mhurhangee/patent-ind-claim-en huggingface dataset:
A labelling machine comprising: a supply spool support for supporting a spool of label carrying web, a take up spool support for supporting a label take up spool adapted to take up a portion of web, and a first motive apparatus for transporting the label carrying web along a web path between the supply spool support to the take up spool support, and a controller configured to provide a control signal to the first motive apparatus, characterized in that the controller is further configured such that the controller provides a control signal to the first motive apparatus to accelerate the first motive apparatus, and therewith the label carrying web, between a first speed and a second speed by providing a first control signal to the first motive apparatus to command the first motive apparatus to accelerate to a predetermined first intermediate speed intermediate the first and second speeds for a first predetermined time period, then a second control signal to command the first motive apparatus to accelerate to a second predetermined intermediate speed intermediate the first intermediate speed and the second speed for a second predetermined time period, and then a third control signal to command the first motive apparatus to accelerate to the second speed for a third predetermined time period. a supply spool support for supporting a spool of label carrying web, a take up spool support for supporting a label take up spool adapted to take up a portion of web, and a first motive apparatus for transporting the label carrying web along a web path between the supply spool support to the take up spool support, and a controller configured to provide a control signal to the first motive apparatus, characterized in that the controller is further configured such that the controller provides a control signal to the first motive apparatus to accelerate the first motive apparatus, and therewith the label carrying web, between a first speed and a second speed by providing a first control signal to the first motive apparatus to command the first motive apparatus to accelerate to a predetermined first intermediate speed intermediate the first and second speeds for a first predetermined time period, then a second control signal to command the first motive apparatus to accelerate to a second predetermined intermediate speed intermediate the first intermediate speed and the second speed for a second predetermined time period, and then a third control signal to command the first motive apparatus to accelerate to the second speed for a third predetermined time period.
A shock key comprising: - an electric motor comprising a rotor and a stator; - a rebound type impact mechanism - means for controlling the power supply of said motor comprising means for regulating the power supply current of said motor; said rotor of said motor being directly linked to said impact mechanism, characterised in that said means for controlling the power supply of said motor are configured to output to said means for regulating, during a screwing or unscrewing operation, a setpoint of power supply current of the motor inducing the generation of a predetermined electromagnetic torque by said motor, and in that said means for controlling the power supply of said motor are configured to power said motor in the working direction including during the rebound of the rebound impact mechanism, said motor being a multi-phase permanent magnet synchronous motor and said means for controlling the power supply of said motor using a vector-type control. - an electric motor comprising a rotor and a stator; - a rebound type impact mechanism - means for controlling the power supply of said motor comprising means for regulating the power supply current of said motor; said rotor of said motor being directly linked to said impact mechanism, characterised in that said means for controlling the power supply of said motor are configured to output to said means for regulating, during a screwing or unscrewing operation, a setpoint of power supply current of the motor inducing the generation of a predetermined electromagnetic torque by said motor, and in that said means for controlling the power supply of said motor are configured to power said motor in the working direction including during the rebound of the rebound impact mechanism, said motor being a multi-phase permanent magnet synchronous motor and said means for controlling the power supply of said motor using a vector-type control.
Tail rotor in a helicopter with a drive , wherein the drive comprises a permanently excited transverse flux machine in a duplex arrangement, of such a nature that there is, arranged between two stators each of which has a ring winding system , a disk-shaped rotor which has permanent magnets and on the outer perimeter of which are arranged the propeller blades of the tail rotor , wherein the bearing concept provides a common radial bearing mounting and a common axial bearing mounting for the drive and the tail rotor , wherein the axial bearing mounting of the tail rotor is a regulated magnetic axial bearing mounting which is realised by a zero phase-sequence system of the three-phase a.c. system of the relevant ring winding system of the stators , wherein the two zero phase-sequence systems of the three-phase a.c. systems of the respective ring winding systems are regulated independently from one another by the attractive force being controlled according to magnitude and sign by the weighting of the current of the zero phase-sequence system.
A process control system for an automated plant comprising: a plurality of displays for displaying a process monitoring display of the automated plant on one or more devices, the one or more devices running a plurality of device platforms; a database connectable to one or more of sensors (225a-g; 235) or control elements in the automated plant , the database comprising process data; a model repository comprising at least platform information, an initial visual applications model generated on a first one of the plurality of displays , and another visual applications model adapted for use on another one of the plurality of displays , wherein the platform information comprises information about the plurality of displays for the device platform, the initial visual applications model comprises a plurality of view entities, and at least one of process control metadata for controlling the control elements or measuring metadata defining measurements receivable from the plurality of sensors (225a-g; 235), and the other visual applications model generated from the initial visual applications model using the platform information; a processor connected to the database and the display ; and a display processor for generating for the other one of the plurality of displays the generated other visual applications model. a plurality of displays for displaying a process monitoring display of the automated plant on one or more devices, the one or more devices running a plurality of device platforms; a database connectable to one or more of sensors (225a-g; 235) or control elements in the automated plant , the database comprising process data; a model repository comprising at least platform information, an initial visual applications model generated on a first one of the plurality of displays , and another visual applications model adapted for use on another one of the plurality of displays , wherein the platform information comprises information about the plurality of displays for the device platform, the initial visual applications model comprises a plurality of view entities, and at least one of process control metadata for controlling the control elements or measuring metadata defining measurements receivable from the plurality of sensors (225a-g; 235), and the other visual applications model generated from the initial visual applications model using the platform information; a processor connected to the database and the display ; and a display processor for generating for the other one of the plurality of displays the generated other visual applications model.
A tactile sensor , comprising a sensor part (S) that is formed in a substrate (B), wherein the sensor part (S) includes: a frame that includes a reference surface coming in contact with a measuring object (O); a contact that is disposed so that a tip of the contact projects from the reference surface ; a suspension that supports the contact on the frame ; and a displacement detector that detects displacement of the contact , wherein the suspension includes: a first suspension that allows the contact to be displaced vertically to the reference surface ; a second suspension that allows the contact to be displaced horizontally to the reference surface , and an island that is disposed between the first suspension and the second suspension ; and wherein the displacement detector includes: a first strain detection element that detects strain of the first suspension ; and a second strain detection element that detects strain of the second suspension . a sensor part (S) that is formed in a substrate (B), wherein the sensor part (S) includes: a frame that includes a reference surface coming in contact with a measuring object (O); a contact that is disposed so that a tip of the contact projects from the reference surface ; a suspension that supports the contact on the frame ; and a displacement detector that detects displacement of the contact , a frame that includes a reference surface coming in contact with a measuring object (O); a contact that is disposed so that a tip of the contact projects from the reference surface ; a suspension that supports the contact on the frame ; and a displacement detector that detects displacement of the contact , wherein the suspension includes: a first suspension that allows the contact to be displaced vertically to the reference surface ; a second suspension that allows the contact to be displaced horizontally to the reference surface , and an island that is disposed between the first suspension and the second suspension ; and a first suspension that allows the contact to be displaced vertically to the reference surface ; a second suspension that allows the contact to be displaced horizontally to the reference surface , and an island that is disposed between the first suspension and the second suspension ; and wherein the displacement detector includes: a first strain detection element that detects strain of the first suspension ; and a second strain detection element that detects strain of the second suspension . a first strain detection element that detects strain of the first suspension ; and a second strain detection element that detects strain of the second suspension .
An inflatable flotation device designed to be used with an aircraft , comprising: a main body having a distal end and a proximal end configured to be positioned nearer to the aircraft than the distal end, the main body configured to inflate to provide an evacuation route to a ground surface upon which the aircraft is resting; an extendable portion coupled to the proximal end of the main body and having a plurality of segments coupled together; a weighted object coupled to the extendable portion and configured to cause the extendable portion to extend in response to a distance between the proximal end of the main body and the ground surface upon which the aircraft is resting being equal to or greater than a threshold distance; and at least one thread configured to be used to lace at least some of the plurality of segments together, wherein the weighted object is coupled to the at least one thread and configured to loosen the at least one thread to allow the extendable portion to extend in response to the distance between the proximal end of the main body and the ground surface upon which the aircraft is resting being equal to or greater than the threshold distance, the threshold distance being a distance at which the weighted object may be positioned above the ground surface such that the gravity acts on the weighted object, exerting a force on the extendable portion, characterised in that the weighted object includes a canopy pouch storing a canopy configured to be removed and fastened to the main body to provide shade. a main body having a distal end and a proximal end configured to be positioned nearer to the aircraft than the distal end, the main body configured to inflate to provide an evacuation route to a ground surface upon which the aircraft is resting; an extendable portion coupled to the proximal end of the main body and having a plurality of segments coupled together; a weighted object coupled to the extendable portion and configured to cause the extendable portion to extend in response to a distance between the proximal end of the main body and the ground surface upon which the aircraft is resting being equal to or greater than a threshold distance; and at least one thread configured to be used to lace at least some of the plurality of segments together, wherein the weighted object is coupled to the at least one thread and configured to loosen the at least one thread to allow the extendable portion to extend in response to the distance between the proximal end of the main body and the ground surface upon which the aircraft is resting being equal to or greater than the threshold distance, the threshold distance being a distance at which the weighted object may be positioned above the ground surface such that the gravity acts on the weighted object, exerting a force on the extendable portion, characterised in that the weighted object includes a canopy pouch storing a canopy configured to be removed and fastened to the main body to provide shade.
A shelving system for an appliance , the shelving system comprising: a cabinet liner defining opposing sidewalls , a rear wall , a top wall and a bottom wall defining an interior and opposing first and second sidewall adapters each coupled to the opposing sidewalls of the cabinet liner , the first and second sidewall adapters each comprising a body defining a plurality of vertically spaced ledges and a base plate coupled to each of the ledges , characterised in that the base plate defines at least one aperture configured to receive a tab on a glide assembly and in that the shelving system further comprises: at least two adjustable fasteners coupled to the cabinet liner , the at least two adjustable fasteners configured to mount one of the sidewall adapters to the cabinet liner , wherein a shelf is coupled to the glide assemblies such that the shelf is slideable fore and aft and at least one magnet disposed within the base plate and configured to attract the glide assembly . a cabinet liner defining opposing sidewalls , a rear wall , a top wall and a bottom wall defining an interior and opposing first and second sidewall adapters each coupled to the opposing sidewalls of the cabinet liner , the first and second sidewall adapters each comprising a body defining a plurality of vertically spaced ledges and a base plate coupled to each of the ledges , at least two adjustable fasteners coupled to the cabinet liner , the at least two adjustable fasteners configured to mount one of the sidewall adapters to the cabinet liner , wherein a shelf is coupled to the glide assemblies such that the shelf is slideable fore and aft and at least one magnet disposed within the base plate and configured to attract the glide assembly .
A complex containing a ligand and a metal or metal ion, wherein the complex has the structure of formula (II): wherein R 1 , R 2 , R 3 , and R 4 are each independently an alkyl (C≤12) , aryl (C≤12) , or aralkyl (C≤12) group, or a substituted version of any of these groups; R 5 is a hydrogen atom or an alkyl (C≤12) , aryl (C≤12) , or aralkyl (C≤12 ) group, or a substituted version of any of these groups; each Z, independently, is CR 6 , N or P; R 6 is a hydrogen atom or an alkyl (C≤12) , aryl (C≤12) , aralkyl (C≤12) , or alkoxyl group or a substituted version of any of these groups, or an amino or hydroxyl group; D is NR 7 or CR 9 R 10 ; R 7 , R 9 and R 10 are each independently a hydrogen atom, or an alkyl (C≤12) , aryl (C≤12) , or aralkyl (C≤12) group, or a substituted version of any of these groups; M is nickel (Ni), a nickel ion or a nickel salt; and X is a hydrogen atom. wherein R 1 , R 2 , R 3 , and R 4 are each independently an alkyl (C≤12) , aryl (C≤12) , or aralkyl (C≤12) group, or a substituted version of any of these groups; R 5 is a hydrogen atom or an alkyl (C≤12) , aryl (C≤12) , or aralkyl (C≤12 ) group, or a substituted version of any of these groups; each Z, independently, is CR 6 , N or P; R 6 is a hydrogen atom or an alkyl (C≤12) , aryl (C≤12) , aralkyl (C≤12) , or alkoxyl group or a substituted version of any of these groups, or an amino or hydroxyl group; D is NR 7 or CR 9 R 10 ; R 7 , R 9 and R 10 are each independently a hydrogen atom, or an alkyl (C≤12) , aryl (C≤12) , or aralkyl (C≤12) group, or a substituted version of any of these groups; M is nickel (Ni), a nickel ion or a nickel salt; and X is a hydrogen atom.
A system for detecting and reducing a population of a colony of crawling insects, the system comprising: an insect station comprising a lower housing member , an upper housing member connected directly or by one or more intermediate members to the lower housing member , and an adhesive positioned therebetween at an aperture in the lower housing member ; and characterized in that a secondary element is positioned at least partially below the lower housing member of the insect station and configured to kill one or more members of the population of the crawling insect colony, and the lower housing member is curved or of varying contour. an insect station comprising a lower housing member , an upper housing member connected directly or by one or more intermediate members to the lower housing member , and an adhesive positioned therebetween at an aperture in the lower housing member ; and characterized in that a secondary element is positioned at least partially below the lower housing member of the insect station and configured to kill one or more members of the population of the crawling insect colony, and the lower housing member is curved or of varying contour.
A method for removing ocean bottom and/or geology related contamination, the method comprising: receiving first measurements corresponding to first seismic sensors mounted on a first source array; receiving second measurements corresponding to second seismic sensors mounted away from the first source array; processing the second measurements to determine a contamination model related to the ocean bottom and geology; removing the contamination model from the first measurements to obtain cleaned data; and calculating a source signature of the first source array based on the cleaned data. receiving first measurements corresponding to first seismic sensors mounted on a first source array; receiving second measurements corresponding to second seismic sensors mounted away from the first source array; processing the second measurements to determine a contamination model related to the ocean bottom and geology; removing the contamination model from the first measurements to obtain cleaned data; and calculating a source signature of the first source array based on the cleaned data.
A method for identifying a plurality of immunoglobulin (Ig) heavy and Ig light chain pairs in a sample comprising antibody secreting cells (ASCs), comprising, subjecting the sample to conditions suitable for expansion of one or more of the ASCs to form an expanded sample; partitioning the expanded sample into a plurality of individual vessels to provide a plurality of sample subpopulations; subjecting one or more of the sample subpopulations to conditions suitable for expansion of one or more of the ASCs in the one or more of the sample subpopulations; to form one or more expanded sample subpopulations; sequencing the Ig heavy and Ig light chain nucleic acid in each sample subpopulation to determine the identity of the Ig heavy and light Ig chains in each sample subpopulation; determining the observed distribution of each of the Ig heavy and Ig light chains across the sample subpopulations and calculating statistical probabilities that the observed distributions of Ig heavy and Ig light chain pairs in the sample subpopulations are independent from one another; and identifying the plurality of Ig heavy and Ig light chain pairs based on the calculated statistical probabilities.
An ultrasonic meter having a meter housing in which an ultrasonic transducer is fixed, the ultrasonic transducer being fixed to the meter housing by means of a casting compound converted from the liquid state into an elastic or solid state, and the casting compound being supported on a circumferential surface region of the ultrasonic transducer and on the meter housing , wherein the ultrasonic transducer is fixed with an angle (α) of its transducer surface to a detection plane for objects in the meter housing , characterised in that the angle (α) is 1° to 20°, and in that the ultrasonic meter has a resonant frequency of 300 to 500 kHz, and/or in that the casting compound causes an attenuation of the ultrasonic waves of at least 40 dB at a temperature of approximately - 20°C.
A method of controlling food temperature, the method comprising the steps of: - heating food to a first target temperature ; - exciting a fluorescent marker of the food, wherein the fluorescent marker comprises a fluorophore of nutrient substance and/or anti-nutrient substance within the food ; - detecting a current fluorescence-related parameter value of the fluorescence marker, and based on a current heating time and a predetermined relationship between heating time and fluorescence-related parameter value, calculating a current reference fluorescence-related parameter value ; - comparing the detected current fluorescence-related parameter value with the calculated current reference fluorescence-related parameter value to determine a comparison result ; - controlling a heating power supplied to the food based on said comparison result , wherein the predetermined relationships between heating time and fluorescence-related parameter value are characterized by a function of: I = I 0 ∗ exp − k t wherein /o represents initial fluorescence-related parameter value of the fluorescence marker before the heating process, k represents the first order decomposition rate constant at the first target temperature, t represents heating time, and I represents fluorescence-related parameter value. - heating food to a first target temperature ; - exciting a fluorescent marker of the food, wherein the fluorescent marker comprises a fluorophore of nutrient substance and/or anti-nutrient substance within the food ; - detecting a current fluorescence-related parameter value of the fluorescence marker, and based on a current heating time and a predetermined relationship between heating time and fluorescence-related parameter value, calculating a current reference fluorescence-related parameter value ; - comparing the detected current fluorescence-related parameter value with the calculated current reference fluorescence-related parameter value to determine a comparison result ; - controlling a heating power supplied to the food based on said comparison result ,