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Wood-free paper

From Wikipedia, the free encyclopedia
Not to be confused with Tree-free paper.

Wood-free paper is paper created exclusively from chemical pulp rather than mechanical pulp.[1] Chemical pulp is normally made from pulpwood, but is not considered wood as most of the lignin is removed and separated from the cellulose fibers during processing, whereas mechanical pulp retains most of its wood components and can therefore still be described as wood.[2][3][4] Wood-free paper is not as susceptible to yellowing as paper containing mechanical pulp. Wood-free paper offers several environmental and economic benefits, including reduced deforestation, decreased energy consumption, and improved waste management.[5][6] The term Wood-free paper can be rather misleading or confusing for someone unfamiliar with the papermaking process because paper is normally made from wood pulp derived from trees and shrubs.

However, wood free paper does not mean that the paper in question is not made from wood pulp but it means that the lignin in the wood fiber has been removed by a chemical process. Paradoxically, lignin is the complex polymers containing aromatic groups that provide much of the tree strength. In its natural form, it gives rigidity and resilience to the tree, but its presence causes paper to weaken and turn yellow as it ages and eventually disintegrate. The reason for this is that as the paper ages, lignin releases acid which degrades the paper.[7] Wood is technically a lignocellulosic material and a xylem tissue that comes from shrubs and cambium, the inner bark of trees made up of extractives, lignin, hemicellulose and cellulose.[8] Pulp consists of wood and other lignocellulosic materials that have been broken down chemically and physically and filtered and mixed in water to reform into a web.[8][9] Creating pulp by breaking down the materials chemically is called chemical pulping, while creating pulp by breaking them down mechanically is called mechanical pulping.

In chemical pulping, chemicals separate the wood fibers. The chemicals lower the lignin content because chemical action solubilizes and degrades components of wood fibers, especially hemicelluloses and lignin. Chemical pulping yields single unbroken fibers that produce strong quality papers because the lignin that interferes with hydrogen bonding of wood fibers has been removed. Chemical pulps are used to create wood free paper that is of high quality and lasts long, such as is used in arts and archiving.[8] Chemical pulping processes take place at high pressures and temperatures under aqueous alkaline, neutral or acidic conditions, with the goal of totally removing the lignin and preserving the carbohydrates. Normally, about 90% of the lignin is removed.[9]

Mechanical pulping, in contrast, converts raw wood into pulp without separating the lignin from the wood fiber.[9] No chemicals other than water or steam are used. The yield is about 90% to 98%. High yields result from the fact that lignin is retained. Mechanical pulps are characterized by low cost, high stiffness, high bulk, and high yield.  Mechanical pulp has low strength because the lignin interferes with hydrogen bonding between wood fibers. The lignin also makes the pulp turn yellow when exposed to light and air. Mechanical pulps are used in the production of non-permanent papers such as newsprint and catalog papers. Mechanical pulps made up 20% to 25% of the world production and this is increasing because of the high yield of the process and increasing competition for fiber resources. Advances in technology have also made mechanical pulp increasingly desirable.[8]

Composition

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Wood-free paper is made from a variety of raw materials, including

  • Tissue pulp: This is the most common type of wood-free paper. It is made from wood pulp that has been treated with chemicals to remove the lignin.[10][11][12][13]
  • Balsa pulp: This is a type of wood pulp that is made from balsa trees. It is very strong and lightweight, making it ideal for use in envelopes and other lightweight applications.[14][15]
  • Coniferous pulp: This is a type of wood pulp that is made from coniferous trees, such as pine and fir. It is strong and durable, making it ideal for use in writing and printing papers.[16][17][18][19]
  • Non-wood pulp: This is a type of pulp that is made from non-wood materials, such as cotton, hemp, and linen. It is often used in high-quality papers, such as those used for art and photography.[16][18][20]

Wood-free paper has a number of advantages over paper that contains mechanical pulp:

  • It is more resistant to yellowing. This is because the lignin, which is the main cause of paper yellowing, has been removed from the pulp.[17][21][22]
  • It is stronger. This is because the cellulose fibers in wood-free paper are longer and more uniform than the fibers in mechanical pulp.[10]
  • It is more durable. This is because wood-free paper is less likely to tear or crease.[10]
  • It is smoother. This is because the surface of wood-free paper is smoother than the surface of paper that contains mechanical pulp.[10]

Wood-free paper is used in a variety of applications:

  • Writing and printing papers: Wood-free paper is the most common type of paper used for writing and printing.[23] It is available in a variety of weights and finishes, making it ideal for a variety of applications[17]
  • Envelopes: Wood-free paper is the most common type of paper used for envelopes.[24][25] It is available in a variety of colors and finishes, making it ideal for a variety of occasions.
  • Art and photography papers: Wood-free paper is the most common type of paper used for art and photography.[23] It is available in a variety of weights and finishes, making it ideal for a variety of projects.
  • Other applications: Wood-free paper is also used in a variety of other applications, such as packaging, labels, and currency[16][26]

Types of wood-free papers

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Wood-free paper is made from non-wood materials, such as cotton, hemp, linen, and bamboo.[18][27][28] It is often used in applications where a high-quality, durable paper is needed, such as for printing, writing, and packaging.

There are two main types of wood-free paper:

  • Tissue pulp: This is the most common type of wood-free paper. It is made from wood pulp that has been treated with chemicals to remove the lignin. Lignin is the natural adhesive that holds wood fibers together.[29]
  • Non-wood pulp: This is a type of wood-free paper that is made from non-wood materials, such as cotton, hemp, linen, and bamboo.[16]

Tissue pulp paper is smooth and opaque, making it ideal for printing and writing.[30][31][32] It is also relatively inexpensive, making it a popular choice for many applications. Non-wood pulp paper is more expensive than tissue pulp paper, but it is also more durable and has a higher quality.[33][34][35] It is often used for high-end printing and writing applications, as well as for packaging.

Here are some of the specific types of wood-free papers:

  • Cotton paper:
    Image of Cotton paper texture
    Cotton paper texture
    This is made from 100% cotton fibers, making it one of the most luxurious and expensive types of paper. It is known for its strength, durability, and high opacity. Cotton paper is often used for high-end printing and writing applications, as well as for greeting cards, stationery, and other special projects.[citation needed][36]
  • Hemp paper:
    Picture of Hemp paper
    Hemp paper
    This is made from hemp fibers, which are strong and durable.[37] Hemp paper is also biodegradable and recyclable, making it a sustainable choice. It is often used for packaging, as well as for greeting cards, stationery, and other special projects.
  • Linen paper: This is made from linen fibers, which are also strong and durable. Linen paper has a natural sheen and is often used for high-end printing and writing applications.[38]
  • Bamboo paper:
    Picture of Bamboo paper
    Bamboo paper
    This is made from bamboo fibers, which are renewable and sustainable. Bamboo paper is also strong and durable, and it has a smooth, matte finish.[39] It is often used for packaging, as well as for greeting cards, stationery, and other special projects.

Wood-free paper is a good choice for applications where a high-quality, durable paper is needed.[10] It is also a sustainable choice, as it is made from renewable and recyclable materials.

Wood-free papers come in two varieties: uncoated and coated. Uncoated is typically used for printing and writing but also used in some packaging applications, whereas coated is used for things such as packaging and labels.[40]

Advantages and benefits of wood-free paper

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  1. Conservation of Forests: One of the key advantages of wood-free paper is its ability to reduce the demand for wood pulp derived from trees. This conservation of forests persevering valuable ecosystems and biodiversity. Wood-free paper production significantly contributes to the conservation of forests by reducing deforestation and protecting natural habitats.[41][42]
  2. Harder to Warp: Another key advantage of wood-free paper is its lesser likelihood to warp or curl.[43]
  3. Decreased Deforestation: The use of alternative fibers in timber-loose paper reduces the stress on forests, minimizing the need for big-scale deforestation. This helps protect touchy and ecologically valuable regions.[44][45][46]
  4. Decreased Carbon Footprint: wooden-loose paper generally has a decreased environmental effect as compared to standard wood-based total paper. The manufacturing system emits fewer greenhouse gases, consumes less strength,[clarification needed] and requires less water.[47][48] Additionally, it frequently includes fewer chemical treatments.
  5. Usage of Agricultural Residues: Wooden-free paper can be made from agricultural residues like wheat straw, rice straw, and bagasse. Making use of those by-products of agriculture reduces waste and presents an extra source of revenue for farmers.[49]
  6. Advertising of Sustainable Farming Practices: The cultivation of opportunity fiber crops for paper manufacturing encourages sustainable agricultural practices. although vegetation frequently requires fewer insecticides and fertilizers as compared to traditional crops, lowering environmental impacts.
  7. Waste discount and recycling: wooden-unfastened paper is often crafted from recycled materials. This supports recycling projects and reduces the demand for brand new raw materials. moreover, it emitted from landfills.
  8. Diversification of supply Chains: depending completely on timber pulp can result in overexploitation of unique tree species and wooded area ecosystems. Incorporating alternative fibers diversifies the assets of uncooked materials for the paper industry, decreasing strain on precise varieties of timber.
  9. Energy efficiency: wood-free paper manufacturing often requires much less electricity compared to conventional timber-based totally papertmanufacTuring. this is because the processing of opportunity fibers normally entails fewer steps and mucnergy-in-ergy-in depth remedies.
  10. More advantageous Soil health: utilizing agricultural residues for paper manufacturing can enhance soil fitness by returning organic count to the soil. this may lead to better fertility and a normal soil structure.
  11. Help for Rural communities: The manufacturing of timber-free paper using agricultural residues can create economic possibilities for rural communities. This will lead to improved livelihoods and sustainable improvement in areas where these resources are plentiful.
  12. Monetary Viability and market demand: The demand for environmentally sustainable products, including wood-free paper, is on the rise. This presents economic opportunities for businesses that choose to invest in and produce eco-friendly paper products.
  13. Alignment with Sustainability desires: the use of wood-loose paper aligns with global sustainability dreams, together with the ones outlined within the United Nations Sustainable Improvement Goals (SDGs). It contributes to desires related to accountable consumption and production (SDG 12) and existence on land (SDG 15).

Alternative Fibers: The Key Players

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1. Agricultural Residues

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Agricultural residues refer to the organic materials that are left over after crops are harvested.[50][51] These residues include the stems, leaves, husks, and other parts of plants that are not used for food or other primary products.[52][53] They are a significant component of agricultural ecosystems and have various potential uses, both beneficial and detrimental.[54][55][56] Here's a detailed overview of agricultural residues:

Types of Agricultural Residues

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  1. Crop Residues:
    • Stems and Leaves: These are typically the above-ground portions of plants that remain after harvest.[57][58][59][60] They are composed mainly of cellulose, hemicellulose, and lignin.
    • Husks and Straws: These are the protective coverings of seeds and grains, like rice husks and wheat straw.[61][52]
    • Roots: After harvest, the roots of some plants may also be left in the ground.[62][63][64]
  2. Animal Manure:
    • Dung and Urine: Manure from livestock contains organic matter and nutrients that can be used as a soil conditioner or fertilizer.[65][66][67]

Characteristics of Agricultural Residues

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  1. Chemical Composition:
    • They are primarily composed of organic compounds such as cellulose, hemicellulose, lignin, and various other polysaccharides.[68][69][70] These materials provide structural support to plants.
  2. Nutrient Content:
    • They contain a range of essential nutrients including nitrogen, phosphorus, potassium, and micronutrients.[citation needed] However, the nutrient content varies depending on the type of residue and the plant it comes from.
  3. Moisture Content:
    • This varies greatly depending on the type of residue, climate, and storage conditions.[71] Some residues are relatively dry (e.g., straw), while others may have a higher moisture content (e.g., green crop residues).
  4. Decomposition Rate:
    • The rate at which agricultural residues decompose depends on their chemical composition.[72][73][74] For example, lignin-rich materials like wood take longer to break down compared to cellulose-rich materials like straw.

Uses and Applications

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  1. Soil Amendment:
    • Agricultural residues are commonly used to improve soil structure, moisture retention, and nutrient content.[75][76][77] They act as organic matter, enhancing soil fertility.
  2. Bioenergy Production:
    • Residues can be processed to produce biofuels like biogas, bioethanol, and bio-oil.[78][79][80] This contributes to renewable energy production.
  3. Livestock Bedding:
    • Straw and other crop residues can be used as bedding for livestock.[81] This provides a comfortable and clean environment, reducing the risk of diseases.
  4. Composting:
    • They are valuable components in composting operations, providing carbon-rich material that balances the nitrogen-rich materials (like green plant matter and manure).[82][83][84]
  5. Erosion Control:
    • Cover crops and crop residues left on the field surface can help prevent soil erosion by wind and water.[85][86][87]
  6. Mushroom Cultivation:
    • Certain agricultural residues, such as rice straw and sawdust, are used as substrates for growing mushrooms.[88][89][90]

Challenges and Considerations

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  1. Nutrient Imbalance:
    • Depending on the type of residue, there may be an imbalance in the nutrient content, which may require supplementation.[91]
  2. Harvesting Practices:
    • Leaving residues on the field can have both positive (soil protection, organic matter addition) and negative (pest and disease carryover) consequences, depending on how it's managed.[92]
  3. Transport and Storage:
    • Handling and transporting large quantities of agricultural residues can be logistically challenging due to their bulkiness.
  4. Environmental Impact:
    • If not managed properly, burning or improper disposal of residues can lead to air pollution and contribute to greenhouse gas emissions.[93][94][95]

2. Cotton

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Cotton is a natural fiber that has been used for thousands of years to make textiles. It is derived from the fibers surrounding the seeds of the cotton plant (Gossypium).[96][97] Here's a detailed overview of cotton:

Botanical Characteristics

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  • Genus: Gossypium
  • Family: Malvaceae
  • Species: There are about 50 species of cotton plants, but only a few are cultivated for commercial purposes. The most common species used in commercial cotton production are Gossypium hirsutism (Upland cotton) and Gossypium barbadense (Pima or Egyptian cotton).

Cotton Cultivation

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  1. Climate: Cotton is primarily grown in regions with a warm climate. It requires a frost-free growing season of about 160 to 200 days.[98][99]
  2. Soil: Well-draining loam soils with good fertility are ideal for cotton cultivation.[100][101]
  3. Cultivation Practices:
    • Planting: Cotton seeds are planted in rows, and the plants are spaced out to allow for proper growth and air circulation.[102]
    • Irrigation: Cotton requires regular watering, especially during dry spells.
    • Fertilization: Depending on the soil's nutrient content, supplementary fertilizers may be used.
  4. Pest Management: Cotton plants are susceptible to various pests and diseases. Integrated Pest Management (IPM) practices are often employed to minimize chemical inputs.

Life Cycle

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  1. Germination and Growth: Cotton seeds germinate in warm soil. The plants grow into bushes with multiple branches, and flowers emerge at the nodes.
  2. Flowering: Cotton plants produce large, showy flowers that are usually white or cream-colored. Each flower produces a cotton boll, which contains the seeds.
  3. Boll Formation: After fertilization, the flower wilts, and the ovary enlarges to form a boll. Inside the boll, fibers develop around the seeds.
  4. Harvesting: Cotton bolls mature and split open, revealing the cotton fibers. Harvesting involves mechanically picking the cotton or, in some cases, by hand.

Cotton Fiber

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  1. Chemical Composition: Cotton fibers are primarily composed of cellulose, a complex carbohydrate that provides strength and flexibility.
  2. Properties:
    • Cotton fibers are soft, breathable, and absorbent, making them suitable for a wide range of textile applications.
    • They have good dye affinity, allowing for a wide range of colors and finishes.
  3. Staple Length: The length of cotton fibers, known as the staple length, varies depending on the cotton variety. Longer staple lengths are typically associated with higher-quality cotton.

Cotton Products and Applications

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  1. Textiles: Cotton is used to produce a wide range of textile products including clothing, linens, towels, and upholstery.
  2. Nonwoven Fabrics: Cotton fibers are also used in nonwoven applications like medical dressings, wipes, and filters.
  3. Seed Products: Cotton seeds are crushed to extract oil, which is used in cooking and various industrial applications. The remaining seed meal is used in animal feed.

Challenges and Considerations

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  1. Pesticide Use: Cotton is susceptible to pests, and conventional farming often involves the use of pesticides. Sustainable and organic cotton production methods aim to reduce chemical inputs.
  2. Water Usage: Cotton cultivation can be water-intensive, particularly in arid regions. Efficient irrigation practices and water-saving technologies are being implemented.
  3. Genetic Modification: Some varieties of cotton are genetically modified (GM) to resist pests or tolerate specific environmental conditions. This has both benefits and controversies.

3. Hemp

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Hemp, scientifically known as Cannabis sativa, is a versatile plant that has been cultivated for thousands of years for various purposes, including fiber, food, medicine, and industrial applications. Here's a detailed overview of hemp:

Botanical Characteristics

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  • Genus: Cannabis
  • Family: Cannabaceae
  • Species: Cannabis sativa is one of several species within the Cannabis genus. There are also subspecies, such as Cannabis sativa subsp. indica.

Hemp Cultivation

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  1. Climate: Hemp is a robust plant that can grow in a wide range of climates. It is adaptable and can thrive in temperate, subtropical, and tropical climates.
  2. Soil: Well-draining, loamy soils with good fertility are ideal for hemp cultivation. Hemp can also grow in various soil types, including sandy and clayey soils.
  3. Cultivation Practices:
    • Planting: Hemp seeds are typically sown directly in the field. The spacing between plants depends on the specific variety and intended use (fiber, seed, or cannabinoid production).
    • Irrigation: Hemp requires regular watering, especially during dry spells, but it can also tolerate drought conditions.
  4. Pest and Disease Management: While hemp is generally considered a hardy plant, it can still be susceptible to certain pests and diseases. Integrated pest management (IPM) practices are used to address these issues.

Life Cycle

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  1. Germination and Growth: Hemp seeds germinate in warm soil. The plant grows into a tall, upright stem with multiple branches. It is a fast-growing plant.
  2. Flowering: Depending on the variety and purpose of cultivation, hemp plants can flower in as little as 60–90 days. The flowers of female plants are the primary site of cannabinoid production.
  3. Seed Formation: In some varieties, female plants produce seeds after pollination. These seeds can be harvested and used for various purposes, including food and oil production.
  4. Harvesting: The timing of hemp harvest depends on the intended use. For fiber production, the plants are typically harvested before flowering. For seed production, they are left to mature longer. For cannabinoids, the harvest occurs when the plants have reached the desired cannabinoid content.

Hemp Products and Applications

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  1. Fiber: Hemp fibers are known for their strength and durability. They can be used to make a wide range of products including textiles, ropes, paper, and construction materials.
  2. Seeds: Hemp seeds are rich in protein, healthy fats, and various nutrients. They are used in food products like hemp oil, hemp milk, protein powders, and as a whole food ingredient.
  3. Hemp Oil: Hemp seeds can be cold-pressed to extract oil, which is used in cooking, skincare products, and industrial applications.
  4. Cannabinoids (CBD and THC): Some varieties of hemp are bred for their cannabinoid content. Cannabidiol (CBD) and tetrahydrocannabinol (THC) are two of the most well-known cannabinoids. Hemp-derived CBD is used in various wellness and medicinal products.
  5. Industrial Applications: Hemp can be used to make a wide range of industrial products including biofuels, biodegradable plastics, building materials, and more.

Challenges and Considerations

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  1. Regulatory Environment: The legal status of hemp varies by country and region. Many places have strict regulations around cultivation due to its association with cannabis.
  2. Pollination: For some purposes (such as cannabinoid production), preventing male plants from pollinating female plants is essential to maintain high cannabinoid content.
  3. Crop Uniformity: Hemp crops can show a wide range of genetic diversity, which can lead to variability in desired traits. Selective breeding and genetic techniques are used to address this.

See also

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References

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  1. ^ He, Zhibin; Hui, Lanfeng; Liu, Zhong; Ni, Yonghao; Zhou, Yajun (2010-04-01). "Impact of High-Yield Pulp Substitution on the Brightness Stability of Uncoated Wood-Free Paper". TAPPI Journal. 9 (3): 15–20. doi:10.32964/tj9.3.15. ISSN 0734-1415.
  2. ^ Bajpai, Pratima (2015), "The Control of Microbiological Problems∗∗Some excerpts taken from Bajpai P (2012). Biotechnology for Pulp and Paper Processing with kind permission from Springer Science1Business Media.", Pulp and Paper Industry, Elsevier, pp. 103–195, doi:10.1016/b978-0-12-803409-5.00008-2, ISBN 9780128034095, S2CID 89782614
  3. ^ "Print lingo explained: Woodfree paper". Warners Midlands Plc. 2016-05-10. Archived from the original on 2022-12-10. Retrieved 2022-12-10.
  4. ^ Papers, Peters (2020-03-12). "Know your paper terms: Wood-free paper". Peters Papers. Retrieved 2022-12-10.
  5. ^ Dewan, Ashraf (2013). "Floods in a Megacity". Springer Geography. doi:10.1007/978-94-007-5875-9. ISBN 978-94-007-5874-2. ISSN 2194-315X. S2CID 127800463.
  6. ^ Bajpai, Pratima (2018), "Brief Description of the Pulp and Papermaking Process", Biotechnology for Pulp and Paper Processing, Singapore: Springer Singapore, pp. 9–26, doi:10.1007/978-981-10-7853-8_2, ISBN 978-981-10-7852-1, retrieved 2023-06-06
  7. ^ "The Coniferous - Leading Paper Trading Company". theconiferous.com. Retrieved 2023-10-19.
  8. ^ a b c d Biermann, C. J. (1996). Handbook of pulping and papermaking. Elsevier.
  9. ^ a b c J.C. Roberts, The Chemistry of Paper, 1st edn., Cambridge, 1996
  10. ^ a b c d e Manninen, Marjo; Kajanto, Isko; Happonen, Juha; Paltakari, Jouni (2011-08-01). "The effect of microfibrillated cellulose addition on drying shrinkage and dimensional stability of wood-free paper". Nordic Pulp & Paper Research Journal. 26 (3): 297–305. doi:10.3183/npprj-2011-26-03-p297-305. ISSN 2000-0669. S2CID 137540823.
  11. ^ Kemppainen, K.; Siika-aho, M.; Pattathil, S.; Giovando, S.; Kruus, K. (January 2014). "Spruce bark as an industrial source of condensed tannins and non-cellulosic sugars". Industrial Crops and Products. 52: 158–168. doi:10.1016/j.indcrop.2013.10.009. ISSN 0926-6690.
  12. ^ Kumar, Varun; Pathak, Puneet; Bhardwaj, Nishi Kant (February 2020). "Waste paper: An underutilized but promising source for nanocellulose mining". Waste Management. 102: 281–303. Bibcode:2020WaMan.102..281K. doi:10.1016/j.wasman.2019.10.041. ISSN 0956-053X. PMID 31704510. S2CID 207965485.
  13. ^ Bajpai, P. (1999-04-05). "Application of Enzymes in the Pulp and Paper Industry". Biotechnology Progress. 15 (2): 147–157. doi:10.1021/bp990013k. ISSN 8756-7938. PMID 10194388. S2CID 26080240.
  14. ^ Wong, C.H.; Nicholas, J.; Holt, G.D. (2003-04-01). "Using multivariate techniques for developing contractor classification models". Engineering, Construction and Architectural Management. 10 (2): 99–116. doi:10.1108/09699980310466587. ISSN 0969-9988.
  15. ^ American Institute of Timber Construction (2012-07-16). Timber Construction Manual. Wiley. doi:10.1002/9781118279687. ISBN 978-0-470-54509-6.
  16. ^ a b c d Windrich, E. (1998-01-01). "Book Reviews : Adebayo Adedeji (ed.), South Africa and Africa: Within or Apart'? (London: Zed Books and Cape town: SADRI Books, 1996), xiii, 258 pp. Cloth $55.00, paper $19.95". Journal of Asian and African Studies. 33 (3): 278–279. doi:10.1177/002190969803300306. ISSN 0021-9096. S2CID 220925623.
  17. ^ a b c Bajpai, Pratima (2015), "The Control of Microbiological Problems∗∗Some excerpts taken from Bajpai P (2012). Biotechnology for Pulp and Paper Processing with kind permission from Springer Science1Business Media.", Pulp and Paper Industry, Elsevier, pp. 103–195, doi:10.1016/b978-0-12-803409-5.00008-2, ISBN 978-0-12-803409-5, S2CID 89782614
  18. ^ a b c "BASF sells Intertech & Pira to the Smithers group". Focus on Pigments. 2010 (12): 6–7. December 2010. doi:10.1016/s0969-6210(10)70272-1. ISSN 0969-6210.
  19. ^ Hakkila, Pentti (1989), "Utilization of Residual Forest Biomass", Springer Series in Wood Science, Berlin, Heidelberg: Springer Berlin Heidelberg, pp. 352–477, doi:10.1007/978-3-642-74072-5_8, ISBN 978-3-642-74074-9, retrieved 2023-10-12 {{citation}}: Missing or empty |title= (help)
  20. ^ Coppola, Floriana; Fiorillo, Flavia; Modelli, Alberto; Montanari, Matteo; Vandini, Mariangela (April 2018). "Effects of γ-ray treatment on paper". Polymer Degradation and Stability. 150: 25–30. doi:10.1016/j.polymdegradstab.2018.02.004. ISSN 0141-3910.
  21. ^ Wu, Zonghua; Tanaka, Hiroo (April 1998). "Permanence of wood-free paper I: Paper-making additives in naturally degraded wood-free papers". Journal of Wood Science. 44 (2): 111–115. Bibcode:1998JWSci..44..111W. doi:10.1007/bf00526255. ISSN 1435-0211. S2CID 95493027.
  22. ^ BUKOVSKÝ, VLADIMÍR (1997). "Yellowing of Newspaper after Deacidification with Methyl Magnesium Carbonate". Restaurator. 18 (1). doi:10.1515/rest.1997.18.1.25. ISSN 0034-5806. S2CID 96841775.
  23. ^ a b Tillmann, Otmar (2006-01-20). "Paper and Board Grades and Their Properties". Handbook of Paper and Board. pp. 446–466. doi:10.1002/3527608257.ch11. ISBN 9783527309979.
  24. ^ Velebil, J.; Malaťák, J.; Bradna, J. (2016-12-31). "Mass yield of biochar from hydrothermal carbonization of sucrose". Research in Agricultural Engineering. 62 (4): 179–184. doi:10.17221/73/2015-rae. ISSN 1212-9151.
  25. ^ Hsieh, Yung-Cheng (1997). An investigation of the factors affecting dot gain on sheet-fed offset lithography presses (Thesis). Iowa State University. doi:10.31274/rtd-180813-10494.
  26. ^ Hoekstra, Arjen Y. (2015), "The water footprint of industry", Assessing and Measuring Environmental Impact and Sustainability, Elsevier, pp. 221–254, doi:10.1016/b978-0-12-799968-5.00007-5, ISBN 9780127999685, retrieved 2023-10-12
  27. ^ Keijsers, Edwin R.P.; Yılmaz, Gülden; van Dam, Jan E.G. (March 2013). "The cellulose resource matrix". Carbohydrate Polymers. 93 (1): 9–21. doi:10.1016/j.carbpol.2012.08.110. ISSN 0144-8617. PMID 23465896.
  28. ^ Deniz, İlhan; Kırcı, Hüseyin; Ates, Saim (May 2004). "Optimisation of wheat straw Triticum drum kraft pulping". Industrial Crops and Products. 19 (3): 237–243. doi:10.1016/j.indcrop.2003.10.011. ISSN 0926-6690.
  29. ^ Rogers, John Geoffrey; Cooper, Samuel J.; Norman, Jon B. (November 2018). "Uses of industrial energy benchmarking with reference to the pulp and paper industries". Renewable and Sustainable Energy Reviews. 95: 23–37. Bibcode:2018RSERv..95...23R. doi:10.1016/j.rser.2018.06.019. ISSN 1364-0321. S2CID 115446477.
  30. ^ Clarke, CRE; Palmer, B; Gounden, D (August 2008). "Understanding and adding value to Eucalyptus fibre". Southern Forests: A Journal of Forest Science. 70 (2): 169–174. Bibcode:2008SFJFS..70..169C. doi:10.2989/south.for.2008.70.2.12.540. ISSN 2070-2620. S2CID 86195135.
  31. ^ Bajpai, Pratima (2015), "Basic Overview of Pulp and Paper Manufacturing Process", Green Chemistry and Sustainability in Pulp and Paper Industry, Cham: Springer International Publishing, pp. 11–39, doi:10.1007/978-3-319-18744-0_2, ISBN 978-3-319-18743-3, retrieved 2023-10-15
  32. ^ Griffith, T.; D'Alleva, G.; Lockley, B.; Wood, B. (2005). "Division 2/Zone 2 Auxiliary Devices-Understanding Global Hazardous Area Requirements". Record of Conference Papers Industry Applications Society 52nd Annual Petroleum and Chemical Industry Conference. IEEE. pp. 1–10. doi:10.1109/pcicon.2005.1524534. ISBN 0-7803-9272-8. S2CID 5709110.
  33. ^ Hammett, A. L.; Youngs, Robert L.; Sun, Xiufang; Chandra, Mudit (2001-02-21). "Non-Wood Fiber as an Alternative to Wood Fiber in Chinas Pulp and Paper Industry". Holzforschung. 55 (2): 219–224. doi:10.1515/hf.2001.036. ISSN 0018-3830. S2CID 98128960.
  34. ^ Abd El-Sayed, Essam S.; El-Sakhawy, Mohamed; El-Sakhawy, Mohamed Abdel-Monem (2020-02-06). "Non-wood fibers as raw material for pulp and paper industry". Nordic Pulp & Paper Research Journal. 35 (2): 215–230. doi:10.1515/npprj-2019-0064. ISSN 2000-0669. S2CID 213801102.
  35. ^ Kumar, Rajnish; Zambrano, Franklin; Peszlen, Ilona; Venditti, Richard; Pawlak, Joel; Jameel, Hasan; Gonzalez, Ronalds (2022-06-28). "High-performance sustainable tissue paper from agricultural residue: a case study on fique fibers from Colombia". Cellulose. 29 (12): 6907–6924. doi:10.1007/s10570-022-04687-3. ISSN 0969-0239. S2CID 246911429.
  36. ^ "Indian Startup Makes Tree-Free Paper That Saves Water Too". Goodnet. 29 June 2020.
  37. ^ Manaia, João P.; Manaia, Ana T.; Rodriges, Lúcia (2019-12-02). "Industrial Hemp Fibers: An Overview". Fibers. 7 (12): 106. doi:10.3390/fib7120106. ISSN 2079-6439.
  38. ^ O'Brien, Mary G. (2015-01-01). "Photography: My New Score". The Boolean: Snapshots of Doctoral Research at University College Cork (2015): 136–141. doi:10.33178/boolean.2015.28.
  39. ^ Sawarkar, Ankush D.; Shrimankar, Deepti D.; Kumar, Ajay; Kumar, Aman; Singh, Ekta; Singh, Lal; Kumar, Sunil; Kumar, Rakesh (October 2020). "Commercial clustering of sustainable bamboo species in India". Industrial Crops and Products. 154: 112693. doi:10.1016/j.indcrop.2020.112693. ISSN 0926-6690. S2CID 224933420.
  40. ^ "Woodfree Paper - Adazing". Adazing. There are two main types of woodfree paper: uncoated and coated. Uncoated woodfree paper is typically used for printing and writing. It is also used in some packaging applications. Coated woodfree paper is used for packaging, labels, and other applications where a more durable paper is needed.
  41. ^ "About Zed Books", The New Maids, Zed Books, 2011, doi:10.5040/9781350223356.0009, ISBN 978-1-84813-288-7, retrieved 2023-06-07
  42. ^ Marchak, M. P. (1995). Logging the globe. McGill-Queen's Press-MQUP.
  43. ^ "Woodfree Paper - Adazing". Adazing. [Woodfree paper] is also less likely to warp or curl.
  44. ^ Abman, Ryan (April 2018). "Rule of Law and Avoided Deforestation from Protected Areas". Ecological Economics. 146: 282–289. Bibcode:2018EcoEc.146..282A. doi:10.1016/j.ecolecon.2017.11.004. ISSN 0921-8009.
  45. ^ Paquette, Alain; Messier, Christian (February 2010). "The role of plantations in managing the world's forests in the Anthropocene". Frontiers in Ecology and the Environment. 8 (1): 27–34. Bibcode:2010FrEE....8...27P. doi:10.1890/080116. ISSN 1540-9295.
  46. ^ Dobson, Andrew P.; Pimm, Stuart L.; Hannah, Lee; Kaufman, Les; Ahumada, Jorge A.; Ando, Amy W.; Bernstein, Aaron; Busch, Jonah; Daszak, Peter; Engelmann, Jens; Kinnaird, Margaret F.; Li, Binbin V.; Loch-Temzelides, Ted; Lovejoy, Thomas; Nowak, Katarzyna (2020-07-24). "Ecology and economics for pandemic prevention". Science. 369 (6502): 379–381. Bibcode:2020Sci...369..379D. doi:10.1126/science.abc3189. ISSN 0036-8075. PMID 32703868. S2CID 220714448.
  47. ^ Clark, Michael; Tilman, David (2017-06-01). "Comparative analysis of environmental impacts of agricultural production systems, agricultural input efficiency, and food choice". Environmental Research Letters. 12 (6): 064016. Bibcode:2017ERL....12f4016C. doi:10.1088/1748-9326/aa6cd5. ISSN 1748-9326. S2CID 4825837.
  48. ^ Yao, Zhisheng; Zheng, Xunhua; Liu, Chunyan; Lin, Shan; Zuo, Qiang; Butterbach-Bahl, Klaus (2017-01-05). "Improving rice production sustainability by reducing water demand and greenhouse gas emissions with biodegradable films". Scientific Reports. 7 (1): 39855. Bibcode:2017NatSR...739855Y. doi:10.1038/srep39855. ISSN 2045-2322. PMC 5214061. PMID 28054647.
  49. ^ Donner, Mechthild; Gohier, Romane; de Vries, Hugo (May 2020). "A new circular business model typology for creating value from agro-waste". Science of the Total Environment. 716: 137065. Bibcode:2020ScTEn.71637065D. doi:10.1016/j.scitotenv.2020.137065. ISSN 0048-9697. PMID 32044489. S2CID 211079869.
  50. ^ Bationo, A.; Mokwunye, A. U. (July 1991). "Role of manures and crop residue in alleviating soil fertility constraints to crop production: With special reference to the Sahelian and Sudanian zones of West Africa". Fertilizer Research. 29 (1): 117–125. doi:10.1007/bf01048993. ISSN 0167-1731. S2CID 32038201.
  51. ^ Naab, J. B.; Mahama, G. Y.; Koo, J.; Jones, J. W.; Boote, K. J. (2015-01-28). "Nitrogen and phosphorus fertilization with crop residue retention enhances crop productivity, soil organic carbon, and total soil nitrogen concentrations in sandy-loam soils in Ghana". Nutrient Cycling in Agroecosystems. 102 (1): 33–43. Bibcode:2015NCyAg.102...33N. doi:10.1007/s10705-015-9675-8. ISSN 1385-1314. S2CID 254511028.
  52. ^ a b Koul, Bhupendra; Yakoob, Mohammad; Shah, Maulin P. (April 2022). "Agricultural waste management strategies for environmental sustainability". Environmental Research. 206: 112285. Bibcode:2022ER....20612285K. doi:10.1016/j.envres.2021.112285. ISSN 0013-9351. PMID 34710442. S2CID 239930556.
  53. ^ Sadh, Pardeep Kumar; Duhan, Surekha; Duhan, Joginder Singh (2018-01-02). "Agro-industrial wastes and their utilization using solid state fermentation: a review". Bioresources and Bioprocessing. 5 (1). doi:10.1186/s40643-017-0187-z. ISSN 2197-4365.
  54. ^ Dawson, Julie C.; Huggins, David R.; Jones, Stephen S. (May 2008). "Characterizing nitrogen use efficiency in natural and agricultural ecosystems to improve the performance of cereal crops in low-input and organic agricultural systems". Field Crops Research. 107 (2): 89–101. Bibcode:2008FCrRe.107...89D. doi:10.1016/j.fcr.2008.01.001. ISSN 0378-4290.
  55. ^ "Agriculture, Agricultural Policies and the Environment", Resource and Environmental Economics, WORLD SCIENTIFIC, pp. 265–287, December 2009, doi:10.1142/9789812833969_0008, ISBN 978-981-283-394-5, S2CID 133172488, retrieved 2023-10-14
  56. ^ Javaid, Arshad (2010), "Beneficial Microorganisms for Sustainable Agriculture", Genetic Engineering, Biofertilisation, Soil Quality and Organic Farming, Sustainable Agriculture Reviews, vol. 4, Dordrecht: Springer Netherlands, pp. 347–369, doi:10.1007/978-90-481-8741-6_12, ISBN 978-90-481-8740-9, retrieved 2023-10-14
  57. ^ Noack, Sarah R.; McLaughlin, Mike J.; Smernik, Ronald J.; McBeath, Therese M.; Armstrong, Roger D. (2012-03-27). "Crop residue phosphorus: speciation and potential bio-availability". Plant and Soil. 359 (1–2): 375–385. Bibcode:2012PlSoi.359..375N. doi:10.1007/s11104-012-1216-5. ISSN 0032-079X. S2CID 254942151.
  58. ^ Vinther, F.P.; Hansen, E.M.; Olesen, J.E. (October 2004). "Effects of plant residues on crop performance, N mineralisation and microbial activity including field CO2and N2O fluxes in unfertilised crop rotations". Nutrient Cycling in Agroecosystems. 70 (2): 189–199. Bibcode:2004NCyAg..70..189V. doi:10.1023/b:fres.0000048477.56417.46. ISSN 1385-1314. S2CID 22272215.
  59. ^ HUMPHERSON-JONES, F. M. (August 1989). "Survival of Alternaria brassicae and Alternaria brassicicola on crop debris of oilseed rape and cabbage". Annals of Applied Biology. 115 (1): 45–50. doi:10.1111/j.1744-7348.1989.tb06810.x. ISSN 0003-4746.
  60. ^ Unkovich, MJ; Pate, JS; Hamblin, J (1994). "The nitrogen economy of broadacre lupin in southwest Australia". Australian Journal of Agricultural Research. 45 (1): 149. doi:10.1071/ar9940149. ISSN 0004-9409.
  61. ^ Setiawan, Wahyu Kamal; Chiang, Kung-Yuh (2020-06-20). "Crop Residues as Potential Sustainable Precursors for Developing Silica Materials: A Review". Waste and Biomass Valorization. 12 (5): 2207–2236. doi:10.1007/s12649-020-01126-x. ISSN 1877-2641. S2CID 255761483.
  62. ^ Cook, R. J.; Boosalis, M. G.; Doupnik, B. (2015-10-26), Influence of Crop Residues on Plant Diseases, ASA Special Publications, Madison, WI, USA: American Society of Agronomy, Crop Science Society of America, and Soil Science Society of America, pp. 147–163, doi:10.2134/asaspecpub31.c8, ISBN 9780891182979, retrieved 2023-10-14
  63. ^ Kumar, Kuldip; Goh, Kuan M. (June 2002). "Management practices of antecedent leguminous and non-leguminous crop residues in relation to winter wheat yields, nitrogen uptake, soil nitrogen mineralization and simple nitrogen balance". European Journal of Agronomy. 16 (4): 295–308. Bibcode:2002EuJAg..16..295K. doi:10.1016/s1161-0301(01)00133-2. ISSN 1161-0301.
  64. ^ Mary, B.; Recous, S.; Darwis, D.; Robin, D. (April 1996). "Interactions between decomposition of plant residues and nitrogen cycling in soil". Plant and Soil. 181 (1): 71–82. Bibcode:1996PlSoi.181...71M. doi:10.1007/bf00011294. ISSN 0032-079X. S2CID 25332318.
  65. ^ Chew; Chia; Yen; Nomanbhay; Ho; Show (2019-04-15). "Transformation of Biomass Waste into Sustainable Organic Fertilizers". Sustainability. 11 (8): 2266. doi:10.3390/su11082266. ISSN 2071-1050.
  66. ^ Fuentes, Bárbara; Bolan, Nanthi; Naidu, Ravi; Mora, María de la Luz (2006). "Phosphorus in Organic Waste-Soil Systems". Revista de la ciencia del suelo y nutrición vegetal. 6 (2). doi:10.4067/s0718-27912006000200006. ISSN 0718-2791.
  67. ^ DeLuca, T. H.; DeLuca, D. K. (April 1997). "Composting for Feedlot Manure Management and Soil Quality". Journal of Production Agriculture. 10 (2): 235–241. doi:10.2134/jpa1997.0235. ISSN 0890-8524.
  68. ^ Kögel-Knabner, I (February 2002). "The macromolecular organic composition of plant and microbial residues as inputs to soil organic matter". Soil Biology and Biochemistry. 34 (2): 139–162. Bibcode:2002SBiBi..34..139K. doi:10.1016/s0038-0717(01)00158-4. ISSN 0038-0717.
  69. ^ Parnaudeau, Virginie; Dignac, Marie-France (January 2007). "The organic matter composition of various wastewater sludges and their neutral detergent fractions as revealed by pyrolysis-GC/MS". Journal of Analytical and Applied Pyrolysis. 78 (1): 140–152. Bibcode:2007JAAP...78..140P. doi:10.1016/j.jaap.2006.06.002. ISSN 0165-2370.
  70. ^ Benner, Ronald; Fogel, Marilyn L.; Sprague, E. Kent; Hodson, Robert E. (October 1987). "Depletion of 13C in lignin and its implications for stable carbon isotope studies". Nature. 329 (6141): 708–710. Bibcode:1987Natur.329..708B. doi:10.1038/329708a0. ISSN 0028-0836. S2CID 4310998.
  71. ^ Kizha, Anil Raj; Han, Han-Sup (2017-04-26). "Moisture Content in Forest Residues: an Insight on Sampling Methods and Procedures". Current Forestry Reports. 3 (3): 202–212. Bibcode:2017CForR...3..202K. doi:10.1007/s40725-017-0060-5. ISSN 2198-6436. S2CID 114261219.
  72. ^ Parr, J. F.; Papendick, R. I. (2015-10-26), "Factors Affecting the Decomposition of Crop Residues by Microorganisms", ASA Special Publications, Madison, WI, USA: American Society of Agronomy, Crop Science Society of America, and Soil Science Society of America, pp. 101–129, doi:10.2134/asaspecpub31.c6, ISBN 978-0-89118-297-9, retrieved 2023-10-14
  73. ^ Thapa, Resham; Tully, Katherine L; Cabrera, Miguel; Dann, Carson; Schomberg, Harry H.; Timlin, Dennis; Gaskin, Julia; Reberg-Horton, Chris; Mirsky, Steven B. (October 2021). "Cover crop residue moisture content controls diurnal variations in surface residue decomposition". Agricultural and Forest Meteorology. 308–309: 108537. Bibcode:2021AgFM..30808537T. doi:10.1016/j.agrformet.2021.108537. ISSN 0168-1923.
  74. ^ Kriaučiūnienė, Zita; Čepulienė, Rita; Velička, Rimantas; Marcinkevičienė, Aušra; Lekavičienė, Kristina; Šarauskis, Egidijus (2018), "Oilseed Rape Crop Residues: Decomposition, Properties and Allelopathic Effects", Sustainable Agriculture Reviews 32, vol. 32, Cham: Springer International Publishing, pp. 169–205, doi:10.1007/978-3-319-98914-3_7, ISBN 978-3-319-98913-6, retrieved 2023-10-14
  75. ^ Zornoza, R.; Moreno-Barriga, F.; Acosta, J.A.; Muñoz, M.A.; Faz, A. (February 2016). "Stability, nutrient availability and hydrophobicity of biochars derived from manure, crop residues, and municipal solid waste for their use as soil amendments". Chemosphere. 144: 122–130. Bibcode:2016Chmsp.144..122Z. doi:10.1016/j.chemosphere.2015.08.046. ISSN 0045-6535. PMID 26347934.
  76. ^ Campos, Paloma; Miller, Ana Z.; Knicker, Heike; Costa-Pereira, Manuel F.; Merino, Agustín; De la Rosa, José María (March 2020). "Chemical, physical and morphological properties of biochars produced from agricultural residues: Implications for their use as soil amendment". Waste Management. 105: 256–267. Bibcode:2020WaMan.105..256C. doi:10.1016/j.wasman.2020.02.013. hdl:10261/202862. ISSN 0956-053X. PMID 32088572. S2CID 211260887.
  77. ^ Whitbread, Anthony; Blair, Graeme; Konboon, Yothin; Lefroy, Rod; Naklang, Kunnika (December 2003). "Managing crop residues, fertilizers and leaf litters to improve soil C, nutrient balances, and the grain yield of rice and wheat cropping systems in Thailand and Australia". Agriculture, Ecosystems & Environment. 100 (2–3): 251–263. Bibcode:2003AgEE..100..251W. doi:10.1016/s0167-8809(03)00189-0. ISSN 0167-8809.
  78. ^ Wang, Shuang; Zhao, Shuang; Uzoejinwa, Benjamin Bernard; Zheng, Anqing; Wang, Qingyuan; Huang, Jin; Abomohra, Abd El-Fatah (October 2020). "A state-of-the-art review on dual purpose seaweeds utilization for wastewater treatment and crude bio-oil production". Energy Conversion and Management. 222: 113253. Bibcode:2020ECM...22213253W. doi:10.1016/j.enconman.2020.113253. ISSN 0196-8904. S2CID 224863955.
  79. ^ Demirbas, Ayhan (August 2008). "Biofuels sources, biofuel policy, biofuel economy and global biofuel projections". Energy Conversion and Management. 49 (8): 2106–2116. Bibcode:2008ECM....49.2106D. doi:10.1016/j.enconman.2008.02.020. ISSN 0196-8904.
  80. ^ Mumtaz, Mehvish; Baqar, Zulqarnain; Hussain, Nazim; Afifa; Bilal, Muhammad; Azam, Hafiz Muhammad Husnain; Baqir, Qurat-ul-ain; Iqbal, Hafiz M.N. (May 2022). "Application of nanomaterials for enhanced production of biodiesel, biooil, biogas, bioethanol, and biohydrogen via lignocellulosic biomass transformation". Fuel. 315: 122840. Bibcode:2022Fuel..31522840M. doi:10.1016/j.fuel.2021.122840. ISSN 0016-2361. S2CID 245059676.
  81. ^ KUMAR, NEERAJ; PISAL, RR; SHUKLA, SP; PANDEY, KK (2014-07-01). "Crop yield forecasting of paddy, sugarcane and wheat through linear regression technique for south Gujarat". MAUSAM. 65 (3): 361–364. doi:10.54302/mausam.v65i3.1041. ISSN 0252-9416. S2CID 248977624.
  82. ^ Veijalainen, A.-M.; Heiskanen, J.; Juntunen, M.-L.; Lilja, A. (January 2008). "Tree-Seedling Compost as a Component in Sphagnum Peat-Based Growing Media for Conifer Seedlings: Physical and Chemical Properties". Acta Horticulturae (779): 431–438. doi:10.17660/actahortic.2008.779.54. ISSN 0567-7572.
  83. ^ Bosma, Roel; Udo, Henk; Verreth, Johan; Visser, Leontine; Nam, Cao Quoc (2005-12-15). "Agriculture Diversification in the Mekong Delta: Farmers' Motives and Contributions to Livelihoods". Asian Journal of Agriculture and Development. 2 (1–2): 49–66. doi:10.37801/ajad2005.2.1-2.5. ISSN 1656-4383.
  84. ^ Mpuangnan, Kofi Nkonkonya; Mhlongo, Hlengiwe Romualda; Govender, Samantha (2023-03-18). "Managing Solid Waste In School Environment Through Composting Approach". Journal of Integrated Elementary Education. 3 (1): 34–57. doi:10.21580/jieed.v3i1.16003. ISSN 2776-1657. S2CID 259415481.
  85. ^ ROLDAN, A (July 2003). "No-tillage, crop residue additions, and legume cover cropping effects on soil quality characteristics under maize in Patzcuaro watershed (Mexico)". Soil and Tillage Research. 72 (1): 65–73. Bibcode:2003STilR..72...65R. doi:10.1016/s0167-1987(03)00051-5. ISSN 0167-1987.
  86. ^ Saba, Beenish; Christy, Ann D. (2021-03-30), "Cover Crops Effects on Soil Erosion and Water Quality", Cover Crops and Sustainable Agriculture, CRC Press, pp. 268–279, doi:10.1201/9781003187301-15, ISBN 9781003187301, S2CID 233613439, retrieved 2023-10-14
  87. ^ Erenstein, Olaf (November 2003). "Smallholder conservation farming in the tropics and sub-tropics: a guide to the development and dissemination of mulching with crop residues and cover crops". Agriculture, Ecosystems & Environment. 100 (1): 17–37. Bibcode:2003AgEE..100...17E. doi:10.1016/s0167-8809(03)00150-6. ISSN 0167-8809.
  88. ^ Gao, Shuangshuang; Huang, Zhicheng; Feng, Xi; Bian, Yinbing; Huang, Wen; Liu, Ying (2020-02-04). "Bioconversion of rice straw agro-residues by Lentinula edodes and evaluation of non-volatile taste compounds in mushrooms". Scientific Reports. 10 (1): 1814. Bibcode:2020NatSR..10.1814G. doi:10.1038/s41598-020-58778-x. ISSN 2045-2322. PMC 7000765. PMID 32020024.
  89. ^ Mikiashvili, Nona A. (2005). "Production of Ligninolytic Enzymes by Oyster Mushroom Pleurotus ostreatus (Jacq.:Fr.) P. Kumm. Under Different Nutritional Conditions". International Journal of Medicinal Mushrooms: 433. doi:10.1615/intjmedmushrooms.v7.i3.730. ISSN 1521-9437.
  90. ^ Song, Bing; Ye, Jianqiang; Sossah, Frederick Leo; Li, Changtian; Li, Dan; Meng, Lingsi; Xu, Shuai; Fu, Yongping; Li, Yu (2018-03-23). "Assessing the effects of different agro-residue as substrates on growth cycle and yield of Grifola frondosa and statistical optimization of substrate components using simplex-lattice design". AMB Express. 8 (1): 46. doi:10.1186/s13568-018-0565-8. ISSN 2191-0855. PMC 5866258. PMID 29572689.
  91. ^ Mohamed Saleem, M.A (December 1998). "Nutrient balance patterns in African livestock systems". Agriculture, Ecosystems & Environment. 71 (1–3): 241–254. Bibcode:1998AgEE...71..241M. doi:10.1016/s0167-8809(98)00144-3. ISSN 0167-8809.
  92. ^ Aldrich, Samuel R. (2015-11-02), "Nitrogen Management to Minimize Adverse Effects on the Environment", Nitrogen in Crop Production, ASA, CSSA, and SSSA Books, Madison, WI, USA: American Society of Agronomy, Crop Science Society of America, Soil Science Society of America, pp. 663–673–1, doi:10.2134/1990.nitrogenincropproduction.c45, ISBN 9780891182436, retrieved 2023-10-14
  93. ^ Sharma, Bhavisha; Vaish, Barkha; Srivastava, Vaibhav; Singh, Sonu; Singh, Pooja; Singh, Rajeev Pratap (2017-10-11), "An Insight to Atmospheric Pollution- Improper Waste Management and Climate Change Nexus", Modern Age Environmental Problems and their Remediation, Cham: Springer International Publishing, pp. 23–47, doi:10.1007/978-3-319-64501-8_2, ISBN 978-3-319-64500-1, retrieved 2023-10-14
  94. ^ Kristanto, Gabriel Andari; Koven, William (December 2019). "Estimating greenhouse gas emissions from municipal solid waste management in Depok, Indonesia". City and Environment Interactions. 4: 100027. Bibcode:2019CEnvI...400027K. doi:10.1016/j.cacint.2020.100027. ISSN 2590-2520. S2CID 218798751.
  95. ^ Zuberi, M. Jibran S.; Ali, Shazia F. (April 2015). "Greenhouse effect reduction by recovering energy from waste landfills in Pakistan". Renewable and Sustainable Energy Reviews. 44: 117–131. Bibcode:2015RSERv..44..117Z. doi:10.1016/j.rser.2014.12.028. ISSN 1364-0321.
  96. ^ ROWELL, R.M. (2008), "Natural fibres: types and properties", Properties and Performance of Natural-Fibre Composites, Elsevier, pp. 3–66, doi:10.1533/9781845694593.1.3, ISBN 9781845692674, retrieved 2023-10-14
  97. ^ Wegier, Ana; Alavez, Valeria; Piñero, Daniel (2016), "Cotton: Traditional and Modern Uses", Ethnobotany of Mexico, Ethnobiology, New York, NY: Springer New York, pp. 439–456, doi:10.1007/978-1-4614-6669-7_18, ISBN 978-1-4614-6668-0, retrieved 2023-10-14
  98. ^ Feng, Lu; Dai, Jianlong; Tian, Liwen; Zhang, Huijun; Li, Weijiang; Dong, Hezhong (July 2017). "Review of the technology for high-yielding and efficient cotton cultivation in the northwest inland cotton-growing region of China". Field Crops Research. 208: 18–26. Bibcode:2017FCrRe.208...18F. doi:10.1016/j.fcr.2017.03.008. ISSN 0378-4290.
  99. ^ Louis Baumhardt, R.; Salinas-Garcia, Jaime (2015-10-26), Dryland Agriculture in Mexico and the U.S. Southern Great Plains, Agronomy Monographs, Madison, WI, USA: American Society of Agronomy, Crop Science Society of America, Soil Science Society of America, pp. 341–364–3, doi:10.2134/agronmonogr23.2ed.c10, ISBN 9780891182658, retrieved 2023-10-14
  100. ^ Thierfelder, Christian; Mhlanga, Blessing (March 2022). "Short-term yield gains or long-term sustainability? – a synthesis of Conservation Agriculture long-term experiments in Southern Africa". Agriculture, Ecosystems & Environment. 326: 107812. Bibcode:2022AgEE..32607812T. doi:10.1016/j.agee.2021.107812. ISSN 0167-8809. S2CID 244931763.
  101. ^ Wetselaar, R.; Jakobsen, P.; Chaplin, G.R. (January 1973). "Nitrogen balance in crop systems in tropical Australia". Soil Biology and Biochemistry. 5 (1): 35–40. Bibcode:1973SBiBi...5...35W. doi:10.1016/0038-0717(73)90091-6. ISSN 0038-0717.
  102. ^ Kameswara Rao, N.; Dulloo, M. E.; Engels, J. M. M. (2016-07-11). "A review of factors that influence the production of quality seed for long-term conservation in genebanks". Genetic Resources and Crop Evolution. 64 (5): 1061–1074. doi:10.1007/s10722-016-0425-9. ISSN 0925-9864. S2CID 254501805.
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