mhurhangee/ep-ind-claims huggingface dataset:
An aqueous composition comprising metal ions and at least one compound of formula I wherein X 1 is selected from a linear or branched C 1 -C 12 alkanediyl, which may be substituted or unsubstituted, and which may optionally be interrupted by O, S or NR 40; R 11 is selected from Z, X 5 -Z, and X 4 -N 2; Z is a branching group of formula III R 12 isselected from H, R 11, R 40, or (b) R 13 and an adjacent group R 14 or, if n>2, two adjacent groups R 14 may together form a bivalent group X 13; R 13, R 14 are selected from H, R 11, R 40, or R 13 and an adjacent group R 14 or, if n>2, two adjacent groups R 14 together form a bivalent group X 13; R 31, R 32 are independently selected from (a) a monovalent C 2 to C 6 polyoxyalkylene group, or (b) a further branching group to form a multiple branching group (Z P) p (R 31 R 32) 2p, wherein R 31, R 32 are monovalent C 2 to C 6 polyoxyalkylene groups; z p is selected from R 40 is selected from (a) linear or branched C 1 -C 20 alkyl, which may optionally be substituted by hydroxyl, alkoxy or alkoxycarbonyl, and (b) linear or branched C 1 -C 20 alkenyl, which may optionally be substituted by hydroxyl, alkoxy or alkoxycarbonyl; X 3 is a linear or branched C 1 to C 12 alkanediyl, which may be interrupted by O and S atoms or substituted by O-R 31; X 4 is a linear or branched C 1 to C 12 alkanediyl; X 5 is a divalent group selected from at least one C 2 to C 6 polyoxyalkylene; X 13 is selected from a linear or branched C 1 -C 12 alkanediyl, which may optionally be interrupted by O, S or NR 40; n is an integer of from 0 to 4; and p is an integer of from 2 to 4. X 1 is selected from a linear or branched C 1 -C 12 alkanediyl, which may be substituted or unsubstituted, and which may optionally be interrupted by O, S or NR 40; R 11 is selected from Z, X 5 -Z, and X 4 -N 2; Z is a branching group of formula III R 12 isselected from H, R 11, R 40, or (b) R 13 and an adjacent group R 14 or, if n>2, two adjacent groups R 14 may together form a bivalent group X 13; R 13, R 14 are selected from H, R 11, R 40, or R 13 and an adjacent group R 14 or, if n>2, two adjacent groups R 14 together form a bivalent group X 13; R 31, R 32 are independently selected from (a) a monovalent C 2 to C 6 polyoxyalkylene group, or (b) a further branching group to form a multiple branching group (Z P) p (R 31 R 32) 2p, wherein R 31, R 32 are monovalent C 2 to C 6 polyoxyalkylene groups; z p is selected from R 40 is selected from (a) linear or branched C 1 -C 20 alkyl, which may optionally be substituted by hydroxyl, alkoxy or alkoxycarbonyl, and (b) linear or branched C 1 -C 20 alkenyl, which may optionally be substituted by hydroxyl, alkoxy or alkoxycarbonyl; X 3 is a linear or branched C 1 to C 12 alkanediyl, which may be interrupted by O and S atoms or substituted by O-R 31; X 4 is a linear or branched C 1 to C 12 alkanediyl; X 5 is a divalent group selected from at least one C 2 to C 6 polyoxyalkylene; X 13 is selected from a linear or branched C 1 -C 12 alkanediyl, which may optionally be interrupted by O, S or NR 40; n is an integer of from 0 to 4; and p is an integer of from 2 to 4.
A method for fabricating emulated wood with pores and fibers, wherein the emulated wood includes two sheets (11, 12) and a plurality of synthetic fibers, the two sheets (11, 12) are planar sheets (11, 12) made from a uniform composition comprising a thermoplastic elastomer, a foaming agent and a crosslinking agent, and the plurality of synthetic fibers are attached between the two sheets (11, 12) respectively comprising the steps of: immersing the plurality of synthetic fibers configured parallel in a plane into a resin so that the resin is coated on the surfaces of the plurality of synthetic fibers and in the gaps between the plurality of synthetic fibers; placing the plurality of synthetic fibers between two sheets (11, 12); carrying out a heat-press process on outer surfaces of the two sheets (11, 12) so that the foaming agent in the two sheets (11, 12) undergoes microcellular foaming after being heated and forms dense closed pores in the two sheets (11, 12), and so that the composition on inner surfaces of the two sheets (11, 12) expands towards the plurality of synthetic fibers and penetrates through the gaps between the plurality of synthetic fibers to be intertwined by pressure from microcellular foaming of itself and surroundings; and cooling the two sheets (11, 12) to yield an emulated wood board, wherein the inner surfaces of the two sheets (11, 12) after microcellular foaming form irregular contact surfaces with the plurality of synthetic fibers and are densely and firmly combined in one by adherence force of the resin. immersing the plurality of synthetic fibers configured parallel in a plane into a resin so that the resin is coated on the surfaces of the plurality of synthetic fibers and in the gaps between the plurality of synthetic fibers; placing the plurality of synthetic fibers between two sheets (11, 12); carrying out a heat-press process on outer surfaces of the two sheets (11, 12) so that the foaming agent in the two sheets (11, 12) undergoes microcellular foaming after being heated and forms dense closed pores in the two sheets (11, 12), and so that the composition on inner surfaces of the two sheets (11, 12) expands towards the plurality of synthetic fibers and penetrates through the gaps between the plurality of synthetic fibers to be intertwined by pressure from microcellular foaming of itself and surroundings; and cooling the two sheets (11, 12) to yield an emulated wood board,
An apparatus comprising: a primary enclosure, optionally a cold box, defining an internal volume, wherein the primary enclosure comprises primary walls, a primary ceiling, a primary floor, and a vapor venting system, wherein the primary enclosure is fabricated from a low temperature alloy, optionally wherein the low temperature alloy is stainless steel or a high nickel steel, characterized in that at least a portion of the primary floor forms a slope to a hydrocarbon outlet, wherein a perforated plate is located on top of the hydrocarbon outlet, wherein the perforated plate is fabricated from a low temperature alloy; and in that a fire retardant agent is applied to the exterior surface of the primary enclosure.
Method for activation and storing of traces generated by a mail processing device, characterised by comprising the following steps:. connection of a storage apparatus to the mail processing device,. activation of a traces generation module in said mail processing device,. temporary storage of selected traces in a circular buffer of said mail processing device,. continuous transfer of the selected traces from said circular buffer to said storage apparatus,. when the traces generation is completed, deactivation of the traces generation module in said mail processing device.. connection of a storage apparatus to the mail processing device,. activation of a traces generation module in said mail processing device,. temporary storage of selected traces in a circular buffer of said mail processing device,. continuous transfer of the selected traces from said circular buffer to said storage apparatus,. when the traces generation is completed, deactivation of the traces generation module in said mail processing device.
A hot-melt adhesive agent comprising a thermoplastic block copolymer which is a copolymer of vinyl class aromatic hydrocarbons and conjugated diene compounds, wherein the thermoplastic block copolymer comprises the following component and component: a radial type styrene block copolymer having a styrene content of 35 to 45% by weight, a diblock content of 50 to 90% by weight, and has a viscosity at 25°C as 25% toluene solution of not more than 250 mPa·s; and a triblock type styrene block copolymer. a radial type styrene block copolymer having a styrene content of 35 to 45% by weight, a diblock content of 50 to 90% by weight, and has a viscosity at 25°C as 25% toluene solution of not more than 250 mPa·s; and a triblock type styrene block copolymer.
An apparatus for applying an asphalt binder composition to a roadway during construction or repair of an asphalt pavement which comprises: a mobile vehicle having a chassis extending in a longitudinal direction which longitudinal direction is aligned with a forward/rearward direction of travel of said mobile vehicle; at least one storage tank supported on the chassis containing an asphalt binder composition; and at least one spray nozzle provided on a spray bar configured to dispense the asphalt binder composition from the at least one storage tank in a longitudinal strip or band having a width that is no greater than a width of application of the asphalt binder composition dispensed by one of the at least one spray nozzles, wherein the at least one spray nozzle comprises a plurality of spray nozzles which are substantially linearly aligned along said longitudinal direction of the vehicle, wherein the plurality of spray nozzles are coupled to a common spray bar characterized in that the common spray bar extends along one side of the mobile vehicle in said longitudinal direction thereof. a mobile vehicle having a chassis extending in a longitudinal direction which longitudinal direction is aligned with a forward/rearward direction of travel of said mobile vehicle; at least one storage tank supported on the chassis containing an asphalt binder composition; and at least one spray nozzle provided on a spray bar configured to dispense the asphalt binder composition from the at least one storage tank in a longitudinal strip or band having a width that is no greater than a width of application of the asphalt binder composition dispensed by one of the at least one spray nozzles, wherein the at least one spray nozzle comprises a plurality of spray nozzles which are substantially linearly aligned along said longitudinal direction of the vehicle, wherein the plurality of spray nozzles are coupled to a common spray bar characterized in that the common spray bar extends along one side of the mobile vehicle in said longitudinal direction thereof.
A method for allocating a bearer identifier, comprising: receiving, by an access and mobility management network element in a first communication network, a bearer identifier assignment request message from a session management network element in the first communication network in a procedure for establishing a dedicated flow in a packet data unit, PDU, session in the first communication network; allocating, by the access and mobility management network element, a bearer identifier to a dedicated bearer in a second communication network, wherein the dedicated bearer in the second communication network corresponds to the dedicated flow in the first communication network, the first communication network is a 5G communication network, the second communication network is a 4.5G or 4G communication network; sending, by the access and mobility management network element, a bearer identifier assignment response message to the session management network element, the bearer identifier assignment response message comprising the bearer identifier. receiving, by an access and mobility management network element in a first communication network, a bearer identifier assignment request message from a session management network element in the first communication network in a procedure for establishing a dedicated flow in a packet data unit, PDU, session in the first communication network; allocating, by the access and mobility management network element, a bearer identifier to a dedicated bearer in a second communication network, wherein the dedicated bearer in the second communication network corresponds to the dedicated flow in the first communication network, the first communication network is a 5G communication network, the second communication network is a 4.5G or 4G communication network; sending, by the access and mobility management network element, a bearer identifier assignment response message to the session management network element, the bearer identifier assignment response message comprising the bearer identifier.
A display system for simultaneously displaying two ligand binding polypeptides at the surface of a phage, comprising: a. a phagemid comprising the coding sequence of a first ligand binding polypeptide fused in frame to a first dimerization domain and to an outer surface protein of the phage; b. a plasmid comprising the coding sequence of a second ligand binding polypeptide fused in frame to a second dimerization domain; and c. a helper phage comprising coding sequences of all proteins necessary for packaging the phage; wherein the first and second ligand binding polypeptides are different and each bind to a different target ligand, and wherein, when the first and second ligand binding polypeptide fusions and all phage proteins are expressed in a suitable host cell, the two ligand binding polypeptide fusions associate via their respective dimerization domains, resulting in simultaneous display of the two ligand binding polypeptides at the surface of phage. a. a phagemid comprising the coding sequence of a first ligand binding polypeptide fused in frame to a first dimerization domain and to an outer surface protein of the phage; b. a plasmid comprising the coding sequence of a second ligand binding polypeptide fused in frame to a second dimerization domain; and c. a helper phage comprising coding sequences of all proteins necessary for packaging the phage;
A redox flow battery that performs charging and discharging by supplying a positive electrode electrolyte and a negative electrode electrolyte to a battery cell that includes a positive electrode, a negative electrode, and a separating membrane interposed between the two electrodes, wherein: the positive electrode electrolyte contains a manganese ion and an additional metal ion, the negative electrode electrolyte contains at least one metal ion selected from a titanium ion, a vanadium ion, a chromium ion, and a zinc ion, the additional metal ion contained in the positive electrode electrolyte is at least one of an aluminum ion, a cadmium ion, an indium ion, a tin ion, an antimony ion, an iridium ion, a gold ion, a lead ion, a bismuth ion, and a magnesium ion, and the positive electrode electrolyte contains a titanium ion. the positive electrode electrolyte contains a manganese ion and an additional metal ion, the negative electrode electrolyte contains at least one metal ion selected from a titanium ion, a vanadium ion, a chromium ion, and a zinc ion, the additional metal ion contained in the positive electrode electrolyte is at least one of an aluminum ion, a cadmium ion, an indium ion, a tin ion, an antimony ion, an iridium ion, a gold ion, a lead ion, a bismuth ion, and a magnesium ion, and the positive electrode electrolyte contains a titanium ion.
A method for transmitting an enhanced downlink control channel in at least one block of resources, wherein the enhanced downlink control channel comprises a set of enhanced resource element groups, the method comprising - determining whether to transmit the enhanced downlink control channel using localized or distributed transmission; and - responsive to determining to use localized transmission, performing the transmission such that all enhanced resource element groups in the set that are comprised in the same block of resources are mapped to the same antenna port, and the antenna port depends on which subset of enhanced resource element groups in the block of resources are used for the enhanced downlink control channel. - determining whether to transmit the enhanced downlink control channel using localized or distributed transmission; and - responsive to determining to use localized transmission, performing the transmission such that all enhanced resource element groups in the set that are comprised in the same block of resources are mapped to the same antenna port, and the antenna port depends on which subset of enhanced resource element groups in the block of resources are used for the enhanced downlink control channel.
A terminal connection structure, comprising: a male terminal (16, 17); and a female terminal having an elasticity and configured to have the male terminal (16, 17) fitted therein such that the female terminal sandwiches the male terminal (16, 17) from opposite sides; wherein the male terminal (16, 17) includes a base material, a first primary coat coated on the base material, a second primary coat coated on the first primary coat, and a surface layer coated on the second primary coat, the first primary coat and the second primary coat have different hardness, and one of the following and is met: the second primary coat is harder than the first primary coat, and the first primary coat is harder than the second primary coat, the first primary coat is an electroless plating layer, and the second primary coat is a electroplating layer. a male terminal (16, 17); and a female terminal having an elasticity and configured to have the male terminal (16, 17) fitted therein such that the female terminal sandwiches the male terminal (16, 17) from opposite sides; wherein the male terminal (16, 17) includes a base material, a first primary coat coated on the base material, a second primary coat coated on the first primary coat, and a surface layer coated on the second primary coat, the first primary coat and the second primary coat have different hardness, and one of the following and is met: the second primary coat is harder than the first primary coat, and the first primary coat is harder than the second primary coat, the first primary coat is an electroless plating layer, and the second primary coat is a electroplating layer. the second primary coat is harder than the first primary coat, and the first primary coat is harder than the second primary coat, the first primary coat is an electroless plating layer, and the second primary coat is a electroplating layer.
An automatic analyzer including means configured to display detailed contents over a plurality of categories in at least two different display modes, characterized in that the automatic analyzer comprises control means that includes for each display mode a definition table (601, 602) in which a priority level relating to displaying one of a plurality of display items is stored in advance for each of the categories, wherein, if two or more of the categories are specified to be displayed in said display mode, the control means controls display in accordance with the priority level stored in the definition table so that all specified category items are displayed in one window without any of the specified category items being overwritten, wherein: - the priority level corresponds to a level of detail assigned to the categories; - a display size assigned to the categories is set in accordance with the level of detail. - the priority level corresponds to a level of detail assigned to the categories; - a display size assigned to the categories is set in accordance with the level of detail.
Container having a base, a circumferential wall, which extends upwardly from the base and which is provided in its upper end region with an external thread, a lid having an internal thread, an insert, which is inserted into the upper end region of the circumferential wall and in which a measuring spoon having a spoon handle and a spoon bowl is placed, wherein the insert is supported on a support device extending inwardly from the inner side of the circumferential wall and wherein the surface of the insert is of elevation-free construction, characterised in that the insert has in its region disposed within its outer circumference a profiled support surface for the measuring spoon and the profiled mounting surface of the insert has a depression serving as support surface for the spoon handle.
Method for sanitizing water in a swimming pool system or a swimming or bathing area by using a reactor (2; 10), with a mat-like mesh, knitted or woven fabric coated or consisting of silver being provided in the reactor (2, 100), characterized in that the water to be sanitized - is passed at least through a reactor, which is installed in the basin of the swimming pool system or of the swimming or bathing area, by using a fine- or coarse-bubble aerator, or - is passed at least through a reactor, which is arranged in a bypass of the basin of the swimming pool system or of the swimming or bathing area, by means of a pump and an aerator, - the water that flows through the reactor (2; 10) and is to be sanitized being brought into contact with the mat-like mesh, knitted or woven fabric coated or consisting of silver arranged in the reactor (2; 10) by means of the aerator, and - the water that is to be sanitized being directed through the reactor (2; 10) with a residence time of 5 to 30 minutes. - is passed at least through a reactor, which is installed in the basin of the swimming pool system or of the swimming or bathing area, by using a fine- or coarse-bubble aerator, or - is passed at least through a reactor, which is arranged in a bypass of the basin of the swimming pool system or of the swimming or bathing area, by means of a pump and an aerator, - the water that flows through the reactor (2; 10) and is to be sanitized being brought into contact with the mat-like mesh, knitted or woven fabric coated or consisting of silver arranged in the reactor (2; 10) by means of the aerator, and - the water that is to be sanitized being directed through the reactor (2; 10) with a residence time of 5 to 30 minutes.
Method for distortion-free coating of 3-dimensional workpieces with partially bidirectionally curved surfaces, characterized in that the method comprises at least the steps: a) Provision of digital 2D data of a decoration to be applied and digital 3D surface profile data of a workpiece to be coated; b) Dividing the workpiece surface into raster areas, the individual raster areas being formed from a line train of equidistant lines at a distance X 0 parallel to an X direction and a further line train, orthogonal thereto, of equidistant lines at a distance Y 0 parallel to a Y direction; c) Dividing the workpiece surface into one or more trajectories of a coating head, the trajectories running above the workpiece surface and the intersection lines of adjacent trajectories at least abutting one another; d) Projection of the line trains bordering the raster areas onto one or more trajectories above the relevant raster area, wherein the projection being made along the normal vector of the respective trajectory; e) Matching the 2D decoration print data for each raster area, where the matching of the print data of the raster area is both a function of the originally provided 2D data of the decoration and a function of the raster projection to the trajectory; and f) Coating of the workpiece surface based on the adjusted decoration print data. a) Provision of digital 2D data of a decoration to be applied and digital 3D surface profile data of a workpiece to be coated; b) Dividing the workpiece surface into raster areas, the individual raster areas being formed from a line train of equidistant lines at a distance X 0 parallel to an X direction and a further line train, orthogonal thereto, of equidistant lines at a distance Y 0 parallel to a Y direction; c) Dividing the workpiece surface into one or more trajectories of a coating head, the trajectories running above the workpiece surface and the intersection lines of adjacent trajectories at least abutting one another; d) Projection of the line trains bordering the raster areas onto one or more trajectories above the relevant raster area, wherein the projection being made along the normal vector of the respective trajectory; e) Matching the 2D decoration print data for each raster area, where the matching of the print data of the raster area is both a function of the originally provided 2D data of the decoration and a function of the raster projection to the trajectory; and f) Coating of the workpiece surface based on the adjusted decoration print data.