An artificial intelligence system known as “generative AI” is capable of producing a variety of content, such as text, photos, audio, and synthetic data. The recent excitement surrounding generative AI has been spurred by the simplicity with which new user interfaces can produce high-quality text, photos, and movies in seconds.
It is important to understand that the technology is not new. Chatbots first used generative AI in the 1960s. However, it was not until 2014, with the invention of generative adversarial networks, or GANs, a type of machine learning algorithm, that generative AI was able to produce photos, movies, and sounds of real people that are stunningly realistic.
On the one hand, this additional power has created potential for better movie dubbing and more instructive content. It also raised concerns about deep fakes (digitally created photos or videos) and detrimental cybersecurity attacks on enterprises, such as fraudulent demands that closely resemble an employee’s boss.
Transformers and the breakthrough language models they enabled have also contributed significantly to the mainstreaming of generative AI, as will be described further below. Transformers are a type of machine learning that allows researchers to train increasingly massive models without having to classify all of the data beforehand. New models might be trained on billions of pages of text, yielding more detailed answers.
Transformers also introduced a new concept known as attentiveness, which allowed models to follow word connections across pages, chapters, and books rather than just individual phrases. Transformers could use their ability to track connections to examine code, proteins, chemicals, and DNA, as well as words.
The fast advancement of so-called large language models (LLMs), models with billions or even trillions of parameters, has ushered in a new era in which generative AI models can write engaging text, paint photorealistic graphics, and even create reasonably funny comedies on the fly. Furthermore, improvements in multimodal AI enable teams to create content in a variety of formats, such as text, pictures, and videos.
The initial stage in the generative AI process is a prompt, which can be any kind of input that the AI system can analyze, including words, images, videos, designs, musical notation, and other inputs. Subsequently, distinct AI systems react to the directive by providing new material. Content can include essays, problem-solving strategies, and realistic fakes created from actual people’s photos or speech.
Data submission in the early stages of generative AI necessitated the usage of an API or other time-consuming processes. The developers needed to learn how to use specialized tools and write programs in languages like Python.
These days, the forerunners of generative AI are developing enhanced user interfaces that let you communicate a request simply. Following an initial response, you can further tailor the outcomes by providing input regarding the tone, style, and other aspects you would like the generated content to encompass.
To represent and analyze content, generative AI models mix several AI techniques. To produce text, for instance, different natural language processing methods convert raw characters (such as letters, punctuation, and words) into sentences, entities, and actions. These are then represented as vectors by encoding them using various techniques. Similar techniques are used with vectors to communicate different visual aspects from photographs. Note that racism, prejudice, deceit, and puffery included in the training data may also be encoded by these tactics.
Once developers have chosen a representation of the world, they utilize a particular neural network to generate new information in response to a prompt or query. Realistic human faces, customized human effigies, and artificial intelligence training data can all be produced using neural networks with a decoder and an encoder, often known as variational autoencoders (VAEs).
In addition to encoding text, images, and proteins, recent advancements in transformers, such as Google’s Bidirectional Encoder Representations from Transformers (BERT), OpenAI’s GPT, and Google AlphaFold, have also sparked the creation of neural networks that can generate original material.
Transformers and the breakthrough language models they enabled have also contributed significantly to the mainstreaming of generative AI, as will be described further below. Transformers are a type of machine learning that allows researchers to train increasingly massive models without having to classify all of the data beforehand. New models might be trained on billions of pages of text, yielding more detailed answers.
Transformers also introduced a new concept known as attentiveness, which allowed models to follow word connections across pages, chapters, and books rather than just individual phrases. Transformers could use their ability to track connections to examine code, proteins, chemicals, and DNA, as well as words.
The fast advancement of so-called large language models (LLMs), models with billions or even trillions of parameters, has ushered in a new era in which generative AI models can write engaging text, paint photorealistic graphics, and even create reasonably funny comedies on the fly. Furthermore, improvements in multimodal AI enable teams to create content in a variety of formats, such as text, pictures, and videos.
The initial stage in the generative AI process is a prompt, which can be any kind of input that the AI system can analyze, including words, images, videos, designs, musical notation, and other inputs. Subsequently, distinct AI systems react to the directive by providing new material. Content can include essays, problem-solving strategies, and realistic fakes created from actual people’s photos or speech.
Data submission in the early stages of generative AI necessitated the usage of an API or other time-consuming processes. The developers needed to learn how to use specialized tools and write programs in languages like Python.
These days, the forerunners of generative AI are developing enhanced user interfaces that let you communicate a request simply. Following an initial response, you can further tailor the outcomes by providing input regarding the tone, style, and other aspects you would like the generated content to encompass.
To represent and analyze content, generative AI models mix several AI techniques. To produce text, for instance, different natural language processing methods convert raw characters (such as letters, punctuation, and words) into sentences, entities, and actions. These are then represented as vectors by encoding them using various techniques. Similar techniques are used with vectors to communicate different visual aspects from photographs. Note that racism, prejudice, deceit, and puffery included in the training data may also be encoded by these tactics.
Once developers have chosen a representation of the world, they utilize a particular neural network to generate new information in response to a prompt or query. Realistic human faces, customized human effigies, and artificial intelligence training data can all be produced using neural networks with a decoder and an encoder, often known as variational autoencoders (VAEs).
In addition to encoding text, images, and proteins, recent advancements in transformers, such as Google’s Bidirectional Encoder Representations from Transformers (BERT), OpenAI’s GPT, and Google AlphaFold, have also sparked the creation of neural networks that can generate original material.
Transformers and the breakthrough language models they enabled have also contributed significantly to the mainstreaming of generative AI, as will be described further below. Transformers are a type of machine learning that allows researchers to train increasingly massive models without having to classify all of the data beforehand. New models might be trained on billions of pages of text, yielding more detailed answers.
Transformers also introduced a new concept known as attentiveness, which allowed models to follow word connections across pages, chapters, and books rather than just individual phrases. Transformers could use their ability to track connections to examine code, proteins, chemicals, and DNA, as well as words.
The fast advancement of so-called large language models (LLMs), models with billions or even trillions of parameters, has ushered in a new era in which generative AI models can write engaging text, paint photorealistic graphics, and even create reasonably funny comedies on the fly. Furthermore, improvements in multimodal AI enable teams to create content in a variety of formats, such as text, pictures, and videos.
The initial stage in the generative AI process is a prompt, which can be any kind of input that the AI system can analyze, including words, images, videos, designs, musical notation, and other inputs. Subsequently, distinct AI systems react to the directive by providing new material. Content can include essays, problem-solving strategies, and realistic fakes created from actual people’s photos or speech.
Data submission in the early stages of generative AI necessitated the usage of an API or other time-consuming processes. The developers needed to learn how to use specialized tools and write programs in languages like Python.
These days, the forerunners of generative AI are developing enhanced user interfaces that let you communicate a request simply. Following an initial response, you can further tailor the outcomes by providing input regarding the tone, style, and other aspects you would like the generated content to encompass.
To represent and analyze content, generative AI models mix several AI techniques. To produce text, for instance, different natural language processing methods convert raw characters (such as letters, punctuation, and words) into sentences, entities, and actions. These are then represented as vectors by encoding them using various techniques. Similar techniques are used with vectors to communicate different visual aspects from photographs. Note that racism, prejudice, deceit, and puffery included in the training data may also be encoded by these tactics.
Once developers have chosen a representation of the world, they utilize a particular neural network to generate new information in response to a prompt or query. Realistic human faces, customized human effigies, and artificial intelligence training data can all be produced using neural networks with a decoder and an encoder, often known as variational autoencoders (VAEs).
In addition to encoding text, images, and proteins, recent advancements in transformers, such as Google’s Bidirectional Encoder Representations from Transformers (BERT), OpenAI’s GPT, and Google AlphaFold, have also sparked the creation of neural networks that can generate original material.
Transformers and the breakthrough language models they enabled have also contributed significantly to the mainstreaming of generative AI, as will be described further below. Transformers are a type of machine learning that allows researchers to train increasingly massive models without having to classify all of the data beforehand. New models might be trained on billions of pages of text, yielding more detailed answers.
Transformers also introduced a new concept known as attentiveness, which allowed models to follow word connections across pages, chapters, and books rather than just individual phrases. Transformers could use their ability to track connections to examine code, proteins, chemicals, and DNA, as well as words.
The fast advancement of so-called large language models (LLMs), models with billions or even trillions of parameters, has ushered in a new era in which generative AI models can write engaging text, paint photorealistic graphics, and even create reasonably funny comedies on the fly. Furthermore, improvements in multimodal AI enable teams to create content in a variety of formats, such as text, pictures, and videos.
The initial stage in the generative AI process is a prompt, which can be any kind of input that the AI system can analyze, including words, images, videos, designs, musical notation, and other inputs. Subsequently, distinct AI systems react to the directive by providing new material. Content can include essays, problem-solving strategies, and realistic fakes created from actual people’s photos or speech.
Data submission in the early stages of generative AI necessitated the usage of an API or other time-consuming processes. The developers needed to learn how to use specialized tools and write programs in languages like Python.
These days, the forerunners of generative AI are developing enhanced user interfaces that let you communicate a request simply. Following an initial response, you can further tailor the outcomes by providing input regarding the tone, style, and other aspects you would like the generated content to encompass.
To represent and analyze content, generative AI models mix several AI techniques. To produce text, for instance, different natural language processing methods convert raw characters (such as letters, punctuation, and words) into sentences, entities, and actions. These are then represented as vectors by encoding them using various techniques. Similar techniques are used with vectors to communicate different visual aspects from photographs. Note that racism, prejudice, deceit, and puffery included in the training data may also be encoded by these tactics.
Once developers have chosen a representation of the world, they utilize a particular neural network to generate new information in response to a prompt or query. Realistic human faces, customized human effigies, and artificial intelligence training data can all be produced using neural networks with a decoder and an encoder, often known as variational autoencoders (VAEs).
In addition to encoding text, images, and proteins, recent advancements in transformers, such as Google’s Bidirectional Encoder Representations from Transformers (BERT), OpenAI’s GPT, and Google AlphaFold, have also sparked the creation of neural networks that can generate original material.
Limitless Possibilities
Generative AI - Changing the Life Sciences landscape
Leveraging Generative AI services capabilities for a top logistics company, leading to a 30% productivity boost in code creation & 80% code testing time reduction
European Truck Manufacturer
Deploy intelligent Generative AI technologies with an automation platform to formulate tailored test strategies, cases, data, and scripts, leading to 40% testing productivity increase
Government PSUs
Offer a complete solution involving training, customized data fine-tuning, and peak model monitoring via Large Language Models Operations (LLMOps), resulting in a 40% productivity enhancement
Global Automotive Manufacturer
Implement our Responsible AI framework to guarantee the security and compliance of LLM and AI models conducting into a 43% increase in explicability and security
Manufacturing Group
Enable support engineers to process information for Contract, Case and Regulatory management leading increasing the knowledge management productivity by 30%
Large Call Center
Conducting data analysis to grasp customer sentiment and preferences, Enabling Contextual Product Recommendations and Spearheading a 47% Surge in Call Handling Productivity
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FAQ
Which kind of organization is the HBA GenAI acceleration program dedicated to?
The program is designed for large organizations willing to implement proven use cases and leverage GenAI to differentiate in their own processes and products. It is specifically dedicated to those who want to rapidly go beyond POCs and scale to enterprise-class applications, for real business impact.
Which are the benefits of the acceleration program?
By combining consulting and solutions accelerators, the program gives you an in-depth access to the best of the GenAI business and research ecosystem (AWS, DataBricks, Google, Intel, Microsoft, Nvidia, Snowflake, international consortiums…). You also benefit from the experience of large-scale sovereign projects, conducted with sensitive, organizations worldwide. The program enables you to facilitate, accelerate and secure your journey to the AI-powered organization of tomorrow.
How does the HBA GenAI acceleration program differentiate?
The real value of GenAI is not just to do prompt engineering or create APIs to existing LLMs. It is to transform your core business applications into powerful, trusted systems of prediction and execution. By mastering both business consulting, MLOps, the fine-tuning of LLM models, hybrid and sovereign cloud, high-performance and security accelerators, Eviden provides you with a modular but global GenAI approach for differentiating business impact. A quite unique capability on the market today.
How to benefit from the program?
The program is available for large Eviden customers and will be progressively deployed worldwide. New offerings will be progressively added in the coming months. To check how we can support you, just contact us via your Eviden sales or through the form below.
Which kind of organization is the HBA GenAI acceleration program dedicated to?
The program is designed for large organizations willing to implement proven use cases and leverage GenAI to differentiate in their own processes and products. It is specifically dedicated to those who want to rapidly go beyond POCs and scale to enterprise-class applications, for real business impact.
Which are the benefits of the acceleration program?
By combining consulting and solutions accelerators, the program gives you an in-depth access to the best of the GenAI business and research ecosystem (AWS, DataBricks, Google, Intel, Microsoft, Nvidia, Snowflake, international consortiums…). You also benefit from the experience of large-scale sovereign projects, conducted with sensitive, organizations worldwide. The program enables you to facilitate, accelerate and secure your journey to the AI-powered organization of tomorrow.
How does the HBA GenAI acceleration program differentiate?
The real value of GenAI is not just to do prompt engineering or create APIs to existing LLMs. It is to transform your core business applications into powerful, trusted systems of prediction and execution. By mastering both business consulting, MLOps, the fine-tuning of LLM models, hybrid and sovereign cloud, high-performance and security accelerators, Eviden provides you with a modular but global GenAI approach for differentiating business impact. A quite unique capability on the market today.
How to benefit from the program?
The program is available for large Eviden customers and will be progressively deployed worldwide. New offerings will be progressively added in the coming months. To check how we can support you, just contact us via your Eviden sales or through the form below.