This book describes the fundamental scientific principles underlying high quality instrumentation used for environmental measurements. It discusses a wide range of in situ sensors employed in practical environmental monitoring and, in particular, those used in surface based measurement systems. It also considers the use of weather balloons to provide a wealth of upper atmosphere data. To illustrate the technologies in use it includes many examples of real atmospheric measurements in typical and unusual circumstances, with a discussion of the electronic signal conditioning, data acquisition considerations and data processing principles necessary for reliable measurements. This also allows the long history of atmospheric measurements to be placed in the context of the requirements of modern climate science, by building the physical science appreciation of the instrumental record and looking forward to new and emerging sensor and recording technologies.

Weather instruments are crucially important to several industries. This is because weather is a shaping factor in various industrial sectors, from agriculture to shipping. Instruments that measure weather variables have been invented and tested since the time of Leonardo de Vinci. The earliest instruments were crude by today's standards and required manual observation and notation of the weather variable of interest. Agriculture is profoundly dependent on weather instruments, as assists farmers when to plant and what safety measures to take. In recent years, for the most profit, farmers try to sow their crops at the earliest opportunity, but if done too early the crops could fail. Weather sensors are of vital importance to the shipping industry because they can be used to forecast hurricanes and other storms. Temperature and air pressure can affect a plane behavior in the air as it modifies the amount of lift. Radar is used to track storms that can ground aircraft or making landing impossible. Wind speed and direction are considered on account of their role in convective energy exchange and the movement of spores, pollen, odors, and chemicals as they drift in the atmosphere. Precipitation amount, intensity, frequency, and form are significant in shaping the availability of water for crops and play an important role in soil erosion by water and in water quality issues. This volume 'Meteorological Measurements and Instrumentation' covers the fundamental scientific ideology essential high quality instrumentation intended for environmental measurements. It discusses an assortment of in situ instrumentations used in practical environmental monitoring and, specifically, those used in surface based measurement systems. It demonstrates the technologies in use including many examples of real atmospheric measurements in typical and unusual circumstances, with a discussion of the spatial lattice model applied for meteorological visualization and analysis, spatial-temporal patterns and controls of evapotranspiration principles necessary for reliable measurements, multi-model ensemble for seasonal precipitation forecast over Israel, frequency analysis of critical meteorological conditions in a changing climate, instrumentation and measurement of ground-level ultraviolet irradiance and spectral composition, and data processing principles necessary for reliable measurements.

Appropriate for courses in Geography Instrumentation, Meteorological Measurements, Environmental Measurements, Principles of Atmospheric Measurements, or Environmental Instrumentation. It assumes a prerequisite introductory course in Atmospheric Science, Meteorology, or the equivalent. Introduces the fundamentals of field measurement by providing an up-to-date presentation of present and futuristic meteorological instruments and the measurements they make. It provides the reader with enough information to understand how these instruments operate, what to expect when making measurements with these instruments, and how to ensure the optimal performance of the devices.

This book treats instrumentation used in meteorological surface systems, both on the synoptic scale and the mesoscale, and the instrumentation used in upper air soundings. The text includes material on first- and second-order differential equations as applied to instrument dynamic performance, and required solutions are developed. Sensor physics are emphasized in order to explain how sensors work and to explore the strengths and weaknesses of each design type. The book is organized according to sensor type and function (temperature, humidity, and wind sensors, for example), though several unifying themes are developed for each sensor. Functional diagrams are used to portray sensors as a set of logical functions, and static sensitivity is derived from a sensor's transfer equation, focusing attention on sensor physics and on ways in which particular designs might be improved. Sensor performance specifications are explored, helping to compare various instruments and to tell users what to expect as a reasonable level of performance. Finally, the text examines the critical area of environmental exposure of instruments. In a well-designed, properly installed, and well-maintained meteorological measurement system, exposure problems are usually the largest source of error, making this chapter one of the most useful sections of the book.

'Measurement Methods in Atmospheric Sciences provides a comprehensive overview of in-situ and remote sensing measurement techniques for probing the Earth's atmosphere. The methods presented in this book span the entire range from classical meteorology via atmospheric chemistry and micrometeorological fiux determination to Earth observation from space. Standard instruments for meteorological and air quality monitoring methods, as well as specialized instrumentation predominantly used in scientific experiments, are covered. The presented techniques run from simple mechanical sensors to highly sophisticated electronic devices. Special emphasis is on the rapidly evolving field of remote sensing techniques. Here, active ground-based remote sending techniques such as SODAR and LIDAR find a detailed coverage. The book conveys the basic principles of the various observational and monitoring methods, enabling the user to identify the most appropriate method. An introductory chapter covers general principles (e. g. inversion of measured data, available platforms, statistical properties of data, data acquisition). Later chapters each treat methods for measuring a specific property (e.g. humidity, wind speed, wind direction). Long chapters provide an introductory tabular list of the methods treated. More than 100 figures and 400 references, mostly to the recent scientific literature, aid the reader in reading up on the details of the various methods at hand. Recommendations at the end of each major chapter provide additional hints on the use of some instruments in order to facilitate the selection of the proper instrument for a successful measurement. A large number of national and international standards, providing precise guidelines for measuring and acquiring reliable, reproducible and comparable data sets are listed in the appendix. A dedicated index allows easy access to this valuable information. The book addresses undergraduate and graduate students in meteorological and atmospheric sciences, physical geography, ecology, environmental sciences, agriculture and related disciplines as well as scientists in the process of planning atmospheric measurements in field campaigns or working with data already acquired. Practitioners in environmental agencies and similar institutions will benefit from instrument descriptions and the extended lists in the appendix.' (Publisher)

This book describes the fundamental scientific principles underlying high quality instrumentation used for environmental measurements. It discusses a wide range of in situ sensors employed in practical environmental monitoring and, in particular, those used in surface based measurement systems. It also considers the use of weather balloons to provide a wealth of upper atmosphere data. To illustrate the technologies in use it includes many examples of real atmospheric measurements in typical and unusual circumstances, with a discussion of the electronic signal conditioning, data acquisition considerations and data processing principles necessary for reliable measurements. This also allows the long history of atmospheric measurements to be placed in the context of the requirements of modern climate science, by building the physical science appreciation of the instrumental record and looking forward to new and emerging sensor and recording technologies.