The M1 chip brings up to 16GB of super-fast unified memory. This single pool of high-bandwidth, low-latency memory allows apps to share data between the CPU, GPU and Neural Engine efficiently — so everything you do is fast and fluid.

The M1 chip and macOS Big Sur give Mac mini advanced security and privacy features beyond anything in its class, helping to keep your system and your data protected. Dedicated AES storage encryption engine Keeps encryption keys safe while delivering incredible performance for encrypted storage and data protection.

Secure boot and runtime security features Ensures that only trusted Apple software loads at startup and helps protect macOS while running. Mac mini turns any desk into a powerful workstation. Just add a keyboard, mouse or trackpad, and up to two displays. The discrete-class GPU performance of the M1 chip lets you play graphics-intensive games with fluid frame rates and higher fidelity. Open this page using Safari on your iPhone or iPad. See Mac mini in AR.

Learn more. Learn about Mac in business. Mac mini. Please upgrade your browser to improve your experience. Find out more. Some existing platforms do not reliably transition to S5 with wake events enabled for example, the platform may immediately generate a spurious wake event after completing the S5 transition.

This flag allows OSPM to differentiate correctly functioning platforms from platforms with this type of errata. A one indicates that all local APICs must be configured for the cluster destination model when delivering interrupts in logical mode. A one indicates that all local xAPICs must be configured for physical destination mode.

If this bit is set, interrupt delivery operation in logical destination mode is undefined. A one informs OSPM that the platform is able to achieve power savings in S0 similar to or better than those typically achieved in S3. In effect, when this bit is set it indicates that the system will achieve no power benefit by making a sleep transition to S3.

Most often contains one processor. Must be connected to AC power to function. This device is used to perform work that is considered mainstream corporate or home computing for example, word processing, Internet browsing, spreadsheets, and so on. A single-user, full-featured, portable computing device that is capable of running on batteries or other power storage devices to perform its normal functions.

This device performs the same task set as a desktop. Often contains more than one processor. A multi-user, stationary computing device that frequently resides in a separate, often specially designed, room. Will almost always contain more than one processor. This device is used to support large-scale networking, database, communications, or financial operations within a corporation or government.

A multi-user, stationary computing device that frequently resides in a separate area or room in a small or home office. May contain more than one processor. This device is generally used to support all of the networking, database, communications, and financial operations of a small office or home office.

A multi-user stationary computing device that frequently resides in a separate, often specially designed room. Will often contain more than one processor.

This device is used in an environment where power savings features are willing to be sacrificed for better performance and quicker responsiveness. A full-featured, highly mobile computing device which resembles writing tablets and which users interact with primarily through a touch interface.

Tablet devices typically run on battery power and are generally only plugged into AC power in order to charge. This device performs many of the same tasks as Mobile; however battery life expectations of Tablet devices generally require more aggressive power savings especially for managing display and touch components. This set of flags is used by the OS to assist in determining assumptions about power and device management. These flags are read at boot time and are used to make decisions about power management and device settings.

These flags are used by an OS at boot time before the OS is capable of providing an operating environment suitable for parsing the ACPI namespace to determine the code paths to take during boot. For example, if there are no ISA devices, an OS could skip code that assumes the presence of these devices and their associated resources. These flags are used independently of the ACPI namespace. On other system architectures, the entire field should be set to 0. User-visible devices are devices that have end-user accessible connectors for example, LPT port , or devices for which the OS must load a device driver so that an end-user application can use a device.

If clear, the OS may assume there are no such devices and that all devices in the system can be detected exclusively via industry standard device enumeration mechanisms including the ACPI namespace.

If set, indicates that the motherboard contains support for a port 60 and 64 based keyboard controller, usually implemented as an or equivalent micro-controller. For example, the E address map reporting interface would report the region as AddressRangeReserved. For more information, see Section This value is 64 bytes or larger. This value is calculated by the platform boot firmware on a best effort basis to indicate the base hardware configuration of the system such that different base hardware configurations can have different hardware signature values.

Any change to the data in Persistent Memory itself should not be included in computing the hardware signature. OSPM uses this information in waking from an S4 state, by comparing the current hardware signature to the signature values saved in the non-volatile sleep image.

If the values are not the same, OSPM assumes that the saved non-volatile image is from a different hardware configuration and cannot be restored. The bit address field where OSPM puts its waking vector. Before transitioning the system into a global sleeping state, OSPM fills in this field with the physical memory address of an OS-specific wake function. On PCs, the wake function address is in memory below 1 MB and the control is transferred while in real mode.

If, for example, the physical address is 0x, then the BIOS must jump to real mode address 0xx This field contains the Global Lock used to synchronize access to shared hardware resources between the OSPM environment and an external controller environment for example, the SMI environment.

This lock is owned exclusively by either OSPM or the firmware at any one time. When ownership of the lock is attempted, it might be busy, in which case the requesting environment exits and waits for the signal that the lock has been released. For example, the Global Lock can be used to protect an embedded controller interface such that only OSPM or the firmware will access the embedded controller interface at any one time. Memory address translation must be disabled The processor must have psr.

For IA 32 and x64 platforms, platform firmware is required to support a 32 bit execution environment. Platform firmware can additionally support a 64 bit execution environment. Otherwise, the platform firmware creates a 32 bit execution environment.

IF set to 0 Long mode enabled Paging mode is enabled and physical memory for waking vector is identity mapped virtual address equals physical address Waking vector must be contained within one physical page Selectors are set to be flat and are otherwise not used For 32 bit execution environment: Interrupts must be disabled EFLAGS.

OSPM enabled firmware control structure flags. Platform firmware must initialize this field to zero. Indicates that the platform firmware supports a 64 bit execution environment for the waking vector. Note: this is not a pointer to the Global Lock, it is the actual memory location of the lock. By convention, this lock is used to ensure that while one environment is accessing some hardware, the other environment is not. When releasing the lock, if the pending bit in the lock is set after the lock is released, a signal is sent via an interrupt mechanism to the other environment to inform it that the lock has been released.

If non-zero is returned by the function, the caller has been granted ownership of the Global Lock and can proceed. If non-zero is returned, the caller must raise the appropriate event to the other environment to signal that the Global Lock is now free.

This signal only occurs when the other environment attempted to acquire ownership while the lock was owned. Although using the Global Lock allows various hardware resources to be shared, it is important to notice that its usage when there is ownership contention could entail a significant amount of system overhead as well as waits of an indeterminate amount of time to acquire ownership of the Global Lock.

For this reason, implementations should try to design the hardware to keep the required usage of the Global Lock to a minimum. The Global Lock is required whenever a logical register in the hardware is shared.

Similarly if the entire register is shared, as the case might be for the embedded controller interface, access to the register needs to be protected under the Global Lock. The top-level organization of this information after a definition block is loaded is name-tagged in a hierarchical namespace. As mentioned, the AML Load and LoadTable operators make it possible for a Definition Block to load other Definition Blocks, either statically or dynamically, where they in turn can either define new system attributes or, in some cases, build on prior definitions.

Although this gives the hardware the ability to vary widely in implementation, it also confines it to reasonable boundaries. In some cases, the Definition Block format can describe only specific and well-understood variances. Some AML operators perform simple functions, and others encompass complex functions.

The power of the Definition block comes from its ability to allow these operations to be glued together in numerous ways, to provide functionality to OSPM. The AML operators defined in this specification are intended to allow many useful hardware designs to be easily expressed, not to allow all hardware designs to be expressed.

Existing ACPI definition block implementations may contain an inherent assumption of a bit integer width. Therefore, to maintain backwards compatibility, OSPM uses the Revision field, in the header portion of system description tables containing Definition Blocks, to determine whether integers declared within the Definition Block are to be evaluated as bit or bit values.

A Revision field value greater than or equal to 2 signifies that integers declared within the Definition Block are to be evaluated as bit values. See Section This field also sets the global integer width for the AML interpreter.

Values less than two will cause the interpreter to use bit integers and math. Values of two and greater will cause the interpreter to use full bit integers and math. There can be multiple SSDTs present. This allows the OEM to provide the base support in one table and add smaller system options in other tables. For example, the OEM might put dynamic object definitions into a secondary table such that the firmware can construct the dynamic information at boot without needing to edit the static DSDT.

The ACPI interrupt model describes all interrupts for the entire system in a uniform interrupt model implementation. The choice of the interrupt model s to support is up to the platform designer. The interrupt model cannot be dynamically changed by the system firmware; OSPM will choose which model to use and install support for that model at the time of installation. If a platform supports multiple models, an OS will install support for only one of the models; it will not mix models.

Multi-boot capability is a feature in many modern operating systems. This means that a system may have multiple operating systems or multiple instances of an OS installed at any one time. Platform designers must allow for this. Only legacy systems should continue with this usage. A list of interrupt controller structures for this implementation. This list will contain all of the structures from Interrupt Controller Structure Types needed to support this platform. These structures are described in the following sections.

A one indicates that the system also has a PC-AT-compatible dual setup. Immediately after the Flags value in the MADT is a list of interrupt controller structures that declare the interrupt features of the machine. The first byte of each structure declares the type of that structure and the second byte declares the length of that structure.

OSPM implementations may limit the number of supported processors on multi-processor platforms. OSPM executes on the boot processor to initialize the platform including other processors. To ensure that the boot processor is supported post initialization, two guidelines should be followed.

The second is that platform firmware should list the boot processor as the first processor entry in the MADT. The advent of multi-threaded processors yielded multiple logical processors executing on common processor hardware.

ACPI defines logical processors in an identical manner as physical processors. To ensure that non multi-threading aware OSPM implementations realize optimal performance on platforms containing multi-threaded processors, two guidelines should be followed. The second is that platform firmware should list the first logical processor of each of the individual multi-threaded processors in the MADT before listing any of the second logical processors.

This approach should be used for all successive logical processors. Failure of OSPM implementations and platform firmware to abide by these guidelines can result in both unpredictable and non optimal platform operation. OSPM does not expect the information provided in this table to be updated if the processor information changes during the lifespan of an OS boot.

Note that the use of the Processor declaration operator is deprecated. See the description at the beginning of this section for more information. Local APIC flags. See the following table Table 5. If this bit is set the processor is ready for use. If this bit is clear and the Online Capable bit is set, system hardware supports enabling this processor during OS runtime. The information conveyed by this bit depends on the value of the Enabled bit. If the Enabled bit is set, this bit is reserved and must be zero.

Otherwise, if this this bit is set, system hardware supports enabling this processor during OS runtime. For more information on global system interrupts see Section 5.

When OSPM supports the model, it will assume that all interrupt descriptors reporting global system interrupts correspond to IRQs. In the model all global system interrupts greater than 15 are ignored. For more information on hardware resource configuration see Section 6. Most existing APIC designs, however, will contain at least one exception to this assumption. The Interrupt Source Override Structure is provided in order to describe these exceptions. Only those that are not identity-mapped onto the APIC interrupt inputs need be described.

Interrupt Source Overrides are also necessary when an identity mapped interrupt input has a non-standard polarity. Any source that is non-maskable will not be available for use by devices. A value of 0xFF signifies that this applies to all processors in the machine. The Global System Interrupt Base field remains unchanged but has been moved.

A new address and reserved field have been added. The use of the Processor statement is deprecated. If a platform can generate an interrupt after correcting platform errors e. Some systems may restrict the retrieval of corrected platform error information to a specific processor. In such cases, the firmware indicates the processor that can retrieve the corrected platform error information through the Processor ID and EID fields in the structure below. On platforms where the retrieval of corrected platform error information can be performed on any processor, the firmware indicates this capability by setting the CPEI Processor Override flag in the Platform Interrupt Source Flags field of the structure below.

It is allowed for such an entry to refer to a Global System Interrupt that is already specified by a Platform Interrupt Source Structure provided through the static MADT table, provided the value of platform interrupt source flags are identical.

Platform Interrupt Source Flags. See Platform Interrupt Source Flags for a description of this field. When a logical processor is not present, the processor local X2APIC information is either not reported or flagged as disabled. If it is not supported by the implementation, then this field must be zero.

If the platform is not presenting a GICv2 with virtualization extensions this field can be 0. Address of the GIC virtual interface control block registers. On systems supporting GICv3 and above, this field holds the bit physical address of the associated Redistributor. If all of the GIC Redistributors are in the always-on power domain, GICR structures should be used to describe the Redistributors instead, and this field must be set to 0.

Describes the relative power efficiency of the associated processor. Lower efficiency class numbers are more efficient than higher ones e. This interrupt is a level triggered PPI. Zero if SPE is not supported by this processor. If zero, this processor is unusable, and the operating system support will not attempt to use it.

The frame also includes registers to discover the set of distributor lines which may be signaled by MSIs from that frame. A system may have multiple MSI frames, and separate frames may be defined for secure and non-secure access. This structure must only be used to describe non-secure MSI frames. SPI Count used by this frame. SPI Base used by this frame. GICR structures should only be used when describing GIC implementations which conform to version 3 or higher of the GIC architecture and which place all Redistributors in the always-on power domain.

The platform firmware publishes a multiprocessor wakeup structure to let the bootstrap processor wake up application processors with a mailbox. The mailbox is memory that the firmware reserves so that each processor can have the OS send a message to them. During system boot, the firmware puts the application processors in a state to check the mailbox.

The firmware is not allowed to modify the mailbox location when the firmware transfer the control to an OS loader. The mailbox is broken down into two 2KB sections: an OS section and a firmware section.

The OS section can only be written by OS and read by the firmware, except the command field. The application processor need clear the command to Noop 0 as the acknowledgement that the command is received. The firmware must cache the content in the mailbox which might be used later before clear the command such as WakeupVector.

Only after the command is changed to Noop 0 , the OS can send the next command. The firmware section must be considered read-only to the OS and is only to be written to by the firmware. All data communication between the OS and FW must be in little endian format. For each application processor, the mailbox can be used only once for the wakeup command.

After the application process takes the action according to the command, this mailbox will no longer be checked by this application processor. Other processors can continue using the mailbox for the next command. Physical address of the mailbox. It must also be 4K bytes aligned. They are used to virtualize interrupts in tables and in ASL methods that perform resource allocation of interrupts. There are two interrupt models used in ACPI-enabled systems. The first model is the APIC model.

This mapping is depicted in the following figure. If the platform supports batteries as defined by the Smart Battery Specification 1. This table indicates the energy level trip points that the platform requires for placing the system into the specified sleeping state and the suggested energy levels for warning the user to transition the platform into a sleeping state.

OSPM uses these tables with the capabilities of the batteries to determine the different trip points. For more precise definitions of these levels, see Section 3. This optional table provides the processor-relative, translated resources of an Embedded Controller. The presence of this table allows OSPM to provide Embedded Controller operation region space access before the namespace has been evaluated.

If this table is not provided, the Embedded Controller region space will not be available until the Embedded Controller device in the AML namespace has been discovered and enumerated. Contains the processor-relative address, represented in Generic Address Structure format, of the Embedded Controller Data register.

Quotes are omitted in the data field. See Section 6. Length, in bytes, of the entire SRAT. The length implies the number of Entry fields at the end of the table.

A list of static resource allocation structures for the platform. This allows system firmware to populate the SRAT with a static number of structures but only enable them as necessary.

The Memory Affinity structure provides the following topology information statically to the operating system:. Flags – Memory Affinity Structure. Indicates whether the region of memory is enabled and can be hot plugged. See the corresponding table below for more details.

This allows system firmware to populate the SRAT with a static number of structures but only enable then as necessary. If the Enabled bit is set and the Hot Pluggable bit is also set. The system hardware supports hot-add and hot-remove of this memory region If the Enabled bit is set and the Hot Pluggable bit is clear, the system hardware does not support hot-add or hot-remove of this memory region.

See the corresponding table below for a description of this field. This enables the OSPM to discover the memory that is closest to the ITS, and use that in allocating its management tables and command queue.

The Generic Initiator Affinity Structure provides the association between a generic initiator and the proximity domain to which the initiator belongs.

Device Handle of the Generic Initiator. Firaxis delays Marvel’s Midnight Suns, maybe until Khalid , People spent much less time watching gaming streams this spring, report says By K. Holt , Saveable history with alternate futures. The UI has been created to give you the best user experience possible so you can spend more time creating. Timesaving tools such as Select Same and Select Object allow you to efficiently match attributes or select all objects of a certain type for easy editing, while studio presets for the UI layout allow you to save your favourite workspace setups for different tasks and easily switch between them.

Whether on Windows, Mac or iPad, the file format is exactly the same. Affinity Designer is full of tools meticulously developed for achieving high productivity, while maintaining percent accurate geometry. Effortlessly add a contour to any object or increase the width of single open curves.

The options you have for setting up grids and guides is almost unlimited. This is what we mean by power. From the beginning we developed our engine to work to floating point accuracy.

 
 

 

Affinity designer pc specs free.Let’s get technical

 

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Be the first to leave your opinion! Laws concerning the use of this software vary from country to country. We do not encourage or condone the use of this program if it is in violation of these laws. In Softonic we scan all the files hosted on our platform to assess and avoid any potential harm for your device. Our team performs checks each time a new file is uploaded and periodically reviews files to confirm or update their status.

This comprehensive process allows us to set a status for any downloadable file as follows:. We have scanned the file and URLs associated with this software program in more than 50 of the world’s leading antivirus services; no possible threat has been detected. Based on our scan system, we have determined that these flags are possibly false positives.

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