mhurhangee/ep-ind-claims huggingface dataset:
A method of fabricating an organic device, comprising: depositing a first organic layer onto a patterned, soft elastomeric stamp, characterised in that the stamp comprises an outer layer of a stiff material attached to a soft inner layer; depositing one or more additional organic layers over the first organic layer; and transferring the first organic layer and the one or more additional organic layers from the patterned, soft elastomeric stamp onto a substrate. depositing a first organic layer onto a patterned, soft elastomeric stamp, characterised in that the stamp comprises an outer layer of a stiff material attached to a soft inner layer; depositing one or more additional organic layers over the first organic layer; and transferring the first organic layer and the one or more additional organic layers from the patterned, soft elastomeric stamp onto a substrate.
An R-T-M-X-N thermoelectric conversion material comprising a structure expressed by the formula: R r T t-m M m X x-n N n (0<r≤1, 3≤t-m≤5, 0≤m≤0.5, 10≤x≤15, 0≤n≤2), where R represents three or more elements selected from the group consisting of rare earth elements, alkali metal elements, alkaline-earth metal elements, Ti of group 4 elements, and group 13 elements, T represents at least one element selected from Fe and Co, M represents at least one element selected from the group consisting of Ru, Os, Rh, Ir, Ni, Pd, Pt, Cu, Ag, and Au, X represents at least one element selected from the group consisting of P, As, Sb, and Bi, and N represents at least one element selected from Se and Te.
A low complexity method for converting image interference caused in multi-carrier wireless systems into diversity gain, said multi-carrier wireless system comprising: - a multi-carrier single-antenna transmitter; - a multi-carrier single-antenna receiver; - wherein the transmitter comprises an encoder; and - wherein the receiver comprises a combiner configured to process the symbols received in image subcarriers in two consecutive time slots wherein said transmitter and receiver cause said image interference, the method being characterized in that it comprises the steps of - encoding the modulated symbols at the transmitter, and - combining signals received at image subcarriers at the receiver, wherein said steps are carried out in that order, further wherein i) transmission information encoding is performed during both channel estimation and data transmission phases; ii) the combiner which is incorporated at the receiver is used during the data transmission phase; iii) a conventional maximum likelihood detector MLD is used for symbol estimation, whereas the combiners output is an in-phase and quadrature imbalance IQI-free signal, thereby providing gain diversity order of 2. - a multi-carrier single-antenna transmitter; - a multi-carrier single-antenna receiver; - wherein the transmitter comprises an encoder; and - wherein the receiver comprises a combiner configured to process the symbols received in image subcarriers in two consecutive time slots wherein said transmitter and receiver cause said image interference, - encoding the modulated symbols at the transmitter, and - combining signals received at image subcarriers at the receiver, wherein said steps are carried out in that order, i) transmission information encoding is performed during both channel estimation and data transmission phases; ii) the combiner which is incorporated at the receiver is used during the data transmission phase; iii) a conventional maximum likelihood detector MLD is used for symbol estimation, whereas the combiners output is an in-phase and quadrature imbalance IQI-free signal, thereby providing gain diversity order of 2.
A method for receiving, by a user equipment, UE, downlink signals, the method comprising: receiving, by the UE, semi-persistent scheduling, SPS, configuration information on N SPS resource configurations, where N is an integer larger than 1; receiving, by the UE, an SPS command to activate or deactivate each of multiple SPS resource configurations among the N SPS resource configurations; transmitting, by the UE, SPS status information on the N SPS resource configurations in response to the SPS command; and performing, by the UE, downlink reception or uplink transmission in an SPS resource corresponding to an SPS resource configuration among activated SPS resource configurations, wherein the SPS command includes information indicating each of the multiple SPS resource configurations and information indicating whether a corresponding SPS resource configuration is activated or deactivated, wherein the SPS status information includes information on whether the N SPS resource configurations are active or not in the UE, respectively, wherein the SPS status information is transmitted on a first SPS resource of a union of the activated SPS resource configurations. receiving, by the UE, semi-persistent scheduling, SPS, configuration information on N SPS resource configurations, where N is an integer larger than 1; receiving, by the UE, an SPS command to activate or deactivate each of multiple SPS resource configurations among the N SPS resource configurations; transmitting, by the UE, SPS status information on the N SPS resource configurations in response to the SPS command; and performing, by the UE, downlink reception or uplink transmission in an SPS resource corresponding to an SPS resource configuration among activated SPS resource configurations, wherein the SPS command includes information indicating each of the multiple SPS resource configurations and information indicating whether a corresponding SPS resource configuration is activated or deactivated, wherein the SPS status information includes information on whether the N SPS resource configurations are active or not in the UE, respectively, wherein the SPS status information is transmitted on a first SPS resource of a union of the activated SPS resource configurations.
A process for hydrodesulfurizing an olefinic naphtha boiling range feedstream and retaining a substantial amount of the olefins, which feedstream contains a substantial amount of organically bound sulfur and olefins, which process comprises: a) hydrodesulfurizing said feedstream in a first reaction zone operated at hydrodesulfurization conditions and in the presence of hydrogen and a first hydrodesulfurization catalyst comprised of 1 to 30 wt.% of CoO, 5 to 50 wt.% of MoO 3, and a median pore diameter of 60Å to 200Å, said first reaction zone operated at hydrodesulfurizing conditions such that from 20% to 99% of the sulfur reduction of said feedstream occurs in this first reaction zone, thereby resulting in a partially desulfurized product stream; and b) hydrodesulfurizing the partially desulfurized product stream of step a) above in a second reaction zone operated at hydrodesulfurizing conditions containing a second hydrodesulfurization catalyst comprising 0.1 to 27 wt.% of CoO, 1 to 45 wt.% of MoO 3, and a median pore diameter of 60Å to 200Å, wherein said second hydrodesulfurization catalyst has a metal oxides loading such that each metal oxide is present in an amount of 10 to 95% less than the amount of the same metal oxide present on said first hydrodesulfurization catalyst and has a median pore diameter equal to or greater than said first hydrodesulfurization catalyst. a) hydrodesulfurizing said feedstream in a first reaction zone operated at hydrodesulfurization conditions and in the presence of hydrogen and a first hydrodesulfurization catalyst comprised of 1 to 30 wt.% of CoO, 5 to 50 wt.% of MoO 3, and a median pore diameter of 60Å to 200Å, said first reaction zone operated at hydrodesulfurizing conditions such that from 20% to 99% of the sulfur reduction of said feedstream occurs in this first reaction zone, thereby resulting in a partially desulfurized product stream; and b) hydrodesulfurizing the partially desulfurized product stream of step a) above in a second reaction zone operated at hydrodesulfurizing conditions containing a second hydrodesulfurization catalyst comprising 0.1 to 27 wt.% of CoO, 1 to 45 wt.% of MoO 3, and a median pore diameter of 60Å to 200Å, wherein said second hydrodesulfurization catalyst has a metal oxides loading such that each metal oxide is present in an amount of 10 to 95% less than the amount of the same metal oxide present on said first hydrodesulfurization catalyst and has a median pore diameter equal to or greater than said first hydrodesulfurization catalyst.
A method for proximity discovery between a source device and one or more target devices wherein the source device and the one or more target devices are configured to be communicatively connected to a network, the method comprising the steps of: receiving in the source device from a server in the network a first data comprising an identifier wherein the identifier is a temporary broadcast identifier uniquely identifying the source device; receiving in the target device from the server a second data comprising a first representation of the identifier of the source device to enable the target device to associate the identifier to the source device; broadcasting by the source device a signal comprising a second representation of the identifier of the source device; receiving in the target device the signal; and comparing in the target device the first representation of the identifier with the second representation of the identifier to obtain a comparison result for establishing a successful proximity discovery. receiving in the source device from a server in the network a first data comprising an identifier wherein the identifier is a temporary broadcast identifier uniquely identifying the source device; receiving in the target device from the server a second data comprising a first representation of the identifier of the source device to enable the target device to associate the identifier to the source device; broadcasting by the source device a signal comprising a second representation of the identifier of the source device; receiving in the target device the signal; and comparing in the target device the first representation of the identifier with the second representation of the identifier to obtain a comparison result for establishing a successful proximity discovery.
Rear structure of a motor vehicle (101; 201), the said structure comprising: - a floor (109; 209) with a rear area (109A; 209A) for the purpose of receiving a rear seat, the area being raised by forming an overpass (109B; 209B) in relation to an area of the said floor (109; 209) adjacent to the front; - two rear structural profiles; 207) extending lengthwise towards the rear of the floor (109A; 209A) since the overshoot (109B; 209B); characterized as structure (101; 201) also includes: - two reinforcements (115; 215) on the two structural profiles (107; 207), respectively; each of the said reinforcements (115; 215) attached to the profile (107; 207) corresponding to the floor; 209), at the level of the spring (109B; 209B), and configured to limit a trend of the said profile (107; 207) to rotate vertically upward in the event of a rear impact. - a floor (109; 209) with a rear area (109A; 209A) for the purpose of receiving a rear seat, the area being raised by forming an overpass (109B; 209B) in relation to an area of the said floor (109; 209) adjacent to the front; - two rear structural profiles; 207) extending lengthwise towards the rear of the floor (109A; 209A) since the overshoot (109B; 209B); - two reinforcements (115; 215) on the two structural profiles (107; 207), respectively; each of the said reinforcements (115; 215) attached to the profile (107; 207) corresponding to the floor; 209), at the level of the spring (109B; 209B), and configured to limit a trend of the said profile (107; 207) to rotate vertically upward in the event of a rear impact.
A surgical tool (1, 1a) for removing an acetabular ball from an acetabular cup wherein the acetabular ball is affixed by means of a Morse taper to a stem extending from a concave surface of the acetabular cup characterized in that the tool comprises: a jaw shaft having two or more than two jaws disposed at a distal end thereof, each jaw being pivotable about an axis perpendicular to a central axis of the jaw shaft and the jaw shaft having a threaded proximal end; an outer shaft into which the jaw shaft is concentrically disposed, the outer shaft having a bell shaped element affixed to a distal end thereof, the bell shaped element being open at its distal end and being internally sized to cause the jaws to close when the jaws are drawn into the bell shaped element by proximal movement of the jaw shaft toward a proximal end of the tool (1,1a) and the bell shaped element having a circumferential bell edge at its distal end sized to engage a circumferential cup edge of the acetabular cup; and a jaw shaft nut (9,9a) threaded onto the proximal end of the jaw shaft wherein tightening of the nut (9,9a) exerts pressure in a distal direction on the proximal end of the outer shaft causing the jaw shaft to move proximally relative to the outer shaft and thereby causing the jaws to exert a pulling force on the acetabular ball while causing the circumferential bell edge of the bell shaped element to exert an opposing force on the circumferential cup edge of the acetabular cup until sufficient tightening of the jaw shaft nut (9,9a) causes the acetabular ball to be released from the stem. a jaw shaft having two or more than two jaws disposed at a distal end thereof, each jaw being pivotable about an axis perpendicular to a central axis of the jaw shaft and the jaw shaft having a threaded proximal end; an outer shaft into which the jaw shaft is concentrically disposed, the outer shaft having a bell shaped element affixed to a distal end thereof, the bell shaped element being open at its distal end and being internally sized to cause the jaws to close when the jaws are drawn into the bell shaped element by proximal movement of the jaw shaft toward a proximal end of the tool (1,1a) and the bell shaped element having a circumferential bell edge at its distal end sized to engage a circumferential cup edge of the acetabular cup; and a jaw shaft nut (9,9a) threaded onto the proximal end of the jaw shaft wherein tightening of the nut (9,9a) exerts pressure in a distal direction on the proximal end of the outer shaft causing the jaw shaft to move proximally relative to the outer shaft and thereby causing the jaws to exert a pulling force on the acetabular ball while causing the circumferential bell edge of the bell shaped element to exert an opposing force on the circumferential cup edge of the acetabular cup until sufficient tightening of the jaw shaft nut (9,9a) causes the acetabular ball to be released from the stem.
A printing module (1, 2) of a rapid prototyping apparatus comprising: a printing platform (10, 20) having a frame (101, 201) and a driving shaft (102, 202), wherein the driving shaft (102, 202) is installed on the frame (101, 201); a carrying seat (11, 22) penetrated by the driving shaft (102, 202) and disposed on the driving shaft (102, 202); and at least two modular ink cartridges (22, 22X, 22Y, 42, 42X, 42Y) disposed on the carrying seat (11, 22); wherein each of the modular ink cartridges (22, 22X, 22Y, 42, 42X, 42Y) has a case body (221, 221x, 221y, 421); characterized in that each of the modular ink cartridges has three ink chambers (225, 226, 227, 225x, 226x, 227x, 225y, 226y, 227y, 425, 426, 427, 425x, 426x, 427x, 425y, 426y, 427y), which are divided within the case body (221, 221x, 221y, 421) for receiving different print liquids, respectively, wherein the case bodies (221, 221x, 221y, 421) of the at least two modular ink cartridges (22, 22X, 22Y, 42, 42X, 42Y) contain the same print liquid in at least one ink chamber for performing the rapid prototyping printing process, the print liquid contained in one of the three ink chambers (225, 226, 227, 225x, 226x, 227x, 225y, 226y, 227y, 425, 426, 427, 425x, 426x, 427x, 425y, 426y, 427y) of each of the at least two modular ink cartridges (22, 22X, 22Y, 42, 42X, 42Y) is a liquid binder, and the print liquids contained in the other two of the three ink chambers (225, 226, 227, 225x, 226x, 227x, 225y, 226y, 227y, 425, 426, 427, 425x, 426x, 427x, 425y, 426y, 427y) of each of the at least two modular ink cartridges (22, 22X, 22Y, 42, 42X, 42Y) are color inks. a printing platform (10, 20) having a frame (101, 201) and a driving shaft (102, 202), wherein the driving shaft (102, 202) is installed on the frame (101, 201); a carrying seat (11, 22) penetrated by the driving shaft (102, 202) and disposed on the driving shaft (102, 202); and at least two modular ink cartridges (22, 22X, 22Y, 42, 42X, 42Y) disposed on the carrying seat (11, 22); wherein each of the modular ink cartridges (22, 22X, 22Y, 42, 42X, 42Y) has a case body (221, 221x, 221y, 421); characterized in that each of the modular ink cartridges has three ink chambers (225, 226, 227, 225x, 226x, 227x, 225y, 226y, 227y, 425, 426, 427, 425x, 426x, 427x, 425y, 426y, 427y), which are divided within the case body (221, 221x, 221y, 421) for receiving different print liquids, respectively, wherein the case bodies (221, 221x, 221y, 421) of the at least two modular ink cartridges (22, 22X, 22Y, 42, 42X, 42Y) contain the same print liquid in at least one ink chamber for performing the rapid prototyping printing process, the print liquid contained in one of the three ink chambers (225, 226, 227, 225x, 226x, 227x, 225y, 226y, 227y, 425, 426, 427, 425x, 426x, 427x, 425y, 426y, 427y) of each of the at least two modular ink cartridges (22, 22X, 22Y, 42, 42X, 42Y) is a liquid binder, and the print liquids contained in the other two of the three ink chambers (225, 226, 227, 225x, 226x, 227x, 225y, 226y, 227y, 425, 426, 427, 425x, 426x, 427x, 425y, 426y, 427y) of each of the at least two modular ink cartridges (22, 22X, 22Y, 42, 42X, 42Y) are color inks.
A method of site specific photo crosslinking an immunoglobulin, the method comprising: a) providing an immunoglobulin, having a conserved nucleotide binding site located away from the antigen binding site of the F V domain of the immunoglobulin; b) mixing a hetero-bifunctional photo-reactive crosslinker with the immunoglobulin to provide a mixture of said immunoglobulin and crosslinker, the hetero-bifunctional photo-reactive crosslinker having at least one photo reactive heterocyclic functional group that interacts with the conserved nucleotide binding site of the immunoglobulin, wherein the at least one heterocyclic functional group is an indole, and has at least one non-photo reactive functional group; c) exposing the mixture to ultra-violet light, such that the at least one photo reactive functional group of the hetero-bifunctional photo-reactive crosslinker becomes covalently coupled to the nucleotide binding site of the immunoglobulin; wherein the concentration of hetero-bifunctional photo-reactive crosslinker in the mixture is 100-400 μM and the ratio of the immunoglobulin to the hetero-bifunctional photo-reactive crosslinker in the mixture is 1:10 to 1:20. a) providing an immunoglobulin, having a conserved nucleotide binding site located away from the antigen binding site of the F V domain of the immunoglobulin; b) mixing a hetero-bifunctional photo-reactive crosslinker with the immunoglobulin to provide a mixture of said immunoglobulin and crosslinker, the hetero-bifunctional photo-reactive crosslinker having at least one photo reactive heterocyclic functional group that interacts with the conserved nucleotide binding site of the immunoglobulin, wherein the at least one heterocyclic functional group is an indole, and has at least one non-photo reactive functional group; c) exposing the mixture to ultra-violet light, such that the at least one photo reactive functional group of the hetero-bifunctional photo-reactive crosslinker becomes covalently coupled to the nucleotide binding site of the immunoglobulin;
A nutritional composition for an infant or child comprising a. a lipid or fat; b. a protein source; c. at least 5 mg/100 kcal of a source of long chain polyunsaturated fatty acids comprising docosahexaenoic acid; and d. at least 0.2 mg/100 kcal of a prebiotic composition, wherein the prebiotic composition comprises a plurality of oligosaccharides such that the overall fermentation rate profile of the prebiotic composition provides an increased population of beneficial bacteria in the human gut over an extended period of time, wherein the prebiotic composition comprises galacto-oligosaccharide and polydextrose; and e. between 0.015 and 0.1 (pg/μg) ppm of TGF-ß. a. a lipid or fat; b. a protein source; c. at least 5 mg/100 kcal of a source of long chain polyunsaturated fatty acids comprising docosahexaenoic acid; and d. at least 0.2 mg/100 kcal of a prebiotic composition, wherein the prebiotic composition comprises a plurality of oligosaccharides such that the overall fermentation rate profile of the prebiotic composition provides an increased population of beneficial bacteria in the human gut over an extended period of time, wherein the prebiotic composition comprises galacto-oligosaccharide and polydextrose; and e. between 0.015 and 0.1 (pg/μg) ppm of TGF-ß.
A method of making xylene, the method comprising: feeding heavy reformate comprising at least 15 wt. % methylethylbenzene and at least 50 wt. % trimethylbenzene to a reactor, the reactor comprising a plurality of particles of the composite zeolite catalyst, where each composite zeolite catalyst particle comprises both ZSM-5 and Mordenite zeolites and has an intergrowth region of interwoven ZSM-5 and Mordenite crystals in intimate contact at the nanometer scale characterized by an XRD curve having signature peaks at 6.6±0.2, 7.9±0.2, 8.8±0.2, 9.8±0.2, 13.6±0.2, 19.7±0.2, 22.5±0.2, 23.1±0.2, 23.9±0.2, 25.8±0.2, 26.4±0.2, 27.7±0.2 degrees; and producing xylene by simultaneously performing transalkylation and dealkylation of the heavy reformate in the reactor, where each composite zeolite catalyst particle is able to simultaneously catalyze both the transalkylation and dealkylation reactions, where the molar ratio of silicon to aluminum (Si/Al) in the zeolite composite catalyst is from 5:1 to 30:1 and where the composite zeolite catalyst further comprises 0.01 wt. % to 20 wt. % of rhenium impregnated thereon. feeding heavy reformate comprising at least 15 wt. % methylethylbenzene and at least 50 wt. % trimethylbenzene to a reactor, the reactor comprising a plurality of particles of the composite zeolite catalyst, where each composite zeolite catalyst particle comprises both ZSM-5 and Mordenite zeolites and has an intergrowth region of interwoven ZSM-5 and Mordenite crystals in intimate contact at the nanometer scale characterized by an XRD curve having signature peaks at 6.6±0.2, 7.9±0.2, 8.8±0.2, 9.8±0.2, 13.6±0.2, 19.7±0.2, 22.5±0.2, 23.1±0.2, 23.9±0.2, 25.8±0.2, 26.4±0.2, 27.7±0.2 degrees; and producing xylene by simultaneously performing transalkylation and dealkylation of the heavy reformate in the reactor, where each composite zeolite catalyst particle is able to simultaneously catalyze both the transalkylation and dealkylation reactions, where the molar ratio of silicon to aluminum (Si/Al) in the zeolite composite catalyst is from 5:1 to 30:1 and where the composite zeolite catalyst further comprises 0.01 wt. % to 20 wt. % of rhenium impregnated thereon.