A Hybrid Bleeding Control Method for Retro-Peritoneal or Inguinal Bleeding After Endovascular Procedures
images Vol. 1, No. 1; 2017; pp 34–38
DOI: 10.26676/jevtm.v1i1.31

Corresponding author:

Tal Hörer, Department of Cardiothoracic and Vascular Surgery, Örebro University Hospital, Sweden

Email: Tal.horer@regionorebrolan.se

Conflicts of Interest: None.

Funding: None.

Guest Editor: Dr Boris kessel

© 2017 CC BY 4.0 – in cooperation with Depts. of Cardiothoracic/Vascular Surgery, General Surgery and Anesthesia, Örebro University Hospital and Örebro University, Sweden

A Hybrid Bleeding Control Method for Retro-Peritoneal or Inguinal Bleeding After Endovascular Procedures

Tal M Hörer MD PhD1 and Viktor Reva MD PhD2

1Department of Cardiothoracic and Vascular Surgery, Örebro University Hospital and Faculty of Medicine at Örebro University, Sweden

2Department of War Surgery, Kirov Military Medical Academy, St. Petersburg, Russian Federation

With the vast increase in endovascular procedures and the use of percutaneous vascular closure devices, there is an increased risk of closure failure and bleeding that might require surgically demanding open surgical repair. We describe two ways, using a modern hybrid technique and tools (endovascular and open surgery), of controlling bleeding with minimal blood loss, which might facilitate the surgery.

Keywords: Bleeding; Iatrogenic Injury; Endovascular Procedure; Balloon Occlusion

Received: 7 August 2017; Accepted: 10 August 2017


Arterial bleeding after endovascular intervention (angiography, endovascular aortic repair (EVAR), percutaneous cardiac catheterization, or other procedures) is a common complication [1–5]. There are several ways to finish an endovascular procedure when the femoral artery is used for access. It is usually achieved today either by manual compression or by using a percutaneous vascular closure device (VCD). When larger VCDs are used for aortic valve replacement, EVAR or other major arterial repair, open cut-down might be used to close the hole in the artery. Alternatively, a larger VCD or double-closure device (such as Pro-glide) might be employed for percutaneous access. Newer methods, like fascia suture, are also available [6–8]. At times, VCDs might leak and create minor hematomas, which can be easily compressed manually. It is fairly common, however, for the hole in the femoral artery, especially when the puncture is in the upper-third of the common femoral artery, to cause bleeding into retroperitoneal space or the inguinal area [9,10]. The known failure rate of VCDs in different series may be as high as 8–10% [11,12].

The standard treatment to access bleeding after endovascular treatment is open surgical exploration with hematoma evacuation for repair of the artery. Uncontrolled bleeding after a percutaneous procedure with open surgical repair may be challenging, since an expanding hematoma or retroperitoneal bleeding causes tissue displacement and immense pain. Cut-down surgical repair during ongoing bleeding in the inguinal area or retroperitoneum requires experienced surgical hands.

Endovascular usage of balloon occlusion for arterial bleeding control was described as early as in the 1990s [13]. In recent years, as endovascular tools become smaller and better, and hybrid-suite availability and the multidisciplinary approach develop, there is a new interest in minimally invasive methods of bleeding control [14–16, personal communication at the EVTM Round Table Symposium, 2–4 February 2017].

Balloon placement might ease a surgical repair by decreasing or stopping ongoing bleeding, allowing for the controlled dissection toward the hole in the artery for definitive repair. As endovascular techniques develop, there is the possibility of using a stent graft (covered stent) to cover the hole and stop the bleeding [17,18, personal communication]. There are several disadvantages to this method. The femoral artery is highly mobile, and stent-graft placement might fail in the long run (due to kinking or thrombi formation). Another problem is that the deep femoral artery might be covered, which can compromise adequate circulation to the leg. A more practical problem is that the hematoma must usually be evacuated, as it causes great pain and takes a long time to absorb spontaneously, and there is also the risk of local infection (Figure 1).


Figure 1 Hematoma after an endovascular procedure and manual compression.

We describe a method of controlling bleeding as a bridge to open surgical repair that involves placement of an arterial occlusion balloon at the site of the vessel puncture. Although partly described in recent publications, combinations of new endovascular tools are now in use and practical recommendations have not been described in detail before [13–18].


Option Number 1 (Figures 2–4)

Access from above the hole – proximal access

A 6-7-8 Fr sheath is inserted in a retrograde manner via arterial puncture on the contralateral side, and a crossover wire is passed by fluoroscopic control (C-arm) to reach the ipsilateral common femoral artery. An intra-arterial balloon can be passed from above. The size of the balloon should be around 8–10 mm, and the manufacturer’s instructions for the size of the sheath should be checked if needed. If completion angiography is anticipated, it might be beneficial to use a long sheath catheter (Table 1). This permits working with the balloon distally, and also securing its position and injecting contrast solution via the sheath (downstream). When the balloon is in place, open exploration of the ipsilateral common femoral artery is performed. When bleeding starts (or even before), the balloon should be gently inflated using a manometer. A low pressure of around 4–6 mmHg might be enough, and balloon inflation can be confirmed by angiography, or clinically when bleeding decreases or totally stops. Alternatively, the balloon might be inflated manually until bleeding stops, followed by the locking of a three-way stopcock. After cut-down and open exploration, the hole is sealed with 5.0 or 6.0 non-absorbable sutures. It is advisable to confirm flow when the balloon is deflated and that no bleeding is observed by hand-doppler or flow meter, and also to perform a clinical examination of distal extremity status and pulses. Another option is to perform a completion angiography through the catheter sheath, verifying that the hole is covered and normal flow maintained. After hematoma evacuation, the wound is closed in a standard fashion, with or without a drain. The contralateral access can be closed by a VCD or by manual mechanical compression. Obviously, the contralateral leg must be examined clinically to assure normal perfusion.


Figure 2 Hybrid repair using a contralateral cross over a balloon in the external iliac artery and open cut-down repair.


Figure 3 Hand compression during bleeding after elective angiography with failure of the closure device.

Option Number 2 (Figure 5)

Access from below the hole – distal access

At times, for example, when a C-arm is not readily available or the surgeon doubts his/her ability to cross the aortic bifurcation with a guide wire, the vessel can be accessed from below the hematoma (distal puncture). Instead of the traditional way of opening the skin at the common femoral artery/hematoma location or above it for surgical vessel control, it can be started distally (in “virgin territory”). Open the skin a few centimeters below the common femoral artery, at the level of the superficial femoral artery (SFA) just around 7–10 cm below the inguinal ligament. By surgical cut-down, the SFA can be identified and controlled. A retrograde puncture is made using an 18 G needle, and a wire (any standard wire will do) is passed into the artery under direct vision, followed by a 6-7-8 Fr sheath placement. Then, over the wire, an arterial PTA balloon (8–10 mm in diameter) is inserted and advanced to the common femoral artery under fluoroscopy guidance (i.e., C-arm). When positioned, the incision is extended proximally to reveal the bleeding artery, and open repair follows as described above. Theoretically, after preliminary measurement of the distances to the anatomical landmarks, the balloon can be inserted blindly and gently inflated manually in the injury zone without fluoroscopy. Fluoroscopy, however, is always recommended. When the main hole in the artery is treated, the distal arterial hole after sheath removal can be easily sealed with one or two non-absorbable stitches.


Figure 4 Illustration of method option no. 1 with balloon insertion from the contralateral femoral artery and balloon control over the puncture site before surgical cut-down and repair.


Figure 5 Illustration of method option no. 2 with balloon insertion from the distal SFA and separate cut-down.

Table 1 A set of endovascular materials that can be used for temporary balloon control of bleeding from the iliac, femoral and SFA arteries.


Type (examples only)

Puncture needle 18 G

Cordis Endovascular, USA

PTA over-the-wire balloon catheter

ev3, USA; Cordis, USA; Medtronic, USA

6–12 mm × 4–10 cm

Sheath 6-7-8 Fr

Terumo, Japan or Cordis Endovascular, USA

Standard wire

Cook, USA

Hydrophilic wire

Terumo, Japan

Cross-over catheter

Contralateral Cordis Endovascular, USA

Guiding (introducer) sheath

Flexor Ansel Cook, USA

Destination Terumo, Japan

Iohexol (Omnipaque) 300 mgI/mL, 100 mL

Iodine contrast solution

Saline solution


We describe a simple, up-to-date method of hybrid surgical repair to manage ongoing femoral artery bleeding, which might be used in other arteries as well (for example, the iliac arteries). The method can be used for both iatrogenic and traumatic injuries. Its success depends on the continuity of the vessels but might be useful for proximal control when open access is hard to achieve (due, for example, to obesity, unavailability of access, etc.). It is fast and effective and can probably decrease the volume of bleeding during surgical repair, and also provide technical help when dissecting to the artery and viewing the puncture hole. The advantages of temporary balloon occlusion as a bridge to repair may be obvious:

1 It controls unstable bleeding and converts the situation into a stable one;

2 It decreases bleeding during open repair;

3 It eases surgical cut-down and decreases pain by using local anesthetics, and might eliminate the need to convert to general anesthesia;

4 It gives time if surgical help is not available (at an angiography suite, for example).

Possible risks of balloon insertion include further injury to the vessel, such as intima dissection, but these can be prevented by gently manipulating the balloon and working with fluoroscopy. It should be borne in mind that full inflation is not needed for adequate bleeding control. You have to be careful when advancing the wire and balloon in the vessel, and confirm easy passage into the bleeding area. For these reasons, it is self-evident that the operator should be trained in interventional radiology, or at least has basic skills in endovascular surgery.


Temporary arterial endovascular balloon occlusion may be helpful in certain patients for bleeding control by converting an ongoing bleeding problem into a controlled state, thereby facilitating open repair.


We would like to thank Mr Jon Kimber for language revision.


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