mhurhangee/patent-ind-claim-en huggingface dataset:
A dual-purpose photoacoustic tomography (PAT)/ultrasound contrast agent for simultaneously conducting diagnosis and treatment of cancer, comprising: (a) a microbubble containing gas and porphyrin therein; and (b) nanoparticles bound on a surface of the microbubble and containing an hardly soluble organic anticancer drug and having a diameter of 10 to 500 nm. (a) a microbubble containing gas and porphyrin therein; and (b) nanoparticles bound on a surface of the microbubble and containing an hardly soluble organic anticancer drug and having a diameter of 10 to 500 nm.
An on-vehicle display control device comprising: a video image acquiring unit configured to acquire left and right side rear view video images captured by imaging units configured to capture the left and right side rear view video images of a vehicle; a turning information acquiring unit configured to acquire turning information on the vehicle; and a video image processing unit configured to display, on determining that the vehicle is going to make a turn based on the turning information, the side rear view video image for a turning direction in an area away from a center of the vehicle in a side monitor arranged in a turning direction among left and right side monitors provided in the vehicle, and the side rear view video image for a direction opposite to the turning direction in an area close to the center of the vehicle in the side monitor arranged in the turning direction, characterized in that the video image processing unit is further configured to display, in the side monitor arranged in the turning direction, a video image close to the vehicle in the side rear view video image for the turning direction and a video image away from the vehicle in the side rear view video image for the direction opposite to the turning direction. a video image acquiring unit configured to acquire left and right side rear view video images captured by imaging units configured to capture the left and right side rear view video images of a vehicle; a turning information acquiring unit configured to acquire turning information on the vehicle; and a video image processing unit configured to display, on determining that the vehicle is going to make a turn based on the turning information, the side rear view video image for a turning direction in an area away from a center of the vehicle in a side monitor arranged in a turning direction among left and right side monitors provided in the vehicle, and the side rear view video image for a direction opposite to the turning direction in an area close to the center of the vehicle in the side monitor arranged in the turning direction, characterized in that the video image processing unit is further configured to display, in the side monitor arranged in the turning direction, a video image close to the vehicle in the side rear view video image for the turning direction and a video image away from the vehicle in the side rear view video image for the direction opposite to the turning direction.
A system for the axial retention of a holding ring for a bearing for guiding in rotation a rotary shaft of a turbomachine extending along a longitudinal axis (X), the retention system comprising: - an annular bearing support intended to be secured to a fixed part of the turbomachine, and - a bearing holding ring carried by the annular bearing support , the bearing holding ring extending along the longitudinal axis (X) and comprising an upstream part, called the upstream ring , intended to be brought into contact with the bearing support and a downstream part, called the downstream ring , that is elastically deformable and intended to be connected to the fixed part , the bearing support comprises a first axial retention element and the bearing holding ring comprises a second axial retention element , and that the first and second axial retention elements are configured to cooperate with each other so as to axially retain the bearing holding ring in the event of damage to the downstream ring , characterised in that the first and second axial retention elements each have at least one annular tooth extending along a radial axis substantially perpendicular to the longitudinal axis (X) so as to be able to cooperate with each other axially and to form a snap connection. - an annular bearing support intended to be secured to a fixed part of the turbomachine, and - a bearing holding ring carried by the annular bearing support , the bearing holding ring extending along the longitudinal axis (X) and comprising an upstream part, called the upstream ring , intended to be brought into contact with the bearing support and a downstream part, called the downstream ring , that is elastically deformable and intended to be connected to the fixed part ,
A blood sequestration device comprising; an inlet port; an outlet port; a sequestration chamber connected with the inlet port via a junction, the sequestration chamber having a vent that includes an air permeable blood barrier , the vent being defined by an outer wall that at least partially circumscribes the air permeable blood barrier and includes one or more air vents, the vent further including a cap that at least partially covers the wall and a one-way seal abutting the air permeable blood barrier that inhibits air from entering the sequestration chamber; and a sampling channel having a proximal end connected with the inlet port via the junction, and a distal end connected with the outlet port; the sequestration chamber, the sampling channel and the junction being sized and configured such that a first portion of blood flows into and fills the sequestration chamber to displace air therein through the vent, and such that a second portion of blood bypasses the sequestration chamber and the first portion of blood sequestered therein and is directed into the sampling channel toward the outlet port. an inlet port; an outlet port; a sequestration chamber connected with the inlet port via a junction, the sequestration chamber having a vent that includes an air permeable blood barrier , the vent being defined by an outer wall that at least partially circumscribes the air permeable blood barrier and includes one or more air vents, the vent further including a cap that at least partially covers the wall and a one-way seal abutting the air permeable blood barrier that inhibits air from entering the sequestration chamber; and a sampling channel having a proximal end connected with the inlet port via the junction, and a distal end connected with the outlet port; the sequestration chamber, the sampling channel and the junction being sized and configured such that a first portion of blood flows into and fills the sequestration chamber to displace air therein through the vent, and such that a second portion of blood bypasses the sequestration chamber and the first portion of blood sequestered therein and is directed into the sampling channel toward the outlet port.
An electric mower, comprising: a chassis ; and a walking device, a mowing device, a power device , a handle device , and a back grass discharging device arranged on the chassis , wherein the power device drives the operation of the walking device and the mowing device, the back grass discharging device discharges the grass cut by the mowing device, and the handle device controls the electric mower, wherein the power device uses a hybrid power system formed by DC power supply and AC power supply, wherein the handle device comprises an upper handle and a lower handle , a handle adjusting mechanism is provided between the upper handle and the lower handle , characterized in that the handle adjusting mechanism comprises a hinge pin and a compressed spring , a pin hole is provided on the lower handle , a gear hole is provided on the upper handle , and the hinge pin is inserted into the gear hole under the action of the compressed spring , wherein the hinge pin is controlled by a button , a drive block is provided between the button and the hinge pin , a tapered wedge surface is provided on the drive block , and the button and the tapered wedge surface act to drive the disengagement of the hinge pin from the gear hole on the upper handle .
A rolling mill stand , for rolling rod-shaped bodies, in particular tubular bodies, said stand comprising at least three rolls mutually arranged to define a rolling pass line (P) for said rod-shaped and/or tubular bodies, wherein at least one of said three rolls is integral on a roll holder shaft , which is in turn freely fixed in rotational manner to said stand by means of a first hollow support and a second hollow support arranged respectively on opposite sides of said at least one roll , wherein a first portion and a second portion of said roll holder shaft are housed in said first hollow support and in said second hollow support , respectively; characterized in that it comprises elastic means interposed between said first portion of roll holder shaft and said first hollow support to define an elastic type axial constraint between said roll holder shaft and said first support .
A method of fabricating a hermetic electrical feedthrough , the method comprising: providing a ceramic sheet having an upper surface and a lower surface; forming at least one via hole in said ceramic sheet extending from said upper surface to said lower surface; inserting a conductive thick film paste into said via hole , the thick film paste comprising a metal selected from the group consisting of: platinum, titanium, gold, palladium, tantalum and niobium; laminating the ceramic sheet with paste filled via hole between an upper ceramic sheet and a lower ceramic sheet to form a laminated ceramic substrate ; firing the laminated ceramic substrate to a temperature to sinter the laminated ceramic substrate and cause the paste filled via hole to form a metalized via and cause the laminated ceramic substrate to form a hermetic seal around said metalized via ; and characterized in that : the method further includes the step of removing the upper ceramic sheet and the lower ceramic sheet material from the fired laminated ceramic substrate to expose an upper and a lower surface of the metalized via . providing a ceramic sheet having an upper surface and a lower surface; forming at least one via hole in said ceramic sheet extending from said upper surface to said lower surface; inserting a conductive thick film paste into said via hole , the thick film paste comprising a metal selected from the group consisting of: platinum, titanium, gold, palladium, tantalum and niobium; laminating the ceramic sheet with paste filled via hole between an upper ceramic sheet and a lower ceramic sheet to form a laminated ceramic substrate ; firing the laminated ceramic substrate to a temperature to sinter the laminated ceramic substrate and cause the paste filled via hole to form a metalized via and cause the laminated ceramic substrate to form a hermetic seal around said metalized via ; and characterized in that : the method further includes the step of removing the upper ceramic sheet and the lower ceramic sheet material from the fired laminated ceramic substrate to expose an upper and a lower surface of the metalized via .
Proximity sensor for inductive detection of objects , comprising - a housing having a front cap which forms the detection side of the proximity sensor , - a processing and receiving unit which comprises a printed circuit board and which can be connected to an external control and/or evaluation unit , - wherein a single-part or multi-part coil carrier is provided, on which at least one primary coil and at least one first secondary coil are arranged circumferentially wound or pressed and spaced apart in the direction of the axis (A), wherein an end surface (6.1) of the coil carrier of the inner surface (3.1) of the front cap is directly opposite and/or abuts against it, and the first secondary coil in the axial direction is closer to the end surface (6.1) than the primary coil , wherein a second secondary coil is provided on the coil carrier , which is wound in the opposite direction to the first secondary coil , wherein the primary coil is arranged between the two secondary coils (8a, b), wherein a metallic shielding element is arranged in such a way that it encloses the second secondary coil , and wherein the shielding element does not extend into the axial area of the first secondary coil in order not to restrict its detection radius. - a housing having a front cap which forms the detection side of the proximity sensor , - a processing and receiving unit which comprises a printed circuit board and which can be connected to an external control and/or evaluation unit , - wherein a single-part or multi-part coil carrier is provided, on which at least one primary coil and at least one first secondary coil are arranged circumferentially wound or pressed and spaced apart in the direction of the axis (A), wherein an end surface (6.1) of the coil carrier of the inner surface (3.1) of the front cap is directly opposite and/or abuts against it, and the first secondary coil in the axial direction is closer to the end surface (6.1) than the primary coil , wherein a second secondary coil is provided on the coil carrier , which is wound in the opposite direction to the first secondary coil , wherein the primary coil is arranged between the two secondary coils (8a, b), wherein a metallic shielding element is arranged in such a way that it encloses the second secondary coil , and wherein the shielding element does not extend into the axial area of the first secondary coil in order not to restrict its detection radius.
A method of producing a variant phytase, wherein: a) the variant phytase has at least 80% identity to amino acids 1-413 of the parent phytase of SEQ ID NO:2, amino acids 1-413 of the parent phytase of SEQ ID NO:4, and/or amino acids 1-413 of the parent phytase of SEQ ID NO:6 when aligned to the respective amino acid sequence using the Needle program with the BLOSUM62 substitution matrix, a gap opening penalty of 10.0, and a gap extension penalty of 0.5; and b) the method comprises the establishment of at least one disulfide bridges as compared to SEQ ID NO:2, wherein the number of established disulfide bridges is 1, 2 or 3, wherein said disulfide bridge is not among the four naturally occurring ones in positions 79/110, 135/410, 180/189, and 384/393, wherein the one disulfide bridge is established at position F) 61C/102C; wherein the two established disulfide bridges uses the following combinations of position pairs: A+F, B+F, C+F, D+F, E+F, and F+G, wherein A means 143C/201C, B means 33C/179C, C means 54C/101C, D means 93C/48C, E means 33C/178C, F means 61C/102C, and G means 164C/251C; wherein the three established disulfide bridges uses the following combinations of position pairs: A+B+F, A+C+F, A+D+F, A+E+F, A+F+G, B+C+F, B+D+F, B+E+F, B+F+G, C+D+F, C+E+F, C+F+G, D+E+F, D+F+G, and E+F+G, wherein A means 143C/201C, B means 33C/179C, C means 54C/101C, D means 93C/48C, E means 33C/178C, F means 61C/102C, and G means 164C/251C, and wherein the variant has an improved thermostability and/or an improved temperature profile as compared to the parent phytase. a) the variant phytase has at least 80% identity to amino acids 1-413 of the parent phytase of SEQ ID NO:2, amino acids 1-413 of the parent phytase of SEQ ID NO:4, and/or amino acids 1-413 of the parent phytase of SEQ ID NO:6 when aligned to the respective amino acid sequence using the Needle program with the BLOSUM62 substitution matrix, a gap opening penalty of 10.0, and a gap extension penalty of 0.5; and b) the method comprises the establishment of at least one disulfide bridges as compared to SEQ ID NO:2,
Timepiece transmission mechanism , arranged to be integrated in a timepiece movement and including at least one differential mechanism including at least one planet wheel set mounted for free rotation and at least three main wheel sets forming the inputs or outputs of said differential mechanism , which three main wheel sets are formed by a frame , a first wheel set arranged to cooperate with a first train, and a second wheel set arranged to cooperate with a second train, only one of said three main wheel sets carrying at least one said planet wheel set permanently meshing with the other two main wheel sets, either directly or through at least one intermediate wheel set which permanently meshes with one of said other two main wheel sets or which is integral in rotation with one of said other two main wheel sets, said differential mechanism being able to kinematically connect said first wheel set and said second wheel set in a coupling position, and to separate them kinematically in an uncoupling position, said transmission mechanism further comprising control means arranged to lock only one of said three main wheel sets in order to couple said differential mechanism , or to completely release said frame and said first wheel set and said second wheel set in order to uncouple said differential mechanism , depending on the position given to said control means by a selector comprised in said transmission mechanism and which is arranged to cooperate with an actuator comprised in a said timepiece movement , and/or to be operated by a user, and wherein said control means are returned to a locking wheel set which is whichever of said three main wheel sets on which said differential mechanism is locked in the coupling position, by elastic return means , arranged to exert on said locking wheel set an engaging or friction torque, which is calibrated to allow a safety uncoupling function when the torque transmitted from one to the other of the other main wheel sets distinct from said locking wheel set is higher than said engaging or friction torque, characterized in that said locking wheel set includes an external toothing with wolf teeth, to allow a safety uncoupling function in one direction of rotation.
A process for preparing a rubber composition comprising at least the following steps: (A) polymerizing glycerol mono-methacrylate in the presence of a Co(II) complex as catalytic chain transfer agent, to obtain a poly(glycerol mono-methacrylate) being an oligomer or polymer of glycerol mono-methacrylate and having a number average molecular weight (M n ) in the range of from 160 to 3200 g/mol and preferably a dispersity Ð of equal to or less than 4; (B) crosslinking the poly(glycerol mono-methacrylate) with borax to obtain a poly(glycerol mono-methacrylate) dynamic boronic ester complex; and (C) blending the poly(glycerol mono-methacrylate) dynamic boronic ester complex with a vulcanization activator system, a dienic rubber, sulfur, and a vulcanization accelerator, to prepare the rubber composition. (A) polymerizing glycerol mono-methacrylate in the presence of a Co(II) complex as catalytic chain transfer agent, to obtain a poly(glycerol mono-methacrylate) being an oligomer or polymer of glycerol mono-methacrylate and having a number average molecular weight (M n ) in the range of from 160 to 3200 g/mol and preferably a dispersity Ð of equal to or less than 4; (B) crosslinking the poly(glycerol mono-methacrylate) with borax to obtain a poly(glycerol mono-methacrylate) dynamic boronic ester complex; and (C) blending the poly(glycerol mono-methacrylate) dynamic boronic ester complex with a vulcanization activator system, a dienic rubber, sulfur, and a vulcanization accelerator, to prepare the rubber composition.
A liquid washing or cleaning agent, comprising a) 5 to 85 wt.%, based on the total washing or cleaning agent, of surfactant selected from the group consisting of non-ionic surfactants, anionic surfactants, cationic surfactants, zwitterionic surfactants and mixtures thereof, b) 0.1 to 10 wt.%, based on the total washing or cleaning agent, of particles, c) 0.1 to 10 wt.%, based on the total washing or cleaning agent, of pyrogenic, hydrophobically surface-modified silicon dioxide, and d) up to 15 wt.%, based on the total washing or cleaning agent, of water, with the proviso that mixtures of anionic and non-ionic surfactants are contained and the total amount of anionic surfactant and non-ionic surfactant is 40 to 75 wt.%, based on the total washing and cleaning agent. a) 5 to 85 wt.%, based on the total washing or cleaning agent, of surfactant selected from the group consisting of non-ionic surfactants, anionic surfactants, cationic surfactants, zwitterionic surfactants and mixtures thereof, b) 0.1 to 10 wt.%, based on the total washing or cleaning agent, of particles, c) 0.1 to 10 wt.%, based on the total washing or cleaning agent, of pyrogenic, hydrophobically surface-modified silicon dioxide, and d) up to 15 wt.%, based on the total washing or cleaning agent, of water, with the proviso that mixtures of anionic and non-ionic surfactants are contained and the total amount of anionic surfactant and non-ionic surfactant is 40 to 75 wt.%, based on the total washing and cleaning agent.
Tamping machine comprising at least one first tamping unit comprising first tamping tools and a first hydraulic motor that is provided with a first drive shaft driving the first tamping tools so as to generate tamping movements, and a second tamping unit adjacent to the first tamping unit and comprising second tamping tools and a second hydraulic motor that is provided with a second drive shaft driving the second tamping tools so as to generate tamping movements, wherein the first tamping unit and the second tamping unit are positioned with respect to one another such that, in a synchronized working position, the first tamping unit serves to tamp a first track crosstie and the second tamping unit serves to tamp a second track crosstie that is directly adjacent to the first track crosstie , given a standard spacing between the first track crosstie and the second track crosstie characterized in that the tamping machine comprises means for the synchronized supply of the first hydraulic motor and of the second hydraulic motor .
An apparatus , comprising: a first counter configured to: receive a plurality of pulse width signals (c1, c2, c3, c4) in the time domain, and generate a first increment signal (INCR1) in the time domain from the plurality of pulse width signals based on a first row of a Discrete Transform matrix; a synchronizer configured to: receive the first increment signal, and generate a first synchronized increment signal in the time domain from the first increment signal; and a first accumulator configured to: receive the first synchronized increment signal, and accumulate the first synchronized increment signal over a period of time to generate a first frequency domain signal (h1); wherein the Discrete Transform matrix is one of a Walsh matrix, or a Haar matrix. a first counter configured to: receive a plurality of pulse width signals (c1, c2, c3, c4) in the time domain, and generate a first increment signal (INCR1) in the time domain from the plurality of pulse width signals based on a first row of a Discrete Transform matrix; receive a plurality of pulse width signals (c1, c2, c3, c4) in the time domain, and generate a first increment signal (INCR1) in the time domain from the plurality of pulse width signals based on a first row of a Discrete Transform matrix; a synchronizer configured to: receive the first increment signal, and generate a first synchronized increment signal in the time domain from the first increment signal; and receive the first increment signal, and generate a first synchronized increment signal in the time domain from the first increment signal; and a first accumulator configured to: receive the first synchronized increment signal, and accumulate the first synchronized increment signal over a period of time to generate a first frequency domain signal (h1); receive the first synchronized increment signal, and accumulate the first synchronized increment signal over a period of time to generate a first frequency domain signal (h1);