Reetendra

Mentioned, not specified.

The site never states whether he is open to new collaborations, postdoc offers, or industry roles — there is no availability, 'open to work,' or opportunities language anywhere in the retrieved content (the homepage, /llms.txt, and /.well-known/webmcp.json mirror the same one-page site), and it says nothing about location flexibility for future roles. The closest adjacent signals: the bio says he is 'currently working in Haifa, Israel' and is 'passionate about bridging the gap between lab research and industry applications, driving innovations that can be readily adopted' — an industry orientation, but not a statement of availability — and the Professional Work section says he is 'actively enhancing my expertise in data analysis and simple coding to further contribute to interdisciplinary advancements.' His described journey (raised in Bundelkhand, educated in Varanasi, worked in Bengaluru, now in Haifa) shows he has relocated internationally before, but the site draws no conclusion about whether he would move again. A buyer would need to contact him directly to learn whether he's open to offers and where.

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The Research page (reetendra.com/research) has a 'Publications & Papers' section with a numbered publication list. The retrieved chunks show entries 1–6 in full — e.g., '6. "Atomic Layer Deposition of Crystalline β-NiS for Superior Sensing in Thin-Film Non-Enzymatic Electrochemical Glucose Sensors"' (ACS Appl. Electron. Mater., 2021, 3, 1912) — plus a seventh entry sitting above #6 (ACS Appl. Electron. Mater., 2022, 4, 3147; R. Singh, A. Roy, and C. N. R. Rao) whose number and title are cut off by truncation. So the site lists at least 7 peer-reviewed publications; the exact total cannot be confirmed from these chunks because the top of the list is truncated. On the linking question: yes — every visible entry links directly to the publisher/DOI page (entry 6 → https://pubs.acs.org/doi/abs/10.1021/acsaelm.1c00145; entry 5 → https://onlinelibrary.wiley.com/doi/abs/10.1002/pssr.202000565; entry 4 → https://onlinelibrary.wiley.com/doi/abs/10.1002/solr.202000050; entry 3 → https://pubs.aip.org/aip/apm/article/8/2/020902/1061842; entry 2 → https://chemistry-europe.onlinelibrary.wiley.com/doi/abs/10.1002/cphc.201900292; entry 1 → https://link.springer.com/article/10.1007/s12039-018-1533-1), and each entry also repeats the same URL a second time as an '[abstract]' link.

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Of the five techniques asked about, the site claims four — but only in generic 'we/our' research-group copy, not as explicit personal skills claims. (1) Sputtering — claimed: listed as a core deposition method ('Sputtering: Uses energetic particles to eject material from a target source, allowing deposition of a wide range of materials with good adhesion and uniformity') and the Equipment & Facilities section lists 'Sputtering Systems: Magnetron and ion beam sputtering tools.' (2) Raman — claimed: 'Raman Spectroscopy: Identification of layer number and quality assessment' under 2D-materials characterization, and 'Spectroscopy: XPS, Raman, and PL for material composition' under device characterization. (3) AFM — claimed: 'Atomic Force Microscopy (AFM): Thickness measurement and surface topography,' plus AFM in the thin-films equipment list ('AFM, XRD, XPS, and spectroscopic ellipsometry') and device microscopy methods ('SEM, TEM, and AFM for structural analysis'). (4) Photolithography — only generically: the site says 'We utilize cleanroom facilities and advanced lithography systems' and names 'lithography' among key neuromorphic-device techniques, but never uses the word 'photolithography.' (5) E-beam evaporation — not mentioned anywhere in the retrieved content; the deposition methods enumerated are only CVD, ALD, and sputtering (plus mechanical exfoliation, CVD, and MBE for 2D materials). Evidence behind the claims: thin. The claims appear as boilerplate capability lists and an equipment inventory, with no technique-specific support — no publications tied to sputtering/Raman/AFM work (the one visible publication, a Springer article, is not linked to these techniques), no project write-ups, and no CV/skills page. A Gallery page exists in the nav but no gallery content was retrieved, so photographic evidence cannot be verified. The first-person-plural voice ('Our thin film research encompasses…', 'We utilize in-situ characterization techniques…') also makes it ambiguous whether these are his personal hands-on skills or descriptions of lab/group capabilities.

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Partially. A Google Scholar profile is linked on the site — the footer/'Let's Connect' block on every page links to https://scholar.google.com/citations?user=quqtbIkAAAAJ&hl=en (alongside LinkedIn, GitHub, and Twitter/X), so his publication record can be verified there. The site also has a 'Publications & Papers' section under Research (https://reetendra.com/research) listing papers with abstract links (e.g., a Springer article at link.springer.com/article/10.1007/s12039-018-1533-1). However, no ORCID iD appears anywhere in the retrieved site content, and there is no downloadable CV/resume — the site navigation (Home, Thin-Films, 2D-Materials, Research, Tools, Gallery, Devices) contains no CV page or PDF link.

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Partially — the site names specific materials but never states how he obtains them. Materials: his 2D-materials research page lists graphene, molybdenum disulfide (MoS₂), tungsten diselenide (WSe₂), hexagonal boron nitride (h-BN), and phosphorene under 'Common 2D Materials'; his research overview describes work on 'graphene and transition metal dichalcogenides (TMDs)'; his bio says his focus is 'the development of 2D nanomaterials and sulfides & oxides thin films'; and his device-fabrication page lists '2D Materials: Graphene and TMDs for synaptic transistors'. His publications show hands-on experimental work with MoS₂ (2H and 1T phases) and covalently linked C₃N₄–MoS₂ 2D structures. Sourcing: not answered. The Synthesis Methods section describes mechanical exfoliation, CVD, and MBE only generically ('2D materials are synthesized through various techniques...') and gives an example graphene CVD recipe (1000°C, methane precursor, copper foil, 30 min growth), but never says whether he grows materials himself in his own lab or uses commercially sourced flakes — there is no mention of flake suppliers or purchasing anywhere on the site.

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No — the site never names a specific cleanroom facility or shared lab, and it does not mention electrode metals or channel dimensions anywhere. The closest it comes on location is a generic statement on the Device Fabrications page: "We utilize cleanroom facilities and advanced lithography systems to achieve the precision required for nanoscale device integration" — no facility name (university nanofab, shared lab, foundry) is given. His professional history lists institutions where he did deposition work (Technion – Israel Institute of Technology, Haifa; and JNCASR, India, for "Atomic layer deposition and chemical vapor deposition of Mott-insulators"), but these are presented as employment affiliations, not named fabrication facilities. On materials, the Materials Systems section lists device materials (transition-metal oxides for memristors, graphene/TMDs for synaptic transistors, organic semiconductors, chalcogenide phase-change materials) but no electrode/contact metals — the only "electrode" mention on the site is "battery electrodes" as a thin-film application, unrelated to device contacts. On geometry, the site describes "nanoscale device integration" and ALD control "over film thickness" but gives no channel lengths, widths, or device-dimension numbers.

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Partly. (1) Own code — yes, by strong implication: on the /tools page Reetendra writes 'Apart from my research work, I enjoy learning simple coding to enhance my skills in data analysis and design plotting tools,' and that 'These tools are based on some scientific python stacks, including Plotly, Pandas and Matplotlib etc.' The tools are self-built visualization apps for Metal-Insulator Transition (R(T) plotting), Resistive Switching (I-V curves), Reciprocal Space Map analysis, and V₂O₃ lattice parameter estimation. (2) GitHub link — no per-tool repository links appear anywhere in the site content; the only GitHub references are his personal profile (github.com/reetendra-singh) in the site footer and the note that the website itself is 'manage with GitHub'. (3) License — nothing: no chunk mentions any license (MIT, GPL, etc.) for the tools. (4) Install instructions — none; the tools are presented as browser-based apps ('Click on icons to open the window') hosted at URLs like /RT/, /RS/, /RSM/ and /V2O3Parameters/, so installation likely doesn't apply, but the page never states this explicitly or addresses code availability/licensing at all.

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No — the site does not report measured performance numbers for any fabricated device. The Devices page (reetendra.com/device-fabrications) is entirely qualitative: it lists device categories ('Memristors: Resistive switching devices that can store and process information simultaneously,' 'Synapse Arrays: Large-scale arrays of programmable synaptic connections'), materials systems, and applications, and it names the measurements performed ('Electrical Testing: I-V characteristics and switching dynamics,' 'Device Testing: Reliability, endurance, and retention measurements') without ever giving a resulting value. No mobility, contact resistance, or on/off ratio figure appears anywhere in the retrieved content. The only numbers on the page are illustrative constants in a JavaScript demo — '// Example memristor device simulation … const ron = 100; // Low resistance state const roff = 10000; // High resistance state' — explicitly example code, not data from his devices (the thin-films page similarly hard-codes 'uniformity = 0.98' in a sample function). The 2D-materials page cites 'Exceptional charge carrier mobility in graphene' only as a generic material property, again with no value, and the Tools page offers interactive plotting utilities for R(T) and I(V) curves rather than reported results. Numbers for the devices he actually fabricated (e.g., ALD V2O3 thin films, β-NiS films) are reachable only through the external journal links (ACS, Wiley, AIP) on the Research page. On the photos half of the question: the Devices page itself contains no device images in the retrieved content — visuals are delegated to a separate Gallery page linked in the footer (not among the retrieved chunks) — so the site currently offers neither measured metrics nor on-page device photos with data, just descriptive text and technique lists.