Abstract: A polymer composite wireline cable comprising: a polymeric matrix material; at least one reinforced fiber embedded in the polymeric matrix material; and at least one optical fiber disposed in the polymeric matrix material, the at least one optical fiber having at least one pair of Bragg grating sensors, wherein one of the pair of Bragg grating sensors is configured to experience loading strain and the other of the pair of Bragg grating sensors is configured not to experience loading strain.

Abstract: In accordance with embodiments of the present disclosure, systems and methods for determining a dynamic effective elastic modulus of a composite slickline or wireline cable are provided. A system for estimating the effective elastic modulus (or change thereof) may include a sensing head assembly, a vibration generator, a pair of pulleys, and an optical-based signal processing assembly. The system may detect a resonant frequency of a section of the composite cable held between the two pulleys and estimate the effective elastic modulus based on the detected resonant frequency variation. Adjustments for weight and length of the cable extending into the wellbore may be made as well to determine the dynamic elastic modulus of the cable. The opto-mechanical integrated system described below may enable real-time elastic modulus determination.

Abstract: An automated locking joint is provided. The automated locking joint can include a first member, a second member, a joint, a locking structure, and a positioning device. The joint can connect the first member with the second member. The second member can be pivotable about the joint relative to the first member. The locking structure can be positionable between a lock position that prevents pivoting of the second member about the joint and an unlock position that allows pivoting of the second member about the joint. The positioning device can automatically move the locking structure from the lock position to the unlock position or from the unlock position to the lock position.

Abstract: Embodiments include wearable haptic feedback devices and methods of fabricating wearable haptic feedback devices. In an illustrative embodiment given by way of non-limiting example, a wearable haptic feedback device includes: a wearable headgear cap; a web disposed within the cap; a plurality of haptic elements disposed about the web and configured to provide haptic feedback to a user; and an interface circuit configured to operatively couple the plurality of haptic elements to an electronic system.

Abstract: Techniques for managing strain on a downhole cable, such as a slickline or wireline, include a wire coupled with a communication line, such as a fiber optic cable or metallic (or non-metallic) conductor. In one example, a downhole cable includes a wire to support a downhole tool string; and a communication line non-linearly coupled with the wire, the communication line sized to communicate instructions, that include at least one of logic or data to the downhole tool, and elongate based on an axial force that acts on the downhole cable.

Abstract: Disclosed is a release tool used to separate portions of a tool string. One release tool includes a main body, a bolt housing coupled to the main body and defining a bore for receipt of a separation bolt therein, the separation bolt being configured to couple the bolt housing to a lower sub, and a trigger mechanism communicably coupled to the separation bolt and configured to send an electrical signal to the separation bolt whereupon the separation bolt breaks and thereby allows the lower sub to separate from the bolt housing.

Abstract: Disclosed is a release tool used to separate portions of a tool string. One release tool includes a main body, a collet retainer coupled to the main body and having a collet assembly arranged therein, the collet assembly being operatively coupled to a lower sub, a support piston releasably coupled to a separation nut and engaging the collet assembly such that the lower sub is prevented from removal from the collet assembly, and a trigger mechanism configured to send a command signal to the separation nut whereupon the separation nut releases the support piston such that it is able to be moved and the lower sub is thereby able to be removed from the collet assembly.

Abstract: A method of decoding a primary codeword and a set of secondary codewords stored in a non-volatile memory (NVM), which includes reading, from the NVM, the primary codeword and all the secondary codewords and storing them in a second memory. The primary codeword is then read from the second memory and decoded, utilizing a soft-decision decoder, based on a log-likelihood ratio (LLR) vector. When the decoding of the primary codeword is unsuccessful: each secondary codeword of the set of secondary codewords is read from the second memory and decoded, utilizing a hard-decision decoder, to identify and correct errored data bits in the each secondary codeword and to determine a location of each errored data bit in the primary codeword. An adjusted LLR vector is generated by adjusting the LLR for each primary codeword data bit based on the determined locations of the errored data bits in the primary codeword.

Abstract: The present invention provides methods and compositions for treating inflammation and inflammatory disorders in a subject, by administering an effective amount of KSHV-Orf63 and/or active peptides and/or fragments thereof.