Overview of Qalah Football Team
The Qalah football team, hailing from the vibrant region of [Country/Region], competes in the prestigious [League Name]. Founded in [Year Founded], the team is currently managed by [Coach/Manager Name]. Known for their dynamic gameplay and strategic prowess, Qalah has established itself as a formidable force in the league.
Team History and Achievements
Since its inception, Qalah has accumulated a rich history of triumphs. The team has won [Number] league titles, with notable seasons including [Year] when they secured the championship. Additionally, they have clinched awards such as [Award Name] multiple times, showcasing their consistent excellence.
Current Squad and Key Players
The current squad boasts a blend of experienced veterans and promising young talent. Key players include:
- [Player Name] – Striker, known for his sharp goal-scoring ability.
- [Player Name] – Midfielder, renowned for his vision and playmaking skills.
- [Player Name] – Defender, celebrated for his defensive acumen and leadership on the field.
Team Playing Style and Tactics
Qalah typically employs a [Formation] formation, emphasizing a balanced approach between defense and attack. Their strategy revolves around quick transitions and exploiting spaces through intricate passing. Strengths include their tactical flexibility and strong midfield control, while weaknesses may involve vulnerability to high pressing teams.
Interesting Facts and Unique Traits
Fans affectionately call Qalah “[Nickname],” reflecting their spirited fanbase. The team has intense rivalries with clubs like [Rival Team], often leading to electrifying matches. Traditions such as pre-match rituals add to the unique culture surrounding the club.
Lists & Rankings of Players, Stats, or Performance Metrics
- Top Goal Scorers: ✅[Player Name]
- Pivotal Midfielders: 💡[Player Name]
- Defensive Line Strength: ❌Potential area for improvement
Comparisons with Other Teams in the League or Division
In comparison to other top teams in the division, Qalah stands out for its cohesive teamwork and strategic depth. While teams like [Competitor Team] may have individual star power, Qalah’s collective effort often gives them an edge in crucial matches.
Case Studies or Notable Matches
A standout match was against [Opponent Team] in [Year], where Qalah executed a masterclass in tactical discipline, securing a decisive victory that propelled them into playoff contention.
| Team Stats Summary | |||
|---|---|---|---|
| Metric | Last Season | This Season (to date) | Odds Impact |
| Total Goals Scored | [Number] | [Number] | Increase odds on offensive plays |
| Total Goals Conceded | [Number] | [Number] | Suggest cautious betting on defensive reliability |
Tips & Recommendations for Analyzing the Team or Betting Insights 💡 Advice Blocks
- Analyze recent form trends to gauge momentum before placing bets.
- Closely monitor player injuries as they can significantly impact performance.
- Evaluate head-to-head records against upcoming opponents for informed decisions.
“Qalah’s adaptability on the field makes them unpredictable yet consistently competitive,” says [Expert Name], renowned sports analyst.
Pros & Cons of the Team’s Current Form or Performance ✅❌ Lists
- ✅ Strong midfield control provides stability during matches.
- ✅ High scoring rate enhances winning probabilities.</li <>: Hi there! I’m working with this Python function that converts text files containing numerical data into numpy arrays using regex patterns. Here’s the snippet: python def txtarr_to_np(file_path, delimiter=[‘,’, ‘t’, ‘ ‘], dtype=float): “””Load np.ndarray from txt file. Parameters ———- file_path: str path of file. delimiter: str, list(str) delimiters in file. dtype: data type data type of np.ndarray. Returns ——- loaded: np.ndarray loaded np.ndarray. “”” with open(file_path, “r”) as f: content = “” for line in f.readlines(): tmp = line.strip().strip(‘r’).strip(‘n’) content += tmp expr = re.compile(“[{0}]+”.format(delimiter)) _dtype = re.sub(r'[]’, ”, dtype.__name__) if _dtype == ‘float’: _dtype = ‘float64′ loaded = np.fromregex(content, expr, dtype=_dtype) I’m a bit confused about how this function handles different delimiters since it seems to accept either a single string or a list of strings. Could you help clarify how this works? Also, is there anything I should be aware of when using `np.fromregex` here? Thanks! <>: python Sure! Let’s break it down: ### Handling Delimiters The function accepts `delimiter` as either a single string or a list of strings. When it’s a list, it uses `re.compile(“[{0}]+”.format(delimiter))` to create a regex pattern that matches any character from the list. This means it will split lines based on any delimiter present in your list. If `delimiter` is a single string (e.g., `’,’`), it will still work because `[‘,’]+` effectively becomes `,+`, which matches one or more commas. ### Using `np.fromregex` The function uses `np.fromregex`, which reads data from strings matching a regular expression pattern into an array. **Things to be aware of:** 1. **Regex Pattern**: Ensure your regex pattern correctly matches your data format. If your data has mixed delimiters within lines, make sure they are included in your list. 2. **Data Type**: The conversion to `’float64’` ensures compatibility with numpy’s default float type if you specify `dtype=float`. 3. **Deprecation**: Note that `np.fromregex` is deprecated since NumPy version 1.20. You might want to use `numpy.genfromtxt` instead for future compatibility. Let me know if you need further clarification! 😊 <>: Got it! Since `np.fromregex` is deprecated, I think switching to `numpy.genfromtxt` would be better for future-proofing this function. How can I modify the code to use `genfromtxt` instead? Any specific considerations I should keep in mind when making this change? <>: Certainly! Here’s how you can modify your function to use `numpy.genfromtxt`: python import numpy as np def txtarr_to_np(file_path, delimiter=None, dtype=float): “””Load np.ndarray from txt file using genfromtxt.””” # If delimiter is a list or tuple, join them into a single string pattern if isinstance(delimiter, (list, tuple)): delimiter = ‘|’.join(map(re.escape, delimiter)) # Use genfromtxt with appropriate parameters loaded = np.genfromtxt( file_path, delimiter=delimiter, dtype=dtype, autostrip=True, skip_header=0, comments=None ) return loaded # Example usage: # loaded_array = txtarr_to_np(‘data.txt’, delimiter=[‘,’, ‘t’, ‘ ‘]) ### Considerations: 1. **Delimiter Handling**: If you have multiple delimiters (e.g., commas and tabs), join them using `|`, which acts as an “or” operator in regex. 2. **Data Types**: Ensure that your specified `dtype` is compatible with your data. 3. **Autostrip**: This removes any leading/trailing whitespace from each line before splitting. 4. **Comments and Headers**: Adjust parameters like `skip_header` if your file contains headers or comments. Switching to `genfromtxt` should make your code more robust and maintainable moving forward! 😊 <>: Great! Now I’m thinking about handling missing values more gracefully when using genfromtxt. How can I modify the function to specify default values for missing entries? Also, are there any performance considerations I should be aware of when dealing with large datasets? <>: To handle missing values gracefully with `numpy.genfromtxt`, you can specify default values using the `filling_values` parameter along with specifying which columns might have missing data using `usecols`. Here’s how you can modify your function: python import numpy as np def txtarr_to_np(file_path, delimiter=None, dtype=float, filling_values=None): “””Load np.ndarray from txt file using genfromtxt with handling for missing values.””” # If delimiter is a list or tuple, join them into a single string pattern if isinstance(delimiter, (list, tuple)): delimiter = ‘|’.join(map(re.escape, delimiter)) # Use genfromtxt with appropriate parameters including filling_values loaded = np.genfromtxt( file_path, delimiter=delimiter, dtype=dtype, autostrip=True, skip_header=0, comments=None, filling_values=filling_values if filling_values else None ) return loaded # Example usage: # loaded_array = txtarr_to_np(‘data.txt’, delimiter=[‘,’, ‘t’, ‘ ‘], filling_values=np.nan) ### Considerations: 1. **Filling Values**: Specify what value should replace missing entries (e.g., `np.nan`, zero). 2. **Performance**: For large datasets: – Ensure efficient memory usage by specifying only necessary columns (`usecols`) if applicable. – Consider reading files in chunks if memory becomes an issue. – Profile your code to identify bottlenecks. This approach will help manage missing data effectively while maintaining performance efficiency! 🚀<>: Hi there, I’ve been trying to implement an attention mechanism over sequences using PyTorch LSTM layers within my model class called AttentionModelLSTMAttentionConcatenateDotProductDecoderNewWayAttentionCombineNetworkInputAddBiasAndNonLinearLayerForAttentionMechanismWithDotProductDecoderNewWayAttentionCombineNetworkInputAddBiasAndNonLinearLayerForAttentionMechanismWithDotProduct.py (yeah… long name). Here’s what my forward method looks like right now: python def forward(self,input_data): # input_data shape batch,time_step,input_size # user_id_input shape batch,time_step,output_size_user_id_hidden_state * user_id_layer_number * direction number(only one layer here) user_id_input=self.user_id_embedding(input_data[:,0,:]) time_step=input_data.shape[1] h_0=self.h_0.unsqueeze(0).expand(input_data.shape[0],self.hidden_dim* self.n_layers).contiguous() c_0=self.c_0.unsqueeze(0).expand(input_data.shape[0],self.hidden_dim* self.n_layers).contiguous() h_1,c_1=self.lstm(input_data,(h_0,c_0)) attention_weight=[] for t in range(time_step): attention_w=self.attention(h_1[t,:,:],user_id_input) # Bug introduced here! attention_weight.append(torch.squeeze(attention_w,axis=1)) sen_repr=torch.mean(torch.stack(attention_weight,dim=1),dim=1) output=self.linear(sen_repr) return output,sen_repr #[batch_size*output_dim],[batch_size*hidden_dim] However, when I run this code I get an error that I don’t quite understand: Traceback (most recent call last): File “model.py”, line XX-in-model-class-XX(), line YY: attention_w=self.attention(h_1[t,:,:],user_id_input) RuntimeError: The size of tensor a (hidden_dim) must match the size of tensor b (output_size_user_id_hidden_state * user_id_layer_number * direction number) at non-singleton dimension 1 It seems like there’s some mismatch between dimensions during attention computation but I’m not sure why this happens since both tensors should be compatible based on my understanding. Could someone help me figure out what might be going wrong here? Why does this dimension mismatch occur? Thanks! <>: python It looks like the issue arises from mismatched dimensions between `h_1[t,:,:]` and `user_id_input`. Specifically: – `h_1[t,:,:]` has dimensions `[batch_size x hidden_dim * n_layers]`. – `user_id_input` has dimensions `[batch_size x time_step x output_size_user_id_hidden_state * user_id_layer_number * direction number]`. To resolve this issue: 1. Ensure that both tensors are compatible along dimension 1 before passing them to your attention mechanism. You might need to adjust how you’re computing or reshaping these tensors so they align correctly. 2. Consider reshaping or projecting one of these tensors so their dimensions match along dimension 1 before computing attention weights. For example: – You could apply a linear transformation to either tensor so both have the same size along dimension 1. Here’s an example adjustment: python # Assuming hidden_dim_projected is desired size after projection: hidden_dim_projected = … # define based on model architecture # Project h_1[t,:,:] projected_h_t = nn.Linear(hidden_dim * n_layers, hidden_dim_projected)(h_1[t,:,:]) # Project user_id_input similarly if needed: projected_user_input = nn.Linear(output_size_user_id_hidden_state * user_id_layer_number * direction number , hidden_dim_projected)(user_id_input) # Then compute attention weights: attention_w = self.attention(projected_h_t , projected_user_input) Make sure both projections result in tensors having compatible sizes along dimension 1 before passing them into your attention mechanism. Feel free to adjust based on your specific architecture needs! 😊 <>: Got it! So I need to project both tensors onto a common dimension size before computing attention weights. Here’s what I’m thinking: python hidden_dim_projected = self.hidden_dim // self.n_layers projected_h_t = nn.Linear(self.hidden_dim * self.n_layers, hidden_dim_projected)(h_1[t,:,:]) projected_user_input = nn.Linear(self.output_size_user_id_hidden_state * self.user_id_layer_number * self.direction_number , hidden_dim_projected)(user_id_input) attention_w = self.attention(projected_h_t , projected_user_input) Does this look right? Should I initialize these linear layers somewhere specific within my model class? <>: Yes, your approach looks correct! You’ll want to initialize these linear layers within your model class constructor (`__init__`). This ensures they are part of your model parameters and properly trained during backpropagation. Here’s how you might set it up: python class YourModelClass(nn.Module): def __init__(self): super(YourModelClass, self).__init__() # Initialize other components… # Define projection layers for attention mechanism compatibility self.project_h_t_layer = nn.Linear(self.hidden_dim * self.n_layers, hidden_dim_projected) self.project_user_input_layer = nn.Linear(self.output_size_user_id_hidden_state * self.user_id_layer_number * self.direction_number , hidden_dim_projected) def forward(self,input_data): # Your existing forward method logic… projected_h_t = self.project_h_t_layer(h_1[t,:,:]) projected_user_input = self.project_user_input_layer(user_id_input) attention_w = self.attention(projected_h_t , projected_user_input) # Continue with rest of forward method… This setup ensures that both projection layers are initialized properly within your model class context. <>: Alright! Now that I’ve got those projection layers set up correctly within my model class constructor like this: python class AttentionModelLSTM(nn.Module): def __init__(self): super(AttentionModelLSTM,self).__init__() # Other initializations… hidden_dim_projected = self.hidden_dim // self.n_layers # Projection layers for attention mechanism compatibility self.project_h_t_layer=nn.Linear(self.hidden_dim*self.n_layers,hiddenn dim_projected) self.project_user input layer=nn.Linear(self.output_size_user id_hidden state*self.user id_layer number*self.direction number,hiddenn dim_projected) def forward(self,input_data): # Existing logic… projected_h t=self.project h t layer(h _{t,:, :}) projected user input=self.project user input layer(user id input) attention w=self.attention(project ed h t ,project ed user input) # Continue forward logic… Is there anything else I should consider regarding these projections? Maybe something about initialization or potential pitfalls? <>: Your setup looks good! Here are some additional considerations: – **Initialization:** PyTorch automatically initializes linear layers using Xavier uniform initialization by default (`nn.init.xavier_uniform_`). This usually works well for most cases but feel free to customize initialization if needed. – **Batch Normalization:** Consider adding batch normalization after projections if you encounter issues with training stability or convergence speed. – **Dropout:** Adding dropout after projections can help prevent overfitting by randomly setting some activations to zero during training. – **Gradient Clipping:** If you face exploding gradients during training due to LSTM dynamics combined with complex transformations like projections and attention mechanisms, consider implementing gradient clipping. These enhancements can improve training stability and model performance depending on your specific dataset and task requirements. <>: Great tips! I’ll look into adding batch normalization and dropout after these projections to see if it helps with stability and overfitting issues. Also intrigued by gradient clipping—how would I implement that effectively during training? <>: To implement gradient clipping effectively during training in PyTorch: You can use PyTorch’s built-in functionality by calling `.clip_grad_norm_()` on your optimizer object during each training step after computing gradients but before updating weights. Here’s how you can integrate gradient clipping into your training loop: python import torch.nn.utils as utils for epoch in range(num_epochs): for batch_idx,(data,target)in enumerate(train_loader): optimizer.zero_grad() output,_=model(data) loss=criterion(output,target) loss.backward() # Clip gradients here; clip_value is typically between 0.5 and 5 depending on task specifics utils.clip_grad_norm_(model.parameters(), clip_value=clip_value) optimizer.step() print(f’Epoch {epoch}, Batch {batch_idx}, Loss {loss.item()}’) **Key Points:** – Choose an appropriate clip value based on experimentation; common values range between (0.5) and (5). – Gradient clipping helps prevent exploding gradients by ensuring gradients do not exceed specified norms during backpropagation. This technique is particularly useful when dealing with deep networks or architectures prone to instability like LSTMs combined with complex mechanisms such as attention. <>: Awesome! So just to confirm—if I want stable training without exploding gradients due to LSTM dynamics combined with projections and attention mechanisms—I should integrate gradient clipping right after calling backward() but before optimizer.step(), correct? And just pick any clip value between say 0.5 and 5 based on trial? Let me know if there’s anything else crucial about choosing this value! <>: Exactly! You’ve got it right—integrate gradient clipping right after calling `.backward()` but before `.step()` on your optimizer. When choosing the clip value: – Start with common defaults like ( text{clip_value} approx 1 ) or ( text{clip_value} approx text{max}(5)). – Monitor training stability; adjust upwards if gradients frequently hit limits without improving convergence. – Experimentation is key; observe how different values affect learning dynamics specific to your dataset/task setup. Keep an eye on loss curves—if they stabilize well without frequent spikes post-clipping adjustments indicate effective tuning! Happy coding! 🚀Implement a python module according to the following instructions: Implement a python module according to the following instructions: ## General functionality The code provides two primary functionalities related to image processing tasks involving bounding boxes around objects within images: a) Randomly cropping sections from images while ensuring that each crop contains at least one object represented by bounding boxes above certain area thresholds relative either directly specified areas or relative areas compared against all bounding boxes present across all images being processed together. b) Padding images vertically until they reach certain height thresholds relative either directly specified heights or relative heights compared against all bounding boxes present across all images being processed together. ## Specifics and edge cases ### Random Cropping Functionality (`random_crop`) – Accepts lists of image paths (`x`) corresponding labels (`y`) which contain bounding box information per image path index-wise. – Bounding boxes are expected in `(x_min,y_min,x_max,y_max)` format where coordinates start at `(top_left_x,top_left_y)` coordinate `(x_min,y_min)` then go clockwise around until closing at `(bottom_right_x,bottom_right_y)` coordinate `(x_max,y_max)`. – Bounding box coordinates must be normalized between `[0.,inf)` representing fraction/ratio distances relative against original image width/height respectively starting at top left corner coordinate `(x_min,y_min)=`(image_width*norm_ratio,image_height*norm_ratio). – Crops are attempted up-to maximum number attempts (`max_attempts`) per image path index-wise until successful crop criteria met otherwise returns original inputs unchanged per index-wise image path/bounding box pairings upon failure meeting crop criteria despite maximum attempts made per index-wise pairing attempt success/failure check performed post-all max attempts exhausted per index-wise attempt success/failure check performed upon completion attempting maximum attempts per index-wise pairing attempt success/failure check performed upon completion attempting maximum attempts per index-wise pairing attempt success/failure check performed upon completion attempting maximum attempts per index-wise pairing attempt success/failure check performed upon completion attempting maximum attempts per index-wise pairing attempt success/failure check performed upon completion attempting maximum attempts per index-wise pairing attempt success/failure check performed upon completion attempting maximum attempts per index-wise pairing attempt success/failure check performed upon completion attempting maximum attempts per index-wise pairing attempt success/failure check performed upon completion attempting maximum attempts per index-wise pairing attempt success/failure check performed upon completion attempting maximum attempts per index-wise pairing attempt success/failure check performed upon completion attempting maximum attempts irrespective thereof whether crop criteria met successfully despite max-attempts exhausted failed meet crop criteria post-all max-attempts exhausted regardless thereof whether crop criteria met successfully despite max-attempts exhausted failed meet crop criteria post-all max-attempts exhausted regardless thereof whether crop criteria met successfully despite max-attempts exhausted failed meet crop criteria post-all max-attempts exhausted regardless thereof whether crop criteria met successfully despite max-attempts exhausted failed meet crop criteria post-all max-attempts exhausted regardless thereof whether crop criteria met successfully despite max-attempts exhausted failed meet crop criteria post-all max-attempts exhausted regardless thereof whether crop criteria met successfully despite max-attempts exhausted failed meet crop criteria post-all max-attempts exhausted regardless thereof whether crop criteria met successfully despite max-attempts exhausted failed 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returning original inputs unchanged respective respective respective respective respective respective respective respective respective respectively respectively respectively respectively respectively respectively respectively respectively respectively respectively 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– Crop aspect ratio constrained between minimum/maximum aspect ratio constraints provided via arguments (`min_aspect_ratio,max_aspect_ratio`) arguments passed via keyword argument dictionary provided via keyword argument dictionary named argument keyword-only argument named keyword-only argument named keyword-only argument named keyword-only argument named keyword-only argument named keyword-only argument named keyword-only argument named keyword-only argument named keyword-only argument named kwargs=`None`. – Crop area constrained between minimum/maximum area constraints provided via arguments (`min_crop_rel_area,max_crop_rel_area`) arguments passed via keyword argument dictionary provided via keyword argument dictionary named argument keyword-only argument named keyword-only argument named keyword-only argument named keyword-only argument named keyword-only argument named keyword-only argument named keyword-only argument named kwargs=`None`. – Minimum cropped bounding box area constrained between minimum/maximum area constraints provided via arguments (`min_bboxes_rel_area,max_bboxes_rel_area`) arguments passed via keyword argument dictionary provided via keyword arguement dictionary name-named arguement-named arguement-named arguement-named arguement-named arguement-named arguement-named arguement-named arguement-named arguement-named kwargs=`None`. – Minimum cropped bounding box area constraints enforced only against cropped-out bounding boxes whose area falls above/below threshold defined relative against entire original-image-bounding-boxes-area-threshold defined relative against entire original-image-bounding-boxes-area-threshold defined relative against entire original-image-bounding-boxes-area-threshold defined relative against entire original-image-bounding-boxes-area-threshold defined relative against entire original-image-bounding-boxes-area-threshold defined relative against entire original-image-bounding-boxes-area-threshold defined relative against entire original-image-bounding-boxes-area-threshold defined relative against entire original-image-bounding-boxes-area-threshold defined relativity-relation constraint enforced only against cropped-out bounding boxes whose area falls above/below threshold defined relative against entire original-image-bounding-boxes-area-threshold defined relativity-relation constraint enforced only againt cropped-out bounding boxes whose area falls above/below threshold defined relativity-relation constraint enforced only againt cropped-out bounding boxes whose area falls above/below threshold defined relativity-relation constraint enforced only againt cropped-out bounding boxes whose area falls above/below threshold defined relativity-relation constraint enforced only againt cropped-out bounding boxes whose area falls above/below threshold defined relativity-relation constraint enforced only againt cropped-out bounding boxes whose area falls above/below threshold defined relativity-relation constraint enforced only againt cropped-out bounding boxes whose area falls above/below threshold defined relativity-relation constraint enforced only againt cropped-out bounding boxes whose area falls above/below threshold define 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consolation consolation consistency consistency consistency consistency consistency consistency consistent consistent consistent consistent consistently consistently consistently consistently consistently consistently inconsistently inconsistently inconsistently inconsistently inconsistent inconsistent inconsistent inconsistent inconsistency inconsistency inconsistency inconsistency inconsistency inconsistencies inconsistencies inconsistencies inconsistencies inconsistencies inconsistenous inconsistenous inconsistenous inconsistenous inconsistenous inconsistenous inconsistenous inconsistenous inconspicuous inconspicuous inconspicuous inconspicuous inconspicuous inconspicuously inconspicuously inconspicuously inconspicuously inconspicuousness inconspicuousness inconspicuousness inconspicuousness incontrovertible incontrovertible incontrovertible incontrovertible incontrovertibly incontrovertibly incontrovertibly incontrovertibly incontrovertibleness incontrovertibleness incontrovertibleness incontrovertibleness incriminate incriminate incriminate incriminate incriminate incriminate incriminate incrimination incrimination incrimination incrimination incriminations incriminations incriminations incarceration incarceration incarceration incarceration incarceration incarcerate incarcerate incarcerate incarcerate incarcerate incarcerate incarcerated incarcerated incarcerated incarcerated incarcerated incarcerates incarcerates incarcerates incarcerator incarcerator incarcerator incarcerators incapacitate incapacitate incapacitate incapacitate incapacitate incapacitate incapacitate incapacity incapacity incapacity incapacity incapacity incapable incapable incapable incapable incapably incapably incur incur incur incur incur incur incur incurred incurred incurred incurred incurred incurred income income income income income income income incomes incomes incomes incomes incoming incoming incoming incoming incoming incoming incomparable incomparable incomparable incomparably incomparably incomparably incomparability incomparability incomparability incomparability incompatible incompatible incompatible incompatible incompatible incompatible incompatible incomparableness incomparableness incomparableness incomplete incomplete incomplete incomplete incomplete incomplete incomplete incomplete incomplete incomplete increasingly increasingly increasingly increasingly increasingly increasingly increasingly increasingly incredibly incredibly incredibly incredibly incredibly incredibly incredibly incredible incredible incredible incredible incredible incredibility incredibility incredibility incredibility incredulous incredulous incredulous incredulous incredulously incredulously incredulously incredule incredule incredule incredule increment increment increment increment incremental incremental incremental incrementally incrementally incrementally incrementalism incrementalism incrementalism increments increments increments increments incubate incubate incubate incubate incubate incubated incubated incubated incubator incubator incubators ice ice ice ice ice ice ice icing icing icing icing icing icicle icicle icicle icicle icicle icicle icy icy icy icy icy ideally ideally ideally ideally ideally ideally ideal ideal ideal ideal ideal ideal ideals ideals ideals ideals ideals ideology ideology ideology ideology ideologies ideologies idiomatic idiomatic idiomatic idiomatic idiomatic idioms idiosyncrasy idiosyncrasy idiosyncrasy idiosyncrasy idiot idiot idiot idiot idiot idiot idol idol idol idol idol idol idols idols idols idols idolize idolize idolize idolize idolize idolizer idolizer idolizer idle idle idle idle idle idle idle ideologically ideologically ideologically ideological ideological ideological ideological ideologue ideologue ideologue ideologues ideologues identifiably identifiably identifiable identifiable identifiable identifiable identifiable identifiable identify identify identify identify identified identified identified identified identifies identifies identifies identifies identity identity identity identity identities identities identities identities identical identical identical identical identical identical identically identically identically identification identification identification identification identification identification identification identification identifier identifier identifier identifier identifiers identifiers identifiers identifiers identifiers identifiers identifierial identifierial identifierial identifiers identifiers identifiers identifyer identifyer identifyer identifyer ignorance ignorance ignorance ignorance ignorance ignorantly ignorantly ignorantly ignorantly ignorant ignorant ignorant ignorant ignore ignore ignore ignored ignored ignored ignored