LabScribeADS is a powerful recording and analysis software package developed by iWorx for recording data from Digilent Analog Discovery Studio. LabScribeADS has an intuitive, user-friendly interface for setting up acquisition screens, calibrating signals and analyzing data.
To learn more about sensor packages designed for Digilent Analog Discover Studio and Analog Discover Studio Max, click here.
$120.00 – $1,200.00Price range: $120.00 through $1,200.00
To receive information on software installation, hardware setup, and how to access lab exercises, view the Quick Start Guide.
Minimum OS Requirements
Windows (Win 11) – 8GB RAM
Digilent Waveforms Software Required
Download the Digilent WaveForms Software from the Digilent website
Download and Install the Complete Installer for LabScribeADS
v25 (Complete Installer ~58M)
To download the LabScribeADS software, use the provided serial number that was included with your equipment.
The latest release, LabScribeADS includes a number of additional user-friendly acquisition features, user interface enhancements, powerful analysis capabilities and automated post-processing routines.
New features include:
A comprehensive set of analysis routines have been preconfigured making data analysis and interpretation quick and easy. Specific analysis modules for cardiovascular research are available to analyze pressure signals, blood flow data, ECG recordings, ventricular pressure-volume loops and sonomicrometry dimension data. Additional modules are available for analyzing EEG data and metabolic function data.
LabScribe displays data through a customizable, user-friendly, and intuitive interface. The number of input and computed channels, the display time, and scaling of the X and Y axes are just a few of the parameters that can be saved to a viewing template. Simply click one button to change from one view to another.
Settings files can be created for different experimental protocols. The number of input channels, calibration parameters, graph settings, computed channels, views and analysis protocols are all saved to a settings file.
Mark data during an experiment with free-form text notes. These marks are searchable and appear in the field of data to which they apply. Marks are time locked to the record and can be used to go to any marked region of the data. Marks can be preset and assigned as keyboard shortcuts, to all channels or a specific channel, for quick and easy annotation. Marks can also be added and saved to files while analyzing data (post-processing).
Numerical data can be displayed in a meter window as a digital value during data collection. This feature enhances the acquisition experience by providing summary data from the traces being collected. User-defined settings provide the option to display various parameters from input traces such as mean, minimum, maximum, amplitude, rate, etc. The frequency with which the value updates can be set by the user.
LabScribe includes a Journal which is very similar to a text editor. Text can be entered and edited in the Journal area and images of traces and graphs from the raw data and computed channels can be copied to the Journal. In addition to images, data values from the Main and Analysis Windows can be added to the Journal. The Journal can be printed, and its contents can be copied and pasted into other applications. The Journal includes a table view and an editor view making it easy to organize numerical data (table view) and generate graphical reports (editor view).The Journal can be undocked and free-floating or can be re-positioned and docked in different locations on the screen.
Any two channels can be displayed in XY format, online or offline. LabScribe supports area measurements and segment slopes from such plots. And, of course, you can save the plots as pictures or text. XY windows can be undocked and free-floating or can be re-positioned and docked in different locations on the screen.
Monitor and observe functional parameters during an experiment with an array of real-time calculations and user-defined computed channels. Labscribe can calculate rates, min/max/mean values, systolic/diastolic values as well as derivatives and integrals in real-time.? A unique channel math function allows users to create their own formulae for viewing signals in real-time.
Data can be analyzed and reduced in the Analysis window. Selections of data can be averaged and written to the LabScribe Journal or directly to a text file. For example, the software can be instructed to break a file up into five-minute pieces, determine the average heart rate for the data in each segment, and write those values to a report.
Various modules have been designed to speed up and simplify the analysis of more complex sets of data. For example, our ECG module will automatically determine the location of the fiducial points of an ECG signal like the Q, R, S, T, and P waves. It will also calculate an array of parameters like based on these time points (durations, amplitudes, etc.). Analysis modules are available for many different applications including cardiovascular function (ECG, Pressure, Pressure-Volume), cognitive neuroscience (EEG), and metabolic function (O2/CO2 monitoring at rest and during exercise).
LabScribe includes a Fast Fourier Transform feature for frequency analysis of any signal.
LabScribe supports various pacing and stimulation protocols with a built-in stimulator interface which allows delivery of a single, continuous, or train of pulses. Pulse durations, frequencies and amplitudes can be changed as the protocol is being delivered. The software also offers full control of digital I/O lines that can be used to count events, or control devices in the lab environment.
A new binary file structure was introduced with LabScribe V.3 allowing for much faster loading and processing times for data files. This would, for example, be particularly beneficial for researchers who are saving considerably large data files. This might apply to investigators performing long-term telemetry studies as well as shorter protocols with large numbers of channels and high sampling rates.
All recorded data can be exported to either a text file or a picture (.png, .jpg) making reports or posters much easier to create. Of course, you can always print your data from any window at any scale.
An optional import module is available so that data acquired from other acquisition systems can be analyzed with LabScribe’s powerful analysis routines.
| Lab Title | Kit | Sensors |
|---|---|---|
| BP – Body Position Measure systolic and diastolic blood pressures using a blood pressure cuff and pulse sensor to investigate how body and arm positions affect circulation. | BIK | PTN-104, GPSN-100, BP-220 |
| Lung Volumes – Heart Rate Examine how breathing influences heart rate by measuring Respiratory Sinus Arrhythmia (RSA) at rest and during controlled breathing exercises. | BIK | SPN-304, PHRMN-100 |
| Grip Strength Measure grip strength and endurance in the dominant and non-dominant forearms using a hand dynamometer. | BIK | FT-220 |
| Breathing – Heart Rate Examine how different breathing patterns, including normal, shallow, rapid, and deep abdominal, affect heart rate. | BIK/BIA | PTN-104, RMN-204 |
| Metabolic – Thermal Response to Exercise Monitor heart rate and body temperature during progressive exercise to examine how energy expenditure, heat production, and thermoregulation change with increasing intensity. | BIK/BIA | PTN-104, TMN-100 |
| RedLight Green Light Measure reaction times to red and green light stimuli to explore how color influences sensory processing, motor responses, and decision-making. | BIA | EMN-100 |
| Flexibility and ROM Use a single-axis goniometer to measure the flexibility and range of motion of the wrist, elbow, ankle, and knee. | BIA | GNN-100 |
| Heart Sounds – Pulse Wave Record heart sounds and pulse waveforms simultaneously to analyze how mechanical valve events relate to vascular responses. | BIK/BIA | PTN-104, HSMN-300 |
| Conductivity of Solutions Measure the conductivity of strong, weak, and non-electrolyte solutions at different concentrations, exploring how ion concentration and solution type affect electrical conductance. | CEK | CMN-100 |
| Water Quality Collect water samples from various sources and measure temperature, pH, dissolved oxygen, and specific gravity to assess environmental factors affecting aquatic life. | CEK | DO2N-100E, PHN-100 |
| Humidity – Temp Observe how water temperature affects surrounding air temperature and humidity, demonstrating the link between evaporation and local atmospheric conditions. | CEK | HSN-100, TMN-100 |
| Biological Buffers Determine the buffering capabilities of various solutions by measuring pH changes when treated with a weak acid or weak base. | CEK | PHN-100, DCN-100 |
| Boyle’s Law Measure pressure changes in a syringe at different volumes and graph Pressure vs. Volume and Pressure vs. 1/Volume to visualize Boyle’s Law. | CEK | GPSN-100 |
| Beer’s Law Measure absorbance and transmittance of dye solutions at different concentrations using a colorimeter, demonstrating the relationship between concentration and light absorption. | CEK | CTSN-100 |




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