No PriorsNo Priors Ep. 136 | Base Power CEO and Co-Founder Zach Dell
CHAPTERS
- 0:00 – 1:16
Why energy costs matter: the universal input to everything
Elad frames electricity as a foundational input to nearly every product and service, from manufacturing to AI data centers. This sets up the episode’s central idea: cheaper, more reliable power unlocks new capabilities across the economy.
- •Energy is a key cost driver for virtually all goods and services
- •Cheaper electricity can create new markets and lower costs broadly
- •Conversation focus: Base Power and the broader energy system context
- 1:16 – 2:15
Base Power’s mission and the solar+storage paradigm shift
Zach explains Base Power’s mission to create energy abundance by lowering electricity costs and improving reliability. He describes his path from finance to energy and why he believes the next decades will be defined by solar and storage.
- •Mission: lower electricity costs for all while increasing reliability
- •Zach’s background: Blackstone PE and Thrive investing
- •Thesis: energy is shifting from coal/gas era to solar+storage era
- •Gap: lack of a major energy platform company built around solar+storage
- 2:15 – 3:31
What Base Power sells: vertically integrated home batteries + retail power
Zach details how the newly raised capital accelerates vertical integration: designing, manufacturing, installing, owning, and operating home batteries. Base becomes the electricity provider (currently in Texas), using the batteries to serve the grid and provide backup power to homeowners.
- •Capital goes to scaling vertical integration to compound cost advantages
- •Base provides retail electricity service (Texas first) plus tech for regulated utilities
- •Home battery installed: grid services when grid is up, backup when down
- •Customer value: ~10–20% monthly bill savings; improving reliability
- 3:31 – 4:00
The “distributed power plant” model and grid market participation
Elad and Zach clarify the system-level concept: thousands of coordinated batteries function like a virtual power plant. Software connects assets and bids flexibility into electricity markets to generate revenue that funds lower customer prices.
- •Networked batteries behave as a single distributed power plant
- •Software orchestrates dispatch and market bidding
- •Revenue from grid services subsidizes customer savings
- •Core capability: intelligent response to supply/demand fluctuations
- 4:00 – 5:11
Why Zach chose energy: the playbook of tech-led disruption
Zach traces his motivation back to college projects (e.g., solar development) and his finance exposure to energy value chains. At Thrive, he saw a repeatable pattern—engineering-led companies disrupting incumbent industries—and he wanted to apply it to electricity.
- •Early interest: hands-on solar project work in college
- •Finance lens: long-term study of energy value chain economics
- •Pattern match: Tesla/SpaceX/Anduril-style disruption hadn’t happened in power
- •Ambition: build an engineering-led, R&D-driven modern power company
- 5:11 – 6:57
Building the founding team: SpaceX/Anduril/Tesla operators meet software
Zach describes Base Power as a complex coordination problem requiring excellence across hardware, manufacturing, deployments, and software. He highlights early leaders from SpaceX, Anduril, Starlink, and Tesla, and explains how early hiring shaped the company as it scaled to ~250 people.
- •Multidisciplinary execution risk requires world-class domain experts
- •Key early hires across manufacturing, supply chain, hardware, software, growth, deployments
- •Many top leaders were among the first ~10 hires, strongly shaping culture
- •Company scale: grew from ~10 to ~250 while leaders remain hands-on ICs
- 6:57 – 8:02
Hiring priorities and scaling constraints: factory buildout and talent bottleneck
Zach shares current hiring needs across nearly every function, emphasizing engineering roles spanning firmware to cloud. With demand outpacing supply, Base is standing up a factory in Austin, making talent the primary limiting factor.
- •Hiring broadly: software, hardware, finance, go-to-market, regulatory, manufacturing, deployments
- •Priority areas: firmware, power electronics, mechanical/design engineering, full-stack software
- •Demand exceeds current ability to serve customers
- •Austin factory ramp is a key near-term scaling initiative
- 8:02 – 9:50
Recruiting elite ICs early: mission, hard problems, and upside
Zach explains how Base attracted senior talent early by offering a globally meaningful mission and technically difficult problems. He also notes the importance of enjoyable teammates/culture and strong economic upside from building a potentially massive company.
- •Top talent gravitates toward hardest problems and biggest missions
- •Energy reliability and rising bills are visceral, widely felt problems
- •Endless pipeline of complex challenges across markets/products
- •Economic upside matters alongside mission and day-to-day enjoyment
- 9:50 – 11:25
Meeting surging electricity demand: unlock latent capacity with storage
The discussion shifts to macro demand growth and how the grid can handle it. Zach argues demand forecasts may be understated and that the near-term constraint is using existing capacity better—time-shifting electricity with batteries and software—alongside building more generation.
- •Demand growth could accelerate significantly (and may be underestimated)
- •Not ‘running out’ of energy—inefficient utilization is the issue
- •Large gap between peak capacity and average demand implies latent capacity
- •Batteries + software can time-shift load to access existing headroom
- 11:25 – 14:16
Solar cost curves, geography, and the nuclear question
Zach and Elad cover solar’s rapid cost and deployment progress, noting significant state-by-state variation based on sunlight and policy. They examine nuclear’s challenges—cost and speed—while concluding storage is essential to firm intermittent generation and reduce the landed cost of energy.
- •Solar and batteries continue to decline on cost; deployment accelerating
- •Solar penetration varies by geography (e.g., higher in TX/CA/sunbelt)
- •Solar cost declines driven by capex (including major Chinese subsidies)
- •Nuclear may help, but today it’s too slow/expensive; solar+storage may outrun it
- •Storage is central to reliability and economics for intermittent sources
- 14:16 – 16:25
Distributed grid vs poles-and-wires: lowering the landed cost of the electron
Zach frames Base as competing more with transmission and distribution (moving energy through space) than with generation types. The core insight is shifting toward a distributed grid where storage helps match supply and demand locally and over time, reducing the full delivered (“landed”) cost.
- •Batteries move energy through time; wires move energy through space
- •Distributed assets reduce dependency on expensive transmission buildouts
- •Focus on landed cost (generation + delivery) rather than generation alone
- •Future product roadmap: more distributed, tech-defined reliability/cost tools
- 16:25 – 18:31
Where cheap power will cluster: AI training hubs, the Gulf, Texas, and China
They discuss how energy cost and regulation shape where compute and heavy industry locate. Zach argues energy-intensive AI training and infrastructure will concentrate in low-cost power regions like Texas and the Gulf, while noting China’s current advantage due to massive supply buildout.
- •Lower-cost electricity attracts energy-intensive workloads and industrial hubs
- •AI training centers likely to cluster in Texas and the Gulf (observed in current projects)
- •China is currently a low-cost electricity leader due to broad supply buildout
- •US opportunity: stimulate comparable buildout via supportive policy and investment
- 18:31 – 20:38
What drives buildout: batteries as the key unlock, plus regional generation mixes
Zach argues batteries are the central enabling layer for the energy transition, with cost-reduction opportunities across hardware and soft costs like EPC, logistics, and software monetization. He also emphasizes that optimal generation depends on local resources (solar/wind vs hydro, etc.).
- •Batteries unlock flexibility and accelerate the energy transition
- •Cost stack includes cells/modules/electronics plus EPC, logistics, software, monetization
- •Hope for breakthroughs in nuclear/geothermal/hydro, but economics must work
- •Energy solutions differ by geography based on available resources
- 20:38 – 23:05
Why transmission costs rise: regulated utility incentives and market structure
Zach explains how regulated monopolies earn returns on capex, creating incentives to build rather than innovate, contributing to rising delivery costs. They cover FERC vs Texas’s ERCOT exception, why broad deregulation stalled after California/Enron, and the inherent complexity of grid infrastructure.
- •Electricity price = cost to make electrons + cost to move electrons
- •Generation costs have fallen; transmission/distribution costs have risen
- •Utilities earn regulated returns on capex, biasing toward build over innovation
- •Texas ERCOT: different regulatory structure and more competition than most states
- •Grid complexity and ‘one wire per home’ dynamics complicate deregulation
- 23:05 – 24:42
Policy wish list and reasons for optimism: permitting, price signals, talent inflow
Zach highlights reforms that could accelerate supply: faster permitting, shorter interconnection queues, and broader exposure to price signals that reward flexibility. He’s optimistic that more top engineers and operators will enter the electricity sector and build new companies to drive costs down and reliability up.
- •Permitting and interconnection delays are major blockers to new supply
- •Markets need better price signals to reward flexible consumption and storage
- •More competition where feasible can unlock innovation
- •Optimism: talent will increasingly view electricity as a top-tier engineering frontier
- 24:42 – 27:25
Culture at Base: urgency with focus, radical metric visibility, flat feedback loops
Elad asks about Base’s “buzzy” environment; Zach attributes it to both hiring and intentional cultural practices. He describes intense urgency paired with ruthless prioritization, high transparency via ubiquitous metrics dashboards, a flat structure with direct feedback, and a competitive-but-fun ethos.
- •Cultural pillars: urgency + focus; ruthless prioritization around clear north stars
- •High transparency: TVs/metrics everywhere to reinforce what matters
- •Flat structure and rapid, direct feedback to develop young talent quickly
- •Competitive framing (‘we’re here to win’) while keeping work enjoyable
- 27:25 – 31:57
Capitalization strategy and the scale flywheel: cost of capital + tech innovation
Zach outlines how a capital-intensive business must secure low-cost capital as a competitive advantage, distinguishing opex (path to profitability) from capex (asset deployment at scale). He closes with the commodity flywheel: scale lowers costs, enabling lower prices, which increases demand—while emphasizing technology and innovation as the dominant driver of cost-down.
- •Low cost of capital enables lower pricing and stronger competitiveness
- •Opex vs capex: operational profitability can arrive sooner; capex requires large pools of capital
- •Long-term ambition requires raising billions; $1B is ‘ante’ at the table
- •Commodity flywheel: scale → lower costs → lower prices → more demand → more scale
- •Tech/innovation drives most cost reductions; financing amplifies the edge
