This paper assessed the model performance accuracies of 3 forecast-based architectures (Long Short-Term Memory, LSTM; Convolutional Neural Network, Conv2D and hybrid ConvLSTM2D) for multivariate inputs to multi-steps wind speed and direction forecasts. These high-level neural network-based architectures were setup with the Keras sequential models trained to learn the historical patterns from the processed weather input datasets. To build these forecast models, the sampled time series weather observations at different station heights were obtained and reshaped for network layer compatibility, while the Adamax algorithm for the network optimization was considered. The trained and evaluated model performances with different input data sequences (normalized/un-normalized) were assessed while the forecast results were also compared with the Actual and Conv1D models. Upon optimal network training, the Conv2D model returned MSE, MAE and RMSE estimated values of 0.82, 4.48 and 0.91 %, respectively; the LSTM model returned 1.03, 4.75 and 1.01 %; while the ConvLSTM2D model returned 2.11, 10.13 and 1.45 %, respectively. Also, Conv2D validated model values of 3.16, 14.73 and 1.77 % were obtained %, respectively; 3.21, 14.98 and 1.82, for the LSTM-based; while ConvLSTM2D model returned 3.27, 15.92 and 1.91 %, respectively. Studied finding results show that better prediction and evaluation could be achieved for all the trained model architectures as compared to the untrained models. Also, from the predicted model results, the Keras sequential models were found to be useful for replicating the time-series historical wind speed and direction based on the well-tuned model hyperparameters as well as the input sequence structure