Growth Of Rice Plants Research Articles

Measurement of the Angle between stems and leaves of rice based on key point detection

Stem-leaf angle is an important phenotypic parameter of rice, which is crucial for the growth and development of rice plants and scientific breeding. However, the traditional method is inefficient and subjective. In order to quickly and accurately calculate the stem-leaf pinch angle of rice, this paper proposes a key point-based stem-leaf pinch angle detection method. Experimentally, four periods of rice (Jointing stage, Booting stage, Heading stage and Mature stage) are selected as research objects, image data are collected, key points are extracted by YOLOv7-pose network model, and a lightweight convolution method GSConv is introduced, which is able to reduce the complexity of the model and improve the accuracy of the key point detection, the average accuracy of key point detection was improved from 93.7% to 98.7%, an improvement of 5%. Finally, the angular size of the pinch angle was determined based on the coordinates of the key points located by the model, and the R2 of the pinch angle calculation results to the actual manual measurements was the highest of 0.84, the errors for the four periods were 1.543°, 1.716°, 1.213°, and 0.998°. So the method ensures the accuracy of identification while the model size is reduced, and can effectively measure the angle of rice stem and leaf pinch, and the investigated method can better help farmers to understand the growth and development of plants and provide support for the selection of excellent crop traits.

Uji Efektivitas Kombinasi Pupuk Kandang Sapi dan Ayam untuk Meningkatkan Pertumbuhan dan Hasil Padi (Oryza sativa L.) Varietas Lampai Sirandah

Rice (Oryza sativa L.) is the main commodity in the agricultural sector in Indonesia, especially in Sijunjung Regency, West Sumatra Province. Rice production in this region is influenced by several factors, including increasingly limited land, suboptimal cultivation techniques, and lack of attention to the use of high-yielding varieties. One of the superior varieties being developed in Sijunjung Regency is the Lampai Sirandah variety of rice, which has several advantages including resistance to pests or diseases and high productivity. The purpose of the study was to get the best results from the combination of cow manure with chicken manure for Lampai Sirandah rice plants. Research with the Group Randomized Design (RAK) method at 5 treatment levels and 5 repeats, so that there are a total of 25 experimental units. The treatment given consists of 5 levels of fertilizer doses, namely A = control B = Cow Manure 0.504 g + Chicken Manure 0.504 g, C = Cow Manure 0.576 g + Chicken Manure 0.576 g, D = Cow Manure 0.648 g + Chicken Manure 0.648 g, E = Cow Manure 0, 72 g + Chicken Manure 0.72 g. The results showed that the E treatment reached a maximum height of 56±1.57 cm and the longest panicle (23±0.5 cm). The conclusion of the study showed that the combination of cow and chicken manure had a significant impact on the growth of rice plants of lampai sirandah varieties in treatment E reaching a maximum height of 56±1.57 cm and the longest panicle (23±0.5 cm) while the best results in treatment A and C (66±4.5), number of panicles (3±0.5), panicle length (23±0.5a), grain weight/panicle (8.00±4.0), and the weight of grain/clump (20.80±15) in treatment E and for the weight of 1000 grains found in treatment C (0.38±0.0). In addition, the results showed that the optimal dose for chicken manure mixture lies in treatment E at a dose of 0.72 kg/m2. Keywords: organic fertilizer, growth, yield lampai sirandah

Synergistic effect of biochar with gypsum, lime, and farm manure on the growth and tolerance in rice plants under different salt-affected soils

Soil salinization and sodication harm soil fertility and crop production, especially in dry regions. To combat this, using biochar combined with gypsum, lime, and farm manure is a promising solution for improving salt-affected soils. In a pot experiment, cotton stick biochar (BC) was applied at a rate of 20 t/ha in combination with gypsum (G), lime (L), and farm manure (F) at rates of 5 and 10 t/ha. These were denoted as BCG-5, BCL-5, BCF-5, BCG-10, BCL-10, and BCF-10. Three different types of soils with electrical conductivity (EC) to sodium adsorption ratio (SAR) ratios of 2.45:13.7, 9.45:22, and 11.56:40 were used for experimentation. The application of BCG-10 led to significant improvements in rice biomass, chlorophyll content, and overall growth. It was observed that applying BCG-10 to soils increased the membrane stability index by 75% in EC:SAR (2.45:13.7), 97% in EC:SAR (9.45:22), and 40% in EC:SAR (11.56:40) compared to respective control treatments. After BCG-10 was applied, the hydrogen peroxide in leaves dropped by 29%, 23%, and 21% in EC:SAR (2.45:13.7), EC:SAR (9.45:22), and EC:SAR (11.56:40) soils, relative to their controls, respectively. The application of BCG-10 resulted in glycine betaine increases of 60, 119, and 165% in EC: SAR (2.45:13.7), EC: SAR (9.45:22), and EC: SAR (11.56:40) soils. EC: SAR (2.45:13.7), EC: SAR (9.45:22), and EC: SAR (11.56:40) soils all had 70, 109, and 130% more ascorbic acid in BCG-10 applied treatment, respectively. The results of this experiment show that BCG-10 increased the growth and physiological traits of rice plants were exposed to different levels of salt stress. This was achieved by lowering hydrogen peroxide levels, making plant cells more stable, and increasing non-enzymatic activity.

Effects of foliar selenium, biochar, and pig manure on cadmium accumulation in rice grains and assessment of health risk

Addressing cadmium (Cd) contamination in agricultural lands is crucial, given its health implications and accumulation in crops. This study used pot experiments to evaluate the impact of foliar selenium spray (Se) (0.40 mM), corn straw biochar (1%), and pig manure (1%) on the growth of rice plants, the accumulation of Cd in rice grain, and to examine their influence on health risk indices associated with Cd exposure. The treatments were designated as follows: a control group without any amendment (CK), biochar (T1), pig manure (T2), Se (T3), Se and biochar (T4), Se and pig manure (T5), and Se along with biochar and pig manure (T6). Our results indicated that the treatments affected soil pH and redox potential and improved growth and the nitrogen and phosphorus content in rice plants. The soil-plant analysis development (SPAD) meter readings of leaves during the tillering stage indicated a 5.27%–15.86% increase in treatments T2 to T6 compared to CK. The flag leaves of T2 exhibited increases of 12.06%–38.94% for electrolyte leakage and an 82.61%–91.60% decline in SOD compared to treatments T3 to T6. Treatments T1 to T6 increased protein content; however, amylose content was significantly reduced in T6. Treatment T6 recorded the lowest Cd concentration in rice grains (0.018 mg/kg), while T2 recorded the highest (0.051 mg/kg). The CK treatment group showed a grain Cd content reduction of 29.30% compared to T2. The assessment of acceptable daily intake, hazard quotient, and carcinogenic risk revealed an ascending order as follows: T6 < T3 < T5 < T4 < T1 < CK < T2. In conclusion, the application of treatment T6 demonstrates the potential to lower oxidative stress, enhance production, reduce cancer risk, and ensure the safe cultivation of rice in environments affected by Cd contamination.

Straw application improved soil biological properties and the growth of rice plant under low water irrigation

The application of organic amendments is one way to manage low water irrigation in paddy soils. In this 60-day greenhouse pot experiment involving paddy soil undergoing drying-rewetting cycles, we examined the effects of two organic amendments: azo-compost with a low carbon to phosphorus ratio (C:P) of 40 and rice straw with a high C:P ratio of 202. Both were applied at rates of 1.5% of soil weight (w/w). The investigation focused on changes in certain soil biochemical characteristics related to C and P in the rice rhizosphere, as well as rice plant characteristics. The irrigation regimes applied in this study included constant soil moisture in a waterlogged state (130% water holding capacity (WHC)), mild drying–rewetting (from 130 to 100% WHC), and severe drying–rewetting (from 130 to 70% WHC). The results indicated that the application of amendments was effective in severe drying–rewetting irrigation regimes on soil characteristics. Drying–rewetting decreased soil respiration rate (by 60%), microbial biomass carbon (by 70%), C:P ratio (by 12%), soil organic P (by 16%), shoot P concentration (by 7%), and rice shoot biomass (by 30%). However, organic amendments increased soil respiration rate (by 8 times), soil microbial biomass C (51%), total C (TC) (53%), dissolved organic carbon (3 times), soil available P (AP) (100%), soil organic P (63%), microbial biomass P (4.5 times), and shoot P concentration (21%). The highest significant correlation was observed between dissolved organic carbon and total C (r= 0.89**). Organic amendments also increased P uptake by the rice plant in the order: azo-compost > rice straw > control treatments, respectively, and eliminated the undesirable effect of mild drying–rewetting irrigation regime on rice plant biomass. Overall, using suitable organic amendments proves promising for enhancing soil properties and rice growth under drying–rewetting conditions, highlighting the interdependence of P and C biochemical changes in the rhizosphere during the rice vegetative stage.

Evaluation of commercial importance of endophytes isolated from Argemone mexicana and Papaver rhoeas.

The paper industry is a composite one constituting different types of mills, processes, and products. The paper industries consume large amounts of resources, like wood and water. These industries also create huge amounts of waste that have to be treated. In our study, 23 endophytic bacteria were isolated from Argemone mexicana, and 16 endophytic bacteria were isolated from Papaver rhoeas. Seventeen and 15 bacterial endophytes from A. mexicana and P. rhoeas, respectively, showed cellulose-degrading activity. The biochemical and molecular characterization were done for endophytic bacteria with cellulolytic activity. The consortium of cellulose-degrading endophytic bacteria from A. mexicana showed endoglucanase activity (0.462IU/ml) and FPCase enzyme activity (0.269IU/ml) and from P. rhoeas gave endoglucanase activity (0.439IU/ml) and FPCase enzyme activity (0.253IU/ml). Degraded carboxy methylcellulose and filter paper were further treated by Saccharomyces cerevisiae and bioethanol was produced. Cellulose-degrading endophytic bacteria were also tested for auxin, siderophore production, and phosphate solubilization activities. Individual cellulose-degrading endophytic bacteria with plant growth-promoting activities were used as biofertilizers, tested for plant growth-promoting activities using Basmati Pusa 1121 rice, and plant growth parameters were recorded. The degraded paper enhances the growth of rice plants. Selected bacterial endophytes and their consortia from A. mexicana and P. rhoeas were powerful cellulose degraders, which can be further employed for ethanol production and as significant biofertilizers in agriculture.

Application of RGB UAV images to identify spectral patterns and estimate rice production

Monitoring rice plant growth is crucial for evaluating rice field management and yield production. RGB images are generated from Unmanned Aerial Vehicles (UAV) with RGB cameras. UAVs produce high spatial and temporal resolution, while RGB cameras are commonly used and cheap. The objectives of this study were to identify the spectral pattern of rice plant growth and to estimate yield production based on the spectral value of RGB images. The spectral pattern and yield estimation were analyzed using confidence interval (CI) and regression, respectively. Results show that spectral pattern during the vegetative until ripening stage forms a concave with minimum value in the generative stage and decreases towards the harvest stage. Based on the CI value, the high interval between upper and lower happened in the vegetative and ripening stages while the low interval happened in the generative stage. The high CI in the vegetative and ripening stages was due to the soil background and complexity of the rice plant canopy, respectively while the low CI in the generative stage was due to the homogeneous response of the leaf canopy. The best rice yield estimation based on the spectral value occurs in the ripening stage with an R2 of 0.84. Keywords: chlorophyll content, confidence interval, drone images, rice plant, regression

The Faster Growth and Better Harvest of Rice Plant and Sweetness of Fruits with The Pico-Water

The Faster Growth and Better Harvest of Rice Plant and Sweetness of Fruits with The Pico-Water

The Influence of Biosaka on the Growth and Yield of Rice Plants in a Sustainable Agricultural System Viewed from Philosophy of Tamansiswa in Argorejo Village, Bantul Regency, Indonesia

The Influence of Biosaka on the Growth and Yield of Rice Plants in a Sustainable Agricultural System Viewed from Philosophy of Tamansiswa in Argorejo Village, Bantul Regency, Indonesia

Effect of Water and Rice Husk Ratio in Water-Based Planting Medium on Growth of Three Rice Varieties (Oryza sativa L.)

The agricultural sector faces two serious threats: declining production due to agricultural land conversion and water shortages due to global warming. Therefore, an agricultural system that accommodates the use of vacant land and water saving, in this case, urban farming with the use of soil-less media can be applied. In recent studies, both innovations have shown positive results in various commodities but have not been explored much specifically for rice crops. This study observed the effect of soilless media application (mixed water and rice husks media) on the growth of rice. This experiment was conducted in Sumber Jeruk, Jember (altitude 281 m asl, temperature 21-31°C, RH 65-75%), January-June 2022. The experiment used a completely randomized design with two factors and three replications. The first factor was the ratio of water to rice husk (1:0; 4:1; and 8:1). The second factor was rice varieties (Inpari 46, IR 64, and Mapan 05). The combination of Mapan 05 and media ratio 4:1 showed the highest result on shoot fresh weight (351.95 g) and root fresh weight (346.35 g). Meanwhile, the highest number of root length (45.20 cm) was found in the combination of Mapan 05 and media ratio 8:1. Moreover, Mapan 05 (93.94 cm) and Inpari 46 (93.88 cm) showed no significant difference in plant height. It can be concluded that soil-less media 8;1 promotes the highest result on rice plant growth observed.

Biochar Enhances Rice Growth and Mitigates Total Petroleum Hydrocarbon Contamination in Soil: A Sustainable Approach for Crop Production

ABSTRACT Biochar is a soil amendment made from organic waste pyrolysis that has the potential to enhance crop growth and reduce soil contamination. A recent study examined the effects of biochar application on rice plant growth, yield, biomass, and total petroleum hydrocarbon (TPH) contamination in soil. The study included four treatments: control, biochar (2.0% and 4.0% addition), TPH (4.0%, 6.0%, and 8.0%), and biochar+TPH. Results showed that biochar application was effective in mitigating the negative effects of TPH contamination on soil-physiochemical properties, increasing soil pH, organic matter, and available nutrients. Additionally, biochar application significantly increased rice plant height compared to the control and mitigated the negative impact of TPH on rice plant height in TPH-contaminated soil. Biochar application at 4.0% and 6.0% resulted in higher grain yield and biomass than the control group under all TPH contamination levels, with 6.0% being the most effective. Overall, the study highlights the potential of biochar as a sustainable approach for crop production in contaminated areas. However, further research is required to understand the underlying mechanisms, sustainability, and long-term effects of biochar application in agricultural systems.

Fulvic Acid-releasing Chitosan Nanoparticles Promote the Growth and Drought Stress Tolerance of Rice Plants

Fulvic Acid-releasing Chitosan Nanoparticles Promote the Growth and Drought Stress Tolerance of Rice Plants

Application of Certified Superior Rice Seed Technology to Increase Organic Rice Production Farmer group in Cipatujah sub-district

Improving the production of organic rice can be achieved by using certified superior seed varieties. The research aimed to test the adaptability of several superior rice varieties in organic farming systems to obtain varieties suitable for rice growth and yield in the Cipatujah District of Tasikmalaya Regency. A single-factor randomized complete block design was used in this study to test 3 superior varieties, namely Ciherang, Inpari 32, and Mekongga varieties. Each treatment was replicated 20 plots, resulting in a total of 60 experimental plots. The analysis results indicated that the soil at the demonstration plot location met land suitability and rice plant growth requirements with S1 (very suitable) criteria based on parameters such as pH, organic carbon content (C-organic), nutrient content of Nitrogen, Phosphor, and Potassium, bulk density, particle density, porosity, and soil texture. The superior variety treatments had a significant impact on plant height growth, although there were no significant differences observed in terms of tiller number, productive tiller number, grain yield per hill, filled grain per hill, grain weight per hill, and 1000-grain weight. The Ciherang variety showed the highest plant growth response and larger yield components compared to Mekongga and Inpari 32. The use of certified seeds in organic rice cultivation practices was proven to yield higher results compared to seeds from previous cultivation practices.

ULTRAPETALA 1 regulates the growth and development of rice plants to promote resilience to salinity stress

Rice, one of the most important agronomically crops, when challenged by high salinity affects its growth at the seedling stage and reproductive phase. Thus, investigating the intricate molecular mechanisms that regulate its developmental process throughout its life cycle is essential for better stress resilience. We have investigated the role of rice trithorax group factor ULTRAPETALA1 (OsULT1) that orchestrates rice development and stress response. A genome-wide chromatin immunoprecipitation analysis revealed OsULT1 enrichment at transcription regulators, oxidative stress signaling, ROS scavengers, and K+ uptake transporters, during salinity stress. Interestingly, loci associated with root development, plant height, inflorescence development, panicles, spikelet numbers, and seed development showed OsULT1 occupancy under control and salt stress. Expression of these genes was regulated by chromatin modifications such as H3K4me3 and H3K27me3. Further, DNA binding analysis showed OsULT1 binding at AP2/ERF core motif A/GCCGAC during salinity stress. OsULT1 overexpression causes developmental changes with enhanced plant height, increase in basal internode length, robust root architecture, and increase in tiller and panicle numbers. Moreover, OsULT1OE showed salinity tolerance with enhanced seed germination, reduced ROS content, low Na+/K+ ratio in shoot and root tissue, and improved post-stress recovery. Collectively, our results indicate that ULT1 regulates different plant developmental pathways for better protection and adaptation against environmental stress.

NRT1.1B mediates rice plant growth and soil microbial diversity under different nitrogen conditions

Interactions between microorganisms and plants can stimulate plant growth and promote nitrogen cycling. Nitrogen fertilizers are routinely used in agriculture to improve crop growth and yield; however, poor use efficiency impairs the optimal utilization of such fertilizers. Differences in the microbial diversity and plant growth of rice soil under different nitrogen application conditions and the expression of nitrogen-use efficiency-related genes have not been previously investigated. Therefore, this study investigates how nitrogen application and nitrogen-use efficiency-related gene NRT1.1B expression affect the soil microbial diversity and growth indices of two rice varieties, Huaidao 5 and Xinhuai 5. In total, 103,463 and 98,427 operational taxonomic units were detected in the soils of the Huaidao 5 and Xinhuai 5 rice varieties, respectively. The Shannon and Simpson indices initially increased and then decreased, whereas the Chao and abundance-based coverage estimator indices decreased after the application of nitrogen fertilizer. Nitrogen fertilization also reduced soil bacterial diversity and richness, as indicated by the reduced abundances of Azotobacter recorded in the soils of both rice varieties. Nitrogen application initially increased and then decreased the grain number per panicle, yield per plant, root, stem, and leaf nitrogen, total nitrogen content, glutamine synthetase, nitrate reductase, urease, and root activities of both varieties. Plant height showed positive linear trends in response to nitrogen application, whereas thousand-grain weights showed a negative trend. Our findings may be used to optimize nitrogen fertilizer use for rice cultivation and develop crop-variety-specific strategies for nitrogen fertilizer application.

Exploring the Impact of Phosphorus Application on Boron Toxicity Tolerance in Maize and Sunflower Under Aerobic Conditions, and Rice Under Anaerobic Conditions

ABSTRACT Both phosphorus (P) and boron (B) can interact with each other due to their similar properties and P can hinder the uptake of boron by plants. In this study, the effect of P and B concentrations on the growth of rice, sunflower, and maize plants grown under greenhouse conditions in an environment that would induce boron toxicity was investigated. To create a toxic environment, 40 mg kg−1 B was applied to rice plants, and 30 and 25 mg kg−1 B were applied to sunflower and maize plants, respectively. To alleviate the toxicity, 500 mg kg−1 P was added to the respective pots. The results of the study showed that B application reduced the fresh and dry weight of all plant species, while significant increases were observed with the addition of P. Among the applied P sources, TSP was found to be more effective than H3PO4 in terms of fresh and dry weight of maize plants. Plant-B concentrations increased with B application but were significantly reduced by the applied P sources, with no difference observed among the P sources. Plant-P concentrations, which decreased with B applications, increased as a result of P applications. In particular, H3PO4 was found to be more effective than TSP in terms of plant-P concentration, especially in sunflower and maize plants. This study determined that P fertilization can be beneficial in reducing the damage caused by boron toxicity, which is a stress factor that severely limits agricultural production in regions with arid and semi-arid climates.

Concurrent improvement of rice grain yield and abiotic stress tolerance by overexpression of cytokinin activating enzyme LONELY GUY (OsLOG)

Meristem activity is important for normal plant growth as well as adaptive plastic development under abiotic stresses. Cytokinin has been recognized to have a major role in regulating meristem function which is controlled by cytokinin activating enzymes by fine-tuning the concentrations and spatial distribution of its bioactive forms. It was previously reported that LONELY GUY (LOG) acts in the direct activation pathway of cytokinin in rice shoot meristems. LOG has a cytokinin specific phosphoribohydrolase activity, which transforms inactive cytokinin nucleotides into active free bases. Here, we explored the role of OsLOG in controlling meristem activity mediated by cytokinin and its effects on growth, development, and stress resilience of rice plants. Overexpression of OsLOG in rice led to significant alterations in cytokinin levels in the inflorescence meristem, leading to enhanced plant growth, biomass and grain yield under both non-stress as well as stress conditions such as drought and salinity. Moreover, our study provides insight into how overexpression of OsLOG improves the ability of plants to withstand stress. The OsLOG-overexpressing lines exhibit reduced accumulation of H2O2 along with elevated antioxidant enzyme activities, thereby maintaining better redox homeostasis under stress conditions. This ultimately reduces the negative impact of stresses on grain yield and improves harvest index, as evidenced by observations in the OsLOG-overexpressing lines. In summary, our study emphasizes the diverse role of OsLOG, not only in regulating plant growth and yield via cytokinin but also in enhancing adaptability to abiotic stresses. This highlights its potential to improve crop yield and promote sustainable agriculture.

Earthworms impact the availability of Si to plants in northern Vietnamese paddy fields

Silicon (Si) is an essential element for the growth and development of rice plants, playing a crucial role in their overall health and productivity. This study aimed to measure earthworm's impact on Si dynamics in northern Vietnam's paddy fields. The properties of earthworm casts from 23 different sites were compared to the surrounding topsoil. The results showed that the casts were enriched in biogenic silica (herein phytoliths) and plant-available Si (measured through acid acetic extraction, SiAC) compared to the reference topsoil. Also, casts had a higher sand content, while their carbon content was similar to the reference soils. This suggests a possible preference for sand particles by earthworms (e.g., for grinding plant material within their gizzards) and/or the consumption of soil from another layer enriched in sand content. The influence of earthworms on Si dynamics was found to be dependent on the soil's environmental properties. In soils with low fertility (characterized by a higher proportion of sand and lower concentrations of C and oxides), earthworms increased the concentration of SiAC. However, beyond a certain level, the effect of earthworms on Si availability became neutral. While this study highlights the critical role of earthworms in paddy fields, further research is needed to understand how earthworms enhance the concentration in SiAC in the topsoil, and the consequences to rice growth and resistance to environmental hazards.

Pembelajaran Aplikasi Pengukur Kandungan Klorofil pada Daun Tanaman Padi (Oryza sativa L.)

Rice is a staple food in Indonesia, so the demand will continue to increase along with the population growth. Rice cultivation in Indonesia is known for two planting systems, namely wet rice that requires water and dry rice planted in fields that do not require special irrigation. Several regions in Indonesia have types of dry rice, including the almost extinct Fakhaito or black rice from Nias Regency, with a plant age of six months until harvest. The productivity of dry rice is very low, affecting farmers' income due to suboptimal fertilization technology. The aim of this research is to provide learning to students using the SPAD-502Plus chlorophyll meter to detect the growth and health of dry rice plants from Nias. The research results show that treatment with liquid organic fertilizer correlates positively with leaf color, where the amount of chlorophyll is higher in very green rice leaves and vice versa, the amount of chlorophyll decreases in plants with reduced green matter. The use of the SPAD-502Plus chlorophyll meter, by measuring directly, is faster, non-destructive, comfortable, and does not disturb plant growth.

Slow-release Fertilizer Application on Silk (Falcataria moluccana Miq.) and Rice (Oryza sativa L.) Plant Growth and Yield in Agroforestry System

The aim of this experiment is to evaluate the impact of chitosan-NPK slow-release fertilizer (CS-NPK SRF) on the germination and growth of silk tree and rice in different planting patterns, as well as to assess the nutrient release rate of the SRF. The germination test followed a complete randomized design, incorporating a single factor (fertilizer type), namely no fertilizer (F0), SRF CS 0.5% weight 0.03 g (F1), SRF CS 0.5% 0.01 g (F2), SRF CS 0.7% 0.03 g (F3), SRF CS 0.7% 0.01 g (F4), and conventional NPK fertilizer (F5). The growth test utilized a 2-factor split-plot design, with the primary factor being the planting pattern (sengon/rice monoculture-SM/RM and sengon-rice agroforestry-AF) and the second factor being the fertilizer type. Results indicate that F2 and F4 yielded the highest germination and growth values in both plants, although not significantly different from F0. These findings suggest that CS-NPK SRF has the potential to enhance plant growth. The AF pattern exhibited lower growth compared to SM/RM, attributed to plant competition. CS-NPK SRF demonstrated a slower nutrient release (47.65% N; 85.01% P; 31.80% K) compared to conventional fertilizers. This slow release could potentially reduce nutrient loss to the environment while enhancing plant nutrient absorption.