Halliburton Energy Services, Inc.

Other

Halliubrton Energy Services, Inc.

Roddy, Craig W.

Craig Wayne Roddy

Jiten Chatterji

D Chad Brenneis

Bobby J King

Ronnie Glen Morgan

James Robert Benkley

Krishna M Ravi

Rickey Lynn Morgan

Jeffery Dwane Karcher

Ricky Layne Covington

Roger Stanley Cromwell

Mark Windsor Roberson

Chad Brenneis

Christopher Lynn Gordon

Rahul Chandrakant Patil

Scott Goodwin

Darrell Chad Brenneis

Batakrishna Mandal

Clovis Satyro Bonavides

Gary James Frisch

Callie R Jarratt

Rick L Covington

Paul F Rodney

Gordon Layne Moake

Abhimanyu Pramod Deshpande

William J Caveny

Crystal L Keys

Callie R Hudgins

Michael S Bittar

Bradley Leon Todd

Anthony M Badalamenti

Ronney R Koch

William Robert Tapie

Jeffrey D Karcher

Chad D Brenneis

Bobby Joe King

B Raghava Reddy

Rajesh Kumar Saini

Ashok K Santra

Sandip Prabhakar Patil

Lewis R Norman

Clive D Menezes

Sam Jason Lewis

Ronald J Powell

Abhijit Tarafdar

Gregory Robert Hundt

Hongyu Luo

Priscilla Reyes

Charles Bartee

Baya Adams

Preston DePlacido

Joseph V Spencer

Zachary Robert Kranz

Christopher Jay Garrison

Lynn Davis

Burkay Donderici

Glenn Andrew Wilson

Carl Joseph Thaemlitz

Paul Joseph Jones

Vimal Vinod Shah

Sairam K S Pindiprolu

Sairam Ks Pindiprolu

D Chad Brennels

Jilen Chatterji

Kristopher McGuire

Ginger Rothrock

Kristopher Mcguire

Preston Deplacido

Callie Renee Hudgins

Joseph Spencer

Zachery Robert Kranz

Bairreddy Raghava Reddy

Jitem Chatterji

Clive Denis Menezes

Use of traceable micro-electro-mechanical systems ('MEMS') in subterranean formations. A method may comprise introducing a treatment fluid comprising a traceable micro-electro-mechanical system into a wellbore, wherein the traceable micro-electro-mechanical system comprises a micro-electro-mechanical system and a tagging material.

Traceable micro-electro-mechanical systems for use in subterranean formations

A variety of methods and compositions are disclosed, including, in one embodiment, a settable composition comprising: water; and a cementitious component having a calculated reactive index.

Methods for determining reactive index for cementitious components, associated compositions, and methods of use

Sensor assemblies are deployed in a borehole for a well, such as an oil well or other hydrocarbon recovery well. The sensor assemblies may be coupled to a casing string (e.g., the exterior of the casing), and detect RFID tags or other properties of material (e.g., fluids) in an annulus surrounding the casing string. During cementing or other operations, RFID tags may be used to track fluids. RFID detection circuits may be used to scan at different frequencies, and corresponding results may be compared by various means and processes to determine the presence of RFID tags.

Methods and systems for detecting RFID tags in a borehole environment

An exemplary method includes introducing a treatment fluid comprising nano-hydraulic cement into a subterranean formation. The treatment fluid may include a drilling fluid, a completion fluid, a stimulation fluid, a well clean-up fluid or a cement composition. Another example method comprises introducing a cement composition comprising nano-hydraulic cement, hydraulic cement, and water into a subterranean formation; and allowing the cementing composition to set in the subterranean formation. An example well treatment fluid comprises nano-hydraulic cement.

Cement compositions and methods utilizing nano-hydraulic cement

Disclosed are traceable polymeric additives that comprise a tagging material and methods of using the traceable polymeric additives in subterranean applications, such as cementing. An embodiment discloses a well treatment composition comprising a base fluid and a traceable polymeric additive comprising a polymer and a tagging material.

Traceable polymeric additives for use in subterranean formations

Disclosed are spacer fluids and methods of use in subterranean formations. Embodiments may include use of consolidating spacer fluids in displacement of drilling fluids from a well bore annulus.

Consolidating spacer fluids and methods of use

An apparatus and method may operate to mount one or more communication assemblies relative to the exterior of a casing being placed in a borehole. Two communication assemblies can be placed in longitudinally spaced relation to one another along the casing, wherein each communication assembly is configured to obtain excitation responses from electrodes of a fluid sensing component, where the excitation responses vary based on properties of fluids in one or more regions of the annulus surrounding the casing. Additional apparatus, systems, and methods are disclosed.

Methods and apparatus for evaluating downhole conditions through fluid sensing

A method for measuring parameters related to wellsite operations comprises mixing Micro-Electro-Mechanical System (MEMS) sensors with a wellbore servicing composition in surface wellbore operating equipment. The MEMS sensors are assigned a unique identified that may be used to track individual MEMS sensor as the MEMS sensors travel through the wellbore and may be used to correlate sensor measurements taken by the MEMS sensors with particular locations in the wellbore. The MEMS sensors may be active and transmit their respective identifiers and sensor data to the surface. Transmitting identifier and sensor data from a MEMS sensor to the surface wellbore operating equipment may be via one or more other MEMS sensors, downhole devices, and surface devices.

Monitoring downhole parameters using MEMS

An embodiment comprises a method of treating a subterranean formation comprising: providing a treatment fluid comprising a kiln dust, biowaste ash, and water; and introducing the treatment fluid into a subterranean formation. Another embodiment comprises a method of cementing comprising: introducing a cement composition into a subterranean formation, wherein the cement composition comprises a kiln dust, biowaste ash, and water; and allowing the cement composition to set in the subterranean formation. Yet another embodiment comprises a method comprising: providing a spacer fluid comprising biowaste ash and water; introducing the spacer fluid into a well bore to displace at least a portion of a first fluid from the well bore; and introducing a cement composition into the well bore, wherein the spacer fluid separates the cement composition and the first fluid.

Compositions containing kiln dust and/or biowaste ash and methods of use

The present invention includes well treatment fluids and methods utilizing nano-particles and, in certain embodiments, to sealant compositions and methods utilizing nano-particles. The nano-particles may be incorporated into the sealant composition in different forms, including as discrete nano-particles, encapsulated nano-particles, agglomerated nano-particles, or in a liquid suspension.

Sealant compositions and methods utilizing nano-particles

A method of servicing a wellbore, comprising placing a plurality of Micro-Electro-Mechanical System (MEMS) sensors in a wellbore composition, placing the wellbore composition in the wellbore, obtaining data from the MEMS sensors using a plurality of data interrogation units spaced along a length of the wellbore, and telemetrically transmitting the data from an interior of the wellbore to an exterior of the wellbore using a conduit positioned in the wellbore. A system, comprising a wellbore extending the earth's surface, a conduit positioned in the wellbore, a wellbore composition positioned in the wellbore, the wellbore composition comprising a plurality of Micro-Electro-Mechanical System (MEMS) sensors, and a plurality of data interrogation units spaced along a length of the wellbore and adapted to obtain data from the MEMS sensors and telemetrically transmit the data from an interior of the wellbore to an entrance of the wellbore via the conduit.

Use of micro-electro-mechanical systems (MEMS) in well treatments

Methods and compositions are provided that relate to sealant compositions comprising cement kiln dust, tire-rubber particles, and water. An embodiment discloses a method comprising: providing a sealant composition comprising cement kiln dust, tire-rubber particles, and water; and allowing the sealant composition to set to form a hardened mass.

Sealant compositions comprising cement kiln dust and tire-rubber particles and method of use

A variety of methods and compositions are disclosed, including, in one embodiment, a method of treating a well comprising: providing a treatment fluid comprising a base fluid and a blended cementitious component, wherein the blended cementitious component comprises kiln dust from two or more different sources; and introducing the treatment fluid into a well bore.

Methods for determining reactive index for cement kiln dust, associated compositions and methods of use

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Duncan, OK, United States of America

Craig Wayne Roddy