<?xml version="1.0" encoding="UTF-8"?><article>
  <title>Review on Insect-Mediated Composting Methods</title>

      <doi>https://doi.org/10.21276/AATCCReview.2024.12.04.221</doi>
  
  <authors>
      </authors>

      <abstract><![CDATA[<p>Composting is a natural process of decomposing organic materials such as food scraps, yard<br />
waste, and other biodegradable materials under controlled conditions. It is a process that mimics<br />
nature&#39;s way of breaking down organic matter into a rich, dark, and earthy-smelling soil<br />
amendment called compost. Composting can be done in various ways, including using a compost<br />
bin, a compost tumbler, or simply creating a compost pile.<br />
Insect-mediated composting is a method of composting organic waste using the larvae of certain<br />
insects, such as black soldier flies, red runner cockroaches, dermestid beetles etc. In this process,<br />
the insects consume the organic waste, breaking it down into simpler compounds and producing<br />
nutrient-rich compost. Insect-mediated composting is a sustainable and efficient way to manage<br />
organic waste, and it has gained attention as a potential solution for addressing the growing<br />
problem of waste management in many countries.<br />
Information on insect-mediated composting was gathered from secondary data sources. These<br />
sources identified black soldier fly larvae, red runner cockroaches, dermestid beetles, dung<br />
beetles, mealworms, and soldier beetles as suitable insects for composting. However, challenges<br />
were encountered while collecting data from various sources. Future research could explore<br />
comparative studies of these insects in the composting process.<br />
The present paper concludes that the insects used in composting are Black Soldier Fly Larvae,<br />
Red Runner Cockroaches, Dermestid Beetles, Dung Beetles, Meal worms, Soldier beetle. It was<br />
observed from table 2 that majority of the insects (Dermestid Beetles , Dung beetles, Meal worm,<br />
Soldier Beetles ) undergo four main stages i.e Egg, Larvae, pupae and adult in life cycle.<br />
However black soldier fly larvae (BSFL) have five stages of family life cycle while red runner<br />
coackroach has 3 stages of life cycle. Larval stage was the longest phase of the life cycle for<br />
dermestid beetles, dung beetles, Meal worms and soldier beetles; adult stage was longest phase<br />
for red runner coach where as larvae and pupae stages are the longest phases for black soldier fly<br />
larvae (BSFL). Table 3 revealed that more or less same steps were found in processing the<br />
compost by these six types of insects. feasibility of rearing of the insects at household level was<br />
observed, only black soldier fly larvae (BSFL) found to have low space requirements, low<br />
maintenance with efficient waste reduction and production of protein(Table 4). It was observed<br />
from table 5 that all 6 types of insects can compost at commercial level by following the same steps that<br />
have been observed in household-level composting. Organic waste, such as fruit and vegetable<br />
scraps, food waste, agricultural waste, and animal manure, is collected from different sources. The waste<br />
is sorted and processed to remove any non-biodegradable materials. Reasons for feasibility of<br />
black soldier fly larvae (BSFL) rearing at commercial level revealed that high reproduction rate,<br />
high feed conversion efficiency, low maintenance, multiple revenue strings and environmental<br />
benefits (Table 6). Various countries were rearing different types of insects for composting the<br />
waste. Except soldier beetle rest of the five types of the insects are being reared in USA (Table<br />
7). When insect rearing places were observed in India it showed that soldier beetle is not being<br />
reared in India at all. While Karnataka, Tamilnadu and Maharashtra states are rearing other five<br />
types of insects (Table 8). Since these insects are pretentious food, its consumption<br />
and acceptance in different countries was observed (Table 9). Mexico Thailand, China, Vietnam,<br />
Cambodia and many African countries consume these insects by roasting or frying. In US and<br />
Europe there is a growing interest in edible insects. However several constraints were observed<br />
to promote insects for consumption in India (Table 10) i.e majorly cultural barriers followed by<br />
lack of awareness, regulatory challenges, environmental concerns and legal barriers. The<br />
technology and equipment is necessary for large scale production and processing of insects for<br />
human consumption is not readily available. Compost generated by these six types of insects has<br />
good nutrient content so that it can be used for plants as fertilizer (Table 11). Insect composting<br />
has a positive effect on reducing the release of green house gases (Table 12).It was noticed that<br />
insect mediated compost reduces the emission of carbon dioxide, methane and nitrous oxide.<br />
Benefits of the insect mediated compost were analysed in Table 13.Various advantages observed<br />
were reduced waste disposal cost, increased nutrient value, improved soil health, reduced green<br />
house gases emissions, reduced water usage and enhanced biodiversity, plant growth and yield.<br />
Advantages of insect mediated rearing in India were found to be effective organic waste<br />
management, biodiversity conservation, sustainable lively hood, reduction in chemical fertilizer<br />
use and low maintenance (Table 15). Insect mediate rearing in India found to face certain<br />
disadvantages like high cost of infrastructure and maintenance lack of technical knowledge rules<br />
and regulations , limited market demand and climate sensivity. India has a large growing<br />
population that present’s the significant market for insect based enterprises which depend on<br />
various factors like demand for insect byproducts in the market, interest in sustainable<br />
agriculture, resilient to climate change, regulatory requirements, market demand and rate of<br />
investment (Table18). Different by products are generated from insect mediated composting<br />
which include larvae, oil, frass, chitin and protein powder exclusively from BSFL (Table19).<br />
Table 20 revealed the cost of insect mediated composting affected by several factors such as<br />
labour cost, infrastructure cost, feed stock cost, equipment cost marketing and distribution cost.<br />
Equipment cost includes the cost of containers or bins for the compost, Labour cost include the<br />
size of operation and number of people involved in managing the compost. The cost of insect<br />
mediated compost based on quality revealed that high quality red runner coackroach compost is<br />
very expensive i.e 300 rupees per kg while high quality compost for dung beetles is 150 Rs per<br />
Kg (Table 21). Any insect based compost cost can be estimated based on the amount of feed<br />
stock requirement and amount of labour required, cost of equipment and infrastructure (Scale of<br />
operation) : Cost of feed stock such as food waste, agricultural waste and yard waste and<br />
transportation cost (Table 22).</p>
]]></abstract>
  
  <body><![CDATA[<div class="aatcc-article-container"><div class="aatcc-category-label">Review Article</div><div class="aatcc-meta-box"><div class="aatcc-doi-wrap">
            <a class="aatcc-doi-btn" href="https://doi.org/10.21276/AATCCReview.2024.12.04.221" target="_blank">https://doi.org/10.21276/AATCCReview.2024.12.04.221</a>
        </div><div class="aatcc-abstract-section">
                <h3>Abstract</h3>
                <div class="aatcc-abstract-text"><p>Composting is a natural process of decomposing organic materials such as food scraps, yard<br />
waste, and other biodegradable materials under controlled conditions. It is a process that mimics<br />
nature&#39;s way of breaking down organic matter into a rich, dark, and earthy-smelling soil<br />
amendment called compost. Composting can be done in various ways, including using a compost<br />
bin, a compost tumbler, or simply creating a compost pile.<br />
Insect-mediated composting is a method of composting organic waste using the larvae of certain<br />
insects, such as black soldier flies, red runner cockroaches, dermestid beetles etc. In this process,<br />
the insects consume the organic waste, breaking it down into simpler compounds and producing<br />
nutrient-rich compost. Insect-mediated composting is a sustainable and efficient way to manage<br />
organic waste, and it has gained attention as a potential solution for addressing the growing<br />
problem of waste management in many countries.<br />
Information on insect-mediated composting was gathered from secondary data sources. These<br />
sources identified black soldier fly larvae, red runner cockroaches, dermestid beetles, dung<br />
beetles, mealworms, and soldier beetles as suitable insects for composting. However, challenges<br />
were encountered while collecting data from various sources. Future research could explore<br />
comparative studies of these insects in the composting process.<br />
The present paper concludes that the insects used in composting are Black Soldier Fly Larvae,<br />
Red Runner Cockroaches, Dermestid Beetles, Dung Beetles, Meal worms, Soldier beetle. It was<br />
observed from table 2 that majority of the insects (Dermestid Beetles , Dung beetles, Meal worm,<br />
Soldier Beetles ) undergo four main stages i.e Egg, Larvae, pupae and adult in life cycle.<br />
However black soldier fly larvae (BSFL) have five stages of family life cycle while red runner<br />
coackroach has 3 stages of life cycle. Larval stage was the longest phase of the life cycle for<br />
dermestid beetles, dung beetles, Meal worms and soldier beetles; adult stage was longest phase<br />
for red runner coach where as larvae and pupae stages are the longest phases for black soldier fly<br />
larvae (BSFL). Table 3 revealed that more or less same steps were found in processing the<br />
compost by these six types of insects. feasibility of rearing of the insects at household level was<br />
observed, only black soldier fly larvae (BSFL) found to have low space requirements, low<br />
maintenance with efficient waste reduction and production of protein(Table 4). It was observed<br />
from table 5 that all 6 types of insects can compost at commercial level by following the same steps that<br />
have been observed in household-level composting. Organic waste, such as fruit and vegetable<br />
scraps, food waste, agricultural waste, and animal manure, is collected from different sources. The waste<br />
is sorted and processed to remove any non-biodegradable materials. Reasons for feasibility of<br />
black soldier fly larvae (BSFL) rearing at commercial level revealed that high reproduction rate,<br />
high feed conversion efficiency, low maintenance, multiple revenue strings and environmental<br />
benefits (Table 6). Various countries were rearing different types of insects for composting the<br />
waste. Except soldier beetle rest of the five types of the insects are being reared in USA (Table<br />
7). When insect rearing places were observed in India it showed that soldier beetle is not being<br />
reared in India at all. While Karnataka, Tamilnadu and Maharashtra states are rearing other five<br />
types of insects (Table 8). Since these insects are pretentious food, its consumption<br />
and acceptance in different countries was observed (Table 9). Mexico Thailand, China, Vietnam,<br />
Cambodia and many African countries consume these insects by roasting or frying. In US and<br />
Europe there is a growing interest in edible insects. However several constraints were observed<br />
to promote insects for consumption in India (Table 10) i.e majorly cultural barriers followed by<br />
lack of awareness, regulatory challenges, environmental concerns and legal barriers. The<br />
technology and equipment is necessary for large scale production and processing of insects for<br />
human consumption is not readily available. Compost generated by these six types of insects has<br />
good nutrient content so that it can be used for plants as fertilizer (Table 11). Insect composting<br />
has a positive effect on reducing the release of green house gases (Table 12).It was noticed that<br />
insect mediated compost reduces the emission of carbon dioxide, methane and nitrous oxide.<br />
Benefits of the insect mediated compost were analysed in Table 13.Various advantages observed<br />
were reduced waste disposal cost, increased nutrient value, improved soil health, reduced green<br />
house gases emissions, reduced water usage and enhanced biodiversity, plant growth and yield.<br />
Advantages of insect mediated rearing in India were found to be effective organic waste<br />
management, biodiversity conservation, sustainable lively hood, reduction in chemical fertilizer<br />
use and low maintenance (Table 15). Insect mediate rearing in India found to face certain<br />
disadvantages like high cost of infrastructure and maintenance lack of technical knowledge rules<br />
and regulations , limited market demand and climate sensivity. India has a large growing<br />
population that present’s the significant market for insect based enterprises which depend on<br />
various factors like demand for insect byproducts in the market, interest in sustainable<br />
agriculture, resilient to climate change, regulatory requirements, market demand and rate of<br />
investment (Table18). Different by products are generated from insect mediated composting<br />
which include larvae, oil, frass, chitin and protein powder exclusively from BSFL (Table19).<br />
Table 20 revealed the cost of insect mediated composting affected by several factors such as<br />
labour cost, infrastructure cost, feed stock cost, equipment cost marketing and distribution cost.<br />
Equipment cost includes the cost of containers or bins for the compost, Labour cost include the<br />
size of operation and number of people involved in managing the compost. The cost of insect<br />
mediated compost based on quality revealed that high quality red runner coackroach compost is<br />
very expensive i.e 300 rupees per kg while high quality compost for dung beetles is 150 Rs per<br />
Kg (Table 21). Any insect based compost cost can be estimated based on the amount of feed<br />
stock requirement and amount of labour required, cost of equipment and infrastructure (Scale of<br />
operation) : Cost of feed stock such as food waste, agricultural waste and yard waste and<br />
transportation cost (Table 22).</p>
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