Anterior Cruciate Ligament Reconstruction Clinical Trial
Official title:
Comparison of Efficacy and Safety of Perihamstring Local Anesthetic Injection to Obturator Nerve Block When Combined With Subsartorial Saphenous Block for Anterior Cruciate Ligament Repair. A Randomized Double Blinded Study.
Patients scheduled to undergo knee arthroscopy with anterior cruciate ligament repair with graft from the ipsilateral hamstrings and gracilis will be randomized to one of three groups. All patients will receive subsartorial saphenous nerve block. Along with this, Group 1 will receive perihamstring local anesthetic infiltration (Hamstring block), Group 2 will receive blockade of the anterior division of obturator nerve and Group 3 (control group) will receive sham injections of hamstrings and anterior division obturator nerve. All patients will receive co-analgesics for home discharge. The study will evaluate the efficacy of subsartorial saphenous nerve block alone or in combination with either hamstring block or obturator block with regards to postoperative analgesia especially the donor site pain and total analgesic consumption.
Performance of arthroscopic knee repairs on day care basis necessitates adequate
post-operative analgesia for successful home discharge since post-operative pain is known to
be the commonest cause of unanticipated readmissions of day care patients. Early return to
activity is also crucial to ensure adequate surgical outcomes. Anterior cruciate ligament
(ACL) repair is commonly performed by arthroscopic approach with an ipsilateral
hamstring-gracilis graft. This has shown to be superior to patellar tendon grafts with
regards to pain and functional outcomes after surgery. Postoperative pain from the graft
donor site and anterior knee pain form the surgery can lead to decreased range of motion and
poor rehabilitation. A variety of regional anesthetic techniques are being tried for
out-patient knee surgery like spinal adjuvants; intra and peri-articular injection, single
injection and continuous blocks of the femoral and sciatic nerves, oral pills and
cryoanalgesia. Opioid based analgesia with or without co-analgesics is not suited for
dynamic pain relief since Aα and Aδ nerve fibres that carry pain are poorly inhibited by
opioids while effectively inhibited by local anesthetics. Multimodal analgesic regimens work
well for ambulatory surgeries especially when combined with regional analgesic techniques.
Regional techniques decrease opioid consumption and hence opioid related side effects. Intra
and peri-articular injections have a short duration of action compared to nerve blocks apart
from the concerns of chondrotoxicity of intra-articular local anesthetics. Although femoral-
and sciatic nerve blocks provide adequate analgesia, the weakness of the quadriceps and
hamstrings can prevent early rehabilitative efforts and also pose a risk for patient falls
following home discharge. Hence, novel regional techniques of analgesia like blocking the
infrapatellar branch of saphenous nerve, graft site injections of local anesthetics through
the arthroscopic sleeve and single injection adductor canal block have been tried. Isolated
sensory block of the surgical and graft site without motor block is the Holy Grail in search
for these ambulatory patients.
Saphenous nerve, the terminal branch of femoral nerve supplies the majority of the knee
joint. The femoral nerve exits the adductor canal and gives the terminal branch of saphenous
nerve which lies between the Sartorius muscle and femoral artery in the sub-sartorial canal.
Subsartorial canal block has been successfully utilized for forefoot surgery and knee
arthroplasty but this has not been evaluated for ACL repairs. Saphenous nerve can be
successfully blocked in the subsartorial canal without the risks of leg weakness but this
alone is insufficient to provide analgesia to the graft donor site which is usually the
gracilis tendon and the hamstrings tendon. Depositions of local anesthetics around the
harvested muscle or blockade of the nerve supplying it are attractive strategies to decrease
donor site pain but have not been explored for this purpose in a randomized fashion. The
investigators hypothesize that the combination of any of the above two techniques to
decrease donor site pain along with subsartorial saphenous nerve block can provide adequate
analgesia in these patients. The anterior branch of the obturator nerve needs to be blocked
since it supplies the gracilis muscle. To decrease the donor site pain, the saphenous nerve
block can be combined with block of the anterior branch of obturator nerve. Alternatively,
the saphenous nerve block can be combined with deposition of local anesthetic around the
graft donor muscles. The extent to which the two techniques benefit the patients in terms of
overall analgesia and the graft site analgesia has not been evaluated. With this background,
the investigators want to compare the analgesic efficacy of subsartorial saphenous nerve
block with either perihamstrings infiltration or blockade of the anterior division of
obturator nerve in patients undergoing ACL reconstruction with ipsilateral autograft from
gracilis and hamstring muscles.
;
Allocation: Randomized, Endpoint Classification: Efficacy Study, Intervention Model: Parallel Assignment, Masking: Double Blind (Subject, Caregiver), Primary Purpose: Treatment
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