HIPS and SIPS Professional 13: From Sensor Corrections to Survey Deliverables

Overview

A bathymetric surface is only as defensible as the corrections, rejected soundings and uncertainty information behind it. HIPS and SIPS Professional is worth evaluating when a survey team needs to carry that processing history from multiple sensor streams into an agreed hydrographic deliverable. This research-based technical assessment uses official sources checked on November 8, 2026 UTC; we did not independently install or test the software.

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The current developer and supplier is Teledyne CARIS. Teledyne Technologies’ May 4, 2016 announcement records the completed acquisition of CARIS and the name Teledyne CARIS, Inc. The current supported-software matrix lists HIPS and SIPS 13 with an April 29, 2026 release date. The release announcement’s body is dated April 28. Version 13 is the current major release verified here; an exact latest maintenance build was not established.

Buy the processing scope your survey actually needs

The Professional product page documents multibeam, single-beam, lidar, laser scanning, backscatter and water-column data in one application, with automation and multi-user processing. It belongs to a tiered portfolio: HIPS Essential concentrates on core bathymetric georeferencing, cleaning and QC, while the combined Professional offering includes advanced bathymetry and seafloor-imagery workflows. Confirm the licensed functions against the required deliverables rather than treating “Professional” as a guarantee that every CARIS module or service is included.

For a marine infrastructure survey, the practical starting package is the raw sensor data plus the vessel/sensor configuration, navigation and attitude records, sound-velocity profiles and the chosen vertical reference. The official datasheet linked from the current product page documents multiple-profile sound-velocity correction, observed/modelled tides, GPS vertical adjustment with a separation model, and several cleaning and gridding methods. The document is not labeled as a version-13 compatibility matrix, so its format list should be checked against the specific instrument, firmware and file variant supplied by the acquisition contractor.

Keep correction choices visible in the delivered surface

The datasheet lists CUBE, uncertainty-based and other gridding approaches, with bands including depth, density, standard deviation and uncertainty. It also describes HIPS files, an SQLite database for history tracking and quality assurance, and CSAR storage for gridded, variable-resolution and point-cloud data. Those documented mechanisms support a traceable processing workflow, but they do not prove that a particular survey meets its required uncertainty or feature-detection criteria.

A useful acceptance exercise would trace one line through its sound-velocity and vertical adjustments, review the reasons for sounding rejection, then compare the resulting grid and uncertainty information with the contract specification. Keep the original sensor records and record the processing configuration. This is a proposed procurement check, not a measured result from this assessment.

For imagery, the same datasheet documents sidescan layback and slant-range corrections, mosaic blending and backscatter corrections including beam-pattern and area-based AVG tools. Backscatter processing and bathymetric cleaning answer different questions: a visually consistent mosaic does not establish depth quality, nor does a satisfactory depth surface by itself validate acoustic-intensity interpretation. Where collection and contact interpretation also matter, our SonarWiz assessment provides a related workflow comparison; exact file exchange still needs verification.

Version 13 adds a different way to analyze vertical structures

The version-13 feature description introduces background processing and a modernized interface with French and Simplified Chinese language support. These are documented changes, not independently observed improvements in speed or usability. More consequential for port work is EVRT: the vendor describes transforming vertical or near-vertical survey data into a horizontal, alignment-based coordinate system so existing seabed tools can be used for gridding, surface differences, profiles and volumes.

That changes the analysis frame for quay walls, bridge piles or sheet piling. Before comparing repeat surveys, ask how the alignment is defined, how the transformed output is referenced back to the structure, and which uncertainty and registration checks accompany the difference result. A volume calculated after a coordinate transformation still needs an engineering interpretation. The public feature page does not establish that EVRT is included in every license configuration; confirm its entitlement for the selected package.

Automation and exchange need a pinned software environment

The product-linked datasheet documents Process Designer for graphical workflows and a Python API. The public CARIS Python SDK 5.6.0 prerequisites list Python 3.9, 3.10 or 3.11, a CARIS application installed on the execution workstation, matching 64-bit architecture, and NumPy when using the Coverage module. That supports planning an automation environment, but does not by itself establish the exact SDK/application build pairing or license rights for unattended jobs. Request those details and a representative script using the intended operations.

Documented exports include sounding outputs such as ASCII and GSF, and grids such as CSAR, BAG, GeoTIFF and GeoPDF. Agree the required resolution, bands, coordinate reference, vertical datum and provenance with the receiving team. A seabed surface may subsequently inform offshore analysis in OrcaFlex, but the sources reviewed do not establish an automatic CARIS-to-OrcaFlex connector. The receiving engineering model should have an explicit, checked handover basis.

Resolve the Windows and license details before mobilizing

The general product specifications recommend a recent multicore CPU, 16 GB RAM, at least 1 GB installation space, and an Nvidia/AMD OpenGL 3.3 GPU with at least 2 GB memory. They list Windows 10 Professional or Windows 11 Professional, both 64-bit. The more specific maintained-version matrix lists Windows 11 x64 for HIPS and SIPS 13, while 12.1 includes Windows 10 and 11. For a new version-13 deployment, use that narrower support statement and obtain confirmation for the exact OS/build. Installation space is separate from survey storage and working-data requirements.

The current Professional offer has single-user and network selections with term-based plans. The licensing FAQ describes entitlement-based, hardware-bound activations, online/offline activation, and network commuting for a specified period. It also describes an air-gapped activation route through CARIS and warns that moving a network license server requires customer-service assistance. Because the FAQ spans the transition from older licensing, confirm the version-13 server components, offline/commute duration, recovery procedure and VM/cloud or remote-use rights in the actual order.

The supported-software policy ties maintenance to subscription customers and explains that updates are delivered to the latest minor versions of the latest two major series. The release announcement says version 13 is available to customers with active maintenance. These statements establish ongoing vendor support, not a response-time commitment or the contents of an individual entitlement. The license/download portal and service desk are the appropriate places to confirm the supplied build and account-specific coverage.

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Compare the sensor-to-deliverable path

QPS Qimera is a direct alternative for bathymetric processing: its documented full-processing offering includes ray tracing, point-cloud editing, patch-test and wobble-analysis tools, with package/add-on boundaries for other tasks. Compare raw-format handling, correction history, calibration checks, uncertainty deliverables, required backscatter workflow and automation on the same survey sample. Marketing descriptions do not establish an accuracy, runtime or ease-of-use winner.

HIPS and SIPS Professional is a credible shortlist choice for a team combining bathymetry and seafloor imagery, particularly when repeatable production workflows and CARIS-format continuity matter. A narrower tier or competing processor deserves evaluation when the required job is chiefly a simpler bathymetric workflow or another environment already demonstrates the needed correction and delivery path. Confidence is strongest in the documented processing scope, version-13 platform boundary and licensing mechanisms; exact maintenance build, EVRT entitlement, SDK pairing and project-specific capacity remain unresolved. Ask the supplier to demonstrate a correction-to-export workflow with your sensor data and acceptance specification before committing the production team.

Screenshots
Blue C-shaped ring surrounding a central blue disc on the existing CARIS product icon
Key features
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Bathymetry and imageryProfessional documents multibeam, single-beam, lidar, laser scanning, backscatter and water-column workflows.
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Corrections and griddingProduct-linked datasheet documents sound-velocity profiles, tides/GPS vertical adjustment, CUBE and uncertainty-based gridding; exact sensor/build support: confirm with vendor.
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History and storageDatasheet documents HIPS files, SQLite history/QA and CSAR gridded/variable-resolution/point-cloud storage.
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Version 13 EVRTAlignment-based transformation for vertical/near-vertical structure analysis, grids, differences, profiles and volumes; entitlement: confirm with vendor.
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Automation and PythonProcess Designer and API documented; SDK 5.6.0 prerequisites list Python 3.9–3.11 matching application architecture. Exact pairing/license: confirm with vendor.
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Export workflowsDatasheet lists ASCII/GSF sounding exports and CSAR/BAG/GeoTIFF/GeoPDF grids; validate required bands and datum.
System requirements
Version-specific OSHIPS and SIPS 13: Windows 11 x64 per maintained-version matrix. Exact OS/build: confirm with vendor.
CPU and RAM guidanceGeneric Professional specifications recommend recent multicore CPU and 16 GB RAM; survey-specific sizing: confirm with vendor.
Storage guidanceGeneric specifications: 7200 RPM disk or SSD, minimum 1 GB installation space; survey/work storage additional.
Graphics guidanceGeneric specifications: Nvidia/AMD OpenGL 3.3-compatible GPU with at least 2 GB memory.
Automation/licensing environmentSDK 5.6.0 lists Python 3.9–3.11, matching 64-bit CARIS architecture; NumPy for Coverage. Exact SDK/build, license server and VM/cloud configuration: confirm with vendor.
Comments
Quick facts
VendorTeledyne CARIS, Inc., part of Teledyne Technologies; acquisition completed May 4, 2016.
Latest version13 major release; maintained-version matrix dates it April 29, 2026. Exact latest maintenance build: confirm with vendor. Checked November 8, 2026.
License typeCommercial single-user/network term options; entitlement-based activation and network commuting documented. Exact module/EVRT/automation/maintenance and VM/cloud rights: confirm with vendor.
PlatformWindows desktop processing. Specific supported-version matrix lists Windows 11 x64 for v13; generic product specifications also list Windows 10 Pro, which must not be assumed for v13.
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