mhurhangee/patent-ind-claim-en huggingface dataset:
A contact operation mechanism of a circuit breaker, comprising a base , a handle , a connecting rod , a jump buckle , a lock catch , a moving contact installation base , and a moving contact , wherein the lock catch and the moving contact installation base are rotatably provided on the base , the jump buckle is rotatably provided on the moving contact installation base , and the moving contact is fixedly provided on the moving contact installation base ; the handle and the jump buckle are connected via the connecting rod ; an abutment foot and a push foot are provided on the lock catch , wherein the abutment foot is fit with the jump buckle , and the push foot is provided corresponding to a tripping device of the circuit breaker; characterized in that an installation groove is provided on the base and below the handle , and an abutment spring and a sliding block are provided in the installation groove ; one end of the abutment spring abuts against an inner side of the installation groove , and the other end abuts against the sliding block ; a push rod is provided between the sliding block and the lock catch , and a spring that generates resilience to the moving contact installation base is provided between the moving contact installation base and the side wall of the base .
A mutant of lymphocytic choriomeningitis virus, wherein the mutant is capable of undergoing a stronger propagation in a tumor cell as compared to the wild type lymphocytic choriomeningitis virus strain WE, wherein the mutant comprises a nucleic acid encoding a glycoprotein, wherein said glycoprotein comprises at least one of the mutations Arg 185 →- Trp and Ile 181 →- Met as compared to the wild type glycoprotein sequence set forth in SEQ ID NO: 10, wherein the mutant comprises a nucleic acid encoding a glycoprotein that has at least 95% sequence identity, to the wild type glycoprotein sequence set forth in SEQ ID NO: 10.
An agricultural machine , comprising: a seeding system configured to meter and deliver seed , the seeding system comprising a seed metering system on a row unit and a seed delivery system on the row unit; a motor configured to drive movement of seeds in the seeding system, the motor comprising a first motor driving the seed metering system and a second motor driving the seed delivery system; a sensor configured to sense a characteristic of the seeding system and generate a sensor signal indicative of the characteristic; a skip detector component configured to receive the sensor signal and detect a seed skip in the seeding system; a processing system configured to receive an indication of the detected seed skip, and, based on the indication of the detected seed skip, generate an operating parameter for the motor; and a motor controller configured to receive the operating parameter and operate the motor based on the operating parameter; wherein the processing system is configured to generate an increased motor operating speed parameter for both the first and second motors and wherein the motor controller controls the first and second motors to increase their operating speed based on the increased motor operating speed parameters. a seeding system configured to meter and deliver seed , the seeding system comprising a seed metering system on a row unit and a seed delivery system on the row unit; a motor configured to drive movement of seeds in the seeding system, the motor comprising a first motor driving the seed metering system and a second motor driving the seed delivery system; a sensor configured to sense a characteristic of the seeding system and generate a sensor signal indicative of the characteristic; a skip detector component configured to receive the sensor signal and detect a seed skip in the seeding system; a processing system configured to receive an indication of the detected seed skip, and, based on the indication of the detected seed skip, generate an operating parameter for the motor; and a motor controller configured to receive the operating parameter and operate the motor based on the operating parameter; wherein the processing system is configured to generate an increased motor operating speed parameter for both the first and second motors and wherein the motor controller controls the first and second motors to increase their operating speed based on the increased motor operating speed parameters.
A decorative sheet comprising (a) a color layer and (b) a transparent layer formed on and adjacent to the color layer, wherein the ratio of the thickness of the transparent layer : the thickness of the color layer is 2-19:1, and the color layer and the transparent layer consist of a polyester-based material, wherein the transparent layer is a single layer, and the color layer comprises a design consisting of a single color or a plurality of colors and wherein the gloss on the transparent layer analyzed according to ASTM D523 is 40-100%, the total transmittance from the color layer to the transparent layer analyzed according to ASTM D1003 is 0.1-10%, and the difference in color brightness indices of the transparent layer and of the color layer analyzed according to ASTM E1164 is 1-40%.
A method of making an ion optics component, comprising: providing an electrically isolating substrate having a first major surface and a second major surface that is opposite the first major surface ; machining away material, other than along an edge of the substrate , from the first major surface and from the second major surface to form an electrode support having a surface that is other than parallel to either the first major surface or the second major surface ; characterised by machining away other material of the substrate to define a plurality of gaps (204a-g) at spaced-intervals along the surface of the electrode support , so as to define a plurality of surface segments (202a-g), the surface segments (202a-g) separated one from the other by the gaps (204a-g); and plating and masking the electrode support to form an electrode body on each of the surface segments (202a-g) and to form surface traces connecting between the electrode bodies that are formed on different surface segments (202a-g) of the plurality of surface segments (202a-g), thereby forming a first electrode structure . providing an electrically isolating substrate having a first major surface and a second major surface that is opposite the first major surface ; machining away material, other than along an edge of the substrate , from the first major surface and from the second major surface to form an electrode support having a surface that is other than parallel to either the first major surface or the second major surface ; characterised by machining away other material of the substrate to define a plurality of gaps (204a-g) at spaced-intervals along the surface of the electrode support , so as to define a plurality of surface segments (202a-g), the surface segments (202a-g) separated one from the other by the gaps (204a-g); and plating and masking the electrode support to form an electrode body on each of the surface segments (202a-g) and to form surface traces connecting between the electrode bodies that are formed on different surface segments (202a-g) of the plurality of surface segments (202a-g), thereby forming a first electrode structure .
A method of managing a decoded picture buffer, DPB, for a video decoder using coding modes including an Inter prediction mode and an Intra Block Copy, IntraBC, mode, comprising: determining a total number of reference pictures allowed to be stored in the DPB, wherein the DPB comprises short-term and long-term reference pictures; allocating up to the total number of reference pictures in the DPB; and decoding a current picture using the reference pictures stored in the DPB; characterized in that if the IntraBC mode is enabled, and no loop filters are used for the current picture, marking the current decoded picture as being used for long-term reference at a beginning of and during a process of decoding the current picture, and marking the current decoded picture in the DPB as a short-term reference picture after decoding the current picture is completed. determining a total number of reference pictures allowed to be stored in the DPB, wherein the DPB comprises short-term and long-term reference pictures; allocating up to the total number of reference pictures in the DPB; and decoding a current picture using the reference pictures stored in the DPB; characterized in that if the IntraBC mode is enabled, and no loop filters are used for the current picture, marking the current decoded picture as being used for long-term reference at a beginning of and during a process of decoding the current picture, and marking the current decoded picture in the DPB as a short-term reference picture after decoding the current picture is completed.
A switchable electrical connection system capable of electrically connecting a first connector of a first electrical member and a second connector of a second electrical member different from the first electrical member, said system comprising: - a connection element comprising a first contact zone with the first connector and a second contact zone with the second connector , the connection element having, on the one hand, a first configuration in which the connection element is capable of putting the first connector and the second connector in electrical continuity, and on the other hand, a second configuration in which the connection element does not put the first connector and the second connector in electrical continuity, the connection element being elastically deformable so as to be deformed in the first configuration and so as not to be deformed or less deformed in the second configuration; - a retention device comprising at least one fusible element having a melting temperature, the retention device being configured to hold the connection element in the first configuration when the temperature of the fusible element is below the melting temperature, and to release the connection element when the temperature of the fusible element exceeds the melting temperature so as to place the same in the second configuration, characterised in that the connection element is flexibly elastically deformable with a flexural deformation stress applied by the retention device in the first configuration by bearing on the connection element . - a connection element comprising a first contact zone with the first connector and a second contact zone with the second connector , the connection element having, on the one hand, a first configuration in which the connection element is capable of putting the first connector and the second connector in electrical continuity, and on the other hand, a second configuration in which the connection element does not put the first connector and the second connector in electrical continuity, the connection element being elastically deformable so as to be deformed in the first configuration and so as not to be deformed or less deformed in the second configuration; - a retention device comprising at least one fusible element having a melting temperature, the retention device being configured to hold the connection element in the first configuration when the temperature of the fusible element is below the melting temperature, and to release the connection element when the temperature of the fusible element exceeds the melting temperature so as to place the same in the second configuration,
A vacuum chuck , comprising: a forming surface comprising a first longitudinal end , a second longitudinal end , and a curved region, wherein the first longitudinal end and the second longitudinal end define a longitudinal axis (α), and wherein the curved region defines a radius of curvature (R1) along the longitudinal axis (α); a plurality of elongate grooves formed into the forming surface in the curved region, each elongate groove of the plurality of elongate grooves having a length, a width (W), and a depth (D) extending into the forming surface , wherein the length of each elongate groove is greater than the width (W), and wherein the plurality of elongate grooves extend parallel to one another and are spaced apart from one another by a spacing of 4 mm to 10 mm in a direction perpendicular to the length; and at least one conduit configured for connection to a vacuum source, the at least one conduit disposed beneath the forming surface and the at least one conduit extending transversely across the plurality of elongate grooves , wherein the at least one conduit is in fluid communication with the plurality of elongate grooves . a forming surface comprising a first longitudinal end , a second longitudinal end , and a curved region, wherein the first longitudinal end and the second longitudinal end define a longitudinal axis (α), and wherein the curved region defines a radius of curvature (R1) along the longitudinal axis (α); a plurality of elongate grooves formed into the forming surface in the curved region, each elongate groove of the plurality of elongate grooves having a length, a width (W), and a depth (D) extending into the forming surface , wherein the length of each elongate groove is greater than the width (W), and wherein the plurality of elongate grooves extend parallel to one another and are spaced apart from one another by a spacing of 4 mm to 10 mm in a direction perpendicular to the length; and at least one conduit configured for connection to a vacuum source, the at least one conduit disposed beneath the forming surface and the at least one conduit extending transversely across the plurality of elongate grooves , wherein the at least one conduit is in fluid communication with the plurality of elongate grooves .
A pneumatic tire having a carcass and a belt reinforcing structure , the belt reinforcing structure comprising a main belt structure including a first belt layer having cords arranged at an angle of 10 degrees or less, preferably 5 degrees or less, with respect to the midcircumferential plane of the tire , and a first zigzag belt reinforcing structure , the first zigzag belt reinforcing structure being formed of or comprising at least two layers of cords , the cords in said at least two layers of cords being inclined at an angle in a range of from 5 to 30 degrees relative to the midcircumferential plane of the tire and extending in alternation to turnaround points at each lateral edge of the respective layer of cord , wherein the first zigzag belt reinforcing structure is wider than the first belt layer , wherein the belt reinforcing structure comprises a protector belt structure located radially outward of the main belt structure , characterized in that the protector belt structure is a geodesic belt.
A method for forming a three-dimensional object layer by layer by selectively dispensing construction material onto a construction platform from a plurality of printing heads each having a surface formed with an array of output orifices , the method comprising: dispensing a first set of droplets of construction material (Dr1) along a first set of deposition lines with an array of output orifices ; dispensing a second set of droplets of construction material (Dr2) along a second set of deposition lines with an array of output orifices ; dispensing a third set of droplets of construction material (Dr3) along a third set of deposition lines with an array of output orifices ; dispensing a fourth set of droplets of construction material (Dr4) along a fourth set of deposition lines with an array of output orifices ; wherein the plurality of printing heads move simultaneously over the construction platform as they selectively dispense droplets of the construction material responsive to data defining the object, to form a layer of the object; CHARACTERIZED IN THAT droplets along the second set of deposition lines are dispensed equidistantly from droplets along the first set of deposition lines and droplets along each of the third and fourth set of deposition lines are dispensed equidistantly between droplets of the first and the second set of deposition lines. dispensing a first set of droplets of construction material (Dr1) along a first set of deposition lines with an array of output orifices ; dispensing a second set of droplets of construction material (Dr2) along a second set of deposition lines with an array of output orifices ; dispensing a third set of droplets of construction material (Dr3) along a third set of deposition lines with an array of output orifices ; dispensing a fourth set of droplets of construction material (Dr4) along a fourth set of deposition lines with an array of output orifices ; wherein the plurality of printing heads move simultaneously over the construction platform as they selectively dispense droplets of the construction material responsive to data defining the object, to form a layer of the object; CHARACTERIZED IN THAT droplets along the second set of deposition lines are dispensed equidistantly from droplets along the first set of deposition lines and droplets along each of the third and fourth set of deposition lines are dispensed equidistantly between droplets of the first and the second set of deposition lines.
An in vitro method for shaping a tissue matrix, comprising: selecting a collagen-containing tissue matrix; partially dehydrating the tissue matrix by removing water to produce a tissue matrix containing between 95%(w/w) and 50%(w/w) water content, so that the matrix has a denaturation temperature, as measured with differential scanning calorimetry, that is within 5°C of the denaturation temperature of the selected collagen-containing tissue matrix; applying mechanical forces to the tissue matrix to change the orientation of at least some collagen fibers within the tissue matrix; and exposing the tissue matrix to radiation. selecting a collagen-containing tissue matrix; partially dehydrating the tissue matrix by removing water to produce a tissue matrix containing between 95%(w/w) and 50%(w/w) water content, so that the matrix has a denaturation temperature, as measured with differential scanning calorimetry, that is within 5°C of the denaturation temperature of the selected collagen-containing tissue matrix; applying mechanical forces to the tissue matrix to change the orientation of at least some collagen fibers within the tissue matrix; and exposing the tissue matrix to radiation.
An apparatus for determining the orientation of anatomical cornea structures, comprising: a lighting device configured to direct a first luminous radiation (F1), polarized in an adjustable polarization direction (D1), to a cornea , when the cornea is in an observation seat , the lighting device comprising a light source and an emission polarizing filter connected to the light source ; an image acquisition device positioned to receive a second luminous radiation (F2) transmitted through the cornea arranged in the observation seat and illuminated by the first luminous radiation (F1); and an acquisition polarizing filter positioned to intercept the second luminous radiation (F2) directed to the image acquisition device ; wherein the acquisition polarizing filter is orientable and a relative rotation between the emission polarizing filter and the acquisition polarizing filter is locked at least in a first operative configuration, whereby a fixed relative angular position of the acquisition polarizing filter with respect to the polarization direction (D1) is maintained during rotation at least in the first operative configuration. a lighting device configured to direct a first luminous radiation (F1), polarized in an adjustable polarization direction (D1), to a cornea , when the cornea is in an observation seat , the lighting device comprising a light source and an emission polarizing filter connected to the light source ; an image acquisition device positioned to receive a second luminous radiation (F2) transmitted through the cornea arranged in the observation seat and illuminated by the first luminous radiation (F1); and an acquisition polarizing filter positioned to intercept the second luminous radiation (F2) directed to the image acquisition device ; wherein the acquisition polarizing filter is orientable and a relative rotation between the emission polarizing filter and the acquisition polarizing filter is locked at least in a first operative configuration, whereby a fixed relative angular position of the acquisition polarizing filter with respect to the polarization direction (D1) is maintained during rotation at least in the first operative configuration.
A composition comprising: A) a propylene/C4-C10 alpha-olefin interpolymer comprising from 5.0 wt.% to 25.0 wt.% units derived from the C4-C10 alpha-olefin, the propylene/C4-C10 alpha-olefin interpolymer comprising the following properties: (i) a total unsaturation per mole of propylene from 0.010 mole% to 0.030 mole%, (ii) a density from 0.855 g/cc to 0.890 g/cc, (iii) a melt viscosity, at 177°C, from 0.5 kg/m-s (500 cP) to 200 kg/m-s (200,000 cP). (iv) a melting temperature (Tm) from 45°C to 85°C; and the composition has a crystallization temperature (Tc) from -15°C to -2°C. A) a propylene/C4-C10 alpha-olefin interpolymer comprising from 5.0 wt.% to 25.0 wt.% units derived from the C4-C10 alpha-olefin, the propylene/C4-C10 alpha-olefin interpolymer comprising the following properties: (i) a total unsaturation per mole of propylene from 0.010 mole% to 0.030 mole%, (ii) a density from 0.855 g/cc to 0.890 g/cc, (iii) a melt viscosity, at 177°C, from 0.5 kg/m-s (500 cP) to 200 kg/m-s (200,000 cP). (iv) a melting temperature (Tm) from 45°C to 85°C; and the composition has a crystallization temperature (Tc) from -15°C to -2°C. (i) a total unsaturation per mole of propylene from 0.010 mole% to 0.030 mole%, (ii) a density from 0.855 g/cc to 0.890 g/cc, (iii) a melt viscosity, at 177°C, from 0.5 kg/m-s (500 cP) to 200 kg/m-s (200,000 cP). (iv) a melting temperature (Tm) from 45°C to 85°C; and
Device for measuring the viscosity of plastic melts, comprising a housing , which has an inner melt channel and which is divided in two at plane-parallel surfaces , into two housing parts (1', 1"), and comprising an exchangeable, plane-parallel measurement path limiter , which is arranged between the plane-parallel surfaces and which has a measurement path in the form of a slot , wherein: - an outgoing line and a return line branch off from the melt channel in the housing and end in each case in the region of the slot of the measurement path limiter at one of the plane-parallel surfaces , - the return line is formed as shorter than the outgoing line , - a pump is arranged only in the outgoing line , and wherein - openings (10, 10', 10") for measuring sensors (13, 13', 13") end in the region of the slot of the measurement path limiter at one of the plane-parallel surfaces , characterized in that the exchangeable measurement path limiter is formed as a single-use metal foil. - an outgoing line and a return line branch off from the melt channel in the housing and end in each case in the region of the slot of the measurement path limiter at one of the plane-parallel surfaces , - the return line is formed as shorter than the outgoing line , - a pump is arranged only in the outgoing line , and wherein - openings (10, 10', 10") for measuring sensors (13, 13', 13") end in the region of the slot of the measurement path limiter at one of the plane-parallel surfaces ,