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Gomes, Mendeley V Data) - One of the best experts on this subject based on the ideXlab platform.

  • Dataset on human NORMAL DIAMETER abdominal aorta biomechanics (uniaxial) and histology (specimens harvested during autopsy)
    2021
    Co-Authors: Gomes, Mendeley V Data)
    Abstract:

    The present dataset is a collection of information about the biomechanical behavior and histological characterization of normal diameter abdominal aortas harvested during the autopsy procedure. The primary hypothesis of the present research is: Do cadaveric abdominal aortic walls, when previously stressed by inflation, conserve significant resistance against tearing comparable to no previously stressed aortas described in the literature? Thirty normal diameter abdominal aortas were carefully dissected and had their branches ligated with cotton or prolene sutures. Each specimen was submitted to intraluminal pressurization, up to the rupture of their wall. This pressurization was made through the inflation of an Air Balloon inside the specimens up to their rupture. From the border of the rupture sites, and from the proximal (control sample 1) and distal (control sample 2) portions of each vessel, samples were harvested for uniaxial tensile tests, and histological analysis. The uniaxial tensile test utilized the INSTRON SPEC 2200 device and was coordinated by INSPEC software and SERIES IX software. The essential variables collected through this test are failure stress, failure tension, and failure strain. Each sample test generated a graph representing the relationship between stress and strain. The histological analysis included hematoxylin-eosin, Picrosirius, and Voerhoeff stains1. Unfortunately, some samples were lost, especially during histological processing. A quantitative analysis (collagen fibers and elastic fibers percentage of coverage) was made using the software Pannoramic Viewer and Case Viewer. Notable findings: Even after being stretched/stressed up to their rupture, the specimens conserved some uniaxial biomechanical properties comparable to normal diameter aorta samples previously described in the literature by Monteiro e Nynomiya respectively.2,3 DATA DESCRIPTION: a) Biomechanical Data: As explained above, whenever possible, four samples were collected from each specimen destinated to the biomechanical test. It is important to highlight that some samples did not produce valid biomechanical tests, so they do not have their results included here. For each valid sample test, three documents were generated: 1. Stress X strain graph (all graphs contain a notification in their left upper corner about the failure stress, strain and tension of each sample). 2. Table (excel file containing all the values related to the stress X strain graph 3. A report from the Biomechanical test software containing details of the test All available files related to the biomechanical tests of these 30 normal aortas were included in the present dataset. b) Histological Data: The percentage of coverage of collagen fibers and elastin fibers is expressed in the table "HISTOLOGY - NORMAL AORTAS.xls in decimal numbers (for example, 0.36 = 36%). Four samples were harvested from each aorta, when it was feasible

  • Dataset on cadaveric human abdominal aorta aneurysm biomechanics (uniaxial) and histology
    2020
    Co-Authors: Gomes, Mendeley V Data)
    Abstract:

    The present dataset is a collection of information about the biomechanical behavior and histological characterization of abdominal aortic aneurysms (AAA) harvested during the autopsy procedure. The primary hypothesis of the present research is: Do cadaveric AAA walls, when previously stressed by inflation, conserve significant resistance against tearing comparable to no previously stressed aortas described in the literature? Eight AAAs (6 fusiform and two saccular) were carefully dissected and had their branches ligated with cotton or prolene sutures. Each specimen was submitted to intraluminal pressurization, up to the rupture of their wall. This pressurization was made through the inflation of an Air Balloon inside the specimens up to their rupture. From the border of the rupture sites, and from the proximal (control sample 1) and distal (control sample 2) no dilated portions of each vessel, samples were harvested for uniaxial tensile tests, and histological analysis. The uniaxial tensile test utilized the INSTRON SPEC 2200 device and was coordinated by INSPEC software and SERIES IX software. The essential variables collected through this test are failure stress, failure tension, and failure strain. Each sample test generated a chart representing the relationship between stress and strain. The histological analysis included hematoxylin-eosin, Picrocirius, and Voerhoeff stains. Unfortunately, some samples were lost, especially during histological processing. A quantitative analysis (collagen and elastic fibers) was made using the software Pannoramic Viewer and Case Viewer.1 Notable findings: Even after being stretched/stressed up to their rupture, the specimens conserved uniaxial biomechanical properties comparable to AAA and normal aorta samples previously described in the literature by Monteiro e Nynomiya respectively.2,3 DATA DESCRIPTION: a) Biomechanical Data: As explained above, four samples were collected for each specimen, two from each side of the rupture border and two control samples, one from a proximal and a second from a distal region of the vessel. It is important to highlight here that some samples did not produce valid biomechanical tests, so they do not have their results included here. For each valid sample test, three documents are generated: 1. Stress X strain chart 2. Table (excel file containing all the values related to the stress X strain chart 3. A report from the Biomechanical test software containing details of the test All charts contain a notification in their left upper corner about the failure stress, strain and tension of each sample. b) Histological Data: The percentage of coverage of collagen fibers and elastin fibers is expressed in table I in decimal numbers (for example, 0.36 = 36%). Similarly to the sampling for biomechanical tests, four samples were harvested from each aorta, when it was feasible. Ps.: All Case C samples were lost during processin

  • Dataset on cadaveric human abdominal aorta aneurysm biomechanics (uniaxial) and histology
    2020
    Co-Authors: Gomes, Mendeley V Data)
    Abstract:

    The present dataset is a collection of information about the biomechanical behavior and histological characterization of abdominal aortic aneurysms (AAA) harvested during the autopsy procedure. The primary hypothesis of the present research is: Do cadaveric AAA walls, when previously stressed by inflation, conserve significant resistance against tearing comparable to no previously stressed aortas described in the literature? Eight AAAs (6 fusiform and two saccular) were carefully dissected and had their branches ligated with cotton or prolene sutures. Each specimen was submitted to intraluminal pressurization, up to the rupture of their wall. This pressurization was made through the inflation of an Air Balloon inside the specimens up to their rupture. From the border of the rupture sites, and from the proximal (control sample 1) and distal (control sample 2) no dilated portions of each vessel, samples were harvested for uniaxial tensile tests, and histological analysis. The uniaxial tensile test utilized the INSTRON SPEC 2200 device and was coordinated by INSPEC software and SERIES IX software. The essential variables collected through this test are failure stress, failure tension, and failure strain. Each sample test generated a chart representing the relationship between stress and strain. The histological analysis included hematoxylin-eosin, Picrocirius, and Voerhoeff stains. Unfortunately, some samples were lost, especially during histological processing. A comparative quantitative analysis between the groups was made using the software Pannoramic Viewer and Case Viewer.1 Notable findings: Even after being stretched/stressed up to their rupture, the specimens conserved uniaxial biomechanical properties comparable to AAA and normal aorta samples previously described in the literature by Monteiro e Nynomiya respectively.2,3 DATA DESCRIPTION: a) Biomechanical Data: As explained above, four samples were collected for each specimen, two from each side of the rupture border and two control samples, one from a proximal and a second from a distal region of the vessel. It is important to highlight here that some samples did not produce valid biomechanical tests, so they do not have their results included here. For each valid sample test, three documents are generated: 1. Stress X strain chart 2. Table (excel file containing all the values related to the stress X strain chart 3. A report from the Biomechanical test software containing details of the test All charts contain a notification in their left upper corner about the failure stress, strain and tension of each sample. b) Histological Data: The percentage of coverage of collagen fibers and elastin fibers is expressed in table I in decimal numbers (for example, 0.36 = 36%). Similarly to the sampling for biomechanical tests, four samples were harvested from each aorta, when it was feasible. Ps.: All Case C samples were lost during processin

Zhu Yuancheng - One of the best experts on this subject based on the ideXlab platform.

  • a control structure that is used for hot Air Balloon to rotate or sideslip
    2018
    Co-Authors: Zhu Yuancheng, Nie Hongqi, Luo Wenxue, Huang Shihui, Sun Yan
    Abstract:

    The utility model discloses a control structure that is used for hot Air Balloon to rotate or sideslip, it is seted up on the sacculus in the longitudinal load that is equipped with mutually perpendicular area and transverse load area, its through set up at least one gas vent and with be used for discharging in sacculus steam and utilize discharge steam reaction force to transfer the appearance inorder to realize that the hot Air Balloon rotates or the demand of sideslip of gas vent is opened by the stay cord to stay cord and magic subsides that the gas vent correspond to set up to closely closing when utilizing the sturdy existing gas vent of magic out of work. The utility model discloses a control structure that is used for hot Air Balloon to rotate or sideslip, simple structure easilyrealize, has effectively realized the rotation or the sideslip control of hot Air Balloon, has promoted the controllability of hot Air Balloon, and the setting of triangle -shaped flap and/or pulley,magic subsides isotructure, has not only saved opening hard of gas vent, has promoted the gas vent and closed the control accuracy nature of closing, has still effectively guaranteed can closely closewhen the gas vent is out of work and closed, has guaranteed the security in the hot Air Balloon use.

  • exhaust is pushed up umbrella connection structure and is had this exhaust top umbrella connection structure s hot Air Balloon
    2018
    Co-Authors: Zhu Yuancheng, Luo Wenxue, Sun Yan, Chen Baoshen, Huang Shihui
    Abstract:

    The utility model discloses an exhaust top umbrella connection structure, including control string group (7) the edge connection of umbrella (2) is pushed up respectively at the both ends of control string group (7) with the exhaust, and first connecting band (8), the one end of first connecting band (8) with the intermediate position of control string group (7) is connected, first connecting band(8) with control string group (7) constitutes bifurcation structure jointly, and first pulley (6) and second pulley (16), main stay cord (12), the one end of main stay cord (12) with stay cord fixedpoint (10) are connected, and the other end passes first pulley (6) and second pulley (16) are arranged in the be convenient for position of pilot operation of sacculus (1) lower part. The utility model also discloses a hot Air Balloon that has this exhaust top umbrella connection structure. The utility model discloses an exhaust top umbrella connection structure has increased venting area, can realize the quick decline and the evacuation of hot Air Balloon.

  • control structure for rotating or lateral moving of hot Air Balloon
    2017
    Co-Authors: Zhu Yuancheng, Nie Hongqi, Luo Wenxue, Huang Shihui, Sun Yan
    Abstract:

    The invention discloses a control structure for rotating or lateral moving of a hot-Air Balloon. The control structure is arranged on a Balloon capsule provided with a longitudinal loading belt and a transverse loading belt which are perpendicular to each other, the control structure is provided with at least one Air outlet, a stay cord and a magic plaster, wherein the stay cord and the magic plaster are arranged corresponding to the Air outlet, the Air outlet is opened by the stay cord to be used for exhausting hot Air in the Balloon capsule and attitude adjusting is conducted by utilizing counter-acting force of the exhausted hot Air to achieve the requirements of the hot-Air Balloon for rotating or lateral moving, and tight closing of the Air outlet in the non-working process is achieved by utilizing the magic plaster. According to the control structure for rotating or lateral moving of the hot-Air Balloon, the structure is simple and easy to achieve, rotating or lateral moving control of the hot-Air Balloon is effectively achieved, and the controllability of the hot-Air Balloon is improved; and the structures of a triangular flap and / or a pulley, the magic plaster and the like are arranged, used force for opening of the Air outlet is saved, the control precision of closing of the Air outlet is promoted, tight closing of the Air outlet in the non-working process can further be effectively ensured, and the safety of the hot-Air Balloon in the using process is ensured.

  • exhausting canopy connecting structure and hot Air Balloon with same
    2017
    Co-Authors: Zhu Yuancheng, Luo Wenxue, Sun Yan, Chen Baoshen, Huang Shihui
    Abstract:

    The invention discloses an exhausting canopy connecting structure. The exhausting canopy connecting structure comprises a first control rope set (7), a first connecting belt (8), a first rolling wheel (6), a second rolling wheel (16) and a main pulling core (12), wherein the two ends of the first control rope set (7) are connected with the edge of an exhausting canopy (2) separately, one end of the first connecting belt (8) is connected with the middle of the first control rope set (7), and the first connecting belt (8) and the first control rope set (7) jointly form a bifurcate structure. One end of the main pulling core (12) is connected with a pulling core fixed point (10), the other end of the main core (12) penetrates through the first rolling wheel (6) and the second rolling wheel (16) to be placed at the position, facilitating the operation of a pilot, at the lower portion of a Balloon (1). The invention further discloses a hot-Air Balloon with the exhausting canopy connecting structure. In the exhausting canopy connecting structure, the exhausting area is increased, and fast falling and exhausting of the hot-Air Balloon can be achieved.

  • hot Air Balloon hanging flower basket
    2016
    Co-Authors: Chen Weitao, Liu Honglei, Gong Songjie, Zhu Yuancheng, Xue Fuli, Li Chenchen
    Abstract:

    The utility model discloses a hot Air Balloon hanging flower basket belongs to the hot Air Balloon hanging flower basket field. It includes the hanging flower basket main part, the setting in the hanging flower basket main part the hanging flower basket rope and arrange the energy absorption buffer body in the hanging flower basket main part, the hanging flower basket main part comprises sandwich combined material, with filling combined material includes the covering layer and is located the foam core between two -layer covering layer, the covering layer is fiber reinforced resin combined material, the energy absorption buffer body is installed on the outer wall of hanging flower basket main part, it includes the rubber layer and is located the foam core between two -layer rubber layer, the volume of foam core is 20%~90% of hanging flower basket main part entity volume. The utility model discloses light, the tough nature of hot Air Balloon hanging flower basket quality is good, and preparation technology is simple, and is with low costs.

Xue Fuli - One of the best experts on this subject based on the ideXlab platform.

  • hot Air Balloon hanging flower basket
    2016
    Co-Authors: Chen Weitao, Liu Honglei, Gong Songjie, Zhu Yuancheng, Xue Fuli, Li Chenchen
    Abstract:

    The utility model discloses a hot Air Balloon hanging flower basket belongs to the hot Air Balloon hanging flower basket field. It includes the hanging flower basket main part, the setting in the hanging flower basket main part the hanging flower basket rope and arrange the energy absorption buffer body in the hanging flower basket main part, the hanging flower basket main part comprises sandwich combined material, with filling combined material includes the covering layer and is located the foam core between two -layer covering layer, the covering layer is fiber reinforced resin combined material, the energy absorption buffer body is installed on the outer wall of hanging flower basket main part, it includes the rubber layer and is located the foam core between two -layer rubber layer, the volume of foam core is 20%~90% of hanging flower basket main part entity volume. The utility model discloses light, the tough nature of hot Air Balloon hanging flower basket quality is good, and preparation technology is simple, and is with low costs.

  • hatchdoor type hot Air Balloon basket
    2013
    Co-Authors: Zhu Yuancheng, Xue Fuli, Zhou Ming, He Yingping
    Abstract:

    The utility model provides a hatchdoor type hot-Air Balloon basket. A cabin door is arranged on the basket; one side of the cabin door is arranged on the basket through a rotating shaft; and the other side of the cabin door is movably connected with the basket through a quick-release pin. According to the hatchdoor type hot-Air Balloon basket, a traditional integral type hot-Air Balloon basket is changed, and the cabin door capable of being opened and closed quickly is additionally arranged, so that people taking on a hot-Air Balloon can conveniently come in and out, and the convenience and the comfort for taking on the hot-Air Balloon are improved.

  • segregated hot Air Balloon basket
    2013
    Co-Authors: Zhu Yuancheng, Sheng Guangxi, Xue Fuli, Zhou Ming, He Yingping
    Abstract:

    The utility model provides a segregated hot-Air Balloon basket. A partition wall is arranged in the basket; and the basket is divided into a passenger compartment for passengers to sit, and a flight deck for installing a fuel bottle and providing an operating space for a pilot through the partition wall. According to the segregated hot-Air Balloon basket, a traditional integral type hot-Air Balloon basket is changed, the corresponding partition wall is arranged in the basket according to spaces required by the pilot and the passengers actually, the flight deck and the passenger compartment are formed, and the flight deck can be in the middle or at one side of the basket according to the number of members, so that the pilot and the passengers are in segregated compartments, and the safety and the comfort of hot-Air Balloon flying are increased.

Sun Yan - One of the best experts on this subject based on the ideXlab platform.

  • a control structure that is used for hot Air Balloon to rotate or sideslip
    2018
    Co-Authors: Zhu Yuancheng, Nie Hongqi, Luo Wenxue, Huang Shihui, Sun Yan
    Abstract:

    The utility model discloses a control structure that is used for hot Air Balloon to rotate or sideslip, it is seted up on the sacculus in the longitudinal load that is equipped with mutually perpendicular area and transverse load area, its through set up at least one gas vent and with be used for discharging in sacculus steam and utilize discharge steam reaction force to transfer the appearance inorder to realize that the hot Air Balloon rotates or the demand of sideslip of gas vent is opened by the stay cord to stay cord and magic subsides that the gas vent correspond to set up to closely closing when utilizing the sturdy existing gas vent of magic out of work. The utility model discloses a control structure that is used for hot Air Balloon to rotate or sideslip, simple structure easilyrealize, has effectively realized the rotation or the sideslip control of hot Air Balloon, has promoted the controllability of hot Air Balloon, and the setting of triangle -shaped flap and/or pulley,magic subsides isotructure, has not only saved opening hard of gas vent, has promoted the gas vent and closed the control accuracy nature of closing, has still effectively guaranteed can closely closewhen the gas vent is out of work and closed, has guaranteed the security in the hot Air Balloon use.

  • exhaust is pushed up umbrella connection structure and is had this exhaust top umbrella connection structure s hot Air Balloon
    2018
    Co-Authors: Zhu Yuancheng, Luo Wenxue, Sun Yan, Chen Baoshen, Huang Shihui
    Abstract:

    The utility model discloses an exhaust top umbrella connection structure, including control string group (7) the edge connection of umbrella (2) is pushed up respectively at the both ends of control string group (7) with the exhaust, and first connecting band (8), the one end of first connecting band (8) with the intermediate position of control string group (7) is connected, first connecting band(8) with control string group (7) constitutes bifurcation structure jointly, and first pulley (6) and second pulley (16), main stay cord (12), the one end of main stay cord (12) with stay cord fixedpoint (10) are connected, and the other end passes first pulley (6) and second pulley (16) are arranged in the be convenient for position of pilot operation of sacculus (1) lower part. The utility model also discloses a hot Air Balloon that has this exhaust top umbrella connection structure. The utility model discloses an exhaust top umbrella connection structure has increased venting area, can realize the quick decline and the evacuation of hot Air Balloon.

  • control structure for rotating or lateral moving of hot Air Balloon
    2017
    Co-Authors: Zhu Yuancheng, Nie Hongqi, Luo Wenxue, Huang Shihui, Sun Yan
    Abstract:

    The invention discloses a control structure for rotating or lateral moving of a hot-Air Balloon. The control structure is arranged on a Balloon capsule provided with a longitudinal loading belt and a transverse loading belt which are perpendicular to each other, the control structure is provided with at least one Air outlet, a stay cord and a magic plaster, wherein the stay cord and the magic plaster are arranged corresponding to the Air outlet, the Air outlet is opened by the stay cord to be used for exhausting hot Air in the Balloon capsule and attitude adjusting is conducted by utilizing counter-acting force of the exhausted hot Air to achieve the requirements of the hot-Air Balloon for rotating or lateral moving, and tight closing of the Air outlet in the non-working process is achieved by utilizing the magic plaster. According to the control structure for rotating or lateral moving of the hot-Air Balloon, the structure is simple and easy to achieve, rotating or lateral moving control of the hot-Air Balloon is effectively achieved, and the controllability of the hot-Air Balloon is improved; and the structures of a triangular flap and / or a pulley, the magic plaster and the like are arranged, used force for opening of the Air outlet is saved, the control precision of closing of the Air outlet is promoted, tight closing of the Air outlet in the non-working process can further be effectively ensured, and the safety of the hot-Air Balloon in the using process is ensured.

  • exhausting canopy connecting structure and hot Air Balloon with same
    2017
    Co-Authors: Zhu Yuancheng, Luo Wenxue, Sun Yan, Chen Baoshen, Huang Shihui
    Abstract:

    The invention discloses an exhausting canopy connecting structure. The exhausting canopy connecting structure comprises a first control rope set (7), a first connecting belt (8), a first rolling wheel (6), a second rolling wheel (16) and a main pulling core (12), wherein the two ends of the first control rope set (7) are connected with the edge of an exhausting canopy (2) separately, one end of the first connecting belt (8) is connected with the middle of the first control rope set (7), and the first connecting belt (8) and the first control rope set (7) jointly form a bifurcate structure. One end of the main pulling core (12) is connected with a pulling core fixed point (10), the other end of the main core (12) penetrates through the first rolling wheel (6) and the second rolling wheel (16) to be placed at the position, facilitating the operation of a pilot, at the lower portion of a Balloon (1). The invention further discloses a hot-Air Balloon with the exhausting canopy connecting structure. In the exhausting canopy connecting structure, the exhausting area is increased, and fast falling and exhausting of the hot-Air Balloon can be achieved.

He Yingping - One of the best experts on this subject based on the ideXlab platform.

  • hatchdoor type hot Air Balloon basket
    2013
    Co-Authors: Zhu Yuancheng, Xue Fuli, Zhou Ming, He Yingping
    Abstract:

    The utility model provides a hatchdoor type hot-Air Balloon basket. A cabin door is arranged on the basket; one side of the cabin door is arranged on the basket through a rotating shaft; and the other side of the cabin door is movably connected with the basket through a quick-release pin. According to the hatchdoor type hot-Air Balloon basket, a traditional integral type hot-Air Balloon basket is changed, and the cabin door capable of being opened and closed quickly is additionally arranged, so that people taking on a hot-Air Balloon can conveniently come in and out, and the convenience and the comfort for taking on the hot-Air Balloon are improved.

  • segregated hot Air Balloon basket
    2013
    Co-Authors: Zhu Yuancheng, Sheng Guangxi, Xue Fuli, Zhou Ming, He Yingping
    Abstract:

    The utility model provides a segregated hot-Air Balloon basket. A partition wall is arranged in the basket; and the basket is divided into a passenger compartment for passengers to sit, and a flight deck for installing a fuel bottle and providing an operating space for a pilot through the partition wall. According to the segregated hot-Air Balloon basket, a traditional integral type hot-Air Balloon basket is changed, the corresponding partition wall is arranged in the basket according to spaces required by the pilot and the passengers actually, the flight deck and the passenger compartment are formed, and the flight deck can be in the middle or at one side of the basket according to the number of members, so that the pilot and the passengers are in segregated compartments, and the safety and the comfort of hot-Air Balloon flying are increased.