Living tissues technologies REGEMAT 3D BIO V1
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Extrusión / injection syringes Filament extruder Printing bed Heated /Cooled

Cooled syringe

Temperature drop in the material through a heat exchanger. Controlled temperature range from -20 to 100ºC

Heated syringe

Heating through electric system and heat uniform distribution with electronic control of created filament. Controllable temperature range from 0 to 100ºC

Bicomponent syringe

Simultaneous two blended material extrusión for producing homogeneous compose.

Filament extruder

Filament casting system (thermoplastics) to create scaffolds layer by layer.

Printing bed Heated /Cooled

Uniform heating system on the whole surface to maintain a stable temperature. Heated 0 to 120ºC / Cooled -20 to 100ºC. Adapted to Petri dish and multiwell plate

Positioning system X, Y, Z Exchangeable and adaptable syringes Manual purge system Syringe adaptor module Extrusión diameter

Positioning system X, Y, Z

Mechanical gripping in X, Y, Z resolution X, Y 1,875 µ and 400nm in Z

Extrusión diameter

0,20 mm – 0,40 mm

Exchangeable and adaptable syringes

It´s possible to work with syringes made on: Metals, glass, polyethene, polypropylene and several diameters 0,15, 0,58, 1,2 mm…

Syringe adaptor module

Adaptor for light-curing systems UV/Blue ligth

From researchers to researchers

About Regemat

Regemat 3D makes available to research and science a technology tailormade designed what born to integrate the advantages of the additive manufacturing with tissue engineering and applied to the regenerative medicine.

The customized configuration of each bioprinter taking into account the specific application, and our engineer team supporting, make possible day by day, the achieving of reliable results, which facilitates each research path.

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News, events and more News

USERS OPINIONS

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Efficient and versatile

Regemat 3D has developed an efficient and versatile 3D bioprinter. We are using several of its systems in collaboration with the project developed by Cloud Science and the Laboratory of Biomaterials and Bioengineering and Professor Diego Mantovani of the University of Laval, (Quebec City, Canada). We value all the time that the Regemat team has spent with us, understanding our needs and challenges that we face in our research group. Support is constant and close.

Sebastian Meghezi y Diego Mantovani

Researcher at the University of Laval, Quebec, Canada Professor and Research Chair of Canada
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Closeness and professionalism

We decided to go for Regemat 3D for two main reasons: the closeness and professionalism of its technical team and the personalization of the bioprinter to our technical requirements. In our research group we work in various tissue engineering applications, therefore, we needed a modular system that was adapted to our needs each time.

We are printing different drugs with synthetic and natural polymers for various applications such as cancer therapy, and tissue engineering. Thank you for all your supports.

Saeid Vakilian

Biomedical engineer University of Nizwa, Omán
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Big results

We were one of the first research groups to acquire a personalized REGEMAT 3D bioprinter and we are very happy to continue working today with such a professional team. They constantly support us solving any technical question. The system is very versatile and has allowed us to achieve great results in publishing our latest paper on bioink development.

Soraya Salinas

PhD student at G.I.R BIOFORGE
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Efficient and versatile

Regemat 3D has developed an efficient and versatile 3D bioprinter. We are using several of its systems in collaboration with the project developed by Cloud Science and the Laboratory of Biomaterials and Bioengineering and Professor Diego Mantovani of the University of Laval, (Quebec City, Canada). We value all the time that the Regemat team has spent with us, understanding our needs and challenges that we face in our research group. Support is constant and close.

Sebastian Meghezi y Diego Mantovani

Researcher at the University of Laval, Quebec, Canada Professor and Research Chair of Canada
5

Our awards Awards

2015 First prize AUPA Fundecor II Edition

Honor date Dec 2015 Honor FUNDECOR

2016 Prize of the Social Council of the University of Granada

Honor date Sep 2016 honor La Caixa and Enisa

Entrepreneur XXI Andalucía award

Honor date Sep 2016 honor La Caixa and Enisa

Entrepreneur XXI Andalucía award

Honor date Sep 2016 honor La Caixa and Enisa

2016 Prize of the Social Council of the University of Granada

Honor date Sep 2016 honor La Caixa and Enisa

2015 First prize AUPA Fundecor II Edition

Honor date Dec 2015 Honor FUNDECOR

Do you have any doubt? Contact & faq’s

    What configuration do I need for my application?

    There is no bioprinter for all applications, each tissue or material requires a specific configuration even if there are common configurations for various types of tissues. Here are some possible configurations

    1. Skin application : The module with heated syringe which permits to reach temperatures up to 50ºC is recommended normally (by default on V1 and V2). The bioprinter configuration allows to install up to two heated syringes per bioprinter. Additionally, Petri dish or Multiwell adapter has allowed our collaborators to achieve amazing results in this area of research.

    2. Application for biomaterials development. . We recommend working with a heated or cooled module to achieve a greater temperature range. If temperatures below 0 are required, the cooling system (syringe, bed and refrigerator) with temperatures from -20 to 100ºC must be added..

    The equipment configuration allows working with materials of different viscosity ranges.

    The equipment can be configured with a two-component syringe system to achieve a homogeneous mix of two materials during the printing process..

    It is also possible to include a UV curing module or blue light for crosslinking for those materials that require it..

    3. Cardiac tissue regeneration application: : Cardiac tissue regeneration application: The collaborators who work in this research area require temperature control below 0ºC on the printing surface, in the same way they require precise control of the syringe temperature. Therefore, the ideal configuration is the installation of refrigerated bed, refrigerated syringe and refrigeration system, which will allow to control temperature ranges between -20 and 100ºC both in the bed and in the syringe.

    How do I perform the calibration of my V1 bioprinter? And for the E4Life?

    V1. Start the Regemat3D-Designer software previously installed on your
    computer.

    Click on the menu: Help > User manual and download the user manual that indicates the calibration process step by step. If you have any questions, contact the technical support team..

    E4Life. The E4Life calibration is performed automatically by laser clicking on the ‘’ calibrate” button which might be found by accessing the Regemat3D-Designer software menu that you will find previously installed on your computer.

    The thermoplastic extruder is clogged. How do I perform the purge?

    1. Check if excess material has been left inside the extruder

    2. Check if the extruder has the right temperature (depending on the material to be extruded PCL (100ºC) or PLA (220ºC)

    3. Make a vacuum extrusion to check if the material comes out (remember to heat the extruder taking into account the material)

    4. If in spite of this the extruder is still clogged, contact the technical team.

    How can I change a syringe? Can I exchange the extrusion modules?

    Working with different syringes or extrusion modules is very simple. .

    To change a syringe, you just need to loosen the front screw and carefully remove it, holding the upper plunger. You must do the same process to place your new syringe, this time adjusting the plunger and tightening the front screw.

    -To change a complete module, you just have to loosen the 4 fastening screws and position the new module you want to use, using the same screws..

    How do I print on a multiwell plate? And on a Petri dish?

    V1. V1 You can print by selecting the multiwell surface or Petri dish in the software. Next, configure the part / scaffold you want to print on the preferred surface. In this version, it is possible to use only one extrusion syringe for this specific function.

    E4Life. E4Life The process is the same as in V1. In this version you can use any of the 2 syringes for printing on multiwall plate and on Petri dish thanks to its independent movement in the Z axis

    Print speed is very slow. How do I increase the speed?

    Access the Regemat3D-Designer software and click on:
    Settings>extraconfiguration>speed> configure the speed you prefer.

    To increase the manufacturing speed of the piece you must modify the following options: infill speed and perimeter / skirt speed

    What advantages does a mechanical extrusion system like the one designed for V1 and E4Life have over a pneumatic extrusion system?

    A mechanical system allows extrusion of material with greater precision, the precision of extrusion is 1 microliter and the minimum diameter of the syringe of 150 microns (0.15mm). Additionally, the mechanical positioning allows us to make injections within a scaffold not only in the pore we want but also at the desired height and layer. This possibility is not allowed with pneumatic positioning.

    Is the software integrated in the system?

    Each system is accompanied by a laptop where we previously installed the latest version of the software..

    The computer is connected to the system via USB cable.br> **** The software can be installed in as many computers as desired, allowing researchers to work on model development and part configuration remotely.

    It is possible to save the created files as ‘’ INI File ’’ and then use them to print in the system** To generate G-codes it is necessary that the computer is connected to the bioprinter.

    Does the Regemat 3D bioprinter V1 have a HEPA filter?

    Our system is designed to be installed without any problem in a laminar flow cabinet and be sterilized following a protocol. The HEPA filter loses practicality when bioprinting is performed and the biomaterials interact with the printing surface. To prevent contamination, in terms of safety, it is best to use a laminar flow cabinet which is the only system that guarantees sterility conditions.

    How do I sterilize the machine?

    If you are already a user, access the internal area of our website with your username and password and download the sterilization protocol. The design of the system components as well as the materials used allow both a chemical sterilization with ethanol, ethylene oxide and hydrogen peroxide, or resort to other physical methods such as ionizing radiation, supersonic waves. Removable components such as glass plate can even be autoclaved. Once sterilized your equipment will be ready to work in a laminar flow cabinet.

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