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Revista mexicana de fitopatología

versión On-line ISSN 2007-8080versión impresa ISSN 0185-3309

Rev. mex. fitopatol vol.40 no.3 Texcoco sep. 2022  Epub 14-Nov-2022

https://doi.org/10.18781/r.mex.fit.2204-1 

Phytopathological notes

Incidence of monkey´s hand in maize germplasm from different locations in Mexico

José Jesús Márquez-Diego1 

Carlos De León-García de Alba1  * 

Reyna Isabel Rojas-Martínez1 

J. Concepción Rodríguez-Maciel2 

Cristián Nava-Díaz3 

1 Programa de posgrado en Fitosanidad-Fitopatología Campus Montecillo, Km 36.5 Carretera México-Texcoco. Montecillo, Edo. de México, México, CP 56230.

2 Programa de Posgrado de Fitosanidad-Entomología Campus Montecillo, Km 36.5 Carretera México-Texcoco. Montecillo, Edo. de México, México, CP 56230.

3 Colegio de Postgraduados, Campus Montecillo, Km 36.5 Carretera México-Texcoco. Montecillo, Edo. de México, México, CP 56230.


Abstract

The incidence of maize monkey´s hand disease was determined in nine states of the Mexican Republic. The evaluation sites were georeferenced, and incidence was estimated along with the farmers to determinate the identity of the germplasm used. Monkey´s hand was found affecting maize plants in localities of the States of Puebla with an incidence of 24%, Hidalgo (17.05%), Morelos (11.7%), Chiapas (7.28%), Tlaxcala (7.0%), Oaxaca (6.5%), Veracruz (6.3%), Mexico (6.2%), and Jalisco (3.0%). Data showed a low but positive correlation (r= 0.30) between altitude and incidence. Native germplasm is more susceptible to the monkey´s hand disease than improved germplasm.

Key words: monkey’s hand; maize diseases; bouquet ears

Resumen

El objetivo de esta investigación, fue determinar la incidencia y distribución de la enfermedad mano de chango en maíz en nueve estados de la República Mexicana (Tlaxcala, Puebla, Edo. de México, Hidalgo, Veracruz, Morelos, Oaxaca, Chiapas y Jalisco). Los sitios de evaluación se georreferenciaron, se estimó la incidencia y se realizó una encuesta con los productores para determinar la identidad del germoplasma utilizado. La mano de chango se encontró afectando plantas de maíz en localidades de los estados de Puebla con incidencia de 24%, Hidalgo (17.05%), Morelos (11.7%), Chiapas (7.28%), Tlaxcala (7.0%), Oaxaca (6.5%), Veracruz (6.3%), Edo. de México (6.2%), y Jalisco (3.0%). Los datos mostraron una correlación baja, pero positiva (r=0.30) entre la altitud y la incidencia. Observaciones indicaron que el germoplasma nativo es más susceptible a la enfermedad que el mejorado.

Palabras clave: de mazorcas; enfermedades de maíz; “bouquet ears”

Since 1997, maize cultivation has ranked first in planted area and production worldwide (CIMMYT, 2019). In 2021, 8.5 M ha were planted in Mexico with a per capita consumption of 297 kg. Despite the national importance of maize, the average national production is 3.47 t ha-1, lower than the world average of 5.38 t ha-1 and well below that of the United States of America, which produces an average of 10.96 t ha-1 (CIMMYT, 2019). Mexico is one of the major importers of maize. In the 1980s, it imported 3 Mt, an amount that increased to 5 Mt in 2000 (Reyes-Santiago et al., 2022). A record of more than 17 M t were imported in 2018 (CEDRSSA, 2019) and more than 16 M t in 2020 (SIAVI, 2021). In 2021, Mexico used more than US $5000 000 to purchase white and yellow maize (GCMA, 2022).

One of the several maize diseases includes the Multiple Ears on Same Shank syndrome (Bonnet, 1966), known as MESS (Nielsen, 1999), or Bouquet Ears (Nielsen, 2014). There are only a few reports of this condition, all from recent years, due its low incidence and importance (Ortez et al., 2022). Moreover, its etiology has not been determined yet (Elmore and Abendroth, 2006; Ciampitti, 2014; Thomison and Geyer, 2015; Moghadam et al., 2022).

In Mexico, in 1991, an abnormality was recorded in maize plants involving the development of multiple ears from the main one. Cruz (1991) called it “maize’s little hand” (manita del maiz), while Hernández (1993) ruled it out as an important disease. Aguilar and Molina (1996) determined a correlation between the use of seeds from symptomatic plants and the incidence of this condition, ruling out that the application of fungicides could reduce the symptoms. In 2010, in a study carried out in Veracruz, Mexico, the symptom of multiple maize ears was reported in association with the phytoplasma “maize bushy stunt” (Alcántara-Mendoza et al., 2010). Marquez-Diego et al. (2021) indicated that producers call this condition “monkey´s hand” (Figure 1) and determined that plants with this symptom show a decrease in grain yield ranging from 20 and 86%, depending on the germplasm evaluated. Singh and Pooja (2008) also argued that the incidence of this condition depends on the genetic material. Ortiz et al. (2022) found that plants with these symptoms lose between 30 and 90% of their grain. The present study aimed to determine the incidence and distribution of maize plants with symptoms of monkey´s hand at different altitudes and for different germplasms used by farmers.

Figure 1 Symptom associated with ‘monkey´s hand’ in maize ears. 

The study was conducted in nine states of the Mexican Republic, including Tlaxcala, Puebla, State of Mexico, Hidalgo, Veracruz, Morelos, Oaxaca, Chiapas and Jalisco, during the 2021 autumn - winter season. Commercial plots of maize in stage R1 (Ritchie et al., 1986) or later, were selected. Producers were interviewed to learn about the germplasm they had used. In each locality, the geographic coordinates, meters above sea level (masl), genetic material and incidence of the monkey´s hand symptom were determined in 100 plants in each of four rows in the center of the plot. The incidence per plot was estimated from four repetitions of 100 plants in each of the plots, using the formula:

I (%)= n/N *100

Where: I=incidence, n= number of plants with symptoms, N= total plants evaluated.

The incidence of the disease was associated with altitude (masl) using the covariance and correlation test. The incidence between native varieties and improved varieties was compared. The differences between the sampled states were compared using the Kruskal-Wallis test due to the abnormality of the data.

In studies carried out in India, Singh and Pooja (2010) reported that the “bouquet ears” disease had increased both in distribution and incidence. This information coincides with reports from farmers about a significant decrease in yield associated with the disease. In Mexico, initial reports described it as a symptom of little economic importance (Cruz, 1991; Hernández, 1993; Aguilar and Molina, 1996). However, Márquez et al. (2021) documented losses of up to 86% in plants with symptoms (with variations according to the genetic background) in the Mezquital region, in the state of Hidalgo. The data collected in the present study showed a similar behavior (Table 1). It was observed that, in 72 of the 74 localities sampled in the country, the incidence of symptoms indicated that the monkey’s hand was distributed in all the sampled states. Only the hybrid Aspros Gladiador and the native variety in Tlaxcala and Ciudad Mendoza, Veracruz, respectively, did not show symptoms of deformation.

Elmore and Abendroth (2006), Alcántara-Mendoza et al. (2010) Thomison (2015), Sravani et al. (2021), Márquez-Diego et al. (2021), and Moghadam et al. (2022) reported that the incidence of this disease depends on the germplasm used. In the present study, the native varieties showed a higher incidence of monkey´s hand symptom, with a mean of 12.06a, than the improved varieties, with 7.53b (χ² = 0.0367) (Table 2). Variations in incidence were observed in the different states sampled. The most affected states were: Puebla, with a percentage greater than 24a, Hidalgo (17ab) and Morelos (11.7b). The states with the lowest incidence were Chiapas (7.2b), Tlaxcala (7.0b), Oaxaca (6.5b), Veracruz (6.3b), State of Mexico (6.2b), and Jalisco with 3.0b % (DMS 5 %: 4.537).

Table 1 Incidence of ‘monkey’s hand’ symptoms in maize plants in different locations in Mexico. 

Estado Localidad Coordenadas Msnm Germoplasma *a Incidencia*b
Tlaxcala La Venta 19°33'28.2"N 98°42'16.4"W 2785 Nativo morado 12.5
La Venta 19°33'56.5"N 98°41'04.2"W 2780 Nativo 13.0
Calpulalpan 19°35'05.7"N 98°37'44.9"W 2618 Trébol amarillo 0.25
San Felipe Sultepec 19°35'19.8"N 98°37'02.2"W 2600 Nativo 11.25
Calpulalpan 19°35'35.7"N 98°35'26.2"W 2620 Nativo 4.0
Calpulalpan 19°36'30.9"N 98°33'37.8"W 2600 Nativo morado 16.5
Tlaxco 19°37'11.3"N 98°07'44.8"W 2550 Local 0.5
Tlaxco 19°36'16.7"N 98°09'10.0"W 2500 Aspros Gladiador 0
Tetlán de Solidaridad 19°28'35.4"N 98°02'55.5"W 2400 Asgrow H48 5.75
Hidalgo Emiliano Zapata 19°40'05.8"N 98°33'01.3"W 2500 Nativo 9.5
Tlanalapa 19°49'40.3"N 98°35'26.2"W 2450 Cacahuacintle amarillo 21.75
Singuilucan 19°56'06.0"N 98°33'34.5"W 2580 Nativo 23.5
Cinta larga 20°11'20.7"N 99°13'25.9"W 2005 Nativo 14.0
Cinta larga 20°11'20.7"N 99°13'25.9"W 2005 Aspros Hc8 16.5
Puebla Chignahuapan 19°49'20.9"N 98°01'32.9"W 2670 Nativo 22.0
Chignahuapan 19°47'06.4"N 98°02'20.7"W 2670 Nativo 12.75
Camino Chignahuapan- Tlaxco 19°44'54.8"N 98°03'26.0"W 2300 Asgrow Rinoceronte 6.00
San José Chiapa 19°14'11.3"N 97°44'52.4"W 2380 Asgrow H48 39.75
Sierra de Soltepec 19°06'00.9"N 97°40'03.5"W 2355 Nativo 36.25
Cerca de Nicolás Bravo 18°40'05.9"N 97°22'15.1"W 2620 Híbrido 3.75
Cañada de Morelos 18°44'46.1"N 97°24'59.3"W 2323 Nativo 42.25
Palmar de Bravo 18°50'19.0"N 97°31'15.8"W 2199 Nativo 30.0
Morelos Ayala 18°46'23.6"N 98°53'48.7"W 1147 Antílope 2.0
Tlayecac 18°45'24.1"N 98°52'16.7"W 1360 Nativo 7.75
Jantetelco 18°44'33.3"N 98°50'10.4"W 1436 Asgrow Berrendo 24.25
Jantetelco 18°43'17.1"N 98°50'58.4"W 1430 Unisem Ares 0.75
Yecapixtla 18°53'26.0"N 98°52'51.3"W 1500 Dekalb 2037 27.5
Atlahuacán 18°57'47.2"N 98°52'22.2"W 1610 Brevant B3916 8.0
Oaxaca Tuxtepec 18°08'29.8"N 96°10'59.9"W 20 Nativo 11.5
Tuxtepec 18°08'06.9"N 96°10'59.9"W 35 Nativo 3.5
San juan bautista 18°08'04.3"N 96°10'57.5"W 20 Papaloapan 4.5
Jalisco Autlán de Navarro 19°45'16.6"N 104°21'43.1"W 900 Asgrow 7573 2.0
Autlán de Navarro 19°45'16.6"N 104°21'43.1"W 900 Asgrow 7573 3.0
Unión de Tula 19°58'45.7"N 104°15'40.4"W 1349 Asgrow 7573 4.25
Veracruz Rancho viejo 18°47'02.2"N 97°12'22.0"W 1260 Nativo 20.75
Nueva Rosita 18°47'47.7"N 97°11'35.6"W 1320 Xalapeño 0.5
Cd. Mendoza 18°48'53.9"N 97°10'51.2"W 1280 Nativo 0
Emiliano Zapata 18°43'56.2"N 97°16'31.4"W 1630 Poncho 12.5
Cosamaloapan de Carpio 18°09'01.5"N 96°10'29.5"W 10 Nativo 9.25
Cosamaloapan de Carpio 18°08'45.3"N 96°10'31.0"W 15 Nativo 11.5
Cosamaloapan de Carpio 18°08'44.7"N 96°10'27.8"W 10 Nativo 2.25
Cosamaloapan de Carpio 18°08'43.6"N 96°10'29.2"W 10 Nativo 0.25
Cosamaloapan de Carpio 18°08'33.8"N 96°10'30.6"W 10 Papaloapan 6.25
Cosamaloapan de Carpio 18°08'44.1"N 96°09'42.6"W 20 Papaloapan 10.75
Cosamaloapan de Carpio 18°08'45.0"N 96°09'44.9"W 20 H-520 3.5
Cosamaloapan de Carpio 18°09'00.0"N 96°09'45.0"W 10 Nativo 3.75
Cosamaloapan de Carpio 18°08'43.4"N 96°10'33.3"W 10 Nativo 5.5
Cosamaloapan de Carpio 18°08'43.4"N 96°10'33.3"W 10 Nativo 5.5
Cosamaloapan de Carpio 18°08'43.4"N 96°10'33.3"W 10 Nativo 5.5
Cosamaloapan de Carpio 18°08'43.4"N 96°10'33.3"W 10 Nativo 5.5
Chiapas Siltepec 15°27'42.0"N 92°23'29.5"W 790 Christian 10.25
Motozintla 15°25'22.8"N 92°21'22.9"W 830 Dekalb 7500 15.0
Motozintla 15°25'33.0"N 92°21'50.9"W 866 Pioneer 15.75
Motozintla 15°26'06.6"N 92°21'48.8"W 879 Nativo 2.25
Siltepec 15°27'26.3"N 92°22'58.5"W 986 Híbrido amarillo 0.5
Siltepec 15°27'26.3"N 92°22'58.5"W 986 Pioneer 1.75
Siltepec 15°27'26.3"N 92°22'58.5"W 987 Christian 5.0
Siltepec 15°26'40.5"N 92°22'30.5"W 1056 Pioneer 5.0
Montecristo de Guerrero 15°39'00.0"N 92°43'12.0"W 1215 Nativo 5.5
El Nominado 15°36'00.0"N 92°43'12.0"W 1215 Pioneer 0.75
El Nominado 15°36'00.0"N 92°43'12.0"W 1223 Pioneer 16.75
El Nominado 15°36'00.0"N 92°43'12.0"W 1223 Jarocho 9.75
Motozintla 15°23'34.5"N 92°25'50.6"W 1226 Nativo 12.75
Motozintla 15°23'29.6"N 92°24'18.1"W 1250 Nativo 3.5
Motozintla 15°25'11.1"N 92°23'01.9"W 1343 Pioneer 4.75
Edo. de México Colpos 19°28'06.6"N 98°54'03.5"W 2250 MO19:15# Bco (Colpos) 3.5
Colpos 19°28'06.6"N 98°54'03.5"W 2250 MO19:19+2# Bco (Colpos) 0.75
Colpos 19°28'06.6"N 98°54'03.5"W 2250 MO19:Elvia 3 TSR# Bco (Colpos) 5.25
Colpos 19°28'06.6"N 98°54'03.5"W 2250 MO19:11# Amar. (Colpos) 0.5
Colpos 19°28'06.6"N 98°54'03.5"W 2250 MO19:CP-Vero1 Bco (Colpos) 5.0
Colpos 19°28'06.6"N 98°54'03.5"W 2250 MO19:CP Hilda 2 Amar. (Colpos) 1.0
Chapingo 19°29'30.5"N 98°52'30.7"W 2250 Mejorado 7.0
Chapingo 19°29'30.5"N 98°52'30.7"W 2250 Mejorado 16.0
Tepetlixpa 19°00'57.9"N 98°49'49.8"W 2330 Nativo 17.0

a According to the interview with the owner of the plot. *b Average of four replications.

Table 2 Covariance of altitude variables (masl) and incidence of monkey hand disease in maize. 

Variables R p-value Significancia
Correlación Msnm – incidencia (Spearman) = 0.3038984 27.03% 0.01984 *
Covarianza: 2716.052

The covariance has a positive value (Table 2) and the correlation a percentage of 30.38, indicating a direct correlation. As the altitude of the location increased, the incidence tended to increase (Figure 2).

The results showed that monkey´s hand was found in all the states evaluated, with Puebla having the highest incidence (24 %). The native varieties were more susceptible to the disease than the improved ones. The different altitudes of the localities did not influence the incidence of monkey´s hand.

Figure 2 Correlation between the variables of altitude (masl) and the incidence of monkey´s hand disease in maize. 

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Received: April 19, 2022; Accepted: June 05, 2022

*Corresponding author: cdeleon@colpos.mx.

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