CN106500802A - Measurement apparatus - Google Patents
Measurement apparatus Download PDFInfo
- Publication number
- CN106500802A CN106500802A CN201510564590.5A CN201510564590A CN106500802A CN 106500802 A CN106500802 A CN 106500802A CN 201510564590 A CN201510564590 A CN 201510564590A CN 106500802 A CN106500802 A CN 106500802A
- Authority
- CN
- China
- Prior art keywords
- adapter tube
- flowmeter
- shell
- measurement apparatus
- flange
- 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.)
- Pending
Links
Landscapes
- Measuring Volume Flow (AREA)
Abstract
This disclosure provides a kind of measurement apparatus for cryogen, the measurement apparatus include：Flowmeter；Shell, the flowmeter are contained in the enclosure；And adapter tube, the adapter tube is configured to extend through the side wall of the shell and is hermetically coupled with the side wall of the shell, also, the adapter tube is hermetically coupled with the flowmeter, and wherein, the space of the enclosure is in vacuum state.
Description
Technical field
Present disclosure relates to the measurement apparatus of cryogen.
Background technology
The content of this part provide only the background information related to present disclosure, and which may be not
Constitute prior art.
Generally, using measurement apparatus, such as flowmeter (this flowmeter can be Coriolis
Flowmeter, ultrasonic flowmeter or electromagnetic flowmeter) to sealing conveying liquid cryogen or
Medium, such as at ambient pressure the liquid nitrogen of deep cooling to -196 DEG C, deep cooling is to -162 DEG C at ambient pressure
Fluid behaviour (for example, the quality stream of LNG (liquified natural gas), liquefied petroleum gas and liquid oxygen etc.
Amount and/or volume flow and/or density and/or temperature) when measuring, as flowmeter is in ring
In the air of border, thus there is heat via flowmeter and pipeline with surrounding air and hand in cryogen or medium
Change, this can make, and cryogen or medium absorb heat from surrounding air and its temperature can rise therewith
And gasify, this causes cryogen to assume the state of gas-liquid two-phase when flowmeter is flow through and make
Its density reduces, and this further causes measurement result, the density of such as fluid or mass flow or volume
There is deviation in flow.Additionally, be connected in the junction at flowmeter and its two ends and with flowmeter
Pipe surface occurs frost.
In addition, it usually needs the flowmeter in fluid pipe line carries out periodically checking and calibrating,
To guarantee that flowmeter provides the flow measuring data in the range of specific required precision.Generally, pass through
By in proving flowmeter (that is, being calibrated to the flowmeter of predetermined accuracy requirement) and fluid line
Flowmeter series connection and make the cryogen in fluid line sequentially pass through flowmeter to be calibrated and
Proving flowmeter (also referred to as flowmeter calibrating installation) and simultaneously carry out flow measurement to calibrate stream
Flowmeter in fluid line.
However, when using flowmeter calibrating installation, as which is in the feelings being connected in fluid line
Also surrounding air is exposed under condition, thus the cryogen in fluid line is flowing through flow meter calibrating
During device also there is heat via flowmeter calibrating installation and fluid line with surrounding air in cryogen
Exchange, this can also make cryogen absorb heat and its temperature from surrounding air can be therewith rising
Gasify, this causes cryogen also to assume gas-liquid two-phase when flowmeter calibrating installation is flow through
State and reduce its density, this further also causes the measurement result of flowmeter calibrating installation to occur partially
Difference, most causes the calibration of the flowmeter in flowmeter calibrating installation fluid pipe line to occur partially at last
Difference, so that affect the calibration result (or meter flow calibration factor) of the flowmeter in fluid pipe line.
Additionally, being connected in the junction at flowmeter calibrating installation and its two ends and with flowmeter calibrating installation
Fluid line surface there is frost.
Thus, there is the measurement that there is more high measurement accuracy or more high measurement accuracy to cryogen
Flowmeter in device and fluid pipe line has higher calibration accuracy or higher calibration accuracy
Flowmeter calibrating installation demand.
Content of the invention
According to the one side of present disclosure, there is provided a kind of measurement apparatus for cryogen,
The measurement apparatus include：Flowmeter；Shell, the flowmeter are contained in the enclosure；And adaptation
Pipe, the adapter tube are configured to extend through the side wall of the shell and are hermetically joined with the side wall of the shell
Connect, also, the adapter tube is hermetically coupled with the flowmeter, wherein, at the space of the enclosure
In vacuum state.
By provided herein is explanation, other applications will be apparent from.It should be understood that this
Particular example and embodiment described in part is for illustration purposes only rather than attempts to limit this
Scope of the disclosure.
Description of the drawings
Accompanying drawing as described herein is only in order at illustration purpose and is not intended to limit by any way
Scope of the present disclosure, accompanying drawing is not necessarily drawn to scale, and can zoom in or out some features with aobvious
Show the details of particular elements.In the accompanying drawings：
Fig. 1 is the strabismus stereogram of the measurement apparatus of the embodiment according to present disclosure, wherein,
For the ease of observing and measuring device inside and the remainder by protecgulum with measurement apparatus separates.
Fig. 2 is the front perspective view of the measurement apparatus of the embodiment according to present disclosure, wherein,
Protecgulum and bonnet are removed.
Fig. 3 is the exploded perspective view of the measurement apparatus of the embodiment according to present disclosure.
Fig. 4 is the sectional view of the measurement apparatus of the embodiment according to present disclosure, wherein protecgulum
It is removed with bonnet, also, the region of dotted line is the region for being coated with thermal radiation resistant material.
Fig. 5 is the zoomed-in view of encircled portion A in Fig. 4, it illustrates the holding group of measurement apparatus
Part.
Fig. 6 is the sectional view that the line B-B in Fig. 5 is intercepted.
Fig. 7 is the amplification of the first adapter tube of the measurement apparatus of the embodiment according to present disclosure
Sectional view.
Fig. 8 is the zoomed-in view of encircled portion C in Fig. 4, wherein in order to be shown more clearly that sealing
Enclose and be shown as separating by two flanges.
Specific embodiment
Following description be substantially only exemplary and be not intended to limit present disclosure, application and
Purposes.It should be appreciated that in all these accompanying drawings, corresponding reference numeral indicates similar or corresponding
Part and feature.
Below with reference to Fig. 1 to Fig. 8 descriptions according to the embodiment of present disclosure for low temperature
The essential structure of the measurement apparatus of fluid.
As shown in Figure 1, Figure 2 and Figure 3, according to the measurement apparatus 1 of the embodiment of present disclosure
Flowmeter 10, shell 20 and adapter tube 30 is consisted essentially of, wherein, flowmeter 10 is contained in
Inside shell 20.Adapter tube 30 be configured to extend through the side wall 23 of shell 20 and with shell 20
Side wall 23 hermetically couple, also, adapter tube 30 is hermetically coupled with flowmeter 10.Shell
Space inside 20 is in vacuum state.
This vacuum state is, for example, after assembling flowmeter 10, adapter tube 30 and shell 20
Realized by carrying out vacuumizing to the space inside shell 20.Although being not shown,
But the port for being vacuumized is provided with shell 20, and the port is after completing to vacuumize
It is can be hermetically sealed.
As described above, the measurement apparatus for cryogen in the embodiment according to present disclosure
In 1, it is set in the space of vacuum state by making the flowmeter 10 of measurement apparatus 1, is reduced
The heat transfer (or heat exchange) of flowmeter and air ambient during measurement cryogen, this aspect are prevented
The gasification of cryogen is stopped, and then has been effectively improved the fluid properties of measurement apparatus, such as flows
Amount and the measurement result and certainty of measurement of density, and improve the model of flow rate test to a certain extent
The fluid of more low temperature is enclosed, can for example be measured, flowmeter and its connecting pipe is on the other hand prevented
Thermal loss, so as to prevent the surface frosting of flowmeter and its connecting pipe.
More specifically, adapter tube 30 includes the first adapter tube 31 and the second adapter tube 32, first fits
The first end (being the right-hand end of the first adapter tube 31 in fig. 2) of pipe arrangement 31 is hermetically attached to
The input of flowmeter 10, the second end of the first adapter tube 31 (is the first adapter tube in fig. 2
31 left-hand end) it is located at outside shell 20, also, the first end of the second adapter tube 32 is (in figure
It is the left-hand end of the second adapter tube 32 in 2) output end of flowmeter 10 is hermetically attached to, the
Second end (being the right-hand end of the second adapter tube 32 in fig. 2) of two adapter tubes 32 is located at shell
Outside 20.When measuring, cryogen can be from the second end (example of the first adapter tube 31
Such as, the central corridor in the second end) enter and flow through the first adapter tube 31, flowmeter 10 and
Two adapter tubes 32 and the second end (for example, the central corridor in the second end) from the second adapter tube 32
Flow out.Especially, flowmeter 10, the first adapter tube 31, the second adapter tube 32 and shell 20
Inwall between space be in vacuum state.
As shown in figure 3, shell 20 includes perisporium (being hereinafter also referred to as side wall) 23 and sealing
Be connected to side wall 23 at least one detachable cover, in the present embodiment be, for example, protecgulum 21 and/
Or bonnet 22, at least one detachable cover can be attached sealingly to side wall 23.In present embodiment
In, 20 square in shape of shell, but shell 20 can take on a different shape, such as tubular, with suitable
Should be with the flowmeter for accommodating different model and species.First adapter tube 31 and the second adapter tube 32 are distinguished
Through in side wall 23 opening 231,232 (that is, the first adapter tube 31 passes through opening 231, second
232) adapter tube 32 is entered in shell 20 and is attached sealingly to side wall 23 through opening.For example,
It is closed so as to be formed that protecgulum 21 and bonnet 22 are fastened to side wall 23 by bolt (not shown) respectively
Shell 20.Alternatively, it is also possible between protecgulum 21 and side wall 23 and bonnet 22 and side wall 23 it
Between sealing ring or sealing strip are set, or protecgulum 21 and bonnet 22 are soldered to side wall 23.
In addition, shell 20 can include framework 24, as shown in figure 3, framework 24 is arranged at side wall 23
The interior bulk strength for strengthening shell 20.However, framework can also be not provided with shell 20, only
Want the intensity of perisporium and protecgulum and bonnet of shell enough.In addition, shell 20 can be by impermeable
Luminescent material, such as stainless steel are made, to prevent visible radiation to inside shell 20, so as to true
Thermal radiation does not affect to protect the flowmeter 10 being contained in inside shell 20.
As shown in figures 1 and 3, the first adapter tube 31 is pipeline of the two ends equipped with flange, its
In, the first end of the first adapter tube 31 equipped with first flange 311, the of the first adapter tube 31
Two ends equipped with the second flange 312 and the 3rd flange 313 being spaced apart from each other, as shown in Figure 7.
The first flange 311 of the first adapter tube 31 is hermetically attached to (for example by securing members such as bolts
Hermetically it is attached to) first flange 11 of flowmeter 10, the second flange of the first adapter tube 31
312 be hermetically connected (such as weld) to first on the outer surface of the side wall 23 of shell 20
Housing flange 233 hermetically couples (for example hermetically coupling), such as Fig. 4 by securing members such as bolts
And shown in Fig. 7, the 3rd flange 313 of the first adapter tube 31 can with fluid line on flange
(not shown) couples.
In addition, as shown in Figures 1 to 4, the second adapter tube 32 is also two ends equipped with flange
Pipeline, wherein, the first end of the second adapter tube 32 is equipped with first flange 321, the second adapter tube
32 the second end is equipped with the second flange 322 and the 3rd flange 323 being spaced apart from each other.Second fits
The first flange 321 of pipe arrangement 32 is hermetically attached to (for example by securing members such as bolts hermetically
Be attached to) second flange 12 of flowmeter 10, the second flange 322 of the second adapter tube 32 with close
Feud connection (for example welding) is to the second housing flange on the outer surface of the side wall 23 of shell 20
234 hermetically connection (for example hermetically being coupled by the securing member such as bolt), as shown in Figure 1, Figure 2 and
Shown in Fig. 4, the 3rd flange 323 of the second adapter tube 32 can with fluid line on another method
Blue (not shown) connection.Flowmeter is coupled with adapter tube by using each flange and will be fitted
Pipe arrangement is coupled with the pipeline of fluid line, it is possible to achieve stronger and easier connection.
Additionally, adapter tube 30 is vacuum tube, specifically, the first adapter tube 31 and the second adapter tube
32 is all vacuum tube, i.e. both there is the bimetallic tube of vacuum layer, wherein, in the bimetallic tube
Internal layer and outer layer between vacuumize, in case the first adapter tube 31 and the second adapter tube 32 are crossed in fluid stopping
Fluid and surrounding air there is heat exchange, so as to prevent the gasification of cryogen, another aspect energy
The thermal loss of adapter tube is enough prevented, so as to prevent the surface frosting of adapter tube.In addition, the bilayer
The internal diameter of the internal layer of pipe is roughly the same with the input of flowmeter 10 and the caliber of output end, changes speech
It, the external diameter of the outer layer of the bimetallic tube is more than the input of flowmeter and the caliber of output end and in stream
The internal diameter of internal layer is substantially transitted near gauge, so that fluid is entering from the first adapter tube 31
Become a mandarin gauge 10 when and fluid flow when the second adapter tube 32 is flowed out into from flowmeter 10
The flowing of body is smoothed out and is not fluctuated, and is entered without producing impact to measurement result.
As shown in Fig. 2, Fig. 4 and Fig. 5, measurement apparatus 1 are also included inside shell 20
Component 40 is kept, keeps component 40 to be configured for adapter tube 30 and the flow that will be linked together
The roof of shell 20 is fixed, is for example suspended in meter 10 relative to the inwall of shell 20.In addition, keeping
Component 40 can be at position of adapter tube 30, the close adapter tube 30 with 10 connection place of flowmeter
The inwall of the adapter tube 30 being linked together and flowmeter 10 relative to shell 20 is fixed.Pass through
This connection, flowmeter more securely can be connected in shell, so as to further reduce the convection current such as vibration
The impact of gauge.
Specifically, component 40 is kept to include the first holding plate 41, the second holding plate 42 and fastening member
43, as shown in Figure 5 and Figure 6.Side wall is each passed through in the first adapter tube 31 and the second adapter tube 32
Opening 231,232 in 23 enter in shell 20 and respectively with the input 11 of flowmeter 10 and
After output end 12 hermetically couples, protected with first in the side (left side in Fig. 2) of flowmeter 10
Plate 41 and the second holding plate 42 are held by the tubular portion of the first adapter tube 31, especially with respect to first
The remainder of adapter tube 31 is clamped in diametrically less part, and in the first holding plate 41
Worn using fastening member 43, such as bolt after through-hole alignment in interior through hole and the second holding plate 42
Cross above-mentioned through hole and the first holding plate 41 and the second holding plate 42 are fastened to the roof of shell 20, spy
It is not the framework 24 for being fastened to shell 20, outer so as to the tubular portion of the first adapter tube 31 to be suspended in
The roof of shell 20 or framework 24.In addition, each having in the first holding plate 41 and the second holding plate 42
There is the recess being consistent with the shape of the tubular portion of the first adapter tube 31.
Equally, the opening in side wall 23 is each passed through in the first adapter tube 31 and the second adapter tube 32
231st, in 232 entrance shells 20 and close with the input 11 of flowmeter 10 and output end 12 respectively
After the connection of feud, flowmeter opposite side (right side in Fig. 2) with the first holding plate 41 and second
Holding plate 42 by the tubular portion of the second adapter tube 32, especially with respect to the second adapter tube 32 its
Remaining part point is clamped in diametrically less part, and the through hole and second in the first holding plate 41
After through-hole alignment in holding plate 42 using fastening member 43, such as bolt through above-mentioned through hole and incite somebody to action
First holding plate 41 and the second holding plate 42 are fastened to the roof of shell 20, are particularly fastened to shell
20 framework 24, so as to the tubular portion of the second adapter tube 32 to be suspended in the roof or frame of shell 20
Frame 24.
Component 40 is kept to be not limited to above-mentioned ad hoc structure, as long as which can be by be linked together first
Adapter tube 31, flowmeter 10 and the second adapter tube 32 are suspended in the roof or framework of shell 20
?.
As shown in Fig. 2, Fig. 4, Fig. 5 and Fig. 7, the first adapter tube 31 and the second adapter tube 32
Bellows 33 is may each comprise, wherein, bellows 33 can absorb flowmeter 10 and be adapted to first
Relative displacement, vibration and the pipe caused because expanding with heat and contract with cold between pipe 31 and the second adapter tube 32
Road stress.As long as in addition, having an adapter tube bag in the first adapter tube 31 and the second adapter tube 32
Bellows is included, because the bellows in an adapter tube can just absorb the stream being linked together
Relative displacement, vibration between gauge and the first adapter tube and the second adapter tube and because expanding with heat and contract with cold
The pipe stress for causing.Further, since employing the ripple that can absorb tolerance on length dimension
Pipe, also allows this measurement apparatus using different model or various sizes of flowmeter.
Bellows 33 is, for example, corrugated stainless steel tubing, absorbs the same of relative shift and vibration to provide
When more preferable other performance, such as corrosion resistance and opaqueness are provided.
On the pipeline of flowmeter 10 and on the part being in inside shell 20 of adapter tube 30 partly
Or thermal radiation resistant material is fully coated with, as shown in figure 4, wherein, in the big portion of adapter tube 30
Thermal radiation resistant material is all coated with point length and on the pipeline of flowmeter 10.Especially, first
Adapter tube 31 includes that the minor diameter pipeline section with the first end, the second adapter tube 32 include having
The minor diameter pipeline section of the first end, and the minor diameter pipeline section of the first adapter tube 31, second fit
First adapter tube 31 and second that is connected in of the minor diameter pipeline section and flowmeter 10 of pipe arrangement 32 is fitted
Part (represented by the region that the enclosed with dashed lines in by Fig. 4 is come) bag between pipe arrangement 32
Thermal radiation resistant material is covered with, so that visible radiation is prevented to flowing through adapter tube 30 and flowmeter
10 cryogen, particularly prevents visible radiation to the minor diameter for flowing through the first adapter tube 31
The cryogen of the minor diameter pipeline section of pipeline section, flowmeter 10 and the second adapter tube 32, and then reduce
The heat transfer that produced by heat radiation, particularly reduce by heat radiation produce near flowmeter 10
Heat transfer.The thermal radiation resistant material can be tinfoil paper, aluminium foil, asbestos, carbon fiber, glass fibers
Dimension or its sandwich, but thermal radiation resistant material not limited to this, as long as which can be effectively reduced hot spoke
Penetrate.
As shown in figure 5, the first adapter tube 31 by the first end between the first adapter tube 31 the
O-ring seals S1 between the first flange 11 of the input of one flange 311 and flowmeter 10
Flowmeter 10 is hermetically attached to, also, the second adapter tube 32 is also by between the second adapter tube
Between the second flange 12 of the output end of the first flange 321 of 32 first end and flowmeter 10
O-ring seals (not shown, which is roughly the same with the structure of O-ring seals S1) hermetically join
Flowmeter 10 is connected to, so as to realize the sealed attachment and the of the first adapter tube 31 and flowmeter 10
Two adapter tubes 32 and the sealed attachment of flowmeter 10.
In addition, as shown in figure 5 and figure 7, cannelure 3111 can be offered in flange 311,
And thickness of the depth of cannelure 3111 less than O-ring seals S1 so that by fastening structure
When flange 311 and flange 11 are fastened by part, O-ring seals S1 is deformed, so as to by flange
311 and flange 11 be hermetically linked together.Certainly, O-ring seals S1 can also be direct
Be interposed between flange 311 and flange 11 to be sealed.Although not shown, in flange
This cannelure can also be provided with 321 so that passing through fastening member by flange 321 and method
Blue 12 O-ring seals when fastening are deformed, so as to by flange 321 and flange 12 hermetically
It is linked together.
In addition, as shown in figure 8, second flange 312 and shell 20 in the first adapter tube 31
O-ring seals S2 can be provided between first housing flange 233, can be with flange 233
Offer cannelure, and thickness of the depth of the cannelure less than O-ring seals S2 so that
The squeezed bucklings of O-ring seals S2 when being fastened flange 312 and flange 233 by fastening member
Shape, so as to flange 312 and flange 233 to be hermetically linked together.Although additionally, not shown,
But the second flange 322 in the second adapter tube 32 and between the second housing flange 234 of shell 20
O-ring seals (not shown, its structure substantially phase with O-ring seals S2 can also be provided with
With) so that the O-ring seals quilt when being fastened flange 322 and flange 234 by fastening member
Crimp, so as to flange 322 and flange 234 to be hermetically linked together.
Additionally, as shown in figure 4, electric connector 50, such as socket can be provided with shell 20,
One end of electric connector 50 is electrically connected with flowmeter 10 and the other end of electric connector 50 can
Electric connector, such as plug electrical coordination with control device (not shown).Electric connector 50
Described one end for example by the sensor electricity of cable 51 and flowmeter 10, particularly flowmeter 10
Connection, so that realize the transmission of data, such as detection signal.
In another embodiment of present disclosure, previously described measurement apparatus 1 be for
Scene flowmeter calibrating installation that flowmeter is calibrated, the flowrate calibrating device be connected to containing
On the fluid line of flowmeter to be calibrated so that the fluid when being calibrated in fluid line will
Sequentially pass through flowmeter to be calibrated and the flowmeter calibrating installation.
The flowmeter calibrating installation is calibrated to accurately known first in other test system
Then the flowmeter calibrating installation is connected to existing fluid line by acceptable Precision criterion
In by the reserved connectivity port of the flowmeter in calibrating fluid pipeline.Specifically, in this embodiment party
In formula, the 3rd flange 313 of the first adapter tube 31 is attached to what flowmeter to be calibrated was located
The reserved connectivity port of the first of fluid line, the 3rd flange 323 of the second adapter tube 32 is coupled
To the fluid line second reserves connectivity port.Subsequently, make the cryogen in fluid line suitable
Sequence flows through flowmeter to be calibrated and flowmeter calibrating installation, and controller is subsequently by be calibrated
The measured value of the fluid flow that flowmeter is obtained and the fluid flow obtained from flowmeter calibrating installation
Measured value be compared, to calibrate the precision of flowmeter to be calibrated or adjust stream to be calibrated
The calibration factor of gauge, the wherein calibration factor are used as calibration instrument to be measured (in present embodiment
In for the flowmeter to be calibrated in fluid line) direct measurement result coefficient.
Flowmeter due to accommodating in flowmeter calibrating installation is set at the space of vacuum state
In and cause its measurement accuracy and precision higher, thus in flowmeter calibrating installation accommodate flow
Meter can be precision identical flowmeter with the flowmeter in fluid line, and this can cause to provide standard
Reduce the cost of flowmeter calibrating installation while really calibration.Alternatively, flowmeter calibrating installation
The flowmeter of middle receiving can adopt than fluid line in the high grade of flowmeter or multiple etc.
The flowmeter of level, this allows to the precision for further improving the flow meter calibrating in fluid pipe line
And accuracy.With regard to flow meter calibrating method be not present disclosure improvements, thus
Present disclosure does not carry out emphasis description to which.
Although described above is the numerous embodiments and many aspects of present disclosure, this area
It is to be understood by the skilled artisans that can to some of present disclosure in terms of make further modification and/
Or remodeling.
For example, in certain aspects, adapter tube includes the first adapter tube and the second adapter tube, described
The first end of one adapter tube is hermetically attached to the input of the flowmeter, first adapter tube
Second end is located at the housing exterior, also, the first end of second adapter tube is hermetically attached to
The output end of the flowmeter, the second end of second adapter tube are located at the housing exterior.
For example, in certain aspects, the first flange of the first end of first adapter tube and described
The first flange of the first end of two adapter tubes is hermetically attached to the input of the flowmeter respectively
Flange and the flange of output end, also, the second flange at the second end of first adapter tube is hermetically
It is attached to the first housing flange being arranged on the shell, the of the second end of second adapter tube
The second housing flange that be arranged at the shell on is attached to two flange seals.
For example, in certain aspects, first adapter tube include being spaced apart with its second flange,
The 3rd flange coupled with fluid line is treated, also, second adapter tube includes and its second flange
Spaced apart, treat the 3rd flange that couples with fluid line.
For example, in certain aspects, first adapter tube and/or second adapter tube include ripple
Pipe.The bellows is, for example, corrugated stainless steel tubing.
For example, in certain aspects, on the pipeline of the flowmeter and the adapter tube is in institute
State.The thermal radiation resistant
Material is, for example, tinfoil paper, aluminium foil, asbestos, carbon fiber, glass fibre or its sandwich
For example, in certain aspects, the shell includes at least one dismountable lid, described at least
One dismountable lid can be attached sealingly to the side wall.The shell is for example by light-proof material
Make, the light-proof material is, for example, stainless steel.
For example, in certain aspects, the measurement apparatus also include the holding positioned at the enclosure
Component, the holding component are configured for the adapter tube that will be linked together and the flow
Meter is fixed relative to the inwall of the shell.
For example, in certain aspects, the holding component is in the adapter, the close adaptation
By the adapter tube being linked together and the stream at device and the position of the flowmeter connection place
Gauge is fixed relative to the inwall of the shell.
For example, in certain aspects, electric connector is provided with the shell, the electric connector
One end is electrically connected with the flowmeter and the other end of the electric connector can be with control device
Electric connector electrical coordination.
For example, in certain aspects, the adapter tube is the bimetallic tube with vacuum layer.
For example, in certain aspects, the measurement apparatus are for calibrating to flowmeter at the scene
Flowmeter calibrating installation, wherein, the flowmeter calibrating installation is connected to containing flow to be calibrated
On the fluid line of meter so that the cryogen when being calibrated in fluid line will be sequentially passed through and be treated
The flowmeter of calibration and the flowmeter calibrating installation.
Although here has described the various embodiments of present disclosure in detail, it should be appreciated that,
Present disclosure is not limited to the specific embodiment for describing in detail here and illustrating, without departing from this
May be effected by one skilled in the art in the case of the connotation of disclosure and scope other
Modification and remodeling.All these modifications and remodeling are each fallen within scope of the present disclosure interior.
Claims (16)
1. a kind of measurement apparatus (1) for cryogen, measurement apparatus (1) includes：
Flowmeter (10)；
Shell (20), it is internal that flowmeter (10) are contained in the shell (20)；And
Adapter tube (30), adapter tube (30) are configured to extend through the side of the shell (20)
Wall (23) and hermetically couple with side wall (23) of the shell (20), also, described
Adapter tube (30) is hermetically coupled with the flowmeter (10),
Wherein, described shell (20) internal space is in vacuum state.
2. according to claim 1 to measurement apparatus (1), wherein, described adapter tube (30) wrap
Include the first adapter tube (31) and the second adapter tube (32), the first end of the first adapter tube (31)
The input of the flowmeter (10) be hermetically attached to, the second of the first adapter tube (31)
End is located at the shell (20) outside, also, the first end sealing of second adapter tube (32)
Be attached to the output end of the flowmeter (10), the second end position of the second adapter tube (32)
Outside in the shell (20).
3. according to claim 2 to measurement apparatus (1), wherein, the first adapter tube (31)
The first end first flange (311) and the first end of second adapter tube (32)
First flange (321) is hermetically attached to the flange of the input of the flowmeter (10) respectively
(11) and the output end flange (12), also, described the of first adapter tube (31)
The second flange (312) at two ends is hermetically attached to the first shell being arranged on the shell (20)
Flange (233), second flange (322) sealing at second end of the second adapter tube (32)
Be attached to the second housing flange (234) being arranged on the shell (20).
4. according to claim 3 to measurement apparatus (1), wherein, the first adapter tube (31)
Including being spaced apart with its second flange (312), treat the 3rd flange (313) coupled with fluid line,
Also, the second adapter tube (31) include being spaced apart with its second flange (322), treat and stream
3rd flange (323) of fluid line connection.
5. according to claim 2 to measurement apparatus (1), wherein, the first adapter tube (31)
And/or described second adapter tube (32) include bellows (33).
6. according to claim 5 to measurement apparatus (1), wherein, bellows (33) are
Corrugated stainless steel tubing.
7. according to claim 1 to measurement apparatus (1), wherein, flowmeter (10)
On pipeline and the adapter tube (30) is on the internal part of the shell (20) partly
Or fully it is coated with thermal radiation resistant material.
8. according to claim 7 to measurement apparatus (1), wherein, the thermal radiation resistant material is
Tinfoil paper, aluminium foil, asbestos, carbon fiber, glass fibre or its sandwich.
9. measurement apparatus (1) according to any one of claim 1 to 8, wherein, described
Shell (20) includes at least one dismountable lid (21,22), at least one dismountable lid
(21,22) can be attached sealingly to side wall (23).
10. measurement apparatus (1) according to any one of claim 1 to 8, wherein, institute
State shell (20) to be made up of light-proof material.
11. measurement apparatus (1) according to claim 10, wherein, the light-proof material is
Stainless steel.
12. measurement apparatus (1) according to any one of claim 1 to 8, wherein, institute
Stating measurement apparatus (1) also includes the holding component (40) internal positioned at the shell (20), described
Holding component (40) is configured for the adapter tube (30) that will be linked together and the stream
Gauge (10) is fixed relative to the inwall of the shell (20).
13. measurement apparatus (1) according to claim 12, wherein, holding component (40)
Couple with the flowmeter (10) in the adapter (30), the close adapter (30)
Will be relative to the adapter tube (30) being linked together and the flowmeter (10) at the position at place
Fix in the inwall of the shell (20).
14. measurement apparatus (1) according to any one of claim 1 to 8, wherein, institute
State and on shell (20), be provided with electric connector (50), the one end of electric connector (50) with described
The other end of flowmeter (10) electrical connection and the electric connector (50) can be with control device
Electric connector electrical coordination.
15. measurement apparatus (1) according to any one of claim 1 to 8, wherein, institute
It is the bimetallic tube with vacuum layer to state adapter tube (30).
16. measurement apparatus (1) according to any one of claim 1 to 8, wherein, institute
It is the flowmeter calibrating installation for being calibrated to flowmeter at the scene to state measurement apparatus (1), wherein,
The flowmeter calibrating installation is connected on the fluid line containing flowmeter to be calibrated so that entered
Cryogen during row calibration in fluid line will sequentially pass through flowmeter to be calibrated and the stream
Gauge calibrating installation.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201510564590.5A CN106500802A (en) | 2015-09-07 | 2015-09-07 | Measurement apparatus |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201510564590.5A CN106500802A (en) | 2015-09-07 | 2015-09-07 | Measurement apparatus |
Publications (1)
| Publication Number | Publication Date |
|---|---|
| CN106500802A true CN106500802A (en) | 2017-03-15 |
Family
ID=58286686
Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN201510564590.5A Pending CN106500802A (en) | 2015-09-07 | 2015-09-07 | Measurement apparatus |
Country Status (1)
| Country | Link |
|---|---|
| CN (1) | CN106500802A (en) |
Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN111033191A (en) * | 2017-08-30 | 2020-04-17 | 高准有限公司 | Detecting and identifying changes in a vibratory meter |
Citations (6)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| FR2850457B1 (en) * | 2003-01-23 | 2007-08-24 | Emerson Process Man Sas | CORIOLIS EFFECT MEASURING ALCOHOL VOLUME METER, VERIFIABLE WITH THE SAME STANDARDS AS VOLUMETRIC MEASURING ALCOHOL METERS: GAUGE, AEROMETER AND CALIBRATION THERMOMETER |
| CN202033082U (en) * | 2011-03-16 | 2011-11-09 | 成都华气厚普机电设备股份有限公司 | LNG (Liquefied Natural Gas) site calibrating device |
| CN104089687A (en) * | 2014-07-30 | 2014-10-08 | 张家港富瑞特种装备股份有限公司 | Online calibration device and method for LNG filling machine |
| KR20140128108A (en) * | 2013-04-26 | 2014-11-05 | 신우산업 (주) | Water meter cover internal space is formed |
| CN204227043U (en) * | 2014-10-28 | 2015-03-25 | 邢台中测仪器设备有限公司 | Liquefied natural gas aerating machine metering and calibrating device |
| CN204944631U (en) * | 2015-09-07 | 2016-01-06 | 高准有限公司 | Measurement mechanism |
-
2015
- 2015-09-07 CN CN201510564590.5A patent/CN106500802A/en active Pending
Patent Citations (6)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| FR2850457B1 (en) * | 2003-01-23 | 2007-08-24 | Emerson Process Man Sas | CORIOLIS EFFECT MEASURING ALCOHOL VOLUME METER, VERIFIABLE WITH THE SAME STANDARDS AS VOLUMETRIC MEASURING ALCOHOL METERS: GAUGE, AEROMETER AND CALIBRATION THERMOMETER |
| CN202033082U (en) * | 2011-03-16 | 2011-11-09 | 成都华气厚普机电设备股份有限公司 | LNG (Liquefied Natural Gas) site calibrating device |
| KR20140128108A (en) * | 2013-04-26 | 2014-11-05 | 신우산업 (주) | Water meter cover internal space is formed |
| CN104089687A (en) * | 2014-07-30 | 2014-10-08 | 张家港富瑞特种装备股份有限公司 | Online calibration device and method for LNG filling machine |
| CN204227043U (en) * | 2014-10-28 | 2015-03-25 | 邢台中测仪器设备有限公司 | Liquefied natural gas aerating machine metering and calibrating device |
| CN204944631U (en) * | 2015-09-07 | 2016-01-06 | 高准有限公司 | Measurement mechanism |
Cited By (2)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN111033191A (en) * | 2017-08-30 | 2020-04-17 | 高准有限公司 | Detecting and identifying changes in a vibratory meter |
| CN111033191B (en) * | 2017-08-30 | 2022-08-02 | 高准有限公司 | Detecting and identifying changes in a vibratory meter |
Similar Documents
| Publication | Publication Date | Title |
|---|---|---|
| US6901803B2 (en) | Pressure module | |
| RU2598775C2 (en) | Pressure sensor module for sub-sea applications | |
| US6393909B1 (en) | Fluid level measuring device measuring fluid level in a container at high temperatures and/or high pressures and/or in a chemically aggressive environment using microwaves | |
| CN100472115C (en) | Capillary weld extension with thermal isolation | |
| US4487062A (en) | Mass flowmeter | |
| JP2014006260A (en) | Temperature measuring device for measuring temperature of flowing medium | |
| JP6244472B2 (en) | Transmitter for measuring process variables of process fluids | |
| EP2120031B1 (en) | Pirani gauge | |
| CN106574877B (en) | Diaphragm seal and pressure sensor with diaphragm seal | |
| KR102277609B1 (en) | Thermal type flow meter | |
| CN103697957B (en) | Coriolis mass and flow measuring instrument | |
| US4722228A (en) | Remote seal-type pressure signal generator | |
| CN108369116A (en) | Connecting device, the measurement translator with this connecting device or the field instrumentation formed with this for being mechanically connected electronics housing and measurement translator shell | |
| CN106500802A (en) | Measurement apparatus | |
| CN204944631U (en) | Measurement mechanism | |
| US11725997B2 (en) | Transducer assembly with header with improved configuration including side pins | |
| CN210567487U (en) | Low-temperature storage tank | |
| JP2014095558A (en) | Connection component, and differential pressure/pressure transmitter | |
| RU2646430C1 (en) | Sealing gland assembly of a multi-zone temperature sensor for a pressure vessel | |
| JP2750550B2 (en) | Remote seal type differential pressure / pressure transmitter | |
| CN216645467U (en) | Coriolis mass flow sensor and mass flow meter | |
| US11906377B2 (en) | Differential transducer with bellows coupling | |
| JPS5968636A (en) | Pressure substituter for high temperature | |
| CN218847294U (en) | Low-temperature liquid Mass flowmeter | |
| CN103791959A (en) | Coriolis mass flow meter |
Legal Events
| Date | Code | Title | Description |
|---|---|---|---|
| C06 | Publication | ||
| PB01 | Publication | ||
| SE01 | Entry into force of request for substantive examination | ||
| SE01 | Entry into force of request for substantive examination | ||
| RJ01 | Rejection of invention patent application after publication |
Application publication date: 20170315 |
|
| RJ01 | Rejection of invention patent application after publication |