mhurhangee/patent-ind-claim-en huggingface dataset:
A process for the preparation of ethylene homopolymers or copolymers by polymerizing ethylene and optionally further monomers in the presence of at least two different mixtures of free-radical polymerization initiators at from 100°C to 350°C and pressures in the range of from 160 MPa to 350 MPa in an apparatus comprising a high pressure reactor with at least two spatially separated initiator injection points and an apparatus for feeding initiator mixtures to the high pressure reactor, the apparatus for feeding initiator mixtures comprising, a) at least two storage tanks (100a, 100b, etc.) for holding initiator solutions or liquid initiators, b) at least two static mixers (106a, 106b, etc.) for mixing the initiator solutions or liquid initiators, and c) at least two sets of valves (105a, 105b, etc.) to regulate the flow of the initiator solutions or liquid initiators through the static mixers (106a, 106b, etc.), and further comprising at least two connection lines for conveying initiator mixture from two static mixers to two spatially separated initiator injection points of the high pressure reactor, wherein the process comprises the following steps: a) providing at least two different initiators as solution in a suitable solvent or in liquid state, b) preparing the at least two different mixtures by mixing the initiators and optionally additional solvent in at least two static mixers, wherein each of the at least two static mixers produces one of the at least two different mixtures of free-radical polymerization initiators, and c) feeding each of the mixtures to a different initiator injection point of the high pressure reactor. a) at least two storage tanks (100a, 100b, etc.) for holding initiator solutions or liquid initiators, b) at least two static mixers (106a, 106b, etc.) for mixing the initiator solutions or liquid initiators, and c) at least two sets of valves (105a, 105b, etc.) to regulate the flow of the initiator solutions or liquid initiators through the static mixers (106a, 106b, etc.), a) providing at least two different initiators as solution in a suitable solvent or in liquid state, b) preparing the at least two different mixtures by mixing the initiators and optionally additional solvent in at least two static mixers, wherein each of the at least two static mixers produces one of the at least two different mixtures of free-radical polymerization initiators, and c) feeding each of the mixtures to a different initiator injection point of the high pressure reactor.
A sous vide cooker comprising: a housing extending along a longitudinal axis from an upper housing end to a lower housing end and comprising at least one display; a bulkhead secured at the lower housing end and extending along the longitudinal axis from an upper bulkhead end to a lower bulkhead end , the bulkhead and housing forming a first cavity therebetween; a skirt extending along the longitudinal axis from an upper skirt end to a lower skirt end located below the lower bulkhead end to form a second cavity between the skirt and the bulkhead , the skirt having one or more inlet openings and one or more outlet openings located below the lower bulkhead end ; an impeller located in the second cavity ; a motor operatively connected to the impeller ; a heating element located within the second cavity ; said sous vide cooker being characterized in that it further comprises: a metal heat sink located in the first cavity ; and a TRIAC physically attached in conductive thermal communication to the heat sink and located in the first cavity . a housing extending along a longitudinal axis from an upper housing end to a lower housing end and comprising at least one display; a bulkhead secured at the lower housing end and extending along the longitudinal axis from an upper bulkhead end to a lower bulkhead end , the bulkhead and housing forming a first cavity therebetween; a skirt extending along the longitudinal axis from an upper skirt end to a lower skirt end located below the lower bulkhead end to form a second cavity between the skirt and the bulkhead , the skirt having one or more inlet openings and one or more outlet openings located below the lower bulkhead end ; an impeller located in the second cavity ; a motor operatively connected to the impeller ; a heating element located within the second cavity ; said sous vide cooker being characterized in that it further comprises: a metal heat sink located in the first cavity ; and a TRIAC physically attached in conductive thermal communication to the heat sink and located in the first cavity . a metal heat sink located in the first cavity ; and a TRIAC physically attached in conductive thermal communication to the heat sink and located in the first cavity .
A pharmaceutical composition for use in prevention or treatment of a joint disease or a connective tissue disease, the composition comprising dextran has an average molecular weight of 5,000Da (dextran 5) as an effective ingredient.
A method for measuring radiotherapy doses, in particular on a subject undergoing radiotherapy or other treatments with ionizing radiations, comprising the steps of: • electrically insulating the subject during the treatment; • applying at least two equal electrodes to the subject, each one connected to an amplifier with a system for acquiring the signal outgoing from the amplifier; • detecting, by means of said at least two electrodes, a voltage pulse produced during the treatment, said voltage pulse deriving from the ionization secondary electrons set into motion and/or from the net charge induced in the subject; • converting said voltage pulse into a value of charge induced by the treatment in the subject; and • determining the dose of ionizing radiations received by the subject by means of a processing system which uses the above-mentioned value of the induced charge, an energy spectrum of the incident beam of ionizing radiations and a contact surface of said incident beam on the subject; • evaluating the different intensity of current acquired at the same time by said at least two electrodes and of the extent of the induced charge detected by each electrode, and determining the position of a region of the subject wherein the incident beam, by interacting with the subject's tissues, has produced a current signal inside thereof, by comparing the signals produced by the electrodes and the knowledge of their position. • electrically insulating the subject during the treatment; • applying at least two equal electrodes to the subject, each one connected to an amplifier with a system for acquiring the signal outgoing from the amplifier; • detecting, by means of said at least two electrodes, a voltage pulse produced during the treatment, said voltage pulse deriving from the ionization secondary electrons set into motion and/or from the net charge induced in the subject; • converting said voltage pulse into a value of charge induced by the treatment in the subject; and • determining the dose of ionizing radiations received by the subject by means of a processing system which uses the above-mentioned value of the induced charge, an energy spectrum of the incident beam of ionizing radiations and a contact surface of said incident beam on the subject; • evaluating the different intensity of current acquired at the same time by said at least two electrodes and of the extent of the induced charge detected by each electrode, and determining the position of a region of the subject wherein the incident beam, by interacting with the subject's tissues, has produced a current signal inside thereof, by comparing the signals produced by the electrodes and the knowledge of their position.
A method for determining a bundling size, comprising: using, by the user equipment, a bundling size configured via a higher-layer signaling to transmit data if the network-side device turns off a function of dynamic bundling size adjustment ; characterized in that the using, by the user equipment, the bundling size configured via the higher-layer signaling to transmit data comprises: using, by the user equipment, the bundling size configured by the network-side device via the higher-layer signaling to transmit data, wherein the bundling size is a bundling size in a bundling size set available to the user equipment; or using, by the user equipment, a minimum bundling size in a bundling size set available to the user equipment to transmit data, wherein the bundling size set available to the user equipment comprises: a bundling size set configured by the network-side device for the user equipment according to capability information reported by the user equipment, the capability information being used to indicate whether the user equipment supports one-physical resource block (PRB) bundling. using, by the user equipment, a bundling size configured via a higher-layer signaling to transmit data if the network-side device turns off a function of dynamic bundling size adjustment ; characterized in that the using, by the user equipment, the bundling size configured via the higher-layer signaling to transmit data comprises: using, by the user equipment, the bundling size configured by the network-side device via the higher-layer signaling to transmit data, wherein the bundling size is a bundling size in a bundling size set available to the user equipment; or using, by the user equipment, a minimum bundling size in a bundling size set available to the user equipment to transmit data, wherein the bundling size set available to the user equipment comprises: a bundling size set configured by the network-side device for the user equipment according to capability information reported by the user equipment, the capability information being used to indicate whether the user equipment supports one-physical resource block (PRB) bundling. using, by the user equipment, the bundling size configured by the network-side device via the higher-layer signaling to transmit data, wherein the bundling size is a bundling size in a bundling size set available to the user equipment; or using, by the user equipment, a minimum bundling size in a bundling size set available to the user equipment to transmit data, wherein the bundling size set available to the user equipment comprises: a bundling size set configured by the network-side device for the user equipment according to capability information reported by the user equipment, the capability information being used to indicate whether the user equipment supports one-physical resource block (PRB) bundling.
An optical target assembly to secure an optical target relative to a vehicle wheel assembly consisting of a wheel rim having a circumferential lip and a tire mounted thereon for rotation about an axis, comprising: a base assembly including a contact surface configured for non-determined abutting placement against an outer surface of the vehicle wheel assembly, between the circumferential lip of the wheel rim and an axial center point of the wheel rim, such that contact between said contact surface and said outer surface define a plurality of contact points on said contact surface ; characterized by a target support assembly secured to said base assembly axially outboard from said contact surface ; and a pair of opposed wheel clamp arms configured to maintain each of said contact points of said contact surface in contact with, and immobile relative to, said outer surface of the wheel assembly during a vehicle service procedure; and wherein said target support assembly includes a first discrete planar target surface and a second discrete planar target surface , wherein said first target surface and said second target surface are parallel to each other, with a plurality of optical target elements disposed on each of said first and second discrete planar target surfaces, the second discrete planar target surface disposed axially inward from the first discrete planar target surface such that the discrete planar target surfaces present the associated optical target elements in a common field of view, generally orthogonal to an axis of rotation for said target support assembly . a base assembly including a contact surface configured for non-determined abutting placement against an outer surface of the vehicle wheel assembly, between the circumferential lip of the wheel rim and an axial center point of the wheel rim, such that contact between said contact surface and said outer surface define a plurality of contact points on said contact surface ; characterized by a target support assembly secured to said base assembly axially outboard from said contact surface ; and a pair of opposed wheel clamp arms configured to maintain each of said contact points of said contact surface in contact with, and immobile relative to, said outer surface of the wheel assembly during a vehicle service procedure; and wherein said target support assembly includes a first discrete planar target surface and a second discrete planar target surface , wherein said first target surface and said second target surface are parallel to each other, with a plurality of optical target elements disposed on each of said first and second discrete planar target surfaces, the second discrete planar target surface disposed axially inward from the first discrete planar target surface such that the discrete planar target surfaces present the associated optical target elements in a common field of view, generally orthogonal to an axis of rotation for said target support assembly .
A method of controlling a device , the method comprising: Detecting, by the device , a mobile device (120-1) within a distance from the device ; Receiving, by the device , user configuration information comprising user interface information for a user interface to be displayed by the device , from the detected mobile device (120-1); and Displaying, by the device , the user interface of the device based on the user interface information received from the detected mobile device (120-1), detecting, by the device , another mobile device (120-2) within the distance from the device ; determining, by the device , whether to change the user interface information received from the mobile device (120-1) to another user interface information for the user interface to be displayed by the device and to be received from the other mobile device (120-1), based on at least one among a grade of each of the mobile device (120-1) and the other mobile device (120-2) and an input selection of the other mobile device (120-2); and receiving, by the device , user configuration information comprising the other user interface information for the user interface to be displayed by the device , from the other mobile device (120-2), in response to the determining to change the user interface information to the other user interface information. Detecting, by the device , a mobile device (120-1) within a distance from the device ; Receiving, by the device , user configuration information comprising user interface information for a user interface to be displayed by the device , from the detected mobile device (120-1); and Displaying, by the device , the user interface of the device based on the user interface information received from the detected mobile device (120-1), detecting, by the device , another mobile device (120-2) within the distance from the device ; determining, by the device , whether to change the user interface information received from the mobile device (120-1) to another user interface information for the user interface to be displayed by the device and to be received from the other mobile device (120-1), based on at least one among a grade of each of the mobile device (120-1) and the other mobile device (120-2) and an input selection of the other mobile device (120-2); and receiving, by the device , user configuration information comprising the other user interface information for the user interface to be displayed by the device , from the other mobile device (120-2), in response to the determining to change the user interface information to the other user interface information.
A detector for electromagnetic radiation, particularly an X-ray and/or gamma detector, comprising: - a first, pixelated electrode layer comprising a multitude of electrode pixels , - a first layer comprising a multitude of tiles comprising a material absorbing and converting the electromagnetic radiation, wherein the first layer comprises gaps between the tiles, wherein the gaps are filled with a material comprising at least a first semiconductor and/or at least a first perovskite, and - a second electrode layer . - a first, pixelated electrode layer comprising a multitude of electrode pixels , - a first layer comprising a multitude of tiles comprising a material absorbing and converting the electromagnetic radiation, wherein the first layer comprises gaps between the tiles, wherein the gaps are filled with a material comprising at least a first semiconductor and/or at least a first perovskite, and - a second electrode layer .
A current mirror comprising: two transistors , wherein one is a reference transistor and one is a mirror transistor , and a bypass transistor , whose drain contact contacts a gate contact of at least one of the two transistors , wherein at least one of the two transistors is a self conducting transistor, wherein a gate contact of the bypass transistor is contacted with a source contact of the bypass-transistors , and wherein a drain contact of the reference transistor is connected in forward direction with a gate contact of the of the reference transistor via a first diode (Db1), characterized in that at least a second diode (Dr1) is arranged between a source contact of the reference transistor and a ground and is contacted on the anode side with the source contact of the reference transistor , and in that at least one third diode (Ds1) is arranged between a source contact of the mirror transistor and the ground and is contacted on the anode side with a source contact of the mirror transistor . two transistors , wherein one is a reference transistor and one is a mirror transistor , and a bypass transistor , whose drain contact contacts a gate contact of at least one of the two transistors , wherein at least one of the two transistors is a self conducting transistor, wherein a gate contact of the bypass transistor is contacted with a source contact of the bypass-transistors , and wherein a drain contact of the reference transistor is connected in forward direction with a gate contact of the of the reference transistor via a first diode (Db1), characterized in that at least a second diode (Dr1) is arranged between a source contact of the reference transistor and a ground and is contacted on the anode side with the source contact of the reference transistor , and in that at least one third diode (Ds1) is arranged between a source contact of the mirror transistor and the ground and is contacted on the anode side with a source contact of the mirror transistor .
A method for producing a gear-tooth system on a component of a shaft/hub connection ; wherein the component has a first axis of rotation and a gear-tooth system ; wherein the gear-tooth system comprises a plurality of teeth , which are disposed next to one another along a circumference direction , wherein a tooth interstice is disposed between two teeth , in each instance, and each tooth has a head region and a flank region , in each instance, disposed between head region and a foot region disposed in the tooth interstice , wherein the tooth interstice has a tooth gap width in the flank region ; wherein the gear-tooth system has at least a first region and subsequently a second region along an axial direction parallel to the first axis of rotation ; wherein the first region has a first tooth gap width , and the second region has a second tooth gap width , which is less in comparison; wherein the method comprises at least the following steps: a) making available the component in a first initial state, wherein the component has the gear-tooth system , wherein the gear-tooth system has the second tooth gap width in the first region and in the second region ; b) machining at least the first region and enlarging the second tooth gap width to form the first tooth gap width ; characterised in that step b) is carried out using a rolling tool and wherein a different tool is used for producing the first tooth gap width than for producing the gear-tooth system or for producing the second tooth gap width . a) making available the component in a first initial state, wherein the component has the gear-tooth system , wherein the gear-tooth system has the second tooth gap width in the first region and in the second region ; b) machining at least the first region and enlarging the second tooth gap width to form the first tooth gap width ;
Skin chamber system with a frame device, characterized in that - the frame device is implemented as a U-shaped folding frame with a U-shaped outer frame part and a U-shaped inner frame part - wherein these two frame parts are coupled to one another at the open ends of their U legs by a respective articulated connection in such a way that the inner frame part can be folded against the outer frame part , so that in the folded-in state the inner frame part is positioned inside the U opening of the outer frame part , and in the unfolded state the inner frame part and the outer frame part lie mirror-inverted to one another and enclose an opening, - and wherein the outer frame part and the inner frame part each have an L-shaped profile in cross-section, so that each frame part has a U-shaped frame wall extending horizontally with respect to the folding frame plane and a U-shaped frame wall extending vertically with respect to the folding frame plane , - and these two frame parts being aligned with respect to one another in such a way that, in the closed folding frame , their vertical frame walls run approximately parallel to one another and their horizontal frame walls are aligned essentially in the same plane and in opposite directions to one another. - the frame device is implemented as a U-shaped folding frame with a U-shaped outer frame part and a U-shaped inner frame part - wherein these two frame parts are coupled to one another at the open ends of their U legs by a respective articulated connection in such a way that the inner frame part can be folded against the outer frame part , so that in the folded-in state the inner frame part is positioned inside the U opening of the outer frame part , and in the unfolded state the inner frame part and the outer frame part lie mirror-inverted to one another and enclose an opening, - and wherein the outer frame part and the inner frame part each have an L-shaped profile in cross-section, so that each frame part has a U-shaped frame wall extending horizontally with respect to the folding frame plane and a U-shaped frame wall extending vertically with respect to the folding frame plane , - and these two frame parts being aligned with respect to one another in such a way that, in the closed folding frame , their vertical frame walls run approximately parallel to one another and their horizontal frame walls are aligned essentially in the same plane and in opposite directions to one another.