Code Time is an open source plugin for automatic programming metrics and time tracking in Visual Studio Code. Join our community of nearly half a million developers who use Code Time to reclaim time for focused, uninterrupted coding. Protect valuable code time and stay in flow.
Create an account to keep track of your coding data and unlock access to advanced data visualizations in the Code Time dashboard and web app. You can customize your profile, such as your work hours and office type, for advanced time tracking. You can also connect Outlook or Google Calendar to visualize your code time vs. meetings in a single calendar.
With Automatic Flow Mode, you can quickly toggle Zen mode or enter full screen. If you connect a Slack workspace, you can pause notifications, update your profile status, and set your presence to away. If you connect Google Calendar or Microsoft Outlook, you can also block time on your calendar. You can customize Flow Mode by clicking Configure settings in the Code Time sidebar.
Your code time is the total time you have spent in your editor today. Your active code time is the time you spend actively writing and editing code in your editor or IDE. It captures periods of intense focus and flow. Each metric shows how you compare today to your personal averages. Each average is calculated by day of week over the last 90 days (e.g. a Friday average is an average of all previous Fridays).
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A timecode (alternatively, time code) is a sequence of numeric codes generated at regular intervals by a timing synchronization system. Timecode is used in video production, show control and other applications which require temporal coordination or logging of recording or actions.
In video production and filmmaking, SMPTE timecode is used extensively for synchronization, and for logging and identifying material in recorded media. During filmmaking or video production shoot, the camera assistant will typically log the start and end timecodes of shots, and the data generated will be sent on to the editorial department for use in referencing those shots. This shot-logging process was traditionally done by hand using pen and paper, but is now typically done using shot-logging software running on a laptop computer that is connected to the timecode generator or the camera itself.
I am developing a single-player RPG platformer in XNA 4.0. I would like to add an ability that would make the time "stop" or slow down, and have only the player character move at the original speed(similar to the Time Stop spell from the Baldur's Gate series).I am not looking for an exact implementation, rather some general ideas and design-patterns.
or something along these lines. This way I can set a different time for the player component and different for the rest. It certainly is not universal enough to work for a game where warping time like this would be a central element, but I hope it should work for this case. I kinda dislike the fact that it litters the main Update loop, but it certainly is the easiest way to implement it.I guess that is essentialy the same as tesselode suggested, so I'm going to give him the green tick :)
Using delta time(milliseconds that passed since the last frame) may not be sufficient to slow enemies down. Things like attack rate might be implemented based on the last attack time. While it will slow down movement if it is time based, it will neglect to slow attack rate, spell casting and other effects (Health regeneration, spell effects duration).. and such
If you want to slow down a large group of game elements in a single player game, you could create a second internal clock for each creature, the clock starts at the current time when the creature appears. When a slow spell is cast, each frame, the clock is incremented by x% of the time that actually passed. All monster behavior is then determined by it's internal clock. If various monsters have resistance to slow, they can use their own clock, it is basically an integer that does not require a lot of space or computation.
Internal clock per creature.In order to find out if the creature is ready to attack again: save the the last time each attack was used + recharge time and check if the internal clock is already passed that time.
Everything in your game should use delta times from one of the clock: graphics effects run on the GFX clock, AI & animation runs on the Gameplay clock, creatures affected by a slowdown spell run on a temporary Slowdown spell clock, etc. Then various things affect different parts of your hierarchy: a slowdown spell creates and affects a custom clock, while a bullet time will affect the whole 3D clock hierarchy.
For longer visits there is a prolonged visit code, 99417, that should be reported with 99205/99215 for every 15 minutes that total time exceeds the ranges for those codes. CMS, however, has decided to allow physicians and other qualified health care professional to bill for prolonged services only when they have exceeded the maximum time for a Level 5 visit by 15 minutes or more (at least 69 minutes for an established patient and 89 minutes for a new patient), rather than the minimum time. Because of the discrepancy, Medicare has its own code, G2212, for reporting prolonged services.
Total time includes all of the time the physician or QHP spend on that visit on the date of service. That means it includes prepping for the visit (e.g. chart review) and anything done after the visit (e.g. calling other clinicians and ordering tests or procedures) after the face-to-face portion of the visit. But it does not include staff time or time spent by the physician or QHP outside the date of the visit.
Here are some tips for coding based on time, and an office visit example.
Delaying the completion of your notes is not usually recommended. But some cases lend themselves to this. If the record review will take extended period, it might be worthwhile to prioritize doing that work on the visit date, if that fits into your workflow. If you anticipate discussing a case with another clinician (or independently interpreting a test) and that time will change your visit level, it may be appropriate to delay signing off on that record.
If you make a good faith estimate of the time spent on behalf of a patient on the date of the visit and it lands close to the point where it crosses over to the next level and a higher charge, I would err on the side of caution and choose the lower level. But unless you consistently and frequently code 99215 (time range 40-54 min) with an estimated total time of 40 minutes, this is not likely to be an issue.
Some common tasks may be physically impossible for you to complete in less than a certain amount of time, which makes it easier to record. For example, my state requires physicians to check the Prescription Drug Monitoring Program (PDMP) when we prescribe controlled substances. While it sometimes takes longer, this task is never less than two minutes for me. Other recurrent tasks that may have a specific "base time" for you might include specific types of phone calls (e.g. pharmacy), certain referral tasks, or specific documentation activities (e.g. Family Medical Leave Act paperwork).
Some things just don't lend themselves to time tracking, like results review. But if your total time is going up toward the threshold for a higher level visit, then by all means, add in that couple minutes.
You are not required to split out the total time into its various segments like this, but it may prove useful in the event of an audit. Some of the activities listed could be anticipated following the visit (e.g., the phone calls to the pharmacist and POA). It should be clear relatively early in this encounter that at least the 30-minute threshold for 99214 would be met, and so it would be worthwhile to start tracking the time.
What I need is the time it takes to execute the query and write it to the file results_update.txt. The purpose is to test an update statement for my database with different indexes and tuning mechanisms.
time.time() (in Windows and Linux) and time.clock() (in Linux) are not precise enough for fast functions (you get total = 0). In this case or if you want to average the time elapsed by several runs, you have to manually call the function multiple times (As I think you already do in you example code and timeit does automatically when you set its number argument)
Quite apart from the timing, this code you show is simply incorrect: you execute 100 connections (completely ignoring all but the last one), and then when you do the first execute call you pass it a local variable query_stmt which you only initialize after the execute call.
First, make your code correct, without worrying about timing yet: i.e. a function that makes or receives a connection and performs 100 or 500 or whatever number of updates on that connection, then closes the connection. Once you have your code working correctly is the correct point at which to think about using timeit on it!
And if you need to time your database execution, look for database tools instead, like asking for the query plan, and note that performance varies not only with the exact query and what indexes you have, but also with the data load (how much data you have stored).
This would disable the garbage collection, repeatedly call the function_to_repeat() function, and time the total duration of those calls using timeit.default_timer(), which is the most accurate available clock for your specific platform.
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