mhurhangee/patent-ind-claim-en huggingface dataset:
A transcutaneous analyte sensor assembly , the assembly comprising: a housing including a base adapted for mounting on a skin of a host; an electronics unit configured to releasably mate with the housing; and a sensor configured to measure a level of an analyte in the host, wherein the sensor is operably connected to the electronics unit, wherein said housing comprises one or more contacts configured to provide secure electrical contact between the sensor and the electronics unit the contacts are mounted on or in a contact subassembly which includes a contact holder configured to fit with base and a hinge which allows the contact subassembly to pivot, articulate and/or hinge between a first position for insertion and a second position for use relative to the housing.
A wearable optical system, comprising: a user wearable frame comprising at least one lens and a centered viewing portion comprising a display supported by the frame , wherein the display is positioned for viewing by the user in a horizontal optical path defined relative to an eye of the user such that the display is viewable by the user when wearing the frame via the horizontal optical path, wherein the horizontal optical path refers to the optical path from an eye of a user looking straight out in an eyes-centered orientation; a vision redirecting mechanism; and a camera comprised in the vision redirecting mechanism, wherein the vision redirecting mechanism is cantilevered or comprised in or attached to an imaging extension attached to the frame and extending forward of the frame , defining a work area optical path, wherein the camera is in optical communication with the display and communicates images to the display, the horizontal optical path and the work area optical path being different optical paths and the work area optical path is oriented downward at an angle relative to the horizontal optical path, wherein the camera or the viewing portion is configured to magnify an image passed through the work area optical path; wherein the display is embedded within the at least one lens or suspended near the inner surface of the at least one lens. a user wearable frame comprising at least one lens and a centered viewing portion comprising a display supported by the frame , wherein the display is positioned for viewing by the user in a horizontal optical path defined relative to an eye of the user such that the display is viewable by the user when wearing the frame via the horizontal optical path, wherein the horizontal optical path refers to the optical path from an eye of a user looking straight out in an eyes-centered orientation; a vision redirecting mechanism; and a camera comprised in the vision redirecting mechanism, wherein the vision redirecting mechanism is cantilevered or comprised in or attached to an imaging extension attached to the frame and extending forward of the frame , defining a work area optical path, wherein the camera is in optical communication with the display and communicates images to the display, the horizontal optical path and the work area optical path being different optical paths and the work area optical path is oriented downward at an angle relative to the horizontal optical path, wherein the camera or the viewing portion is configured to magnify an image passed through the work area optical path; wherein the display is embedded within the at least one lens or suspended near the inner surface of the at least one lens.
A high definition multimedia interface HDMI plug, comprising a plug body and an HDMI interface connectable to an external socket, and further comprising an insulation housing disposed between the plug body and the HDMI interface , wherein one end of the HDMI interface is disposed inside the insulation housing and the other end is disposed outside the insulation housing , and the insulation housing and the plug body are connected in a rotatable manner, wherein two opposite side walls are extended from the front end of the plug body and the insulation housing is disposed between the side walls , wherein a mounting hole is provided in the side walls and a rotating part is permanently connected to the insulation housing , wherein the rotating part is disposed in the mounting hole, characterized in that : wherein the rotating part comprises a housing permanently connected to the insulation housing and a rotating shaft axially moving relative to the housing , wherein one end of the rotating shaft is disposed inside the housing and connected to the bottom of the housing by using a spring , and the other end is disposed inside the mounting hole; and wherein the insulation housing comprises an upper cover and a lower cover that are fastened to each other, wherein the upper cover and the lower cover are connected by using a countersunk screw, and a countersunk hole for housing the countersunk screw is provided on side walls of the upper cover and the lower cover , the side walls of the upper cover and the lower cover facing the two opposite side walls of the plug body . wherein the rotating part comprises a housing permanently connected to the insulation housing and a rotating shaft axially moving relative to the housing , wherein one end of the rotating shaft is disposed inside the housing and connected to the bottom of the housing by using a spring , and the other end is disposed inside the mounting hole; and wherein the insulation housing comprises an upper cover and a lower cover that are fastened to each other, wherein the upper cover and the lower cover are connected by using a countersunk screw, and a countersunk hole for housing the countersunk screw is provided on side walls of the upper cover and the lower cover , the side walls of the upper cover and the lower cover facing the two opposite side walls of the plug body .
A flap skew detection system that is configured to detect flap skew of one or more flaps moveably secured to one or more wings of an aircraft , the flap skew detection system comprising: a flap support assembly that couples a flap to a wing , the flap support assembly including: a fixed portion that is configured to secure to the wing ; a moveable portion that is moveably coupled to the fixed portion , wherein the moveable portion is configured to securely support the flap ; a link moveably coupled to the fixed portion and the moveable portion , wherein the link includes: (a) a cylinder defining an internal chamber including a hydraulic fluid chamber , (b) a piston having a piston head within the internal chamber , and (c) hydraulic fluid retained within the hydraulic fluid chamber ; a pressure detector fluidly coupled to the hydraulic fluid chamber , wherein the pressure detector is configured to detect a fluid pressure of the hydraulic fluid within the hydraulic fluid chamber ; and a skew detection unit in communication with the pressure detector , wherein the skew detection unit is configured to receive a pressure signal indicative of the fluid pressure from the pressure detector , and is configured to determine existence of flap skew through an analysis of the pressure signal; wherein the skew detection unit is configured to compare the pressure signal to another pressure signal output from another pressure detector coupled to another flap support assembly that is coupled to the flap or another flap in order to determine the existence of flap skew; and wherein the skew detection unit is configured to output a flap skew alert signal upon determining that flap skew exists. a fixed portion that is configured to secure to the wing ; a moveable portion that is moveably coupled to the fixed portion , wherein the moveable portion is configured to securely support the flap ; a link moveably coupled to the fixed portion and the moveable portion , wherein the link includes: (a) a cylinder defining an internal chamber including a hydraulic fluid chamber , (b) a piston having a piston head within the internal chamber , and (c) hydraulic fluid retained within the hydraulic fluid chamber ; a pressure detector fluidly coupled to the hydraulic fluid chamber , wherein the pressure detector is configured to detect a fluid pressure of the hydraulic fluid within the hydraulic fluid chamber ; and a skew detection unit in communication with the pressure detector , wherein the skew detection unit is configured to receive a pressure signal indicative of the fluid pressure from the pressure detector , and is configured to determine existence of flap skew through an analysis of the pressure signal; wherein the skew detection unit is configured to compare the pressure signal to another pressure signal output from another pressure detector coupled to another flap support assembly that is coupled to the flap or another flap in order to determine the existence of flap skew; and wherein the skew detection unit is configured to output a flap skew alert signal upon determining that flap skew exists.
An image processing system for localising recognised characters in an image, comprising: a character recognition means configured to perform character recognition of the image to obtain a recognised character using a neural network that has been trained to recognise a plurality of strings of characters, wherein the recognised character is a machine-encoded character provided by an encoding standard for electronic communication; an estimation means configured to estimate a location of the recognised character that has been obtained by performing character recognition of the image; a determination means configured to determine locations of a plurality of connected components identified in the image, wherein the plurality of connected components are each defined by a plurality of adjacent pixels; a comparison means configured to compare the location of the obtained recognised character and the locations of the connected components, to identify a first connected component having a location which is closest to the location of the obtained recognised character, and a second connected component which is not associated with any recognised character and having a location which is not closest to the location of the obtained recognised character; and an association means configured to associate the obtained recognised character with the first identified connected component, the second identified connected component and the location of the first identified connected component. a character recognition means configured to perform character recognition of the image to obtain a recognised character using a neural network that has been trained to recognise a plurality of strings of characters, wherein the recognised character is a machine-encoded character provided by an encoding standard for electronic communication; an estimation means configured to estimate a location of the recognised character that has been obtained by performing character recognition of the image; a determination means configured to determine locations of a plurality of connected components identified in the image, wherein the plurality of connected components are each defined by a plurality of adjacent pixels; a comparison means configured to compare the location of the obtained recognised character and the locations of the connected components, to identify a first connected component having a location which is closest to the location of the obtained recognised character, and a second connected component which is not associated with any recognised character and having a location which is not closest to the location of the obtained recognised character; and an association means configured to associate the obtained recognised character with the first identified connected component, the second identified connected component and the location of the first identified connected component.
A solid form of compound which is a polymorph characterized by the XRPD patterns at 2-theta values of 5.9, 8.3, 9.5, 10.1, 11.3, 14.2, 15.8, 17.6, 19.0, 19.4, 19.8, 20.3 and 25.5.
A fingerprint acquisition apparatus, characterized by comprising: a fingerprint sensor , an optical sensor and a signal processing unit ; the fingerprint sensor and the optical sensor connect to the signal processing unit respectively; wherein the optical sensor is configured to emit an optical signal at a first frequency and receive a reflected signal formed after the optical signal is emitted to a human finger and after the human finger reflects the optical signal; the optical sensor is further configured to emit an optical signal at a second frequency when the signal processing unit determines that the strength of the reflected signal at the first frequency is greater than a first predetermined threshold and receive a reflected signal formed after the optical signal at the second frequency is emitted to a human finger and after the human finger reflects the optical signal; and the signal processing unit is configured to determine whether the human finger is in stable contact with the fingerprint acquisition apparatus according to stability of the strength of the reflected signal at the second frequency; and activate the fingerprint sensor when the signal processing unit determines that the human finger is in stable contact with the fingerprint acquisition apparatus; and the fingerprint sensor is configured to acquire a fingerprint of the human finger after being activated; wherein the second frequency is higher than the first frequency.
A method of detecting a target material in a sample comprising the target material in a form having magnetic properties, the method comprising: - magnetic separation of the magnetic form of the target material from the sample in a first separation phase in which the target material is magnetically separated from the sample by passing the sample through a magnetic separator and retaining the magnetic form of the target material within the separator ; - dissolution of the separated magnetic form of the target material to provide an analysable solution comprising the target material in a second analysis phase in which the target material is removed from the magnetic separator by dissolution and elution in a solution so as to provide the analysable solution; - spectroscopic analysis of the analysable solution, in a spectroscopic analyser having a sample inlet in fluid connection with a sample outlet of the magnetic separator , to detect the target material. - magnetic separation of the magnetic form of the target material from the sample in a first separation phase in which the target material is magnetically separated from the sample by passing the sample through a magnetic separator and retaining the magnetic form of the target material within the separator ; - dissolution of the separated magnetic form of the target material to provide an analysable solution comprising the target material in a second analysis phase in which the target material is removed from the magnetic separator by dissolution and elution in a solution so as to provide the analysable solution; - spectroscopic analysis of the analysable solution, in a spectroscopic analyser having a sample inlet in fluid connection with a sample outlet of the magnetic separator , to detect the target material.
Method for controlling access to a vehicle , wherein an electronic key for accessing one or more vehicle components after the vehicle is shut down, in order to park the vehicle in a parked position, is deactivated so that the vehicle is parked in the parked position, so that access, attempted by means of the deactivated electronic key, to the one or more vehicle components of the vehicle parked in the parked position can be prevented, characterized in that the shutting down of the vehicle is monitored by means of a vehicle-external monitoring system, wherein the vehicle-external monitoring system comprises one or more video cameras and/or one or more radar sensors and/or more ultrasonic sensors and/or one or more lidar sensors and/or one or more laser sensors and/or one or more photoelectric barriers, and wherein the end of the shutting down, which means that a parking process has therefore begun, is detected on the basis of the monitoring.
A load bearing assembly comprising: a lug body ; an outer race disposed within and supported by the lug body ; an inner race disposed within and supported by the outer race ; and a relief slot defined between the adjacent surfaces of the outer race and the lug body , wherein the relief slot is formed in the surface of the outer race , characterised in that the edges of the relief slot are gradual inclines out to the outermost surface of the outer race. a lug body ; an outer race disposed within and supported by the lug body ; an inner race disposed within and supported by the outer race ; and a relief slot defined between the adjacent surfaces of the outer race and the lug body , wherein the relief slot is formed in the surface of the outer race , characterised in that the edges of the relief slot are gradual inclines out to the outermost surface of the outer race.
A method performed by a relay device comprising: identifying, an event disrupting connectivity to a first network; determining, that the relay device has a connection to a second network; determining based at least in part on identifying the event disrupting connectivity to the first network and determining that the relay device has a connection to the second network, to transmit a message indicating that the relay device has network connectivity; transmitting based at least in part on determining to transmit the message, the message indicating to one or more neighboring devices that the relay device has network connectivity; receiving a first relay request from a first device and a second relay request from a second device; forwarding , using the connection to the second network, a message associated with the first relay request; and transmitting , to the second device, a backoff message. identifying, an event disrupting connectivity to a first network; determining, that the relay device has a connection to a second network; determining based at least in part on identifying the event disrupting connectivity to the first network and determining that the relay device has a connection to the second network, to transmit a message indicating that the relay device has network connectivity; transmitting based at least in part on determining to transmit the message, the message indicating to one or more neighboring devices that the relay device has network connectivity; receiving a first relay request from a first device and a second relay request from a second device; forwarding , using the connection to the second network, a message associated with the first relay request; and transmitting , to the second device, a backoff message.
Aqueous basecoat material comprising (A) at least one hydroxyl-functional polymer as a binder component, (B) at least one binder component which is different from component (A) and comprises (B1) at least one carbonyl group-containing polyurethane poly(meth)acrylate and also (B2) at least one organic compound having at least two hydrazine, hydrazide and/or hydrazone groups, and also (C) at least one branched and/or secondary aliphatic monoalcohol having at least four carbon atoms. (A) at least one hydroxyl-functional polymer as a binder component, (B) at least one binder component which is different from component (A) and comprises (B1) at least one carbonyl group-containing polyurethane poly(meth)acrylate and also (B2) at least one organic compound having at least two hydrazine, hydrazide and/or hydrazone groups, and also (B1) at least one carbonyl group-containing polyurethane poly(meth)acrylate and also (B2) at least one organic compound having at least two hydrazine, hydrazide and/or hydrazone groups, (C) at least one branched and/or secondary aliphatic monoalcohol having at least four carbon atoms.
A drive circuit configured to output a drive signal (Sd) to be applied to a liquid jet head , comprising: a waveform storage section configured to store a plurality of pieces of waveform configuration information (Dw0-Dw3); a waveform selection section which is configured to select one of the plurality of pieces of waveform configuration information stored in the waveform storage section, and which is configured to output the waveform configuration information (Dwa) selected as selected waveform configuration information; characterised in that the drive circuit further comprises: a signal generation section configured to generate the drive signal (Sd) configured to jet liquid, based on the selected waveform configuration information output from the waveform selection section and an image datum (Dp) input from an outside of the liquid jet head, wherein the waveform selection section is configured to select the selected waveform configuration information from the plurality of pieces of waveform configuration information, using one of a first configuration signal (Sw) set in advance and a second configuration signal (Spa) defined by an additional data signal (Dp[5:4]) included in the image datum. a waveform storage section configured to store a plurality of pieces of waveform configuration information (Dw0-Dw3); a waveform selection section which is configured to select one of the plurality of pieces of waveform configuration information stored in the waveform storage section, and which is configured to output the waveform configuration information (Dwa) selected as selected waveform configuration information; characterised in that the drive circuit further comprises: a signal generation section configured to generate the drive signal (Sd) configured to jet liquid, based on the selected waveform configuration information output from the waveform selection section and an image datum (Dp) input from an outside of the liquid jet head, wherein the waveform selection section is configured to select the selected waveform configuration information from the plurality of pieces of waveform configuration information, using one of a first configuration signal (Sw) set in advance and a second configuration signal (Spa) defined by an additional data signal (Dp[5:4]) included in the image datum. a signal generation section configured to generate the drive signal (Sd) configured to jet liquid, based on the selected waveform configuration information output from the waveform selection section and an image datum (Dp) input from an outside of the liquid jet head, wherein the waveform selection section is configured to select the selected waveform configuration information from the plurality of pieces of waveform configuration information, using one of a first configuration signal (Sw) set in advance and a second configuration signal (Spa) defined by an additional data signal (Dp[5:4]) included in the image datum.