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Download Clock Domain MZ latest version for Windows free. Clock Domain MZ latest update: J. Download.com. Find apps, programs and more. Key Details of Clock Domain MZ. Download Clock Domain MZ latest version for Windows free. Clock Domain MZ latest update: J. Download.com. XUS Clock Free. Free. Calculator Timer. Trial
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You've got bad data. You still need an extra ff and clock to mitigate the metastability. #5 @barry, you are discussing frequency and the possibility you might need a 3 stage synchronizer.The paper the OP has quoted is discussing the width of the slow clock data being transferred to the faster clock domain to reliably have at least 1 of the clock edges in the faster domain seeing a valid setup/hold of the signal in the slower clock domain.The 1.5x cycle width is to guarantee that any signal from the slow clock domain is stable for a least 1.5 cycles of the faster clock domain (assuming the setup+hold isn't >=0.5 of the faster clock domain) #6 @barry, you are discussing frequency and the possibility you might need a 3 stage synchronizer.The paper the OP has quoted is discussing the width of the slow clock data being transferred to the faster clock domain to reliably have at least 1 of the clock edges in the faster domain seeing a valid setup/hold of the signal in the slower clock domain.The 1.5x cycle width is to guarantee that any signal from the slow clock domain is stable for a least 1.5 cycles of the faster clock domain (assuming the setup+hold isn't >=0.5 of the faster clock domain) the OPs original citation made no mention of data width.”...not a problem as long as faster clock is >1.5x frequency...” #7 Joined Feb 22, 2016 Messages 1,203 Helped 2 Reputation 4 Reaction score 5 Trophy points 1,318 Activity points 11,652 Why exactly the assumption of setup+hold isn't >=0.5 of the faster clock domain is needed ? #8 kaz1 Advanced Member level 1 Joined Aug 15, 2019 Messages 413 Helped 19 Reputation 37 Reaction score 61 Trophy points 28 Location UK Activity points 2,360 Why exactly the Assumption of setup+hold isn't >=0.5 of the faster clock domain is needed ? This has nothing to do with setup/hold as the clocks are not related so setup/hold will be violated and that is why we use two stage synchroniser.The pulse width is the issue. if clocks are too close the fast clock may never see (sample) the pulse as it would hit the rise or fall window. So either make the pulse longer directly by logic or have the fast clock period shorter (by some arbitrary factor) . #9 Joined Feb 22, 2016 Messages 1,203 Helped 2 Reputation 4 Reaction score 5 Trophy points 1,318 Activity points 11,652 #10 kaz1 Advanced Member level 1 Joined Aug 15, 2019 Messages 413 Helped 19 Reputation 37 Reaction score 61 Trophy points 28 Location UK Activity points 2,360 Considering tSU/tH in this context doesn't make any sense to me. The discussion is about sampling the output of a flip from clock1 domain into clock2 domain. tSU & tH applies to D input not Q output. Hence it does not apply to Q output of clock1 but applies to D input of clock2 flip. This has to be protected by two stage synchroniser. #11 The pulse from the slower clock domain can easily violate either the setup or hold requirement of the first FF (of the 2 stage synchronizer) on the faster clock domain as the Tsu + Th = 0.5 *clk(period).Is this Tsu + Th of 0.5 of the clock period reasonable, perhaps not, but I believe it is why the author of the paper suggested that the limit was slow_clk >= 1.5 * faster_clk to guarantee being able to capture a pulse in the faster clock domain as it is highly unlikely you would implementing a design where the Tsu +Clock Domain MZ para Windows - CNET Download
#1 Hi everyone,ATITOOL 0.26 doesn't work no more with my 8800 GTS 640. I read it is since 163.67 drivers. "Prior to NVIDIA driver release 163.67, the shader clock speed was linked to the core clock (aka ROP domain clock) speed and could not be changed independently by itself. The relationship between core and shader domain clock speeds (for most cards) is shown in table A. Some cards have slightly different set freq vs resultant core/shader speeds so take the table as an illustration of how the shader clock changes with respect to the core clock rather than precise values. To overclock the shader speed it was necessary to flash the GPU BIOS with a modified version that sets a higher default shader speed.I don't want to flash the GPU bios. Did you know that ? Thanks for your answers.@+ #2 try 27b in the beta section. #3 Thanks,I'll try this evening. #4 0.27b2 wont support it either.. it should be part of the next version #5 Hi everyone,ATITOOL 0.26 doesn't work no more with my 8800 GTS 640. I read it is since 163.67 drivers. "Prior to NVIDIA driver release 163.67, the shader clock speed was linked to the core clock (aka ROP domain clock) speed and could not be changed independently by itself. The relationship between core and shader domain clock speeds (for most cards) is shown in table A. Some cards have slightly different set freq vs resultant core/shader speeds so take the table as an illustration of how the shader clock changes with respect to the core clock rather than precise values. To overclock the shader speed it was necessary to flash the GPU BIOS with a modified version that sets a higher default shader speed.I don't want to flash the GPU bios. Did you know that ? Thanks for your answers.@+ hi, i dont suppose you could give a link to where thats quoted from could you?, i'm quite interested to know how they've changed it since 163.67 #6 hi, i dont suppose you could give a link to where thats quoted from could you?,. Download Clock Domain MZ latest version for Windows free. Clock Domain MZ latest update: J. Download.com. Find apps, programs and more. Key Details of Clock Domain MZ. Download Clock Domain MZ latest version for Windows free. Clock Domain MZ latest update: J. Download.com. XUS Clock Free. Free. Calculator Timer. TrialClock Domain MZ for Windows - Free download and software
From master to slave synchronizes its local clock to upstream devices and provides synchronization to downstream devices. Clock Selection: G.8275.1 profile also defines an alternate BMCA that selects a clock for synchronization and port state for the local ports of all devices in the network is defined for the profile. The parameters defined as a part of the BMCA are: Clock Class Clock Accuracy Offset Scaled Log Variance Priority 2 Local Priority Clock Identity Steps Removed Port Identity Port State Decision: The port states are selected based on the alternate BMCA. Alternate BMCA: It follows the alternate BMCA dataset comparison algorithm as defined in Rec. ITU-T G.8275.1/Y.1369.1 to select the GM for the node. Packet Rates: The nominal packet rate for Announce packets is 8 packets-per-second and 16 packets-per-second for Sync/Follow-Up and Delay-Request/Delay-Response packets. Transport Mechanism: G.8275.1 profile only supports Ethernet PTP transport mechanism. Mode: G.8275.1 profile supports transport of data packets only in multicast mode. The forwarding is done based on forwardable or non-forwardable multicast MAC address. Clock Type: G.8275.1 profile supports the following clock types: Telecom Grandmaster (T-GM): Provides timing for other network devices and does not synchronize its local clock to other network devices. Telecom Time Slave Clock (T-TSC): A slave clock synchronizes its local clock to another PTP clock, but does not provide PTP synchronization to any other network devices. Telecom Boundary Clock (T-BC): Synchronizes its local clock to a T-GM or an upstream T-BC clock and provides timing information to downstream T-BC or T-TSC clocks. Note Telecom Boundary Clock (T-BC) is the only clock type supported in Cisco NX-OS Release 9.3(5). Domain Numbers: The domain numbers that can be used in a G.8275.1 profile network ranges from 24 to 43. The default domain number is 24. High Availability for PTP Stateful restarts are not supported Th of a FF is half of your clock period.No mater what is the Tsu and Th of the capturing FF, the slow clock must have a period that exceeds the period of the faster clock + (Tsu + Th) (of the capturing FF) + clock_cycle_jitter to ensure that at least one of the clock edges can reliably capture the pulse. #12 Joined Sep 24, 2021 Messages 4 Helped 0 Reputation 0 Reaction score 0 Trophy points 1 Activity points 29 I do not quite understand what it means by “three receiving clock edge in which Litterick's paper does not really explainView attachment 171792The reference paper by Mark Litterick has a good description of the 3 clock edge (in fast clock domain) requirement. Remember that a synchronizer fights metastability (ie. the bad thing that happens to output of a register when setup and hold requirements are not met at the input to the register). So, consider passing a digital pulse from a slow clock-domain to a fast clock-domain through the synchronizer. Since the clocks for the two domains are asynchronous, the rising edge of the pulse may cause the first register of the synchronizer to go metastable. Also, the falling edge of the digital pulse may cause the first register of the synchronizer to go metastable. So, a the fast clock has to sample the digital pulse at least three times to ensure that at least one sample has not caused the first register of the synchronizer to go metastable. Hence the 3 clock edge requirement stated by Litterick. Status Not open for further replies. Similar threads Clock through fpga or not Started by neanton28 Aug 16, 2024 Replies: 7 SDC file for clock creation Started by gahelton May 8, 2023 Replies: 3 Digital Design and Embedded Programming PLD, SPLD,.mz Domain Names - Gandi.net
Only the Cisco Nexus 93180YC-FX3S switch supports either option in this command. Step 4 Profile Default: mode { hybrid | non-hybrid | none } Example: switch(config)# mode hybridswitch(config-ptp-profile)# Configures the PTP operational mode for the switch: hybrid : The SyncE source acts as the PTP source. default : The local/1588 clock acts as the PTP source. Note This command is automatically configured when the ptp profile command is set. The configuration value cannot be changed. See Step 3 for more information. Step 5 exit Example: switch(config-ptp-profile)# exitswitch(config)# Exits the PTP profile configuration mode and returns to the global configuration mode. Step 6 ptp source ip-address Example: switch(config)# ptp source 10.10.10.20switch(config)# Configures the source IPv4 address for all the PTP packets in the multicast PTP mode. Step 7 Profile Default: ptp priority1 value Example: switch(config)# ptp priority1 128switch(config)# Configures the priority1 value to use when advertising this clock. This value overrides the default criteria (clock quality, clock class, etc.) for best master clock selection. Lower values take precedence. Note This command is automatically configured when the ptp profile 8275-1 global command is set. The configuration value cannot be changed. See Step 3. Step 8 Profile Default: ptp priority2 value Example: switch(config)# ptp priority2 128switch(config)# Configures the priority2 value to use when advertising this clock. This value overrides the default criteria (clock quality, clock class, etc.) for best master clock selection. Lower values take precedence. Default: 128 Range: 0 through 255 Note This command is automatically configured when the ptp profile 8275-1 global command is set. See Step 3. Step 9 ptp pdelay-req-interval value Example: switch(config)# ptp pdelay-req-interval 0switch(config)# Configures the peer delay request interval. value : Range is from 0 through 5. Step 10 Profile Default: ptp domain value Example: switch(config)# ptp domain 24switch(config)# Specifies the PTP clock domain value. The.mz Encyclopedia of domain name knowledge - Dn.com Domain
One of the most common concerns for Administrators looking to virtualize their Microsoft Windows workloads is the well-known issue of Time (or clock) drift in a virtual environment. Given the critical importance of accurate time keeping in modern production environments, this is a legitimate concern – one which has kept some Administrators from embracing and adopting Virtualization in their infrastructure.Modern applications, authentication and authorization tools and protocols rely on accurate time-keeping.. While some require very strict accuracy, others can tolerate some variances. For our purposes, we will focus on the Kerberos Protocols as implemented in Microsoft Active Directory Domain Services.Clients and Servers in a Window Active Directory Forest require time synchronization and up-to-dateness to ensure that the Domain Controllers can provide proper and secured Kerberos authentication within the Forest. Kerberos version 5 in Windows has a default maximum tolerance of 5 minutes variance between an authenticating client and a Domain Controller. Although this value is configurable, standard Windows Administration and Security practices discourage deviating from this best practice. One of the most common security implications of extending tolerance is the infamous “Authentication Credentials Replay Attack”. The primary goal of time-keeping hygiene is to ensure that, where possible, all Devices, Clients, Servers, and domain Controllers in a given Forest be synchronized, or (in a worst-case scenario) never be allowed to deviate by more than 5 minutes.Active Directory Domain Services provide native time synchronization hierarchy which can be illustrated as follows:As depicted in the diagram above, the Domain Controller holding the PDC Emulator Operations Master Role (PDCe) at the root of the Forest is responsible for ensuring accurate time-keeping in the Forest. It devolves this responsibility to other PDC emulators in all child Domain in the Forest. These child PDCe, in turn, share the responsibility with other domain controllers in their respective Domains. These other Domain Controllers periodically consult their PDCe for the correct time and propagate this information down to domain-joined clients. The Root PDCe is, therefore, the only Domain Controller whose clock is required to be synchronized with an external reliable time source, and it acts as the Time-Keeping Marshall for everyone else in the Enterprise. As long as the Root PDCe is healthy and receiving time updates from its external time source, life in the AD infrastructure is peachy, at least from a timestamp-related authentication perspective.Well, what if “something happens”? What if the Root PDCe is not receiving accurate time? What if it receives inaccurate time? What if its own clock just skews, for any number of reasons?In a physical environment, where the Domain Controllers are running on physical Servers, the most common cause of skewed clock is a bad CMOS battery. This can cause the time stored in. Download Clock Domain MZ latest version for Windows free. Clock Domain MZ latest update: J. Download.com. Find apps, programs and more. Key Details of Clock Domain MZ.Cross Clock Domain (with DCM clock domains)
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You've got bad data. You still need an extra ff and clock to mitigate the metastability. #5 @barry, you are discussing frequency and the possibility you might need a 3 stage synchronizer.The paper the OP has quoted is discussing the width of the slow clock data being transferred to the faster clock domain to reliably have at least 1 of the clock edges in the faster domain seeing a valid setup/hold of the signal in the slower clock domain.The 1.5x cycle width is to guarantee that any signal from the slow clock domain is stable for a least 1.5 cycles of the faster clock domain (assuming the setup+hold isn't >=0.5 of the faster clock domain) #6 @barry, you are discussing frequency and the possibility you might need a 3 stage synchronizer.The paper the OP has quoted is discussing the width of the slow clock data being transferred to the faster clock domain to reliably have at least 1 of the clock edges in the faster domain seeing a valid setup/hold of the signal in the slower clock domain.The 1.5x cycle width is to guarantee that any signal from the slow clock domain is stable for a least 1.5 cycles of the faster clock domain (assuming the setup+hold isn't >=0.5 of the faster clock domain) the OPs original citation made no mention of data width.”...not a problem as long as faster clock is >1.5x frequency...” #7 Joined Feb 22, 2016 Messages 1,203 Helped 2 Reputation 4 Reaction score 5 Trophy points 1,318 Activity points 11,652 Why exactly the assumption of setup+hold isn't >=0.5 of the faster clock domain is needed ? #8 kaz1 Advanced Member level 1 Joined Aug 15, 2019 Messages 413 Helped 19 Reputation 37 Reaction score 61 Trophy points 28 Location UK Activity points 2,360 Why exactly the
2025-04-07Assumption of setup+hold isn't >=0.5 of the faster clock domain is needed ? This has nothing to do with setup/hold as the clocks are not related so setup/hold will be violated and that is why we use two stage synchroniser.The pulse width is the issue. if clocks are too close the fast clock may never see (sample) the pulse as it would hit the rise or fall window. So either make the pulse longer directly by logic or have the fast clock period shorter (by some arbitrary factor) . #9 Joined Feb 22, 2016 Messages 1,203 Helped 2 Reputation 4 Reaction score 5 Trophy points 1,318 Activity points 11,652 #10 kaz1 Advanced Member level 1 Joined Aug 15, 2019 Messages 413 Helped 19 Reputation 37 Reaction score 61 Trophy points 28 Location UK Activity points 2,360 Considering tSU/tH in this context doesn't make any sense to me. The discussion is about sampling the output of a flip from clock1 domain into clock2 domain. tSU & tH applies to D input not Q output. Hence it does not apply to Q output of clock1 but applies to D input of clock2 flip. This has to be protected by two stage synchroniser. #11 The pulse from the slower clock domain can easily violate either the setup or hold requirement of the first FF (of the 2 stage synchronizer) on the faster clock domain as the Tsu + Th = 0.5 *clk(period).Is this Tsu + Th of 0.5 of the clock period reasonable, perhaps not, but I believe it is why the author of the paper suggested that the limit was slow_clk >= 1.5 * faster_clk to guarantee being able to capture a pulse in the faster clock domain as it is highly unlikely you would implementing a design where the Tsu +
2025-04-15#1 Hi everyone,ATITOOL 0.26 doesn't work no more with my 8800 GTS 640. I read it is since 163.67 drivers. "Prior to NVIDIA driver release 163.67, the shader clock speed was linked to the core clock (aka ROP domain clock) speed and could not be changed independently by itself. The relationship between core and shader domain clock speeds (for most cards) is shown in table A. Some cards have slightly different set freq vs resultant core/shader speeds so take the table as an illustration of how the shader clock changes with respect to the core clock rather than precise values. To overclock the shader speed it was necessary to flash the GPU BIOS with a modified version that sets a higher default shader speed.I don't want to flash the GPU bios. Did you know that ? Thanks for your answers.@+ #2 try 27b in the beta section. #3 Thanks,I'll try this evening. #4 0.27b2 wont support it either.. it should be part of the next version #5 Hi everyone,ATITOOL 0.26 doesn't work no more with my 8800 GTS 640. I read it is since 163.67 drivers. "Prior to NVIDIA driver release 163.67, the shader clock speed was linked to the core clock (aka ROP domain clock) speed and could not be changed independently by itself. The relationship between core and shader domain clock speeds (for most cards) is shown in table A. Some cards have slightly different set freq vs resultant core/shader speeds so take the table as an illustration of how the shader clock changes with respect to the core clock rather than precise values. To overclock the shader speed it was necessary to flash the GPU BIOS with a modified version that sets a higher default shader speed.I don't want to flash the GPU bios. Did you know that ? Thanks for your answers.@+ hi, i dont suppose you could give a link to where thats quoted from could you?, i'm quite interested to know how they've changed it since 163.67 #6 hi, i dont suppose you could give a link to where thats quoted from could you?,
2025-04-13From master to slave synchronizes its local clock to upstream devices and provides synchronization to downstream devices. Clock Selection: G.8275.1 profile also defines an alternate BMCA that selects a clock for synchronization and port state for the local ports of all devices in the network is defined for the profile. The parameters defined as a part of the BMCA are: Clock Class Clock Accuracy Offset Scaled Log Variance Priority 2 Local Priority Clock Identity Steps Removed Port Identity Port State Decision: The port states are selected based on the alternate BMCA. Alternate BMCA: It follows the alternate BMCA dataset comparison algorithm as defined in Rec. ITU-T G.8275.1/Y.1369.1 to select the GM for the node. Packet Rates: The nominal packet rate for Announce packets is 8 packets-per-second and 16 packets-per-second for Sync/Follow-Up and Delay-Request/Delay-Response packets. Transport Mechanism: G.8275.1 profile only supports Ethernet PTP transport mechanism. Mode: G.8275.1 profile supports transport of data packets only in multicast mode. The forwarding is done based on forwardable or non-forwardable multicast MAC address. Clock Type: G.8275.1 profile supports the following clock types: Telecom Grandmaster (T-GM): Provides timing for other network devices and does not synchronize its local clock to other network devices. Telecom Time Slave Clock (T-TSC): A slave clock synchronizes its local clock to another PTP clock, but does not provide PTP synchronization to any other network devices. Telecom Boundary Clock (T-BC): Synchronizes its local clock to a T-GM or an upstream T-BC clock and provides timing information to downstream T-BC or T-TSC clocks. Note Telecom Boundary Clock (T-BC) is the only clock type supported in Cisco NX-OS Release 9.3(5). Domain Numbers: The domain numbers that can be used in a G.8275.1 profile network ranges from 24 to 43. The default domain number is 24. High Availability for PTP Stateful restarts are not supported
2025-04-18Th of a FF is half of your clock period.No mater what is the Tsu and Th of the capturing FF, the slow clock must have a period that exceeds the period of the faster clock + (Tsu + Th) (of the capturing FF) + clock_cycle_jitter to ensure that at least one of the clock edges can reliably capture the pulse. #12 Joined Sep 24, 2021 Messages 4 Helped 0 Reputation 0 Reaction score 0 Trophy points 1 Activity points 29 I do not quite understand what it means by “three receiving clock edge in which Litterick's paper does not really explainView attachment 171792The reference paper by Mark Litterick has a good description of the 3 clock edge (in fast clock domain) requirement. Remember that a synchronizer fights metastability (ie. the bad thing that happens to output of a register when setup and hold requirements are not met at the input to the register). So, consider passing a digital pulse from a slow clock-domain to a fast clock-domain through the synchronizer. Since the clocks for the two domains are asynchronous, the rising edge of the pulse may cause the first register of the synchronizer to go metastable. Also, the falling edge of the digital pulse may cause the first register of the synchronizer to go metastable. So, a the fast clock has to sample the digital pulse at least three times to ensure that at least one sample has not caused the first register of the synchronizer to go metastable. Hence the 3 clock edge requirement stated by Litterick. Status Not open for further replies. Similar threads Clock through fpga or not Started by neanton28 Aug 16, 2024 Replies: 7 SDC file for clock creation Started by gahelton May 8, 2023 Replies: 3 Digital Design and Embedded Programming PLD, SPLD,
2025-04-17Only the Cisco Nexus 93180YC-FX3S switch supports either option in this command. Step 4 Profile Default: mode { hybrid | non-hybrid | none } Example: switch(config)# mode hybridswitch(config-ptp-profile)# Configures the PTP operational mode for the switch: hybrid : The SyncE source acts as the PTP source. default : The local/1588 clock acts as the PTP source. Note This command is automatically configured when the ptp profile command is set. The configuration value cannot be changed. See Step 3 for more information. Step 5 exit Example: switch(config-ptp-profile)# exitswitch(config)# Exits the PTP profile configuration mode and returns to the global configuration mode. Step 6 ptp source ip-address Example: switch(config)# ptp source 10.10.10.20switch(config)# Configures the source IPv4 address for all the PTP packets in the multicast PTP mode. Step 7 Profile Default: ptp priority1 value Example: switch(config)# ptp priority1 128switch(config)# Configures the priority1 value to use when advertising this clock. This value overrides the default criteria (clock quality, clock class, etc.) for best master clock selection. Lower values take precedence. Note This command is automatically configured when the ptp profile 8275-1 global command is set. The configuration value cannot be changed. See Step 3. Step 8 Profile Default: ptp priority2 value Example: switch(config)# ptp priority2 128switch(config)# Configures the priority2 value to use when advertising this clock. This value overrides the default criteria (clock quality, clock class, etc.) for best master clock selection. Lower values take precedence. Default: 128 Range: 0 through 255 Note This command is automatically configured when the ptp profile 8275-1 global command is set. See Step 3. Step 9 ptp pdelay-req-interval value Example: switch(config)# ptp pdelay-req-interval 0switch(config)# Configures the peer delay request interval. value : Range is from 0 through 5. Step 10 Profile Default: ptp domain value Example: switch(config)# ptp domain 24switch(config)# Specifies the PTP clock domain value. The
2025-03-28