Figure 9 definition
Figure 9. In respect to the Class C passing-beam, the Class W passing-beam both with bending modes and a driving-beam, and designed for right-hand traffic only. The passing-beam and its modes shall not be operated simultaneously with the driving-beam in and/or another reciprocally incorporated headlamp.
Figure 9. Section milling process and final configuration (from ▇▇▇▇▇▇ et al., 2005) 24 Figure 10: Seal-Tite methodology to seal annular cement micro-fractures (after ▇▇▇▇ et al., 2004) 29 Figure 11: Design of CO2 injection ▇▇▇▇▇ 34 Figure 12: CO2 storage injection well before (a) and after abandonment (b) using a pancake-type plug (after ▇▇▇▇▇▇▇ and ▇▇▇▇▇▇▇▇▇, 2007; In: ▇▇▇▇▇▇▇ et al., 2007) 37 API: American Petroleum Institute CRA: corrosion resistant alloy EOR: enhanced oil recovery ft: feet m: meter MD: measured depth along borehole P&A: plugged and abandoned Permanent well barrier: well barrier with well barrier elements that individually or in combination create a seal that has a permanent characteristic WBE: well barrier element WAG: water alternating gas WBS: well barrier schematic Executive Summary Site abandonment of oil and gas fields is described and defined as the activity of the operator to close and leave a site according to safety and environmental requirements. It can generally be divided into two main activities, i) the abandonment of the wellbores drilled during operation, including plugging of ▇▇▇▇▇, and ii) the removal of surface installations (e.g. well equipment, production tanks and associated installations) and surface remediation. This report provides an overview of current practices in relevant industries, mainly from the oil and gas industry. In site closure operations, well abandonment and ensuring long-term integrity of wellbores are considered very important in terms of secure geological storage of reactive substances. Therefore, the major goal of this report is to highlight main issues in current well abandonment procedures in CO2 environments and particularly in geological CO2 storage. Additionally, recommendations and guidelines for future activities are provided, since the potential for subsequent alternative utilisation of oil and gas fields is not generally considered at the time of abandonment. This might lead to important issues when a field is being considered for subsequent geological storage of CO2.
Figure 9. A general sketch of the ITD cart. ***CONFIDENTIAL TREATMENT REQUESTED
Examples of Figure 9 in a sentence
Thursday of Week One, the nine (9) hour workday immediately preceding the scheduled day off, and Friday of Week Two, the eight (8) hour workday, are taken as holidays (Figure 9).
Geometrical characteristics of the ventilation device shall be according to Figure 9.
Project facilities consist of pump stations S332B, S332C and S332D, detention cells, Cell 1 through Cell 5, a connector cell between Cell 2 and Cell 3, a flow way cell originating at Berm 3 of Cell 5, and four diversion structures, DS1 through DS4 (Figure 9).
Drawbar eyes of class d50 shall conform to Figure 9 in external shape and external dimensions.
In the case of a vision support system this device shall be able to detect an object of 50 cm height and with a diameter of 30 cm within the field defined in Figure 9.
More Definitions of Figure 9
Figure 9. XRD analyses are correlated with the imaging techniques SEM/EDS. Deterioration of the wool structure increase by chemical breakdown of disulfide bridges within structural units of the first layer and the exocuticle and matrix of the cortex.
Figure 9. Reducing an instance of 3-SAT with N variables xi i [N ] and m clauses Cj j [m] to an ≥ − instance of R-Subset-φA for A 3 with n = A + 2N + (A 1)m elements in R, where R = F1+N +m. Here, 0 (resp., 1) values inside the vectors refer to the 0 (resp., 1) element of F. ∈ ≥ ∈ Proof sketch of Theorem 6.9. We extend this reduction to show that R-Subset-φA for A > 1 is also NP-complete, where R is a ring of appropriate size with Hadamard product. Each of the ai (for i [n]) elements and the target value t in an instance of R-Subset-φA is an element in R and thereby a vector of elements in F. Unlike simple addition, since φA is a sum of products, if (any) kth entry in the target value is a non-zero element in F, the solution to a yes instance of R-Subset-φA must consist of at least A elements with non-zero kth entries. Therefore, depending on A, we need to define additional elements in the reduction. We give an overview of our reduction from any 3-SAT instance to R-Subset-φA for A 3; the special case of A = 2 requires a slight modification that is addressed in Appendix D.1. In a similar way to Subset-Sum, this reduction can also be adjusted to show that there exists s Θ(n), for which (s, R)-Subset-φA problem is also NP-complete, which is sketched in Appendix D.1. { } { }∈ ∈ Given a 3-SAT instance with N variables xi i [N ] and m clauses Cj j [m], define a R-Subset- − φA instance with A + 2N + (A 1)m elements, where R = F1+N +m. As shown in Figure 9, each of these elements is a vector of 1 + N + m elements in the field F and are defined as follows: • An element α0 ∈ R, whose first entry is 1. All the remaining entries in α0 correspond to 0. ∈ − ∈ • For each k [A 1], define αk R, whose first N + 1 entries correspond to 1, and the remaining entries correspond to 0. • For each i ∈ [N ], define two elements vi ∈ R and ▇▇▇ ∈ R. The (1 + i)th entry of both these ∈ ¬ ∈ numbers is set to 1. If xi Cj, then the (1 + N + j)th entry of vi is set to 1, else if xi Cj, then the (1 + N + j)th entry of ▇▇▇ is set to 1. All the remaining entries correspond to 0. • For each j ∈ [m] and k ∈ [A − 1], define element ck ∈ R. The (1+N +j)th entry in ck corresponds to 1 and the remaining entries correspond to 0. • The target element t is also a vector of 1 + N + m elements in F, with all its entries set to 1. − − ∈ ∈ − ∈ − Now, given a satisfying assignment for the 3-SAT instance, the corresponding witness for the R-Subset-φA instance includes the following: It includes α0 and each αk for k ...
Figure 9. NEB profile for the activation barrier for a Li vacancy diffusing in the nearly fully lithiated phase of Li1.94VO2F. The initial and final positions are presented by the green and yellow atoms, respectively, and the intermediate positions are indicated by the blue atoms. (picture from deliverable 3.1) In general, we find that the diffusion barrier strongly depends on the local environment. As expected, the divacancy mechanism results in significantly reduced diffusion barriers. However, if the di-vacancy concentration in the compound is low, the associated divacancy jump mechanism is not activated, and the Li diffusion can only proceed via the direct mechanism. In this direct-jump case, the 0-TM barrier is slightly lower than the 1-TM.
Figure 9. XML representation of SenML data Figure 10: EXI representation of SenML data
Figure 9. Download statistics of the Citizen Science book.
Figure 9. Trellis diagram for the BCHMM. Only transitions from α1 and to αT as first and last states respectively are permitted. The intermediate trellis diagram is the same as in a typical HMM. 0, otherwise. P′ = ( 1, if CT = αT
Figure 9. Trade weighted effective exchange rate indices