Codebook Generation Clause Samples

The Codebook Generation clause defines the process and requirements for creating a codebook, which is a structured document that outlines the coding framework or data categorization system for a project. Typically, this clause specifies who is responsible for developing the codebook, the standards or methodologies to be followed, and the timeline for its completion. For example, it may require that the codebook be reviewed and approved by both parties before data analysis begins. The core function of this clause is to ensure consistency and clarity in how data is categorized and interpreted, thereby reducing misunderstandings and facilitating reliable analysis.
Codebook Generation. Assume that the input distribu- tion is such that I(u; yr) > I(u; s) as required in Theorem 1. Let εn be a sequence of non-negative numbers that goes to zero such that 2εn < I(u; yr) − I(u; s). • Generate a total of T = 2n(I(u;yr)−2εn ) sequences. Each sequence is sampled i.i.d. from a distribution p (·). Label available power is used for transmitting the secret-message. As the signal-to-noise ratio increases more information regarding − − 1 T them un, . . . , un . sr gets leaked to the eavesdropper and to compensate for this effect, a non-zero fraction of power is transmitted when sr = 0.
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Codebook Generation. We now appropriately bound each term in (20). First note that since the sequence un is uniformly distributed among the set of all possible codeword sequences, it follows that 1 n 1 Generate a total of 2n(I(u;ye )−2εn) sequences. Each se- · quence is sampled i.i.d. from a distribution pu( ). • − − Select a rate R = I(u; yr) I(u; ye) εn and randomly partition the set sequences in the previous step into 2nR bins so that there are 2n(I(u;yr)−εn) sequences in each bin. n H(u ) = n log2 |C | − εn = I(u; yr)− εn (21) Next, given (un, sn), as verified below, the channel to the x • xp xd Received Point Transmitted Point P + Q + 2q PQ Figure 2: Secret-key agreement codebook for the dirty paper channel. The transmitter signal xn is selected so that un = xn + sn is a sequence in the random codebook. The legitimate receiver can decode un (with high probability) and map it to the secret- key. The eavesdropper’s noise-uncertainity sphere includes are possible key values. Note that unlike the traditional dirty-paper code, the transmiter signal xn has a component along sn. The achievable rate, does depend on the interference power and hence it is beneficial to amplify it using part of the transmit power. Also note that unlike a dirty-paper code we do not scale down sn before quantizing but use α = 1. Finally, in order to lower bound the term I(sn; yn|un) we pyn|un,sn (yn|un, sn) let J to be a random variable which equals 1 if (sn, un) are jointly typical. Note that Pr(J = 1) = 1 − on(1). = ∑ pyn|un ,sn,xn (yn|un, sn, xn)p(xn|un, sn)(xn|un, sn) e e ∈ xn X n ∈ = ∑ ∏ ▇▇▇ |u,s,x (ye,i|ui, si, xi)px|u,s (xi|ui, si) 1 I n n n 1 n n 1 x X i=1 n (s ; ye |u ) = n H(s |u )− n H(s |u , ye ) = ∏ ∑ ▇▇▇|u,s,x (ye,i|ui, si, xi)px|u,s (xi|ui, si) 1 n n 1 n n n ≥ H(s |u , J = 1) Pr(J = 1)− H(s |u , y ) i=1 xi∈X 1 n n 1 n n n = ∏ ▇▇▇|u,s (ye,i|ui, si) ≥ n H(s |u , J = 1)− n H(s |u , ye )− on(1) 1 n n n ≥ H(s|u)− n H(s |u , ye )− on(1) (25) i=1 The second step above follows from the fact that the channel 1 n is memoryless and the symbol xi at time i is generated as a function of (ui, si). Hence we have that ≥ H(s|u)− n ∑ H(si|ui, ye,i)− on(1) (26) | |n 1 n n n n n n i−1 H(ye s , u ) = ∑ H(ye,i s i=1 , u , ye,1 ) (22) where (25) follows from the fact that sn is an i.i.d. sequence and hence conditioned on the fact that (sn, un) is a pair of | = ∑ H(ye,i si, ui) (23) i=1 ≤n
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Codebook Generation. For i = 1, 2, randomly generate Fix probability distribution p(t1, t2, t) = p(t)p(t1|t)p(t2|t)
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Codebook Generation. Assume that the input distribu- tion is such that I(u; yr) > I(u; s) as required in Theorem 1. Let εn be a sequence of non-negative numbers that goes to zero such that 2εn < I(u; yr) − I(u; s). • Generate a total of T = 2n(I(u;yr)−2εn ) sequences. Each 1 1 1 sequence is sampled i.i.d. from a distribution pu(·). Label
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Related to Codebook Generation

  • Synchronous Generation The Interconnection Customer shall design its Small Generating Facility to maintain a composite power delivery at continuous rated power output at the Point of Interconnection at a power factor within the range of 0.95 leading to 0.95 lagging, unless the NYISO or the Transmission Owner in whose Transmission District the Small Generating Facility interconnects has established different requirements that apply to all similarly situated generators in the New York Control Area or Transmission District (as applicable) on a comparable basis, in accordance with Good Utility Practice.

  • Infrastructure Vulnerability Scanning Supplier will scan its internal environments (e.g., servers, network devices, etc.) related to Deliverables monthly and external environments related to Deliverables weekly. Supplier will have a defined process to address any findings but will ensure that any high-risk vulnerabilities are addressed within 30 days.

  • Non-Synchronous Generation The Interconnection Customer shall design its Small Generating Facility to maintain a composite power delivery at continuous rated power output at the high-side of the generator substation at a power factor within the range of 0.95 leading to 0.95 lagging, unless the NYISO or the Transmission Owner in whose Transmission District the Small Generating Facility interconnects has established a different power factor range that applies to all similarly situated non-synchronous generators in the control area or Transmission District (as applicable) on a comparable basis, in accordance with Good Utility Practice. This power factor range standard shall be dynamic and can be met using, for example, power electronics designed to supply this level of reactive capability (taking into account any limitations due to voltage level, real power output, etc.) or fixed and switched capacitors, or a combination of the two. This requirement shall only apply to newly interconnecting non-synchronous generators that have not yet executed a Facilities Study Agreement as of September 21, 2016.

  • Electrical appliance safety The Hirer shall ensure that any electrical appliances brought by them to the premises and used there shall be safe, in good working order, and used in a safe manner in accordance with the Electricity at Work Regulations 1989. Where a residual circuit breaker is provided the hirer must make use of it in the interests of public safety.

  • Connectivity User is solely responsible for providing and maintaining all necessary electronic communications with Exchange, including, wiring, computer hardware, software, communication line access, and networking devices.