mhurhangee/patent-ind-claim-en huggingface dataset:
A cartridge assembly for use in an aerosol-generating system, the cartridge assembly comprising: a mouthpiece housing having an upstream end and a downstream end, the mouthpiece housing defining a mouthpiece cavity extending between the upstream end of the mouthpiece housing and the downstream end of the mouthpiece housing ; a blocking element secured within the mouthpiece cavity and comprising an upstream end and a downstream end; and a cartridge positioned at the upstream end of the mouthpiece housing , the cartridge comprising: an upstream end and a downstream end; a first compartment having a first air inlet at the upstream end of the cartridge and a first air outlet at the downstream end of the cartridge ; and a second compartment having a second air inlet at the upstream end of the cartridge and a second air outlet at the downstream end of the cartridge ; wherein the downstream end of the cartridge abuts the upstream end of the blocking element ; wherein the cartridge is rotatable with respect to the blocking element from a first position to a second position; and wherein the blocking element is shaped so that the upstream end of the blocking element obstructs the first air outlet and the second air outlet when the cartridge is in the first position, and the first air outlet and the second air outlet are both in fluid communication with the mouthpiece cavity when the cartridge is in the second position. a mouthpiece housing having an upstream end and a downstream end, the mouthpiece housing defining a mouthpiece cavity extending between the upstream end of the mouthpiece housing and the downstream end of the mouthpiece housing ; a blocking element secured within the mouthpiece cavity and comprising an upstream end and a downstream end; and a cartridge positioned at the upstream end of the mouthpiece housing , the cartridge comprising: an upstream end and a downstream end; a first compartment having a first air inlet at the upstream end of the cartridge and a first air outlet at the downstream end of the cartridge ; and a second compartment having a second air inlet at the upstream end of the cartridge and a second air outlet at the downstream end of the cartridge ; an upstream end and a downstream end; a first compartment having a first air inlet at the upstream end of the cartridge and a first air outlet at the downstream end of the cartridge ; and a second compartment having a second air inlet at the upstream end of the cartridge and a second air outlet at the downstream end of the cartridge ; wherein the downstream end of the cartridge abuts the upstream end of the blocking element ; wherein the cartridge is rotatable with respect to the blocking element from a first position to a second position; and wherein the blocking element is shaped so that the upstream end of the blocking element obstructs the first air outlet and the second air outlet when the cartridge is in the first position, and the first air outlet and the second air outlet are both in fluid communication with the mouthpiece cavity when the cartridge is in the second position.
An extrusion device comprising at least one extruder (2, 2.1, 2.2, 2.3) having a screw cylinder (3.1, 3.2, 3.3), a screw shaft (4.1, 4.2, 4.3) rotatably supported in the screw cylinder (3.1, 3.2, 3.3) and an extruder outlet (5.1, 5.2, 5.3), an injection mould having an outlet nozzle determining the cross-sectional contour of the extrudate, and an extrusion head arranged between the extruder outlet (5.1, 5.2, 5.3) of the at least one extruder (2, 2.1, 2.2, 2.3) and the outlet nozzle of the injection mould , with at least one perforated plate (12.1, 12.2, 12.3) arranged in the extrusion head , which has passage openings , wherein the passage openings are designed to dam up an extrusion material conveyed from the at least one extruder (2, 2.1, 2.2, 2.3) through the passage openings of the perforated plate (12.1, 12.2, 12.3) differently in at least one first region (B1) of the perforated plate (12.1, 12.2, 12.3) and at least one second region (B2) of the perforated plate (12.1, 12.2, 12.3) in such a way that the extrusion material is partly diverted from its preferential direction within a central section of the perforated plate (12.1, 12.2, 12.3) specifically increasingly into at least one edge section of the perforated plate (12.1, 12.2, 12.3), characterized in that the perforated plate (12.1, 12.2, 12.3) has a substantially rectangular basic shape, wherein an upper edge (K1) co-determining the height of the perforated plate (12.1, 12.2, 12.3) is configured to be straight, a lower edge (K2) co-determining the height of the perforated plate (12.1, 12.2, 12.3) is configured to be straight, and the two lateral edges (K3, K4), which determine the width of the perforated plate (12.1, 12.2, 12.3) are configured respectively to be semi-circular, wherein the cross-sectional contour of the extrudate has a maximum width which is greater than the maximum height of the cross-sectional contour of the extrudate, and the perforated plate (12.1, 12.2, 12.3) in a central section of the width has the first region (B1), which has the several first passage openings (18.1), and the perforated plate (12.1, 12.2, 12.3) in the two opposite edge sections of the width, which border the central section, has respectively a second region (B2), which have the several second passage openings (18.2).
A control system for controlling a main monitor of a vehicle , in particular a motor vehicle , said vehicle comprising a central console and having a piloted driving mode (P) and an autonomous driving mode (Q), said control system , configured to be mounted on said central console , comprising : - a display screen , having an active state (EA) and an inactive state (EI) - a touch panel , having a basic configuration (C0), in which said touch panel allows only a limited number of simple movements, and an advanced configuration (C1), in which the touch panel is configured to allow control of the movement of a pointer on the main monitor said control system having a first mode of operation, in which said display screen is in said inactive state (EI) and the touch panel is in its basic configuration (C0), and a second mode of operation, in which said display screen is in said active state (EA) and the touch panel is in its advanced configuration (C1) said control system further comprising a control module configured to place the control system in said first operating mode when the vehicle is in the piloted driving mode (P) or in said second operating mode when the vehicle is in the autonomous driving mode (Q). - a display screen , having an active state (EA) and an inactive state (EI) - a touch panel , having a basic configuration (C0), in which said touch panel allows only a limited number of simple movements, and an advanced configuration (C1), in which the touch panel is configured to allow control of the movement of a pointer on the main monitor said control system having a first mode of operation, in which said display screen is in said inactive state (EI) and the touch panel is in its basic configuration (C0), and a second mode of operation, in which said display screen is in said active state (EA) and the touch panel is in its advanced configuration (C1) said control system further comprising a control module configured to place the control system in said first operating mode when the vehicle is in the piloted driving mode (P) or in said second operating mode when the vehicle is in the autonomous driving mode (Q).
A multi-element sensor , comprising: a substrate having a surface ; a first sensing element disposed on or over the substrate surface , the first sensing element being arranged for sensing an environmental attribute; a second sensing element disposed above the first sensing element in a direction orthogonal to the substrate surface , the second sensing element being arranged for sensing the same environmental attribute, characterized in that a sensed element in which the environmental attribute is sensed, is provided on the substrate and between the first and second sensing elements , where the sensed element provides support of at least one of the first or the second sensing element . a substrate having a surface ; a first sensing element disposed on or over the substrate surface , the first sensing element being arranged for sensing an environmental attribute; a second sensing element disposed above the first sensing element in a direction orthogonal to the substrate surface , the second sensing element being arranged for sensing the same environmental attribute, characterized in that a sensed element in which the environmental attribute is sensed, is provided on the substrate and between the first and second sensing elements , where the sensed element provides support of at least one of the first or the second sensing element .
A computer-implemented method of selectively loading classes during an initialization of an operating system of a computing device, the method comprising: initializing an application virtual machine; loading classes selected from a first class list; loading resources of the computing device; loading a service-loading process configured to initialize services of the operating system and register the services with a service manager; and characterized in that the method further comprises loading classes selected from a second class list after loading the service-loading process; wherein the first class list and the second class list are generated based on a load time of each class, a number of processes that use each class, and/or a parameter indicating a priority of each class, wherein each class in the first class list has a load time that is less than a load time threshold and is utilized by a number of processes that is greater than a threshold number of processes, and wherein each class in the second class list has a load time that is greater than the load time threshold and is utilized by a number of processes that is greater than the threshold number of processes. initializing an application virtual machine; loading classes selected from a first class list; loading resources of the computing device; loading a service-loading process configured to initialize services of the operating system and register the services with a service manager; and characterized in that the method further comprises loading classes selected from a second class list after loading the service-loading process; wherein the first class list and the second class list are generated based on a load time of each class, a number of processes that use each class, and/or a parameter indicating a priority of each class, wherein each class in the first class list has a load time that is less than a load time threshold and is utilized by a number of processes that is greater than a threshold number of processes, and wherein each class in the second class list has a load time that is greater than the load time threshold and is utilized by a number of processes that is greater than the threshold number of processes.
A method of reducing the amount of process fluid required in an industrial process, the method comprising the steps of: collecting fluid used to rinse dirty recycled bottles, conditioning the fluid after it is collected by a coarse particle removal step and a fine particle removal step, applying a CLEAN-IN-PLACE (CIP) rinse process to a food contacting piece of equipment, the CLEAN-IN-PLACE (CIP) rinse process comprising at least one first rinse and at least one second rinse, spraying the collected fluid at the food contacting piece of equipment as at least part of the fluid used in the CLEAN-IN-PLACE (CIP) first rinse passing the CLEAN-IN-PLACE (CIP) second rinse fluid into a cooling tower as make-up fluid, which is used to compensate for fluid lost to evaporation, to dilute recirculating fluid, and/or to compensate for removed fluid from the cooling tower, wherein the device used for the particle removal steps includes paper filter. collecting fluid used to rinse dirty recycled bottles, conditioning the fluid after it is collected by a coarse particle removal step and a fine particle removal step, applying a CLEAN-IN-PLACE (CIP) rinse process to a food contacting piece of equipment, the CLEAN-IN-PLACE (CIP) rinse process comprising at least one first rinse and at least one second rinse, spraying the collected fluid at the food contacting piece of equipment as at least part of the fluid used in the CLEAN-IN-PLACE (CIP) first rinse passing the CLEAN-IN-PLACE (CIP) second rinse fluid into a cooling tower as make-up fluid, which is used to compensate for fluid lost to evaporation, to dilute recirculating fluid, and/or to compensate for removed fluid from the cooling tower, wherein the device used for the particle removal steps includes paper filter.
Method for determining a synchronous speed (n0) of an electric machine , in particular a speed-regulated asynchronous machine , in a work machine driven by the electric machine , wherein a regulating device is provided for speed regulation of the electric machine , wherein the following steps are carried out: - initiating a detection of at least one mechanical measured variable in the electric machine and/or the driven work machine to obtain an item of detection information specific for a rotational sound of the electric machine and/or the driven work machine , - carrying out a frequency analysis of the detection information to obtain a frequency spectrum of the detection information , characterized by the following steps: - carrying out a selection of at least one frequency range in the frequency spectrum on the basis of a clock frequency (fT) of the regulating device , - carrying out a recognition of at least one peak value in the frequency range to ascertain at least one frequency (f1, f2) specific for the synchronous speed (n0), - carrying out the determination of the synchronous speed (n0) on the basis of the at least one ascertained frequency (f1, f2). - initiating a detection of at least one mechanical measured variable in the electric machine and/or the driven work machine to obtain an item of detection information specific for a rotational sound of the electric machine and/or the driven work machine , - carrying out a frequency analysis of the detection information to obtain a frequency spectrum of the detection information , characterized by the following steps: - carrying out a selection of at least one frequency range in the frequency spectrum on the basis of a clock frequency (fT) of the regulating device , - carrying out a recognition of at least one peak value in the frequency range to ascertain at least one frequency (f1, f2) specific for the synchronous speed (n0), - carrying out the determination of the synchronous speed (n0) on the basis of the at least one ascertained frequency (f1, f2).
Epitope having a sequence selected from SEQ ID NO. 1 to SEQ ID NO 10.
Ultrasonic meter comprising a housing with a tubular flow section in which a measurement insert defining a measurement path is inserted, and two ultrasonic transducers which are arranged on the housing side and are assigned reflectors are arranged on the measurement insert , wherein placed in the flow section is an insert which is arranged upstream of the measurement insert , influences the flow, and consists of an outer ring bearing against the inner circumference of the flow section and multiple webs subdividing the annular cross section into multiple laterally closed apertures , wherein at least some of the webs are not parallel to the longitudinal axis of the flow section , with the web thickness being constant, wherein the apertures are rectangular in cross section, and wherein the insert has multiple first webs which run parallel to one another and parallel to the longitudinal axis of the flow section and between which there extend second webs , which are perpendicular to the first webs for the purpose of forming the closed apertures and of which at least some do not run parallel to the longitudinal axis of the flow section .
Front flap module for a vehicle , wherein the front flap module consists of a coupling shaft , a coupling device accommodated in the coupling shaft , and at least one front flap which can be moved using front flap cinematics and which can at least partially cover the coupling shaft , characterized by a covering device which can be arranged on the coupling shaft and which has a cladding which, on the one hand, is releasably fastened to the coupling shaft in a region of an opening of the coupling shaft and, on the other hand, to the coupling device .
A welding wire transfer system for use with at least a pair of endless welding wire containers (16; 18), at least one of said containers is an in-process supply container containing an in-process coil of wire (12 or 14) and at least one other of said containers is a staged supply container containing a staged coil of wire (14 or 12) with a start end of said staged coil of wire butt-welded to a tail end of said in-process coil of wire, said welding wire transfer system comprising: a vertical shaft; and a horizontal shaft extending normal to said vertical shaft and comprising a welding wire transfer guide , characterized in that said guide has an outwardly-facing curvilinear groove , one end of said curvilinear groove of said welding wire transfer guide positioned nearly tangent to an outer diameter of the in-process coil of wire and an opposed end of said curvilinear groove positioned nearly tangent to an inner diameter of the staged coil of wire, wherein the one end and the opposed end of the curvilinear groove are positioned nearly along a tangent line between the outer diameter of the in-process coil of wire and the inner diameter of the staged coil of wire . a vertical shaft; and a horizontal shaft extending normal to said vertical shaft and comprising a welding wire transfer guide , characterized in that said guide has an outwardly-facing curvilinear groove , one end of said curvilinear groove of said welding wire transfer guide positioned nearly tangent to an outer diameter of the in-process coil of wire and an opposed end of said curvilinear groove positioned nearly tangent to an inner diameter of the staged coil of wire, wherein the one end and the opposed end of the curvilinear groove are positioned nearly along a tangent line between the outer diameter of the in-process coil of wire and the inner diameter of the staged coil of wire .
A power transmission device , comprising: - a case comprising a first case member and a second case member which is assembled with the first case member , and - a shaft member supported by the case , characterized in that : - the first case member has a protrusion protruding in the axial direction (X) along the assembly direction of the case , - the second case member has a recess recessed in the axial direction (X), - the shaft member is supported by the protrusion in the recess , and - an oil passage is formed between the recess and the protrusion in a circumferential direction of the case . - a case comprising a first case member and a second case member which is assembled with the first case member , and - a shaft member supported by the case , - the first case member has a protrusion protruding in the axial direction (X) along the assembly direction of the case , - the second case member has a recess recessed in the axial direction (X), - the shaft member is supported by the protrusion in the recess , and - an oil passage is formed between the recess and the protrusion in a circumferential direction of the case .
A chopper arrangement for an agricultural harvester , the chopper arrangement being configured for performing chopping on crop material processed by the agricultural harvester , the chopper arrangement comprising: a housing ; a plurality of rotatable knife rows in the housing , the plurality of rotatable knife rows being rotatable about an axis to move crop material in the housing along a crop flow path; the chopper arrangement characterized by a counter knife arrangement comprising a first counter knife bank and a second counter knife bank downstream of the first counter knife bank according to the crop flow path, the counter knife arrangement being movable between an engaged position, in which the first and second counter knife banks at least partially overlap the plurality of rotatable knife rows , and a disengaged position, in which the first and second counter knife banks are retracted away from the plurality of rotatable knife rows , the counter knife arrangement further comprising a mechanical linkage coupling the first counter knife bank to the second counter knife bank to provide for simultaneous movement of the first and second counter knife banks upon actuation of the counter knife arrangement between the engaged and disengaged positions. a housing ; a plurality of rotatable knife rows in the housing , the plurality of rotatable knife rows being rotatable about an axis to move crop material in the housing along a crop flow path; the chopper arrangement characterized by a counter knife arrangement comprising a first counter knife bank and a second counter knife bank downstream of the first counter knife bank according to the crop flow path, the counter knife arrangement being movable between an engaged position, in which the first and second counter knife banks at least partially overlap the plurality of rotatable knife rows , and a disengaged position, in which the first and second counter knife banks are retracted away from the plurality of rotatable knife rows , the counter knife arrangement further comprising a mechanical linkage coupling the first counter knife bank to the second counter knife bank to provide for simultaneous movement of the first and second counter knife banks upon actuation of the counter knife arrangement between the engaged and disengaged positions.
A semiconductor nano-sized light emitting material comprising or consisting of a core, one or more shell layers and a ligand coated onto the outermost surface of the shell layers, wherein the ligand is one or more metal phosphonate, and wherein the metal phosphonate follows one of the following structures according to formula (I), (II), (III), (IV) and/or (V) wherein R is selected from the group consisting of alkyl, alkenyl, alkynyl, aryl and alkylaryl and wherein R comprises at least 2 and not more than 20 carbon atoms, and wherein X is selected from the group consisting of hydroxyl, ester and ether, wherein the metal cation used for the metal phosphonate is selected from the group consisting of: Mg, Ca, Ba, Cu, Fe, Zn or their mixtures, wherein said shell layer is formed from one, two or more compounds according to formula (VII) [A 2 B 2 ] (VII) in which [A 2 ] stands for a metal selected from the group consisting of zinc, cadmium or their mixtures; [B 2 ] stands for a non-metal selected form the group consisting of sulphur, selenium, or their mixtures. wherein the ligand is one or more metal phosphonate, and wherein the metal phosphonate follows one of the following structures according to formula (I), (II), (III), (IV) and/or (V) wherein R is selected from the group consisting of alkyl, alkenyl, alkynyl, aryl and alkylaryl and wherein R comprises at least 2 and not more than 20 carbon atoms, and wherein X is selected from the group consisting of hydroxyl, ester and ether, wherein the metal cation used for the metal phosphonate is selected from the group consisting of: Mg, Ca, Ba, Cu, Fe, Zn or their mixtures, wherein said shell layer is formed from one, two or more compounds according to formula (VII) [A 2 B 2 ] (VII) in which [A 2 ] stands for a metal selected from the group consisting of zinc, cadmium or their mixtures; [B 2 ] stands for a non-metal selected form the group consisting of sulphur, selenium, or their mixtures. [A 2 ] stands for a metal selected from the group consisting of zinc, cadmium or their mixtures; [B 2 ] stands for a non-metal selected form the group consisting of sulphur, selenium, or their mixtures.