C CISRED
GENOMIC SYSTEMS / ACTIVE
REGULATORY BIOLOGY PLATFORM

Decode.
Regulate.
Engineer.

CISRED explores the systems that control how genomes function, combining CRISPR, regulatory genomics, epigenetics, and computational biology.

01 CRISPR SYSTEMS
02 GENE REGULATION
03 EPIGENETICS
04 COMPUTATIONAL GENOMICS
CISRED GENOMIC CONTROL
SCROLL TO EXPLORE
REGULATORY GENOMICS / 01.001
02 / REGULATORY MAP

One genome.
Multiple layers of control.

Genome function is shaped by interconnected molecular systems. CISRED brings these layers together to investigate how genetic information is interpreted, regulated, and engineered.

01
GENOME DNA SEQUENCE
02
REGULATION GENE EXPRESSION
03
EPIGENETICS CHROMATIN STATE
04
ENGINEERING CRISPR SYSTEMS
GENOMIC CONTROL
THE CISRED APPROACH From sequence to regulation, from observation to engineering.
CRISPR Programmable systems
REGULATORY GENOMICS Functional DNA landscapes
EPIGENETICS Chromatin & expression
COMPUTATION Data-driven interpretation
03 / EDITING SPECTRUM

From reading
to rewriting biology.

Modern genome research moves across a spectrum of discovery, interpretation, regulation, and engineering. CISRED connects these perspectives through programmable biological systems and computational analysis.

OBSERVE INTERPRET REGULATE ENGINEER
01 OBSERVE
A T G C

Genomic
Architecture

Explore DNA sequences, functional regions, and the molecular organization of the genome.

DNA SEQUENCES GENOMICS
02 INTERPRET

Regulatory
Intelligence

Connect genomic elements with gene expression, regulatory signals, and biological function.

REGULATION ANALYSIS FUNCTION
03 REGULATE

Epigenetic
Control

Investigate chromatin states and molecular mechanisms that influence when and where genes are expressed.

EPIGENETICS CHROMATIN EXPRESSION
04 ENGINEER

Programmable
Genome Editing

Explore CRISPR and emerging editing technologies designed to manipulate genetic information with precision.

CRISPR EDITING ENGINEERING
04 / CRISPR ARSENAL

Programmable systems
for precise genome control.

CRISPR technologies have evolved from targeted DNA cleavage toward increasingly precise systems for editing, regulation, and functional genome engineering.

TARGET
EDIT
01
CAS9
CLASSIC EDITING

Cas9

Targeted DNA cleavage for programmable genome editing and genetic modification.

DNA CUT REPAIR
02
CAS12
ALTERNATIVE TARGETING

Cas12

Distinct targeting and cleavage properties expanding the range of programmable genome engineering.

DNA TARGETING EDITING
03
CAS13
RNA
RNA TARGETING

Cas13

Programmable RNA targeting systems extending CRISPR technology beyond DNA-level intervention.

RNA TARGETING CONTROL
04
A→G
PRECISION EDITING

Base Editing

Molecular editing strategies designed to modify individual bases without conventional double-strand breaks.

BASES PRECISION EDITING
05
PRIME
ADVANCED EDITING

Prime Editing

A programmable approach enabling more versatile sequence changes through template-directed editing.

SEQUENCE PRECISION DESIGN
05 / GENOME STATE

The genome is not static.

DNA sequence is only one layer of biological information. Gene activity is continuously shaped by regulatory elements, chromatin organization, and epigenetic mechanisms.

REGULATION
01 DNA SEQUENCE
Genetic information
02 REGULATORY ELEMENTS
Control signals
03 CHROMATIN
Genome accessibility
04 EPIGENETIC STATE
Functional state
GENOME STATE DYNAMIC
THE QUESTION How does biological information become cellular function?
REGULATORY GENOMICS Mapping functional DNA elements
EPIGENETICS Understanding chromatin-dependent regulation
GENE EXPRESSION Connecting regulation with biological activity
06 / COMPUTATIONAL GENOMICS

Where biology
becomes data.

Genomic systems generate complex biological signals. CISRED connects sequence, regulation, expression, and experimental information through computational analysis.

INPUT BIOLOGICAL SIGNAL
DNA SEQUENCE
RNA EXPRESSION
CHROMATIN STATE
REGULATION ELEMENTS
COMPUTE
DATA ENGINE
GENOME / REGULATION / FUNCTION
INTERPRET
VARIANTS IDENTIFIED
FUNCTION INTERPRETED
NETWORKS CONNECTED
TARGETS PRIORITIZED
OUTPUT SCIENTIFIC INSIGHT
COMPUTATIONAL APPROACH Turning genomic complexity into interpretable biological context.
01 SEQUENCE ANALYSIS Interpreting genomic information
02 REGULATORY ANALYSIS Connecting elements with function
03 GENOMIC DATA Integrating complex biological datasets
04 TARGET PRIORITIZATION Supporting experimental decisions
07 / SCIENTIFIC TOOLKIT

From biological systems
to scientific tools.

CISRED translates genomic concepts into practical research resources for sequence analysis, genome engineering, regulatory investigation, and computational exploration.

DOMAIN CAPABILITY SCIENTIFIC ROLE STATUS
01 SEQUENCE
Sequence Analysis DNA / RNA sequence interpretation

Examine genomic sequences, identify relevant features, and establish biological context.

RESEARCH
02 EDITING
CRISPR Design Target-oriented genome engineering

Explore programmable targeting strategies for experimental genome editing workflows.

RESEARCH
03 REGULATION
Regulatory Analysis Functional genomic elements

Investigate regulatory regions and connect genomic elements with biological function.

RESEARCH
04 EPIGENETICS
Epigenetic Exploration Chromatin & gene regulation

Study molecular states influencing genome accessibility and patterns of gene expression.

RESEARCH
05 COMPUTATION
Genomic Data Analysis Data-driven biological interpretation

Transform complex genomic datasets into interpretable patterns, relationships, and research hypotheses.

RESEARCH
THE TOOLKIT Built around the questions researchers ask about biological information.
SEQUENCE ANALYSIS DESIGN EXPERIMENT INTERPRETATION
08 / APPLICATION FIELD

Where genome engineering
meets biology.

Genome engineering becomes most powerful when connected to biological questions. CISRED explores applications across functional genomics, biomedical research, diagnostics, and biological discovery.

GENOME ENGINEERING APPLICATIONS
01
DISCOVERY

Functional
Genomics

Investigating how genes and regulatory elements contribute to biological function.

02
BIOMEDICAL

Disease
Research

Using genomic and regulatory information to investigate mechanisms associated with disease biology.

03
DETECTION

Molecular
Diagnostics

Exploring programmable molecular systems and genomic signals relevant to biological detection.

04
TRANSLATION

Therapeutic
Research

Supporting the exploration of genome engineering strategies with potential relevance to therapeutic development.

05
BIOENGINEERING

Agricultural
Genomics

Applying genome engineering concepts to biological traits, crop research, and agricultural biotechnology.

06
INTEGRATION

Systems
Biology

Connecting genomic information with regulatory networks, cellular processes, and biological systems.

09 / SCIENTIFIC OBSERVATORY

Questions that
move genomics forward.

Genomic technologies evolve through better questions. CISRED follows emerging concepts in genome engineering, gene regulation, epigenetics, and computational biology to connect technology with biological understanding.

THE GENOMIC
QUESTION
OBSERVE • CONNECT • DISCOVER
01
GENOME EDITING

How precisely
can genomes be edited?

Exploring the evolution of CRISPR systems, precision editing, base editors, and prime editors.

EXPLORE TOPIC →
02
GENE REGULATION

What determines
gene activity?

Investigating regulatory elements, transcription, chromatin accessibility, and cellular context.

EXPLORE TOPIC →
03
EPIGENETICS

How does genome
state shape function?

Examining epigenetic mechanisms and the relationship between chromatin state and biological activity.

EXPLORE TOPIC →
04
COMPUTATIONAL GENOMICS

How can biological
data reveal function?

Connecting genomic datasets, computational analysis, regulatory information, and biological interpretation.

EXPLORE TOPIC →
SCIENTIFIC EXPLORATION From genomic signals to biological understanding.
10 / CISRED PLATFORM

One platform.
Multiple layers of genomic understanding.

CISRED connects genome engineering, regulatory biology, epigenetics, computational genomics, and scientific exploration within one research-oriented platform.

01 GENOME Sequence
02 REGULATION Expression
03 EDITING Engineering
04 COMPUTATION Interpretation
05 DISCOVERY Understanding