Patrick Baudisch
93 publications
3 venues
h-Index 53
Google's h-Index 78
Affiliation
Hasso Plattner Institut, Potsdam, GermanyLinks
DBLPGoogle Scholar
ORCID- http://www.patrickbaudisch.com/
- https://www.acm.org/articles/people-of-acm/2016/patrick-baudisch
- https://dl.acm.org/profile/81100137268
- https://en.wikipedia.org/wiki/Patrick_Baudisch
- https://www.wikidata.org/entity/Q52714361
- https://mathgenealogy.org/id.php?id=55195
- https://zbmath.org/authors/?q=ai:baudisch.patrick
Additional Information
Achievements
2023 - Research.com Computer Science in Germany Leader Award2014 - ACM Distinguished Member
Google Citations
17457| Name | Venue | Year | citations |
|---|---|---|---|
Kerfmeter: Automatic Kerf Calibration for Laser Cutting.
|
CHI | 2023 | 0 |
| AirTied: Automatic Personal Fabrication of Truss Structures.
|
UIST | 2023 | 0 |
| HingeCore: Laser-Cut Foamcore for Fast Assembly.
|
UIST | 2022 | 1 |
| FoolProofJoint: Reducing Assembly Errors of Laser Cut 3D Models by Means of Custom Joint Patterns.
|
CHI | 2022 | 2 |
| Assembler3: 3D Reconstruction of Laser-Cut Models.
|
CHI | 2021 | 9 |
| Roadkill: Nesting Laser-Cut Objects for Fast Assembly.
|
UIST | 2021 | 4 |
| Trusscillator: a System for Fabricating Human-Scale Human-Powered Oscillating Devices.
|
UIST | 2021 | 2 |
| FastForce: Real-Time Reinforcement of Laser-Cut Structures.
|
CHI | 2021 | 4 |
| autoAssembler: Automatic Reconstruction of Laser-Cut 3D Models.
|
UIST | 2021 | 4 |
| Kerf-Canceling Mechanisms: Making Laser-Cut Mechanisms Operate across Different Laser Cutters.
|
UIST | 2020 | 16 |
| SpringFit: Joints and Mounts that Fabricate on Any Laser Cutter.
|
UIST | 2019 | 18 |
| Kyub: A 3D Editor for Modeling Sturdy Laser-Cut Objects.
|
CHI | 2019 | 32 |
| Understanding Metamaterial Mechanisms.
|
CHI | 2019 | 24 |
| Grafter: Remixing 3D-Printed Machines.
|
CHI | 2018 | 35 |
| Scenograph: Fitting Real-Walking VR Experiences into Various Tracking Volumes.
|
UIST | 2018 | 17 |
| iTurk: Turning Passive Haptics into Active Haptics by Making Users Reconfigure Props in Virtual Reality.
|
CHI | 2018 | 50 |
| Metamaterial Textures.
|
CHI | 2018 | 46 |
| Adding Force Feedback to Mixed Reality Experiences and Games using Electrical Muscle Stimulation.
|
CHI | 2018 | 80 |
| DualPanto: A Haptic Device that Enables Blind Users to Continuously Interact with Virtual Worlds.
|
UIST | 2018 | 9 |
| VirtualSpace - Overloading Physical Space with Multiple Virtual Reality Users.
|
CHI | 2018 | 49 |
| RoMA: Interactive Fabrication with Augmented Reality and a Robotic 3D Printer.
|
CHI | 2018 | 120 |
| TrussFormer: 3D Printing Large Kinetic Structures.
|
UIST | 2018 | 24 |
| TrussFab: Fabricating Sturdy Large-Scale Structures on Desktop 3D Printers.
|
CHI | 2017 | 54 |
| Digital Mechanical Metamaterials.
|
CHI | 2017 | 71 |
| Mutual Human Actuation.
|
UIST | 2017 | 47 |
| Providing Haptics to Walls & Heavy Objects in Virtual Reality by Means of Electrical Muscle Stimulation.
|
CHI | 2017 | 225 |
| Metamaterial Mechanisms.
|
UIST | 2016 | 155 |
| Muscle-plotter: An Interactive System based on Electrical Muscle Stimulation that Produces Spatial Output.
|
UIST | 2016 | 78 |
| Linespace: A Sensemaking Platform for the Blind.
|
CHI | 2016 | 48 |
| Mobile Fabrication.
|
UIST | 2016 | 24 |
| Destructive Games: Creating Value by Destroying Valuable Physical Objects.
|
CHI | 2016 | 17 |
| Skin Drag Displays: Dragging a Physical Tactor across the User's Skin Produces a Stronger Tactile Stimulus than Vibrotactile.
|
CHI | 2015 | 83 |
| Ergonomic Interaction for Touch Floors.
|
CHI | 2015 | 9 |
| Platener: Low-Fidelity Fabrication of 3D Objects by Substituting 3D Print with Laser-Cut Plates.
|
CHI | 2015 | 81 |
| Level-Ups: Motorized Stilts that Simulate Stair Steps in Virtual Reality.
|
CHI | 2015 | 2 |
| Impacto: Simulating Physical Impact by Combining Tactile Stimulation with Electrical Muscle Stimulation.
|
UIST | 2015 | 183 |
| Proprioceptive Interaction.
|
CHI | 2015 | 123 |
| LaserStacker: Fabricating 3D Objects by Laser Cutting and Welding.
|
UIST | 2015 | 51 |
| Affordance++: Allowing Objects to Communicate Dynamic Use.
|
CHI | 2015 | 109 |
| Protopiper: Physically Sketching Room-Sized Objects at Actual Scale.
|
UIST | 2015 | 55 |
| TurkDeck: Physical Virtual Reality Based on People.
|
UIST | 2015 | 142 |
| Patching Physical Objects.
|
UIST | 2015 | 71 |
| faBrickation: fast 3D printing of functional objects by integrating construction kit building blocks.
|
CHI | 2014 | 2 |
| Haptic turk: a motion platform based on people.
|
CHI | 2014 | 80 |
| Kickables: tangibles for feet.
|
CHI | 2014 | 39 |
| WirePrint: 3D printed previews for fast prototyping.
|
UIST | 2014 | 194 |
| LaserOrigami: laser-cutting 3D objects.
|
CHI | 2013 | 36 |
| Fiberio: a touchscreen that senses fingerprints.
|
UIST | 2013 | 93 |
| Imaginary reality gaming: ball games without a ball.
|
UIST | 2013 | 41 |
| Gesture output: eyes-free output using a force feedback touch surface.
|
CHI | 2013 | 60 |
| GravitySpace: tracking users and their poses in a smart room using a pressure-sensing floor.
|
CHI | 2013 | 38 |
| Understanding palm-based imaginary interfaces: the role of visual and tactile cues when browsing.
|
CHI | 2013 | 77 |
| Muscle-propelled force feedback: bringing force feedback to mobile devices.
|
CHI | 2013 | 94 |
| Interactive construction: interactive fabrication of functional mechanical devices.
|
UIST | 2012 | 157 |
| Bootstrapper: recognizing tabletop users by their shoes.
|
CHI | 2012 | 44 |
| CapStones and ZebraWidgets: sensing stacks of building blocks, dials and sliders on capacitive touch screens.
|
CHI | 2012 | 138 |
| 360° panoramic overviews for location-based services.
|
CHI | 2012 | 22 |
| Rock-paper-fibers: bringing physical affordance to mobile touch devices.
|
CHI | 2012 | 10 |
| Imaginary phone: learning imaginary interfaces by transferring spatial memory from a familiar device.
|
UIST | 2011 | 136 |
| Touch input on curved surfaces.
|
CHI | 2011 | 57 |
| Nenya: subtle and eyes-free mobile input with a magnetically-tracked finger ring.
|
CHI | 2011 | 235 |
| Understanding touch.
|
CHI | 2011 | 224 |
| Modular and deformable touch-sensitive surfaces based on time domain reflectometry.
|
UIST | 2011 | 94 |
| Imaginary interfaces: spatial interaction with empty hands and without visual feedback.
|
UIST | 2010 | 205 |
| Lumino: tangible blocks for tabletop computers based on glass fiber bundles.
|
CHI | 2010 | 128 |
| Multitoe: high-precision interaction with back-projected floors based on high-resolution multi-touch input.
|
UIST | 2010 | 116 |
| The generalized perceived input point model and how to double touch accuracy by extracting fingerprints.
|
CHI | 2010 | 265 |
| Touch projector: mobile interaction through video.
|
CHI | 2010 | 274 |
| Disappearing mobile devices.
|
UIST | 2009 | 76 |
| Back-of-device interaction allows creating very small touch devices.
|
CHI | 2009 | 333 |
| Blindsight: eyes-free access to mobile phones.
|
CHI | 2008 | 118 |
| Tapping and rubbing: exploring new dimensions of tactile feedback with voice coil motors.
|
UIST | 2008 | 30 |
| Wedge: clutter-free visualization of off-screen locations.
|
CHI | 2008 | 228 |
| Evaluating visual cues for window switching on large screens.
|
CHI | 2008 | 48 |
| Shift: a technique for operating pen-based interfaces using touch.
|
CHI | 2007 | 479 |
| Lucid touch: a see-through mobile device.
|
UIST | 2007 | 323 |
| Earpod: eyes-free menu selection using touch input and reactive audio feedback.
|
CHI | 2007 | 210 |
| InkSeine:
|
CHI | 2007 | 0 |
| Hover widgets: using the tracking state to extend the capabilities of pen-operated devices.
|
CHI | 2006 | 140 |
| Precise selection techniques for multi-touch screens.
|
CHI | 2006 | 448 |
| Soap: a pointing device that works in mid-air.
|
UIST | 2006 | 63 |
| The springboard: multiple modes in one spring-loaded control.
|
CHI | 2006 | 53 |
| Phosphor: explaining transitions in the user interface using afterglow effects.
|
UIST | 2006 | 125 |
| Design and analysis of delimiters for selection-action pen gesture phrases in scriboli.
|
CHI | 2005 | 192 |
| Snap-and-go: helping users align objects without the modality of traditional snapping.
|
CHI | 2005 | 65 |
| Summary thumbnails: readable overviews for small screen web browsers.
|
CHI | 2005 | 178 |
| Multiblending: displaying overlapping windows simultaneously without the drawbacks of alpha blending.
|
CHI | 2004 | 90 |
| Collapse-to-zoom: viewing web pages on small screen devices by interactively removing irrelevant content.
|
UIST | 2004 | 126 |
| Flat volume control: improving usability by hiding the volume control hierarchy in the user interface.
|
CHI | 2004 | 3 |
| Halo: a technique for visualizing off-screen objects.
|
CHI | 2003 | 386 |
| Keeping things in context: a comparative evaluation of focus plus context screens, overviews, and zooming.
|
CHI | 2002 | 268 |
| Focus plus context screens: combining display technology with visualization techniques.
|
UIST | 2001 | 246 |
| Using a Painting Metaphor to Rate Large Numbers of Objects.
|
HCI | 1999 | 7 |