Electronic Warfare Training Crash Course by TONEX
Electronic Warfare Training Crash Course sets up Electronic Warfare (EW) establishment intended for examiners, engineers, electrical specialists, venture directors, electronic warfare specialized experts who outline or work radar frameworks and electronic warfare frameworks; and anybody engaged with arranging, plan, investigation, reenactment, prerequisites definition, execution detail, obtainment, test, security and assessment of electronic assault hardware.
Electronic Warfare Training Crash Course depicts military activity including the utilization of electromagnetic (EM) and coordinated vitality (DE) to control the EMS or to assault the adversary. TONEX has been a pioneer in electronic warfare preparing administrations since 1992.
#Who Should Attend Electronic Warfare Course
Technical personnel
Electronic warfare or radar system planning, design, development, operations and maintenance
Electrical engineers
Software engineers
System engineers
System analysts
Cyber security professionals
Verification and validation personnel
Project managers
Program managers
#Learning Objectives
Endless supply of Electronic Warfare Training Crash Course, the participants can:
Rundown premise of Electronic Warfare (EW) ideas, engineering and methods
Investigate the utilization of electronic warfare ideas to ground, airborne and maritime surface warfare
Depict the key ideas of electromagnetic field hypothesis
Depict prorogation models, correspondence block and sticking execution expectation
Outline observable pathway (LOS), two-beam, and blade edge diffraction engendering models
Comprehend the essentials of radars and radar cross area
Portray EW and surveillance beneficiary framework configuration exchange off
Give cases of Directed vitality weapons and stealth
Depict how hunt and following radars work
Rundown the utilitarian and operational susceptibilities of weapon frameworks to electronic warfare
Comprehend Electronic Warfare Systems Engineering and System of Systems Engineering (SoSE) standards
Comprehend the application displaying, reproduction and net-driven engineering to electronic warfare.
#Course Agenda
What is Electronic Warfare (EW)?
Electronic Warfare principles
Overview of signals such as radio, infrared or radar
Electronic Warfare architecture
Naval EW
Ground EW
Airborne EW
Cyber EW
RF electronic warfare
Infrared Countermeasures
Visit Tonex website for more information about this course
https://www.tonex.com/training-courses/electronic-warfare-training-crash-course/
2 d and 3d land seismic data acquisition and seismic data processingAli Mahroug
The seismic method has three important/principal applications
a. Delineation of near-surface geology for engineering studies, and coal and mineral
exploration within a depth of up to 1km: the seismic method applied to the near –
surface studies is known as engineering seismology.
b. Hydrocarbon exploration and development within a depth of up to 10 km: seismic
method applied to the exploration and development of oil and gas fields is known
as exploration seismology.
c. Investigation of the earth’s crustal structure within a depth of up to 100 km: the
seismic method applies to the crustal and earthquake studies is known as
earthquake seismology.
Electronic Warfare Training Crash Course by TONEX
Electronic Warfare Training Crash Course sets up Electronic Warfare (EW) establishment intended for examiners, engineers, electrical specialists, venture directors, electronic warfare specialized experts who outline or work radar frameworks and electronic warfare frameworks; and anybody engaged with arranging, plan, investigation, reenactment, prerequisites definition, execution detail, obtainment, test, security and assessment of electronic assault hardware.
Electronic Warfare Training Crash Course depicts military activity including the utilization of electromagnetic (EM) and coordinated vitality (DE) to control the EMS or to assault the adversary. TONEX has been a pioneer in electronic warfare preparing administrations since 1992.
#Who Should Attend Electronic Warfare Course
Technical personnel
Electronic warfare or radar system planning, design, development, operations and maintenance
Electrical engineers
Software engineers
System engineers
System analysts
Cyber security professionals
Verification and validation personnel
Project managers
Program managers
#Learning Objectives
Endless supply of Electronic Warfare Training Crash Course, the participants can:
Rundown premise of Electronic Warfare (EW) ideas, engineering and methods
Investigate the utilization of electronic warfare ideas to ground, airborne and maritime surface warfare
Depict the key ideas of electromagnetic field hypothesis
Depict prorogation models, correspondence block and sticking execution expectation
Outline observable pathway (LOS), two-beam, and blade edge diffraction engendering models
Comprehend the essentials of radars and radar cross area
Portray EW and surveillance beneficiary framework configuration exchange off
Give cases of Directed vitality weapons and stealth
Depict how hunt and following radars work
Rundown the utilitarian and operational susceptibilities of weapon frameworks to electronic warfare
Comprehend Electronic Warfare Systems Engineering and System of Systems Engineering (SoSE) standards
Comprehend the application displaying, reproduction and net-driven engineering to electronic warfare.
#Course Agenda
What is Electronic Warfare (EW)?
Electronic Warfare principles
Overview of signals such as radio, infrared or radar
Electronic Warfare architecture
Naval EW
Ground EW
Airborne EW
Cyber EW
RF electronic warfare
Infrared Countermeasures
Visit Tonex website for more information about this course
https://www.tonex.com/training-courses/electronic-warfare-training-crash-course/
2 d and 3d land seismic data acquisition and seismic data processingAli Mahroug
The seismic method has three important/principal applications
a. Delineation of near-surface geology for engineering studies, and coal and mineral
exploration within a depth of up to 1km: the seismic method applied to the near –
surface studies is known as engineering seismology.
b. Hydrocarbon exploration and development within a depth of up to 10 km: seismic
method applied to the exploration and development of oil and gas fields is known
as exploration seismology.
c. Investigation of the earth’s crustal structure within a depth of up to 100 km: the
seismic method applies to the crustal and earthquake studies is known as
earthquake seismology.
Introduction of Motion Control and requirements of Navigations systems techno...volodymyrgolikov
E-navigation is the harmonized creation, collection, integration, exchange and presentation of maritime information on board and ashore by electronic means to enhance berth-to-berth navigation and related services, for safety and security at sea and protection of the marine environment
Nick - Benefits of Using Combined Bathymetry and Side Scan Sonar in Shallow W...Codevintec Italiana srl
Codevintec Days 2018 - Trieste
EDGETECH - Nick - Benefits of Using Combined Bathymetry and Side Scan Sonar in Shallow Water Surveys
Codevintec Days 2018 - Trieste
Relazione di Nick Lawrence - Edgetech
Autonomous underwater vehicles (AUVs) often operate close to the seabed (5m-15m) enabling higher resolution surveys using high frequency sonars. Compact Autonomous surface vessels (ASVs) are often deployed in shallow water environments where deeper-draft manned survey vessels are unable to operate. On such vehicles there is limited space to deploy separate imaging, mapping and sub-bottom sonars. This presentation describes the technology deployed in the EdgeTech 2205 sonar system, which enables combined data acquisition in one system on AUVs and ASVs. Examples of the data acquired are given, which can include dual- or triple- frequency side scan, Multiphase Echosounder (MPES) swath bathymetry, and sub-bottom profiler data.
By Ellen Stuifbergen, Sales Manager Software Systems
Teledyne-RESON develops innovative technologies for Offshore, Survey and Dredge markets. This paper explains the latest technologies and applications in which they may be used.
In the presentation the following topics will be explained and shown.
The latest models of SeaBat systems are capable of generating Frequency Modulated pulses for improved depth performance and resolution. This reduces the impact of ambient noise in the water column and results in a more robust detection of the seafloor.
It improves the data significantly minimizing the processing time even further.
Teledyne-RESON has developed an algorithm to automatically detect and track pipelines in the multibeam swath. It outputs the standard 5 points pipeline information in real-time consisting of top of pipe, mean seabed and seabed next to the pipe. The output can be sent to data acquisition and processing software for further analysis, including free-span detection. Pipelines with 40 cm diameter are detected and tracked at a waterdepth of 200 meter.
A further development is to display the real-time water column data in the multibeam display. Water column data reveals items of interest which may be difficult to detect in digitized depths, such as poles, and small details on wrecks. The real-time water column shows the history of the data in the along-track and across-track directions. Water column data may be output to any hydrographic software such as PDS2000 to be further processed.
mmW Technology Training presents the basics of millimeter wave innovations including 28 GHz and ISM 60 GHz (802.11ad, and 802.11ay) and applications for any individual who should be grounded in the essentials of millimeter wave advancements. mmW technology depends on the range between 30 GHz and 300 GHz, which is alluded to as the millimeter wave band.
#Learning Objectives
Endless supply of this course, the participants will have the capacity to:
Clarify the key ideas driving mmW advancements and applications.
Balance mmW arrangement with Microwave interchanges organization.
Talk about different mmW key segments .
Rundown key estimation, examination, and recognizable proof ideas of physical parameters, and factual portrayals of mmWave engendering channels .
Portray mmW proliferation instruments .
Clarify different parts of mmW plan and connection spending plan .
Outline the methodologies utilized for mmW technology plan and usage .
Blueprint KPIs that evaluate mmW execution .
Clarify how apparatuses can be utilized amid different phases of the mmW frameworks building including investigation, demonstrating, plan, reproduction, organization, tasks and enhancement.
#Course Content
Millimeter Wave (mmW) Technology at a Glance
Introduction to mmW
Millimeter wave definition
Key benefits of mmW technology
mmW frequency band applications
mmW technology overview
Millimeter wave technology potential applications
The mmW band and the bandwidth
mmW / Sub-mmW
Technical features and functions
Enabling technologies
Innovations
System considerations
System Stand-Off / Operation Range
Issues and performance considerations
The propagation characteristics of millimeter waves
“Optical” propagation characteristics
Loss of signal due to atmospheric effects
mmW propagation characteristics
mmW signal loss
Since the wavelengths for these frequencies are around one to ten millimeters, the mmW are utilized to name the advancements and applications utilizing these groups. Millimeter wave engendering has its own quirks and attributes of radio flag spread at millimeter wave frequencies and their suggestions for range administration are enter ideas shrouded in this instructional class. mmW preparing, millimeter wave preparing will fill the holes in comprehension of mmW advancements. mmW preparing likewise represents the central ideas of millimeter wave and features the significance of a few parts of mmW advancements, applications and patterns.
Learn more about mmw technology training on Tonex
https://www.tonex.com/training-courses/mmw-technology-training-millimeter-wave-training/
Introduction of Motion Control and requirements of Navigations systems techno...volodymyrgolikov
E-navigation is the harmonized creation, collection, integration, exchange and presentation of maritime information on board and ashore by electronic means to enhance berth-to-berth navigation and related services, for safety and security at sea and protection of the marine environment
Nick - Benefits of Using Combined Bathymetry and Side Scan Sonar in Shallow W...Codevintec Italiana srl
Codevintec Days 2018 - Trieste
EDGETECH - Nick - Benefits of Using Combined Bathymetry and Side Scan Sonar in Shallow Water Surveys
Codevintec Days 2018 - Trieste
Relazione di Nick Lawrence - Edgetech
Autonomous underwater vehicles (AUVs) often operate close to the seabed (5m-15m) enabling higher resolution surveys using high frequency sonars. Compact Autonomous surface vessels (ASVs) are often deployed in shallow water environments where deeper-draft manned survey vessels are unable to operate. On such vehicles there is limited space to deploy separate imaging, mapping and sub-bottom sonars. This presentation describes the technology deployed in the EdgeTech 2205 sonar system, which enables combined data acquisition in one system on AUVs and ASVs. Examples of the data acquired are given, which can include dual- or triple- frequency side scan, Multiphase Echosounder (MPES) swath bathymetry, and sub-bottom profiler data.
By Ellen Stuifbergen, Sales Manager Software Systems
Teledyne-RESON develops innovative technologies for Offshore, Survey and Dredge markets. This paper explains the latest technologies and applications in which they may be used.
In the presentation the following topics will be explained and shown.
The latest models of SeaBat systems are capable of generating Frequency Modulated pulses for improved depth performance and resolution. This reduces the impact of ambient noise in the water column and results in a more robust detection of the seafloor.
It improves the data significantly minimizing the processing time even further.
Teledyne-RESON has developed an algorithm to automatically detect and track pipelines in the multibeam swath. It outputs the standard 5 points pipeline information in real-time consisting of top of pipe, mean seabed and seabed next to the pipe. The output can be sent to data acquisition and processing software for further analysis, including free-span detection. Pipelines with 40 cm diameter are detected and tracked at a waterdepth of 200 meter.
A further development is to display the real-time water column data in the multibeam display. Water column data reveals items of interest which may be difficult to detect in digitized depths, such as poles, and small details on wrecks. The real-time water column shows the history of the data in the along-track and across-track directions. Water column data may be output to any hydrographic software such as PDS2000 to be further processed.
mmW Technology Training presents the basics of millimeter wave innovations including 28 GHz and ISM 60 GHz (802.11ad, and 802.11ay) and applications for any individual who should be grounded in the essentials of millimeter wave advancements. mmW technology depends on the range between 30 GHz and 300 GHz, which is alluded to as the millimeter wave band.
#Learning Objectives
Endless supply of this course, the participants will have the capacity to:
Clarify the key ideas driving mmW advancements and applications.
Balance mmW arrangement with Microwave interchanges organization.
Talk about different mmW key segments .
Rundown key estimation, examination, and recognizable proof ideas of physical parameters, and factual portrayals of mmWave engendering channels .
Portray mmW proliferation instruments .
Clarify different parts of mmW plan and connection spending plan .
Outline the methodologies utilized for mmW technology plan and usage .
Blueprint KPIs that evaluate mmW execution .
Clarify how apparatuses can be utilized amid different phases of the mmW frameworks building including investigation, demonstrating, plan, reproduction, organization, tasks and enhancement.
#Course Content
Millimeter Wave (mmW) Technology at a Glance
Introduction to mmW
Millimeter wave definition
Key benefits of mmW technology
mmW frequency band applications
mmW technology overview
Millimeter wave technology potential applications
The mmW band and the bandwidth
mmW / Sub-mmW
Technical features and functions
Enabling technologies
Innovations
System considerations
System Stand-Off / Operation Range
Issues and performance considerations
The propagation characteristics of millimeter waves
“Optical” propagation characteristics
Loss of signal due to atmospheric effects
mmW propagation characteristics
mmW signal loss
Since the wavelengths for these frequencies are around one to ten millimeters, the mmW are utilized to name the advancements and applications utilizing these groups. Millimeter wave engendering has its own quirks and attributes of radio flag spread at millimeter wave frequencies and their suggestions for range administration are enter ideas shrouded in this instructional class. mmW preparing, millimeter wave preparing will fill the holes in comprehension of mmW advancements. mmW preparing likewise represents the central ideas of millimeter wave and features the significance of a few parts of mmW advancements, applications and patterns.
Learn more about mmw technology training on Tonex
https://www.tonex.com/training-courses/mmw-technology-training-millimeter-wave-training/
2. NAUTRONIX
MARINE TECHNOLOGY SOLUTIONS www.nautronix.com
Overview
• Introduction to LBL and Array Planning
• Range Limitations for Positioning
• NASNet®
• Array Planning Tools – Past and Future
4. NAUTRONIX
MARINE TECHNOLOGY SOLUTIONS www.nautronix.com
Long Baseline in a nutshell
Trilateration – derivation of position from distance measurements
Distances (ranges) calculated from acoustic time of flight and
measured speed of sound in water
Minimum of 3 ranges from known
points required for a 2D position
5. NAUTRONIX
MARINE TECHNOLOGY SOLUTIONS www.nautronix.com
Basic requirements for Long Baseline Arrays
Accurate, reliable and cost effective positioning
• Ability to calibrate the array
• Minimum number of ranges available for positioning
• Good array geometry for positioning
Consequences of getting it wrong
• No positioning…
• Bad positioning – things in the wrong place
• Expensive positioning – install and calibrate extra units
6. NAUTRONIX
MARINE TECHNOLOGY SOLUTIONS www.nautronix.com
What is ‘Good’ array Geometry?
For subsea construction tends to focus on the horizontal
• Positioning at a similar depth/elevation to the array provides poor
geometry for determining heights
• Heights derived from an external depth sensor
Good geometry has been defined by
a combination of
• Number of receivable ranges
• Angles of intersection (cut)
formed at receiver by ranges
7. NAUTRONIX
MARINE TECHNOLOGY SOLUTIONS www.nautronix.com
What does it mean?
Example Criteria
• Minimum 4 ranges received
• Angles of cut between 30° and 150 °
8. NAUTRONIX
MARINE TECHNOLOGY SOLUTIONS www.nautronix.com
Mitigation of errors through geometry
Range errors with good array geometry
• Large range residuals
• Small error in derived position
9. NAUTRONIX
MARINE TECHNOLOGY SOLUTIONS www.nautronix.com
Mitigation of errors through geometry
Range errors with poor array geometry
• Smaller range residuals
• Larger error in derived position
16. NAUTRONIX
MARINE TECHNOLOGY SOLUTIONS www.nautronix.com
NASNet®
• Multi-user continuous
broadcast LBL system
• Extreme long range (4-5km at
seabed)
– Low frequency combined with
digital spread spectrum signalling
• Transmission from 100m above
seabed to mitigate against ray-
bending induced blind spots
• Buoy Tracking System used to
position buoys and maintain
high accuracy
22. NAUTRONIX
MARINE TECHNOLOGY SOLUTIONS www.nautronix.com
Traditional Tools for Array Planning
Lots of methods used…but all ‘making do’ with what they could find
• Do it by eye – until it “looks about right”
– The traditional method, relying on experience and luck
• Do it by eye electronically, and then check it using straight line
assumptions
– CAD and experience to design the geometry
– Individual lines of position checked against DTM for straight line visibility
• Various software packages designed for land based line of sight
assessments
– From land survey planning…
– …to choosing sites for mobile phone masts
23. NAUTRONIX
MARINE TECHNOLOGY SOLUTIONS www.nautronix.com
Array planning for NASNet®
Requirements
• Array calibration visibility checks
• Basic range analysis
• Visibility ray-bending analysis
• Assessment of array geometry
• An intuitive method of presenting results
to customers
Solution
• Nautronix array planning specification
• Custom GeoLine3D array planning module
24. NAUTRONIX
MARINE TECHNOLOGY SOLUTIONS www.nautronix.com
Array Calibration Visibility Checks
Real-time visibility checks
• Green – ok
• Red – no visibility
• Blue – beyond max range
Straight line and ray bending
options
28. NAUTRONIX
MARINE TECHNOLOGY SOLUTIONS www.nautronix.com
New measure of array geometry required
• Must be intuitive to expert and non-expert users alike
• To reflect current accepted ‘rules of thumb’
Defined as a percentage of ‘perfect geometry’…
- an infinite number of Stations evenly surrounding the point of
interest
62% 31%
Geometric Support - GSUP
29. NAUTRONIX
MARINE TECHNOLOGY SOLUTIONS www.nautronix.com
GSUP
Example values
• Centre of equilateral triangle = 41%
• Centre of Square = 63%
• Outside of array extents = <50%
30. NAUTRONIX
MARINE TECHNOLOGY SOLUTIONS www.nautronix.com
Presentation of results
Images, DTMs or a 3D draped model for interactive viewing
Range reception = 4 GSUP = 62% 31%
31. NAUTRONIX
MARINE TECHNOLOGY SOLUTIONS www.nautronix.com
What’s next
Nautronix and GeoLine development partnership formally extended
G3D User Forum introduced
Ongoing system development
• Automatic high point placement
– Completed
• Automatic array design
– User defined areas
– User selected base geometric shape (triangular, rectangular etc)
– User specified separation, high point selection etc
– User defined acceptance criteria (range visibility and geometry)
