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Developer ID certificates are unique identifiers from Apple that assure users that you are a trusted developer.

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launching a modal dialog in application crashing in macOS Sonoma 14.2.1
2024-01-09 17:00:09.747 java[6069:574042] Suppressing invocation of -[NSApplication runModalForWindow:]. -[NSApplication runModalForWindow:] cannot run inside a transaction begin/commit pair, or inside a transaction commit. Consider switching to an asynchronous equivalent. ( 0 AppKit 0x00007ff80f886ffb -[NSApplication runModalForWindow:] + 365 1 AppKit 0x00007ff8103c9ffe -[NSSavePanel runModal] + 414 2 AppKit 0x00007ff8103d3dae -[NSSavePanel(Deprecated) runModalForDirectory:file:types:] + 227 3 libawt_lwawt.dylib 0x0000000122ece116 -[CFileDialog safeSaveOrLoad] + 363 4 Foundation 0x00007ff80cfa1bd5 __NSThreadPerformPerform + 178 5 CoreFoundation 0x00007ff80c0877d6 CFRUNLOOP_IS_CALLING_OUT_TO_A_SOURCE0_PERFORM_FUNCTION + 17 6 CoreFoundation 0x00007ff80c087779 __CFRunLoopDoSource0 + 157 7 CoreFoundation 0x00007ff80c087548 __CFRunLoopDoSources0 + 215 8 CoreFoundation 0x00007ff80c0861b8 __CFRunLoopRun + 919 9 CoreFoundation 0x00007ff80c085859 CFRunLoopRunSpecific + 557 10 Foundation 0x00007ff80cf81481 -[NSRunLoop(NSRunLoop) runMode:beforeDate:] + 216 11 libawt_lwawt.dylib 0x0000000122eeb1c2 Java_sun_lwawt_macosx_LWCToolkit_doAWTRunLoopImpl + 324 12 ??? 0x00000001105eae47 0x0 + 4569607751 13 ??? 0x00000001105daffd 0x0 + 4569542653 14 ??? 0x00000001105daffd 0x0 + 4569542653 ) this is the error am getting in logs, where the modal dialog box is been blocked by some external application or for some other reasons
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776
Jan ’24
Reached Limit of created certificates and not able to revoke older ones
We have started creating third-party applications and for that we required to apple certificate and initially created multiple certificate (application and installer), later on realises that one can be enough to approve multiple application. Now we are not seeing any option to remove or revoke the certificates so that we can create new certificate. Support team also not able to help on this. What should we do to create new certificate?
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852
Jan ’24
Encountering Difficulty Importing Developer ID Application Certificate into iCloud Keychain
Hello fellow developers, I've come across a bit of a challenge and would appreciate some insights. I successfully backed up my Developer ID Application certificate as a .p12 file and smoothly imported it into my login keychain. However, when attempting to import it into my iCloud keychain for an added layer of backup security, I encountered two error messages: "One object could not be imported." "The selected keychain could not be found." Any thoughts or suggestions on resolving this hiccup would be greatly appreciated! Thanks in advance for your expertise!
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694
Jan ’24
0 valid identities found setting up signing certificates
I'm trying to setup a new build machine and I can't seem to get the signing certificates detected by the security tool with "0 valid identities found" My id is linked to a team but my role is "app manager". In my console I can see the certificates but cant download the developerID installer cert. In Xcode no ceritifcates show up for that team ID in the list. The certs were generated by the developer console. I had to get the client to insecurely send me the certs because of this restriction. I imported them into the keychain but the tool still won't show anything. Is this another problem not having the correct root certificate installed ? I had all this setup in a VMWAre which was working before I lost all data due to a crash so setting it up fresh on a mac mini. I should be able to have just synced the certs through xcode and start signing installers. I researched hundreds of pages and no answer for my problem.
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1.1k
Jan ’24
Code signing, OS versions, and an older Macbook Pro
Have been working on a Java Open Source project for 8 years with the last 2+ years on a cross-platform desktop GUI for it with a separate updater. The self-contained application runs on Linux and Windows - now I'm trying to figure-out Mac. Have had a Macbook Pro 13" Late 2013 Retina running Big Sur 11.7.10 for 3 weeks. Very new to Apple, but a retired 48-year engineer trying to support MacOS for the first time. Building with Ant and appbundler task, https://github.com/TheInfiniteKind/appbundler, then creating a DMG with DMG Canvas, https://www.araelium.com/dmgcanvas. Deliberately supporting older systems due to the nature of this data management and back-up application. It's been adapted to the MacOS look 'n feel. Questions: If I sign-up as an Apple Developer and pay the fee will this 2013 Macbook Pro still be able to sign DMG files - that will work on the latest MacOS - after the end-of-support in December 2023? For a updater: Should both the main application and separate updater both be signed? The basic process is: Download updater into system temp folder, prepare and execute updater, stop desktop application, updater downloads new version, prepares and copies update to installed location, then restarts desktop application and ends the updater. I'm old and have setup this Open Source project and web site so that it can be passed-off to others when I stop, one way or another. Can the developer account or certificate credentials be transferred to someone else at that time? Guidance for a noob would be appreciated. Thank you for your time. The project, not released yet: https://github.com/Corionis/ELS/tree/Version-4.0.0
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848
Nov ’23
Anfrage nach Technischen Spezifikationen für iPhone SE (Modellnummer MMXN3ZD/A)
Sehr geehrte Damen und Herren, ich wende mich an Sie als Entwickler im Rahmen eines akademischen Projektes. Aktuell arbeite ich an meiner Bachelorarbeit, in der ich eine mobile Anwendung für iOS-Geräte entwickle. Für den Erfolg dieses Projektes ist es essentiell, präzise Informationen über die Hardware-Komponenten spezifischer iPhone-Modelle zu haben, insbesondere des iPhone SE mit der Modellnummer MMXN3ZD/A und der iOS-Version 17.1.1. Mein Hauptinteresse liegt in den genauen technischen Spezifikationen der im iPhone SE verbauten LEDs und des CCD- oder CMOS-Bildsensors (je nachdem, ******* Typ verwendet wird). Für mein Projekt ist es entscheidend, die spektralen Eigenschaften dieser Komponenten zu verstehen: LED-Spezifikationen: Ich benötige Informationen über die Spektren der LEDs, insbesondere welche Wellenlängen des Lichts sie emittieren. Dies ist relevant für die Funktionalität meiner App, die sich auf fotometrische Analysen stützt. CCD-/CMOS-Sensorspezifikationen: Des Weiteren ist es wichtig für mich zu wissen, für welche Wellenlängen der im Gerät verbaute Sensor empfindlich ist. Diese Information ist kritisch, um die Interaktion zwischen dem Sensor und der beleuchteten Umgebung korrekt zu interpretieren. Die Ergebnisse meiner Forschung und Entwicklung werden nicht nur für meine akademische Arbeit von Bedeutung sein, sondern könnten auch wertvolle Einblicke für die Weiterentwicklung von iOS-Anwendungen in meinem Studienbereich bieten. Ich wäre Ihnen sehr dankbar, wenn Sie mir diese Informationen zur Verfügung stellen könnten oder mich an eine entsprechende Abteilung oder Ressource verweisen würden, wo ich diese spezifischen technischen Daten erhalten kann. Vielen Dank im Voraus für Ihre Unterstützung und Kooperation. Mit freundlichen Grüßen, Mohammad Jbeh
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596
Nov ’23
Mystified by certificate renewal process
I got an email from Apple, "Your Developer ID Installer Certificate will no longer be valid in 30 days". So I went to my certificates page on developer.apple.com, and I see the attached photo. Basically, yes, I have a Developer ID Installer Certificate that expires 2023/07/01; but I also have one that expires 2025/12/08, and one that expires 2026/01/09, and one that expires 2026/12/15, and another that expires 2026/12/16! Why do I have all these certificates? I have no idea. There is a "+" button to add a new one; but given that I already seem to have ones that won't expire for several more years, do I need to? There does not seem to be a "-" button, or any way to clear out this cruft. I then recalled that perhaps I have managed my certificates in Xcode in the past, not on this page (or maybe I have done both, at different times?). So I went to Xcode, and things seem to be rather a mess there too, but in a different way (second image attached). Here, I seem to have lots of stale certificates that are in gray and say "Not in Keychain" – how do I clear those out? Again there does not seem to be a "-" button. And the newer ones that I saw on developer.apple.com do not seem to be listed here, maybe – it's hard to compare, though, because on developer.apple.com it shows the expiration date but not creation date, whereas in Xcode it shows creation date but not expiration date. What should I do? Note that I am not a member of multiple different teams, or anything like that; I'm a solo developer. This stuff is really confusing and does not seem to be well-documented anywhere that I have found. Am I just being dense?
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Mar ’24
Packaging Mac Software for Distribution
IMPORTANT I’m very pleased to report that, due to the hard work of a number of folks at Apple, this DevForums post has been replaced by official documentation: Packaging Mac software for distribution. I’m leaving this post in place as a historical curiosity, but please consult the official documentation going forward. This post is one of a pair of posts, the other one being Creating Distribution-Signed Code for Mac, that replaces my earlier Signing a Mac Product For Distribution post. For more background on this, see the notes at the top of Creating Distribution-Signed Code for Mac. Share and Enjoy — Quinn “The Eskimo!” @ Developer Technical Support @ Apple let myEmail = "eskimo" + "1" + "@" + "apple.com" Packaging Mac Software for Distribution Build a zip archive, disk image, or installer package for distributing your Mac software. Overview Xcode is a great tool for creating and distributing Mac apps. Once you’ve written your code you can upload it to the App Store with just a few clicks. However, Xcode cannot do everything. For example: Some Mac software products are not apps. You might, for example, be creating a product that includes a daemon. Some Mac products include multiple components. Your daemon might include an app to configure it. Some Mac products ship outside of the App Store, and so need to be packaged for distribution. For example, you might choose to distribute your daemon and its configuration app in an installer package. Some Mac products are built with third-party developer tools. If your product cannot be built and distributed using Xcode alone, follow these instructions to package it for distribution. Note If you use a third-party developer tool to build your app, consult its documentation for advice specific to that tool. To start this process you need distribution-signed code. For detailed advice on how to create distribution-signed code, see Creating Distribution-Signed Code for Mac. If you ship your product frequently, create a script to automate the distribution process. Decide on a Container Format To get started, decide on your container format. Mac products support two distribution channels: The Mac App Store, for apps Independent distribution, for apps and non-apps, using Developer ID signing A Mac App Store app must be submitted as an installer package. In contrast, products distributed outside of the Mac App Store use a variety of different container formats, the most common being: Zip archive (.zip) Disk image (.dmg) Installer package (.pkg) You may choose to nest these containers. For example, you might ship an app inside an installer package on a disk image. Nesting containers is straightforward: Just work from the inside out, following the instructions for each container at each step. IMPORTANT Sign your code and each nested container (if the container supports signing). For example, if you ship an app inside an installer package on a disk image, sign the app, then create the installer package, then sign that package, then create the disk image, then sign the disk image. Each container format has its own pros and cons, so choose an approach based on the requirements of your product. Build a Zip Archive If you choose to distribute your product in a zip archive, use the ditto tool to create that archive: Create a directory that holds everything you want to distribute. Run the ditto tool as shown below, where DDD is the path to the directory from step 1 and ZZZ is the path where ditto creates the zip archive. % ditto -c -k --keepParent DDD ZZZ Zip archives cannot be signed, although their contents can be. Build an Installer Package If you choose to distribute your product in an installer package, start by determining your installer signing identity. Choose the right identity for your distribution channel: If you’re distributing an app on the Mac App Store, use a Mac Installer Distribution signing identity. This is named 3rd Party Mac Developer Installer: TTT, where TTT identifies your team. If you’re distributing a product independently, use a Developer ID Installer signing identity. This is named Developer ID Installer: TTT, where TTT identifies your team. For information on how to set up these installer signing identities, see Developer Account Help. Run the following command to confirm that your installer signing identity is present and correct: % security find-identity -v 1) 6210ECCC616B6A72F238DE6FDDFDA1A06DEFF9FB "3rd Party Mac Developer Installer: …" 2) C32E0E68CE92936D5532E21BAAD8CFF4A6D9BAA1 "Developer ID Installer: …" 2 valid identities found The -v argument filters for valid identities only. If the installer signing identity you need is not listed, see Developer Account Help. IMPORTANT Do not use the -p codesigning option to filter for code signing identities. Installer signing identities are different from code signing identities and the -p codesigning option filters them out. If your product consists of a single app, use the productbuild tool to create a simple installer package for it: % productbuild --sign III --component AAA /Applications PPP In this command: III is your installer signing identity. AAA is the path to your app. PPP is the path where productbuild creates the installer package. The above is the simplest possible use of productbuild. If you’re submitting an app to the Mac App Store, that’s all you need. If you have a more complex product, you’ll need a more complex installer package. For more details on how to work with installer packages, see the man pages for productbuild, productsign, pkgbuild, and pkgutil. For instructions on how to read a man page, see Reading UNIX Manual Pages. Build a Disk Image If you choose to distribute your product in a disk image: Create a directory to act as the source for the root directory of your disk image’s volume. Populate that directory with the items you want to distribute. If you’re automating this, use ditto rather than cp because ditto preserves symlinks. Use hdiutil command shown below to create the disk image, where SSS is the directory from step 1 and DDD is the path where hdiutil creates the disk image. Decide on a code signing identifier for this disk image. If you were signing bundled code, you’d use the bundle ID as the code signing identifier. However, disk images have no bundle ID and thus you must choose a code signing identifier for your image. For advice on how to do this, see the Sign Each Code section in Creating Distribution-Signed Code for Mac. Use the codesign command shown below to sign the disk image, where III is your Developer ID Application code signing identity (named Developer ID Application: TTT, where TTT identifies your team), BBB is the code signing identifier you chose in the previous step, and DDD is the path to the disk image from step 3. % hdiutil create -srcFolder SSS -o DDD % codesign -s III --timestamp -i BBB DDD For more information on code signing identities, see the Confirm Your Code Signing section in Creating Distribution-Signed Code for Mac. IMPORTANT Sign your disk image with a code signing identity, not an installer signing identity. There are various third-party tools that configure a disk image for distribution. For example, the tool might arrange the icons nicely, set a background image, and add a symlink to the Applications folder. If you use such a tool, or create your own tool for this, make sure that the resulting disk image: Is signed with your Developer ID Application code signing identity Is a UDIF-format read-only zip-compressed disk image (type UDZO) Submit Your App to the Mac App Store If you’re creating an app for the Mac App Store, submit your signed installer package using either the altool command-line tool or the Transporter app. For detailed instructions, see App Store Connect Help > Reference > Upload tools. Notarize Your Product If you’re distributing outside of the Mac App Store, notarize the file you intend to distribute to your users. For detailed instructions, see Customizing the Notarization Workflow. Skip the Export a Package for Notarization section because you already have the file that you want to submit. If you’re using nested containers, only notarize the outermost container. For example, if you have an app inside an installer package on a disk image, sign the app, sign the installer package, and sign the disk image, but only notarize the disk image. The exception to this rule is if you have a custom third-party installer. In that case, see the discussion in Customizing the Notarization Workflow. Staple Your Product Once you’ve notarized your product, staple the resulting ticket to the file you intend to distribute. Staple the Ticket to Your Distribution discusses how to do this for an app within a zip archive. The other common container formats, installer packages and disk images, support stapling directly. For example, to staple a tick to a disk image: % xcrun stapler staple FlyingAnimals.dmg Stapling is recommended but not mandatory. However, if you don’t staple a user might find that your product is blocked by Gatekeeper if they try to install or use it while the Mac is offline. Revision History 2024-02-19 Added a preamble that links to the official documentation, Packaging Mac software for distribution. 2022-03-01 First posted.
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8.8k
Feb ’24
Creating Distribution-Signed Code for Mac
IMPORTANT I’m very pleased to report that, due to the hard work of a number of folks at Apple, this DevForums post has been replaced by official documentation: Creating distribution-signed code for macOS. I’m leaving this post in place as a historical curiosity, but please consult the official documentation going forward. This post is one of a pair of posts, the other one being Packaging Mac Software for Distribution, that replaces my earlier Signing a Mac Product For Distribution post. Over the past year I’ve been trying to convert my most useful code signing posts here on DevForums to official documentation, namely: Placing Content in a Bundle Updating Mac Software Signing a Daemon with a Restricted Entitlement Embedding a Command-Line Tool in a Sandboxed App Embedding Nonstandard Code Structures in a Bundle Unfortunately in the past month or so my Day Job™, answering developer questions for DTS, has become super busy, and so I’ve not had chance to complete this work by publish a replacement for Signing a Mac Product For Distribution. This post, and Packaging Mac Software for Distribution, represent the current state of that effort. I think these are sufficiently better than Packaging Mac Software for Distribution to warrant posting them here on DevForums while I wait for the quiet time needed to finish the official work. Share and Enjoy — Quinn “The Eskimo!” @ Developer Technical Support @ Apple let myEmail = "eskimo" + "1" + "@" + "apple.com" Creating Distribution-Signed Code for Mac Sign Mac code for distribution using either Xcode or command-line tools. Overview Before shipping a software product for the Mac, you must first create distribution-signed code, that is, code that you can package up and then submit to either the Mac App Store or the notary service. The way you do this depends on the nature of your product and how it was built: If your product is a standalone app, possibly with nested code such as an app extension, that you build using Xcode, use Xcode to export a distribution-signed app. If your product isn't a standalone app, but you build it using Xcode, create an Xcode archive, and then manually export distribution-signed code from that archive. If you build your product using an external build system, such as make, add a manual signing step to your build system. Once you have distribution-signed code, package it for distribution. For more information, see Packaging Mac Software for Distribution. Note If you use a third-party developer tool to build your app, consult its documentation for advice specific to that tool. Export an App from Xcode If your product is a standalone app that you build with Xcode, follow these steps to export a distribution-signed app: Build an Xcode archive from your project. Export a distribution-signed app from that Xcode archive. You can complete each step from the Xcode app or automate the steps using xcodebuild. To build an Xcode archive using the Xcode app, select your app’s scheme and choose Product > Archive. This creates the Xcode archive and selects it in the organizer. To create a distribution-sign app from that archive, select the archive in the organizer, click Distribute App, and follow the workflow from there. Note If the button says Distribute Content rather than Distribute App, your archive has multiple items in its Products directory. Make sure that every target whose output is embedded in your app has the Skip Install (SKIP_INSTALL) build setting set; this prevents the output from also being copied into the Xcode archive’s Products directory. For more on this, see TN3110 Resolving generic Xcode archive issue. For more information about the Xcode archives and the organizer, see Distributing Your App for Beta Testing and Releases. To build an Xcode archive from the command line, run xcodebuild with the archive action. Once you have an Xcode archive, export a distribution-signed app by running xcodebuild with the -exportArchive option. For more information about xcodebuild, see its man page. For instructions on how to read a man page, see Reading UNIX Manual Pages. For information about the keys supported by the export options property list, run xcodebuild with the -help argument. Export a Non-App Product Built with Xcode If you build your product with Xcode but it’s not a standalone app, you can build an Xcode archive using the techniques described in the previous section but you cannot export distribution-signed code from that archive. The Xcode organizer and the -exportArchive option only work for standalone apps. To export a distribution-signed product from the Xcode archive: Copy the relevant components from the archive. Sign those components manually. The exact commands for doing this vary depending on how your product is structured, so let’s consider a specific example. Imagine your product is a daemon but it also has an associated configuration app. Moreover, the configuration app has a share extension, and an embedded framework to share code between the app and the extension. When you build an Xcode archive from this project it has this structure: DaemonWithApp.xcarchive/ Info.plist Products/ usr/ local/ bin/ Daemon Applications/ ConfigApp.app/ Contents/ embedded.provisionprofile Frameworks/ Core.framework/ … PlugIns/ Share.appex/ Contents/ embedded.provisionprofile … … … The Products directory contains two items: the daemon itself (Daemon) and the configuration app (ConfigApp.app). To sign this product, first copy these items out of the archive: % mkdir "to-be-signed" % ditto "DaemonWithApp.xcarchive/Products/usr/local/bin/Daemon" "to-be-signed/Daemon" % ditto "DaemonWithApp.xcarchive/Products/Applications/ConfigApp.app" "to-be-signed/ConfigApp.app" IMPORTANT When you copy code, use ditto rather than cp. ditto preserves symlinks, which are critical to the structure of Mac frameworks. For more information on this structure, see Placing Content in a Bundle. Symlinks are also useful when dealing with nonstandard code structures. For more details, see Embedding Nonstandard Code Structures in a Bundle. The code you copy from the Xcode archive is typically development-signed: % codesign -d -vv to-be-signed/Daemon … Authority=Apple Development: … … To ship this code, you need to re-sign it for distribution. Confirm Your Code Signing Identity To sign code for distribution you need a code signing identity. Choose the right identity for your distribution channel: If you’re distributing an app on the Mac App Store, use an Apple Distribution code signing identity. This is named Apple Distribution: TTT, where TTT identifies your team. Alternatively, you can use the old school Mac App Distribution code signing identity. This is named 3rd Party Mac Developer Application: TTT, where TTT identifies your team. If you’re distributing a product independently, use a Developer ID Application code signing identity. This is named Developer ID Application: TTT, where TTT identifies your team. For information on how to set up these code signing identities, see Developer Account Help. To confirm that your code-signing identity is present and correct, run the following command: % security find-identity -p codesigning -v 1) A06E7F3F8237330EE15CB91BE1A511C00B853358 "Apple Distribution: …" 2) ADC03B244F4C1018384DCAFFC920F26136F6B59B "Developer ID Application: …" 2 valid identities found The -p codesigning argument filters for code-signing identities. The -v argument filters for valid identities only. If the code-signing identity that you need isn't listed, see Developer Account Help. Each output line includes a SHA-1 hash that uniquely identifies the identity. If you have multiple identities with the same name, sign your code using this hash rather than the identity name. Identify the Code to Sign To sign your product, first identify each code item that you need to sign. For example, in the DaemonWithApp product, there are four code items: ConfigApp.app, Core.framework, Share.appex, and Daemon. For each code item, determine the following: Is it bundled code? Is it a main executable? IMPORTANT For a code item to be considered bundled code it must be the main code within a bundle. If, for example, you have an app with a nested helper tool, there are two code items: the app and the helper tool. The app is considered bundle code but the helper tool is not. In some cases, it might not be obvious whether the code item is a main executable. To confirm, run the file command. A main executable says Mach-O … executable. For example: % file "to-be-signed/ConfigApp.app/Contents/Frameworks/Core.framework/Versions/A/Core" … … Mach-O 64-bit dynamically linked shared library x86_64 … % file "to-be-signed/ConfigApp.app/Contents/PlugIns/Share.appex/Contents/MacOS/Share" … … Mach-O 64-bit executable x86_64 … The Core.framework is not a main executable but Share.appex is. To continue the DaemonWithApp example, here’s a summary of this info for each of its code items: | Code Item | Bundled Code? | Main Executable | | --------- | ------------- | --------------- | | ConfigApp.app | yes | yes | | Core.framework | yes | no | | Share.appex | yes | yes | | Daemon | no | yes | Determine the Signing Order Sign code from the inside out. That is, if A depends on B, sign B before you sign A. For the DaemonWithApp example, the signing order for the app is: Core.framework Share.appex ConfigApp.app The app and daemon are independent, so you can sign them in either order. Configure Your Entitlements A code signature may include entitlements. These key-value pairs grant an executable permission to use a service or technology. For more information about this, see Entitlements. Entitlements only make sense on a main executable. When a process runs an executable, the system grants the process the entitlements claimed by its code signature. Do not apply entitlements to library code. It doesn’t do anything useful and can prevent your code from running. When signing a main executable, decide whether it needs entitlements. If so, create an entitlements file to use when signing that executable. This entitlements file is a property list containing the key-value pairs for the entitlements that the executable claims. If you build your product with Xcode, you might be able to use the .entitlements file that Xcode manages in your source code. If not, create the .entitlements file yourself. IMPORTANT The entitlements file must be a property list in the standard XML format with LF line endings, no comments, and no BOM. If you’re not sure of the file’s provenance, use plutil to convert it to the standard format. For specific instructions, see Ensure Properly Formatted Entitlements. If you have a development-signed version of your program you can get a head start on this by dumping its entitlements. For example: % codesign -d --entitlements - --xml "to-be-signed/ConfigApp.app" | plutil -convert xml1 -o - - … <dict> <key>com.apple.application-identifier</key> <string>SKMME9E2Y8.com.example.apple-samplecode.DaemonWithApp.App</string> <key>com.apple.developer.team-identifier</key> <string>SKMME9E2Y8</string> <key>com.apple.security.app-sandbox</key> <true/> <key>keychain-access-groups</key> <array> <string>SKMME9E2Y8.com.example.apple-samplecode.DaemonWithApp.SharedKeychain</string> </array> </dict> </plist> Keep in mind that some entitlements vary between development and distribution builds. For example: The value of the APS Environment (macOS) Entitlement changes from development to production. The com.apple.security.get-task-allow entitlement allows the debugger to attach to your program, so you rarely apply it to a distribution-signed program. To check whether an entitlement varies in distribution builds, see the documentation for that specific entitlement in Entitlements. For information about when it makes sense to distribute a program signed with the get-task-allow entitlement, see Avoid the Get-Task-Allow Entitlement section in Resolving Common Notarization Issues). Embed Distribution Provisioning Profiles In general, all entitlement claims must be authorized by a provisioning profile. This is an important security feature. For example, the fact that the keychain-access-groups entitlement must be authorized by a profile prevents other developers from shipping an app that impersonates your app in order to steal its keychain items. However, macOS allows programs to claim some entitlements without such authorization. These unrestricted entitlements include: com.apple.security.get-task-allow com.apple.security.application-groups Those used to enable and configure the App Sandbox Those used to configure the Hardened Runtime If your program claims a restricted entitlement, include a distribution provisioning profile to authorize that claim: Create the profile on the developer web site. Copy that profile into your program’s bundle. Note If your product includes a non-bundled executable that uses a restricted entitlement, package that executable in an app-like structure. For details on this technique, see Signing a Daemon with a Restricted Entitlement. To create a distribution provisioning profile, follow the instructions in Developer Account Help. Make sure to choose a profile type that matches your distribution channel (Mac App Store or Developer ID). Once you have a distribution provisioning profile, copy it into your program’s bundle. For information about where to copy it, see Placing Content in a Bundle. To continue the DaemonWithApp example, the configuration app and its share extension use a keychain access group to share secrets. The system grants the programs access to that group based on their keychain-access-groups entitlement claim, and such claims must be authorized by a provisioning profile. The app and the share extension each have their own profile. To distribute the app, update the app and share extension bundles with the corresponding distribution provisioning profile: % cp "ConfigApp-Dist.provisionprofile" "to-be-signed/ConfigApp.app/Contents/embedded.provisionprofile" % cp "Share-Dist.provisionprofile" "to-be-signed/ConfigApp.app/Contents/PlugIns/Share.appex/Contents/embedded.provisionprofile" Modifying the app in this way will break the seal on its code signature. This is fine because you are going to re-sign the app before distributing it. IMPORTANT If you’re building your product with Xcode then you might find that Xcode has embedded a provisioning profile within your bundle. This is a development provisioning profile. You must replace it with a distribution provisioning profile. Sign Each Code Item For all code types, the basic codesign command looks like this: % codesign -s III PPP Here III is the name of the code signing identity to use and PPP is the path to the code to sign. The specific identity you use for III varies depending on your distribution channel, as discussed in Confirm Your Code Signing, above. Note If you have multiple identities with the same name, supply the identity’s SHA-1 hash to specify it unambiguously. For information on how to get this hash, see Confirm Your Code Signing, above. When signing bundled code, as defined in Identify the Code to Sign, above, use the path to the bundle for PPP, not the path to the bundle’s main code. If you’re re-signing code — that is, the code you’re signing is already signed — add the -f option. If you’re signing a main executable that needs entitlements, add the --entitlements EEE option, where EEE is the path to the entitlements file for that executable. For information on how to create this file, see Configure Your Entitlements, above. If you’re signing for Developer ID distribution, add the --timestamp option to include a secure timestamp. If you’re signing a main executable for Developer ID distribution, add the -o runtime option to enable the Hardened Runtime. For more information about the Hardened Runtime, see Hardened Runtime. If you’re signing non-bundled code, add the -i BBB option to set the code signing identifier. Here BBB is the bundle ID the code would have if it had a bundle ID. For example, if you have an app whose bundle ID is com.example.flying-animals that has a nested command-line tool called pig-jato, the bundle ID for that tool would logically be com.example.flying-animals.pig-jato, and that’s a perfectly fine value to use for BBB. Note For bundled code, you don’t need to supply a code signing identifier because codesign defaults to using the bundle ID. Repeat this signing step for every code item in your product, in the order you established in Determine the Signing Order, above. If you have a complex product with many code items to sign, create a script to automate this process. Here's the complete sequence of commands to sign the DaemonWithApp example for Developer ID distribution: % codesign -s "Developer ID Application" -f --timestamp "to-be-signed/ConfigApp.app/Contents/Frameworks/Core.framework" to-be-signed/ConfigApp.app/Contents/Frameworks/Core.framework: replacing existing signature % codesign -s "Developer ID Application" -f --timestamp -o runtime --entitlements "Share.entitlements" "to-be-signed/ConfigApp.app/Contents/PlugIns/Share.appex" to-be-signed/ConfigApp.app/Contents/PlugIns/Share.appex: replacing existing signature % codesign -s "Developer ID Application" -f --timestamp -o runtime --entitlements "ConfigApp.entitlements" "to-be-signed/ConfigApp.app" to-be-signed/ConfigApp.app: replacing existing signature % codesign -s "Developer ID Application" -f --timestamp -o runtime -i "com.example.apple-samplecode.DaemonWithApp.Daemon" "to-be-signed/Daemon" to-be-signed/Daemon: replacing existing signature Consider Deep Harmful When signing code, do not pass the --deep option to codesign. This option is helpful in some specific circumstances but it will cause problems when signing a complex product. Specifically: It applies the same code signing options to every code item that it signs, something that’s not appropriate. For example, you might have an app with an embedded command-line tool, where the app and the tool need different entitlements. The --deep option will apply the same entitlements to both, which is a serious mistake. It only signs code that it can find, and it only finds code in nested code sites. If you put code in a place where the system is expecting to find data, --deep won’t sign it. The first issue is fundamental to how --deep works, and is the main reason you should avoid it. The second issue is only a problem if you don’t follow the rules for nesting code and data within a bundle, as documented in Placing Content in a Bundle. Revision History 2024-02-19 Added a preamble that links to the official documentation, Creating distribution-signed code for macOS. 2022-08-17 Updated the Confirm Your Code Signing Identity section to cover Apple Distribution code signing identities. Added a link to TN3110. 2022-03-01 First posted.
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9.3k
Feb ’24
Transfer developer account to a new computer?
Hello, I've just got a new computer and now I want to transfer my developer account (certificates, keys etc.) to the new computer. Right now my developer membership has expired since I'm not doing any apps right now, but I might start again in the future. I'm not sure if I need to transfer anything, or if I will just get new certificates and keys when (if) I restart my membership? What do I need do, before I reset my old computer? I have developed apps for both for iOS and macOS.
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3.7k
Jun ’24
Unpacking Apple Archives
I support Mac code signing and notarisation for DTS and, as part of that work, I often need to look inside various Apple-specific archive file formats. This post explains how I do this. It’s mostly for the benefit of Future Quinn™, but I figured other folks would appreciate it as well. IMPORTANT This post explains low-level techniques for inspecting archives. Do not use them to create archives. Instead, create your archives using the highest-level tool that will get the job done [1]. Flat Installer Package A flat installer package — appropriate for uploading to the Mac App Store or the notary service — is actually a xar archive. Unpack it using the xar tool. For example: % # List the contents: % % xar -tf InstallTest-1.0d1.pkg com.example.apple-samplecode.InstallTest.pkg com.example.apple-samplecode.InstallTest.pkg/Bom com.example.apple-samplecode.InstallTest.pkg/Payload com.example.apple-samplecode.InstallTest.pkg/PackageInfo Distribution % % # Actually unpack: # % mkdir tmp % cd tmp % xar -xf ../InstallTest-1.0d1.pkg % find . . ./Distribution ./com.example.apple-samplecode.InstallTest.pkg ./com.example.apple-samplecode.InstallTest.pkg/Bom ./com.example.apple-samplecode.InstallTest.pkg/Payload ./com.example.apple-samplecode.InstallTest.pkg/PackageInfo See the xar man page for more info on that tool. The resulting Bom file is a ‘bill of materials’. For more on this, see the bom man page for details. Use lsbom to dump this: % lsbom ./com.example.apple-samplecode.InstallTest.pkg/Bom . 0 0/0 ./InstallTest.app … ./InstallTest.app/Contents … ./InstallTest.app/Contents/Info.plist … ./InstallTest.app/Contents/MacOS … ./InstallTest.app/Contents/MacOS/InstallTest … … The Payload file contains… you guessed it… the installer’s payload. This is a gzipped cpio archive. To unpack it, pipe the file through cpio: % cpio -i < com.example.apple-samplecode.InstallTest.pkg/Payload 5072 blocks % find InstallTest.app InstallTest.app InstallTest.app/Contents InstallTest.app/Contents/Info.plist InstallTest.app/Contents/MacOS InstallTest.app/Contents/MacOS/InstallTest … See the cpio man page for more info on that tool. Note This is a bit of a hassle so most of the time I use a third-party app to unpack installer packages. Which one? Well, I can’t give away all my secrets (-: Xip Archives To extract a xip archive (pronounced, I believe, as chip archive), run the xip tool with the --expand argument: % xip --expand XipTest.xip However, if that doesn’t work you’ll need to dig into the archive. First, undo the outer xar wrapper: % xar -xf XipTest.xip This produces two files, Content and Metadata: % ls -l total 7552 -rw-r--r-- 1 quinn staff 1683391 10 Jun 17:05 Content -rw-r--r-- 1 quinn staff 287 10 Jun 17:08 Metadata -rw-r--r-- 1 quinn staff 1697157 10 Jun 17:05 XipTest.xip The Metadata file is an XML property list: % cat Metadata … <dict> <key>UncompressedSize</key> <integer>2598653</integer> <key>Version</key> <integer>1</integer> </dict> </plist> The Content file is an Apple Archive. Unpack this using the aa tool: % aa extract -ignore-eperm -i Content -d tmp % find tmp tmp tmp/XipTest tmp/XipTest/XipTest.app tmp/XipTest/XipTest.app/Contents tmp/XipTest/XipTest.app/Contents/Info.plist tmp/XipTest/XipTest.app/Contents/MacOS tmp/XipTest/XipTest.app/Contents/MacOS/QCodeIndex tmp/XipTest/XipTest.app/Contents/MacOS/XipTest … See the aa man page for more info on that tool. Note aa was previously known as yaa. iOS App Archives iOS apps are stored in an .ipa file. This is actually a zip archive under the covers. To unpack it, change the file name extension to .zip and then double click it it in the Finder (or use your favourite unzipping tool, like unzip or ditto). Share and Enjoy — Quinn “The Eskimo!” @ Developer Technical Support @ Apple let myEmail = "eskimo" + "1" + "@" + "apple.com" [1] For installer package specifically, productbuild is your friend, but you can also use the lower-level tools like productsign, pkgbuild, and pkgutil. Revision History 2024-02-20 Added the iOS App Archives section. Added a note about third-party apps to the end of the Flat Installer Package section. 2022-09-30 Changed yaa to aa and added a reference to the Apple Archive framework. 2021-02-26 Fixed the formatting. 2020-06-10 First posted.
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Feb ’24