Guy James Construction Co. v. Trinity Industries, Inc.

462 F. Supp. 252, 1978 U.S. Dist. LEXIS 13973
CourtDistrict Court, N.D. Texas
DecidedDecember 7, 1978
DocketCA 3-74-777-C
StatusPublished
Cited by2 cases

This text of 462 F. Supp. 252 (Guy James Construction Co. v. Trinity Industries, Inc.) is published on Counsel Stack Legal Research, covering District Court, N.D. Texas primary law. Counsel Stack provides free access to over 12 million legal documents including statutes, case law, regulations, and constitutions.

Bluebook
Guy James Construction Co. v. Trinity Industries, Inc., 462 F. Supp. 252, 1978 U.S. Dist. LEXIS 13973 (N.D. Tex. 1978).

Opinion

FINDINGS OF FACT AND CONCLUSIONS OF LAW

WILLIAM M. TAYLOR, Jr., District Judge.

This cause came on for hearing before the Court, sitting without a jury, on October 3, 1977. Upon consideration of the pleadings, the evidence, the argument and briefs from counsel, the Court makes the following findings of fact and conclusions of law, in accordance with the provisions of Rule 52, Federal Rules of Civil Procedure.

FINDINGS OF FACT

I.

JURISDICTIONAL AND BACKGROUND FACTS

1. Plaintiff Guy H. James Construction Company (hereinafter referred to as “James”) is a corporation created under the laws of the State of Oklahoma and its principal place of business is located in Oklahoma City, Oklahoma. Defendant Trinity Industries, Inc. (hereinafter referred to as “Trinity”) is a corporation created under the laws of the State of Texas and its principal place of business is located in Dallas, Texas. Defendant United States Fire Insurance Company (hereinafter referred to *254 as “Surety”) is a corporation organized under the laws of the State of New Jersey and its principal place of business is located in Morris County, New Jersey.

2. On August 3, 1971, the Dallas/Fort Worth Regional Airport Board (hereinafter referred to as “D/FW”), as owner, and James, as general contractor, entered into a contract for the construction of four bridges to be used by airplanes in crossing from one side to the other side of the new Dallas/Fort Worth Airport. The contract itself consisted of a “Contract Agreement,” a volume containing written specifications and a set of plans or blueprints. (Hereinafter these three documents are at times collectively referred to as “the construction contract.”)

3. Upon completion, two of the bridges formed a part of taxiway 19 which runs east and west immediately north of the terminal area and connects the runways, terminals and other facilities on the east and west sides of the airport with one another. The other two bridges formed a part of taxiway 31 which connects the two sides of the airport immediately south of the terminal area. The two bridges on each taxiway are approximately 205 feet apart. The bridge on the west end of taxiway 19 was identified as “bridge 19W” and the bridge on the east end of taxiway 19 as “bridge 19E.” The bridge on the west end of taxiway 31 was identified as “bridge 31W” and the bridge on the east end as “bridge 31E.”

4. The configuration of each-of the four bridges is substantially the same. The concrete deck of each bridge measures approximately 273 feet by 104 feet and is approximately I6V2 inches thick. Each deck is supported by six rows of steel girders which run the length of the bridge. Each row of girders consists of four separate girders, two of which are approximately 49 feet long and two of which are' approximately 87V2 feet long.

5. The girders essentially have a bottom and two sides which slope upward and outward. They are open at the top. The bottom of each girder is a flat piece of steel which varies from Vie to u/i6 of an inch in thickness, which is approximately 4 feet 7 inches wide and which is either 49 feet or 87/2 feet long, depending on the length of the particular girder. This piece is called the “bottom flange.” Each side is a flat piece of steel which varies from 8/s to Vi6 of an inch in thickness, which is approximately 54 inches high and which is as long as the particular girder. Each of these pieces is called a “web.” The girder is formed by welding the bottom edge of one web to one edge of the bottom flange and the bottom edge of the other web to the other edge of the bottom flange. The webs are welded to the bottom flange in such a manner that they slant upward and outward from the bottom flange at an angle which is approximately 30 degrees from vertical. At the bottom of a girder the webs are approximately 4 feet 6 inches apart and at the top they are approximately 9 feet apart. After the bottom flange and the webs have been welded together, the cross section of a girder could be described as the bottom half of a hexagon. Although the basic configuration of the girders remains the same, a piece called the “top flange” is welded to the top of each web. This flange is a flat piece of steel from lh to one inch thick, from one foot to 18 inches wide and as long as a particular girder. It is attached to the girder so that it is horizontal and so that it is centered along the top edge of the respective webs with one-half extending out from the center of the girder and the other half extending toward the center of the girder.

6. When the girders were erected on the abutments,, columns and pier caps, each row of girders was separated from the adjacent, parallel girder row by a distance of nine feet. In order to pour the concrete decks, forms were placed in the spaces between the rows of girders. Also, lightweight metal stay-in-place forms were placed over the open, top side of the girders so that the girders would not be filled with concrete.

7. In order to protect vehicles passing under a bridge from the exhaust blast of jet engines on airplanes crossing over a bridge, the plans called for “blast protection” to be *255 erected on both sides of each bridge. The blast protection, as originally contracted for, was a network of steel girders and plates which, like the bridge girders, rested upon abutments, columns and pier caps, which extended the 273 feet length of a bridge and which extended out from each side of a bridge approximately 52V2 feet.

8. James planned the project so that during most of the construction it would be working on all four bridges at the same time. However, it planned to perform each construction task or activity successively on each of the four bridges in the following order: 19W, 19E, 31W and 31E. Thus, bridge 19W would be the first bridge started and the first finished and bridge 31E would be the last started and the last finished.

9. The construction contract between D/FW and James provided that an engineer would be D/FW’s representative for supervising, monitoring, coordinating and inspecting the construction of the work and that communications from the contractor to D/FW would be through the engineer. The firm which had designed the taxiway bridges was designated as such engineer. This firm was a joint venture between the Fort Worth engineering firm of Carter & Burgess, Inc., and the Dallas engineering firm of Forrest and Cotton, Inc. This joint venture was named “Consultant Engineers.”

10. In addition to Consultant Engineers, D/FW retained the New York City engineering firm of Tippetts-Abbett-McCarthy-Stratton (hereinafter referred to as “TAMS”). This firm supervised Consultant Engineers’ work in connection with the taxiway bridges and, in addition, had supervisory responsibility for other facilities at the airport.

11. The construction contract required that James employ an independent testing laboratory to inspect the fabrication of the bridge girders and pier caps and to certify that they were being properly fabricated in accordance with the plans and specifications. To perform these tasks James employed the Dallas office of Southwestern Laboratories, Inc.

12.

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462 F. Supp. 252, 1978 U.S. Dist. LEXIS 13973, Counsel Stack Legal Research, https://law.counselstack.com/opinion/guy-james-construction-co-v-trinity-industries-inc-txnd-1978.