Your LED lit up, but Tinkercad put a star on it. The star means too much electricity is going through the LED. A real LED would burn out. Here's why it happened and how to fix it.
Both legs of the resistor are in the same column (column 28).
Holes in one column are joined, so the electricity skips the resistor. Nothing slows it down.
Lay the resistor flat so its legs are in two different columns.
This is your circuit, simplified. Start the simulation and hold the button, like in Tinkercad. Then switch to the fixed version and compare.
The LED does get electricity, so it lights. The problem is how much. Without the resistor, there's far more current than an LED can take. Tinkercad still shows the light, but it adds the star to warn you a real one would be ruined.
Under the plastic, metal strips join some holes together. Click any hole to see which other holes it's joined to.
Some real breadboards split each rail in the middle. If the red or blue line has a break, the two halves aren't joined. Tinkercad's Breadboard Small doesn't do this.
Electricity always takes the easiest path. Think of two roads between the same two places: a narrow road with a toll gate (the resistor), and a wide free road (the metal strip). Almost everyone takes the free road.
When electricity takes a shortcut around a part, it's called a short circuit. Your resistor was shorted out by the metal strip in column 28.
Take the LED's share away from the supply voltage. Divide what's left by the resistance. The answer is the current.
The bigger R is, the smaller the current. A resistor is there to make R big enough.
For each breadboard, decide: does the part do its job, or is it skipped? Look at which strip each leg is in.
Do these in Tinkercad. The picture changes with each step: the faded part shows where things were, and the dashed box shows what moved.
Two legs, two different strips. If both legs of a part share a strip (same column and same half, or the same rail), the electricity skips the part.