This map is the result of field investigations by DGGS in 1997 and 1998. This geologic map and report supersede the previously released Public Data File 1999-24D, Preliminary engineering-geologic map of the Healy A-6 Quadrangle, southcentral Alaska. The current map has been updated to include mapping of areas adjacent to the Healy A-6 Quadrangle. Field investigations were part of a two-year mapping program to provide geologic ground truth for airborne geophysical surveys flown by DGGS in the Chulitna region of southcentral Alaska during 1996.

In the United Kingdom (UK) geological maps traditionally have been attributed with lithostratigraphical map units. However, without significant supplementary information, these maps can be only of limited use for planning and engineering works. During the middle part of the 20th century, as development of the science of engineering geology began to accelerate, engineering geological maps started to appear in various forms and at various scales to meet the challenge of making geological maps more suited to land-use planning, engineering design, building, construction and maintenance. Today, engineering geological maps are routinely used at various scales as part of the engineering planning, design and construction process. However, until recently there had been no comprehensive, readily available engineering geological map of the UK to provide the broad context for ground investigation. This paper describes the recently published (2011) 1:1 000 000 scale engineering geology superficial and bedrock maps of the UK. It describes the methodologies adopted for their creation and outlines their potential uses, limitations and future applications.

The Alaska Division of Geological & Geophysical Surveys (DGGS) has conducted 1:63,360-scale geologic mapping of the Eagle A-1 Quadrangle. The area is part of the 100-year old Fortymile mining district and is located in eastern Alaska near the Alaska-Yukon border. This map illustrates potential near-surface sources of various geologic materials that may be useful for construction. Field observations indicate that each geologic unit (for example, stream alluvium) has a definite composition or range of composition. Therefore, the probable presence of materials is interpreted from the distribution of geologic units on the geologic map of this quadrangle. This map is generalized and is not intended to show exact locations of specific materials. Local variations are common, especially near unit boundaries. The map was derived electronically from the geologic map of the area using Geographic Information System (GIS) software. It is locally verified by ground observations during field visits. The results should be considered reconnaissance in nature.

When clicking around on the map you will be able to see who is the proper Engineer and/or Inspector that needs to be contacted for that area of interest. If you zoom in, parcel lines will start to appear and address labels will show up along with the FEMA Floodplain. If you click on a certain parcel a window will pop up with the proper Engineer and/or Inspector that needs to be contacted for that area.

United States - Sources of Revenue: Surveying and Mapping Services for Engineering Services, All Establishments, Employer Firms was 3123.00000 Mil. of $ in January of 2018, according to the United States Federal Reserve. Historically, United States - Sources of Revenue: Surveying and Mapping Services for Engineering Services, All Establishments, Employer Firms reached a record high of 3123.00000 in January of 2018 and a record low of 1656.00000 in January of 2015. Trading Economics provides the current actual value, an historical data chart and related indicators for United States - Sources of Revenue: Surveying and Mapping Services for Engineering Services, All Establishments, Employer Firms - last updated from the United States Federal Reserve on November of 2025.

The engineering-geologic map, on two sheets, is derived electronically from the surficial-geologic map of the initial segment of the proposed natural gas pipeline corridor through the upper Tanana valley (Reger and others, PIR 2008-3a) using Geographic Information System (GIS) software. Surficial-geologic units were initially identified by interpretation of false-color ~1:63,000-scale infrared aerial photographs taken in July 1978, August 1980, and August 1981 and locally verified by field checking in 2006 and 2007. The map shows the distribution of surficial-geologic and bedrock units grouped genetically with common properties that are typically significant for engineering applications.

Graph and download economic data for Sources of Revenue: Surveying and Mapping Services for Engineering Services, All Establishments, Employer Firms (REVSMSEF54133ALLEST) from 2013 to 2018 about engineering, employer firms, accounting, revenue, establishments, services, and USA.

This web map represents the National Bridge Inventory (NBI) dataset, current as of June 27, 2024, and published by the Federal Highway Administration (FHWA) as part of the National Transportation Atlas Database (NTAD) maintained by the U.S. Department of Transportation/Bureau of Transportation Statistics (USDOT/BTS). The dataset covers over 615,000 bridges on public roads across the United States, including Interstates, U.S. highways, state and county roads, and publicly accessible bridges on federal and tribal lands.Each feature includes essential attributes such as location, structure type, functional classification, ownership, and general condition ratings. For bridges on the National Highway System (NHS), additional element-level condition data is included, offering a detailed breakdown of structural components and maintenance needs. This dataset supports infrastructure monitoring, transportation planning, and public safety analysis.Attribute definitions and coding guidance follow the FHWA Recording and Coding Guide for the Structure Inventory and Appraisal of the Nation’s Bridges, available at https://doi.org/10.21949/1519105. The data is suitable for use in ArcGIS, dashboards, and other spatial applications requiring comprehensive and current bridge infrastructure data. The original data can be found here.

Machine learning (ML) has become a core feature for today's real-world applications, making it a trending topic for the software engineering community. Requirements Engineering (RE) is no stranger to this and its main conferences have included workshops aiming at discussing RE in the context of ML. However, current research on the intersection between RE and ML mainly focuses on using ML techniques to support RE activities rather than on exploring how RE can improve the development of ML-based systems. This paper concerns a systematic mapping study aiming at characterizing the publication landscape of RE for ML-based systems, outlining research contributions and contemporary gaps for future research. In total, we identified 35 studies that met our inclusion criteria. We found several different types of contributions, in the form of analyses, approaches, checklists and guidelines, quality models, and taxonomies. We discuss gaps by mapping these contributions against the RE topics to which they were contributing and their type of empirical evaluation. We also identified quality characteristics that are particularly relevant for the ML context (e.g., data quality, explainability, fairness, safety, and transparency). Main reported challenges are related to the lack of validated RE techniques, the fragmented and incomplete understanding of NFRs for ML, and difficulties in handling customer expectations. There is a need for future research on the topic to reveal best practices and to propose and investigate approaches that are suitable to be used in practice.

The Alaska Division of Geological & Geophysical Surveys (DGGS) has conducted 1:63,360-scale geologic mapping of the Eagle A-2 Quadrangle (270 square miles; equivalent to four 7.5-minute quadrangles). The area is part of the 100-year old Fortymile mining district and is located in eastern Alaska near the Alaska-Yukon border. This map illustrates potential near-surface sources of various geologic materials that may be useful for construction. Field observations indicate that each geologic unit (for example, stream alluvium) has a definite composition or range of composition. Therefore, the probable presence of materials is interpreted from the distribution of geologic units on the geologic map of this quadrangle. This map is generalized and is not intended to show exact locations of specific materials. Local variations are common, especially near unit boundaries. The map was derived electronically from the geologic map of the area using Geographic Information System (GIS) software. It is locally verified by ground observations during field visits. The results should be considered reconnaissance in nature.

ROW permits are issued through Cityworks, but the permit point geometry can not be edited directly from Cityworks. Work around is for Engineering to draw the permit's extent using the editing tool in CityWorks. What they have drawn in will also show on the AMS map. They can look at the map to view the permits out and approved and shut down any un-approved sites in the field. View layer shared publicly is in the PLL map. Layers:City of Friendswood - ROW Permits**ROW Permit ALL (CityWorks eUrl)Map:ROW ViewerROW Permits EditingApp:ROW Permit ViewerROW Permit EditingOther Maps:City Works PLLInternal Interactive Map ** This layer replaces the two previous layers used “ROW Permit Points” and “ROW Permit Lines” into one feature class. URL was swapped in Cityworks for both service resources.

Map data (paper:A Method for Mapping Forest Fire Susceptibility: A Mediterranean case study in Southern Italy)

Abstract Physics is typically introduced to students through kinematics. In general, students learn to solve simple examples, for example, how to find the time of a journey from one position to another one. With the popularization of computer science, it is important to present problems which can be analyzed playfully on the computer. With this objective, through simulations, we study different strategies for the kinematics of a robot that must map a room. The efficiencies of the different strategies were compared by calculating some quantities from the trajectories, such as Convex Hull and Entropy. Comparing these quantities, it is possible to discuss the mapping performed by each one of them.

This dataset includes the systematic mapping study intermediate results to a study on the use of case survey in software engineering research. It includes the results to queries on four different databases (ACM Digital Library, IEEE Xplore, Scopus and Web of Science), the final set of unique results (eliminating duplicates) and how they were classified regarding if it was focused on software engineering, if it is an empirical research paper, and if it employed case survey.

This paper presents the potential of airborne LiDAR digital terrain model (DTM) for engineering geological mapping in geologically complex and forested area. The multipurpose, comprehensive engineering geological map is created for the pilot area (16.75 km2) located in the Vinodol Valley, Croatia. Eight topographic datasets were derived from 1-m DTM and visually interpreted to identify lithologies and geomorphological processes. In total, 12 engineering geological units, more than 500 landslides, and gully erosion phenomena are outlined in the pilot area. Results confirmed the greatest potential of visual interpretation of LiDAR derivatives for mapping of geomorphological processes in a large scale. On the other hand, this method allowed identification and mapping of engineering formations that are basic engineering geological units appropriate for the medium-scale engineering geological maps. The produced map represents a valuable tool for a wide range of planning and engineering purposes, as well as for geological hazard and risk assessment.

The engineering geological map 1 : 25,000 usually consists of two map sheets and usually has associated brief explanations. In the main map, loose and solid rock near the surface are grouped according to their composition and thickness into geological engineering units with the same or similar geotechnical properties. The rocks below the Quaternary base and the thickness of the Quaternary layers, the groundwater levels, the depth of the groundwater to the surface, the groundwater level hydrographs and the boreholes included in the map are shown on secondary maps. In connection with the map representations, 25 times exaggerated sections convey a three-dimensional picture of the layer structure. A table with rock-physical characteristics and diagrams with grain size distributions provide information about the geotechnical properties of the soil types. In the associated short explanations you will find additional information on the map content, a geological and hydrogeological overview, descriptions of the geotechnical and soil-mechanical properties of the layers as well as applications for planning questions and references to technical regulations (norms). The printed sheets are also available as image files in TIF, JPEG or PDF format (not georeferenced) and in TIF or JPEG format (georeferenced). Engineering geological map 1 : 25,000 [IK 25] available: 4406 Dinslaken (1995), 4407 Bottrop (2000), 4408 Gelsenkirchen (1988), 4409 Herne (1992), 4410 Dortmund (1983), 4506 Duisburg (2007), 4507 Mühlheim /Ruhr (1994), 4508 Essen (1992), 4605 Krefeld, 2nd edition (1989), 4606 Düsseldorf-Kaiserswerth (1984), 4706 Düsseldorf (1982), 4807 Hilden (2006) - without brief explanations, 4907 Leverkusen (1998 ), 5007 Cologne (1986), 5208 Bonn (1998)

Spatial coverage index compiled by East View Geospatial of set "Indonesia 1:100,000 Scale Geological Maps (Engineering Geology)". Source data from DGTL (publisher). Type: Geoscientific - Geology. Scale: 1:100,000. Region: Asia.

Over recent decades, literature on assessment in higher education has intensified generating a wealth of frameworks to inform practice. Generic frameworks for assessment practice are sometimes perceived as missing subject-specific considerations. This literature review proposes to (a) map the current landscape of assessment in engineering education and to (b) help drive the field forwards by identifying elements of assessment that require discipline-specific consideration as a foundation to formulate good practice. Sources were identified using a broad set of keywords related to assessment in engineering education. Inclusion criteria considered papers about university-level education and were published, in English, between 2012 and 2018. The review establishes that much literature has focused on design, accreditation and marking with much less literature on key concerns in practice such as workplace assessment, student engagement and programme level design. Based on the results, recommendations are made for research areas where greater focus is needed to advance further engineering specific insights.

Graph and download economic data for Total Revenue for Surveying and Mapping Services, Establishments Subject to Federal Income Tax, Employer Firms (REVEF5413ZTAXABL) from 2010 to 2022 about civil engineering, engineering, employer firms, revenue, establishments, tax, federal, income, services, and USA.

Spatial coverage index compiled by East View Geospatial of set "Indonesia 1:25,000 Scale Geological Maps (Engineering Geology)". Source data from DGTL (publisher). Type: Geoscientific - Geology. Scale: 1:25,000. Region: Asia.