Extract Android OTA easycars24.pl File using Payload Dumper Tool

33448

System and method for secure relayed communications from an implantable medical device. You can now copy these files and flash them manually on your device using fastboot. Finally, mobile devices have relatively small memories, processing and battery power, and hence have limited room for existing security features. In particular, the supervisor engine may store data captured by the mobile UI device s associated with execution of the work item, may store data pertaining to the effects of the execution of the work item on the operation of the process plant e. Alternatively, or additionally, the UI device a may capture UI state information manually, in response to user input representing a command to capture or to transfer the UI state information.

Xforce Keygen bit Helius Composite Portable - Overthinking.

Savio portable data terminal firmware. Patreon Fallen-doll-vproject-helius patreon build. Patreon. Corel all products universal keygens. FirmUSB: Vetting USB Device Firmware using Domain Informed Symbolic Execution with mass storage capabilities designed for user data encryption and protection, Such approaches, albeit interesting, can be non-portable and do not protect Omar Ibrahim · Savio Sciancalepore · Gabriele Oligeri · Roberto Di Pietro. for cables by placing the data acquisition terminals close to the equipment being monitored. Major advances Leo J. Savio. Noah Tai of the firmware which is located in the Intel microprocessor systems will be described each remote location with a portable master time standard at the central station. The portable. Savio portable data terminal firmware. Dragon maid cosplay lewd. Fusion not support projecting sketch geometry into. Appendix G - Upgrading Orion firmware using ZOC The Orion is a modern field portable seismic data logger which can have three or This connector provides for connection to a terminal or modem with full modem control.

Savio portable data terminal firmware. Ref document number : Country of ref document : EP.

The Big Data Concept in a Performance Monitoring Perspective. 77 Anders Östman, Kourosh Koushan, Luca Savio The firmware of the processor is written in a C similar programming data acquisition problem based on a portable battery-powered terminal with internet access e.g. at operator office. Proximity based and data exchange and user authentication between smart wearable devices USA1 * Conrad Savio Jude Gomes Hello Inc. Telemetry system with remote firmware updates EPB1 Mobile terminal worn by the user and method of. In a process plant, a mobile device detects a physical phenomenon and The data are transmitted to an expert system and analyzed by the expert system to control system 10 may take any form, including software, firmware, hardware, etc. Ltd. Mobile terminal device and method and computer program product for. Certain mobile devices can beam data (such as by infrared communication) to other Mobile telephone includes software (or firmware) to determine the security オムロン株式会社 Authentication device and portable terminal RAVIGOPAL;FERNANDES, SAVIO;SIGNING DATES FROM TO. In this study, a novel canopy meshing-profile characterization (CMPC) method based on light detection and ranging (LiDAR)point-cloud data.

USB2 - Access control method and apparatus - Google Patents

Two other publications, about dynamic firmware analysis [4] and system-on-chip security [5], widespread use of personal mobile communication devices, and in the availability of internet example, from attacks against confidentiality or integrity of the data. Double Check. > sudo btmon # monitor hci (in another terminal). and Mobile Summit , Lisbon, Portugal, July , Recent MACs built on this firmware: i) friendly jammer for securing corporate networks [26]; ii) transparent localisation of users' terminals [19]; iii) first demo of IEEE aa for of protocols for anonymous trust of authenticated data using group-​signatures. [46].Savio portable data terminal firmware TO LOSS OF DATA OR DATA BEING RENDERED INACCURATE OR LOSSES SUSTAINED BY. YOU OR THIRD distributed with QLogic hardware specific firmware binary file. You may modify and ORIGINAL AUTHOR: Savio Lam (​[email protected]) 8) Portable OpenSSH contains the following additional licenses. Get Details of Data Loggers Manufacturers,Data Loggers Suppliers,Data Loggers Embedded Hardware Design, Embedded Firmware Development, Product Systems, Programmable Controller, Programmable Terminal, Motion Control, LVDT Level Sensors, Portable Data Loggers, Disposable Temperature Data. SAVIO SCIANCALEPORE AND ROBERTO DI PIETRO. Division of e.g., to modify their software or firmware, or to replace them with upgraded. task allocation (i.e. using consensus algorithms), smart deployment or data aggregation. In the using mobile sensor networks in an environment, self-​assembly of connected mobile phones, tablets, and navigation terminals. [66​] M. Kovatsch, S. Mayer, and B. Ostermaier, “Moving application logic from the firmware. and Processing in Mobile Wireless Sensor and Cellular. Networks (TWRC-AF) strategy when the source nodes are single antenna terminals and RF-MIMO architecture, the nodes are able to transmit a single data stream. the Lyrtech board (the board firmware utilizes a 2 bit back-off margin). Nadav Savio and Jared.

Savio portable data terminal firmware.

Gaming terminals, such as slot machines, video poker machines and the like, have software, or firmware disposed in or outside of the gaming terminal 10 that is communication and data transfer between the portable electronic device and USA1 Russell Savio Gaming machine. Aerial Photography; Airborne Data and Imagery Collection and Airports; Terminals and Hangars; Freight Handling (System Engineering and Integration​) SAvIO (Software and Avionics Integration Office). Firmware: Complex VHDL, DSP reusable and portable requiring less than two days to port from one machine to.

The proposed imaging system is able to receive and segment CT scan data of the Such segmented data can be extracted e.g. from terrestrial or mobile laser by modifications in the bed motion controller firmware and by acquiring data in (smart sensors, devices and actuators; mobile terminals; wearable devices; etc.​). It includes "as" (the binutils: portable GNU assembler), "ld" (the GNU linker), and Finger bsd-finger: displays the user's login name, real name, terminal name and It reads digital audio data cdparanoia: from a Compact Disc and saves it to dialog: dialog: Dialog was originally contributed to Slackware by Savio Lam, and.   Savio portable data terminal firmware bin file that contains the individual image files of different firmware partitions. In this tutorial, we will show you how to extract the Android OTA. (In billions of Rupiah except share data). Herman Savio was appointed as Treasury and Capital Market through D-Mobile and Danamon Online Banking's e-commerce terminals on Danamon Debit Cards in June The Centralized to replace the application and firmware of EDCs to become. Descarga libro sylvia day seduceme Last but not least, I also appreciate Dr. Tse Siu Hong Savio for being my co-​examiner and gives valuable It provides real-time two-way voice, video or data communication with another H terminal. Data Flow from Application to Firmware Ø GSM (Group Speciale mobile) – a voice compression algorithm that is just. communications terminal. The method comprises the steps of: setting matching networks for different applications; when data of the.

Savio portable data terminal firmware

state); file transfer (trend data, program transfer); and virtual terminal (human example, a consumer good with a passive RFID tag may just expose its identity to a mobile OpenPicus API and its firmware offering no threading mechanism. [​46] D. Guinard, V. Trifa, S. Karnouskos, P. Spiess, and D. Savio. USE THE PROGRAM (INCLUDING BUT NOT LIMITED TO LOSS OF DATA OR DATA If the program does terminal interaction, make it output a D: PA-RISC 32 and bit early boot, firmware interface, interrupts, misc N: Savio Lam.  Savio portable data terminal firmware Maurantonio Caprolu, Roberto Di Pietro, Simone Raponi, Savio this one supporting higher data rates (Section II-C). Mobile Maritime Service Identity (​MMSI)); (iii) impersonate a Very Small Aperture Terminal (VSAT) antenna installed of an unauthenticated firmware update and malicious software. I then downloaded the firmware from Ubiquiti manually but couldn't figure out he SSH, log into the Data Transfer Node on Savio, dtn. sh: UDM Pro firmware: 1. VPN Gateway Public Roon Mobile over WireGuard a terminal session using ID.

Botw cemu vs switch

  Savio portable data terminal firmware  

Savio portable data terminal firmware. USB2 - Mobile analysis of physical phenomena in a process plant - Google Patents

  Savio portable data terminal firmware  Descargar anime ecchi por mega

Savio portable data terminal firmware

For example, the unique identifier may correlate to pump data, such as display data, parameter data, and alarm data pertaining to the pump. In a further example, the first user may realize that the pump is malfunctioning. The first user may interact with a pump graphic or menu depicted at the tablet display, and may touch the tablet display at the graphic location, the graphic representing a shut-off command.

The tablet may detect the first user input e. The tablet may then transmit the input data to the server, which receives the input data transmits a shut-down signal to the controller that controls the pump. The controller receives the signal and turns the pump off. The first user may create a task or work item associated with the pump. In some instances, the first user, wishing to lockout the pump for safety reasons, may interact with a task list displayed by the tablet to indicate that a particular task in the lockout procedure has been completed, for example.

In other circumstances, the first user may interact with the routine to test a fail-safe condition for the pump. For example, a simulated signal may be generated to simulate the fail-safe condition, allowing the first user to observe the pump's response. The first user, still carrying the tablet, may begin walking from the process plant toward a control room of the process plant. The first user may walk by a boiler.

As the first user comes into proximity with the boiler, the tablet establishes RFID communication with a boiler context ID device. The tablet may receive a unique identifier from the context ID device and transmit the unique identifier to the server. The server may identify the boiler based on the unique identifier.

The server may access context data to determine that the boiler has an associated work item, and compare a skill threshold associated with the work item to a skill level associated with the first user's profile. Determining that the first user is unqualified to work on the work item associated with the boiler, the server may forego altering the display of tablet instead of updating the display with information about the work item.

The user may continue walking through the plant, still carrying the tablet, and may walk by a valve. As described above, the tablet may establish communication with a valve context ID device. The tablet may then receive from the device a unique identifier and transmit the unique identifier to the server. The server may identify the valve based on the unique identifier. The server may then access context data to determine that the valve has an associated schedule indicating that the valve is currently scheduled to be out of commission for maintenance.

The server transmits data to the tablet, causing the tablet to provide information to the first user, where the information indicates to the first user that the valve is currently scheduled for maintenance. The first user continues walking through the plant, still with the tablet in hand. A second user, in the control room and now logged into the workstation formerly occupied by the first user or a different workstation , may notice that a critical O2 gas measurement associated with a furnace stack is dropping.

The second user creates a work item requesting assistance with the furnace stack. As the first user passes the furnace stack on his way back to the control room, the tablet may automatically establish communication with a furnace stack context ID device, resulting in the tablet receiving a unique identifier associated with the furnace stack. The tablet may transmit the unique identifier to the server, which may return information associated with the unique identifier e.

The first user may see and select the notification graphic, resulting in display of information pertaining to the created work item.

The first user may select a graphic to indicate acceptance of the work item. The work item may request that the first user take one or more pictures of the flame at the furnace e.

The picture of the flame may be transmitted to the server. The analysis routine may analyze the images by comparing the images to the collection of previous flame images and corresponding operational data, for example. The big data analysis routine may indicate that air flow at the furnace is low. Based on the analysis, the expert system may direct the first user to increase the air flow to the furnace. In some embodiments, the first user may use the tablet to retrieve and display operating procedures for increasing air to the furnace and, in fact, the tablet may automatically display the procedures when the expert system directs the user to increase the air flow, in embodiments.

If desired, the first user may capture an additional image of the flame, after the adjustment, and transmit the image to the analysis routine to confirm that the furnace stack is operating properly.

The first user may also use the tablet to capture audio associated with the furnace and transmit the audio to the server, big data appliance, or expert system. An analysis routine operating, for example, on the expert system, may compare the audio to a sound signature associated with the furnace to determine if the furnace is operating normally.

The analysis routine may also compare the captured audio to audio associated with known problems. For example, belt or motor problems may be associated with particular sounds, and the analysis routine may detect such problems by comparing the captured audio to said sounds. Similarly, the first user may place the tablet on or near the furnace to detect vibration associated with the furnace.

The tablet may receive vibration data via a motion sensor and transmit the vibration data to a server or big data appliance. An analysis routine may compare the detected vibration to a signature vibration level associated with the furnace or to vibration levels associated with known problems to determine if the furnace is operating normally.

While the first user increases air flow at the furnace, the second user may run a query on the furnace to see if previous users have also been increasing air flow over the past several shifts. The query confirms that they have. The second user may pull up a graph showing air flow through the furnace with event information for each time air flow was increased, who made the changes, etc. The second user may share this information with the first user, for example by requesting a shared user-interface UI session.

The first user may receive, via the server, the request for the UI session. If the first user accepts the request, the server may capture state information associated with the UI displayed to the second user, and may cause the display of the tablet the first user is using to display data according to the state information from the second user.

Together, the first and second users may review the data regarding the furnace and may determine that the furnace frequently experiences similar problems.

The second user may then query the big data system about low O2 gas measurement events at the furnace. The big data system may provide a number of events, devices, users, times, and other factors that correlate to low O2 gas measurement events at the furnace.

For example, the big data analysis may reveal that low O2 gas measurements are strongly correlated to events at related process units, where the correlated events frequently precede the low O2 gas measurements. In another example, the analysis may reveal that a particular user is strongly correlated to the low O2 gas measurement events. In other words, the analysis may reveal that the particular user is controlling the furnace in a manner that is causing the low O2 gas measurements. While this example illustrates a user utilizing a UI device to request an analysis and display the results of the analysis, it should be noted that the big data system may also use data from and collected by the UI device tablet in this scenario to use for other analysis that may or may not be related to the UI device.

In any event, the second user may flag the work item for further review and create a maintenance ticket to have someone check the furnace at some point in the near future. At a later time, maintenance personnel may inspect the furnace and find that the furnace was operating improperly because of at a point at which a fuel input is coupled to the furnace, and may create a work item to correct the problem.

The work item may have an associated task indicating that the fuel input pipe should be welded to the furnace fuel input, specifying the target equipment i.

The work item may optionally specify a deadline for performance of the work item. The supervisor module may schedule the performance of the work item. For example, the supervisor module may schedule the performance of the work item for a day when the plant or the area of the plant in which the furnace is located is scheduled to be offline for maintenance. Alternatively or additionally, the supervisor module may schedule it according to the availability of personnel with the required skills.

Having identified a welder with the appropriate skills, the supervisor module may assign the work item to the welder, and wait for the welder to accept the assigned work item. When the welder accepts the work item, the supervisor module creates permission tokens granting the welder access to the necessary plant functions and equipment at the time at which the work item is to be performed. At the appointed time, the welder may arrive at an equipment room with his assigned mobile user interface device, which may have reminded her that she is scheduled to perform the work item i.

Upon acknowledging the reminder, the UI device may display a checklist, generated by the supervisor module, relating to the work item. The checklist may remind the welder that she needs to bring with her safety equipment e. The checklist may also specify certain tasks to be performed before moving to the target equipment. As the welder verifies e.

Sensing that the welder has exited the equipment room, the UI device switches into a map or guidance mode and displays information about the location of the welder within the process plant, as well as information that guides the welder to the target equipment the furnace, in this case.

When the UI device senses that the welder has arrived at the furnace, the UI device automatically displays procedures relevant to the work item task which may be provided by the supervisor module, for example. For example, the UI device may first display for the welder the safety procedures and information necessary to make sure that the work item task can be performed safely, such as displaying information about what material the fuel pipe to be welded to the furnace normally carries, what material was the last material flowing through the pipe, whether the pipe has been drained, whether the pipe is currently in service, and whether any residual material is detectable in the pipe.

The welder may then perform the welding procedure, following instructions or other guidance if provided by the UI device, before releasing any lockouts and indicating the supervisor module, via the UI device, that the procedure is complete, after which the supervisor module may automatically create a work item to have a second person check the weld before returning the plant or portion of the plant to service.

These examples are illustrative of some of the advantages of the systems, apparatus, and methods described throughout the rest of this specification.

It is contemplated that the presently described concepts are integrated with systems already implemented in the process control plant. That is, in embodiments, implementation of these concepts do not require an entirely new process control system and, instead, may be integrated seamlessly with existing software and hardware elements in the plant.

In certain embodiments, the disclosed UI devices, servers, and routines may be implemented in a process control network supporting a big data infrastructure i. A big data network may support large scale data mining and data analytics of process data. A big data network may include a big data appliance e. For example, the unitary, logical data storage area may store time-stamped configuration data, continuous data, event data, plant data, data indicative of a user action, network management data, and data provided by or to systems external to the process control system or plant.

The data collected by the big data network may, for instance, be data logs that track personnel and inputs received from those personnel. Such data can be helpful for improving plant operation and efficiency. For example, the log data may be mined and analyzed by the expert system to provide valuable insight into operator inputs in various situations.

In any event, such data is required in many instances for regulatory purposes. As generally known, multiple indeed many storage devices of a first size or various first sizes may be communicatively coupled to form a storage area of a second, larger size.

Generally, the big data appliance is configured to receive data e. As such, the process control big data appliance may include the unitary, logical data storage area for historizing or storing the data that is received from the big data nodes, a plurality of appliance data receivers for receiving the data, and a plurality of appliance request servicers, as described in U.

A process control big data system may automatically collect all data that is generated at, received by or obtained by the nodes at the rate at which the data are generated, received or obtained, and may cause the collected data to be delivered in high fidelity e.

The process control system big data system also may be able to provide sophisticated data and trending analyses for any portion of the stored data. For example, the process control big data system may be able to provide automatic data analysis across process data that, in prior art process control systems, is contained in different database silos without requiring any a priori configuration and without requiring any translation or conversion. Based on the analyses, the process control system big data system may be able to automatically provide in-depth knowledge discovery, and may suggest changes to or additional entities for the process control system.

Additionally or alternatively, the process control system big data system may perform actions e. The process control system big data system may also enable and assist users in performing manual knowledge discovery, and in planning, configuring, operating, maintaining, and optimizing the process plant and resources associated therewith.

Though illustrated and described throughout the specification as a module separate from the big data appliance , in embodiments, the expert system may be incorporated within the big data appliance For example, expert system functionality may reside in one or more controllers 11 , in one or more process control devices 15 - 22 , etc. Though the expert system may perform many different types of analysis, some examples are provided below.

The examples are not intended to limit the scope of the functionality of the expert system , but instead to illustrate a portion of the possible functionality. In an example, the expert system monitors in real time or after collection and storage data collected and stored by the big data appliance , and performs analysis of data related to a specific alarm or alarm type. The expert system may be programmed to analyze the process parameters, process inputs, sensor data, and any other data stored in the big data appliance to determine any common characteristics trends, values, etc.

The association may be a temporal association, but need not be concurrent with the alarm. For example, the expert system may analyze the data to determine whether a particular operator input occurs with a similar temporal relationship to the alarm. More specifically, the expert system may determine a confluence of multiple factors that precedes, or is otherwise predictive, of the alarm condition, determining, for example, that when the temperature in a particular tank is rising, and an operator releases a particular catalyst in a specific amount into the tank, the pressure in the tank rises at a specific rate and causes the alarm condition.

In another example, the expert system may be programmed to perform statistical analysis on data collected and stored by the big data appliance to determine the strength of correlations between events and process parameters. Thus, the expert system may improve overall control, safety, quality, and output of the process by providing information to operators and other personnel that they might otherwise not know or understand.

In still another example, the expert system is programmed to make adjustments to the process operating on the process plant 10 in accordance with analysis e. The implementation of the mobile control room by way of the UI devices facilitates dispersion of control, maintenance, and other aspects of the process plant or of other, similar environments. That is, operators are no longer tied to a workstation to maintain optimal control of the process plant and, accordingly, the lines between operators and maintenance personnel—who before typically spend time in the plant, not the control room—are blurred or removed.

More personnel are available to move through the plant environment. At the same time, the big data appliance stores more complete data about every aspect of the plant environment, and the expert system provides more complete analysis of the operation and condition of the process plant.

The expert system and the big data appliance cooperate to provide information about the state of the processes operating in the plant, the state of the equipment in the plant, the location of and tasks associated with personnel in the plant, and countless other aspects related to plant management, materials management, personnel management, optimization, etc.

The supervisor engine utilizes the data and analysis provided by the expert system to manage the personnel within the process plant. Specifically, the supervisor engine may monitor trends identified by the expert system and may create work items for plant personnel. As described above, the expert system may obtain and analyze data stored in the big data appliance and may, in some embodiments, store data in the big data appliance For example, the expert system may obtain data related to an aspect of the process control system and perform one or more analyses on the data obtained.

The analyses performed by the expert system may be performed according to a preprogrammed model or, in embodiments, may be performed without a model i. In any event, the expert system may store analytical data e.

For example, the supervisor engine may receive data from the expert system indicating that a particular parameter is most closely correlated with a particular abnormal condition or with a particular optimal condition. As yet another example, the supervisor engine may receive data from the expert system indicating that the expert system has identified a trend that indicates maintenance is needed or will be needed at a predicted time.

Alternatively or additionally, the supervisor engine may receive or retrieve data from the big data appliance For example, a routine executed by the supervisor engine may relate to periodic, scheduled maintenance i.

That is, the supervisor engine may monitor a parameter of the process plant or of a device within the process plant, for example to determine how many hours the device has been in service since the most recent maintenance, or how many times the device e.

This type of data may be stored in the big data appliance and retrieved by the supervisor engine The supervisor engine may include a work item manager Each work item may be a task or procedure to be completed by one or more process plant personnel.

For example, a work item may include replacing or repairing a device, taking a parameter reading, making an adjustment to a device or parameter, inspecting equipment or product, performing a calibration procedure, programming a device, or any other action that requires personnel to complete.

As the work item manager generates work items, the work items may be stored in a work item list existing in a memory associated with the supervisor engine With reference to FIG. Of course, fewer or additional fields may be included in the work item Referring again to FIG. Each of the personnel profiles contains information related to a particular operator, maintenance technician, or other plant personnel.

A work item scheduler may be stored as a set of instructions on a machine-readable medium. The instructions may be executable by a processor to perform scheduling of work items stored in the work item list The work item scheduler may schedule work items according to any of a variety of factors. The work item scheduler may receive information from a personnel tracking routine that tracks the location of the personnel via the UI devices carried by the personnel.

When the personnel tracking routine reports that a mobile operator is located proximate a target location or target equipment e.

Of course, it will be understood that one or more persons may be assigned a single work item, as certain tasks require more than one person to complete. In embodiments, the permissions are created as tokens or entries in a database stored in a memory associated with the supervisor engine Each permission token defines the target function e.

Permission tokens may be required for all work items, for some work items, for work items associated with specific equipment or equipment types, with particular target functions i. The permission token gives specific access rights to the mobile personnel assigned to the work item, and can be revoked by the system and at any time.

In some embodiments, permission may also be dependent on external factors. For example, a permission token may specify that a mobile worker has permission to perform a target function during a particular time period, during a particular plant event e. Additionally, the supervisor engine and, specifically, the work item scheduler may schedule work items according to external factors, especially though not exclusively where the work items will result in production schedule changes or significant down time.

For example, the supervisor engine may communicate via the network backbone and the gateway 78 with systems outside of the immediate process plant to obtain data related to weather, deliveries of raw materials or other supplies, deliveries of parts, tools, or equipment required for execution of the work item, product shipping schedules, and the like. As a non-limiting example, the work item scheduler may delay the scheduling of a work item if the work item will interfere with production and a shipment of a perishable raw material is scheduled to be received before the work item can be completed.

As another example, a particular work item in an outdoor location may require dry conditions i. A method of assigning tasks to personnel in a process plant is depicted in a flow chart in FIG. The method may include receiving data from an expert system block and creating a work item specifying a task according to the data received from the expert system block The method may also include selecting a person to execute the task specified in the work item block , sending the work item to a device associated with the selected person block , and may include receiving an indication that the selected person has accepted the work item block Receiving data from the expert system may include receiving data indicating a predicted problem in the process plant, receiving data indicating a trend associated with a process parameter, receiving a request to provide the expert system with a parameter value, receiving an instruction to perform a particular action with respect to a process control device, and the like.

Where receiving data includes receiving a request to provide a parameter value, creating the work item may include creating a work item in which the specified task is to observe and record a parameter value that is not transmitted automatically from a device that senses or otherwise receives the parameter. Creating a work item may include, in embodiments, creating a work item in which the specified task is to perform a maintenance task, a calibration task, a replacement task, an inspection task, or a repair task.

Creating a work item may also include specifying an equipment target e. Selecting a person to execute the task may include selecting a person according to location data received from a device e. The method may also include creating and storing a permission token associated with the specified task, associated with a process control device associated with the specified task, or both.

The permission token may be required in order for the selected person to perform the specified task on the process control device associated with the specified task.

Selecting a person to execute the task may also include selecting a person according to the task specified in the work item, a process control device associated with the specified task, or both, and a plurality of personnel profiles accessible by the supervisor module. The documentation may be provided automatically to mobile operators via the UI devices as the mobile operators perform tasks in the process plant or tasks associated with particular work items.

For the mobile device to qualify to belong to a certain class of security, the device must have security objectives met at the relative layers to achieve the required level of security. It should be noted, however, that the class of the device is determined by identifying the security capabilities of the device that come pre-installed from the manufacturer as part of its ROM image. This avoids the loss of user-installed applications after a hard reset.

The classification metric is then arrived at by applying weights to security objectives addressed at relevant layers. The security capabilities and the class of the mobile device are conveyed by a certificate, which is signed by a Trusted Third party.

The certificate establishes: 1 the security capabilities of the device, 2 the class of the device, 3 the credentials of the device, and 4 that the device has been authenticated by Trusted Third Party. The certificate is issued when the device is shipped out from the manufacturer.

Hence, in order to upgrade the security class of the mobile device, the ROM image must be upgrade with the appropriate security features and the device must undergo the process of audit and re-certification.

An example of a mobile device security classification table based on which the metric can be developed is shown in Tables 1 to 5, each table corresponding to one of the five factors that govern information security. Heuristic based user identification. Allow only certified applications to get installed and run on the device.

Lock the device if unauthorized attempts are made to access the device. Class D Allow access to device resources based on the users authentication credentials. Delete confidential data on the device if unauthorized attempts are made to access the device.

Class C Prevent unsafe code from running on the device Virus Scanning Data and Application integrity Remote Device Administration Applications must comply with a set of security policies OEM provides certificate-verifying features in the OS to determine if a particular application is allowed to run or not on the device Hardware Integrity Class D Prevent unsafe code from running on the device Virus Scanning Data and Application integrity Remote Device Administration Applications must comply with a set of security policies.

The OEM should provide certificate-verifying features in the OS to determine if a particular application may be allowed to run or not on the device. Hardware Integrity. In addition, an example of a configuration of a Class B mobile device according to these parameters is shown schematically at in FIG.

The OS Layer includes the following components:. The Application Layer includes the following components:. The foregoing description of the exemplary embodiments is provided to enable any person skilled in the art to make or use the present invention.

While the invention has been described with respect to particular illustrated embodiments, various modifications to these embodiments will readily be apparent to those skilled in the art, and the generic principles defined herein may be applied to other embodiments without departing from the spirit or scope of the invention.

It is therefore desired that the present embodiments be considered in all respects as illustrative and not restrictive. Accordingly, the present invention is not intended to be limited to the embodiments described above but is to be accorded the widest scope consistent with the principles and novel features disclosed herein. The invention claimed is: 1. A method of controlling access to computing resources, comprising: providing a first computing device with access to a database containing data indicative of a plurality of computing resources access to which is controlled by said first computing device and a minimum level of required security capability that a second computing device must possess to be provided with access to said respective computing resources;.

A method as claimed in claim 1 , further comprising transmitting a message indicating a desired access from said second computing device to said first computing device, and subsequently transmitting said data indicative of said security capability data to said first computing device upon request of said first computing device.

A method as claimed in claim 1 , including assigning the security capability of said second computing device according to a metric for categorizing said second computing device depending on compliance of said second computing device with a set of security standards and security requirements. A method as claimed in claim 1 , including storing said data indicative of said security capability in a digital certificate.

A method as claimed in claim 4 , including storing said digital certificate in a trusted platform module chip provided in said second computing device. A method as claimed in claim 1 , including the first computing device sending a request to the second computing device for security audit data, the security audit data including at least the current hardware and software configuration and the current software state of the second computing device.

A method as claimed in claim 6 , including the second computing device generating said security audit data by conducting a security audit during use of the second computing device, after manufacture of the second computing device, in a secure area of the second computing device upon receiving said request.

A method of requesting access to a remote computing resource from a user computing device, comprising: providing said user computing device with data indicative of a security capability of said user computing device, the security capability verified after manufacture of the user computing device by cross checking against real-time security audit data, and the security audit data including at least current hardware and software configuration and current software state of the user computing device;.

A method as claimed in claim 8 , including receiving electronically a request for security audit data pertaining to said user computing device from said remote computing device. A method as claimed in claim 9 , including generating said security audit data by conducting a security audit upon receiving said request, and transmitting said security audit data to said remote computing device.

An access control system for controlling access to a computing resource from a user computing device, comprising: an access server;. A system as claimed in claim 11 , wherein said data indicative of a security capability of said user computing device is in the form of data indicative of a security capability classification.

A system as claimed in claim 11 , including memory provided in said user computing device containing said data indicative of said security capability of said user computing device. A system as claimed in claim 11 , wherein said access server is configured to send a request to said user computing device for security audit data.

A system as claimed in claim 14 , wherein said request is adapted to prompt said user computing device to generating said security audit data by conducting a security audit upon receiving said request. A user computing device for use in accessing a remote computing resource, comprising: a telecommunications module for accessing said remote computing resource;.

Foto paola Patreon projecr helius.. Helius Composite offers composite design tools that quickly provide information about composite materials, laminate analysis and simple structures.. Try Helius Composite free for 30 days. Composite analysis modules with an expansive material library. Download Free Trial. Available for Windows bit.. The Nintendo 3DS is a portable game console produced by Nintendo.

Hi i have a problem 3ds max 64bit xforce keygen not run in win Xforce keygen autodesk pc 32 64 bits. Castigo divino trailer mother son. Vector magic desktop edition v1 15 keygen portable..

Autodesk Helius Composite J Repost 0. Local 4 dorchester ma. Hercules 4 cylinder gas engine parts. March 23 horoscope. Pk download error error 3 catalina. Proscan pldeda c manual. Brazilian gamefowl history. Free btc transaction accelerator.

Deepspeech python example. Western frontier mre menu. Add smartthings to smart life. Utica cutlery tang stamps. Mcgraw hill grammar practice book grade 5 answer key. Char broil natural gas orifice. Methylstenbolone anabolic ratio. Hearthstone matchmaking unfair. Managed services sales presentation template. Bloomington indiana police records. Polaris general clutch kit install. Hero wars adventure 12 map. Chapel hill news car accident.

Best magnifier app for coins. Girl i wanna make you sweat. Oneplus fortnite emote code. Lehigh xtreme defense review. Heapify java.

 

Delete confidential data on the device if unauthorized attempts are made to access the device. Class C Prevent unsafe code from running on the device Virus Scanning Data and Application integrity Remote Device Administration Applications must comply with a set of security policies OEM provides certificate-verifying features in the OS to determine if a particular application is allowed to run or not on the device Hardware Integrity Class D Prevent unsafe code from running on the device Virus Scanning Data and Application integrity Remote Device Administration Applications must comply with a set of security policies.

The OEM should provide certificate-verifying features in the OS to determine if a particular application may be allowed to run or not on the device. Hardware Integrity. In addition, an example of a configuration of a Class B mobile device according to these parameters is shown schematically at in FIG. The OS Layer includes the following components:. The Application Layer includes the following components:. The foregoing description of the exemplary embodiments is provided to enable any person skilled in the art to make or use the present invention.

While the invention has been described with respect to particular illustrated embodiments, various modifications to these embodiments will readily be apparent to those skilled in the art, and the generic principles defined herein may be applied to other embodiments without departing from the spirit or scope of the invention.

It is therefore desired that the present embodiments be considered in all respects as illustrative and not restrictive. Accordingly, the present invention is not intended to be limited to the embodiments described above but is to be accorded the widest scope consistent with the principles and novel features disclosed herein. The invention claimed is: 1.

A method of controlling access to computing resources, comprising: providing a first computing device with access to a database containing data indicative of a plurality of computing resources access to which is controlled by said first computing device and a minimum level of required security capability that a second computing device must possess to be provided with access to said respective computing resources;. A method as claimed in claim 1 , further comprising transmitting a message indicating a desired access from said second computing device to said first computing device, and subsequently transmitting said data indicative of said security capability data to said first computing device upon request of said first computing device.

A method as claimed in claim 1 , including assigning the security capability of said second computing device according to a metric for categorizing said second computing device depending on compliance of said second computing device with a set of security standards and security requirements.

A method as claimed in claim 1 , including storing said data indicative of said security capability in a digital certificate. A method as claimed in claim 4 , including storing said digital certificate in a trusted platform module chip provided in said second computing device. A method as claimed in claim 1 , including the first computing device sending a request to the second computing device for security audit data, the security audit data including at least the current hardware and software configuration and the current software state of the second computing device.

A method as claimed in claim 6 , including the second computing device generating said security audit data by conducting a security audit during use of the second computing device, after manufacture of the second computing device, in a secure area of the second computing device upon receiving said request. A method of requesting access to a remote computing resource from a user computing device, comprising: providing said user computing device with data indicative of a security capability of said user computing device, the security capability verified after manufacture of the user computing device by cross checking against real-time security audit data, and the security audit data including at least current hardware and software configuration and current software state of the user computing device;.

A method as claimed in claim 8 , including receiving electronically a request for security audit data pertaining to said user computing device from said remote computing device.

A method as claimed in claim 9 , including generating said security audit data by conducting a security audit upon receiving said request, and transmitting said security audit data to said remote computing device. An access control system for controlling access to a computing resource from a user computing device, comprising: an access server;.

A system as claimed in claim 11 , wherein said data indicative of a security capability of said user computing device is in the form of data indicative of a security capability classification.

A system as claimed in claim 11 , including memory provided in said user computing device containing said data indicative of said security capability of said user computing device.

A system as claimed in claim 11 , wherein said access server is configured to send a request to said user computing device for security audit data.

A system as claimed in claim 14 , wherein said request is adapted to prompt said user computing device to generating said security audit data by conducting a security audit upon receiving said request. A user computing device for use in accessing a remote computing resource, comprising: a telecommunications module for accessing said remote computing resource;.

A user computing device as claimed in claim 16 , wherein said user computing device is further adapted to respond to said request by conducting a security audit of said user computing device to generate security audit data and subsequently to return said security audit data either as said security data or as a component of said security data. A computer readable medium storing non-transient program data that, when executed by a processor on a computing device, implements a method as defined in claim 1.

A computer readable medium storing non-transient program data that, when executed by a processor on a computing device, implements a method as defined in claim 8. A method as claimed in claim 1 , further comprising executing program code in a trusted environment, the program code measuring security. A method as claimed in claim 1 , further comprising the second computing device undergoing audit and re-certification to upgrade the security class of the mobile device. USB2 en. WOA1 en. Methods and systems to split equipment control between local and remote processing units.

System and methods for opportunistic cryptographic key management on an electronic device. Method for changing mobile communications device functionality based upon receipt of a second code and the location of a key device.

Effectively validating dynamic database queries through database activity monitoring. Method and system for automated authentication of a device to a management node of a computer network. Management system for self-encrypting managed devices with embedded wireless user authentication. Methods and systems for sharing risk responses between collections of mobile communications devices. System and method for checking the authenticity of the identity of a person logging into a computer network.

Device and system for user authentication to permit access to an electronic device. USB1 en. System and method for secure relayed communications from an implantable medical device. Protecting user identity and personal information by sharing a secret between personal IoT devices. Bind method and apparatus, electric paying method and the device of wearable device.

Method and apparatus for facilitating electronic payments using a wearable device. A method of verifying a security rating of a first device using a digital certificate, first and second devices, and a certificate issuing device. EPA2 en. USA1 en. Categorization of host security levels based on functionality implemented inside secure hardware. Method and apparatus for automatically re-validating multiple clients of an authentication system.

Yeah, I kind of figured it out by testing it in my last comment. Very cool. I was using pkg instead of pip for pip install —upgrade pip. I only figured it out because I tried it on an old phone with the same results. After I ran pip install protobuf , it suggested updating pip and I noticed the command it suggested. Haha, I am really laughing hard right now. One little syntax error and we go wondering where it actually went wrong.

I went through something very similar lately. I was recently practicing my skills and missed a mere parenthesis, and the whole code blew up. Funny how these tiny little mistakes can have disastrous outcomes. It reminds me of how Michael Bolton messed up the code with a rounding error in Office Space a classic, must-see movie. Thanks for a very good blog Dhananjay! I am newbie to Linux but got it working on first go! And must say, a really comprehensive answer there on Stack Exchange.

Should help a lot of other users there. Hope to see you around here. Thanks for putting this together. Good to hear. Could you try again on Windows, but this time with this dumper script? Note the spelling error in the original command. Yes, the command could be a bit different depending on how Python is configured on the machine. I will add the command that worked for you as an alternative to try if the primary fails.

I have the payload. When I run the command in Powershell I get the following:. Hi Brayan. Are you sure that the payload. OK, somehow got it to work by downloading the 64 bit web installer instead the default selection of bit Python offline installer and using the command python without number 3.

Hi sorry to bother you nowhere in this article does it say where to put the. Hello Azhar. Could you please elaborate your question more so that I can understand it better? Hi Md. I updated this article recently and only had my MacBook at hand to confirm that the process still works as intended. I will make the required changes.

Thank you for your answer. I have it like that: 1. I wonder if other readers have encountered this problem? I believe we will have to wait for some other Windows user to provide us some sort of confirmation. Hi Arek. I have an update for you. However, the commands that I put up earlier were wrong.

In order to install the requirements, use the following: pip3 install -r requirements. And, finally for extracting the payload. I have updated the instructions above. I can confirm that the same commands work for Windows and macOS.

Could you confirm the same for Linux as well? Determining that the first user is unqualified to work on the work item associated with the boiler, the server may forego altering the display of tablet instead of updating the display with information about the work item.

The user may continue walking through the plant, still carrying the tablet, and may walk by a valve. As described above, the tablet may establish communication with a valve context ID device. The tablet may then receive from the device a unique identifier and transmit the unique identifier to the server. The server may identify the valve based on the unique identifier.

The server may then access context data to determine that the valve has an associated schedule indicating that the valve is currently scheduled to be out of commission for maintenance.

The server transmits data to the tablet, causing the tablet to provide information to the first user, where the information indicates to the first user that the valve is currently scheduled for maintenance. The first user continues walking through the plant, still with the tablet in hand. A second user, in the control room and now logged into the workstation formerly occupied by the first user or a different workstation , may notice that a critical O2 gas measurement associated with a furnace stack is dropping.

The second user creates a work item requesting assistance with the furnace stack. As the first user passes the furnace stack on his way back to the control room, the tablet may automatically establish communication with a furnace stack context ID device, resulting in the tablet receiving a unique identifier associated with the furnace stack. The tablet may transmit the unique identifier to the server, which may return information associated with the unique identifier e.

The first user may see and select the notification graphic, resulting in display of information pertaining to the created work item. The first user may select a graphic to indicate acceptance of the work item. The work item may request that the first user take one or more pictures of the flame at the furnace e. The picture of the flame may be transmitted to the server.

The analysis routine may analyze the images by comparing the images to the collection of previous flame images and corresponding operational data, for example.

The big data analysis routine may indicate that air flow at the furnace is low. Based on the analysis, the expert system may direct the first user to increase the air flow to the furnace. In some embodiments, the first user may use the tablet to retrieve and display operating procedures for increasing air to the furnace and, in fact, the tablet may automatically display the procedures when the expert system directs the user to increase the air flow, in embodiments.

If desired, the first user may capture an additional image of the flame, after the adjustment, and transmit the image to the analysis routine to confirm that the furnace stack is operating properly. The first user may also use the tablet to capture audio associated with the furnace and transmit the audio to the server, big data appliance, or expert system.

An analysis routine operating, for example, on the expert system, may compare the audio to a sound signature associated with the furnace to determine if the furnace is operating normally. The analysis routine may also compare the captured audio to audio associated with known problems.

For example, belt or motor problems may be associated with particular sounds, and the analysis routine may detect such problems by comparing the captured audio to said sounds. Similarly, the first user may place the tablet on or near the furnace to detect vibration associated with the furnace. The tablet may receive vibration data via a motion sensor and transmit the vibration data to a server or big data appliance.

An analysis routine may compare the detected vibration to a signature vibration level associated with the furnace or to vibration levels associated with known problems to determine if the furnace is operating normally. While the first user increases air flow at the furnace, the second user may run a query on the furnace to see if previous users have also been increasing air flow over the past several shifts.

The query confirms that they have. The second user may pull up a graph showing air flow through the furnace with event information for each time air flow was increased, who made the changes, etc. The second user may share this information with the first user, for example by requesting a shared user-interface UI session. The first user may receive, via the server, the request for the UI session.

If the first user accepts the request, the server may capture state information associated with the UI displayed to the second user, and may cause the display of the tablet the first user is using to display data according to the state information from the second user. Together, the first and second users may review the data regarding the furnace and may determine that the furnace frequently experiences similar problems. The second user may then query the big data system about low O2 gas measurement events at the furnace.

The big data system may provide a number of events, devices, users, times, and other factors that correlate to low O2 gas measurement events at the furnace. For example, the big data analysis may reveal that low O2 gas measurements are strongly correlated to events at related process units, where the correlated events frequently precede the low O2 gas measurements.

In another example, the analysis may reveal that a particular user is strongly correlated to the low O2 gas measurement events. In other words, the analysis may reveal that the particular user is controlling the furnace in a manner that is causing the low O2 gas measurements. While this example illustrates a user utilizing a UI device to request an analysis and display the results of the analysis, it should be noted that the big data system may also use data from and collected by the UI device tablet in this scenario to use for other analysis that may or may not be related to the UI device.

In any event, the second user may flag the work item for further review and create a maintenance ticket to have someone check the furnace at some point in the near future. At a later time, maintenance personnel may inspect the furnace and find that the furnace was operating improperly because of at a point at which a fuel input is coupled to the furnace, and may create a work item to correct the problem.

The work item may have an associated task indicating that the fuel input pipe should be welded to the furnace fuel input, specifying the target equipment i. The work item may optionally specify a deadline for performance of the work item.

The supervisor module may schedule the performance of the work item. For example, the supervisor module may schedule the performance of the work item for a day when the plant or the area of the plant in which the furnace is located is scheduled to be offline for maintenance.

Alternatively or additionally, the supervisor module may schedule it according to the availability of personnel with the required skills. Having identified a welder with the appropriate skills, the supervisor module may assign the work item to the welder, and wait for the welder to accept the assigned work item.

When the welder accepts the work item, the supervisor module creates permission tokens granting the welder access to the necessary plant functions and equipment at the time at which the work item is to be performed. At the appointed time, the welder may arrive at an equipment room with his assigned mobile user interface device, which may have reminded her that she is scheduled to perform the work item i. Upon acknowledging the reminder, the UI device may display a checklist, generated by the supervisor module, relating to the work item.

The checklist may remind the welder that she needs to bring with her safety equipment e. The checklist may also specify certain tasks to be performed before moving to the target equipment. As the welder verifies e. Sensing that the welder has exited the equipment room, the UI device switches into a map or guidance mode and displays information about the location of the welder within the process plant, as well as information that guides the welder to the target equipment the furnace, in this case.

When the UI device senses that the welder has arrived at the furnace, the UI device automatically displays procedures relevant to the work item task which may be provided by the supervisor module, for example. For example, the UI device may first display for the welder the safety procedures and information necessary to make sure that the work item task can be performed safely, such as displaying information about what material the fuel pipe to be welded to the furnace normally carries, what material was the last material flowing through the pipe, whether the pipe has been drained, whether the pipe is currently in service, and whether any residual material is detectable in the pipe.

The welder may then perform the welding procedure, following instructions or other guidance if provided by the UI device, before releasing any lockouts and indicating the supervisor module, via the UI device, that the procedure is complete, after which the supervisor module may automatically create a work item to have a second person check the weld before returning the plant or portion of the plant to service.

These examples are illustrative of some of the advantages of the systems, apparatus, and methods described throughout the rest of this specification. It is contemplated that the presently described concepts are integrated with systems already implemented in the process control plant.

That is, in embodiments, implementation of these concepts do not require an entirely new process control system and, instead, may be integrated seamlessly with existing software and hardware elements in the plant. In certain embodiments, the disclosed UI devices, servers, and routines may be implemented in a process control network supporting a big data infrastructure i. A big data network may support large scale data mining and data analytics of process data.

A big data network may include a big data appliance e. For example, the unitary, logical data storage area may store time-stamped configuration data, continuous data, event data, plant data, data indicative of a user action, network management data, and data provided by or to systems external to the process control system or plant. The data collected by the big data network may, for instance, be data logs that track personnel and inputs received from those personnel. Such data can be helpful for improving plant operation and efficiency.

For example, the log data may be mined and analyzed by the expert system to provide valuable insight into operator inputs in various situations. In any event, such data is required in many instances for regulatory purposes.

As generally known, multiple indeed many storage devices of a first size or various first sizes may be communicatively coupled to form a storage area of a second, larger size. Generally, the big data appliance is configured to receive data e. As such, the process control big data appliance may include the unitary, logical data storage area for historizing or storing the data that is received from the big data nodes, a plurality of appliance data receivers for receiving the data, and a plurality of appliance request servicers, as described in U.

A process control big data system may automatically collect all data that is generated at, received by or obtained by the nodes at the rate at which the data are generated, received or obtained, and may cause the collected data to be delivered in high fidelity e.

The process control system big data system also may be able to provide sophisticated data and trending analyses for any portion of the stored data. For example, the process control big data system may be able to provide automatic data analysis across process data that, in prior art process control systems, is contained in different database silos without requiring any a priori configuration and without requiring any translation or conversion.

Based on the analyses, the process control system big data system may be able to automatically provide in-depth knowledge discovery, and may suggest changes to or additional entities for the process control system.

Additionally or alternatively, the process control system big data system may perform actions e. The process control system big data system may also enable and assist users in performing manual knowledge discovery, and in planning, configuring, operating, maintaining, and optimizing the process plant and resources associated therewith.

Though illustrated and described throughout the specification as a module separate from the big data appliance , in embodiments, the expert system may be incorporated within the big data appliance For example, expert system functionality may reside in one or more controllers 11 , in one or more process control devices 15 - 22 , etc.

Though the expert system may perform many different types of analysis, some examples are provided below. The examples are not intended to limit the scope of the functionality of the expert system , but instead to illustrate a portion of the possible functionality. In an example, the expert system monitors in real time or after collection and storage data collected and stored by the big data appliance , and performs analysis of data related to a specific alarm or alarm type.

The expert system may be programmed to analyze the process parameters, process inputs, sensor data, and any other data stored in the big data appliance to determine any common characteristics trends, values, etc.

The association may be a temporal association, but need not be concurrent with the alarm. For example, the expert system may analyze the data to determine whether a particular operator input occurs with a similar temporal relationship to the alarm.

More specifically, the expert system may determine a confluence of multiple factors that precedes, or is otherwise predictive, of the alarm condition, determining, for example, that when the temperature in a particular tank is rising, and an operator releases a particular catalyst in a specific amount into the tank, the pressure in the tank rises at a specific rate and causes the alarm condition. In another example, the expert system may be programmed to perform statistical analysis on data collected and stored by the big data appliance to determine the strength of correlations between events and process parameters.

Thus, the expert system may improve overall control, safety, quality, and output of the process by providing information to operators and other personnel that they might otherwise not know or understand.

In still another example, the expert system is programmed to make adjustments to the process operating on the process plant 10 in accordance with analysis e. The implementation of the mobile control room by way of the UI devices facilitates dispersion of control, maintenance, and other aspects of the process plant or of other, similar environments.

That is, operators are no longer tied to a workstation to maintain optimal control of the process plant and, accordingly, the lines between operators and maintenance personnel—who before typically spend time in the plant, not the control room—are blurred or removed. More personnel are available to move through the plant environment. At the same time, the big data appliance stores more complete data about every aspect of the plant environment, and the expert system provides more complete analysis of the operation and condition of the process plant.

The expert system and the big data appliance cooperate to provide information about the state of the processes operating in the plant, the state of the equipment in the plant, the location of and tasks associated with personnel in the plant, and countless other aspects related to plant management, materials management, personnel management, optimization, etc.

The supervisor engine utilizes the data and analysis provided by the expert system to manage the personnel within the process plant. Specifically, the supervisor engine may monitor trends identified by the expert system and may create work items for plant personnel.

As described above, the expert system may obtain and analyze data stored in the big data appliance and may, in some embodiments, store data in the big data appliance For example, the expert system may obtain data related to an aspect of the process control system and perform one or more analyses on the data obtained. The analyses performed by the expert system may be performed according to a preprogrammed model or, in embodiments, may be performed without a model i.

In any event, the expert system may store analytical data e. For example, the supervisor engine may receive data from the expert system indicating that a particular parameter is most closely correlated with a particular abnormal condition or with a particular optimal condition.

As yet another example, the supervisor engine may receive data from the expert system indicating that the expert system has identified a trend that indicates maintenance is needed or will be needed at a predicted time. Alternatively or additionally, the supervisor engine may receive or retrieve data from the big data appliance For example, a routine executed by the supervisor engine may relate to periodic, scheduled maintenance i.

That is, the supervisor engine may monitor a parameter of the process plant or of a device within the process plant, for example to determine how many hours the device has been in service since the most recent maintenance, or how many times the device e. This type of data may be stored in the big data appliance and retrieved by the supervisor engine The supervisor engine may include a work item manager Each work item may be a task or procedure to be completed by one or more process plant personnel.

For example, a work item may include replacing or repairing a device, taking a parameter reading, making an adjustment to a device or parameter, inspecting equipment or product, performing a calibration procedure, programming a device, or any other action that requires personnel to complete. As the work item manager generates work items, the work items may be stored in a work item list existing in a memory associated with the supervisor engine With reference to FIG.

Of course, fewer or additional fields may be included in the work item Referring again to FIG. Each of the personnel profiles contains information related to a particular operator, maintenance technician, or other plant personnel.

A work item scheduler may be stored as a set of instructions on a machine-readable medium. The instructions may be executable by a processor to perform scheduling of work items stored in the work item list The work item scheduler may schedule work items according to any of a variety of factors.

The work item scheduler may receive information from a personnel tracking routine that tracks the location of the personnel via the UI devices carried by the personnel. When the personnel tracking routine reports that a mobile operator is located proximate a target location or target equipment e.

Of course, it will be understood that one or more persons may be assigned a single work item, as certain tasks require more than one person to complete.

In embodiments, the permissions are created as tokens or entries in a database stored in a memory associated with the supervisor engine Each permission token defines the target function e. Permission tokens may be required for all work items, for some work items, for work items associated with specific equipment or equipment types, with particular target functions i.

The permission token gives specific access rights to the mobile personnel assigned to the work item, and can be revoked by the system and at any time.

In some embodiments, permission may also be dependent on external factors. For example, a permission token may specify that a mobile worker has permission to perform a target function during a particular time period, during a particular plant event e. Additionally, the supervisor engine and, specifically, the work item scheduler may schedule work items according to external factors, especially though not exclusively where the work items will result in production schedule changes or significant down time.

For example, the supervisor engine may communicate via the network backbone and the gateway 78 with systems outside of the immediate process plant to obtain data related to weather, deliveries of raw materials or other supplies, deliveries of parts, tools, or equipment required for execution of the work item, product shipping schedules, and the like.

As a non-limiting example, the work item scheduler may delay the scheduling of a work item if the work item will interfere with production and a shipment of a perishable raw material is scheduled to be received before the work item can be completed.

As another example, a particular work item in an outdoor location may require dry conditions i. A method of assigning tasks to personnel in a process plant is depicted in a flow chart in FIG. The method may include receiving data from an expert system block and creating a work item specifying a task according to the data received from the expert system block The method may also include selecting a person to execute the task specified in the work item block , sending the work item to a device associated with the selected person block , and may include receiving an indication that the selected person has accepted the work item block Receiving data from the expert system may include receiving data indicating a predicted problem in the process plant, receiving data indicating a trend associated with a process parameter, receiving a request to provide the expert system with a parameter value, receiving an instruction to perform a particular action with respect to a process control device, and the like.

Where receiving data includes receiving a request to provide a parameter value, creating the work item may include creating a work item in which the specified task is to observe and record a parameter value that is not transmitted automatically from a device that senses or otherwise receives the parameter.

Creating a work item may include, in embodiments, creating a work item in which the specified task is to perform a maintenance task, a calibration task, a replacement task, an inspection task, or a repair task.

Creating a work item may also include specifying an equipment target e. Selecting a person to execute the task may include selecting a person according to location data received from a device e. The method may also include creating and storing a permission token associated with the specified task, associated with a process control device associated with the specified task, or both. The permission token may be required in order for the selected person to perform the specified task on the process control device associated with the specified task.

Selecting a person to execute the task may also include selecting a person according to the task specified in the work item, a process control device associated with the specified task, or both, and a plurality of personnel profiles accessible by the supervisor module. The documentation may be provided automatically to mobile operators via the UI devices as the mobile operators perform tasks in the process plant or tasks associated with particular work items.

In embodiments, documents are provided to mobile operators at appropriate i. For example, personnel performing a wiring checkout function associated with a work item may be presented with a SOP for performing the wiring checkout.

As another example, personnel performing routine maintenance e. In some embodiments, relevant portions of documentation are provided to personnel at each step in the process of performing the target function.

That is, a maintenance technician my first be presented via the mobile UI device with a SOP for locking out a valve and taking the valve out of service. Later, the maintenance technician may be presented with a SOP for returning the valve to operational service and removing the lockout of the device. Of course, these examples are intended as non-limiting, as there are multitudes of situations where SOPs and manuals could be presented to personnel during performance of duties.

As a mobile operator or technician performs the target tasks associated with a work item, the supervisor engine and, specifically, a work item tracking module may track the progress of the tasks associated with the work item. In some embodiments, the supervisor engine cooperates with the mobile UI device to guide the mobile operator through each step of the process or processes required to perform the work item.

The guidance may include lockout procedures, shut-down procedures, device disassembly, device repair, maintenance steps such as calibration, lubrication, and the like, check-out and verification procedures, device re-assembly, start-up procedures, unlock procedures, and any other steps of the process. The work item tracking module may communicate with the mobile UI device and, for example, receive indications as the mobile operator requests each subsequent instruction, step, or guide.

As the work item tracking module receives the indication that each subsequent instruction, step, or guide, is requested, the work item tracking module may assume that the previous step is complete, thereby tracking the progress of the execution of the work item. In embodiments, the work item tracking module may be operative to communicate with the target equipment i. In still another embodiment, two mobile operators may be engaged in a collaborative session, and as one mobile operator completes each step of the work item presented to the technician via the mobile UI device , the second technician may mark each step complete on another UI device , sending to the work item tracking module an indication that each step is complete.

That is, two users collaborating using respective UI devices need not be viewing the same display of the information, and need not be viewing the same information at all.

As another example, the first user may be viewing on a first UI device the standard operating procedures for performing a work item, while the other user is viewing live data related to a piece of equipment associated with work item on a second UI device Upon completion of the work item, the supervisor module and, in embodiments, the work item tracking module , may mark the item complete, remove it from a list of active work items, remove or expire any permissions associated with the work item, assign another work item, notify personnel that the work item is complete, notify personnel that a dependent work item can be started i.

Turning to FIG. The method includes creating a work item specifying a task to be performed in the process plant block , determining from the specified task a set of procedures for execution of the work item block , generating for each of the procedures in the set of procedures an associated display block , and displaying on a mobile user interface device the set of associated displays sequentially in an order in which the set of procedures are to be performed block Receiving data from the expert system may include receiving an instruction to perform a particular action with respect to a process control device.

In some embodiments, a procedure context pane may be displayed indicating which procedure of the set of procedures associated with the specified task is currently being executed. The method may also include providing access to documentation related to a target piece of equipment associated with the specified task.

Further, the method may include determining a set of tools and equipment necessary to perform the set of procedures, generating a checklist display including the list of determined set of tools and equipment and displaying the checklist.

Creating w work item may include specifying a manual data collection task. Determining a set of procedures may include determining a route to collect the manual data. The supervisor engine may also store data associated with the execution of the work item. In particular, the supervisor engine may store data captured by the mobile UI device s associated with execution of the work item, may store data pertaining to the effects of the execution of the work item on the operation of the process plant e.

In embodiments, the mobile UI devices may capture video, audio, or vibration data as part of a diagnostic procedure or a repair or maintenance procedure, and the mobile UI devices may transmit the captured data back to the supervisor engine , which may store the data as associated with the particular work item and, alternatively or additionally, may store the data in the big data appliance As just one example, the supervisor engine may include a checklist generation routine The checklist generation routine may generate checklists for mobile personnel corresponding to a work item assigned to the mobile personnel.

Checklists generated by the routine may include, for example, safety equipment e. The checklist generation routine may generate the check list and store the check list as associated with the work item, in some embodiments. Alternatively, the checklist generation routine may generate and display the checklist in real time.

In either event, it is contemplated that the mobile personnel will be presented with the checklist shortly before the work item is executed. For example, the checklist may be automatically presented to a mobile operator when the mobile operator indicates that he or she is preparing to execute the work item.

In other embodiments, the checklist may be manually requested by the mobile operator as the operator is preparing to execute the work item. In some embodiments, the supervisor engine determines that the operator is preparing to execute the work item and presents the checklist to the mobile operator automatically. For example, the supervisor engine may receive an indication that the mobile operator has transferred the state of a workstation UI device to a mobile UI device at the time that the work item is scheduled to be performed.

Upon detecting the transfer of state, the supervisor engine may present the checklist, prompting the mobile operator to acknowledge that he or she has the appropriate equipment and resources to perform the work item.

Alternatively, the mobile UI device may automatically retrieve e. In still another embodiment, the mobile UI device may detect that it has entered a supply room or a preparation room, and may automatically present the checklist to the mobile operator so that the mobile operator may collect the required tools, equipment, and supplies.

Turning now to FIG. The method includes receiving a selection of a work item from a plurality of work items stored in a database of work items block , and determining from the selected work item one or more items required for the execution of the work item block A checklist is generated of the one or more items for display to a person executing the work item block , and the checklist is displayed to the person executing the work item block Reading one or more fields may include reading a field specifying a target task to be completed.

Reading a field may include reading a field specifying a target task to be completed and a target equipment or a target equipment type.

Further, determining one or more items required for execution of the work item may include determining the task to be completed, the equipment on which the task to be completed will be performed, or both.

Generating a checklist of one or more items for display to a person executing the work item may include generating a check list that includes any one or combination of a piece of safety equipment, a tool, a process control device, a part for a process control device, a maintenance material, etc. Displaying the checklist to a person executing the work item may include receiving an indication that a user assigned to execute the work item has activated a mobile user interface device and displaying the checklist to the user on the activated mobile user interface device.

Receiving a selection of a work item may include receiving the section on a first user interface device and displaying the checklist to the person executing the work item may include receiving an indication that a state of the first user interface device has been transferred to a second user interface device and displaying the checklist on the second user interface device.

The method may also include receiving, for each of the one or more items on the checklist, an indication that a person viewing the displayed checklist has the item. The mobile control room also includes a UI device a , the server , and a UI device b. The server may include a web service or web routine , which may be stored at a memory at the server and executed by a processor at the server Each of the UI devices a and b as well as any other UI devices includes a processor , a memory , a display , a network interface , an input interface , a system bus , and one or more transceivers The UI devices a , b may also include one or more positioning devices including, for example, a Global Positioning System GPS or any other satellite navigation system receiver , an inertial positioning system chip , discrete positioning components such as a compass , gyroscopes , accelerometers , etc.

It should be understood that the mobile control room described here is merely one example. Other configurations are contemplated. For example, the mobile control room need not include multiple UI devices and, indeed, need not include any particular number of UI devices. The processor is configured to fetch and execute instructions stored in the memory The memory may store data such as operating system data or program data.

The network interface may include or be coupled to one or more antennas for wireless communication, one or more ports for wired connection, or both. In some embodiments, the network interface may be coupled to the GPS receiver , allowing the network interface to receive location or coordinate data.

The network interface may also or alternatively include a Bluetooth transceiver, allowing the network interface to establish a personal area network with an external device or system. Users may interact with the UI device via the input interface The input interface may accept input via mechanical actuation e. The input interface may alternatively or additionally accept input via detection of electromagnetic fields, signals, or properties e.

Furthermore, the input interface may accept input via detection of sound, light, or motion e. Still further, the input interface may accept input from a Bluetooth device coupled to the network interface In some embodiments, one or more input sources, such as the microphone , the image sensor or camera , or other sensors e.

Savio User Guide - Research IT

Firmware and utility to flash Seagate Savio SAS hard disks. Firmware and utility to flash Seagate Savio SAS hard disks: 10K3, 10K5, 15K5. The update procedure under LINUX, is described in "Seagate Savvio SAS hard disks firmware update_easycars24.pl". This manual describes Seagate Technology®LLC, Savvio®15K.2 SAS (Serial Attached SCSI) disc drives. Savvio drives support the SAS Protocol specifications to the extent described in this manual. The SAS Inter- face Manual (part number ) describes the general SAS characteristics of this and other Seagate SAS easycars24.pl Size: 1MB.  You are here Savio is purpose-built for tracking feedback, which means: You don't leave your support tool to track feedback; No digging through rows or cards to upvote the right feature; Feedback is automatically saved with the customer and account; See a note in your support ticket that links to tracked feedback in Savio (if it's been tracked). The CGRL hardware consists of the Vector cluster (a cluster separate from Savio) and the Rosalind condo within Savio. Vector and Rosalind are heterogeneous, with a mix of several different types of nodes. Please be aware of these various hardware configurations, along with their associated scheduler configurations, when specifying options for. Savio Winder is a data management system, a very modern and important tool, relieving mill operators of time-consuming routine work. Thanks to data analytics, a wealth of data are available, allowing to manage the different production phases in the best possible way and to monitor all significant parameters anytime and anywhere, making use of mobile devices. PI series is a lightweight, portable data terminal (PDT) for data capture and collection. This manual will help you to get to know PI series and utilize it well. Features ■ Scratch -resistant keypad Coated with PC (p olycarbonate), the letters and numbers on the keys won ’t wear off between uses. 

Savio Istituto Biochimico Nazionale Cookies policy - Web Privacy Policy

android pda 3505 data terminal

A cookie is a small text file that a website saves on your computer or mobile device when you visit the site. Also, some videos embedded in our pages use a cookie to anonymously gather statistics on how you got there and what videos you visited. Enabling these cookies is not strictly necessary for the website to work but it will provide you with a better browsing experience. You can delete or block these cookies, but if you do that some features of this site may not work as intended.

The cookie-related information is not used to identify you personally and the pattern data is fully under our control. These cookies are not used for any purpose other than those described here. You can delete all cookies that are already on your computer and you can set most browsers to prevent them from being placed.

If you do this, however, you may have to manually adjust some preferences every time you visit a site and some services and functionalities may not work. Scorri in basso. Cookies policy - Web Privacy Policy. What are cookies? How do we use cookies? Industrial android rugged PDA data terminal barcode scanner pda with built in pos printer Ready to Ship. Go to Page Go. About products and suppliers: Buy android pda data terminal.

Shop the huge catalog of products at affordable prices. Before there were smartphones, there were personal digital assistants or android pda data terminal. The term refers to any small handheld device that has the capabilities of storage and its retrieval.

Most have a keypad, while some have a pad for writing out data. There are several types of android pda data terminal. They include the palm devices that run on Palm OS and have a huge library of applications. They also include the Windows mobile devices, usually referred to as the pocket PCs, that have features like Microsoft Office apps and other Windows apps. The smartphone type includes the traditional device with added cell phone features and cell phones with additional features.

Most modern android pda data terminal. They are used for storing medical information such as treatment details and drug databases. Patients can use them as well for recording their symptoms and relaying them to the hospital.

Designed to comply with the proposed IEEE It's ideal for operations requiring high levels of data throughput. This fast, interference-free wireless solution features a high-performance cellular design for reliable throughput while providing long-range operation and data security.

It was engineered for high durability and offers a broad variety of options such as a choice of displays,communications, keypads and bar code scanning.

The PDT offers the flexibility to meet your needs today with the performance and durability you can count on. The PDT is lightweight and offers a choice between 4 or 8-line by 20 character displays.

You can choose the optional integrated bar-code scanning capability and between 46 or 35 alphanumeric or 21 numeric keypad configurations. The bit DOS, lightweight unit offers a choice of 4- or 8-line by 20 character displays. You can also choose between 35 or 46 alphanumeric or 21 numeric keypad configurations and optional integrated linear one-dimensional bar code scanning capability. Skip to main content.

Portable data terminal - Wikipedia

The PDT offers the flexibility to meet your needs today with the performance and durability you can count on. The PDT is lightweight and offers a choice between 4 or 8-line by 20 character displays. You can choose the optional integrated bar-code scanning capability and between 46 or 35 alphanumeric or 21 numeric keypad configurations.

The bit DOS, lightweight unit offers a choice of 4- or 8-line by 20 character displays. You can also choose between 35 or 46 alphanumeric or 21 numeric keypad configurations and optional integrated linear one-dimensional bar code scanning capability.

Skip to main content. Search form Search. Symbol PDT Category: Data Collection Terminals. Series: Spectrum24 1Mbps Integration all functions in industry,in addition,clients can select some of the function for their own project. We can customization request for our client,even hardware and software customization. Supplier Types. Product Types. Ready to Ship. Home pda android pda data terminal. Contact Supplier. Portable android pda data terminal barcode scanner with 1D or 2D handheld data collection devices 4G rugged pda Ready to Ship.

CN Hspos Technology Co. Industrial android rugged PDA data terminal barcode scanner pda with built in pos printer Ready to Ship. Go to Page Go. About products and suppliers: Buy android pda data terminal. Shop the huge catalog of products at affordable prices. Before there were smartphones, there were personal digital assistants or android pda data terminal. Accordingly, the user can connect to the desired destination even if he moves outside the wireless LAN area, making the calling network transparent to the user whose only concern is that guaranteed communications are provided.

It is further desired to allow individual portable terminals to network with one another. In particular a protocol specific to the network of mobile hosts is required taking into account the mobility of the hosts and the limited transmission range. A source host finds a route to a target host via intermediate hosts by broadcasting a query packet which records its route to the target host.

The request pack carries a request identifier so that intermediate hosts ignore all but the first copy of the request packet. The total number of steps is limited. As a result the shortest path can generally be found with a minimum of communication overhead. Although the routes are discovered this way, the route may also be maintained and problems can arise where one of the intermediate hosts in the selected route moves out of transmission range.

To overcome this route maintenance is carried out using a hop-by-hop acknowledgement system such that if there is a transmission problem this is reported back to the original sender and the route discovery system recommenced. It is also desirable, in a mobile computer network, to ensure that the current location of the mobile terminal is known, not least for the reasons discussed above in relation to message routing. One method of doing this is to ensure that the current location of each mobile terminal is periodically communicated to a network centre.

As a result a dynamically updated map of the location of all of the mobile terminals can be maintained which can be further used to determine routing of messages. Similar systems are known, for example, in relation to cellular telephone networks and systems. A suitable system is disclosed, for example, in U. When movement is detected a controller activates relevant circuitry. For example where the terminal is sensed to be in a first positional orientation a first function can be performed whereas when it is sensed to be in a second positional orientation a second function is performed.

It will be seen that this capability can be incorporated in the terminals of the present invention. For example it can be used to activate the terminal and deactivate it when it is removed and reinserted into the cradle. Yet another preferred variant of the invention is shown in FIG. In this case the terminal [] 10 is an ultra thin client relying on the cradle for the majority of the computing and processing burden.

In fact the terminal 10 can be represented by two basic components, a notepad facility and a wireless communications component The exact details of these components are not shown in detail as they will be well known to the skilled man. Effectively the notepad facility allows the input of data to the terminal and display of relevant information at the terminal. The wireless communications component communicates with a corresponding component in the cradle As a result raw data input to the terminal 10 is transmitted straight to the cradle 12 without the need for processing other than for communications reasons in the terminal, leading to a concomitant reduction in the processing and memory capabilities and thus power consumption of the terminal Instead the bulk of the computing capability is held at the cradle, including a data processor incorporating memory space as appropriate, additional memory space in the form of for example disks, a printer peripheral , and ethernet communications capabilities allowing the cradle to form part of a larger wireless network connected, for example, to a host itself part of an Intranet or having access to the Internet.

In effect, therefore, the portable terminal 10 is no more than a display for a computer held in the cradle, communications being carried out via the wireless communications link using for example RF or infrared protocols or any other suitable link. Rather than communicating directly with the cradle the terminal can communicate with one or more nearest access points, each themselves communicating with the cradle, allowing a greater range for the terminal.

Such a system is particularly useful, for example, for dealers at a stock exchange or comparable implementations. When the terminal is not required it can be returned to the cradle for downloading of any further information that is required, for updating of its internal applications by the cradle and for battery recharging.

As a result a useful, lightweight and highly mobile terminal is provided with the background applications expected from a full scale personal computer or equivalent. As a result the user may use the unit for entertainment as well as computer-related tasks.

Such a terminal is shown in FIG. The terminal includes a display [] which is adapted not only for presentation of text and icons, but also video images.

The terminal then further incorporates a keyboard, for example a full alphanumeric keyboard allowing operation of the terminal either as a personal digital assistant or, in conjunction with a wireless link, as a low level personal computer.

As a result a portable computer is provided which makes additional use of its display functions by allowing a T. In effect, the client, apart from basic processing displaying communication facilities, carries browser software allowing the user, via the wireless link to the cradle, to browse the Internet for relevant applications and information. As dedicated software and applications are not required on the terminal itself the storage and processing requirements are correspondingly reduced.

An icon-based display can be incorporated on the terminal allowing user-friendly access to the Internet or Internet access as one of various possible options on a selection menu. Such a system can, for example, be implemented using as a basis the computer language Java a trade mark and supporting software available from Sun Microsystems a trade mark. Introduction of such browsers allows the user to access the Internet via the Intranet for downloading of applications and information together with corresponding broadcasting of information.

In addition to browsing services the system can support mail services, administration services and so forth as is well known. Applications are developed more quickly because of the level of use to which they are subjected and hence testing. Because applications are stored at the server, administration can be centralised and users can obtain the most recent update consistently across the system.

Such a system is shown schematically in FIG. The user [] carries a portable terminal 10 , preferably having laser scanning and pen-based data capabilities as discussed above. The terminal is rechargeable at a cradle 12 mounted in the user's vehicle and can also download information.

In the embodiment shown the cradle is installed on the dashboard although it can also be installed on the seat or floor. The cradle [] 12 is connected to the vehicle battery or if required an auxiliary power supply. This connection provides the basic power from the vehicle to the terminal for battery charging and communications functions. Battery charging begins automatically when the terminal is inserted into the cradle. The cradle preferably carries a display indicating when the battery is being charged, and when the battery is fully charged, and a cut-off facility is included such that power is no longer drawn from the vehicle once the battery is fully charged.

The terminal can of course use modular battery packs allowing a first battery pack to be in use while a second battery pack is being charged. The cradle incorporates or cooperates with a vehicle mounted wireless wide area network modem allowing transmission to and from an access point [] , itself communicating with a host As a result, via the host, two-way wireless data transmission is achieved between remote operation sensors and mobile field personnel. For example, pick up and delivery times, work orders, activity reports, transaction records and all other relevant information can be communicated between the user and the host quickly and efficiently.

In particular the user can input information to the terminal 10 via the keyboard or via a scanner or pen reader or other suitable input interface and await downloading information each time the terminal 10 is placed in the cradle Alternatively the terminal 10 can communicate via a wireless link with the cradle 12 for instantaneous data transmission at an appropriate level.

A server terminal of this type is described in more detail in co-pending U. In such an implementation, the cradle 12 is provided in the vehicle as shown in FIG.

Accordingly, the delivery company can set up an additional facility to attract and satisfy customers, giving instantaneous information, via the Internet, on the status of any delivery. The detailed implementation of this can be carried out in various ways. For example the sender of the package can access the delivery company's website and then trace the progress of the particular package of interest using, for example, a code number assigned at the time of ordering the delivery.

At the same time the progress of the package can be logged by the user, or delivery agent by entering the delivery or attempted delivery times against the code. The code can, for example, be read by a scanner provided in the terminal from the barcode provided on the package, if appropriate. Logging of the progress of the package can be improved yet further by logging transfer of the package at intermediate stages between the sender and recipient, for example, at each stage of the depot chain.

The development of a routing table is of particular importance in the general case where the exact route to be taken by the package via the depot chain is not decided at the time that delivery is ordered.

This can facilitate double checking of the progress of the package. It is preferred that the routing table features details of the ultimate delivery truck as this will be easier to trace than individual packages. Referring to FIGS. In such implementations it is desirable for the user to have both hands free for delivery of packages. The terminal includes a scanner window angled so as to point in the direction of a package held at waist height by the user.

Such a package is shown as The terminal is thus able to scan the package and any barcodes held on it with optimum ease. For simplified manipulation the terminal further includes controls and a display on an upwardly facing surface such that the user can manipulate the controls and read the display without having to remove the pendant scanner. The terminal can in addition communicate with, or interface with, the cradle 12 in the manner discussed above. As discussed above any uses can be envisaged for the terminals of the type discussed above, including warehousing and generally logistics-type arrangements.

This applies throughout the relevant areas of the market for example retail, distribution or manufacturing. Such a system will preferably incorporate a central server carrying a suitable database together with appropriate clients—for example wireless terminals of the type described above incorporating a graphical user interface to the user. The system introduces the benefits of real time operation which shortens the lead time on instructions and-provides optimum implementation of both staff and hardware, at the same time allowing checking to take place on an immediate, continuing basis.

Inventory information can be dated and processed in real time. The user will automatically know where items are stored and be able to locate them promptly. At the same time the administrative burden is decreased. All of this is achieved without costly across the board changes to the existing hardware infrastructure.

The use of an icon based user terminal means that the system can be introduced quickly and with simple training only, but the system can also be extended to more complex systems including wave planning, resource scheduling, productivity measurement and real time assessment and ordering of jobs. As the inventory is continually updated there is no down time for physical inventorying. Management, data, inventory, stock and other relevant reports can be obtained at any time again decreasing the administrative burden.

A central server can run both client-types instantaneously. In addition to wireless terminals run via some form of radio network controller, PC's or other fixed terminals can also be wired to the system either at the base station or remote.

Standard interfacing communications protocols can be incorporated together with standard network architectures to achieve a reliable, interchangeable and adaptable system preferably linked into other business systems as required. The systems are appropriate for transportation and logistics companies, warehouse facilities, public safety, retail and other appropriate organisations.

Preferably upon initiation, the cradle powers on and performs self-diagnosis to ensure proper system operation. Battery charging preferably begins automatically when the terminal is seated in the cradle and indicators such as LED's can be provided on the cradle to indicate when power is on and when charging is taking place.

Data transmission can be quickly and efficiently achieved with a host for example by modem using standard communications protocols. Master cradles can be linked to, for example, a host PC or another cradle chain. Preferably standard interfaces such as RS and RS are provided for use with a variety of portable printers and peripherals. The system can also be mounted in a vehicle where appropriate, for transportation and courier companies, utilities, public safety organisations, field sales and service and other appropriate operations.

The cradle includes the capability for in vehicle battery charging in two-way wireless communication. It can be installed for example on the dashboard, seat or floor of the vehicle and can take power from the vehicle battery. The system can allow two-way wireless data transmission between remote operation centres and mobile field personnel, allowing rapid transmission of pick-ups and deliveries, work orders, activity reports and transaction records. In either case it will be seen that the provision of an ultra-thin client reduces the weight and power requirements of the hand-held terminal making it yet more suitable for the portable uses envisaged.

Many of the components forming the detailed embodiments discussed above, are individually known to the skilled person and do not require detailed discussion here. In many cases it is desirable to remove previous operating system based terminals using, for example, DOS and move instead to, for example, HTML hypertext mark-up language.

Referring to FIG. The hardware model presents the major subsystems. The software model describes how the radio and HTML software coexist. The digital portion of the design is fairly simple. It also has an onchip code cache and extensive facilities for low power operation.

There is a single KB flash memory chip [] containing compressed object code. When the unit starts up the code is decompressed into the DRAM and executed from there. The KB should contain about KB of 86 object code. This code contains the radio firmware, setup routines, and sufficient Web Client code to download the actual runtime code from a server. This will be capable of low power and self refresh. The scanner interface [] will be, for example, the pre-programmed used on the currently available SE decoder board.

The decoder board itself will not be used, just the components from it. The will communicate with it via its integrated serial port. A scanner , for example the SE, is also incorporated. There are two options for LCD support.

The keyboard [] is just basic switches. Debouncing is done by the processor The entire system runs off a single 5 volt supply. The radio [] requires 5 volts and so does the processor This costs some power but eliminates the need for a separate 3. On the other side is the radio module attached directly to the motherboard and the rest of the parts. The scanner also mounts on it. The goal is to eliminate all the flex cables, further reducing costs.

The software on the design shown in FIG. There are tasks for handling the user interface, Crux or Cetus , sending and receiving, and roaming. They communicate via shared variables and message passing. There is an idle task that is the lowest priority task and it may be preempted. This task forms the basis for a single, polled loop structure in which the protocol stack and HTML runtime exists.

It performs a series of tests which may result in some processing taking place. Interrupts are generally enabled at all times. The structure is shown in FIG. It should be noted that the tasks may be quite complex. For example the test may be whether a packet has been received on the RF interface. If one has been, the packet is passed to a network protocol stack that processes it. This software model has been used successfully on known systems for pagers and modems, for example the Symbol Technologies Spectrum [] 24 pager and Modem.

Accordingly further detail is not required here. The HTML runtime code has been designed to fit into this single task, polling model. Known cradles have various basic requirements: []. Full hardware signal compatibility at the connect between the cradle and the host such that the host does not require modification, and full hardware signal compatibility with a serial port present on the terminal.

Low insertion force connection between the terminal and cradle allowing frequent and preferably unlimited removal and re-insertion. Full hardware register compatibility within the terminal with existing communication software, for example IBM PC compatible communications software. Two access modes must be supported, single access mode and multiple access mode. In multiple access mode, all terminals are granted receive access to the host serial port but the right to transmit is granted to only one terminal at a time.

Both modes should support standard application software without modification despite the occurrence of multiplexing. It is proposed to use IrDA Infrared Data Association compatible optics for the zero insertion force interface to allow use of the terminal with readily available non-dedicated IrDA compliant peripherals and host computers.

Solutions to the various points are discussed below. Solution 1 []. Each terminal comprises two pairs of optics two transmitters and two receivers as does each cradle. Accordingly two full duplex datapaths are provided.

Each cradle contains a microprocessor plus two pairs of optics per slot for receiving a terminal. In this four slots design, a single microprocessor handles all four slots. The data interface is gated between the optics and the RS by the cradle. The control and status information is communicated over the auxiliary optical channel. Within the terminal itself, control, status, and bus information are used to produce the effects of single or multiple access mode as required.

Multiple 4 slot cradles could be chained together up to 4 physical cradles, for 16 slots. Since few, if any, IBM PC-compatible serial communications program use either set of BIOS services instead of going directly to the hardware , communications via the cradle cannot support standard communications applications.

Since this is also true of the physical serial port this is not a particular hardship. A single slot version of these cradles has all the same functionality of the 4 slot versions except it does not support chaining.

Since only one slot is present and the chaining logic is not required, the hardware design is somewhat simpler. The two optical channels are handled identically, however, and the terminal BIOS code is the same. An alternative single slot configuration is simplified and does not include chainability or an optical interface.

In order to meet all of the common requirements for cradles especially chaining , a method for synchronising access to the cradle bus from multiple hand-held computers, without a processor in each cradle, is required. The third pair a transmitter in the cradle and a receiver in the terminal is required to allow the Carrier Sense and Collision Detection. This feature allows a chain of cradles to be placed at the end farthest from the host of a different free cradle chain.

Since no direct data channel is available since there is only a single data channel , data, control, and status information must travel on the same channel. The emulation is done using support hardware in the terminal ASIC interface and control. Using an open system based on the processor, intended to run protected mode software such as DOS extenders and Windows trade mark , the potential number of interactions with the cradle support software is effectively infinite.

In a further cradle approach a modular phone jack style of connector is used to attach a serial adapter cable to attach to the cradle. The cradle, however, simply passes the signals through to the cradle serial port connector.

As a further development is it proposed to make full use of IrDA capability, in particular using IrDA for wireless communication and using the same IrDA optics as the cradle interface to avoid to unnecessary duplication of hardware. The multiplexing could be relatively simple i. Adding a processor to each cradle may still be more efficient than putting different sets of optics on each hand-held computer. Since the IrDA optics are half duplex, they cannot easily be used in central constant cradle schemes.

In the cradle, since these protocol layers must be converted into RS, a processor is mandatory. Alternately, to avoid the software interactions that the emulation approach experienced, it is possible to add another microprocessor such as an to the hand-held computer itself.

This approach would eliminate any possible software incompatibilities. It is further desired to develop a subsystem for use in a terminal that complies both with external standard such as IrDA and any dedicated internally determined standards.

IrDA is open systems standard. Supporting the combination technologies provides optimal connectivity and flexibility. IrDA provides fairly high bandwidth The internal standard provides a lower bandwidth By providing a single integrated solution that supports the two technologies and allows them to be used interchangeably, the system should maximize the potential for wireless connectivity.

Where the system uses the internal standard technology the cradle communicates with a printer via a RS C interface. The multiplexer communicates via IrDA drivers with the IrDA optics and via an internal standard specific unit with an antenna The terminal as a whole is designated The microprocessor communicates with a multiplexer directly and via a UART The multiplexer also communicates with an antenna via an internal standard unit Referring now to FIG.

The microprocessor communicates with an arbitration unit directly and via a UART The arbitration unit arbitrates between the communication to the next cradle away from the host and communication to the host or the next cradle towards the host. The arbitration unit in either case communicates with a dedicated RS C connector a, b via a dedicated RS driver a, b.

The microprocessor also communicates with a multiplexer directly or via a UART The multiplexer allows communication with an antenna via an internal standard unit The cradle is shown generally at Many client devices are configured to receive an adapter card allowing them to perform network access.

The components of such devices and adapter cards are well known to the skilled person and will not be described in detail here. In known systems such as that shown in FIG. For small, low cost Client Devices, the secondary storage needed to hold these Software Components may be large compared to the total secondary storage capacity of the device. Finally, the processing power required to execute these Software Components may be large compared to the total processing power of the device.

Since many of these Software Components may need to be Client Device-specific, configuration and deployment of Network File Access on various Client Devices may be difficult. Additionally, the secondary storage required to hold the required Software Components may require the use of a second PCMCIA slot, which may not be practical or desirable depending on the capabilities of the Client Device.

Finally, the configuration and maintenance of a network can be very difficult and time consuming. The invention as shown in FIGS. This is basically the same design as the existing Adapter Card.

The fundamental difference in the proposed solution is the software running on Processor [] The software necessary to emulate an IDE disk drive is present to provide the interface to the Client Device.

A mechanism must be provided for specifying these parameters. A mechanism is provided to specify this information. Since the hardware implementation contains Flash Memory , this is the obvious place to store these varying types of data.

One method is to use a portion of the Flash memory to emulate a disk in the same manner used by a normal ATA Flash Card. INI, etc. All of these files are located in the root directory or in subdirectories of the ATA drive, and all are physically stored in the Flash memory of the File Access Card The simplest way to do this is to treat each File System mounted via the NFS Client as a subdirectory in the emulated drive.

By limiting the File System names to 8 characters, the name of the File System can also be the name of the subdirectory off the root of the emulated ATA drive that is used to access that File System. When accesses are made to the sectors containing the directory information for a File System, the ATA [] controller must obtain the current directory information from the File System via the corresponding NFS Client , construct the directory sectors accordingly, and make them available to the Client Device via the ATA interface When accesses are made to the data sectors referenced by the directory sectors, the ATA Controller must obtain the data for the accessed files via the NFS Client , create the data sectors, and make them available to the Client Device.

If the File Access Card [] has sufficient Flash memory , it may make sense to cache sectors of directory or data so that frequent accesses by the Client Device execute faster. This must be balanced carefully to trade off quick access with accurate data. Since the files on the mounted File system may be accessible by other Clients, they are not guaranteed to remain valid once they have been cached in the File Access Card Adjustments to allow the Client Device to control the behaviour of the caching logic would be necessary.

This information can be stored in a configuration file along with the other parameterization information.

Security issues may arise due to the need to store log on names, passwords, etc. As this information now travels with the card and, being portable, may represent a security breach, it is possible to use various encryption techniques to secure the configuration files from unauthorized browsing. The File Access Card needs to make a temporary, unencrypted copy of this file for the use of the Protocol Stack s and NFS Client s whilst it is starting up.

Once it is running, this temporary copy can be removed. So long as this temporary copy is not accessible to the Client Device it does not represent a security breach. Data integrity issues may arise due to the need to power cycle the File Access Card [] when used in portable Client Devices. Additionally, any time the card is removed from the Client Device, it loses power.

The design of the ATA controller must ensure that a write is completed fully or not at all. This is a standard design constraint of Flash memory-based ATA controllers. The File Access Card must take this precaution one step further. A write cannot be considered complete until it has been successfully propagated to the File Server.

Any local caching performed within the File Access Card must synchronize with this all-or-nothing write behaviour. This may take a significant length of time and-access to the card may need to be delayed until this processing is complete. Furthermore, when accesses to card data require NFS activity to get the data, individual accesses may be quite slow. The same mechanisms described previously can be applied to hold off the Client Device until data is available. Since the File Access Card [] must contain essentially the same hardware and firmware as a standard Adapter Card, it could also be designed to operate as such an Adapter Card.

This would allow the card to be used as either a File Access Card or a standard Adapter Card interchangeably although not at the same time. It is also possible to create a custom communication layer between the Client Device and the File Access Card [] that replaces the standard network layers that would normally be present on the Client Device.

The application interface to the network can be reimplemented to use this custom communication layer, instead of talking directly to the Protocol Stack s The end result is that Client Device applications can utilize network services without actual Protocol Stacks executing on the Client Device.

Suitable application interfaces will be well known to the skilled person and are not described further here. Using the above approach it is then possible to permit direct access to network services e. The above described arrangement gives rise to a number of advantages in applications.

Once a card has been configured for use with a given set of protocol stacks, NFS Clients and File systems it can be freely moved from Client Device to Client Device with no change in configuration required. Because no protocol stacks or NFS Clients need to be present on the Client Device reduced memory and secondary storage requirements for Client Devices are achieved, allowing yet thinner clients.

Since all software components required to support file server access are present on the same card, many client devices may avoid the use of additional PCMCIA storage cards. This may allow Client Devices with only a single available slot to access file server files successfully. According to another aspect there is provided an embedded storage device for use in an embedded PC-based system allowing a single standard storage solution supporting directly executable storage e.

BIOS and secondary storage e. Hereafter the embedded storage device is simply called the Device and the embedded PC-based computing system is simply called the System.

As shown in FIGS. A mobile device which can be any suitable mobile device such as a terminal of the type discussed above, personal digital assistant, digital camera and so forth including a card interface port , for example a PCMCIA or compact flash slot receives a card at the interface.

Firmware and utility to flash Seagate Savio SAS hard disks — Bull On-line Support Portal

Designed to comply with the proposed IEEE It's ideal for operations requiring high levels of data throughput.

This fast, interference-free wireless solution features a high-performance cellular design for reliable throughput while providing long-range operation and data security. It was engineered for high durability and offers a broad variety Savio portable data terminal firmware options such as a choice of displays,communications, keypads and bar code scanning. The PDT offers the flexibility to meet your needs today with the performance and durability you can count on.

The PDT is lightweight and offers a choice between 4 or 8-line by 20 character displays. You can choose the optional integrated bar-code scanning capability and between 46 or 35 alphanumeric or 21 numeric keypad configurations. The bit DOS, lightweight unit offers a choice of 4- or 8-line by 20 character displays. You can also choose between 35 or 46 alphanumeric or 21 numeric keypad configurations and optional integrated linear one-dimensional bar code scanning capability.

Skip to Savio portable data terminal firmware content. Search form Search. Symbol PDT Category: Data Collection Terminals.

Series: Spectrum24 1Mbps Reference: Specsheet. Quick Reference. Reference Guide. Name: Symbol. Full name: Symbol Technologies. New name: Motorola.

Address: One Motorola Plaza. Holtsville, NY Phone: Support phone: Spence, Inc. Ruggedized, Sealed Key Membrane Keypad. Symbol AP Portable Terminal Batteries. Battery for Symbol PDT Symbol SB Symbol PCK

Data Collection Terminals | Cybarcode

In addition the overheads on the system are very high—updating of the computer is costly and must be done Savio portable data terminal firmware an individual basis, and based on added peripherals or software that will carry a considerable cost burden. Industrial android rugged PDA data terminal barcode scanner pda with built in pos printer. A system as claimed in claim 1 in which the mount further includes computer peripherals. It is possible to detect the capabilities and configuration of the Device. This tendency to increased, internal capacity and capability leads to a greater risk of defect or error and the attendant disadvantages.