mhurhangee/patent-ind-claim-en huggingface dataset:
An assembly comprising: an artificial log having an outer wall that is substantially cylindrical and elongated along an axis (A), the artificial log having a cavity inside the outer wall ; a fuel supply in the cavity , the fuel supply having a plurality of fuel outlets closer to the axis (A) than to the outer wall , the fuel outlets being spaced from each other along the axis (A); and slits through the outer wall to the cavity , at least some of the slits being spaced from each other along the axis ( A ) and spaced from each other circumferentially about the axis ( A ); the fuel supply including a pipe elongated along the axis ( A ), characterized in that the fuel supply further includes a plurality of jets extending transversely from the pipe , the jets each having one of the fuel outlets . an artificial log having an outer wall that is substantially cylindrical and elongated along an axis (A), the artificial log having a cavity inside the outer wall ; a fuel supply in the cavity , the fuel supply having a plurality of fuel outlets closer to the axis (A) than to the outer wall , the fuel outlets being spaced from each other along the axis (A); and slits through the outer wall to the cavity , at least some of the slits being spaced from each other along the axis ( A ) and spaced from each other circumferentially about the axis ( A ); the fuel supply including a pipe elongated along the axis ( A ), characterized in that the fuel supply further includes a plurality of jets extending transversely from the pipe , the jets each having one of the fuel outlets .
A solid dosage form comprising: an inclusion complex of 5 mg to 50 mg of meloxicam and 50 mg to 200 mg of sulfobutyl ether β-cyclodextrin (SBEβCD); 400 mg to 1000 mg of a bicarbonate; and 5 mg to 50 mg of rizatriptan; wherein the solid dosage form is an oral dosage form having a mean T max of meloxicam of less than 3 hours, that is shorter than that of a reference dosage form that: 1) contains the same amount of meloxicam, 2) does not contain rizatriptan, 3) does not contain an SBEβCD, and 4) does not contain a bicarbonate, when administered to a human being. an inclusion complex of 5 mg to 50 mg of meloxicam and 50 mg to 200 mg of sulfobutyl ether β-cyclodextrin (SBEβCD); 400 mg to 1000 mg of a bicarbonate; and 5 mg to 50 mg of rizatriptan; wherein the solid dosage form is an oral dosage form having a mean T max of meloxicam of less than 3 hours, that is shorter than that of a reference dosage form that: 1) contains the same amount of meloxicam, 2) does not contain rizatriptan, 3) does not contain an SBEβCD, and 4) does not contain a bicarbonate, when administered to a human being.
A molded print head , comprising: an epoxy molded compound, EMC, ; a print head die embedded in the EMC; a drive integrated circuit, IC, embedded in the EMC; and an interposer embedded in the EMC, wherein the print head die, the drive IC and the interposer are wire bonded within the EMC. an epoxy molded compound, EMC, ; a print head die embedded in the EMC; a drive integrated circuit, IC, embedded in the EMC; and an interposer embedded in the EMC, wherein the print head die, the drive IC and the interposer are wire bonded within the EMC.
A method for determining a design of a progressive lens intended to be worn by a future wearer and for the purpose of manufacturing the lens, the progressive lens comprising a front surface and a back surface, the front surface comprising a first progression profile and the back surface comprising a second progression profile, the method comprising: • obtaining first data representative of a first measurement of a first postural instability of the future wearer when seeing a visual pattern moving along a mediolateral direction, • determining, by at least a processor, a repartition between the first progression profile and the second progression profile based on the first data. • obtaining first data representative of a first measurement of a first postural instability of the future wearer when seeing a visual pattern moving along a mediolateral direction, • determining, by at least a processor, a repartition between the first progression profile and the second progression profile based on the first data.
A surgical device for closing the left atrial appendage comprising: an elongate body comprising a first lumen , a second lumen , and a third lumen ; a closure element comprising a loop defining a continuous aperture therethrough, a first end of the closure element slideably disposed in the first lumen and a second end of the closure element fixedly disposed in the second lumen; and a malleable member fixedly attached to the elongate body and disposed in the third lumen, wherein the malleable member is configured to retain a curve after a force is applied, and wherein applying a force to the malleable member modifies a curvature of the elongate body. an elongate body comprising a first lumen , a second lumen , and a third lumen ; a closure element comprising a loop defining a continuous aperture therethrough, a first end of the closure element slideably disposed in the first lumen and a second end of the closure element fixedly disposed in the second lumen; and a malleable member fixedly attached to the elongate body and disposed in the third lumen, wherein the malleable member is configured to retain a curve after a force is applied, and wherein applying a force to the malleable member modifies a curvature of the elongate body.
Roll stand for rolling flat metal rolling stock , - wherein the roll stand has an upper working roller and a lower working roller which between them form a rolling gap , - wherein the flat rolling stock runs through the rolling gap in a transport direction (x) during the rolling of the flat rolling stock . - wherein an upper cooling device , by means of which the upper working roller is cooled, is arranged on the outlet side of the roll stand, - wherein the upper cooling device has an upper spray boom which extends parallel to the upper working roller and has a plurality of upper spray nozzles by means of which a liquid coolant is sprayed onto the upper working roller , - wherein the upper cooling device has a lower spray boom which extends parallel to the upper working roller and has a plurality of lower spray nozzles by means of which the liquid coolant is sprayed onto the upper working roller , - wherein the lower spray boom is arranged between the flat rolling stock and the upper spray boom , - wherein at least some of the upper spray nozzles - as a rule all upper spray nozzles - are designed as flat-jet nozzles, characterized in that at least some of the lower spray nozzles - as a rule all lower spray nozzles - are designed as full-jet nozzles which are suitable for emitting a circular coolant jet with a maximum opening angle of 5°. - wherein the roll stand has an upper working roller and a lower working roller which between them form a rolling gap , - wherein the flat rolling stock runs through the rolling gap in a transport direction (x) during the rolling of the flat rolling stock . - wherein an upper cooling device , by means of which the upper working roller is cooled, is arranged on the outlet side of the roll stand, - wherein the upper cooling device has an upper spray boom which extends parallel to the upper working roller and has a plurality of upper spray nozzles by means of which a liquid coolant is sprayed onto the upper working roller , - wherein the upper cooling device has a lower spray boom which extends parallel to the upper working roller and has a plurality of lower spray nozzles by means of which the liquid coolant is sprayed onto the upper working roller , - wherein the lower spray boom is arranged between the flat rolling stock and the upper spray boom , - wherein at least some of the upper spray nozzles - as a rule all upper spray nozzles - are designed as flat-jet nozzles,
A joint apparatus that joins a pouch body to a spout , comprising: a spout holding unit that holds the spout ; a positioning mechanism that positions the pouch body with respect to the spout ; and a joint mechanism that joins a pouch mouth of the pouch body to the spout , wherein the positioning mechanism has a pouch-body moving unit that moves the pouch body toward the spout , a contact member having a contact part that comes into contact with an end of the pouch mouth , and an absorption mechanism that absorbs a part of a force acting on the pouch body when the end of the pouch mouth comes into contact with the spout or the contact member , characterized in that the contact part is movable between a contact position at which the contact part is in contact with the end of the pouch mouth , and a retracted position retracted from the contact position. a spout holding unit that holds the spout ; a positioning mechanism that positions the pouch body with respect to the spout ; and a joint mechanism that joins a pouch mouth of the pouch body to the spout , wherein the positioning mechanism has a pouch-body moving unit that moves the pouch body toward the spout , a contact member having a contact part that comes into contact with an end of the pouch mouth , and an absorption mechanism that absorbs a part of a force acting on the pouch body when the end of the pouch mouth comes into contact with the spout or the contact member , characterized in that the contact part is movable between a contact position at which the contact part is in contact with the end of the pouch mouth , and a retracted position retracted from the contact position.
An atomic interferometer comprising a source of atoms adapted to generate a cloud of atoms, a laser source configured to generate a source laser beam , a magnetic field generating device , the atomic interferometer including polarization means configured to receive the source laser beam and to generate an incident laser beam polarized according to an adjustable polarization state, a system for adjusting a detuning between two optical frequencies of the incident laser beam, a two-dimensional diffraction grating arranged is such a way as to receive the incident laser beam and to form by diffraction at least three beams diffracted along at least three non-coplanar directions, the at least three diffracted beams being inclined with respect to the axis of the incident laser beam, a controller configured to select a first combination of a first optical frequency detuning of the incident laser beam related to a first speed of the cloud of atoms, a first polarization state of the incident laser beam and a first magnetic field oriented along a determined direction with respect to the two-dimensional diffraction grating, the first combination being adapted to select a first pair of laser beams among the pairs of beams formed from the incident laser beam and the at least three diffracted beams, a difference between the two wavevectors of the first pair of laser beams determining a first measurement direction, the first pair of laser beams being applied in such a way as to interact with the cloud of atoms according to a time sequence by multi-photon transitions and to form a first Mach-Zehnder atomic interferometer sensitive to an acceleration of the cloud of atoms along the first measurement direction.
A pressure sensing assembly , comprising: a first member comprising an aperture and a flow tunnel , wherein the aperture defines an inner opening disposed on an inner surface of the first member and an outer opening disposed on an outer surface of the first member, wherein the flow tunnel defines a tunnel opening on the inner surface of the first member; a protection diaphragm disposed on the inner surface of the first member , wherein the protection diaphragm covers the inner opening of the aperture and comprises a diaphragm opening overlapping with the tunnel opening; and a sensing diaphragm disposed on an inner surface of a second member , wherein the second member is fastened to the first member , wherein the sensing diaphragm and the protection diaphragm at least partially form a protection cavity to receive a fluid substance through the flow tunnel , wherein the protection diaphragm reduces a force from the fluid substance when the fluid substance solidifies. a first member comprising an aperture and a flow tunnel , wherein the aperture defines an inner opening disposed on an inner surface of the first member and an outer opening disposed on an outer surface of the first member, wherein the flow tunnel defines a tunnel opening on the inner surface of the first member; a protection diaphragm disposed on the inner surface of the first member , wherein the protection diaphragm covers the inner opening of the aperture and comprises a diaphragm opening overlapping with the tunnel opening; and a sensing diaphragm disposed on an inner surface of a second member , wherein the second member is fastened to the first member , wherein the sensing diaphragm and the protection diaphragm at least partially form a protection cavity to receive a fluid substance through the flow tunnel , wherein the protection diaphragm reduces a force from the fluid substance when the fluid substance solidifies.
A food processing apparatus having a food processing chamber comprising a blade arrangement and a motor arranged to drive the blade arrangement, whereby that the blade arrangement excludes a central shaft and comprises a body having a surface arrangement delimiting a cavity , and a plurality of cutting blades extending from said surface arrangement into said cavity, wherein a securing ring is arranged to secure the blade arrangement on a bottom portion of the food processing chamber, the food processing apparatus being characterized in that the motor comprises a mechanical coupling for coupling to food processing chamber such as to rotate the food processing chamber including the blade arrangement, wherein the mechanical coupling comprises a central shaft driven by the motor and at least one engagement member coupled to the central shaft arranged to engage with a securing ring or the body .
A method of determining an amplitude of a threshold drive signal D TH to cause movement of a motor-driven mechanical system from rest comprising: iteratively: applying a test drive signal , which is a unit step drive signal, to the motor, wherein the test drive signal is generated according to a step function which has an amplitude corresponding to a current estimate of D TH ; monitoring a signal line from the motor for the presence of a back channel electrical signal induced by movement of the mechanical system, and: a) when the back channel signal is not present, indicating no movement of the mechanical system, increasing the amplitude of the test drive signal for another iteration; further characterized in that : b) when the back channel signal is present, indicating movement of the mechanical system, checking if the current amplitude of the test drive signal is within a predetermined level of precision based on measured parameters of the back channel signal and: (i) if the current amplitude of the test drive signal is not within the predetermined level of precision, decreasing the amplitude of the test drive signal for another iteration based on measured parameters of the back channel signal; (ii) if the current amplitude of the test drive signal is within the predetermined level of precision storing the amplitude as the threshold value D TH . applying a test drive signal , which is a unit step drive signal, to the motor, wherein the test drive signal is generated according to a step function which has an amplitude corresponding to a current estimate of D TH ; monitoring a signal line from the motor for the presence of a back channel electrical signal induced by movement of the mechanical system, and: a) when the back channel signal is not present, indicating no movement of the mechanical system, increasing the amplitude of the test drive signal for another iteration; further characterized in that : b) when the back channel signal is present, indicating movement of the mechanical system, checking if the current amplitude of the test drive signal is within a predetermined level of precision based on measured parameters of the back channel signal and: (i) if the current amplitude of the test drive signal is not within the predetermined level of precision, decreasing the amplitude of the test drive signal for another iteration based on measured parameters of the back channel signal; (ii) if the current amplitude of the test drive signal is within the predetermined level of precision storing the amplitude as the threshold value D TH . (i) if the current amplitude of the test drive signal is not within the predetermined level of precision, decreasing the amplitude of the test drive signal for another iteration based on measured parameters of the back channel signal; (ii) if the current amplitude of the test drive signal is within the predetermined level of precision storing the amplitude as the threshold value D TH .
A landing string system comprising: a measurement device , comprising a main body portion or section and one or more mechanical sensors configured, when in use connected to a landing string , to measure strain associated with the landing string , a data-storage device in communication with the measurement device and positioned at the main body portion or section, the data storage device configured to store, from time to time, data associated with the measured strain, a power assembly configured to provide power to the data-storage device for at least an expected time of service of the system, and further comprising a monitoring system in communication with the data-storage device and configured to receive the data associated with the measured strain, the monitoring system being further configured to use the data associated with measured strain to determine strain at other regions associated with the main body portion or section, and/or to determine strain at regions beyond the main body portion or section. a measurement device , comprising a main body portion or section and one or more mechanical sensors configured, when in use connected to a landing string , to measure strain associated with the landing string , a data-storage device in communication with the measurement device and positioned at the main body portion or section, the data storage device configured to store, from time to time, data associated with the measured strain, a power assembly configured to provide power to the data-storage device for at least an expected time of service of the system, and further comprising a monitoring system in communication with the data-storage device and configured to receive the data associated with the measured strain, the monitoring system being further configured to use the data associated with measured strain to determine strain at other regions associated with the main body portion or section, and/or to determine strain at regions beyond the main body portion or section.
Method for the laser welding of two parts to be joined (1, 2; 1a, 2a; 1b, 2b; 1c, 2c; 1d, 2d) held against each other in a lap joint and made of a metal material, wherein, in order to form a lap joint, either the joining flange of the first part to be joined is angled in relation to adjacent regions, and a gap is automatically incurred by the curvature of the part to be joined incurred by the inclination, or both parts to be joined are flat, and the joining flange is held at the joining zone at an angle of 5° to 45°, wherein, in both cases, the first part to be joined has a joining flange with an end face , and the second part to be joined has a joining zone on a flat side, wherein, for the laser welding process, the first part to be joined is held in contact, by means of a side of its joining flange , with the joining zone of the second part to be joined , wherein, between the two parts to be joined, in the contact region of the two parts to be joined (1, 2; 1a, 2a; 1b, 2b; 1c, 2c; 1d, 2d), a gap is provided which widens in the direction away from the side to which the laser is applied, and wherein the welding is carried out in such a way that the weld seam which is formed extends as far as into the gap and, as a result, a gap bottom (SB) is formed in the gap which spaces apart the mutually opposite surfaces of the parts to be joined (1, 2; 1a, 2a; 1b, 2b; 1c, 2c; 1d, 2d), characterised in that the laser beam is directed into the throat (K) formed by the joining zone and the joining flange at an angle (α) of 1° to 45° in relation to the plane of the joining zone , and the welding is carried out in such a way that, due to the gap bottom, the gap width of the gap between the parts to be joined on the side facing away from the laser beam, does not at any point have a zero extension, or is so narrow that the corrosion coating which is desired cannot pass into this, and wherein, after the welding process, the parts to be joined (1, 2; 1a, 2a; 1b, 2b; 1c, 2c; 1d, 2d) are provided with a corrosion protection coating, preferably a KTL coating, at least in the region of the gap bottom (SB).
A process comprising: elongating a multilayer film to a impart a haze value greater than 30% to the multilayer film, the multilayer film having at least two layers (A) a core layer composed of an ethylene/α-olefin multi-block copolymer having a density from 0.860 g/cc to 0.887 g/cc and (B) a first skin layer in contact with the core layer, the skin layer composed of an ethylene-based polymer; releasing the elongating force from the elongated multilayer film to form a mono-axially oriented hazed multilayer film having a haze value greater than 30%, the haze measured in accordance with ASTM D1003; stretching the hazed multilayer film to form a stretched multilayer film having a clarity value greater than 80%, the clarity measured in accordance with ASTM D 1746-15; and relaxing the stretch force from the stretched multilayer film to form a relaxed multilayer film having a haze value greater than 30%, the process further comprising providing a multilayer film having a layer volume ratio of core layer (A)-to-skin layer (B) from 4:1 to 8:1; and wherein the elongating step comprises elongating the multilayer film from at least 150% elongation to less than or equal to 300% elongation; wherein elongation is measured in accordance with the ASTM D882 testing procedure. elongating a multilayer film to a impart a haze value greater than 30% to the multilayer film, the multilayer film having at least two layers (A) a core layer composed of an ethylene/α-olefin multi-block copolymer having a density from 0.860 g/cc to 0.887 g/cc and (B) a first skin layer in contact with the core layer, the skin layer composed of an ethylene-based polymer; releasing the elongating force from the elongated multilayer film to form a mono-axially oriented hazed multilayer film having a haze value greater than 30%, the haze measured in accordance with ASTM D1003; stretching the hazed multilayer film to form a stretched multilayer film having a clarity value greater than 80%, the clarity measured in accordance with ASTM D 1746-15; and relaxing the stretch force from the stretched multilayer film to form a relaxed multilayer film having a haze value greater than 30%, the process further comprising providing a multilayer film having a layer volume ratio of core layer (A)-to-skin layer (B) from 4:1 to 8:1; and wherein the elongating step comprises elongating the multilayer film from at least 150% elongation to less than or equal to 300% elongation; wherein elongation is measured in accordance with the ASTM D882 testing procedure.