mhurhangee/ep-ind-claims huggingface dataset:
An apparatus (100;400) comprising: a driver (103;402) having pull-up impedance legs, wherein a number of active pull-up impedance legs is to determine a pull-up output impedance of the driver (103;402); further comprising a detector (102a;403) coupled to an output of the driver (103;402), wherein the detector (102a;403) is to receive a multiphase clock, the detector (102a;403) is to sample data at the output at least two clock edges separated by a delay, the detector (102a;403) to compare the sampled data with a first threshold voltage and a second threshold voltage, wherein the first and second threshold voltages are nearer to a logic high level of the data than to a logic low level of the data, or wherein the first and second threshold voltages are nearer to a logic low level of the data than to a logic high level of the data; decision logic (102c;405) coupled to the detector (102a;403), the decision logic (102c;405) to generate a code based on an indication from the detector (102a;403); and logic to receive the code from the decision logic (102c;405) and to further receive a base number of process, voltage, and temperature, PVT, compensated active number of pull-up impedance legs, and wherein the logic is to turn on or turn off one or more pull-up impedance legs over the base number to change the number of active pull-up impedance legs according to the code. a driver (103;402) having pull-up impedance legs, wherein a number of active pull-up impedance legs is to determine a pull-up output impedance of the driver (103;402); further comprising a detector (102a;403) coupled to an output of the driver (103;402), wherein the detector (102a;403) is to receive a multiphase clock, the detector (102a;403) is to sample data at the output at least two clock edges separated by a delay, the detector (102a;403) to compare the sampled data with a first threshold voltage and a second threshold voltage, wherein the first and second threshold voltages are nearer to a logic high level of the data than to a logic low level of the data, or wherein the first and second threshold voltages are nearer to a logic low level of the data than to a logic high level of the data; decision logic (102c;405) coupled to the detector (102a;403), the decision logic (102c;405) to generate a code based on an indication from the detector (102a;403); and logic to receive the code from the decision logic (102c;405) and to further receive a base number of process, voltage, and temperature, PVT, compensated active number of pull-up impedance legs, and wherein the logic is to turn on or turn off one or more pull-up impedance legs over the base number to change the number of active pull-up impedance legs according to the code.
A method for a mobile station configured to communicate in multi-active mode with a plurality of cellular networks, the method comprising: causing, by a trusted user interface client accessible by a user via an authentication procedure and stored by an application memory of the mobile station, provisioning of virtual subscriber identity module cards on behalf of the mobile station, wherein provisioning the virtual SIM cards comprises at least one of purchasing, downloading, activating, deactivating, or deleting the virtual SIM cards; coordinating, by a trusted baseband client accessible by the user via the authentication procedure and stored by a baseband memory of the mobile station, communication between the mobile station and one or more of the plurality of cellular networks using one or more corresponding virtual SIM cards; and coordinating, by the trusted baseband client, communication with a profile manager (108, 110) that hosts a set of virtual SIM cards associated with the mobile station. causing, by a trusted user interface client accessible by a user via an authentication procedure and stored by an application memory of the mobile station, provisioning of virtual subscriber identity module cards on behalf of the mobile station, wherein provisioning the virtual SIM cards comprises at least one of purchasing, downloading, activating, deactivating, or deleting the virtual SIM cards; coordinating, by a trusted baseband client accessible by the user via the authentication procedure and stored by a baseband memory of the mobile station, communication between the mobile station and one or more of the plurality of cellular networks using one or more corresponding virtual SIM cards; and coordinating, by the trusted baseband client, communication with a profile manager (108, 110) that hosts a set of virtual SIM cards associated with the mobile station.
An optoelectronic device, wherein said device comprises a substrate and a multitude of layers, wherein at least one of said layers is a buffer layer, wherein said buffer layer comprises 70-99.9 wt% metal oxide nanoparticles, wherein metal oxide nanoparticles comprise physisorbed metal salts of formula in an amount of 1-10 wt%, M z a+ R y b-, wherein M represents a metal cation, selected from the group consisting of Zn, Al, Y, Pb, Bi, Cu, Ni, Co, Fe, Mn, Cr, V, Ti, La, Mg, Ca, Sr or Ba, R represents the corresponding salt anion, a is 2, 3, 4 or 5, b is 1, 2 or 3, z is 1, or a real number below 1 but excluding 0, y is z*a/b; and wherein the molar fraction of metal salt cation to metal atoms/ions in the nanoparticle is 0.02 - 6 mol%. M represents a metal cation, selected from the group consisting of Zn, Al, Y, Pb, Bi, Cu, Ni, Co, Fe, Mn, Cr, V, Ti, La, Mg, Ca, Sr or Ba, R represents the corresponding salt anion, a is 2, 3, 4 or 5, b is 1, 2 or 3, z is 1, or a real number below 1 but excluding 0, y is z*a/b; and
A pipe coupler comprising a frame defining an open housing in which there are at least partially contained the ends of two pipes (T1, T2) to be welded and rolling means facing each other in said housing to contact the outer surface of the pipes (T1, T2) and configured to allow relative rotation between the frame and said pipes, characterized in that said rolling means comprise at least one roller placed in proximity of the joining area of the two pipes so as to contact the outer surfaces of both pipes (T1, T2), the outer surface of said roller being provided with thrust means adapted to exert, following rotation in contact with the surfaces of the pipes, two opposing forces (F1, F2), acting on the respective ends of the two pipes (T1, T2) to hold them against each other.
A printing device (102; 302), comprising: a processor resource (104; 204); an output roller (354; 454; 554) from a print zone; and a non-transitory memory resource (106; 206) storing machine-readable instructions (108, 110, 112, 114) stored thereon that, when executed, cause the processor resource to: estimate a drying time of a print medium (356; 456; 556) received at the output roller; activate the output roller at a first speed to move the print medium to an output tray (358; 458; 558) in response to receiving the print medium from the print zone; alter a direction of the output roller to move the print medium toward a turn roller at a second speed based on the drying time of the print medium; and stop the output roller to prevent the print medium from reaching the turn roller for a period of time based on the drying time. a processor resource (104; 204); an output roller (354; 454; 554) from a print zone; and a non-transitory memory resource (106; 206) storing machine-readable instructions (108, 110, 112, 114) stored thereon that, when executed, cause the processor resource to: estimate a drying time of a print medium (356; 456; 556) received at the output roller; activate the output roller at a first speed to move the print medium to an output tray (358; 458; 558) in response to receiving the print medium from the print zone; alter a direction of the output roller to move the print medium toward a turn roller at a second speed based on the drying time of the print medium; and stop the output roller to prevent the print medium from reaching the turn roller for a period of time based on the drying time. estimate a drying time of a print medium (356; 456; 556) received at the output roller; activate the output roller at a first speed to move the print medium to an output tray (358; 458; 558) in response to receiving the print medium from the print zone; alter a direction of the output roller to move the print medium toward a turn roller at a second speed based on the drying time of the print medium; and stop the output roller to prevent the print medium from reaching the turn roller for a period of time based on the drying time.
A connector assembly, comprising: an outer housing; an inner housing, the inner housing being at least partially arranged in the outer housing; and a latch, which is carried by the outer housing, wherein the outer housing is configured to receive at least one of two different types of cables through a first end and at least one of two different module mating interfaces (430, 431) at a second end, characterized in that the latch is rotatably attached to the outer housing, wherein the latch rotates around a rotation axis, which is perpendicular to the mating axis of the connector assembly and wherein the latch can be rotated between an unlock state of the latch and a lock state of the latch; wherein the outer housing further comprises a slider, which is slidably arranged on the latch and/or the outer housing, wherein the slider can be moved between an unlock state of the slider, which allows a movement of the latch, and a lock state of the slider, in which the latch is locked in its position. an outer housing; an inner housing, the inner housing being at least partially arranged in the outer housing; and a latch, which is carried by the outer housing, wherein the outer housing is configured to receive at least one of two different types of cables through a first end and at least one of two different module mating interfaces (430, 431) at a second end, characterized in that the latch is rotatably attached to the outer housing, wherein the latch rotates around a rotation axis, which is perpendicular to the mating axis of the connector assembly and wherein the latch can be rotated between an unlock state of the latch and a lock state of the latch; wherein the outer housing further comprises a slider, which is slidably arranged on the latch and/or the outer housing, wherein the slider can be moved between an unlock state of the slider, which allows a movement of the latch, and a lock state of the slider, in which the latch is locked in its position.
A dental implant (700, 800, 900) comprising: a body having a main portion with a non-circular outer periphery with a plurality of convexly curved portions and a plurality of distinct roots (708, 710, 802, 804, 806, 902, 904, 906, 908) extending outwardly from the main portion to a distal end (712, 714), each curved portion coronally aligning with a different one of the plurality of roots, each pair of adjacent curved portions of the plurality of curved portions forms an intersection with an indent; and a porous tantalum portion disposed at the body at least at one of the roots for engaging bone. a body having a main portion with a non-circular outer periphery with a plurality of convexly curved portions and a plurality of distinct roots (708, 710, 802, 804, 806, 902, 904, 906, 908) extending outwardly from the main portion to a distal end (712, 714), each curved portion coronally aligning with a different one of the plurality of roots, each pair of adjacent curved portions of the plurality of curved portions forms an intersection with an indent; and a porous tantalum portion disposed at the body at least at one of the roots for engaging bone.
A signal transmission method applied in wireless communications, comprising: determining, by a first device, a bandwidth and a number of subcarriers of a target channel, wherein the bandwidth or the number of subcarriers of the target channel is determined according to at least one of a level and a type of a terminal device using the target channel; and transmitting, by the first device, a signal to a second device via the target channel or receiving, by the first device, a signal transmitted by a second device via the target channel, according to the bandwidth and the number of subcarriers of the target channel, wherein at least one of the first device and the second device is a terminal device; wherein the second device is a terminal device; and the determining, by the first device, the bandwidth and the number of subcarriers of the target channel comprises: determining, by the first device, a value range of the bandwidth of the target channel according to at least one of the level and the type of the second device; determining the bandwidth of the target channel from the value range of the bandwidth of the target channel; determining a subcarrier interval of the target channel; and determining the number of subcarriers of the target channel according to the bandwidth of the target channel and the subcarrier interval of the target channel. determining, by a first device, a bandwidth and a number of subcarriers of a target channel, wherein the bandwidth or the number of subcarriers of the target channel is determined according to at least one of a level and a type of a terminal device using the target channel; and transmitting, by the first device, a signal to a second device via the target channel or receiving, by the first device, a signal transmitted by a second device via the target channel, according to the bandwidth and the number of subcarriers of the target channel, wherein at least one of the first device and the second device is a terminal device; wherein the second device is a terminal device; and the determining, by the first device, the bandwidth and the number of subcarriers of the target channel comprises: determining, by the first device, a value range of the bandwidth of the target channel according to at least one of the level and the type of the second device; determining the bandwidth of the target channel from the value range of the bandwidth of the target channel; determining a subcarrier interval of the target channel; and determining the number of subcarriers of the target channel according to the bandwidth of the target channel and the subcarrier interval of the target channel. determining, by the first device, a value range of the bandwidth of the target channel according to at least one of the level and the type of the second device; determining the bandwidth of the target channel from the value range of the bandwidth of the target channel; determining a subcarrier interval of the target channel; and determining the number of subcarriers of the target channel according to the bandwidth of the target channel and the subcarrier interval of the target channel.
Agricultural and/or horticultural greenhouse for cultivating crops therein, wherein the greenhouse is provided with a ventilation system comprising air displacing means for drawing in air in the upper part of the greenhouse, and wherein the ventilation system is adapted to displace the indrawn air in at least substantially vertical direction in the direction of the lower part of the greenhouse, wherein the ventilation system also comprises at least one substantially tubular air duct for guiding the indrawn air from the upper part of the greenhouse in the direction of the lower part thereof, characterized in that the air duct is arranged downstream of the air displacing means.
Process for preparing polyisocyanates containing less than 50 ppm of total volatile, aromatic, non-isocyanate- group-containing contaminants, the process involving a) reacting solutions of (i) polyamine(s) underlying the polyisocyanate(s) in an inert solvent with (ii) a solution of phosgene optionally in an inert solvent in a single stage or multi-stage reaction of phosgenation; b) separation of the excess phosgene and of the hydrogen chloride formed from the liquid reaction mixture obtained by a); c) separation of the solvent together with readily volatile compounds from the solution obtained in b) by evaporation; and recovery of the product as evaporation residue which is then optionally subjected to a further process of distillation; d) recovery of a solvent containing volatile compound(s) by condensation of the vapors obtained in c) and reuse of part of the condensate for the preparation of amine solution (i) and optionally of another part of the condensate for the preparation of phosgene solution (ii); e) removal of a solvent stream enriched in volatile, aromatic, non-NCO contaminants from the polyisocyanate production process for further treatment or destruction. a) reacting solutions of (i) polyamine(s) underlying the polyisocyanate(s) in an inert solvent with (ii) a solution of phosgene optionally in an inert solvent in a single stage or multi-stage reaction of phosgenation; b) separation of the excess phosgene and of the hydrogen chloride formed from the liquid reaction mixture obtained by a); c) separation of the solvent together with readily volatile compounds from the solution obtained in b) by evaporation; and recovery of the product as evaporation residue which is then optionally subjected to a further process of distillation; d) recovery of a solvent containing volatile compound(s) by condensation of the vapors obtained in c) and reuse of part of the condensate for the preparation of amine solution (i) and optionally of another part of the condensate for the preparation of phosgene solution (ii); e) removal of a solvent stream enriched in volatile, aromatic, non-NCO contaminants from the polyisocyanate production process for further treatment or destruction.
A ring-opened copolymer comprising structural units derived from a norbornene compound represented by General Formula below and structural units derived from cyclopentene, wherein relative to the total repeating structural units in the ring-opened copolymer, the proportion of the structural units derived from a norbornene compound is 25 to 90 wt%, and the proportion of the structural units derived from cyclopentene is 10 to 75 wt%, the weight average molecular weight of the ring-opened copolymer is 100,000 to 1,000,000, and the cis/trans ratio of the ring-opened copolymer is 0/100 to 50/50, wherein R 1 to R 4 are each a hydrogen atom, a linear hydrocarbon group having 1 to 20 carbon atoms, or a substituent containing a halogen atom, a silicon atom, an oxygen atom, or a nitrogen atom, R 1 to R 4 are not linked together so that R 1 to R 4 do not form a ring and "m" is 0, and wherein the ring-opened copolymer has a glass transition temperature of -70 to 10°C. wherein relative to the total repeating structural units in the ring-opened copolymer, the proportion of the structural units derived from a norbornene compound is 25 to 90 wt%, and the proportion of the structural units derived from cyclopentene is 10 to 75 wt%, the weight average molecular weight of the ring-opened copolymer is 100,000 to 1,000,000, and the cis/trans ratio of the ring-opened copolymer is 0/100 to 50/50, wherein R 1 to R 4 are each a hydrogen atom, a linear hydrocarbon group having 1 to 20 carbon atoms, or a substituent containing a halogen atom, a silicon atom, an oxygen atom, or a nitrogen atom, R 1 to R 4 are not linked together so that R 1 to R 4 do not form a ring and "m" is 0, and wherein the ring-opened copolymer has a glass transition temperature of -70 to 10°C.
A medical device for delivering a therapeutic agent to a tissue, the device comprising a layer overlying an exterior surface of the medical device, the layer comprising a therapeutic agent and an additive, wherein the additive comprises a hydrophilic part and a drug affinity part, wherein the drug affinity part is at least one of a hydrophobic part, a part that has an affinity to the therapeutic agent by hydrogen bonding, and a part that has an affinity to the therapeutic agent by van der Waals interactions, wherein the additive comprises a chemical compound and a surfactant, and wherein the chemical compound comprises a polyalcohol that has more than four hydroxyl groups, has three adjacent hydroxyl groups that in stereo-configuration are all on one side of the molecule, and has a melting point of 120°C or less.
Gas hearth, at least comprising - a combustion chamber, - gas supply means for supplying combustible gas into the combustion chamber to firebed-simulating means (12a-12d) positioned in the combustion chamber; - ignition means for igniting the combustible gas in the combustion chamber; - a flue-gas discharge duct connected to the combustion chamber for discharging combustion flue gases from the combustion chamber, said gas hearth being characterised in that it comprises - metering means (20, 40) which are arranged in the combustion chamber for metering a pyrotechnical additive into the flames of the burning combustible gas during operation. - a combustion chamber, - gas supply means for supplying combustible gas into the combustion chamber to firebed-simulating means (12a-12d) positioned in the combustion chamber; - ignition means for igniting the combustible gas in the combustion chamber; - a flue-gas discharge duct connected to the combustion chamber for discharging combustion flue gases from the combustion chamber, said gas hearth being characterised in that it comprises - metering means (20, 40) which are arranged in the combustion chamber for metering a pyrotechnical additive into the flames of the burning combustible gas during operation.
A beverage dispensing apparatus, including water inlet means, a cartridge containing different beverage ingredients and a beverage collecting unit for dispensing a beverage from said cartridge to a beverage container, characterized in that said beverage collecting unit comprises at least two separate dispensing means (5,7; 8,9) for separately dispensing different beverage ingredients from said cartridge.
Multilayered lustre pigments comprising a metallic substrate having an average thickness of greater than 0.15 to 3 μm and a plurality of layers, each of which completely surrounds the substrate, comprising at least one layer package consisting of i) a colourless dielectric layer comprising a material having a refractive index n ≤ 1.8 which has a layer thickness of greater than 150 and up to 1000 nm, and ii) a colourless dielectric layer comprising a material having a refractive index n > 1.8 which is TriO 2 in the rutile or anatase modification, ZrO 2, SiO, CeO 2, HeO 2, Pr 2 O 3, Y 2 O 3, Ta 2 O 5, ZnO, Ce 2 O 3, BiOCl or ZnS or a mixture thereof, and where the layer has a layer thickness of 30 to 500 nm, and a selectively or non-selectively absorbent layer, and where the layer package consists of a layer i) on the flake-form metallic substrate and a layer ii) applied thereto or of a layer ii) on the flake-form metallic substrate and a layer i) applied thereto. at least one layer package consisting of i) a colourless dielectric layer comprising a material having a refractive index n ≤ 1.8 which has a layer thickness of greater than 150 and up to 1000 nm, and ii) a colourless dielectric layer comprising a material having a refractive index n > 1.8 which is TriO 2 in the rutile or anatase modification, ZrO 2, SiO, CeO 2, HeO 2, Pr 2 O 3, Y 2 O 3, Ta 2 O 5, ZnO, Ce 2 O 3, BiOCl or ZnS or a mixture thereof, and where the layer has a layer thickness of 30 to 500 nm, and i) a colourless dielectric layer comprising a material having a refractive index n ≤ 1.8 which has a layer thickness of greater than 150 and up to 1000 nm, and ii) a colourless dielectric layer comprising a material having a refractive index n > 1.8 which is TriO 2 in the rutile or anatase modification, ZrO 2, SiO, CeO 2, HeO 2, Pr 2 O 3, Y 2 O 3, Ta 2 O 5, ZnO, Ce 2 O 3, BiOCl or ZnS or a mixture thereof, and where the layer has a layer thickness of 30 to 500 nm, and a selectively or non-selectively absorbent layer, and where the layer package consists of a layer i) on the flake-form metallic substrate and a layer ii) applied thereto or of a layer ii) on the flake-form metallic substrate and a layer i) applied thereto.