| Type: | Core Drill |
|---|---|
| Usage: | Coring |
| Certification: | CE, ISO |
| Application: | Reaming |
| Industry: | Geological Survey |
| Payment Term: | Tt or LC |
| Samples: |
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| Customization: |
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Audited Supplier Some further details about diamond reamers:
Reamer sizes and configurations: Diamond reamers are available in a wide range of sizes and configurations to accommodate different wellbore diameters and drilling requirements. They can be designed as single-piece units or as modular assemblies with interchangeable components, allowing for flexibility and adaptability in various drilling scenarios.
Reamer deployment in underreaming operations: Underreaming involves enlarging the wellbore diameter below the casing shoe or liner to improve wellbore stability, enhance cementing operations, or facilitate well interventions. Diamond reamers are commonly used for underreaming applications, providing precise control over the enlargement process and ensuring optimal wellbore conditions.
Reamer cutter technologies: Diamond reamers utilize various cutter technologies to optimize cutting efficiency and durability. Polycrystalline diamond compact (PDC) cutters are commonly employed due to their high wear resistance and cutting performance in hard formations. Additionally, hybrid cutters, combining PDC elements with other cutting structures, may be used to achieve a balance between aggressive cutting and impact resistance.
Reamer customization for specific drilling challenges: Diamond reamers can be customized to address specific drilling challenges. For example, in abrasive formations, reamers may be designed with enhanced cutter protection, such as tungsten carbide inserts or diamond-enhanced coatings, to prolong cutter life. Customization can also involve optimizing hydraulic flow patterns, adjusting cutter densities, or incorporating specific features to address formation-specific issues.
Reamer deployment in unconventional drilling: Diamond reamers are widely used in unconventional drilling, such as shale gas and tight oil formations. These formations often exhibit complex lithologies and variable hardness, requiring reamers that can efficiently handle the challenges posed by these environments. Diamond reamers with aggressive cutting structures and robust designs are utilized to achieve effective wellbore enlargement in unconventional reservoirs.
Reamer integration with drilling optimization software: To maximize the performance of diamond reamers, they can be integrated with drilling optimization software. These software systems analyze real-time data from downhole sensors and provide recommendations for adjusting drilling parameters to optimize reamer performance. By leveraging advanced algorithms and machine learning, drilling optimization software improves drilling efficiency and reduces the risk of downhole issues.
Reamer advancements in cutter technology: Ongoing research and development efforts focus on advancing cutter technology for diamond reamers. This includes the development of novel diamond materials, improved cutter geometries, and advanced bonding techniques. These advancements aim to enhance cutting efficiency, increase cutter durability, and extend the operational life of diamond reamers.
Reamer environmental considerations: Environmental sustainability is a growing concern in the drilling industry. Manufacturers are actively exploring environmentally friendly alternatives for diamond reamers, such as bio-based lubricants and coatings with reduced environmental impact. Additionally, efforts are made to optimize reamer designs for reduced energy consumption, minimizing waste generation, and promoting sustainable drilling practices.
Diamond reamers continue to evolve through ongoing research, technological advancements, and industry collaboration. Their versatility and adaptability make them indispensable tools for achieving efficient wellbore enlargement and enhancing drilling performance in a wide range of drilling applications.
Model or type:
Specifications
| ITEM | DIAMOND BIT | Reaming shell | |||||
| "Q" Series Wireline assembly |
Size | Bit Outer Diameter | Bit Inner Diameter | ||||
| mm | inch | mm | inch | mm | inch | ||
| AQ | 47.60 | 1.88 | 26.97 | 1.06 | 48.00 | 1.89 | |
| BQ | 59.50 | 2.35 | 36.40 | 1.43 | 59.90 | 2.36 | |
| NQ | 75.30 | 2.97 | 47.60 | 1.88 | 75.70 | 2.98 | |
| HQ | 95.58 | 3.77 | 63.50 | 2.50 | 96.00 | 3.78 | |
| PQ | 122.00 | 4.80 | 84.96 | 3.35 | 122.60 | 4.83 | |
| Metric T2 Series | 36 | 36.0 | 1.417 | 22.0 | 0.866 | 36.3 | 1.429 |
| 46 | 46.0 | 1.811 | 32.0 | 1.260 | 46.3 | 1.823 | |
| 56 | 56.0 | 2.205 | 42.0 | 1.654 | 56.3 | 2.217 | |
| 66 | 66.0 | 2.598 | 52.0 | 2.047 | 66.3 | 2.610 | |
| 76 | 76.0 | 2.992 | 62.0 | 2.441 | 76.3 | 3.004 | |
| 86 | 86.0 | 3.386 | 72.0 | 2.835 | 86.3 | 3.398 | |
| 101 | 101.0 | 3.976 | 84.0 | 3.307 | 101.3 | 3.988 | |
T Series |
TAW | 47.6 | 1.875 | 23.2 | 1.31 | 48.0 | 1.89 |
| TBW | 59.5 | 2.345 | 44.9 | 1.77 | 59.9 | 2.36 | |
| TNW | 75.3 | 2.965 | 60.5 | 2.38 | 75.7 | 2.98 |
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| Reaming classification | |
| T series | T36,T46,T56,T66,T76,T86 |
| Cable series | AWL,BWL,NWL,HWL,PWL(Front end,rear end) |
| WT series | RWT,EWT,AWT,BWT,NWT,HWT(single tube/double tube) |
| T2/T series | T256,T266,T276,T286,T2101,T676,T686,T6101,T6116,T6131,T6146,T6H |
| WF series | HWF,PWF,SWF,UWF,ZWF |
| WG series | EWG,AWG,BWG,NWG,HWG(single tube/double tube) |
| WM series | EWM,AWM,BWM,NWM |
| Others | NMLC,HMLC,LTK48,LTK60,TBW,TNW,ATW,BTW,NTW,AQTK NXD3,NXC,T6H,SK6L146,TT46,TB56,TS116,CHD101 |
Q&A:
Q1. Why is MWD critical for complex multilateral trajectories?
A1 Real-time measurements provide steering feedback maintaining complex intersections,planned azimuths across multiple branches in difficult heterogeneous formations or severe doglegs traditional single-run LWD alone struggles to place.
Q2. How does vertical reaming compare to high anglelaterals?
A2 Inclination introduces drag/vibration necessitating enhanced stabilization controls to positionborepaths deviating far from vertical without spiraling out of specificationfrom lacking centralized clean guidance inherent togravity-influenced straight holes.
Q3. How does oil-based mud influence reaming differently than water-based?
A3. Lower density necessitates enhanced hydraulics/cuttings transport with environmental mitigations for the more toxic synthetic fluids compared to common water muds.
Q4. What factors impact MPD performance for long extended laterals?
A4. Modeling downhole conditions optimizes automated pressures compensating friction losses to maintain control/cleaning across considerable intervals far removed from surface.
Q5. Why isMANAGED PRESSURE important for depleted reservoir re-entry?
A5 Precisely regulating pressures into fragile void-laden intervals prevents losses without damage, enabling restimulation of compromised abandoned zones previously bypassed as uneconomic with standard methods.
Q6. How does HPHT geology impact operations compared to normal pressure?
A6 Specialized bottomhole environments necessitate temperature/wear-resistant components, precision controls maintaining stabilization across narrow extreme profiles conventional tools cannot access without modification or failure.
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