mhurhangee/ep-ind-claims huggingface dataset:
A method for conjugating a peptide displayed on a phage display system to a molecular scaffold, comprising the steps of: (a) combining polypeptides displayed on a phage display system with a purification resin such that the phage display system is bound to the resin and treating the bound phage display system with a reducing agent; (b) exposing the bound phage display system to the molecular scaffold; (c) removing unreacted molecular scaffold from the bound phage display system; and (d) eluting the phage display system from the purification resin. (a) combining polypeptides displayed on a phage display system with a purification resin such that the phage display system is bound to the resin and treating the bound phage display system with a reducing agent; (b) exposing the bound phage display system to the molecular scaffold; (c) removing unreacted molecular scaffold from the bound phage display system; and (d) eluting the phage display system from the purification resin.
A human milk oligosaccharide for use in - permitting reintroduction of fermentable oligosaccharides, disaccharides, monosaccharides and polyols (FODMAPs) into the diet without inducing gastrointestinal symptoms in the human; and/or - prolonging gastrointestinal symptom reduction in a human tapering off or terminating a low-FODMAP diet in the dietary management of a human consuming a low-FODMAP diet. - permitting reintroduction of fermentable oligosaccharides, disaccharides, monosaccharides and polyols (FODMAPs) into the diet without inducing gastrointestinal symptoms in the human; and/or - prolonging gastrointestinal symptom reduction in a human tapering off or terminating a low-FODMAP diet
An apparatus, comprising: a photovoltaic device having a quantum dot array structure configured to generate charge carriers from incident photons; and an electric field generator comprising a pair of electrodes, wherein the QD array structure is disposed between the pair of electrodes, the electric field generator is configured to apply a bias voltage to the QD array structure via the pair of electrodes to cause the charge carriers to transition through a plurality of discrete energy states formed within a corresponding one of a conductive band and a valence band of the QD array structure, and the QD array structure is configured to generate a number of emitted photons greater than a number of the incident photons by a factor of at least 2 based on each transition between the plurality of discrete energy states; and a rectifying antenna operable to generate a direct current from the emitted photons, wherein the rectifying antenna is in direct physical contact with an upper electrode of the pair of electrodes. a photovoltaic device having a quantum dot array structure configured to generate charge carriers from incident photons; and an electric field generator comprising a pair of electrodes, wherein the QD array structure is disposed between the pair of electrodes, the electric field generator is configured to apply a bias voltage to the QD array structure via the pair of electrodes to cause the charge carriers to transition through a plurality of discrete energy states formed within a corresponding one of a conductive band and a valence band of the QD array structure, and the QD array structure is configured to generate a number of emitted photons greater than a number of the incident photons by a factor of at least 2 based on each transition between the plurality of discrete energy states; and a rectifying antenna operable to generate a direct current from the emitted photons, wherein the rectifying antenna is in direct physical contact with an upper electrode of the pair of electrodes.
An interaction system comprising - at least one detector being adapted to detect an action of at least one viewer showing interest in displayed items and - a controller being adapted to control a light and sound system in response to information received from the at least one detector such that a soundscape and lighting adapted to the detected action is generated. - at least one detector being adapted to detect an action of at least one viewer showing interest in displayed items and - a controller being adapted to control a light and sound system in response to information received from the at least one detector such that a soundscape and lighting adapted to the detected action is generated.
A transmitter that is capable of communicating with a management apparatus via a network and is configured to output a plurality of sound waves in a plurality of different directions, the transmitter comprising: a first sound wave output unit (403a, 503a) configured to output a first sound wave including first unique information in a first output direction of the plurality of different directions; a second sound wave output unit (403b, 503b) configured to output a second sound wave including second unique information that differs from the first unique information in a second output direction that differs from the first output direction; and a sound wave control unit configured to individually control the first sound wave output by the first sound wave output unit (403a, 503a) and the second sound wave output by the second sound wave output unit (403b, 503b) based on a request from the management apparatus. a first sound wave output unit (403a, 503a) configured to output a first sound wave including first unique information in a first output direction of the plurality of different directions; a second sound wave output unit (403b, 503b) configured to output a second sound wave including second unique information that differs from the first unique information in a second output direction that differs from the first output direction; and a sound wave control unit configured to individually control the first sound wave output by the first sound wave output unit (403a, 503a) and the second sound wave output by the second sound wave output unit (403b, 503b) based on a request from the management apparatus.
An electronic device comprising a micro-electromechanical systems (MEMS) element useable as a capacitor, which MEMS element comprises a first electrode and a second electrode, that is part of a movable element and movable towards and from the first electrode between a first and a second position, and that is separated from the first electrode by a gap in its first position, which movable element comprises a mechanical layer and an intermediate layer (131,132,133) in which the second electrode is defined, wherein the second electrode is constituted by a plurality of sections (131,132,133) in the intermediate layer, each of which is mechanically connected by a separate vertical interconnect (121,122,123) to the mechanical layer, in that the mechanical layer comprises a metal, and in that the sections (131,132,133) of the intermediate layer comprise independent sections together defining a segmented electrode, characterized in that the device has a capacitance density in the second position, the vertical interconnects respectively have a smaller diameter than the section attached thereto in the intermediate layer, and an increased capacitance density in the second position is derived by segmentation of the second electrode.
A method of modifying a 3' terminal end of a nucleic acid with a substrate, the method comprising: forming a mixture comprising an A family polymerase, a substrate, a nucleic acid, and a reaction solution, wherein the A family polymerase is Polθ or an active fragment or variant thereof, and wherein the reaction solution comprises Mn 2+; incubating the mixture; and isolating a 3'-terminal end modified nucleic acid. forming a mixture comprising an A family polymerase, a substrate, a nucleic acid, and a reaction solution, wherein the A family polymerase is Polθ or an active fragment or variant thereof, and wherein the reaction solution comprises Mn 2+; incubating the mixture; and isolating a 3'-terminal end modified nucleic acid.
A wellbore servicing system comprising: a centralizer comprising: a first body portion; a second body portion; a plurality of bow springs connecting the first body portion to the second body portion; and a window (208, 702) disposed in the first body portion; and a wellbore tubular disposed longitudinally within the first body portion, the second body portion, and the plurality of bow springs; and an upset (304, 516, 518, 706, 708) disposed on the surface of the wellbore tubular and within the window (208, 702), characterized in that the size of the upset (304, 516, 518, 706, 708) and the window (208, 702) within which the upset (304, 516, 518, 706, 708) is disposed is chosen to allow the first body portion to move rotationally relative to the wellbore tubular upon compression or decompression of the bow springs. a centralizer comprising: a first body portion; a second body portion; a plurality of bow springs connecting the first body portion to the second body portion; and a window (208, 702) disposed in the first body portion; and a first body portion; a second body portion; a plurality of bow springs connecting the first body portion to the second body portion; and a window (208, 702) disposed in the first body portion; and a wellbore tubular disposed longitudinally within the first body portion, the second body portion, and the plurality of bow springs; and an upset (304, 516, 518, 706, 708) disposed on the surface of the wellbore tubular and within the window (208, 702), characterized in that the size of the upset (304, 516, 518, 706, 708) and the window (208, 702) within which the upset (304, 516, 518, 706, 708) is disposed is chosen to allow the first body portion to move rotationally relative to the wellbore tubular upon compression or decompression of the bow springs.
A rail saw module comprising: a frame configured to longitudinally span a length of a railway rail; a cold saw with a cutting path configured to cut the railway rail transversely, wherein the cold saw is coupled to the frame; at least one rail alignment clamp configured to grip the railway rail within 300 mm of the cutting path, wherein the at least one rail alignment clamp is coupled to the frame; a feed actuator configured to drive the cold saw along the cutting path, wherein the feed actuator is coupled to the frame; and a module coupling element configured to selectively couple to a mating module coupling element of at least one of an articulated arm and a tool adapter, wherein the module coupling element is coupled to the frame; characterized by a pair of spreading clamps configured to apply longitudinal tension to the railway rail, with a first spreading clamp of the pair configured to grip the railway rail on one side of the cutting path, and a second spreading clamp of the pair configured to grip the railway rail on an opposite side of the cutting path. a frame configured to longitudinally span a length of a railway rail; a cold saw with a cutting path configured to cut the railway rail transversely, wherein the cold saw is coupled to the frame; at least one rail alignment clamp configured to grip the railway rail within 300 mm of the cutting path, wherein the at least one rail alignment clamp is coupled to the frame; a feed actuator configured to drive the cold saw along the cutting path, wherein the feed actuator is coupled to the frame; and a module coupling element configured to selectively couple to a mating module coupling element of at least one of an articulated arm and a tool adapter, wherein the module coupling element is coupled to the frame; characterized by a pair of spreading clamps configured to apply longitudinal tension to the railway rail, with a first spreading clamp of the pair configured to grip the railway rail on one side of the cutting path, and a second spreading clamp of the pair configured to grip the railway rail on an opposite side of the cutting path.
A powder composition comprising zinc oxide and a silicone surfactant comprising a co-modified organopolysiloxane represented by the following general formula, having more than 30 wt% of content of hydrocarbon group of R 2 having from 6 to 30 carbons which is calculated by weight ratio of R 2 group to total molecular weight of the co-modified organopolysiloxane represented by said structural formula: wherein, in the general formula, R 1 is a monovalent hydrocarbon group having from 1 to 30 carbons, or a hydrogen atom; R 2 is a straight or branched monovalent hydrocarbon group having from 6 to 30 carbons; and Q is a hydrophilic group consisting of a polyoxyalkylene group represented by structural formula below: -(C 2 H 4 O) r -(C 3 H 6 O) s -R 3 wherein, R 3 is a hydrogen atom or an alkyl group having from 1 to 4 carbons, r is a number in a range of 0 to 100, s is a number in a range of 0 to 50, and r+s is a number in a range of 3 to 100; R is a group selected from R 1, R 2, and Q; provided that, when n3=0, at least one R is Q; (n1+n2+n3) is a number in a range of 40 to 75; n1 is a number in a range of 1 to 65; n2 is a number in a range of 3 to 20; and n3 is a number in a range of 0 to 5. wherein, in the general formula, R 1 is a monovalent hydrocarbon group having from 1 to 30 carbons, or a hydrogen atom; R 2 is a straight or branched monovalent hydrocarbon group having from 6 to 30 carbons; and Q is a hydrophilic group consisting of a polyoxyalkylene group represented by structural formula below: -(C 2 H 4 O) r -(C 3 H 6 O) s -R 3 wherein, R 3 is a hydrogen atom or an alkyl group having from 1 to 4 carbons, r is a number in a range of 0 to 100, s is a number in a range of 0 to 50, and r+s is a number in a range of 3 to 100; R is a group selected from R 1, R 2, and Q; provided that, when n3=0, at least one R is Q; (n1+n2+n3) is a number in a range of 40 to 75; n1 is a number in a range of 1 to 65; n2 is a number in a range of 3 to 20; and n3 is a number in a range of 0 to 5.
Modulating circuit breaking phase-meter adapted to regulate and transmit electric power from an electric energy dispensing system to at least one user (U1, U2,..., A), characterized in that it comprises at least one precision clock (C1, C2,..., Cn) locked to at least one electric current phase of said electric energy dispensing system and at least one power modulator (T1, T2,..., Tn) cooperating with said precision clock (C1, C2,..., Cn) at least for limiting an electric load supplied to said user (U1, U2,..., A).
Carriage arrangement (10, 100) for a sliding leaf of a sliding door or a sliding window, comprising a carriage (12, 112) that is movable relative to a slide rail (32, 132) and an arm operator for connecting the carriage (10, 100) to the sliding leaf, the arm operator having a deployment arm (16, 116) and a control arm (18, 118) in order to move the carriage arrangement (10, 100) in a closing movement from a placement position to a closed position, the control arm (18, 118) being rotatably mounted on the deployment arm (16, 116) and being connected to the carriage (12, 112) via a control pin (64, 164) of the carriage arrangement (10, 100) guided in a guide slot of the carriage arrangement (10, 100), the control arm (18, 118), in the region of its rotational mounting on the deployment arm (16, 116), abutting, in portions, a spring (40, 140) of the carriage arrangement (10, 100) in the placement position, which spring is arranged or formed on the deployment arm (16, 116) so as to hold the control pin (64, 164), in the placement position, indirectly in a placement portion of the guide slot, the control arm (18, 118) having a spring recess (44, 144) for extending its swivel angle on the deployment arm (16, 116) in the region of its rotational mounting on the deployment arm (16, 116), in which recess the spring (40, 140) engages in the placement position in portions, and the spring (40, 140) is arranged in a spring slot in the deployment arm (16, 116) in portions, the control arm (18, 118) having a contact projection (38, 138) in the region of its rotational mounting on the deployment arm (16, 116), which projection abuts the spring (40, 140) in the placement position in portions, the spring (40, 140) being in the form of a leaf spring, characterized in that the control arm (18, 118) is arranged at least in portions in the closed position in a stepped control arm recess (56, 156) on an outer side (58, 158) of the deployment arm (16, 116), the control arm being straight in design.
Production system for the automated assembly of vehicle components, in particular for the automated assembly of structural components of an aircraft or spacecraft, the production system comprising: vehicle components being provided with status sensors, each status sensor being configured to determine status data of the respective vehicle component; positioner units being configured to grip the respectively associated vehicle component at mounting points and move the respectively associated vehicle component into an assembly position; a position-measurement system being configured to determine the assembly position of each vehicle component; force sensors being configured to determine at least one of reaction forces and moments of each gripped vehicle component at the mounting points in the assembly position; and a computer-based control system being in data communication with the status sensors of the vehicle components, the positioner units, the position-measurement system and the force sensors, and being configured to control the positioner units based on the determined status data, the determined assembly positions and the determined reaction forces and moments of the vehicle components. vehicle components being provided with status sensors, each status sensor being configured to determine status data of the respective vehicle component; positioner units being configured to grip the respectively associated vehicle component at mounting points and move the respectively associated vehicle component into an assembly position; a position-measurement system being configured to determine the assembly position of each vehicle component; force sensors being configured to determine at least one of reaction forces and moments of each gripped vehicle component at the mounting points in the assembly position; and a computer-based control system being in data communication with the status sensors of the vehicle components, the positioner units, the position-measurement system and the force sensors, and being configured to control the positioner units based on the determined status data, the determined assembly positions and the determined reaction forces and moments of the vehicle components.
An automatic dishwasher comprising: a tub having a bottom and at least partially defining an open face treating chamber; a base supporting the bottom of the tub and defining a mechanical area beneath the bottom of the tub; at least one sprayer (41, 42, 43, 44, 45, 46) emitting liquid into the treating chamber; a recirculation circuit fluidly coupling the tub to the at least one sprayer (41, 42, 43, 44, 45, 46); a drain circuit fluidly coupling the tub to a household drain; a pump assembly having a pump fluidly coupled to at least one of the recirculation or drain circuits and a motor driving the pump; a mounting bracket securing the pump assembly to the base; and a bracket axis defined along the mounting bracket; wherein the pump assembly is movably mounted so as to have at least one degree of freedom for movement along the bracket axis, characterized in that: the pump assembly comprises an outlet and the mounting bracket secures the outlet; the mounting bracket comprises an arm abutting the outlet to permit a movement with the at least one degree of freedom; the mounting bracket further comprises a gripping layer carried by the arm and located between the arm and the pump assembly, and wherein the gripping layer comprises at least one of a vibration damping material and a plurality of ridges. a tub having a bottom and at least partially defining an open face treating chamber; a base supporting the bottom of the tub and defining a mechanical area beneath the bottom of the tub; at least one sprayer (41, 42, 43, 44, 45, 46) emitting liquid into the treating chamber; a recirculation circuit fluidly coupling the tub to the at least one sprayer (41, 42, 43, 44, 45, 46); a drain circuit fluidly coupling the tub to a household drain; a pump assembly having a pump fluidly coupled to at least one of the recirculation or drain circuits and a motor driving the pump; a mounting bracket securing the pump assembly to the base; and a bracket axis defined along the mounting bracket; wherein the pump assembly is movably mounted so as to have at least one degree of freedom for movement along the bracket axis, characterized in that: the pump assembly comprises an outlet and the mounting bracket secures the outlet; the mounting bracket comprises an arm abutting the outlet to permit a movement with the at least one degree of freedom; the mounting bracket further comprises a gripping layer carried by the arm and located between the arm and the pump assembly, and wherein the gripping layer comprises at least one of a vibration damping material and a plurality of ridges. the pump assembly comprises an outlet and the mounting bracket secures the outlet; the mounting bracket comprises an arm abutting the outlet to permit a movement with the at least one degree of freedom; the mounting bracket further comprises a gripping layer carried by the arm and located between the arm and the pump assembly, and wherein the gripping layer comprises at least one of a vibration damping material and a plurality of ridges.
Hip joint socket for implantation into the pelvic bone, comprising an outer shell consisting of metal and an insert arranged in it for supporting a joint ball of a femur implant, the lower edge of the outer shell of said hip joint socket being covered by a non-metallic material (12; 13; 16; 18), characterized in that the non-metallic material has the form of a coating of the lower edge of the outer shell.