| P2-R1 |
BIB-44B2766B4645923A |
REI Co-op |
|
Rock Climbing Techniques & Moves |
2 |
94 |
| P2-R2 |
BIB-DC75E315AC270491 |
Grube et al. |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
2 |
76 |
| P2-R3 |
BIB-585E43BD04378350 |
British Mountaineering Council |
|
Climbing lingo: how to talk the talk |
2 |
76 |
| P2-R4 |
BIB-DF20A49E6CAD7621 |
Sibella et al. |
|
3D analysis of the body center of mass in rock climbing |
2 |
58 |
| P2-R5 |
BIB-D3DF704E65AF9AB1 |
Quaine & Martin |
|
A biomechanical study of equilibrium in sport rock climbing |
2 |
40 |
| P2-R6 |
BIB-44B2766B4645923A |
REI Co-op |
|
Backstep, drop-knee and flagging descriptions in Rock Climbing
Techniques & Moves |
2 |
18 |
| P2-R7 |
BIB-49E79D0B96DFAAC4 |
REI Co-op |
|
Rock climbing shoes: edging and smearing performance
considerations |
2 |
20 |
| P2-R8 |
BIB-F19C46A944C135EE |
Climbing Magazine |
|
Precision footwork and foot-placement coaching articles |
2 |
56 |
| P2-R10 |
BIB-0E0C95CD72207C68 |
The Bouldering Garden |
|
Fundamentals glossary: swap feet and other techniques |
2 |
20 |
| P2-R11 |
BIB-4853DBB207806D36 |
Climbing Magazine |
|
Footwork and balance technique collection |
2 |
0 |
| P2-R12 |
BIB-7EE98E94EF75C143 |
Momentum Youth Programs |
|
Highstep and rock-over drills |
2 |
20 |
| P2-R13 |
BIB-8FD5161455E6A5A8 |
Climbing Magazine |
|
Balance, high stepping and standing over an active foot |
2 |
40 |
| P2-R14 |
BIB-33F591F3E92098CA |
Climbing Magazine |
|
Stop Stomping! Six Tips For Better Footwork |
2 |
18 |
| P2-R15 |
BIB-0972B7917BA0D802 |
Climbing Magazine |
|
Stepping through and outside edging on steep terrain |
2 |
16 |
| P2-R16 |
BIB-B13423C42CD48F60 |
Tufas Boulder Lounge |
|
Bouldering Basics: Climbing Footwork — The Step Through |
2 |
16 |
| P3-R1 |
BIB-44B2766B4645923A |
REI Co-op |
|
Rock Climbing Techniques & Moves — Back Step, Drop Knee and
Flagging |
3 |
62 |
| P3-R2 |
BIB-DC75E315AC270491 |
Dech, S.; Kittel, R. |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
3 |
188 |
| P3-R3 |
BIB-A7E9E15CD1D6D0F2 |
Blagus et al. |
|
Utility of video analysis and expert modelling for technique
development in novice sport climbers |
3 |
20 |
| P3-R4 |
BIB-6D9E4AE49059ECD3 |
Artoni, A.; Tomasi, M.; Di Puccio, F. |
|
Kinematic Analysis of the Lolotte Technique in Rock Climbing |
3 |
20 |
| P3-R5 |
BIB-272D24AA7D527E64 |
Climbing Magazine |
|
Climbing Techniques: How to Flag |
3 |
108 |
| P3-R6 |
BIB-C011781F567D49A5 |
DPM Climbing |
|
Flagging Climbing Technique: Why and How to Do It |
3 |
108 |
| P3-R7 |
BIB-6219FB9D8926F9F2 |
Climbing Magazine |
|
Quit Floundering—Turn Your Feet Into Precision Instruments With
These 10 Tips |
3 |
82 |
| P3-R8 |
BIB-D3DF704E65AF9AB1 |
Quaine, F.; Martin, L. |
|
A biomechanical study of equilibrium in sport rock climbing |
3 |
22 |
| P3-R9 |
BIB-DF20A49E6CAD7621 |
Sibella et al. |
|
3D analysis of the body center of mass in rock climbing |
3 |
22 |
| P3-R10 |
BIB-CBC5AB5327A2FA66 |
Office québécois de la langue française |
|
lolotte — Grand dictionnaire terminologique |
3 |
20 |
| P3-R11 |
BIB-585E43BD04378350 |
British Mountaineering Council |
|
Climbing lingo: how to talk the talk |
3 |
22 |
| P3-R12 |
BIB-9AB70D3186A5C992 |
Butora USA |
|
How to Flag: A Fundamental Climbing Move |
3 |
88 |
| P4-R1 |
BIB-1F31BDF3C9A65DB3 |
Momentum Youth Programs |
|
Foot Stab (Eye to Foot Contact) |
4 |
20 |
| P4-R2 |
BIB-872C370112B53D39 |
Climbing Escalade Canada |
|
Technical/Tactical Series Part 1 |
4 |
20 |
| P4-R3 |
BIB-FC7A4A6FBEE842CB |
Climbing Magazine |
|
Tech Tip — Scum Manifesto |
4 |
42 |
| P4-R4 |
BIB-3C5F582B361ADA1A |
Vertical Endeavors |
|
Climbing Terminology |
4 |
22 |
| P4-R5 |
BIB-6219FB9D8926F9F2 |
Climbing Magazine |
|
Quit Floundering—Turn Your Feet Into Precision Instruments |
4 |
60 |
| P4-R6 |
BIB-44B2766B4645923A |
REI Co-op |
|
Rock Climbing Techniques & Moves |
4 |
82 |
| P4-R7 |
BIB-0E0C95CD72207C68 |
The Bouldering Garden |
|
Rock Climbing Study of Fundamentals |
4 |
44 |
| P4-R8 |
BIB-5EE9D90BBCAAC511 |
Climbing Magazine |
|
Tech Tip — Fancy Feet |
4 |
22 |
| P4-R9 |
BIB-7820A5F3DBC71880 |
Climbing Magazine |
|
Technique: How to Heel Hook |
4 |
58 |
| P4-R10 |
BIB-00596AD352555794 |
Schöffl, V.; Lutter, C.; Popp, D. |
|
The “Heel Hook”—A Climbing-Specific Technique to Injure the Leg |
4 |
58 |
| P4-R11 |
BIB-E510A14EC82281E3 |
Lutter et al. |
|
Trauma Mechanisms of Acute Knee Injuries in Bouldering and Sport
Climbing |
4 |
58 |
| P4-R12 |
BIB-DC75E315AC270491 |
Grube et al. |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
4 |
198 |
| P4-R13 |
BIB-DF20A49E6CAD7621 |
Sibella et al. |
|
3D analysis of the body center of mass in rock climbing |
4 |
42 |
| P4-R14 |
BIB-B13423C42CD48F60 |
Tufas Boulder Lounge |
|
Bouldering Basics: Climbing Footwork — The Step Through |
4 |
16 |
| P4-R15 |
BIB-3C8894062124B84B |
Climbing Magazine |
|
Tech Tips: The Heel-Toe Cam |
4 |
22 |
| P5-R1 |
BIB-61FA6B2A95DE5185 |
Chris Van Leuven / Climbing |
|
The Heel-Toe Cam |
5 |
22 |
| P5-R2 |
BIB-746B89C68BE8DEA5 |
Neil Gresham / Climbing |
|
Unlock the Secret Power of Toe Hooks |
5 |
88 |
| P5-R3 |
BIB-AB2F5249D280DDD0 |
REI Co-op |
|
How to Crack Climb: Technique & Tips |
5 |
40 |
| P5-R4 |
BIB-8777B5F7DDFB50CC |
Pete Whittaker / Climbing |
|
Five Ultimate Rules for Crack Climbing |
5 |
60 |
| P5-R5 |
BIB-B636105A2B2949A0 |
Jeff Achey / Climbing |
|
Jam Session |
5 |
40 |
| P5-R6 |
BIB-062495302F9374D6 |
Climbing |
|
How to Foot Jam |
5 |
40 |
| P5-R7 |
BIB-DC75E315AC270491 |
Grube et al. |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
5 |
178 |
| P5-R8 |
BIB-494CCAE11D0AD476 |
Bouldering Information Hub |
|
Techniques of Bouldering and Climbing |
5 |
90 |
| P5-R9 |
BIB-0E4CA3A7706544A5 |
Bouldering Information Hub |
|
Bat Hang |
5 |
22 |
| P5-R10 |
BIB-5CD62A41718A161C |
Bouldering Information Hub |
|
Pogo and Moon Kick |
5 |
48 |
| P5-R11 |
BIB-4952776A778851BE |
ClimbGrades |
|
Bicycle (Climbing Move) |
5 |
24 |
| P5-R12 |
BIB-1BE70E6CE8109310 |
Climbing |
|
40 Sport Climbing Terms You Should Know |
5 |
22 |
| P5-R13 |
BIB-DF20A49E6CAD7621 |
Sibella et al. |
|
3D analysis of the body center of mass in rock climbing |
5 |
0 |
| P6-R1 |
BIB-DC75E315AC270491 |
Dech, Kittel et al. |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
6 |
184 |
| P6-R2 |
BIB-85D7023BD0528BFE |
Lawson / University of Colorado Boulder; APEX School of
Movement |
|
Biomechanics of Parkour: The Vertical Wall-Run Technique |
6 |
22 |
| P6-R3 |
BIB-0AA60BC10580C799 |
Parkour.org |
|
Tic Tac |
6 |
46 |
| P6-R4 |
BIB-2FE561ECC90B025B |
Anna Davey Climbing and Fitness |
|
Climbing SKATE move |
6 |
24 |
| P6-R5 |
BIB-6C18E17788102389 |
Topher Donahue / Mountaineers Books |
|
Advanced Rock Climbing: Expert Skills and Techniques — Footwork
sample |
6 |
66 |
| P6-R6 |
BIB-7A7012CFCA40AAF5 |
International Federation of Sport Climbing |
|
Routesetting Guidelines for Boulder & Lead — Officials
Resources |
6 |
24 |
| P6-R7 |
BIB-F553A69DDCA8CAB6 |
Inside Climbing |
|
Breaking Down Boulder Styles: coordination and feet-only dynamic
movement |
6 |
140 |
| P6-R8 |
BIB-C981D8B54D45F88B |
Gripped Magazine |
|
10 Tips for Comp-Style Boulder Problems |
6 |
140 |
| P6-R9 |
BIB-DF20A49E6CAD7621 |
Sibella et al. |
|
3D analysis of the body center of mass in rock climbing |
6 |
90 |
| P6-R10 |
BIB-1AE3CF308F3869FD |
Colombo et al. |
|
Design of a sensor network for the quantitative analysis of sport
climbing |
6 |
22 |
| P6-R11 |
BIB-261E61F120E0E73D |
Maschek and Schedl |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
6 |
0 |
| P7-R1 |
BIB-DC75E315AC270491 |
Dech and Kittel |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
7 |
234 |
| P7-R2 |
BIB-DB999D7082D19D3E |
Asakawa and Sakamoto |
|
Characteristics of counter-movements in sport climbing: experienced
climbers and beginners |
7 |
118 |
| P7-R3 |
BIB-36F63950893A85F5 |
Rogowski et al. |
|
Climber’s muscle excitation and force distribution at different wall
angles and body positions |
7 |
92 |
| P7-R4 |
BIB-EC9F34BD09F77F07 |
Orth et al. |
|
Behavioral Repertoire Influences the Rate and Nature of Learning in
Climbing |
7 |
96 |
| P7-R5 |
BIB-DF20A49E6CAD7621 |
Sibella et al. |
|
3D analysis of the body center of mass in rock climbing |
7 |
116 |
| P7-R6 |
BIB-44B2766B4645923A |
REI Co-op |
|
Rock Climbing Techniques & Moves |
7 |
70 |
| P7-R7 |
BIB-A86075F1C6DFF8CF |
Kosmalla et al. |
|
ClimbVis: Investigating In-situ Visualizations for Understanding
Climbing Movements by Demonstration |
7 |
24 |
| P7-R8 |
BIB-16ECDE5351214963 |
Momentum Youth Programs |
|
Turning In & Turning Out |
7 |
48 |
| P7-R9 |
BIB-261E61F120E0E73D |
Maschek and Schedl |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
7 |
70 |
| P7-R10 |
BIB-D3E17EE962A91A14 |
Climbing Magazine |
|
Core Strength That Counts: twist-locking and stretched
positions |
7 |
68 |
| P7-R11 |
BIB-27DA247B3E05FE64 |
Climbing Magazine |
|
Struggling With Powerful Climbs? Start Training Your Hips |
7 |
72 |
| P8-R1 |
BIB-DC75E315AC270491 |
Dech and Kittel |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
8 |
234 |
| P8-R2 |
BIB-36F63950893A85F5 |
Bonelli et al. |
|
Climber’s muscle excitation and force distribution at different wall
angles and body positions |
8 |
46 |
| P8-R3 |
BIB-DB999D7082D19D3E |
Asakawa and Sakamoto |
|
Characteristics of counter-movements in sport climbing: a comparison
between experienced climbers and beginners |
8 |
96 |
| P8-R4 |
BIB-DF20A49E6CAD7621 |
Sibella et al. |
|
3D analysis of the body center of mass in rock climbing |
8 |
96 |
| P8-R5 |
BIB-493F0C584A592957 |
British Mountaineering Council |
|
FUNdamentals of Climbing — Guidance Notes |
8 |
234 |
| P8-R6 |
BIB-261E61F120E0E73D |
Maschek and Schedl |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
8 |
66 |
| P8-R7 |
BIB-EC9F34BD09F77F07 |
Orth et al. |
|
Behavioral Repertoire Influences the Rate and Nature of Learning in
Climbing |
8 |
96 |
| P8-R8 |
BIB-44B2766B4645923A |
REI Co-op |
|
Rock Climbing Techniques & Moves |
8 |
72 |
| P8-R9 |
BIB-D3DF704E65AF9AB1 |
Quaine and Martin |
|
A biomechanical study of equilibrium in sport rock climbing |
8 |
114 |
| P8-R10 |
BIB-CD6FD3570C90BFCA |
Pandurevic et al. |
|
Methods for quantitative evaluation of force and technique in
competitive sport climbing |
8 |
0 |
| P9-R1 |
BIB-DC75E315AC270491 |
Dech y Kittel |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
9 |
186 |
| P9-R2 |
BIB-36F63950893A85F5 |
Bonelli et al. |
|
Climber’s muscle excitation and force distribution at different wall
angles and body positions |
9 |
66 |
| P9-R3 |
BIB-BC7D96C50B925980 |
Baláš et al. |
|
Shoulder Muscle Activity in Sport Climbing in Naturally Chosen and
Corrected Shoulder Positions |
9 |
46 |
| P9-R4 |
BIB-910534AD12DE7979 |
Exel et al. |
|
Upper-Body Neuromechanical Coordination Strategies During Fatiguing
Sustained Dead Hangs in Climbers |
9 |
46 |
| P9-R5 |
BIB-DEA47557F2163890 |
Lutter et al. |
|
Mechanisms of Acute Knee Injuries in Bouldering and Rock Climbing
Athletes |
9 |
38 |
| P9-R6 |
BIB-92BFDE696FE6F2E4 |
Lutter, Popp y Schöffl |
|
Knee injuries in Rock climbing and Bouldering—An Update |
9 |
38 |
| P9-R7 |
BIB-AB2F5249D280DDD0 |
REI Co-op |
|
Crack Climbing Technique: Jamming, Laybacking and Chimneying |
9 |
84 |
| P9-R8 |
BIB-493F0C584A592957 |
British Mountaineering Council |
|
FUNdamentals of Climbing—Guidance Notes |
9 |
104 |
| P9-R9 |
BIB-D3DF704E65AF9AB1 |
Quaine y Martin |
|
A biomechanical study of equilibrium in sport rock climbing |
9 |
102 |
| P9-R10 |
BIB-261E61F120E0E73D |
Maschek y Schedl |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
9 |
86 |
| P9-R11 |
BIB-DF20A49E6CAD7621 |
Sibella et al. |
|
3D analysis of the body center of mass in rock climbing |
9 |
60 |
| P9-R12 |
BIB-E510A14EC82281E3 |
Lutter et al. |
|
Trauma Mechanisms of Acute Knee Injuries in Bouldering and Sport
Climbing |
9 |
38 |
| P10-R1 |
BIB-FC7A4A6FBEE842CB |
Samet |
|
Tech Tip — Scum Manifesto |
10 |
126 |
| P10-R2 |
BIB-F1ED76B7952D3D3E |
Weidner |
|
Total Body Climbing: Use All Your Parts for Smart, Savvy
Climbing |
10 |
102 |
| P10-R3 |
BIB-9F0F2AEB112C56DE |
Milford |
|
Tech Tips — Evading the Pump |
10 |
86 |
| P10-R4 |
BIB-D3DF704E65AF9AB1 |
Quaine y Martin |
|
A biomechanical study of equilibrium in sport rock climbing |
10 |
68 |
| P10-R5 |
BIB-E39F28FD18F2F059 |
Baláš et al. |
|
Active recovery strategies and handgrip performance in trained
vs. untrained climbers |
10 |
24 |
| P10-R6 |
BIB-844EC5ABF8F665E1 |
Saul et al. |
|
Determinants for success in climbing: A systematic review |
10 |
46 |
| P10-R7 |
BIB-3A7851EEEDBF5424 |
Bonelli et al. |
|
Distribution of contact forces of a climber in typical rest
positions |
10 |
46 |
| P10-R8 |
BIB-36F63950893A85F5 |
Bonelli et al. |
|
Climber’s muscle excitation and force distribution at different wall
angles and body positions |
10 |
46 |
| P10-R9 |
BIB-261E61F120E0E73D |
Maschek y Schedl |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
10 |
148 |
| P10-R10 |
BIB-493F0C584A592957 |
British Mountaineering Council |
|
FUNdamentals of Climbing — Guidance Notes |
10 |
46 |
| P10-R11 |
BIB-74B8F77F60ABF59B |
theCrag |
|
Climbing Terms Glossary — No-hand rest |
10 |
22 |
| P10-R12 |
BIB-B0659AC540CEE01D |
Climbing Magazine |
|
Injury-Free Movement for Rock Climbers |
10 |
60 |
| P10-R13 |
BIB-DC75E315AC270491 |
Dech y Kittel |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
10 |
88 |
| P11-R1 |
BIB-44B2766B4645923A |
REI Co-op |
|
Rock Climbing Techniques & Moves |
11 |
104 |
| P11-R2 |
BIB-38956858ADFE75CA |
REI Co-op |
|
Rock Climbing Holds: How to Use Them |
11 |
42 |
| P11-R3 |
BIB-870E8D9B26E4FD86 |
Climbing Technique |
|
Climbing Technique — Moves Library |
11 |
178 |
| P11-R4 |
BIB-DC75E315AC270491 |
Dech y Kittel |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
11 |
182 |
| P11-R5 |
BIB-997AD6365247AD82 |
Exel et al. |
|
Neuromechanics of finger hangs with arm lock-offs |
11 |
40 |
| P11-R6 |
BIB-36F63950893A85F5 |
Bonelli et al. |
|
Climber’s muscle excitation and force distribution at different wall
angles and body positions |
11 |
84 |
| P11-R7 |
BIB-261E61F120E0E73D |
Maschek y Schedl |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
11 |
118 |
| P11-R8 |
BIB-493F0C584A592957 |
British Mountaineering Council |
|
FUNdamentals of Climbing — Guidance Notes |
11 |
98 |
| P11-R9 |
BIB-DF20A49E6CAD7621 |
Sibella et al. |
|
3D analysis of the body center of mass in rock climbing |
11 |
22 |
| P11-R10 |
BIB-7B3F6551DE333365 |
Climbing Magazine |
|
How to Train on a Campus Board — Bump-ups and crossovers |
11 |
40 |
| P11-R11 |
BIB-D3DF704E65AF9AB1 |
Quaine y Martin |
|
A biomechanical study of equilibrium in sport rock climbing |
11 |
58 |
| P12-R1 |
BIB-44B2766B4645923A |
REI Co-op |
|
Rock Climbing Techniques & Moves |
12 |
84 |
| P12-R2 |
BIB-099D02F9B160B2E7 |
Climbing Magazine |
|
Master These 4 Grip Techniques — Thumb catches |
12 |
42 |
| P12-R3 |
BIB-2980FD64195C581B |
FrictionLabs |
|
How It Works: The Mantle |
12 |
64 |
| P12-R4 |
BIB-997AD6365247AD82 |
Exel et al |
|
Neuromechanics of finger hangs with arm lock-offs |
12 |
60 |
| P12-R5 |
BIB-3C5F582B361ADA1A |
Vertical Endeavors |
|
Climbing Terminology — Hand-hand or butterfly stack |
12 |
20 |
| P12-R6 |
BIB-AD9D0A1CF70B7A10 |
Colorado Mountaineering |
|
A Beginner’s Guide to Crack Climbing — Hand stack |
12 |
20 |
| P12-R7 |
BIB-8040C1CFD0CFFAEA |
5.life |
|
How to Improve Your Climbing: Slopers Edition — Meat hook |
12 |
20 |
| P12-R8 |
BIB-DC75E315AC270491 |
Dech y Kittel |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
12 |
164 |
| P12-R9 |
BIB-261E61F120E0E73D |
Maschek y Schedl |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
12 |
62 |
| P12-R10 |
BIB-36F63950893A85F5 |
Bonelli et al |
|
Climber’s muscle excitation and force distribution at different wall
angles and body positions |
12 |
102 |
| P12-R11 |
BIB-ADED9AFD9936F228 |
Climbing Magazine |
|
The Calf Lock — progressing from a hand stack |
12 |
20 |
| P12-R12 |
BIB-1C13A1212CC2FC6E |
GearJunkie |
|
The Definitive Guide to Climbing Jargon |
12 |
64 |
| P13-R1 |
BIB-44B2766B4645923A |
REI Co-op |
|
Rock Climbing Techniques & Moves |
13 |
80 |
| P13-R2 |
BIB-A6731A63DF6A6451 |
Momentum Youth Programs |
|
Rose Move |
13 |
32 |
| P13-R3 |
BIB-865C8DEB22D2C208 |
Friction Labs |
|
How It Works: The Rose Move |
13 |
50 |
| P13-R4 |
BIB-3C5F582B361ADA1A |
Vertical Endeavors |
|
Climbing Terminology — Chicken wing, arm bar and hand stack |
13 |
20 |
| P13-R5 |
BIB-82E936C1966DB3D6 |
Climbing Magazine |
|
40 Sport Climbing Terms You Should Know for the Olympics |
13 |
60 |
| P13-R6 |
BIB-F1713EAFFCDF2EE8 |
Huang et al. |
|
Mechanics and muscular activity characteristics of the pinch grip
across varying hold widths and climber skill levels |
13 |
20 |
| P13-R7 |
BIB-DC75E315AC270491 |
Dech y Kittel |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
13 |
166 |
| P13-R8 |
BIB-261E61F120E0E73D |
Maschek y Schedl |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
13 |
114 |
| P13-R9 |
BIB-36F63950893A85F5 |
Bonelli et al. |
|
Climber’s muscle excitation and force distribution at different wall
angles and body positions |
13 |
76 |
| P13-R10 |
BIB-9C90BE15EE645016 |
Climbing Magazine |
|
Climbing Techniques: How to Undercling |
13 |
14 |
| P13-R11 |
BIB-84D698167F9790D4 |
Boulder Climbing Community |
|
The Science of the Chicken Wing |
13 |
20 |
| P13-R12 |
BIB-C69F69E922B11613 |
VDiff Climbing |
|
Crack Climbing Technique |
13 |
20 |
| P13-R13 |
BIB-9E95D1C00EB9833C |
Quaine et al. |
|
The Thumb During the Crimp Grip |
13 |
20 |
| P13-R14 |
BIB-DF20A49E6CAD7621 |
Sibella et al. |
|
3D analysis of the body center of mass in rock climbing |
13 |
36 |
| P14-R1 |
BIB-AB2F5249D280DDD0 |
REI Co-op |
|
How to Crack Climb: Technique & Tips |
14 |
42 |
| P14-R2 |
BIB-1AE543B9D979968E |
REI Co-op |
|
How to Climb Finger Cracks: Techniques & Tips |
14 |
14 |
| P14-R3 |
BIB-D14C364DE45D117E |
Fischer et al. |
|
Motion Analysis of the Wrist and Finger Joints in Sport
Climbing |
14 |
96 |
| P14-R4 |
BIB-DFDB3BCB6026BFCF |
Amca & Smith |
|
Biomechanics of the Single-handed Dynamic Moves on Campus Board and
Effect of Rung Distance |
14 |
14 |
| P14-R5 |
BIB-FEFDF7953C9B9585 |
Exel et al. |
|
Characterization of Shoulder Moments and Force Application in Static
and Dynamic Campus Exercises |
14 |
14 |
| P14-R6 |
BIB-172D39EDAECDE00F |
Faggian et al. |
|
Sport climbing performance determinants and functional testing
methods: A systematic review |
14 |
28 |
| P14-R7 |
BIB-79A947766E7B22F4 |
Draper et al. |
|
Open hand vs. half-crimp: Do climbers assume differences in their
own maximal finger strength that do not exist? |
14 |
62 |
| P14-R8 |
BIB-FC7A4A6FBEE842CB |
Climbing Magazine |
|
Scum Manifesto — use of non-hand body contacts |
14 |
14 |
| P14-R9 |
BIB-585E43BD04378350 |
British Mountaineering Council |
|
Climbing lingo: how to talk the talk |
14 |
28 |
| P14-R10 |
BIB-183B7420FE649D71 |
Schweizer |
|
Biomechanical properties of the crimp grip position in rock
climbers |
14 |
50 |
| P14-R11 |
BIB-6D2EDAFABFB9E610 |
Schöffl et al. |
|
Finger Flexor Pulley Injuries in Rock Climbers |
14 |
36 |
| P14-R12 |
BIB-F7DF06B2975A7386 |
Draper et al. |
|
Open-hand and half-crimp force comparison |
14 |
16 |
| P15-R1 |
BIB-38956858ADFE75CA |
REI Co-op |
|
Rock Climbing Holds: How to Use Them |
15 |
80 |
| P15-R2 |
BIB-585E43BD04378350 |
British Mountaineering Council |
|
Climbing lingo: how to talk the talk |
15 |
48 |
| P15-R3 |
BIB-DC75E315AC270491 |
Grube et al. |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
15 |
98 |
| P15-R4 |
BIB-F1713EAFFCDF2EE8 |
Hao et al. |
|
Mechanics and muscular activity characteristics of the pinch grip
across varying hold widths and climber skill levels |
15 |
16 |
| P15-R5 |
BIB-9441A4C5BED0E393 |
Fuss et al. |
|
Climbers’ Perception of Hold Surface Properties: Roughness Versus
Slip Resistance |
15 |
32 |
| P15-R6 |
BIB-D14C364DE45D117E |
Fischer et al. |
|
Motion Analysis of the Wrist and Finger Joints in Sport
Climbing |
15 |
64 |
| P15-R7 |
BIB-A36AA52E0B369D51 |
Peter von Känel / Lacrux |
|
5 dry tooling techniques for advanced users |
15 |
34 |
| P15-R8 |
BIB-3E8176F9DA3316D5 |
Furnace Industries |
|
Drytooling Lingo |
15 |
34 |
| P15-R9 |
BIB-261E61F120E0E73D |
Maschek et al. |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
15 |
80 |
| P16-R1 |
BIB-DC75E315AC270491 |
Grube et al. |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
16 |
160 |
| P16-R2 |
BIB-98FB8D6213E62CE3 |
Fuss and Niegl |
|
Biomechanics of the two-handed dyno technique for sport
climbing |
16 |
82 |
| P16-R3 |
BIB-03B85763A18BE5B3 |
Morenas, Luis and Ramos |
|
Differences in Motor Patterns of Dyno Technique in Climbers |
16 |
98 |
| P16-R4 |
BIB-29789E9E305CE349 |
Neil Gresham / Climbing |
|
Want to Climb Harder? Train Dynamically |
16 |
94 |
| P16-R5 |
BIB-82E936C1966DB3D6 |
Climbing |
|
40 Sport Climbing Terms You Should Know for the Olympics |
16 |
50 |
| P16-R6 |
BIB-05B9B336E0C73A2C |
Lynn Hill / Climbing |
|
Lynn Hill’s Tips For Dyno Success |
16 |
82 |
| P16-R7 |
BIB-7A7012CFCA40AAF5 |
International Federation of Sport Climbing |
|
Routesetting Guidelines for Boulder & Lead — Officials
Resources |
16 |
16 |
| P16-R8 |
BIB-261E61F120E0E73D |
Maschek et al. |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
16 |
94 |
| P16-R9 |
BIB-EBEB97D270FFB66D |
Hayes |
|
Kinematic variations between successful and unsuccessful dynamic
rock climbing movements |
16 |
64 |
| P16-R10 |
BIB-A1AEC91E13EF2B26 |
White and Olsen |
|
A time motion analysis of bouldering style competitive rock
climbing |
16 |
30 |
| P17-R1 |
BIB-DC75E315AC270491 |
Grube et al. |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
17 |
152 |
| P17-R2 |
BIB-D3DF704E65AF9AB1 |
Sibella et al. |
|
A biomechanical study of equilibrium in sport rock climbing |
17 |
44 |
| P17-R3 |
BIB-746B89C68BE8DEA5 |
Neil Gresham / Climbing |
|
9 Pro Climbing Technique Tips for Maximum Toe Hooking |
17 |
30 |
| P17-R4 |
BIB-2147489818A521FF |
Climbing |
|
Choose Your Own Training Adventure: 10 On-The-Wall Climbing
Workouts |
17 |
30 |
| P17-R5 |
BIB-7B3F6551DE333365 |
Climbing |
|
How to Train on a Campus Board |
17 |
46 |
| P17-R6 |
BIB-F6DEB928D6F22A92 |
Climbing |
|
Rock Climbing Training: Increasing Your Power Through
Fingerboarding |
17 |
46 |
| P17-R7 |
BIB-341B5FF5CB336D1D |
World Climbing |
|
Competition Resources and Rules |
17 |
44 |
| P17-R8 |
BIB-261E61F120E0E73D |
Maschek et al. |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
17 |
152 |
| P17-R9 |
BIB-98FB8D6213E62CE3 |
Fuss and Niegl |
|
Biomechanics of the two-handed dyno technique for sport
climbing |
17 |
92 |
| P17-R10 |
BIB-997AD6365247AD82 |
Exel et al. |
|
Neuromechanics of finger hangs with arm lock-offs |
17 |
76 |
| P18-R1 |
BIB-DC75E315AC270491 |
Grube et al. |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
18 |
150 |
| P18-R2 |
BIB-B5A9D12BB583DA69 |
Hugues, Oudar, Cahouet and Quaine |
|
Coordination of upper and lower limbs in climbing dyno movement |
18 |
74 |
| P18-R3 |
BIB-98FB8D6213E62CE3 |
Fuss and Niegl |
|
Biomechanics of the two-handed dyno technique for sport
climbing |
18 |
76 |
| P18-R4 |
BIB-FEFDF7953C9B9585 |
Exel et al. |
|
Characterization of shoulder moments and force application in static
and dynamic campus exercises |
18 |
30 |
| P18-R5 |
BIB-DFDB3BCB6026BFCF |
Amca and Smith |
|
Biomechanics of the single-handed dynamic moves on campus board and
effect of rung distance |
18 |
30 |
| P18-R6 |
BIB-D1AB12E3A6E9866D |
Usherwood et al. |
|
How Pendular Is Human Brachiation? When Form Does Not Follow
Function |
18 |
46 |
| P18-R7 |
BIB-82E936C1966DB3D6 |
Climbing |
|
40 Sport Climbing Terms You Should Know for the Olympics |
18 |
62 |
| P18-R8 |
BIB-33FE8FD78A6C97D5 |
Josh Larson / Climbing |
|
How to Master Climbing Dynos |
18 |
120 |
| P18-R9 |
BIB-B18EFA2B7049EECC |
Morenas, Luis and Ramos |
|
Differences in motor patterns of climbers with the dyno
technique |
18 |
58 |
| P18-R10 |
BIB-261E61F120E0E73D |
Maschek et al. |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
18 |
136 |
| P19-R1 |
BIB-DC75E315AC270491 |
Grube et al. |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
19 |
62 |
| P19-R2 |
BIB-98FB8D6213E62CE3 |
Fuss and Niegl |
|
Biomechanics of the two-handed dyno technique for sport
climbing |
19 |
30 |
| P19-R3 |
BIB-B5A9D12BB583DA69 |
Hugues, Oudar, Cahouet and Quaine |
|
Coordination of upper and lower limbs in climbing dyno movement |
19 |
62 |
| P19-R4 |
BIB-261E61F120E0E73D |
Maschek et al. |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
19 |
62 |
| P19-R5 |
BIB-746B89C68BE8DEA5 |
Neil Gresham / Climbing |
|
9 Pro Climbing Technique Tips for Maximum Toe Hooking |
19 |
16 |
| P19-R6 |
BIB-7820A5F3DBC71880 |
Climbing Magazine |
|
Technique: How to Heel Hook |
19 |
16 |
| P19-R7 |
BIB-00596AD352555794 |
Schöffl, Lutter and Popp |
|
The “Heel Hook”—A Climbing-Specific Technique to Injure the Leg |
19 |
16 |
| P19-R8 |
BIB-82E936C1966DB3D6 |
Climbing |
|
40 Sport Climbing Terms You Should Know for the Olympics |
19 |
62 |
| P20-R1 |
BIB-DC75E315AC270491 |
Dech, Kittel et al. |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
20 |
150 |
| P20-R2 |
BIB-82E936C1966DB3D6 |
Climbing |
|
40 Sport Climbing Terms You Should Know for the Olympics |
20 |
60 |
| P20-R3 |
BIB-33FE8FD78A6C97D5 |
Josh Larson / Climbing |
|
How to Master Climbing Dynos |
20 |
90 |
| P20-R4 |
BIB-C4B0225F62FDFA74 |
Maselli et al. |
|
Climbing out of the lab: Studying motor planning and coarticulation
in the climbing gym |
20 |
150 |
| P20-R5 |
BIB-BA3AE393EE894592 |
Yamada et al. |
|
Clarifying the Biomechanical Concept of Coordination Through
Comparison With Coordination in Motor Control |
20 |
90 |
| P20-R6 |
BIB-DB999D7082D19D3E |
Asakawa et al. |
|
Characteristics of counter-movements in sport climbing: a comparison
between experienced climbers and beginners |
20 |
76 |
| P20-R7 |
BIB-261E61F120E0E73D |
Maschek et al. |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
20 |
136 |
| P20-R8 |
BIB-075504931F10267D |
Schöffl et al. |
|
Run-and-jump failure: new injury patterns in indoor bouldering |
20 |
46 |
| P20-R9 |
BIB-F7DA6B706376C675 |
Momentum Youth Programs |
|
Dynamic Movement |
20 |
44 |
| P20-R10 |
BIB-96CAE318BB535B17 |
Three Rock Books |
|
Bouldering—How to Dyno |
20 |
14 |
| P21-R1 |
BIB-DC75E315AC270491 |
Dech, Kittel et al. |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
21 |
150 |
| P21-R2 |
BIB-C4B0225F62FDFA74 |
Maselli et al. |
|
Climbing out of the lab: Studying motor planning and coarticulation
in the climbing gym |
21 |
150 |
| P21-R3 |
BIB-5DEE9A980471EBDF |
Musculus et al. |
|
Embodied planning in climbing: how pre-planning informs motor
execution |
21 |
104 |
| P21-R4 |
BIB-261E61F120E0E73D |
Maschek and Schedl |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
21 |
106 |
| P21-R5 |
BIB-B5B92F327C61B28A |
Yan et al. |
|
CIMI4D: A Large Multimodal Climbing Motion Dataset Under Human-Scene
Interactions |
21 |
104 |
| P21-R6 |
BIB-B8E5A1B162571A9C |
Yan et al. |
|
ClimbingCap: Multi-Modal Dataset and Method for Rock Climbing in
World Coordinate |
21 |
86 |
| P21-R7 |
BIB-844EC5ABF8F665E1 |
Baláš et al. |
|
Determinants for success in climbing: A systematic review |
21 |
16 |
| P21-R8 |
BIB-CDCD13CA92CA15F3 |
Orth et al. |
|
Action capability constrains visuo-motor complexity during planning
and performance in on-sight climbing |
21 |
46 |
| P21-R9 |
BIB-36F63950893A85F5 |
Bonelli et al. |
|
Climber’s muscle excitation and force distribution at different wall
angles and body positions |
21 |
44 |
| P22-R1 |
BIB-DC75E315AC270491 |
Dech, Kittel et al. |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
22 |
146 |
| P22-R2 |
BIB-746B89C68BE8DEA5 |
Climbing Editorial Team |
|
9 Pro Climbing Technique Tips for Maximum Toe Hooking |
22 |
14 |
| P22-R3 |
BIB-E510A14EC82281E3 |
Lutter et al. |
|
Trauma Mechanisms of Acute Knee Injuries in Bouldering and Sport
Climbing |
22 |
14 |
| P22-R4 |
BIB-18830F26DB9A67BB |
Bourne et al. |
|
Sticky feet: a tribological study of climbing shoe rubber |
22 |
30 |
| P22-R5 |
BIB-C8983A6B42CDD21D |
Maselli et al. |
|
Whole body coarticulation reflects expertise in sport climbing |
22 |
132 |
| P22-R6 |
BIB-261E61F120E0E73D |
Maschek and Schedl |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
22 |
146 |
| P22-R7 |
BIB-B5B92F327C61B28A |
Yan et al. |
|
CIMI4D: A Large Multimodal Climbing Motion Dataset under Human-scene
Interactions |
22 |
146 |
| P22-R8 |
BIB-B5A9D12BB583DA69 |
Hugues, Oudar, Cahouet and Quaine |
|
Coordination of upper and lower limbs in climbing dyno movement |
22 |
102 |
| P22-R9 |
BIB-82E936C1966DB3D6 |
Climbing Editorial Team |
|
40 Climbing Terms You Need to Know for the Olympics |
22 |
76 |
| P22-R10 |
BIB-7814D43BE6AA67E7 |
Momentum Climbing Youth Programs |
|
Smearing |
22 |
14 |
| P23-R1 |
BIB-DC75E315AC270491 |
Dech, Kittel et al. |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
23 |
44 |
| P23-R2 |
BIB-EEF7F6E7E81281E9 |
Method Climbing |
|
How Does Comp-Style Bouldering Differ From Traditional
Bouldering? |
23 |
16 |
| P23-R3 |
BIB-89DEA9EB8BF081DC |
Elevate Climbing Walls |
|
The Role of Volumes in Modern Route Setting |
23 |
28 |
| P23-R4 |
BIB-C981D8B54D45F88B |
Gripped Magazine |
|
10 Tips for Comp-Style Boulder Problems |
23 |
28 |
| P23-R5 |
BIB-C4B0225F62FDFA74 |
Maselli et al. |
|
Climbing out of the lab: Studying motor planning and coarticulation
in the climbing gym |
23 |
44 |
| P23-R6 |
BIB-261E61F120E0E73D |
Maschek and Schedl |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
23 |
44 |
| P23-R7 |
BIB-B5B92F327C61B28A |
Yan et al. |
|
CIMI4D: A Large Multimodal Climbing Motion Dataset Under Human-Scene
Interactions |
23 |
44 |
| P23-R8 |
BIB-B86AA0017A834485 |
Croft, Schroeder and Bertram |
|
Determinants of optimal leg use strategy: horizontal to vertical
transition in the parkour wall climb |
23 |
16 |
| P23-R9 |
BIB-A356D59D0902906B |
Neptune et al. |
|
Muscle coordination and function during cutting movements |
23 |
16 |
| P24-R1 |
BIB-DC75E315AC270491 |
Dech, Kittel et al. |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
24 |
146 |
| P24-R2 |
BIB-36F63950893A85F5 |
Bonelli et al. |
|
Climber’s muscle excitation and force distribution at different wall
angles and body positions |
24 |
146 |
| P24-R3 |
BIB-D3DF704E65AF9AB1 |
Quaine and Martin |
|
A biomechanical study of equilibrium in sport rock climbing |
24 |
146 |
| P24-R4 |
BIB-7264785192A91EFE |
MacKenzie et al. |
|
Wearable and Non-Invasive Sensors for Rock Climbing Applications:
Science-Based Training and Performance Optimization |
24 |
146 |
| P24-R5 |
BIB-B5B92F327C61B28A |
Yan et al. |
|
CIMI4D: A Large Multimodal Climbing Motion Dataset Under Human-Scene
Interactions |
24 |
146 |
| P24-R6 |
BIB-4CBDA975C49E6DD3 |
Tripathi et al. |
|
DECO: Dense Estimation of 3D Human-Scene Contact In The Wild |
24 |
146 |
| P24-R7 |
BIB-5F6ED1D401CCABC7 |
Vigouroux et al. |
|
Estimation of finger muscle tendon tensions and pulley forces during
specific sport-climbing grip techniques |
24 |
14 |
| P24-R8 |
BIB-844EC5ABF8F665E1 |
Saul et al. |
|
Determinants for success in climbing: A systematic review |
24 |
16 |
| P25-R1 |
BIB-DC75E315AC270491 |
Dech, Kittel et al. |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
25 |
90 |
| P25-R2 |
BIB-36F63950893A85F5 |
Bonelli et al. |
|
Climber’s muscle excitation and force distribution at different wall
angles and body positions |
25 |
74 |
| P25-R3 |
BIB-D3DF704E65AF9AB1 |
Quaine and Martin |
|
A biomechanical study of equilibrium in sport rock climbing |
25 |
76 |
| P25-R4 |
BIB-44B2766B4645923A |
REI Co-op |
|
Rock Climbing Techniques & Moves |
25 |
30 |
| P25-R5 |
BIB-D3EB396421531DCC |
Craig Luebben / Climbing |
|
Sidewinder: Squeeze-chimney climbing made easier |
25 |
32 |
| P25-R6 |
BIB-997AD6365247AD82 |
Exel et al. |
|
Neuromechanics of finger hangs with arm lock-offs: analyzing joint
moments and muscle activations |
25 |
30 |
| P25-R7 |
BIB-B5B92F327C61B28A |
Yan et al. |
|
CIMI4D: A Large Multimodal Climbing Motion Dataset Under Human-Scene
Interactions |
25 |
90 |
| P25-R8 |
BIB-B8E5A1B162571A9C |
Yan et al. |
|
ClimbingCap: Multi-Modal Dataset and Method for Rock Climbing in
World Coordinate |
25 |
74 |
| P25-R9 |
BIB-E1DF3F6FF7A08497 |
Jones et al. |
|
Musculoskeletal injuries in rock climbing: a scoping review |
25 |
44 |
| P26-R1 |
BIB-DC75E315AC270491 |
Dech, Kittel et al. |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
26 |
146 |
| P26-R2 |
BIB-D3DF704E65AF9AB1 |
Quaine and Martin |
|
A biomechanical study of equilibrium in sport rock climbing |
26 |
146 |
| P26-R3 |
BIB-DF20A49E6CAD7621 |
Sibella et al. |
|
3D analysis of the body center of mass in rock climbing |
26 |
146 |
| P26-R4 |
BIB-C295290F82058A85 |
Zampagni et al. |
|
Idiosyncratic control of the center of mass in expert climbers |
26 |
132 |
| P26-R5 |
BIB-9441A4C5BED0E393 |
Fuss, Tan and Niegl |
|
Climbers’ Perception of Hold Surface Properties: Roughness Versus
Slip Resistance |
26 |
146 |
| P26-R6 |
BIB-44B2766B4645923A |
REI Co-op |
|
Rock Climbing Techniques & Moves |
26 |
132 |
| P26-R7 |
BIB-C8FF926C64944574 |
Climbing Magazine |
|
Tech Tip: Friction Slabs |
26 |
146 |
| P26-R8 |
BIB-98FB8D6213E62CE3 |
Fuss and Niegl |
|
Biomechanics of the two-handed dyno technique for sport
climbing |
26 |
14 |
| P26-R9 |
BIB-B5B92F327C61B28A |
Yan et al. |
|
CIMI4D: A Large Multimodal Climbing Motion Dataset Under Human-Scene
Interactions |
26 |
146 |
| P26-R10 |
BIB-261E61F120E0E73D |
Maschek and Schedl |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
26 |
146 |
| P27-R1 |
BIB-DC75E315AC270491 |
Dech, Kittel et al. |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
27 |
102 |
| P27-R2 |
BIB-D3DF704E65AF9AB1 |
Quaine and Martin |
|
A biomechanical study of equilibrium in sport rock climbing |
27 |
58 |
| P27-R3 |
BIB-BE4AF30AB9182D31 |
Noé |
|
Modifications of anticipatory postural adjustments in a rock
climbing task: the effect of supporting wall inclination |
27 |
86 |
| P27-R4 |
BIB-5DEE9A980471EBDF |
Musculus et al. |
|
Embodied planning in climbing: how pre-planning informs motor
execution |
27 |
88 |
| P27-R5 |
BIB-31B25AB846983435 |
Pijpers et al. |
|
Anxiety-induced changes in movement behaviour during the execution
of a complex whole-body task |
27 |
30 |
| P27-R6 |
BIB-2CC6F160CBCE85DF |
Seifert et al. |
|
Role of route previewing strategies on climbing fluency and
exploratory movements |
27 |
58 |
| P27-R7 |
BIB-B5B92F327C61B28A |
Yan et al. |
|
CIMI4D: A Large Multimodal Climbing Motion Dataset Under Human-Scene
Interactions |
27 |
102 |
| P27-R8 |
BIB-B8E5A1B162571A9C |
Yan et al. |
|
ClimbingCap: Multi-Modal Dataset and Method for Rock Climbing in
World Coordinate |
27 |
86 |
| P27-R9 |
BIB-9441A4C5BED0E393 |
Fuss, Tan and Niegl |
|
Climbers’ Perception of Hold Surface Properties: Roughness Versus
Slip Resistance |
27 |
14 |
| P27-R10 |
BIB-678F2896CFE0CAEF |
Garrido-Palomino and España-Romero |
|
Fear of falling in women: A psychological training intervention
improves climbing performance |
27 |
30 |
| P27-R11 |
BIB-C8FF926C64944574 |
Climbing Magazine |
|
Tech Tip: Friction Slabs |
27 |
44 |
| P28-R1 |
BIB-DC75E315AC270491 |
Dech, Kittel et al. |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
28 |
152 |
| P28-R2 |
BIB-36F63950893A85F5 |
Kittel et al. |
|
Climber’s muscle excitation and force distribution at different wall
angles and body positions |
28 |
152 |
| P28-R3 |
BIB-D3DF704E65AF9AB1 |
Quaine and Martin |
|
A biomechanical study of equilibrium in sport rock climbing |
28 |
78 |
| P28-R4 |
BIB-746B89C68BE8DEA5 |
Neil Gresham |
|
Unlock The Secret Power of Toe Hooks To Elevate Your Climbing |
28 |
90 |
| P28-R5 |
BIB-261E61F120E0E73D |
Maschek and Schedl |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
28 |
106 |
| P28-R6 |
BIB-B5B92F327C61B28A |
Yan et al. |
|
CIMI4D: A Large Multimodal Climbing Motion Dataset Under Human-Scene
Interactions |
28 |
152 |
| P28-R7 |
BIB-B8E5A1B162571A9C |
Yan et al. |
|
ClimbingCap: Multi-Modal Dataset and Method for Rock Climbing in
World Coordinate |
28 |
152 |
| P28-R8 |
BIB-B98E5F3C6B388D7D |
Jones et al. |
|
Risk factors and injury prevention strategies for overuse injuries
in adult climbers: a systematic review |
28 |
48 |
| P28-R9 |
BIB-4450873B43520994 |
Hofstadler et al. |
|
Maximum Shoulder Torque and Muscle Activation During Standing Arm
Flexion |
28 |
16 |
| P28-R10 |
BIB-FB2DFDC7C8419952 |
Lutter et al. |
|
Incidence, Diagnosis, and Management of Injury in Sport Climbing and
Bouldering: A Critical Review |
28 |
106 |
| P29-R1 |
BIB-DC75E315AC270491 |
Dech, Kittel et al. |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
29 |
134 |
| P29-R2 |
BIB-44B2766B4645923A |
Jay Parks / REI Co-op |
|
Rock Climbing Techniques & Moves |
29 |
92 |
| P29-R3 |
BIB-368E4F82B1D6F034 |
Chris Van Leuven / Climbing Magazine |
|
Tech Tip: Avoiding the Beached Whale |
29 |
102 |
| P29-R4 |
BIB-CFC3D7D5C78D4405 |
VDiff Climbing |
|
Climbing Technique: Moving on Rock — Mantling |
29 |
134 |
| P29-R5 |
BIB-2980FD64195C581B |
Friction Labs |
|
How It Works: The Mantle |
29 |
136 |
| P29-R6 |
BIB-746B89C68BE8DEA5 |
Neil Gresham / Climbing Magazine |
|
Unlock the Secret Power of Toe Hooks to Elevate Your Climbing |
29 |
14 |
| P29-R7 |
BIB-D3DF704E65AF9AB1 |
Quaine and Martin |
|
A biomechanical study of equilibrium in sport rock climbing |
29 |
106 |
| P29-R8 |
BIB-CBBE6594D72458E9 |
MacLean and Dickerson |
|
Kinematic and EMG analysis of horizontal bimanual climbing in
humans |
29 |
62 |
| P29-R9 |
BIB-FB2DFDC7C8419952 |
Lutter et al. |
|
Incidence, Diagnosis, and Management of Injury in Sport Climbing and
Bouldering: A Critical Review |
29 |
108 |
| P29-R10 |
BIB-261E61F120E0E73D |
Maschek and Schedl |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
29 |
122 |
| P29-R11 |
BIB-B5B92F327C61B28A |
Yan et al. |
|
CIMI4D: A Large Multimodal Climbing Motion Dataset Under Human-Scene
Interactions |
29 |
122 |
| P29-R12 |
BIB-16ABE6C07EE54A49 |
Wilderness & Environmental Medicine case report |
|
Pectoralis Major Tendon Rupture While Bouldering |
29 |
58 |
| P29-R13 |
BIB-B98E5F3C6B388D7D |
Jones et al. |
|
Risk factors and injury prevention strategies for overuse injuries
in adult climbers: a systematic review |
29 |
78 |
| P30-R1 |
BIB-30B787B3E15B71B8 |
Chris Van Leuven / Climbing Magazine |
|
Avoiding the Beached Whale |
30 |
90 |
| P30-R2 |
BIB-7176DE5796AF5C7C |
Jesse Firestone / Camp4 Human Performance |
|
The Topout Guide: How to Stop Floppin’ and Start Toppin’ |
30 |
90 |
| P30-R3 |
BIB-2980FD64195C581B |
Friction Labs |
|
How It Works: The Mantle |
30 |
46 |
| P30-R4 |
BIB-44B2766B4645923A |
Jay Parks / REI Co-op |
|
Rock Climbing Techniques & Moves |
30 |
30 |
| P30-R5 |
BIB-DC75E315AC270491 |
Dech, Kittel et al. |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
30 |
106 |
| P30-R6 |
BIB-D3DF704E65AF9AB1 |
Quaine and Martin |
|
A biomechanical study of equilibrium in sport rock climbing |
30 |
60 |
| P30-R7 |
BIB-FB2DFDC7C8419952 |
Lutter et al. |
|
Incidence, Diagnosis, and Management of Injury in Sport Climbing and
Bouldering: A Critical Review |
30 |
46 |
| P30-R8 |
BIB-F4E21B9F9E58FC96 |
Grønhaug |
|
Self-reported chronic injuries in climbing: who gets injured
when? |
30 |
46 |
| P30-R9 |
BIB-261E61F120E0E73D |
Maschek and Schedl |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
30 |
92 |
| P30-R10 |
BIB-B5B92F327C61B28A |
Yan et al. |
|
CIMI4D: A Large Multimodal Climbing Motion Dataset Under Human-Scene
Interactions |
30 |
78 |
| P30-R11 |
BIB-AFBBD99F31034687 |
Schöffl et al. |
|
Mid- to long-term functional outcome and return to sport after elbow
dislocation in bouldering |
30 |
14 |
| P30-R12 |
BIB-6219FB9D8926F9F2 |
Neil Gresham / Climbing Magazine |
|
Quit Floundering—Turn Your Feet Into Precision Instruments With
These 10 Tips |
30 |
28 |
| P31-R1 |
BIB-2116B1695EC4E2F4 |
Wilderness Education Association / Human Kinetics |
|
Tips for proper climbing technique: matching and hand-to-foot
match |
31 |
48 |
| P31-R2 |
BIB-870E8D9B26E4FD86 |
ClimbingTechnique.com |
|
Climbing Technique — Moves Library |
31 |
80 |
| P31-R3 |
BIB-D2E0A9B28D8EB092 |
Momentum Youth Programs |
|
Hand Match |
31 |
48 |
| P31-R4 |
BIB-DC75E315AC270491 |
Dech, Kittel et al. |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
31 |
152 |
| P31-R5 |
BIB-C8983A6B42CDD21D |
Maselli et al. |
|
Whole body coarticulation reflects expertise in sport climbing |
31 |
124 |
| P31-R6 |
BIB-B5B92F327C61B28A |
Yan et al. |
|
CIMI4D: A Large Multimodal Climbing Motion Dataset Under Human-Scene
Interactions |
31 |
104 |
| P31-R7 |
BIB-261E61F120E0E73D |
Maschek and Schedl |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
31 |
152 |
| P31-R8 |
BIB-E4C82DF7DB7C5264 |
Eric Hörst / Training for Climbing |
|
Develop Fantastic Footwork with Heel-Hook and Toe-Hook
Technique |
31 |
70 |
| P31-R9 |
BIB-F6B7451CC627F591 |
Friction Labs |
|
How It Works: The Toe Hook |
31 |
28 |
| P31-R10 |
BIB-7820A5F3DBC71880 |
Climbing Magazine |
|
Technique: How to Heel Hook |
31 |
70 |
| P31-R11 |
BIB-61FA6B2A95DE5185 |
Climbing Magazine |
|
The Heel-Toe Cam |
31 |
42 |
| P32-R1 |
BIB-DC75E315AC270491 |
Dech, Kittel et al. |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
32 |
142 |
| P32-R2 |
BIB-C8983A6B42CDD21D |
Maselli et al. |
|
Whole body coarticulation reflects expertise in sport climbing |
32 |
142 |
| P32-R3 |
BIB-6219FB9D8926F9F2 |
Climbing Magazine |
|
Quit Floundering—Turn Your Feet Into Precision Instruments With
These 10 Tips |
32 |
16 |
| P32-R4 |
BIB-29789E9E305CE349 |
Climbing Magazine |
|
Want To Be a Better Rock Climber? Learn to Climb Dynamically |
32 |
70 |
| P32-R5 |
BIB-82E936C1966DB3D6 |
Climbing Magazine |
|
40 Sport Climbing Terms You Should Know for the Olympics |
32 |
70 |
| P32-R6 |
BIB-075504931F10267D |
Eichler, Lutter, Morris and Schöffl |
|
Run-and-jump failure: new injury patterns in indoor bouldering |
32 |
14 |
| P32-R7 |
BIB-DB999D7082D19D3E |
Asakawa et al. |
|
Characteristics of counter-movements in sport climbing: experienced
climbers and beginners |
32 |
56 |
| P32-R8 |
BIB-2CC6F160CBCE85DF |
Sanchez et al. |
|
Role of route previewing strategies on climbing fluency and
exploratory movements |
32 |
0 |
| P32-R9 |
BIB-B5B92F327C61B28A |
Yan et al. |
|
CIMI4D: A Large Multimodal Climbing Motion Dataset Under Human-Scene
Interactions |
32 |
142 |
| P32-R10 |
BIB-261E61F120E0E73D |
Maschek and Schedl |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
32 |
142 |
| P32-R11 |
BIB-5995F4CE30C863B8 |
Climbing Magazine |
|
Rock Climbing Skills: Learn How to Topout Boulder Problems |
32 |
28 |
| P32-R12 |
BIB-8FD5161455E6A5A8 |
Climbing Magazine |
|
How to Improve Your Balance |
32 |
14 |
| P32-R13 |
BIB-F0280A4BE57E3D66 |
Climbing Magazine |
|
How to Improve Your Footwork for Climbing |
32 |
16 |
| P32-R14 |
BIB-9C90BE15EE645016 |
Climbing Magazine |
|
Climbing Techniques: How to Undercling |
32 |
14 |
| P32-R15 |
BIB-22381B8D24167C13 |
Cordier/Pijpers line of research |
|
Affordance Realization in Climbing: Learning and Transfer |
32 |
0 |
| P33-R1 |
BIB-9C90BE15EE645016 |
Climbing Magazine |
|
Climbing Techniques: How to Undercling |
33 |
14 |
| P33-R2 |
BIB-DC75E315AC270491 |
Dech, Kittel et al. |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
33 |
42 |
| P33-R3 |
BIB-746B89C68BE8DEA5 |
Neil Gresham / Climbing Magazine |
|
Unlock The Secret Power of Toe Hooks To Elevate Your Climbing |
33 |
28 |
| P33-R4 |
BIB-C4B0225F62FDFA74 |
Bonnetto and Mathis |
|
Climbing out of the lab: Studying motor planning and coarticulation
in the climbing gym |
33 |
42 |
| P33-R5 |
BIB-261E61F120E0E73D |
Maschek and Schedl |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
33 |
42 |
| P33-R6 |
BIB-B5B92F327C61B28A |
Yan et al. |
|
CIMI4D: A Large Multimodal Climbing Motion Dataset Under Human-Scene
Interactions |
33 |
42 |
| P34-R1 |
BIB-2CC6F160CBCE85DF |
Orth, Davids y Seifert |
|
Role of route previewing strategies on climbing fluency and
exploratory movements |
34 |
108 |
| P34-R2 |
BIB-CDC40075B64AA17F |
Sanchez et al. |
|
Efficacy of pre-ascent climbing route visual inspection in indoor
sport climbing |
34 |
32 |
| P34-R3 |
BIB-5DEE9A980471EBDF |
Garrido et al. |
|
Embodied planning in climbing: how pre-planning informs motor
execution |
34 |
212 |
| P34-R4 |
BIB-4E241245C51FFA88 |
Garrido et al. |
|
Cognitive-behavioural processes during route previewing in
bouldering |
34 |
106 |
| P34-R5 |
BIB-9A37416D35B22681 |
Medernach et al. |
|
Creativity in Olympic Bouldering: Exploring the Role of Climbing
Level and Route Previewing |
34 |
90 |
| P34-R6 |
BIB-C3485BC29F8363D6 |
Amca, Vigouroux, Aritan y Berton |
|
The effect of chalk on the finger-hold friction coefficient in rock
climbing |
34 |
30 |
| P34-R7 |
BIB-B32051C24DD9D94E |
Kilgas et al. |
|
The Effect of Magnesium Carbonate (Chalk) on Geometric Entropy,
Force, and Electromyography During Rock Climbing |
34 |
30 |
| P34-R8 |
BIB-844EC5ABF8F665E1 |
Saul et al. |
|
Determinants for success in climbing: A systematic review |
34 |
58 |
| P34-R9 |
BIB-261E61F120E0E73D |
Maschek and Schedl |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
34 |
282 |
| P34-R10 |
BIB-B5B92F327C61B28A |
Yan et al. |
|
CIMI4D: A Large Multimodal Climbing Motion Dataset Under Human-Scene
Interactions |
34 |
372 |
| P35-R1 |
BIB-E39F28FD18F2F059 |
Giles et al. |
|
Active recovery strategies and handgrip performance in trained
vs. untrained climbers |
35 |
16 |
| P35-R2 |
BIB-F53A2C8FF17BB70E |
Fryer et al. |
|
Active recovery of the finger flexors enhances intermittent handgrip
performance in rock climbers |
35 |
30 |
| P35-R3 |
BIB-FFE51EE06DDF0F76 |
Fryer et al. |
|
Oxygen recovery kinetics in the forearm flexors of multiple ability
groups of rock climbers |
35 |
30 |
| P35-R4 |
BIB-31B25AB846983435 |
Pijpers et al. |
|
Anxiety-induced changes in movement behaviour during the execution
of a complex whole-body task |
35 |
56 |
| P35-R5 |
BIB-077E10B067D657DF |
Medernach et al. |
|
Decision-making and climbing performance under time constraints in
Olympic bouldering |
35 |
76 |
| P35-R6 |
BIB-92D382DEA2DF137F |
Seifert et al. |
|
Environmental Design Shapes Perceptual-motor Exploration, Learning,
and Transfer in Climbing |
35 |
58 |
| P35-R7 |
BIB-F20BDA9E8DA8197E |
Bourdin et al. |
|
High postural constraints affect the organization of reaching and
grasping movements |
35 |
46 |
| P35-R8 |
BIB-7D792592C7DD5AAC |
Medernach et al. |
|
Effects of decision-making on indoor bouldering performances: A
multi-experimental study approach |
35 |
86 |
| P36-R1 |
BIB-C503EB7421701ADF |
Baláš et al. |
|
Determinant factors in climbing ability: Influence of strength,
anthropometry, and neuromuscular fatigue |
36 |
32 |
| P36-R2 |
BIB-86226FD65AB80BA3 |
Ginszt et al. |
|
Body Composition, Anthropometric Parameters, and Strength-Endurance
Characteristics of Sport Climbers: A Systematic Review |
36 |
32 |
| P36-R3 |
BIB-B645387DDCF11F5E |
Draper et al. |
|
Performance Assessment for Rock Climbers: The International Rock
Climbing Research Association Sport-Specific Test Battery |
36 |
30 |
| P36-R4 |
BIB-8C963F0F8A08739A |
Draga et al. |
|
Importance and Diagnosis of Flexibility Preparation of Male Sport
Climbers |
36 |
16 |
| P36-R5 |
BIB-DC75E315AC270491 |
Dech and Kittel |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
36 |
74 |
| P36-R6 |
BIB-DB999D7082D19D3E |
Asakawa et al. |
|
Characteristics of counter-movements in sport climbing: a comparison
between experienced climbers and beginners |
36 |
28 |
| P36-R7 |
BIB-844EC5ABF8F665E1 |
Saul et al. |
|
Determinants for success in climbing: A systematic review |
36 |
58 |
| P36-R8 |
BIB-832F387F8C68514B |
Langer, Simon and Wiemeyer |
|
Physical performance testing in climbing—A systematic review |
36 |
30 |
| P36-R9 |
BIB-0EF0B26381EF38D9 |
Baron, Hau and Weng |
|
Boulder2Vec: Modeling Climber Performances in Professional
Bouldering Competitions |
36 |
42 |
| P36-R10 |
BIB-261E61F120E0E73D |
Maschek and Schedl |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
36 |
90 |
| P37-R1 |
BIB-DC75E315AC270491 |
Dech, Kittel et al. |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
37 |
102 |
| P37-R2 |
BIB-8C7712918D5A281E |
Quaine and Vigouroux |
|
Maximal resultant four fingertip force and fatigue of the extrinsic
muscles of the hand in different sport climbing finger grips |
37 |
12 |
| P37-R3 |
BIB-C808AD1FBFCFA1FE |
Danion |
|
Grip force safety margin in rock climbers |
37 |
18 |
| P37-R4 |
BIB-9441A4C5BED0E393 |
Fuss, Niegl et al. |
|
Climbers’ Perception of Hold Surface Properties: Roughness Versus
Slip Resistance |
37 |
18 |
| P37-R5 |
BIB-36F63950893A85F5 |
Bonelli et al. |
|
Climber’s muscle excitation and force distribution at different wall
angles and body positions |
37 |
48 |
| P37-R6 |
BIB-844EC5ABF8F665E1 |
Saul et al. |
|
Determinants for success in climbing: A systematic review |
37 |
42 |
| P37-R7 |
BIB-DB999D7082D19D3E |
Asakawa et al. |
|
Characteristics of counter-movements in sport climbing: a comparison
between experienced climbers and beginners |
37 |
12 |
| P37-R8 |
BIB-261E61F120E0E73D |
Maschek and Schedl |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
37 |
78 |
| P37-R9 |
BIB-B5B92F327C61B28A |
Yan et al. |
|
CIMI4D: A Large Multimodal Climbing Motion Dataset Under Human-Scene
Interactions |
37 |
96 |
| P37-R10 |
BIB-A8497AD90DF1432A |
Beurienne et al. |
|
The art of falling: identifying the falls scenarios associated with
bouldering injuries |
37 |
24 |
| P37-R11 |
BIB-783F9A463BBAF738 |
Phillips et al. |
|
The Effect of Climbing Ability and Slope Inclination on Vertical
Foot Loading Using a Novel Force Sensor Instrumentation System |
37 |
12 |
| P38-R1 |
BIB-DE2B433EBE4F5617 |
Hacques, Dicks, Komar and Seifert |
|
Visual control during climbing: Variability in practice fosters a
proactive gaze pattern |
38 |
12 |
| P38-R2 |
BIB-D3DF704E65AF9AB1 |
Quaine and Martin |
|
A biomechanical study of equilibrium in sport rock climbing |
38 |
12 |
| P38-R3 |
BIB-DB999D7082D19D3E |
Asakawa and Sakamoto |
|
Characteristics of counter-movements in sport climbing: a comparison
between experienced climbers and beginners |
38 |
18 |
| P38-R4 |
BIB-00596AD352555794 |
Schöffl, Lutter and Popp |
|
The Heel Hook—A Climbing-Specific Technique to Injure the Leg |
38 |
6 |
| P38-R5 |
BIB-31B25AB846983435 |
Pijpers, Oudejans and Bakker |
|
Anxiety-induced changes in movement behaviour during the execution
of a complex whole-body task |
38 |
12 |
| P38-R6 |
BIB-1E9B719187DB0714 |
Hsieh, Liu and Newell |
|
Submovement control processes in discrete aiming as a function of
space-time constraints |
38 |
24 |
| P38-R7 |
BIB-746B89C68BE8DEA5 |
Climbing Magazine |
|
Rock Climbing Technique: Foot and Toe Hooks |
38 |
6 |
| P39-R1 |
BIB-DC75E315AC270491 |
Dech, Kittel et al. |
|
Biomechanical Principles and Techniques—A Systematization for Sport
Climbing |
39 |
60 |
| P39-R2 |
BIB-2CC6F160CBCE85DF |
Orth, Davids and Seifert |
|
Role of route previewing strategies on climbing fluency and
exploratory movements |
39 |
18 |
| P39-R3 |
BIB-56B0DCF134E0081B |
Walsh, Seifert, Button, Vial and Croft |
|
The effect of fatigue on climbing fluidity and hand movements |
39 |
18 |
| P39-R4 |
BIB-1BAAD3911001547F |
Roseborrough and Lebec |
|
Differences in Static Scapular Position Between Rock Climbers and a
Non-Rock Climber Population |
39 |
6 |
| P39-R5 |
BIB-FD453F7D4C258E5B |
Ludewig and Reynolds |
|
The Association of Scapular Kinematics and Glenohumeral Joint
Pathologies |
39 |
6 |
| P39-R6 |
BIB-D300375FE4EA860D |
Medernach, Henz, Memmert and Sanchez |
|
The Climbing Movement Repertoire in Olympic Bouldering: Exploring
Its Role in Decision-Making, Performance, and Time Constraint
Management |
39 |
24 |
| P39-R7 |
BIB-5F269EE7782119AE |
Stien, Langer, Andersen et al. |
|
Development of Specific Motor Skills through System Wall Bouldering
Training: A Pilot Study |
39 |
36 |
| P39-R8 |
BIB-DB999D7082D19D3E |
Asakawa and Sakamoto |
|
Characteristics of counter-movements in sport climbing: a comparison
between experienced climbers and beginners |
39 |
18 |
| P39-R9 |
BIB-261E61F120E0E73D |
Maschek and Schedl |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
39 |
54 |
| P39-R10 |
BIB-B5B92F327C61B28A |
Yan et al. |
|
CIMI4D: A Large Multimodal Climbing Motion Dataset Under Human-Scene
Interactions |
39 |
60 |
| P40-R1 |
BIB-AE4AE8E076C9878A |
World Climbing |
|
Competition Rules, Version No. 3, January 2026 |
40 |
20 |
| P40-R2 |
BIB-A8497AD90DF1432A |
Beurienne, Bailly, Luiggi et al. |
|
The art of falling: identifying the falls scenarios associated with
bouldering injuries |
40 |
12 |
| P40-R3 |
BIB-36F63950893A85F5 |
Bonelli, Rampichini, Esposito et al. |
|
Climber’s muscle excitation and force distribution at different wall
angles and body positions |
40 |
6 |
| P40-R4 |
BIB-261E61F120E0E73D |
Maschek and Schedl |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
40 |
18 |
| P40-R5 |
BIB-95D9813E19E6CEED |
Auer, Schöffl, Achenbach, Meffert and Fehske |
|
Indoor Bouldering—A Prospective Injury Evaluation |
40 |
12 |
| P41-R1 |
BIB-F1291B208D992F15 |
Bazarevsky, Grishchenko et al. |
|
BlazePose: On-device Real-time Body Pose Tracking |
41 |
1 |
| P41-R2 |
BIB-6AEEBFA989FF87D1 |
Google AI for Developers |
|
MediaPipe PoseLandmark — 33 pose landmarks |
41 |
1 |
| P41-R3 |
BIB-14B023A299F4C22A |
Zhang, Bazarevsky et al. |
|
MediaPipe Hands: On-device Real-time Hand Tracking |
41 |
1 |
| P41-R4 |
BIB-63743D98D7AE9639 |
Grishchenko, Bazarevsky et al. |
|
BlazePose GHUM Holistic: Real-time 3D Human Landmarks and Pose
Estimation |
41 |
1 |
| P41-R5 |
BIB-804033BA9312DE3C |
OpenCV |
|
Perspective-n-Point pose computation and camera-coordinate
convention |
41 |
1 |
| P41-R6 |
BIB-770A3FD3A786CA3C |
Luxonis |
|
DepthAI Coordinate Systems |
41 |
1 |
| P41-R7 |
BIB-B5B92F327C61B28A |
Yan et al. |
|
CIMI4D: A Large Multimodal Climbing Motion Dataset Under Human-Scene
Interactions |
41 |
1 |
| P41-R8 |
BIB-B8E5A1B162571A9C |
Yan et al. |
|
ClimbingCap: Multi-Modal Dataset and Method for Rock Climbing in
World Coordinate |
41 |
1 |
| P41-R9 |
BIB-261E61F120E0E73D |
Maschek and Schedl |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
41 |
1 |
| P41-R10 |
BIB-062509C55537E324 |
Cao, Simon, Wei and Sheikh |
|
Realtime Multi-Person 2D Pose Estimation Using Part Affinity
Fields |
41 |
1 |
| P41-R11 |
BIB-2218E59539FAC370 |
Güler, Neverova and Kokkinos |
|
DensePose: Dense Human Pose Estimation in the Wild |
41 |
1 |
| P41-R12 |
BIB-A94A966435D8A98C |
Loper, Mahmood, Romero, Pons-Moll and Black |
|
SMPL: A Skinned Multi-Person Linear Model |
41 |
1 |
| P41-R13 |
BIB-CDF2E28B88EFD514 |
COCO Consortium |
|
COCO Dataset — person keypoints and evaluation context |
41 |
2 |
| P42-R1 |
BIB-3BE29BCA8FE754D8 |
He, Gkioxari, Dollár and Girshick |
|
Mask R-CNN |
42 |
2 |
| P42-R2 |
BIB-91790F546136618F |
Kirillov, He, Girshick, Rother and Dollár |
|
Panoptic Segmentation |
42 |
3 |
| P42-R3 |
BIB-86BC6311E354FA93 |
Kirillov, Mintun et al. |
|
Segment Anything |
42 |
2 |
| P42-R4 |
BIB-E40400A2A1CC12C6 |
Ravi, Gabeur et al. |
|
SAM 2: Segment Anything in Images and Videos |
42 |
2 |
| P42-R5 |
BIB-261E61F120E0E73D |
Maschek and Schedl |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
42 |
2 |
| P42-R6 |
BIB-B5B92F327C61B28A |
Yan et al. |
|
CIMI4D: A Large Multimodal Climbing Motion Dataset Under Human-Scene
Interactions |
42 |
2 |
| P42-R7 |
BIB-B8E5A1B162571A9C |
Yan et al. |
|
ClimbingCap: Multi-Modal Dataset and Method for Rock Climbing in
World Coordinate |
42 |
2 |
| P42-R8 |
BIB-613B211D2ED48218 |
Luxonis |
|
DepthAI v3 PointCloud node and RGB-D point-cloud example |
42 |
2 |
| P42-R9 |
BIB-D07483325D30F06C |
Luxonis |
|
DepthAI v3 Depth Align example |
42 |
2 |
| P42-R10 |
BIB-C2FCFEA92D05F063 |
Luxonis |
|
DepthAI v3 StereoDepth node and confidence model |
42 |
2 |
| P42-R11 |
BIB-5E0FB45242C71877 |
Luxonis |
|
DepthAI ImgTransformations metadata |
42 |
2 |
| P42-R12 |
BIB-8C7F672EDEE96480 |
Zhou, Park and Koltun / Open3D project |
|
Open3D point-cloud processing and RANSAC plane segmentation |
42 |
2 |
| P42-R13 |
BIB-D7E8DDE9328306F2 |
Huang, Huang et al. |
|
Mask Scoring R-CNN |
42 |
2 |
| P42-R14 |
BIB-7D36C8F7EE6EE609 |
Zhang, Lu et al. |
|
RefineMask: Towards High-Quality Instance Segmentation with
Fine-Grained Features |
42 |
2 |
| P43-R1 |
BIB-C5FE546DA83CEAF8 |
Fuss |
|
Instrumented climbing holds and performance analysis in sport
climbing |
43 |
2 |
| P43-R2 |
BIB-746FA424C9A0960B |
Donath and Wolf |
|
Reliability of Force Application to Instrumented Climbing Holds in
Elite Climbers |
43 |
2 |
| P43-R3 |
BIB-36F63950893A85F5 |
Galli et al. |
|
Climber’s muscle excitation and force distribution at different wall
angles and body positions |
43 |
2 |
| P43-R4 |
BIB-356FF526A9238A14 |
Seifert, Hacques, Rivet and Legreneur |
|
Assessment of fluency dynamics in climbing |
43 |
2 |
| P43-R5 |
BIB-261E61F120E0E73D |
Maschek and Schedl |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
43 |
2 |
| P43-R6 |
BIB-7FB4E46F4F772E9B |
Chen, Dwivedi, Black and Tzionas |
|
Detecting Human-Object Contact in Images |
43 |
2 |
| P43-R7 |
BIB-7DBBFC9D025D90CA |
Huang et al. |
|
Capturing and Inferring Dense Full-Body Human-Scene Contact |
43 |
2 |
| P43-R8 |
BIB-4CBDA975C49E6DD3 |
Tripathi et al. |
|
DECO: Dense Estimation of 3D Human-Scene Contact In The Wild |
43 |
2 |
| P43-R9 |
BIB-5644A99212C1FCBB |
Li et al. |
|
Estimating 3D Motion and Forces of Person-Object Interactions From
Monocular Video |
43 |
2 |
| P43-R10 |
BIB-05A5C009A6DE8074 |
Han et al. |
|
GroundLink: A Dataset Unifying Human Body Movement and Ground
Reaction Dynamics |
43 |
2 |
| P43-R11 |
BIB-2D10E3CB74474CCF |
Tripathi et al. |
|
3D Human Pose Estimation via Intuitive Physics |
43 |
2 |
| P43-R12 |
BIB-B8E5A1B162571A9C |
Yan et al. |
|
ClimbingCap: Multi-Modal Dataset and Method for Rock Climbing in
World Coordinate |
43 |
2 |
| P43-R13 |
BIB-B5B92F327C61B28A |
Yan et al. |
|
CIMI4D: A Large Multimodal Climbing Motion Dataset Under Human-Scene
Interactions |
43 |
2 |
| P43-R14 |
BIB-4DC95494DA2D72C1 |
Le, Waldmann, Wandt and Wadenbäck |
|
Gravity-guided Contact Dynamics Estimation from 3D Human
Motions |
43 |
2 |
| P44-R1 |
BIB-6F9E7F84B5770C65 |
Beltrán B., Richter and Heinkel |
|
Automated Human Movement Segmentation by Means of Human Pose
Estimation in RGB-D Videos for Climbing Motion Analysis |
44 |
2 |
| P44-R2 |
BIB-CBED9168BB245E65 |
Dovgalecs et al. |
|
Movement phase detection in climbing |
44 |
2 |
| P44-R3 |
BIB-DD7234DCB5790148 |
Beltrán B., Richter and Heinkel |
|
Climbing Technique Evaluation by Means of Skeleton Video Stream
Analysis |
44 |
2 |
| P44-R4 |
BIB-5A8394C4AC8D2DEE |
Lea et al. |
|
Temporal Convolutional Networks for Action Segmentation and
Detection |
44 |
2 |
| P44-R5 |
BIB-45A06E9CACDDB993 |
Abu Farha and Gall |
|
MS-TCN: Multi-Stage Temporal Convolutional Network for Action
Segmentation |
44 |
3 |
| P44-R6 |
BIB-7EBA9CDAD390FDA6 |
Yi, Wen and Jiang |
|
ASFormer: Transformer for Action Segmentation |
44 |
2 |
| P44-R7 |
BIB-72E442A06F6450EF |
Li, Abu Farha and Gall |
|
Temporal Action Segmentation From Timestamp Supervision |
44 |
2 |
| P44-R8 |
BIB-91FA2C025F2837AB |
Ahn and Lee |
|
Refining Action Segmentation With Hierarchical Video
Representations |
44 |
2 |
| P44-R9 |
BIB-3DA323472518BD37 |
Killick, Fearnhead and Eckley |
|
Optimal Detection of Changepoints With a Linear Computational
Cost |
44 |
2 |
| P44-R10 |
BIB-E280BE4323C2B401 |
Nakamura et al. |
|
Segmenting Continuous Motions with Hidden Semi-markov Models and
Gaussian Processes |
44 |
2 |
| P44-R11 |
BIB-D57DB1FDE5843385 |
Tamura, Aihara and Yamamoto |
|
Extraction of Climbing Moves for Performance Quantification in
Bouldering |
44 |
2 |
| P44-R12 |
BIB-BE4DBA4A56013631 |
Mitsuoka and Hotta |
|
Combining Boundary Supervision and Segment-Level Regularization for
Fine-Grained Action Segmentation |
44 |
2 |
| P44-R13 |
BIB-918D80B90B31BE0D |
Ee et al. |
|
Improving Temporal Action Segmentation via Constraint-Aware
Decoding |
44 |
2 |
| P44-R14 |
BIB-261E61F120E0E73D |
Maschek and Schedl |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
44 |
2 |
| P45-R1 |
BIB-DF20A49E6CAD7621 |
Sibella, Frosio, Schena and Borghese |
|
3D analysis of the body center of mass in rock climbing |
45 |
2 |
| P45-R2 |
BIB-C295290F82058A85 |
Zampagni et al. |
|
Idiosyncratic control of the center of mass in expert climbers |
45 |
2 |
| P45-R3 |
BIB-EF8ABCED71EECAF8 |
de Leva |
|
Adjustments to Zatsiorsky-Seluyanov’s segment inertia
parameters |
45 |
2 |
| P45-R4 |
BIB-554153438E65EB04 |
Wu and Cavanagh; ISB Standardization and Terminology Committee |
|
ISB recommendations for standardization in the reporting of
kinematic data |
45 |
2 |
| P45-R5 |
BIB-AFB694961A42E546 |
Wu et al.; International Society of Biomechanics |
|
ISB recommendation on definitions of joint coordinate system—Part I:
ankle, hip and spine |
45 |
2 |
| P45-R6 |
BIB-C4D84D38DAB70D44 |
Wu et al.; International Society of Biomechanics |
|
ISB recommendation on definitions of joint coordinate systems—Part
II: shoulder, elbow, wrist and hand |
45 |
2 |
| P45-R7 |
BIB-39D738E8C5E1CA71 |
Savitzky and Golay |
|
Smoothing and Differentiation of Data by Simplified Least Squares
Procedures |
45 |
2 |
| P45-R8 |
BIB-2C0038FD2DC8DD9F |
Balasubramanian, Melendez-Calderon and Burdet |
|
A robust and sensitive metric for quantifying movement
smoothness |
45 |
2 |
| P45-R9 |
BIB-EB43D73CCAC349AE |
Melendez-Calderon et al. |
|
On the analysis of movement smoothness |
45 |
2 |
| P45-R10 |
BIB-EC9F34BD09F77F07 |
Orth et al. |
|
Behavioral Repertoire Influences the Rate and Nature of Learning in
Climbing |
45 |
2 |
| P45-R11 |
BIB-2CC6F160CBCE85DF |
Seifert et al. |
|
Role of route previewing strategies on climbing fluency and
exploratory movements |
45 |
2 |
| P45-R12 |
BIB-94555730AFDF28E2 |
Seifert et al. |
|
Analysis of Relations between Spatiotemporal Movement Regulation and
Performance of Discrete Actions Reveals Functionality in Skilled
Climbing |
45 |
2 |
| P45-R13 |
BIB-B5A9D12BB583DA69 |
Hugues, Oudar, Cahouet and Quaine |
|
Coordination of upper and lower limbs in climbing dyno movement |
45 |
2 |
| P45-R14 |
BIB-98FB8D6213E62CE3 |
Fuss and Niegl |
|
Biomechanics of the two-handed dyno technique for sport
climbing |
45 |
2 |
| P45-R15 |
BIB-B5B92F327C61B28A |
Yan et al. |
|
CIMI4D: A Large Multimodal Climbing Motion Dataset Under Human-Scene
Interactions |
45 |
2 |
| P45-R16 |
BIB-B8E5A1B162571A9C |
Yan et al. |
|
ClimbingCap: Multi-Modal Dataset and Method for Rock Climbing in
World Coordinate |
45 |
2 |
| P45-R17 |
BIB-261E61F120E0E73D |
Maschek and Schedl |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
45 |
2 |
| P45-R18 |
BIB-BF4C0DC4723855E8 |
OpenSim |
|
Getting Started with Analyses: kinematics, body kinematics and model
center of mass |
45 |
2 |
| P45-R19 |
BIB-3185541AD0B8AF51 |
Jin et al. |
|
Kinematic-Aware Hierarchical Attention Network for Human Pose
Estimation in Videos |
45 |
2 |
| P46-R1 |
BIB-D57DB1FDE5843385 |
Kimura, Tamura and Yamamoto |
|
Extraction of Climbing Moves for Performance Quantification in
Bouldering |
46 |
2 |
| P46-R2 |
BIB-37942A4B8EA98927 |
Yan, Xiong and Lin |
|
Spatial Temporal Graph Convolutional Networks for Skeleton-Based
Action Recognition |
46 |
2 |
| P46-R3 |
BIB-F75C00BC2E672166 |
Duan, Zhao, Chen, Lin and Dai |
|
Revisiting Skeleton-Based Action Recognition |
46 |
2 |
| P46-R4 |
BIB-9F938795AA514597 |
Chen, Zhang, Yuan, Li, Deng and Hu |
|
Channel-Wise Topology Refinement Graph Convolution for
Skeleton-Based Action Recognition |
46 |
2 |
| P46-R5 |
BIB-9D7434B5C1A57DC4 |
Zhu, Ma, Liu, Liu, Wu and Wang |
|
MotionBERT: A Unified Perspective on Learning Human Motion
Representations |
46 |
2 |
| P46-R6 |
BIB-7EBA9CDAD390FDA6 |
Yi, Wen and Jiang |
|
ASFormer: Transformer for Action Segmentation |
46 |
2 |
| P46-R7 |
BIB-474ECFFB166D2235 |
Ishikawa, Kasai, Aoki and Kataoka |
|
Alleviating Over-Segmentation Errors by Detecting Action
Boundaries |
46 |
2 |
| P46-R8 |
BIB-45E4DBF5245662D1 |
Liu, Li, Dinh, Jiang, Shah and Xu |
|
Diffusion Action Segmentation |
46 |
2 |
| P46-R9 |
BIB-72E442A06F6450EF |
Li, Abu Farha and Gall |
|
Temporal Action Segmentation From Timestamp Supervision |
46 |
2 |
| P46-R10 |
BIB-231E6869B2B696D7 |
Bendale and Boult |
|
Towards Open Set Deep Networks |
46 |
3 |
| P46-R11 |
BIB-71DBA146DE5F0B21 |
Bao, Yu and Kong |
|
Evidential Deep Learning for Open Set Action Recognition |
46 |
2 |
| P46-R12 |
BIB-94583E1ED7B0ED66 |
Zhao, Du, Hoogs and Funk |
|
Open Set Action Recognition via Multi-Label Evidential Learning |
46 |
2 |
| P46-R13 |
BIB-B2FC4124D59EBD48 |
Zhai, Liu, Wu, Wu, Zhou, Doermann, Yuan and Hua |
|
SOAR: Scene-debiasing Open-set Action Recognition |
46 |
2 |
| P46-R14 |
BIB-376D196414E84CAD |
Guo, Pleiss, Sun and Weinberger |
|
On Calibration of Modern Neural Networks |
46 |
3 |
| P46-R15 |
BIB-46B1B5D00CED7D54 |
Dabah and Tirer |
|
On Temperature Scaling and Conformal Prediction of Deep
Classifiers |
46 |
3 |
| P46-R16 |
BIB-53659FD369A652E6 |
Khosla et al. |
|
Supervised Contrastive Learning |
46 |
2 |
| P46-R17 |
BIB-F5E164B898A7E9BF |
Cui, Jia, Lin and Belongie |
|
Class-Balanced Loss Based on Effective Number of Samples |
46 |
2 |
| P46-R18 |
BIB-E2BEB13783FD1EFB |
Lin, Goyal, Girshick, He and Dollar |
|
Focal Loss for Dense Object Detection |
46 |
2 |
| P46-R19 |
BIB-A9D488FCB34C38F9 |
Maschek and Schedl |
|
SPEED21: Speed Climbing Motion Dataset |
46 |
2 |
| P46-R20 |
BIB-9D77249B2605339F |
Boulanger, Seifert, Herault and Coeurjolly |
|
Automatic sensor-based detection and classification of climbing
activities |
46 |
2 |
| P46-R21 |
BIB-B5B92F327C61B28A |
Yan et al. |
|
CIMI4D: A Large Multimodal Climbing Motion Dataset Under Human-Scene
Interactions |
46 |
4 |
| P46-R22 |
BIB-B8E5A1B162571A9C |
Yan et al. |
|
ClimbingCap: Multi-Modal Dataset and Method for Rock Climbing in
World Coordinate |
46 |
4 |
| P46-R23 |
BIB-261E61F120E0E73D |
Maschek and Schedl |
|
The Way Up: A Dataset for Hold Usage Detection in Sport
Climbing |
46 |
4 |
| P46-R24 |
BIB-F798254D8529FAFB |
Bertinetto, Mueller, Tertikas, Samangooei and Lord |
|
Making Better Mistakes: Leveraging Class Hierarchies With Deep
Networks |
46 |
2 |
| P46-R25 |
BIB-B7252C159C3D8484 |
Geifman and El-Yaniv |
|
SelectiveNet: A Deep Neural Network with an Integrated Reject
Option |
46 |
3 |
| P46-R26 |
BIB-9201EAEB1510D43B |
Mitchell et al. |
|
Model Cards for Model Reporting |
46 |
3 |
| P46-R27 |
BIB-6716ADDD0F161ADC |
Gebru et al. |
|
Datasheets for Datasets |
46 |
5 |
| P47-R1 |
BIB-8B448AB4262E53B7 |
Pushkarna, Zaldivar and Kjartansson |
|
Data Cards: Purposeful and Transparent Dataset Documentation for
Responsible AI |
47 |
3 |
| P47-R2 |
BIB-988F23837C792A9C |
MLCommons Croissant Working Group |
|
Croissant Format Specification 1.1 |
47 |
3 |
| P47-R3 |
BIB-62A609EBD3841269 |
W3C Provenance Working Group |
|
PROV-O: The PROV Ontology |
47 |
3 |
| P47-R4 |
BIB-5564188C6D580061 |
ASAM e.V. |
|
ASAM OpenLABEL 1.0.0 |
47 |
3 |
| P47-R5 |
BIB-23843B654C12A679 |
CVAT.ai Corporation |
|
CVAT Dataset Formats |
47 |
3 |
| P47-R6 |
BIB-5556BB56768AC6C4 |
CVAT.ai Corporation |
|
CVAT Quality Control |
47 |
2 |
| P47-R7 |
BIB-F7C28F7F98D6514D |
CVAT.ai Corporation |
|
CVAT Consensus-Based Annotation |
47 |
2 |
| P47-R8 |
BIB-8FBBED32ED6C003E |
Cohen |
|
A Coefficient of Agreement for Nominal Scales |
47 |
3 |
| P47-R9 |
BIB-415183C13582C6B1 |
Fleiss |
|
Measuring Nominal Scale Agreement Among Many Raters |
47 |
3 |
| P47-R10 |
BIB-6A7212040773C130 |
Krippendorff |
|
Computing Krippendorff’s Alpha-Reliability |
47 |
3 |
| P47-R11 |
BIB-224BEB2C553B5F31 |
Shrout and Fleiss |
|
Intraclass Correlations: Uses in Assessing Rater Reliability |
47 |
3 |
| P47-R12 |
BIB-FE9B4B101B96FDE0 |
Lin |
|
A Concordance Correlation Coefficient to Evaluate
Reproducibility |
47 |
3 |
| P47-R13 |
BIB-429EEB9A24355A8A |
Dawid and Skene |
|
Maximum Likelihood Estimation of Observer Error-Rates Using the EM
Algorithm |
47 |
2 |
| P47-R14 |
BIB-FB3BCFCCF668AA46 |
Warfield, Zou and Wells |
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Simultaneous Truth and Performance Level Estimation (STAPLE) |
47 |
2 |
| P47-R15 |
BIB-75C02348AB354D01 |
Lin et al. |
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Microsoft COCO: Common Objects in Context |
47 |
3 |
| P47-R16 |
BIB-14ED590DE295D0EE |
Heilbron, Escorcia, Ghanem and Niebles |
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ActivityNet: A Large-Scale Video Benchmark for Human Activity
Understanding |
47 |
3 |
| P47-R17 |
BIB-B52E3162A8B19C63 |
Zhao, Torralba, Torresani and Yan |
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HACS: Human Action Clips and Segments Dataset for Recognition and
Temporal Localization |
47 |
2 |
| P47-R18 |
BIB-022253A6800D8DB4 |
Yu et al. |
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BDD100K: A Diverse Driving Dataset for Heterogeneous Multitask
Learning |
47 |
2 |
| P47-R19 |
BIB-6ED725812EB6A239 |
DVC Project |
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Data Version Control Documentation |
47 |
3 |
| P47-R20 |
BIB-E49D5E27F2D9B63A |
National Institute of Standards and Technology |
|
Artificial Intelligence Risk Management Framework (AI RMF 1.0) |
47 |
3 |
| P47-R21 |
BIB-9732FAFB93E284FB |
National Institute of Standards and Technology |
|
NIST Privacy Framework 1.0 |
47 |
2 |
| P47-R22 |
BIB-7516372922F823E9 |
European Parliament and Council of the European Union |
|
Regulation (EU) 2016/679 — General Data Protection Regulation |
47 |
3 |
| P47-R23 |
BIB-77CF1E9A789B5EFB |
Stanovcic, Sliwowski and Lee |
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ATLAS: An Annotation Tool for Long-Horizon Robotic Action
Segmentation |
47 |
2 |
| P47-R24 |
BIB-5E750E6F8746C95A |
Helvaci and Cheung |
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Boundary-Centric Active Learning for Temporal Action
Segmentation |
47 |
3 |
| P48-R1 |
BIB-3E8DE2DE2E49FA45 |
National Institute of Standards and Technology |
|
AI Test, Evaluation, Validation and Verification (TEVV) |
48 |
2 |
| P48-R2 |
BIB-77A85002A0B17656 |
Luiten, Osep, Dendorfer et al. |
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HOTA: A Higher Order Metric for Evaluating Multi-Object
Tracking |
48 |
2 |
| P48-R3 |
BIB-508870C371154CB3 |
Kim, Woo, Lee and Kweon |
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Video Panoptic Segmentation |
48 |
2 |
| P48-R4 |
BIB-D3FAFB1D3DE2DD90 |
Koh, Sagawa, Marklund et al. |
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WILDS: A Benchmark of in-the-Wild Distribution Shifts |
48 |
2 |
| P48-R5 |
BIB-709A95207491B503 |
Hendrycks and Dietterich |
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Benchmarking Neural Network Robustness to Common Corruptions and
Perturbations |
48 |
2 |
| P48-R6 |
BIB-35F95AAE82EA2756 |
Zhou, Van Landeghem, Popordanoska and Blaschko |
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A Novel Characterization of the Population Area Under the Risk
Coverage Curve |
48 |
2 |
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BIB-162B41A98DD2FC88 |
MLCommons |
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MLPerf Inference Benchmarks Documentation |
48 |
2 |
| P48-R8 |
BIB-288814B3743C1711 |
Demšar |
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Statistical Comparisons of Classifiers over Multiple Data Sets |
48 |
2 |
| P48-R9 |
BIB-618F22EE021DE3DC |
Efron and Tibshirani |
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An Introduction to the Bootstrap |
48 |
2 |
| P48-R10 |
BIB-84A7E488096F5CF4 |
Dietterich |
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Approximate Statistical Tests for Comparing Supervised
Classification Learning Algorithms |
48 |
2 |
| P48-R11 |
BIB-D67C45FB32F0CCC1 |
Purkrabek and Matas |
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ProbPose: A Probabilistic Approach to 2D Human Pose Estimation |
48 |
2 |
| P48-R12 |
BIB-12E297AFA5D599D1 |
de Geus, Meletis, Lu, Wen and Dubbelman |
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Part-Aware Panoptic Segmentation |
48 |
2 |
| P48-R13 |
BIB-C824899C8705467B |
Ovadia, Fertig, Ren et al. |
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Can You Trust Your Model’s Uncertainty? Evaluating Predictive
Uncertainty Under Dataset Shift |
48 |
2 |
| P48-R14 |
BIB-C4772363653D7791 |
Nixon, Dusenberry, Zhang, Jerfel and Tran |
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Measuring Calibration in Deep Learning |
48 |
2 |
| P48-R15 |
BIB-7ADBCA1D9DEAF2F3 |
Angelopoulos and Bates |
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A Gentle Introduction to Conformal Prediction and Distribution-Free
Uncertainty Quantification |
48 |
2 |
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BIB-806684B7B5525655 |
Saito and Rehmsmeier |
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The Precision-Recall Plot Is More Informative than the ROC Plot When
Evaluating Binary Classifiers on Imbalanced Datasets |
48 |
2 |
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BIB-FC4B5E600000F88D |
Brier |
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Verification of Forecasts Expressed in Terms of Probability |
48 |
2 |
| P48-R18 |
BIB-FC4744D71F9BC568 |
Pineau, Vincent-Lamarre, Sinha et al. |
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Improving Reproducibility in Machine Learning Research |
48 |
2 |
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BIB-C9CFC7B45C30A9BE |
Luxonis |
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OAK-D Pro PoE hardware documentation |
49 |
2 |
| P49-R2 |
BIB-EAD88AB2DFFD5673 |
Luxonis |
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DepthAI v3 Pipeline |
49 |
2 |
| P49-R3 |
BIB-6646E85FB651919B |
Luxonis |
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DepthAI v3 Device |
49 |
2 |
| P49-R4 |
BIB-A5D24C3A7788213F |
Luxonis |
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DepthAI v3 stream synchronization example |
49 |
2 |
| P49-R5 |
BIB-B8523C63E6CE7A00 |
Luxonis |
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DepthAI v3 release notes |
49 |
2 |
| P49-R6 |
BIB-8F47DB05522A44DC |
Luxonis |
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DepthAI C++ API: logging and device state |
49 |
2 |
| P49-R7 |
BIB-0D7B16ABAEC85F62 |
NVIDIA |
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Jetson Orin Nano Developer Kit User Guide |
49 |
2 |
| P49-R8 |
BIB-401A00B59E1F0FE1 |
NVIDIA |
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Jetson Orin Nano hardware layout |
49 |
2 |
| P49-R9 |
BIB-5A7A720E6B27DD56 |
NVIDIA |
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Jetson Orin Nano Docker setup |
49 |
2 |
| P49-R10 |
BIB-4A19639E15249457 |
NVIDIA |
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Tegrastats Utility |
49 |
2 |
| P49-R11 |
BIB-F3A26AEE6C4590CB |
NVIDIA |
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Jetson platform power and performance |
49 |
2 |
| P49-R12 |
BIB-A00EEBE1E97F419F |
NVIDIA |
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TensorRT: How TensorRT Works |
49 |
2 |
| P49-R13 |
BIB-08B063B862496C70 |
NVIDIA |
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NVIDIA Container Toolkit overview |
49 |
2 |
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BIB-C8CCF1B030DE291E |
Docker |
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Container resource constraints |
49 |
2 |
| P49-R15 |
BIB-600B52A1ABCE7679 |
Open Container Initiative |
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OCI specifications overview |
49 |
2 |
| P49-R16 |
BIB-18C4805B7C68B97D |
SQLite |
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Write-Ahead Logging |
49 |
2 |
| P49-R17 |
BIB-FEAB8BD69E33D34C |
OpenTelemetry |
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Signals |
49 |
2 |
| P49-R18 |
BIB-EA087A2C08A30923 |
OpenTelemetry |
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Collector |
49 |
2 |
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BIB-F74DC734E2153476 |
OpenTelemetry |
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Collector configuration |
49 |
2 |
| P49-R20 |
BIB-3206CDFB13B04101 |
Prometheus |
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Instrumentation best practices |
49 |
2 |
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BIB-57EC04F246D4DA3A |
systemd |
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System and Service Manager |
49 |
2 |
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BIB-8C2BEF1B332269E2 |
SLSA |
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SLSA specification |
49 |
2 |
| P49-R23 |
BIB-5A8A250322027931 |
Sigstore |
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Cosign quickstart: signing and verification |
49 |
2 |
| P49-R24 |
BIB-D9FC1EE8C67C1059 |
National Institute of Standards and Technology |
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Secure Software Development Framework, NIST SP 800-218 |
49 |
2 |
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BIB-BC97956D7F1B4E22 |
W3C OWL Working Group |
2012 |
OWL 2 Web Ontology Language Document Overview (Second Edition) |
50 |
1 |
| P50-R2 |
BIB-3987FB9A5DE50585 |
W3C |
2009 |
SKOS Simple Knowledge Organization System Reference |
50 |
1 |
| P50-R3 |
BIB-228A92D0D14E654D |
W3C Data Shapes Working Group |
2017 |
Shapes Constraint Language (SHACL) |
50 |
1 |
| P50-R4 |
BIB-62A609EBD3841269 |
W3C Provenance Working Group |
2013 |
PROV-O: The PROV Ontology |
50 |
2 |
| P50-R5 |
BIB-FD157C6E768F4134 |
W3C RDF-star Working Group |
2026 |
RDF 1.2 Concepts and Abstract Data Model |
50 |
1 |
| P50-R6 |
BIB-046BA0D179FCD2E4 |
W3C |
2020 |
JSON-LD 1.1 |
50 |
1 |
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BIB-0C8DE542364F12FA |
W3C |
2024 |
Data Catalog Vocabulary (DCAT) Version 3 |
50 |
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BIB-419122CA6C7C202A |
W3C |
2020 |
Time Ontology in OWL |
50 |
1 |
| P50-R9 |
BIB-B17172C12278A34F |
W3C |
2017 |
Semantic Sensor Network Ontology |
50 |
1 |
| P50-R10 |
BIB-3393E2CE5D8B9D11 |
W3C |
2013 |
SPARQL 1.1 Query Language |
50 |
1 |
| P50-R11 |
BIB-62FE6DC9F424C222 |
W3C |
2014 |
RDF Schema 1.1 |
50 |
1 |
| P50-R12 |
BIB-42EA7F8DA205782F |
W3C |
2008 |
Best Practice Recipes for Publishing RDF Vocabularies |
50 |
1 |
| P50-R13 |
BIB-71DF4C5E26DCB13B |
ISO/IEC |
2021 |
ISO/IEC 21838-1:2021 Top-level ontologies — Part 1:
Requirements |
50 |
1 |
| P50-R14 |
BIB-9224243BFBD97774 |
OBO Foundry |
2024 |
OBO Foundry Principles |
50 |
1 |
| P50-R15 |
BIB-BBC33636E85AE369 |
W3C |
2017 |
Web Annotation Data Model |
50 |
1 |
| P50-R16 |
BIB-6D8A437EC43D83F3 |
W3C |
2011 |
Vocabulary of Interlinked Datasets (VoID) |
50 |
1 |
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BIB-E445D423EE9896CF |
W3C |
2009 |
SKOS Simple Knowledge Organization System Primer |
51 |
2 |
| P51-R2 |
BIB-A861F34AF4F9C204 |
W3C OWL Working Group |
2012 |
OWL 2 Web Ontology Language Primer (Second Edition) |
51 |
2 |
| P51-R3 |
BIB-541394AC9D350A2A |
W3C OWL Working Group |
2012 |
OWL 2 Web Ontology Language Quick Reference Guide (Second
Edition) |
51 |
2 |
| P51-R4 |
BIB-3D9B3E3818B92760 |
W3C Data Shapes Working Group |
2017 |
SHACL Advanced Features |
51 |
2 |
| P51-R5 |
BIB-465CD38A0AC773F1 |
W3C Ontology-Lexica Community Group |
2016 |
Lexicon Model for Ontologies: OntoLex-Lemon |
51 |
2 |
| P51-R6 |
BIB-6B16C3C80280B101 |
ISO |
2011 |
ISO 25964-1:2011 — Thesauri for information retrieval |
51 |
2 |
| P51-R7 |
BIB-9DCF2D98279BC091 |
ISO |
2013 |
ISO 25964-2:2013 — Interoperability with other vocabularies |
51 |
2 |
| P51-R8 |
BIB-E852E1A6A4BB4F02 |
ISO/IEC |
2021 |
ISO/IEC 21838-2:2021 — Basic Formal Ontology (BFO) |
51 |
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| P51-R9 |
BIB-B3F6DC644889F9AC |
James F. Allen |
1983 |
Maintaining Knowledge about Temporal Intervals |
51 |
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| P51-R10 |
BIB-981F90BD4AD7ADC0 |
Object Management Group |
2013 |
Business Process Model and Notation (BPMN), Version 2.0.2 |
51 |
2 |
| P51-R11 |
BIB-498C46B4F8D70A1E |
OBO Foundry |
2026 |
Relation Ontology |
51 |
2 |
| P51-R12 |
BIB-133225F735C0B4EA |
Semantic Mapping Commons |
2026 |
Simple Standard for Sharing Ontological Mappings (SSSOM) |
51 |
2 |
| P52-R1 |
BIB-46F8F5B784928337 |
W3C RDF Working Group |
2014 |
RDF 1.1 Semantics |
52 |
5 |
| P52-R2 |
BIB-69C341A95C82AFC4 |
W3C OWL Working Group |
2012 |
OWL 2 Web Ontology Language Profiles (Second Edition) |
52 |
23 |
| P52-R3 |
BIB-4181397172912904 |
W3C OWL Working Group |
2012 |
OWL 2 Web Ontology Language Direct Semantics (Second Edition) |
52 |
25 |
| P52-R4 |
BIB-A9E2E15BF29937CC |
W3C OWL Working Group |
2012 |
OWL 2 Web Ontology Language Conformance (Second Edition) |
52 |
2 |
| P52-R5 |
BIB-3393E2CE5D8B9D11 |
W3C SPARQL Working Group |
2013 |
SPARQL 1.1 Query Language |
52 |
25 |
| P52-R6 |
BIB-7B933788CEE6AF7E |
W3C SPARQL Working Group |
2013 |
SPARQL 1.1 Entailment Regimes |
52 |
2 |
| P52-R7 |
BIB-228A92D0D14E654D |
W3C Data Shapes Working Group |
2017 |
Shapes Constraint Language (SHACL) |
52 |
21 |
| P52-R8 |
BIB-3D9B3E3818B92760 |
W3C Data Shapes Working Group |
2017 |
SHACL Advanced Features |
52 |
21 |
| P52-R9 |
BIB-EB9296F14BF4A1B3 |
W3C RIF Working Group |
2013 |
RIF Core Dialect (Second Edition) |
52 |
2 |
| P52-R10 |
BIB-6899FACD750F0B94 |
W3C Provenance Working Group |
2013 |
Constraints of the PROV Data Model |
52 |
6 |
| P52-R11 |
BIB-661234931B3A1B7D |
W3C RDF Dataset Canonicalization and Hash Working Group |
2024 |
RDF Dataset Canonicalization |
52 |
4 |
| P52-R12 |
BIB-3987FB9A5DE50585 |
W3C Semantic Web Deployment Working Group |
2009 |
SKOS Simple Knowledge Organization System Reference |
52 |
2 |
| P52-R13 |
BIB-203268B87AC02C68 |
W3C RDF & SPARQL Working Group |
2026 |
RDF 1.2 Semantics — Candidate Recommendation Snapshot |
52 |
2 |
| P52-R14 |
BIB-C46D592B280969DD |
W3C RDF & SPARQL Working Group |
2026 |
SPARQL 1.2 Query Language — Working Draft |
52 |
2 |
| P52-R15 |
BIB-5C0354F84111C952 |
W3C Data Shapes Working Group |
2026 |
SHACL 1.2 Core — Working Draft |
52 |
2 |
| P52-R16 |
BIB-815429FE4ED8D64C |
W3C Data Shapes Working Group |
2026 |
SHACL 1.2 Rules — Working Draft |
52 |
2 |
| P52-R17 |
BIB-419122CA6C7C202A |
W3C Spatial Data on the Web Working Group |
2022 |
Time Ontology in OWL |
52 |
5 |
| P52-R18 |
BIB-3A14A8A06826F1E4 |
W3C RDF Working Group |
2014 |
RDF 1.1 Concepts and Abstract Syntax |
52 |
2 |
| P53-R1 |
BIB-465CD38A0AC773F1 |
W3C Ontology-Lexica Community Group |
2016 |
Lexicon Model for Ontologies: Community Report |
53 |
1 |
| P53-R2 |
BIB-EC40BDD74ECF2B66 |
W3C Ontology-Lexica Community Group |
2019 |
The OntoLex Lemon Lexicography Module |
53 |
2 |
| P53-R3 |
BIB-BF94203BD2CEA000 |
W3C Ontology-Lexica Community Group |
2016 |
OntoLex-Lemon Variation and Translation Module |
53 |
1 |
| P53-R4 |
BIB-D7447B601B6168D1 |
TBX Steering Committee |
2021 |
Purpose of TermBase eXchange (TBX) |
53 |
1 |
| P53-R5 |
BIB-67A6064A48367D24 |
IETF |
2009 |
RFC 5646 — Tags for Identifying Languages (BCP 47) |
53 |
2 |
| P53-R6 |
BIB-D8E1D10E5ED39311 |
IETF |
2006 |
RFC 4647 — Matching of Language Tags |
53 |
1 |
| P53-R7 |
BIB-4B40FE8B4EB788CF |
Unicode Consortium |
2025 |
Unicode CLDR — Language Matching |
53 |
1 |
| P53-R8 |
BIB-3987FB9A5DE50585 |
W3C |
2009 |
SKOS Simple Knowledge Organization System Reference |
53 |
2 |
| P53-R9 |
BIB-3D02FB5BF441A3EA |
CONADE México |
2026 |
Olimpiada Nacional 2026 — Escalada en bloque |
53 |
2 |
| P53-R10 |
BIB-C551776A0D7F7DD8 |
ENALLTerm, Universidad Nacional Autónoma de México |
2024 |
bouldering (escalada en bloque) — ficha terminológica |
53 |
2 |
| P53-R11 |
BIB-585E43BD04378350 |
British Mountaineering Council |
2024 |
Climbing lingo: how to talk the talk |
53 |
2 |
| P53-R12 |
BIB-6C70B0EC885315E1 |
REI Co-op |
2026 |
Rock Climbing Terms and Lingo Guide |
53 |
2 |
| P53-R13 |
BIB-A8405E3031D1428B |
Federación Española de Deportes de Montaña y Escalada |
2017 |
Glosario de términos para los deportes de montaña y escalada |
53 |
2 |
| P53-R14 |
BIB-ABC316D6E008AA49 |
Délégation générale à la langue française et aux langues de
France |
2024 |
Vocabulaire panlatin de l’escalade |
53 |
2 |
| P53-R15 |
BIB-046BA0D179FCD2E4 |
W3C |
2020 |
JSON-LD 1.1 |
53 |
1 |
| P53-R16 |
BIB-91993CA1DFB653E8 |
Unicode Consortium |
2024 |
Unicode Standard Annex #15 — Unicode Normalization Forms |
53 |
1 |
| P53-R17 |
BIB-228A92D0D14E654D |
W3C |
2017 |
Shapes Constraint Language (SHACL) |
53 |
1 |
| P53-R18 |
BIB-62A609EBD3841269 |
W3C |
2013 |
PROV-O: The PROV Ontology |
53 |
2 |
| P54-R1 |
BIB-12DE7D2A5B06991A |
International Organization for Standardization |
2022 |
ISO 704:2022 — Terminology work — Principles and methods |
54 |
2 |
| P54-R2 |
BIB-16764B2CB32696BD |
International Organization for Standardization |
2011 |
ISO 10241-1:2011 — Terminological entries in standards — Part 1:
General requirements and examples of presentation |
54 |
2 |
| P54-R3 |
BIB-56AAEF6E9C03E8F2 |
International Organization for Standardization |
2019 |
ISO 30042:2019 — Management of terminology resources — TermBase
eXchange (TBX) |
54 |
2 |
| P54-R4 |
BIB-853BBCD91470F8AE |
International Organization for Standardization |
2022 |
ISO 12620-1:2022 — Management of terminology resources — Data
categories — Part 1: Specifications |
54 |
2 |
| P54-R5 |
BIB-445079355F532078 |
International Organization for Standardization |
2026 |
ISO/TR 24633-1:2026 — Management of terminology resources —
Companion to TermBase eXchange (TBX) — Part 1: General |
54 |
2 |
| P54-R6 |
BIB-F166BF834C00512B |
W3C Ontology-Lexica Community Group |
2024 |
OntoLex terminology module proposal — definitions, notes and
provenance |
54 |
2 |
| P55-R1 |
BIB-7A49BEE2F8AE3623 |
International Organization for Standardization |
2021 |
ISO 690:2021 — Information and documentation — Guidelines for
bibliographic references and citations to information resources |
55 |
1 |
| P55-R2 |
BIB-30970B9D4863A2DF |
Citation Style Language Project |
2026 |
Citation Style Language 1.0.2 Specification |
55 |
1 |
| P55-R3 |
BIB-BDC5E5A5F33BFE61 |
Crossref |
2026 |
Crossref REST API documentation |
55 |
1 |
| P55-R4 |
BIB-7E6E5072CC01D77C |
DataCite Metadata Working Group |
2026 |
DataCite Metadata Schema Documentation for the Publication and
Citation of Research Data and Other Research Outputs — Version 4.7 |
55 |
1 |
| P55-R5 |
BIB-33A9029B3660FD7C |
Citation File Format Project |
2026 |
Citation File Format specification and documentation |
55 |
1 |
| P56-R1 |
BIB-95B7C37184D7D7AC |
GRADE Working Group |
2026 |
Overview of the GRADE approach |
56 |
1 |
| P56-R2 |
BIB-D7FC8B95F15232EC |
GRADE Working Group |
2026 |
Indirectness |
56 |
1 |
| P56-R3 |
BIB-6A0D58A1FE27B507 |
Sterne et al. |
2019 |
RoB 2: a revised tool for assessing risk of bias in randomised
trials |
56 |
1 |
| P56-R4 |
BIB-1372D46683FA481F |
Sterne et al. |
2016 |
ROBINS-I: a tool for assessing risk of bias in non-randomized
studies of interventions |
56 |
1 |
| P56-R5 |
BIB-45F40C39F3409ED4 |
Whiting et al. |
2026 |
QUADAS-3: A revised tool for the quality assessment of diagnostic
test accuracy studies |
56 |
1 |
| P56-R6 |
BIB-1EDDDD770A903A09 |
Moons et al. |
2025 |
PROBAST+AI: an updated quality, risk of bias, and applicability
assessment tool for prediction models using regression or artificial
intelligence methods |
56 |
1 |
| P56-R7 |
BIB-F3BA1CE9A4E3BF75 |
Collins et al. |
2024 |
TRIPOD+AI statement: updated guidance for reporting clinical
prediction models that use regression or machine learning methods |
56 |
1 |
| P56-R8 |
BIB-126E9D4DDFB72D0F |
Bossuyt et al. |
2015 |
STARD 2015: An Updated List of Essential Items for Reporting
Diagnostic Accuracy Studies |
56 |
1 |
| P56-R9 |
BIB-2C30471B0BA68A44 |
Page et al. |
2021 |
The PRISMA 2020 statement: an updated guideline for reporting
systematic reviews |
56 |
1 |
| P56-R10 |
BIB-351BABD0890D518F |
Rethlefsen et al. |
2021 |
PRISMA-S: an extension to the PRISMA Statement for Reporting
Literature Searches in Systematic Reviews |
56 |
1 |
| P56-R11 |
BIB-5DB1587532D77F0C |
Higgins et al. |
2024 |
Cochrane Handbook for Systematic Reviews of Interventions — Version
6.5 |
56 |
1 |
| P56-R12 |
BIB-D2F3C03BBE5DF16A |
Shea et al. |
2017 |
AMSTAR 2: a critical appraisal tool for systematic reviews that
include randomised or non-randomised studies of healthcare
interventions, or both |
56 |
1 |
| P56-R13 |
BIB-90C50AA364A9CE8E |
Page et al. |
2023 |
ROB-ME: a tool for assessing risk of bias due to missing evidence in
systematic reviews with meta-analysis |
56 |
1 |
| P56-R14 |
BIB-81E90CE22290F073 |
Wilkinson et al. |
2016 |
The FAIR Guiding Principles for scientific data management and
stewardship |
56 |
1 |
| P56-R15 |
BIB-21EA867AD80DD149 |
Crossref |
2026 |
Crossmark — current status, corrections, retractions and
updates |
56 |
1 |
| P56-R16 |
BIB-9CF81847EF903DC8 |
Crossref |
2026 |
Crossmark — registering updates |
56 |
1 |
| P56-R17 |
BIB-85880AFCFD661060 |
AGREE Next Steps Consortium |
2017 |
AGREE II: Appraisal of Guidelines for Research and Evaluation
II |
56 |
1 |