

Many of today’s production lines, such as those in manufacturing of electronics and containers, operate at very high speed. While implementing 3D sensors for quality control provides 100% inline inspection capability with high repeatability and micron-level accuracy, there’s another often forgotten sensor capability that is equally as important.
The heavy data loads generated in manufacturing environments means a 3D sensor has to be able to deliver real-time data processing.
Data Processing in Real-Time: Handling Large Data Volume
To be effective in a modern high speed assembly line, a sensor has to offer real-time measurement capabilities that deliver deterministic behavior. The sensor has to produce the same reliable and repeatable results, in the same amount of time, whether scanning for small or large data volumes.
Unfortunately most standard 3D sensor designs today rely on PC/Windows environments that offer no guarantee of real-time data delivery.
A 3D smart sensor, on the other hand, is built on dedicated hardware for high speed pixel processing and a real-time operating system for measurement and communication–– all of which is built right into the sensor itself. The result is that data is never “dropped” or lost, even under heavy data loads.
Challenge: Varying Network Traffic Latency
It is quite common to have multiple scanning solutions within equipment (sometimes even within a plant!) share the same networking resources. Processing speed becomes even more crucial in systems that require multiple sensors to cover a large field of view at high resolution or to inspect objects from multiple angles.
For this reason an effective sensor must have a built-in real-time data pipeline with multi-buffering capability. While most sensors require users to retrieve the last collected data within a very short time frame (something PC/Windows environments often cannot accomplish), today’s 3D smart sensors use multiple buffers of data that results in deterministic latency regardless of heavy computational load, or factors such as network traffic delays.
In addition, 3D smart sensors offer a distributed approach to handling large volumes of data, in which each sensor has its own embedded processor that maintains timing and solution performance as more sensors are added to the network.
Challenge: Varying Inspection Conditions
Variations in the inspection environment affect the reliability and repeatability of scan results. For example, there might be a gap in measurement data due to unexpected changes in ambient lighting, fluctuations in conveyor speed or a sudden movement that disrupts the object from its correct position on the assembly line. In addition, many systems can produce incorrect measurement results due to data loss or incorrectly timed data collection.
3D smart sensors compensate for these variations by leveraging powerful built-in part analysis and detection capability. They are able to analyze the time, position and data of each profile and in real-time combine these profiles to form an accurate 3D surface model of the parts being inspected.
LOCATION: Delta, BC
At LMI Technologies, 3D scanning and inspection is our passion. We are dedicated to developing easy-to-use solutions that increase productivity and profitability for our customers. Today, in a marketplace where technology reigns, LMI continues to shape the industry with world-class 3D scanning and inspection solutions. Our globally recognized products are fully designed, developed and manufactured in-house. LMI believes in providing a modern, flexible, results-oriented work environment that allows all employees to thrive.
Our ongoing growth has resulted in the need for an intermediate QA Tester to assist with the testing effort for our Gocator product. As a member of one of LMI's agile development teams you will work with several software engineers as well as other QA engineers to develop, document, and maintain comprehensive test cases for various software features. You will work with other members of the QA team in all activities such as requirements validation, feature testing, integration/release testing, and test automation.
Successful candidates should be professional, resourceful, and can work well autonomously yet still communicate effectively with a close-knit group of about 10 engineers.
EDUCATION & EXPERIENCE
If you are excited about the endless opportunities and growth of 3D Scanning and Sensor technology, please send your resume and cover letter to careers@lmi3d.com. We thank all those interested, however only short-listed candidates will be contacted for interviews.
This is the official Product End of Life (EOL) notice for LX Station.
The product is available for sale at the published price from the date of this notice up to and including the Last Time Buy (LTB) date.
After the LTB date, the product will be supported for repair during the Service Period, which is calculated from the LTB Date. The service period is an estimate based on component availability. Where components have become obsolete, LMI Technologies has conducted a Last Time Buy to secure inventory based on historical repair volumes.
Part Description | Part Number | Product Type | LTB Date | Service Period | Replacement Product |
LX Station | 30513 | HUB | November 31, 2016 | 1 year or November 30, 2017 |
N/A
|
TABLE 1 - Product(s) affected by this announcement and associated timelines.
NOTE: Warranties for repaired devices expire when the service period ends.
LOCATION: Delta, B.C.
At LMI Technologies, we are passionate about developing innovative 3D scanning, measurement, and data visualization technologies that solve complex problems in a simple way. We take our knowledge and experience from working in the field and connect our customers to 3D solutions that enable them to achieve better business results. Our world leading products are fully designed, developed and manufactured in house. LMI believes in providing a modern, flexible, results-oriented work environment that allows all employees to thrive.
JOB SUMMARY
Our ongoing growth has resulted in the need for a talented software developer with the desire and skill set to build applications which our customers interact with. Responsibilities will include producing feature design specifications, implementing and testing feature implementation, developing demo application software, and integrating components with large established applications. You will work with a team of other developers, QA, and Product Managers to take requirements and help bring them to life. This job has opportunities in a variety of different platforms (embedded ARM, Intel, Linux) and languages (C, C++, .Net, Javascript, python)
You should have the ability to carry out the work with little supervision but in concert with other team schedules.
REQUIRED SKILLS OR EXPERIENCE
Solid knowledge of C/C++ using Microsoft Visual Studio 2003 or higher
Experience with memory management, threading/synchronization
Experience with TCP/UDP/IP networking
Diligent documentation/reporting
Superior English communication skills - both written and verbal
Degree / Diploma in Computer Science or Electrical/Computer Engineering
3-5 years work experience in a disciplined development environment
SKILLS OF VALUE
Embedded development and code optimization for x86 and TI DSP platforms
User interface development with MFC
User interface development with CSS/HTML/Javascript 2D/3D graphics programming
Passion for leading edge technology, out of the box thinking and its challenges
Positive outlook, creative with an ability to quickly learn new concepts
Ability to work in small teams and be accountable for your performance and documentation
Unit testing experience
If you are excited about the endless opportunities and growth of 3D Scanning and Sensor technology, please send your resume and cover letter to careers@lmi3d.com . We thank all those interested, however only short-listed candidates will be contacted for interviews.
LMI Technologies was named a Finalist at the 2015 BC Export Awards, which celebrates success and innovation in BC export companies.
When planning the implementation of a 3D inspection system, one of the first questions that has to be answered is which type of 3D sensing technology to use: structured light or laser triangulation (a.k.a. laser line profiling). Ultimately, the decision should be made based on key factors related to the individual application in question.
Object Motion Considerations
Structured light is the optimal solution when the object is stationary at the point of inspection.
Structured light scanners take a sequence of images with different patterns of light projected onto the object surface in order to create a full 3D point cloud of the stationary object geometry. If the object moves significantly during the data acquisition process, errors in results can occur.
Structured Light Technology Scanning a Stationary Target
Laser line triangulation is the optimal solution when the target object is in motion, as on a conveyor or transfer line.
Laser line triangulation scanners collect a series of profiles from the laser line as the object moves past the sensor’s field-of-view. 3D smart sensors with built-in software can then be used to automatically assemble the multiple profiles into a complete 3D map of the object surface. If the object transfer speed is precisely uniform, a time-based sampling can be used. When the object transfer speed is not uniform you can eliminate errors from varying object motion speed by using an encoder to monitor part motion.
Laser Triangulation Technology Scanning a Moving Target
To simplify system integration, 3D smart sensors offer a direct encoder input and built-in software that can be configured with just a few clicks from your browser –– allowing you to select the desired profile sample spacing.
Ambient Light Considerations
Ambient light in the manufacturing environment (e.g., near windows) can vary significantly and is not subject to control. This can dramatically affect the performance of improperly designed or implemented 3D sensors and provide erroneous measurements or potentially no data at all.
How a sensor performs in ambient light conditions is especially important in applications subject to direct sunlight, such as profiling roads or digitizing 3D dimensions of logs and lumber in open mills.
In ambient light applications, high power laser triangulation sensors are the optimal solution. Lasers by definition project a very specific and narrow wavelength, which means they can use a narrow bandwidth optical filer positioned in front of the imager to effectively eliminate ambient light.
LED vs Laser Projection Safety Issues
Structured light sensors largely use LED illumination, which present no safety issues.
On the other hand, laser triangulation sensors use laser illumination, which means there is a potential risk of eye damage (depending on laser class). Higher laser power improves ambient light performance and provides shorter exposure time for higher speed scanning. However, higher laser power also increases safety concerns.
For sub-micron applications, LED structured light sensors are preferred, since laser triangulation sensors produce laser speckle that prevents scanning at the sub-micron level.
Sensor Set Up Considerations
Configuring a structured light sensor for a specific application is in some respects a simple process. The target object is stationary while parameters such as exposure, filtering and analysis settings are optimized, with a full 3D point cloud acquired in a single snapshot.
Conversely, since laser triangulation sensors require part movement, objects must be returned for each measurement sequence.
When selecting a 3D inspection system, it’s important to look at the specifications, performance and cost of the sensors. These factors, however, shouldn’t be the sole focus of your attention. You should also be aware of the “hidden” complexity and cost of cables, networking, controllers/software and external communications.
Standard Multi-Sensor Solutions: Complex and Costly
System complexity is particularly critical when considering inspection systems that require multiple sensors to cover a large field-of-view with high resolution, or to inspect objects from multiple angles.
Multiple sensor systems require a means of synchronization at the microsecond level to ensure that all sensor data is stitched precisely into a single 3D point cloud representing the target object.
In such systems, consideration must be given to the number of components required to integrate the sensors. Many 3D sensors require a separate image processing controller for each sensor, or some need a controller for each pair of sensors.
For large systems with a multitude of sensors, external controllers add significant acquisition cost and increase complexity of integration.
In addition, 3D sensors must to be able to communicate data to the facility’s control system such as a PLC (Programmable Logic Controller). Different PLCs use different languages (Modbus TCP, EtherNet/IP™, custom ASCII strings), so it’s important to make sure that the inspection device has the right connectivity option to communicate with it. If the sensors are not capable of communicating directly with the PLC, you will need to purchase a hardware module, which acts as a translator between the two systems.
Interconnecting cables for inputs, outputs, and power can add even more cost and complexity, particularly if multiple components are required in sensor implementation. If several sensors are needed for an application, this complexity can again be multiplied.
In the end, simplified cabling is preferred in multi-sensor systems because when an inspection solution requires a complicated setup of cables it leads to unstable connections, ultimately requiring more maintenance during the system’s lifecycle due to the additional componentry.
All-in-One 3D Smart Sensors: Eliminating Hidden Cost and Complexity
Implementing multiple 3D sensors into a system doesn’t have to be complicated. To simplify implementation and minimize cost, you should consider smart, all-in-one 3D sensors with image processing and networking capability included inside the sensor itself.
These network savvy, all-in-one devices form the backbone of future smart factories, powering the use of robot handling and increased automation. As networked sensors they are able to connect with factory infrastructure to report results, web browsers for diagnostics and monitoring, the Internet for upgrades, and even with other sensors to exchange or combine data.
3D smart sensors also offer a web-browser driven point-and-click environment for rapid configuration, built-in measurement and rich I/O for communicating results. And, their compact, industrial housing and simple cordset offer long cable runs and support easy mounting into factory machinery.
LOCATION: Teltow, Germany
At LMI Technologies, 3D scanning and inspection is our passion. We are dedicated to developing easy-to-use solutions that increase productivity and profitability for our customers. Today, in a marketplace where technology reigns, LMI continues to shape the industry with world-class 3D scanning and inspection solutions. Our globally recognized products are fully designed, developed and manufactured in-house. LMI believes in providing a modern, flexible, results-oriented work environment that allows all employees to thrive.
The Customer Service Representative (CSR) is responsible for establishing and maintaining customer relationships ensuring that customer needs are met. The CSR is also responsible for communicating customer requirements to the production team, providing support to our sales team through the sales process, and ensuring customer needs are met in accordance with company policies and procedures.
TYPICAL DUTIES, ACTIVITIES & RESPONSIBILITIES
Through activities such as order entry, issuing RMA’s and fielding customer inquiries the CSR will
communicate with a diverse customer base to ensure they receive a timely and professional response to
all inquiries and requests.
KEY RESPONSIBILITIES
EDUCATION AND QUALIFICATIONS
If you are excited about the endless opportunities and growth of 3D Scanning and Sensor
technology, please send your resume and cover letter to careers@lmi3d.com . We thank all those
interested, however only short-listed candidates will be contacted for interviews.
LOCATION: DELTA, BC
At LMI Technologies, 3D scanning and inspection is our passion. We are dedicated to developing easy-to-use solutions that increase productivity and profitability for our customers. Today, in a marketplace where technology reigns, LMI continues to shape the industry with world-class 3D scanning and inspection solutions. Our globally recognized products are fully designed, developed and manufactured in-house. LMI believes in providing a modern, flexible, results-oriented work environment that allows all employees to thrive.
SUMMARY
The Technologist position routinely applies their skills to assist R&D with the development of new products though the assembly, alignment, testing and verification of new product prototypes. They are responsible for documenting their findings, and delivering against goals set forth by their Team Leader. This individual is expected to already be proficient in producing sensor products, but will gain experience in defining the process through which a new product is built and introduced.
TYPICAL DUTIES, ACTIVITIES, RESPONSIBILITIES
EDUCATION AND QUALIFICATIONS
If you are excited about the endless opportunities and growth of 3D Scanning and Sensor technology, please send your resume and cover letter to careers@lmi3d.com. We thank all those interested, however only short-listed candidates will be contacted for interviews.
Gocator 2320 can reliably measure height on the challenging surfaces often found in electronics manufacturing inspection applications. This document explains how to set up the sensor to achieve height repeatability as low as +/- 5 µm.
Standard structured light 3D solutions are available in two forms: (1) component, and (2) chip-level.
Component solutions are built on 3rd party camera and illumination products, user configured for a specific field of view. Chip-level integrated structured light solutions are built on custom electronics tightly integrated and mounted into a single mechanical design.
Both approaches provide similar functionality and performance once configured and set up. There are, however, a number of important differences that we will examine below.
Cost
Acquisition cost of component solutions is always higher, in part because 3rd party products each require final packaging, product certification and sales channel costs. In addition, they require multiple cables and connectors for communications and power distribution. Component solutions have a further hidden cost in how calibration can be achieved and maintained when there is no internal knowledge of how the optical systems are designed. As a result, frequent recalibration is required due to the effects of vibration, temperature change, and ambient light changes.
Chip level integrated solutions, on the other hand, have all their electronic assemblies rigidly mounted into a single housing design optimized for optical stability. Power distribution and internal connections are also fully optimized. The result is lower overall cost and superior optical performance. Furthermore, the best of today’s chip level integrated solutions are calibrated by the manufacturer, using specifically built precision automated systems, which eliminates the need for calibration by the user. Such designs are able to maintain calibration performance despite fluctuations in temperature.
Form Factor
Form factor is particularly critical when selecting sensors that will be built into complete measuring systems, and even more critical in selecting sensors for retrofitting into existing systems. Small form factors allow for easy mounting, minimizing costs to the integrator for system modification to allow seamless sensor installation.
Component solutions typically have a larger form factor because 3rd party modules feature independent packaging and cabling requirements.
Conversely, chip level integrated sensors achieve the smallest form factor possible, since the entire assembly is designed and optimized for a single package. The difference in form factors can be significant, making chip level sensors easier to integrate into inspection systems.
Sensor Packaging
Many applications for 3D sensors involve measurement and control in factory automation. In the factory environment, sensors are exposed to dust, dirt, vibration, moisture and temperature variation.
Most component solutions have the imaging lenses and projector completely exposed, use active cooling fans, and therefore will not survive long in factory environments. If component sensors are to withstand factory conditions, they require an environmental protective enclosure, which adds cost and increases size. Plus, flexible component mounting is often subject to movement due to vibration or temperature fluctuation, which alters the sensor geometry and results in inaccurate data.
In contrast, chip-level integrated solutions can achieve IP67-rated (dust and water resistant) packaging, and are ideally suited to the factory environment with no moving parts. Lenses and projectors are protected by flat, easily cleaned windows. These solutions have all their optical components mounted on a stable spine, making them immune to vibration and temperature drift.
Conclusions
Component level solutions have limited benefits –– namely the advantage of allowing the user to configure the field of view. In contrast, chip-level integrated solutions offer a number of advantages including lower cost, small form factor, and built-in protection against harsh factory environments.
2015 was an active year for 3D technology in both consumer and industrial markets. With significant investments being made in 3D consumer scanning and a noticeable shift in interest for smarter inspection approaches, the industry is poised for an exciting transformation in 2016. For a visual journey through 2015, check out our slideshare presentation: LMI Technologies 2015 Year in Review: Smart 3D Technology in The New Industrial Age.
Growth and Innovation in the 3D Scanning Market
The growing awareness of what 3D printing can achieve has resulted in a similar interest in 3D scanning. This growth is expected to reach a market value of $3.7B by 2020.
The rise in demand for 3D scanning technology makes sense since generation of 3D point-cloud data is the key enabler behind advances in many industries driven on this data, such as reverse engineering, comparison of manufactured parts to CAD, as well as business models now driven by digitization such as dental, 3D printing of scanned objects, archival and entertainment applications, and so on.
Here are some of the key developments in 3D scanning technology in 2015:
Orbbec released Persee, a device that combines a 3D depth-perceiving camera, with an integrated ARM computer that allows it to run local applications without an external processing source.
Fuel3D created Scanify, an ergonomically-smart handheld 3D scanner for scanning, editing and sharing 3D scans of people and objects from your everyday world.
MatterPort raised $30 Million in venture capital for their $4,500 3D scanning camera aimed at the real estate market for creating immersive virtual experiences.
3D Systems released a handheld device called Sense, which is 100% compatible to its Cube desktop 3D printers.
FARO launched their FreeStyle3D handheld scanner.
As part of the growth in 3D scanning in general, 2015 also saw a long list of sensor companies working to turn your smartphone (or tablet) into a 3D scanner capable of capturing what you see in the real-world, then generating 3D scans and complete 3D models directly from your mobile device.
Here are a justy few examples of what industry-leaders are offering today’s consumer –– primarily for the purpose of generating shapies (3D printed selfies):
Bevel offers a $50 compact laser generator that plugs into your smartphone or tablet for taking 3D scans using triangulation application software.
Eora’s 3D scanning device plugs into your smartphone and can be used as a laser scanner for face modeling, 3D model sharing, and 3D printing.
Structure Sensors provides a compact plug-in sensor for your smart devices such as tablets, offering 3D scans, 3D mapping, and mixed reality experiences.
Intel® RealSense™ introduces the next level in perceptual computing with a camera that sees more like the human eye, with the ability to respond to movement in three dimensions.
Developer ItSeez3D releases a mobile 3D scanning app for Intel RealSense that allows users to easily take photorealistic 3D scans and create models that can be shared on social media or 3D printed.
Driven by the success of Kinect and built for simplicity, ease-of-use, interactivity and portability, these products are introducing the value of 3D scanning technology to the living rooms of tech enthusiasts around the world.
“Smart” is More Important than Ever
There’s been a lot of buzz in the past year around the terms “3D smart sensor” and “smart factory”. But what does “smart” really mean? Is it just more meaningless industry jargon?
We think “smart 3D” is the new playing field much like how 2D smart cameras simplified traditional component-based machine vision solutions a decade ago.
"Smart" refers to going beyond acquisition. Smart products take a 3D point cloud and manipulate this data to build greater value. For inspection, “smart” means measuring key features and making a pass/fail decision. For scanning, “smart” means stitching multiple views, filling holes, and building complete watertight 3D models ready to print. In short, “Smart" builds on proven 3D scanning engines to offer greater value (e.g. speed, all-in-one, extensibility, ease-of-use, scalability, communication, multi-sensor synchronization, mixing 2D with 3D, etc).
Which leads us to the term “smart factory”:
“The terms “Smart Factory,” “Smart Manufacturing,” “Intelligent Factory” and “Factory of the Future” all describe a vision of what industrial production will look like in the future. In this vision, the Smart Factory will be much more intelligent, flexible and dynamic.
Manufacturing processes will be organized differently, with entire production chains – from suppliers to logistics to the life cycle management of a product – closely connected across corporate boundaries.” (Heather McKenzie, The Smart Factory of the Future)
Manufacturers have already begun moving toward more efficient, flexible, scalable and networkable smart factories, and 2015 made it more apparent than ever that 3D smart sensors will play an integral role in powering this new industrial revolution. The two concepts fit tightly together to deliver on the promise of full factory automation in the future driven by robot handling.
In Retrospect
All-in-all, 2015 was a year of greater awareness for 3D scanning and its applications. Continued growth in the market, the increasing importance of “smart” sensor design to enabling further factory automation, and the notable rise of 3D technology for consumers is creating larger acceptance and further inroads for 3D technology in general. We look forward to seeing what the future has in store in 2016!
For a visual journey through 2015, check out our slideshare presentation: LMI Technologies 2015 Year in Review: Smart 3D Technology in The New Industrial Age.
Single Snapshots with Structured Light
Structured light 3D scanners digitize full-field point cloud data from targets by projecting several light patterns in a rapid sequence onto the target with a single snapshot. These scanners can be mounted on robots for flexible inspection applications, or to inspect larger objects by taking multiple snapshots in zones. To capture a complete set of 3D point cloud data, the scan target has to remain stationary during the camera exposure of these structured light patterns.
Single snapshot technology makes data acquisition significantly faster than laser line scanners that have to pass over the scan target gradually. In order to determine if structured light solutions will keep up with factory production rates, scanner cycle times need to be assessed.
Cycle Times of Structured Light Inspection
Structured light scanners will acquire a full frame 3D scan in around 0.5 seconds, depending on the shape, color, and reflectiveness of the target. An additional 3.5-4.5 seconds are required for analysis and production of a full 3D point cloud, resulting in one complete inspection in 4-5 seconds.
Note, however, that the target need only be stationary for the approximately 0.5 seconds of the snapshot acquisition time. Similarly, a robot-mounted sensor must also be stationary during the snapshot acquisition. The part transport mechanism, or robot, can be in motion to the next station or position during the analysis time.
Current technological developments aim to reduce structured light scanner total cycle times to 2 seconds.
If 3D structured light scanning does not meet your production rates, consider inspection with laser line profiling sensors, which can measure profiles at 2 to 5kHz. Profile sensors require targets to be in motion, such as on a conveyor or other transport mechanism and can accommodate very high-speed production lines.
To ensure highest quality and lowest scrap in rubber and tire production, leading manufacturers deploy 3D sensing throughout the production process. Sensors are used in process to guide components to optimal location during layup operations, to monitor profiles of extrusions and to ensure splices are correct. In-process monitoring and control provide rapid feedback to quickly respond to process variations, reducing scrap and ensuring top quality final product. In final tire uniformity inspection, typically three 3D sensors are implemented, two measuring sidewalls for geometry and defects such as bulges or dents, with the third monitoring tread radius and run out.
The proliferation of 3D sensors throughout the rubber and tire manufacturing process provides assurance of quality at all stages of fabrication. However, this can come at significant cost to both the system integrator and end user if different types of sensors are used for each application.
Each type of sensor requires acquisition and stocking of spare parts and cables. Integrators must develop communications with each type of sensor, and must also become familiar with each sensors user interface. Users must train operators on sensor configuration and parameter setting for all elements of their model mix.
Cost and complexity, as well as the learning curve, can be minimized by use of a single sensor type throughout the enterprise. Even further simplification can be achieved by implementation of smart all-in-one sensors, which have image processing and control functions inside the sensor, eliminating the need for external processors or software development.
Even simpler is the use of 3D sensors with built in measurement tools and a web browser user interface for easy setup and control. Built-in measurement tools eliminate the need for measurement software development by the integrator. The smartest of today's 3D sensors even include measurement tools for strip and groove dimensions and positions, specifically developed for rubber and tire applications.
Applying 3D sensor technology to both in-process and final inspection ensures best quality product and minimum scrap cost. Implementation of common 3D sensor technology throughout the tire manufacturing enterprise provides the most cost effective means of achieving these goals.
At LMI Technologies, 3D scanning and inspection is our passion. We are dedicated to developing easy-to-use solutions that increase productivity and profitability for our customers. Today, in a marketplace where technology reigns, LMI continues to shape the industry with world-class 3D scanning and inspection solutions. Our globally recognized products are fully designed, developed and manufactured in-house. LMI believes in providing a modern, flexible, results-oriented work environment that allows all employees to thrive.
JOB OVERVIEW
Reporting to the Regional Development Manager, the Field Application Engineer (FAE) will apply product knowledge of LMI sensors and networking products to support sales activities at a technical level. The FAE works closely with customers to resolve technical issues as well as interact with sales team members to support successful sales outcomes. Activities include timely response to application testing, code snippet development, troubleshooting, travelling with sales reps to assess the technical requirements of customers, recommending appropriate product solutions, and general support of the sales process to grow business for the region.
RESPONSIBILITIES
QUALIFICATIONS
If you are excited about the endless opportunities and growth of 3D Scanning and Sensor technology, please send your resume and cover letter to careers@lmi3d.com . We thank all those interested, however only short-listed and local candidates will be contacted for interviews.
LOCATION: Shanghai, China
At LMI Technologies, 3D scanning and inspection is our passion. We are dedicated to developing easy-to-use solutions that increase productivity and profitability for our customers. Today, in a marketplace where technology reigns, LMI continues to shape the industry with world-class 3D scanning and inspection solutions. Our globally recognized products are fully designed, developed and manufactured in-house. LMI believes in providing a modern, flexible, results-oriented work environment that allows all employees to thrive.
OVERVIEW
Are you looking for the opportunity to use your technical sales and relationship building skills to contribute to the growth of one of the leading 3D sensors companies? Working closely with and reporting directly to a Regional Development Manager (RDM), the incumbent will be responsible for developing new business and creating sales opportunities while developing the LMI brand. With a primary focus on new account development, your role will include working with existing key accounts where you will expand and strengthen our position in our market place within your territory. You will have the opportunity to collaborate with others in our international sales team to learn about how our technology is utilized and sold into various applications, and how it is brought to market through our Product Management group.
This full time position will be responsible for developing and managing Original Equipment Manufacturer (OEM), System Integrator (SI), End User and Distributor accounts. The successful candidate will have a proven ability for developing excellent customer relationships to deliver value to our clients and our organization.
RESPONSIBILITIES
SKILLS OF VALUE
If you are excited about the endless opportunities and growth of 3D Scanning and Sensor technology, please send your resume and cover letter to careers@lmi3d.com . We thank all those interested, however only short-listed and local candidates will be contacted for interviews.
LOCATION: Shenzen, China
At LMI Technologies, 3D scanning and inspection is our passion. We are dedicated to developing easy-to-use solutions that increase productivity and profitability for our customers. Today, in a marketplace where technology reigns, LMI continues to shape the industry with world-class 3D scanning and inspection solutions. Our globally recognized products are fully designed, developed and manufactured in-house. LMI believes in providing a modern, flexible, results-oriented work environment that allows all employees to thrive.
OVERVIEW
Are you looking for the opportunity to use your technical sales and relationship building skills to contribute to the growth of one of the leading 3D sensors companies? Working closely with and reporting directly to a Regional Development Manager (RDM), the incumbent will be responsible for developing new business and creating sales opportunities while developing the LMI brand. With a primary focus on new account development, your role will include working with existing key accounts where you will expand and strengthen our position in our market place within your territory. You will have the opportunity to collaborate with others in our international sales team to learn about how our technology is utilized and sold into various applications, and how it is brought to market through our Product Management group.
This full time position will be responsible for developing and managing Original Equipment Manufacturer (OEM), System Integrator (SI), End User and Distributor accounts. The successful candidate will have a proven ability for developing excellent customer relationships to deliver value to our clients and our organization.
RESPONSIBILITIES
SKILLS OF VALUE
If you are excited about the endless opportunities and growth of 3D Scanning and Sensor technology, please send your resume and cover letter to careers@lmi3d.com . We thank all those interested, however only short-listed and local candidates will be contacted for interviews.
LOCATION: Berlin, Germany
At LMI Technologies, 3D scanning and inspection is our passion. We are dedicated to developing easy-to-use solutions that increase productivity and profitability for our customers. Today, in a marketplace where technology reigns, LMI continues to shape the industry with world-class 3D scanning and inspection solutions. Our globally recognized products are fully designed, developed and manufactured in-house. LMI believes in providing a modern, flexible, results-oriented work environment that allows all employees to thrive.
OVERVIEW
Are you looking for the opportunity to use your technical sales and relationship building skills to contribute to the growth of one of the leading 3D sensors companies? Working closely with and reporting directly to a Regional Development Manager (RDM), the incumbent will be responsible for developing new business and creating sales opportunities while developing the LMI brand. With a primary focus on new account development, your role will include working with existing key accounts where you will expand and strengthen our position in our market place within your territory. You will have the opportunity to collaborate with others in our international sales team to learn about how our technology is utilized and sold into various applications, and how it is brought to market through our Product Management group.
This full time position will be responsible for developing and managing Original Equipment Manufacturer (OEM), System Integrator (SI), End User and Distributor accounts. The successful candidate will have a proven ability for developing excellent customer relationships to deliver value to our clients and our organization.
RESPONSIBILITIES
SKILLS OF VALUE
If you are excited about the endless opportunities and growth of 3D Scanning and Sensor technology, please send your resume and cover letter to careers@lmi3d.com . We thank all those interested, however only short-listed and local candidates will be contacted for interviews.
LOCATION: Delta, B.C.
At LMI Technologies, we are passionate about developing innovative 3D scanning, measurement, and data visualization technologies that solve complex problems in a simple way. We take our knowledge and experience from working in the field and connect our customers to 3D solutions that enable them to achieve better business results. We build our products from the ground up; from concept, design, to manufacturing. With offices worldwide, we are committed to delivering the best 3D sensors, 3D smart sensors, and 3D scanners for our clients.
JOB SUMMARY
In this dynamic, fast paced environment, the Controller is responsible for managing the overall direction of the Finance team, ensuring effective processes and procedures, accurate and timely financial information, analysis and reporting, to support decision making throughout the company. Enhance the Company’s performance and value by working closely with the senior management team in the analysis, evaluation, and planning related to its global operations. You are a hands-on, forward thinking individual, to help us drive and implement positive energy and change into our financial accounting and reporting processes.
DUTIES AND RESPONSBILITIES
ABILITIES/ SKILLS/ KNOWLEDGE
EDUCATION/ TRAINING
EXPERIENCE
If you are excited about the endless opportunities and growth of 3D Scanning and Sensor technology, please send your resume and cover letter to careers@lmi3d.com . We thank all those interested, however only short-listed will be contacted for interviews.