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Download and install Mirror Magic: Garden Echo Mirror Effect in PC and you can install Mirror Magic: Garden Echo Mirror Effect 1.0 in your Windows PC and Mac OS. Mirror Magic: Garden Echo Mirror Effect is developed by Vintage App Studio and listed under PHOTOGRAPHY. If you are looking to install Mirror Magic: Garden Echo Mirror Effect in PC then read the rest of the article where you will find 2 ways to install Mirror Magic: Garden Echo Mirror Effect in PC using BlueStacks and Nox app player however you can also use any one of the following alternatives of BlueStacks. Download and Install Mirror Magic: Garden Echo Mirror Effect in PC (Windows and Mac OS)Following are the 2 methods to install Mirror Magic: Garden Echo Mirror Effect in PC:. Install Mirror Magic: Garden Echo Mirror Effect in PC using BlueStacks App Player.
Install Mirror Magic: Garden Echo Mirror Effect in PC using Nox App Player 1. Install Mirror Magic: Garden Echo Mirror Effect in PC using BlueStacks BlueStacks is an Android App Player that allows you to run Android apps on PC. Following are the steps on how to install any app on PC with Bluestacks:. To begin,. Launch BlueStacks on PC. Once BlueStacks is launched, click My Apps button in the emulator.
Search for: Mirror Magic: Garden Echo Mirror Effect. You will see search result for Mirror Magic: Garden Echo Mirror Effect app just install it. Login to your Google account to download apps from Google Play on Bluestacks. After login, installation process will start for Mirror Magic: Garden Echo Mirror Effect depending on your internet connection. Hints: If you are having LOADING issue with BlueStacks software simply install the Microsoft.net Framework software in your PC. Or comment below your problem.
Hint: You can also Download Mirror Magic: Garden Echo Mirror Effect APK file and install it on Bluestacks Android emulator if you want to. You can download Mirror Magic: Garden Echo Mirror Effect 1.0 APK downloadable file in your PC to install it on your PC Android emulator later. Mirror Magic: Garden Echo Mirror Effect APK file details: Best Android Emulators Bluestacks & Nox App Player Operating Systems Windows 7,8/10 or Mac App Developer Vintage App Studio App Updated August 14, 2018 APK Version 1.0 Category Android Version Required for emulator Android 4.0.3, 4.0.4 APK File Size 17.2MB File Name vintageappstudio.gardenechomirrior1.01.apk 2. Install Mirror Magic: Garden Echo Mirror Effect in PC with Nox Follow the steps below:. Install in PC. Megapak band-in-a-box 25 for mac 10.6.8. It is Android emulator, after installing run Nox in PC, and login to Google account.
Tab searcher and search for: Mirror Magic: Garden Echo Mirror Effect. Install Mirror Magic: Garden Echo Mirror Effect on your Nox emulator.
Once installation completed, you will be able to play Mirror Magic: Garden Echo Mirror Effect on your PC.
./testpmd -n4 -r2. -i -cmdline-file=/home/ubuntu/flow-create-commands.txt Interactive-mode selected CLI commands to be read from /home/ubuntu/flow-create-commands.txt Configuring Port 0 (socket 0) Port 0: 7C:FE:90:CB:74:CE Configuring Port 1 (socket 0) Port 1: 7C:FE:90:CB:74:CA Checking link statuses. Port 0 Link Up - speed 10000 Mbps - full-duplex Port 1 Link Up - speed 10000 Mbps - full-duplex Done Flow rule #0 created Flow rule #1 created. Flow rule #498 created Flow rule #499 created Read all CLI commands from /home/ubuntu/flow-create-commands.txt testpmd. At run-time additional commands can be loaded in bulk by invoking the load FILENAME command.
Testpmd show port (info summary stats xstats fdir statqmap dcbtc cap) (portid all) The available information categories are:. info: General port information such as MAC address.
summary: Brief port summary such as Device Name, Driver Name etc. stats: RX/TX statistics. xstats: RX/TX extended NIC statistics.
fdir: Flow Director information and statistics. statqmap: Queue statistics mapping. dcbtc: DCB information such as TC mapping.
cap: Supported offload capabilities. Testpmd set fwd (io mac macswap flowgen rxonly txonly csum icmpecho noisy) (' retry) retry can be specified for forwarding engines except rxonly.
The available information categories are:. io: Forwards packets “as-is” in I/O mode. This is the fastest possible forwarding operation as it does not access packets data. This is the default mode.
mac: Changes the source and the destination Ethernet addresses of packets before forwarding them. Default application behaviour is to set source Ethernet address to that of the transmitting interface, and destination address to a dummy value (set during init).
The user may specify a target destination Ethernet address via the ‘eth-peer’ or ‘eth-peer-configfile’ command-line options. It is not currently possible to specify a specific source Ethernet address. macswap: MAC swap forwarding mode. Swaps the source and the destination Ethernet addresses of packets before forwarding them. flowgen: Multi-flow generation mode.
Originates a number of flows (with varying destination IP addresses), and terminate receive traffic. rxonly: Receives packets but doesn’t transmit them. txonly: Generates and transmits packets without receiving any. csum: Changes the checksum field with hardware or software methods depending on the offload flags on the packet.
icmpecho: Receives a burst of packets, lookup for IMCP echo requests and, if any, send back ICMP echo replies. ieee1588: Demonstrate L2 IEEE1588 V2 PTP timestamping for RX and TX. Requires CONFIGRTELIBRTEIEEE1588=y.
softnic: Demonstrates the softnic forwarding operation. In this mode, packet forwarding is similar to I/O mode except for the fact that packets are loopback to the softnic ports only.
Therefore, portmask parameter should be set to softnic port only. The various software based custom NIC pipelines specified through the softnic firmware (DPDK packet framework script) can be tested in this mode.
Furthermore, it allows to build 5-level hierarchical QoS scheduler as a default option that can be enabled through CLI once testpmd application is initialised. The user can modify the default scheduler hierarchy or can specify the new QoS Scheduler hierarchy through CLI. Requires CONFIGRTELIBRTEPMDSOFTNIC=y. noisy: Noisy neighbour simulation. Simulate more realistic behavior of a guest machine engaged in receiving and sending packets performing Virtual Network Function (VNF). Testpmd tunnelfilter add (portid) (outermac) (innermac) (ipaddr) (innervlan) (vxlan nvgre ipingre) (imac-ivlan imac-ivlan-tenid imac-tenid imac omac-imac-tenid oip iip) (tenantid) (queueid) The available information categories are:. vxlan: Set tunnel type as VXLAN.
nvgre: Set tunnel type as NVGRE. ipingre: Set tunnel type as IP-in-GRE. imac-ivlan: Set filter type as Inner MAC and VLAN. imac-ivlan-tenid: Set filter type as Inner MAC, VLAN and tenant ID. imac-tenid: Set filter type as Inner MAC and tenant ID. imac: Set filter type as Inner MAC. omac-imac-tenid: Set filter type as Outer MAC, Inner MAC and tenant ID.
oip: Set filter type as Outer IP. iip: Set filter type as Inner IP. Testpmd csum set (ip udp tcp sctp outer-ip outer-udp) (hw sw) (portid) Where:. ip udp tcp sctp always relate to the inner layer. outer-ip relates to the outer IP layer (only for IPv4) in the case where the packet is recognized as a tunnel packet by the forwarding engine (vxlan, gre and ipip are supported). See also the csum parse-tunnel command.
outer-udp relates to the outer UDP layer in the case where the packet is recognized as a tunnel packet by the forwarding engine (vxlan, vxlan-gpe are supported). See also the csum parse-tunnel command. Testpmd set port (portid) queue-region flush (on off) where:. “on”is just an enable function which server for other configuration, it is for all configuration about queue region from up layer, at first will only keep in DPDK softwarestored in driver, only after “flush on”, it commit all configuration to HW. “off” is just clean all configuration about queue region just now, and restore all to DPDK i40e driver default config when start up.
Show all queue region related configuration info on a port. Testpmd set gro flush When enable GRO, the csum forwarding engine performs GRO on received packets, and the GROed packets are stored in reassembly tables. Users can use this command to determine when the GROed packets are flushed from the reassembly tables. The cycles is measured in GRO operation times. The csum forwarding engine flushes the GROed packets from the tables every cycles GRO operations. By default, the value of cycles is 1, which means flush GROed packets from the reassembly tables as soon as one GRO operation finishes.
The value of cycles should be in the range of 1 to GROMAXFLUSHCYCLES. Please note that the large value of cycles may cause the poor TCP/IP stack performance. Because the GROed packets are delayed to arrive the stack, thus causing more duplicated ACKs and TCP retransmissions. Note When GSO is enabled on a port, supported IPv4 packets transmitted on that port undergo GSO.
Afterwards, the segmented packets are represented by multi-segment mbufs; however, the csum forwarding engine doesn’t calculation of checksums for GSO’d segments in SW. As a result, if users want correct checksums in GSO segments, they should enable HW checksum calculation for GSO-enabled ports. For example, HW checksum calculation for VxLAN GSO’d packets may be enabled by setting the following options in the csum forwarding engine: testpmd csum set outerip hw testpmd csum set ip hw testpmd csum set tcp hw UDP GSO is the same as IP fragmentation, which treats the UDP header as the payload and does not modify it during segmentation. That is, after UDP GSO, only the first output fragment has the original UDP header.
Therefore, users need to enable HW IP checksum calculation and SW UDP checksum calculation for GSO-enabled ports, if they want correct checksums for UDP/IPv4 packets. Set vxlan ip-version (ipv4 ipv6) vni (vni) udp-src (udp-src) udp-dst (udp-dst) ip-src (ip-src) ip-dst (ip-dst) eth-src (eth-src) eth-dst (eth-dst) set vxlan-with-vlan ip-version (ipv4 ipv6) vni (vni) udp-src (udp-src) udp-dst (udp-dst) ip-src (ip-src) ip-dst (ip-dst) vlan-tci (vlan-tci) eth-src (eth-src) eth-dst (eth-dst) Those command will set an internal configuration inside testpmd, any following flow rule using the action vxlanencap will use the last configuration set. To have a different encapsulation header, one of those commands must be called before the flow rule creation. Set nvgre ip-version (ipv4 ipv6) tni (tni) ip-src (ip-src) ip-dst (ip-dst) eth-src (eth-src) eth-dst (eth-dst) set nvgre-with-vlan ip-version (ipv4 ipv6) tni (tni) ip-src (ip-src) ip-dst (ip-dst) vlan-tci (vlan-tci) eth-src (eth-src) eth-dst (eth-dst) Those command will set an internal configuration inside testpmd, any following flow rule using the action nvgreencap will use the last configuration set. To have a different encapsulation header, one of those commands must be called before the flow rule creation. Set mplsogreencap ip-version (ipv4 ipv6) label (label) ip-src (ip-src) ip-dst (ip-dst) eth-src (eth-src) eth-dst (eth-dst) set mplsogreencap-with-vlan ip-version (ipv4 ipv6) label (label) ip-src (ip-src) ip-dst (ip-dst) vlan-tci (vlan-tci) eth-src (eth-src) eth-dst (eth-dst) Those command will set an internal configuration inside testpmd, any following flow rule using the action mplsogreencap will use the last configuration set.
To have a different encapsulation header, one of those commands must be called before the flow rule creation. Set mplsoudpencap ip-version (ipv4 ipv6) label (label) udp-src (udp-src) udp-dst (udp-dst) ip-src (ip-src) ip-dst (ip-dst) eth-src (eth-src) eth-dst (eth-dst) set mplsoudpencap-with-vlan ip-version (ipv4 ipv6) label (label) udp-src (udp-src) udp-dst (udp-dst) ip-src (ip-src) ip-dst (ip-dst) vlan-tci (vlan-tci) eth-src (eth-src) eth-dst (eth-dst) Those command will set an internal configuration inside testpmd, any following flow rule using the action mplsoudpencap will use the last configuration set. To have a different encapsulation header, one of those commands must be called before the flow rule creation.
# Check the status of the available devices./usertools/dpdk-devbind.py -status Network devices using DPDK-compatible driver Network devices using kernel driver 0000:0a:00.0 '82599ES 10-Gigabit' if=eth2 drv=ixgbe unused= # Bind the device to igbuio. Sudo./usertools/dpdk-devbind.py -b igbuio 0000:0a:00.0 # Recheck the status of the devices./usertools/dpdk-devbind.py -status Network devices using DPDK-compatible driver 0000:0a:00.0 '82599ES 10-Gigabit' drv=igbuio unused= To attach a port created by virtual device, above steps are not needed. For example, to attach a port whose pci address is 0000:0a:00.0. Testpmd port stop 0 Stopping ports. Done testpmd port close 0 Closing ports. Done testpmd port detach 0 Detaching a port.
PMD: Closing pcap ethdev on numa socket 0 Port 'netpcap0' is detached. Now total ports is 0 Done To remove a pci device completely from the system, first detach the port from testpmd. Then the device should be moved under kernel management. Finally the device can be removed using kernel pci hotplug functionality. For example, to move a pci device under kernel management. Testpmd port config all (threshold) (value) Where the threshold type can be:.
txpt: Set the prefetch threshold register of the TX rings, 0. Testpmd create port meter (portid) (mtrid) (profileid) (meterenable) (gaction) (yaction) (raction) (statsmask) (shared) (usepremetercolor) (dscptblentry0) (dscptblentry1). (dscptblentry63) where:. mtrid: meter object ID. profileid: ID for the meter profile.
meterenable: When this parameter has a non-zero value, the meter object gets enabled at the time of creation, otherwise remains disabled. gaction: Policer action for the packet with green color. yaction: Policer action for the packet with yellow color. raction: Policer action for the packet with red color. statsmask: Mask of statistics counter types to be enabled for the meter object. shared: When this parameter has a non-zero value, the meter object is shared by multiple flows. Otherwise, meter object is used by single flow.
usepremetercolor: When this parameter has a non-zero value, the input color for the current meter object is determined by the latest meter object in the same flow. Otherwise, the current meter object uses the dscptable to determine the input color. dscptblentryx: DSCP table entry x providing meter providing input color, 0. Testpmd set port meter policer action (portid) (mtrid) (actionmask) (action0) (action1) (action1) where:. actionmask: Bit mask indicating which policer actions need to be updated. One or more policer actions can be updated in a single function invocation.
To update the policer action associated with color C, bit (1. Testpmd add port tm node shaper profile (portid) (shaperprofileid) (cmittbrate) (cmittbsize) (peaktbrate) (peaktbsize) (packetlengthadjust) where:. shaperprofile id: Shaper profile ID for the new profile. cmittbrate: Committed token bucket rate (bytes per second). cmittbsize: Committed token bucket size (bytes). peaktbrate: Peak token bucket rate (bytes per second). peaktbsize: Peak token bucket size (bytes).
packetlengthadjust: The value (bytes) to be added to the length of each packet for the purpose of shaping. This parameter value can be used to correct the packet length with the framing overhead bytes that are consumed on the wire. Testpmd add port tm nonleaf node (portid) (nodeid) (parentnodeid) (priority) (weight) (levelid) (shaperprofileid) (nsppriorities) (statsmask) (nsharedshapers) (sharedshaper0) (sharedshaper1).
where:. parentnodeid: Node ID of the parent. priority: Node priority (highest node priority is zero). This is used by the SP algorithm running on the parent node for scheduling this node.
weight: Node weight (lowest weight is one). The node weight is relative to the weight sum of all siblings that have the same priority. It is used by the WFQ algorithm running on the parent node for scheduling this node. levelid: Hiearchy level of the node. shaperprofileid: Shaper profile ID of the private shaper to be used by the node. nsppriorities: Number of strict priorities.
statsmask: Mask of statistics counter types to be enabled for this node. nsharedshapers: Number of shared shapers. sharedshaperid: Shared shaper id. Testpmd add port tm leaf node (portid) (nodeid) (parentnodeid) (priority) (weight) (levelid) (shaperprofileid) (cmanmode) (wredprofileid) (statsmask) (nsharedshapers) (sharedshaperid) (sharedshaperid).
where:. parentnodeid: Node ID of the parent. priority: Node priority (highest node priority is zero). This is used by the SP algorithm running on the parent node for scheduling this node.
weight: Node weight (lowest weight is one). The node weight is relative to the weight sum of all siblings that have the same priority. It is used by the WFQ algorithm running on the parent node for scheduling this node. levelid: Hiearchy level of the node. shaperprofileid: Shaper profile ID of the private shaper to be used by the node.
cmanmode: Congestion management mode to be enabled for this node. wredprofileid: WRED profile id to be enabled for this node. statsmask: Mask of statistics counter types to be enabled for this node. nsharedshapers: Number of shared shapers. sharedshaperid: Shared shaper id.
Testpmd set port tm mark ipecn where:. portid: The port which on which IP packets marked as green or yellow or red will have IP ecn bits updated.
green enable 1, disable 0 marking IP ecn for green marked packets with ecn of 2’b01 or 2’b10 to ecn of 2’b11 when IP is caring TCP or SCTP. yellow enable 1, disable 0 marking IP ecn for yellow marked packets with ecn of 2’b01 or 2’b10 to ecn of 2’b11 when IP is caring TCP or SCTP. red enable 1, disable 0 marking IP ecn for yellow marked packets with ecn of 2’b01 or 2’b10 to ecn of 2’b11 when IP is caring TCP or SCTP. Ethertypefilter (portid) (add del) (macaddr macignr) (macaddress) ethertype (ethertype) (drop fwd) queue (queueid) The available information parameters are:. portid: The port which the Ethertype filter assigned on. macaddr: Compare destination mac address. macignr: Ignore destination mac address match.
macaddress: Destination mac address to match. ethertype: The EtherType value want to match, for example 0x0806 for ARP packet. 0x0800 (IPv4) and 0x86DD (IPv6) are invalid. queueid: The receive queue associated with this EtherType filter. It is meaningless when deleting or dropping.
Example, to add/remove an ethertype filter rule. 2tuplefilter (portid) (add del) dstport (dstportvalue) protocol (protocolvalue) mask (maskvalue) tcpflags (tcpflagsvalue) priority (priovalue) queue (queueid) The available information parameters are:. portid: The port which the 2-tuple filter assigned on. dstportvalue: Destination port in L4.
protocolvalue: IP L4 protocol. maskvalue: Participates in the match or not by bit for field above, 1b means participate. tcpflagsvalue: TCP control bits. The non-zero value is invalid, when the provalue is not set to 0x06 (TCP).
priovalue: Priority of this filter. queueid: The receive queue associated with this 2-tuple filter. Example, to add/remove an 2tuple filter rule. 5tuplefilter (portid) (add del) dstip (dstaddress) srcip (srcaddress) dstport (dstportvalue) srcport (srcportvalue) protocol (protocolvalue) mask (maskvalue) tcpflags (tcpflagsvalue) priority (priovalue) queue (queueid) The available information parameters are:.
portid: The port which the 5-tuple filter assigned on. dstaddress: Destination IP address. srcaddress: Source IP address.
dstportvalue: TCP/UDP destination port. srcportvalue: TCP/UDP source port. protocolvalue: L4 protocol. maskvalue: Participates in the match or not by bit for field above, 1b means participate. tcpflagsvalue: TCP control bits.
The non-zero value is invalid, when the protocolvalue is not set to 0x06 (TCP). priovalue: The priority of this filter. queueid: The receive queue associated with this 5-tuple filter. Example, to add/remove an 5tuple filter rule. Flexfilter (portid) (add del) len (lenvalue) bytes (bytesvalue) mask (maskvalue) priority (priovalue) queue (queueid) The available information parameters are:.
portid: The port which the Flex filter is assigned on. lenvalue: Filter length in bytes, no greater than 128. bytesvalue: A string in hexadecimal, means the value the flex filter needs to match.
maskvalue: A string in hexadecimal, bit 1 means corresponding byte participates in the match. priovalue: The priority of this filter. queueid: The receive queue associated with this Flex filter.
Flowdirectorfilter The Flow Director works in receive mode to identify specific flows or sets of flows and route them to specific queues. Four types of filtering are supported which are referred to as Perfect Match, Signature, Perfect-mac-vlan and Perfect-tunnel filters, the match mode is set by the -pkt-filter-mode command-line parameter:. Perfect match filters.
The hardware checks a match between the masked fields of the received packets and the programmed filters. The masked fields are for IP flow.
Signature filters. The hardware checks a match between a hash-based signature of the masked fields of the received packet. Perfect-mac-vlan match filters. The hardware checks a match between the masked fields of the received packets and the programmed filters. The masked fields are for MAC VLAN flow. Perfect-tunnel match filters.
The hardware checks a match between the masked fields of the received packets and the programmed filters. The masked fields are for tunnel flow. Perfect-raw-flow-type match filters. The hardware checks a match between the masked fields of the received packets and pre-loaded raw (template) packet. The masked fields are specified by input sets. The Flow Director filters can match the different fields for different type of packet: flow type, specific input set per flow type and the flexible payload.
The Flow Director can also mask out parts of all of these fields so that filters are only applied to certain fields or parts of the fields. Note that for raw flow type mode the source and destination fields in the raw packet buffer need to be presented in a reversed order with respect to the expected received packets.
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For example: IP source and destination addresses or TCP/UDP/SCTP source and destination ports Different NICs may have different capabilities, command show port fdir (portid) can be used to acquire the information. # Commands to add flow director filters of different flow types. Sethashinputset (portid) (ipv4-frag ipv4-tcp ipv4-udp ipv4-sctp ipv4-other ipv6-frag ipv6-tcp ipv6-udp ipv6-sctp ipv6-other l2payload ) (ovlan ivlan src-ipv4 dst-ipv4 src-ipv6 dst-ipv6 ipv4-tos ipv4-proto ipv6-tc ipv6-next-header udp-src-port udp-dst-port tcp-src-port tcp-dst-port sctp-src-port sctp-dst-port sctp-veri-tag udp-key gre-key fld-1st fld-2nd fld-3rd fld-4th fld-5th fld-6th fld-7th fld-8th none) (select add) For example, to add source IP to hash input set for flow type of ipv4-udp on port 0. Flow syntax Because the flow command uses dynamic tokens to handle the large number of possible flow rules combinations, its behavior differs slightly from other commands, in particular:. Pressing? Or the key displays contextual help for the current token, not that of the entire command. Optional and repeated parameters are supported (provided they are listed in the contextual help).
The first parameter stands for the operation mode. Possible operations and their general syntax are described below. They are covered in detail in the following sections. Check whether a flow rule can be created.
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Testpmd flow create 0 ingress pattern eth / ipv4 src is 10.1.1.1 dst is 10.2.0.0 / end. This rule matches all IPv4 traffic with the specified properties. In this example, src and dst are field names of the underlying struct rteflowitemipv4 object. All item properties can be specified in a similar fashion. The is token means that the subsequent value must be matched exactly, and assigns spec and mask fields in struct rteflowitem accordingly.
Possible assignment tokens are:. is: match value perfectly (with full bit-mask). spec: match value according to configured bit-mask. last: specify upper bound to establish a range. mask: specify bit-mask with relevant bits set to one.
prefix: generate bit-mask with most-significant bits set to one. These yield identical results.
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Testpmd flow create 0 ingress pattern eth / ipv4 / end actions queue index 6 / end Flow rule #0 created testpmd flow create 0 ingress pattern eth / ipv6 / end actions queue index 2 / end Flow rule #1 created testpmd flow create 0 priority 5 ingress pattern eth / ipv4 / udp / end actions rss queues 6 7 8 end / end Flow rule #2 created testpmd flow list 0 ID Group Prio Attr Rule 0 0 0 i- ETH IPV4 = QUEUE 1 0 0 i- ETH IPV6 = QUEUE 2 0 5 i- ETH IPV4 UDP = RSS testpmd Rules are sorted by priority (i.e. Group ID first, then priority level). Testpmd set vxlan ip-version ipv4 vni 4 udp-src 4 udp-dst 4 ip-src 127.0.0.1 ip-dst 128.0.0.1 eth-src 11:11:11:11:11:11 eth-dst 22:22:22:22:22:22 testpmd flow create 0 ingress pattern end actions vxlanencap / queue index 0 / end testpmd set vxlan-with-vlan ip-version ipv4 vni 4 udp-src 4 udp-dst 4 ip-src 127.0.0.1 ip-dst 128.0.0.1 vlan-tci 34 eth-src 11:11:11:11:11:11 eth-dst 22:22:22:22:22:22 testpmd flow create 0 ingress pattern end actions vxlanencap / queue index 0 / end IPv6 VXLAN outer header.