Examples of using Physics laboratories in English and their translations into Polish
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Time signal radio signals come from various physics laboratories.
Fortunately many countries' national physics laboratories broadcast a time and frequency signal from a radio transmitter.
Some NTP servers can receive radio waves broadcast from physics laboratories.
UTC, however, is broadcast directly from physics laboratories and is available by using a radio referenced NTP server.
These signals are broadcast on long wave by several national physics laboratories.
Long wave radio signals as broadcast by national physics laboratories and the GPS signal which is available everywhere on the globe.
The long wave radio transmissions are broadcast by several national physics laboratories.
Many national physics laboratories from across the globe broadcast atomic clock signals via radio waves usually long wave.
Radio signals- broadcast by national physics laboratories like NPL and NIST.
The atomic clocks that preserve the accuracy of UTC are located in national physics laboratories.
However, several national physics laboratories broadcast the time told by their atomic clocks via a long wave radio transmission.
However, they are extremely expensive and are generally only to be found in large-scale physics laboratories.
Only certain countries have a time signal broadcast from their national physics laboratories and these signals are finite and vulnerable to interference.
However, they are extremely expensive and are generally only to be found in large-scale physics laboratories.
Alternatively, many countries' national physics laboratories such as NIST in the USA and NPL in the UK, transmit a time signal from their atomic clocks.
However, atomic clocks are extremely expensive andare generally only to be found in large-scale physics laboratories.
The GPS network(Global Positioning System)or national physics laboratories long wave radio transmissions.
These can receive the time from the GPS network orradio transmissions broadcast by national physics laboratories.
These NTP GPS time servers are as accurate as those that receive the time from physics laboratories but use the weaker, line of sight GPS signal as their source.
However, atomic clocks are extremely expensive and are generally only to be found in large-scale physics laboratories.
The atomic clocks signals broadcast by the physics laboratories can be received and the clock regularly adjusts itself to ensure that the clock is accurate to UTC to the second.
Radio referenced signals like MSF andWWVB are broadcast on long wave from physics laboratories like NIST and NPL.
The radio transmission broadcast from national physics laboratories such as MSF, DCF or WWVB are all based on UTC and so the time servers do not need to do any conversion.
These devices receive a broadcasted timestamp distributed by either national physics laboratories or via the GPS satellite network.
Fortunately national physics laboratories like NIST(National Institute for Standards and Time- USA) and NPL(National Physical Laboratory- UK) broadcast the time signal from their atomic clocks.
The first is to utilise the national time andfrequency transmissions that several countries broadcast from their national physics laboratories.
UTC is governed by a constellation of atomic clocks controlled by national physics laboratories such as NIST(National Institute of Standards and Time) and the UK's NPL.
There is another alternative however, and that is to use the national time andfrequency transmissions broadcast by several national physics laboratories.
The time is often got from the GPS network orradio signals broadcast from physics laboratories such as NPL in the UK whose signal is broadcast from Cumbria.
These are either the GPS network(Global Positioning System) orspecialist radio transmission broadcast on long wave from several of the world's national physics laboratories.