Technology Description. This space reserved for the System description to include the equipment provided in RFP-FS-2023-06-JP “Attachment C1” (Proposed Equipment Form) and the layout and Project approach provided in RFP-FS-2023-06-JP “Attachment B2” (Site Specific Project Approach). MINIMUM REQUIREMENTS Licensee shall meet the below minimum requirements for the design, financing, installation, and maintenance of alternative energy supply sources for electrical or thermal energy, and energy storage systems. Licensee shall include at a minimum the following components and services for Solar PV projects: Information referenced in Exhibit I. Licensee shall not include building structural retrofit costs. Licensee shall include costs associated with compliance with DSA ADA requirements including parking lot striping and location of canopies, but not include costs for Precheck DSA Canopies. Roof replacement (if required) built to the Judicial Council’s specifications and related maintenance shall be included in the Fixed Price. Security camera installation (if required) purchased and installed to the Judicial Council’s specifications shall be included in the Fixed Price. All such security camera equipment will remain the property of the Judicial Council. EXHIBIT C-2 O&M SERVICES Licensee shall complete the O&M Services described below. Standard System Repair and Maintenance. Licensee shall construct and install the System (PV, XXXX, and Microgrid) at the Facility. During the Term, Licensee will operate and perform all routine and emergency repairs to, and maintenance of, the System at its sole cost and expense, except for any repairs or maintenance resulting from Judicial Council’s negligence, willful misconduct, or breach of this Agreement. During the entire Project life it will be the responsibility of the Licensee to perform all site maintenance, including work required by equipment vendors to maintain warranties, recalibration of equipment, module washing, vegetation management, System monitoring and reporting, and the maintenance of revenue grade meter(s) for billing purposes. Licensee shall (a) have the appropriate experience and ability to operate and maintain photovoltaic solar systems and the financial capability to do same; or (b) enter into a contract with a subcontractor, pursuant to which (i) such subcontractor shall be responsible for System operation and maintenance under this Agreement and (ii) subcontractor shall administer all rights (including access rights to the Fac...
Technology Description. This section describes the general principles of operation and emissions control approach of the technology and/or clean fuel involved in the project. If applicable, discuss how the principle of operation differs from other, currently available equipment. This includes describing what the “advancement” actually is over currently available technologies.
Technology Description. The Pristine Sun Photovoltaic generating facility consists of a 647 kW (DC) / 500 kW (AC) solar farm utilizing single-axis DuraTrack tracker technology from Array Technologies and solar modules of 280 to 300 xxxxx XX each with 25-year performance warranty. The 42 trackers are spaced approximately 16 feet between rows in two blocks. Each tracker block uses one gear drive and a 1.5-3HP, 3-phase, 480V/AC motor, rotating 52 polycrystalline PV modules per row. The trackers are controlled by a state of the art network system that communicates with each tracker in the array. In high wind conditions an anemometer mounted on site will send a signal throughout the networked system which will relay a command to field lock the trackers at a 0 degree flat stow position. The vibration driven I-beam piers are double hot dipped in a special galvanization process to prevent corrosion and are easily removed at the end of the facilities life- cycle, causing minimal impact to the land. Interconnection Point: Corning Bank 3, Corning 1104 Interconnection Voltage (kV): 12kV Estimated Interconnection Commercial Operation Date: 3/2015 Quantity Model Number/Specification Description 1,800 Renesola 300W Solar Modules 384 LDK 280W Solar Modules 1 Advanced Energy AE500NX / 480 V Inverter 2 ATI DuraTrack HZ Block Tracker 1 500 kVA 12kV/480V Transformer Confidentiality Protected Under D.00-00-000, Appendix 1 and/or GO66-C 40'-0" RIGHT OF WAY OHP OHP OHP OHP OHP OHP OHP OHP OHP OHP OHP OHP OHP OHP DROP POLE X X X X X X X X X X X X X X X X X OHP OHP X X OHP OHP X X (P) X X (E) LEGEND PROPERTY LINES SETBACK LINES ELEVATION & CONTOUR LINES (N) PROPOSED 6' HIGH FENCE LINE
Technology Description. Imaging Methods and Apparatus Using Model-Based Array Signal Processing US Patent 6,130,641 This invention relates generally to the field of constructing two-dimensional or three-dimensional images or maps of surfaces and objects in a volume from signals scattered by those surfaces or objects. The invention has particular application in acoustic imaging. The invention may also be applied to radar imaging. The invention may be applied to terrain mapping, object detection, object avoidance, medical ultrasound imaging and the like. This invention provides a method for imaging a region. The region may be underwater, in air or visceral. The method begins by transmitting a pulse toward the region. The pulse may be an acoustic pulse or an electromagnetic pulse. The method continues with the step of detecting a signal scattered from the region to yield a multi-channel scattering signal at a receive transducer array comprising of a plurality of N elements or N beamformed subarrays. L snapshots are obtained, where L is an integer with L>1, by sampling the scattering signal at one or more instants after transmitting the pulse to yield a plurality of complex samples. In a processing device, which may be a programmed computer, the plurality of complex samples are processed to obtain image data comprising angles of arrival from M principal scattering components, where M is an integer, with 1<M<N-1. The case where M>2 provides particular advantages over the current state of the art. Preferably the processing is performed by: constructing a sample matrix SL,M,N from the complex samples; from the sample matrix computing a null-space vector w comprising a plurality of entries; computing a plurality of roots of a polynomial formed from the entries of the null-space vector; and, from the roots of the polynomial computing angles of arrival and amplitudes for M principal scattering components. Finally, the method stores the angles of arrival and optionally the amplitudes as image data. Licensed fields-of-use: The License Agreement, as amended, includes the Swath Bathymetry field-of-use, the 3D Sidescan field-of-use and the Mine Hunting field-of-use in underwater applications where: Swath Bathymetry is an underwater field-of-use of the Licensed Patent in which the depth of the seafloor is estimated at several points across the track of a forward moving vessel or vehicle. The across-track region is called a swath and extends directly beneath and athwartships in both the port and ...
Technology Description. The Technology subject to this agreement includes all technology brought on campus including any cellphones, smartwatches, tablets, iPads, laptops, notebook computers, Chromebooks, desktop computers, computer accessories, and related software issued by ABS for student use, owned by the students and their families and/or issued by ABS to a student. All ABS Teachers will have access to the computer lab and the technology center in the ABS Library for computer use during their class instructions. The iPads will be used by the ABS Elementary Science Department and the Elementary Additional Education Program. These iPads are to remain in the classroom and used at the discretion of the teachers. Students within the Kindergarten - 4th grade will participate in the Tablet Technology Program. Students will be allowed to use theTLS-V4 TabPilot 10’ Tablet. The teachers will use this device in the classroom for educational purposes only. Students within the 5th – 12th grade will participate in the Google Chromebook Technology Program. Students will purchase a Google Chromebook from the School. Student will maintain ownership of this device. The School will retain ownership of the Google Management Software and will monitor the device while the device is used for ABS school purposes.
Technology Description. For purposes of this project, the Dane County Jail is divided into three buildings. These are the Public Safety Building jail located at 000 Xxxx Xxxx Xxxxxx in Madison, WI. The second jail building is adjacent to the first. It is the City-County Building jail located at 000 Xxxxxx Xxxxxx Xxxx Jr. Blvd. In Madison, WI. The 3rd location is the Dane County Courthouse, located at 000 X. Xxxxxxxx Street. Each jail building has separate security control systems.
Technology Description. If all products are based on the same technology, describe it here instead of repeating the same technology description a few times.
Technology Description. A description of the technology lets investors know what they are investing in. The challenge is to keep it as short as possible, while still painting the complete picture. It should not be overly technical, but it clearly needs to describe what the technology does, what is different or new about it and why it is relevant and thus addresses an unmet user need. Novelty and radicalness As an extent of the technological description, a description of the novelty or radicalness of the innovation is important for investors before they feel confident enough to invest in the innovation. Xxxxxxx describes how new and unique the technology is, and in what way it is based on scientific findings. Radicalness indicates the compatibility with current infrastructure. A completely radical technology is not just a new technology that can potentially open up a new market, but it also disturbs the status quo and the way of doing things. Usually with completely radical innovations, new infrastructure and legislation is required, and new stakeholders will arise because of it. Completely radical technologies are very rare however, and it is not always advantageous to have a radical technology. The risks of such a technology not being successful are very high and the required time of development before it is market ready is also quite high. However, the rewards when it succeeds are very high as well. The radicalness of the technology is therefore an important factor in determining which type of investor will be willing to invest. Technological Roadmap Most likely, the majority of the time building the company will concern the technological development of the innovation. A clear overview of tasks, milestones and deliverables of this technological development is therefore very important for potential investors. A common way to map this process is though the use of Xxxxx charts. Important in such a roadmap that there is a clear overview of the different dependencies such as when task C cannot start if task A and B have not finished yet. A healthy development plan has several parallel tasks and not too many dependencies. Technological Risks Every technological development comes with risks. Having risks is not a bad thing, but having no clear overview of the possible risks or of the severity and mitigation measures of these risks is. Each risk should be described, the chance of it happening should be indicated (low, medium high) the potential effects should be described, the severity...
Technology Description. This verification statement is applicable to the XONON flameless combustion system for gas turbine applications absent the air management system. The XONON flameless combustion system is completely contained within the combustion chamber of the gas turbine. The XONON system completely combusts fuel to produce a high temperature mixture, typically about 2,400EF. Dilution air is added to shape the temperature profile required at the turbine inlet. The XONON combustor system consists of four sections: • The preburner for start-up and acceleration of the engine. The preburner tested as part of this verification was a lean, pre-mixed combustor. • The fuel injection and fuel-air mixing system. This unit injects the fuel and mixes it with the main air flow to provide a very well-mixed, uniform fuel-air mixture to the catalyst. • The XONON catalyst module, where a portion of the fuel is combusted without a flame to produce a high temperature gas. • The homogeneous combustion region, immediately downstream of the catalyst module, where the remainder of the fuel is combusted, and carbon monoxide and unburned hydrocarbons are reduced to very low levels (also a flameless combustion process). The overall combustion process in the XONON system is a partial combustion of fuel in the catalyst module followed by complete combustion downstream of the catalyst in the burnout zone. Partial combustion within the catalyst produces absolutely no NOx. Homogeneous combustion downstream of the catalyst produces only 1 to 2 ppm NOx, because combustion occurs at a uniformly low temperature. A small amount of fuel is combusted in the preburner to raise the compressed air temperature to about 880EF. This verification statement covers application of the XONON flameless combustion system to small gas turbines operated at full load when combusting natural gas.
Technology Description. For the purposes of this GVP, DECs are defined as devices made of active catalyst material (often containing precious metal) deposited on a support medium. The engine exhaust passes through the device, where the pollutants catalytically react and more environmentally acceptable reaction products are exhausted. PM filters mechanically trap PM emissions and subsequently oxidize them. Filters may also employ a catalyst for gaseous emissions control and to enhance the oxidation of the collected PM. Physically, DECs and PM filters have the general appearance of a large muffler and are placed in the engine exhaust at approximately the same location. They are therefore well- suited to retrofit applications. No external liquid or gaseous reactants are required for them to function. DECs have been reported to decrease HC and CO emissions by over 50%. They decrease PM emissions by about 20%. PM filters have been reported to decrease PM and HC emissions by 80% or more and to decrease CO at about the level achieved by exhaust catalysts. NOx emissions may be decreased slightly by exhaust catalysts. Operational issues with DECs and PM filters are primarily achieving or maintaining adequate temperature within the device to complete the reactions and functioning satisfactorily with an accumulation of catalyst poisons and/or non-combustible lubricant ash residue. Lubricant ash and wear metals can largely be removed by infrequent “blowing” with compressed air. Guidance on technique and frequency of such cleaning should be provided in the ETV application.
