mhurhangee/ep-ind-claims huggingface dataset:
A cationically curable inkjet composition comprising: a) at least one non-silyl cationically curable monomer having one or more cationically curable functional groups selected from epoxide groups, oxetane groups, oxolane groups, 1,3-dioxolane groups and vinyl ether groups; b) a silyl component comprising an epoxide group and a trialkoxysilyl group; c) a cationic photoinitiator; and d) a stabilizer; wherein the molar ratio of epoxide groups of the silyl component b) to the cationically curable functional groups of the cationically curable monomer a) is in the range of 0.05 to 0.55; and wherein the stabilizer is selected from 1-(C 1 -C 8 -alkyl)-2,2,6,6-tetramethylpiperidine derivatives and the inkjet composition comprises 0.2% to 2.0% by weight of the stabilizer, based on the total weight of the inkjet composition. a) at least one non-silyl cationically curable monomer having one or more cationically curable functional groups selected from epoxide groups, oxetane groups, oxolane groups, 1,3-dioxolane groups and vinyl ether groups; b) a silyl component comprising an epoxide group and a trialkoxysilyl group; c) a cationic photoinitiator; and d) a stabilizer; wherein the molar ratio of epoxide groups of the silyl component b) to the cationically curable functional groups of the cationically curable monomer a) is in the range of 0.05 to 0.55; and wherein the stabilizer is selected from 1-(C 1 -C 8 -alkyl)-2,2,6,6-tetramethylpiperidine derivatives and the inkjet composition comprises 0.2% to 2.0% by weight of the stabilizer, based on the total weight of the inkjet composition.
Mobile support for an information acquisition instrument, said support comprising: - a main cradle which is subjected to a rising vertical motive force, - a hollow body, - flexible mechanical tethers, the hollow body being connected to the main cradle by the flexible mechanical tethers, the rising vertical motive force is buoyancy generated by the hollow body, the flexible mechanical tethers being kept in a taut state by said buoyancy, - a secondary cradle (12, 112), the secondary cradle (12, 112) being disposed beneath the main cradle, - a plurality of flexible mechanical links for exerting a retention force that keeps the support balanced with respect to the vertical motive force, the lengths of the flexible mechanical links being modifiable in order to cause the support to move in a working volume, and - an articulation connecting the main cradle to the secondary cradle (12, 112), characterized in that the flexible mechanical links are connected to the secondary cradle and in that the flexible mechanical tethers allow limited rotation of the hollow body with respect to the main cradle by action on the length of said tethers, the centre of said rotation being the centre of the hollow body. - a main cradle which is subjected to a rising vertical motive force, - a hollow body, - flexible mechanical tethers, the hollow body being connected to the main cradle by the flexible mechanical tethers, the rising vertical motive force is buoyancy generated by the hollow body, the flexible mechanical tethers being kept in a taut state by said buoyancy, - a secondary cradle (12, 112), the secondary cradle (12, 112) being disposed beneath the main cradle, - a plurality of flexible mechanical links for exerting a retention force that keeps the support balanced with respect to the vertical motive force, the lengths of the flexible mechanical links being modifiable in order to cause the support to move in a working volume, and - an articulation connecting the main cradle to the secondary cradle (12, 112),
An air nozzle assembly comprising an air dry nozzle assembly body that defines an interior lumen that includes an inlet in communication with a channel and an outlet orifice or throat, characterized in that said air nozzle assembly further comprises at least one distally projecting member (534, 536) that includes an intake port (542, 544) configured to draw in a first flow of entrained ambient air (552, 554); wherein said air dry nozzle assembly is configured to generate a fan-shaped stream of air from a supplied airflow to the inlet combined with that at least first flow of entrained ambient air through the at least one intake port. an air dry nozzle assembly body that defines an interior lumen that includes an inlet in communication with a channel and an outlet orifice or throat, characterized in that said air nozzle assembly further comprises at least one distally projecting member (534, 536) that includes an intake port (542, 544) configured to draw in a first flow of entrained ambient air (552, 554); wherein said air dry nozzle assembly is configured to generate a fan-shaped stream of air from a supplied airflow to the inlet combined with that at least first flow of entrained ambient air through the at least one intake port.
A system for monitoring the hygienic status of a process plant and for monitoring and controlling a cleaning process of the process plant comprising: at least two film sensors for measuring the thickness of films on parts of the process plant wherein the at least two film sensors have different measuring regions (105, 106).
Boom working device for attachment to a carrier vehicle, with - at least one boom (3, 4), the rear end (3b, 4b) of which can be attached to the carrier vehicle, - an arm end as front end (3a, 4a) of the boom (3, 4), - a working head, which is attached to the arm end with its head end facing the arm end, - a load measuring unit with at least one load sensor for detecting the loads acting on the boom (3, 4), - wherein the load measuring unit is arranged on or in the boom (3, 4), and - wherein the arm end is pivotable relative to a remainder of the boom (3, 4), by means of a Z-joint about a Z-axis, characterized in that - the load measuring unit is arranged on or in the remainder of the boom (3, 4) behind the Z-joint, i.e. on the side of the Z-joint facing away from the working head, and - at least one recognition sensor for detecting the fixed working head, at least regarding its type, is arranged on or in the boom (3, 4). - at least one boom (3, 4), the rear end (3b, 4b) of which can be attached to the carrier vehicle, - an arm end as front end (3a, 4a) of the boom (3, 4), - a working head, which is attached to the arm end with its head end facing the arm end, - a load measuring unit with at least one load sensor for detecting the loads acting on the boom (3, 4), - wherein the load measuring unit is arranged on or in the boom (3, 4), and - wherein the arm end is pivotable relative to a remainder of the boom (3, 4), by means of a Z-joint about a Z-axis, characterized in that - the load measuring unit is arranged on or in the remainder of the boom (3, 4) behind the Z-joint, i.e. on the side of the Z-joint facing away from the working head, and - at least one recognition sensor for detecting the fixed working head, at least regarding its type, is arranged on or in the boom (3, 4).
A method for preparing a compound of formula III comprising oxidising a compound of formula I for a time and under conditions sufficient to form a compound of formula II and converting the formed compound of formula II to the compound of formula III; wherein: the oxidation is carried out by treating the compound of formula I with hydrogen peroxide in molar excess in the presence of a carboxylic acid; the formed compound of formula II is converted to the compound of formula III by N-demethylating the compound of formula II; and the compounds of formulae I, II and III are: where R is H, C 1 -C 6 alkyl, benzyl or acyl. the oxidation is carried out by treating the compound of formula I with hydrogen peroxide in molar excess in the presence of a carboxylic acid; the formed compound of formula II is converted to the compound of formula III by N-demethylating the compound of formula II; and the compounds of formulae I, II and III are:
A rotary control (2, 102, 202, 302) comprising a first rotatable body (6, 106, 206, 306) comprising means for displaying information relating to a parameter controlled by the first rotatable body, and a second rotatable body (8, 108, 208, 308) formed around the first rotatable body comprising means for displaying information relating to a parameter controlled by the second rotatable body, characterized in that the means for displaying information relating to parameters controlled by the first and/or second body comprises a plurality of channels (10, 110, 210, 310) for the transmission of light signals.
A shear sensor, comprising: a stator structure adapted to distort in two perpendicular axes upon application of a shear force to the stator structure; a transformer at least partially coupled to the stator structure, the transformer including a primary winding and a pair of differentially wound secondary windings, at least the primary winding wound to define at least two stator poles; and a ferromagnetic core non-rotationally coupled to the stator structure and at least partially surrounded by the primary and secondary windings, the core spaced apart from the stator poles to define an air gap between the core and the stator poles; wherein the air gap varies in the two perpendicular axes upon application of the shear force to the stator structure. a stator structure adapted to distort in two perpendicular axes upon application of a shear force to the stator structure; a transformer at least partially coupled to the stator structure, the transformer including a primary winding and a pair of differentially wound secondary windings, at least the primary winding wound to define at least two stator poles; and a ferromagnetic core non-rotationally coupled to the stator structure and at least partially surrounded by the primary and secondary windings, the core spaced apart from the stator poles to define an air gap between the core and the stator poles; wherein the air gap varies in the two perpendicular axes upon application of the shear force to the stator structure.
A method of performing a heating operation and a defrosting operation of an air conditioning system, said air conditioning system comprising a refrigerant circuit in which a compressor, an indoor radiant panel, a first pressure reduction mechanism, a room air heat exchanger, a second pressure reduction mechanism and an outdoor heat exchanger are connected in this order and which operates in a vapor compression refrigeration cycle by reversibly circulating refrigerant therethrough; and an indoor fan supplying the room air heat exchanger with indoor air, wherein, in the heating operation, the second pressure reduction mechanism is controlled to reduce the refrigerant pressure so that in a heating cycle of the refrigerant circuit the refrigerant releases heat in the indoor radiant panel and the room air heat exchanger and takes heat in the outdoor heat exchanger to evaporate, and wherein, in the defrosting operation, the first pressure reduction mechanism is controlled to reduce the refrigerant pressure so that in a cooling cycle of the refrigerant circuit the refrigerant releases heat in the outdoor heat exchanger and the room air heat exchanger and takes the heat stored during the heating operation in the indoor radiant panel to evaporate and in which the outdoor heat exchanger frosted during the heating operation is defrosted.
A measuring device for optical detection, comprising: a flow channel; an optical flow cell, including: - an input light guide including a light exit surface, - an output light guide including a light entrance surface, - a holder supporting said input light guide and output light guide; a flow cell mounting site in the flow channel, arranged to receive the optical flow cell; wherein: - the holder extends along an axis and has a through hole for receiving a flow of a sample fluid, said through hole being substantially transverse to said axis; and wherein - the input light guide and output light guide further are arranged in said holder so that the light exit surface and the light entrance surface extend into said through hole and are arranged to be in optical alignment with each other and at a distance from each other, wherein the flow cell is removably and reinsertably receivable at the flow cell mounting site such that the through hole coincides with the flow channel; characterized in that the flow cell mounting site comprises two opposing circular holes having a common central axis which is coincident with said axis of the holder when the flow cell mounting site has received the optical flow cell. a flow channel; an optical flow cell, including: - an input light guide including a light exit surface, - an output light guide including a light entrance surface, - a holder supporting said input light guide and output light guide; - an input light guide including a light exit surface, - an output light guide including a light entrance surface, - a holder supporting said input light guide and output light guide; a flow cell mounting site in the flow channel, arranged to receive the optical flow cell; wherein: - the holder extends along an axis and has a through hole for receiving a flow of a sample fluid, said through hole being substantially transverse to said axis; and wherein - the input light guide and output light guide further are arranged in said holder so that the light exit surface and the light entrance surface extend into said through hole and are arranged to be in optical alignment with each other and at a distance from each other, - the holder extends along an axis and has a through hole for receiving a flow of a sample fluid, said through hole being substantially transverse to said axis; and wherein - the input light guide and output light guide further are arranged in said holder so that the light exit surface and the light entrance surface extend into said through hole and are arranged to be in optical alignment with each other and at a distance from each other, wherein the flow cell is removably and reinsertably receivable at the flow cell mounting site such that the through hole coincides with the flow channel; characterized in that the flow cell mounting site comprises two opposing circular holes having a common central axis which is coincident with said axis of the holder when the flow cell mounting site has received the optical flow cell.
A modular attachment matrix, comprising: a portion of carrier material; and a matrix layer, wherein said matrix layer comprises a plurality of spaced apart matrix apertures, wherein each of said matrix apertures is formed through said matrix layer and is defined by one or more continuous edges, and wherein said matrix apertures are arranged in a repeating sequence of equally spaced rows and equally spaced columns, and wherein said matrix layer is at least partially attached or coupled to at least a portion of said carrier material; wherein said plurality of spaced apart matrix apertures comprises spaced apart, substantially octagonally shaped matrix apertures arranged in a repeating sequence of equally spaced rows of said substantially octagonally shaped matrix apertures and equally spaced columns of said substantially octagonally shaped matrix apertures; characterized in that the modular attachment matrix further comprises one or more alternate attachment apertures formed through said matrix layer at spaced apart locations, wherein each alternate attachment aperture and wherein said alternate attachment apertures are arranged in a repeating sequence of equally spaced rows and equally spaced columns. a portion of carrier material; and a matrix layer, wherein said matrix layer comprises a plurality of spaced apart matrix apertures, wherein each of said matrix apertures is formed through said matrix layer and is defined by one or more continuous edges, and wherein said matrix apertures are arranged in a repeating sequence of equally spaced rows and equally spaced columns, and wherein said matrix layer is at least partially attached or coupled to at least a portion of said carrier material; wherein said plurality of spaced apart matrix apertures comprises spaced apart, substantially octagonally shaped matrix apertures arranged in a repeating sequence of equally spaced rows of said substantially octagonally shaped matrix apertures and equally spaced columns of said substantially octagonally shaped matrix apertures; characterized in that the modular attachment matrix further comprises one or more alternate attachment apertures formed through said matrix layer at spaced apart locations, wherein each alternate attachment aperture and wherein said alternate attachment apertures are arranged in a repeating sequence of equally spaced rows and equally spaced columns.
Method for operating a utility vehicle, having a rear axle which is driven by a drive engine, a rear-axle differential on the rear axle and a front axle which can be connected so as to carry out all wheel drive (28, FWD), characterized in that a differential lock (22, DIFF_S) for locking the rear-axle differential is activated as a function of an engine power level of the drive engine, wherein the engine power level is compared with a predefined power limiting value (P lim1) before the differential lock (22, DIFF_S) is activated.
Pneumatic vehicle tyre of a radial construction, in particular a tyre for a commercial vehicle, having a belt assembly made up of at least three plies (8, 9, 10), specifically two working plies (8, 9) and a protective ply arranged radially on the outside in relation to the working plies (8, 9), wherein each belt ply (8, 9, 10) contains steel cords as reinforcing elements which are respectively arranged in each belt ply (8, 9, 10) parallel to one another and spaced apart from one another, the steel cords of the protective ply having the construction 3 × filament diameter, characterized in that the steel cords in the protective ply have a filament diameter in the range from 0.42 to 0.45 mm and are arranged in this protective ply in a steel cord density of 50 to 80 ends per decimetre (EPDM).
A method for purifying crude liraglutide obtained from solid-phase synthesis, which is characterized by comprising the following steps: Step 1: a solution of crude liraglutide is obtained by dissolving crude liraglutide obtained from solid-phase synthesis in aqueous acetonitrile solution; Step 2: the solution of crude liraglutide is subjected to a first HPLC purification using octylsilane bonded silica as stationary phase, and using aqueous isopropanol solution containing 0.1-0.2% trifluoroacetic acid as mobile phase A and acetonitrile containing 0.1-0.2% trifluoroacetic acid as mobile phase B eluting at a linear gradient from 20-40% B to 40-60% B, and target peak is collected as the first fraction; Step 3: the first fraction is subjected to a second HPLC purification using cyanosilane bonded silica as stationary phase, and using 0.05-0.15% (mass concentration) aqueous perchloric acid solution as mobile phase A and 0.05-0.15% (mass concentration) perchloric acid in acetonitrile as mobile phase B eluting at a linear gradient from 40% B to 70% B, and target peak is collected as the second fraction; Step 4: the second fraction is subjected to a third HPLC purification using octylsilane bonded silica as stationary phase, and using 0.01-0.06% (mass concentration) aqueous ammonia solution as mobile phase A and acetonitrile of chromatographic grade as mobile phase B eluting at a linear gradient from 30% B to 60% B, and target peak is collected as the third fraction; Step 5: purified peptide is obtained from the third fraction by rotatory evaporation under reduced presser and lyophilization. Step 1: a solution of crude liraglutide is obtained by dissolving crude liraglutide obtained from solid-phase synthesis in aqueous acetonitrile solution; Step 2: the solution of crude liraglutide is subjected to a first HPLC purification using octylsilane bonded silica as stationary phase, and using aqueous isopropanol solution containing 0.1-0.2% trifluoroacetic acid as mobile phase A and acetonitrile containing 0.1-0.2% trifluoroacetic acid as mobile phase B eluting at a linear gradient from 20-40% B to 40-60% B, and target peak is collected as the first fraction; Step 3: the first fraction is subjected to a second HPLC purification using cyanosilane bonded silica as stationary phase, and using 0.05-0.15% (mass concentration) aqueous perchloric acid solution as mobile phase A and 0.05-0.15% (mass concentration) perchloric acid in acetonitrile as mobile phase B eluting at a linear gradient from 40% B to 70% B, and target peak is collected as the second fraction; Step 4: the second fraction is subjected to a third HPLC purification using octylsilane bonded silica as stationary phase, and using 0.01-0.06% (mass concentration) aqueous ammonia solution as mobile phase A and acetonitrile of chromatographic grade as mobile phase B eluting at a linear gradient from 30% B to 60% B, and target peak is collected as the third fraction; Step 5: purified peptide is obtained from the third fraction by rotatory evaporation under reduced presser and lyophilization.
A method for detecting a cancer, comprising measuring the expression level of CAPRIN-1 in a biological sample through antigen-antibody reaction using an antibody, or an antigen-binding fragment thereof, having immunological reactivity with a polypeptide consisting of the amino acid sequence shown in SEQ ID NO: 66.
Two-component polyurea composition, comprising a polyisocyanate component C1 and a hardener component C2, wherein the polyisocyanate component C1 comprises at least a polyisocyanate PI; the hardener component C2 comprises at least a compound of formula wherein R 1 represents a n-valent organic radical; R 2 and R 3 represent independently of one another an aliphatic or cycloaliphatic or aromatic radical; n is an integer with a value of 2 to 6, particularly 2 or 3; characterized in that the hardener component C2 comprises at least one salt hydrate SH with a decomposition temperature of between 30 °C and 80 °C. R 1 represents a n-valent organic radical; R 2 and R 3 represent independently of one another an aliphatic or cycloaliphatic or aromatic radical; n is an integer with a value of 2 to 6, particularly 2 or 3;
Hydraulic system comprising a hydraulic pump and a hydraulic consumer as well as a hydraulic control system for actuating the hydraulic consumer, further comprising a valve assembly that comprises a pressure connection for connecting to the hydraulic pump, a tank connection for connecting to a return line, and two consumer connections (A, B) for connecting to the connections of the hydraulic consumer, wherein at least two separate valves (1, 2, 3, 4) are used to actuate the connection of the two consumer connections (A, B) to the pressure connection and the tank connection, wherein the valve assembly comprises a valve for connecting the pressure connection and the tank connection, and wherein the valves (1, 2, 3, 4) for connecting the consumer connections (A, B) to the pressure connection and the tank connection and the valve for connecting the pressure connection and the tank connection are hydraulically actuated, characterised in that the valves (1, 2, 3, 4) for connecting the consumer connections (A, B) to the pressure connection and the tank connection and the valve for connecting the pressure connection and the tank connection are each actuated by a separate valve (SV1, SV2, SV3, SV4, SV5) assigned thereto, wherein an additional hydraulic pump is provided for this purpose which provides the required control pressure, or in that the valves (1, 2, 3, 4) for connecting the consumer connections (A, B) to the pressure connection and the tank connection and the valve for connecting the pressure connection and the tank connection are actuated together at least in part, the actuation being carried out by two separate valves (SV1', SV2') which each actuate one movement direction of the hydraulic consumer, wherein an additional hydraulic pump is provided for this purpose which provides the required control pressure.