mhurhangee/ep-ind-claims huggingface dataset:
A system for heating an object, comprising: a heating apparatus operable to heat an object; a temperature sensor designed for placement in thermal contact with said object and operable for sensing the temperature of said object, wherein said sensor comprises a plurality of magnetically susceptible sensor elements, each of said sensor elements having a different composition and operable to generate a respective response different from the response(s) of the other sensor element(s), said responses being correlated with the temperature of said object and being different below and above corresponding different set point temperatures; a detector including a device operable to detect said temperature-sensitive responses generated by said plurality of temperature sensors and to generate an output signal correlated with said detected responses; characterized in that said respective temperature-sensitive responses generated by said plurality of sensor elements are re-magnetization responses generated under the influence of an applied alternating magnetic field; said detector further includes a device operable to generate said alternating magnetic field; and a controller is coupled with said detector and said heating apparatus and is operable to receive said output signal and to control the operation of said heating apparatus in response to the output signal. a heating apparatus operable to heat an object; a temperature sensor designed for placement in thermal contact with said object and operable for sensing the temperature of said object, wherein said sensor comprises a plurality of magnetically susceptible sensor elements, each of said sensor elements having a different composition and operable to generate a respective response different from the response(s) of the other sensor element(s), said responses being correlated with the temperature of said object and being different below and above corresponding different set point temperatures; a detector including a device operable to detect said temperature-sensitive responses generated by said plurality of temperature sensors and to generate an output signal correlated with said detected responses; characterized in that said respective temperature-sensitive responses generated by said plurality of sensor elements are re-magnetization responses generated under the influence of an applied alternating magnetic field; said detector further includes a device operable to generate said alternating magnetic field; and a controller is coupled with said detector and said heating apparatus and is operable to receive said output signal and to control the operation of said heating apparatus in response to the output signal.
Monoclonal or polyclonal antibody directed against the BDCA-2 protein for its use in the prevention or treatment of pathologies involving activation of the plasmacytoid dendritic cells, where said pathologies are haematopoietic tumours of phenotype CD4+, CD56+.
An analysis function imparting device comprising: an acquisition unit configured to execute a script engine while monitoring the script engine to acquire an execution trace including an application programming interface trace and a branch trace; characterized by a first detection unit configured to analyze the execution trace, and detect a hook point that is a location to which a hook is applied and a code for analysis is inserted, wherein the first detection unit includes a first analysis unit configured to detect a hook point candidate based on a difference between execution traces with different conditions and by detecting that sequences having high homology appear a particular number of times; a second detection unit configured to detect, based on monitoring at the hook point candidate, a tap point that is a memory monitoring location at which the code for analysis outputs a log and to designate the hook point candidate with the tap point as a final hook point; and an imparting unit configured to apply a hook to the script engine to impart an analysis function to the script engine based on the final hook point and the tap point. an acquisition unit configured to execute a script engine while monitoring the script engine to acquire an execution trace including an application programming interface trace and a branch trace; characterized by a first detection unit configured to analyze the execution trace, and detect a hook point that is a location to which a hook is applied and a code for analysis is inserted, wherein the first detection unit includes a first analysis unit configured to detect a hook point candidate based on a difference between execution traces with different conditions and by detecting that sequences having high homology appear a particular number of times; a second detection unit configured to detect, based on monitoring at the hook point candidate, a tap point that is a memory monitoring location at which the code for analysis outputs a log and to designate the hook point candidate with the tap point as a final hook point; and an imparting unit configured to apply a hook to the script engine to impart an analysis function to the script engine based on the final hook point and the tap point.
An actuator, comprising: a threaded screw; and a piezo amplifier; wherein the piezo amplifier comprises: a top wall, a bottom wall, a first and second side walls, the walls being joined by flex hinges; a first and second piezo stacks; and an intermediate coupling component; wherein one end of the first piezo stack is coupled to the first side wall, one end of the second piezo stack is coupled to the second side wall, and the other ends of the first and second piezo stacks couple to each other via the intermediate coupling component; wherein the top wall comprises a threaded hole (121, 114), the bottom wall comprises a first through hole, and the intermediate coupling component comprises a second through hole; wherein the threaded screw passes through the first and second through holes (115, 112) and engages with the threaded hole (121, 114); wherein when a voltage is applied to the piezo stacks, the piezo stacks cause a horizontal movement of the side walls by expansion or contraction of the piezo stacks, the horizontal movement causes a perpendicular movement of the top wall via the flex hinges, and the perpendicular movement causes a first translation movement of the threaded screw by the threaded hole (121, 114) of the top wall pulling or pushing the threaded screw; and wherein a rotation of the threaded screw relative to the threaded hole (121, 114) causes a second translation movement of the threaded screw. a threaded screw; and a piezo amplifier; a top wall, a bottom wall, a first and second side walls, the walls being joined by flex hinges; a first and second piezo stacks; and an intermediate coupling component;
A preform (1 p) in a thermoplastic polymer, preferably PolyEthyleneTerephtalate, comprising a neck finish (2 1p), a neck (2 2p), a body (3 p) and a bottom (4 p), wherein: the body (3 p) has a circular cross-section, and the preform being characterized in that • the neck finish (2 1p) and the neck (2 2p) have an oval, preferably elliptic, cross-section; • at least the largest dimension of the cross section of the neck (2 2p) decreases from the top to the base of the neck (2 2p). the body (3 p) has a circular cross-section, and the preform being characterized in that • the neck finish (2 1p) and the neck (2 2p) have an oval, preferably elliptic, cross-section; • at least the largest dimension of the cross section of the neck (2 2p) decreases from the top to the base of the neck (2 2p). • the neck finish (2 1p) and the neck (2 2p) have an oval, preferably elliptic, cross-section; • at least the largest dimension of the cross section of the neck (2 2p) decreases from the top to the base of the neck (2 2p).
A method of forming a heat exchanger, the method comprising: forming a monolithic core having a first set of flow passages; the method comprising additively manufacturing onto the monolithic core a first manifold, where the first manifold defines a first fluid inlet that is in fluid communication with the first set of flow passages wherein the monolithic core and the first manifold are formed as a unitary body, the method being characterized in that at least a portion of the first manifold has a coefficient of thermal expansion less than a coefficient of thermal expansion of the monolithic core. forming a monolithic core having a first set of flow passages; the method comprising additively manufacturing onto the monolithic core a first manifold, where the first manifold defines a first fluid inlet that is in fluid communication with the first set of flow passages wherein the monolithic core and the first manifold are formed as a unitary body, the method being characterized in that at least a portion of the first manifold has a coefficient of thermal expansion less than a coefficient of thermal expansion of the monolithic core.
A histological specimen cassette printer comprising: a printing section comprising a printhead and a cassette holder; a cassette supply assembly having a supply top and a supply bottom, wherein the cassette supply assembly is positioned proximate the printing section; and a cassette picker assembly comprising: a picker head comprising a cassette grasping mechanism at a bottom of the picker head; and a picker actuator operably connected to the picker head to move the picker head from the supply top of the cassette supply assembly to a position proximate the cassette holder and back to the supply top of the cassette supply assembly, characterised in that the cassette grasping mechanism comprises: a first finger; and a second finger positioned opposite the first finger, wherein the first and second fingers are actuable such that lower ends of the first and second fingers (86, 88) move inward to grasp opposite sides of a histological specimen cassette. a printing section comprising a printhead and a cassette holder; a cassette supply assembly having a supply top and a supply bottom, wherein the cassette supply assembly is positioned proximate the printing section; and a cassette picker assembly comprising: a picker head comprising a cassette grasping mechanism at a bottom of the picker head; and a picker actuator operably connected to the picker head to move the picker head from the supply top of the cassette supply assembly to a position proximate the cassette holder and back to the supply top of the cassette supply assembly, characterised in that the cassette grasping mechanism comprises: a first finger; and a second finger positioned opposite the first finger, wherein the first and second fingers are actuable such that lower ends of the first and second fingers (86, 88) move inward to grasp opposite sides of a histological specimen cassette. a picker head comprising a cassette grasping mechanism at a bottom of the picker head; and a picker actuator operably connected to the picker head to move the picker head from the supply top of the cassette supply assembly to a position proximate the cassette holder and back to the supply top of the cassette supply assembly, characterised in that the cassette grasping mechanism comprises: a first finger; and a second finger positioned opposite the first finger, wherein the first and second fingers are actuable such that lower ends of the first and second fingers (86, 88) move inward to grasp opposite sides of a histological specimen cassette. a first finger; and a second finger positioned opposite the first finger, wherein the first and second fingers are actuable such that lower ends of the first and second fingers (86, 88) move inward to grasp opposite sides of a histological specimen cassette.
Hot melt adhesive composition characterized in that it comprises: - from 30 % to 55 % of a composition consisting of 2 thermoplastic unimodal copolymers of propylene and ethylene and, having each a weight average molecular weight (Mw) of less than 100,000 g/mol (100,000 Da), wherein: - is an essentially amorphous copolymer, with a DSC melt enthalpy of less than 30 J/g; - is a semicrystalline copolymer with a DSC melt enthalpy of more than 30 J/g; and - the ratio: weight of / weight of is from 0.2 to 1.5; - from 20 % to 50 % of a tackifying resin; and - from 2 % to 25 % of a plasticizer consisting of a liquid polybutene oligomer. - from 30 % to 55 % of a composition consisting of 2 thermoplastic unimodal copolymers of propylene and ethylene and, having each a weight average molecular weight (Mw) of less than 100,000 g/mol (100,000 Da), wherein: - is an essentially amorphous copolymer, with a DSC melt enthalpy of less than 30 J/g; - is a semicrystalline copolymer with a DSC melt enthalpy of more than 30 J/g; and - the ratio: weight of / weight of is from 0.2 to 1.5; - is an essentially amorphous copolymer, with a DSC melt enthalpy of less than 30 J/g; - is a semicrystalline copolymer with a DSC melt enthalpy of more than 30 J/g; and - the ratio: weight of / weight of is from 0.2 to 1.5; - from 20 % to 50 % of a tackifying resin; and - from 2 % to 25 % of a plasticizer consisting of a liquid polybutene oligomer.
Method performed by a data processing device, the method comprising: - obtaining and/or determining graph data, wherein the graph data represent a graph associated with a packaging plant, wherein the graph comprises a plurality of nodes and a plurality of edges, wherein each edge from the plurality of edges connects two nodes from the plurality of nodes with one another, wherein each node from the plurality of nodes represents a component of the packaging plant, and wherein each edge from the plurality of edges represents a possible packaging process connection between two components of the packaging plant; - storing of the graph data in a memory (302, 303) of the data processing device; - receiving of packaging plant status data, wherein the packaging plant status data are indicative of a packaging process that is feasible by the packaging plant; and wherein the packaging plant status data is communicated to the data processing device by one or more components of the packaging plant via a communication connection; and - determining of a representation of the packaging process that is feasible by the packaging plant at least partially based on the packaging plant status data and the graph represented by the graph data, so that only graph data need to be stored in a memory of the data processing device for the determining, wherein the representation of the feasible packaging process of the packaging plant comprises a subset of the plurality of nodes and/or a subset of the plurality of edges. - obtaining and/or determining graph data, wherein the graph data represent a graph associated with a packaging plant, wherein the graph comprises a plurality of nodes and a plurality of edges, wherein each edge from the plurality of edges connects two nodes from the plurality of nodes with one another, wherein each node from the plurality of nodes represents a component of the packaging plant, and wherein each edge from the plurality of edges represents a possible packaging process connection between two components of the packaging plant; - storing of the graph data in a memory (302, 303) of the data processing device; - receiving of packaging plant status data, wherein the packaging plant status data are indicative of a packaging process that is feasible by the packaging plant; and wherein the packaging plant status data is communicated to the data processing device by one or more components of the packaging plant via a communication connection; and - determining of a representation of the packaging process that is feasible by the packaging plant at least partially based on the packaging plant status data and the graph represented by the graph data, so that only graph data need to be stored in a memory of the data processing device for the determining, wherein the representation of the feasible packaging process of the packaging plant comprises a subset of the plurality of nodes and/or a subset of the plurality of edges.
A computer-implemented method for navigating a virtual camera within a virtual three-dimensional environment using a mobile device (104,302), the mobile device (104,302) displaying an image plane of the virtual three-dimensional environment from the perspective of the virtual camera, the method comprising: receiving, from at least one sensor on the mobile device (104,302), an indication that the mobile device (104,302) has pivoted about a first rotation axis (106,206), wherein the first rotation axis (106,206) is parallel to a plane encompassing a display screen of the mobile device (104,302); capturing a plurality of images of a user while the user faces the display screen of the mobile device (104,302); tracking a change in a user's position in relation to the mobile device (104,302) as the mobile device (104,302) is pivoted about the first rotation axis (106,206), wherein the change in the user's position is determined from the plurality of images of the user; determining a location of the first rotation axis (106,206) based on the change in the user's position in relation to the mobile device (104,302); determining whether the first rotation axis (106,206) is closer to the user than the mobile device (104,302); and executing (440,450) one of a plurality of different actions to navigate within the three-dimensional environment, a first action executed if the first rotation axis is determined to be closer to the mobile device (104,302) and a second action executed if the first rotation axis is determined to be closer to the user.
An electrically driven axle of a two-track vehicle with drive shafts (23, 24) associated with the wheels (21, 22) and an axle support having a plurality of wheel-guiding control arms (3 to 7) fastened thereto, wherein at least one electric motor or an axle drive is fastened to the axle support and a housing containing elements for providing electric energy for the electric motor or for an electric drive motor connected by the axle drive to the drive shafts is furthermore fastened to the axle support or forms a component of the axle support in the form of a base body, characterised in that the housing is step-shaped in a side view and comprises an upper shell and a lower shell (11 a), the joint of which runs upwardly toward the vehicle rear.
An immunogenic composition comprising a recombinant protein, wherein the recombinant protein comprises: (a) a Bordetella CyaA or a fragment thereof, and (b) a peptide comprising a HLA-A*0201 epitope from a human melanoma antigen which is tyrosinase, said epitope having sequence YMDGTMSQV or comprising a HLA-A*0201 epitope from N-acetylglucosaminyltransferase V (GnT-V), said epitope having sequence VLPDVFIRC, which peptide is efficiently processed and presented by human dendritic cells to human CTL clones, when said recombinant protein interacts with said human dendritic cells. (a) a Bordetella CyaA or a fragment thereof, and (b) a peptide comprising a HLA-A*0201 epitope from a human melanoma antigen which is tyrosinase, said epitope having sequence YMDGTMSQV or comprising a HLA-A*0201 epitope from N-acetylglucosaminyltransferase V (GnT-V), said epitope having sequence VLPDVFIRC, which peptide is efficiently processed and presented by human dendritic cells to human CTL clones, when said recombinant protein interacts with said human dendritic cells.
A storm brake actuator characterized by an electro-mechanical release system and a permanent magnet eddy current brake system with adjustable air gap for varying brake setting time, and for spring or weight energy dissipation.
Lock and key system, comprising a lock cylinder having a cylinder housing and a cylinder core rotatably mounted therein, which core has a key channel for inserting a key which has a coding on the key front side that is achieved by notches which can be sensed by cylinder pins which interact with cylinder housing pins, and wherein a radially movable locking bar is provided in the cylinder core, which locking bar partially projects beyond the separating plane between the cylinder core and the cylinder housing and is supported in a recess in the inner wall of the cylinder housing, wherein the key has at least one further coding (2, 3, 4) on the spine of the key, wherein the further coding can be sensed by a segment disc which is mounted in a radial groove in the cylinder core, is divided radially into two segment halves (7, 8), surrounds the key channel in a ring shape and is movable in the groove, characterised in that the segment disc halves are continuously pressed radially outwards by springs, wherein in this position the ends of the segment halves (7, 8) opposite one another at the one division in the region of the key spine release the key channel on both sides while they can be rotated by the inserted key against the spring pressure in the circumferential direction by a predetermined angle of rotation, so that a ball provided in a gap between the other division of the segment halves, which ball partially projects beyond the separating plane between the cylinder core and the cylinder housing and is supported in a recess in the inner wall of the cylinder housing, can emerge from the recess and can move radially in the direction of the cylinder core axis, whereby the segment halves are spread and pressed against the coding on the spine of the key and the locking bar can dip into a recess in the segment disc.
A method for forming an electrode on an implantable medical device, IMD, wherein the IMD comprises a housing enclosing a power supply, a control circuitry, and memory, the method comprising: forming a nonconductive body comprising a well having a bottom surface and at least one side surface extending from the bottom surface; forming a conduit through the bottom surface; inserting the nonconductive body into an opening in an external surface of the IMD; depositing conductive material into the well; and coupling the conductive material to the control circuitry of the IMD via the conduit through the bottom surface of the well. forming a nonconductive body comprising a well having a bottom surface and at least one side surface extending from the bottom surface; forming a conduit through the bottom surface; inserting the nonconductive body into an opening in an external surface of the IMD; depositing conductive material into the well; and coupling the conductive material to the control circuitry of the IMD via the conduit through the bottom surface of the well.
A bonded non-woven mat comprising: a nonwoven fiber web; and a binder formulation comprising a precursor binder composition comprising a thermoset material and a coating binder composition comprising a thermoplastic material, wherein the precursor binder composition is applied to the nonwoven fiber web to form a precursor web, and the coating binder composition is applied to the precursor web, the nonwoven mat being cured to form a bonded non-woven mat, wherein the thermoset material is present in an amount of 5% to 49% by weight of the total binder formulation and the thermoplastic material is present in an amount of 51% to 95% by weight of the total binder formulation, and wherein the bonded non-woven mat has a Gurley stiffness of 500 mg to 2000 mg. a nonwoven fiber web; and a binder formulation comprising a precursor binder composition comprising a thermoset material and a coating binder composition comprising a thermoplastic material, wherein the precursor binder composition is applied to the nonwoven fiber web to form a precursor web, and the coating binder composition is applied to the precursor web, the nonwoven mat being cured to form a bonded non-woven mat, wherein the thermoset material is present in an amount of 5% to 49% by weight of the total binder formulation and the thermoplastic material is present in an amount of 51% to 95% by weight of the total binder formulation, and wherein the bonded non-woven mat has a Gurley stiffness of 500 mg to 2000 mg.