The iWALK crutch is a total game changer. Independent research proves it.
We understand you might be skeptical when we say the iWALK is the best crutch you’ll ever use, so we’ve provided independent research to back it up!
The iWALK crutch provides significant advantages compared to crutches or knee scooters
PREFERRED BY 90% OF PATIENTS
iWALK is preferred by 9 out of 10 patients which has implications in improving compliance, preventing complications and faster recovery
The iWALK is preferred by 86% of foot and ankle patients over crutches (Martin et al., 2019). Patient satisfaction and preference determines the level patients comply to non-weight bearing recommendations (Martin et al., 2019) which is of paramount importance to achieving optimal results and prevent postoperative complications such as wound breakdown, loss of fracture fixation or hardware failure (Chiodo et al., 2016; Gershkovich et al., 2016).
ABILITY TO PERFORM DAY TO DAY ACTIVITIES
Allows hands free mobility with patients being able to do activities of daily living that can impact a patient’s wellbeing and improve compliance
Unlike crutches and knee scooters, the iWALK is a hand free mobility device. Thus, activities of daily living (ADLs and IADLs) that are impossible to do with crutches and knee scooters such as shopping, working, cooking, child care, etc. are possible with the iWALK. A randomized control trial with 80 patients with both upper and lower limb injuries showed that they were able to complete activities around the house using the iWALK (Rambani et al., 2007) and patients had a more positive attitude to life due to the improved independence with the iWALK (Barth et al., 2019). This could be just one of the reasons why the iWALK has a higher preference rating than crutches (Martin et al., 2019).
INCREASED MUSCLE ACTIVITY
Increases muscle activity (which leads to decreased muscle atrophy, increased blood flow, and faster healing)
Research proves that the iWALK provides statistically significant increases in muscle activity for the hip, quadriceps and calf muscles in the non-weight bearing leg with muscle activity patterns consistent with normal unassisted ambulation in terms of both intensity and activation per EMG recordings (Dewar et al., 2021; Dewar & Martin, 2020; Sanders et al., 2018). On the other hand, crutches and knee scooters lead to statistically significant reductions in muscle activity in the non-weight bearing leg compared to normal unassisted ambulation (Clark et al., 2004; Dewar et al., 2021; Dewar & Martin, 2020; Sanders et al., 2018; Seynnes et al., 2008). The heightened level of muscle engagement in the non-weight bearing leg using the iWALK compared to crutches could potentially lead to decreased atrophy, increased blood flow, less cases of deep vein thrombosis and enhanced healing (Broderick et al. 2009; Dewar et al., 2021; Dewar & Martin, 2020; Faghri et al., 1997; Vinay et al., 2021).
DECREASED MUSCLE ATROPHY
The heightened recruitment of the muscles in the non-weight bearing leg when using the iWALK compared to crutches is expected to decrease the level of disuse muscle atrophy
(Altinkaynak, 2022; Dewar et al., 2021; Dewar & Martin, 2020).
Prior research shows that the degree a muscle will atrophy is dependent on the activity of the muscle (Clark, 2009; MacLennan et al., 2020; Magill et al., 2019; Sanders et al., 2018). This is further supported by prior research that shows a muscle fixed in a shorted position atrophies faster than if a muscle is fixed in a lengthened position (Booth, 1982; Booth & Gollnick, 1983). Thus, the knee flexion angle was shown to play an important role in muscle atrophy (Magill et al., 2019).
Because the iWALK fixes the knee angle at 90° flexion which lengthens the muscle, the muscle atrophy after a period of non-weight bearing is expected to be less compared to crutches that fixes the knee angle at approximately 30° (Altinkaynak, 2022). This could partially explain why crutches have been shown to have led to significant muscle atrophy with reductions in muscle size and strength as well as structural changes in muscle fibers in various prior studies (De Boer et al., 2008; Hather et al., 1992; Tesch et al., 2016).
INCREASED BLOOD FLOW AND DECREASED VENOUS STASIS
Increases blood flow (reduced risk of developing blood clots and enhance healing)
Using the iWALK leads to increased blood flow in the non-weight bearing limb. Research has shown that the iWALK provides the greatest muscle activity in the lateral gastrocnemius muscle compared to both crutches and knee scooters (Dewar et al., 2021; Dewar & Martin, 2020) and associated research has shown that musculovenous pump activation has a major impact on blood flow while having a larger effect on flow than knee flexion angle (Reb et al., 2021). This corroborates the findings of prior works which reported a significant decline in blood flow for knee scooters (Ciufo et al., 2019) with crutches leading to the greatest decrease secondary to the static position the leg is held in (Reb et al., 2021). When poor blood flow continues, it can cause DVT (blood clots) in the lower extremities (Broderick et al., 2009; Faghri et al., 1997; McLachlin et al., 1960; Vinay et al., 2021) and cause pain venous congestion and life-threatening pulmonary embolisms (PE). It is generally understood that the incidence of DVT is higher for patients with lower limb non-weight bearing injuries than for the general population. Reduced blood flow can also impact oxygen delivery to the injured muscle and bone which is important for healing (Lu et al., 2013).
FASTER RECOVERY, REDUCED HEALTHCARE COSTS AND FASTER RETURNS TO WORK
Faster recovery that can allow quicker returns to work and reduce costs to the healthcare system
A randomized control trial conducted using 80 patients showed that patients were discharged significantly faster after using the iWALK compared with using other mobility devices (Rambani et al., 2007). Reductions in muscle atrophy and improvement in blood flow when using the iWALK impacts the total recovery time for lower limb injuries with quicker rehabilitation, faster healing and less cases of blood clots (Dewar et al., 2021; Dewar & Martin, 2020). The increased muscle oxygenation saturation using the iWALK via improved blood flow also enhances healing (Lu et al., 2013). Crutches cause reductions in cross-sectional area of the quadriceps femoris muscle of about 0.4% per day (Clark et al., 2004). Because the iWALK reduces muscle atrophy, it leads to faster therapeutic gains. Moreover, secondary injuries as a result of using crutches are nonexistent when using the iWALK which also contributes to reducing the recovery times of lower limb injuries.
ELIMINATION OF SECONDARY INJURIES RELATED TO MOBILITY DEVICE USE
Eliminates crutch and knee scooter associated secondary injuries
Crutches lead to seven-fold increase in the force that runs through the axilla (Rambani et al., 2007). This increased force at the axilla has been shown to lead to secondary injuries such as axillary artery thrombosis (McFall et al., 2004; Tripp & Cook, 1998) and crutch palsy (Raikin & Froimson, 1997). Other complications as a result of crutch use are carpal tunnel syndrome (Gellman et al., 1988) and shoulder joint degeneration (Shabas & Scheiber, 1986). Secondary injuries also occur with knee scooters due to the increased risk of falling (Rahman et al., 2020; Yeoh et al., 2017). Because there is no loading of the hands and upper extremity when using the iWALK, secondary injuries have not been reported with the iWALK.
INCREASED PATIENT COMPLIANCE
Increases compliance to non-weight bearing that can allow less complications and subsequently faster recovery
The iWALK improves patient compliance to non-weight bearing restrictions, due to prior research that shows that patients with lower limb injuries prefer the iWALK over crutches and the important role patient preference plays on patient compliance (Martin et al., 2019). In addition to this, because patients are able to function independently using the iWALK with the ability to do activities of daily living (Rambani et al., 2007), the iWALK will lead to better compliance. Patients with lower extremity injuries have been known to be noncompliant with prescribed weight bearing restrictions (Chiodo et al., 2016; Gershkovich et al., 2016; Kubiak et al., 2013). Lack of compliance leads to complications such as wound breakdown, loss of fracture fixation or hardware failure (Gershkovich et al., 2016).
Reduces the energy cost of ambulation that can allow patients to ambulate for longer durations and increase compliance
Increased physiological demand has been shown to be an important factor in discontinuance and noncompliance to weight bearing restrictions with the use of assistive devices (Bateni & Maki, 2005). Therefore, mobility devices designed to assist ambulation should keep energy expenditure to a minimum while still allowing normal walking speeds and the ability to do their activities of daily living. Prior research shows that the physiological demand and exertion are lowest for the iWALK compared to crutches (Kocher et al., 2016; Martin et al., 2019). Crutches lead to lower gait speed and increased rate of perceived exertion (Bhambani & Clarkson, 1989). This is further supported in other prior studies where crutches have significantly higher energy costs compared to normal unassisted ambulation (Dounis et al., 1980; Holder et al., 1993; Mcbeath et al., 1974; Nielsen et al., 1990; Sankarankutty et al., 1979; Thys et al., 1996). When crutch users were asked to ambulate for 6 minutes, some of the participants needed to stop before they could complete the 6 minutes due to fatigue (Martin et al., 2019). A similar result was not observed when the same participants were asked to ambulate with the iWALK (Martin et al., 2019).
DECREASED CHANGES IN BRAIN PLASTICITY
Reduces the structural plastic changes in gray matter and white matter after a period of non-weight bearing
It is well accepted that limb immobilization effects human brain plasticity (Langer et al., 2012). In particular, it was shown that the cortical thickness (gray matter) of the sensorimotor cortex and fractional anisotropy (white matter) decreased after a period of immobilization which are both responsible for processing somatosensory information and impact motor movement (Langer et al., 2012). Because the iWALK is the only mobility device that leads to muscle activity in the non-weight bearing limb consistent with normal walking when compared to crutches and knee scooters (Dewar et al., 2021; Dewar & Martin, 2020), the reorganization of the sensorimotor system as well as the overall effect of remaining non-weight bearing for prolonged periods on human brain plasticity is minimized with the iWALK when compared to crutches and knee scooters.
View List of References
- Altinkaynak, E. (2022). Hands-Free Crutch Reduces the Muscle Atrophy Attributed to Non-Weight Bearing Injuries. https://doi.org/10.31219/osf.io/qac95
- Barth, U., Wasseroth, K., Halloul, Z., & Meyer, F. (2019). Alternative Mobilization by Means of a Novel Orthesis in Patients after Amputation. Zeitschrift für Orthopädie und Unfallchirurgie, 158(01), 75-80.
- Bateni, H., & Maki, B. E. (2005). Assistive devices for balance and mobility: benefits, demands, and adverse consequences. Archives of physical medicine and rehabilitation, 86(1), 134-145.
- Bhambani, Y., & Clarkson, H. (1989). Acute physiologic and perceptual responses during three modes of ambulation: walking, axillary crutch walking, and running. Archives of physical medicine and rehabilitation, 70(6), 445-450.
- Booth, F. W. (1982). Effect of limb immobilization on skeletal muscle. J Appl Physiol Respir Environ Exerc Physiol, 52(5), 1113-1118. https://doi.org/10.1152/jappl.19126.96.36.1993
- Booth, F. W., & Gollnick, P. D. (1983). Effects of disuse on the structure and function of skeletal muscle. Med Sci Sports Exerc, 15(5), 415-420.
- Broderick, B. J., O’Briain, D. E., Breen, P. P., Kearns, S. R., & Olaighin, G. (2009). A hemodynamic study of popliteal vein blood flow: the effect of bed rest and electrically elicited calf muscle contractions. Annu Int Conf IEEE Eng Med Biol Soc, 2009, 2149-2152. https://doi.org/10.1109/IEMBS.2009.5332561
- Chiodo, C. P., Macaulay, A. A., Palms, D. A., Smith, J. T., & Bluman, E. M. (2016). Patient compliance with postoperative lower-extremity non-weight-bearing restrictions. JBJS, 98(18), 1563-1567.
- Ciufo, D. J., Anderson, M. R., & Baumhauer, J. F. (2019). Impact of Knee Scooter Flexion Position on Venous Flow Rate. Foot & Ankle International, 40(1), 80-84.
- Clark, B. C. (2009). In vivo alterations in skeletal muscle form and function after disuse atrophy. Medicine and science in sports and exercise, 41(10), 1869-1875.
- Clark, B. C., Manini, T. M., Ordway, N. R., & Ploutz-Snyder, L. L. (2004). Leg muscle activity during walking with assistive devices at varying levels of weight bearing. Archives of physical medicine and rehabilitation, 85(9), 1555-1560.
- De Boer, M. D., Seynnes, O. R., Di Prampero, P. E., Pišot, R., Mekjavić, I. B., Biolo, G., & Narici, M. V. (2008). Effect of 5 weeks horizontal bed rest on human muscle thickness and architecture of weight bearing and non-weight bearing muscles. European journal of applied physiology, 104(2), 401-407.
- Dewar, C., Grindstaff, T., Farmer, B., Sainsbury, M., Gay, S., Kroes, W., & Martin, K. (2021). EMG Activity With Use of a Hands-Free Single Crutch vs a Knee Scooter. Foot & Ankle Orthopaedics, 6(4), 1-8. https://doi.org/https://doi.org/10.1177/24730114211060054
- Dewar, C., & Martin, K. D. (2020). Comparison of Lower Extremity EMG Muscle Testing With Hands-Free Single Crutch vs Standard Axillary Crutches. Foot & Ankle Orthopaedics, 5(3), 2473011420939875.
- Dounis, E., Rose, G., Wilson, R., & Steventon, R. (1980). A comparison of efficiency of three types of crutches using oxygen consumption. Rheumatology, 19(4), 252-255.
- Faghri, P. D., Van Meerdervort, H. P., Glaser, R. M., & Figoni, S. F. (1997). Electrical stimulation-induced contraction to reduce blood stasis during arthroplasty. IEEE Transactions on Rehabilitation Engineering, 5(1), 62-69.
- Gellman, H., Chandler, D., Petrasek, J., Sie, I., Adkins, R., & Waters, R. (1988). Carpal tunnel syndrome in paraplegic patients. The Journal of bone and joint surgery. American volume, 70(4), 517-519.
- Gershkovich, G., Arango, D., Shaffer, G. W., & Ndu, A. (2016). Weight bearing compliance after foot and ankle surgery. Foot & Ankle Orthopaedics, 1(1), 2473011416S2473000089.
- Hather, B. M., Adams, G. R., Tesch, P. A., & Dudley, G. A. (1992). Skeletal muscle responses to lower limb suspension in humans. Journal of Applied Physiology, 72(4), 1493-1498.
- Holder, C. G., Haskvitz, E. M., & Weltman, A. (1993). The effects of assistive devices on the oxygen cost, cardiovascular stress, and perception of nonweight-bearing ambulation. Journal of Orthopaedic & Sports Physical Therapy, 18(4), 537-542.
- Kocher, B. K., Chalupa, R. L., Lopez, D. M., & Kirk, K. L. (2016). Comparative study of assisted ambulation and perceived exertion with the wheeled knee walker and axillary crutches in healthy subjects. Foot & ankle international, 37(11), 1232-1237.
- Kubiak, E. N., Beebe, M. J., North, K., Hitchcock, R., & Potter, M. Q. (2013). Early weight bearing after lower extremity fractures in adults. JAAOS-Journal of the American Academy of Orthopaedic Surgeons, 21(12), 727-738.
- Langer, N., Hänggi, J., Müller, N. A., Simmen, H. P., & Jäncke, L. (2012). Effects of limb immobilization on brain plasticity. Neurology, 78(3), 182-188. https://doi.org/10.1212/WNL.0b013e31823fcd9c
- Lu, C., Saless, N., Wang, X., Sinha, A., Decker, S., Kazakia, G., . . . Marcucio, R. S. (2013). The role of oxygen during fracture healing. Bone, 52(1), 220-229. https://doi.org/10.1016/j.bone.2012.09.037
- MacLennan, R. J., Sahebi, M., Becker, N., Davis, E., Garcia, J. M., & Stock, M. S. (2020). Declines in skeletal muscle quality vs. size following two weeks of knee joint immobilization. PeerJ, 8, e8224. https://doi.org/10.7717/peerj.8224
- Magill, H. H. P., Hajibandeh, S., Bennett, J., Campbell, N., & Mehta, J. (2019). Open Reduction and Internal Fixation Versus Primary Arthrodesis for the Treatment of Acute Lisfranc Injuries: A Systematic Review and Meta-analysis. J Foot Ankle Surg, 58(2), 328-332. https://doi.org/10.1053/j.jfas.2018.08.061
- Martin, K. D., Unangst, A. M., Huh, J., & Chisholm, J. (2019). Patient Preference and Physical Demand for Hands-Free Single Crutch vs Standard Axillary Crutches in Foot and Ankle Patients. Foot & ankle international, 40(10), 1203-1208.
- Mcbeath, A. A., Bahrke, M., & Balke, B. (1974). Efficiency of assisted ambulation determined by oxygen consumption measurement. JBJS, 56(5), 994-1000.
- McFall, B., Arya, N., Soong, C., Lee, B., & Hannon, R. (2004). Crutch induced axillary artery injury. The Ulster medical journal, 73(1), 50.
- McLachlin, A. D., McLachlin, J. A., Jory, T. A., & Rawling, E. G. (1960). Venous stasis in the lower extremities. Annals of surgery, 152(4), 678.
- Nielsen, D. H., Harris, J. M., Minton, Y. M., Motley, N. S., Rowley, J. L., & Wadsworth, C. T. (1990). Energy cost, exercise intensity, and gait efficiency of standard versus rocker-bottom axillary crutch walking. Physical therapy, 70(8), 487-493.
- Rahman, R., Shannon, B. A., & Ficke, J. R. (2020). Knee Scooter–Related Injuries: A Survey of Foot and Ankle Orthopedic Surgeons. Foot & Ankle Orthopaedics, 5(1), 2473011420914561. https://doi.org/10.1177/2473011420914561
- Raikin, S., & Froimson, M. I. (1997). Bilateral Brachial Plexus Compressive Neuropathy (Crutch Palsy). Journal of Orthopaedic Trauma, 11(2), 136-138.
- Rambani, R., Shahid, M. S., & Goyal, S. (2007). The use of a hands-free crutch in patients with musculoskeletal injuries: randomized control trial. International Journal of Rehabilitation Research, 30(4), 357-359.
- Reb, C. W., Haupt, E. T., Vander Griend, R. A., & Berlet, G. C. (2021). Pedal Musculovenous Pump Activation Effectively Counteracts Negative Impact of Knee Flexion on Human Popliteal Venous Flow. Foot Ankle Spec, 1938640021997275. https://doi.org/10.1177/1938640021997275
- Sanders, M., Bowden, A. E., Baker, S., Jensen, R., Nichols, M., & Seeley, M. K. (2018). The influence of ambulatory aid on lower-extremity muscle activation during gait. Journal of sport rehabilitation, 27(3), 230-236.
- Sankarankutty, M., Stallard, J., & Rose, G. (1979). The relative efficiency of ‘swing through’gait on axillary, elbow and Canadian crutches compared to normal walking. Journal of biomedical engineering, 1(1), 55-57.
- Seynnes, O. R., Maganaris, C. N., De Boer, M. D., Di Prampero, P. E., & Narici, M. V. (2008). Early structural adaptations to unloading in the human calf muscles. Acta physiologica, 193(3), 265-274.
- Shabas, D., & Scheiber, M. (1986). Suprascapular neuropathy related to the use of crutches. American journal of physical medicine, 65(6), 298-300.
- Tesch, P. A., Lundberg, T. R., & Fernandez-Gonzalo, R. (2016). Unilateral lower limb suspension: From subject selection to “omic” responses. J Appl Physiol (1985), 120(10), 1207-1214. https://doi.org/10.1152/japplphysiol.01052.2015
- Thys, H., Willems, P., & Saels, P. (1996). Energy cost, mechanical work and muscular efficiency in swing-through gait with elbow crutches. Journal of biomechanics, 29(11), 1473-1482.
- Tripp, H. F., & Cook, J. W. (1998). Axillary artery aneurysms. Military medicine, 163(9), 653-655.
- Vinay, K., Nagaraj, K., Arvinda, H. R., Vikas, V., & Rao, M. (2021). Design of a Device for Lower Limb Prophylaxis and Exercise. IEEE J Transl Eng Health Med, 9, 2100107. https://doi.org/10.1109/JTEHM.2020.3037018
- Yeoh, J., Ruta, D., Murphy, G. A., Richardson, D., Ishikawa, S., Grear, B., & Bettin, C. (2017). Post-Operative Use of the Knee Walker After Foot and Ankle Surgery, A Retrospective Study. Foot & Ankle Orthopaedics, 2(3), 2473011417S2473000419.
Patient Preference and Physical Demand for Hands-Free Single Crutch vs. Standard Axillary Crutches in Foot and Ankle Patients
Kevin D. Martin, DO, Alicia M. Unangst, DO, Jeannie Huh, MD and Jamie Chisholm, MBA
Summary: This study proved that 9 out of 10 patients prefer a hands-free crutch (iWALK) over crutches. Patients experienced less discomfort and exertion when using the hands-free crutch compared with crutches.
“The Hands-Free Single Crutch (HFSC) was preferred by 86% of patients. Significantly lower dyspnea scores (2.8 vs 5.3; P<0.001), fatigue scores (2.4 vs 5.5; P<0.001), pre-activity and post-activity change in heart rate (28 vs 46 bpm; P<0.001), and mean post-activity heart rate (107 vs 122 bpm; P<0.001) were found using the HFSC compared with the Standard Axillary Crutches (SACs)… SACs have demonstrated a substantial energy cost compared with normal gait, and they have been also been associated with injury… Selecting an appropriate assistive device is multifactorial and should be patient specific to improve patient compliance and optimize mobility and safety… Understanding physiologic cost, function, fall risk, and overall patient satisfaction could aid healthcare providers in determining an appropriate ambulatory device that is patient specific.”
Comparison of Lower Extremity EMG Muscle Testing with Hands-Free Single Crutch vs Standard Axillary Crutches
Cuyler Dewar, MS, and Kevin Martin, DO, FAAOS, DAL
Summary: With standard crutches there is near zero muscle activity in the injured leg. With a hands-free crutch the leg muscles are firing similar to normal human gait. Electromyography (EMG) proved that there is muscle engagement in the injured lower leg while using the iWALK, which could reduce the atrophy generally seen with crutches and improve blood return that could reduce the risk of developing blood clots. These benefits will allow faster recovery times for people with lower extremity injuries
“The Hands-Free Single Crutch (HFSC) subjects demonstrated increased muscle recruitment and intensity while maintaining cyclic contractions consistent with bipedal gait pattern. Standard Axillary Crutches (SAC) demonstrated less recruitment and intensity with an isometric pattern regardless of the phase of gait… SAC use can result in muscle atrophy and decreased blood flow… When muscle activity is decreased in a nonweightbearing lower extremity, the risk of developing a deep vein thrombosis will increase… The rectus femoris and gluteus maximus had statistically significant increases in mean muscle activity and MVIC percentage, while the lateral gastrocnemius showed statistically significant increase in mean muscle activity and the vastus lateralis showed a statistically significant increase in MVIC percentage. The heightened recruitment of these muscles while using the HFSC will potentially translate to decreased levels of muscle atrophy during the nonweightbearing period after a lower extremity injury. Reduced muscle atrophy will potentially allow for quicker rehabilitation secondary to retained balance and proprioception. The heightened cyclic muscle contractions will also facilitate vascularization of the lower extremity, while reducing potentially slowed venous return.”
Read More: SAGE Journals
EMG Activity With Use of a Hands-Free Single Crutch vs a Knee Scooter
Cuyler Dewar, MS, Terry L. Grindstaff, PhD, PT, Brooke Farmer, MS, ATC, Morgan Sainsbury, MS, Sam Gay, BS, Weston Kroes, BS and Kevin D. Martin, DO, FAAOS, FAANA
Summary: The hands-free crutch leads to increased muscle activity and recruitment consistent with normal walking when compared with a knee scooter. The hands-free crutch being the mobility device that is closest to normal walking in terms of muscle activity has various clinical benefits in the recovery of non-weight bearing lower limb injuries such as decreasing muscle atrophy, improving blood flow, reducing the risk of blood clots and enhancing healing. Moreover, the increased muscle activity using the hands-free crutch may reduce changes in brain plasticity.
“The rectus femoris, lateral gastrocnemius and gluteus maximus showed increased peak electromyographic (EMG) activity percentage, and the lateral gastrocnemius showed increased mean muscle activity while using the hands-free single crutch (HFSC) compared with the knee scooter…The heightened intensity and recruitment of these muscles while using the HFSC could potentially translate to decreased levels of muscle atrophy and increased blood leading to heightened venous return during nonweight-bearing recovery. Increased muscle activation has been shown to lead to increased muscle retention and mass…By maintaining in-phase cyclic muscle activation, we have established these neuro-motor pathways remain active regardless of immobilization and weightbearing status while using an HFSC.”
Read More: SAGE Journals
Use of a Hands-Free Crutch in Patients with Musculoskeletal Injuries
R. Rambani, M. S. Shadid, and S. Goyal
Summary: Patients that use a hands-free crutch are discharged significantly faster than patients who do not use it.
“The average stay of the patients using a hands-free crutch (HFC) was 2.3 days, with a range of 1-5 days. This was much shorter compared with the stay for patients who had similar injuries and had decided not to use this crutch: 4-14 days (average, 6.7 days). This difference was statistically significant (P=0.05)… This not only helps in decreasing the burden on the hospital in terms of the expenses of hospital stay, but also helps the patient to be independent quickly, after an injury… The HFC was associated with a better overall musculoskeletal functional assessment score (P<0.05), better coping, a trend towards better lower extremity function, and with performing activities around the house. The HFC was well accepted, safe, and easy to use. A clear trend for better function with the HFC was seen. SF-36 physical function tended to be better with the HFC (P<0.05)… The HFC is a viable alternative for patients required to be nonweightbearing during ambulation.”
Alternative Mobilization by Means of a Novel Orthosis in Patients after Amputation
U. Barth, K. Wasseroth, Z. Halloul, F. Meyer
Summary:Patients using an iWALK exhibited improvements in their ability to perform activities of daily living. The iWALK was shown to provide emotional and psychological benefits and was well accepted.
“The successful application of the “hand free” device “iWALK Crutch” under the listed clinical condition thus suggest that it is a clear alternative of postoperative rehabilitation in the diagnosis of a surgically treated diabetic foot gangrene after minor amputation ……in addition to giving the patient as much independence as possible, this also made the patient feel positive about life again….overall the iWALK orthosis was considered by the patient to be of a high quality and comfortable, and it was completely accepted, which also helped to motivate the patient with mobilization.”