mhurhangee/patent-ind-claim-en huggingface dataset:
An exhaust system for an internal combustion engine ; the exhaust system comprises at least one first exhaust duct which originates from the internal combustion engine and has an end part which ends with a first outlet opening through which the exhaust gases are released into the atmosphere; wherein the end part of the first exhaust duct has at least one movable wall which can be moved to different positions to vary the width of the outlet opening ; and the exhaust system is characterized in that: the end part of the first exhaust duct has two mutually opposite movable walls ; it is provided a motor-driven actuator device , which can be electronically controlled and is configured to actively move the movable walls together in opposite directions so as to move the two movable walls apart or to move the movable walls close to each other; and it is provided a control unit , which is configured to vary, by controlling the actuator device , the position of the movable walls depending on a rotation speed of the internal combustion engine and on an engine load of the internal combustion engine . the exhaust system comprises at least one first exhaust duct which originates from the internal combustion engine and has an end part which ends with a first outlet opening through which the exhaust gases are released into the atmosphere; wherein the end part of the first exhaust duct has at least one movable wall which can be moved to different positions to vary the width of the outlet opening ; and the exhaust system is characterized in that: the end part of the first exhaust duct has two mutually opposite movable walls ; it is provided a motor-driven actuator device , which can be electronically controlled and is configured to actively move the movable walls together in opposite directions so as to move the two movable walls apart or to move the movable walls close to each other; and it is provided a control unit , which is configured to vary, by controlling the actuator device , the position of the movable walls depending on a rotation speed of the internal combustion engine and on an engine load of the internal combustion engine . the end part of the first exhaust duct has two mutually opposite movable walls ; it is provided a motor-driven actuator device , which can be electronically controlled and is configured to actively move the movable walls together in opposite directions so as to move the two movable walls apart or to move the movable walls close to each other; and it is provided a control unit , which is configured to vary, by controlling the actuator device , the position of the movable walls depending on a rotation speed of the internal combustion engine and on an engine load of the internal combustion engine .
A method for storing and accessing personally identifying information, PII, including a plurality of fields of PII, comprising: collecting a plurality of PII data relating to a plurality of fields of PII for each user of a plurality of users; for each collected PII datum and for each of said users and for each field of PII collected, associating a unique identifying code with said PII datum so as to create unique data pairs, each data pair comprising said PII datum and its associated unique identifying code; for each of said fields of PII collected, storing said data pairs relating to a PII datum in said field of PII in respective separate data stores so that the data pairs for the plurality of fields of PII are not all stored in a same data store but are separated by the field of PII to which they relate; storing in a separate and secure data store a data structure that associates the unique identifying codes for each PII datum with a given user once said separate and secure data store is unlocked, querying a data store having data pairs comprising a PII datum and an associated unique identifying code, once information matching the query are found, returning the data pairs and information from data store matching the query, which includes returning the pieces of PII along with the corresponding unique identifying codes for each of these pieces of PII, sending the PII information and unique identification code data pairs retrieved from the data store to the data structure in the separate and secure data store for sorting into data sets associated with particular users. collecting a plurality of PII data relating to a plurality of fields of PII for each user of a plurality of users; for each collected PII datum and for each of said users and for each field of PII collected, associating a unique identifying code with said PII datum so as to create unique data pairs, each data pair comprising said PII datum and its associated unique identifying code; for each of said fields of PII collected, storing said data pairs relating to a PII datum in said field of PII in respective separate data stores so that the data pairs for the plurality of fields of PII are not all stored in a same data store but are separated by the field of PII to which they relate; storing in a separate and secure data store a data structure that associates the unique identifying codes for each PII datum with a given user once said separate and secure data store is unlocked, querying a data store having data pairs comprising a PII datum and an associated unique identifying code, once information matching the query are found, returning the data pairs and information from data store matching the query, which includes returning the pieces of PII along with the corresponding unique identifying codes for each of these pieces of PII, sending the PII information and unique identification code data pairs retrieved from the data store to the data structure in the separate and secure data store for sorting into data sets associated with particular users.
A method implemented by a drone device, characterized in that it comprises: during a pairing step of pairing a sensor device with the drone device, storing a geographical location of the drone device at a time of the pairing; and during a data collection step for collecting sensor device data from the sensor device, autonomously moving to the stored geographical location of the sensor device, connecting to the sensor device, and collecting sensor device data from the sensor device. during a pairing step of pairing a sensor device with the drone device, storing a geographical location of the drone device at a time of the pairing; and during a data collection step for collecting sensor device data from the sensor device, autonomously moving to the stored geographical location of the sensor device, connecting to the sensor device, and collecting sensor device data from the sensor device.
A driving module for a vehicle transmission, the driving module comprising: a housing ; a solenoid comprising a shaft arranged inside the housing so as to make a linear movement; and a printed circuit board arranged on the solenoid , wherein the solenoid comprises a stator , a plunger arranged inside the stator , a shaft coupled to the plunger , and a sensor magnet arranged on a side of the shaft , and wherein the printed circuit board comprises a hole penetrated by the shaft and a position detecting sensor arranged on the printed circuit board to be adjacent to the hole , and the housing is formed with an exposure hole through which the shaft of the solenoid protrudes. a housing ; a solenoid comprising a shaft arranged inside the housing so as to make a linear movement; and a printed circuit board arranged on the solenoid , wherein the solenoid comprises a stator , a plunger arranged inside the stator , a shaft coupled to the plunger , and a sensor magnet arranged on a side of the shaft , and wherein the printed circuit board comprises a hole penetrated by the shaft and a position detecting sensor arranged on the printed circuit board to be adjacent to the hole , and the housing is formed with an exposure hole through which the shaft of the solenoid protrudes.
A method for decoding a video, the method comprising: decoding a first flag, indicating whether a current block is divided into two partitions or not, from a bitstream; determining, based on the first flag, whether to divide the current block into the two partitions or not, characterised by determining, based on a second flag signaled via the bitstream, whether the current block is divided symmetrically or asymmetrically when it is determined to divide the current block into the two partitions; determining an asymmetric partition type of the current block based on a third flag and a fourth flag signaled via the bitstream when it is determined that the current block is divided asymmetrically, the third flag being used to determine whether the current block is divided in a vertical direction or a horizontal direction and the fourth flag being used to determine locations of the two partitions; and dividing the current block into a first partition having a 1/4 size of the current block and a second partition having a 3/4 size of the current block, wherein when the current block is divided in the horizontal direction, it is determined, based on the fourth flag, whether the first partition or the second partition is located at an upper side or a bottom side, and wherein when the current block is divided in the vertical direction, it is determined, based on the fourth flag, whether the first partition or the second partition is located at a left side or a right side. decoding a first flag, indicating whether a current block is divided into two partitions or not, from a bitstream; determining, based on the first flag, whether to divide the current block into the two partitions or not, characterised by determining, based on a second flag signaled via the bitstream, whether the current block is divided symmetrically or asymmetrically when it is determined to divide the current block into the two partitions; determining an asymmetric partition type of the current block based on a third flag and a fourth flag signaled via the bitstream when it is determined that the current block is divided asymmetrically, the third flag being used to determine whether the current block is divided in a vertical direction or a horizontal direction and the fourth flag being used to determine locations of the two partitions; and dividing the current block into a first partition having a 1/4 size of the current block and a second partition having a 3/4 size of the current block, wherein when the current block is divided in the horizontal direction, it is determined, based on the fourth flag, whether the first partition or the second partition is located at an upper side or a bottom side, and wherein when the current block is divided in the vertical direction, it is determined, based on the fourth flag, whether the first partition or the second partition is located at a left side or a right side.
Dishwasher , in particular household dishwasher, with a dishwasher cavity , which has an at least essentially rectangular outline with a front side (V) facing towards a user in the operating position and which is provided with at least one basket , in which items to be cleaned can be held, to which water (FW) and/or wash liquor (S) can be applied via at least one spray facility (5;6) assigned to each basket , wherein at least one spray facility is arranged as a front spray facility in a position offset towards the front side (V) and a further spray facility is provided as an additional spray system with one or more further outlet openings for water (FW) and/or wash liquor (S), which compared to the first spray facility is offset away from the front side (V) towards the rear as a rear spray facility , wherein both spray facilities (5;6) are able to be supplied with water (FW) and/or wash liquor (S) by a common inlet pipe which is extended below the basket with a component in the direction towards the front side (V), wherein the two spray facilities fed by the inlet pipe , when viewed in the height extension (Z), lie offset even further downward in a preferably common plane below the inlet pipe , and the inlet pipe has a deepest point above an inlet (12; 13) in the front or in the rear spray facility , so that the water (FW) and/or the wash liquor (S) is able to run directly into the spray facility (5;6) situated below and as a result the inlet pipe is able to drain at least approximately fully, characterised in that the deepest point forms a kink in the course of the inlet pipe .
Use of (a) a nuclear reprogramming substance and (b) an H1foo gene or a gene product thereof for improving quality of an iPS cell, the nuclear reprogramming substance being the following (A) or (B): (A) consisting of an Oct3/4 gene or a gene product thereof, a Sox2 gene or a gene product thereof, and a Klf4 gene or a gene product thereof, (B) consisting of an Oct3/4 gene or a gene product thereof, a Sox2 gene or a gene product thereof, a Klf4 gene or a gene product thereof, and an L-Myc gene or a gene product thereof. (A) consisting of an Oct3/4 gene or a gene product thereof, a Sox2 gene or a gene product thereof, and a Klf4 gene or a gene product thereof, (B) consisting of an Oct3/4 gene or a gene product thereof, a Sox2 gene or a gene product thereof, a Klf4 gene or a gene product thereof, and an L-Myc gene or a gene product thereof.
A deuterium-enriched hyaluronan, d-HA, of the formula: or a pharmaceutically acceptable salt thereof, wherein: the d-HA has a molecular weight selected from about 15 kDa to about 10 MDa; each non-R D/D1 H is independently hydrogen or deuterium; and, each R D and R D1 is independently hydrogen or deuterium, provided that at least 1% of the total number of R D and R D1 groups present are D. the d-HA has a molecular weight selected from about 15 kDa to about 10 MDa; each non-R D/D1 H is independently hydrogen or deuterium; and, each R D and R D1 is independently hydrogen or deuterium, provided that at least 1% of the total number of R D and R D1 groups present are D.
A sandwich structure comprising: a pair of face plates ; and a lattice structure between the face plates; wherein the lattice structure includes stiffened hard points that are stiffer than surrounding regions of the lattice structure; wherein the hard points are located at junctions between the lattice structure and one of the face plates; wherein the hard points provide anchor points for fasteners, to mechanically couple the sandwich structure to one or more other objects; wherein the hard points function as nut plates that are configured to receive threaded fasteners; and wherein the hard points have integrally-formed internally-threaded holes. a pair of face plates ; and a lattice structure between the face plates; wherein the lattice structure includes stiffened hard points that are stiffer than surrounding regions of the lattice structure; wherein the hard points are located at junctions between the lattice structure and one of the face plates; wherein the hard points provide anchor points for fasteners, to mechanically couple the sandwich structure to one or more other objects; wherein the hard points function as nut plates that are configured to receive threaded fasteners; and wherein the hard points have integrally-formed internally-threaded holes.
A tag memory , comprising: a plurality of non-configurable tag columns (204A, 204B, ..., 204N) configured to be powered on during a normal operation; and a plurality of configurable tag columns (202A, 202B, ..., 202M), wherein a first portion of the plurality of configurable tag columns is configured to be powered off during the normal operation and a second portion of the plurality of configurable tag columns is configured to be powered on during the normal operation; wherein the first portion of the plurality of configurable tag columns contains most significant bits of a physical address and the second portion of the plurality of configurable tag columns contains next most significant bits of the physical address; and wherein the plurality of non-configurable tag columns contains remaining bits of a tag field. a plurality of non-configurable tag columns (204A, 204B, ..., 204N) configured to be powered on during a normal operation; and a plurality of configurable tag columns (202A, 202B, ..., 202M), wherein a first portion of the plurality of configurable tag columns is configured to be powered off during the normal operation and a second portion of the plurality of configurable tag columns is configured to be powered on during the normal operation; wherein the first portion of the plurality of configurable tag columns contains most significant bits of a physical address and the second portion of the plurality of configurable tag columns contains next most significant bits of the physical address; and wherein the plurality of non-configurable tag columns contains remaining bits of a tag field.
An aircraft cabin having a longitudinal axis (X1) and comprising at least one aisle and an arrangement of seat units (12.1, 12.2), a seat unit (12.1, 12.2) comprising in particular a seat provided with a seating surface and a backrest as well as a foot zone , said seat being movable between a seating position and a bed position, said arrangement of seating units (12.1,12.2) comprising: - at least one rear group of two seat units (12.1, 12.2), - at least one front group of two seat units (12.1, 12.2), - each group of two seat units (12.1, 12.2) comprising a seat unit (12.1) on the side of the aisle , so-called "aisle-side seat unit" and a seat unit (12.2) on the side of a window, so-called "window-side seat unit", characterized in that - each seat of a group of seat units (12.1, 12.2) has an axis (X2) forming a non-zero angle with the longitudinal axis (X1) of the aircraft cabin , so that the seats of each group face the aisle , - a first access passage to the aisle associated with the window-side seat unit (12.2) of the rear group extends between the foot zone and the seating surface of the aisle-side seat unit (12.1) of the rear group , and - a second access passage to the aisle associated with the window-side seat unit (12.2) of the rear group extends between the aisle-side seat unit (12.1) of the front group and the foot zone of the aisle-side seat unit (12.1) of the rear group , and - there is a longitudinal overlap between at least a portion of the foot zone of the aisle-side seat unit (12.1) of the rear group and at least a portion of the backrest of the aisle-side seat unit (12.1) of the front group . - at least one rear group of two seat units (12.1, 12.2), - at least one front group of two seat units (12.1, 12.2), - each group of two seat units (12.1, 12.2) comprising a seat unit (12.1) on the side of the aisle , so-called "aisle-side seat unit" and a seat unit (12.2) on the side of a window, so-called "window-side seat unit", - each seat of a group of seat units (12.1, 12.2) has an axis (X2) forming a non-zero angle with the longitudinal axis (X1) of the aircraft cabin , so that the seats of each group face the aisle , - a first access passage to the aisle associated with the window-side seat unit (12.2) of the rear group extends between the foot zone and the seating surface of the aisle-side seat unit (12.1) of the rear group , and - a second access passage to the aisle associated with the window-side seat unit (12.2) of the rear group extends between the aisle-side seat unit (12.1) of the front group and the foot zone of the aisle-side seat unit (12.1) of the rear group , and - there is a longitudinal overlap between at least a portion of the foot zone of the aisle-side seat unit (12.1) of the rear group and at least a portion of the backrest of the aisle-side seat unit (12.1) of the front group .
An overlay applicator tray comprising: a cradle comprising a device slot, wherein the device slot is configured to securely hold an electronic device in the cradle; an overlay applicator , wherein the overlay applicator comprises an overlay layer and an adhesive release liner, the overlay layer comprises a top side and a bottom side, the bottom side is configured to be adhered to a screen of the electronic device, and the adhesive release liner is removably attached to the bottom side of the overlay layer; an alignment piece coupling the cradle to the overlay applicator, wherein the alignment piece is configured to align the overlay layer of the overlay applicator with the screen as the overlay layer is applied to the screen when the electronic device is securely held in the device slot, and the overlay applicator is pre-aligned during manufacturing with the device slot of the cradle using the alignment piece; and a first pull tab on the adhesive release liner opposite the alignment piece, wherein the first pull tab is configured to be pulled to remove the adhesive release liner from the bottom side of the overlay layer and expose an adhesive of the overlay layer. a cradle comprising a device slot, wherein the device slot is configured to securely hold an electronic device in the cradle; an overlay applicator , wherein the overlay applicator comprises an overlay layer and an adhesive release liner, the overlay layer comprises a top side and a bottom side, the bottom side is configured to be adhered to a screen of the electronic device, and the adhesive release liner is removably attached to the bottom side of the overlay layer; an alignment piece coupling the cradle to the overlay applicator, wherein the alignment piece is configured to align the overlay layer of the overlay applicator with the screen as the overlay layer is applied to the screen when the electronic device is securely held in the device slot, and the overlay applicator is pre-aligned during manufacturing with the device slot of the cradle using the alignment piece; and a first pull tab on the adhesive release liner opposite the alignment piece, wherein the first pull tab is configured to be pulled to remove the adhesive release liner from the bottom side of the overlay layer and expose an adhesive of the overlay layer.
A probe, comprising: an insertion tube ; a magnetic field sensor ; a dummy load mounted adjacent to the magnetic field sensor ; and characterised by a braid comprising multiple braid wires that traverse a length of the insertion tube , wherein a first pair of the braid wires is connected across the magnetic field sensor , and a second pair of the braid wires is connected across the dummy load . an insertion tube ; a magnetic field sensor ; a dummy load mounted adjacent to the magnetic field sensor ; and characterised by a braid comprising multiple braid wires that traverse a length of the insertion tube , wherein a first pair of the braid wires is connected across the magnetic field sensor , and a second pair of the braid wires is connected across the dummy load .
A method of manufacturing a paper or paperboard with improved printing properties, which method comprises the steps of; providing a paper or paperboard substrate, comprising cellulosic fibres, providing a coating composition characterized in that said coating composition comprises a mixture of an hydroxypropylated starch and a silicate mineral being a laponite; and coating at least one surface of said substrate with at least one layer of said coating composition. providing a paper or paperboard substrate, comprising cellulosic fibres, providing a coating composition characterized in that said coating composition comprises a mixture of an hydroxypropylated starch and a silicate mineral being a laponite; and coating at least one surface of said substrate with at least one layer of said coating composition.