Coarse hero
Author: s | 2025-04-24
View Coarse Hero 1.pdf from NU 650 at Regis College. Log in Join. Coarse Hero 1.pdf - Pages 1. Total views 25. Regis College. NU. NU 650. Asdiamond81. Coarse Hero 1.pdf. View full document. Students also studied. Pages from Coarse Hero-3.pdf. Regis College. NU 650. 7th HEENT Resource NU650.docx
Specific-Gravity-of-Coarse-Aggregates.pdf - Course Hero
Number: 7 (coarse) 39 (fine)Affects:The volume level for one MIDI channel. If a MultiTimbral device, then each Part has its ownvolume.Note: A device's master volume may be controlled by anothermethod such as the Univeral SysEx Master Volume message,or take its volume from one of the Parts, or be controlled by a General Purpose Slider controller.Expression Controller also may affect the volume.Value Range:14-bit coarse/fine resolution. 0x0000 to 0x3FFF where 0 is no volume at all.Note: Most all devices ignore the Fine adjust (#39) for Volume, and justimplement Coarse adjust (#7) because 14-bit resolution isn't needed for this. In this case, maximum is127 and off is 0.It is recommended that a device use the volume value in a logarithmic manner, as specifiedby the following formula if only the coarse value is used:40 log (Volume/127)If both the coarse and fine values are used (and combined into a 14-bit volume), then usethe following formula:40 log (Volume/127²)Note: In the above formula, "Volume" may be equal toChannel Volume * Expression. On Windows XP Go to Control Panel Display... Page 31 Connecting and Using a Source Device Changing the Resolution on Windows Vista Go to Control Panel Personalization Display Settings and change the resolution. *********** *********** 2 Connecting and Using a Source Device... Page 32 Connecting and Using a Source Device Changing the Resolution on Windows 7 Go to Control Panel Display Screen Resolution and change the resolution. 2 Connecting and Using a Source Device... Page 33: Screen Setup ] on the product. Press [ ] to move to Brightness and press [ ] on the product. The following screen will appear. PICTURE Brightness Contrast Sharpness SAMSUNG MAGIC Bright Custom SAMSUNG MAGIC Angle Coarse Fine AUTO Adjust the Brightness using the [ ] buttons. Page 34: Contrast Press [ ] to move to Contrast and press [ ] on the product. The following screen will appear. PICTURE Brightness Contrast Sharpness SAMSUNG MAGIC Bright SAMSUNG MAGIC Angle Coarse Fine AUTO Adjust the Contrast using the [ ] buttons. Page 35: Sharpness ] on the product. Press [ ] to move to Sharpness and press [ ] on the product. The following screen will appear. PICTURE Brightness Contrast Sharpness SAMSUNG MAGIC Bright Custom SAMSUNG MAGIC Angle Coarse Fine AUTO Adjust the Sharpness using the [ ] buttons. Page 36: Samsung Magic Bright Angle is enabled. You can customize the brightness to suit your preferences. 3.4.1 Configuring SAMSUNG MAGIC Bright Press any button on the front of the product to display the Key Guide. Next, press [ ] to display the corresponding menu screen. Page 37: Samsung Magic Angle Color is enabled. You can customize the angle to suit your preferences. 3.5.1 Configuring SAMSUNG MAGIC Angle Press any button on the front of the product to display the Key Guide. Next, press [ ] to display the corresponding menu screen. Page 38: Coarse ] on the product. Press [ ] to move to Coarse and press [ ] on the product. The following screen will appear. PICTURE Brightness Contrast Sharpness SAMSUNG MAGIC Bright Custom SAMSUNG MAGIC Angle Coarse Fine AUTO Adjust the Coarse using the [ ] buttons. Page 39: Fine ] on the product. Press [ ] to move to Fine and press [ ] on the product. The following screen will appear. PICTURE Brightness Contrast Sharpness SAMSUNG MAGIC Bright Custom SAMSUNG MAGIC Angle Coarse Fine AUTO Adjust the Fine using the [Physical Characteristic of Coarse Aggregates - Course Hero
Pathway, as shown in Figure 8b. The simulation and measurement results are illustrated in Figure 8b. It is evident from the graph that in the frequency range from 45 MHz to 10 GHz, both the simulated and measured return losses are less than −12.16 dB, and the insertion loss is exceedingly close to 0 dB. There is a fluctuation in the insertion loss at 6.86 GHz, which can be attributed to calibration and welding errors. The results successfully prove that our designed PCB possesses excellent transmission performance; thus, it can be applied to carry the BPF chip. 3.3. Measurement Preparation and SetupTo prove the feasibility of coarse-tuning and fine-tuning of our proposed BPF, a staggered-array capacitor with GSMS of various layers and radii was designed and simulated to further test and verify the BPF’s performance. In order to realize the function of coarse-tuning, we simulated the capacitor with GSMS of various layers of 1, 3, 5, 7, and 9, corresponding to the numbers of GSMS of 5, 16, 27, 38, and 49, respectively. Based on coarse-tuning, for the same layers of GSMS, we altered the radius to be 1.70, 1.72, 1.73, 1.74, 1.76, 1.78, 1.8, and 1.81 times that of the original GSMS to achieve fine-tuning. As depicted in Figure 9, variation in the center frequency from 1.956 to 2.147 GHz and transmission zero frequency from 4.721 to 5.225 GHz can be achieved, validating the proposed BPF design’s effectiveness in coarse-tuning. Figure 10a shows the center frequency can be tuned more accurately within the coarse-tuning range of 1.956 to 2.147 GHz by changing the radii of GSMS. Lines of different colors correspond to different coarse-tuning states, while different points on lines of the same color represent different fine-tuning states. Therefore, there are 40 different fine-tuning states of the center frequency in the figure, which effectively verifies the practicable fine-tuning of the proposed BPF. Furthermore, to quantitatively measure the proposed BPF fine-tuning and coarse-tuning capabilities, here, we present the physical quantity tuning accuracy ratio (TAR), which can be calculated with the following formulas: T A R = A T V R c × 100 % (15) where Rc stands for the maximum range of tuning, and ATV denotes the average tuning value, which can be determined by A T V = ∑ 1 k T V i k − 1 i = 1 , 2 , 3 … , k (16) where k is the number of fine-tuning states, and TVi is the tuning value in the i state. It can be stated that the tuning accuracy ratio decreases as the maximum range of tuning increases or the average tuning value decreases.Therefore, TAR is an effective index applied to reflect coarse-tuning and fine-tuning abilities, and our proposed BPF was calculated to have a TAR of 2.5% for both the center frequency and transmission zero frequency. Similarly, the transmission zero frequency by fine-tuning within the coarse-tuning range of 4.721 to 5.225 GHz is exhibited in Figure 10c. Specifically, Figure 10b,d are enlarged. View Coarse Hero 1.pdf from NU 650 at Regis College. Log in Join. Coarse Hero 1.pdf - Pages 1. Total views 25. Regis College. NU. NU 650. Asdiamond81. Coarse Hero 1.pdf. View full document. Students also studied. Pages from Coarse Hero-3.pdf. Regis College. NU 650. 7th HEENT Resource NU650.docx wood. moderately coarse but even. Medium and even moderately coarse Medium and even Moderately coarse and even coarse Moderately coarse and even medium and evenSPECIFIC-GRAVITY-OF-COARSE-AGGREGATE.pdf - Course Hero
The Diamond Cross stone thoroughly after use. Any wet steel filings left on the stone will cause surface rust to form.TECHNICAL DATACodeGradeGritMicronRouter Bit SharpenerFine60025Coarse30050Credit Card StoneFine60025Coarse30050Single Handle FileFine60025Coarse30050Twin Handle File X/CCoarse30050Ex. Coarse100140Twin Handle File C/FFine60025Coarse300508″ Bench StoneSuper Hine100015Coarse30050MOUNTING THE 8″ BENCH STONE ON THE DIAMOND STONE HOLDERThe 8″ bench Stone comes with two diamond stone holders.Attach one diamond holder to the underside at each end of the stone using the magnetic lock to secure in position. To prevent skidding ensure worksurface is dry, flat and clean of debris.OPERATION Router Bits/Cutters Suggested: Router Bit Sharpener Fine: For Tungsten Carbide. Coarse: For High Speed Steel.Always sharpen the flat face, never the profile/relief.Slide the cutter with slight pressure along the whetstone. Repeat same number of strokes on each cutting edge.Circular Sawblades Suggested: Single Handle File Fine: For regular maintenance Coarse: For dull bladesKeep the diamond surface flat to the face of saw tooth.Use a few light, smooth, back and forth strokes on each tooth.Repeat the same number of strokes on each tooth.Mark the first tooth sharpened with chalk or masking tape to avoid honing a second time.Chisel/Plane Irons Suggested: 8″ Bench Stone Fine: For edge honing Coarse: Areas of minor damageKeep the bevel of the chisel/plane iron flat on the stone.It is recommended to use a figure of eight motion when sharpening chisels.Finish with one light stroke on the back of the chisel.Axes Suggested: Twin Handle File C/F Fine: To hone the edge Coarse: To prepare the edgeMount the axe in a vice.Keep The diamond surface flat to the tip of the Axe blade edge.Perform light strokes back and forth on both sides.Knives Suggested: 8″ Bench Stone Fine: To keep a razor edge Coarse: To restore an edgeKeep the same angle as the knife bevel on the diamond stone. The angle is 20° for most knives.Stroke away from the body, alternating on each said of the knife.Light strokes will produce a finer edge.Small pointed tools and gouges Suggested: Credit Card Stone Fine: To maintain an edge Coarse: To restore a dull edgeKeep the bevel on the back of the gouge flat on the diamond stone.Roll the tool gently to hone.Small tools should be honed as per chisels, pointed tools should be honed as per gouges.Mower Blades Suggested: Twin Handle File X/C Fine: To hone the edge Coarse: To prepare the edgeFix the mower blade position using two clamps.Keep the diamond surface flat to the face of the blade edge.Perform light strokes back and forth.Shears and Scissors Suggested: Credit Card Stone Fine: To hone the edge Coarse: To prepare the edgeDismantle the shears to work on the cutting blade.Lay the diamond stone flat on the cutting edge bevel.Stroke smoothly towards the tip of the blade.Lay the stone flat on the sliding face and remove the burr with a light stroke (as per the main image above).ACCESSORIESNon-slip magnetic Diamond Stone Holder (pair) – Ref 21Suitable for use with Diamond Cross Router Cutter Sharpener, Credit Card & 8” Bench Stones.Also fits all other brands of creditDiscuss the suitability and performance of the coarse - Course Hero
This example shows how to process a blocked image efficiently by using a mask to isolate regions of interest (ROIs).Some sources of large images have meaningful data in only a small portion of the image. You can improve total processing time by limiting processing to the ROI containing meaningful data. Use a mask to define ROIs. A mask is a logical image in which true pixels represent the ROI.In the blocked image workflow, the mask represents the same spatial region as the image data, but it does not need to be the same size as the image. To further improve the efficiency of the workflow, create a mask from a coarse image, especially one that fits in memory. Then, use the coarse mask to process the finer images.Create a blocked image using a modified version of image tumor_091.tif from the CAMELYON16 data set. The original image is a training image of a lymph node containing tumor tissue. The original image has eight resolution levels, and the finest level has resolution 53760-by-61440. The modified image has only three coarse resolution levels. The spatial referencing of the modified image has been adjusted to enforce a consistent aspect ratio and to register features at each level.bim = blockedImage("tumor_091R.tif");Display the blocked image by using the bigimageshow function. Create MaskDetermine the image size at the coarsest level. The coarsest level is the last level in the blocked image.coarseLevel = bim.NumLevels;coarseLevelSize = bim.Size(coarseLevel,:)coarseLevelSize = 1×3 625 670 3Get the image at the coarsest resolution level.You can generate a mask from the coarse image using the Image Segmenter app. Because the app expects a grayscale input image, you must extract the lightness channel from the coarse image.imLowResL = rgb2lightness(imLowRes);To run the Image Segmenter app, enter this command in the Command Window: imageSegmenter(imLowResL)After you define the mask, export the mask as BW, or export the code that the app uses to create the mask. This section of the example uses code exported from the app. Run this code to create and display a mask from the coarse input image.%----------------------------------------------------% Normalize input data to range in [0,1].Xmin = min(imLowResL(:));Xmax = max(imLowResL(:));if isequal(Xmax,Xmin) imLowResL = 0*imLowResL;else imLowResL = (imLowResL - Xmin) ./ (Xmax - Xmin);end% Threshold image - global thresholdBW = imbinarize(imLowResL);% Invert maskBW = imcomplement(BW);% Open mask with squarewidth = 3;se = strel("square", width);BW = imopen(BW, se);%----------------------------------------------------imshow(BW)Create a blocked image from the mask with the same spatial referencing as the input mask.bmask = blockedImage(BW,WorldEnd=bim.WorldEnd(3,1:2));Display the mask as a translucent green overlay on the original blocked image.h = bigimageshow(bim);showlabels(h,bmask,AlphaDat=bmask,Alphamap=[0 0.5],Colormap=[0 0 0; 0 1 0])Adjust Inclusion Threshold to Cover Region of InterestThe apply function processes blocked images one block at a time. You can use the InclusionThreshold name-value argument with the mask to specify which blocks the apply function uses. The inclusion threshold specifies the percentage of mask pixels that must be true for apply to process the block.Highlight the blocks for apply to process using the default inclusion threshold, 0.5. The function processes only the center blocks, highlighted inSPECIFIC-GRAVITY-OF-COARSE-AGGREGATES.docx - Course Hero
Model, while angle tolerance focuses on smaller detail tessellation (similar to global and local mesh control, respectively). The last two checkboxes in the highlighted area are useful for viewing .stl information and previewing the mesh prior to saving but have a tendency to tax system resources, and as such should only be enabled as needed.For mostly prismatic designs, the Coarse setting will probably do the trick, and for many projects, the Fine setting will produce a decent surface quality. But for that very high-detail, curved designs simply click the Custom radio button. From here, use the sliders or input values to adjust the deviation and angle tolerances to your liking. A lower tolerance value (moving the slider to the right) will result in better surface quality. Beware, however, as very tight tolerances can have a major impact on processing time and the size of the resulting mesh file. In the figure below, the model using the Coarse setting (left) resulted in a file size of under one megabyte, whereas the custom high-resolution setting (right) produced a file nearly 30 megabytes. It should also be noted that diminishing returns should be expected when increasing resolution with respect to file size and finding the settings that are most appropriate for your project will likely take a bit of testing. We recommend beginning most projects at the Fine setting and making adjustments as needed. For more information on adjusting mesh export settings, consider taking a look at the SOLIDWORKS Help file on the subject.Once the mesh files have been produced, opening them with SOLIDWORKS will allow you to see the tessellation. Below, the difference between the same model exported at the Coarse setting versus a high-resolution custom setting is readily apparent:Coarse setting versus a high-resolution custom settingFigure 3: Mesh Files Exported at Coarse Setting (Left) and High-Resolution Custom Setting (Right)Finally, both mesh files were printed on our HP Jet Fusion 3D printer to show the end results in all their glory:The final design and print on our HP Jet Fusion 3D PrinterFigure 4: Mesh Files Printed at Coarse Setting (Left) and High-Resolution Custom Setting (Right)Naturally, there are a variety of other factors that will influence the quality of 3D prints based on the specific equipment you’re using, but in this article, we investigated SOLIDWORKS system settings for optimizing quality on the software side. Do you have experience with 3D printers? Let us know how you’ve improved your projects in the comments! For more information, check out our YouTube channel or contact us today. Thanks for reading!BioTwitterFacebookGoogle+LinkedInLatest Posts. View Coarse Hero 1.pdf from NU 650 at Regis College. Log in Join. Coarse Hero 1.pdf - Pages 1. Total views 25. Regis College. NU. NU 650. Asdiamond81. Coarse Hero 1.pdf. View full document. Students also studied. Pages from Coarse Hero-3.pdf. Regis College. NU 650. 7th HEENT Resource NU650.docxCoarse Aggregate Comprehension Quiz - Course Hero
Moisture retentionCons Not suitable for colored hairOur Tester's Experience"It is a decent shampoo at a comfortable price point according to me. With regular use, I was able to see noteworthy improvement in my hair texture. My hair became stronger and smoother with minimal frizziness." 13. Best Frizz Control: OGX Frizz-Defy/Moisture + Shea Soft & Smooth ShampooOGX Frizz-Defy/Moisture + Shea Soft & Smooth Shampoo is a moisture-rich shampoo. It is enriched with shea butter, agave nectar, and coconut oil that smooths and softens coarse tresses. The rich and creamy blend of the shampoo gives your hair healthy, silky, and shiny glow. This anti-frizz shampoo defrizzes the strands and is suitable for thick and coarse hair. Also, it reduces the appearance of split ends and nourishes your hair.Hair Type: All | Product Dimensions: 8 x 10 x 8 inches | Weight: 0.01 OuncesPros Reduces frizz Smoothes and softens hair Moisturizes the hair Refreshing fragrance Silicone-freeOur Tester's Experience"This particular OGX shampoo is great for my curls. It cleanses and moisturizes them without any harshness. I like to use this shampoo as it does not contain any sulfates. My coarse hair has turned soft and manageable with the help of the formula. The fragrance is delightful and does not trigger any headaches. I pair a deep conditioner with this shampoo weekly for an extra boost. It has reduced frizz and improved the texture of my hair."14. Best For Colored-Hair: OGX Fade-Defying Orchid Oil Shampoo with UVA/UVB Sun FiltersThe OGX Fade-Defying Orchid Oil Shampoo isComments
Number: 7 (coarse) 39 (fine)Affects:The volume level for one MIDI channel. If a MultiTimbral device, then each Part has its ownvolume.Note: A device's master volume may be controlled by anothermethod such as the Univeral SysEx Master Volume message,or take its volume from one of the Parts, or be controlled by a General Purpose Slider controller.Expression Controller also may affect the volume.Value Range:14-bit coarse/fine resolution. 0x0000 to 0x3FFF where 0 is no volume at all.Note: Most all devices ignore the Fine adjust (#39) for Volume, and justimplement Coarse adjust (#7) because 14-bit resolution isn't needed for this. In this case, maximum is127 and off is 0.It is recommended that a device use the volume value in a logarithmic manner, as specifiedby the following formula if only the coarse value is used:40 log (Volume/127)If both the coarse and fine values are used (and combined into a 14-bit volume), then usethe following formula:40 log (Volume/127²)Note: In the above formula, "Volume" may be equal toChannel Volume * Expression.
2025-04-23On Windows XP Go to Control Panel Display... Page 31 Connecting and Using a Source Device Changing the Resolution on Windows Vista Go to Control Panel Personalization Display Settings and change the resolution. *********** *********** 2 Connecting and Using a Source Device... Page 32 Connecting and Using a Source Device Changing the Resolution on Windows 7 Go to Control Panel Display Screen Resolution and change the resolution. 2 Connecting and Using a Source Device... Page 33: Screen Setup ] on the product. Press [ ] to move to Brightness and press [ ] on the product. The following screen will appear. PICTURE Brightness Contrast Sharpness SAMSUNG MAGIC Bright Custom SAMSUNG MAGIC Angle Coarse Fine AUTO Adjust the Brightness using the [ ] buttons. Page 34: Contrast Press [ ] to move to Contrast and press [ ] on the product. The following screen will appear. PICTURE Brightness Contrast Sharpness SAMSUNG MAGIC Bright SAMSUNG MAGIC Angle Coarse Fine AUTO Adjust the Contrast using the [ ] buttons. Page 35: Sharpness ] on the product. Press [ ] to move to Sharpness and press [ ] on the product. The following screen will appear. PICTURE Brightness Contrast Sharpness SAMSUNG MAGIC Bright Custom SAMSUNG MAGIC Angle Coarse Fine AUTO Adjust the Sharpness using the [ ] buttons. Page 36: Samsung Magic Bright Angle is enabled. You can customize the brightness to suit your preferences. 3.4.1 Configuring SAMSUNG MAGIC Bright Press any button on the front of the product to display the Key Guide. Next, press [ ] to display the corresponding menu screen. Page 37: Samsung Magic Angle Color is enabled. You can customize the angle to suit your preferences. 3.5.1 Configuring SAMSUNG MAGIC Angle Press any button on the front of the product to display the Key Guide. Next, press [ ] to display the corresponding menu screen. Page 38: Coarse ] on the product. Press [ ] to move to Coarse and press [ ] on the product. The following screen will appear. PICTURE Brightness Contrast Sharpness SAMSUNG MAGIC Bright Custom SAMSUNG MAGIC Angle Coarse Fine AUTO Adjust the Coarse using the [ ] buttons. Page 39: Fine ] on the product. Press [ ] to move to Fine and press [ ] on the product. The following screen will appear. PICTURE Brightness Contrast Sharpness SAMSUNG MAGIC Bright Custom SAMSUNG MAGIC Angle Coarse Fine AUTO Adjust the Fine using the [
2025-03-30Pathway, as shown in Figure 8b. The simulation and measurement results are illustrated in Figure 8b. It is evident from the graph that in the frequency range from 45 MHz to 10 GHz, both the simulated and measured return losses are less than −12.16 dB, and the insertion loss is exceedingly close to 0 dB. There is a fluctuation in the insertion loss at 6.86 GHz, which can be attributed to calibration and welding errors. The results successfully prove that our designed PCB possesses excellent transmission performance; thus, it can be applied to carry the BPF chip. 3.3. Measurement Preparation and SetupTo prove the feasibility of coarse-tuning and fine-tuning of our proposed BPF, a staggered-array capacitor with GSMS of various layers and radii was designed and simulated to further test and verify the BPF’s performance. In order to realize the function of coarse-tuning, we simulated the capacitor with GSMS of various layers of 1, 3, 5, 7, and 9, corresponding to the numbers of GSMS of 5, 16, 27, 38, and 49, respectively. Based on coarse-tuning, for the same layers of GSMS, we altered the radius to be 1.70, 1.72, 1.73, 1.74, 1.76, 1.78, 1.8, and 1.81 times that of the original GSMS to achieve fine-tuning. As depicted in Figure 9, variation in the center frequency from 1.956 to 2.147 GHz and transmission zero frequency from 4.721 to 5.225 GHz can be achieved, validating the proposed BPF design’s effectiveness in coarse-tuning. Figure 10a shows the center frequency can be tuned more accurately within the coarse-tuning range of 1.956 to 2.147 GHz by changing the radii of GSMS. Lines of different colors correspond to different coarse-tuning states, while different points on lines of the same color represent different fine-tuning states. Therefore, there are 40 different fine-tuning states of the center frequency in the figure, which effectively verifies the practicable fine-tuning of the proposed BPF. Furthermore, to quantitatively measure the proposed BPF fine-tuning and coarse-tuning capabilities, here, we present the physical quantity tuning accuracy ratio (TAR), which can be calculated with the following formulas: T A R = A T V R c × 100 % (15) where Rc stands for the maximum range of tuning, and ATV denotes the average tuning value, which can be determined by A T V = ∑ 1 k T V i k − 1 i = 1 , 2 , 3 … , k (16) where k is the number of fine-tuning states, and TVi is the tuning value in the i state. It can be stated that the tuning accuracy ratio decreases as the maximum range of tuning increases or the average tuning value decreases.Therefore, TAR is an effective index applied to reflect coarse-tuning and fine-tuning abilities, and our proposed BPF was calculated to have a TAR of 2.5% for both the center frequency and transmission zero frequency. Similarly, the transmission zero frequency by fine-tuning within the coarse-tuning range of 4.721 to 5.225 GHz is exhibited in Figure 10c. Specifically, Figure 10b,d are enlarged
2025-03-27The Diamond Cross stone thoroughly after use. Any wet steel filings left on the stone will cause surface rust to form.TECHNICAL DATACodeGradeGritMicronRouter Bit SharpenerFine60025Coarse30050Credit Card StoneFine60025Coarse30050Single Handle FileFine60025Coarse30050Twin Handle File X/CCoarse30050Ex. Coarse100140Twin Handle File C/FFine60025Coarse300508″ Bench StoneSuper Hine100015Coarse30050MOUNTING THE 8″ BENCH STONE ON THE DIAMOND STONE HOLDERThe 8″ bench Stone comes with two diamond stone holders.Attach one diamond holder to the underside at each end of the stone using the magnetic lock to secure in position. To prevent skidding ensure worksurface is dry, flat and clean of debris.OPERATION Router Bits/Cutters Suggested: Router Bit Sharpener Fine: For Tungsten Carbide. Coarse: For High Speed Steel.Always sharpen the flat face, never the profile/relief.Slide the cutter with slight pressure along the whetstone. Repeat same number of strokes on each cutting edge.Circular Sawblades Suggested: Single Handle File Fine: For regular maintenance Coarse: For dull bladesKeep the diamond surface flat to the face of saw tooth.Use a few light, smooth, back and forth strokes on each tooth.Repeat the same number of strokes on each tooth.Mark the first tooth sharpened with chalk or masking tape to avoid honing a second time.Chisel/Plane Irons Suggested: 8″ Bench Stone Fine: For edge honing Coarse: Areas of minor damageKeep the bevel of the chisel/plane iron flat on the stone.It is recommended to use a figure of eight motion when sharpening chisels.Finish with one light stroke on the back of the chisel.Axes Suggested: Twin Handle File C/F Fine: To hone the edge Coarse: To prepare the edgeMount the axe in a vice.Keep
2025-04-22The diamond surface flat to the tip of the Axe blade edge.Perform light strokes back and forth on both sides.Knives Suggested: 8″ Bench Stone Fine: To keep a razor edge Coarse: To restore an edgeKeep the same angle as the knife bevel on the diamond stone. The angle is 20° for most knives.Stroke away from the body, alternating on each said of the knife.Light strokes will produce a finer edge.Small pointed tools and gouges Suggested: Credit Card Stone Fine: To maintain an edge Coarse: To restore a dull edgeKeep the bevel on the back of the gouge flat on the diamond stone.Roll the tool gently to hone.Small tools should be honed as per chisels, pointed tools should be honed as per gouges.Mower Blades Suggested: Twin Handle File X/C Fine: To hone the edge Coarse: To prepare the edgeFix the mower blade position using two clamps.Keep the diamond surface flat to the face of the blade edge.Perform light strokes back and forth.Shears and Scissors Suggested: Credit Card Stone Fine: To hone the edge Coarse: To prepare the edgeDismantle the shears to work on the cutting blade.Lay the diamond stone flat on the cutting edge bevel.Stroke smoothly towards the tip of the blade.Lay the stone flat on the sliding face and remove the burr with a light stroke (as per the main image above).ACCESSORIESNon-slip magnetic Diamond Stone Holder (pair) – Ref 21Suitable for use with Diamond Cross Router Cutter Sharpener, Credit Card & 8” Bench Stones.Also fits all other brands of credit
2025-04-24This example shows how to process a blocked image efficiently by using a mask to isolate regions of interest (ROIs).Some sources of large images have meaningful data in only a small portion of the image. You can improve total processing time by limiting processing to the ROI containing meaningful data. Use a mask to define ROIs. A mask is a logical image in which true pixels represent the ROI.In the blocked image workflow, the mask represents the same spatial region as the image data, but it does not need to be the same size as the image. To further improve the efficiency of the workflow, create a mask from a coarse image, especially one that fits in memory. Then, use the coarse mask to process the finer images.Create a blocked image using a modified version of image tumor_091.tif from the CAMELYON16 data set. The original image is a training image of a lymph node containing tumor tissue. The original image has eight resolution levels, and the finest level has resolution 53760-by-61440. The modified image has only three coarse resolution levels. The spatial referencing of the modified image has been adjusted to enforce a consistent aspect ratio and to register features at each level.bim = blockedImage("tumor_091R.tif");Display the blocked image by using the bigimageshow function. Create MaskDetermine the image size at the coarsest level. The coarsest level is the last level in the blocked image.coarseLevel = bim.NumLevels;coarseLevelSize = bim.Size(coarseLevel,:)coarseLevelSize = 1×3 625 670 3Get the image at the coarsest resolution level.You can generate a mask from the coarse image using the Image Segmenter app. Because the app expects a grayscale input image, you must extract the lightness channel from the coarse image.imLowResL = rgb2lightness(imLowRes);To run the Image Segmenter app, enter this command in the Command Window: imageSegmenter(imLowResL)After you define the mask, export the mask as BW, or export the code that the app uses to create the mask. This section of the example uses code exported from the app. Run this code to create and display a mask from the coarse input image.%----------------------------------------------------% Normalize input data to range in [0,1].Xmin = min(imLowResL(:));Xmax = max(imLowResL(:));if isequal(Xmax,Xmin) imLowResL = 0*imLowResL;else imLowResL = (imLowResL - Xmin) ./ (Xmax - Xmin);end% Threshold image - global thresholdBW = imbinarize(imLowResL);% Invert maskBW = imcomplement(BW);% Open mask with squarewidth = 3;se = strel("square", width);BW = imopen(BW, se);%----------------------------------------------------imshow(BW)Create a blocked image from the mask with the same spatial referencing as the input mask.bmask = blockedImage(BW,WorldEnd=bim.WorldEnd(3,1:2));Display the mask as a translucent green overlay on the original blocked image.h = bigimageshow(bim);showlabels(h,bmask,AlphaDat=bmask,Alphamap=[0 0.5],Colormap=[0 0 0; 0 1 0])Adjust Inclusion Threshold to Cover Region of InterestThe apply function processes blocked images one block at a time. You can use the InclusionThreshold name-value argument with the mask to specify which blocks the apply function uses. The inclusion threshold specifies the percentage of mask pixels that must be true for apply to process the block.Highlight the blocks for apply to process using the default inclusion threshold, 0.5. The function processes only the center blocks, highlighted in
2025-04-04