Revista de economía mundial 69, 2025, 71-93
ISSN: 1576-0162
DOI: http://dx.doi.org/10.33776/rem.v0i69.8282
Determinants of female ParticiPation in Patenting activity in
Brazil: the role of multinational corPorations
Determinantes De la participación feminina en las patentes en
Brasil: el rol De las corporaciones multinacionales
Marina Filgueiras Jorge
marina_filgueiras@hotmail.com
Fluminense Federal University
Recibido: mayo 2024; aceptado: febrero 2025
aBstract
This study examines female participation in patenting activity across
various institutions and the role of multinationals (MN) in this context,
exploring the origin of capital and the location of firms, by analyzing patents
filed at INPI-Brazil from 2000 to 2019. Despite the increasing number of
female inventors, women remain underrepresented in engineering fields, with
greater participation in chemistry. MNs contribute to female participation
through chemical patents, while national firms and MN subsidiaries focus on
engineering, which shows lower female involvement. Public policies promoting
women in high-tech sectors and digital entrepreneurship are recommended to
address persistent gender disparities in innovation.
Keywords: Gender, Patents, Brazil, Multinationals.
resumen
Este estudio analiza la participación femenina en patentes entre las
instituciones y el papel de las Multinacionales (EM) en este contexto, explorando el
origen del capital y la ubicación de las empresas, mediante el análisis de patentes
presentadas en el INPI-Brasil entre 2000 y 2019. Hay una tendencia creciente
de inventoras, aunque las mujeres siguen su representadas en ingeniería y se
destacan en química. Las multinacionales contribuyen a participación femenina a
través de las patentes químicas, mientras que las empresas nacionales y filiales se
centran en ingeniería, donde la participación femenina es menor. Se recomiendan
políticas públicas para promover la integración de mujeres en sectores tecnológicos
avanzados y emprendimientos digitales, reduciendo disparidades de género.
Palabras clave: Género, Patentes, Brasil, Multinacionales.
JEL Classification/ Clasificación JEL: J16, L20, O31, O54.
Revista de economía mundial 69, 2025, 71-93
1. introDuction
Gender equity in science, technology, and innovation (STI) remains a
pressing global challenge. Addressing gender disparities has gained prominence
within international development agendas, as evidenced by the inclusion of
women’s empowerment in theSustainable Development Goals (SDGs) of the
United Nations’ 2030 Agenda (UN, 2015). Research highlights persistent
underrepresentation of women in certain technical areas and leadership
positions (Yáñez, 2016; ONU Mujeres, 2020), despite evidence showing that
gender diversity enhances creativity, broadens perspectives, and improves
problem-solving capabilities (Díaz-García et al. 2013). Moreover, while the
knowledge and digital economy —heavily reliant on STEM fields—offers
opportunities to advance gender equity, it also risks exacerbating existing
inequalities if systemic biases are not addressed (Yáñez, 2016; Urraca-Ruiz,
2024).
As a consequence of the second wave of feminism in the 1960s and 1970s,
women have gradually advanced in higher education and the labor market
(Hayashi et al., 2007). Despite these advances, the literature identifies two
phenomena related to women’s careers: horizontal and vertical segregation.
The former refers to the unequal distribution of women and men across various
fields of knowledge and economic sectors, with women being particularly
underrepresented in STEM and the industrial sector. The latter pertains to the
decline in women’s participation as they advance to higher levels of power and
visibility (Yañez, 2016).
In Brazil, significant advancements have been made in women’s education.
In 2021, women represented 60% of all bachelor’s degrees (INEP, 2023) but the
percentage of women decreases when they advance to the degrees obtained
at the master’s and doctoral levels: 57% and 56%, respectively (CGEE, 2024).
Additionally, women constituted half of the workforce in research groups under
the National Council for Scientific and Technological Development (CNPq) in
2016 (MCTI, 2023). However, disparities persist across disciplines and are
more pronounced in engineering (Schneegans et al. 2021). For instance, in
2021, women represented 35% of all doctoral degrees in engineering and
just 23% of the engineers with doctoral degrees who were employed (CGEE,
2024).
Despite their growing qualifications and presence in higher education,
women’s representation in leadership positions remains disproportionately
74 Marina Filgueiras Jorge
low. In the scientific career, the reduction in women’s representation is visible
when contrasting the percentage of female researchers of CNPq groups with
the percentage of female leaders (Machado et al, 2019). In the labor market
in general, women held only 39% of managerial positions, 24% of general
director roles (Feijó, 2023), and only 2% of presidencies among Brazil’s largest
firms (Goulart, 2017).
In this context, the need for patent indicators by gender has been claimed
and different approaches have been developed to solve this problem. Naldi
et al. (2004) were the first to use a file of names in different languages to
associate the gender to each name. Following this, many studies were developed
(Mauleón and Bordons, 2010; Sugimoto et al. 2015; Martinez; Raffo and Saito,
2016; Carvalho; Bares and Silva, 2020; Sifontes and Morales, 2020; Medina
and Álvarez, 2022) and indicators were constructed by patent offices (UKIPO,
2016; USPTO, 2020; WIPO, 2024; INPI, 2024). The above-mentioned studies
share conclusions about the relevance of patent-based indicators to monitor
gender gaps and show important differences by countries, technological
fields, and institutional sectors. Another line of studies has analyzed gender
differences in patent productivity (Whittington and Smith-Doerr, 2008), impact
of patents (Sugimoto et al. 2015), and firm performance (Ferrary and Déo,
2023). Teruel and Segarra-Blasco (2022) analyzed gender diversity in fostering
the development of new, patent-protectable knowledge, but highlight that
occupationally diversified R&D teams may be more important.
Given the vast evidence of a gender gap across sectors, industries, countries,
and regions, its application to Brazil remains limited (Azevedo and Abrantes,
2021). While Sifontes and Morales (2020) aimed to explain the factors
influencing women participation in patenting activities in Latin America, they
relied on data from the USPTO, which represents a small sample of patenting
activity in Brazil. This study contributes to existing literature in three ways:
data, methodological analyses, and new focus. Using data from invention
patents filed at the National Institute of Industrial Property (INPI) from 2000 to
2019 and focusing specifically on how the origin of capital and the location of
companies relate to female participation within inventor teams, a probabilistic
model is applied to estimate whether a patent has female participation or not.
The aim of this paper is to identify the factors influencing the evolution
of women’s participation in patenting activity, highlighting specificities among
multinational patent-filing companies. The article contains five sections after
this introduction. Section 2 presents a review of the literature. Section 3
presents the database and the challenges overpassed to identify the gender
of inventors and the institutional sector of applicants in patents. Section 4
creates a frame of reference with the evolution of female participation in all
patents applied at the INPI. Section 5 presents an econometric model to
test the relation between the main determinants and female participation in
patents filed by residents. The final section summarizes the conclusions.
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revista De economía munDial 69, 2025, 71-93
2. literature review
2.1. horizontal anD vertical segregation
Horizontal segregation refers to the unequal distribution of women and
men across different areas of knowledge and economic sectors (Yañez, 2016).
Empirical evidence shows that women tend to dominate disciplines related to
medicine and health sciences, social sciences, and the humanities. In contrast,
fields related to exact and natural sciences and engineering —including
computer and information sciences— are predominantly male-dominated.
Another manifestation of horizontal gender segregation is the extremely low
representation of women in industrial research.
Vertical segregation describes the unequal positioning of women and men
within occupational hierarchies in science and technology. Female researchers
face challenges in advancing to the highest levels of the professional hierarchy
and accessing positions of power (Yañez, 2016). This phenomenon is commonly
referred to as the “glass ceiling”, “leaky pipeline”, or “scissor effect” (Naldi et
al., 2004).
Despite the increasing number of women entering higher education
and pursuing professional careers in knowledge-intensive fields and new
technologies, horizontal and vertical gender segregation remains persistent in
STI, particularly in engineering and technology.
This kind of segregation is closely tied to gender stereotypes, which often
steer women towards certain activities based on societal perceptions of their
skills and preferences (Medina and Álvarez, 2022). Cultural stereotypes often
associate brilliance and aptitude with men rather than women in specific
domains, thereby discouraging women’s interest in these areas (Bian et al.,
2018). Additionally, cultural stereotypes often associate women with care,
biotechnology, pharmaceuticals, and chemistry (Naldi et al., 2004; Whittington
and Smith-Doerr, 2008; Morales-Valera and Sifontes-Fernandez, 2014). In
contrast, fields like mechanical and electrical engineering exhibit lower female
participation (Carvalho et al., 2020).
However, this study focuses solely on analyzing horizontal segregation;
vertical segregation, although very relevant, is not the central concern of this
paper.
2.2. Diversity anD co-invention
The second factor influencing female participation in patents is the diversity
within the teams. Technological knowledge and innovation have become
increasingly complex, requiring greater interaction across technological fields
(Avanci and Urraca-Ruiz, 2017). This heightened complexity underscores
the need for diversity and complementarity within inventor teams, which
surpasses the efficacy of individual inventors working alone (Wuchty et al.,
2007). While individuals have unique learning histories, teams combine
diverse skills, competencies, and perspectives for problem-solving (Nelson
76 Marina Filgueiras Jorge
and Winter, 1982; Dosi, 1988). Moreover, interactions among team members
tend to influence both the creation and decision-making processes (Lundvall,
1992). Furthermore, a diversity of knowledge, experiences, and skills allows
firms to increase their available knowledge base and improve their capacity for
generating new ideas and assimilating new knowledge (Cohen and Levinthal,
1990).
The existence of co-invention and the higher number of inventors in teams
may promote female participation in patents. Given that women have to
balance their professional lives with numerous tasks in their private lives, being
part of a supportive team of co-inventors makes it easier for them to engage
in research and achieve major goals (Sifontes and Morales, 2020). As women
tend to develop smaller academic and commercial networks, they often
participate in inventions as co-inventors, with less responsibility (Murray and
Graham, 2007; Acosta, 2022). This fact is also consistent with the difficulty
women face in gaining adequate visibility for their research work (De Negri,
2020).
Gender diversity has gained attention in the corporate world because teams
and leadership structures with greater gender diversity have a positive impact
on certain forms of innovation (Fernández, 2015) and on firms’ competitiveness
(Oberfield, 2014; Ferrary and Déo, 2023). Gender diversity within teams fosters
heightened creativity and provides diverse perspectives on product needs
and the consumer market. Additionally, diversity in leadership facilitates the
attraction of talent from human resources and enhances dialogue with other
institutions. However, despite the growing importance attributed to diversity,
the integration of mixed-gender groups within corporations has progressed at
a sluggish pace (Azmat and Boring, 2020).
2.3. organizational anD cultural characteristics
The existing literature indicates that cultural and organizational
characteristics significantly impact female participation in scientific research
(Whittington and Smith-Doerr, 2008; Marques, 2017; Sifontes and Morales,
2020; Azevedo and Abrantes, 2021). Academic environments may be more
conducive to female patenting than business organizations. This difference
can be attributed to the varying proportions of women in the workforce within
these sectors and the less hierarchical structure of academic institutions, which
often foster collaborative research networks. Additionally, greater job stability
in universities and government research institutions, compared to the private
sector, may positively influence female participation in patenting.
Empirical studies in the United States reveal that female participation tends
to be more prevalent in universities than in firms or government institutions
across all technological domains (Sugimoto et al., 2015). In Ibero-American
countries, female participation was also higher in patents filed by government
institutions and universities than in firms (Carvalho et al., 2020).
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revista De economía munDial 69, 2025, 71-93
Cooperation between institutions serves as a viable solution for
organizations that may lack the necessary resources for successful innovation,
enabling them to navigate these challenges more effectively. When patents are
filed collaboratively by different organizations, they often include agreements
regarding the control of rights over the resulting innovations and the roles of
the participating organizations and inventors. These arrangements provide a
level of stability and protection for all participants, thereby promoting greater
inclusion of women in the innovation process (Sifontes and Morales, 2020).
Moreover, as knowledge production and diffusion become increasingly
globalized, multinationals (MNs) play a critical role in shaping gender equity
in the countries where they operate (OECD, 2022). However, Ferner et al.
(2005) argue that the transfer of diversity practices across borders depends
on different conceptions of diversity in national and foreign contexts.
Fernández (2015) highlights that transfer of HR policies across borders is
contingent upon three key factors. First, the role of the subsidiary within the
multinational network determines its level of autonomy and strategic focus.
Since foreign subsidiaries generally prioritize technological adaptation to the
local market and provide technical support to offshore units, they tend to
engage in incremental innovation, whereas gender diversity is more closely
associated with radical innovations. This reduces the relevance of such policies
for subsidiaries that do not play a central role in generating new technologies.
Second, the nature of the knowledge involved directly affects the ease of
disseminating these practices. Gender diversity management relies on cultural
norms, social interactions, and behavioral changes, making it predominantly
tacit knowledge. The lack of codified guidelines hinders its standardization and
effective implementation in subsidiaries located in different cultural contexts.
Third, the strategic importance of HR policies for international competitive
advantage influences the priority given to their transfer. Since gender
diversity is not universally recognized as a key competitive differentiator,
parent companies may not invest in disseminating these practices. Moreover,
institutional differences between countries create barriers to the acceptance
of these policies, as they may conflict with local norms and impact the
subsidiary’s relationships within the host country’s institutional environment.
Thus, these three combined factors limit the effectiveness of gender diversity
policy transfer within multinational networks.
However, Yáñez (2016) points out that time and mobility limitations
associated with family responsibilities may have a more significant impact
on women in science and technology careers in Latin America. Although
geographical mobility is very important in academic careers, in business, and
especially in multinationals, the availability for regular travels is an essential
requirement for career promotion, since it shows commitment to the company.
As such, women may face greater challenges working in MN subsidiaries.
Considering the findings in these three subsections, this study supports
the hypothesis that female participation in patents is more likely when patents
are related to chemistry and life sciences, involve larger inventor teams, and
78 Marina Filgueiras Jorge
are filed by universities, research institutions and government agencies, rather
than by firms, regardless of their multinationality.
3. DataBase
To analyze female participation in patenting activities in Brazil, this
study gathers data from the INPI. Typically, patent databases for the
analysis of inventive activity consider filed applications, as they represent
the initial step in the patent granting process and are closest to the date
of the inventive activity. The patent application process can be lengthy and
varies across different official offices. Additionally, not every application
ultimately receives a patent title.
Between 2000 and 2019, the INPI-Brazil received a total of 469,795
invention patent applications (INPI, 2015 and 2021). At the start of
processing, approximately 3.5% of applications were either assigned a new
number due to alterations in the nature of the application or were canceled
for reasons such as inconsistencies in the provided information or failure
to meet formal requirements. These applications often contain incomplete
data on inventors or technologies and are consequently excluded from the
study.
Patent documents include the names of all inventors, but the database
poses several challenges in processing and analyzing this data. First, the
primary data collected in application forms do not include an attribute
indicating the gender of inventors. Second, approximately 12% of inventors
with Brazilian nationality have missing data in the field for their national
identification number of individuals (known as “Cadastro de Pessoa Física”
— CPF), which complicates merging with external databases that rely on
this number to access gender information. Third, the field for the inventor’s
name lacks standardization, requiring cleaning and standardization efforts.
Standardizing names proves particularly challenging for foreign inventors,
due to differing cultural conventions.
The inference of gender from the names of inventors conducted in this
study involved two primary tasks: standardization and matching with name
dictionaries. Two dictionaries were used to assign gender to names: data
from the 2010 IBGE Census and the global dictionary of names from the
World Intellectual Property Organization (WIPO). This method was unable to
determine the gender of 9% of the inventors, and the highest percentages
of unidentified gender were found among non-resident inventors.
Regarding patent applicants, they were classified into four institutional
profiles: firms, educational/research/government institutions, individual
applicants, and cooperative efforts between two or more applicants,
indicating collaboration among different institutions, firms, or individuals.
Additionally, firms were further categorized into sub-groups: multinational
companies (residing abroad), multinational subsidiaries (residing in
Brazil), and national firms. Multinational companies and subsidiaries were
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revista De economía munDial 69, 2025, 71-93
identified through multiple searches using free online databases such as the
Multinational Enterprise Information Platform from OECD and UNSD, US
Securities and Exchange Commission website, Fortune’s global firms, and
corporate websites.
4. evolution of female ParticiPation in Brazil
This section begins with an overview of patenting activity in Brazil from
2000 to 2019. Then, for the empirical analysis in Section 5, the probit
model will use a sample that includes only patents with applicants residing
in Brazil, with a subsample specifically focused on patents filed by resident
firms.
The distribution of patents among foreign applicants in Brazil remained
stable, with firms accounting for over 90% of applications, and the United
States leading. However, among Brazilian residents, there was a significant
shift in the composition of applicants. The participation of educational,
research, and government institutions, as well as cooperative efforts,
increased significantly, while individual applicants declined. This change
can be attributed to the organization of Technology Transfer Offices in
universities and research institutes (Mueller and Perucchi, 2014). Patents
filed by resident firms showed a slight increase. The sectors with the
highest activity at INPI-Brazil are as follows: chemistry (37%), mechanical
engineering (27%); electrical and electronic engineering (14%), and
instruments (13%).
Regarding female participation, there was a notable increase across
all technological sectors (Figure 1). Female participation was consistently
higher in chemistry, rising from 31% to 51%. In instruments, female
figure 1. evolution of Patents with female ParticiPation By technological sectors: 2000-2019
Source: Own elaboration based on data from BADEPI/INPI, extracted in March/2023.
80 Marina Filgueiras Jorge
participation grew from 19% to 30%, and in electrical and electronic
engineering, from 12% to 20%. In the mechanical engineering sector,
where female participation was the lowest, there was a significant increase
from 8% to 16%.
Figure 2 shows that female participation (FP), as the percentage of patents
with at least one female inventor, increased from 19% to 33%. This growth
is primarily attributed to the rise in mixed-gender patents, which grew from
15.5% to 29%, as well as patents with two or more women, which increased
from 0.5% to 1.4%. Meanwhile, patents attributed solely to all-male teams
decreased from 81% to 67%, reflecting a shift towards greater gender
diversity in patenting teams. These findings are consistent with previous
literature (Azevedo and Abrantes, 2021). The data also show that women
are less likely to be in single-gender patents compared to men, and they
remain underrepresented as sole inventors. This may indicate that women
play a secondary role in research more often than men (Mauleon, Daraio and
Bordons, 2013). Regarding the increase in mixed-gender teams, this could be
linked to the perception that gender diversity can enhance group processes
and collective intelligence, which in turn may foster innovation and scientific
discovery (Mauleon, Daraio and Bordons, 2013).
Figure 3 presents the trends in female participation across institutional
sectors. Notably, universities, research, and government institutions show
the highest percentage of female participation, followed by patents within
cooperation between applicants, firms, and individual applicants. Specifically,
female participation in universities, research, and government institutions
increased from 34% in 2000 to 72% in 2019. Similarly, patents resulting
from cooperation saw an increase from 26% to 51% in female participation. In
patents filed by firms, the percentage of female participation rose from 20% to
30%, while among individual applicants, it grew from 9% to 14%.
figure 2. evolution of Diversity anD co-invention, 2000-2019
Source: Own elaboration based on BADEPI/INPI, extracted in March/2023.
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revista De economía munDial 69, 2025, 71-93
Figure 4 shows the female participation across different types of firms,
classified by their origin and location. Notably, among patents filed by
multinationals headquartered abroad, female participation rose from 21% to
32%. Similarly, among MN subsidiaries based in Brazil, female involvement
increased from 5% to 10%. For national firms, female participation grew
from 7% in 2000 to 17% in 2019. Additionally, Figure 5 illustrates how the
distribution of patents varies across technological sectors among different
firms. While MNs are primarily focused on chemistry, a sector dominated by
women, MN subsidiaries and national firms are concentrated in mechanical
engineering, a male-dominated field.
figure 3. evolution of female ParticiPation, By institutional Profile of aPPlicants, 2000-2019
Source: Own elaboration based on BADEPI/INPI, extracted in March/2023.
figure 4. evolution of female ParticiPation, By tyPe of firms, 2000-2019
Source: Own elaboration based on BADEPI/INPI, extracted in March/2023.
82 Marina Filgueiras Jorge
5. Determinants of female ParticiPation in Brazil
5.1. the moDel, variaBles, anD DescriPtive statistics
To assess the significance of the factors determining female participation in
STI activities, the probit model in Sifontes and Morales (2020) will be applied
to estimate the probability of female inclusion in patents in selected years. The
empirical specification of the equation is as follows:
Where F variable represents female participation in the patent, like in
Naldi et al. (2004), Mauleón and Bordons (2010) and Sifontes and Morales
(2020), and considers the value of one if there is at least one female among
inventors. The exogenous variable groups are as follows: (T) represents a
vector of dummy variables related to technological fields, with Electrical and
Electronic Engineering assumed as the reference (omitted); (I) represents
a vector of characteristics of inventor teams, including the existence of co-
inventors and the number of inventors in the team; (O) represents a vector of
institutional sector characteristics, distinguishing cases of cooperation1, firms,
universities, and individuals (assumed as the reference and therefore omitted);
(D) represents a vector of dummy variables for each of the 27 Federation Units
(Table 1).
The model is applied to two samples: one for all the resident applicants
and another focusing only on resident firms. This distinction enables us to
1 This study includes joint patent applications between two or more individual applicants in the
measure of cooperation.
figure 5. DistriBution of Patens of firms, By technologies, 2000-2019
Source: Own elaboration based on BADEPI/INPI, extracted in March/2023.
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revista De economía munDial 69, 2025, 71-93
investigate whether female participation in patented inventions is more likely
when the patent is filed by a multinational subsidiary or by resident firms. The
empirical specification of this particular equation includes a dummy variable
that distinguishes between MN subsidiaries and resident firms.
A suitable model for analyzing the impacts on female participation in patents
is the probit regression model, where the dependent variable is dichotomous:
either at least one woman participates in the patent (Y = 1) or does not (Y =
0). Specifically, the functional form of the probit model is expressed as:
Where Φ is the cumulative distribution function of the standard normal
distribution, leading to the estimation:
Where ui is a random term with a distribution of N(0,σ2) and Y'i is a latent
variable, such that:
and otherwise
taBle 1. list of variaBles
Groups Variables Name Description
F F Female participation 1: If at least a woman participates as an inventor in the patent
0: No women are involved as inventors
T T Technological sectors
T_EE: Electrical and Electronic Engineering (assumed as reference)
T_I: Instruments
T: Chemistry
T_ME: Mechanical Eng.
T_O: Civil Engineering and Others
ICI Co-invention 1: If a team of inventors is listed in the patent document
0: otherwise
NI Number of inventors Number of inventors in the team
O
CO Cooperation
1: If there are two or more individuals or organizations holding
the patent rights in the patent document;
0: otherwise
URG Universities, research, or
governmental institutes
1: If the assignee is a university, research, or governmental
institute;
0: otherwise
RF Resident firms 1: If the assignee is a firm;
0: otherwise
MN_Sub Multinational subsidiary 1: If the assignee is a multinational firm;
0: otherwise
D D Federation units
Source: Own elaboration.
84 Marina Filgueiras Jorge
Table 2 presents descriptive statistics for a sample of total resident applicants
across all groups of factors. Observing the average female participation, we
find that in 2000, it was 0.1024, while in 2019, it increased to 0.3690. In
terms of technological sectors, chemistry shows considerably higher female
participation, whereas all engineering sectors have female participation below
the overall average. In instruments, the average female participation is quite
close to the overall average.
The data also shows that the average female participation in patents with
co-invention (0.1994) is higher than the overall average (0.1024), whereas
patents without co-invention exhibit female participation (0.0767) below the
average.
Regarding the institutional sectors, universities have higher female
participation compared to firms and individual patents.
taBle 2. DescriPtive statistics: female ParticiPation for selecteD grouPs in full samPle of resiDent
aPPlicants
Variables 2000 2005 2010 2015 2019
Number of patents 2,988 3,798 3,716 3,530 4,220
Average Female participation
Total 0.1024 0.1643 0.2096 0.3113 0.3690
Technological sectors
Electrical and Electronic Eng 0.0352 0.0984 0.1411 0.1810 0.1499
Instruments 0.1165 0.1902 0.2192 0.3106 0.3535
Chemistry 0.2473 0.3322 0.4311 0.6067 0.6486
Mechanical Eng 0.0500 0.0840 0.0826 0.1207 0.1622
Civil Engineering and Others 0.0889 0.1190 0.1141 0.1522 0.1770
Co-invention
No 0.0767 0.0886 0.0775 0.0952 0.1151
Yes 0.1994 0.3695 0.4466 0.5327 0.5793
Cooperation
No 0.0952 0.1473 0.1767 0.2823 0.3364
Yes 0.1584 0.2995 0.4181 0.4706 0.5254
Institutional sectors
Universities 0.4479 0.5297 0.6025 0.6980 0.7550
Firms 0.0662 0.1506 0.1488 0.1726 0.1679
Individuals 0.0885 0.1010 0.0940 0.1350 0.1417
Source: Own elaboration.
Table 3 presents descriptive statistics for a subsample that includes only
resident firms as applicants. Observing the average female participation, we
can see that in 2000 it was 0.0556, rising to 0.1233 in 2019. Among the
technological sectors, chemistry exhibits the highest female participation,
while mechanical engineering shows the lowest.
Again, the data shows that patents with co-invention show higher female
participation compared to the overall average, while patents without co-
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invention show below-average female participation. In terms of firm types, the
average female participation in multinational subsidiaries is similar to that in
resident firms overall.
taBle 3. DescriPtive statistics: female ParticiPation for selecteD grouPs in suB-samPle of resiDent
firms
Variables 2000 2005 2010 2015 2019
Number of patents 755 1,109 1,176 1,188 1,215
Average Female participation
Total 0.0556 0.1401 0.1891 0.1504 0.1233
Technological sectors
Electrical and Electronic Eng 0.0200 0.1215 0.1410 0.1759 0.1140
Instruments 0.0482 0.1783 0.1892 0.1800 0.1824
Chemistry 0.1854 0.3012 0.3323 0.4041 0.3894
Mechanical Eng 0.0337 0.0640 0.0640 0.0829 0.1045
Civil Engineering and Others 0.0556 0.1069 0.0914 0.1478 0.1429
Co-invention
No 0.0367 0.0742 0.0615 0.0762 0.1025
Yes 0.1586 0.3064 0.3036 0.3256 0.2875
Type of firms
National Firms 0.0766 0.1611 0.1585 0.2017 0.1976
MN Subsidiaries 0.0552 0.1310 0.1923 0.1617 0.1491
Source: Own elaboration.
5.2. results
The empirical model tests the hypothesis regarding the role of the
determinants addressed by the empirical literature on the persistence of gender
gap in STI. These determinants include horizontal and vertical segregation,
gender diversity in research networks, the organizational environment in
private and public organization, and the cooperation between organizations.
The coefficient estimates presented in Table 4 provide support for our
hypotheses. As expected, the technology sectors have different impacts on
the probability of female participation in patents, with electrical and electronic
engineering used as the reference sector. Technology related to the sectors of
instruments, chemistry, and others have a positive impact on the likelihood
of female participation. Technologies related to the mechanical engineering
sector exhibit a similar behavior to electrical and electronic engineering in
the annual samples. These results are consistent with previous literature on
horizontal segregation (Azevedo and Abrantes, 2021; Schneegans et al. 2021).
The diversity of inventor teams, measured by co-invention and the number
of inventors in a team, positively impacts the probability of female participation
in patents. This finding supports previous literature (Sifontes and Morales,
2020; Azevedo and Abrantes, 2021), which shows that women are more likely
to participate in patents when a group of inventors is involved.
86 Marina Filgueiras Jorge
Conversely, the pronounced coefficient for larger teams aligns with earlier
arguments, namely, that women are more likely to participate in inventions
where they have less individual responsibility (Murray and Graham, 2007) and
lower visibility (De Negri, 2020). However, cooperation shows no significant
effect. We attribute this lack of significance to the nature of cooperation in
Brazil, where collaboration can involve companies, companies and universities,
individuals and their respective organizations, and individuals on behalf of their
organizations. Each type of cooperation might offer a distinct environment for
women.
Regarding the institutional profile of the applicant, universities, research
institutes, and government agencies show a positive coefficient, indicating an
increased probability of female participation in patents. In contrast, female
participation is less likely in patent filed by firms. These results are consistent
with the findings from previous literature (Mauleón and Bordons, 2010;
Sugimoto et al. 2015; Sifontes and Morales, 2020).
taBle 4. estimateD coefficients (full samPle)
Variables Dependent Variable: Female participation
2000 2005 2010 2015 2019
T_I 0.534*** 0.328*** 0.320*** 0.236** 0.370***
(0.156) (0.121) (0.116) (0.105) (0.102)
T_C 0.986*** 0.742*** 0.780*** 0.933*** 1.072***
(0.144) (0.109) (0.099) (0.090) (0.091)
T_ME 0.132 0.086 -0.013 -0.022 0.162*
(0.147) (0.111) (0.107) (0.098) (0.097)
T_O 0.498*** 0.363*** 0.248** 0.305*** 0.496***
(0.149) (0.117) (0.114) (0.107) (0.111)
CI 0.128 0.321*** 0.375*** 0.392*** 0.063
(0.158) (0.100) (0.099) (0.090) (0.084)
NI 0.236*** 0.250*** 0.292*** 0.264*** 0.294***
(0.049) (0.031) (0.027) (0.022) (0.019)
CO -0.165 -0.051 0.077 -0.031 0.107
(0.149) (0.105) (0.103) (0.102) (0.091)
URG 0.541*** 0.389*** 0.441*** 0.448*** 0.737***
(0.185) (0.119) (0.107) (0.100) (0.091)
RF -0.482*** -0.184** -0.287*** -0.286*** -0.246***
(0.106) (0.075) (0.081) (0.082) (0.075)
D Included Included Included Included Included
Observations 2,918 3,798 3,716 3,530 4,220
Note: *p<0.1; **p<0.05; ***p<0.01
The results for the subsample that considers only resident firms as
applicants are reported in Table 5. These results indicate that the likelihood
of female involvement in patents decreases when the patents are assigned to
multinational subsidiary firms. This observation aligns with the expected sign
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Determinants of female ParticiPation in Patenting activity in Brazil: the role of multinational corPorations
revista De economía munDial 69, 2025, 71-93
but show no significant effect in most of the annual subsamples. This finding
is consistent with the work-family balance hypothesis, which suggests that
gender segregation in science and technology disciplines in Latin America is
influenced by time and mobility constraints related to family responsibilities
(Yáñez, 2016). This dynamic can be extended to the case of women working
in MN subsidiaries, who may face difficulties accepting positions that require
long and regular travel. The lack of significance suggests that MN subsidiaries
do not differ from local companies in this respect. This implies that while
gender diversity has the potential to enhance innovation outcomes, its actual
impact may be constrained by organizational roles, types of knowledge, and
institutional disparities across countries.
taBle 5. estimateD coefficients (only firms)
Variables Dependent Variable: Female participation
2000 2005 2010 2015 2019
T_I 0.58 0.251 0.246 0.071 0.288
(0.472) (0.227) (0.205) (0.182) (0.214)
T_C 1.229*** 0.482** 0.740*** 0.817*** 1.080***
(0.422) (0.198) (0.175) (0.149) (0.175)
T_ME 0.574 -0.427** -0.292 -0.243 0.234
(0.435) (0.210) (0.190) (0.160) (0.179)
T_O 0.742* -0.047 0.01 0.198 0.501**
(0.444) (0.230) (0.209) (0.166) (0.209)
NI 0.177*** 0.369*** 0.388*** 0.300*** 0.281***
(0.048) (0.037) (0.038) (0.031) (0.028)
MN_Sub -0.058 -0.067 0.09 -0.141 -0.430**
(0.230) (0.157) (0.140) (0.135) (0.171)
D Included Included Included Included Yes
Observations 751 1,109 1,176 1,188 1,215
Note: *p<0.1; **p<0.05; ***p<0.01
6. conclusions
This study investigated factors that influence female participation in
patenting activity across various institutions, particularly focusing on the role of
multinationals, identified by the origin of capital and the location of firms. The
determinants examined included technological specialization (which configures
horizontal segregation), co-invention, cooperation, and organizational and
cultural characteristics. To conduct the investigation, we analyzed the invention
patents filed with the INPI-Brazil from 2000 to 2019.
The results reveal an upward trend in female participation in patents in
Brazil. However, women remain underrepresented, a finding consistent with
empirical studies in other countries, and with the persistence of asymmetries
that vary depending on the field of knowledge and institutional sector.
Our analysis reveals a pattern of gender discrimination: women are more
88 Marina Filgueiras Jorge
prominently involved in chemistry, mixed-gender and larger teams, and in
universities, research, and government institutions.
Regarding technological sector variables, the probability of female
participation in patents increases when the patent is linked to chemistry and
instruments fields, which are closer to areas of knowledge related to biological
and life sciences. Conversely, the likelihood of female involvement decreases in
engineering-related patents. These results are consistent with the persistence of
horizontal segregation in STEM knowledge subareas and reflect the significant
participation of women in medical and health sciences, which have a large and
productive community as a result of the entry of women in higher education in
care-related careers in the 1970s.
Our findings also confirm that technological knowledge production is
more commonly achieved through co-invention, as measured by collaboration
networks involving two or more inventors, rather than by individual inventors
working alone. Moreover, co-invention played a significant role in both female
inclusion in STI and, in a sense, acted as a mitigating factor for the effects of
time dedicated to “domestic work” and “care work”.
Regarding cooperation, there has been a noticeable increase in female
involvement across the full patent dataset, suggesting that cooperation acts as
a mechanism for inclusion. This is consistent with prior literature, which shows
the growing importance of international cooperation networks as a potential
means of integrating women into inventive activities (Medina and Alvarez,
2021). However, when applying the probit model to the sample of residents
only, cooperation, as defined in footnote number 1, showed no significant
effect, warranting further research. This result could inform the design of public
policies aimed at improving cooperation between national institutions to foster
greater stability for female participation.
Among the institutions filing patents in Brazil, universities, research, and
government institutions showed the highest rates of female participation.
Brazilian universities, in particular, were predominant in this category,
underscoring their critical role in investing in science, technology, and innovation
activities, particularly as a mechanism for fostering female participation in
inventive activities. In this case, public policies could focus on mitigating the
persistent gender segregation within the STI system and encouraging female
students to pursue areas of knowledge that are traditionally male-dominated.
While multinationals are filing patents in chemical technologies, which
explains the higher rate of female participation in their patents, MN
subsidiaries in Brazil and national firms exhibit a relatively higher propensity
to patent in the mechanical engineering sector, which coincides with the lowest
rates of female involvement. Moreover, although the electrical and electronic
engineering sector has seen global growth in patents published in 2020, this
trend has not yet been reflected in Brazil. Considering this, public policies
could aim to integrate more women into digital entrepreneurship and high-
tech firms as a future avenue of inclusion. Additionally, in light of the significant
role of technology- and knowledge-intensive sectors, such as export-oriented
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revista De economía munDial 69, 2025, 71-93
services, in increasing female participation, public policies should encourage a
shift towards these activities (Valera et al., 2024).
When considering a sub-sample of only resident firms, our model found
no significant differences in the probability of female participation in patents
between national firms and MN subsidiaries. However, it is noteworthy that
national firms exhibit a higher relative presence of patents developed by
individual inventors attributed to a single female inventor. Given the general
trend towards increased team-based knowledge production, this represents a
significant opportunity for national firms to foster greater diversity.
In summary, this study provides an overview of women’s participation as
inventors in technological knowledge generation in Brazil. The findings shed
light on the situation of women researchers in technological activities, the role
of institutions in reducing gender inequality, and the persistent challenges
across various fields. By leveraging patent indicators disaggregated by
applicant profile, inventor composition, and technological sectors, this research
offers valuable insights for informing public policies aimed at promoting
female inclusion. However, there is still a need for improved data treatment,
including the integration of external databases, to further explore the life cycle
characteristics of female inventors, such as career stage and the impact of
maternity.
acknowleDgements
The author would like to thank the CNPq funding agency and the INPI for
supporting this research.
Special thanks to Ana Urraca-Ruiz for her valuable discussions and for her
helpful comments and feedback on this study.
The author assumes full responsibility for the content and conclusions of
this paper.
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