A scientific laser does not work alone. The output you can use depends on the source, the driver, the timing, the cooling, the beam delivery, the optomechanics, the motion, the controls, the safety chain and the measurement method. We integrate and support that whole system, in Parsippany, New Jersey.
We review project enquiries promptly and connect you directly with the engineer responsible for the work.
An electronic trigger does not prove a seed pulse exists. A running chiller does not prove every thermal condition is correct. A visible beam path does not prove that alignment, polarization or frequency conversion is efficient. And a power reading means nothing until the detector, the wavelength response, the attenuation and the measurement point are known.
We treat a laser installation as one electro-optical-thermal-control system. Every project starts by defining the configuration, the operating envelope, the measurement method and the evidence that will count as acceptance. That is the difference between a room full of working instruments and an experiment that produces a number you can publish.
Each one has a written scope, a defined interface list and an agreed acceptance method.
Table and breadboard layout, beam height and route planning, steering, expansion, attenuation, filtering and isolation, polarization and wavelength-specific component selection, shutters, beam dumps, enclosures and diagnostic pickoffs, fiber coupling and free-space interfaces, alignment and a documented optical layout.
Trigger and synchronization architecture, coordination of shutters, stages, scanners and detectors, instrument communication and vendor APIs, automated measurement sequences, data acquisition with logging and metadata, alarm and controlled-shutdown logic, and a control interface built around how the experiment is actually run.
Inventory of lasers and optical components, a baseline of photographs, cable maps, settings and optical layout, a shutdown and disassembly plan, packing and utility coordination with defined rigging partners, then reassembly, optical realignment, controlled startup and comparison against the pre-move measurements that exist.
Enclosure and barrier integration, door interlock and laser enable logic, shutters, key control and emergency stop interfaces, warning indicators and operating-state signals, fault-state and reset behavior testing, and the documentation your institutional safety review needs.
Motorized stages, scanners and sample positioning integrated with the optical path and the control layer, including fixturing and mounting designed for the experiment rather than adapted from a catalog.
When an instrument has to be brought back into service, the source is recovered and then re-integrated into the experiment with its interfaces, controls and acceptance measurement restored. Fault-level diagnosis is covered on the repair pages.
Tell us the optical result you need and the constraints you are working inside. We respond with the next step.
We take projects on technical feasibility rather than on a promise to cover every product ever built. The classes below are the ones this service is built around.
Before a project is accepted we review the model and configuration, the wavelength and output range, pulse characteristics, available documentation, parts access, the safety condition of the installation and the metrology the result depends on.
This page is about building, moving and automating laser systems. If your problem is that an existing laser has stopped producing usable output, that is fault diagnosis and component-level repair, and it is covered on the scientific laser repair pages. The two engagements are frequently sold together: we recover the source, then re-integrate it into the experiment.
The method is the same whether the project is a new build, a move or a recovery.
PhaseX defines and provides the measurement capability the project requires, drawing on owned, rented or qualified third-party measurement resources arranged as required. In-house instrumentation currently includes a RIGOL MHO984 oscilloscope and a Joulescope JS320 for electrical, current, timing and pulse-train work.
The proposal states which measurements will be made, by what method and where each one comes from, together with the acceptance criteria. We do not offer manufacturer-equivalent calibration, and we do not certify a system to original published specifications where the original acceptance data and the corresponding standards are unavailable.
We implement the technical controls a project calls for: enclosure and barrier integration, door interlock and laser enable logic, shutters and key control, emergency stop interfaces, warning indicators and operating-state signals, and fault-state and reset behavior testing. We produce the documentation your safety function needs to review it.
Class 4 work is planned and executed under a project-specific laser safety plan. The required engineering controls, personal protective equipment, beam management and facility conditions are defined in writing before any energized optical work begins, and the infrastructure that plan calls for is provided within the project scope.
Final hazard analysis and approval remain with the institution or the responsible qualified safety professional unless a different responsibility is expressly contracted. We are not a licensed engineering, architectural or building-trades practice, and we do not act as your laser safety officer. Rigging, crating and building services are coordinated with defined partners under the project scope.
Our background is industrial laser machinery: manufacturing, installation, commissioning, source diagnostics, high-power fiber delivery work and field service. That is what connects optics to the power, cooling, motion, control and safety systems around them, and it is why we start at the interfaces rather than at the optical table alone.
Research laboratories combine new, legacy and custom equipment from different suppliers. We work from the system architecture and the available technical evidence instead of assuming one manufacturer's ecosystem.
When a laser project extends into custom electronics, power, motion, robotics, data acquisition, experiment software or facility coordination, PhaseX works with CoreX Robotics Services LLC as one project team. PhaseX Laser Services is a registered alternate name of that company, so it is one contract and one point of responsibility.
Optical layouts, settings, interface definitions and test methods are captured as project deliverables. A system should not depend on one student, one vendor technician or one aging computer that nobody wants to touch.
Procurement and risk teams need different answers from the laboratory. These are ours.
CoreX Robotics Services LLC, a New Jersey limited liability company, trading as PhaseX Laser Services. One legal entity, one address, one set of terms. Vendor onboarding documentation can be coordinated with your procurement team.
A written quotation with a defined scope, a fixed engineering fee for the front-end work and a stated validity period. We accept purchase orders and work to institutional payment terms. Build and installation phases are quoted against an agreed scope rather than an open estimate.
The responsibilities matrix names what sits with PhaseX, what sits with the institution, what sits with equipment vendors and what sits with licensed trades. Rigging, crating and building work is coordinated with defined partners. Safety approval stays with your LSO or EHS function.
We prepare the requirements, block architecture, interface matrix and budgetary bill of materials as a defined front-end engagement.
We integrate the laser, the optical path, optomechanics, motion, cooling, controls, interlocks and the measurement architecture under a defined scope. The scientific method and the final research interpretation stay with the laboratory.
Yes. The work starts by recording component positions, beam paths, settings, cables, utilities and whatever performance baseline exists. Rigging, crating and building services are coordinated with defined partners under the project scope. Recommissioning is then measured against the post-move criteria agreed in advance.
PhaseX defines and provides the measurement capability the project requires, drawing on owned, rented or qualified third-party measurement resources arranged as required. The acceptance method is agreed in writing before the work starts, so success is defined by a measurement rather than by an opinion.
We prepare the technical bill of materials, coordinate quotations and structure procurement according to the project contract. Manufacturer warranty, ownership, lead time, substitutions and acceptance responsibility are confirmed before anything is ordered.
The institution is. We implement the technical controls the project calls for, including enclosure and barrier integration, door interlock and laser enable logic, shutters, emergency stop interfaces and warning indicators, and we produce the documentation your safety function needs. Final hazard analysis and approval stay with the institution's LSO or EHS function.
No. PhaseX is an independent service provider and systems integrator. Manufacturer and model names are used to identify equipment. Factory authorization exists only where it is expressly confirmed in writing for a specific relationship or project.
The manufacturer and model, the wavelength and output range, pulse characteristics if the system is pulsed, controller and software version, photographs, the optical layout if one exists, recent measurements, and the result the laboratory needs to achieve.
New system, missing output, repeatable automation, a move, or recovering an instrument nobody supports any more. We begin by defining the configuration and the measurement that will prove it worked.
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