Zero Industries
Developing Helios, a space-based power service that uses lasers to deliver electricity from satellites.
Website: https://zero.space/
Cover Block
From the public record
| Field | Value |
|---|---|
| Name | Zero Industries |
| Tagline | Developing Helios, a space-based power service that uses lasers to deliver electricity from satellites. [Automation World, October 2026] |
| Headquarters | San Francisco, United States [nStartup, October 2026] |
| Founded | 2025 [Automation World, October 2026] |
| Stage | Pre-seed [Automation World, October 2026] |
| Business Model | Hardware + Software |
| Industry | Deeptech |
| Technology | Space |
| Geography | East Asia |
| Growth Profile | Venture Scale |
| Founding Team | Co-Founders (3+), Kai Sugihara, Yusei Fujii, Koya Tani [Automation World, October 2026] |
| Funding Label | Pre-seed |
| Total Disclosed | ~$3,000,000 [Automation World, October 2026] |
Links
From the public record
- Website: https://zero.space/
- Apple Podcasts: https://podcasts.apple.com/us/podcast/ai-with-kai/id1678032422?i=1000771146779
- LinkedIn: https://www.linkedin.com/in/kai-sugihara-228b76363/
- X / Twitter: https://x.com/Kai_Sugihara
The Short Version
PUBLIC Zero Industries is developing Helios, a space-based power service intended to transmit electricity by laser from power-generating satellites to other spacecraft, a concept that merits attention now because the company has already secured a $3 million pre-seed round despite being founded in 2025 and operating at a very early technical stage [Automation World, October 2026] [Zero Industries] [nStartup, October 2026]. The near-term story is unusually compact: the company was founded in 2025, announced its financing on October 22, 2026, and says the round will support technology development, prototype work, engineering hiring, and industrial partnerships [Automation World, October 2026] [Real Sound Tech, October 2026].
The product architecture, as described by the company and subsequent coverage, pairs a power-transmission satellite called Helios Beam with a receiving module called Helios Cell and a control layer called Helios Grid; the differentiation rests less on a single component than on an integrated attempt to make external power delivery usable for spacecraft that would otherwise need to carry more onboard generation capacity [Zero Industries] [Real Sound Tech, October 2026] [Dealroom.co]. The stated initial customer categories are Earth-observation satellites, orbital-transfer vehicles, and satellite servicing missions, with a reported 2030 target for a satellite-to-satellite power transmission demonstration [nStartup, October 2026] [Gizmodo Japan, October 2026].
The founding team is also a central part of the investor case. Automation World identified founder and CEO Kai Sugihara as 16 at the time of the funding announcement, with co-founder and CTO Yusei Fujii at 19 and co-founder and COO Koya Tani at 20, which makes this a notably young team for a capital-intensive space systems effort [Automation World, October 2026]. Publicly available materials show ambition and early company-building activity around Sugihara, but the current record is still thin on independently verified technical execution history at aerospace scale, so the relevant question is less vision than whether the team can convert concept into credible hardware milestones [Automation World, October 2026] [LinkedIn, 2026] [Apple Podcasts, 2026].
On funding, the public record is straightforward on amount and lead investor: Maezawa Fund led the $3 million pre-seed round, with participation from UntroD Capital Japan, NOW, and Midtown, while Japanese coverage described the raise as approximately 5470 million [Automation World, October 2026] [Real Sound Tech, October 2026]. The business model appears to combine hardware and software through the Helios system stack, but the next 12 to 18 months should be watched for evidence of prototype progress, technical validation, named industrial partners, and any early customer development beyond target use cases [Zero Industries] [Automation World, October 2026].
Unconfirmed -- This section mixes independently reported funding and team facts with company-described product claims that remain lightly corroborated by third-party coverage.
Taxonomy Snapshot
| Axis | Value |
|---|---|
| Stage | Pre-Seed |
| Business Model | Hardware + Software |
| Industry / Vertical | Deeptech |
| Technology Type | Space |
| Geography | East Asia |
| Growth Profile | Venture Scale |
| Founding Team | Co-Founders (3+) |
| Funding | Pre-seed, total disclosed ~$3,000,000 |
The Company in Brief
PUBLIC Zero Industries presents itself as a company focused on expanding available energy through physical infrastructure, with Helios positioned as its lead product family [Zero Industries]. The company was founded in 2025, is headquartered in San Francisco, and is described in the source set as a public-benefit corporation [Zero Industries]. That framing matters because the public materials are unusually mission-forward for a company this early, but the verifiable corporate picture remains narrow: the website establishes the company name, product architecture, and stated purpose, while third-party filing evidence was not included in the provided source set [Zero Industries].
The timeline, on public evidence, is still short. The company website identifies Helios, Helios Beam, Helios Cell, Helios Grid, and Power Credit as named parts of the platform architecture, indicating that the product taxonomy was already defined by the time of capture [Zero Industries]. A separate team page in the source set states that Kai Sugihara founded and incorporated Zero in 2025 and serves as chief executive, which aligns with the structured founding year but remains company-supplied background rather than independently corroborated corporate filing data [Zero Industries].
The first clearly dated milestone in the public record is the October 2026 pre-seed announcement, but the financing details sit outside the narrow source set permitted for this section and therefore are better treated as context than as a core corporate fact here. On the evidence allowed, the company overview reads as a newly formed San Francisco space-energy startup with a defined product concept, named leadership, and an early institutional presence on its own site, while several legal-entity specifics still require direct filing verification [Zero Industries].
Unconfirmed -- Confirmed primarily by the company website; no state filings or Crunchbase evidence were included in the allowed source set for this section.
What They Have Built
Mixed sourcing
Zero Industries is pitching a power layer for spacecraft, not a conventional satellite component vendor. Public materials describe Helios as a space-based power service that uses lasers to deliver electricity from power-generating satellites to other spacecraft, with the core argument that satellites could receive energy externally rather than carrying all generation capacity onboard [Zero Industries] [nStartup, October 2026] [Dealroom.co].
The disclosed product architecture is a three-part system. Zero’s website names Helios Beam, which “moves power from where it is generated to where it is needed,” Helios Cell, which captures power at the point of use and stores it until needed, and Helios Grid, which connects the two into a network and decides where power goes [Zero Industries]. Press coverage in Japan and the U.S. describes the same stack as a power-transmission satellite, a customer-mounted receiving module, and an operating system for managing delivery [Real Sound Tech, October 2026] [Automation World, October 2026]. The product framing is consistent across sources, although no public technical specifications, test results, or verified in-orbit demonstrations were identified in the available materials [Zero Industries] [nStartup, October 2026].
The announced use cases are also narrow enough to be legible. Zero says it is initially targeting Earth-observation satellites, in-space transportation or orbital-transfer vehicles, and satellite servicing or inspection-and-repair spacecraft, with a longer-range ambition to support power-hungry infrastructure such as space data centers, orbital factories, and lunar facilities [nStartup, October 2026] [Gizmodo Japan, October 2026]. The only dated technical milestone surfaced in public reporting is the company’s aim to demonstrate satellite-to-satellite power transmission by 2030, according to Gizmodo Japan [Gizmodo Japan, October 2026]. For context rather than direct comparability, space-based power transfer has prior precedent at the terrestrial test level, including Mitsubishi Heavy Industries’ reported 10 kilowatt transmission experiment over 500 meters in 2015 [Wikipedia].
Single-source, plausible -- Product architecture is corroborated by the company website and multiple press reports, but performance claims and technical maturity remain largely company-described, with no verified public demo data.
Market Size and Demand
From the public record
The market matters now because Zero Industries is trying to sell power as an orbital service into a space economy that is adding satellites faster than it has solved their energy constraints, but the addressable market still has to be triangulated through adjacent public datasets rather than direct category reports [Gizmodo Japan, October 2026] [Zero Industries].
No cited third-party source in the record provides a direct TAM, SAM, or SOM for satellite-to-satellite power transmission, so the cleanest public approach is to treat this as an analogous-market exercise. The nearest public analog in the source set is space-based solar power and power-beaming infrastructure more broadly, which establishes technical lineage rather than a bankable market figure [Wikipedia]. That matters because Zero's wedge is not terrestrial electricity generation, but an in-space service layer for spacecraft that would otherwise carry more onboard power hardware, according to the company and deal coverage [Dealroom.co] [nStartup, October 2026].
Demand drivers are visible in the use cases Zero itself and coverage around the round keep returning to: Earth observation, in-space transportation, and satellite servicing [nStartup, October 2026] [Gizmodo Japan, October 2026]. Those are all mission profiles where power availability can constrain payload, maneuvering, or operating time, and where a credible external power source could change spacecraft design tradeoffs if it works as described [Dealroom.co] [Zero Industries]. The near-term tailwind is less a proved procurement budget and more a broader industry push toward more capable orbital infrastructure, with higher compute, longer-duration operations, and greater need for maneuverability all implied by the company's stated positioning [Zero Industries] [Real Sound Tech, October 2026].
Adjacent markets are easier to name than size from the current evidence. Zero sits at the overlap of satellite components, in-space logistics, orbital servicing, and space-based solar power research [Wikipedia] [Gizmodo Japan, October 2026]. Substitute solutions today are onboard solar generation, batteries, and mission architectures built around strict power budgeting, which is exactly the operating baseline Zero is trying to improve upon, according to its product description [Zero Industries] [Dealroom.co].
Regulatory and macro forces cut both ways. The positive side is that governments and primes have long treated power beaming and space-based energy as strategic research areas, and the 2015 Mitsubishi Heavy Industries demonstration cited in the source set shows the underlying concept has precedents in industry experimentation, even if that demonstration was terrestrial and at short range relative to Zero's ambition [Wikipedia]. The limiting side is that moving from lab-scale or atmospheric demonstrations to operational orbital power delivery likely introduces launch, spectrum, safety, export-control, and space traffic management questions that are not resolved in the public materials reviewed here [Automation World, October 2026] [Zero Industries].
| Market lens | Public claim or proxy | Relevance to Zero |
|---|---|---|
| Direct market sizing | No third-party TAM/SAM/SOM identified in cited sources | Means the category is still pre-definition in public market data |
| Analogous technical market | Space-based solar power coverage documents a longstanding technical field [Wikipedia] | Supports technical lineage, not commercial demand proof |
| Near-term customer proxy | Earth observation, in-space transportation, and satellite servicing are named target use cases [nStartup, October 2026] [Gizmodo Japan, October 2026] | Indicates where Zero may look for early adoption if external power improves mission economics |
| Substitute baseline | Spacecraft typically rely on onboard generation, storage, and power management, as implied by Zero's positioning [Zero Industries] [Dealroom.co] | Clarifies the incumbent alternative the company must beat |
The table underscores the central analytical point: the market story is plausible, but still category-first rather than budget-line-first. Public evidence supports a real technical problem and several logical customer segments, but it does not yet support a quantified commercial market case specific to orbital power delivery.
Inferred, not confirmed -- This section relies on company materials and a limited set of media reports for use cases and positioning, with no independent third-party market sizing identified in the cited public sources.
Who Else Is Fighting for This
MIXED Zero Industries is positioning Helios less against a single named rival than against the default architecture of self-powered spacecraft, which makes the real competition a mix of incumbent satellite design choices, adjacent power-beaming research programs, and any operator that can extend mission life without buying external orbital energy [Zero Industries] [Automation World, October 2026] [Gizmodo Japan, October 2026].
The public record here is thin, so the competitive map has to be drawn from first principles rather than a clean roster of funded peers. On one side sit incumbents in spacecraft manufacturing and subsystem supply, whose current products are built around onboard generation and storage rather than an external power network [Zero Industries] [nStartup, October 2026]. On another sit adjacent technical programs in space-based solar power and wireless power transmission, including research efforts such as Mitsubishi Heavy Industries' 2015 demonstration of 10 kilowatts transmitted 500 meters to a receiver, which is relevant as technical precedent but not evidence of a directly competing commercial service [Wikipedia]. The third category is substitution: operators of Earth observation satellites, orbital-transfer vehicles, and servicing craft can continue to buy larger power budgets, more efficient energy management, or shorter mission profiles instead of redesigning around a third-party charging layer [nStartup, October 2026] [Dealroom.co].
Zero's clearest edge today is conceptual coherence rather than proven market control. The company is presenting Helios as an integrated stack, Helios Beam for transmission, Helios Cell for reception, and Helios Grid for allocation, which matters because a power-delivery service in orbit is only useful if generation, receiving hardware, and network control are designed together [Zero Industries] [Real Sound Tech, October 2026]. That edge is still perishable. There are no public customer names, deployments, or industrial partnerships yet, so the advantage remains one of product framing and ambition, not demonstrated distribution, regulatory position, or embedded installed base [nStartup, October 2026] [Automation World, October 2026].
The exposure is easier to specify than the moat. If incumbent spacecraft primes or well-capitalized space infrastructure companies decide that external power transfer is strategically important, they would likely start with stronger manufacturing depth, more flight heritage, and existing buyer access than Zero currently shows in public materials [Automation World, October 2026] [Real Sound Tech, October 2026]. Zero is also exposed to the possibility that adjacent research groups remain ahead on transmission physics while customers delay adoption until the service clears a much higher reliability threshold. In that scenario, the limiting factor is not vision but qualification, because mission operators tend to buy around technical risk when payload uptime is at stake [Gizmodo Japan, October 2026] [Wikipedia].
The most plausible 18-month scenario is a sorting process between concept leaders and execution leaders. Zero is the winner if the next phase is defined by attracting early design partners around a new category, since its public narrative is already tightly aligned to a specific use case, in-space charging for power-constrained spacecraft [Zero Industries] [nStartup, October 2026]. Mitsubishi Heavy Industries is the winner if the next phase is defined mainly by proof of transmission performance and industrial credibility, because it already has a cited demonstration in the broader wireless power field [Wikipedia]. Zero is the loser if the category stays in laboratory or pilot mode longer than expected and satellite operators keep preferring conventional onboard power architectures, which would leave the company competing against established procurement habits rather than against a single startup peer [Gizmodo Japan, October 2026] [Zero Industries].
Opportunity
Upside case
PUBLIC The prize here is unusually large because Zero Industries is attempting to sell a new utility layer in orbit, not a single satellite component, and utility layers can matter far beyond the first hardware sale if they become part of how other systems are designed [Zero Industries] [Automation World, October 2026].
The headline opportunity is to become the default external power network for energy-constrained spacecraft, beginning with satellites that benefit from shifting mass away from onboard generation and toward payload, compute, or propulsion [Dealroom.co] [nStartup, October 2026]. In plain terms, if Helios works as described, operators would no longer need to treat power as a fixed constraint on every mission because generation, transmission, receiving hardware, and software coordination would be offered as a service layer through Helios Beam, Helios Cell, and Helios Grid [Zero Industries] [Real Sound Tech, October 2026]. That outcome is still early and unproven, but it is reachable enough to analyze because the company has already articulated a full-stack architecture, named initial customer categories, and raised a disclosed $3 million pre-seed round led by Maezawa Fund to fund prototypes, hiring, and industrial partnerships [Real Sound Tech, October 2026] [Automation World, October 2026].
The public evidence points to a business that is trying to define a category before incumbents treat the category as real. Zero's near-term wedge is narrower than the long-range vision suggests: initial targets are Earth observation, in-space transportation, and satellite servicing, each of which has a direct reason to value additional power or lower onboard power burden [nStartup, October 2026] [Gizmodo Japan, October 2026]. If a 2030 satellite-to-satellite demonstration occurs as planned, that would move the concept from architectural argument to operational proof, which is the threshold at which adjacent customers and larger industrial partners are more likely to engage [Gizmodo Japan, October 2026].
| Scenario | What happens | Catalyst | Why it's plausible |
|---|---|---|---|
| Orbital charging wedge | Zero wins early adoption in a narrow set of power-constrained spacecraft, especially Earth observation and servicing missions, then turns those deployments into a repeatable service model | A successful in-orbit demonstration of satellite-to-satellite power transmission targeted for 2030 [Gizmodo Japan, October 2026] | The company has already defined those customer categories publicly and built its initial product around transmission, receiving, and network management rather than a one-off subsystem [nStartup, October 2026] [Real Sound Tech, October 2026] |
| Standards and infrastructure layer | Helios Grid and the paired Beam and Cell hardware become a reference architecture for third-party spacecraft builders that want externalized power access | An industrial partnership or design-in with a spacecraft manufacturer, which the company says it intends to pursue with proceeds from the pre-seed round [Automation World, October 2026] | Zero is positioning itself as a full system, not just a payload, and the website frames Beam, Cell, and Grid as an integrated network with settlement through Power Credit [Zero Industries] |
| New orbital economy utility | External power delivery becomes enabling infrastructure for higher-energy use cases such as orbital factories, data centers, or lunar systems, with Zero as an early control point | Category expansion beyond initial satellite markets after technical validation in nearer-term use cases [Zero Industries] [Gizmodo Japan, October 2026] | The company has already stated those longer-term targets, and the broader technical field has prior evidence that wireless power transmission is physically demonstrable, even if space deployment remains a much harder step [Zero Industries] [Wikipedia] |
The compounding dynamic, if it appears, would come from product architecture and ecosystem position rather than from simple volume manufacturing alone. A spacecraft that adopts Helios Cell and integrates with Helios Grid is not merely buying hardware once, it is making design choices around how power is received, stored, allocated, and potentially settled across a network [Zero Industries] [Real Sound Tech, October 2026]. That creates the possibility of distribution lock-in at the interface level: more compatible spacecraft makes Helios Beam assets more useful, while more beam capacity makes Helios Cell integration more attractive for later missions. The evidence that this flywheel has started is still thin in public, since no deployments or named partnerships are confirmed, but the company's system-level framing and explicit inclusion of an operating system and a settlement unit suggest an ambition to own network coordination, not just transmission equipment [Zero Industries] [nStartup, October 2026].
The size of the win is best framed as a category-creation outcome rather than a near-term revenue multiple. No credible public market comparable or third-party market sizing study is confirmed in the provided source set, so a precise valuation anchor would be false precision. Even so, if the "standards and infrastructure layer" scenario plays out and Zero becomes a default power-service interface for a meaningful share of commercial spacecraft, the company could plausibly support infrastructure-like value because it would sit at a recurring control point in mission operations rather than at a one-time component sale (scenario, not a forecast) [Zero Industries] [Automation World, October 2026]. In that sense, the upside is not that Zero sells better satellite hardware than peers. It is that it changes how future spacecraft budget power at the system level.
Unconfirmed -- This section relies partly on company and company-amplified product claims, with funding corroborated by named publisher coverage including Automation World and Real Sound Tech.
Sources
From the public record
[Automation World, October 2026] Q&A: 16-Year-Old CEO Aims To Shift Energy Generation and Distribution | https://www.automationworld.com/business-intelligence/news/55413818/qa-16-year-old-ceo-aims-to-shift-energy-generation-distribution
[Zero Industries] Zero Industries | https://zero.space/
[nStartup, October 2026] Zero Industries Raises $3 Million to Beam Power to Satellites | https://nstartup.me/news/d2de43fc-d72a-4ff5-bb8a-d50077c3f067
[Real Sound Tech, October 2026] 宇宙電力インフラ構築を目指すZero Industriesが約4.7億円を調達 CEOは16歳の杉原海 | https://realsound.jp/tech/2026/10/post-2562537.html
[Dealroom.co] Zero Industries raises $3M in record Japanese pre-seed for orbital power | https://app.dealroom.co/news/note/zero-industries-raises-3m-in-record-japanese-pre-seed-for-orbital-power
[Gizmodo Japan, October 2026] 経営陣は16歳・19歳・20歳。「宇宙の電力会社」スタートアップが設立6か月で4.7億円集めた | https://news.yahoo.co.jp/articles/38194e1e03898d18cae48b6e9fd645ff21da868b
[LinkedIn, 2026] Kai Sugihara - Zero Industries | LinkedIn | https://www.linkedin.com/in/kai-sugihara-228b76363/
[Apple Podcasts, 2026] AI with Kai - New Podcasts - trailers for new and noteworthy shows | https://podcasts.apple.com/us/podcast/ai-with-kai/id1678032422?i=1000771146779
[Wikipedia] Space-based solar power | https://en.wikipedia.org/wiki/Space-based_solar_power
Articles about Zero Industries
- Zero Industries' $3 Million Pre-Seed Funds a Laser Power Grid for Satellites — The San Francisco startup, led by a teenage founder, plans a 2030 demonstration of its satellite-to-satellite laser power transmission system.