BEKO METPOINT CID Portable Compressed Air Leak Detection Instrument User Guide
- June 9, 2024
- Beko
Table of Contents
- Quick Start Guide
- References
- Read User Manual Online (PDF format)
- Download This Manual (PDF format)
Quick Start Guide
METPOINT® CID
10-403
1. Safety instructions
1.1 About this document
Carefully read this documentation and familiarize yourself with the product
before using it. Observe all safety instructions and warnings in particular so
as to prevent injury and damage to the product. Keep this documentation within
reach so that you will be able to consult it if necessary.
Pass on this documentation to later users of the product.
1.2 General safety instructions
|
- Use the product properly and exclusively as intended and within the parameters specified in the technical data. Do not use force.
- Do not, under any circumstance, use the device to measure on or close to live parts!
- When detecting leaks on electrical systems, please make sure to maintain a safe distance so as to avoid dangerous electric shock!
- Avoid direct contact with hot or rotating parts.
- Always switch the device on before connecting the headphones! The volume can be high when the signal levels are high (headphone bars in red range).
---|---
1.3 Using Class 2 lasers
|
- Do not, under any circumstance, point the integrated laser directly at your or someone else’s eyes! Do not, under any circumstance, hit a person’s or animal’s eyes with the laser beam!
- Laser module: Conforms to DIN EN 60825-1: 2015-07 Class 2 (< 1 mW)
- Observe the specified storage and operating temperatures.
- Using the device improperly or trying to use force on it will void the warranty.
- Tampering of any kind that is not in conformity with the intended and described processes will void the warranty and exclude all liability.
- The device is intended exclusively for the purpose described.
---|---
1.4 Environmental protection
|
- Dispose of faulty rechargeable batteries and dead batteries in compliance with all applicable regulations.
- After this product reaches the end of its service life, dispose of it as e-waste (in compliance with all local regulations) or return the product to BEKO TECHNOLOGIES for disposal.
---|---
2. Intended use
The METPOINT® CID is a leak detection device used to quickly and reliably
detect leaks in compressed air systems.
The METPOINT® CID leak detection device analyses the ultrasonic waves
produced by a leak as a function of distance and pressure.
It is designed exclusively for the intended purpose described here and may
only be used accordingly.
The operator must check whether the device is suitable for the use chosen.
The technical data listed on the data sheet are binding. Inappropriate
handling and operation outside the technical specifications is not permitted.
Claims of any kind due to non-intended use are excluded.
3. Technical data
Handheld housing dimensions| 263 x 96 x 280 mm (11.55 x 3.78 x 11.02 in) with
preamplifier and horn
---|---
Weight| 0.55 kg (1.21 lb) with preamplifier and horn.
Approx. 3.0 kg (6.61 lb) for the complete kit in its case
Operating frequency| 40 kHz (+/-2 kHz)
Power supply, internal| 7.2 V internal lithium-ion battery
Power supply, external| 12 VDC 1 A external power supply unit (included)
Operating time| > 9 h (continuous operation)
Charging time| Max. 4 h
Laser| 645 … 660 nm wavelength, output power < 1 mW (Class 2 laser)
Connections| 3.5 mm headphone jack for headphones.
Power supply connector for connecting an external charger.
USB port
Colour display| Transmissive TFT 3.5” touch panel
Interface| USB for importing / exporting data, SW updates, etc.
Data logger| 16 GB memory card (Class 4 microSD)
Intended area for use| Indoors
Operating temperature| -5 °C … +50 °C (+23 … +122 °F)
Storage temperature| -20 °C … +60 °C (-4 … +140 °F)
Altitude| Up to 4000 m (13,123 ft) above sea level
Max. air humidity| < 95% RH, non-condensing
Permissible pollution degree| 2
Degree of protection| IP20
4. Marking
4.1 Type plate
4.2 Laser warning label
4.3 Label locations
4.3.1 The METPOINT® CID (standard and laser distance module)
4.3.2 Parabolic mirror
5. Device components and controls
Position number | Description / Explanation |
---|
[1]
| Release button for preamplifier module
[2]
| 3.5” TFT colour display with touch panel
[3]
| Membrane keypad (four keys)
[4]
| ON / OFF button
[5]
| Volume (+/-)
[6]
| “Save” key
[7]
| Connector for power supply unit (battery charging connector)
[8]
| USB port
[9]
| Preamplifier module
[10]
| Camera
[11]
| Horn
6. Preparing the device
Before starting the leak detection process, you will need to configure the device. To access the navigation screens, tap the “Home” button.
6.1 Changing the language
Home -> Settings -> Device Settings -> Set Language -> English
6.2 Checking the current firmware and updating the firmware
Please visit the BEKO TECHNOLOGIES homepage on a regular basis to see if a new firmware version is available. We are continuously making enhancements and improvements to the product, and keeping the firmware up to date will ensure that you are using the latest software version and have access to all available functionalities.
-
Check the firmware version on the homepage and download it from the following URL: https://www.beko-technologies.com
-
Check the firmware on the METPOINT® CID
Path: Home -> Settings -> About METPOINT® CID -> Software Version -
If the firmware is outdated, download the new version from the BEKO TECHNOLOGIES homepage
-
Unzip the ZIP file
-
Copy the unzipped DEV0004 folder to a USB drive
The folder structure must look as follows:
6. Plug the USB drive into the METPOINT® CID and connect the power supply
unit
7. Run the system update in:
Path: Home -> Settings -> Device settings -> Update System
8. Tap the “Check USB Stick for new Software updates” button
9. The available update will appear
10. Tap “force all” to run the update
11. Restart the device and update the channels
The device is now updated.
6.3 Configuration
Home -> Configuration
You can use the configuration settings to select the system of units you want
and enter the parameters needed in order to calculate annual leakage costs.
- Select either the ISO or US system of units
- To define the costs, tap the “Cost / 1000 m³” text field
- Enter the operating hours per year
(during which the compressed air system is operated actively)
There are two different mode options available for defining the costs:
-
Standard Mode: Cost per 1000 units of volume. The cost and the currency will need to be entered directly. Default value:
19 € / 1,000 m³ (0.58 € / 1,000 cf) -
Expert Mode: Can be used to define the electricity cost / kWh and the system’s specific power in detail.
The specific power describes the efficiency of the compressor system, i.e., how much electric power (kWh) is required in order to produce one cubic meter of compressed air (m³). There are three predefined system values for it, as well as a custom input field that you can use to enter a different value.
In addition, the type of cost can be set in Expert mode. “Electricity cost (70%)” is caused by the “electric power consumed by” the compressed air system, which typically corresponds to 70% of the total costs. Meanwhile, “Total Cost (100%)” includes the investment and maintenance costs incurred in addition to the electricity costs over the compressor’s entire service life.
6.3.1 Configuring parameters
The parameters need to be entered in order to be able to calculate the leakage
volumetric flow rate.
The following settings must be configured.
-> Sensor type
Select the sensor type based on the application and ambient conditions in
question; see section 9.4.
Home -> Configuration -> Parameter -> Pressure and Distance
You can enter any value you want for the pressure and distance into the two
white fields, provided that the values fall within the valid range.
You can set the pressure to any value between 1 and 10 bar.
For the various sensor types , there are various defined distances between the METPOINT® CID and the leak that must be maintained in order to be able to calculate valid values for the leakage loss volumetric flow rate and the costs per year. These distances must be maintained as exactly as possible without fail; see section 9.4 for more information.
6.3.2 Configuring the measuring point
Home -> Configuration -> Meas. Point
The measuring point is stored for each leak in the corresponding leakage data
(XML file). This information can be viewed later on in the software’s leak
report.
You can enter the company and building information when entering the building.
Meanwhile, the place refers to the exact location of the leak and is intended
to make it easy to find again for repairs.
-> LeakTag: Automatically incremented by 1 after every stored measurement.
7. Commissioning / use
Please observe the safety instructions in section 1 first
7.1 Switching on the device
Press the ON / OFF button and hold it down for about 1 second. The device will
switch on and a startup sequence will be shown on the display. Pressing the
button again will switch off the device.
See section “Device components and controls“ for the ON / OFF button.
7.2 Headphone volume up / down
You can raise and lower the headphone volume in 16 steps with the volume up /
down buttons.
Holding the button down will automatically raise / lower the value.
See section “Device components and controls“ for volume up / down buttons.
Please make sure that the headphone volume is lower than 50% before putting the headphones on.
7.3 Laser ON / OFF
The laser pointer can only be switched on and off with the laser ON / OFF button on the display (not with the membrane keypad). When switched on, the display will show a laser warning symbol.
- Laser “ON” icon
Please observe all warnings regarding laser operation! Do not, under any circumstance, hit a person’s or animal’s eyes directly or indirectly (reflection) with the laser beam!
8. Automatic distance measurement
The new intelligent horn features an integrated distance measuring module.
Prerequisites for firmware and hardware:
In order to be able to use this functionality, the following prerequisites must first be met:
- The main board must be “intelligent” so that the main body of the METPOINT® CID and the tool will be able to communicate with each other.
- The firmware version on the METPOINT® CID must be V3.02 or higher. The latest firmware can be downloaded from the “Downloads” section of the corresponding homepage.
If these prerequisites are met, the METPOINT® CID will automatically detect that an intelligent tool with automatic distance measuring is connected.
Description of functionality:
1. The laser must be started in order to activate the distance measurement,
just like with all other tools.
2. The METPOINT® CID will then show the measured distance on the display.
In this case, the distance is 3.49 meters o 137 inches depending on the
selected unit system.
3. In order to automatically use the measured distance to calculate costs, you will need to enable the “Distance by Laser” option under “Parameter.”
Important: The laser must be switched on before you enable “Distance by Laser.” Otherwise, the icon will flash yellow and red and say “Laser?”.
Note: For the horn, the valid distance range is 1 … 6 meters (40 … 236 inches).
4. The METPOINT® CID will now update the distance automatically. The currently measured distance will be shown in the grey “Dist:” bar. Meanwhile, the distance used for cost calculations will be shown in the small bar at the bottom left next to the pressure.
State
| Current distance measurement| Distance parameter used internally|
Likelihood that the distance is being measured correctly
---|---|---|---
Best case|
white
| Green|
High
Assess how plausible the measurement is|
yellow
| yellow|
Medium
Move to the valid distance range|
white
| yellow|
High, but distance outside of valid range
Move to a different surface close to the leak until the “best case” occurs and the measurement is robust|
red
| Empty|
Low
Important: The distance measurement can be challenging on black surfaces or in very bright environments, which is why distances can still be entered manually. To be able to enter manual distances, disable the “Distance by Laser” option.
States:
Best case:
“Dist:” is green, the distance module measurement is robust and the distance used falls within the valid range
Outside of range:
Distance measurement = robust, but out of range!
Move to the valid distance range
9. Pinpointing leaks
This section goes over how to optimally use the device in real-life scenarios.
9.1 Leak pinpointing process
The following process should be carried out cyclically at the company in order
to keep leakage rates as low as possible. The goal should be to have a
continuous leakage rate of 5 … 10%, as searching for leaks and fixing them one
time only will not reduce the leakage rate permanently and new leaks will
occur later on.
Real-life tip:
To identify the ideal time, it is recommended to use a volumetric flow sensor
in the main line behind the tank. At least one week (Monday to Sunday) is
recommended as the period for the measurement. When production is stopped, the
volumetric flow profile will show the leakage rate.
This means that if the limit is exceeded, a leak search can be ordered.
In addition, the volumetric flow measurement can be used to validate the
result from the leak search and fix, as the latter should reduce the
volumetric flow rate when production is stopped.
Position number | Description / Explanation |
---|
[1]
| Pinpointing leaks
[2]
| Quantifying leaks
[3]
| Documenting leaks
[4]
| Reporting leaks
[5]
| Fixing leaks
9.2 Possible causes of leaks
When dealing with compressed air systems, leaks can be usually found at connecting elements.
- Leaky couplings and hose clamps
- Leaky gaskets
- Porous / faulty hoses
- Porous / faulty seals on tools and machines
- Faulty condensate drains
- Leaky or incorrectly installed dryers, filters, service units
9.3 Superficial leak detection
After the device starts, it will be in the leak detection view. The following figure describes the various corresponding functions and indicators.
Position number | Description / Explanation |
---|
[1]
| Signal level in dB
[2]
| Leakage rate
[3]
| Leakage costs per year
[4]
| LeakTag number
[5]
| Camera image
[6]
| Home screen
[7]
| High sensitivity
[8]
| Saves the measurement
[9]
| Settings
[10]
| Laser ON / OFF button
[11]
| Date / time and battery charge (alternating display)
[12]
| Laser “ON” icon
[13]
| Signal level bars
[14]
| Sensitivity adjustment button
9.4 Choosing accessories
In order to make it easier for the user to pinpoint leaks, various attachments were developed for different measuring conditions.
Note on distance for the quantification function:
The distances that must be maintained for quantifying the leak are always
measured from the front end of the corresponding attachment to the leak.
9.4.1 Horn (standard attachment)
The horn bundles incident ultrasonic waves together, increasing the device’s range this way. This makes it ideal for medium distances.
Leaks can be heard across long distances, but the user needs to get closer to the leak and always follow the “loudest” point to pinpoint it accurately. The user must then scan the individual compressed air components to pinpoint exact locations.
Quantification function (distance) -> 1 … 6 m (3 … 20 ft)
When to use the horn:
- Medium distance from line / component of 0.2 … 6 mm (0.66 … 20 ft)
- Low noise
- Freely accessible leak
- Use at distances of up to six meters if there is no parabolic mirror
9.4.2 Focus tube
The tip of the focus tube only lets very few ultrasonic waves through in the direction of the ultrasonic transducer, making it possible to pinpoint leaks very exactly.
Accordingly, it is recommended to use the focus tube at short distances in order to accurately pinpoint the corresponding leak.
Quantification distance: (Distance) -> 0 … 0.2 m (0 … 0.66 ft)
When to use the focus tube:
- Short distance from line / component of 0.05 m (0.16 ft)
- Freely accessible line / component
- The lines and components being inspected are physically very close to each other
- Medium to high noise
- Use if there is no gooseneck available
9.4.3 Gooseneck
If you ordered the gooseneck separately, you will first need to import the corresponding data (which is found on the included USB drive) into the METPOINT® CID in order to be able to use the gooseneck.
Import:
Home -> Export / Import -> Import -> New Sensor -> Gooseneck xxxxxxxx
The gooseneck should be used when the lines and components being inspected are
physically very close to each other. In addition, the gooseneck’s shape can be
adjusted as necessary in order to make it possible to comfortably inspect
lines and components that are difficult to access.
The gooseneck’s sensitivity has been reduced in order to attenuate noise.
Accordingly, it is exceptionally well-suited to inspecting compressed air
components in a targeted and local manner when there is high noise, such as is
the case inside compressed air distributor cabinets and with systems that use
pneumatic cylinders.
Quantification function (distance) -> 0.05 m (0.16 ft)
When to use the gooseneck:
- Short distance from line / component of 0.05 m (0.16 ft)
- Leak not freely accessible
- Medium to high ultrasonic noise
- The lines and components being inspected are very close to each other
9.4.4 Parabolic mirror
If you ordered the parabolic mirror separately, you will first need to import the corresponding data (which is found on the included USB drive) into the METPOINT® CID in order to be able to use the parabolic mirror.
Import: Export / Import -> New Sensor -> Parabolic xxxxxxx
The parabolic mirror bundles horizontally incident ultrasonic waves together
at its focal point, where the ultrasonic transducer is located. This results
in the measured ultrasound being significantly amplified (long range), as well
as in very precise directional characteristics, as any ultrasound that is not
horizontally incident is simply reflected by the reflector.
Quantification function (distance) -> 3 … 12 m (9.84 … 39.38 ft)
When to use the parabolic mirror:
- Long distance from line / component of 3 … 15 m (9.84 … 39.38 ft)
- Noise
- Leak not freely accessible (behind a fence)
- Leaks physically close to each other (overlapping)
9.5 Selecting sensitivity levels
Ultrasonic levels can be viewed as a kind of leak “volume.”
You can use the “sensitivity adjustment button” to adjust the sensitivity of the METPOINT® CID to the corresponding surroundings. This will heavily affect the device’s acoustic behaviour and increase or reduce the valid value range. Reducing the sensitivity level will reduce the range of the leak measurement. However, the “relevant area” illustrated with a circle on the display will also be smaller, making exact pinpointing much easier.
Sensitivity levels
0 … 60 dB
| The device’s maximum sensitivity level (intended for when there are small leaks and no noise); can be selected with the “HiSn button” or “sensitivity adjustment button”
10 … 70 dB
| Leaks and noise will become “quieter” and the range will decrease.
20 … 80 dB
| Leaks and noise will become “quieter” and the range will decrease.
30 … 90 dB
| Leaks and noise will become “quieter” and the range will decrease.
40 … 100 dB
| Least sensitive level (large leaks, a lot of noise -> for a heavy-duty application)
The METPOINT® CID will have its auto function enabled by default and will switch between levels (10 … 70 dB to 40 … 100 dB) by itself.
You can set the device’s highest sensitivity level (0 … 60 dB) with the “HiSn” button or manually select the sensitivity level with the “sensitivity adjustment button.” Use this mode if you want to find small leaks in quiet environments.
9.5.1 Sensitivity adjustment button
You can either use the “Sensitivity” adjustment button to switch between individual sensitivity levels manually or select the auto function for adjusting the level. The sequence is shown in the figure to the left.
9.5.2 Auto function (standard)
The auto function (automatic sensitivity level selection) is activated by
default. In other words, the measured ultrasound level is used to
automatically set the optimal measuring range.
Example: Level = 71 dB -> stage: 20 … 80 dB
9.5.3 Manually adjusting the sensitivity
You can also switch between individual sensitivity levels manually. To do this, use the “sensitivity adjustment button.”
Users can use this option to reduce noise and find leaks as quickly and easily
as possible.
To do so, they must keep increasing or reducing the sensitivity and using the
adjusted sensitivity to scan the target area for leaks. When the sensitivity
level is reduced, the device will focus on a smaller area, but will also lose
range.
9.5.4 Pinpointing leaks
The specific approach recommended for pinpointing leaks depends on the specific ambient conditions in question.
Option 1 … from which direction can you hear a leak?
When using this method, you should point in all directions until you find the
loudest point. After this, you should move in the direction of the loudest
point in order to be able to accurately pinpoint the leak.
This option works well when there is little noise.
Option 2 … Walking along the compressed air system.
Alternatively, if there is more noise, you can make it easier to pinpoint the
leak by “moving along and listening to the compressed air system bit by bit.”
That is, from the compressor room all the way to the end points. If there is
noise, it is recommended to manually reduce the device’s sensitivity and use
either the gooseneck for short distances or the parabolic mirror for long
distances.
In addition, the following generally applies when using this method: The
shorter the distance from the line, the easier it will be to pinpoint the
leak.
Option 3 … Searching for leaks while production is stopped
Production processes can result in ultrasonic noise in certain cases. If, for
example, a pneumatic system blows off air on a regular basis, the METPOINT®
CID will detect the corresponding noise.
If noise makes pinpointing leaks significantly harder, it is recommended to use option 1 or option 2 if the lines are pressurized but the corresponding production processes are stopped. This is the easiest and fastest way to find leaks.
9.6 Other problems that can make the measurement more difficult
When pinpointing leaks, there can be additional problems, which are described in the following subsection. In order to reduce these problems, the most important things to do are to use the correct attachment as instructed in section 9.4 (“Choosing accessories”) and to reduce the sensitivity level.
Reflections: If you can hear leaks on walls but there are no lines running along them, the sound is coming from reflected ultrasound from a leak. In this case, it is recommended to reduce the sensitivity (manually switch to a higher range until you cannot hear the reflected sound anymore). In addition, keep scanning parallel to the reflection area, as that is where the leak is coming from (the leak will be louder than the reflected ultrasound).
Overlapping leaks: If leaks are physically close to each other, the ultrasound they emit will overlap. In this case, it is recommended to “seal off” the leaks with a piece of cloth. This will increase the accuracy of the measurement enormously, especially when quantifying the leak. At the same time, you should be measuring physically very closely to the components.
Pinpointing leaks can be made much easier by reducing the sensitivity and especially by using the parabolic mirror (for long distances) and the gooseneck (for short distances).
Very large leaks: Very large leaks will produce a strong ultrasonic field
that can generate ultrasound throughout the entire room under certain
circumstances. In this case, it is also recommended to reduce the sensitivity
and closely scan the individual components. Within this context, leaks should
be pinpointed based on the volume level of the loudest point.
If the leak is not accessible, it is recommended to use the parabolic mirror,
as it has excellent directivity.
Lamps and motors:
Noise: Electrical buzzing -> Do not confuse for leaks!
Some systems and machines can also produce ultrasound that falls within a
similar frequency range, e.g., neon tubes and motors. However, these usually
sound different from the typical “hissing” of leaks and should not be confused
with them.
If you can hear ultrasound that is clearly not coming from the compressed air
system, then reduce the device’s sensitivity in order to “suppress” it. If
this is not enough, then you will have to ignore the noise.
9.7 Documenting leaks
Once you find the leak and have set the corresponding pressure and distance and described the leak, you can save a picture of the latter by tapping the “store” button.
After this, you can check the parameters (distance and pressure) and define the exact measuring location with the corresponding company, building and place. In addition, you can also enter a brief description (maximum of 32 characters).
The following error descriptions are available, and are intended to make it significantly easier to fix the leak later on.
- Leak.Element
- Measure
- Replacement
- Repair under pressure possible?
By default, the system has a few available suggestions that are meant to make
input easier for users.
In addition, any custom entries you make will additionally be stored in an
internal database so that they can be reused at any time.
The screen shown will list all relevant leak data so that it can be checked one final time before saving it. All leaks, including all entries made, will be stored in the leakage data file.
9.8 Exporting leakage data
Once all leaks have been documented, the corresponding data can be exported to
a USB drive.
When doing this, users can choose the start and end times for the leakage data
export.
Important: The “ERASE Leakage data” option will delete ALL stored
leak information irretrievably.
Home -> Export / Import -> Export -> Leakage data -> Select start time and end time -> export
To generate comprehensive leak documentation, import the leakage data into the BEKO Leak Management software program and process it there.
10. Using the BEKO Leak Management software
Main functions:
- Managing companies / buildings / projects / measurements
- Documentation and reporting
To install the software, run the “Setup.exe” file. The file will be found on the included USB drive and can also be downloaded from the BEKO TECHNOLOGIES homepage.
11. Operation manual
Additional information, as well as a detailed product description, can be
found in the METPOINT® CID installation and operation manual.
The installation and operation manual can be found on the included USB drive
or downloaded at the following URL.
www.beko-technologies.com
12. Notes
BEKO TECHNOLOGIES GmbH
Im Taubental 7
D – 41468 Neuss
Tel. +49 2131 988 0
Fax +49 2131 988 900
info@beko-technologies.com
service-eu@beko-technologies.com
| BEKO TECHNOLOGIES LTD.
Unit 11-12 Moons Park
Burnt Meadow Road
North Moons Moat
Redditch, Worcs, B98 9PA
Tel. +44 1527 575 778
info@beko-technologies.co.uk
| BEKO TECHNOLOGIES S.à.r.l.
Zone Industrielle
1 Rue des Frères Rémy
F – 57200 Sarreguemines
Tél. +33 387 283 800
info@beko-technologies.fr
service@beko-technologies.fr
---|---|---
BEKO TECHNOLOGIES B.V.
Veenen 12
NL – 4703 RB Roosendaal
Tel. +31 165 320 300
benelux@beko-technologies.com
service-bnl@beko-technologies.com
| BEKO TECHNOLOGIES
(Shanghai) Co. Ltd. Rm.715 Building C, VANTONE Center
No.333 Suhong Rd.Minhang District
201106 Shanghai
Tel. +86 (21) 50815885
info.cn@beko-technologies.cn
service1@beko.cn| BEKO TECHNOLOGIES s.r.o.
Na Pankraci 58
CZ – 140 00 Praha 4
Tel. +420 24 14 14 717 /
+420 24 14 09 333
info@beko-technologies.cz
BEKO Tecnológica España S.L.
Torruella i Urpina 37-42, nave 6
E – 08758 Cervelló
Tel. +34 93 632 76 68
Mobil +34 610 780 639
info.es@beko-technologies.es
| BEKO TECHNOLOGIES LIMITED
Room 2608B, Skyline Tower,
No. 39 Wang Kwong Road
Kwoloon Bay Kwoloon, Hong Kong
Tel. +852 2321 0192
Raymond.Low@beko-technologies.com
| BEKO TECHNOLOGIES INDIA Pvt. Ltd.
Plot No.43/1 CIEEP Gandhi Nagar
Balanagar Hyderabad
IN – 500 037
Tel. +91 40 23080275 /
+91 40 23081107
Madhusudan.Masur@bekoindia.com
service@bekoindia.com
BEKO TECHNOLOGIES S.r.l
Via Peano 86/88
I – 10040 Leinì (TO)
Tel. +39 011 4500 576
Fax +39 0114 500 578
info.it@beko-technologies.com
service.it@beko-technologies.com
| BEKO TECHNOLOGIES K.K
KEIHIN THINK Building 8 Floor
1-1 Minamiwatarida-machi
Kawasaki-ku, Kawasaki-shi
JP – 210-0855
Tel. +81 44 328 76 01
info@beko-technologies.jp
| BEKO TECHNOLOGIES Sp. z o.o.
ul. Pańska 73
PL – 00-834 Warszawa
Tel. +48 22 314 75 40
info.pl@beko-technologies.pl
BEKO TECHNOLOGIES S. de R.L. de C.
BEKO Technologies, S de R.L. de C.V.
Blvd. Vito Alessio Robles 4602 Bodega 10
Zona Industrial
Saltillo, Coahuila, 25107
Mexico
Tel. +52(844) 218-1979
informacion@beko-technologies.com
| | BEKO TECHNOLOGIES CORP.
900 Great Southwest Pkwy SW
US – Atlanta, GA 30336
Tel. +1 404 924-6900
Fax +1 404-629-6666
beko@bekousa.com
www.beko-technologies.com
mp-cid-qsg_10-403_en_00_03
References
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- Compressed air technology | BEKO TECHNOLOGIES
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