This question tests the 1st grade skill of explaining how the time of year relates to the amount of daylight using evidence from observations (1-ESS1-2: Make observations at different times of year to relate the amount of daylight to the time of year). The time of year (what season or month it is) directly affects how much daylight we have. During summer months (June, July, August), there are many hours of daylight - the sun is up for a long time each day. During winter months (December, January, February), there are fewer hours of daylight - the sun is up for less time. Spring and fall have in-between amounts. This pattern repeats every year, making it predictable: if we know what time of year it is, we can predict approximately how much daylight there will be. In this tracking data, the evidence shows Yuki recorded daylight hours across three different times: February (winter) has 10 hours, May (spring) has 14 hours, and October (fall) has 11 hours. This evidence clearly demonstrates that daylight is least in winter, increases to a peak near summer, then decreases again toward winter. Choice A is correct because it accurately states that daylight changes with months and correctly describes the pattern of more daylight near summer and less near winter. This matches the evidence showing May (approaching summer) with the most hours and February (winter) with the least. Choice C represents a reversed relationship, claiming winter has the most daylight. This error typically occurs when students confuse or reverse the pattern, possibly mixing up concepts or not carefully connecting months to seasons to daylight amounts. To help students understand time-of-year and daylight relationship: Create three-column charts (Month | Season | Daylight Hours) to make connections explicit; use gestures showing high for summer daylight and low for winter; practice pattern recognition ('February is winter with less light, May is spring with more light, October is fall with medium light'); arrange months in circular yearly pattern to show the cycle. Watch for: students who reverse patterns, who know individual facts but can't synthesize the overall pattern, who don't connect month names to seasons, or who think the pattern is random rather than predictable based on time of year.

This question tests the 1st grade skill of explaining how the time of year relates to the amount of daylight using evidence from observations (1-ESS1-2: Make observations at different times of year to relate the amount of daylight to the time of year). The time of year (what season or month it is) directly affects how much daylight we have. During summer months (June, July, August), there are many hours of daylight - the sun is up for a long time each day. During winter months (December, January, February), there are fewer hours of daylight - the sun is up for less time. Spring and fall have in-between amounts. This pattern repeats every year, making it predictable: if we know what time of year it is, we can predict approximately how much daylight there will be. In this sunset time data, the evidence shows Amir's class tracked when the sun sets: August at 8pm, October at 6:30pm, and December at 5pm. This evidence clearly demonstrates that as months progress toward winter, the sun sets earlier and earlier, meaning there is less daylight - from August to December, sunset gets 3 hours earlier. Choice A is correct because it accurately states that as months go toward winter, there is less daylight. This matches the evidence that sunset times get progressively earlier (8pm → 6:30pm → 5pm) as months move from summer through fall to winter, showing decreasing daylight. Choice B represents reversed relationship. This error typically occurs when students misunderstand the direction of change or confuse which season has more daylight, not recognizing that earlier sunsets mean less total daylight. To help students understand time-of-year and daylight relationship: Create clear connections between sunset times and daylight amount ('If sun sets at 8pm, we have lots of daylight. If sun sets at 5pm, we have less daylight'); show the progression visually with clocks; practice interpreting sunset data ('Earlier sunset = less daylight, later sunset = more daylight'); emphasize the pattern from summer to winter. Watch for: students who think earlier times might mean more daylight, who don't connect sunset time to total daylight hours, who reverse the seasonal pattern, or who attribute changes to temperature rather than recognizing time of year as the cause.

This question tests the 1st grade skill of explaining how the time of year relates to the amount of daylight using evidence from observations (1-ESS1-2: Make observations at different times of year to relate the amount of daylight to the time of year). The time of year (what season or month it is) directly affects how much daylight we have. During summer months (June, July, August), there are many hours of daylight - the sun is up for a long time each day. During winter months (December, January, February), there are fewer hours of daylight - the sun is up for less time. Spring and fall have in-between amounts. This pattern repeats every year, making it predictable: if we know what time of year it is, we can predict approximately how much daylight there will be. In this observation record, the evidence shows character's observations across several months noting daylight decreasing from July when it stayed light until 8pm to January when it was dark by 5pm, showing summer with more daylight and winter with less. This evidence clearly demonstrates as time of year changes, daylight amount changes; summer times have more daylight than winter times. Choice A is correct because it accurately states time of year affects daylight amount, describes pattern of more daylight in summer and less in winter, connects observations to time-of-year cause, uses evidence to show relationship. This matches the evidence that observations show as year progressed from summer to winter daylight decreased. Choice B represents wrong cause attribution, claiming daylight changes because of school instead of time of year. This error typically occurs when students confuse correlation with causation, focus on associated features like daily routines rather than time of year, don't yet understand 'relates to' language, see facts but don't connect them, think changes are random rather than predictable based on time of year. To help students understand time-of-year and daylight relationship: Create clear 'if-then' statements ('If it's summer, then we have many daylight hours. If it's winter, then we have fewer hours'); track daylight across multiple months showing how amount changes as time of year changes; explicitly label time markers (months, seasons) with corresponding daylight data; practice cause-effect language ('because it's winter, we have less daylight'); make predictions ('It's June now, so we should have about X hours of daylight'). Watch for: students who see facts but don't connect them (know summer has more daylight but don't link it to time of year), who reverse cause-effect (think daylight amount determines season rather than season determining daylight), who attribute changes to weather or temperature instead of time of year, or who think pattern is random rather than tied to predictable yearly cycle. Key concept: time of year (when in the year it is) determines/affects/relates to amount of daylight we have.

This question tests the 1st grade skill of explaining how the time of year relates to the amount of daylight using evidence from observations (1-ESS1-2: Make observations at different times of year to relate the amount of daylight to the time of year). The time of year (what season or month it is) directly affects how much daylight we have. During summer months (June, July, August), there are many hours of daylight - the sun is up for a long time each day. During winter months (December, January, February), there are fewer hours of daylight - the sun is up for less time. Spring and fall have in-between amounts. This pattern repeats every year, making it predictable: if we know what time of year it is, we can predict approximately how much daylight there will be. In this comparison, the evidence shows Keisha's data on seasons with summer having about 15 daylight hours and winter having about 9, showing summer with more hours than winter. This evidence clearly demonstrates as time of year changes, daylight amount changes; summer times have more daylight than winter times; seasons correspond to different daylight amounts. Choice A is correct because it accurately states time of year affects daylight amount, describes pattern of more daylight in summer and less in winter, connects observations to time-of-year cause, uses evidence to show relationship. This matches the evidence that data table comparing seasons with corresponding daylight amounts shows summer with 15 hours and winter with 9. Choice B represents wrong cause attribution, saying daylight depends on temperature not season or month. This error typically occurs when students focus on associated features like temperature rather than time of year, confuse correlation with causation. To help students understand time-of-year and daylight relationship: Create clear 'if-then' statements ('If it's summer, then we have many daylight hours. If it's winter, then we have fewer hours'); track daylight across multiple months showing how amount changes as time of year changes; explicitly label time markers (months, seasons) with corresponding daylight data; practice cause-effect language ('because it's winter, we have less daylight'); make predictions ('It's June now, so we should have about 15 hours of daylight'). Watch for: students who see facts but don't connect them (know summer has more daylight but don't link it to time of year), who reverse cause-effect (think daylight amount determines season rather than season determining daylight), who attribute changes to weather or temperature instead of time of year, or who think pattern is random rather than tied to predictable yearly cycle. Key concept: time of year (when in the year it is) determines/affects/relates to amount of daylight we have.

This question tests the 1st grade skill of explaining how the time of year relates to the amount of daylight using evidence from observations (1-ESS1-2: Make observations at different times of year to relate the amount of daylight to the time of year). The time of year (what season or month it is) directly affects how much daylight we have. During summer months (June, July, August), there are many hours of daylight - the sun is up for a long time each day. During winter months (December, January, February), there are fewer hours of daylight - the sun is up for less time. Spring and fall have in-between amounts. This pattern repeats every year, making it predictable: if we know what time of year it is, we can predict approximately how much daylight there will be. In this notes record, the evidence shows Amir's daylight hours for summer months with May at 14, June at 15, July at 15, August at 14, showing high hours during summer peaking in June and July. This evidence clearly demonstrates as time of year changes, daylight amount changes; summer times have more daylight; daylight is high in summer months. Choice A is correct because it accurately states time of year affects daylight amount, describes pattern of high daylight in summer, connects observations to time-of-year cause, uses evidence to show relationship. This matches the evidence that data shows summer months consistently with 14-15 hours demonstrating time of year determines amount. Choice B represents reversed relationship, saying daylight is lowest in June and highest in winter months. This error typically occurs when students reverse cause and effect, think changes are random rather than predictable based on time of year. To help students understand time-of-year and daylight relationship: Create clear 'if-then' statements ('If it's summer, then we have many daylight hours. If it's winter, then we have fewer hours'); track daylight across multiple months showing how amount changes as time of year changes; explicitly label time markers (months, seasons) with corresponding daylight data; practice cause-effect language ('because it's winter, we have less daylight'); make predictions ('It's June now, so we should have about 15 hours of daylight'). Watch for: students who see facts but don't connect them (know summer has more daylight but don't link it to time of year), who reverse cause-effect (think daylight amount determines season rather than season determining daylight), who attribute changes to weather or temperature instead of time of year, or who think pattern is random rather than tied to predictable yearly cycle. Key concept: time of year (when in the year it is) determines/affects/relates to amount of daylight we have.

This question tests the 1st grade skill of explaining how the time of year relates to the amount of daylight using evidence from observations (1-ESS1-2: Make observations at different times of year to relate the amount of daylight to the time of year). The time of year (what season or month it is) directly affects how much daylight we have. During summer months (June, July, August), there are many hours of daylight - the sun is up for a long time each day. During winter months (December, January, February), there are fewer hours of daylight - the sun is up for less time. Spring and fall have in-between amounts. This pattern repeats every year, making it predictable: if we know what time of year it is, we can predict approximately how much daylight there will be. In this observation record, the evidence shows Chen's measurements for different months with March at 12 hours, June at 15, September at 12, and December at 9, showing increasing from spring to summer then decreasing to winter. This evidence clearly demonstrates as time of year changes, daylight amount changes; summer times have more daylight than winter times; daylight grows from winter to summer and shrinks back. Choice A is correct because it accurately describes pattern of more daylight in summer and less in winter, connects observations to time-of-year cause, uses evidence to show relationship. This matches the evidence that data points from different times of year show predictable pattern with June at 15 hours and December at 9. Choice C represents reversed relationship, saying daylight is shortest in June and longest in December. This error typically occurs when students reverse cause and effect, confuse correlation with causation. To help students understand time-of-year and daylight relationship: Create clear 'if-then' statements ('If it's summer, then we have many daylight hours. If it's winter, then we have fewer hours'); track daylight across multiple months showing how amount changes as time of year changes; explicitly label time markers (months, seasons) with corresponding daylight data; practice cause-effect language ('because it's winter, we have less daylight'); make predictions ('It's June now, so we should have about 15 hours of daylight'). Watch for: students who see facts but don't connect them (know summer has more daylight but don't link it to time of year), who reverse cause-effect (think daylight amount determines season rather than season determining daylight), who attribute changes to weather or temperature instead of time of year, or who think pattern is random rather than tied to predictable yearly cycle. Key concept: time of year (when in the year it is) determines/affects/relates to amount of daylight we have.

This question tests the 1st grade skill of explaining how the time of year relates to the amount of daylight using evidence from observations (1-ESS1-2: Make observations at different times of year to relate the amount of daylight to the time of year). The time of year (what season or month it is) directly affects how much daylight we have. During summer months (June, July, August), there are many hours of daylight - the sun is up for a long time each day. During winter months (December, January, February), there are fewer hours of daylight - the sun is up for less time. Spring and fall have in-between amounts. This pattern repeats every year, making it predictable: if we know what time of year it is, we can predict approximately how much daylight there will be. In this observation record, the evidence shows Emma's notes across fall months noting it was light after dinner in September but dark after dinner in November, showing daylight decreasing from early fall to late fall. This evidence clearly demonstrates as time of year changes, daylight amount changes; later in fall there is less daylight; when it's September there is more but in November there is less. Choice A is correct because it accurately states time of year affects daylight amount, describes pattern of less daylight later in fall, connects observations to time-of-year cause, uses evidence to show relationship. This matches the evidence that observations show as year progressed from September to November daylight decreased. Choice C represents reversed relationship, saying daylight is longer in November than in September. This error typically occurs when students reverse cause and effect, focus on associated features like temperature rather than time of year. To help students understand time-of-year and daylight relationship: Create clear 'if-then' statements ('If it's summer, then we have many daylight hours. If it's winter, then we have fewer hours'); track daylight across multiple months showing how amount changes as time of year changes; explicitly label time markers (months, seasons) with corresponding daylight data; practice cause-effect language ('because it's winter, we have less daylight'); make predictions ('It's June now, so we should have about 15 hours of daylight'). Watch for: students who see facts but don't connect them (know summer has more daylight but don't link it to time of year), who reverse cause-effect (think daylight amount determines season rather than season determining daylight), who attribute changes to weather or temperature instead of time of year, or who think pattern is random rather than tied to predictable yearly cycle. Key concept: time of year (when in the year it is) determines/affects/relates to amount of daylight we have.

This question tests the 1st grade skill of explaining how the time of year relates to the amount of daylight using evidence from observations (1-ESS1-2: Make observations at different times of year to relate the amount of daylight to the time of year). The time of year (what season or month it is) directly affects how much daylight we have. During summer months (June, July, August), there are many hours of daylight - the sun is up for a long time each day. During winter months (December, January, February), there are fewer hours of daylight - the sun is up for less time. Spring and fall have in-between amounts. This pattern repeats every year, making it predictable: if we know what time of year it is, we can predict approximately how much daylight there will be. In this observation record, the evidence shows Maya's notes on different months with July staying light until 8 pm and January getting dark by 5 pm, showing summer months with more hours and winter months with fewer. This evidence clearly demonstrates as time of year changes, daylight amount changes; summer times have more daylight than winter times; when it's July it stays light late but in January it gets dark early. Choice B is correct because it accurately states time of year affects daylight amount, describes pattern of more daylight in summer and less in winter, connects observations to time-of-year cause, uses evidence to show relationship. This matches the evidence that observations show as year progressed from summer to winter daylight decreased. Choice A represents random pattern claim, saying daylight changes randomly and cannot be predicted by month. This error typically occurs when students don't yet understand 'relates to' language, see facts but don't connect them, think changes are random rather than predictable based on time of year. To help students understand time-of-year and daylight relationship: Create clear 'if-then' statements ('If it's summer, then we have many daylight hours. If it's winter, then we have fewer hours'); track daylight across multiple months showing how amount changes as time of year changes; explicitly label time markers (months, seasons) with corresponding daylight data; practice cause-effect language ('because it's winter, we have less daylight'); make predictions ('It's June now, so we should have about 15 hours of daylight'). Watch for: students who see facts but don't connect them (know summer has more daylight but don't link it to time of year), who reverse cause-effect (think daylight amount determines season rather than season determining daylight), who attribute changes to weather or temperature instead of time of year, or who think pattern is random rather than tied to predictable yearly cycle. Key concept: time of year (when in the year it is) determines/affects/relates to amount of daylight we have.

This question tests the 1st grade skill of explaining how the time of year relates to the amount of daylight using evidence from observations (1-ESS1-2: Make observations at different times of year to relate the amount of daylight to the time of year). The time of year (what season or month it is) directly affects how much daylight we have. During summer months (June, July, August), there are many hours of daylight - the sun is up for a long time each day. During winter months (December, January, February), there are fewer hours of daylight - the sun is up for less time. Spring and fall have in-between amounts. This pattern repeats every year, making it predictable: if we know what time of year it is, we can predict approximately how much daylight there will be. In this observation record, the evidence shows Jamal's recordings from winter to summer with December at 9 hours, February at 10, April at 13, and June at 15, showing increasing daylight as months progress from winter to summer. This evidence clearly demonstrates as time of year changes, daylight amount changes; summer times have more daylight than winter times; daylight increases from winter through spring to summer. Choice C is correct because it accurately states time of year affects daylight amount, describes pattern of increasing daylight from winter to summer, connects observations to time-of-year cause, uses evidence to show relationship. This matches the evidence that data points from different times of year show predictable pattern with daylight growing from 9 to 15 hours. Choice A represents reversed relationship, saying daylight gets less from winter to summer. This error typically occurs when students reverse cause and effect, see facts but don't connect them. To help students understand time-of-year and daylight relationship: Create clear 'if-then' statements ('If it's summer, then we have many daylight hours. If it's winter, then we have fewer hours'); track daylight across multiple months showing how amount changes as time of year changes; explicitly label time markers (months, seasons) with corresponding daylight data; practice cause-effect language ('because it's winter, we have less daylight'); make predictions ('It's June now, so we should have about 15 hours of daylight'). Watch for: students who see facts but don't connect them (know summer has more daylight but don't link it to time of year), who reverse cause-effect (think daylight amount determines season rather than season determining daylight), who attribute changes to weather or temperature instead of time of year, or who think pattern is random rather than tied to predictable yearly cycle. Key concept: time of year (when in the year it is) determines/affects/relates to amount of daylight we have.

This question tests the 1st grade skill of explaining how the time of year relates to the amount of daylight using evidence from observations (1-ESS1-2: Make observations at different times of year to relate the amount of daylight to the time of year). The time of year (what season or month it is) directly affects how much daylight we have. During summer months (June, July, August), there are many hours of daylight - the sun is up for a long time each day. During winter months (December, January, February), there are fewer hours of daylight - the sun is up for less time. Spring and fall have in-between amounts. This pattern repeats every year, making it predictable: if we know what time of year it is, we can predict approximately how much daylight there will be. In this observation record, the evidence shows character's observations noting in August it stayed light after dinner but in November it got dark after dinner, showing daylight decreasing from summer to fall toward winter. This evidence clearly demonstrates as time of year changes, daylight amount changes; as the year moves toward winter, daylight gets shorter. Choice A is correct because it accurately describes pattern of daylight getting shorter toward winter, connects observations to time-of-year cause, uses evidence to show relationship. This matches the evidence that observations show as year progressed from August to November daylight decreased. Choice B represents wrong cause attribution, claiming daylight gets longer because of dinner time changes instead of time of year. This error typically occurs when students confuse correlation with causation, focus on associated features like routines rather than time of year, don't yet understand 'relates to' language, see facts but don't connect them, think changes are random rather than predictable based on time of year. To help students understand time-of-year and daylight relationship: Create clear 'if-then' statements ('If it's summer, then we have many daylight hours. If it's winter, then we have fewer hours'); track daylight across multiple months showing how amount changes as time of year changes; explicitly label time markers (months, seasons) with corresponding daylight data; practice cause-effect language ('because it's winter, we have less daylight'); make predictions ('It's June now, so we should have about X hours of daylight'). Watch for: students who see facts but don't connect them (know summer has more daylight but don't link it to time of year), who reverse cause-effect (think daylight amount determines season rather than season determining daylight), who attribute changes to weather or temperature instead of time of year, or who think pattern is random rather than tied to predictable yearly cycle. Key concept: time of year (when in the year it is) determines/affects/relates to amount of daylight we have.