Skorbitron Technologies Private Limited

Developing autonomous satellite collision-avoidance systems using LiDAR, AI, and orbital mechanics.

Cover Block

Public sources

Field	Detail
Company	Skorbitron Technologies Private Limited
Tagline	Developing autonomous satellite collision-avoidance systems using LiDAR, AI, and orbital mechanics [OrbitArch].
Founded	2025 [Perplexity Sonar Pro Brief, March 2025]
Stage	Pre-Seed
Business model	Hardware + Software
Industry	Deeptech
Technology	Space
Geography	South Asia
Growth profile	Venture Scale
Founding team	Co-Founders (3+): Naman Chawla, Krishna Nagpal, Sachi Patel [LinkedIn, 2026] [Perplexity Sonar Pro Brief, March 2025]

Executive Summary

PUBLIC Skorbitron Technologies Private Limited is building autonomous satellite collision-avoidance systems under the OrbitArch brand, a technically ambitious bet on onboard sensing and decision-making that has started to surface in public industry forums despite a still-thin commercial record [International Astronautical Federation, January 2025] [OrbitArch] [Aviation & Defence Universe, December 2025]. The timing matters because the company appears to be very early, incorporated on 4 March 2025 according to reviewed corporate-record summaries, yet it is already framing a response to a real bottleneck in orbital operations: delayed debris and conjunction awareness from ground-based tracking alone [PERPLEXITY SONAR PRO BRIEF, March 2025] [NIDHI PRAYAS].

Public materials describe OrbitArch as a system that combines LiDAR, onboard AI, and orbital mechanics so satellites can detect collision risk and maneuver autonomously, with the stated wedge being real-time in-orbit situational awareness rather than ground-led response loops [OrbitArch] [International Astronautical Federation, January 2025] [NIDHI PRAYAS]. That product position is interesting on paper, and it is at least partly supported by technical work, including a published research item on a LiDAR-enhanced reinforcement-learning architecture for sub-second autonomous collision avoidance in mega-constellation satellites [ResearchGate, November 2025].

The founding story is unusually young even by student-startup standards. Public profile material and reported coverage link the company to BITS Pilani founders Naman Chawla, Krishna Nagpal, and Sachi Patel, with Chawla identified as CEO and Patel as COO, while corporate-record summaries list all three as directors or signatories from the March 2025 incorporation date [LinkedIn, 2026] [SATShow Week Startups of 2026, 2026] [PERPLEXITY SONAR PRO BRIEF, March 2025].

The financing picture remains sparse. No verified venture round, lead investor, or valuation appears in the reviewed public record, and the only cited capitalization figures are authorized share capital of ₹10.00 lakh and paid-up capital of ₹1.00 lakh from incorporation records, which should not be read as evidence of institutional fundraising [PERPLEXITY SONAR PRO BRIEF, March 2025].

The business model is best understood, conservatively, as hardware plus software for satellite operators and related commercial or institutional space users, but there is no public evidence yet of paying customers, signed deployments, or production contracts [PERPLEXITY SONAR PRO BRIEF] [Aviation & Defence Universe, December 2025]. Over the next 12 to 18 months, the main markers to watch are straightforward: whether the company can convert technical credibility into named pilots or operator partnerships, whether its sensing and autonomy claims mature beyond company description into third-party validation, and whether any formal pre-seed financing emerges on record [OrbitArch] [International Astronautical Federation, January 2025] [Aviation & Defence Universe, December 2025].

Company-stated, unverified -- This section relies materially on company materials and a research brief, with partial corroboration from industry profiles and reported founder biographies, but no independently verified funding or commercial traction.

Taxonomy Snapshot

Axis	Value
Stage	Pre-Seed
Business Model	Hardware + Software
Industry / Vertical	Deeptech
Technology Type	Space
Geography	South Asia
Growth Profile	Venture Scale
Founding Team	Co-Founders (3+)

How the Company Got Here

PUBLIC

Skorbitron Technologies Private Limited enters the public record first as a legal entity, not as a financed startup. Incorporation records cited in the available research indicate the company was incorporated on 4 March 2025, with Naman Chawla, Krishna Nagpal, and Sachi Patel listed as directors or signatories from that date [OrbitArch, March 2025]. The same public summary ties Skorbitron to OrbitArch, the operating venture presented on the company website as focused on autonomous satellite collision avoidance [OrbitArch].

The chronology is still thin, but it is clear enough to sketch the early shape of the company. The OrbitArch website describes the project as a Skorbitron Technologies venture working on AI-powered space sustainability and autonomous collision-avoidance systems [OrbitArch]. A separate public profile from the International Astronautical Federation also describes OrbitArch as associated with Skorbitron and focused on combining AI, LiDAR, and orbital mechanics for satellite maneuvering, which provides limited third-party corroboration of the company's stated direction [International Astronautical Federation, January 2025]. Headquarters were not confirmed in the reviewed filings or company materials.

Public capital signals remain preliminary rather than venture-validated. Incorporation-linked records cited in the research show authorized share capital of ₹10.00 lakh and paid-up capital of ₹1.00 lakh, but those figures speak to company formation rather than an outside financing round [OrbitArch, March 2025]. No confirmed institutional funding round, accelerator affiliation, or named investor appears in the public materials reviewed for this section [OrbitArch, March 2025].

Lightly corroborated -- Based primarily on company website material and incorporation details cited in the reviewed research, with partial corroboration from the International Astronautical Federation profile.

Product and Technology

Product surface

MIXED The public record is still narrow, but it is consistent on the core product claim. Skorbitron Technologies presents OrbitArch as an autonomous satellite collision-avoidance system intended to help satellites identify collision risks and maneuver without waiting for ground-based instructions [OrbitArch] [International Astronautical Federation, January 2025]. A separate NIDHI PRAYAS listing describes the same concept in slightly more technical terms, citing real-time LiDAR sensing and onboard AI as the basis for autonomous debris avoidance [NIDHI PRAYAS].

The most useful distinction here is between the problem being addressed and the level of proof disclosed so far. Public materials and industry profiles repeatedly frame OrbitArch around in-orbit situational awareness and faster collision-response logic, with LiDAR, AI, and orbital mechanics as the stated technical stack [OrbitArch] [Aviation & Defence Universe, December 2025] [International Astronautical Federation, January 2025]. What the company has not yet shown in public, at least in the cited sources, is a verified deployment, performance benchmark, or customer-operated demonstration.

Technical evidence

MIXED The strongest external signal that there is real technical work behind the concept is a published research item on a "LiDAR-Enhanced Reinforcement-Learning Architecture for Sub-Second Autonomous Collision Avoidances in Mega-Constellation Satellites," dated November 2025 [ResearchGate, November 2025]. That does not validate commercial readiness, but it does suggest the team is engaging with a specific autonomy architecture rather than speaking only in category terms. Separate 2026 third-party profiles describe OrbitArch as building AI-enabled tools for future collision detection and autonomous maneuver support, which is directionally consistent with the company's own framing [SATShow Week, 2026] [mach33.aero, 2026].

There is, however, some inconsistency in how the sensing layer is described across sources. Most sources cite LiDAR plus onboard AI [OrbitArch] [NIDHI PRAYAS] [International Astronautical Federation, January 2025], while Via Satellite's Startup Space 2026 coverage refers to OrbitArch as a quantum radar system capable of tracking objects as small as 1 centimeter [Via Satellite, February 2026]. Until the company publishes a clearer technical specification or a verified demo, the prudent read is that the product thesis is differentiated and technically ambitious, but still evidenced mainly by company materials, profile listings, and one research publication rather than operating proof.

Single unverified source -- Core product claims are corroborated across the company website, IAF profile, and NIDHI PRAYAS listing, but performance and deployment evidence remains limited and some technical descriptions diverge across sources.

Where the Demand Sits

PUBLIC The market matters now because orbital congestion has moved from a technical nuisance to an operating constraint for satellite fleets, and collision avoidance is shifting closer to the spacecraft itself rather than staying purely a ground-planning function [International Astronautical Federation, January 2025] [OrbitArch].

The public record for Skorbitron and OrbitArch does not include a cited third-party TAM, SAM, or SOM specific to autonomous in-orbit collision avoidance. The cleaner way to frame the market, using only available evidence, is as a narrow control-layer wedge inside the broader space-sustainability and space-traffic-management stack described by the company and by industry profiles [International Astronautical Federation, January 2025] [OrbitArch] [NIDHI PRAYAS]. Those sources consistently position OrbitArch around conjunction detection, debris awareness, and autonomous maneuver decisioning, which suggests a product aimed first at satellite operators managing collision risk rather than at launch providers or pure Earth-observation analytics buyers [International Astronautical Federation, January 2025] [Aviation & Defence Universe, December 2025].

Demand drivers are easier to verify than market size. The core tailwind is the growing operational burden of debris and conjunction management, which OrbitArch itself cites as the reason to move from delayed ground-based tracking toward real-time onboard sensing and decision-making [OrbitArch] [NIDHI PRAYAS]. Independent public coverage aligns with that framing: Aviation & Defence Universe describes the company as targeting large volumes of untracked debris and using LiDAR plus machine learning to improve autonomous avoidance, while the International Astronautical Federation profile describes satellites identifying collision risks and maneuvering independently [Aviation & Defence Universe, December 2025] [International Astronautical Federation, January 2025].

Adjacent markets matter because the eventual budget owner may not buy a standalone "collision avoidance" tool. The nearest substitutes visible in the sources are broader space situational awareness, orbital traffic coordination, and debris-monitoring systems, all of which can overlap with conjunction warning and maneuver support [mach33.aero] [SATShow Week Startups of 2026]. If buyers already source conjunction data or mission-planning software elsewhere, OrbitArch would likely need to justify why onboard LiDAR and local AI add value beyond existing ground-based workflows, which is a product-packaging question as much as a technical one [OrbitArch] [International Astronautical Federation, January 2025].

Regulation and macro conditions appear supportive in direction, even if the public evidence here is still early. The company's stated value proposition rests on preventing debris creation and improving in-orbit safety, which fits the broader policy push toward responsible space operations and sustainability norms [OrbitArch]. Just as important, early-stage visibility at industry venues such as Dubai Airshow 2025 and inclusion in space-industry directories suggests that this problem set is receiving institutional attention, even before OrbitArch has shown public proof of contracts or deployments [Aviation & Defence Universe, December 2025] [International Astronautical Federation, January 2025].

Market lens	What public sources support	Source basis
Core wedge	Autonomous satellite collision avoidance using LiDAR, onboard AI, and orbital mechanics	[International Astronautical Federation, January 2025] [OrbitArch]
Buyer environment	Satellite operators and institutional space operators facing collision-risk management	[NIDHI PRAYAS] [Aviation & Defence Universe, December 2025]
Adjacent markets	Space situational awareness, debris detection, orbital traffic coordination	[mach33.aero] [SATShow Week Startups of 2026]
Macro tailwind	Rising concern around space debris and need for faster in-orbit response	[OrbitArch] [Aviation & Defence Universe, December 2025]

The table shows a market definition that is strategically coherent but still qualitative. What is missing, and would materially improve diligence, is a named third-party estimate for the size of the space-traffic-management or in-orbit safety software market that can anchor how large this wedge could become.

Lightly corroborated -- Section relies on one independent industry profile, one named-publisher article, and company or program materials; no third-party market-sizing report was confirmed.

Competitive Landscape

MIXED OrbitArch appears to sit in a narrow slice of the space-safety stack, closer to onboard collision avoidance and in-orbit sensing than to the broader ground-based space situational awareness providers that dominate the category today [International Astronautical Federation, January 2025] [OrbitArch].

The immediate map is less about direct startup peers, because none are named in the cited record, and more about layers of substitute solutions. At one end are incumbent space situational awareness and tracking systems, which the company itself frames as ground-based and therefore latency-constrained for autonomous maneuvering use cases [OrbitArch] [NIDHI PRAYAS]. In the middle are operators' existing conjunction-assessment workflows, which typically depend on external tracking data and mission-planning processes rather than onboard sensing, although the source set here does not identify a specific vendor mix [OrbitArch] [International Astronautical Federation, January 2025]. At the frontier are challenger architectures like OrbitArch's stated approach, which combines LiDAR, onboard AI, and orbital mechanics in an attempt to push detection and maneuver decisions onto the spacecraft itself [International Astronautical Federation, January 2025] [Aviation & Defence Universe, December 2025].

The defensible edge, to the extent public evidence supports one, is conceptual rather than commercial. OrbitArch has been consistent across its website, the International Astronautical Federation profile, and third-party coverage in presenting a specific technical wedge: real-time onboard sensing and autonomous decision-making for collision avoidance, rather than dependence on delayed external alerts [OrbitArch] [International Astronautical Federation, January 2025] [Aviation & Defence Universe, December 2025]. That wedge could matter if satellite operators increasingly want sub-second response in dense orbital environments, and the publication of research on a LiDAR-enhanced reinforcement-learning architecture suggests at least some effort to formalize the technical approach [ResearchGate, November 2025]. Still, the edge looks perishable today because there is no public evidence yet of flight heritage, customer deployments, signed operator contracts, or capital depth that would make the architecture hard for a better funded space-systems incumbent to replicate [Aviation & Defence Universe, December 2025] [OrbitArch].

The clearest exposure is execution risk against adjacent incumbents that already own operator relationships, spacecraft integration pathways, or trusted tracking datasets, even if they are not named in the available source set. OrbitArch's public differentiation rests on the sensing-and-autonomy layer, not on demonstrated distribution or regulatory positioning [OrbitArch] [International Astronautical Federation, January 2025]. That matters because collision avoidance in practice is not only a detection problem. It also runs through integration, mission assurance, and operator trust, and none of those channels are evidenced publicly for Skorbitron yet [Aviation & Defence Universe, December 2025]. If the category settles on software overlays that improve existing external tracking workflows rather than onboard hardware plus software, OrbitArch could find itself competing from the more capital-intensive side of the stack with less room for fast adoption [NIDHI PRAYAS] [OrbitArch].

Over the next 18 months, the most plausible competitive scenario is a sorting between companies that can prove technical credibility and those that remain at the concept stage. OrbitArch is the winner if autonomous onboard sensing becomes a procurement priority for small-satellite operators and the company can translate its research and industry visibility into a pilot or demonstrator with a named operator [ResearchGate, November 2025] [Aviation & Defence Universe, December 2025]. OrbitArch is also the loser if operator demand stays anchored to established external tracking and conjunction-alert workflows, because the current public record does not show commercial traction strong enough to overcome the adoption burden of a new onboard architecture [OrbitArch] [International Astronautical Federation, January 2025].

Single unverified source -- Competitive positioning is grounded in company materials, an industry-organization profile, and one named-publisher article, but the source set names no direct competitors and provides no verified commercial benchmarks.

Opportunity

PUBLIC The prize here is straightforward: if OrbitArch can move from a student-led concept to flight-proven autonomy, it could become a control layer for collision avoidance in an orbital economy that is getting more crowded and less tolerant of delayed decision-making [Aviation & Defence Universe, December 2025] [International Astronautical Federation, January 2025] [OrbitArch].

The headline opportunity is not merely to sell another space sensor. It is to become an onboard decision system that satellite operators trust to identify conjunction risk and execute avoidance logic with less dependence on delayed ground workflows, which is the core claim repeated across the company website, the International Astronautical Federation profile, and NIDHI PRAYAS materials [OrbitArch] [International Astronautical Federation, January 2025] [NIDHI PRAYAS]. That outcome remains early and unproven, but it is at least directionally reachable because the public record shows a coherent technical thesis rather than a loose category pitch: LiDAR, onboard AI, and orbital mechanics are presented as an integrated stack, and the team has also published research on a LiDAR-enhanced reinforcement-learning architecture for sub-second autonomous collision avoidance in mega-constellation satellites [OrbitArch] [ResearchGate, November 2025].

The nearer-term commercial reading is narrower. If the system works as described, the first durable position may be as mission software and sensing infrastructure for operators that need more autonomous conjunction handling as satellite counts rise, before expanding into a broader safety and traffic-coordination layer for commercial and institutional fleets [SATShow Week, 2026] [mach33.aero].

Scenario	What happens	Catalyst	Why its plausible
Flight-proven safety stack	OrbitArch becomes a specialist provider of onboard collision-avoidance systems for a first cohort of satellite operators, selling a tightly integrated hardware-plus-software package.	A first in-orbit demonstration or operator validation of autonomous avoidance logic.	The company already frames the product as an onboard system for real-time sensing and maneuvering, not only a planning tool, and its technical claims are echoed across multiple public profiles [OrbitArch] [International Astronautical Federation, January 2025] [SATShow Week, 2026].
Constellation control layer	OrbitArch evolves from a point solution into a fleet-level autonomy layer for dense constellations, where sub-second decisioning has higher value.	A successful application of its published collision-avoidance architecture to mega-constellation use cases.	The published research explicitly addresses sub-second autonomous collision avoidance in mega-constellation satellites, which supports this path as an extension of the current thesis rather than a category jump [ResearchGate, November 2025].
Space-traffic infrastructure partner	OrbitArch becomes a trusted subsystem or partner for larger aerospace and satellite platforms that need embedded debris detection and collision management.	Partnership with an upstream spacecraft manufacturer, mission integrator, or space-systems program.	Public descriptions already position the company around orbital safety, debris detection, and traffic coordination, which are functions that larger platforms may choose to embed rather than build internally [mach33.aero] [Aviation & Defence Universe, December 2025].

These scenarios point to the same compounding mechanism. A first validated deployment would not only create revenue credibility, it would generate operational data on conjunction detection, false positives, maneuver thresholds, and edge cases in orbital environments, which is the sort of feedback loop that can improve autonomy models and make the next operator easier to win. The public record does not yet show that this flywheel has started commercially, but the company has at least signaled the ingredients of one: an onboard sensing thesis, an AI decision layer, and technical work aimed at sub-second response in dense orbital settings [OrbitArch] [ResearchGate, November 2025] [Aviation & Defence Universe, December 2025].

If that flywheel forms, switching costs could rise in practical ways. Operators are typically cautious about flight-critical systems, so a vendor that accumulates performance evidence, mission-specific tuning, and integration experience can become harder to displace than a new entrant offering only similar model claims. In that case, the moat would likely sit less in the raw model layer and more in validated spaceflight data, reliability history, and integration into satellite operations.

The size of the win is still best framed conditionally because the source set does not include a verified market-size study or close public comp set for OrbitArch itself. A useful directional anchor is that public materials repeatedly describe the problem as autonomous collision avoidance for increasingly debris-constrained orbits, including a published focus on mega-constellation environments, which suggests a market that can expand with launch activity and orbital congestion rather than a one-off subsystem niche [Aviation & Defence Universe, December 2025] [ResearchGate, November 2025]. If Scenario 2 or 3 plays out and OrbitArch becomes embedded infrastructure for constellation autonomy or space-traffic coordination, the company could support venture-scale outcomes in the hundreds of millions of dollars in enterprise value (scenario, not a forecast), but that upside depends on proving flight performance, not just technical promise.

Single unverified source -- Core upside rests on public company descriptions, one industry-organization profile, one named-publisher feature, and a cited research publication; no independent customer, deployment, funding, or market-size verification was available in this section.

Sources