In 2009, a group of 28 scientists led by Johan Rockström (a renowned climate scientist- to put his work lightly), proposed a new framework for monitoring Earth’s systems and our outsized influence on them. The group identified nine “planetary life support systems” essential for human well-being, and through them the framework posits that Earth system processes on the planet have boundaries or thresholds that should not be crossed. While groundbreaking, the initial quantification of these boundaries was met with much criticism due to the arbitrary metrics some used at the time. This led to a significant update of the framework and it’s algorithm for quantification of our planet’s wellbeing in 2015, followed by assessments of those boundaries in 2023 and 2025.

As of 2025 we have crossed 7 of the 9 boundaries according to the Potsdam Institute for Climate Impact Research, you can read their report here. While these boundaries are by no means the end-all-be-all of climate science, this is deeply troubling news. In these next few paragraphs, I hope to explain what this means, provide you with sources for self-education, and elaborate on the lights I see at the end of the tunnel.

What does this mean?
Succinctly as possible; The 9 primary systems that allowed advanced lifeforms to evolve and exist on Earth are damaged or broken. Since 1950, we have so radically accelerated the decline of our environment that we have eclipsed the past 10,000 years.

What can I do with this information?
Like all information, you can disseminate it and use it to inform your peers. Roughly 25% of Americans still deny climate change, and while this may not be the tipping point for everyone, some people might find this source to be the convincing argument they needed. Beyond that, even for those already climate-aware, many prefer specific information over a general sense that “the world is on fire”. We, as a global society, need to implement radical change in the next few decades if we want the planet to be livable. “Radicalizing” surveys and information is necessary for educating and inspiring that change.

What actions can I take?
You can reach out to your local and state representatives to pressure them to make more environmentally conscious decisions. You can take action in your own life to make more sustainable choices, use a reusable water container, avoid individually packaged products, avoid driving when you could bike or use public transport. None of these are “new” solutions, but they are more important now than ever.

If you’re doing something sustainable that you feel needs more coverage or guidance, reach out to us, it’s our job (and our great joy) to support ecologically savvy entrepreneurs.

Go check out the 2025 Planetary Health Check. Stay informed, and try to inform others. Thank you for reading, and I hope you continue to do work that matters.
No matter what, keep up the fight. We only have this one planet.

A Synthesis of the Thoughts of Daveed Sidhu  

Our friend Daveed Sidhu is a prolific writer and provocative thought leader on the future of the electric grid and what it would mean for new business opportunities, new products, and new approaches to regulation.  He publishes his work on his LinkedIn page.  We have undertaken to summarize his latest thoughts as a way to introduce more people to them, and in order to stimulate discussion and debate.  

The Core Problem

The grid is becoming more intelligent—and less effective. That contradiction is in the signals we’re ignoring. The constraint isn’t hardware — it’s data quality, coordination, and decision speed.  We’ve digitized the grid—but we haven’t fully operationalized that intelligence.  The grid has shifted from linear infrastructure to an interactive platform that must not only sense but anticipate.  That requires some major investment and a commitment to major change.

Data Quality: The Hidden Flaws in the Foundation

Despite billions invested in smart meters, sensors, and analytics, the data feeding these systems is often unreliable. Common problems include:

• Missing or incomplete meter reads
• Timestamp inconsistencies across systems
• Communication latency and packet loss
• Firmware variations across device fleets
• Inconsistent data models between platforms

These are not edge cases—they are systemic conditions across most utility environments.  At scale, across millions of endpoints, these issues become structural. Every downstream system — forecasts, optimization engines, reliability tools — inherits this uncertainty. The next phase of grid modernization won’t be defined by more sensors, but by robust data architecture, standardized models, telemetry validation, and rigorous data governance.

A Changed Operating Environment

The grid now must accommodate:

• Rapid EV growth and rooftop solar proliferation
• Large, fast-arriving loads from data centers and AI infrastructure
• Climate volatility that undermines historical planning assumptions

These demands require faster, more precise operational intelligence. Without trustworthy data as a foundation, even sophisticated AI becomes an expensive, fragile overlay.

From Smart to Sentient

A smart grid reacts; a sentient grid anticipates — not sentient in a biological sense, but in its ability to continuously interpret, learn, and act on system-wide signals. The traditional reactive model — meters report after the fact, outages are addressed after customer calls, operators rebalance after congestion appears — is no longer adequate in a system defined by fluctuating DER output and volatile demand.

A sentient grid continuously synthesizes real-time telemetry, weather intelligence, market signals, asset health data, and customer behavior to ask: “What is about to happen — and what should be done now?” This enables:

• Predictive reliability — failures identified before they cascade

• Unlocked capacity — real-time awareness reveals hidden headroom in existing assets, deferring capital projects
• Active customer participation — DERs and flexibility orchestrated proactively
• Orchestrated control rooms — operators supervise automated responses instead of chasing alarms

The Grid as Platform

The grid is evolving from linear infrastructure (wires, transformers, power quality controls) into an interactive platform, much like Amazon in retail or Apple in mobile. It must now coordinate rooftop solar, storage, EV charging, demand response, microgrids, and real-time markets. The critical paradox: the system in many regions isn’t short on generation capacity — it’s short on coordination capacity and visibility. That raises the question of who truly owns and controls grid data–and who should?  As a platform, the grid would be an open system with thousands or millions of players using data and controls to provide fee-based services.  

To realize this platform model, utilities must invest in:

• Interoperability standards across OT and IT
• Open, API-first digital ecosystems rather than closed silos
• Cloud-native, scalable architectures

• Event-driven data pipelines for real-time coordination

This also demands transformation along four dimensions: architectural (open ecosystems), regulatory (recognizing customers as active participants), business model (valuing flexibility alongside capital deployment), and cultural (from asset operator to ecosystem coordinator).

Decision Latency: The Next Major Constraint

The next constraint is not data availability—it is the time between signal and action.  Decision latency appears as:

• DERs are responding slower than grid conditions require
• Demand response signals arriving after peak events are underway
• Balancing decisions based on stale data
• Operators manually bridging gaps between disparate systems

Addressing this requires three shifts:

1. Centralized → distributed intelligence: move decision-making to the edge
2. Data collection → data synchronization: ensure systems share a consistent, current view
3. Monitoring → autonomous coordination: enable systems to respond autonomously, with operators in supervisory roles

Congestion: The Real Bottleneck

The grid’s growing constraint isn’t generation or wires — it’s the ability to move electricity where it’s needed, when it’s needed. Evidence is already visible: renewable curtailment despite available capacity, rising locational marginal prices, and interconnection queues stretching years. Today’s congestion is driven by localized load pockets (data centers, AI infrastructure), variable DER injections, and rapid electrification outpacing traditional planning.  Are we building physical infrastructure too quickly because we underutilize what already exists? Do we underestimate how much improvement could be made by engaging more creative, entrepreneurial minds?

Congestion is more than economic inefficiency — it is a compounding reliability risk, leaving operators with fewer degrees of freedom when conditions change.

Building more infrastructure alone won’t solve this fast enough; transmission expansion takes decades while demand accelerates now. The answer lies in better orchestration of existing assets through real-time visibility, automated decision-making, dynamic coordination of flexible resources, and extensive monetization of flexibility markets.  

This leads to the question of whether regulatory models built for centralized generation and closed operation of the grid can support a distributed, digital, and interactive grid. Would that mean more performance-based regulation rather than the ever-more complex rules and requirements coming from today’s regulators?  Would this be an even bigger challenge than deregulating generation?

Data-Rich but Context-Poor

The grid doesn’t suffer from a lack of visibility—it suffers from a lack of meaning. The grid sees, measures, and records — but doesn’t consistently listen. Listening means interpretation:

• A voltage fluctuation may signal impending equipment stress
• A transformer heating pattern may be an early failure warning
• A sudden load shift may reveal new behavior like clustered EV charging

More data without interpretation leads to information overload — cluttered dashboards and alarm-flooded control rooms. AI and edge intelligence close this gap, not by replacing human expertise but by amplifying it: detecting patterns across noisy datasets, prioritizing anomalies, correlating operational data with external factors, and learning from historical incidents. The goal is a grid that evolves from monitoring to understanding, and from reacting to anticipating.  The consequence is much less direct human governance in favor of human-supervised autonomous control.  Is that a welcome or a frightening change?

The Path Forward

The utilities and grid operators that lead will be those that:

• Invest as heavily in data integrity and governance as in hardware
• Build cloud-native, event-driven, interoperable digital architectures
• Embrace edge intelligence and distributed decision-making
• Reframe their identity from infrastructure providers to platform orchestrators
• Align regulatory, business, and cultural models with an open, participatory energy ecosystem

The grid is becoming a sentient platform and an interactive marketplace of electrons. The question isn’t whether this transformation will happen — it’s whether today’s utilities and grid operators are prepared to listen, anticipate, and orchestrate at the speed required for the grid to understand itself in time to act.