Seed removal rates of <i>P. armandii</i> and <i>Q. aliena</i> var. <i>acuteserrata</i> after deposition in the seed stations in the three experimental plots.

<p>WQ: study area located in the western Qinling Mountains; MQ: study area located in the middle Qinling Mountains; EQ: study area located in the eastern Qinling Mountains. Data are expressed as mean ± SE.</p

Characteristics of the three experimental plots.

<p>WQ: study area located in the western Qinling Mountains; MQ: study area located in the middle Qinling Mountains; EQ: study area located in the eastern Qinling Mountains.</p

Number of small rodents captured (<i>n</i> = 150 trap days and nights) in the three experimental plots.

<p>WQ: study area located in the western Qinling Mountains; MQ: study area located in the middle Qinling Mountains; EQ: study area located in the eastern Qinling Mountains.</p

Fates of <i>P. armandii</i> seeds and <i>Q. aliena</i> var. <i>acuteserrata</i> acorns after dispersal by small rodents in the three experimental plots.

<p>WQ: study area located in the western Qinling Mountains; MQ: study area located in the middle Qinling Mountains; EQ: study area located in the eastern Qinling Mountains. IS: in situ; EIS: eaten in situ; IAR: intact after removal; EAR: eaten after removal; CAR: cached after removal; M: missing. Data are expressed as mean ± SE. **: statistically significant difference between the tree species (<i>P</i><0.01).</p

Capillary Sensors Composed of CdTe Quantum Dots for Real-Time In Situ Detection of Cu²⁺

CdTe colloidal quantum dots (CQDs) coated with glutathione (GSH) were prepared by aqueous synthesis. Based on the fluorescence selective quenching of CdTe CQDs in the presence of Cu2+, the CdTe CQDs were applied for ultrasensitive Cu2+ sensing. The detection limit of Cu2+ concentration was 0.055 μM. In order to realize real-time and rapid on-site detection, a capillary sensor composed of CdTe CQDs was prepared, and after drying at room temperature, heating at high temperature, and laser processing, the sensor achieved good response time and detection accuracy results. The detection of 1 × 10–5 mol/L Cu2+ concentration can be realized in 5–6 s. Moreover, the detection only needs to be carried out under an ultraviolet lamp, the cost of the sensor is low, and the detection method is very simple. The sensor requires only 3 μL of solution to be tested and can complete the detection, which not only saves the solution to be tested but also greatly improves the limit of the detection environment. A capillary sensor is of great significance for the real-time detection of natural environment and industrial wastewater

Capillary Sensors Composed of CdTe Quantum Dots for Real-Time In Situ Detection of Cu²⁺

CdTe colloidal quantum dots (CQDs) coated with glutathione (GSH) were prepared by aqueous synthesis. Based on the fluorescence selective quenching of CdTe CQDs in the presence of Cu2+, the CdTe CQDs were applied for ultrasensitive Cu2+ sensing. The detection limit of Cu2+ concentration was 0.055 μM. In order to realize real-time and rapid on-site detection, a capillary sensor composed of CdTe CQDs was prepared, and after drying at room temperature, heating at high temperature, and laser processing, the sensor achieved good response time and detection accuracy results. The detection of 1 × 10–5 mol/L Cu2+ concentration can be realized in 5–6 s. Moreover, the detection only needs to be carried out under an ultraviolet lamp, the cost of the sensor is low, and the detection method is very simple. The sensor requires only 3 μL of solution to be tested and can complete the detection, which not only saves the solution to be tested but also greatly improves the limit of the detection environment. A capillary sensor is of great significance for the real-time detection of natural environment and industrial wastewater

Sketch map of the locations of seed stations in the experimental plots.

<p>Sketch map of the locations of seed stations in the experimental plots.</p

Distance distributions of <i>P. armandii</i> seeds and <i>Q. aliena</i> var. <i>acuteserrata</i> acorns in the three experimental plots.

<p>WQ: study area located in the western Qinling Mountains; MQ: study area located in the middle Qinling Mountains; EQ: study area located in the eastern Qinling Mountains.</p

Capillary Sensors Composed of CdTe Quantum Dots for Real-Time In Situ Detection of Cu²⁺

CdTe colloidal quantum dots (CQDs) coated with glutathione (GSH) were prepared by aqueous synthesis. Based on the fluorescence selective quenching of CdTe CQDs in the presence of Cu2+, the CdTe CQDs were applied for ultrasensitive Cu2+ sensing. The detection limit of Cu2+ concentration was 0.055 μM. In order to realize real-time and rapid on-site detection, a capillary sensor composed of CdTe CQDs was prepared, and after drying at room temperature, heating at high temperature, and laser processing, the sensor achieved good response time and detection accuracy results. The detection of 1 × 10–5 mol/L Cu2+ concentration can be realized in 5–6 s. Moreover, the detection only needs to be carried out under an ultraviolet lamp, the cost of the sensor is low, and the detection method is very simple. The sensor requires only 3 μL of solution to be tested and can complete the detection, which not only saves the solution to be tested but also greatly improves the limit of the detection environment. A capillary sensor is of great significance for the real-time detection of natural environment and industrial wastewater

Capillary Sensors Composed of CdTe Quantum Dots for Real-Time In Situ Detection of Cu²⁺

CdTe colloidal quantum dots (CQDs) coated with glutathione (GSH) were prepared by aqueous synthesis. Based on the fluorescence selective quenching of CdTe CQDs in the presence of Cu2+, the CdTe CQDs were applied for ultrasensitive Cu2+ sensing. The detection limit of Cu2+ concentration was 0.055 μM. In order to realize real-time and rapid on-site detection, a capillary sensor composed of CdTe CQDs was prepared, and after drying at room temperature, heating at high temperature, and laser processing, the sensor achieved good response time and detection accuracy results. The detection of 1 × 10–5 mol/L Cu2+ concentration can be realized in 5–6 s. Moreover, the detection only needs to be carried out under an ultraviolet lamp, the cost of the sensor is low, and the detection method is very simple. The sensor requires only 3 μL of solution to be tested and can complete the detection, which not only saves the solution to be tested but also greatly improves the limit of the detection environment. A capillary sensor is of great significance for the real-time detection of natural environment and industrial wastewater