mhurhangee/ep-ind-claims huggingface dataset:
A modular golf bag (100, 300, 500, 700) comprising: a frame top (104, 308, 508) capable of receiving golf clubs; a frame bottom (106, 310, 510) located approximately the length of a golf club below the frame top; a plurality of poles (108, 110, 204, 304, 306, 504, 506) removably connecting the frame top and the frame bottom; a pliable bag body (112, 336) internal to the plurality of poles extending between the frame top and the frame bottom such that a cavity capable of receiving golf clubs through the frame top is formed; and a plurality of pliable pole sleeves (114, 116, 118, 120, 124, 206, 208, 210, 310, 312, 314, 316, 318, 320, 322, 324, 512, 514, 702, 709) attached to the pliable bag body by sewing, each of the pole sleeves surrounding at least a portion of the length of one of the plurality of poles such that each of the plurality of poles runs through at least one pole sleeve, the plurality of pole sleeves or the single pole sleeves corresponding to each pole, providing structure to the pliable bag body by securing the pliable bag body to the plurality of poles in an extended position. a frame top (104, 308, 508) capable of receiving golf clubs; a frame bottom (106, 310, 510) located approximately the length of a golf club below the frame top; a plurality of poles (108, 110, 204, 304, 306, 504, 506) removably connecting the frame top and the frame bottom; a pliable bag body (112, 336) internal to the plurality of poles extending between the frame top and the frame bottom such that a cavity capable of receiving golf clubs through the frame top is formed; and a plurality of pliable pole sleeves (114, 116, 118, 120, 124, 206, 208, 210, 310, 312, 314, 316, 318, 320, 322, 324, 512, 514, 702, 709) attached to the pliable bag body by sewing, each of the pole sleeves surrounding at least a portion of the length of one of the plurality of poles such that each of the plurality of poles runs through at least one pole sleeve, the plurality of pole sleeves or the single pole sleeves corresponding to each pole, providing structure to the pliable bag body by securing the pliable bag body to the plurality of poles in an extended position.
A composite fabric comprising: a. a substrate; b. a plurality of first strands disposed across the substrate and being oriented in a first direction; c. a plurality of second strands disposed across the substrate and being oriented in a second direction, the second direction being non-parallel with the first direction; d. a plurality of third strands disposed across the substrate and being oriented in a third direction, the third direction being non-parallel with either of the first or second directions; e. a plurality of fourth strands disposed across the substrate and being oriented in a fourth direction, the fourth direction being non-parallel with the either the first, second, or third directions; f. binding fiber stitched through the substrate to secure the first, second, third, and fourth strands to the substrate; wherein the substrate comprises a nonwoven fabric formed of a polymeric fiber having melting point greater than 320°F (160°C), the substrate having a low surface area side and a high surface area side, the high surface area side having a greater absorbency than the low surface area side, the polymeric fiber at the low surface area side being heat-fused, and the polymeric fiber at the high-surface area side being non-heat fused, wherein the first, second, third, and fourth strands are disposed across the high surface area side of the substrate, no more than three of the first, second, third, or fourth strands overlap at a common intersection, and wherein a load positioned on the composite fabric is distributed across the first, second, third, and fourth strands. a. a substrate; b. a plurality of first strands disposed across the substrate and being oriented in a first direction; c. a plurality of second strands disposed across the substrate and being oriented in a second direction, the second direction being non-parallel with the first direction; d. a plurality of third strands disposed across the substrate and being oriented in a third direction, the third direction being non-parallel with either of the first or second directions; e. a plurality of fourth strands disposed across the substrate and being oriented in a fourth direction, the fourth direction being non-parallel with the either the first, second, or third directions; f. binding fiber stitched through the substrate to secure the first, second, third, and fourth strands to the substrate;
An indicia-reading apparatus, comprising: an illumination module (200, 500) that provides dark field illumination and bright field illumination; and an image scanner module proximate the illumination module; wherein the illumination module comprises: a first and a second dark field multi-color LED and a first and a second bright field multi-color LED; and a close-up corrective lens; characterized in that the first dark field multi-color LED and the first bright field multi-color LED mounted on a first LED module, and the second dark field multi-color LED and the second bright field multi-color LED mounted on a second LED module, and wherein the first LED module is mounted on one side of the illumination module and the second LED module is mounted on an other side of the illumination module, with the close-up corrective lens positioned between the first and second LED modules, and wherein the illumination module is configured to be mounted at a front end of a mobile computer device. an illumination module (200, 500) that provides dark field illumination and bright field illumination; and an image scanner module proximate the illumination module; wherein the illumination module comprises: a first and a second dark field multi-color LED and a first and a second bright field multi-color LED; and a close-up corrective lens; characterized in that the first dark field multi-color LED and the first bright field multi-color LED mounted on a first LED module, and the second dark field multi-color LED and the second bright field multi-color LED mounted on a second LED module, and wherein the first LED module is mounted on one side of the illumination module and the second LED module is mounted on an other side of the illumination module, with the close-up corrective lens positioned between the first and second LED modules, and a first and a second dark field multi-color LED and a first and a second bright field multi-color LED; and a close-up corrective lens; characterized in that the first dark field multi-color LED and the first bright field multi-color LED mounted on a first LED module, and the second dark field multi-color LED and the second bright field multi-color LED mounted on a second LED module, and wherein the first LED module is mounted on one side of the illumination module and the second LED module is mounted on an other side of the illumination module, with the close-up corrective lens positioned between the first and second LED modules, and wherein the illumination module is configured to be mounted at a front end of a mobile computer device.
A method of transmitting different types of service data to a mobile station from a transmitter of a base station, comprising the steps of: determining a data size available at a predetermined data rate; and characterized by constructing transmission data in the available data size by combining one or more types of service data among the different types of service data according to priority levels of the different types of service data. determining a data size available at a predetermined data rate; and characterized by constructing transmission data in the available data size by combining one or more types of service data among the different types of service data according to priority levels of the different types of service data.
A method of analysing a load bearing member of an architectural structure, the method comprising providing the load bearing member in a condition in which it is secured to a formation with a securing assembly, applying a load to the load bearing member, thereby stressing the securing assembly, transmitting first and second signals (T1, T2) through a component of the securing assembly transverse to the direction at which the load is applied, and taking a measurement of an effect on each signal to determine the aforesaid load, characterised in that the first signal is transmitted through a region of the aforesaid component of the securing assembly that is in tension during said stressing of the component, and the second signal is transmitted through a region of the aforesaid component of the securing assembly that is in compression during said stressing of the component.
An implant assembly comprising: an abutment provided with a fastening depression that is formed in a center thereof and a top inclined surface that increases outward from a top end of the fastening depression, and configured to be fixed to an upper portion of a fixture that is fixed to an alveolar bone; and a crown link provided with a bottom inclined surface that comes into contact with the top inclined surface of the abutment on a bottom thereof, and also provided with a crown support portion that supports a crown in an upper portion thereof; wherein, when the crown link is placed on the abutment, the top inclined surface and the bottom inclined surface are coupled to each other, and also a through hole of the crown link and the fastening depression of the abutment are coaxially aligned with each other, characterized in that a link coupling portion formed at an entrance of the fastening depression comprises hexagonal portions provided with shapes of respective corners of a hexagon and arc portions formed to move outward between the hexagonal portions, and wherein a female screw portion configured for screw coupling with a fastening screw is formed on a lower portion of the fastening depression, and a plurality of driver grooves are formed in vertical directions through the female screw section. an abutment provided with a fastening depression that is formed in a center thereof and a top inclined surface that increases outward from a top end of the fastening depression, and configured to be fixed to an upper portion of a fixture that is fixed to an alveolar bone; and a crown link provided with a bottom inclined surface that comes into contact with the top inclined surface of the abutment on a bottom thereof, and also provided with a crown support portion that supports a crown in an upper portion thereof; wherein, when the crown link is placed on the abutment, the top inclined surface and the bottom inclined surface are coupled to each other, and also a through hole of the crown link and the fastening depression of the abutment are coaxially aligned with each other, characterized in that a link coupling portion formed at an entrance of the fastening depression comprises hexagonal portions provided with shapes of respective corners of a hexagon and arc portions formed to move outward between the hexagonal portions, and wherein a female screw portion configured for screw coupling with a fastening screw is formed on a lower portion of the fastening depression, and a plurality of driver grooves are formed in vertical directions through the female screw section.
A multiwall sheet, comprising: plastic walls, wherein the walls comprise: a first wall; a second wall; and a transverse wall, wherein the first wall, the second wall, and the transverse wall extend longitudinally; a rib extending between adjacent walls wherein a sound insulating material is disposed in an area (20, 22, 24) between two adjacent walls; characterized in that the sound insulating material has a velocity of sound greater than the velocity of sound of the plastic walls. plastic walls, wherein the walls comprise: a first wall; a second wall; and a transverse wall, wherein the first wall, the second wall, and the transverse wall extend longitudinally; a first wall; a second wall; and a transverse wall, wherein the first wall, the second wall, and the transverse wall extend longitudinally; a rib extending between adjacent walls wherein a sound insulating material is disposed in an area (20, 22, 24) between two adjacent walls; characterized in that the sound insulating material has a velocity of sound greater than the velocity of sound of the plastic walls.
A computer-implemented method of training a depth estimation network, comprising: performing a depth estimation on a first original image and a second original image located in a frame adjacent to the first original image by using a depth estimation network, so as to obtain a depth image for the first original image and a depth image for the second original image; removing a moving object from the first original image and the second original image so as to obtain a preprocessed image for the first original image and a preprocessed image for the second original image; estimating a pose based on the first original image and the second original image and modifying the pose based on the preprocessed image for the first original image and the preprocessed image for the second original image; and adjusting parameters of the depth estimation network according to the first original image, the second original image, the depth image for the first original image, the depth image for the second original image, and the pose modified. performing a depth estimation on a first original image and a second original image located in a frame adjacent to the first original image by using a depth estimation network, so as to obtain a depth image for the first original image and a depth image for the second original image; removing a moving object from the first original image and the second original image so as to obtain a preprocessed image for the first original image and a preprocessed image for the second original image; estimating a pose based on the first original image and the second original image and modifying the pose based on the preprocessed image for the first original image and the preprocessed image for the second original image; and adjusting parameters of the depth estimation network according to the first original image, the second original image, the depth image for the first original image, the depth image for the second original image, and the pose modified.
A method for recovering abnormal data in an internal memory, comprising: receiving (101, 201), by a processor, a data abort signal and an address of an abnormal instruction where abnormal data is located, wherein the abnormal data is stored in an internal memory; suspending (102, 202), by the processor, a current instruction being executed, and recording an address pointed to by a computer pointer; obtaining (103, 203), by the processor according to the address pointed to by the computer pointer, a program unit currently being executed by the processor; determining (104, 204), by the processor according to the address of the abnormal instruction, whether the abnormal instruction belongs to the program unit; if the abnormal instruction belongs to the program unit, determining, by the processor, whether instructions between a first instruction and the current instruction in the program unit are all reversible instructions, wherein the reversible instructions mean that the instructions comprise no destructive operation; if the instructions between the first instruction and the current instruction in the program unit are all reversible instructions, invoking (107, 209), by the processor, a destruction program unit corresponding to the program unit, so as to release resources already applied for by the program unit; and causing (108, 211), by the processor, the computer pointer to point back to an address of the first instruction in the program unit, and re-executing the program unit, so as to recover the abnormal data in the internal memory. receiving (101, 201), by a processor, a data abort signal and an address of an abnormal instruction where abnormal data is located, wherein the abnormal data is stored in an internal memory; suspending (102, 202), by the processor, a current instruction being executed, and recording an address pointed to by a computer pointer; obtaining (103, 203), by the processor according to the address pointed to by the computer pointer, a program unit currently being executed by the processor; determining (104, 204), by the processor according to the address of the abnormal instruction, whether the abnormal instruction belongs to the program unit; if the abnormal instruction belongs to the program unit, determining, by the processor, whether instructions between a first instruction and the current instruction in the program unit are all reversible instructions, wherein the reversible instructions mean that the instructions comprise no destructive operation; if the instructions between the first instruction and the current instruction in the program unit are all reversible instructions, invoking (107, 209), by the processor, a destruction program unit corresponding to the program unit, so as to release resources already applied for by the program unit; and causing (108, 211), by the processor, the computer pointer to point back to an address of the first instruction in the program unit, and re-executing the program unit, so as to recover the abnormal data in the internal memory.
A process for reshaping keratin fibers, preferably human keratin fibers, more preferably human hair characterized in that it comprises the steps of: a) putting keratin fibers under mechanical tension, b) applying to keratin fibers a non-reducing, non-oxidizing alkaline composition with a pH in the range of 7 to 12 comprising two or more alkalizing agents, wherein i) one or more first alkalizing agent(s) is/are selected from ammonia and/or its salts, and ii) one or more second alkalizing agent(s) is/are selected from organic alkalizing agent(s) and/or their salts, c) covering keratin fibers with a moisture barrier, d) heating the keratin fibers to a temperature in the range of 50°C to 230°C, e) removing the moisture barrier from keratin fibers, f) releasing tension from keratin fibers, g) optionally rinsing-off the keratin fibers, wherein process steps a), b), and f), g) can be executed in either order, wherein the weight ratio of the first alkalizing agent i) to second alkalizing agent ii) is in the range of 0.1 to 20, and wherein the second alkalizing agent of the alkaline composition of step b) is selected from guanidine and/or its salt(s), and/or organic alkyl and/or alkanol amines according to the general structure wherein R1, R2, and R3 are independently selected from H, linear C1-C6 alkyl substituted with one hydroxyl group, or branched C3-C12 alkyl or alkanol, wherein at least one of R1, R2, or R3 is different from H, and/or their salts. a) putting keratin fibers under mechanical tension, b) applying to keratin fibers a non-reducing, non-oxidizing alkaline composition with a pH in the range of 7 to 12 comprising two or more alkalizing agents, wherein i) one or more first alkalizing agent(s) is/are selected from ammonia and/or its salts, and ii) one or more second alkalizing agent(s) is/are selected from organic alkalizing agent(s) and/or their salts, i) one or more first alkalizing agent(s) is/are selected from ammonia and/or its salts, and ii) one or more second alkalizing agent(s) is/are selected from organic alkalizing agent(s) and/or their salts, c) covering keratin fibers with a moisture barrier, d) heating the keratin fibers to a temperature in the range of 50°C to 230°C, e) removing the moisture barrier from keratin fibers, f) releasing tension from keratin fibers, g) optionally rinsing-off the keratin fibers, wherein process steps a), b), and f), g) can be executed in either order, wherein the weight ratio of the first alkalizing agent i) to second alkalizing agent ii) is in the range of 0.1 to 20, and wherein the second alkalizing agent of the alkaline composition of step b) is selected from guanidine and/or its salt(s), and/or organic alkyl and/or alkanol amines according to the general structure wherein R1, R2, and R3 are independently selected from H, linear C1-C6 alkyl substituted with one hydroxyl group, or branched C3-C12 alkyl or alkanol, wherein at least one of R1, R2, or R3 is different from H, and/or their salts.
A device for use with an endoscope, comprising: a fork; and two jaws (20, 22) pivotally mounted about a pivot point of the fork, and movable between a predetermined closed position and a predetermined open position; the device having a centerline (C L) defined along its longitudinal axis going through the pivot point; wherein each jaw comprises front teeth (80, 82, 84, 86) at a distal end of the jaw and rear teeth (90a, 90b, 90c) near a proximal end of the jaw and proximal to the front teeth, wherein the front teeth of both jaws are configured to interlock with each other when the jaws are in the closed position; wherein the interlocked front teeth of both jaws in the closed position form a substantially hemisphere-shaped distal tip wherein the rear teeth are defined as those proximal to the substantially hemisphere-shaped distal tip, and the rear teeth (90a, 90b, 90c) of a jaw are contiguous with the rear teeth (90a, 90b, 90c) of the opposing jaw along the centerline, wherein, when the jaws are in the closed positions, the jaws form a gap between the front teeth (80, 82, 84, 86) and most distal rear teeth, wherein the gap defines an object capture area (100, 102, 104, 106); the device being characterized in that at least one jaw further comprises a cupped portion, wherein the rear teeth (90a, 90b, 90c) and the front teeth (80, 82, 84, 86) are disposed around the cupped portion. a fork; and two jaws (20, 22) pivotally mounted about a pivot point of the fork, and movable between a predetermined closed position and a predetermined open position; the device having a centerline (C L) defined along its longitudinal axis going through the pivot point; wherein each jaw comprises front teeth (80, 82, 84, 86) at a distal end of the jaw and rear teeth (90a, 90b, 90c) near a proximal end of the jaw and proximal to the front teeth, wherein the front teeth of both jaws are configured to interlock with each other when the jaws are in the closed position; wherein the interlocked front teeth of both jaws in the closed position form a substantially hemisphere-shaped distal tip wherein the rear teeth are defined as those proximal to the substantially hemisphere-shaped distal tip, and the rear teeth (90a, 90b, 90c) of a jaw are contiguous with the rear teeth (90a, 90b, 90c) of the opposing jaw along the centerline, wherein, when the jaws are in the closed positions, the jaws form a gap between the front teeth (80, 82, 84, 86) and most distal rear teeth, wherein the gap defines an object capture area (100, 102, 104, 106); the device being characterized in that at least one jaw further comprises a cupped portion, wherein the rear teeth (90a, 90b, 90c) and the front teeth (80, 82, 84, 86) are disposed around the cupped portion.