mhurhangee/patent-ind-claim-en huggingface dataset:
A surgical system comprising: a drive unit on a support , the drive unit comprising a plurality of actuators and a plurality of output elements , each actuator operable to linearly translate a corresponding one of the output elements ; a surgical device comprising an elongate device shaft , an input subsystem carried at the proximal end of the elongate device shaft , the input subsystem including a plurality of input elements each operatively associated with a linear-to-rotary conversion assembly, each input element linearly translatable; wherein the surgical device is removably mounted relative to the support to position each output element in a drive relationship with a corresponding input element ; and wherein operation of an actuator linearly translates an output element , causing linear translation of a corresponding input element and axial rotation of the elongate device shaft , characterized in that the conversion assembly includes a shaft having a cam surface , each of the input elements coupled to the shaft such that translation of each input element against the cam surface causes rotation of the shaft , the shaft and the elongate device shaft arranged such that rotation of the shaft results in rotation of the elongate device shaft . a drive unit on a support , the drive unit comprising a plurality of actuators and a plurality of output elements , each actuator operable to linearly translate a corresponding one of the output elements ; a surgical device comprising an elongate device shaft , an input subsystem carried at the proximal end of the elongate device shaft , the input subsystem including a plurality of input elements each operatively associated with a linear-to-rotary conversion assembly, each input element linearly translatable; wherein the surgical device is removably mounted relative to the support to position each output element in a drive relationship with a corresponding input element ; and an elongate device shaft , an input subsystem carried at the proximal end of the elongate device shaft , the input subsystem including a plurality of input elements each operatively associated with a linear-to-rotary conversion assembly, each input element linearly translatable; wherein the surgical device is removably mounted relative to the support to position each output element in a drive relationship with a corresponding input element ; and wherein operation of an actuator linearly translates an output element , causing linear translation of a corresponding input element and axial rotation of the elongate device shaft , characterized in that the conversion assembly includes a shaft having a cam surface , each of the input elements coupled to the shaft such that translation of each input element against the cam surface causes rotation of the shaft , the shaft and the elongate device shaft arranged such that rotation of the shaft results in rotation of the elongate device shaft .
A cooling device for an internal combustion engine, comprising: a cooling-water flow path through which a cooling water of the internal combustion engine flows; a flow rate control valve regulating a flow rate of the cooling water in the cooling-water flow path ; and a closed position learning device learning a flow-path closed position which is an operated position of the flow rate control valve when closing the cooling-water flow path , characterized in that the closed position learning device uses, as a determination parameter, at least one of a temperature of the cooling water, a pressure of the cooling water, a flow rate of the cooling water, and a rotation speed of a water pump circulating the cooling water; wherein the closed position learning device learns, as the flow-path closed position, an operated position of the flow rate control valve immediately before the determination parameter starts to vary during changing of the operated position of the flow rate control valve in an opening direction of the cooling-water flow path from a state where the cooling-water flow path is closed. a cooling-water flow path through which a cooling water of the internal combustion engine flows; a flow rate control valve regulating a flow rate of the cooling water in the cooling-water flow path ; and a closed position learning device learning a flow-path closed position which is an operated position of the flow rate control valve when closing the cooling-water flow path , characterized in that the closed position learning device uses, as a determination parameter, at least one of a temperature of the cooling water, a pressure of the cooling water, a flow rate of the cooling water, and a rotation speed of a water pump circulating the cooling water; wherein the closed position learning device learns, as the flow-path closed position, an operated position of the flow rate control valve immediately before the determination parameter starts to vary during changing of the operated position of the flow rate control valve in an opening direction of the cooling-water flow path from a state where the cooling-water flow path is closed.
A vibration-driven energy harvesting element , comprising: a fixed electrode portion and a moveable electrode portion formed in a second layer of a substrate provided with a first layer and the second layer with an insulation layer interposed therebetween; a frame body formed from the first layer and the second layer disposed with the insulation layer interposed therebetween, the frame body supporting the fixed electrode portion in the second layer ; characterized in that it further comprises an elastically-supporting portion formed in the first layer and elastically supporting the moveable electrode portion by a beam portion joined to the first layer of the frame body ; and a first conduction portion electrically connecting the moveable electrode portion and the elastically-supporting portion . a fixed electrode portion and a moveable electrode portion formed in a second layer of a substrate provided with a first layer and the second layer with an insulation layer interposed therebetween; a frame body formed from the first layer and the second layer disposed with the insulation layer interposed therebetween, the frame body supporting the fixed electrode portion in the second layer ; characterized in that it further comprises an elastically-supporting portion formed in the first layer and elastically supporting the moveable electrode portion by a beam portion joined to the first layer of the frame body ; and a first conduction portion electrically connecting the moveable electrode portion and the elastically-supporting portion .
Method for producing a spring body of a vehicle spring from a profiled bar made of flat-bar steel, in particular spring steel, the cross-sectional shape of which is the same along the length thereof, wherein the profiled bar has a top side , a bottom side and two narrow sides , and in the two narrow sides and in the bottom side has a material recess so that it has along the entire length a substantially trapezoidal cross-sectional shape with rounded corners, wherein the profiled bar , as the starting product used, is cut to the desired length and the profiled bar that has been cut to length is brought to a temperature of approximately 800 to 1200°C and at this temperature is rolled horizontally or vertically, wherein, during the hot forming, the width (B) of the material recess is changed to varying degrees along the length of the spring body , and wherein the longitudinal ends are processed accordingly depending on the desired vehicle spring.
A system comprising: a memory storing instructions and a processor communicatively coupled to the memory and configured to execute the instructions to: identify an operating condition associated with an operation performed on a body while an active imaging device (404-1) captures imagery of an internal view of the body, characterized in that the processor is further configured to execute the instructions to: determine, based on the identified operating condition, that a display device is to toggle a display of a shape overlay hat is displayed together with an external view of the body, the shape overlay indicative of an extent of a field of view of the active imaging device relative to the body, and based on the determining that the display device is to toggle the display of the shape overlay, automatically direct the display device to toggle the display of the shape overlay a memory storing instructions and a processor communicatively coupled to the memory and configured to execute the instructions to: identify an operating condition associated with an operation performed on a body while an active imaging device (404-1) captures imagery of an internal view of the body, characterized in that the processor is further configured to execute the instructions to: determine, based on the identified operating condition, that a display device is to toggle a display of a shape overlay hat is displayed together with an external view of the body, the shape overlay indicative of an extent of a field of view of the active imaging device relative to the body, and based on the determining that the display device is to toggle the display of the shape overlay, automatically direct the display device to toggle the display of the shape overlay identify an operating condition associated with an operation performed on a body while an active imaging device (404-1) captures imagery of an internal view of the body, characterized in that the processor is further configured to execute the instructions to: determine, based on the identified operating condition, that a display device is to toggle a display of a shape overlay hat is displayed together with an external view of the body, the shape overlay indicative of an extent of a field of view of the active imaging device relative to the body, and based on the determining that the display device is to toggle the display of the shape overlay, automatically direct the display device to toggle the display of the shape overlay
A method of de-mapping a point in a constellation diagram into a bit sequence, wherein the de-mapping provides, for each bit of the bit sequence, extrinsic probability information in the form of an output value with a sign of the output value indicating a bit value and a magnitude of the output value indicating probability information in the form of a distance to a decision boundary in the constellation diagram, the method comprising: receiving a signal indicative of a constellation point, wherein the constellation point represents a bit sequence having a most significant bit and at least one next significant bit; deriving a first output value (L 0 ) for the most significant bit; receiving a priori information (L 0 a priori ) for the most significant bit; and deriving a second output value (L 1 ) for the next significant bit based on the first output value (L 0 ), the a priori information (L 0 a priori ), and a decision boundary, wherein deriving the second output value (L 1 ) comprises modifying at least one of the first output value (L 0 ) and the decision boundary based on the a priori information (L 0 a priori ), and wherein deriving the second output value (L 1 ) comprises one of a comparison of the modified first output value with the decision boundary and a comparison of the first output value (L 0 ) with the modified decision boundary. receiving a signal indicative of a constellation point, wherein the constellation point represents a bit sequence having a most significant bit and at least one next significant bit; deriving a first output value (L 0 ) for the most significant bit; receiving a priori information (L 0 a priori ) for the most significant bit; and deriving a second output value (L 1 ) for the next significant bit based on the first output value (L 0 ), the a priori information (L 0 a priori ), and a decision boundary, wherein deriving the second output value (L 1 ) comprises modifying at least one of the first output value (L 0 ) and the decision boundary based on the a priori information (L 0 a priori ), and wherein deriving the second output value (L 1 ) comprises one of a comparison of the modified first output value with the decision boundary and a comparison of the first output value (L 0 ) with the modified decision boundary.
A noise filter comprising: a plurality of conductors each having a winding portion ; and a ring-shaped core inserted made from a magnetic material and being inserted through the winding portions , the ring-shaped core including: a core main body having a pair of extension portions connected to each other at one end; and a link core attached to the core main body at the other end to connect the extension portions , at least one of the extension portions of the core main body having a straight shape, and the plurality of conductors being arranged in a row to allow the extension portion having the straight shape to be inserted through the winding portion of each of the conductors of the plurality of conductors , characterized in that the link core includes a fitting plate portion fitted in the gap (G) between respective end portions of the extension portions of the core main body . a plurality of conductors each having a winding portion ; and a ring-shaped core inserted made from a magnetic material and being inserted through the winding portions , the ring-shaped core including: a core main body having a pair of extension portions connected to each other at one end; and a link core attached to the core main body at the other end to connect the extension portions , at least one of the extension portions of the core main body having a straight shape, and the plurality of conductors being arranged in a row to allow the extension portion having the straight shape to be inserted through the winding portion of each of the conductors of the plurality of conductors , characterized in that the link core includes a fitting plate portion fitted in the gap (G) between respective end portions of the extension portions of the core main body .
A magnetic core arrangement for an inductive device, in particular an inductor or transformer, the magnetic core arrangement comprising: - a first magnetic core ; and - a second magnetic core , the second core including at least one non-magnetic gap , the at least one non-magnetic gap being partly or totally filled by a resin, characterized in that the gap comprises the resin and one or more solid spacers, inserted partly or fully into the gap and/or filler particles dispersed in the resin. - a first magnetic core ; and - a second magnetic core , the second core including at least one non-magnetic gap , the at least one non-magnetic gap being partly or totally filled by a resin,
A data processing system comprising: a biometric sensor for sensing a biometric characteristic having a first part and a second part; a secure element separate from the biometric sensor ; a rich execution environment having an input coupled through the secure element to an output of the biometric sensor for receiving the first part, the first part being processed with a first function in the rich execution environment by a first processor; wherein said secure element has a relatively higher level of security than the rich execution environment , the secure element having a first input coupled to the output of the biometric sensor for receiving the second part, the secure element having a second input coupled to an output of the rich execution environment for receiving the processed first part, wherein a second processor in the secure element processes the second part with a matching function, and wherein the processed second part is compared with the processed first part for biometric matching. a biometric sensor for sensing a biometric characteristic having a first part and a second part; a secure element separate from the biometric sensor ; a rich execution environment having an input coupled through the secure element to an output of the biometric sensor for receiving the first part, the first part being processed with a first function in the rich execution environment by a first processor; wherein said secure element has a relatively higher level of security than the rich execution environment , the secure element having a first input coupled to the output of the biometric sensor for receiving the second part, the secure element having a second input coupled to an output of the rich execution environment for receiving the processed first part, wherein a second processor in the secure element processes the second part with a matching function, and wherein the processed second part is compared with the processed first part for biometric matching.
A cuvette for optical absorption spectroscopy comprising a substrate and a wicking structure in a spectral region on the substrate , the substrate being optically transparent in the spectral region , the wicking structure comprising an array of pillars extending from a planar surface of the substrate with each pillar in the array being of substantially equal height in the spectral region ; the substrate (12 further comprising an analyte solution loading region on the substrate , the analyte solution loading region configured to receive a droplet of the analyte solution such that the droplet is in fluid contact with the wicking structure such that the analyte solution is dispersed within the wicking structure , such that interpillar spacings between adjacent pillars in the spectral region are filled with an analyte solution to thereby form a spectral sample of the analyte solution in the interpillar spacings that is suitable for optical absorption spectroscopy; characterized in that the substrate and the pillars are both formed of glass or quartz; the height h of each pillar is from about 0.1 micrometre to about 500 micrometres to define an optical path length; wherein the diameter w of each pillar is from about 0.1 micrometres to about 100 micrometres; wherein the surface area fraction φ of the pillars is from about 0.01 to about 0.50; and wherein the spectral region is a portion of the cuvette comprising the wicking structure that is suitable for optical absorption spectroscopy. the substrate (12 further comprising an analyte solution loading region on the substrate , the analyte solution loading region configured to receive a droplet of the analyte solution such that the droplet is in fluid contact with the wicking structure such that the analyte solution is dispersed within the wicking structure , such that interpillar spacings between adjacent pillars in the spectral region are filled with an analyte solution to thereby form a spectral sample of the analyte solution in the interpillar spacings that is suitable for optical absorption spectroscopy; characterized in that the substrate and the pillars are both formed of glass or quartz; the height h of each pillar is from about 0.1 micrometre to about 500 micrometres to define an optical path length; wherein the diameter w of each pillar is from about 0.1 micrometres to about 100 micrometres; wherein the surface area fraction φ of the pillars is from about 0.01 to about 0.50; and wherein the spectral region is a portion of the cuvette comprising the wicking structure that is suitable for optical absorption spectroscopy.
A mullion-transom structure , comprising a supporting profiled element , on which at least one filling element is retained at the edge, and comprising a pressing strip , by means of which the at least one filling element is pressed toward the supporting profiled element , wherein the pressing strip is retained on the supporting profiled element by means of at least one fastening means and the at least one fastening means engages in a groove on the supporting profiled element , wherein the groove is formed with an undercut and the at least one fastening means is displaceably retained with a head segment in the groove , and the fastening means comprises a bolt which is connected to the head segment , whereby the bolt is fixed to the head segment , and the head segment is pivotably held in a premounted position on the groove of the supporting profiled element, characterized in that the groove has at least one recess on the supporting profiled element , at which at least the inwardly protruding webs at the groove are shortened or cut off, so that the head segment can be inserted into the groove .
Adjusting device for a disc brake, a) which is designed to rotate and thus axially adjust at least one rotary spindle , b) which acts on a brake pad by means of a pressure element c) and has an output sleeve with an output tooth assembly with at least one tooth , d) which engages with at least one groove of the rotary spindle , e) wherein the drive sleeve is non-rotatable relative to the rotary spindle but guided therein for axial movement, characterised in that f) in the output tooth assembly the at least one tooth and/or the at least one groove is/are embodied so as to be elastically compressible, g) in the output tooth assembly the at least one tooth and/or the at least one groove is/are supported elastically one against the other, or h) in the output tooth assembly a plurality of the teeth and/or a plurality of groove sections are supported elastically one against the other. a) which is designed to rotate and thus axially adjust at least one rotary spindle , b) which acts on a brake pad by means of a pressure element c) and has an output sleeve with an output tooth assembly with at least one tooth , d) which engages with at least one groove of the rotary spindle , e) wherein the drive sleeve is non-rotatable relative to the rotary spindle but guided therein for axial movement, characterised in that f) in the output tooth assembly the at least one tooth and/or the at least one groove is/are embodied so as to be elastically compressible, g) in the output tooth assembly the at least one tooth and/or the at least one groove is/are supported elastically one against the other, or h) in the output tooth assembly a plurality of the teeth and/or a plurality of groove sections are supported elastically one against the other.
A patient specific glenoid guide (100; 100') for attachment to a scapula of a patient, the guide comprising: a guide feature (110; 110'); at least three arms having a first end coupled with the guide feature and a second end disposed away from the guide feature; at least three peripheral pegs , each peripheral peg extending from the second end of a corresponding arm and comprising an engagement surface configured to engage the scapula of the patient; and a strut extending laterally from the guide feature, the strut comprising a slot that is configured to be positioned in use along a supero-inferior axis of a glenoid component to be implanted with reference to the guide (100; 100'). a guide feature (110; 110'); at least three arms having a first end coupled with the guide feature and a second end disposed away from the guide feature; at least three peripheral pegs , each peripheral peg extending from the second end of a corresponding arm and comprising an engagement surface configured to engage the scapula of the patient; and a strut extending laterally from the guide feature, the strut comprising a slot that is configured to be positioned in use along a supero-inferior axis of a glenoid component to be implanted with reference to the guide (100; 100').