mhurhangee/patent-ind-claim-en huggingface dataset:
Radio resource manager configured to inspect a media request sent from a client operating at a user entity , to a server , the media request requesting a wanted version of a media content out of versions of differing bandwidths of the media content which are described in a media presentation description sent from the server to the client; inspect the media presentation description which describes the versions of differing bandwidths of the media content, within data traffic from the server to the client, and decide, depending on a current resource situation information indicative of a current strain put onto communication resources of a base station to user entities among which the user entity is, on which the client operates, and information provided by the media presentation description , to cause that the media request does not lead to the wanted version of the media content being sent to the client . inspect a media request sent from a client operating at a user entity , to a server , the media request requesting a wanted version of a media content out of versions of differing bandwidths of the media content which are described in a media presentation description sent from the server to the client; inspect the media presentation description which describes the versions of differing bandwidths of the media content, within data traffic from the server to the client, and decide, depending on a current resource situation information indicative of a current strain put onto communication resources of a base station to user entities among which the user entity is, on which the client operates, and information provided by the media presentation description ,
A metallic alloy consisting of: 44.2 to 55.4 at % of a base metal made up of iron and manganese; 20.2 to 39.3 at % of an interstitial element selected from the group boron, carbon, silicon and combinations thereof; 13.3 to 20.5 at % of a transition metal selected from the group chromium, molybdenum, tungsten and combinations thereof; and 3.2 to 4.4 at % of niobium; wherein said composition forms a ductile matrix of α-Fe and/or γ-Fe including phases of complex boride, complex carbides or borocarbides. 44.2 to 55.4 at % of a base metal made up of iron and manganese; 20.2 to 39.3 at % of an interstitial element selected from the group boron, carbon, silicon and combinations thereof; 13.3 to 20.5 at % of a transition metal selected from the group chromium, molybdenum, tungsten and combinations thereof; and 3.2 to 4.4 at % of niobium; wherein said composition forms a ductile matrix of α-Fe and/or γ-Fe including phases of complex boride, complex carbides or borocarbides.
An earth-boring tool, comprising: a body ; a rotating member disposed over a protrusion from the body and configured to rotate relative to the body ; a bearing assembly disposed within a cavity of the rotating member , the bearing assembly comprising an inner race coupled with the protrusion and an outer race coupled with the rotating member ; and a bearing retainer affixed within the cavity of the rotating member and retaining the bearing assembly within the cavity of the rotating member ; characterized in that the earth-boring tool further comprises: a seal assembly comprising: a sealing element rotationally coupled with the bearing retainer , the sealing element comprising a first sealing surface ; a second sealing surface disposed on the inner race ; and an energizing element urging the first sealing surface into sealing engagement with the second sealing surface . a body ; a rotating member disposed over a protrusion from the body and configured to rotate relative to the body ; a bearing assembly disposed within a cavity of the rotating member , the bearing assembly comprising an inner race coupled with the protrusion and an outer race coupled with the rotating member ; and a bearing retainer affixed within the cavity of the rotating member and retaining the bearing assembly within the cavity of the rotating member ; characterized in that the earth-boring tool further comprises: a seal assembly comprising: a sealing element rotationally coupled with the bearing retainer , the sealing element comprising a first sealing surface ; a second sealing surface disposed on the inner race ; and an energizing element urging the first sealing surface into sealing engagement with the second sealing surface . a sealing element rotationally coupled with the bearing retainer , the sealing element comprising a first sealing surface ; a second sealing surface disposed on the inner race ; and an energizing element urging the first sealing surface into sealing engagement with the second sealing surface .
A method of operation at a wireless communication device configured for operation in a wireless communication network , the method comprising: determining , based on information received from a network node in the network , a sequence offset for a reference signal sequence ; determining , based on the sequence offset, which portion of the reference signal sequence overlays a scheduled bandwidth of the wireless communication device , referred to as an overlaying portion of the reference signal sequence , wherein the scheduled bandwidth is a portion of a larger, system bandwidth associated with the network , and where the reference signal sequence overlays the system bandwidth according to a mapping between respective sequence elements constituting the reference signal sequence and respective subcarriers constituting the system bandwidth ; and characterized by: transmitting one or more of the sequence elements contained in the overlaying portion of the reference signal sequence . determining , based on information received from a network node in the network , a sequence offset for a reference signal sequence ; determining , based on the sequence offset, which portion of the reference signal sequence overlays a scheduled bandwidth of the wireless communication device , referred to as an overlaying portion of the reference signal sequence , wherein the scheduled bandwidth is a portion of a larger, system bandwidth associated with the network , and where the reference signal sequence overlays the system bandwidth according to a mapping between respective sequence elements constituting the reference signal sequence and respective subcarriers constituting the system bandwidth ; and characterized by: transmitting one or more of the sequence elements contained in the overlaying portion of the reference signal sequence .
Handle assembly system comprising first and second handle parts which are intended to be assembled together, means for retaining one of the first and second handle parts in the other of the first and second handle parts, and friction securing means for an assembly of the first and second handle parts, and: - the retaining means comprising a thread which makes it possible to screw one of the first and second handle parts into the other of the first and second handle parts - the friction securing means comprising a friction seal which is interposed between the first and second handle parts, the system being characterized in that one of the first and second handle parts has an annular groove for receiving the friction seal and the other of the first and second handle parts has a bearing surface which is capable of extending facing the annular groove, and in that, once the second handle part is tightened in the first handle part , the friction seal is crushed radially into the annular receiving groove by pressing said bearing surface which then extends facing the annular groove . - the retaining means comprising a thread which makes it possible to screw one of the first and second handle parts into the other of the first and second handle parts - the friction securing means comprising a friction seal which is interposed between the first and second handle parts, the system being characterized in that one of the first and second handle parts has an annular groove for receiving the friction seal and the other of the first and second handle parts has a bearing surface which is capable of extending facing the annular groove, and in that, once the second handle part is tightened in the first handle part , the friction seal is crushed radially into the annular receiving groove by pressing said bearing surface which then extends facing the annular groove .
A system for determining one or more tooth receiving cavity positions of a dental appliance for moving one or more teeth, the system comprising: a database comprising data corresponding to one or more of: a plurality of discrepancies between target positions of teeth and achieved positions of the teeth in response to treatment, a plurality of correlations between teeth movements and force systems applied by dental appliances, or a plurality of clinical results of achieved teeth movements in response to force systems applied by dental appliances; a processing unit coupled to the database, wherein the processing unit is configured to: determine a target position for each of the one or more teeth in a treatment plan, determine an overcorrected tooth receiving cavity position and overcorrected tooth position determined in response to the data in the database, wherein the overcorrected tooth position is one or more of rotated or translated relative to a corresponding tooth in the target position, generate instructions for displaying a three-dimensional model of the patient's tooth in the overcorrected tooth position, and generate instructions for fabricating the dental appliance. a database comprising data corresponding to one or more of: a plurality of discrepancies between target positions of teeth and achieved positions of the teeth in response to treatment, a plurality of correlations between teeth movements and force systems applied by dental appliances, or a plurality of clinical results of achieved teeth movements in response to force systems applied by dental appliances; a processing unit coupled to the database, wherein the processing unit is configured to: determine a target position for each of the one or more teeth in a treatment plan, determine an overcorrected tooth receiving cavity position and overcorrected tooth position determined in response to the data in the database, wherein the overcorrected tooth position is one or more of rotated or translated relative to a corresponding tooth in the target position, generate instructions for displaying a three-dimensional model of the patient's tooth in the overcorrected tooth position, and generate instructions for fabricating the dental appliance. determine a target position for each of the one or more teeth in a treatment plan, determine an overcorrected tooth receiving cavity position and overcorrected tooth position determined in response to the data in the database, wherein the overcorrected tooth position is one or more of rotated or translated relative to a corresponding tooth in the target position, generate instructions for displaying a three-dimensional model of the patient's tooth in the overcorrected tooth position, and generate instructions for fabricating the dental appliance.
Steam generator , at least comprising: a conduit for steamable fluid , at least one heating element for heating the fluid to be steamed, a first arm and a second arm , wherein the first arm and the second arm form an angle with each other, and at least one arm in an operative position of the steam generator is substantially filled with steamable fluid , characterized in that the heating elements cover at least partially the first arm and the second arm , wherein the steam generator is manufactured from aluminum by extrusion and is bent to be substantially L-shaped. a conduit for steamable fluid , at least one heating element for heating the fluid to be steamed, a first arm and a second arm , wherein the first arm and the second arm form an angle with each other, and at least one arm in an operative position of the steam generator is substantially filled with steamable fluid , characterized in that the heating elements cover at least partially the first arm and the second arm , wherein the steam generator is manufactured from aluminum by extrusion and is bent to be substantially L-shaped.
A method of assembling and installing an underwing package to an underside of an aircraft wing , comprising: assembling the underwing package, comprising at least a pylon and an engine , using a build frame , wherein assembling the underwing package includes attaching the pylon to the build frame ; attaching a transfer cart to the underwing package; lowering the underwing package and the transfer cart from the build frame ; transporting the underwing package and the transfer cart to the underside of the aircraft wing ; and transferring the underwing package from the transfer cart to the underside of the aircraft wing , wherein attaching the pylon to the build frame includes: attaching a forward attachment point of the pylon to a forward fitting of the build frame ; releasably attaching an aft transfer system to the build frame ; and attaching an aft attachment point of the pylon to the aft transfer system , wherein attaching the transfer cart to the underwing package includes connecting a thrust link between the aft transfer system and the transfer cart , characterised in that the aft transfer system includes a crank that is pivotally connected to a transfer fitting and attaching the aft attachment point of the pylon to the aft transfer system includes attaching the aft attachment point of the pylon to the crank . assembling the underwing package, comprising at least a pylon and an engine , using a build frame , wherein assembling the underwing package includes attaching the pylon to the build frame ; attaching a transfer cart to the underwing package; lowering the underwing package and the transfer cart from the build frame ; transporting the underwing package and the transfer cart to the underside of the aircraft wing ; and transferring the underwing package from the transfer cart to the underside of the aircraft wing , wherein attaching the pylon to the build frame includes: attaching a forward attachment point of the pylon to a forward fitting of the build frame ; releasably attaching an aft transfer system to the build frame ; and attaching an aft attachment point of the pylon to the aft transfer system , attaching a forward attachment point of the pylon to a forward fitting of the build frame ; releasably attaching an aft transfer system to the build frame ; and attaching an aft attachment point of the pylon to the aft transfer system , wherein attaching the transfer cart to the underwing package includes connecting a thrust link between the aft transfer system and the transfer cart , characterised in that the aft transfer system includes a crank that is pivotally connected to a transfer fitting and attaching the aft attachment point of the pylon to the aft transfer system includes attaching the aft attachment point of the pylon to the crank .
A label (L) to be wrapped around an adherend after being printed, the adherend having a diameter equal to or smaller than a prescribed diameter, the label (L) comprising: a base material having a printing surface ; an adhesive layer provided on an opposite side surface of the base material from the printing surface ; a release material bonded to the adhesive layer with a portion of the adhesive layer exposed; and a mark (GM, PM) or a special shape (GS, GT) for alignment to be used when bonding together exposed sections of the adhesive layer or an exposed section of the adhesive layer with the release material in order to form the label (L) into a loop shape, wherein the mark (GM, PM) or the special shape (GS, GT) is provided at a position for forming the label (L) in the loop shape having an inner diameter greater than the prescribed diameter, characterized in that the release material has a higher stiffness than the base material . a base material having a printing surface ; an adhesive layer provided on an opposite side surface of the base material from the printing surface ; a release material bonded to the adhesive layer with a portion of the adhesive layer exposed; and a mark (GM, PM) or a special shape (GS, GT) for alignment to be used when bonding together exposed sections of the adhesive layer or an exposed section of the adhesive layer with the release material in order to form the label (L) into a loop shape, wherein the mark (GM, PM) or the special shape (GS, GT) is provided at a position for forming the label (L) in the loop shape having an inner diameter greater than the prescribed diameter, characterized in that the release material has a higher stiffness than the base material .
Sensor arrangement, having - at least one sensor that records changeable physical measured variables (T, rH) and provides a sensor raw signal (T_RAW, rH_RAW) at output, - a digital signal processing unit (13; 13.1, 13.2) for preprocessing the sensor raw signal (T_RAW, rH_RAW) provided by the sensor into a sensor signal (T_ASIC, rH_ASIC), for further processing the sensor signal (T_ASIC, rH_ASIC) into a pulse width-modulated output signal (PWM) having a duty cycle (p) dependent on the measured variable (T, rH), for which purpose a plurality of arrangement-specific correction parameters (PWM_OUT_MIN, PWM_OUT_MAX) are stored in a memory unit and are used by the signal processing unit (13; 13.1, 13.2) to convert the sensor signal (T_ASIC, rH_ASIC) into the pulse width-modulated output signal (PWM), wherein at least a minimum duty cycle parameter limit value and a maximum duty cycle parameter limit value are stored in the memory unit as arrangement-specific correction parameters (PWM_OUT_MIN, PWM_OUT_MAX), and - an amplifier unit that converts the pulse width-modulated output signal (PWM) into an analogue voltage or current signal (U out ) - at least one sensor that records changeable physical measured variables (T, rH) and provides a sensor raw signal (T_RAW, rH_RAW) at output, - a digital signal processing unit (13; 13.1, 13.2) for preprocessing the sensor raw signal (T_RAW, rH_RAW) provided by the sensor into a sensor signal (T_ASIC, rH_ASIC), for further processing the sensor signal (T_ASIC, rH_ASIC) into a pulse width-modulated output signal (PWM) having a duty cycle (p) dependent on the measured variable (T, rH), for which purpose a plurality of arrangement-specific correction parameters (PWM_OUT_MIN, PWM_OUT_MAX) are stored in a memory unit and are used by the signal processing unit (13; 13.1, 13.2) to convert the sensor signal (T_ASIC, rH_ASIC) into the pulse width-modulated output signal (PWM), wherein at least a minimum duty cycle parameter limit value and a maximum duty cycle parameter limit value are stored in the memory unit as arrangement-specific correction parameters (PWM_OUT_MIN, PWM_OUT_MAX), and - an amplifier unit that converts the pulse width-modulated output signal (PWM) into an analogue voltage or current signal (U out )
An article, especially a cooktop or furniture element, comprising at least one substrate made of glass-ceramic, said substrate being coated in at least one zone with a paint comprising at least: - 1) a silicone resin comprising methyl and phenyl groups, - 2) a silicone resin comprising methyl group(s) and devoid of phenyl group(s), - 3) one or more lamellar inorganic fillers with a thickness of less than 2 μm and with lateral dimensions, for at least 80% by weight of said fillers, of less than 10 μm, including talc and/or one or more carbonates, - 4) one or more black pigments. - 1) a silicone resin comprising methyl and phenyl groups, - 2) a silicone resin comprising methyl group(s) and devoid of phenyl group(s), - 3) one or more lamellar inorganic fillers with a thickness of less than 2 μm and with lateral dimensions, for at least 80% by weight of said fillers, of less than 10 μm, including talc and/or one or more carbonates, - 4) one or more black pigments.
A method of producing multi-walled carbon nanotube blended polyvinylidene fluoride (MWCNTs/PVDF) membranes for membrane distillation (MD) treatment of saline water using non-solvent induced phase separation (NIPS), said method including mixing two solvents with different solubility parameters, said solvents being triethyl phosphate (TEP) and N, N-dimethylacetamide (DMAC), mixed in a 1:1 mass ratio, and the use of a dual coagulation bath system comprising a first bath containing a mixture of TEP, DMAC and water and thereafter a second bath containing pure water as a non-solvent to control the formation of membrane pore structures and enhance surface hydrophobicity whereby blended PVDF membranes are produced for application in MD processes.
A quantum cascade laser element comprising a semiconductor superlattice structure formed on a polar surface of a substrate and sandwiched between a pair of conductive sections , wherein the semiconductor superlattice structure is an active region that emits electromagnetic waves of a certain wavelength in the near-infrared range of about 0.78 μm to 10 μm under an external voltage applied through the pair of conductive sections for operation, the active region has a plurality of unit structures that are repeatedly stacked, each unit structure consists of four well layers (10W1 to 10W4) of a composition of Al x Ga 1-x N separated from each other by a barrier layer(10B1 to 10B5) of a composition of Al y Ga 1-y N with 0≤x<y≤1, with one of the well layers being a maximum thickness well layer (10W2) that is thicker than the others, both of the pair of conductive sections have a refractive index lower than a refractive index of the active region for electromagnetic waves of the wavelength, the maximum thickness well layer (10W2) has a thickness such that the maximum thickness well layer (10W2) accommodates only two confinement levels in thickness direction under the external voltage, and the two confinement levels in thickness direction under the external voltage are a lower lasing level (LLL) and an upper lasing level (ULL) that are separated by an energy difference corresponding to the wavelength. the semiconductor superlattice structure is an active region that emits electromagnetic waves of a certain wavelength in the near-infrared range of about 0.78 μm to 10 μm under an external voltage applied through the pair of conductive sections for operation, the active region has a plurality of unit structures that are repeatedly stacked, each unit structure consists of four well layers (10W1 to 10W4) of a composition of Al x Ga 1-x N separated from each other by a barrier layer(10B1 to 10B5) of a composition of Al y Ga 1-y N with 0≤x<y≤1, with one of the well layers being a maximum thickness well layer (10W2) that is thicker than the others, both of the pair of conductive sections have a refractive index lower than a refractive index of the active region for electromagnetic waves of the wavelength, the maximum thickness well layer (10W2) has a thickness such that the maximum thickness well layer (10W2) accommodates only two confinement levels in thickness direction under the external voltage, and the two confinement levels in thickness direction under the external voltage are a lower lasing level (LLL) and an upper lasing level (ULL) that are separated by an energy difference corresponding to the wavelength.