mhurhangee/patent-ind-claim-en huggingface dataset:
An earthquake protective server rack for housing servers, said server rack comprising: a lower server rack frame , the lower server rack frame comprising a first linear modules that permits horizontal movement along a first axis and a second linear module that permits horizontal movement along a second axis, the first axis and the second axis being perpendicular axes; an upper server rack frame mounted upon the lower server rack frame , the upper server rack frame comprising a housing for at least one server; wherein the first and the second linear modules (30/36) are configured to permit relative displacement between the upper server rack frame and the lower server rack frame ; wherein the first linear module is mounted upon the second linear module ; and said server rack characterized by further comprising: a dampening layer , said dampening layer being situated between said first linear module and said second linear module . a lower server rack frame , the lower server rack frame comprising a first linear modules that permits horizontal movement along a first axis and a second linear module that permits horizontal movement along a second axis, the first axis and the second axis being perpendicular axes; an upper server rack frame mounted upon the lower server rack frame , the upper server rack frame comprising a housing for at least one server; wherein the first and the second linear modules (30/36) are configured to permit relative displacement between the upper server rack frame and the lower server rack frame ; wherein the first linear module is mounted upon the second linear module ; and said server rack characterized by further comprising: a dampening layer , said dampening layer being situated between said first linear module and said second linear module .
An aircraft control surface drive mechanism that is provided as a link mechanism comprising a hydraulically operated actuator and a reaction link connected to the actuator , and that drives a control surface of an aircraft, wherein the actuator includes a plurality of cylinder units each including a cylinder and a rod , and is pivotably attached, at a first end thereof, to the control surface or a control surface-side member attached to the control surface , and the reaction link is pivotably attached, at a first end thereof, to a fulcrum shaft rotatably supporting the control surface , characterized in that the reaction link is further pivotably attached, at a second end thereof, to a second end of the actuator between the plurality of cylinder units .
A hard capsule shell, CAPSSHELL, comprising 95 to 98.7 wt% of pullulan; 0.2 to 0.5 wt% of low acyl gellan; 0.1 to 0.5 wt% of high acyl gellan; 1 to 2 wt% of KCl; with the wt% being based on the dry capsule weight. 95 to 98.7 wt% of pullulan; 0.2 to 0.5 wt% of low acyl gellan; 0.1 to 0.5 wt% of high acyl gellan; 1 to 2 wt% of KCl;
System comprising at least two floor treatment apparatuses for treating a surface of an interior space in an automatically controlled manner on the basis of defined adjustment parameters of the relevant floor treatment apparatus , each of the floor treatment apparatuses having at least one working element , specifically a floor treatment element driven by an electric motor, and at least one detection device for detecting at least one detection parameter of the floor treatment apparatus and/or a surroundings of the floor treatment apparatus , the system having a database which is jointly assigned to the floor treatment apparatuses and in which detection parameters of at least two floor treatment apparatuses are stored in association with the adjustment parameters of the relevant floor treatment apparatus , characterised in that the detection parameter is a property of a surroundings, specifically a type of the surface to be treated as hard floor or carpet, and/or a material of the surface to be treated and/or a structure of the surface to be treated, specifically a hard floor or carpet, and/or a power consumption of an electric motor of the floor treatment apparatus , and the adjustment parameter of the floor treatment apparatus being a suction flow of a motor-blower unit and/or a presence of an attachment of the floor treatment apparatus and/or an adjustment of a suction mouth of an attachment and/or of a sealing element of an attachment.
A device for emptying granular catalyst material from a reactor , - with a suction hose having a lower open suction end , which is located in the reactor , and an upper outlet end , which is connected to a suction device and is located outside the reactor , - with a percussion machine , which is connected in the vicinity of the suction end to the suction hose , which has a motor having an output shaft and a percussion tool rotatable about the output shaft , wherein the percussion tool has a central part , which is connected to the output shaft and has accommodating openings , and at least two arms disposed on this central part , wherein each arm has at least one chain link which is disposed in a freely articulated manner in one of the accommodating openings , in a non-operating state, the arms hang freely downward from the central part , and in an operating state of the device, the arms are located transversely to the shaft axis, wherein the arms are always located underneath the suction end and, in the operating state, at least partially sweep across the area of the suction end when moving, but do not contact the suction end. - with a suction hose having a lower open suction end , which is located in the reactor , and an upper outlet end , which is connected to a suction device and is located outside the reactor , - with a percussion machine , which is connected in the vicinity of the suction end to the suction hose , which has a motor having an output shaft and a percussion tool rotatable about the output shaft , wherein the percussion tool has a central part , which is connected to the output shaft and has accommodating openings , and at least two arms disposed on this central part , wherein each arm has at least one chain link which is disposed in a freely articulated manner in one of the accommodating openings , in a non-operating state, the arms hang freely downward from the central part , and in an operating state of the device, the arms are located transversely to the shaft axis, wherein the arms are always located underneath the suction end and, in the operating state, at least partially sweep across the area of the suction end when moving, but do not contact the suction end.
A method for estimating a wind speed at a wind turbine, the wind turbine comprising a rotor carrying a set of wind turbine blades, each wind turbine blade having a variable pitch angle, the method comprising the steps of: - obtaining a rotational speed, ω, of the rotor, - obtaining a pitch angle, θ, of the wind turbine blades, the method being characterised by : - deriving a minimum tip speed ratio, λ min , based on the obtained pitch angle, θ, the minimum tip speed ratio, λ min , defining a limit between a stable and a potentially unstable control region, wherein the stable control region is a control region in which a wind speed is estimated in a stable manner, and the potentially unstable control region is a control region in which an estimation of a wind speed may become unstable; - selecting an initial tip speed ratio, λ init , where λ init >λ min , ; - deriving an initial estimated wind speed, v init , based on the selected initial tip speed ratio, λ init , and the obtained rotational speed, ω, and - iteratively deriving an estimated wind speed, v est , based on the obtained rotational speed, ω, and the obtained pitch angle, θ, and using the derived initial estimated wind speed, v init , as a starting point. - obtaining a rotational speed, ω, of the rotor, - obtaining a pitch angle, θ, of the wind turbine blades, the method being characterised by : - deriving a minimum tip speed ratio, λ min , based on the obtained pitch angle, θ, the minimum tip speed ratio, λ min , defining a limit between a stable and a potentially unstable control region, wherein the stable control region is a control region in which a wind speed is estimated in a stable manner, and the potentially unstable control region is a control region in which an estimation of a wind speed may become unstable; - selecting an initial tip speed ratio, λ init , where λ init >λ min , ; - deriving an initial estimated wind speed, v init , based on the selected initial tip speed ratio, λ init , and the obtained rotational speed, ω, and - iteratively deriving an estimated wind speed, v est , based on the obtained rotational speed, ω, and the obtained pitch angle, θ, and using the derived initial estimated wind speed, v init , as a starting point. - deriving a minimum tip speed ratio, λ min , based on the obtained pitch angle, θ, the minimum tip speed ratio, λ min , defining a limit between a stable and a potentially unstable control region, wherein the stable control region is a control region in which a wind speed is estimated in a stable manner, and the potentially unstable control region is a control region in which an estimation of a wind speed may become unstable; - selecting an initial tip speed ratio, λ init , where λ init >λ min , ; - deriving an initial estimated wind speed, v init , based on the selected initial tip speed ratio, λ init , and the obtained rotational speed, ω, and - iteratively deriving an estimated wind speed, v est , based on the obtained rotational speed, ω, and the obtained pitch angle, θ, and using the derived initial estimated wind speed, v init , as a starting point.
Method for monitoring failsafe operation of at least one first (S1) and one second (S2) sensor, which operate independently of each other, wherein the first sensor (S1) is operated as an incremental encoder for ascertaining a rotational speed (n) of an electric motor (M) and the second sensor (S2) is operated as a Hall sensor for ascertaining the rotational speed (n) of the electric motor (M), wherein the rotational speed (n) is in turn used for failsafe rotor position determination in the case of the electric motor (M), wherein the first sensor (S1) supplies a first output signal (A1) as a read-in counting pulse (Z i ) and the second sensor (S2) supplies a second output signal (A2) as a read-in segment change (S i ) , characterised in that - a first product (P a ) of a first current count value (Z1) of the read-in counting pulses (Z i ) of the first output signal (A1) and a maximum count value (Z2max) of the second output signal (A1) and - a second product (P b ) of a second current count value (Z2) of the read-in segment changes (S i ) of the second output signal (A2) and a maximum count value (Z1max) of the first output signal (A1) is formed, wherein the maximum count values (Z1max, Z2max) are ascertained with an initialisation run during an initial operation, wherein the electric motor is actuated such that it executes exactly one rotation, and - the two products (P a , P b ) are cyclically checked for equality, and - for the case where the check is negative, a fault indication (F) is generated. - a first product (P a ) of a first current count value (Z1) of the read-in counting pulses (Z i ) of the first output signal (A1) and a maximum count value (Z2max) of the second output signal (A1) and - a second product (P b ) of a second current count value (Z2) of the read-in segment changes (S i ) of the second output signal (A2) and a maximum count value (Z1max) of the first output signal (A1) is formed, wherein the maximum count values (Z1max, Z2max) are ascertained with an initialisation run during an initial operation, wherein the electric motor is actuated such that it executes exactly one rotation, and - the two products (P a , P b ) are cyclically checked for equality, and - for the case where the check is negative, a fault indication (F) is generated.
Method for manufacturing lactide, whereby crude lactide, being prepared by means of depolymerization of lactic acid oligomers, is purified by means of a distillation step, characterized in that , prior to the distillation step, the prepared crude lactide is maintained for a period of at least 5 hours in a reaction vessel at a temperature between 97°C and 200°C.
An apparatus for supplying cables to robots at non-static locations, comprising: a base platform ; a work platform positioned above the base platform for supporting one or more humans; a plurality of robots supported on the base platform independently of the work platform ; and a cable carrier system , positioned above the base platform and underneath the work platform for providing cables to the robots . a base platform ; a work platform positioned above the base platform for supporting one or more humans; a plurality of robots supported on the base platform independently of the work platform ; and a cable carrier system , positioned above the base platform and underneath the work platform for providing cables to the robots .
An audio classifying method, comprising: identifying a content type of a short-term segment of an audio signal, wherein the content type includes low-level audio elements; and identifying a context type of the short-term segment at least partly based on the content type as identified, wherein the context type includes high-level audio genres and indicates a long-term type of the audio signal, wherein the operation of classifying the content type comprises classifying the short-term segment into the content type VoIP speech or the content type non-VoIP speech; and the operation of identifying the context type comprises classifying the short-term segment into the context type VoIP or the context type non-VoIP based on confidence values of VoIP speech and non-VoIP speech, wherein a confidence value represents the matched level between a to-be-identified content and a target type. identifying a content type of a short-term segment of an audio signal, wherein the content type includes low-level audio elements; and identifying a context type of the short-term segment at least partly based on the content type as identified, wherein the context type includes high-level audio genres and indicates a long-term type of the audio signal, wherein the operation of classifying the content type comprises classifying the short-term segment into the content type VoIP speech or the content type non-VoIP speech; and the operation of identifying the context type comprises classifying the short-term segment into the context type VoIP or the context type non-VoIP based on confidence values of VoIP speech and non-VoIP speech, wherein a confidence value represents the matched level between a to-be-identified content and a target type.
A gear unit with an input shaft mounted in a flange part by means of a bearing , wherein the input shaft is formed to be hollow, wherein the input shaft has an axially continuous cutout arranged centrally in the input shaft , wherein the cutout of the input shaft is sealed off by means of a cover part , wherein the bearing is received in the flange part , wherein the flange part has at least one cutout which passes through the flange part , wherein an axial region covered by the through-cutout of the flange part at least overlaps with an axial region covered by the bearing , characterised in that internal gearing of a coupling sleeve is engaged with external gearing of the input shaft and with gearing of a sun wheel of the gear unit, wherein the cover part has a metal base body provided with a plastics-material coating .
Machine for dispensing support means intended to be impregnated by an odour, comprising means for storing support means , means for dispensing the support means and delivering to a person, means for receiving means for emanating odour, means for impregnating the support means with the odour, characterised by the fact that the dispensing means and delivery means comprise means for matching i) the impregnated support means and ii) the odour to be selected, and by the fact that the matching means of the support means and the odour to be selected comprise means for marking the support means , said marking means comprising embossing means .
A device for positioning a module of modular bed for machine tools, wherein the modular bed comprises a reference module , with two longitudinal members equipped with guides, which are parallel and arranged on a horizontal plane, and a module to be installed which is spatially aligned with the reference module , the positioning device comprising: - a liquid-based leveling device which comprises at least three positioning bulbs at least one reference bulb , the three positioning bulbs and the reference bulb being mutually in fluid communication, so as to constitute a system of communicating vessels, the three positioning bulbs being associable with the module to be installed and the reference bulb being associable with the reference module , so as to allow an alignment of the modules according to three degrees of freedom (Z,a,b); - a base support which comprises a first plate and supporting feet which are connected to the first plate , the feet being each adjustable independently in extension with respect to the first plate so that the base support allows a spatial movement of the module to be installed at least along said three degrees of freedom (Z,a,b). - a liquid-based leveling device which comprises at least three positioning bulbs at least one reference bulb , the three positioning bulbs and the reference bulb being mutually in fluid communication, so as to constitute a system of communicating vessels, the three positioning bulbs being associable with the module to be installed and the reference bulb being associable with the reference module , so as to allow an alignment of the modules according to three degrees of freedom (Z,a,b); at least three positioning bulbs at least one reference bulb , the three positioning bulbs and the reference bulb being mutually in fluid communication, so as to constitute a system of communicating vessels, the three positioning bulbs being associable with the module to be installed and the reference bulb being associable with the reference module , so as to allow an alignment of the modules according to three degrees of freedom (Z,a,b); - a base support which comprises a first plate and supporting feet which are connected to the first plate , the feet being each adjustable independently in extension with respect to the first plate so that the base support allows a spatial movement of the module to be installed at least along said three degrees of freedom (Z,a,b). a first plate and supporting feet which are connected to the first plate , the feet being each adjustable independently in extension with respect to the first plate so that the base support allows a spatial movement of the module to be installed at least along said three degrees of freedom (Z,a,b).
A photoelectric conversion device comprising: a photoelectric conversion layer including a first organic semiconductor (A) of a first conductive type and a second organic semiconductor (B) of a second conductive type, and being configured by addition of a third organic semiconductor (C1, C2) made of a derivative of one of the first and second organic semiconductors (A, B); and first and second electrodes provided with the photoelectric conversion layer in between, characterized in that the first organic semiconductor (A) is a quinacridone derivative, the second organic semiconductor (B) is one of subphthalocyanine, fullerene or a thiophene derivative, and the third organic semiconductor (C1, C2) is a different quinacridone derivative from the first organic semiconductor (A). a photoelectric conversion layer including a first organic semiconductor (A) of a first conductive type and a second organic semiconductor (B) of a second conductive type, and being configured by addition of a third organic semiconductor (C1, C2) made of a derivative of one of the first and second organic semiconductors (A, B); and first and second electrodes provided with the photoelectric conversion layer in between, characterized in that the first organic semiconductor (A) is a quinacridone derivative, the second organic semiconductor (B) is one of subphthalocyanine, fullerene or a thiophene derivative, and the third organic semiconductor (C1, C2) is a different quinacridone derivative from the first organic semiconductor (A).
A method for detecting a target molecule, comprising forming a capturing complex comprising the target molecule; and binding the capturing complex with a signal amplifier, wherein the capturing complex has a net electrical charge; the signal amplifier has affinity to the capturing complex and has alike net electrical charge of the net electrical charge of the capturing complex, wherein the method further comprises forming the capturing complex with a recognizing molecule which is able to capture the target molecule with affinity, wherein the recognizing molecule comprises a partially neutral single-stranded oligonucleotide comprising at least one electrically neutral nucleotide and at least one negatively charged nucleotide, wherein the method further comprises monitoring an electrical change occurring due to the binding of the capturing complex and the signal amplifier, and wherein the capturing complex is attached on a solid surface or the capturing complex is spaced apart from the solid surface by a distance of about 0 to about 10 nm.
A venting tank for a cooling system of an automotive vehicle, the venting tank comprising: - a main wall , which defines an inner venting volume (V) of the venting tank, the main wall comprising a bottom and a cover opposite one another, - intake means for a heat transfer fluid to be vented within the interior venting volume, and - discharge means for discharging the vented heat transfer fluid outside the inner venting volume, the venting tank further comprises a heat transfer fluid duct , which crosses through the cover and the bottom and comprises an inner segment extending within the inner venting volume (V) from the cover to the bottom , and whereof an inner volume (V29) is separated from the inner venting volume, characterized in that said intake means provides a first fluid path (F2) from the heat transfer fluid duct to the inner venting volume (V), wherein said discharge means provides a second fluid path (F3) from the inner venting volume (V) to the heat transfer fluid duct , wherein the second fluid path is separate from the first fluid path, and wherein said inner segment is configured to form a bypass inside the venting tank so that only a fraction of a flow of the heat transfer fluid is conducted into the inner venting volume of the venting tank to be degassed, the other fraction passing through the inner segment without being degassed. - a main wall , which defines an inner venting volume (V) of the venting tank, the main wall comprising a bottom and a cover opposite one another, - intake means for a heat transfer fluid to be vented within the interior venting volume, and - discharge means for discharging the vented heat transfer fluid outside the inner venting volume, the venting tank further comprises a heat transfer fluid duct , which crosses through the cover and the bottom and comprises an inner segment extending within the inner venting volume (V) from the cover to the bottom , and