mhurhangee/ep-ind-claims huggingface dataset:
A gas cleaning separator for separating a flowable mixture of a gas and liquid; the separator comprising: a housing (4',70') defining an inner space, a rotor assembly located in said inner space and rotatable about an axis relative to the housing, and a housing member mounted to said housing (4',70') so as to allow a flow of fluid to either side of the housing member, wherein fluid flowing on one side of said member is gas directed by said member towards the exterior of said housing (4',70') through a first outlet aperture in said housing (4',70'); characterised by an outlet passage connectable to said housing member for directing gas to the exterior of the housing, a first sealing element for sealing the outlet passage to the housing member, and a second sealing element provided about the outlet passage for sealing the outlet passage to the housing (4',70'), wherein said outlet passage is spaced from said housing (4',70') so as to allow liquid, located between the housing member and said housing (4',70'), to flow about the entire outer perimeter thereof. a housing (4',70') defining an inner space, a rotor assembly located in said inner space and rotatable about an axis relative to the housing, and a housing member mounted to said housing (4',70') so as to allow a flow of fluid to either side of the housing member, wherein fluid flowing on one side of said member is gas directed by said member towards the exterior of said housing (4',70') through a first outlet aperture in said housing (4',70'); characterised by an outlet passage connectable to said housing member for directing gas to the exterior of the housing, a first sealing element for sealing the outlet passage to the housing member, and a second sealing element provided about the outlet passage for sealing the outlet passage to the housing (4',70'), wherein said outlet passage is spaced from said housing (4',70') so as to allow liquid, located between the housing member and said housing (4',70'), to flow about the entire outer perimeter thereof.
A food pressure-cooking appliance comprising: - a bowl and a lid adapted to tightly close the bowl to form a cooking chamber, - a member for controlling the locking / unlocking of the lid on the bowl, intended to be manually operated by a user, said member being mounted movable for rotation on the lid through at least one axis of rotation, along a stroke extending between at least one unlocking position and one locking position, said control member being kinematically linked, through engagement means integral with the axis of rotation, to a locking mechanism mounted movable on the lid to displace said locking mechanism in unlocking and locking positions corresponding to those of the control member, in order to ensure the locking / unlocking of the lid, characterized in that: - the locking mechanism includes reception means adapted to cooperate with engagement means in such a manner that, during the displacement of the control member from its locking position to its unlocking position, and the reverse, the engagement means cause the corresponding displacement of the locking mechanism from its locking position to its unlocking position, and the reverse. - and in that the engagement means are located at the same place on the control member. - a bowl and a lid adapted to tightly close the bowl to form a cooking chamber, - a member for controlling the locking / unlocking of the lid on the bowl, intended to be manually operated by a user, said member being mounted movable for rotation on the lid through at least one axis of rotation, along a stroke extending between at least one unlocking position and one locking position, said control member being kinematically linked, through engagement means integral with the axis of rotation, to a locking mechanism mounted movable on the lid to displace said locking mechanism in unlocking and locking positions corresponding to those of the control member, in order to ensure the locking / unlocking of the lid, characterized in that: - the locking mechanism includes reception means adapted to cooperate with engagement means in such a manner that, during the displacement of the control member from its locking position to its unlocking position, and the reverse, the engagement means cause the corresponding displacement of the locking mechanism from its locking position to its unlocking position, and the reverse. - and in that the engagement means are located at the same place on the control member.
A damper device comprising: a first rotating body; a second rotating body configured to rotate coaxially with the first rotating body; a pair of intermediate members configured to rotate coaxially with the first rotating body and the second rotating body and disposed with the second rotating body interposed therebetween in an axial direction; an elastic mechanism including a first elastic body configured to elastically interconnect the first rotating body and at least one of the pair of intermediate members in a rotational direction and a second elastic body configured to elastically interconnect at least one of the pair of intermediate members and the second rotating body in the rotational direction; and a dynamic vibration absorber including a pair of mass bodies (501, 502) arranged with the pair of intermediate members interposed therebetween, and located at an outer side of the second rotating body in a radial direction, the damper device being characterized in that the first rotating body includes a pair of plate members (100A, 100B) and a spacer accommodated between the pair of plate members (100A, 100B) and having an outer diameter at a radial position where the dynamic vibration absorber is provided, and the spacer has a first stopper configured to restrict rotation of the second rotating body. a first rotating body; a second rotating body configured to rotate coaxially with the first rotating body; a pair of intermediate members configured to rotate coaxially with the first rotating body and the second rotating body and disposed with the second rotating body interposed therebetween in an axial direction; an elastic mechanism including a first elastic body configured to elastically interconnect the first rotating body and at least one of the pair of intermediate members in a rotational direction and a second elastic body configured to elastically interconnect at least one of the pair of intermediate members and the second rotating body in the rotational direction; and a dynamic vibration absorber including a pair of mass bodies (501, 502) arranged with the pair of intermediate members interposed therebetween, and located at an outer side of the second rotating body in a radial direction, the damper device being characterized in that the first rotating body includes a pair of plate members (100A, 100B) and a spacer accommodated between the pair of plate members (100A, 100B) and having an outer diameter at a radial position where the dynamic vibration absorber is provided, and the spacer has a first stopper configured to restrict rotation of the second rotating body.
A method of enhancing plant growth, comprising treating plant seed or the plant that germinates from the seed with an effective amount of at least one chitooligosaccharide represented by the formula: wherein R 1 and R 2 each independently represents hydrogen or methyl; R 3 and R 4 each independently represents hydrogen, acetyl or carbamoyl; R 5 represents hydrogen, acetyl or carbamoyl; R 6 represents hydrogen, arabinosyl, fucosyl, acetyl, sulfate ester, 3- 0 -S-2- 0 -MeFuc, 2- 0 -MeFuc, and 4- 0 -AcFuc; R 7 represents hydrogen, mannosyl or glycerol; R 8 represents hydrogen, methyl, or -CH 2 OH; R 9 represents hydrogen, arabinosyl, or fucosyl; R 10 represents hydrogen, acetyl or fucosyl; and n represents 0, 1, 2 or 3, and, wherein upon harvesting the plant exhibits at least one of increased plant yield measured in terms of bushels/acre, increased root number, increased root length, increased root mass, increased root volume and increased leaf area, compared to untreated plants or plants harvested from untreated seed. wherein R 1 and R 2 each independently represents hydrogen or methyl; R 3 and R 4 each independently represents hydrogen, acetyl or carbamoyl; R 5 represents hydrogen, acetyl or carbamoyl; R 6 represents hydrogen, arabinosyl, fucosyl, acetyl, sulfate ester, 3- 0 -S-2- 0 -MeFuc, 2- 0 -MeFuc, and 4- 0 -AcFuc; R 7 represents hydrogen, mannosyl or glycerol; R 8 represents hydrogen, methyl, or -CH 2 OH; R 9 represents hydrogen, arabinosyl, or fucosyl; R 10 represents hydrogen, acetyl or fucosyl; and n represents 0, 1, 2 or 3, and, wherein upon harvesting the plant exhibits at least one of increased plant yield measured in terms of bushels/acre, increased root number, increased root length, increased root mass, increased root volume and increased leaf area, compared to untreated plants or plants harvested from untreated seed.
A charged particle optical system, comprising: a source configured to emit a primary beam of charged particles that impinge on a sample; a detection device; a charged particle optical column configured to collect charged particles from the sample and image the charged particles onto the detection device having an active portion formed on a substrate, which is the area of the detection device that is configured to produce a signal in response to secondary charged particles emitted from the sample landing on the active portion, wherein the substrate is symmetric with respect to an axis through a central aperture of the detection device and wherein the active portion is asymmetric with respect to the axis to accommodate an estimated axially asymmetrical distribution of the secondary particles at the detector with respect to a beam axis of the charged particle beam optical system; wherein the central aperture is formed through the substrate at the axis of symmetry of the substrate and is provided to allow the primary charged particle beam to pass through the detector; wherein the active portion is sector-shaped, wherein the shape of the active portion is configured to accommodate the axially asymmetrical distribution of the secondary particles at the detector with respect to the beam axis of the charged particle beam optical system. a source configured to emit a primary beam of charged particles that impinge on a sample; a detection device; a charged particle optical column configured to collect charged particles from the sample and image the charged particles onto the detection device having an active portion formed on a substrate, which is the area of the detection device that is configured to produce a signal in response to secondary charged particles emitted from the sample landing on the active portion, wherein the substrate is symmetric with respect to an axis through a central aperture of the detection device and wherein the active portion is asymmetric with respect to the axis to accommodate an estimated axially asymmetrical distribution of the secondary particles at the detector with respect to a beam axis of the charged particle beam optical system; wherein the central aperture is formed through the substrate at the axis of symmetry of the substrate and is provided to allow the primary charged particle beam to pass through the detector; wherein the active portion is sector-shaped, wherein the shape of the active portion is configured to accommodate the axially asymmetrical distribution of the secondary particles at the detector with respect to the beam axis of the charged particle beam optical system.
A method for determining an estimated operating emission level for an exhaust of a gas turbine comprising: a. periodically determining an estimated emission level from an output of emissions transfer algorithm, wherein said algorithm includes a trim factor; b. determining a current trim factor based on a ratio of a current output of a healthy emission sensor monitoring the exhaust and of the estimated emission level from a prior determination (Z -1), and c. applying a prior trim factor previously applied to determine the estimated operating condition if the emission sensor is unhealthy. a. periodically determining an estimated emission level from an output of emissions transfer algorithm, wherein said algorithm includes a trim factor; b. determining a current trim factor based on a ratio of a current output of a healthy emission sensor monitoring the exhaust and of the estimated emission level from a prior determination (Z -1), and c. applying a prior trim factor previously applied to determine the estimated operating condition if the emission sensor is unhealthy.
A high-frequency signal transmission line comprising: a dielectric body composed of laminated dielectric layers; a linear signal line provided in the dielectric body; and a first grounding conductor arranged on one side of the signal line in a lamination direction so as to be opposed to the signal line via one of the dielectric layers, the first grounding conductor being of a ladder structure comprising a plurality of openings and a plurality of bridges alternately arranged in an extending direction of the signal line, wherein the signal line has characteristic impedance that changes between two adjacent bridges such that the characteristic impedance rises from a minimum value to a first intermediate value and to a maximum value and falls from the maximum value to a second intermediate value and to the minimum value in this order with increasing distance from one of the adjacent bridges and with decreasing distance from the other adjacent bridge; and characterized in that the signal line has a smaller width (W b) in portions opposed to the bridges than in portions having the maximum value of characteristic impedance (W a). a dielectric body composed of laminated dielectric layers; a linear signal line provided in the dielectric body; and a first grounding conductor arranged on one side of the signal line in a lamination direction so as to be opposed to the signal line via one of the dielectric layers, the first grounding conductor being of a ladder structure comprising a plurality of openings and a plurality of bridges alternately arranged in an extending direction of the signal line, wherein the signal line has characteristic impedance that changes between two adjacent bridges such that the characteristic impedance rises from a minimum value to a first intermediate value and to a maximum value and falls from the maximum value to a second intermediate value and to the minimum value in this order with increasing distance from one of the adjacent bridges and with decreasing distance from the other adjacent bridge; and characterized in that the signal line has a smaller width (W b) in portions opposed to the bridges than in portions having the maximum value of characteristic impedance (W a).
An electronic device comprising: a window that forms at least a part of an exterior of the electronic device and includes an opening; a bracket that is disposed within an interior of the electronic device; a display that is disposed between the window and the bracket, the display being disposed to in a non-overlapping position relative to the opening of the window; and a button device that includes a button (182; 282; 382) that is disposed within the opening of the window and a dome switch (183; 283; 383;) that is disposed at a position where the dome switch (183; 283; 383;) is pressable by the button (182; 282; 382); characterized in that the button device includes: a housing (181; 184; 284; 384) that is disposed between the window and the bracket for accommodating the button (182; 282; 382) and the dome switch (183; 283; 383); and a rubber component (186; 386) disposed between the button (182; 282; 382) and the dome switch (183; 283; 383), and coupled with the window to seal the opening of the window, wherein an annular rim (1862; 3862) of the rubber component (186; 386) is attached to an annular surface around the opening of the window. a window that forms at least a part of an exterior of the electronic device and includes an opening; a bracket that is disposed within an interior of the electronic device; a display that is disposed between the window and the bracket, the display being disposed to in a non-overlapping position relative to the opening of the window; and a button device that includes a button (182; 282; 382) that is disposed within the opening of the window and a dome switch (183; 283; 383;) that is disposed at a position where the dome switch (183; 283; 383;) is pressable by the button (182; 282; 382); characterized in that the button device includes: a housing (181; 184; 284; 384) that is disposed between the window and the bracket for accommodating the button (182; 282; 382) and the dome switch (183; 283; 383); and a rubber component (186; 386) disposed between the button (182; 282; 382) and the dome switch (183; 283; 383), and coupled with the window to seal the opening of the window, wherein an annular rim (1862; 3862) of the rubber component (186; 386) is attached to an annular surface around the opening of the window. a housing (181; 184; 284; 384) that is disposed between the window and the bracket for accommodating the button (182; 282; 382) and the dome switch (183; 283; 383); and a rubber component (186; 386) disposed between the button (182; 282; 382) and the dome switch (183; 283; 383), and coupled with the window to seal the opening of the window, wherein an annular rim (1862; 3862) of the rubber component (186; 386) is attached to an annular surface around the opening of the window.
A stent delivery system, comprising: a core assembly sized for insertion into a corporeal lumen, the core assembly configured for advancing a stent toward a treatment location in the corporeal lumen, the core assembly comprising: a longitudinally extending tube having a lumen and a helical cut extending along the tube; and an elongate wire extending through the tube lumen, the wire having an intermediate portion disposed distal to the tube; and a stent carried by the intermediate portion, wherein the tube is affixed to the wire at proximal and distal portions of the tube. a longitudinally extending tube having a lumen and a helical cut extending along the tube; and an elongate wire extending through the tube lumen, the wire having an intermediate portion disposed distal to the tube; and a stent carried by the intermediate portion, wherein the tube is affixed to the wire at proximal and distal portions of the tube.
A radio frequency identification transponder, comprising: a resonant circuit configured to resonate at a first frequency, wherein the resonant circuit comprises: at least one resistance element; at least one inductance element; and at least one capacitance element, wherein the at least one resistance element, the at least one inductance element and the at least one capacitance element are connected in series, a control element, having at least one processor and a memory, is connected to the resonant circuit; and said at least one processor and a memory storing instructions that, when executed, detect a pattern in time domain in the predetermined amount of light; characterized in that: the control element is configured to detect a predetermined amount of light; and in response to the predetermined amount of light, the control element is configured to change a resonant response of the resonant circuit at the first frequency, wherein the control element comprises a photoresistor configured to change the resistance of the resonant circuit (11, 21) in response to the predetermined amount of light. a resonant circuit configured to resonate at a first frequency, wherein the resonant circuit comprises: at least one resistance element; at least one inductance element; and at least one capacitance element, wherein the at least one resistance element, the at least one inductance element and the at least one capacitance element are connected in series, at least one resistance element; at least one inductance element; and at least one capacitance element, wherein the at least one resistance element, the at least one inductance element and the at least one capacitance element are connected in series, a control element, having at least one processor and a memory, is connected to the resonant circuit; and said at least one processor and a memory storing instructions that, when executed, detect a pattern in time domain in the predetermined amount of light; characterized in that: the control element is configured to detect a predetermined amount of light; and in response to the predetermined amount of light, the control element is configured to change a resonant response of the resonant circuit at the first frequency, wherein the control element comprises a photoresistor configured to change the resistance of the resonant circuit (11, 21) in response to the predetermined amount of light. the control element is configured to detect a predetermined amount of light; and in response to the predetermined amount of light, the control element is configured to change a resonant response of the resonant circuit at the first frequency, wherein the control element comprises a photoresistor configured to change the resistance of the resonant circuit (11, 21) in response to the predetermined amount of light.
Slider for guiding a displaceable element of a vehicle relative to a body of the vehicle, wherein the slider has a plastics region and a metal region, wherein the slider is embodied in one piece, and the metal region is at least partially overmolded with the plastics region, and the slider is configured such that at least one portion (28, 30) of the slider can engage at least partially around a guide element of the vehicle; characterized in that the metal region is configured as a spring-steel insert which is at least partially overmolded with the plastics region.