Just How HOT Are My Chiles?
|
|||||
| Chile Pepper |
|
| Sweet Bell |
|
| Sweet Banana |
|
| Pimento |
|
| Cherry |
|
| Pepperoncini |
|
| Sonora |
|
| El-Paso |
|
| Santa Fe Grande |
|
| NuMex R Naky |
|
| Coronado |
|
| TAM Mild Jalapeno |
|
| New Mexico 6-4 |
|
| Espanola |
|
| Poblano |
|
| Ancho |
|
| Mulato |
|
| Pasilla |
|
| Anaheim |
|
| Sandia |
|
| NuMex Big Jim |
|
| Rocotillo |
|
| Pulla |
|
| NuMex Joe E. Parker |
|
| Bulgarian Carrot |
|
| Mirasol |
|
| Guajillo |
|
| Jalapeno |
|
| Chipolte |
|
| Long Thick Cayenne |
|
| Hot Wax |
|
| Puya |
|
| Hidalgo |
|
| Aji Escabeche |
|
| Serrano |
|
| Manzano |
|
| Shipkas |
|
| NuMex Barker's Hot |
|
| De Arbol |
|
| Jaloro |
|
| Aji |
|
| Tabasco |
|
| Cayenne |
|
| Santaka |
|
| Super Chile |
|
| Piquin |
|
| NuMex XX Hot |
|
| Yatsafusa |
|
| Red Amazon |
|
| Haimen |
|
| Chiltecpin |
|
| Thai |
|
| Merah |
|
| Tabiche |
|
| Bahamian |
|
| Carolina Cayenne |
|
| Kumataka |
|
| Bahamian |
|
| Jamaican Hot |
|
| Birds Eye |
|
| Tepin (Wild) |
|
| Datil |
|
| Devil Toung |
|
| Fatalii |
|
| Orange Habanero |
|
| Scotch Bonnet |
|
| TigrePaw-NR |
|
| Rocoto / Manzano |
|
| Caribbean Red |
|
| Choclate Habanero |
|
| Red Savina Habanero |
|
| Dorset Naga |
|
| Naga Jolokia |
|
| Common Pepper Spray |
|
| Police Grade Spray |
|
| Homodihydrocapsaicin |
|
| Nordihydrocapsaicin |
|
|
|
|
|
A Little Chile Chemistry For
|
Chiles are members of the Capsicum
family. Heat range is diverse, ranging from very mild to extremely
wild. The particular class of substances that determine their
disposition is known, by those who study such things, as
Capsaicinoids. The two most common component of this class are
Capsaicin and Di-Hydrocapsaicin they looks something like this.
H3CO
\____ O CH3
/ \ | |
HO-< >-C-N-C-(CH2)4-C=C-C-CH3
\____/ | | | | |
H2 H H H H
H3CO
\____ O CH3
/ \ | |
HO-< >-C-N-C-(CH2)6-C-CH3
\____/ | |
H2 H
Capsaicin and Di-hydrocapsaicin together make up 80-90% of the Capsaicinoids found in Chile peppers. In the Capsicum annum species, the total Capsaicinoid content ranges from 0.1 to 1.0%, and the Capsaicin to Dihydrocapsaicin ratio is about 1:1. In Capsicum frutescens the total content ranges from 0.4-1.0% with the ratio around 2:1. The minor Capsaicinoids include Nordihydrocapsaicin [Dihydrocapsaicin with a (CH2)5 instead of (CH2)6], Homocapsaicin [Capsaicin with a (CH2)5 instead of (CH2)4, and Homodihydrocapsaicin [Dihydrocapsaicin with a (CH2)7 instead of (CH2)6]. The different capsaicin-like compounds found in Chiles have slight structural variations in the hydrocarbon tail, changing their ability to bind to the nerve receptors and their ability to penetrate layers of receptors on the tongue, mouth, and throat. This may explain why some Chiles burn in the mouth, while others burn deep in the throat. Capsaicinoids are not soluble in water, but very soluble in fats, oils and alcohol. This is why drinking water after accepting a dare to eat an extra hot Habanero Chile won't stop the burning. Downing a cold beer is the traditional remedy, but the small percentage of alcohol will not wash away much capsaicin. To get some relief from a chile burn (can't think of a good reason not to "Enjoy the heat"), drink milk or eat ice-cream. Milk contains casein, a lipophilic (fat-loving) substance that surrounds and washes away the fatty capsaicin molecules in much the same way that soap washes away grease. The perception that peppers are "hot" is not an accident. The capsaicin key opens a door in the cell membrane that allows calcium ions to flood into the cell. That ultimately triggers a pain signal that is transmitted to the next cell. When the cells are exposed to heat, the same events occur. Chile burns and heat burns are similar at the molecular, cellular, and sensory levels. Paradoxically, capsaicin's ability to cause pain makes it useful in alleviating pain. Exposure to capsaicin lowers sensitivity to pain, and it is applied as a counter irritant in the treatment of arthritis and other chronically painful conditions. The capsaicinoids are unique compared to other spicy substances, such as piperine (black pepper) and gingerol (ginger) in that capsaicin causes a long-lasting selective desensitization to the pain and discomfort, as a result of repeated doses. The result is an increasing ability to tolerate ever hotter foods and permits one to assume the title of "Chile-Head" or "CH" for short. People that eat lots of spicy capsaicin-rich foods build up a tolerance to it. The incentive: Once a person has become somewhat desensitized to the extreme heat of the "hotter" Chiles, he or she can starts on a new culinary journey. Not being over powered by the heat factor, the palate now has the ability to explore the many diverse flavors offered by the myriad of different Chiles that are currently available from around the world. Also for some Chile-Heads a good jolt of capsaicin excites the nervous system into producing endorphins, which promote a pleasant sense of well-being that can last several hours. The endorphin lift or "high", makes spicy foods mildly addictive and for some, an obsession.
I offer the below information and pictures for folks that are
really into the science of Chiles. Here are the images as promised. I included structures of some of the minor capsaicinoids as well.
There are two versions (a and b) of each structure, corresponding
to different conventions of drawing. They're equally correct and
unequivocal, and you're free to choose whichever version you
prefer. The 'a' convention is most commonly used by chemists, but
the 'b' convention might be a bit easier to understand for
non-chemists. ![]() Capsaicin-a ![]() Capsaicin-b ![]() Dihydrocapsaicin-a ![]() Dihydrocapsaicin-b ![]() Homocapsaicin-a ![]() Homocapsaicin-b ![]() Homodihydrocapsaicin-a ![]() Homodihydrocapsaicin-b ![]() Nordihydrocapsaicin-a ![]() Nordihydrocapsaicin-b Last but not least (Just in case you want to know all about Capsaicinoids) Boiling point: 210°-220°C at 0.01 torr pressure Sorce: The Merck Index. 12th Edition. Merck & Co., Inc. Whitehouse Station, NJ. 1996. |