5. Summary of Clinical Evaluation and Post-Market Clinical
Follow-Up (PMCF)
Summary of Clinical Data Related to Subject Device
Specific Case Numbers (Mixed Cohort Case Numbers) Identified and
Used for Clinical Performance Evaluation
| Product Family |
Clinical Literature |
PMCF Data |
Total Cases |
User Survey Responses |
| Apheresis |
0 |
45 |
45 |
7 |
| Hemodialysis |
5,733 |
7,402 |
13,135 |
16 |
| Unknown |
0 |
0 |
0 |
0 |
| Total |
5,733 |
7,447 |
13,180 |
16 |
| Adults |
5,456 |
7,447 |
12,903 |
0 |
| Pediatrics |
277 |
0 |
277 |
0 |
| Unknown |
0 |
0 |
0 |
16 |
| Total |
5,733 |
7,447 |
13,180 |
16 |
| 14F |
4,383 |
7,320 |
11,703 |
11 |
| 16F |
227 |
125 |
352 |
7 |
| Unknown |
1,123 |
2 |
1,125 |
0 |
| Total |
5,733 |
7,447 |
13,180 |
16 |
Clinical performance was measured using parameters including but
not limited to dwell time, catheter insertion outcomes, and
adverse event rates. Critical clinical parameters extracted from
these studies met standards set forth in the guidelines for the
State of the Art. There were no unforeseen adverse events or other
high occurrences of adverse events detected in any of the clinical
activities. Medcomp® catheters are subjected to, and must pass,
simulated use testing intended to replicate use 3 times per week
for 12 months as part of device development. The Split Cath® III
Catheter passed this testing. Although Medcomp® catheters contain
no materials which degrade over time, fully functional catheters
may be removed for other reasons, such as intractable infection,
change of therapy (such as Renal replacement (transplant) or use
of an arterio-venous graft/fistula). Published clinical literature
does not always focus on the physical lifetime of a catheter for
these reasons. In the case of the Split Cath® III Catheter, 5095
catheters had an 87 day [95%CI: 82.9 – 91.1 days] duration of use
that has been found in clinical use reported to date. Based on
this information, the Split Cath® III Catheter has a 12- month
lifetime; however, the decision to remove and/or replace the
catheter should be based on clinical performance and need, and not
any predetermined point in time.
Summary of Clinical Data Related to the Equivalent Device
Clinical evidence from published literature and PMCF activities
has been generated specific to known and unknown variants of the
subject device. The equivalency rationale in the updated clinical
evaluation report will demonstrate that the clinical evidence
available for these variants is representative of the range of
device variants in the device family. There are no clinical or
biological differences between variants within the subject device
family, and the potential impact of the technical differences will
be rationalized in the updated clinical evaluation report.
Summary of Clinical Data from Pre-Market Investigations (if
applicable)
No pre-market clinical devices were used for the device’s clinical
evaluation.
Summary of Clinical Data from Other Sources
Source:Summary of Published Literature
Clinical evidence literature searches have found thirty eight
published literature articles representing 2,315 Split Cath® III
device family specific cases and an additional 3,418 mixed cohort
cases inclusive of the Split Cath® III device family. The articles
include three randomized controlled trials (Richard et al., 2001,
Trerotola et al., 2002, O’Dwyer et al., 2005), six prospective
studies (Centinkaya et al., 2003, Ash et al., 2002, Ewing et al.,
2002, Fry et al., 2008, Gallieni et al., 2002, Mankus et
al.,1998), twenty retrospective studies (Aboul Hosn et al., 2017,
Aitken et al., 2014, Balamuthusamy et al., 2016, Clark et al.,
2009, Clark et al 2015, Conz et al., 2000, Conz et. al., 2001,
Ekbal et al., 2008, Haas et al., 2010, Kade et al., 2014, Keeling
et al., 2007, Lee et al., 2013, Lima et al., 2024, McGarry et al.,
2017, Nadolski et al., 2013, Onder et al., 2007, Tapping et al.,
2012, Hung et al., 2021, J Les et al., 2021, Zhang et al., 2025),
and four case studies (Aljure et al., 2021, Duarte et al., 2021,
Jonszta et al., 2021, Maidman et al., 2022). Bibliography: Aboul
Hosn M, Nasser Z, Elias E, et al. Switching temporary hemodialysis
catheters to long term catheters: exchange versus de-novo
placement, any difference in line infection?. Clinical nephrology
2017;88:248-53. Adeb M, Baskin KM, Keller MS, et al.
Radiologically placed tunneled hemodialysis catheters: a single
pediatric institutional experience of 120 patients. Journal of
vascular and interventional radiology : JVIR 2012;23:604-12.
Aitken E, Jackson AJ, Kasthuri R, et al. Bilateral central vein
stenosis: options for dialysis access and renal replacement
therapy when all upper extremity access possibilities have been
lost. The journal of vascular access 2014;15:466-73. Aljure,
Dahyana Cadavid; Alvarez-Vallejo, Sergio; Posada-Alvarez, Gloria;
Ruiz-Aguilar, Eliana; Higuita-Urrego, Lina; Guerra-Alvarez,
Catalina; Marin-Durango, Sandra; Ocampo-Kohn, Catalina;
Nieto-Rios, John Fredy; Aristizabal-Alzate, Arbey; (2021).
Hemolysis in Hemodialysis, Secondary to Severe Vena Cava Ash SR,
Mankus RA, Sutton JM, et al. The Ash Split CathTM as long-term IJ
access: Hydraulic performance and longevity. The journal of
vascular access 2002;3:3-9. Bajaj SK, Ciacci J, Kirsch M, et al. A
single institutional experience of conversion of non tunneled to
tunneled hemodialysis catheters: a comparison to de novo
placement. International urology and nephrology 2013;45:1753-9.
Balamuthusamy S, Nguyen P, Bireddy S, et al. Self-centering
split-tip catheter versus conventional split-tip catheter in
prevalent hemodialysis patients. The journal of vascular access
2016;17:233-8. Cetinkaya R, Odabas AR, Unlu Y, et al. Using cuffed
and tunnelled central venous catheters as permanent vascular
access for hemodialysis: a prospective study. Renal failure
2003;25:431-8. Clark TW, Jacobs D, Charles HW, et al. Comparison
of heparin-coated and conventional split tip hemodialysis
catheters. Cardiovascular and interventional radiology
2009;32:703-6. Clark TW, Redmond JW, Mantell MP, et al. Initial
Clinical Experience: Symmetric-Tip Dialysis Catheter with Helical
Flow Characteristics Improves Patient Outcomes. Journal of
vascular and interventional radiology : JVIR 2015;26:1501-8. Conz
PA, La Greca G. Slow maturation of arterio-venous fistula in seven
uremic patients: use of Ash Split Cath(R) as temporary, prolonged
vascular access. The journal of vascular access 2000;1:51-3. Conz
PA, Catalano C, Rizzioli E, et al. Ash Split Cath in geriatric
dialyzed patients. The International journal of artificial organs
2001;24:663-5. Duarte, S.G.G., Alcántara, A., Russo, A., de Sosa,
F., Percovich, A.E. (2021). Trans-cells of stent hemodialysis
catheter placement in patients with exhausted central venous
access Colocación de catéter de hemodiálisis transceldas de
stent en paciente con agotamiento de acceso venoso, 73(1), 29
Ekbal NJ, Swift PA, Chalisey A, et al. Hemodialysis access-related
survival and morbidity in an elderly population in South West
Thames, UK. Hemodialysis international. International Symposium on
Home Hemodialysis 2008;12 Suppl 2:S15-9. Ewing F, Patel D,
Petherick A, et al. Radiological placement of the AshSplit
haemodialysis catheter: a prospective analysis of outcome and
complications. Nephrology, dialysis, transplantation : official
publication of the European Dialysis and Transplant Association -
European Renal Association 2002;17:614-9. Fry AC, Stratton J,
Farrington K, et al. Factors affecting long-term survival of
tunnelled haemodialysis catheters--a prospective audit of 812
tunnelled catheters. Nephrology, dialysis, transplantation :
official publication of the European Dialysis and Transplant
Association - European Renal Association 2008;23:275-81. Gallieni
M, Conz PA, Rizzioli E, et al. Placement, performance and
complications of the Ash Split Cath hemodialysis catheter. The
International journal of artificial organs 2002;25:1137-43. Haas
B, Chittams JL, Trerotola SO. Large-bore Tunneled Central Venous
Catheter Insertion in Patients with Coagulopathy. Journal of
Vascular and Interventional Radiology. 2010;21(2):212-7. Hsu M,
Trerotola SO. Air embolism during insertion and replacement of
tunneled dialysis catheters: a retrospective investigation of the
effect of aerostatic sheaths and over the-wire exchange. Journal
of vascular and interventional radiology : JVIR 2015;26:366-71.
Hung, Matthew L; DePietro, Daniel M; Trerotola, Scott O; (2021).
Infectious Recidivism in Tunneled Dialysis Catheters Removed for
Bloodstream Infection in the Intensive Care Unit #journal#,
32(#issue#), 650-655 Jonszta, T; Czerny, D; Prochazka, V;
Chovanec, V; Krajina, A; (2021). Translumbar Tunnelled Placement
of a Haemodialysis Catheter in a Patient with Transposition of the
Inferior Vena Cava: A Case Report #journal#, (#issue#), Kade G,
Les J, Buczkowska M, et al. Percutaneous translumbar
catheterization of the inferior vena cava as an emergency access
for hemodialysis - 5 years of experience. The journal of vascular
access 2014;15:306-10. Keeling AN, O'Dwyer H, Lyon S, et al. Do
AshSplit haemodialysis catheters provide better flow rates in the
long term? Renal failure 2007;29:721-9. Langer JM, Cohen RM, Berns
JS, et al. Staphylococcus-infected tunneled dialysis catheters: is
over-the-wire exchange an appropriate management option?
Cardiovascular and interventional radiology 2011;34:1230-5. Lee H,
Park S, Chang I, et al. A comparison of standard dual-tip
hemodialysis catheter split lumen hemodialysis catheter. Clinical
Imaging 2013;37:251-5. Les, J., Spaleniak, S., Lubas, A.,
Niemczyk, S., Kade, G. (2021). Early complications of translumbar
cannulation of the inferior vena cava as a quick, last-chance
method of gaining access for hemodialysis. Ten years of experience
in one clinical center Wideochirurgia I Inne Techniki
Maloinwazyjne, 16(1), Lima, C. S. D., Vaz, F. B., & Campos, R.
P. (2024). Bacteremia and mortality among patients with
nontunneled and tunneled catheters for hemodialysis. International
Journal of Nephrology, 2024(1), 3292667. Maidman, S.D., Kiefer,
N.J., Bernard, S., Freedberg, R.S., Rosenzweig, B.P., Bamira, D.,
Vainrib, A.F., Ro, R., Neuburger, P.J., Basu, A., Moreira, A.L.,
Latson, L.A., Loulmet, D.F., Saric, M. (2022). Native mitral valve
staphylococcus endocarditis with a very unusual complication:
Ruptured posterior mitra Mankus RA, Ash SR, Sutton JM. Comparison
of blood flow rates and hydraulic resistance between the Mahurkar
catheter, the Tesio twin catheter, and the Ash Split Cath. ASAIO
journal (American Society for Artificial Internal Organs : 1992)
1998;44:M532- 4. McGarry JG, Given MF, Whelan A, et al. A
prospective comparison of the performance and survival of two
different tunnelled haemodialysis catheters: SplitCath® versus
DuraMax®. The journal of vascular access 2017;18:334-8. Nadolski
GJ, Trerotola SO, Stavropoulos SW, et al. Translumbar hemodialysis
catheters in patients with limited central venous access: does
patient size matter? Journal of vascular and interventional
radiology : JVIR 2013;24:997-1002. O'Dwyer H, Fotheringham T,
O'Kelly P, et al. A prospective comparison of two types of
tunneled hemodialysis catheters: the Ash Split versus the
PermCath. Cardiovascular and interventional radiology
2005;28:23-9. Onder AM, Chandar J, Saint-Vil M, et al. Catheter
survival and comparison of catheter exchange methods in children
on hemodialysis. Pediatric nephrology (Berlin, Germany)
2007;22:1355-61. Patel A, Hofkin S, Ball D, et al. Sheathless
technique of Ash Split-Cath insertion. Journal of vascular and
interventional radiology : JVIR 2001;12:376-8. Richard HM, 3rd,
Hastings GS, Boyd-Kranis RL, et al. A randomized, prospective
evaluation of the Tesio, Ash split, and Opti-flow hemodialysis
catheters. Journal of vascular and interventional radiology : JVIR
2001;12:431-5. Tapping CR, Scott PM, Lakshminarayan R, et al.
Replacement tunnelled dialysis catheters for haemodialysis access:
Same site, new site, or exchange - a multivariate analysis and
risk score. Clinical radiology 2012;67:960-5. Trerotola SO, Kraus
M, Shah H, et al. Randomized comparison of split tip versus step
tip high-flow hemodialysis catheters. Kidney international
2002;62:282-9. Zhang, A., Clark, T. W., & Trerotola, S. O.
(2025). Long-Term Durability of Tunneled Hemodialysis Catheters:
Outcomes from a Single Institution 22-Year Experience.
CardioVascular and Interventional Radiology, 1-7.
Source:Dr Trerotola Data Report_B
The dataset was provided by Scott O. Trerotola, MD an
Interventional Radiologist at the Hospital of the University of
Pennsylvania. Dr. Trerotola is also Stanley Baum Professor of
Radiology, Professor of Radiology in Surgery, Vice Chair for
Quality, Radiology, Associate Chair and Chief, Interventional
Radiology, and Director, Penn HHT Center of Excellence at the
Perelman School of Medicine at the University of Pennsylvania. The
dataset is consecutive, comprehensive, and includes catheter
placements by interventional radiology Attending and Fellowship
Physicians, as well as Residents under Attending supervision. All
5095 Split Cath® III catheters described in the study were 14F
Straight Split Cath® III Catheters with sideholes of variable
lengths inserted percutaneously. There were 335 catheters of 24cm
length, 3,309 catheters of 28cm length, 1,163 catheters of 32cm
length, 144 catheters of 36cm length, 82 catheters of 40cm length,
and 61 catheters of 55cm length. 45 catheters were indicated for
apheresis, and 5,050 catheters were indicated for hemodialysis.
Parameter:Value:Standard Deviation:95% Confidence Interval Dwell
Time (Mean Days):87:148.2:82.9 – 91.1 Procedural Outcomes
(Insertion Success):99.2%:N/A:99% - 99.4% Catheter Related Blood
Stream Infection (CRBSI) (number per 1,000 catheter
days):2.53:N/A:0 – 2.65 Tunnel Infection Rate (number per 1,000
catheter days):0.26:N/A:0 – 0.3 Exit Site Infection Rate (number
per 1,000 catheter days):0.02:N/A:0 – 0.04 Catheter Associated
Venous Thrombus (CAVT) (number per 1,000 catheter days):0.04:N/A:0
– 0.05
Source:LTHD Data Collection Survey Report_B
The Long-Term Hemodialysis Catheter Data Collection Survey was
intended to gather safety and performance outcome information from
sites that purchase Medcomp long-term hemodialysis catheters for
use in EU MDR clinical evaluation. Responses were requested to be
completed by physicians or other site employees with oversight and
direction from a physician. The surveys were distributed globally
to existing Medcomp customers. Responses were collected from
twenty-one sites, spanning nine countries (Colombia, Croatia, El
Salvador, Greece, Italy, Netherlands, Panama, Uruguay, and USA)
across North America, South/Latin America, and Europe. All
patients described in this survey listed hemodialysis as the
indication for treatment, with an average age of 70.3 years.
Patient gender was not recorded in the survey. All 10 catheters
described in the study were 14F Split Cath® III. There were 6
catheters of 24 cm length and 4 catheters of 28 cm length.
Parameter:Value:Standard Deviation:95% Confidence Interval Dwell
Time (Mean Days):316:N/A:N/A Procedural Outcomes (Insertion
Success):100%:N/A:100% - 100% Catheter Related Blood Stream
Infection (CRBSI) (number per 1,000 catheter days):0:N/A:N/A
Tunnel Infection Rate (number per 1,000 catheter days):0:N/A:N/A
Exit Site Infection Rate (number per 1,000 catheter
days):0:N/A:N/A Catheter Associated Venous Thrombus (CAVT) (number
per 1,000 catheter days):3.16:N/A:N/A
• Source:PMCF_Medcomp_211
The Medcomp User Survey acquired responses from healthcare
personnel familiar with any number of Medcomp’s product offerings.
28 respondents responded that they or their facility have used
Medcomp long-term hemodialysis catheters, with 16 of those
respondents using the Split Cath III device, inclusive of variant
categories across French size (14F, 16F) and sideholes (with and
without sideholes). There were no differences in mean user
sentiments within long-term hemodialysis catheters across State of
the Art Performance and Safety Outcome Measures or between device
types relating to safety or performance. The following data points
were collected from users of Medcomp long-term hemodialysis
catheters (n=28):
(Mean Likert Scale Response) Catheters function as intended – 4.8
/ 5
(Mean Likert Scale Response) Packaging allows for aseptic
presentation – 4.8 / 5
(Mean Likert Scale Response) Benefit outweighs the risk – 4.7 / 5
Dwell Time (n=26) – 167 days (95%CI: 130 – 203) The following data
points were collected from users of Medcomp Split Cath® III
catheters (n=16):
(Mean Likert Scale Response) Catheters function as intended – 4.8
/ 5
(Mean Likert Scale Response) Packaging allows for aseptic
presentation – 4.8 / 5
(Mean Likert Scale Response) Benefit outweighs the risk – 4.8 / 5
Dwell Time (n=15) – 196 days (95%CI: 147.2 – 244.8)
• Source:PMCF_Infusion_211
The Infusion Product Line Data Collection Survey aimed to assess
safety and performance outcome information for all variants of
Medcomp Infusion Ports, PICCs, Midlines, and CVCs. 70 survey
responses were collected from 17 countries representing 471 device
cases. 17 Split Cath® III cases, all described as 14F, inclusive
of several variant devices across length (28cm, 32cm, 55cm) were
collected. The following outcome measures were collected for
Medcomp Split Cath® III devices:
Dwell Time – 132.8 Days (95%CI: 76.77 – 188.83)
Procedural Outcomes – 100%
Catheter Related Blood Stream Infection – 2.01 per 1,000 catheter
days (95%CI: 0.04 – 3.98)
Catheter Associated Venous Thrombus – No Events Reported
Exit Site Infection – No Events Reported
• Source:PMCF_LTHD_242
The Long-Term Hemodialysis (LTHD) Truveta data analysis assessed
safety and performance outcome information for Medcomp® and
competitor devices present in Truveta Studio. Truveta data comes
from a growing collective of more than 30 health systems that
provide 17% of the daily clinical care across all 50 U.S. states
from 800 hospitals and 20,000 clinics, representing the full
diversity of the United States. The population used for data
analysis was derived utilizing Truveta Studio’s proprietary coding
language (Prose) and unique device identifier (UDI) codes
representing all saleable Medcomp® LTHD devices and LTHD devices
distributed and/or manufactured by other companies. 2,325
Split-Cath® III cases inclusive of several variant devices were
collected. Cases were described as 14F and 16F and Pre-Curved and
Straight Cases, configurations (pre-curved, straight), and lengths
(24cm, 28cm, 32cm, 36cm, 40cm, 55cm), representation of 24cm,
28cm, 32cm, 36cm, 40cm and 55cm length catheters. The following
State of the Art safety and performance outcome measures were
observed for Medcomp Split-Cath® III devices:
Catheter Related Blood Stream Infection – 0.73 per 1,000 catheter
days (95%CI: 0.62 – 0.86)
Catheter Associated Venous Thrombus – 0.09 per 1,000 catheter days
(95%CI: 0.05 – 0.14)
Exit Site Infection – 0.09 per 1,000 catheter days (95%CI: 0.05 –
0.14)
Tunnel Infection – 0 per 1,000 catheter days (95%CI: 0 – 0.02)
Dwell Time – 108.2 days (95%CI: 86.82 – 129.58) The catheter brand
logistic regression model did not find that any Medcomp® catheter
brands were statistically significantly associated with an
increase of the incidence of CRBSI. The brand agnostic logistic
regression found that pediatric age group (0–19 years), femoral
vein insertion site, catheters that were the fourth or beyond in
sequence for a given patient, split-tip designs, and pre-curved
configurations were statistically significantly associated with
the incidence of CRBSI. The Split Cath® III was associated with a
statistically significant decrease in CRBSI incidence in the brand
model (OR: 0.46 95%CI: 0.33 - 0.63), and both shorter catheter
length (<=24cm) and smaller French size (<14.5F) in the
brand agnostic model.
Overall Summary of Clinical Safety and Performance
| Outcome |
Benefit/Risk Acceptability Criteria |
Desired Trend |
Clinical Literature (Subject Device) |
PMCF Data (Subject Device) |
| Performance Outcomes |
| Dwell Time |
Greater than 40 days |
+
|
48 days – 302 days (Summary of Published Literature)
|
316 days (LTHD Data Collection Survey Report_B) 87 days (Dr
Trerotola Data Report_B) 196 days (PMCF_Medcomp_211) Likert
Scale Response 4.8 / 5 (PMCF_Medcomp_211)** 132.8 Days
(PMCF_Infusion_211) 108.2 Days (PMCF_LTHD_242)
|
| Procedural Outcomes |
Greater than 93.3% |
+
|
94% - 100% (Summary of Published Literature)
|
100% (LTHD Data Collection Survey Report_B &
PMCF_Infusion_211) 99.2% (Dr Trerotola Data Report_B) Likert
Scale Response 4.7 / 5 (PMCF_Medcomp_211)**
|
| Safety Outcomes |
|
Catheter Related Blood Stream Infection (CRBSI)
|
Less than 4.8 incidents of CRBSI per 1,000 catheter days
|
-
|
0.2 – 5.1 per 1,000 catheter days (Summary of Published
Literature)
|
No Events Reported (LTHD Data Collection Survey Report_B)
2.53 per 1,000 catheter days (Dr Trerotola Data Report_B)
Likert Scale Response 4.6 / 5 (PMCF_Medcomp_211)** 2.01 per
1,000 catheter days (PMCF_Infusion_211) 0.73 per 1,000
catheter days (PMCF_LTHD_242)
|
| Tunnel Infection Rate |
Less than 2.8 incidents of tunnel infection per 1,000
catheter days
|
-
|
ND*
|
No Events Reported (LTHD Data Collection Survey Report_B)
0.26 per 1,000 catheter days (Dr Trerotola Data Report_B)
Likert Scale Response 4.6 / 5 (PMCF_Medcomp_211)** 0 per
1,000 catheter days (PMCF_LTHD_242)
|
| Exit Site Infection Rate |
Less than 3.2 incidents of exit site infection per 1,000
catheter days
|
-
|
1.3 per 1,000 catheter days (Summary of Published
Literature)
|
No Events Reported (LTHD Data Collection Survey Report_B)
0.02 per 1,000 catheter days (Dr Trerotola Data Report_B)
Likert Scale Response 4.5 / 5 (PMCF_Medcomp_211)** 0.09 per
1,000 catheter days (PMCF_LTHD_242)
|
|
Catheter Associated Venous Thrombus (CAVT)
|
Less than 3.04 incidents of CAVT per 1,000 catheter days
|
-
|
0.4 – 4.8 per 1,000 catheter days (Summary of Published
Literature)
|
3.16 per 1,000 catheter days (LTHD Data Collection Survey
Report_B) 0.04 per 1,000 catheter days (Dr Trerotola Data
Report_B) Likert Scale Response 4.6 / 5 (PMCF_Medcomp_211)**
0.09 per 1,000 catheter days (PMCF_LTHD_242)
|
*ND indicates no data on the clinical data parameter:
**PMCF_Medcomp_211 asked respondents, if they agreed on a scale
of 1 -5, that their experience in relation to each outcome was the
same or better than the benefit/risk acceptability criteria.:
| Outcome |
Benefit/Risk Acceptability Criteria |
Desired Trend |
Clinical Literature (Subject Device) |
PMCF Data (Subject Device) |
| Performance Outcomes |
| Safety Outcomes |
On-going or Planned Post-Market Clinical Follow-Up (PMCF)
| Activity |
Description |
Reference |
Timeline |
|
Multi-center Patient Level Case Series
|
Collect additional clinical data on the device by acquiring
case data healthcare personnel familiar with the device.
|
PMCF_LTHD_241 |
Q4 2025 |
| State of the Art Literature Search |
Identify risks and trends with use of similar devices by
reviewing applicable standards, published literature,
conference abstracts, guidance documents and
recommendations; information relating to the medical
condition managed by the device and medical alternatives
available for the same target treated population.
|
SAP-HD |
Q2 2026 |
| Clinical Evidence Literature Search |
Identify risks and trends with use of the device by
reviewing any clinical data relevant to the device from
published literature.
|
LRP-HD |
Q2 2026 |
| Global Trial Database Search |
Identify ongoing clinical trials involving Split Cath® III
catheters.
|
N/A |
Q2 2026 |
No emerging risks, complications or unexpected device failures
have been detected from PMCF activities.