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Rapid intensification

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(Redirected fromRapid deepening)
This article is about tropical cyclones. For extratropical cyclones, seeExplosive cyclogenesis.

Looping animation of a hurricane
Infrared satellite loop ofHurricane Jovaundergoing rapid intensification in September 2023[1][2]

Rapid intensification(RI) is any process wherein atropical cyclonestrengthens dramatically in a short period of time.Tropical cyclone forecasting agenciesutilize differing thresholds for designating rapid intensification events, though the most widely used definition stipulates an increase in themaximum sustained windsof a tropical cyclone of at least 30 knots (55 km/h; 35 mph) in a 24-hour period. However, periods of rapid intensification often last longer than a day. About 20–30% of all tropical cyclones undergo rapid intensification, including a majority of tropical cyclones with peak wind speeds exceeding 51 m/s (180 km/h; 110 mph).

Rapid intensification constitutes a major source of error fortropical cyclone forecasting,and its predictability is commonly cited as a key area for improvement. The specific physical mechanisms that underlie rapid intensification and the environmental conditions necessary to support rapid intensification are unclear due to the complex interactions between the environment surrounding tropical cyclones and internal processes within the storms. Rapid intensification events are typically associated with warmsea surface temperaturesand the availability of moist andpotentially unstableair. The effect ofwind shearon tropical cyclones is highly variable and can both enable or prevent rapid intensification. Rapid intensification events are also linked to the appearance ofhot towersand bursts of strongconvectionwithin the core region of tropical cyclones, but it is not known whether such convective bursts are a cause or a byproduct of rapid intensification.

The frequency of rapid intensification has increased over the last four decades globally, both over open waters and near coastlines. The increased likelihood of rapid intensification has been linked with an increased tendency for tropical cyclone environments to enable intensification as a result ofclimate change.These changes may arise from warming ocean waters and the influence on climate change on the thermodynamic characteristics of thetroposphere.

Definition and nomenclature

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Animated infrared satellite imagery of a tropical cyclone
Hurricane Patricia's 54 m/s (190 km/h; 120 mph) 24-hour wind speed increase was the largest of any tropical cyclone on record.

There is no globally consistent definition of rapid intensification. Thresholds for rapid intensification – by the magnitude of increase inmaximum sustained windsand the brevity of the intensification period – are based on the distribution of high-percentile intensification cases in the respectivetropical cyclone basins.[3]The thresholds also depend on the averaging period used to assess the storm's winds.[4][a]In 2003, John Kaplan of theHurricane Research Divisionand Mark DeMaria of the Regional and Mesoscale Meteorology Team atColorado State Universitydefined rapid intensification as an increase in the maximum one-minute sustained winds of a tropical cyclone of at least 30 knots (55 km/h; 35 mph) in a 24-hour period. This increase in winds approximately corresponds to the 95th percentile ofAtlantic tropical cycloneintensity changes over water from 1989 to 2000.[6][7]These thresholds for defining rapid intensification are commonly used, but other thresholds are utilized in related scientific literature.[8]The U.S.National Hurricane Center(NHC) reflects the thresholds of Kaplan and DeMaria in its definition of rapid intensification.[9]The NHC also defines a similar quantity,rapid deepening,as a decrease in the minimumbarometric pressurein a tropical cyclone of at least 42mbar(1.2inHg) in 24 hours.[10]

Characteristics

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Around 20–30% of all tropical cyclones experience at least one period of rapid intensification, including a majority of tropical cyclones with winds exceeding 51 m/s (180 km/h; 110 mph).[11]The tendency for strong tropical cyclones to have undergone rapid intensification and the infrequency with which storms gradually strengthen to strong intensities leads to a bimodal distribution in global tropical cyclone intensities, with weaker and stronger tropical cyclones being more commonplace than tropical cyclones of intermediate strength.[12]Episodes of rapid intensification typically last longer than 24 hours.[3]Within the North Atlantic, intensification rates are on average fastest for storms with maximum one-minute sustained wind speeds of 70–80 kn (130–150 km/h; 80–90 mph). In theSouth-West Indian Ocean,intensification rates are fastest for storms with maximum ten-minute sustained wind speeds of 65–75 kn (120–140 km/h; 75–85 mph). Smaller tropical cyclones are more likely to undergo quick intensity changes, including rapid intensification, potentially due to a greater sensitivity to their surrounding environments.[13]Hurricane Patriciaexperienced a 54 m/s (190 km/h; 120 mph) increase in its maximum sustained winds over 24 hours in 2015, setting a global record for 24-hour wind speed increase.[14]Patricia also holds the record for the largest pressure decrease in 24 hours based on RSMC data, deepening 97 mbar (2.9 inHg).[14]However, other estimates suggestTyphoon Forrest's central pressure may have deepened by as much as 104 mbar (3.1 inHg) in1983,and theWorld Meteorological Organizationlists Forrest's intensification rate as the fastest on record.[14][15]In 2019, theJoint Typhoon Warning Center(JTWC) estimated thatCyclone Ambali's winds increased by 51 m/s (180 km/h; 110 mph) in 24 hours, marking the highest 24-hour wind speed increase for a tropical cyclone in the Southern Hemisphere since at least 1980.[16][17]

Satellite animation of a rapidly intensifying hurricane
Bursts of convection in the core region of tropical cyclones are associated with rapid intensification.

Tropical cyclones frequently become moreaxisymmetricprior to rapid intensification, with a strong relationship between a storm's degree of axisymmetry during initial development and its intensification rate. However, the asymmetric emergence of strongconvectionandhot towersnear within inner core of tropical cyclones can also portend rapid intensification.[3]The development of localized deep convection (termed "convective bursts"[18]) increases the structural organization of tropical cyclones in the uppertroposphereand offsets theentrainmentof drier and morestableair from the lowerstratosphere,[19]but whether bursts of deep convection induce rapid intensification or vice versa is unclear.[3][19]Hot towers have been implicated in rapid intensification, though they have diagnostically seen varied impacts across basins.[20]The frequency and intensity of lightning in the inner core region may be related to rapid intensification.[21][22][23]A survey of tropical cyclones sampled by theTropical Rainfall Measuring Missionsuggested that rapidly intensifying storms were distinguished from other storms by the large extent and high magnitude of rainfall in their inner core regions.[24]However, the physical mechanisms that drive rapid intensification do not appear to be fundamentally different from those that drive slower rates of intensification.[25]

Animated view of a rapidly intensifying typhoon
Microwaveimagery ofTyphoon Jelawatduring a period of rapid intensification in March 2018[26]

The characteristics of environments in which storms rapidly intensify do not vastly differ from those that engender slower intensification rates.[11]Highsea surface temperaturesandoceanic heat contentare potentially crucial in enabling rapid intensification.[19]Waters with strong horizontal SST gradients or strongsalinity stratificationmay favor stronger air–sea fluxes ofenthalpyand moisture, providing more conducive conditions for rapid intensification.[27]The presence of a favorable environment alone does not always lead to rapid intensification.[28]Verticalwind shearadds additional uncertainty in predicting the behavior of storm intensity and the timing of rapid intensification. The presence of wind shear concentratesconvective available potential energy(CAPE) andhelicityand strengthensinflowwithin the downshear[b]region of the tropical cyclone. Such conditions are conducive to vigorous rotating convection, which can induce rapid intensification if located close enough to the tropical cyclone's core of highvorticity.However, wind shear also concurrently produces conditions unfavorable to convection within a tropical cyclone's upshear[b]region byentrainingdry air into the storm and inducingsubsidence.These upshear conditions can be brought into the initially favorable downshear regions, becoming deleterious to the tropical cyclone's intensity and forestalling rapid intensification.[11]Simulations also suggest that rapid intensification episodes are sensitive to the timing of wind shear.[27]Tropical cyclones that undergo rapid intensification in the presence of moderate (5–10 m/s (20–35 km/h; 10–20 mph)) wind shear may exhibit similarly asymmetric convective structures.[29]In such cases,outflowfrom the sheared tropical cyclone may interact with the surrounding environment in ways that locally reduce wind shear and permit further intensification.[30]The interaction of tropical cyclones with upper-tropospherictroughscan also be conducive to rapid intensification, particularly when involving troughs withshorter wavelengthsand larger distances between the trough and the tropical cyclone.[27]

Within environments favorable for rapid intensification, stochastic internal processes within storms play a larger role in modulating the rate of intensification. In some cases, the onset of rapid intensification is preceded by the large release ofconvective instabilityfrom moist air (characterized by highequivalent potential temperature), enabling an increase inconvectionaround the center of the tropical cyclone.[11]Rapid intensification events may also be related to the character and distribution of convection about the tropical cyclone. One study indicated that a substantial increase instratiform precipitationthroughout the storm signified the beginning of rapid intensification.[3]In 2023, aNational Center for Atmospheric Researchstudy of rapid intensification using computer simulations identified two pathways for tropical cyclones to rapidly intensifying. In the "marathon" mode of rapid intensification, conducive environmental conditions including low wind shear and high SSTs promote symmetric intensification of tropical cyclone at a relatively moderate pace over a prolonged period. The "sprint" mode of rapid intensification is faster and more brief, but typically occurs in conditions long assumed to be unfavorable for intensification, such as in the presence of strong wind shear. This faster mode involves convective bursts removed from the tropical cyclone center that can rearrange the storm circulation or produce a new center of circulation. The modeled tropical cyclones undergoing the sprint mode of rapid intensification tended to peak at lower intensities (sustained winds below 51 m/s (185 km/h; 115 mph)) than those undergoing the marathon mode of rapid intensification.[31][32]

Improving predictability and forecasting

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Graph of trends in intensity errors
Rapid intensification forecasting has been recognized byRegional Specialized Meteorological Centersas a key area for improvement.

Rapid intensification is a significant source of error intropical cyclone forecasting,and the timing of rapid intensification episodes has low predictability.[3][33]Rapid intensity changes near land can greatly influencetropical cyclone preparednessand publicrisk perception.[13]Increasing the predictability of rapid intensity changes has been identified as a top priority by operational forecasting centers.[34]In 2012, the NHC listed prediction of rapid intensification as their highest priority item for improvement.[35]Genesis and Rapid Intensification Processes (GRIP) was a field experiment led byNASA Earth Scienceto in part study rapid intensification. Multiple aircraft including the uncrewedNorthrop Grumman RQ-4 Global Hawkwere used to probe the rapid intensification events of hurricanesEarlandKarlduring the2010 Atlantic hurricane season.[36][37]In December 2016, theCYGNSSSmallSatconstellation was launched with a goal of measure ocean surface wind speeds with sufficiently hightemporal resolutionto resolve rapid intensification events.[38][39][13]TheTROPICSsatellite constellation includes studying rapid changes in tropical cyclones as one of its core science objectives.[18]Weather models have also shown an improved ability to project rapid intensification events,[40]but continue to face difficulties in accurately depicting their timing and magnitude.[41]Statistical models show greaterforecast skillin anticipating rapid intensification compared todynamical weather models.[18][42]Intensity predictions derived fromartificial neural networksmay also provide more accurate predictions of rapid intensification than established methods.[34]

Satellite image of a tropical cyclone
Cyclone Marcuswas an instance in which operational intensity forecasts successfully predicted rapid intensification with the aid of RI forecast aids.[43]

Because forecast errors at 24-hour leadtimes are greater for rapidly intensifying tropical cyclones than other cases, operational forecasts do not typically depict rapid intensification.[43]Probabilistic and deterministic forecasting tools have been developed to increase forecast confidence and aid forecasters in anticipating rapid intensification episodes. These aids have been integrated into the operational forecasting procedures ofRegional Specialized Meteorological Centers(RSMCs) and are factored into tropical cyclone intensity forecasts worldwide.[34]For example, the Rapid Intensification Index (RII) – a quantification of the likelihood of rapid intensification for varying degrees of wind increases based on forecasts of environmental parameters[44]– is utilized byRSMC Tokyo–Typhoon Center,the AustralianBureau of Meteorology(BOM), and the NHC.[34]An intensity prediction product is being developed atRSMC La Réunionfor the South-West Indian Ocean based on tools developed in other tropical cyclone basins.[13]The Rapid Intensity Prediction Aid (RIPA) increases the consensus intensity forecast provided by the JTWC's principal tropical cyclone intensity forecasting aid if at least a 40% chance of rapid intensification is assessed and has been used since 2018.[34]The JTWC reported that a large increasing trend in the probability of rapid intensification assessed using RIPA was associated with higher likelihoods of rapid intensification. The JTWC is also experimenting with additional rapid intensification forecasting aids relying on a variety of statistical methods.[34]Intensity forecasting tools incorporating predictors for rapid intensification are also being developed and used in operations at other forecasting agencies such as theKorea Meteorological Administrationand theIndian Meteorological Department.[45]

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See also:Tropical cyclones and climate change

Thefirst working group reportof theIPCC Sixth Assessment Report– published in 2021 – assessed that the global occurrence of rapid intensification likely increased over the preceding four decades (during the period of reliable satellite data), with "medium confidence" in this change exceeding the effect ofnatural climate variabilityand thus stemming fromanthropogenic climate change.[46]: 1519, 1585 The likelihood of a tropical cyclone withhurricane-forcewinds undergoing rapid intensification has increased from 1 percent in the 1980s to 5 percent.[47]Statistically significantincreases in the frequency of tropical cyclones undergoing multiple episodes of rapid intensification have also been observed since the 1980s.[48]These increases have been observed across the varioustropical cyclone basinsand may be associated with the thermodynamic properties of environments becoming increasingly conducive to intensification as a result of anthropogenic emissions.[7]Reductions of wind shear due to climate change may also increase the probability of rapid intensification.[49][47]The frequency of rapid intensification within 400 km (250 mi) of coastlines has also tripled between 1980 and 2020. This trend may be caused by a warming of coastal waters and a westward trend in the locations of peak tropical cyclone intensities stemming from broader changes toenvironmental steering flows.[50]A long-term increase in the magnitude of rapid intensification has also been observed over the Central and Tropical Atlantic as well as the western North Pacific.[51][52]However,CMIP5climate projections suggest that environmental conditions in by the end of the 21st century may be less favorable for rapid intensification in all tropical cyclone basins outside of the North Indian Ocean.[53]

See also

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Notes

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  1. ^The recorded sustained speed of the wind depends on the length of time over which near-instantaneous wind speeds are averaged. In contrast towind gustmeasurements, sustained wind measurements are treated as representative of the background mean wind. TheWorld Meteorological Organizationstandard for gauging the mean wind is a 10-minute average, but 1-minute and 3-minute averaging periods are also commonly used to estimate tropical cyclone wind speeds.[5]
  2. ^abThe downshear side of a tropical cyclone is the side in the direction of the wind shear vector, analogous todownwind.The upshear side of a tropical cyclone is the side opposite the direction of the wind shear vector, analogous toupwind.

References

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  1. ^Bartels, Meghan (8 September 2023)."How Hurricanes Jova and Lee Rapidly Exploded into Category 5 Storms".Scientific American.Retrieved5 November2023.
  2. ^Reinhart, Amanda (6 September 2023)."Hurricane Jova Discussion Number 10".Miami, Florida: National Hurricane Center.Retrieved5 November2023.
  3. ^abcdefHendricks, Eric A.; Braun, Scott A.; Vigh, Jonathan L.; Courtney, Joseph B. (December 2019)."A summary of research advances on tropical cyclone intensity change from 2014-2018".Tropical Cyclone Research and Review.8(4): 219–225.doi:10.1016/j.tcrr.2020.01.002.
  4. ^Tam, Hiu‐fai; Choy, Chun‐wing; Wong, Wai‐kin (March 2021)."Development of objective forecast guidance on tropical cyclone rapid intensity change".Meteorological Applications.28(2).doi:10.1002/met.1981.
  5. ^Harper, B. A.; Kepert, J. D.; Ginger, J. D. (August 2010).Guidelines for converting between various wind averaging periods in tropical cyclone conditions (WMO/TD-No. 1555)(Technical Document). Geneva, Switzerland: World Meteorological Organization.Retrieved6 November2023.
  6. ^Kaplan, John; DeMaria, Mark (December 2003)."Large-Scale Characteristics of Rapidly Intensifying Tropical Cyclones in the North Atlantic Basin".Weather and Forecasting.18(6): 1093–1108.doi:10.1175/1520-0434(2003)018<1093:LCORIT>2.0.CO;2.
  7. ^abBhatia, Kieran; Baker, Alexander; Yang, Wenchang; Vecchi, Gabriel; Knutson, Thomas; Murakami, Hiroyuki; Kossin, James; Hodges, Kevin; Dixon, Keith; Bronselaer, Benjamin; Whitlock, Carolyn (November 2022)."A potential explanation for the global increase in tropical cyclone rapid intensification".Nature Communications.13(1).doi:10.1038/s41467-022-34321-6.PMC9636401.
  8. ^Li, Yi; Tang, Youmin; Toumi, Ralf; Wang, Shuai (October 2022). "Revisiting the Definition of Rapid Intensification of Tropical Cyclones by Clustering the Initial Intensity and Inner‐Core Size".Journal of Geophysical Research: Atmospheres.127(20).arXiv:2208.13140.doi:10.1029/2022JD036870.
  9. ^"Glossary of NHC Terms".Miami, Florida: National Hurricane Center.Retrieved3 November2023.
  10. ^Prikryl, Paul; Nikitina, Lidia; Rušin, Vojto (February 2019)."Rapid intensification of tropical cyclones in the context of the solar wind-magnetosphere-ionosphere-atmosphere coupling".Journal of Atmospheric and Solar-Terrestrial Physics.183:36–60.doi:10.1016/j.jastp.2018.12.009.
  11. ^abcdSippel, J.A. (2015). "Hurricane Predictability". In North, Gerald R.; Pyle, John; Zhang, Fuqing (eds.).Encyclopedia of Atmospheric Sciences(Second ed.). Elsevier. pp. 32–33.doi:10.1016/B978-0-12-382225-3.00497-7.ISBN978-0-12-382225-3.
  12. ^Lee, Chia-Ying; Tippett, Michael K.; Sobel, Adam H.; Camargo, Suzana J. (3 February 2016)."Rapid intensification and the bimodal distribution of tropical cyclone intensity".Nature Communications.7(1).doi:10.1038/ncomms10625.PMC4742962.
  13. ^abcdLeroux, Marie-Dominique; Wood, Kimberly; Elsberry, Russell L.; Cayanan, Esperanza O.; Hendricks, Eric; Kucas, Matthew; Otto, Peter; Rogers, Robert; Sampson, Buck; Yu, Zifeng (May 2018). "Recent Advances in Research and Forecasting of Tropical Cyclone Track, Intensity, and Structure at Landfall".Tropical Cyclone Research and Review.7(2): 85–105.doi:10.6057/2018TCRR02.02.
  14. ^abcRogers, Robert F.; Aberson, Sim; Bell, Michael M.; Cecil, Daniel J.; Doyle, James D.; Kimberlain, Todd B.; Morgerman, Josh; Shay, Lynn K.; Velden, Christopher (October 2017). "Rewriting the Tropical Record Books: The Extraordinary Intensification of Hurricane Patricia (2015)".Bulletin of the American Meteorological Society.98(10): 2091–2112.doi:10.1175/BAMS-D-16-0039.1.
  15. ^"Tropical Cyclone: Fastest Intensification of Tropical Cyclone".World Meteorological Organization's World Weather & Climate Extremes Archive.Arizona State University.Retrieved11 November2023.
  16. ^Masters, Jeff (9 January 2020)."A Rogues' Gallery of the Five Category 5 Storms of 2019".Eye of the Storm.Scientific American.Retrieved6 November2023.
  17. ^Cappucci, Matthew; Freedman, Andrew (6 December 2019)."Record-setting Tropical Cyclone Ambali intensifies from tropical storm to borderline Category 5 monster in 24 hours".The Washington Post.Retrieved6 November2023.
  18. ^abcBlackwell, W. J.; Braun, S.; Bennartz, R.; Velden, C.; DeMaria, M.; Atlas, R.; Dunion, J.; Marks, F.; Rogers, R.; Annane, B.; Leslie, R. V. (November 2018)."An overview of the TROPICS NASA Earth Venture Mission".Quarterly Journal of the Royal Meteorological Society.144(S1): 16–26.doi:10.1002/qj.3290.PMC6360932.PMID30774158.
  19. ^abcElsberry, Russell L.; Chen, Lianshou; Davidson, Jim; Rogers, Robert; Wang, Yuqing; Wu, Liguang (February 2013). "Advances in Understanding and Forecasting Rapidly Changing Phenomena in Tropical Cyclones".Tropical Cyclone Research and Review.2(1): 13–24.doi:10.6057/2013TCRR01.02.
  20. ^Zhuge, Xiao-Yong; Ming, Jie; Wang, Yuan (October 2015)."Reassessing the Use of Inner-Core Hot Towers to Predict Tropical Cyclone Rapid Intensification*".Weather and Forecasting.30(5): 1265–1279.doi:10.1175/WAF-D-15-0024.1.
  21. ^Vagasky, Chris (November 2017)."Enveloped Eyewall Lightning: The EEL Signature in Tropical Cyclones".Journal of Operational Meteorology.5(14): 171–179.doi:10.15191/nwajom.2017.0514.
  22. ^Slocum, Christopher J.; Knaff, John A.; Stevenson, Stephanie N. (July 2023). "Lightning-Based Tropical Cyclone Rapid Intensification Guidance".Weather and Forecasting.38(7): 1209–1227.doi:10.1175/WAF-D-22-0157.1.
  23. ^Duran, Patrick; Schultz, Christopher J.; Bruning, Eric C.; Stevenson, Stephanie N.; PeQueen, David J.; Johnson, Nicholas E.; Allen, Roger E.; Smith, Matthew R.; LaFontaine, Frank J. (April 2021). "The Evolution of Lightning Flash Density, Flash Size, and Flash Energy During Hurricane Dorian's (2019) Intensification and Weakening".Geophysical Research Letters.48(8).doi:10.1029/2020GL092067.
  24. ^Jiang, Haiyan; Ramirez, Ellen M. (September 2013)."Necessary Conditions for Tropical Cyclone Rapid Intensification as Derived from 11 Years of TRMM Data".Journal of Climate.26(17): 6459–6470.doi:10.1175/JCLI-D-12-00432.1.
  25. ^Kowch, Roman; Emanuel, Kerry (March 2015)."Are Special Processes at Work in the Rapid Intensification of Tropical Cyclones?".Monthly Weather Review.143(3): 878–882.doi:10.1175/MWR-D-14-00360.1.hdl:1721.1/98391.
  26. ^Zou, Xiaolei; Tian, Xiaoxu (July 2019). "Comparison of ATMS Striping Noise Between NOAA-20 and S-NPP and Noise Impact on Warm Core Retrieval of Typhoon Jelawat (2018)".IEEE Journal of Selected Topics in Applied Earth Observations and Remote Sensing.12(7): 2504–2512.doi:10.1109/JSTARS.2019.2891683.
  27. ^abcWadler, Joshua B.; Rudzin, Johna E.; Jaimes de la Cruz, Benjamin; Chen, Jie; Fischer, Michael; Chen, Guanghua; Qin, Nannan; Tang, Brian; Li, Qingqing (September 2023)."A review of Recent Research Progress on the Effect of External Influences on Tropical Cyclone Intensity Change".Tropical Cyclone Research and Review.doi:10.1016/j.tcrr.2023.09.001.
  28. ^Voiland, Adam (17 October 2017)."A Closer Look at Rapidly Intensifying Hurricanes".NASA Earth Observatory.NASA.Retrieved11 November2023.
  29. ^Ryglicki, David R.; Cossuth, Joshua H.; Hodyss, Daniel; Doyle, James D. (November 2018)."The Unexpected Rapid Intensification of Tropical Cyclones in Moderate Vertical Wind Shear. Part I: Overview and Observations".Monthly Weather Review.146(11): 3773–3800.doi:10.1175/MWR-D-18-0020.1.
  30. ^Ryglicki, David R.; Doyle, James D.; Hodyss, Daniel; Cossuth, Joshua H.; Jin, Yi; Viner, Kevin C.; Schmidt, Jerome M. (August 2019)."The Unexpected Rapid Intensification of Tropical Cyclones in Moderate Vertical Wind Shear. Part III: Outflow–Environment Interaction".Monthly Weather Review.147(8): 2919–2940.doi:10.1175/MWR-D-18-0370.1.
  31. ^Judt, Falko; Rios-Berrios, Rosimar; Bryan, George H. (October 2023). "Marathon versus Sprint: Two Modes of Tropical Cyclone Rapid Intensification in a Global Convection-Permitting Simulation".Monthly Weather Review.151(10): 2683–2699.doi:10.1175/MWR-D-23-0038.1.
  32. ^Hosansky, David (26 October 2023)."Scientists find two ways that hurricanes rapidly intensify".NCAR & UCAR News.University Corporation for Atmospheric Research.Retrieved6 November2023.
  33. ^Wang, Y.; Wu, C.-C. (December 2004). "Current understanding of tropical cyclone structure and intensity changes? a review".Meteorology and Atmospheric Physics.87(4): 257–278.doi:10.1007/s00703-003-0055-6.
  34. ^abcdefWang, Weiguo; Zhang, Zhan; Cangialosi, John P.; Brennan, Michael; Cowan, Levi; Clegg, Peter; Takuya, Hosomi; Masaaki, Ikegami; Das, Ananda Kumar; Mohapatra, Mrutyunjay; Sharma, Monica; Knaff, John A.; Kaplan, John; Birchard, Thomas; Doyle, James D.; Heming, Julian; Moskaitis, Jonathan; Komaromi, William A.; Ma, Suhong; Sampson, Charles; Wu, Liguang; Blake, Eric (March 2023)."A review of recent advances (2018–2021) on tropical cyclone intensity change from operational perspectives, part 2: Forecasts by operational centers".Tropical Cyclone Research and Review.12(1): 50–63.doi:10.1016/j.tcrr.2023.05.003.
  35. ^Carrasco, Cristina Alexandra; Landsea, Christopher William; Lin, Yuh-Lang (June 2014)."The Influence of Tropical Cyclone Size on Its Intensification".Weather and Forecasting.29(3): 582–590.doi:10.1175/WAF-D-13-00092.1.
  36. ^Braun, Scott A.; Kakar, Ramesh; Zipser, Edward; Heymsfield, Gerald; Albers, Cerese; Brown, Shannon; Durden, Stephen L.; Guimond, Stephen; Halverson, Jeffery; Heymsfield, Andrew; Ismail, Syed; Lambrigtsen, Bjorn; Miller, Timothy; Tanelli, Simone; Thomas, Janel; Zawislak, Jon (March 2013)."NASA's Genesis and Rapid Intensification Processes (GRIP) Field Experiment".Bulletin of the American Meteorological Society.94(3): 345–363.doi:10.1175/BAMS-D-11-00232.1.hdl:11603/28542.
  37. ^"Genesis and Rapid Intensification Processes (GRIP)".GHRC.NASA.Retrieved5 November2023.
  38. ^"Cyclone Global Navigation Satellite System (CYGNSS)"(PDF).Ann Arbor, Michigan: University of Michigan.Retrieved6 November2023.
  39. ^Ruf, Chris (15 December 2021)."Five Years and Counting – Happy Birthday to the CYGNSS Octuplets!".Notes from the Field.NASA Earth Observatory.Retrieved6 November2023.
  40. ^Cangialosi, John P.; Blake, Eric; DeMaria, Mark; Penny, Andrew; Latto, Andrew; Rappaport, Edward; Tallapragada, Vijay (1 October 2020)."Recent Progress in Tropical Cyclone Intensity Forecasting at the National Hurricane Center".Weather and Forecasting.35(5): 1913–1922.doi:10.1175/WAF-D-20-0059.1.
  41. ^Zhang, Zhan; Wang, Weiguo; Doyle, James D.; Moskaitis, Jonathan; Komaromi, William A.; Heming, Julian; Magnusson, Linus; Cangialosi, John P.; Cowan, Levi; Brennan, Michael; Ma, Suhong; Das, Ananda Kumar; Takuya, Hosomi; Clegg, Peter; Birchard, Thomas; Knaff, John A.; Kaplan, John; Mohapatra, Mrutyunjay; Sharma, Monica; Masaaki, Ikegami; Wu, Liguang; Blake, Eric (March 2023)."A review of recent advances (2018–2021) on tropical cyclone intensity change from operational perspectives, part 1: Dynamical model guidance".Tropical Cyclone Research and Review.12(1): 30–49.doi:10.1016/j.tcrr.2023.05.004.
  42. ^Kaplan, John; Rozoff, Christopher M.; DeMaria, Mark; Sampson, Charles R.; Kossin, James P.; Velden, Christopher S.; Cione, Joseph J.; Dunion, Jason P.; Knaff, John A.; Zhang, Jun A.; Dostalek, John F.; Hawkins, Jeffrey D.; Lee, Thomas F.; Solbrig, Jeremy E. (October 2015)."Evaluating Environmental Impacts on Tropical Cyclone Rapid Intensification Predictability Utilizing Statistical Models".Weather and Forecasting.30(5): 1374–1396.doi:10.1175/WAF-D-15-0032.1.
  43. ^abCourtney, Joseph B.; Langlade, Sébastien; Barlow, Stephen; Birchard, Thomas; Knaff, John A.; Kotal, S.D.; Kriat, Tarik; Lee, Woojeong; Pasch, Richard; Sampson, Charles R.; Shimada, Udai; Singh, Amit (December 2019)."Operational perspectives on tropical cyclone intensity change Part 2: forecasts by operational agencies".Tropical Cyclone Research and Review.8(4): 226–239.doi:10.1016/j.tcrr.2020.01.003.
  44. ^Kaplan, John; DeMaria, Mark; Knaff, John A. (February 2010)."A Revised Tropical Cyclone Rapid Intensification Index for the Atlantic and Eastern North Pacific Basins".Weather and Forecasting.25(1): 220–241.doi:10.1175/2009WAF2222280.1.
  45. ^Courtney, Joseph B.; Langlade, Sébastien; Sampson, Charles R.; Knaff, John A.; Birchard, Thomas; Barlow, Stephen; Kotal, S.D.; Kriat, Tarik; Lee, Woojeong; Pasch, Richard; Shimada, Udai (September 2019)."Operational Perspectives on Tropical Cyclone Intensity Change Part 1: recent advances in intensity guidance".Tropical Cyclone Research and Review.8(3): 123–133.doi:10.1016/j.tcrr.2019.10.002.
  46. ^Seneviratne, Sonia I.; Zhang, Xuebin; Adnan, Muhammad; Badi, Wafae; Dereczynski, Claudine; Di Luca, Alejandro; Ghosh, Subimal; Iskandar, Iskhaq; Kossin, James; Lewis, Sophie; Otto, Friederike; Pinto, Izidine; Satoh, Masaki; Vicente-Serrano, Sergio M.; Wehner, Masaki; Zhou, Botao (2021). "Weather and Climate Extreme Events in a Changing Climate". In Masson-Delmotte, Valérie; Zhai, Panmao; Pirani, Anna; Connors, Sarah L.; Péan, Clotilde; Berger, Sophie; Caud, Nada; Chen, Yang; Goldfarb, Leah; Gomis, Melissa I.; Huang, Mengtian; Leitzell, Katherine; Lonnoy, Elisabeth; Matthews, J.B. Robin; Maycock, Thomas K.; Waterfield, Tim; Yelekçi, Ozge; Yu, Rong; Zhou, Baiquan (eds.).Climate Change 2021: The Physical Science Basis. Contribution of Working Group I to the Sixth Assessment Report of the Intergovernmental Panel on Climate Change.Cambridge, United Kingdom: Cambridge University Press.doi:10.1017/9781009157896.013.
  47. ^abShao, Elena (6 January 2023) [26 September 2022]."A 'Nightmare' for Forecasters: Here's Why Hurricanes Are Getting Stronger, Faster".The New York Times.Retrieved6 November2023.
  48. ^Manikanta, N. D.; Joseph, Sudheer; Naidu, C. V. (September 2023)."Recent global increase in multiple rapid intensification of tropical cyclones".Scientific Reports.13(1).doi:10.1038/s41598-023-43290-9.PMC10518314.
  49. ^Ting, Mingfang; Kossin, James P.; Camargo, Suzana J.; Li, Cuihua (May 2019)."Past and Future Hurricane Intensity Change along the U.S. East Coast".Scientific Reports.9(1).doi:10.1038/s41598-019-44252-w.PMC6534560.PMID31127128.
  50. ^Li, Yi; Tang, Youmin; Wang, Shuai; Toumi, Ralf; Song, Xiangzhou; Wang, Qiang (August 2023)."Recent increases in tropical cyclone rapid intensification events in global offshore regions".Nature Communications.14(1).doi:10.1038/s41467-023-40605-2.PMC10449825.
  51. ^Balaguru, Karthik; Foltz, Gregory R.; Leung, L. Ruby (May 2018). "Increasing Magnitude of Hurricane Rapid Intensification in the Central and Eastern Tropical Atlantic".Geophysical Research Letters.45(9): 4238–4247.doi:10.1029/2018GL077597.
  52. ^Song, Jinjie; Duan, Yihong; Klotzbach, Philip J (August 2020)."Increasing trend in rapid intensification magnitude of tropical cyclones over the western North Pacific".Environmental Research Letters.15(8): 084043.doi:10.1088/1748-9326/ab9140.
  53. ^Walsh, Kevin J.E.; McBride, John L.; Klotzbach, Philip J.; Balachandran, Sethurathinam; Camargo, Suzana J.; Holland, Greg; Knutson, Thomas R.; Kossin, James P.; Lee, Tsz‐cheung; Sobel, Adam; Sugi, Masato (January 2016). "Tropical cyclones and climate change".WIREs Climate Change.7(1): 65–89.doi:10.1002/wcc.371.hdl:1721.1/62558.
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