mhurhangee/patent-ind-claim-en huggingface dataset:
A heat exchanger pipe comprising: an outer pipe having a cylindrical shape; a first half shell and a second half shell having a semi-cylindrical shape, outer peripheral surfaces of the first half shell and the second half shell making contact with an inner peripheral surface of the outer pipe when the first half shell and the second half shell are coupled to face each other inside the outer pipe ; and a plurality of first ribs and a plurality of second ribs extending from inner peripheral surfaces of the first half shell and the second half shell toward an inner space part, and disposed in a direction perpendicular to an imaginary boundary partitioning the first half shell and the second half shell , wherein the ends of the first ribs are spaced apart from the ends of the second ribs ; characterized in that lengths of the first ribs are configured so that an 'S' shape is formed when ends of the first ribs are sequentially connected to each other through an imaginary line, and lengths of the second ribs are configured so that the 'S' shape is formed when ends of the second ribs are sequentially connected to each other through the imaginary line. an outer pipe having a cylindrical shape; a first half shell and a second half shell having a semi-cylindrical shape, outer peripheral surfaces of the first half shell and the second half shell making contact with an inner peripheral surface of the outer pipe when the first half shell and the second half shell are coupled to face each other inside the outer pipe ; and a plurality of first ribs and a plurality of second ribs extending from inner peripheral surfaces of the first half shell and the second half shell toward an inner space part, and disposed in a direction perpendicular to an imaginary boundary partitioning the first half shell and the second half shell , wherein the ends of the first ribs are spaced apart from the ends of the second ribs ; characterized in that lengths of the first ribs are configured so that an 'S' shape is formed when ends of the first ribs are sequentially connected to each other through an imaginary line, and lengths of the second ribs are configured so that the 'S' shape is formed when ends of the second ribs are sequentially connected to each other through the imaginary line.
A method of making a tube , comprising: forming at least one tube layer, wherein the at least one tube layer comprises a tube laminate comprising a first tube layer and a second tube layer ; forming at least one film layer on the at least one tube layer, wherein the at least one film layer comprises a film laminate comprising a barrier layer and a polymer layer , wherein at least a portion of the at least one film layer does not completely overlap the at least one tube layer; forming a tube body by overlapping and bonding a first surface (108-1) of the first tube layer with a surface (106-1) of the second tube layer such that a side seal is comprised of the first surface (108-1) of the first tube layer that is bonded to the surface (106-1) of the second tube layer , characterized in that no portion of the barrier layer is disposed at the side seal . forming at least one tube layer, wherein the at least one tube layer comprises a tube laminate comprising a first tube layer and a second tube layer ; forming at least one film layer on the at least one tube layer, wherein the at least one film layer comprises a film laminate comprising a barrier layer and a polymer layer , wherein at least a portion of the at least one film layer does not completely overlap the at least one tube layer; forming a tube body by overlapping and bonding a first surface (108-1) of the first tube layer with a surface (106-1) of the second tube layer such that a side seal is comprised of the first surface (108-1) of the first tube layer that is bonded to the surface (106-1) of the second tube layer , characterized in that no portion of the barrier layer is disposed at the side seal .
Acoustic partition-traversing device , intended to be mounted in an opening , provided in a partition of a motor vehicle, separating an engine compartment (M) of the vehicle from a passenger compartment (H) of the vehicle, comprising a partition-traversing ring comprising a body comprising: - a channel traversing the body for insertion of a bundle of conductors, - a first part forming an elastically deformable lip, called an acoustic lip , and - a second part carrying support means intended to cooperate with a surface of the partition, wherein the body is fixed to the partition by pinching the edge (B) of the partition delimiting the opening of the partition between the acoustic lip and the support means , wherein the second part of the body is delimited by an external lateral surface (S) adjoining an axial surface (A) of the second part of the body which is opposite the acoustic lip , so as to delimit a first housing volume (V1) of a sound insulation mass between this axial surface (A) and this acoustic lip , characterised in that it further comprises a mechanical-acoustic washer comprising: - a reinforcing skirt inserted in an anchoring groove provided in the second part surrounding the channel and - an acoustic collar closing the anchoring groove and creating a housing volume (V3) for a sound insulation mass between the body and the mechanical-acoustic washer . - a channel traversing the body for insertion of a bundle of conductors, - a first part forming an elastically deformable lip, called an acoustic lip , and - a second part carrying support means intended to cooperate with a surface of the partition, wherein the body is fixed to the partition by pinching the edge (B) of the partition delimiting the opening of the partition between the acoustic lip and the support means , wherein the second part of the body is delimited by an external lateral surface (S) adjoining an axial surface (A) of the second part of the body which is opposite the acoustic lip , so as to delimit a first housing volume (V1) of a sound insulation mass between this axial surface (A) and this acoustic lip , characterised in that it further comprises a mechanical-acoustic washer comprising: - a reinforcing skirt inserted in an anchoring groove provided in the second part surrounding the channel and - an acoustic collar closing the anchoring groove and creating a housing volume (V3) for a sound insulation mass between the body and the mechanical-acoustic washer . - a reinforcing skirt inserted in an anchoring groove provided in the second part surrounding the channel and - an acoustic collar closing the anchoring groove and creating a housing volume (V3) for a sound insulation mass between the body and the mechanical-acoustic washer .
Process for three-dimensional shaping of a tissue/tissue component, in particular for an artificial heart valve, a left atrial appendage closure device, a pacemaker, a leadless pacemaker or a covered stent, the process comprising at least the following steps: a) providing a tissue/tissue component comprising crosslinkable groups; b) optionally stabilizing and/or drying the tissue/tissue component according to step a); c) providing a rigid/solid molded body; d) optional cutting of the tissue/tissue component to be crosslinked according to step a) or b) by means of a suitable cutting instrument and/or a suitable cutting device; e) placing/arranging the tissue/tissue component treated according to step a), b) or d) onto the molded body according to step c); f) providing a container or receptacle; g) placing/arranging the molded body covered with the tissue/tissue component according to step e) in the container/receptacle according to step f); h) filling the container/receptacle according to step g) with a granulate so that the tissue/tissue component according to step g) is at least partially covered with the granulate; i) filling the container/receptacle according to step h) with a suitable crosslinking agent; j) chemically crosslinking the granulate-covered tissue/tissue component according to step h) for at least 1 minute; k) demolding/removal of the crosslinked tissue/tissue component according to step j); l) optional pure chemical post-crosslinking of the tissue/tissue component according to step k) with a suitable crosslinking agent. a) providing a tissue/tissue component comprising crosslinkable groups; b) optionally stabilizing and/or drying the tissue/tissue component according to step a); c) providing a rigid/solid molded body; d) optional cutting of the tissue/tissue component to be crosslinked according to step a) or b) by means of a suitable cutting instrument and/or a suitable cutting device; e) placing/arranging the tissue/tissue component treated according to step a), b) or d) onto the molded body according to step c); f) providing a container or receptacle; g) placing/arranging the molded body covered with the tissue/tissue component according to step e) in the container/receptacle according to step f); h) filling the container/receptacle according to step g) with a granulate so that the tissue/tissue component according to step g) is at least partially covered with the granulate; i) filling the container/receptacle according to step h) with a suitable crosslinking agent; j) chemically crosslinking the granulate-covered tissue/tissue component according to step h) for at least 1 minute; k) demolding/removal of the crosslinked tissue/tissue component according to step j); l) optional pure chemical post-crosslinking of the tissue/tissue component according to step k) with a suitable crosslinking agent.
A method comprising: establishing (S101), by a processor, a communication session between a first endpoint and a second endpoint ; receiving a trigger message to record the communication session; and selecting (S105), by the processor, an anchor network device to direct network traffic to perform a recording of the communication session based on a recording policy; characterized in that the recording policy specifies far end anchoring by default when a far end anchoring device is capable of being an anchoring point and reverts to near end anchoring when the far end anchoring device is incapable of being an anchoring point. establishing (S101), by a processor, a communication session between a first endpoint and a second endpoint ; receiving a trigger message to record the communication session; and selecting (S105), by the processor, an anchor network device to direct network traffic to perform a recording of the communication session based on a recording policy; characterized in that the recording policy specifies far end anchoring by default when a far end anchoring device is capable of being an anchoring point and reverts to near end anchoring when the far end anchoring device is incapable of being an anchoring point.
An apparatus for marking surfaces by abrasion which comprises a dispensing group for a flow of air and abrasive which is conveyed to a marking nozzle which is mounted in a movable manner on a marking head with a selective shut-off valve for the flow of air and abrasive, a control group configured to control the selective opening and closing of the shut-off valve characterised in that the control group is configured to control the movement of the marking nozzle with respect to the marking head in a marking plane (X, Y) which is substantially transverse to an emission direction of the mixture of air and abrasive from the marking nozzle on a surface (R) to be marked.
An apparatus, comprising: a probe adapted for insertion into a chamber of a heart of a living subject, a plurality of intracardiac electrodes being disposed in a distal portion of the probe; a signal generator for emitting electrical calibration signals from external locations that are outside a body of the subject, wherein the external locations comprise a plurality of skin electrodes in galvanic contact with a skin surface of the subject; first electrical circuitry connected to the intracardiac electrodes for receiving the calibration signals; a processor linked to the first electrical circuitry, the processor operative for determining functional relationships between the emitted calibration signals and the received calibration signals based on respective positions of the plurality of intracardiac electrodes and the plurality of skin electrodes , wherein determining functional relationships comprises expressing the functional relationships as a matrix having elements, values of the elements depending on respective distances and conductivities between the external locations and the intracardiac electrodes; and second electrical circuitry for detecting electrophysiological signals at the external locations from respective origins in the heart, wherein the processor is operative for applying the functional relationships to the detected electrophysiological signals to calculate intracardiac potentials at the respective origins. a probe adapted for insertion into a chamber of a heart of a living subject, a plurality of intracardiac electrodes being disposed in a distal portion of the probe; a signal generator for emitting electrical calibration signals from external locations that are outside a body of the subject, wherein the external locations comprise a plurality of skin electrodes in galvanic contact with a skin surface of the subject; first electrical circuitry connected to the intracardiac electrodes for receiving the calibration signals; a processor linked to the first electrical circuitry, the processor operative for determining functional relationships between the emitted calibration signals and the received calibration signals based on respective positions of the plurality of intracardiac electrodes and the plurality of skin electrodes , wherein determining functional relationships comprises expressing the functional relationships as a matrix having elements, values of the elements depending on respective distances and conductivities between the external locations and the intracardiac electrodes; and second electrical circuitry for detecting electrophysiological signals at the external locations from respective origins in the heart, wherein the processor is operative for applying the functional relationships to the detected electrophysiological signals to calculate intracardiac potentials at the respective origins.
A system comprising: a power source ; a variable-capacity scroll compressor ; a solenoid ; and a controller having a rectifier , a microcontroller , and a triac operable to reduce power from said power source to a predetermined power prior to said predetermined power being supplied to said solenoid for controlling said variable-capacity scroll compressor between a reduced-capacity mode and a full-capacity mode, wherein said controller is configured to monitor a voltage supplied by said power source and to adjust the phase-angle of said voltage by referencing said voltage on a relationship of phase-angle and voltage. a power source ; a variable-capacity scroll compressor ; a solenoid ; and a controller having a rectifier , a microcontroller , and a triac operable to reduce power from said power source to a predetermined power prior to said predetermined power being supplied to said solenoid for controlling said variable-capacity scroll compressor between a reduced-capacity mode and a full-capacity mode, wherein said controller is configured to monitor a voltage supplied by said power source and to adjust the phase-angle of said voltage by referencing said voltage on a relationship of phase-angle and voltage.
Large roller bearing, in particular an open centered large roller bearing , having two concentric ball races between which a plurality of rolling elements arranged in multiple bearing rows are provided in a bearing gap , that roll off on at least two raceways , wherein the multiple bearing rows in the bearing gap comprise at least one axial bearing row for supporting the concentric ball races in axial direction and at least one radial bearing row for supporting the two races in the radial direction, characterized in that the entire bearing gap between the ball races , in which the at least one axial bearing row and the at least one radial bearing row are arranged, is completely filled with a solid lubricant , that comprises a polymer matrix and a lubricant embedded therein, wherein the solid lubricant seals the bearing gap toward the rolling elements toward the outside and the bearing gap is formed free of seals separate from the solid lubricant.
Pull-out device for a drawer extractable on opposite sides for a furniture element , comprising an outer linear guide unit and an inner linear guide unit , characterised in that the inner linear guide unit is arranged next to and inside the outer linear guide unit , wherein the outer linear guide unit comprises at least one outer stationary guide rail and the inner linear guide unit comprises at least one inner stationary guide rail , wherein the inner linear guide unit comprises an inner guide rail movable relative to the inner stationary guide rail with the drawer for displacing the drawer in a first pull-out direction, wherein the outer linear guide unit comprises an outer guide rail movable relative to the outer stationary guide rail with the drawer for displacing the drawer in a second pull-out direction, wherein the outer linear guide unit and the inner linear guide unit each comprise a fastening device for connecting the drawer either to the movable outer guide rail of the outer linear guide unit or to the movable inner guide rail of the inner linear guide unit for locking the drawer relative to the corresponding movable outer guide rail or the movable inner guide rail .
An image display apparatus , comprising: an image forming apparatus ; an optical element that is arranged in front of a face of an observer; and a movement control apparatus , wherein when a region situated on a side of an ear of the observer, as viewed from the optical element, is referred to as a region situated behind the optical element, the image forming apparatus is arranged in the region situated behind the optical element, an image exiting the image forming apparatus obliquely enters the optical element from the region situated behind the optical element, and is reflected off the optical element to reach a pupil of the observer, and when there is a change in a position of the pupil of the observer, the optical element is moved using the movement control apparatus, and a position of the image exiting the image forming apparatus is controlled using the movement control apparatus, and wherein the image forming apparatus is configured to be moved, using the movement control apparatus, in a direction corresponding to a change in the position of the pupil of the observer in parallel with a vertical direction. an image forming apparatus ; an optical element that is arranged in front of a face of an observer; and a movement control apparatus , wherein when a region situated on a side of an ear of the observer, as viewed from the optical element, is referred to as a region situated behind the optical element, the image forming apparatus is arranged in the region situated behind the optical element, an image exiting the image forming apparatus obliquely enters the optical element from the region situated behind the optical element, and is reflected off the optical element to reach a pupil of the observer, and when there is a change in a position of the pupil of the observer, the optical element is moved using the movement control apparatus, and a position of the image exiting the image forming apparatus is controlled using the movement control apparatus, and wherein the image forming apparatus is configured to be moved, using the movement control apparatus, in a direction corresponding to a change in the position of the pupil of the observer in parallel with a vertical direction.
A method of controlling a microgrid including a plurality of controllable assets (11-14; 21-23; 31-33), the method comprising: retrieving, by an energy management system , EMS, a forecast variable value for a forecast variable; determining, by the EMS , an operating point value for a controllable asset (11-14; 21-23; 31-33) that depends on the retrieved forecast variable value; determining, by the EMS , an operating point shift value for the controllable asset (11-14; 21-23; 31-33), characterized in that the operating point shift value represents a shift in operating point value in response to a variation in forecast variable value; the method comprises providing the operating point value and the operating point shift value to a power management system , PMS, of the microgrid , determining, by the PMS , an updated operating point value for the controllable asset (11-14; 21-23; 31-33) in dependence on the operating point value for the controllable asset (11-14; 21-23; 31-33), the operating point shift value for the controllable asset (11-14; 21-23; 31-33), and a difference between an actual value of the forecast variable and the forecast variable value for the forecast variable, and controlling, by the PMS , the controllable asset (11-14; 21-23; 31-33) based on the updated operating point value; and the operating point value is a function of the forecast variable value, and the operating point shift value is dependent on a derivative of the function that represents the operating point value in dependence on the forecast variable value. retrieving, by an energy management system , EMS, a forecast variable value for a forecast variable; determining, by the EMS , an operating point value for a controllable asset (11-14; 21-23; 31-33) that depends on the retrieved forecast variable value; determining, by the EMS , an operating point shift value for the controllable asset (11-14; 21-23; 31-33), characterized in that the operating point shift value represents a shift in operating point value in response to a variation in forecast variable value; the method comprises providing the operating point value and the operating point shift value to a power management system , PMS, of the microgrid , determining, by the PMS , an updated operating point value for the controllable asset (11-14; 21-23; 31-33) in dependence on the operating point value for the controllable asset (11-14; 21-23; 31-33), the operating point shift value for the controllable asset (11-14; 21-23; 31-33), and a difference between an actual value of the forecast variable and the forecast variable value for the forecast variable, and controlling, by the PMS , the controllable asset (11-14; 21-23; 31-33) based on the updated operating point value; and the operating point value is a function of the forecast variable value, and the operating point shift value is dependent on a derivative of the function that represents the operating point value in dependence on the forecast variable value.
A defected/damaged cigarette catcher, arranged in a cigarette production line, wherein said catcher comprises a product entrance, a three-section vibrating feeder , multiple channels with an S-shaped cross-section perpendicular to the cigarette flow direction, a couple of directing flaps , a product exit , wherein the catcher further comprises multiple optical sensors and a processor, wherein the flow of cigarettes after the product entrance is divided into three zones, wherein the three-section vibrating feeder is correspondingly divided into three independently operated zones; wherein the channels have a design that is wide enough for only proper cigarettes to pass, so that defected/damaged cigarettes are stuck in the channels ; wherein the information of jammed channels is obtained by the processor from the optical sensors; wherein the directing flaps are configured upon activation by the processor to close the zone in which defected/damaged cigarettes are caught in the channels; wherein cigarettes that have completed their flow can eventually leave the catcher from the product exit .