Angio Rehab – Eith Electrical Adjustable Wall Fixation
Modern ergometer with multifunctional applications
The wall fastening consists of a vertical rail with hang-up mechanism which makes it possible to move the Angio up and down electrically over a range of 70 cm. Handgrips are standard included in this combination. The Angio is an ergometric unit that can be used for both arm and supine ergometry. Its compact design makes it universally applicable for ergometric studies in those sectors in which standard ergometry cannot be used. The Angio operates independent of pedaling speed in the range of 7 – 1000 watt.
The Angio rehab is standard supplied with a 7″ control unit with touch screen. Thanks to the built-in network module, the ergometer can be connected to the Lode Cardiac Rehab Manager Software, Lode Rehab Manager or the Lode Ergometry Manager.
A USB A-B cable for service purposes only will be standard delivered with the product. To connect LEM or LCRM you need a special interface cable that can be ordered under part number 930930.
Interconnectivity between Lode products
Overview
Highlights
High standards
Easy to operate
– easy to connect
– easy to move around
– easy user interface
Reliable and reproducible stress tests
Additional features with PCU
– better monitoring because of the additional and larger display
– a perfect combination with BPM
– possibility to measure SpO2
Features

Accurate over a long period of time

Extreme low start-up load

Small adjustment steps

RS232 connectivity

LEM compatible

LCRM compatible
Specifications
| Workload range fixed torque | 0,1 - 70 Nm | Workload range in fixed torque mode | |
| Minimum load | 7 W | the minimum load the ergometer can provide | |
| Maximum peak load | 1000 W | the maximum load the ergometer can provide for a short period of time | |
| Minimum load increments | 1 W | the smallest steps with which the load can be added | |
| Maximum continuous load | 750 W | the maximum power the ergometer can deliver continuous | |
| Hyperbolic workload control | control of workload in hyperbolic way | ||
| Linear workload control | control ergometer in a linear way | ||
| Fixed torque workload control | control ergometer in a fixed torque way | ||
| Maximum rpm independent constant load | 150 rpm | rpm as to which constant load can be applied | |
| Minimum rpm independent constant load | 30 rpm | rpm as from which constant load can be applied | |
| Optional heart rate controlled workload | control the device optionally through a set heartrate | ||
| Electromagnetic "eddy current" braking system | system that very accurately applies a brake to the ergometer |
| Workload accuracy from 7 to 100 W | 3 W | accuracy of the ergometer between 7 and 100 Watt | |
| Workload accuracy from 100 to 500 W | 3 % | accuracy of the ergometer between 100 and 500 Watt | |
| Workload accuracy from 500 to 1000 W | 5 % | accuracy of the ergometer between 500 and 1000 Watt |
| Adjustability range height | 700 mm | adjustability range height |
| Readout Distance | Readout the distance on control unit | ||
| Readout RPM | Readout the actual rpm on control unit | ||
| Readout Heartrate | Readout the actual heartarte on control unit | ||
| Readout target HR | Readout target heartarte on control unit (only possible with HR option) | ||
| Readout Energy | Readout the energy on control unit | ||
| Readout Torque | Readout torque on control unit | ||
| Readout Time | Readout time on control unit | ||
| Readout Power | Readout the actual power on control unit | ||
| Set Display | Choosing parameters to be shown on the display during the stress test | ||
| Set Resistance | Possibility to define a specific resistance for each test subject | ||
| Set P-Slope | Possibility to set the load regulation resistance | ||
| Set Mode | Possibility to define parameters to be adjusted during the stress test | ||
| Manual operation mode | Operate manually | ||
| Preset protocol operation mode | Operate via preset protocols | ||
| External control unit | a control unit is connected with a cable to the ergometer | ||
| Selfdesigned protocol operation mode | operate via selfdesigned protocols |
| Product length (cm) | 68 cm | 26.8 inch | length of product in cm |
| Product width (cm) | 42 cm | 16.5 inch | width of the product in cm |
| Product height | 104 cm | 40.9 inch | height of product |
| Product weight | 55 kg | 121.3 lbs | the weight of the product |
| V AC | 100 - 240 V | voltage in Volt | |
| Phases | 1 | phases | |
| Frequency | 50/60 Hz | frequency in Herz | |
| Power consumption | 250 W | power consumption in Watt | |
| Power cord IEC 60320 C13 with CEE 7/7 plug | European power cord and connector standard supplied with product | ||
| Power cord NEMA | NEMA power cord and connector | ||
| 100 - 240 V 50/60 Hz (160 Watt) | operational power |
| IEC 60601-1:2012 | the product is IEC 60601-1 edition 3.1 compliant | ||
| ISO 13485:2016 compliant | Lode fulfils ISO 13485:2016 requirements | ||
| ISO 9001:2015 compliant | Lode fulfills ISO 9001: 2015 requirements |
| CE class Im according to MDD93/42/EEC | CE certified | ||
| CE class of product with optional SpO2 | IIa | CE class of product with optional SpO2 | |
| CE class of product with optional BPM | IIa | CE class of product with optional Blood Pressure Measurement | |
| CB according to IECEE CB | CB certified |
| Maximum operational temperature | 35 °C | maximum temperature at which the device will work within specification | |
| Minimum operational temperature | 14 °C | minimum temperature at which the device will work within specification | |
| Maximum operational air pressure | 106 kPa | maximum air pressure as from which the product will be operating within specification | |
| Minimum operational air pressure | 80 kPa | minimum airpressure as from which the product will be operating within specification | |
| Maximum operational non-condensing humidity | 90 % | maximum non-condensing humidity at which the product will operate within specification | |
| Minimum operational non-condensing humidity | 30 % | minimum non-condensing humidity at which the product will operate within specification | |
| Maximum storage & transport temperature | 60 °C | maximum temperature the product may be stored or transported at | |
| Minimum storage & transport temperature | -20 °C | minimum temperature the product may be stored and transported at | |
| Maximum storage & transport air pressure | 106 kPa | maximum air pressure the product may be stored and transported at | |
| Minimum air pressure storage & transport | 50 kPa | minimum air pressure the product may be stored or transported at | |
| Max. humidity storage & transport | 95 % | max. non-condensing humidity that the product can be stored or transported at | |
| Min. humidity storage & transport | 10 % | minimum non-condensing humidity that the product can be stored or transport at |
*Specifications are subject to change without notice.
Accessories
[wcsp_cross_sell orderby=”rand” order=”ASC” product_num=”5″ display_columns=”3″ title=”” product_id=”5864″]
Science
Science
- A prognostic scoring system for arm exercise stress testing
A prognostic scoring system for arm exercise stress testing
Author(s)Yan Xie, Hong Xian, Pooja Chandiramani, Emily Bainter, Leping Wan, and Wade H Martin, III
Date2016-01-12
SourceOpen Heart
Objective
Arm exercise stress testing may be an equivalent or better predictor of mortality outcome than pharmacological stress imaging for the ≥50% for patients unable to perform leg exercise. Thus, our objective was to develop an arm exercise ECG stress test scoring system, analogous to the Duke Treadmill Score, for predicting outcome in these individuals.Methods
In this retrospective observational cohort study, arm exercise ECG stress tests were performed in 443 consecutive veterans aged 64.1 (11.1) years. (mean (SD)) between 1997 and 2002. From multivariate Cox models, arm exercise scores were developed for prediction of 5-year and 12-year all-cause and cardiovascular mortality and 5-year cardiovascular mortality or myocardial infarction (MI).Results
Arm exercise capacity in resting metabolic equivalents (METs), 1 min heart rate recovery (HRR) and ST segment depression ≥1 mm were the stress test variables independently associated with all-cause and cardiovascular mortality by step-wise Cox analysis (all p<0.01). A score based on the relation HRR (bpm)+7.3×METs−10.5×ST depression (0=no; 1=yes) prognosticated 5-year cardiovascular mortality with a C-statistic of 0.81 before and 0.88 after adjustment for significant demographic and clinical covariates. Arm exercise scores for the other outcome end points yielded C-statistic values of 0.77–0.79 before and 0.82–0.86 after adjustment for significant covariates versus 0.64–0.72 for best fit pharmacological myocardial perfusion imaging models in a cohort of 1730 veterans who were evaluated over the same time period.Conclusions
Arm exercise scores, analogous to the Duke Treadmill Score, have good power for prediction of mortality or MI in patients who cannot perform leg exercise. - Arm exercise stress testing: diagnostic options in stable coronary artery disease
Arm exercise stress testing: diagnostic options in stable coronary artery disease
Author(s)Rahul Bahl & Pascal Meierl
Date2016-05-13
SourceOpen Heart V3(1) 2016
Diagnostic and prognostic testing in coronary artery disease (CAD) is a rapidly expanding field and now includes a range of functional tests, imaging modalities and combinations of the two (stress imaging). For patients suspected of having occlusive CAD, current European Society of Cardiology and National Institute for Health and Clinical Excellence guidance1 2 recommends an approach where the probability of obstructive disease and the risk of future events are estimated to determine the next steps. Those at low-risk on the basis of history, examination and basic investigations do not need further assessment, while those at high-risk can proceed directly to treatment, including invasive angiography, if needed. However, for intermediate risk patients, there are a number of options.
- Arm exercise testing predicts clinical outcome
Arm exercise testing predicts clinical outcome
Author(s)Nasreen A. Ilias, Hong Xian, Cindi Inman, Wade H. Martin
Date2009-01-01
SourceAm Heart J. 2009 Jan;157(1):69-76. doi: 10.1016/j.ahj.2008.09.007. Epub 2008 Nov 1.
Treadmill exercise testing provides prognostic and clinical information that is not available for patients with lower extremity disabilities who undergo pharmacologic stress tests. We sought to determine whether arm ergometer (AXT) exercise capacity in resting metabolic equivalents (METs) and hemodynamic and electrocardiographic responses to AXT are predictors of survival, myocardial infarction (MI), or coronary revascularization, individually or as a composite.
- Comparison of Lower- vs. Upper-Body Cooling During Arm Exercise in Hot Conditions
Comparison of Lower- vs. Upper-Body Cooling During Arm Exercise in Hot Conditions
Author(s)Price, Michael J.; Mather, Mark I.
Date2004-03-01
SourceAviation, Space, and Environmental Medicine, Volume 75, Number 3, March 2004 , pp. 220-226(7)
Introduction: Studies examining cooling strategies and exercise have generally employed lower-body exercise despite the fact that arm exercise is an important mode for many industrial tasks and disabled populations. The aim of this study was to determine the effects of two cooling strategies during arm exercise in the heat. Methods: There were eight male subjects (mean ± SD age 24.5 ± 4.0 yr, weight 81.0 ± 7.8 kg, upper-body [V-dot]O2peak 3.13 ± 0.50 L • min−1) who volunteered for this study. Subjects undertook arm crank exercise for 30 min (50% [V-dot]O2peak) in a hot environment (40.2 ± 0.4°C, 38.7 ± 7.4% RH) on three occasions (no cooling control, CON; lower-body cooling, LC; upper-body cooling, UC). Results: No differences were observed between trials for oxygen consumption, respiratory exchange rate (RER), or blood lactate. Heart rate (HR) was greatest during CON (151 ± 11 bpm) when compared with UC and LC (148 ± 16 and 138 ± 13 bpm; p < 0.05). Mean skin temperature was warmer during CON (36.3 ± 0.5°C) when compared with UC (31.2 ± 1.4°C, p < 0.05), which was warmer than during LC (28.5 ± 1.3°C, p < 0.05). No differences were observed for rectal or aural temperatures between trials. At the end of exercise, heat storage was hyperthermic (3.04 ± 0.68 J • g−1), thermoneutral (0.18 ± 1.21 J • g−1), and hypothermic (−2.37 ± 0.81 J • g−1) during CON, UC, and LC, respectively (p < 0.05). Perceived exertion was lowest during LC and greatest during CON (p < 0.05).Conclusions: The results of this study suggest that cooling the lower body during arm exercise in hot conditions is more effective in reducing physiological and thermal strain than cooling the upper body.
- Diagnosis of Functionally Significant Coronary Stenosis with Exercise CT Myocardial Perfusion Imaging
Diagnosis of Functionally Significant Coronary Stenosis with Exercise CT Myocardial Perfusion Imaging
Author(s)Michel Habis, MD, Said Ghostine, MD, Adela Rohnean, MD, André Capderou, MD, PhD, Jean-François Paul, MD
Date2014-11-19
SourceRSNA Publications Online
Purpose
To assess the feasibility of exercise perfusion computed tomography (CT) in patients suspected of having hemodynamically significant coronary stenosis.
Materials and MethodsThis study had institutional review board approval, and all patients gave informed consent. Thirty-two consecutive patients (26 men [mean age, 63 years] and six women [mean age, 71 years]) with 55 coronary stenoses of at least 50% underwent coronary CT angiography (one stenosis in 13 patients, two stenoses in 15 patients, and three stenoses in four patients). CT myocardial perfusion imaging was performed within 1 minute after patients performed supine exercise on an ergometer secured to the CT table. The pressure-rate product was computed to assess level of exercise. The myocardial enhancement ratio between stenotic and normally perfused territories was determined for each stenosis. Fractional flow reserve less than 0.8, as measured during invasive coronary angiography, was the reference for defining significant stenoses. Receiver operating characteristic curves were constructed to determine the myocardial enhancement ratio cutoff value.
ResultsIn the per-patient analysis, a myocardial enhancement ratio cutoff of 0.8 performed best for identifying functionally significant stenosis: Sensitivity was 95% (21 of 22 patients), specificity was 90% (nine of 10 patients), positive predictive value was 95% (21 of 22 patients), negative predictive value was 90% (nine of 10 patients), and accuracy was 94% (30 of 32 patients). Corresponding values in the per-stenosis analysis were 97% (29 of 30 stenoses), 96% (23 of 24 stenoses), 97% (29 of 30 stenoses), 96% (23 of 24 stenoses), and 96% (52 of 54 stenoses), respectively.
ConclusionExercise CT myocardial perfusion imaging is feasible and accurate for assessment of the functional significance of coronary stenosis.
- Effects of Arm-Cranking Exercise in Cutaneous Microcirculation in Older, Sedentary People
Effects of Arm-Cranking Exercise in Cutaneous Microcirculation in Older, Sedentary People
Author(s)MARKOS KLONIZAKIS, EDWARD WINTER
Date2011-09-12
SourceMicrovascular Research, 2011 – Elsevier
Objectives: Microvascular integrity is compromised by several diseases and conditions as well as age. Exercise can reverse these effects but it is unclear whether these are systemic or localised, or which mechanisms are responsible for observed improvements Therefore, the primary objective of this study was to assess whether arm-cranking exercise had a systemic or localised cutaneous, microcirculatory effect in an older, healthy population and compare these findings with our previous work on patients with chronic venous disease. A secondary objective was to see if improvements were greater in the lower- or in the upper-limb.
Methods: Endothelial dependent- and independent- vasodilation were assessed on the forearm and the perimalleolar region in 14 older (59 ± 4.5 years), sedentary, healthy participants using LDF and incremental doses of acetylcholine (ACh) and sodium nitroprusside (SNP), before and after a session of arm-cranking exercise. Cutaneous blood flux data were expressed as cutaneous vascular conductance (CVC).
Results: Endothelial-dependent vasodilation increased both in the upper- (p=0.04, d=0.59) and lower-limb (p=0.03, d=0.52), after exercise. Endothelial-independent vasodilation did not
change either in the lower- and upper-limb (p>0.05 on both occasions). “Between-limbs”
comparison showed that pre-exercise differences between the forearm and the lower-leg
(p=0.04, d=0.47) disappeared after ACh-induced vasodilation, following arm-cranking exercise (p>0.05). Conversely, SNP-induced did not change.
Conclusion: Our results suggest that in a healthy, sedentary population (and in contrast to postsurgical varicose vein patients), acute arm-cranking exercise leads to an improvement of
microvascular endothelial function in the extremities. - Experimental Protocol of a Three-minute, All-out Arm Crank Exercise Test in Spinal-cord Injured and Able-bodied Individuals (video article)
Experimental Protocol of a Three-minute, All-out Arm Crank Exercise Test in Spinal-cord Injured and Able-bodied Individuals (video article)
Author(s)Joelle L. Flueck1
Date2017-08-06
SourceJournal of Visualized Experiments
Reliable exercise protocols are required to test changes in exercise performance in elite athletes. Performance improvements in these athletes may be small; therefore, sensitive tools are fundamental to exercise physiology. There are currently many exercise tests that allow for the examination of exercise capacity in able-bodied athletes, with protocols mainly for lower-body or whole-body exercise. There is a trend to test athletes in a sport-specific setting that closely resembles the actions that the participants are used to performing. Only a few protocols test short-term, high-intensity exercise capacity in participants with an impairment of the lower body. Most of these protocols are very sportspecific and are not applicable to a wide range of athletes. One well-known test protocol is the 30 s Wingate test, which is well-established in cycling and in arm crank exercise testing. This test analyzes high-intensity exercise performance over a 30 s time duration. In order to monitor exercise performance over a longer duration, a different method was modified for application to the upper body. The 3 min, all-out arm crank ergometer test allows athletes to be tested in a manner specific to 1,500 m wheelchair racing (in terms of exercise duration), as well as to upper body exercises such as rowing or hand-cycling. In order to increase the reliability with identical test conditions, it is crucial to precisely replicate settings such as the resistance (i.e., torque factor) and the position of the participants (i.e., the height of the crank, the distance between the crank and the participant, and the fixation of the participant). Another important issue concerns the beginning of the exercise test. Fixed revolutions per minute are required to standardize the test conditions for the start of the exercise test. This exercise protocol shows the importance of accurate operations to reproduce identical test conditions and settings.
- Influence of training status and exercise modality on pulmonary O2 uptake kinetics in pre-pubertal girls
Influence of training status and exercise modality on pulmonary O2 uptake kinetics in pre-pubertal girls
Author(s)Melitta A. Winlove, Andrew M. Jones, Joanne R. Welsman
Date2010-04-05
SourceEuropean Journal of Applies Physiology. April 2010, Volume 108, Issue 6, pp 1169-1179
The limited available evidence suggests that endurance training does not influence the pulmonary oxygen uptake ( V˙O2 ) kinetics of pre-pubertal children. We hypothesised that, in young trained swimmers, training status-related adaptations in the V˙O2 and heart rate (HR) kinetics would be more evident during upper body (arm cranking) than during leg cycling exercise. Eight swim-trained (T; 11.4 ± 0.7 years) and eight untrained (UT; 11.5 ± 0.6 years) girls completed repeated bouts of constant work rate cycling and upper body exercise at 40% of the difference between the gas exchange threshold and peak V˙O2 . The phase II V˙O2 time constant was significantly shorter in the trained girls during upper body exercise (T: 25 ± 3 vs. UT: 37 ± 6 s; P < 0.01), but no training status effect was evident in the cycle response (T: 25 ± 5 vs. UT: 25 ± 7 s). The V˙O2 slow component amplitude was not affected by training status or exercise modality. The time constant of the HR response was significantly faster in trained girls during both cycle (T: 31 ± 11 vs. UT: 47 ± 9 s; P < 0.01) and upper body (T: 33 ± 8 vs. UT: 43 ± 4 s; P < 0.01) exercise. The time constants of the phase II V˙O2 and HR response were not correlated regardless of training status or exercise modality. This study demonstrates for the first time that swim-training status influences upper body V˙O2 kinetics in pre-pubertal children, but that cycle ergometry responses are insensitive to such differences.
- Left ventricular mechanical limitations to stroke volume in healthy humans during incremental exercise
Left ventricular mechanical limitations to stroke volume in healthy humans during incremental exercise
Author(s)Eric, J. Stöhr, José González-Alonso, Rob Shave
Date2011-08-01
SourceAmerican Journal of Physiology – Heart August 1, 2011 vol. 301 no. 2 H478-H487
During incremental exercise, stroke volume (SV) plateaus at 40–50% of maximal exercise capacity. In healthy individuals, left ventricular (LV) twist and untwisting (“LV twist mechanics”) contribute to the generation of SV at rest, but whether the plateau in SV during incremental exercise is related to a blunting in LV twist mechanics remains unknown. To test this hypothesis, nine healthy young males performed continuous and discontinuous incremental supine cycling exercise up to 90% peak power in a randomized order. During both exercise protocols, end-diastolic volume (EDV), end-systolic volume (ESV), and SV reached a plateau at submaximal exercise intensities while heart rate increased continuously. Similar to LV volumes, two-dimensional speckle tracking-derived LV twist and untwisting velocity increased gradually from rest (all P < 0.001) and then leveled off at submaximal intensities. During continuous exercise, LV twist mechanics were linearly related to ESV, SV, heart rate, and cardiac output (all P < 0.01) while the relationship with EDV was exponential. In diastole, the increase in apical untwisting was significantly larger than that of basal untwisting (P < 0.01), emphasizing the importance of dynamic apical function. In conclusion, during incremental exercise, the plateau in LV twist mechanics and their close relationship with SV and cardiac output indicate a mechanical limitation in maximizing LV output during high exercise intensities. However, LV twist mechanics do not appear to be the sole factor limiting LV output, since EDV reaches its maximum before the plateau in LV twist mechanics, suggesting additional limitations in diastolic filling to the heart.
- Physical Fitness of Lower Limb Amputees
Physical Fitness of Lower Limb Amputees
Author(s)Chin, Takaaki MD, PhD; Sawamura, Seishi MD; Fujita, Hisao MD; Nakajima, Sakuya MD; Oyabu, Hiroko RPT; Nagakura, Yuji RPT; Ojima, Isao RPT; Otsuka, Hiroshi PO; Nakagawa, Akio
Date2002-05-13
SourceAmerican Journal of Physical Medicine & Rehabilitation: May 2002 – Volume 81 – Issue 5 – pp 321-325
Objective: To investigate the cardiorespiratory endurance of the physical fitness of amputees and able-bodied subjects of the same ages and to demonstrate deterioration of the physical fitness of the amputees.
Design: The test subjects were 31 amputees. Eighteen able-bodied persons served as controls. The incremental exercise test was performed to evaluate physical fitness. Sixteen of 31 amputees underwent endurance training by using a cycle ergometer driven by the intact leg, and their physical fitness was evaluated after completion of the endurance training program.
Results: The V̇o2max, anaerobic threshold, and maximum workload for the amputees were significantly lower than those of the able-bodied group. The equivalent values for the endurance training group before exercise treatment were 18.0, 12.1, and 63.9, respectively. After exercise treatment, these values significantly increased, and there was no significant difference from the able-bodied subjects.
Conclusions: This study showed that the physical fitness of amputees was clearly lower than that of the able-bodied subjects and that the amputees were able to recover from a poorly conditioned status after endurance training. - Studying the cutaneous microcirculatory response during upper-limb exercise in healthy, older, sedentary people
Studying the cutaneous microcirculatory response during upper-limb exercise in healthy, older, sedentary people
Author(s)Markos Klonizakis∗
Date2011-07-01
SourceClinical Hemorheology and Microcirculation 48 (2011) 1–7
This study investigated changes incurred in cutaneous skin blood flux (SKBF) in the superficial veins of the lower limb by upper limb exercise training in the form of arm-cranking in 14 healthy participants over the age of 50 years. Changes in cutaneous microvascular function of the lower leg were assessed using laser Doppler Flowmetry (LDF) during a 30-minute exercise session undertaken over 4-exercise periods. Both SKBF and Time to reach Peak Perfusion (Tmax) were improved significantly during the 2nd (e.g. 121 (±107.2) vs 280 (±269.1) and 171 (±34.4) vs. 247 (±38.3) respectively) when compared to the first exercise period, while values approaching initial levels in the following stages. The results indicate that the thermoregulatory and vasodilation mechanisms observed during exercise in middle-aged and older healthy people are different to the one appearing in younger age groups, suggesting a more extensive effect of the age-related structural changes than it was previously thought.
- Subjective Measures of Exercise Intensity to Gauge Substrate Partitioning in Persons With Paraplegia
Subjective Measures of Exercise Intensity to Gauge Substrate Partitioning in Persons With Paraplegia
Author(s)Jochen Kressler, PhD, Rachel E. Cowan, PhD, Kelly Ginnity, MS, Mark S. Nash, PhD
Date2012-08-08
SourceTopics in Spinal Cord Injury Rehabilitation. Volume 18, Number 3 / Summer 2012
Background: The Borg Rating of Perceived Exertion (RPE) Scale and talk test (TT) are commonly recommended for persons to gauge exercise intensity. It is not known whether they are suitable to estimate substrate partitioning between carbohydrate and fat in persons with SCI. Objective: Investigate substrate partitioning/utilization patterns associated with RPE and TT. Methods: Twelve participants with chronic paraplegia underwent 2 arm crank exercise tests on nonconsecutive days within 2 weeks. Test 1 was a graded exercise test (GXT) to volitional exhaustion. Test 2 was a 15-minute self-selected steady state (SS) voluntary arm exercise bout simulating a brief, yet typical exercise session. Results: For the GXT, very light intensity exercise (RPE < 9) and TT stage before last positive were associated with highest contribution of fat oxidation (~35%-50%) to total energy expenditure (TEE). Fat oxidation was low at all stages, with the highest rate (0.13 ± 0.07 g/min) occurring at stage 1 (10 W). Corresponding average RPE was 7 ± 2 and the TT was positive for all participants at this stage. For the SS, fuel partitioning throughout exercise was dominated by carbohydrate oxidation (1.47 ± 0.08 g/min), accounting for almost all (~94%) of TEE with only a minute contribution from fat oxidation (0.02 ± 0.004 g/min). A positive TT was associated with an average contribution of fat oxidation of ~10%. Conclusions: RPE but not the TT appears suitable to predict exercise intensities associated with the highest levels of fat oxidation. However, such intensities are below authoritative intensity thresholds for cardiorespiratory fitness promotion, and therefore the applicability of such a prediction for exercise prescriptions is likely limited to individuals with low exercise tolerance.
- The effects of arm crank ergometry, cycle ergometry and treadmill walking on postural sway in healthy older females.
The effects of arm crank ergometry, cycle ergometry and treadmill walking on postural sway in healthy older females.
Author(s)Hill MW, Oxford SW, Duncan MJ, Price MJ
Date2014-10-13
SourceGait & Posture 41 (2015) 252–257
A B S T R A C T
Older adults are increasingly being encouraged to exercise but this may lead to muscle fatigue, which can
adversely affect postural stability. Few studies have investigated the effects of upper body exercise on
postural sway in groups at risk of falling, such as the elderly. The purpose of this study was to compare
the effects arm crank ergometry (ACE), cycle ergometry (CE) and treadmill walking (TM) on postural
sway in healthy older females. In addition, this study sought to determine the time necessary to recover
postural control after exercise. A total of nine healthy older females participated in this study.
Participants stood on a force platform to assess postural sway which was measured by displacement of
the centre of pressure before and after six separate exercise trials. Each participant completed three
incremental exercise tests to 85% of individual’s theoretical maximal heart rate (HRMAX) for ACE, CE and
TM. Subsequent tests involved 20-min of ACE, CE and TM exercise at a relative workload corresponding
to 50% of each individual’s predetermined heart rate reserve (HRE). Post fatigue effects and postural
control recovery were measured at different times after exercise (1, 3, 5, 10, 15 and 30-min). None of the
participants exhibited impaired postural stability after ACE. In contrast, CE and TM elicited significant
post exercise balance impairments, which lasted for 10 min post exercise. We provide evidence of an
exercise mode which does not elicit post exercise balance impairments. Older adults should exercise
caution immediately following exercise engaging the lower limbs to avoid fall risk. - The influence of crank configuration on muscle activity and torque production during arm crank Ergometry
The influence of crank configuration on muscle activity and torque production during arm crank Ergometry
Author(s)Paul M. Smith, Mark L. Chapman, Kathryn E. Hazlehurst, Mark A. Goss-Sampson
Date2008-08-11
SourceJournal of Electromyography and Kinesiology. Volume 18, Issue 4, Pages 598-605, August 2008
This study investigated the effect of crank configuration on muscle activity and torque production during submaximal arm crank ergometry. Thirteen non-specifically trained male participants volunteered. During the research trials they completed a warm-up at 15 W before two 3-min exercise stages were completed at 50 and 100 W; subjects used either a synchronous or asynchronous pattern of cranking. During the final 30-s of each submaximal exercise stage electromyographic and torque production data were collected. After the data had been processed each parameter was analysed using separate 2-way ANOVA tests with repeated measures. The activity of all muscles increased in line with external workload, although a shift in the temporal pattern of muscle activity was noted between crank configurations. Patterns of torque production during asynchronous and synchronous cranking were distinct. Furthermore, peak, minimum and delta (peak-minimum) torque values were different (P < 0.05) between crank configurations at both workloads. For example, at 100 W, peak torque using synchronous [19.6 (4.3) Nm] cranking was higher (P < 0.05) compared to asynchronous [16.8 (1.6) Nm] cranking. In contrast minimum torque was lower (P < 0.05) at 100 W using synchronous [4.8 (1.7) Nm] compared to asynchronous [7.3 (1.2) Nm] cranking. There was a distinct bilateral asymmetry in torque production during asynchronous cranking with the dominant transmitting significantly more force to the crank arm. Taken together, these preliminary data demonstrate the complex nature of muscle activity during arm crank ergometry performed with an asynchronous or synchronous crank set-up. Further work is required to determine how muscle activity (EMG activity) and associated patterns of torque production influence physiological responses and functional capacity during arm crank ergometry.
- The influence of crank rate on peak oxygen consumption during arm crank ergometry
The influence of crank rate on peak oxygen consumption during arm crank ergometry
Author(s)Paul M. Smith, Michael J. Price, Mike Doherty
Date2001-11-19
SourceJournal of Sports Sciences, Volume 19, Issue 12, 2001
The aim of this study was to assess the influence of three imposed crank rates on the attainment of peak oxygen consumption ( V O 2peak ) and other physiological responses during incremental arm crank ergometry. Twenty physically active, although non-specifically trained, males volunteered for the study. They completed an exercise protocol using an electrically braked arm ergometer (Lode Angio, Groningen, Netherlands) at crank rates of 60, 70 and 80 rev•min -1 . The order of tests was randomized and they were separated by at least 2 days. Peak V O 2 was significantly higher ( P 0.05) at 70 and 80 rev•min -1 than at 60 rev•min -1 . Peak ventilation volume increased as a function of crank rate and was higher ( P 0.05) at 80 than at 60 rev•min -1 . Peak heart rate was higher ( P 0.05) at 70 and 80 rev•min -1 than at 60 rev•min -1 . Furthermore, 70 and 80 rev•min -1 resulted in an extended test time compared with 60 rev•min -1 . The greater physiological responses observed during the tests at the two faster crank rates might have been the result of a postponement of acute localized neuromuscular fatigue, allowing for more work to be completed. We recommend, therefore, that an imposed crank rate between 70 and 80 rev•min -1 should be used to elicit V O 2peak and other physiological responses in arm crank ergometry.
- The Influence of Step and Ramp Type Protocols on the Attainment of Peak Physiological Responses During Arm Crank Ergometry
The Influence of Step and Ramp Type Protocols on the Attainment of Peak Physiological Responses During Arm Crank Ergometry
Author(s)P. M. Smith, M. Doherty, D. Drake, M. J. Price
Date2004-12-13
SourceInternational Journal of Sports Medicine 2004; 25(8): 616-621
The present study examined the impact of two exercise protocols on the attainment of peak physiological responses during arm crank ergometry (ACE). Fourteen physically active, although non-specifically trained male subjects completed two V•O2 peak tests using an electrically braked arm ergometer (Lode Angio, Groningen, Netherlands). The tests consisted of a stepwise or rampwise increase in external workload. The order of tests was randomised and each test was separated by at least two days. Respiratory data were collected continuously using an on-line gas analysis system with sample time set at 30 s. Fingertip capillary blood samples (∼ 20 µL) were collected at volitional exhaustion and at minute intervals for 7 min of passive recovery for the determination of peak whole blood lactate concentration. Time on the test (Tlim; s), peak minute power (PMP; W), and total work done (TWD; kJ) were also recorded. In addition to determining systematic bias using separate independent t-tests, the level of agreement was also examined by way of calculating the 95 % limits of agreement. Sub-maximal values of V•O2, V•E, and HR were similar (p > 0.05) between test when the amount of external work completed was taken into consideration. There was no systematic bias (p > 0.05) for mean (± s) peak values of V•O2 (3.12 [0.37] vs. 3.04 [0.38] L • min-1) or any other parameter between the step and ramp tests, respectively. Mean values of Tlim, PMP, and TWD were also similar (p > 0.05) between tests. However, the level of agreement for peak values of all test parameters was low. It is therefore concluded that while either test can be considered as being suitable for the purpose of eliciting V•O2 peak and other physiological responses using ACE, they should not be used interchangeably for the purpose of assessing parameters linked to the aerobic capacity of the upper-body.
- The Relation of Arm Exercise Peak Heart Rate to Stress Test Results and Outcome
The Relation of Arm Exercise Peak Heart Rate to Stress Test Results and Outcome
Author(s)Xian H, Liu W, Marshall C, Chandiramani P, Bainter E, Martin WH 3rd.
Date2016-09-01
SourceMedicine and Science in Sports and Exercise
PURPOSE:
Arm exercise is an alternative to pharmacologic stress testing for >50% of patients unable to perform treadmill exercise, but no data exist regarding the effect of attained peak arm exercise heart rate on test sensitivity. Thus, the purpose of this investigation was to characterize the relationship of peak arm exercise heart rate responses to abnormal stress test findings, coronary revascularization, and mortality in patients unable to perform leg exercise.METHODS:
From 1997 until 2002, arm cycle ergometer stress tests were performed in 443 consecutive veterans age 64.1 yr (11.0 yr) (mean (SD)), of whom 253 also underwent myocardial perfusion imaging (MPI). Patients were categorized by frequency distributions of quartiles of percentage age-predicted peak heart rate (APPHR), heart rate reserve (HRR), and peak heart rate-systolic blood pressure product (PRPP). Exercise-induced ST-segment depression, abnormal MPI findings, coronary revascularization, and 12.0-yr (1.3 yr) Kaplan-Meier all-cause and cardiovascular mortality plots were then characterized by quartiles of APPHR, HRR, and PRPP.RESULTS:
A reduced frequency of abnormal arm exercise ECG results was associated only with the lowest quartile of APPHR (≤69%) and HRR (≤43%), whereas higher frequency of abnormal MPI findings exhibited an inverse relationship trend with lower APPHR (P = 0.10) and HRR (P = 0.12). There was a strong inverse association of APPHR, HRR, and PRPP with all-cause (all P ≤ 0.01) and cardiovascular (P < 0.05) mortality. The frequency of coronary revascularization was unrelated to APPHR or HRR.CONCLUSIONS:
Arm exercise ECG stress test sensitivity is only reduced at ≤69% APPHR or ≤43% HRR, whereas arm exercise MPI sensitivity and referral for coronary revascularization after arm exercise stress testing are not adversely affected by even a severely blunted peak heart rate. However, both all-cause mortality and cardiovascular mortality are strongly and inversely related to APPHR and HRR - Validity and Reliability of Skill-Related Fitness Tests for Wheelchair-Using Youth With Spina Bifida.
Validity and Reliability of Skill-Related Fitness Tests for Wheelchair-Using Youth With Spina Bifida.
Author(s)Manon A. Bloemen, MSc; Tim Takken, PhD; Frank J. Backx, PhD; Marleen Vos, MSc; Cas L. Kruitwagen, MSc; Janke F. de Groot, PhD
Date2017-06-01
SourceArchives of Physical Medicine and Rehabilitation 2017;98:1097-103
Abstract
Objectives: To determine content validity of the Muscle Power Sprint Test (MPST), and construct validity and reliability of the MPST, 105
Meter Sprint Test (105MST), slalom test, and One Stroke Push Test (1SPT) in wheelchair-using youth with spina bifida (SB).
Design: Clinimetric study.
Setting: Rehabilitation centers, SB outpatient services, and private practices.
Participants: A convenience sample of children and adolescents (NZ53; 32 boys, 21 girls; age range, 5e19y) with SB who use a manual
wheelchair. Participants were recruited through rehabilitation centers, SB outpatient services, pediatric physical therapists, and the BOSK
(Association of Physically Disabled Persons and their Parents).
Interventions: Not applicable.
Main Outcome Measures: Construct validity of the MPST was determined by comparing results with the arm-cranking Wingate Anaerobic Test
(WAnT) using paired t tests and Pearson correlation coefficients, while content validity was assessed using time-based criteria for anaerobic
testing. Construct validity of the 105MST, slalom test, and 1SPT was analyzed by hypothesis testing using Pearson correlation coefficients and
multiple regression. For reliability, intraclass correlation coefficients (ICCs) and smallest detectable changes (SDCs) were calculated.
Results: For the MPST, the mean SD exercise time of 4 sprints was 28.16.6 seconds. Correlations between the MPSTand arm-crankingWAnT
were high (r>.72, P<.01). Excellent correlations were found between the 105MSTand slalom test (rZ.93, P<.01), while correlations between the
105MSTor slalom test and MPSTand 1SPTwere moderate (rZ.56 to.70; rZ.56, P<.01). The variation of the 1SPTwas explained for 38% by
wheelchair mass (bZ.489) and total upper muscle strength (bZ.420). All ICCs were excellent (ICCs>.95), but the SDCs varied widely.
Conclusions: The MPST is a valid and reliable test in wheelchair-using youth with SB for measuring anaerobic performance. The 105MST and
slalom test are valid and reliable for measuring agility. For the 1SPT, both validity and reliability are questionable.
Support
Yes you can request the actual pedalling speed and power when you are cycling in Manual, Analogue or Terminal mode.
The load will only be returned when the pedalling speed is 30 RPM or more. For technical details see the Lode RS232 protocol
Yes you can. Make sure the chipset used in the converter is from FTDI to have good data acquisition.
Not sure what this means? Contact us and we will help you to get the right converter.
Yes! It is very easy to create a comfortable rehab setting with Lode rehab products by looping the ergometers:
The first Lode rehab ergometer can be connected to the PC with LCRM with a Lode proprietary network to PC cable (#930930).
The second product up till the last product can be connected to the previous one, a bus network configuration.
The last product always needs a termination plug to avoid interference and loss of data. All Lode rehab products come standard with such a termination plug.
Benefits
- Flawless data connection
- High bandwidth
- No interference of COM ports
- Looping
- Full access of all data in the product to LCRM
Service
Part number
967923


Reviews
There are no reviews yet.