No-heat Jalapenos

by: Arevalos, Don; Rasplicka, Lou; Villa, Phil;

New, distinct and stable cultivars of no-heat Jalapeno peppers are disclosed. No-heat Jalapeno pepper cultivars are disclosed in which substantially all the pepper fruit produced comprise no capsaicin such as, capsaicin, dihydrocapsaicin, norhydrocapsaicin, homocapsaicin and homodihydrocapsaicin. The no-heat characteristic has been bred into 3 different cultivars of Jalapeno. This no-heat characteristic has been combined with many desirable Jalapeno traits including a lack of pungency, a dark green immature color, a saucer shaped calyx, a pendent fruit position, a rounded base shape, a blunt apex shape, a thick flesh thickness, an oblong shape, a concentrated fruit set, a long pedicel length, a straight pedicel shape, a slender pedicel thickness and a low capsaicinoid content. Methods for the reliable breeding to the no-heat Jalapeno characteristic into diverse Jalapeno peppers, as well as methods for production of food products comprising no-heat Jalapenos are disclosed.

BACKGROUND

1. Field of the Invention

The present invention relates to new, distinct and stable cultivars of no-heat Jalapenos. No-heat Jalapeno pepper plants produce a pepper fruit which is absent of capsaicinoids such as capsaicin, dihydrocapsaicin, nordihydrocapsaicin, homocapsaicin and homodihydrocapsaicin. The no-heat Jalapeno fruit characteristic has been combined with many other known and desirable Jalapeno fruit characteristics including fruit shape, color, surface skin smoothness, flesh thickness and size.

The present invention also relates to methods for the breeding of no-heat fruit characteristics into Jalapeno cultivars. The present invention also relates to food products containing no-heat Jalapenos.

2. Description of the Related Art

Pepper and Pepper Flavor

The cultivated pepper, Capsicum annuum, is an important spice crop in the United States. There are many varieties of Capsicum, each adapted to produce a fruit for different purposes such as, for example, fresh consumption, dried spice or pickling. Varieties or cultivars of hot peppers are in everyday use include, for example, Anaheim, Ancho, Cascabel, Cayenne, Charleston hot, Cherry, Chilaca, Chipotle, Fresno, Gaujillo, Habanera, Jalapeno, Pasilla and Pepperoncini. Of the many varieties or cultivars, Jalapeno is one of the most important and popular commercial peppers. Named after Jalapa, the capital of Veracruz, Mexico, Jalapeno peppers range from hot to very hot. Jalapeno peppers are consumed fresh, canned, and pickled. In addition, Jalapenos are used in a variety of sauces and in a multitude of cuisines.

The desirable qualities of a pepper are different depending upon the use and the individualized taste of each consumer. For some qualities of the fruit, such as heat, there is no consensus as to the proper amount. A Capsicum fruit that is too mild for one consumer may be extremely hot, unpalatable and irritating for another consumer.

The hot flavor of Capsicum is due to capsaicinoids, a family of chemical compounds. The flavors from capsaicinoids have been referred to by many terms, including heat, hotness, spiciness, pungency and chili (chile, chilli). Numerous terms such as sweet, no-heat, non-pungent and mild have also been used to describe low or undetectable levels of capsaicinoids. As a spice, capsaicinoids can produce a burning sensation in the mouth, causing the eyes to water, the nose to run, and in high amounts even induce perspiration. Capsaicinoids in peppers are produced in the cross wall placenta of a pepper fruit.

Because of the highly individualized, highly variable but narrow range between desirable taste and irritation for each individual, and because cultivated peppers are inconsistent in their capsaicinoid content, even from within the same field, it has been difficult to market food products comprising chili peppers with a uniform level of heat.

Analysis of Pepper Heat

The heat, or hot taste, in a Capsicum fruit has been established as a mixture of seven homologous branched chain alkyl vanillylamides named capsaicinoids. Capsaicin (C) (Merck Index, 11th edition, 1767), dihydrocapsaicin (DC), norhydrocapsaicin (NC), homocapsaicin (HC) and homodihydrocapsaicin (HDC) are the most prevalent and most important capsaicinoids for the hot flavor of peppers.

The hotness or heat of Capsicum fruit as a whole may be measured and compared by the Scoville heat test and expressed as Scoville heat unit. Even at dilutions of capsaicinoids down to 1 part in 16 million, a sensation of warmth may be detected by a human taster. The original Scoville heat test was an organoleptic test but Scoville heat units are now measured using high performance liquid chromatography determination of total capsaicinoids. Under the new test, total capsaicinoid content is measured in parts per million (ppm). One ppm is roughly equivalent to about 15 Scoville heat units. A hot pepper, such as habaneros, may have about 200,000 to about 300,000 Scoville heat units. Pure capsaicin has a Scoville heat unit score of about 16 million.

The amount of heat of a Capsicum fruit is affected both by genetic and environmental factors. Weather conditions, growing conditions and fruit age all contribute to the capsaicinoid content of a Capsicum fruit. Within a field and even within a fruit, the concentrations of capsaicinoids may be inconsistent. Known variables which affect heat content of (apsicum fruit include growth conditions such as moisture, temperature, light and fertilizer. Thus, it is difficult for providers of Capsicum fruit, and product comprising Capsicum fruit, to maintain product uniformity with regard to heat content. Neither cooking nor freezing diminishes capsaicin's intensity. The heat of Jalapeno peppers can only be reduced slightly by removal of the placenta from the fruit. While capsaicinoids may be removed from peppers through processes such as extraction, these processes are not economically feasible.

The inability to control the capsaicinoids (heat) content of peppers represents a major problem for food producers. At one concentration capsaicinoids are enjoyed as a spice, but at higher concentrations they are powerful irritants. The level differentiating spice from irritants is different for each individual. Further, many consumers cannot tolerate any capsaicinoids. Because of the variable heat content nature of peppers, and because of the variable consumer tolerance level for capsaicinoids, it is difficult to produce a food product with a uniform level of capsaicinoids without expensive and time consuming taste testing and HPLC or LC analysis.

SUMMARY OF THE INVENTION

The present invention overcomes the problems and disadvantages associated with current strategies and designs and provides methods for the production of no-heat Jalapenos.

An object of the invention is to provide Jalapeno cultivars having no heat.

Another object of the invention is to provide methods for the breeding of the no-heat Jalapeno characteristics into diverse Jalapeno cultivars.

An additional object of the invention is to provide methods and products comprising no-heat Jalapeno peppers.

These and other objects of this invention are met by one or more of the following embodiments.

In one embodiment, this invention provides a method for developing a no-heat Jalapeno pepper. In the method, a first pepper plant which produces a pepper fruit with undetectable levels of capsaicinoids, such as a sweet pepper, is crossed to a Jalapeno pepper plant which have detectable capsaicinoids. One or more selection and crossing step is performed until a pepper plant which produces pepper fruit with no detectable capsaicinoids is produced. The selection step comprises selecting for progeny plants which produces a progeny fruit with a reduced capsaicinoid content and Jalapeno characteristics. The crossing step comprises crossing the reduced capsaicinoid content progeny. The selection and crossing steps are preferably performed seven or more times. The Jalapeno characteristics used in the selection step may comprise: a lack of pungency, a dark green immature color, a saucer shaped calyx, a pendent fruit position, a rounded base shape, a blunt apex shape, a thick flesh thickness, an oblong shape, a concentrated fruit set, a long pedicel length, a straight pedicel shape and a slender pedicel thickness. The no-heat Jalapeno developed by the method preferably has a capsaicinoid content of less than about 0.5 parts per million. It is more preferable for the no-heat Jalapeno to have a capsaicinoid content less than about 0.1 parts per million capsaicinoids.

In another embodiment, this invention provides a no-heat Jalapeno pepper fruit comprising the qualities of: a lack of pungency, a dark green immature color, a saucer shaped calyx, a pendent fruit position, a rounded base shape, a blunt apex shape, a thick flesh thickness, an oblong shape, a concentrated fruit set, a long pedicel length, a straight pedicel shape, a slender pedicel thickness and a low capsaicinoid content. The Jalapeno pepper fruit may have a red mature color or a yellow mature color. The low capsaicinoid content is preferably less than 0.5 parts per million, more preferably less than 0.1 parts per million, and most preferably undetectable. Capsaicinoid as described herein includes may be capsaicin, dihydrocapsaicin, norhydrocapsaicin, homocapsaicin and homodihydrocapsaicin.

In yet another embodiment, this invention provides a no-heat Jalapeno fruit, or a part of the fruit, may be incorporated into food products. Food products may be, for example, fresh fruits, pickled fruits and sauces.

In still another embodiment of the invention is directed to a no-heat Jalapeno fruit producing plant, or a seed which when grown produces a no-heat Jalapeno fruit producing plant.

DESCRIPTION OF THE DRAWINGS

FIG. 1 depicts an HPLC analysis of a fruit of wild type Jalapeno.

FIG. 2 depicts an HPLC analysis of a fruit of no-heat Jalapeno Pepper cultivar H78-1R.

FIG. 3 depicts an HPLC analysis of a fruit of no-heat Jalapeno Pepper cultivar HM1-Y.

FIG. 4 depicts an HPLC analysis of a fruit of no-heat Jalapeno Pepper cultivar V10443.

DESCRIPTION OF THE INVENTION

As embodied and broadly described herein, the present invention is directed to a no-heat Jalapeno pepper cultivar, to methods of making a no-heat Jalapeno pepper cultivar, and to methods of making food products comprising a no-heat Jalapeno fruit, and to food products comprising a no-heat Jalapeno fruit.

Heat, also referred to as hotness, spicy, pungency, chili (chile, chilli), as used herein, refers to capsaicinoid content in the capsicum fruit.

As used herein, "no-heat" refers to lack of detectable capsaicinoid or less than 1 parts per million (ppm) capsaicinoid. No-heat has also been called sweet or non-pungent.

No-heat Jalapeno pepper cultivars according to this invention are stable, as evidenced by the stability of the trait through both asexual propagation and sexual crosses. Depending upon the cultivar, however, the plant size and the fruit size may be affected by environmental factors without any variance in the no-heat characteristic of the plant.

One embodiment of this invention was produced when parental strains C-023 sweet pepper and C-027 Jalapeno were crossed to produce the no-heat Jalapeno peppers. The plants are grown in standard agronomic conditions outdoors with temperatures above about 52.degree. F.

Method of Crosses

Because pepper flowers are self pollinating, flowers of the plant to be used as female parent in a cross are typically emasculated to prevent self pollination. Emasculation comprises anther removal prior to pollination. The stigmatic surface is receptive for pollen following emasculation. Flowers to be used as the source of male parent pollen may be picked from the plant and used to pollinate from 3 to 5 flowers of the same cross combination. Pollen from the male parent is then applied to the stigmatic surface of the female parent. In this fashion, an abundance of pollen may be delivered to the stigmatic surface. Each pollinated flower should be marked to identify the date of pollination and the male and female parents.

Ripening of the fruit generally occurs at about 10 weeks after pollination, depending upon the environmental conditions. The collected seeds are typically cleaned by hand, and the seed separated from the fruit and stored in paper bags. Cool and cloudy weather increase the time required for ripening of the pepper fruit.

Flowers from peppers maintain functional male and female organs. Thus, incorporation of the no-heat fruit trait into a stable Jalapeno pepper cultivar has been possible. The no-heat characteristic, according to this invention, has been incorporated into multiple cultivars of Jalapeno with different Jalapeno genetic backgrounds and combined with a wide range of known and desirable Jalapeno characteristics.

Strategy of Crossing

A breeding program was undertaken, using sweet pepper and Jalapeno peppers as the starting parental strains, with the goal of selecting new and unique cultivars of Jalapeno peppers with having fruit characteristics, shown in Table 6, which are typical of Jalapenos but without the heat.

Typical Jalapeno characteristics are embodied in variety Jalapeno `M`, the standard by which all Jalapenos are judged. Jalapeno `M` consists of upright plants approximately about 26 to about 30 inches in height. The fruit of Jalapeno `M` matures dark green to red, with medium thick walls and a blunt-ended, sausage shape. Jalapeno `M` produces uniform, medium-to-large size, pungent fruit for processing and fresh market uses. Selection criteria for typical Jalapeno `M` characteristics are also listed in Tables 2 to 8.

Breeding of no-heat Jalapeno is initiated by crossing a sweet pepper breeding line with a breeding line having fruit characteristics of Jalapenos such as fruit shape, color, surface smoothness, flesh thickness, and size. Other suitable breeding lines include any elongated bell pepper and any large Jalapenos. Breeding of no-heat Jalapenos was accomplished by means of recurrent selection. Progeny with reduced heat as determined by taste and HPLC analysis, were selected and maintained in the breeding program.

In particular examples of this method, parental strains sweet pepper C-023 and Jalapeno C-027 were crossed and F.sub.1 progeny were selected for Jalapeno fruit characteristics and low or no heat. (Desirable Jalapeno fruit characteristics are listed in Table 6.) The F.sub.1 progeny were crossed to produce F.sub.2 and the F.sub.2 were selected under the same selection criteria used for F1. The selection process was continued until the 8th generation or F.sub.8 which bore a large Jalapeno fruit that was free of capsaicinoids such as capsaicin, dihydrocapsaicin, norhydrocapsaicin, homocapsaicin and homodihydrocapsaicin. The best of Jalapeno plants, in terms of reduced heat and retention of Jalapeno characteristics, were selected. The seeds produced from these selections were sown. The resulting Jalapeno pepper plants showed reduced heat in successive selections and generations until finally plants were generated which comprise a pepper fruit comprising undetectable levels of capsaicinoids as determined by taste and HPLC analysis. In particular, H78-1R was selected from this breeding program for a red maturing fruit while HM1-Y was selected for a yellow maturing fruit.

As shown in the examples below, it is possible to breed and select for stable no-heat cultivars of Jalapeno or other peppers wherein substantially all the capsaicinoids (such as capsaicin, dihydrocapsaicin, norhydrocapsaicin, homocapsaicin and homodihydrocapsaicin) in the fruit are below detection levels. The no-heat characteristic also can be predictably bred into diverse peppers such as, for example, Jalapenos, Habanera, Tabasco, and Pequin. Alternatively, it is possible to cross the no-heat Jalapeno peppers with other hot Jalapeno peppers and select for low heat or no-heat progeny.

While three varieties of no-heat Jalapenos are specifically described herein, any pepper plant having a fruit with the characteristics of a Jalapeno but without capsaicin or a hot taste is within the contemplation of this invention. For example, Jalapeno varieties other than Varieties H78-1R, HM1-Y and V10443 may be bred with Varieties H78-1R, HM1-Y or V10443 as described herein to produce plants which yield no-heat pepper fruits. Appropriate parental strains to cross to arrive at the characteristics presently claimed will be readily apparent to those of ordinary skill in the art, in view of the present specification. Varieties of peppers with characteristics similar to the parental strains C-023 sweet pepper and C-027 Jalapeno are particularly suitable for use as parental strains. Any peppers within the same species are also suitable. It is within the contemplation of this invention to cross other pepper varieties with known varieties or varieties bred according to this invention in order to duplicate the invention. Such hybrids are intended to be covered by the present invention.

Any crosses between Varieties H78-1R, HM1-Y or V10443 will produce a pepper plant with Jalapeno fruit having the characteristics of the present inventions. Suitable combinations can be readily determined by those skilled in the art.

Applications for protection of Varieties H78-1R and HM1-Y under the Plant Variety protection Act have been filed with the U.S. Department of Agriculture, Plant Variety Protection Office on Feb. 13, 1996 and have been assigned PEPPER Application No. 9600138, `H78-1R` and PEPPER Application No. 9600139, `HM1-Y` respectively. An application for protection of Variety V10443 under the Plant Variety protection Act has been filed with the Department of Agriculture, Plant Variety Protection Office on Apr. 23, 1996 and has been assigned PEPPER Application No. 9600239, `V10443` for Variety V10443. These cultivars are only examples of the lines of the present invention, and are not intended to be limiting to the scope of the present claims.

A detailed description of three no-heat Jalapeno peppers based on observations made from plants and fruits grown in a Mediterranean climate in Santa Paula, Calif. is as follows. Unless specified, the characteristics are the same for all three varieties. Other pepper plants and fruits with the same or similar characteristics are also within the contemplation of the invention.

The novel Varieties H78-1R, HM1-Y or V10443 are Jalapeno peppers of the Solanaceae family with the genus and species name of Capsicum annuum. H78-1R requires about 90 days from transplant to develop a mature green color and about 105 days to develop a mature red color. From seeds, H78-1R requires about 110 days to mature green and about 170 days to develop a mature red fruit color. HM1-Y requires about 90 days from transplant to develop a mature green color and about 105 days to develop a mature red color. From seeds, HM1-Y requires about 115 days to mature green and about 170 days to develop a mature yellow fruit color. V10443 requires about 107 days from transplant to develop a mature green color and about 120 days to develop a mature red color. From seeds, HM1-Y requires about 128 days to mature green and about 141 days to develop a mature red fruit color. While both H78-1R and HM1-Y show a maturity from seed and maturity from transplants of about the same time as Jalapenos, variety V10443 mature from seed and transplants about 10 days earlier than Jalapenos.

With respect to the plant, H78-1R, HM1-Y and V10443 all have a compact habit with no basal branches and rigid branch flexibility when compared to Jalapeno `M` plants. H78-1R stands about 51 cm high. Both H78-1R and HM1-Y have a width of about 61 cm which is about 10 cm narrower than Jalapeno `M` plants grown in adjacent plots of land. V10443 is about 39 cm in width which is about 2 cm narrower than Jalapeno `M`. H78-1R is about 51 cm high and about 24 cm shorter than Jalapeno `M`. HM1-Y is about 61 cm high and about 14 cm shorter than Jalapeno `M`. V10443 is about 39 cm high and 10 cm shorter than Jalapeno `M`.









H78-1R, HM1-Y and V10443 all have dark green foliage with a lanceolate mature shape and a medium mature size which is comparable to the foliage of Anaheim Chili.

The flowers of H78-1R, HM1-Y and V10443 are similar with a calyx lobe number of about 6 and a petal number of about 6; white corolla, yellow (tan) corolla throat marking, style length less than stamen length, one flower per axil, no self incompatibility and no cytoplasmic male sterility.

With respect to the fruit, H78-1R, HM1-Y and V10443 all comprise fruits that have external appearance of Jalapeno `M` with a saucer shaped calyx, oblong fruit shape, concentrated fruit set, straight pedicel shape. H78-1R, HM1-Y and V10443 share characteristics with Yolo Wonder L such as a lack of pungency, dark green immature color, smooth surface smoothness, a pendent fruit position and a blunt apex shape. H78-1R and V10443 have a red mature fruit color like Yolo Wonder L, while the color of the HM1-Y is lemon yellow. H78-1R and HM1-Y have thick flesh like Yolo Wonder L, while V10443 has medium flesh thickness more like Anaheim Chili. The fruits of all three varieties have the slender pedicel thickness like a Cayenne pepper and a long pedicel length like an Anaheim Chili. The fruits of H78-1R are larger with a length of about 12 cm, which is about 3 cm longer than Jalapeno `M`. Each H78-1R fruit weights on average about 80 grams with a diameter of about 40 mm at calyx attachment. The number of locules of H78-1R varies between about 3 to about 4. The fruits of HM1-Y are also larger with a length of about 13 cm, which is about 4 cm longer than Jalapeno `M`. Each HM1-Y fruit weights on average of about 80 grams with a diameter of about 3 cm at calyx attachment. The number of locules of H1-Y varies between about 3 to about 4. The fruits of V10443 are smaller with a length of about 5 cm, which is about 2 cm longer than Jalapeno `M`. Each H78-1R fruit weights on average of about 9 grams with a diameter of about 23 mm at calyx attachment. The number of locules of H78-1R varies between about 2 to about 3.

The seeds of Variety H78-1R, HM1-Y and V10443 are all yellow. Variety H78-1R seeds weight 8g per 1000 seeds. Variety HM1-Y weights 9 grams per 1000 seeds and Variety V10443 weights 5 grams per 1000 seeds.

The characteristics of H78-1R, HM1-Y and V10443 with respect to anthocyanin are similar. It is present in stem and node but absent in the leaf, calyx, pedicel, seedling hypocotyl and fruit of the plant.

In summary, H78-1R, HM1-Y and V10443 most resemble Jalapeno `M` in maturity, plant habit, leaf color, leaf shape, fruit shape, and immature fruit color. H78-1R, HM1-Y and V10443 most resemble Yolo Wonder L in pungency. While H78-1R and V10443 most resemble Jalapeno `M` in mature fruit color, V10443 most resembles Golden Bell in mature fruit color.

Other embodiments and advantages of the invention are set forth, in part, in the description which follows and, in part, will be obvious from this description and may be learned from practice of the invention.

EXAMPLES

Example 1

Selection of New No-Heat Jalapeno Cultivars by Means of Crossing a C-023 Sweet Pepper Cultivar to a C-027 Jalapeno Cultivar

New no-heat Jalapeno breeding lines were produced by means of crossing a selected C-023 Sweet pepper breeding line to a C-027 Jalapeno breeding line. Sweet Pepper cultivar C-023 was crossed as the female parent to the Jalapeno pepper cultivar C-027 as the male parent. A detailed description of the resulting progeny is contained in Table I. The detailed description is based on plants produced in a Mediterranean climate in Santa Paula, Calif. during the winter season. Plants were grown outdoors under standard agricultural conditions for peppers. Height measurements were taken from the soil line. The phenotype of all progeny produced from the following crosses were ascertained under the same environmental conditions and using the same methods.

                  TABLE 1
    ______________________________________
    Genus and Species
    Variety Name   H78-1R    HM1-Y     V10443
    ______________________________________
    Genus and Species
                   Capsicum  Capsicum  Capsicum
                    annuum    annuum    annuum
    Family         Solanaceae
                             Solanaceae
                                       Solanaceae
    Crop or Common Name
                   Jalapeno  Jalapeno  Jalapeno
    ______________________________________


TABLE 2 ______________________________________ Market Maturity Variety Name H78-1R HM1-Y V10443 ______________________________________ Days from transplant 90 90 107 to mature green Days from transplant to 105 105 120 mature red or yellow Days from seed to 110 115 128 mature green Days from seed to 170 170 141 mature red or yellow Maturity days form Same as Same as 10 days earlier transplant Jalapeno Jalapeno than Jalapeno Maturity days from seed Same as Same as 10 days earlier Jalapeno Jalapeno than Jalapeno ______________________________________

TABLE 3 ______________________________________ Plant Characteristics Variety Name H78-1R HM1-Y V10443 ______________________________________ Habit Compact Compact Compact Height 51 61 cm 39 Height compared 24 cm shorter 14 cm shorter 10 cm shorter to Jalapeno Width 61 cm 61 cm 39 cm Width compared 10 cm narrower 10 cm narrower 2 cm narrower to Jalapeno Length of 3rd 28 mm 30 mm 80 mm internode Basal branches none none none Branch flexibility Rigid Rigid Rigid ______________________________________

TABLE 4 ______________________________________ Leaf Phenotype Variety Name H78-1R HM1-Y V10443 ______________________________________ Foliage color Dark Green Dark Green Dark Green Mature Shape Lanceolate Lanceolate Lanceolate Mature Size Medium Medium Medium (Anaheim Chili) (Anaheim Chili) (Anaheim Chili) ______________________________________

TABLE 5 ______________________________________ Flower Phenotype Variety Name H78-1R HMI-Y V10443 ______________________________________ Calyx lobe number 6 6 6 Petal number 6 6 6 Corolla Color White White White Corolla throat Yellow (tan) Yellow (tan) Yellow (tan) marking color Another color Yellow Yellow Yellow Style length Less than Less than Same as stamen stamen stamen Flower per 1 1 1 leaf axil Self incompatibility Absent Absent Absent Cytoplasmic Male Absent Absent Absent Sterility ______________________________________

TABLE 6 ______________________________________ Fruit Phenotype Variety Name H78-IR HM1-Y V10443 ______________________________________ Group Jalapeno Jalapeno Jalapeno Pungency Sweet Sweet Sweet (Yolo (Yolo Wonder L) (Yolo Wonder L) Wonder L)* Immature color Dark Green Dark Green Dark Green (Yolo Wonder L) (Yolo Wonder L) (Yolo Wonder L) Mature color Red Lemon Yellow Red (Yolo Wonder L) (Yolo Wonder L) Surface Smooth Smooth Smooth smoothness (Yolo Wonder L) (Yolo Wonder L) (Yolo Wonder L) Calyx shape Saucer shaped Saucer shaped Saucer shaped Position Pendent Pendent Pendent (Jalapeno) (Jalapeno) (Jalapeno) Base shape Rounded Rounded Rounded (Jalapeno) (Jalapeno) (Jalapeno) Apex shape Blunt Blunt Blunt (Yolo Wonder L) (Yolo Wonder L) (Yolo Wonder L) Flesh thickness Thick Thick Medium (Yolo Wonder L) (Yolo Wonder L) (Anaheim Chili) Length 12 cm 13 cm 5 cm Compared 3 cm longer 4 cm longer 2 cm shorter to Jalapeno Diameter 40 mm 32 mm 23 at calyx attachment Weight per 79.7 grams 78 grams 9 grams fruit Fruit Shape Oblong Oblong Oblong (Jalapeno) (Jalapeno) (Jalapeno) Fruit Set Concentrated Concentrated Concentrated Number of 3 to 4 3 to 4 2 to 3 Locules Pedicel Length Long Long Long (Anaheim Chili) (Anaheim Chili) (Anaheim Chili) Pedicel Shape Straight Straight Straight Pedicel Slender Slender Slender Thickness (Cayenne) (Cayenne) (Cayenne) ______________________________________ *Characteristic is described by comparison with a known variety having similar characteristic.

TABLE 7 ______________________________________ Seed Phenotype Variety Name H78-1R HM1-Y V10443 ______________________________________ Color Yellow Yellow Yellow Weight 8 g per 1000 seed 9 g per 1000 seed 5 g per 1000 seed ______________________________________

TABLE 8 ______________________________________ Anthocyanin Variety Name H78-1R HM1-Y V10443 ______________________________________ Leaf Absent Absent Absent Stem Present Present Absent Node Present Present Present Calyx Absent Absent Absent Pedicel Absent Absent Absent Seedling Hypocotyl Absent Absent Absent Fruit Absent Absent Absent Disease Reaction Not Tested Not Tested Not Tested ______________________________________

TABLE 9 ______________________________________ Variety Most Closely Resemble Variety Name H78-IR HM1-Y V10443 ______________________________________ Maturity Jalapeno `M` Jalapeno `M` Jalapeno `M` Plant habit Jalapeno `M` Jalapeno `M` Jalapeno `M` Leaf color Jalapeno `M` Jalapeno `M` Jalapeno `M` Leaf shape Jalapeno `M` Jalapeno `M` Jalapeno `M` Fruit shape Jalapeno `M` Jalapeno `M` Jalapeno `M` Immature fruit color Jalapeno `M` Jalapeno `M` Jalapeno `M` Mature fruit color Jalapeno `M` Golden Bell Jalapeno `M` Pungency Yolo Wonder L Yolo Wonder L Yolo Wonder L ______________________________________


Example 2

HPLC Analysis of No-Heat Jalapeno

Extraction

Fresh samples of capsicum fruits such as no-heat Jalapeno may be sun dried or freeze dried and ground into capsicum powder for subsequent analysis. About 25 grams of dehydrated or fresh ground capsicum fruit is placed into a 500 ml flask. 200 ml ethanol and several glass beads are added to the flask. The 500 ml flask is attached to a reflux condenser. The contents are gently refluxed for 5 hours and then allowed to cool. About 1 to 4 ml of the cooled solution is cleaned by passage through a 0.45 micron syringe filter and stored into small glass vials as samples for liquid chromatography analysis. For low capsaicinoid content peppers, a more sensitive assay was performed by using more capsicum fruits in the same volume of ethanol and adjusting the results accordingly. For example, the heat content should be divided by 2 when twice as much starting material is extracted in the same volume of ethanol.

Standard capsaicin solutions were prepared using N-vanillyl-n-nonanamide, a synthetic analog of capsaicin. A 0.015 mg/ml solution of N-vanillyl-n-nonanamide (Penta international Corp, Livingston, N.J.) is prepared by dissolving 15 mg of N-vanillyl-n-nonanamide (Penta international Corp, Livingston, N.J.) in 1 L ethanol (95% grade or better, Sigma, St Louis, Mo.).

The extracted capsaicinoids and the standard solutions were analyzed by a high performance liquid chromatograph with a 1 V integrator, 20 .mu.l sample injector, with an UV detector set at 280 nm wavelength or fluorometer with excitation 280 nm and emission 325 nm. Chromatography was performed in an ambient temperature, about 20.degree. C. to about 25.degree. C., under isocratic conditions. A stainless steel C.sub.18 column, 150 mm long with a 4.6 mm inner diameter, with a 5 micron particle size was used for chromatographic separation. Flow rate was set at 1.5 ml per minute. Under these conditions, the relative retention times are: N-vanillyl-n-nonanamide, 1.00; nordihydrocapsaicin, 0.90; capsaicin, 1.00; dihydrocapsaicin, 1.58.

Analysis is begun with an injection of 20 .mu.l of standard N-vanillyl-n-nonanamide solution into the HPLC apparatus. Up to 6 samples may be injected and tested following standard solution injection. The standard solution is reinjected at intervals of 6 samples or less. After every 30 sample injections or less, the HPLC column is purged for 30 minutes with 100% acetonitrile at 1.5 ml per minute flow rate.

Capsaicinoid concentration is calculated as follows

For UV Detection

N=(P.sub.N /P.sub.S).times.(C.sub.S /W.sub.T).times.(200/0.98).times.9300

C=(.sub.PC /P.sub.S).times.(C.sub.S /W.sub.T).times.(200/0.89).times.16100

D=(.sub.PD /P.sub.S).times.(C.sub.S /W.sub.T).times.(200/0.93).times.16100

For Fluorescence Detection

N=(P.sub.N /P.sub.S).times.(C.sub.S /W.sub.T).times.(200/0.92).multidot.9300

C=(P.sub.C /P.sub.S).times.(C.sub.S /W.sub.T).times.(200/0.88).multidot.16100

D=(P.sub.D /P.sub.S).times.(C.sub.S /W.sub.T).times.(200/0.93).multidot.16100

Total capsaicinoid in SHU=N+C+D

ppm capsaicin.times.15=Scoville units (assumes capsaicin=15,000,000 Scoville)

N=nordihydrocapsaicin concentration in Scoville Heat Units (SHU)

C=capsaicin concentration in Scoville Heat Units (SHU)

D=dihydrocapsaicin concentration in Scoville Heat Units (SHU)

P.sub.N =average peak area for nordihydrocapsaicin from multiple analysis

P.sub.C =average peak area for capsaicin from multiple analysis

P.sub.D =average peak area for dihydrocapsaicin from multiple analysis

C.sub.S =concentration of standard solution in mg/ml

W.sub.T =weight of test sample in grams

Analysis of Jalapeno `M` pepper indicates detectable levels of capsaicinoids (FIG. 1). Analysis of No-heat Jalapeno H78-1R (FIG. 2), HM1-Y (FIG. 3) and V10443 (FIG. 4) show no detectable levels of capsaicinoids. Thus, the heat content of Jalapeno H78-1R, HM1-Y and V10443 is below detectable limits.

Example 3

Stability and Quantitative Analysis of the No-Heat Trait

The stability of the no-heat Jalapeno pepper and subjective and quantitative analysis of capsicum expression in Jalapeno pepper fruit was analyzed. Crosses were made between no-heat Jalapeno peppers and seeds from the crosses were sown and F1 fruit and seeds were collected. In order to ascertain the stability of the no-heat phenotype, the capsicum expression in the fruit was compared to control parental strains both by subjective testing and by HPLC testing. The seeds were transplanted and the plants allowed to bear fruit. Six different progenies, resulting from crosses between H78-1R and H78-1R, between HM1-Y and HM1-Y, between V10443 and V10443, between H78-1R and HM1-Y, between HM1-Y and V10443, and between V10443 and H78-1R were analyzed for capsaicinoid level. Progeny from all six crosses showed undetectable capsaicinoid level.

The absence of expression of capsaicin was repeated in all three crossings taken from each of the three strains. The level of expression of capsaicin was consistently below detectable limits.

Example 4

Recipe for Production of Extra Mild Salsa Using No-heat Jalapeno

Combine about 250 grams of fresh diced tomatoes, about 250 grams of fresh diced onions, about 235 grams of water, about 200 grams of fresh diced No-Heat Jalapenos, about 25 grams of vinegar, about 20 grams of salt and about 20 grams of fresh minced garlic. Very ripe tomatoes and white onions are preferred for use in this recipe.

The salsa sauce may be used fresh or may be refrigerated, for up to seven days, for subsequent use. If salsa is to be kept for a long period of time, it may be canned or preserved using techniques known to those of skill in the art of canning and preservation.

Other embodiments and uses of the invention will be apparent to those skilled in the art from consideration of the specification and practice of the invention disclosed herein. All U.S. Patents and other references noted herein for whatever reason are specifically incorporated by reference. The specification and examples should be considered exemplary only with the true scope and spirit of the invention indicated by the following claims.

Wearable display

Substitute milk fat compositions

Optical fiber strain relief device

Portable foldable splint

Brake pressure control valve

DNA sequence encoding N-acetyl-galactosamine-transferase

Froth flotation

Ribbed clothlike nonwoven fabric

Triarylpropyl-azabicyclooctanes

Fuel dispensing nozzle

Compartmentalized basket truck

Printer control system

Reversible code compander

Door clip

Front vehicle body structure

Elongated flexible detonating device

Valve timing adjusting device

Endoscope signal level control

Automatic reversal mechanism

Clear impact-resistant syndiotactic polypropylene

Stacker bundler shuttle system

Lime sludge press unit

Gypsum-cement system for construction materials

Support for a torch

Window sash

Inter-LAN connection method using ISDN

Hard surface detergent composition

Automatic trimming machine

Polysaccharides and preparation thereof

Terminal grounding unit

Electronic voting machine

Paint toning machine

Perfusive chromatography

Soybean cultivar 40064423

Cover connecting mechanism

Polishing apparatus

Golf putt training apparatus

Railcar straddle for material handling

Thin floss brush

Glass compositions

Environmentally stable monolithic Mach-Zehnder device

Shutter time control circuit

Selective hydrogenation of olefins

Sod cutter

Liquid container

Sliding exhaust brake system

Medical garment

Start-up circuit for voltage regulators

Weapon stabilization system

Motor control system

Pest bait station

Method for preparing microemulsions

Outdoor enclosure with heated desiccant

Dual chamber water filter

Simultaneous telecommunication between radio stations

Depth-resolved fluorescence instrument

Laterally supported flexible sign

High temperature diesel deposit tester

Photographic film and film cassette

Decoupled integrated circuit package

Golf club stand device

Shot gun shell tracer wad

Cotton gin control

Collapsible wheelbarrow

Article transferring apparatus

Floating inlet tube

Layered film and packaging material

Automated nut-cracking apparatus and method

Expandable tire building former

Non-aqueous electrochemical cell

Master cylinder apparatus

Mower deck bumper

Facial sun block mask

Neck towel and adjustable clasp

Plain bearing

Digital character display

Surface modifier composition

Phosphorus-containing copolyamides and fibers thereof

Manual floor sweeper

Process for coating glass

Method of fabricating electronic circuits

Fluid flow reversing apparatus

X-ray lens

Antimicrobial cationic peptides

Extrusion machine

Splash guard

Plastic orientation measurement instrument

Fuel system for multicylinder engines

Intraocular lens

Heterocyclic-methylene-penems

Probing with backside emission microscopy

Optical device, system and method

Flash jet coolant circulation system

Focused image tremble correcting device

Screw

Power-generating control apparatus for vehicle

Vertical storage toolbox

Cervical traction device

Ion-channel forming peptides

Insulating insert for magnetic valves

Workpiece feeding-ejection mechanism

Method of treating melanoma

Digital phase comparison apparatus

Lithography process

Electrical coupling unit for electrosurgery

Multiple pouch bagging apparatus

Moisture-curing polyamides

Structurally efficient inflatable protective device

Solar thermal propulsion unit