Atmospheric and submerged bone cement erosion by a pulsating water jet with a straight tubular nozzle extension

A pulsating water jet (PWJ) offers advantages over a continuous water jet, such as lower liquid volume flows and pressures for deeper cuts. However, traditional PWJ setups are unsuitable for minimally invasive surgeries due to their size. This study aimed to develop a PWJ instrument by testing a 100 mm long, 10 mm diameter extension tube. We evaluated (1) the machining capability of the PWJ with the extension tube on simulated hard tissue and (2) the impact of a submerged environment on cutting capacity. Using a 20 kHz ultrasonic pulsating water jet were provided erosion 120 tests in bone cement and assessed cutting depth and volume via micro-CT scans. Results showed that the PWJ with the extension tube could machine bone cement in both open-air and submerged environments, though the latter required longer exposure and reduced material removal by 65%. Increasing exposure time improved cutting depth and volume until a plateau was reached. The PWJ was compared with a continuous jet with a 5-minute exposure time, showing no visible or measurable erosion. This PWJ design could meet requirements, offering non-thermal and selective tissue removal.

Publication Details

Journal
Repository for Publications and Research Data (ETH Zurich)
Published
2025-02-20
DOI
https://doi.org/10.3929/ethz-b-000725217
Primary Topic
Species Distribution and Climate Change
Type
article
Field-Weighted Citation Impact
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article

Atmospheric and submerged bone cement erosion by a pulsating water jet with a straight tubular nozzle extension

Repository for Publications and Research Data (ETH Zurich)
Species Distribution and Climate Change
article

Atmospheric and submerged bone cement erosion by a pulsating water jet with a straight tubular nozzle extension

article en

Abstract

A pulsating water jet (PWJ) offers advantages over a continuous water jet, such as lower liquid volume flows and pressures for deeper cuts. However, traditional PWJ setups are unsuitable for minimally invasive surgeries due to their size. This study aimed to develop a PWJ instrument by testing a 100 mm long, 10 mm diameter extension tube. We evaluated (1) the machining capability of the PWJ with the extension tube on simulated hard tissue and (2) the impact of a submerged environment on cutting capacity. Using a 20 kHz ultrasonic pulsating water jet were provided erosion 120 tests in bone cement and assessed cutting depth and volume via micro-CT scans. Results showed that the PWJ with the extension tube could machine bone cement in both open-air and submerged environments, though the latter required longer exposure and reduced material removal by 65%. Increasing exposure time improved cutting depth and volume until a plateau was reached. The PWJ was compared with a continuous jet with a 5-minute exposure time, showing no visible or measurable erosion. This PWJ design could meet requirements, offering non-thermal and selective tissue removal.

Repository for Publications and Research Data (ETH Zurich)
Clean water and sanitation
Openalex Percentile: Top 54%
Species Distribution and Climate Change
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Atmospheric and submerged bone cement erosion by a pulsating water jet with a straight tubular nozzle extension · Repository for Publications and Research Data (ETH Zurich) (2025) | TGRS Research Map | TGRS