MDF Global MDF Global
Boliden grows global zinc footprint with $1.8 billion Nexa dealNevGold pushes beyond Limo Butte resourceHeritage drills six-metre gold zone at MelbaSalazar discovers ‘high-grade’ tungsten at Pijili ProjectAguia aligned with newly approved government-backed fertiliser incentiveUS Department of Energy injects $13.9 million into critical mineralsQueensland legislation backs critical minerals explorationDevEx follows Nabarlek-style clues at KPAlurion drills towards Amargosa Prefeasibility StudyMoonlight hits broad copper zones at Peak DownsLegal battle heats up for major iron ore miner FortescueLithium Universe recovers gallium and platinum from e-wasteRokeby reports maiden tailings resource at OmeoCritical Resources links up with CSIRO for battery technologyBarkly advances 10,000m drilling at flagship projectAntilles Gold signs binding deal for Cuban sanction reliefRenegade expands loan facility to $2 millionUS Army’s Janus Program puts spotlight on uranium supplyMithril extends Copalquin silver-gold corridor to 550mFelix Gold produces antimony metal from pilot plant Boliden grows global zinc footprint with $1.8 billion Nexa dealNevGold pushes beyond Limo Butte resourceHeritage drills six-metre gold zone at MelbaSalazar discovers ‘high-grade’ tungsten at Pijili ProjectAguia aligned with newly approved government-backed fertiliser incentiveUS Department of Energy injects $13.9 million into critical mineralsQueensland legislation backs critical minerals explorationDevEx follows Nabarlek-style clues at KPAlurion drills towards Amargosa Prefeasibility StudyMoonlight hits broad copper zones at Peak DownsLegal battle heats up for major iron ore miner FortescueLithium Universe recovers gallium and platinum from e-wasteRokeby reports maiden tailings resource at OmeoCritical Resources links up with CSIRO for battery technologyBarkly advances 10,000m drilling at flagship projectAntilles Gold signs binding deal for Cuban sanction reliefRenegade expands loan facility to $2 millionUS Army’s Janus Program puts spotlight on uranium supplyMithril extends Copalquin silver-gold corridor to 550mFelix Gold produces antimony metal from pilot plant

Diamonds could be medical implant’s best friend: RMIT University

RMIT University researchers have developed a 3D-printed diamond-titanium device that generates electricity from flowing liquid and receives wireless power through tissue. 

The device combines semiconductive diamonds with titanium to create a biocompatible material that can harvest energy and receive wireless power.

Beyond jewellery, diamonds can be used for industrial uses including in medical tools, precision optics, and high-quality audio equipment. Titanium can also be used in medical implants, such as hip replacements and pacemakers, as well as high-performance aerospace applications and sporting equipment.

Further testing and development is still required on the technology before real-world applications. The researchers are currently seeking partners across biomedical sectors to help develop the technology. 

Senior Lead Researcher Arman Ahnood says the team’s goal was to overcome “one of the biggest limits in implant technology” – the battery. 

“The diamonds transform titanium from a passive, structural implant material into an active multi-functional platform – one that can scavenge energy, sense flow, and receive wireless power while remaining biocompatible and strong,” Ahnood says. 

This new innovation could potentially one day lead to longer-lasting implants such as smart stents, drug-release systems, and prosthetics that never need a battery replacement and are precisely tailored to a patient. 

Ahnood adds that the innovation could also have applications outside of the biomedical sector. 

“The ability to wirelessly receive power and harvest energy from liquid flow could be valuable in many other industries where sensors are needed in hard-to-access places using some of the most inert material systems,” he says. 

“Our device can remotely detect changes in liquid flow in lab tests without the need for any active electronics in the implantable portion, which offers potential for future implants that could warn of progression of disease before it becomes dangerous.”

The 3D printer at RMIT’s Advanced Manufacturing Precinct used to create the experimental diamond-titanium implantable device. 

Write to Aaliyah Rogan at Mining.com.au   

Images: RMIT University 
Add to Watch List:
Author Image
Written By Aaliyah Rogan
Now based in London as Mining.com.au’s Europe Correspondent, Aaliyah brings years of dedicated reporting mining news. Relocating from New Zealand to Australia before making the leap to the UK, she's built a reputation for sharp storytelling and a genuine passion for the resources industry. When she’s not chasing the latest developments across Europe, Aaliyah can be found exploring new cities, enjoying good food with friends, or unwinding by the water.