mhurhangee/patent-ind-claim-en huggingface dataset:
A process for producing a pharmaceutical lozenge formulation comprising the steps of: (a) providing a liquid composition comprising a salt of a non-steroidal anti-inflammatory drug (NSAID salt) and a solvent system; (b) providing a molten lozenge-forming composition; (c) mixing the liquid composition with the molten lozenge-forming composition; and (d) forming the resulting mixture into lozenges each containing a therapeutically effective amount of a NSAID salt/NSAID mixture wherein the solvent system comprises a first solvent and a second solvent, wherein said first and second solvents comprise water, an alcohol, a polyol, a polyether polyol or a derivative of a polyether polyol and wherein said first solvent is different from said second solvent. (a) providing a liquid composition comprising a salt of a non-steroidal anti-inflammatory drug (NSAID salt) and a solvent system; (b) providing a molten lozenge-forming composition; (c) mixing the liquid composition with the molten lozenge-forming composition; and (d) forming the resulting mixture into lozenges each containing a therapeutically effective amount of a NSAID salt/NSAID mixture wherein the solvent system comprises a first solvent and a second solvent, wherein said first and second solvents comprise water, an alcohol, a polyol, a polyether polyol or a derivative of a polyether polyol and wherein said first solvent is different from said second solvent.
A loading unit comprising: a shell assembly having a proximally extending annular body , the annular body defining two hook openings that oppose one another, a lug opening positioned between the hook openings , and a central passage for receiving a portion of a surgical instrument ; and a locking band having an arced body with two ends , a retention hook positioned adjacent each end of the body and extending from an inner surface of the body , and a lug positioned between the retention hooks and extending from the inner surface of the body , each retention hook disposed within a respective one of the hook openings to retain a respective one of the ends of the locking band to the annular body of the shell assembly , the lug disposable through the lug opening into the central passage of the shell assembly to secure the loading unit to the surgical instrument wherein as the ends are moved towards the lug , the body of the locking band flexes to move the lug outward, wherein the annular body of the shell assembly defines an annular recess between the hook openings , the recess being configured to receive the body of the locking band , and wherein the locking band includes a tab extending distally from the body , and wherein the shell assembly defines a tab receiver in communication with the annular recess , the tab receiver configured to receive the tab of the locking band to radially align the locking band to the shell assembly ; preferably wherein the tab is axially aligned with the lug . a shell assembly having a proximally extending annular body , the annular body defining two hook openings that oppose one another, a lug opening positioned between the hook openings , and a central passage for receiving a portion of a surgical instrument ; and a locking band having an arced body with two ends , a retention hook positioned adjacent each end of the body and extending from an inner surface of the body , and a lug positioned between the retention hooks and extending from the inner surface of the body , each retention hook disposed within a respective one of the hook openings to retain a respective one of the ends of the locking band to the annular body of the shell assembly , the lug disposable through the lug opening into the central passage of the shell assembly to secure the loading unit to the surgical instrument wherein as the ends are moved towards the lug , the body of the locking band flexes to move the lug outward,
A method of producing a monofilament fiber comprising poly(4-hydroxybutyrate) (P4HB) polymer, comprising deriving the monofilament fiber by melt-extrusion processing of the polymer between 40°C and 260°C, the melt-extrusion processing comprising: drying a bulk P4HB resin in pellet form to under 300ppm water using a rotary vane vacuum pump system; transferring the dried resin to an extruder feed hopper with nitrogen purge to keep the pellets dry, whereupon the pellets are gravity fed into a chilled feeder section and introduced into the extruder barrel such that heated and softened resin from the extruder is fed into a heated metering pump (melt pump) and from the melt pump the extruded resin is fed into the heated block and a spinneret assembly, using a processing profile in the range from 40°C to 260°C for temperature, and 2758 KPa to 13,970 KPa (2000 psi) for pressures; water quenching the molten filaments and conveying the filaments into a three-stage orientation, with inline relaxation, before winding of the monofilaments on spools; and applying polymers or oligomers of ethylene oxide or propylene oxide, or polyethylene glycol sorbitan monolaurate to the fiber, to produce a spin finish, by passage through a spin finish applicator either inline or offline. drying a bulk P4HB resin in pellet form to under 300ppm water using a rotary vane vacuum pump system; transferring the dried resin to an extruder feed hopper with nitrogen purge to keep the pellets dry, whereupon the pellets are gravity fed into a chilled feeder section and introduced into the extruder barrel such that heated and softened resin from the extruder is fed into a heated metering pump (melt pump) and from the melt pump the extruded resin is fed into the heated block and a spinneret assembly, using a processing profile in the range from 40°C to 260°C for temperature, and 2758 KPa to 13,970 KPa (2000 psi) for pressures; water quenching the molten filaments and conveying the filaments into a three-stage orientation, with inline relaxation, before winding of the monofilaments on spools; and
A driver circuit for driving a power commutation GaN switch (M1) of a switch mode power converter, the power converter having in a power commutation an energy storage phase when the power commutation switch (M1) is closed and a freewheeling phase when the power commutation switch (M1) is open, the driver circuit comprising: a sensing component connectable to the GaN switch and adapted to sense a parameter of the power commutation, the sensing component being in a sensing path; an energy storage component (C3;C4) to provide a certain turn on voltage between the gate and source of the GaN switch; a controlling circuit connectable to the GaN switch (M1) to control its switching and to regulate the charging and/or discharging of the energy storage component (C3;C4) according to the sensed parameter of the power commutation for feedback control purpose, characterised in that the controlling circuit is adapted to regulate: the charging of the energy storage component via the sensing component to derive the certain turn on voltage between the gate and source of the GaN switch when the controlling circuit does not use a signal (CS) on the sensing component for feedback control purpose at this time; and/or the discharging of the energy stored in the energy storage component to provide the certain turn on voltage to the GaN switch to turn the GaN switch on by decoupling the sensing component from sensing the parameter of the power commutation. a sensing component connectable to the GaN switch and adapted to sense a parameter of the power commutation, the sensing component being in a sensing path; an energy storage component (C3;C4) to provide a certain turn on voltage between the gate and source of the GaN switch; a controlling circuit connectable to the GaN switch (M1) to control its switching and to regulate the charging and/or discharging of the energy storage component (C3;C4) according to the sensed parameter of the power commutation for feedback control purpose, characterised in that the controlling circuit is adapted to regulate: the charging of the energy storage component via the sensing component to derive the certain turn on voltage between the gate and source of the GaN switch when the controlling circuit does not use a signal (CS) on the sensing component for feedback control purpose at this time; and/or the discharging of the energy stored in the energy storage component to provide the certain turn on voltage to the GaN switch to turn the GaN switch on by decoupling the sensing component from sensing the parameter of the power commutation. the charging of the energy storage component via the sensing component to derive the certain turn on voltage between the gate and source of the GaN switch when the controlling circuit does not use a signal (CS) on the sensing component for feedback control purpose at this time; and/or the discharging of the energy stored in the energy storage component to provide the certain turn on voltage to the GaN switch to turn the GaN switch on by decoupling the sensing component from sensing the parameter of the power commutation.
A copper/titanium/aluminum bonded body in which a copper member made of copper or a copper alloy and an aluminum member made of aluminum or an aluminum alloy are bonded via a titanium layer, wherein an intermetallic compound containing Cu and Ti is formed at a bonded interface of the copper member and the titanium layer, and a maximum value of a length L i of an intermetallic compound unformed part along the bonded interface is 20 μm or less in the bonding interface of the copper member and the titanium layer, the intermetallic compound unformed part being a part free of formation of the intermetallic compound, and a ratio ΣL i /L 0 is 0.16 or less, ΣLi being a total length of the intermetallic compound unformed part along the bonded interface and of L 0 being a total length of the bonded interface along the bonded interface. wherein an intermetallic compound containing Cu and Ti is formed at a bonded interface of the copper member and the titanium layer, and a maximum value of a length L i of an intermetallic compound unformed part along the bonded interface is 20 μm or less in the bonding interface of the copper member and the titanium layer, the intermetallic compound unformed part being a part free of formation of the intermetallic compound, and a ratio ΣL i /L 0 is 0.16 or less, ΣLi being a total length of the intermetallic compound unformed part along the bonded interface and of L 0 being a total length of the bonded interface along the bonded interface.
Device for testing electronic dies (P) comprising: a first part and a second part , which can be removably assembled to each other and adapted to defining together at least one housing where at least one electronic die (P), comprising contacting elements (P1), can be arranged to be tested; said at least one housing comprising a first portion , belonging to the first part and provided with at least one first opening capable of being crossed by at least one electric contactor external to the testing device ; said at least one housing being arranged to enable said at least one electronic die (P) to occupy: a first position (Pa) in said housing , where a first surface (Pc) of said electronic die (P), comprising the contacting elements (P1), is distant from the first portion , and a second position (Pb) in said housing , where the first surface (Pc) bears against the first portion of said at least one housing . said at least one housing comprising a first portion , belonging to the first part and provided with at least one first opening capable of being crossed by at least one electric contactor external to the testing device ; said at least one housing being arranged to enable said at least one electronic die (P) to occupy: a first position (Pa) in said housing , where a first surface (Pc) of said electronic die (P), comprising the contacting elements (P1), is distant from the first portion , and a second position (Pb) in said housing , where the first surface (Pc) bears against the first portion of said at least one housing . a first position (Pa) in said housing , where a first surface (Pc) of said electronic die (P), comprising the contacting elements (P1), is distant from the first portion , and a second position (Pb) in said housing , where the first surface (Pc) bears against the first portion of said at least one housing .
A mobile station for transmitting data in a communication system, the mobile station comprising: at least one transmit antenna ; and a transmitter configured to communicate with at least one base station using a plurality of downlink component carriers and at least one uplink component carrier, and a controller configured to control the transmitter to transmit at least one periodic Physical Uplink Control Channel, PUCCH, channel quality index, CQI, report for a downlink component carrier in the at least one uplink component carrier, and the transmitter to transmit, if a number of uplink component carriers is less than a number of downlink component carriers, the CQI reports corresponding to a subset of the plurality of downlink component carriers by transmitting at least two CQI reports corresponding to the subset of the plurality of downlink component carriers over one uplink component carrier, wherein the controller is further configured to control the transmitter to transmit a first PUCCH CQI report for a first downlink component carrier over a first uplink component carrier in a first subframe and over a second uplink component carrier in a second subframe subsequent to the first subframe . at least one transmit antenna ; and a transmitter configured to communicate with at least one base station using a plurality of downlink component carriers and at least one uplink component carrier, and a controller configured to control the transmitter to transmit at least one periodic Physical Uplink Control Channel, PUCCH, channel quality index, CQI, report for a downlink component carrier in the at least one uplink component carrier, and the transmitter to transmit, if a number of uplink component carriers is less than a number of downlink component carriers, the CQI reports corresponding to a subset of the plurality of downlink component carriers by transmitting at least two CQI reports corresponding to the subset of the plurality of downlink component carriers over one uplink component carrier, wherein the controller is further configured to control the transmitter to transmit a first PUCCH CQI report for a first downlink component carrier over a first uplink component carrier in a first subframe and over a second uplink component carrier in a second subframe subsequent to the first subframe .
A vapor compression system comprising an evaporator , a condenser and a motor driven compressor , comprising a cooling system, the cooling system comprising: a housing enclosing the motor; a cavity located within the housing ; a fluid circuit having a first connection with the housing configured to provide a liquid or two phase cooling fluid from the condenser to the motor, the two phase cooling fluid being separable into a vapor phase portion and a liquid phase portion, the fluid circuit further having a second connection with the housing to remove cooling fluid in fluid communication with the fluid circuit, the cooling fluid conveyed through the second connection being two phase cooling fluid, the fluid circuit further having a third connection with the housing for receiving and circulating in the cavity the vapor phase portion conveyed through the second connection , wherein a conduit is positioned between the second connection and the third connection for conveying two phase cooling fluid therebetween, wherein the conduit includes a compartment for separating the liquid phase portion from the vapor phase portion exiting the housing from the second connection , characterized in that the compartment is positioned interior of the housing . a housing enclosing the motor; a cavity located within the housing ; a fluid circuit having a first connection with the housing configured to provide a liquid or two phase cooling fluid from the condenser to the motor, the two phase cooling fluid being separable into a vapor phase portion and a liquid phase portion, the fluid circuit further having a second connection with the housing to remove cooling fluid in fluid communication with the fluid circuit, the cooling fluid conveyed through the second connection being two phase cooling fluid, the fluid circuit further having a third connection with the housing for receiving and circulating in the cavity the vapor phase portion conveyed through the second connection , wherein a conduit is positioned between the second connection and the third connection for conveying two phase cooling fluid therebetween, wherein the conduit includes a compartment for separating the liquid phase portion from the vapor phase portion exiting the housing from the second connection , characterized in that the compartment is positioned interior of the housing .
A system comprising: a communication gateway unit, CGU, located at a first location of a vehicle, the CGU comprising: a communication processor circuit ; a first power supply ; and a first data interface ; a remote wireless transceiver unit, RWTU, located at a second location of the vehicle, the RWTU comprising: a second data interface coupled to the first data interface using two or more data links; a power interface configured to couple the first power supply to the RWTU using two or more power lines; and one or more wireless transceivers coupled to one or more antennas (215a-215c) on the vehicle, wherein the second location is closer to each of the one or more antennas than the first location; and one or more storage devices storing instructions that, when executed by the communication processor circuit , cause the communication processor circuit to: monitor data traffic on a first data link between the first data interface and the second data interface ; in response to a detection of a loss or a disruption of the first data link, select a second data link to transfer data between the first data interface and the second data interface . a communication gateway unit, CGU, located at a first location of a vehicle, the CGU comprising: a communication processor circuit ; a first power supply ; and a first data interface ; a communication processor circuit ; a first power supply ; and a first data interface ; a remote wireless transceiver unit, RWTU, located at a second location of the vehicle, the RWTU comprising: a second data interface coupled to the first data interface using two or more data links; a power interface configured to couple the first power supply to the RWTU using two or more power lines; and one or more wireless transceivers coupled to one or more antennas (215a-215c) on the vehicle, wherein the second location is closer to each of the one or more antennas than the first location; and a second data interface coupled to the first data interface using two or more data links; a power interface configured to couple the first power supply to the RWTU using two or more power lines; and one or more wireless transceivers coupled to one or more antennas (215a-215c) on the vehicle, wherein the second location is closer to each of the one or more antennas than the first location; and one or more storage devices storing instructions that, when executed by the communication processor circuit , cause the communication processor circuit to: monitor data traffic on a first data link between the first data interface and the second data interface ; in response to a detection of a loss or a disruption of the first data link, select a second data link to transfer data between the first data interface and the second data interface . monitor data traffic on a first data link between the first data interface and the second data interface ; in response to a detection of a loss or a disruption of the first data link, select a second data link to transfer data between the first data interface and the second data interface .
A forehead pad comprising: a) a base portion , wherein the base portion defines (i) a first surface, and (ii) a second surface to contact a user's forehead; b) a support post , wherein the support post projects from the first surface and comprises a necked down region and a cut away portion between the necked down region and the first surface, the cut away portion being a region of the support post with an increased cross-sectional width that defines an undercut, the undercut being between the cut away portion and the first surface; and c) a head adapted to connect the support post to a forehead support of a respiratory mask, wherein the necked down region forms a lip with the head and facilitates releasable engagement of the forehead pad with the forehead support , wherein, when viewed from a top view, the second surface is concave and, when viewed from a from an end view, the support post and the base portion are generally perpendicular to one another, wherein the end view is turned by 90° from the top view. a) a base portion , wherein the base portion defines (i) a first surface, and (ii) a second surface to contact a user's forehead; (i) a first surface, and (ii) a second surface to contact a user's forehead; b) a support post , wherein the support post projects from the first surface and comprises a necked down region and a cut away portion between the necked down region and the first surface, the cut away portion being a region of the support post with an increased cross-sectional width that defines an undercut, the undercut being between the cut away portion and the first surface; and c) a head adapted to connect the support post to a forehead support of a respiratory mask, wherein the necked down region forms a lip with the head and facilitates releasable engagement of the forehead pad with the forehead support ,
An article of manufacture comprising a dosage form, the dosage form comprising an effective amount of a Bryoid and an effective amount of a Retinoid for use in the treatment of a disease responsive to increases in alpha secretase activity, wherein the disease is selected from the group consisting of neuro-degenerative diseases, virus latencies, cancers and optical diseases, wherein the Bryoid and the Retinoid are held in a plurality of spheres, wherein said spheres comprise a biopolymer, and wherein said spheres have diameters of 1 to 1000 nanometers.