LemnaTec Brochure

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NEW

life science research high-throughput screening plant functional genomics ecotoxicology high-content screening

ing > Field Phenotyp rescence – o u fl n o ti lu o s re > High activity II S P r fo m F / v F imaging l a tr c e p rs e p y H >

cell analysis colony counting drug discovery quality control

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The challenges LemnaTec’s ambition is to reproducibly quantify human vision on organisms. Therefore the LemnaTec scan­ alyzer platform generates digital images in a wide range of wavelengths – far beyond human vision. The LemnaTec software automatically analyses these images, resulting in a Dipl. Biol. Dirk Vandenhirtz CEO

considerable number of quantitative visual parameters. LemnaTec develops imaging and automated plant management as well as plant treatment systems, image

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analysis and data handling modules and also strategies to meet the needs of today’s research and industry. We enable customers to

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design and develop products suitable for future challenges.

The targets LemnaTec’s team of scientists develops

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join the mission

hard- and software solutions for highthroughput and high-content screening of plants, seedlings, insects and other organisms and for the automated evaluation of bio tests in ecotoxicology. Digital images are primarily taken by the scanalyzer systems PL, HTS, Field and 3D, all set up in a modular design. Using advanced LemnaTec image processing algorithms, every visible sample parameter (e. g. colour, shape, size, architecture) is subsequently measured and correlated with experimental records (e. g. genetic data). Our aim: to visualise and analyse the biology beyond human vision.


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The tools – hardware

The tools – software

scanalyzer3D manual loaded imaging units with top and side imaging capabilities for 3D plant phenotyping

LemnaLauncher universal interface for machine/analysis/database management of all scanalyzer systems

scanalyzer3D HT automatic imaging and transport of plants in greenhouses and growth chambers, combined with watering and spraying systems, providing standardised growth conditions and non-destructive daily measurements

LemnaControl control center for imaging and plant/data handling, robots and greenhouse or growth chamber logistics

scanalyzerfield a wide range of choices for the quantitative, nondestructive analysis of different crops or model plants in field conditions scanalyzerHTS high-throughput, high-content screening for agricultural, phenotypical and pharmaceutical purposes scanalyzerPL the basic system for all quantitative biological imaging – from ecotoxicology and small plant analysis to colony counting and seed analysis

LemnaGrid highly flexible image analysis development kit for advanced imaging tasks LemnaMiner data mining and data correlation tool to generate biologically relevant information LemnaBase data handling medium offering consistent and adequate data storage of up to 100 terabyte LemnaShare supervised exchange platform for LemnaTec image analysis grids

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Accelerating plant phenomics LemnaTec scanalyzer3D systems open new prospects for the quantitative, non-destructive analysis of different crops or model plants under high-throughput conditions. Each plant is imaged sequentially in multiple scanalyzer3D camera units, employing different wavelengths that reach far beyond human vision. The result is an unprecedented number of reproducible and significant data points on any aspect of plant development. Data will be collected continuously and recorded in one snapshot per run through the

scanalyzer

3D

­scanalyzer3D, thus routinely producing 15 or more images and several hundred data points per plant and run. Plants are imaged in multiple runs throughout their entire life cycle. All data is available in the database within minutes of imaging – for unparalleled monitoring of dynamic plant development. Comprehensive quantitative representation of plants in datasets generates special data for physiological and genetic plant modeling to identify and quantify the concealed parameters that really control plant development. Such deep insights into plant biology accelerate phenomics and enable plant breeding to deal with the challenges of the 21st century by measuring dynamic data in relatively early stages of plant growth.

1.

Scanning – infrared light

With infrared light, high-throughput 3-D imaging systems provide a unique chance to quantify temperature differences (e. g. within leaves and between plants).


2.

3.

4.

1. 2.

Scanning – visible light

High-resolution colour images taken from the top and several sides under reproducible illumination conditions provide the best basis for comprehensive phenotyping.

3.

Scanning – near infrared light for roots

Humidity visualisation in root columns by near infrared light provides added information on spatial root performances of plants under high-throughput conditions.

4.

Scanning – near infrared light

Visualisation of water distribution and dynamics (1450-1550 nm) as well as further NIR-absorbing ingredients.

5.

Scanning – fluorescent light

Using blue light large field excitation (< 500 nm) in back/top light conditions visualises any related fluorescence between 520 and 750 nm (GFP, phenolics, etc).

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5.


Fv/Fm for PSII activity

Photosynthesis Fluorescent Imaging LemnaTec is pleased to announce the release of its new highthroughput imaging technology for physiologically related measurements of photosynthesis. The measurement principle is based on imaging the Kautsky induction or fast chlorophyll fluorescence induction curve of photosynthesis using one high intensity light pulse for 1 – 3 s.

control

drought stressed

Unlike some other technologies, LemnaTec is able to provide a technology solution that combines fast and efficient high-throughput screening of photosynthetic activity with flexibility to offer: n

Whole plants of different sizes imaged remotely and yielding low noise at high resolution images

n

dark adapted: no significant effect

Dark and light adapted plant measurements protocols including adaption tunnels

n

Measurements tolerant to leaf angle for side and top imaging in high throughput applications

n

LED flash ranging up to 5000 µmol/m²s to measure even under high light adaptation

light adapted: significant effect


Hyperspectral imaging is a technology widely used for remote imaging, in an effort to extract a maximum of information out of images made under strongly varying imaging conditions, caused by the variability of the sunlight and changing atmospheric conditions.

Hyperspec= High Spectral and Spatial Resolution one pixel

=

n

1 spatial pixel measured at up to 930 wavelengths

n

Each Pixel contains a continous spectrum that is

Image [Y]

used to identify the condition of the plant or fruit Image

[X]

n -1 Wavenumber [cm ]

Multi-Disciplinary Research Applications n

State of the art camera

n

Retrofit to all existing scanalyzer3D and scanalyzer HTS possible

n

Optimised for visible and near infrared applications

E.g.: Optimised spectral detail in Chlorophyll red band for more accurate classifications

hyperspec imaging

Hyperspec Imaging

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9 8 7 6 5 11380

4

5830 1702

5992

scanalyzer

3D HT

Enhancing the statistical power  of greenhouse and  growth room  trials


15 14 13 12 11 10

LemnaTec scanalyzer3D HT systems open new prospects for the quantitative, nondestructive analysis of different crops or model plants under high-throughput conditions. Each plant is transported automatically to multiple scanalyzer3D imaging units using high quality conveyor belt systems. The result is an unprecedented number of reproducible and significant data points on any aspect of plant development without any human interaction required. LemnaTec’s high denng Scale and wateri station

sity plant carrier system also provides options to equip growth rooms with scanalyzer3D HT systems to achieve full control of environmental conditions and significantly reduced experimental variability.

Watering and weighing systems The LemnaTec plant conveyor system includes the provision of high-precision Spray station

and controlled watering – it is geared to each individual plant’s requirements (watering based on pot weight which is related to soil moisture) allowing researchers to impose many kinds of saline stress or drought stress regime.

Spraying cabinets LemnaTec’s comprehensive approach to plant management with its conveyor system includes further options including spray cabinets for pest management

or growth chamber. Special spray tables for manual spraying allows even plant

Foot pedale

tem minimise spreading of the active ingredients within the whole greenhouse

station

with commercial pesticides where low-drift nozzles and an efficent exhaust sys-

specific treatment with pesticides or test solutions avoiding cross contamination to other plants (e. g. non-treatment controls). Page 9


scanalyzer field – Phenotype   your crops under field conditions Field phenotyping is the classical strategy to assess qualitatively and quantitatively

scanalyzer

field

agronomical important traits for field-grown plants. Many assessment methods are based on direct visual assessment or the manual use of portable measurement units. Considering the increasing amount of non-destructive, image-based measurement systems that have become available in the last few years, the scanalyzerfield provides the new option to acquire a wide range of image based data both with spatial and temporal resolution quantifying how large numbers of plants react individually on the highly dynamic environmental conditions in the field.

Precision Robotics –   Imaging sensors include: n

Visible light

n

Multispectral imaging

n

Near infrared (water imaging)

n

Fluorescence

n

Infrared (heat imaging)

n

Laser height profiling


Multi-Disciplinary Research Applications Designed for non-destructive digital phenotyping in rain-out shelters, lysimeter systems and small plot phenotyping, the scanalyzerfield offers superb precision, accuracy, resolution and predictive capabilities for research in: n

Small plots for prebreeding

n

Growth assessment

n

Development of fine-tuned crop models

n

Crop physiology

n

Highly dynamic plant stress testing

n

Climate change

such as drought stress

n

Water use efficiency, soil water

n

High resolution phenotyping as reference for remote sensing

content, waterlogging n

QTL analysis

Quality Engineering for field conditions Hence, the scanalyzerfield has the following features allowing digital phenotyping of a multitude of crops, small trees and plants in specialized containers: n n

Width up to 10 m

n

Durable construction Minimised shading effects Reproducible 3D positioning for

Length up to 40 m

n

n

Height up to 6 m

n

n

Other custom sizes are also available

cameras, scanners and sensors.

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Small plant phenotyping The scanalyzerHTS is the best option for the analysis of small plants in multiwell plates or trays in specific growth chambers. The closed cabinet – containing backlight/direct or diffuse top light illumination as well as fluorescent imaging with blue light excitation – guarantees reproducible imaging conditions for all camera types provided by LemnaTec (VIS, NIR, IR, and Fluorescence). Positioning can be easily exchanged to accommodate varying plant containers and illumination types. Zoom lens systems allow imaging of fully grown Arabidopsis rosettes or complete multiwell plates/6 wells of a 96-well plate. Precise camera movement and automated tray identification by barcode enable the reliable identification of individual plants.

3-D laser scans provide further information about plant height profiles. While the scanalyzerHTS is designed as a measurement instrument,

scanalyzer

HTS

­customised solutions may be placed in growth chambers.


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High content & high throughput: screening for basic research, pharmaceutical trials and plant protection

scanalyzerHTS – high-throughput screening in perfection The LemnaTec scanalyzerHTS is the preferred platform for highthroughput screening of leaf disk assays, fungi, insects or small aquatic/terrestrial organisms such as mosquito larvae or nematodes of fish embryos. All four LemnaTec camera systems (Visible, Fluorescence, Infrared, Near Infrared) and height scanning can be applied to achieve even more detailed, single-well scanning for high-resolution growth analysis. Depending on the number and type of samples the cameras move over an array of up to 84 multiwell plates, achieving an assessment of up to 8064 different samples in one run. Additionally available robots store plates or place them in different functional locations.


isms. The observation time for each well ranges from seconds to minutes, depending on organism velocity. Movement patterns and the localisation/intensity of the movement can be quantified. Repeated measurement runs allow quantification of movement development over time, which is particularly useful for fast developing organisms (fish embryos). In all cases static image information is combined with movement information to assign movement patterns to single organisms.

scanalyzer

scanalyzerHTS provides unique opportunities to simultaneously observe large numbers of small moving organ-

HTS

Analysing movement of small organisms

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scanalyzer

PL

Low throughput, but   a great deal of options For all low-throughput applications with manual sample exchange, the scanalyzerPL combines compact design and reproducible imaging techniques with the comprehensive control of the Lemna­Launcher software. Test containers may range from beakers for ecotoxicity to trays with plants, smaller plants in pots or even highly reflecting fruits. Depending on the test purpose, different camera types with specific illumination systems can be mounted. The benchtop platform is available with different back and top light modules.


Camera Specifications Sensor Size

Sensitivity

VIS Camera

2448 x 2050 pixels

380 – 740 nm

Vis (High Res.) Camera

6576 x 3484 pixels

380 – 740 nm

Flu-GFP Camera

1392 x 1040 pixels

510 – 740 nm

Flu-PSII Camera

1388 x 964 pixels

680 – 900 nm

NIR Camera

640 x 512 pixels

900 – 1700 nm

IR Camera

320 x 240 pixels

8 – 14 µm

2560 x 2160 pixels

VIS, NIR

Hyperspec Camera

Spectral sensitivity NIR-Camera

camera specifications

LemnaTec scanning – The optimum in automated biological imaging

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software architecture

linking data acquisition with analysis, creating and optimising

LemnaLauncher

LemnaControl

LemnaBase

LemnaLauncher to all LemnaTec software products across the entire product range. All research

LemnaControl

images, analysis results and meta data are accessible within LemnaLauncher

Monitoring the fully integrated automati-

and are specific for the individuals product configuration and image analysis

sation of all LemnaTec scanalyzer systems

This comprehensive and intuitive interface is the main framework granting access

settings. This provides complete data management and ultimately a measure of quality assurance. Integration of all software modules provides a complete

LemnaControl is the tool to regulate and moni-

digital phenotyping workflow – from data acquisition to image analysis to sta-

tor all appropriate system components includ-

tistical result presentation in LemnaMiner. Additionally, continuous processes

ing cameras, conveyors, robotics, illumination

accelerates result generation and analysis without human input, guaranteeing

and thus enable trained users, with or without

maximum data integrity.

any technical background to use the system. LemnaControl enables the user to initiate an experimental run on the LemnaTec scanalyzer rapidly and easily. An experimental run produces all data including images, watering, weight information and stores them into the database.


data flows

LemnaVision

LemnaLauncher

LemnaBase

LemnaVision

Convenient data storage

Supervise the system

and backup solutions

from anywhere

The core database structure based on Oracle or

To supervise the LemnaTec scanalyzer Platforms

Linux PostgreSQL technology can handle data-

remotely from outside the greenhouse or the

sets of up to 100 TB. The open interface allows

growth room, dedicated power over Ethernet

direct integration into any LIMS environment.

camera solutions can be used in combination

Combining a minimum of access time and a

with LemnaVision. LemnaVision enables the

maximum of transparency, LemnaBase ensures

user to watch and record multiple live streams

the quality and lasting value of all acquired

at the same time on different PCs, iPhones/

data and related parameters.

iPads or on dedicated displays in public areas.

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LemnaMiner

LemnaGrid

analysis network and accelerate image processing

LemnaShare

LemnaGrid Image Processing without programming knowledge LemnaGrid is the image analysis tool to address the specific needs in phenotyping with a maximum amount of flexibility. The image analysis is graphically represented as a process chain and can be subsequently saved as a

software

LemnaTec image analysis grid. Once the chain is complete it can be used to automatically analyze all images of an experiment in the background.


LemnaMiner

LemnaShare

LemnaMiner

Exchange knowledge with

Data extraction with a

users worldwide

user friendly interface LemnaMiner

LemnaGrid image analysis grids can be

The LemnaMiner software module

supplied online, as well as shared and

enables the researcher to display,

exchanged, by using the LemnaGrid ex-

filter and export resulting data from

change interface. The incoming grids,

LemnaGrid to correlate it with other

transferred to LemnaShare by the users,

experimental data and transform it

are validated and classified by LemnaTec

into biological relavant information. To

to be used by all customers as a basis

ensure data integrity within the data-

for their own work or other ready-to-use

base, LemnaMiner saves a local copy

solutions. Thus the risk of double devel-

of the queried results in a SQLite File

opments is minimised and the ongoing

on the workstation.

LemnaMiner

process of extracting increasingly relevant biological data from images can be accelerated.

LemnaGrid

LemnaShare

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applications

get phenotyping up to speed

Application examples for the scanalyzer image analysis The highly flexible and easily customisable software framework covers a wide range of applications.

Plant phenotyping & functional genomics Non-destructive, multispectral plant imaging and comprehensive control of water

Colony counting & cell analysis

evaporation/supply allow optimal assessment of GxE impact on phenotypes under

Colony counting and automatic documentation is

stress or natural field conditions.

getting increasingly important for food, beverage

Breeding of new traits

and pharmaceutical products.

Quantitative phenotype assessment of seed collections/crossing programmes guaran-

Ecotoxicology

tees fast data access, even with complex traits such as drought tolerance.

LemnaTec provides comprehensive imaging solu-

High-content & high-throughput screening Multi-parameter assessment of a wide range of organisms and assay types across thou-

tions for standardised and research tests (duckweed, daphnids, nematodes), thus maximising the quality of test results.

sands of samples provides a reliable basis for agrochemical/pharmaceutical screening.

Life science research & drug discovery

Quality control All scanalyzer hard- and software modules can be

Assessment of small organisms (nematodes, fish eggs, parasites) and cell cultures – new

customised to target most quality control solutions

prospects for the screening of active ingredients and pharmacological key structures.

in agricultural or pharmaceutical applications.


Correlation   to manual   measurement

Pixel Count

Growth Plot 80 000 70 000 60 000

FAAA02

FCAA02

FHAA01

FBAA04

FEAA03

FJAA03

50 000 40 000

The Lemnatec scanalyzer systems provide

30 000

powerful predictive capabilities that are

20 000

strongly correlated to manual measure-

10 000

ments but enable research to do high

0 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .03 2.03 3.03 4.03 5.03 6.03 7.03 8.03 9.03 0.03 1.03 4.04 5.04 6.04 7.04 8.04 9.04 0.04 1.04 2.04 4.04 5.04 6.04 7.04 8.04 9.04 0.04 1.04 2.04 3.04 4.04 5.04 6.04 2 2 2 2 2 2 2 2 3 3 0 0 0 0 0 0 1 1 1 1 1 1 1 1 1 2 2 2 2 2 2 2

throughput screening for thousands of

21

Day after sowing

assays. measure-

ments like fresh weight, size or number of leaves to digital phenotyping parameters correlations of up to 95 % can be

Correlation Study Object Length

When comparing traditional

2500 2000 1500

established. Appropriate data analysis and data modeling can help to establish correlations between growth rates and

1000 500

field yield of up to 75 % within the first 5 weeks.

0

0

20

40

60

80

100

120

140

160

180

200

Plant Height [cm]

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Concept & Design by www.v-werk.de

www.lemnatec.com LemnaTec GmbH Pascalstr. 59 52076 Aachen Germany

Web: www.lemnatec.com Mail: info@lemnatec.com Tel.: +49 (0) 24 08 / 93 83-0 Fax: +49 (0) 24 08 / 93 83-100


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