Halliburton Energy Colombia Company newsroom

unknown

Real-time Analytics

An operator drilling deeper and more complex horizontal wells in Colombia needed to reduce trajectory uncertainty, drilling risk, and well-quality issues caused by complex geology, subsurface seismic faults, collision avoidance constraints, casing-setting depth limits, torque and drag, and other well design constraints.

15 to 45% improvement in casing and liner running speed
33% increase in ROP

Reported impact

Business outcome

The operator improved drilling consistency and trajectory accuracy across three horizontal wells, increasing rate of penetration, improving casing and liner running speed, reducing tortuosity, and lowering time and effort needed to keep wells on the planned path.

  • Productivity Improvement
  • Risk Reduction

Solution

Halliburton implemented an autonomous drilling workflow for three horizontal wells in Colombia that combined LOGIX™ drilling performance with LOGIX™ automation and remote operations and the iCruise® intelligent rotary steerable system. Downhole intelligent sensors embedded in the iCruise RSS supplied operational data from the wellbore, which was integrated into continuous predictive models. LOGIX drilling performance used machine learning together with a digital twin and a physics-based bottomhole assembly model to move the operator from descriptive optimization to predictive analytics for real-time trajectory design. LOGIX automation and remote operations connected these models with the remote drilling center, multiple PSLs, and the directional engineer so recommendations could be applied during well construction. The source does not name a separate storage product, but it describes continuous model access to live drilling data to predict future conditions, reduce uncertainty, and keep execution aligned with planned DDI and KPI targets.

Data flow

Downhole intelligent sensors in the iCruise® intelligent rotary steerable system capture live drilling data, which feeds LOGIX™ drilling performance models that combine machine learning, a digital twin, and a physics-based BHA model. Predictions and trajectory recommendations are then delivered through LOGIX™ automation and remote operations to the remote drilling center and directional engineer for execution during well construction.

Solution architecture

3 components · 3 layers
  1. Ingest
    • iCruise® intelligent rotary steerable system Provides intelligent sensing and steerable drilling capability that feeds real-time downhole data into the predictive drilling workflow.
  2. Compute
    • LOGIX™ drilling performance Runs the predictive analytics workflow, combining machine learning with physics-based models to optimize well trajectories and predict future drilling conditions.
  3. Orchestration
    • LOGIX™ automation and remote operations Coordinates automation, remote operations, and model-driven recommendations across the drilling team and remote center during well construction.

Architecture clues

  • Applied in three horizontal wells in the western Llanos basin in Colombia.
  • The deployment integrated multiple PSLs with a remote drilling center.
  • The platform analyzes extensive downhole data integrated with a digital twin and a physics-based model of the BHA.
  • The workflow was designed to maintain close alignment between planned and actual directional difficulty index (DDI).

Evidence from the source

"Casing and liner run speed additionally improved by 15 to 45%"
"Deploy the iCruise® intelligent rotary steerable system and optimization services"
"Implement LOGIX® automation and remote operations to combine physics-based models with machine learning"
"Intelligent sensors were integrated into the iCruise intelligent rotary steerable system (RSS) and LOGIX drilling performance to establish the foundational infrastructure for machine learning models."
"The operator selected to transition from a conventional optimization approach, which relies on descriptive analytics models, to a predictive analytics framework where machine learning algorithms play a pivotal role."
"The team achieved consistent performance improvement and drilling trajectory accuracy, which resulted in a remarkable 33% increase to the rate of penetration (ROP)"
"These learning platforms analyze extensive downhole data integrated with a digital twin and a physics-based model of the BHA."
Transparency Evidence & methodology 100/100 reference value · 94% confidence · 1 source

Review how this reference was scored and trace each normalized claim back to its documented source.

01

Scoring methodology

How scores are calculated

Customer Reference Value measures usefulness as a customer reference. Evidence Confidence measures the quality and traceability of available evidence, not independent verification.

Customer reference value100/100
  • Problem clarity20/20
    Measures whether the customer's operational problem is specific enough to compare.
  • Implementation depth25/25
    Rewards named components, data flow, integrations, and architecture detail.
  • Outcome specificity20/20
    Measures whether the reported benefit is concrete rather than a generic claim.
  • Quantified impact25/25
    2 metrics describe measurable impact.
  • Deployment scale10/10
    Rewards evidence of a live or scaled deployment and meaningful integration scope.
Evidence confidence94%
  • Source authority25/25
    The deployment is described by the adopting organization or a government source.
  • Claim traceability21/25
    10 of 12 key fields link to a named source.
  • Direct evidence20/20
    7 direct source quotes retained.
  • Date provenance10/10
    The publication date comes from the source page or publisher.
  • Source transparency8/10
    1 source reference document publisher, URL, authority, retrieval, and supported fields.
  • Implementation specificity10/10
    Rewards source-backed components, data flow, quantified impact, and a specific outcome.
02

Traceability

Sources & provenance

Field coverage shows which facts each source supports. Dates are shown only when documented by the source.

  1. unknown

    unknown customer story

    First-party
    https://www.halliburton.com/en/resources/the-rise-of-artificial-intelligence
    Source type
    Customer-published story
    Published
    Jan 9, 2024
    Supports
    • Customer
    • Business problem
    • Solution
    • Products
    • Solution components
    • Data flow
    • Integrations
    • technical area
    • use case category
    • Business outcome
    • outcome category
    • Metrics
    • Architecture
    • evidence quotes
    • Publication date

Date evidence

  • Published on source page Jan 9, 2024 · Halliburton · First-party
    Open date source
Not separately sourced Industry, Region, Company size. Treat these normalized attributes as lower-confidence until a dedicated source is added.