Thursday, March 7, 2019

Mary Ann McMorrow, was the first female Supreme Court Justice in Illinois.

Justice Mary Ann McMorrow
Mary Ann Grohwin was born on January 16, 1930, to Roman and Emily Grohwin and grew up in a Roman Catholic household on the northwest side of Chicago. As a child, she became a gifted pianist after practicing on the piano her father gave to her mother as an anniversary gift. She graduated from Immaculata High School and later Rosary College, now Dominican University, in River Forest. 

Mary Ann Grohwin enrolled in law school at the advice of her mother, who believed her daughter could argue all kinds of viewpoints after hearing her debate with friends and around the house. Although she was the only woman in the 1953 graduating class at Loyola University Chicago School of Law, her peers elected her class president and associate editor of the law review, family said.

After graduation, Mary Ann Grohwin worked for the law firm of Riordan & Linklater before she was hired as an assistant state's attorney in Cook County, assigned to the Criminal Division, and was the first woman to prosecute felony cases in Cook County.

There, she met her husband, Emmett McMorrow, a Chicago police lieutenant. The two married in 1962 and had one daughter, Mary Ann (born 1963).

In 1976, Justice McMorrow was elected to the Cook County Circuit Court and then, a decade later, to the Illinois Appellate Court. She was the first woman to lead the appellate court's executive committee.

Later, she was elected as the first female justice in 1992 to the Illinois supreme court.

With her election as Chief Justice of the Supreme Court of Illinois in May 2002, she became the first woman to head any of the three branches of state government. "When I went to law school, women couldn't even dream of such a thing,” Justice McMorrow said in 2002, shortly after being voted into the court's highest position. “I hope this would forever indicate that there's nothing that limits women in any job or any profession.”

Very few women were a part of the legal field before Justice McMorrow, who became a role model because she did so well with the opportunities she was given, said federal appeals court Judge Ilana Rovner, a longtime friend.

“That gave the impetus for the hiring of other women,” Rovner said. “She was a trailblazer and a very fine human being.”

In a statement, Chief Justice Thomas Kilbride called Justice McMorrow “top-tier” and said she was an inspiration to all lawyers across the state for her “courage, perseverance, wisdom and character.”
Outside of her career, Justice McMorrow was active in all kinds of charities and foundations. Faith was a huge part of her life, as was her church, St Mary of the Woods Catholic Church in Chicago. She loved the opera and going out with friends to different restaurants.

Justice McMorrow was also known for her kindness and compassion. She stayed connected to the legal community after retirement and mentored young women wanting to become lawyers or judges, said Illinois Supreme Court Justice Mary Jane Theis, also a friend.

Although she was a pioneer, Justice McMorrow often told those around her she had no intentions of breaking such barriers as a lawyer or during her 30 years serving the Illinois courts. “I just simply tried to do my best in every task that was presented to me,” she said.

Justice McMorrow retired from the bench on July 5, 2006.

Mary Ann Grohwin died on February 23, 2013, at Northwestern Memorial Hospital in Chicago, aged 83, from undisclosed causes.

Her daughter, Dr. Mary Ann McMorrow, PSY.D, is a clinical psychologist in Chicago.

AWARDS:
She was the 1991 recipient of the "Medal of Excellence" award from Loyola University Chicago School of Law's Alumni Association. She also was awarded the Chicago Bar Association's Justice John Paul Stevens Award and the 1996 The Fellows of the Illinois Bar Foundation award for Distinguished Service to Law and Society.

Mary Ann McMorrow was inducted as a Laureate of The Lincoln Academy of Illinois and awarded the Order of Lincoln (the State’s highest honor) by the Governor of Illinois in 2007 in the area of Government and Law.

Chief Justice McMorrow was a member of the:
Illinois State Bar Association and Chicago Bar Associations
Women's Bar Association of Illinois
American Inns of Court (Master Bencher)
American Judicature Society
National Association of Women Judges
Illinois Judges' Association (Board of Directors)

Compiled by Neil Gale, Ph.D.

Monday, March 4, 2019

Chicagoan Sarah Elisabeth Jacobs Goode was the first Negro woman to receive a U.S. patent.

Born into slavery in 1855 as Sarah Elisabeth Jacobs, she was the second child of seven to Oliver and Harriet Jacobs. Sarah went on to become the first Negro woman to be granted a patent, № 322177 by the U.S. Patent and Trademark Office, for her invention of the folding "Cabinet Bed" on July 14, 1885.

Sarah Goode
Sarah grew up in Ohio. According to Census records, her father was a carpenter. Her family gained their freedom at the end of the Civil War in 1865. By 1870, her family had moved to Chicago where Sarah met and married Archibald "Archie" Goode around 1880.

Archie, who was originally from Wise County, Virginia would have six children with Sarah, of whom three would live to adulthood. He described himself in the records as a "stair builder" and an upholsterer. She and Archibald opened a furniture store, where they would eventually sell the folding beds she had invented. Many of Sarah Goode's customers, mostly working-class, lived in small apartments and didn't have much space for furniture, including beds.

As a solution to the problem, Goode invented a Cabinet Bed, which she described as a "folding bed." When the bed was not being used, it could serve as a roll-top desk, complete with compartments for stationery and other writing supplies.
Sarah E. Goode died on April 8, 1905 and is buried in Graceland Cemetery in Chicago, Illinois.
Goode's "Cabinet Bed"
Legacy:
Sarah E. Goode STEM Academy a Chicago Public School at: 7651 South Homan Avenue. (STEM = Science, Technology, Engineering, Mathematics). The Goode Academy is one of five CPS Early College STEM Schools which opened for the 2012-2013 school year.

In 1919, a cramped San Francisco resident named William Murphy would update Goode’s space-saving bed with his own patent, though Murphy’s invention folded into a wall.

Compiled by Neil Gale, Ph.D.







UNITED STATES PATENT OFFICE SARAH E. GOODE, OF CHICAGO, ILLINOIS.

CABINET-BED.

SPECIFICATION forming part of Letters Patent N0. 322177, dated July 14. 1885. Application filed November 12, 1883. (No model.)

To all whom it may concern.

Be it known that I, SARAH E. GOODE, a citizen of the United States, residing at Chicago, in the county of Cook and State of Illinois, have invented a certain new and useful Improvement in Cabinet-Beds, of which the following is a full, clear, concise, and exact description, reference being had to the accompanying drawings, forming a part of this specification.

This invention relates to that class of sectional bedsteads adapted to be folded together when -not in use, so as to occupy less space, and made generally to resemble some article of furniture when so folded.

The objects of this invention are, first, to provide a folding bed of novel construction, adapted, when folded together, to form a desk suitable for office or general use; second, to provide for counterbalancing the weight of the folding sections of the bed, so that they may be easily raised or lowered in folding or unfolding the bed; third, to provide for holding the hinged or folding sections securely in place when the bed is unfolded, and, fourth, to provide an automatic auxiliary support for the bedding at the middle when the bed is un folded.

My invention consists in the arrangements and combinations of parts hereinafter described, and pointed out in the claims.

In the accompanying drawings, Figure l is a perspective View of my improved folding bed folded together so as to form a desk, which is shown open. Fig. 2 is a partial vertical sectional view of the same, showing the desk closed. Fig. 3 is a longitudinal sectional view of the bed unfolded. Fig. 4 is a sectional view of the same on line m x in Fig. 3. Figs. 5 and 6 are views of portions of the bed in detail, referred to hereinafter.

Like parts are indicated by similar letters of reference throughout the several views.

The main frame of the bed I make in three sections, A B C. The center or stationary section, A, consists of a stout rectangular frame, of a length corresponding to the width of the bed, and of sufficient width to form, in connection with the folding sections B and C, when folded together thereon, a receptacle large enough to contain the necessary bedding. The folding sections B C are hinged to the stationary section A on opposite sides thereof, so that when unfolded the stationary section A becomes the middle portion of the bed, while the folding sections B C form the respective end portions thereof, the width of the stationary section A being thus included in the length of the bed when unfolded. By this well-known construction a full-length bed 6o may be obtained which will occupy but little vertical space when folded up. The hinged or folding sections B C are preferably constructed so as to form equal halves of the upright box which contains the bedding when the bed is folded, and they may be provided with suitable panels and trimmings to repre sent the lower part of an ordinary office-desk.

The section B, which forms the head portion of the bed when unfolded, I provide with an 7o extended piece, a., which projects over the top of the other folding section, C, when the bed is folded, and which forms the head-board of the bed when unfolded. The back portion, I), of section B is also extended, (see Figs. 2 and3,) 7 5 and by the addition of suitable end pieces, c c, and top board, d, a receptacle, D, is formed, into which I place the usual complement of pigeon-holes and drawers found in an ordinary office-desk. The desk D thus formed is provided at the front with a cover, c, of any suitable form. I prefer to use an ordinary cylinder cover, as shown in Fig. 2. The head-board a, which also serves as the bottom or table of the desk, is preferably constructed with its center portion adapted to slide in and out, whereby a greater amount of table surface for the desk may be provided by drawing out the sliding portion a', as shown in Fig. l. The pieces o c, which form the ends of the desk also serve as braces for the head-board a, thus making a very strong as well as a neat construction. When the bed is folded, the headboard extends over the folding section C and rests partly thereon. The desk Dis thus uniformly supported over the other portions of the bed, which when so folded become converted into an ordinary office-desk- In order that the folding sections B C may be easily folded or unfolded I provide a counter rooter-balance in the form of springs, the tension of which is adapted to act against the weight of the said folding sections as they are raised or lowered in folding or unfolding the bed. For this purpose I prefer to use flat springs f f, (see Figs. 3 to 6,) secured at one end to the inside of the rectangular frame of stationary sections A, the free end of said springs passing through clips or slides g g, secured to the inside of the bottom of the respective folding sections B C. Any desired number of these springs may be used to secure the proper degree of tension. Being attached to the inside of the respective sections, they are completely covered by the bedding, and therefore do not interfere in any way with the other working parts of the bed. The bedding of the bed is supported, in the usual manner, by a suspension-support secured at each end to the respective folding sections of the bed. For this purpose I preferably use au ordinary wovenwire spring or mattress, which is secured at each end to suitable cross-pieces, in the folding sections B C.

In order that the woven-wire spring may have additional support at the center when the bed is in use, I provide a yielding support, E, adapted to be automatically raised up to support the woven-wire spring when the bed is unfolded, and to be lowered automatically into the stationary section when the bed is folded. This yielding support E (see Figs. 3, 4, and 6) consists of a platform, 7c, carrying a series of coiled springs, l, said platform k being suspended by links or arms m from the side boards, n, of the respective fold ing sections B C, so that as the sections B C are lowered the platform k is raised, and vice versa. The coiled springs l are thus brought up to and form a support for the woven-wire spring h when the bed is unfolded, and are automatically lowered out of the way when the bed is folded.

In order that the folding sections B C may be rigidly held in place when the bed is unfolded, and thus keep the suspended bedding support stretched when the bed is in use, I provide at each side of the bed a brace, o, consisting of two arms joined together in the nature of a toggle-joint. These braces are pivoted at each end to the side boards, n, of the respective folding sections B C, and are each adapted when straightened out to form a continuous bar or brace which shall be inflexible as to end pressure, but capable of being folded sidewise. When the bed is unfolded, these braces are straightened out in a horizontal position between the respective folding sections B C, and thus hold said sections rigidly in place. In folding the bed the braces are drawn out of line at their joints, and will then easily fold up with the other portions of the folding sections are provided with the usual legs, which may be made to resemble a portion of the ornaments or trimmings of the desk when folded. The customary hooks or clasps for holding the folding sections together when folded are also provided.

Then folded together, the bed has all the appearance of an ordinary office desk, and may be used as such. The entire desk, being attached to and forming a part of the head-section of the bed, does not in any way interfere with the folding or unfolding of the bed, and by the novel construction thereof the contents of the desk will be very little deranged by the turning necessary in unfolding the bed.

Having thus described my invention, what I claim, and desire to secure by Letters Patent;

l. The combination, with the stationary section A and the folding sections B C, hinged on opposite sides of said stationary section, of a suspended bedding-support, h, secured at each end to the respective folding sections B C, the automatic auxiliary support E. and the jointed braces 0, substantially as and for the purpose set forth.

2. The combination, with the stationary section A, folding sections B C, and head-board a, of end pieces, c c, top board, d, and cover e, substantially as and for the purpose set forth.

In witness whereof I hereunto subscribe my name this 8th day of November, A. D. 1883.

SARAH E. GOODE.

Lois Graham McDowell was the first woman in United States to earn a Mechanical Engineering Ph.D.

Lois Graham (known early in her career as Lois Graham McDowell or Lois G. McDowell) (1925–2013) was a professor of thermodynamics and cryogenics. She was the first woman to earn a mechanical engineering Ph.D. in the United States.

Graham is remembered for her lifelong work recruiting young women into careers in science and engineering. She taught for nearly 40 years in the Illinois Institute of Technology's Mechanical, Materials and Aerospace Engineering program in Chicago. Graham founded IIT's Women in Science and Engineering program, which recruited female high school students into science and engineering careers.

Graham was born in 1925 and grew up in Troy, NY, one of three siblings. She initially wanted to be a doctor but could not afford medical school. An admirer of Amelia Earhart, Graham also wanted to be a pilot or flight attendant, but those professions at the time had height limitations of 5'3" and weight limitations of 125 pounds. "Well, unfortunately," Graham said in an interview, "I outgrew that career." Interested in aviation, Graham considered aerospace engineering, but as with medical school, she could not afford the tuition.

Lois Graham 1946
By the time she graduated from high school in the spring of 1942, Graham had settled on attending a state college for teachers in nearby Albany, NY. That summer, Rensselaer Polytechnic Institute (RPI), where Graham's father taught, announced that it would admit female students for the first time, and children of employees could attend for free. Graham enrolled, first attending summer classes, and then enrolling full-time, one of the first four women to be admitted. She followed an accelerated schedule that was available during World War II. Graham became one of the first two women to graduate with a degree at RPI (Class of 1946), and the first woman from the university to graduate with a degree in mechanical engineering.

After graduating from Rensselaer Polytechnic Institute, Graham worked as a test engineer at the Carrier Corporation, leaving after 18 months to pursue a master's degree. According to Graham, she was turned away by MIT (who requested "every single textbook I had used when I was in college and every portion of that textbook I had covered"), CalTech (who sent her a postcard stating, "We do not accept women"), and the University of Illinois (who told her, "we cannot accept out-of-state students at this time"), but was offered a teaching assistantship by the Illinois Institute of Technology (IIT) in Chicago.

In 1949, Graham became the first female faculty member in IIT's engineering department, and the first female graduate student accepted into its Mechanical, Materials and Aerospace Engineering program. IIT had to make an adjustment upon her arrival: converting a small closet into a ladies restroom. Later that year, Graham earned a master's degree in mechanical engineering, the first woman at IIT to do so.[

Even early in her career, Graham received attention for being a woman in a male-dominated field. In September 1953, Graham was featured in Popular Science, which ran a picture of her, identified as "Lois G. McDowell."
A woman engineer, Lois G. McDowell, teaches thermodynamics at Illinois Tech. She is glad that other women, at her school and elsewhere, are studying to become engineers. Popular Science, September 1953.
Graham was a fellow life member of the Society of Women Engineers, which she joined in 1952, two years after it was founded. At SWE, Graham's worked focused on increasing the number of women pursuing careers in engineering, science, and math. She wrote articles published by SWE advocating for improving the career counseling available to young women, and for increasing the recruitment of young women into the engineering field in order to end a shortage of engineers in the country. To bolster her arguments, Graham marshaled allies by citing other influential people from outside academia who had spoken favorably about women in engineering. For example, in one article, Graham employed a quote by Arthur Sherwood Flemming (then the Director of the Office of Defense Mobilization, and later US President Dwight D. Eisenhower's Secretary of Health, Education and Welfare), in which he said, "[W]e haven't got a chance in the world of taking care of that deficit of engineers... unless we get women headed in the direction of engineering schools." Graham argued that young women could not only help themselves, but also help their country, by pursuing careers in engineering.

Graham served as SWE's fourth national president from 1955 until 1956. In 1955, SWE released a 40-page report entitled Women in Engineering, aimed at influencing how female engineers were viewed by the public. Graham has said in an interview that an early title under consideration for the booklet was "Petticoats and Slide Rules." The report listed accredited engineering programs, their curricula and prerequisites. It also included information about scholarships for women, statistics about women in the engineering field, and suggested reading lists. SWE distributed the Women in Engineering booklet to over 400 high schools around the United States, as well as colleges and universities, corporations and government agencies, and engineering societies. Ultimately, the enthusiastic response led to SWE running out of copies of Women in Engineering, and a new edition was issued in 1958.

In 1959, Graham was awarded a Ph.D. by IIT and became the first US woman to earn a mechanical engineering Ph.D. Her doctoral work focused on the field of combustion, and her dissertation thesis was entitled Effect of adding a combustible to atmosphere and surrounding diffusion flame.

In 1974, Graham became assistant director for Engineering and Science. The following year, she was promoted to full professor, a rare rank for a woman to hold at the time. In 1977, she was named Program Director for IIT's Education and Experience in Engineering Program. She also served as the Director of IIT's Minorities in Engineering Program. In 1979, she was listed as a National Science Foundation Graduate Fellow. In 1980, she received the IIT Professional Achievement Award, and in 1991, the IIT Julie Beveridge Award.

In 1981, Graham founded IIT's Women in Science and Engineering (WISE) program. WISE employed women engineers in the private, public, and academic sectors, as well as graduate and undergraduate students, to engage directly with female high school students in order to increase enrollment of women into college engineering programs. WISE had a three-prong approach: encouraging high school girls in a supportive environment to pursue what are today termed STEM careers; engaging them in hands-on activities that expose them to various math-and science-related fields; and preparing them to pursue an undergraduate engineering degree by advising on course selection, college applications, and similar matters. Fall, winter, and summer programs were offered, usually free of charge, in which female high school students attended college lectures, networked with engineering students, faculty, and professionals, and participated in hands-on projects inside and outside of the laboratory, such as building a generator or planning a moon colony. WISE also educated parents, teachers, and counselors about the opportunities available to young women to pursue math and science careers.

After 39 years at IIT, Graham retired in 1985 and moved back to upstate New York. On December 8, 1999, Graham was awarded the Person of the Millennium award by IIT students, an award, Graham said, she "prized above all others."

On June 6, 2003, Graham was interviewed for SWE's Oral History Project. On September 19, 2003, Graham was inducted to the RPI Hall of Fame. Graham died on November 4, 2013, at the age of 88. An obituary in Watertown Daily Times wrote, "To her beloved grandchildren she was simply 'Grandma Lois.' But to thousands of female mechanical engineers in this country, she was a pioneer and role model."

In 2010–2011, Graham was an American Association of University Women named scholarship honoree. She was also nominated to be a National Women's History Project National Women's History Month honoree in 2013. In 2015, Graham was awarded a Lifetime Achievement Award by IIT.

A 2007 article published in the International Journal of Mechanical Engineering Education entitled Outstanding Women in Mechanical Engineering described Graham as, "Recognized for her contributions as an educator to thermodynamics and cryogenics." RPI has written that Graham's "academic and professional career paved the way for women and minority engineers." IIT has described her as a "pioneer in the field of mechanical engineering."

Graham has also been credited for her work at SWE and ASHRAE (where she was the first woman fellow) to improve career counseling available to young women, and for her recruitment of young women into science and engineering fields.

Earned Degrees:
Bachelor of Science, Mechanical Engineering (B.S.ME), Rensselaer Polytechnic Institute, 1946.
Master of Science, Mechanical Engineering (M.S.ME), Illinois Institute of Technology, 1949.
Doctor of Philosophy, Mechanical Engineering (Ph.D.ME), Illinois Institute of Technology, 1959.

Awards, Honors, and Memberships:
Fellow Life Member and National President (1955–1956), Society of Women Engineers (SWE)
National Science Foundation Graduate Fellow (1979)
Illinois Institute of Technology (IIT) Professional Achievement Award (1980)
IIT Julie Beveridge Award (1991)
IIT Person of the Millenium (1999)
Rensselaer Polytechnic Institute Hall of Fame (2003)
American Association of University Women Named Scholarship Honoree (2010–2011)
Nominee, National Women's History Project National Women's History Month Honoree (2013)
IIT Lifetime Achievement Award (2015)
First female Fellow, American Society of Heating, Refrigeration and Air-Conditioning Engineers (ASHRAE)
Member, American Society of Mechanical Engineers (ASME)
Member, American Society for Engineering Education (ASEE)
Member, American Association of University Women (AAUW)
Member, Phi Tau Sigma
Member, Tau Beta Pi
Member, Sigma Xi

Compiled by Neil Gale, Ph.D.