
The biomass inventory
The sinews of war in the biobased economy is access and availability of the resource.
This resource comes in the form of waste, "a product that no one wants" which is then burned or abandoned.
The degradation of this resource emits CO2, or methane, a greenhouse gas that is 20 times more powerful than CO2.
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On the other hand, collected, dried and valorized according to existing technologies, this biomass can usefully have a "second life" in the form of bioenergies, biobased material or hygienised fertilizer.
The challenge is therefore to identify the location, the seasonality (each biomass in its season) and the quantities available and a source of added value and jobs.
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Here are some examples.

Urban biomass
A real and untapped potential
Here is a famous but little exploited potential: "urban" biomasses. Tree branches, clumps, these biomasses grow in a medium rich in CO2 and therefore are prolific.
Their disposal requires a service of cutting, of collection to deposit them in discharge.
The city of Oujda has accounted for more than 300 tonnes of green waste annually that can be converted into biofuels for regular heat producers.
market value: from 0 to 900Dhs per ton

Seaweed, algae as raw material
Over the last decade, a large number of advanced biofuels have been developed from solid biomass, which has attracted considerable attention from research, industry and policy makers. However, no major algal biofuel marketing facility has yet been put in place by the end of 2015. Over the next four years, experts from six European countries will strive to make breakthroughs in the field of biofuels. commercially viable production of the third generation. biofuels from seaweed macroalgae.
The MacroFuels project (€ 6 million from the Horizon 2020 program) is dedicated to this research and innovation project.
The working methodology is based on a 2D substrate for deep-sea culture.
Algae do not need fresh water, arable land or fertilizer to grow. Algae can be obtained through improved biofuels derived from high quality co-products. For an improved crop, MacroFuels will use advanced textile-based 2D substrates to facilitate offshore cultivation. These textiles provide 3 to 5 times more biomass than 1D rope systems. Rotational crop technology coupled with advanced textiles will further increase biomass by surface yield.
MacroFuels will conduct process-oriented studies that will allow algal-derived biofuels to compete favorably with fossil or earlier generation fuels.
Improve the efficiency of technologies for converting algae into biofuels, which are currently in their infancy.
The expected breakthroughs in terms of pre-treatment and bioconversion of algae sugar to ethanol and butanol as well as thermal chemical conversion to furan-based biofuels. Significant improvements in efficiency will be achieved by reducing the use of water through the use of enzyme products in the pre-treatment stages.
The goal is to quadruple the production of the same amount of substrate while decreasing the cost of production of the raw material by a factor of 10.
The project foresees the creation of around 15,000 jobs based on the target of 2.5% biofuels, which corresponds to 5,000 km of cultivated algae.
For more details on the project, please visit the MacroFuels website: www.macrofuels.eu

Almons & argan shells
9.000 tons per year
The Profao project, conducted with Belgian technical cooperation, planted 6,000 hectares of almond trees between the period of 2011 to 2015 to reach a total of 25,000 hectares of almond trees in late 2016 in the Oriental region.
The 15 cooperatives involved in the project are organized in 3 Economic Interest Groups (GIE).
The three GIEs (group of cooperatives) are created in the main production areas of almonds covered by the PROFAO project at the Oriental.
For the moment, these GIEs are at the beginning of the valorisation phase and the organization of the sector. The almond crushing units planned by the project are undergoing installations and equipment (three major crushing units are planned by the project in the Oriental region.)
Almond shells contain almost 38% of lignin, a bioenergy-efficient material that is sought after in chemistry in addition to cellulose and hemicellulose.

Rosemary
15.000 tons in l'Oriental
The production of rosemary essential oil leaves a series of branches without use.
They have a heating value of nearly 4 MWh / ton, equivalent to 400 liters of diesel per tonne of rosemary (dry).
Converted into briquettes, these branches can usefully replace firewood and generate additional income for rural farmers and families.
from 0Dh to 1.000Dhs per ton
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