wheel 51 is the byte wheel 53 fixed to the shaft 45 and the movement of the bit body and the control body 48 between the drive wheel 51 and the driven wheel is not only properly divisible.

all in the direction of rotation,

Inside the interior 20 of the house 18, the space 11 is provided with a fluid transfer space 23, while the other space is filled. The interior 28 is the medium 18 and the interior 20 the L

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a balancing area 26 of the interior 28 of the interior 28 on one side of the 1 Id _; not visible at ~ 22 exits.

illustrates a variation of a toothed body having a barrel-shaped slider 31 and a slider 32. The pusher element has a cylindrical outer boundary surface 3'a and a cylindrical outer boundary surface 3lb. It is to be understood that both the outer boundary surface 32a and the inner boundary surface 32b of the sliding member 32 are cylindrical in shape, the sliding member 31 and the sliding member 32 being otherwise coincident and the shaft 35 being disposed on the conveying body 38.

Turning now to Figure 3, the controller 48 looks like the one shown in Figure 2! body co-operative - can be seen, it can be seen that it also has a circular base, which has two pieces 41 and 42

The outer boundary surface 41a and the outer boundary surface 42a of the closure 42 also have a cylindrical shell. The closure 41 and the closure 42 are symmetrically aligned with the rotation axis 44 of the regulating body 40 on the regulating body 40. The regulating body 48 also has a transmitter 45

Figure 4 and Figure 5 show one side and one half of the two halves 18 of Figure 1, respectively. As can be seen, the interior 28 in the house 10 consists of a major portion. The entire interior 28 includes the inlet 21, the outlet 22, the fluid transfer space 23, the compensating space 2o, and the passage opening 24 and the passage opening 25 connecting the fluid transfer space 23 to the equalizing space 2. The fluid conveyor 23 accommodates a circumferential kneading piece extending from the inlet nozzle 21a of the inlet nozzle 21 to the outlet edge 22a of the outlet 22, the outer peripheral portion 23a of which is a circular cylindrical piece.

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The outer edge 42b of the regulator body 40 is measured 41

the 40th

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vau mass space and balancing space 26, respectively, whereby the center angle 30 of the slide element 31 and the proximal outer edge 3e and the peripheral edge 32e of the proximal 32 and 32e is at most equal; The inlet 21a in the vicinity of the inlet 21 and the outlet 22a of the outermost boundary portion 23a of the outer conveying space 23a have a maximum central angle m 'from the pivot 34 of the conveying body 30.

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Α Fig. 7 Desired Closure of 23 I - Present

and a corresponding arrangement for the proper closure of the compensation space 2 and the compensation space 2. The passageway opening 24 and the passageway opening 25 may be implemented in an edge shape, even if the outer member 41a of the outer member 41a is "o" from the axis of rotation 44 of the regulating paint 4a, such as passageway aperture 25a between the &apos; angle of the &apos;

The operation of the fluid transfer unit shown in FIGS. 1-7 is as follows: After the bit unit has been activated, the motion coordinating sub-unit S0 rotates the axis 35 and axis 45 in this configuration, resulting in the transfer body 3 and the regulator 40. body 30 begins to rotate. As the conveying paint 30 rotates, the slider .31 and the slider 32 rotate through the axis of rotation 34 to suck in the inner space 20 from the inner space 20 into the inner space 20 through the opening. ie, and the scavenging medium into the inlet opening space of the biz biz 10, The inlet 21 requests the passage opening 24 and the passage 25

Ancient, • Medium, you can medium!

The operation of the body 30 on the transfer body 30 is described in more detail. As the rotary conveyor 30 rotates around the heating element 31 of the housing 35 and passes through the inlet flange 21a, it passes the path of the fluid to be conveyed in the fluid conveying space 23 of the inner space 2 so that it is retracted. during the period, the closing body 41 of the regulating body 40 may:

closed between the fluid transfer space 23 and the equalization space 2 so that no recirculation can occur from the outlet opening. As the slide element 31 is rotated, the slide element 32 already in the fluid transfer space approaches the exit edges 22a of the fluid transfer space 23 and reaches thereby exiting the fluid transfer space 23, opening the end of the fluid transfer space 23 towards the outlet 22. Through this opening, the fluid to be conveyed between the pusher 32 and the pusher 31 may escape from the bilge conveying space 23 and leave the inner space 2o through the outlet nozzle at the outlet of the tea cup.

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Í The passage 32 of the pusher element reaches the passageway opening 25 and enters it, essentially closing it. It will be appreciated here that, for proper operation, the passage opening 25 of the interior 29 is slightly larger than the size of the slider 32 - and, of course, the sliding member 31 which coincides with it. When the slider 32 enters the passage opening 25, it slides over the side of the opening 25 from the compensating space 26 as the closing member 41 is rotated. thus allowing the slider 32 to pass through the passage opening 25, so as to advance the fluid passing through the passageway 23, and the medium pressed by the slider 31 after the passage 25 or the closure 41 or only the heater 22 can flow out by the slider 32 being closed. When slider 32 enters step 26

passageway The space between the passageway 21 and the outlet passageway 21 is not able to pass through the space between the passageway 24 to the equilibrium space 26 and the outlet 22. orally, the shim member 32 "slips" itself into the balancing pond test 26 to close the opening 26 and the opening 24 to the fluid 23 so as to exit the opening 26 through the opening 26. The sliding element 32 thus has a volume corresponding to its volume through the aperture 25 and into the fluid conveyor 23 of the interior space 20 at this point. '' '?

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g and through passage 25 will be a constant value, and in a well-heated space, the fluid to be conveyed between ground member 32 and slider 31

in space 22 toward the outlet 22 and 32 during this time

slider 31 moves forward, slider 23 moves away from balancing space 26, closure 22 reaches and passes through passage 25, returning from space through passageway 25 is terminated, but in this way, the medium only and exclusively to leave the interior space 20 of the housing 10 of the fluid transfer unit. Finally, the slider 31 itself approaches the outlet flange 22a of the fluid feeder 23 near the outlet 22, while the slider 32 rotates the bottom in front of the passage opening 24, which is covered by the closure 41. from the opening, uv 'adore le ^ em ieat 4 3 no mnasí. e \ km r The '' .nmdmn: nec 25 · η; · ♦ *** «*** advances, causing the compensating space 26 to be impermeable to the fluid being transported so that the outlet 22 from the inlet 21 winter, or just back, can flow directly through the equalization space 26.

As slider 41 slides out of passage opening 24, slider 32 is slipped out of balancing space 26 through passage 24 towards inlet 21a of inlet 21 and closed now by the slider 31 behind. the conveying space and thus the space therein, 23

The rotation of the pusher 32 to the outlet 22 also requests the .42 closure of the fluid 26, likewise the closure 41 of the transfer body 30, and the cycle.

n 31 slides ·

5a and so on

the end of portion 22a and pusher 31 from space

it is made by the pusher 32 and the pusher 31 passes through the square 26 before and when the equalizer 26

Fig. 8 shows a version of a fluid conveyor unit in which the conveyor body 30 has four pieces 31, 32 and 33 which are evenly distributed along the conveyor 30. The regulating body 40 also carries three closures 41, closure 42 and closure 43. Closure 41, Closure 42! and the closure 43 is equally spaced on the regulating body 40. In addition, housing 10 also includes an inlet 21, an outlet 22, and a fluid transfer space 23 and an equalization space 2, as well as an interior space 20 including a passageway 24 and a passageway 25, as well as a divider 11. operation is the same as described in the previous embodiment, but the magnitude of torque generated during operation can be increased and the specific gap losses can be reduced.

The structure of the pile conveyor shown in Fig. 9 differs from that shown in Fig. 8 in that the housing 10 has a plurality of interior spaces 20 having, in this case, four compartments. and accordingly there are four conveying bodies 30, and each conveying body 30 has three push-pieces 31 pushers, 32 pushers and 33 each ΦΦ ΦΦ * V 9 * Φ

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flax pieces are inside the housing 10 inner ρ

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but only es

Here, the movement of the body and the control body 40 are co-ordinated, and the principle of operation is the same as in Figures 1-7.

. The embodiment of Fig. 9 is a particularly pre-unit

while the outlet 22 associated with each of the conveyor bodies 30 is a &lt; RTI ID = 0.0 &gt; flow &lt; / RTI &gt;

The horse. FIG. the housing 10 does not rotate during '20. Here, there is a closure for kh, which is true that the arcuate surface ^{1 has an} arc length;

25a is the arc length between the distal edges. This, or just about all of the 24 passage arrows> body moves in a

The body is non-projectile and in the shape of the distal edge 41a of the sole body 41b between the two outer edges 41b of the control body 40 and the gate opening 25, the gate opening 41, or gate opening 25 only, simultaneously closes. In the case of Fig. 11, the paddle, like the tail 40, is able to move, but rot. aligning conveyor body 31 housing 11 u

in the housing 10 of the transport unit, the number of a single transport body 30 is two. The regulating bodies 40, independently of the movement of the conveying body 30, move the alignment assembly 50 to the stepping fittings 54, the facts 10, and each of the adjusting bodies 26, which are mounted on the sliders ke and 32; surface

Includes .57 stepper assemblies. It will be understood that the stepper assemblies 54, the stepper assemblies 56 and the stepper assemblies 57 are controlled by suitably configured and programmed electronics. The '.on kmweeben caseroomkos \ e arloa Ό' •• vvefemaufe rowmvm ..íharou / aai the night below * · Χ:

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Moorish is useful when it comes to bulk but very precise dosing with medium delivery, and operation can be reliably controlled over long distances. Such applications include the pharmaceutical industry, the chemical industry, or even a genetic engineering lab.

the closures are also in prime motion with the conveying body 30 and its two sliding members 31 and 32.

13, is the conveyor 30 carrying the sliding element 32 and the sliding element 32 the track tracking elements 59?

then the 40th

In this case, the operation of the motion adjusting assembly 5 5 is essentially pure mechanical control. a tracking element that slides in the direction of axis 35 of the conveying paint 30 in housing 10 (not shown) can only move up or down in the direction of axis 35, thereby opening the passage opening 24 and the passage opening 25 when 13, the right hand side of Fig. 13 shows a position in which the pusher 32 passes under one of the open latches 41 and the other of the left latches 41 is lowered. .

that is, it is in a closed position.

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Fig. 14 shows a further embodiment of the transport conveyor according to the invention. Here, too, a motion interleaving unit 50 is provided for providing a controlled connection between the transmitting body 30 and the control body 40. In the Beer version, the $ 30 element connected to the closures 41 of the regulating bodies 30 is also included, but here the track track member 50 is connected by means of an articulated arm.

there is

From the semi-ophthalmic unit described above, the actuator and slide element 32 or closure or more which the lockable transducer body 24 is provided in the equalization space 26 are thus completely solved in the housing 10 by one or more more than one transducer 30 is painted like none of the transducer body 30 has two transducers 41 and 42

located adjacent to the lion space by means of an equalization space opening 26 so as to connect the Ktnyuat 23 s and the transverse element 32 and its corresponding number of intermediate points 23 and high points and 22 kts;

the volume transported is the speed of rotation of the 30 conveying bodies »this is a matter of satisfaction, not part of this

depends on the nature of the system, so the

The pellet feed unit of the present invention is well suited for use in any location where it is desirable to provide a continuous accurate flow of liquids, whether at high or low flow rates.

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Claims (6)

PATENT CLAIMS 1, a rotary blade conveyor for providing a uniform fluid conveyor having a housing enclosing an interior space including an inlet and an outlet connected to the medium conveying space, and a port for opening the fluid in between the inlet and outlet, and a control body assigned to the conveying body by means of a motion co-ordinating assembly, wherein the control body has one or more closures extending into the interior of the housing, and 10) in the interior space (20) of the arrowheads (24, 25) passing through the peat conveying space (23), there is provided a periodically connected compensating space (2) where the regulating body (40) z at least a portion of the orifice nut (41,42) is movably disposed in the outlet space (2), and on a conveying body (30), the number of pushers (31, 32) is at least two, the pushers (31, 32) coincide with each other; , 32) has the shape of a rotary body, the sliding elements. (31, 32) have a geometric shape adapted to the cross-sectional dimension and shape of the expansion space (23) and to fill the cross-section (23) of the recess space. The keypad conveying space (23) of claim L and the body (30) extending to the other side (11a) of the divider (11), characterized in that there is a divider (11} between the space (26) placed on the other side (1 id) and the regulating body (40) The carbon of claim 1 or 2, wherein more than one conveying body (30) is provided and associated with the zone body (40). 4. characterized in that more than one regulating body (40) is associated with its conveying body (30); jigging unit, means that the same jigging unit S2, and the resulting bodies (40) The circulating paddle conveyor according to claim 4, characterized in that a single sensor (41) is disposed on the regulating body (40). «X> V ♦ M *.« * Φ * y *** * «« * Φ »χ« «Φ Salt 6 <The i. or claim 2, wherein the regulating body (40) has a number of fega units (41, 42) . The method of claim 1 or claim 2, wherein the conveying body (30) has an equal number of inserts (d1, 33) and closures (41, 42) disposed on the forming body (40). a circulating body ring according to any one of a rotation of the control body k 301 rotations; the measured distance (T) between the corresponding radius (?) and the corresponding unit, the body of the signal i i the traveled space inside the inside delimiter fence (2) of the body (40) I, 42) at least a portion of the spindle 2 Ha, 42a) the axis of rotation of the regulating body (40) reaches the fluid transfer space (23) of the housing (10) and 25) distal edges (24a, 25a) of stone; angle (β); LA 2-10. A circular blade ^unit according to any one of claims 1 to 4, having at most one of the closures (41, 42) a central angle (?) of at least two of the proximal outer edges (41b, 42b) of the body (44). having a maximum central angle (φ) measured from the axis (44) of rotation of the body (40) at the distal edges (11b, He) of the other side (lia) delimiting the space (26). ** * * * * * «* * V Φ ΦΦ * χ Φ Φ X «Φ:« φ φ φ φ * φ «φ φ χ χ <« 12. Αζ 2.-11, characterized by that a An eco-circulating blade conveyor unit having at most a portion thereof (31, 32) at most adjacent outer edges (31c, 32c) of the adjacent outer edges of the conveying body having a value equal to or less than the medial trough (23a). a fluid conveying unit with a maximum measured center angle (λ) near the sliding element (31 * 32 ^ ¹ ) (22) 14, 1-13. characterized in that the inner boundary surface (41b, 42b) of the outer boundaries (41, 42) of the closures (41, 42) is sewn into a cylindrical body arranged in a bunched arrangement on the regulating body (40). 15, Az 1, -14. A rotary vane center unit according to any one of the claims, characterized in that the movement coordinating unit (50) is a mechanical door leaf. 1-14. h, a serpentine unit, members of an electromagnet mounted on a stepping body (30) and / or a stepper (34, 55, Salt, regulating body (40) and / or housing (10)). Circulatory fluid conveying unit according to any one of claims 1 to 14, characterized in that at least a periodically contacting surface of the movement coordinating assembly (50) with the surface of the path (58) and the path (58) is connected to the regulating body (40). has a track-tracking element (59).