1(self.webpackChunk_N_E=self.webpackChunk_N_E||[]).push([[5648],{17966:function(e,n,t){(window.__NEXT_P=window.__NEXT_P||[]).push(["/portfolio/arbor",function(){return t(79224)}])},79224:function(e,n,t){"use strict";t.r(n),t.d(n,{__N_SSG:function(){return d},default:function(){return b},markdoc:function(){return g}});var r=t(67294),o=t(1272),s=t(4211),i=t(84266),a=t(12591),c=t(3486);let l={tags:(0,i.w)(a),nodes:(0,i.w)(c),functions:(0,i.w)({}),...(0,i.w)({})},u=new s.ZP.Tokenizer({allowComments:!0}).tokenize('---\ntitle: Arbor\nsubtitle: "[Arbor](https://arbor.co) converts waste biomass into captured COâ and clean electricity."\nhref: /portfolio/arbor\nsocial:\n image: /images/apply_social.png\n---\n\n{% project-header\n supplier_id="climsup_arbor"\n title=$markdoc.frontmatter.title\n subtitle=$markdoc.frontmatter.subtitle\n/%}\n\n{% section name="approach" .prose-two-column %}\n\n## The approach\n\nArbor removes COâ from the atmosphere by converting waste biomass into syngas which is then burned with pure oxygen in an oxycombustor, producing supercritical COâ. \n\nThis supercritical COâ drives a turbine to generate clean electricity, and can be directly captured. For every ton of COâ thatâs removed, Arborâs system also supplies up to 1,000 kWh of clean electricity (the average householdâs monthly electricity use).\n\n\n\n{% /section %}\n\n{% prose-content background="cream" %}\n\n## The case for Arbor\n\n* **Arborâs system addresses the growing demand for clean baseload electricity**. As hyperscalers build more datacenters, they need to balance their commitments to reduce emissions with the requirement for constant, dependable electricity. Arbor meets this double imperative by generating clean electricity and capturing COâ, effectively reducing fossil fuel emissions while removing carbon from the atmosphere. Furthermore, Arborâs system produces excess water as a byproduct of the biomass gasification and oxygen combustion process. In future projects, Arbor plans to sell this excess water for uses such as irrigation and data center cooling, minimizing the need for extra cooling water in their operations.\n\n* **Arbor\'s technology can remove more COâ than BECCS approaches using conventional COâ capture technologies, such as amine solvents**. Arborâs process burns biomass with pure oxygen, producing supercritical COâ and water as the main byproducts. In contrast, other approaches often use regular air, resulting in exhaust that contains various gases. This complex mix makes capturing COâ more costly. In contrast, Arbor\'s exhaust consists mainly of water and COâ, simplifying collection and storage and enabling capture rates exceeding 99%.\n\n* **Arborâs process could be the lowest cost approach to doing BECCS**. Its compact design features an 18 MW turbine about the size of a car engine, allowing for efficient scaling and cost reductions. By integrating COâ capture directly with power generation, Arbor eliminates the added costs of separate capture units. This approach enables a ~10x increase in power and carbon removal for every 2-3x increase in size, potentially driving costs below $100 per ton of COâ removed.\n\n* **Arborâs project meets Frontierâs [sustainable biomass sourcing principles](https://frontierclimate.com/assets/biomass-sourcing-principles.pdf)**. The companyâs commercial facility will source biomass from thinnings of managed timber plantations, in areas where 1) the growth-to-drain ratio (the amount of biomass grown vs. harvested) is either stable or increasing, and 2) where pulp and paper mills that historically utilized these thinnings have shut down. Arbor is working with a credit issuer, Isometric, to quantify the emissions from their project so they can be deducted when calculating the net carbon removal.\n\n{% /prose-content %}\n\n{% section %}\n\n## Pricing and delivery\n\n{% project-pricing\n caption="Arbor\'s modular power system."\n diagram={src: "/images/arbor/secondary.jpg", width: 1800, height: 1200}\n%}\nThe total offtake amount from Frontier buyers is $41M for 116,000 tons. The price accounts for both the removal itself as well as measuring, reporting and verifying (MRV) that each ton is safely and permanently stored. \n\n{% /project-pricing %}\n\n{% /section %}\n'),p=s.ZP.parse(u,{slots:!0}),m=p.attributes.frontmatter?o.ZP.load(p.attributes.frontmatter):{},{components:h}=(0,i.J)(l);var d=!0;let g={frontmatter:m};function b(e){let n=e.markdoc;return s.RZ.react(n.content,r,{components:{...h,...e.components}})}}},function(e){e.O(0,[6130,2649,8391,4321,2222,3061,608,4908,3303,8036,951,8461,2645,2591,2888,9774,179],function(){return e(e.s=17966)}),_N_E=e.O()}]);
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