mhurhangee/patent-ind-claim-en huggingface dataset:
An electrical machine, comprising: a rotor for rotation about a rotational axis (A); a coil arranged circumferentially with respect to and encircling the rotational axis (A); and a stator assembly comprising a ring shaped lamina structure comprising a stem portion ; characterized in that the coil extends in a single plane about the rotational axis (A); in that the ring shaped lamina structure is formed from a single lamina and consists of a piece of planar material; in that the stem portion is formed from said planar material; in that the ring shaped lamina structure further comprises a plurality of gaps in the ring shaped lamina structure that extends radially from the stem portion to an edge of the ring shaped lamina structure , wherein said gaps form a plurality of radially extending members in said planar material that are integral with and extending from said stem portion to form a plurality of opposing extending members about the coil; in that a first set of extending members are configured on a first side of said coil and a second set of extending members are configured on a second, and opposing side from said first side, of said coil ; in that the first set and second set of extending members form a coil channel that extends circumferentially with respect to said rotational axis (A) and wherein the coil is configured in said coil channel wherein a first set of extending members and second set of extending members are formed from the same piece of planar material; and in that the electrical machine is a transverse flux machine. a rotor for rotation about a rotational axis (A); a coil arranged circumferentially with respect to and encircling the rotational axis (A); and a stator assembly comprising a ring shaped lamina structure comprising a stem portion ; characterized in that the coil extends in a single plane about the rotational axis (A); in that the ring shaped lamina structure is formed from a single lamina and consists of a piece of planar material; in that the stem portion is formed from said planar material; in that the ring shaped lamina structure further comprises a plurality of gaps in the ring shaped lamina structure that extends radially from the stem portion to an edge of the ring shaped lamina structure , wherein said gaps form a plurality of radially extending members in said planar material that are integral with and extending from said stem portion to form a plurality of opposing extending members about the coil;
An object manufactured from a duplex stainless steel, wherein the duplex stainless steel comprises the following composition, in weight%: C less than or equal to 0.040; Si less than or equal to 0.60; Mn 0.80 - 10.0; Cr 21.0-28.0; Ni 4.0-9.0; Mo 0.9 - 4.5; N 0.10-0.45; Cu less than or equal to 0.50; V less than or equal to 0.10; P less than or equal to 0.010; S less than or equal to 0.006; balance Fe and unavoidable impurities; optionally small amounts of other alloying elements being As, Ca, Co, Ti, Nb, W. Sn, Ta, Mg, B, Pb and Ce, wherein the amounts of one or more of these elements are of max 0.5 wt%; and wherein the duplex stainless steel consists of 55-70 vol% austenite phase and 30-45 vol% ferrite phase; and wherein the object has alternating layers of ferrite phase and austenite phase, said alternating layers are essentially parallel with the plane of the object and said alternating layers have an average layer thickness between about 0.01 to about 4.5 μm, and wherein "about" means ± 5%, and wherein "essentially parallel" means that the deviation from the plane is less than 10%.
An electronic device comprising: a transparent cover ; a light source adjacent to the transparent cover , the light source being configured to inject light into the transparent cover , the transparent cover being configured to guide the light to an interaction between the light and a fingerprint ridge at the transparent cover ; a filter of a fingerprint sensor disposed along the transparent cover , the filter being configured to only allow a cone of light rays scattered by the interaction to pass through the filter ; and a detector configured to generate a signal indicative of the scattered light allowed through the filter . a transparent cover ; a light source adjacent to the transparent cover , the light source being configured to inject light into the transparent cover , the transparent cover being configured to guide the light to an interaction between the light and a fingerprint ridge at the transparent cover ; a filter of a fingerprint sensor disposed along the transparent cover , the filter being configured to only allow a cone of light rays scattered by the interaction to pass through the filter ; and a detector configured to generate a signal indicative of the scattered light allowed through the filter .
A sound source detection device for eliminating the influence of sound emitted from a noise source (ENG) inside a mobile object, comprising: a plurality of sound collectors ; and a sound source detection unit which compares information of sound collected by the plurality of sound collectors to detect the direction of a predetermined sound source, characterised in that the plurality of sound collectors are arranged at the same distance from the noise source (ENG) inside the mobile object, and the sound source detection unit determines sound simultaneously input to the plurality of sound collectors as being not a detection target. a plurality of sound collectors ; and a sound source detection unit which compares information of sound collected by the plurality of sound collectors to detect the direction of a predetermined sound source, characterised in that the plurality of sound collectors are arranged at the same distance from the noise source (ENG) inside the mobile object, and the sound source detection unit determines sound simultaneously input to the plurality of sound collectors as being not a detection target.
A mass transfer process involving contact of at least one gaseous phase with at least one liquid phase to enable mass transfer between the phases such that the heat ratio α of the system in which Q T is total heat loss and Q S is sensible heat transferred is maintained at an α value of greater than 0.5 during mass transfer, wherein the process comprises at least one gaseous phase comprising microbubbles of mean diameter within the range of 0.03 to 0.5 mm generated via fluidic oscillation to produce a laminar flow of microbubbles passing through a liquid phase of thickness no more than 10 cm and wherein a resident contact time between the gaseous phase and liquid phase is selected to ensure that non-equilibrium sensible heat transfer conditions are maintained throughout the residence contact time.
Packaging system comprising a packaging machine and at least one component provided in addition to the packaging machine , the packaging system further comprising a display and a computer unit , wherein the packaging system is configured to display a performance graphic on the display , and the computer unit comprises a fault analysis section that is configured to detect a stop or an output deficit of the packaging system , characterized in that the fault analysis section is configured when a stop or an output deficit is detected, to determine, from an error source list stored in a memory , an error source (f1, f2, f3) being the cause of the stop or the output deficit, wherein the packaging system is further configured to indicate the determined error source (f1, f2, f3) within the performance graphic on the display , wherein each point in time of the occurrence of an output deficit or a stop (t 1 , t 3 , t 4 ) is associated with displaying the error source (f1, f2, f3) recognized as being the cause for the output deficit or stop. wherein the packaging system is configured to display a performance graphic on the display , and the computer unit comprises a fault analysis section that is configured to detect a stop or an output deficit of the packaging system , characterized in that the fault analysis section is configured when a stop or an output deficit is detected, to determine, from an error source list stored in a memory , an error source (f1, f2, f3) being the cause of the stop or the output deficit, wherein the packaging system is further configured to indicate the determined error source (f1, f2, f3) within the performance graphic on the display , wherein each point in time of the occurrence of an output deficit or a stop (t 1 , t 3 , t 4 ) is associated with displaying the error source (f1, f2, f3) recognized as being the cause for the output deficit or stop.
An imaging apparatus comprising: an imaging unit that generates image data; a posture data generation unit that generates posture data; a notification unit that performs notification for correlating the image data and the posture data on a basis of a trigger; and a detector that detects notification by the notification unit; wherein the posture data generation unit generates posture data based on at least one of: detection information of a gyro sensor and detection information of an acceleration sensor ; and wherein the notification unit is a light emitting unit configured to emit light during capture of a frame of the image data imaged at a generation start timing of the posture data, and the detector is the imaging unit . an imaging unit that generates image data; a posture data generation unit that generates posture data; a notification unit that performs notification for correlating the image data and the posture data on a basis of a trigger; and a detector that detects notification by the notification unit; wherein the posture data generation unit generates posture data based on at least one of: detection information of a gyro sensor and detection information of an acceleration sensor ; and wherein the notification unit is a light emitting unit configured to emit light during capture of a frame of the image data imaged at a generation start timing of the posture data, and the detector is the imaging unit .
A terminal in communication with a base station , the terminal comprising: a control section configured to control formation of a beam for use in transmitting an uplink signal; characterized by further comprising a transmission section configured to transmit information about a characteristic of a terminal transmitter/receiver related to frequency representing the degree of difference between the frequency characteristics of the transmitter and the receiver, wherein, the control section is further configured to determine, from information received from the base station based on the information about the characteristic of the terminal transmitter/receiver related to frequency, whether the beam is to be formed based on downlink channel information or the beam is to be formed based on uplink channel information corresponding to an uplink Sounding Reference Signal, SRS. a control section configured to control formation of a beam for use in transmitting an uplink signal; characterized by further comprising a transmission section configured to transmit information about a characteristic of a terminal transmitter/receiver related to frequency representing the degree of difference between the frequency characteristics of the transmitter and the receiver, wherein, the control section is further configured to determine, from information received from the base station based on the information about the characteristic of the terminal transmitter/receiver related to frequency, whether the beam is to be formed based on downlink channel information or the beam is to be formed based on uplink channel information corresponding to an uplink Sounding Reference Signal, SRS.
An electronic apparatus comprising: a display ; and a controller electrically connected to the display, and a storage that stores a lookup table for a flat display including aspect ratio information of the display and an angle of view which matches the aspect ratio information, wherein based on a type of the display being flat, the controller is configured to: identify aspect ratio information of the display, determine an angle of view of a 360 degree image to be displayed on the display based on the identified aspect ratio information of the display, using the lookup table, and control the display to display a region of the 360 degree image based on the determined angle of view. a display ; and a controller electrically connected to the display, and a storage that stores a lookup table for a flat display including aspect ratio information of the display and an angle of view which matches the aspect ratio information, wherein based on a type of the display being flat, the controller is configured to: identify aspect ratio information of the display, determine an angle of view of a 360 degree image to be displayed on the display based on the identified aspect ratio information of the display, using the lookup table, and control the display to display a region of the 360 degree image based on the determined angle of view. identify aspect ratio information of the display, determine an angle of view of a 360 degree image to be displayed on the display based on the identified aspect ratio information of the display, using the lookup table, and control the display to display a region of the 360 degree image based on the determined angle of view.
A humidifier (12; 50; 112) configured to humidify a flow of breathable gas to be delivered to a patient at a target humidity, the humidifier comprising: a porous heating element (24; 25; 52) made of thermally conductive material configured to generate heat to vaporise a liquid that is passed therethrough, at least a portion of the porous heating element (24; 25; 52) being isolated from the flow of breathable gas; a water supply unit ; and a controller , wherein the controller is configured to: determine an ambient humidity; calculate an amount of liquid to be added to the flow of breathable gas based on the determined ambient humidity and the target humidity; calculate an amount of energy required to vaporise the amount of liquid; control the water supply unit to deliver the amount of liquid to the porous heating element (24; 25; 52); and energise the porous heating element (24; 25; 52) with the amount of energy to vaporise the amount of liquid to deliver the vaporised liquid to the flow of breathable gas, whereby the flow of breathable gas is humidified to the target humidity. a porous heating element (24; 25; 52) made of thermally conductive material configured to generate heat to vaporise a liquid that is passed therethrough, at least a portion of the porous heating element (24; 25; 52) being isolated from the flow of breathable gas; a water supply unit ; and a controller , wherein the controller is configured to: determine an ambient humidity; calculate an amount of liquid to be added to the flow of breathable gas based on the determined ambient humidity and the target humidity; calculate an amount of energy required to vaporise the amount of liquid; control the water supply unit to deliver the amount of liquid to the porous heating element (24; 25; 52); and energise the porous heating element (24; 25; 52) with the amount of energy to vaporise the amount of liquid to deliver the vaporised liquid to the flow of breathable gas, whereby the flow of breathable gas is humidified to the target humidity. determine an ambient humidity; calculate an amount of liquid to be added to the flow of breathable gas based on the determined ambient humidity and the target humidity; calculate an amount of energy required to vaporise the amount of liquid; control the water supply unit to deliver the amount of liquid to the porous heating element (24; 25; 52); and energise the porous heating element (24; 25; 52) with the amount of energy to vaporise the amount of liquid to deliver the vaporised liquid to the flow of breathable gas, whereby the flow of breathable gas is humidified to the target humidity.
Air conditioning system for controlling conditions in an enclosed space , the conditioning system comprising: a first cooling system to be disposed outside of the enclosed space , the first cooling system comprising: a scavenger air plenum having an air inlet and an air outlet , the plenum configured to direct scavenger air in an air flow path from the air inlet to the air outlet; a liquid to air membrane energy exchanger, LAMEE , arranged inside the plenum , the LAMEE comprising a water flow path separated from the air flow path by a membrane, the LAMEE configured to use the scavenger air to reduce a temperature of water in the water flow path; a cooling unit arranged inside the plenum downstream of the LAMEE and configured to use the scavenger air to cool the water; and a second cooling system to be disposed inside the enclosed space ; and a cooling fluid circuit connected to the water flow path of the LAMEE and to the second cooling system , the cooling fluid circuit providing cooling to the enclosed space without moving air from the enclosed space through the first cooling system . a first cooling system to be disposed outside of the enclosed space , the first cooling system comprising: a scavenger air plenum having an air inlet and an air outlet , the plenum configured to direct scavenger air in an air flow path from the air inlet to the air outlet; a liquid to air membrane energy exchanger, LAMEE , arranged inside the plenum , the LAMEE comprising a water flow path separated from the air flow path by a membrane, the LAMEE configured to use the scavenger air to reduce a temperature of water in the water flow path; a cooling unit arranged inside the plenum downstream of the LAMEE and configured to use the scavenger air to cool the water; and a scavenger air plenum having an air inlet and an air outlet , the plenum configured to direct scavenger air in an air flow path from the air inlet to the air outlet; a liquid to air membrane energy exchanger, LAMEE , arranged inside the plenum , the LAMEE comprising a water flow path separated from the air flow path by a membrane, the LAMEE configured to use the scavenger air to reduce a temperature of water in the water flow path; a cooling unit arranged inside the plenum downstream of the LAMEE and configured to use the scavenger air to cool the water; and a second cooling system to be disposed inside the enclosed space ; and a cooling fluid circuit connected to the water flow path of the LAMEE and to the second cooling system , the cooling fluid circuit providing cooling to the enclosed space without moving air from the enclosed space through the first cooling system .
A clip for attaching at least two members to each other, comprising: a grommet including a body portion configured to be inserted into an attachment hole provided in each of the at least two members, a flange portion provided on a base end side of the body portion with respect to an axial direction, and a grommet hole including a flange recess provided in the base end side of the flange portion and an insertion hole extending from a bottom of the flange recess to a tip end of the body portion ; and a pin including a shaft portion configured to be inserted into the insertion hole and a head portion provided on the base end side of the shaft portion , wherein the body portion has at least two elastic pieces extending in the axial direction so as to be capable of engaging a peripheral edge of the attachment hole by elastic deformation, the pin is configured to be capable of advancing relative to the grommet from an engagement position where the elastic pieces are caused to undergo elastic deformation to engage the peripheral edge of the attachment hole to a release position where engagement of the elastic piece with the peripheral edge of the attachment hole is released, and an inner circumferential surface of the grommet hole is provided with an engagement portion that can be engaged by a tool to apply a force in a removing direction in the release position, and the head portion is located on a tip end side of at least a part of the engagement portion with respect to the axial direction in the release position. a grommet including a body portion configured to be inserted into an attachment hole provided in each of the at least two members, a flange portion provided on a base end side of the body portion with respect to an axial direction, and a grommet hole including a flange recess provided in the base end side of the flange portion and an insertion hole extending from a bottom of the flange recess to a tip end of the body portion ; and a pin including a shaft portion configured to be inserted into the insertion hole and a head portion provided on the base end side of the shaft portion , wherein the body portion has at least two elastic pieces extending in the axial direction so as to be capable of engaging a peripheral edge of the attachment hole by elastic deformation, the pin is configured to be capable of advancing relative to the grommet from an engagement position where the elastic pieces are caused to undergo elastic deformation to engage the peripheral edge of the attachment hole to a release position where engagement of the elastic piece with the peripheral edge of the attachment hole is released, and an inner circumferential surface of the grommet hole is provided with an engagement portion that can be engaged by a tool to apply a force in a removing direction in the release position, and the head portion is located on a tip end side of at least a part of the engagement portion with respect to the axial direction in the release position.
A cardiotocography girdle, characterised in that it is in the form of a spherical dome and includes at least nineteen ultrasound transducers, referred to as USTs, which are positioned on a first support layer made of an elastic material, each UST being positioned in a support cavity , said girdle comprises a second support layer , likewise made of an elastic material and which encapsulates said USTs housed in the support cavities with the first support layer , the assembly being performed by adhesively bonding the first support layer to the second support layer .
Vehicle comprising: - a front foot reinforcement in the form of a half-shell defining a cavity , the side walls of which are bordered by rim-forming connecting webs , the half-shell forming an elbow so as to show a front side wall extending vertically, and two lower and upper side walls extending in the longitudinal direction of the vehicle; and - a jack rest comprising a body having lower and upper ends fixed to the flanges of the lower and upper side walls of the front foot reinforcement ; the vehicle is characterized in that the jack support further comprises a lateral arm extending from one of the lateral edges of its body , in the direction of the front lateral wall of said front foot reinforcement until it is placed in abutment against said front lateral wall. - a front foot reinforcement in the form of a half-shell defining a cavity , the side walls of which are bordered by rim-forming connecting webs , the half-shell forming an elbow so as to show a front side wall extending vertically, and two lower and upper side walls extending in the longitudinal direction of the vehicle; and - a jack rest comprising a body having lower and upper ends fixed to the flanges of the lower and upper side walls of the front foot reinforcement ;