mhurhangee/patent-ind-claim-en huggingface dataset:
A surgical device , comprising: an elongate shaft ; an end effector at a distal end of the elongate shaft, the end effector being configured to articulate at an angle relative to a longitudinal axis of the elongate shaft; a cutting element configured to move longitudinally along the end effector to cut tissue engaged by the end effector; and a locking mechanism configured to lock the end effector at the angle in response to the movement of the cutting element along the end effector, said surgical device being characterized in that the locking mechanism comprises a pair of plates configured to frictionally engage with one another to lock the end effector at the angle until a force is applied thereto to overcome the frictional engagement. an elongate shaft ; an end effector at a distal end of the elongate shaft, the end effector being configured to articulate at an angle relative to a longitudinal axis of the elongate shaft; a cutting element configured to move longitudinally along the end effector to cut tissue engaged by the end effector; and a locking mechanism configured to lock the end effector at the angle in response to the movement of the cutting element along the end effector, said surgical device being characterized in that the locking mechanism comprises a pair of plates configured to frictionally engage with one another to lock the end effector at the angle until a force is applied thereto to overcome the frictional engagement.
A microfluidic device for purifying first particles of a predetermined size from a sample, the device comprising: a) a channel extending from a plurality of inlets to a plurality of outlets; b) a first deterministic lateral displacement (DLD) array of obstacles arranged in rows in the channel, wherein each subsequent row of obstacles is shifted laterally with respect to a previous row, wherein the array of obstacles is configured to differentially deflect first particles of at least a predetermined size to a first outlet and second particles of less than the predetermined size in the sample to a second outlet, and wherein: i) surfaces of two adjacent obstacles in a row of the array of obstacles define a gap; ii) the two obstacles defining a gap each have a polygonal cross-section; and iii) a vertex of each of the two obstacles with the polygonal cross-section points toward each other in a direction substantially perpendicular to a direction of flow of the sample through the array of obstacles; c) an incubator comprising a first portal fluidically connected with the first outlet of the microfluidic device and a second portal fluidically connected to a second liquid source. a) a channel extending from a plurality of inlets to a plurality of outlets; b) a first deterministic lateral displacement (DLD) array of obstacles arranged in rows in the channel, wherein each subsequent row of obstacles is shifted laterally with respect to a previous row, wherein the array of obstacles is configured to differentially deflect first particles of at least a predetermined size to a first outlet and second particles of less than the predetermined size in the sample to a second outlet, and wherein: i) surfaces of two adjacent obstacles in a row of the array of obstacles define a gap; ii) the two obstacles defining a gap each have a polygonal cross-section; and iii) a vertex of each of the two obstacles with the polygonal cross-section points toward each other in a direction substantially perpendicular to a direction of flow of the sample through the array of obstacles; i) surfaces of two adjacent obstacles in a row of the array of obstacles define a gap; ii) the two obstacles defining a gap each have a polygonal cross-section; and iii) a vertex of each of the two obstacles with the polygonal cross-section points toward each other in a direction substantially perpendicular to a direction of flow of the sample through the array of obstacles; c) an incubator comprising a first portal fluidically connected with the first outlet of the microfluidic device and a second portal fluidically connected to a second liquid source.
Method for determining position data of a vehicle in accordance with a key-in-between concept, according to which the position data are ascertained in the form of high-accuracy key positions and in the form of lower-accuracy in-between positions located between the key positions, the method comprising: - determining a key position at a first time based on a first algorithm , in which driving dynamics data describing a movement of the vehicle and an absolute position of the vehicle are fused, wherein the first algorithm is optimized with regard to long-term stability of the position data , - determining an in-between position at a second time based on a second algorithm that is comparatively simple, computing resource-saving and different with respect to the first algorithm , wherein the second algorithm is optimized with regard to short-term precision of the position data , and wherein the position data , in the case of the second algorithm , are determined in a manner free from the absolute position , wherein the determination of the position data based on the second algorithm is performed multiple times over a predetermined time period before the determination of the position data based on the first algorithm is repeated, and wherein the key positions are corrected on the basis of a written-forward path starting from a starting absolute position and of a written-back path starting from a target absolute position . - determining a key position at a first time based on a first algorithm , in which driving dynamics data describing a movement of the vehicle and an absolute position of the vehicle are fused, wherein the first algorithm is optimized with regard to long-term stability of the position data , - determining an in-between position at a second time based on a second algorithm that is comparatively simple, computing resource-saving and different with respect to the first algorithm , wherein the second algorithm is optimized with regard to short-term precision of the position data , and wherein the position data , in the case of the second algorithm , are determined in a manner free from the absolute position , wherein the determination of the position data based on the second algorithm is performed multiple times over a predetermined time period before the determination of the position data based on the first algorithm is repeated, and wherein the key positions are corrected on the basis of a written-forward path starting from a starting absolute position and of a written-back path starting from a target absolute position . wherein the determination of the position data based on the second algorithm is performed multiple times over a predetermined time period before the determination of the position data based on the first algorithm is repeated, and wherein the key positions are corrected on the basis of a written-forward path starting from a starting absolute position and of a written-back path starting from a target absolute position .
A method for adsorbing CO 2 , comprising: providing a feedstream at a first temperature, the feedstream comprising a first concentration of CO 2 ; cooling the feedstream to a second temperature; the second temperature being lower than the first temperature; exposing the feedstream to a concentrator comprising a membrane, metal organic framework, or a combination thereof, thereby creating an enriched feedstream with a second concentration of CO 2 ; the second concentration of CO 2 being higher than the first concentration of CO 2 ; exposing the enriched feedstream to adsorbent particles to produce an adsorbent effluent having a lower concentration of CO 2 than the feedstream; wherein the adsorbent particles comprise a Type V adsorbent; and desorbing at least a portion of CO 2 from the adsorbent particles at a desorption temperature greater than the second temperature, wherein the second concentration of CO 2 is above the lower level capture limit of the Type V adsorbent, wherein the lower level capture limit is the partial pressure of CO 2 in the feedstream below which bypass occurs. providing a feedstream at a first temperature, the feedstream comprising a first concentration of CO 2 ; cooling the feedstream to a second temperature; the second temperature being lower than the first temperature; exposing the feedstream to a concentrator comprising a membrane, metal organic framework, or a combination thereof, thereby creating an enriched feedstream with a second concentration of CO 2 ; the second concentration of CO 2 being higher than the first concentration of CO 2 ; exposing the enriched feedstream to adsorbent particles to produce an adsorbent effluent having a lower concentration of CO 2 than the feedstream; wherein the adsorbent particles comprise a Type V adsorbent; and desorbing at least a portion of CO 2 from the adsorbent particles at a desorption temperature greater than the second temperature, wherein the second concentration of CO 2 is above the lower level capture limit of the Type V adsorbent, wherein the lower level capture limit is the partial pressure of CO 2 in the feedstream below which bypass occurs.
A resource configuration method, comprising: receiving , by a terminal, indication information, wherein the indication information is used to indicate a subcarrier width used for a first control channel, and wherein a maximum quantity of symbols occupied by the first control channel is determined by the subcarrier width, and different subcarrier widths correspond to different maximum symbol quantities; and determining , by the terminal based on the indication information, a quantity of symbols occupied by the first control channel, wherein the quantity of symbols occupied by the first control channel is less than or equal to the maximum quantity of symbols, wherein the subcarrier width comprises a first subcarrier width and a second subcarrier width, and wherein the maximum quantity of symbols occupied by the first control channel comprises a first maximum symbol quantity and a second maximum symbol quantity, wherein the first maximum symbol quantity corresponds to the first subcarrier width, and the second maximum symbol quantity corresponds to the second subcarrier width; and wherein the different subcarrier widths correspond to different maximum symbol quantities comprises: a ratio of the first maximum symbol quantity to the second maximum symbol quantity is equal to a ratio of the first subcarrier width to the second subcarrier width, and the first subcarrier width is different from the second subcarrier width. receiving , by a terminal, indication information, wherein the indication information is used to indicate a subcarrier width used for a first control channel, and wherein a maximum quantity of symbols occupied by the first control channel is determined by the subcarrier width, and different subcarrier widths correspond to different maximum symbol quantities; and determining , by the terminal based on the indication information, a quantity of symbols occupied by the first control channel, wherein the quantity of symbols occupied by the first control channel is less than or equal to the maximum quantity of symbols, wherein the subcarrier width comprises a first subcarrier width and a second subcarrier width, and wherein the maximum quantity of symbols occupied by the first control channel comprises a first maximum symbol quantity and a second maximum symbol quantity, wherein the first maximum symbol quantity corresponds to the first subcarrier width, and the second maximum symbol quantity corresponds to the second subcarrier width; and wherein the different subcarrier widths correspond to different maximum symbol quantities comprises: a ratio of the first maximum symbol quantity to the second maximum symbol quantity is equal to a ratio of the first subcarrier width to the second subcarrier width, and the first subcarrier width is different from the second subcarrier width.
A rolling bearing , comprising: an inner ring ; an outer ring ; and a plurality of rolling elements interposed between the inner ring and the outer ring , wherein the inner ring and the outer ring are made of stainless steel; and wherein a raceway surface with which the rolling element is in rolling-contact is provided in each of the inner ring and the outer ring and is a superfinished surface, and a coating layer made of a solid lubricating film is formed on the superfinished surface, characterized in that : a surface roughness Ra of the superfinished surface is 0.1 or more and 0.8 or less; and the superfinished surface is a micromirror-surface finish surface processed using a polishing material coarser than that in a case of a mirror finish. an inner ring ; an outer ring ; and a plurality of rolling elements interposed between the inner ring and the outer ring , wherein the inner ring and the outer ring are made of stainless steel; and wherein a raceway surface with which the rolling element is in rolling-contact is provided in each of the inner ring and the outer ring and is a superfinished surface, and a coating layer made of a solid lubricating film is formed on the superfinished surface, characterized in that : a surface roughness Ra of the superfinished surface is 0.1 or more and 0.8 or less; and the superfinished surface is a micromirror-surface finish surface processed using a polishing material coarser than that in a case of a mirror finish. a surface roughness Ra of the superfinished surface is 0.1 or more and 0.8 or less; and the superfinished surface is a micromirror-surface finish surface processed using a polishing material coarser than that in a case of a mirror finish.
A method for configuring an auto-enrollment type access controller for access control, the method comprising: asserting, by a user, a button on the auto-enrollment type access controller for a specified duration to enter an auto-enrollment process; broadcasting, by the auto-enrollment type access controller , an enrollment request and credential data associated with the auto-enrollment type access controller to a gateway coupled to a server ; adding, by the gateway , the credential data to a table of unassigned controllers; scanning, by the user, a code associated with the auto-enrollment type access controller using a user device ; sending, by the user device , the code to the server via email; receiving, by the auto-enrollment type access controller , configuration information from the server in response to a match between the credential data and the code, wherein the configuration information is used by the auto-enrollment type access controller to configure the auto-enrollment type access controller for access control. asserting, by a user, a button on the auto-enrollment type access controller for a specified duration to enter an auto-enrollment process; broadcasting, by the auto-enrollment type access controller , an enrollment request and credential data associated with the auto-enrollment type access controller to a gateway coupled to a server ; adding, by the gateway , the credential data to a table of unassigned controllers; scanning, by the user, a code associated with the auto-enrollment type access controller using a user device ; sending, by the user device , the code to the server via email; receiving, by the auto-enrollment type access controller , configuration information from the server in response to a match between the credential data and the code, wherein the configuration information is used by the auto-enrollment type access controller to configure the auto-enrollment type access controller for access control.
A windscreen wiper device of the flat blade type comprising an elastic, elongated carrier element, as well as an elongated wiper blade of a flexible material, wherein said wiper blade comprises a holding part with at least one longitudinal groove , in which groove a longitudinal strip of the carrier element is disposed, said wiper blade comprising an connecting device for an oscillating arm , wherein said oscillating arm can be pivotally connected to said connecting device about a pivot axis near one end thereof, wherein said wiper blade further comprises a wiping part with a free end to be placed in abutment with a windscreen to be wiped, said wiping part being arranged to carry out an oscillatory tilting movement along a tilting web between reversal positions thereof, said wiper blade further comprising opposite, sidewardly extending damping strips being arranged to damp said oscillatory movement of the wiping part by contacting the wiping part along a contact surface thereof, wherein said wiping part is arranged to carry out said oscillatory tilting movement along a first tilting web interconnecting the damping strips and the wiping part, wherein said damping strips are arranged to carry out a corresponding oscillatory tilting movement along a second tilting web interconnecting the damping strips and the holding part, characterized in that - said damping strips are each provided with an upwardly extending protrusion arranged to contact a bottom of said holding part along a contact surface thereof in order to limit said oscillatory movement of said wiping part, and/or - said bottom of said holding part comprises opposite, downwardly extending protrusions arranged to contact said damping strips along a contact surface thereof in order to limit said oscillatory movement of said wiping part, wherein, seen in cross-section of the wiper blade , the contact surface between the damping strips and the wiping part and the contact surface between the damping strips and the bottom of the holding part are aligned along a line perpendicular to a windscreen to be wiped. - said damping strips are each provided with an upwardly extending protrusion arranged to contact a bottom of said holding part along a contact surface thereof in order to limit said oscillatory movement of said wiping part, and/or - said bottom of said holding part comprises opposite, downwardly extending protrusions arranged to contact said damping strips along a contact surface thereof in order to limit said oscillatory movement of said wiping part,
A separation device comprising: an outer case ; a pillar-shaped separation member accommodated in the outer case and including an engaging portion protruding or recessed in a radial direction, the separation member receiving a load exerted in a central axis direction; a support member including a swinging portion and an engageable portion , the swinging portion being swingably supported by the outer case , the engageable portion contacting the engaging portion to support the separation member ; an inner case including a fitting hole in which the engageable portion is fitted, the fitting hole restricting swinging of the support member , and an operation-enabling element that supports the inner case in the outer case characterized in that the operation-enabling element is fusion-cut when an electric current is applied thereto, wherein when the operation-enabling element is fusion-cut, the inner case is displaced in the central axis direction, such that: the engageable portion of the support member detaches from the fitting hole ; the swinging portion swings; and the engageable portion moves away from the engaging portion to release the separation member . an outer case ; a pillar-shaped separation member accommodated in the outer case and including an engaging portion protruding or recessed in a radial direction, the separation member receiving a load exerted in a central axis direction; a support member including a swinging portion and an engageable portion , the swinging portion being swingably supported by the outer case , the engageable portion contacting the engaging portion to support the separation member ; an inner case including a fitting hole in which the engageable portion is fitted, the fitting hole restricting swinging of the support member , and an operation-enabling element that supports the inner case in the outer case characterized in that the operation-enabling element is fusion-cut when an electric current is applied thereto, wherein when the operation-enabling element is fusion-cut, the inner case is displaced in the central axis direction, such that: the engageable portion of the support member detaches from the fitting hole ; the swinging portion swings; and the engageable portion moves away from the engaging portion to release the separation member . the engageable portion of the support member detaches from the fitting hole ; the swinging portion swings; and the engageable portion moves away from the engaging portion to release the separation member .
Device for filling at least one vessel with a filling product in a beverage filling system, having a product holding vessel for receiving the filling product and at least one filling member communicating with the product holding vessel for filling the vessel with the filling product, and a product feed tube for feeding filling product into the product holding vessel , wherein a seal for sealing the product feed tube with respect to an interior space of the product holding vessel is provided, characterised in that the seal can be switched between a sealing position for cleaning and a non-sealing position for the filling operation.