Volume 12
Issue 03
September 2024
Inside This Issue
Editorial, 2-3
Technology Corner, 4-5
Tips from the Experts, 6-8
Humanitarian News, 9-14
Best Image Contest, 15
WABIP News, 16
Research, 17-18
Links, 19
To Stent or Not to Stent: Thats Just the First Question
WABIP Newsletter
S E P T E M B E R 2 0 2 4 V O L U M E 1 2 , I S S U E 3
EXECUTIVE BOARD
Stefano Gasparini, MD
Italy, Chair
Pyng Lee, MD, PhD
Singapore, Vice-Chair
Hideo Saka, MD
Japan , Immediate Past-
Chair
Silvia Quadrelli, MD
Membership Commiee
Chair
Jean-Michel Vergnon, MD
Educaon Commiee
Chair
Ali Musani, MD
Finance Commiee Chair
Naofumi Shinagawa, MD
Japan,
Secretary General
Menaldi Rasmin, MD, PhD
Indonesia , President
WCBIP 2024
Rajesh Thomas, MD, PhD
Melbourne , President
WCBIP 2026
STAFF
Michael Mendoza
General Manager
Judy McConnell
Administrator
Kazuhiro Yasufuku
Newsleer Editor-in-chief
P A G E 2
Airway stenng has long been a signicant part of
the intervenonal bronchoscopists repertoire when
it comes to endoscopic management of malignant
central airway obstrucon (MCAO). However, there
is marked variability in how and when this interven-
on is oered.
1,2
Even the generally held noon that
stenng should be reserved for cases involving ex-
trinsic airway compression (whether exclusively or
combined with endoluminal disease) is not univer-
sally adhered to.
3
Perhaps unsurprisingly, no guide-
lines had previously been published to help clinicians
on this subject.
That changed with the recent publicaon of the
World Associaon for Bronchology and Intervenon-
al Pulmonology (WABIP) guidelines on airway
stenng for MCAO.
4
A group of 17 experts across 11
countries spanning four connents addressed six
important quesons with mutual consensus (using
the modied Delphi technique) based largely on a
systemac review of published literature.
Only one of the six recommendaons was graded as
strong- namely that airway stenng be considered
in paents with MCAO receiving mechanical venla-
on - although the supporng evidence based on
retrospecve observaonal data was judged to be of
low quality (grade 1C recommendaon).
5
Weak rec-
ommendaons - made based on somemes con-
icng evidence that was deemed low-to-moderate
quality - were also made to consider airway stenng
as a means to improve quality of life, performance
status, and survival. Another weak recommendaon
(grade 2C) was to perform surveillance bron-
choscopies to detect stent-related complicaons in
asymptomac paents, with the rst surveillance bronchos-
copy scheduled 4-6 weeks aer stenng. Across all clinical
scenarios, the expert panel determined that no conclusive
evidence supported the selecon of one over the other
commercially available stent type (silicone versus metallic).
Finally, in the absence of any evidence for or against it, the
groups consensus was in favor of undertaking pulmonary
hygiene measures such as saline nebulizaon to reduce the
risk of stent-related complicaons (nine experts strongly
agreed, seven agreed, and one neither agreed nor disa-
greed).
So, how does the bronchoscopist incorporate these guide-
lines going forward? The very rst queson facing every
bronchoscopist is whether to stent or not. Hamstrung by
limited scienc evidence, these guidelines parally help
answer this queson. However, the role of ascertaining the
degree of airway obstrucon in making treatment decisions
remains unclear. For example, if there is no respiratory dis-
tress or other signs and symptoms aributable to MCAO,
what if any is the minimum degree of extrinsic airway com-
pression that warrants airway stenng? Does that vary with
the locaon of MCAO (e.g., trachea versus a mainstem
bronchus versus bronchus intermedius)? What is an appro-
priate metric for quanfying airway obstrucon? Is it airway
diameter, airway cross-seconal area, length of airway
aected, and/or drop in airway pressure across the aected
segment? What is a valid means of measuring airway size?
Is it the bronchoscopists esmate based on endoscopic
images, automated measurements on segmented endo-
scopic images, pre-operave or intraoperave computed
tomographic imaging (stac or dynamic), or bronchoscopic
tools such as a calibrated airway balloon? Of course, lest we
forget, to stent or not to stent is merely the rst queson
out of many. The remaining quesons - including but not
Ali I. Musani MD, FCCP
Professor of Medicine and
Surgery
Director, Complex Airway Pillar
of the Center for Lung and
Breathing
Director, Intervenonal
Pulmonology Program
Director, Global Health
Pathway, Internal Medicine
Residency Program
Division of Pulmonary Sciences
& Crical Care Medicine
Majid Shaq MD, MPH
Medical Director, Bedside
Procedure Service
Medical Director, Intervenonal
Pulmonology
Div. of Pulmonary & Crical Care
Medicine, BWH
Assistant Professor of Medicine,
Harvard Medical School
W A B I P N E W S L E T T E R
P A G E 3
limited to stent selecon, airway hygiene regimen,
duraon of stenng, and surveillance regimen -
warrant further invesgaon as aptly highlighted
by these guidelines.
The WABIP guideline panel is to be congratulated
for producing this valuable addion to the body of
medical literature. In addion to highlighng the
potenal of airway stenng for improving clinical
outcomes, parcularly liberaon from mechanical
venlaon, these guidelines provide needs assess-
ment for future invesgators as they seek more
precise answers to several important quesons.
The journey to discovery is not easy, as exemplied
by a commendable randomized study that was
stopped far short of target enrollment.
3
But, as the
WABIP guideline panel has successfully demon-
strated, there is a rst me for everything.
References:
1. Dutau H et al. Respiraon; internaonal review of
thoracic diseases. 2018;95(1):44-54.
2. Wayne MT et al. Respiraon; internaonal review of
thoracic diseases. 2023;102(8):608-612.
3. Dutau H et al. Respiraon; internaonal review of
thoracic diseases. 2020;99(4):344-352.
4. Chaddha U et al. Respirol. 2024;29(7):563-573.
5. Oki M et al. J Thorac Dis. 2017;9(9):3154-3160.
W A B I P N E W S L E T T E R
P A G E 4
Technology Corner
Review on Arcial Intelligence in Intervenonal Pulmonology
Introducon
Recent advancements in arcial intelligence (AI) technology have signicantly impacted various elds. AI, which emulates human
intelligence through computaonal systems, includes deep learning—a subset of machine learning that employs deep neural net-
works and other models to autonomously learn from data. This powerful technique enhances complex mathemacal models for
predicon, driving progress in areas such as image recognion, disease diagnosis, and prognosis predicon.
Background
AI technologies are extensively applied and researched in healthcare, including the eld of pulmonary medicine. Over the past dec-
ade, automated chest X-ray image analysis techniques for early tuberculosis screening have rapidly evolved.
1
Several commercial
products based on deep learning computer-aided detecon (CADe) systems for pulmonary tuberculosis are now available.
2
AI-based
computer-aided diagnosis (CADx) in addion to CADe systems are also employed for lung cancer screening and diagnosis.
3-6
AI in the eld of intervenonal pulmonology
AI in Airway Anatomy
Accurate transbronchial diagnosis for peripheral pulmonary lesions requires selecng the correct airway to reach the target.
7
Tradi-
onally, bronchoscopists view two-dimensional (2-D) axial, coronal, and sagial CT views and reconstruct a 3-D mental image of the
path to the target lesion. However, this is challenging even for experienced bronchoscopists.
8
Automated bronchial tree labeling has
been researched for more than two decades.
9, 10
AI-based bronchial tree labeling has been integrated into current navigaon tech-
nologies; including virtual bronchoscopic navigaon, electromagnec navigaon bronchoscopy, and augmented uoroscopy. Even
during bronchoscopic procedures, it can be dicult to determine which bronchus is being observed which can be especially dicult
for novices or operators unfamiliar with bronchoscopy. AI models have shown high performance in anatomical idencaon using
bronchoscopic video images and trained convoluonal neural networks (CNN).
11-13
These promising results suggest that future AI-
integrated devices could enable real-me bronchial anatomy idencaon. A recent study has trained AI to recognize depth within
the bronchial lumen using bronchoscopic images generated from CT scans, allowing the AI to assist in steering a roboc broncho-
scope to peripheral bronchi while maintaining a clear view of the bronchial lumen.
14
This AI co-pilottechnology is ancipated to be
used clinically in the future, especially in roboc bronchoscopy, helping improve the learning curve for beginners.
AI in EBUS Images
Convex probe EBUS is widely used for lymph node staging in lung cancer and diagnosing mediasnal diseases due to its diagnosc
ecacy and safety prole.
15
Categorizing lymph node features within EBUS B-mode images has been explored to disnguish be-
tween metastac and benign lymph nodes.
16, 17
However, this method is inherently subjecve and reliant on observer discreon.
CADx has been reported for predicng lung cancer metastasis in lymph nodes using EBUS images. Early studies employed arcial
neural networks with supervised learning on regions of interest from B-mode images.
18
However, these approaches relied on super-
vised selecon of regions of interest, potenally liming real-me applicability. Consequently, some researchers applied CNN to en-
Tsukasa Ishiwata, MD, PhD
Research Fellow,
Division of Thoracic Surgery,
Toronto General Hospital,
University Health Network
Kazuhiro Yasufuku, MD, PhD, FRCSC
Head, Division of Thoracic Surgery,
University Health Network,
Professor and Chair, Division of Thoracic
Surgery, University of Toronto
W A B I P N E W S L E T T E R
P A G E 5
re EBUS images without selecng regions of interest,
19, 20
or to mul-modal images including EBUS, Doppler, and elastographic im-
ages,
21
yielding a high diagnosc accuracy. Similarly, AI-based CADx using radial probe EBUS images for peripheral pulmonary lesion
diagnosis has demonstrated high performance.
22, 23
Currently, no commercially available AI-based systems oer real-me diagnosis
predicon from EBUS images, but it is foreseeable that real-me dierenaon between benign and malignant lesions in EBUS imag-
es will become a valuable clinical tool. This could enhance diagnosc yield by more accurate pre-test probability esmaon before
sampling.
AI in Cytology
Opmal diagnosis in intervenonal pulmonology, parcularly through ssue sampling, can be enhanced by rapid on-site cytologic
evaluaon (ROSE).
24-26
However, the widespread adopon of ROSE faces challenges due to a shortage of experienced on-site cyto-
pathologists and nancial constraints. To address these issues, AI has been integrated with ROSE in research sengs. High diagnosc
performance has been demonstrated by inpung small pixel patches from cytology slide images into CNN models, enabling diagnosis
within seconds.
27
A CNN-based system for categorizing cytology smear images obtained during ROSE in EBUS-TBNA has shown high
accuracy in classifying adequate/inadequate samples, granulomas, and malignant cells.
28
Another AI-based ROSE system has also
shown high diagnosc performance and consistency with experienced cytopathologists using external test datasets.
29
These advance-
ments suggest that AI could enhance diagnosc accuracy and eciency in cytology, providing substanal support in sengs where
experienced cytopathologists are unavailable.
Conclusion
The integraon of AI into intervenonal pulmonology has the potenal to improve diagnosc accuracy and paent safety. However,
the clinical impact of AI-enhanced procedures remains to be fully established. Further research is needed to evaluate the clinical ben-
ets and limitaons of AI in intervenonal pulmonology, as well as to consider the ancipated increase in costs and assess their align-
ment with eecveness.
References
1. Santosh KC et al. J Med Syst. 2022;46(11):82.
2. Hua D et al. Int J Med Inform. 2023;177(105159.
3. Thong LT et al. Lung Cancer. 2023;176(4-13.
4. Mikhael PG et al. J Clin Oncol. 2023;41(12):2191-2200.
5. Kanava F et al. Sci Rep. 2020;10(1):9297.
6. Liu Q et al. Transl Lung Cancer Res. 2020;9(3):549-562.
7. Ishiwata T et al. Expert Rev Respir Med. 2019;13(9):885-897.
8. Dolina MY et al. Chest. 2008;133(4):897-905.
9. Kitaoka H et al. Medical Image Compung and Computer-Assisted Intervenon — MICCAI 2002. Lecture Notes in Computer Science, vol 2489.
Springer.
10. Ota S et al. Medical Imaging and Augmented Reality. MIAR 2008. Lecture Notes in Computer Science, vol 5128. Springer.
11. Yoo JY et al. Sci Rep. 2021;11(1):23765.
12. Li Y et al. Transl Lung Cancer Res. 2022;11(11):2261-2274.
13. Chen C et al. Ther Adv Chronic Dis. 2023;14(20406223231181495.
14. Zhang J et al. Nat Commun. 2024;15(1):241.
15. Dong X et al. Ann Thorac Surg. 2013;96(4):1502-1507.
16. Fujiwara T et al. Chest. 2010;138(3):641-647.
17. Hylton DA et al. J Thorac Cardiovasc Surg. 2020;159(6):2499-2507.e2493.
18. Tagaya et al. Chest. 2008;133(1):137-142.
19. Churchill IF et al. Ann Thorac Surg. 2022;114(1):248-256.
20. Ito Y et al. Cancers (Basel). 2022;14(14).
21. Li J et al. Endosc Ultrasound. 2021;10(5):361-371.
22. Chen CH et al. Comput Methods Programs Biomed. 2019;177(175-182.
23. Hoa T et al. Sci Rep. 2022;12(1):13710.
24. Oki M et al. Respiraon. 2013;85(6):486-492.
25. Trisolini R et al. Chest. 2015;148(6):1430-1437.
26. Shikano K et al. J Thorac Dis. 2020;12(6):3057-3064.
27. Lin CK et al. Cancer Med. 2021;10(24):9047-9057.
28. Asfahan S et al. Eur Respir J. 2021;58(4).
29. Yan S et al. Front Oncol. 2024;14(1360831.
Tips from the Experts
P A G E 6 V O L U M E 1 2 , I S S U E 3
Introducon:
Subgloc stenosis, which includes benign tracheal stenosis (TS) presents a complex airway condion typically aributed to prior history of
endotracheal intubaon and tracheostomy placement (1). In the absence of a known cause, it is known as idiopathic subgloc stenosis.
Damage to respiratory ssues can be due to pressure necrosis, which triggers inammaon, leading to the development of granulaon s-
sue and eventual formaon of scar ssue that is akin to keloids in the skin (2). Input from a muldisciplinary team involving intervenonal
pulmonology, otolaryngology, and thoracic surgery is oen needed to opmize care for paents with TS. While open surgery oers deni-
ve treatment, paents may not qualify due to their comorbidies and symptom severity necessitang an urgent intervenon. As an alter-
nave, endoscopic procedures focusing on scar resecon, scar lysis, airway dilaon, or a combinaon of these have become more common
pracce. However, a signicant drawback of endoscopic treatment is rate of recurrence and the need for subsequent procedures (3). Serial
intralesional steroid injecon (SILSI), is an aracve opon for decreasing the frequency of recurrence of benign TS in an oce seng with
readily accessible equipment and without the need for general anesthesia.
Raonale for using steroids:
Dermatologists have ulized intralesional steroids since the 1960s to modify skin scars (keloids), achieving response rates ranging from 50%
to 100% with recurrence rates between 9% and 50% (4). Steroids eecvely reduce inammaon that promotes scar formaon by inhibing
collagen and glycosaminoglycan synthesis, encouraging broblast degeneraon, and enhancing collagenase acvity (5). They also inhibit
inammatory cell migraon and cytokine producon, such as transforming growth factor-β and interleukins, crucial in scar development (5).
Steroids induce hypoxia and vasoconstricon, potenally reducing scar volume and soening scar ssue by liming nutrient supply (5). Tri-
amcinolone has been shown to be an eecve intralesional treatment for keloids and hypertrophic scars as well as benign subgloc steno-
sis and TS (3,6,7). Here we discuss our instuons pracce of oce-based SILSI for management of TS.
Planning and Paent selecon:
Paents selected for SILSI at our instuon are those with idiopathic subgloc stenosis (iSGS) or iatrogenic SGS who have undergone mul-
ple endoscopic dilaons in the operang room (OR) and wish to prolong intraoperave interval and those with iSGS declining any surgical
intervenon. Franco et al. rst proposed oce-based SILSI as either a sole opon or as an adjunct to surgery for paents with iSGS (3). Their
group ulized spirometry to assess peak inspiratory ow (PIF) and peak expiratory ow (PEF), with the percentage of predicted peak expira-
tory ow (%PEF) serving as an indicator of stenosis severity before, during, and aer treatment. Paents who were symptomac with a %
PEF below 50% and a PIF less than 1.5 L/sec were advised to undergo surgery. Discussing pros and cons of OR treatment vs. awake SILSI and
considering paentspreference in the context of their current symptom burden is imperave to choosing the opmal treatment opon.
Most paents receive at least one operave dilaon prior to starng SILSI.
Steroid Injecon for Benign Tracheal Stenosis
Megan S. Wu, MD
University of Chicago,
Department of
Otolaryngology
Shreya Podder, MD
University of Chicago,
Department of
Pulmonary and Crical
Care Medicine,
Intervenonal
Pulmonology
Brandon Baird, MD
University of Chicago,
Department of
Otolaryngology
Tips from the Experts
P A G E 7 V O L U M E 1 2 , I S S U E 3
Technique:
We perform our oce-based SILSI through a transcervical approach. The procedure involves two operators: one controls the exible laryngo-
scope while the other performs the injecon. Aer obtaining informed consent, we rst spray a combinaon of oxymetazoline and 4% lido-
caine into the nasal cavity, followed by topical applicaon of 4% lidocaine to anestheze the oropharynx and hypopharynx. Next, we palpate
the anterior neck to locate the cricothyroid space and inltrate approximately 1mL of 2% lidocaine. At this me a tracheal block may also be
performed. A exible laryngoscope is passed through the nose past the level of the larynx to achieve a transgloc view of the subglos. Un-
der direct visualizaon, a 25-gauge needle is passed through the cricothyroid membrane and 2mL of Kenalog (40mg/mL) is injected circum-
ferenally into the subglos. Proper placement of steroid is conrmed by observing ssue blanching and wheal-like expansion within the
subgloc scar. Counseling paents both before and during the procedure is essenal, emphasizing the importance of slow, deep breathing
and maintaining a calming environment.
Quality Control:
Key features of the area of stenosis, including posion and degree of narrowing, are visually compared with video documentaon at each
follow-up visit to determine if there is disease progression, improvement, or stability. Spirometry results and paentsfunconal status are
factored into the decision to connue or stop SILSI. Homan et al. evaluated paents undergoing SILSI for iSGS, 14 of 17 paents (82%) com-
pleng one series of injecons did not require further operave intervenon to date. For paents who completed two sets of three injec-
ons, average stenosis decreased signicantly from 40% to 20% (8). Similarly, Bertelsens study found that 17 of 24 paents (71%) did not
need further surgery aer SILSI during mean follow-up me of 32 months. When comparing surgery-free interval (SFI) before and aer SILSI,
SFI improved from 10.1 months before, to 22.6 months aer SILSI (7). Current studies are limited by sample size, length of follow-up and
rater bias of stenosis percentages.
Conclusion:
SILSI is a well-tolerated, safe, and eecve treatment modality with the potenal to alleviate the surgical burden on paents with benign TS.
The eecveness of SILSI has been shown in TS due to various eologies including idiopathic, rheumatologic, and traumac causes. In our
clinical experience, we recommend SILSI as an adjunct to repeated endoscopic dilaon.
Next steps and future direcons
Further research into the frequency and interval between injecons is needed to help opmize paents symptoms and funconal status and
to risk strafy and idenfy possible responders.
References
1. Gelbard A et al. Laryngoscope. 2015; 125(5).
2. Nouraei SAR et al. Laryngoscope. 2006; 116.
3. Franco RA et al. Laryngoscope. 2018;128(3).
4. Robles DT et al. Clin Dermatol. 2007; 25(1).
5. Gauglitz GG et al. Molecular Medicine. 2011;17(12).
6. Ledon JA et al. Dermatologic Surgery. 2013; 39.
7. Bertelsen C et al. JAMA Otolaryngol Head Neck Surg. 2018;144(3).
8. Homan MR et al. Laryngoscope. 2017; 127 (2475-2481).
Tips from the Experts
P A G E 8 V O L U M E 1 2 , I S S U E 3
A B
C
D
Figure: A A paent with idiopathic subgloc stenosis who underwent dilaon in the operang room.
B The paent retured two months later for SILSI. C - 1 month aer SILSI. D – Signicant improvement
seen 10 months aer two rounds of SILSI.
Humanitarian News
W A B I P N E W S L E T T E R P A G E 9
Democracy Under Siege: The Dual Threat of AI and Disinformaon. Can We
Safeguard Our Future?"
The digital age has ushered in an unprecedented era of technological advancements, revoluonising the ways in which we
communicate, interact, and access informaon. However, this rapid progress has also given rise to a new froner of cyber
threats, characterised by their sophiscaon, adaptability, and far-reaching social implicaons.
The informaon age has inaugurated a period dominated not only by the disseminaon of knowledge but also by the wide-
spread propagaon of misinformaon and disinformaon. The arrival of the informaon age has ushered in an era charac-
terised not only by the worldwide distribuon of knowledge but also by the extensive circulaon of false and misleading
informaon. Facilitated by the fast disseminaon and extensive data processing capabilies of the internet, false informaon
has become a powerful instrument in internaonal compeons and domesc polical disputes. Both governmental and
non-governmental enes deploy false informaon to inuence worldwide public senment, provoke chaos, and undermine
condence. Arcial intelligence (AI), specically machine learning (ML), is intended to enhance these disinformaon cam-
paigns, which are clandesne operaons specically created to deliberately spread inaccurate or decepve material. The
emergence of AI-driven cyber manipulaon is fundamentally changing the current state of aairs, modifying the dynamics of
public discussion, and presenng a substanal obstacle to the integrity of democrac processes on a global scale.
Intenonal disinformaon campaigns are carefully planned and executed through well dened phases. Firstly, operaves
engage in reconnaissance to observe their target area and perform thorough studies of the demographics they aim to ma-
nipulate. A fundamental infrastructure is developed, including of messengers, credible personalies, social media proles,
and groups to eciently disseminate their stories. An uninterrupted stream of material, including wrien arcles as well as
mulmedia elements like photographs, memes, and videos, is crucial to guarantee the spread and acceptance of their mes-
saging. Once disseminated on the internet, these fragments of false informaon are magnied by automated bots, plaorm
algorithms, and social engineering taccs to enhance their eecveness and inuence. However, much beyond simple distri-
buon, the ulmate success oen depends on connuous interacon with unwary users, accomplished through strategies
similar to digital trolling, the combave counterpart in the domain of decepon. In its nal stages, a successful disinfor-
maon campaign alters public opinions, aects unwary individuals, and may even provoke disrupve behaviours, therefore
sustaining disorder.
Irrespecve of their source, disinformaon campaigns that culvate genuine followers can eortlessly assimilate into society
conversaons, obscuring the disncon between reality and falsehood and undermining public condence. This process of
erosion presents a signicant obstacle to a society's capacity to dierenate between truth and decepon, therefore giving
rise to a persistent lack of trust.
Disinformaon campaigns, albeit disnct in their parcularies, exhibit shared features and adhere to idenable paerns
that take advantage of the structural features of social media plaorms. Adopng a comprehensive paradigm to capture all
misinformaon operaons is dicult because of the varied ecosystems of actors, strategies, and plaorms involved. Moreo-
ver, the involvement of convenonal media in this ecosystem, whether as a target, plaorm, or as a deliberate or uninten-
onal facilitator of inuence, introduces an addional level of intricacy. Consequently, the government, corporate sector,
and civil society stakeholders involved in invesgang, disrupng, and countering disinformaon have not yet reached a
consensus on a cohesive methodology to eecvely address the danger posed by disinformaon operaons.
The potenal inuence of generave arcial intelligence (AI), namely large language models (LLMs), on democrac process-
es and cizenship is substanal. It is widely acknowledged among scholars that generave AI will have a signicant impact
on the informaon landscape and social media, both of which are essenal components for democrac cizenship. The au-
thors propose a hybrid methodology for comprehending these eects, acknowledging the complex interdependence of digi-
tal technologies with user interests and the blurred borders between online and oine domains.
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Generave arcial intelligence (AI), parcularly large language models (LLMs), is poised to signicantly impact democrac
processes and cizenship. Several researchers agree that generave AI will profoundly inuence the informaon landscape
and social media, which are crucial inputs for democrac cizenship. They advocate for a hybrid approach to understanding
these impacts, recognising the intricate interconnectedness of digital technologies with user interests and the diuse bound-
aries between online and oine spheres.
AI has the capacity to generate certain benecial impacts on democrac cizenship. One potenal benet of AI is its ability
to automate monotonous jobs, therefore allowing cizens to allocate their me and focus towards more signicant polical
involvement. Furthermore, it has the potenal to enable extensive polical deliberaons facilitated by arcial intelligence,
surpassing geographical limitaons. Furthermore, generave arcial intelligence has the capacity to improve the availability
and analysis of informaon, so oering more carefully selected material to guide reasoning. By fostering democrac reci-
procity and elevang the tone of talks, interacve Language Learning Modules (LLMs) have the potenal to develop people'
argumentave and deliberave abilies, hence boosng the quality of online polical discussions. However, the majority of
experts studying the phenomena of new technologies stress the need of examining generave AI in conjuncon with social
media, rather than in isolaon. Their contenon is that the collecve impact of these technologies on the aenon economy
may have substanal social and polical consequences. Within the framework of deliberave democracy, individuals are
expected to culvate certain values, like acknowledging others as equals, creavely embracing other perspecves, and ex-
hibing integrity and respect throughout discussions. Through the provision of balanced arguments, analysis of reasoning
aws, and facilitaon of the comprehension of alternave viewpoints, generave AI has the ability to foster these delibera-
ve virtues. Furthermore, it has the potenal to tackle two notable deciencies in deliberave democracy: argumentaon
inequity and scalability. By supporng individuals with limited communicaon and reasoning abilies, arcial intelligence
(AI) has the potenal to migate disparies in deliberaon. Furthermore, its ability to scale up could surpass the praccal
constraints of extensive, high-quality deliberave parcipaon, so enabling a more inclusive democrac process by providing
informaon and engaging cizens, fostering civility and empathy. This has the potenal to signicantly enhance cizens' abil-
ity to engage in meaningful polical discussions.
However, it must never be forgoen that AI is neither autonomous nor neutral; rather, it is laden with the intenons of
those who shape its content. AI has the potenal to produce low-quality, biased, or incorrect informaon due to hallucina-
ons and biased training data. This could have serious consequences if cizens rely on such outputs for polical delibera-
ons and decision-making. Another signicant threat is the proliferaon of deepfakes and mass disinformaon. The capacity
of Generave AI to produce convincingly false content at scale could undermine trust in digital media and erode the founda-
ons of informed democrac discourse. The potenal for Generave AI to be weaponised in mass disinformaon campaigns
has been highlighted. Well-funded actors could ood the informaon landscape with false narraves, potenally dominang
the aenon economy and intensifying social division and distrust.
An addional risk is that Generave AI may diminish cizens' crical thinking and deliberaon capabilies. By replacing the
cognive work necessary to understand complex issues, AI could se essenal skills for a healthy democracy. There is also
the risk that Generave AI could replace interpersonal interacons in polical discourse, leading to a decline in direct en-
gagement among cizens, which could damage the sense of belonging to a common polical community. Several authors
have warned of the possibility of an "infocalypse," in which cizens become unable to disnguish between real informaon
and that manipulated by AI, potenally leading to a form of "Armed Skepcism," where truth becomes obscured amid con-
icng narraves.
Although disinformaon is not a new phenomenon, the advent of social media technologies has fundamentally altered the
scale, reach, and accuracy of informaon disseminaon in the digital age. The digital world has become a baleground for
control of informaon, with malicious actors exploing AI technology to create and disseminate disinformaon on an un-
precedented scale. By mimicking human behaviours and generang images and messages that resonate with audiences,
these adversaries can subtly alter the truth, blurring the lines between fact and con. The power of AI-driven disinfor-
maon lies in its ability to exploit exisng social divisions, amplifying controversial issues and exacerbang polarizaon. Sa-
ya Umoja Noble's book, "Algorithms of Oppression" (2018), examines how search engines and AI systems can perpetuate
racial and gender biases. She argues that these technologies, far from being neutral, oen reect and amplify social prejudic-
es, which could undermine democrac principles of equality.In what has come to be termed the "informaon war," infor-
maon becomes a weapon, and the minds of cizens become the baleeld. This strategy aims to polarise civil society, sow
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chaos, and weaken opposing states. Far from being a mere dystopian hypothesis, this war is ongoing; it has dramacally in-
uenced the posioning of unexpected individuals at the highest levels of government, is dicult to detect, and penetrates
all levels of society at a relavely low cost. The ongoing informaon war, while lacking the overt violence of tradional com-
bat, represents signicant threats to naons, businesses, and cizens alike.
Democrac governments face the challenge of simultaneously ensuring cizens' access to reliable and objecve informaon
while avoiding acts of censorship. This necessity to avoid liming freedom of expression leads to a reliance on large tech
companies to oversee the online informaon environment, thereby granng powerful private enes—oen resource-rich
and with their own agendas and interests—the power of censorship.
One of the most well-known and painful examples for the healthcare community has been the disinformaon campaigns
conducted during the Covid-19 pandemic in Europe, which demonstrated the complexity of idenfying the sources and large
strategies behind these operaons, given their mulfaceted and oen simultaneous nature. However, this also brings to
light the geopolical dimensions of cyberspace, revealing the risks of cybersecurity failures since the mid-2000s. Idenfying
sources of disinformaon is parcularly challenging due to the anonymous nature of cyberspace. Nevertheless, scholars
have idened several categories of actors most likely to produce and disseminate false informaon, including far-right
news sources, disinformaon operaons by foreign states, polical pares promong naonalist content, and prot-driven
content producers exploing the aenon economy.
Cyberspace today represents both a domain for conict and a means for states to advance their interests. The poorly regu-
lated nature of cyberspace poses a signicant challenge, as large-scale disinformaon campaigns do not constute acts of
war that would jusfy convenonal military responses. The unique characteriscs of cyber conicts, including the vulnerabil-
ity of crical infrastructure, the ease of oensive operaons, and the challenges of aribuon and deterrence, render tradi-
onal military strategies insucient. These factors have led some scholars to characterise cyber tools as "weapons of the
weak," empowering states with fewer convenonal military and economic resources.
With the ongoing progress of arcial intelligence technology, the possibility for increasingly intricate and compelling disin-
formaon campaigns expands. The dynamic nature of this environment requires connuous study and the adjustment of
strategies to protect the integrity of democrac procedures and public communicaon from these developing pressures.
Although direct aacks on vong systems may result in me-limited interrupons, their inuence is insignicant when com-
pared to the enduring consequences of disinformaon eorts. Through the exploitaon of contenous maers and the fab-
ricaon of misleading stories, these malevolent acvies gradually diminish condence in the media and government, so
weakening democrac instuons and exerng a more long-lasng impact on elecon results compared to deliberate hack-
ing eorts.
Electoral misinformaon taccs have repercussions that go beyond the mere fabricaon of misleading narraves; they give
rise to wider social discontent with extensive eects. Arcial intelligence (AI) powered operaons exacerbate social ten-
sions, leading to divisions that may be challenging to remediate. It is imperave for policymakers, technology corporaons,
and educators to establish a purposeful posion in order to safeguard against these methods of aack and enhance social
resilience to endure the increasing menace of digital propaganda. Furthermore, as Virginia Eubanks points out in her 2018
book "Automang Inequality," decision-making systems powered by arcial intelligence in public services have the poten-
al to strengthen and worsen pre-exisng social disparies. It is her contenon that these mechanisms frequently exhibit
prejudice against marginalised groups, therefore potenally compromising the democrac ideals of equality and jusce.
The implicaons of these taccs are parcularly concerning during electoral periods. A recent survey revealed that 77% of
the French populaon believes that fake news signicantly aects the democrac funconing of society, while 72% express
concern about the inuence of disinformaon on vong. Furthermore, more than half of the respondents (55%) fear that
disinformaon campaigns could challenge the legimacy of the results of the European elecons. In 2021, 51% of internet
users in France reported encountering news they considered false or unreliable on social media or news sites in the previous
three months. The proliferaon of false news has been alarming; between 2016 and 2017, the volume of tweets referencing
false news doubled in France and quintupled globally. By 2019, there were approximately 45.5 million tweets worldwide
discussing false news, with 1.7 million originang solely in France. In 2023, the monitoring organisaon NewsGuard iden-
ed nearly 800 websites dedicated exclusively to publishing false stories.
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Generave AI technologies, capable of producing text, images, and videos, have become widely accessible and are increas-
ingly used to carry out disinformaon campaigns. Large language models (LLMs), such as GPT-3, and generave adversarial
networks (GANs) enable the creaon of highly realisc fake news and manipulated media. These tools facilitate the dissemi-
naon of disinformaon through social media plaorms, including Facebook, X (formerly Twier), and Instagram, where
they can easily inuence public opinion and electoral outcomes. The French Ministry of the Interior has idened foreign
interference operaons as a growing threat to democrac stability, underscoring the urgency of addressing this form of
"informaonal insecurity." The challenge lies not only in the creaon of disinformaon but also in developing eecve re-
sponses that leverage both AI and human analysis to detect, idenfy, and counter these threats.
A mulfaceted strategy is essenal to safeguard the authencity of democrac processes in the face of the growing threat of
AI-driven disinformaon. This requires strategies that encompass collaboraon across various sectors to eecvely migate
these threats.
Some of the proposed strategies to combat AI-driven disinformaon include:
Cyber Awareness Educaon from an Early Age
Incorporang cyber awareness into educaonal curricula is imperave, given the alarming increase in AI-driven intru-
sions. This proacve educaonal strategy must extend beyond basic digital literacy to encompass crical thinking skills
that empower students to queson the validity and inherent biases of digital content. By fostering an environment
where quesoning and verifying online informaon becomes roune, we can equip future generaons with the neces-
sary tools to navigate the complexies of digital content. This training will enable them to discern reliable informaon
from potenal falsehoods, thereby enhancing their resilience against disinformaon.
Public Campaigns to Promote Crical Thinking and Media Literacy
Public awareness campaigns aimed at improving media literacy across all age groups are vital. These campaigns should
foster a comprehensive understanding of how informaon is created and disseminated online, enabling individuals to
assess the credibility of the sources and content with which they engage. By culvang an informed electorate, these
iniaves can empower cizens to resist the inuence of misleading data, which oen has roots in decepon. Such
eorts not only reinforce individual crical thinking skills but also contribute to collecve social resilience against the
omnipresent threat of disinformaon.
Collaboraon Between Governments, Technology Companies, and Civil Society
Addressing the rampant spread of AI-driven disinformaon requires collaborave approaches that bring together gov-
ernments, technology companies, and civil society. These partnerships are essenal for developing robust technological
soluons and eecve regulatory frameworks. By promong the exchange of best pracces and advancements in AI
management, stakeholders can establish resilient systems that not only idenfy and counter disinformaon but also
uphold the principles of free expression and the disseminaon of authenc informaon. Such collaboraon is crucial for
creang a united front against the mulfaceted challenges posed by disinformaon.
The complex issue of AI-driven disinformaon represents a signicant threat to the fundamental principles of democrac
sociees. The dual challenges of cyberaacks and the widespread disseminaon of false informaon underscore the necessi-
ty of educaon as a dynamic defence strategy. By empowering individuals with the scepcism and knowledge required to
navigate digital content intelligently, we can strengthen our democrac values. Policymakers, educators, and technology
experts must priorise investments in praccal social soluons that address current threats while ancipang future risks
associated with AI. Implemenng regulaons to hold plaorms accountable for the content they generate is essenal in this
endeavour. By promong awareness and fostering collaboraon, we can forfy our democracies against the profound im-
pacts of AI-facilitated disinformaon, ensuring that the integrity of democrac processes is preserved for future generaons.
A disnguished invesgave journalist such as Carole Cadwalladr, in her work on the Cambridge Analyca scandal, highlight-
ed the potenal of AI-driven microtargeng to manipulate democrac processes, prompng global debate and regulatory
acons. Meanwhile, Jamie Susskind, in "Future Polics" (2018), explores how digital technologies are reshaping power rela-
onships in society and warns of their potenal to fundamentally alter our understanding and pracce of democracy, which
could lead to new forms of digital authoritarianism if not managed properly.
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Advancements in arcial intelligence have revoluonised the ability to map and assess channels and messages of decep-
on. Natural language processing (NLP) allows for the examinaon of communicaon exchanged on social media plaorms,
while machine learning methods, such as decision trees and long short-term memory (LSTM) networks, improve the iden-
caon of altered photos and texts. Arcial intelligence (AI) systems can undergo training to detect recurring paerns of
false informaon on social media plaorms and provide alerts on potenally detrimental material. Through the examinaon
of data obtained from plaorms like Twier and Telegram, these systems have the capability to idenfy certain stylisc fea-
tures commonly associated with false informaon. Consequently, they aid human operators in comprehending the charac-
teriscs of the content that is being agged. Nevertheless, the ecacy of arcial intelligence (AI) in this eld relies on the
calibre of the training data and the cooperaon between AI tools and human prociency.
Undoubtedly, in order to avoid these possible negave consequences, this emerging phenomena requires detailed examina-
on of laws and ethical principles. The updated EU AI Act seeks to govern deepfake operaons by mandang that consumers
of AI-generated material reveal any alteraons made. Although regulaon plays a crucial role in addressing disinformaon, it
is unable to completely reduce the dangers presented by enemies using comparable AI capabilies. Therefore, the bale
against disinformaon must employ the same AI-powered technologies that bad actors use, based on strong ethical princi-
ples that strengthen naonal sovereignty. The OECD report released on 4 March 2024 emphasises the need of a synchro-
nised naonal approach to monitor disinformaon on social media and ensure that cizens are informed about connuous
aempts to intervene. Furthermore, this approach should priorise the improvement of crical thinking abilies within the
populace, namely through educaonal programs designed to increase knowledge of manipulaon techniques.
Designing cung-edge technologies to counter disinformaon must adhere to legal and ethical norms, disnguishing demo-
crac sociees from non-democrac civilisaons. Ensuring a climate of trust among stakeholders, such as researchers, indus-
try leaders, and legislators, is essenal for promong collaboraon across dierent sectors. A collaborave ecosystem
should be established in order to develop ecient strategies to combat disinformaon.
The inuence of generave AI on the future of democracies has been the subject of extensive research and reecon within
the academic sphere. Various social sciensts have oered diverse perspecves on the present and future of democracies
under the inuence of arcial intelligence (AI).
Just to menon some few examples Shoshana Zubo, in her seminal work "The Age of Surveillance Capitalism" (2019), ar-
gues that AI-driven data collecon and analysis by tech giants pose a signicant threat to democracy. She contends that
these companies' ability to predict and inuence human behaviour undermines individual autonomy and democrac deci-
sion-making, while warning that this "surveillance capitalism" could lead to a new form of social order that is incompable
with democrac governance. Meanwhile, Cass Sunstein, in "Republic.com 2.0" (2007), explores the concepts of "echo cham-
bers" and "lter bubbles," predicng that these technologies could lead to greater polarizaon and fragmentaon of the
public sphere, potenally weakening democrac discourse. Digital plaorms, facilitated by AI algorithms, consolidate echo
chambers that reinforce cognive biases and limit exposure to diverse perspecves. This not only intensies polarizaon but
also complicates cizens' ability to discern between truthful and false informaon.AI-driven disinformaon contributes to a
growing ideological divide, both polically and socially. This generates hosle environments where construcve dialogue is
hindered, impeding the necessary collaboraon to address global challenges such as climate change and economic inequali-
ty.
In "Network Propaganda" (2018), Yochai Benkler examines how digital technologies, including AI, aect the disseminaon of
disinformaon and emphasises that the problem is not solely technological but also rooted in polical and media structures.
He proposes strengthening tradional journalisc instuons and media literacy to help migate the negave impacts of AI
on democrac discourse.Finally, Evgeny Morozov, in works such as "To Save Everything, Click Here" (2013), criques the no-
on that technology can solve complex social and polical problems. He warns against "technological soluonism" and ar-
gues that excessive reliance on AI and other technologies could weaken democrac instuons and civic engagement.
This concise reference to academic stances indicates that the majority of scholars concur that, although AI poses substanal
obstacles to democrac processes, its inuence is not predesned. The importance of strong regulaon, improved digital
literacy, and a rethinking of democrac instuons is underscored to guarantee that AI funcons to augment rather than
weaken democrac principles. Furthermore, many emphasise the need of preserving human agency and supervision in AI-
powered systems, especially those that impact public decision-making procedures. The consensus among these intellectuals
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W A B I P N E W S L E T T E R P A G E 14
is that the fate of democracy in a world inuenced by arcial intelligence will mostly hinge on the decisions made by socie-
es regarding the development, implementaon, and regulaon of these technologies. They advocate for connuous public
discussion and involvement in these maers to mould a future in which AI reinforces rather than replaces democrac ideals.
The responsibility lies with us to promote legislaon that converts this powerful instrument into a mechanism for enhancing
the quality of life for all individuals, or into another unfortunate failure that exacerbates disparies and gives rise to an au-
thoritarian totalitarianism camouaged as technological advancement.
References:
1. Benkler Y et al. (2018). Network propaganda: Manipulaon, disinformaon, and radicalizaon in American polics. Oxford University
Press.
2. Domme KE. Froners in Polical Science. 2021: 3, 634074.
3. Eubanks V. (2018). Automang inequality: How high-tech tools prole, police, and punish the poor. St. Marn's Press.
4. Feldstein S. (2021). Arcial intelligence and democrac values: What's at stake? Carnegie Endowment for Internaonal Peace.
5. Kaye D. (2020). Arcial intelligence and its impact on freedom of expression. United Naons Human Rights Council.
6. Kreiss D et al. Polical Communicaon. 2020: 37(5), 651-660.
7. Morozov E. (2013). To save everything, click here: The folly of technological soluonism. PublicAairs.
8. Smith J. Journal of Polical Science. 2023: 45(2), 123-145.
9. Sunstein CR. (2007). Republic.com 2.0. Princeton University Press.
10. Susskind J. (2018). Future polics: Living together in a world transformed by tech. Oxford University Press.
11. West DM. (2020). Arcial intelligence and the future of democracy. Brookings Instuon.
*The views expressed in this arcle are those of the author (Silvia Quadrelli) and do not necessarily reect the ocial posi-
ons of the Execuve Board or Internaonal Board of Regents of the WABIP.
Best Image Contest 2024 (3 of 3)
Category: Central Airway Diseases
Descripon: Endobronchial tumor lesion obstrucng 80% of the lumen of the le
main bronchus (metastac myxoid epitheloid leiomyosarcoma).
Submier(s): Claudia Liliana Moreno Diaz
Best Image Contest
P A G E 15
This image is 1 of 3 selected among 100+ submissions to our Best Image Contest held in late 2023. Our next
Image Contest will open later this year. We look forward to receiving your image submissions.
P A G E 16
WABIP News
WCBIP 2024 CONGRESS
Preparaons for the upcoming World Congress
on Bronchology and Intervenonal Pulmonology
(WCBIP) are well underway. The WABIP Execu-
ve Board and Board of Regents meengs are
scheduled for October 23, 2024, in Bali. Pulmo-
nology experts from around the world have been
invited to serve as speakers and chairs for vari-
ous sessions. Conrmaons have been received,
and a comprehensive list is being compiled to
ensure a diverse and knowledgeable panel. The
abstract submission process has concluded. Ac-
cepted abstracts have been compiled, and issues
such as duplicate submissions have been re-
solved. The nal list will be published for regis-
tered parcipants. The WABIP Media Commiee
is promong the congress on social plaorms.
Visit the Bali Indonedia WCBIP website at
hps://www.wcbip2024.com
VIDEO FESTIVAL
The WABIP has nalized the results for its Video Fesval, recognizing top contribuons in various
categories. The "Best Overall" video was awarded to "Bronchoscopic Recanalizaon of Complex
Complete Tracheal Stenosis with Montgomery T-Tube Inseron and Follow-Up – A Case Study."
This video will be shown at the Bali Congress. Other categories include "Best Scienc Content,"
"Best Innovaon," and "Best Imaging," with winners being noed and cercates being prepared
for presentaon at the WCBIP 2024 in Bali.
WABIP INTERVENTIONAL PULMONOLOGY INSTITUTE (IPI)
WABIP is delighted to commence the acceptance process for its IPI fellowship program, with ten
(10) candidates conrming their parcipaon across various quarters of 2025. Addionally, inquir-
ies regarding parcipaon in the fellowship program for 2026 have been received from prospec-
ve candidates.
WABIP PAPER SUBMISSIONS
WABIP has published guidelines on airway stenng for malignant central airway obstrucon
(MCAO) for publicaon in the journal "Respirology," aimed at improving understanding and man-
agement pracces in this area. Addionally, a white paper on radiaon safety in bronchoscopy is
available in its nal version as an open-access arcle in "Respiraon." It aims to educate pul-
monologists on minimizing radiaon exposure during procedures and has received endorsements
from the European Associaon for Bronchology and Intervenonal Pulmonology (EABIP), with
pending endorsements from the American Associaon for Bronchology and Intervenonal Pulmo-
nology (AABIP). The topic will be addressed at a symposium during the WCBIP meeng in Bali.
Arcial Intelligence is Not Yet More Intelligent than Organic Intelligence!
Arcial Intelligence (AI) was coined in the 1950s and has been a slowly evolving eld since then. There is increasing interest in ulizing AI in medi-
cal applicaons. As in other elds, a me of great change may be approaching. Within the eld of arcial intelligence, there are mulple subsets,
such as machine learning, which is composed of the study of neural networks and further subdivided into deep learning, which ulmately branches
into generave arcial intelligence. Each branch of the eld of AI subdivides further as dierent techniques are applied.
Increasingly, there has been interest in applying dierent types of arcial intelligence approaches to specic problems in medicine. This free up
clinicians me from repeve and mundane aspects that can be automated. The detecon of lung nodules on chest imaging studies can be an ex-
ample of computer vision, where a model is trained on ways to idenfy lung nodules. This was rst performed with image idencaon via a con-
voluonal neural network in the ImageNet Trial. Applying these techniques to chest radiology is sll nascent, but some approaches may have clini-
cal applicaons sooner rather than later. There are already commercially available technologies, but it is important to understand the current tech-
nology and limitaons to determine how best to implement the technology.
Currently, depending on the technology/technique, ulizaon of AI in chest radiology does not have a perfect sensivity or specicity for idenfy-
ing benign vs malignant lung nodules. However, there has been steady progress. There are two signicant challenges: the rst is idenfying a lung
nodule, and the second is risk strafying the lung nodule to malignant vs non-malignant. Some studies, such as ANODE09 and LUNA16, focused on
idenfying lung nodules. Mulple compeons have ulized datasets of varying sizes to train AI models and compare them to experienced Radiol-
ogists. Although the inial trials did not demonstrate an advantage with AI, subsequent trials with the renement of algorithms and AI techniques
have resulted in situaons where an AI model can perform similarly to a well-trained Radiologist. We have gone from receiver operang character-
isc curves of 0.5 up to 0.9 in a short period of me.
Editor-in-Chief: Dr. Kazuhiro Yasufuku
Research
Primary Business Address:
Kazuhiro Yasufuku, Editor-in-Chief WABIP
Newsleer
c/o Judy McConnell
200 Elizabeth St, 9N-957
Toronto, ON M5G 2C4 Canada
E-mail: newsleer@wabip.com
P A G E 17
Associate editor:
Dr. Ali Musani
Associate editor:
Dr. Sepmiu Murgu
Ali I. Musani MD, FCCP
Professor of Medicine and Surgery,
University of Colorado School of
Medicine, Denver
Niral M. Patel
Assistant Professor of Medicine,
University of California San Diego
These are promising results from these small studies, and there are some products commercially available that ulize some AI techniques. It
may sll take me for an AI model to work independently of a Radiologist, but with the current technology available, there is a role for assis-
ve technology and workow improvement. Certain AI models are able to easily idenfy lung nodules/abnormalies and then pass the task
of interpretaon to the radiologist. Some commercially available products can remove bone and/or blood vessels as part of imaging post-
processing, which allows for idencaon of the nodules present. Other models have the opposite approach with nodules idened and the
AI model idenfying concerning characteriscs. With either approach or a concurrent approach, workow improvements in Radiology reads
with improved standardizaon can be made. If the me needed to review, process, and interpret Radiology studies is reduced, this would
ulmately allow for higher throughput and reducon in cost, all while further standardizing and opmizing the output. There are also studies
that have demonstrated improved results with Radiologists working with AI tools. In this case, the sum is truly greater than the individual
parts.
The use of AI in Radiology oers a glimpse into what a future of AI tools ulized in medicine could look like. There is, of course, skepcism
and concern over how AI will change medical pracce, but as with the industrial revoluon, these new tools will allow us to be more produc-
ve. They will undoubtedly have unexpected consequences, but the technology is likely here to stay. The more we understand and ulize
these new technologies as they connue the improve, the beer we will be able to help the paents in front of us.
References:
1. Kaul V et al. Gastrointest Endosc. 2020;92(4):807-812.
2. Liu JA et al. American Journal of Roentgenology. 2022;219(5):703-712.
3. Schreuder A et al. Transl Lung Cancer Res. 2021;10(5):2378-2388.
Research
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19
WABIP ACADEMY- WEBCASTS
The WABIP has started a new educaon project recently: THE WABIP ACADEMY. The WABIP Academy will pro-
vide free online webcasts with new and hot topics that will interest pulmonologists and intervenonalists.
Current webcast topic: Tissue acquision for biomarker directed therapy of NSCLC
You can reach these webcasts by using this link: hp://www.wabipacademy.com/webcast/
www.bronchology.com Home of the Journal of Bronchology
www.bronchoscopy.org Internaonal educaonal website for
bronchoscopy training with u-tube and
facebook interfaces, numerous teachiing
videos, and step by step tesng and assess
ment tools
www.aabronchology.org American Associaon for Bronchology and I
ntervenonal Pulmonology (AABIP)
www.eabip.org European Associaon for Bronchology and
Intervenonal Pulmonology
W A B I P N E W S L E T T E R
Links
www.chestnet.org Intervenonal Chest/Diagnosc Procedures (IC/DP)
NetWork
www.thoracic.org American Thoracic Society
www.ctsnet.org The leading online resource of educaonal and
scienc research informaon for cardiothoracic
surgeons.
www.jrs.or.jp The Japanese Respirology Society
sites.google.com/site/asendoscopiarespiratoria/
Asociación Sudamericana de Endoscopía Respiratoria
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