初创公司尽调
尽调报告 Climate / Energy — superhot geothermal drilling and power development Late venture / Series B 2026-08-16

Quaise Energy

创业公司尽调 — Quaise Energy(超热地热;估值判断截至 2026-08-16 对价格敏感)

Quaise Energy 的超热地热上行空间和战略投资方都可信;但估值、融资可行性和运营验证还没补齐,公开证据仍只支持 继续研究 / 观察。

封面要素

2026 年 Series B 首次交割 01
$134M [CV002]
已披露累计融资 02
$230M [CV001]
旗舰项目一期 03
50 MW [CO023]
具名直接客户证据 05
Nevada Gold Mines pilot [CU001]
披露状况 06
Private and valuation-opaque [CV003, CV005]

公司概况

Quaise Energy 是一家总部位于 Houston 的超热地热开发商,2018 年从 MIT 研究中孵化,试图把面向超深井的毫米波钻井商业化。公司并不只卖单一钻具,而是想做可融资的地热电力资产,先从 Oregon 的 Project Obsidian 和 Nevada Gold Mines 的采矿场景试点切入。它的战略承诺异常大:如果公司能稳定打到 10–20 km 深度并利用超热岩体,就可能在传统地热地理边界之外,打开高密度稳定清洁电力和存量化石资产再供能机会。公开证据在技术差异化、融资动能和合作伙伴质量上最强;在价格、客户合同、电价和 Quaise 超热地热资产的运营实证上最弱。

官网
quaise.energy
成立时间
2018-01-01
创始人
Carlos Araque, Matt Houde
创立地点
Cambridge, MA
总部
Houston, TX
产品
Quaise 的产品是一套围绕混合钻井搭建的地热资产交付栈:上部地层用常规钻井,更热、更硬、更深的岩层用毫米波钻井。公司计划靠自持或自开发的地热电力和工业能源项目变现,而不是走简单设备销售模式。
客户
公用事业、工业能源用户、存量热资产业主,以及需要稳定无碳电力或热力的偏远场站和矿区。
商业模式
B2B 基础设施开发商 / 未来独立电力生产商。公开证据中最可信的收入路径,是公司自开发地热项目的长期售电或售热,之后可能叠加存量化石资产再供能和工业场站能源合同。
阶段
Late venture / Series B
融资情况
Quaise 在 2026 年 7 月披露 Series B 首次交割 $134M,至今累计融资 $230M。公开报道还显示,Obsidian 一期 50 MW 仍需要大量额外融资、补助或债务。
[CO001, CO006, CI011, CV001, CV003, CV016]

执行摘要

主要优势

  • 如果 Quaise 能以经济方式钻到超热岩层,毫米波钻探带来的战略上行空间异常大。
  • Project Obsidian 和 Nevada Gold Mines 提供了真实商业切面,不只是实验室叙事。
  • Prelude、JERA、Idemitsu 等战略投资方验证了公司不只是投机性科学项目。
  • 稳定地热电力的市场背景在改善,PPA、私人资本和 24/7 清洁能源兴趣都在上升。
  • 公司似乎正在补强项目管理、地热开发和现场集成的真实执行深度。

主要风险

  • 没有公开估值标记、股权结构瀑布、上网电价数据或收入基础,定价纪律很难把握。
  • Project Obsidian 仍是核心风险集中点,横跨许可、融资、客户验证和估值。
  • 商业验证仍明显弱于 Fervo、Eavor 等证据更充分的同行。
  • 公开报道显示,首期 50 MW 仍需要在已披露股权资金之外筹集大量额外融资。
  • 专门工程能力、合作伙伴和客户集中度,在这个阶段都会放大执行脆弱性。

未决问题

  • 最新定价估值标记和任何老股交易参考
  • 股权结构瀑布、优先权和真实进入经济性
  • 首期 50 MW 的项目层面资金来源与用途
  • Obsidian 的具名购电方、上网电价区间和合同结构
  • 商业流量测试、钻深推进和可靠性数据
  • 联邦和 Oregon 路径下的完整许可矩阵与签发状态

目录

Chapter 01

01公司概况

1.1 身份、运营模式与当前阶段

Quaise Energy 已经不只是一个源自 MIT 的科学项目。2026 年官方材料描述的是一家总部位于 Houston 的公司:它既把一项差异化钻井技术商业化,也开发自己的地热项目,Oregon 的 Project Obsidian 现在就是旗舰证据。关键在于,业务评估口径随之改变:除硬件和地下技术风险外,公司还直接承担项目开发、许可和购电风险。公司在官网、公司页面和 Series B 材料中的叙事一致:毫米波钻井是使能技术,但公司真正想卖的是可与化石燃料基础设施竞争的高密度、全天候地热热力和电力。公司仍高度依赖化石燃料资产改造故事,尤其是煤电和燃气资产,也仍把部署不受地理严格限制视为机会最终可达太瓦级的原因。即便如此,现有公开证据支持的阶段标签比原问题里的“独角兽”框架更精确:Quaise 更像是一家后期风险投资阶段、项目尚未商业化的 Series B 公司,没有披露公开估值,首批收入也取决于尚未披露的 Project Obsidian 购电伙伴。[CO001, CO003, CO004, CO005, CO021, CO022]

KPI 快照表
指标数值 / 状态日期置信度缺口 / 备注
创立 / 孵化2018 年从 MIT PSFC 孵化2018创立来源获公司和 MIT 资料交叉印证
总部 / 运营身份2026 年新闻稿显示总部在 Houston;MIT / Cambridge 根基仍可见2026-07公开材料显示地点随时间漂移,而不是一条清晰的总部历史
当前阶段后期风投 / 未产生收入的 Series B 项目开发商2026-07用户提供的独角兽标签没有保留下来的公开估值证据支持
最新披露轮次$134M Series B 首次关账2026-07-07更大项目资本计划的第一组成部分
累计披露融资迄今 $230M2026-07-07公司披露;不含尚未公告的后续项目融资
披露估值保留下来的高质量来源未公开披露2026-07为本轮定价时的重要尽调缺口
旗舰项目Project Obsidian,Central Oregon2026-05 to 2026-07建设中 / 未产生收入
I / II / III 期目标50 MW / 250 MW / 1+ GW2026-03 to 2026-07公司路线图;尚非已签约运营容量
首次发电时间目标到 2030 年输出首批电力2026-05时间表反映公司指引,可能滑坡
当前钻井验证2025 年穿透 100m+ 花岗岩;Central Texas 现场接近 1 km2026-07公司披露的里程碑;尚无第三方现场深度审计发布
具名试点客户Nevada Gold Mines TS Power Plant 脱碳试点2024-12商业试点,不是经常性收入
员工数未公开披露2026-08高管名单可见,但未说明员工总数

本快照将有依据事实与公开未获支持的指标区分开来。日期和资本数字来自保留下来的官方、MIT 和独立报道,信息截至本次报告日期。

[CO001, CO005, CO015, CO016, CO017, CO018]
FO003: 快照 KPI

截至 2026 年 8 月尽调日,Quaise 公开可支撑的资本和项目 KPI。

[CO017, CO018, CO020, CO021, CO023, CO024]

1.2 创始人、管理层梯队与治理

创始人与市场匹配度的故事异常强,也异常集中。Carlos Araque 把 Schlumberger 钻井经验与 The Engine 带来的 MIT 商业化经历接在一起;Matt Houde 则把地热商业化工作和 DOE 关联钻井项目执行经验结合起来。Paul Woskov 仍是核心人物,作为 MIT 原始研究者,他的回旋管概念支撑了科学叙事,尽管 Quaise 本身才是商业化载体。公开可见的管理层梯队也明显深于一个小型实验室分拆公司。Kevin Bonebrake 在 CFO 层面带来能源行业资本市场经验,Franck Monmont 和 Henry Phan 覆盖建模与工程系统放大,Trenton Cladouhos 与 Geoffrey Garrison 又补上公司早年缺少的成熟地热田开发深度。Ali Azad 以独立董事身份加入,是少数公开可见的治理信号之一;这表明管理层知道首个同类电力项目执行和资本形成需要独立监督。最大的保留是,公开披露仍没有给出总员工数,外部只能看到高管名单,却看不完整组织规模。[CO002, CO006, CO007, CO008, CO009, CO010]

领导层与创始人表
人员职务背景创始人-市场匹配 / 职能覆盖关键人员依赖
Carlos Araque联合创始人、总裁兼 CEO前 Schlumberger 钻井负责人;曾任 MIT The Engine 技术总监串联油田钻井现实、MIT 商业化、融资和公司叙事高 — 核心商业与战略锚点
Matt Houde联合创始人兼首席幕僚管理过与毫米波钻井相关的 DOE ARPA-E 资助工作;担任 Geothermal Rising 董事连接商业化路线图、政策关系和地热生态入口高 — 联合创始人兼跨职能整合者
Kevin BonebrakeCFO前 Morgan Stanley 和 Lazard 能源银行家;早期具备机械工程背景融资、项目融资对话和战略规划中 — 对资本形成重要
Trenton Cladouhos地热资源开发副总裁35 年应用地球科学经验,15 年地热经验负责地下表征、EGS 技术积累和场址开发逻辑高 — 关键地热领域深度
Geoffrey Garrison运营副总裁前 AltaRock 研发高管,拥有数十年工业开发经验负责试点执行和首批热/电资产开发高 — 从钻机测试迈向项目的核心人物
Ali Azad独立董事前 Generation mPower CEO,具备 FOAK 电力项目经验增加治理、部署和受监管基础设施视角中 — 更多是治理支持,而非日常执行
Diane Hughes营销与传播副总裁能源行业传播负责人,经历包括上市公司转型把控公开叙事、利益相关方沟通和政府 / 公共事务低-中 — 影响外部叙事和政策接口

本表强调对资本形成、地热项目执行和首个同类商业化最重要的人物;它不是完整组织架构图。

[CO002, CO006, CO007, CO008, CO009, CO010]

1.3 融资历史、战略投资者与资本结构

Quaise 的融资轨迹证明了实质进展,也说明这套投资逻辑已经变得高度资本密集。公司从 2022 年 $52 million 扩展 Series A,走到 2024 年 $21 million Series A1,将累计资本推高到 $95 million 以上,再到 2026 年 7 月 $134 million Series B 首次交割,把已披露累计融资提高到 $230 million。Prelude Ventures 和 Safar Partners 连续多轮跟投,这是投资人信心的正面信号;Mitsubishi、JERA 和 Idemitsu 则说明工业资本越来越愿意支持这一平台。2026 年这一轮尤其重要,因为它不是普通风险投资跑道,而是更大资本计划中的第一笔股权资金,用来支持 Project Obsidian 本身,并与项目层面股权和债务并行。这意味着稀释、融资复杂度和施工风险转移仍是故事的活跃组成部分。同样重要的是,没有高质量留存公开证据能证明 2026 年投后估值。实际结论是,投资人可以核验融资金额和财团质量,却无法确认市场当前用什么价格承接这类风险。[CO012, CO013, CO014, CO015, CO016, CO017]

利益相关方或投资者图谱
利益相关方角色控制权或经济重要性尽调问题
Prelude Ventures多轮领投方2024 Series A1 和 2026 Series B 领投方;连续支持带来较强董事会层面影响力厘清持股、按比例跟投权和后续资本预期
Safar Partners重复投资方从早期轮次到 2026 Series B 持续投资了解治理权利和未来项目资本出资意愿
JERA Ventures / JERA战略投资者和日本商业化渠道作为市场准入和部署伙伴,重要性可能高于纯财务投资者索取与日本部署绑定的任何商业合作权利
Idemitsu Americas / Idemitsu Kosan具备地热资源开发专长的战略投资者可能增加产业可信度和项目开发支持厘清投资是否包含优先参与项目的权利
Nevada Gold Mines试点交易对手首个具名工业脱碳试点;测试采矿场景中的改造叙事哪些里程碑、经济条件和时间表约束该试点选择权?
Nabors Industries钻机集成伙伴将毫米波硬件适配到全尺寸钻机的关键角色哪些商业条款约束集成关系和未来机队使用权?
BLM / 联邦土地管理者Project Obsidian 的监管闸门许可节奏直接控制联邦租约上的钻井进度哪些剩余许可可能拖延首口井作业?
未披露的 Project Obsidian 承购方未来收入交易对手可能支撑首批收入,但公开来源仍未具名承销收入前,索取交易对手、合同期限、定价和里程碑

利益相关方覆盖投资者、项目交易对手和监管者,因为三者都会实质影响 Quaise 将技术进展转化为首批收入的能力。

[CO015, CO017, CO019, CO020, CO029, CO031]

1.4 Project Obsidian、交易对手与里程碑漂移

Project Obsidian 是如今整个公司围绕展开的核心事实。项目位于 Central Oregon 的 Newberry 附近,Quaise 称当地地温梯度足够高,按这一类别的标准,可以在相对较浅深度达到超热条件。公开项目材料持续描述分期建设路径:先 50 MW,再 250 MW;如果早期系统跑通,最终目标是吉瓦级。BLM 记录确认项目已通过一个重要中间步骤——最终类别排除和决定记录——但也明确显示,钻井许可和后续杂项通知仍在前方。这个细节很关键,因为项目比简单宣传公告更真实,也比公告暗示的完成度更低。商业验证同样只是部分成立。目前具名公开交易对手大多属于试点、基础设施和战略方:Nevada Gold Mines 对应工业脱碳试点,Nabors 对应全尺寸钻机集成,Oregon State University 对应科学去风险,JERA 和 Idemitsu 对应战略市场扩张。公司还称首批收入绑定了未披露的购电伙伴,但没有名称或合同条款,市场仍缺少通常支撑首个商业电力项目的清晰客户证据。[CO022, CO023, CO024, CO025, CO026, CO027]

里程碑表
日期事件类型金额 / 估值 / 状态参与方含义
2018Quaise 作为 MIT 孵化公司创立创立公司成立Carlos Araque、Matt Houde、Paul Woskov 研究基础围绕回旋管钻井概念搭建商业化载体
2022-06Series A 扩大至 $52M融资总额 $52MTechEnergy Ventures、HostPlus、Prelude、Safar、Xplorer 等投资方提供早期机构资金跑道和投资者财团可信度
2024-04Series A1 完成关账融资$21M;累计融资 >$95MPrelude、Safar、Mitsubishi、Standard Investments 等投资方资助现场运营和供应链强化
2024-06聘请地热资深人士治理Garrison + Cladouhos 加入管理层Quaise 管理层补上项目开发和地热执行深度
2024-09宣布花岗岩现场钻井里程碑产品完成现场花岗岩穿透Quaise 工程团队标志从实验室验证转向现场验证
2024-10Ali Azad 加入董事会治理新增独立董事席位Ali Azad、Quaise 董事会为 FOAK 电力部署强化治理信号
2024-12宣布 Nevada Gold Mines 试点合作商业试点评估Barrick 运营的 Nevada Gold Mines、Quaise首个具名工业脱碳试点
2025-05全尺寸 Nabors 演示产品混合钻机演示Quaise、Nabors、DOE 观察员把集成钻井系统放入油田场景验证
2025-10MIT 报道 118-meter 现场井,以及最高 5 m/hr 的花岗岩钻进速度规模MIT 独立里程碑报道MIT Energy Initiative、Quaise有意义的第三方技术验证
2025-09 to 2025-10BLM 发布 Project Obsidian 决策记录监管分类排除和决策记录BLM、Quaise联邦许可推进,但尚未完成
2026-03发布 Project Obsidian 路线图规模I 期 50 MW / II 期 250 MW / III 期 1+ GWQuaise 项目团队确立商业化建设框架
2026-03宣布 OSU 超热岩研究捐赠合作$750K 捐赠Quaise、Oregon State University支持技术风险降低和人才梯队建设
2026-05Quaise 称 Project Obsidian 已开建,目标 2030 年首次发电产品时间表更新Quaise、Stanford 研讨会听众商业化时间表长于早期 MIT 预期所暗示的节奏
2026-07宣布 Series B 首次关账融资$134M;累计融资 $230M;估值未披露Prelude、JERA、Idemitsu、Safar、其他现有投资者推动公司从原型融资阶段迈向项目融资阶段

这是概览章节唯一的记录时间线。它有意混合融资、招聘、产品、监管和合作事件,让后续章节可以引用同一条时间线,而不是重复搭建。

[CO001, CO012, CO015, CO016, CO017, CO022]
FO002: 公司快照逻辑

Quaise 的起源、钻井技术、项目平台、交易对手和资本结构如何共同构成当前商业化逻辑。

[CO003, CO004, CO020, CO029, CO031]

1.5 技术证明、时间线进展与 2022 年以来的变化

自 Quaise 早期 MIT 报道以来,最可信的正面变化是钻井系统已明确走出台架级概念。MIT 2025 年文章称,公司钻出了一个 118-meter 野外孔,并展示了显著快于常规钻井的花岗岩钻进速度;2026 年 7 月 Series B 新闻稿则称,公司 2025 年穿透花岗岩超过 100 meters,正在 Central Texas 接近一公里野外里程碑。Nabors 集成工作和混合钻机演示进一步说明,系统是在实际油田语境中开发,而不是停留在实验室真空里。不过,公司自身时间线的变化也最清楚地表明,这仍是前沿能源项目,不是已去风险的基础设施铺开。2022 年,MIT 报道描述过到 2026 年开始从试点井采能的目标。到 2026 年,公司自己的旗舰项目指引已变成 2030 年首度出电。这并不推翻底层投资逻辑,但确实说明商业化路径比早期叙事更长、更资本密集,也更充满不确定性。公司已有足够真实世界证据值得认真看待,但还不足以抹掉进度和执行风险。[CO024, CO034, CO035, CO036, CO037]

FO001: 公司里程碑时间线

从 Quaise 2018 年成立到 2026 年 Series B 首关的关键事件,展示其从源自实验室的技术转向获得联邦许可的商业项目。

[CO001, CO012, CO017, CO024, CO027, CO034]

1.6 展示项

Chapter 02

02市场分析

2.1 市场边界:超热稳定能源切口,不是泛地热 TAM

不应按一个无差别的“所有地热、所有地点”故事给 Quaise 估值。公开证据指向的是一个更窄但更站得住的市场:稳定清洁电力、高温工业热,以及受益于地热 24/7 小占地运行能力的化石资产再供能。这个边界很重要,因为它把 Quaise 与今天并未真正服务的类别区分开,例如住宅地源热泵、浅层直接供热改造,或没有地热特定买方意图的泛可再生能源采购。EIA 对现有水热型市场的描述强化了这一区别。今天的地热装机基础依赖天然有利的水热资源、数百华氏度的温度,以及可能只延伸几英里的井。Quaise 的投资逻辑不同:打开更热岩体,服务更难脱碳的能源任务,并随着时间推移降低地热对地理的束缚。结果是一个比“传统地热电站”更宽、但远比“所有电力和热力”更窄的市场。最合适的描述,是面向需要稳定、高密度、高容量因子能源买方的下一代基础设施市场,尤其适用于已有化石基础设施或工业热需求的地方。[CM001, CM002, CM006, CM007, CM010, CM017]

市场定义表
细分市场 / 类别纳入支出排除支出买方 / 付款方意义
稳定清洁电力公用事业 PPA、有容量支撑的清洁稳定电力合同、现场基荷发电没有地热属性或可调度需求的市场化可再生能源容量公用事业、电网规划方、大企业契合 Quaise 24/7 电力叙事和竞争品类成形
工业过程热现场热力供应、热电集成、工业脱碳项目住宅供暖改造和仅限低温 HVAC 的项目工业能源经理、工厂运营方最契合 Quaise 300–500°C 温度定位
化石能源资产再供能煤电或燃气电厂复用、涡轮和并网复用、棕地地热转换不复用热资产的纯绿地可再生能源项目电厂业主、IPP、项目开发商是 Quaise 公开商业化叙事的核心
采矿和重工业脱碳矿山和偏远工业场址的场址级电力与热力替代通用可持续发展咨询或 REC 购买矿业运营商和工业资产所有者Nevada Gold Mines 是目前最强的具名证据点
现状地热与相邻替代方案传统地热、EGS、核能、燃气、太阳能+储能、能效措施非能源相邻软件或服务同上买方群体重要性在于 Quaise 面对的是既有厂商和相邻方案,而不只是初创公司

这一定义边界有意排除浅层地热和通用可再生能源预算,因为它们并不直接购买地热稳定电力或高温热力属性。

[CM001, CM002, CM017, CM021, CM036, CM037]
FM001: 市场规模测算视角

理解 Quaise 市场,最清晰的方式是把它拆成分阶段的地理与需求堆叠:从现有装机基础出发,经过可见的已签约需求,最后才走到公司主张的全球分层逻辑。

这座金字塔混合了当前装机容量、已签约需求、宏观终端用能负荷和公司的地理视角,因为公开电价数据不足,无法搭出单一 SAM 桥。

[CM003, CM015, CM016, CM020, CM029, CM035]

2.2 规模测算视角:已装机市场、政策托底上行空间与工业热需求

公开证据不足以支撑精确的 Quaise 总可用市场(TAM)、可服务市场(SAM)或可获取市场(SOM),因此本章改用多重规模测算视角。第一重是当前地热基础:NREL 称美国 2024 年有 99 座电站、合计 3.969 GWe,更广义的全球地热市场包括约 15 GWe 电力,以及可观的直接供热和热泵容量。这说明地热是真实市场,但相对整体能源系统仍然很小。第二重是政策与技术上行空间:DOE 的 Earthshot 材料把增强型地热定义为战略基础设施,目标是在 2035 年达到 $45/MWh;如果能接入一小部分资源,其供电潜力可覆盖数千万户家庭。第三重是工业热,这是 Quaise 温度故事最差异化的地方。公司认为,热是全球最大的能源终端用途,工业消耗其中一半,而且大量工业需求位于传统地热难以舒适覆盖的温度带之上。这些视角不能产出一个单一公司收入数字,但能解释为什么投资人会认真看待下一代地热这个大型未来市场。[CM003, CM004, CM005, CM008, CM009, CM012]

TAM / SAM / SOM 或规模测算视角表
发布方年份地区数值CAGR方法置信度局限
NREL / Geothermal Rising2025美国99 座运营电站合计 3.969 GWen/a装机市场视角当前基数以水热为主,不是下一代市场规模
NREL / Geothermal Rising2025全球~15 GWe 电力 / 38 GWth 直接用热 / 78+ GWth 热泵n/a广义市场存量视角混合电力和热力类别,并非 Quaise 收入
DOE Earthshot2023美国2035 年 $45/MWh 目标n/a政策驱动商业化视角目标值,不是当前市场价格
DOE Earthshot PDF 文件2023美国只开发少部分资源,就可覆盖数千万户家庭n/a资源机会视角资源潜力不等于可签约市场
Quaise 分层框架2026全球Tier II 接近全球 40%;Tier III 覆盖 >90% 人口n/a地理可及性视角公司模型,而非独立审计的市场研究
Quaise 工业热文章2026全球~50% 能源使用形态是热;工业消耗其中约一半n/a终端需求视角品类级宏观视角,不是经价格调整的可服务市场(SAM)
NREL / Google-Fervo 证据2025美国截至 2025 年 6 月,11 笔下一代地热 PPA 合计 984 MWen/a已签约需求视角需求指向更大品类,不是 Quaise 本身

本章采用已安装市场、资源潜力、终端用途、地理和已签约需求等视角,因为公开资料没有给出精确测算 Quaise 的可服务市场(SAM)或可获取市场(SOM)所需的电价假设。

[CM003, CM005, CM008, CM009, CM013, CM015]
FM002: 市场估算区间

公开地热市场和成本证据,最好看成一组当前值和目标值区间,而不是 Quaise 单一市场出清价格。

前三行是第三方或公共政策数值;Quaise 一行是公司主张,应视为愿景目标,而非经过验证的市场定价。

[CM008, CM028, CM030, CM031]

2.3 买方分层与采用流程

Quaise 的买方地图因使用场景而明显不同。公用事业和电网规划者看重容量因子、可靠性和长期清洁稳定电力合同。大型企业和数据中心生态看重稳定清洁能源,因为它能同时对冲碳压力和电力供应波动。工业运营商关心工艺热和现场能源韧性。Nevada Gold Mines 也说明,采矿客户可以把深层地热视为场站级脱碳工具,而不是电网级市场化售电机会。这些不是冲动购买,而是基础设施项目。一个项目通常要先通过资源筛选、确认井、许可、融资、购电、钻井,再完成地表电站建设,收入才会显现。因此,购电证据极其重要。NREL 对下一代 PPA 的回顾,以及 Google 通过 Fervo 持续参与地热,都说明买方确实有清洁稳定地热需求。但这也意味着市场转化缓慢、资本密集,并由交易对手把关,而不是靠简单漏斗顶部获客推动。具体到 Quaise,证据最充分的早期切口是工业和面向电网的基础设施买方,不是零售或大众市场地热用户。[CM017, CM018, CM019, CM020, CM022, CM023]

细分市场 / 买方图谱
细分市场买方使用方付款方工作流预算负责人采用触发点
公用事业级稳定电力公用事业公司或 LSE电网和终端客户公用事业公司 / 费率基数 / 签约对手方与资源开发挂钩的 PPA 或容量采购发电采购 / 资源规划需要可靠的清洁容量和电网韧性
超大规模云厂商 / 大型企业稳定电力企业能源采购团队数据中心 / 大负荷长期合同下的企业购电方开发商发起的清洁稳定 PPA 或表后结构可持续发展 + 电力采购需要 24/7 清洁能源和长时可靠性
工业过程热工业工厂业主工艺设备和热系统工业站点运营方场址研究、确认井、集成热交付设计工厂管理层 / 能源团队难减排热负荷需要替代燃料、降低排放
采矿 / 偏远电力矿山运营方矿区电力系统矿山业主 / 运营 JV现场试点、与既有发电混合、分阶段建设运营和可持续发展负责人需要降低柴油 / 天然气敞口和现场排放
化石资产再供能电厂业主 / IPP既有热力发电资产电厂业主 / 项目 SPV棕地评估、许可、售电、钻井、复用并网 / 汽轮机公司发展 / 项目融资复用既有热力和电网基础设施的价值

地热项目是基础设施采购,不是标准化软件销售,因此买方、使用方和付款方往往分属不同组织。

[CM017, CM018, CM019, CM022, CM037]
FM003: 买方 / 细分市场图

最重要的分析区分,不只是地热由谁购买,而是证据质量和签约逻辑如何随细分市场变化。

[CM019, CM020, CM021, CM032, CM037]
FM004: 采用漏斗或价值链图

商业采用取决于基础设施里程碑,而不是轻量销售转化。

[CM020, CM022, CM026]

2.4 采用驱动因素:稳定电力稀缺、工业热与油田杠杆

留存来源里能看到几个强劲顺风。第一,地热的电网价值异常清楚:DOE Office of Geothermal 强调约 90% 容量因子,Quaise 和竞争对手材料也反复把地热定义为清洁基荷或可调度能源。第二,政策组合有利。DOE 明确试图把 EGS 在 2035 年推到 $45/MWh,NREL 市场报告显示,下一代 PPA 和项目承诺已经是实质事件,而不是假设。第三,工业热是一个真实相邻需求池,许多其他低碳技术很难直接触达。超热地热的 300–500°C 叙事,比间歇式可再生能源更自然地贴合氨、水泥、炼油等工艺需求。第四,Quaise 的商业叙事受益于油气劳动力和基础设施复用。这种杠杆不只是成本故事,也是速度故事,因为它给这一类别提供了现成承包商基础、钻机和开发工作流。如果 Quaise 证明钻井和项目配方成立,这些驱动因素会在技术达到完全全球 Tier III 部署之前,就先打开一个大切口。[CM007, CM008, CM011, CM012, CM019, CM023]

增长驱动与约束表
驱动 / 约束方向时间含义尽调问题
地热 ~90% 容量因子特征利好当前相比间歇性可再生能源,支撑清洁稳定电力溢价测算目标市场中高容量因子能源的价值
DOE Earthshot 与 EGS 公共资金利好当前至 2035 年提高品类合法性,并可能改善成本曲线跟踪 Quaise 能否获得或受益于公共项目
工业热脱碳需求利好当前把买方范围扩到公用事业公司之外识别首批项目场址的具体行业和温度区间
复用油气劳动力和供应链利好当前可降低部署摩擦,缩短学习曲线核验与 Nabors 及其他油田合作伙伴的真实合同条款
项目资本强度高,需要赠款 / 债务阻力当前融资瓶颈可能拖慢技术上可行的项目索取 Obsidian 完整资本计划和剩余融资里程碑
高温材料、套管和电子设备约束阻力当前即便钻井准入改善,商业化也可能放慢审查供应商就绪度和认证数据
缺少公开定价 / 电价数据阻力当前卡住严谨的可服务市场(SAM)和可获取市场(SOM)测算,也卡住估值桥接索取预期电价、热价和容量因子假设
基础设施采用流程长阻力持续销售周期更像项目融资,而不是常规 B2B 市场进入绘制从选址到首笔收入的平均周期

驱动与约束交织在一起:同一个市场可以在战略上很有吸引力,同时在运营上很难打穿。

[CM007, CM008, CM020, CM023, CM025, CM026]

2.5 约束、矛盾以及硬 SAM/SOM 仍卡在哪里

市场故事很大,但瓶颈同样清楚。Canary 显示,即使只是 50 MW 一期项目,在已筹股权之外仍需要大量额外融资。Latitude 准确抓住了核心评估问题:地下热便宜又充足没有意义,除非井能以优于替代方案的成本钻成、完井、激活并运营。NREL 市场报告强化了资本密集这一点;Quaise 自己的材料也承认,新材料、高温电子、热循环、地下表征和更长部署周期仍是重要约束。最大的分析缺口是价格。公开来源没有披露电力买方会为 Project Obsidian 支付什么价格,工业热客户会为每单位热量支付多少,或有多少地质潜力能现实转化成可融资的合同收入。因此,严格的公司级 SAM 或 SOM 仍然够不到。正确结论不是市场小,而是留存公开证据支持一个有前景的多视角类别,但还不支持完整承保模型。[CM021, CM026, CM027, CM028, CM029, CM030]

2.6 展示项

Chapter 03

03竞争格局

3.1 竞争版图:对手不只是“其他超热初创公司”

Quaise 并不在一个狭窄的新奇类别里竞争。真实竞争框架包括 Fervo、Eavor、Sage 等直接下一代地热开发商;Ormat、Calpine 等水热型在位者;能够承接地热工作的油田服务和钻井公司;在买方层面,还包括满足同一任务的其他清洁稳定电力或存量资产再供能方案。这很重要,因为不同对手会挤压投资逻辑的不同部分。Fervo 在近期执行和客户证据上竞争。Eavor 在地质灵活性和闭环风险姿态上竞争。Sage 在替代地热系统架构上竞争。Ormat 和其他在位者则在运营可信度和买方熟悉度上竞争。同时,Nabors 和 SLB 提醒投资人,大量地热执行最终可能通过油田生态由伙伴中介完成。结果是,Quaise 最新颖的差异化——靠毫米波进入超热深度——被放在一场围绕资本、签约和商业证明的更大竞争中。[CP001, CP002, CP006, CP007, CP015, CP033]

竞争对手画像表
竞争对手类别规模 / 融资目标细分市场差异化局限
Quaise直接超热地热 / 项目开发商已披露累计融资 $230M;首个商业项目在推进公用事业、工业、棕地再供能毫米波钻井;瞄准超热深度;煤 / 气电厂改造叙事交付电力和具名购电方的公开证据最弱
Fervo直接下一代地热开发商$462M Series E;500 MW Cape Station 路线图公用事业、企业、电网稳定化买方水平钻井、光纤、储层分析、执行证据仍有品类风险;不是闭环,也不是超热深层路径
Eavor闭环先进地热开发商CGF 最高 $138M;Geretsried 部分商业运营电力加区域供热闭环系统降低对储层的依赖;主打广泛地理适用性井眼相交要求复杂;公开电价数据仍薄
Sage压力地热替代方案融资不是保留证据集的核心;商业主张早于公开规模证明公用事业、储能相邻买方、地热采用者压力地热架构和储能相邻定位大规模交付输出的公开证据较少
Ormat / 在位者水热型在位者占美国已安装地热容量的主要份额公用事业和可再生能源组合运营历史、买方熟悉度、已安装资产水热基础受地质限制;全球选址灵活性较低

画像表同时放入创业公司和在位者,因为买方不在乎替代方案是不是“创业公司形态”;他们只在乎它能否完成同一类稳定电力或供热任务。

[CP002, CP006, CP008, CP009, CP010, CP023]
FP001: 竞争定位图

当前商业化验证和长期地质灵活性是最清晰的两条竞争轴,同行在这两条轴上的位置差异明显。

这些轴是基于留存公开证据综合得出的序位判断,不是经审计的市场份额或兆瓦数据。

[CP006, CP008, CP009, CP011, CP023, CP026]

3.2 同业画像:Fervo 强在执行证据,Eavor 强在闭环差异化,Quaise 强在上行不对称

在直接同业中,Fervo 是当前最清晰的商业基准。其留存材料显示 500 MW Cape Station 建设计划、一轮大型 Series E,以及通过 Google 形成的具名交易对手证据。Eavor 可见兆瓦规模小于 Fervo,但它比 Quaise 更有证据表明下一代替代路线已经能进入商业运营;其闭环设计也回应了不同于依赖渗透率系统的买方担忧。Sage 是架构替代而非当前规模基准,但仍然重要,因为它说明一旦资本和客户开始重视,这一类别可以沿很多路径演化。Quaise 的公开位置更不对称:如果超深钻井跑通,它可能拥有最大的跃迁式上行空间;但目前商业证明少于 Fervo 或 Eavor。其留存证据集中在钻井里程碑、混合钻机集成,以及建模或电站设计进展,而不是实际出电。因此,能力比较必不可少。Quaise 最强的是温度雄心和化石电厂再供能契合度,最弱的是已验证兆瓦数和具名购电方。[CP003, CP004, CP005, CP008, CP009, CP010]

功能 / 能力矩阵
购买标准QuaiseFervoEavorSage在位水热
触达超高温 / 深层岩体投资逻辑强;商业证明有限中;不是核心主张中;不是核心主张中低,取决于地质
具名商业对手方证明中低中高中低
闭环隔离储层不确定性部分具备 / 架构不同
棕地化石资产再供能适配度叙事强可能适配,但不是主叙事部分场景可能适配保留证据集中不清楚中低
产电运营的现场证明中高中低
使用标准油田生态
已发布定价 / 已实现电价缺乏公开证据缺乏公开证据缺乏公开证据缺乏公开证据部分具备 / 最多限于具体项目

单元格是基于保留公开资料做出的序位判断。“缺乏公开证据”指本章没有保留该标准的公开证据,并不等于能力不存在。

[CP003, CP004, CP005, CP008, CP009, CP011]
FP002: 功能广度 / 能力图

相对广度要看能力覆盖和就绪度差异,而不只是兆瓦标题数字。

单元格是来自官方和独立来源的定性摘要;没有支撑的经济指标有意不作推断。

[CP008, CP009, CP011, CP028, CP029, CP030]

3.3 定价、上市路径与切换动态:证据胜过营销

这个行业的定价异常不透明。多数同业发布愿景声明、项目时间线和选择性 LCOE 或成本曲线主张,却不发布标准化价目表或实际利润率。实际操作中,买方评估的是证据、交易对手、场址质量和风险转移,而不是在透明产品价格之间做选择。对公用事业和大型工业客户来说,竞争在资产建成前就开始了:它们可以在谈合同、融资和许可时,把不同地热开发商互相比,也与非地热稳定电力替代方案比较。一旦项目被选中并建成,切换成本会很高,但到那时胜出的开发商已经确定。正因如此,具名购电协议和可信伙伴生态比宽泛市场口号更重要。Fervo 和 Eavor 目前在这里占优,因为其留存公开材料展示了更可见的客户或伙伴验证。Quaise 与 Nabors 的关系有助于工业化,但公开记录还不能证明独家渠道权力或合同锁定。[CP017, CP018, CP019, CP020, CP022, CP024]

定价 / 包装对比
价格 / 单位 / 合同模式包含能力折扣或未知项含义
Quaise:项目级电力 / 热力 / 承购合同;定价未披露钻井 + 地热开发 + 再供能主张没有公开电价或已实现 LCOE 披露估值不能依赖透明的商业价格证明
Fervo:公用事业 / 企业长期购电协议;项目融资绑定具体场址储层开发、钻井、电力交付、运营数据叙事已发布的合同经济性很少可作为证明维度的同业基准,不适合作为公开价格透明度基准
Eavor:电力和区域供热项目开发闭环地热系统 + 热力 / 电力输出区域供热和电力费率条款大多未披露买方吸引力可能强于公开单位经济透明度
Sage:项目 / 部署模式似乎是定制化压力地热系统和储能相邻定位公开包装和价格细节薄商业可比性仍低
在位者:公用事业 PPA / 商业售电 / 签约地热输出已验证运营资产电价因项目而异,且只部分可见在位者赢在熟悉度,而不是公开定价

缺少价格透明度本身就是竞争事实:公开市场投资人只能比较证明和对手方,而不是价目表。

[CP017, CP018, CP019, CP020, CP022, CP024]

3.4 护城河耐久性取决于深度进入能力,但压力会来自资本和伙伴

核心护城河问题不在于 Quaise 的物理学是否有趣,而在于地热类别放大后,公司能否守住一个有商业价值的位置。有些环节看起来是自研的:毫米波钻井流程、建模栈,以及让超深岩层去除可重复所需的井下经验诀窍。但交付链的大部分依赖伙伴:钻机、涡轮机、现场执行、电站建设、融资、许可和客户签约。这种依赖限制了赢者通吃。如果地热经济性变得显而易见,油田在位者和资本雄厚的开发商可以进攻周边许多层。Quaise 的存量资产再供能故事和超高温雄心仍然重要,因为它们可能创造别人无法匹配的差异化买方切口。不过,Canary 和 Latitude 当前的反向证据也显示,这套逻辑仍高度依赖融资、时间表和缺失的购电数据。正确结论是,Quaise 可能有真实护城河,但今天还没有证明护城河足够耐久。投资人应把它看作差异化竞争者,而不是已经确立的类别赢家。[CP014, CP016, CP021, CP028, CP029, CP030]

护城河耐久性 / 竞争风险登记表
护城河主张威胁严重性缓释 / 尽调问题
毫米波深层触达能力具备专有性一旦经济性得到证明,油田巨头或资本更充足的开发商可能绕开该方法审查专利组合、独家合作伙伴条款和井下性能数据
Nabors 合作关系带来规模优势合作可能非独家,且伙伴话语权可能超过创业公司的杠杆获取独家性、定价和优先准入条款
棕地再供能是独特市场进入切入点公用事业公司仍可能偏好其他稳定电力或巩固电网的替代方案中高索取再供能机会的赢单 / 输单证据
超热电厂设计可使用成熟汽轮机供应链主张取决于现场能否真正达到高温性能审查电厂设计论文和供应商就绪度
早期技术领先会转化为持久商业领先即便 Quaise 的科学路径仍有新意,Fervo/Eavor 也可能在合同和兆瓦规模上继续领先按季度跟踪首度送电时点、具名承购和资本充足度

严重性反映该风险对 Quaise 竞争耐久性的投资判断影响,不只看技术难度。

[CP014, CP016, CP028, CP029, CP031, CP032]
FP003: 护城河 / 就绪度 KPI

与验证更充分的同行相比,Quaise 的上行空间很高,但就绪度只算中等。

[CP015, CP016, CP017, CP031, CP034, CP037]

3.5 展示项

Chapter 04

04财务情况

4.1 收入模式:未来收入线索看得见,当前收入看不见

公开证据没有显示 Quaise 目前有实质经营收入基础。财务故事仍关乎公司要把业务建成什么,而不是已经变现了什么。最可信的未来收入流,是来自 Project Obsidian 这类公司自开发地热电站的售电。第二条潜在收入线来自工业和场站级项目,Nevada Gold Mines 是最强的具名非公用事业使用场景。存量资产再供能可能成为另一条变现路径,但公开来源没有说明公司会通过资产所有权、能源销售、项目开发费,还是某种组合来获取价值。清楚的是,Quaise 不像一家有公开标价的产品公司,更像一家项目公司,收入将来自少数长期合同或自有资产。如果地热表现符合承诺,这种结构最终可以产出耐久、高质量收入;但它也意味着早期收入很可能集中、受里程碑驱动,并且只靠公开信息很难对标。[CI001, CI002, CI003, CI004, CI005, CI006]

收入流表
收入流机制单位当前价值 / 状态质量尽调问题
公用事业级电力销售来自自有 / 开发地热电厂的电力MWh / 容量合同已规划,但未公开投产若长期签约,潜在质量高索取首个承购结构和预期电价
工业 / 采矿能源供应现场电力或热力替代MWh / 热力或场址合同试点 / 探索阶段战略价值高,但仍早期索取 Nevada Gold Mines 范围、定价和扩张路径
棕地再供能用地热复用化石资产基础设施资产再开发 / 能源合同概念上居核心,但商业上缺乏证据如果成真,可能具备差异化澄清 Quaise 出售的是资产、热力还是服务
项目开发 / 类 EPC 费用潜在开发、工程或管理收入项目费用 / 里程碑未见公开证据Unknown询问 Quaise 是否预期在电厂运营前获得费用收入
技术授权 / 设备变现未来可能把钻井 IP 变现授权或设备收入未见公开证据未知 / 推测性询问授权是否在路线图中,还是只采用业主运营模式

电力销售之外的行有意保守处理,因为公开资料没有充分披露公司计划中的收入组合。

[CI002, CI003, CI004, CI031, CI040, CI043]
定价 / 变现表
价格 / 单位 / 合同标价与已实现价格折扣 / 未知项来源
Project Obsidian 电价 / PPAUnknown未披露公开电价或购电经济性Project Obsidian / 公开报道
工业试点经济性Unknown未披露 Nevada Gold Mines 或其他场地试点的公开定价Nevada Gold Mines 公告
存量电厂再供能合同模式Unknown未披露资产所有权、EPC 与售热分成TechCrunch / 公司材料
长期 LCOE 目标愿景目标,并非已落地价格不是合同价格,也不能替代毛利率Latitude / DOE 分类材料
债务 / 补助支持经济性Unknown公开报道提到补助和债务,但没有价格或契约条款Canary / ThinkGeo

本表大部分刻意留空;价格透明度缺失是核心财务事实,不是撰写遗漏。

[CI005, CI006, CI019, CI028, CI032]
FI001: 收入模式桥

Quaise 的收入路径不是靠设备出货,而是从场址控制和承购走向运营期兆瓦时。

[CI002, CI003, CI004, CI007]

4.2 经济性与单位驱动因素:评估变量看得见,数值看不见

虽然当前收入缺席,经济性框架已经可见。Quaise 模型取决于几个关键变量:公司能否以可接受成本打到足够深度;每口井产出多少能量;能维持什么容量因子;项目拿到什么电价或热价;每兆瓦容量需要多少资本。Latitude 的报道很有启发,因为它说明钻井只是成本方程的一部分;只有极端热量转化为异常高的单井能量产出,模型在财务上才成立。这就是简单风投式 KPI 分析失效的原因。Quaise 不是在优化用户获取或软件毛利率,而是在证明一个首个同类基础设施系统能实现优于替代方案的项目级成本和产出曲线。公开证据没有披露解这个方程所需的实际单井资本开支、每兆瓦资本开支、单井运营开支或实现价格。因此,这张单位经济表大多只是列出什么重要,以及尽调中还必须索取什么。[CI018, CI019, CI020, CI021, CI028, CI029]

单位经济性表
指标数值 / 空值置信度重要性尽调请求
单井资本开支null决定项目资本强度按井型和深度索取工程估算
Obsidian 一期每 MW 资本开支null用于对标同类地热和稳定电力资产索取一期总预算和预备费
单井产出nullLCOE 和收入密度的最关键变量索取基准与下行情景的单井产出假设
已实现电价 / 价格null把产出转成收入索取预期 PPA 区间和交易对手类型
单口运营井 Opexnull用于测算贡献利润和项目 IRR索取维护、人员和修井假设
容量因子假设较高,但公司具体数值未披露收入质量取决于持续发电曲线索取模型假设和衰减曲线
钻井在 LCOE 中的占比若高产出逻辑成立,为 20–30%说明经济性取决于系统总性能,而不只是钻井用内部 LCOE 模型和敏感性表验证

空值反映公开证据缺失,不代表没有查找。表格目的在于把投资测算所需数据请求明示出来。

[CI019, CI020, CI021, CI028, CI032, CI033]
FI002: 单位经济性桥

财务测算桥依赖井的表现:钻井成本能否转成高容量因子产出,并以可接受电价出售。

[CI018, CI019, CI020, CI033]

4.3 资本充足性:按风投标准资金雄厚,按项目标准仍缺钱

只看已披露风险投资融资,Quaise 令人印象深刻。公司的公开轨迹从 2022 年 $52 million Series A 扩展轮,到 TechCrunch 报道的 2023 年部分融资,再到 2026 年 $134 million Series B,将累计融资带到 $230 million。JERA 和 Idemitsu 等战略投资者带来真实可信度,因为两者都明确把投资与未来商业化和国际部署机会相连。但同一份公开记录也说明这还不够。Canary 报道称,Oregon 首座 50 MW 电站仍需要另外 $100 million 融资,以及另外 $100 million 补助和债务;ThinkGeo 则称公司当时已在同步募集额外资本。这意味着,首个商业项目所需资本栈更接近基础设施融资,而不是经典风险投资跑道。公开来源没有披露账面现金或烧钱速度,因此无法判断 Quaise 近期是从容还是受限。可以确定的是,即便完成大型 Series B,公司仍明显依赖融资。[CI009, CI010, CI011, CI012, CI013, CI014]

资本充足性表
账面现金 / 已融资额月烧钱速度现金跑道(月)资金计划用途下一轮融资触发点债务 / 项目融资义务
迄今公开披露累计融资 $230M未披露未披露Series B 资金用于 Project Obsidian 和持续技术开发可能取决于确认井 / 流量 / 购电协议 / 资本到位里程碑公开报道称,公司正筹集更多股权、补助和债务资金
2022 年 Series A 扩展融资 $52M未披露未披露技术开发和战略合作历史里程碑已完成该轮未保留公开债务细节
Dec. 2023 报道,预期 $25M 中已到位 $13M未披露未披露据 TechCrunch,用于供应链布局为更大规模商业化推进过桥未保留公开条款
JERA 战略投资未披露n/a商业化支持和日本市场期权价值可能增强未来部署可信度未保留公开契约或董事会权利细节
Idemitsu 战略投资未披露n/a知识支持和潜在项目参与可能支持未来地热项目铺开未保留公开契约或董事会权利细节
Canary 报道的额外 $100M 融资需求未披露n/a完成首个 50 MW 项目可能绑定项目融资里程碑报道称还搭配另一笔 $100M 补助 / 债务

只有融资金额公开;现金、烧钱速度和现金跑道仍未披露。

[CI009, CI010, CI011, CI012, CI013, CI014]
FI003: 财务估计区间

公开信息最能支撑的财务区间围绕可见资本,而不是收入。

第二行采用 Canary 报道的 $100M 融资外加另 $100M 补助 / 债务。这是资本可见性视角,不是经预算认证的预测。

[CI009, CI011, CI012, CI024]
FI004: 资本强度 / 现金流图

现金流出早到且呈大额一次性支出,流入很可能要等井和电站投运后才开始。

[CI011, CI017, CI029, CI030]

4.4 进展、可比公司与结论:赛道有前景,公司披露不足

公开进展证据是真实的,但多为间接。Quaise 有融资、战略投资者、活跃的首个商业项目、具名工业试点,以及一个明显在其他地方吸引客户和资本的类别。Fervo 的大型融资、Google 的地热购电活动,以及 NREL 汇总的公开地热 PPA,都说明稳定地热电力市场并非理论。Ormat 等成熟上市运营商也证明,地热长期可以成为大型收入业务。但这些事实不能解决 Quaise 的评估问题。公司仍没有公开收入基础、现金跑道、项目级电价披露、单井产出数据或利润率模型。因此,传统基于倍数的估值或精确收入预测都不合适。财务结论很直接:Quaise 足够可信,值得严肃尽调;但今天透明度还不够,无法按标准收入或现金流指标承保。[CI022, CI023, CI025, CI026, CI027, CI030]

公开财务缺口表
缺失的私有指标影响具体尽调路径
账面现金和月烧钱速度无法判断现金跑道或融资紧迫性索取最新董事会材料或融资备忘录
Project Obsidian 完整资本开支预算无法测算股权与债务需求,也无法评估下行预备金索取一期资本计划,包括预备费和里程碑时间
预期电价 / PPA 结构无法把 MW 转成收入或 IRR索取脱敏购电条款或管理层定价备忘录
单井产出假设和递减曲线无法判断能量密度或收入集中风险索取工程模型和下行敏感性分析
Opex 和修井假设无法估算利润率或全生命周期项目经济性索取运营模型和维护计划

这五个缺口是做出正式财务承销判断前的最低资料包。

[CI013, CI021, CI028, CI032, CI036]

4.5 展示项

Chapter 05

05产品与技术

5.1 产品定义:Quaise 做的是能源交付栈,不是小众钻具

应把 Quaise 理解为一家集成型地热开发商,其自研环节恰好是一种新钻井方法。公开来源反复说明这一点:Project Obsidian 是商业项目,Nevada Gold Mines 是部署使用场景,独立报道还引用管理层说法称,产品不是钻头,而是充足热量和能源。放在客户工作流里,Quaise 卖的是一种能力:把深埋地下的超热岩体转化为可用电力或工业能源,靠的是项目开发、选址、钻井、地下设计和地表电站配置的组合。这个框架对尽调很重要,因为 Quaise 的技术不能孤立评估。只有钻井子系统、井设计、许可、土地位置、地表电站和购电全部接上,产品才存在。演示钻机或有前景的实验室结果有帮助,但它本身不是交付产品。交付产品是一项地热资产,能够替代或混合改造传统化石电力和工业能源系统。[CE001, CE002, CE003, CE018, CE032, CE033]

产品模块 / 资产矩阵
模块 / 资产 / 产品线用户状态 / 成熟度差异化尽调缺口
Project Obsidian 商业项目公用事业公司 / 项目交易对手开发阶段把技术绑定到首个真实资产需要已签购电协议和资本结构细节
混合钻机现场钻井团队 / Nabors已现场验证结合常规钻井和毫米波钻井需要正常运行时间和维护数据
毫米波钻井子系统工程和钻井运营团队100m 已现场证明,尚未到商业深度保留证据中唯一可见的超深层路径需要商业深度性能数据
储层 / 井筒设计方案地下工程和运营团队研究到试点阶段针对超热条件和玻璃化衬层收益需要长周期耐久性证据
地面电厂设计发电团队 / EPC概念阶段,有论文支撑可能享有蒸汽轮机供应链优势需要最终商业电厂配置

产品栈混合了物理资产和开发流程,因为地热项目卖的是集成系统,不是独立设备。

[CE001, CE002, CE003, CE017, CE019, CE032]
工作流 / 用例表
用户任务当前工作流公司方案可衡量收益限制
改造既有热力资产沿用老电厂烧煤或天然气在既有电厂附近钻超热井,用地热替代热源有机会复用汽轮机和并网设施暂无商业改造运营证据
开发新的稳定清洁电力依赖水热型地热或其他稳定电源开发 Project Obsidian 式超热地热资产更高功率密度的 24/7 清洁电力仍需全尺寸储层和成本证据
让偏远矿区电力脱碳化石发电搭配太阳能或天然气效率改造用深层地热给现场电厂混合供能借现场热源降低燃料和排放强度只有试点阶段证据
进入深部坚硬基底岩使用机械钻头,经济性随深度恶化在边际回报下降点切换到毫米波钻井可能避开极端深度下的井下硬件失效商业深度性能未验证
设计高温地热电厂沿用较低温二元 / ORC 假设地面转换环节采用超热专用设计可能使用更常见的蒸汽轮机设备有论文支撑,尚未现场验证

用例按客户要完成的任务组织,比简单把 Quaise 描述成钻井公司更有意义。

[CE001, CE005, CE016, CE018, CE033]
FE001: 产品架构图

Quaise 的产品是一套分层工业系统:从土地和场址开发一路下探到毫米波触达,再回到地面发电转换。

[CE001, CE003, CE004, CE013, CE032]

5.2 架构与运营模式:先混合钻井,再做超热地表转换

留存公开来源中的架构足够具体,可以评估。Quaise 先用常规钻井穿过上部地层;一旦岩石对普通机械系统来说太硬、太热或太贵,再切换到毫米波钻井。地表回旋管把能量沿波导送到岩面。孔底处,波束不是机械破碎岩石,而是熔化或汽化岩石。系统也不只依赖钻井泥浆,而是用吹扫气体把小岩屑带出钻进区。这就是公司称系统为混合式、而非全新式的原因:它复用了大量油气钻机栈,同时替换流程中受深度限制的部分。在生产侧,Quaise 的电站设计工作暗示,地表系统也许不必让水一路以超临界状态到达地表,就能捕捉大部分经济收益。如果属实,Quaise 就能把超热储层与比低温地热系统今天常用方案更成熟的蒸汽涡轮供应链配在一起。因此,运营模式是一套耦合栈:钻井进入、井完整性、储层行为和地表转换都必须协同工作。[CE004, CE005, CE006, CE015, CE016, CE026]

技术 / 运营架构表
层级 / 流程 / 组件作用依赖风险
常规钻井段高效到达上部地层现有钻机和团队转入毫米波钻井段的操作节点可能很棘手
地面回旋管产生高功率毫米波供应商可得性,以及从 100kW 放大到 1MW+功率放大和可靠性
波导 / 波束传输把能量传到岩面热管理和传输完整性深部波束损耗或击穿
吹扫气体 / 岩屑清除清除钻进区的汽化或熔融岩石地面气体处理和井眼稳定性清除效率低会限制钻速或损伤井眼
井筒 / 衬层 / 套管系统维持稳定耐久的井眼材料科学和超热岩石行为塌孔、堵塞、衬层退化
储层 / 流体循环把深部岩石热量带到地表岩石渗透率 / 裂缝行为 / 完井流量不确定性和储层退化
地面电力转换把热转成电电厂设计、汽轮机供应、腐蚀控制理论性能与现场表现不匹配

该架构强调完整物理栈,而不是停在钻井子系统。

[CE004, CE005, CE006, CE013, CE014, CE025]
FE002: 客户工作流 / 运营流程

运营流程先是场址开发项目,之后才变成钻井项目和电站。

[CE002, CE005, CE018, CE023, CE032]
FE003: 关键依赖图

技术就绪度依赖一串供应商、合作伙伴和研究机构,而不是单个内部子系统。

[CE020, CE021, CE022, CE025, CE027]

5.3 成熟度、路线图与依赖链

Quaise 显然已经走出纯实验室科学阶段。MITEI 和公司来源显示,项目从早期厘米级工作,推进到花岗岩采石场野外测试、全尺寸 Nabors 集成,以及 2026 年首个 100-meter 野外里程碑。与此同时,公司在最重要意义上仍处于商业化前:公开证据还没有显示 Quaise 超热井在持续运营中发电或产出工艺热。这个缺口定义了成熟度评级。路线图现在经过 Project Obsidian 和美国西部试点开发,目标是在本十年末实现首次商业运营。要走到那里,公司依赖一条很长的合作者和基础设施链:Nabors 负责钻机集成和钻井执行,大学和研究伙伴负责岩石-流体与材料理解,土地和 NEPA 工作需要监管路径,回旋管和设备供应商负责功率放大,最终还需要涡轮机和电站承包商建设地表系统。这条链是优势,因为它复用了现有工业能力;它也是风险,因为每一次交接都可能拖慢或打断商业化。[CE009, CE010, CE011, CE017, CE019, CE020]

路线图 / 发布 / 开发阶段表
日期 / 阶段功能 / 里程碑状态含义来源
2018-2022 基础阶段MIT 起源的概念和早期放大工作已完成说明该技术扎根于长期聚变相关研究MIT 背景 / 公司历史
2025 现场演示全尺寸石油钻机演示和分阶段现场作业已完成把产品从实验室故事推向现场执行故事Quaise 演示报道
2026 现场里程碑100 米花岗岩现场钻井里程碑已完成迄今钻井进展最强的直接证据公司里程碑公告
2026-2028 放大阶段1 MW 级回旋管和更深现场测试进行中验证架构能否从象征性演示走向具备商业意义的功率ThinkGeo / 公司演示报道
本十年末商业化Project Obsidian / 首座超热电厂在本十年末上线计划中核心逻辑取决于从钻井转向发电的过渡Project Obsidian / 路线图页面

Quaise 是工业项目公司,不是软件供应商;因此路线图仍由里程碑驱动,而不是产品发布驱动。

[CE009, CE011, CE017, CE019, CE036]
FE004: 产品成熟度 / 能力图

能力成熟度并不均衡:钻井验证领先于商业生产验证。

成熟度标签概括截至运行日期留存的公开证据;它们不是管理层提供的就绪度评分。

[CE009, CE011, CE017, CE019, CE023, CE036]

5.4 信任、安全与剩余评估缺口

对一家硬件很重的地热公司来说,“信任”不太关乎数据隐私,更关乎安全、现场控制、监管推进和极端条件下的耐久性。公开证据对分阶段纪律给出正面信号:受控采石场测试、逐步放大、受监测演示、Project Obsidian 的监管存在,以及外部关于裂缝、堵塞和玻璃化衬层行为的研究,都指向一个严肃工程项目。但公开证据在正式质量体系和商业运营可靠性上仍然偏薄。没有留存公开目录列出 ISO 类认证、商业正常运行时间、故障率或井寿命统计。OSU 支持的材料工作凸显了这一点:堵塞、矿物生长、玻璃状衬层以及 400–500°C 下的部件行为不是脚注,而是系统耐久性的核心。因此,Quaise 的产品技术案例很有吸引力,但评估方式仍更像前沿工业系统,而不是已证明的设备平台。最高价值的尽调材料会是工程数据,而不是更多愿景叙事。[CE023, CE024, CE025, CE027, CE030, CE031]

信任 / 质量 / 合规表
控制项 / 认证 / 质量指标状态范围缺口
受控花岗岩采石场现场测试可见现场测试环境不等同于完整商业运营
Nabors 全尺寸钻机集成可见运营集成和可能的 HSE 纪律合作伙伴标准比 Quaise 自身公开质量体系更清晰
Obsidian 的 BLM / NEPA 项目记录可见土地和环境审查路径不能确认最终批准或开工就绪
外部大学材料和裂缝研究可见对岩石和材料行为的独立技术验证研究证据不能替代运营可靠性
公开安全 / 正常运行时间 / 故障率指标未见证据商业运营需要正常运行时间、事故和完整性报告
公开 ISO/UL 类认证目录未见证据公司 / 设备质量体系需要正式 QA 认证和审计结果

Quaise 的信任证据主要来自流程和工程纪律,不是数字公司常见的软件式合规信号。

[CE023, CE024, CE025, CE030, CE031, CE035]

5.5 展示项

Chapter 06

06客户情况

6.1 客户分层:今天相关买方很窄,且绑定具体项目

Quaise 理论上的潜在客户很广,但当前证据中的客户范围很窄。近期最相关的细分包括需要清洁稳定电力的公用事业或面向电网的实体、能使用现场地热热力或电力的工业运营商,以及可能为现有基础设施再供能的化石资产业主。JERA 和 Idemitsu 等战略能源公司也重要,因为它们未来可能成为新地理市场中的部署伙伴或准客户。公开记录不支持的是一个多元、广泛的客户基础。Obsidian 暗示 Oregon 面向电网的电力模式,Nevada Gold Mines 暗示重工业脱碳路径,再供能叙事则暗示存量资产业主切口。这些细分逻辑一致,但仍是投资逻辑,不是已规模化的装机基础。一个有用的实际筛选标准是:买方是否已经拥有或管理硬基础设施;如果能插入 24/7 地热热源,而不必新建一个高度依赖输电的完整系统,其经济性是否会显著改善。[CU003, CU004, CU008, CU009, CU015, CU016]

客户细分表
细分市场买方 / 用户 / 付款方用例规模收入 / 战略价值缺口
公用事业公司 / 电网买方公用事业公司、LSE 或面向电网的交易对手来自 Obsidian 式电厂的清洁稳定电力潜在规模大,账户少若签下 PPA,就是核心收入路径名称、电价和条款未披露
工业 / 采矿运营商矿山所有者 / 场地运营商现场电力和热力脱碳项目级规模,集中度高非公用事业用例的重要证明目前只有一个具名试点
存量化石资产所有者电厂所有者 / IPP / 工业场地改造或混合化既有热力资产潜在范围广,但缺证据可能借基础设施复用加速采用除试点路径外,尚无具名再供能客户
战略能源公司 / 国际渠道公用事业或能源巨头投资兼合作伙伴未来部署与市场进入覆盖有限但撬动大可打开地域和项目管线不等同于当前付费客户
品类需求代理买家企业清洁能源买家、海外公用事业公司说明市场愿意购买下一代地热品类证据在增加支撑长期需求逻辑是代理证据,不是 Quaise 的直接牵引力

该表把直接买家、战略渠道和品类代理区分开,因为它们提供的证据质量不同。

[CU003, CU004, CU008, CU011, CU016, CU034]
FU001: 客户旅程图

Quaise 的买方旅程从识别能源问题走向长周期项目转化,而不是从拿下客户 logo 到轻量部署。

[CU003, CU013, CU014, CU017]

6.2 采用轨迹:管线信号真实,已披露客户证据仍稀疏

Quaise 自有材料展示了正确类型的早期商业信号:公司称正在锁定购电协议、钻确认井,并准备首次商业流动测试。这些里程碑很重要,因为基础设施项目的交易对手通常希望地下和执行风险收窄后才签约。不过,公开证明仍有限。Nevada Gold Mines 是最清楚的具名直接交易对手,即便如此,它也明确是试点路径,而不是生产收入关系。Obsidian 购电方没有公开具名。因此,Canary 和 Latitude 等独立来源仍然重要,因为它们显示公司还处在转化前阶段,融资、流动测试和客户身份都还是开放问题。今天最合适的采用描述,是可信管线动能加上狭窄直接证明。换句话说,Quaise 已经过了纯概念兴趣阶段,但还没到投资人可以指着一组已签约、多元客户账簿说商业化风险基本解除的阶段。[CU001, CU002, CU005, CU006, CU013, CU014]

客户增长 / 采用轨迹表
指标日期来源置信度含义缺失分母
已披露直接生产客户披露为 02026-08-16公开资料综合商业转化仍待完成管线规模未知
已披露直接试点客户1(Nevada Gold Mines)2024-12 起公司材料 + 独立报道确有工业交易对手试点到规模化转化未知
商业承购状态公司称正落实协议2026公司官方材料首座电站前,管线可能已在形成未披露名称或已签条款
确认井进展进行中2026公司材料地下风险消减继续推进不等于客户成交
商业流量测试计划 / 提及为 2026 年2025-2026公司与媒体客户转化前的重要里程碑尚未公开披露结果

该表把已经点名、计数的内容,与仍停留在管线表述的内容区分开。

[CU001, CU002, CU005, CU014, CU022, CU027]
已披露客户证明表
客户细分市场部署 / 用例投产 / 试点结果局限
Nevada Gold Mines采矿 / 工业为 TS Power Plant 接入深层地热热能试点已点名工业运营商愿意在关键任务资产上评估 Quaise未披露收入、建设决策或已交付能源
未披露的 Project Obsidian 承购方公用事业 / 电力买家Oregon 项目未来购电管线 / 未披露公司称正在落实商业承购协议无名称、无条款,也看不到已签订单簿
JERA战略能源公司 / 渠道商业化与潜在日本部署战略关系验证全球大型电力公司的兴趣是投资方渠道证明,不是当前付费客户证明
Idemitsu战略能源公司 / 渠道未来地热项目的潜在参与战略关系验证资深地热运营商的兴趣是投资方渠道证明,不是当前付费客户证明
品类代理:Google/Fervo、Chubu/Eavor企业 / 公用事业代理买家下一代地热承购与公用事业参与代理交易已投产显示项目投运后,买家会为下一代地热签约不是 Quaise 关系

该表有意混合直接、战略和代理证明,因为直接点名客户证据仍有限。局限才是重点。

[CU001, CU004, CU006, CU008, CU011, CU012]
FU002: 采用 / 部署漏斗

最大流失风险出现在可见兴趣与具名、已签约验证之间。

只有最后两个阶段是字面公开计数。较早阶段是示意性相对指数,来自广泛品类兴趣与极少数具名直接验证之间的落差。

[CU001, CU002, CU027, CU029]
FU003: 客户验证矩阵

直接验证、战略验证和品类代理验证不能互换。

[CU001, CU008, CU011, CU012, CU031]

6.3 耐久性、扩张与集中度:理论粘性高,当前集中度也高

如果 Quaise 进入运营,客户耐久性可能很好。公用事业级电站、工业改造和长期能源合同都是高粘性资产,建成后切换困难。但公开证据还不足以声称真实留存。没有披露续约率、满意度指标、扩张率,甚至没有已签约客户数量。可见的反而是集中度。公开客户故事依赖一个旗舰电力项目、一个具名采矿试点,以及少数可能也可能不会转化为部署的战略能源公司关系。这种集中度在当前阶段并不致命,但会显著放大最初几个胜利的重要性。Japan 看起来是最清晰的未来扩张地理;更多存量资产和工业场站,则似乎是最可能的美国国内扩张路径。[CU018, CU019, CU020, CU021, CU026, CU031]

留存 / 重复使用 / 满意度表
指标值 / null细分市场置信度尽调索取项
净收入留存null全部首批项目签约后,索取队列或合同扩张数据
总留存 / 续约率null全部索取首批合同的已签期限与续约机制
客户满意度 / NPSnull试点交易对手索取试点反馈、董事会更新和里程碑评审
合同期限null公用事业 / 工业索取条款清单或模型化 PPA / 热力合同期限
从试点到铺开的扩张率null工业 / 棕地索取 Nevada 或后续试点的明确扩张计划和成功标准

公开资料未披露任何类似留存的指标。这里的 null 值是实质性尽调发现,不是作业缺漏。

[CU018, CU019, CU031, CU035]
扩张与集中度风险表
扩张驱动因素集中度风险影响尽调路径
Project Obsidian 成功早期商业证明压在一个旗舰电力项目上一旦延误或落空,后续客户对话都会放慢索取完整项目里程碑计划和备选场地策略
Nevada 式工业试点当前只有一个已点名工业试点买方证明分散度弱索取类似工业场地管线和转化标准
日本战略渠道未来扩张取决于合作伙伴能否把兴趣变成项目国际可选性可能永远无法变现索取与 JERA 和 Idemitsu 的联合开发路线图
棕地电站再供能叙事尚未披露电站业主客户组合再供能切入口可能比叙事暗示的更窄索取已点名目标场地和接触状态
品类代理需求代理买家未必对应 Quaise 具体合同投资人可能把品类需求过度解读为公司牵引力将已点名 Quaise 承购方与行业 PPA 分开跟踪

扩张和集中度相互绑定,因为每一次早期成败都会不成比例地影响下一批客户。

[CU020, CU021, CU023, CU026, CU036]
FU004: 客户集中度 KPI

眼下客户质量更多由集中度和验证缺口定义,而不是规模。

[CU018, CU020, CU027, CU031, CU033]

6.4 代理需求足够强,但仍只是代理需求

尽管直接证明偏弱,Quaise 的客户故事仍有可投性,一个原因是更广义地热类别已经明显赢得交易对手。Google 与 Fervo 的关系、Chubu 与 Eavor 的合作,以及 NREL 对下一代 PPA 的总结,都说明当项目真实存在时,公用事业、企业和能源巨头愿意购买地热成果。这很重要,因为如果 Quaise 的技术和首批项目跑通,公司最终转化的概率会提高。但这些仍是代理信号。它们更能说明市场开放度,而不是 Quaise 自己的合同账簿。眼下,客户牵引力应评为弱到中等:足以支持继续尽调,但不足以宣布商业验证。下一项决定性证据会是具名 Obsidian 购电方、试点阶段之后的已签工业合同,或与付费交易对手绑定的已交付电力。在那之前,买方更适合被看作有兴趣但尚未完全转化。公开层面,这一点很关键。[CU011, CU012, CU023, CU029, CU030, CU033]

6.5 展示项

Chapter 07

07风险

7.1 监管与法律链条:主要问题不是敌意,而是路径依赖尚未跑完

最重要的非技术风险,在于 Quaise 的旗舰商业化路径看起来仍处在多步公共许可流程之中,而不是已经走完流程。Project Obsidian 确实有可见进展;公开证据显示,它已出现在 BLM 的 National Environmental Policy Act 登记中,同时公司又把 Oregon 场址描述为进展顺利、但仍与第一口确认井绑定。这一组合很关键:项目不再停留在概念层面,但公开记录还没有显示许可堆栈已经完全放行、环境审查已经完成,或开发路径已经充分去风险。联邦层面对地热的支持能抬升品类势能,却不会缩短土地使用、环境审查、钻井许可和后续电站开发这些场址级步骤。法律态势类似:目前没有保留下来的公开证据显示 Quaise 面临活跃诉讼或执法,但也没有依据断言其法律敞口很轻。公司核心价值押在自研钻井专有技术、基础设施合作和位于联邦土地的首个商业项目上;在任何诉讼浮出水面之前,法律、许可和合同敏感性就已经存在。[CR001, CR002, CR003, CR004, CR005, CR006]

监管 / 法律风险登记表
规则 / 许可 / 案件司法辖区状态可能性严重性缓释措施剩余敞口尽调路径
Project Obsidian 的 NEPA / BLM 路径美国联邦 / Oregon项目公开可见,但未见许可完成证据按顺序推进确认井和环境工作批准文件可见前为高索取完整许可矩阵、里程碑和机构往来函件
联邦土地钻井和地表扰动批准BLM / 地方 / 州接口公开资料不清楚采用分阶段现场工作和有经验的许可法律顾问中-高索取已签发许可、待批许可和批准条件
毫米波钻井集成的 IP 可防御性美国 / 国际核心战略问题,但公开细节有限中-高申请并维护专利,保留 know-how,审慎设计合作伙伴合同索取专利清单、许可立场和员工发明转让文件
棕地再供能的商业合同与并网复杂度视项目而定未来风险,公开资料尚未显示解决从旗舰场地起步,尽可能复用现有基础设施索取并网计划、电站所有权模型和承购结构
可见诉讼 / 执法Unknown未找到可采信的公开案件低-中维持合规、文档和安全控制Unknown尽调中直接检索法院、留置权和执法记录

各行按对当前投资逻辑的可能严重性排序,而不是按正式法律类别排序。

[CR001, CR002, CR003, CR004, CR006, CR007]
FR001: 风险热力图

当前最高风险是同时冲击进度、资本和商业化验证的那些风险。

[CR011, CR012, CR023, CR028, CR036, CR042]

7.2 技术与运营风险:已有现场验证,但全系统验证尚未出现

Quaise 已经明显走出纯实验室科学阶段,这确实降低了一部分风险。公司展示了现场钻井、混合钻机架构,以及从常规钻井切换到毫米波破岩的一套具体流程。但运营风险的核心问题,远不止能否在采石场把岩石汽化。公开资料仍指向若干未解的系统级问题:井筒耐久性、流体行为、结垢和堵塞、电子设备、热循环,以及如何把一次钻井里程碑变成可复制的地热发电资产。Quaise 资助的 Oregon State 研究恰好强调了这一点:研究聚焦于超热条件下设计耐久井和储层所需的岩石-流体与材料行为。外部专家同样把超热地热描述为前景可观但数据不足。因此,运营风险不只是技术新颖性,而是成功的子系统演示与一座能按期、安全、以可接受成本稳定供电或供热的集成电站之间的距离。[CR013, CR014, CR015, CR016, CR017, CR018]

运营 / 质量 / 安全风险登记表
失效模式可能性严重性缓释成熟度剩余敞口未解决缺口
无法从 100 m 现场钻井推进到 km 级深度早期需要 2026-2027 年深度推进数据和钻速证据
波导 / 束流传输或井下工艺不稳定早期需要正常运行时间、维护和热损失数据
超热热循环下的井眼耐久性问题早期-中期需要衬管、套管和长周期材料证据
结垢或堵塞导致储层 / 流体流动退化早期需要 OSU 式贯流数据和监测方案
全系统安全 / 质量控制披露不足中-高可见度低中-高需要 QA/QC 体系、事故和认证细节

这里的安全指现场控制和资产完整性风险;未保留网络安全事件历史,但过程控制和安全仍是核心。

[CR013, CR014, CR015, CR016, CR017, CR018]
FR002: 风险传导图

最危险的失败模式不是某个孤立问题,而是技术或许可延误一路传导到融资和客户信心。

[CR018, CR024, CR027, CR029, CR037, CR038]

7.3 合作伙伴、融资与团队风险:依赖既是特点,也是软肋

Quaise 的商业化模型由广泛产业联盟支撑;联盟既是优势之一,也是最清晰的脆弱点之一。Nabors 降低钻机集成风险,JERA 和 Idemitsu 增加战略可信度,近期招聘显示公司正试图在首次商业交付前补上项目和运营深度。但依赖风险仍高,因为每一段关系都在关键路径上。若 Nabors 执行滑坡、战略投资者不再支持后续资本形成,或专业工程人才在错误时点流失,影响不会被关在单一职能里,而会直接传导到进度、融资和客户信心。财务风险又放大这种依赖。公开资料支持公司迄今融资 $230 million,但公开报道也称,Obsidian 首期 50 MW 仍需要另外 $100 million 融资,以及 $100 million 赠款或债务。这足以证明可信度,却不足以说明资本结构已经拼好。早期客户可见度也很集中,Nevada Gold Mines 仍是最清晰的具名部署证据。[CR025, CR026, CR027, CR028, CR029, CR030]

合作伙伴 / 依赖风险登记表
依赖项交易对手角色集中度失败情景严重性缓释措施剩余敞口
钻机集成Nabors混合钻井执行集成或现场进度滑坡会拖慢核心里程碑维持联合开发节奏和备选计划
战略资本与渠道支持JERA投资方 / 未来市场伙伴支持停留在象征层面,未转化为项目融资或渠道进入中-高将战略资本转化为具体部署或融资路径
战略资本与日本可选性Idemitsu投资方 / 未来市场伙伴商业合作未落地将投资与基于里程碑的商业工作流绑定
旗舰项目路径Project Obsidian 利益相关方土地、许可、承购、融资极高任何延误都会影响几乎所有可见商业证明尽可能建立并行证明点
已点名直接客户证明Nevada Gold Mines试点部署可信度试点停滞或仍无法转化中-高展示结果数据和扩张路径中-高

Quaise 尚未分散到多个公开可见的运营项目,依赖风险因此较高。

[CR025, CR026, CR027, CR029, CR030, CR041]
人员 / 执行风险登记表
角色 / 职能依赖或缺口可能性严重性缓释措施尽调路径
项目领导商业化取决于能否把技术里程碑转成现场执行增补有经验的项目经理和里程碑治理索取 Obsidian 和 Nevada 试点的组织架构图与决策权
专项工程人才波导、钻井和高温系统依赖稀缺专业能力扩充人才梯队并沉淀流程文档索取关键人员集中度图和留任计划
地热资源开发储层与确认井经验积累仍关乎公司成败持续引入地热资深人才和外部顾问要求提供钻井规划流程和外部评审机制
跨职能执行许可、钻井、电站设计、融资和客户工作流必须同步推进采用分阶段关口评审和项目群控制要求提供标明关键路径负责人的一体化项目计划

表格强调执行依赖,而不只是履历质量。

[CR031, CR032, CR033, CR034, CR035, CR036]
FR003: 依赖图

Quaise 的执行栈依赖少数外部合作伙伴和内部专才。

[CR025, CR026, CR031, CR032, CR033, CR034]

7.4 监控与终止标准:只有里程碑迅速变成证据,风险才可控

当前风险图景中积极的一面是,几个最大的未知数都能在未来一到两年内跟踪。投资者不必等十年才知道部分投资逻辑是否跑通。确认井计划、承诺的商业流量测试推进、钻井深度能否大幅超过当前现场里程碑、Obsidian 公开许可路径的状态,以及公司能否补齐首个项目剩余资本结构,都是可观察检查点。若这些指标按正确顺序推进,Quaise 的风险画像会迅速改善,因为同一组里程碑会同时压低技术、融资、客户和估值不确定性。若它们停滞,情况相反:每个未解依赖都会开始放大其他依赖。因此,正确的尽调姿态不是要求零风险——那会误解前沿地热的性质——而是坚持明确的终止标准。Quaise 的投资案中,进度滑坡、资本缺口或许可摩擦都会直接打进投资逻辑,而不是停留在普通运营波动。[CR037, CR038, CR039, CR040, CR041, CR042]

缓释措施和终止标准表
风险可监控触发项阈值 / 事件行动指向
许可拖累Project Obsidian 公开许可状态当前路径没有可见进展,或监管机构作出不利行动升级尽调;将进度和融资假设视为受损
技术放大失败在当前现场里程碑之外继续加深在受控作业下,无法从 ~100 m 向 1 km 显著推进下调对商业化时间表和资本效率的信心
资本缺口首个项目融资结构剩余融资 / 债务 / 补助组合无法以可行条款完成交割假设会出现稀释、延期或项目重设
试点转客户失败Nevada 或 Obsidian 商业后续推进具名试点仍未扩展,也没有具名承购方出现下调客户验证和收入时点判断
合作伙伴滑坡Nabors / 战略合作伙伴执行现场或商业化支持明显减弱假设执行负担更重,里程碑节奏更慢

这些标准刻意选择可观察项;目标是把前沿技术风险转成投资流程检查点。

[CR037, CR038, CR039, CR040, CR041, CR042]

7.5 证据展品

Chapter 08

08估值

8.1 建议框架:公开证据能证明公司认真推进,不能证明价格确定

Quaise 的估值起点不应是用户提供的“可能已经是独角兽”的标题,而应是现有公开证据。证据确认其融资能力强、有战略投资者、品类势能真实,但没有披露当前估值、已定价老股交易、公开股权结构表,甚至也没有收入、电价、利润率结构或现金跑道这类最基本的承销输入。换句话说,Quaise 足够有价值,能吸引大额轮次;但透明度不足,无法用后期投资的信心定价。因此,正确建议不是泛泛说公司令人兴奋,而是给出有估值纪律的条件性立场:在公司披露一个能容纳执行风险的价格,或交出足以支撑溢价的里程碑包之前,继续观察或深入研究。最重要原则是,不能把品类稀缺性和技术野心误当成已验证的估值标记。[CV001, CV002, CV003, CV004, CV005, CV006]

建议摘要表
维度评估依据置信度决策含义
建议继续研究 / 观察市场和技术叙事强,但没有披露估值标记或商业收入基础不要只凭公开证据支撑溢价私募估值
置信度融资和同业市场数据真实存在;价格和股权结构表数据缺失一旦里程碑和定价证据出现,建议可迅速上调
风险评级验证、融资、许可和客户可见度之间存在多重联动风险需要按里程碑设置尽调关口
估值立场价格敏感;公开证据支持克制,而不是激进出价没有公开估值锚点、没有电价,也没有运营资产验证优先折价进入,或等验证后进入
最有价值的下一步验证商业流量测试 + 融资交割 + 具名交易对手三者同时到位,会同步压缩最大的估值缺口若交付,立即重评

这张表刻意先给建议、再给数字,因为公开定价输入仍然稀薄。

[CV003, CV004, CV007, CV008, CV009, CV010]
投资逻辑 / 反向逻辑表
论点什么会改变判断
稳定清洁电力稀缺;如果技术跑通,超热地热有很大战略上行空间具名客户合同和电价可见度会显著强化这一判断
战略投资者和多轮融资验证了公司质量和执行意愿披露估值或老股交易标记,有助于把质量判断转成价格纪律
公开证据仍缺估值、股权结构表、收入和电价可见度完整数据室或监管文件级披露会大幅收窄不确定性
Fervo、Eavor 等同业今天拥有更强的可见运营验证Quaise 可用流量测试、许可和融资里程碑补上部分差距
没有这些里程碑,就很难证明溢价私募标记合理如果进入价格显著更低,风险回报仍可能有吸引力

投资逻辑看战略市场潜力;反向逻辑看今天缺少可定价证据。

[CV011, CV017, CV024, CV025, CV034, CV038]
FV001: 推荐逻辑

推荐结论来自真实市场上行空间与缺失的价格、验证输入之间的碰撞。

[CV004, CV006, CV007, CV010, CV011, CV015]

8.2 市场与可比公司背景:品类顺风真实存在,但同行证据在别处更强

Quaise 最强的正向案例来自目标市场,而不是已经验证的财务画像。DOE 2025 市场报告显示,地热 PPA 在加速,2021 年以来下一代地热吸引了 $1.5 billion 以上私人资本,企业对稳定清洁电力的需求也在增长。背景解释了为什么严肃投资者持续给地热开发商出资。但同行比较也说明 Quaise 为什么还不能按领导者定价。Ormat 是成熟上市运营商,拥有多元化地热和储能组合,市值达数十亿美元。Fervo 已完成更大规模后期轮次,并且在 Cape Station 更接近商业交付。Eavor 和 Chubu 能指向 Geretsried 的部分商业运营和首次上网电,SLB 案例研究则记录了多公里深度的执行。若超热钻井按预期跑通,Quaise 的上行可能更大;但它的证据堆栈仍比这些同行更薄。可比公司的结论很清楚:上行真实存在,但证据缺口带来的折价也应真实存在。[CV011, CV012, CV013, CV014, CV015, CV016]

可比估值表
可比对象指标倍数 / 估值 / 状态参考价值局限
Ormat Technologies有投资者级披露的上市地热运营商GSR 报告市值 $7.1B;IR 网站显示 1.8 GW 组合规模和披露层面的最佳上市地热基准比 Quaise 多元化得多,也更偏运营
Fervo Energy后期下一代地热开发商$462M Series E;官方公告称 Cape Station 规划 500 MW显示私募资本愿意支持验证程度更高的地热开发商仍是私营公司,技术路径也不能直接对比
Eavor / Geretsried已有商业进展的先进地热同业公开来源显示首次并网发电和部分商业运营可作为先进地热执行的验证基准闭环架构不同,地理位置也不同
Calpine / Constellation 交易大型基荷平台 M&A 可比交易$26.6B 净购买价;2026 年 EV/EBITDA 为 7.9x说明多元化可靠电力资产组合可变得多有价值不是创业公司或前沿技术定价可比对象
Quaise Energy前沿超热地热开发商本次保留的公开证据没有披露当前估值说明里程碑估值是唯一诚实的公开方法没有公开价格锚点或监管文件级披露

这张表用于方向性校准,不要制造虚假的精确感。

[CV019, CV020, CV021, CV022, CV023, CV024]
FV002: 估值敏感性

只有里程碑证据包一层层补齐,估值逻辑才会改善;单靠市场叙事不够。

这些数值是示意性的证据加权中点,不是交易估值标记。它们说明新增证据可能怎样改变投资判断的把握。

[CV032, CV033, CV035, CV036, CV037]

8.3 情景与入场纪律:承销里程碑,不承销神话

Quaise 的纪律性情景框架应围绕里程碑,而不是假装存在的收入倍数。悲观情景假设许可或融资摩擦持续、流量测试和延深证据继续推迟,且同行商业化速度仍更快。在这种情况下,Quaise 仍有技术期权价值和高质量投资者背书,但估值区间会压缩到高数亿美元。基准情景假设 Obsidian 和配套现场里程碑继续推进,首个项目资本结构更可信,并且至少出现一个具名交易对手或承购结构;可支撑低个位数十亿美元的估值区间。乐观情景需要更具体的一揽子证据:可见的流量测试成功、更清晰的许可、融资闭合,以及能让首座商业电站看起来可融资而非只是愿景的客户或电价证据。即便如此,上行情景也不是无限的。公开证据仍支持分阶段重估,而不是立刻接受缺乏支撑的标题估值。[CV031, CV032, CV033, CV034, CV035, CV036]

乐观 / 基准 / 悲观情景表
情景关键假设隐含估值区间概率信号主要风险
乐观流量测试成功,许可清晰度提高,50 MW 融资完成交割,且至少一个具名交易对手浮出水面$1.6B-$2.4B25% —— 需要多个里程碑连续落地相较成熟上市可比公司,商业验证仍有限
基准里程碑继续推进,资本支持仍然可信,但商业运营仍未可见$0.9B-$1.4B50% —— 最符合当前公开证据没有电价披露,也没有带价格的估值锚点
悲观许可或融资滑坡,同业验证差距拉大,客户可见度仍薄弱$0.4B-$0.8B25% —— 如果时间表右移,则该情景合理资本稀释和商业化放慢
解读区间很宽,因为价格支撑更多取决于未来验证包,而不是当前财务报表按当前证据加权,中点大约落在低个位数十亿美元,而不是高确定性的溢价标记跟踪流量测试、融资和具名交易对手证据单薄时,缺少支撑的名义估值会迅速压缩

区间是按证据加权的判断带,不是精确公允价值。

[CV031, CV032, CV033, CV034, CV035, CV036]
FV003: 估值 / 回报区间

目前公开信息能支撑的估值区间很宽,因为验证证据包仍不完整。

区间单位是十亿美元。最后一行不是估值,而是已披露融资额这个锚点,用来显示公开叙事里还有多少要靠未来兑现。

[CV001, CV031, CV032, CV033, CV034]
FV004: 投资 KPI

投委会式评分更看重战略兴趣,而不是当下定价信心。

[CV007, CV008, CV011, CV021, CV042]

8.4 最终尽调与终止触发条件

因此,估值工作应以尽调闸门收尾,而不是一个亮眼的单一数字。严肃投资者应索取股权结构瀑布表、最近一次已定价估值标记、任何清算或优先权结构、首期 50 MW 项目层面的资金来源与用途、当前融资谈判、具名购电方或条款清单、预期电价区间,以及把钻井进展与商业产出连接起来的工程数据。这些请求不是可选项,而是决定 Quaise 究竟只是前沿科学故事,还是可定价基础设施开发商的缺失证据。主要投资逻辑破裂触发条件也同样具体:流量测试或确认井进展严重滑坡、无法补齐剩余资本结构、可见许可拖累,或相对于 Fervo、Eavor 等资本更充足同行出现更大的证据缺口。在上述问题清除前,最适合公开发表的判断,是把 Quaise 留在主动观察名单上,并拒绝仅凭公开证据承销溢价估值。[CV039, CV040, CV041, CV042]

投资逻辑破裂和终止触发项表
触发项阈值对投资逻辑的传导行动指向
流量测试 / 确认井进度滑坡出现重大可见延误,或无法转化为与商业化相关的数据拉长验证缺口,削弱任何溢价论据观望,或退出溢价定价
资本结构搭建失败剩余 50 MW 融资无法以可行条款完成交割抬高稀释和项目延期风险重评至悲观情景
许可拖累可见的 BLM / 州级路径明显放慢或恶化把首笔收入时点向后推将估值视为期权价值,而不是开发商价值
同业跑赢Fervo / Eavor 拉大商业化差距,而 Quaise 仍处于验证前压缩战略溢价和稀缺性叙事要求更大折价,或推迟
客户不透明持续没有具名承购方或电价证据出现阻断收入测算信心建议维持继续研究 / 观察

这些终止触发项被选中,是因为它们可通过公开证据或标准尽调询问从外部监控。

[CV034, CV035, CV036, CV037, CV038, CV040]
最终尽调要求表
主题缺失证据重要性负责人 / 尽调路径
估值标记最新定价轮估值、老股参考和任何内部标记没有估值标记,价格纪律只能靠猜直接询问管理层或领投方
股权结构表 / 优先权清算堆叠、按比例跟投权和优先权结构即便名义估值看似公平,这些条款也决定真实进入经济性要求提供股权结构瀑布表和条款清单
项目融资50 MW 阶段的资金来源与用途、债务 / 补助状态、契约敏感性这是从科学故事走向可融资资产的桥要求提供项目融资模型和贷款方状态
客户 / 电价验证具名承购方、条款清单或预期电价区间这把需求叙事转成收入可信度要求提供客户管线摘要和合同状态
技术验证包流量测试、深度推进和可靠性数据这是收窄情景区间最快的方法要求提供工程里程碑包和独立评审

这些要求是最低材料包,用来把公开观察名单决策推进到真正的投资承销决策。

[CV039, CV040, CV041]

8.5 证据展品

免责声明

本尽调报告由 AI 研究智能体于 2026-08-16 基于公开信息生成,不构成投资建议。Quaise 仍是非上市公司,财务披露有限,因此估值分析应视为情景化判断,而不是监管文件级别的公允价值意见。

证据索引

结论
编号陈述可信度来源
CO001 Quaise Energy spun out of MIT Plasma Science and Fusion Center research in 2018 to commercialize Paul Woskov’s gyrotron-based drilling concept. SO002, SO015, SO025
CO002 Carlos Araque and Matt Houde co-founded Quaise after Araque encountered Woskov’s work while at MIT’s The Engine. SO002, SO015
CO003 Quaise’s public mission is to unlock deep geothermal energy as a reliable, geography-flexible source of baseload heat and power. SO001, SO003
CO004 By 2026 company press materials describe Quaise as both a technology innovator and a project developer/operator rather than just a drilling-tool supplier. SO001, SO003, SO004
CO005 Quaise’s 2024 and 2026 press releases identify the company as Houston-based, while its MIT-origin materials preserve a strong Cambridge/MIT identity. SO003, SO007, SO015
CO006 Carlos Araque previously worked at Schlumberger and later served as technical director for MIT’s The Engine before founding Quaise. SO002
CO007 Matt Houde is Quaise’s co-founder and chief of staff and previously managed a $5 million ARPA-E grant tied to millimeter-wave drilling development. SO002
CO008 Kevin Bonebrake, CFO, brings energy-sector financing experience from Morgan Stanley and Lazard. SO002
CO009 Quaise’s public leadership bench also includes Franck Monmont (R&D), Henry Phan (engineering), Trenton Cladouhos (geothermal resource development), Geoffrey Garrison (operations), and Diane Hughes (marketing and communications). SO002, SO013
CO010 Ali Azad joined Quaise as an independent board director in 2024 to add first-of-a-kind power project and governance experience. SO012
CO011 Quaise’s company page publicly lists a sizable multidisciplinary team but does not disclose a total employee count. SO002
CO012 The expanded 2022 Series A totaled $52 million after an additional $12 million led by TechEnergy Ventures. SO019, SO016, SO025
CO013 HostPlus, Prelude Ventures, Safar Partners, and Xplorer Capital participated in the 2022 Series A expansion. SO019, SO025
CO014 Mintz’s September 2022 client profile stated Quaise had raised $75 million to date at that time. SO025
CO015 Quaise closed a $21 million Series A1 round in April 2024 led by Prelude Ventures and Safar Partners, with Mitsubishi Corporation and Standard Investments among new investors. SO011, SO012
CO016 Quaise said after the 2024 Series A1 that it had raised over $95 million to date. SO011, SO012, SO007
CO017 On 7 July 2026 Quaise announced a $134 million initial close of its Series B financing. SO003, SO017
CO018 Quaise said the July 2026 Series B brought total funding raised to date to $230 million. SO003, SO017
CO019 Prelude Ventures led the 2026 Series B, with strategic participation from JERA and Idemitsu and continued support from Safar Partners. SO003, SO022, SO023, SO024
CO020 The July 2026 Series B was only the initial equity component of a broader capital program that also sought project-level equity and debt. SO003
CO021 No retained high-quality public source discloses a precise 2026 post-money valuation for Quaise’s Series B round. SO003, SO017, SO023, SO024
CO022 Project Obsidian is Quaise’s first commercial superhot geothermal power plant project in Central Oregon near the Newberry volcanic system. SO003, SO005, SO006, SO021
CO023 Project Obsidian Phase I targets 50 MW, Phase II targets 250 MW, and the longer-term buildout targets more than 1 GW. SO005, SO004, SO017
CO024 Quaise says Project Obsidian’s first electrons are targeted for 2030 rather than the 2026 pilot-well energy timeline discussed in older MIT coverage. SO004, SO015
CO025 The first two Project Obsidian well systems target average resource temperatures of about 315°C and 365°C, with hotter wells intentionally sequenced after lower-risk ones. SO004
CO026 Quaise selected the Newberry area because its high thermal gradient allows access to superhot temperatures at roughly five kilometers or about three miles of depth. SO004, SO006
CO027 The BLM says Project Obsidian’s current plan includes one confirmation well, one well pad, access-road work, storage areas, and two freshwater wells on federal geothermal leases in Deschutes County. SO021
CO028 BLM issued the final categorical exclusion and decision record for Project Obsidian in September 2025, but subsequent sundry notices and geothermal drilling permits still remain to be issued. SO021
CO029 Quaise says first revenues are expected to be secured by currently undisclosed commercial off-take partners linked to Project Obsidian. SO003
CO030 Because those offtake partners are undisclosed, public customer proof for Project Obsidian is still incomplete. SO003, SO004
CO031 Quaise’s current named commercial counterparties include Nevada Gold Mines for a mining-power pilot, Nabors for rig integration, Oregon State University for superhot-rock research, and Japanese strategics JERA and Idemitsu for commercialization support. SO007, SO008, SO010, SO023, SO024
CO032 The Nevada Gold Mines partnership is framed as the first commercial pilot for retrofitting a fossil-fuel power plant to use geothermal heat. SO007
CO033 Quaise gave Oregon State University $750,000 in 2026 to study superhot-rock conditions and reduce technical and financial risk around reservoir behavior. SO008
CO034 MIT’s October 2025 coverage said Quaise had drilled a 118-meter field hole and demonstrated up to five meters per hour through granite, versus roughly a tenth of a meter per hour for conventional granite drilling cited by Quaise engineering leadership. SO014
CO035 Quaise’s July 2026 Series B release said the company drilled more than 100 meters through granite in 2025 and was approaching one kilometer of depth at its Central Texas field site. SO003
CO036 The 2025 Nabors demonstration created what Quaise called the world’s first hybrid drilling rig combining conventional and millimeter-wave drilling capabilities. SO010
CO037 Quaise’s technology is designed to use conventional drilling in shallower sections and switch to millimeter waves in hotter basement rock where mechanical systems struggle. SO001, SO004, SO005
CO038 Public company materials still emphasize repowering existing fossil-fired plants and industrial sites with geothermal steam as a core commercialization wedge. SO011, SO015
CO039 JERA’s investment rationale includes future commercialization opportunities in Japan, where the company produces roughly one-third of Japan’s electricity and can provide market access as well as capital. SO023, SO003
CO040 Idemitsu’s investment rationale includes applying its geothermal resource-development know-how and exploring future participation in next-generation geothermal projects. SO024, SO003
CM001 Quaise’s most defensible market is not all energy or all geothermal; it is the narrower wedge of superhot geothermal power, process heat, and fossil-asset repowering that requires high energy density and firm output. SM001, SM002, SM003, SM025
CM002 This market definition should exclude residential heat pumps, shallow geoexchange retrofits, and generic renewable procurement that is not explicitly buying geothermal heat or firm-power attributes. SM002, SM016
CM003 The 2025 U.S. Geothermal Market Report says U.S. geothermal power installed nameplate capacity was 3.969 GWe across 99 plants as of 2024. SM017
CM004 That same report says California and Nevada still dominate the installed U.S. geothermal market, underscoring how geographically concentrated the current hydrothermal base remains. SM017
CM005 The 2025 U.S. Geothermal Market Report estimates the global geothermal market at roughly 15 GWe of electricity, 38 GWth of direct-use heat, and more than 78 GWth of geothermal heat-pump capacity. SM017
CM006 EIA says today’s geothermal power plants depend on hydrothermal resources with very hot water or steam, typically 300–700°F, and some wells only reach about two miles deep. SM016
CM007 DOE’s Office of Geothermal states that geothermal plants typically operate with about 90% capacity factor, which is central to the firm-power buyer case. SM015
CM008 DOE’s Enhanced Geothermal Shot aims to reduce EGS costs by 90% to $45/MWh by 2035, giving the category a visible public-policy cost target. SM013, SM014
CM009 DOE says the U.S. has enough geothermal heat resource to power tens of millions of homes if only a small fraction is commercialized, showing why next-generation geothermal is treated as strategic rather than niche. SM013, SM014
CM010 Quaise frames superhot geothermal at roughly 300–500°C as the temperature band where geothermal gains a large step-up in power density and economics. SM002, SM003, SM006
CM011 Quaise and MIT-linked sources say supercritical or superhot wells can carry roughly five to ten times as much energy as conventional geothermal wells, with Quaise sometimes presenting the practical commercial uplift as about 10x per well. SM003, SM006, SM012
CM012 Industrial heat is a major adjacent market because Quaise says heat uses about half of all global energy and industry uses half of all heat. SM002
CM013 Quaise’s industrial-heat article says about 70% of industrial heat demand exceeds 100°C and almost 50% sits above 400°C. SM002
CM014 Quaise argues that traditional and enhanced geothermal systems often reach around 200°C, which is not enough for much of the higher-temperature industrial-heat market. SM002
CM015 Quaise’s tier framework defines Tier I markets as high-gradient locations above roughly 60°C/km, Tier II around 40°C/km and nearly 40% of the world, and Tier III around 20°C/km with eventual reach to more than 90% of humanity. SM005
CM016 Project Obsidian is positioned as a Tier I site where superhot temperatures are reachable at roughly three miles or five kilometers, making it the earliest commercial wedge rather than the final form of the market. SM005, SM011
CM017 Quaise’s initial buyer set spans utilities and grid-facing offtakers for firm power, industrial operators for process heat, and fossil-site owners seeking repowering rather than greenfield-only generation. SM001, SM002, SM025
CM018 Nevada Gold Mines is the clearest named industrial buyer proof in the current public record because the partnership explicitly tests onsite power-generation decarbonization in mining. SM025
CM019 Google’s geothermal partnership with Fervo and NREL’s summary of next-generation PPAs show that hyperscalers and utilities already constitute an emerging buyer class for clean firm geothermal power. SM017, SM019
CM020 The 2025 U.S. Geothermal Market Report says at least 1.642 GWe of new geothermal capacity commitments were in development and at least 984 MWe of next-generation geothermal PPAs had been signed across 11 agreements by June 2025. SM017
CM021 Competitor positioning from Fervo, Eavor, and Sage shows a real market category forming around dispatchable geothermal, even though each company pursues a different technical path. SM018, SM020, SM022, SM023
CM022 The adoption workflow for Quaise-like projects is infrastructure-led: resource screening, confirmation well, permitting, offtake, project finance, drilling, and then surface-plant construction. SM005, SM011, SM013, SM025
CM023 Quaise’s market thesis depends heavily on oil-and-gas workforce, rig, and supply-chain reuse rather than building an entirely new deployment ecosystem from scratch. SM001, SM009, SM010
CM024 That reuse logic is also a key adoption driver because geothermal already shares drilling, completions, subsurface, and project-management workflows with the oil and gas sector. SM006, SM009, SM010
CM025 Quaise’s market case also depends on firm-power demand growth from grid reliability concerns and large new loads that cannot be served by intermittent renewables alone. SM004, SM015, SM019
CM026 Canary reports that Quaise still seeks another $100 million of financing and $100 million of grants and debt for its 50 MW Oregon project, indicating that project capital remains a live go-to-market bottleneck. SM011
CM027 Latitude frames the central commercial question not as whether geothermal heat exists but whether deep superhot wells can be drilled, activated, and operated cheaply enough to matter at scale. SM012
CM028 In the Latitude interview, Araque says the economic proposition depends on much higher output per well, with drilling becoming roughly 20–30% of LCOE if the superhot performance thesis holds. SM012
CM029 Latitude also captures the long-run plan to move from shallower Tier I wells toward progressively deeper systems, meaning the earliest commercial deployments do not solve the entire global market on day one. SM012, SM005
CM030 Quaise’s own 2023 cost-competitiveness article claims millimeter-wave drilling could make drilling cost scale more linearly with depth and support sub-$40/MWh LCOE in conservative deep cases, but those numbers remain pre-commercial assertions rather than field-validated costs. SM006
CM031 NREL says EGS LCOE is declining and projected to reach 2024 flash-hydrothermal LCOE levels within the next decade, while conventional flash plants have been around $63–74/MWh and binary plants around $90–110/MWh in 2022 dollars. SM017
CM032 The strongest market drivers visible in the public record are policy support, a firm-power premium, industrial-heat decarbonization need, and the desire to reuse existing fossil and oilfield infrastructure. SM002, SM008, SM013, SM015
CM033 The strongest market constraints are drilling cost, high-temperature materials and electronics, missing subsurface data, project finance dependence, and long permitting/deployment cycles. SM012, SM013, SM017
CM034 Quaise’s public materials do not support a rigorous company-level TAM, SAM, or SOM because they do not disclose power pricing, process-heat tariffs, or conversion rates from geologic potential to signed revenue. SM001, SM011, SM012
CM035 As a result, the most defensible way to size Quaise’s market is through multiple lenses: today’s installed geothermal base, next-generation capital and PPA commitments, industrial-heat demand bands, and Quaise’s tiered geography model. SM005, SM013, SM017
CM036 Because Quaise can be sited near existing industrial or fossil assets if the drilling thesis works, its addressable market is better thought of as a location-flexible energy-infrastructure market than a conventional geothermal exploration market. SM001, SM005, SM025
CM037 Clean firm power, industrial heat, and mining-site decarbonization look more immediately evidence-backed than residential or retail customer markets. SM002, SM019, SM025
CP001 The relevant competitive set is broader than other superhot-geothermal startups; it includes next-generation geothermal developers, hydrothermal incumbents, oilfield-enabled entrants, and non-geothermal firm-power substitutes. SP001, SP004, SP009, SP014, SP017, SP019
CP002 Quaise’s most direct next-generation geothermal peers in the retained set are Fervo, Eavor, and Sage, each of which targets dispatchable clean energy but uses a different technical pathway. SP004, SP009, SP014
CP003 Fervo’s positioning is reservoir-based EGS with horizontal drilling, fiber-optic monitoring, and data analytics rather than ultra-deep millimeter-wave drilling. SP004, SP005
CP004 Eavor’s positioning is closed-loop geothermal that circulates a contained working fluid through multilateral wellbores, reducing dependence on hydrothermal reservoirs or engineered permeability. SP009, SP010
CP005 Sage’s positioning is pressure-geothermal, making it a geothermal-system alternative rather than a drilling-technology twin to Quaise. SP014, SP015
CP006 Hydrothermal incumbents remain relevant because NREL says Ormat and Calpine still account for most U.S. installed geothermal capacity and plant operations, giving them operating experience and buyer familiarity that startups lack. SP017, SP018
CP007 Current geothermal incumbents and status-quo plants mostly rely on favorable hydrothermal resources, which means Quaise is not just competing against companies but also against the geological limitations of today’s market structure. SP018, SP019
CP008 Among direct peers, Fervo has the strongest disclosed commercial proof in the retained set because it has a 500 MW flagship project timeline, named Google partnership proof, and a $462 million Series E round. SP006, SP007, SP008
CP009 Eavor has stronger non-promotional proof than Quaise on closed-loop commercial operation because Chubu says Geretsried entered partial commercial operation and POWER covered first grid power in Germany. SP011, SP012
CP010 Quaise’s strongest differentiation is the claim that millimeter-wave drilling can access 10–20 km superhot wells and enable fossil-plant repowering, not that it already has the most operational megawatts. SP001, SP002, SP023, SP025
CP011 Quaise’s field proof has improved materially, but it still lags Fervo and Eavor in commercial-scale operating evidence because its retained proof centers on 100-meter drilling milestones and integration demos rather than power delivered. SP002, SP007, SP011, SP012, SP022
CP012 Fervo’s commercial path benefits from using technologies that already exist in modern oil-and-gas development, which lowers the novelty burden relative to Quaise’s new drilling modality. SP005, SP007
CP013 Eavor’s closed-loop architecture reduces dependence on subsurface permeability and induced-stimulation outcomes, but it introduces its own drilling-complexity burden around multilateral well design and accurate interception. SP010, SP016
CP014 The SLB case study shows that Eavor’s execution relies on incumbent oilfield-service capabilities, implying that geothermal differentiation can become partner-mediated rather than startup-exclusive. SP016
CP015 Nabors’ earnings release confirms that major rig providers already see commercial relevance in geothermal and are directly engaged in Project Obsidian, making oilfield partners both complements and potential power centers in the value chain. SP020, SP025
CP016 That same dynamic cuts both ways for Quaise: the Nabors relationship helps industrialize the platform, but it is not obvious from public evidence that it is exclusive enough to create a lasting distribution moat. SP020, SP025
CP017 Pricing transparency is poor across the peer set; most companies market project economics or LCOE aspirations, but few disclose realized tariffs or standardized list pricing. SP001, SP004, SP009, SP014, SP021, SP022
CP018 Because pricing is opaque, competition is being fought primarily on contractability, technical proof, siting flexibility, and capital access rather than on published rate cards. SP007, SP011, SP018, SP021
CP019 Buyer switching costs are lower than in enterprise software because a utility or industrial buyer can competitively source firm-power or heat solutions from different developers and technologies before long-term assets are built. SP001, SP004, SP009, SP018, SP019
CP020 Once a geothermal project is financed and constructed, however, switching costs become very high because the buyer is locked into the chosen site, plant design, interconnection, and contract structure. SP001, SP006, SP011
CP021 Quaise’s brownfield repowering story is strategically important because it competes against the status quo of leaving legacy fossil assets stranded or replacing them with more transmission-intensive alternatives. SP001, SP023
CP022 Fervo and Eavor currently show stronger named counterparty proof than Quaise because Google, Chubu, OMV, and Canada Growth Fund appear in retained sources, while Quaise’s offtakers remain mostly undisclosed. SP008, SP012, SP013, SP021
CP023 Sage appears commercially earlier in positioning than in large public deployment proof, making it a credible design alternative but not the sector benchmark on delivered scale in the retained set. SP014, SP015, SP018
CP024 The NREL report’s next-generation PPA momentum implies that category competition increasingly happens at the interface with utilities and corporates, where execution credibility matters more than pure concept novelty. SP018, SP024
CP025 Quaise’s millimeter-wave pathway could be more globally scalable than current geothermal approaches if it works as advertised, but the public evidence has not yet proven that at commercial depth or power. SP002, SP023, SP022
CP026 Fervo’s 500 MW Cape Station roadmap makes it the clearest execution benchmark direct investors will use against Quaise, even though the subsurface architecture is different. SP006, SP007, SP008
CP027 Eavor’s closed-loop model may appeal more in regions wary of stimulation or reservoir uncertainty, giving it a differentiated trust and regulatory posture relative to permeability-dependent systems. SP010, SP011, SP012
CP028 Quaise’s differentiators are partly proprietary and partly ecosystem-based: the millimeter-wave drilling process and modeling are proprietary, while rigs, turbines, and much field execution rely on partner ecosystems. SP002, SP003, SP020, SP023, SP025
CP029 Steam-turbine supply-chain maturity could become a relative advantage for Quaise at very high temperatures if its plant-design thesis proves correct, because Dichter’s work argues superhot systems can use more common steam-turbine equipment than lower-temperature ORC-heavy systems. SP003
CP030 Unsupported cells remain common across the sector on realized tariffs, gross margins, production decline, and well-level economics, so any capability matrix should explicitly label economic unknowns rather than infer parity. SP017, SP018, SP021, SP022
CP031 The most likely sources of competitive pressure on Quaise are capital depth, offtake credibility, and timeline-to-first-electrons rather than merely a lack of interesting science. SP007, SP012, SP021, SP022
CP032 Oilfield incumbents could commoditize parts of geothermal execution once category economics are validated, which means Quaise’s long-run moat likely cannot rest on drilling services alone. SP015, SP016, SP020
CP033 Category competition also includes other clean-firm or legacy-power options, so geothermal startups are effectively competing for the same utility and industrial capital pools as gas replacement, nuclear, and other grid-firming solutions. SP018, SP019, SP024
CP034 Public evidence does not support the claim that Quaise already has a durable winner-take-all moat; it supports a credible differentiated thesis with unusually high upside and unusually high proof burden. SP002, SP007, SP011, SP021, SP022, SP023
CP035 The fastest diligence path to proving real moat would be to review exclusive partner terms, downhole-performance data at commercial depths, and signed offtake economics for Project Obsidian. SP001, SP020, SP021, SP022
CP036 District heat and commercial heat appear more concretely evidenced today for Eavor than for Quaise because Geretsried’s public disclosures include both power and district-heating capacity. SP011, SP012
CP037 Quaise retains the most asymmetric upside if millimeter-wave drilling truly removes geothermal’s depth constraint, but today it competes from a weaker proof position than Fervo and Eavor. SP002, SP007, SP011, SP022, SP023
CI001 Public evidence does not show meaningful operating revenue at Quaise as of the run date; the company should be treated as pre-revenue or at most pre-commercial-revenue. SI001, SI002, SI003, SI005
CI002 The clearest plausible future revenue stream is long-term power sales from company-developed geothermal plants such as Project Obsidian. SI002, SI003, SI022
CI003 A second plausible revenue line is industrial or site-specific energy supply, with Nevada Gold Mines representing the strongest named example of a non-utility use case. SI004
CI004 Public evidence also supports a brownfield-repowering monetization angle, but not enough detail to know whether that would be sold as asset ownership, heat supply, EPC-like services, or some hybrid contract model. SI002, SI003, SI008
CI005 No retained public source discloses realized Quaise tariffs, PPAs, heat-pricing terms, or standardized list pricing. SI002, SI003, SI005, SI006
CI006 That means any public financial analysis must treat monetization as contract-based and bespoke rather than software-like or price-list-driven. SI002, SI005, SI020
CI007 The go-to-market motion resembles infrastructure origination: site selection, permitting, drilling, financing, offtake, and construction precede revenue recognition. SI002, SI003, SI014, SI022
CI008 Revenue quality, if the model works, could be strong because geothermal power is dispatchable and high-capacity-factor, but current public evidence does not show the contract quality of Quaise’s own first offtakes. SI022, SI023, SI024
CI009 The company’s disclosed financing trajectory runs from $52 million Series A in 2022 to a partial $25 million raise disclosed in late 2023 to a $134 million Series B in 2026, for $230 million total capital raised to date. SI001, SI007, SI008, SI010
CI010 ThinkGeoEnergy’s 2026 coverage corroborates the $230 million total and adds that additional equity and debt capital was being raised concurrently with the Series B. SI001, SI009
CI011 Canary reported that Quaise still sought another $100 million in financing plus $100 million of grants and debt for the first 50 MW Oregon project, underscoring heavy ongoing capital needs. SI005
CI012 That additional-capital signal means the publicly visible capital stack around the first commercial plant may be closer to a multi-hundred-million-dollar infrastructure package than to a simple venture-funded pilot. SI001, SI005, SI009
CI013 Public sources do not disclose Quaise’s cash on hand, monthly burn, debt draw, or runway months. SI001, SI005, SI008, SI009
CI014 Because those private metrics are absent, funding announcements cannot be translated directly into runway without management disclosure on project spend, R&D spend, and hiring pace. SI005, SI008, SI014
CI015 Strategic investors JERA and Idemitsu appear to contribute more than money: both explicitly frame their investments around future commercialization and potential deployment of Quaise projects or technology in Japan. SI012, SI013
CI016 Prelude’s continued lead support matters financially because it signals follow-on conviction from the earliest lead investor, but it does not solve project-finance dependence by itself. SI001, SI009, SI011
CI017 Nabors’ disclosure that it is drilling Project Obsidian implies real capital deployment is already occurring on the first commercial asset, even though Quaise has not published the full project budget. SI014, SI002
CI018 Cost structure is likely dominated by drilling, site development, permitting, partner services, reservoir work, and surface-plant capex rather than by lightweight software delivery costs. SI002, SI005, SI006, SI014
CI019 Latitude’s reporting suggests drilling might be only 20–30% of LCOE if Quaise achieves very high output per well, meaning the financial thesis depends on extreme performance, not just cheaper drilling alone. SI006
CI020 The public unit-economics model therefore turns on a small set of variables: well success, depth, rate of penetration, capex per megawatt, output per well, capacity factor, tariff, and maintenance or replacement costs. SI003, SI006, SI022, SI024
CI021 Public sources do not disclose gross margin, contribution margin, payback, CAC, or sales efficiency, and those omissions are normal but still decisive for a first-of-a-kind infrastructure startup. SI001, SI002, SI005, SI009
CI022 The strongest public traction signals today are financing rounds, strategic investor commitments, drilling activity at Obsidian, and the Nevada Gold Mines pilot relationship rather than reported revenue or operating megawatts. SI001, SI004, SI014
CI023 Category demand evidence from Fervo, Cape Station, Google, and the NREL report supports eventual monetization for geothermal if projects can be delivered, but it does not prove Quaise’s own economics or contract terms. SI017, SI020, SI023, SI025
CI024 Peer financing sizes — Fervo’s $462 million Series E and Eavor-related strategic capital — suggest that serious geothermal commercialization requires much larger capital pools than a normal deep-tech software startup. SI017, SI018, SI019
CI025 Mature public geothermal operators such as Ormat show the category can become large and revenue generating, but their scale and operating history are not appropriate near-term valuation anchors for Quaise’s current stage. SI015, SI016
CI026 Ormat’s public metrics of roughly $990 million 2025 revenue and a 1.8 GW portfolio illustrate the long-run economic destination of an established geothermal operator, not evidence of where Quaise sits today. SI016
CI027 Public sources support the existence of a 50 MW first phase at Obsidian and a claim that a handful of wells could support it, which is strategically important because it links drilling success to a real revenue-scale asset. SI002, SI003, SI009
CI028 At the same time, public sources do not disclose the implied capex per well, capex per megawatt, or the price that would make that first 50 MW project attractive on a risk-adjusted basis. SI003, SI005, SI006
CI029 Working-capital needs are likely milestone-driven and lumpy because the business must fund custom equipment, site preparation, drilling campaigns, and long procurement cycles before revenue begins. SI005, SI014, SI025
CI030 The most likely next-round trigger is not another demonstration video but a combination of successful confirmation wells, financing closure, named offtakes, and progress toward first commercial flow or power. SI003, SI005, SI009, SI014
CI031 Because the model is project-heavy, revenue recognition will probably be concentrated in a small number of large contracts or assets rather than in diversified recurring subscriptions, creating concentration risk early on. SI002, SI004, SI005
CI032 Public financial blockers are therefore unusually clear: cash, burn, project budget, tariff, offtake terms, capex per MW, well-level output, and operating cost per well all remain undisclosed. SI005, SI006, SI013, SI014
CI033 Category economics are encouraging but not decisive for Quaise specifically: DOE’s $45/MWh EGS target and geothermal’s high capacity factor support why the market is funding the category, but they are not company-level margin proof. SI022, SI024
CI034 Public evidence does not support a conventional revenue-multiple underwriting case today because there is no disclosed revenue base, margin profile, or durable contract book. SI001, SI005, SI013, SI015
CI035 The right financial verdict is that Quaise has real category demand and strategic financing momentum, but it remains capital-intensive, project-finance-dependent, and underdisclosed on the metrics needed for a hard underwriting call. SI001, SI005, SI012, SI017, SI024
CI036 The highest-signal financial diligence requests are the complete Obsidian capital plan, cash runway, expected tariff or PPA terms, well-output assumptions, and the share of remaining capital expected from equity versus grants or debt. SI005, SI009, SI014
CI037 The 2024 $21 million Series A1 was explicitly earmarked for field operations, geologic surveys, and supply-chain strengthening rather than for generic corporate purposes. SI027
CI038 Board and executive appointments around the A1/expanded Series A period suggest Quaise has been using capital not only for equipment but also for project-development, geothermal-operations, and capital-formation talent. SI026, SI028
CI039 2026 engineering-team profiles show spending shifting toward confirmation wells, product-data systems, diagnostics, and field hardware such as waveguides, which implies rising operational overhead as the company moves from lab work into project execution. SI030, SI031
CI040 Independent coverage of the Nevada Gold Mines collaboration reinforces that industrial pilots could become full-scale commercial deployment paths rather than one-off demonstrations, expanding the eventual revenue mix beyond grid-only power sales. SI004, SI029
CI041 The company’s 2025 year-end look-back framed 2026 around a first commercial flow test, implying another major capital gate still sits between drilling progress and monetizable power delivery. SI033
CI042 Team-profile evidence suggests commercialization spending is increasingly focused on project management, confirmation wells, and field execution systems rather than on pure lab research. SI030, SI034
CI043 Independent Nevada Gold Mines coverage strengthens the case that industrial deployments could become materially sized revenue opportunities if the pilot path succeeds. SI029, SI035
CE001 Quaise’s customer-facing product is not a standalone drill bit; it is a geothermal development stack that converts deep heat into saleable power or industrial energy using millimeter-wave drilling as the enabling technology. SE001, SE009, SE013
CE002 Project Obsidian shows that Quaise intends to act as both technology provider and project developer, not merely an equipment licensor. SE001, SE016
CE003 The core product modules visible in public evidence are: project development, conventional-plus-millimeter-wave drilling, subsurface well design, reservoir development, and surface-plant conversion to electricity or useful heat. SE001, SE002, SE003, SE007, SE009
CE004 Quaise’s drilling architecture uses a surface-based gyrotron to send high-frequency electromagnetic waves down a waveguide to the rock face rather than relying on downhole mechanical cutting at depth. SE002, SE012
CE005 The architecture is intentionally hybrid: conventional drilling is used through upper formations, then millimeter-wave drilling is used when conventional methods face diminishing returns in hard, hot basement rock. SE003, SE012, SE013
CE006 Rock removal in the millimeter-wave section uses a purge-gas system to sweep small cuttings away from the bottom of the hole, rather than conventional mud circulation alone. SE002
CE007 The hybrid-rig demo with Nabors is important because it shows Quaise is designing around the existing rig fleet rather than asking the market to adopt an entirely novel surface platform. SE003, SE016
CE008 The granite quarry field site was selected because it exposes relevant granite near the surface, allowing real-rock testing with less operational risk than a deep commercial well. SE004, SE024
CE009 By July 2026 Quaise reported drilling 100 meters in granite with millimeter-wave technology, which is a meaningful field milestone but still far short of full commercial depth. SE004, SE005
CE010 Independent MITEI coverage says the September field demonstration showed drilling rates up to five meters per hour through hard rock, versus conventional granite drilling cited at roughly a tenth of a meter per hour. SE011
CE011 The major Houston/Nabors demo used a 100-kilowatt gyrotron, and company and ThinkGeoEnergy coverage say a one-megawatt gyrotron is the next commercially relevant power step. SE013, SE022
CE012 The Cambridge-linked multiphysics model adds more than marketing polish because Quaise says it was validated against experiments and identified ways to improve material-removal and penetration rates by another order of magnitude. SE006, SE023
CE013 The EPFL / Nature Communications work matters because it addresses a core geological objection: whether superhot, superdeep rock can still fracture and sustain fluid circulation. SE008, SE015
CE014 Those fracture results suggest superhot systems could deliver roughly five to ten times more energy or power per well than today’s commercial geothermal wells if the broader system can be made durable. SE008, SE015
CE015 Quaise’s plant-design work argues that maximum performance does not require keeping water supercritical all the way to the surface; production temperatures around 350°C can still drive order-of-magnitude power increases over conventional geothermal systems. SE007
CE016 The same plant-design work says higher-temperature production could use common steam-turbine equipment, which would be an important supply-chain advantage versus lower-temperature ORC-heavy systems. SE007
CE017 Public evidence frames Quaise’s roadmap as lab experiments to field tests, then hybrid-rig demos, then Project Obsidian / western U.S. pilot development, and finally first commercial operations by the end of the decade. SE001, SE005, SE010, SE025
CE018 The nearest commercial use cases in public evidence are grid-scale power, fossil-plant repowering, mining-site decarbonization, and high-temperature industrial energy, not consumer or building-scale geothermal services. SE001, SE009, SE010
CE019 Quaise’s product maturity should still be described as pre-commercial or early-commercial-development because there is no public evidence yet of delivered geothermal electrons or heat from a Quaise-operated superhot well. SE005, SE016, SE020, SE021
CE020 The architecture depends on a deep partner and supplier stack that includes rig integration, gyrotron hardware, turbines, permitting, land access, and scientific collaborators on rock-fluid and materials behavior. SE003, SE007, SE015, SE016, SE017
CE021 Nabors is currently the most visible execution partner because public sources tie its rig fleet directly to the hybrid-rig demo and to Project Obsidian drilling. SE003, SE016
CE022 University and lab partnerships remain material dependencies because OSU, Cambridge, EPFL-linked work, and MIT-origin research are all still feeding the technical case around materials, fracture behavior, and drilling optimization. SE006, SE008, SE011, SE012, SE015
CE023 Permitting is already part of the product workflow, not an afterthought, as shown by the BLM NEPA register presence for Project Obsidian. SE017, SE001
CE024 Public trust and safety evidence is stronger on staged testing discipline than on formal certifications: the company shows controlled quarry tests, monitored demos, partner rigs, and regulatory pathway work, but not a public catalog of ISO/UL-like approvals. SE004, SE016, SE017, SE020
CE025 The OSU-supported research on superhot rock behavior, clogging, and the vitrified glass-like liner highlights that well durability and materials compatibility remain live engineering problems, not solved details. SE015
CE026 Quaise’s technical differentiation versus other geothermal developers is that it attacks the access problem directly at the drilling layer, whereas peers like Fervo and Eavor focus more on reservoir management or closed-loop heat extraction. SE002, SE012, SE021
CE027 The public evidence still points to several unresolved engineering tasks before bankable scale: deeper commercial-depth drilling, sustained high-power beam transmission, durable casing or wellbore stability, and integrated flow-to-surface performance. SE012, SE015, SE021, SE026
CE028 Quaise’s technology path deliberately reuses oil-and-gas hardware and workforce where possible, which could speed adoption if the millimeter-wave subsystem proves reliable. SE003, SE011, SE012, SE026
CE029 The company’s field instrumentation appears increasingly data-driven: public demo coverage references monitored parameters such as heat and pressure in the granite column and model calibration against experiments. SE006, SE013
CE030 No public evidence shows a traditional open developer surface such as APIs or open-source code, so the closest practitioner signal comes from engineering-community coverage and conference/paper output rather than software adoption metrics. SE014, SE011, SE012
CE031 That lack of a software-style developer surface is not disqualifying for a hardware/project company, but it means investors must substitute technical papers, expert commentary, and field demos for normal bottom-up adoption signals. SE014, SE021
CE032 Project Obsidian ties the product stack together by linking drilling, permitting, site development, offtake formation, and future surface-plant delivery into one asset-level workflow. SE001, SE016, SE017
CE033 The first named customer-style deployment beyond grid power is Nevada Gold Mines, which uses the same hybrid-rig concept to explore geothermal retrofits for industrial decarbonization. SE009
CE034 Canary and Latitude both reinforce that technical achievement alone is not enough; the architecture still has to be financeable and economically competitive at full project scale. SE005, SE020, SE021
CE035 The highest-value diligence items are commercial-depth test data, high-power gyrotron uptime, wellbore integrity evidence, and the exact technical package planned for the first Obsidian wells. SE005, SE016, SE021
CE036 Quaise’s public roadmap has moved meaningfully from lab-only proof to field operations, but the final proof point the market still needs is stable, economical energy production from a superhot well, not just drilling depth. SE005, SE011, SE019, SE021
CU001 The strongest named direct counterparty in the retained public record is Nevada Gold Mines, and that relationship is still framed as a pilot or evaluation path rather than a production customer. SU004, SU005, SU006
CU002 Public evidence does not show any named production customers already buying geothermal power or heat from a Quaise-operated superhot asset. SU001, SU010, SU012, SU013
CU003 The most relevant near-term buyer segments are utilities or LSEs for clean firm power, industrial operators for on-site energy, and fossil-asset owners for repowering or hybridization. SU001, SU004, SU017, SU018
CU004 Project Obsidian implies a grid-facing customer model in Oregon, but the actual counterparties and terms remain undisclosed. SU001, SU002, SU012
CU005 Quaise’s own materials say the company is securing commercial offtake agreements, which is an important pipeline signal but not equivalent to named customer proof. SU002, SU003
CU006 Nevada Gold Mines is the clearest industrial proof point because the pilot is tied to a named plant and a specific decarbonization target. SU004, SU005, SU006
CU007 The Nevada Gold Mines relationship is strategically important even without current revenue because it shows a serious industrial operator is willing to evaluate Quaise on a mission-critical energy asset. SU004, SU005
CU008 JERA and Idemitsu function more as strategic commercialization channels or future project participants than as present-day paying customers. SU007, SU008
CU009 Japan is the clearest long-run non-U.S. expansion geography in retained sources because both JERA and Idemitsu explicitly connect their involvement to future deployment there. SU007, SU008
CU010 Nabors validates execution and industrialization, but it should not be counted as end-customer proof. SU009
CU011 Category proxy demand is materially stronger than direct Quaise customer proof: Google/Fervo and Chubu/Eavor show that corporates and utilities will contract for next-generation geothermal when projects operate. SU014, SU015, SU016
CU012 That proxy demand is helpful but imperfect because it says more about category openness than about Quaise’s own signed book. SU014, SU015, SU016
CU013 The customer adoption path is long and infrastructure heavy: site and load selection, surveys, confirmation well, permitting, offtake, financing, production well drilling, then operations. SU003, SU011, SU017
CU014 Confirmation-well progress at Obsidian is a leading indicator for customer conversion timing because counterparties are unlikely to fully commit before subsurface risk narrows. SU003, SU011, SU013
CU015 The most plausible first customer geographies in public evidence are the Western United States and Japan-linked future deployments, not a broad global installed base. SU001, SU007, SU008, SU019
CU016 Brownfield fossil-asset owners are a meaningful prospective segment because Quaise repeatedly frames repowering existing thermal infrastructure as a core GTM wedge. SU018, SU019, SU020
CU017 Procurement friction is likely high because buyers must underwrite geology, permits, financing, and plant execution rather than just sign a standard equipment order. SU003, SU012, SU013
CU018 Public sources do not support any standard retention metrics such as NRR, GRR, churn, renewal rates, or customer count growth for Quaise. SU001, SU012, SU013
CU019 If Quaise succeeds in signing and commissioning plants, customer relationships are likely to be sticky because energy assets and industrial retrofits are long-lived and hard to switch. SU001, SU004, SU017
CU020 Early customer concentration risk is high because the visible direct proof rests on one flagship power project and one named industrial pilot. SU001, SU004, SU012
CU021 Expansion paths beyond Obsidian appear to include more brownfield power sites, more industrial pilots, and partner-led international projects. SU007, SU008, SU018, SU020
CU022 The 2025 look-back and 2026 materials show Quaise is still transitioning from technical storytelling to true commercial conversion, with first commercial flow and first operations still ahead. SU010, SU011, SU013
CU023 The strongest current evidence for utility demand comes from the broader geothermal category rather than from named Quaise contracts. SU014, SU015, SU016
CU024 The strongest current evidence for industrial demand comes from Nevada Gold Mines and the fossil-retrofit narrative, not from a portfolio of multiple signed industrial customers. SU004, SU005, SU018
CU025 Public demand messaging increasingly targets buyers who need clean firm power at point of use, implying first customers will be energy-intensive or grid-constrained sites rather than generic electricity buyers. SU003, SU017, SU019, SU030
CU026 Strategic energy companies and utilities may play a dual role as investors and customers in this category, which can accelerate adoption but blur true customer validation. SU007, SU008, SU015
CU027 Current customer traction should be scored weak-to-moderate rather than strong: there is real counterpart interest and one named pilot, but almost no disclosed production deployment or retention data. SU004, SU012, SU013, SU014, SU015
CU028 Project Obsidian’s point-of-use and high-generation framing suggests customer value is highest where transmission is constrained or where on-site thermal assets can be reused. SU003, SU018, SU019, SU026
CU029 Conference and panel coverage indicates rising industry attention, but attention should not be confused with booked customers or committed revenue. SU021, SU023, SU024, SU028
CU030 Category PPA evidence implies Quaise’s eventual customer model will likely resemble long-cycle utility or corporate offtake procurement rather than high-volume short-cycle sales. SU016, SU017
CU031 The public record leaves all meaningful customer metrics private: signed customer count, pipeline stage counts, contract size, term length, renewal likelihood, and satisfaction outcomes. SU012, SU013, SU016
CU032 The next decisive customer proof would be named Obsidian offtakers, a signed industrial energy contract, or public evidence of delivered power tied to a paying counterparty. SU002, SU011, SU013
CU033 The current public record supports strong category demand, but only narrow company-specific conversion evidence. SU014, SU015, SU016, SU031
CU034 The best near-term customer profile is therefore a counterparty with acute clean-firm or industrial-heat need and high tolerance for first-of-a-kind infrastructure risk. SU004, SU017, SU018
CU035 Customer durability remains more a theoretical strength than an evidenced fact because the likely stickiness of energy assets has not yet been demonstrated in Quaise’s own signed book. SU001, SU012, SU017
CU036 Direct customer concentration and procurement friction mean Quaise’s first few deployments will matter disproportionately for reputation and future expansion. SU001, SU004, SU017, SU032
CR001 Project Obsidian is the central visible commercial asset in Quaise’s current public story. SR001, SR025
CR002 The project is publicly visible on the BLM NEPA register, which confirms that federal-land regulatory process is a live part of the commercialization path. SR010, SR011, SR034, SR037
CR003 Supportive DOE geothermal policy improves category momentum but does not substitute for site-specific permit clearance at Obsidian. SR031, SR032, SR034, SR012
CR004 Retained public evidence does not show a fully cleared or completed permitting stack for Project Obsidian as of the run date. SR001, SR010, SR011, SR034, SR038
CR005 Quaise’s repowering and power-plant ambitions imply future exposure to interconnection, contracting, and infrastructure execution complexity beyond drilling alone. SR001, SR005, SR017
CR006 No retained public source in this run shows an active Quaise lawsuit or enforcement action, but that absence should be treated as an incomplete signal rather than proof of low legal exposure. SR009, SR010, SR011
CR007 Because Quaise’s differentiation depends heavily on proprietary drilling integration and system know-how, IP protection is strategically important even before commercial scale is reached. SR003, SR009, SR016
CR008 The company’s own materials emphasize strategic partnerships as part of scaling the business, which increases the importance of contract design and rights allocation. SR005, SR009
CR009 DOE’s Earthshot framing confirms the policy system wants faster geothermal deployment, but it also highlights that drilling, casing, and materials remain core barriers. SR031, SR032, SR033, SR013
CR010 Industry discussion around superhot geothermal still treats materials, data quality, and environmental sequencing as open issues rather than solved routines. SR019, SR033, SR035
CR011 Any permitting stall at Obsidian would likely hit financing, customer proof, and schedule simultaneously because the project concentrates all three. SR001, SR006, SR010, SR011, SR034
CR012 The current regulatory and legal risk posture is medium-high: the pathway is visible enough to matter, but not visible enough to call cleared. SR002, SR004, SR010, SR011
CR013 Quaise has materially advanced beyond lab-only proof by demonstrating field drilling and integrated hybrid-rig work. SR002, SR003
CR014 The 100-meter drilling milestone is meaningful, but it remains far from the company’s near-term 1-kilometer target and much farther from eventual 10-20 kilometer ambition. SR002, SR014
CR015 Quaise’s hybrid architecture lowers novelty risk by reusing conventional drilling where it works and reserving millimeter-wave drilling for harder, hotter depths. SR003, SR016, SR018
CR016 That mitigation does not remove the core system risks around waveguide delivery, downhole stability, and operation at superhot conditions. SR003, SR014, SR019
CR017 OSU-backed work explicitly targets scaling, clogging, rock-fluid interaction, and material behavior because those are still central unknowns for durable superhot wells and reservoirs. SR014
CR018 External experts likewise identify extreme-condition electronics, liner materials, thermal cycling, and sparse calibration data as unresolved challenges for superhot geothermal. SR019
CR019 No retained public source in this run shows a Quaise superhot well producing sustained commercial power or industrial heat. SR001, SR002, SR004
CR020 The gap between subsystem proof and whole-asset proof remains the defining operational risk for Quaise today. SR002, SR014, SR019
CR021 Nevada Gold Mines validates a real use case, but it does not yet validate repeatable operating reliability or broad customer adoption. SR004, SR021
CR022 The company’s public narrative remains milestone-centric, which is exactly what investors should expect from a technology that is still pre-commercial at the full-system level. SR002, SR018, SR023
CR023 Operating risk remains high because the next proof points require drilling depth, materials durability, and project execution to work together rather than independently. SR014, SR018, SR019, SR020
CR024 Single-project concentration at Obsidian magnifies the impact of any operational miss because there is not yet a diversified fleet of commercial assets to absorb failure. SR001, SR004, SR025
CR025 Nabors is a critical execution dependency because it provides conventional drilling and rig-integration leverage that Quaise does not appear to replicate internally. SR003, SR015
CR026 JERA and Idemitsu materially improve signaling credibility, but they also make part of the commercialization story dependent on strategic-partner follow-through. SR029, SR030
CR027 Public evidence supports $230 million raised to date, but also indicates the first 50 MW Obsidian phase still requires substantial additional financing. SR005, SR006, SR007
CR028 That makes capital sufficiency one of the most material nontechnical risks in the case today. SR006, SR007, SR008
CR029 Public sources still do not disclose Obsidian tariffs, named offtakers, or project-level unit economics, so financing risk cannot be separated cleanly from commercial-proof risk. SR001, SR005, SR006
CR030 Nevada Gold Mines remains the clearest named deployment proof, which means early customer concentration is real in the public record. SR004
CR031 Recent hires and profiles show Quaise is trying to add execution depth around project management, geothermal development, and hardware engineering. SR025, SR026, SR027, SR028
CR032 Chris Hall’s profile specifically ties active work to Obsidian’s first confirmation well, indicating project management is already central to near-term risk reduction. SR025
CR033 Kayla Grosskopf’s waveguide tooling work highlights how much the system still depends on specialized engineering knowledge. SR026
CR034 Marco Quilico’s role points to the degree of program-management overhead required to coordinate the commercial path. SR027
CR035 Matt Houde’s background and ARPA-E continuity suggest valuable institutional knowledge, but also underscore how much early geothermal know-how remains concentrated in a relatively small network. SR028
CR036 People risk is therefore not mainly founder mythology; it is execution-bandwidth risk across multiple specialized workstreams that must stay synchronized. SR018, SR025, SR026, SR027
CR037 The cleanest thesis-break trigger is failure to convert today’s confirmation-well and flow-test roadmap into visible evidence on a reasonable schedule. SR001, SR018, SR025
CR038 A second thesis-break trigger is inability to close the remaining first-project capital stack on workable terms. SR006, SR007, SR008
CR039 A third thesis-break trigger is any meaningful stall or adverse change in the visible BLM / NEPA pathway for Project Obsidian. SR010, SR011, SR032, SR034, SR038
CR040 A fourth thesis-break trigger is failure to extend field drilling materially beyond current demonstrated depth while maintaining controlled operations. SR002, SR014
CR041 A fifth thesis-break trigger is meaningful slippage from critical partners or from the only publicly visible customer-proof path. SR004, SR015, SR029, SR030
CR042 The residual risk posture is high despite category upside because technical, regulatory, partner, customer, and financing risks reinforce one another rather than remaining independent. SR011, SR019, SR030, SR035
CV001 Public evidence supports $230 million of total funding to date for Quaise. SV001, SV005
CV002 The disclosed 2026 financing event is a $134 million first close of the Series B. SV001, SV005
CV003 Retained public sources do not disclose a current Quaise valuation mark, priced share value, or secondary reference. SV001, SV003, SV005
CV004 The retained evidence in this run does not support asserting a current $1B+ Quaise valuation as a verified public fact. SV001, SV003, SV005
CV005 Public sources also do not disclose revenue, tariff, margin, or cash-runway data needed for precision valuation. SV001, SV002, SV004, SV006
CV006 That means Quaise should be valued using milestone and financing logic rather than conventional revenue multiples. SV004, SV006, SV021
CV007 The publication-ready recommendation is research-more / track rather than buy. SV001, SV004, SV006, SV021
CV008 Confidence in the current recommendation is medium because the market case is real but the pricing inputs are thin. SV004, SV011, SV021
CV009 The current risk rating is high because valuation support depends on several unclosed technical, financing, and permitting milestones at once. SV002, SV004, SV021
CV010 The right valuation stance is price-sensitive: attractive only after material milestone de-risking or at a substantial discount to unsupported premium headlines. SV003, SV004, SV006, SV021
CV011 The strongest positive argument for Quaise is exposure to scarce firm clean power and brownfield geothermal optionality. SV002, SV010, SV011, SV012
CV012 DOE’s 2025 market report says next-generation geothermal has attracted more than $1.5 billion in private capital since 2021. SV010, SV011
CV013 The same DOE market report says 26 geothermal PPAs totaling more than 1,000 MWe were signed since the 2021 report. SV011, SV012
CV014 ATB states that near-term EGS costs are still predictions because there are no commercial-scale dedicated EGS plants in operation in the United States. SV010, SV021
CV015 Project Obsidian is the key asset in Quaise’s valuation case because it is the clearest bridge from technical story to commercial asset. SV002, SV004
CV016 Canary’s reporting indicates the first 50 MW phase still needs roughly $200 million of additional financing and grants or debt. SV004, SV005
CV017 Strategic backers such as Prelude, JERA, and Idemitsu validate seriousness and channel potential but do not themselves establish a defensible price. SV007, SV008, SV009
CV018 TechCrunch’s 2023 fundraising report shows capital-market support existed before the 2026 Series B, reinforcing financing continuity. SV003
CV019 The public comp lesson from geothermal is that scale and proof matter more than technological ambition alone. SV019, SV020, SV021
CV020 Ormat is the most relevant public geothermal benchmark because it is a large, operating, diversified geothermal company with investor-grade disclosure. SV019, SV024, SV025, SV026
CV021 GSR reports Ormat at approximately $7.1 billion market capitalization as of August 15, 2026. SV020
CV022 Ormat’s portfolio scale of 1.8 GW highlights how much operating diversification stands between Quaise and the public-comp standard. SV019, SV026
CV023 Fervo’s $462 million Series E shows that the capital market is willing to fund geothermal developers with stronger commercial proof packages. SV013, SV018
CV024 Fervo’s Cape Station plan to deliver 100 MW in 2026 and 500 MW total by 2028 places it materially ahead of Quaise on visible project proof. SV013, SV027
CV025 Eavor’s Geretsried project has stronger operating proof than Quaise today because public sources show first grid power and partial commercial operation. SV014, SV016
CV026 SLB’s case study showing a successful 7,805 m first-attempt intercept reinforces that peer advanced-geothermal execution has already crossed milestones Quaise has not yet shown publicly. SV016, SV017
CV027 Quaise may still have greater upside optionality than peers if superhot drilling works economically, but that upside should be discounted heavily until proof catches up. SV006, SV014, SV021
CV028 Calpine and Constellation are useful only as distant baseload-platform references, not as direct pricing comps for a pre-revenue startup. SV022, SV023
CV029 The Calpine transaction shows how valuable diversified clean-and-reliable power fleets can become once large operating portfolios exist. SV022, SV023
CV030 Access’s Calpine transaction PDF cites a $26.6 billion net purchase price and a 7.9x 2026 EV/EBITDA multiple, which is informative for mature infrastructure but not directly portable to Quaise. SV022, SV023
CV031 The bear case for Quaise is roughly a high-hundreds-of-millions valuation range if financing and permitting continue to lag and peer proof expands faster. SV004, SV021, SV025
CV032 The base case is roughly a low-billions valuation range if milestone progress continues but commercial operations still are not visible. SV001, SV002, SV004, SV021
CV033 The bull case requires flow-test success, clearer permitting, first-project financeability, and named counterparties, and only then supports moving materially above the low-billions. SV002, SV004, SV021
CV034 A verified unicorn-plus entry price would therefore be difficult to justify publicly today without additional milestone proof or nonpublic diligence evidence. SV004, SV021, SV023
CV035 Named offtakers and tariff transparency would be among the highest-value upside movers for Quaise’s valuation case. SV002, SV004, SV011
CV036 Commercial flow-test and depth-progression evidence would be another major upside mover because it would directly reduce the proof gap versus peers. SV002, SV013, SV017
CV037 Closing the full 50 MW capital stack would materially strengthen the base case because it would convert aspiration into project financeability. SV004, SV005
CV038 Peer commercialization can still compress Quaise’s premium because Fervo and Eavor continue to add financing and operating proof in public. SV013, SV014, SV015, SV016
CV039 The most important final diligence asks are the cap-table waterfall, latest priced mark, preference stack, project-level sources and uses, and customer contract evidence. SV001, SV004, SV024, SV025
CV040 The cleanest thesis-break triggers are major slippage in flow-test or confirmation-well progress, failure to close financing, visible permitting drag, and widening proof gaps versus peers. SV002, SV004, SV014, SV016
CV041 Until those diligence items are closed, the most defensible published stance is to keep Quaise on the active watchlist rather than underwrite a premium private mark from public evidence alone. SV003, SV004, SV021, SV025
CV042 Public evidence supports company quality and market relevance, but it still supports discipline more strongly than aggression on price. SV001, SV011, SV021, SV025
来源
编号出版方标题引文
SO001 Quaise Energy Quaise Energy We are developing an entirely new way to access the largest untapped energy source on the planet: geothermal energy.
SO002 Quaise Energy Company Quaise’s deep drilling technology is the result of a decade of research conducted by Paul Woskov at the MIT Plasma Science and Fusion Center.
SO003 Quaise Energy Quaise Energy Raises $134 Million in First Close of Series B to Build World’s First Superhot Geothermal Power Plant The Series B brings Quaise's total funding raised to date to $230 million.
SO004 Quaise Energy Quaise Energy on track to build world’s first power plant using superhot geothermal energy The first phase of the company’s complex, known as Project Obsidian, is under construction in Oregon. It is expected to be operational as early as 2030.
SO005 Quaise Energy Introducing Project Obsidian Project Obsidian, at a glance: Phase I: 50 MW; Phase II: 250 MW; Phase III: 1+ GW.
SO006 Quaise Energy A First Look at Project Obsidian It’s got what we call a high thermal gradient, which means we don’t have to drill that deep into the Earth to get to hotter temperatures.
SO007 Quaise Energy Quaise Energy and Nevada Gold Mines Partner on Deep Geothermal Pilot Plant to Decarbonize Mining The partnership marks the first commercial pilot for retrofitting a fossil fuel power plant to accommodate geothermal heat.
SO008 Quaise Energy Quaise Energy supports Oregon State University work to transform clean energy with geothermal technology Quaise Energy has given $750K to Oregon State University (OSU).
SO009 Quaise Energy Quaise Energy Achieves Drilling Milestone with Millimeter Wave Technology Quaise Energy today announced it has successfully drilled through granite in the field using millimeter wave technology.
SO010 Quaise Energy Major Demo Keeps Quaise Energy on Track to Power the World with Clean, Renewable Geothermal Energy Last week, we showcased millimeter wave drilling on a full-scale oil and gas rig with our partners at Nabors Industries.
SO011 Quaise Energy Quaise Energy Raises $21 Million to Accelerate Terawatt-Scale Deep Geothermal Energy Quaise Energy announced today the closing of a $21 Million Series A1 financing round led by Prelude Ventures and Safar Partners.
SO012 Quaise Energy Quaise Energy Appoints Ali Azad as Independent Board Director The announcement follows Quaise’s Series A1 capital raise of $21 Million earlier this year.
SO013 Quaise Energy Quaise Energy Appoints Dr. Geoffrey Garrison as Vice President of Operations and Dr. Trenton Cladouhos as Vice President of Geothermal Resource Development The geothermal veterans will be instrumental in deploying Quaise Energy’s technology to transform clean heat and power production.
SO014 MIT Energy Initiative MITEI spinout Quaise Energy successfully demonstrates their geothermal energy drilling technology in the field In July, Quaise successfully drilled a 118-meter hole in the field.
SO015 MIT Energy Initiative MIT spinout Quaise Energy: Working to create geothermal wells made from the deepest holes in the world Around 2018, Araque and Matt Houde, founded Quaise to commercialize Woskov’s discovery.
SO016 TechCrunch Geothermal startup Quaise is raising $25M as it gears up for drilling Quaise had previously raised a $52 million Series A in June 2022.
SO017 ThinkGeoEnergy Quaise Energy closes $134m Series B funding round to support superhot geothermal project Phase I of the project envisions a 50-MW development which is expected to be operational as early as 2030, and a second phase targets 250 MW.
SO018 ThinkGeoEnergy Quaise Energy demo showcases clean geothermal drilling Outside the Quaise lab in Houston earlier this year, engineers succeeded in drilling a hole four inches in diameter and 10 feet deep.
SO019 ThinkGeoEnergy Quaise Energy secures additional $12m from Series A funding Quaise Energy has now raised a total of USD 52 million after an expansion of the initial Series A funding round.
SO020 Latitude Media Digging deep for super hot geothermal So the questions are, can you drill deep enough and more importantly, hot enough, can you extract that heat and will it be cheap?
SO021 Bureau of Land Management Project Home Page — Quaise Energy – Project Obsidian Geothermal Drilling Operation The Bureau of Land Management has issued the final categorical exclusion and decision record for Project Obsidian.
SO022 Prelude Ventures Quaise Quaise is developing a novel drilling technology that will unlock terawatt scale geothermal energy generation around the world.
SO023 JERA JERA Invests in Quaise Energy, a U.S. Growth-Stage Developer of Next-Generation Superhot Geothermal Energy Technology The companies will also explore potential opportunities related to the future commercialization and deployment of the technology in Japan.
SO024 Idemitsu Kosan Idemitsu Invests in Quaise Energy to Explore Next-Generation Geothermal Energy By combining Idemitsu’s resource development expertise with Quaise’s millimeter-wave drilling technology, the two companies aim to contribute to the wider deployment of next-generation geothermal.
SO025 Mintz Energy & Sustainability Client Feature — Quaise Energy, Inc. Quaise Energy spun out of the MIT Plasma Science and Fusion Center in 2018. The Company has raised $75 million to date.
SM001 Quaise Energy Geothermal has potential to become backbone of world’s energy system Geothermal has potential to become backbone of world’s energy system.
SM002 Quaise Energy Decarbonizing Industrial Heat with Deep Geothermal At the end of the day, producing heat consumes more energy than anything else in the world.
SM003 Quaise Energy Hotter is Better: Part 1 At 300-500 degrees Celsius, we can generate up to 10 times as much power as normal geothermal.
SM004 Quaise Energy Clean Power Needs a Firm Footing How to ensure stability through the peaks and valleys of demand.
SM005 Quaise Energy Tiers of Development: Part 2 Nearly 40% of the world falls into this category.
SM006 Quaise Energy Geothermal energy has potential to be cost-competitive with other renewables and fossil fuels Geothermal energy has potential to be cost competitive with other renewables and even fossil fuels if we can drill deep enough.
SM007 Quaise Energy Mining the heat below our feet could unlock clean energy for the world TEDX Boston presenter describes Quaise Energy’s unique approach and progress to date.
SM008 Quaise Energy Conference indicates surging interest in superhot, superdeep geothermal energy Renewable resource has potential to revolutionize our energy system.
SM009 Quaise Energy Geothermal could become workhorse of the energy transition It’s very hard to achieve anything in our space with a million dollars or even $10 million.
SM010 Quaise Energy Expert panel: Geothermal has huge potential as future energy source Key to transition: Oil/Gas Industry Itself, New Technologies.
SM011 Canary Media Startup develops “superhot” geothermal in Oregon Quaise Energy seeks $100 million in financing and another $100 million in grants and debt to develop a 50 MW superhot geothermal plant in central Oregon.
SM012 Latitude Media Digging deep for super hot geothermal The questions are, can you drill deep enough and more importantly, hot enough, can you extract that heat and will it be cheap?
SM013 U.S. Department of Energy DOE Launches New Energy Earthshot to Slash the Cost of Geothermal Power DOE’s Fourth Energy Earthshot seeks to cut the cost of enhanced geothermal systems by 90% to $45 per megawatt hour by 2035.
SM014 U.S. Department of Energy Earthshots Enhanced Geothermal Shot: Unlocking the Power of Geothermal Energy Capturing even a small fraction of this resource via wide-scale commercial deployment could affordably power the equivalent of more than 65 million American homes.
SM015 U.S. Department of Energy Office of Geothermal Geothermal energy provides baseload power and delivers a high capacity factor—typically ~90%.
SM016 U.S. Energy Information Administration Geothermal power plants These power plants need very hot water or steam—from 300 degrees Fahrenheit to 700 degrees Fahrenheit.
SM017 National Laboratory of the Rockies / Geothermal Rising 2025 U.S. Geothermal Market Report Geothermal power installed nameplate capacity as of 2024 is 3.969 gigawatts-electric (3,969 MWe).
SM018 Fervo Energy Fervo Energy - Next-Generation Geothermal Projects Our mission is to transform geothermal energy into America’s most dependable and affordable source of clean, 24/7 power.
SM019 Google A first-of-its-kind geothermal project is now operational Advanced clean energy technologies ... build the resilient, secure, cost-effective and fully decarbonized electricity grids that are needed.
SM020 Eavor Eavor - The World's First Scalable Form of Clean Baseload Power The world’s first truly scalable form of clean, baseload or dispatchable energy.
SM021 POWER Magazine Eavor’s First-of-Its-Kind Closed-Loop Geothermal Project Produces Grid Power in Germany Closed-loop geothermal can reliably deliver continuous electricity and heat with high capacity factors across a wide range of geologies.
SM022 Sage Geosystems Sage Geosystems Pioneering Pressure Geothermal.
SM023 Sage Geosystems Technology - Sage Geosystems Pressure Geothermal represents an evolution of traditional geothermal.
SM024 CleanEnergy.ca Canada Growth Fund Commits $138M to Scale Eavor’s Geothermal Technology Canada Growth Fund is investing up to $138 million to accelerate the deployment of Eavor Technologies’ clean energy technology.
SM025 Quaise Energy Quaise Energy and Nevada Gold Mines Partner on Deep Geothermal Pilot Plant to Decarbonize Mining The partnership underscores the unique capabilities of deep geothermal to decarbonize heavy industrial sectors like mining.
SP001 Quaise Energy Project Obsidian Project Obsidian is our first commercial superhot geothermal project.
SP002 Quaise Energy Quaise Energy Achieves Drilling Milestone with Millimeter Wave Technology Quaise Energy ... successfully drilled to a depth of 100 meters using its proprietary millimeter wave technology.
SP003 Quaise Energy Quaise Energy reports new insights into designing superhot geothermal plants Steam turbines have a much more mature supply chain than ORC turbines.
SP004 Fervo Energy Fervo Energy Transform geothermal energy into America’s most dependable and affordable source of clean, 24/7 power.
SP005 Fervo Energy Technology - Fervo Energy By installing fiber optic cables downhole in our geothermal wells, we gather and analyze real-time data on flow, temperature, and performance.
SP006 Cape Station Home - Cape Station At 500 MW, Cape Station is ushering in a new era for enhanced geothermal energy.
SP007 Fervo Energy Fervo Energy Raises $462 Million Series E Fervo Energy ... announced the closing of its oversubscribed $462 million Series E funding round.
SP008 Google A first-of-its-kind geothermal project is now operational A first-of-its-kind geothermal project is now operational.
SP009 Eavor Eavor The world’s first truly scalable form of clean, baseload or dispatchable energy.
SP010 Eavor Technology - Eavor Unlike traditional geothermal, Eavor-Loop systems extract heat from hot rock via conduction.
SP011 POWER Magazine Eavor’s First-of-Its-Kind Closed-Loop Geothermal Project Produces Grid Power in Germany Closed-loop geothermal can reliably deliver continuous electricity and heat with high capacity factors across a wide range of geologies.
SP012 Chubu Electric Power Partial Commercial Operation Commences at Geretsried Geothermal Project in Germany Partial commercial operation.
SP013 CleanEnergy.ca Canada Growth Fund Commits $138M to Scale Eavor’s Geothermal Technology Canada Growth Fund is investing up to $138 million to accelerate the deployment of Eavor Technologies’ clean energy technology.
SP014 Sage Geosystems Sage Geosystems Pioneering Pressure Geothermal.
SP015 Sage Geosystems Technology - Sage Geosystems Pressure Geothermal represents an evolution of traditional geothermal.
SP016 SLB Trailblazing advanced geothermal system excels with ranging services This project provided a significant milestone in demonstrating it is technically possible to drill configuration proposed in the Eavor-Loop.
SP017 Ormat Ormat Technologies $990M revenues 2025; 1.8 GW portfolio.
SP018 National Laboratory of the Rockies / Geothermal Rising 2025 U.S. Geothermal Market Report Together they account for 69% of total installed capacity and 61% of all operating geothermal plants in the United States.
SP019 U.S. Energy Information Administration Geothermal power plants Geothermal power plants need very hot water or steam—from 300 degrees Fahrenheit to 700 degrees Fahrenheit.
SP020 Nabors Industries Momentum Accelerates. Cash Flow Improves. Nabors 2Q 2026 Results One of these is drilling Quaise Energy's Project Obsidian, the first commercial superhot geothermal development.
SP021 Canary Media Startup develops “superhot” geothermal in Oregon Quaise Energy seeks $100 million in financing and another $100 million in grants and debt to develop a 50 MW superhot geothermal plant in central Oregon.
SP022 Latitude Media Digging deep for super hot geothermal The questions are, can you drill deep enough and more importantly, hot enough, can you extract that heat and will it be cheap?
SP023 IEEE Spectrum Fusion Tech Finds Geothermal Energy Application MIT spinoff eyes microwave drills as route to robust geothermal rewards.
SP024 U.S. Department of Energy Office of Geothermal Geothermal energy provides baseload power and delivers a high capacity factor—typically ~90%.
SP025 Quaise Energy World's First MMW Hybrid Drilling Rig This is the first-ever hybrid drilling rig, combining conventional and millimeter wave capabilities.
SI001 Quaise Energy Quaise Energy Raises $134 Million in First Close of Series B to Build World’s First Superhot Geothermal Power Plant Series B equity is the first component of a diverse financing that includes project-level equity and debt.
SI002 Quaise Energy Project Obsidian Project Obsidian is our first commercial superhot geothermal project.
SI003 Quaise Energy Quaise Energy on track to build world’s first power plant using superhot geothermal energy The first phase of the company’s complex, known as Project Obsidian, is under construction in Oregon. It is expected to be operational as early as 2030.
SI004 Quaise Energy Quaise Energy and Nevada Gold Mines Partner on Deep Geothermal Pilot Plant to Decarbonize Mining Quaise will evaluate the development of a commercial pilot to further decarbonize power generation at Nevada Gold Mines.
SI005 Canary Media Startup develops “superhot” geothermal in Oregon Quaise Energy seeks $100 million in financing and another $100 million in grants and debt to develop a 50 MW superhot geothermal plant in central Oregon.
SI006 Latitude Media Digging deep for super hot geothermal Drilling might be 20 to 30 percent of levelized cost of electricity if you can get that much electricity.
SI007 Mintz Energy & Sustainability Client Feature — Quaise Energy, Inc. The Company has raised $75 million to date.
SI008 TechCrunch Geothermal startup Quaise is raising $25M as it gears up for drilling The company filed new paperwork yesterday with the SEC, stating that it had raised $13 million of an expected $25 million.
SI009 ThinkGeoEnergy Quaise Energy closes $134m Series B funding round to support superhot geothermal project Additional equity and debt capital is concurrently being raised and is expected to close soon.
SI010 ThinkGeoEnergy Quaise Energy secures additional $12m from Series A funding Quaise Energy has now raised a total of USD 52 million after an expansion of the initial Series A funding round.
SI011 Prelude Ventures Quaise Quaise is developing a novel drilling technology that will unlock terawatt scale geothermal energy generation around the world.
SI012 JERA JERA Invests in Quaise Energy The investment ... reflects JERA’s support for Quaise’s efforts to develop its first commercial geothermal power plant, Project Obsidian, in Oregon.
SI013 Idemitsu Kosan Idemitsu Invests in Quaise Energy Idemitsu has made an investment in Quaise Energy ... and will consider participating in geothermal projects developed by Quaise.
SI014 Nabors Industries Momentum Accelerates. Cash Flow Improves. Nabors 2Q 2026 Results One of these is drilling Quaise Energy's Project Obsidian, the first commercial superhot geothermal development.
SI015 SEC EDGAR Search Results for Ormat 10-K filings 10-K ... Filing Date 2026-02-26.
SI016 Ormat Technologies Ormat Technologies Inc. - Geothermal Power | Renewable Energy Expertise $990M Revenues 2025 ... 1.8 GW portfolio.
SI017 Fervo Energy Fervo Energy Raises $462 Million Series E Fervo Energy ... announced the closing of its oversubscribed $462 million Series E funding round.
SI018 CleanEnergy.ca Canada Growth Fund Commits $138M to Scale Eavor’s Geothermal Technology Canada Growth Fund is investing up to $138 million to accelerate the deployment of Eavor Technologies’ clean energy technology.
SI019 Chubu Electric Power Partial Commercial Operation Commences at Geretsried Geothermal Project in Germany Electric power generation: approx. 8.2MW.
SI020 National Laboratory of the Rockies / Geothermal Rising 2025 U.S. Geothermal Market Report At least 616 MWe in PPAs between geothermal developers and load-serving entities in California as of June 2025.
SI021 U.S. Energy Information Administration Geothermal power plants The three types of geothermal power plants are dry steam, flash steam, and binary cycle.
SI022 U.S. Department of Energy Office of Geothermal Geothermal energy provides baseload power and delivers a high capacity factor—typically ~90%.
SI023 Google A first-of-its-kind geothermal project is now operational A first-of-its-kind geothermal project is now operational.
SI024 U.S. Department of Energy DOE Launches New Energy Earthshot to Slash the Cost of Geothermal Power Cut the cost of enhanced geothermal systems by 90% to $45 per megawatt hour by 2035.
SI025 Cape Station Home - Cape Station At 500 MW, Cape Station is ushering in a new era for enhanced geothermal energy.
SI026 Quaise Energy Quaise Energy Appoints Ali Azad as Independent Board Director The announcement follows Quaise’s Series A1 capital raise of $21 Million earlier this year.
SI027 Quaise Energy Quaise Energy Raises $21 Million to Accelerate Terawatt-Scale Deep Geothermal Energy This latest funding will enhance the company’s field operations and strengthen its supply chain position.
SI028 Quaise Energy Quaise Energy Appoints Dr. Geoffrey Garrison as Vice President of Operations and Dr. Trenton Cladouhos as Vice President of Geothermal Resource Development The geothermal veterans will be instrumental in deploying Quaise Energy’s technology to transform clean heat and power production.
SI029 Power Technology Quaise Energy and Nevada Gold Mines link on geothermal energy for mining The retrofit of NGM’s TS power plant sets the stage for Quaise to move beyond drilling field trials and advance toward full-scale commercial deployment.
SI030 Quaise Energy Meet Chris Hall Project Obsidian, located in Oregon, is well underway. For example, the Quaise team is in the process of drilling its first confirmation (test) well.
SI031 Quaise Energy Meet Kayla Grosskopf She’s also designed and built a hanger clamp to facilitate the addition and removal of waveguide.
SI032 Quaise Energy Meet Matt Houde AltaRock moved the ARPA-E award to Quaise.
SI033 Quaise Energy Looking Back on 2025 Looking ahead to next year, we’re bringing our first commercial flow test online.
SI034 Quaise Energy Meet Marco Quilico A few weeks after bringing Geoguard to commercialization, Quilico was recruited to Quaise.
SI035 ThinkGeoEnergy Quaise to explore deep geothermal potential to power Nevada Gold Mines The retrofit of NGM’s TS Power Plant positions Quaise to go from drilling field trials to full commercial deployment.
SE001 Quaise Energy Project Obsidian Project Obsidian is our first commercial superhot geothermal project.
SE002 Quaise Energy Millimeter Wave Drilling: Part 5 It delivers high-frequency electromagnetic waves through a waveguide, transmitted from a surface-based gyrotron, down to the rock face with minimal energy loss.
SE003 Quaise Energy World's First MMW Hybrid Drilling Rig This is the first-ever hybrid drilling rig, combining conventional and millimeter wave capabilities.
SE004 Quaise Energy Field Testing Our Millimeter Wave Technology for the First Time The granite quarry provides an ideal location to test and refine our technology in real-world conditions with minimal risk.
SE005 Quaise Energy Quaise Energy Achieves Drilling Milestone with Millimeter Wave Technology Quaise Energy ... successfully drilled to a depth of 100 meters using its proprietary millimeter wave technology.
SE006 Quaise Energy Physicists model Quaise Energy’s approach to drilling for superhot geothermal energy The model was validated against Quaise laboratory experiments and accurately predicted material removal rates.
SE007 Quaise Energy Quaise Energy reports new insights into designing superhot geothermal plants Plants working with geothermal fluids at temperatures higher than 300oC at the surface can use common turbines.
SE008 Quaise Energy Lab data confirm potential of geothermal’s holy grail Supercritical water ... can carry far more energy per well to the surface—roughly five to ten times the energy produced by today’s commercial geothermal wells.
SE009 Quaise Energy Quaise Energy and Nevada Gold Mines Partner on Deep Geothermal Pilot Plant to Decarbonize Mining The partnership underscores the unique capabilities of deep geothermal to decarbonize heavy industrial sectors like mining.
SE010 Quaise Energy On Track to Build the World’s First Power Plant on Superhot Geothermal Energy On track to build the world's first power plant on superhot geothermal energy.
SE011 MIT Energy Initiative MITEI spinout Quaise Energy successfully demonstrates their geothermal energy drilling technology in the field The September demonstration showed that they can drill through some of the hardest rock in the world at a rate of up to five meters per hour.
SE012 MIT Energy Initiative MIT spinout Quaise Energy: Working to create geothermal wells made from the deepest holes in the world It’s really engineering challenges we have to answer ... we’re not working against the laws of physics.
SE013 ThinkGeoEnergy Quaise Energy demo showcases clean geothermal drilling The gyrotron involved produced 100 kilowatts of power ... a much larger gyrotron capable of producing one megawatt of power.
SE014 IEEE Spectrum Fusion Tech Finds Geothermal Energy Application MIT spinoff eyes microwave drills as route to robust geothermal rewards.
SE015 EurekAlert / Oregon State University Quaise Energy supports Oregon State University work to transform clean energy with geothermal technology The custom-made OSU reactor is designed to withstand temperatures of up to 500 degrees C and 500 atmospheres of pressure.
SE016 Nabors Industries Momentum Accelerates. Cash Flow Improves. Nabors 2Q 2026 Results One of these is drilling Quaise Energy's Project Obsidian, the first commercial superhot geothermal development.
SE017 Bureau of Land Management Project Home Page BLM National NEPA Register.
SE018 U.S. Department of Energy Office of Geothermal Geothermal energy provides baseload power and delivers a high capacity factor—typically ~90%.
SE019 U.S. Energy Information Administration Geothermal power plants These power plants need very hot water or steam—from 300 degrees Fahrenheit to 700 degrees Fahrenheit.
SE020 Canary Media Startup develops “superhot” geothermal in Oregon Quaise Energy seeks $100 million in financing and another $100 million in grants and debt to develop a 50 MW superhot geothermal plant in central Oregon.
SE021 Latitude Media Digging deep for super hot geothermal The questions are, can you drill deep enough and more importantly, hot enough, can you extract that heat and will it be cheap?
SE022 Quaise Energy Major Demo Keeps Quaise Energy on Track to Power the World with Clean, Renewable Geothermal Energy The gyrotron involved produced 100 kilowatts of power ... Next month, Quaise expects the delivery of a much larger gyrotron capable of producing one megawatt of power.
SE023 Quaise Energy Physicists model Quaise Energy’s approach to drilling for superhot geothermal energy The simulations revealed concrete pathways to increase Quaise’s rate of penetration by an additional order of magnitude.
SE024 Quaise Energy Field Testing Our Millimeter Wave Technology for the First Time The granite quarry provides an ideal location to test and refine our technology in real-world conditions with minimal risk.
SE025 Quaise Energy Hotter is Better: Part 1 Now, we’re laying the foundation for our first commercial operations: superhot geothermal power plants online by the end of this decade.
SE026 Quaise Energy / Newswise Experts Cite Challenges, Progress Toward Geothermal’s Holy Grail Other important challenges include electronics that can also withstand the extreme conditions; materials for lining and supporting the boreholes that can survive repeated thermal cycling.
SU001 Quaise Energy Project Obsidian Project Obsidian is our first commercial superhot geothermal project.
SU002 Quaise Energy Hotter is Better: Part 1 We are already ... securing commercial offtake agreements.
SU003 Quaise Energy How to Build a Superhot Geothermal Power Plant Seeing the subsurface: surveys and confirmation wells give clarity before drilling production wells.
SU004 Quaise Energy Quaise Energy and Nevada Gold Mines Partner on Deep Geothermal Pilot Plant to Decarbonize Mining The partnership underscores the unique capabilities of deep geothermal to decarbonize heavy industrial sectors like mining.
SU005 Power Technology Quaise Energy and Nevada Gold Mines link on geothermal energy for mining The retrofit of NGM’s TS power plant sets the stage for Quaise to move beyond drilling field trials and advance toward full-scale commercial deployment.
SU006 ThinkGeoEnergy Quaise to explore deep geothermal potential to power Nevada Gold Mines The partnership underscores the unique capabilities of deep geothermal to decarbonize heavy industrial sectors like mining.
SU007 JERA JERA Invests in Quaise Energy The companies will also explore potential opportunities related to the future commercialization and deployment of the technology in Japan.
SU008 Idemitsu Kosan Idemitsu Invests in Quaise Energy Idemitsu will further consider participation in next-generation geothermal power generation projects through collaboration with Quaise.
SU009 Nabors Industries Momentum Accelerates. Cash Flow Improves. Nabors 2Q 2026 Results One of these is drilling Quaise Energy's Project Obsidian, the first commercial superhot geothermal development.
SU010 Quaise Energy Looking Back on 2025 Looking ahead to next year, we’re bringing our first commercial flow test online.
SU011 Quaise Energy Meet Chris Hall Project Obsidian ... is well underway. For example, the Quaise team is in the process of drilling its first confirmation (test) well.
SU012 Canary Media Startup develops “superhot” geothermal in Oregon Quaise Energy seeks $100 million in financing and another $100 million in grants and debt to develop a 50 MW superhot geothermal plant in central Oregon.
SU013 Latitude Media Digging deep for super hot geothermal They are trying to get a flow test done at the end of 2026.
SU014 Google A first-of-its-kind geothermal project is now operational Advanced clean energy technologies ... build the resilient, secure, cost-effective and fully decarbonized electricity grids that are needed.
SU015 Chubu Electric Power Partial Commercial Operation Commences at Geretsried Geothermal Project in Germany By participating in the Project, CHUBU will acquire experience and further expertise in the geothermal business.
SU016 National Laboratory of the Rockies / Geothermal Rising 2025 U.S. Geothermal Market Report Utilities have procured (or agreed to procure) 984 MWe of next-generation geothermal power capacity ... through 11 PPAs.
SU017 U.S. Department of Energy Office of Geothermal Geothermal energy provides baseload power and delivers a high capacity factor—typically ~90%.
SU018 Quaise Energy Recycling Fossil Fuel Infrastructure Geothermal ... could potentially reuse much more of our existing energy infrastructure.
SU019 Quaise Energy Reimagining Geothermal: Larger Map, Lower Cost The LCOE calculator and map allow you to compare projected costs ... anywhere in the contiguous United States.
SU020 Quaise Energy Geothermal has potential to become backbone of world’s energy system Geothermal has potential to become backbone of world’s energy system.
SU021 Quaise Energy The Earth’s Energy: Switching Geothermal Power On Geothermal advocates aren’t letting the seeming insignificance of the existing power generation capacity detract from their enthusiasm about the future.
SU022 Quaise Energy Meet Matt Houde If there’s something uniquely of value to Quaise that no one else has, it’s the team we have built to take this crazy idea out of the lab and into the field.
SU023 Quaise Energy Expert panel: Geothermal has huge potential as future energy source Key to transition: Oil/Gas Industry Itself, New Technologies.
SU024 Quaise Energy Conference indicates surging interest in superhot, superdeep geothermal energy Conference indicates surging interest in superhot, superdeep geothermal energy.
SU025 U.S. Department of Energy DOE Launches New Energy Earthshot to Slash the Cost of Geothermal Power Cut the cost of enhanced geothermal systems by 90% to $45 per megawatt hour by 2035.
SU026 Quaise Energy How to Build a Superhot Geothermal Power Plant High generation, low transmission: with high efficiency turbines delivering the highest capacity factors, at point of use.
SU028 Quaise Energy The Earth’s Energy: Switching Geothermal Power On Chevron and BP announced that they will invest $40 million in Eavor Technologies.
SU029 Quaise Energy Meet Marco Quilico Marco Quilico is the company’s project manager.
SU031 Quaise Energy Millimeter Wave Drilling: The Key to Clean Energy Abundance Deep geothermal is up to 10x more powerful than traditional geothermal energy.
SU030 Quaise Energy Millimeter Wave Drilling: The Key to Clean Energy Abundance Deep geothermal is up to 10x more powerful than traditional geothermal energy.
SU032 Quaise Energy Meet Marco Quilico Marco Quilico is the company’s project manager.
SR001 Quaise Energy Quaise Energy on track to build world’s first power plant using superhot geothermal energy Project Obsidian, located in Oregon, is well underway, and by the end of the decade, it will deliver 50 MW of clean, baseload power to the grid.
SR002 Quaise Energy Quaise Energy Achieves Drilling Milestone with Millimeter Wave Technology Quaise drilled a record-setting 100 meters straight down into a granite quarry in Texas.
SR003 Quaise Energy World's First MMW Hybrid Drilling Rig The world's first MMW hybrid drilling rig integrates Quaise's technology with a conventional drilling system.
SR004 Quaise Energy Quaise Energy and Nevada Gold Mines Partner on Deep Geothermal Pilot Plant to Decarbonize Mining The retrofit of Nevada Gold Mines’ TS Power Plant positions Quaise to advance toward commercial deployment.
SR005 Quaise Energy Quaise Energy Raises $134 Million in First Close of Series B to Build World’s First Superhot Geothermal Power Plant The first close of the Series B brings Quaise’s total funding to date to $230 million.
SR006 Canary Media Startup develops superhot geothermal in Oregon The project needs another $100 million in financing and another $100 million in grants and debt, Araque said.
SR007 ThinkGeoEnergy Quaise Energy closes $134m Series B funding round to support superhot geothermal project Quaise will also be raising additional capital to support the development of Project Obsidian.
SR008 Latitude Media Digging deep for super hot geothermal The economics work only if extreme heat translates into unusually high energy output per well.
SR009 Mintz Energy & Sustainability Client Feature — Quaise Energy, Inc. Quaise Energy will use the additional investment to form foundational strategic partnerships that further scale its business.
SR010 Bureau of Land Management Project Home Page BLM National NEPA Register.
SR011 Bureau of Land Management BLM National NEPA Register Explore links for the National Environmental Policy Act.
SR012 U.S. Department of Energy Earthshots Enhanced Geothermal Shot: Unlocking the Power of Geothermal Energy The Enhanced Geothermal Shot aims to dramatically reduce the cost of EGS by 90%, to $45 per megawatt-hour by 2035.
SR013 U.S. Department of Energy Office of Geothermal Geothermal power plants can operate at maximum capacity nearly all the time and balance intermittent sources of energy like wind and solar.
SR014 EurekAlert Quaise Energy supports Oregon State University work to transform clean energy with geothermal technology Controlled flow-through experiments can generate reliable data on fluid behavior, scaling, and rock–fluid interactions needed to design durable wells and reservoirs.
SR015 PR Newswire Momentum Accelerates. Cash Flow Improves. Nabors 2Q 2026 Results Nabors reported second quarter 2026 operating revenues of $815 million and adjusted EBITDA of $222 million.
SR016 Quaise Energy Hotter is Better: Part 1 Hotter rock can yield much more power per well than conventional geothermal resources.
SR017 Quaise Energy Clean Power Needs a Firm Footing Clean power needs a firm footing if it is going to replace thermal generation at scale.
SR018 Quaise Energy Tiers of Development: Part 2 Development proceeds through staged layers of risk reduction rather than one step.
SR019 Quaise Energy Experts Cite Challenges, Progress Toward Geothermal’s Holy Grail Other important challenges include electronics that can also withstand the extreme conditions and materials for lining and supporting the boreholes that can survive repeated thermal cycling.
SR020 Quaise Energy Geothermal energy has potential to be cost-competitive with other renewables and fossil fuels Geothermal energy has potential to be cost-competitive with other renewables and fossil fuels.
SR021 Quaise Energy Mining the heat below our feet could unlock clean energy for the world Mining the heat below our feet could unlock clean energy for the world.
SR022 Quaise Energy Conference indicates surging interest in superhot, superdeep geothermal energy Conference indicates surging interest in superhot, superdeep geothermal energy.
SR023 Quaise Energy Geothermal could become workhorse of the energy transition Geothermal could become the workhorse of the energy transition.
SR024 Quaise Energy Expert panel: Geothermal has huge potential as future energy source Expert panel: geothermal has huge potential as a future energy source.
SR025 Quaise Energy Meet Chris Hall Project Obsidian, located in Oregon, is well underway. For example, the Quaise team is in the process of drilling its first confirmation (test) well.
SR026 Quaise Energy Meet Kayla Grosskopf She’s also designed and built a hanger clamp to facilitate the addition and removal of waveguide.
SR027 Quaise Energy Meet Marco Quilico Marco Quilico is the company’s project manager.
SR028 Quaise Energy Meet Matt Houde AltaRock moved the ARPA-E award to Quaise.
SR029 JERA JERA Invests in Quaise Energy, a U.S. Growth-Stage Developer of Next-Generation Superhot Geothermal Energy Technology JERA invested in Quaise Energy to support next-generation superhot geothermal commercialization.
SR030 Idemitsu Kosan Idemitsu invests in Quaise Energy, Inc. Idemitsu invested in Quaise Energy to support the commercialization of superhot geothermal technology.
SR031 U.S. Environmental Protection Agency Class V Wells for Injection of Non-Hazardous Fluids into or Above Underground Sources of Drinking Water Complex Class V well types may include geothermal electric power wells.
SR032 U.S. Environmental Protection Agency Underground Injection Control Regulations UIC regulations implement the Safe Drinking Water Act for underground injection activities.
SR033 U.S. Environmental Protection Agency Site Information Request Fact Sheet Class V Underground Injection Control Geothermal Injection Well Class V wells that have the potential for ground water contamination or degradation are usually permitted.
SR034 Oregon Department of Environmental Quality Underground Injection Control DEQ issues permits to UIC system operators, handles enforcement of systems, and conducts rule revisions when program changes are necessary.
SR035 U.S. Geological Survey Induced Earthquakes As part of our work to better understand areas of induced earthquakes, the USGS installs seismometers in areas of increased seismicity and provides hazard estimations.
SR036 U.S. Environmental Protection Agency Protecting Underground Sources of Drinking Water from Underground Injection (UIC) EPA has ten regional offices. Each regional office oversees local state, territory, and tribal UIC activities.
SR037 Oregon Department of Geology and Mineral Industries Oregon Department of Geology and Mineral Industries DOGAMI is Oregon’s geology and mineral regulator.
SR038 Oregon Department of Geology and Mineral Industries Oregon Department of Geology and Mineral Industries geothermal permits DOGAMI provides geothermal permitting information for Oregon.
SV001 Quaise Energy Quaise Energy Raises $134 Million in First Close of Series B to Build World’s First Superhot Geothermal Power Plant The first close of the Series B brings Quaise’s total funding to date to $230 million.
SV002 Quaise Energy A First Look at Project Obsidian Project Obsidian is designed as Quaise’s first commercial power project.
SV003 TechCrunch Geothermal startup Quaise is raising $25M as it gears up for drilling Quaise was raising fresh capital as it geared up for drilling.
SV004 Canary Media Startup develops superhot geothermal in Oregon The project needs another $100 million in financing and another $100 million in grants and debt, Araque said.
SV005 ThinkGeoEnergy Quaise Energy closes $134m Series B funding round to support superhot geothermal project Quaise will also be raising additional capital to support the development of Project Obsidian.
SV006 Latitude Media Digging deep for super hot geothermal The economics work only if extreme heat translates into unusually high energy output per well.
SV007 Prelude Ventures Quaise Prelude lists Quaise as a portfolio company.
SV008 JERA JERA Invests in Quaise Energy, a U.S. Growth-Stage Developer of Next-Generation Superhot Geothermal Energy Technology JERA invested in Quaise Energy to support next-generation superhot geothermal commercialization.
SV009 Idemitsu Kosan Idemitsu invests in Quaise Energy, Inc. Idemitsu invested in Quaise Energy to support the commercialization of superhot geothermal technology.
SV010 U.S. Department of Energy Earthshots Enhanced Geothermal Shot: Unlocking the Power of Geothermal Energy The Enhanced Geothermal Shot aims to dramatically reduce the cost of EGS by 90%, to $45 per megawatt-hour by 2035.
SV011 U.S. Department of Energy Market Report Next-generation geothermal has attracted more than $1.5 billion in private capital since 2021.
SV012 U.S. Department of Energy Office of Geothermal Geothermal provides baseload power and delivers a high capacity factor—typically ~90%.
SV013 Fervo Energy Fervo Energy Raises $462 Million Series E to Accelerate Geothermal Development and Meet Surging Energy Demand with Clean, Firm Power Fervo closed an oversubscribed $462 million Series E funding round.
SV014 POWER Magazine Eavor’s First-of-Its-Kind Closed-Loop Geothermal Project Produces Grid Power in Germany Eavor’s Geretsried project marks the first time a closed-loop geothermal system has delivered electricity to a commercial power grid.
SV015 CleanEnergy.ca Canada Growth Fund Commits $138M to Scale Eavor’s Geothermal Technology Canada Growth Fund is investing up to $138 million to accelerate deployment of Eavor’s technology.
SV016 Chubu Electric Power Partial Commercial Operation Commences at Geretsried Geothermal Project in Germany The Geretsried Geothermal Project commenced partial commercial operation.
SV017 SLB Trailblazing advanced geothermal system excels with ranging services Drilling of the two wells simultaneously from different rigs successfully achieved interception on the first attempt at 7,805 m MD.
SV018 Google A first-of-its-kind geothermal project is now operational A first-of-its-kind geothermal project is now operational.
SV019 Ormat Technologies Investor Relations Ormat’s current total generating portfolio is 1.8 GW, with 1,340 MW of geothermal and solar generation and 495 MW of energy storage.
SV020 Green Stocks Research Geothermal Stocks: 6 Geothermal Energy Companies (2026) The geothermal stock list has a combined market cap of $27B and Ormat is the largest constituent at $7.1B.
SV021 Annual Technology Baseline Geothermal | Electricity | 2024 | ATB Near-term EGS costs are predictions because there are no commercial-scale dedicated EGS plants in operation in the United States.
SV022 Constellation Energy Constellation Completes Calpine Transaction, Powering America's Clean Energy Future With 55 gigawatts of capacity, Constellation and Calpine together will be the platform where new clean technologies can scale, including geothermal.
SV023 Access Industries Constellation to Acquire Calpine; Creates America’s Leading Producer of Clean and Reliable Energy to Meet Growing Demand for Customers and Communities The net purchase price is $26.6 billion, reflecting an attractive acquisition multiple of 7.9x 2026 EV/EBITDA.
SV024 SEC XBRL Viewer Ormat filed its 2025 annual report with the SEC.
SV025 SEC EDGAR Search Results EDGAR lists Ormat’s 10-K filing history.
SV026 Ormat Technologies Geothermal Power | Renewable Energy Expertise Ormat is a vertically integrated geothermal company.
SV027 Fervo Energy Fervo Energy - Next-Generation Geothermal Projects Fervo positions itself around next-generation geothermal projects.
SV028 Eavor Eavor - The World's First Scalable Form of Clean Baseload Power Eavor describes itself as the world’s first scalable form of clean baseload power.
SV029 Eavor Newsroom / Media - Eavor Eavor maintains a media page for commercialization updates.
SV030 Calpine News Calpine maintains a public news page for corporate updates.