GeoniCS 2006 6.7 With Crack Download
Kody Coste
Available with cable reference synchronization only, for either single component or sequential three-component data collection, PROTEM CM otherwise offers the same functions and performance characteristics as the standard PROTEM 47 components, and is compatible with all other Geonics transmitters.
Time Domain Systems:provide measurement of vertical subsurface conductivity for definition of the conductivity / resistivity profile and / or detection of geologic anomalies within an exploration range of 5 m (for environmental / engineering applications) to greater than 1000 m (for deep resource exploration).
Data Acquisition Systems: with both hardware and software components, support the collection of data from any Ground Conductivity Meter or Metal Detector; frequency domain-based Borehole Probe are also supported.
The Six Line Test measures heading effects, response amplitude, positional accuracy, and latency along a line with a standard test item. Basically, the EM61 travels along the line at different directions and speeds and measures the varying effects on the data collected. Geonics does not specify what data is acceptable; however, the Army suggests that the response stay within +/- 20% and the positional accuracy must be within 35cm. Likewise, a Repeat Test is suggested by both quality control guidelines to test repeat data. Geonics requires the Repeat Data for gridded surveys to be within 5% for consistent data. The army requires a similar test for both gridded surveys and path surveys. As you can see, many of the test among Geonics and the Army are the same yet the required response ranges and disparities are different.
For any one measurement, the standard EM38 provides measurements of either quad-phase (conductivity) or in-phase (magnetic susceptibility) component data, as selected by the operator. Comparatively, the EM38B provides simultaneous measurement of both phase components, at all times (just like an EM31). For surveys which include measurement of both components - common for archaeological investigations - the EM38B significantly reduces the amount of time required.
Designed for relatively shallow applications - specifically within the agricultural root zone - the EM38 provides measurement of ground conductivity (quad-phase) and magnetic susceptibility (in-phase) within two effective depth ranges: 1.5 m in the vertical dipole mode (shown above); and 0.75 m in the horizontal dipole mode. Based on the same induction principle as the EM31-MK2, the EM38 can survey large areas quickly, without any requirement for ground-to-instrument contact.
For agricultural applications, measurement of ground conductivity is particularly useful for the mapping of variations in important soil properties such as salt and soil moisture content.
The EM38 has proven to be useful for many near-surface applications, including archaeology, wherein use can also be made of the information available in the measurement of soil magnetic susceptibility.
Very lightweight and only one metre long, the EM38 provides rapid surveys with excellent lateral resolution. Measurement is generally made by placing the instrument on the ground and recording the indicated reading; digital meters are located on the top and side of the EM38 for the horizontal and vertical dipole measurements, respectively either a continuous or stationary measurements can be obtained from a standing position using the optional extender arm (shown above) with cable connection to a data acquisition system. In this mode of operation, several thousand data points can easily be obtained in one hour.
For larger-area surveys, the EM38 can be easily mounted on a platform and towed behind a vehicle. Real-time (RT) data acquisition, with direct connection to computer-based acquisition systems, is available with an optional modification.
DIMENSIONS
Instrument: 106x15x3.6 cm
Shipping: 117x19x13 cm
WEIGHTS
Instrument: 3 kg
Shipping: 10 kg
FindAnalogChannelsOfType is a helper function found in the MCC C/C++ examples. The examples are in your public documents folder if you've installed InstaCal from the MCC DAQ CD download. The function you speak of is in Analog.h, which is in C:\Users\Public\Documents\Measurement Computing\DAQ\C\Samples\. I tested it with a USB-1602HS-2AO and found it to work with your device. Unfortunately, I didn't have the four-channel version handy, but they're both the same for Analog Output.
I thought I had found the answer to the USB-1604 D/A problem, i.e. add the call "cbIgnoreInstacal ()" when initializing the board. Unfortunately this throws a linker error " cannot open file '.\lib\cbw32.lib' ". The same message appears whether cbw32.lib is in the include\lib folder or in the main folder with the source files. Last summer all was working ok (with the call?).
The cbIngoreInstaCal function is a relatively recent addition to the library. It is part of what we call the discovery interface. It must be the very first library call and followed up with the discovery functions to find a device. I don't believe you're using the discovery method and instead relying on the InstaCal board number assignment. Furthermore, because you get an error when attempting to use it, it tells me that you have an old version of our library. My programming example assumes you have version 6.55 or newer and relies on the InstaCal assigned board number. If you have an outdated Windows 7 system, you must run version 6.55. To get the updated *.lib, *.h, and DLLs, update your system using the MCC DAQ Software CD download. After, you can find the new files in C:\Users\Public\Documents\Measurement Computing\DAQ\C\
The only way you get the programming support is to update InstaCal from the CD download. The mccdaq.exe download extracts into an image of our CD that we use to hand out with every device. Today it's download only. Once you have it extracted, uncheck everything except InstaCal. After its update, you will have the following folder C:\Users\Public\Documents\Measurement Computing\DAQ\C\.
I tried to download instacal again from the archived list, this time v6.60, with the same result as when I tried 6.55; I.e. notice "failed to fetch" after the re-start, and no MCC DAQ folder under c:\users\, only under c:\program files\ with old files.
I reloaded the MCC CD software with the current version, including TracerDAQ v2.3.4 and InstaCal v6.73. Tried TracerDAQ A/O test and it seemed ok as long as board was plugged in(waveform shifted when offset was changed), complained when unplugged. But same _IFC variable errors on compiling.
But there are still problems. When cbIgnoreInstaCal() is not used, the D/A "function cannot be used" message is thrown. And when it is used (first cb call) the software doesn't seem to see the board at all: GetNameOfBoard returns 0 with no name for the board ("").
Your troubles are because you're mixing components from our examples with discovery functions such as cbIngnoreInstaCal. The examples do not use cbIngnoreInstaCal; they use what is listed in the InstaCal board list. The following demonstrates the discovery interface and how to use cbIngnoreInstaCal to locate a USB-1604HS-2AO and determine the board number.
However on running, "numberofdevices" is 1, and the coding exits with "USB device not found..". The board is definitely connected - the blue LED is on and the system makes the appropriate beeps on connecting or disconnecting.
Problems started when trying to revise coding for E. Revisions had nothing to do with DAQ coding, but after compiling, the A/O function was not operational. Revised initialization coding according to your example and eventually all seemed ok (D/A output ok, A/D channels all working), but some problems with E hardware.
After fixing hardware, the software now finds only 1 Analog input channel, and there is no D/A output, although the output code runs without error messages. The initialization coding with your test section modified to check 4 AI's seems to run ok.
Tried to check with system G, which runs ok with software dated Nov/22, and Win10. However when trying with same .exe on a different Win10 computer (or with a Win7) get message that cannot find A/O. Original installation continues to work ok.
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Our rental EM-61 Mark II comes with the Archer Field PC with integrated GPS, an external GPS antenna and GPS antenna mount. You may rent the EM-61 in the side mount electronics version (shown in the picture) or backpack electronics version. Please specify when you order.
The Institute of Geonics has been working closely with Gravitricity since 2020 to find a suitable deep mining site where the technology can be tested in a mining environment. These activities led to several project proposals - 3 projects were submitted for funding from EU funds, notably the Research Programme for Coal and Steel (RFCS) and the EU Innovation Fund (EUIF). One large-scale project proposal was submitted for funding from EUIF on March 16, 2023. In addition to Gravitricity, the project partners and participants are Huisman VB and the Institute of Geonics, led by Ing. Radovan Kukutsch, Ph.D. and his colleagues. The Institute of Geonics and Gravitricity have signed a memorandum of understanding and a non-disclosure agreement.
The PROTEM 57MK2A is used for a wide variety of applications. The system can sound the depth, thickness and conductivity of layers down to 300 m below surface, for applications such as mapping the thickness of aquifers, clay layers and assessing water quality. In coastal areas, the PROTEM 57MK2A has defined the depth to saline intrusion as accurately as chemical samples from wells.The PROTEM 57MK2A, with a short reference cable, portable transmitter and 3-D receiver coil can delineate complex ore bodies within 200 m of surface. Deeper conductors can be characterised by profiling with a crystal synchronised receiver and a large, fixed transmitter loop. Modelling provides conductivity thickness, dip and extent of the ore body.
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