And that's pretty pointless, because it is clear that while there is seasonable variation in the frequency of occurrence of storms; the shift in the frequency of intensity is a phenomena that's a global event happening at scale. The global weather system goes through a series of cold and warm cycles, but the mean has been shifting for a while that has had a global shift in the frequencies of different storm strengths being seen around the world;

Here's a graph demonstrating this phenomena; https://imgur.com/a/97x7d

I've taken this from this study; https://www.researchgate.net/profile/Chih_Yuan_Yang/publicat...

That arrives at this conclusion,

> However, storm frequencies during the current warm phase (since 1995) have also been much higher than during the previous warm phases in the middle of the last century. The difference can no longer be explained by natural fluctuation; rather, this difference must be attributed to global warming.

After making this rather thorough argument (reproduced here in its entirety because it is important to pay attention to the nuances of the science);

> In addition, for climate variables, recent studies (e.g. Lehmiller et al. 1997; Bove et al. 1998; Maloney and Hartmann 2000; Elsner, Jagger, and Niu 2000; Goldenberg et al. 2001; Landsea 2005; Sutton and Hodson 2005) have attributed Atlantic hurricane activity increases to a natural climate cycle, termed the Atlantic Multidecadal Oscillation (AMO), the El Nino-Southern Oscillation (ENSO), and the North Atlantic Oscillation (NAO). In recent decades, Geo Risks Research has undertaken hurricane frequency analyses that account for the AMO. The AMO index is a detrended (anomaly) measure of sea surface temperatures (SSTs) (e.g. Knight et al. 2005) and is believed to be capable of explaining the recently elevated levels of hurricane activity. Because it is a measure of SST anomalies, which are correlated with hurricane activity, the AMO index has been used to predict near-term hurricane activity. Therefore, warm phases in the AMO (positive AMO index) are theorized to lead to higher SSTs and above long-term average hurricane activity in the Atlantic. Conversely, cool phases in the AMO (negative AMO index) are theorized to lead to lower SSTs and below long-term average hurricane activity.

> One of the most important recent papers on this topic is the article by Elsner et al. (2008), who consider a time-series model to forecast the average hurricane-season Atlantic SST and then use a linear Poisson regression model to forecast North Atlantic hurricane intensity given the predicted coefficients of the Atlantic SST model.

> However, some studies (Knutson and Tuleya 2004; Barnett et al. 2005; Emanuel 2005; Webster et al. 2005, 2006) indicate that global climate change (rather than natural climate cycles) may play the dominant role. In addition, the fourth status report of the Intergovernmental Panel on Climate Change (IPCC 2007) highlights the significant link between human-induced global warming and the greater frequency and intensity of unanticipated tropical cyclone events.

> Figure 1 clearly shows that the average number of destructive major hurricanes is significantly higher in the warm phases of the AMO than in the cold phases. This finding supports the theory that hurricanes form over warm sea surfaces. However, storm frequencies during the current warm phase (since 1995) have also been much higher than during the previous warm phases in the middle of the last century. The difference can no longer be explained by natural fluctuation; rather, this difference must be attributed to global warming. Based on these U.S. Hurricane Risk Measurement 3 opinions, the modeling of hurricane activity should have the ability to additionally capture the time trend of hurricane activity to illustrate the phenomenon that hurricane activity increases with time because of global warming.

Texas isn't the only place on Earth where this phenomena is playing out. And you may downvote me, but that doesn't change the data nor the facts.