mhurhangee/patent-ind-claim-en huggingface dataset:
A flexible substrate testing system , comprising: a first substrate support structure configured to hold stationary a first portion of a flexible substrate under test; a second substrate support structure configured to hold a second portion of the flexible substrate ; an actuator configured to move the second substrate support structure to fold the flexible substrate and to unfold the flexible substrate ; and a load cell configured to measure a load on the flexible substrate, characterised by a translation linkage configured to hold the first substrate support structure and to limit motion of the first substrate support structure to a direction in which the load cell is configured to measure the load. a first substrate support structure configured to hold stationary a first portion of a flexible substrate under test; a second substrate support structure configured to hold a second portion of the flexible substrate ; an actuator configured to move the second substrate support structure to fold the flexible substrate and to unfold the flexible substrate ; and a load cell configured to measure a load on the flexible substrate, characterised by a translation linkage configured to hold the first substrate support structure and to limit motion of the first substrate support structure to a direction in which the load cell is configured to measure the load.
A method of managing access to a physical memory formed of n memory page frames using a set of virtual address spaces, said set comprising n virtual address spaces each formed of a plurality p of contiguous memory pages, the method comprising: receiving a write request to write a block of data to a virtual address within a virtual address space i of the n virtual address spaces, the virtual address defined by the virtual address space i , a memory page j within that virtual address space i and an offset from the start of that memory page j ; translating the virtual address to an address of the physical memory using a virtual memory table having n by p entries specifying mappings between memory pages of the virtual address spaces and memory page frames of the physical memory, wherein the physical memory address is defined by: (i) the memory page frame mapped to the memory page j as specified by the virtual memory table, and (ii) the offset of the virtual address ; and writing the block of data to the physical memory address. receiving a write request to write a block of data to a virtual address within a virtual address space i of the n virtual address spaces, the virtual address defined by the virtual address space i , a memory page j within that virtual address space i and an offset from the start of that memory page j ; translating the virtual address to an address of the physical memory using a virtual memory table having n by p entries specifying mappings between memory pages of the virtual address spaces and memory page frames of the physical memory, wherein the physical memory address is defined by: (i) the memory page frame mapped to the memory page j as specified by the virtual memory table, and (ii) the offset of the virtual address ; and writing the block of data to the physical memory address.
A printing system comprising a coalescing system , the coalescing system comprising: a froth coalescing unit , the froth coalescing unit comprising: a coalescing chamber including a sump ; an inlet configured to receive froth into the coalescing chamber, the froth comprising a mixture of fluid and gas, the coalescing chamber to coalesce the fluid from the froth with the coalesced fluid collecting at least in the sump; an outlet to communicate coalesced fluid from the sump; and a fluid level sensor configured to provide a level over a range of different setpoint levels (S1-S3) of coalesced fluid in the coalescing chamber including in the sump, the fluid level sensor to provide different high-level setpoints for different types of fluids; the coalescing system further comprising: a pump configured to provide froth to the froth coalescing unit via the inlet; and a controller configured to adjust an operating speed of the pump based on the level of coalesced fluid to adjust a volume of froth provided to the coalescing chamber to maintain the level of coalesced fluid at or below a high-level setpoint corresponding to the fluid. a coalescing chamber including a sump ; an inlet configured to receive froth into the coalescing chamber, the froth comprising a mixture of fluid and gas, the coalescing chamber to coalesce the fluid from the froth with the coalesced fluid collecting at least in the sump; an outlet to communicate coalesced fluid from the sump; and a fluid level sensor configured to provide a level over a range of different setpoint levels (S1-S3) of coalesced fluid in the coalescing chamber including in the sump, the fluid level sensor to provide different high-level setpoints for different types of fluids; the coalescing system further comprising: a pump configured to provide froth to the froth coalescing unit via the inlet; and a controller configured to adjust an operating speed of the pump based on the level of coalesced fluid to adjust a volume of froth provided to the coalescing chamber to maintain the level of coalesced fluid at or below a high-level setpoint corresponding to the fluid. a pump configured to provide froth to the froth coalescing unit via the inlet; and a controller configured to adjust an operating speed of the pump based on the level of coalesced fluid to adjust a volume of froth provided to the coalescing chamber to maintain the level of coalesced fluid at or below a high-level setpoint corresponding to the fluid.
A proportional valve , especially for actuation of a pneumatic fitting, wherein the valve has a housing , an actuating element , a compressed-air port for connection of a compressed-air supply, a working port and a vent port , wherein the valve has three valve elements connected in series and respectively movable in an axial direction, namely - a first valve element actuated by the actuating element , - a second valve element , which is actuated by the first valve element , and - a third valve element , which is actuated by the second valve element , wherein, in a basic position of the valve , the first valve element is spaced apart from the second valve element and the second valve element from the third valve element and, within the valve , a first sealing seat acting between the first valve element and the second valve element and a second sealing seat acting between the third valve element and the housing are formed and disposed in such a way that, during variation of the position of the first valve element by the actuating element and of the cascade-like positioning of the axial positions of the first, second and third valve elements that can be achieved hereby, various switched states can be set for venting of the working port by placing it in communication with the vent port , for air admission to the working port by placing it in communication with the compressed-air port and for holding a pressure present at the working port by shutting off the working port both from the vent port and the compressed-air port , characterized in that the switched state for holding the pressure present at the working port is active over a displacement path, which is given by the distance between the second and the third valve element in the basic position. - a first valve element actuated by the actuating element , - a second valve element , which is actuated by the first valve element , and - a third valve element , which is actuated by the second valve element , wherein, in a basic position of the valve , the first valve element is spaced apart from the second valve element and the second valve element from the third valve element and, within the valve , a first sealing seat acting between the first valve element and the second valve element and a second sealing seat acting between the third valve element and the housing are formed and disposed in such a way that,
A signal processing device configured to process echoes from sea waves included in a detection area of a ship radar apparatus having an antenna unit with an antenna configured to receive echoes from sea waves included in a plurality of analysis areas (Z1-Z5) set within the detection area, such that as coordinate axes of the analysis areas (Z1-Z5), axes which are substantially parallel to directions from the ship (S) toward the central points of the analysis areas (Z1-Z5) are set; the signal processing device comprising: a frequency area spectrum generating module configured to carry out a frequency analysis of the echoes received by the antenna and generate 3D FFT directional frequency spectrums S Zn for the plurality of analysis areas (Z1-Z5), respectively, each directional frequency spectrum being defined along the respective coordinate axis of the respective analysis area (Z1-Z5); an integrating module configured to integrate echo intensity indicated by each sampling point that constitutes each of the directional frequency spectrums while unifying directions included in coordinates of the directional frequency spectrum, and generate an integrated frequency area spectrum, the integrated frequency area spectrum being provided as spectral power S total (i,j) in an arbitrary direction i and at an arbitrary frequency j; and a sea wave information calculating module configured to calculate sea wave information that is information related to the sea waves included in the analysis areas (Z1-Z5) based on the integrated frequency area spectrum, respectively, wherein the integrating module integrates the directional frequency spectrums S Zn obtained by multiplying the echo intensities at the sampling points by weight coefficients determined for the plurality of directional frequency spectrums, respectively. a frequency area spectrum generating module configured to carry out a frequency analysis of the echoes received by the antenna and generate 3D FFT directional frequency spectrums S Zn for the plurality of analysis areas (Z1-Z5), respectively, each directional frequency spectrum being defined along the respective coordinate axis of the respective analysis area (Z1-Z5); an integrating module configured to integrate echo intensity indicated by each sampling point that constitutes each of the directional frequency spectrums while unifying directions included in coordinates of the directional frequency spectrum, and generate an integrated frequency area spectrum, the integrated frequency area spectrum being provided as spectral power S total (i,j) in an arbitrary direction i and at an arbitrary frequency j; and a sea wave information calculating module configured to calculate sea wave information that is information related to the sea waves included in the analysis areas (Z1-Z5) based on the integrated frequency area spectrum, respectively, wherein the integrating module integrates the directional frequency spectrums S Zn obtained by multiplying the echo intensities at the sampling points by weight coefficients determined for the plurality of directional frequency spectrums, respectively.
A method of purifying adeno-associated virus (AAV) from an aqueous biomass containing said adeno-associated virus and at least one AAV-helper virus, comprising: a. contacting said biomass with a polydiallyldialkylammonium salt to form an aggregate and a clarified solution, wherein said aggregate comprises said at least one AAV-helper virus, b. removing said aggregate from the clarified solution, and c. further isolating the AAV from the clarified solution. a. contacting said biomass with a polydiallyldialkylammonium salt to form an aggregate and a clarified solution, wherein said aggregate comprises said at least one AAV-helper virus, b. removing said aggregate from the clarified solution, and c. further isolating the AAV from the clarified solution.
An oral irrigator having a suspension system configured to minimize transmission of acoustic and vibrational energy in the oral irrigator, the suspension system comprising: a rigid support ; an operative element positioned within the rigid support and comprising a drive frequency when the oral irrigator is in operation; and one or more resilient elements engaging the rigid support and configured to create a resilient force against all six degrees of freedom of vibrations generated by the operative element and further configured to center the operative element within an intended operating position free of other components except for the one or more resilient elements when positioned upright for normal operation under gravitational load; characterized in that the rigid support and the one or more resilient elements are structured or otherwise configured in shape, material, and/or relationship, to tune the natural frequency in one or more of the degrees of freedom of the suspension system , in the degrees of freedom of interest, into a narrow resonant frequency range, and wherein the resonant frequency is less than the drive frequency. a rigid support ; an operative element positioned within the rigid support and comprising a drive frequency when the oral irrigator is in operation; and one or more resilient elements engaging the rigid support and configured to create a resilient force against all six degrees of freedom of vibrations generated by the operative element and further configured to center the operative element within an intended operating position free of other components except for the one or more resilient elements when positioned upright for normal operation under gravitational load; characterized in that the rigid support and the one or more resilient elements are structured or otherwise configured in shape, material, and/or relationship, to tune the natural frequency in one or more of the degrees of freedom of the suspension system , in the degrees of freedom of interest, into a narrow resonant frequency range, and wherein the resonant frequency is less than the drive frequency.
Splitter nose (22; 122; 322; 422; 522) of an axial turbomachine designed to separate an annular flow into the turbomachine into a primary flow (18; 118; 318; 418; 518) and a secondary flow (20; 120; 320; 420; 520) , the nose comprising: - an annular leading edge (44; 144; 344; 444; 544), - guide walls (28, 34; 128, 134; 328, 334; 428 , 434; 528, 534) for the primary and secondary flows, extending from the leading edge; - a leading edge de-icing channel (40; 140; 340; 440; 540) extending annularly along the said edge, the channel being designed to conduct a fluid and comprising a wall (42; 142; 342; 442; 542) with a cross-section having a closed contour; characterized in that the wall (42; 142; 342; 442; 542) of the channel (40; 140; 340; 440; 540) forms the leading edge (44; 144; 344; 444; 544), the guide walls of the primary and secondary flows being attached to the said wall. - an annular leading edge (44; 144; 344; 444; 544), - guide walls (28, 34; 128, 134; 328, 334; 428 , 434; 528, 534) for the primary and secondary flows, extending from the leading edge; - a leading edge de-icing channel (40; 140; 340; 440; 540) extending annularly along the said edge, the channel being designed to conduct a fluid and comprising a wall (42; 142; 342; 442; 542) with a cross-section having a closed contour;
A method for dry synthesizing zinc acetylacetonate under a normal pressure, wherein comprising a plurality of following steps: adding acetylacetone into zinc carbonate hydroxide under a stirring condition, and obtaining a reaction product after a reaction; dry processing the reaction product to prepare and obtain the zinc acetylacetonate, wherein the step of adding acetylacetone into zinc carbonate hydroxide under the stirring condition, and obtaining the reaction product after reacting, comprises: adding acetylacetone drop by drop to the zinc carbonate hydroxide under a first stirring condition; when an amount of the acetylacetone has half left after being taken out drop by drop, continuing to add the acetylacetone drop by drop to the zinc carbonate hydroxide under a second stirring condition, until the acetylacetone is added drop by drop completely, before preparing and obtaining the reaction product, a second stirring speed is greater than a first stirring speed. adding acetylacetone into zinc carbonate hydroxide under a stirring condition, and obtaining a reaction product after a reaction; dry processing the reaction product to prepare and obtain the zinc acetylacetonate, wherein the step of adding acetylacetone into zinc carbonate hydroxide under the stirring condition, and obtaining the reaction product after reacting, comprises: adding acetylacetone drop by drop to the zinc carbonate hydroxide under a first stirring condition; when an amount of the acetylacetone has half left after being taken out drop by drop, continuing to add the acetylacetone drop by drop to the zinc carbonate hydroxide under a second stirring condition, until the acetylacetone is added drop by drop completely, before preparing and obtaining the reaction product, a second stirring speed is greater than a first stirring speed. adding acetylacetone drop by drop to the zinc carbonate hydroxide under a first stirring condition; when an amount of the acetylacetone has half left after being taken out drop by drop, continuing to add the acetylacetone drop by drop to the zinc carbonate hydroxide under a second stirring condition, until the acetylacetone is added drop by drop completely, before preparing and obtaining the reaction product, a second stirring speed is greater than a first stirring speed.
Door handle assembly for a motor vehicle , including a handle support , a handle and a drive element , wherein the handle can assume at least a rest position and a handling position, and wherein, when installed in a vehicle door , the handle is arranged to run strake-flush with the outside of the vehicle door in the rest position, and in the handling position is extended in a protruding direction relative to the outer side of the vehicle door for actuation, wherein a base plate is mounted movably on the handle support , and is movable relative to the handle support , with the handle mounted thereon, wherein the drive element is motion-coupled with the base plate and in a normal operation the base plate is constructed to be movable from a basic position in which the handle is arranged in its rest position, to a standby position in which the handle is arranged in its handling position, and wherein the handle is designed such that it is movable from the rest position into an emergency operation position, in which a first section of the handle is arranged such that it is moved in the opposite direction to the protruding direction , and a second section of the handle is arranged such that it extends in the protruding direction relative to the outer side of the vehicle door , characterized in that the handle has a handle outer shell and a handle main lever , wherein a first longitudinal end of the handle outer shell is mounted pivotably on a first longitudinal end of the handle main lever , wherein the first longitudinal end of the handle main lever is mounted pivotably on the base plate , and wherein in the emergency operating position of the handle the first longitudinal end of the handle outer shell is arranged such that it is moved in the opposite direction to the protruding direction and the first longitudinal end of the handle outer shell is arranged such that it is moved relative to the first longitudinal end of the handle main lever . wherein a base plate is mounted movably on the handle support , and is movable relative to the handle support , with the handle mounted thereon, wherein the drive element is motion-coupled with the base plate and in a normal operation the base plate is constructed to be movable from a basic position in which the handle is arranged in its rest position, to a standby position in which the handle is arranged in its handling position, and wherein the handle is designed such that it is movable from the rest position into an emergency operation position, in which a first section of the handle is arranged such that it is moved in the opposite direction to the protruding direction , and a second section of the handle is arranged such that it extends in the protruding direction relative to the outer side of the vehicle door ,
A recombinant protein comprising at least a first and a second ankyrin repeat domain, wherein each of said first and second ankyrin repeat domains binds the extracellular region of HER2, and wherein said first ankyrin repeat domain binds domain II of HER2 and said second ankyrin repeat domain binds domain IV of HER2, and wherein said first and second ankyrin repeat domains are located on the same polypeptide, and wherein said first ankyrin repeat domain is located N-terminally to said second ankyrin repeat domain, and wherein (i) said first ankyrin repeat domain comprises an amino acid sequence that has at least 85% amino acid sequence identity with an ankyrin repeat domain selected from the group consisting of SEQ ID NOs:62 to 68, 72 and 114 to 121, and (ii) said second ankyrin repeat domain comprises an amino acid sequence that has at least 85% amino acid sequence identity with an ankyrin repeat domain selected from the group consisting of SEQ ID NOs:74 to 82; and wherein further, G at position 1 and/or S at position 2 of said ankyrin repeat domains are optionally missing; and L at the second last position and/or N at the last position of said ankyrin repeat domains are optionally exchanged by A. (i) said first ankyrin repeat domain comprises an amino acid sequence that has at least 85% amino acid sequence identity with an ankyrin repeat domain selected from the group consisting of SEQ ID NOs:62 to 68, 72 and 114 to 121, and (ii) said second ankyrin repeat domain comprises an amino acid sequence that has at least 85% amino acid sequence identity with an ankyrin repeat domain selected from the group consisting of SEQ ID NOs:74 to 82;
A method to assemble an uncured spoke , comprising: providing a panel ; providing a first foot ; providing a second foot ; joining the first foot and the second foot onto the panel such that the panel extends continuously from the first foot to the second foot , wherein the first foot and the second foot engage the panel ; joining a first foot layer and a second foot layer onto the panel ; characterized by folding the first foot layer onto the first foot , wherein the first foot layer engages the panel and wherein the first foot layer engages the first foot ; and folding the second foot layer onto the second foot , wherein the second foot layer engages the panel and wherein the second foot layer engages the second foot . providing a panel ; providing a first foot ; providing a second foot ; joining the first foot and the second foot onto the panel such that the panel extends continuously from the first foot to the second foot , wherein the first foot and the second foot engage the panel ; joining a first foot layer and a second foot layer onto the panel ; characterized by folding the first foot layer onto the first foot , wherein the first foot layer engages the panel and wherein the first foot layer engages the first foot ; and folding the second foot layer onto the second foot , wherein the second foot layer engages the panel and wherein the second foot layer engages the second foot .