mhurhangee/patent-ind-claim-en huggingface dataset:
A connector for charging electric vehicles, comprising a casing provided with a front opening and adapted to receive a recessed contacts body having recessed contacts, at the rear; said recessed contacts of the recessed contacts body being protected by a pair of shutters which prevent access to said recessed contacts when said shutters are in a closed position; said connector comprising a cover adapted to close said front opening ; said cover comprising a lock ; said lock comprising a lever which has at least two operating positions: an open position and a closed position; in said closed position, said lever engaging a locking member for locking said shutters , preventing a lifting and opening of said cover ; said connector being characterized in that it comprises a ring associated with said casing ; said connector further comprising a hinge integrated in said ring ; said cover being hinged at said hinge ; said connector further comprising a gasket which is mounted on said casing at said front opening ; said gasket being compressed by said cover in said closed position; said lever of said lock being operated by means of a key .
An implantable medical stent system, comprising: a radially expandable stent comprising a plurality of adjacent circumferential segments that comprise patterned filamental structures that surround a bore and are arranged in series along a length relative to a longitudinal axis to thereby form a substantially tubular wall along the length; wherein each pair of adjacent segments is connected by at least one of a plurality of connections between segments; and wherein each connection comprises at least one of (a) a longitudinal bending stiffness that is greater than a longitudinal bending stiffness along either adjacent segment such that upon an applied force of deflection lateral to the longitudinal axis the stent exhibits more longitudinal flexure within the segments than at the connections, and (b) a minimum width that is greater than a minimum width along a patterned filamental structure comprised by at least one of the adjacent segments. a radially expandable stent comprising a plurality of adjacent circumferential segments that comprise patterned filamental structures that surround a bore and are arranged in series along a length relative to a longitudinal axis to thereby form a substantially tubular wall along the length; wherein each pair of adjacent segments is connected by at least one of a plurality of connections between segments; and wherein each connection comprises at least one of (a) a longitudinal bending stiffness that is greater than a longitudinal bending stiffness along either adjacent segment such that upon an applied force of deflection lateral to the longitudinal axis the stent exhibits more longitudinal flexure within the segments than at the connections, and (b) a minimum width that is greater than a minimum width along a patterned filamental structure comprised by at least one of the adjacent segments.
Single-shaft turbo compressor (STC), comprising - a rotor (R) extending along an axis (X), - an outer housing (OC), - a bearing (BG) for supporting the rotor (R), - at least one first shaft seal (SHS1), the rotor (R) having a shaft (SH) and impellers (IMP) arranged on the shaft (SH), the outer housing (OC) having a first end-face cover (CV1), a second end-face cover (CV2) and a casing part (BC) which is undivided in the peripheral direction, extends in the axial direction in the manner of a pipe and is open at the end on both sides, the outer housing (OC) being formed in such a way that a radially outer periphery of the first cover (CV1), when ready for operation, from the inside of the outer housing (OC), is in contact with a radially inwardly protruding step (RS) extending in the peripheral direction, a first rotor end (RE1) being guided through an axial first opening (OP1) of the first cover (CV1), and a gap (GP) between the rotor (R) and the first cover (CV1) being sealed on the feedthrough by means of the first shaft seal (SHS1), the first cover (CV1) being connected to the first shaft seal (SHS1), supply lines (SPL) and discharge lines (EXL) of the first shaft seal (SHS1) being provided so as to extend through the first cover (CV1) into a wall thickness of the casing part (BC) adjoining the first cover (CV1) and from there, opening out in each case into a connecting flange (FG1, FG2), which is rigidly connected in each case to the casing part (BC), characterized in that the first cover (CV1) comprises a radially inwardly protruding step (CVS) extending in the peripheral direction, with which the first shaft seal (SHS1) is in contact from axially outside so that the first shaft seal (SHS1) can be removed from outside. - a rotor (R) extending along an axis (X), - an outer housing (OC), - a bearing (BG) for supporting the rotor (R), - at least one first shaft seal (SHS1),
An image display mirror for a vehicle, comprising: a first polarizing plate arranged removably and attachably; a half mirror having a reflection axis and being configured to reflect polarized light; and an image display apparatus in the stated order from a viewer side, wherein: the first polarizing plate has a polarizer; and when the first polarizing plate is in an attached state, an absorption axis of the polarizer and the reflection axis of the half mirror are parallel to each other; wherein the first polarizing plate is configured to be switched between attached and removed states when an image is displayed on the image display apparatus and when the image is not displayed thereon; and when the image is displayed, the first polarizing plate is arranged between the half mirror and a viewer. a first polarizing plate arranged removably and attachably; a half mirror having a reflection axis and being configured to reflect polarized light; and an image display apparatus in the stated order from a viewer side, wherein: the first polarizing plate has a polarizer; and when the first polarizing plate is in an attached state, an absorption axis of the polarizer and the reflection axis of the half mirror are parallel to each other; wherein the first polarizing plate is configured to be switched between attached and removed states when an image is displayed on the image display apparatus and when the image is not displayed thereon; and when the image is displayed, the first polarizing plate is arranged between the half mirror and a viewer. the first polarizing plate has a polarizer; and when the first polarizing plate is in an attached state, an absorption axis of the polarizer and the reflection axis of the half mirror are parallel to each other; wherein the first polarizing plate is configured to be switched between attached and removed states when an image is displayed on the image display apparatus and when the image is not displayed thereon; and when the image is displayed, the first polarizing plate is arranged between the half mirror and a viewer.
A method for managing Packet Flow Description, PFD, which is applied to a Network Exposure Element, NEF, the method comprising, acquiring and storing PFD management request information sent by an Application Function, AF, characterized in that the PFD management request information comprises access point name, APN, information, an application identifier, APP ID, and a PFD, and the APN information and APP ID are associated with the PFD (S110); and forwarding the APN information, the APP ID, and the PFD in the PFD management request information to a User Plane Function, UPF, through a Session Management Function (SMF), to cause the UPF to store the PFD according to the APN information and the APP ID (S120). acquiring and storing PFD management request information sent by an Application Function, AF, characterized in that the PFD management request information comprises access point name, APN, information, an application identifier, APP ID, and a PFD, and the APN information and APP ID are associated with the PFD (S110); and forwarding the APN information, the APP ID, and the PFD in the PFD management request information to a User Plane Function, UPF, through a Session Management Function (SMF), to cause the UPF to store the PFD according to the APN information and the APP ID (S120).
A microwave ablation needle comprising: a feedline electrically connected to a microwave antenna , and a shaft surrounding the microwave antenna and the feedline , the shaft comprising a non-metallic portion and a metallic portion , the non-metallic portion extending axially to be co-extensive with at least a portion of the antenna that radiates microwaves, wherein the microwave antenna comprises: a helical arm , being electrically connected to an outer conductor of the feedline at a junction point , the helical arm extending in a distal direction from the junction point ; and a linear arm , the linear arm being electrically connected to an inner conductor of the feedline , the linear arm extending distally from a distal end of the feedline , the linear arm including a first portion surrounded by a dielectric ; and a second portion free of dielectric, the second portion being distal to the first portion . a feedline electrically connected to a microwave antenna , and a shaft surrounding the microwave antenna and the feedline , the shaft comprising a non-metallic portion and a metallic portion , the non-metallic portion extending axially to be co-extensive with at least a portion of the antenna that radiates microwaves, wherein the microwave antenna comprises: a helical arm , being electrically connected to an outer conductor of the feedline at a junction point , the helical arm extending in a distal direction from the junction point ; and a linear arm , the linear arm being electrically connected to an inner conductor of the feedline , the linear arm extending distally from a distal end of the feedline , the linear arm including a first portion surrounded by a dielectric ; and a helical arm , being electrically connected to an outer conductor of the feedline at a junction point , the helical arm extending in a distal direction from the junction point ; and a linear arm , the linear arm being electrically connected to an inner conductor of the feedline , the linear arm extending distally from a distal end of the feedline , the linear arm including a first portion surrounded by a dielectric ; and a second portion free of dielectric, the second portion being distal to the first portion .
A method of mass-transferring a micro-pattern on a stent comprising: providing a metal electrode having an outer diameter capable of accommodating a non-conducting mask thereupon; coating the outer diameter of the metal electrode with the non-conducting mask to form a masked electrode ; defining the micro-pattern on an outer diameter of the masked electrode ; mounting the stent on the masked electrode , wherein an inner diameter of the stent is in contact with the outer diameter of the masked electrode ; and transferring the micro-pattern onto the inner diameter of the stent through electrochemical micromachining including the step of flowing an electrolyte solution from the masked electrode to the inner diameter of the stent . providing a metal electrode having an outer diameter capable of accommodating a non-conducting mask thereupon; coating the outer diameter of the metal electrode with the non-conducting mask to form a masked electrode ; defining the micro-pattern on an outer diameter of the masked electrode ; mounting the stent on the masked electrode , wherein an inner diameter of the stent is in contact with the outer diameter of the masked electrode ; and transferring the micro-pattern onto the inner diameter of the stent through electrochemical micromachining including the step of flowing an electrolyte solution from the masked electrode to the inner diameter of the stent .
A computer-implemented method for detecting and correcting transient faults, the method the steps of comprising: obtaining image data with at least two different exposures, from a camera system; processing the image data using a first image signal processor and a second image signal processor, to produce first output data representing a first of the at least two different exposures of image data and second output data representing a second of the at least two different exposures of image data; generating at least one statistical model using at least one machine learning algorithm, based on at least the first output data, second output data, previous image data obtained by the camera system, and at least one real-world reference image; identifying whether a fault is present in the first output data based on the at least one statistical model; generating a correction value for the faulty portion of image data by applying the at least one statistical model to the first output data to generate an expected value for the fault; generating updated output data using the correction value; and outputting the updated output data to an output device. obtaining image data with at least two different exposures, from a camera system; processing the image data using a first image signal processor and a second image signal processor, to produce first output data representing a first of the at least two different exposures of image data and second output data representing a second of the at least two different exposures of image data; generating at least one statistical model using at least one machine learning algorithm, based on at least the first output data, second output data, previous image data obtained by the camera system, and at least one real-world reference image; identifying whether a fault is present in the first output data based on the at least one statistical model; generating a correction value for the faulty portion of image data by applying the at least one statistical model to the first output data to generate an expected value for the fault; generating updated output data using the correction value; and outputting the updated output data to an output device.
A peritoneal cavity fluid perfusion system comprising a suction apparatus and being configured to fill a peritoneal cavity with fluid and circulate the fluid through a filtering apparatus , the suction apparatus comprising: a suction tube connecting the peritoneal cavity and the filtering apparatus and provided with a side hole formed in a wall of the tube in a peritoneal cavity-side tail end part ; and a filter member having a tubular cap shape covering a tail end aperture of the suction tube and the side hole when fitted on the peritoneal cavity-side tail end part of the suction tube , characterized in that the filter member is formed from a foam body with an average aperture opening not smaller than 500 μm and not larger than 1000 μm, and having a thickness not smaller than 7.5 mm, and that the peritoneal cavity fluid perfusion system is configured to circulate the fluid through the filtering apparatus at a flow rate not smaller than 0.5 L per minute and not larger than 3 L per minute, wherein the suction tube , except for the peritoneal cavity-side tail end part , is formed from a flexible material, and the peritoneal cavity-side tail end part is formed from a rigid material. a suction tube connecting the peritoneal cavity and the filtering apparatus and provided with a side hole formed in a wall of the tube in a peritoneal cavity-side tail end part ; and a filter member having a tubular cap shape covering a tail end aperture of the suction tube and the side hole when fitted on the peritoneal cavity-side tail end part of the suction tube , characterized in that the filter member is formed from a foam body with an average aperture opening not smaller than 500 μm and not larger than 1000 μm, and having a thickness not smaller than 7.5 mm, and that the peritoneal cavity fluid perfusion system is configured to circulate the fluid through the filtering apparatus at a flow rate not smaller than 0.5 L per minute and not larger than 3 L per minute, wherein the suction tube , except for the peritoneal cavity-side tail end part , is formed from a flexible material, and the peritoneal cavity-side tail end part is formed from a rigid material.
Method for producing a defined three-dimensional texture on a textile, in which - the texture is provided on the textile with a defined basic area and a defined height, - the texture is formed with at least one texture layer , wherein the height and the basic area of the texture are set by at least one defined height and at least one defined basic area of the at least one texture layer , - at least one variable-volume ink is applied in the form of individual ink droplets onto the textile, wherein a plurality of ink droplets are provided on the textile according to the basic area of the texture, and - the applied ink droplets are activated, whereby a predefined volume increase of the ink droplets is produced and the at least one texture layer is formed on the textile, characterized in that to make available the defined height of the at least one texture layer at least one defined distance is set between the applied ink droplets for the texture layer , the said distance being smaller or equal to a diameter of activated ink droplets of the texture layer . - the texture is provided on the textile with a defined basic area and a defined height, - the texture is formed with at least one texture layer , wherein the height and the basic area of the texture are set by at least one defined height and at least one defined basic area of the at least one texture layer , - at least one variable-volume ink is applied in the form of individual ink droplets onto the textile, wherein a plurality of ink droplets are provided on the textile according to the basic area of the texture, and - the applied ink droplets are activated, whereby a predefined volume increase of the ink droplets is produced and the at least one texture layer is formed on the textile,
System consisting of a first plug-in connector housing and a second plug-in connector housing and a locking device which is pivotably mounted on the first plug-in connector housing via bearing pins and consists of a rear wall and side parts integrally formed on the rear wall, wherein the locking device has a U-shaped cross section, wherein the locking device can be locked to locking pins on the second plug-in connector housing , as a result of which the first plug-in connector housing and the second plug-in connector housing are locked to each other, wherein the bearing pins and the locking pins have a cylindrical basic shape with a prismatic contour integrally formed on the cylindrical basic shape, wherein the side parts each have a bearing receptacle , which bearing receptacles engage over the bearing pins of the first plug-in connector housing , so that the locking device is pivotably mounted on the plug-in connector housing , wherein the locking device , in the region of the respective bearing receptacle , has an embossed portion directed to the first plug-in connector housing , characterized in that the embossed portion of the locking device is supported on the contour of the bearing pin in the locked state such that the locking device is merely in physical contact with the locking pins , the bearing pins and, via the embossed portion and the prismatic contour of the bearing pins , with the plug-in connector housings , and such that, owing to the shape of the contours and the associated embossed portions , the locking device is kept in its position in the closed state. wherein the locking device can be locked to locking pins on the second plug-in connector housing , as a result of which the first plug-in connector housing and the second plug-in connector housing are locked to each other, wherein the bearing pins and the locking pins have a cylindrical basic shape with a prismatic contour integrally formed on the cylindrical basic shape, wherein the side parts each have a bearing receptacle , which bearing receptacles engage over the bearing pins of the first plug-in connector housing , so that the locking device is pivotably mounted on the plug-in connector housing , wherein the locking device , in the region of the respective bearing receptacle , has an embossed portion directed to the first plug-in connector housing , characterized in that the embossed portion of the locking device is supported on the contour of the bearing pin in the locked state such that the locking device is merely in physical contact with the locking pins , the bearing pins and, via the embossed portion and the prismatic contour of the bearing pins , with the plug-in connector housings , and such that, owing to the shape of the contours and the associated embossed portions , the locking device is kept in its position in the closed state.
A rotary indexing table having an output flange which is suitable for receiving a workpiece, which is supported rotatably about an axis of rotation (A) at a housing of the rotary indexing table and which is drive-effectively connected to at least one entrainer which engages into a drive groove of a barrel cam which is drivable by a motor, characterized in that the barrel cam is arranged asymmetrically to the axis of rotation (A) of the output flange .
A computer implemented method for determining a cardiac arrhythmia target for ablation, the method comprising: receiving a plurality of images of a patient, the plurality of images comprising an electrical image, an anatomic image, and a functional image; identifying a number of segments on each image of the plurality of images, each segment corresponding to a different anatomical location; identifying abnormalities in each image of the plurality of images, wherein the abnormalities are selected from a scar location in the anatomic image, a region that is not viable in the functional image, and a location where ventricular tachycardia originates in the electrical image; selecting segments in which any of the abnormalities are located; aligning the plurality of images; and selecting the cardiac arrhythmia target based on the segments in the aligned plurality of images in which there is an overlap of the identified abnormalities in the functional image and both of the electrical image and the anatomic image, wherein the electrical image is an electrocardiograph image, the anatomic image is at least one of a computed tomography image or a magnetic resonance image, and the functional image is at least one of a photo emission computed tomographic image, a positron emission tomography image or an echocardiogram image. receiving a plurality of images of a patient, the plurality of images comprising an electrical image, an anatomic image, and a functional image; identifying a number of segments on each image of the plurality of images, each segment corresponding to a different anatomical location; identifying abnormalities in each image of the plurality of images, wherein the abnormalities are selected from a scar location in the anatomic image, a region that is not viable in the functional image, and a location where ventricular tachycardia originates in the electrical image; selecting segments in which any of the abnormalities are located; aligning the plurality of images; and selecting the cardiac arrhythmia target based on the segments in the aligned plurality of images in which there is an overlap of the identified abnormalities in the functional image and both of the electrical image and the anatomic image, wherein the electrical image is an electrocardiograph image, the anatomic image is at least one of a computed tomography image or a magnetic resonance image, and the functional image is at least one of a photo emission computed tomographic image, a positron emission tomography image or an echocardiogram image.