Academic literature on the topic 'Cedar Park Town Center'

Russian urban planning practice is experiencing an era of global changes. The appearance of architectural and landscape objects with different types of organization of public spaces in Moscow makes it possible to talk about the transition from standard city planning to objects that have no boundaries between nature, architecture and human environment. Functionally renewed Gorky Park with Crimean Quay and Zaryadye Park represent a new type of public space where nature and technology, education and entertainment, history and modernity are combined and complement each other. New objects have a positive effect on environmental changes using the latest construction technologies, offer citizens a variety of activities and have a powerful scientific resource in working on city aesthetics and ecology. Scientists describe such town-planning objects, as “hybrid spaces”. Hybridization of urban areas encompasses different urban planning levels: from integration of architectural landscape object with border elimination by nature in the historic city center (Zaryadye Park) to formation of the newest linear park with different types of public in the contour of the water area (Gorky Park and Crimean Quay). Due to the high interest of professionals in the new city objects, hybrid spaces deserve to be thoroughly studied, as they influence not only quality of urban environment in the use of landscape architecture tools and technologies, but also issues of managing urbanization and climate change in the near future.

This research aimed to investigate the ground comfort assessment at the public open space in tourist area of Pangkajene River banks. The research methods used were the qualitative and quantitative method by filling in questionnaires, observation, interviews, and documentation. The samples were chosen using the purposive sampling technique from the users of the park. The data were analyzed using the descriptive analysis, codification, data reduction, matriculation, cross tabulation, and the evaluation system using Likert scale. The research results indicated that the park was inconvenience with the parkconvenience being 61.97%. The effect of the street vendors had caused either positive or negative impacts on the park- the positive impact was that the park had become the largest culinary center in Pangkep town so that it could attract the tourists to visit the park, while the negative impact was that the park looked less beautiful and less hygiene.
 Keywords: public open space, convenience, park, riverbanks

Supports are largely absent and tools are scarce to assist parents receiving home-based early intervention services (e.g., Early Head Start) with enriching the language learning environments of young children beyond home to the community. Talk Around Town is a wayfinding mobile application designed to provide real-time, location-specific, evidence-based communication strategies to parents in community settings (e.g., park, community center, store, library). The application uses Global Positioning System (GPS) functionality within smartphones and Google Maps to support caregiver talk in community locations. The purpose of this pilot study is to examine early childhood service providers’ and parents’ perceptions of Talk Around Town. Overall, parents and early childhood service providers’ perspectives were largely positive. Implications for future research are discussed (e.g., tailoring the application for Department of Human Services caseworkers).

Before the foundation of St. Petersburg in 1703, there had for centuries existed a developed system of rural settlements located on the flat valleys and areas along the Neva River and around the Ladoga Lake. Since 1703, under the leadership of Peter I and his followers, there was carried out a systematic creation of the capital St. Petersburg agglomeration (St. Petersburg and residential suburbs around it), which was done on the basis of purposefully introduced principles of regularity and harmony of architectural ensembles, by the methods of large-scale reconstruction of the previous irregular system of the population settlement distribution. The scale of this new agglomeration had no analogues in world town-planning practice of the XVIII century and united spaces with the total area over 200 square kilometers, which extended from the town of Sestroretsk in the North to the town of Novgorod in the South, from the town of Narva in the West to the Volkhov River in the East. The regularity and multi-center character of the central city formed according to the pattern of a mesh and cellular structure (with the dimensions of 10 km by 15 km), was supplemented with a regularity of suburban ensembles` layout and multi-kilometer rectilinear axes – roads connecting them. Some of the roads had the length of several hundred km (such as the road from Moscow to St. Petersburg built in 1706-1718, that was as long as nearly 700 km). Huge suburban forest-park and natural-landscape spaces between palace and park ensembles were united as star-patterned compositions. This historically created agglomeration is deservedly included in the List of Objects of the World Heritage, but so far it has not received a unambiguous understanding of its uniqueness and needs a considerable effort in searching new individual ways of the historical heritage preservation. On the basis of the archive records, the contribution presents an analysis of regularities of consecutive and purposeful transformation of the historical rural settlements system existing up to the foundation of St. Petersburg into the capital St. Petersburg agglomeration of regular type.

Background: This paper presents an innovative design for a school building, awarded in the concourse “Scuole innovative”, published by the italian Ministry of Education, University and Research. The new school building is located in a newly built urban area of Montemiletto (Avellino, Italy), at the south-east of the Leonessa castle and the ancient nucleus of the town. The Comprehensive Institute that includes a kindergarten, a primary school and a secondary school, is proposed as a Civic Center, an “urban place”, characterized by new spaces of relationship and aggregation. Objective: The main idea of the project design is the creation of an innovative school with respect to the architectural, structural and plant system aspects and to the energetic efficiency and characterized by the presence of new environments of learning and openness to the territory. Materials and Methods: The project proposals can be summarized in the different points: a) unit of the morphological-settlement solution and the articulation of the Civic Center, to be identified as new reference point in the city; b) adherence of the characters of the school to the landscape and visual connection with the castle; c) urban and architectural role of the system of the paths and connections, which surround and enter in the intervention area; d) extension and permeation between the natural and artificial environments assigning to the roof the task of increasing open spaces; e) accentuation of the public and multi-functional character of the different spaces, so that the school can be a place for meeting and comparison, in which it is possible to test new ways of teaching; f) use of different types of green open spaces as gardens, flowerbeds, educational vegetable gardens that change with the seasons, sporting fields, cycle-forgave routes among the green. Moreover, with respect to the structural aspects, seismic isolation at the basis of the building is proposed. This paper focuses mainly on the aspects related to energy and environmental sustainability and life cycle cost with reference to the case study design. The goal is to reduce the impact on the ecosystem, trying to make the school building organic to the existing environment. The containment of energy consumption for the air conditioning of the rooms is done through the isolation of the massive walls of the façade, covered with local stone (Irpinia breccia) and polycarbonate. Water-saving is obtained by reusing rainwater for the irrigation of vegetable gardens, vegetation and sanitary use. Results and Conclusion: The use of recycled materials and components is proposed: the Irpinia breccia covering the façade and, with different grain sizes, the external roofing and flooring; the polycarbonate; the polyester insulation; the outdoor furniture in recycled wood. In addition, dry reinforced concrete construction technologies are chosen. Definitively, the main concept is to have “a school in the park”.

This article review uses and advancements of different symbiotic arrangements in industrial ecosystem. A unique industrial park in the town of Kalundborg, Denmark is known as the Kalundborg Symbiosis. It is a community of eight companies that cooperate with each other to everyone’s benefit, because one company’s waste becomes another’s feedstock. The relationship increases efficiency and reduces waste-handling need. The result is an industrial cluster that has reduced its environmental footprint and improved the bottom line of each of the participating companies. There has been a formation of Symbiosis Center Denmark and a national task force that conducted a feasibility study to explore additional opportunities for the Symbiosis concept beyond Kalundborg. The study looked primarily at manufacturing, but it mentioned that other industries, such as food and beverage processing and construction, could also benefit from symbiotic arrangements. The advantages include greater productivity, lower costs, and reduced waste.

Indonesia has a large variety of socio-spatial patterns that have developed over centuries. These settlement patterns correspond to the social, economic and landscape conditions and are part of the deeply rooted cultural heritage of Indonesia. The cultural heritage but also outstanding natural sites are base for an increasing popularity in tourism all over the Indonesian Archipelago. One of it is the island of Flores including the Komodo National Park that has been inscribed on the UNESCO World Heritage List. The town Labuan Bajo as the entry point to the national park is facing a rapid growth number of visitors after being declared as one of the focal points in of tourist development by the Indonesian government in 2016. With the Sepuluh Bali Baru (10 New Bali) concept the ministry of tourism launched a plan that aims to replicate the economic effects of tourism in Bali nationally. This development brought a number of challenges to the region especially concerning planning matters. One of the plans to deal with the different issues is to create an independent, international and interdisciplinary research center to support the local government, stakeholders and the population of Flores. This paper will describe first studies for a project launched in cooperation of the TU Wien (Vienna University of Technology), Universitas Gadjah Mada, National University of Singapore and the University of Sydney to develop a label for a sustainable tourism for the island if Flores starting with investigations in Labuan Bajo.

Research on the biotopic distribution, abundance, and specific nesting features of the European red squirrel (Sciurus vulgaris) was carried out from October 2016 until May 2017 in the entire area of Kamianets-Podilskiy (Khmelnitskiy Oblast, Ukraine). By its construction type and tree vegetation, the following biotopes were singled out in the town area: one-storey buildings, multi-storey buildings, mixed housing types, parks, industrial area, the Smotrych river’s canyon, and gardening area. In total, 272 nests of the European red squirrel were registered, including 89 nests in parks (32.7 % of the total number of nests), 79 in the industrial area (29.0 %), 49 in the mixed housing area (18.0 %), 19 in the area of multi-storey buildings (7.0 %), 13 in the area of one-storey buildings (4.8 %), 12 in the gardening area (4.4 %), and 11 in the canyon of the Smotrych river (4.0 %). In Kamianets-Podilskiy and its surroundings, 178 178 pairs of the European red squirrel were recorded, what makes up 65.4 % of the number of registered nests. The population density (pair/km2) of the red squirrel in Kamianets-Podilskiy is 6.4 pairs/km2. The highest density was observed in the forest-park area (43.3 pairs/km2), in the canyon of the Smotrych river (10.7 pairs/km2), and in the area multi-storey buildings (9.1 pairs/km2). Squirrel nests were observed on 21 tree species, including the linden Тіlіа sp., the asp Populus sp., the chestnut Aesculus hippocastanum, the sycamore tree Acer tataricum, the field maple Асеr саmреstrе, the elm tree Ulmus laevis, the sweet cherry Prunus sp., the maple Acer negundo, the fir tree Рісеа sp., the walnut tree Juglans regia, the horn beech Саrріnus bеculus, the willow Salix alba, the acacia Robinia pseudoacacia, the ash tree Frахіnus ехсеlsіоr, the birch tree Betula sp., the poplar Populus sp., the pyramidal poplar Populus pyramidalis, the cedar Thuja occidentalis, the Norway maple Acer platanoides, the honey locust Gleditsia triacanthos, and the oak Quеrсus rоbur. Most nests were located on the pyramidal poplar (24.1 %), linden (19.7 %), and Norway maple (13.7 %), while the least number of nests was found on the fir tree (0.8 %) and chestnut (0.8 %). The European red squirrel usually arranges its nests at the height of 3.5 m to 23 m, in average 9.3 m. The specific features of location of squirrel nests depend on the tree species (the highest nests being located on the ash tree, pyramidal poplar, and the lowest nests being on the fir tree and cedar). The squirrel mostly arranges its nests at whorls usually made up of 3–4 branches (51.9 %), near the trunk (32.7 %), on the branches (13.0 %) and between trunks (2.4 %).

The Australian endemic humicolous and hygropetric water beetle genus Tympanogaster Perkins, 1979, is revised, based on the study of 7,280 specimens. The genus is redescribed, and redescriptions are provided for T. cornuta (Janssens), T. costata (Deane), T. deanei Perkins, T. macrognatha (Lea), T. novicia (Blackburn), T. obcordata (Deane), T. schizolabra (Deane), and T. subcostata (Deane). Lectotypes are designated for Ochthebius labratus Deane, 1933, and Ochthebius macrognathus Lea, 1926. Ochthebius labratus Deane, 1933, is synonymized with Ochthebius novicius Blackburn, 1896. Three new subgenera are described: Hygrotympanogaster new subgenus (type species Tympanogaster (Hygrotympanogaster) maureenae new species; Topotympanogaster new subgenus (type species Tympanogaster (Topotympanogaster) crista new species; and Plesiotympanogaster new genus (type species Tympanogaster (Plesiotympanogaster) thayerae new species. Seventy-six new species are described, and keys to the subgenera, species groups, and species are given. High resolution digital images of all primary types are presented (online version in color), and geographic distributions are mapped. Male genitalia, representative spermathecae and representative mouthparts are illustrated. Scanning electron micrographs of external morphological characters of adults and larvae are presented. Selected morphological features of the other members of the subtribe Meropathina, Meropathus Enderlein and Tympallopatrum Perkins, are illustrated and compared with those of Tympanogaster. Species of Tympanogaster are typically found in the relict rainforest patches in eastern Australia. Most species have very limited distributions, and relict rainforest patches often have more than one endemic species. The only species currently known from the arid center of Australia, T. novicia, has the widest distribution pattern, ranging into eastern rainforest patches. There is a fairly close correspondence between subgenera and microhabitat preferences. Members of Tympanogaster (s. str.) live in the splash zone, usually on stream boulders, or on bedrock stream margins. The majority of T. (Hygrotympanogaster) species live in the hygropetric zone at the margins of waterfalls, or on steep rockfaces where water is continually trickling; a few rare species have been collected from moss in Nothofagus rainforests. Species of T. (Plesiotympanogaster) have been found in both hygropetric microhabitats and in streamside moss. The exact microhabitats of T. (Topotympanogaster) are unknown, but the morphology of most species suggests non-aquatic habits; most specimens have been collected in humicolous microhabitats, by sifting rainforest debris, or were taken in flight intercept traps. Larvae of hygropetric species are often collected with adults. These larvae have tube-like, dorsally positioned, mesothoracic spiracles that allow the larvae to breathe while under a thin film of water. The key morphological differences between larvae of Tympanogaster (s. str.) and those of Tympanogaster (Hygrotympanogaster) are illustrated. New species of Tympanogaster are: T. (s. str.) aldinga (New South Wales, Dorrigo National Park, Rosewood Creek), T. (s. str.) amaroo (New South Wales, Back Creek, downstream of Moffatt Falls), T. (s. str.) ambigua (Queensland, Cairns), T. (Hygrotympanogaster) arcuata (New South Wales, Kara Creek, 13 km NEbyE of Jindabyne), T. (Hygrotympanogaster) atroargenta (Victoria, Possum Hollow falls, West branch Tarwin River, 5.6 km SSW Allambee), T. (Hygrotympanogaster) barronensis (Queensland, Barron Falls, Kuranda), T. (s. str.) bluensis (New South Wales, Blue Mountains), T. (Hygrotympanogaster) bondi (New South Wales, Bondi Heights), T. (Hygrotympanogaster) bryosa (New South Wales, New England National Park), T. (Hygrotympanogaster) buffalo (Victoria, Mount Buffalo National Park), T. (Hygrotympanogaster) canobolas (New South Wales, Mount Canobolas Park), T. (s. str.) cardwellensis (Queensland, Cardwell Range, Goddard Creek), T. (Hygrotympanogaster) cascadensis (New South Wales, Cascades Campsite, on Tuross River), T. (Hygrotympanogaster) clandestina (Victoria, Grampians National Park, Golton Gorge, 7.0 km W Dadswells Bridge), T. (Hygrotympanogaster) clypeata (Victoria, Grampians National Park, Golton Gorge, 7.0 km W Dadswells Bridge), T. (s. str.) cooloogatta (New South Wales, New England National Park, Five Day Creek), T. (Hygrotympanogaster) coopacambra (Victoria, Beehive Falls, ~2 km E of Cann Valley Highway on 'WB Line'), T. (Topotympanogaster) crista (Queensland, Mount Cleveland summit), T. (Hygrotympanogaster) cudgee (New South Wales, New England National Park, 0.8 km S of Pk. Gate), T. (s. str.) cunninghamensis (Queensland, Main Range National Park, Cunningham's Gap, Gap Creek), T. (s. str.) darlingtoni (New South Wales, Barrington Tops), T. (Hygrotympanogaster) decepta (Victoria, Mount Buffalo National Park), T. (s. str.) dingabledinga (New South Wales, Dorrigo National Park, Rosewood Creek, upstream from Coachwood Falls), T. (s. str.) dorrigoensis (New South Wales, Dorrigo National Park, Rosewood Creek, upstream from Coachwood Falls), T. (Topotympanogaster) dorsa (Queensland, Windin Falls, NW Mount Bartle-Frere), T. (Hygrotympanogaster) duobifida (Victoria, 0.25 km E Binns, Hill Junction, adjacent to Jeeralang West Road, 4.0 km S Jeerelang), T. (s. str.) eungella (Queensland, Finch Hatton Gorge), T. (Topotympanogaster) finniganensis (Queensland, Mount Finnigan summit), T. (s. str.) foveova (New South Wales, Border Ranges National Park, Brindle Creek), T. (Hygrotympanogaster) grampians (Victoria, Grampians National Park, Epacris Falls, 2.5 km WNW Halls Gap), T. (Hygrotympanogaster) gushi (New South Wales, Mount Canobolas Park), T. (s. str.) hypipamee (Queensland, Mount Hypipamee National Park, Barron River headwaters below Dinner Falls), T. (s. str.) illawarra (New South Wales, Macquarie Rivulet Falls, near Wollongong), T. (Topotympanogaster) intricata (Queensland, Mossman Bluff Track, 5–10 km W Mossman), T. (s. str.) jaechi (Queensland, Running Creek, along road between Mount Chinghee National Park and Border Ranges National Park), T. (Topotympanogaster) juga (Queensland, Mount Lewis summit), T. kuranda (Queensland, Barron Falls, Kuranda), T. (s. str.) lamingtonensis (Queensland, Lamington National Park, Lightening Creek), T. (s. str.) magarra (New South Wales, Border Ranges National Park, Brindle Creek), T. (Hygrotympanogaster) maureenae (New South Wales, Back Creek, Moffatt Falls, ca. 5 km W New England National Park boundary), T. (Hygrotympanogaster) megamorpha (Victoria, Possum Hollow falls, W br. Tarwin River, 5.6 km SSW Allambee), T. (Hygrotympanogaster) merrijig (Victoria, Merrijig), T. (s. str.) millaamillaa (Queensland, Millaa Millaa), T. modulatrix (Victoria, Talbot Creek at Thomson Valley Road, 4.25 km WSW Beardmore), T. (Topotympanogaster) monteithi (Queensland, Mount Bartle Frere), T. moondarra (New South Wales, Border Ranges National Park, Brindle Creek), T. (s. str.) mysteriosa (Queensland), T. (Hygrotympanogaster) nargun (Victoria, Deadcock Den, on Den of Nargun Creek, Mitchell River National Park), T. (Hygrotympanogaster) newtoni (Victoria, Mount Buffalo National Park), T. (s. str.) ovipennis (New South Wales, Dorrigo National Park, Rosewood Creek, upstream from Coachwood Falls), T. (s. str.) pagetae (New South Wales, Back Creek, downstream of Moffatt Falls), T. (Topotympanogaster) parallela (Queensland, Mossman Bluff Track, 5–10 km W Mossman), T. (s. str.) perpendicula (Queensland, Mossman Bluff Track, 5–10 km W Mossman), T. plana (Queensland, Cape Tribulation), T. (Hygrotympanogaster) porchi (Victoria, Tarra-Bulga National Park, Tarra Valley Road, 1.5 km SE Tarra Falls), T. (s. str.) precariosa (New South Wales, Leycester Creek, 4 km. S of Border Ranges National Park), T. (s. str.) protecta (New South Wales, Leycester Creek, 4 km. S of Border Ranges National Park), T. (Hygrotympanogaster) punctata (Victoria, Mount Buffalo National Park, Eurobin Creek), T. (s. str.) ravenshoensis (Queensland, Ravenshoe State Forest, Charmillan Creek, 12 km SE Ravenshoe), T. (s. str.) robinae (New South Wales, Back Creek, downstream of Moffatt Falls), T. (s. str.) serrata (Queensland, Natural Bridge National Park, Cave Creek), T. (Hygrotympanogaster) spicerensis (Queensland, Spicer’s Peak summit), T. (Hygrotympanogaster) storeyi (Queensland, Windsor Tableland), T. (Topotympanogaster) summa (Queensland, Mount Elliott summit), T. (Hygrotympanogaster) tabula (New South Wales, Mount Canobolas Park), T. (Hygrotympanogaster) tallawarra (New South Wales, Dorrigo National Park, Rosewood Creek, Cedar Falls), T. (s. str.) tenax (New South Wales, Salisbury), T. (Plesiotympanogaster) thayerae (Tasmania, Liffey Forest Reserve at Liffey River), T. (s. str.) tora (Queensland, Palmerston National Park), T. trilineata (New South Wales, Sydney), T. (Hygrotympanogaster) truncata (Queensland, Tambourine Mountain), T. (s. str.) volata (Queensland, Palmerston National Park, Learmouth Creek, ca. 14 km SE Millaa Millaa), T. (Hygrotympanogaster) wahroonga (New South Wales, Wahroonga), T. (s. str.) wattsi (New South Wales, Blicks River near Dundurrabin), T. (s. str.) weiri (New South Wales, Allyn River, Chichester State Forest), T. (s. str.) wooloomgabba (New South Wales, New England National Park, Five Day Creek).

The topic of this thesis has been approached mainly in four fields of investigation. First it has been investigated, in which way theater developed through the ages to make some conclusion of what a theater of the 21st century will be determined, especially with its distinction from the cinema. What evolution has the theater experienced from the cart of Thespis to modern theater-machines? A second investigation has been conducted in the history of the site, being a place of human activity for more than 250 years. The third approach started from the question, what the links between architecture and theater, or in a more complex sense, between visual arts and performing arts are and how these forms of human creative work influence each other. Finally some reflections were made about the problem of building in a historical context. What determines historical architecture and how can buildings of our days relate to the conditions of these structures?<br>Master of Architecture

The city block, which we use for a creating our architectural rendering of new Natoinal theatre building is situated on one othe hystorical city axis in the centre of Slovenian capital city Ljubljana. This axis was create in time of old romanian historical setlement. and pases during our cityblock. this is one of the most important moment , I was inspirated with...

Understanding the nature of private-public interaction within a development process provides crucial insight into the workings of a new development from the initial vision all the way to post-construction property management. The private and public sectors must work together as partners in the development process, understanding the goals of one another while remaining flexible in their own decision making in order to create a development that best meets the vision of both parties. By studying Cedar Park Town Center and Midtown Commons, located in Cedar Park, Texas and Austin, Texas, respectively, we can grow a greater understanding of how the private-public interaction involved in these cases affected two pioneering mixed-use projects in Central Texas. Utilizing personal interviews as well as documentation from both public and private sources, detailed information was gathered regarding the process and interaction used by private and public parties in both developments.<br>text

Because winter snows close roads in both Grand Teton and Yellowstone national parks, the driving tours in this chapter and the next are intended for use only from late spring through early fall. You may wish to do only parts of each tour and so we have not shown cumulative trip mileage in these tour guides. Instead, we provide cumulative mileage only from one stop to the next, and for points of interest between them. This chapter’s tour of Grand Teton National Park totals 82 miles, excluding mileage to the optional aerial tramway ride. The intent of these two chapters is to provide a three-day driving tour, including one day in Grand Teton and two in Yellowstone. However, you easily may extend the tour to five days or even longer if you choose a leisurely pace or decide to make optional hikes and stops. The three-day tour outlined in these chapters starts in the town of Jackson, Wyoming. Our tour includes the following suggestions: • On day I, make the Teton tour, perhaps beginning or ending with the optional tramway ride detailed at the end of this chapter. Spend the night either in Jackson or find accommodations closer to Yellowstone, such as at Colter Bay Village or other campgrounds and lodgings in northern Grand Teton National Park. • On day 2, enter Yellowstone’s south entrance and drive the loop road clockwise to Madison Junction, then spend the night at West Yellowstone, Montana. If you arrive at West Yellowstone by early to mid-afternoon, you still will have time to make the optional tour to the Hebgen Lake earthquake area, although the visitor center there closes in the late afternoon. • On day 3, either start with the optional side trip to the Hebgen Lake earthquake area, or proceed from West Yellowstone, Montana, back into Yellowstone National Park, continuing the tour at Madison Junction. Some visitors may choose to drive part or all of these tours in a direction opposite to the one we use here. For that reason, we also provide reverse mileage between each stop and the sights between stops.

The CU Green, Palamanui Project Team worked to create an integrated document for the developers of Palamanui, a 725 acre community on the Big Island of Hawaii consisting of residential sections, a business park, town center, university, and hotel, regarding how the development can be more sustainable and environmental aware. The document addresses engineering issues, alongside architectural and environmental issues, including but not limited to solar generation, energy storage, plug in hybrid vehicles (PHEV), microgrids, smart architectural and landscape design, load management, waste water treatment, and the business aspects of each technology. The team worked together to combine engineering, environmental, social, architectural, and business aspects into a single overarching document recommending how the development can move towards sustainability. The following paper addresses the energy storage aspects for the Palamanui development, analyzing different technologies, operating scenarios, and financial results. Incorporating an energy-storage system in the Palamanui development is beneficial for all involved parties. Residents benefit from a more reliable grid, with increased distributed generation. The community and environment will benefit from increased solar generation and a reduction in required peak generation from HELCO, corresponding to a decrease in greenhouse gas emissions and pollutants. Lastly, the developers benefit because the property can be marketed as a sustainable development with a more reliable grid, thus increasing market value. The storage system can exist as a centralized plant, being a large battery bank or compressed-air-energy storage system (CAES), or the system can be distributed throughout the development as plug-in hybrid vehicles (PHEV) or individual home batteries. Of the many energy storage methods available, three are seriously considered for the Palamanui development: sodium sulfur battery banks, lead-acid battery banks, and small-scale CAES in fabricated vessels. Battery banks and CAES operate under the same concept, drawing energy from the grid during times of low demand (10 p.m. to 6 a.m.) or from excess solar generation. During times of peak demand, stored energy is discharged to the grid to meet daily loads. Of all the systems analyzed, the final recommendation is block storage distributed throughout the development using sodium-sulfur (NaS) batteries. Sodium-sulfur batteries are the most appealing because of the small footprint, long lifetime, and lower lifetime cost. CAES systems with natural-gas prove to be too expensive with Hawaii’s high natural-gas prices. CAES without natural-gas has potential, but with little to no commercial testing having been done on this systems, further investigation is required and strongly recommended.