New opportunity

Computer Vision Researcher

Auric AI · Bengaluru/Mumbai, India

About this role

Auric AI Labs seeks a Computer Vision Researcher for its defense vision intelligence platform. The role uses satellite imagery—including EO, IR, SAR and hyperspectral data—and drone imagery to support detection, classification and tracking of military assets for situational awareness and decision-making. The position is onsite in Bengaluru or Mumbai.

Responsibilities

  • Design, train and deploy computer vision models to detect and classify assets such as trucks, tanks, radars, aircraft, ships and submarines. Optimize accuracy and efficiency for reliable real-time performance.
  • Build scalable pipelines for satellite, drone and ground-based imagery. Clean, annotate and augment datasets for training, and integrate optical, thermal and radar imagery to improve model robustness.
  • Develop target-prioritization workflows that respond to operator input, and techniques to accurately locate and visualize identified targets.

Qualifications

  • Demonstrated computer vision work through research, internships or personal projects, plus strong first-principles problem-solving skills.
  • Proficiency in Python and hands-on experience with frameworks such as TensorFlow, PyTorch and OpenCV. Expertise in image processing, object detection, segmentation and classification.

The posting mentions competitive compensation and benefits tailored to expertise but does not state an amount.

For full details about this role, click “Apply on company site” to view the employer’s original posting.

Skills for this role

Computer VisionPythonTensorFlowPyTorchOpenCVImage ProcessingObject DetectionImage SegmentationImage ClassificationData PipelinesData CleaningData AnnotationData AugmentationMultimodal ImageryGeospatial AnalysisTarget LocalizationModel OptimizationFirst-Principles Problem Solving

Your skill match

Checking your profile…

YOUR NEXT STEP

Get interview-ready for this role

A focused preparation guide, built around this job’s responsibilities and requirements.

✦ AI-generated guide
Preparation suggestions, not the employer’s actual interview questions. Always check the original posting for current requirements.
01

Understand the role

What matters most

  • Deploy reliable asset-detection models

    The role designs, trains and deploys models to detect and classify military assets, with accuracy and efficiency for real-time use. Preparation suggestion: be ready to explain model choices, validation and deployment trade-offs using a computer vision project.

  • Build imagery data pipelines

    The posting calls for scalable processing of satellite, drone and ground-based imagery, including cleaning, annotation and augmentation. Preparation suggestion: explain how you would check dataset quality and prevent preprocessing errors from affecting evaluation.

  • Integrate multiple imagery modalities

    The platform uses satellite EO, IR, SAR and hyperspectral data, and the duties include integrating optical, thermal and radar imagery to strengthen robustness. Preparation suggestion: discuss how you would evaluate whether combining modalities improves results.

  • Support operator-guided geospatial workflows

    The role includes target prioritization that adapts to operator input, plus accurate localization and visualization of identified targets. Preparation suggestion: describe how you would validate locations and present uncertainty clearly to an operator.

Likely challenges to think through

  • Accuracy versus real-time efficiency

    Likely preparation hypothesis: improving detection accuracy may increase processing time, while the posting asks for both reliable real-time performance and efficiency. Prepare to explain how you would measure the trade-off and choose optimizations without relying on accuracy alone.

  • Robustness across sources and sensors

    Likely preparation hypothesis: imagery from different platforms and modalities may vary in resolution, coverage and quality, complicating training and evaluation. Prepare an approach to dataset checks, modality-specific validation and failure analysis; the posting does not specify the data's condition.

  • Useful prioritization despite uncertain locations

    Likely preparation hypothesis: responding to changing operator input while locating targets accurately may require balancing responsiveness with confidence in the displayed result. Prepare to explain how you would test prioritization and localization separately and communicate uncertain outputs; no particular operator workflow is specified.

03

Practice your answers

Technical practice

How would you design a model to detect and classify assets across satellite and drone imagery?

What to coverThe posting calls for detecting and classifying assets in both image sources. Suggested preparation: discuss differences in scale and viewpoint, how you would select a model approach, and how you would measure errors by asset class.

When would segmentation add value beyond object detection?

What to coverThe posting names expertise in both segmentation and detection. Suggested preparation: compare bounding boxes with pixel-level masks, including their annotation costs and usefulness for locating objects with complex shapes.

How would you evaluate tracking across successive images?

What to coverThe role description mentions tracking assets, although the listed model duties emphasize detection and classification. Suggested preparation: explain how missed detections and mistaken identities affect a track, and what evidence you would use to assess continuity.

How would you build a trustworthy training dataset from the listed image sources?

What to coverThe posting calls for cleaning, annotation and augmentation of satellite, drone and ground-based imagery. Suggested preparation: cover label consistency, representative coverage and train–test separation, then explain how you would check whether augmentation helps rather than distorts evaluation.

What preprocessing differences would you consider for EO, IR, SAR and hyperspectral imagery?

What to coverThe posting explicitly lists these satellite data types. Suggested preparation: explain why their measurements should not be treated as interchangeable, and how you would inspect image quality and preserve information relevant to each modality.

How would you make an imagery-processing pipeline scalable and reproducible?

What to coverThe stated work includes pipelines for large volumes of satellite, drone and ground-based imagery. Suggested preparation: describe stages from ingestion through preprocessing and training, with checks for data quality, traceability and processing bottlenecks.

How would you assess whether combining optical, thermal and radar imagery improves robustness?

What to coverThe posting calls for integrating these modalities to strengthen models. Suggested preparation: compare a combined approach with single-modality baselines, accounting for alignment, missing inputs and conditions in which fusion might hurt performance.

How would you balance detection accuracy against reliable real-time performance?

What to coverThe role calls for high accuracy, efficiency and real-time operation. Suggested preparation: discuss latency alongside detection errors, and explain how you would test a faster model for unacceptable losses in reliability.

How would you check the accuracy of a target’s reported position and visualization?

What to coverThe posting calls for accurately locating and visualizing identified targets. Suggested preparation: discuss the path from an image detection to a displayed position, sources of positional uncertainty and checks that a visualization does not imply more precision than the data supports.

How would you design a target-prioritization workflow that responds to operator input?

What to coverThe stated duty is to make prioritization adapt dynamically to operator inputs. Suggested preparation: explain how you would make changes traceable, surface uncertainty and keep the operator able to review the resulting order.

Behavioural practice

Tell me about a computer vision research, internship or personal project you carried through evaluation.

What to coverThe posting cites these forms of computer vision work. Suggested preparation: give the situation, your specific actions and measured result, including what the evaluation did or did not establish.

Describe a difficult technical problem you tackled from first principles.

What to coverFirst-principles problem solving is explicitly valued in the posting. Suggested preparation: explain the situation, how you tested underlying assumptions, what you changed and what result followed.

Describe a time you found a data-quality or annotation problem that affected a model.

What to coverThe role includes data cleaning and annotation. Suggested preparation: set out the situation, how you identified and addressed the issue, and the observed effect on training or evaluation.

Tell me about a time you worked with others to resolve a disagreement about a model or pipeline.

What to coverThe posting mentions collaboration and work spanning models and data pipelines. Suggested preparation: describe the situation, your contribution to a shared decision and its result, without attributing the outcome solely to yourself.

Describe a time you had to communicate a model limitation to someone using its outputs.

What to coverThe role connects vision outputs to situational awareness and operator-responsive workflows. Suggested preparation: give the situation, how you conveyed uncertainty or errors, and what changed as a result.

02

Sharpen your knowledge

Topics to prepare

  • Detection, classification and segmentation

    Posting: Expertise in all three is listed, and the role detects and classifies assets. Suggested revision: explain the output and failure modes of each task using the same hypothetical image, including when a bounding box is insufficient.

  • Satellite and drone imagery modalities

    Posting: The platform uses EO, IR, SAR and hyperspectral satellite imagery, plus drone imagery; the work includes integrating optical, thermal and radar data. Suggested revision: make a comparison table of what each modality measures, likely data differences and questions to resolve before combining them.

  • Dataset quality at scale

    Posting: The role builds pipelines for large imagery volumes and handles cleaning, annotation and augmentation. Suggested revision: sketch a dataset flow from incoming imagery to training data, identifying label errors, leakage and checks at each stage.

  • Accuracy, efficiency and first-principles reasoning

    Posting: Models must balance accuracy and efficiency for reliable real-time performance; first-principles problem solving is listed. Suggested revision: reason through a hypothetical drop in detection accuracy and rise in latency, stating what you would measure before proposing changes.

  • Localization and operator-directed workflows

    Posting: Responsibilities include accurate position visualization and prioritization that adapts to operator input. Suggested revision: diagram the conceptual flow from a model prediction to a displayed location and identify where uncertainty and operator input should be represented. This diagram is a preparation suggestion, not a specified design.

Skills to revise

  • Train and evaluate a vision model in Python

    Posting: Python, hands-on experience with frameworks such as TensorFlow, PyTorch and OpenCV, and model training are specified. Suggested exercise: use one listed learning framework and OpenCV on a small, non-sensitive image set to train a detection or classification baseline; inspect errors by class.

  • Prepare an annotated image set

    Posting: Cleaning, annotation and augmentation are explicit tasks. Suggested exercise: define annotation rules for a small image set, flag ambiguous examples, apply an augmentation and check that labels remain valid.

  • Compare imagery processing paths

    Posting: The role manages optical, thermal and radar imagery to improve robustness. Suggested exercise: write a Python preprocessing outline for two available image types, recording differences in input format and alignment checks; a particular fusion method is not prescribed.

  • Measure the accuracy–speed trade-off

    Posting: Models are to be optimized for accuracy, efficiency and real-time reliability. Suggested exercise: time inference on a small test set, record accuracy and latency, and explain a measured trade-off rather than assuming a particular deployment target.

  • Visualize localized predictions

    Posting: The role calls for accurately locating and visualizing identified targets. Suggested exercise: overlay predictions and uncertainty on sample imagery, then check how image coordinates map to any available location metadata. This is interview preparation, not a stated implementation requirement.

04

Your preparation checklist

  • Select a computer vision project walkthrough

    The posting accepts evidence from research, internships or personal projects. Prepare one walkthrough covering the problem, your contribution, data, model choices, results and lessons learned.

  • Gather evidence of core technical skills

    Prepare specific examples of Python work using relevant tools such as PyTorch, TensorFlow or OpenCV. Be ready to explain image processing, detection, segmentation and classification decisions you have actually made.

  • Practice a model-design exercise

    The role involves detecting and classifying assets in satellite and drone imagery while balancing accuracy with real-time efficiency. As interview practice, sketch a model approach, evaluation measures, likely failure cases and optimization trade-offs.

  • Sketch an imagery data pipeline

    Prepare a diagram showing how you would clean, annotate, augment and process large imagery datasets. Include how you would evaluate the robustness of an approach combining optical, thermal and radar inputs; treat the diagram as a proposed design, not Auric AI’s existing process.

  • Explain localization and operator-input trade-offs

    The posting mentions target localization, visualization and prioritization that adapts to operator input. Prepare a high-level design discussion covering location uncertainty, clear visual presentation and how an operator could review outputs.

  • Draft focused questions for Auric AI

    Ask which imagery sources and tasks are priorities, how model performance and latency are evaluated, and what the Computer Vision Researcher would own across research, data pipelines and deployment.

AI-generated from the job information · Prepared Sep 30, 2026 (UTC)Useful preparation, not a guarantee of eligibility or an offer.

Availability last checked: 4 Nov 2026. Status can change after a check; confirm on the employer’s website. Report an issue · Our checking policy

KEEP EXPLORING

Similar AI jobs

Related skills and specializations in India. Matched to this role, not your profile.

Explore more jobs
Finding similar opportunities…