Heat falls continuously.
A drink can pass from too hot, through a preferred window, to disappointing before the user is ready to finish it.
TI-2026-001 · working intelligence
Thermal
Intelligence.
A traceable body of evidence for sensing, preserving and controlling temperature—without confusing preference, safety, performance or marketing.
The drinkware problem in our era
The drink changes
before the moment does.
The user cannot see temperature.
Steam, touch and colour are imperfect proxies. A measured state is more useful than guessing.
Holding heat can hold risk.
IARC defines consumption above 65°C as very hot. A controlled vessel must not silently extend that state.
Reheating interrupts experience.
Repeated reheating, discarded drinks and unnecessary always-on power are avoidable when control is measured and bounded.
TÈMUGG exists to
make the useful drinking window visible, preserve it deliberately and stop treating maximum heat as the same thing as a better drink.
What TÈMUGG is answering
Questions you may have.
Answers you can experience.
TÈMUGG turns temperature from an invisible condition into a more personal, understandable and responsive part of the drinking ritual.
Why does an intelligent mug need to know temperature?
Because a drink moves through different experiences as it cools. TÈMUGG is being designed to make that invisible change visible, so the drink can meet the moment instead of racing against it.
Does hotter always mean better?
No. Brewing, serving and drinking are different moments. TÈMUGG is intended to help the user find a comfortable drinking window—not simply preserve the highest temperature.
What does TÈMUGG do differently from an insulated cup?
Insulation slows change. TÈMUGG adds sensing, controlled response and visible feedback, creating a conversation between the drink, the vessel and the person holding it.
What does the changing molecular pattern mean?
Grey-to-gold colour is designed as a living expression of warmth. It creates an emotional cue, while the measured display remains the reliable temperature guide.
Can the mug adapt to different moments?
That is the goal. Fill level, room temperature, lid use and personal preference all change the experience. The intelligence is being developed to respond rather than behave like a simple on/off heater.
Why connect the mug to a QR identity?
The QR layer can connect one physical mug to its care, science, product journey and future services—giving the object a memory beyond the first use.
Is TÈMUGG already a finished performance promise?
Not yet. It is a technology experience under measured development. Final holding range, runtime and durability will be published only after the physical samples complete testing.
Application domains
Drinkware opens into TÈMUGG.
01DrinkwarePassive retention · sensing · controlled heating · protection · thermochromic identityWorking domain
02
Packaging and transportReserved until a bounded question and evidence record exist
Hover only · unavailable03
Human thermal experienceReserved until a bounded question and evidence record exist
Hover only · unavailableTÈMUGG · temperature intelligence
Open-mug intelligence anatomy.
The visual is a clear conceptual section, not a proprietary manufacturing drawing. Exact names and functions live in the controlled HTML key below—never inside a blurry raster label.
User selects a bounded operating state.
Vessel and battery sensors report measured state.
The controller limits heater output and handles protection.
Display and molecular pattern communicate state.
Live demonstration · make the invisible visible
58°C
comfortable drinking window
20° cold75° very hot
The grey-to-gold molecular pattern is an experiential indicator, not a calibrated instrument. Drag to see how TÈMUGG turns temperature from an invisible condition into something you can read at a glance. Exact component names are held in the verified key below.
Visual boundary
The grey-to-gold molecular pattern is an experiential indicator, not a calibrated safety instrument. The measured display and controller remain authoritative.
Component architecture · verified 01–18
Lid assembly
Controls spill, evaporation and thermal loss.
Food-contact inner vessel
Contains the beverage; material grade and migration compliance require traceability.
Insulation gap
Limits passive heat transfer through the body.
Temperature sensor
Reports the measured thermal state to the controller.
Heating element
Supplies controlled thermal energy beneath the vessel.
Thermal interface plate
Spreads heater output to reduce local hot spots.
Control PCB
Reads sensors and governs heating and protection logic.
Rechargeable battery pack
Supplies portable power; capacity and chemistry remain sample-test facts.
Battery temperature sensor
Monitors pack temperature during use and charging.
Battery management system
Controls charge, discharge and electrical protection.
Wireless charging coil
Receives power from the charging base where adopted.
Charging base
Transfers external power to the mug system.
User control
Selects mode or target temperature.
USB-C input on base
Supplies power to the charging base—not the mug body.
Status display
Communicates measured temperature, mode and battery state.
Outer structural shell
Provides grip, protection and the decoration surface.
Thermochromic molecular pattern
Changes from grey when cold to gold when hot; it is not a calibrated thermometer.
QR identity mark
Links the physical mug to its controlled digital product record.
An invitation to experience
Your drink should not
leave the moment early.
TÈMUGG is being shaped as a calm piece of temperature technology: one that helps a person notice, choose and preserve the character of a drink without turning the ritual into a machine.
Enter the TÈMUGG experience →