3. Device Description
Device Name: Dignity®
Description of Device: Dignity® The Dignity® Power
Injectable Ports are an implantable venous access device. Port access
is performed by percutaneous needle insertion using a non-coring
needle. The Dignity® Power Injectable Port consists of two primary
components: an injection port with a self-sealing silicone septum and
a radiopaque catheter. Dignity® Power Injectable Ports can be
identified subcutaneously by feeling the top of the septum and the top
rim of the port housing. Dignity® Power Injectable Ports can be
identified by the letters “CT” under radiographic imaging. Sizes
include Dignity® Mini Profile, Dignity® Mid-Sized and Dignity® Low
Profile. Power injection is performed using a power injectable needle
only. For power injection of contrast media, the maximum recommended
infusion rate is 5ml/s with a 19- or 20-gauge non-coring power
injectable needle. The maximum recommended infusion rate is 2ml/s with
a 22-gauge non-coring power injectable needle.
Device Name: Jet Port
Description of Device: Jet Port The Jet Port Power
Injectable Ports are an implantable venous access device. Port access
is performed by percutaneous needle insertion using a non-coring
needle. The Jet Port Power Injectable Port consists of two primary
components: an injection port with a self-sealing silicone septum and
a radiopaque catheter. Jet Port Power Injectable Ports can be
identified subcutaneously by feeling the top of the septum and the top
rim of the port housing. Jet Port Power Injectable Ports can be
identified by the letters “CT” under radiographic imaging. Sizes
include Jet Port Mini Profile, Jet Port Mid-Sized and Jet Port Low
Profile. Power injection is performed using a power injectable needle
only. For power injection of contrast media, the maximum recommended
infusion rate is 5ml/s with a 19- or 20-gauge non-coring power
injectable needle. The maximum recommended infusion rate is 2ml/s with
a 22-gauge non-coring power injectable needle.
Device Name: Pro-Fuse®
Description of Device: Pro-Fuse® The Pro-Fuse® Power
Injectable Ports are an implantable venous access device. Port access
is performed by percutaneous needle insertion using a non- coring
needle. The Pro-Fuse® Power Injectable Port consists of two primary
components: an injection port with a self-sealing silicone septum and
a radiopaque catheter. Pro- Fuse® Power Injectable Ports can be
identified subcutaneously by feeling the top of the septum and the top
rim of the port housing. Pro-Fuse® Power Injectable Ports can be
identified by the letters “CT” under radiographic imaging. Sizes
include Pro-Fuse® & Pro-Fuse® Low Profile. Power injection is
performed using a power injectable needle only. For power injection of
contrast media, the maximum recommended infusion rate is 5ml/s with a
19- or 20-gauge non-coring power injectable needle. The maximum
recommended infusion rate is 2ml/s with a 22-gauge non-coring power
injectable needle.
Device Name: Jet-Fuse
Description of Device: Jet-Fuse The Jet-Fuse Power
Injectable Ports are an implantable venous access device. Port access
is performed by percutaneous needle insertion using a non-coring
needle. The Jet-Fuse Power Injectable Port consists of two primary
components: an injection port with a self-sealing silicone septum and
a radiopaque catheter. Jet-Fuse Power Injectable Ports can be
identified subcutaneously by feeling the top of the septum and the top
rim of the port housing. Jet-Fuse Power Injectable Ports can be
identified by the letters “CT” under radiographic imaging. Sizes
include Jet-Fuse & Jet-Fuse Low Profile. Power injection is
performed using a power injectable needle only. For power injection of
contrast media, the maximum recommended infusion rate is 5ml/s with a
19- or 20-gauge non-coring power injectable needle. The maximum
recommended infusion rate is 2ml/s with a 22-gauge non-coring power
injectable needle.
Materials / Substances in Contact with Patient Tissue:
The percentage ranges in the table below are based on the weight of
the assembled 5F (5.52g) and 9.6F (6.44g) Power Injectable Dignity
Ports.
Dignity® Ports
| Material |
% Weight (w/w) |
| Polysulfone |
30.17–53.18 |
| Silicone |
10.39–59.21 |
| Polyurethane |
0.75–41.32 |
| Barium Sulfate |
6.42–11.72 |
| Titanium |
1.76–2.98 |
| Polycarbonate |
0.04–1.96 |
The percentage ranges in the table below are based on the weight of
the assembled 5F (5.32g) and 9.6F (14.22g) Pro-Fuse Power Injectable
Ports.
Pro-Fuse® Ports
| Material |
% Weight (w/w) |
| Polysulfone |
28.16–39.92 |
| Silicone |
11.1–65.05 |
| Polyurethane |
0.02–40.7 |
| Barium Sulfate |
5.5–11.48 |
| Titanium |
1.51–2.54 |
| Polycarbonate |
0.76–2.03 |
Note: Accessories containing stainless steel may contain up to 0.4%
weight of the CMR substance cobalt.:
Note: Per the instructions for use, the device is contraindicated for
patients with known or suspected allergies to the above materials.:
Information on Medicinal Substances in the Device:
N/A
How the Device Achieves its Intended Mode of Action:
The subject device can be inserted using a percutaneous or cutdown
surgical technique. Catheter insertion is to be performed using
aseptic techniques in a sterile field, preferably in an operating
room. Once the port placement site is healed sufficiently following
implantation, port access is done by percutaneous needle insertion
using a non-coring needle. Power injection is performed using a power
injectable needle only. Subject devices consist of two primary
components: an injection port with a self-sealing silicone septum and
a radiopaque catheter. Implanted ports can be identified
subcutaneously by feeling the top of the septum and the top rim of the
port housing. Power injectable ports can be identified by the letters
“CT” under radiographic imaging.
Sterilization Information: Contents sterile and
non-pyrogenic in unopened, undamaged package. Sterilized by Ethylene
Oxide.
Previous Generations / Variants:
| Name of Previous Generation |
Differences from Current Device |
| N/A |
N/A |
Accessories Intended for Use in Combination with the
Device:
| Name of Accessory |
Description of Accessory |
| Part Number |
Description |
| 30330-018 |
0.47mm x 45cm (.018) Guidewire Floppy Straight Tip
|
| 30718 |
0.72mm x 25mm RW (22GA) Huber Needle- Right-Angle
|
| 30717 |
0.72mm x 25mm RW (22GA) Huber Needle- Straight
|
| 3086M |
0.90mm x 70cm (.035) Guidewire Floppy J (R 3mm) Tip
|
| 30205-210 |
0.9mm OD x 0.5mm ID x 70mm (21GA) Needle W/Echo Tip
|
| 10472-050 |
1.0mm ID X 9.4cm (5F) (OD) Coaxial Dilator Assembly
|
| 30394-018 |
1.24mm x 19mm TW (18GA) Blunt Tip Needle |
| 30205-180 |
1.3mm OD x 1.0mm ID x 70mm (18GA) Needle W/Echo Tip
|
| 30394-017 |
1.47mm x 19mm TW (17GA) Blunt Tip Needle |
| 10526-10-055 |
1.7mm ID x 10cm (5.5F) Peelable Introducer
|
| 30394-015 |
1.80mm x 19mm TW (15GA) Blunt Tip Needle |
| 10700-10-055 |
1.8mm ID x 10cm (5.5F) Peelable Introducer
|
| 10680-070-15-2 |
2.3mm ID x 14cm (7F) Valved Peelable Introducer
|
| 10694-070-15-2 |
2.3mm ID x 14cm (7F) Valved Peelable Introducer
|
| 10680-090-15-2 |
3.0mm ID x 14cm (9F) Valved Peelable Introducer
|
| 10694-090-15-2 |
3.0mm ID x 14cm (9F) Valved Peelable Introducer
|
| 10680-100-15-2 |
3.3mm ID x 14cm (10F) Valved Peelable Introducer
|
| 5104 |
Advancer |
| 30479 |
Scalpel |
| 3073 |
Syringe |
| 30409-6 |
Tunneler |
| 30375 |
Tunneler |
| 30579-800 |
Tunneler |
| 30391 |
Vein Pick |
Other Devices or Products Intended for Use in Combination with the
Device:
| Name of Device or Product |
Description of Device or Product |
| N/A |
N/A |
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 |
| Dignity® |
444 (& 4,781 Mixed Cohort Cases) |
141 |
585 (& 4,781 Mixed Cohort Cases) |
22 |
| Pro-Fuse® |
209 |
54 |
263 |
5 |
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. Survivability of a
given implant is a multi-factorial event that depends on numerous
factors, including: the limits of the implant, surgical technique,
difficulty level of the surgical procedure, patient health, patient
activity level, patient medical history, and other factors. In the
case of the Dignity® Power Injectable Port, 33 devices had a 140.42
day [95%CI: 106.62-174.23 days] duration of use that has been found in
clinical use reported to date. In the case of the Pro-Fuse® Power
Injectable Port, 18 devices had a 135.28 day [95%CI: 83.34-187.22
days] duration of use that has been found in clinical use reported to
date. Based on this information, the Dignity®/Jet
Port/Pro-Fuse®/Jet-Fuse Power Injectable Port 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 investigations 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 fifteen published
literature articles representing 209 Pro-Fuse® device family specific
cases, 444 Dignity® device family specific cases, and an additional
4,781 mixed cohort cases inclusive of the Dignity® device family. The
articles included a randomized controlled trial (Chen et al., 2022),
prospective studies (Fonseca et al., 2016, Son et al., 2020),
retrospective studies (Annetta et al., 2021, Bertoglio et al., 2022,
Chou et al., 2019, Li et al., 2022, Pike et al., 2021, Salawu et al.,
2022, Tumay et al., 2021, Yang et al., 2018, Yun et al., 2021, Zhang
et al., 2018), a technical study (Wu et al.), and a procedure
explanation (Kim et al.). Bibliography: Annetta MG, Ostroff M, Marche
B, et al. Chest-to-arm tunneling: A novel technique for medium/long
term venous access devices. J Vasc Access. 2021 Bertoglio S, Annetta
MG, Brescia F, et al. A multicenter retrospective study on 4480
implanted PICC-ports: A GAVeCeLT project. J Vasc Access. 2022 Chen, Y.
B., Bao, H. S., Hu, T. T., He, Z., Wen, B., Liu, F. T., & Wu, J.
N. (2022). Comparison of comfort and complications of Implantable
Venous Access Port (IVAP) with ultrasound guided Internal Jugular Vein
(IJV) and Axillary Vein/Subclavian Vein (AxV/SCV) puncture in breast
cancer patients: a randomized controlled study. BMC cancer, 22(1),
1-9. Chou, P. L., Fu, J. Y., Cheng, C. H., Chu, Y., Wu, C. F., Ko, P.
J., . . . Wu, C. Y. (2019). Current port maintenance strategies are
insufficient: View based on actual presentations of implanted ports.
Medicine (Baltimore), 98(44). doi:10.1097/md.0000000000017757 Fonseca,
I. Y. I., Krutman, M., Nishinari, K., Yazbek, G., Teivelis, M. P.,
Bomfim, G. A. Z., . Wolosker, N. (2016). Brachial insertion of fully
implantable venous catheters for chemotherapy: complications and
quality of life assessment in 35 patients. Einstein (Sao Paulo),
14(4), 473-479. doi:10.1590/s1679-45082016ao3606 Kim, S. H., Choi, B.
G., Oh, J. S., Chun, H. J., & Lee, H. G. (2018). Para-Axial
Central Venous Stent Placement in Patients with Malignant Central
Venous Obstruction with a Venous Port. Journal of Vascular and
Interventional Radiology, 29(11), 1567-1570. Li Y, Guo J, Zhang Y,
Kong J. Complications from port-a-cath system implantation in adults
with malignant tumors: A 10-year single-center retrospective study.
Journal of Interventional Medicine. 2022;5(1):15-22. Pike S, Tan K,
Burbridge B. Complications Associated With Totally Implanted Venous
Access Devices in the Arm Versus the Chest: A Short-Term Retrospective
Study. Can Assoc Radiol J. 2021 Salawu, K., Arowojolu, O., Afolaranmi,
O., Jimoh, M., Nworgu, C. and Falase, B., 2022. Totally implantable
venous access ports and associated complications in sub-Saharan
Africa: a single-centre retrospective analysis. ecancermedicalscience,
16. Son, R. S., Song, Y. G., Jo, J., Park, B.-H., Jung, G.-s., &
Yun, J. H. (2020). Power contrast injections through a totally
implantable venous power port: A retrospective multicenter study.
Phlebology, 35(4), 268-272. Tumay LV, Guner OS. Availability of
totally implantable venous access devices in cancer patients is high
in the long term: a seven-year follow-up study. Support Care Cancer.
2021;29(7):3531-8. Wu, C. Y., Fu, J. Y., Wu, C. F., Cheng, C. H., Liu,
Y. T., Ko, P. J., . . . Chu, Y. (2018). Initial experiences with a new
design for a preattached intravenous port device. Journal of
Biomedical Materials Research Part B: Applied Biomaterials, 106(3),
1017-1027. Yang, S.-S., & Ahn, M. S. (2018). A comparison between
upper arm and chest for optimal site of totally implanted venous
access ports in patients with female breast cancer. Annals of vascular
surgery, 50, 128-134. Yun W, Yang S. Comparison of peripherally
inserted central catheters and totally implanted venous access devices
as chemotherapy delivery routes in oncology patients: A retrospective
cohort study. Science Progress. 2021;104(2):003685042110118. Zhang,
S., Kobayashi, K., Faridnia, M., Skummer, P., Zhang, D., & Karmel,
M. I. (2018). Clinical predictors of port infections in adult patients
with hematologic malignancies. Journal of Vascular and Interventional
Radiology, 29(8), 1148-1155.
Source:Dr Trerotola Data Report
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. 100 Dignity Port® cases, all identified as 8F Dignity®
Mid-Sized ports, were collected. The following outcome measures were
confirmed to be within State of the Art safety and performance outcome
measures from published literature for Medcomp Dignity® devices:
Dwell Time – 380.2 Days (95%CI: 308 – 452.4)
Procedural Outcomes – 100%
Port/Catheter Separation – 1% (95%CI: 0% - 3%)
Catheter Associated Venous Thrombus – 0.03 per 1,000 Catheter Days
Catheter Related Blood Stream Infection – 0.39 per 1,000 Catheter Days
Power Injection Related Complications – No Events Reported
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. 41 Dignity®
Port and 54 Pro-Fuse® cases inclusive of several variant devices
across French size (5F, 6.6F, 8F, and 9.6F) and port configuration
(Dignity® Mini, Dignity® Low Profile, Dignity® Mid-Sized, Pro-Fuse®
Standard) were collected. The following outcome measures were
confirmed to be within State of the Art safety and performance outcome
measures from published literature for Medcomp Port devices: Dignity®
Port:
Dwell Time – 140.42 Days (95%CI: 106.62 – 174.23)
Procedural Outcomes – 100%
Port/Catheter Separation – No Events Reported
Catheter Associated Venous Thrombus – 0.43 per 1,000 Catheter Days
(95%CI: 0 – 1.03)
Catheter Related Blood Stream Infection – No Events Reported
Power Injection Related Complications – No Events Reported Pro-Fuse®
Port:
Dwell Time - 135.28 Days (95%CI: 83.34 – 187.22)
Procedural Outcomes – 100%
Port/Catheter Separation – No Events Reported
Catheter Associated Venous Thrombus – No Events Reported
Catheter Related Blood Stream Infection – No Events Reported
Power Injection Related Complications – No Events Reported The
variants included in the dataset are displayed below Variant n French
Size(s) Dignity Port Mini 9 5F, 6.6F, 8F Dignity Port Low Profile 25
6.6F, 8F Dignity Port Mid-Sized 7 8F, 9.6F Pro-Fuse Port Standard 54
8F, 9.6F
Source:PMCF_Medcomp_211
The Medcomp User Survey acquired responses from healthcare personnel
familiar with any number of Medcomp’s product offerings. 24
respondents responded that they or their facility have used Medcomp
implantable ports, with 22 of those respondents using the Dignity®
device and 5 of those respondents using the Pro-Fuse® device. There
were no differences in mean user sentiments within short-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 implantable ports (n=24):
(Mean Likert Scale Response) Catheters function as intended – 4.7 / 5
(Mean Likert Scale Response) Packaging allows for aseptic presentation
– 4.7 / 5
(Mean Likert Scale Response) Benefit outweighs the risk – 4.8 / 5
(n=23)
Dwell Time (n=22) – 543 days (95%CI: 199 – 887) The following data
points were collected from users of Medcomp Dignity® Ports (n=22):
(Mean Likert Scale Response) Catheters function as intended – 4.7 / 5
(Mean Likert Scale Response) Packaging allows for aseptic presentation
– 4.7 / 5
(Mean Likert Scale Response) Benefit outweighs the risk – 4.8 / 5
(n=21)
Dwell Time (n=20) – 578 days (95%CI: 201 – 954) The following data
points were collected from users of Medcomp Pro-Fuse® Ports (n=5):
(Mean Likert Scale Response) Catheters function as intended – 5 / 5
(Mean Likert Scale Response) Packaging allows for aseptic presentation
– 5 / 5
(Mean Likert Scale Response) Benefit outweighs the risk – 5 / 5
Dwell Time (n=5) – 224.1 days (95%CI: 46.5 – 401.7) The following
complications were reported for Dignity® and Pro-Fuse® Ports:
Infection (1 out of 100 Cases)
Site Infection (1 out of 100 Cases)
Fibrin Sheath (1 out of 100 Cases)
Malposition (No Comments on Frequency)
Port Flipped (No Comments on Frequency)
Detached Catheter (No Comments on Frequency)
Overall Summary of Clinical Safety and Performance
Upon review of the data across all sources, it is possible to conclude
that the benefits of the subject device, which is facilitating access
to the central venous system in patients in whom other therapies are
not indicated or desirable as determined by the physician, outweigh
the overall and individual risks when the device is used as intended
by the manufacturer. It is the manufacturer's and clinical expert
evaluator's opinion that activities both complete and ongoing are
sufficient to support the safety, efficacy, and acceptable
benefit/risk profile of the subject devices.
Dignity® Outcome Parameters Across Data Sources
| Outcome |
Benefit/Risk Acceptability Criteria |
Desired Trend |
Clinical Literature (Subject Device) |
PMCF Data (Subject Device) |
| Performance Outcomes |
| Dwell Time |
Greater than 169 days |
+
|
272 - 420 days (Summary of Published Literature)
|
Uncensored
|
| Procedural Outcomes |
Greater than 90% |
+
|
98% - 100% (Summary of Published Literature)
|
100% (PMCF_Infusion_211) 100% (Dr Trerotola Data Report) Likert
Scale Response 4.6 / 5 (PMCF_Medcomp_211)**
|
| Safety Outcomes |
| Port/Catheter Separation |
Less than 0.5% catheters with reported incidents of
port/catheter separation
|
-
|
No Events Reported (Summary of Published Literature)
|
No Events Reported (PMCF_Infusion_211) 1% (95%CI
|
|
Catheter Associated Venous Thrombus (CAVT)
|
Less than 0.35 incidents of CAVT per 1,000 catheter days
|
-
|
0 -0.45 per 1,000 catheter days (Summary of Published
Literature)
|
0.43 per 1,000 catheter days (95%CI
|
|
Central Line Associated Blood Stream Infection (CLABSI) /
Catheter Related Blood Stream Infection (CRBSI)
|
Less than 2.35 incidents of CLABSI/CRBSI per 1,000 catheter days
|
-
|
0-0.07 per 1,000 catheter days (Summary of Published
Literature)
|
No Events Reported (PMCF_Infusion_211) 0.39 per 1,000 catheter
days (Dr Trerotola Data Report) Likert Scale Response 4.7 / 5
|
| Power Injection Related Complications |
Less than 1.8% reported incidents of rupture and/or less than
15.4% reported incidents of displacement
|
-
|
No Events Reported (Summary of Published Literature)
|
No Events Reported (PMCF_Infusion_211) No Events Reported (Dr
Trerotola Data Report) Likert Scale Response 4.4 / 5
(PMCF_Medcomp_211)**
|
*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.:
Pro-Fuse® Outcome Parameters Across Data Sources
| Outcome |
Benefit/Risk Acceptability Criteria |
Desired Trend |
Clinical Literature (Subject Device) |
PMCF Data (Subject Device) |
| Performance Outcomes |
| Dwell Time |
Greater than 169 days |
+
|
30 -43.2 months (Summary of Published Literature)
|
Uncensored
|
| Procedural Outcomes |
Greater than 90% |
+
|
100% (Summary of Published Literature)
|
100% (PMCF_Infusion_211) Likert Scale Response 5 / 5
(PMCF_Medcomp_211)**
|
| Safety Outcomes |
| Port/Catheter Separation |
Less than 0.5% catheters with reported incidents of
port/catheter separation
|
-
|
ND*
|
No Events Reported (PMCF_Infusion_211) Likert Scale Response 5 /
5 (PMCF_Medcomp_211)**
|
|
Catheter Associated Venous Thrombus (CAVT)
|
Less than 0.35 incidents of CAVT per 1,000 catheter days
|
-
|
0.043 per 1,000 catheter days (Summary of Published
Literature)
|
No Events Reported (PMCF_Infusion_211) Likert Scale Response 5 /
5 (PMCF_Medcomp_211)**
|
|
Blood Stream Infection (CLABSI) / Catheter Related Blood Stream
Infection (CRBSI)
|
CLABSI/CRBSI per 1,000 catheter days |
-
|
0.043 per 1,000 catheter days (Summary of Published Literature)
9% of catheters removed due to infection (Summary of Published
Literature)
|
No Events Reported (PMCF_Infusion_211) Likert Scale Response 5 /
5 (PMCF_Medcomp_211)**
|
| Power Injection Related Complications |
Less than 1.8% reported incidents of rupture and/or less than
15.4% reported incidents of displacement
|
-
|
ND*
|
No Events Reported (PMCF_Infusion_211) Likert Scale Response 5 /
5 (PMCF_Medcomp_211)**
|
*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.:
On-going or Planned Post-Market Clinical Follow-Up (PMCF)
| Activity |
Description |
Reference |
Timeline |
| Multicenter Patient-Level Case Series |
Collect additional clinical data on the device
|
PMCF_Port_231 |
Q4 2025 |
| State of the Art Literature Search |
Identify risks and trends with use of similar devices
|
SAP-Infusion |
Q2 2025 |
| Clinical Evidence Literature Search |
Identify risks and trends with use of the device
|
LRP-Infusion |
Q2 2025 |
| Global Trial Database Search |
Identify ongoing clinical trials involving Medcomp® catheters
|
N/A |
Q3 2025 |
|
Truveta Data Queries and Retrospective Analysis
|
Collect additional clinical data on the device and comparators
|
TBD |
Q4 2025 |
No emerging risks, complications or unexpected device failures have
been detected from PMCF activities.