Boehringer Ingelheim is leveraging AI across its entire value chain, from early research through development, production to the distribution of products. The objectives vary depending on the specific application: better, more quickly available or safer products for patients. Find out more in the chat below.
Why are so many people talking about AI these days?
Isn’t it possible the business applications for AI are being overhyped?
What are some of the ways that Boehringer has been incorporating AI into its business?
How did Boehringer manage to become a forerunner in using Generative AI?
Are there risks associated with connecting the company’s proprietary data to an AI application that lives in the cloud?
How is iQNow changing Boehringer’s research?
Has Generative AI measurably helped with research at Boehringer Ingelheim?
Besides just saving time, how has this practical application of AI helped the company’s research?
What else has been going on with AI at the company?
How is AI expected to affect the pharmaceutical industry in the future?
Choose your prompt to reveal the story
Why are so many people talking about AI these days?
Isn’t it possible the business applications for AI are being overhyped?
What are some of the ways that Boehringer has been incorporating AI into its business?
How did Boehringer manage to become a forerunner in using Generative AI?
Are there risks associated with connecting the company’s proprietary data to an AI application that lives in the cloud?
How is iQNow changing Boehringer’s research?
Has Generative AI measurably helped with research at Boehringer Ingelheim?
Besides just saving time, how has this practical application of AI helped the company’s research?
What else has been going on with AI at the company?
How is AI expected to affect the pharmaceutical industry in the future?
To explore the potential of quantum computers for pharmaceutical research and development, Boehringer Ingelheim launched a collaboration with Google Quantum AI in 2021. What is the current state of advancement in this field?
Quantum computing may be on the brink of enabling highly accelerated computing power. And chemistry may prove to be the first major use case. Computational drug discovery relies on making accurate predictions of how candidate drugs will interact with their targets in living cells. This requires the simulation of thousands of atoms at specific temperatures, and it can generate insights into these systems that may otherwise be inaccessible through traditional experimentation.
Quantum computers promise to perform highly efficient chemical calculations that can simulate the quantum nature of the system. These tasks, involving complex molecules, are beyond the capabilities of conventional computers. Today’s quantum computers are still at an early stage of development and can only be used for very small systems. To simulate pharma-relevant molecules we’ll need larger and more reliable quantum computers, as well as quantum algorithms tailored to our needs. A central goal is to make computer modeling equivalent or more convenient than current lab experiments. Quantum hardware is advancing very quickly, and novel quantum algorithms are being developed every day. So practical applications are getting closer.
“Further development will be needed to exploit the economic potential of quantum computing. We are continuing to push this forward and expect to be able to point to examples of industry-relevant applications by the end of this decade.”
Clemens Utschig-Utschig, CTO & Chief Architect IT, Boehringer Ingelheim
To explore quantum computing’s potential, Boehringer Ingelheim launched a collaboration with Google Quantum AI at the beginning of 2021.
Within this collaboration, we have explored several paths forward to practical applications. For example, one of our use cases was to identify quantum algorithms to study the P450 enzyme. P450 plays an important role in the human metabolism and has never been analyzed this way before. The outcome of the analysis has shown that quantum computers can offer a clear advantage over the best classical methods at very high level of accuracy.
However, even with the best available quantum algorithms, these calculations would require three days of runtime, which is way beyond what is practical in an industrial setting. We are currently working on developing new algorithms that could reduce computer runtimes from hours or days to a few minutes.
Another example of our current research, together with the University of Toronto, involves developing quantum algorithms to study molecular dynamics, a field that seeks to predict how molecules move over time.
Our key goal is to predict how well drug candidate molecules will bind to their target. Therefore, we have developed a novel quantum algorithm for molecular dynamics and have presented those results at various international conferences.
Nonetheless, while we are making steady progress in terms of software, hardware and use cases, we are still at the stage of applied basic research.
Further development will be needed to exploit the economic potential of quantum computing. We are continuing to push this forward and expect to be able to point to examples of industry-relevant applications by the end of this decade.
It’s still too early to predict when the pharmaceutical industry will be able to harness the full potential of quantum computers.
We need to see further improvements in hardware and the development of novel algorithms. We also need to come up with new methods that allow us to make compromises between accuracy and the amount of time needed for calculations.
The main focus for the time being will be to keep reducing the runtimes of quantum algorithms – to the point where these calculations will be more attractive than either experiments or low-accuracy calculations from conventional computers – all while exploring new use cases.
In other words, there are many challenges that we, together with our partners, can actively contribute our expertise to solving. I am certain that the next years will lead up to the advancements we need.
The perspective of our quantum lab and partners has been published here in Nature Physics.