Intraoperative imaging for remnant viability assessment in bilateral posterior retroperitoneoscopic partial adrenalectomy in an experimental model.
Adrenal Glands
/ blood supply
Adrenalectomy
/ methods
Animals
Biomarkers
/ metabolism
Female
Intraoperative Care
/ methods
Lactic Acid
/ metabolism
Male
Microscopy, Confocal
Microscopy, Electron
Mitochondria
/ metabolism
Models, Animal
Optical Imaging
Postoperative Period
Sus scrofa
Tomography, X-Ray Computed
Journal
The British journal of surgery
ISSN: 1365-2168
Titre abrégé: Br J Surg
Pays: England
ID NLM: 0372553
Informations de publication
Date de publication:
12 2020
12 2020
Historique:
received:
03
02
2020
revised:
16
03
2020
accepted:
31
05
2020
pubmed:
2
9
2020
medline:
23
3
2021
entrez:
2
9
2020
Statut:
ppublish
Résumé
A surgical approach preserving functional adrenal tissue allows biochemical cure while avoiding the need for lifelong steroid replacement. The aim of this experimental study was to evaluate the impact of intraoperative imaging during bilateral partial adrenalectomy on remnant perfusion and function. Five pigs underwent bilateral posterior retroperitoneoscopic central adrenal gland division (9 divided glands, 1 undivided). Intraoperative perfusion assessment included computer-assisted quantitative fluorescence imaging, contrast-enhanced CT, confocal laser endomicroscopy (CLE) and local lactate sampling. Specimen analysis after completion adrenalectomy (10 adrenal glands) comprised mitochondrial activity and electron microscopy. Fluorescence signal intensity evolution over time was significantly lower in the cranial segment of each adrenal gland (mean(s.d.) 0·052(0·057) versus 0·133(0·057) change in intensity per s for cranial versus caudal parts respectively; P = 0·020). Concordantly, intraoperative CT in the portal phase demonstrated significantly lower contrast uptake in cranial segments (P = 0·031). In CLE, fluorescein contrast was observed in all caudal segments, but in only four of nine cranial segments (P = 0·035). Imaging findings favouring caudal perfusion were congruent, with significantly lower local capillary lactate levels caudally (mean(s.d.) 5·66(5·79) versus 11·58(6·53) mmol/l for caudal versus cranial parts respectively; P = 0·008). Electron microscopy showed more necrotic cells cranially (P = 0·031). There was no disparity in mitochondrial activity (respiratory rates, reactive oxygen species and hydrogen peroxide production) between the different segments. In a model of bilateral partial adrenalectomy, three intraoperative imaging modalities consistently discriminated between regular and reduced adrenal remnant perfusion. By avoiding circumferential dissection, mitochondrial function was preserved in each segment of the adrenal glands. Surgical relevance Preservation of adrenal tissue to maintain postoperative function is essential in bilateral and hereditary adrenal pathologies. There is interindividual variation in residual adrenocortical stress capacity, and the minimal functional remnant size is unknown. New intraoperative imaging technologies allow improved remnant size and perfusion assessment. Fluorescence imaging and contrast-enhanced intraoperative CT showed congruent results in evaluation of perfusion. Intraoperative imaging can help to visualize the remnant vascular supply in partial adrenalectomy. Intraoperative assessment of perfusion may foster maximal functional tissue preservation in bilateral adrenal pathologies and procedures. Un abordaje quirúrgico que preserve la función del tejido suprarrenal permite lograr la curación bioquímica, a la vez que evita la necesidad de tratamiento sustitutivo con corticoides de por vida. El objetivo de este estudio experimental fue evaluar el impacto de las técnicas de imagen intraoperatorias en la suprarrenalectomía parcial (partial adrenalectomy, AE) bilateral sobre la perfusión y función del remanente glandular. MÉTODOS: Cinco cerdos fueron sometidos a una división bilateral central de la glándula suprarrenal por retroperitoneoscopia posterior (n = 9, 1 sin dividir). Durante la intervención, la evaluación de la perfusión incluyó la fluorescencia con cuantificación asistida por ordenador (Realidad Aumentada basada en la Fluorescencia, FLuorescence-based Enhanced Reality, FLER), tomografía computarizada (computed tomography, CT), endomicroscopia con laser confocal (confocal laser endomicroscopy, CLE) y un muestreo local de lactato. El análisis de la pieza quirúrgica tras completar la AE (n = 10) incluyó actividad mitocondrial y microscopia electrónica. La evolución de la intensidad de la señal de fluorescencia a lo largo del tiempo (ΔI/s) fue significativamente más baja en el segmento craneal de cada una de las glándulas (0,052 ± 0,057 craneal versus 0,133 ± 0,057 caudal, P = 0,02). De forma concordante, la CT intraoperatoria en la fase portal demostró una captación de contraste significativamente más baja en los segmentos craneales (P = 0,03). En la CLE, el contraste de fluoresceína se observó en todos los segmentos caudales, pero solo en el 44% de los segmentos craneales (P = 0,04). Los hallazgos obtenidos en las pruebas de imagen favorables a la perfusión caudal fueron congruentes con niveles significativamente más bajos de lactato capilar a nivel local (11,58 ± 6,53 mmol/L craneal versus 5,66 ± 5,79 mmol/L caudal, P = 0,008). A nivel craneal, la microscopia electrónica mostró más células necróticas (P = 0,03). La actividad mitocondrial (tasas de respiración, especies reactivas de oxígeno y producción de H
Sections du résumé
BACKGROUND
A surgical approach preserving functional adrenal tissue allows biochemical cure while avoiding the need for lifelong steroid replacement. The aim of this experimental study was to evaluate the impact of intraoperative imaging during bilateral partial adrenalectomy on remnant perfusion and function.
METHODS
Five pigs underwent bilateral posterior retroperitoneoscopic central adrenal gland division (9 divided glands, 1 undivided). Intraoperative perfusion assessment included computer-assisted quantitative fluorescence imaging, contrast-enhanced CT, confocal laser endomicroscopy (CLE) and local lactate sampling. Specimen analysis after completion adrenalectomy (10 adrenal glands) comprised mitochondrial activity and electron microscopy.
RESULTS
Fluorescence signal intensity evolution over time was significantly lower in the cranial segment of each adrenal gland (mean(s.d.) 0·052(0·057) versus 0·133(0·057) change in intensity per s for cranial versus caudal parts respectively; P = 0·020). Concordantly, intraoperative CT in the portal phase demonstrated significantly lower contrast uptake in cranial segments (P = 0·031). In CLE, fluorescein contrast was observed in all caudal segments, but in only four of nine cranial segments (P = 0·035). Imaging findings favouring caudal perfusion were congruent, with significantly lower local capillary lactate levels caudally (mean(s.d.) 5·66(5·79) versus 11·58(6·53) mmol/l for caudal versus cranial parts respectively; P = 0·008). Electron microscopy showed more necrotic cells cranially (P = 0·031). There was no disparity in mitochondrial activity (respiratory rates, reactive oxygen species and hydrogen peroxide production) between the different segments.
CONCLUSION
In a model of bilateral partial adrenalectomy, three intraoperative imaging modalities consistently discriminated between regular and reduced adrenal remnant perfusion. By avoiding circumferential dissection, mitochondrial function was preserved in each segment of the adrenal glands. Surgical relevance Preservation of adrenal tissue to maintain postoperative function is essential in bilateral and hereditary adrenal pathologies. There is interindividual variation in residual adrenocortical stress capacity, and the minimal functional remnant size is unknown. New intraoperative imaging technologies allow improved remnant size and perfusion assessment. Fluorescence imaging and contrast-enhanced intraoperative CT showed congruent results in evaluation of perfusion. Intraoperative imaging can help to visualize the remnant vascular supply in partial adrenalectomy. Intraoperative assessment of perfusion may foster maximal functional tissue preservation in bilateral adrenal pathologies and procedures.
ANTECEDENTES
Un abordaje quirúrgico que preserve la función del tejido suprarrenal permite lograr la curación bioquímica, a la vez que evita la necesidad de tratamiento sustitutivo con corticoides de por vida. El objetivo de este estudio experimental fue evaluar el impacto de las técnicas de imagen intraoperatorias en la suprarrenalectomía parcial (partial adrenalectomy, AE) bilateral sobre la perfusión y función del remanente glandular. MÉTODOS: Cinco cerdos fueron sometidos a una división bilateral central de la glándula suprarrenal por retroperitoneoscopia posterior (n = 9, 1 sin dividir). Durante la intervención, la evaluación de la perfusión incluyó la fluorescencia con cuantificación asistida por ordenador (Realidad Aumentada basada en la Fluorescencia, FLuorescence-based Enhanced Reality, FLER), tomografía computarizada (computed tomography, CT), endomicroscopia con laser confocal (confocal laser endomicroscopy, CLE) y un muestreo local de lactato. El análisis de la pieza quirúrgica tras completar la AE (n = 10) incluyó actividad mitocondrial y microscopia electrónica.
RESULTADOS
La evolución de la intensidad de la señal de fluorescencia a lo largo del tiempo (ΔI/s) fue significativamente más baja en el segmento craneal de cada una de las glándulas (0,052 ± 0,057 craneal versus 0,133 ± 0,057 caudal, P = 0,02). De forma concordante, la CT intraoperatoria en la fase portal demostró una captación de contraste significativamente más baja en los segmentos craneales (P = 0,03). En la CLE, el contraste de fluoresceína se observó en todos los segmentos caudales, pero solo en el 44% de los segmentos craneales (P = 0,04). Los hallazgos obtenidos en las pruebas de imagen favorables a la perfusión caudal fueron congruentes con niveles significativamente más bajos de lactato capilar a nivel local (11,58 ± 6,53 mmol/L craneal versus 5,66 ± 5,79 mmol/L caudal, P = 0,008). A nivel craneal, la microscopia electrónica mostró más células necróticas (P = 0,03). La actividad mitocondrial (tasas de respiración, especies reactivas de oxígeno y producción de H
Autres résumés
Type: Publisher
(spa)
Un abordaje quirúrgico que preserve la función del tejido suprarrenal permite lograr la curación bioquímica, a la vez que evita la necesidad de tratamiento sustitutivo con corticoides de por vida. El objetivo de este estudio experimental fue evaluar el impacto de las técnicas de imagen intraoperatorias en la suprarrenalectomía parcial (partial adrenalectomy, AE) bilateral sobre la perfusión y función del remanente glandular. MÉTODOS: Cinco cerdos fueron sometidos a una división bilateral central de la glándula suprarrenal por retroperitoneoscopia posterior (n = 9, 1 sin dividir). Durante la intervención, la evaluación de la perfusión incluyó la fluorescencia con cuantificación asistida por ordenador (Realidad Aumentada basada en la Fluorescencia, FLuorescence-based Enhanced Reality, FLER), tomografía computarizada (computed tomography, CT), endomicroscopia con laser confocal (confocal laser endomicroscopy, CLE) y un muestreo local de lactato. El análisis de la pieza quirúrgica tras completar la AE (n = 10) incluyó actividad mitocondrial y microscopia electrónica.
Substances chimiques
Biomarkers
0
Lactic Acid
33X04XA5AT
Types de publication
Journal Article
Research Support, Non-U.S. Gov't
Langues
eng
Sous-ensembles de citation
IM
Pagination
1780-1790Subventions
Organisme : Agence Nationale de la Recherche
ID : 10-IAHU-0002
Organisme : Fondation ARC pour la Recherche sur le Cancer
Informations de copyright
© 2020 The Authors. British Journal of Surgery published by John Wiley & Sons Ltd on behalf of BJS Society Ltd.
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