Certified LabVIEW Associate Developer Examination
Last Update November 22, 2024
Total Questions : 80
Our Clad Certification CLAD CLAD exam questions and answers cover all the topics of the latest Certified LabVIEW Associate Developer Examination exam, See the topics listed below. We also provide NI CLAD exam dumps with accurate exam content to help you prepare for the exam quickly and easily. Additionally, we offer a range of NI CLAD resources to help you understand the topics covered in the exam, such as Clad Certification CLAD video tutorials, CLAD study guides, and CLAD practice exams. With these resources, you can develop a better understanding of the topics covered in the exam and be better prepared for success.
Exam Name | Certified LabVIEW Associate Developer Examination |
Exam Code | CLAD |
Actual Exam Duration | The duration of the NI CLAD (Certified LabVIEW Associate Developer) exam is 1 hour (60 minutes). |
Expected no. of Questions in Actual Exam | 40 |
What exam is all about | The NI Certified LabVIEW Associate Developer (CLAD) exam is a certification exam designed to test the knowledge and skills of LabVIEW developers. The exam covers topics such as LabVIEW fundamentals, dataflow programming, debugging, and user interface design. It is designed to assess the ability of a LabVIEW developer to create, debug, and deploy LabVIEW applications. |
Passing Score required | The passing score required in the NI CLAD exam is 70%. |
Competency Level required | The National Instruments Certified LabVIEW Associate Developer (CLAD) exam requires a basic understanding of LabVIEW programming and the ability to create basic LabVIEW applications. The exam is designed for individuals who have completed the LabVIEW Core 1 and Core 2 courses or have equivalent experience. |
Questions Format | The NI CLAD exam consists of multiple-choice questions. |
Delivery of Exam | The NI CLAD exam is offered in two formats: online and paper-based. The online version is a computer-based exam that can be taken at any time, while the paper-based version is a traditional exam that must be taken at a designated testing center. |
Language offered | The NI CLAD exam is offered in English. |
Cost of exam | The cost of the NI CLAD exam is $125 USD. |
Target Audience | The target audience for NI CLAD is software developers, engineers, and scientists who are looking for a reliable and efficient way to develop and deploy applications for NI hardware. This includes those who are new to NI hardware and those who are experienced users. |
Average Salary in Market | According to the National Instruments website, the average salary for a Certified LabVIEW Associate Developer (CLAD) is around $70,000 per year. However, this can vary depending on factors such as location, industry, and experience. |
Testing Provider | You can visit the National Instruments website to learn more about the exam and how to register for it. Additionally, you can contact NI customer service for further assistance. |
Recommended Experience | According to the National Instruments website, the recommended experience for the NI Certified LabVIEW Associate Developer (CLAD) exam is: - 6-12 months of experience using LabVIEW - Familiarity with LabVIEW programming concepts and structures - Knowledge of LabVIEW data types and functions - Understanding of basic measurement and control concepts - Experience with LabVIEW programming environments and tools It is also recommended to take the LabVIEW Core 1 and Core 2 courses before attempting the CLAD exam. |
Prerequisite | According to the National Instruments website, the prerequisites for the NI Certified LabVIEW Associate Developer (CLAD) exam are: 1. Basic knowledge of LabVIEW programming concepts and terminology 2. Familiarity with LabVIEW environment and tools 3. Understanding of data types, structures, and arrays 4. Knowledge of LabVIEW programming constructs such as loops, case structures, and subVIs 5. Experience with LabVIEW programming for at least six months to a year It is recommended that candidates attend the LabVIEW Core 1 and Core 2 courses or have equivalent experience before taking the CLAD exam. |
Retirement (If Applicable) | You can check the official website of National Instruments or contact their customer support for more information. |
Certification Track (RoadMap): | The certification track or roadmap for the NI CLAD (Certified LabVIEW Associate Developer) exam is a guide that outlines the steps and requirements for becoming a certified LabVIEW associate developer. The roadmap typically includes the following steps: 1. Learn LabVIEW basics: This involves learning the fundamentals of LabVIEW programming, including data types, structures, loops, and functions. 2. Gain practical experience: This involves working on LabVIEW projects and gaining hands-on experience with the software. 3. Prepare for the CLAD exam: This involves studying for the CLAD exam, which tests your knowledge of LabVIEW programming. 4. Take the CLAD exam: This involves taking the CLAD exam and passing it to become a certified LabVIEW associate developer. After becoming a CLAD, you can continue to advance your LabVIEW skills and knowledge by pursuing other certifications, such as the Certified LabVIEW Developer (CLD) or Certified LabVIEW Architect (CLA) exams. |
Official Information | http://sine.ni.com/nips/cds/view/p/lang/en/nid/14438 |
Take Self-Assessment | Use NI CLAD Practice Test to Assess your preparation - Save Time and Reduce Chances of Failure |
Section | Weight | Objectives |
---|---|---|
Hardware | 10% | • Connecting Hardware: Sensors, DAQ, Devices under test (DUT. • Acquiring and validating a signal • Processing signals • Using appropriate sample rates |
LabVIEW Programming Environment | 25% | • Setting up and using a LabVIEW Project to: o Add, delete, and move elements o Use libraries and appropriate types of folders o Avoid cross-linking • Data Types: o Recognize data types on the front panel o Recognize data types on the block diagram from terminals and wires o Choose appropriate controls, indicators, data types, & functions for a given scenario • Predicting order-of-execution and behavior of o A non-looping VI o A Simple State Machine o An Event-driven UI Handler o Parallel Loops (without queues) • Using basic functions to create a simple Acquire-Analyze-Visualize application • Troubleshooting by identifying and correcting the cause of a broken arrow or incorrect data • Error handling using error clusters and merge error functions to ensure errors are handled well • Navigating LabVIEW help to get more information about inputs, outputs, and functions |
LabVIEW Programming Fundamentals | 50% | • Loops o Create continuous HW acquisition or generation loop by applying a Open-Configure-Perform Operation-Close model. o Retain data in shift registers o Use input and output terminals effectively, including: ? Determining the last value output ? Indexing input and output terminals ? Concatenating output ? Using conditional output ? Using shift registers, both initialized and uninitialized. o Use timing of loops appropriately, including: ? Software timing ? Hardware timing o Use For Loops and While Loops appropriately • Arrays o View data from an n-channel HW acquisition VI (using the DAQmx Read VI) using a waveform graph, waveform chart, or numeric/waveform array indicator. o Extract a single channel of data (waveform or 1D Array) from a: ? 1D waveform array representing acquired data from multiple channels ? 2D numeric array representing acquired data from multiple channels ? 1D numeric array representing single measurement from multiple channels o Use a For Loop with auto-indexing and conditional tunnels to: ? Iterate through an array ? Iterate processing code on each channel of data in a 1D waveform array ? Generate an array of data that meets required conditions o Identify by sight and be able to use and predict the behavior of the following array functions and VIs: ? Array Size ? Index Array ? Replace Subset ? Insert Into Array ? Delete From Array ? Initialize Array ? Build Array ? Array Subset ? Max & Min ? Sort 1D Array ? Search 1D Array ? Split 1D Array • Writing conditional code to perform an action based on the value of a user input or a measurement result. • Reading and Writing data to a file o Use Open/Act/Close model for file I/O o Write data to a text file using high-level file I/O functions o Continuously stream data to a text file or a TDMS file o Append data to an existing data file o Log data using simple VIs o Acquire data from DAQmx functions o Display data on a graph o Save data to a CSV file o Choose single measurement/multiple channel and single channel/multiple measurements configurations appropriately |
Programming Best Practices | 15% | • SubVIs – Reusing Code o Create SubVIs to increase readability and scalability of VIs o Configure the subVI connector pane using best practices o Choose appropriate code as a SubVI source • Clusters – Grouping Data of Mixed Data Types o Create, manipulate, analyze, and use cluster data in common scenarios o Group related data by creating a cluster to improve data organization and VI readability • Type Defs – Propagate Data Type Changes o Create Type Defs and use Type Defs in multiple places o Update Type Defs to propagate changes to all instances of the Type Def |