Skip to main content

TIMES will investigate, theoretically analyze, design, develop, and showcase in a Proof-of-Concept (PoC) demonstrator, an innovative wireless communications concept addressing networks beyond 5G.

The long-term vision of TIMES is a THz-based smart radio ecosystem working in complex scenarios with a large number of heterogeneous devices capable of offering similar performance as wired networks in terms of data rate (Tbps), ultra-low-latency, sensing, and reliability, thus beyond the capability of current wireless networks.

To achieve such a long-term vision, TIMES will combine three (3) innovation pillars: 

  • Pillar 1 Exploiting ultra-wide bandwidth and sensing-friendly characteristics of THz communications.

  • Pillar 2 Deploying intelligent mesh networks in smart propagation environments.

  • Pillar 3 Enabling high-definition integrated sensing and communications (ISAC).

TIMES concept illustration for industrial scenarios and key technological enablers

 

Objectives

TIMES intends to pursue its targeted breakthrough by focusing on eight (8) constituent objectives:

  1. Derivation of new THz channel models based on measurements in industrial scenarios
  2. Design of novel solutions at the physical (PHY) and medium access control (MAC) layers
  3. Design and implementation of THz front-ends and antennas
  4. Design of a multi-goal mesh-based radio access network (RAN) composed of active nodes and intelligent reflecting surfaces (IRSs)
  5. Design and fabrication of IRSs operating at THz frequencies
  6. Integration of sensing and communications functionalities
  7. Definition of use cases and requirements for future industrial applications
  8. Realization and validation of a PoC in real industrial environments

 

 

Innovation Pillars

Objectives

Main Actions

 

Definition of use cases and requirements for future industrial applications

Identification of potential use cases

Definition of KPIs

THz communications

Derivation of new THz channel models based on measurements in industrial scenarios

THz channel measurements and modeling 

Characterization of EM exposure

Design of novel solutions at the PHY and MAC layers

Ultra-massive MIMO in near field conditions

Coordination-free fast beamforming

Signal processing at EM level

Design and implementation of THz front-ends and antennas

250-330 GHz highly integrated THz RF front-ends

Highly directive and beam-steerable antennas

Intelligent Mesh Networking in Smart propagation environments

Design of a multi-goal mesh-based radio access network composed of active nodes and IRSs

Mesh topology with active nodes and IRSs

Support to heterogeneous services and devices

Efficient and reliable transmissions over multiple links

Design and fabrication of IRSs operating at THz frequencies

300 GHz configurable IRSs made of metamaterials

Novel fabrication techniques

Integrated Sensing and Communications

Integration of sensing and communications functionalities

High spatial-temporal awareness in LOS and NLOS

See-around-the-corner functionality with IRSs

Enhanced localization through near field propagation

 

Realization and validation of a PoC in real industrial environments

Integration of THz RF front-ends, antennas, and IRSs

Multiple THz links between static and mobile nodes through IRSs