Bio-Fuel

Clean Bio-energy for a Clean Earth

HiPoint AG, through its sister organization HiPoint Energy, uses biomass, green waste, and horse waste to produce Biofuel, primarily in the form of alternative diesel or Syngas, to be converted into electric power. Collaborating with local energy companies, HiPoint aims to establish long-term offtake agreements and distribute natural energy to charging stations, creating e-RINS, Carbon Tax Credits, and profitable incentives.

Hi-Grade Biofuel

 

Biomass to Electric Power for a self-sustaining planet

What is Biofuel?

Biofuel is a renewable fuel that is produced over a short time span from biomass. Biofuel can be produced from plants or from agricultural, domestic, or industrial biowaste. HiPoint can produce biofuel from dry manure Equine waste in our recycling facilities and our R&D division is working with new feedstocks to produce Hi-Grade Biofuels to be used for electric power.

Flame from biofuel

Non- Labile (Persistent) Biochar

The process creates two bi-products, biofuel and biochar. We can modify biofuel output vs. biochar output by adjusting the input materials' moisture. With moisture at <5%, we will produce more biochar and at >10 % more biofuel. The biomass input material will be the "unusable" wood fibre and manure separated during the recycling process, and a small percentage of plastic horse bags or alternative inputs such as corn stover, hemp flour, and green waste can be used. The goal is to modify outputs to meet customer/locational needs with just enough biochar produced to add to HiPoint's organic matter biofertilizer while the biofuel converted to electricity will be sold to the grid to reduce the need for fossil fuels and optimize carbon credits.

READ MORE ON BIOCHAR
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Non-Labile (Persistent) Biochar

The process creates two bi-products, syngas and biochar. We can modify syngas output vs. biochar output by adjusting the input materials' moisture. With moisture at <5%, we will produce more biochar and at >10 % more syngas. The biomass input material will be the "unusable" wood fibre and manure separated during the recycling process, and a small percentage of plastic horse bags or alternative inputs such as corn stover, hemp flour, and green waste can be used. The goal is to modify outputs to meet customer/locational needs with just enough biochar produced to add to HiPoint's organic matter biofertilizer while the syngas converted to electricity will be sold to the grid to reduce the need for fossil fuels and optimize carbon credits.

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READ MORE ON BIOCHAR
Pure. Bio-Fuel. Biochar.

Vision

The HPe-6 system is currently being designed to stand out due to its unique combination of efficient syngas production for electric power and tar-free operation to convert equine and other woody biomass into syngas, which is a type of biofuel made through partial combustion. The syngas will be used to produce electric power such as methanol, hydrogen, or a diesel substitute, depending on the regional market, and also have a bi-product of high-grade biochar without oil buildup. The process can be customized to maximize gas output to reduce utility costs. HiPoint AG has teamed up with like-minded engineers under the company HiPoint Energy HPE hipointenergy.com (a separate entity)to scale up to power the HiPoitn bedding Facility sites, a crop-based farm using various feedstocks or even a village.

HPE Introduction Deck

OREGON R&D FACILITY

HPE is reviewing the value of enhancing a beta united owned by Indiana University with patents and Indiana University Research and Technology Corp. (IURTC), a non-profit corporation. HiPoint Energy, a new entity, has teamed up with a highly qualified team of engineers to develop technology that will utilize hi-heat thermal conversion to create commercially viable systems. Our partner farm in Oregon will provide one million lbs. of post-processed hemp as the input feedstock. This feedstock will be used to develop high-grade tar-free electric power in the form of syngas to electricity for the grid and non-labile biochar for our fertilizers at commercially viable prices.
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HiPoint Energy Process

The HPe-6 system will convert biomass into chemicals, energy fuel, and heat. We achieve this by increasing the energy content of the biofuel and separating the gases from ash & biochar through high temperatures under oxygen-deprived conditions. We are able to modulate the balance of biochar and biofuel through the HPE thermodynamic drying system to achieve the desired output. Dry feedstock produces excess carbon char, while moderate moisture maximizes hydrogen production and electrical power. Users can customize the system's operation to suit their needs and maximize their revenues.

The process is unique in that it enables individual farm owners and operations to reduce their own utility costs and be part of the solution to power a village, working alongside fertilizer companies to reduce chemical fertilizer usage and help regenerative agriculture land requirements.

The future step in the process is the use of membranes to convert syngas into hydrogen at a low price for storage and reuse in low-energy automation and battery replacement, while scaled-up redundancy for utilities like hospitals is the future goal.

The HPe-6 system will convert biomass into chemicals, energy fuel, and heat. We achieve this by increasing the energy content of the syngas and separating the gases from ash & biochar through high temperatures under oxygen-deprived conditions. We are able to modulate the balance of biochar and syngas through the HPE thermodynamic drying system to achieve the desired output. Dry feedstock produces excess carbon char, while moderate moisture maximizes hydrogen production and electrical power. Users can customize the system's operation to suit their needs and maximize their revenues.

The process is unique in that it enables individual farm owners and operations to reduce their own utility costs and be part of the solution to power a village, working alongside fertilizer companies to reduce chemical fertilizer usage and help regenerative agriculture land requirements.

The future step in the process is the use of membranes to convert syngas into hydrogen at a low price for storage and reuse in low-energy automation and battery replacement, while scaled-up redundancy for utilities like hospitals is the future goal.