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Fig 1.

a: Silicone model of cadaveric urethra in-situ b: Scanned urethral lumen for computational modeling and 3D printing c: Experimental set up for flow experiments; α: Modified 18 Fr silicone tube affixed to cadaveric penis, €: MedAmicus 4114UF Lumax Cystometry System, Ω: Uniclife DEP-4000 Controllable DC Water Pump, £: Urine spray detector apparatus d: Example urinary spray pattern result of cadaveric model.

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Fig 1 Expand

Fig 2.

Conformational changes performed to reduce lumen size.

A: Extrinsic compression applied to penile tissue using ring clamp with calibration over catheter, B: Creation of ventral narrowing at meatal tip with calibrating catheter in place, C: Creation of dorsal narrowing at meatal tip with calibrating catheter in place.

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Fig 2 Expand

Table 1.

Flow-rates and spray areas recorded by novel detection system in cadaveric and 3D printed models.

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Table 1 Expand

Fig 3.

a) Graphical Representation of Voiding Strength and Spray Stratified by Tip Alternations for Specimen 2. b) Relative Voiding Characteristics Specimen 2.

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Fig 3 Expand

Table 2.

Impact of meatoplasty on flowrates and spray area in a cadaveric model.

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Table 2 Expand

Fig 4.

a: Computational modeling of vorticity with increasing levels of distal urethral obstruction; b: Normalized vorticity over voiding time stratified by level of obstruction; 83%, 90% and 96% reduction in lumen area for mild, moderate, and severe, respectively.

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Fig 4 Expand