


Comparison of Grate Furnace Incineration Treatment Technology and Pyrolysis Gasification Treatment Technology | ||
Compare Content | Grate Furnace | Pyrolysis Gasifier |
Incineration Mechanism | The Garbage Is Directly Burned, The Combustion Temperature Is 800~1000°C, The Incineration Mechanism Is General | Using Two-Stage Treatment, The Garbage Is Now Pyrolyzed And Gasified, And Then Small-Molecule Combustible Gas Is Burned. The Combustion Temperature Is 850~1100℃. The Incineration Mechanism Is Advanced. |
Furnace Structure And Grate Material | The Structure Is Complex And The Shape Is Large; The Grate Works Under High Temperature, And The Requirements For The Grate Material Are High | The Structure Is Relatively Simple And Compact; The Grate Works In A Low Temperature State, And The Requirements For The Grate Material Are Low |
Types Of Garbage | Dispose Of Domestic Waste | It Can Process Domestic Waste, Industrial Waste, And Hazardous Waste With High Calorific Value (Including Medical Waste) |
Area (300t/D) | 40-50 Acres Higher | 30-40 Acres Lower |
Operating Cost Fly Ash Emissions | Fly Ash Discharges A Lot, Accounting For About 5% Of The Total Garbage | Fly Ash Emission Is Low, Accounting For About 1% Of The Total Garbage, Which Is Environmentally Friendly |
Acidic Substance And Dust Emission | The Original Value Of Acidic Substances Such As So2 And Nox Is Relatively High; The Dust Emission Concentration Is 6000~8000mg/Nm3 | The Original Value Of Acidic Substances Such As So2 And Nox Is Relatively Low: The Dust Emission Concentration Is ≤3000mg/Nm3 |
Plant Environment | It Is Difficult To Control The Environment In The Plant Area. The Incinerator Workshop Has A Certain Amount Of Bottom Ash And Leachate, Noise, And Odor Pollution. | The Factory Environment Is Well Controlled, And The Bottom Ash, Noise, And Odor Pollution In The Workshop Are Low |
-
Waste Gasification Power Plant
Waste gasification power plant: capacity from 1000kw to 6000kw, modular design, several modular for big capacity.
Views More -
Waste Gasifier
Waste Gasifier: single furnace treatment capacity up to 50 ton/day, it can treat household waste, industrial waste and medical waste.
Views More -
Biomass Gasification Power Plant
Biomass gasification power plant: capacity from 200kw to 3000kw, 1kg woody biomass generate 1kw electricity, 1kw woody biomass produce 2-3m3/h syngas, syngas heat value 1100-1500kcal/m3.
Views More -
Biomass Gasifier
Applicable raw materials: a wide range of raw materials, such as straw, wood chips, rice husk, palm shell, bagasse and other agricultural and forestry wastes
particle size: 30-50mm, water content: less than 20%Views More





Tangible economic value of non-timber forest products from
sago palm, rice, corn, and coconut farmings. However, since the year 2000, the peat swamp forests have been deforested, degraded, and disturbed by fires as the impacts of conversion into industrial forest plantations -scale oil palm plantation estates (Yayasan Mitra Insani 2008; Tropenbos Indonesia 2010). This forest
Biomass upgrading by torrefaction for the production of
Oct 01, 2011 · Abstract. An overview of the research on biomass upgrading by torrefaction for the production of biofuels is presented. Torrefaction is a thermal conversion method of biomass in the low temperature range of 200–300 °C. Biomass is pre-treated to produce a high quality solid biofuel that can be used for combustion and gasification.
Table 2 from Bio-energy from coconut shells. | Semantic Scholar
Bio-energy from coconut shells. @inproceedings{Nagaraja2013BioenergyFC, title={Bio-energy from coconut shells.}, author={Mavinakoppa S. Nagaraja and R. D. Kumar and Govindarajan Ashwanandhini and Vattakkoval Nisha and Lutovska Monika and Aishwarya Lakshmi and C Sumitha and E. Sivaranjani}, year={2013} }
Greenhouse gas emissions resulting from conversion of peat
Here, we present direct measurements of GHGs emitted during the conversion from peat swamp forest to oil palm plantation, accounting for CH 4 and N 2 O as well as CO 2. Our results demonstrate that emissions factors for converted peat swamp forest is in the range 70-117 t CO 2 eq ha -1 yr -1 (95% confidence interval, CI), with CO 2 and N 2 O
3. Bioenergy production - Food and Agriculture Organization
transportation and processing must be taken into account. The conversion efficiency of the product should be considered together with its end use to limit the risk of policy failure. The appropriateness of different bioenergy production systems in economic, environmental and social terms will depend to a large extent on national and local
Biochars produced from coconut palm biomass - Springer
Apr 13, 2020 · Abstract Lignin-rich recalcitrant biomass residues of coconut palms viz. (i) mature coconut husk, (ii) tender (immature or green) coconut husk (iii) coconut leaf petiole and (iv) coir-pith were successfully pyrolysed using a simple charring kiln into carbon-rich, black, light weight and porous biochars. High alkalinity and good ash content made them fit for remediating acid soils. High
The Challenges of Biofuel Implementation in Indonesia
comprehensive studies indicated that if the land use conversion were accounted for, biofuel resulted a much higher of GHG emissions, especially if it was included the rainforest destruction, or conversion of peat lands. For the above reasons, in the near term, the policy priority should be to find ways to
Extent of industrial plantations on Southeast Asian peatlands
Apr 09, 2012 · Between 2000 and 2010, the proportion of forest conversion to plantation dropped to 56%. However, this was mainly due to the seemingly low peat swamp forest conversion rates for new plantations in South Sumatra and Central, South and East Kalimantan provinces where vast areas of forest had already burnt in the late 1990s (Miettinen et al., 2011a).
Soilless Growing Mediums | Oklahoma State University
Soilless media must provide oxygen, water, nutrients and support the plant roots just as soil does. Table 1. Comparison between the cost, lifespan and pH level of various hydroponics mediums. An ideal growing medium should have all or some of the following characteristics: Good aeration and drainage.
Thermochemical conversion strategies of biomass to biofuels
Dec 01, 2021 · This article is an effort to comprehensively review the thermochemical conversion process of biomass to biofuels that also investigates the techno-economic value of each thermochemical conversion option in terms of engineering design, process modeling, and economic evaluation (i.e., existing machinery, labor, and the price of consumables and
Additional supporting evidence for significant iLUC emissions
Feb 18, 2015 · Land-use emission factors are based on Winrock land conversion data and MODIS satellite data, which were used by US EPA (USEPA, 2009) to calculate emission factors for land conversion and reversion. These data were validated by comparing them with actual land-use change data obtained from aircraft surveys and other satellite data (Bauen et al
(PDF) Hydrothermal Carbonization of Peat Moss and Herbaceous
Oct 17, 2018 · The experimental methodology involves three essential steps: (1) sample preparation and characterization, (2) sorption study on oil samples, and (3) HTL study of spent peat sorbent to produce bio
An Overview on the Conversion of Forest Biomass into Bioenergy
Jul 02, 2021 · DOI: 10.3389/fenrg.2021.684234 Corpus ID: 235700887; An Overview on the Conversion of Forest Biomass into Bioenergy @inproceedings{Yu2021AnOO, title={An Overview on the Conversion of Forest Biomass into Bioenergy}, author={Qing Yu and Yacheng Wang and Quyet Van Le and Han Yang and Homa Hosseinzadeh-Bandbafha and Yafeng Yang and Christian Sonne and Meisam Tabatabaei and Su Shiung Lam and Wanxi
Bioenergy from agroforestry can lead to improved food
Aug 19, 2016 · Land-use changes had negative impacts in some cases. In Indonesia, for instance, conversion of peat swamp forests to oil palm led to significant losses in terms of biodiversity and aboveground biomass carbon, in addition to annual emissions of about 4.6 million Mg of belowground carbon from peat oxidation (Koh et al. 2011).
Integrated technique to produce sustainable bioethanol from
Mar 01, 2022 · Bioethanol, as a sustainable energy produced from lignocellulosic biomass, does not release as many greenhouse gases (GHGs) as fossil-based fuels (coal, peat, oil, gas) [3], [4]. Syngas is produced through thermochemical conversion of lignocellulosic biomass via pyrolysis (torrefaction), hydrothermal treatment, gasification, and combustion [5].
-
Rotary Automatic Slag Burner
Applicable raw materials: wood chips, straw briquette, bark, building templates, pellets
Diameter: <10cm Moisture content: <15% -
Chain Grate Semi-Gasification Burner
Applicable raw materials: wood chips, straw briquette, bark, building templates, pellets
Diameter: <10cm Moisture content: <15% -
Waste Gasification Power Plant
Waste gasification power plant: capacity from 1000kw to 6000kw, modular design, several modular for big capacity.
-
Waste Gasifier
Waste Gasifier: single furnace treatment capacity up to 50 ton/day, it can treat household waste, industrial waste and medical waste.
-
Biomass Gasification Power Plant
Biomass gasification power plant: capacity from 200kw to 3000kw, 1kg woody biomass generate 1kw electricity, 1kw woody biomass produce 2-3m3/h syngas, syngas heat value 1100-1500kcal/m3.
-
Biomass Gasifier
Applicable raw materials: a wide range of raw materials, such as straw, wood chips, rice husk, palm shell, bagasse and other agricultural and forestry wastes
particle size: 30-50mm, water content: less than 20%