UCAREFFECT

Hamdi Ucar Experimental Video Index

Public experimental-video index · Snapshot record

This snapshot contains 223 videos that were publicly available on Hamdi Ucar's channel at capture time. Source metadata, source-derived summaries, and reported variables are retained; inferred taxonomy is labeled separately.

Public channel facts only. Private MAGPIE relationships stay private.

223public video records
3:20:21total runtime
120with speed stated
223audio tracks screened
0audio-only estimates passed 95% gate

Source-platform metadata snapshot

Platform metrics and missing-data status

The platform attention index ranks each item within the captured standard-video or Shorts subset. It is descriptive source-platform metadata, not a measure of scientific quality, validity, or research impact.

See all works, sources & method →
Subscribers
2,810
Summed views
182,111
Available like counts
7,734
Available comment counts
1,287

Snapshot August 14, 2026 · likes unavailable on 2 items · comments unavailable on 52 items

Record structure and evidence status

Information reported for each video

01Reported variables

Source wording is retained. A stated rotational speed may also receive a deterministic conversion between revolutions per minute and revolutions per second.

02Audio screening

All 223 audio tracks were screened; no audio-only estimate met the 95% publication gate. Spectral peaks are not treated as independent shaft-speed measurements because they may represent harmonics, commutation, mains frequency, floator motion, or recording aliases.

03Source-described outcome

The qualitative summary is derived from the public title or description. Quantitative source statements and inferred classifications remain separately identified.

04Representative frame

The displayed frame is selected from within the archived video and is not a generic channel thumbnail.

Experimental video index

Search video records

223 of 223 records

01:08 · Short
Published Dec 14, 2024658 views at snapshot

Bipolar alignment of an electrical coil with an static magnetic field

Shows behavior of an electrical coil having motional degrees of freedom driven by an AC signal (60 Hz) having a small DC component subject to a static magnetic field. Since the coil has a DC component, the oscillatory magnetic field has non-zero time average.

Coil / static-field alignmentBare magnetLevitation / trapping
Platform attention46.1descriptive only
Views
658
Likes
18
Comments
2
Variables, analysis & source notes

Stated variables

Frequency
60 Hz
Angle
about 135° · 180° · about 90°
Geometry
Dipole
Source excerpts

This setup allows the coil to be aligned both in parallel and anti-parallel with the external field depending on its initial orientation with respect to its static field component

Summary provenance: Extracted from the public YouTube description; unstated values are not inferred.

Taxonomy provenance: Rule-based classification from the public title and description.

Publication: YouTube · Dec 14, 2024

Platform-metric coverage: views, likes, comments. The platform attention index is relative to the captured standard-video or Shorts subset and is not a measure of scientific quality, validity, or impact.

Source metadata on YouTube ↗
00:39 · Short
Published May 19, 20241,202 views at snapshot

A Vibration free magnetic trapping solution

A reproduction of vibration free magnetic trapping scheme discovered by Colin McNamara (@mcnamara_colin) based on the rotating quadrupole scheme (Also reproduced next by Daniel Paschall. In this realization the floating magnet (5 mm sphere) is not totally motionless, however.

Rotating quadrupoleBare magnetLow-motion lock
Platform attention76.2descriptive only
Views
1,202
Likes
52
Comments
7
Variables, analysis & source notes

Stated variables

Dimensions
5 mm
Geometry
quadrupole · sphere · dipole
Source excerpts

A reproduction of vibration free magnetic trapping scheme discovered by Colin McNamara (@mcnamara_colin) based on the rotating quadrupole scheme (Also reproduced next by Daniel Paschall In this realization the floating magnet (5 mm sphere) is not totally motionless, however

Summary provenance: Extracted from the public YouTube description; unstated values are not inferred.

Taxonomy provenance: Rule-based classification from the public title and description.

Publication: YouTube · May 19, 2024

Platform-metric coverage: views, likes, comments. The platform attention index is relative to the captured standard-video or Shorts subset and is not a measure of scientific quality, validity, or impact.

Source metadata on YouTube ↗
00:40 · Short
Published Nov 22, 2023824 views at snapshot

Motion of a freely rotating cylindrical magnet under magnetic bound state

A simulation result of motion of a free magnet subject a rotating magnetic field inducing a large amplitude (70.74°) angular oscillation. Rendering allows to see the magnet is also rotates around its own axis despite the blue mark on its side is kept visible.

Single rotating dipoleBare magnetVisible spin
Platform attention66.2descriptive only
Views
824
Likes
32
Comments
5
Variables, analysis & source notes

Stated variables

Angle
70.74°
Geometry
cylindrical · dipole
Source excerpts

Rendering allows to see the magnet is also rotates around its own axis despite the blue mark on its side is kept visible

Summary provenance: Extracted from the public YouTube description; unstated values are not inferred.

Taxonomy provenance: Rule-based classification from the public title and description.

Publication: YouTube · Nov 22, 2023

Platform-metric coverage: views, likes, comments. The platform attention index is relative to the captured standard-video or Shorts subset and is not a measure of scientific quality, validity, or impact.

Source metadata on YouTube ↗
00:07 · Short
Published Oct 24, 20232,440 views at snapshot

How we can decide whether a cylinder has a rotation around its axis or not?

If we rotate it on the vertical axis by twisting the thread , how can we decide whether the pen also rotates around its own axis? It should have some, since when the pen orientation approach to vertical, we would definitely say it is spinning around its own axis (also have a circular motion because thread it attached to the side of the pen, but not to its center).

Driver not specifiedBare magnetLevitation / trapping
Platform attention63.6descriptive only
Views
2,440
Likes
18
Comments
Unavailable
Variables, analysis & source notes

Stated variables

Angle
45 degrees
Geometry
cylinder
Source excerpts

Imagine a pen or a long cylinder hanging from its middle of its length with a thread but with an angle If we rotate it on the vertical axis by twisting the thread , how can we decide whether the pen also rotates around its own axis? It should have some, since when the pen orientation approach to vertical, we would definitely say it is spinning around its own axis (also have a circular motion because thread it attached to the side of the pen, but not to its center)

Summary provenance: Extracted from the public YouTube description; unstated values are not inferred.

Taxonomy provenance: Rule-based classification from the public title and description.

Publication: YouTube · Oct 24, 2023

Platform-metric coverage: views, likes; comments unavailable. The platform attention index is relative to the captured standard-video or Shorts subset and is not a measure of scientific quality, validity, or impact.

Source metadata on YouTube ↗
01:05 · Video
Experiment Oct 24, 2023701 views at snapshot

Simulation of angular motion of a magnet exposed to a rotating field

In this rigid body simulation, a magnet (floator) having uniform moments of inertia is exposed to a uniform rotating magnetic field which having radial ( B_r,⊥ ) and axial ( B_r,z ) components. We want to obtain a fully symmetric motion around the rotating field axis, therefore the interaction could be evaluated as a static case within a frame of reference co-rotating with the field.

Simulation / modelSimulated bodyVisible spin
Platform attention71.2descriptive only
Views
701
Likes
32
Comments
14
Variables, analysis & source notes

Stated variables

Mass
8 kg
Geometry
radial · axial · dipole
Source excerpts

In this rigid body simulation, a magnet (floator) having uniform moments of inertia is exposed to a uniform rotating magnetic field which having radial ( B_r,⊥ ) and axial ( B_r,z ) components We want to obtain a fully symmetric motion around the rotating field axis, therefore the interaction could be evaluated as a static case within a frame of reference co-rotating with the field We want also the floator do not rotate around its dipole axis in a way, so we can see a mark placed on its side do not circle

Summary provenance: Extracted from the public YouTube description; unstated values are not inferred.

Taxonomy provenance: Rule-based classification from the public title and description.

Experiment date: date token parsed from the channel title.

Publication: YouTube · Oct 24, 2023

Platform-metric coverage: views, likes, comments. The platform attention index is relative to the captured standard-video or Shorts subset and is not a measure of scientific quality, validity, or impact.

Source metadata on YouTube ↗
00:28 · Video
Experiment Jun 13, 20232,012 views at snapshot

The Gluon Setup

The setup is made and run by Daniel Paschall. Its design arguments are covered at Trapping a magnet in air using a rotating dipole field is an effect discovered in 2015 by the researcher credited below and classified as a magnetic bound state.

Single rotating dipoleBare magnetLevitation / trapping
Platform attention89.0descriptive only
Views
2,012
Likes
75
Comments
28
Variables, analysis & source notes

Stated variables

Geometry
dipole

Summary provenance: Extracted from the public YouTube description; unstated values are not inferred.

Taxonomy provenance: Rule-based classification from the public title and description.

Experiment date: date token parsed from the channel title.

Publication: YouTube · Jun 13, 2023

Platform-metric coverage: views, likes, comments. The platform attention index is relative to the captured standard-video or Shorts subset and is not a measure of scientific quality, validity, or impact.

Source metadata on YouTube ↗
00:58 · Short
Experiment Mar 6, 20231,432 views at snapshot

A magnetic bound state solution

A crystal parrot figure (232 gr) is locked in air using rotating magnetic field technique. Note that camera frame rate only slows down the fast rotations and oscillations but not the spin of parrot.

Single rotating dipoleBare magnetLevitation / trapping
Platform attention86.8descriptive only
Views
1,432
Likes
99
Comments
10
Variables, analysis & source notes

Stated variables

Speed
~3900 RPMEquivalent: ~65 rev/s
Dimensions
one inch
Mass
232 gr
Material
neodymium · N42
Motor / driver
DC motor
Geometry
sphere · dipole
Source excerpts

A crystal parrot figure (232 gr) is locked in air using rotating magnetic field technique This field is obtained by a neodymium (grade N42) one inch diameter sphere dipole magnet attached to a DC motor running at ~3900 RPM While both parts are vibrating strongly at frequency of the motor, these vibrations appears slowed down in the recording due the frame rate of the camera (60 fps) is close to the motor speed

Summary provenance: Extracted from the public YouTube description; unstated values are not inferred.

Taxonomy provenance: Rule-based classification from the public title and description.

Experiment date: date token parsed from the channel title.

Publication: YouTube · Mar 5, 2023

Platform-metric coverage: views, likes, comments. The platform attention index is relative to the captured standard-video or Shorts subset and is not a measure of scientific quality, validity, or impact.

Source metadata on YouTube ↗
00:51 · Short
Experiment Mar 5, 2023487 views at snapshot

A bird and butterfly on a blossom tree inside a levitated ornement

Trapping a magnet in air using a rotating dipole field is an effect discovered in 2015 by the researcher credited below and classified as a magnetic bound state.

Single rotating dipoleAttached objectLevitation / trapping
Platform attention58.2descriptive only
Views
487
Likes
34
Comments
4
Variables, analysis & source notes

Stated variables

Geometry
dipole

Summary provenance: Extracted from the public YouTube description; unstated values are not inferred.

Taxonomy provenance: Rule-based classification from the public title and description.

Experiment date: date token parsed from the channel title.

Publication: YouTube · Mar 5, 2023

Platform-metric coverage: views, likes, comments. The platform attention index is relative to the captured standard-video or Shorts subset and is not a measure of scientific quality, validity, or impact.

Source metadata on YouTube ↗
00:53 · Short
Experiment Feb 20, 20231,077 views at snapshot

Translational oscillation of a floating body under magnetic bound state

This video features a magnetic body (a magnet glued a stem of a broken vine glass) trapped in air by a rotating dipole magnet attached to a motor spinning between 3560 and 3600 RPM. This allows to see motion of the floating body and the driving magnetic assembly in slow motion or standing still.

Single rotating dipoleComposite assemblyAngular oscillation
Platform attention75.4descriptive only
Views
1,077
Likes
55
Comments
5
Variables, analysis & source notes

Stated variables

Speed
3560 and 3600 RPMEquivalent: 59.3 and 60 rev/s
Geometry
dipole
Source excerpts

This video features a magnetic body (a magnet glued a stem of a broken vine glass) trapped in air by a rotating dipole magnet attached to a motor spinning between 3560 and 3600 RPM

Summary provenance: Extracted from the public YouTube description; unstated values are not inferred.

Taxonomy provenance: Rule-based classification from the public title and description.

Experiment date: date token parsed from the channel title.

Publication: YouTube · Feb 19, 2023

Platform-metric coverage: views, likes, comments. The platform attention index is relative to the captured standard-video or Shorts subset and is not a measure of scientific quality, validity, or impact.

Source metadata on YouTube ↗
00:39 · Short
Experiment Feb 20, 2023572 views at snapshot

Kind of application

Trapping a magnet in air using a rotating dipole field is an effect discovered in 2015 by the researcher credited below and classified as a magnetic bound state.

Single rotating dipoleBare magnetLevitation / trapping
Platform attention58.1descriptive only
Views
572
Likes
49
Comments
1
Variables, analysis & source notes

Stated variables

Geometry
dipole

Summary provenance: Extracted from the public YouTube description; unstated values are not inferred.

Taxonomy provenance: Rule-based classification from the public title and description.

Experiment date: date token parsed from the channel title.

Publication: YouTube · Feb 20, 2023

Platform-metric coverage: views, likes, comments. The platform attention index is relative to the captured standard-video or Shorts subset and is not a measure of scientific quality, validity, or impact.

Source metadata on YouTube ↗
00:53 · Short
Experiment Feb 19, 2023400 views at snapshot

Stroboscopic view of a magnetic bound state solution

Trapping a magnet in air using a rotating dipole field is an effect discovered in 2015 by the researcher credited below and classified as a magnetic bound state.

Single rotating dipoleBare magnetLevitation / trapping
Platform attention46.2descriptive only
Views
400
Likes
25
Comments
4
Variables, analysis & source notes

Stated variables

Geometry
dipole

Summary provenance: Extracted from the public YouTube description; unstated values are not inferred.

Taxonomy provenance: Rule-based classification from the public title and description.

Experiment date: date token parsed from the channel title.

Publication: YouTube · Feb 19, 2023

Platform-metric coverage: views, likes, comments. The platform attention index is relative to the captured standard-video or Shorts subset and is not a measure of scientific quality, validity, or impact.

Source metadata on YouTube ↗
02:26 · Video
Experiment Feb 15, 20231,486 views at snapshot

Magnetically chained rigid bodies floating in air

A one inch spherical dipole magnet attached to DC motor rotating in 6360 RPM is holding a magnetic assembly consisting two ⌀15×15 mm cylindrical magnets and a steel cylender (⌀15.5×27 mm) in the middle where the top magnet is oriented axially and the bottom radially respect to motor axis. This assemby spins at speed of the motor.

Single rotating dipoleMultiple / chained bodiesLevitation / trapping
Platform attention89.0descriptive only
Views
1,486
Likes
68
Comments
26
Variables, analysis & source notes

Stated variables

Speed
6360 RPMEquivalent: 106 rev/s
Dimensions
one inch · ⌀15×15 mm · ⌀15.5×27 mm · ⌀15 mm
Material
steel
Motor / driver
DC motor
Geometry
spherical · dipole · cylindrical · axially · radially · sphere
Source excerpts

A one inch spherical dipole magnet attached to DC motor rotating in 6360 RPM is holding a magnetic assembly consisting two ⌀15×15 mm cylindrical magnets and a steel cylender (⌀15.5×27 mm) in the middle where the top magnet is oriented axially and the bottom radially respect to motor axis This assemby spins at speed of the motor Another magnet (a ⌀15 mm sphere) is trapped in air by the first magnetic assembly

Summary provenance: Extracted from the public YouTube description; unstated values are not inferred.

Taxonomy provenance: Rule-based classification from the public title and description.

Experiment date: date token parsed from the channel title.

Publication: YouTube · Apr 9, 2023

Platform-metric coverage: views, likes, comments. The platform attention index is relative to the captured standard-video or Shorts subset and is not a measure of scientific quality, validity, or impact.

Source metadata on YouTube ↗
00:46 · Short
Experiment Feb 14, 2023985 views at snapshot

Magnetically chained rigid bodies floating in air

A one inch spherical dipole magnet attached to DC motor rotating in 4800 ‐ 5400 RPM range is holding a magnetic assembly consisting two ⌀15×15 mm cylindrical magnets and a steel cylender (⌀15.5×27 mm) in the middle where the top magnet is oriented axially and the bottom radially respect to motor axis. This assemby spins at speed of the motor.

Single rotating dipoleMultiple / chained bodiesLevitation / trapping
Platform attention84.9descriptive only
Views
985
Likes
72
Comments
21
Variables, analysis & source notes

Stated variables

Speed
5400 RPMEquivalent: 90 rev/s
Dimensions
one inch · ⌀15×15 mm · ⌀15.5×27 mm · 10 mm
Material
steel
Motor / driver
DC motor
Geometry
spherical · dipole · cylindrical · axially · radially
Source excerpts

A one inch spherical dipole magnet attached to DC motor rotating in 4800 ‐ 5400 RPM range is holding a magnetic assembly consisting two ⌀15×15 mm cylindrical magnets and a steel cylender (⌀15.5×27 mm) in the middle where the top magnet is oriented axially and the bottom radially respect to motor axis This assemby spins at speed of the motor Another magnet (a 10 mm cube) is trapped in air by the first magnetic assembly

Summary provenance: Extracted from the public YouTube description; unstated values are not inferred.

Taxonomy provenance: Rule-based classification from the public title and description.

Experiment date: date token parsed from the channel title.

Publication: YouTube · Feb 14, 2023

Platform-metric coverage: views, likes, comments. The platform attention index is relative to the captured standard-video or Shorts subset and is not a measure of scientific quality, validity, or impact.

Source metadata on YouTube ↗
02:04 · Video
Experiment Feb 13, 20231,309 views at snapshot

Half filled flask with water

The motor speed is close 3600 RPM (60 rev/s) which match to camera frame rate. This freezes the motor rotation as well as the oscillatory motion of flask allowing to see the syncronization between these two movements.

Single rotating dipoleFluid / submergedLevitation / trapping
Platform attention86.2descriptive only
Views
1,309
Likes
69
Comments
18
Variables, analysis & source notes

Stated variables

Speed
3600 RPMEquivalent: 60 rev/s
Geometry
dipole
Source excerpts

The motor speed is close 3600 RPM (60 rev/s) which match to camera frame rate This freezes the motor rotation as well as the oscillatory motion of flask allowing to see the syncronization between these two movements

Summary provenance: Extracted from the public YouTube description; unstated values are not inferred.

Taxonomy provenance: Rule-based classification from the public title and description.

Experiment date: date token parsed from the channel title.

Publication: YouTube · Feb 12, 2023

Platform-metric coverage: views, likes, comments. The platform attention index is relative to the captured standard-video or Shorts subset and is not a measure of scientific quality, validity, or impact.

Source metadata on YouTube ↗
01:13 · Video
Experiment Feb 13, 2023778 views at snapshot

(20230213 000051)

Trapping a magnet in air using a rotating dipole field is an effect discovered in 2015 by the researcher credited below and classified as a magnetic bound state.

Single rotating dipoleBare magnetLevitation / trapping
Platform attention62.2descriptive only
Views
778
Likes
20
Comments
8
Variables, analysis & source notes

Stated variables

Geometry
dipole

Summary provenance: Extracted from the public YouTube description; unstated values are not inferred.

Taxonomy provenance: Rule-based classification from the public title and description.

Experiment date: date token parsed from the channel title.

Publication: YouTube · Feb 12, 2023

Platform-metric coverage: views, likes, comments. The platform attention index is relative to the captured standard-video or Shorts subset and is not a measure of scientific quality, validity, or impact.

Source metadata on YouTube ↗
01:08 · Video
Experiment Feb 12, 2023736 views at snapshot

Levitation of a small glass plate

Motor speed is about 3000 RPM. Trapping a magnet in air using a rotating dipole field is an effect discovered in 2015 by the researcher credited below and classified as a magnetic bound state.

Single rotating dipoleAttached objectLevitation / trapping
Platform attention56.8descriptive only
Views
736
Likes
25
Comments
2
Variables, analysis & source notes

Stated variables

Speed
about 3000 RPMEquivalent: about 50 rev/s
Geometry
dipole
Source excerpts

Motor speed is about 3000 RPM

Summary provenance: Extracted from the public YouTube description; unstated values are not inferred.

Taxonomy provenance: Rule-based classification from the public title and description.

Experiment date: date token parsed from the channel title.

Publication: YouTube · Feb 12, 2023

Platform-metric coverage: views, likes, comments. The platform attention index is relative to the captured standard-video or Shorts subset and is not a measure of scientific quality, validity, or impact.

Source metadata on YouTube ↗
00:53 · Short
Experiment Feb 12, 2023408 views at snapshot

Sea Shell

Trapping a magnet in air using a rotating dipole field is an effect discovered in 2015 by the researcher credited below and classified as a magnetic bound state.

Single rotating dipoleAttached objectLevitation / trapping
Platform attention29.6descriptive only
Views
408
Likes
13
Comments
Unavailable
Variables, analysis & source notes

Stated variables

Geometry
dipole

Summary provenance: Extracted from the public YouTube description; unstated values are not inferred.

Taxonomy provenance: Rule-based classification from the public title and description.

Experiment date: date token parsed from the channel title.

Publication: YouTube · Feb 12, 2023

Platform-metric coverage: views, likes; comments unavailable. The platform attention index is relative to the captured standard-video or Shorts subset and is not a measure of scientific quality, validity, or impact.

Source metadata on YouTube ↗
00:58 · Short
Experiment Feb 12, 2023387 views at snapshot

(20230212 235349)

Trapping a magnet in air using a rotating dipole field is an effect discovered in 2015 by the researcher credited below and classified as a magnetic bound state.

Single rotating dipoleBare magnetLevitation / trapping
Platform attention39.4descriptive only
Views
387
Likes
20
Comments
Unavailable
Variables, analysis & source notes

Stated variables

Geometry
dipole

Summary provenance: Extracted from the public YouTube description; unstated values are not inferred.

Taxonomy provenance: Rule-based classification from the public title and description.

Experiment date: date token parsed from the channel title.

Publication: YouTube · Feb 13, 2023

Platform-metric coverage: views, likes; comments unavailable. The platform attention index is relative to the captured standard-video or Shorts subset and is not a measure of scientific quality, validity, or impact.

Source metadata on YouTube ↗
00:59 · Short
Experiment Jan 27, 2023700 views at snapshot

Stroboscopic view of a magnetic bound state dynamics (20230127 222856 YC)

This video gives a stroboscopic view of a magnetic bound state dynamics. The object seen at the side of the driving assembly is a magnetically held magnet piece which improve the strength of the trapping mechanism and also serves to mark the position of a pole.

Single rotating dipoleBare magnetLevitation / trapping
Platform attention74.2descriptive only
Views
700
Likes
57
Comments
7
Variables, analysis & source notes

Stated variables

Speed
close to 60 rev/secEquivalent: close to 3,600 RPM
Geometry
dipole

Direct source statement with spectral consistency check

Speed analysis

high confidence

≈3,600 RPMclose to 60 rev/s

Target
drive motor / rotating driving assembly
Confidence
Hamdi directly states the motor rate; RPM is an exact unit conversion, and the archived soundtrack independently contains the matching stable line.
Spectral consistency
60.041 Hz · 81.32% temporal presence

The audio agrees with the direct text but does not establish the motor rate by itself.

A 60 Hz line overlaps mains frequency, so the public statement—not the spectrum—is authoritative.

Source excerpts

Stroboscopic view is obtained by adjusting speed of the motor close to 60 rev/sec

Summary provenance: Extracted from the public YouTube description; unstated values are not inferred.

Taxonomy provenance: Rule-based classification from the public title and description.

Experiment date: date token parsed from the channel title.

Publication: YouTube · Jun 20, 2023

Platform-metric coverage: views, likes, comments. The platform attention index is relative to the captured standard-video or Shorts subset and is not a measure of scientific quality, validity, or impact.

Source metadata on YouTube ↗
00:30 · Short
Experiment Jan 27, 2023582 views at snapshot

Rotating small bunch of kindling in air

Trapping a magnet in air using a rotating dipole field is an effect discovered in 2015 by the researcher credited below and classified as a magnetic bound state.

Single rotating dipoleAttached objectVisible spin
Platform attention64.6descriptive only
Views
582
Likes
31
Comments
6
Variables, analysis & source notes

Stated variables

Geometry
dipole

Summary provenance: Extracted from the public YouTube description; unstated values are not inferred.

Taxonomy provenance: Rule-based classification from the public title and description.

Experiment date: date token parsed from the channel title.

Publication: YouTube · Jan 27, 2023

Platform-metric coverage: views, likes, comments. The platform attention index is relative to the captured standard-video or Shorts subset and is not a measure of scientific quality, validity, or impact.

Source metadata on YouTube ↗
00:08 · Short
Experiment Jan 27, 2023283 views at snapshot

Slow motion of magnetic bound state of an onion

Slow motion (960 fps) of magnetic bound state of an onion as payload. Motor speed is 3000 RPM and the floating object weigh 98.4 gr together with the glued ring magnet ⌀19×4 mm.

Single rotating dipoleAttached objectLoad-bearing lock
Platform attention27.1descriptive only
Views
283
Likes
16
Comments
1
Variables, analysis & source notes

Stated variables

Speed
3000 RPMEquivalent: 50 rev/s
Dimensions
⌀19×4 mm
Mass
98.4 gr
Geometry
ring magnet · dipole
Source excerpts

Motor speed is 3000 RPM and the floating object weigh 98.4 gr together with the glued ring magnet ⌀19×4 mm

Summary provenance: Extracted from the public YouTube description; unstated values are not inferred.

Taxonomy provenance: Rule-based classification from the public title and description.

Experiment date: date token parsed from the channel title.

Publication: YouTube · Jan 27, 2023

Platform-metric coverage: views, likes, comments. The platform attention index is relative to the captured standard-video or Shorts subset and is not a measure of scientific quality, validity, or impact.

Source metadata on YouTube ↗
01:00 · Short
Experiment Jan 25, 2023490 views at snapshot

Magnetic bound state experiments using organic materials

A garlic glued to a piece of magnet levitated using a rotating magnetic field generated by a sphere magnet (⌀25.4 mm, NdFeB/N42) attached to a DC motor (RS-385) running at ~3100 RPM. The levitated weight is about 49.5 gr.

Single rotating dipoleBare magnetLevitation / trapping
Platform attention49.5descriptive only
Views
490
Likes
27
Comments
2
Variables, analysis & source notes

Stated variables

Speed
~3100 RPMEquivalent: ~51.7 rev/s
Dimensions
⌀25.4 mm
Mass
49.5 gr
Material
NdFeB/N42
Motor / driver
DC motor · RS-385
Geometry
sphere · dipole
Source excerpts

A garlic glued to a piece of magnet levitated using a rotating magnetic field generated by a sphere magnet (⌀25.4 mm, NdFeB/N42) attached to a DC motor (RS-385) running at ~3100 RPM The levitated weight is about 49.5 gr

Summary provenance: Extracted from the public YouTube description; unstated values are not inferred.

Taxonomy provenance: Rule-based classification from the public title and description.

Experiment date: date token parsed from the channel title.

Publication: YouTube · Jan 25, 2023

Platform-metric coverage: views, likes, comments. The platform attention index is relative to the captured standard-video or Shorts subset and is not a measure of scientific quality, validity, or impact.

Source metadata on YouTube ↗
00:47 · Short
Experiment Jan 22, 2023562 views at snapshot

Spinning garlic in air

A stack of two small sized garlics glued to a ring magnet levitated using a rotating magnetic field generated by a sphere magnet (⌀25.4 mm, NdFeB/N42) attached to a DC motor (RS-385) running at ~3200 RPM. The levitated weight is about 49 gr.

Single rotating dipoleAttached objectVisible spin
Platform attention40.7descriptive only
Views
562
Likes
19
Comments
1
Variables, analysis & source notes

Stated variables

Speed
~3200 RPMEquivalent: ~53.3 rev/s
Dimensions
⌀25.4 mm
Mass
49 gr
Material
NdFeB/N42
Motor / driver
DC motor · RS-385
Geometry
ring magnet · sphere · dipole
Source excerpts

A stack of two small sized garlics glued to a ring magnet levitated using a rotating magnetic field generated by a sphere magnet (⌀25.4 mm, NdFeB/N42) attached to a DC motor (RS-385) running at ~3200 RPM The levitated weight is about 49 gr

Summary provenance: Extracted from the public YouTube description; unstated values are not inferred.

Taxonomy provenance: Rule-based classification from the public title and description.

Experiment date: date token parsed from the channel title.

Publication: YouTube · Jan 22, 2023

Platform-metric coverage: views, likes, comments. The platform attention index is relative to the captured standard-video or Shorts subset and is not a measure of scientific quality, validity, or impact.

Source metadata on YouTube ↗
02:46 · Video
Experiment Dec 27, 2022381 views at snapshot

Magnetic levitation with whirlpool, spin and lotta shaking

A stack of two ring magnet mounted on a small conical lab flask half filled with 30 cc distilled water is levitated using a rotating magnetic field generated by a sphere magnet (⌀25.4 mm, NdFeB/N42) attached to a DC motor (RS-385) running at ~3200 RPM. The levitated weight is about 88 gr.

Single rotating dipoleFluid / submergedVisible spin
Platform attention55.9descriptive only
Views
381
Likes
26
Comments
9
Variables, analysis & source notes

Stated variables

Speed
~3200 RPMEquivalent: ~53.3 rev/s
Dimensions
30 cc · ⌀25.4 mm
Mass
88 gr
Material
NdFeB/N42
Motor / driver
DC motor · RS-385
Geometry
ring magnet · sphere · dipole
Source excerpts

A stack of two ring magnet mounted on a small conical lab flask half filled with 30 cc distilled water is levitated using a rotating magnetic field generated by a sphere magnet (⌀25.4 mm, NdFeB/N42) attached to a DC motor (RS-385) running at ~3200 RPM The levitated weight is about 88 gr

Summary provenance: Extracted from the public YouTube description; unstated values are not inferred.

Taxonomy provenance: Rule-based classification from the public title and description.

Experiment date: date token parsed from the channel title.

Publication: YouTube · Dec 26, 2022

Platform-metric coverage: views, likes, comments. The platform attention index is relative to the captured standard-video or Shorts subset and is not a measure of scientific quality, validity, or impact.

Source metadata on YouTube ↗
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