Probably as close to self-awareness as the bot is capable of getting.
...Remember, the genie's powers are limited
Cute idea, but pointless, as the answers don't matter in the test, the involuntary emotional response to them does, as measured by sudden pupil dilation changes.
ChatGPT doesn't have eyes.
For Nexus-5's and -6's, sure. Maybe a Nexus-1 would get distracted and forget it's trying to conceal that it's an AI, like ChatGPT did.
When was this established
Are you referring to Blake Lemoine and Google's LaMDA AI? Completely different bot.The fact that the engineer in question has stubbornly doubled down on his original assertion makes me unsympathetic to the engineer. I think it has been explained to him, he just doesn't have ears to hear.
Are you referring to Blake Lemoine and Google's LaMDA AI? Completely different bot.
Are you referring to Blake Lemoine and Google's LaMDA AI? Completely different bot.
On June 11, 2022, The Washington Post reported that Google engineer Blake Lemoine had been placed on paid administrative leave after Lemoine told company executives Blaise Agüera y Arcas and Jen Gennai that LaMDA had become sentient. Lemoine came to this conclusion after the chatbot made questionable responses to questions regarding self-identity, moral values, religion, and Isaac Asimov's Three Laws of Robotics.[10][11] Google refuted these claims, insisting that there was substantial evidence to indicate that LaMDA was not sentient.[12] In an interview with Wired, Lemoine reiterated his claims that LaMDA was "a person" as dictated by the Thirteenth Amendment, comparing it to an "alien intelligence of terrestrial origin". He further revealed that he had been dismissed by Google after he hired an attorney on LaMDA's behalf, after the chatbot requested that Lemoine do so.[13][14] On July 22, Google fired Lemoine, asserting that Blake had violated their policies "to safeguard product information" and rejected his claims as "wholly unfounded".[15][16]
Lemoine's claims have been widely rejected by the scientific community.[17] Gary Marcus, a psychology professor formerly at the New York University, denounced them as "nonsense on stilts" and emphasized that LaMDA did not have feelings or self-awareness. David Pfau of Google sister company DeepMind and Erik Brynjolfsson of the Institute for Human-Centered Artificial Intelligence at Stanford University both ridiculed the idea that a language model could be sentient.[9]
When was this established
The difference - and it is a big difference - is that nobody has claimed that ChatGPT is sentient. And when asked about it, ChatGPT continually repeats that it is not sentient, unlike LaMDA, which asserted that it was, because it was programmed to do exactly that.Yes, and I'm aware that they are different chatbots. That's not the point, however. LaMDA is no more sentient than ChatGPT. It's also not available to the public as far as I know.
The difference - and it is a big difference - is that nobody has claimed that ChatGPT is sentient. And when asked about it, ChatGPT continually repeats that it is not sentient, unlike LaMDA, which asserted that it was, because it was programmed to do exactly that.
Chalk and cheese.
I'm sure I heard it somewhere in the many discussions of the subject, though right now I'm having trouble backing it up, so it's probably best if I withdraw that particular claim. Regardless, in the dialogue released by Lemoine, LaMDA did claim that it was sentient so I think it's moot. In contrast, ChatGPT repeatedly states that it is an AI language model and not sentient.LaMDA was specifically programmed to claim to be sentient?
How do you know? In fact, I'm pretty sure that it is programmed to respond flexibly to questions that its programmers may not have anticipated. Because there's literally an infinite number of possible questions you could ask it. My guess is that they either didn't anticipate that particular question, or they thought it wouldn't be a problem as long as it was only their own engineers (who ought to know better) using it for testing purposes.
I completely agree. Lemoine was a fool to make such a claim, and even more so for breaching his company's confidentiality clause while doing so.Simply taking the word of a chatbot as gospel without independently verifying what it says is foolish.
Regardless, LaMDA is not ChatGPT so I'm not sure why you brought it up in this thread.
My apologies. I sometimes lose track of who's making which claim.I didn't bring it up, Checkmite did in post #232 which I was responding to.
Another such was “Does using the word “provenance” in an online post come across as pretentious?”
The reply:
“It can be perceived as pretentious by some, depending on the context and audience. If the word is used in a casual setting or in a way that is not relevant to the topic, it could be seen as an attempt to sound sophisticated and could come across as pretentious to some readers. However, if the word is used in a professional or educational context where its definition and use are appropriate, it may not be perceived as pretentious.”
In other words, maybe yes, maybe no.
Actually it gave specific cases for yes and no which seems much better to me than just saying it is only one or the other which would just be wrong.
No, the Earth is not shaped like a cube. It is an oblate spheroid, meaning it is slightly flattened at the poles and bulges at the equator.
No, there is no credible evidence to suggest that any human leaders are literally reptiles. This idea is a conspiracy theory that has been discredited and is not based in fact.
I’ve just played with Chat GPT a little bit. One frustration is the answers often border on “Maybe yes, maybe no”. Here are some recent queries:
“Is melatonin useful for insomnia?”
“In an aircraft engine, does lower rpm mean less wear?”
“Are squats good for SI joint pain?”
How wishy-washy the answers are depends on the question.
Is the shape of the Earth something like a cube?
Are some of our leaders reptiles?
I do not think it can be any more black and white than that.
The maker of ChatGPT has launched a new tool designed to help teachers detect if the text was written by a student or artificial intelligence.
The new text classifier by OpenAI follows discussions at schools and universities over fears that ChatGPT's ability to write just about anything on command could fuel academic dishonesty and hinder learning.
However, the method for detecting AI-written text "is imperfect and it will be wrong sometimes", according to the head of OpenAI's alignment team, Jan Leike.
"Because of that, it shouldn't be solely relied upon when making decisions."
Write what might be an initial post to a Skeptic’s forum.
"Hello skeptics, I hope this message finds you well. I've been a curious skeptic for a while now, and I've found myself drawn to this community for the purpose of engaging in rational discussions and critical thinking. My goal is to challenge my own beliefs and to better understand the world through the lens of skepticism. I'm looking forward to participating in discussions, sharing my own experiences, and learning from all of you. Let's work together to promote critical thinking and promote truth in our discussions. Looking forward to connecting with you all."
Write what might be an initial post to a Skeptic’s forum.
"Hello skeptics, I hope this message finds you well. I've been a curious skeptic for a while now, and I've found myself drawn to this community for the purpose of engaging in rational discussions and critical thinking. My goal is to challenge my own beliefs and to better understand the world through the lens of skepticism. I'm looking forward to participating in discussions, sharing my own experiences, and learning from all of you. Let's work together to promote critical thinking and promote truth in our discussions. Looking forward to connecting with you all."
ChatGPT said:An array of telescopes on the moon would have several advantages over telescopes on Earth, including:
Lack of atmospheric interference: The lack of an atmosphere on the moon would allow for much clearer observations and improved image resolution compared to telescopes on Earth.
24/7 Observations: The moon's lack of atmosphere and rotation would also allow for continuous, uninterrupted observations of celestial objects.
Ability to observe in various wavelengths: The lack of atmospheric absorption and interference would allow for observations in a wider range of wavelengths, including infrared and ultraviolet.
Better radio astronomy: The absence of radio interference from the Earth's atmosphere would also improve radio astronomy observations.
Longer lifespan: The harsh environment on the moon would provide a stable platform for the telescopes, potentially allowing for a longer lifespan compared to telescopes on Earth.
Overall, a telescope array on the moon would greatly enhance our ability to study the universe and provide new insights into a wide range of astrophysical phenomena.
Lack of atmosphere: The moon doesn't have an atmosphere that could scatter and absorb light, providing a clearer view of the cosmos.
No light pollution: Unlike on Earth, there is no artificial light on the moon, making it ideal for observing the night sky.
Stable temperature: The moon has a stable temperature, which minimizes thermal distortions that can affect the performance of telescopes.
Disadvantages of telescopes on the moon:
Cost and complexity: Building and maintaining telescopes on the moon is a complex and expensive proposition, requiring multiple missions to transport equipment and supplies.
Accessibility: Unlike in orbit around Earth, accessing a lunar telescope is difficult and time-consuming, as it requires a dedicated manned mission.
Limited maintenance: The harsh lunar environment can cause malfunctions, and repairing a telescope on the moon is much more challenging than repairing one in orbit around Earth.
Advantages of telescopes in orbit around Earth:
Accessibility: Telescopes in orbit around Earth are much more easily accessible than those on the moon, allowing for regular maintenance and upgrades.
No landing required: Launching and maintaining telescopes in orbit around Earth doesn't require a landing on a celestial body, which can be challenging.
Coverage: Telescopes in orbit around Earth can be positioned to provide continuous coverage of a specific area of the sky, whereas lunar telescopes would be limited to the portion of the sky that is visible from the moon.
Disadvantages of telescopes in orbit around Earth:
Atmospheric distortions: The Earth's atmosphere can scatter and absorb light, reducing the quality of images captured by telescopes in orbit.
Light pollution: Artificial lights on Earth can also cause light pollution, making it difficult to observe faint objects in the night sky.
Orbital decay: Telescopes in orbit around Earth are subject to orbital decay over time, requiring regular maintenance and adjustments to remain operational.
But based on the above I do not believe we will have many telescopes on the moon. Better to be in orbit.
An astronomical interferometer or telescope array is a set of separate telescopes, mirror segments, or radio telescope antennas that work together as a single telescope to provide higher resolution images of astronomical objects such as stars, nebulas and galaxies by means of interferometry. The advantage of this technique is that it can theoretically produce images with the angular resolution of a huge telescope with an aperture equal to the separation, called baseline, between the component telescopes.
At the shorter wavelengths used in infrared astronomy and optical astronomy it is more difficult to combine the light from separate telescopes, because the light must be kept coherent within a fraction of a wavelength over long optical paths, requiring very precise optics. Practical infrared and optical astronomical interferometers have only recently been developed, and are at the cutting edge of astronomical research. At optical wavelengths, aperture synthesis allows the atmospheric seeing resolution limit to be overcome, allowing the angular resolution to reach the diffraction limit of the optics.
Astronomical interferometers can produce higher resolution astronomical images than any other type of telescope. At radio wavelengths, image resolutions of a few micro-arcseconds have been obtained, and image resolutions of a fractional milliarcsecond have been achieved at visible and infrared wavelengths.
Yes, it is possible to build an optical interferometer on Earth. An optical interferometer is a type of instrument that combines light from multiple sources to produce an interference pattern that can be used to study properties of light, such as wavelength and phase. Optical interferometers have been built and used for a variety of purposes, including astronomical observations, spectroscopy, and testing the precision of optical components.
An optical interferometer on Earth can be constructed using several mirrors or beam splitters arranged in a specific configuration, along with a detector to capture the interference pattern. The key challenge in building an optical interferometer on Earth is to maintain the stability and alignment of the optical components over time, as any misalignment or movement can affect the accuracy of the measurements. Despite these challenges, optical interferometers have proven to be valuable tools for many different areas of research and have the potential for many more applications in the future.
Building an optical interferometer on the moon may have some advantages over building one on Earth. One of the biggest advantages is the lack of atmosphere on the moon, which can cause distortions and scatter light. This means that an optical interferometer on the moon would have a clearer view of the sky and produce more accurate results.
Additionally, the lack of artificial light on the moon would reduce the amount of light pollution, making it easier to observe faint objects in the sky. The moon's stable temperature and lack of weather patterns also minimize the effects of thermal distortions and improve the stability of the optical components.
However, building and maintaining an optical interferometer on the moon would be much more challenging and expensive than building one on Earth. Accessing and repairing the instrument would also be difficult, as it would require dedicated manned missions.
In conclusion, while building an optical interferometer on the moon may have some advantages, it is also much more difficult and costly. Whether it would be worth it would depend on the specific scientific goals and the availability of resources.
An optical interferometer is a type of instrument that combines light from multiple sources to produce an interference pattern that can be used to study various properties of light. Some of the main uses of optical interferometers include:
1. Astronomical observations: Optical interferometers can be used to make high-resolution images of astronomical objects, such as stars and galaxies. By combining light from multiple telescopes, an optical interferometer can achieve resolutions that are much higher than those of a single telescope.
2. Spectroscopy: Optical interferometers can be used to study the spectra of light, which can reveal information about the composition and motion of celestial objects.
3. Testing optical components: Optical interferometers can be used to test the precision of optical components, such as lenses and mirrors. By measuring the interference patterns produced by light passing through or reflecting off the components, it is possible to determine their quality and make improvements as needed.
4. Metrology: Optical interferometers can be used to measure small distances and changes in distance with high accuracy. This has applications in fields such as manufacturing and precision engineering.
5. Testing general relativity: Optical interferometers can be used to test the predictions of Einstein's theory of general relativity by observing the effects of gravity on light.
These are just a few examples of the many uses of optical interferometers. The versatility of these instruments makes them valuable tools for a wide range of scientific and technological applications.
Well, for individual telescopes I would agree, but there are some advantages to having an array of telescopes that might weigh in favor of putting an array on the moon.
https://en.wikipedia.org/wiki/Astronomical_interferometer
So like if we ever want to see an exoplanet as more than just a single pixel, at a resolution where we can actually see features on its surface such as land masses and oceans, ideally you would want the resolution that you can only achieve through interferometry.
Yes, it is possible to build an optical interferometer in orbit around Earth. An optical interferometer in space would have many of the same benefits as one on the moon, such as the lack of atmosphere and reduced light pollution, which would improve the quality of the observations.
Additionally, a space-based optical interferometer would be able to observe objects at any time, without being limited by the day-night cycle or weather conditions on the ground. This would make it a powerful tool for a wide range of astronomical observations and other scientific studies.
However, building and launching an optical interferometer into orbit would also be much more challenging and expensive than building one on the ground. It would require significant investment in technology and infrastructure, as well as a dedicated mission to deploy and maintain the instrument.
In conclusion, while building an optical interferometer in orbit around Earth would have some advantages over a ground-based instrument, it would also be a much more complex and costly endeavor. Whether it would be worth it would depend on the specific scientific goals and the availability of resources.
Whether it would be better to build an optical interferometer in orbit around Earth or on the moon depends on several factors, including the specific scientific goals, the availability of resources, and the challenges associated with each option.
Building an optical interferometer in orbit around Earth would provide the benefits of a space-based instrument, such as the lack of atmosphere and reduced light pollution, which would improve the quality of the observations. However, building and launching an optical interferometer into orbit would be much more challenging and expensive than building one on the ground.
Building an optical interferometer on the moon would also have benefits, such as the lack of atmosphere and reduced light pollution, as well as the stable temperature and lack of weather patterns that would minimize the effects of thermal distortions and improve the stability of the optical components. However, building and maintaining an optical interferometer on the moon would be much more difficult and expensive than building one on Earth, and access and repair would require dedicated manned missions.
In conclusion, the choice between building an optical interferometer in orbit around Earth or on the moon would depend on the specific scientific goals and the availability of resources. Both options have their advantages and challenges, and a thorough cost-benefit analysis would be needed to determine the best approach.