mhurhangee/patent-ind-claim-en huggingface dataset:
A catheter, comprising a stylet and a catheter shape release mechanism, which includes: a catheter handle having a handle body defining a proximal end and an opposed distal end with a passage extending between the proximal end and the distal end, an Interior of the catheter handle being configured to receive a proximal part of the stylet, the stylet protruding from the distal end of the handle body and the stylet having a distal part which is formed into a predetermined shape, characterized in that an elongate catheter sheath carrier is slidably received in the passage of the handle body to protrude through the distal end of the handle body, a catheter sheath being receivable over the stylet and mountable to the carrier to extend from a distal end of the carrier, the carrier being slidable between a first position in which the shaped distal part of the stylet lies in register with a distal part of the catheter sheath to impart that shape to the catheter sheath and a second position in which the shaped distal part of the stylet is located proximally of the distal part of the catheter sheath. a catheter handle having a handle body defining a proximal end and an opposed distal end with a passage extending between the proximal end and the distal end, an Interior of the catheter handle being configured to receive a proximal part of the stylet, the stylet protruding from the distal end of the handle body and the stylet having a distal part which is formed into a predetermined shape, characterized in that an elongate catheter sheath carrier is slidably received in the passage of the handle body to protrude through the distal end of the handle body, a catheter sheath being receivable over the stylet and mountable to the carrier to extend from a distal end of the carrier, the carrier being slidable between a first position in which the shaped distal part of the stylet lies in register with a distal part of the catheter sheath to impart that shape to the catheter sheath and a second position in which the shaped distal part of the stylet is located proximally of the distal part of the catheter sheath.
An insulator , applied in a metallic shell , comprising an insulating material, wherein the insulating material comprises a plastic material, the plastic material comprises polyphenylene sulfide (PPS), polybutylene terephthalate (PBT) or polyamide (PA), characterised in that the plastic material further comprises a first coating and a second coating, the first coating is configured to colour the plastic material to make the insulator exhibit a same colour as that of a body of the metallic shell , the second coating is configured to improve luster of the plastic material to make the insulator exhibit a same metallic luster as that of the body .
An electronic apparatus for vehicle component setting, the device comprising: a sensor signal interface configured to connect to a plurality of vehicle sensors ; a regressing module configured to receive a sensor signal output by each of the plurality of vehicle sensors and to predict a continuous component setting value based on the received sensor signals; a rounding operator configured to round the continuous component setting value predicted by the regressing module to a discrete component setting value and to output the discrete component setting value; a component interface configured to connect to at least one vehicle component and further configured to transmit a setting signal corresponding to the discrete component setting value to the at least one vehicle component ; and a controller configured to train the regressing module based on training data and the corresponding discrete component setting value output by the rounding operator . a sensor signal interface configured to connect to a plurality of vehicle sensors ; a regressing module configured to receive a sensor signal output by each of the plurality of vehicle sensors and to predict a continuous component setting value based on the received sensor signals; a rounding operator configured to round the continuous component setting value predicted by the regressing module to a discrete component setting value and to output the discrete component setting value; a component interface configured to connect to at least one vehicle component and further configured to transmit a setting signal corresponding to the discrete component setting value to the at least one vehicle component ; and a controller configured to train the regressing module based on training data and the corresponding discrete component setting value output by the rounding operator .
A fluid product (P) application device, comprising: - a fixed mounting part intended to be fixed on a reservoir (R) containing fluid product (P), this fixed mounting part comprising a dip tube intended to extend in the reservoir (R), - a fluid product applicator (A) removably mounted on the fixed mounting part , this fluid product applicator (A) comprising a sleeve internally defining a sampling chamber (C) adapted to sample fluid product (P) sucked through the dip tube , characterized in that the sleeve comprises an inner cylindrical wall and the fixed mounting part comprises a nozzle which extends in the extension of the dip tube and which forms a piston lip able to come into sealed sliding contact with the cylindrical inner wall of the sleeve . - a fixed mounting part intended to be fixed on a reservoir (R) containing fluid product (P), this fixed mounting part comprising a dip tube intended to extend in the reservoir (R), - a fluid product applicator (A) removably mounted on the fixed mounting part , this fluid product applicator (A) comprising a sleeve internally defining a sampling chamber (C) adapted to sample fluid product (P) sucked through the dip tube ,
An oxygen storage material comprising: zirconia particles and a ceria-zirconia complex oxide supported on them, wherein the ceria-zirconia complex oxide includes a pyrochlore phase and has a mean crystallite diameter of 10 nm to 22.9 nm, wherein the mean crystallite diameter is a mean value for maximum diameters of 35 crystallites measured from a transmission electron microscope (TEM) image. zirconia particles and a ceria-zirconia complex oxide supported on them, wherein the ceria-zirconia complex oxide includes a pyrochlore phase and has a mean crystallite diameter of 10 nm to 22.9 nm, wherein the mean crystallite diameter is a mean value for maximum diameters of 35 crystallites measured from a transmission electron microscope (TEM) image.
A device comprising a multipole assembly comprising a plurality of poles (810-840), in which at least one of the poles comprises an integral fluid path comprising an aperture (320-322) and a serration (330-332) within a body of the at least one pole that fluidically couples an ion volume formed by the poles (810-840) of the multipole assembly to an outer volume of the multipole assembly , in which the integral fluid path in the at least one pole is configured to decrease a pressure of the multipole assembly by drawing gas from the ion volume into the outer volume through the serration and onto the aperture of the at least one pole; wherein: the aperture (320-322) has a rounded cross section and a larger diameter than the serration (330-332); the serration (330-332) is angled away from an upstream end of the longitudinal axis of the pole body; and the serration (330-332) provides fluidic coupling between the ion volume formed by the multipole assembly and its respective aperture (320-322).
A method for monitoring of an individual when installing an equipment, comprising: monitoring through a motion sensing input device an individual installing equipment, which involves the positions of kneeling, standing or reaching, wherein the motion sensing input device comprises a motion sensor; collecting, at a computer , motion sensor input data of motions of the individual from the motion sensor for an interval of time, for use in determining qualitative description of positions of the individual, wherein said motion sensor is placed in a position where it can remotely observe the individual's movements; analyzing, using the computer , the motion sensor input data using an analysis application having a set of classified predetermined motions of interest to classify and identify a position of the individual using an associative memory classification as one of at least standing, reaching or kneeling, wherein the analysis application classifies a movement captured during the interval of time as a motion corresponding to one of the set of classified predetermined motions of interest based on shared relative attributes; generating an output providing notice of the identified predetermined motion of interest to a monitoring system ; and responsive to receiving the notice, collecting metrics on the motion of interest, said metrics including a duration the individual maintains a potentially risky position during said motion of interest, wherein said risky position is a position that can cause harm to said individual if done repeatedly or incorrectly. monitoring through a motion sensing input device an individual installing equipment, which involves the positions of kneeling, standing or reaching, wherein the motion sensing input device comprises a motion sensor; collecting, at a computer , motion sensor input data of motions of the individual from the motion sensor for an interval of time, for use in determining qualitative description of positions of the individual, wherein said motion sensor is placed in a position where it can remotely observe the individual's movements; analyzing, using the computer , the motion sensor input data using an analysis application having a set of classified predetermined motions of interest to classify and identify a position of the individual using an associative memory classification as one of at least standing, reaching or kneeling, wherein the analysis application classifies a movement captured during the interval of time as a motion corresponding to one of the set of classified predetermined motions of interest based on shared relative attributes; generating an output providing notice of the identified predetermined motion of interest to a monitoring system ; and responsive to receiving the notice, collecting metrics on the motion of interest, said metrics including a duration the individual maintains a potentially risky position during said motion of interest, wherein said risky position is a position that can cause harm to said individual if done repeatedly or incorrectly.
A toner cartridge comprising: a casing including an accommodation chamber accommodating toner and a discharge opening capable of discharging the toner; a pump configured to discharge the toner through the discharge opening by using air; and a coupling member configured to receive a rotational force for driving the pump , characterized in that as viewed along a rotational axis of the coupling member in a state that the toner cartridge takes an attitude in which the discharge opening is directed downward, the discharge opening is on a first side (X1) with respect to a center of the pump in a horizontal direction (X), and the axis of the coupling member is on a second side (X2) which is opposite from the first side (X1), with respect to the center of the pump in the horizontal direction (X). a casing including an accommodation chamber accommodating toner and a discharge opening capable of discharging the toner; a pump configured to discharge the toner through the discharge opening by using air; and a coupling member configured to receive a rotational force for driving the pump , characterized in that as viewed along a rotational axis of the coupling member in a state that the toner cartridge takes an attitude in which the discharge opening is directed downward, the discharge opening is on a first side (X1) with respect to a center of the pump in a horizontal direction (X), and the axis of the coupling member is on a second side (X2) which is opposite from the first side (X1), with respect to the center of the pump in the horizontal direction (X).
A method for the dynamic generation of a chain of function modules of a virtual assistant, wherein the virtual assistant is implemented as software on a computing unit, wherein the virtual assistant is provided with a library of various function modules for answering requests from users, wherein the method comprises the following steps: • transmitting a request from a user to the virtual assistant; • analysing the request by means of a selection algorithm with regard to which function module from the library with the highest probability P Max is suitable for processing the user's request; • selection of the function module P F,Max with the highest probability from the library of different function modules by the selection algorithm; • processing of the user's request by the virtual assistant using the selected function module P F,Max , characterised in that, in addition to the function module P F,Max with the highest probability P Max , another function module P F, lower with another probability P lower is selected for each processing step of the request, wherein the request is also processed with the other function module P F,lower , if P lower exceeds a given probability value. • transmitting a request from a user to the virtual assistant; • analysing the request by means of a selection algorithm with regard to which function module from the library with the highest probability P Max is suitable for processing the user's request; • selection of the function module P F,Max with the highest probability from the library of different function modules by the selection algorithm; • processing of the user's request by the virtual assistant using the selected function module P F,Max ,
Spectrophotometer comprising - a housing wherein the housing comprises a measuring compartment and a source of monochromatic radiation , comprising a radiation source , a monochromator , - an assembly of polarizers , a measuring channel with an assembly of photodetectors and a lens , a reference channel with an assembly of photodetectors and a lens , - a mirror element configured to divide the light beam coming out of the monochromator into the measuring channel , the reference channel , - a rotary object table with a specimen for measurements, wherein the rotary object table is configured to provide an exposure of the specimen during measurements, wherein - the rotary object table is configured to rotate around its own rotation shaft clockwise or counterclockwise until the moment of intersection of the end face of specimen with the light beam coming out from the monochromator , and - the measuring channel is configured to rotate around the rotation shaft of the rotary object table clockwise or counterclockwise until the moment of intersection with the light beam coming out from the monochromator , characterized in that the measuring channel has a further rotation shaft oriented in parallel to the shaft of the rotary table , the further shaft being different from the rotation shaft of the rotary object table , and the measuring channel assembly is configured to rotate around the further rotation shaft , independent from the rotation around the rotation shaft of the rotary object table clockwise or counterclockwise until the moment of intersection with the light beam entering the lens of the photodetectors of the measuring channel , thereby ensuring the reception of the light beam into the lens of the photodetectors and the light beam passing through the measured specimen or reflected from the measured specimen light beam exactly along the normal, with or without displacement of the light beam. - a housing wherein the housing comprises a measuring compartment and a source of monochromatic radiation , comprising a radiation source , a monochromator , - an assembly of polarizers , a measuring channel with an assembly of photodetectors and a lens , a reference channel with an assembly of photodetectors and a lens , - a mirror element configured to divide the light beam coming out of the monochromator into the measuring channel , the reference channel , - a rotary object table with a specimen for measurements, wherein the rotary object table is configured to provide an exposure of the specimen during measurements, wherein - the rotary object table is configured to rotate around its own rotation shaft clockwise or counterclockwise until the moment of intersection of the end face of specimen with the light beam coming out from the monochromator , and - the measuring channel is configured to rotate around the rotation shaft of the rotary object table clockwise or counterclockwise until the moment of intersection with the light beam coming out from the monochromator ,
A handle for a door, window or other openable structure, the handle comprising: - a spindle having an axis, - a handle body rotatable about the axis of the spindle , - a spindle engaging part manually movable into and out of engagement with the spindle , such that rotation of the handle body causes rotation of the spindle only when the spindle engaging part engages the spindle ; and - a catch for retaining the spindle engaging part in its engaged position characterised in that the spindle engaging part is manually movable along the handle body into and out of engagement with the spindle , the spindle engaging part comprising: an internal plate slidable within the handle body and having an end formation engageable with the spindle ; and an external member slidable on a surface of the handle body , and connected to and controlling the internal plate ; and in that the catch has a manually operable part extending on one side of the handle body . - a spindle having an axis, - a handle body rotatable about the axis of the spindle , - a spindle engaging part manually movable into and out of engagement with the spindle , such that rotation of the handle body causes rotation of the spindle only when the spindle engaging part engages the spindle ; and - a catch for retaining the spindle engaging part in its engaged position
Method for synchronizing a device with a group of devices functioning in a synchronized manner, each device in said group having in memory a state of said group as known by said device, said group being controlled by at least one controller configured to send commands to said devices, said devices and said at least one controller being interconnected by way of a local area network, said method comprising: - receiving (S303), by way of a device in said group, a request message for requesting a present state of said group sent as a multicast by a device in said group to be synchronized; - randomly selecting (S304) a duration and waiting for said duration; - if a group state message transmitted by another device in said group is received, interrupting (S304) its waiting; - otherwise, sending (S305) a group state message comprising a state of said group known by said device as a multicast. - receiving (S303), by way of a device in said group, a request message for requesting a present state of said group sent as a multicast by a device in said group to be synchronized; - randomly selecting (S304) a duration and waiting for said duration; - if a group state message transmitted by another device in said group is received, interrupting (S304) its waiting; - otherwise, sending (S305) a group state message comprising a state of said group known by said device as a multicast.
A method for the production of biomass, which comprises: - planting rows of black poplar ( Populus nigra ) or European aspen ( Populus tremula ) saplings or cuttings in ridges with a density greater than 40,000 units per hectare, - cutting the plantation annually at the ridge level for a period of 15 to 20 years, and obtaining in each annual cut poplar stalks having a length less than 7 meters and a diameter less than 6 centimeters, - cutting the poplar stalks transversely into substantially cylindrical blocks of biomass having an adjustable length and a variable diameter, coinciding with the diameter of the poplar stalks in the cutting areas. - planting rows of black poplar ( Populus nigra ) or European aspen ( Populus tremula ) saplings or cuttings in ridges with a density greater than 40,000 units per hectare, - cutting the plantation annually at the ridge level for a period of 15 to 20 years, and obtaining in each annual cut poplar stalks having a length less than 7 meters and a diameter less than 6 centimeters, - cutting the poplar stalks transversely into substantially cylindrical blocks of biomass having an adjustable length and a variable diameter, coinciding with the diameter of the poplar stalks in the cutting areas.
Method for in vitro quantification of D-xylose in a biological fluid consisting of adding to said biological fluid, as the only enzyme, the enzyme D-xylose dehydrogenase (XylB), wherein said D-xylose is detected by XylB and wherein XylB comprises the sequence SEQ ID NO: 5 and retained an activity comparable with the initial activity after 270 days stored freeze-dried at 4°C.
Corner piece for connecting metal window or door mitred profiles at an angle to one another, whereby the corner piece is provided with at least one external channel for spreading adhesive, whereby the at least one external channel is on the surface of the corner piece , whereby the corner piece is provided with two or more inlet channels that run inwards from the surface of the corner piece , whereby the corner piece is provided with one or more passages that run from the two or more inlet channels to the at least one external channel , characterised in that the lowest flow resistance of the two or more inlet channels is greater than the lowest flow resistance of the one or more passages , so that adhesive is prevented from flowing from the inside to the outside through the inlet channels before the at least one external channel is sufficiently filled with adhesive supplied via the passage concerned.
A method for feeding back information, comprising: a second transmission node acquiring configuration information transmitted by a first transmission node ; the second transmission node acquiring channel state information in a time window according to the configuration information ; the second transmission node feeding back the channel state information in a unit of subframe set ; wherein, the time window comprises multiple subframe sets; wherein the channel state information in a unit of subframe set fed back by the second transmission node at least comprises: subframe set index, wherein the subframe set index is selected to feed back the channel state information in the time window; wherein the subframe set index is selected to comprise at least one of the following: feedback for h1 subframe sets with a best channel state in the time window; feedback for h2 subframe sets with a worst channel state in the time window; wherein h1 and h2 are positive integers. a second transmission node acquiring configuration information transmitted by a first transmission node ; the second transmission node acquiring channel state information in a time window according to the configuration information ; the second transmission node feeding back the channel state information in a unit of subframe set ; wherein, the time window comprises multiple subframe sets; wherein the channel state information in a unit of subframe set fed back by the second transmission node at least comprises: subframe set index, wherein the subframe set index is selected to feed back the channel state information in the time window; wherein the subframe set index is selected to comprise at least one of the following: feedback for h1 subframe sets with a best channel state in the time window; feedback for h2 subframe sets with a worst channel state in the time window; wherein h1 and h2 are positive integers. feedback for h1 subframe sets with a best channel state in the time window; feedback for h2 subframe sets with a worst channel state in the time window; wherein h1 and h2 are positive integers.