La industria de exploración, desarrollo y producción terrestre se enfrenta a exigencias cada vez más altas y mayores desafíos con entornos cada vez más difíciles y hostiles en las que debe funcionar.
A medida que las oportunidades de los recursos de gas natural no convencionales, en particular el gas de esquisto, están creciendo en América del Norte, la solución total de Yokogawa juega un papel importante al ayudar a los clientes a satisfacer los desafíos de reducir tanto el CAPEX como el OPEX, mientras que las tecnologías integradas mejoradas aumentan la producción. Nuestra experiencia global y local constituye la base de nuestras soluciones totales únicas para satisfacer las necesidades de esta industria. Con expertos en exploración, desarrollo y producción terrestre que trabajan en oficinas por todo el mundo, ofrecemos un soporte rápido y extenso para satisfacer las demandas de nuestros clientes.
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Perforación
La perforación no convencional en la actualidad se usa comúnmente en la extracción de petróleo y gas natural. Hay un número creciente de programas de perforación de tipo multipaneles en varios sitios de perforación. Diferentes técnicas de perforación se utilizan para disminuir el tiempo de perforación, reducir el impacto ambiental y mejorar la recuperación inicial y estimada.
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Bocas de pozo y separación
La boca de pozo proporciona la interfaz estructural y la presión que contiene para el equipo de perforación y producción. El control de la presión superficial es proporcionado por un ensamble de válvulas con medidores y obturadores (árbol de Navidad), que se instala en la parte superior de la boca de pozo. Las válvulas de aislamiento y los equipos de obstrucción controlan físicamente el flujo de los fluidos del pozo cuando el pozo está en producción. Varios paquetes de automatización se añaden al monitor local o remoto, controlan y optimizan la producción de cada pozo o almohadilla de múltiples pocillos. Los separadores de campos petroleros emplean un recipiente a presión para separar así los fluidos producidos en los pozos de petróleo y gas en componentes gaseosos y líquidos que se transfieren a continuación a las tuberías o almacenamiento localizados en función de la infraestructura de las zonas.
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Procesamiento y fraccionamiento
El procesamiento de gas natural está diseñado para controlar el punto de condensación del flujo de gas natural y separar los líquidos de gas natural para la venta y distribución. La eliminación de petróleo y condensados, la eliminación de agua, la separación de líquidos de gas natural y la eliminación de azufre y dióxido de carbono son procesos que se emplean para separar las impurezas en el alimentador que proviene de los yacimientos aguas arriba. En el proceso de fraccionamiento se extraen los efluentes líquidos de la planta de procesamiento de gas, que pueden estar compuestos de metano, propano, butano y pentano, para ser tratados en columnas de fraccionamiento separadas, y posteriormente pueden pasar a una planta de tratamiento de impurezas antes de ser vendidos como componentes separados.
Detalles
Las soluciones totales de Yokogawa incluyen no solo el emplazamiento del pozo, sino también la inyección, el ducto, la estación de compresor y las instalaciones de la planta de procesos. Nuestra experiencia para estas aplicaciones se puede integrar para optimizar la capacidad y mantenibilidad general de la operación.
Las principales compañías de energía seleccionan a Yokogawa como su socio en automatización porque Yokogawa se enfoca en suministrar soluciones altamente confiables, desde instrumentación hasta RTU, SCADA, DCS, sistemas de seguridad y aplicaciones de campo digitales integradas para la industria del petróleo y el gas. Yokogawa ofrece una extensa variedad de sensores y controladores que se utilizan para monitorear y operar el campo digital en la industria del petróleo y el gas, así como servicios y soporte en ingeniería y configuración, proporcionando una solución de automatización llave en mano. Explore los productos de Yokogawa para aumentar la eficiencia y el desempeño en cuestión ambiental de sus pozos, así como para garantizar su operación segura y estable.
Recursos
- Solución Integrada SCADA con STARDOM y FAST/TOOLS para el oleoducto multiproductos de Indian Oil Corporation.
- El STARDOM facilita la visualización completa de los datos necesarios para las operaciones de tuberías seguras y confiables.
In early 2008, Southern Union Gas Services (SUGS) commissioned eSimulation to build a predictive business model to help SUGS accurately manage and forecast plant gross margins. The business model encompasses SUGS's fully integrated gathering and processing assets located in the Permian Basin region of west Texas and southeast New Mexico (5 plant gathering and processing /treating supersystem).
The STARDOM™ network-based control system is composed of highly independent components that are based on the latest network technologies.
Challenges
- The distance is not so long, but there are many pipes and tanks ("Pipe Jungle") in the field.
- Had to avoid the obstacles and take care multi path condition.
Solution
Repeater is installed on high place between control room and monitor position. The extend cable is used for antenna of Gateway.
- Temperature Transmitter (YTA) x1, Pressure Transmitter (EJX) x2
La configuración del transmisor de nivel puede tomar mucho tiempo. Los transmisores DPharp tiene la función de un software avanzado eliminando esta tarea que toma tiempo. Con talleres de mantenimiento cada vez más pequeños, la búsqueda de equipos que nos permiten hacer más con menos se convierte en una prioridad.
Los controladores autónomos de nodo de control de campo STARDOM (FCN) permiten que las funciones maestras y esclavas Modbus se ejecuten simultáneamente.
ISA100 wireless temperature and pressure transmitters.
Yokogawa es una de las pocas empresas en todo el mundo que es capaz de ejecutar con éxito grandes proyectos de migración de host SCADA, es decir, cuenta con artículos de datos de más de 500,000 puntos. Esta ventaja, además de nuestra resistente tecnología, junto con el conocimiento de Sistemas anteriores instalados en varios clientes y nuestra integración en general, además del conocimiento de sistemas de terceros debe dar a Yokogawa una clara ventaja técnica.
Remote leak detection for pipe line was needed to meet new environmental statute. However cabling earthwork is strictly restricted to protect land environment.
Medir el consumo de energía es un factor importante en la búsqueda de mejorar la eficiencia energética. La medición eficiente y precisa es fundamental para determinar el exceso de uso, junto con una imagen exacta en dónde se usa el vapor. Las mediciones más precisas y confiables que se realizan, las decisiones más informadas pueden ser tomadas afectando los costos y la calidad del producto. Tradicionalmente, el método más común de medición de vapor es la placa de orificios y la técnica de medición de presión diferencial. Las áreas generales de preocupación con este tipo de medición son la susceptibilidad de la placa de orificios para introducir errores inmediatos, las relativamente permanente pérdidas de presión alta introducidas en el sistema por el orificio y el rango de medida pequeña, por lo general típicamente es 3:1.
El digitalYEWFLO con Diámetro Reducido Tipo Medidor de Flujo Vortex Modelo de Yokogawa cuenta con una estructura de acero inoxidable fundido y un reductor concéntrico y de expansión que permite realizar unas mediciones de flujo estables en condiciones de bajo flujo. Esto amplía la gama de mediciones que se pueden realizar, desde las velocidades de flujo más altas hasta el extremo inferior del intervalo de flujo, que normalmente es difícil para los medidores de flujo Vortex, y asegura una salida de velocidad de flujo estable y exacta.
Yokogawa first introduced its renowned SUPER CONTROL™ in industrial controllers over a decade ago. This is a fuzzy logic alogrithm that eliminates overshoot from the desired set point and mimics the control expertise of the most experienced operator.
La Medición del Flujo de combustible diésel es una aplicación relativamente básica del medidor de flujo. Sin embargo, la medición del consumo neto del combustible en un generador diésel de 2.2 megavatios es particularmente complejo. El motor diésel requiere una línea de suministro de combustible (combustible del depósito al motor) y una línea de retorno de combustible (combustible del motor al tanque).
La Virtualización y el Almacenamiento en la Nube se están convirtiendo en términos comunes. Los Líderes Mundiales en Tecnología de la Información (TI) anuncian sus nuevas soluciones de Virtualización y Almacenamiento en la Nube.
Se estima que casi dos tercios de petróleo descubierto en los Estados Unidos se encuentran atrapado en formaciones porosas. Hay aproximadamente 500,000 pozos abandonados que contienen dicho petróleo. Debido a este hecho las compañías petroleras están persiguiendo constantemente métodos para la recuperación de este petróleo.
With the rapid pace of drilling for Oil & Gas in North America, more and more companies are choosing to automate their wells after drilling and completion. Implementations with quality, reliable and accurate electronic transmitters provide greater visibility of well activity during the lifecycle of each well. Well mounted transmitters provide local process readings as well as transmission of process data for monitoring and control.
Natural gas exploration and production of the rich shale formations in North America is a rapidly growing trend in the onshore Oil & Gas industry. With these ever expanding development activities come the need for improved monitoring technology allowing more efficient operations and to help companies ensure they are following the various environmental regulatory framework. Flow measurement technology has become an integral part of each major service provider's process allowing these companies to profitably keep up with the demanding pace of business today.
La Virtualización y el Almacenamiento en la Nube se están convirtiendo en términos comunes. Los líderes mundiales en Tecnología de la Información (TI) anuncian con sus nuevas soluciones de Virtualización y Almacenamiento en la Nube.
Debido a los eventos actuales de ataques de virus como Stuxnet y Flame, la demanda de seguridad informática se ha convertido en una alta prioridad dentro de la Automatización Industrial (IA). Desde el comienzo de la IA, el enfoque global para las tecnologías de seguridad se ha incrementado. Había una razón válida para el amplio escepticismo de la industria, dado que no había vulnerabilidades directas.
The world of process automation is governed by procedures. While we like to refer to the process industries as being largely "continuous", this could not be further from the truth. Process manufacturing is constantly in flux.
Tuning PID controllers can seem a mystery. Parameters that provide effective control over a process one day fail to do so the next. The stability and responsiveness of a process seem to be at complete odds with each other. And controller equations include subtle differences that can baffle even the most experienced practitioners.
Recientemente, varios analistas del ARC Advisory Group y miembros de la gerencia tuvieron la oportunidad de sentarse con el nuevo Presidente de Yokogawa y COO, Sr. Takashi Nishijima, y varios otros altos ejecutivos de Yokogawa para discutir la presencia mundial de la compañía en la industria del gas y el petróleo.
Alarm management is not just a project that has a start and end date; it's a continuous cycle. Once the alarm system has been reviewed and improvements have been identified, we must check that controls are in place to ensure the alarm system remains functional. The key is to ensure that the system is continuously monitored and any changes are fully documented. There are seven key steps for alarm management. Rationalization is one of those critical steps.
This white paper provides an overview of how Yokogawa believes its customers can best prepare for and position themselves to benefit from IIoT-enabled technology and solutions and digitalization in general to emerge as the successful connected industrial enterprises of the future.
Yokogawa’s industrial automation (IA) product and service offerings, industry domain knowledge, and VigilantPlant approach – which emphasizes safe, secure, and uninterrupted operations -- provide a solid foundation for an Industrial Internet of Things that specifically addresses the requirements of process automation, particularly for the OT side of the equation. To be able to provide an equally solid foundation for the IT side, Yokogawa is partnering with Cisco Systems and other industry leaders.
Recently, there is an increasing demand for operation and monitoring of all the various controllers distributed in the field on the same screens to improve plant operation efficiency. The purpose of the Unified Gateway Station (UGS) is to connect external controllers, such as the STARDOM's FCN/FCJ autonomous controllers and other vendors' controllers, to the CENTUM VP integrated production control system and to operate and monitor those external controllers on the Human Interface Station (HIS) screens, the operation and monitoring screens for the CENTUM VP.
Vortex flow meters utilize a fluid phenomenon in which frequencies of Karman vortex streets released from a shedder bar inserted in a flow are proportional to flow velocities.
One solution packaged for production control systems today is a system comprising a PLC and SCADA (Supervisory Control and Data Acquisition) software that runs on a PC. An advantage of these systems is that they can be configured at considerably lower cost than systems that use dedicated devices as they use commercially available PCs.
As international price competition becomes increasingly fierce, high value-added, high-efficiency production is essential for the survival of production plants in the oil refining, chemical and other industries. On the other hand, if plant equipment, which is the foundation of these production industries fails, business opportunities will be lost due to loss of yield, environmental destruction, and weakened financial strength due to social compensation.
Wireless technology has a long history, and it began around the time that James C. Maxwell theoretically predicted and then proved the existence of electromagnetic waves in the 1860s, and when Heinrich R. Hertz experimentally confirmed the actual existence of the electromagnetic wave in 1888.
When a project is executed following the main automation contractor (MAC) method, front-end engineering and design (FEED) is conducted before actual delivery phases such as design, implementation, inspection, and shipment, to identify risks in advance and mitigate risks in delivery phases through the standardization of the basic functions and components.
Field instruments are expected to be equipped with diagnostic functions to predict abnormal process conditions, and are also expected to expand these functions. The ability to extract diagnostic information for prediction and prevention from various physical process quantities measured by devices and make it available allows the user to reduce non-essential and non-urgent maintenance and thus cut maintenance costs.
Yokogawa Electric Corporation promotes the standardization of FOUNDATION™ fieldbus as the communication foundation supporting Asset Excellence for VigilantPlant, which is an approach aimed at the advancement of plant instruments and equipment. With the recent dramatic advancement of fieldbus technologies, information processing technologies, and network speed, it has become possible to process various kinds of information inside the field sensors and transmit the results to the distributed control system (DCS) and host computer.
Large process industry companies have recently started building plants with world-class safety and profitability to reinforce their competitive edge in the global market. As for plant operations, support functions for improving operators' plant operation skills and for extending operators' maximum capability are required to the DCS so that an operator can expand the area of plant monitoring or operate a plant with higher cost- consciousness.
In 2000, we formed a technical tie-up with Shell Global Solutions (SGSI) to enter the advanced process control and optimization solution business. At the same time, we started marketing a solution based package comprising an Exasmoc multi-variable model-based predictive control function, an Exarqe property estimation function, an Exaspot online real-time optimizer and an MD control monitor & diagnosis function by taking full advantage of the SGSI advanced control and optimization technology (APC&O).
Yokogawa has formed an alliance with Shell Global Solutions International B.V. (SGSI) for advanced process control and has been jointly developing related products since then. As part of this collaborative work, we commercialized the Exasmoc multivariable model predictive control package and the Exarqe robust quality estimator package in 2000, which are used to control DCS and PLC systems based on SGSI's multivariable predictive control and quality estimation algorithms—namely, SMOC (Shell Multivariable Optimizing Controller) and RQE (Robust Quality Estimator).
There is growing recognition of the importance of preventing serious accidents in the process control field in view of the potential scale of impact on society. The IEC 61508 and IEC 61511 international standards call for the reduction of risk using safety instrumented systems (SIS) as well as the configuration of multiple protective layers in a process control system in order to prevent major accidents.
As plant operation becomes more intelligent and complex, the alarm system for safe and stable operation is becoming increasingly important. An alarm warns operators of an abnormal situation in a process and urges them to respond to it.
In plant sites, there are various places such as those affording an unobstructed view like tank yards, and others surrounded by metal pipes and equipment obstructing the view (hereafter referred to "pipe jungles"), often seen in oil refinery and chemical on-site plants. The frequency band of radio waves used for field wireless communication is 2.4 GHz, which has high straightness and its ability to go around things can hardly be expected.
The changes in social environment, such as globalization of enterprise activities, depletion of natural resources, and eco-oriented movement will affect the structure of mass production. Control systems must be prepared with flexibility and scalability in both size and function to adjust to the changes.
The engineering phase holds the largest ratios in control system configuration in terms of both time and money, so improving engineering efficiency is one of the biggest issues when it comes to system integration. In the STARDOM, Application Portfolios (APPF) are devised to dramatically slash engineering costs and increase software reliability.
In 2005, Yokogawa announced "VigilantPlant" as a concept to ward the realization of a type of plant operation that is considered ideal by our customers.
As the world's societies become more connected, market competition is becoming more ruthless and transactions are performed at ever increasing speeds. Deregulation has ignited global competition throughout the world. The proliferation of Information and Internet technologies have accelerated the growth of global competition, with life cycles for high tech products having lives measured in "dog years" (in each normal year they advance seven years).
When considering improving the efficiency of plant operation, major focus is put on process units, control systems and production or operation management. However, it is also important to prepare a comfortable and safe environment for operators, who are trying to operate the plant more efficiently every day using control systems.
As a founding member of the Fieldbus Foundation and one of the companies on the board, Yokogawa Electric Corporation has contributed to the development of fieldbus specifications from the outset. Yokogawa Electric has lead the foundation by proposing the technical base for interoperability among other things.
The manufacturing industry has grown based on solid production technologies for creating quality products. However, the economic environment is changing dramatically, forcing manufacturing firms to face tough global competition; firms must ship the right products at the right time as the market requests.
The development of difficult to recover unconventional energy resources, is progressing. Figure 1 shows an example of how unconventional heavy oil is extracted from tar sand by reducing its viscosity with steam. To ensure efficient mining, changes in the underground temperature distribution will need to be monitored.
Differential pressure transmitters, which serve as the core of field instrumentation, are widely used to measure the flow rate, pressure and density of liquids, gases and steam, as well as the level of liquid in a tank.
Safe plant operation has long been pursued in all industries. Specifically, in the process automation industry which involves many hazardous elements, safety measures including explosion-protected systems have been adopted based on numerous tragic experiences.
When evaluating mass flow rates using a primary device such as an orifice or nozzle in a differential pressure flow meter in order to make fluid density compensations, the upstream pressure (static pressure) and fluid temperature are measured in addition to the output of a regular differential pressure transmitter.
Improved plant operation efficiency and reduced maintenance costs based on appropriate predictive maintenance are the common objectives that need to be achieved in every manufacturing domain. Exaquantum is positioned above the Process Control System (PCS) layer and gathers and stores huge volumes of process and laboratory data over long terms.
For large scale geographically dispersed projects, there may be a hierarchy of individual Process Automation systems, which in turn are each responsible for a specific region, and are managed by a higher level system. Engineering of systems on this scale is a huge challenge, because each individual system has its own database and its own configuration.
Intelligent field instruments and process analyzers accumulate diverse field information including process values and diagnostic results. This data needs to be sent to upper systems such as distributed control systems (DCS) via digital communications such as FOUNDATION Fieldbus and analyzer buses, or hybrid communications such as HART and Brain, and visualized to enable the customer to utilize them for plant operations and maintenance.
We have developed the FCN (field control node) and FCJ (field control junction) autonomous controllers as the core of STARDOM, a solution that actualizes a network-based control system (NCS) Yokogawa proposes for increased production efficiency.
Due to the rising energy demand in emerging countries in recent years, the amount of oil and gas production has been increasing, thus investment in the development of new oil and gas fields and replacement of old facilities has been booming.
Many field devices are now being connected to process control systems through fieldbus communication. These field devices have intelligence, and so many settings and adjustments can be made through fieldbus communication.
As for a controller used in a distributed control system (DCS) shown in Figure 1, covering as many applications as possible with a single controller will bring cost reduction effects such as easy engineering and a small controller installation area. Therefore, the controller is required to process large amounts of data more quickly.
More than ten years have passed since the first digitized field devices were introduced. These support either a hybrid communication protocol such as HART or a full digital communication protocol such as FOUNDATION Fieldbus.
The specifications of the ISA100.11a wireless communication standard of the International Society of Automation (ISA) for industrial automation were published, and companies are developing products based on the standard. The ISA100.11a has many features such as high reliability including redundancy, network scalability, and support for various protocols for industrial automation.
There are already safety systems on the market that have achieved safety integrity level SIL3 of the functional safety standard, IEC61508. However, most of them have achieved SIL3 by conversion of modules into dual-redundant or triplex form.
The recent variety of industrial and railway accidents happening right before our very eyes make us painfully aware that "safety" must be put first and foremost. "Safety first" is a concept accepted by everyone and there is no room for disagreement. However, the author feels that, in some cases, the concrete objectives of "safety first" are not actually clear, and the grasp of the hazards is insufficient.
In recent years, safety and profitability have become ever more important in the process industry due to fierce global competition. Greater emphasis is being placed on highly efficient plant operation for reducing the increasing energy bill.
The business world surrounding the manufacturing industry is undergoing rapid and drastic changes. Achieving production activities that can respond swiftly to such environmental changes has become an urgent task.
As field instrumentation devices become increasingly digitized and computerized, interactive and remote access to a large quantity of field information becomes possible. This will increase the efficiency of plant equipment maintenance by reducing labor requirements in field patrol work for example.
In recent years it has become increasingly common for plants to be provided not only with the control layer of a production control system (DCS, etc.), but also with the protection layer of a safety instrumented system (SIS) to reduce the risk of industrial accidents. The safety instrumented system is indispensable for avoiding risks to a plant failure.
Instrumentation devices and equipment serve for plants as the eyes, ears, nose, tongue, and skin, which are responsible for the five senses, and act as the central nervous system and brain do for human beings. The reliability and availability of such devices and equipment are the most important requirements of customers.
Vortex flow meters have been appreciated by users as volume flow meters, which can, in principle, be applied to any flow measurement of liquid, gas, or steam. Volume flow measurement is enough for substances with small variations in density such as liquid.
In 1988, Yokogawa launched the ADMAG series of magnetic flow meters with increased resistance to fluid noise and zero stability, employing dual frequency excitation which was developed based on its long-cultivated technology for flow measurement. Since then, the ADMAG family has augmented its application range with such models as explosion-proof and integral types, and a capacitance type.
Since the release of the DPharp EJ series in 1991 and the DPharp EJA series in 1994, nearly 1.2 million of these transmitters have been operating all over the world. Recently, we have also developed the EJX series of even more compact, lightweight and advanced transmitters with multi- sensing capabilities built using silicon resonant sensor technology.
The introduction of wireless technologies into plants is anticipated as one of the measures for implementing field digital solutions not only to reduce cable wiring costs but also to improve plant wide safety/stable operations, operating efficiency, and so on.
Yokogawa proposed the VigilantPlant concept as an ideal plant that achieves fully optimized operation where all the necessary information is given to all the operators involved in the plant operation. In VigilantPlant, operators are able to quickly respond to changes in the external environment while the production activities run without any interruption.
Recently, standardization of procedural automation of manual operations has been promoted mainly by the International Society of Automation (ISA), and the functional requirements necessary for automation are being studied by the ISA106 committee in the US.
Upgrading and renewal of plant facilities, including production control systems and safety instrumented systems, are essential for maintaining safe and efficient plant operation. Even though these activities are categorized as R&R, they require investment and customers are often required to evaluate the profitability for obtaining approval.
The introduction of wireless into industrial monitoring and control not only reduces wiring and maintenance costs but also expands its applications to include those which are impossible with wired systems, such as monitoring points which have to be given up due to the difficulty of the construction, and monitoring of points on rotating or frequently moved objects.
In recent years, more field wireless devices have been used in hazardous areas. Meanwhile, in plants that are usually recognized as hazardous areas, there are numerous metallic tanks and pipes that easily shield or reflect radio waves, as discussed later, thus resulting in a poor environment for wireless communication.
The Coriolis flow meter has many features such as direct measurement of mass flow and measurement of fluid density, which other flow meters do not support. Therefore, since being introduced for practical use in the late 1970s, its market has rapidly expanded in many industries such as oil, chemicals, and foods.
Environment and safety are major topics on a global scale in recent times. As symbolized by the effectuation of the Kyoto Protocol, an interest in preserving the environment is growing worldwide, and there is also a tendency to criticize more severely, occurrences of industrial accidents that are accompanied by environmental contamination or which may cause damage, etc., to residents in the surrounding areas.
Conventional safety instrumented system (SIS) is typically installed separated from a distributed control system (DCS) to eliminate interference from the DCS and assure safety. However, users increasingly wish to integrate SIS with DCS while maintaining the safety of safety controllers.
To improve the efficiency of operations, production control systems are working together more closely with information systems. As a result, security measures have become indispensable for production control systems though they have not been emphasized to date. Because many production control systems are used for critical infrastructure, some malware tries to attack them.
In recent years, expectations for control systems using wireless communications have been increasing in the process control market. This is because these systems do not require power and communication wiring for field instruments, enabling reduced initial and maintenance costs, and easy installation.
Yokogawa has been leading the process automation industries as one of the pioneers in field digital technologies represented by the FOUNDATION fieldbus™ and Field Device Tool/Device Type Manager (FDT/DTM).
To date, Yokogawa has focused on DCS (Distributed Control System) which control the entire power generation plant, including boilers, in the electric power industry. In contrast, turbomachinery control has been handled by turbine manufacturers, but as the electric power market has been active internationally, especially in China and India, in recent years, Yokogawa has been developing turbomachinery control systems to to further develop the electric power industry.
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ROTAMASS is the integral and remote type Coriolis Mass Flow Meter. Both types have highly refined digital signal processing electronics, so that accurate and stable mass flow measurement is achieved.
It is the most technologically advanced mass flow meter yet. By combining the superior design of the application specific flow sensor and transmitters with the Total Insight philosophy and functionality, the flexibility of the ROTAMASS to adapt to changing requirements guarantees performance throughout the lifecycle of the process measurement.
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