Newark College of Engineering Bulletin, v. 11, No. 4, December 15, 1938

In Short

A comprehensive academic catalog from 1938 details the operational structure, curricula, and institutional philosophy of an American engineering college. The volume outlines degree programs in chemical, civil, electrical, and mechanical engineering, presenting exhaustive class schedules, tuition rates, admission criteria, and detailed descriptions for every course offered. It captures an era when technical education increasingly integrated rigorous theoretical science with practical business acumen, industrial management, and social awareness. The work remains an enduring historical snapshot of pre-World War II American higher education, industrial preparation, and pedagogical strategy.

The Story

The narrative begins with administrative frameworks that establish order and institutional boundaries. Academic calendars map out the rhythms of the school year from 1939 through 1940, establishing precise dates for registration, mid-year examinations, spring recesses, and summer re-examinations. Following these schedules, the document introduces the faculty roster, listing instructors and professors across various disciplines, alongside notable guest lecturers in specialized fields like patent law, mental hygiene, and technical effectiveness.

Moving into administrative policies, the catalog lays out the requirements for matriculation and degree candidacy. Entrance expectations demand rigorous preparation in mathematics, sciences, and high school electives, verified through state or college board examinations. Clear financial guidelines set tuition fees, laboratory fees, and locker costs, while defining the standard four-year curriculum along with options for accelerated February admission or five-year extended plans.

The core of the catalog unfolds through its structured departmental curricula. Each engineering track—Industrial Chemistry, Civil, Electrical, and Mechanical Engineering—begins with a shared foundational base of basic sciences, draftsmanship, calculus, and mechanics. As students advance into their junior and senior years, the paths diverge into highly specialized coursework. Civil engineering students confront survey mapping, highway traffic control, and municipal sanitation. Electrical engineering candidates work through vacuum tube characteristics, complex distribution circuits, and power transmission. Industrial chemistry students manage unit operations involving high-capacity evaporators, distillation columns, and organic syntheses, while mechanical engineering students master kinematics, thermodynamics, and physical metallurgy.

Beyond technical computation, a parallel arc weaves humanities and business training into the technical framework. A multi-year English sequence forces students to practice written composition and public speaking, tied directly to lectures on the history of industrial civilization. Upper-level courses in industrial engineering expose students to business law, accounting, cost control, and economics. Honors students participate in cooperative industrial placement during the summer, bridging classroom theory with real-world factory and field environments.

The catalog concludes with detailed inventories of laboratory facilities and equipment. It describes high-powered motor-generators, oscillographs, tall Pyrex rectifying columns, and metallographic heat-treatment furnaces. Through these descriptions, the document completes its arc: taking an incoming secondary graduate through rigorous academic discipline, hands-on empirical experimentation, and broad industrial training to produce a fully qualified Bachelor of Science graduate ready for professional practice.

How It Unfolds

Establishing the institutional boundaries The catalog opens with precise academic calendars detailing term dates, examination weeks, and holidays for the 1939–1940 academic years. It lists the administrative officers, faculty members, and special lecturers who oversee instruction.

Defining terms of entry and governance Admission standards require secondary school units across academic and vocational subjects, verified by state or board examinations. Tuition, matriculation fees, laboratory deposits, and graduation requirements establish the contractual obligations of the enrolled student.

Building the mathematical and scientific baseline The initial years feature common foundational subjects across all majors, grounding students in chemistry, physics, drafting, and calculus. Courses in the history of industrial civilization and public speaking run alongside hard sciences to broaden student perspective.

Diverging into technical specializations Upper-class coursework splits into specific disciplines, detailing specialized classes in highway design, vacuum tube electronics, organic unit operations, and physical metallurgy. Advanced laboratories demand empirical measurement using specialized industrial equipment like oscilloscopes, distillation columns, and testing machines.

Integrating industrial practices and administration Senior requirements incorporate management, business law, accounting, and staff control to prepare students for leadership. Selected students complete cooperative summer placements in industrial settings to apply theoretical concepts to active technical operations.

The People

The Prospective Student Entering with high school credits in mathematics and basic sciences, this figure seeks a Bachelor of Science degree to enter the industrial workforce. The student must navigate rigorous attendance standards, strict examinations, fee schedules, and demanding laboratory hours while developing both technical proficiency and oral presentation skills.

The Engineering Faculty Represented by professors and instructors across chemical, mechanical, civil, and electrical departments, this collective body delivers classroom lectures, oversees laboratory work, and grades technical reports. Figures like Frank A. Grammer in English and Francis J. Burns in mechanical engineering guide students through basic theory and practical execution.

The Special Lecturers Industry experts like Dr. Lillian M. Gilbreth, Angelo M. Pisarra, and Dr. Bruce B. Robinson bring specialized real-world knowledge to the academic environment. They deliver target instruction on industrial effectiveness, patent law, and mental hygiene to ensure students understand the broader legal and human factors of engineering.

The Advanced Scholar and Honors Candidate Students pursuing graduate work or the Honors Option Group undertake additional optional challenges, such as differential equations and vector analysis. They complete summer cooperative work in real industrial settings, adapting to commercial environments and testing the practical limits of their academic coursework.

In Its Own Voice

The college is particularly interested in the study of traits and characteristics which in individual cases interfere with the student’s development along industrial and professional lines.

This statement outlines the institution's commitment to individual evaluation, focusing on personal development alongside academic testing.

He learns to write by writing, by having his mistakes pointed out, and by correcting them.

This sentence describes the practical philosophy driving the freshman English curriculum, emphasizing direct practice and constructive criticism over abstract theory.

The student gains the experience of adjusting himself to a new and usually different environment, learns at first-hand some of the factors which affect a young man’s progress in industry, and has the opportunity to observe the practical application, and the limitations, of some of his academic subjects.

This passage explains the purpose of cooperative summer work, framing industrial placement as a critical test of classroom knowledge against practical reality.

What It's Really About

At its core, the volume addresses the systematic transformation of raw human potential into disciplined technical skill. It reflects an era navigating the demands of rapid industrialization, where an engineer could no longer rely solely on mechanical aptitude. The underlying argument posits that modern technical work requires a synthesis of pure science, precise empirical measurement, legal and economic comprehension, and clear communication. Beneath the lists of course codes and textbook citations lies a philosophy of thoroughness, where safety protocols, personal hygiene, and administrative ethics hold equal weight with mathematical formulas. It asks how higher education can best serve an industrial society while giving individual students the practical tools required for sustained professional progress.

Why Read It Today

Historians of education, archivists, and readers fascinated by early-twentieth-century industrial history will find this document a rich primary source. It offers a transparent, unvarnished look at how technical institutions operated on the eve of World War II. Reading the catalog evokes the atmosphere of 1930s lecture halls and drafting rooms, filled with slide rules, vacuum tubes, heavy iron lathes, and blue-printed highway plans. It captures a moment when higher education was meticulously structured, pragmatic, and highly focused on clear vocational outcomes.

The reading experience requires navigating dense administrative formatting, tabular course layouts, and repetitive subject descriptions. There are no dramatic plot lines or character dialogues; the text consists entirely of institutional schedules, course prerequisites, equipment inventories, and legal regulations. Yet, for those willing to look past the bureaucratic language, the catalog reveals a fascinating portrait of an era's academic rigor and industrial ambitions. It leaves the reader with a deep appreciation for the groundwork that shaped mid-century American engineering and technical education.