Author: claimsbot

1. A method for detecting random access of user equipment (UE), applicable to a mobile communication system consisting of at least one base station (BS) and a group of UEs, wherein said BS and said group of UEs use a set of N (N is a positive integer) orthogonal or quasi-orthogonal pseudo-random sequence codes for the random access of UE, and by detecting the pseudo-random sequence code selected by each randomly accessed UE, BS implements a simultaneous detection of the random access of UEs, the method comprising:
A. BS making a correlation operation of the random access signal received at one moment from UE containing information of the pseudo-random sequence codes selected by the accessing UE with a pseudo-random sequence code from the local pseudo-random sequence code set of the BS, and obtaining a corresponding correlation result window, wherein said correlation operation starts from any pseudo-random sequence code of the pseudo-random sequence code set and ends when operations with all the N pseudo-random sequence codes are completed;
B. finding the maximum correlation peak value point in every correlation result window;
C. based on the position of each correlation peak value point, dividing a correlation peak window from the corresponding correlation result window, or dividing a correlation peak window and the front-side and rear-side windows at both sides of the correlation peak window from the correlation result window;
D. selecting one or more thresholds, considering the correlation results in every correlation peak window or every correlation peak window and its front-side and rear-side windows larger than said one or more thresholds as conditions, and performing one or more comparisons related to the corresponding conditions, if all the conditions are satisfied, determining that the pseudo-random sequence code taking part in the correlation operation in Step A is the pseudo-random sequence code selected by a UE accessing at that moment.
2. The method for detecting random access of UE according to claim 1, further comprising after said Step C: setting a threshold, comparing said threshold with the correlation results in every correlation peak window, or with the correlation results in the side windows of every correlation result window excluding the said correlation peak window; if the comparison condition is satisfied, determining that said pseudo-random sequence code involved in the correlation operation in Step A is selected by two or more than two UEs for random access, and there is an access conflict, then stopping the execution of Step D, otherwise continuing with Step D.
3. The method for detecting random access of UE according to claim 1, wherein said number N of pseudo-random sequence codes in said pseudo-random sequence code set is a variable or fixed integer number, whose value is at least 1.
4. The method for detecting random access of UE according to claim 1, wherein said correlation operation in Step A further comprising:
1) BS making a Fourier Transformation to the received access signal from UE, and obtaining a Fourier Transformation result;
2) BS making a Fourier Transformation to a pseudo-random sequence code of the local pseudo-random sequence code set, and obtaining a Fourier Transformation result;
3) BS making a dot product of the Fourier Transformation result of Step 1) and the Fourier Transformation result of Step 2), obtaining the result of the correlation operation, and then making an Inverse Fourier Transformation to the obtained result of the correlation operation;
said obtaining a corresponding correlation result window in Step A further comprising: taking the norm of every element in said inverse Fourier transformation result of step 3) to educe said correlation result window.
5. The method for detecting random access of UE according to claim 4, wherein said taking the norm comprises: the correlation result in the form of power or absolute amplitude educed by the norm.
6. The method for detecting random access of UE according to claim 4, wherein said obtaining the result of correlation operation through dot product in Step 3) comprises conducting in a correlation detector the correlation operation including a direct sequence correlation or a matched filtering correlation.
7. The method for detecting random access of UE according to claim 1, further comprising, in Step B, if the correlation result window is in the form of power, taking the point with maximum power in the correlation power window as the correlation peak point; if the correlation result window is in the form of absolute amplitude, taking the point with maximum absolute amplitude in the correlation absolute amplitude window as the correlation peak point.
8. The method for detecting random access of UE according to claim 1, wherein said Step C further comprising:
1) setting the length of the correlation peak window through emulation;
2) setting the relationship between the window lengths on both sides of the maximum correlation peak point and the length of the correlation peak window through emulation;
3) setting the lengths of the front-side window and rear-side window through emulation;
4) based on the results of Steps 1) and 2), marking off the position of the correlation peak window that contains the maximum correlation peak point;
5) based on the results of Steps 3) and 4), marking off the positions of the front-side window and rear-side window.
9. The method for detecting random access of UE according to claim 8, wherein, in Step 2), the window length on one side of maximum peak point is 13 of the length of the correlation peak window, and the window length on the other side of maximum peak point is 23 of the length of the correlation peak window; and in Step 3), the lengths of front-side window and rear-side window can be equal or unequal.
10. The method for detecting random access of UE according to claim 1, wherein said Step D further comprising:
d11) calculating, respectively, the mean values andor the total values andor the effective mean values with the interference eliminated andor the effective total values with the interference eliminated of the correlation results in the front-side and rear-side windows beside the correlation peak window, and calculating the differences, respectively, between the peak value of the correlation peak point and said two mean values, total values, effective mean values andor effective total values of the front-side and the rear-side windows;
d12) through emulation, setting thresholds corresponding to said differences calculated in Step d 1;
d13) if said differences between the peak value of the correlation peak point and said two mean values, total values, effective mean values andor effective total values of the front-side and rear-side windows are, simultaneously, greater than said one or more thresholds, determining that the conditions are satisfied.
11. The method for detecting random access of UE according to claim 10, further comprising after Step d13 if said conditions are satisfied:
d51) setting a threshold through emulation;
d52) counting in the correlation peak window the number of the correlation point whose correlation result value is greater than said threshold;
d53) setting a threshold for said counted number through emulation;
d54) if the counted number in Step 52 is less than the set threshold in Step 53, further determining that the condition is satisfied, otherwise the condition is unsatisfied.
12. The method for detecting random access of UE according to claim 10, further comprising after Step d13 if said conditions are satisfied:
d61) setting a threshold through emulation;
d62) counting, in the correlation result window excluding the correlation peak window, the number of the correlation point whose correlation result value is greater than said threshold;
d63) setting a threshold for said counted number through emulation;
d64) if the counted number in Step 62 is less than said threshold in Step 63, the condition is satisfied, otherwise the condition is unsatisfied.
13. The method for detecting random access of UE according to claim 10, further comprising after Step d13 if said conditions are satisfied:
d71) setting a threshold through emulation;
d72) calculating the differences between the maximum correlation peak and each correlation result point outside the correlation peak window but in the correlation result window;
d73) counting the number of the correlation result point with said difference less than said threshold of Step 71;
d74) setting a threshold for said counted number through emulation;
d75) if said counted number is less than said threshold in Step d74, the condition is satisfied, otherwise the condition is unsatisfied.
14. The method for detecting random access of UE according to claim 1, wherein said Step D further comprising:
d21) calculating, respectively, the mean value, total value, effective mean value with the interferences eliminated, andor effective total value with the interferences eliminated of the correlation results in the correlation peak window; calculating, respectively, the mean values, total values, effective mean values with the interferences eliminated, andor effective total values with the interferences eliminated of the correlation results in the front-side and rear-side windows; and calculating, respectively, the corresponding differences between the mean value, total value, effective mean value and effective total value of the correlation results in the correlation peak window and the mean values, total values, effective mean values and effective total values of the correlation results in the front-side and rear-side windows;
d22) through emulation, setting, respectively, one threshold corresponding to each of said differences in Step d21;
d23) if the differences between the mean value, total value, effective mean value and effective total value of the correlation results in the correlation peak window and the mean values, total values, effective mean values and effective total values of the correlation results in the front-side and rear-side windows are greater than the corresponding thresholds, respectively, determining that the conditions are satisfied.
15. The method for detecting random access of UE according to claim 14, further comprising after Step d23 if said conditions are satisfied:
d51) setting a threshold through emulation;
d52) counting in the correlation peak window the number of the correlation point whose correlation result value is greater than said threshold;
d53) setting a threshold for said counted number through emulation;
d54) if the counted number in Step 52 is less than the set threshold in Step 53, further determining that the condition is satisfied, otherwise the condition is unsatisfied.
16. The method for detecting random access of UE according to claim 14, further comprising after Step d23 if said conditions are satisfied:
d61) setting a threshold through emulation;
d62) counting in the correlation result window excluding the correlation peak window the number of the correlation point whose correlation result value is greater than said threshold;
d63) setting a threshold for said counted number through emulation;
d64) if the counted number in Step 62 is less than said threshold in Step 63, determining that the condition is satisfied, otherwise the condition is unsatisfied.
17. The method for detecting random access of UE according to claim 14, further comprising after Step d23 if said conditions are satisfied:
d71) setting a threshold through emulation;
d72) calculating the differences between the maximum correlation peak and each correlation result point outside the correlation peak window but in the correlation result window;
d73) counting the number of the correlation result point with said difference less than said threshold of Step 71;
d74) setting a threshold for said counted number through emulation;
d75) if said counted number is less than said threshold in Step d74, determining that the condition is satisfied, and otherwise the condition is unsatisfied.
18. The method detecting random access of UE according to claim 1, wherein said Step D further comprising:
d31) calculating, respectively, the mean value, total value, effective mean value with the interferences eliminated, andor effective total value with the interferences eliminated of the correlation results in the correlation peak window;
d32) through emulation, setting, respectively, thresholds corresponding to said mean value, total value, effective mean value andor effective total value;
d33) if said mean value, total value, effective mean value andor effective total value of the correlation results are greater than the corresponding thresholds, respectively, determining that the conditions are satisfied.
19. The method for detecting random access of UE according to claim 18, further comprising after Step d33 if said conditions are satisfied:
d51) setting a threshold through emulation;
d52) counting in the correlation peak window the number of the correlation point whose correlation result value is greater than said threshold;
d53) setting a threshold for said counted number through emulation;
d54) if the counted number in Step 52 is less than the set threshold in Step 53, further determining that the condition is satisfied, otherwise the condition is unsatisfied.
20. The method for detecting random access of UE according to claim 18, further comprising after Step d33 if said conditions are satisfied:
d61) setting a threshold through emulation;
d62) counting, in the correlation result window excluding the correlation peak window, the number of the correlation point whose correlation result value is greater than said threshold;
d63) setting a threshold for said counted number through emulation;
d64) if the counted number in Step 62 is less than said threshold in Step 63, further determining that the condition is satisfied, otherwise the condition is unsatisfied.
21. The method for detecting random access of UE according to claim 18, further comprising after Step d33 if said conditions are satisfied:
d71) setting a threshold through emulation;
d72) calculating the differences between the maximum correlation peak and each correlation result point outside the correlation peak window but in the correlation result window;
d73) counting the number of the correlation result point with said difference less than said threshold of Step 71;
d74) setting a threshold for said counted number through emulation;
d75) if said counted number is less than said threshold in Step d74, further determining that the condition is satisfied, and otherwise the condition is unsatisfied.
22. The method for detecting random access of UE according to claim 1, wherein said Step D further comprising:
d41) calculating, respectively, the mean values andor the total values andor the effective mean values with the interferences eliminated andor the effective total values with the interferences eliminated of the correlation results in the front-side and rear-side windows on both side of the correlation peak window;
d42) through emulation, setting, respectively, thresholds corresponding to said mean values, total values, effective mean values and effective total values;
d43) if said mean values, total values, effective mean values andor effective total values of the correlation results are greater than the corresponding thresholds respectively, determining that the conditions are satisfied.
23. The method for detecting random access of UE according to claim 22, further comprising after Step d43 if said conditions are satisfied:
d51) setting a threshold through emulation;
d52) counting t in the correlation peak window he number of the correlation point whose correlation result value is greater than said threshold;
d53) setting a threshold for said counted number through emulation;
d54) if the counted number in Step 52 is less than the set threshold in Step 53, further determining that the condition is satisfied, otherwise the condition is unsatisfied.
24. The method for detecting random access of UE according to claim 22, further comprising after Step d43 if said conditions are satisfied:
d61) setting a threshold through emulation;
d62) counting, in the correlation result window excluding the correlation peak window the number of the correlation point whose correlation result value is greater than said threshold;
d63) setting a threshold for said counted number through emulation;
d64) if the counted number in Step 62 is less than said threshold in Step 63, further determining that the condition is satisfied, otherwise the condition is unsatisfied.
25. The method for detecting random access of UE according to claim 22, further comprising after Step d43 if said conditions are satisfied:
d71) setting a threshold through emulation;
d72) calculating the differences between the maximum correlation peak and each correlation result point outside the correlation peak window but in the correlation result window;
d73) counting the number of the correlation result point with said difference less than said threshold of Step 71;
d74) setting a threshold for said counted number through emulation;
d75) if said counted number is less than said threshold in Step d74, further determining that the condition is satisfied, and otherwise the condition is unsatisfied.

The claims below are in addition to those above.
All refrences to claim(s) which appear below refer to the numbering after this setence.

1. A monitoring circuit for an energy storage device, the energy storage device having a multiplicity of cells each having a first terminal and a second terminal, that provide a voltage in each case between the first terminal and second terminal, and which are connected in series, wherein in each case the second terminal of a first cell is connected to the first terminal of a second cell, the monitoring circuit comprising:
at least two voltage-measuring circuits including a first voltage-measuring circuit and a second voltage-measuring circuit each having a first measuring input and a second measuring input, said voltage-measuring circuits each measuring a voltage between said first measuring input and said second measuring input of said voltage-measuring circuits, said second measuring input of said first voltage-measuring circuit is connected to said first measuring input of said second voltage-measuring circuit;
a first connecting lead for connecting the first terminal of the first cell to said first measuring input of said first voltage-measuring circuit;
a second connecting lead for connecting the second terminal of the first cell to said second measuring input of said first voltage-measuring circuit; and
a first loading resistor capable of being switched between said second measuring input of said first voltage-measuring circuit and a first fixed potential.
2. The monitoring circuit according to claim 1, further comprising a second loading resistor capable of being switched between said first measuring input of said first voltage-measuring circuit and a second fixed potential.
3. The monitoring circuit according to claim 2, wherein said voltage-measuring circuits each have an internal resistor between said first and second measuring inputs with an ohmic resistance value of Rh and said first loading resistor and said second loading resistor each have an ohmic resistance value of Rn, wherein the following applies:
Rn<Rh.
4. The monitoring circuit according to claim 3, wherein Rn<10\xb7Rh.
5. The monitoring circuit according to claim 2, further comprising:
diodes and said first loading resistor and said second loading resistor are each connected in series with one of said diodes, and a series connections formed from said loading resistor and said diode each having a first and a second external terminal; and
a transistor having a load path with a first terminal and a second terminal, said first terminal of said load path connected to the fixed potential and said second terminal of said load path connected to said second external terminals of said series connections formed from said loading resistor and said diode.
6. The monitoring circuit according to claim 2, wherein the first fixed potential and the second fixed potential are at a same potential.
7. The monitoring circuit according to claim 1, further comprising a switch connected in series with said first loading resistor, said series connection and said first loading resistor are connected between said first measuring input of said voltage-measuring circuit and the fixed potential, wherein said switch is switched on and off cyclically.
8. The monitoring circuit according to claim 1, wherein the cells are rechargeable batteries.
9. The monitoring circuit according to claim 1, wherein the cells are embodied as capacitors.
10. The monitoring circuit according to claim 1, wherein the first fixed potential is connected to ground.
11. The monitoring circuit according to claim 1, further comprising:
a third connecting lead for connecting the second terminal of the second cell to said second measuring input of said second voltage-measuring circuit; and
a third loading resistor for a connection that can be switched between said second measuring input of said second voltage-measuring circuit and a fixed potential.
12. A method for monitoring an energy storage device, the energy storage device having a multiplicity of cells each having a first and a second terminal that provide a voltage in each case between the first and second terminals and are connected in series, wherein in each case a second terminal of a first cell is connected to a first terminal of a second cell, which comprises the steps of:
a) providing a monitoring circuit containing:
at least two voltage-measuring circuits including a first voltage-measuring circuit and a second voltage-measuring circuit each having a first measuring input and a second measuring input, the voltage-measuring circuits each measuring a voltage between the first measuring input and the second measuring input of the voltage-measuring circuits, the second measuring input of the first voltage-measuring circuit is connected to the first measuring input of the second voltage-measuring circuit;
a first connecting lead for connecting the first terminal of the first cell to the first measuring input of the first voltage-measuring circuit;
a second connecting lead for connecting the second terminal of the first cell to the second measuring input of the first voltage-measuring circuit; and
a first loading resistor capable of being switched between the second measuring input of the first voltage-measuring circuit and a first fixed potential;

b) switching the first loading resistor such that the first loading resistor does not form a connection between the second measuring input of the first voltage-measuring circuit and the first fixed potential;
c) measuring the voltage at the first and second measuring inputs of the first voltage-measuring circuit resulting in a first measurement;
d) switching the first loading resistor such that the first loading resistor forms a connection between the second measuring input of the first voltage-measuring circuit and the first fixed potential;
e) measuring the voltage at the first and second measuring inputs of the first voltage-measuring circuit resulting in a second measurement; and
f) comparing the first measurement with the second measurement.
13. The method according to claim 12, wherein:
at step a) the monitoring circuit is provided in which a second loading resistor is provided capable of being switched between the first measuring input of the first voltage-measuring circuit and a second fixed potential;
at step c) an additional step is provided at which the second loading resistor is switched in such a way that the second loading resistor does not form a connection between the first measuring input of the first voltage-measuring circuit and the second fixed potential; and
at step e) an additional step is provided at which the second loading resistor is switched in such a way that the second loading resistor forms a connection between the first measuring input of the first voltage-measuring circuit and the second fixed potential.
14. The method according to claim 12, which further comprises:
outputting status information in each case during the measuring at step c);
during the measuring at step e), the status information indicating whether one of an undervoltage, an overvoltage and a normal voltage is present; and
in step f), comparing the status information output at step c) with the status information output at step e).

1. An over shoe selectively positionable on at least one jaw member of an electrosurgical instrument having two opposing jaw members, the over shoe comprising:
a substantially planar tissue contacting wall configured to overlay a tissue contacting surface of the at least one jaw member and having a plurality of apertures defined therein;
a side wall having a first edge and a second edge, wherein the first edge is joined to a perimetric edge of the tissue contacting wall; and
a bottom wall joined along an edge thereof to the second edge of the side wall;
wherein inner surfaces of the tissue contacting wall, the side wall, and the bottom wall are configured to frictionally retain the over shoe on the at least one jaw member of the electrosurgical instrument.
2. The over shoe according to claim 1, wherein the apertures are evenly sized.
3. The over shoe according to claim 1, wherein the apertures are circular.
4. The over shoe according to claim 3, wherein the apertures have a diameter of between 10 \u03bcm and 1000 \u03bcm.
5. The over shoe according to claim 1, wherein the apertures are elongated slots.
6. The over shoe according to claim 5, wherein the elongated slots are in a parallel orientation with respect to each other.
7. The over shoe according to claim 1, wherein the tissue contacting wall includes a plurality of apertures arranged in pairs along its length.
8. The over shoe in according to claim 1, further comprising a longitudinally oriented slot defined in the bottom wall and extending along at least a portion of the length of the bottom member.
9. The over shoe according to claim 1, wherein the tissue contacting wall is formed from an insulative material.
10. The over shoe according to claim 1, wherein the tissue contacting wall is formed from conductive material.
11. An over shoe selectively positionable on at least one jaw member of an electrosurgical instrument having two opposing jaw members, the over shoe comprising:
a substantially planar tissue contacting wall formed from a non-conductive material and being configured to overlay an electrode of a first jaw member of the two opposing jaw members;
a side wall having a first edge and a second edge, wherein the first edge is joined to a perimetric edge of the tissue contacting wall;
a bottom wall joined along an edge thereof to the second edge of the side wall;
wherein inner surfaces of the tissue contacting wall, the side wall, and the bottom wall are configured to frictionally retain the over shoe on the at least one jaw member of the electrosurgical instrument; and
a protrusion extending from the tissue contacting wall and configured to electrically communicate with an electrode of the first jaw member when the overshoe is selectively positioned on the first jaw member.
12. The over shoe according to claim 11, wherein the protrusion is configured to create a pattern of tissue welds for treating tissue.
13. The over shoe according to claim 11, wherein the protrusion is coated with non-stick material, wherein the non-stick material is selected from the group consisting of nickel-chrome, chromium nitride and tin-nickel.
14. An over shoe selectively positionable on at least one jaw member of an electrosurgical instrument, the over shoe comprising:
a non-conductive material configured to overlay a tissue-contacting surface of at least one jaw member of the electrosurgical instrument, the non-conductive material having a tissue-contacting wall and an inner surface, the non-conductive material including a plurality of apertures extending between the tissue-contacting wall and the inner surface;
wherein the inner surface of the tissue-contacting wall is configured to frictionally retain the over shoe on the at least one jaw member of the electrosurgical instrument.

The claims below are in addition to those above.
All refrences to claim(s) which appear below refer to the numbering after this setence.

1-114. (canceled)
115. A composite awning device comprising a combination of a protruded corner awning device S1 equipped with a take-up device for winding and unwinding a protruded corner canvas G1, and a rectangular awning device Q equipped with a winding device for winding and unwinding a rectangular canvas P;
wherein, the take-up device of a protruded corner awning device S1 is equipped with take-up shafts J1 to J4 for a protruded corner canvas G1, and a front bars F1, E1, said take-up shafts J1 to J4 being comprised of an inner shaft and an outer roller 12, 12a fittedly inserted into said inner shaft.
116. A composite awning device according to claim 115,
wherein the take-up device of a rectangular awning device Q is equipped with a take-up roller 38 of said rectangular canvas P and front bars F2, F2a, E2;
the front bars F1, E1 for the protruded corner canvas G1 are fitted on and supported by the front bars F2, F2a, E2 for the rectangular canvas P to be slidably guided; and
the front bars F2, F2a, E2 of the rectangular canvas P at one side are translated forward and rearward by swing arms supporting the front bars F1, F2, F2a, E1, E2 of the protruded corner canvas G1 and the rectangular canvas P, whereas the front bars F1, E1 of the protruded corner canvas G1 at the other side are translated obliquely.
117. A composite awning device according to claim 115, wherein the front bars F1, E1 for the protruded corner canvas G1 are structured so that they are translated obliquely forward or withdrawn obliquely rearward as they are movably guided by the front bars F2, F2a, E2 for the rectangular canvas P.
118. A composite awning device according to claim 116, wherein the front bars F1, F2, F2a, E1, E2 are supported by either two or more of swing arms selected from linear I-like arms I1, I2, bi-foldable V-like arms V1, V2, Y-like arms Y1, Y2 in the shape of reversed letter y, and L-like arms L1, L2 expandable and contractible in two phases.
119. A composite awning device comprising a recessed corner awning device U equipped with a take-up device for winding and unwinding recessed corner canvas T1, T2, instead of the rectangular awning device Q recited in claim 115.
120. A composite awning device according to claim 119, wherein the take-up device of the recessed corner awning device U is equipped with a take-up roller 38 for the recessed corner canvases T1, T2 and front bars F2, F2a, F2b, E2;
front bars F1, E1 for the protruded corner canvas G1 are fitted on and supported by the front bars F2, F2a, F2b, E2 for recessed corner canvases T1, T2 to be movably guided;
the front bars F2, F2a, F2b, E2 at one side are translated forward and rearward by the swing arms supporting both the front bars F1, F2, F2a, F2b, E1, E2, and the front bars F1, E1 at the other side are obliquely translated as being movably guided by the front bars F2, F2a, F2b, E2.
121. A composite awning device comprising a combination of a rectangular awning device Q equipped with a take-up device for winding and unwinding a rectangular canvas P, and two protruded corner awning devices S1, S2 each equipped with a take-up device for winding and unwinding protruded corner canvases G1, G2, said rectangular awning device Q and said protruded corner awning devices S1, S2 located symmetrically at fore and rear positions; and
wherein the protruded corner awning devices S1, S2 are respectively equipped with take-up shafts J1 to J4 for the protruded corner canvases G1, G2 and front bars F1, F3, F11, F13; and
wherein the take-up shafts J1 to J4 are respectively comprised of an inner shaft and an outer roller 12, 12a fittedly inserted into said inner shaft.
122. A composite awning device according to claim 121, wherein the protruded corner awning devices S1, S2 are respectively equipped with take-up shafts J1 to J4 for the protruded corner canvases G1, G2 and front bars F1, F3, F11, F13; and
wherein the take-up shafts J1 to J4 are respectively comprised of an inner shaft and an outer roller 12, 12a fittedly inserted into said inner shaft;
the rectangular awning device Q is comprised of a take-up roller 38 for a rectangular canvas P and a front bar F2, F2c, or F12;
the front bars F1, F3, or F11, F13 for the protruded corner canvases G1, G2 are respectively fitted on and supported at fore and rear positions of the front bar F2, F2c, or F12 for the rectangular canvas P to be movably guided; and
the front bar F2, F2c, or F12 is translated forward and rearward by the swing arms supporting these three front bars F1 to F3 or F11 to F13, whereas the front bars F1, F3, or F11, F13 at fore and rear positions are translated obliquely as they are movably guided by the front bars F2, F2c, or F12.
123. A composite awning device comprising a combination of two protruded awning devices S1, S2 symmetrically at fore and rear positions, each equipped with a take-up device for winding and unwinding protruded corner canvases G1, G2, wherein the protruded corner awning devices S1, S2 are equipped with take-up shafts J1 to J4 for the protruded corner canvases G1, G2, and front bars F1, F3;
the take-up shafts J1 to J4 are respectively comprised of an inner shaft and an outer roller 12, 12a fittedly inserted into the inner shaft;
two front bars F1, F3 for the protruded corner canvases G1, G2 are fitted on and supported to be movably guided to their guide rails F4;
the guide rail F4 is translated forward and rearward by swing arms supporting the guide rail F4 and the front bars F1, F3, and the front bars at fore and rear positions are translated obliquely as they are movably guided by the guide rail F4.
124. A composite awning device comprising a combination of two protruded corner awning devices S1, S2 located symmetrically at fore and rear positions and each equipped with a device for winding and unwinding the protruded corner canvases G1, G2;
the protruded corner awning devices S1, S2 are equipped with take-up shafts J1 to J4 for the protruded corner canvases G1, G2 and front bars F1, F2, and the take-up shafts J1 to J4 are comprised of an inner shaft and an outer roller 12, 12a fittedly inserted into the inner shaft;
the respective front bars F1, F2 are translated obliquely as they are relatively movably guided by the swing arms that are fittedly inserted to support two front bars F1, F2 for the protruded corner canvases G1, G2 to be relatively movably guided and also support the front bars F1, F2 (SSIV).
125. A composite awning device comprising a combination of two pairs of composite awning devices SQIII1 to 9, SQII1 to 2, SQIV1 to 5 each comprised of a protruded corner awning device S1 equipped with a device for winding and unwinding a protruded corner canvas G1, and a rectangular awning device Q equipped with a device for winding and unwinding a rectangular canvas P are attached to one and the other sides of a protruded corner portion N1 to be faced to each other, and
wherein the protruded corner awning device S1 is equipped with take-up shafts J1 to J4 for a protruded corner canvas G1, and front bars F1, E1;
the take-up shafts J1 to J4 are respectively comprised of an inner shaft and an outer roller 12, 12a fittedly inserted into the shaft;
the rectangular awning device Q is equipped with a take-up roller 38 for a rectangular canvas P and front bars F2, F2a, E2;
the front bars F1, E1 for the protruded corner canvas G1 are fitted on and supported to the front bars F2, F2a, E2 for the rectangular canvas P to be movably guided;
the front bars F2, F2a, E2 for the rectangular canvas P at one side are translated forward and rearward; and
the front bars F2, F2a, E2 of the rectangular canvas at the other side are translated leftward and rightward, so that the front bars F1, E1 for the protruded corner canvas G1 are translated obliquely by means of swing arms supporting both the front bars F1, F2, F2a, E1, E2.
126. A composite awning device according to claim 125, wherein top end portions of the front bars F1, E1 faced to each other and located at one side and the other side of the protruded corner portion N1 are connected with each other with a stretching rope, chain, or any other connecting tool.
127. A composite awning device according to claim 125, wherein the top end portions of the front bars F1, F1 faced to each other and located at one side and the other side of the protruded corner portion N1, and are connected and fixed, so that the corresponding corner frame F5 is moved linearly obliquely (WSQIV1).
128. A composite awning device according to claim 115, wherein the protruded corner canvases G1, G2 are in a substantially right-angled trapezoidal shape when extended, and are comprised of a rectangular canvas main body portion R1 and a canvas extending portion R2 extended from one side of the can vas main body portion R1; and
the canvas top sides 1 of the protruded corner canvases G1, G2 are attached to the outer roller 12, 12a, whereas the canvas bottom sides 2 thereof are attached to the front bars F1, E1.
129. A composite awning device according to claim 128, wherein the canvas main body portion R1 is structured to be wound around the outer roller 12, 12a, whereas the canvas extending portion R2 is structured to be exposed as the outer roller 12, 12a is moved rearward.
130. A composite awning device according to claim 128, wherein, to unwind the protruded corner canvases G1, G2 wound around the take-up shafts J1, J4, the outer roller 12, 12a is moved forward in the axial direction as they are rotated to be unwound.
131. A composite awning device according to claim 115, wherein tensioning members such as connection wires 26, 27 and a connection belt are bridged between the outer roller 12, 12a and the front bars F1, F3, F11, F13, E1 into the shape of the letters X and V when seen from top.
132. A composite awning device according to claim 115, wherein the inner shaft is an inner rotation shaft 11, 11a, 11b; and
the outer roller 12, 12a is fitted on and supported by the inner rotation shaft 11, 11a, 11b to be movably guided.
133. A composite awning device according to claim 132, wherein guide grooves 111, 113 and a guide projection 112 are formed in the axial direction of the inner rotation shaft 11, 11a, 11b.
134. A composite awning device according to claim 132, wherein a wheel guide groove 113 is formed in the axial direction of the inner rotation shaft 11b; and
the outer roller 12a fittedly inserted into the inner rotation shaft 11b is structured with a wheel 79 incorporated therein to move along the guide groove 113.
135. A composite awning device according to claim 134, wherein a fitting groove 122 formed on the inner surface of the outer roller 12a, and a wheel unit D is fitted to the fitting groove 122, so that a wheel 79 assembled to the unit D can roll along a wheel guide groove 113.
136. A composite awning device according to claim 116, wherein the front bars F1, F3, E1 for the protruded corner canvases G1, G2 are at outer sides, whereas the front bars F2, F2a, F2b, F2c, E2 of the rectangular canvas P or the recessed corner canvases T1, T2 are at inner sides, and
among them, the front bars F1, E1 at the outer sides are formed with, in the longitudinal direction, fitting grooves 291, 841 to which the canvas bottom sides 2 of the protruded corner canvases G1, G2 are to be fitted, and fitting grooves 292, 842 of the front skirt 31, respectively; and
the front bars F2, F2a, F2b, F2c, E2 at the inner sides are formed with fitting grooves 471, 901 to which the canvas bottom side 6 of the rectangular canvas P or the recessed corner canvases T1, T2, respectively, in the longitudinal direction.
137. A composite awning device according to claim 116, wherein the front bars F11, F13 for the protruded corner canvas G1 is at inner sides, whereas the front bar F12 for the rectangular canvas P is at an outer side, and
wherein the front bars F12, E1 at the outer sides are formed with fitting grooves 291, 841 to which the canvas bottom side 2 of the rectangular canvas P is to be fitted, and fitting grooves 292, 842 of the front skirt 49, respectively, in the longitudinal direction; and
the front bars F11, F13, E2 at the inner sides are formed with, in the longitudinal direction, fitting grooves 471, 901 to which the canvas bottom side 2 of the protruded corner canvases G1, G2 are to be fitted, respectively.
138. A composite awning device according to claims 137, wherein, to fittedly inserting the front bar E1 at the outside into the front bar E2 at the inner side to be guided while rolling, guide wheels 861, 862 which horizontally rotate are contained into the front bar E1 at its rear end portion; and
guide wheels 931, 932 that horizontally rotate are provided to the top end portion of the front bar E2, so that the guide wheels 931, 932 roll on the inner side surface of the front bar E1, whereas the guide wheels 861, 862 roll in wheel rooms 881, 882 formed above and below the front bar E2.