mhurhangee/ep-ind-claims huggingface dataset:
An electromagnetic actuator assembly comprising: a coil assembly including a core and a coil; a plunger having an annular intermediate wall; an armature that abuts the plunger; a sensor target; and a sensor, the sensor being configured to sense a position of the sensor target and to produce a first sensor signal when the sensor target is moved in a first direction past a first position and the sensor is in a first state; the electromagnetic actuator assembly characterized by: a frame member having an outer sidewall, an inner sidewall and a first end wall that is coupled to the inner and outer sidewalls, the frame member defining an interior annular cavity; the coil assembly being mounted in the annular cavity; the plunger having a second end wall that extends radially inwardly from the intermediate wall, the intermediate wall being disposed radially between the coil assembly and the outer sidewall; the sensor target being coupled to one of the armature and the plunger; and the sensor being mounted to the frame member. a coil assembly including a core and a coil; a plunger having an annular intermediate wall; an armature that abuts the plunger; a sensor target; and a sensor, the sensor being configured to sense a position of the sensor target and to produce a first sensor signal when the sensor target is moved in a first direction past a first position and the sensor is in a first state; the electromagnetic actuator assembly characterized by: a frame member having an outer sidewall, an inner sidewall and a first end wall that is coupled to the inner and outer sidewalls, the frame member defining an interior annular cavity; the coil assembly being mounted in the annular cavity; the plunger having a second end wall that extends radially inwardly from the intermediate wall, the intermediate wall being disposed radially between the coil assembly and the outer sidewall; the sensor target being coupled to one of the armature and the plunger; and the sensor being mounted to the frame member. a frame member having an outer sidewall, an inner sidewall and a first end wall that is coupled to the inner and outer sidewalls, the frame member defining an interior annular cavity; the coil assembly being mounted in the annular cavity; the plunger having a second end wall that extends radially inwardly from the intermediate wall, the intermediate wall being disposed radially between the coil assembly and the outer sidewall; the sensor target being coupled to one of the armature and the plunger; and the sensor being mounted to the frame member.
Vaccine adjuvant comprising, for 100 % by weight: - from 10 % to 95 % of a mineral oil comprising: - from 0.05 wt.% to 10 wt.% of hydrocarbon chains having less than 16 carbon atoms; - from 0.05 wt.% to 5 wt.% of hydrocarbon chains having more than 28 carbon atoms; and having a P:N ratio, corresponding to the ratio of the amount by weight of paraffin-type hydrocarbon chains to the amount by weight of naphthene-type hydrocarbon chains, of between 2.8 and 2.9, preferably equal to 2.85. - from 10 % to 95 % of a mineral oil comprising: - from 0.05 wt.% to 10 wt.% of hydrocarbon chains having less than 16 carbon atoms; - from 0.05 wt.% to 5 wt.% of hydrocarbon chains having more than 28 carbon atoms; - from 0.05 wt.% to 10 wt.% of hydrocarbon chains having less than 16 carbon atoms; - from 0.05 wt.% to 5 wt.% of hydrocarbon chains having more than 28 carbon atoms;
A service instance mapping method for Transparent Interconnection of Lots of Links, TRILL, protocol, comprising: Correlating a layer-2 service instance with a service access port of the service instance, and determining correspondence between the service access port and a service instance identifier; and, mapping the service instance identifier to a service label of a dual-layer virtual local area network, VLAN, stacking packet, wherein a layer-2 packet of a user that is received by the service access port is encapsulated into the dual-layer VLAN stacking packet by using a TRILL header; and forwarding the dual-layer VLAN stacking packet; characterized in that the service label is 24 bits, the service label is formed of a virtual local area network field of a first outer tag and a virtual local area network field of a inner tag in the dual-layer VLAN stacking packet, 12 bits in the VLAN field of the outer tag stores higher 12 bits of the service label, and 12 bits in the VLAN field of the inner tag stores lower 12 bits of the service label. Correlating a layer-2 service instance with a service access port of the service instance, and determining correspondence between the service access port and a service instance identifier; and, mapping the service instance identifier to a service label of a dual-layer virtual local area network, VLAN, stacking packet, wherein a layer-2 packet of a user that is received by the service access port is encapsulated into the dual-layer VLAN stacking packet by using a TRILL header; and forwarding the dual-layer VLAN stacking packet; characterized in that the service label is 24 bits, the service label is formed of a virtual local area network field of a first outer tag and a virtual local area network field of a inner tag in the dual-layer VLAN stacking packet, 12 bits in the VLAN field of the outer tag stores higher 12 bits of the service label, and 12 bits in the VLAN field of the inner tag stores lower 12 bits of the service label.
Use of a silver particle coating composition for screen printing, said silver particle coating composition comprising: silver nano-particles whose surfaces are coated with a protective agent comprising an aliphatic hydrocarbon amine; and a dispersion solvent, wherein the dispersion solvent comprises a solvent selected from the group consisting of a glycol ether-based solvent and a glycol ester-based solvent, wherein the aliphatic hydrocarbon amine in the silver nano-particle comprises an aliphatic hydrocarbon monoamine comprising an aliphatic hydrocarbon group and one amino group, said aliphatic hydrocarbon group having 6 or more carbon atoms in total, and further comprises at least one of: an aliphatic hydrocarbon monoamine comprising an aliphatic hydrocarbon group and one amino group, said aliphatic hydrocarbon group having 5 or less carbon atoms in total; and an aliphatic hydrocarbon diamine comprising an aliphatic hydrocarbon group and two amino groups, said aliphatic hydrocarbon group having 8 or less carbon atoms in total. silver nano-particles whose surfaces are coated with a protective agent comprising an aliphatic hydrocarbon amine; and a dispersion solvent, wherein the dispersion solvent comprises a solvent selected from the group consisting of a glycol ether-based solvent and a glycol ester-based solvent, wherein the aliphatic hydrocarbon amine in the silver nano-particle comprises an aliphatic hydrocarbon monoamine comprising an aliphatic hydrocarbon group and one amino group, said aliphatic hydrocarbon group having 6 or more carbon atoms in total, and further comprises at least one of: an aliphatic hydrocarbon monoamine comprising an aliphatic hydrocarbon group and one amino group, said aliphatic hydrocarbon group having 5 or less carbon atoms in total; and an aliphatic hydrocarbon diamine comprising an aliphatic hydrocarbon group and two amino groups, said aliphatic hydrocarbon group having 8 or less carbon atoms in total.
Weighing machine designed for pipette calibration, with a weighing chamber, a draught protector enclosing the weighing chamber, a climate module which includes an air pressure sensor, a humidity sensor and an air temperature sensor and which is removably arranged in the weighing chamber, a processor arranged in the precision weighing machine and configured to provide an evaporation rate correction value, a data input unit arranged in the weighing machine and a data transmission path configured to exchange data between the climate module and the processor.
A metal particle composition comprising, with respect to 100 parts by mass of metal particles, 0.1 to 5 parts by mass of a compound having a structure represented by the following general formula: wherein R 1 and R 2 each independently represent a hydrogen atom, an alkyl group having 1 to 6 carbon atoms, an alkoxy group having 1 to 6 carbon atoms, an alkenyl group having 2 to 6 carbon atoms, an aryl group, or an aralkyl group, R 3 and R 4 each independently represent a hydrogen atom, an alkyl group having 1 to 6 carbon atoms, an alkoxy group having 1 to 6 carbon atoms, an alkenyl group having 2 to 6 carbon atoms, an alkenyloxy group having 2 to 6 carbon atoms, an aryl group, or an aralkyl group.
An apparatus configured for renal neuromodulation, e.g. renal denervation, wherein the apparatus comprises an intravascular catheter adapted to deliver an electric field and to be inserted into a renal artery, wherein the catheter has an inflatable balloon and a common but segmented electrode attached to the balloon such that the electrode is adapted to contact the wall of the renal artery, wherein the electrode is affixed to the inside surface, outside surface or embedded within the wall of the balloon, wherein the ballon serves as an electrical insulator for directing the electric field.
A surgical device, comprising: a jaw assembly including a first jaw and a second jaw moveable relative to the first jaw; an articulating assembly removably coupled to the proximal end of the jaw assembly, the articulating assembly comprising a distal joint member, a proximal joint member, and a pivot pin fixedly coupled to the distal joint member and rotatably coupled to the proximal joint member, wherein the jaw assembly and the distal joint member define a first longitudinal axis ("A-A") extending between a proximal end of the jaw assembly and a distal end of the distal joint member, and the proximal joint member defines a second longitudinal axis ("C-C"); and a first rotatable drive shaft comprising a first gear element; wherein the articulating assembly further comprises a pivoting gear element meshingly engaged with the first gear element, the pivoting gear element being fixedly coupled to the pivot pin, wherein simultaneous rotational and longitudinal movement of the first rotatable drive shaft pivots the jaw assembly relative to the proximal joint member about a pivot axis ("B-B") defined by the pivot pin that is perpendicular to the first and second longitudinal axes thereby pivoting the jaw assembly by the pivoting of the pivoting gear element relative to the proximal joint member; the articulating assembly further comprising a socket rotatably disposed within the distal joint member, the socket configured to secure the jaw assembly therein. a jaw assembly including a first jaw and a second jaw moveable relative to the first jaw; an articulating assembly removably coupled to the proximal end of the jaw assembly, the articulating assembly comprising a distal joint member, a proximal joint member, and a pivot pin fixedly coupled to the distal joint member and rotatably coupled to the proximal joint member, wherein the jaw assembly and the distal joint member define a first longitudinal axis ("A-A") extending between a proximal end of the jaw assembly and a distal end of the distal joint member, and the proximal joint member defines a second longitudinal axis ("C-C"); and a first rotatable drive shaft comprising a first gear element; wherein the articulating assembly further comprises a pivoting gear element meshingly engaged with the first gear element, the pivoting gear element being fixedly coupled to the pivot pin, wherein simultaneous rotational and longitudinal movement of the first rotatable drive shaft pivots the jaw assembly relative to the proximal joint member about a pivot axis ("B-B") defined by the pivot pin that is perpendicular to the first and second longitudinal axes thereby pivoting the jaw assembly by the pivoting of the pivoting gear element relative to the proximal joint member; the articulating assembly further comprising a socket rotatably disposed within the distal joint member, the socket configured to secure the jaw assembly therein.
A mudguard intended to be fastened inside a motor vehicle wheel arch, comprising a shell made of a thermoplastic material having a wall intended to lie opposite the tread of the wheel, the wall comprising at least one area provided with a plurality of holes, said area being intended to form a Helmholtz resonator with a portion of the body of the vehicle surrounding the shell at least partially, said portion having at least one cavity adjoining said area, the mudguard comprises a layer of an acoustically-absorbent material which is fastened on an inner face of the wall so as to cover the area at least partially and said mudguard is characterized in that a layer of a water-impermeable and air-permeable material is disposed between the inner face of the wall and the acoustically-absorbent material layer.
A method for preparing a serum comprising cytokines and coagulation factors, the method comprising the following steps: (a) Submitting an isolated biological sample comprising platelets and/or leukocytes to a gravity force comprised from 100 g to 200 g to obtain a first clot and a supernatant; (b) Submitting only the clot or, alternatively, the clot and supernatant of step (a) to a gravity force comprised from 400 g to 2500 g to obtain a supernatant SN1; wherein the gravity force is discontinuously applied and carried out by means of: (i) centrifuging the clot of step (a), or alternatively the clot and supernatant, at a gravity force comprised from 400 g to 500 g; (ii) recovering the supernatant of step (i), which constitutes partially the supernatant SN1ii; (iii) centrifuging the remaining clot at a gravity force comprised from 1500 g to 2500 g and recovering the supernatant of step (iii), which constitutes partially the supernatant SN1iii of step (b), constituting the supernatants of steps (ii) and (iii) the entire supernatant SN1; and (c) Recovering said supernatant SN1 of step (b), which is a serum comprising cytokines and coagulation factors, wherein the gravity force is applied by a process selected from the group consisting of centrifugation and physical-suction. (a) Submitting an isolated biological sample comprising platelets and/or leukocytes to a gravity force comprised from 100 g to 200 g to obtain a first clot and a supernatant; (b) Submitting only the clot or, alternatively, the clot and supernatant of step (a) to a gravity force comprised from 400 g to 2500 g to obtain a supernatant SN1; wherein the gravity force is discontinuously applied and carried out by means of: (i) centrifuging the clot of step (a), or alternatively the clot and supernatant, at a gravity force comprised from 400 g to 500 g; (ii) recovering the supernatant of step (i), which constitutes partially the supernatant SN1ii; (iii) centrifuging the remaining clot at a gravity force comprised from 1500 g to 2500 g and recovering the supernatant of step (iii), which constitutes partially the supernatant SN1iii of step (b), constituting the supernatants of steps (ii) and (iii) the entire supernatant SN1; and (i) centrifuging the clot of step (a), or alternatively the clot and supernatant, at a gravity force comprised from 400 g to 500 g; (ii) recovering the supernatant of step (i), which constitutes partially the supernatant SN1ii; (iii) centrifuging the remaining clot at a gravity force comprised from 1500 g to 2500 g and recovering the supernatant of step (iii), which constitutes partially the supernatant SN1iii of step (b), constituting the supernatants of steps (ii) and (iii) the entire supernatant SN1; and (c) Recovering said supernatant SN1 of step (b), which is a serum comprising cytokines and coagulation factors,
A sheet material adhesive agent application method comprising: performing a first action including applying an adhesive agent to a sheet material, the first action is performed sequentially for stacked multiple sheet materials; wherein the first action is implemented by: taking out the uppermost sheet material; transferring the taken-out sheet material to an adhesive agent application stage; and applying the adhesive agent to the transferred sheet material at the adhesive agent application stage, and performing a second action in advance to the first action, wherein the second action includes setting the sheet material so that the sheet material has a predetermined curvature; and the second action is implemented by setting an uppermost group of sheet materials of the multiple sheet materials so that at least the uppermost sheet materials has a curvature when the multiple sheet materials are stacked, characterized in that the second action is implemented by setting the uppermost group of sheet materials of the multiple sheet materials so that each sheet material of the uppermost group has a curvature projecting upward when the multiple sheet materials are stacked, wherein the uppermost group includes the uppermost sheet material, wherein the first action is implemented by spraying the adhesive agent to the sheet material by an application gun, and the first action is completed before the sheet material is restored to a state before the second action. performing a first action including applying an adhesive agent to a sheet material, the first action is performed sequentially for stacked multiple sheet materials; wherein the first action is implemented by: taking out the uppermost sheet material; transferring the taken-out sheet material to an adhesive agent application stage; and applying the adhesive agent to the transferred sheet material at the adhesive agent application stage, and taking out the uppermost sheet material; transferring the taken-out sheet material to an adhesive agent application stage; and applying the adhesive agent to the transferred sheet material at the adhesive agent application stage, and performing a second action in advance to the first action, wherein the second action includes setting the sheet material so that the sheet material has a predetermined curvature; and the second action is implemented by setting an uppermost group of sheet materials of the multiple sheet materials so that at least the uppermost sheet materials has a curvature when the multiple sheet materials are stacked, characterized in that the second action is implemented by setting the uppermost group of sheet materials of the multiple sheet materials so that each sheet material of the uppermost group has a curvature projecting upward when the multiple sheet materials are stacked, wherein the uppermost group includes the uppermost sheet material, wherein the first action is implemented by spraying the adhesive agent to the sheet material by an application gun, and the first action is completed before the sheet material is restored to a state before the second action.
An electronic package (100, 200a, 200b, 500, 600, 700, 900) comprising a component carrier (110, 210, 410, 510, 610, 910) having a stepped cavity (130, 430, 830) formed therein; and a component assembly (150, 350) comprising at least two electrically connected electronic components (152, 154; 352, 354, 356) having different sizes such that the component assembly (150, 350) has a stepped shape; wherein the component assembly (150, 350) is accommodated at least partially inserted within the stepped cavity (130, 430, 830); wherein the component assembly comprises an intermediate electric structure, wherein the two electronic components (352, 354) are attached at opposing main surfaces of the intermediate electric structure; characterized in that the intermediate electric structure is, along a lateral direction parallel to a main surface of the component carrier, wider than both electronic components (352, 354); wherein the component carrier (110, 210, 410, 510, 610, 910) is a laminate of at least one electrically insulating layer structure and at least one electrically conductive layer structure. a component carrier (110, 210, 410, 510, 610, 910) having a stepped cavity (130, 430, 830) formed therein; and a component assembly (150, 350) comprising at least two electrically connected electronic components (152, 154; 352, 354, 356) having different sizes such that the component assembly (150, 350) has a stepped shape; wherein the component assembly (150, 350) is accommodated at least partially inserted within the stepped cavity (130, 430, 830); wherein the component assembly comprises an intermediate electric structure, wherein the two electronic components (352, 354) are attached at opposing main surfaces of the intermediate electric structure; characterized in that the intermediate electric structure is, along a lateral direction parallel to a main surface of the component carrier, wider than both electronic components (352, 354); wherein the component carrier (110, 210, 410, 510, 610, 910) is a laminate of at least one electrically insulating layer structure and at least one electrically conductive layer structure.
Method for producing a circuit carrier plate (100; 100a; 100b; 100c; 100d; 100e; 100f; 100g), comprising the following steps: providing a metal carrier plate (110; 110'; 110''), pressing an insert (300; 300'; 300''; 300''') having at least one ceramic material into the metal carrier plate (110; 110'; 110"), wherein the metal carrier plate (110; 110'; 110") is plastically deformed at least in some regions during the pressing in, wherein material of the carrier plate is displaced at least in some regions by the material of the insert and the insert is embedded at least with its bottom into the material of the carrier plate.
An end effector, comprising: a first actuator configured to generate a force vector to actuate a function in response to a received control signal, the actuator being configured to maneuver the end effector on a motion path along a track following the contour of the underlying manufactured item; and a first force limiter (325,425) coupled to the first actuator and configured to interrupt the actuating if the force vector exceeds a first threshold; wherein that the end effector further comprises an orientation detector (310,410) coupled to the first actuator and configured to detect a change in an angle between a gravitational vector acting on the end effector and the force vector; wherein the orientation detector (310,410) provides an output signal corresponding to the change in angle; and wherein the force limiter (325,425) is configured to change the first threshold to a second threshold in response to the output signal corresponding to the detected change in the angle. a first actuator configured to generate a force vector to actuate a function in response to a received control signal, the actuator being configured to maneuver the end effector on a motion path along a track following the contour of the underlying manufactured item; and a first force limiter (325,425) coupled to the first actuator and configured to interrupt the actuating if the force vector exceeds a first threshold; wherein that the end effector further comprises an orientation detector (310,410) coupled to the first actuator and configured to detect a change in an angle between a gravitational vector acting on the end effector and the force vector; wherein the orientation detector (310,410) provides an output signal corresponding to the change in angle; and wherein the force limiter (325,425) is configured to change the first threshold to a second threshold in response to the output signal corresponding to the detected change in the angle.