mhurhangee/ep-ind-claims huggingface dataset:
A wet pet food product comprising: (a) a base food having a coating associated with said base food; wherein said coating comprises a binder that is selected from the group consisting of egg-based materials, undenatured proteins, food grade polymeric adhesives, gels, polyols, starches, gums, and combinations thereof; (b) a first layer; wherein said first layer comprises a material selected from the group consisting of textured wheat protein, textured soy protein, textured lupin protein, combinations thereof; and wherein said textured wheat protein is shredded from about.005 millimeters to about 50 millimeters, as measured in at least one axis. wherein said first layer is bonded with said base food; and wherein said base food has a Volume of from.004 cc to 3600 cc. A (a) a base food having a coating associated with said base food; wherein said coating comprises a binder that is selected from the group consisting of egg-based materials, undenatured proteins, food grade polymeric adhesives, gels, polyols, starches, gums, and combinations thereof; (b) a first layer; wherein said first layer comprises a material selected from the group consisting of textured wheat protein, textured soy protein, textured lupin protein, combinations thereof; and wherein said textured wheat protein is shredded from about.005 millimeters to about 50 millimeters, as measured in at least one axis.
A vehicle control system mounted on a controlled vehicle; the system being configured to carry out a control for; detecting a preceding vehicle which presents ahead of the controlled vehicle as an object vehicle, determining a speed distribution area which defines a distribution of an allowable upper limit (V lim) of a relative speed of the controlled vehicle with respect to the object vehicle in the travelling direction of the controlled vehicle when the object vehicle is detected, and executing an avoidance control for restricting the relative speed of the controlled vehicle with respect to the object vehicle from exceeding the allowable upper limit (V lim) in the speed distribution area, wherein the speed distribution area has a first speed distribution area defined such that the same allowable upper limit (V lim) extends from an area on one side of the object vehicle in a lateral direction orthogonal to the traveling direction through an area between the controlled vehicle and the object vehicle to an area on the other side opposite to the one side of the controlled vehicle in a lateral direction. detecting a preceding vehicle which presents ahead of the controlled vehicle as an object vehicle, determining a speed distribution area which defines a distribution of an allowable upper limit (V lim) of a relative speed of the controlled vehicle with respect to the object vehicle in the travelling direction of the controlled vehicle when the object vehicle is detected, and executing an avoidance control for restricting the relative speed of the controlled vehicle with respect to the object vehicle from exceeding the allowable upper limit (V lim) in the speed distribution area, wherein the speed distribution area has a first speed distribution area defined such that the same allowable upper limit (V lim) extends from an area on one side of the object vehicle in a lateral direction orthogonal to the traveling direction through an area between the controlled vehicle and the object vehicle to an area on the other side opposite to the one side of the controlled vehicle in a lateral direction.
A method of using an injection molding machine, the method comprising: first, injection molding using a first injection molding machine, a first mold, and a native controller to injection mold production versions of a plastic object according to an original mold cycle for the first mold, the first injection molding machine including an injection unit, a nozzle in fluid communication with the injection unit, and the first mold, which is in fluid communication with the nozzle, wherein the native controller is programmed with at least a portion of the original mold cycle, wherein the original mold cycle has an original average cycle time, and wherein the native controller at least partially controls injection pressures of the machine according to the original mold cycle; and second, injection molding using a second injection molding machine, a second mold, and a retrofit controller to injection mold production versions of the plastic object according to a retrofit mold cycle for the second mold, the second injection molding machine including an injection unit, a nozzle in fluid communication with the injection unit, and the second mold, which is in fluid communication with the nozzle, wherein the retrofit controller is programmed with at least a portion of the retrofit mold cycle, wherein the retrofit mold cycle has a retrofit average cycle time, wherein the retrofit controller at least partially controls injection pressures of the machine according to the retrofit mold cycle; wherein the retrofit average cycle time is 5-35% shorter than the original average cycle time. first, injection molding using a first injection molding machine, a first mold, and a native controller to injection mold production versions of a plastic object according to an original mold cycle for the first mold, the first injection molding machine including an injection unit, a nozzle in fluid communication with the injection unit, and the first mold, which is in fluid communication with the nozzle, wherein the native controller is programmed with at least a portion of the original mold cycle, wherein the original mold cycle has an original average cycle time, and wherein the native controller at least partially controls injection pressures of the machine according to the original mold cycle; and second, injection molding using a second injection molding machine, a second mold, and a retrofit controller to injection mold production versions of the plastic object according to a retrofit mold cycle for the second mold, the second injection molding machine including an injection unit, a nozzle in fluid communication with the injection unit, and the second mold, which is in fluid communication with the nozzle, wherein the retrofit controller is programmed with at least a portion of the retrofit mold cycle, wherein the retrofit mold cycle has a retrofit average cycle time, wherein the retrofit controller at least partially controls injection pressures of the machine according to the retrofit mold cycle; wherein the retrofit average cycle time is 5-35% shorter than the original average cycle time.
Apparatus comprising: - a blood treatment device having a first chamber and a second chamber separated by a semipermeable membrane; - an extracorporeal blood circuit having a first line to supply blood to said first chamber and a second line to withdraw blood from said first chamber; - a fluid circuit having an inlet line to supply fresh fluid to said second chamber and an outlet line to withdraw spent fluid from said second chamber; - ultrafiltration means for actuating an ultrafiltration flow through said semipermeable membrane; - sensor means for detecting a characteristic of the spent fluid in said outlet line; characterized by comprising means for determining at least one parameter from two values of said characteristic of the spent fluid measured at two different ultrafiltration flows (Qf1; Qf2), said at least one parameter comprising the dialysance of the blood treatment device and/or a chemical-physical parameter of the blood. - a blood treatment device having a first chamber and a second chamber separated by a semipermeable membrane; - an extracorporeal blood circuit having a first line to supply blood to said first chamber and a second line to withdraw blood from said first chamber; - a fluid circuit having an inlet line to supply fresh fluid to said second chamber and an outlet line to withdraw spent fluid from said second chamber; - ultrafiltration means for actuating an ultrafiltration flow through said semipermeable membrane; - sensor means for detecting a characteristic of the spent fluid in said outlet line;
Use of a resin molded article for resin parts for electrical appliances, wherein the resin molded article is obtained by molding a polylactic acid resin composition, wherein the polylactic acid resin composition comprises a hindered amine compound represented by the following General Formula: wherein R represents a C 1 to C 18 alkyl group, C 1 to C 18 acyl group or C 3 -C 8 cycloalkyl group, which is optionally substituted with a hydroxyl group and is blended at an amount of 0.005 to 30 parts by mass with respect to 100 parts by mass of polylactic acid resin.
A method for forming an interconnect structure for an integrated circuit, the method comprising: forming a metal layer over a substrate; forming a hard mask layer (120, 220) over the metal layer; forming a first resist layer of a first resist material over the hard mask layer and patterning the first resist layer in a first lithography process to define a first resist pattern (132, 1132); forming over the first resist pattern (132, 1132) a second resist layer of a second resist material different from the first resist material and patterning the second resist layer in a second lithography process to define a second resist pattern (142, 1142) of resist lines (142', 1142') extending in parallel along a first direction, wherein at least a portion of the first resist pattern (132, 1132) is overlapped by the second resist pattern (142, 1142); patterning the hard mask layer using the second resist pattern (142, 1142) as an etch mask to define a hard mask line pattern (122, 1122) underneath the second resist pattern, and subsequently the metal layer to define a metal line pattern (112, 1112) underneath the hard mask line pattern (122, 122); removing the second resist pattern (142, 1142) and subsequently patterning the hard mask line pattern (122, 1122) using said at least a portion of the first resist pattern (132, 1132) as an etch mask to define a hard mask pillar pattern (124, 1124) over the metal line pattern (112, 1112); and forming a metal pillar pattern (116, 1116, 2116) in accordance with the hard mask pillar pattern. forming a metal layer over a substrate; forming a hard mask layer (120, 220) over the metal layer; forming a first resist layer of a first resist material over the hard mask layer and patterning the first resist layer in a first lithography process to define a first resist pattern (132, 1132); forming over the first resist pattern (132, 1132) a second resist layer of a second resist material different from the first resist material and patterning the second resist layer in a second lithography process to define a second resist pattern (142, 1142) of resist lines (142', 1142') extending in parallel along a first direction, wherein at least a portion of the first resist pattern (132, 1132) is overlapped by the second resist pattern (142, 1142); patterning the hard mask layer using the second resist pattern (142, 1142) as an etch mask to define a hard mask line pattern (122, 1122) underneath the second resist pattern, and subsequently the metal layer to define a metal line pattern (112, 1112) underneath the hard mask line pattern (122, 122); removing the second resist pattern (142, 1142) and subsequently patterning the hard mask line pattern (122, 1122) using said at least a portion of the first resist pattern (132, 1132) as an etch mask to define a hard mask pillar pattern (124, 1124) over the metal line pattern (112, 1112); and forming a metal pillar pattern (116, 1116, 2116) in accordance with the hard mask pillar pattern.
An image forming apparatus comprising: a first body to perform an image forming operation on a print medium; a second body to pivot between a closed position and an open position in relation to the first body; a guide lever member to control a pivoting of the second body, the guide lever member having a first end connected to one of the first body and the second body, and a second end, opposite the first end; and a guide rail member comprising: a guide rail along which the second end of the guide lever member is connected to slide between a first end of the guide rail corresponding to the open position of the second body and a second end of the guide rail corresponding to the closed position of the second body; and characterised by: the guide rail comprising a first pressing portion positioned between the ends of the guide rail adjacent the first end thereof to constrain the second end of the guide lever member in the first end of the guide rail when the second body is in the open position. a first body to perform an image forming operation on a print medium; a second body to pivot between a closed position and an open position in relation to the first body; a guide lever member to control a pivoting of the second body, the guide lever member having a first end connected to one of the first body and the second body, and a second end, opposite the first end; and a guide rail member comprising: a guide rail along which the second end of the guide lever member is connected to slide between a first end of the guide rail corresponding to the open position of the second body and a second end of the guide rail corresponding to the closed position of the second body; and a guide rail along which the second end of the guide lever member is connected to slide between a first end of the guide rail corresponding to the open position of the second body and a second end of the guide rail corresponding to the closed position of the second body; and the guide rail comprising a first pressing portion positioned between the ends of the guide rail adjacent the first end thereof to constrain the second end of the guide lever member in the first end of the guide rail when the second body is in the open position.
A cleaning device for a site of a medical implement, the cleaning device comprising: a housing having an opening and an inner surface; a coupling mechanism on the inner surface of the housing; a cleaning agent within the housing; and a moveable septum in the housing that maintains the cleaning agent within the housing until receipt by the housing of the site of the medical implement, the movable septum including a flexible flange; and a male luer extending from the inner surface of the housing opposite the opening of the housing; wherein the movable septum is disposed around the male luer and is movable relative to the male luer. a housing having an opening and an inner surface; a coupling mechanism on the inner surface of the housing; a cleaning agent within the housing; and a moveable septum in the housing that maintains the cleaning agent within the housing until receipt by the housing of the site of the medical implement, the movable septum including a flexible flange; and a male luer extending from the inner surface of the housing opposite the opening of the housing; wherein the movable septum is disposed around the male luer and is movable relative to the male luer.
An optical switch comprising: a 2x1 multi-mode interferometer, MMI, coupler (400, 700) including two input waveguides (410, 710) jointly coupled to an output waveguide (420, 720); and a photodetector (430, 730), characterized in that the photodetector (430, 730) is coupled to an edge of a first waveguide of the input waveguides (410, 710), and extending along a length of and next to a side of the output waveguide (420, 720). a 2x1 multi-mode interferometer, MMI, coupler (400, 700) including two input waveguides (410, 710) jointly coupled to an output waveguide (420, 720); and a photodetector (430, 730), characterized in that the photodetector (430, 730) is coupled to an edge of a first waveguide of the input waveguides (410, 710), and extending along a length of and next to a side of the output waveguide (420, 720).
Method for producing an at least partially housed semiconductor wafer, comprising the steps of: - providing a semiconductor wafer having components on its upper side; - providing a cover plate, the surface of which covers the semiconductor wafer at least in part, - functionalizing the surface of the cover plate to form a functional layer by means of a plasma treatment of the surface of the cover plate, - immediately after activating the functional layer by irradiation with light, joining the upper side of the semiconductor wafer and the surface of the cover plate for chemical bonding of the semiconductor wafer and the cover plate, so that the cover plate forms a housing of the semiconductor wafer. - providing a semiconductor wafer having components on its upper side; - providing a cover plate, the surface of which covers the semiconductor wafer at least in part, - functionalizing the surface of the cover plate to form a functional layer by means of a plasma treatment of the surface of the cover plate, - immediately after activating the functional layer by irradiation with light, joining the upper side of the semiconductor wafer and the surface of the cover plate for chemical bonding of the semiconductor wafer and the cover plate, so that the cover plate forms a housing of the semiconductor wafer.
A process to produce a fluorided solid oxide, the process comprising: (a) contacting an acidic fluorine-containing compound and an inorganic base to produce an aqueous mixture having a pH of at least about 4; and (b) contacting a solid oxide with the aqueous mixture to produce the fluorided solid oxide. (a) contacting an acidic fluorine-containing compound and an inorganic base to produce an aqueous mixture having a pH of at least about 4; and (b) contacting a solid oxide with the aqueous mixture to produce the fluorided solid oxide.
A device for handling notes of value, comprising a first transport path, a second transport path and at least one third transport path, wherein the notes of value can be transported along each of the transport paths (12 to 16), comprising a switch via which the three transport paths (12 to 16) can be connected to each other and with the aid of which the notes of value can be deflected from one of the transport paths (12 to 16) in another transport path (12 to 16) preset by the switch position, comprising at least one first transport element with the aid of which the notes of value can be supplied from the switch to the first transport path and/or from the first transport path to the switch, comprising at least one second transport element with the aid of which the notes of value can be supplied from the switch to the second transport path and/or from the second transport path to the switch, and comprising at least one third transport element with the aid of which the notes of value can be supplied from the switch to the third transport path and/or from the third transport path to the switch, wherein the first transport element, the second transport element and the third transport element are driven by the same drive unit, wherein the direction of rotation (P4 to P6) of at least one of the transport elements (26 to 30) can be reversed independently from the directions of rotation (P4 to P6) of the other two transport elements (26 to 30), characterized in that the device comprises a reverse gear, which in a first position drives the third transport element with the same direction of rotation with which the first transport element rotates and which in a second position drives the third transport element with the direction of rotation opposite to the direction of rotation of the first transport element, and that the reverse gear comprises a first gear wheel, which in the first position meshes with a gear wheel connected to the third transport element in a rotationally fixed manner, and that the reverse gear comprises a second gear wheel, which in the second position meshes with the gear wheel connected to the third transport element in a rotationally fixed manner, wherein in the first position the second gear wheel does not contact the gear wheel connected to the third transport element in a rotationally fixed manner, wherein in the second position the first gear wheel does not contact the gear wheel connected to the third transport element in a rotationally fixed manner, and wherein the first gear wheel and the second gear wheel are engaged with each other.
A serial transmission fan control device comprising: a master controller configured to generate a serial control data, wherein the serial control data comprises a plurality of packets concatenated in an order and each of the plurality of packets comprises a control parameter set of a fan; a first fan controller electrically connecting to the master controller, wherein the first fan controller is configured to receive the serial control data, extract a packet from the plurality of packets of the serial control data and send a first downlink serial data, wherein the first downlink serial data comprises all of the plurality of packets of the serial control data except for the extracted packet; and a second fan controller electrically connecting the first fan controller, wherein the second fan controller is configured to receive the first downlink serial data and extract a packet from the packets of the first downlink serial data. a master controller configured to generate a serial control data, wherein the serial control data comprises a plurality of packets concatenated in an order and each of the plurality of packets comprises a control parameter set of a fan; a first fan controller electrically connecting to the master controller, wherein the first fan controller is configured to receive the serial control data, extract a packet from the plurality of packets of the serial control data and send a first downlink serial data, wherein the first downlink serial data comprises all of the plurality of packets of the serial control data except for the extracted packet; and a second fan controller electrically connecting the first fan controller, wherein the second fan controller is configured to receive the first downlink serial data and extract a packet from the packets of the first downlink serial data.
Vacuum cleaner, preferably a handheld vacuum cleaner, comprising a fan having an impeller for generating an air flow, a first electric motor for driving the impeller of the fan, a suction nozzle having a rotatable brush, a second electric motor for driving the rotatable brush, and a control unit which is designed and configured to operate at least the first electric motor and/or the second electric motor, the control unit being designed and configured to detect an inadmissibly high load on the first electric motor and/or the second electric motor, and to change the operation of the second electric motor from a first rotation direction to a second rotation direction in response thereto, characterised in that the control unit is designed and configured to detect an inadmissibly high load on the first electric motor and/or the second electric motor based on a temperature increase thereof, preferably by a limit value of a sensor-captured or modelled temperature being exceeded. comprising a fan having an impeller for generating an air flow, a first electric motor for driving the impeller of the fan, a suction nozzle having a rotatable brush, a second electric motor for driving the rotatable brush, and a control unit which is designed and configured to operate at least the first electric motor and/or the second electric motor, the control unit being designed and configured to detect an inadmissibly high load on the first electric motor and/or the second electric motor, and to change the operation of the second electric motor from a first rotation direction to a second rotation direction in response thereto, characterised in that the control unit is designed and configured to detect an inadmissibly high load on the first electric motor and/or the second electric motor based on a temperature increase thereof, preferably by a limit value of a sensor-captured or modelled temperature being exceeded.
A combination of cannabidiol with an antibiotic for use in the treatment of bacterial infection caused by a Gram-negative bacterium, wherein the antibiotic is Rifampicin or Erythromycin.