subjectMarine Meteorology

2024 courses

Courses tagged with "subject::marine_meteorology"

Online Training on Ocean Forecast System
Online

OFS2024

Online Training on Ocean Forecast System

Indonesia
Training Center

The Ocean model represents a numerical mathematical equation of the ocean and its interaction with the atmosphere and land. The ocean model in the Maritime Continent aims to capture the complex interaction between ocean and atmosphere in this region, therefore configuring an ocean model for a certain area needs to specify a specific domain, type of the equation and numerical methods used, the parameterization of sub grid-scale processes and forcing data used to drive the model, such as atmospheric data and boundary condition.

One of the most commonly used ocean models is the three-dimensional numerical model, which divides the ocean into a grid of cells and uses mathematical equations to simulate the physical processes within each cell. The model is initialized by ocean currents, temperature, salinity data, and other variables, and run over some time, typically several years, to simulate the evolution of the ocean under different conditions.

Among those models that existed, BMKG developed the BMKG Ocean Forecast System (BMKG-OFS) as one of the Meteo-Oceanography modelling systems used to support prediction and information about waves, ocean currents, salinity and sea temperature for the communities. The development of BMKG OFS is an attempt to fulfil community needs in various sectors such as sea transportation, fisheries, mining and energy, and marine-related activities.

BMKG OFS consists of 3 primary components: the Ocean Wave Model, Ocean Circulation Model, and Drifting model. The Ocean Wave Model named Ina-Waves is used to support sea wave information. The Ocean Circulation Model named Ina-Flows, is used to support current, salinity and sea temperature information at every depth. The drifting model is used to support object trajectory, sea level and coastal flood information.

This training will provide participants with a basic knowledge of ocean modelling in terms of marine warnings and forecasts. The way that the ocean numerical modelling system developed by BMKG supports operational analysis and forecast of ocean parameters (waves, ocean currents, sea temperature, salinity, and seawater level) will be also discussed.  The processing and visualization of met-ocean data set from BMKG-OFS using open-source applications will be discussed briefly as supporting tools for data observation in the provision of marine meteorology services.

Learning outcomes:

  1. Understanding the basic concept of Ocean Observation Systems in the Maritime Continent
  2. Understanding the numerical ocean model and its configuration
  3. Understanding the ocean model configuration utilization
  4. Understanding visualization and utilization of ocean forecast system model

Course content:

  • Introduction Lesson :
  • Overview of Online Training on OFS
  • Building Learning Commitment
  • Lesson 1: The Concept of the Ocean Observation System in Maritime Continent
  • Lesson 2: Numerical Ocean Model and the Configuration for Marine Forecast and Warning
  • Lesson 3: Ocean Model Configuration
  • Lesson 4: Visualization and Utilization of Ocean Forecast System Model

Target audience:

  1. Meteorologists
  2. Oceanographers
  3. Researchers
  4. Marine Data Analysts
  5. Marine Forecasters

Language of instruction: English

Instructors/Trainers:

Ahmad Fadlan

Email: ahmad.fadlan@stmkg.ac.if

Specialization: Meteorologist, Marine Weather Observer and Analyst

Madona

Email: madona@bmkg.go.id

Specialization: Seismology

Khafid Rizki Pratama

Email: khafid.pratama@bmkg.go.id

Specialization: Ocean Modeling, Physical Oceanography, Coastal Dynamic

Rafika Eka

Email: rantifa.agustira@bmkg.go.id 

Specialization: Marine Meteorology, Ocean Numerical Model


Course duration and format:

25 hours (online) over a one-week period.

The course consists of the following formats but is not limited to:

  • Lectures :
    • Asynchronous sessions (using recording and tutorial video, reading, discussion forum)
    • Synchronous sessions (webinar using Zoom Meeting Application, including breakout room activities for group activities)
  • Discussion (synchronous and asynchronous via forum)
  • Practice Exercises
  • Case studies
  • Manuals and Tutorials
  • Games and Quizzes
  • Demonstrations
  • Project presentations
  • Coaching

Learning assessment:

  • Pre-Test and Post-Test: These tests are conducted before and after the training to assess the knowledge and skills gained by participants during the program.
  • Quizzes: This encourages participants to review and solidify their understanding of the material.
  • Learning journal: It is a reflective tool that allows participants to record their thoughts, experiences, and insights from the day’s learning activities. The tool encourages deeper understanding by prompting participants to think critically about their learning.

Pre-requisites:

  • Good working knowledge of English
  • Familiar with basic oceanographic
  • Beginners will be given prioritized in this course

Certificate: Certificate will be issued for participants who ● Certificates will be issued for participants who attempt the pre-test and post-test quizzes and submit the learning journals. At the conclusion of the course, you will be asked to complete the post-course feedback survey to rate how the course has met your expectations.

Cancellation policy

In the event of cancellation of the course by the OTGA or its affiliates, we will provide notification of cancellation at least 7 days prior to the course date. In the event of cancellation by the attendee, we should receive notification of cancellation at least 7 days prior to the course date.


Implementing an Operational Ocean Monitoring and Forecasting System (OOFS)
Online

OOFS_Implementation 2021

Implementing an Operational Ocean Monitoring and Forecasting System (OOFS)

Belgium
Training Center

Implementing an operational ocean monitoring and forecasting system is guided by multiple scientific, technical and outreach choices. This course will provide examples of these choices through an overview of the products from an operational oceanography and forecasting systems (via the Copernicus Marine Service portfolio) and a demonstration on graphical user interfaces and command line interfaces to visualize these data. Practical sessions will be proposed on Assimilation Validation and Downscaling.

Understanding the Benefits of Operational Ocean and Forecasting Systems (OOFS)
Online

OOFS_Awareness 2021

Understanding the Benefits of Operational Ocean and Forecasting Systems (OOFS)

Belgium
Training Center

This course will provide an overview of Ocean Monitoring and Forecasting Systems. Three main topics will be addressed: the international context and motivations, modelling the ocean and operate systems, disseminating ocean information.

NF-POGO Centre of Excellence. Physics of the Climate System I (Basics)

NF-POGO Centre of Excellence. Physics of the Climate System I (Basics)

The Physics of the Climate System

“Warming of the climate system is unequivocal, and since the 1950s, many of the observed changes are unprecedented over decades to millennia. The atmosphere and ocean have warmed, the amounts of snow and ice have diminished, sea level has risen, and the concentrations of greenhouse gases have increased.”

This statement in the Fifth Assessment Report of the Intergovernmental Panel on Climate Change (IPCC) in 2013 is based on a wide variety of climate observations and model simulations.

 The present characteristics of the climate system are a product of a long-term evolution determined by external forcing (sun, volcanoes) and internal interactions within the climate system, which is composed of atmosphere, ocean, cryosphere, land surfaces, and the marine and terrestrial biosphere. Until 250 years ago, the interference of man was small, and climate variations were a product of natural processes and interactions alone.

Since the beginning of industrialisation the composition of the atmosphere, especially the concentrations of greenhouse gases, such as carbon dioxide and methane, have significantly increased. In addition, the character of the land surface has been largely modified through land-use and land-cover change through human activities. Most of the observed global warming during the past 100 years is attributed to these anthropogenic impacts.

This course provides the evidence of climate variations on all time-scales and their response to human impacts, and presents an introduction to the physics of the climate system, with a special focus on atmosphere, ocean and ice. Exercises in the afternoons will deal with specific climate processes and with the energy balance of the Earth and other planets.

Special topics are:

·       evidence for climate variations on a variety of time-scales from in-situ measurements, remote sensing techniques, climate archives, and palaeo-climate proxies,

·       physical properties of the climate system and its components (atmosphere, ocean, ice),

·       physical processes relevant for climate variability and change,

·       simple models of the climate system (energy balance models, Daisy World),

·       climate scenarios from complex coupled climate models,

·       new results from the latest IPCC reports.