mhurhangee/patent-ind-claim-en huggingface dataset:
System for fixing facade elements, in particular glass panes or photovoltaic modules, to a face with mounting profiles to be placed on a wall of a building, and connecting means that can be connected on the one hand with the rear side of the facade elements and on the other hand with the mounting profiles (21, 23, 25; 351, 373, 391), wherein first and second mounting profiles (21, 23; 351, 373) are provided for placing substantially horizontally on a sub-construction of a wall of a building and the connecting means comprise the following components: - a fixing profile for placing to the rear side of a facade element , - a first and a second anchor (19; 149; 201; 215) for the preferably removable arrangement on the fixing profile , - wherein the first mounting profile realizes a first connection with the first anchor that is to be placed in the area of the lower edge of the facade element on the fixing profile, - a sliding part is displaceably guided on the second mounting profile in the mounting profile longitudinal direction, - the sliding part realizes a second connection in the mounting position with the second anchor (19; 149; 201; 215) that is placed in the area of the upper edge of the facade element on the fixing profile and - the first connection is configured in such a manner that a facade element can swivel from an oblique tilting position into a vertical mounting position, characterized in that the first anchor is appropriate to be suspended obliquely from above from a first mounting profile . - a fixing profile for placing to the rear side of a facade element , - a first and a second anchor (19; 149; 201; 215) for the preferably removable arrangement on the fixing profile , - wherein the first mounting profile realizes a first connection with the first anchor that is to be placed in the area of the lower edge of the facade element on the fixing profile, - a sliding part is displaceably guided on the second mounting profile in the mounting profile longitudinal direction, - the sliding part realizes a second connection in the mounting position with the second anchor (19; 149; 201; 215) that is placed in the area of the upper edge of the facade element on the fixing profile and - the first connection is configured in such a manner that a facade element can swivel from an oblique tilting position into a vertical mounting position,
A mobile telecommunications network including a core and a radio access network having radio means for wireless communication with mobile terminals registered with the network, wherein the radio access network includes control means , and wherein the control means is further operable to control the charging for use of the network resources, characterised in that : the control means includes a billing function that communicates with a charging/accounting functionality of the core; the control means includes means configured to measure the radio conditions at one of said mobile terminals and overall system load; and the control means hosts a plurality of applications and is operable to provide a cost indication to one of said applications providing services to a user of said one of said mobile terminals before delivery of data, wherein the cost indication is dependent upon the measured radio conditions and system load and wherein the control means is configured to receive approval of the cost indication and to notify the billing function thereof. the control means includes a billing function that communicates with a charging/accounting functionality of the core; the control means includes means configured to measure the radio conditions at one of said mobile terminals and overall system load; and the control means hosts a plurality of applications and is operable to provide a cost indication to one of said applications providing services to a user of said one of said mobile terminals before delivery of data, wherein the cost indication is dependent upon the measured radio conditions and system load and wherein the control means is configured to receive approval of the cost indication and to notify the billing function thereof.
Apparatus for generating a directional function for processing an audio scene, the apparatus comprising: a graphical user interface comprising a plurality of input knobs arranged in different directions with respect to a reference point , wherein a distance of each input knob of the plurality of input knobs from the reference point can be individually adjusted, wherein the distance of an input knob from the reference point determines a value of the directional function in the direction of the input knob ; and a directional function determiner implemented to generate the directional function based on the distances of the plurality of input knobs from the reference point, such that a physical quantity can be influenced by the directional function , characterized in that the directional function determiner is implemented to calculate further functional values of the directional function by interpolating functional values obtained based on the distances of the plurality of input knobs , and that the graphical user interface comprises a rotation knob , wherein a rotation of the rotation knob effects an equal change of the directions of all input knobs of the plurality of input knobs . a graphical user interface comprising a plurality of input knobs arranged in different directions with respect to a reference point , wherein a distance of each input knob of the plurality of input knobs from the reference point can be individually adjusted, wherein the distance of an input knob from the reference point determines a value of the directional function in the direction of the input knob ; and a directional function determiner implemented to generate the directional function based on the distances of the plurality of input knobs from the reference point, such that a physical quantity can be influenced by the directional function , characterized in that the directional function determiner is implemented to calculate further functional values of the directional function by interpolating functional values obtained based on the distances of the plurality of input knobs , and that the graphical user interface comprises a rotation knob , wherein a rotation of the rotation knob effects an equal change of the directions of all input knobs of the plurality of input knobs .
An encapsulation film comprising: an encapsulation layer which contains an encapsulation resin and a moisture adsorbent and encapsulates the top surface of an organic electronic element formed on a substrate, and a metal layer formed on the encapsulation layer, wherein content of the moisture adsorbent is in a range such that γ satisfies 0.04 to 0.08 in the following general formula 1: Moisture adsorbent content = Q MAX × H T 1 + H T 2 × γ / H T 1 wherein, Q MAX is 60 to 90 parts by weight relative to 100 parts by weight of the solid content of the encapsulation layer, H T1 is athickness of the encapsulation layer at 25°C, H T2 is a length of the encapsulation layer connecting the outermost side of the substrate and the outermost side of the metal layer at a temperature of T2, T1 is 25°C, and T2 is 85°C. an encapsulation layer which contains an encapsulation resin and a moisture adsorbent and encapsulates the top surface of an organic electronic element formed on a substrate, and a metal layer formed on the encapsulation layer, wherein content of the moisture adsorbent is in a range such that γ satisfies 0.04 to 0.08 in the following general formula 1: Moisture adsorbent content = Q MAX × H T 1 + H T 2 × γ / H T 1 wherein, Q MAX is 60 to 90 parts by weight relative to 100 parts by weight of the solid content of the encapsulation layer, H T1 is athickness of the encapsulation layer at 25°C, H T2 is a length of the encapsulation layer connecting the outermost side of the substrate and the outermost side of the metal layer at a temperature of T2, T1 is 25°C, and T2 is 85°C.
A device for forming a three dimensional shape to elongated material , the device comprising a body defining a central cavity inside the body , the central cavity having an inner wall, and a material track along which the elongated material is guided in the device, the material track being provided to the inner wall of the central cavity and comprising an opening extending along the material track and open to the central cavity , and a shutter element arranged to prevent the elongated material escaping from the material track to the central cavity via the opening , characterized in that the shutter element comprises a movable shutter wall, or alternatively a tube or a straw through which the elongated material is guided, which is introduced into the material track together with or separately from the elongated material for blocking at least a part of the opening during guiding the elongated material along the material track , wherein the movable shutter wall is provided to move in a wall groove provided to the body and in connection of the material track , the wall groove extending along the material track , and the tube or the straw is made to be removed from the material track or to tear or rupture along the length of it such that the elongated material may enter the central cavity .
An additive manufacturing system , comprising: a housing defining a chamber ; a build platform disposed in a lower portion of the chamber at a first elevation with respect to the chamber ; a lower gas inlet disposed proximate an upstream end portion of the chamber and configured to supply a lower gas flow , wherein the lower gas inlet is disposed at a second elevation with respect to the chamber ; a contoured surface extending between the lower gas inlet and the build platform and configured to direct the lower gas flow from the second elevation to the first elevation , wherein the contoured surface discharges the lower gas flow in a direction substantially parallel to the build platform ; one or more gas delivery devices coupled to the lower gas inlet and configured to regulate one or more flow characteristics of the lower gas flow ; and a gas outlet disposed in a downstream end portion of the chamber , wherein the gas outlet is configured to discharge the lower gas flow from the chamber ; characterised in that the additive manufacturing system further comprises: an additional contoured surface offset from the contoured surface by a distance to define a channel extending a length from the lower gas inlet to a channel outlet defined within a bottom wall of the chamber . a housing defining a chamber ; a build platform disposed in a lower portion of the chamber at a first elevation with respect to the chamber ; a lower gas inlet disposed proximate an upstream end portion of the chamber and configured to supply a lower gas flow , wherein the lower gas inlet is disposed at a second elevation with respect to the chamber ; a contoured surface extending between the lower gas inlet and the build platform and configured to direct the lower gas flow from the second elevation to the first elevation , wherein the contoured surface discharges the lower gas flow in a direction substantially parallel to the build platform ; one or more gas delivery devices coupled to the lower gas inlet and configured to regulate one or more flow characteristics of the lower gas flow ; and a gas outlet disposed in a downstream end portion of the chamber , wherein the gas outlet is configured to discharge the lower gas flow from the chamber ; characterised in that the additive manufacturing system further comprises: an additional contoured surface offset from the contoured surface by a distance to define a channel extending a length from the lower gas inlet to a channel outlet defined within a bottom wall of the chamber .
A biodegradable and compostable blend of thermoplastic polymers, comprising: from about 50 wt.% to about 80 wt.% of one or more poly(lactic) acid (PLA) polymers wherein said PLA polymers, independently, have a weight average molecular weight of from about 125,000 to about 200,000; from about 5 wt.% to about 30 wt.% of one or more compostable polyesters with or without biobased carbon content wherein said polyesters, independently, have a weight average molecular weight of from about 80,000 to about 175,000; from about 7 wt.% to about 15 wt.% of one or more polyethylene glycols (PEGs) with or without biobased carbon content, wherein said PEGs, independently, have a weight average molecular weight of from about 2,000 to about 10,000; wherein the weight average molecular weight of all polymers is determined as indicated in the specification; wherein said weight percent is based upon the total weight of said one or more PLAs, said one or more compostable polyesters, and said one or more polyglycol polymers; and wherein said blend has an elongation of at least 500% at according to ASTM Test D638-10 for injection molded specimens. from about 50 wt.% to about 80 wt.% of one or more poly(lactic) acid (PLA) polymers wherein said PLA polymers, independently, have a weight average molecular weight of from about 125,000 to about 200,000; from about 5 wt.% to about 30 wt.% of one or more compostable polyesters with or without biobased carbon content wherein said polyesters, independently, have a weight average molecular weight of from about 80,000 to about 175,000; from about 7 wt.% to about 15 wt.% of one or more polyethylene glycols (PEGs) with or without biobased carbon content, wherein said PEGs, independently, have a weight average molecular weight of from about 2,000 to about 10,000; wherein the weight average molecular weight of all polymers is determined as indicated in the specification; wherein said weight percent is based upon the total weight of said one or more PLAs, said one or more compostable polyesters, and said one or more polyglycol polymers; and wherein said blend has an elongation of at least 500% at according to ASTM Test D638-10 for injection molded specimens.
A system for cloud radio access network (RAN) deployment, wherein said system comprises: a local cloud RAN arranged to process latency-sensitive applications, wherein said local cloud RAN includes a local scheduler and is arranged to implement a first waveform numerology optimized for said latency-sensitive applications; a remote cloud RAN arranged to process latency-tolerant applications, wherein said remote cloud RAN includes a remote scheduler and is arranged to implement a second waveform numerology optimized for said latency-tolerant applications; a switch arranged to distribute data for said latency-sensitive applications for processing in said local cloud RAN, and arranged to distribute data for said latency-tolerant applications for processing in said remote cloud RAN; a controller arranged to control said switch and to manage coordination of time-frequency resources between said local cloud RAN and said remote cloud RAN; a first fronthaul interface through which remote radio units connect to said local cloud RAN; and a second fronthaul interface through which said local scheduler and said remote scheduler are arranged to communicate with one another to share said time-frequency resources. a local cloud RAN arranged to process latency-sensitive applications, wherein said local cloud RAN includes a local scheduler and is arranged to implement a first waveform numerology optimized for said latency-sensitive applications; a remote cloud RAN arranged to process latency-tolerant applications, wherein said remote cloud RAN includes a remote scheduler and is arranged to implement a second waveform numerology optimized for said latency-tolerant applications; a switch arranged to distribute data for said latency-sensitive applications for processing in said local cloud RAN, and arranged to distribute data for said latency-tolerant applications for processing in said remote cloud RAN; a controller arranged to control said switch and to manage coordination of time-frequency resources between said local cloud RAN and said remote cloud RAN; a first fronthaul interface through which remote radio units connect to said local cloud RAN; and a second fronthaul interface through which said local scheduler and said remote scheduler are arranged to communicate with one another to share said time-frequency resources.
An autonomous mobile apparatus comprising: a casing ; a running gear adapted to move the casing on a floor surface; a driving force source adapted to drive the running gear ; a controller adapted to control the driving force source so that the casing autonomously moves on the floor surface; a bumper that is provided on a front side of the casing ; and a camera unit disposed on a rear side of a side face of the casing to take a photograph an area behind the casing , wherein a photographing range (Rp) of the camera unit includes an upper range (RpU) provided above a horizontal direction (h), and a lower range (RpL) provided below the horizontal direction (h) when the casing is placed on the floor surface configured to be horizontal, and the upper range (RpU) is wider than the lower range (RpL). a casing ; a running gear adapted to move the casing on a floor surface; a driving force source adapted to drive the running gear ; a controller adapted to control the driving force source so that the casing autonomously moves on the floor surface; a bumper that is provided on a front side of the casing ; and a camera unit disposed on a rear side of a side face of the casing to take a photograph an area behind the casing , wherein a photographing range (Rp) of the camera unit includes an upper range (RpU) provided above a horizontal direction (h), and a lower range (RpL) provided below the horizontal direction (h) when the casing is placed on the floor surface configured to be horizontal, and the upper range (RpU) is wider than the lower range (RpL).
A system for placing an object to be processed in an accurate position on a manufacturing device , having at least a position determination system for determining a relative position of an object to be processed relative to a manufacturing device , and a positioning device for positioning the object to be processed on the manufacturing device , wherein the positioning device has a receiving device for receiving and delivering the object to be processed and a movable arm for moving the object to be processed out of a first position into a second position, wherein the position determination system has at least one position detection means which is designed for detecting a relative position of the receiving device relative to the position detection means , wherein the position detection means is designed to detect a relative position of the object to be processed relative to the position detection means , characterised in that the position detection means is further designed to detect a relative position of the manufacturing device relative to the position detection means .
A mobile terminal comprising: an inputter configured to receive a user input for selecting card information: a communicator configured to receive a token number indicating a physical card from a card company server , when a token issuance corresponding to card information selected by the user input is approved; a processor configured to generate token information including the token number and an identification code indicating a target service provider for identification of a service provider; and a sound wave outputter configured to output a sound wave signal converted from the generated token information and to transfer the sound wave signal to a magnetic field conversion device , characterized in that the processor is configured to obtain device setting information comprising a device setting code, device setting data, and an identification code that indicates a target service provider, and the sound wave outputter is configured to output a sound wave signal converted from the device setting information to change device settings of the magnetic field conversion device, wherein the device setting data comprises a setting value for at least one of a waiting time , a token transmission interval , a token transmission time length , a sound wave reception distance , a magnetic field generation interval per bit , and a preamble . a communicator configured to receive a token number indicating a physical card from a card company server , when a token issuance corresponding to card information selected by the user input is approved; a processor configured to generate token information including the token number and an identification code indicating a target service provider for identification of a service provider; and a sound wave outputter configured to output a sound wave signal converted from the generated token information and to transfer the sound wave signal to a magnetic field conversion device , characterized in that the processor is configured to obtain device setting information comprising a device setting code, device setting data, and an identification code that indicates a target service provider, and the sound wave outputter is configured to output a sound wave signal converted from the device setting information to change device settings of the magnetic field conversion device, wherein the device setting data comprises a setting value for at least one of a waiting time , a token transmission interval , a token transmission time length , a sound wave reception distance , a magnetic field generation interval per bit , and a preamble .
A qubit apparatus comprising: a resistive load ; a qubit ; a tunable compound Josephson junction coupler coupling the qubit to the resistive load, the tunable compound Josephson junction coupler comprising a superconducting loop interrupted by a compound Josephson junction , the compound Josephson junction being implemented as an inline direct current superconducting quantum interference device, DC SQUID, which acts as a tunable mutual inductance, to form a radio frequency superconducting quantum interference device, RF SQUID, the tunable compound Josephson junction coupler further comprising a first inductor that provides a mutual inductance to the qubit via a first inductor galvanic connection, and a second inductor that provides a mutual inductance to a transmission line leading to the resistive load via a second inductor galvanic connection; and a coupling controller that applies flux to either the superconducting loop of the RF SQUID or to the compound Josephson junction to tune a magnetic susceptibility of the coupler to control the coupling strength of the tunable compound Josephson junction coupler such that a coupling between the qubit and the resistive load is a first value, at which the qubit is coupled to the resistive load, when a reset of the qubit is desired and a second value, at which the qubit is substantially isolated from the resistive load, during operation of the qubit. a resistive load ; a qubit ; a tunable compound Josephson junction coupler coupling the qubit to the resistive load, the tunable compound Josephson junction coupler comprising a superconducting loop interrupted by a compound Josephson junction , the compound Josephson junction being implemented as an inline direct current superconducting quantum interference device, DC SQUID, which acts as a tunable mutual inductance, to form a radio frequency superconducting quantum interference device, RF SQUID, the tunable compound Josephson junction coupler further comprising a first inductor that provides a mutual inductance to the qubit via a first inductor galvanic connection, and a second inductor that provides a mutual inductance to a transmission line leading to the resistive load via a second inductor galvanic connection; and a coupling controller that applies flux to either the superconducting loop of the RF SQUID or to the compound Josephson junction to tune a magnetic susceptibility of the coupler to control the coupling strength of the tunable compound Josephson junction coupler such that a coupling between the qubit and the resistive load is a first value, at which the qubit is coupled to the resistive load, when a reset of the qubit is desired and a second value, at which the qubit is substantially isolated from the resistive load, during operation of the qubit.