mhurhangee/patent-ind-claim-en huggingface dataset:
A solid form of compound (I), or salt, solvate or combination thereof, wherein the solid form is Form A that exhibits an X-ray powder diffraction (XRPD) pattern obtained with a Cu-Kα radiation and having characteristic peaks expressed in degrees 2-theta at 10.0°±0.2°, 14.5°±0.2°, 15.4°±0.2°, 16.4°±0.2°, 19.4°±0.2°, 21.1°±0.2° and 23.2°±0.2°.
A compound selected from the group consisting of: and solvates, hydrates, tautomers, and pharmaceutically acceptable salts thereof.
A computer-automated method for analyzing network performance data from a telecommunications network, the method comprising: receiving a data set containing a log of a first time sequence of network events (a, b, c) occurring on the telecommunications network in which each network event is associated with at least one network location and has been classified into one of a plurality of event types (S61); creating a second time sequence from the first time sequence by aggregating the events into event groups (A, B, C), wherein each event group is defined as a plurality of events which are in a specific sequence of event types, each event group being classified into one of a plurality of event group types (S62); creating a third time sequence from the second time sequence by aggregating the event groups into event super-groups (α, β), wherein each event super-group is defined as a plurality of event groups which are in a specific sequence of event group types, each event super-group being classified into one of a plurality of event super-group types (S63); and rendering into a visualization at least one of the time sequences such that in the visualization each of said types is visually distinct from other types in the same time sequence (S64). receiving a data set containing a log of a first time sequence of network events (a, b, c) occurring on the telecommunications network in which each network event is associated with at least one network location and has been classified into one of a plurality of event types (S61); creating a second time sequence from the first time sequence by aggregating the events into event groups (A, B, C), wherein each event group is defined as a plurality of events which are in a specific sequence of event types, each event group being classified into one of a plurality of event group types (S62); creating a third time sequence from the second time sequence by aggregating the event groups into event super-groups (α, β), wherein each event super-group is defined as a plurality of event groups which are in a specific sequence of event group types, each event super-group being classified into one of a plurality of event super-group types (S63); and rendering into a visualization at least one of the time sequences such that in the visualization each of said types is visually distinct from other types in the same time sequence (S64).
Lighting device comprising: a support , preferably a circuit board, with at least a first light source which is arranged on the support; a lens assembly comprising at least a flexible solid first lens element which extends over the first light source, said first lens element comprising a lens portion and an edge portion surrounding said lens portion, said lens portion having a first at least partially concave surface facing the first light source and/or a second at least partially convex surface located on an opposite side thereof; and a retaining and adjustment means configured to change the shape of the lens portion whilst the edge portion is retained in a fixed position with respect to the support; said first light source and said first lens element being configured to generate a first light beam, and said retaining and adjustment means being configured for adjusting the shape of the first light beam; characterized in that the lens element is configured such that the first light beam is delimited by a non-circular conical envelope with a non-circular directrix; and wherein the retaining and adjustment means is configured for adjusting the shape of the directrix.. a support , preferably a circuit board, with at least a first light source which is arranged on the support; a lens assembly comprising at least a flexible solid first lens element which extends over the first light source, said first lens element comprising a lens portion and an edge portion surrounding said lens portion, said lens portion having a first at least partially concave surface facing the first light source and/or a second at least partially convex surface located on an opposite side thereof; and a retaining and adjustment means configured to change the shape of the lens portion whilst the edge portion is retained in a fixed position with respect to the support; said first light source and said first lens element being configured to generate a first light beam, and said retaining and adjustment means being configured for adjusting the shape of the first light beam; characterized in that the lens element is configured such that the first light beam is delimited by a non-circular conical envelope with a non-circular directrix; and wherein the retaining and adjustment means is configured for adjusting the shape of the directrix..
Device with a plurality of movable adjustment elements which can be adjusted separately from one another and can each be locked in a desired position, each adjustment element being assigned at least one locking element , characterized in that the adjustment element and associated locking element have opposing toothed surfaces , the adjustment element and the locking element being movable relative to one another from a locking position, in which the toothed surfaces rest against one another, into an unlocking position in which the toothed surfaces are at a distance from each other, and wherein a force transmission element is provided which effects the relative movement between all the adjustment elements and the associated locking elements , and wherein the device comprises at least one retaining element which is associated with at least one adjustment element and, in the unlocked position, exerts a retaining force on the associated adjustment element which must be overcome in order to adjust the adjustment element .
A diaphragm sealed, pressure balanced valve assembly comprising: a valve body ; and a cartridge connected to the valve body , the cartridge including: a cartridge loading end ; a retaining member engaged to the cartridge loading end ; and a valve member sliding coaxial to a longitudinal axis of the valve body , wherein the valve member includes a piston end slidably received in a cylinder cavity of the retaining member and an armature portion oppositely oriented with respect to the piston end ; and a resilient material diaphragm connected to and extending diametrically outward from the valve member having a diaphragm body clasped between the retaining member and the cartridge loading end creating a fluid pressure boundary, characterized in that the diaphragm body is configured such that when the armature portion of the valve member is slidably moved coaxially to the longitudinal axis of the valve body to a valve open position by energizing a coil , a biasing force is created by the diaphragm when the diaphragm body elastically deflects between a valve closed position and the valve open position, the biasing force subsequently assisting sliding movement of the valve member thereby decreasing a valve closing time to reach the valve closed position when the coil is de-energized. a valve body ; and a cartridge connected to the valve body , the cartridge including: a cartridge loading end ; a retaining member engaged to the cartridge loading end ; and a valve member sliding coaxial to a longitudinal axis of the valve body , wherein the valve member includes a piston end slidably received in a cylinder cavity of the retaining member and an armature portion oppositely oriented with respect to the piston end ; and a resilient material diaphragm connected to and extending diametrically outward from the valve member having a diaphragm body clasped between the retaining member and the cartridge loading end creating a fluid pressure boundary, a cartridge loading end ; a retaining member engaged to the cartridge loading end ; and a valve member sliding coaxial to a longitudinal axis of the valve body , wherein the valve member includes a piston end slidably received in a cylinder cavity of the retaining member and an armature portion oppositely oriented with respect to the piston end ; and a resilient material diaphragm connected to and extending diametrically outward from the valve member having a diaphragm body clasped between the retaining member and the cartridge loading end creating a fluid pressure boundary, characterized in that the diaphragm body is configured such that when the armature portion of the valve member is slidably moved coaxially to the longitudinal axis of the valve body to a valve open position by energizing a coil , a biasing force is created by the diaphragm when the diaphragm body elastically deflects between a valve closed position and the valve open position, the biasing force subsequently assisting sliding movement of the valve member thereby decreasing a valve closing time to reach the valve closed position when the coil is de-energized.
A cooking appliance comprising: a housing having a heating cavity defined therein, wherein a heat source is in thermal communication with the heating cavity ; a cooling channel ; a blower that selectively operates to move at least cooling air through the cooling channel and to an air outlet ; wherein the housing includes a sidewall that at least partially defines the heating cavity ; wherein the cooling channel is disposed proximal said sidewall of the housing and wherein the cooking appliance comprises a vent aperture extending through the sidewall between the heating cavity and a ventilation channel at least partially disposed within the cooling channel, wherein the ventilation channel includes a narrowed portion proximate the vent aperture , wherein during operation of the blower , the narrowed portion defines a low static-pressure region of the ventilation channel that draws cavity air from the heating cavity and directs the cavity air into the ventilation channel to be combined with the cooling air . a housing having a heating cavity defined therein, wherein a heat source is in thermal communication with the heating cavity ; a cooling channel ; a blower that selectively operates to move at least cooling air through the cooling channel and to an air outlet ; wherein the housing includes a sidewall that at least partially defines the heating cavity ; wherein the cooling channel is disposed proximal said sidewall of the housing and wherein the cooking appliance comprises a vent aperture extending through the sidewall between the heating cavity and a ventilation channel at least partially disposed within the cooling channel, wherein the ventilation channel includes a narrowed portion proximate the vent aperture , wherein during operation of the blower , the narrowed portion defines a low static-pressure region of the ventilation channel that draws cavity air from the heating cavity and directs the cavity air into the ventilation channel to be combined with the cooling air . wherein the housing includes a sidewall that at least partially defines the heating cavity ; wherein the cooling channel is disposed proximal said sidewall of the housing and wherein the cooking appliance comprises a vent aperture extending through the sidewall between the heating cavity and a ventilation channel at least partially disposed within the cooling channel, wherein the ventilation channel includes a narrowed portion proximate the vent aperture , wherein during operation of the blower , the narrowed portion defines a low static-pressure region of the ventilation channel that draws cavity air from the heating cavity and directs the cavity air into the ventilation channel to be combined with the cooling air .
A convergent/divergent nozzle system for a gas turbine engine comprising: a static structure including a multiple of convergent flap rails , an aft section of each of said multiple of convergent flap rails curving toward an engine axis (A); a synchronization ring adjacent said static structure , said synchronization ring of a completely integral unitary structure including an inner ring radially spaced and axially spaced forward from an outer ring via a multiple of struts , said multiple of convergent flap rails extending at least partially between said inner ring and said outer ring ; the multiple of struts arranged in pairs such that each strut is defined along an axis that intersects with said engine axis (A); a multiple of convergent flaps engaged with said synchronization ring and said static structure , each of said multiple of convergent flaps being pivotally coupled to said inner ring at an inner hinge interface and at least one of said multiple of convergent flap rails of said static structure , a forward section of each of said multiple of convergent flap rails is circumferentially segmented; and a multiple of divergent flaps , each of said multiple of divergent flaps being respectively pivotally coupled to one of said multiple of convergent flaps , wherein the forward section of each of said multiple of convergent flap rails includes lightening apertures ; and wherein said forward section of each of said multiple of convergent flap rails extends from a full ring aft section of said static structure . a static structure including a multiple of convergent flap rails , an aft section of each of said multiple of convergent flap rails curving toward an engine axis (A); a synchronization ring adjacent said static structure , said synchronization ring of a completely integral unitary structure including an inner ring radially spaced and axially spaced forward from an outer ring via a multiple of struts , said multiple of convergent flap rails extending at least partially between said inner ring and said outer ring ; the multiple of struts arranged in pairs such that each strut is defined along an axis that intersects with said engine axis (A); a multiple of convergent flaps engaged with said synchronization ring and said static structure , each of said multiple of convergent flaps being pivotally coupled to said inner ring at an inner hinge interface and at least one of said multiple of convergent flap rails of said static structure , a forward section of each of said multiple of convergent flap rails is circumferentially segmented; and a multiple of divergent flaps , each of said multiple of divergent flaps being respectively pivotally coupled to one of said multiple of convergent flaps , wherein the forward section of each of said multiple of convergent flap rails includes lightening apertures ; and wherein said forward section of each of said multiple of convergent flap rails extends from a full ring aft section of said static structure .
A system, comprising: an induction heating device comprising a working coil (WC) and a resonance capacitor connected to the working coil (WC); and a support structure for an object to be heated that is driven by being associated with the working coil (WC) provided in the induction heating device , wherein the support structure comprises: a housing comprising an upper surface that is concavely formed downward and an object to be heated is arranged on the upper surface ; a repeating coil that is provided inside the housing and driven through a magnetic induction or a magnetic resonance with the working coil (WC); and a compensation capacitor that is provided inside the housing and connected to the repeating coil for controlling an output of the repeating coil , characterised in that a capacitance value of the compensation capacitor comprises a value less than a half of a capacitance value of the resonance capacitor connected to the working coil (WC). an induction heating device comprising a working coil (WC) and a resonance capacitor connected to the working coil (WC); and a support structure for an object to be heated that is driven by being associated with the working coil (WC) provided in the induction heating device , wherein the support structure comprises: a housing comprising an upper surface that is concavely formed downward and an object to be heated is arranged on the upper surface ; a repeating coil that is provided inside the housing and driven through a magnetic induction or a magnetic resonance with the working coil (WC); and a compensation capacitor that is provided inside the housing and connected to the repeating coil for controlling an output of the repeating coil , a housing comprising an upper surface that is concavely formed downward and an object to be heated is arranged on the upper surface ; a repeating coil that is provided inside the housing and driven through a magnetic induction or a magnetic resonance with the working coil (WC); and a compensation capacitor that is provided inside the housing and connected to the repeating coil for controlling an output of the repeating coil , characterised in that a capacitance value of the compensation capacitor comprises a value less than a half of a capacitance value of the resonance capacitor connected to the working coil (WC).
A backlight unit for a liquid crystal display device, comprising: a plurality of white LEDs arranged in a line that each emit white light, the plurality of white LEDs including first and second LEDs that are complementary in color to each other with respect to a target white light, the plurality of white LEDs further including a third LED emitting the target white light, wherein each of the plurality of white LEDs includes a blue LED chip and one of a yellow phosphor and a green and red mixed phosphor; and a plurality of optical sheets in a path from the plurality of white LEDs to a liquid crystal panel , the first and second LEDs are alternately arranged; characterized in that the third LED emitting the target white light is between a first alternate arrangement of the first and second LEDs and a second alternate arrangement of the first and second LEDs . a plurality of white LEDs arranged in a line that each emit white light, the plurality of white LEDs including first and second LEDs that are complementary in color to each other with respect to a target white light, the plurality of white LEDs further including a third LED emitting the target white light, wherein each of the plurality of white LEDs includes a blue LED chip and one of a yellow phosphor and a green and red mixed phosphor; and a plurality of optical sheets in a path from the plurality of white LEDs to a liquid crystal panel , the first and second LEDs are alternately arranged; characterized in that the third LED emitting the target white light is between a first alternate arrangement of the first and second LEDs and a second alternate arrangement of the first and second LEDs .
A generator housing for a generator of an aircraft, the generator housing comprising: a mounting pad at a first end , the generator housing extending to a second end ; and a base arranged to connect to an electronics module; wherein the generator housing defines a generator cavity and a flow path to supply a working fluid, providing cooling and/or lubricating, through the generator housing , the flow path extending between an inlet formed in the mounting pad and at least one outlet formed in the mounting pad, wherein the generator housing includes (i) one or more electronics flow ports configured to enable fluid connection between the flow path within the generator housing and the electronics module when connected and (ii) one or more inductor ports configured to enable fluid connection between the flow path within the generator housing and one or more inductors when mounted to the generator housing, wherein the flow path is arranged to cause the working fluid to leave the generator housing to enter the electronics module , then return into the generator housing and then flow through the inductors then return into the generator housing . a mounting pad at a first end , the generator housing extending to a second end ; and a base arranged to connect to an electronics module; wherein the generator housing defines a generator cavity and a flow path to supply a working fluid, providing cooling and/or lubricating, through the generator housing , the flow path extending between an inlet formed in the mounting pad and at least one outlet formed in the mounting pad, wherein the generator housing includes (i) one or more electronics flow ports configured to enable fluid connection between the flow path within the generator housing and the electronics module when connected and (ii) one or more inductor ports configured to enable fluid connection between the flow path within the generator housing and one or more inductors when mounted to the generator housing, wherein the flow path is arranged to cause the working fluid to leave the generator housing to enter the electronics module , then return into the generator housing and then flow through the inductors then return into the generator housing .
An LCD module, comprising a protective layer , a liquid crystal panel , a backlight module and an outer supporting frame ; wherein the protective layer is adhered to a front surface of the liquid crystal panel to form an integral screen ; the backlight module is installed at a back side of the liquid crystal panel ; the outer supporting frame is provided around the backlight module and spaced apart from the backlight module ; a front surface of the outer supporting frame is opened with a positioning slot ; the protective layer is embedded in and fixedly connected to the positioning slot such that the liquid crystal panel adhered to the protective layer is separably positioned on a front surface of the backlight module and spaced apart from touching the outer supporting frame ; the LCD module also comprises tightening elements which connect the outer supporting frame and a back surface of the backlight module ; the tightening elements are configured to enable adjustment of the distance (K) between the liquid crystal panel and the backlight module .