mhurhangee/patent-ind-claim-en huggingface dataset:
A refrigerant distributing device, comprising: a distributing tube defining a first end and a second end in a length direction thereof, and having an inlet for a refrigerant in the first end; and a plurality of nozzles disposed on the distributing tube along the length direction of the distributing tube , each nozzle having a predetermined length and being formed with a through hole communicating an interior of the distributing tube and an exterior of the distributing tube , wherein the through hole has a cross-shaped cross section, the through hole passes through inner and outer end surfaces of the nozzle , a longitudinal axial direction of the through hole is parallel to an axial direction of the nozzle , and the distributing tube has a circular cross-section, and wherein a ratio HID of a length H of the through hole in the longitudinal axial direction thereof to a hydraulic diameter D of the distributing tube is in a range of 0.027 to 25, and a ratio H / L of the length H of the through hole to a length L of the distributing tube is in a range of 3.3×10 -4 to 0.125. a distributing tube defining a first end and a second end in a length direction thereof, and having an inlet for a refrigerant in the first end; and a plurality of nozzles disposed on the distributing tube along the length direction of the distributing tube , each nozzle having a predetermined length and being formed with a through hole communicating an interior of the distributing tube and an exterior of the distributing tube , wherein the through hole has a cross-shaped cross section, the through hole passes through inner and outer end surfaces of the nozzle , a longitudinal axial direction of the through hole is parallel to an axial direction of the nozzle , and the distributing tube has a circular cross-section, and wherein a ratio HID of a length H of the through hole in the longitudinal axial direction thereof to a hydraulic diameter D of the distributing tube is in a range of 0.027 to 25, and a ratio H / L of the length H of the through hole to a length L of the distributing tube is in a range of 3.3×10 -4 to 0.125.
Cooling module for a motor vehicle with an electric motor , comprising: - at least one heat exchanger (30a-30c), - at least one tangential-flow turbomachine capable of creating a first air stream (F1) passing through the at least one heat exchanger (30a-30c), - a housing configured to accommodate the at least one heat exchanger (30a-30c) and said at least one tangential-flow turbomachine , the housing comprising a first intake opening and a discharge opening between which the first air stream (F1) flows, - at least one electric motor for controlling the rotation of said at least one tangential-flow turbomachine , the electric motor being positioned on the outer wall of the housing , said electric motor comprising at least one air inlet and one air outlet , the cooling module being characterized in that the housing comprises a second intake opening , the air outlet of the at least one electric motor being fluidly connected to said second intake opening so as to allow the flow of a second air stream (F2) passing in succession through the air inlet of the electric motor , the air outlet of the electric motor and the second intake opening of the housing to join the first air stream (F1) inside the housing . - at least one heat exchanger (30a-30c), - at least one tangential-flow turbomachine capable of creating a first air stream (F1) passing through the at least one heat exchanger (30a-30c), - a housing configured to accommodate the at least one heat exchanger (30a-30c) and said at least one tangential-flow turbomachine , the housing comprising a first intake opening and a discharge opening between which the first air stream (F1) flows, - at least one electric motor for controlling the rotation of said at least one tangential-flow turbomachine , the electric motor being positioned on the outer wall of the housing , said electric motor comprising at least one air inlet and one air outlet ,
A knife mill , comprising: a comminution container for receiving material to be comminuted, having a container base and an outer annular wall ; a knife rotating in the comminution container in order to comminute the material to be comminuted; a drive motor for driving the knife ; a base plate for placing thereon the comminution container ; a cooling device for cooling the comminution container ; characterized in that the cooling device cools the base plate and the base plate in turn cools the container base of the comminution container .
A method of heating an oven comprising: heating water that is contained in a reservoir located outside of a cooking chamber of the oven to reach a desired end point temperature that is less than boiling; heating compressed air through an air heater that is submerged within the water of the reservoir; conveying the heated water and the heated compressed air to a nebulizer ; nebulizing the heated water into heated water particles; and introducing the heated water particles into the cooking chamber via the heated compressed air. heating water that is contained in a reservoir located outside of a cooking chamber of the oven to reach a desired end point temperature that is less than boiling; heating compressed air through an air heater that is submerged within the water of the reservoir; conveying the heated water and the heated compressed air to a nebulizer ; nebulizing the heated water into heated water particles; and introducing the heated water particles into the cooking chamber via the heated compressed air.
A needleless connector comprising: a body having an internal cavity with a sealing ridge, a port, an output flow channel, and a fluid flow path between the port and output flow channel; and a collapsible valve disposed within the cavity, the valve comprising: a cylindrical wall having a center axis , an internal surface , an external surface , and a shoulder configured to sealingly contact the ridge of the body , thereby blocking the fluid flow path; a head fixedly attached to the wall , the head having a smiley cut at a first angular position about the center axis and a continuous top surface that is generally perpendicular to the axis ; and a first dimple formed in the internal surface of the cylindrical wall , the first dimple extending around the internal surface over an angle in the range of 90-270°, wherein the external surface of the cylindrical wall is deformed adjacent to the dimple such that the dimple has a depth that is greater than the thickness of the cylindrical wall . a body having an internal cavity with a sealing ridge, a port, an output flow channel, and a fluid flow path between the port and output flow channel; and a collapsible valve disposed within the cavity, the valve comprising: a cylindrical wall having a center axis , an internal surface , an external surface , and a shoulder configured to sealingly contact the ridge of the body , thereby blocking the fluid flow path; a head fixedly attached to the wall , the head having a smiley cut at a first angular position about the center axis and a continuous top surface that is generally perpendicular to the axis ; and a first dimple formed in the internal surface of the cylindrical wall , the first dimple extending around the internal surface over an angle in the range of 90-270°, wherein the external surface of the cylindrical wall is deformed adjacent to the dimple such that the dimple has a depth that is greater than the thickness of the cylindrical wall . a cylindrical wall having a center axis , an internal surface , an external surface , and a shoulder configured to sealingly contact the ridge of the body , thereby blocking the fluid flow path; a head fixedly attached to the wall , the head having a smiley cut at a first angular position about the center axis and a continuous top surface that is generally perpendicular to the axis ; and a first dimple formed in the internal surface of the cylindrical wall , the first dimple extending around the internal surface over an angle in the range of 90-270°, wherein the external surface of the cylindrical wall is deformed adjacent to the dimple such that the dimple has a depth that is greater than the thickness of the cylindrical wall .
The additive manufacturing machine for creating a three-dimensional model from powder material, that consists of chassis , in which are located one below the other a loading system , system for applying powder material , system for applying fusing substance , container which includes a movable bottom, a fixating system , a lifting system for lifting the movable bottom of the container , the additive manufacturing machine also includes a control unit and the system for applying powder material and the system for applying fusing substance are mounted on the chassis in such a way as to be able to move mutually perpendicular over one and the same plane, characterized in that the control unit is located at the top end of the chassis and in that the system for applying powder material consists of a body and of two rolls that rotate in opposite directions, powered by two electrical motors , wherein the two rolls are separated by a separating plate and the rolls have grooves, from which the powder material is dosed, and one of the rolls works in one direction and the other in the opposite direction.
A computer program product comprising program code means for causing a data processing system to perform a method for planning, visualizing, and/ or optimizing a dental restorative work on at least a part of the teeth of a patient when said program code means are executed on the data processing system, said method comprising: providing a facial 3D digital model of at least a part of a face of the patient with at least a part of the patient's pre-prepared teeth being visible and/ or exposed; obtaining at least one 3D digital model of at least a part of prepared teeth, where the prepared teeth have been prepared by dental restorative work; aligning the 3D model of the prepared teeth with the visible teeth in the 3D facial model ; and designing at least one dental restoration 3D digital model based on the 3D model of the prepared teeth and at least partly based on the 3D facial model . providing a facial 3D digital model of at least a part of a face of the patient with at least a part of the patient's pre-prepared teeth being visible and/ or exposed; obtaining at least one 3D digital model of at least a part of prepared teeth, where the prepared teeth have been prepared by dental restorative work; aligning the 3D model of the prepared teeth with the visible teeth in the 3D facial model ; and designing at least one dental restoration 3D digital model based on the 3D model of the prepared teeth and at least partly based on the 3D facial model .
A method for ejecting fluids having a viscosity ranging from about 20 mPa-sec to about 100 mPa-sec at 22° C from a micro-fluid ejection head , characterized in that the method comprises steps of: applying a heat signal to the ejection head for a first period of time to heat the ejection head to a first temperature that is about 20 °C above a steady state fluid ejection temperature for continuous or intermittent fluid ejection from the ejection head ; and applying a firing signal to ejection heaters on the ejection head during which fluid ejection from the ejection head occurs. applying a heat signal to the ejection head for a first period of time to heat the ejection head to a first temperature that is about 20 °C above a steady state fluid ejection temperature for continuous or intermittent fluid ejection from the ejection head ; and applying a firing signal to ejection heaters on the ejection head during which fluid ejection from the ejection head occurs.
A method for operating a machine for harvesting root crops and/or for separating root crops from further additionally conveyed material that includes at least soil in the form of loose earth and/or soil aggregates , and also, if applicable, leaves and/or stones, wherein, by means of at least one electromagnetic, in particular optical, or acoustic image acquisition unit , at least one inspection image is captured of at least one portion of the material moved relative to a machine frame of the machine by at least one transport element, in particular a hedgehog band or screening band , and, on the basis of at least one inspection data set generated using the inspection image and/or formed by this image, an evaluation device generates an adjustment signal for ad-justing at least one operating parameter of the transport element and/or a further transport element of the machine , wherein the adjustment signal changes the action of one or more actuating or drive devices of the transport element in order to vary the screening of the soil, wherein at least one feature for describing the capability of the additionally conveyed soil to be screened is determined by the evaluation device and is used for adjusting the operating parameter, wherein, after a qualitative determination of the components present in the inspection image and in the crop via a classification method, a quantitative determination of the at least one screening capability feature is performed, wherein the feature comprises one or more values describing the size of one or more soil aggregates .
Medical ventilator comprising a gas circuit with an expiratory branch communicating fluidically with the atmosphere and comprising an expiratory valve , said expiratory valve comprising a rigid valve body , through which a gas passage extends, and a deformable valve element arranged on said gas passage in such a way as to control the flow of gas in said gas passage , said deformable valve element comprising: - a hollow body defining an internal volume and comprising an opening communicating with said internal volume , and - an annular flange secured to the hollow body and arranged coaxially around said opening , characterized in that : - the hollow body and the annular flange are formed from a first flexible material, and - a washer element formed from a second material of greater rigidity than the first material is arranged on the annular flange . - a hollow body defining an internal volume and comprising an opening communicating with said internal volume , and - an annular flange secured to the hollow body and arranged coaxially around said opening , - the hollow body and the annular flange are formed from a first flexible material, and - a washer element formed from a second material of greater rigidity than the first material is arranged on the annular flange .
An information notification method used in a mobile communication system including a first base station and a second base station that perform communication with a user apparatus by inter-base station carrier aggregation, comprising: a step (S101) in which the first base station notifies the second base station of a configuration change request including first desired setting information; a second desired setting information notification step (S102) in which the second base station notifies the first base station of second desired setting information; a setting step (S103, S104) in which the first base station determines first setting information and second setting information to be set to the user apparatus based on the first desired setting information and the second desired setting information, and notifies the user apparatus of the first setting information and the second setting information; characterized by a difference notification step (S105) of, after completion of setting of the first setting information and the second setting information to the user apparatus, notifying the second base station of a difference between the first and second desired setting information before the setting step and the first and second setting information after the setting step. a step (S101) in which the first base station notifies the second base station of a configuration change request including first desired setting information; a second desired setting information notification step (S102) in which the second base station notifies the first base station of second desired setting information; a setting step (S103, S104) in which the first base station determines first setting information and second setting information to be set to the user apparatus based on the first desired setting information and the second desired setting information, and notifies the user apparatus of the first setting information and the second setting information; characterized by a difference notification step (S105) of, after completion of setting of the first setting information and the second setting information to the user apparatus, notifying the second base station of a difference between the first and second desired setting information before the setting step and the first and second setting information after the setting step.
A distention device for assisting breathing in a subject , comprising: a first tube comprising a flexible and elastic material that forms a first tube lumen extending from a proximal end to a distal end of the first tube , wherein the proximal end is open and the distal end is closed; and a connection element comprising a first air supply port in fluid communication with the first tube lumen and attached to the proximal end of the first tube ; wherein the first tube is attachable to the subject's chest or abdomen so that the first tube contacts, in use, the subject's chest or abdomen; characterised in that the first tube , when inflating, expands longitudinally to lift the subject's chest or abdomen outwards, wherein longitudinal expansion of the first tube is restricted less than radial expansion of the first tube . a first tube comprising a flexible and elastic material that forms a first tube lumen extending from a proximal end to a distal end of the first tube , wherein the proximal end is open and the distal end is closed; and a connection element comprising a first air supply port in fluid communication with the first tube lumen and attached to the proximal end of the first tube ; wherein the first tube is attachable to the subject's chest or abdomen so that the first tube contacts, in use, the subject's chest or abdomen; characterised in that the first tube , when inflating, expands longitudinally to lift the subject's chest or abdomen outwards, wherein longitudinal expansion of the first tube is restricted less than radial expansion of the first tube .
A loss mitigation bottom hole assembly for use in a wellbore in a severe loss zone of a formation, said assembly comprising a drill bit for drilling a well bore ; a dual wall drill string connecting the drill bit to a fluid source, and having a first fluid passage for delivering fluid to a drill bit , and a separate second fluid passage for returning the fluid away from the drill bit ; a drilling liner circumscribing and attached to a bottom portion of the dual wall drill string , and surrounding the drill bit , the drilling liner having an end adjacent the drill bit to contain the fluid exiting the drill bit and prevent the fluid from entering the severe loss zone of the formation; and characterised by a cross over port assembly comprising a fluid path through a passage between the second fluid passage and an area outside of the dual wall drill string , and a valve with a valve opening that when aligned with the passage allows flow through the fluid path , and when the valve opening is moved away from the passage fluid is prevented from flowing into the second fluid passage from the area .
Hard material layer system to improve the counter body wear in tribological contact with steel or ceramics, wherein the hard material layer system comprises Mo-N based hard material layers, wherein the hard material layer system consists of an outermost hard material layer consisting essentially of Mo-N and at least a second hard material layer consisting essentially of Mo-N, wherein the hard material layer system optionally comprises at least one adhesive layer or supporting layer or other type of layer made of another, non-No_N based material, characterized in that the outermost hard material layer has an intensity ratio of the two peaks 200/111 of the cubic phase of the molybdenum nitride γ-Mo 2 N, which is less than 10, and the hard material layer system has an absolute half-width of 0.94° - 1.24° at peak 200 of the cubic phase of the molybdenum nitride γ-Mo 2 N and the second hard material layer has an intensity ratio of the two peaks 200/111 of the cubic phase of γ-Mo 2 N of greater than 10. the outermost hard material layer has an intensity ratio of the two peaks 200/111 of the cubic phase of the molybdenum nitride γ-Mo 2 N, which is less than 10, and the hard material layer system has an absolute half-width of 0.94° - 1.24° at peak 200 of the cubic phase of the molybdenum nitride γ-Mo 2 N and the second hard material layer has an intensity ratio of the two peaks 200/111 of the cubic phase of γ-Mo 2 N of greater than 10.
A battery apparatus comprising: a battery module including a plurality of battery cells; and a battery management system configured to: receive from the battery module operation information including mode information and task information about an operation being performed by the battery module generate a control signal with respect to the battery module based on the operation information; and transmit the control signal to the battery module connected thereto, wherein at least one mode includes a plurality of tasks of which order is predetermined, wherein, when determining that there is a next task of the task corresponding to the task information in a mode corresponding to the mode information, the battery management system is configured to generate a control signal controlling the battery module so that the battery module performs the next task. a battery module including a plurality of battery cells; and a battery management system configured to: receive from the battery module operation information including mode information and task information about an operation being performed by the battery module generate a control signal with respect to the battery module based on the operation information; and transmit the control signal to the battery module connected thereto, wherein at least one mode includes a plurality of tasks of which order is predetermined, wherein, when determining that there is a next task of the task corresponding to the task information in a mode corresponding to the mode information, the battery management system is configured to generate a control signal controlling the battery module so that the battery module performs the next task. receive from the battery module operation information including mode information and task information about an operation being performed by the battery module generate a control signal with respect to the battery module based on the operation information; and transmit the control signal to the battery module connected thereto, wherein at least one mode includes a plurality of tasks of which order is predetermined, wherein, when determining that there is a next task of the task corresponding to the task information in a mode corresponding to the mode information, the battery management system is configured to generate a control signal controlling the battery module so that the battery module performs the next task.