mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus for processing containers comprising at least one processing device which processes the containers in a predetermined manner, and comprising at least one transfer device , which transfers the containers individually to the treatment device in a transfer region and/or to which the containers are transferred from the treatment device in a transfer region , wherein at least one inspection device is provided, which is suitable and intended for visually inspecting the transfer region , characterised in that the inspection device is configured for inspecting at least one transfer region at a time when no containers are being transferred, so that the interengagement of individual elements of the apparatus, the time-dependent relative arrangement of elements of the transfer device relative to elements of the processing device can be observed. wherein at least one inspection device is provided, which is suitable and intended for visually inspecting the transfer region , characterised in that the inspection device is configured for inspecting at least one transfer region at a time when no containers are being transferred, so that the interengagement of individual elements of the apparatus, the time-dependent relative arrangement of elements of the transfer device relative to elements of the processing device can be observed.
A lighting system comprising (i) a plurality of light sources configured to generate light source light , and (ii) optics configured downstream of the light sources , wherein the lighting system further comprises a 2D array of at least part of the total number of light sources , wherein nearest neighboring light sources in the 2D array have an average first shortest distance (dd1), wherein the lighting system is further configured to generate in an operation mode lighting system light comprising light source light of a subset of the total number of light sources of the 2D array wherein nearest neighboring light sources configured to generate the light source light for the lighting system light in the operation mode have an average second shortest distance (dd2), wherein the average second shortest distance (dd2) is larger than average first shortest distance (dd1), and wherein the lighting system comprises one or more additional light sources (10") configured outside the 2D array at a third shortest distance (dd3) of the additional light sources to the nearest neighbor in the array wherein said third shortest distance (dd3) is at least 20% larger than the average second shortest distance (dd2), wherein two or more different subsets of the total number of light sources of the 2D array are configured to generate the lighting system light , wherein the lighting system is configured to generate in the operation mode the lighting system light while alternating over time between two or more of the two or more different subsets, and different subsets comprise identical light sources up to a maximum of 50% with the number of light sources in each subset being at least four. wherein nearest neighboring light sources configured to generate the light source light for the lighting system light in the operation mode have an average second shortest distance (dd2), wherein the average second shortest distance (dd2) is larger than average first shortest distance (dd1), and wherein the lighting system comprises one or more additional light sources (10") configured outside the 2D array at a third shortest distance (dd3) of the additional light sources to the nearest neighbor in the array wherein said third shortest distance (dd3) is at least 20% larger than the average second shortest distance (dd2), wherein two or more different subsets of the total number of light sources of the 2D array are configured to generate the lighting system light , wherein the lighting system is configured to generate in the operation mode the lighting system light while alternating over time between two or more of the two or more different subsets, and different subsets comprise identical light sources up to a maximum of 50% with the number of light sources in each subset being at least four.
Device for killing germs and/or pathogens in a pumpable substrate, the device comprising at least one container having a container cavity , which is enclosed by a container wall of the container , for holding the pumpable substrate, and at least one separating member of the device being arranged in the container cavity , said separating member being movable within the container cavity , the separating member separating the container cavity into two separate part-volumes for holding the pumpable substrate, characterised in that the device comprises a position measurement system for determining the position of the separating member in the container cavity as a function of time.
Method for starting up a permanent-magnet synchronous machine (M) including a rotor (L), a stator (St) and a soft starter (SS) with thyristors, comprising the following steps: a) setting the values rotor angle φ Earth and angular speed ω Mean to 0 , b) aligning the rotor (L) in an initial position , c) determining an optimum firing angle of the motor, d) rotating the rotor (L) from the known initial position with a maximum torque by firing thyristors, , wherein the maximum permissible current is set to the maximum permissible current, e) measuring the voltage induced by the rotation of the rotor (L), and calculating the values rotor angle φ Earth and angular speed ω Mean , f) repeating steps b) to f) when the delta of either the rotor angle Δφ Earth or the angular speed Δω Mean lies above a defined threshold value, wherein the rotor angle φ Earth and angular speed ω Mean calculated in step e) are used in order to determine the optimum firing angle of the motor for the firing procedure, g) determining the optimum firing angle of the motor using the quantities φ Earth and ω Mean . a) setting the values rotor angle φ Earth and angular speed ω Mean to 0 , b) aligning the rotor (L) in an initial position , c) determining an optimum firing angle of the motor, d) rotating the rotor (L) from the known initial position with a maximum torque by firing thyristors, , wherein the maximum permissible current is set to the maximum permissible current, e) measuring the voltage induced by the rotation of the rotor (L), and calculating the values rotor angle φ Earth and angular speed ω Mean , f) repeating steps b) to f) when the delta of either the rotor angle Δφ Earth or the angular speed Δω Mean lies above a defined threshold value, wherein the rotor angle φ Earth and angular speed ω Mean calculated in step e) are used in order to determine the optimum firing angle of the motor for the firing procedure, g) determining the optimum firing angle of the motor using the quantities φ Earth and ω Mean .
A method comprising: receiving , at an input interface of a camera sensor module , cropping information for a current video frame from a host apparatus ; capturing the current video frame at a camera sensor of the camera sensor module ; at the camera sensor module , performing a first image stabilization crop of the current video frame using a first cropping window to form a cropped video frame , wherein one or more of a size and a position of the first cropping window has been adjusted in response to the received cropping information ; and sending , from an output interface of the camera sensor module , the cropped video frame to the host apparatus for completion of digital image stabilization via performance of a second image stabilization crop. receiving , at an input interface of a camera sensor module , cropping information for a current video frame from a host apparatus ; capturing the current video frame at a camera sensor of the camera sensor module ; at the camera sensor module , performing a first image stabilization crop of the current video frame using a first cropping window to form a cropped video frame , wherein one or more of a size and a position of the first cropping window has been adjusted in response to the received cropping information ; and sending , from an output interface of the camera sensor module , the cropped video frame to the host apparatus for completion of digital image stabilization via performance of a second image stabilization crop.
An ex vivo use of a combination of inhibitors for inducing pluripotency in one or more non-pluripotent mammalian cells in a mixture comprising: (i) the one or more non-pluripotent mammalian cells; and (ii) the combination of inhibitors, wherein said combination comprises: an ALK5 inhibitor; a MEK inhibitor; and a ROCK inhibitor. (i) the one or more non-pluripotent mammalian cells; and (ii) the combination of inhibitors, wherein said combination comprises: an ALK5 inhibitor; a MEK inhibitor; and a ROCK inhibitor.
Ajar container comprising a container body , a tubular member , a bottom surface member , and a lid member , wherein the container body has an opening part at an upper end of the tubular member ; and the lid member seals the opening part to be openable and closable, the jar container has an annular member having a joint with respect to the upper end of the tubular member and a mouth edge part extending upward from the joint , that is bonded to the upper end of the tubular member , the bottom surface member is bonded to the tubular member at a bottom surface part of the tubular member , the tubular member is constituted by a flexible laminated body of three or more layers including a sealant layer, and the lid member is coupled to the annular member by a hinge to be openable and closable. the container body has an opening part at an upper end of the tubular member ; and the lid member seals the opening part to be openable and closable, the jar container has an annular member having a joint with respect to the upper end of the tubular member and a mouth edge part extending upward from the joint , that is bonded to the upper end of the tubular member , the bottom surface member is bonded to the tubular member at a bottom surface part of the tubular member , the tubular member is constituted by a flexible laminated body of three or more layers including a sealant layer, and the lid member is coupled to the annular member by a hinge to be openable and closable.
A synergistic microbicidal composition comprising: (a) a nonionic surfactant with structure: R 1 O(CH 2 CH(CH 3 )O) 5 (CH 2 CH 2 O) 6 H where R 1 is 2-ethylhexyl; and (b) glutaraldehyde; wherein a weight ratio of the glutaraldehyde to nonionic surfactant is from 8:1 to 1:1.
Material handling vehicle comprising a mast , vehicle chassis , and a protruding load carrying section , wherein the mast comprises at least two vertical and parallel beams that are separated in transversal direction of the material handling vehicle , further two support legs are comprised comprising each a wheel , further comprised is a load carrier movably attached to the mast , and movable by at least one comprised load hydraulic lift cylinder , wherein the support legs are fixedly attached to the mast , further the chassis comprises a first section and a second section in longitudinal direction, whereby the second section extends through a plane adjacent and parallel with the extension of the parallel vertical beams of the mast , wherein the plane is positioned on the side of the mast that is opposite the load carrying section , characterised in that the at least one load hydraulic lift cylinder is positioned onto one of the support legs , preferably said load hydraulic lift cylinder is thus not fixedly attached with the chassis . wherein the mast comprises at least two vertical and parallel beams that are separated in transversal direction of the material handling vehicle , further two support legs are comprised comprising each a wheel , further comprised is a load carrier movably attached to the mast , and movable by at least one comprised load hydraulic lift cylinder , wherein the support legs are fixedly attached to the mast , further the chassis comprises a first section and a second section in longitudinal direction, whereby the second section extends through a plane adjacent and parallel with the extension of the parallel vertical beams of the mast , wherein the plane is positioned on the side of the mast that is opposite the load carrying section , characterised in that the at least one load hydraulic lift cylinder is positioned onto one of the support legs , preferably said load hydraulic lift cylinder is thus not fixedly attached with the chassis .
A system for permanently marking at least one battery component , comprising: - at least one marking element associated with the battery component , - a battery management system for operating the battery component in response to a condition of the marking element , - at least one marking device which can be electrically connected to the marking element in such a way that a permanent change of the state of the marking element can be carried out by the marking device , wherein the marking element is provided outside the battery management system so that the operation of the battery component is permanently adaptable by the change of the state, wherein the state of the marking element is irreversibly changeable by the marking device so that a safety-relevant information is irreversibly storable and/or the operation of the battery component is adaptable by the marking element , wherein the battery component comprises at least one cell and has the marking element , wherein the marking element is integrated into an electrical measurement path of the battery component , wherein the measurement path is electrically connectable to the battery management system for monitoring the battery component , wherein the marking device comprises an energy source which is designed to electrically destroy the marking element for the change of state. - at least one marking element associated with the battery component , - a battery management system for operating the battery component in response to a condition of the marking element , - at least one marking device which can be electrically connected to the marking element in such a way that a permanent change of the state of the marking element can be carried out by the marking device ,
A method of producing a solid fuel composition from a solid waste mixture without the formation of syngas, the method comprising: heating a solid waste mixture comprising between about 5% wt. and about 60% wt. mixed plastics within a process vessel to a temperature no greater than about 110 °C to separate the solid waste mixture into a dried solid waste mixture and vaporized compounds; removing the vaporized compounds from the process vessel; heating and mixing the dried solid waste mixture to at least 160 °C and below atmospheric pressure to form a heated solid waste mixture comprising melted mixed plastics; extruding the heated solid waste mixture from about 100 °C to about 260 °C to produce an extruded solid waste mixture; and cooling the extruded solid waste mixture to less than about 65 °C to form the solid fuel composition, having an energy content ranging between about 18,608 kJ/kg (8,000 BTU/Ib.) and about 32,564 kJ/kg (14,000 BTU/lb.), a density ranging between about 481 kg/m 3 (30 lb./ft 3 ) and about 1282 kg/m 3 (80 lb./ft 3 ), and a water content of less than about 1 wt. %. heating a solid waste mixture comprising between about 5% wt. and about 60% wt. mixed plastics within a process vessel to a temperature no greater than about 110 °C to separate the solid waste mixture into a dried solid waste mixture and vaporized compounds; removing the vaporized compounds from the process vessel; heating and mixing the dried solid waste mixture to at least 160 °C and below atmospheric pressure to form a heated solid waste mixture comprising melted mixed plastics; extruding the heated solid waste mixture from about 100 °C to about 260 °C to produce an extruded solid waste mixture; and cooling the extruded solid waste mixture to less than about 65 °C to form the solid fuel composition, having an energy content ranging between about 18,608 kJ/kg (8,000 BTU/Ib.) and about 32,564 kJ/kg (14,000 BTU/lb.), a density ranging between about 481 kg/m 3 (30 lb./ft 3 ) and about 1282 kg/m 3 (80 lb./ft 3 ), and a water content of less than about 1 wt. %.
A method for verifying the identity of a user comprising: generating, by a computing device, parameters for each processed frame in a video of images taken of a user, the parameters resulting from movement of the computing device while taking the images; generating a signal for each parameter; calculating a similarity score between the generated signals; determining the images were taken of a live person when the similarity score is at least equal to a threshold score; when the user is deemed live, calculating a confidence score based on the generated signals and respective classification models specific to the user, the classification models being generated from other signals generated for each respective parameter; and verifying the identity of the user as true when the confidence score is at least equal to a threshold score. generating, by a computing device, parameters for each processed frame in a video of images taken of a user, the parameters resulting from movement of the computing device while taking the images; generating a signal for each parameter; calculating a similarity score between the generated signals; determining the images were taken of a live person when the similarity score is at least equal to a threshold score; when the user is deemed live, calculating a confidence score based on the generated signals and respective classification models specific to the user, the classification models being generated from other signals generated for each respective parameter; and verifying the identity of the user as true when the confidence score is at least equal to a threshold score.
Method for operating a parking assistance apparatus of a motor vehicle having an attached trailer , having the method steps of: a) a first image of surroundings of the motor vehicle on which the trailer is portrayed being produced by a first camera unit , arranged on the motor vehicle , of the parking assistance apparatus ; b) a second image of surroundings of the trailer being produced by a second camera unit , being arranged on the trailer , of the parking assistance apparatus ; c) a combined view of the surroundings being produced from the first and second images, wherein an image area of the first image that is occupied by the trailer has at least areas overlaid with a piece of image information from the second image, so that the trailer in the combined view has at least areas depicted transparently in front of the surroundings portrayed in the second image, by a computation unit of the parking assistance apparatus ; d) the combined view being displayed by a display unit of the parking assistance apparatus with a desired travel trajectory for the trailer overlaid on the view ; characterized by e) a profile for the desired travel trajectory being selected by means of operation of an operator control device of the motor vehicle ; and f) an at least semi-automated parking process being started in which the trailer is automatically kept on the desired travel trajectory having the selected profile, wherein the selected profile for the desired travel trajectory is taken as a basis for marking in the combined view the ground over which the motor vehicle travels when following the desired travel trajectory of the trailer . a) a first image of surroundings of the motor vehicle on which the trailer is portrayed being produced by a first camera unit , arranged on the motor vehicle , of the parking assistance apparatus ; b) a second image of surroundings of the trailer being produced by a second camera unit , being arranged on the trailer , of the parking assistance apparatus ; c) a combined view of the surroundings being produced from the first and second images, wherein an image area of the first image that is occupied by the trailer has at least areas overlaid with a piece of image information from the second image, so that the trailer in the combined view has at least areas depicted transparently in front of the surroundings portrayed in the second image, by a computation unit of the parking assistance apparatus ; d) the combined view being displayed by a display unit of the parking assistance apparatus with a desired travel trajectory for the trailer overlaid on the view ; characterized by e) a profile for the desired travel trajectory being selected by means of operation of an operator control device of the motor vehicle ; and f) an at least semi-automated parking process being started in which the trailer is automatically kept on the desired travel trajectory having the selected profile, wherein the selected profile for the desired travel trajectory is taken as a basis for marking in the combined view the ground over which the motor vehicle travels when following the desired travel trajectory of the trailer .
Method for monitoring a fluid system lubricating a mechanical system , said fluid system including a reservoir containing a lubrication fluid , said fluid system including a spray system provided with at least one sprayer , said fluid system including a main fluid circuit extending from the reservoir to the spray system , said fluid system including an emergency fluid circuit extending from the reservoir and joining said spray system , said emergency fluid circuit comprises an emergency check valve provided with a blocker moveable from a closed position (POSF) preventing any circulation of said lubrication fluid to an open position (POSO) allowing said lubrication fluid to pass from the reservoir to the spray system , said emergency fluid circuit being dimensioned so that the emergency check valve is in the closed state in a nominal operating mode, the method comprising a monitoring phase (STPB) including the following steps: - detecting (STPB11) any dysfunction by monitoring at least one monitoring parameter, said dysfunction making said main fluid circuit inoperative, - measuring (STPB12) a position of the blocker inside the emergency check valve , - generating (STPB21) a first warning in the event of said detection of a dysfunction and detecting that the blocker is stable in the open position, the blocker being stable in the open position when the blocker is in the open position for at least a predetermined open period, - generating (STPB22) a second warning different from the first warning in the event of said detection of a dysfunction and detecting that the blocker is stable in the closed position, the blocker being stable in the closed position when the blocker is in the closed position for at least a predetermined closed period, characterised in that the monitoring phase (STPB) includes the following step: - generating (STPB23) a third warning different from the first warning and the second warning in the event of said detection of a dysfunction and detecting that the blocker is in a transition phase during which the blocker oscillates. - detecting (STPB11) any dysfunction by monitoring at least one monitoring parameter, said dysfunction making said main fluid circuit inoperative, - measuring (STPB12) a position of the blocker inside the emergency check valve , - generating (STPB21) a first warning in the event of said detection of a dysfunction and detecting that the blocker is stable in the open position, the blocker being stable in the open position when the blocker is in the open position for at least a predetermined open period, - generating (STPB22) a second warning different from the first warning in the event of said detection of a dysfunction and detecting that the blocker is stable in the closed position, the blocker being stable in the closed position when the blocker is in the closed position for at least a predetermined closed period, - generating (STPB23) a third warning different from the first warning and the second warning in the event of said detection of a dysfunction and detecting that the blocker is in a transition phase during which the blocker oscillates.