Lisa Gonzalez - Academia.edu (original) (raw)

Papers by Lisa Gonzalez

The Charleston Advisor

The ESAC Initiative is a community of international library practitioners who share data and best... more The ESAC Initiative is a community of international library practitioners who share data and best practices in order to promote the transition of scholarly publishing to open using transformative agreements. ESAC views transformative agreements as one phase of the transition to open and to a publishing landscape where scholarship will be available to all in a sustainable and equitable manner. The ESAC website shares the outputs of the community's collaborative efforts and provides information on how to participate in the community.

Epicnemis sinuosus new species Figures 16, 31. Diagnosis. T... more Epicnemis sinuosus new species Figures 16, 31. Diagnosis. This species is easily recognized by the thick, rounded, sinuous phallus. Description. Body 2.6 mm long. Frons light brown and relatively wide; frontal width 0.51 head width. Frontal ratio 0.97. Twelve large frontal setae present, including one pair of supra-antennal setae. Ocellar triangle brown and slightly separated from rest of frons, with rounded posterior margin. Lateroventral part of frons with white triangular region with thin black line. Scutum yellowish-brown. Scutellum light brown, short, broad, with four subequal setae. Pleuron uniformly yellow. Foretibia without strongly differentiated large setae, with dorsal row of several barely differentiated setae, decreasing in size apically. Midtibia with one posterodorsal seta near base and one slightly more apical anterodorsal seta present; dorsally with setal palisade extending from base to midlength, more apically with transverse rows of fine setulae; few posterodorsal setae slightly enlarged apically. Hind tibia with several scattered medium-sized anterodorsal setae; dorsally with complete setal palisade, with row of small posterodorsal setulae closely parallel, followed more posteriorly by bare space before regular setulation. Wing large; costal length.52 wing length. Costal sector ratio 2.29:1. Halter knob yellowish-brown. Epandrium length greater than depth. Epandrium with rounded dorsal margin and two small triangular processes present; one midlength and one anteroventrally on margin of epandrium. Length of setae on posteroventral margin of epandrium slightly greater than length of setae on cercus, ending at midlength process. Phallus length slightly greater than length of epandrium and strongly curved at base. Ventral margin of phallus noticeably rounded from base to midlength.Apical half of phallus strongly curved downward and rounded. Phallus broad throughout length; distinctly curved, forming an "S" shape. Distribution. Philippines. Etymology. Named for th [...]

Epicnemis dorsalis new species Figures 7, 22. Diagnosis. Th... more Epicnemis dorsalis new species Figures 7, 22. Diagnosis. This species is recognizable by the globose genitalia and the phallus with its four separate dark elements. Description. Body 2.1 mm long. Frons light brown and relatively narrow; frontal width.047 head width. Frontal ratio 1. Twelve large frontal setae present, including one pair of supra-antennal setae. Ventral interfrontal setae same width apart as dorsal interfrontal setae. Ocellar triangle dark brown and strongly separated from rest of frons, with rounded posterior margin. Lateroventral part of frons with white triangular region with thin black line. Scutum yellowish-brown. Scutellum brown, short, broad, with four subequal setae. Pleuron yellowish-brown dorsally to whitish ventrally. Foretibia with anterodorsal row of several differentiated setae, decreasing in size apically. Midtibia with one posterodorsal seta near base, one slightly more apical anterodorsal seta present, and one anterodorsal seta at or above midlength; dorsally with setal palisade extending from base to midlength, more apically with transverse rows of fine setulae; few posterodorsal setae slightly enlarged apically. Hind tibia with 3–4 scattered medium-sized anterodorsal setae; dorsally with complete setal palisade, with row of small posterodorsal setulae closely parallel, followed more posteriorly by bare space before regular setulation. Wing large; mean costal length 0.54 wing length. Costal sector ratios 3.4:1. Halter knob yellowish-brown. Abdominal tergite 1 yellow, large, and extending laterally on segment. Tergite 2 yellow except more brown laterally; tergites 3–6 brown. Shape of epandrium ovoid with strongly rounded dorsum; length of epandrium greater than depth. Setae on posteroventral margin of epandrium approximately twice length of setae on cercus. Phallus sharply curved at base with slight separation in sclerites. Apex of phallus broad with weakly sclerotized ventral process. Distribution. Malaysia, Indonesia. Etymology. Named for the r [...]

Epicnemis setosus new species Figures 15, 30. Diagnosis. Th... more Epicnemis setosus new species Figures 15, 30. Diagnosis. This species is easily recognized by the extra frontal setae and the short, ventrally bilobed epandrium. Description. Body 2.5–3.2 mm long. Frons dark brown and relatively narrow; frontal width range 0.38–0.43. Frontal ratio 1.06–1.16. Frons relatively setose, with 12–18 large frontal setae present, with supranumerary frontal setae present along the ventrolateral margin of the frons (one specimen of this species had no extra frontal setae). Ocellar triangle dark brown and separated from rest of frons, with rounded posterior margin. Lateroventral part of frons with white triangular region with thin black line. Scutum yellowish-brown. Scutellum brown, short, broad, with four subequal setae. Pleuron yellowish-brown dorsally to whitish ventrally. Foretibia without strongly differentiated large setae. Midtibia with one posterodorsal seta near base and row of four anterodorsal setae; dorsally with setal palisade extending from base to midlength, more apically with transverse rows of fine setulae. Hind tibia with several scattered medium-sized anterodorsal setae; dorsally with complete setal palisade, with row of small posterodorsal setulae closely parallel, followed more posteriorly by bare space before regular setulation. Wing large; mean costal length 0.53 wing length; range 0.48–0.57. Costal sector ratios 2.44–3.25:1. Halter knob yellowishbrown. Abdominal tergite 1 yellow except brown laterally, large, and extending laterally on segment. Tergites 2–6 similar in coloration except more brown laterally. Epandrium somewhat rectangular in shape; depth greater than length. Epandrium ventrally bilobed with lobes close together. Posteroventral margin of epandrium concave. Setae on posterior margin of epandrium about same size as setae on cercus; setae decreasing in size ventrally and ending at base of right lobe. Phallus short, about same length as posterior Distribution. Cambodia, Thailand. Etymology. Named for the setose frons. HOL [...]

Epicnemis disjunctus new species Figures 6, 21. Diagnosis. ... more Epicnemis disjunctus new species Figures 6, 21. Diagnosis. This species is distinctive through its relatively broad frons with short frontal setae and greatly enlarged ocelli, and the peculiar, separated appearance of the longitudinal sclerites of the phallus. Description. Body 1.6–2.4 mm long. Frons dark brown and relatively wide; frontal width range 0.52–0.59. Frontal ratio 0.82–0.88. Twelve large frontal setae present, including one pair of supra-antennal setae. Ventral interfrontal setae same width apart as dorsal interfrontal setae. Ocellar triangle dark brown and not strongly separated from rest of frons, with large, rounded posterior margin. Lateroventral part of frons with white triangular region with thin black line. Scutum yellowish-brown. Scutellum brown, short, broad, with four subequal setae. Pleuron yellowish-brown dorsally to whitish ventrally. Foretibia with anterodorsal row of several slightly differentiated setae, decreasing in size apically. Midtibia with one posterodorsal seta near base and one slightly more apical anterodorsal seta present; dorsally with setal palisade extending from base to midlength, more apically with transverse rows of fine setulae; few posterodorsal setae slightly enlarged apically. Hind tibia with several scattered medium-sized anterodorsal setae; dorsally with complete setal palisade, with row of small posterodorsal setulae closely parallel, followed more posteriorly by bare space before regular setulation. Wing large; mean costal length 0.53 wing length; range 0.51–0.55. Costal sector ratios 2.5–3.56:1. Halter knob brown. Abdominal tergites yellowish-brown. Epandrium with slightly rounded dorsal margin and asymmetrical ventral margin; length slightly greater than depth, with depth decreasing posteriorly. Large triangular process present anteroventrally and smaller triangular process midlength; smaller triangular process more rounded than corner of smaller triangular process on E. harveyi. Setae on posteroventral margin of epandrium same len [...]

FIGURES 3–11. Male genitalia of Epicnemis species, left lateral.

FIGURES 1A–B. Habitus, Epicnemis species. a. E. ratanae new species, male. b. Epicnemis species, ... more FIGURES 1A–B. Habitus, Epicnemis species. a. E. ratanae new species, male. b. Epicnemis species, female.

The Texas Parks and Wildlife Department (TPWD) utilizes several sampling gears for fisheries-inde... more The Texas Parks and Wildlife Department (TPWD) utilizes several sampling gears for fisheries-independent monitoring of finfish and shellfish communities. They include bag seines, trawls, gill nets and oyster dredges. TPWD uses multiple gears in a random sampling protocol, and they identify (to the lowest taxonomic unit possible) and count everything that they collect. This dataset contains gill net data collected for the Upper Laguna Madre system in Texas from 1976 to 2008. Collected data also included spatial and temporal information describing the sample location and time, collection gear information, hydrological data (e.g. dissolved oxygen, water temperature, and salinity), weather conditions, species caught, and number of each species captured. Houston Advanced Research Center (HARC) calculated the relative abundance data, calculated as the catch of a particular species in a sample divided by the total number of animals captured in that sample. Absence data was recorded for spe...

The Texas Parks and Wildlife Department (TPWD) utilizes several sampling gears for fisheries-inde... more The Texas Parks and Wildlife Department (TPWD) utilizes several sampling gears for fisheries-independent monitoring of finfish and shellfish communities. They include bag seines, trawls, gill nets and oyster dredges. TPWD uses multiple gears in a random sampling protocol, and they identify (to the lowest taxonomic unit possible) and count everything that they collect. This dataset contains gill net data collected for the Lower Laguna Madre system in Texas from 1976 to 2008. Collected data also included spatial and temporal information describing the sample location and time, collection gear information, hydrological data (e.g. dissolved oxygen, water temperature, and salinity), weather conditions, species caught, and number of each species captured. Houston Advanced Research Center (HARC) calculated the relative abundance data, calculated as the catch of a particular species in a sample divided by the total number of animals captured in that sample. Absence data was recorded for spe...

The Texas Parks and Wildlife Department (TPWD) utilizes several sampling gears for fisheries-inde... more The Texas Parks and Wildlife Department (TPWD) utilizes several sampling gears for fisheries-independent monitoring of finfish and shellfish communities. They include bag seines, trawls, gill nets and oyster dredges. TPWD uses multiple gears in a random sampling protocol, and they identify (to the lowest taxonomic unit possible) and count everything that they collect. This dataset contains bay trawl data collected for the San Antonio bay system in Texas from 1982 to 2008. Collected data also included spatial and temporal information describing the sample location and time, collection gear information, hydrological data (e.g. dissolved oxygen, water temperature, and salinity), weather conditions, species caught, and number of each species captured. Houston Advanced Research Center (HARC) calculated the relative abundance data, calculated as the catch of a particular species in a sample divided by the total number of animals captured in that sample. Absence data was recorded for speci...

The Texas Parks and Wildlife Department (TPWD) utilizes several sampling gears for fisheries-inde... more The Texas Parks and Wildlife Department (TPWD) utilizes several sampling gears for fisheries-independent monitoring of finfish and shellfish communities. They include bag seines, trawls, gill nets and oyster dredges. TPWD uses multiple gears in a random sampling protocol, and they identify (to the lowest taxonomic unit possible) and count everything that they collect. This dataset contains bag seine data collected for the Matagorda bay system in Texas from 1977 to 2008. Collected data also included spatial and temporal information describing the sample location and time, collection gear information, hydrological data (e.g. dissolved oxygen, water temperature, and salinity), weather conditions, species caught, and number of each species captured. Houston Advanced Research Center (HARC) calculated the relative abundance data, calculated as the catch of a particular species in a sample divided by the total number of animals captured in that sample. Absence data was recorded for species...

The Texas Parks and Wildlife Department (TPWD) utilizes several sampling gears for fisheries-inde... more The Texas Parks and Wildlife Department (TPWD) utilizes several sampling gears for fisheries-independent monitoring of finfish and shellfish communities. They include bag seines, trawls, gill nets and oyster dredges. TPWD uses multiple gears in a random sampling protocol, and they identify (to the lowest taxonomic unit possible) and count everything that they collect. This dataset contains bag seine data collected for the Corpus Christi bay system in Texas from 1977 to 2008. Collected data also included spatial and temporal information describing the sample location and time, collection gear information, hydrological data (e.g. dissolved oxygen, water temperature, and salinity), weather conditions, species caught, and number of each species captured. Houston Advanced Research Center (HARC) calculated the relative abundance data, calculated as the catch of a particular species in a sample divided by the total number of animals captured in that sample. Absence data was recorded for sp...

This guide provides documentation for creating and managing electronic resource collections in th... more This guide provides documentation for creating and managing electronic resource collections in the knowledge base (KB) in Collection Manager. The knowledge base is accessible in Collection Manager through both the Metadata and Licenses tabs.

Theological Librarianship, 2010

Theological Librarianship, 2015

Nicole Hennig's book Apps for Librarians focuses on apps for mobile devices that are most useful ... more Nicole Hennig's book Apps for Librarians focuses on apps for mobile devices that are most useful for librarians in their day-today work. The book begins with a brief chapter on the usefulness of mobile technology generally, while Chapter 2 through Chapter 12 are organized around apps that perform a particular task or interact with a particular type of content. This categorization of apps includes apps librarians might use in the course of their professional work, as well as apps that librarians might recommend to patrons. The information about the apps is presented as reviews, though the author focuses almost exclusively on apps that she can recommend positively. The review format supports Hennig's purpose of providing apps that librarians can recommend to patrons, and she also intends the reviews to be helpful for librarians seeking to provide workshops on mobile devices and their uses. The outline for reviews that the author follows includes both descriptive and evaluative information, such as a technical description, usage examples, and the suggested audience for the app. This outline is explained in more detail in a checklist in Chapter 13, and includes further evaluative criteria such as accessibility features, customization options, and how the app takes advantage of the mobile platform.

Zootaxa, 2020

The Oriental Region phorid genus Epicnemis Borgmeier is revised, resulting in the recognition of ... more The Oriental Region phorid genus Epicnemis Borgmeier is revised, resulting in the recognition of 15 species, 10 of which are new to science: E. alus, chaweewanae, digitalis, disjunctus, dorsalis, latus, projectus, ratanae, setosus, and sinuosus. Only males are treated, as females are highly modified and cannot be associated with their males based on morphology alone.

Trissolcus hyalinipennis Rajmohana & Narendran is an Old World egg parasitoid of Bagrada hilaris ... more Trissolcus hyalinipennis Rajmohana & Narendran is an Old World egg parasitoid of Bagrada hilaris (Burmeister). Its potential as a classical biological control agent in the United States has been under evaluation in quarantine facilities since 2014. A survey of resident egg parasitoids using fresh sentinel B. hilaris eggs in Riverside, California, revealed that T. hyalinipennis is present in the wild. Four cards with parasitized eggs were recovered, from which one yielded a single live T. hyalinipennis and two unidentified dead wasps (Scelionidae), and three yielded twenty live Trissolcus basalis (Wollaston) and one dead wasp. Subsequently, samples from Burbank, California, collected with a Malaise trap as part of the BioSCAN project, yielded five females of T. hyalinipennis. It is presumed that the introduction of T. hyalinipennis to this area was accidental. Surveys will be continued to evaluate the establishment of T. hyalinipennis as well as the presence of other resident parasitoid species.

The Charleston Advisor

FIGURES 3–11. Male genitalia of Epicnemis species, left lateral.

The Texas Parks and Wildlife Department (TPWD) utilizes several sampling gears for fisheries-inde... more The Texas Parks and Wildlife Department (TPWD) utilizes several sampling gears for fisheries-independent monitoring of finfish and shellfish communities. They include bag seines, trawls, gill nets and oyster dredges. TPWD uses multiple gears in a random sampling protocol, and they identify (to the lowest taxonomic unit possible) and count everything that they collect. This dataset contains gill net data collected for the Lower Laguna Madre system in Texas from 1976 to 2008. Collected data also included spatial and temporal information describing the sample location and time, collection gear information, hydrological data (e.g. dissolved oxygen, water temperature, and salinity), weather conditions, species caught, and number of each species captured. Houston Advanced Research Center (HARC) calculated the relative abundance data, calculated as the catch of a particular species in a sample divided by the total number of animals captured in that sample. Absence data was recorded for spe...

The Texas Parks and Wildlife Department (TPWD) utilizes several sampling gears for fisheries-inde... more The Texas Parks and Wildlife Department (TPWD) utilizes several sampling gears for fisheries-independent monitoring of finfish and shellfish communities. They include bag seines, trawls, gill nets and oyster dredges. TPWD uses multiple gears in a random sampling protocol, and they identify (to the lowest taxonomic unit possible) and count everything that they collect. This dataset contains bay trawl data collected for the San Antonio bay system in Texas from 1982 to 2008. Collected data also included spatial and temporal information describing the sample location and time, collection gear information, hydrological data (e.g. dissolved oxygen, water temperature, and salinity), weather conditions, species caught, and number of each species captured. Houston Advanced Research Center (HARC) calculated the relative abundance data, calculated as the catch of a particular species in a sample divided by the total number of animals captured in that sample. Absence data was recorded for speci...

The Texas Parks and Wildlife Department (TPWD) utilizes several sampling gears for fisheries-inde... more The Texas Parks and Wildlife Department (TPWD) utilizes several sampling gears for fisheries-independent monitoring of finfish and shellfish communities. They include bag seines, trawls, gill nets and oyster dredges. TPWD uses multiple gears in a random sampling protocol, and they identify (to the lowest taxonomic unit possible) and count everything that they collect. This dataset contains bag seine data collected for the Matagorda bay system in Texas from 1977 to 2008. Collected data also included spatial and temporal information describing the sample location and time, collection gear information, hydrological data (e.g. dissolved oxygen, water temperature, and salinity), weather conditions, species caught, and number of each species captured. Houston Advanced Research Center (HARC) calculated the relative abundance data, calculated as the catch of a particular species in a sample divided by the total number of animals captured in that sample. Absence data was recorded for species...

The Texas Parks and Wildlife Department (TPWD) utilizes several sampling gears for fisheries-inde... more The Texas Parks and Wildlife Department (TPWD) utilizes several sampling gears for fisheries-independent monitoring of finfish and shellfish communities. They include bag seines, trawls, gill nets and oyster dredges. TPWD uses multiple gears in a random sampling protocol, and they identify (to the lowest taxonomic unit possible) and count everything that they collect. This dataset contains bag seine data collected for the Corpus Christi bay system in Texas from 1977 to 2008. Collected data also included spatial and temporal information describing the sample location and time, collection gear information, hydrological data (e.g. dissolved oxygen, water temperature, and salinity), weather conditions, species caught, and number of each species captured. Houston Advanced Research Center (HARC) calculated the relative abundance data, calculated as the catch of a particular species in a sample divided by the total number of animals captured in that sample. Absence data was recorded for sp...

Theological Librarianship, 2010

Theological Librarianship, 2015

Zootaxa, 2020