How to Record Thomas Deininger’s Found Objects Aligning Into a Bird

Record the scene as one fixed assembly seen from changing positions: differing found objects resolve into a bird at a particular viewpoint. Preserve both the separate materials and their visual alignment.

The task is to describe or sketch that precise relationship. A finished bird drawing alone leaves out the objects’ spatial arrangement; an inventory of fragments leaves out their shared image. A useful record connects the two while keeping the assembly fixed throughout the change in view.

What changes when the fragments align?

Thomas Deininger describes his sculptures’ dependence on a precise viewing position in the transcript of the artist interview Waste to Wonder (https://www.pbs.org/video/waste-to-wonder-9ahqdq/). His explanation supports the central distinction to preserve: the appearance changes with perspective. The objects do not need to move relative to one another for the bird image to become recognizable.

The program’s accompanying first-party account describes discarded plastic components that read as birds head-on and become individually apparent from other angles. This establishes the material and viewpoint relationship, without identifying which particular objects belong to the scene being recorded. See Birds Reimagined and Rearranged by Thomas Deininger (https://www.oceanstatemedia.org/arts-entertainment/2024-11-26/birds-reimagined-and-rearranged-by-thomas-deininger).

A related visual concept is anamorphosis. Museo Galileo explains that an anamorphic image becomes coherent from a precise vantage point and appears distorted or unrecognizable elsewhere, including in works constructed on three-dimensional supports. That concept helps describe the viewing geometry here; it supplies no missing details about a particular Deininger bird. See The geometry of illusion: art meets science (https://exhibits.museogalileo.it/geometryillusion/introduction.html).

Keep three observations distinct in the record:

• Assembly: the objects retain their positions relative to one another.

• Viewpoint: the observer’s or camera’s position changes relative to the assembly.

• Appearance: edges, overlaps and visible surfaces resolve into a bird from the aligned position.

Use verbs that preserve those relationships: “overlap,” “line up,” “resolve” and “become visible.” A sentence such as “the fragments move together to form a bird” introduces physical reassembly. Describe the changing view instead.

Establish the two views before adding detail

Begin with a short factual anchor: “Differing found objects form a fixed assembly that appears as a bird from one viewing position.” Then identify the views you can actually record. Call them the “off-axis view” and the “aligned view,” so the labels describe their relationship to the image.

In the off-axis view, record the assembly’s visible extent, its irregular outline and the distinctions between components. In the aligned view, record the bird’s apparent outline and the surfaces that remain visibly object-like within it. Keep the word “bird” at that level unless a more specific identification is supported by the scene.

Avoid treating “aligned” as a synonym for symmetrical or straight-on to the bird’s body. It means the viewpoint from which the components produce the intended likeness. The apparent bird may have an orientation of its own; preserve whatever orientation is visible rather than correcting it into a standard bird pose.

A useful first pass answers these questions:

• Where is the assembly within the visible frame?

• Which edges define its outer extent away from alignment?

• What outline becomes recognizable at alignment?

• Which individual objects or material boundaries remain discernible there?

• What change in viewing position is actually visible or known?

Do not supply a leftward movement, rising camera or complete circuit unless it is established. If only two views are available, describe two views. A transition between them remains unrecorded until there is evidence for its course.

Record material differences without inventing an anatomy map

Describe identifiable objects by name when their identity is clear. Where it is uncertain, use visible properties: curved or angular, smooth or ridged, opaque or translucent, narrow or broad. These descriptions preserve differences among fragments without assigning an unsupported original function.

Keep material identification separate from appearance. “Glossy surface” records a visible quality; “plastic” identifies a material. Deininger’s documented use of discarded plastics provides context, but it does not establish the composition of every indistinct piece in an individual view.

Next, record relationships among the components. Note where an edge passes in front of another, where a surface is partly concealed and where background remains visible between pieces. An overlap establishes a visible front-and-back relationship at that location. It does not reveal the full depth or hidden attachment of either object.

The aligned bird should remain connected to this material description. Its image emerges across the assembly, so avoid assigning every fragment a separate anatomical role. Claims such as “this object is the beak” or “that piece makes the wing” require a clearly observable correspondence. When that correspondence is unavailable, describe the shared contour or color area instead.

An illustrative wording choice is: “Several differently shaped surfaces meet visually along a continuous contour.” This is an example of relational language, not a report of an additional feature in the scene. It explains how to write about alignment without inventing a component-by-component construction plan.

Use a sequence that preserves the fixed assembly

For a sketch record, use separate panels for the views that are available. A useful illustrative layout is three panels: an off-axis view, an intermediate view and the aligned bird. This is a drawing choice, not a claim that the observed scene contains three distinct stages. Include the middle panel only when its appearance can be recorded.

Draw the broad contours first. Add a few distinctive visible components as reference points, then check their appearance across the views. Select those reference points from the scene itself. A conspicuous edge or surface can help connect the panels without requiring an invented object identity.

Place any movement arrow outside the assembly and label it as the change in viewing position. Arrows between fragments would suggest that the objects themselves travel. If the scene shows the entire sculpture rotating, label that rigid rotation instead: the components still retain their relationships within the assembly.

For a written sequence, separate the starting appearance, the observed transition and the aligned result. Explain what becomes more or less visible during the transition only where it can be followed. Do not assume that every edge disappears at once or that every component contributes equally to recognition.

Keep the actual order. If the scene begins with the recognizable bird and then reveals the separate objects, record that order. If it begins off-axis and approaches alignment, preserve that direction. Reversing the sequence for a more dramatic reveal would change the visual event being documented.

Check the spaces as carefully as the objects

Negative-space drawing offers a practical way to check the geometry. Brown University’s drawing exercise asks students to record the spaces around and between a subject’s parts, helping them report the particular view rather than draw a familiar object from expectation. See Negative Space Drawing (https://cs.brown.edu/courses/csci0240/exercises/drawing%20exercises/negative_space/negative_space.htm).

Applied here, that method means checking the visible background between components and around the assembly. Trace those openings before adding small surface details. Compare their shapes across available viewpoints without assuming that every apparent opening runs through the sculpture.

In the aligned view, check the boundary between the bird image and its background. Preserve visible interruptions, protrusions and material edges. Smoothing them into a conventional bird silhouette would remove information about how the found objects participate in the image.

If a sketch makes the assembly look physically flatter than the off-axis view supports, revisit the overlaps. If it makes the aligned bird too tidy, revisit the outer contour and remaining fragment boundaries. These are checks on the drawing against the scene, not reasons to add unseen structure.

Finish with a description that another reader can reconstruct

Read the record once for movement and once for geometry. During the movement pass, check that every verb identifies what changes: viewpoint, whole-assembly orientation or appearance. During the geometry pass, check that material differences, visible overlaps and the aligned outline agree across the description and any sketches.

A compact final check is:

• The found objects remain fixed relative to one another.

• The aligned bird and the off-axis assembly are recognizably two views of the same arrangement.

• Movement direction and intermediate appearances appear only when established.

• Object identities, colors, species and hidden connections have not been supplied from expectation.

• Any illustrative layout or wording is clearly labeled as an example.

The completed record should let a reader hold both appearances together: distinct found objects occupying space, and a bird image that resolves from a particular position. Preserve the viewing relationship, the visible material differences and the observed order of change. Those details carry the scene.

Sources

• Waste to Wonder — Art Inc., PBS (https://www.pbs.org/video/waste-to-wonder-9ahqdq/)

• Birds Reimagined and Rearranged by Thomas Deininger — Ocean State Media (https://www.oceanstatemedia.org/arts-entertainment/2024-11-26/birds-reimagined-and-rearranged-by-thomas-deininger)

• The geometry of illusion: art meets science — Museo Galileo (https://exhibits.museogalileo.it/geometryillusion/introduction.html)

• Negative Space Drawing — Brown University (https://cs.brown.edu/courses/csci0240/exercises/drawing%20exercises/negative_space/negative_space.htm)