frontend/src/bin/BinPlayer.tsx

870 lines
No EOL
30 KiB
TypeScript

import { DateRange, PlayArrow, Stop } from "@mui/icons-material";
import { Box, Button, DialogActions, DialogContent, FormControl, IconButton, LinearProgress, MenuItem, Select, TextField, Typography } from "@mui/material";
import { grey } from "@mui/material/colors";
import ResponsiveDialog from "common/ResponsiveDialog";
import { useMobile } from "hooks";
import { cloneDeep } from "lodash";
import { Bin } from "models";
import moment, { Moment } from "moment";
import { pond } from "protobuf-ts/pond";
import { quack } from "protobuf-ts/quack";
import { useBinAPI, useComponentAPI } from "providers";
import React, { useEffect, useRef, useState } from "react";
const CHECKPOINT_COUNT = 10;
interface StatusCheckpoint {
time: Moment;
timeString: string;
statusBushels: number;
cables: pond.GrainCable[];
fans: pond.BinFan[];
heaters: pond.BinHeater[];
}
interface Props {
bin: Bin;
setBin: React.Dispatch<React.SetStateAction<Bin>>;
componentDevices: Map<string, number>;
}
type ReadingSlot = {
timestamp: string;
values: number[];
};
type CableReadingsAtCheckpoint = {
temperature?: ReadingSlot;
humidity?: ReadingSlot;
moisture?: ReadingSlot;
};
/**
* Per-checkpoint bucket for boolean output components (fans, heaters).
* Only the most recent boolean reading in the time slice is kept.
*/
type BooleanStateAtCheckpoint = {
state?: ReadingSlot; // values[0] is the boolean (1 = on, 0 = off)
};
/** Per-checkpoint bucket: cable key → latest temp/humidity/moisture readings in that time slice. */
type CheckpointReadings = Map<string, CableReadingsAtCheckpoint>;
/** Per-checkpoint bucket: component key → latest boolean state in that time slice. */
type CheckpointBooleanStates = Map<string, BooleanStateAtCheckpoint>;
/**
* Returns true when `candidate` should replace `existing` in a bucket.
* Used so multiple samples in the same checkpoint keep only the newest reading per type.
*/
function readingIsNewer(candidate: ReadingSlot, existing?: ReadingSlot): boolean {
if (!existing) {
return true;
}
return moment(candidate.timestamp).valueOf() > moment(existing.timestamp).valueOf();
}
/**
* Stores one sampled reading on a cable's in-progress bucket state.
* Routes by measurement type: temperature → celcius nodes, percent RH → humidity nodes,
* grain EMC → moisture nodes. Ignores the update if an equal-or-newer reading is already stored.
*/
function upsertReading(
readings: CableReadingsAtCheckpoint,
type: quack.MeasurementType,
timestamp: string,
values: number[]
): void {
const slot: ReadingSlot = { timestamp, values };
if (type === quack.MeasurementType.MEASUREMENT_TYPE_TEMPERATURE) {
if (readingIsNewer(slot, readings.temperature)) {
readings.temperature = slot;
}
} else if (type === quack.MeasurementType.MEASUREMENT_TYPE_PERCENT) {
if (readingIsNewer(slot, readings.humidity)) {
readings.humidity = slot;
}
} else if (type === quack.MeasurementType.MEASUREMENT_TYPE_GRAIN_EMC) {
if (readingIsNewer(slot, readings.moisture)) {
readings.moisture = slot;
}
}
}
/**
* A trimmed record of a single component-settings history entry: just the timestamp and the
* top-node value (`grain_filled_to`) that was in effect from that point forward.
*/
type TopNodeHistoryEntry = {
timestamp: Moment;
topNode: number;
};
function buildTopNodeHistory(
history: pond.ComponentHistory[]
): TopNodeHistoryEntry[] {
return history
.filter(h => h.component && h.component.grainFilledTo > 0 && h.timestamp)
.map(h => ({
timestamp: moment(h.timestamp),
topNode: h.component ? h.component.grainFilledTo : 0,
}))
.sort((a, b) => a.timestamp.valueOf() - b.timestamp.valueOf());
}
function topNodeAtTime(
history: TopNodeHistoryEntry[],
checkpointTime: Moment
): number | undefined {
if (history.length === 0) return undefined;
const t = checkpointTime.valueOf();
let lo = 0;
let hi = history.length - 1;
let result: number | undefined = undefined;
while (lo <= hi) {
const mid = (lo + hi) >>> 1;
if (history[mid].timestamp.valueOf() <= t) {
result = history[mid].topNode;
lo = mid + 1;
} else {
hi = mid - 1;
}
}
return result;
}
/**
* A single recorded bushel estimate with its timestamp, sourced from bin object measurements.
*/
type BushelEntry = {
timestamp: Moment;
bushels: number;
};
function buildBushelHistory(
response: pond.ListObjectMeasurementsResponse
): BushelEntry[] {
const entries: BushelEntry[] = [];
response.measurements.forEach(um => {
const isBushelType =
um.measurementType === quack.MeasurementType.MEASUREMENT_TYPE_BUSHEL_LIDAR ||
um.measurementType === quack.MeasurementType.MEASUREMENT_TYPE_BUSHEL_CABLE ||
um.measurementType === quack.MeasurementType.MEASUREMENT_TYPE_BUSHEL_LIBRACART;
if (!isBushelType) return;
um.timestamps.forEach((ts, i) => {
const valueArray = um.values[i];
if (!ts || !valueArray || valueArray.error || valueArray.values.length === 0) return;
entries.push({
timestamp: moment(ts),
bushels: valueArray.values[0],
});
});
});
return entries.sort((a, b) => a.timestamp.valueOf() - b.timestamp.valueOf());
}
function bushelsAtTime(
history: BushelEntry[],
checkpointTime: Moment
): number | undefined {
if (history.length === 0) return undefined;
const t = checkpointTime.valueOf();
let lo = 0;
let hi = history.length - 1;
let result: number | undefined = undefined;
while (lo <= hi) {
const mid = (lo + hi) >>> 1;
if (history[mid].timestamp.valueOf() <= t) {
result = history[mid].bushels;
lo = mid + 1;
} else {
hi = mid - 1;
}
}
return result;
}
/**
* Produces `count` wall-clock times evenly spaced from `start` through `end` (inclusive).
* These are the playback frames — not derived from measurement data.
*/
function buildCheckpointTimes(start: Moment, end: Moment, count: number): Moment[] {
const startMs = start.valueOf();
const endMs = end.valueOf();
if (count <= 1 || endMs <= startMs) {
return [moment(startMs)];
}
const span = endMs - startMs;
return Array.from({ length: count }, (_, i) =>
moment(startMs + (span * i) / (count - 1))
);
}
/**
* Maps a measurement timestamp to a checkpoint bucket index in [0, count - 1].
* The [start, end] range is split into `count` equal-width segments; a reading lands in
* the segment it falls into. Times before start → 0, after end → last bucket.
*/
function checkpointIndexForTimestamp(
timestamp: Moment,
start: Moment,
end: Moment,
count: number
): number {
const startMs = start.valueOf();
const endMs = end.valueOf();
if (count <= 1 || endMs <= startMs) {
return 0;
}
const t = timestamp.valueOf();
if (t <= startMs) {
return 0;
}
if (t >= endMs) {
return count - 1;
}
const fraction = (t - startMs) / (endMs - startMs);
const idx = Math.floor(fraction * count);
return Math.min(idx, count - 1);
}
/**
* Creates `count` empty buckets, each pre-populated with an empty reading map per cable key.
* Output length matches checkpoint count; index aligns with `buildCheckpointTimes`.
*/
function emptyCheckpointReadings(cableKeys: string[], count: number): CheckpointReadings[] {
return Array.from({ length: count }, () => {
const map: CheckpointReadings = new Map();
cableKeys.forEach(key => map.set(key, {}));
return map;
});
}
/**
* Creates `count` empty boolean state buckets, each pre-populated per component key.
*/
function emptyCheckpointBooleanStates(
componentKeys: string[],
count: number
): CheckpointBooleanStates[] {
return Array.from({ length: count }, () => {
const map: CheckpointBooleanStates = new Map();
componentKeys.forEach(key => map.set(key, {}));
return map;
});
}
/**
* Walks every sampled measurement from each cable response and places it into a time bucket.
* `measurementResponses[i]` corresponds to `cableKeys[i]` (same order as the sample requests).
* Within a bucket, only the newest reading per measurement type is kept per cable.
*/
function assignMeasurementsToCheckpoints(
cableKeys: string[],
measurementResponses: pond.SampleUnitMeasurementsResponse[],
start: Moment,
end: Moment,
count: number
): CheckpointReadings[] {
const buckets = emptyCheckpointReadings(cableKeys, count);
measurementResponses.forEach((response, cableIndex) => {
const cableKey = cableKeys[cableIndex];
if (!cableKey) {
return;
}
response.measurements.forEach(um => {
um.timestamps.forEach((ts, i) => {
const valueArray = um.values[i];
if (!ts || !valueArray || valueArray.error) {
return;
}
const idx = checkpointIndexForTimestamp(moment(ts), start, end, count);
const readings = buckets[idx].get(cableKey)!;
upsertReading(readings, um.type, ts, valueArray.values);
});
});
});
return buckets;
}
/**
* Walks every sampled measurement from each boolean output component (fan/heater) response
* and places the boolean state into a time bucket. Only the newest MEASUREMENT_TYPE_BOOLEAN
* reading per component per bucket is kept.
*/
function assignBooleanStatesToCheckpoints(
componentKeys: string[],
measurementResponses: pond.SampleUnitMeasurementsResponse[],
start: Moment,
end: Moment,
count: number
): CheckpointBooleanStates[] {
const buckets = emptyCheckpointBooleanStates(componentKeys, count);
measurementResponses.forEach((response, componentIndex) => {
const componentKey = componentKeys[componentIndex];
if (!componentKey) {
return;
}
response.measurements.forEach(um => {
if (um.type !== quack.MeasurementType.MEASUREMENT_TYPE_BOOLEAN) {
return;
}
um.timestamps.forEach((ts, i) => {
const valueArray = um.values[i];
if (!ts || !valueArray || valueArray.error || valueArray.values.length === 0) {
return;
}
const slot: ReadingSlot = { timestamp: ts, values: valueArray.values };
const idx = checkpointIndexForTimestamp(moment(ts), start, end, count);
const entry = buckets[idx].get(componentKey)!;
if (readingIsNewer(slot, entry.state)) {
entry.state = slot;
}
});
});
});
return buckets;
}
/**
* Picks the newest timestamp across temp, humidity, and moisture slots for a cable.
* Used as `lastRead` on the reconstructed `pond.GrainCable`.
*/
function latestTimestamp(readings: CableReadingsAtCheckpoint): string | undefined {
const slots = [readings.temperature, readings.humidity, readings.moisture].filter(
(s): s is ReadingSlot => s !== undefined
);
if (slots.length === 0) {
return undefined;
}
return slots.reduce(
(latest, slot) =>
moment(slot.timestamp).valueOf() > moment(latest).valueOf() ? slot.timestamp : latest,
slots[0].timestamp
);
}
/**
* Combines readings carried forward from earlier checkpoints with readings in the current bucket.
* Any type missing in the current bucket keeps the previous checkpoint's value so playback
* does not drop cables back to template defaults between sparse samples.
*/
function mergeCarriedReadings(
carried: CableReadingsAtCheckpoint,
current: CableReadingsAtCheckpoint
): CableReadingsAtCheckpoint {
return {
temperature: current.temperature ?? carried.temperature,
humidity: current.humidity ?? carried.humidity,
moisture: current.moisture ?? carried.moisture
};
}
/**
* Combines boolean states carried forward from earlier checkpoints with the current bucket.
* If no reading exists in the current bucket the last known state is preserved, so fans/heaters
* don't flicker back to their template default between sparse samples.
*/
function mergeCarriedBooleanState(
carried: BooleanStateAtCheckpoint,
current: BooleanStateAtCheckpoint
): BooleanStateAtCheckpoint {
return {
state: current.state ?? carried.state
};
}
/**
* Clones a live `pond.GrainCable` template (name, key, device, top node, etc.) and overwrites
* node arrays from reconciled readings. `lastRead` is the newest measurement time, or the
* checkpoint time when no readings exist yet for that cable.
*/
function buildGrainCableFromReadings(
template: pond.GrainCable,
readings: CableReadingsAtCheckpoint,
checkpointTime: Moment
): pond.GrainCable {
const cable = pond.GrainCable.fromObject(cloneDeep(template));
// Clear template values so empty checkpoints don't inherit live data
cable.celcius = [];
cable.relativeHumidity = [];
cable.moisture = [];
if (readings.temperature) {
cable.celcius = [...readings.temperature.values];
}
if (readings.humidity) {
cable.relativeHumidity = [...readings.humidity.values];
}
if (readings.moisture) {
cable.moisture = [...readings.moisture.values];
}
cable.lastRead = latestTimestamp(readings) ?? checkpointTime.toISOString();
return cable;
}
/**
* Clones a `pond.BinFan` template and overwrites its `state` from the reconciled boolean
* reading. If no reading has been seen yet the template state is left as-is (carry-forward
* will eventually set it once the first sample arrives).
*/
function buildBinFanFromState(
template: pond.BinFan,
booleanState: BooleanStateAtCheckpoint
): pond.BinFan {
const fan = pond.BinFan.fromObject(cloneDeep(template));
if (booleanState.state !== undefined) {
fan.state = booleanState.state.values[0] !== 0;
}
return fan;
}
/**
* Clones a `pond.BinHeater` template and overwrites its `state` from the reconciled boolean
* reading. Same carry-forward semantics as `buildBinFanFromState`.
*/
function buildBinHeaterFromState(
template: pond.BinHeater,
booleanState: BooleanStateAtCheckpoint
): pond.BinHeater {
const heater = pond.BinHeater.fromObject(cloneDeep(template));
if (booleanState.state !== undefined) {
heater.state = booleanState.state.values[0] !== 0;
}
return heater;
}
/**
* End-to-end pipeline: evenly spaced times → bucket measurements → carry-forward merge → cables + fans + heaters.
* Returns one `StatusCheckpoint` per frame with `time` (playback moment), `cables`
* (full `grainCables` array), `fans`, and `heaters` as they would have appeared at that moment.
*/
function buildStatusCheckpoints(
cableTemplates: pond.GrainCable[],
fanTemplates: pond.BinFan[],
heaterTemplates: pond.BinHeater[],
cableMeasurementResponses: pond.SampleUnitMeasurementsResponse[],
fanMeasurementResponses: pond.SampleUnitMeasurementsResponse[],
heaterMeasurementResponses: pond.SampleUnitMeasurementsResponse[],
/** Sorted top-node history per cable key. Pass an empty Map when not needed. */
topNodeHistories: Map<string, TopNodeHistoryEntry[]>,
/** Sorted bushel history derived from bin object measurements. */
bushelHistory: BushelEntry[],
/** Fallback bushel count used when no measurement precedes a checkpoint. */
fallbackBushels: number,
start: Moment,
end: Moment,
count: number = CHECKPOINT_COUNT
): StatusCheckpoint[] {
const times = buildCheckpointTimes(start, end, count);
console.log(times);
// --- cables ---
const cableKeys = cableTemplates.map(c => c.key);
const cableBuckets = assignMeasurementsToCheckpoints(
cableKeys,
cableMeasurementResponses,
start,
end,
count
);
// --- fans ---
const fanKeys = fanTemplates.map(f => f.key);
const fanBuckets = assignBooleanStatesToCheckpoints(
fanKeys,
fanMeasurementResponses,
start,
end,
count
);
// --- heaters ---
const heaterKeys = heaterTemplates.map(h => h.key);
const heaterBuckets = assignBooleanStatesToCheckpoints(
heaterKeys,
heaterMeasurementResponses,
start,
end,
count
);
// Carry-forward state per component
const carriedByCable = new Map<string, CableReadingsAtCheckpoint>();
cableKeys.forEach(key => carriedByCable.set(key, {}));
const carriedByFan = new Map<string, BooleanStateAtCheckpoint>();
fanKeys.forEach(key => carriedByFan.set(key, {}));
const carriedByHeater = new Map<string, BooleanStateAtCheckpoint>();
heaterKeys.forEach(key => carriedByHeater.set(key, {}));
return cableBuckets.map((cableBucket, i) => {
const time = times[i];
// Build cables
const cables = cableTemplates.map(template => {
const key = template.key;
const bucketReadings = cableBucket.get(key) ?? {};
const merged = mergeCarriedReadings(carriedByCable.get(key)!, bucketReadings);
carriedByCable.set(key, merged);
const cable = buildGrainCableFromReadings(template, merged, time);
// Apply the most recent top-node setting that was in effect at this checkpoint time.
// Falls back to the template's current top_node when no history entry precedes this time.
const history = topNodeHistories.get(key);
if (history) {
const tn = topNodeAtTime(history, time);
if (tn !== undefined) {
cable.topNode = tn;
}
}
return cable;
});
// Build fans
const fans = fanTemplates.map(template => {
const key = template.key;
const bucketState = fanBuckets[i].get(key) ?? {};
const merged = mergeCarriedBooleanState(carriedByFan.get(key)!, bucketState);
carriedByFan.set(key, merged);
return buildBinFanFromState(template, merged);
});
// Build heaters
const heaters = heaterTemplates.map(template => {
const key = template.key;
const bucketState = heaterBuckets[i].get(key) ?? {};
const merged = mergeCarriedBooleanState(carriedByHeater.get(key)!, bucketState);
carriedByHeater.set(key, merged);
return buildBinHeaterFromState(template, merged);
});
// Resolve bushels: binary search gives the most recent recorded value at or before this
// checkpoint (carry-forward is implicit in the search). Falls back to the current live
// status bushels when the playback range predates all recorded measurements.
const statusBushels = bushelsAtTime(bushelHistory, time) ?? fallbackBushels;
return { time, cables, fans, heaters, timeString: time.toISOString(), statusBushels };
}).filter(checkpoint =>
// Keep checkpoints that have at least some cable data
checkpoint.cables.some(cable =>
cable.celcius.length > 0 ||
cable.relativeHumidity.length > 0 ||
cable.moisture.length > 0
)
);
}
/**
* Calculates the number of checkpoints to create based on the start and end dates.
* Is hard coded to space the checkpoints 6 hours apart.
* @param start - The start date
* @param end - The end date
* @returns The number of checkpoints to create
*/
function checkpointCountFromRange(start: Moment, end: Moment): number {
const hours = end.diff(start, 'hours');
return Math.max(1, Math.floor(hours / 6) + 1);
}
/**
* This component is used to reconcile measurements with an array of bin objects in order to see how the bin has progressed over a set period.
* It gets the measurements for connected components, and uses those measurements to create a bin and simulate what its status would have been
* at that time, creates an array of bins doing this and then uses a timer in a loop to change the bin in the status.
* Fans and heaters are included so playback also reflects which equipment was running at each checkpoint.
* @returns a JSX Element
*/
export default function BinPlayer(props: Props) {
const { bin, componentDevices, setBin } = props;
const isMobile = useMobile();
const componentAPI = useComponentAPI();
const binAPI = useBinAPI();
const [dateSelect, setDateSelect] = useState<number>(0);
const [startDate, setStartDate] = useState<Moment>(moment().subtract(1, 'week'));
const [endDate, setEndDate] = useState<Moment>(moment);
const [dateRangeDialog, setDateRangeDialog] = useState(false);
const [tempStartDate, setTempStartDate] = useState<Moment>(moment().subtract(1, 'week'));
const [tempEndDate, setTempEndDate] = useState<Moment>(moment());
const [currentCheckpointTime, setCurrentCheckpointTime] = useState<Moment | undefined>(undefined);
const [displayProgress, setDisplayProgress] = useState(0);
const totalCheckpoints = useRef(0);
const checkpointStartTime = useRef(0);
const currentCheckpointIndex = useRef(0);
const isPlaying = useRef(false);
const PLAYBACK_INTERVAL = 1000;
const [isPlayingState, setIsPlayingState] = useState(false);
const stopPlayer = () => { isPlaying.current = false; };
const originalBin = useRef<Bin | null>(null);
useEffect(() => {
if (!isPlayingState) return;
const fps = 30;
const interval = 1000 / fps;
const stepDuration = PLAYBACK_INTERVAL;
const timer = setInterval(() => {
if (!isPlayingState) {
clearInterval(timer);
setDisplayProgress(0);
return;
}
const total = totalCheckpoints.current;
if (total === 0) return;
const idx = currentCheckpointIndex.current;
const elapsed = Date.now() - checkpointStartTime.current;
const stepProgress = Math.min(elapsed / stepDuration, 1);
const raw = total <= 1 ? 100 : ((idx + stepProgress) / (total - 1)) * 100;
setDisplayProgress(Math.min(raw, 100));
}, interval);
return () => clearInterval(timer);
}, [isPlayingState]);
/**
* Fetches sampled unit measurements for every grain cable, fan, and heater in the current
* bin status, then builds `statusCheckpoints` for playback over [startDate, endDate].
*/
const startPlayer = async () => {
originalBin.current = cloneDeep(bin);
isPlaying.current = true;
setIsPlayingState(true);
// Cable requests
const cableSampleRequests = bin.status.grainCables.map(cable => {
const deviceID = componentDevices.get(cable.key) ?? 0;
return componentAPI.sampleUnitMeasurements(deviceID, cable.key, startDate, endDate, 100, undefined, undefined, undefined, undefined, true);
});
// Cable top-node history requests — one per cable, covering the full playback range.
const cableHistoryRequests = bin.status.grainCables.map(cable => {
const deviceID = componentDevices.get(cable.key) ?? 0;
return componentAPI.listHistoryBetween(
deviceID,
cable.key,
startDate.toISOString(),
endDate.toISOString()
);
});
// Fan requests
const fanSampleRequests = bin.status.fans.map(fan => {
const deviceID = componentDevices.get(fan.key) ?? 0;
return componentAPI.sampleUnitMeasurements(deviceID, fan.key, startDate, endDate, 100, undefined, undefined, undefined, undefined, true);
});
// Heater requests
const heaterSampleRequests = bin.status.heaters.map(heater => {
const deviceID = componentDevices.get(heater.key) ?? 0;
return componentAPI.sampleUnitMeasurements(deviceID, heater.key, startDate, endDate, 100, undefined, undefined, undefined, undefined, true);
});
const binMeasurementsRequest = binAPI.listBinMeasurements(bin.key(), startDate, endDate, 0, 0, 'asc');
const [cableResponses, fanResponses, heaterResponses, cableHistoryResponses, binMeasurementsResponse] = await Promise.all([
Promise.all(cableSampleRequests),
Promise.all(fanSampleRequests),
Promise.all(heaterSampleRequests),
Promise.all(cableHistoryRequests),
binMeasurementsRequest,
]);
// Build a per-cable sorted top-node history map for use during checkpoint construction.
const topNodeHistories = new Map<string, TopNodeHistoryEntry[]>();
bin.status.grainCables.forEach((cable, i) => {
const historyResp = cableHistoryResponses[i];
const entries = buildTopNodeHistory(historyResp?.data?.history ?? []);
topNodeHistories.set(cable.key, entries);
});
// Build sorted bushel history from bin object measurements.
const bushelHistory = buildBushelHistory(binMeasurementsResponse.data);
const checkpoints = buildStatusCheckpoints(
bin.status.grainCables,
bin.status.fans,
bin.status.heaters,
cableResponses.map(r => r.data),
fanResponses.map(r => r.data),
heaterResponses.map(r => r.data),
topNodeHistories,
bushelHistory,
bin.status.grainBushels,
startDate,
endDate,
checkpointCountFromRange(startDate, endDate)
);
for (let i = 0; i < checkpoints.length; i++) {
if (!isPlaying.current) {
setBin(originalBin.current!);
setCurrentCheckpointTime(undefined);
setIsPlayingState(false);
return;
}
currentCheckpointIndex.current = i;
totalCheckpoints.current = checkpoints.length;
checkpointStartTime.current = Date.now();
const newBin = cloneDeep(originalBin.current!);
newBin.status.grainCables = checkpoints[i].cables;
newBin.status.fans = checkpoints[i].fans;
newBin.status.heaters = checkpoints[i].heaters;
newBin.status.grainBushels = checkpoints[i].statusBushels;
setBin(newBin);
setCurrentCheckpointTime(checkpoints[i].time);
await new Promise(res => setTimeout(res, PLAYBACK_INTERVAL));
}
isPlaying.current = false;
setIsPlayingState(false);
setBin(originalBin.current!);
setCurrentCheckpointTime(undefined);
};
const datePickerDialog = () => {
return (
<ResponsiveDialog
open={dateRangeDialog}
onClose={() => setDateRangeDialog(false)}
aria-labelledby="date-range-dialog">
<DialogContent>
<TextField
fullWidth
margin="normal"
type="date"
label="Start Date"
value={tempStartDate.format("YYYY-MM-DD")}
onChange={e => {
setTempStartDate(moment(e.target.value));
}}
/>
<TextField
fullWidth
margin="normal"
type="date"
label="End Date"
value={tempEndDate.format("YYYY-MM-DD")}
onChange={e => {
setTempEndDate(moment(e.target.value));
}}
/>
</DialogContent>
<DialogActions>
<Button onClick={() => setDateRangeDialog(false)} color="primary">
Close
</Button>
<Button onClick={() => {
const now = moment();
setStartDate(tempStartDate.clone().set({
hour: now.hour(),
minute: now.minute(),
second: now.second()
}));
setEndDate(tempEndDate.clone().set({
hour: now.hour(),
minute: now.minute(),
second: now.second()
}));
setDateRangeDialog(false);
}} color="primary">
Submit
</Button>
</DialogActions>
</ResponsiveDialog>
);
};
const dateSelector = () => {
return (
<Box display="flex" flexDirection="row" justifyContent="space-between">
<FormControl fullWidth>
<Select
value={dateSelect}
sx={{
fontSize: 12,
borderRadius: 2,
border: "1px solid",
borderColor: grey[800],
'& .MuiSelect-select': {
py: 1.5,
},
'& .MuiOutlinedInput-notchedOutline': { border: 'none' },
'&:hover .MuiOutlinedInput-notchedOutline': { border: 'none' },
'&.Mui-focused .MuiOutlinedInput-notchedOutline': { border: 'none' },
}}
onChange={event => {
setDateSelect(event.target.value as number);
let currentDate = moment();
setEndDate(currentDate);
switch (event.target.value) {
case 0:
setStartDate(currentDate.clone().subtract(1, 'week'));
break;
case 1:
setStartDate(currentDate.clone().subtract(2, 'weeks'));
break;
case 2:
setStartDate(currentDate.clone().subtract(4, 'weeks'));
break;
}
}}
>
<MenuItem value={0}>1 Week</MenuItem>
<MenuItem value={1}>2 Weeks</MenuItem>
<MenuItem value={2}>4 Weeks</MenuItem>
<MenuItem value={3}>Custom</MenuItem>
</Select>
</FormControl>
{dateSelect === 3 && (
<Button onClick={() => setDateRangeDialog(true)} color="primary"><DateRange /></Button>
)}
</Box>
);
};
return (
<React.Fragment>
{datePickerDialog()}
<Box display="flex" flexDirection="row" justifyContent="space-between" width="100%" gap={2} alignContent={"center"} alignItems={"center"}>
{/* start/stop button */}
<Box>
{isPlayingState ? (
<IconButton sx={{ border: "1px solid", borderRadius: "50%", padding: 1, height: isMobile ? 40 : 60, width: isMobile ? 40 : 60 }} onClick={stopPlayer}><Stop fontSize="large" /></IconButton>
) : (
<IconButton sx={{ border: "1px solid", borderRadius: "50%", padding: 1, height: isMobile ? 40 : 60, width: isMobile ? 40 : 60 }} onClick={startPlayer}><PlayArrow fontSize="large" /></IconButton>
)}
</Box>
{/* progress bar and date display */}
<Box sx={{ flexGrow: 1 }}>
<Typography fontSize={isMobile ? 15 : 17} textAlign={"center"}>{currentCheckpointTime ? currentCheckpointTime.format("MMM D, YYYY h:mm A") : moment().format("MMM D, YYYY h:mm A")}</Typography>
<LinearProgress value={displayProgress} variant="determinate" color="inherit" />
<Box display="flex" flexDirection="row" justifyContent="space-between">
<Typography variant="caption">{startDate.format("MMM D, YYYY")}</Typography>
<Typography variant="caption">{endDate.format("MMM D, YYYY")}</Typography>
</Box>
</Box>
{/* date range selector */}
<Box>
{dateSelector()}
</Box>
</Box>
</React.Fragment>
);
}