Write an article using the following points:

Scientists in Israel have revealed new rotation speed for the ringed planet.
Previously it was thought to rotate in 10 hours, 39 minutes and 22 seconds.
But new figure of 10 hours, 32 minutes and 45 seconds is more accurate.
This is based on measuring its gravitational field, shape and density.
The same method correctly calculated the rotation speed of Jupiter.
If you’re a Saturnian, it’s time to reset your clocks because it’s been discovered that a day lasts just 10 hours, 32 minutes and 45 seconds - seven minutes shorter than previously thought. Saturn’s rotation period - the time it takes to rotate once around its axis - has been notoriously difficult to estimate in the past because of the planet’s unique properties. But using measurements of the ringed planet’s gravitational field combined with its shape and density, scientists have determined a more exact value for a day on the planet. Scientists in Israel have revealed a new estimated rotation speed for the ringed planet (shown). Previously it was thought to rotate in 10 hours, 39 minutes and 22 seconds. But new figure of 10 hours, 32 minutes and 45 seconds is more accurate. This is based on measuring its gravitational field, shape and density. The research was carried out by scientists at Tel Aviv University in Israel. Radio measurements by the Voyager spacecraft had estimated Saturn's day at 10 hours, 39 minutes and 22.4 seconds in the 1980s. In 2006, astronomers used more advanced equipment to measure the planet's rotation ending up with a measurement of about 10 hours and 47 minutes. But an estimate that was 12 minutes shorter in 2009 only added to the confusion. Mercury: 58 days and 15 hours. Venus: 243 days. Earth: 23 hours, 56 minutes, 4 seconds. Mars: 24 hours, 39 minutes, 35 seconds. Jupiter: 9.9 hours. Saturn: 10 hours, 32 minutes and 45 seconds. Uranus: 17 hours, 14 minutes and 24 seconds. Neptune: 16 hours, 6 minutes and 36 seconds. The new method, though, provides what might be the most accurate reading so far. Gas giants - such as Saturn and Jupiter - do not have solid objects on their surface that allow their rotation period to be observed, so other methods of finding this property must be found. The same formula came up with the correct rotation period of Jupiter - which was already known owing to its tilted magnetic field. Saturn’s magnetic pole is aligned with its rotational axis and this means - unlike Jupiter - its rotation period cannot be calculated using the magnetic field alone. But verifying the method with Jupiter allowed scientists to apply the same technique to Saturn. Alternative methods such as measuring Saturn’s radio emissions or wind field, or tracking the planet’s clouds, had only served to increase uncertainty and resulted in a rotation period of between 10 hours and 32 minutes and 10 hours and 47 minutes. The same method came up with the correct rotation period of Jupiter (pictured) - which was already known owing to its tilted magnetic field. Verifying the method with Jupiter allowed scientists to apply the same technique to Saturn and come up with the revised estimate. Scientists used measurements of the ringed planet’s gravitational field combined with its shape and density, some of which was gathered by the Cassini spacecraft in orbit (artist's illustration shown) ‘The alignment of Saturn’s magnetic pole with its rotation axis precludes the use of magnetic field measurements to determine its rotation period,’ said planetary scientist Dr Ravit Helled of Tel Aviv University. ‘Here we report a period of 10 hours 32 minutes 45 seconds (plus or minus 46 seconds) based upon an optimisation approach using Saturn’s measured gravitational field and limits on the observed shape and possible internal density profiles. ‘To validate our method we applied the same procedure to Jupiter and correctly recovered its well-known rotation period.’ Gas giants - such as Saturn and Jupiter - do not have solid objects on their surface that allow their rotation period to be observed, so other methods of finding this property must be found. The study, published online in Nature, could be used in the future to derive the rotation period of other giant planets and planets outside our solar system.
Skriv en artikel som använder följande punkter: Forskare i Israel har avslöjat ny rotationshastighet för den ringformade planeten. Tidigare trodde man att den roterade på 10 timmar, 39 minuter och 22 sekunder. Men en ny siffra på 10 timmar, 32 minuter och 45 sekunder är mer exakt. Detta bygger på att mäta dess gravitationsfält, form och densitet. Samma metod beräknade korrekt Jupiters rotationshastighet.
Write an article that uses the following points: Scientists in Israel have revealed new rotational velocity for the ring-shaped planet. Previously it was thought to rotate in 10 hours, 39 minutes and 22 seconds. But a new figure of 10 hours, 32 minutes and 45 seconds is more accurate. This is based on measuring its gravitational field, shape, and density. The same method correctly calculated Jupiter's rotational speed.
Om du är en Saturnian, är det dags att återställa dina klockor eftersom det har upptäckts att en dag varar bara 10 timmar, 32 minuter och 45 sekunder - sju minuter kortare än man tidigare trott. Saturnus rotationsperiod - den tid det tar att rotera en gång runt sin axel - har varit notoriskt svår att uppskatta förr på grund av planetens unika egenskaper. Men med hjälp av mätningar av den ringformade planetens gravitationsfält i kombination med dess form och densitet har forskarna fastställt ett mer exakt värde för en dag på planeten. Forskare i Israel har avslöjat en ny beräknad rotationshastighet för den ringformade planeten (visad). Tidigare trodde man att den roterade på 10 timmar, 39 minuter och 22 sekunder. Men en ny siffra på 10 timmar, 32 minuter och 45 sekunder är mer exakt. Detta bygger på att mäta dess gravitationsfält, form och densitet. Forskningen utfördes av forskare vid Tel Aviv University i Israel. Radiomätningar av rymdfarkosten Voyager hade uppskattat Saturnus dag till 10 timmar, 39 minuter och 22,4 sekunder under 1980-talet. År 2006 använde astronomer mer avancerad utrustning för att mäta planetens rotation som slutade med ett mått på cirka 10 timmar och 47 minuter. Men en uppskattning som var 12 minuter kortare 2009 tillförde bara förvirringen. Kvicksilver: 58 dagar och 15 timmar. Venus: 243 dagar. Jorden: 23 timmar, 56 minuter, 4 sekunder. 24 timmar, 39 minuter, 35 sekunder. Jupiter: 9.9 timmar. 10 timmar, 32 minuter och 45 sekunder. Uranus: 17 timmar, 14 minuter och 24 sekunder. 16 timmar, 6 minuter och 36 sekunder. Den nya metoden ger emellertid vad som kan vara den mest exakta läsningen hittills. Gasjättar - som Saturnus och Jupiter - har inte fasta föremål på sin yta som gör att deras rotationsperiod kan observeras, varför andra metoder för att hitta denna egenskap måste hittas. Samma formel kom fram till Jupiters korrekta rotationsperiod - som redan var känd på grund av dess lutande magnetfält. Saturnus magnetiska pol är i linje med dess rotationsaxel och detta innebär - till skillnad från Jupiter - att dess rotationsperiod inte kan beräknas enbart med hjälp av magnetfältet. Men att verifiera metoden med Jupiter tillät forskare att tillämpa samma teknik på Saturnus. Alternativa metoder som att mäta Saturnus radioemissioner eller vindfält, eller spåra planetens moln, hade bara tjänat till att öka osäkerheten och resulterade i en rotationsperiod på mellan 10 timmar och 32 minuter och 10 timmar och 47 minuter. Samma metod kom fram till den korrekta rotationsperioden för Jupiter (bildad) - som redan var känd på grund av sitt lutade magnetfält. Verifiering av metoden med Jupiter tillät forskare att tillämpa samma teknik på Saturnus och komma fram till den reviderade uppskattningen. Forskare använde mätningar av den ringformade planetens gravitationsfält i kombination med dess form och densitet, varav en del samlades in av rymdfarkosten Cassini i omloppsbana (artistens illustration visade) ”Sammanfogningen av Saturnus magnetiska pol med dess rotationsaxel utesluter användning av magnetiska fältmätningar för att bestämma dess rotationsperiod”, sade planetforskaren Dr Ravit Helled vid Tel Aviv University. ”Här rapporterar vi en period på 10 timmar 32 minuter 45 sekunder (plus eller minus 46 sekunder) baserat på en optimerings inflygning med Saturnus uppmätta gravitationsfält och gränser för observerad form och eventuella interna täthetsprofiler. – För att validera vår metod tillämpade vi samma procedur på Jupiter och återvann korrekt dess välkända rotationsperiod. Gasjättar - som Saturnus och Jupiter - har inte fasta objekt på sin yta som gör att deras rotationsperiod kan observeras, så andra metoder för att hitta denna egenskap måste hittas. Studien, som publicerades online i Nature, kunde i framtiden användas för att härleda rotationsperioden för andra jätteplaneter och planeter utanför vårt solsystem.
If you are a Saturnian, it is time to restore your watches because it has been discovered that one day lasts only 10 hours, 32 minutes and 45 seconds - seven minutes shorter than previously thought. Saturn's rotation period - the time it takes to rotate once around its axis - has been notoriously difficult to estimate in the past due to the unique properties of the planet. But using measurements of the gravity field of the ring-shaped planet combined with its shape and density, scientists have determined a more accurate value for a day on the planet. Scientists in Israel have revealed a new calculated rotational rate for the ring-shaped planet (shown). Previously it was thought to rotate in 10 hours, 39 minutes and 22 seconds. But a new figure of 10 hours, 32 minutes and 45 seconds is more accurate. This is based on measuring its gravitational field, shape, and density. The research was carried out by researchers at Tel Aviv University in Israel. Radio measurements of the Voyager spacecraft had estimated Saturn's day at 10 hours, 39 minutes, and 22.4 seconds in the 1980s. In 2006, astronomers used more advanced equipment to measure the planet's rotation ending with a measure of about 10 hours and 47 minutes. But an estimate 12 minutes shorter in 2009 only added to the confusion. Mercury: 58 days and 15 hours. Venus: 243 days. Earth: 23 hours, 56 minutes, 4 seconds. 24 hours, 39 minutes, 35 seconds. Jupiter: 9.9 hours. 10 hours, 32 minutes, 45 seconds. Uranus: 17 hours, 14 minutes and 24 seconds. 16 hours, 6 minutes and 36 seconds. However, the new method provides what may be the most accurate reading to date. Gas giants - such as Saturn and Jupiter - do not have fixed objects on their surface that allow their rotation period to be observed, so other methods of finding this property must be found. The same formula arrived at Jupiter's correct rotation period - which was already known due to its inclined magnetic field. Saturn's magnetic pole is in line with its axis of rotation and this means - unlike Jupiter - that its rotation period cannot be calculated solely by means of the magnetic field. However, verifying the method with Jupiter allowed researchers to apply the same technique to Saturn. Alternative methods such as measuring Saturn's radio emissions or wind fields, or tracking the planet's clouds, had only served to increase uncertainty and resulted in a rotation period of between 10 hours and 32 minutes and 10 hours and 47 minutes. The same method arrived at the correct rotation period for Jupiter (formed) - which was already known due to its inclined magnetic field. Verification of the method with Jupiter allowed researchers to apply the same technique to Saturn and arrive at the revised estimate. Scientists used measurements of the ring-shaped planet's gravitational field in combination with its shape and density, some of which were collected by the Cassini spacecraft in orbit (artist's illustration showed) "The joining of Saturn's magnetic pole with its rotation axis excludes the use of magnetic field measurements to determine its rotation period," said planetary scientist Dr. Ravit Helled of Tel Aviv University. “Here we report a period of 10 hours 32 minutes 45 seconds (plus or minus 46 seconds) based on an optimization approach with Saturn’s measured gravitational field and observed shape limits and any internal density profiles. “To validate our method, we applied the same procedure to Jupiter and correctly regained its well-known rotation period. Gas giants - such as Saturn and Jupiter - do not have fixed objects on their surface that allow their rotation period to be observed, so other methods for finding this property must be found. The study, published online in Nature, could in the future be used to derive the rotation period for other giant planets and planets outside our solar system.