mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing a ring-rolled product, the method forming the ring-rolled product from a ring material by using a rolling device, the rolling device including a mandrel roll , a main roll , and at least one induction heating element (8, 10; 9, 10), the mandrel roll and the main roll being rotatable, the mandrel roll and the main roll being configured so as to respectively contact inner and outer circumferential surfaces of the ring material in a state in which the ring material is rotated in a circumferential direction thereof, the mandrel roll and the main roll being configured so as to press the ring material in a radial direction thereof, the at least one induction heating element (8, 10; 9, 10) being configured so as to induction-heat the ring material , wherein the at least one induction heating element (8, 10; 9, 10) includes an outer circumferential side induction heating element (8; 9) which is disposed on an outer circumferential side of the ring material so as to induction-heat an outer circumferential side region of the ring material , and furthermore, when seen from an axial direction of the ring material , a center of the outer circumferential side induction heating element (8; 9) in a direction which corresponds to a circumferential direction of the outer circumferential side region of the ring material , is disposed within a region immediately before inner and outer circumferential rolling, which is sandwiched by a reference line segment (L) and a boundary line segment (M) in the circumferential direction of the ring material , the reference line segment (L) connecting a rotation axis of the ring material and a rotation axis of the main roll in the radial direction of the ring material , the boundary line segment (M) being disposed so as to be rotated around the rotation axis of the ring material from the reference line segment (L) toward a direction opposite of a rotation direction of the ring material , by an angle (φ) of 90 degrees or less, characterised in that the method comprises a step of carrying out ring rolling having an operation of rolling the ring material by using the rolling device, in this step, a diameter of the ring material being enlarged in the ring rolling, and the ring material being induction-heated by the at least one induction heating element (8, 10; 9, 10) in the ring rolling, the outer circumferential induction heating element (8; 9) is configured so as to be movable, and after an intermediate stage in the ring rolling, the outer circumferential side induction heating element (8; 9) moves such that when seen from the axial direction of the ring material , a center of the outer circumferential side induction heating element (8; 9) is disposed within the region immediately before inner and outer circumferential rolling in the circumferential direction of the ring material , and the outer circumferential side induction heating element (8; 9) induction-heats the ring material .
A radially expandable branch stent graft assembly , comprising: a) an engagement portion for engaging with an opening in a fenestrated body , the engagement portion including a proximal portion having a first diameter configured to be disposed on an inside of the fenestrated body , an intermediate portion having a second diameter, and a distal portion having a third diameter configured to be disposed on an outside of the fenestrated body , the second diameter less than the first diameter and the third diameter in an expanded state of the engagement portion , the engagement portion configured to allow the branch stent graft to pivot about the opening of the fenestrated body and to limit axial movement of the branch stent graft relative to the fenestrated body ; b) a flexible tail portion extending from the engagement portion ; and c) a transition portion disposed between the engagement portion and the flexible tail portion , the transition portion having a flexibility greater than the engagement portion and less than the flexible tail portion . a) an engagement portion for engaging with an opening in a fenestrated body , the engagement portion including a proximal portion having a first diameter configured to be disposed on an inside of the fenestrated body , an intermediate portion having a second diameter, and a distal portion having a third diameter configured to be disposed on an outside of the fenestrated body , the second diameter less than the first diameter and the third diameter in an expanded state of the engagement portion , the engagement portion configured to allow the branch stent graft to pivot about the opening of the fenestrated body and to limit axial movement of the branch stent graft relative to the fenestrated body ; b) a flexible tail portion extending from the engagement portion ; and c) a transition portion disposed between the engagement portion and the flexible tail portion , the transition portion having a flexibility greater than the engagement portion and less than the flexible tail portion .
A process for preparing a polymer composition in gel form, in which a) a monomer composition M) is provided, comprising A) at least one α,β-ethylenically unsaturated carboxylic acid, and B) less than 0.1% by weight, based on the total weight of the monomer composition M), of crosslinking monomers having two or more than two polymerizable α,β-ethylenically unsaturated double bonds per molecule, where component A) may be partly or fully replaced by C) at least one unsaturated sulfonic acid or unsaturated phosphonic acid, b) the monomer composition M) provided in step a) is subjected to a free-radical polymerization in the presence of at least one polyether component PE) selected from polyetherols having a number-average molecular weight of at least 200 g/mol and the mono- and di-(C 1 -C 6 -alkyl ethers) thereof, surfactants containing polyether groups and mixtures thereof, where, if the polyether component PE) comprises a polyetherol having repeat propylene oxide units or a mono- or di-(C 1 -C 6 -alkyl ether) of a polyetherol having repeat propylene oxide units, the proportion of these repeat propylene oxide units averages not more than 15 units per molecule, where the polyetherols PE) are ethylene oxide homopolymers or ethylene oxide/propylene oxide copolymers. a) a monomer composition M) is provided, comprising A) at least one α,β-ethylenically unsaturated carboxylic acid, and B) less than 0.1% by weight, based on the total weight of the monomer composition M), of crosslinking monomers having two or more than two polymerizable α,β-ethylenically unsaturated double bonds per molecule, where component A) may be partly or fully replaced by C) at least one unsaturated sulfonic acid or unsaturated phosphonic acid, A) at least one α,β-ethylenically unsaturated carboxylic acid, and B) less than 0.1% by weight, based on the total weight of the monomer composition M), of crosslinking monomers having two or more than two polymerizable α,β-ethylenically unsaturated double bonds per molecule, b) the monomer composition M) provided in step a) is subjected to a free-radical polymerization in the presence of at least one polyether component PE) selected from polyetherols having a number-average molecular weight of at least 200 g/mol and the mono- and di-(C 1 -C 6 -alkyl ethers) thereof, surfactants containing polyether groups and mixtures thereof, where, if the polyether component PE) comprises a polyetherol having repeat propylene oxide units or a mono- or di-(C 1 -C 6 -alkyl ether) of a polyetherol having repeat propylene oxide units, the proportion of these repeat propylene oxide units averages not more than 15 units per molecule, where the polyetherols PE) are ethylene oxide homopolymers or ethylene oxide/propylene oxide copolymers.
A drive device for a movable furniture part , in particular a drawer, comprising a first and a second lockable ejection device and a synchronizing device for synchronizing the two ejection devices , wherein the synchronizing device comprises a synchronizing rod and a first and second synchronizing element which can be connected to the synchronizing rod , and wherein a relative movement takes place between the synchronizing elements and the ejection devices during the synchronizing operation, wherein the ejection devices each comprise a housing and a transmission element supported movably, preferably rotatably, on the housing , wherein the synchronizing elements each are movably coupled with one of the transmission elements , wherein each synchronizing element comprises a gear wheel and each transmission element comprises a section in the shape of a gear rack , wherein the gear wheels each mesh with one of the sections in the shape of a gear rack , wherein the locking device comprises a locking peg and a heart curve-shaped, sliding guide track formed in the housing , wherein in an active synchronizing mode (Si) during the synchronizing operation a movement transmission takes place from the first ejection device via the first synchronizing element , the synchronizing rod and the second synchronizing element to the second ejection device characterized in that in an inactive synchronizing mode (So) the synchronizing rod is removed and the synchronizing elements each remain in contact with one of the ejection devices , wherein the synchronizing elements are pre-mounted to the ejection devices and are connected non-detachably with the ejection devices in operating state and each transmission element forms a latch recess of the heart curve-shaped sliding guide track .
A ground station for an unmanned aerial vehicle (UAV) comprising: a housing accommodating a system on chip (SOC) circuit including a control processor for executing software to wirelessly control functions of the UAV; a first screen and a second screen , wherein both screens are controlled directly by the SOC control processor ; wherein the second screen is arranged in a landscape orientation relative to a normal viewing direction and the first screen is arranged in a portrait orientation relative to a normal viewing direction, with the second screen arranged above the first screen ; characterised in that the ground station further comprises: a radio frequency receiver configured to wirelessly receive a high definition (HD) image signal from a camera of the UAV; an image signal processing module for converting said received HD image signal to a mobile industry processor interface (MIPI) signal; wherein the control processor is a processor for outputting said MIPI signal to one or both of the first screen and the second screen over a non-wireless, hard wired connection to thereby display on said second screen at least a first person view (FPV) image obtained from the received image signal; wherein the image signal processing module and the processor are both provided on the system on chip (SOC) circuit . a housing accommodating a system on chip (SOC) circuit including a control processor for executing software to wirelessly control functions of the UAV; a first screen and a second screen , wherein both screens are controlled directly by the SOC control processor ; wherein the second screen is arranged in a landscape orientation relative to a normal viewing direction and the first screen is arranged in a portrait orientation relative to a normal viewing direction, with the second screen arranged above the first screen ; characterised in that the ground station further comprises: a radio frequency receiver configured to wirelessly receive a high definition (HD) image signal from a camera of the UAV; an image signal processing module for converting said received HD image signal to a mobile industry processor interface (MIPI) signal; wherein the control processor is a processor for outputting said MIPI signal to one or both of the first screen and the second screen over a non-wireless, hard wired connection to thereby display on said second screen at least a first person view (FPV) image obtained from the received image signal; a radio frequency receiver configured to wirelessly receive a high definition (HD) image signal from a camera of the UAV; an image signal processing module for converting said received HD image signal to a mobile industry processor interface (MIPI) signal; wherein the control processor is a processor for outputting said MIPI signal to one or both of the first screen and the second screen over a non-wireless, hard wired connection to thereby display on said second screen at least a first person view (FPV) image obtained from the received image signal; wherein the image signal processing module and the processor are both provided on the system on chip (SOC) circuit .
A ventilator system (200/300) configured to enable breathing in the event of a blockage, comprising: an inhalation pathway comprising an ambient air inlet (208/308), a bi-directional emergency valve (214/314), and a blower (210/310); an exhalation pathway (220/320) comprising a bi-directional exhalation valve (222/322) and an exhalation port (224/324); wherein the exhalation pathway is configured such that when a blockage occurs in the inhalation pathway, during inspiration ambient air can be drawn by the patient from the exhalation port and through the bi-directional exhalation valve, and during exhalation exhalant exits the ventilator through the bi-directional exhalation valve and the exhalation port; wherein either the blower is a dynamic blower and the inhalation pathway is configured such that when a blockage occurs in the exhalation pathway, during inspiration inhalant is delivered to the patient by the dynamic blower, and during exhalation the dynamic blower lowers its speed or stops and the exhalant exits the ventilator through the bi-directional emergency valve, the dynamic blower and the ambient air inlet, or the inhalation pathway comprises a blower bypass valve , and the blower is a constant speed blower, and the inhalation pathway is configured such that when a blockage occurs in the exhalation pathway, during inspiration inhalant is delivered to the patient by the constant speed blower, and during exhalation the blower bypass valve is configured to bypass the blower and allow exhalation through the inhalation pathway. an inhalation pathway comprising an ambient air inlet (208/308), a bi-directional emergency valve (214/314), and a blower (210/310); an exhalation pathway (220/320) comprising a bi-directional exhalation valve (222/322) and an exhalation port (224/324); wherein the exhalation pathway is configured such that when a blockage occurs in the inhalation pathway, during inspiration ambient air can be drawn by the patient from the exhalation port and through the bi-directional exhalation valve, and during exhalation exhalant exits the ventilator through the bi-directional exhalation valve and the exhalation port; wherein either the blower is a dynamic blower and the inhalation pathway is configured such that when a blockage occurs in the exhalation pathway, during inspiration inhalant is delivered to the patient by the dynamic blower, and during exhalation the dynamic blower lowers its speed or stops and the exhalant exits the ventilator through the bi-directional emergency valve, the dynamic blower and the ambient air inlet, or the inhalation pathway comprises a blower bypass valve , and the blower is a constant speed blower, and the inhalation pathway is configured such that when a blockage occurs in the exhalation pathway, during inspiration inhalant is delivered to the patient by the constant speed blower, and during exhalation the blower bypass valve is configured to bypass the blower and allow exhalation through the inhalation pathway.
An aqueous ink composition comprising: water; an optional co-solvent; an optional colorant; and a sulfonated polyester; characterised in that the composition further comprises an isoprene rubber; wherein the sulfonated polyester has a degree of sulfonation of at least 7.5 mol percent; wherein the sulfonated polyester is of the formula: wherein R is an alkylene of from 2 to 25 carbon atoms; Ri is an alkylene of from 2 to 25 carbon atoms or an arylene of from 6 to 36 carbon atoms; and wherein x, y and z are from 10 to 100,000; and wherein the ink composition has a first viscosity of from about 3,000 to about 90,000 millipascal seconds at an ink take up temperature of from 45 °C to 80 °C; and a second viscosity of from 100,000 to 2,000,000 millipascal seconds at an ink transfer temperature of from 18 °C to 30 °C. water; an optional co-solvent; an optional colorant; and a sulfonated polyester; wherein the sulfonated polyester has a degree of sulfonation of at least 7.5 mol percent; wherein the sulfonated polyester is of the formula: wherein R is an alkylene of from 2 to 25 carbon atoms; Ri is an alkylene of from 2 to 25 carbon atoms or an arylene of from 6 to 36 carbon atoms; and wherein x, y and z are from 10 to 100,000; and wherein the ink composition has a first viscosity of from about 3,000 to about 90,000 millipascal seconds at an ink take up temperature of from 45 °C to 80 °C; and a second viscosity of from 100,000 to 2,000,000 millipascal seconds at an ink transfer temperature of from 18 °C to 30 °C.
An arrangement comprising printed conductive traces, the arrangement comprising at least: a voltage source (V supply ), a measuring circuit comprising at least a current sense amplifier and a first resistor , a voltage regulation circuit comprising at least a first transistor and a voltage regulator and at least one target component , the arrangement being adapted to produce a current-controlled voltage (V OUT2 , V out ) originating from the voltage source, the current-controlled voltage being coupled to the at least one target component, wherein said current-controlled voltage is dependent on a current (I R,LED , I LED ) that is being passed through the target component, characterized in that the current sense amplifier is configured to detect the current passed through the first resistor, which is a current (I R,LED ) that is at least indicative of the current being passed through the at least one target component, with a first output voltage (V OUT1 ) of the current sense amplifier being dependent on said detected current, said first output voltage controlling the first transistor by the first output voltage being lead to the base of the first transistor, wherein the measuring circuit is additionally configured to control the voltage regulation circuit to produce the current-controlled voltage (V OUT2 ) that is dependent on said detected current, and wherein the first transistor controls the current-controlled voltage (V OUT2 ) of the voltage regulator by the impedance of the first transistor determining the second output voltage through adjusting an adjustment voltage (V adj ) of the voltage regulator. a voltage source (V supply ), a measuring circuit comprising at least a current sense amplifier and a first resistor , a voltage regulation circuit comprising at least a first transistor and a voltage regulator and at least one target component , the arrangement being adapted to produce a current-controlled voltage (V OUT2 , V out ) originating from the voltage source, the current-controlled voltage being coupled to the at least one target component, wherein said current-controlled voltage is dependent on a current (I R,LED , I LED ) that is being passed through the target component, characterized in that the current sense amplifier is configured to detect the current passed through the first resistor, which is a current (I R,LED ) that is at least indicative of the current being passed through the at least one target component, with a first output voltage (V OUT1 ) of the current sense amplifier being dependent on said detected current, said first output voltage controlling the first transistor by the first output voltage being lead to the base of the first transistor, wherein the measuring circuit is additionally configured to control the voltage regulation circuit to produce the current-controlled voltage (V OUT2 ) that is dependent on said detected current, and wherein the first transistor controls the current-controlled voltage (V OUT2 ) of the voltage regulator by the impedance of the first transistor determining the second output voltage through adjusting an adjustment voltage (V adj ) of the voltage regulator.
A long range image sensor comprising: a sensing system comprising at least one imaging detector for receiving electromagnetic radiation signals from an object or area of interest and forming an image of the object or area of interest; an electromagnetic radiation source ; a control system configured to cause electromagnetic radiation from said source to be applied to a selected plurality of three-dimensional portions of an atmospheric volume between said sensing system and said object or area of interest so as to heat and/or ionise the air within said portions, wherein said selected portions are spatially located together in a three-dimensional configuration so as to generate an atmospheric lens for capturing said electromagnetic signals from said object or area of interest and directing and/or converging said captured signals toward said imaging detector; and characterised by: an atmospheric lens monitoring module for monitoring atmospheric conditions, generating data representative thereof, and transmitting said data to said control system which is further configured to adjust at least one characteristic of said electromagnetic radiation applied to said selected portions of said atmospheric volume so as to compensate for atmospheric distortion. a sensing system comprising at least one imaging detector for receiving electromagnetic radiation signals from an object or area of interest and forming an image of the object or area of interest; an electromagnetic radiation source ; a control system configured to cause electromagnetic radiation from said source to be applied to a selected plurality of three-dimensional portions of an atmospheric volume between said sensing system and said object or area of interest so as to heat and/or ionise the air within said portions, wherein said selected portions are spatially located together in a three-dimensional configuration so as to generate an atmospheric lens for capturing said electromagnetic signals from said object or area of interest and directing and/or converging said captured signals toward said imaging detector; and
A grill , comprising: a grill plate defining a continuous cooking surface comprising a plurality of individually controllable heating zones separated by one or more isolation zones , each heating zone comprising one or more heating elements positioned beneath the grill plate , characterized in each isolation zone comprising a cooling fluid channel ; and a cooling fluid circulation system configured to control a flow of a cooling fluid through the cooling fluid channel for each isolation zone . a grill plate defining a continuous cooking surface comprising a plurality of individually controllable heating zones separated by one or more isolation zones , each heating zone comprising one or more heating elements positioned beneath the grill plate , characterized in each isolation zone comprising a cooling fluid channel ; and a cooling fluid circulation system configured to control a flow of a cooling fluid through the cooling fluid channel for each isolation zone .