mhurhangee/ep-ind-claims huggingface dataset:
A power electronic component comprising a surface adapted to be attached to a heatsink, the surface forming a bottom surface of the power electronic component, one or more power electronic semiconductor chips mounted on a substrate above the bottom surface, and a housing enclosing the one or more power electronic semiconductor chips, wherein the power electronic component comprises a thermal insulator (21; 31; 41; 51) disposed above the one or more power electronic semiconductor chips, such that the bottom surface and the thermal insulator (21; 31; 41; 51) are on the opposite sides of the one or more power electronic semiconductor chips, characterized in that the power electronic component comprises further a layer of silicone gel on top of the one or more semiconductor chips, the thermal insulator being above the layer of silicone gel. a surface adapted to be attached to a heatsink, the surface forming a bottom surface of the power electronic component, one or more power electronic semiconductor chips mounted on a substrate above the bottom surface, and a housing enclosing the one or more power electronic semiconductor chips, wherein the power electronic component comprises a thermal insulator (21; 31; 41; 51) disposed above the one or more power electronic semiconductor chips, such that the bottom surface and the thermal insulator (21; 31; 41; 51) are on the opposite sides of the one or more power electronic semiconductor chips, characterized in that the power electronic component comprises further a layer of silicone gel on top of the one or more semiconductor chips, the thermal insulator being above the layer of silicone gel.
Method for sorting plant material units, such as seedlings, arranged in a two-dimensional array in a supply tray by distributing the plant material units over a plurality of further trays configured to accommodate plant material units in a further two-dimensional array, each further tray being dedicated to plant material units with a specific classification value assigned to it, the method comprising: - supplying the supply tray; - obtaining an image of the two-dimensional array of plant material units in the supply tray; - assigning a classification value to each of the plant material units in the supply tray on the basis of the obtained image; and - sorting the plant material units on the basis of the assigned classification value by transferring plant material units with the same assigned classification value by means of a robot directly from the supply tray to the corresponding further tray. - supplying the supply tray; - obtaining an image of the two-dimensional array of plant material units in the supply tray; - assigning a classification value to each of the plant material units in the supply tray on the basis of the obtained image; and - sorting the plant material units on the basis of the assigned classification value by transferring plant material units with the same assigned classification value by means of a robot directly from the supply tray to the corresponding further tray.
A vehicle, optionally an aircraft or spacecraft, comprising: a basic structure; and coupled to the basic structure, a plurality of power sources (114, 202); a propulsion system including a plurality of DC electric motors (118, 204) configured to power a plurality of propulsors to generate propulsive forces that cause the vehicle to move; and a plurality of motor drives, each motor drive connected to a DC electric motor from the plurality of DC electric motors (118, 204); and power distribution circuitry (122, 200) configured to deliver direct current, DC, electric power from the plurality of power sources to the plurality of DC electric motors, the power distribution circuitry including a plurality of DC-to-DC converter assemblies configured to input the DC electric power from the plurality of power sources and deliver voltage-regulated outputs to the plurality of DC electric motors, each DC-to-DC converter assembly operatively coupled to multiple ones of the plurality of power sources and multiple ones of the plurality of DC electric motors, and at least one DC-to-DC converter assembly of the plurality of DC-to-DC converter assemblies including a multiple-input and multiple-output, MIMO, transformer with a single transformer core, wherein the inputs of the MIMO transformer are each connected to a power source from the plurality of power sources (114, 202); and the outputs of the MIMO transformer are each connected to a motor drive from the plurality of motor drives. a basic structure; and coupled to the basic structure, a plurality of power sources (114, 202); a propulsion system including a plurality of DC electric motors (118, 204) configured to power a plurality of propulsors to generate propulsive forces that cause the vehicle to move; and a plurality of motor drives, each motor drive connected to a DC electric motor from the plurality of DC electric motors (118, 204); and power distribution circuitry (122, 200) configured to deliver direct current, DC, electric power from the plurality of power sources to the plurality of DC electric motors, the power distribution circuitry including a plurality of DC-to-DC converter assemblies configured to input the DC electric power from the plurality of power sources and deliver voltage-regulated outputs to the plurality of DC electric motors, each DC-to-DC converter assembly operatively coupled to multiple ones of the plurality of power sources and multiple ones of the plurality of DC electric motors, and at least one DC-to-DC converter assembly of the plurality of DC-to-DC converter assemblies including a multiple-input and multiple-output, MIMO, transformer with a single transformer core, wherein the inputs of the MIMO transformer are each connected to a power source from the plurality of power sources (114, 202); and the outputs of the MIMO transformer are each connected to a motor drive from the plurality of motor drives.
An electronic locking device with a receiving unit for receiving an authorisation signal from an access medium and with an actuator for the selective coupling or release of elements of the locking device which can be moved to one another, when an authentication test has resulted in an authorisation being present, and with a mechanical engagement protection for the mechanical shielding of the actuator, comprising a first module which is arranged in front of the mechanical engagement protection and which comprises the receiving unit as well as comprising a second module which is arranged behind the mechanical engagement protection and comprises the actuator, wherein the second module comprises an evaluation unit, wherein the evaluation unit is in communication connection with the receiving unit and wherein the evaluation unit is designed for evaluating signals which are issued by the receiving unit and for carrying out an authentication process in a manner such that the decision concerning the presence of the authorisation is made by the evaluation unit of the second module, wherein the first module comprises an auxiliary processor, by way of which the communication connection between the receiving unit and the evaluation unit is created, and wherein the first module is integrated into a knob or handle for actuating the locking device, characterised in that the auxiliary processor is programmed to wake the evaluation unit and to only wake the evaluation unit when the auxiliary processor recognises precisely one access medium of a correct media type and to then open a direct signal transfer channel between the receiving unit and the evaluation unit, via which channel the evaluation unit directly receives the signals which are necessary for the authentication, wherein the evaluation unit is designed to control and evaluate this communication between the receiving unit and the evaluation unit, and that the second module is integrated into a rotor of the locking device.
An annuloplasty implant system comprising: an annuloplasty ring (1102, 8000) for controlling at least one of a shape and a size of a heart valve annulus, the annuloplasty ring including: an arcuate body; and a sensor system configured to be coupled to the annuloplasty ring (1102, 8000), the sensor system including: a first sensor configured to measure physiological data when the annuloplasty ring (1102, 8000) is implanted into the valve annulus; and a second sensor configured to measure physiological data when the annuloplasty ring (1102, 8000) is implanted into the valve annulus, the first sensor configured to measure data at an inflow portion of the valve annulus and the second sensor configured to measure data at an outflow portion of the valve annulus the annuloplasty implant system characterized by a first coupling element extending from the first sensor and a second coupling element extending from the second sensor, a wire ring being coupled to the arcuate body and configured to attach to the first and second coupling elements (3710a, 3710b). an annuloplasty ring (1102, 8000) for controlling at least one of a shape and a size of a heart valve annulus, the annuloplasty ring including: an arcuate body; and a sensor system configured to be coupled to the annuloplasty ring (1102, 8000), the sensor system including: a first sensor configured to measure physiological data when the annuloplasty ring (1102, 8000) is implanted into the valve annulus; and a second sensor configured to measure physiological data when the annuloplasty ring (1102, 8000) is implanted into the valve annulus, the first sensor configured to measure data at an inflow portion of the valve annulus and the second sensor configured to measure data at an outflow portion of the valve annulus the annuloplasty implant system characterized by a first coupling element extending from the first sensor and a second coupling element extending from the second sensor, a wire ring being coupled to the arcuate body and configured to attach to the first and second coupling elements (3710a, 3710b).
An in-vehicle information system configured to receive gesture input comprising: a first camera configured to generate image data of an interior surface in a vehicle and a hand of an operator in the vehicle that moves on the interior surface; a controller operatively connected to the first camera and at least one component in the in-vehicle information system, the controller being configured to: receive a plurality of frames of image data from the first camera; identify a location of the hand of the operator in each frame of the plurality of frames; generate trajectory data corresponding to changes in the location of the hand in the plurality of frames, wherein the trajectory data comprises start and end locations of strokes that represent individual movements of the hand between two locations in a straight line or along a curved path; generate a decoded sequence of strokes from the trajectory data with reference to data stored in a memory that correspond to several commonly used strokes from human writing patterns, using a first hidden Markov model; remove a first stroke and a last stroke from the decoded sequence of strokes to generate an edited sequence of strokes; normalize trajectory data associated with each stroke in the edited sequence of strokes by adjusting the relative locations and sizes of the remaining strokes in the sequence to a predetermined coordinate plane; identify a character corresponding to the normalized trajectory data associated with the edited sequence of strokes with reference to a second HMM; and operate the at least one component in the in-vehicle information system in response to the identified character. receive a plurality of frames of image data from the first camera; identify a location of the hand of the operator in each frame of the plurality of frames; generate trajectory data corresponding to changes in the location of the hand in the plurality of frames, wherein the trajectory data comprises start and end locations of strokes that represent individual movements of the hand between two locations in a straight line or along a curved path; generate a decoded sequence of strokes from the trajectory data with reference to data stored in a memory that correspond to several commonly used strokes from human writing patterns, using a first hidden Markov model; remove a first stroke and a last stroke from the decoded sequence of strokes to generate an edited sequence of strokes; normalize trajectory data associated with each stroke in the edited sequence of strokes by adjusting the relative locations and sizes of the remaining strokes in the sequence to a predetermined coordinate plane; identify a character corresponding to the normalized trajectory data associated with the edited sequence of strokes with reference to a second HMM; and operate the at least one component in the in-vehicle information system in response to the identified character.
A system for securing a flexible cannula assembly to an external wall and an internal structure of a heart of a patient, comprising: a flexible cannula body including a proximal end, a distal end, an inner wall defining a lumen, and an outer wall, a tip coupled with the distal end of the cannula body, and an anchor (38,40) coupled to the tip, the anchor configured to engage the internal structure of the heart and operable to resist movement of the cannula assembly in at least one direction along a lengthwise central axis of the flexible cannula body; and characterised by at least one ring member configured to be coupled to the external wall and positioned at least partially around the outer wall of the cannula body proximally relative to the tip, the at least one ring member further configured to provide hemostasis between the external wall and the cannula body. a flexible cannula body including a proximal end, a distal end, an inner wall defining a lumen, and an outer wall, a tip coupled with the distal end of the cannula body, and an anchor (38,40) coupled to the tip, the anchor configured to engage the internal structure of the heart and operable to resist movement of the cannula assembly in at least one direction along a lengthwise central axis of the flexible cannula body; and characterised by at least one ring member configured to be coupled to the external wall and positioned at least partially around the outer wall of the cannula body proximally relative to the tip, the at least one ring member further configured to provide hemostasis between the external wall and the cannula body.
Device for drilling shafts in a ground consisting of rock, clay and/or related materials, comprising a borehole casing and means for arranging the borehole casing in the ground; and a drilling means which can be lowered into the borehole casing by means of a flexible suspension; wherein the drilling means comprises a hollow drill string, received in a housing, and provided with a drill head with cutting tools and means for setting the drill string into rotation, and wherein the drilling means is further provided with securing means with which the drilling means can be secured in the borehole casing both in a longitudinal direction of the borehole casing and perpendicularly thereof against an inner wall of the borehole casing, the securing means being provided on the peripheral surface of the housing, wherein the device is further provided with discharge means for dislodged ground material connected to the hollow drill string and with translation means for displacing the drill head over a determined stroke length in the longitudinal direction of the borehole casing, wherein the drilling means is in secured state; and wherein the means for setting the drill string into rotation and the translation means are positioned above the securing means.
A vaccine comprising one or more antigens and an adjuvant, wherein the one or more antigens are each independently, a microbial antigen, a self antigen, a tumor antigen, an allergen, or an addictive substance and the adjuvant consists of one or more isolated CpG oligonucleotides or a TLR agonist which is an oligoribonucleotide, and cholesterol.
A heat exchange device comprising: - a channel wall defining a flow channel; - one or more heat exchange surfaces (5a - d), each embedding one or more flow paths for a fluid heat exchange medium, and comprising supply and discharge connections (7, 9) for the supply and discharge of the fluid heat exchange medium; - a support structure for supporting the heat exchange surfaces (5a - d) within the flow channel; the heat exchange device being characterized in that the support structure comprises four arms extending under right angles from a central crossing to the channel wall to form a cross; wherein at least a part of the arms comprises inner channels each being in open connection with one of the flow paths in the heat exchange surfaces (5a - d). - a channel wall defining a flow channel; - one or more heat exchange surfaces (5a - d), each embedding one or more flow paths for a fluid heat exchange medium, and comprising supply and discharge connections (7, 9) for the supply and discharge of the fluid heat exchange medium; - a support structure for supporting the heat exchange surfaces (5a - d) within the flow channel;
Control electronics for an electric motor driven rotary pump, notably a canned motor pump, with a casing (2, 3) in which a luminous element is arranged, in which the casing (2, 3) has a light channel that is assigned to the luminous element and that has a light emission aperture forming an optical display element that is offset laterally to the luminous element and emits light emitted by the luminous element, characterised by a clearance between the emission aperture and the luminous element and by the light channel being directed to the luminous element.
Pyroelectric detection device, comprising at least: - a suspended membrane; - a pyroelectric detection element located on the suspended membrane and comprising at least one portion of pyroelectric material located between first and second electrodes (114, 118), the first electrode being located between the portion of pyroelectric material and the suspended membrane; and in which the membrane and the pyroelectric detection element are subjected to a compression stress; characterized in that the compression stress is higher than a limiting buckling stress of the membrane and the pyroelectric detection element and in that the membrane and the pyroelectric detection element together form a bistable structure. - a suspended membrane; - a pyroelectric detection element located on the suspended membrane and comprising at least one portion of pyroelectric material located between first and second electrodes (114, 118), the first electrode being located between the portion of pyroelectric material and the suspended membrane;
An evaporator with a distribution unit and an evaporator unit to which a refrigerant medium can be supplied via the distribution unit and through which said refrigerant medium can flow, wherein said refrigerant medium can be diverted with only one diversion at the bottom in a diversion unit of the evaporator unit, wherein the distribution unit is designed to bring about uniform distribution of the refrigerant medium over the full width of the evaporator, wherein, due to additional components in the distributor unit, the two-phase refrigerant medium is uniformly distributed over the full width of the evaporator and uniformly to the flat tubes and is diverted only once, and characterised in that the evaporator is designed with a pressure distribution element in the distribution unit for distributing the refrigerant medium which flows through and around the flat pipes of the evaporator unit to all of them in parallel.
A skin cleansing composition comprising a pigment particle that is pre-coated with Polyquaternium-67, wherein the Polyquaternium-67 is present in an amount of 0.1 to 5 wt% based on the total weight of the pigment particle, and wherein the particle is at least one material chosen from mica/titanium dioxide, mica/iron oxide, and mica.
A negative active material comprising SiO x particles and a modified polymer coating layer covering the SiO x particles, in which 0 <x <2; wherein the negative active material has a peak intensity I 1 at the Raman shift ranging from 280cm -1 to 345cm -1, a peak intensity I 2 at the Raman shift ranging from 450cm -1 to 530cm -1, and a peak intensity I 3 at the Raman shift ranging from 900cm -1 to 960cm -1, and I 1, I 2 and I 3 satisfy 0.1 ≤ I 1 /I 2 ≤ 0.6, and 0.2 ≤ I 3 /I 2 ≤ 1.0; and wherein the modified polymer coating layer comprises sulfur element and carbon element. wherein the negative active material has a peak intensity I 1 at the Raman shift ranging from 280cm -1 to 345cm -1, a peak intensity I 2 at the Raman shift ranging from 450cm -1 to 530cm -1, and a peak intensity I 3 at the Raman shift ranging from 900cm -1 to 960cm -1, and I 1, I 2 and I 3 satisfy 0.1 ≤ I 1 /I 2 ≤ 0.6, and 0.2 ≤ I 3 /I 2 ≤ 1.0; and wherein the modified polymer coating layer comprises sulfur element and carbon element.
A hub assembly comprising: an inboard bearing; an outboard bearing; a hub having a bore extending from an outboard opening to an inboard opening, the inboard bearing and the outboard bearing housed in the bore of the hub, the hub further having a groove; a retaining ring seated in the groove in the hub; a retaining nut disposed in the bore, the retaining nut having an axially inwardly directed surface and an axially outwardly directed surface, the axially inwardly directed surface facing the outboard bearing; the hub assembly is a preassembled hub assembly with said retaining nut prepositioned and affixed in the bore; and characterised in that: a spacer is disposed between the inboard bearing and the outboard bearing; and in that the retaining nut includes a flange extending radially outwardly for aligning the prepositioned retaining nut concentrically within the bore, wherein an outwardly directed circumferential surface of the flange, or outward facing surface of pads extending radially outward from the flange, contact the bore surface. an inboard bearing; an outboard bearing; a hub having a bore extending from an outboard opening to an inboard opening, the inboard bearing and the outboard bearing housed in the bore of the hub, the hub further having a groove; a retaining ring seated in the groove in the hub; a retaining nut disposed in the bore, the retaining nut having an axially inwardly directed surface and an axially outwardly directed surface, the axially inwardly directed surface facing the outboard bearing; the hub assembly is a preassembled hub assembly with said retaining nut prepositioned and affixed in the bore; and characterised in that: a spacer is disposed between the inboard bearing and the outboard bearing; and in that the retaining nut includes a flange extending radially outwardly for aligning the prepositioned retaining nut concentrically within the bore, wherein an outwardly directed circumferential surface of the flange, or outward facing surface of pads extending radially outward from the flange, contact the bore surface. a spacer is disposed between the inboard bearing and the outboard bearing; and in that the retaining nut includes a flange extending radially outwardly for aligning the prepositioned retaining nut concentrically within the bore, wherein an outwardly directed circumferential surface of the flange, or outward facing surface of pads extending radially outward from the flange, contact the bore surface.