All Slots Game Speed And Network Settings To Check
Quick diagnostic summary for All Slots — core checks and acceptance targets
When players report slow spins the highest value checks are end-to-end spin latency, WebSocket RTT, server processing time for spin requests, and client render time. Capture a single representative trace that includes client timestamp, request ID, server timestamp and final render time so every stage is visible.
Run tests from Auckland and Wellington and compare local ISPs to spot routing issues. Start tests from Auckland, Wellington and mobile networks and open All Slots to compare latency across ISPs.
| Metric | Quick Test |
|---|---|
| End-to-end spin latency | Single spin trace: client input → UI settle |
| WebSocket RTT | WS ping/pong or frame timestamp round trips |
| Server processing time | Server logs: process start → finish for spin ID |
| Client render time | Browser Performance API: mark start/end |
Targets: p50 <100 ms, p90 <200–300 ms, p99 alert >500 ms (segment by Auckland/Wellington and mobile).
- Stale WebSocket / NAT timeout — restart WS, raise keepalive and reduce idle timeouts.
- High server queue time — scale spin workers or check queue consumer lag.
- Large payloads / heavy client animation — lazy-load assets and trim frame work on low-end devices.
- Missing audit logs — block withdrawals until audit trail records spin ID and RNG output.
Online slot architecture and client–server flow for All Slots
All Slots uses a client-driven UI with server-authoritative game logic and a certified RNG kept server-side. Communications typically use a persistent WebSocket or HTTPS REST/HTTP2; outcomes are small messages while large assets come from a CDN edge.
The full spin flow and checkpoints to measure are shown below; log each checkpoint with a request ID so traces stitch cleanly.
client input timestamp → frame queue → send frame → network transmit → server auth/validate
→ RNG compute → persistence (DB/audit) → response transmit → client receive → decode/render → final UI settle
| Connection | Trade‑Off |
|---|---|
| WebSocket (persistent) | Lower per-spin handshake cost, needs connection churn planning and keepalives (RFC 6455; MDN WebSockets). |
| REST / HTTP2 | Simpler scaling and retries but higher per-call overhead unless HTTP2 connection reuse is used. |
Log fields per step: request_id, client_ts, client_frame_id, ws_frame_ts, server_received_ts, rng_seed/ticket, server_result_ts, db_persist_ts, client_render_ts. GLI and iTech Labs expect server-side RNG and audit trails for certified games.
- Recommended trace fields: request_id, session_id, client_ts, server_ts, rng_output, final_render_ts.
Defining and measuring spin latency for All Slots (metrics, instrumentation, and reporting)
End-to-end spin latency is the time from player spin input to final UI settlement. Break this into client input → transmit → server processing (RNG + business logic + persistence) → response transmit → client render.
Instrument both client and server to separate network from processing. Use the browser Performance API, WebSocket frame timestamps, monotonic server logs, and distributed tracing such as OpenTelemetry with request IDs.
Example timing markers:
performance.mark('spinStart'); ws.send({id:reqId, t:Date.now()}); // server logs t_server_recv
| Metric | How To Capture | Acceptance Target |
|---|---|---|
| End-to-end spin-to-result ms | Client mark + final render mark | p50 <100 ms; p90 <200–300 ms |
| Server processing time | Server logs with monotonic timestamps per request_id | Varies by engine; keep low single-digit ms where possible |
| WebSocket RTT | WS ping/pong or frame timestamp delta | Match regional RTT baselines |
| Client render time | Performance API paint/longtask traces | Keep under 100 ms on common devices |
Report stats with sample size and percentiles: always show p50/p90/p95/p99, mean, standard deviation and confidence intervals. Use at least 100 spins per profile for p95 work and 1,000 for stable p99. Correlate with pcaps and TCP retransmission counts when network issues appear.
Acceptance thresholds and player experience expectations for NZ All Slots users
Recommended NZ percentile targets: p50 <100 ms, p90 target <200–300 ms, p99 alert threshold >500 ms. The 100 ms threshold maps to perceived instant response for most players.
NZ routing through Australian or offshore POPs will add RTT; baseline from Auckland and Wellington nodes before setting targets. Tag dashboards by region and ISP so SLOs reflect local experience.
SLO examples
- All Slots NZ Auckland p99 spin-to-result <500 ms, alert if breached 5 times in 15 minutes.
- Wellington mobile p90 <300 ms, reconnect rate <0.5% per 1k sessions.
Use region tags for Auckland, Wellington and mobile 4G/5G in monitoring and make p99 the primary alerting signal alongside error and reconnect rates. Keep runbooks for stale WebSocket, server queueing and CDN edge misses so ops can act fast.
Test Matrix And Network Conditions To Emulate For All Slots Performance Testing
I get asked all the time what to run to see how All Slots behaves for Kiwi players.
I recommend a repeatable matrix that mixes RTT, packet loss, jitter and bandwidth caps so we can reproduce issues.
This table gives the core permutations I use in lab runs.
| RTT Bucket | Loss 0% | Loss 0.5% | Loss 1% | Loss 2% | Loss 5% |
|---|---|---|---|---|---|
| <30 ms | Jitter 0/10/25/50 ms; BW unlimited/10/5/1 Mbps | Jitter 0/10/25/50 ms; BW unlimited/10/5/1 Mbps | Jitter 0/10/25/50 ms; BW unlimited/10/5/1 Mbps | Jitter 0/10/25/50 ms; BW unlimited/10/5/1 Mbps | Jitter 0/10/25/50 ms; BW unlimited/10/5/1 Mbps |
| 50 ms | Jitter 0/10/25/50 ms; BW unlimited/10/5/1 Mbps | Jitter 0/10/25/50 ms; BW unlimited/10/5/1 Mbps | Jitter 0/10/25/50 ms; BW unlimited/10/5/1 Mbps | Jitter 0/10/25/50 ms; BW unlimited/10/5/1 Mbps | Jitter 0/10/25/50 ms; BW unlimited/10/5/1 Mbps |
| 100 ms | Jitter 0/10/25/50 ms; BW unlimited/10/5/1 Mbps | Jitter 0/10/25/50 ms; BW unlimited/10/5/1 Mbps | Jitter 0/10/25/50 ms; BW unlimited/10/5/1 Mbps | Jitter 0/10/25/50 ms; BW unlimited/10/5/1 Mbps | Jitter 0/10/25/50 ms; BW unlimited/10/5/1 Mbps |
| 200 ms | Jitter 0/10/25/50 ms; BW unlimited/10/5/1 Mbps | Jitter 0/10/25/50 ms; BW unlimited/10/5/1 Mbps | Jitter 0/10/25/50 ms; BW unlimited/10/5/1 Mbps | Jitter 0/10/25/50 ms; BW unlimited/10/5/1 Mbps | Jitter 0/10/25/50 ms; BW unlimited/10/5/1 Mbps |
| 300 ms | Jitter 0/10/25/50 ms; BW unlimited/10/5/1 Mbps | Jitter 0/10/25/50 ms; BW unlimited/10/5/1 Mbps | Jitter 0/10/25/50 ms; BW unlimited/10/5/1 Mbps | Jitter 0/10/25/50 ms; BW unlimited/10/5/1 Mbps | Jitter 0/10/25/50 ms; BW unlimited/10/5/1 Mbps |
Run baseline profiles with RTT <30 ms and no loss then introduce adverse mixes such as 200 ms RTT + 2% loss + 50 ms jitter.
Scale tests across realistic concurrent sessions from 10 up to 1,000 and use scripted click rates that match player behaviour.
Minimum sample sizes per permutation are at least 100 spins for stable p95 metrics and target 1,000 spins where you need p99 stability.
Emulate NZ carriers Spark, Vodafone NZ and One NZ and test routing via Auckland and Sydney POPs to capture regional routing effects.
Tools I use include tc/netem on Linux, Link Conditioner on macOS, k6 with network plugins for load, and tcpdump/Wireshark for capture.
Example tc netem commands:
tc qdisc add dev eth0 root netem delay 200ms loss 2% delay 50ms
tc qdisc change dev eth0 root tbf rate 5mbit burst 32kbit latency 400ms
Measuring WebSocket And RTP-like Interactions For Spins — Diagnostics And Pcaps
Operators ask how to prove a mid-spin disconnect was network not server.
I capture browser WebSocket frames, HAR exports, server WebSocket frame logs and synchronized pcaps so every event has a timeline.
Synchronized captures let you map request IDs to packets.
Prepare Capture
Sync clocks on client and server with NTP or PTP so timestamps align.
Set unique request IDs in the client so you can correlate application events to packets.
Start server-side frame logging before packet capture.
Start Client And Server Capture
Begin tcpdump on client and server with a filter that limits noise and records TLS traffic for later decryption if you have keys.
Export browser HAR including WebSocket frames from DevTools at start and end of the run.
Run Scripted Spins
Execute scripted spins at your desired click rate and concurrent session count using k6 or a headless browser harness.
Log every client-side action with timestamps and request IDs so you can match them to frames in pcaps.
Stop Capture And Extract Events
Stop tcpdump on both ends and save server logs and HARs.
Use Wireshark and the request ID in WebSocket payloads to jump to the packet-level timeline.
Key Network Indicators To Look For
Inspect retransmissions, duplicate ACKs, TCP RTOs, frame reordering and repeated TLS handshakes as signs of network trouble.
Match those to application symptoms like delayed results, mid-spin disconnects or duplicate inputs.
Sample Tcpdump And Wireshark Filters
Capture client traffic to server IP on port 443:
tcpdump -i eth0 host SERVER_IP and port 443 -w client.pcap
Filter retransmits and duplicate ACKs in Wireshark:
tcp.analysis.retransmission or tcp.analysis.duplicate_ack
Search WebSocket traffic by request ID after decrypting TLS:
frame contains "requestId"
Network Impact On RNG Fairness And Auditability For All Slots
Players worry that network glitches could change outcomes for All Slots spins.
I always state that server-side RNG is essential; the network must never be the source of outcome generation.
Required audit fields per spin must be retained for lab replay and regulator review.
RNG seed/outcome.
Server timestamp.
Session ID.
Request ID and persistence confirmations.
Common failure modes include duplicate requests caused by client timeouts, lost ACKs that confuse client state, and any client-side pseudo-RNG attempts.
Mitigations I recommend are idempotent server processing keyed by request ID, server acknowledgement before crediting a win, durable immutable logs and replay capability for certified labs like GLI or iTech Labs.
All Slots holds eGaming licence number 155 C1 issued in Alderney and must keep auditable trails so labs and regulators can reproduce spins exactly.
When you see duplicates in logs, dedupe with the request ID and check for matching RNG seed/outcome before altering balances.
Cdn Edge Routing And Cost Considerations For Low-latency All Slots Delivery To NZ
If you want low-latency All Slots gameplay in New Zealand you need Auckland and Sydney POPs and a CDN that supports persistent WebSockets.
Feature: WebSocket support and low-latency POPs close to NZ users.
Cost Consideration: Expect egress GB charges and per-connection pricing for many persistent WebSockets.
Feature: Edge compute for session affinity and light game logic at the edge.
Cost Consideration: Edge invocations add to billable events and can be more expensive than plain CDN delivery.
Feature: DDoS protection and connection SLAs for gaming traffic.
Cost Consideration: Enterprise pricing usually includes higher SLAs for WebSocket counts and mitigation capacity.
Probe Checklist I ask vendors to run from NZ locations and return raw ping/traceroute and TLS handshake timings.
Latency from Auckland POP to target server and to Spark, Vodafone NZ, One NZ test IPs.
TLS handshake time and first byte timings for WebSocket upgrade.
Sustained WebSocket connection counts and egress estimates per million sessions.
Request explicit SLAs for concurrent WebSockets and per-GB egress costs so you can model real bills rather than guess.
Monitoring, Observability And Alerting For Live All Slots Operations
Ever had players message support saying spins froze or cashouts stalled and wondered what to check first?
I get that question a lot from ops teams and support leads here in NZ.
Here I lay out a practical monitoring plan you can use on All Slots live ops.
Telemetry Architecture And Key Metrics
Instrument clients (browser and mobile) with clear performance markers and sampled traces for user actions like spin start, spin result and UI render.
Forward logs, traces and metrics to a central observability backend using OpenTelemetry into a tracing backend that supports tag-based queries.
Tag telemetry with region, ISP, client build and session ID so NZ region segmentation and ISP faults are visible.
Collect end-to-end latency percentiles (p50/p90/p95/p99) for spins and critical flows.
Measure server processing time per request, WebSocket RTT, packet loss, jitter, FPS and client rendering time.
Track connection churn, disconnects/reconnects and error rates by region and game type.
Capture sampled network pcaps for escalations and link them to trace IDs for quick correlation.
Sampled traces should be high-fidelity for slow events and low-rate for normals so traces are useful without being noisy.
Use adaptive sampling to keep p95 and p99 percentile calculations statistically sound.
Set minimum sample sizes of at least 100 spins for reliable p95 and 1,000 spins for a robust p99 over the chosen window.
When diagnosing incidents, correlate network metrics and WebSocket health with app traces to separate client, CDN and server causes.
Metric spikes alone rarely tell the whole story; traces show which backend call or DB op slowed the flow.
Suggested Dashboard Layout And Alerting Table
Build a dashboard with three panels: latency percentiles by region, WebSocket health and reconnects, and server processing times by service.
Panel one shows p50/p90/p95/p99 split by NZ regions and ISPs so you can spot local routing problems quickly.
Panel two shows WebSocket RTT, disconnect rate and reconnect churn with trend and heatmap views.
Panel three shows server queue times, processing times and error rates per service and per data centre.
| Metric | Threshold | Responder |
|---|---|---|
| p99 Spin Latency | >500 ms | Pager to on-call SRE |
| Disconnect Rate | >0.1% | Ops investigation |
| Packet Loss | >1% (5m) | Network team |
| FPS Drop | <25 fps (30s) | Client eng + QA |
Pre-launch Integration Checklist And Operations For All Slots (Payments, KYC, Bonuses, T&Cs)
Worried about missing a compliance or payment step before public rollout?
I run through a concise checklist I use with partners launching in NZ.
Work through these items and tick them off with owners assigned.
Payments
Confirm supported deposit and withdrawal methods: Visa, Mastercard, Apple Pay, Paysafecard, Skrill, Neteller, GPay and Neosurf.
Set minimum deposit options at NZ$5 for basic transactions and NZ$10 when tied to bonus eligibility.
Set withdrawal minimum to NZ$50 and document processing times: web wallets 24–48 hours, cards and bank transfers 3–7 business days.
Validate payment provider KYC triggers and chargeback handling before live traffic hits production.
KYC
Define KYC flow that requires ID, proof of address and source of funds before any withdrawal is processed.
Test KYC automation and manual review escalations with sample documents and fraud cases.
Audit logging of KYC decisions must be replayable for compliance and dispute resolution.
Bonuses
Document the Welcome Bonus: up to NZ$1500 split across three deposits with match amounts up to NZ$500 each and 35x wagering.
Set minimum deposit for bonus eligibility to NZ$10 and attach daily 10 spins promotion with chance at big prize mechanics.
List game exclusions that do not contribute to wagering and enforce playthrough rules server-side to prevent abuse.
Legal
Confirm server-side RNG certification and lab reports such as GLI or iTech are in place and filed.
Check CDN POP coverage for NZ and validate persistent connection scaling and edge cost estimates.
Run a legal checkpoint against New Zealand remote interactive casino rules and Department of Internal Affairs guidance and restrict access if local rules disallow service.
| Item | Value |
|---|---|
| Minimum Deposit | NZ$5 (NZ$10 for bonuses) |
| Withdrawal Minimum | NZ$50 |
| Welcome Bonus | Up to NZ$1500 over 3 deposits, 35x wagering, daily 10 spins |
Post-launch Incident Response And Player Support Workflow For Latency And Disconnect Complaints
Players will report lag, lost spins or buffering and you need a clear playbook.
Here is a step-by-step approach to resolve issues quickly and fairly.
Keep communication simple and factual for players while your teams dig in.
Support Triage Flow
Rapid response starts with collecting the player environment: ISP, device, OS, app version and screenshots.
Ask for the session or request ID and timestamp so you can find correlated traces quickly.
Pull traces, logs and sampled pcaps linked to the session ID and check audit records for the spin outcome.
If audit shows a missed or duplicate outcome, prepare an audit replay to confirm the result server-side.
Decide a transparent remediation: refund, reversal or a clear explanation with evidence.
Flowchart: Collect Env → Fetch Session ID → Pull Traces/PCAP → Confirm Audit Record → Replay If Needed → Resolution
Triage common root causes by category: local connectivity issues, server processing delays, CDN edge faults or third-party integration errors.
Set support SLAs: initial response under 30 minutes and technical resolution or escalation within 4 hours for suspected server-side faults.
Preserve logs and traces for at least the certification lab window and escalate to GLI/iTech if an independent audit is requested.
Use a short support template that explains steps clearly and invites the player to follow up if anything is missing.
Template snippet: “Thanks for flagging this. I have your session ID and will check the trace and audit log. I will update you within 4 hours with either a reversal, refund or technical explanation.”
Self-Assessment Of Helpfulness And Reliability For This Outline
I built these recommendations from industry standards and operational experience with HTML5 clients and real-world NZ routing patterns.
Sources backing the approach include RFC 6455 and MDN WebSockets for connection behaviour, Cloudflare TLS notes for edge security, Google Web Performance guidance for client metrics and GLI/iTech Labs and Department of Internal Affairs guidance for certification and legal checkpoints.
I assume a typical HTML5 client, server-side RNG, and routing through ANZ POPs for NZ region segmentation and tests.
Where I applied original analysis was in the NZ test matrix, alert thresholds for All Slots and the operational checklists matched to the product specifics and eGaming licence number 155 C1 issued in Alderney on 15 December 2020.
Vendor-specific parameters like CDN pricing, exact edge counts and provider integration quirks should be confirmed with your chosen vendors before final sign-off.
- Recommended immediate actions: run a baseline trace from major NZ ISPs, validate CDN POPs and persistent connection scaling, and perform a KYC and bonus playthrough audit with lab-signed RNG reports.
