TruSynth®
Oligonucleotide Microarray
Synthesizer

World's first oligonucleotide microarray synthesizer
based on TFT semiconductor technology

TruSynth®
Oligonucleotide Microarray Synthesizer

World's first oligonucleotide microarray synthesizer based on TFT semiconductor technology

LinkZill's TruSynth® oligonucleotide microarray synthesizer achieves high-throughput, high-precision synthesis of oligonucleotide microarrays and oligo pools by precisely controlling the electrical signals of arrayed pixels on a proprietary TFT chip to drive thousands to millions of individual electrochemical reactions.

The TruSynth® synthesizer has achieved world-leading electrochemical high-throughput DNA synthesis specifications. The TruSynth® Moore series supports additional RNA monomers, non-natural nucleotide monomers, modifications, and premixed condensed base monomers, enabling the decentralized synthesis of XNA oligonucleotide microarrays and pools.

LinkZill's TruSynth® oligonucleotide microarray synthesizer achieves high-throughput, high-precision synthesis of oligonucleotide microarrays and oligo pools by precisely controlling the electrical signals of arrayed pixels on a proprietary TFT chip to drive thousands to millions of individual electrochemical reactions.

The TruSynth® synthesizer has achieved world-leading electrochemical high-throughput DNA synthesis specifications. The TruSynth® Moore series supports additional RNA monomers, non-natural nucleotide monomers, modifications, and premixed condensed base monomers, enabling the decentralized synthesis of XNA oligonucleotide microarrays and pools.

Highlights

End-user accessibility

  • A high-throughput oligonucleotide microarray synthesizer that sells to end users

Throughput flexibility

  • Adaptable to 4K- or 59K/65K-throughput TFT-DNA synthesis chip
  • Upgradeable to mega-scale chips in the future

Flexible partitioning

  • 4K and 59K chips with 16 partitions are available
  • Partitioning schemes are customizable

Throughput-yield balance

  • Higher per-oligo yield than commercially available CMOS electrochemical and inkjet-printed DNA synthesis routes

World-leading product quality [1] [2]

  • Coverage up to > 99.9%
  • Error rate down to < 0.4% / nt
  • World-leading electrochemical DNA synthesis quality

Support for customization [3]

  • Support for condensed bases, special monomers, and 5′ modifications
  • Support for chip design and pattern customization

Recipe flexibility

  • Built-in high-efficiency, high-precision DNA synthesis recipe
  • Support for customized recipe

Extremely rapid production

  • Single synthesis cycle duration of only 5 minutes
  • Built-in algorithms to minimize synthesis time for long oligonucleotides
  • 150 nt oligonucleotide microarray synthesis in 34 hours

Compact, easy-to-deploy, and easy-to-use device

  • Bench-top device with a footprint of only 0.3 ㎡
  • Fully enclosed synthesis system with low environmental requirements such as humidity, air pressure, vibration, etc.
  • Relatively simple mechanical structure, easy to maintain
  • User-friendly interface for non-professionals, easy to operate

Low consumable and reagent cost

  • Lower chip cost than CMOS-based technologies
  • Micro-scaled reaction system
  • Compatible with standard chemical synthesis reagents, reagent cost as low as ¥1.0 per cycle

Application Scenarios

High-throughput omics technology

  • Targeted NGS capture probes
  • Genomic variant genotyping
  • Gene expression profiling
  • In situ spatial OMICs
  • Solid-phase capture
  • Non-mass-spectrometric proteomics
  • Sequencing technology

Synthetic biology

  • Gene mutagenesis libraries
  • Factory-scale gene synthesis
  • AI-assisted protein design
  • In situ gene synthesis
  • DNA data storage

Innovative drug discovery

  • CRISPR gRNA screening libraries
  • Lentiviral shRNA screening libraries
  • High-throughput antibody discovery
  • High-throughput aptamer discovery

Medical diagnostics

  • Pathogen and resistance screening
  • Pharmacogenetics
  • Tumer genotyping
  • MRD monitoring

Molecular breeding and agriculture

  • Animal germplasm identification
  • Plant germplasm identification
  • Genome-editing-based germplasm development

Technical Specifications [1] [2] [4]

Coupling Efficiency: > 98.5%

Array Size: Up to 4,096 or 59,392/65,536 per chip

Partition Number and Size:

4K chip supports 16 partitions, each containing up to 256 oligos

59K chip supports 16 partitions, each containing up to 3,712 oligos

Oligo Length: Up to 150 nt, unlockable up to 200 nt [5]

Coverage: > 99.5%

Synthetic Uniformity [4] :

Pre-amplification: Q95:Q5 < 2.0X

Post-amplification: Q95:Q5 < 4.0X

Error Rate: < 0.8% / nt

Synthesis Yield: > 0.5 fmol per oligo [6]

Single Synthesis Cycle Duration:

Default recipe: 5.5 min

Custom recipe can be adjusted to: < 3.5 min

Production Time [7] :

60 nt: approx. 9 hr

100 nt: approx. 20 hr

150 nt: approx. 34 hr

Device Specifications​

Device Model
TruSynth® Base TruSynth® Moore
# of Chips per Synthesis Task 1
Chip Compatibility
4K Partitioned 4K Unpartitioned 59K Partitioned 65K Unpartitioned
Appearance W × L × H 518mm × 511mm × 380mm 670mm × 620mm × 560mm
Net Weight(Excluding Reagent
Bottles and Accessories)
40.0kg 60.0kg
PC Computer + Monitor External External
Working
Environment
Temperature 20℃~30℃
Relative Humidity 10%~45%
Supported
Monomer Species
Conventional Base Monomer 500 mL × 4 500 mL × 4
Special Base Monomer or
Modification Reagent
0 500 mL × 1 + 25–50 mL × 5
Power Supply Voltage 100~240V AC
Frequency 50/60Hz
Rated Power 48W 68W
Device Model TruSynth® Base TruSynth® Moore
# of Chips per Synthesis Task 1
Chip Compatibility 4K Partitioned / 4K Unpartitioned / 59K Partitioned / 65K Unpartitioned
Appearance W × L × H 518 mm × 511 mm × 380 mm 670 mm × 620 mm × 560 mm
Net Weight(Excluding Reagent Bottles and Accessories) 40.0 kg 60.0 kg
PC Computer + Monitor External External
Working Environment Temperature 20℃~30℃
Relative Humidity 10%~45%
Supported Monomer Species Conventional Base Monomer 500 mL × 4 500 mL × 4
Special Base Monomer or Modification Reagent 0 500 mL × 1 + 25–50 mL × 5
Power Supply Voltage 100~240V AC
Frequency 50/60Hz
Rated Power 48W 88W

Ordering Information

Product Category Product Name Model Specification
Microarray Synthesizer TruSynth® Oligonucleotide Microarray Synthesizer Base-4K Base-4K 1 set with external PC and monitor
TruSynth® Oligonucleotide Microarray Synthesizer Base-65K Base-65K
TruSynth® Oligonucleotide Microarray Synthesizer Moore-4K Moore-4K
TruSynth® Oligonucleotide Microarray Synthesizer Moore-65K Moore-65K
Interchangeable Drive System [8] TruSynth® 4K TFT-DNA chip drive system Driver-4K 1 set
TruSynth® 59K/65K TFT-DNA chip drive system Driver-59K/65K
TFT-DNA Synthesis Chip TFT-DNA Chip 4K Type-A Unpartitioned Std-4K-A 1 piece

75.0mm × 25.4mm × 0.5mm
TFT-DNA Chip 4K Type-B w/ 16 Partitions [9] Std-4K-B
TFT-DNA Chip 65K Type-A Unpartitioned Std-65K-A
TFT-DNA Chip 59K Type-B w/ 16 Partitions [9] Std-59K-B
Proprietary Reagent Electrochemical dimethoxyphenyl trimethyl group (DMT) remover EGA-AC02-RDE 60.5g [6]
Other exclusively improved synthetic reagents [5]
Replaceable Accessories Chip flowcell [5]
Solenoid / Valve group / Pipeline [5]
Optional Supporting Equipment Six-channel reagent dissolver
Gas-phase ammonolysis system compatible with TFT chips
Elution module for 59K partitioned chip
Product Category Product Name Model Specification
Microarray Synthesizer TruSynth® Oligonucleotide Microarray Synthesizer Base-4K Base-4K 1 set with external PC and monitor
TruSynth® Oligonucleotide Microarray Synthesizer Base-59K/65K Base-59K/65K
TruSynth® Oligonucleotide Microarray Synthesizer Moore-4K Moore-4K
TruSynth® Oligonucleotide Microarray Synthesizer Moore-59K/65K Moore-59K/65K
Interchangeable Drive System [8] TruSynth® 4K TFT-DNA chip drive system Driver-4K 1 set
TruSynth® 59K/65K TFT-DNA chip drive system Driver-59K/65K
TFT-DNA Synthesis Chip TFT-DNA Chip 4K Type-A Unpartitioned Std-4K-A 1 piece (75.0 mm × 25.4 mm × 0.5 mm)
TFT-DNA Chip 4K Type-B w/ 16 Partitions [9] Std-4K-B
TFT-DNA Chip 65K Type-A Unpartitioned Std-65K-A
TFT-DNA Chip 59K Type-B w/ 16 Partitions [9] Std-59K-B
Proprietary Reagent Electrochemical dimethoxyphenyl trimethyl group (DMT) remover EGA-AC02-RDE 60.5g [6]
Other exclusively improved synthetic reagents [5]
Replaceable Accessories Chip flowcell [5]
Solenoid / Valve group / Pipeline [5]
Optional Supporting Equipment Six-channel reagent dissolver
Gas-phase ammonolysis system compatible with TFT chips
Elution module for 59K partitioned chip

产品视频

Contact

TruSynth®

Oligonucleotide Microarray Synthesizer

[1] Evaluated with 65K-throughput oligo pools at the length of 150 nt with a 10 nt UMI region. Oligo pools are amplified using 20 PCR cycles and sequenced with 40 million reads.

[2] Differences in synthesis reagent, synthesis recipe, oligo sequence, and microarray design, purification, amplification, and sequencing library preparation protocols may also affect specifications such as coverage, uniformity, precision, etc.

[3] Depending on the type of special monomer or modification, this may only be supported by some synthesizer models.

[4] UMI counts and read counts mapped to each reference sequence are used to evaluate the pre-amplification and post-amplification uniformity, respectively.

[5] For availability and specific requirements, please consult our customer service manager.

[6] For 4K-throughput chips only.

[7] Time estimation under the default synthesis recipe. Differences in oligo sequence and microarray design may affect production time.

[8] A replaceable drive system for the built-in drive system.

[9] If the reagent formulation changes, the specifications will also change accordingly.

Dr. Kang Kang

Partner & CBio

Dr. Kang received his Ph.D. in Bioinformatics and Systems Biology from the University of Hong Kong in 2018, then became a scientific co-worker of the Leibniz Association (Leibniz-HKI) and a visiting scientist at the Novo Nordisk Foundation Center for Biosustainability (DTU Biosustain) at the Technical University of Denmark. He was a scientist at BGI-Shenzhen and co-founded the synthetic biology research group. He was a senior bioinformatics engineer and brand advisor at WeGene. In 2021, Kang joined Biosysen Limited as a co-founder and served as Chief Informatics Scientist. He is also an advisor and author of the biotech media "Regenesis". He has been dedicated to the R&D and industrialization of OMICs technologies, high-throughput technologies, and synthetic biology for over 10 years. He joined LinkZill in March 2023, responsible for semiconductor life science tools and product planning.

康康   博士

合伙人兼首席生物信息官

博士毕业于香港大学生物信息和系统生物学专业,后任德国莱布尼茨协会科学合作者、丹麦科技大学诺和诺德生物可持续研究中心访问科学家。曾先后担任华大基因科学家,参与创立了华大基因合成生物学研究方向;微基因资深生物信息工程师、品牌顾问;倍生生物联合创始人兼首席信息科学家。他专注于合成生物学、组学和高通量技术10余年,同时也是生物技术领域颇具影响力的「行业KOL」。2023年3月加入领挚科技,负责半导体生命科学工具方向与产品规划。