Eduardo Gramajo, Bodong Li, Sanguo Li, Yanbo Zong, R. Rached, S. A. Tella, G. Zhan
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Therefore, a new downhole communication system using data microchips is proposed in this paper.\n The paper presents the improvements made to the first version of the data micro-storage-balls MSBs (Li et al., 2022) to adapt the system to 1) more complex drilling projects and 2) the acquisition of high-resolution and large datasets in a quasi-real-time for better well management decisions.\n The presented technology can transfer large amounts of data without needing a specific drill pipe connection or structure and employs the basic concept of a \"flash drive\" (downloading and exchanging data among systems). The equipment achieves time-devised data transmission using microchips stored in a sealed chamber which are released using a standard BHA sub. The upgrades to the first-generation MSB (larger memory capacity, robust packaging material, and added sensors) will improve multiple aspects of the technology. 1) The capability of deploying them in long horizontal sections and the recovery rate due to efficient housing density management (≤ 1.5 g/cm3) using high-performance hollow glass beads. 2) The increase in storage capacity (up to 32Gbit) with the use of state-of-the-art circuit boards that also support higher temperatures and pressures, improving the storage capacity, transmission rates, and overall tool performance in deep reservoir locations. Therefore, the newest additions and modifications made to the first generation of MSBs can create remarkable performance improvements.","PeriodicalId":153269,"journal":{"name":"Day 2 Thu, March 02, 2023","volume":"58 1","pages":"0"},"PeriodicalIF":0.0000,"publicationDate":"2023-02-28","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":"{\"title\":\"Large Capacity Data Microchip Transmission System and its Opportunities\",\"authors\":\"Eduardo Gramajo, Bodong Li, Sanguo Li, Yanbo Zong, R. Rached, S. A. Tella, G. Zhan\",\"doi\":\"10.2523/iptc-22972-ea\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"\\n Downhole data transfer has been limited by slow downhole communication bandwidths for decades. The current data-transferring technologies have reached bottlenecks for acquiring logging data and ever-demanding high-frequency drilling dynamics measurements. There is an urgent need to significantly improve the downhole data communication speed for drilling optimization, real-time geosteering, and reservoir description. Current downhole communication systems with data rates between 20bit/s – 60kbit/s are not sufficient for the above-mentioned applications, let alone their limited robustness in structural integrity against inherent environmental noises and low cost-effectiveness make them less efficient. Therefore, a new downhole communication system using data microchips is proposed in this paper.\\n The paper presents the improvements made to the first version of the data micro-storage-balls MSBs (Li et al., 2022) to adapt the system to 1) more complex drilling projects and 2) the acquisition of high-resolution and large datasets in a quasi-real-time for better well management decisions.\\n The presented technology can transfer large amounts of data without needing a specific drill pipe connection or structure and employs the basic concept of a \\\"flash drive\\\" (downloading and exchanging data among systems). The equipment achieves time-devised data transmission using microchips stored in a sealed chamber which are released using a standard BHA sub. The upgrades to the first-generation MSB (larger memory capacity, robust packaging material, and added sensors) will improve multiple aspects of the technology. 1) The capability of deploying them in long horizontal sections and the recovery rate due to efficient housing density management (≤ 1.5 g/cm3) using high-performance hollow glass beads. 2) The increase in storage capacity (up to 32Gbit) with the use of state-of-the-art circuit boards that also support higher temperatures and pressures, improving the storage capacity, transmission rates, and overall tool performance in deep reservoir locations. 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引用次数: 0
摘要
几十年来,井下数据传输一直受到井下通信带宽缓慢的限制。目前的数据传输技术在获取测井数据和要求越来越高的高频钻井动态测量方面遇到了瓶颈。为了钻井优化、实时地质导向和油藏描述,迫切需要显著提高井下数据通信速度。目前数据速率在20bit/s - 60kbit/s之间的井下通信系统不足以满足上述应用,更不用说其结构完整性对固有环境噪声的鲁棒性和低成本效益使其效率降低。为此,本文提出了一种基于数据微芯片的井下通信系统。本文介绍了对第一版数据微存储球msb (Li et al., 2022)的改进,以使系统适应1)更复杂的钻井项目,2)以准实时的方式获取高分辨率和大型数据集,以便更好地进行井管理决策。该技术可以传输大量数据,而无需特定的钻杆连接或结构,并采用了“闪存驱动器”的基本概念(在系统之间下载和交换数据)。该设备使用存储在密封腔室中的微芯片实现定时数据传输,这些微芯片使用标准BHA短节释放。第一代MSB的升级(更大的存储容量、坚固的封装材料和增加的传感器)将改进技术的多个方面。1)利用高性能中空玻璃微珠进行高效的壳体密度管理(≤1.5 g/cm3),可将其部署在长水平段中,回收率高。2)通过使用最先进的电路板增加存储容量(高达32Gbit),该电路板还支持更高的温度和压力,提高了深层油藏的存储容量、传输速率和整体工具性能。因此,对第一代msb进行的最新添加和修改可以显著提高性能。
Large Capacity Data Microchip Transmission System and its Opportunities
Downhole data transfer has been limited by slow downhole communication bandwidths for decades. The current data-transferring technologies have reached bottlenecks for acquiring logging data and ever-demanding high-frequency drilling dynamics measurements. There is an urgent need to significantly improve the downhole data communication speed for drilling optimization, real-time geosteering, and reservoir description. Current downhole communication systems with data rates between 20bit/s – 60kbit/s are not sufficient for the above-mentioned applications, let alone their limited robustness in structural integrity against inherent environmental noises and low cost-effectiveness make them less efficient. Therefore, a new downhole communication system using data microchips is proposed in this paper.
The paper presents the improvements made to the first version of the data micro-storage-balls MSBs (Li et al., 2022) to adapt the system to 1) more complex drilling projects and 2) the acquisition of high-resolution and large datasets in a quasi-real-time for better well management decisions.
The presented technology can transfer large amounts of data without needing a specific drill pipe connection or structure and employs the basic concept of a "flash drive" (downloading and exchanging data among systems). The equipment achieves time-devised data transmission using microchips stored in a sealed chamber which are released using a standard BHA sub. The upgrades to the first-generation MSB (larger memory capacity, robust packaging material, and added sensors) will improve multiple aspects of the technology. 1) The capability of deploying them in long horizontal sections and the recovery rate due to efficient housing density management (≤ 1.5 g/cm3) using high-performance hollow glass beads. 2) The increase in storage capacity (up to 32Gbit) with the use of state-of-the-art circuit boards that also support higher temperatures and pressures, improving the storage capacity, transmission rates, and overall tool performance in deep reservoir locations. Therefore, the newest additions and modifications made to the first generation of MSBs can create remarkable performance improvements.