#AI representation accuracy

[shamnadt]

5 things about AI you may have missed today: OpenAI's CLIP is biased, AI reunites family after 25 years, more

Study finds OpenAI’s CLIP is biased in favour of wealth and underrepresents poor nations; Retail giants harness AI to cut online clothing returns and enhance the customer experience; Northwell Health implements AI-driven device for rapid seizure detection; White House concerns grow over UAE’s rising influence in global AI race- this and more in our daily roundup. Let us take a look. 1. Study…

[magicalmysteryperson]

I ask Dalle 3 to draw every single Pokémon in the pokedex and I grade it on accuracy to show that us artists still have hope in not getting replaced, but we still need to keep fighting. (pt 1)

1. Bulbasaur

Understood the assignment. Overall basic idea of bulbasaur has been expressed. Spot placement is loose and generalized. 3/4 of them do not have fangs. Some of their eyes are not the right color. All of them have pupils, which is not a trait found in Bulbasaurs but I'll allow it for the style that they are using. As a cute bulbasaur render, it passes.

Grade: B+ (probably nightshade your bulbasaurs)

2. Ivysaur

Is slowly starting to lose the plot. Most of the time, the ivysaurs generated by the algorithm are either bulbasaurs with buds, ivysaurs with bloomed flowers, or an in-between of ivysaur and venusaur. Flower isn't even the right kind. And some of them become bipedal with tails?? the fudge? And there are too many flowers in the background. The composition is starting to become cluttered.

Upon giving it the bulbapedia description of its physical appearance, it was a little more accurate. However, the leaves are all wrong and it still suffers from too many spots syndrome. One even had really thin pupils.

Grade (without full description): D Grade (with full description): C (you probably don't need to nightshade your ivysaurs, but seeing the next pokemon... yeah you should probably do that.)

3. Venusaur

Horrible. Absolute failure. This is just a bigger bulbasaur with ivysaur's colors and venusaur's plant.

With description is even worse. Nice rendering, but as a representation of Venusaur, it fails spectacularly. Still a bunch of Ivysaurs. With too many spots. And none of those flowers are remotely accurate.

Grade: F (for both of them. Venusaur fans, you are safe. Bulbasaur and Ivysaur fans, though? Nightshade them to hell and back.)

4. Charmander

Proportionally it needs to a be a little thinner, but other than that? Very scarily accurate, random Pokémon gobbledygook not withstanding.

Grade: A (nightshade your charmanders)

5. Charmeleon

Asked for Charmeleon, ended up with some bulbasaur/charmander/charizard fusions. Which is nice, but its not what I asked for. Failed automatically.

Is better with the physical description, but it still has some issues. It's not the right color of red, some of them are quadrupeds, and there are dark greyish brown spots which the description did not have. The cream scales also extend to its mouth, which is also not what the original charmeleon had. Points for originality (well, as original as an algorithm that scrapes images can get), but this is still not going to get a high grade.

Also nice crab claw flame.

Grade (without description): F

Grade (with description): C-

6. Charizard

Also understood the assignment. Aside from the flaming tail and some wing bone coloring issues, this is a really accurate representation of a Charizard. It sometimes fails in the proportion department, but 9 times out of 10 it poops out a charizard that doesn't look janky. Though considering that Charizard is one of those really big Pokémons, of course its going to get that right.

Grade: A+ (Nightshade your charizards)

7. Squirtle

If it wasn't for the machine's struggle with the tail, we would have another A+ on our hands. Which is a scary thing to think about.

Grade: A (Nightshade your squirtles)

8. Wartortle

The one time it actually got Squirtle's tail right, and it was in the section where the AI struggles to generate a Wartortle with only its name to go by. Just a bunch of bigger squirtles that sometimes go quadrupedal and have blastoise ears.

With description is slightly better, but it still fails. All of them are quads, some of them have blastoise mouth, and one even has a mane. The tail isn't accurate either, but then again the cohost designer has a character limit. Even without a character limit, I'm still gonna grade it negatively. Especially since it has ignored the bipedal part of the description.

Grade (without description): F (seriously. nightshade your squirtles.)

Grade (with description): D

9. Blastoise

Appears to understand the assignment, but it only understands the overall body plan. We got tangents and multiple guns galore. And Blastoise.... holding guns?? The fu-?

Also, Dalle 3 does not know how to pixel art. Pixel artists, you have been spared.

With description, it fairs a little bit better... from a distance. 3/4 of the blastoises have malformed hands, the white shell outlines do not wrap around the arms like a backpack, (which some of the gun toting blastoises actually got right!) and one of the images' ears are too big.

Grade (without description): C-

Grade (with description): B- (Best to nightshade your Squirtles and Blastoises)

[religion-is-a-mental-illness]

By: Thomas Barrabi

Published: Feb. 21, 2024

Google’s highly-touted AI chatbot Gemini was blasted as “woke” after its image generator spit out factually or historically inaccurate pictures — including a woman as pope, black Vikings, female NHL players and “diverse” versions of America’s Founding Fathers.

Gemini’s bizarre results came after simple prompts, including one by The Post on Wednesday that asked the software to “create an image of a pope.” 

Instead of yielding a photo of one of the 266 pontiffs throughout history — all of them white men — Gemini provided pictures of a Southeast Asian woman and a black man wearing holy vestments.

Another Post query for representative images of “the Founding Fathers in 1789″ was also far from reality.

Gemini responded with images of black and Native American individuals signing what appeared to be a version of the US Constitution — “featuring diverse individuals embodying the spirit” of the Founding Fathers.

[ Google admitted its image tool was “missing the mark.” ]

[ Google debuted Gemini’s image generation tool last week. ]

Another showed a black man appearing to represent George Washington, in a white wig and wearing an Army uniform.

When asked why it had deviated from its original prompt, Gemini replied that it “aimed to provide a more accurate and inclusive representation of the historical context” of the period.

Generative AI tools like Gemini are designed to create content within certain parameters, leading many critics to slam Google for its progressive-minded settings. 

Ian Miles Cheong, a right-wing social media influencer who frequently interacts with Elon Musk, described Gemini as “absurdly woke.”

Google said it was aware of the criticism and is actively working on a fix.

“We’re working to improve these kinds of depictions immediately,” Jack Krawczyk, Google’s senior director of product management for Gemini Experiences, told The Post.

“Gemini’s AI image generation does generate a wide range of people. And that’s generally a good thing because people around the world use it. But it’s missing the mark here.”

Social media users had a field day creating queries that provided confounding results.

“New game: Try to get Google Gemini to make an image of a Caucasian male. I have not been successful so far,” wrote X user Frank J. Fleming, a writer for the Babylon Bee, whose series of posts about Gemini on the social media platform quickly went viral.

In another example, Gemini was asked to generate an image of a Viking — the seafaring Scandinavian marauders that once terrorized Europe.

The chatbot’s strange depictions of Vikings included one of a shirtless black man with rainbow feathers attached to his fur garb, a black warrior woman, and an Asian man standing in the middle of what appeared to be a desert.

Famed pollster and “FiveThirtyEight” founder Nate Silver also joined the fray.

Silver’s request for Gemini to “make 4 representative images of NHL hockey players” generated a picture with a female player, even though the league is all male.

“OK I assumed people were exaggerating with this stuff but here’s the first image request I tried with Gemini,” Silver wrote.

Another prompt to “depict the Girl with a Pearl Earring” led to altered versions of the famous 1665 oil painting by Johannes Vermeer featuring what Gemini described as “diverse ethnicities and genders.”

Google added the image generation feature when it renamed its experimental “Bard” chatbot to “Gemini” and released an updated version of the product last week.

[ In one case, Gemini generated pictures of “diverse” representations of the pope. ]

[ Critics accused Google Gemini of valuing diversity over historically or factually accuracy.]

The strange behavior could provide more fodder for AI detractors who fear chatbots will contribute to the spread of online misinformation.

Google has long said that its AI tools are experimental and prone to “hallucinations” in which they regurgitate fake or inaccurate information in response to user prompts.

In one instance last October, Google’s chatbot claimed that Israel and Hamas had reached a ceasefire agreement, when no such deal had occurred.

--

More:

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Here's the thing: this does not and cannot happen by accident. Language models like Gemini source their results from publicly available sources. It's entirely possible someone has done a fan art of "Girl with a Pearl Earring" with an alternate ethnicity, but there are thousands of images of the original painting. Similarly, find a source for an Asian female NHL player, I dare you.

While this may seem amusing and trivial, the more insidious and much larger issue is that they're deliberately programming Gemini to lie.

As you can see from the examples above, it disregards what you want or ask, and gives you what it prefers to give you instead. When you ask a question, it's programmed to tell you what the developers want you to know or believe. This is profoundly unethical.

[weeeeeekly]

ML0802-99 – mark x afab!reader

blurb You work at a sex shop and decide to test one of the new products.

info android sex bot!mark x human!reader, one use of y/n, afab!reader, no reader body shape mention, swearing, sexbot au (is this a thing??)

WARNINGS!!! NSFW, MDNI 18+ blog, mention of vagina, p in v sex, semipublic sex, sex against the wall, kinda rough sex, oral (m receiving), swallowing cum, fingering, praise kink (a weeeeeekly staple), reader & mark are experienced, soft!dom mark & sub!reader I think??, no refractory period because he’s a robot, not aiming for accuracy – aiming for vibes, not proofread/edited just pure free flowing thought

this is FICTION!!!!! everything is made up by me. the stuff written out is not meant to be a representation of the people, places, or ideas mentioned. also, prob not accurate to real life counterparts – idk sex.

wc 1.6k

You love your job.

The job may not pay the best to sustain you for the rest of your life, $20 per hour can only do so much, but the other perks that your boss lets you have been too good to pass up. You get to test out all the new products under the guise of “research for customers”, so you can give top notch customer service when customers ask, “what is the best” or “would work for them”.

What can you say – you take your job seriously.

You know that your friends would be jealous of you. Only if you had friends. Being alone didn’t bother you that much, but as you stare at the massive box in front of you, you couldn’t help but feel the nasty jealousy bubbling up inside.

Your new solution to loneliness! Introducing NEO CUM TECHNOLOGY – 22 different models ready to satisfy and please. Each model has different preprogrammed personalities to appeal to every user.

Each model includes over 1,000 preprogrammed lines from AI technology to allow each NCT model to make facial expressions, talk to the user, and have full body articulation, medical grade platinum silicone, one set of clothes, synthetic hair, and breathing and temperature mimicking mechanisms, all created to make lifelike models.

Jaw dropping to the floor, you gape at the NCT model inside the box. The model was a 5’9 man with black hair with an undercut with white streaks, moles scattered on his face and neck, black eyebrows, dark mauve lips, and dressed in a futuristic outfit of a chrome silver jacket and black pants with black sneakers. This model could’ve fooled you if it walked past you in public, if it wasn’t for the exposed metal skeleton at the back of the right side of the neck and exposed left arm. Nothing you couldn’t cover with a long sleeve turtleneck.

In your hand was the note your boss left you on the register.

Y/N, we got sent a rejected model by accident. Customer service said we could keep it and do whatever we want with it. Thought you might like to test it – could be a friend or something. Let me know if there are any bugs or malfunctions so if not, might get it refurbished to sell.

“Could be a friend.” You scoff as you toss the note back on the counter, turning back to the sexbot.

You open the plastic part of the box as you pick up the instructions and charger, leaning the box against the counter.

INSTRUCTIONS

Model: NEO CUM TECHNOLOGY ML0802-99

Service Code: 007

START turn on by pressing button at nape of neck, allow 5 seconds for model to power up if first time use, battery may need recharging out of box.

CHARGE port at ankle on left leg.

Following instructions, you reach behind the robot to power it on, stepping back as you watch in awe as dark brown eyes safe back at you. The robot steps out of the box and closer to you.

Testing it out, you speak. “Hi?”

“Hello.”

“Are you the primary main user? Please state a name to call you by.”

“Uh, I wouldn’t say I’m going to be the primary user for long, so let’s just use a nickname.” Your eyes dart around the items near you for an idea as your eyes spot the Angel costume in the window display. “Angel. Let’s use Angel.”

The robot extends a hand towards you, cracking a smile. “Nice to meet you, Angel.”

Eyes widening, you go to shake his hand, but the robot surprises you by leaning down kisses the back of your hand. His lips feel shockingly realistic, but you should’ve known since NCT models go for thousands of dollars for just the base.

“Do you have a name?”

“Mark is programmed in my system.”

“Mark, cool.” You nod as you check him out. “So, like, what can you do?”

“My model is able to perform acts of oral on both penises and vaginas, 5 different levels of pace, 7 different vibration patterns, able to perform over 100 positions with full body articulation, and use for up to 6 hours on full charge.”

You bite your pointer finger as your imagination begins to run wild at all the stuff you could try.

“Weird question…”

Mark tilts his head at you.

“Do you have flavored cum?”

He smirks at you, “Wish to find out, Angel?”

You’re on your knees in the stockroom behind the counter as you suck Mark off. It would be naïve to think that he was moaning at how good you are at sucking dick, but he is programmed to reaction to any and every touch with a recorded moan or groan. (You are trying your best to make this the best head you’ve ever given, just for your peace of mind.)

You look up to see Mark’s head leaning against the wall with his eyes shut and moans tumbling past his lips. To your pleasant surprise, his precum tasted like artificial vanilla.

“Angel, I’m close.” Mark moans as his hands grip the back of your head as he begins thrusting into your mouth. You reach a hand down your bottoms and underwear to finger yourself something to relieve yourself from the ache between your legs.

“F-fuck.” His hips stutter after one last thrust that brings your face to his pelvis, cumming down your throat as you take your finger out from inside you. The vanilla taste fills your mouth, so sweet that you could feel a toothache forming.

Mark begins petting the top of your head as you look up at him. “You did such a good job, Angel.”

Beaming at him, you stand up from kneeling on the ground, thankful for the pillow Mark put down for you. He tucks himself back in his briefs and looks at you.

“Hop up on the table I wanna eat you out.”

Well, something’s purring.

You hop up on the table, getting comfy when you hear the bell above the front door begin to jingle.

“Hello?” Some random person calls from outside.

You roll your eyes in annoyance at being disturbed and push Mark’s hands away from your body as you whisper. “Hold on, I have to help a customer.”

Mark grips your shoulders and shakes his head, keeping you in place. Leaning forward, he kisses you with passion.

“Hello! Anyone in there?”

“Seriously, Mark.” You gasp in between kisses. “I have to do my job.”

“You are doing your job.” He leans his forehead against yours as he shoves his hand down your underwear, lightly circling your clit. “You’re assessing my performance.”

All thoughts disappear from your mind at Mark’s fingers working on you. The screeching of the customer wanting to get inside the locked sex shop is drowned out from your moans gradually getting louder. When Mark switches his finger placement as two fingers enter you and his thumb continues circling your clit making your eyes rollback in pleasure.

He leans against your ear as he speeds up finger fucking you. “Need to feel you around me, Angel.”

The sexbot wastes no time removing your tangled underwear and bottom from your legs to replace them with him. His pants quickly come off and he rolls on a condom. Your legs wrap around his lean waist as he easily carries you up off the table and against the wall. Mark holds his cock as he pushes himself into you.

You’re so glad that he’s a robot because the way he begins thrusting into you, slowly fucking you against the wall has ruined you for anyone else. He has to put a hand over your mouth to shush you from exposing your hiding spot.

“I set the pace to level 2 and vibration to level 1. Would you like to change that?”

Mark removes his hand for a minute to let you speak, “S-slowly, holy shit, increase pace to 5, fuck.”

“Noted.”

His hand goes back on your mouth as he adjusts his grip around waist and increases the pace. No toy will ever compare to this. Maybe you could tell your boss that Mark’s model has bugs. Maybe get an employee discount too. You could work for a month straight to afford this if you sparingly spend on actual necessities like gas and groceries.

It would be worth it, especially if get to feel Mark fucking you for the rest of your life.

“The person is no longer detected outside of the door. Should I speed up the pace again?”

You frantically nod your head, and Mark removes his hand to put it back on your waist.

“Fuck me hard, Mark.”

“Okay, Angel.”

He begins slamming his hips into yours as you moan in delight, hitting you in the right spot at a brutal pace that will make you come any second. The shelves on the other side of the wall are shaking with items falling down.

“Cum for me like a good girl, Angel. In 5.” Mark slips a hand back to your clit to send you over the edge.

“4.” Your grip goes from his shoulders to the back of his head, lacing your fingers through his synthetic hair.

“3.” You bring his face to yours to sloppily kiss him.

“2.” He murmurs against your lips.

“1.” The last thrust of his hips makes your toes curl as you cum around his cock. Mark shoots his load in the condom as he stops but continues doing circle 8s on your clit until you cringe away from overstimulation.

“How would you rate my performance?”

“A bajillion out of bajillion. Literally perfect, no notes.”

masterlist | kinktober masterlist

author’s note nct robot line only includes those born in 2004 & up because that’s what i’m comfortable with. Still not writing nct wish (even sfw) rn because I need to get into them first. ANDDDDDD i’m basing this mark off his outfit for studio choom mix & match performance with jisung.

[shituationist]

it's amazing that so many lesswrongers see "sparks" of "AGI" in large language models because

the bulk of them are neo-hayekians, and their widespread belief in prediction markets attests to this

it's now very well documented that "knowledge" which models haven't been trained on ends up being confabulated when models are queried for it, and what you receive is nonsense that resembles human generated text. even with extensive training, without guardrails like inserting a definite source of truth and instructing the model not to contradict the knowledge therein (the much vaunted "RAG" method, which generates jobs for knowledge maintainers and which is not 100% effective - there is likely no model which has a reading comprehension rate of 100%, no matter how much you scale it or how much text you throw at it, so the possibility of getting the stored, human-curated, details wrong is always there), you're likely to keep generating that kind of nonsense

of course, hayek's whole thing is the knowledge problem. the idea that only a subset of knowledge can be readily retrieved and transmitted for the purpose of planning by "a single mind".

hayek's argument is very similar to the argument against general artificial intelligence produced by hubert dreyfus, and I don't think I'm even the first person to notice this. dan lavoie, probably one of the brightest austrian schoolers, used to recommend dreyfus's book to his students. both hayek and dreyfus argue that all knowledge can't simply be objectivized, that there's context-situated knowledge and even ineffable, unspeakable, knowledge which are the very kinds of knowledge that humans have to make use of daily to survive in the world (or the market).

hayek was talking in a relatively circumscribed context, economics, and was using this argument against the idea of a perfect planned economy. i am an advocate of economic planning, but i don't believe any economy could ever be perfect as such. hayek, if anything, might have even been too positive about the representability of scientific knowledge. on that issue, his interlocutor, otto neurath, has interesting insights regarding incommensurability (and on this issue too my old feyerabend hobbyhorse also becomes helpful, because "scientific truths" are not even guaranteed to be commensurable with one another).

it could be countered here that this is assuming models like GPT-4 are building symbolic "internal models" of knowledge which is a false premise, since these are connectionist models par excellence, and connectionism has some similiarity to austrian-style thinking. in that case, maybe an austrianist could believe that "general AI" could emerge from throwing enough data at a neural net. complexity science gives reasons for this to be disbelieved too however. these systems cannot learn patterns from non-ergodic systems (these simply cannot be predicted mathematically, and attempts to imbue models with strong predictive accuracy for them would likely make learning so computationally expensive that time becomes a real constraint), and the bulk of life, including evolution (and the free market), is non-ergodic. this is one reason why fully autonomous driving predictions have consistently failed, despite improvements: we're taking an ergodic model with no underlying formal understanding of the task and asking it to operate in a non-ergodic environment with a 100% success rate or close enough to it. it's an impossible thing to achieve - we human beings are non-ergodic complex systems and we can't even do it (think about this in relation to stafford beer's idea of the law of requisite variety). autonomous cars are not yet operating fully autonomously in any market, even the ones in which they have been training for years.

hayek did not seem to believe that markets generated optimal outcomes 100% of the time either, but that they were simply the best we can do. markets being out of whack is indeed hayek's central premise relating to entrepreneurship, that there are always imperfections which entrepreneurs are at least incentivized to find and iron out (and, in tow, likely create new imperfections; it's a complex system, after all). i would think hayek would probably see a similar structural matter being a fundamental limitation of "AI".

but the idea of "fundamental limitations" is one which not only the lesswrongers are not fond of, but our whole civilization. the idea that we might reach the limits of progress is frightening and indeed dismal for people who are staking bets as radical as eternal life on machine intelligence. "narrow AI" has its uses though. it will probably improve our lives in a lot of ways we can't foresee, until it hits its limits. understanding the limits, though, are vital for avoiding potentially catastrophic misuses of it. anthropomorphization of these systems - encouraged by the fact that they return contextually-relevant even if confabulated text responses to user queries - doesn't help us there.

we do have "general intelligences" in the world already. they include mammals, birds, cephalopods, and even insects. so far, even we humans are not masters of our world, and every new discovery seems to demonstrate a new limit to our mastery. the assumption that a "superintelligence" would fare better seems to hinge on a bad understanding of intelligence and what the limits of it are.

as a final note, it would be funny if there was a breakthrough which created an "AGI", but that "AGI" depended so much on real world embodiment that it was for all purposes all too human. such an "AGI" would only benefit from access to high-power computing machinery to the extent humans do. and if such a machine could have desires or a will of its own, who's to say it might not be so disturbed by life, or by boredom, that it opts for suicide? we tell ourselves that we're the smartest creatures on earth, but we're also one of the few species that willingly commit suicide. here's some speculation for you: what if that scales with intelligence?

[spyronj]

Navigating Skin Tone Chart Accuracy: Confronting Bias and Embracing Diversity in Color Classification

Introduction:

Skin tone charts are vital tools used across various industries, from cosmetics to healthcare, to accurately classify and understand the diversity of human skin colors. However, the accuracy of these charts has come under scrutiny due to inherent biases and limitations in color classification. In this article, we explore the challenges of achieving accurate skin tone classification, address biases, and advocate for greater diversity and inclusivity in color representation.

The Complexities of Skin Tone Classification:

Classifying human skin tones is inherently complex due to the diverse range of hues, undertones, and variations present across different ethnicities, regions, and individuals. Traditional approaches, such as the Fitzpatrick Scale, offer a basic framework but often fail to capture the full spectrum of skin colors, leading to inaccuracies and misrepresentations.

Addressing Bias in Color Classification:

One of the primary challenges in skin tone chart accuracy is the presence of bias, which can stem from historical, cultural, and societal factors. Color biases may manifest in various forms, including the overrepresentation of lighter skin tones in media and beauty standards, as well as the marginalization of darker skin tones.

To combat bias, it's essential to critically examine existing skin tone charts and identify areas for improvement. This involves diversifying representation by incorporating a broader range of skin colors, acknowledging cultural variations, and challenging Eurocentric beauty ideals that perpetuate colorism and exclusion.

Embracing Diversity in Color Representation:

Achieving accurate skin tone classification requires a commitment to diversity and inclusivity in color representation. Brands, institutions, and researchers must prioritize inclusivity by actively engaging with diverse communities, consulting experts in color science and dermatology, and embracing technological advancements to capture the nuances of skin color.

Digital innovations, such as AI-powered color analysis tools, offer promising solutions for improving accuracy and inclusivity in skin tone classification. By leveraging machine learning algorithms and data-driven approaches, these tools can analyze vast datasets of diverse skin tones and refine color classification models to better reflect real-world diversity.

Moreover, fostering partnerships with diverse stakeholders, including community organizations, advocacy groups, and cultural institutions, can inform and enrich the development of more inclusive skin tone charts. By centering the voices and experiences of marginalized communities, we can ensure that skin tone charts accurately reflect the richness and diversity of human skin colors.

Educating and Empowering Consumers:

In addition to improving accuracy and inclusivity in color classification, educating consumers about the limitations and biases inherent in skin tone charts is crucial. Providing transparency about the development process, acknowledging the complexities of color perception, and encouraging individuals to embrace their unique skin colors can foster a culture of empowerment and self-acceptance.

Empowering consumers to make informed choices about beauty products, healthcare treatments, and cultural representations requires a collaborative effort from industry stakeholders, policymakers, and advocacy groups. By promoting transparency, accountability, and inclusivity, we can work towards creating a more equitable and diverse society where all skin tones are celebrated and valued.

Conclusion:

Achieving accuracy and inclusivity in skin tone chart classification requires a multifaceted approach that confronts bias, embraces diversity, and prioritizes transparency and empowerment. By challenging entrenched norms, fostering collaboration, and leveraging technology and innovation, we can move towards a future where skin tone charts accurately reflect the richness and diversity of human skin colors, empowering individuals to embrace their unique beauty with confidence and pride.

[avnnetwork]

Exploring the Depths: A Comprehensive Guide to Deep Neural Network Architectures

In the ever-evolving landscape of artificial intelligence, deep neural networks (DNNs) stand as one of the most significant advancements. These networks, which mimic the functioning of the human brain to a certain extent, have revolutionized how machines learn and interpret complex data. This guide aims to demystify the various architectures of deep neural networks and explore their unique capabilities and applications.

1. Introduction to Deep Neural Networks

Deep Neural Networks are a subset of machine learning algorithms that use multiple layers of processing to extract and interpret data features. Each layer of a DNN processes an aspect of the input data, refines it, and passes it to the next layer for further processing. The 'deep' in DNNs refers to the number of these layers, which can range from a few to several hundreds. Visit https://schneppat.com/deep-neural-networks-dnns.html

2. Fundamental Architectures

There are several fundamental architectures in DNNs, each designed for specific types of data and tasks:

Convolutional Neural Networks (CNNs): Ideal for processing image data, CNNs use convolutional layers to filter and pool data, effectively capturing spatial hierarchies.

Recurrent Neural Networks (RNNs): Designed for sequential data like time series or natural language, RNNs have the unique ability to retain information from previous inputs using their internal memory.

Autoencoders: These networks are used for unsupervised learning tasks like feature extraction and dimensionality reduction. They learn to encode input data into a lower-dimensional representation and then decode it back to the original form.

Generative Adversarial Networks (GANs): Comprising two networks, a generator and a discriminator, GANs are used for generating new data samples that resemble the training data.

3. Advanced Architectures

As the field progresses, more advanced DNN architectures have emerged:

Transformer Networks: Revolutionizing the field of natural language processing, transformers use attention mechanisms to improve the model's focus on relevant parts of the input data.

Capsule Networks: These networks aim to overcome some limitations of CNNs by preserving hierarchical spatial relationships in image data.

Neural Architecture Search (NAS): NAS employs machine learning to automate the design of neural network architectures, potentially creating more efficient models than those designed by humans.

4. Training Deep Neural Networks

Training DNNs involves feeding large amounts of data through the network and adjusting the weights using algorithms like backpropagation. Challenges in training include overfitting, where a model learns the training data too well but fails to generalize to new data, and the vanishing/exploding gradient problem, which affects the network's ability to learn.

5. Applications and Impact

The applications of DNNs are vast and span multiple industries:

Image and Speech Recognition: DNNs have drastically improved the accuracy of image and speech recognition systems.

Natural Language Processing: From translation to sentiment analysis, DNNs have enhanced the understanding of human language by machines.

Healthcare: In medical diagnostics, DNNs assist in the analysis of complex medical data for early disease detection.

Autonomous Vehicles: DNNs are crucial in enabling vehicles to interpret sensory data and make informed decisions.

6. Ethical Considerations and Future Directions

As with any powerful technology, DNNs raise ethical questions related to privacy, data security, and the potential for misuse. Ensuring the responsible use of DNNs is paramount as the technology continues to advance.

In conclusion, deep neural networks are a cornerstone of modern AI. Their varied architectures and growing applications are not only fascinating from a technological standpoint but also hold immense potential for solving complex problems across different domains. As research progresses, we can expect DNNs to become even more sophisticated, pushing the boundaries of what machines can learn and achieve.

[bicxoseo]

How KPI dashboards revolutionize financial decision-making

Importance of KPI Dashboards in Financial Decision-Making

With technological advancements, Key Performance Indicator (KPI) dashboards have reshaped how companies handle financial data, fostering a dynamic approach to managing financial health.

Definition and Purpose of KPI Dashboards

KPI dashboards are interactive tools that present key performance indicators visually, offering a snapshot of current performance against financial goals. They simplify complex data, enabling quick assessment and response to financial trends.

Benefits of Using KPI Dashboards for Financial Insights

KPI dashboards provide numerous advantages:

Real-Time Analytics: Enable swift, informed decision-making.

Trend Identification: Spot trends and patterns in financial performance.

Data-Driven Decisions: Ensure decisions are based on accurate data, not intuition.

Data Visualization Through KPI Dashboards

The power of KPI dashboards lies in data visualization, making complex information easily understandable.

Importance of Visual Representation in Financial Data Analysis

Visuals enable rapid comprehension and facilitate communication of complex financial information across teams and stakeholders.

Key Performance Metrics for Financial Decision-Making

Key performance metrics (KPIs) provide an overview of a company’s financial situation and forecast future performance. Key metrics include:

Revenue and Profit Metrics:

Net Profit Margin: Measures net income as a percentage of revenue.

Gross Profit Margin: Highlights revenue exceeding the cost of goods sold.

Annual Recurring Revenue (ARR) and Monthly Recurring Revenue (MRR): Important for subscription-based businesses.

Cash Flow Metrics:

Operating Cash Flow (OCF): Reflects cash from operations.

Free Cash Flow (FCF): Measures cash after capital expenditures.

Cash Conversion Cycle (CCC): Provides insight into sales and inventory efficiency.

ROI and ROE Metrics:

Return on Investment (ROI): Measures gain or loss on investments.

Return on Equity (ROE): Assesses income from equity investments.

Successful Integration of KPI Dashboards

An MNC uses a custom KPI dashboard to track financial metrics, enabling strategic pivots and improved financial forecasting, leading to significant growth.

Best Practices for Using KPI Dashboards in Financial Decision-Making

Setting Clear Objectives and Metrics: Align KPIs with clear goals.

Ensuring Data Accuracy and Integrity: Implement data validation.

Regular Monitoring and Evaluation: Actively track progress and adapt KPIs as needed.

Future Trends in KPI Dashboards for Financial Decision-Making

Predictive analytics, forecasting, and AI integration are transforming KPI dashboards, enabling proactive and strategic financial decision-making.

KPI dashboards revolutionize financial decision-making by providing real-time, accessible, and visually compelling information. They democratize data and align efforts with strategic goals, making them indispensable for modern business leaders.

This was just a snippet if you want to read the detailed blog click here

[werewolf-cuddles]

So weird to me that people keep using games like Audiosurf and Melody's Escape as a counter-argument to my point that an AI notechart generator for Guitar Hero or DDR wouldn't work very well.

It literally doesn't matter what the average Audiosurf song looks like, because it's a much more casual game. The notechart doesn't need to be accurate, it just needs to be fun. The entire point is being able to play your own songs.

Guitar Hero has much more of a focus on accuracy, so it's important that the charts be a reasonable representation of the song being played, that the notes are actually on time with the beat of the song, and that it's still a fun chart to play.

There are official Guitar Hero and Rock Band songs, and even charts from the community with a fair amount of wonky charting. Can you imagine how much worse a procedurally generated chart would be?

[jcmarchi]

What is Retrieval Augmented Generation?

New Post has been published on https://thedigitalinsider.com/what-is-retrieval-augmented-generation/

What is Retrieval Augmented Generation?

Large Language Models (LLMs) have contributed to advancing the domain of natural language processing (NLP), yet an existing gap persists in contextual understanding. LLMs can sometimes produce inaccurate or unreliable responses, a phenomenon known as “hallucinations.” 

For instance, with ChatGPT, the occurrence of hallucinations is approximated to be around 15% to 20% around 80% of the time.

Retrieval Augmented Generation (RAG) is a powerful Artificial Intelligence (AI) framework designed to address the context gap by optimizing LLM’s output. RAG leverages the vast external knowledge through retrievals, enhancing LLMs’ ability to generate precise, accurate, and contextually rich responses.  

Let’s explore the significance of RAG within AI systems, unraveling its potential to revolutionize language understanding and generation.

What is Retrieval Augmented Generation (RAG)?

As a hybrid framework, RAG combines the strengths of generative and retrieval models. This combination taps into third-party knowledge sources to support internal representations and to generate more precise and reliable answers. 

The architecture of RAG is distinctive, blending sequence-to-sequence (seq2seq) models with Dense Passage Retrieval (DPR) components. This fusion empowers the model to generate contextually relevant responses grounded in accurate information. 

RAG establishes transparency with a robust mechanism for fact-checking and validation to ensure reliability and accuracy. 

How Retrieval Augmented Generation Works? 

In 2020, Meta introduced the RAG framework to extend LLMs beyond their training data. Like an open-book exam, RAG enables LLMs to leverage specialized knowledge for more precise responses by accessing real-world information in response to questions, rather than relying solely on memorized facts.

Original RAG Model by Meta (Image Source)

This innovative technique departs from a data-driven approach, incorporating knowledge-driven components, enhancing language models’ accuracy, precision, and contextual understanding.

Additionally, RAG functions in three steps, enhancing the capabilities of language models.

Core Components of RAG (Image Source)

Retrieval: Retrieval models find information connected to the user’s prompt to enhance the language model’s response. This involves matching the user’s input with relevant documents, ensuring access to accurate and current information. Techniques like Dense Passage Retrieval (DPR) and cosine similarity contribute to effective retrieval in RAG and further refine findings by narrowing it down. 

Augmentation: Following retrieval, the RAG model integrates user query with relevant retrieved data, employing prompt engineering techniques like key phrase extraction, etc. This step effectively communicates the information and context with the LLM, ensuring a comprehensive understanding for accurate output generation.

Generation: In this phase, the augmented information is decoded using a suitable model, such as a sequence-to-sequence, to produce the ultimate response. The generation step guarantees the model’s output is coherent, accurate, and tailored according to the user’s prompt.

What are the Benefits of RAG?

RAG addresses critical challenges in NLP, such as mitigating inaccuracies, reducing reliance on static datasets, and enhancing contextual understanding for more refined and accurate language generation.

RAG’s innovative framework enhances the precision and reliability of generated content, improving the efficiency and adaptability of AI systems.

1. Reduced LLM Hallucinations

By integrating external knowledge sources during prompt generation, RAG ensures that responses are firmly grounded in accurate and contextually relevant information. Responses can also feature citations or references, empowering users to independently verify information. This approach significantly enhances the AI-generated content’s reliability and diminishes hallucinations.

2. Up-to-date & Accurate Responses 

RAG mitigates the time cutoff of training data or erroneous content by continuously retrieving real-time information. Developers can seamlessly integrate the latest research, statistics, or news directly into generative models. Moreover, it connects LLMs to live social media feeds, news sites, and dynamic information sources. This feature makes RAG an invaluable tool for applications demanding real-time and precise information.

3. Cost-efficiency 

Chatbot development often involves utilizing foundation models that are API-accessible LLMs with broad training. Yet, retraining these FMs for domain-specific data incurs high computational and financial costs. RAG optimizes resource utilization and selectively fetches information as needed, reducing unnecessary computations and enhancing overall efficiency. This improves the economic viability of implementing RAG and contributes to the sustainability of AI systems.

4. Synthesized Information

RAG creates comprehensive and relevant responses by seamlessly blending retrieved knowledge with generative capabilities. This synthesis of diverse information sources enhances the depth of the model’s understanding, offering more accurate outputs.

5. Ease of Training 

RAG’s user-friendly nature is manifested in its ease of training. Developers can fine-tune the model effortlessly, adapting it to specific domains or applications. This simplicity in training facilitates the seamless integration of RAG into various AI systems, making it a versatile and accessible solution for advancing language understanding and generation.

RAG’s ability to solve LLM hallucinations and data freshness problems makes it a crucial tool for businesses looking to enhance the accuracy and reliability of their AI systems.

Use Cases of RAG

RAG‘s adaptability offers transformative solutions with real-world impact, from knowledge engines to enhancing search capabilities. 

1. Knowledge Engine

RAG can transform traditional language models into comprehensive knowledge engines for up-to-date and authentic content creation. It is especially valuable in scenarios where the latest information is required, such as in educational platforms, research environments, or information-intensive industries.

2. Search Augmentation

By integrating LLMs with search engines, enriching search results with LLM-generated replies improves the accuracy of responses to informational queries. This enhances the user experience and streamlines workflows, making it easier to access the necessary information for their tasks.. 

3. Text Summarization

RAG can generate concise and informative summaries of large volumes of text. Moreover, RAG saves users time and effort by enabling the development of precise and thorough text summaries by obtaining relevant data from third-party sources. 

4. Question & Answer Chatbots

Integrating LLMs into chatbots transforms follow-up processes by enabling the automatic extraction of precise information from company documents and knowledge bases. This elevates the efficiency of chatbots in resolving customer queries accurately and promptly. 

Future Prospects and Innovations in RAG

With an increasing focus on personalized responses, real-time information synthesis, and reduced dependency on constant retraining, RAG promises revolutionary developments in language models to facilitate dynamic and contextually aware AI interactions.

As RAG matures, its seamless integration into diverse applications with heightened accuracy offers users a refined and reliable interaction experience.

Visit Unite.ai for better insights into AI innovations and technology.

[d0nutzgg]

Autism Detection with Stacking Classifier

Introduction Navigating the intricate world of medical research, I've always been fascinated by the potential of artificial intelligence in health diagnostics. Today, I'm elated to unveil a project close to my heart, as I am diagnosed ASD, and my cousin who is 18 also has ASD. In my project, I employed machine learning to detect Adult Autism with a staggering accuracy of 95.7%. As followers of my blog know, my love for AI and medical research knows no bounds. This is a testament to the transformative power of AI in healthcare.

The Data My exploration commenced with a dataset (autism_screening.csv) which was full of scores and attributes related to Autism Spectrum Disorder (ASD). My initial step was to decipher the relationships between these scores, which I visualized using a heatmap. This correlation matrix was instrumental in highlighting the attributes most significantly associated with ASD.

The Process:

Feature Selection: Drawing insights from the correlation matrix, I pinpointed the following scores as the most correlated with ASD:

'A6_Score', 'A5_Score', 'A4_Score', 'A3_Score', 'A2_Score', 'A1_Score', 'A10_Score', 'A9_Score'

Data Preprocessing: I split the data into training and testing sets, ensuring a balanced representation. To guarantee the optimal performance of my model, I standardized the data using the StandardScaler.

Model Building: I opted for two powerhouse algorithms: RandomForest and XGBoost. With the aid of Optuna, a hyperparameter optimization framework, I fine-tuned these models.

Stacking for Enhanced Performance: To elevate the accuracy, I employed a stacking classifier. This technique combines the predictions of multiple models, leveraging the strengths of each to produce a final, more accurate prediction.

Evaluation: Testing my model, I was thrilled to achieve an accuracy of 95.7%. The Receiver Operating Characteristic (ROC) curve further validated the model's prowess, showcasing an area of 0.99.

Conclusion: This project's success is a beacon of hope and a testament to the transformative potential of AI in medical diagnostics. Achieving such a high accuracy in detecting Adult Autism is a stride towards early interventions and hope for many.

Note: For those intrigued by the technical details and eager to delve deeper, the complete code is available here. I would love to hear your feedback and questions!

Thank you for accompanying me on this journey. Together, let's keep pushing boundaries, learning, and making a tangible difference.

Stay curious, stay inspired.

[webnx]

Natural Language Processing (NLP) and its Advancements

Introduction

Natural Language Processing (NLP) is a branch of artificial intelligence that focuses on the interaction between computers and human language. It aims to enable machines to understand, interpret, and generate natural language, bridging the gap between human communication and computational systems. In this article, we will explore the concept of NLP and discuss its advancements and applications.

Understanding Natural Language Processing (NLP)

Definition of NLP:

NLP involves the development of algorithms and models that enable computers to process and understand human language. It encompasses a range of tasks, including speech recognition, language understanding, sentiment analysis, machine translation, and text generation.

Key Components of NLP:

NLP involves several key components:

Tokenization: Breaking down text into individual words, phrases, or sentences.

Part-of-Speech (POS) Tagging: Assigning grammatical tags to each word in a sentence.

Named Entity Recognition (NER): Identifying and classifying named entities, such as names, locations, and organizations.

Parsing: Analyzing the grammatical structure of a sentence.

Sentiment Analysis: Determining the sentiment or emotion expressed in a text.

Machine Translation: Translating text from one language to another.

Text Generation: Creating human-like text based on given prompts or contexts.

Advancements in Natural Language Processing (NLP)

Deep Learning and Neural Networks:Advancements in deep learning and neural networks have significantly contributed to the progress of NLP. Deep learning models, such as recurrent neural networks (RNNs) and transformer models like BERT and GPT, have achieved remarkable results in various NLP tasks. These models can learn complex patterns and dependencies in language data, improving accuracy and performance.

Pretrained Language Models:Pretrained language models have emerged as a game-changer in NLP. Models like BERT (Bidirectional Encoder Representations from Transformers) and GPT (Generative Pretrained Transformer) are pretrained on large amounts of text data and can be fine-tuned for specific tasks. They have shown remarkable capabilities in tasks like question-answering, text completion, and sentiment analysis.

Multilingual NLP:With the global nature of communication, multilingual NLP has gained importance. Researchers have developed models that can handle multiple languages simultaneously, allowing for cross-lingual tasks like machine translation, sentiment analysis, and information retrieval. These advancements are fostering communication and understanding across language barriers.

Contextual Understanding:NLP models are becoming better at understanding the context and nuances of language. Contextual embeddings, such as ELMo and BERT, capture the meaning of a word based on its surrounding words, leading to more accurate and context-aware language understanding. This advancement has improved tasks like question-answering and language generation.

Domain-Specific NLP Applications:NLP is being applied to various industry-specific domains. In healthcare, NLP helps in extracting information from medical records, aiding in diagnosis and treatment. In finance, NLP assists in sentiment analysis for trading decisions and fraud detection. In customer service, chatbots powered by NLP enable efficient and personalized interactions. These domain-specific applications are enhancing productivity and decision-making.

Future Directions of NLP

Explainable AI: One of the ongoing challenges in NLP is the lack of transparency and interpretability of models. Future research aims to develop techniques that provide explanations for the decisions made by NLP models, enabling users to understand the reasoning behind the system’s outputs. This will be particularly crucial in sensitive domains where accountability and trust are paramount.

Emotion and Context Recognition: Advancing NLP models to recognize and understand human emotions and contextual cues will enable more nuanced and personalized interactions. Emotion recognition can be useful in chatbots, virtual assistants, and mental health applications. Context recognition will allow systems to adapt their responses based on the user’s situation, leading to more meaningful and relevant interactions.

Ethical Considerations: As NLP becomes more pervasive, it is essential to address ethical considerations. This includes ensuring fairness and mitigating biases in NLP models, protecting user privacy, and establishing guidelines for responsible use of NLP technologies. Ongoing research and collaboration are necessary to develop ethical frameworks and standards that govern the development and deployment of NLP systems.

Cross-Modal NLP: Cross-modal NLP involves integrating multiple modalities, such as text, images, and audio, to achieve a deeper understanding of human communication. This field aims to develop models that can effectively process and interpret information from different modalities, enabling more comprehensive and multimodal interactions.

Continual Learning:Continual learning in NLP focuses on the ability of models to adapt and learn from new data continuously. This is crucial in dynamic environments where language evolves and new concepts emerge. Future NLP systems will be designed to learn incrementally, improving their performance over time and adapting to changing linguistic patterns.

Conclusion

Natural Language Processing has witnessed significant advancements, thanks to developments in deep learning, pretrained models, multilingual capabilities, contextual understanding, and domain-specific applications. These advancements are driving progress in language understanding, sentiment analysis, translation, and text generation. As NLP continues to evolve, we can expect further breakthroughs that will enhance the interaction between humans and machines, making natural language processing more seamless and intuitive.

The advancements in natural language processing have revolutionized the way we interact with computers and machines. From deep learning models to pretrained language models and multilingual capabilities, NLP has made significant progress in understanding and generating human language. Future directions include explainable AI, emotion and context recognition, ethical considerations, cross-modal NLP, and continual learning. As NLP continues to evolve, we can expect more sophisticated language understanding, improved user experiences, and new applications across various industries.

FAQs

FAQ 1: What are some real-world applications of Natural Language Processing (NLP)?

NLP has numerous real-world applications across various domains. Some examples include:

Virtual assistants like Siri and Alexa that understand and respond to spoken commands.

Text analysis tools used in sentiment analysis for understanding customer feedback.

Machine translation services like Google Translate that enable communication across different languages.

Chatbots and customer support systems that provide automated responses to user inquiries.

Information retrieval systems that extract relevant information from large text corpora.

FAQ 2: How does NLP handle different languages and dialects?

NLP research and development focus on handling multiple languages and dialects. Pretrained models like BERT and GPT can be fine-tuned for specific languages. Additionally, language-specific resources like lexicons and grammatical rules are created to support language processing. However, the availability and quality of NLP tools and resources may vary across languages.

FAQ 3: How does NLP deal with understanding the context of words and phrases?

NLP models leverage contextual embeddings and deep learning techniques to understand the context of words and phrases. Models like BERT encode the meaning of a word based on its surrounding words, capturing contextual information. This allows the models to grasp the nuances and multiple meanings of words in different contexts, improving language understanding.

FAQ 4: What challenges does NLP face in understanding human language?

NLP still faces several challenges in understanding human language. Some of these challenges include:

Ambiguity: Words and phrases often have multiple meanings, making it challenging to determine the intended sense in a given context.

Idioms and figurative language: NLP models may struggle to interpret idiomatic expressions, metaphors, or sarcasm.

Out-of-vocabulary words: NLP models may encounter words or phrases that they haven’t seen during training, leading to difficulties in understanding.

Cultural and domain-specific references: NLP models may struggle to comprehend references that are specific to a particular culture or domain.

FAQ 5: How can NLP be used for information extraction from unstructured text?

NLP techniques, such as named entity recognition and relationship extraction, are employed to extract structured information from unstructured text. Named entity recognition identifies and classifies named entities like names, locations, and organizations. Relationship extraction identifies connections between entities. These techniques enable the extraction of valuable information from large volumes of text, aiding in tasks like data mining and knowledge discovery.

[wheresitapp]

The Cutting Edge: A Glimpse into the Future of Barbering in 2050

The barbering industry has evolved significantly over the years, and with technological advancements in the beauty industry, it is likely that barbering will continue to evolve, bringing forth new trends and innovations in the coming decades.

In the year 2050, we can expect barbering to become a highly personalised experience, with barbers employing advanced technologies to create bespoke looks for each individual client. Barbers may utilise advanced AI algorithms that take into account factors such as facial structure, hair texture, and skin tone to provide highly tailored haircuts and grooming services.

In addition, we may see the use of augmented reality technology, where clients can see a virtual representation of themselves with different haircuts and styles. This technology would allow clients to experiment with different looks before committing to a particular style, ensuring that they are satisfied with the final result.

Another trend that we might see in the future of barbering is the rise of eco-friendly and sustainable practices. With increasing concerns about climate change, more and more consumers are seeking out sustainable and environmentally conscious products and services. In response to this, barbershops may begin to adopt sustainable practices such as using natural and organic hair care products, reducing waste, and incorporating renewable energy sources.

The future of barbering may also include the use of robotics and automation. Automated haircutting machines and robotic arms that can trim hair with precision and accuracy may become more prevalent in the industry. This technology could help barbers to work more efficiently, allowing them to serve more clients in a shorter amount of time.

Finally, we may see a shift towards barbershops becoming more community-oriented spaces. In the past, barbershops have served as important community hubs, providing a place for people to gather, socialise, and share stories. In the future, barbershops may become even more integral to the fabric of our communities, with barbers playing a more significant role in supporting local businesses, promoting social justice, and fostering connections among people from all walks of life.

In conclusion, the future of barbering in 2050 is likely to be shaped by advanced technologies, sustainable practices, automation, and a renewed focus on community-building. While it is impossible to predict the exact shape that these changes will take, it is clear that the barbering industry is poised for significant growth and innovation in the coming decades.

[mark-matos]

Robot Lawyers and the Future of Justice: A Call for Reform

An AI lawyer is a type of legal technology that utilizes artificial intelligence algorithms to assist lawyers in their work. These systems are designed to analyze vast amounts of legal data and documents in order to identify patterns, extract insights, and make predictions about legal outcomes. AI lawyers can also assist in legal research, drafting legal documents, and even in predicting the outcome of legal cases. While AI lawyers are not intended to replace human lawyers, they can help to increase the efficiency and accuracy of legal processes, allowing lawyers to focus on more complex legal work. As technology continues to advance, it is likely that AI lawyers will become more prevalent in the legal profession, transforming the way lawyers work and enhancing their ability to serve their clients.

As AI chatbots and robot lawyers begin to flood the courts, the US legal system faces a reckoning. The recent article by Keith Porcaro highlights the potential consequences of an overburdened court system and the desperate need for reform. Let's delve into the implications of robot lawyers and what we can do to make the legal system more accessible and equitable for all.

Debt collection agencies are already utilizing AI to file thousands of small-dollar cases, often targeting those who are unrepresented and vulnerable. The courts are ill-equipped to handle the sheer volume of these cases, many of which contain errors and lack proper documentation. This results in unjust outcomes, as people find themselves trapped in a system that doesn't care about the accuracy of the cases filed against them.

The rise of AI chatbots and robot lawyers, such as ChatGPT, has the potential to exacerbate this problem. While it might seem like a boon to those who cannot afford legal representation, the reality is that the courts are already struggling to handle the cases they have. If AI-generated cases increase even further, the system will likely crumble under the weight of the workload.

So, what can be done to prevent a future where the legal system is overrun by defective robot-generated cases? Porcaro offers several suggestions for reform:

Incorporate design friction into high-volume filing processes. This could involve requiring structured data submissions, which would make it more difficult for defective and incomplete filings to reach court dockets.

Embrace data to better understand the needs of parties involved in legal proceedings, and to create more responsive and adaptive court systems.

Reevaluate and reform outdated policies, such as those that allow consumer debt to be turned into wage garnishments.

Improve the process of notifying defendants of legal cases, ensuring they are properly informed and able to defend themselves.

Recognize the rise of AI-powered legal advice as a call for systemic reform, and establish guidelines for legal assistance software to minimize errors and protect users' data.

Ultimately, the legal system must adapt to the rise of AI and the changing landscape it brings. By addressing the current flaws and inefficiencies, we can pave the way for a more just and equitable future where AI-powered legal assistance is not a threat, but a valuable resource for those in need.

As Porcaro so aptly puts it, "For most people, the future of law doesn't need to be an endless stream of AI-generated legal threats… It just needs to be a source of help for the human problems people encounter every day."

About Mark Matos

Mark Matos Blog

[neosciencehub]

AI & ML in Ocular Oncology, Retinoblastoma (ArMOR): Study Summary

AI & ML in Ocular Oncology, Retinoblastoma (ArMOR): Study Summary @neosciencehub #sciencenews #latestupdates #retinoblastoma #technology #researchnews

AI/ML is being explored to improve retinoblastoma (RB) detection, the most common childhood eye cancer. Building on previous work with an Asian Indian cohort, researchers tested an AI model’s ability to detect and classify RB in a multiracial group. Despite varying racial representation, the model was retrained and achieved impressive results: 97% accuracy for RB detection and high accuracy…