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 a pattern with June having 15 daylight hours and January having 9, demonstrating summer with more and winter 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 June there are 15 hours but when it's January there are 6 fewer hours. 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 June with 15 hours and January with 9 hours demonstrating time of year determines amount. Choice B represents wrong cause attribution, claiming daylight depends on clouds instead of time of year. This error typically occurs when students confuse correlation with causation, focus on associated features like weather 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 data check, the evidence shows daylight hours for different months: February 10 hours, May 14 hours, July 15 hours, December 9 hours, demonstrating increasing to summer and decreasing to winter. 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 longer daylight in summer than winter, connects observations to time-of-year cause, uses evidence to show relationship. This matches the evidence that data shows July with 15 hours and December with 9 hours demonstrating time of year determines amount. Choice B represents wrong cause attribution, claiming daylight depends on playground temperature instead of time of year. This error typically occurs when students confuse correlation with causation, focus on associated features like temperature 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 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.

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 daylight hours for different months with September having about 12 hours and December having about 9 hours, showing fall with more and winter with fewer. This evidence clearly demonstrates as time of year changes, daylight amount changes; when it's December there are fewer hours than in September. Choice A is correct because it accurately explains relationship: states time of year affects daylight amount, describes pattern of less daylight in winter than fall, connects observations to time-of-year cause, uses evidence to show relationship. This matches the evidence that observations show as year progressed from fall to winter daylight decreased from 12 to 9 hours. Choice B represents wrong cause attribution, claiming colder temperature causes the sun to turn off earlier instead of time of year. This error typically occurs when students confuse correlation with causation, focus on associated features like temperature 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 notes record, the evidence shows daylight hours listed for different months showing April with 13 hours, June with 15, October with 11, and December with 9, demonstrating increasing to summer and decreasing to winter. This evidence clearly demonstrates as time of year changes, daylight amount changes; summer times have more daylight than winter times; when it's June there are 15 hours but when it's December there are 6 fewer hours. 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 points from different times of year show predictable pattern. Choice B represents wrong cause attribution, claiming daylight changes only when it rains instead of time of year. This error typically occurs when students confuse correlation with causation, focus on associated features like weather 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 observation record, the evidence shows daylight hours compared for seasons with summer having 14–15 hours and winter having 8–9 hours, demonstrating 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. 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 the record shows summer with 14–15 hours and winter with 8–9 hours demonstrating time of year determines amount. Choice B represents wrong cause attribution, claiming daylight depends on wearing coats and hats instead of time of year. This error typically occurs when students confuse correlation with causation, focus on associated features like clothing 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 data table, the evidence shows daylight hours listed for different months showing March with 12 hours, June with 15 hours, September with 12 hours, and December with 9 hours, demonstrating increasing to summer and decreasing to winter. This evidence clearly demonstrates as time of year changes, daylight amount changes; summer times have more daylight than winter times; when it's June there are 15 hours but when it's December there are 6 fewer hours. 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 of growing to summer then getting smaller toward winter. Choice B represents reversed relationship, claiming daylight is longest in December and shortest in June. This error typically occurs when students reverse cause and effect, 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 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 observation record, the evidence shows Sofia's notes on sunset times with June at 8 pm and December at 5 pm, showing summer months with later sunsets and more hours than winter months. This evidence clearly demonstrates as time of year changes, daylight amount changes; summer times have more daylight than winter times; when it's June sunset is late but in December it's early. Choice A is correct because it accurately explains relationship, states time of year affects daylight amount with winter having fewer hours, connects observations to time-of-year cause, uses evidence to show relationship. This matches the evidence that observations show December with less daylight due to earlier sunset compared to June. Choice B represents wrong cause attribution, saying because December is colder the sun goes away sooner, focusing on temperature instead of time. This error typically occurs when students confuse correlation with causation, attribute changes to weather or temperature instead of 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 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.