Renhe Catalouge

October 2, 2017 | Author: ham sad | Category: Neutron, Nature, Computing And Information Technology
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ComboLog-Memory

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ComboLog-Memory Applications Reservoir delineation Hydrocarbon saturation determination and imaging Movable hydrocarbon determination Location of porous and permeable zones Gas detection Lithology determination Well-to-well correlation Thin-bed analysis

Introduction ComboLog is more cost effective to run because it requires significantly less rig time. The ComboLog system is less than half as long as conventional tools and weighs about half as much, yet it gives you better, quicker and more accurate answers—both in memory and real time. When ComboLog works in memory mode,It can provide wireline-quality openhole logs without wireline. The tool string is powered by a battery sub, and data are stored in nonvolatile memory chips housed in a memory sub. Log values are recorded in time-base and converted to depth logs when the string is recovered at the surface. Using drill pipe conveyance methods, ComboLog enables fast and efficient logging in highly deviated wells and in horizontal wells with challenging hole conditions.

Benefits Less rathole needed for the shorter length, lowering drilling time and cost More reliable performance for reduced downtime, which saves rig time Better quality logs, more data and higher resolution, revealing hard-to-find pay zones Fifty percent reduction in time spent on location, significantly lowering operating costs Short-radius wells readily logged

Features Overall length greatly reduced through the use of integrated sensors and reengineering Speed correction Integrated Rxo measurement Depth matching and borehole correction

General Specifications Max Temperature Max Pressure Tension OD Maximum logging speed Data storage capacity

DOWNHOLE TOOLS Pipe Adapter (for 3-1/2’ and 5’ drillpipe) Battery Power Sub (BPS) Casing Collar Locator (CCL) Memory/ Spectralog /Orientation Tool (MSO) Four Arms Centralizer Sub (FCS) Acoustic Tool-Memory (ACT-M) Hexapod Arms Caliper- Memory (HAC-M) Compensated Neutron Tool-Memory (CNT-M) Litho-Density Logging Tool-Memory (ZDT-M) Dual Lateral log Tool-Memory (DLT-M) Array Induction Tool-Memory (AIT-M)

SURFACE SYSTEM Memory Control Box (MCB) Laptop with PIDAS Software (with softdog) Data Acquisition Panel-Memory (DAP-M)

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350°F (175°C) 20000 psi (137.9 MPa) 68000 lb 92 mm 18 m/min 8 G bytes

ComboLog-Memory For 5’ drillpipe

For 3-1/2’ drillpipe

CCL

Pipe Adapter TTR SWS

BPS

MSO

FCS

ACT-M

HAC-M CNT-M www.RenheSun.com www.geovista.cn

ZDT-M

DLT-M

AIT-M

Data Acquisition Panel-Memory (DAP-M) Applications Test the ComboLog in shop Perform the shop calibration Real-time data acquisition and control

Introduction The DAP-M (Data Acquisition Panel-Memory) is designed to be a standalone acquisition panel that provides field maintenance personnel with a means of functionally testing and troubleshooting the ComboLog used in field operations. The DAP-M can acquire and process data from the various ComboLog in time. It connects to a laptop running test software, it can be used with the ComboLog in wireline mode.

Specifications PHYSICAL DIMENSIONS and WEIGHTS Height 8.75 in. (22.23 cm) Depth 25.2 in. (64 cm) Width 19 in. (48.26 cm) Weight 40 lbs. (18.14 kg) ENVIRONMENTAL CHARACTERISTICS Operating Temperature 32°F to 131°F (0°C to 55°C) Storage Temperature -58°F to 149°F (-50°C to 65°C) POWER Maximum AC Power Minimum AC Power

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240Vac 100 Vac

Memory Control Box (MCB) Applications

Introduction

Portable and easily moved between PC’s Logging battery status and conditioning Toolstring power monitoring Battery depassivator indicator Battery voltage OK/LOW indicator Tool power & PC control indicators Program the MSO and downloading data from MSO

The MCB is designed to operate as: 1. A battery condition tester 2. A universal interface box for programming and downloading data from MSO. The box interfaces laptop running Windows XP (or upper) with ComboLog tools. The MCB contains an auto battery depassivator that, on connection to the MCB, detects when a battery is unable to supply enough power and switches in the depassivating circuit. When the battery has finished depassivating, the depassivating circuit automatically switches off. On the front of the unit there is a LCD display where you can monitor tool power. Tool power can also be monitored on the PC screen when the tool is running in monitor mode.

Standpipe Pressure Transducer

Hookload Sensor

Depth Recorder

Ethernet Cable UPS

Mains Supply

Power Lead Memory Control Box(MCB) Battery Power Sub(BPS) Laptop Plotter

Memory Interface Lead

Memory/Spectralog/Orientation Tool(MSO)

MCB TYPICAL CONFIGURATION

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Tool String

Swivel Sub (SWS) Applications Different portions of the tool string to rotate independently Unrestricted 360° rotation by means of an internal slip-ring assembly

Introduction The SWS Swivel Assembly allows different portions of the tool string to rotate independently. It allows unrestricted 360° rotation by means of an internal slip-ring assembly. A swivel isolates an tool from the normal torque induced as the spiral-wound wireline is lowered into and pulled out of the well. This torque causes the tool string to rotate slowly — typically one or two rotations per 100 ft. (30 m) of depth for a seasoned line. Typically, this rotation does not cause any problems.

Specifications Maximum Temperature Maximum Pressure Make-up length Shipping length Make-up Weight Shipping Weight Number of Conductors Diameter Maximum Safe Working Load Maximum Fishing Tensile Strength

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400°F (204°C) 20,000 psi (137.9 MPa) 3 ft-4.0 in. (1.02 m) 4 ft-3.0 in. (1.30 m) 41 lbs (18.6 kg) 50 lbs (22.7 kg) 10 3-3/8 in. (85.9 mm) 29,000 lbs. (13,154 kg) 65,000 lbs. (29,484 kg)

Battery Power Sub (BPS) Applications Provide the ComboLog power

Introduction The Battery Power Sub (BPS) contains up to four battery packs inside. When ComboLog is fitted with a BPS, the working time is more than 50 hours.

Specifications Maximum Temperature Maximum Pressure Tool Diameter Make-up Length Shipping Length Weight Open Circuit Voltage Capacity Battery Pack Type Maximum Tensile Force Maximum Compressive Force

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350°F (175°C) 20,000 psi (137.9 MPa) 3.625 in. (92 mm) 2m 2.3 m 50 kg 36 Vdc 26 A*h @ 500 mA Lithium Chloride 20,000 lbs 78,000 lbs

Casing Collar Locator (CCL) Applications Depth Measurement

Introduction The CCL tool measurement is based upon the principle that a changing magnetic flux within the instruments sensor coil generates a voltage across the terminals of that sensor coil. The magnetic field of a CCL magnet is affected by any magnetically sensitive material close to it, such as the casing in a borehole. A collar or joint in the casing changes the magnetic flux field including the flux passing through the sensor coil ends adjacent to the magnets, causing an electric voltage to be generated.

Specifications Specifications Max Operating Temp Max Press Min Operating Temp Max OD Makeup Length Ship Length Weight Ship Weight Principle

350°F (175°C) for 10 hours 20,000 psi (137.9 MPa) 32°F (0°C) 3-3/8 in. (86 mm) 27.56 in. (0.7 m) 44.09 in. (1.12 m) 35.1 lbs. (15.9 kg) 44.1 lbs. (20 kg) Magnetic Flux Change

Radial Resolution

360°

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Temperature/Tension/Mud Resistivity (TTR) Applications Borehole temperature measurement. Mud resistivity measurement. Tension and compression forces measurement.

Introduction The TTR is a 92 mm diameter high strength forge gauge sensor sub containing three types of transducers for measurement of cablehead tension/ compression force, borehole temperature, and mud resistivity. The sub is optional and does not contain any electronics. It is supported by the MSO, which contains the electronics portion of the TTR.

Specifications Maximum Temperature Maximum Pressure Minimum Hole Diameter Tool Diameter Make-up Length Shipping Length 6 Weight Maximum Logging Speed Measurement Range Cablehead Tension Borehole Temperature Mud Resistivity Absolute Accuracy Cablehead Tension Differential Cablehead Tension Borehole Temperature Mud Resistivity Repeatability: Cablehead tension

350°F (175°C) 20,000 psi (137.9 MPa) (1406 kg/cm2) 4.50 in. (114.5 mm) 3.625 in. (92 mm) 43.80 in. (1.11 m) 0.00 in. (1.52 m) 80.0 lb (36.29 kg) 100 ft/min (30 m/min) 0 to 12,000 lbs Tension 0 to 10,000 lbs Compression 32°F to 446°F (0°C to 230°C) 0.01 ohmm to 10 ohmm ± 800 lbs Tension ± 5% ± 800 lbs Compression ± 5% ± 100 lbs Tension ±100 lbs Compression ± 4°F ± 5% (2°C ± 5%) 0.01 ohmm ± 5% ± 100 lbs Tension ± 100 lbs Compression

Borehole Temperature Mud Resistivity Maximum Tensile Force

± 2°C ± 0.01 ohmm 37,000 lb

Maximum Compressive Force

174,000 lb

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Memory/Spectralog/Orientation Tool (MSO) Applications Data storage and control Lithology identification Determination of clay type and clay content Measuring bed thickness Locating uranium by-product buildup in a cased well Identifying potential fracture zones Borehole orientation

Introduction This tool is the memory and control center. Its main function is to collect logging data and store these data in nonvolatile memory chips. It can also control the tool string how to work. It also provides spectralog and orientation measurement. The ComboLog obtains power from BPS and communicates with MSO through the tool bus. MSO also provides monitoring function of pressure sensor. When the specific pressure signal is detected , MSO supply or cut off power to the tool string.

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Memory/Spectralog/Orientation Tool (MSO) Specifications Max Temperature Max Pressure Minimum Hole Diameter Tool Diameter Make-up Length Shipping Length Weight Data Storage Capacity Tool Housing Material Maximum Tensile Force Maximum Compressive Force Maximum Logging Speed Spectralog Measuring Range Typical Oil Well K, U, Th concentrations

350°F (175°C) 20,000 psi (137.9 MPa) 4.75 in. (120.7 mm) 3.625 in. (92 mm) 9 ft.- 0.27 in. (2.75 m) 10 ft-5.76 in.(3.19 m) 132.3 lbs (60 kg) 4 G bytes Titanium Alloy 38,000 lbs (17,237 kg) 78,000 lbs (35,381kg) 30 ft/mim (9 m/min) 0.04 to 3.5 MeV Potassium, 0 to 20% Uranium, 0 to 300 ppm Thorium, 0 to 300 ppm Gamma Ray 2500 API Potassium 100 percent Uranium 250 ppm Thorium 700 ppm GR:±3% of measured value K, U, & Th:±4% of measured value Precision for standard shale GR:100 ± 1.5 API K:2 ± 0.15 percent U:6 ± 0.51 ppm Th:12 ± 1.03 ppm GR:100 ± 2.6 API K:2 ± 0.26 percent U:6 ± 0.88 ppm Th:12 ± 1.78 ppm 0.06 to 3.5 MeV 256

Maximum Measureable Quantity

Accuracy

At 10 ft/min (3 m/min)

At 30 ft/min (9 m/min)

Gamma Ray Energy Range Number of Energy Channels Orientation Sensor Accuracy Azimuth Deviation Drift Azimuth

± 1.5 degrees ± 0.25 degrees Deviation range 9o to 90o DAZ ± 1.5 degrees Deviation range 5o to 9o DAZ ± 6.0 degrees Deviation range 1o to 5o DAZ ± 10.0 degrees

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Four Arms Centralizer Sub (FCS) Applications Centralize the downhole tools

Introduction The FCS Centralizer is a 3.38" O.D., inline centralizer . The device is optional, but is intended to be run in conjunction with GTS tools which require centralization in the borehole.

Specifications Specifications Max Operating Temp Max Press Minimum Hole Diameter Maximum Hole Diameter Tool Diameter Make-up Length Shipping Length Weight

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400°F (204°C), for 1.5 hours 20,000 psi (137.9 MPa) 4.50 in. (114.5 mm) 16.0 in. (406.4 mm) 3.38 in. (85.9 mm) 4 ft - 1.4 in. (1.25 m) 5 ft - 6.3 in. (1.68 m) 83 lbs (37.65 kg)

Acoustic Tool-Memory (ACT-M) Applications Formation porosity from compressional slowness Sonic waveforms for fracture identification CBL and VDL for cased hole cement evaluation

Introduction The ACT-M 4-channel Acoustic Electronics is responsible for the data acquisition, downhole analysis, and telemetry interface and is measurement of compressional△t. This tool was developed to provide high quality compressional △t measurement with minimal operations investment in a relatively small physical tool package.

Specifications

Max Temperature Max Pressure Minimum Hole Size Tool Diameter Make-up Length Weight Logging Speed Absolute Accuracy Repeatability Vertical Resolution Tensile Strength Compressional Strength Transducer Type Receiver(s) Type Bandwidth Number Spacing Offset Transmitter(s) Type Bandwidth Number Spacing

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350°F (175°C) 20000 psi (137.9 MPa) 4.50 in. (114 mm) 3.625 in. (92 mm) max. 13 ft-10.74 in. (4.24 m) 240 lbs. (109 kg) 60 ft/min (18 m/min) max. +/- 0.5 microseconds +/- 1% 0.5 ft (15.24 cm) Basic measurement 17,000 lbs 4,000 lbs

Piezoelectric (monopole) Wideband (1-25 kHz) 4 6.0 in. (152 mm) 3.0 ft (0.914 m) min. 6.5 ft (1.98 m) max. Piezoelectric (monopole) Broadband (2-18 kHz) 2 2 ft (0.6 m)

Hexapod Arms Caliper-Induction(HAC-I) Applications Logging in either direction, down or up

Introduction HAC-I is spring powered with 12 magnetic sensors (6 calipers), pers), logging in either direction (up or down), no motor required..

No wires exposed to the borehole mud Spring powered

Specifications Max Temperature Max Pressure Tool Diameter Wireline Requirement Weight Make-up Length Shipping Length Minimum Hole Diameter Maximum Hole Diameter Power Requirements: Sensor Type: Sampling Rate: Max RIH: Max POOH: Sensitivity: Accuracy: Stability: Vertical Resolution (90%):

Measure Point:

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350°F (175°C) 20,000 psi (137.9 MPa) 3.625 in. (92 mm) 7 conductor 115 lb (52.2 kg) 7 ft 7 in. (2.31 m) 8 ft 9 in. (2.67 m) 5.5 in. (140 mm) 26 in. (660.4 mm) 36 Vdc,75 ma Magnetic Resistance 12 samples/ft max 300 ft/min (91.4 m/min) 300 ft/min (91.4 m/min) 0.05 in (1.27 mm) 0.1 in (2.5 mm) 0.1 in (2.5 mm) 1 in (25 mm) or more, depending on diameter and rate of diameter change Zero Point: 33.5 in (.085 m) from bottom sub Radius 1 to Radius 6: 33.5 in (0.85 m) from bottom sub

Compensated Neutron Tool-Memory (CNT-M) Applications Indicate formation porosity in open or cased boreholes. Dividing reservoir. Distinguish gas reservoir.

Introduction The CNT-M measures the hydrogen index of downhole formations. The measurements are converted to porosity values, which in combination with density tool measurements provide an indication of lithology and gas in zones of interest. The CNT-M contains a radioactive source that bombards the formation with fast neutrons. The neutrons are slowed, primarily by hydrogen atoms in the formation. Detectors count the slowed neutrons deflected back to the tool. Because the CNT-M responds primarily to the hydrogen content of the formation, the measurements are scaled in porosity units. The CNT-M uses two thermal detectors to produce a borehole-compensated thermal neutron measurement.

Specifications Maximum Temperature Maximum Pressure Diameter Minimum Hole Diameter Maximum Hole Diameter Make-up Length Shipping Length Weight Maximum Logging Speed Typical Logging Speed Principle Measuring Range. Accuracy Repeatability Depth of Investigation Vertical Resolution Tension Compression Sensor Type Source Type Source Strength

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350°F (175°C) 20,000 psi (137.9 MPa) 3.625 in. (92 mm) 4.75 in. (120.6 mm) 24 in. (609.6 mm) 7 ft.-7.0 in. (2.31 m) 8 ft-9.25 in. (2.67 m) 150 lb (68.0 kg) 30 ft/min (9.0 m/min) 18 ft/min (6.0 m/min) Neutron—Thermal neutron -3 to 100 Limestone Porosity Units (p.u.) ± 0.5 p.u. below 7 p.u. porosity ± 7% of recorded value above 7 p.u. porosity ± 1.5 p.u. @ 15% Limestone porosity 12 in. (304.8 mm) 28 in. (711.2 mm) 122,000 lbs 78,000 lbs Two He-3 proportional counters Am 241-Be 18 Curies – 4.5 Mev Neutrons

Litho-Density Logging Tool-Memory (ZDT-M) Applications Porosity determination Lithology analysis and identification of minerals Gas detection Hydrocarbon density determination Shaly sand interpretation Rock mechanical properties calculations

Introduction The ZDT-M provides measurements of formation density, formation photoelectric factor, and borehole diameter. The density data are used to calculate porosity and determine the lithology. The combination of density and CNT-M data is used to indicate the presence of gas. The maximum diameter of the ZDT-M is 96 mm, so it can adapt 4.5 in. holes. It has a pad with a gamma ray source and two detectors. Magnetics shielding and high-speed electronics ensure excellent measurement stability. The ZDT-M records the full-pulse-height gamma ray spectra from both detectors and processes them into windows. Bulk density and photoelectric factor are derived conventionally from the windows counts with enhanced quality control.

Specifications Maximum Temperature Maximum Pressure Max OD Minimum Hole Diameter Maximum Hole Diameter Make-up Length Shipping Length Weight Maximum Logging Speed Caliper Measuring Range Repeatability Absolute Accuracy

Depth of Investigation Vertical Resolution Sensor Type Source Type Strength H2S Qualified Maximum Tensile Load Maximum Compression Load

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350°F (175°C) 20,000 psi (137.9 MPa) 3.78 in. (96 mm) 4.5 in. (114.3 mm) 17.5 in. (444.5 mm) 160.43 in. (4.1 m) 178.85 in. (4.5 m) 335 lbs (152 kg) 30 ft/min (9 m/min) 4.5 in.--17 in. 1.3-3.0 g/cc Den : ±0.015 gm/cc (form 2 to 3 gm/cc) Pe: ±2 B/e(absence of mudcake) Den ±0.025 gm/cc (2.0 to 3.0 gm/cc) Pe±0.2 B/e(1.3 to 6.0 B/e) Caliper±0.30 in.(7.6 mm) from 4.5 to 17 in. 8.0 in. (20.3 cm) 19.0 in. (48.3 cm) Two NaI(TI) scintillators Cs 137 2.5 Curies Yes 49,000 lbs (22,272 kg) with pad retracted 44,500 lbs (20,235 kg)

Dual Laterolog Tool – Memory (DLT-M) Applications Rt determination in conductive mud. Evaluate the water saturation.

Introduction The DLT-M tool measures formation resistivity and is designed primarily for use in boreholes filled with highly conductive drilling fluids. DLT-M provides two resistivity measurements: a Shallow reading to investigate the formation near the borehole and a Deep reading to measure farther out where the formation is less disturbed by drilling fluids. These two readings are used to estimate the amount of hydrocarbon in a formation and the ease of recovering that hydrocarbon.

Specifications Max Temperature Max Pressure Detector or Sensor Type Diameter Minimum Hole Diameter Maximum Hole Diameter Make-up Length (Electronics & Mandrel only) Weight Electronics Mandrel Maximum Tensile Force Maximum Compressive Force Maximum Logging Speed    Mud Type/Range  Stability (at Max. Temp.) Vertical Resolution Radius of Investigation Measure Point Power Requirements Wireline Requirements

350°F (175°C) 20,000 psi (137.9 MPa) Electrode Array (Mandrel) 3.625 in (92 mm) 5.5 in (139.7 mm) 24 in (576 mm) 17 ft - 9.16 in (5.41 m)

102 lb (46.26kg) 165 lb (74.83kg) 48,000 lb (22,1778.6 kg) 7,400 lb (3,357.5 kg) 60 ft/min (18.3 m/min)    Water based mud,            ! #$  '    Greater of ±5% OR ±0.025 mmho ±5% 2 ft (.61 m) Deep Standard Return Mode (SrtnDp) 55 in (1.397 m) Shallow Mode 31 in (0.787 m) 6 ft - 0 in (1.83 m) above matching point of black block of DLT-C Mandrel. 180 Vac 7 Conductor

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Array Induction Tool-Memory (AIT-M) Applications Reservoir delineation Determination of Rt Determination of Sw Hydrocarbon identification and imaging Determination of movable hydrocarbons Invasion profiling Thin-bed analysis

Introduction AIT-M (Array Induction Tool-Memory) uses multi-spacing and multi-frequency measurements to acquire a complete set of data from the formations surrounding the borehole. AIT-M allows us to characterize invasion profiles, even in oil-based muds.

Specifications Maximum Temperature Maximum Pressure Make-up Length Shipping Length Weight Tool Diameter Minimum Hole Diameter Maximum Hole Diameter Logging speed(s) Recommended Maximum Focused Conductivities Apparent Vertical Resolution Depth(s) of Investigation

350°F (175°C) 20,000 psi (137.9 MPa) 18 ft-10.32 in. (5.48 m) 19 ft-11.39 in. (6.08 m) 394.6 lbs (179 kg) 3.625 in. (92 mm) 4.5 in. (114.3 mm) 20.0 in. (508 mm) 30 ft/min 60 ft/[email protected] samples per ft 100 ft/[email protected] samples per ft 1 ,2 , 4 ft 10, 20, 30, 60, 90, 120 in.

Measurement Range 0.1 to 2,000 ohm-m Measurement Accuracy (Homogenous formation) 60, 90, 120 in. depth of investigation ±1 mS/m, ±2% of reading 30 in. depth of investigation ±2 mS/m, ±2% of reading 20 in. depth of investigation ±4 mS/m, ±2% of reading 10 in. depth of investigation ±10 mS/m, ±2% of reading Sample Rate(s) 4 samples per ft (Recommended) 2 samples per ft (High speed) Power Requirements Operating Voltage & Current 180 Vac, 30°

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Azimuth Gamma Ray (AGR)

Applications Geo confirmation of sedimentary structure Confirmation of bed boundaries and orientation

Introduction AGR can accurately detect the geomagnetic field and the tool face, the drilling section is divided into eight intervals, and allocate the measured gamma-ray intensity into these eight intervals. According to the intensity of gamma rays in each interval, we can divide the geological section of the borehole, determine the content of the sandstone in the sandstone and mudstone section, and determine the permeability of the stratum qualitatively.

Specifications Gamma Specification Maximum Temperature:

150°C/175°C (option)

Type Measurement Range Accuracy

Scintillation API GR 0 - 500 API ±3% API of full scale

Vertical Resolution

6 in. (153 mm)

Inclination Specification Maximum Temperature:

150°C/175°C (option)

Sensor Type Range

X-Y axis accelerometer Z axis accelerometer 0 - 180° degrees

Accuracy

±1°@INC>30°

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Near-Bit Inclination and Gamma Module (NGR)

Applications Geostopping Top of productive reservoirs Top of coring sections Casing point selections High-risk zones Geosteering Well placement

Introduction The NGR system can accurately measure inclination and gamma on the near-bit, and provides early formation identification, structure and reservoir characteristics while drilling. The rapid identification of geological targets, formation bed boundaries, and potential trouble zones, enables operators to efficiently reach the most productive zones.

Specifications

Gamma Specification Maximum Temperature:

150°C/175°C (option) on)

Type Measurement Range Accuracy

Scintillation API GR 0 - 250 API ±3% API of full scale ale

Vertical Resolution NGR Specification

6 in. (153 mm)

Maximum Temperature:

150°C/175°C (option) on))

Sensor Type Range

Z axis accelerometer eter 0 - 180° degrees

Accuracy

±0.5°@INC>30°

Length 4.75 in. Tool 6.75 in. Tool OD 4.75 in. Tool 6.75 in. Tool

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2 ft-0.8 in. (0.63 m)) 1 ft-8.7 in. (0.53 m)) 5.4 in. (138 mm) 7.5 in. (190 mm)

Pressure While Drilling (PWD)

Applications Determines mobility

reservoir

Introduction fluids

Optimizing the acquisition period

PWD can accurately detect the annular pressure, the borehole pressure and temperature. Used to judge the underground complex situation, such as well leakage, blowout, well inflow and monitoring well, and conductive to the control of well safety.

Minimizing the total time required to accurately measure formation pressure

Specifications Tool O.D. Length Maximum Temperature Operating Time Maximum Pressure Flow range Data Acquisition Type Data Transmit Type Pressure Measurement Range Accuracy

4.75 in. / 120 mm 6.75 in. / 172 mm 4 ft.-8 in. (1.424 m) 150oC/175oC (option) Real-time/No Limited 90-260 hrs 20000 psi (137.9MPa)/25000 psi (172 MPa) (option) 100-350 gpm 200-800 gpm Real-time & Downhole Record Positive pulse 0 - 25000 psi ± 0.25% full scale

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Electromagnetic Propagation Resistivity (EPR)

Applications Provides formation resistivities Provide realtime formation evaluation services Provide wellbore placement Improve geosteering capabilities

Introduction Features Operates at 2 MHz and 400 kHz frequencies Compensated antenna design dual spacing transmitter pairs 8 quantitative resistivities with separate depths of investigation (3.375 in. provides 4 quantitative resistivities) Works in all mud types Works with probe and collarbased architecture

Overview Transmits electromagnetic waves into formation and measures the change in physical character of the wave on its return. The change in physical character of wave gives an indication of the Resistivity of the drilled formation.

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3.375 in.EPR (Battery)

Electromagnetic Propagation Resistivity (EPR)

Specifications

2 MHz Resistivity 0.1 to 3,000 ohm-m ±1% (0.1 to 50 ohm-m) ±0.5 mmho/m (> 50 ohm-m)

Range Phase Difference

Accuracy

Range Attenuation

Accuracy Vertical Resolution

Tool O.D. Length Hole Sizes Weight Equivalent Stiffness O.D. x I.D. Connections

Dogleg Severity

EPR-4/6/8 EPR-3 0.1 to 500 ohm-m 0.1 to 500 ohm-m ±2% (0.1 to 25 ohm-m) ±2% (0.1 to 50 ohm-m) ±1.0 mmho/m (> 25 ohm-m) ±1.0 mmho/m (> 50 ohm-m) 8 in. (20 cm) for 90% response in conductive beds

3.375 in.

4.75 in.

6.75 in.

8.25 in.

7.4 ft. (2.3 m) 3.75 in. to 5.875 in. (96-150 mm)

12 ft. (3.7 m) 5.875 in. to 6.75 in. (150-172 mm)

12 ft. (3.7 m)

12 ft. (3.7 m)

8.5 in. to 9.875 in. (216-251 mm)

12.25 in. (311 mm)

175 lbs. (79 kg)

600 lbs. (272 kg)

1,280 lbs. (581 kg)

1,595 lbs. (725 kg)

4.597 in. x 2.250 in.

6.625 in. x 2.81 in.

8.23 in. x 4.005 in.

(116.76 mm x 57.15 mm)

(168.2 mm x 71.4 mm)

(209 mm x 101.7 mm)

3-1/2 in. I.F. box up and

4-1/2 in. I.F. box up and

6-5/8 in. Reg box up and

3-1/2 in. I.F. box down

4-1/2 in. I.F. box down

6-5/8 in. Reg box down

Max Rotating (°/100 ft) 12

Max. Rotating (°/100 ft) 9

Max Rotating (°/100 ft) 8.2

Max. Sliding (°/100 ft) 16

Max Sliding (°/100 ft) 8.2

None 3 in. CDP Box Uphole 3 in. CDP Pin Downhole Max. Rotating (°/100 ft.) 20 Max. Sliding (°/100 ft.) 45 Max. OXP (°/100 ft.) 35

Max Sliding (°/100 ft) 30

Temperature

150 C/175 C (option)

Pressure

20,000 psi (137.9 MPa)

Mud Flow Range Lost Circulation Material

400 kHz Resistivity 0.1 to 1,000 ohm-m ±1% (0.1 to 25 ohm-m) ±1.0 mmho/m (>25 ohm-m) EPR-3/4/6/8 0.1 to 200 ohm-m ±5% (0.1 to 10 ohm-m) ±5.0 mmho/m (>10 ohm-m) 12 in. (30 cm) for 90% response in conductive beds

o

80 -160 gpm (300-600 lpm)

100 - 350 gpm (380-1,325 lpm)

o

200-800 gpm (760-3,030 lpm)

Fine to medium nut plug

Pulsation Damper

Recommended, 1/3 Standpipe Pressure

Data Acquisition

Mud pulse telemetry to surface and downhole memory

Telemetry Type

Positive Pulse

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300-1,100 gpm (1,135-4,165 lpm)

Integrated Logging While Drilling (InteLWD)

Applications Maximized drilling efficiency and wellbore placement with automated rotary drilling Reduced risk of differential sticking via continuous rotation Extended horizontal and lateral capabilities for maximum payzone contact—increasing production rates and extending the life of the well Improved hole quality and hole cleaning to reduce completion risks

Introduction InteLWD combines real-time azimuth, gamma ray, resistivity, annulus pressure and vibration measurement together. This reduces the number of connection joints, improve reliability, and optimize the distance from BHA sensors to drilling bit. InteLWD consists of BCP-O, directional sensor, resistivity, pressure sensor, gamma ray, master controller and memory.

Specifications Maximum Temperature Maximum Rotation Rate Diameter Min Hole Max Hole Weight Max Lost Circulation Material

300°F (150°C) 400 rpm 6.75 in. (171 mm) 8.375 in. (213 mm) 9.875 in. (250 mm) 3660 lbs. (1660 kg ) 40 ppb=114 kg/m3

Dogleg Severity

Standard drilling string (with drill collar) 10°/100 ft. (rotation) 16°/100 ft. (no rotation) Flexible drilling string assembly (with compression rod) 15°/100 ft. (rotation) 25°/100 ft. (no rotation)

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Integrated Logging While Drilling (InteLWD)

Specifications Pressure

Multiple Propagation Resistivity

Range Resolution Accuracy

0 - 25000 psi 5 psi ±0.25% of full scale

2 MHz Resistivity Phase Difference

GR Tool Type Range Accuracy Vertical Resolution

Scintillation 0-500 API ± 2.5 API/100 API 6 in. (153 mm)

Vibration Probe Type Accleration Range Frequency Range

Axial vibration z-Accelerometer Lateral vibration x-y Accelerometer 0 to 15 g 0 to 82 Hz

Rotating & stick slip Probe Type Range Accuracy

Two Axis Magnetometer 0 to ±1000 rpm ±1%

Range: 0.1 - 3,000 ohm-m Accuracy: ±1% (0.1-50 ohm-m) ±0.5 mmho/m (>50 ohm-m) Attenuation Range: 0.1 - 500 ohm-m Accuracy: ±2% (0.1-25 ohm-m) ±1 mmho/m (>25 ohm-m) Vertical Resolution 8 in.(20 cm) for 90% response in conductive beds 400 kHz Resistivity Phase Difference Range: 0.1 - 1,000 ohm-m Accuracy: ±1% (0.1 - 25 ohm-m) ±1 mmho/m (>25 ohm-m) Attenuation Range: 0.1 - 200 ohm-m Accuracy: ±5% (0.1 - 10 ohm-m) ±5.0 mmho/m (>10 ohm-m) Vertical Resolution 12 in. (30 cm) for 90% response in conductive beds

Azimuth Module Sensor Type MTF/GTF Measurement Inclination Azimuch Toolface Magnetic TF Gravity TF Total Magnetic Field Dip Angle

Tri-axial Accelerometer Tri-axial Flux Gate Operator selectable (default:3° ) Resolution 0.09° 0.35°

Range 0°-180° 0°-360° 0°-360° 0°-360° 0-100000 nT -90°~90°

1.4° 1.4° 35 0.04°

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Accuracy ±0.1° ±1° ±1.5° ±1.5° ±1500 ±0.3°

Bi-directional Communication & Power System While Drilling Applications Transmission of downhole data to surface High density downhole sensor data storage Transmission of surface commands to downhole

Introduction Bi-Directional Communication & Power System include downhole instrument (BCP-O)and downlink devices (BPC、NPG). The BCP-O (Bi-Directional Communication & Power Module-O) is capable of generating 300 Watt power output, providing 33 Vdc to the InteLWD system, providing circuit breaker protection for upper and lower mounted instruments, detecting downlink data by monitoring turbine speed, transmitting data to the surface via a pulser .It can be installed in any position of the instrument string, which provides a lot of conveniences for the logging. The BPC (Bypass Controller) sends commands from the surface to downhole instrument by controlling the NPG (Negative Pulse Generator) which controls the mud flow.

Specifications Maximum Temperature 300°F (150°C) Maximum Pressure 20000 psi (137.9 MPa) Tool Diameter 6.75 in. (170 mm) Make-up Length 10.85 ft (3.34 m) Weight 1006 lbs. (455 kg) Normal Flow Range 211 (320*)-470 gpm (800 (1211*) LPM-1780 LPM) Low Flow Range 176 (240*)-378 gpm (666 LPM-1430 LPM) Max Turbine RPM 5000 Output 33 Vdc±1 Max Alternator Output Power 300 Watts *Min.flow rate for downlink operation

MWD-ALT-O MWD-CVA-O

BCP-O

MWD-MVA-O

SLEEVE

BCP-O

Bypass Controller (BPC)

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Negative Pulse Generator (NPG)

Rotary Steerable Unit (RSU)

Applications Precise reservoir navigation Exact wellbore placement Early detection of bed boundaries Geo-confirmation of sedimentary structures Offers a smooth wellpath and excellent hole quality for faster completions and enhanced production Identifies hole cleaning problems and fluid influx into the wellbore

Introduction The system based on advanced closed-loop circulation system on the basis of successful application, using the new MWD technology in the design of RSU. This new system opens up a new field of directional well drilling.The system allows you to navigate precisely into the target using superior directional control in the most challenging well profiles. You can add and combine any of our LWD and drilling optimization systems into an integrated bottomhole assembly for your application requirements.

Specifications Maximum Temperature Max Pressure Length Diameter Hole Diameter Weight Make-Up Length Build Rate

300oF (150oC) 20,000 psi (137.9 MPa) 7.2 ft. (2.2 m) 6.75 in. (170 mm) 8-3/8 in. to 10-5/8 in. 905 lbs. (410 kg) 7.2 ft. (2.2 m) 0-6.5o/100 ft (30 m)

Dogleg Severity

13o/100 ft. (with rotation) 20o/100 ft. (without rotation)

Optimizes drilling performance and reliability Increased Rate Of Penetration (ROP) Real-time decision making anel drilling optimization

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Caliper Corrected Neutron Porosity (CCN)

Applications Accurate, real-time quantification of porosity and gas identification for saturation calculations Reservoir Navigation using high-resolution imaging and gas—oil/water identification in real-time Wellbore stability analysis using azimuthal caliper and density imaging in real-time Structural formation dip analysis and updating reservoir models from density imaging

Introduction The CCN and RAD offers measurement of formation density, neutron porosity, borehole caliper, and formation imaging. You can geosteer the well for maximum reservoir exposure. Neutron porosity and bulk density are critical for the quantification of hydrocarbons in the reservoir.

Specifications Service Tool Type Diameter

Maximum Temperature

Formation Porosity Caliper Corrected Neutron 6.75 in. with 7.50 in. upset 4.75 in. 6.75 in. : 893 lbs. (405 kg) 4.75 in. 1100 lbs. (498 kg) (CCN and RAD 4) 300oF (150oC)

Maximum Pressure Maximum Dogleg Severity

20000 psi (137.9 MPa) 6.75 in.: 9o/100 ft Rotating - 16o/100 ft. Sliding

Weight

4.75 in.: 4 blade - 10o/100 ft Rotating - 25o/100 ft. Sliding 3 blade - 15o/100 ft Rotating - 30o/100 ft. Sliding Equivalent Stiffness Detectors Porosity Accuracy Vertical Resolution Statistical Repeatability Maximum logging speed Depth Of Investigation Radioactive Source Measure Point Voltage Current Draw

6.75 in.: 6.79 in. x 2.26 in. 4.75 in.: 4.82 in. x 1.87 in. Lithium-6 Iodide Crystal with Photomultiplier tube for both Near and Far detectors 0.5 pu below 10 pu; 5% of reading for 10-50 pu 6.75 in.: 24 in. (61 cm) 4.75 in.: 24 in. (61 cm) ± 0.6 [email protected] pu @ 200 ft./hr. 180 ft./hr (@2 points/ft.) 10 in. estimated for 8.5 in. 10 pu borehole Am 241 - Be Strength: 5 Curies (185 GBq) 4.6 ft (1.4 m) (From downhole tool end) 30 Vdc 160 - 170 milli Amps

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Rotational Azimuth Density (RAD)

Applications Accurate, real-time quantification of porosity and gas identification for saturation calculations Reservoir Navigation using high-resolution imaging and gas—oil/water identification in real-time Wellbore stability analysis using azimuthal caliper and density imaging in real-time Structural formation dip analysis and updating reservoir models from density imaging

Introduction The CCN and RAD offers measurement of formation density, neutron utron porosity, borehole caliper, and formation imaging. You can geosteer steer the well for maximum reservoir exposure. Neutron porosity and bulk density are critical for the quantification of hydrocarbons in the reservoir.

Specifications Service Tool Type Diameter Weight

Maximum Temperature Maximum Pressure Maximum Dogleg Severity (Sliding) Equivalent Stiffness Detectors

Formation Bulk Density Service with Hole Caliper Rotational Azimuth Density 6.75 in. 4.75 in. 1092 lbs. (495 kg)@6.75 in. 1100 lbs. (498 kg)@4.75 in. (CCN and RAD 4) 300oF (150oC) 20000 psi (137.9 MPa) 6.75 in.: 9°/100 ft. Rotating-16°/100 ft. 4.75 in.: 4 blade-10o/100 ft Rotating-25o/100 00 ft 3 blade-15o/100 ft Rotating-30o/100 00 ft 6.75 in.: 7.01 in. x 1.87 in. 4.75 in.: 4.82 in.x 1.87 in. NaI Scintillation Crystal with photomultiplier tube for both Long and Short Spaced detectors

Density Specifications Range 1.6-3.1 g/cc Accuracy ±0.015 g/cc Statistical Repeatability ±0.025 g/[email protected] ft/hr (60 m/hr) and 2.5 g/cc Vertical Resolution 18 in. (45 cm) (full resolution) Downhole End Measure Point 5.1 ft (1.5 m) Photoelectric Factor Specifications Range 1-100 Barnes/electron (B/e) Accuracy ±0.25 B/e from 2-5 B/e Statistical Repeatability ±0.25 B/[email protected] ft/hr (60 m/hr) Vertical Resolution 6 in. (150 mm) (full resolution) Downhole End to PeMeasure Point 5.1 ft (1.5 m) Acoustic Standoff Caliper Specifications Range 0-2 in. Accuracy ±0.075” up to 0.5” ±0.125”up to 1.0” ±0. 25”up to 2.0” Maximum Logging Speed 180 ft/hr (@2 points/ft) Radioactive Source Cs137 Strength:2 Curies (74 GBq) Voltage 30 V Current Draw 350 mA~390 mA

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Acoustic While Drilling (AWD)

Applications Optimize mud-weight selection Predict pore pressure independent of temperature and salinity effect Identify top-of-cement Understand rock mechanical properties Measure porosity sourceless Position bit-on-seismic using synthetics Identify gas influx or formation gas Perform many other standard sonic applications

Introduction Acoustic While Drilling (AWD) provides real-time compressional and nd shear wave travel-time measurements in slow and fast formations. Shear and comressional slowness with computed semblance values es are acquired using a stateof-the art acoustic source combined with th multiple arrays of receivers.Advanced downhole processing and nd wavefrom stacking techniques ensure reliable and fully compensated ed measurements.

6.75 in. Specifications Nominal O.D. Max. Tool O.D. (inc. wear bands) Fishing Stub Length Hole Size Length Tool Mass (in air) Makeup Torque Max. Rotary Torque Max. Torque (pin yield) Max. Dogleg Severity Rotating

6.9 in. (175.26 mm) 7.5 in. (190.5 mm) 55 in. (1,397 mm) (for new collar) 8.5 in. (216 mm) to 0.625 in. (270 mm) 23.8 ft. (7.254 m) 2,500 lbm (1,134 kg) 25,000 ft-lbf (33,895 N.m) 16,000 ft-lbf (21,693 N.m) 42,700 ft-lbf (57,893 N.m) 8o/100 ft. (8o/30 m)

Sliding

16o/100 ft. (16o/30 m)

Max. Operating Temperature

300oF (150oC)

Max. Operating Pressure Max. Differential Pressure Max. Flow Rate Max. Sand Content Max. LCM Size Pressure Drop

20,000 psi (137.9 MPa) 5,000 psi (35 MPa) 800 gal US/min (3,028 L/min) 3% 0.63 in. (16 mm) (mud weight (lbm/gal US) × (flow rate2 (gal US/min)2)

Equivalent Bending Stiffness Bending Strength Ratio Average Inertia Max. Jarring Load Max. Tensile Load Max. W.O.B.

Max. W.O.B. Max. Shock (Electronics) Measure Point From Tool Bottom

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256,000 psi 35 ft. (10.67 m) (6.5 in. O.D. and 2.81 in. I.D.) .) 2 62 in. 330,000 lbm (149,685 kg) 330,000 lbm (149,685 kg) 57,000,000 lbm (25,854,765 kg) L2 (L is the distance between stabilizers in ft.) 100,000 lbm (444,822 N) 250 g for 100,000 cycles 14 ft (4.267 m)

Acoustic While Drilling (AWD)

Applications Optimize mud-weight selection

6.75 in. Specifications Measurements Compressional Wave Transit Time

Real-time and memory

Predict pore pressure independent of temperature and salinity effect

Shear Wave Transit Time (fast formation)

Real-time and memory

  Measurement Range

Identify top-of-cement

Transmitter-Receiver Spacing Acoustic Aperture Max. Recording Rate Real Time And Memory 6 in. Sampling At 180 ft./h Memory Only 6 in. Sampling At 180 ft./hr Memory Capacity



 All tools 40 - 230 us/ft. dependent on mud type 10 ft. (3.048 m) 2 ft. (0.61 m)

Understand rock mechanical properties Measure porosity sourceless Position bit-on-seismic using synthetics Identify gas influx or formation gas

Power Supply Collar Attenuator Efficiency Dump Time (memory full)

Perform many other standard sonic applications

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10 s 1s 6 [email protected] s record rate or 12 [email protected] s rate for dual memory tools Battery and turbine 60 dB 70 min

Nuclear Magnetic Resonance Imaging While Drilling Tool (MRI) Applications Continuous,real-time,lithology-ind ependent porosity without chemical sources.

Introduction

Thin-bed characterization.

By Providing lithology-independent porosity, pore-sized istribution, continuous prmeability and direct hydrocarbon detection, the MRI TOOL service delivers a step change in real-time producibility assessment for complex reservoirs. While drilling a well with a challenging trajectory to target a complex carbonate reservoir the MRI (The high-quality, real-time magnetic resonance) TOOL Service to evaluate rock and fluid properties and obtain accurate lithology independent porosity and continuous permeability to optimize placement of the wellbore, the advanced petrophysical evaluation improved testing and completion design and calculated reservoir producibility for focus on well.

Carbonate facies characterization.

Specifications

Resistivity-independent pay identification. Continuous,real-time permeability evaluation.

Irreducible water saturation. Gas-bearing reservoir evaluation. Heavy oil and tar identification.

Maximum Temperature Maximum Pressure Max. Tool O.D. (single-sleeve stabilizer) Make-up Length Weight Borehole Size Range Normal Collar O.D. Crossover Subs Top Crossover Subs Bottom Thread Connections Vertical Resolution Static Vertical Resolution Dynamic Max.Flow Range Min.Flow Range Pressure Drop Constant Measurement of Porosity Min mud Resistivity Shell Diameter Shell Thickness Max.Number of Echoes Min.Echo,Spacing T2 Distribution Precision Depth of Investigation Antenna Vertical Resolution Static Field Gradient Freq of Sensitive Volume Operating Position Hole Deviation

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300oF (150oC) 20,000 psi (137.9 MPa) 6.9 in. (175 mm) 32.38 ft (9.87 m) 3385.4 lbm. (1535.6 kg) 8.25 to 10.375 in. (20.96-26.36 cm) 6-3/4 in. (171.5 mm) API tolerance 4-1/2 in.IF BOX/5-1/2 in.FH pin (real time) 4-1/2 in.IF BOX/5-1/2 in.FH pin (real time) 5-1/2 in. FH BOX API 1.5 in./min-4 in./min (3.81cm/min-10.16 cm/min) 10 [email protected] ft./h (25.4 [email protected] m/h)----0.25 m/min 20 [email protected] ft./h (50.8 [email protected] m/h)----0.5 m/min 800 galUS/min(3 m³/min) 300 galUS/min (1.2 m³/min) 30,000 psi (207 MPa) 0-100 pu 0.02 ohm.m 15 in.(381 mm) 0.24 in. (6 mm) 2000 0.6 ms 0.5 to 5,000 ms <10 pu/PAP 15 in. (356 mm) 5.9 in. (150 mm) 58 gauss 245 kHz Centralized Vertical to Horizontal

Nuclear Magnetic Resonance Imaging While Drilling Tool(MRI) Applications Continuous,real-time,lithology-ind ependent porosity without chemical sources. Resistivity-independent pay identification.

Specifications Data Capacity

5 pulses/s ,continuous work 200 Hrs.

Power Supply

Double tubine alternator/ROP POWER/RTC

Centralizer Downhole Distance Max.Dogleg Severity Sliding Max .Severity Rotating Max.System Shock Level

2.5 ft (0.762 m) 16°/100 ft (16°/30 m) 8°/100 ft (8°/30 m) 30 min at shock level 5 (50-gn threshold or accumulatd 200000 shocks above 50 gn) 74,000,000/d² (ft.)=lbm 30,576,237/d² (m)=kgm (d=distance between stabilizers) 330,000 lbf (1468,000 N.m) 16,000 ft.lbf (21,700 N.m) 46,000 ft.lbf (62,367.5 N.m) <9

Max.Weight on Bit of Axial

Continuous,real-time permeability evaluation. Thin-bed characterization.

Max.Jarring Load of Axial Max.Rotary Torque Joint Yield Torque Max. PH

Carbonate facies characterization. Irreducible water saturation. Gas-bearing reservoir evaluation. Heavy oil and tar identification.

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Rotary Magnet Ranging (RMR)

Applications Drilling stacked horizontal well pairs for steam‐assisted gravity design (SAGD) Infill drilling and collision avoidance Wellbore Intersections for well control or pipelines Observation well placement Coalbed methane degasification wells

Introduction The RMR system works with well‐to‐well separation distances up to 50m.The RMR systems are used to drill the majority of SAGD pairs worldwide. It can be combined CTT (Downhole Casing & Tubing Tractor).

Specifications Nominal O.D. Hole Size Range Min Tubing I.D. Max Tubing I.D. Length Weight BHA Connection

1.75 in. (44.5 mm) 3.875 in. and Up 2.875 in. (73 mm) NA 8.2 ft. (2.5 m) 60 lbs. (27.3 kg) 2.375 in. Reg and Up

Max Operating Temperature

350oF (175oC)

Max Operating Pressure Accuracy 16 to 49 ft/5 to 15 m Accuracy 49 to 82 ft/15 to 25 m Accuracy Beyond 82 ft/25 m Max Range

20000 psi (137.9 MPa) 5% 5% 5% 164 ft (50 m)

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International Sales Assistant Zhang Cui Mobile:(+86) 13552772378 Email: [email protected]

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International Technical Manager Deng Hua Mobile:(+86) 13811209770 Email: [email protected] com 

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Add: No.54-3rd tohid-khovardin blvd.-shahrak-e-Gharb-Tehran Tel: (+98) 21-88564250 Zip:1466995471

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Fullset Logging System

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Contents

Combo Logging System-Memory (ComboLog-M) Slim Combo Logging System-Memory (ComboLog-SM) Combo Logging System (ComboLog) Slim Hostile Logging System (HostileLog) Thru-Pipe Logging System (ThruLog) (CBL-M)

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ComboLog-Memory Applications Reservoir delineation Hydrocarbon saturation determination and imaging Movable hydrocarbon determination Location of porous and permeable zones Gas detection Lithology determination Well-to-well correlation Thin-bed analysis

Introduction ComboLog is more cost effective to run because it requires significantly less rig time. The ComboLog system is less than half as long as conventional tools and weighs about half as much, yet it gives you better, quicker and more accurate answers—both in memory and real time. When ComboLog works in memory mode,It can provide wireline-quality openhole logs without wireline. The tool string is powered by a battery sub, and data are stored in nonvolatile memory chips housed in a memory sub. Log values are recorded in time-base and converted to depth logs when the string is recovered at the surface. Using drill pipe conveyance methods, ComboLog enables fast and efficient logging in highly deviated wells and in horizontal wells with challenging hole conditions.

Benefits Less rathole needed for the shorter length, lowering drilling time and cost More reliable performance for reduced downtime, which saves rig time Better quality logs, more data and higher resolution, revealing hard-to-find pay zones Fifty percent reduction in time spent on location, significantly lowering operating costs Short-radius wells readily logged

Features Overall length greatly reduced through the use of integrated sensors and reengineering Speed correction Integrated Rxo measurement Depth matching and borehole correction

General Specifications Max Temperature Max Pressure Tension OD Maximum logging speed Data storage capacity

DOWNHOLE TOOLS Pipe Adapter (for 3-1/2’ and 5’ drillpipe) Battery Power Sub (BPS) Casing Collar Locator (CCL) Memory/ Spectralog /Orientation Tool (MSO) Four Arms Centralizer Sub (FCS) Acoustic Tool-Memory (ACT-M) Hexapod Arms Caliper- Memory (HAC-M) Compensated Neutron Tool-Memory (CNT-M) Litho-Density Logging Tool-Memory (ZDT-M) Dual Lateral log Tool-Memory (DLT-M) Array Induction Tool-Memory (AIT-M)

SURFACE SYSTEM Memory Control Box (MCB) Laptop with PIDAS Software (with softdog) Data Acquisition Panel-Memory (DAP-M)

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350°F (175°C) 20000 psi (137.9 MPa) 68000 lb 92 mm 18 m/min 8 G bytes

ComboLog-Memory For 5’ drillpipe

For 3-1/2’ drillpipe

CCL

Pipe Adapter TTR SWS

BPS

MSO

FCS

ACT-M

HAC-M CNT-M www.RenheSun.com www.geovista.cn

ZDT-M

DLT-M

AIT-M

Slim Combo Logging System-Memory (ComboLog-SM) Applications In-situ formation resistivity (Rt) with array induction Formation evaluation and lithology identification Borehole geometry

Introduction            ! " #   $ " ! high-quality data you would expect to get from conventional tools, but with a  "  %&'*+ &   "  $ & $    logging tool is fully characterized, which means that you never have to choose between data fidelity and tool size. These tools provide the accuracy of traditional wireline logging. The Slim combo Logging system offers multiple conveyance options. Data can be acquired in real time when run on wireline, or it can be deployed by coiled tubing or drillpipe in memory mode. When it conveyed by drillpipe, it can be released by mechanical ball method or mud-pulse control method. With Slim Combo logging services, you can easily achieve reliable logging in challenging applications with data quality you expect from conventional tools.Our Slim Combo logging tools are available for holes with diameters up to 16 in. They are environmentally corrected and fully characterized for:   Weight  T   

General Specifications Max Temperature Max Pressure Tool Diameter Minimum Hole Diameter Maximum Hole Diameter Power Requirements: Battery Lithium battery

350°F (175°C) 20000 psi (137.9 MPa) 2.875 in. (73 mm) 4 in. (304.8 mm) 12 in. (406 mm) 10 cells 36 Vdc (Nominal)

DOWNHOLE TOOLS Temperature/Tension/Mud Resistivity Tool-Slim (TTR-S) Casing Collar Locator-Slim (CCL-S) Digital Transmission/Spetralog/ Orientation Tool-Slim memory (TSO-SM) Compensated Neutron Tool-Slim Memory (CNT-SM) Litho-Density Logging Tool-Slim Memory (ZDT-SM) Motor Push Sub (MPS)(Optional) Acoustic Tool-Slim Memory (ACT-SM) Dual Lateral log Tool-Slim Memory (DLT-SM) Shallow Focused Laterolog-Slim Memory (LL8-SM) Array Induction Tool-Slim Memory (AIT-SM) Four Arms Caliper-Slim Memory (FAC-SM) Battery Power Sub (BPS) Mass Isolator Sub-Slim (MIS-S) Insulation Sub-Slim (ISS-S) Swivel Sub-Slim (SWS-S) Four Arms Centralizer Sub-S (FCS-S) Flex Joint Sub-Slim (FJS-S) Optional tools: Double Knuckle Joint -Slim (DKJ-S) Single Knuckle Joint -Slim (SKJ-S) Pressure Isolated Sub (PIS) Decentralizer Sub-Slim (DCS-S)

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Combo Logging System-Slim Memory (ComboLog-SM) Digital Control Releaser

Mechanical Releaser

Mechanical Releaser Upper Hanger

Adjuster Sub-1

FJS-S FCS-S

ISS-S

Protective Casing MPS DCS-S

SWS-S

Adjuster Sub-2

DCS-S

ACT-SM

ZDT-SM

CCL-S

AIT-SM

Lower Hanger

TTR-S

TSO-SM

FCS-S

CNT-SM

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DCS-S

DLT-SM

LL8-SM

Combo Logging system (ComboLog) Introduction The PI Combo Logging System incorporate the latest digital capabilities in their sensor, mechanical, and electrical architectures; rendering toolstrings that are significantly shorter, lighter, without penalty in temperature or pressure ratings. It is more cost effective, requiring significantly less rig time. You’ll increase your logging efficiency with reduced set-up and calibration time, and faster turn around on wellsite processing. The toolstring expands the traditional resistivity and porosity measurements. Tool movement is measured for real-time speed correction and depth matching.

DOWNHOLE TOOLS TTR: CCL: TSO: CNT: ZDT-C: ZDT-D: ZDT-I: ACT-C: AIT-C: DLT-C: ALT: MSF: MSF-4: MSF-I: HAC: HAC-I: FCS: ISS-C: MIS:

Temperature/Tension/Mud Resistivity Tool Casing Collar Locator Digital Data Transfer / Spectralog / Orientation Tool Compensated Neutron Tool Litho-Density Logging Tool-Combo Dual Spectrum Density Tool (optional) Litho-Density Logging Tool-Integrated (optional) Acoustic Tool-Combo Array Induction Tool-Combo Dual Lateral log Tool-Combo Array Laterolog Tool (optional) Micro Spherical Focused Laterolog Tool Four Arms Micro Spherical Focused Laterolog Tool (optional) Micro Spherical Focused Log Tool- Integrated (optional) Hexapod Arms Caliper Hexapod Arms Caliper-Induction (optional) Four Arms Centralizer Sub Insulation Sub- Combo Mass Isolator Sub

OPTIONAI TOOLS SWS: FJS: SKJ: DKJ: PCL:

Swivel Sub Flex Joint Sub Single Knuckle Joint Double Knuckle Joint Pipe Conveyed Logging Tool (PCL-B or PCL-H)

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Slim Hostile Logging System (HostileLog) Applications In-situ formation resistivity (Rt) with array induction Formation evaluation and lithology identification Borehole geometry High wellbore pressures and temperatures

Introduction HostileLog has internal sensors that provide quality control data on critical operational characteristics even in prolonged high temperature and high pressure well conditions where temperature and pressure could approach the 435oF (220oC)/30000 psi (207 MPa) limit of a tool string. And the diameter is 79 mm.

General Specifications Maximum Temperature Maximum Pressure Diameter Maximum Hole Diameter Minimum Hole Diameter Maximum Logging Speed

430oF (220oC) 30,000 psi (207 MPa) 3.125 in. (79.4 mm) 16 in. (406.4 mm) 4 in.(101.6 mm) 18 m/min

DOWNHOLE TOOLS Cablehead-Slim (CHS) Temperature/Tension/Mud Resistivity Tool-Slim Hostile (TTR-SH) Casing Collar Locator-Slim Hostile (CCL-SH) Digital Transmission/Spetralog/ Orientation Tool-Slim Hostile (TSO-SH) Compensated Neutron Tool-Slim Hostile (CNT-SH) Litho-Density Logging Tool-Slim Hostile (ZDT-SH) Motor Push Sub-Slim Hostile (MPS-SH) Acoustic Tool-Slim Hostile (ACT-SH) Dual Lateral log Tool-Slim Hostile (DLT-SH) Micro Spherical Focused Laterolog Tool-Slim Hostile (MSF-SH) Array Induction Tool-Slim Hostile(AIT-SH) Four Arms Caliper-Slim Hostile (FAC-SH) Mass Isolator Sub-Slim Hostile (MIS-SH) Insulation Sub-Slim Hostile (ISS-SH) Swivel Sub-Slim Hostile (SWS-SH) Four Arms Centralizer Sub-Slim Hostile (FCS-SH) Flex Joint Sub-Slim Hostile (FJS-SH) Optional tools: Double Knuckle Joint -Slim Hostile (DKJ-SH) Single Knuckle Joint -Slim Hostile (SKJ-SH) Pressure Isolated Sub -Slim Hostile (PIS-SH) Decentralizer Sub-Slim Hostile (DCS-SH)

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Thru-Pipe Logging System (ThruLog) (CBL-M) Applications $  =   Determination of zone isolation Location of cement top

Introduction The CBL-M is a six sectors acoustic logging tool with 45 mm OD, it evaluates cement bond integrity. In addition to measures of the amplitude of sonic signal passing along the casing, the CBL-M radial receiver generates a map of the cement. The CBL-M is equipped with one transmitter and two sensors constructed of piezoelectric crystals. The Near receiver, located 3’ from the transmitter, is constructed of a 6-sector radial receiver. " sector provides bond data covering a 60o section of casing. The primary amplitude is constructed from radial signals at the near receiver. The far receiver, located 5’ from the transmitter, generates a Variable Density Log (VDL). The CBL-M deploys in deviated/horizontal holes, is Memory capable. It can be conveyed by ThruPipe. It uses mud pump pressure to be delivered. It slotted sleeve technology imparts sound isolation, rigidity and tool strength. The tool is comprised of corrosion resistant materials throughout.

Specifications Maximum Temperature Maximum Pressure Minimum Hole Diameter Maximum Hole Diameter Tool Diameter Make-up Length Shipping Length Weight Supply Voltage Power/Current Transmitters/Receivers Signal Output

Maximum Logging Speed 777 &# 7 7>777 &# ±0.1 [email protected]?1 ohm-m ±5%@?1000 ohm-m K[email protected]7>777?40,000 ohm-m 79Y :[$7\!9Y :[$\7Y :[$\!Y :[$\9!79Y :[$\7Y :[$\7Y 30,000 lbf _&6  \77 2 _&%Y  ` 6\'977 2

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Array Induction Tool-Combo(AIT-C)

Applications

Introduction

Determination of Rt

AIT-C (Array Induction Tool-Combo) uses multi-spacing and multi-frequency measurements to acquire a complete set of data from the formations surrounding the borehole. AIT-C allows us to characterize invasion profiles, even in oil-based muds.

Determination of Sw

Specifications

Reservoir delineation

Hydrocarbon identification and imaging Determination of movable Hydrocarbons Invasion profiling Thin-bed analysis

      7j^'j]  k 66  7>7776'!k   " #$ %& 9#79 *&%$ %& !#!79 + %& ! 26'!"%       ! Minimum Hole Diameter 4.5 in. (114.3 mm)        7779 Logging Speed(S) Recommended 30 ft/min   78 6  6   778 6  6  Focused Conductivities [  X Y : 6   >> &6 Z; 6%   7>7>7>7>!7>7  6  : %  7 >777 &# Measurement Accuracy (homogenous formation) 7>!7>7 & ; 6%   K*8>KQ  % 7 & ; 6%   K*8>KQ  % 7 & ; 6%   K*8>KQ  % 7 & ; 6%   K7*8>KQ  % Sample Rate(S) 4 samples per ft. (recommended)  6  6 &%&6  Power Requirements: |  %X  % }]  97X Y>~7[  6 * %& 7>777 299"% ]  66; * %& 77 2#& !!"%  '77 28#& 9"%  977 29#& 97'9"% * 6 6 '2

Y #Y    6 Y%6#! Telemetry Standard GTS Modes ]       * 6        2 \  6 ' Calibration Environment 10 ft. off ground 30 ft. from metallic materials

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Nuclear Magnetic Resonance Tool (NMR-M) Applications Reveal different properties of the formation fluid and pore size distribution

Introduction The NMR-M tool measures hydrogen for porosity and relaxation rates of protons. This tool is primarily a digital device. NMR experiments are a measurement of time required for protons to either align with

    % Y    Y 66%  6  #& 6 > 

 6  

Each echo train is recorded in a composite curve along with calibration acquisition and auxiliary data values. Side-looking tool positioning in deviated wells and maintains the constant depth of investigation over a range of hole sizes.

Specifications       7j^'j] & 6  k 66  7>7776'!k   " #$ %& #'  " #ZY %€[Y 8Y& %  #' Instrument Weight :##€[  26'79"% :##‚] '9 2697'"% :##ƒ 7 267"% Diameter :##€[ ! :##‚]8ƒ 7'       9' Maximum Hole Diameter 14.0 in. (355 mm) Logging Speed (typical) ƒ =9>ƒ=7j^>: „ &>6   6   6877' ^   ‚;   +6 88:„7 &  !88:=77 & ^ #777 26"" Š& \ >77 26"!" Š& \ >77 26"" ƒ %* %&|  6  77# 2>!7

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Multi-dipole Array Acoustic Tool (MAA) Applications Well site ]  66  6 _ 66 AVAN (Compressional slowness )Tp, Shear 6 _ 666 Orientation in open hole for Cross Dipole (from ORT) Monopole porosity determination Quality control plots (Waveforms, VDL, Semblance correlation, travel time) GeoScience Center Post Processing All items listed under Wellsite *& 6 _ 666>*  '"%

After Fracturing

Hexapod Resistivity Imaging Tool (RIT-OBM) Hexapod Resistivity Imaging Tool (RIT) Applications Dip and strike determination

RIT-OBM Introduction Hexapod Resistivity Imaging Tool (RIT-OBM) is a micro-conductivity–based service used for imaging boreholes in wells drilled with electrically non-conducting mud systems. It is designed to be an exact

Identifying and describing faults and fractures

parallel of the RIT-OBM service, which can only be run in electrically-conductive mud systems.

Sendimentary and strtigraphic interpretation

RIT Introduction

Obtaining well-to-well correlations

This new electrical wireline borehole imaging tool is designed to obtain superior quality images even in high Rt:Rm environments. The expanded operating range of the RIT over conventional electrical  %% 66 Y& ; & %&6 _>6  # #& # >2% 6%  Y…6  architecture combined with a large increase in available power for the excitation current.

Seismic upscale and verification of a seismically derired structural model

Specifications

Structural mapping

       k 66  Make-up Length: :Z#kƒ :Z#‚] :Z#] Shipping Length :Z#kƒ :Z#‚] :Z#] Weight :Z#kƒ :Z#‚] :Z#] Tool Diameter :Z#kƒ :Z#‚] :Z#]              [6 k ^ Y    ]  6 Hole Deviation Borehole Coverage ] Y;777 2>97"% :Z#‚] '9>777 2>97"% :Z#] >777 2>!"% ]   6]  66; $ ]  Y777 2>7"% :Z#‚] !>777 2>"% :Z#] >777 2>!"% X2  }*& Y"  6* Y‰X#+Z8:‚#777!#[8

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Slim Hexapod Resistivity Imaging Tool-WBM (SRI-WBM) Applications

Introduction

High-resolution imaging in bore-holes with conductive fluids Deviated and horizontal wells Irregular and rugose boreholes

Conveniently new designed to obtain superior quality images in WBM or OBM by changing PADs. Separated Pads designed reduce the tool diameter, that allows tool logging in small size borehole. No motor spring designed allows imaging logging is available in RIH or POOH.

Sedimentology and sequence stratigraphy

Specifications

Structural and geomechanical analysis and modeling Thin-bed detection and evaluation

Max T  7j^'j] Max Press. 15,000 psi (103 MPa)  |   !7 Min Hole 4.5 in. (114 mm)    7  " #$ %& 7! W %&   269"% Mechanical Features [6    +  : …  6'Y Y  k _ * & ™*Z#X  6 

7j   & 2  & &  can be presented in a variety of two- and three-dimensional formats. Powerful, yet userfriendly imaging analysis software is available to process images, histograms,and curve-type data from this advanced logging device.

Specifications Mechanical  |  %      |  %k 66  $ %& + %&     ‚ Y Y6[66 2 777 26'>!"% 1 & 4 for AC power >>}       WTS telemetry instruments 9 Z

6Y  ]  for Solid Rock Matrix ##ƒ‰|6Y

  Pulsed Neutron (14 MeV)  K7 Q _ %&> depending upon the specific element.

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