Decoding

Decoding

Cancer

Cancer

Nexomic uses frontier AI to decode the hidden biology driving treatment response, resistance, and disease evolution.
Nexomic uses frontier AI to decode the hidden biology driving treatment response, resistance, and disease evolution.

Decoding

Cancer

Nexomic uses frontier AI to decode
the hidden biology driving treatment response, resistance, and disease evolution.

What we do

At Nexomic, we have built a large-scale patient multiomic data foundation that reflects the diversity and complexity of tumour biology.

Enhanced by our proprietary computational deep profiling approaches and state-of-the-art, tumour-agnostic AI foundation model, it powers solutions that advance precision oncology from discovery to patient care

At Nexomic, we have built a large-scale patient multiomic data foundation that reflects the diversity and complexity of tumour biology.

Enhanced by our proprietary computational deep profiling approaches and state-of-the-art, tumour-agnostic AI foundation model, it powers solutions that advance precision oncology from discovery to patient care

At Nexomic, we have built a large-scale patient multiomic data foundation that reflects the diversity and complexity of tumour biology.

Enhanced by our proprietary computational deep profiling approaches and state-of-the-art, tumour-agnostic AI foundation model, it powers solutions that advance precision oncology from discovery to patient care

At Nexomic, we have built a large-scale patient multiomic data foundation that reflects the diversity and complexity of tumour biology.

Enhanced by our proprietary computational deep profiling approaches and state-of-the-art, tumour-agnostic AI foundation model, it powers solutions that advance precision oncology from discovery to patient care

Our Approach

Our Approach

Our Approach

Our Approach

The Data Foundation

6 layers

Genomics, transcriptomics, epigenomics, immunomics, proteomics and metabolomics, with clinically linked outcomes

Every tumour comes with the treatment given and how the patient responded

40+ cancer types

Common and rare, learned together rather than one cancer at a time

30+ countries

Data from around the globe, including rare subtypes

3 sources

Nexomic’s own proprietary cohorts, unique and rare cases sequenced everyday and public datasets harmonized into one

1M+

Harmonized features per patient

100M+

Molecular features modeled

1 model

DeepOmic, one multi-omic foundation model learning from all of it

DeepOmic®

DeepOmic®

DeepOmic®

The Discovery Engine

The Discovery Engine

The Discovery Engine

A Multi-Omic foundation model purpose
built to decode the biology of cancer

A Multi-Omic foundation model purpose
built to decode the biology of cancer

A Multi-Omic foundation model purpose
built to decode the biology of cancer

4B

Large scale self-supervised pretraining to be used for downstream tasks applications.
Large scale self-supervised pretraining to be used for downstream tasks applications.
Large scale self-supervised pretraining to be used for downstream tasks applications.

Parameters

4B

Large scale self-supervised pretraining to be used for downstream tasks applications.
Large scale self-supervised pretraining to be used for downstream tasks applications.

Parameters

8000D

High-dimensional biological embeddings that capture complex multi-omic disease signals.
High-dimensional biological embeddings that capture complex multi-omic disease signals.
High-dimensional biological embeddings that capture complex multi-omic disease signals.

Embeddings

Embeddings

Embeddings

1000s

Validated across diverse patient datasets to support robust and clinically relevant insights.
Validated across diverse patient datasets to support robust and clinically relevant insights.
Validated across diverse patient datasets to support robust and clinically relevant insights.

Validation

Validation

Validation

One

A unified AI representation of disease biology across omics, patients, and cancer types.
A unified AI representation of disease biology across omics, patients, and cancer types.
A unified AI representation of disease biology across omics, patients, and cancer types.

Representation

Representation

Representation

Human
Therapeutic Model

Human
Therapeutic Model

01

Learned from humans

Trained on real patient tumours and what happened to them. Not cell lines. Not mice.

02

Sees where the drug acts

Locates the drug’s effect inside tumour biology: which programmes it hits, and in which tumours.

03

Predicts response before the trial

Ranks every tumour by predicted benefit, so the trial enrols the ones most likely to respond.

04

Explains resistance

Names the biology behind non-response, and what to combine with it to overcome it.

05

Runs across every cancer type

Finds where the drug works beyond its first indication, including cancers no one tried.

06

Becomes a test

Its signature distils into a patient-selection test, and on to a companion diagnostic.

Solutions

DECODE

DECODE

DECODE

Decoding Latent Biology to Understand Heterogeneity and Resistance for Better Clinical Development Design

Decoding Latent Biology to Understand Heterogeneity and Resistance for Better Clinical Development Design

Decoding Latent Biology to Understand Heterogeneity and Resistance for Better Clinical Development Design

Decoding Latent Biology to Understand Heterogeneity and Resistance for Better Clinical Development Design

View Project

View Project

De-risking Clinical Development

DEEP360

Running Large Scale AI-driven Simulations to Reveal Accurate Patient Response Predictions

Running Large Scale AI-driven Simulations to Reveal Accurate Patient Response Predictions

Running Large Scale AI-driven Simulations to Reveal Accurate Patient Response Predictions

Running Large Scale AI-driven Simulations to Reveal Accurate Patient Response Predictions

DEEP360

View Project

View Project

Patient Response Prediction

Resources

Browse our library of trusted resources,
expert insights, and informative articles
whenever you need them.

Browse our library of trusted resources,
expert insights, and informative articles
whenever you need them.

Contact Us

Get in touch with us to discuss your project and start building something extraordinary.

Contact Us

Get in touch with us to discuss your project and start building something extraordinary.

Decoding

Cancer

Nexomic uses frontier AI to decode the hidden biology driving treatment response, resistance, and disease evolution.

Hero Image
Hero Image

Human
Therapeutic Model

01

Learned from humans

Trained on real patient tumours and what happened to them. Not cell lines. Not mice.

02

Sees where the drug acts

Locates the drug’s effect inside tumour biology: which programmes it hits, and in which tumours.

03

Predicts response before the trial

Ranks every tumour by predicted benefit, so the trial enrols the ones most likely to respond.

04

Explains resistance

Names the biology behind non-response, and what to combine with it to overcome it.

05

Runs across every cancer type

Finds where the drug works beyond its first indication, including cancers no one tried.

06

Becomes a test

Its signature distils into a patient-selection test, and on to a companion diagnostic.

DeepOmic®

The Discovery Engine

A Multi-Omic foundation model purpose
built to decode the biology of cancer

4B

Large scale self-supervised pretraining to be used for downstream tasks applications.

Parameters

8000D

High-dimensional biological embeddings that capture complex multi-omic disease signals.

Embeddings

1000s

Validated across diverse patient datasets to support robust and clinically relevant insights.

Validation

One

A unified AI representation of disease biology across omics, patients, and cancer types.

Representation

The Data Foundation

6 layers

Genomics, transcriptomics, epigenomics, immunomics, proteomics and metabolomics, with clinically linked outcomes

Every tumour comes with the treatment given and how the patient responded

6 layers

Genomics, transcriptomics, epigenomics, immunomics, proteomics and metabolomics, with clinically linked outcomes

Every tumour comes with the treatment given and how the patient responded

40+ cancer types

Common and rare, learned together rather than one cancer at a time

40+ cancer types

Common and rare, learned together rather than one cancer at a time

30+ countries

Data from around the globe, including rare subtypes

30+ countries

Data from around the globe, including rare subtypes

3 sources

Nexomic’s own proprietary cohorts, unique and rare cases sequenced everyday and public datasets harmonized into one

3 sources

Nexomic’s own proprietary cohorts, unique and rare cases sequenced everyday and public datasets harmonized into one

1M+

Harmonized features per patient

1M+

Harmonized features per patient

100M+

Molecular features modeled

100M+

Molecular features modeled

1 model

DeepOmic, one multi-omic foundation model learning from all of it

1 model

DeepOmic, one multi-omic foundation model learning from all of it

The Data Foundation

6 layers

Genomics, transcriptomics, epigenomics, immunomics, proteomics and metabolomics, with clinically linked outcomes

Every tumour comes with the treatment given and how the patient responded

40+ cancer types

Common and rare, learned together rather than one cancer at a time

30+ countries

Data from around the globe, including rare subtypes

3 sources

Nexomic’s own proprietary cohorts, unique and rare cases sequenced everyday and public datasets harmonized into one

1M+

Harmonized features per patient

100M+

Molecular features modeled

1 model

DeepOmic, one multi-omic foundation model learning from all of it

The Data Foundation

The Data Foundation

6 layers

Genomics, transcriptomics, epigenomics, immunomics, proteomics and metabolomics, with clinically linked outcomes

Every tumour comes with the treatment given and how the patient responded

6 layers

Genomics, transcriptomics, epigenomics, immunomics, proteomics and metabolomics, with clinically linked outcomes

Every tumour comes with the treatment given and how the patient responded

40+ cancer types

Common and rare, learned together rather than one cancer at a time

40+ cancer types

Common and rare, learned together rather than one cancer at a time

30+ countries

Data from around the globe, including rare subtypes

30+ countries

Data from around the globe, including rare subtypes

3 sources

Nexomic’s own proprietary cohorts, unique and rare cases sequenced everyday and public datasets harmonized into one

3 sources

Nexomic’s own proprietary cohorts, unique and rare cases sequenced everyday and public datasets harmonized into one

1M+

Harmonized features per patient

1M+

Harmonized features per patient

100M+

Molecular features modeled

100M+

Molecular features modeled

1 model

DeepOmic, one multi-omic foundation model learning from all of it

1 model

DeepOmic, one multi-omic foundation model learning from all of it

Decoding

Decoding

Cancer

Cancer

Nexomic uses frontier AI to decode the hidden biology driving treatment response, resistance, and disease evolution.
Nexomic uses frontier AI to decode the hidden biology driving treatment response, resistance, and disease evolution.

Decoding

Cancer

Nexomic uses frontier AI to decode
the hidden biology driving treatment response, resistance, and disease evolution.

What we do

At Nexomic, we have built a large-scale patient multiomic data foundation that reflects the diversity and complexity of tumour biology.

Enhanced by our proprietary computational deep profiling approaches and state-of-the-art, tumour-agnostic AI foundation model, it powers solutions that advance precision oncology from discovery to patient care

At Nexomic, we have built a large-scale patient multiomic data foundation that reflects the diversity and complexity of tumour biology.

Enhanced by our proprietary computational deep profiling approaches and state-of-the-art, tumour-agnostic AI foundation model, it powers solutions that advance precision oncology from discovery to patient care

At Nexomic, we have built a large-scale patient multiomic data foundation that reflects the diversity and complexity of tumour biology.

Enhanced by our proprietary computational deep profiling approaches and state-of-the-art, tumour-agnostic AI foundation model, it powers solutions that advance precision oncology from discovery to patient care

At Nexomic, we have built a large-scale patient multiomic data foundation that reflects the diversity and complexity of tumour biology.

Enhanced by our proprietary computational deep profiling approaches and state-of-the-art, tumour-agnostic AI foundation model, it powers solutions that advance precision oncology from discovery to patient care

Our Approach

Our Approach

Our Approach

Our Approach

The Data Foundation

6 layers

Genomics, transcriptomics, epigenomics, immunomics, proteomics and metabolomics, with clinically linked outcomes

Every tumour comes with the treatment given and how the patient responded

40+ cancer types

Common and rare, learned together rather than one cancer at a time

30+ countries

Data from around the globe, including rare subtypes

3 sources

Nexomic’s own proprietary cohorts, unique and rare cases sequenced everyday and public datasets harmonized into one

1M+

Harmonized features per patient

100M+

Molecular features modeled

1 model

DeepOmic, one multi-omic foundation model learning from all of it

DeepOmic®

DeepOmic®

DeepOmic®

The Discovery Engine

The Discovery Engine

The Discovery Engine

A Multi-Omic foundation model purpose
built to decode the biology of cancer

A Multi-Omic foundation model purpose
built to decode the biology of cancer

A Multi-Omic foundation model purpose
built to decode the biology of cancer

4B

Large scale self-supervised pretraining to be used for downstream tasks applications.
Large scale self-supervised pretraining to be used for downstream tasks applications.
Large scale self-supervised pretraining to be used for downstream tasks applications.

Parameters

4B

Large scale self-supervised pretraining to be used for downstream tasks applications.
Large scale self-supervised pretraining to be used for downstream tasks applications.

Parameters

8000D

High-dimensional biological embeddings that capture complex multi-omic disease signals.
High-dimensional biological embeddings that capture complex multi-omic disease signals.
High-dimensional biological embeddings that capture complex multi-omic disease signals.

Embeddings

Embeddings

Embeddings

1000s

Validated across diverse patient datasets to support robust and clinically relevant insights.
Validated across diverse patient datasets to support robust and clinically relevant insights.
Validated across diverse patient datasets to support robust and clinically relevant insights.

Validation

Validation

Validation

One

A unified AI representation of disease biology across omics, patients, and cancer types.
A unified AI representation of disease biology across omics, patients, and cancer types.
A unified AI representation of disease biology across omics, patients, and cancer types.

Representation

Representation

Representation

Human
Therapeutic Model

Human
Therapeutic Model

01

Learned from humans

Trained on real patient tumours and what happened to them. Not cell lines. Not mice.

02

Sees where the drug acts

Locates the drug’s effect inside tumour biology: which programmes it hits, and in which tumours.

03

Predicts response before the trial

Ranks every tumour by predicted benefit, so the trial enrols the ones most likely to respond.

04

Explains resistance

Names the biology behind non-response, and what to combine with it to overcome it.

05

Runs across every cancer type

Finds where the drug works beyond its first indication, including cancers no one tried.

06

Becomes a test

Its signature distils into a patient-selection test, and on to a companion diagnostic.

Solutions

DECODE

DECODE

DECODE

Decoding Latent Biology to Understand Heterogeneity and Resistance for Better Clinical Development Design

Decoding Latent Biology to Understand Heterogeneity and Resistance for Better Clinical Development Design

Decoding Latent Biology to Understand Heterogeneity and Resistance for Better Clinical Development Design

Decoding Latent Biology to Understand Heterogeneity and Resistance for Better Clinical Development Design

View Project

View Project

De-risking Clinical Development

DEEP360

Running Large Scale AI-driven Simulations to Reveal Accurate Patient Response Predictions

Running Large Scale AI-driven Simulations to Reveal Accurate Patient Response Predictions

Running Large Scale AI-driven Simulations to Reveal Accurate Patient Response Predictions

Running Large Scale AI-driven Simulations to Reveal Accurate Patient Response Predictions

DEEP360

View Project

View Project

Patient Response Prediction

Resources

Browse our library of trusted resources,
expert insights, and informative articles
whenever you need them.

Browse our library of trusted resources,
expert insights, and informative articles
whenever you need them.

Contact Us

Get in touch with us to discuss your project and start building something extraordinary.

Contact Us

Get in touch with us to discuss your project and start building something extraordinary.

Decoding

Cancer

Nexomic uses frontier AI to decode the hidden biology driving treatment response, resistance, and disease evolution.

Hero Image
Hero Image

Human
Therapeutic Model

01

Learned from humans

Trained on real patient tumours and what happened to them. Not cell lines. Not mice.

02

Sees where the drug acts

Locates the drug’s effect inside tumour biology: which programmes it hits, and in which tumours.

03

Predicts response before the trial

Ranks every tumour by predicted benefit, so the trial enrols the ones most likely to respond.

04

Explains resistance

Names the biology behind non-response, and what to combine with it to overcome it.

05

Runs across every cancer type

Finds where the drug works beyond its first indication, including cancers no one tried.

06

Becomes a test

Its signature distils into a patient-selection test, and on to a companion diagnostic.

DeepOmic®

The Discovery Engine

A Multi-Omic foundation model purpose
built to decode the biology of cancer

4B

Large scale self-supervised pretraining to be used for downstream tasks applications.

Parameters

8000D

High-dimensional biological embeddings that capture complex multi-omic disease signals.

Embeddings

1000s

Validated across diverse patient datasets to support robust and clinically relevant insights.

Validation

One

A unified AI representation of disease biology across omics, patients, and cancer types.

Representation

The Data Foundation

6 layers

Genomics, transcriptomics, epigenomics, immunomics, proteomics and metabolomics, with clinically linked outcomes

Every tumour comes with the treatment given and how the patient responded

6 layers

Genomics, transcriptomics, epigenomics, immunomics, proteomics and metabolomics, with clinically linked outcomes

Every tumour comes with the treatment given and how the patient responded

40+ cancer types

Common and rare, learned together rather than one cancer at a time

40+ cancer types

Common and rare, learned together rather than one cancer at a time

30+ countries

Data from around the globe, including rare subtypes

30+ countries

Data from around the globe, including rare subtypes

3 sources

Nexomic’s own proprietary cohorts, unique and rare cases sequenced everyday and public datasets harmonized into one

3 sources

Nexomic’s own proprietary cohorts, unique and rare cases sequenced everyday and public datasets harmonized into one

1M+

Harmonized features per patient

1M+

Harmonized features per patient

100M+

Molecular features modeled

100M+

Molecular features modeled

1 model

DeepOmic, one multi-omic foundation model learning from all of it

1 model

DeepOmic, one multi-omic foundation model learning from all of it

The Data Foundation

6 layers

Genomics, transcriptomics, epigenomics, immunomics, proteomics and metabolomics, with clinically linked outcomes

Every tumour comes with the treatment given and how the patient responded

40+ cancer types

Common and rare, learned together rather than one cancer at a time

30+ countries

Data from around the globe, including rare subtypes

3 sources

Nexomic’s own proprietary cohorts, unique and rare cases sequenced everyday and public datasets harmonized into one

1M+

Harmonized features per patient

100M+

Molecular features modeled

1 model

DeepOmic, one multi-omic foundation model learning from all of it

The Data Foundation

The Data Foundation

6 layers

Genomics, transcriptomics, epigenomics, immunomics, proteomics and metabolomics, with clinically linked outcomes

Every tumour comes with the treatment given and how the patient responded

6 layers

Genomics, transcriptomics, epigenomics, immunomics, proteomics and metabolomics, with clinically linked outcomes

Every tumour comes with the treatment given and how the patient responded

40+ cancer types

Common and rare, learned together rather than one cancer at a time

40+ cancer types

Common and rare, learned together rather than one cancer at a time

30+ countries

Data from around the globe, including rare subtypes

30+ countries

Data from around the globe, including rare subtypes

3 sources

Nexomic’s own proprietary cohorts, unique and rare cases sequenced everyday and public datasets harmonized into one

3 sources

Nexomic’s own proprietary cohorts, unique and rare cases sequenced everyday and public datasets harmonized into one

1M+

Harmonized features per patient

1M+

Harmonized features per patient

100M+

Molecular features modeled

100M+

Molecular features modeled

1 model

DeepOmic, one multi-omic foundation model learning from all of it

1 model

DeepOmic, one multi-omic foundation model learning from all of it

Decoding

Decoding

Cancer

Cancer

Nexomic uses frontier AI to decode the hidden biology driving treatment response, resistance, and disease evolution.
Nexomic uses frontier AI to decode the hidden biology driving treatment response, resistance, and disease evolution.

Decoding

Cancer

Nexomic uses frontier AI to decode
the hidden biology driving treatment response, resistance, and disease evolution.

What we do

At Nexomic, we have built a large-scale patient multiomic data foundation that reflects the diversity and complexity of tumour biology.

Enhanced by our proprietary computational deep profiling approaches and state-of-the-art, tumour-agnostic AI foundation model, it powers solutions that advance precision oncology from discovery to patient care

At Nexomic, we have built a large-scale patient multiomic data foundation that reflects the diversity and complexity of tumour biology.

Enhanced by our proprietary computational deep profiling approaches and state-of-the-art, tumour-agnostic AI foundation model, it powers solutions that advance precision oncology from discovery to patient care

At Nexomic, we have built a large-scale patient multiomic data foundation that reflects the diversity and complexity of tumour biology.

Enhanced by our proprietary computational deep profiling approaches and state-of-the-art, tumour-agnostic AI foundation model, it powers solutions that advance precision oncology from discovery to patient care

At Nexomic, we have built a large-scale patient multiomic data foundation that reflects the diversity and complexity of tumour biology.

Enhanced by our proprietary computational deep profiling approaches and state-of-the-art, tumour-agnostic AI foundation model, it powers solutions that advance precision oncology from discovery to patient care

Our Approach

Our Approach

Our Approach

Our Approach

The Data Foundation

6 layers

Genomics, transcriptomics, epigenomics, immunomics, proteomics and metabolomics, with clinically linked outcomes

Every tumour comes with the treatment given and how the patient responded

40+ cancer types

Common and rare, learned together rather than one cancer at a time

30+ countries

Data from around the globe, including rare subtypes

3 sources

Nexomic’s own proprietary cohorts, unique and rare cases sequenced everyday and public datasets harmonized into one

1M+

Harmonized features per patient

100M+

Molecular features modeled

1 model

DeepOmic, one multi-omic foundation model learning from all of it

DeepOmic®

DeepOmic®

DeepOmic®

The Discovery Engine

The Discovery Engine

The Discovery Engine

A Multi-Omic foundation model purpose
built to decode the biology of cancer

A Multi-Omic foundation model purpose
built to decode the biology of cancer

A Multi-Omic foundation model purpose
built to decode the biology of cancer

4B

Large scale self-supervised pretraining to be used for downstream tasks applications.
Large scale self-supervised pretraining to be used for downstream tasks applications.
Large scale self-supervised pretraining to be used for downstream tasks applications.

Parameters

4B

Large scale self-supervised pretraining to be used for downstream tasks applications.
Large scale self-supervised pretraining to be used for downstream tasks applications.

Parameters

8000D

High-dimensional biological embeddings that capture complex multi-omic disease signals.
High-dimensional biological embeddings that capture complex multi-omic disease signals.
High-dimensional biological embeddings that capture complex multi-omic disease signals.

Embeddings

Embeddings

Embeddings

1000s

Validated across diverse patient datasets to support robust and clinically relevant insights.
Validated across diverse patient datasets to support robust and clinically relevant insights.
Validated across diverse patient datasets to support robust and clinically relevant insights.

Validation

Validation

Validation

One

A unified AI representation of disease biology across omics, patients, and cancer types.
A unified AI representation of disease biology across omics, patients, and cancer types.
A unified AI representation of disease biology across omics, patients, and cancer types.

Representation

Representation

Representation

Human
Therapeutic Model

Human
Therapeutic Model

01

Learned from humans

Trained on real patient tumours and what happened to them. Not cell lines. Not mice.

02

Sees where the drug acts

Locates the drug’s effect inside tumour biology: which programmes it hits, and in which tumours.

03

Predicts response before the trial

Ranks every tumour by predicted benefit, so the trial enrols the ones most likely to respond.

04

Explains resistance

Names the biology behind non-response, and what to combine with it to overcome it.

05

Runs across every cancer type

Finds where the drug works beyond its first indication, including cancers no one tried.

06

Becomes a test

Its signature distils into a patient-selection test, and on to a companion diagnostic.

Solutions

DECODE

DECODE

DECODE

Decoding Latent Biology to Understand Heterogeneity and Resistance for Better Clinical Development Design

Decoding Latent Biology to Understand Heterogeneity and Resistance for Better Clinical Development Design

Decoding Latent Biology to Understand Heterogeneity and Resistance for Better Clinical Development Design

Decoding Latent Biology to Understand Heterogeneity and Resistance for Better Clinical Development Design

View Project

View Project

De-risking Clinical Development

DEEP360

Running Large Scale AI-driven Simulations to Reveal Accurate Patient Response Predictions

Running Large Scale AI-driven Simulations to Reveal Accurate Patient Response Predictions

Running Large Scale AI-driven Simulations to Reveal Accurate Patient Response Predictions

Running Large Scale AI-driven Simulations to Reveal Accurate Patient Response Predictions

DEEP360

View Project

View Project

Patient Response Prediction

Resources

Browse our library of trusted resources,
expert insights, and informative articles
whenever you need them.

Browse our library of trusted resources,
expert insights, and informative articles
whenever you need them.

Contact Us

Get in touch with us to discuss your project and start building something extraordinary.

Contact Us

Get in touch with us to discuss your project and start building something extraordinary.

Decoding

Cancer

Nexomic uses frontier AI to decode the hidden biology driving treatment response, resistance, and disease evolution.

Hero Image
Hero Image

Human
Therapeutic Model

01

Learned from humans

Trained on real patient tumours and what happened to them. Not cell lines. Not mice.

02

Sees where the drug acts

Locates the drug’s effect inside tumour biology: which programmes it hits, and in which tumours.

03

Predicts response before the trial

Ranks every tumour by predicted benefit, so the trial enrols the ones most likely to respond.

04

Explains resistance

Names the biology behind non-response, and what to combine with it to overcome it.

05

Runs across every cancer type

Finds where the drug works beyond its first indication, including cancers no one tried.

06

Becomes a test

Its signature distils into a patient-selection test, and on to a companion diagnostic.

DeepOmic®

The Discovery Engine

A Multi-Omic foundation model purpose
built to decode the biology of cancer

4B

Large scale self-supervised pretraining to be used for downstream tasks applications.

Parameters

8000D

High-dimensional biological embeddings that capture complex multi-omic disease signals.

Embeddings

1000s

Validated across diverse patient datasets to support robust and clinically relevant insights.

Validation

One

A unified AI representation of disease biology across omics, patients, and cancer types.

Representation

The Data Foundation

6 layers

Genomics, transcriptomics, epigenomics, immunomics, proteomics and metabolomics, with clinically linked outcomes

Every tumour comes with the treatment given and how the patient responded

6 layers

Genomics, transcriptomics, epigenomics, immunomics, proteomics and metabolomics, with clinically linked outcomes

Every tumour comes with the treatment given and how the patient responded

40+ cancer types

Common and rare, learned together rather than one cancer at a time

40+ cancer types

Common and rare, learned together rather than one cancer at a time

30+ countries

Data from around the globe, including rare subtypes

30+ countries

Data from around the globe, including rare subtypes

3 sources

Nexomic’s own proprietary cohorts, unique and rare cases sequenced everyday and public datasets harmonized into one

3 sources

Nexomic’s own proprietary cohorts, unique and rare cases sequenced everyday and public datasets harmonized into one

1M+

Harmonized features per patient

1M+

Harmonized features per patient

100M+

Molecular features modeled

100M+

Molecular features modeled

1 model

DeepOmic, one multi-omic foundation model learning from all of it

1 model

DeepOmic, one multi-omic foundation model learning from all of it

The Data Foundation

6 layers

Genomics, transcriptomics, epigenomics, immunomics, proteomics and metabolomics, with clinically linked outcomes

Every tumour comes with the treatment given and how the patient responded

40+ cancer types

Common and rare, learned together rather than one cancer at a time

30+ countries

Data from around the globe, including rare subtypes

3 sources

Nexomic’s own proprietary cohorts, unique and rare cases sequenced everyday and public datasets harmonized into one

1M+

Harmonized features per patient

100M+

Molecular features modeled

1 model

DeepOmic, one multi-omic foundation model learning from all of it

The Data Foundation

The Data Foundation

6 layers

Genomics, transcriptomics, epigenomics, immunomics, proteomics and metabolomics, with clinically linked outcomes

Every tumour comes with the treatment given and how the patient responded

6 layers

Genomics, transcriptomics, epigenomics, immunomics, proteomics and metabolomics, with clinically linked outcomes

Every tumour comes with the treatment given and how the patient responded

40+ cancer types

Common and rare, learned together rather than one cancer at a time

40+ cancer types

Common and rare, learned together rather than one cancer at a time

30+ countries

Data from around the globe, including rare subtypes

30+ countries

Data from around the globe, including rare subtypes

3 sources

Nexomic’s own proprietary cohorts, unique and rare cases sequenced everyday and public datasets harmonized into one

3 sources

Nexomic’s own proprietary cohorts, unique and rare cases sequenced everyday and public datasets harmonized into one

1M+

Harmonized features per patient

1M+

Harmonized features per patient

100M+

Molecular features modeled

100M+

Molecular features modeled

1 model

DeepOmic, one multi-omic foundation model learning from all of it

1 model

DeepOmic, one multi-omic foundation model learning from all of it