mhurhangee/patent-ind-claim-en huggingface dataset:
A vibration actuator comprising: a cylindrical casing having a coil ; a movable element having a magnet , wherein the movable element is arranged inside the casing to vibrate along a vibration axis (O) of the vibration actuator , the vibration axis (O) is an axial direction of the casing ; and an inner guide arranged between the coil and the movable element and having an extending portion which sandwiches and holds an end of the coil together with the casing , wherein the extending portion is positioned between the coil and the movable element except for a center portion of the movable element in the vibration axis (O) direction of the vibration actuator , and the extending portion does not cover an entire inner circumference of the coil , and characterized in that the extending portion exposes an other end of the coil to an inside of the casing . a cylindrical casing having a coil ; a movable element having a magnet , wherein the movable element is arranged inside the casing to vibrate along a vibration axis (O) of the vibration actuator , the vibration axis (O) is an axial direction of the casing ; and an inner guide arranged between the coil and the movable element and having an extending portion which sandwiches and holds an end of the coil together with the casing , wherein the extending portion is positioned between the coil and the movable element except for a center portion of the movable element in the vibration axis (O) direction of the vibration actuator , and the extending portion does not cover an entire inner circumference of the coil , and characterized in that the extending portion exposes an other end of the coil to an inside of the casing .
A sortation system comprising: an object identification system including a scanner system that includes multiple scanners and wherein said multiple scanners of said object identification system are positioned to scan an object as it is falling toward a load station, characterized in that the sortation system further comprises: a plurality of automated carriages for receiving an object at the load station from the object identification system and transferring the object into one of at least two destination stations (202-216, 222-236), at least one of said automated carriages comprising: automated transport means for reciprocally moving between the at least two destination stations, and transfer means for transferring the object from the automated carriage into one of the at least two destination stations by dumping any contents of the carriage in two opposing directions that are transverse to a direction of movement of the automated carriage. an object identification system including a scanner system that includes multiple scanners and wherein said multiple scanners of said object identification system are positioned to scan an object as it is falling toward a load station, characterized in that the sortation system further comprises: a plurality of automated carriages for receiving an object at the load station from the object identification system and transferring the object into one of at least two destination stations (202-216, 222-236), at least one of said automated carriages comprising: automated transport means for reciprocally moving between the at least two destination stations, and transfer means for transferring the object from the automated carriage into one of the at least two destination stations by dumping any contents of the carriage in two opposing directions that are transverse to a direction of movement of the automated carriage. automated transport means for reciprocally moving between the at least two destination stations, and transfer means for transferring the object from the automated carriage into one of the at least two destination stations by dumping any contents of the carriage in two opposing directions that are transverse to a direction of movement of the automated carriage.
A mobile device for communication with a charge pad , the mobile device comprising: a battery to power the mobile device ; a power coil coupled to the battery , the power coil to receive a wireless charge from at least one of a plurality of charge pad power coils ; a communication device for enabling communications with the charge pad to send a command from the mobile device to the charge pad to adjust a characteristic of the wireless charge based on the command from the mobile device ; and a processor coupled to the communication device , wherein the processor is operable to actively monitor the wireless charge of the mobile device in conjunction with a current state of the mobile device under charge, to analyze the characteristic of the wireless charge in conjunction with a testing sequence of the charge pad , and to direct the communication device to send the command to the charge pad , wherein the command is based on the active monitoring and the analysis of the characteristic of the wireless charge, characterized in that the communication device is further configured to initiate the testing sequence to test a plurality of charge rates, to test the plurality of charge rates by sequentially testing a list of supported charge rates included in a compliance parameter received from the charge pad and to perform a selection of one of the plurality of charge rates for the wireless charge, wherein the characteristic of the wireless charge comprises the selection of the one of the plurality of charge rates. a power coil coupled to the battery , the power coil to receive a wireless charge from at least one of a plurality of charge pad power coils ; a communication device for enabling communications with the charge pad to send a command from the mobile device to the charge pad to adjust a characteristic of the wireless charge based on the command from the mobile device ; and a processor coupled to the communication device , wherein the processor is operable to actively monitor the wireless charge of the mobile device in conjunction with a current state of the mobile device under charge, to analyze the characteristic of the wireless charge in conjunction with a testing sequence of the charge pad , and to direct the communication device to send the command to the charge pad , wherein the command is based on the active monitoring and the analysis of the characteristic of the wireless charge, characterized in that the communication device is further configured to initiate the testing sequence to test a plurality of charge rates, to test the plurality of charge rates by sequentially testing a list of supported charge rates included in a compliance parameter received from the charge pad and to perform a selection of one of the plurality of charge rates for the wireless charge, wherein the characteristic of the wireless charge comprises the selection of the one of the plurality of charge rates.
A method for producing a bovine serum composition, comprising: a step of obtaining a buffy coat and a fraction containing leukocytes and platelets and having a heavier specific gravity than that of the buffy coat by continuous centrifugation from bovine whole blood anticoagulated with an anticoagulant, and a step of promoting and activating an interaction between leukocytes and platelets in the fraction obtained in step and activating the same by incubating the fraction at 10°C to 40°C for not less than 5 min to cause secretion or release of a humoral factor from the leukocytes and/or platelets, and performing a recoagulation treatment of blood components including the humoral factor with a re-coagulating agent, wherein the fraction with a heavier specific gravity than that of the buffy coat is a fraction having a higher leukocyte concentration than that of the buffy coat. a step of obtaining a buffy coat and a fraction containing leukocytes and platelets and having a heavier specific gravity than that of the buffy coat by continuous centrifugation from bovine whole blood anticoagulated with an anticoagulant, and a step of promoting and activating an interaction between leukocytes and platelets in the fraction obtained in step and activating the same by incubating the fraction at 10°C to 40°C for not less than 5 min to cause secretion or release of a humoral factor from the leukocytes and/or platelets, and performing a recoagulation treatment of blood components including the humoral factor with a re-coagulating agent,
A catheter system for treating a treatment site within or adjacent to a heart valve within a body of a patient , the catheter system comprising: an energy source that generates energy; an energy guide that is configured to receive energy from the energy source ; and a balloon assembly that is positionable adjacent to the treatment site , the balloon assembly including an outer balloon and an inner balloon that is positioned substantially within the outer balloon, each of the balloons having a balloon wall that defines a balloon interior , each of the balloons being configured to retain a balloon fluid within the balloon interior , the balloon wall of the inner balloon being positioned spaced apart from the balloon wall of the outer balloon to define an interstitial space therebetween; wherein a portion of the energy guide is positioned within the interstitial space between the balloons to generate plasma-induced bubble formation in the balloon fluid within the interstitial space upon the energy guide receiving energy from the energy source . an energy source that generates energy; an energy guide that is configured to receive energy from the energy source ; and a balloon assembly that is positionable adjacent to the treatment site , the balloon assembly including an outer balloon and an inner balloon that is positioned substantially within the outer balloon, each of the balloons having a balloon wall that defines a balloon interior , each of the balloons being configured to retain a balloon fluid within the balloon interior , the balloon wall of the inner balloon being positioned spaced apart from the balloon wall of the outer balloon to define an interstitial space therebetween; wherein a portion of the energy guide is positioned within the interstitial space between the balloons to generate plasma-induced bubble formation in the balloon fluid within the interstitial space upon the energy guide receiving energy from the energy source .
A computing device (100; 800) comprising: one or more electronic components (116-124) disposed within a housing (404; 804) of the computing device; a centrifugal fan unit , also disposed within the housing (404; 804) of the computing device, having a hub , a plurality of blades disposed on the hub , and a motor coupled to the hub, the motor to cause the hub to rotate about an axis such that airflow proceeds outward from the centrifugal fan unit along trajectories that are perpendicular to the axis, wherein the centrifugal fan unit is not placed in a fan housing that directs the airflow towards an outlet of the fan housing; and one or more thermal transfer units (104, 106; 202; 300; 402; 504; 600; 700) having at least first portions that are coupled to the one or more electronic components and second portions , wherein the second portions of the thermal transfer units are substantially circular, collectively substantially completely surround the centrifugal fan, and include corresponding pluralities of fins that are collinear with tangents of the centrifugal fan unit. one or more electronic components (116-124) disposed within a housing (404; 804) of the computing device; a centrifugal fan unit , also disposed within the housing (404; 804) of the computing device, having a hub , a plurality of blades disposed on the hub , and a motor coupled to the hub, the motor to cause the hub to rotate about an axis such that airflow proceeds outward from the centrifugal fan unit along trajectories that are perpendicular to the axis, wherein the centrifugal fan unit is not placed in a fan housing that directs the airflow towards an outlet of the fan housing; and one or more thermal transfer units (104, 106; 202; 300; 402; 504; 600; 700) having at least first portions that are coupled to the one or more electronic components and second portions , wherein the second portions of the thermal transfer units are substantially circular, collectively substantially completely surround the centrifugal fan, and include corresponding pluralities of fins that are collinear with tangents of the centrifugal fan unit.
An austenitic stainless steel alloy, consisting of, by weight: about 20.0% to about 21.5% chromium; about 8.5% to about 10.0% nickel; about 4.0% to about 5.0% manganese; about 0.5% to about 2.0% silicon; about 0.4% to about 0.5% carbon; about 0.2% to about 0.3% nitrogen; up to about 0.03% phosphorus; up to about 0.03% sulfur; and a balance of iron with inevitable / unavoidable impurities, wherein niobium, molybdenum, and tungsten are excluded from the alloy beyond impurity levels of less than about 0.3% each, and wherein one or more of aluminum, titanium, vanadium, cobalt and copper and any combination of two or more thereof are also excluded from the alloy beyond impurity levels of less than about 0.3%, which percentage is dependent on the particular element under consideration. about 20.0% to about 21.5% chromium; about 8.5% to about 10.0% nickel; about 4.0% to about 5.0% manganese; about 0.5% to about 2.0% silicon; about 0.4% to about 0.5% carbon; about 0.2% to about 0.3% nitrogen; up to about 0.03% phosphorus; up to about 0.03% sulfur; and a balance of iron with inevitable / unavoidable impurities, wherein niobium, molybdenum, and tungsten are excluded from the alloy beyond impurity levels of less than about 0.3% each, and wherein one or more of aluminum, titanium, vanadium, cobalt and copper and any combination of two or more thereof are also excluded from the alloy beyond impurity levels of less than about 0.3%, which percentage is dependent on the particular element under consideration.
Electric fitting for material flow coordination between several stand-alone operable conveyors for conveying piece goods, comprising the individual conveyors (1 to 4) and intelligent motor starters (M1 to M4) assigned to the individual conveyors (1 to 4), each of which join a self-sustaining entity comprising logical modules, which are independent of a higher-order logic and which can be programmed in accordance with the properties of the conveyor (1 to 4) with the functions required for material flow coordination, characterised in that the various conveyors can be connected to one another, without the need for individual adjustments, for instance in a programmable logic controller, to software and hardware.
Plug connector , having a base body with a first side designed as a plug-connection face, and a second side designed as a power-supply side, an actuating means which can be shifted along the base body , a plug-connection region , and at least one latching means , wherein the actuating means can assume a first closed position and a second open position, wherein the latching means can assume a first locking position and a second unlocking position, wherein, in the first locking position, the latching means engages at least in certain places in the plug-connection region and releases the movement region of the first closed position of the actuating means , wherein, in the second unlocking position, the latching means releases the plug-connection region and engages at least in certain places in the movement region of the first closed position of the actuating means , wherein, in its first closed position, the actuating means engages in the movement region of the second locking position of the latching means and blocks the latching means in its first locking position, wherein the plug connector has a blocking means which is arranged in the plug-connection region of the plug connector and can assume a first blocking position and a second unblocking position, characterized in that a plurality of latching means of this type each designed as a single piece are attached on the plug connector as individual solid parts.
An axial multistage expander for receiving gases from a system for generating energy, comprising: a casing ; a plurality of stages, each stage including a stator part and a rotor part ; a flowpath ; a shaft ; and a support mechanism connected to the casing and configured to rotatably support the rotor parts , wherein each stator part is connected to the casing and has plural statoric airfoils , and each rotor part is configured to rotate relative to the stator part and has plural rotoric airfoils , the rotoric airfoils of the plurality of stages being configured to rotate about the same shaft , and the statoric airfoils of the plurality of stages together with the rotoric airfoils of the plurality of stages forming the flowpath for the gases passing through the multistage expander ; and wherein rotoric airfoils of the first stage of the plurality of stages are configured to rotate with a speed different from rotoric airfoils of the other stages by means of a gearbox connected between the rotoric airfoils of the first stage and the shaft of the expander such that the rotoric airfoils of the first stage are concentric with the shaft to which the remaining rotoric airfoils of the other stages are fixedly attached, the gearbox being provided inside the casing ; and the stator parts , the rotor parts and the support mechanism of the plurality of stages are provided inside the casing , wherein the gearbox is epicyclic and comprises a central gear connected to the shaft , the shaft being configured to rotate together with rotor parts of the plurality of stages except the first stage; planet gears concentrically and rotatably connected to the central gear and mounted on a movable carrier which itself rotates relative to the central gear ; and an outer ring gear concentrically and rotatably connected to the planet gears and configured to rotate the rotoric airfoils of the first stage while the shaft is configured to rotate the rotoric airfoils of the other stages, the rotoric airfoils of the first stage being directly connected to the outer ring gear . a casing ; a plurality of stages, each stage including a stator part and a rotor part ; a flowpath ; a shaft ; and a support mechanism connected to the casing and configured to rotatably support the rotor parts ,
A V-spring comprising: - a plurality of V-bodies each with a short leg and a long leg , - each V-body having a connecting end or connecting portion for each pair of long leg and short leg having an apex that serves as a base or origin , a length of the long leg extends further outwardly in an axial direction away from the base or origin, axially relative to a spring ring centerline, than a length of the short leg , characterized in that : - the long leg extends about 5% to 45% longer in the axial direction than the short leg , - each short leg has a base near or at the apex having a width and a terminal end edge having a width and wherein the width of the base is larger than the width of the terminal end edge of the short leg , - each long leg has a base near or at the apex having a width and a terminal end edge having a width and wherein the width of the base is larger than the width of the terminal end edge of the long leg , - the short leg and the long leg are configured to bias an inside flange and an outside flange of a sealing element away from one another. - a plurality of V-bodies each with a short leg and a long leg , - each V-body having a connecting end or connecting portion for each pair of long leg and short leg having an apex that serves as a base or origin , a length of the long leg extends further outwardly in an axial direction away from the base or origin, axially relative to a spring ring centerline, than a length of the short leg , - the long leg extends about 5% to 45% longer in the axial direction than the short leg , - each short leg has a base near or at the apex having a width and a terminal end edge having a width and wherein the width of the base is larger than the width of the terminal end edge of the short leg , - each long leg has a base near or at the apex having a width and a terminal end edge having a width and wherein the width of the base is larger than the width of the terminal end edge of the long leg , - the short leg and the long leg are configured to bias an inside flange and an outside flange of a sealing element away from one another.
Wire netting (10a; 10d; 10e), in particular safety net, with a plurality of helices (12a; 12d; 12e) which are braided with one another and at least one of which is manufactured of at least one single wire, a wire bundle, a wire strand, a wire rope and/or another longitudinal element (16a; 16d; 16e) with at least one wire (18a; 18d; 18e), and which comprises at least one first leg (20a; 20d; 20e), at least one second leg (22a; 22d; 22e) and at least one bending region (24a; 24d; 24e) connecting the first leg (20a; 20d; 20e) and the second leg (22a; 22d; 22e) to one another, wherein, in a longitudinal view in parallel to a longitudinal direction (28a; 28d; 28e) of the helix (12a; 12d; 12e), the bending region (24a; 24d; 24e) comprises at least one bending zone (34a; 34d; 34e) with a bending curvature and at least one first transition zone (36a; 36d; 36e) which is connected to the first leg (20a; 20d; 20e) and has a first transition curvature that differs from the bending curvature, wherein the first leg (20a; 20b; 20c) and/or the second leg (22a; 22b; 22c) at least section-wise follow/s a straight course, and wherein the wire (18a; 18b; 18c) is at least partially made of a high-tensile steel having a tensile strength of at least 800 N mm -2 . wherein, in a longitudinal view in parallel to a longitudinal direction (28a; 28d; 28e) of the helix (12a; 12d; 12e), the bending region (24a; 24d; 24e) comprises at least one bending zone (34a; 34d; 34e) with a bending curvature and at least one first transition zone (36a; 36d; 36e) which is connected to the first leg (20a; 20d; 20e) and has a first transition curvature that differs from the bending curvature, wherein the first leg (20a; 20b; 20c) and/or the second leg (22a; 22b; 22c) at least section-wise follow/s a straight course, and wherein the wire (18a; 18b; 18c) is at least partially made of a high-tensile steel having a tensile strength of at least 800 N mm -2 .
Commercial vehicle trailer, in particular a refrigerated semi-trailer or refrigerated trailer, comprising a cooling device for cooling a cargo space, which device has a user interface for inputting and displaying at least one operating variable, characterized in that the commercial vehicle trailer has a control unit which is arranged outside an electronic brake control means and is coupled to at least one remote action unit , the user interface and the control unit being connected to one another via a communication interface , the user interface being designed for data output from the control unit and data input to the control unit .