mhurhangee/ep-ind-claims huggingface dataset:
A memory device comprising: a register selectively writeable by the memory device (120; 220) with an impedance calibration update flag, to indicate to a memory controller (110; 210) that the memory device (120; 220) is ready to perform an I/O impedance calibration update; and I/O, input/output, hardware (122; 230) to receive commands from the memory controller (110; 210) including an impedance calibration latch signal (ZQCAL LATCH) in response to detection by the memory controller (110; 210) of the impedance calibration update flag being set, to set a new calibration setting in the memory device (120; 220), wherein the memory device (120; 220) is configured to monitor one or more sensors to determine whether to set the impedance calibration update flag, the one or more sensors monitoring one or more performance conditions that affect I/O impedance of the memory device (120; 220), and determine, based on values read from the one or more sensors, if a change in a performance condition exceeds a threshold, and only set the impedance calibration update flag when the change in performance condition exceeds the threshold. a register selectively writeable by the memory device (120; 220) with an impedance calibration update flag, to indicate to a memory controller (110; 210) that the memory device (120; 220) is ready to perform an I/O impedance calibration update; and I/O, input/output, hardware (122; 230) to receive commands from the memory controller (110; 210) including an impedance calibration latch signal (ZQCAL LATCH) in response to detection by the memory controller (110; 210) of the impedance calibration update flag being set, to set a new calibration setting in the memory device (120; 220), wherein the memory device (120; 220) is configured to monitor one or more sensors to determine whether to set the impedance calibration update flag, the one or more sensors monitoring one or more performance conditions that affect I/O impedance of the memory device (120; 220), and determine, based on values read from the one or more sensors, if a change in a performance condition exceeds a threshold, and only set the impedance calibration update flag when the change in performance condition exceeds the threshold.
Method for producing a bearing ring, having an inner side and an outer side, of an anti-friction or plain bearing by means of flow forming, the inner side and/or the outer side of the bearing ring having at least one structure, characterized in that the method comprises the following steps: a) introduction of a blank made from roller bearing steel onto a flow forming mould of a flow forming machine, with the result that an inner side of the blank bears against the flow forming mould; b) flow forming of the blank in the circumferential, axial and/or radial direction against at least one flow forming mould by means of at least one forming roller, the at least one flow forming mould having at least one spiral negative structure; c) forming of a spiral positive structure, which is complementary with respect to the spiral negative structure of the flow forming mould, on the inner side of the bearing ring by way of replicating of the spiral negative structure during the flow forming. a) introduction of a blank made from roller bearing steel onto a flow forming mould of a flow forming machine, with the result that an inner side of the blank bears against the flow forming mould; b) flow forming of the blank in the circumferential, axial and/or radial direction against at least one flow forming mould by means of at least one forming roller, the at least one flow forming mould having at least one spiral negative structure; c) forming of a spiral positive structure, which is complementary with respect to the spiral negative structure of the flow forming mould, on the inner side of the bearing ring by way of replicating of the spiral negative structure during the flow forming.
A method for producing an orthosis for the correction of a malposition of a body part, comprising at least the following steps: - receiving patient data of at least one body part of a patient, wherein during receiving the body part is kept without the body part being held in an adjustable correction position by a holding device, - determining and/or receiving reference coordinates of virtual and/or physical target objects on the body part, wherein during determining and/or receiving the body part is kept without the body part being held in an adjustable correction position by a holding device and wherein the target objects represent at least one location on the surface of the body part that is representative for attaching the orthosis on the body part, - individually adapting a digital orthosis model based on the patient data and the reference coordinates, - manufacturing the orthosis based on the digital orthosis model that is adapted in this way, wherein, without the body part being held in an adjustable correction position by a holding device, a load distribution on account of opposing forces exerted by the body part in reaction to correction forces along the digital orthosis model is calculated and/or simulated, and wherein the geometry of the orthosis is optimized in the digital orthosis model in accordance with the calculated and/or simulated load distribution and/or a perforation structure and/or lattice structure in the digital orthosis model is generated in accordance with the calculated and/or simulated load distribution. - receiving patient data of at least one body part of a patient, wherein during receiving the body part is kept without the body part being held in an adjustable correction position by a holding device, - determining and/or receiving reference coordinates of virtual and/or physical target objects on the body part, wherein during determining and/or receiving the body part is kept without the body part being held in an adjustable correction position by a holding device and wherein the target objects represent at least one location on the surface of the body part that is representative for attaching the orthosis on the body part, - individually adapting a digital orthosis model based on the patient data and the reference coordinates, - manufacturing the orthosis based on the digital orthosis model that is adapted in this way,
An oral care composition comprising a whitening agent, wherein the whitening agent is a peroxodisulfate; and an aliphatic ketone; wherein the composition is an aqueous composition, wherein the peroxodisulfate whitening agent is present at a concentration of from 0.01M to 0.05M, wherein the aliphatic ketone is present at a concentration of from 0.01M to 0.05M and wherein the peroxodisulfate whitening agent and the aliphatic ketone are present in a molar ratio in the composition of from 0.5:1 to 1:0.5.
A method of producing a filter medium for treating medium and high temperature exhaust gas using foam coating, comprising: 1) mixing a heat resistant water-soluble resin, a foam stabilizer, a foaming agent and a thickener at a ratio of 1: 0.05-0.1: 0.01-0.02: 0.01-0.05 by weight to prepare a coating solution; 2) treating the coating solution using a foam generator to prepare a foam solution, and then applying the foam solution on a surface of an inorganic fiber fabric support; 3) drying the inorganic fiber fabric support coated with the foam solution; 4) pressing the dried inorganic fiber fabric support; 5) heat-treating the pressed inorganic fiber fabric support; and 6) cooling the heat-treated inorganic fiber fabric support, wherein the heat resistant water-soluble resin is a fluoride resin including a fluorine compound, represented by Formula 1 below: <Formula 1> -(CF 2 CF 2)n - wherein n is an integer from 100 to 10,000. 1) mixing a heat resistant water-soluble resin, a foam stabilizer, a foaming agent and a thickener at a ratio of 1: 0.05-0.1: 0.01-0.02: 0.01-0.05 by weight to prepare a coating solution; 2) treating the coating solution using a foam generator to prepare a foam solution, and then applying the foam solution on a surface of an inorganic fiber fabric support; 3) drying the inorganic fiber fabric support coated with the foam solution; 4) pressing the dried inorganic fiber fabric support; 5) heat-treating the pressed inorganic fiber fabric support; and 6) cooling the heat-treated inorganic fiber fabric support,
A capsule for preparing a predetermined quantity of beverage suitable for consumption using an extractable product, by means of a beverage brewing device comprising a receptacle (6; 108) for receiving the capsule (2; 110), comprising a cup comprising a circumferential wall (16; 102), a bottom closing the circumferential wall at a first end, and a lid in use connected to the cup at a second end of the circumferential wall (16; 102) opposite the bottom, wherein the wall (16; 102), bottom and lid, in use, enclose an inner space comprising the extractable product, wherein at least a portion of a surface of the capsule (2; 110) conceived to, in use, interact with the receptacle (6; 108) is provided with at least one projection (28.i; 107; 117; 127; 137) for forming a sealing engagement with the receptacle, wherein the cup further comprises a flange-like rim (20; 104) extending outwardly of the circumferential wall (16; 102) at the second end, wherein the at least one projection (28.i; 107; 117; 127; 137) is provided on the flange-like rim (20; 104), characterized in that the projection (28.i; 107; 117; 127; 137) is made of the same material as the cup and is integral with the cup, and wherein the capsule (2; 110) comprises a further ridge which is substantially concentrically enveloping the at least one projection (28.i; 107; 117; 127; 137), wherein a height of the further ridge is different from the height of the at least one projection (28.i; 107; 117; 127; 137), wherein the further ridge comprises a conical section on an inner circumferential surface thereof.
A silicon oxynitride bonded silicon carbide-based product, formed by a method comprising the steps of: a. preparing a charge comprising a mixture containing silicon carbide, silicon metal, silica, a binder, and at least one boron compound in an amount to cause increased resistance of the silicon oxynitride bonded silicon carbide-based product to volume change under oxidative stress; b. forming the charge into a preform; and c. firing the preform in a nitrogen atmosphere to form the silicon oxynitride bonded silicon carbide-based product. a. preparing a charge comprising a mixture containing silicon carbide, silicon metal, silica, a binder, and at least one boron compound in an amount to cause increased resistance of the silicon oxynitride bonded silicon carbide-based product to volume change under oxidative stress; b. forming the charge into a preform; and c. firing the preform in a nitrogen atmosphere to form the silicon oxynitride bonded silicon carbide-based product.
An adaptor for a medical container having a distal tip, said adaptor comprising: - a proximal part comprising an inner surface configured to be secured onto an outer surface of the distal tip of the medical container, - a distal part configured to receive a connector, - a glue material, and - a remotely readable electronic component which is a RFID tag, including a RFID chip and a RFID antenna, configured to allow remote identification of the medical container when said adaptor is secured to the medical container, said RFID tag being overmolded with the adaptor so as to be embedded into the adaptor, characterised in that the inner surface defines at least one annular space configured to accommodate the glue material, and said remotely readable electronic component is flush with the inner surface so as to be covered by said glue material, and wherein the proximal part comprises an annular ring, the RFID antenna being located in this annular ring. - a proximal part comprising an inner surface configured to be secured onto an outer surface of the distal tip of the medical container, - a distal part configured to receive a connector, - a glue material, and - a remotely readable electronic component which is a RFID tag, including a RFID chip and a RFID antenna, configured to allow remote identification of the medical container when said adaptor is secured to the medical container, said RFID tag being overmolded with the adaptor so as to be embedded into the adaptor, characterised in that the inner surface defines at least one annular space configured to accommodate the glue material, and said remotely readable electronic component is flush with the inner surface so as to be covered by said glue material, and wherein the proximal part comprises an annular ring, the RFID antenna being located in this annular ring.
An air compression device comprising: a compressor which generates compressed air, a housing which forms a housing space in which the compressor is housed, a cooling portion which is arranged at an outside of the housing and cools the compressed air, a controller which controls the compressor, and a protection cover which at least partially covers the cooling portion, characterized in that the air compression device further comprises: a dehumidifying portion which dehumidifies the compressed air passed through the cooling portion, wherein the controller and the dehumidifying portion are arranged below the cooling portion; the protection cover includes a baffle plate laid below the cooling portion; and the baffle plate is configured to interrupt an air flow from the cooling portion toward the controller and the dehumidifying portion. a compressor which generates compressed air, a housing which forms a housing space in which the compressor is housed, a cooling portion which is arranged at an outside of the housing and cools the compressed air, a controller which controls the compressor, and a protection cover which at least partially covers the cooling portion, characterized in that the air compression device further comprises: a dehumidifying portion which dehumidifies the compressed air passed through the cooling portion, wherein the controller and the dehumidifying portion are arranged below the cooling portion; the protection cover includes a baffle plate laid below the cooling portion; and the baffle plate is configured to interrupt an air flow from the cooling portion toward the controller and the dehumidifying portion. a dehumidifying portion which dehumidifies the compressed air passed through the cooling portion, wherein the controller and the dehumidifying portion are arranged below the cooling portion; the protection cover includes a baffle plate laid below the cooling portion; and the baffle plate is configured to interrupt an air flow from the cooling portion toward the controller and the dehumidifying portion.
Transformer device having a transformer for resistance welding, comprising a primary winding and a secondary winding, having a rectifier having at least one power component for controlling a heavy electric current, the power component comprising a current input plate, a current output plate and a component mount between these plates (105, 110) having at least two parallel-connected power semiconductor valves arranged on it, the current outputs of which power semiconductor valves are electrically conductively connected to the current output plate indirectly by means of electrical connecting means which are in the form of vertical plated-through holes through the component mount, and having at least one control connection for actuating the power semiconductor valves, and the transformer device additionally comprising an actuation device which is configured to actuate the control connection of the power component to rectify the heavy electric current of the secondary winding of the transformer, characterized in that there is provision for a temperature sensor which is arranged between the current input plate and the current output plate and between the at least two power semiconductor valves and on the component mount directly at one of the plated-through holes through the component mount, and in that a capture device is present which is connected to the temperature sensor of the power component and which is configured to capture a time characteristic of a temperature, measured by the temperature sensor, of the at least two power semiconductor valves of the power component.
A polymerizable ionic liquid comprising a polymerizable anion and a cation of the formula: wherein Z comprises a ketone, ester, amide, nitrile, or azlactone functional group, R 1 is H or a C 1 -C 25 alkyl group, R 2 is H or -CO- X 1 -R 5 where R 5 is a H or a C 1 -C 25 alkyl group and X 1 is -O- or -NR 6 -, where R 6 is H or a C 1 -C 6 alkyl; and R 3 is H or CH 3, R 8 is a (hetero)hydrocarbyl group, and w is 0, 1, 2 or 3; with the proviso that when Z comprises a nitrile or azlactone functional group, then R 1 and R 2 is H. Z comprises a ketone, ester, amide, nitrile, or azlactone functional group, R 1 is H or a C 1 -C 25 alkyl group, R 2 is H or -CO- X 1 -R 5 where R 5 is a H or a C 1 -C 25 alkyl group and X 1 is -O- or -NR 6 -, where R 6 is H or a C 1 -C 6 alkyl; and R 3 is H or CH 3, R 8 is a (hetero)hydrocarbyl group, and w is 0, 1, 2 or 3; with the proviso that when Z comprises a nitrile or azlactone functional group, then R 1 and R 2 is H.
A vaporizer comprising: - a heat exchange panel including a plurality of heat transfer pipes arrayed in a first direction and configured to vaporize liquefied gas flowing in each heat transfer pipe; and - a trough arranged adjacent to the heat exchange panel in a second direction perpendicular to the first direction and configured to supply a heat medium to an outer surface of the heat exchange panel, and - wherein the trough extends in the first direction, and a slit extending in the first direction is formed at an intermediate position of a side wall, which faces the heat exchange panel, of the trough in a height direction, and - wherein the trough has a supply port for supplying the heat medium into the trough and a baffle plate arranged between the supply port and the side wall, - wherein the baffle plate is arranged with a clearance from the side wall in the second direction, and extends in the first direction, and - wherein the heat medium accumulated in the trough flows from the supply port to the slit through a position lower than the slit to flow around the baffle plate and flows to the outer surface of the heat exchange panel through the slit, characterized in that - the trough has a guide plate configured to divide a space between the side wall and the baffle plate into a plurality of spaces in the first direction, and is also configured to distribute a heat medium flowing into a space between the side wall and the baffle plate equally or substantially equally from the supply port to a plurality of spaces divided by the guide plate. - a heat exchange panel including a plurality of heat transfer pipes arrayed in a first direction and configured to vaporize liquefied gas flowing in each heat transfer pipe; and - a trough arranged adjacent to the heat exchange panel in a second direction perpendicular to the first direction and configured to supply a heat medium to an outer surface of the heat exchange panel, and - wherein the trough extends in the first direction, and a slit extending in the first direction is formed at an intermediate position of a side wall, which faces the heat exchange panel, of the trough in a height direction, and - wherein the trough has a supply port for supplying the heat medium into the trough and a baffle plate arranged between the supply port and the side wall, - wherein the baffle plate is arranged with a clearance from the side wall in the second direction, and extends in the first direction, and - wherein the heat medium accumulated in the trough flows from the supply port to the slit through a position lower than the slit to flow around the baffle plate and flows to the outer surface of the heat exchange panel through the slit, characterized in that - the trough has a guide plate configured to divide a space between the side wall and the baffle plate into a plurality of spaces in the first direction, and is also configured to distribute a heat medium flowing into a space between the side wall and the baffle plate equally or substantially equally from the supply port to a plurality of spaces divided by the guide plate.
A magnetic resonance system, useful for imaging a patient, comprising: a magnetic resonance device for imaging a patient, comprising an open bore, said MRD being at least partially contained in an envelope comprising in its circumference at least one recess; an RF shield; and an MRI-safe cart made of MRI-safe material, comprising a substantially horizontal base and at least one substantially horizontal incubator above said base, said base and said incubator being interconnected by at least one pillar, wherein said RF shield is an incubator panel, wherein at least a portion of said cart and said MRD are configured to fit together such that at least a portion of said incubator is reversibly housed within said MRD, and further wherein at least a portion of said base is reversibly housed within said at least one recess, wherein said RF shield is configured to sealingly enclose said MRD open bore when at least a portion of said incubator is housed within said MRD and contains a conduit configured to provide an RF shielding pass through for medical tubing wherein said conduit has length to width ratio of n:1, where n is a numerical value in the range 4<n<9. a magnetic resonance device for imaging a patient, comprising an open bore, said MRD being at least partially contained in an envelope comprising in its circumference at least one recess; an RF shield; and an MRI-safe cart made of MRI-safe material, comprising a substantially horizontal base and at least one substantially horizontal incubator above said base, said base and said incubator being interconnected by at least one pillar, wherein said RF shield is an incubator panel, wherein at least a portion of said cart and said MRD are configured to fit together such that at least a portion of said incubator is reversibly housed within said MRD, and further wherein at least a portion of said base is reversibly housed within said at least one recess, wherein said RF shield is configured to sealingly enclose said MRD open bore when at least a portion of said incubator is housed within said MRD and contains a conduit configured to provide an RF shielding pass through for medical tubing wherein said conduit has length to width ratio of n:1, where n is a numerical value in the range 4<n<9.
Dimmer switch for a light load, the dimmer switch being adapted to be linked to the phase (Ph) of an alternating electrical power supply and to the light load, the light load being linked to the neutral (Ne) of the alternating electrical power supply, the dimmer switch supplying (Pho) a first part of each alternation of the phase for the light load and blocking a second part of each alternation for the light load, the dimmer switch comprising means (200, 205) for modifying the duration of the first part of each alternation, the duration of the first part lying between a minimum value and a maximum value, the dimmer switch comprising: - a detector of the zero-crossing of the phase signal, - means for modifying the maximum value of the first part of each alternation, - characterized in that the detector of the zero-crossing of the phase signal is configured to detect only the zero-crossing of the phase signal when the phase signal decreases, in that the dimmer switch comprises means (200, 205) for determining an absence of detection of the zero-crossing of the phase signal during a predetermined time period, and in that the modification of the maximum value of the first part of each alternation is a function of the determination of an absence of detection of the zero-crossing of the phase signal during a first predetermined time period. - a detector of the zero-crossing of the phase signal, - means for modifying the maximum value of the first part of each alternation, - characterized in that the detector of the zero-crossing of the phase signal is configured to detect only the zero-crossing of the phase signal when the phase signal decreases,