Engis Equipment Co. v. United States

62 Cust. Ct. 29, 294 F. Supp. 964, 1969 Cust. Ct. LEXIS 3682
CourtUnited States Customs Court
DecidedJanuary 20, 1969
DocketC.D. 3670
StatusPublished
Cited by15 cases

This text of 62 Cust. Ct. 29 (Engis Equipment Co. v. United States) is published on Counsel Stack Legal Research, covering United States Customs Court primary law. Counsel Stack provides free access to over 12 million legal documents including statutes, case law, regulations, and constitutions.

Bluebook
Engis Equipment Co. v. United States, 62 Cust. Ct. 29, 294 F. Supp. 964, 1969 Cust. Ct. LEXIS 3682 (cusc 1969).

Opinion

Maletz, Judge:

The importations in this case consist of auto-collimators which were invoiced as “Optical assemblies modified without electrical equipment * * * suitable for assembly with electrical parts into a complete precision autocollimator * * They were classified by the collector as optical measuring instruments under [30]*30paragraph 228(a) of the Tariff Act of 1930, as modified, and assessed with duty at the rate of 50 percent ad valorem.

Plaintiff’s claim is that the collector’s classification is erroneous and that the autocollimators are properly classifiable under paragraph 360 of the act, as modified, as scientific or laboratory instruments dutiable at 251/2 percent ad valorem. Alternatively it is claimed that the imports are properly classifiable under paragraph 353 of the act, as modified, as articles having as an essential feature an electrical element or device dutiable at 13% percent ad valorem.

Quoted below are the tariff provisions involved:

Classified under:
Paragraph 228(a) of the Tariff Act of 1930, as modified by T.D. 52739 and supplemented by T.D. 52820: _
* * * optical measuring or optical testing instruments, * * * frames and mountings therefor, and parts of any of the foregoing; all the foregoing, finished or unfinished_50% ad val.
Claimed under:
Paragraph 360 of the Tariff Act of 1930, as modified by T.D. 54108:
Scientific and laboratory instruments, apparatus, utensils, appliances (including mathematical instruments but not including surveying instruments), and parts thereof, wholly or in chief value of metal, and not plated with gold, silver, or platinum, finished or unfinished, not specially provided for:
****** *
Other (except * * * )_25%% ad val.
Paragraph 353 of the Tariff Act of 1930, as modified by T.D. 52739 and supplemented by T.D. 52820:
Articles having as an essential feature an electrical element or device, such as electric motors, fans, locomotives, portable tools, furnaces, heaters, ovens, ranges, washing machines, refrigerators, and signs, finished or unfinished, wholly or in chief value of metal and not specially provided for:
•I» ‡ ^ ‡ $
Other (except * * )-13%% ad val.

We now consider the facts in the case as established in the record,1 observing at the outset that an autocollimator is an instrument which is used to determine the flatness or straightness of a surface by ob[31]*31taining angular measurements that are then converted into linear values. In lateral profile, the instrument is a horizontally oriented tube-like structure that is mounted on a metal base or cradle. Its principal functional components consist of an eyepiece, a micrometer unit, a collimator tube or telescope, certain glass elements, an electrical system, and (presumably) a mirror.

As to the functions of the various components, the first segment, starting at the left end of the tube, is a microscopic unit which includes a glass-element eyepiece that operates in conjunction with an adjacent micrometer unit.2 The micrometer unit houses a filar plate, i.e., a glass surface on which is drawn a network of lines known as the reticle that is brought into focus by the eyepiece. The lines and spaces between the lines represent linear units of measurement that correspond to the angular values the autocollimator is intended to define.

The next segment is a cylindrical collimator (or telescope) section whose function is the emission of a beam of parallel rays of light. To accomplish this objective, the collimator is focused at infinity. At the top and left-most portion of the cylindrical collimator is an electrical element that contains a light bulb. (The electrical components are domestically produced and are inserted after importation of the auto-collimator.)

The instrument is built on a flat base with leveling screws so that it can be laid on a flat surface, level to a given plane and a mirror moved in front of it. An image of the graduated reticle, illuminated by the light source, leaves the collimator as parallel rays of light. These parallel rays are then reflected back into the collimator by means of the mirror, and the reticle image is thereby returned to and focused on the glass filar plate that is contained in the micrometer box. If the returning image of the reticle and the actual reticle are congruent or super-posable, this signifies that the surface is perfectly flat. On the other hand, failure of the reflected reticle image to coincide with the reticle drawn on the filar plate signifies that the surface is not perfectly flat. Measurement then consists of a comparison between this deviation and the normal position. This is accomplished by an operator viewing these real and reflected images through the eyepiece of the microscopic unit and then taking a reading.3

In this factual setting, we hold, for the reasons set out below, that the autocollimators in issue are optical measuring instruments within the meaning of paragraph 228 (a) and that the collector’s classification is therefore correct.

[32]*32We start by detailing what characteristics are necessary to qualify a device as an optical measuring instrument for tariff purposes. First, the device must function in such manner that employment of its optical features is dominant or primary, as compared to the role of its other components. E.g., United States v. American Machine & Metals, Inc., 29 CCPA 137, 144, C.A.D. 183 (1941); Chas. Kurz Co. v. United States, 57 Cust. Ct. 90, 96-97, C.D. 2735 (1966). Second, the device’s optical elements must be essential to its operation; that is, to be considered an optical measuring instrument, the device cannot be operated in its intended manner without the optical components. See e.g., Clara M. Ferner v. United States, 23 CCPA 62, 67, T.D. 47735 (1935); Bacharach Industrial Instrument Co. v. United States, 2 Cust. Ct. 306, 312, C.D. 149 (1939). Third, optical measuring instruments must, in performing their intended function of measurement, act upon, deal with, or route rays of light. This interaction between light and such optical elements as lenses, prisms and mirrors normally manifests itself in divergence, convergence, reflection, refraction, polarization, or merely conveyance of light rays. E.g., The Bendix Corporation v. United States, 57 Cust. Ct. 184, 197, C.D. 2759 (1966); Chas. Kurz Co. v. United States, supra, 57 Cust. Ct. at 97; R. J. Saunders & Co., Inc. v. United States, 28 Cust. Ct. 39, 42-43, C.D. 1386 (1952); Chicago Apparatus Co. v. United States, 62 Treas. Dec. 567, 570-71, T.D. 46009 (1932). Finally, the optical system of the instrument must aid human vision or create for inspection a picture or image of some object. See e.g., Paillard, Inc. v. United States, 57 Cust. Ct. 439, 447-48, C.D. 2833 (1966); The Bendix Corporation v. United States, supra, 57 Cust. Ct. at 197; Decca Radar, Inc. v. United States, 57 Cust. Ct. 165, 171, C.D.2755 (1966).

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Bluebook (online)
62 Cust. Ct. 29, 294 F. Supp. 964, 1969 Cust. Ct. LEXIS 3682, Counsel Stack Legal Research, https://law.counselstack.com/opinion/engis-equipment-co-v-united-states-cusc-1969.