Direct link to latest MPW schedules: Fraunhofer HHI, Smart Photonics, Lionix International


Ordering your own chips - Follow this Procedure

JePPIX offers one-stop technology access for InP and Triplex integrated photonics. Depending on your specific needs, the precise JePPIX partners involved will be different. Scroll down for details of the process and details of what each of our partners do.

The MPW Production Process

The process of acquiring tools, services, chips and packaged parts is as follows: 

1. Connect with JePPIX

Register your interest with the JePPIX coordinator. Registration is free.

  • Use the membership form to share your contact details
  • Request a free technical briefing from the JePPIX coordinator

2. Specify your needs: 

JePPIX can help you achieve your requirements by identifying which software tools, design services, training, fabs, and packages are most appropriate to create your chips.

  • JePPIX holds regular training events for those wishing to create designs for themselves.
  • JePPIX partners with professional designers for organizations who require additional expertise.
  • The JePPIX coordinator can offer advice and recommendations on how to get the most from the platform for more experienced designers. This is particularly relevant for designers who have prior design experience or who have taken part in the JePPIX training events.

3. Ordering procedure

Complete the JePPIX Order Form and the JePPIX User Agreement. 

  • Submit the completed Order Form to the JePPIX Coordinator. This will undergo a technical review to check that the required services are available.
  • Receive and sign the JePPIX user agreement. This is a legal document which may not be adapted. Your organization needs to sign this if you wish to be supplied and supported by JePPIX. Delivery and payment terms are included in the document.
  • Receive the quotation and submit your purchase order to get started.

4. Start the design

  • Access the design tools including the process design kit and design manual
  • Cell(s) are allocated on the requested MPW shuttle run.
  • Prepare your design on time. Missing the deadline results in transfer to a later shuttle run.

5. Receive your chips

  • JePPIX partners with businesses who offer a prototype packaging service. If you request packaging for some of your chips, an additional packaging procedure is put in place after chips are shipped. Discuss with the JePPIX Coordinator for the latest information.

The JePPIX MPW Platforms

JePPIX offers platforms created from InP integrated photonics and the TriPleX platfrom, although not Silicon photonics. Each has there own distinctive advantage and a comparison table is offered below. Select the technology that suits your needs best. If you have an idea on what building blocks are required for your circuit, use the comparison table below to help you in your selection. JePPIX members receive independent advice to help in making the right selection. Contact the JePPIX MPW coordinator to discuss the possibilities and help you make your selection.

Technology Comparison Chart

TriPlex platform:

The TriPleX platform offers low-loss straight waveguides, bends, S-bends, offsets, splitters, spot size converters, lateral tapers and thermo-optic phase shifters. For example, combinations of these building blocks allow the creation of microwave photonics ASPICs by combining Mach-Zehnders and micro ring resonators. The current platform has guaranteed losses below 0.5 dB/cm. Further technical information on Triplex MPW's is posted on the new Lionix International website

InP platform

JePPIX offers a low cost brokering procedure for the production of InP based chips. InP offers amplification and laser sources which are monolithically integrated within the chip. No need for complex assembly steps. Additionally InP offers efficient modulators and detectors as well as a broad range of passive waveguide structures and devices. The latest capability overview is shown below. 




Smart Photonics

Lasers and Amplifiers






92 cm-1@7000A/cm2

70 cm-1 @ 9000 A/cm2


Saturation Power



DBR grating

Tuning range

4 nm


DFB laser

Tuning range

4 nm



Output power

3 mW @ 150 mA


DBR laser

Tuning range

4 nm



Output power

3.5 mW @ 150 mA


Isolation section








Broad band reflectors




1x2 MMI reflector



2 dB





1x1 MMI reflector



2 dB









Polarization devices




Polarization splitter


<4 dB



Max polar ratio

25 dB


Polarization converter


<3 dB




>10 dB






PIN photodiode





3 dB bandwidth

>35 GHz

10 GHz


Dark current

10 nA @ -2 dV

50 nA @ -2 V



0.8 A/W










Thermo-optic phase modulator


2 dB/cm



I(PI) x L

20 mA x mm


Current injection phase modulator


2dB for 100-200 um

<0.5dB for 2mm


I(PI) x L

20 mA x mm


Electro-Optical phase modulator



<0.5dB for 2mm




15 GHz


U(PI) x L


2-2.5 V x mm





Spot size converter







lateral taper

Passive waveguides




Straight Waveguide


<2 dB/cm

3-4 dB/cm

Arc waveguide

Minimal radius

150 um;

100 um

Tapered waveguide












1x2 MMI coupler


<1 dB

<1 dB

2x2 MMI coupler


<1 dB

<1 dB




Fraunhofer Institute for Telecommunications, Heinrich Hertz Institute, Berlin

The HHI Photonic Component Department (PC) researches optochips and Photonic Integrated Circuits (PICs) for 100+ Gbit/sec data transmission and detection and sensor applications. The scientists offer production and development services in all of their activities to the German and international industry. As an example, if you already have a concrete optochip design in mind, the researchers offer additional consulting and would do design and fabrication iterations. Or if you start with a target spec, they would typically begin with a feasibility study and generate a design of their own. In all cases, they are able and willing to do initial production volumes in ISO certified, qualified production. Furthermore they offer e-beam services, and design-to-spec diffractive optical elements. Terahertz waves carry with them a multitude of potential applications e.g. in non destructive testing. Key advantage is the ability to cope with foam-like substances and to work without physical contact. This is important for modern, light weight materials and for in line process control e.g. in extruders at ~200°C. Fraunhofer HHI uses telecom technology to bring terahertz sensing from the lab table to a handheld technology.

LioniX International

LioniX is a leading provider of innovative products based on micro/nano system technology (MNT) and MEMS. Our core technologies are integrated optics and micro-fluidics. Our customers operate in telecom, industrial process control, life sciences and space markets and include OEM’s, multinationals, VC start-up companies as well as research institutions from around the world. LioniX offers design to manufacturing and horizontal integration by partnering with MEMS/MST foundries and suppliers of complementary technologies, such as in (food) biotech/genomics, chemistry/pharmaceuticals and water technology. The combination of micro-fluidics and their integrated optics technology (TriPleX™) gives LioniX an unrivalled expertise in the emerging area of Lab-on-a-Chip.  LioniX is a vertically integrated company that delivers a complete solution to its OEM customers: from initial design through volume manufacturing of products. In addition to combining the four companies, LioniX International has entered into strategic collaborations with partners in South Korea, facilitated by YMK Photonics, to enable it to provide high volume manufacturing of chips and assemblies.

1-René Heideman.jpg


Smart Photonics

SMART Photonics is the world's first pure-play foundry for Indium Phosphide photonics semiconductors. We offer commercial Multi-Project Wafer (MPW) services on InP at very competitive rates. Headquartered in Eindhoven, The Netherlands, we are trusted by the world's leading companies, large and small. That's because of our proven track record in InP research, development and production. We've brought together just the right expertise in the right place at the right time. Indium phosphide chips are proving to be the best choice in many applications ranging from next generation low-power consumption data-centres to “intelligent pills”  for medical diagnostics and high-accuracy drug dispensation. Integrated photonics also plays an increasingly important role in the aircraft industry, air quality monitoring and ultra-secure cryptography. SMART Photonics offers a generic process developed in collaboration with the COBRA research institute, now part of the Institute for Photonic Integration. This allows for fast prototyping and low-cost development without compromising performance and functionality.

Fraunhofer HHI 2017 MPW Schedule


Fraunhofer HHI InP Tx-Rx platform

Tx-Rx platform with passives, MMIs, AWGs, pin detectors, SOAs, DFB lasers, DBR gratings, polarization converters / splitters, spot size converters and thermo-optic phase shifters. As from October 2016, HHI has switched to MPW scheduled every three months as follows:

Run ID

Design Submission Deadline

Mask Tape-Out

Expected Delivery











in fab




end September 2017

in fab










open for registration


SMART Photonics 2017 MPW Schedule









15 August 2016

31 August 2016


2 January 2017




1 December 2016

15 December 2016


1 June 2017

Ready for shipment



1 April 2017

15 April 2017


1 August 2017

In Fab



1 June 2017

16 June 2017


1 October 2017

Open for registration



1 September 2017

15 September 2017

To be determined

1 Jan 2018

Open for registration



1 December 2017

15 December 2017

To be determined

1 April 2018

Open for registration



LioniX International 2017 MPW Schedule 

LionIX International

LioniX International is a leading global provider of customized microsystem solutions, in particular integrated photonics-based, in scalable production volumes. We provide customized solutions for OEM’s and system integrators from design to fully assembled modules. LioniX International B.V. is a private company, established in April 2016, following the acquisition of SATRAX B.V., XiO Photonics B.V. and LioniX B.V. 

For more detailed technical information, please click through to this MPW entry on the LioniX website.

This is the current MPW schedule for 2017.

11th run

12th run

13th run


30 September 2016

28 February 2017

30 June 2017

Tape out

31 December 2016

31 May 2017

31 October 2017

Devices ready

30 April 2017

30 September 2017

28 February 2018




Design Flow


Process Design Kits

Process design kits (PDKs) are defined for each foundry. These are connected to commercial software packages to enable designers to create sophisticated photonic integrated circuits in a coherent design flow. The design kit includes

  • Design rules and mask layer information
  • Library of validated and parameterized components (for circuit design) 
  • Simulation models and measurements data (passive and active building blocks BBs) 
  • Die and package templates

1. Circuit function and platform selection

Designers start from a functional requirement, and then identify the Building Blocks which are needed to enable and evaluate this function in one chip. The most appropriate platform can usually be identified by inspecting the building block performance published here. Further information may also be available from the JePPIX coordinator.


2. Circuit design

Designers can develop their own understanding of the design possibilities and create their own chip layouts. JePPIX partners provide regular training sessions for MPW customers, both for specific CAD tools, and also as coherent JePPIX training events. Training events are organized throughout the year in three formats

  • JePPIX flagship two-week PIC designer training event in Eindhoven, NL each fall
  • One week PIC designer training events held with partners outside Europe
  • Short courses (three hours) held on location at major conferences

Please check the Training page for the next events relevant to you.

If a higher level of design expertise is needed, professional design services may also be appropriate. Professional design support tailored to the JePPIX platform capability is offered by:

3. CAD software tools

A number of JePPIX partners develop computer aided design (CAD) software packages for PIC design which support the JePPIX PDKs. This means that the tools give improved levels of predictive quality. Vendors with JePPIX specific support include:

  • Filarete: ASPIC is a dedicated PIC simulator which is compliant with the PDAFlow standard.
  • PhoeniX Software: OptoDesigner 5 focuses on the physical layer of your design activities with powerful mode-solver and propagation capability
  • Photon Design: PicWave is a photonic circuit simulator capable of simulating both active and passive components in realistic detail which is coupled to JePPIX PDKs.

4. IP blocks

A number of basic building blocks and simple components are available in the software libraries. As in the electronic IC community, partners in the design community build upon this powerful platform to create advanced IP blocks - intellectual property. This can be an attractive way to accelerate designs with high performance and rugged components. The licensing terms for IP blocks will depend on usage. All building blocks and IP blocks are visible once the PDK is loaded into your design tool.

5. Layout tools for tape out

Layouts may initially be created schematically and these need to be converted to GDS-II format. Software vendors working with JePPIX align their tools with PDAflow to enable mask layer creation. Files are uploaded and checked for compliance.

  • PhoeniX Softwares Mask Engineer enables JePPIX users to convert their circuit schematics to mask layout representation.