mhurhangee/patent-ind-claim-en huggingface dataset:
Process for producing a product having at least two elements bonded together comprising a) providing at least one first element having at least one fibre-containing surface , at least one second element , at least one chitosan-containing solution and at least one liquid adhesive formulation , b) applying the at least one chitosan-containing solution to at least one area to be bonded on the at least one fibre-containing surface of the first element to obtain a pre-treated bonding zone comprising the chitosan-containing solution on the first element , c) applying the at least one liquid adhesive formulation to the adhesive zone comprising the pre-treated chitosan-containing solution obtained according to process step b), and d) bringing the at least one second element into contact with the adhesive zone of the first element to obtain the bonded product . a) providing at least one first element having at least one fibre-containing surface , at least one second element , at least one chitosan-containing solution and at least one liquid adhesive formulation , b) applying the at least one chitosan-containing solution to at least one area to be bonded on the at least one fibre-containing surface of the first element to obtain a pre-treated bonding zone comprising the chitosan-containing solution on the first element , c) applying the at least one liquid adhesive formulation to the adhesive zone comprising the pre-treated chitosan-containing solution obtained according to process step b), and d) bringing the at least one second element into contact with the adhesive zone of the first element to obtain the bonded product .
A showerhead comprising: a head portion operably connected to a showerhead engine comprising a plurality of nozzles in fluid communication with the head portion ; a handle fluidly connected to a water source, the handle defining a flow path between the water source and the head portion; and characterized by a pause assembly positioned within the flow path of the handle and operable to vary a flow volume from the water source to the head portion , the pause assembly comprising: a valve housing received within the flow path of the handle and defining a valve cavity in fluid communication with the flow path and the head portion ; an actuator movable along a linear path on an outer surface of the valve housing from a first position to a second position; a valve operably connected to the actuator and received within the valve cavity, wherein as the actuator moves from the first position to the second position, the valve rotates within the valve cavity from an open position to a closed position; and a valve driver positioned between the actuator and the valve , wherein the valve driver converts a linear motion of the actuator along the linear path into a rotational movement of the valve . a head portion operably connected to a showerhead engine comprising a plurality of nozzles in fluid communication with the head portion ; a handle fluidly connected to a water source, the handle defining a flow path between the water source and the head portion; and characterized by a pause assembly positioned within the flow path of the handle and operable to vary a flow volume from the water source to the head portion , the pause assembly comprising: a valve housing received within the flow path of the handle and defining a valve cavity in fluid communication with the flow path and the head portion ; an actuator movable along a linear path on an outer surface of the valve housing from a first position to a second position; a valve operably connected to the actuator and received within the valve cavity, wherein as the actuator moves from the first position to the second position, the valve rotates within the valve cavity from an open position to a closed position; and a valve driver positioned between the actuator and the valve , wherein the valve driver converts a linear motion of the actuator along the linear path into a rotational movement of the valve . a valve housing received within the flow path of the handle and defining a valve cavity in fluid communication with the flow path and the head portion ; an actuator movable along a linear path on an outer surface of the valve housing from a first position to a second position; a valve operably connected to the actuator and received within the valve cavity, wherein as the actuator moves from the first position to the second position, the valve rotates within the valve cavity from an open position to a closed position; and a valve driver positioned between the actuator and the valve , wherein the valve driver converts a linear motion of the actuator along the linear path into a rotational movement of the valve .
A method comprising: receiving a container corresponding to executable code or instructions as well as permissions to access certain functionality or resources of a computation environment of a device; in response to the receiving of the container , executing a container manager resident in a memory of the computation environment to verify the container , wherein the container manager is verified by a boot loader of the computation environment; determining permissions of the container to access resources of the computation environment after the verification of the container by the container manager ; and providing, by the processing device, access to one or more resources of the computation environment by transferring control of the one or more resources from the container manager to the container based on the permissions of the container for the resources of the computation environment. receiving a container corresponding to executable code or instructions as well as permissions to access certain functionality or resources of a computation environment of a device; in response to the receiving of the container , executing a container manager resident in a memory of the computation environment to verify the container , wherein the container manager is verified by a boot loader of the computation environment; determining permissions of the container to access resources of the computation environment after the verification of the container by the container manager ; and providing, by the processing device, access to one or more resources of the computation environment by transferring control of the one or more resources from the container manager to the container based on the permissions of the container for the resources of the computation environment.
A preparation mass for porous substrates capable of capillary conduction, containing or substantially consisting of a) at least one ground calcium aluminate-based clinker, comprising or consisting of ground calcium sulfoaluminate clinker and/or ground calcium aluminate clinker, b) at least one sulfate component, selected from the group consisting of anhydrite (CaSO 4 ), calcium sulfate hemihydrate (CaSO 4 ·1⁄2H 2 O), calcium sulfate dihydrate (CaSO 4 ·2H 2 O), magnesium sulfate, alkali sulfate, iron sulfate, sodium hydrogen sulfate, calcium hydrogen sulfate, mixed sulfates of said sulfates and any desired mixtures, c) at least one mineral rheological additive, and d) water, wherein the weight ratio of water (component d)) to the sum of ground calcium aluminate-based clinker (component a)) and the sulfate component (component b)) is greater than or equal to 1.0. a) at least one ground calcium aluminate-based clinker, comprising or consisting of ground calcium sulfoaluminate clinker and/or ground calcium aluminate clinker, b) at least one sulfate component, selected from the group consisting of anhydrite (CaSO 4 ), calcium sulfate hemihydrate (CaSO 4 ·1⁄2H 2 O), calcium sulfate dihydrate (CaSO 4 ·2H 2 O), magnesium sulfate, alkali sulfate, iron sulfate, sodium hydrogen sulfate, calcium hydrogen sulfate, mixed sulfates of said sulfates and any desired mixtures, c) at least one mineral rheological additive, and d) water, wherein the weight ratio of water (component d)) to the sum of ground calcium aluminate-based clinker (component a)) and the sulfate component (component b)) is greater than or equal to 1.0.
A system, comprising: an on-body pump device (14; 301) comprising a reservoir and a fluid pathway , wherein the reservoir is configured to hold fluid; and a secondary unit (5; 305) removably coupled to the on-body pump device (14; 301) and including a fill needle , a cartridge stop , and an opening configured to receive a prefilled cartridge (7; 307) containing a liquid drug, wherein the secondary unit is configured to: receive the prefilled cartridge , pierce with the fill needle a movable plunger (20; 337) in the prefilled cartridge (7; 307), expel the liquid drug from the prefilled cartridge (7; 307), and deliver the liquid drug to the reservoir of the on-body pump device via the fill needle . an on-body pump device (14; 301) comprising a reservoir and a fluid pathway , wherein the reservoir is configured to hold fluid; and a secondary unit (5; 305) removably coupled to the on-body pump device (14; 301) and including a fill needle , a cartridge stop , and an opening configured to receive a prefilled cartridge (7; 307) containing a liquid drug, wherein the secondary unit is configured to: receive the prefilled cartridge , pierce with the fill needle a movable plunger (20; 337) in the prefilled cartridge (7; 307), expel the liquid drug from the prefilled cartridge (7; 307), and deliver the liquid drug to the reservoir of the on-body pump device via the fill needle . receive the prefilled cartridge , pierce with the fill needle a movable plunger (20; 337) in the prefilled cartridge (7; 307), expel the liquid drug from the prefilled cartridge (7; 307), and deliver the liquid drug to the reservoir of the on-body pump device via the fill needle .
A method of analyzing cardiac activity for local abnormal ventricular activity (LAVA), comprising: receiving an electrogram signal at a signal processor; and using the signal processor : transforming the electrogram signal into the wavelet domain, thereby computing a scalogram; computing a one-dimensional LAVA function of the scalogram; detecting one or more peaks in the LAVA function; computing a peak-to-peak amplitude of the electrogram signal, and, if the peak-to-peak amplitude does not exceed a preset amplitude threshold: computing a LAVA lateness parameter for the electrogram signal using one of the one or more peaks detected in the LAVA function; and computing a LAVA probability parameter for the electrogram signal. receiving an electrogram signal at a signal processor; and using the signal processor : transforming the electrogram signal into the wavelet domain, thereby computing a scalogram; computing a one-dimensional LAVA function of the scalogram; detecting one or more peaks in the LAVA function; computing a peak-to-peak amplitude of the electrogram signal, and, if the peak-to-peak amplitude does not exceed a preset amplitude threshold: computing a LAVA lateness parameter for the electrogram signal using one of the one or more peaks detected in the LAVA function; and computing a LAVA probability parameter for the electrogram signal. transforming the electrogram signal into the wavelet domain, thereby computing a scalogram; computing a one-dimensional LAVA function of the scalogram; detecting one or more peaks in the LAVA function; computing a peak-to-peak amplitude of the electrogram signal, and, if the peak-to-peak amplitude does not exceed a preset amplitude threshold: computing a LAVA lateness parameter for the electrogram signal using one of the one or more peaks detected in the LAVA function; and computing a LAVA probability parameter for the electrogram signal. computing a LAVA lateness parameter for the electrogram signal using one of the one or more peaks detected in the LAVA function; and computing a LAVA probability parameter for the electrogram signal.
A transport device for a sheet printer comprising: - at least one roller mounted on an arm ; - an actuator connected to a frame for moving the roller between a first and second position, wherein the arm is mounted onto the frame by means of an elastic hinge element , characterized in that the hinge element is formed of a folded plate and that the hinge element is defined by a channel in the plate . - at least one roller mounted on an arm ; - an actuator connected to a frame for moving the roller between a first and second position, wherein the arm is mounted onto the frame by means of an elastic hinge element ,
An ultrasonic bonding tool for an ultrasonic bonding apparatus for applying pressure from an upper side to a to-be-bonded member placed on a surface of a thin-film base and for applying ultrasonic vibration thereto to thereby bond said to-be-bonded member onto the surface of said thin-film base, wherein said ultrasonic bonding tool has, at a distal end portion thereof, a chip portion that is brought into contact with said to-be-bonded member at a time of ultrasonic bonding, a surface portion of said chip portion which is brought into contact with said to-be-bonded member has a plurality of planar portions formed so as to be separated from one another and a plurality of concavities formed between said plurality of planar portions , characterized in that said plurality of planar portions having overall flatness of 2 μm or less, wherein each of said plurality of planar portions has fine unevenness in a range that satisfies a flatness of 2 μm or less. said ultrasonic bonding tool has, at a distal end portion thereof, a chip portion that is brought into contact with said to-be-bonded member at a time of ultrasonic bonding, a surface portion of said chip portion which is brought into contact with said to-be-bonded member has a plurality of planar portions formed so as to be separated from one another and a plurality of concavities formed between said plurality of planar portions , characterized in that said plurality of planar portions having overall flatness of 2 μm or less, wherein each of said plurality of planar portions has fine unevenness in a range that satisfies a flatness of 2 μm or less.
An apparatus for the automatic startup of a continuous casting line for the production of aluminum or zinc strips, comprising a vessel which is connected to a tip by means of a gate, said tip feeding a casting housing ; a laser device which measures the level of the metal within said vessel , a level control device , which adjust the introduction of liquid metal into said vessel ; said apparatus being characterized in that it comprises a gate actuator controlling said gate for providing a barrier between the vessel and the tip ; said gate comprising a refractory barrier; a thermocouple being a transducer for the temperature of the metal inside said vessel , and an electronic management unit; said electronic management unit receiving data from said temperature transducer and from said laser device in order to control said level control device and said gate actuator , adjusting the level of said metal in said vessel in order to ensure a correct and continuous flow of metal toward said casting housing .
A test chamber for conditioning air, the test chamber comprising a temperature-insulated test space which serves to receive test material and which is configured to be sealed against an environment, and a temperature control device for controlling the temperature of the test space, the temperature control device being configured to establish a temperature in a temperature range of -60 °C to +180 °C within the test space, the temperature control device having a cooling device with a cooling circuit with a refrigerant, at least one heat exchanger , a compressor , a condenser , and an expansion element , the refrigerant undergoing a phase change in the heat exchanger, characterized in that the refrigerant is a refrigerant mixture composed of a mass fraction of carbon dioxide (CO 2 ) and a mass fraction of at least one other component, the other component being pentafluoroethane (C 2 HF 5 ), the mass fraction of carbon dioxide in the refrigerant mixture being 30 to 33 mass percent, the mass fraction of pentafluoroethane being 67 to 70 mass percent.
Layer system for thin-film solar cells , comprising: - an absorber layer , which contains a chalcogenide compound semiconductor, - a buffer layer , which is arranged on the absorber layer , wherein the buffer layer has a semiconductor material of the formula A x In y S z , where A is potassium (K) and/or cesium (Cs), with 0.015 ≤ x / x + y + z ≤ 0.25 , and 0.30 ≤ y / y + z ≤ 0.45 . - an absorber layer , which contains a chalcogenide compound semiconductor, - a buffer layer , which is arranged on the absorber layer , wherein the buffer layer has a semiconductor material of the formula A x In y S z , where A is potassium (K) and/or cesium (Cs), with 0.015 ≤ x / x + y + z ≤ 0.25 , and 0.30 ≤ y / y + z ≤ 0.45 .
Compactor arrangement , having: • a supporting frame for supporting a compactor ; • an empty-container transport device for transporting empty containers in the compactor arrangement ; • a function module arrangement which is installed on the supporting frame above the empty-container transport device , wherein the function module arrangement has: a module receptacle for receiving multiple function modules , the multiple function modules , which are designed to match the module receptacle such that the multiple function modules can each be selectively received in multiple configurations in the module receptacle ; and • at least one processor , which is configured to determine an actual configuration of the multiple configurations ; and • to operate the function module arrangement and/or the compactor arrangement on the basis of the determined actual configuration, characterized in that the module receptacle has one or more electrical interfaces for supply to the function module respectively received in the module receptacle and/or for communication with the respective function modules received in the module receptacle . • a supporting frame for supporting a compactor ; • an empty-container transport device for transporting empty containers in the compactor arrangement ; • a function module arrangement which is installed on the supporting frame above the empty-container transport device , wherein the function module arrangement has: a module receptacle for receiving multiple function modules , the multiple function modules , which are designed to match the module receptacle such that the multiple function modules can each be selectively received in multiple configurations in the module receptacle ; and a module receptacle for receiving multiple function modules , the multiple function modules , which are designed to match the module receptacle such that the multiple function modules can each be selectively received in multiple configurations in the module receptacle ; and • at least one processor , which is configured to determine an actual configuration of the multiple configurations ; and • to operate the function module arrangement and/or the compactor arrangement on the basis of the determined actual configuration, characterized in that the module receptacle has one or more electrical interfaces for supply to the function module respectively received in the module receptacle and/or for communication with the respective function modules received in the module receptacle .
Device for producing a fabric , comprising warp threads arranged on movable lifting elements, some of the warp threads being raised upward to form an upper warp thread bundle and other warp threads being lowered downward to form a lower warp thread bundle to form a shed , with at least one shuttle which contains at least one weft thread and which is movable through the shed to produce the fabric , wherein adjacent to the warp thread bundles a beam with a suitable drive is arranged which has a surface , and wherein the shuttle can be moved by means of the drive with the aid of a magnetic field through the shed in a contact-free floating manner at a distance from the surface of the beam characterised in that electromagnets are arranged in the beam while the shuttle comprises one or more permanent magnets and/or electromagnets and/or magnetisable material and that thereby the floating movement of the shuttle is feasible, the beam's orientation and positioning are adjustable and the electromagnets can be controlled in such a way that the shuttle can be guided through the shed in a movement with at least two degrees of freedom. with at least one shuttle which contains at least one weft thread and which is movable through the shed to produce the fabric , wherein adjacent to the warp thread bundles a beam with a suitable drive is arranged which has a surface , and wherein the shuttle can be moved by means of the drive with the aid of a magnetic field through the shed in a contact-free floating manner at a distance from the surface of the beam characterised in that electromagnets are arranged in the beam while the shuttle comprises one or more permanent magnets and/or electromagnets and/or magnetisable material and that thereby the floating movement of the shuttle is feasible, the beam's orientation and positioning are adjustable and the electromagnets can be controlled in such a way that the shuttle can be guided through the shed in a movement with at least two degrees of freedom.
Process for the production of a thermoplastic moulding composition (F) in an extruder, which has at least one screw with an external diameter (D), where a thermoplastic component (TP), comprising at least one thermoplastic polymer, and component (C), comprising a graft polymer based on butadiene and/or on acrylate, are heated by introduction of thermal energy and/or mechanical energy in a melting section (S) of the extruder and/or in at least one mixing section (M) of the extruder to a temperature of 200°C to 280°C, melted and mixed, thus forming the thermoplastic moulding composition (F), and the thermoplastic moulding composition (F) is then devolatilized in a devolatilization zone (E) of the extruder, said zone having at least one devolatilization aperture , where an absolute pressure (P1) below 2 bar is established in the devolatilization zone (E) of the extruder, and after the devolatilization, the thermoplastic moulding composition (F) is conveyed by means of screw elements to a melt pump (SP), where the total length of the screw elements of a region of conveying (FS) from the at least one devolatilization aperture to the melt pump (SP) is less than four times the external diameter (D) of the at least one screw, where the region of conveying (FS) is the region between the downstream end of the devolatilization aperture and the end of the final screw element. are heated by introduction of thermal energy and/or mechanical energy in a melting section (S) of the extruder and/or in at least one mixing section (M) of the extruder to a temperature of 200°C to 280°C, melted and mixed, thus forming the thermoplastic moulding composition (F), and the thermoplastic moulding composition (F) is then devolatilized in a devolatilization zone (E) of the extruder, said zone having at least one devolatilization aperture , where an absolute pressure (P1) below 2 bar is established in the devolatilization zone (E) of the extruder, and after the devolatilization, the thermoplastic moulding composition (F) is conveyed by means of screw elements to a melt pump (SP), where the total length of the screw elements of a region of conveying (FS) from the at least one devolatilization aperture to the melt pump (SP) is less than four times the external diameter (D) of the at least one screw, where the region of conveying (FS) is the region between the downstream end of the devolatilization aperture and the end of the final screw element.
Bifidobacterium longum strain having the accession number NCIMB 42020.