mhurhangee/ep-ind-claims huggingface dataset:
A dispenser (100, 200) comprising: a housing; an container disposed in the housing for holding a liquid; the container having a liquid outlet located proximate the bottom of the container; an outlet nozzle; and a pump (108, 208) disposed between the container and the outlet nozzle (110, 210), the pump (108, 208) having: a pump inlet in fluid communication with the liquid outlet of the container; a pump outlet (116, 216) in fluid communication with the outlet nozzle (110, 210); a pump chamber (118, 218) in fluid communication with the pump inlet and the pump outlet (116, 216), wherein the pump chamber (118, 218) is movable between an expanded position and a compressed position; a first check valve (120, 220) disposed between the pump (108, 208) and the outlet nozzle, wherein the first check valve (120, 220) has a first cracking pressure; and a second check valve (122, 222) disposed between the first check valve (120, 220) and the outlet nozzle, wherein the second check valve (122, 222) has a second cracking pressure; wherein the second cracking pressure of the second check valve (122, 222) is greater than the first cracking pressure of the first check valve (120, 220), wherein the dispenser (100, 200) is an inverted dispenser in which the container is inverted and the container is positioned so that at least a portion of the fluid in the container is located above the pump chamber (118, 218). a housing; an container disposed in the housing for holding a liquid; the container having a liquid outlet located proximate the bottom of the container; an outlet nozzle; and a pump (108, 208) disposed between the container and the outlet nozzle (110, 210), the pump (108, 208) having: a pump inlet in fluid communication with the liquid outlet of the container; a pump outlet (116, 216) in fluid communication with the outlet nozzle (110, 210); a pump chamber (118, 218) in fluid communication with the pump inlet and the pump outlet (116, 216), wherein the pump chamber (118, 218) is movable between an expanded position and a compressed position; a pump inlet in fluid communication with the liquid outlet of the container; a pump outlet (116, 216) in fluid communication with the outlet nozzle (110, 210); a pump chamber (118, 218) in fluid communication with the pump inlet and the pump outlet (116, 216), wherein the pump chamber (118, 218) is movable between an expanded position and a compressed position; a first check valve (120, 220) disposed between the pump (108, 208) and the outlet nozzle, wherein the first check valve (120, 220) has a first cracking pressure; and a second check valve (122, 222) disposed between the first check valve (120, 220) and the outlet nozzle, wherein the second check valve (122, 222) has a second cracking pressure; wherein the second cracking pressure of the second check valve (122, 222) is greater than the first cracking pressure of the first check valve (120, 220), wherein the dispenser (100, 200) is an inverted dispenser in which the container is inverted and the container is positioned so that at least a portion of the fluid in the container is located above the pump chamber (118, 218).
A base station apparatus for performing time and frequency scheduling in uplink packet access, comprising: an interference amount measurement part configured to measure an uplink interference amount for each interference amount measurement unit which comprises a predetermined period in a time domain and a predetermined number of frequency blocks in a timefrequency domain, each frequency block being a unit in the frequency domain for performing the time and frequency scheduling; an interference amount determination part configured to determine whether the uplink interference amount satisfies a predetermined condition; and an overload indicator reporting part configured to report an overload indicator to a neighboring cell when the predetermined condition is satisfied. an interference amount measurement part configured to measure an uplink interference amount for each interference amount measurement unit which comprises a predetermined period in a time domain and a predetermined number of frequency blocks in a timefrequency domain, each frequency block being a unit in the frequency domain for performing the time and frequency scheduling; an interference amount determination part configured to determine whether the uplink interference amount satisfies a predetermined condition; and an overload indicator reporting part configured to report an overload indicator to a neighboring cell when the predetermined condition is satisfied.
A washer-dryer comprising: - a washing tub comprising a cylindrical lateral wall and a rear wall, - a rotatable laundry drum arranged or arrangeable inside the washing tub, - a condenser for condensing moisture-laden air exiting the laundry during a drying cycle; wherein: - an inlet of the condenser is arranged at or connected to the rear wall of the washing tub, - an outlet of the condenser is connected to the washing tub, characterized by a duct in the rear wall of the washing tub, said duct fluidly connected to the inlet of said condenser, so that the air stream from the laundry drum to the inlet of the condenser passes said duct, wherein at least one temperature sensor detecting the temperature of said air stream is arranged inside the duct, and wherein said duct faces a rear wall of said drum. - a washing tub comprising a cylindrical lateral wall and a rear wall, - a rotatable laundry drum arranged or arrangeable inside the washing tub, - a condenser for condensing moisture-laden air exiting the laundry during a drying cycle; - an inlet of the condenser is arranged at or connected to the rear wall of the washing tub, - an outlet of the condenser is connected to the washing tub,
A Head-Mounted Display, HMD, comprising: a camera configured to capture a video of a real-world scene with a first field-of-view, a network interface circuit configured to stream video to a receiving display device, and processing means characterized in that it is operative to: generate a three dimensional, 3D, model of the real-world scene, generate a video from the 3D model using a second field-of-view which is wider than the first field-of-view, estimate a motion of the camera, and if the estimated motion of the camera satisfies one or more conditions indicative of rapid motion: stream the generated video to the receiving display device, else: stream the captured video to the receiving display device. a camera configured to capture a video of a real-world scene with a first field-of-view, a network interface circuit configured to stream video to a receiving display device, and processing means characterized in that it is operative to: generate a three dimensional, 3D, model of the real-world scene, generate a video from the 3D model using a second field-of-view which is wider than the first field-of-view, estimate a motion of the camera, and if the estimated motion of the camera satisfies one or more conditions indicative of rapid motion: stream the generated video to the receiving display device, else: stream the captured video to the receiving display device. generate a three dimensional, 3D, model of the real-world scene, generate a video from the 3D model using a second field-of-view which is wider than the first field-of-view, estimate a motion of the camera, and if the estimated motion of the camera satisfies one or more conditions indicative of rapid motion: stream the generated video to the receiving display device, else: stream the captured video to the receiving display device. stream the generated video to the receiving display device, else: stream the captured video to the receiving display device.
A method for automatically notifying an intended person of a service interval of a test and measurement device by using the test and measurement device, with the following steps: a) Retrieving service data by said test and measurement device, wherein said service data comprises internal data and external data, said external data relating to data that is gathered by the test and measurement device via at least one communication interface; b) Processing said service data internally by said test and measurement device, thereby calculating a time for maintenance automatically based on said service data retrieved, wherein the time for maintenance corresponds to an end of an actual service interval; and c) Notifying at least one of a user of said test and measurement device and a service personal automatically by the test and measurement device itself with regard to the service interval of the test and measurement device so that at least one of the user of said test and measurement device and the service personal is notified that a service check is already due or that it becomes due in the near future, thereby ensuring that the test and measurement device is always in a calibrated state wherein said external data comprises data of a previous maintenance record retrieved via the internet and/or data retrieved via the internet from other test and measurement devices of the same kind and/or environmental data of said test and measurement device, said environmental data comprising weather information based on the geographic location of said test and measurement device. a) Retrieving service data by said test and measurement device, wherein said service data comprises internal data and external data, said external data relating to data that is gathered by the test and measurement device via at least one communication interface; b) Processing said service data internally by said test and measurement device, thereby calculating a time for maintenance automatically based on said service data retrieved, wherein the time for maintenance corresponds to an end of an actual service interval; and c) Notifying at least one of a user of said test and measurement device and a service personal automatically by the test and measurement device itself with regard to the service interval of the test and measurement device so that at least one of the user of said test and measurement device and the service personal is notified that a service check is already due or that it becomes due in the near future, thereby ensuring that the test and measurement device is always in a calibrated state
Method of controlling an emission of nitrogen oxide present in the gases discharged from a heat engine of a powertrain via an exhaust line, the powertrain comprising an engine control and a computer having memorized several separate operating modes of the powertrain including at least one current mode (REG cour) and at least one alternating mode (REG alt) giving rise to emissions of the respective quantity of nitrogen oxide t, a quantity of oxide of nitrogen t (NOx cour) according to said at least one current mode being estimated, characterized in that a ratio (ratio b) of quantities of nitrogen oxide between said at least one current mode (REG cour) and said at least one alternative mode (REG alt) as a function of a group of parameters accessible during said at least one current mode (Par), a quantity of nitrogen oxide (NOx alt) according to said at least one alternative mode being estimated according to the quantity of nitrogen oxide (NOx cour) according to said at least one mode and said ratio (ratio b) of quantities of nitrogen oxide, the motor control switching between the different operating modes stored as a function of the quantities of nitrogen oxide estimated for said at least one current mode (REG cour) and said at least one alternative mode (REG alt) stored.
A dermatome blade assembly (100; 200), comprising: at least two blades (120, 150; 220, 250), each including a cutting edge (122, 152; 222, 252), a rear edge (124, 154; 224, 254) spaced from the cutting edge, and two side edges (126, 128, 156, 158; 226, 228, 256, 258) joining the cutting edge and the rear edge, wherein at least one of the blades comprises at least one throughgoing aperture (121, 151; 221, 251); and a blade carrier (110; 210) including a main body (111; 211) extending in a transverse direction and means for connecting each of the at least two blades to the blade carrier; wherein the blade carrier comprises a recess (112; 212) arranged to receive a drive pin of a dermatome such that oscillating motion of the drive pin causes reciprocating motion of the dermatome blade assembly. at least two blades (120, 150; 220, 250), each including a cutting edge (122, 152; 222, 252), a rear edge (124, 154; 224, 254) spaced from the cutting edge, and two side edges (126, 128, 156, 158; 226, 228, 256, 258) joining the cutting edge and the rear edge, wherein at least one of the blades comprises at least one throughgoing aperture (121, 151; 221, 251); and a blade carrier (110; 210) including a main body (111; 211) extending in a transverse direction and means for connecting each of the at least two blades to the blade carrier; wherein the blade carrier comprises a recess (112; 212) arranged to receive a drive pin of a dermatome such that oscillating motion of the drive pin causes reciprocating motion of the dermatome blade assembly.
An auxiliary tank for an aircraft turbomachine, comprising a curved general shape whose radius of curvature is centred on an axis intended to correspond to a longitudinal axis of the turbomachine, this tank comprising a cylindrical or frustoconical radially outer wall and three cylindrical or frustoconical radially inner walls (220, 230) arranged opposite said radially outer wall, the three radially inner walls (220, 230) comprising a middle wall and two side walls arranged on either side of the middle wall, characterised in that the middle wall having a mean radius of curvature greater than the mean radius of curvature of said side walls so that the inner volume of the tank substantially forms a U-shape, the branches of which are formed by lateral volume portions between the side walls and the radially outer wall and the base of which is formed by a middle volume portion between the middle wall and the radially outer wall.
A printing apparatus, comprising a printing section configured to print ink on a surface of a substrate, characterized by the following features: the printing section is configured to print conductive ink including a first linear part linearly extending in a predetermined direction and a second linear part linearly extending in a direction different from that of the first linear part such that a sectional area of a section (A, B) of the second linear part decreases in a direction away from the first linear part, the section of the second linear part is orthogonal to a longitudinal direction of the second linear part, characterized in that the second linear part has a layered structure, and in that the number of layers of the layered structure at a part of the second linear part which has a smallest sectional area in the second linear part is smaller than the number of layers of the layered structure at a part of the second linear part which has a largest sectional area in the second linear part. the printing section is configured to print conductive ink including a first linear part linearly extending in a predetermined direction and a second linear part linearly extending in a direction different from that of the first linear part such that a sectional area of a section (A, B) of the second linear part decreases in a direction away from the first linear part, the section of the second linear part is orthogonal to a longitudinal direction of the second linear part, characterized in that the second linear part has a layered structure, and in that the number of layers of the layered structure at a part of the second linear part which has a smallest sectional area in the second linear part is smaller than the number of layers of the layered structure at a part of the second linear part which has a largest sectional area in the second linear part.
A process of injection blow molding or injection stretch blow molding of an article; the process comprising a step of injection molding of a preform on a core pin followed by a step of blow molding or stretch blow molding of said preform; wherein the article is a recipient which is a blow-molded article comprising: - a reservoir, the reservoir having a bottom wall comprising an opening; - a central element (9, 57) arranged at the opening of the reservoir; - a socket arranged to surround the central element (9, 57); wherein both the socket and the central element (9, 57) show a lower end and an upper end, and are connected by their respective upper ends by means of a disc with a central aperture, wherein the assembly comprising the socket, the central element (9, 57) and the disc is forming a ring that comes into one piece; wherein least a part of the bottom wall of the reservoir is arranged to face the disc; Wherein the ring and the reservoir also come into one piece so that the reservoir is irreversibly fixed to the ring; wherein the socket shows an internal relief being an internal thread; and in that the step of blow molding or stretch blow molding of the preform is followed by a step of unscrewing the article from the core pin performed before a step of ejection of said article; and wherein the reservoir has a single opening being the opening of the bottom wall. - a reservoir, the reservoir having a bottom wall comprising an opening; - a central element (9, 57) arranged at the opening of the reservoir; - a socket arranged to surround the central element (9, 57); wherein both the socket and the central element (9, 57) show a lower end and an upper end, and are connected by their respective upper ends by means of a disc with a central aperture, wherein the assembly comprising the socket, the central element (9, 57) and the disc is forming a ring that comes into one piece; wherein least a part of the bottom wall of the reservoir is arranged to face the disc; Wherein the ring and the reservoir also come into one piece so that the reservoir is irreversibly fixed to the ring; wherein the socket shows an internal relief being an internal thread; and in that the step of blow molding or stretch blow molding of the preform is followed by a step of unscrewing the article from the core pin performed before a step of ejection of said article; and wherein the reservoir has a single opening being the opening of the bottom wall.
A method for the manufacture of a back contact back junction solar cell from a crystalline semiconductor layer, the method providing continuous structural support to said crystalline semiconductor layer, the method comprising, in the following order, the steps of: • forming a porous semiconductor layer on a template; • depositing a doped base crystalline semiconductor layer on said porous semiconductor layer; • performing back contact back junction solar cell backside processing steps comprising: forming a doped emitter layer on said doped base crystalline semiconductor layer; depositing a backside passivation dielectric layer; forming backside base and emitter contact openings through said dielectric layer in an interdigitated finger pattern; and forming doped base contact regions; • forming a permanent cell backside reinforcement on said solar cell backside, said permanent cell backside reinforcement exposing portions of said solar cell backside and only partially covers said solar cell backside to allow processing on said solar cell backside through the uncovered backside areas after front side processes are completed; • separating said doped base crystalline semiconductor layer from said template along said porous semiconductor layer; and • performing cell processing steps comprising: • forming a light capturing frontside surface with a passivation layer; and • metalizing the cell backside to form backside base and emitter metallization in the pattern of interdigitated fingers and busbars. • forming a porous semiconductor layer on a template; • depositing a doped base crystalline semiconductor layer on said porous semiconductor layer; • performing back contact back junction solar cell backside processing steps comprising: forming a doped emitter layer on said doped base crystalline semiconductor layer; depositing a backside passivation dielectric layer; forming backside base and emitter contact openings through said dielectric layer in an interdigitated finger pattern; and forming doped base contact regions; forming a doped emitter layer on said doped base crystalline semiconductor layer; depositing a backside passivation dielectric layer; forming backside base and emitter contact openings through said dielectric layer in an interdigitated finger pattern; and forming doped base contact regions; • forming a permanent cell backside reinforcement on said solar cell backside, said permanent cell backside reinforcement exposing portions of said solar cell backside and only partially covers said solar cell backside to allow processing on said solar cell backside through the uncovered backside areas after front side processes are completed; • separating said doped base crystalline semiconductor layer from said template along said porous semiconductor layer; and • performing cell processing steps comprising: • forming a light capturing frontside surface with a passivation layer; and • metalizing the cell backside to form backside base and emitter metallization in the pattern of interdigitated fingers and busbars.
High-performance cutting machine which has a cutting blade, which separates food slices from an end of a food product, and a gripper, which is reversibly engaged with the other end of the food product and fixes and/or guides same during the slicing of the last food slices of the food product, characterized in that means are provided which are suitable for producing an integrally bonded connection of the gripper to the end of the food product.
Process for the recovery of magnesium from magnesium-containing metal waste, particularly magnesium scrap, wherein metal waste is heated to transform magnesium into a gas phase by evaporation and/or sublimation, after which magnesium is precipitated from the gas phase, wherein the magnesium is precipitated from the gas phase as a liquid phase, wherein the waste is heated in a first region and the gas phase arising therefrom is passed through a second region and into a third region in which magnesium is precipitated in the liquid phase, characterized in that the energy released during precipitation of the liquid phase is used to heat a device for carrying out the process.
Drive assembly for a drug delivery device, comprising: - a housing with a proximal end and a distal end, and a longitudinal axis extending between the proximal end and the distal end, - a drive member, and - a piston rod. characterized in that the piston rod is axially moveable relative to the housing, wherein the piston rod comprises a guide track, and the drive member comprises a guide piece being disposed in the guide track, and the guide track comprises at least one section being oblique relative to the longitudinal axis and defining a displacement of the piston rod with respect to the housing for dispensing a single pre-set dose of medication during a relative movement between the guide piece and the piston rod when the guide piece cooperates with the oblique section between a distal final area of the oblique section and a proximal final area of the oblique section, and wherein the pitch of the at least one oblique section varies from the distal final area to the proximal final area. - a housing with a proximal end and a distal end, and a longitudinal axis extending between the proximal end and the distal end, - a drive member, and - a piston rod.