mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle controller that controls a driving device , which includes a motor-generator , and a braking device , which applies a frictional braking force to a vehicle , thereby automatically controlling a traveling speed of the vehicle , wherein the vehicle controller comprises a controlling unit , the controlling unit calculates a feedback control amount based on a deviation between a target acceleration (Gt) of the vehicle and an actual acceleration (Ga) of the vehicle , and executes a feedback control of the driving device and the braking device by using the feedback control amount, such that the deviation decreases, a state in which only the driving device , of the driving device and the braking device , operates is a first state, a state in which at least the braking device , of the driving device and the braking device , operates is a second state, and is characterized in that when switched from the first state to the second state, the controlling unit calculates the feedback control amount such that the deviation permitted in the feedback control is greater than the deviation prior to a start of switching from the first state to the second state. the vehicle controller comprises a controlling unit , the controlling unit calculates a feedback control amount based on a deviation between a target acceleration (Gt) of the vehicle and an actual acceleration (Ga) of the vehicle , and executes a feedback control of the driving device and the braking device by using the feedback control amount, such that the deviation decreases, calculates a feedback control amount based on a deviation between a target acceleration (Gt) of the vehicle and an actual acceleration (Ga) of the vehicle , and executes a feedback control of the driving device and the braking device by using the feedback control amount, such that the deviation decreases, a state in which only the driving device , of the driving device and the braking device , operates is a first state, a state in which at least the braking device , of the driving device and the braking device , operates is a second state, and is characterized in that when switched from the first state to the second state, the controlling unit calculates the feedback control amount such that the deviation permitted in the feedback control is greater than the deviation prior to a start of switching from the first state to the second state.
Arrangement of means which form a lubricant circuit ; having at least one lubricant line , at least one line branching point which divides the lubricant line into a first branch and a second branch , at least one lubricant store which is integrated into the first branch and serves for extraction of a lubricant sample, and at least one valve which is integrated into the first branch , or which is integrated into the line branching point or into a line merging point and is in the form of a switching valve; wherein at least one line merging point brings together the first branch and the second branch ; wherein the first branch is able to be closed off and opened up; characterized in that the valve is temperature-controlled. having at least one lubricant line , at least one line branching point which divides the lubricant line into a first branch and a second branch , at least one lubricant store which is integrated into the first branch and serves for extraction of a lubricant sample, and at least one valve which is integrated into the first branch , or which is integrated into the line branching point or into a line merging point and is in the form of a switching valve; wherein at least one line merging point brings together the first branch and the second branch ; wherein the first branch is able to be closed off and opened up; characterized in that the valve is temperature-controlled.
A method in a device gateway (11; 121) of relaying application data between an Internet of Things, IoT, device (10; 120) and an application server (17; 126) in a network, the method comprising: - sending to a network server (13, 14; 122;124) over a pre-established communication service with the network, a request to establish an application virtual data path, VDP, with an application server gateway (16; 125) for transporting application data from the IoT device (10; 120) towards the application server (17; 126) associated with the application server gateway (16; 125) and wherein the request comprises a unique IoT device identity; - receiving a response message comprising a VDP identifier for the application VDP; - storing an association comprising the VDP identifier and the unique IoT device identity; and - upon receiving the application data from the IoT device (10; 120), determining the VDP identifier associated with the IoT device (10; 120), encapsulating the application data in a VDP header comprising the VDP identifier and relaying the encapsulated application data over the pre-established communication service , the device gateway (11; 121) and the IoT device (10; 120) being unaware of any destination address associated with the application server (17; 126). - sending to a network server (13, 14; 122;124) over a pre-established communication service with the network, a request to establish an application virtual data path, VDP, with an application server gateway (16; 125) for transporting application data from the IoT device (10; 120) towards the application server (17; 126) associated with the application server gateway (16; 125) and wherein the request comprises a unique IoT device identity; - receiving a response message comprising a VDP identifier for the application VDP; - storing an association comprising the VDP identifier and the unique IoT device identity; and - upon receiving the application data from the IoT device (10; 120), determining the VDP identifier associated with the IoT device (10; 120), encapsulating the application data in a VDP header comprising the VDP identifier and relaying the encapsulated application data over the pre-established communication service , the device gateway (11; 121) and the IoT device (10; 120) being unaware of any destination address associated with the application server (17; 126).
A rake arm assembly mountable to a build table having an upper surface and an opposite lower surface , the rake arm assembly comprising: a rake arm body having a first end and a second end , the rake arm body extending in a direction transverse to a working axis at an upper surface of the build table ; a first guide rail mountable to the lower surface of the build table and extending along the working axis ; a first rake support member fixed to the first end of the rake arm body and movably supported on the first guide rail ; a second rake support member fixed to the second end of the rake arm body ; and characterised by a guide pad fixed to a lower surface of the second rake support member and positionable at the lower surface of the build table . a rake arm body having a first end and a second end , the rake arm body extending in a direction transverse to a working axis at an upper surface of the build table ; a first guide rail mountable to the lower surface of the build table and extending along the working axis ; a first rake support member fixed to the first end of the rake arm body and movably supported on the first guide rail ; a second rake support member fixed to the second end of the rake arm body ; and characterised by a guide pad fixed to a lower surface of the second rake support member and positionable at the lower surface of the build table .
A method for feeding air to a fluidized bed boiler burning fuel, the fluidized bed boiler comprising a fluidized bed and a boiler furnace comprising a first combustion zone (I), in which method air needed for burning the fuel in the fluidized bed is supplied in stages into the boiler furnace for causing substoichiometric combustion in the first combustion zone (I), and which method comprises: - supplying primary air into the first combustion zone (I) from under the fluidized bed for fluidizing the bed material; - supplying combustion air for volatile matter into the first combustion zone (I) along with the fuel supply, characterized in that - part of the combustion air for volatile matter is supplied as a first combustion air supply mixed with the fuel supply and part of the combustion air for volatile matter is supplied as a second combustion air supply surrounding at least part of the fuel supply, wherein the first combustion air supply comprises 60 to 70 % of the combustion air for volatile matter and the second combustion air supply comprises 30 to 40 % of the combustion air for volatile matter, and - the velocity at which the combustion air for volatile matter is supplied in both the first and the second combustion air supplies is 10 to 25 m/s. - supplying primary air into the first combustion zone (I) from under the fluidized bed for fluidizing the bed material; - supplying combustion air for volatile matter into the first combustion zone (I) along with the fuel supply, - part of the combustion air for volatile matter is supplied as a first combustion air supply mixed with the fuel supply and part of the combustion air for volatile matter is supplied as a second combustion air supply surrounding at least part of the fuel supply, wherein the first combustion air supply comprises 60 to 70 % of the combustion air for volatile matter and the second combustion air supply comprises 30 to 40 % of the combustion air for volatile matter, and - the velocity at which the combustion air for volatile matter is supplied in both the first and the second combustion air supplies is 10 to 25 m/s.
A fiber layered body comprising: an extra-fine fiber layer which comprises thermoplastic elastomeric fibers and has an average fiber diameter of less than 10 μm; and a non-extra-fine fiber layer which comprises fibers having an average fiber diameter of 10 to 30 μm and is adjacent to the extra-fine fiber layer; and the fiber layered body is obtained by making a part of the fibers constituting the extra-fine fiber layer to enter into the non-extra-fine fiber layer at the time of bonding the extra-fine fiber layer with the non-extra-fine fiber layer, and by making the fibers constituting the extra-fine fiber layer to be substantially melted in contact to the interface with the non-extra-fine fiber layer, and having: a peeling strength as measured as set out in the description between the extra-fine fiber layer and the non-extra-fine fiber layer of 0.40 N/5cm or higher, and a surface unevenness as measured as set out in the description relative to a thickness of the fiber layered body of 40% or less. an extra-fine fiber layer which comprises thermoplastic elastomeric fibers and has an average fiber diameter of less than 10 μm; and a non-extra-fine fiber layer which comprises fibers having an average fiber diameter of 10 to 30 μm and is adjacent to the extra-fine fiber layer; and the fiber layered body is obtained by making a part of the fibers constituting the extra-fine fiber layer to enter into the non-extra-fine fiber layer at the time of bonding the extra-fine fiber layer with the non-extra-fine fiber layer, and by making the fibers constituting the extra-fine fiber layer to be substantially melted in contact to the interface with the non-extra-fine fiber layer, and having: a peeling strength as measured as set out in the description between the extra-fine fiber layer and the non-extra-fine fiber layer of 0.40 N/5cm or higher, and a surface unevenness as measured as set out in the description relative to a thickness of the fiber layered body of 40% or less. a peeling strength as measured as set out in the description between the extra-fine fiber layer and the non-extra-fine fiber layer of 0.40 N/5cm or higher, and a surface unevenness as measured as set out in the description relative to a thickness of the fiber layered body of 40% or less.
Apparatus for heating plastic preforms , having a transport device which transports the plastic preforms at least in sections along a predetermined transport path, wherein the transport device having a plurality of holding devices for holding the plastic preforms , with a heating device in order to heat the plastic preforms at least temporarily during their transport with the transport device , wherein the apparatus having at least one heat shielding device which is suitable and intended for counteracting heating of mouth regions of the plastic preforms , characterized in that the heat shielding devices have at least a first heat shielding element and a second heat shielding element , which are movable relative to one another and which, in at least one relative position to one another, at least partially surround a portion of a plastic preform in the circumferential direction thereof and wherein the holding devices have mandrels, which can be inserted into openings of the plastic preforms and these mandrels are designed to be rotatable, so that during the heating of the plastic preforms it is also possible to rotate them with respect to their longitudinal direction.
A phased array antenna system comprising: a front-end circuit including a plurality of antenna channels where each antenna channel includes a front antenna element and a rear antenna element , said front antenna element being operable to receive signals from the environment or transmit signals into the environment, each antenna channel further including a beam scan phase shifter and a true time delay, TTD, phase shifter through which the receive signals or the transmit signals propagate, a variable attenuator positioned between the beam scan phase shifter and the TTD phase shifter that provides signal attenuation, and an amplifier positioned between the beam scan phase shifter and the front antenna element that is a low noise amplifier for the receive signals from the environment or a high power amplifier for transmitting signals into the environment; and a back-end circuit spaced apart from the front-end circuit and including a single feed horn receiving the receive signals from the rear antenna elements or transmitting the transmit signals to all of the rear antenna elements, said back-end circuit further including an ortho-mode transducer that separates the transmit signals or the receive signals into orthogonally polarized signals, said back-end circuit further including a pair of couplers and a pair of polarization phase shifters that combine to adjust the polarization of the transmit signal or the receive signal. a front-end circuit including a plurality of antenna channels where each antenna channel includes a front antenna element and a rear antenna element , said front antenna element being operable to receive signals from the environment or transmit signals into the environment, each antenna channel further including a beam scan phase shifter and a true time delay, TTD, phase shifter through which the receive signals or the transmit signals propagate, a variable attenuator positioned between the beam scan phase shifter and the TTD phase shifter that provides signal attenuation, and an amplifier positioned between the beam scan phase shifter and the front antenna element that is a low noise amplifier for the receive signals from the environment or a high power amplifier for transmitting signals into the environment; and a back-end circuit spaced apart from the front-end circuit and including a single feed horn receiving the receive signals from the rear antenna elements or transmitting the transmit signals to all of the rear antenna elements, said back-end circuit further including an ortho-mode transducer that separates the transmit signals or the receive signals into orthogonally polarized signals, said back-end circuit further including a pair of couplers and a pair of polarization phase shifters that combine to adjust the polarization of the transmit signal or the receive signal.
A Bcl-2 inhibitor for use in the treatment of Bcl-2 mediated cancer carrying at least 1, 2, 3, 4, 5 or all of the following mutations: (i) Gly101 Val; (ii) Asp103Tyr; (iii) Asp103Val; (iv) Asp103Glu; (v) Arg129Leu and (vi) Ala113Gly; wherein the Bcl-2 inhibitor is selected from the group consisting of N -(4-hydroxyphenyl)-3-{6-[((3 S )-3-(4-morpholinylmethyl)-3,4-dihydro-2(1 H )-isoquinolinyl)carbonyl]-1,3-benzodioxol-5-yl}- N -phenyl-5,6,7,8-tetrahydro-1-indolizine carboxamide (Compound A) and 5-(5-chloro-2-{[(3 S )-3-(morpholin-4-ylmethyl)-3,4-dihydroisoquinolin-2(1 H )-yl]carbonyl}phenyl)- N -(5-cyano-1,2-dimethyl-1 H -pyrrol-3-yl)- N -(4-hydroxyphenyl)-1,2-dimethyl-1 H -pyrrole-3-carboxamide (Compound B), or a pharmaceutically acceptable salt thereof.
A micro-electro-mechanical system fixed capacitor comprising: (a) a substrate (S); (b) a first stationary, capacitive plate (CP2) on the substrate (S); (c) a non-conductive, stationary beam (BOL, CP1, CP3) suspended in a fixed position above the substrate (S) and comprising a second stationary, capacitive plate (CP3) spaced a predetermined fixed distance from the first stationary, capacitive plate (CP2), the stationary beam (BOL, CP1, CP3) comprising at least two portions connected to the substrate (S) such that the stationary beam (BOL, CP1, CP3) is held in the fixed position with respect to the substrate (S); wherein the second stationary, capacitive plate (CP3) is spaced the predetermined fixed distance by a gap from the first stationary, capacitive plate (CP2) thereby producing a predetermined fixed capacitance between the stationary capacitive plates (CP2, CP3). (a) a substrate (S); (b) a first stationary, capacitive plate (CP2) on the substrate (S); (c) a non-conductive, stationary beam (BOL, CP1, CP3) suspended in a fixed position above the substrate (S) and comprising a second stationary, capacitive plate (CP3) spaced a predetermined fixed distance from the first stationary, capacitive plate (CP2), the stationary beam (BOL, CP1, CP3) comprising at least two portions connected to the substrate (S) such that the stationary beam (BOL, CP1, CP3) is held in the fixed position with respect to the substrate (S); wherein the second stationary, capacitive plate (CP3) is spaced the predetermined fixed distance by a gap from the first stationary, capacitive plate (CP2) thereby producing a predetermined fixed capacitance between the stationary capacitive plates (CP2, CP3).
A cationic electrodeposition coating composition comprising a polyester resin (A), an amino group-containing epoxy resin (B), and a blocked polyisocyanate curing agent (C), the polyester resin (A) being present in an amount of 3 to 40 mass%, the amino group-containing epoxy resin (B) being present in an amount of 20 to 60 mass%, and the blocked polyisocyanate curing agent (C) being present in an amount of 10 to 40 mass%, based on the total mass of the components (A), (B), and (C) on a solids basis, wherein the solubility parameter δA of the component (A) and the solubility parameter δB of the component (B) satisfy the relationship |δA-δB|<0.8., the solubility parameter being determined as indicated in the description.
A hydrofluorination process which comprises reacting a fluoroolefin with anhydrous liquid HF to form a fluoroalkane in the liquid phase in the presence of a hydrofluorination catalyst in the reaction zone of a reactor, said reactor comprised of a reactor body having a length to diameter ratio of 2:1 or greater; a stirred reaction zone containing said hydrofluorination catalyst, at least one inlet for supplying said HF and fluoroolefin to the reaction zone and at least one outlet for recovering said fluoroalkane, a stirrer disposed in the reaction zone and comprising a plurality of blades fixedly attached to a shaft drivable by a motor, said blades extending from the bottom of the reaction zone to the top of the reaction zone and said shaft extending on a longitudinal axis from the bottom of the reactor to the top of the reactor, said stirrer being rotated at a speed sufficient to form said hydrofluorination catalyst, to minimize channeling and to promote a swirling of the liquid to permit said mixing of the catalyst and fluoroolefin with the HF to effect the occurrence of hydrofluorination reaction with conversion of 90% or greater and a selectivity of 90% greater per catalytic run and avoid overfluorination, said stirrer being spun at a rotational speed ranging from 1 rpm to 200 rpm, wherein the stirrer includes a multi-bladed stirrer with a plurality of offset stirrer blades.
An information processing apparatus that reproduces data recorded onto a recording medium, the apparatus comprising: circuitry configured to superimpose a main content image and a sub-content image recorded onto a recording medium, wherein, when a color space of the main content image corresponds to BT.709 format, the circuitry determines to convert color spaces of the sub-content image and the main content image into a same color space, wherein the BT.709 format is specified in the ITU-R BT.709 standard, and wherein, when the color space of the main content image corresponds to BT.2020 format, the circuitry determines to not convert the color space of the sub-content image into BT.2020 format, or no color space conversion is applied to the color space of the sub-content image, wherein the BT.2020 format is specified in the ITU-R BT.2020 standard, wherein the circuitry is further configured to convert a dynamic range of the image recorded onto the recording medium, wherein, when a dynamic range of the main content image corresponds to high dynamic range (HDR), the circuitry determines to not convert a dynamic range of the sub-content image into HDR, wherein an HDR image is set to be capable of outputting colors of a color space of the BT.2020 format. circuitry configured to superimpose a main content image and a sub-content image recorded onto a recording medium, wherein, when a color space of the main content image corresponds to BT.709 format, the circuitry determines to convert color spaces of the sub-content image and the main content image into a same color space, wherein the BT.709 format is specified in the ITU-R BT.709 standard, and wherein the circuitry is further configured to convert a dynamic range of the image recorded onto the recording medium, wherein, when a dynamic range of the main content image corresponds to high dynamic range (HDR), the circuitry determines to not convert a dynamic range of the sub-content image into HDR, wherein an HDR image is set to be capable of outputting colors of a color space of the BT.2020 format.
Cage valve , comprising a valve housing , a valve cage , a valve seat and a valve member that cooperates with said valve seat and with said valve cage in order to adjust the flow cross-section between a valve inlet and a valve outlet, with said valve seat having mounting bores through which said valve seat is screwed to said valve housing by means of screw means whose outer contour is non-circular or angular, characterized in that a securing element is provided which is designed so as to form an annular member that at least partially abuts the head contour of all screw means connecting said valve seat to said valve housing and thus prevents said screw means from turning.