Proposed Work Sample Clauses

Proposed Work. Describe work to be performed, the estimated hours of work, and a list of deliverables to be prepared. Please submit proposal to [County Task PM Name, Title, Email, Phone] on or before [Due Date, Time]. If you have any questions or need additional information, please contact the County Task PM listed above, or [Alternate County Person Name, Title, Email, Phone]. [Name] [Title] Attachments:
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Proposed Work. The objectives and scope of initial borehole drilling and testing at Ignace is briefly summarized as follows, with details provided in the individual Test Plans for each work package.
Proposed Work. This section shall include a summary of work proposed as a rolling three (3) month forecast for the next reporting period, by a certain date, and by whom.
Proposed Work. State authorizes Tenant to conduct the following Proposed Work on the Property: Installation of four (4) steel pilings. Tenant’s Proposed Work is considered Work and subject to the terms and conditions of this Lease. If the Proposed Work is not commenced within five years of the Commencement Date of the Lease, or if Tenant is required to renew, extend, modify, or obtain a new regulatory permit for the Proposed Work, Tenant shall obtain State’s prior written consent before conducting the Proposed Work pursuant to Section 7.3 of the Lease.
Proposed Work. The intent of the project is to provide the City of Xxxxxx with a “Toolbox” of maintenance and evaluation methods for sewer rehabilitation, evaluation, and/or eliminating groundwater inflow and infiltration in to the City’s collection system. The services shall include but not be limited to cleaning, CCTV Inspection, and annual evaluation and analysis of the sewer system for future rehab planning. The City may also use smoke testing and manhole inspections for further evaluation of the system. Rehabilitation tools may include CIPP, manhole rehabilitation by cementitious coating, chemical injection grouting, Cured-In-Place-Manhole (CIPM) liners or a combination thereof. Other rehabilitation services may include chemical grouting of pipe joints and lateral connections. It is the City’s intent to issue an annual purchase order based on the unit prices in this contract for approximately $200,000.00 to $300,000.00, pending yearly budget approval by the City Council. The City will provide a written scope of work for each individual purchase order. Each scope issued may not include all the items listed in this bid. The City does anticipate cleaning, CCTV inspections, and CIPP work to be a service requested each year. Services shall also include data reports in Access and/or Excel format, that shall allow the City to parse the data provided by the Contractor/Bidder by diameter, type pipe, type and severity of defect, priority of completion, etc. Said report(s) shall also include pertinent information regarding the project, a detailed analysis per line segment of CCTV inspection done that includes severity ratings, likelihood of failure, and indices for both structural and operation and maintenance severity ratings. It must include a summary of all totals noted on the CCTV project, including active and defective taps, likely point repairs, manholes that should be raised to grade, etc. with a budgetary format with estimated unit prices included. It should be further noted that said analysis and reports shall be the basis for future rehabilitation work on the sanitary system and are a critical component of the Contractor’s successful bid. All reports and deliverables (at project end), shall be per NASSCO PACP codes and standards.
Proposed Work. The key elements of the work to be undertaken are: · Arrange access to data & documentation · Securely archive raw data · Conduct linkage quality control work · Anonymise the data set (remove personal identifiers, sensitive variables and replace NPD pupil IDs with a new unique ALSPAC ID) · Reformat the data to ALSPAC standards to ensure compatibility with our phenotypic data. · Publish ‘built’ files of the data within the ALSPAC resource Access and matching arrangements have been agreed as follows: · Confirmation from the Department (BIS) that there is an ILR-NPD-HESA matched dataset; · NPD and Dissemination Unit (Data Services Group) has advised us that the NPD-HESA matched dataset can be shared with ALSPAC under existing contractual arrangements with the Department for Education (DfE); · NPD and Dissemination Unit (Data Services Group) has confirmed that the ILR-NPD matched dataset can be shared with ALSPAC once the contract with BIS has been confirmed. Table 1 details the 5 elements of data linking included in the contract and the associated timings. Table 1 – Element of data linking and timing 2007 - 2008 Available now Oldest cohort – Year 12 ILR/KS5: 30/03/2011 2008 - 2009 Available now Oldest cohort – Year 13 Middle cohort – Year 12 ILR/KS5: 30/04/2011 2009 - 2010 April 2011 Middle cohort – Year 13 Youngest Cohort – Year 12 August 2011 Oldest cohort – 1st Year of HE ILR/KS5: 31/12/2011 HE: 31/12/2011 2010 - 2011 April 2012 Oldest cohort – N/A Middle cohort – N/A Youngest Cohort – Year 13 August 2012 Oldest cohort – 2nd Year of HE Middle cohort – 1st Year of HE ILR/KS5: 31/08/2012 HE: 31/12/2012
Proposed Work. This section describes the proposed work and its working. The nodes are randomly deployed in the sensing field and can interact with each other within their communication range. The nodes are static and sense the sensing field in a TDMA manner. The nodes are homogeneous and clusters are formed. The cluster has Cluster Head (CH) and all other intermediate nodes. All the nodes in the cluster will communicate with the CH and send their data promptly. During the transmission of data, the intermediate nodes being utilized are located between the source node and the CH. To restrict the access of data by the unauthorized nodes/computers the link has been encrypted to ensure that the data should not be breached at any point of time during its movement from node to node or node to CH. The enhanced ECC encryption technique has been utilized which is made of two phases. The low-level key generation has been applied for the node to node communication within the cluster that generates less number of keys for encryption and decryption and high-level key generation is applied between CH to CN communication. The system architecture is shown in figure 2. Authors assume the network under investigation to be a WSN throughout this study. Sensor nodes in this scenario are resource-constrained sensors with similar operations and capacities. BS, on the other hand, is often presumed to be secure and honest and has been responsible for customizing the nodes before the network's installations. Moreover, each node is randomly dispersed. We believe that an intruder is either active or passive throughout this study. Both nodes and BS were fixed. The tier-1 encryption has been provided between a node to node and also node to CH. The tier-2 encryption has been enabled between CH to SN which generates more keys for better security than the tier-1. The CH selection is energy efficient to improve the overall network lifetime. The CH is selected based on the energy criteria, distance to SN, and available residual energy. Multi-hop communication is adapted for the transmission of information from a source node to CH. During the transmission, the link has been secured for restricting unauthorized access by any of third party. The following are the key goals of this paper, (1) Utilizing elliptic curve cryptographic approach and digital signatures, create a cryptography-based mechanism to encrypt information sharing across WSNs, (2) To ensure that every node in the transmission path maintains i...
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Proposed Work. Traditional crowdfunding platforms have a number of disadvantages, including: operational fees, strict laws and regulations, startups acting in bad faith, and intellectual property risks. Because of the drawbacks of traditional crowdfunding platforms, blockchain technology is a viable business choice.Crowdfunding systems based on blockchain technology have the potential to become a more acceptable source of funding for a variety of initiatives and causes. For example, blockchain smart contract solutions automate the release of funds only when milestones demonstrate that the funds will be required in the future. Fundamentally, blockchain crowdfunding systems may give vital oversight into individual campaigns while lowering the amount of trust required for investment. This project's goals would be: Improved Equity Accessibility Rather than relying on a crowdfunding site to facilitate pre-orders of impending tangible items, blockchain offers asset tokenization tools. Asset tokenization combines the benefits of blockchain technology with the ability for investors to generate equity or fractional ownership of a real asset. An entrepreneur who plans to utilize the cash to produce multiple new items, for example, can give each new investor a tiny ownership share in the company in proportion to their contribution. It has the ability to bring whole new investment opportunities to the table. Any initiative using a blockchain-based crowdfunding mechanism has a good probability of succeeding. Anyone with an internet connection may contribute to such endeavors. Cryptocurrencies, crowdfunded companies or product stakes are traded on a peer-to-peer basis. As a result, contributors would have more liquidity in their investments. It might be a good method to stimulate people's interest in the overall endeavor. It has the ability to give rise to a new type of marketplace. You can streamline operations and eliminate third parties using smart contracts, saving fundraisers money and allowing them to spend exactly the amount they intended to invest This project entails the establishment of a website that serves as an interface between the contracting parties, particularly the investing and receiving parties. Each partner will be given the option of securely logging in to a page that contains up-to-date information about their specific projects. Ethereum allows Smart Contracts to be implemented using blockchain technology. These enable for the creation of immutable and distribut...
Proposed Work. CHAOS better than traditional cryptosystem Proposed system can be explained by the Chebyshev polynomial:
Proposed Work. In Our System there are three role such as user, admin & cloud when, data are upload the file then encryption and admin encryption at content level then cloud take file and encryption at file level and generated the block of user and split file into multiple chunks and stored into block level. \\ In System there are four Roles in Application Data Provider, user, Admin, Cloud Server provider when Data Provider upload the Data in different Group while uploading the admin get the file and encryption at content level and Generated the key and that key and Data are send to Cloud server provider(CSP). When the Cloud Server Provider encryption at file level and Update the Key and Stored in different Group, When user search the Data from Cloud from different Group. When other user gets the Data from different group then reconstruction algorithm is applied on Data. • Block Generating (v, k+1, 1) :- generating a new block :- 1. for i=0;i<=k;i++ do 2. for j=0;j<=k;j++ do 3. if j==0 then 4. Bi,j=0; else 5. Bi,j=ik+j; 6. end if 7. end for
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