ArticlePDF Available

Above cuff vocalisation: A novel technique for communication in the ventilator-dependent tracheostomy patient

Authors:
  • Manchester University NHS Foundation Trust

Abstract and Figures

A significant proportion of patients admitted to intensive care units require tracheostomies for a variety of indications. Continual cuff inflation to facilitate mechanical ventilatory support may mean patients find themselves awake, cooperative and attempting to communicate but unable to do so effectively. Resulting frustration and anxiety can negatively impact upon care. Through participation in the Global Tracheostomy Collaborative, our unit rapidly implemented novel techniques facilitating communication in such patients. In carefully selected and controlled situations, the subglottic suction port of routinely available tracheostomy tubes can be used to deliver a retrograde flow of gas above the cuff to exit via the larynx, facilitating speech. The resulting above cuff vocalisation is described in detail for five general ICU patients at our institution, highlighting the benefits of multidisciplinary care and the increasingly important role of the speech and language therapists in the critically ill.
Content may be subject to copyright.
Original Article
Above cuff vocalisation: A novel
technique for communication in the
ventilator-dependent tracheostomy
patient
Brendan McGrath
1
, James Lynch
1
, Mark Wilson
2
,
Leanne Nicholson
2
and Sarah Wallace
2
Abstract
A significant proportion of patients admitted to intensive care units require tracheostomies for a variety of indications.
Continual cuff inflation to facilitate mechanical ventilatory support may mean patients find themselves awake, cooperative
and attempting to communicate but unable to do so effectively. Resulting frustration and anxiety can negatively impact
upon care. Through participation in the Global Tracheostomy Collaborative, our unit rapidly implemented novel tech-
niques facilitating communication in such patients. In carefully selected and controlled situations, the subglottic suction
port of routinely available tracheostomy tubes can be used to deliver a retrograde flow of gas above the cuff to exit via
the larynx, facilitating speech. The resulting above cuff vocalisation is described in detail for five general ICU patients at
our institution, highlighting the benefits of multidisciplinary care and the increasingly important role of the speech and
language therapists in the critically ill.
Keywords
Tracheostomy, communication, vocalisation, rehabilitation of speech and language disorders
Introduction
Tracheostomies are used as artificial airway devices in
around 10% of all mechanically ventilated intensive
care unit (ICU) admissions in the UK, with exact
numbers dependent on the local case mix and to
some extent, local practice.
1–6
One of the advantages
of tracheostomy is that patients can have reductions
or cessation of sedative medication, but may find
themselves in a situation where they are alert, yet
still dependent on positive pressure ventilatory sup-
port. This almost universally requires an inflated
tube cuff in order to deliver the pressure generated
by the ventilator to the lungs, although increasingly
it is recognised that patients can be ventilated and
indeed weaned successfully with increasing periods
of cuff deflation.
7
For the majority of these patients who remain sig-
nificantly ventilator-dependent or have a substantial
aspiration risk that prevents cuff deflation, the contin-
ued presence of the inflated cuff by necessity ‘seals off’
the upper airway, preventing effective oral communi-
cation. Critical care nursing, medical and allied health
staff are familiar with attempts to communicate non-
verbally with patients in this situation by lip-reading,
facial expressions, gestures, attempted writing, typing
or the use of communication boards, ranging from
simple charts through to complex interactive devices.
At present, these interactive systems are often impre-
cise, cumbersome, costly and prone to breakage.
8,9
The nature of critical illness means that patients are
often fatigued, with subtle peripheral myopathies and
with limb movements further hampered by peripheral
vascular or monitoring devices, resulting in frustrat-
ing attempts at communication for staff, relatives and
most importantly, the patient.
10,11
The effect on psy-
chological well-being, delirium and depression of
emerging from sedation and finding yourself unable
1
Acute ICU, University Hospital South Manchester, Manchester, UK
2
Speech & Language Therapy, University Hospital South Manchester,
Manchester, UK
Corresponding author:
Brendan McGrath, Acute ICU, University Hospital South Manchester,
Southmoor Road, Wythenshawe, Manchester M23 9LT, UK.
Email: brendan.mcgrath@manchester.ac.uk
Journal of the Intensive Care Society
0(0) 1–8
!The Intensive Care Society 2015
Reprints and permissions:
sagepub.co.uk/
journalsPermissions.nav
DOI: 10.1177/1751143715607549
jics.sagepub.com
by guest on November 7, 2015inc.sagepub.comDownloaded from
to speak, swallow or communicate are unknown but
likely to be additive to the well-documented adverse
effects of critical illness.
7,12,13
Frustration, anger and
low mood can lead to withdrawal from interaction
with family and carers and reduced participation in
treatment, rehabilitation and the recovery process.
14
The role of experienced critical care speech and lan-
guage therapists (SLT) as part of the multidisciplinary
ICU team is key in attempting to overcome commu-
nication barriers.
15
Endotracheal and tracheostomy tubes that have
the ability to drain subglottic secretions via dedicated
additional ports are increasingly recognised as one of
the effective components of strategies to reduce venti-
lator-associated pneumonias.
16
Through participation
in an international tracheostomy quality improve-
ment project (The Global Tracheostomy
Collaborative (GTC), www.globaltrach.org) our hos-
pital collaborated with colleagues from the
Tracheostomy Review And Management Service
(TRAMS) team, based at Austin Healthcare,
Melbourne, Australia. Some of TRAMS’s work is
with high spinal injury patients, and they were using
the same Smiths Medical (Ashford, Kent, UK) Blue
Line Ultra Subglottic Suction (SGS) tracheostomy
tubes that are in routine use on our ICU in
Manchester, UK. TRAMS were using the SGS port
in an innovative way to allow speech for patients who
were fully ventilated. The GTC QI project supports
rapid adoption of international best practices and led
to us quickly sharing protocols and experience in this
technique. By directing a retrograde flow of gas via
the SGS tube to exit above the cuff, patients can the-
oretically vocalise, with the technique described as
above cuff vocalisation (ACV), as demonstrated in
Figures 1 and 2. We describe a case series of the
innovative use of the SGS port of tracheostomy
tubes to facilitate communication in five general
ICU patients. Our patients were awake, cooperative
and attempting to communicate, but were unable to
do so effectively due to the requirement for continu-
ally inflated tracheostomy tube cuff for ongoing mech-
anical ventilatory support.
Case reports
Case 1
A 76-year-old man with a history of asthma and
Parkinson’s disease was admitted to hospital with
shortness of breath, confusion and suspected infective
exacerbation of asthma. He quickly developed Type 2
respiratory failure due to Influenza A and was trans-
ferred to ICU for invasive ventilation. He deteriorated
further and required partial extracorporeal CO
2
removal using a HemolungÕRAS (ALung
Technologies, Pittsburgh, US). After seven days of
intubation he was tracheostomised and was already
showing signs of critical illness myopathy. Three
days later he was referred to SLT, alert but confused
and unable to follow commands. He was noted to
have pulmonary oedema, remaining on ventilator
pressure support of 23 cm H
2
O with the cuff inflated.
He demonstrated occasional cuff leak and a whisper
voice whilst attempting to mouth words. Two days
later he was much more cooperative but high ventila-
tor pressure support precluded cuff deflation or speak-
ing valve trials. Although he had audible upper
airway secretions, none were retrieved on SGS. With
consent, ACV was trialled and he was able to phonate
at 5 l/min flow rate with an audibly wet, breathy voice
quality rated 2 on the Therapy Outcome Measure for
Voice Impairment scale (TOMS, see Table 1).
17
This
represented an improvement from TOMS 0 without
ACV. His speech was intelligible and although his
voice was not ‘normal’ it was sufficient to enable
him to speak audibly. Nursing staff and SLT contin-
ued with regular 5 min spells of ACV in order to facili-
tate communication with staff, family and visitors for
a further three days until he began to tolerate cuff
deflation and his wean progressed rapidly to decannu-
lation two days later. In addition to the benefits of
communication and laryngeal sensitivity, effects on
swallowing were observed during fibreoptic endo-
scopic evaluation of swallowing (FEES).
18
Without
ACV, he silently aspirated secretions and oral fluids
but with ACV, aspiration became overt with an active
cough response. The laryngeal airflow not only
revived vocal fold vibration producing voice but
also appeared to improve glottic closure reflexes.
19
Case 2
A 41-year-old man with severe Chronic Obstructive
Pulmonary Disease (COPD) following smoking and
cannabis use was admitted to hospital for a double
lung transplant. He remained sedated and invasively
ventilated via an oral endotracheal tube for 12 days
post-transplant, requiring veno-arterial and veno-
venous extra-corporeal membrane oxygenation (VA
and VV ECMO) for eight days of this period. He
was tracheostomised at day 12 and sedation was
reduced and stopped by day 14. Ventilator weaning
was very prolonged due to critical illness myopathy,
pleural effusions and anxiety and he required contin-
ual cuff inflation to facilitate positive pressure sup-
port. By five weeks post-transplant, he was getting
frustrated with mouthing words and he was referred
to SLT for communication and swallowing assess-
ment. SLT performed an ACV trial and he achieved
audible voice, easily scoring a TOMS 4. On FEES he
was observed to have a sluggish left vocal cord but
this hardly impacted on voice quality. He continued
to use ACV for four further days communicating very
effectively until cuff deflation was established and he
was decannulated a few days later. At times he was
observed to burp which may have been a consequence
of ACV airflow causing aerophagia.
20
2Journal of the Intensive Care Society 0(0)
by guest on November 7, 2015inc.sagepub.comDownloaded from
Case 3
A 76-year-old lady with a background of COPD,
hypertension, presbycusis (age-related hearing loss)
and non-insulin dependent diabetes underwent a left
upper lobectomy for lung carcinoma. She had a failed
extubation post-operatively and was re-intubated then
tracheostomised two days later. Within five days she
was awake but intermittently drowsy and was attempt-
ing to communicate by mouthing words with variable
intelligibility. She was too confused and agitated to lip-
read or use writing or picture/word charts and had
unreliable yes/no head nod and shake responses.
Following SLT assessment, an ACV trial was agreed,
given her high ventilation requirements and need for
cuff inflation. On 3 and 5 l/min flow rates she achieved
audible whisper but no voice and airflow sounded tur-
bulent and restricted. Despite this, her speech became
more intelligible over the following two days, commu-
nication interactions became easier and no desaturation
or respiratory distress occurred. Her hearing impair-
ment did impact but she benefitted from communica-
tion partners writing down conversation.
Because of her limited voice, we considered a poten-
tial problem with upper airway patency and ACV was
stopped. However, FEES was not carried out as cuff
deflation followed quickly and swallow function was
assessed by SLT as safe. With cuff deflation, she toler-
ated the speaking valve poorly and experienced
ongoing dysphonia (gruff, strained voice). This
prompted ENT assessment and the vocal folds were
visualised and found in a paramedian position and
weak, confirming the signs observed. She was decan-
nulated 10 days later and her dysphonia gradually
improved, suggesting causation as likely intubation
trauma and recurrent laryngeal nerve trauma during
thoracic surgery.
21
Upper airway obstruction is a
likely contraindication for using ACV although further
research is needed on the optimal timing and use of
endoscopy for establishing this prior to trials.
Case 4
A 41-year-old man with community-acquired pneu-
monia was admitted to ICU following deterioration
requiring intubation and ventilation but developed
acute respiratory distress syndrome necessitating VV
ECMO for 34 days. He was previously fit and well,
but profoundly deaf since birth, resulting in him com-
municating as both a deaf speaker and sign language
user. He developed severe critical illness myopathy
related to high dose steroids and was unable to use
his upper limbs or even lift his head off the pillow. He
Figure 1. Tracheostomy tube in situ with subglottic suction ports and tubing indicated. Left-hand figure demonstrates the usual
removal of secretions by aspiration. Right-hand figure demonstrates the flow of gas to the upper airways via the larynx when additional
gas flow is directed into the subglottic port.
Figure 2. One of the patients described with cuffed Blue Line
Ultra Subglottic suction Tracheostomy tube in situ with the cuff
inflated. The green oxygen tubing is connected to the subglottic
suction port via the clear open valve (arrow), occluding which
will facilitate ACV (with permission).
McGrath et al. 3
by guest on November 7, 2015inc.sagepub.comDownloaded from
was tracheostomised following 11 days of intubation
and was totally ventilator dependent. Once awake he
was attempting to communicate by mouthing words
and was referred to SLT for communication and swal-
lowing advice. He had bulbar signs of myopathy redu-
cing his intelligibility and was becoming increasingly
frustrated and angry with his communication difficul-
ties, impacting his compliance with nursing and med-
ical care. Since cuff deflation was impossible due to a
ventilator pressure support of 25 cm H
2
O, a trial of
ACV on 6 l/min was carried out and produced a com-
pletely normal voice at the first use within a few min-
utes (TOMS 5). ACV was subsequently performed
every day for 5 min spells to facilitate communication
with staff and relatives. A small amount of secretions
were removed by SGS each time and a communica-
tion partner was required to occlude the airflow port
but otherwise no difficulties were encountered. He
continued to use ACV for the next month as tolerance
of cuff deflation remained poor despite sprint weaning
and he sustained a strong, loud voice. Interestingly, he
was initially totally aphagic due to myopathy of swal-
lowing musculature and prolonged cuff intubation
and inflation but his swallow function improved
quicker than anticipated. It is postulated but not clin-
ically proven as yet, that the repeated airflow on ACV
facilitated re-sensitisation of the larynx, improving
airway protection and swallow strength.
19
Case 5
A 30-year-old homeless man sustained 45% burns to
face, neck, both arms and hands following a fire in his
tent. He was previously well with a background of
alcohol and substance abuse. He was admitted to
the burns unit 24 h after the event after being found
by a passer-by. In addition to dermal burns, he pre-
sented with stridor, hoarseness, periorbital oedema
and underwent a difficult intubation. Bronchoscopy
revealed inhalation burns to the posterior tongue,
pharynx, glottis, vocal cords and trachea with soot
andsloughinthepharynxandlarynx.Hewas
sedated and ventilated and repeat bronchoscopy
showed minimal laryngeal oedema but carbonaceous
sputum. He had a failed extubation at day 8 but was
successfully extubated onto high-flow nasal cannula
oxygenatday10,andassessedbySLTregularlyover
the following week. He was drooling, with a weak
voice, unsafe swallow and agitation. At day 20, he
was re-intubated and tracheostomised due to respira-
tory failure, high sputum load and secretion aspir-
ation. He was ventilated with the cuff inflated for a
further week and found communication extremely
frustrating, increasing his agitation and non-compli-
ance with treatments. Bronchoscopy and ENT
fibreoptic nasendoscopy showed significant improve-
ment in laryngopharyngeal inhalation injury and it
was decided to trial ACV in order to facilitate com-
munication. He was unable to achieve voice (TOMS
0) and secretions were propelled up into the orophar-
ynx stimulating a cough and swallow. Minimal bene-
fit was perceived from ACV and cooperation was
limited, which extended to all therapeutic communi-
cation strategies suggested by SLT. He remained
aphonic and severely dysphagic following decannu-
lation five days later. Repeat FEES demonstrated
poor glottic closure, epiglottic and vocal fold
oedema and silent aspiration of secretions and oral
intake as a result of intubation and inhalation
trauma. He was discharged with a percutaneous
endoscopic gastrostomy and remained aphonic due
to a permanently altered larynx. This case illustrates
the need for cooperation and intact laryngeal func-
tion for ACV to be successful, although in such com-
plex cases options for communication are very
limited.
Table 1. Therapy outcome measure for voice impairment.
Score Description
0Severe persistent aphonia
Unable to phonate. Does not phonate
1Consistent dysphonia
Occasional phonation. May be dysphonic with aphonic episodes
2Moderate dysphonia
Can phonate but frequent episodes of marked vocal impairment occurring
3Moderate/mild dysphonia
Less frequent episodes of dysphonia (e.g. occurs some time each day/or slight persistent ‘huskiness’)
4Mild dysphonia
Occasional episodes of dysphonia occurring
5No dysphonia
Appropriate modal voice consistently used
Source: Adapted from Enderby.
17
4Journal of the Intensive Care Society 0(0)
by guest on November 7, 2015inc.sagepub.comDownloaded from
Videos of some of these patients using ACV
(with appropriate permissions) and animations
describing the flow of gas are available via the
Health Foundation website at www.health.org.uk/
blog/giving-voice-critically-ill-patients-literally.
Discussion
We have described how verbal communication is pos-
sible in typical ICU patients in a carefully controlled
and directly supervised environment using Blue Line
Ultra SGS tracheostomy tubes in common use. We
are not the first group to describe the successful use
of additional airflow to facilitate ACV in specialist
populations, but have recognised the potential appli-
cation of this technique as part of the armoury of
communication aids available to the general ICU
population managed with tracheostomies. The
following is a brief overview of related techniques to
facilitate oral communication in the tracheostomy-
ventilated patient.
In order to achieve adequate voice, a subglottic
(tracheal) pressure of a least 2 cm H
2
O is required
as a minimum, with tracheal pressures of 5–10 cm
H
2
O described during normal speech with flows of
50–300 ml/s (3–18 l/min).
22,23
Whilst it is not possible
to replicate these physiological conditions in the
patient with a cuffed tracheostomy, strategies exist
to allow the patient enough glottic airflow to vocalise.
These can be considered as scenarios and systems
where the cuff remains inflated or the cuff is at least
partially deflated. In practice, different options may
be appropriate for patients at different stages of
their critical illness.
Cuff deflation
For a patient to tolerate cuff deflation, they must have
an appropriate secretion load and adequate clearance,
be at an acceptable risk of aspiration into the airway
and have adequate respiratory mechanics to be able to
tolerate the reduction in positive pressure support.
Speech can be achieved by simple cuff deflation,
assuming that there is enough space between
the outer tracheostomy tube and the trachea for ade-
quate flows of exhaled gas to pass, that the larynx
is functional and that the upper airways are patent.
This method of vocalisation is often referred to as
‘leak speech’. Using a fenestrated tracheostomy tube
system may increase the amount of gas passing
through the larynx. Fenestrated tubes or cuff deflation
effectively divert gas flow away from the patients
lungs, which in most cases will reduce the effectiveness
of ventilation (Figure 3). Specific ventilator
strategies and ventilators that will tolerate and com-
pensate for such volume loss can be used in this
situation.
24
The amount of airflow that exits via the upper air-
ways and larynx may be increased by the use of a one-
way speaking valve.
25
These valves are placed between
the ventilator and tracheostomy tube and are ‘open’
in inspiration, allowing normal ventilation of the
lungs. In expiration, however, the valve closes and
gas flow cannot exit via the lumen of the tracheos-
tomy tube. Gas must therefore pass around the tube
in the trachea to the upper airways, traversing the
larynx and potentially allowing speech. The obvious
requirements in this situation are a deflated (or no)
cuff and a patent upper airway, and significant harm
has been described when using these valves.
26
These
valves can be used with or without a ventilator,
although any ventilator must be able to compensate
for the significantly increased leakage and escape of
gas from the circuit via the upper airways.
25,27
If the
patient is able to co-ordinate respiration and move-
ment, simple digital occlusion of the tracheostomy
tube will drive expired airflow through the larynx.
Newer tubes have been described that incorporate
the one-way valve mechanism within a dedicated
‘speaking’ fenestrated inner cannula.
28
Cuff remains at least partially inflated
If the cuff cannot be continually deflated for clinical
reasons, there remain a number of options to facilitate
speech. Dedicated ‘speaking tubes’ have dynamic cuffs
whereby during inspiration, the cuff expands and pro-
vides an effective seal of the airway. The cuff deflates
in expiration and allows exhaled gas to at least par-
tially bypass the tracheostomy tube. Gas is exhaled
via both the upper airways and the tracheostomy
tube itself.
29
With a fenestrated tracheostomy tube (with an
appropriately fenestrated inner cannula in situ) gas
flow is directed partially via the upper airways from
the lumen of the tracheostomy tube. The cuff can
remain inflated. In this configuration, positive pres-
sure ventilation will be at least partially directed via
the upper airways in inspiration and exhaled gas will
similarly exit. Vocalisation is theoretically possible
therefore in inspiration and expiration. The tracheos-
tomy tube does not protect from aspiration as there
remains an open communication from the upper air-
ways into the lungs. A number of commercially avail-
able cuffed fenestrated tubes exist, and modifications
to existing tubes have also been described by fashion-
ing bespoke fenestrations to facilitate speech.
30
Tubes
with dynamic fenestrations are also commercially
available which allow the fenestrations to open in
expiration only.
31
If the cuff remains permanently inflated and the
tube is un-fenestrated, vocalisation is possible using
an additional gas supply that exits above the cuff.
There have been a number of these types of tubes
described, with ‘Speaking tracheostomy tubes with
the cuff inflated’ reported as early as 1975.
32
Other
variations on this technique were described using
single or multiple gas ports and generally reported
McGrath et al. 5
by guest on November 7, 2015inc.sagepub.comDownloaded from
successful quiet speech in small case series.
33–37
Because laryngeal gas flow and mechanical ventilation
of the lungs continue independently by two separate
gas supplies, this technique effectively decouples
speech and breathing. There is no loss of ventilation
during speech with this device, and the inflated cuff
reduces the risk of aspiration.
23
This classification of
vocalisation strategy has become known as ACV.
The potential for ACV in the acutely ill critical
care population
With the increasing use of SGS tubes in an attempt to
reduce VAP, many tracheostomised ICU patients will
have a device in situ that could allow attempts at
vocalisation in certain circumstances. Husain
described the use of Blue Line Ultra SGS tubes
for ACV in spinal injury patients in 2011.
38
Although this particular tube was designed for dedi-
cated aspiration of secretions from the subglottic
space, there may be advantages over some other
tubes specifically designed for ACV.
20
The ‘speech
lumen’ (SGS port) diameter is larger, the inner cannula
is not corrugated and the SGS lumen can be flushed
with saline for patency. Perhaps the biggest advantage
is that the tracheostomy tube initially inserted to facili-
tate ongoing airway maintenance can be used for
attempts at ACV without having to change the tube
for another device. This reduces the need for a specific
tube change to facilitate speech, which is a disadvan-
tage of other dedicated speaking tubes.
23
There are a number of potential limitations to the
use of ACV via a SGS or additional port for vocal-
isation. Voice quality may be limited and in our
patients voice quality was limited to little more than
a whisper in some, as reported in other series. Voice
quality may improve with higher translaryngeal gas
flows but this can be associated with a potentially
greater risk of airway injury.
37,39
If the resistance to
airflow retrograde through the stoma is less than that
through the upper airway, much of the added flow
may leak from the stomal site and not be available
for speech.
36,40
This may be less of a problem with
percutaneously formed stomas.
36
The TRAMS team
pragmatically does not recommend the use of ACV
before 72 h following new tracheostomy and limit gas
flows to 5 l/min. It should be stressed that complica-
tions should be minimised by appropriate bedside
supervision of trials of ACV by an experienced multi-
disciplinary ICU team, including an appropriately
trained SLT.
The delivery of gas flow via the SGS tube may also
cause potential problems. Dry gas or high concentra-
tions of oxygen are likely to have a drying effect on
the laryngeal mucosa and hyperadduction of the vocal
folds in response to translaryngeal airflow may occur.
Humidifying gas delivered via a small calibre SGS
tube is possible but requires modifications to existing
systems. The delivery of gas into the subglottic region
relies on a patent upper airway to decompress the
space. Gas may be swallowed or potentially be deliv-
ered into the soft tissues and cause subcutaneous
emphysema if the tube becomes displaced. Most sys-
tems have an open connector between the SGS port
and the external gas supply that requires occlusion in
order to facilitate speech. This requires a degree
of strength and co-ordination in the ICU patient, or
assistance from staff or carers, although automated
systems have been described.
35
If a closed system
were used that delivers continual flow to the subglottic
space, a (low) pressure relief valve would be a sensible
addition to the circuit. In keeping with previous
Figure 3. Gas flows through correctly positioned tracheostomy tubes: Left-hand figure shows a cuff-inflated tube with gas flow
excluded from the upper airway. Centre figure shows gas flow in ‘leak speech’, with the cuff deflated (or not present). Gas flows via the
tracheostomy tube, but also a small amount via the upper airways. Right-hand figure shows increased airflow via the upper airways by
adding a fenestration to the tracheostomy tube.
6Journal of the Intensive Care Society 0(0)
by guest on November 7, 2015inc.sagepub.comDownloaded from
reports, our experience suggests that several days of
ACV use may be necessary before the patient is able
to develop voice with ACV and in some patients,
voice may not be possible.
23,37,39
From our limited
observational data, there were no clear predictors of
early, successful voicing.
Finally, upper airway secretions may also interfere
with the quality of voice, and secretions above the cuff
can lead to a blocked gas flow line.
23
This problem
should be minimised by the continued use of the SGS
port for secretion clearance. We have observed anec-
dotally that the management of oral and laryngeal
secretions during ACV seemed to improve in the
two patients who underwent concomitant FEES
during a trial of ACV. This phenomenon is worthy
of further study as the flow of gas through the larynx
may facilitate the clearance of subglottic secretions.
This could be an additional benefit of ACV over
and above that benefit from earlier laryngeal recovery
after intubation that would be expected from
encouraging translaryngeal gas flow.
In conclusion, we have described how effective
verbal communication is possible in a carefully con-
trolled and directly supervised environment using
Blue Line Ultra SGS tracheostomy tubes that are in
common use amongst critical care patients. This
report also highlights the benefits of collaboration
through networks such as the GTC in driving rapid
adoption of techniques that translate immediate bene-
fits to patients. Guidelines for more widespread safe
use of these and other tracheostomy tubes should
be developed jointly between SLT practitioners and
the multidisciplinary ICU team. In addition to com-
munication benefits, the effect of ACV on secretion
management, recovery of laryngeal function, decan-
nulation times and ventilator-associated pneumonias
are currently unknown. Further detailed studies are
required to determine parameters for safe use, clarify
patient selection and techniques to ensure our patients
have the best chance of successful verbal communica-
tion during their ICU management.
Acknowledgements
The authors gratefully acknowledge the assistance of the
Global Tracheostomy Collaborative (www.globaltrach.org)
in sharing of experience and protocols regarding the
use of ACV, especially that of Mrs Tanis Cameron and
the TRAMS team, Austin Health, Melbourne
(www.tracheostomyteam.org).
Declaration of Conflicting Interests
The authors declared the following potential conflicts of
interest with respect to the research, authorship, and/or
publication of this article: This work was carried out as
part of UHSMs Health Foundation Funded ‘Shine’
Tracheostomy Quality Improvement Project.
BAM is the current European Lead of the Global
Tracheostomy Collaborative.
Funding
The authors disclosed receipt of the following financial sup-
port for the research, authorship, and/or publication of this
article: The authors have received unrestricted funding from
Smiths Medical to evaluate BLUS tubes for the purposes of
ACV in a future study.
Consent
All patients discussed in this case series have given their
written consent to publication, have been offered a draft
of the final manuscript and the Trust Cadicott Guardian
has given her written consent to publication.
References
1. Wilkinson KA, Martin IC, Freeth, et al. NCEPOD: on
the right Trach? www.ncepod.org.uk/2014tc.htm
(accessed 20 October 2014).
2. Fischler L, Erhart S, Kleger GR, et al. Prevalence of
tracheostomy in ICU patients. A nation-wide survey in
Switzerland. Intensive Care Med 2000; 26: 1428–1433.
3. Blot F, Melot C and Commission d’Epide
´miologie et de
Recherche Clinique. Indications, timing, and techniques
of tracheostomy in 152 French ICUs. Chest 2005; 127:
1347–1352.
4. Nathens AB, Rivara FP, Mack CD, et al. Variations in
rates of tracheostomy in the critically ill trauma patient.
Crit Care Med 2006; 34: 2919–2924.
5. Veenith T, Ganeshamoorthy S, Standley T, et al.
Intensive care unit tracheostomy: a snapshot of UK
practice. Int Arch Med 2008; 1: 21.
6. McGrath BA, Ramsaran R, and Columb MO.
Estimating the number of tracheostomies performed in
critical care in England. Br J Anaesth 2012; 109: 662P.
7. Engels PT, Bagshaw SM, Meier M, et al.
Tracheostomy: from insertion to decannulation. Can J
Surg 2009; 52: 427–433.
8. Adam SI, Srinet P, Aronberg RM, et al. Verbal com-
munication with the Blom low profile and Passy-Muir
one-way tracheotomy tube speaking valves. J Commun
Disord 2015; 56: 40–46.
9. Hashmi NK, Ransom E, Nardone H, et al. Quality of
life and self-image in patients undergoing tracheostomy.
Laryngoscope 2010; 120: S196.
10. Flinterud SI, and Andershed B. Transitions in the com-
munication experiences of tracheostomised patients in
intensive care: a qualitative descriptive study. J Clin
Nurs 2015; 24: 2295–2304.
11. Happ MB, Seaman JB, Nilsen ML, et al. The number of
mechanically ventilated ICU patients meeting commu-
nication criteria. Heart Lung 2015; 44: 45–49.
12. Khalaila R, Zbidat W, Anwar K, et al. Communication
difficulties and psychoemotional distress in patients
receiving mechanical ventilation. Am J Crit Care
2011; 20: 470–479.
13. Bach JR, Gonc¸ alves MR, Rodriguez PL, et al. Cuff
deflation: rehabilitation in critical care. Am J Phys
Med Rehabil 2014; 93: 719–723.
14. Magnus VS, and Turkington L. Communication inter-
action in ICU-patient and staff experiences and percep-
tions. Intensive Crit Care Nurs 2006; 22: 167–180.
15. McGrath BA, and Wallace S. The UK National
Tracheostomy Safety Project and the role of speech
McGrath et al. 7
by guest on November 7, 2015inc.sagepub.comDownloaded from
and language therapists. Curr Opin Otolaryngol Head
Neck Surg 2014; 22: 181–187.
16. Frost SA, Azeem A, Alexandrou E, et al. Subglottic
secretion drainage for preventing ventilator associated
pneumonia: a meta-analysis. Aust Crit Care 2013; 26:
180–188.
17. John A, and Enderby P. Reliability of speech and lan-
guage therapists using therapy outcome measures. Int J
Lang Commun Disord 2000; 35: 287–302.
18. Kelly AM, McLaughlin C, Wallace S, et al. Fibreoptic
endoscopic evaluation of swallowing (FEES): the role
of speech and language therapy. Royal College of
Speech and Language Therapists Position Paper
RCSLT 2015, www.rcslt.org (accessed 4 July 2015).
19. Leder SB and Suiter DM. Deglutition in patients with
tracheostomy, nasogastric tubes and orogastric tubes.
In: Shaker R, Belfasky PC, Postma GN, Easterby C
(eds) Principles of deglutition: a multidisciplinary text
for swallowing and its disorders. New York: Springer-
Verlag, 2013, pp.461–483.
20. Pandian V, Smith CP, Cole TK, et al. Optimizing com-
munication in mechanically ventilated patients. J Med
Speech Lang Pathol 2014; 21: 309–318.
21. Benjamin B. Laryngeal trauma from intubation: endo-
scopic evaluation and classification. In: Pasha (ed.)
Otolaryngology head & neck surgery. 3rd ed. St Louis:
Plural Publishing, 1998, pp.2013–2035.
22. Holmberg EB, Hillman RE, and Perkell JS. Glottal air-
flow and transglottal air pressure measurements for
male and female speakers in soft, normal, and loud
voice. J Acoust Soc Am 1988; 84: 511–529.
23. Hess DR. Facilitating speech in the patient with a
tracheostomy. Respir Care 2005; 50: 519–525.
24. Conway DH, and Mackie C. The effects of tracheos-
tomy cuff deflation during continuous positive airway
pressure. Anaesthesia 2004; 59: 652–657.
25. Sutt A-L, Cornwell P, Mullany D, et al. The use of
tracheostomy speaking valves in mechanically venti-
lated patients results in improved communication and
does not prolong ventilation time in cardiothoracic
intensive care unit patients. J Crit Care 2015; 30:
491–494.
26. Thomas AN, and McGrath BA. Patient safety incidents
associated with airway devices in critical care: a review
of reports to the UK National Patient Safety Agency.
Anaesthesia 2009; 64: 358–365.
27. Egbers PH, Bultsma R, Middelkamp H, et al. Enabling
speech in ICU patients during mechanical ventilation.
Intensive Care Med 2014; 40: 1057–1058.
28. Adam SI, Srinet P, Aronberg RM, Rosenberg G, and
Leder SB. Verbal communication with the Blom low
profile and Passy-Muir one-way tracheotomy tube
speaking valves. Journal of Communication Disorders
2015; 56: 40–46.
29. Nomori H. Tracheostomy tube enabling speech
during mechanical ventilation. Chest 2004; 125:
1046–1051.
30. la Cruz de M, Islam S, and Cloyes R. Novel modifica-
tion of tracheostomy tube to allow speech and manage
tracheal stenosis. BMJ Case Rep 2013; http://casere
ports.bmj.com/content/2013/bcr-2013-200622.full.pdf
(accessed 4 July 2015).
31. Kunduk M, Appel K, Tunc M, et al. Preliminary report
of laryngeal phonation during mechanical ventilation
via a new cuffed tracheostomy tube. Respir Care 2010;
55: 1661–1670.
32. Safar P, and Grenvik A. Speaking cuffed tracheostomy
tube. Crit Care Med 1975; 3: 23–26.
33. Saul A, and Bergstro
¨m B. A new permanent tracheos-
tomy tube-speech valve system. Laryngoscope 1979; 89:
980–983.
34. Kluin KJ, Maynard F, and Bogdasarian RS. The
patient requiring mechanical ventilatory support: use
of the cuffed tracheostomy ‘‘talk’’ tube to establish
phonation. Otolaryngol Head Neck Surg 1984; 92:
625–627.
35. Levine SP, Koester DJ, and Kett RL. Independently
activated talking tracheostomy systems for quadri-
plegic patients. Arch Phys Med Rehabil 1987; 68:
571–573.
36. Sparker AW, Robbins KT, Nevlud GN, et al. A pro-
spective evaluation of speaking tracheostomy tubes for
ventilator dependent patients. Laryngoscope 1987; 97:
89–92.
37. Leder SB, and Traquina DN. Voice intensity of patients
using a Communi-Trach I cuffed speaking tracheos-
tomy tube. Laryngoscope 1989; 99: 744–747.
38. Husain T, Gatward JJ, and Harris RD. Use of subglot-
tic suction port to enable verbal communication in ven-
tilator-dependent patients. Am J Respir Crit Care Med
2011; 184: 384.
39. Leder SB. Verbal communication for the ventilator-
dependent patient: voice intensity with the Portex
‘‘Talk’’ tracheostomy tube. Laryngoscope 1990; 100:
1116–1121.
40. Leder SB, and Astrachan DI. Stomal complications and
airflow line problems of the Communi-Trach I cuffed
talking tracheotomy tube. Laryngoscope 1989; 99:
194–196.
8Journal of the Intensive Care Society 0(0)
by guest on November 7, 2015inc.sagepub.comDownloaded from
... Voice is achievable whilst mechanically ventilated via a tracheostomy using various methods described in detail below and include using a One-Way Valve with cuff deflation and Above Cuff Vocalisation with cuff inflation. 13,[18][19][20][21] There are many immediate obvious advantages to restoring speech 22 : ...
... Arrow indicates thumb port for airflow control.20 ...
Article
Full-text available
Communication difficulties and their effects on patients who are mechanically ventilated are commonly reported and well described. The possibility of restoring speech for patients has obvious benefits, not only for meeting patient's immediate needs, but for helping them to re-engage in relationships and participate meaningfully in their recovery and rehabilitation. This opinion piece by a group of United Kingdom (UK) based Speech and Language Therapy experts working in critical care describes the various ways by which a patient's own voice can be restored. Common barriers to using different techniques and potential solutions are explored. We therefore hope that this will encourage intensive care unit (ICU) multidisciplinary teams to advocate and facilitate early verbal communication in these patients.
... Non-verbal interventions or AAC such as a communication board (Hosseini et al., 2018;El-Soussi et al., 2015), electrolarynx (Tuinman et al., 2015;Rose et al., 2018;Sato et al., 2016), speech-generating device (Happ et al., 2005(Happ et al., , 2004Koszalinski et al., 2015;Rodriguez et al., 2016) or eye-gaze or eye-blink technology (Garry et al., 2016;Miglietta et al., 2004;Maringelli et al., 2013)can be utilised by patients with either an endotracheal or tracheostomy tube dependent on their level and duration of alertness, cognitive status and the degree of ICU acquired weakness. Verbal communication interventions with a tracheostomy tube include above cuff vocalization (McGrath et al., 2019(McGrath et al., , 2016Mills et al., 2021) talking tracheostomy tubes (Pandian et al., 2014), ventilator-adjusted leak speech (Hoit et al., 2003;Hoit and Banzett, 1997;Garguilo et al., 2013) and one-way speaking valve in-line with the ventilator (Prigent et al., 2010;Sutt et al., 2015;Freeman-Sanderson et al., 2016). Interventions targeting communication in the critically ill have demonstrated feasibility, utility and safety . ...
Article
Full-text available
Objectives: To define effective communication and identify its key elements specific to critically ill patients with an artificial airway. Design: A modified Consensus Development Panel methodology. Setting: International video-conferences. Main outcome measures: Definition of effective communication and it's key elements. Results: Eight experts across four international regions and three professions agreed to form the Consensus Development Panel together with a Chair and one person with lived experience who reviewed the outputs prior to finalisation. "Communication for critically ill adult patients with an artificial airway (endotracheal or tracheostomy tube) is defined as the degree in which a patient can initiate, impart, receive, and understand information, and can range from an ineffective to effective exchange of basic to complex information between the patient and the communication partner(s). Effective communication encompasses seven key elements including: comprehension, quantity, rate, effort, duration, independence, and satisfaction. In critically ill adults, communication is impacted by factors including medical, physical and cognitive status, delirium, fatigue, emotional status, the communication partner and the nature of the ICU environment (e.g., staff wearing personal protective equipment, noisy equipment, bright lights)." The panel agreed that communication occurs on a continuum from ineffective to effective for basic and complex communication. Conclusion: We developed a definition and list of key elements which constitute effective communication for critically ill patients with an artificial airway. These can be used as the basis of standard terminology to support future research on the development of communication-related outcome measurement tools in this population. Implications for clinical practice: This study provides international multi-professional consensus terminology and a definition of effective communication which can be used in clinical practice. This standard definition and key elements of effective communication can be included in our clinical impressions of patient communication, and be used in discussion with the patient themselves, their families and the multi-professional team, to guide care, goal development and intervention.
... It has been shown, however, that cuff deflation during mechanical ventilation results in a significantly earlier phonation than cuff deflation only during self-ventilation (7 vs. 18 days) [47]. A recently described technique of vocalizing by administering air flow through the subglottic suctioning port [48] was used in two ICUs. ...
Article
Full-text available
Background The aim of this survey was to describe, on a patient basis, the current practice of sedation, pharmacologic and non-pharmacologic measures to promote sleep and facilitation of communication in critically ill patients oro-tracheally intubated or tracheostomized. Methods Cross-sectional online-survey evaluating sedation, sleep management and communication in oro-tracheally intubated (IP) or tracheostomized (TP) patients in intensive care units on a single point. Results Eighty-one intensive care units including 447 patients (IP: n = 320, TP: n = 127) participated. A score of ≤ -2 on the Richmond Agitation Sedation Scale (RASS) was prevalent in 58.2% (IP 70.7% vs. TP 26.8%). RASS -1/0 was present in 32.2% (IP 25.9% vs. TP 55.1%) of subjects. Propofol and alpha-2-agonist were the predominant sedatives used while benzodiazepines were applied in only 12.1% of patients. For sleep management, ear plugs and sleeping masks were rarely used (< 7%). In half of the participating intensive care units a technique for phonation was used in the tracheostomized patients. Conclusions The overall rate of moderate and deep sedation appears high, particularly in oro-tracheally intubated patients. There is no uniform sleep management and ear plugs and sleeping masks are only rarely applied. The application of phonation techniques in tracheostomized patients during assisted breathing is low. More efforts should be directed towards improved guideline implementation. The enhancement of sleep promotion and communication techniques in non-verbal critically ill patients may be a focus of future guideline development.
... Tracheostomized patients in intensive care/Patients on tracheostomy receiving mechanical ventilation (Flinterud & Andershed, 2015;Mills et al., 2022;Panadian et al., 2019) Ventilator dependent patients with tracheostomies (McGrath et al., 2016(McGrath et al., , 2019 Ventilator supported individuals (Casbolt, 2002) Phrases used to describe patient population both by their communication abilities and being dependent on mechanical ventilation (Adult) Non-sedated (and more awake/mechanically ventilated) ICU patients (Albayram & Yava, 2020;Danielis et al., 2020;Holm & Dreyer, 2018b;Karlsen et al., 2020) Conscious and alert (voiceless/oriented) patients under mechanical ventilation in intensive care units (Duffy et al., 2018;Holm & Dreyer, 2018b;Karlsen et al., 2019) Intubated patients' ability to communicate (Ijssennagger et al., 2018) Mechanically ventilated patients who are awake and able to communicate (Danielis et al., 2020) Mechanically ventilated patients who cannot communicate verbally due to endotracheal intubation/tracheostomy (Holm et al., 2020) Nonspeaking (critically ill/hospitalized) patients treated with mechanical ventilation (in the intensive care unit; Foa et al., 2016;Happ et al., 2011;Happ, Roesch, et al., 2004;Yavuz & Gursoy, 2022) Nonvocal (ventilated/critical care) patients (Carroll, 2004(Carroll, , 2007Trotta et al., 2020) Patient who are voiceless due to mechanical ventilation (Koszalinski et al., 2015) Unable/able to speak/talk/communicate/verbally express themselves (as result of ventilation, because of their need for mechanical ventilation and respiratory tract intubation (Carroll, 2004;Fitch et al., 1998;Foa et al., 2016;Guttormson et al., 2015;Hosseini et al., 2018;Koszalinski et al., 2015;Magnus & Turkington, 2005;Menzel, 1998;Panadian et al., 2019;Yavuz & Gursoy, 2022) Ventilated patients (unable to converse in a normal manner (Casbolt, 2002;van den Boogaard & van Grunsven, 2004) are also linked to each other, as assessment will affect the styles and methods used, and vice versa. ...
Article
Full-text available
Aims The aim of this study was to perform a concept analysis of communication with mechanically ventilated patients in intensive care units and present a preliminary model for communication practice with these patients. Design The Im & Meleis approach for concept analysis guided the study. Search Methods A literature search was performed in January 2022 in MEDLINE, Embase, CINAHL, psycINFO and Scopus, limited to 1998–2022. The main medical subject headings search terms used were artificial respiration, communication and critical care. The search resulted in 10,698 unique references. Review Methods After a blinded review by two authors, 108 references were included. Core concepts and terminology related to communication with mechanically ventilated patients were defined by content analytic methods. The concepts were then grouped into main categories after proposing relationships between them. As a final step, a preliminary model for communication with mechanically ventilated patients was developed. Results We identified 39 different phrases to describe the mechanically ventilated patient. A total of 60 relevant concepts describing the communication with mechanically ventilated patients in intensive care were identified. The concepts were categorized into five main categories in a conceptual map. The preliminary model encompasses the unique communication practice when interacting with mechanically ventilated patients in intensive care units. Conclusion Highlighting different perspectives of the communication between mechanically ventilated patients and providers through concept analysis has contributed to a deeper understanding of the phenomena and the complexity of communication when the patients have limited possibilities to express themselves. Impact A clear definition of concepts is needed in the further development of guidelines and recommendations for patient care in intensive care, as well as in future research. The preliminary model will be tested further. Patient or Public Contribution No patient or public contribution, as this is a concept analysis of previous research.
Chapter
Spinal cord injuries result in multiple effects on the respiratory system, which unfortunately lead to significant disabilities and/or respiratory failure in people with spinal cord injuries. Respiratory disorders can develop as a result of the wide variety of functional impairments that can occur in these diverse conditions and are considered as a leading cause of mortality for many patients with spinal cord injuries. A spinal cord injury is characterized by profound respiratory compromise caused by the level of loss of motor, sensory, and autonomic control associated with the injury. Patients are most vulnerable to respiratory illness in the first year after injury but continue to suffer from respiratory complications throughout life. These respiratory problems cannot be recognized as quickly in patients with spinal cord injuries as in normally innervated individuals. A high spinal cord injury above the fifth cervical segmental level usually results in a severe impairment of respiratory function. To minimize morbidity and mortality, people with tetraplegia need continuous preventive measures, careful surveillance, prompt diagnosis, and appropriate treatment of respiratory complications. Considering the morbidity of the respiratory system that results from spinal cord injuries, it is imperative to have a thorough understanding of the physiologic effects of spinal cord injuries. If a patient survives an acute stage of respiratory distress, chronic problems that may lead to a complication of the respiratory system may occur. It is important for the clinician to understand the muscles and normal mechanics of respiration before evaluating the respiratory status of the patient and establishing treatment goals.KeywordsRespiratory paralysisRespiratory anatomySpinal cord injuriesPneumonia
Article
Critically ill patients undergoing mechanical ventilation often suffer from psychological distress due to the loss of speech. We present a tracheostomized patient who was able to produce intelligible speech with a combination of an electrolarynx (EL) and above cuff vocalization (ACV). A 70-year-old man underwent a tracheostomy and required long-term mechanical ventilation due to tracheal deformation after lung cancer surgery. To enhance communication for the patient, we applied an EL and ACV. Speech intelligibility was evaluated by the 9-point conversational intelligibility test. The speech intelligibility score was 4 with the EL, and 4 with ACV, because the patient was only able to tolerate a low airflow rate (1 L/min). We subsequently applied a combination of the EL and ACV. The combination method increased speech intelligibility up to 2.5 and improved patient satisfaction as evaluated by the visual analog scale. For EL users, voiceless consonants are difficult to pronounce and are one of the causes of poor intelligibility. Adding ACV to the use of EL might allow the patient to pronounce such voiceless consonants and possibly lead to improved speech intelligibility. Our findings suggest that it may be useful to use an EL together with ACV to communicate with tracheostomized patients.
Article
Tracheostomy refers to a surgical incision created in the neck to allow direct air entry into the trachea bypassing the upper respiratory tract including the oral and nasal cavities. Normal vocalization and swallowing are limited immediately postoperatively; however, gradual recovery of vocalization and swallowing function can be initiated, following improvement in the causative condition that necessitated the tracheostomy. Duration of the tracheostomy depends upon the patient’s condition, and the degree of vocalization and swallowing function recovery after tracheostomy tube removal varies widely across patients. In this review, we investigated the changes associated with vocalization and swallowing function in patients who underwent tracheostomy and have discussed the various approaches and voice rehabilitation treatments to aid with normal recovery.
Article
Objective: To conduct an international survey to investigate the use of above cuff vocalisation (ACV) and how practice and opinion differs. Design: Observational, cross-sectional online survey. Setting: Critical care, acute, rehabilitation, long-term care and community PARTICIPANTS: Healthcare professionals involved in tracheostomy care or weaning (N=243). Interventions: Not applicable. Main outcome measures: Tracheostomy management, prevalence, personal experiences and opinions, and barriers to use. Quantitative data were reported descriptively and content analysis was conducted with qualitative data. Results: The survey was completed by 243 healthcare professionals from nine professional groups and 25 countries, with the majority of responses from the UK (54%) and speech and language therapists (55%). ACV was used in 39% of services (n=93/243). Sixty percent (n=50/83) of health care professionals with direct experience of ACV had used it with <10 people. Implementation of ACV varied widely concerning: procedures, contraindications, safety processes, professionals involved, competencies, staff training, delivery, and outcome measures. The top benefits were communication (n=76/93; 82%), mood (n=62/93; 67%), and laryngeal sensation (n=49/93; 53%). Complications included: discomfort (n=54/93; 58%) and strained vocal quality (n=39/93; 42%). Barriers to ACV implementation included: lack of knowledgeable staff (n=92/238; 39%), and lack of access to training (n=73/238; 31%). Conclusions: ACV uptake varies internationally with no standardised approach to ACV delivery. Diversity of opinions on approaches and benefits exist. Serious complications are infrequent, but minor complications are common. Future research is needed to establish optimal ACV implementation to maximise benefits and minimise risks.
Article
Background Neck stoma patient care involves significant clinical complexity. Inadequate staff training, equipment provision and infrastructure have all been highlighted as causes for avoidable patient harm. Aims To establish the perception of knowledge and confidence levels relating to the emergency management of neck stomas among UK nurses during the COVID-19 pandemic. Method A nationwide prospective electronic survey of both primary and secondary care nurses via the Royal College of Nursing and social media. Findings 402 responses were collated: 81 primary care and 321 secondary care; the majority (n=130) were band 5. Forty-nine per cent could differentiate between a laryngectomy and a tracheostomy; ENT nurses scored highest (1.56; range 0−2) on knowledge. Fifty-seven per cent could oxygenate a tracheostomy stoma correctly and 54% could oxygenate a laryngectomy stoma correctly. Sixty-five per cent cited inadequate neck stoma training and 91% felt inclusion of neck stoma training was essential within the nursing curriculum. Conclusion Clinical deficiencies of management identified by nurses can be attributed to a lack of confidence secondary to reduced clinical exposure and education.
Chapter
Swallowing, in both normal and disordered populations, with regard to the presence of a tracheotomy tube, one-way tracheotomy tube speaking valve, nasogastric tube, and orogastric tube is described. Specific subject areas include swallowing and tracheotomy tube use across the age span from pediatric to adult populations and swallowing success when mechanical ventilation via tracheotomy is required. Additional topics include swallowing success dependent on tracheotomy tube cuff status, i.e., inflated versus deflated, tracheotomy tube occlusion status, i.e., occluded versus open, and the presence versus absence of a tracheotomy tube itself. Also, current data and a discussion on swallowing and one-way tracheotomy tube speaking valve use are addressed. Lastly, nasogastric and orogastric tubes, by traversing the same path as a food bolus, can potentially impact on swallowing and information regarding their effect on swallowing is presented.
Article
To investigate physiologic parameters, voice production abilities, and functional verbal communication ratings of the Blom low profile voice inner cannula and Passy-Muir one-way tracheotomy tube speaking valves. Case series with planned data collection. Large, urban, tertiary care teaching hospital. Referred sample of 30 consecutively enrolled adults requiring a tracheotomy tube and tested with Blom and Passy-Muir valves. Physiologic parameters recorded were oxygen saturation, respiration rate, and heart rate. Voice production abilities included maximum voice intensity in relation to ambient room noise and maximum phonation duration of the vowel/a/. Functional verbal communication was determined from randomized and blinded listener ratings of counting 1-10, saying the days of the week, and reading aloud the sentence, "There is according to legend a boiling pot of gold at one end." There were no significant differences (p>0.05) between the Blom and Passy-Muir valves for the physiologic parameters of oxygen saturation, respiration rate, and heart rate; voice production abilities of both maximum intensity and duration of/a/; and functional verbal communication ratings. Both valves allowed for significantly greater maximum voice intensity over ambient room noise (p<0.001). The Blom low profile voice inner cannula and Passy-Muir one-way speaking valves exhibited equipoise regarding patient physiologic parameters, voice production abilities, and functional verbal communication ratings. Readers will understand the importance of verbal communication for patients who require a tracheotomy tube; will be able to determine the differences between the Blom low profile voice inner cannula and Passy-Muir one-way tracheotomy tube speaking valves; and will be confident in knowing that both the Blom and Passy-Muir one-way tracheotomy tube speaking valves are equivalent regarding physiological functioning and speech production abilities. Copyright © 2015 Elsevier Inc. All rights reserved.
Article
To describe how tracheostomised patients in intensive care experience acts of communication and to better understand their experiences in the context of the transitions theory. Waking up in an intensive care unit unable to speak because of mechanical ventilation can be challenging. Communication aids are available, but patients still report difficulties communicating. Investigating how mechanically ventilated patients experience communication in the context of the transitions theory might elucidate new ways of supporting them during their transitions while being ventilated. A qualitative, descriptive design. Eleven patients who had previously been tracheostomised in an intensive care unit were included in this quality improvement project conducted in a university hospital in Norway. Participants were tracheostomised from 3-27 days. Semistructured interviews were conducted from June 2013-August 2013, 3-18 months after hospital discharge. Transcripts were analysed using inductive content analysis. Participants reported a great diversity of emotions and experiences attempting to communicate while being tracheostomised. One overarching theme emerging from the analysis was the 'Experience of caring and understanding despite having uncomfortable feelings due to troublesome communication.' The theme consists of three categories. The category 'Emotionally challenging' shows that patients struggled initially. With time, their coping improved, as revealed in the category 'The experience changes with time.' Despite difficulties, participants described positive experiences, as shown in the category 'Successful communication.' The importance of patients experiencing caring and understanding despite their difficult situation constitutes the core finding. The findings suggest that participants went through different transitions. Some reached the end of their transition, experiencing increased stability. Despite challenges with communication, participants reported that caring and safety provided by health care professionals were significant experiences. They viewed nonverbal communication as being very important. © 2015 John Wiley & Sons Ltd.
To describe the types of talking tracheostomy tubes available, present four case studies of critically ill patients who used a specialized tracheostomy tube to improve speech, discuss their advantages and disadvantages, propose patient selection criteria, and provide practical recommendations for medical care providers. Retrospective chart review of patients who underwent tracheostomy in 2010. Of the 220 patients who received a tracheostomy in 2010, 164 (74.55%) received a percutaneous tracheostomy and 56 (25.45%) received an open tracheostomy. Among the percutaneous tracheostomy patients, speech-language pathologists were consulted on 113 patients, 74 of whom were on a ventilator. Four of these 74 patients received a talking tracheostomy tube, and all four were able to speak successfully while on the mechanical ventilator even though they were unable to tolerate cuff deflation. Talking tracheostomy tubes allow patients who are unable to tolerate-cuff deflation to achieve phonation. Our experience with talking tracheostomy tubes suggests that clinicians should consider their use for patients who cannot tolerate cuff deflation.
Article
Objectives (1) Estimate the proportion of mechanically ventilated (MV) intensive care unit (ICU) patients meeting basic communication criteria who could potentially be served by assistive communication tools and speech-language consultation. (2) Compare characteristics of patients who met communication criteria with those who did not. Design Observational cohort study in which computerized billing and medical records were screened over a 2-year period. Setting Six specialty ICUs across two hospitals in an academic health system. Participants Eligible patients were awake, alert, and responsive to verbal communication from clinicians for at least one 12-h nursing shift while receiving MV ≥ 2 consecutive days. Main results Of the 2671 MV patients screened, 1440 (53.9%) met basic communication criteria. The Neurological ICU had the lowest proportion of MV patients meeting communication criteria (40.82%); Trauma ICU had the highest proportion (69.97%). MV patients who did not meet basic communication criteria (n = 1231) were younger, had shorter lengths of stay and lower costs, and were more likely to die during the hospitalization. Conclusions We estimate that half of MV patients in the ICU could potentially be served by assistive communication tools and speech-language consultation.
Article
This is a case series of rehabilitation failures that resulted in severe reactive depression from patients unnecessarily bereft of verbal communication by being left to breathe or be ventilated via tracheostomy tubes, with or without inflated cuffs, for months to years.