mhurhangee/patent-ind-claim-en huggingface dataset:
An adhesive composition comprising: lysine, oxaloacetic acid, and water, wherein: (i) the lysine and the oxaloacetic acid are present in the form of an aqueous salt solution and do not form precipitates in the adhesive composition; (ii) the mixing molar ratio of the lysine to the oxaloacetic acid is in the range of 1.8:1 to 1:3; and (iii) a solid content in the adhesive composition is 65 parts by weight or less based on a total weight of the adhesive composition. lysine, oxaloacetic acid, and water, wherein: (i) the lysine and the oxaloacetic acid are present in the form of an aqueous salt solution and do not form precipitates in the adhesive composition; (ii) the mixing molar ratio of the lysine to the oxaloacetic acid is in the range of 1.8:1 to 1:3; and (iii) a solid content in the adhesive composition is 65 parts by weight or less based on a total weight of the adhesive composition. (i) the lysine and the oxaloacetic acid are present in the form of an aqueous salt solution and do not form precipitates in the adhesive composition; (ii) the mixing molar ratio of the lysine to the oxaloacetic acid is in the range of 1.8:1 to 1:3; and (iii) a solid content in the adhesive composition is 65 parts by weight or less based on a total weight of the adhesive composition.
A method for producing an optical member , the method comprising: a base member manufacturing step where a base member made of titanium or a titanium alloy is processed into the shape of a pellicle frame, wherein the titanium alloy is (a) any of Ti-6Al-4V alloy, Ti-6Al-6V-2Sn alloy, Ti-6Al-2Sn-4Zr-6Mo alloy, Ti-10V-2Fe-3Al alloy, Ti-7Al-4Mo alloy, Ti-5Al-2.5Sn alloy, Ti-6Al-5Zr-0.5Mo-0.2Si alloy, Ti-5.5Al-3.5Sn-3Zr-0.3Mo-1Nb-0.3Si alloy, Ti-8Al-1Mo-1V alloy, Ti-6Al-2Sn-4Zr-2Mo alloy, Ti-5Al-2Sn-2Zr-4Mo-4Cr alloy, Ti-11.5Mo-6Zr-4.5Sn alloy, Ti-15V-3Cr-3Al-3Sn alloy, Ti-15Mo-5Zr-3Al alloy, Ti-15Mo-5Zr alloy, and Ti-13V-11Cr-3Al alloy, or (b) an α + β type alloy, and a carbon-doping treatment step where a carbon-doped titanium oxide layer is formed on the surface of the base member by heat-treating the surface of the base member by bringing a combustion flame of a gas containing a hydrocarbon as a main component into contact with the surface so that the surface temperature becomes 700 to 1500 °C, or by heat-treating the surface of the base member in a combustion gas atmosphere of a hydrocarbon-based gas so that the surface temperature becomes 700 to 1500 °C. a base member manufacturing step where a base member made of titanium or a titanium alloy is processed into the shape of a pellicle frame, wherein the titanium alloy is (a) any of Ti-6Al-4V alloy, Ti-6Al-6V-2Sn alloy, Ti-6Al-2Sn-4Zr-6Mo alloy, Ti-10V-2Fe-3Al alloy, Ti-7Al-4Mo alloy, Ti-5Al-2.5Sn alloy, Ti-6Al-5Zr-0.5Mo-0.2Si alloy, Ti-5.5Al-3.5Sn-3Zr-0.3Mo-1Nb-0.3Si alloy, Ti-8Al-1Mo-1V alloy, Ti-6Al-2Sn-4Zr-2Mo alloy, Ti-5Al-2Sn-2Zr-4Mo-4Cr alloy, Ti-11.5Mo-6Zr-4.5Sn alloy, Ti-15V-3Cr-3Al-3Sn alloy, Ti-15Mo-5Zr-3Al alloy, Ti-15Mo-5Zr alloy, and Ti-13V-11Cr-3Al alloy, or (b) an α + β type alloy, and a carbon-doping treatment step where a carbon-doped titanium oxide layer is formed on the surface of the base member by heat-treating the surface of the base member by bringing a combustion flame of a gas containing a hydrocarbon as a main component into contact with the surface so that the surface temperature becomes 700 to 1500 °C, or by heat-treating the surface of the base member in a combustion gas atmosphere of a hydrocarbon-based gas so that the surface temperature becomes 700 to 1500 °C.
A wireless communication device for use in a load control system for controlling one or more electrical loads, the wireless communication device comprising: a counterpoise ; a first antenna having a longitudinal axis extending substantially perpendicular to the counterpoise ; a second antenna extending in a plane that is substantially parallel to the counterpoise , wherein the counterpoise is configured to operate as a common radio frequency ground for the first and second antennas and wherein the first and second antennas are not galvanically connected to the counterpoise ; and a radio-frequency communication circuit coupled to the first and second antennas for transmitting a first wireless signal via the first antenna at a transmission frequency and a second wireless signal via the second antenna at the transmission frequency, wherein the second antenna extends along a perimeter of the counterpoise in an area outside the area of the counterpoise . a counterpoise ; a first antenna having a longitudinal axis extending substantially perpendicular to the counterpoise ; a second antenna extending in a plane that is substantially parallel to the counterpoise , wherein the counterpoise is configured to operate as a common radio frequency ground for the first and second antennas and wherein the first and second antennas are not galvanically connected to the counterpoise ; and a radio-frequency communication circuit coupled to the first and second antennas for transmitting a first wireless signal via the first antenna at a transmission frequency and a second wireless signal via the second antenna at the transmission frequency, wherein the second antenna extends along a perimeter of the counterpoise in an area outside the area of the counterpoise .
A copolymer comprising the structure: wherein each L 1 is independently wherein each L 2 is independently wherein each L 3 is independently a single bond, or wherein one Y 1 is SO 3 Z and the other Y 1 is H, wherein Z is a counterion, wherein each R is independently H, F, or CH 3 ; and wherein the value of x is between 0 and 1, and the value for n is 2 to 100,000.
A plurality of leg modules of a wheelchair assembly , comprising: a first leg module and a second leg module, each of the first leg module and the second leg module comprising: an upper leg assembly (306; 326; 346); a lower leg assembly (308; 328; 348) including a knee joint (318; 338; 358) and a foot joint (320; 340; 360), wherein the lower leg assembly is rotatably coupled to the upper leg assembly at the knee joint; characterised in that the first and second leg modules further comprise: a knee wheel (316; 336; 356) located at the knee joint of the lower leg assembly, wherein the knee wheel comprises an omni-directional wheel, and wherein the knee wheel is selectively drivable; and a foot wheel (314; 334; 354) located at the foot joint of the lower leg assembly, wherein the foot wheel is selectively drivable; wherein at least one of the upper leg assembly or the lower leg assembly associated with each of the first leg module and the second leg module is controllable, based on a selectable mode of operation, to selectively position at least one of the omni-directional knee wheel or the foot wheel associated with the leg module relative to a surface, the selectable mode of operation comprising a front-wheel drive, FWD, mode, a mid-wheel drive, MWD, mode, and an omni-wheel drive, OWD, mode. a first leg module and a second leg module, each of the first leg module and the second leg module comprising: an upper leg assembly (306; 326; 346); a lower leg assembly (308; 328; 348) including a knee joint (318; 338; 358) and a foot joint (320; 340; 360), wherein the lower leg assembly is rotatably coupled to the upper leg assembly at the knee joint; characterised in that the first and second leg modules further comprise: a knee wheel (316; 336; 356) located at the knee joint of the lower leg assembly, an upper leg assembly (306; 326; 346); a lower leg assembly (308; 328; 348) including a knee joint (318; 338; 358) and a foot joint (320; 340; 360), wherein the lower leg assembly is rotatably coupled to the upper leg assembly at the knee joint; characterised in that the first and second leg modules further comprise: a knee wheel (316; 336; 356) located at the knee joint of the lower leg assembly, wherein the knee wheel comprises an omni-directional wheel, and wherein the knee wheel is selectively drivable; and a foot wheel (314; 334; 354) located at the foot joint of the lower leg assembly, wherein the foot wheel is selectively drivable; wherein at least one of the upper leg assembly or the lower leg assembly associated with each of the first leg module and the second leg module is controllable, based on a selectable mode of operation, to selectively position at least one of the omni-directional knee wheel or the foot wheel associated with the leg module relative to a surface, the selectable mode of operation comprising a front-wheel drive, FWD, mode, a mid-wheel drive, MWD, mode, and an omni-wheel drive, OWD, mode.
A system for managing a battery, the system comprising: a wireless communication unit configured to communicate using a plurality of associated lower-level battery management systems disposed in the same battery rack through a first communication channel; and a communication unit configured to transmit and receive data with an upper-level control unit ; characterized in that the system further comprises a channel change unit configured to allow the wireless communication unit to communicate with a non-associated lower-level battery management system in a different battery rack using a second communication channel different from the first communication channel for a preset time at a preset period when a communication abnormality occurs in the non-associated lower-level battery management system in the different battery rack. a wireless communication unit configured to communicate using a plurality of associated lower-level battery management systems disposed in the same battery rack through a first communication channel; and a communication unit configured to transmit and receive data with an upper-level control unit ; characterized in that the system further comprises a channel change unit configured to allow the wireless communication unit to communicate with a non-associated lower-level battery management system in a different battery rack using a second communication channel different from the first communication channel for a preset time at a preset period when a communication abnormality occurs in the non-associated lower-level battery management system in the different battery rack.
A method for multicolor separation of a print file containing source data, characterized by : establishing , by a computer system , a color space by generating color profiles, wherein the color space is used by the computer system for processing a source file, and wherein the color space has a constant size and constant form; analyzing , by the computer system , a color separation strategy and values to effect a relationship between a channel vLCh and source data (n) CLR, wherein the color separation strategy avoids overlaying three colors when a resulting color rendering is achievable by two colors; establishing , by the computer system , a second relationship based on actual measured colorimetric data with the source data, wherein said second relationship is established by a look-up table with interpolation of the data between the anchor points of the look-up table; inputting , by the computer system , the source file for processing pursuant to printing; processing , by the computer system , said source file in a reversible, three-dimensional color space comprising a workspace between said color space and a printing space, where the percentage of each color is equivalent to a single color having separation values necessary to obtain an expected color rendering before separation into separate layers for printing; and outputting , by the computer system, said processed source file for printing in the printing space. establishing , by a computer system , a color space by generating color profiles, wherein the color space is used by the computer system for processing a source file, and wherein the color space has a constant size and constant form; analyzing , by the computer system , a color separation strategy and values to effect a relationship between a channel vLCh and source data (n) CLR, wherein the color separation strategy avoids overlaying three colors when a resulting color rendering is achievable by two colors; establishing , by the computer system , a second relationship based on actual measured colorimetric data with the source data, wherein said second relationship is established by a look-up table with interpolation of the data between the anchor points of the look-up table; inputting , by the computer system , the source file for processing pursuant to printing; processing , by the computer system , said source file in a reversible, three-dimensional color space comprising a workspace between said color space and a printing space, where the percentage of each color is equivalent to a single color having separation values necessary to obtain an expected color rendering before separation into separate layers for printing; and outputting , by the computer system, said processed source file for printing in the printing space.
A heat exchanger comprising: a first end opposite a second end ; a first side opposite a second side , wherein the first side and the second side extend from the first end to the second end; a first layer comprising: an inlet at the first end of the heat exchanger; and an outlet at the second end of the heat exchanger; and a second layer comprising: a first passage at the first end of the heat exchanger and extending from the first side to the second side, wherein an inlet of the second layer is formed at the first side of the first passage; a second passage adjacent to the first passage, wherein the second passage extends from the first side to the second side, the outlet of the second passage being located on the first side; and a third passage extending from the second end toward the second passage, the heat exchanger being characterized in that the first passage is fluidically connected to the third passage proximate the second end such that an inlet of the third passage is formed on the first side, and wherein the third passage is fluidically connected to the second passage. a first end opposite a second end ; a first side opposite a second side , wherein the first side and the second side extend from the first end to the second end; a first layer comprising: an inlet at the first end of the heat exchanger; and an outlet at the second end of the heat exchanger; and an inlet at the first end of the heat exchanger; and an outlet at the second end of the heat exchanger; and a second layer comprising: a first passage at the first end of the heat exchanger and extending from the first side to the second side, wherein an inlet of the second layer is formed at the first side of the first passage; a second passage adjacent to the first passage, wherein the second passage extends from the first side to the second side, the outlet of the second passage being located on the first side; and a third passage extending from the second end toward the second passage, the heat exchanger being characterized in that the first passage is fluidically connected to the third passage proximate the second end such that an inlet of the third passage is formed on the first side, and wherein the third passage is fluidically connected to the second passage. a first passage at the first end of the heat exchanger and extending from the first side to the second side, wherein an inlet of the second layer is formed at the first side of the first passage; a second passage adjacent to the first passage, wherein the second passage extends from the first side to the second side, the outlet of the second passage being located on the first side; and a third passage extending from the second end toward the second passage, the heat exchanger being characterized in that the first passage is fluidically connected to the third passage proximate the second end such that an inlet of the third passage is formed on the first side, and wherein the third passage is fluidically connected to the second passage.
A fluid product dispenser, comprising: - a fluid product reservoir (R), - a pump (P) having a pump body (P1), and an actuating stem (P3) that is axially movable down and up between an extended rest position and a depressed actuated position, - a cup for accommodate the fluid output by the pump (P), the cup being mounted on the actuating stem (P3), and - a removable member suitable for engaging with the cup and comprises an applicator (A) held in the cup so as to take up the fluid, the applicator (A) being elastically deformable and constrained in the cup by means of rotational locking means (13, 23, 31, F4) comprising a plurality of fixed flanges solidly attached to the reservoir (R) and a plurality of fins integral with the removable member , the fins being suitable for engaging beneath the fixed flanges by rotating the removable member , the cup and the removable member being provided with rotational connection means , such that the removable member drives the cup in rotation on the actuating stem (P3), as soon as the removable member is that is engaged with the cup . - a fluid product reservoir (R), - a pump (P) having a pump body (P1), and an actuating stem (P3) that is axially movable down and up between an extended rest position and a depressed actuated position, - a cup for accommodate the fluid output by the pump (P), the cup being mounted on the actuating stem (P3), and - a removable member suitable for engaging with the cup and comprises an applicator (A) held in the cup so as to take up the fluid, the applicator (A) being elastically deformable and constrained in the cup by means of rotational locking means (13, 23, 31, F4) comprising a plurality of fixed flanges solidly attached to the reservoir (R) and a plurality of fins integral with the removable member , the fins being suitable for engaging beneath the fixed flanges by rotating the removable member ,
A ski binding moving mechanism comprising: - a ski binding configured to be fastened in a vertical and lateral direction to a ski, and further configured to be moved in a longitudinal direction relative to the ski; - a rod with two or more pushing elements (51a, 51b,...), the rod being fastened to the ski binding ; and - a rotatable element configured to be fastened fixedly relative to the ski in the longitudinal direction of the ski, the rotatable element being rotatable relative to the ski , characterized in that the rotatable element comprises: - exactly two rotating pins configured to rotate with the rotatable element , and cooperate with the pushing elements (51a, 51b,...), wherein - the rotatable element is configured to be rotated at least one half revolution and move the rod and the binding in the same longitudinal direction throughout the half revolution from one fixed position to another fixed position. - a ski binding configured to be fastened in a vertical and lateral direction to a ski, and further configured to be moved in a longitudinal direction relative to the ski; - a rod with two or more pushing elements (51a, 51b,...), the rod being fastened to the ski binding ; and - a rotatable element configured to be fastened fixedly relative to the ski in the longitudinal direction of the ski, the rotatable element being rotatable relative to the ski , - exactly two rotating pins configured to rotate with the rotatable element , and cooperate with the pushing elements (51a, 51b,...), wherein - the rotatable element is configured to be rotated at least one half revolution and move the rod and the binding in the same longitudinal direction throughout the half revolution from one fixed position to another fixed position.
Method for inserting a wire into a longitudinal groove of a semiconductor chip with a view to the assembly thereof, the groove containing a pad made of a bonding material having a predetermined melting point, the pad occupying a sufficient portion of the groove so as to not allow the wire to be fully accommodated therein, the method comprising: - in an installation step, arranging a longitudinal portion of the wire along the groove , in forced abutment against the pad ; - in an insertion step, exposing a region containing at least part of the pad to a treatment temperature above the melting point of the bonding material and for a period of time which is sufficient to melt at least part of the pad , and thus cause the wire to be inserted into the groove . - in an installation step, arranging a longitudinal portion of the wire along the groove , in forced abutment against the pad ; - in an insertion step, exposing a region containing at least part of the pad to a treatment temperature above the melting point of the bonding material and for a period of time which is sufficient to melt at least part of the pad , and thus cause the wire to be inserted into the groove .
Actuating solenoid with an energisable coil device for moving a solenoid armature inside a pole tube in at least one direction, the solenoid armature comprising at least one control means for influencing a force-displacement characteristic curve , at least in the sense of force reduction at the end of its operating stroke, the respective control means being incorporated in the outer contour of the solenoid armature and being formed by a control groove running at least in sections in the solenoid armature , said control groove being formed by a circumferential annular groove in the solenoid armature , and the pole tube being formed by a pole sleeve which is connected to a pole piece via a separating ring , which co-delimits a magnetic separation between the pole sleeve and the pole piece , characterised in that the annular groove on the outer circumference of the solenoid armature is incorporated in said solenoid armature and in that , in the fully deflected position of the solenoid armature , by applying the required actuating force, the circumferential annular groove of the solenoid armature maintains an axial distance from the separating ring .