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Anemometers Here you will find anemometers for the measurement of air velocity and air pressure. Acco rding to the type of application, anemometers are made as hot wire anemometers or pocket weather anemometers, all of these anemometers can measure air velocity and air pressure. The measurement results can be stored in memory of the device (depending on the model).There are a total of 28 anemometers available in our stores. These Anemometers are ideal for taking quick or constant measurements. Anemometers for measuring air velocity and volume flow are available here. The pocket-sized anemometers are implemented as hot-wire anemometers, vane anemometers, cup anemometers or portable, waterproof anemometers depending on the particular application. You will find the appropriate anemometer for each sector from industry over handwork to your hobby. With the anemometer air-conditioning systems as well as ventilation systems can be monitored with regards as to their performance. Moreover anemometers will be used when sailing to determine wind velocity. Attachments and ISO calibration certificates are also available for these measurements (information: calibration of anemometers). Here you will find a table with wind velocities and their broadly classification.
If you can't find the anemometers you are looking for, please contact us and we will help you to find the best anemometers to suit your needs by calling our offices on: +44 (0)2380 987030 and our technical staff will advise you regarding our anemometers and other products.
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- PCE-MAM 1 series Anemometers  (pocket anemometers with different units (km / h, m / s, knots), MAX / AVG function)
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- PCE-A420 series Anemometers (digital cup vane anemometers, wind direction will not influence the measurement)
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- PCE-AM81 series Anemometers (light, portable anemometers with multiple unit indicator (m/s, knots, km/h) for sports or hobbies)
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- PCE-AM82 series Anemometers (anemometers to measure wind speed, temperature and humidity, MAX / MIN function)
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- AVM 3000 series Anemometers (anemometers to measure wind speed, temperature, humidity, dew point, wind chill)
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- AVM-4000 series Anemometers (anemometers for wind speed, temperature, relative humidity, dew point, wind chill, heat index, air pressure)
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- LCA-301 series Anemometers (anemometers with winged wheel to determine the speed and the volumetric flow of the air)
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- P-770-M series Anemometers (anemometers to measure the speed and temperature of air and water, max. 40 m/s, USB)
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- PCE-007 series Anemometers (accurate anemometers with connection port, memory, software, temperature and air flow)
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- PCE-008 series Anemometers  (accurate anemometers to calculate volume of air current and RS-232 interface, internal memory and software)
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- KM series Anemometers (winged wheel anemometers to measure air, temperature and humidity)
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- MiniAirJunior series Anemometers (anemometers for measurements in heating systems, air and ventilation systems)
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- MiniAir20 / MiniWater20 series Anemometers (anemometers to measure very low flow speed / automatic probe detection)
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- PCE-TA 30 series Anemometers (anemometers to measure flow velocity, temperature and air volume)
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- PCE-423 series Anemometers (anemometers with telescopic probe measure air velocity and temperature, USB and software)
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- PCE-424 series Anemometers (anemometers with telescopic probe to measure wind speed and temperature, data-hold function)
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- KM A004 series Anemometers (anemometers with thermal probe for low speeds, temperature measurements)
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- TA-410 series Anemometers (digital thermal anemometers with straight / flexible probe, thermal measurement principle)
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- ThermoAir3 series Anemometers (anemometers to measure low air flow with a directional or multidirectional sensor)
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- PCE-009 series Anemometers (anemometers with telescopic probe, internal memory, RS-232, software, etc)
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- PCE-WL 1 series Anemometers  (anemometers to register wind for mobile applications, data logger with SD card, wind sensor)
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- PCE-FWS 20 series Anemometers (anemometers to measure temperature, humidity, pluviometry, wind speed, logger)
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- WatchDog series Anemometers (cup anemometers to measure temperature, humidity, pluviometry, wind speed, logger)
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- PCE-PFM 2 series Anemometers (anemometers to measure flow speed with a pitot tube, data storage and software)
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- PVM-620 series Anemometers (pressure manometer with pitot tube, high accuracy, data logging function and software)
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- PCE-VS series Anemometers (anemometers to measure flow both in pipelines and ventilation ducts for air or water)
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- X8 and X16 series Anemometers (anemometers to determine the air flow speed and the volumetric flow / minimum loading loss)
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- PCE-VR series Anemometers (anemometers to measure air flow in m³/h in pipelines and ventilation ducts, max.10.000 m³/h)
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Some anemometers, for example, the PCE-007 and the AVM-4000 have internal memory and can transfer the data to a computer for further analysis by means of an RS-232 cable and appropriate software.
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PCE-007 series anemometers with port and cable
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Cup anemometers PCE-A 420 measure wind speed
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Software for the PCE-007 series anemometers (with data logger)
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ISO calibration certificate for anemometers
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The following images show two anemometers in use. On the left we have the PCE-007 anemometer measuring air velocity in an installation of ecological turbines; to the right is the PCE-009 anemometer measuring air current of an extractor in a paint room. As you can see, the use of anemometers are practically unlimited.
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Taking a measurement with the PCE-007 series anemometers
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Testing the air velocity of an extractor with the PCE-009 anemometers
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(Conversion information for units used by anemometers)
General information regarding anemometers each with an exemplary link to a typical device: The anemometer (in Greek anemos = wind) tend to measure wind velocity. The wind velocity will be standardized with an anemometer at an elevation of 10 meters since ground wind velocity varies extremely locally. The measurement can be made thermally (hot wire anemometers), by wind cooling of a heat wire as well as mechanical (side wheel anemometers) or by pressure (pitot tube anemometer) depending on construction type. The newest technology uses ultrasound. These kinds of devices are very expensive compared to the additional value of a better result.
Thermo anemometer / hot-wire anemometer A sensor element will be heated up by electricity while using a hot-wire anemometer. The electrical resistance changes due to heating of the component of the thermo anemometer. The heat will be emitted into the environment owing to the passing ait flow. The transfer of heat is connected with the flow velocity. The hot-wire anemometer measures the electrical parameters. So the hot-wire anemometer can draw conclusions with reference to velocity of flow. The sensor in a thermo anemometer can be executed as wire, similar to the Hot-wire Anemometer PCE-424, or like thin film similar to the Thermo Anemometer PCE-423. The measurement with a thermo anemometer always takes place in dependence with wind direction. Hot-wire anemometers are often used for blower door measurements.
Vane-anemometer An angular momentum will be triggered by wind that encounters the vanes when using a vane anemometer. The anemometer presents the emerged rotation on the display. For instance, a forked light barrier gives the measurement impulse to the evaluation electronic during the usage of the vane anemometer. Problems with the vane anemometer occur due to the start-up speed since a certain wind velocity is needed to drive the vane. Modern vane anemometers avoid these problems, since they are executed very small and so frictional force at the anemometer can be minimized. It must be kept in mind that measuring direction-independent with a vane anemometer is impossible. Vane anemometers are often used for sailing or aviation sports.
Pitot tube Anemometer The measurement of wind velocity with a pitot tube anemometer is preformed via differential pressure. The pitot tube anemometer documents the pressure, that encounters the pitot tube as well as the pressure that exists around the pitot tube. Through the measurement of differential pressure and a conversion the pitot tube anemometer can conclude on the velocity flow. Pitot tube anemometers are used to measure high velocities of flow. The pitot tube anemometer can also be used in the aircraft industry or in motor racing. The measurement direction of the anemometer is always the wind direction.
Cup anemometer Cup anemometers are used when wind force should be determined direction-independent. The operational principle is similar as for vane anemometers. The wind encounting on half shells triggers an angular momentum: This angular momentum will be transformed into electrical signals via electronics. The presentation of wind velocity at this cup anemometer usually takes place on an LC display. Cup anemometers will be used in meteorology or for determination of wind situations before commissioning of wind power station. For this purpose the wind logger PCE-WL1 will be used often.
Ultrasonic anemometer The ultrasonic anemometer works with 4 ultrasonic transmitters and ultrasonic receivers respectively. A propagation delay of the signal is caused due to the wind that flows between the ultrasonic components. The ultrasonic anemometer measures the delay; therefore it can draw conclusions regarding the flow velocity. The advantage of an ultrasonic anemometer compared to a conventional anemometer is that no wearing parts exist. Another advantage is that along with the flow velocity the flow direction can be measured precisely with the ultrasonic anemometer. The ultrasonic anemometer will be used in meteorology, agricultural industry as well as in shipping.
Since for many of the anemometers the volume flow of a flow channel can be shown on the display directly by indicating the cross sectional area. Therefore complicated conversion can be avoided since the formulas saved in the measuring instrument contain weighting for edges of flow or core flow at the same time. Please note that the probe of the measuring instrument (propeller, thermal flag or pitot tube) has to be hold centrically and absolutely in flow as well as in flow direction. You can also elliptical drive along the flow cross-section (for devices with averaging calculation) to reach optimal solutions. Directional arrows are affixed on many anemometers. Please note the enclosed instructions for using. If you place the sensor the wrong way around into the air flow wrong measurement results can occur or the anemometer can even be destroyed. For instance, by using devices with impeller due to the fact that the impellers have a fixed running direction. Please make sure that no dust particles are in the air you want to measure since thin flag can be destroyed easily by impacting particles. Since the sensor is the most important as well as most expensive part of the device the complete anemometer would be unusable in case of destruction. Please use a vane anemometer for light charged media or a pitot tube anemometer as of a minimal flow velocity of 5 m/s. These devices are very accurate, extremely robust and cover a wide range of velocity.
If you wish to view or print the selection of anemometers in our catalogue, click the PDF symbol 
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