Printer Friendly

Agronomic aspects of two Physalis species as a function of Nitrogen fertilization.

Introduction

The genus Physalis belong to the Solanaceae family, with about 120 species widely distributed in different regions of the world (Li et al., 2008), and according to Whitson (2012), Mexico seems to be the center of diversity of this genus. The name Physalis comes from the Greek word "physa" which means bubble or balloon, referring to the calyx that surrounds the fruit of this plant (Rufato et al., 2008). It is the genus of great prominence in the family, due to the production of polyoxygenated metabolites, withasteroids, among them the Physalins, which are substances that have presented significant pharmacological activities (Tomassini et al., 2000; Soares et al., 2006; Damu et al., 2007; Reyes-Reyes et al., 2013), as well as carotenoids, polyphenols, vitamin C and total soluble solids in its fruits (El- Sheikha et al., 2008; Hassanien, 2011).

Among the various Physalis species, P. peruviana stands out due to its commercial importance, mainly in Colombia, which is one of the largest producers of this fruit (Chaves et al., 2005). In Brazil there are some production areas in Minas Gerais, Santa Catarina and Rio Grande do Sul states, however, the production is not sufficient to supply the domestic consumer market (Rodrigues et al., 2009), where the most of the fruits marketed are still imported from Colombia.

P. pubescens L. is a sub-bush with 30 cm height, being able to reach up to 1,5 m and is considered, in most regions of Brazil, as a weed species (Lorenzi, 2008), which seems to have influence on the ignorance of its qualities for cultivation and consumption (Erasmo et al., 2004), being a species of wide distribution, found in several parts of the world.

One of the most limiting nutrients for plant development, in general, is nitrogen since it is present in the composition of amino acids and, consequently, of proteins and chlorophyll molecules. Therefore, it is related to the photosynthetic capacity of plants, and finally, to the plant growth and production, so both excess and deficiency compromising the final production (Alvarenga, 2004).

Although there are several studies with Physalis, the majority refers to the Physalins and pharmacological potential of these compounds. Studies related to nutritional management are scarce, with a few studies in P. peruviana (Rufato et al., 2008; El-Tohamy et al., 2009; Muniz et al., 2011) and only one about P. pubescens responses submitted to fertilization with tanned corral manure (Peixoto et al., 2010). This last one is still little known and due to its condition of weed did not arouse, until some time ago, the interest in its study. The recommendations for cultivating the crop are the same as for the tomato crop, but with some adaptations (Rufato et al., 2008).

Therefore, the aim of this study was to evaluate the agronomic aspects (growth, development, and yield) of P. peruviana and P. pubescens plants submitted to different doses of nitrogen in order to establish more appropriate levels according to the obtained responses.

Materials and Methods

The seedlings of the two species - Physalis pubescens and P. peruviana - were obtained through seeds from plants located at UTFPR, Parana state, cultivated in the field and in a greenhouse. The sowing was carried out in expanded polystyrene trays, with 72 cells, containing fertile humus as a substrate, where 3 seeds per cell were placed. The thinning was performed at 20 days after sowing, remaining the most vigorous seedlings. The trays were kept in a greenhouse, under the same conditions of the experiment, and the irrigation was performed manually, as needed. The seedlings were transplanted to pots at 70 days after sowing (approximately 15 cm high). The soil used was a Latossolo Vermelho Distroferrico or an Ustox (American Classification Soil Taxonomy) with the following attributes: organic matter content - 60,31 g. [dm.sup.-3], phosphorus - 3,46 mg. [dm.sup.-3], potassium - 0,4 [cmol.subh.c] [dm.sup.-3], calcium - 4,86 [cmol.sup.c] [dm.sup.-3], magnesium - 2,10 [cmol.sup.c] [dm.sup.-3], basis saturation 74,2 % and pH 4,6. The soil was corrected using a calcitic limestone in order to reach pH equal to 5.7, which is within the range in which the availability of nitrogen, phosphorus, and potassium is considered adequate (Taiz & Zeiger, 2010).

The experiment was conducted in 5 L pots that were kept in a greenhouse under controlled conditions. The treatments consisted of five N doses which were: 0, 200, 250, 300 and 350 kg [ha.sup.-1], whereby applied in the form of urea, divided into four fortnightly applications. The doses of phosphorus (600 kg ha-1) and potassium (500 kg ha-1) were applied in a single dose at the time of transplanting according to the recommendations for tomato crop (Filgueira, 2008). The plants were irrigated daily by sprinkling, in the morning and late afternoon, keeping the soil moisture at the field capacity. When the plants reached a stage where the leaves prevented the soil proper irrigation in the pots, the irrigation was changed to be performed manually. The average daily temperature during the experiment period (February to October 2012) was approximately 28 [degrees]C.

The plant height (main branch), the number of branches, yield per plant (mass) and the average mass of the fruits were evaluated. These last two variables were evaluated during five weeks. At the end of the experiment dry and fresh mass of aerial part and roots, and root length were determined. Seven plants were used in each treatment for the evaluations, each consisting of one replicate.

It was also calculated the relative increase in yield from nitrogen fertilization (RIYNF). For this, the difference between the maximum fruit yield (MY), in kg [ha.sup.-1], and the fruit yield in the zero dose (FY zero), divided by the dose of N required to obtain MY, was used, demonstrated by the following equation: (MY - FT zero) / (MY dose) (Ferreira et al., 2010). The highest yield at the different N doses was taken into account, correlating with the yield at the control treatment (without fertilization).

The experiment was carried out in a completely randomized design with two species, five treatments, and seven replicates, in a 2 x 5 factorial scheme, and the regression analyses were performed using ASSISTAT statistical program (Silva & Azevedo, 2002).

Results and Discussion

As expected, both species of Physalis responded positively to the N increment. Regarding the plant height as a function of the N doses, P. pubescens showed better results than P. peruviana (Figure 1). El-Tohamy et al. (2009) studying P. peruviana in a sandy soil, observed that the increase of N doses (50 to 200 kg [ha.sup.-1]) resulted in increased plant height, in which 200 kg [ha.sup.-1] resulted in the highest plant height ( 88.25 cm).

In the present study, however, under different conditions than those obtained by El-Tohamy et al. (2009), the plants of P. peruviana and P. pubescens exceeded the values of 140 and 170 cm (Figure 1), respectively, with 350 k [ha.sup.-1] of N. The same was observed in cotton crop, with N levels varying from 60 to 180 kg [ha.sup.-1], obtaining higher plants in response to increased nitrogen fertilization (Teixeira et al., 2008). These results confirm the importance of this macronutrient in the growth, resulting in higher plants.

The plant dry mass was influenced by N doses, however, it did not show a significant difference between the species (Figure 2A). P. pubescens showed dry mass slightly greater than P. pubescens. In an experiment with P. peruviana, nitrogen fertilization also positively influenced the plant mass (fresh), reaching 846.25 g per plant in 200 kg [ha.sup.-1] of N and 274.25 g per plant in 50 kg [ha.sup.-1] of N (Tohamy et al., 2009). Sant'Ana & Silveira (2008) studying the common bean crop cycle described the influence of doses of nitrogen top-dressing in the development of the seedlings, and found that the best dose was 120 kg [ha.sup.-1] of N.

The increase in mass was also observed in cauliflower as a function of N doses (Kano et al., 2010), however, Aratani et al. (2006) could not relate the dry mass to the nitrogen top-dressing in corn crop.

The number of branches showed a linear increase for both species (Figure 2B). In this case, P. peruviana showed higher values, probably because it is characteristic of this species since it was found by El-Tohamy et al. (2009) who observed an increase in the number of branches from 11.75 to 16.25 branches per plant as far as the N doses increased

Therefore, the process of issuing branches may be more related to genetic characteristics than to nutrient supply, however, emphasizing that nutrient supply is essential for the expression of the entire genetic potential of the species.

As in the aerial part, nitrogen also showed a positive influence on the roots, both in length (Figure 3A) and in dry mass (Figure 3B), and the root length showed a linear response for the species, however, P. pubescens showed a better response to N doses.

Mendonca et al. (2006) working with different doses of N and phosphate, in papaya plants, also obtained an increase in root length with nitrogen fertilization, and the highest length (14.35 cm) was observed at the maximum dose (1,545 g N [dm.sup.-3]).

Both species showed a quadratic response to N doses for the root dry mass (Figure 3B). In Tamarind plants, the highest values of root dry mass resulted from phosphate fertilization (5 kg [m.sup.-3]) in the absence of N and with 10 kg [m.sup.-3] of phosphorus combined with 1.6 kg [m.sup.-3] of N (Souza et al. , 2007). As for yellow passion fruit, the responses showed a linear model, with the best result (6.23 g dry mass) at the dose of 3.2 g N [dm.sup.-3] (Mendonca et al., 2007). Damasceno et al. (2011) verified an increase in the fresh mass of beet roots as a function of nitrogen fertilization, with the highest value (199.95 g) found at the 300 kg [ha.sup.-1] N dose.

Regarding fruit yield per plant, it can be verified that the highest N doses used in the experiment were only favorable to P. pubescens, whereas P. peruviana showed a decrease in fruit yield and mass in the 350 kg [ha.sup.-1] of N dose (Figure 4A and B). El-Tohamy et al. (2009) obtained a total production per plant of 472.50 g with the dose of 200 kg [ha.sup.-1] and 159.19 g with the 50 kg [ha.sup.-1] N dose.

In the present work, P. pubescens responded better to N increases, possibly due to its rusticity and in addition to it has not yet undergone any selection process, unlike P. peruviana, which is the most cultivated species, then tends to have plants selected by farmers, according to their production capacity. Excess N can cause nutritional imbalance and affect crop yield, which was observed in the yield of P. peruviana (Figure 4A) with N dose of 350 kg [ha.sup.-1]. Physiologically, this may have occurred due to redistribution of photoassimilates to other vegetative parts of the plants.

Morales et al. (2012) found that in strawberries there was a decrease in yield in some cultivars and an increase in the number of stolons in the plants with higher N content, while others (cultivars) in the same experiment showed increased yield as a function of increased nitrogen fertilization, showing that varied responses occur in different varieties of the same species.

In the evaluation of fruit mass, N doses also showed influence, and as it happened with the yield, P. peruviana showed fruits with smaller masses with a dose of 350 kg [ha.sup.-1], and P. pubescens responding better to the increase of N ( Figure 4B). In an experiment developed by Roy et al. (2011) with bell pepper plants, the authors obtained an increase in fruit yield per plant, as well as in the fruit mass, as a function of increase N doses, the same observed in P. pubescens, in the present work. According to Campos et al. (2008), the increase in the number of fruits per plant, in bell peppers, with an elevation of N doses is probably due to the fact that N is the element absorbed in greater quantity and with a fundamental importance for the growth and development of bell pepper plants. Although plants of the same family have similar nutritional requirements, it is not possible to generalize and, thus, is important determining the needs for each species, if not for each variety (cultivar).

For the RIYNF, the results obtained were 1.78 kg of fruits per kg of N for P. pubescens and 1.33 kg of fruits per kg of N for P. peruviana. For the genus Physalis, there are still no ideal values established, however, P. pubescens showed higher relative efficiency in the nitrogen utilization, as the results showed. Ferreira et al. (2010), working with tomato crop, found indexes of 15.23 and 13.22 kg of fruits per kg of N for tomatoes grown in spring/summer with different doses of N and of 22.90 and 27.67 kg of fruits per kg of N for tomatoes cultivated in fall/spring. The authors argued that these values are low for the crop, however, probably the low efficiency in N utilization was due to high rainfall in the first growing season and in the irrigation type in the second growing season (furrow irrigation) which may have caused leaching of the N applied. Regarding Physalis, these values are only illustrative, since it is not possible to state whether they are considered ideal or not based on this first attempt to use this expression.

The different Physalis responses, in terms of fruit yield, in different doses of N, may be related to selection processes, since domesticated plants, such as P. peruviana, lose their rusticity by being constantly selected, and are much more dependent on human alterations and interventions in its environment (Veasey et al., 2011). Probably, the plants of this species already have a higher initial productive potential, thus, it is closer to its limit, with greater response in lower doses of nutrients and the negative effect with increase of fertilization, whereas P. pubescens still has all its potential to be explored, which can be observed by the positive responses in all analyzed variables.

Conclusions

The nitrogen doses used in this study resulted in increased in the number of branches, plant height, root length, as well as the dry mass of root and aerial part, fruit mass and yield in both species of Physalis.

Under the conditions tested, it was observed that for P. peruviana, the dose of 250 kg [ha.sup.-1] of N resulted in a higher fruit yield per plant, whereas for P. pubescens the dose of 350 kg [ha.sup.-1] of N was more efficient.

Acknowledgments

To Araucaria Foundation by the financial support and to CNPq by granting a master degree scholarship.

References

Alvarenga, M.A.R. 2004. Tomate: Producao em campo, em casa de vegetacao e em hidroponia. UFLA, Lavras, Brasil. 393p.

Aratani, R.G., Fernandes, F.M., Mello, L.M.M. 2006. Adubacao nitrogenada de cobertura na cultura do milho irrigado, em sistema plantio direto. Revista Cientifica Eletronica de Agronomia 9: 1-10.

Campos, V.B., Oliveira, A.P., Cavalcante, L.F., Prazeres, S.S. 2008. Rendimento do pimentao submetido ao nitrogenio aplicado via agua de irrigacao em ambiente protegido. Revista de Biologia e Ciencias da Terra 8: 72-79.

Chaves, A.C., Schuch, M.W., Erig, A.C. 2005. Estabelecimento e multiplicacao in vitro de Physalis peruviana L. Revista Ciencia e Agrotecnologia 29: 1281-1287.

Damasceno, L.A., Guimaraes, M.A., Guimaraes, A.R. 2011. Produtividade de beterraba em funcao de doses de nitrogenio. Horticultura Brasileira 29: S3694-S3701. (Suplemento CD-ROM).

Damu, A.G., Kuo, P.-C., SU, C.-R., Kuo, T.-H., Chen, T.-H., Bastow, K.F., Lee, K.-H., Wu, T.-S. 2007. Isolation, structures, and structure-sytotoxic activity relationships of withanolides and physalins from Physalis angulata. Journal of Natural Products 70: 1146-1152.

El-Sheikha, A.F., Zaki, M., Bakr, A., El Habashy, M., Montet, D. 2008. Physico-chemical properties and biochemical composition of Physalis (Physalis pubescens L.) fruits. Food 2: 124-130.

El-Tohamy, W.A., El-Abagy, H.M., Abou-Hussein, S.D., Gruda, N. 2009. Response of cape gooseberry (Physalis peruviana L.) to nitrogen application under sandy soil conditions. Gesunde Pflanzen 61: 123-127.

Erasmo, E.A.L., Pinheiro, L.L.A., Costa, N.V. 2004. Levantamento fitossociologico das comunidades de plantas infestantes em areas de producao de arroz irrigado cultivado sob diferentes sistemas de manejo. Planta Daninha 22: 195-201.

Ferreira, M.M.M., Ferreira, G.B., Fontes, P.C.R. 2010. Eficiencia da adubacao nitrogenada do tomateiro em duas epocas de cultivo. Revista Ceres 57: 263-273.

Filgueira, F.A.R. 2008. Novo manual de olericultura. 3a ed. Editora UFV, Vicosa, Brasil. 421p.

Hassanien, M.F.R. 2011. Physalis peruviana: a rich source of bioactive phytochemicals for functional foods and pharmaceuticals. Food Reviews International 27: 259-273.

Kano, C., Salata, A.C., Higuti, A.R.O., Godoy, A.R., Cardoso, A.I.I., Evangelista, R.M. 2010. Producao e qualidade de couve-flor cultivar Teresopolis gigante em funcao de doses de nitrogenio. Horticultura Brasileira 28: 453-457.

Li, Y.Z., Pan, Y.M., Huang, X.Y., Wang, H.S. 2008. Withanolides from Physalis alkekengi var. francheti. Helvetica Chimica Acta 91: 2284-2291.

Lorenzi, H. 2008. Plantas daninhas do Brasil. Plantarum, Nova Odessa, Brasil. 672p.

Mendonca, V., Ferreira, E.A., Paula, Y.C.M., Batista, T.M.V., Ramos, J.D. 2007. Crescimento de mudas de maracujazeiro amarelo influenciado por doses de nitrogenio e de superfosfato simples. Caatinga 20: 137-143.

Mendonca, V., Pedrosa, C., Feldberg, N.P., Abreu, N.A.A., Brito, A.P.F., Ramos, J.D. 2006. Doses de nitrogenio e superfosfato simples no crescimento de mudas de mamoeiro "formosa". Ciencia e Agrotecnologia 30: 1065-1070.

Morales, R.G.F., Faria, M.V., Resende, J.T.V., Rissini, A.L.L., Carminatti, R., Faria, C.M.D.R. 2012. Produtividade do morangueiro em funcao da adubacao organica complementar em cultivo protegido. Ambiencia 8: 23-33.

Muniz, J., Kretzschmar, A.A., Rufato, L., Silveira, F.N., Brighenti, L.M., Sabatino, R.S. 2011. Plantas de fisalis (Physalis peruviana L.) submetidas a adubacao quimica e organica. Cadernos de Agroecologia 6: 1-5.

Peixoto, N., Peixoto, F.C., Vaz, U.L., Neri, S.C.M., Monteiro, J.G. 2010. Adubacao organica e cobertura do solo no crescimento e producao de camapu. Horticultura Brasileira 28: 370-372.

Reyes-Reyes, E.M., Jin, Z., Vaisberg, A.J., Hammond, G.B., Bates, P.J. 2013. Physangulidine A, a withanolide from Physalis angulata, perturbs the cell cycle and induces cell death by apoptosis in prostate cancer cells. Journal of Natural Products 76: 2-7.

Rodrigues, E., Rockenbach, Cataneo, C., Gonzaga, L.V., Chaves, E.S., Fett, R. 2009. Minerals and essential fatty acids of the exotic fruit Physalis peruviana L. Ciencia e Tecnologia de Alimentos 29: 642-645.

Roy, S.S., Khan, M.S.I., Pall, K.K. 2011. Nitrogen and phosphorus efficiency on the fruit size and yield of Capsicum. Journal of Experimental Sciences 2: 32-37.

Rufato, L., Rufato, A.R., Schlemper, C., Lima, C.S.M., Kretzschmar, A.A. 2008. Aspectos tecnicos da cultura da physalis. UDESC, Pelotas, Brasil. 100p.

Sant'Ana, E.V.P., Silveira, P.M. 2008. Crescimento do feijoeiro (Phaseolus vulgaris L.) influenciado por doses de nitrogenio em cobertura. Pesquisa Agropecuaria Tropical 38: 134-140.

Silva, F.A.S., Azevedo, C.A.V. 2002. Versao do programa computacional Assistat para o sistema operacional Windows. Revista Brasileira de Produtos Agroindustriais 4: 71-78.

Soares, M.B.P., Brustolim, D., Santos, L.A., Bellintani, M.C., Paiva, F.P., Ribeiro, Y.M., Tomassini, T.C.B., Santos, R.R. 2006. Physalins B, F and G, seco-steroids purified from Physalis angulata L., inhibit lymphocyte function and allogeneic transplant rejection. International Immunopharmacology 6: 408-414.

Souza, H.A., Pio, R., Chagas, E.A., Reis, J.M.R., Rodrigues, H.C.A., Ramos, J.D., Mendonca, V. 2007. Doses de nitrogenio e fosforo na formacao de mudas de tamarindo. Bioscience Journal 23: 59-64.

Taiz, L., Zeiger, E. 2010. Plant Physiology. 5th. Sinauer Associetes, Sunderland, EUA. 782p.

Teixeira, I.R., Kikuti, H., Borem, A. 2008. Crescimento e produtividade de algodoeiro submetido a cloreto de mepiquat e doses de nitrogenio. Bragantia 67: 891-897.

Tomassini, T.C.B., Barbi, N.S., Ribeiro, I.M., Xavier, D.C.D. 2000. Genero Physalis--uma revisao sobre vitaesteroides. Quimica Nova 23: 47-57.

Veasey, E.A., Piotto, F.A., Nascimento, W.F., Rodrigues, J.F., Mezette, T.F., Borges, A., Biguzzi, F.A., Santos, F.R.C., Sobierajski, G.R., Recchia, G.H., Mistro, J.C. 2011. Processos evolutivos e a origem das plantas cultivadas. Ciencia Rural 41: 1218-1228.

Whitson, M. 2012. Calliphysalis (Solanaceae): a new genus from Southeastern USA. Rhodora 114: 133-147.

Douglas Junior Bertoncelli (1), Marisa de Cacia Oliveira (2), Amanda Izabel dos Passos (2), Taylon Henrique Casagrande (3), Ana Claudia Ariati (2)

(1) Universidade Estadual de Londrina, Londrina, PR, Brazil.

(2) Universidade Tecnologica Federal do Parana, Pato Branco, PR, Brazil.

(3) Universidade Estadual de Maringa, Maringa, PR, Brazil.

(*) Corresponding author, e-mail: dj_bertoncelli@hotmail.com

Received: 18 May 2016

Accepted: 23 July 2016

DOI: 10.14295/CS.v8i2.1327
COPYRIGHT 2017 Federal University of Piaui
No portion of this article can be reproduced without the express written permission from the copyright holder.
Copyright 2017 Gale, Cengage Learning. All rights reserved.

Article Details
Printer friendly Cite/link Email Feedback
Title Annotation:Article
Author:Bertoncelli, Douglas, Jr.; Oliveira, Marisa de Cacia; dos Passos, Amanda Izabel; Casagrande, Taylon
Publication:Comunicata Scientiae
Article Type:Report
Date:Apr 1, 2017
Words:3563
Previous Article:Effects of spatial variability on soil physical attributes in areas cultivated with cassava prepared with different tillage systems.
Next Article:Phenology of African mahogany plants submitted to irrigation.
Topics:

Terms of use | Privacy policy | Copyright © 2020 Farlex, Inc. | Feedback | For webmasters