Website profiles · Technology insights · Alternatives

engineering.stthomas.edu

Our engineering college produces well-rounded, hands-on engineers and savvy technology leaders who have the technical ability and courage to change the world.

No paid content found
Visit website
Profile views 7 Outbound visits 11 Normal
College of Engineering | University of St. Thomas – Minnesota Full homepage screenshot

At a glance

Category
Education & Learning
Language
English
Paid-content signal
No paid content foundObserved
Registered
Unknown
Hosting
Amazon CloudFrontInferred
HTTPS certificate trusted
PassedObserved
Last updated

Website review

This review may include AI-generated content and is not individually verified. Domain, certificate and other facts come from the observed data on this page.

What is the College of Engineering at the University of St. Thomas?

The College of Engineering at the University of St. Thomas is a Minnesota-based engineering school that emphasizes hands-on, applied, and industry-relevant education. Its programs span undergraduate and graduate degrees, with engineering majors including Civil, Mechanical, Computer, Electrical, Manufacturing, Systems, Regulatory Science, and Engineering Management, plus graduate software programs in Artificial Intelligence, Data Science, Information Technology, and Software Engineering.

The college describes itself as producing "well-rounded, hands-on engineers and savvy technology leaders," and it pairs that with a liberal arts foundation. Its facilities include the Frey Science & Engineering Complex, which the college says contains nearly 400,000 square feet of modern labs and equipment for STEM education. Faculty-student connections are presented as a priority, with student development described as the college's top concern.

For ranking context, the college says U.S. News & World Report ranks it #29 in the U.S. and #1 in Minnesota among engineering colleges without a doctoral program.

Who it may suit

  • Prospective undergraduates who want an applied engineering education with room for liberal arts coursework.
  • Working professionals or career changers considering graduate study in engineering, software, data science, or AI.
  • Students who value small-group faculty interaction over a large research-university environment.

A practical next step

If you are evaluating the college, decide first which level fits you — undergraduate or graduate — then compare specific degree pages for curriculum and admission requirements. For a broader look at the university, see University of St. Thomas.

What undergraduate engineering majors does the College of Engineering offer?

The College of Engineering at the University of St. Thomas offers undergraduate engineering programs in Civil, Mechanical, Computer, Electrical, Manufacturing, Systems, Regulatory Science, and Engineering Management. Graduate programs in Software are also available, including Artificial Intelligence, Data Science, Information Technology and Software Engineering.

If you're comparing options, use this quick filter:

  • Civil, Mechanical, Electrical, Computer: traditional engineering disciplines with broad industry demand.
  • Manufacturing, Systems, Engineering Management: strong fits if you want to work at the intersection of engineering, operations and leadership.
  • Regulatory Science: a narrower path suited to students interested in compliance, medical devices, pharmaceuticals or safety-focused industries.

As a next step, visit the college's program pages at College of Engineering | University of St. Thomas to check each major's course sequence and admission requirements, then compare them against schools like University of Minnesota College of Science and Engineering or UMN Civil, Environmental, and Geo- Engineering if you want a regional benchmark. A useful decision criterion: pick the major whose required math and physics sequence you can see yourself completing, not just the one with the best-sounding title.

What graduate programs in software and data science are available?

The College of Engineering at the University of St. Thomas offers graduate programs in software with named tracks in Artificial Intelligence, Data Science, Information Technology and Software Engineering. It also lists graduate study in data science and engineering more broadly, alongside engineering master's areas such as Civil, Mechanical, Computer, Electrical, Manufacturing, Systems, Regulatory Science and Engineering Management. The college describes these graduate offerings as practical and industry-relevant, aimed at working professionals who want to upskill without leaving the workforce.

Who this fits

  • Software developers or IT staff moving toward AI, data or architecture roles.
  • Analysts and scientists who want formal data science training.
  • Engineers in civil, mechanical, electrical or manufacturing fields adding management or systems depth.

How to choose among them

  • Pick Artificial Intelligence if your goal is model building, applied AI or machine learning engineering.
  • Pick Data Science if you work with analytics, statistics or data pipelines.
  • Pick Information Technology or Software Engineering if you want broader systems, architecture or development leadership rather than modeling.
  • Pick Engineering Management if your trajectory is technical leadership rather than deeper technical specialization.

Next step Request the current graduate catalog or program pages from the College of Engineering at University of St. Thomas College of Engineering and confirm delivery format, part-time pacing and whether each track is a full master's or a certificate. Ask directly how the AI and Data Science tracks differ in required coursework, since the page groups them under one software graduate umbrella without listing individual courses.

How does the College of Engineering incorporate hands-on learning and industry connections?

The College of Engineering at the University of St. Thomas builds its identity around applied, collaborative engineering, with hands-on work and industry relevance woven through both undergraduate and graduate programs. The page describes a "purposeful, applied, hands-on, collaborative, industry-relevant" educational experience rather than a purely theoretical one.

Where the hands-on element shows up

  • Facilities and labs: The Frey Science & Engineering Complex provides nearly 400,000 square feet of modern labs and equipment dedicated to STEM education, giving students physical space to build, test and experiment.
  • Faculty contact: The college states that faculty build strong connections with students inside and outside the classroom, and calls student development its top priority. Close faculty relationships are often what turn lab work into mentored, project-based learning.
  • Degree range: Programs span Civil, Mechanical, Computer, Electrical, Manufacturing, Systems, Regulatory Science and Engineering Management, plus graduate software programs in Artificial Intelligence, Data Science, Information Technology and Software Engineering. Disciplines like manufacturing, systems and software tend to involve applied projects by nature.

How industry connections are framed

The page positions industry relevance as a core program trait, and the graduate offerings are described as practical and industry-relevant for people who want to upskill. It also highlights faculty activity in current technical debates — for example, commentary from Manjeet Rege, director of the Center for Applied Artificial Intelligence, on AI risks and regulation, and civil engineering professor Ali Ling's published research on PFAS regulation in water supplies in Nature Water. Faculty engaged in current practice tend to bring real problems and professional context into coursework.

A practical way to judge the fit

If you are choosing a program, ask these questions on a visit or in an admissions conversation:

  • How many courses include a lab, studio or team project, and how are they assessed?
  • Are capstone or client projects sourced from companies, and who owns the resulting work?
  • Do internships or co-ops count toward the degree, and how are they arranged?
  • Which faculty have recent industry or applied research experience in your intended specialty?

For a student who learns by building and wants a Minnesota-based program with a broad engineering and software menu, the structure described here is a reasonable starting point. Compare it against alternatives such as University of Minnesota College of Science and Engineering or Maricopa Community Colleges if cost or transfer pathways matter to you.

What facilities and labs are available for engineering students?

The College of Engineering at the University of St. Thomas centers its lab space in the Frey Science & Engineering Complex, described as nearly 400,000 square feet of modern labs and equipment dedicated to STEM education. The college frames this as part of a hands-on, applied, industry-relevant engineering experience rather than lecture-only learning.

College of Engineering | University of St. Thomas – Minnesota

What the page tells you

  • Frey Science & Engineering Complex: the main facility, with roughly 400,000 square feet of labs and equipment for STEM teaching and research.
  • Facilities and Labs section: the site groups its lab and facility information under this heading, so that is where a prospective student should look for specifics by discipline.
  • Faculty connections: the college states that faculty build strong connections with students inside and outside the classroom and calls student development its top priority — relevant if you want lab access paired with mentorship rather than independent bench time.

How to use this

The page confirms scale and setting but does not list individual labs by name in the supplied material. If you are comparing programs, ask admissions or a department contact for the specific lab a given major uses — for example, civil and mechanical students, computer and electrical students, or software and data science students will each spend time in different spaces. A useful next step is to request a campus visit or lab tour and ask which facilities first-year students can access versus which are reserved for upper-level or graduate work.

How is the College of Engineering ranked compared to other programs?

The College of Engineering at the University of St. Thomas is ranked #29 in the U.S. and #1 in Minnesota among engineering colleges without a doctoral program, according to U.S. News & World Report, as cited on its site.

What that ranking actually tells you

That "without a doctoral program" category matters. It groups St. Thomas with institutions that focus on undergraduate teaching and master's-level training rather than PhD research output. So the #29 placement reflects strength in applied, hands-on teaching and industry relevance, not research volume.

If you are comparing schools, this distinction is the key decision criterion:

If you want... Programs like St. Thomas fit Large research universities fit
Small classes, faculty access Strong fit Varies
Undergraduate research with faculty Possible, but less PhD-driven lab scale Strong fit
Industry-focused master's (software, data, AI) Strong fit Strong fit
PhD track or heavy research funding Less suited Strong fit

Practical next step

Ask each program you're considering two questions: "What percentage of classes are taught by full-time faculty?" and "What does the doctoral-program category mean for lab access and research funding?" The answers will show whether a ranking like #29 reflects the experience you actually want.

Related questions

More questions →
What Facilities and Labs Support Engineering Students at the University of St. Thomas?

The University of St. Thomas College of Engineering's main facility resource is the Frey Science & Engineering Complex, which the college describes as nearly 400,000 square feet of modern labs and equipment dedicated to STEM education. That figure and description come from the college's own site, which also points readers to a dedicated Facilities and Labs page for specifics. If you are evaluating the college for a hands-on engineering or software program, the Frey complex is the physical infrastructure behind that promise.

The Frey Science & Engineering Complex at a Glance

Attribute What the college states
Name Frey Science & Engineering Complex
Size Nearly 400,000 square feet
Contents Modern labs and equipment
Purpose Dedicated to STEM education
Where to find details The college's Facilities and Labs page

The college frames these facilities as part of a broader educational approach it calls "purposeful, applied, hands-on, collaborative, industry-relevant." In other words, the labs are not presented as a standalone selling point but as the place where the applied, hands-on part of the curriculum actually happens.

Why the Facilities Matter for Hands-On Learning

The college's stated identity is producing "well-rounded, hands-on engineers and savvy technology leaders." Facilities support that in a few concrete ways:

  • Lab space for applied work. Nearly 400,000 square feet dedicated to STEM education means room for laboratory coursework and equipment use rather than lecture-only instruction.
  • Equipment access. The college describes the complex as containing modern labs and equipment, which is the part that matters if your program depends on physical testing, prototyping, or instrumentation.
  • A STEM-wide footprint. The complex is described as serving STEM education broadly, not one department, which is consistent with the range of programs the college lists (civil, mechanical, computer, electrical, manufacturing, systems, regulatory science, engineering management, and graduate software fields including AI, data science, IT, and software engineering).

What the College Does Not Specify on This Page

The source material gives the size, the name, and the general purpose of the complex, plus a pointer to a Facilities and Labs page. It does not list individual lab names, specific equipment models, reservation policies, access hours, or which programs use which labs. If those details matter to your decision, treat the Facilities and Labs page as the next stop rather than assuming specifics from the summary.

How to Use This If You Are Comparing Programs

  • If hands-on lab access is a deciding factor, the relevant question is not just "is there a big building" but "which labs does my specific program use, and how often." The college's Facilities and Labs page is where that gets answered.
  • The 400,000-square-foot figure is a scale indicator, not a quality indicator on its own. Pair it with the program-level detail you find on the facilities page.
  • The college's ranking claim — #29 in the U.S. and #1 in Minnesota for engineering colleges without a doctoral program, per U.S. News & World Report as cited on the site — is separate from facilities, but it is part of how the college positions the overall experience.

For prospective students, the practical move is to start with the Facilities and Labs page, then ask program faculty which spaces and equipment your intended major actually uses.

What Engineering and Graduate Programs Does the University of St. Thomas College of Engineering Offer?

The University of St. Thomas College of Engineering offers undergraduate engineering degrees in Civil, Mechanical, Computer, Electrical, Manufacturing, Systems, Regulatory Science, and Engineering Management, plus graduate programs in Software — including Artificial Intelligence, Data Science, Information Technology, and Software Engineering. It also offers graduate studies in engineering and data science. This page is for prospective students comparing the college's program range against their study goals; program availability can change, so confirm current listings with the college directly.

Undergraduate engineering programs

Based on the college's own program listing, the undergraduate engineering degree areas are:

  • Civil
  • Mechanical
  • Computer
  • Electrical
  • Manufacturing
  • Systems
  • Regulatory Science
  • Engineering Management

The college describes its approach as "purposeful, applied, hands-on, collaborative, industry-relevant," and frames its identity around a liberal arts–engineering combination. That framing matters if you want an engineering degree embedded in a broader curriculum rather than a purely technical track.

Graduate programs

Graduate offerings fall into two clusters described on the page:

Graduate Studies in engineering and data science — positioned as practical, industry-relevant programs for staying current in the field.

Graduate Programs in Software, which include:

  • Artificial Intelligence
  • Data Science
  • Information Technology
  • Software Engineering

The page presents graduate study as an upskilling path ("Stay ahead of the curve"), which suggests these programs are aimed at working professionals or students adding a specialization rather than only at traditional full-time research students.

How the two levels differ

Dimension Undergraduate Graduate
Focus Broad engineering disciplines (civil, mechanical, electrical, etc.) plus regulatory science and engineering management Software-centric and data-centric specializations, plus engineering and data science graduate study
Orientation described Hands-on, collaborative, industry-relevant, paired with liberal arts Practical, industry-relevant upskilling
Typical fit Students seeking a first engineering degree across a range of disciplines Students or professionals deepening or redirecting into software, AI, data, or IT

The undergraduate list is discipline-broad; the graduate list is narrower and concentrated in software, AI, data, and IT. If your goal is a traditional engineering discipline at the graduate level, the page's explicit graduate naming centers on software and data — check directly whether additional graduate engineering tracks exist.

Facilities and faculty context

Two page details are worth weighing when comparing programs:

  • The Frey Science & Engineering Complex provides nearly 400,000 square feet of modern labs and equipment for STEM education.
  • The college states that faculty build strong connections with students inside and outside the classroom, with student development as the stated first priority.

Ranking context

The page cites U.S. News & World Report ranking St. Thomas #29 in the U.S. and #1 in Minnesota among engineering colleges without a doctoral program. Note the qualifier: this ranking category applies to engineering colleges without a doctoral program, so it is not directly comparable to rankings of doctoral-granting engineering schools.

Before you apply

  • Verify the current program list on the college's site, since degree offerings change.
  • Decide whether you want a broad undergraduate engineering discipline or a software/data-focused graduate specialization — the two lists barely overlap.
  • If you need a graduate engineering degree outside software and data science, confirm availability directly rather than assuming it from this page.
How the University of St. Thomas College of Engineering Describes Hands-On, Faculty-Connected Learning

The University of St. Thomas College of Engineering describes its educational approach as purposeful, applied, hands-on, collaborative, and industry-relevant, with student development named as the college's #1 priority. If you are evaluating the college for an undergraduate or graduate engineering, software, or data science program, the key question is what those words mean in practice. The college's own materials point to three concrete anchors: a liberal arts–engineering combination, faculty who build connections with students inside and outside the classroom, and facilities built for applied STEM work.

The learning model the college puts forward

The college summarizes its programs as "top-ranked programs focusing on a purposeful, applied, hands-on, collaborative, industry-relevant engineering and software educational experience." Each of those terms maps to a specific claim about how students learn:

  • Applied and hands-on — the emphasis is on doing engineering work rather than only studying it in the abstract.
  • Collaborative — the description frames engineering education as a shared, team-based experience.
  • Industry-relevant — coursework is positioned as connected to what engineering and software employers actually need.
  • Purposeful — the college ties its mission to producing engineers and technology leaders who "have the technical ability and courage to change the world."

The college also pairs engineering with a liberal arts foundation, describing a "Liberal Arts - Engineering" combination. In practice, that means an engineering degree here is presented as broader than technical training alone — the stated goal is "well-rounded, hands-on engineers and savvy technology leaders."

Faculty connections and student development

The college states directly that "our faculty build strong connections with students inside and outside of the classroom," and that "student development is our #1 priority." That is the college's own framing, not an independent measure, so treat it as a stated commitment rather than a verified outcome.

What makes the claim specific is the "inside and outside of the classroom" wording. It signals that faculty contact is not limited to lecture hours — the college presents mentorship and accessibility as part of the model. If faculty interaction matters to your decision, this is the dimension to probe on a campus visit or in conversations with current students: how often do students actually work with faculty outside class, and in what settings (labs, advising, research, projects)?

Facilities that support applied work

The hands-on claim is backed by a physical footprint. The Frey Science & Engineering Complex consists of nearly 400,000 square feet of modern labs and equipment dedicated to STEM education. For a prospective student, that scale matters mainly for access: it determines how much lab time, equipment, and project space is available across engineering and software programs.

Programs where this approach applies

The college offers a range of undergraduate and graduate degrees, including engineering programs in:

  • Civil
  • Mechanical
  • Computer
  • Electrical
  • Manufacturing
  • Systems
  • Regulatory Science
  • Engineering Management

Graduate programs in software include:

  • Artificial Intelligence
  • Data Science
  • Information Technology
  • Software Engineering

The college also frames graduate study as a way to "upskill," describing its graduate programs as practical and industry-relevant for staying current in engineering, software, and data science.

External recognition the college cites

For academic quality, the college cites U.S. News & World Report rankings: #29 in the U.S. and #1 in Minnesota among engineering colleges without a doctoral program. That ranking category is worth noting — it compares the college against peer institutions that also do not award engineering doctorates, which is a different comparison set than overall engineering school rankings.

How to decide whether this model fits you

The college's description is consistent and specific about its priorities: applied work, collaboration, industry relevance, faculty connection, and broad preparation through a liberal arts foundation. To test whether that matches your needs, focus on questions the marketing language cannot answer:

  • How much of a typical term is spent in labs, projects, or team-based work versus lecture?
  • What does faculty availability look like in your intended major?
  • Do the graduate programs in software and data science assume prior industry experience?
  • How does the liberal arts component change your course load or graduation timeline?

The college's news section also shows faculty active in applied and public-facing work — for example, civil engineering professor Ali Ling publishing on PFAS regulation in Nature Water, and Manjeet Rege, director of the Center for Applied Artificial Intelligence, commenting on AI risk and regulation. Those examples illustrate the kind of industry- and policy-connected work the college highlights, though they are individual faculty activities rather than a guarantee of your own experience.

How Is the University of St. Thomas College of Engineering Ranked?

The University of St. Thomas College of Engineering is ranked #29 in the U.S. and #1 in Minnesota among engineering colleges without a doctoral program, according to U.S. News & World Report, as cited on the college's website. That ranking applies to a specific category — engineering schools that do not award doctoral degrees — so it is not a comparison against research universities with PhD programs. If you are evaluating the college, treat the ranking as one signal among several and weigh it against program fit, facilities, and faculty access.

What the Ranking Actually Measures

The U.S. News category for engineering colleges without a doctoral program groups schools that focus on undergraduate and master's-level engineering education rather than PhD research output. This matters for interpretation:

  • The #29 national placement is within that peer group, not across all U.S. engineering schools.
  • The #1 Minnesota placement is also within the same non-doctoral category.
  • Rankings in this category tend to reflect factors like peer assessment and program reputation among similar institutions, not research expenditure or doctoral production.

Because the category is narrower, a strong placement here says more about teaching-focused engineering education than about research scale.

Why the Category Fits This College

The college describes its approach as "purposeful, applied, hands-on, collaborative, industry-relevant." Its stated degree range supports that positioning:

  • Undergraduate and graduate engineering programs: Civil, Mechanical, Computer, Electrical, Manufacturing, Systems, Regulatory Science, and Engineering Management.
  • Graduate programs in software: Artificial Intelligence, Data Science, Information Technology, and Software Engineering.

A teaching- and practice-oriented mix like this aligns with the non-doctoral ranking category rather than a research-doctoral one.

What to Check Beyond the Ranking

Rankings are a starting point, not a decision. Before applying or committing, verify:

  1. Current ranking data — Check the U.S. News & World Report source directly, since rankings are updated annually and the college's cited figures may lag.
  2. Program match — Confirm the specific degree you want (for example, Manufacturing or Regulatory Science) is offered at the level and format you need.
  3. Facilities — The Frey Science & Engineering Complex provides nearly 400,000 square feet of labs and equipment for STEM education, per the college.
  4. Faculty access — The college states that faculty build strong connections with students inside and outside the classroom and calls student development its top priority.

A Reasonable Way to Use This

If you are comparing teaching-focused engineering schools, the #29 national and #1 Minnesota placement is a legitimate point in the college's favor — especially if you want to stay in Minnesota. If you are comparing against large research universities, the ranking is not designed for that comparison, so rely instead on program curriculum, lab access, and outcomes for your specific field.

What is the College of Engineering at the University of St. Thomas?

The College of Engineering at the University of St. Thomas is the engineering school of the University of St. Thomas in Minnesota, and engineering.stthomas.edu is its official website. It offers undergraduate and graduate programs across engineering, software, and data science, with an emphasis on applied, hands-on, and collaborative learning. The site is worth browsing if you are evaluating programs in civil, mechanical, computer, electrical, manufacturing, systems, regulatory science, engineering management, or graduate software fields such as artificial intelligence, data science, information technology, and software engineering.

What the college offers

The college describes a range of undergraduate and graduate degrees. Engineering programs include:

  • Civil
  • Mechanical
  • Computer
  • Electrical
  • Manufacturing
  • Systems
  • Regulatory Science
  • Engineering Management

Graduate programs in software include:

  • Artificial Intelligence
  • Data Science
  • Information Technology
  • Software Engineering

The site frames its graduate offerings as a way to "upskill" with practical, industry-relevant programs in engineering, software, and data science.

How it describes its approach

The college positions itself around a purposeful, applied, hands-on, collaborative, and industry-relevant engineering and software education. It also pairs this with a liberal arts–engineering identity, describing its goal as producing well-rounded, hands-on engineers and technology leaders.

Two supporting points appear on the page:

  • Faculty connections: The college states that faculty build strong connections with students inside and outside the classroom, and that student development is its top priority.
  • Facilities: The Frey Science & Engineering Complex consists of nearly 400,000 square feet of modern labs and equipment dedicated to STEM education.

Rankings and recognition

According to the page, U.S. News & World Report ranks St. Thomas #29 in the U.S. and #1 in Minnesota for engineering colleges without a doctoral program. This is a specific category, so the ranking applies to schools that do not award doctoral degrees in engineering.

News and research activity

The site highlights current faculty activity, which can help you gauge the college's research and public engagement. Examples from the page include:

  • John Abraham commenting on AI data centers in space.
  • Ali Ling, assistant professor of civil engineering, publishing findings in Nature Water on regulation of PFAS ("forever chemicals") in water supplies across Europe.
  • Manjeet Rege, director of the Center for Applied Artificial Intelligence, discussing the growing risks of AI and the challenge of regulating powerful technology while balancing innovation with safeguards.

Who should look further

This site is most useful if you are:

  • A prospective undergraduate comparing engineering programs with a hands-on, liberal arts–integrated approach.
  • A working professional considering graduate study in engineering, software, or data science.
  • Someone researching faculty expertise, labs, or facilities before applying or collaborating.

If you need current tuition, admission deadlines, or credit requirements, those details are not established by the page evidence above—check the relevant admissions or program pages directly before making a decision.

Website Overview

Page metadata, canonical configuration and social previews work together to provide more consistent search and sharing presentation.

Domain and Registration

Unknown

DNS and Email

The lowest TTL is 60 seconds, supporting rapid record changes at the cost of more frequent lookups. Nameservers are provided by digicertdns.com, indicating managed DNS hosting. MX records point to the Microsoft 365 email service. SPF and DMARC are configured. DKIM status is unknown. TXT records include verification markers for Google, Apple, Atlassian, Microsoft. Such markers may also remain after a service stops being used.

TLS and Certificates

The certificate issuer is Sectigo Limited, a commercial certificate authority. The certificate uses an RSA 2048-bit public key, offering broad client compatibility. The server supplied a complete certificate chain. No organization name is present in the certificate; the available fields are consistent with domain validation. The certificate is valid for about 198 days in total, with 127 days remaining.

HTTP and Browser Security

The checked browser-security headers were not detected, leaving fewer explicit browser-side safeguards. No X-Powered-By header was found, reducing one common source of backend fingerprinting information. The x-cache, via response header indicates a CDN or caching proxy in the delivery path. No obvious internal addresses or debug information were found in the headers. The Server header contains the custom value AmazonS3.

Technology Stack Analysis

The public page identifies WordPress, Amazon CloudFront without precise versions, leaving fewer clues for version-specific scanning.

Search and Social Sharing

JSON-LD includes Organization data, helping describe the organization as an entity. The title has 61 characters, within a common display range. A meta description is present, with 158 characters. The observed directives allow indexing and link following. No Generator meta tag is publicly exposed.

Hosting and Email

DNSdigicertdns.com
HostingAmazon CloudFront
EmailMicrosoft 365
Approximate IP geolocation (inferred; a CDN or proxy may differ from the origin server) United States flagUnited States Inferred 108.138.85.105

Registration details

RDAP / WHOIS

Unknown

DNS records

DNS

TypeNameValueTTLPriority
Aengineering.aws.stthomas.edu108.138.85.10560—
Aengineering.aws.stthomas.edu108.138.85.12360—
Aengineering.aws.stthomas.edu108.138.85.6560—
Aengineering.aws.stthomas.edu108.138.85.7960—
MXstthomas.edustthomas-edu.mail.protection.outlook.com36000
NSstthomas.eduns20.digicertdns.com86400—
NSstthomas.eduns21.digicertdns.com86400—
NSstthomas.eduns22.digicertdns.com86400—
NSstthomas.eduns23.digicertdns.net86400—
NSstthomas.eduns24.digicertdns.net86400—
NSstthomas.eduns25.digicertdns.net86400—
TXTstthomas.eduEyb3ElCGCfo6Hnn0qqFVp9mT4sgxNy7XfV2MzbhA5LMzp5DYiXeiQkO0p0nCSjRfsZQ04vrA76aCaWjytfNYIQ==86400—
TXTstthomas.eduMS=ms8129492386400—
TXTstthomas.eduadobe-idp-site-verification=c4f7d238a06d9128a8ec27d6a89c1fda2f7912b9024661e72866c6d4eff6989586400—
TXTstthomas.eduamazonses:UMXL/NB1/4708WuptJhfJIp0zM+csF6QOu8+L4tr9s0=86400—
TXTstthomas.eduapple-domain-verification=iNKVGTF2sOfebeCJ86400—
TXTstthomas.eduasv=7a9e5b67c7a477f83472d190f7566eb786400—
TXTstthomas.eduatlassian-domain-verification=/SBF5wOdWRLnFi2HygmzPCVld9H4qMinMXY8qGBR+yOVqnRn4qpRQ4r7VcglBPul86400—
TXTstthomas.edud365mktkey=2yi0jfk3d66oyyzxcf0dyz63r86400—
TXTstthomas.edud365mktkey=6uq9f9twpu7p4paivvug3t8az86400—
TXTstthomas.edugoogle-gws-recovery-domain-verification=6378619786400—
TXTstthomas.edugoogle-site-verification=PEVs9uIGYSLBC7yiP6KsaX0O4ryXrGJMfqAnWq9Vyfw86400—
TXTstthomas.eduiContact172080086400—
TXTstthomas.edujamf-site-verification=RfZ3wEcMM_d8kiD4iPv7kw86400—
TXTstthomas.eduopenai-domain-verification=dv-Ao0TSzMBXd3xdsKaMpNQ3HhG86400—
TXTstthomas.edupardot_64582_*=dfd80e16d3fb2bb229c328e785bb0f09aabd062f64f4700d9964a757216ab58086400—
TXTstthomas.eduv=spf1 mx ip4:148.59.100.16/28 ip4:208.185.229.0/24 ip4:208.185.235.0/24 ip4:148.59.108.0/23 ip4:148.59.106.0/23 ip4:216.248.199.106 ip4:52.86.188.131 ip4:52.43.50.148 ip4:198.105.13.131 ip4:13.111.128.159 ip4:136.147.178.90 ip4:66.151.109.0/24 ip4:192.138.131.240 ip4:52.45.50.190 ip4:198.187.196.100 ip4:140.209.0.0/18 ip4:74.122.104.0/22 ip4:63.143.57.204/31 ip4:66.240.227.76/31 ip4:168.245.25.116 ip4:72.50.228.0/24 include:aspmx.pardot.com include:_spf.salesforce.com include:spf.symplicity.com include:spf.protection.outlook.com include:mbssmtp.mbsbooks.com include:us._extnetblocks.mimecast.com ~all86400—
CNAMEengineering.stthomas.eduengineering.aws.stthomas.edu1800—
DMARC_dmarc.stthomas.eduv=DMARC1; p=none; rua=mailto:[email protected],mailto:[email protected], mailto:[email protected]; ruf=mailto:[email protected],mailto:[email protected]819—

TLS and certificates

TLS / SSL

AssessmentNormal configuration
Supported protocolsTLSv1.2、TLSv1.3
Negotiated protocolTLSv1.3
Certificate subject*.stthomas.edu
IssuerSectigo Limited
Valid until2027-02-05T23:59 · Remaining when checked: 127 days
Verification detailsCertificate trust: Passed · Hostname match: Passed

HTTP response headers

HTTP

HeaderValue
content-typetext/html
serverAmazonS3

Identified technologies

WordPressAmazon CloudFront

Pages, Search and Sharing

Meta descriptionOur engineering college produces well-rounded, hands-on engineers and savvy technology leaders who have the technical ability and courage to change the world.
Canonical URLhttps://engineering.stthomas.edu/
LanguageEnglish (default)
Twitter CardNot detected

No robots.txt found

User reviews (0)

  • No reviews yet.