mhurhangee/patent-ind-claim-en huggingface dataset:
A patient walking assistance device (D), including a chassis equipped with wheels (11; 13) spaced apart along the width and the length of said chassis, a rod-shaped saddle support surmounting said chassis and extending substantially vertically, said walking assistance device (D) comprising two movable segments disposed on either side of said saddle support and belonging to a crankset , each movable segment being hinged about an axis (91", 93") transverse to said chassis and sliding along parallel longitudinal rails , said walking assistance device (D) further including an element for wedging the patient's foot or leg and means for spacing the patient's thighs disposed on either side of said saddle support , said spacing means following the alternating movement of the patient's lower limbs held by said wedging elements and by said spacing means when the patient is installed on said device, characterised in that said thigh spacing means comprise two lower lateral plates mounted parallel to each other on the saddle post , on either side of the latter, said lower lateral plates supporting respectively elongate arms to which supports for thigh or leg receptacles are fastened, said elongate arms pivoting synchronously back and forth and vice versa about a first upper transverse axis and using connecting rods pivoting about secondary axes to alternately pass from a first position to a second position, the rotation of an elongate arm (105a; 105b) in one direction causing the rotation of the other opposite arm (105b; 105a) in the opposite direction, and vice versa.
A pot magnet for a moving coil arrangement of an electronic balance operating on an electromagnetic compensation principle, said pot magnet comprising: - a pot base and a pot wall rising perpendicularly from the pot base , and - a permanent magnet structure , disposed within and defining an annular gap to the pot wall , wherein the permanent magnet structure comprises a permanent magnet body arranged on a side of the structure that faces the pot base, and a pole plate connected to a surface of the permanent magnet body that faces away from the pot base, characterized in that the pole plate is fixed by a rigid mechanical connection, independent of the permanent magnet body , to the pot base at a predetermined distance from the pot base, and wherein the permanent magnet body is glued to the pole plate on a surface of the pole plate that faces the pot base without contact to the pot base . - a pot base and a pot wall rising perpendicularly from the pot base , and - a permanent magnet structure , disposed within and defining an annular gap to the pot wall , wherein the permanent magnet structure comprises a permanent magnet body arranged on a side of the structure that faces the pot base, and a pole plate connected to a surface of the permanent magnet body that faces away from the pot base, characterized in that the pole plate is fixed by a rigid mechanical connection, independent of the permanent magnet body , to the pot base at a predetermined distance from the pot base, and wherein the permanent magnet body is glued to the pole plate on a surface of the pole plate that faces the pot base without contact to the pot base .
A computer-implemented method comprising: identifying, based on user input, a region of interest for an anatomical structure comprising a selected region of a heart in a patient's body; determining, in a processor, a sensing zone as a proper subset of a plurality of electrodes positioned on a body surface of the patient's body corresponding to the region of interest by computing a transfer matrix having coefficients correlating electrical activity at the region of interest with body surface electrical activity measured by the subset of the plurality of electrodes, wherein the body surface electrical activity in the sensing zone provides a surrogate estimate for electrical activity of the region of interest. identifying, based on user input, a region of interest for an anatomical structure comprising a selected region of a heart in a patient's body; determining, in a processor, a sensing zone as a proper subset of a plurality of electrodes positioned on a body surface of the patient's body corresponding to the region of interest by computing a transfer matrix having coefficients correlating electrical activity at the region of interest with body surface electrical activity measured by the subset of the plurality of electrodes, wherein the body surface electrical activity in the sensing zone provides a surrogate estimate for electrical activity of the region of interest.
A transport refrigeration system comprising: a first engine configured to power a refrigeration unit ; a first fuel tank fluidly connected to the first engine through a first fuel line , the first fuel tank configured to supply fuel to the first engine through the first fuel line ; a first shut off valve located within the first fuel line proximate the first fuel tank ; a second shut off valve located within the first fuel line proximate the first engine ; a sensor system configured to detect at least one of a crash of the transport refrigeration unit , a crash of the first fuel tank , a fuel leak in the first fuel line , and an engine stall in the first engine , the sensor system comprising a fuel tank crash detection sensor located proximate the first fuel tank , wherein the fuel tank crash detection sensor is configured to detect an acceleration of the first fuel tank ; a controller configured to control the operation of at least one of the refrigeration unit , the first engine , the first fuel tank , the first shut off valve , the second shut off valve , and the sensor system ; and wherein the controller is configured to close the first shutoff valve and the second shutoff valve when the sensor system detects at least one of a crash of the transport refrigeration unit , a crash of the first fuel tank , a fuel leak in the first fuel line , and an engine stall in the first engine . a first engine configured to power a refrigeration unit ; a first fuel tank fluidly connected to the first engine through a first fuel line , the first fuel tank configured to supply fuel to the first engine through the first fuel line ; a first shut off valve located within the first fuel line proximate the first fuel tank ; a second shut off valve located within the first fuel line proximate the first engine ; a sensor system configured to detect at least one of a crash of the transport refrigeration unit , a crash of the first fuel tank , a fuel leak in the first fuel line , and an engine stall in the first engine , the sensor system comprising a fuel tank crash detection sensor located proximate the first fuel tank , wherein the fuel tank crash detection sensor is configured to detect an acceleration of the first fuel tank ; a controller configured to control the operation of at least one of the refrigeration unit , the first engine , the first fuel tank , the first shut off valve , the second shut off valve , and the sensor system ; and wherein the controller is configured to close the first shutoff valve and the second shutoff valve when the sensor system detects at least one of a crash of the transport refrigeration unit , a crash of the first fuel tank , a fuel leak in the first fuel line , and an engine stall in the first engine .
A prepreg sheet comprising: a plurality of prepreg tapes that are juxtaposed to each other and each of which contains a reinforcing fiber bundle and a matrix resin composition, the plurality of prepreg tapes being provided such that adjacent prepreg tapes of the plurality of prepreg tapes overlap each other at respective lateral edge portions of the adjacent prepreg tapes, characterized in that : the adjacent prepreg tapes overlap each other for a length (o) that is not more than 50% of a width of a prepreg tape of the adjacent prepreg tapes; and the adjacent prepreg tapes overlap each other for a length (o) that is not less than 1% of a width of a prepreg tape of the adjacent prepreg tapes. a plurality of prepreg tapes that are juxtaposed to each other and each of which contains a reinforcing fiber bundle and a matrix resin composition, the plurality of prepreg tapes being provided such that adjacent prepreg tapes of the plurality of prepreg tapes overlap each other at respective lateral edge portions of the adjacent prepreg tapes, characterized in that : the adjacent prepreg tapes overlap each other for a length (o) that is not more than 50% of a width of a prepreg tape of the adjacent prepreg tapes; and the adjacent prepreg tapes overlap each other for a length (o) that is not less than 1% of a width of a prepreg tape of the adjacent prepreg tapes.
Detector for Kikuchi diffraction, the detector comprising: a photodetector configured for detecting incident radiation; a detector body and a detector head mountable to each other; the detector body comprising a body part enclosing the photodetector configured for detecting incident radiation; a vacuum window arranged upstream the photodetector with respect to a propagation direction of the incident radiation; and a first body mounting portion configured to be mounted to a SEM chamber port and a second body mounting portion , and the detector head comprising a hollow column and a scintillation screen disposed at a second end thereof and a head mounting portion comprising at least one flange element and configured to be mounted to the second body mounting portion via the at least at least one flange element disposed at a first end of the hollow column opposite the second end , wherein the second body mounting portion comprises at least one reception element configured for guiding, receiving and/or fastening the at least one flange element . a photodetector configured for detecting incident radiation; a detector body and a detector head mountable to each other; the detector body comprising a body part enclosing the photodetector configured for detecting incident radiation; a vacuum window arranged upstream the photodetector with respect to a propagation direction of the incident radiation; and a first body mounting portion configured to be mounted to a SEM chamber port and a second body mounting portion , and the detector head comprising a hollow column and a scintillation screen disposed at a second end thereof and a head mounting portion comprising at least one flange element and configured to be mounted to the second body mounting portion via the at least at least one flange element disposed at a first end of the hollow column opposite the second end , wherein the second body mounting portion comprises at least one reception element configured for guiding, receiving and/or fastening the at least one flange element .
Air guiding arrangement for a motor vehicle, comprising: - a first air duct and - at least one separate second air duct , wherein the air ducts each have an elongated duct wall , which respectively delimits a cavity for conducting the air, which cavity lies between at least one air inlet opening and at least one air outlet opening , and wherein the air ducts are connected to one another via a first locking connection of a first locking element and a first locking counter-element and via at least a second locking connection of a second locking element and a second locking counter-element , and wherein the air ducts are arranged adjacent to one another in their longitudinal extension directions (L1, L2) in order to form a multiduct air guiding arrangement, characterised in that the locking connections are moulded in one piece out of the respective duct wall of the first air duct and the second air duct , and that at least the second locking element is designed as a locking dome and is formed on the first air duct or the second air duct , wherein at least the second locking counter-element is designed as a locking dome seating and is formed correspondingly on the first air duct or the second air duct , wherein the locking dome has at least one moulding formed undercutting the locking dome on the dome flank , the end region of which moulding is spaced at a distance (X) from the dome flank , and wherein the locking dome seating has an inlet opening with different opening widths , wherein the longest opening width of the inlet opening is greater than or equal to the width (b+n·X) of the locking dome with the moulding or with the mouldings , and the smallest opening width is greater than or equal to the width (b) of the locking dome and smaller than the width (b+n·X) of the locking dome with the moulding or with the mouldings . - a first air duct and - at least one separate second air duct ,
Cooling assembly for a motor vehicle , comprising at least one first heat exchanger mainly extending in a first plane (P1), at least one second heat exchanger mainly extending in a second plane (P2) and at least one protective grid for protecting the second heat exchanger , the first heat exchanger and/or the second heat exchanger being supported by a frame , characterized in that the at least one protective grid for protecting the second heat exchanger forms a one-piece part with the frame .
A method comprising: receiving crossline measurement data measured by survey receivers; based at least in part on an amount of crossline energy of the crossline measurement data, selecting a type of data processing technique from among a plurality of different types of data processing techniques comprising a 2-dimensional data processing technique, a 2.5-dimensional data processing technique, and a 3-dimensional data processing technique, wherein the amount of crossline energy comprises an amount of energy that is present in a signal that propagates in a crossline direction; and performing the selected type of data processing technique to characterize a target structure. receiving crossline measurement data measured by survey receivers; based at least in part on an amount of crossline energy of the crossline measurement data, selecting a type of data processing technique from among a plurality of different types of data processing techniques comprising a 2-dimensional data processing technique, a 2.5-dimensional data processing technique, and a 3-dimensional data processing technique, wherein the amount of crossline energy comprises an amount of energy that is present in a signal that propagates in a crossline direction; and performing the selected type of data processing technique to characterize a target structure.
An inhaler comprising: • a housing which contains a blister strip having a plurality of blisters which contain powdered medicament for inhalation, • a mouthpiece mounted to the housing through which the medicament is inhaled by a user, • an indexing and opening mechanism for indexing the blister strip and for opening the blisters which is operated by an actuator, • wherein the blister strip is indexed by forward motion of the actuator from a first position to a second position, characterized in that the blister strip is also indexed in the same direction by reverse motion of the actuator from the second positon to the first position. • a housing which contains a blister strip having a plurality of blisters which contain powdered medicament for inhalation, • a mouthpiece mounted to the housing through which the medicament is inhaled by a user, • an indexing and opening mechanism for indexing the blister strip and for opening the blisters which is operated by an actuator, • wherein the blister strip is indexed by forward motion of the actuator from a first position to a second position,
A method for fingerprint matching and camera identification, wherein it is provided for reading, through a device , a camera fingerprint extracted from a set of images, and calculating a compressed version of said camera fingerprint through a random projections technique, wherein said method provides for storing in memory means , in particular a database, scale-invariant versions of compressed fingerprints, said versions being obtained executing in succession the operations of: - create a random pattern corresponding to predetermined maximum sizes; - resize said pattern to the dimensions of said digital fingerprint in order to generate a BCCB, Block Circulant with Circulant Blocks, BCCB matrix from said resized pattern, - calculate the product of said BCCB matrix with said digital fingerprint, - crop a contiguous area of said product of predetermined sizes, and - store in the memory means a set of parameters consisting in a position and a size of the area to be cropped and a size of the uncompressed digital fingerprint. - create a random pattern corresponding to predetermined maximum sizes; - resize said pattern to the dimensions of said digital fingerprint in order to generate a BCCB, Block Circulant with Circulant Blocks, BCCB matrix from said resized pattern, - calculate the product of said BCCB matrix with said digital fingerprint, - crop a contiguous area of said product of predetermined sizes, and - store in the memory means a set of parameters consisting in a position and a size of the area to be cropped and a size of the uncompressed digital fingerprint.
A circuit structure , comprising: a switching circuit , including a first interface , a second interface and a control interface , wherein the second interface of the switching circuit is grounded; a data-line group , connected with the first interface of the switching circuit and a pixel circuit in a display panel, and configured to provide a data signal to the pixel circuit; and characterised in that the circuit structure further comprises a control circuit , including a first end , a second end and a control end , wherein the control interface of the switching circuit is connected with the second end of the control circuit ; a driving power line , connected with the control end of the control circuit and configured to provide a driving power voltage in a working stage to conduct the first end of the control circuit and the second end of the control circuit ; a first voltage line , connected with the first end of the control circuit and configured to, when the first end of the control circuit and the second end of the control circuit are conducted, provide a first voltage to the control interface of the switching circuit through the control circuit to disconnect the first interface of the switching circuit from the second interface of the switching circuit ; and a second resistor (R2), wherein a first end of the second resistor (R2) is simultaneously connected with the control interface of the switching circuit and the second end of the control circuit , and a second end of the second resistor (R2) is grounded.
A process for initiating and carrying out the conversion of CO into an end product, the process comprising: feeding both a CO-containing substrate and a basic neutralizing agent to a bioreactor comprising a culture medium containing carboxydotrophic bacteria to generate the end product and an acidic metabolite, wherein the basic neutralizing agent flow rate is controlled based on a difference between an acidic metabolite measured concentration in the culture medium and an acidic metabolite set point concentration in the culture medium, wherein the acidic metabolite set point concentration is determined according to formula : A 1 · BIOCON mv + B 1 wherein BIOCON mv represents a carboxydotrophic bacteria measured concentration in the culture medium and wherein A 1 and B 1 are constants determined empirically from experimental data; wherein (a) when the acidic metabolite measured concentration exceeds the acidic metabolite set point concentration, the flow rate of the basic neutralizing agent is decreased; and when the acidic metabolite measured concentration falls below the determined acidic metabolite set point concentration, the flow rate of the basic neutralizing agent is increased. feeding both a CO-containing substrate and a basic neutralizing agent to a bioreactor comprising a culture medium containing carboxydotrophic bacteria to generate the end product and an acidic metabolite, wherein the basic neutralizing agent flow rate is controlled based on a difference between an acidic metabolite measured concentration in the culture medium and an acidic metabolite set point concentration in the culture medium, wherein the acidic metabolite set point concentration is determined according to formula : A 1 · BIOCON mv + B 1 wherein BIOCON mv represents a carboxydotrophic bacteria measured concentration in the culture medium and wherein A 1 and B 1 are constants determined empirically from experimental data; wherein (a) when the acidic metabolite measured concentration exceeds the acidic metabolite set point concentration, the flow rate of the basic neutralizing agent is decreased; and (a) when the acidic metabolite measured concentration exceeds the acidic metabolite set point concentration, the flow rate of the basic neutralizing agent is decreased; and when the acidic metabolite measured concentration falls below the determined acidic metabolite set point concentration, the flow rate of the basic neutralizing agent is increased.
A method for monitoring the performance of a media streaming service being used to deliver media streams to user equipment devices over a communications network, wherein each of said media streams is encoded according to one a plurality of encoding levels, the method comprising the steps of: collecting, for a first of said media streams encoded according to a first encoding level of said plurality of encoding levels, values for one or more Resource Service Key Performance Indicators, R-KPIs, wherein the R-KPIs are network level KPIs relating to resources in the communication network; establishing , for each of one or more System Service Key Performance Indicators, S-KPIs, for the media streaming service being delivered to a particular user equipment device, a functional dependency model in respect of media streams encoded according to the first encoding level by time-correlating values of the S-KPI with values of the one or more R-KPIs collected for the first of said media streams, and finding a relationship between values of the S-KPI in respect of the first encoding level and values of the one or more R-KPIs using a machine learning algorithm; and monitoring performance of the media streaming service in respect of a second of said media streams, encoded at the first encoding level, by collecting values for the one or more R-KPIs for the second of said media streams and applying the respective established functional dependency model to estimate a value for one of the one or more S-KPIs in respect of the second of said media streams. collecting, for a first of said media streams encoded according to a first encoding level of said plurality of encoding levels, values for one or more Resource Service Key Performance Indicators, R-KPIs, wherein the R-KPIs are network level KPIs relating to resources in the communication network; establishing , for each of one or more System Service Key Performance Indicators, S-KPIs, for the media streaming service being delivered to a particular user equipment device, a functional dependency model in respect of media streams encoded according to the first encoding level by time-correlating values of the S-KPI with values of the one or more R-KPIs collected for the first of said media streams, and finding a relationship between values of the S-KPI in respect of the first encoding level and values of the one or more R-KPIs using a machine learning algorithm; and time-correlating values of the S-KPI with values of the one or more R-KPIs collected for the first of said media streams, and finding a relationship between values of the S-KPI in respect of the first encoding level and values of the one or more R-KPIs using a machine learning algorithm; and monitoring performance of the media streaming service in respect of a second of said media streams, encoded at the first encoding level, by collecting values for the one or more R-KPIs for the second of said media streams and applying the respective established functional dependency model to estimate a value for one of the one or more S-KPIs in respect of the second of said media streams.