Go Further With Less
Cut product cost by reducing the resources required for each unit of value
- Difficulty
- Advanced
- Time to result
- ~months to results
- Steps
- 5
- Confidence
- 96%
Go Further With Less reframes cost reduction from buying a dominant input more cheaply to needing less of it in the first place. The team identifies the component consuming the largest share of the bill of materials, determines which upstream systems govern how much is required, and improves those systems' efficiency. In an electric vehicle, better motors, inverters, controls, and aerodynamics produce more miles from each kilowatt-hour, allowing a smaller battery to deliver competitive range. That smaller input can lower purchase cost, vehicle mass, energy consumption, and exposure to scarce materials simultaneously. The framework turns advanced technology into an economic lever: an efficiency advantage initially demonstrated in a premium product can migrate into affordable products, improve gross margins, and expand adoption without depending entirely on supplier discounts or manufacturing scale.
Origin
Rawlinson presented this as Lucid's response to batteries representing more than 40 percent of the material cost of an affordable electric car. Extracted from Masters in Business.
Core principles
- 01Reduce required inputs before negotiating their price
- 02Measure useful output per unit of scarce resource
- 03Let efficiency compound across cost, weight, and sustainability
- 04Use premium technology as a future cost-down enabler
How to run it
- 1
Find the dominant input
Break down the bill of materials and identify the costly or scarce input that most constrains affordability. Quantify its share of total product cost.
Pro tip Include price volatility and geopolitical exposure, not merely today's unit price.
Watch out Do not spend disproportionate effort optimizing minor cost categories.
- 2
Define output per input
Choose a metric connecting the scarce input to customer value, such as miles delivered per kilowatt-hour. Establish the current baseline and a meaningful target.
Pro tip Use a metric customers ultimately experience rather than an isolated laboratory efficiency.
Watch out A narrow metric can hide losses elsewhere in the system.
- 3
Improve enabling systems
Redesign the components and controls that determine resource consumption. Optimize them together so gains survive across realistic operating conditions.
Pro tip Look beyond the dominant input itself for upstream efficiency levers.
Watch out Peak efficiency at one operating point may not improve real-world performance.
- 4
Remove surplus input
Convert the efficiency gain into a smaller quantity of the expensive component while preserving the required customer outcome. Recalculate weight, packaging, and cost effects.
Pro tip Capture compounding benefits, such as needing less structure after reducing component mass.
Watch out Keeping the original input quantity may improve specifications but fail to unlock affordability.
- 5
Scale the advantage downward
Transfer the proven technology into progressively more affordable products. Use lower resource requirements to support competitive prices and healthier margins.
Pro tip Plan the technology roadmap and product roadmap together.
Watch out Premium technology only becomes a mass-market strategy if it can be manufactured economically.
In the wild
Rawlinson said the Lucid Air Pure achieves a claimed 419-mile range using an 88-kilowatt-hour battery pack. By requiring fewer costly battery cells than less efficient designs, the company could offer the model at a lower entry price while retaining long range.
→ Powertrain efficiency became a direct cost-down mechanism rather than merely a performance claim.
Common mistakes
Focusing only on supplier price
Economies of scale may make an input cheaper, but they leave the product dependent on consuming the same quantity.
Confusing capacity with value
A larger battery or other component does not necessarily deliver proportionally better customer utility if the surrounding system is inefficient.
Failing to harvest efficiency
If the team improves efficiency but never removes excess input, it may miss the cost, weight, and sustainability benefits.
Is it for you?
Best for
It is best for products where technical efficiency can materially reduce the amount of an expensive component required.
Not ideal for
It is not ideal when input quantity is fixed by regulation, safety, or customer requirements that technology cannot change.
From the transcript
“rather than saying, right, can we make batteries cheaper through an economy of scale, or actually saying do we need that many batteries in the…”
“We can go further with less through technology.”
“our technological advantage today, which is seen as a burden, it will become a cost down enabler”
From the episode
Lucid CEO Peter Rawlinson on Computer Automotive Engineering
Peter Rawlinson