mhurhangee/ep-ind-claims huggingface dataset:
Arrangement for damping vibrations during microscopic examinations of specimens in an evacuated measuring cell at low temperatures, which comprises a cryogenic cooling unit and a microscopy unit, which are combined with a damping unit, the damping unit having along a longitudinal axis a series arranged of four evacuable compensation chambers (310, 320, 330, 340) which are coupled to one another, which are connected to a frame (22, 23) at their two outer ends via dampers, and the measuring cell being connected to two compensation chambers (330, 340) at coupling points (332, 341), characterized in that a clamping unit is operatively connected to the damping unit at at least two points of the series arrangement, and in that the cryogenic cooler is fixed to a coupling connector which connects two compensation chambers (310, 320) to each other, and each of the two compensation chambers (310, 320) is connected via respectively one further coupling connector (311, 342) and/or a connecting plate to respectively one damper (305, 324, 345), which is fixed to the frame, and the clamping unit acts on the two coupling connectors (311, 342).
A dishwashing basket roller conveyor comprising an upstream end configured to receive a feed of dishwashing baskets; a downstream end; a guide (52a, 52b) configured to guide the feed of dishwashing baskets along a feed direction between the upstream end and the downstream end; a roller cassette support (46a, 46b) extending along the feed direction; a plurality of roller cassettes (44a, 44b, 44c) supported by the roller cassette support (46a, 46b) one after another along the feed direction, each roller cassette (44a, 44b, 44c) comprising a plurality of rollers separated in the feed direction, the plurality of rollers being configured to engage with and support the feed of dishwashing baskets along a basket support face (Fa, Fb, Fc); the dishwashing basket roller conveyor being characterized in comprising a dishwashing basket exit configured to facilitate a dishwashing basket to be extracted from the dishwashing basket roller conveyor in a removal direction transversal to the feed direction, wherein the dishwashing basket roller conveyor comprises a spacer arrangement (54a, 54b) at the dishwashing basket exit, the spacer arrangement (54a, 54b) being arranged at an interface between the roller cassette support (46a, 46b) and at least one raised roller cassette (44b, 44c), thereby vertically raising at least a portion of the basket support face (Fb, Fc) of said at least one raised roller cassette (44b, 44c) relative to the basket support face (Fa) of an adjacent upstream, unraised roller cassette. an upstream end configured to receive a feed of dishwashing baskets; a downstream end; a guide (52a, 52b) configured to guide the feed of dishwashing baskets along a feed direction between the upstream end and the downstream end; a roller cassette support (46a, 46b) extending along the feed direction; a plurality of roller cassettes (44a, 44b, 44c) supported by the roller cassette support (46a, 46b) one after another along the feed direction, each roller cassette (44a, 44b, 44c) comprising a plurality of rollers separated in the feed direction, the plurality of rollers being configured to engage with and support the feed of dishwashing baskets along a basket support face (Fa, Fb, Fc); the dishwashing basket roller conveyor being characterized in comprising a dishwashing basket exit configured to facilitate a dishwashing basket to be extracted from the dishwashing basket roller conveyor in a removal direction transversal to the feed direction, wherein the dishwashing basket roller conveyor comprises a spacer arrangement (54a, 54b) at the dishwashing basket exit, the spacer arrangement (54a, 54b) being arranged at an interface between the roller cassette support (46a, 46b) and at least one raised roller cassette (44b, 44c), thereby vertically raising at least a portion of the basket support face (Fb, Fc) of said at least one raised roller cassette (44b, 44c) relative to the basket support face (Fa) of an adjacent upstream, unraised roller cassette.
A microwave assembly, comprising: a hub (10, 210), the hub (10, 210) comprising a proximal end, a distal end, an input port (70, 270) and an output port (72, 272); a first insert (80, 280) having a center hole; a second insert (95, 295) having a center hole and an end portion; a first lumen path (50, 250) and a second lumen path (60, 260) concentrically oriented respective to each other, wherein the first lumen path (50, 250) is connected to the center hole of the first insert (80, 280) and the second lumen path (60, 260) is connected to the center hole of the second insert (95, 295); and a handle (100, 299) that is functionally connected to a probe (20, 220), wherein the first insert (80, 280) is inserted into the proximal end of the hub (10, 210), the proximal end of the hub (10, 210) being adapted to receive the first insert (80, 280), the second insert (95, 295) is inserted into the distal end of the hub (10, 210), the distal end of the hub (10, 210) adapted to receive the second insert (95, 295), the concentric lumen paths (50, 60) extend through the center hole of the second insert (95, 295) and through the distal end of the hub (10, 210), and the handle (100, 299) is inserted into the proximal end of the hub (10, 210) in abutting engagement with the first insert (80, 280); characterized in that the first insert (80, 280) comprises a concave fluid guide adapted to persuade a spinning motion to an incoming fluid. a hub (10, 210), the hub (10, 210) comprising a proximal end, a distal end, an input port (70, 270) and an output port (72, 272); a first insert (80, 280) having a center hole; a second insert (95, 295) having a center hole and an end portion; a first lumen path (50, 250) and a second lumen path (60, 260) concentrically oriented respective to each other, wherein the first lumen path (50, 250) is connected to the center hole of the first insert (80, 280) and the second lumen path (60, 260) is connected to the center hole of the second insert (95, 295); and a handle (100, 299) that is functionally connected to a probe (20, 220), wherein the first insert (80, 280) is inserted into the proximal end of the hub (10, 210), the proximal end of the hub (10, 210) being adapted to receive the first insert (80, 280), the second insert (95, 295) is inserted into the distal end of the hub (10, 210), the distal end of the hub (10, 210) adapted to receive the second insert (95, 295), the concentric lumen paths (50, 60) extend through the center hole of the second insert (95, 295) and through the distal end of the hub (10, 210), and the handle (100, 299) is inserted into the proximal end of the hub (10, 210) in abutting engagement with the first insert (80, 280); characterized in that the first insert (80, 280) comprises a concave fluid guide adapted to persuade a spinning motion to an incoming fluid.
Wrist prosthesis, comprising a proximal prosthesis body and a distal prosthesis body, wherein, at least in a deployed state of the wrist prosthesis: - a portion of the proximal prosthesis body that faces away from the distal prosthesis body is provided with a convexly curved surface; - a portion of the distal prosthesis body that faces away from the proximal prosthesis body is provided with a convexly curved surface; - the surfaces of the proximal prosthesis body and the distal prosthesis body that are facing each other are provided with complementary convex-concave curved surfaces; and characterized in that - the wrist prosthesis is free of anchoring means. - a portion of the proximal prosthesis body that faces away from the distal prosthesis body is provided with a convexly curved surface; - a portion of the distal prosthesis body that faces away from the proximal prosthesis body is provided with a convexly curved surface; - the surfaces of the proximal prosthesis body and the distal prosthesis body that are facing each other are provided with complementary convex-concave curved surfaces; and characterized in that - the wrist prosthesis is free of anchoring means.
A method for performing beam locking in a wireless communication system, the method comprising the steps of: setting, at a user station, a reference direction that is aligned between the user station and a base station; and at the user station, in response to at least one of a movement and a motion of the user station, measuring at least one second physical value indicating the at least one of the movement and the motion of the user station, by using at least one motion recognition sensor, the at least one motion recognition sensor comprising an altitude sensor, obtaining difference between the at least one second physical value and a first physical value corresponding to the reference direction, adjusting the direction of the beam used by the user station to align with the reference direction, based on the difference. setting, at a user station, a reference direction that is aligned between the user station and a base station; and at the user station, in response to at least one of a movement and a motion of the user station, measuring at least one second physical value indicating the at least one of the movement and the motion of the user station, by using at least one motion recognition sensor, the at least one motion recognition sensor comprising an altitude sensor, obtaining difference between the at least one second physical value and a first physical value corresponding to the reference direction, adjusting the direction of the beam used by the user station to align with the reference direction, based on the difference.
A cutting insert (1 a-1e) comprising: a main body part having an upper surface provided with a rake face and a side surface provided with a flank face; a main cutting edge formed in a intersecting ridge line part of the rake face and the flank face; and a groove part formed in the flank face and having one end reaching the rake face; wherein the main cutting edge is composed of a plurality of main cutting edge divisions divided by the groove part; and a concave part depressed in the rake face and at least one projecting part formed in a vicinity corresponding to each of the main cutting edge divisions in the rake face, characterised in that the projecting part includes a first projecting part, and a second projecting part formed on a side opposite to the corresponding main cutting edge division with respect to the first projecting part, the second projecting part being higher than the first projecting part. a main body part having an upper surface provided with a rake face and a side surface provided with a flank face; a main cutting edge formed in a intersecting ridge line part of the rake face and the flank face; and a groove part formed in the flank face and having one end reaching the rake face; wherein the main cutting edge is composed of a plurality of main cutting edge divisions divided by the groove part; and a concave part depressed in the rake face and at least one projecting part formed in a vicinity corresponding to each of the main cutting edge divisions in the rake face, the projecting part includes a first projecting part, and a second projecting part formed on a side opposite to the corresponding main cutting edge division with respect to the first projecting part, the second projecting part being higher than the first projecting part.
A system for controlling a temperature in a pilot subchamber for pilot injection of fuel in an internal combustion engine, the system comprising: a receiving unit adapted to receive at least one first measurement of at least one engine operating parameter, and receive a second measurement indicative of a present temperature in the subchamber; and a processing unit adapted to compute from the at least one first measurement a setpoint for the temperature in the subchamber to maintain the temperature in the subchamber at a level sufficient to cause ignition, generate in response to the second measurement at least one control signal indicative of a request to adjust the present temperature towards the setpoint, and send the at least one control signal to the engine. a receiving unit adapted to receive at least one first measurement of at least one engine operating parameter, and receive a second measurement indicative of a present temperature in the subchamber; and receive at least one first measurement of at least one engine operating parameter, and receive a second measurement indicative of a present temperature in the subchamber; and a processing unit adapted to compute from the at least one first measurement a setpoint for the temperature in the subchamber to maintain the temperature in the subchamber at a level sufficient to cause ignition, generate in response to the second measurement at least one control signal indicative of a request to adjust the present temperature towards the setpoint, and send the at least one control signal to the engine. compute from the at least one first measurement a setpoint for the temperature in the subchamber to maintain the temperature in the subchamber at a level sufficient to cause ignition, generate in response to the second measurement at least one control signal indicative of a request to adjust the present temperature towards the setpoint, and send the at least one control signal to the engine.
A method of image reconstruction, the method comprising: receiving scattered signals from a scene, wherein the scattered signals are responsive to interrogation of the scene, by an antenna system comprising at least one antenna, at multiple relative positions between the at least one antenna and the scene; constructing and inverting a measurement matrix based on signals received responsive to interrogation at a first relative position, wherein the construction and inversion of the measurement matrix is partitioned to facilitate computations; calculating multiple estimates of reflectivity values of the scene, each of the multiple estimates corresponding to a particular relative position of the at least one antenna, and each of the multiple estimates being calculated using the measurement matrix and utilizing partitioning techniques; combining the multiple estimates of the reflectivity values to generate total reflectivity values for the scene, wherein said combining comprises summing or weighted summing; and generating image data based on the total reflectivity values. receiving scattered signals from a scene, wherein the scattered signals are responsive to interrogation of the scene, by an antenna system comprising at least one antenna, at multiple relative positions between the at least one antenna and the scene; constructing and inverting a measurement matrix based on signals received responsive to interrogation at a first relative position, wherein the construction and inversion of the measurement matrix is partitioned to facilitate computations; calculating multiple estimates of reflectivity values of the scene, each of the multiple estimates corresponding to a particular relative position of the at least one antenna, and each of the multiple estimates being calculated using the measurement matrix and utilizing partitioning techniques; combining the multiple estimates of the reflectivity values to generate total reflectivity values for the scene, wherein said combining comprises summing or weighted summing; and generating image data based on the total reflectivity values.
A test sensor for determining the concentration of an analyte in a sample, comprising: a reservoir having a reservoir volume; at least two conductors in the reservoir, where one of the conductors is a working electrode having a working electrode area; and a reagent composition disposed on the working electrode, the reagent composition comprising a binder, a buffer salt, a mediator, an enzyme system and a non-ionic surfactant, the mediator comprising at most 20% (w/w) of an inorganic, non-transition metal salt; where the buffer salt is present at a concentration of at most 9.54 nmol per mm 2 of the reagent composition surface area, or at most 67 nmol per μL of the reservoir volume, or at most 167 nmol per mm 2 of the working electrode area; and the mediator is present at a concentration of at most 4.76 nmol per mm 2 of the reagent composition surface area, or at most 40 nmol per μL of the reservoir volume, or at most 100 nmol per mm 2 of the working electrode area. a reservoir having a reservoir volume; at least two conductors in the reservoir, where one of the conductors is a working electrode having a working electrode area; and a reagent composition disposed on the working electrode, the reagent composition comprising a binder, a buffer salt, a mediator, an enzyme system and a non-ionic surfactant, the mediator comprising at most 20% (w/w) of an inorganic, non-transition metal salt; a binder, a buffer salt, a mediator, an enzyme system and a non-ionic surfactant, the mediator comprising at most 20% (w/w) of an inorganic, non-transition metal salt; where the buffer salt is present at a concentration of at most 9.54 nmol per mm 2 of the reagent composition surface area, or at most 67 nmol per μL of the reservoir volume, or at most 167 nmol per mm 2 of the working electrode area; and the mediator is present at a concentration of at most 4.76 nmol per mm 2 of the reagent composition surface area, or at most 40 nmol per μL of the reservoir volume, or at most 100 nmol per mm 2 of the working electrode area.
A Radio Frequency Identification, RFID, tag, comprising: an antenna port to receive an input AC signal; a self-tuning circuit coupled with the antenna port to optimize signal strength of the input AC signal during a self-tuning phase; an AC limiter configured to limit voltage of the input AC signal to a preconfigured limit; characterized by a limiter controller configured to disable the AC limiter during the self-tuning phase, wherein the self-tuning phase occurs prior to a data communication phase, and to re-enable the AC limiter after the self-tuning phase. an antenna port to receive an input AC signal; a self-tuning circuit coupled with the antenna port to optimize signal strength of the input AC signal during a self-tuning phase; an AC limiter configured to limit voltage of the input AC signal to a preconfigured limit; characterized by a limiter controller configured to disable the AC limiter during the self-tuning phase, wherein the self-tuning phase occurs prior to a data communication phase, and to re-enable the AC limiter after the self-tuning phase.
Blowing unit adapted to be part of a drying system of a household appliance configured to perform at least a drying cycle, wherein said blowing unit comprises: a. a casing made of metallic material; b. an impeller rotatably mounted in said casing; c. an electric motor mounted on said casing and adapted to drive said impeller in rotation; said blowing unit being characterized in that it further comprises: d. a magnetic shielding interposed between said electric motor and said casing. a. a casing made of metallic material; b. an impeller rotatably mounted in said casing; c. an electric motor mounted on said casing and adapted to drive said impeller in rotation; said blowing unit being characterized in that it further comprises: d. a magnetic shielding interposed between said electric motor and said casing.
A method of preparing methylol alkanal through reaction of formaldehyde and alkyl aldehyde in the presence of an amine based catalyst, wherein the methylol alkanal comprising 0.5 to 5 wt% of a formaldehyde remainder of a total of reaction product, wherein the reaction is carried out using a continuous reaction device constituted of 2 to 4 of reactors in which reactors are connected in series and wherein alkyl aldehyde is divisionally added to 2 to 4 of reactors.
Radar measuring apparatus (104, 111) designed to determine a distance to a surface of a medium (101, 108) or to another radar target in a tube (102, 107), wherein the radar measuring apparatus functions according to the FMCW principle and comprises: a radar transmission unit which is designed to generate a radar transmission signal, which is frequency-modulated according to the FMCW principle, a radar reception unit which is designed to receive a radar reception signal that is reflected back at the surface of the medium (101, 108) or at the other radar target in the tube (102, 107), to convert the radar reception signal into an intermediate frequency signal by mixing with the radar transmission signal or a signal derived therefrom, and to determine a distance to the surface of the medium (101, 108) or to another radar target in the tube (102, 107) using the intermediate frequency signal thus obtained, characterized in that the radar reception unit is designed to apply a phase correction to the phase curve of the intermediate frequency signal and to generate a phase-corrected intermediate frequency signal, wherein the phase correction is designed to reduce or eliminate a dispersion-dependent phase component in the phase curve of the intermediate frequency signal and to add a phase component that is not dependent on dispersion effects, wherein the radar reception unit is designed to determine the target frequency components in the intermediate frequency signal using the phase-corrected intermediate frequency signal and to determine the distance to the surface of the medium (101, 108) or to the other radar target in the tube (102, 107) using the target frequency components. a radar transmission unit which is designed to generate a radar transmission signal, which is frequency-modulated according to the FMCW principle, a radar reception unit which is designed to receive a radar reception signal that is reflected back at the surface of the medium (101, 108) or at the other radar target in the tube (102, 107), to convert the radar reception signal into an intermediate frequency signal by mixing with the radar transmission signal or a signal derived therefrom, and to determine a distance to the surface of the medium (101, 108) or to another radar target in the tube (102, 107) using the intermediate frequency signal thus obtained, characterized in that the radar reception unit is designed to apply a phase correction to the phase curve of the intermediate frequency signal and to generate a phase-corrected intermediate frequency signal, wherein the phase correction is designed to reduce or eliminate a dispersion-dependent phase component in the phase curve of the intermediate frequency signal and to add a phase component that is not dependent on dispersion effects, wherein the radar reception unit is designed to determine the target frequency components in the intermediate frequency signal using the phase-corrected intermediate frequency signal and to determine the distance to the surface of the medium (101, 108) or to the other radar target in the tube (102, 107) using the target frequency components.