ImageArtist / ChemDrawJS / Linux / AWS Slurm

ImageArtist and ChemDrawJS development for Linux-based scientific platforms, migrations, and custom modules.

Turbo Digital brings 16 years of experience across imaging and chemistry intelligence environments, including Revvity software work. Engagements include ImageArtist upgrades, Linux deployments, ChemDrawJS integration, AWS or Slurm-backed environments, custom modules, migrations, and recovery of fragile platform installations.

ImageArtist custom development ChemDrawJS integration Linux deployment and upgrades AWS and Slurm environments

Common engagements

Upgrades, migrations, environment recovery, deployment support, and custom modules

Most projects begin when an existing installation is hard to upgrade, hard to support, or blocked by platform-specific constraints.

Environment inputs

ImageArtist version, Linux distribution, storage, AWS, Slurm, and connected systems

The quality of the solution depends heavily on platform version, infrastructure, and the systems around the application.

What teams need fixed

Upgrade risk, deployment fragility, platform drift, and unclear integration boundaries

The goal is dependable delivery in an environment where small technical mistakes become expensive quickly.

Scope

What usually sits inside the work.

  • ImageArtist upgrades, migrations, Linux deployment support, and environment stabilization.
  • ChemDrawJS feature work or integration into a broader product.
  • AWS or Slurm-backed environments that need operational confidence.
  • Custom modules, platform recovery, and technical cleanup before broader delivery continues.

Platform and infrastructure

Application, environment, and connected systems usually have to be solved together.

  • Which ImageArtist or ChemDrawJS version is involved and what Linux environment it runs on.
  • Whether S3, AWS, Slurm, or other connected systems sit inside the delivery scope.
  • How deployment, rollback, and support will work once changes are applied.
  • Where the real technical risk sits: migration, deployment, custom logic, or environment drift.

Common failure points

Specialized platform work becomes risky when version, environment, and delivery path are treated separately.

These projects usually go wrong when teams focus only on the requested feature and not on Linux compatibility, deployment dependencies, environment drift, or how the platform will actually be supported after the change. Stronger delivery starts by mapping the platform reality first.

Project inputs

The information that helps define the current scope.

  • Whether this is an upgrade, migration, deployment, recovery, or new feature path.
  • Current platform version, Linux environment, and connected storage or cluster setup.
  • What the team considers the main risk right now: stability, upgrade path, delivery speed, or feature complexity.
  • Operational timeline, support expectations, and budget range for the current scope.

Next step

Start with the platform version, Linux environment, and the change that needs to land first.

The project intake can capture the environment, infrastructure, and current technical constraint so the handoff starts from platform reality instead of a vague software request.