№ lp_2_3_24406
File format: docx Character count: 37028 File size: 58 KB
A regulatory safety program detailing procedures and responsibilities to prevent hazardous exposure to respirable crystalline silica at construction sites according to OSHA standards.
Year: 2026
Region / City: United States
Topic: Occupational Health and Safety
Document Type: Safety Program
Organization / Agency: Occupational Safety and Health Administration (OSHA)
Target Audience: Construction employees, project managers, safety personnel
Applicable Standard: OSHA Respirable Crystalline Silica Construction Standard 29 CFR 1926.1153
Scope: All construction work with potential exposure to respirable crystalline silica
Responsibilities: Safety Department, Project Manager, Competent Person, Employees
Control Measures: Exposure Control Plan (ECP), monitoring, PPE, training, medical surveillance
Price: 8 / 10 USD
The file will be delivered to the email address provided at checkout within 12 hours.

Don’t have cryptocurrency yet?

You can still complete your purchase in a few minutes:
  1. Buy Crypto in a trusted app (Coinbase, Kraken, Cash App or any similar service).
  2. In the app, tap Send.
  3. Select network, paste our wallet address.
  4. Send the exact amount shown above.
After sending, paste your TXID (transaction ID) and your email to receive the download link. Need help? Contact support and we’ll guide you step by step.

The final amount may vary slightly depending on the payment method.
The file will be sent to the email address provided at checkout within 24 hours.
The product description is provided for reference. Actual content and formatting may differ slightly.
Purpose & Application of Penn State Respirable Crystalline Silica Program
Note: Year
Topic: Respirable Crystalline Silica Program, Occupational Safety
Document Type: Safety Program
Organization / Institution: Penn State University
Author: Penn State Environmental Health and Safety (EHS)
Target Audience: Penn State employees, faculty, students, researchers, and affiliates
Effective Period: Ongoing
Purpose & Application of Penn State Respirable Crystalline Silica Program
Note: Year
Topic: Respirable Crystalline Silica Program, Occupational Safety
Document Type: Safety Program
Organization / Institution: Penn State University
Author: Penn State Environmental Health and Safety (EHS)
Target Audience: Penn State employees, faculty, students, researchers, and affiliates
Effective Period: Ongoing
Occupational Health and Safety Amendment (Crystalline Silica) Regulations 2021: Regulatory Impact Statement
Year: 2020
Jurisdiction: Victoria, Australia
Document type: Regulatory Impact Statement
Subject: Occupational health and safety regulation
Focus: Respirable crystalline silica exposure
Industry sectors: Construction, manufacturing, stonemasonry, earth resources
Regulatory framework: Occupational Health and Safety Act 2004
Proposed regulation: Occupational Health and Safety Regulations 2017 amendments
Issuing body: WorkSafe Victoria
Contributing authority: Better Regulation Victoria
Consultation: Stakeholder consultation undertaken
Health risks addressed: Silicosis and silica-related diseases
Affected materials: Engineered stone, stone, concrete, bricks, tiles
Relevant period: 2019–2021
Proposed commencement: 2021
Supplementary figures for macrophage viability and cytotoxicity in response to crystalline silica exposure and immune stimulation
Year: 2023
Region / City: Not specified
Topic: Immunology, Cytotoxicity, Flow Cytometry
Document Type: Research Supplementary Figures
Author: Not specified
Target Audience: Researchers, Immunologists
Period of Validity: Not specified
Approval Date: Not specified
Modification Date: Not specified
Characterization of the Emissions and Crystalline Silica Content of Airborne Dust Generated from Grinding Natural and Engineered Stones
Year: 2023
Region / city: Cincinnati, OH, USA
Topic: Airborne dust, crystalline silica, laboratory testing, sampling efficiency
Document type: Research article
Institution: Centers for Disease Control and Prevention (CDC), National Institute for Occupational Safety and Health (NIOSH)
Author: Drew Thompson, Chaolong Qi
Target audience: Researchers, occupational health professionals
Date of approval: N/A
Date of modifications: N/A
Supplementary Information: Low-temperature Liquid Exfoliation of Milligram-scale Single Crystalline Few-layer β12-Borophene Sheets for Lithium–Sulfur Batteries
Document type: Supplementary information to a scientific research article
Scientific field: Materials science; nanomaterials; electrochemistry
Research topic: Low-temperature liquid exfoliation synthesis of few-layer β12-borophene sheets
Material studied: β12-borophene sheets; boron
Methods: Low-temperature liquid exfoliation (LTLE); SEM; UV–vis spectroscopy; XRD; EELS; HRTEM; DFT calculations
Solvents investigated: N,N-Dimethylformamide (DMF); isopropyl alcohol (IPA); N-methyl-2-pyrrolidone (NMP)
Key measurements: Sheet size distribution; extinction coefficient; UV–vis absorption spectra; XRD diffraction patterns; lattice structure; thickness distribution
Crystalline structure: Few-layer single crystalline β12-borophene
Observed properties: Metallic behavior; high dispersion and solubility in NMP
Figures referenced: Supplementary Figures 1–5
Authors: Lin et al.
Subject application: Electrocatalysts for lithium–sulfur batteries
Combining weak interactions and hydrogen bonding to create crystalline diisopropylammonium phenylsulfonate: experimental and computational study
Year: 2026
Region / City: Not specified
Subject: Supramolecular chemistry and crystallography
Document type: Original research article
Institution / Organization: Not specified
Author: Not specified
Target audience: Researchers in chemistry and materials science
Methodology: Experimental synthesis, X-ray crystallography, Density Functional Theory calculations
Chemical compounds: Diisopropylammonium phenylsulfonate, diisopropylamine, phenylsulfonic acid
Solvent: Ethanol
Analytical methods: Crystallographic analysis, vibrational frequency calculations, HOMO-LUMO evaluation
Computational details: DFT/B3LYP method with 6-311G(d,p), 6-311+G(d,p), 6-311++G(d,p) basis sets
Structural properties analyzed: Bond lengths, bond angles, dipole moment, global reactivity descriptors
Crystallization period: Approximately one month
Experimental conditions: Room temperature, standard pressure (1 atm)
Topics: 19261153 Respirable Crystalline