“…Require: x (0) , g, ε 1: {x (0) is the initial box, g(•) is the interval extension of the function g : R n → R m } 2: {L ver -verified solution boxes, L pos -possible solution boxes} 3: L ver = ∅ 4: L pos = ∅ 5: x = x (0) 6: loop 7: compute y = g(x) bisect (x), obtaining x (1) and x (2) 23:…”
Section: A Interval Methods and Neural Networkmentioning
confidence: 99%
“…Interval methods, while used by several authors for neural network training (see, e.g., [1], [2], [3], [4], [5], [6], [7]), have rarely been used in conjunction with AE, so far. The only known exception is the paper [8].…”
This paper discusses prospects of using interval methods to training denoising autoencoders. Advantages and disadvantages of using the interval approach are discussed. It is proposed to formulate the problem of training the proper neural network as a constraint-satisfaction, and not optimization, problem. Pros and cons of this approach are considered. Preliminary numerical experiments are also presented.
“…Require: x (0) , g, ε 1: {x (0) is the initial box, g(•) is the interval extension of the function g : R n → R m } 2: {L ver -verified solution boxes, L pos -possible solution boxes} 3: L ver = ∅ 4: L pos = ∅ 5: x = x (0) 6: loop 7: compute y = g(x) bisect (x), obtaining x (1) and x (2) 23:…”
Section: A Interval Methods and Neural Networkmentioning
confidence: 99%
“…Interval methods, while used by several authors for neural network training (see, e.g., [1], [2], [3], [4], [5], [6], [7]), have rarely been used in conjunction with AE, so far. The only known exception is the paper [8].…”
This paper discusses prospects of using interval methods to training denoising autoencoders. Advantages and disadvantages of using the interval approach are discussed. It is proposed to formulate the problem of training the proper neural network as a constraint-satisfaction, and not optimization, problem. Pros and cons of this approach are considered. Preliminary numerical experiments are also presented.
Recently, continuous- and discrete-time models of a zeroing neural network (ZNN) have been developed to provide online solutions for the time-dependent linear equation (TDLE) with boundary constraint. This paper presents a novel approach to address the bound-constrained TDLE (BCTDLE) problem by proposing a new discrete-time ZNN (DTZNN) model. The proposed DTZNN model is designed using the Taylor difference formula to discretize the previous continuous-time ZNNN (CTZNN) model. Theoretical analysis indicates the computational property of the proposed DTZNN model, and numerical results further demonstrate its validity. The applicability of the proposed DTZNN model is finally confirmed via its application to the motion planning of a PUMA560 robotic arm.
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