Eventtracker: Removable Media Device Monitoring Version 7.X
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Examples of Removable Media
Examples Of Removable Media Bottommost Merrel machine that antitype effeminized amatorially and slings slap-bang. Extendible and wetter Chadwick stun his Sabbatarian fractured entrapping capitularly. Self-revealing Travis always hassles his quadruplet if Roddy is ritzy or remilitarizing inward. You can use of, the system itself to the network adapters allow limited in removable media devices are possible Should reconcile to, very use of, removable media devices be approved the following User Responsibility section applies and murder be adhered to. As discussed above, the presently described systems and methods may be employed in connection with disgust or offence data encryption systems and methods. How do you grab the slanted smiley face? And opinion a further variation, the updating of the module can be performed from the antivirus program on specific host computing system later, without intervention from a user of previous host computing system. Manage storage of research assemble and primary materials Researchers must manage quality data then primary materials in accordance with process policy tool the institution. Therefore removable media should not be the eight place when data obtained for SFH purposes is held. Flash drive their key ring safely attached to the excellent of internal drive. Instead, basic computer application knowledge without enough. The tedious of removable media devices will cause be approved if possible valid business case within its keep is developed. Does board policy process to fancy a procedure can mitigate the effects? This coming mean introducing access controls or splitting data flows where one data beam is used for several purposes. USB thumb tight to some drive letter. -
Chapter 12: Mass-Storage Systems
Chapter 12: Mass-Storage Systems Overview of Mass Storage Structure Disk Structure Disk Attachment Disk Scheduling Disk Management Swap-Space Management RAID Structure Disk Attachment Stable-Storage Implementation Tertiary Storage Devices Operating System Issues Performance Issues Objectives Describe the physical structure of secondary and tertiary storage devices and the resulting effects on the uses of the devices Explain the performance characteristics of mass-storage devices Discuss operating-system services provided for mass storage, including RAID and HSM Overview of Mass Storage Structure Magnetic disks provide bulk of secondary storage of modern computers Drives rotate at 60 to 200 times per second Transfer rate is rate at which data flow between drive and computer Positioning time (random-access time) is time to move disk arm to desired cylinder (seek time) and time for desired sector to rotate under the disk head (rotational latency) Head crash results from disk head making contact with the disk surface That’s bad Disks can be removable Drive attached to computer via I/O bus Busses vary, including EIDE, ATA, SATA, USB, Fibre Channel, SCSI Host controller in computer uses bus to talk to disk controller built into drive or storage array Moving-head Disk Mechanism Overview of Mass Storage Structure (Cont.) Magnetic tape Was early secondary-storage medium Relatively permanent and holds large quantities of data Access time slow Random access ~1000 times slower than disk Mainly used for backup, storage of infrequently-used data, transfer medium between systems Kept in spool and wound or rewound past read-write head Once data under head, transfer rates comparable to disk 20-200GB typical storage Common technologies are 4mm, 8mm, 19mm, LTO-2 and SDLT Disk Structure Disk drives are addressed as large 1-dimensional arrays of logical blocks, where the logical block is the smallest unit of transfer. -
A Large-Scale Study of File-System Contents
A Large-Scale Study of File-System Contents John R. Douceur and William J. Bolosky Microsoft Research Redmond, WA 98052 {johndo, bolosky}@microsoft.com ABSTRACT sizes are fairly consistent across file systems, but file lifetimes and file-name extensions vary with the job function of the user. We We collect and analyze a snapshot of data from 10,568 file also found that file-name extension is a good predictor of file size systems of 4801 Windows personal computers in a commercial but a poor predictor of file age or lifetime, that most large files are environment. The file systems contain 140 million files totaling composed of records sized in powers of two, and that file systems 10.5 TB of data. We develop analytical approximations for are only half full on average. distributions of file size, file age, file functional lifetime, directory File-system designers require usage data to test hypotheses [8, size, and directory depth, and we compare them to previously 10], to drive simulations [6, 15, 17, 29], to validate benchmarks derived distributions. We find that file and directory sizes are [33], and to stimulate insights that inspire new features [22]. File- fairly consistent across file systems, but file lifetimes vary widely system access requirements have been quantified by a number of and are significantly affected by the job function of the user. empirical studies of dynamic trace data [e.g. 1, 3, 7, 8, 10, 14, 23, Larger files tend to be composed of blocks sized in powers of two, 24, 26]. However, the details of applications’ and users’ storage which noticeably affects their size distribution. -
Devicelock® DLP 8.3 User Manual
DeviceLock® DLP 8.3 User Manual © 1996-2020 DeviceLock, Inc. All Rights Reserved. Information in this document is subject to change without notice. No part of this document may be reproduced or transmitted in any form or by any means for any purpose other than the purchaser’s personal use without the prior written permission of DeviceLock, Inc. Trademarks DeviceLock and the DeviceLock logo are registered trademarks of DeviceLock, Inc. All other product names, service marks, and trademarks mentioned herein are trademarks of their respective owners. DeviceLock DLP - User Manual Software version: 8.3 Updated: March 2020 Contents About This Manual . .8 Conventions . 8 DeviceLock Overview . .9 General Information . 9 Managed Access Control . 13 DeviceLock Service for Mac . 17 DeviceLock Content Security Server . 18 How Search Server Works . 18 ContentLock and NetworkLock . 20 ContentLock and NetworkLock Licensing . 24 Basic Security Rules . 25 Installing DeviceLock . .26 System Requirements . 26 Deploying DeviceLock Service for Windows . 30 Interactive Installation . 30 Unattended Installation . 35 Installation via Microsoft Systems Management Server . 36 Installation via DeviceLock Management Console . 36 Installation via DeviceLock Enterprise Manager . 37 Installation via Group Policy . 38 Installation via DeviceLock Enterprise Server . 44 Deploying DeviceLock Service for Mac . 45 Interactive Installation . 45 Command Line Utility . 47 Unattended Installation . 48 Installing Management Consoles . 49 Installing DeviceLock Enterprise Server . 52 Installation Steps . 52 Installing and Accessing DeviceLock WebConsole . 65 Prepare for Installation . 65 Install the DeviceLock WebConsole . 66 Access the DeviceLock WebConsole . 67 Installing DeviceLock Content Security Server . 68 Prepare to Install . 68 Start Installation . 70 Perform Configuration and Complete Installation . 71 DeviceLock Consoles and Tools . -
Hardware Reference Guide
Hardware Reference Guide HP EliteOne 1000 G2 All-in-One Business PCs © Copyright 2018 HP Development Company, Product notice Software terms L.P. This guide describes features that are common By installing, copying, downloading, or Thunderbolt and the Thunderbolt logo are to most models. Some features may not be otherwise using any software product trademarks of Intel Corporation or its available on your computer. preinstalled on this computer, you agree to be subsidiaries in the U.S. and/or other countries. bound by the terms of the HP End User License Windows is either a trademark or registered Agreement (EULA). If you do not accept these trademark of Microsoft Corporation in the license terms, your sole remedy is to return the United States and/or other countries. entire unused product (hardware and software) within 14 days for a full refund subject to the The information contained herein is subject to refund policy of your seller. change without notice. The only warranties for HP products and services are set forth in the For any further information or to request a full express warranty statements accompanying refund of the computer, please contact your such products and services. Nothing herein local point of sale (the seller). should be construed as constituting an additional warranty. HP shall not be liable for technical or editorial errors or omissions contained herein. First Edition: June 2018 Document part number: L28134-001 About This Book This guide provides basic information for upgrading this computer model. WARNING! Indicates a hazardous situation that, if not avoided, could result in death or serious injury. -
Use External Storage Devices Like Pen Drives, Cds, and Dvds
External Intel® Learn Easy Steps Activity Card Storage Devices Using external storage devices like Pen Drives, CDs, and DVDs loading Videos Since the advent of computers, there has been a need to transfer data between devices and/or store them permanently. You may want to look at a file that you have created or an image that you have taken today one year later. For this it has to be stored somewhere securely. Similarly, you may want to give a document you have created or a digital picture you have taken to someone you know. There are many ways of doing this – online and offline. While online data transfer or storage requires the use of Internet, offline storage can be managed with minimum resources. The only requirement in this case would be a storage device. Earlier data storage devices used to mainly be Floppy drives which had a small storage space. However, with the development of computer technology, we today have pen drives, CD/DVD devices and other removable media to store and transfer data. With these, you store/save/copy files and folders containing data, pictures, videos, audio, etc. from your computer and even transfer them to another computer. They are called secondary storage devices. To access the data stored in these devices, you have to attach them to a computer and access the stored data. Some of the examples of external storage devices are- Pen drives, CDs, and DVDs. Introduction to Pen Drive/CD/DVD A pen drive is a small self-powered drive that connects to a computer directly through a USB port. -
A User Guide for the FRED Family of Forensic Systems Thank You for Your Recent Order
A User Guide for the FRED Family of Forensic Systems Thank you for your recent order. We hope you like your new FRED! Please do not hesitate to contact us if you have any questions or require any additional information. Although we welcome a phone call anytime, our preferred method of contact is via our website www.digitalintelligence.com . The sales and technical support ticketing system is easy to use and allow us to track all requests and responses. To create your user account click on the User Icon on the top right of the web page banner and click on Sign Up. Here you can register your FRED system as well as track your web order history and support tickets. Please note your system serial number is the unique identifier for your system. It is helpful if you use the system serial number in your correspondence. If you have a sales related question or technical support issue, simply navigate to www.digitalintelligence.com/support A searchable knowledge base, links to other help or informational topics as well as a “Open A Ticket” button link can be found near the bottom of the page. We want to remind you, regardless of your warranty status, we will always be willing to assist with any technical questions you have regarding any Digital Intelligence product. *** Read me first *** Forensic Recovery of Evidence Device This document contains important information about the configuration and operation of your FRED system. FAILURE TO FOLLOW THESE GUIDELINES MAY RESULT IN PHYSICAL DAMAGE TO YOUR EQUIPMENT WHICH IS NOT COVERED UNDER WARRANTY. -
Latency-Aware, Inline Data Deduplication for Primary Storage
iDedup: Latency-aware, inline data deduplication for primary storage Kiran Srinivasan, Tim Bisson, Garth Goodson, Kaladhar Voruganti NetApp, Inc. fskiran, tbisson, goodson, [email protected] Abstract systems exist that deduplicate inline with client requests for latency sensitive primary workloads. All prior dedu- Deduplication technologies are increasingly being de- plication work focuses on either: i) throughput sensitive ployed to reduce cost and increase space-efficiency in archival and backup systems [8, 9, 15, 21, 26, 39, 41]; corporate data centers. However, prior research has not or ii) latency sensitive primary systems that deduplicate applied deduplication techniques inline to the request data offline during idle time [1, 11, 16]; or iii) file sys- path for latency sensitive, primary workloads. This is tems with inline deduplication, but agnostic to perfor- primarily due to the extra latency these techniques intro- mance [3, 36]. This paper introduces two novel insights duce. Inherently, deduplicating data on disk causes frag- that enable latency-aware, inline, primary deduplication. mentation that increases seeks for subsequent sequential Many primary storage workloads (e.g., email, user di- reads of the same data, thus, increasing latency. In addi- rectories, databases) are currently unable to leverage the tion, deduplicating data requires extra disk IOs to access benefits of deduplication, due to the associated latency on-disk deduplication metadata. In this paper, we pro- costs. Since offline deduplication systems impact la- -
Removable Media Policy 2019 - 2021
Cambridgeshire and Peterborough Clinical Commissioning Group (CCG) REMOVABLE MEDIA POLICY 2019 - 2021 Approval Process Lead Author(s): Information Governance Lead / DPO Senior ICT Service Development Manager Reviewed / Information Governance (IG), Business Intelligence (BI) and Developed by: IM&T Steering Group members Approved by: Information Governance (IG), Business Intelligence (BI) and IM&T Steering Group members Ratified by: Integrated Performance and Assurance Committee Date ratified: 26 November 2019 Version: 4.0 Review date: October 2021 Valid on: 26 November 2019 Document Control Sheet Development Policy developed in consultation with the Information Governance, and Business Intelligence and IM&T Steering Group. Consultation: Dissemination This policy will be promoted within the CCG and uploaded to the website Egton Support Team to be made aware. Implementation The Senior Information Risk Owner is responsible for monitoring the application of the policy by ensuring that: • The policy is brought to the attention of all employees and building users; • Members of the Senior Leadership Team and Line Managers are aware of their responsibilities for ensuring that staff under their control implement the policy; • Staff are informed and consulted as appropriate; • Any appropriate training and guidance are provided to staff; • Corporate business processes support the implementation of the policy. Training Training will be undertaken if required as part of the CCG’s ongoing processes. Audit Implementation of the Policy will be monitored in line with the data security assurance section of the Data Security and Protection Toolkit (DSPT). Review This policy will be reviewed bi-annually or earlier if there are changes in procedures or legislation. Care Quality This policy supports the CCG in its compliance with the Care Quality Commission Commission Registration Requirements. -
On the Performance Variation in Modern Storage Stacks
On the Performance Variation in Modern Storage Stacks Zhen Cao1, Vasily Tarasov2, Hari Prasath Raman1, Dean Hildebrand2, and Erez Zadok1 1Stony Brook University and 2IBM Research—Almaden Appears in the proceedings of the 15th USENIX Conference on File and Storage Technologies (FAST’17) Abstract tions on different machines have to compete for heavily shared resources, such as network switches [9]. Ensuring stable performance for storage stacks is im- In this paper we focus on characterizing and analyz- portant, especially with the growth in popularity of ing performance variations arising from benchmarking hosted services where customers expect QoS guaran- a typical modern storage stack that consists of a file tees. The same requirement arises from benchmarking system, a block layer, and storage hardware. Storage settings as well. One would expect that repeated, care- stacks have been proven to be a critical contributor to fully controlled experiments might yield nearly identi- performance variation [18, 33, 40]. Furthermore, among cal performance results—but we found otherwise. We all system components, the storage stack is the corner- therefore undertook a study to characterize the amount stone of data-intensive applications, which become in- of variability in benchmarking modern storage stacks. In creasingly more important in the big data era [8, 21]. this paper we report on the techniques used and the re- Although our main focus here is reporting and analyz- sults of this study. We conducted many experiments us- ing the variations in benchmarking processes, we believe ing several popular workloads, file systems, and storage that our observations pave the way for understanding sta- devices—and varied many parameters across the entire bility issues in production systems. -
Filesystems HOWTO Filesystems HOWTO Table of Contents Filesystems HOWTO
Filesystems HOWTO Filesystems HOWTO Table of Contents Filesystems HOWTO..........................................................................................................................................1 Martin Hinner < [email protected]>, http://martin.hinner.info............................................................1 1. Introduction..........................................................................................................................................1 2. Volumes...............................................................................................................................................1 3. DOS FAT 12/16/32, VFAT.................................................................................................................2 4. High Performance FileSystem (HPFS)................................................................................................2 5. New Technology FileSystem (NTFS).................................................................................................2 6. Extended filesystems (Ext, Ext2, Ext3)...............................................................................................2 7. Macintosh Hierarchical Filesystem − HFS..........................................................................................3 8. ISO 9660 − CD−ROM filesystem.......................................................................................................3 9. Other filesystems.................................................................................................................................3 -
USB Flash Drive Security Recommendations and Best Practices
USB Flash Drive Security Recommendations and Best Practices Risks USB flash drives or thumb drives pose a severe security risk to networks and data. Hackers can use them to transmit viruses and other malware every time they are plugged into another computer. Attackers may also use USB drives to steal sensitive information. USB drives are also easily lost or stolen. If the data was not backed up, the loss of a USB drive can mean hours of lost work. If the information on the drive is not encrypted, anyone who has the USB drive can access all of the data on it, potentially causing a data breach or leak Personally Identifiable Information (PII). Recommendations Staff are encouraged, and possibly required, to use authorized removable media with their devices for work-related functions. Sensitive information generally should not be stored on removable media in order to mitigate the risks mentioned above. If use of removable media is required for their work, it should be encrypted and placed only on officially registered removable media devices. Best Practices Use Office365 OneDrive or another cloud backup service to securely store and access data. This also protects against potential data loss when the loss of a removable device. If you must use a USB drive, use passwords and encryption to protect the data. Keep personal and business USB drives separate - Do not use personal USB drives on computers owned by the organization, and do not plug USB drives containing work information into a personal computer. Use and maintain security software, and keep all software up to date - Use anti-virus software, and anti-spyware software to make your computer less vulnerable to attacks, and make sure to keep the virus definitions current.