You will need to set your WeatherLink Console to listen
to this transmitter ID. The old console will become one of
your “Stations and Sensors.” To add it, go to the Accounts
screen, choose Console Conguration, then choose Stations
and Sensors. Tap the ID number that the old console is
retransmitting on. On the next screen, choose Vantage Pro2 or
Vantage Vue depending on your sensor suite.
page–16
davisinstruments.com
DAVIS|WeatherLink Console User Guide
Note:Wind chill is not calculated above 92° F (33° C).
Appendices
APPENDIX A: WEATHER DATA
Refer to this appendix to learn more about the weather
variables that are measured, displayed, and logged by your
Console. Some weather variables require optional sensors.
Wind
The anemometer measures wind speed and direction. The
Console calculates a 10-minute average wind speed and
10-minute dominant wind direction. The 10-minute average
wind speed is displayed in the Console ticker whenever wind
has been selected on the Console. The last six 10-minute
dominant wind directions are included in the compass rose
wind display.
Temperature
The sensor suite houses the outside temperature sensor in
a vented and shielded enclosure that minimizes the solar
radiation induced temperature error. The Console houses the
inside temperature sensor. Additional temperature sensors
are available for wireless stations and can measure up to eight
locations.
Apparent Temperatures
Your Console calculates three apparent temperature readings:
Wind Chill, Heat Index, and the Temperature/Humidity/Sun/
Wind (THSW) Index. Apparent temperatures use additional
weather data to calculate what a human body perceives the
temperature to be in those conditions.
Wind chill
Wind chill takes into account how the speed of the wind affects
our perception of the air temperature. Our bodies warm the
surrounding air molecules by transferring heat from the skin.
If there’s no air movement, this insulating layer of warm air
molecules stays next to the body and offers some protection
from cooler air molecules. However, wind sweeps that warm
air surrounding the body away. The faster the wind blows, the
faster heat is carried away and the colder you feel. Wind has a
warming effect at higher temperatures.
Heat Index
The Heat Index uses temperature and the relative humidity
to determine how hot the air actually “feels.” When humidity
is low, the apparent temperature will be lower than the air
temperature since perspiration evaporates rapidly to cool
the body. However, when humidity is high (i.e., the air is more
saturated with water vapor) the apparent temperature “feels”
higher than the actual air temperature, because perspiration
evaporates more slowly.
Temperature/Humidity/Sun/ Wind (THSW) Index
The THSW Index uses humidity and temperature like for the
Heat Index, but also includes the heating effects of sunshine
and the cooling effects of wind (like wind chill) to calculate an
apparent temperature of what it “feels” like out in the sun. The
THSW Index requires a solar radiation sensor.
Humidity
Humidity itself simply refers to the amount of water vapor
in the air. However, the total amount of water vapor that the
air can contain varies with air temperature and pressure.
Relative humidity takes into account these factors and offers
a humidity reading which reects the amount of water vapor
in the air as a percentage of the amount the air is capable of
holding. Relative humidity, therefore, is not actually a measure
of the amount of water vapor in the air, but a ratio of the air’s
water vapor content to its capacity. When we use the term
humidity in the manual and on the screen, we mean relative
humidity.
It is important to realize that relative humidity changes with
temperature, pressure, and water vapor content. A parcel of
air with a capacity for 10 g of water vapor which contains 4 g
of water vapor, the relative humidity would be 40%. Adding 2 g
more water vapor (for a total of 6 g) would change the humidity
to 60%. If that same parcel of air is then warmed so that it has
a capacity for 20 g of water vapor, the relative humidity drops
to 30% even though water vapor content does not change.
Relative humidity is a crucial factor in determining the amount
of evaporation from plants and wet surfaces since warm air
with low humidity has a large capacity to absorb extra water
vapor.
page–17
davisinstruments.com
DAVIS|WeatherLink Console User Guide
Dew Point
Dew point is the temperature to which air must be cooled
for saturation (100% relative humidity) to occur, providing
there is no change in water vapor content. The dew point is an
important measurement used to predict the formation of dew,
frost, and fog. If dew point and temperature are close together
in the late afternoon when the air begins to turn colder, fog
is likely during the night. Dew point is also a good indicator of
the air’s actual water vapor content, unlike relative humidity,
which takes the air’s temperature into account. High dew point
indicates high water vapor content; low dew point indicates low
water vapor content. In addition, a high dew point indicates a
better chance of rain, severe thunderstorms, and tornadoes.
You can also use dew point to predict the minimum overnight
temperature. Provided no new fronts are expected overnight
and the afternoon relative humidity is greater than or equal
to 50%, the afternoon’s dew point gives you an idea of what
minimum temperature to expect overnight, since the air can
never get colder than the dew point. Dew point is equal to air
temperature when humidit y = 100%.
Rain
Your Vantage Pro2 or Vantage Vue sensor suite uses a tipping
spoon rain collector that measures 0.01” or 0.2mm for each tip
of the spoon. Your Console logs rain data in the same units it
is measured in and converts the logged totals into the selected
display units (inches or millimeters) at the time it is displayed.
Four separate variables track rain totals: “rain storm,” “daily
rain,” “monthly rain,” and “yearly rain.” Rain rate calculations
are based on the interval of time between each bucket tip,
which is each 0.01’’ rainfall increment or 0.2 mm.
Barometric Pressure
The weight of the air that makes up our atmosphere exerts
pressure on the surface of the earth. This pressure is
known as atmospheric pressure. Generally, the more air
above an area, the higher the atmospheric pressure, this
means that atmospheric pressure changes with altitude.
For example, atmospheric pressure is greater at sea level
than on a mountaintop. To compensate for this difference
and facilitate comparison between locations with different
altitudes, atmospheric pressure is generally adjusted to the
equivalent sea level pressure. This adjusted pressure is known
as barometric pressure. The Console measures atmospheric
pressure. When you enter your location’s altitude, the Console
stores the necessary offset value to consistently translate
atmospheric pressure into barometric pressure.
Barometric pressure also changes with local weather
conditions, making barometric pressure an extremely
important and useful weather forecasting tool. High-
pressure zones are generally associated with fair weather
while low-pressure zones are linked with poor weather. For
forecasting purposes, however, the absolute barometric
pressure value is generally less important than the change
in barometric pressure. In general, rising pressure indicates
improving weather conditions while falling pressure indicates
deteriorating weather conditions.
Solar Radiation
What we call “current solar radiation” is technically known as
Global Solar Radiation, a measure of the intensity of the sun’s
radiation reaching a horizontal surface. This irradiance includes
both the direct component from the sun and the reected
component from the rest of the sky. The solar radiation
reading gives a measure of the amount of solar radiation
hitting the solar radiation sensor at any given time, expressed
in Watts/sq. meter (W/m2). Solar radiation requires the solar
radiation sensor.
UV (Ultraviolet) Radiation
Energy from the sun reaches the earth as visible, infrared,
and ultraviolet (UV) rays. Exposure to UV rays can cause
numerous health problems, such as sunburn, skin cancer,
skin aging, cataracts, and can suppress the immune system.
The Vantage Pro2 helps analyze the changing levels of UV
radiation and can advise of situations where exposure is
particularly unacceptable. UV radiation requires the UV
radiation sensor. The Console displays UV readings in two
scales: MEDs and UV Index.
page–18
davisinstruments.com
DAVIS|WeatherLink Console User Guide
Note: Your station’s UV readings do not take into
account UV reected off snow, sand, or water, which
can signicantly increase your exposure. Nor do your UV
readings take into account the dangers of prolonged UV
exposure. The readings do not suggest that any amount
of exposure is safe or healthful. Do not use your Console
to determine the amount of UV radiation to which you
expose yourself. Scientic evidence suggests that UV
exposure should be avoided and that even low UV doses
can be harmful.
UV MEDs
MED (Minimum Erythemal Dose) is dened as the amount of
sunlight exposure necessary to induce a barely perceptible
redness of the skin within 24 hours after sun exposure. In
other words, exposure to 1 MED will result in a reddening of
the skin. Because different skin types burn at different rates,
1 MED for persons with very dark skin is different from 1 MED
for persons with very light skin.
Both the U.S. Environmental Protection Agency (EPA) and
Environment Canada have developed skin type categories
correlating characteristics of skin with rates of sunburn.
UV Index
The Console can also display UV Index, an intensity
measurement rst dened by Environment Canada and since
been adopted by the World Meteorological Organization. UV
Index assigns a number between 0 and 16 to the current UV
intensit y. The US EPA categorizes the Index values as shown
in table A-3. The lower the number, the lower the danger
of sunburn. The Index value published by the U.S. National
Weather Service is a forecast of the next day’s noontime
UV intensity. The index values displayed are real-time
measurements.
page–19
davisinstruments.com
DAVIS|WeatherLink Console User Guide
Evapotranspiration (ET)
Evapotranspiration (ET) is a measurement of the amount of
water vapor returned to the air in a given area. It combines
the amount of water vapor returned through evaporation
(from wet surfaces) with the amount of water vapor returned
through transpiration (exhaling of moisture through plant
stomata) to arrive at a total. Effectively, ET is the opposite
of rainfall, and it is expressed in the same units of measure
(inches, millimeters).
The Console uses air temperature, relative humidity, average
wind speed, and solar radiation data to estimate ET, which is
calculated once an hour on the hour. ET requires the optional
solar radiation sensor.
Leaf Wetness
Leaf wetness provides an indication of whether the surface
of foliage in the area is wet or dry by indicating how wet the
surface of the sensor is. The leaf wetness reading ranges
from 0 (dry) to 15. Leaf wetness requires an optional Leaf &
Soil Moisture/Temperature Station and is only available for
Wireless Vantage Pro2 Stations.
Soil Moisture
Soil Moisture, as the name suggests, is a measure of the
moisture content of the soil. Soil moisture is measured on a
scale of 0 to 200 centibars and can help choose times to water
crops. The soil moisture sensor measures the vacuum created
in the soil by the lack of moisture. A high soil moisture reading
indicates dryer soil; a lower soil moisture reading means
wetter soil. Soil Moisture requires an optional Leaf & Soil
Moisture/Temperature Station or Soil Moisture Station and is
only available for Wireless Vantage Pro2 Stations.
Time
The Console has a built-in clock and calendar for time and
date. When connected to Wi-Fi, the user sets the location and
the Console then automatically sets the current time/date,
and time zone, as well as determining whether Daylight Saving
Time is in use.
page–20
davisinstruments.com
DAVIS|WeatherLink Console User Guide
APPENDIX B: SPECIFICATIONS
Console Operating Temperature+32° to +122° F (0° to +50° C)
Non-Operating (Storage) Temperature-20° to +60° C (-4° to +60° C)
Console Current Draw2A max
Power Adapter5 VDC, 2000 mA
Battery BackupLithium Polymer
Battery Life (no AC power)Less than one day when fully charged
Console Display TypeIn-Plane Switching LED
Dimensions
Console8.25” x 6” x 0.75” (210mm x 152mm x 19mm)
Display Area6.75” X 4.25” (171mm x 107mm)
Weight1.1 pounds (501 grams)
Wireless Communication Specications and Receive Frequencies:
USA902 - 928 MHz FHSS
EU868.0 - 868.6 MHz FHSS
Australia, Brazil918 - 926 MHz FHSS
New Zealand, Peru921 - 928 MHz FHSS
India865 - 867 MHz FHSS
Japan928.15 - 929.65 MHz FHSS
Taiwan, Pakistan920 - 925 MHz FHSS
ID codes available8
Range
Line of Sightup to 1000 feet (300 m)
Through Walls200 to 400 feet (75 to 120 m)
page–21
davisinstruments.com
DAVIS|WeatherLink Console User Guide
APPENDIX C: UPDATE INTERVALS AND WEATHER DATA SPECIFICATIONS
Update Intervals by Sensor
Barometric Pressure1 minute
Barometer
Inside Humidity1 minute
Outside Humidity50 seconds
Humidity
Dew Point10 seconds
Rainfall Amount20 seconds
Rain
Rain Storm Amount20 seconds
Rain Rate20 seconds
Inside Temperature1 minute
Temperature
Outside Temperature10 seconds
Heat Index10 seconds
Wind Chill10 Seconds
Wind Speed2.5 seconds
Wind
Wind Direction2.5 seconds
Direction of High Speed2.5 seconds
ETEvapotranspiration1 hour
page–22
davisinstruments.com
DAVIS|WeatherLink Console User Guide
Specications by Sensor
The following specications may include parameters that require optional sensors that may not be installed on your sensor suite.
VariableResolutionRangeNominal Accuracy
Barometric Pressure**
Barometric Trend (3 hour)
Evapotranspiration (ET)*
Inside Temperature
Outside Temperature*
Extra Temperature
Inside Humidity
Outside Humidity
Extra Humidity
Dew Point
Heat Index
Daily & Storm Rainfall
Monthly & Yearly Rainfall
Rain Rate
Evapotranspiration (ET)
0.01'' Hg; 0.1 mm Hg;
0.1 hPa; 0.1 mb
Change Rates Rapidly:
≥.06'' Hg; 1.5 mm Hg; 2 hPa; 2 mb
Slowly: ≥.02'' Hg; 0.5 mm Hg; 0.7
hPa; 0.7 mb
0.01''; 0.1 mm199.99''; 1999.9mmGreater of 5% or 0.01'';
0.1ºF; 0.1ºC+32º to +140ºF; 0 to +60ºC0.4ºF; 0.2ºC
0.1ºF; 0.1ºC-40º to +150ºF; -40º to +65ºC0.5º F, 0.3ºC Pro
0.1ºF; 0.1ºC-40º to +150ºF; -40º to +65ºC1ºF; 0.5ºC
1%1 to 100%2% RH
1%1 to 100%2% RH
1%1 to 100%2% RH
1ºF; 1ºC105º to +130ºF; -76º to +54ºC2ºF; 1ºC
1ºF; 1ºC- 40ºto +165ºF; -40º to +74º C2ºF; 1ºC
0.01''; 0.2 mmto 99.99", 999.8 mmGreater of 3% or 1 tip
0.01''; 0.2 mm
(1mm at totals over 2000 mm)
0.01''; 0.1 mmto 40''/hr.; 1016 mm/hr.5% when rate is under 5”/hr.; 127
0.01''; 0.1 mm199.99''; 1999.9 mm greater of 5% or 0.01’’; 0.25 mm
16'' to 32.5'' Hg; 410 to 820 mm Hg;
540 to 1100 hPa; 540 to 1100 mb
5 Arrow Positions: Rising Rapidly
Rising Slowly Steady Falling
Slowly Falling Rapidly
to 199.99''; 6553 mmGreater of 4% or 1 tip
0.03'' Hg; 0.8 mm Hg 1.0 hPa; 1.0 m
0.25 mm
1ºF; 0.5ºC VUE
mm/hr.
Requires Solar Radiation Sensor
Solar Radiation
1 W/m20 to 1800 W/m25% of full scale
Requires Solar Radiation Sensor
UV Index
0.1 Index0.0 to 16.05% of full scale
Requires UV Sensor
Wind Direction
Compass Rose
Wind Speed
Wind Chill
Leaf Wetness
1º1 to 360º3º
22.5º16 compass pts.
1 mph; 1 kt; 0.5 m/s; 1 km/h0 to 200 mph; 0 to 173 kts 3 to
322 km/h, 0 to 89 m/s
1ºF; 1ºC-110º to +135ºF -79º to +57ºC2ºF; 1ºC
10 to 150.5
Greater of 2 mph/kts; 1 m/s; 3
km/h or 5%
(on Leaf & Soil Stn.)
Leaf Wetness
1 cb0 to 200 cb
(on Leaf & Soil Stn.)
* Outside temperature accuracy is based on the temperature sensor itself and not on the sensor and the passive shielding together. The solar radiation induced
error for the radiation shield: +4ºF (2ºC) at solar noon with the wind speed at less than or equal to 2 mph (1 m/s); The higher the wind speed, the less solar
radiation induced error.
**Barometric pressure readings are standardized to sea level. Elevation Range: -1410’ to +15,000’; -600 to +4660 m.
page–23
davisinstruments.com
DAVIS|WeatherLink Console User Guide
APPENDIX D: WIRELESS REPEATER CONFIGURATION
A Vantage Pro2 Wireless Repeater (#7627) or Long-Range Wireless Repeater (#7654) increase transmission distances or improve
transmission quality between a station and the Console. A repeater receives information transmitted from a transmitting
station and retransmits it to the Console. Depending on transmission distance, one repeater or several repeaters can be used to
collect and retransmit weather data. Console communicating with repeaters must be set up with the correct Transmitter ID and
Repeater ID before the Console can correctly receive station information.
1. On the Account tab, tap Console Conguration, then tap the pencil icon on Stations and Sensors.
2. Scroll down to the sensor you want to retransmit and tap Edit, then tap Advanced Settings.
3. In the Repeater eld, tap > and choose the repeater name that you want console to listen to. If you have more than
one this is the one that is closest to the Console. Tap Save Changes.
4. To verify that you have successfully set up your console to receive the repeater, wait 15 minutes to see data appear.
FCC Part 15 Class B Registration Warning
This equipment has been tested and found to comply with the limits for a Class B digital device, pursuant to Part 15 of the FCC
Rules. These limits are designed to provide reasonable protection against harmful interference in a residential installation. This
equipment radiates radio frequency energy and, if not installed and used in accordance with the instructions, may cause harmful
interference to radio communications.
However, there is no guarantee that interference will not occur in a particular installation.
This device complies with part 15 of the FCC Rules. Operation is subject to the following two conditions: (1) this device may not
cause harmful interference, and (2) this device must accept any interference, including interference received, including inference
that may cause undesired operation.
If this equipment does cause harmful inter ference to radio or television reception, which can be determined by turning the
equipment on and off, the user is encouraged to try to correct the interference by one or more of the following measures:
• Reorient or relocate the receiving antenna.
• Increase the separation between the equipment and receiver.
• Connect the equipment into an outlet on a circuit different from that to which the receiver is connected.
• Consult the dealer or an experienced radio/T V technician for help.
This device complies with Industry Canada license-exempt RSS standard(s). Operation is subject to the following two conditions:
(1) this device may not cause interference, and (2) this device must accept any interference, including interference that may cause
undesired operation of the device.
Le présent appareil est conforme aux CNR d’Industrie Canada applicables aux appareils radio exempts de licence. L’exploitation
est autorisée aux deux conditions suivantes: (1) l’appareil ne doit pas produire de brouillage, et (2) l’appareil doit accepter tout
brouillage radioelectrique subi, même si le brouillage est susceptible d’en compromettre le fonctionnement.
page–24
davisinstruments.com
DAVIS|WeatherLink Console User Guide
Innovation, Science and Economic Development Canada ICES-003 Compliance Label: CAN ICES-3 (B)/NMB-3(B)
Changes or modication not expressly approved in writing by Davis Instruments may void the warranty and void the user’s
authority to operate this equipment.
FCC ID: IR2DWW6313U, IC: 3788A-6313U
Information Regarding Exposure to Radio Frequency Energy: The antenna used for this transmitter must be installed to provide
a separation distance of at least 20 cm from all persons and must not be co-located or operating in conjunction with any other
antenna or transmitter.
Davis Instruments, 3465 Diablo Ave., Hayward, CA 94545
Power Supply Model identier: FX18B-050200J1 or FX18E-040100J1
Input voltage:100-240 VACInput AC frequency:50/60 Hz
Output voltage:5.0 VDCOutput current:2.0 A
Output power:10.0 WAverage active eciency:78.7%
Eciency at low load (10 %): N/A %No-load power consumption<0 .1 W
EC-Declaration of Conformity
Directive 2014/53/EU (RED) and 2014/30/EU (EMC)
Manufacturer/responsible person: Davis Instruments
Compliance Engineer
3465 Diablo Ave., Hayward, CA 94545 USA
Declares that the WeatherLink Console models 6313EU, 6313UK, and 6313USB are in compliance with Directive 2014/53/EU. The
full text of the EU Declaration of Conformity is available at https://www.davisinstruments.com/legal. RoHS Compliant.
WeatherLink Console User Guide
Document number: 7395.402 Rev. A 12/31/2022
For WeatherLink Consoles #6313, 6313EU, 6313UK, 6313USB
Vantage Pro, Vantage Vue, and WeatherLink are registered trademarks of Davis Instruments Corp., Hayward, CA.
Davis Instruments, 2022. All rights reserved.
Information in this document is subject to change without notice. Davis Instruments Quality Management is ISO 9001 certied.
page–25
davisinstruments.com
Loading...
+ hidden pages
You need points to download manuals.
1 point = 1 manual.
You can buy points or you can get point for every manual you upload.