There’s also a non preview versioned just “o1” with even higher benchmarks…
It seems that ChatGPT gets a constant stream of descriptive progress. 70 seconds has about two a second. I wonder if this is by the models or by an observer of context state. An API streaming possibility to be exposed?
Does this, at its heart, just use gpt-4o or the gpt-4o pretraining with less curtailed attention and efficiencies, justifying compute expense. What would one see if the underlying model whos tokens are being billed at a higher cost were exposed to allow development on it and typical features?
If there are multiple tuning, and the first round is “you pick the ideal AI subspecialization”, there may be nothing to use directly.
Then I wonder if training has common connection that has bled over to gpt-4o, where I’ve seen a half dozen confused people given a hallucination response that the AI was thinking and to check back, and they check back and it still doesn’t fulfill as it is still hallucinating a “thinking”…
On an electronics task, ChatGPT gave a resistor value much closer to that actually determined useful in practice than my API run on GPT-4 with my own specialist prompt (to determine a preliminary value without thinking too hard). 16 vs 30 before (plus a whole bunch of chatting that is not judged). I rewrote it a bit more as I would compose something meant for ChatGPT and not API, though.
Would be interesting to explore more how much I’d no longer have to describe how to think or what the specialization is.
(Then you write a function so your actual API user presentation AI could use this model…)
Input details
I have a string of white TV backlight LEDs that is being driven by a 200-500mA current source depending on the desired brightness application. The nominal voltage drop across each LED in series should be 3-3.4 volts depending on current specification, however, I may have one LED that is out of specification, and it’s voltage drop is instead 4 volts. On this device, I propose to divert some of the current around this defective LED (which has no replacement technique available) with a resistor or other device placed in manufacturing testing, so that the voltage drop seen across the circuit node returns to the value required in all current cases, and the regulator circuit which measures total voltage does not detect a fault, improving yield. Illumination at original brightness is not required as the defective item doesn’t maintain the same current to visual light output relationship.
Using current, voltage, and power equations, and understanding the operations of LED, think and describe step-by-step how a solution may be reached to obtain a value of resistor in parallel across the defective LED device to drop its voltage as described ideally constrained under all currents, considering how LEDs work, and to not exceed the LED power dissipation nor the power dissipation of a 1w resistive element. It is important to consider actual threshold breakdown and current flow behaviors in realistic and practical white single-parallel LED components using blue+phosphor technology.