diff --git a/.github/workflows/test.yml b/.github/workflows/test.yml index 3274735c..7ae33927 100644 --- a/.github/workflows/test.yml +++ b/.github/workflows/test.yml @@ -97,7 +97,7 @@ jobs: needs: build_package strategy: matrix: - python-version: ["3.8", "3.9", "3.10", "3.11"] + python-version: ["3.9", "3.10", "3.11", "3.12"] steps: - name: Clone ODS_Tools repo diff --git a/OpenExposureData/ConstructionValues.csv b/OpenExposureData/ConstructionValues.csv index 26cd8687..5044d0b1 100644 --- a/OpenExposureData/ConstructionValues.csv +++ b/OpenExposureData/ConstructionValues.csv @@ -231,29 +231,38 @@ "Construction","6218","2719","Marine Cargo, Cash In Transit","Cash being transferred in various storage conditions.","6200 - 6249","Marine Cargo" "Construction","6219","2720","Marine Cargo, Jewelers Blocks","Jewels, engravings, and valuable metals and stones stored in various conditions.","6200 - 6249","Marine Cargo" "Construction","7000","258; 800","Offshore, Unknown","A structure that is anchored to the ground under the ocean. Platform construction class is unknown.","7000","Offshore Unknown" -"Construction","7001","801","Offshore, Caisson","Caisson platforms use large diameter caissons to support a single well completion with a minimal deck. The deck is capable of supporting limited production, control equipment, and navigational aids. Caisson platform completions are limited to water depths of 100 feet or less.","7001 - 7999","Offshore" -"Construction","7002","802","Offshore, Compliant Tower","Compliant Towers consist of narrow, flexible towers and piled foundations that can support a conventional deck for drilling and production operations. Unlike fixed platforms, Compliant Towers withstand large lateral forces by sustaining significant lateral deflections and are usually used in water depths between 1,000 and 2,000 feet.","7001 - 7999","Offshore" -"Construction","7003","803","Offshore, Fixed Jacket Platform","Fixed platforms consist of jackets (a tall vertical section made of tubular steel members supported by piles driven into the seabed) with a deck placed on top, providing space for crew quarters, a drilling rig, and production facilities. Fixed platforms are economically feasible for installation in water depths up to 1,500 feet.","7001 - 7999","Offshore" -"Construction","7004","804","Offshore, Jack-up","Jackups are platforms that can be jacked up above the sea using legs that can be lowered like jacks. These platforms, used in relatively low depths, are designed to move from place to place and then anchor themselves by deploying the jack-like legs.","7001 - 7999","Offshore" -"Construction","7005","805","Offshore, Mini Tension Leg Platform","Mini Tension Leg Platforms (MTLP) are floating platforms of relatively low cost developed for production of smaller deepwater reserves that would be uneconomic to produce using more conventional deepwater production systems. They can also be used as a utility, satellite, or early production platform for larger deepwater discoveries.","7001 - 7999","Offshore" -"Construction","7006","806","Offshore, Drill Rig","Drill rig.","7001 - 7999","Offshore" -"Construction","7007","807","Offshore, Semi Submersible Floating Production","Semi-submersible floating production platforms have legs of sufficient buoyancy to cause the structure to float, but weight sufficient to keep the structure upright. These rigs can be moved from place to place and ballasted up or down by altering the amount of flooding in buoyancy tanks. They are generally anchored by cable anchors during drilling operations, though they can also be kept in place by the use of dynamic positioning. Semi-submersibles can be used in depths from 200 to 6,000 feet.","7001 - 7999","Offshore" -"Construction","7008","808","Offshore, Drill Ship","Drill ships are maritime vessels that have been fitted with drilling apparatuses. They are most often used for exploratory drilling of new oil or gas wells in deep water, but can also be used for scientific drilling. They are often built on modified tanker hulls and outfitted with dynamic positioning systems to maintain their position over a well. Drill ships are able to drill in water depths of over 6,500 feet.","7001 - 7999","Offshore" -"Construction","7009","809","Offshore, SPAR Floating Production System","SPARs consist of a large diameter single vertical cylinder supporting a deck. They have typical fixed platform topsides (surface decks with drilling and production equipment), three types of risers (production, drilling, and export), and hulls moored with taut caternary systems of six to 20 lines anchored into the seafloor. SPARs are generally used in water depths up to 3,000 feet.","7001 - 7999","Offshore" -"Construction","7010","810","Offshore, Submersible Production System","Floating vessels, usually used as mobile offshore drilling units (MODUs), that are supported primarily on large pontoon-like structures submerged below the sea surface. The operating decks are elevated 100 or more feet above the pontoons on large steel columns. Once on the desired location, this type of structure is slowly flooded until it rests on the sea floor. After the well is completed, the water is pumped out of the buoyancy tanks, and the vessel is refloated and towed to the next location. Submersibles operate in relatively shallow water, since they must rest on the seafloor.","7001 - 7999","Offshore" -"Construction","7011","811","Offshore, Underwater Production Units, Completion","Subsea Systems range from single subsea wells producing to a nearby platform, FPS, or TLP to multiple wells producing through a manifold and pipeline system to a distant production facility. These systems are presently used in water depths greater than 5,000 feet.","7001 - 7999","Offshore" -"Construction","7012","812","Offshore, Tension Leg Platform","Tension Leg Platforms (TLPs) consist of a floating structure held in place by vertical, tensioned tendons connected to the sea floor by pile-secured templates. Tensioned tendons provide for the use of a TLP in a broad water depth range with limited vertical motion. Larger TLPs have been successfully deployed in water depths approaching 4,000 feet.","7001 - 7999","Offshore" -"Construction","7013","813","Offshore, Well Protector","Well head protection structures.","7001 - 7999","Offshore" -"Construction","7014","N/A","Offshore Renewables - General","Covers offshore wind, hydrgogen, ocean wave, tidal, thermal and salinity gradient technologies and floating solar PV. It is preferred to separate these items if possible.","7001 - 7999","Offshore" -"Construction","7015","N/A","Offshore Wind - General","Covers Turbines, cables and substations. It is preferred to separate these items if possible.","7001 - 7999","Offshore" -"Construction","7016","N/A","Offshore Wind - Turbine","Offshore wind turbine. Key Loc fields to define the turbine are: Capacity and FoundationType.","7001 - 7999","Offshore" -"Construction","7017","N/A","Offshore Wind - Cable - General","Covers Infield, Export, Transmission, and Interconnector cables. It is preferred to separate these items if possible.","7001 - 7999","Offshore" -"Construction","7018","N/A","Offshore Wind - Cable - Infield","Array cables connect wind turbines to each other and to the offshore substation. Also called 'inter-aray cables'.","7001 - 7999","Offshore" -"Construction","7019","N/A","Offshore Wind - Cable - Export","Export cables transfer power from offshore wind farms to connect to an onshore grid network typically via intermediate AC substations or DC converters. In some instances export cables can connect to an offshore grid system, as seen in Germany, or alternative end-use such as oil and gas platforms or industrial facility.","7001 - 7999","Offshore" -"Construction","7020","N/A","Offshore Wind - Cable - Transmission","Transmission cables connect an offshore shared platform to the onshore substation/converter.","7001 - 7999","Offshore" -"Construction","7021","N/A","Offshore Wind - Cable - Interconnector","Interconnectors are submarine cables that transfer electricity between two grids. They can be both domestic or international. 4C Offshore interconnectors database also contains ‘oil and gas electrification’ projects, which refer to subsea cables that powers oil and gas platform from shore. ","7001 - 7999","Offshore" -"Construction","7022","N/A","Offshore Wind - Onshore Substation","Generally, the onshore substation will consist of switchgear, metering, transformers and associated plant. The onshore substation may also have reactive compensation equipment, depending on the network operator requirements and the design of the offshore network","7001 - 7999","Offshore" -"Construction","7023","N/A","Offshore Wind - Offshore Substation","Offshore substations are the systems that collect and export the power generated by turbines through specialized submarine cables. Can sometimes comprise HVDC conversion. Reactive (power) compensation platforms/stations can be included in this coding also.","7001 - 7999","Offshore" +"Construction","7001","801","Offshore, Caisson","Caisson platforms use large diameter caissons to support a single well completion with a minimal deck. The deck is capable of supporting limited production, control equipment, and navigational aids. Caisson platform completions are limited to water depths of 100 feet or less.","7001 – 7099","Offshore" +"Construction","7002","802","Offshore, Compliant Tower","Compliant Towers consist of narrow, flexible towers and piled foundations that can support a conventional deck for drilling and production operations. Unlike fixed platforms, Compliant Towers withstand large lateral forces by sustaining significant lateral deflections and are usually used in water depths between 1,000 and 2,000 feet.","7001 – 7099","Offshore" +"Construction","7003","803","Offshore, Fixed Jacket Platform","Fixed platforms consist of jackets (a tall vertical section made of tubular steel members supported by piles driven into the seabed) with a deck placed on top, providing space for crew quarters, a drilling rig, and production facilities. Fixed platforms are economically feasible for installation in water depths up to 1,500 feet.","7001 – 7099","Offshore" +"Construction","7004","804","Offshore, Jack-up","Jackups are platforms that can be jacked up above the sea using legs that can be lowered like jacks. These platforms, used in relatively low depths, are designed to move from place to place and then anchor themselves by deploying the jack-like legs.","7001 – 7099","Offshore" +"Construction","7005","805","Offshore, Mini Tension Leg Platform","Mini Tension Leg Platforms (MTLP) are floating platforms of relatively low cost developed for production of smaller deepwater reserves that would be uneconomic to produce using more conventional deepwater production systems. They can also be used as a utility, satellite, or early production platform for larger deepwater discoveries.","7001 – 7099","Offshore" +"Construction","7006","806","Offshore, Drill Rig","Drill rig.","7001 – 7099","Offshore" +"Construction","7007","807","Offshore, Semi Submersible Floating Production","Semi-submersible floating production platforms have legs of sufficient buoyancy to cause the structure to float, but weight sufficient to keep the structure upright. These rigs can be moved from place to place and ballasted up or down by altering the amount of flooding in buoyancy tanks. They are generally anchored by cable anchors during drilling operations, though they can also be kept in place by the use of dynamic positioning. Semi-submersibles can be used in depths from 200 to 6,000 feet.","7001 – 7099","Offshore" +"Construction","7008","808","Offshore, Drill Ship","Drill ships are maritime vessels that have been fitted with drilling apparatuses. They are most often used for exploratory drilling of new oil or gas wells in deep water, but can also be used for scientific drilling. They are often built on modified tanker hulls and outfitted with dynamic positioning systems to maintain their position over a well. Drill ships are able to drill in water depths of over 6,500 feet.","7001 – 7099","Offshore" +"Construction","7009","809","Offshore, SPAR Floating Production System","SPARs consist of a large diameter single vertical cylinder supporting a deck. They have typical fixed platform topsides (surface decks with drilling and production equipment), three types of risers (production, drilling, and export), and hulls moored with taut caternary systems of six to 20 lines anchored into the seafloor. SPARs are generally used in water depths up to 3,000 feet.","7001 – 7099","Offshore" +"Construction","7010","810","Offshore, Submersible Production System","Floating vessels, usually used as mobile offshore drilling units (MODUs), that are supported primarily on large pontoon-like structures submerged below the sea surface. The operating decks are elevated 100 or more feet above the pontoons on large steel columns. Once on the desired location, this type of structure is slowly flooded until it rests on the sea floor. After the well is completed, the water is pumped out of the buoyancy tanks, and the vessel is refloated and towed to the next location. Submersibles operate in relatively shallow water, since they must rest on the seafloor.","7001 – 7099","Offshore" +"Construction","7011","811","Offshore, Underwater Production Units, Completion","Subsea Systems range from single subsea wells producing to a nearby platform, FPS, or TLP to multiple wells producing through a manifold and pipeline system to a distant production facility. These systems are presently used in water depths greater than 5,000 feet.","7001 – 7099","Offshore" +"Construction","7012","812","Offshore, Tension Leg Platform","Tension Leg Platforms (TLPs) consist of a floating structure held in place by vertical, tensioned tendons connected to the sea floor by pile-secured templates. Tensioned tendons provide for the use of a TLP in a broad water depth range with limited vertical motion. Larger TLPs have been successfully deployed in water depths approaching 4,000 feet.","7001 – 7099","Offshore" +"Construction","7013","813","Offshore, Well Protector","Well head protection structures.","7001 – 7099","Offshore" +"Construction","7014","N/A","Offshore Renewables - General","Covers offshore wind, hydrgogen, ocean wave, tidal, thermal and salinity gradient technologies and floating solar PV. It is preferred to separate these items if possible.","7001 – 7099","Offshore" +"Construction","7015","N/A","Offshore Wind - General","Covers Turbines, cables and substations. It is preferred to separate these items if possible.","7001 – 7099","Offshore" +"Construction","7016","240","Offshore Wind - Turbine","Offshore wind turbine. Key Loc fields to define the turbine are: PowerCapacity and FoundationType.","7001 – 7099","Offshore" +"Construction","7017","N/A","Offshore Wind - Cable - General","Covers Infield, Export, Transmission, and Interconnector cables. It is preferred to separate these items if possible.","7001 – 7099","Offshore" +"Construction","7018","N/A","Offshore Wind - Cable - Infield","Array cables connect wind turbines to each other and to the offshore substation. Also called 'inter-aray cables'.","7001 – 7099","Offshore" +"Construction","7019","N/A","Offshore Wind - Cable - Export","Export cables transfer power from offshore wind farms to connect to an onshore grid network typically via intermediate AC substations or DC converters. In some instances export cables can connect to an offshore grid system, as seen in Germany, or alternative end-use such as oil and gas platforms or industrial facility.","7001 – 7099","Offshore" +"Construction","7020","N/A","Offshore Wind - Cable - Transmission","Transmission cables connect an offshore shared platform to the onshore substation/converter.","7001 – 7099","Offshore" +"Construction","7021","N/A","Offshore Wind - Cable - Interconnector","Interconnectors are submarine cables that transfer electricity between two grids. They can be both domestic or international. 4C Offshore interconnectors database also contains ‘oil and gas electrification’ projects, which refer to subsea cables that powers oil and gas platform from shore. ","7001 – 7099","Offshore" +"Construction","7022","N/A","Offshore Wind - Onshore Substation","Generally, the onshore substation will consist of switchgear, metering, transformers and associated plant. The onshore substation may also have reactive compensation equipment, depending on the network operator requirements and the design of the offshore network","7001 – 7099","Offshore" +"Construction","7023","N/A","Offshore Wind - Offshore Substation","Offshore substations are the systems that collect and export the power generated by turbines through specialized submarine cables. Can sometimes comprise HVDC conversion. Reactive (power) compensation platforms/stations can be included in this coding also.","7001 – 7099","Offshore" +"Construction","7500","N/A","Onshore, Unknown","A structure that is onshore. Construction class is unknown.","7500 – 7999","Onshore" +"Construction","7501","N/A","Onshore Solar PV - General","Covering all assets of a solar farm site and/or values that do not fit within any other PV construction site including supporting infastructure, roads, fencing, etc ","7500 – 7999","Onshore" +"Construction","7502","N/A","Onshore Solar PV - PV Module","All information associated with the PV module includling racking/mouunting and panel values. Key Loc fields include tracking type, tilt angle, control type, module year, panel area, glass type and thickness.","7500 – 7999","Onshore" +"Construction","7503","N/A","Onshore Solar PV - Inverter ","Central or string inverters from DC to AC including switchgear and protection systems.","7500 – 7999","Onshore" +"Construction","7504","N/A","Onshore Solar PV - Transformer","Covering inverter transformers, main step up transformers and their associated values.","7500 – 7999","Onshore" +"Construction","7505","N/A","Onshore Solar PV - BESS ","Battery energy storage sytems, battery management, fire supression and cooling systems.","7500 – 7999","Onshore" +"Construction","7506","N/A","Onshore Solar PV - Cabling / Combiner Boxes","The electrical collection and transmission system, covering cabling, connectors, combiner boxes switches and surge protection devices.","7500 – 7999","Onshore" +"Construction","7507","N/A","Onshore Solar PV - Monitoring and Control","Covering SCADA, PPC, weather station, data acquisition and communication network assets.","7500 – 7999","Onshore" +"Construction","7550","239","Onshore Wind Turbines","Onshore wind turbines are installed individually, and in groups called ""wind farms."". Wind turbine systems comprise a tower, hub and blades (the rotor), and nacelle (houses the generator). They are typically attached to a reinforced concrete foundation. Based on the wind characteristics of the site, these structures are generally designed to conform to the International Electrotechnical Commission (IEC) 61400-1 wind turbine design class.","7500 – 7999","Onshore" "Construction","8000","N/A","Crops, Unknown crop","Crops, Unknown crop","8000","Agriculture, Crops" "Construction","8010","N/A","Crops, Cereals, Unknown","Crops, Cereals, Unknown","8001 - 8150","Agriculture, Crops" "Construction","8011","N/A","Crops, Cereals, Wheat","Crops, Cereals, Wheat","8001 - 8150","Agriculture, Crops" diff --git a/OpenExposureData/OEDInputFields.csv b/OpenExposureData/OEDInputFields.csv index ff278cf0..8351e6fb 100644 --- a/OpenExposureData/OEDInputFields.csv +++ b/OpenExposureData/OEDInputFields.csv @@ -350,10 +350,8 @@ "Loc","BasementLevelCount","Indicates the number of basement levels in a structure (supports up to 5 levels; for more than 5, enter 5).","O","tinyint","0","[0,5]","n/a","n/a","n/a" "Loc","WindowProtection","Code that represents the wind protection systems used on the windows","O","tinyint","0","","n/a","n/a","n/a" "Loc","FoundationType","Code that represents the construction type of the building's foundation","O","tinyint","0","","n/a","n/a","n/a" -"Loc","WallAttachedStructure"," -Code that represents a structure that is physically attached to the building, such as garage or balcony","O","tinyint","0","","n/a","n/a","n/a" -"Loc","AppurtenantStructure"," -Code for the appurtenant building, such as shed or detached garage","O","tinyint","0","","n/a","n/a","n/a" +"Loc","WallAttachedStructure","Code that represents a structure that is physically attached to the building, such as garage or balcony","O","tinyint","0","","n/a","n/a","n/a" +"Loc","AppurtenantStructure","Code for the appurtenant building, such as shed or detached garage","O","tinyint","0","","n/a","n/a","n/a" "Loc","ConstructionQuality","Construction quality","O","tinyint","0","","n/a","n/a","n/a" "Loc","GroundEquipment","Captures whether mechanical or electrical equipment are present on the ground level of a building and impact it has on losses","O","tinyint","0","","n/a","n/a","n/a" "Loc","EquipmentBracing","Identifies where mechanical or electrical equipment is held in place by bracing","O","tinyint","0","","n/a","n/a","n/a" @@ -481,8 +479,7 @@ Code for the appurtenant building, such as shed or detached garage","O","tinyint "Acc; Loc; ReinsInfo","RateOfExchange","Rate of exchange used to convert the terms from OriginalCurrency","O","float","0","[0,)","O","O","O" "Loc","OffshoreWaterDepth","Depth of water for offshore structures (in metres)","O","float","n/a","(,0]","n/a","n/a","n/a" "Loc","SectionLength","Length of line element associated with point location. Intended for line-assets, such as roads, railways and cables. Such an asset can be defined as a series of points along its length, and the 'Length' field describes the length associated with each point. E.g. if a road is coded as points at 2km intervals, then the 'Length' value is 2, and the TIV represents the value for that 2km stretch of road.","O","float","n/a","[0,)","n/a","n/a","n/a" -"Loc","PowerCapacity","The electrical capacity (e.g. in MW) associated with an infrastructure asset. Intended for power generation and power transmission assets. E.g. power stations, turbines, cables, etc. -Provide the generating capacity of each asset (e.g. for a turbine, this is the capacity of the turbine, not the windfarm).","O","float","n/a","[0,)","n/a","n/a","n/a" +"Loc","PowerCapacity","The electrical capacity (in MW) associated with an infrastructure asset. Intended for power generation and power transmission assets. E.g. power stations, turbines, cables, etc. Provide the generating capacity of each asset (e.g. for a turbine, this is the capacity of the turbine, not the windfarm).","O","float","n/a","[0,)","n/a","n/a","n/a" "Loc","VulnerabilitySetID","ID allowing custom location level vulnerability to be captured","O","int","n/a","[0,)","n/a","n/a","n/a" "Loc","BuildingFloodVuln","Building relative vulnerability to flood","O","tinyint","n/a","[0,)","n/a","n/a","n/a" "Loc","BIFloodVuln","BI relative vulnerability to flood","O","tinyint","n/a","[0,)","n/a","n/a","n/a" @@ -557,3 +554,12 @@ Provide the generating capacity of each asset (e.g. for a turbine, this is the c "Loc","CommoditySchemeXX","Commodity scheme eg. Harmonised System Commodity Codes. See 'Other Values'","CR","varchar(5)","n/a","","n/a","n/a","CR" "Loc","CommodityCodeXX","Commodity code related to CommodityScheme. See 'Commodity Values'.","CR","varchar(10)","n/a","","n/a","n/a","CR" "Loc","CommodityVintageXX","Vintage of commodity scheme used (YYYY format)","O","smallint","0","[0,)","n/a","n/a","O" +"Loc","PVMounting","The type of racking / mounting system the PV panels sit on; Fixed, Single-Axis or Dual Axis ","O","tinyint","0","[0,]","n/a","n/a","n/a" +"Loc","PVMaterial","The type of semiconductor material of the PV panel that converts sunlight into DC electricity","O","tinyint","0","[0,]","n/a","n/a","n/a" +"Loc","PVStowing","The ability for the PV module to stow/minimise angle relative to wind and/or hail direction","O","tinyint","0","[0,]","n/a","n/a","n/a" +"Loc","PVTiltAngle","Known tilt angle for fixed racking or maximum stow angle for axis racking systems","O","float","0","[0,)","n/a","n/a","n/a" +"Loc","PVControlType","Indicates automatic/feedback or manual stowing of the PV modules ","O","tinyint","0","[0,]","n/a","n/a","n/a" +"Loc","PVGlassThickness","Thickness in milimeters (mm) of the glass covering the PV panel","O","float","0","[0,)","n/a","n/a","n/a" +"Loc","PVPanelArea","The area of each PVPanel in the array","O","float","0","[0,)","n/a","n/a","n/a" +"Loc","PVPanelAreaUnit","Units in which PVPanelArea is specified","O","tinyint","12",,"n/a","n/a","n/a" +"Loc","PVPanelYear","The installation year of the PV panels if different from the construction year of the solar farm to allow for operational material fatigue","O","smallint","0","[0,)","n/a","n/a","n/a" diff --git a/OpenExposureData/OtherValues.csv b/OpenExposureData/OtherValues.csv index e0b5eea4..1ff83457 100644 --- a/OpenExposureData/OtherValues.csv +++ b/OpenExposureData/OtherValues.csv @@ -2,6 +2,7 @@ "Anchorage","0","Unknown","N/A" "Anchorage","1","Anchored","N/A" "Anchorage","2","Unanchored","N/A" +"Anchorage","3","Ballasted","N/A" "AddressMatch","0","Ungeocoded","N/A" "AddressMatch","1","User Coordinate","N/A" "AddressMatch","10","CRESTA (low res)","N/A" @@ -377,6 +378,20 @@ "PumpingCapacity","4","Small Water Treatment Capacity (<50 MGD)","N/A" "PumpingCapacity","5","Medium Water Treatment Capacity (50-200 MGD)","N/A" "PumpingCapacity","6","Large Water Treatment Capacity (>200 MGD)","N/A" +"PVControlType","0","Unknown","N/A" +"PVControlType","1","Automatic","N/A" +"PVControlType","2","Manual ","N/A" +"PVMaterial","0","Unknown","N/A" +"PVMaterial","1","Monocrystalline","N/A" +"PVMaterial","2","Polycrystalline","N/A" +"PVMaterial","3","Thin-Film","N/A" +"PVMounting","0","Unknown","N/A" +"PVMounting","1","Fixed-Tilt","N/A" +"PVMounting","2","Single-Axis","N/A" +"PVMounting","3","Duel-Axis","N/A" +"PVStowing","0","Unknown","N/A" +"PVStowing","1","Yes","N/A" +"PVStowing","2","No","N/A" "Redundancy","0","Unknown / default","N/A" "Redundancy","1","No","N/A" "Redundancy","2","Yes","N/A" @@ -532,6 +547,13 @@ "SoilLiquefiable","2","Soil susceptible to liquefaction (sand-like soils)","Liquefaction susceptibility not identified in the predominant soil layers at this location, to a depth relevant for the asset foundations. Soils are to be designated as liquefiable if they are sand-like. Numerically, this can be determined by the Plasticity Index (PI), where it is recommended that liquefiable (sand-like) soils are identified where PI < 7, as per recommendations of Boulanger and Idriss (2006)." "SoilType","0","No soil information (default)","N/A" "SoilType","1","Time averaged shear-wave velocity to 30m depth (vs30 (m/s))","N/A" +"SolarFarmType","0","Unknown","All assets associated with unknown scale solar farms" +"SolarFarmType","1","Residential","All assets associated with small scale solar farms, sometime called Community Solar. This provides energy to homes." +"SolarFarmType","2","Commercial","All assets associated with small scale solar farms, provides energy to businesses." +"SolarFarmType","3","Utility Unknown Size","Solar utility - All assets associated with a solar installation with a capacity larger than 1 MW is considered an utility. Utility solar unknown is used when the Capacity (MW) value is not known but larger than 1 MW." +"SolarFarmType","4","Utility Small","Solar utility with Capacity lower than 5 MW, ground mounted." +"SolarFarmType","5","Utility Medium","Solar utility with Capacity between 5 MW to 25 MW, ground mounted." +"SolarFarmType","6","Utility Large","Solar utility with Capacity larger than 25 MW, ground mounted." "SpecialEQConstruction","0","Unknown / default","N/A" "SpecialEQConstruction","1","Base isolation","N/A" "SpecialEQConstruction","2","Visco-elastic dampers","N/A"