mhurhangee/ep-ind-claims huggingface dataset:
Water processing device which is provided for removing micro-pollutants, in particular medicaments, from water, said device comprising a filter unit (10a-10c) which is provided for filtering the water when in an operating state and which comprises a tubular filter element (12a-12c) with two end portions (14a-14c, 16a-16c), and comprising an adsorption unit (18a-18c) which at least partially adsorbs the micro-pollutants when in an operating state, wherein the end portions (14a-14c, 16a-16c) enclose an inner angle of from 0° to 90° when in an assembled state, wherein the filter element (12a-12c) is bent substantially in a U-shape in the assembled state, wherein the filter unit (10a-10c) comprises at least one further filter element (22a; 22b) which is formed substantially equivalently to the filter element (12a; 12b), characterized in that surface normals of the plane of main extent of the filter element (12a; 12b) and surface normals of the plane of main extent of the further filter element (22a; 22b) preferably enclose an angle of at least 20° and of at most 160°, and in that the further filter element (22a; 22b) surrounds the filter element (12a; 12b) at least in part, and in that the filter unit (10a; 10b) comprises a group (28a; 28b) of filter elements (12a; 12b) and a further group (30a; 30b) of further filter elements (22a; 22b), wherein the group of filter elements comprises at least one additional filter element which is formed substantially equivalently to the filter element (12a; 12b), wherein the further group of further filter elements (22a; 22b) additionally comprises at least one further filter element which is formed substantially equivalently to the further filter element, wherein the filter elements of the one group are preferably bundled by means of a mesh and wherein the further filter elements (22a; 22b) of the further group (30a; 30b) are bundled by means of a further mesh, and in that the filter element (12a; 12b) in the assembled state has a plane of main extent, and in that the further filter element (22a; 22b) in the assembled state has a further plane of main extent, which is different from the plane of main extent of the filter element (12a; 12b), wherein the plane of main extent of the filter element (12a; 12b) and the further plane of main extent of the further filter element (22a; 22b) are arranged at an angle to one another.
A marine vessel, comprising: a main deck; a piping system; and a liquid transfer system incorporated in said piping system, characterized by a plurality of intermodal LNG tanks stacked above the main deck, arranged in container cell guides, and individually and detachably connected to said piping system, wherein LNG is transferred from said plurality of intermodal LNG tanks to said liquid transfer system such that said plurality of intermodal LNG tanks can be simultaneously filled with LNG at an LNG loading facility and can be lifted off the marine vessel individually at a container facility. a main deck; a piping system; and a liquid transfer system incorporated in said piping system, characterized by a plurality of intermodal LNG tanks stacked above the main deck, arranged in container cell guides, and individually and detachably connected to said piping system, wherein LNG is transferred from said plurality of intermodal LNG tanks to said liquid transfer system such that said plurality of intermodal LNG tanks can be simultaneously filled with LNG at an LNG loading facility and can be lifted off the marine vessel individually at a container facility.
A method for manufacturing a treated surface comprising • providing a processing space within a vacuum recipient, therein an anode (9, 9a) with a metal anode surface and a cathode (7, 7a), said metal establishing for a first specific DC impedance; • establishing in said processing space an atmosphere of a gas or of a gas mixture at a desired pressure or at desired partial pressures; • generating a plasma discharge in said processing space by applying between said anode (9, 9a) and said cathode (7, 7a) an electric supply signal comprising a DC component; • treating a surface with the help of said plasma discharge, thereby generating in said processing space a solid having a second specific electric DC impedance which is higher than said first specific DC impedance; • establishing at least one area (21 s) of said anode surface shielded from said solid by generating a distinct shielding plasma on said at least one area (21 s), the extent of which being substantially limited to said at least one area (21 s), characterized in • providing more than one of said areas (21 s) to be shielded and selectively establishing said distinct shielding plasma to a part of said more than one areas (21 s) to be shielded. • providing a processing space within a vacuum recipient, therein an anode (9, 9a) with a metal anode surface and a cathode (7, 7a), said metal establishing for a first specific DC impedance; • establishing in said processing space an atmosphere of a gas or of a gas mixture at a desired pressure or at desired partial pressures; • generating a plasma discharge in said processing space by applying between said anode (9, 9a) and said cathode (7, 7a) an electric supply signal comprising a DC component; • treating a surface with the help of said plasma discharge, thereby generating in said processing space a solid having a second specific electric DC impedance which is higher than said first specific DC impedance; • establishing at least one area (21 s) of said anode surface shielded from said solid by generating a distinct shielding plasma on said at least one area (21 s), the extent of which being substantially limited to said at least one area (21 s), • providing more than one of said areas (21 s) to be shielded and selectively establishing said distinct shielding plasma to a part of said more than one areas (21 s) to be shielded.
A jetting dispenser for jetting droplets of fluid material, comprising: a fluid module including a fluid body member having within it a fluid body bore, and a nozzle having a dispensing opening, the fluid body bore being adapted to receive the fluid material from a fluid supply; and a plunger having a distal tip end surface that opposes and is generally complementary to a nozzle element surface of the nozzle adapted to cause at least one droplet of fluid material to be jetted out of the dispensing opening, wherein the plunger is moveable between a retracted position spaced from the dispensing opening and a forward position proximate to but spaced from the nozzle, and wherein the at least one droplet of the fluid material is jetted from the dispensing opening as the plunger moves from the retracted position to the forward position; wherein the jetting dispenser comprises an actuation module including an actuation body member that has within it an actuation body bore, the actuation body member including a first inner wall that extends generally along an axial direction of the actuation body member; and a step that extends radially inwardly from the first inner wall, the step being adapted to be contacted by a piston coupled to the plunger such that the plunger is prevented from contacting the nozzle as the plunger moves from the retracted position to the forward position; and wherein the fluid module is partially received within the actuation module. a fluid module including a fluid body member having within it a fluid body bore, and a nozzle having a dispensing opening, the fluid body bore being adapted to receive the fluid material from a fluid supply; and a plunger having a distal tip end surface that opposes and is generally complementary to a nozzle element surface of the nozzle adapted to cause at least one droplet of fluid material to be jetted out of the dispensing opening, wherein the plunger is moveable between a retracted position spaced from the dispensing opening and a forward position proximate to but spaced from the nozzle, and wherein the at least one droplet of the fluid material is jetted from the dispensing opening as the plunger moves from the retracted position to the forward position; wherein the jetting dispenser comprises an actuation module including an actuation body member that has within it an actuation body bore, the actuation body member including a first inner wall that extends generally along an axial direction of the actuation body member; and a step that extends radially inwardly from the first inner wall, the step being adapted to be contacted by a piston coupled to the plunger such that the plunger is prevented from contacting the nozzle as the plunger moves from the retracted position to the forward position; and wherein the fluid module is partially received within the actuation module.
Timepiece comprising a mechanical timepiece movement, provided with a mechanical oscillator formed by a balance and a balance spring (8; 70) and arranged to set the rate of the timepiece movement, and a regulating device for regulating the frequency of the mechanical oscillator, this regulating device including an auxiliary time base (42, 44), formed by an auxiliary oscillator and providing a reference frequency signal, and a device (54, CB) for measuring a time deviation in the rate of the timepiece movement with respect to a desired frequency (S hor) of the mechanical oscillator which is determined by the auxiliary time base, the balance spring being at least partially formed by a piezoelectric material and by at least two electrodes (20, 22; 20a, 22a) arranged to be able to have therebetween a voltage induced by said piezoelectric material when the latter is subjected to mechanical stress during an oscillation of the mechanical oscillator, the two electrodes being electrically connected to the regulating device which is arranged to be able to vary the impedance of the regulating system, formed by said piezoelectric material, said at least two electrodes and the regulating device, as a function of a time deviation measurement signal provided by the measuring device; characterized in that the regulating device is arranged to be able to momentarily vary the electrical resistance produced by said regulating device between said two electrodes, the regulating device being arranged to be able to produce time-separated regulating pulses (8a, 88b), each consisting of a momentary decrease in said electrical resistance relative to a nominal electrical resistance which is produced by the regulating device between said two electrodes outside said regulating pulses, each of said regulating pulses producing a variation of rate in the mechanical movement which varies as a function of the moment of starting thereof in a half-period of the mechanical oscillator, the characteristic function of said variation of rate relative to said moment of starting of at least one of said regulating pulses respectively in at least one half-period of the mechanical oscillator being negative in a first temporal part (ZT1.1 & ZT1.2) of said at least one half-period and positive in a second temporal part of said at least one half-period; and in that the regulating device is arranged to be able to determine whether a time deviation measured by the measuring device corresponds to at least some gain or to at least some loss, the regulating device being arranged to produce at least one of said regulating pulses (88a, 88b) with a selectively arranged start, depending on whether the measured time deviation corresponds to said at least some gain or to said at least some loss, in said first temporal part or in said second temporal part respectively of at least one half-period of the mechanical oscillator.
A system to process transmit/receive assignments using an array antenna, comprising: a plurality of channel units (12, 14, 16, 18, 20) that are each configured to perform a corresponding transmit/receive assignment that requires intermittent access to antenna resources, each transmit/receive assignment having an associated priority and generating a request when antenna access is needed; contention logic to allocate antenna resources to requesting channel units based, at least in part, on assignment priority; at least one memory to store information mapping transmit/receive assignments to corresponding beam parameter data for use in configuring an allocated antenna resource; and an antenna configuration manager to rapidly configure an allocated antenna resource for use with a channel unit in response to an allocation decision of the contention logic, wherein the antenna configuration manager uses information retrieved from the at least one memory to configure the allocated antenna resource. a plurality of channel units (12, 14, 16, 18, 20) that are each configured to perform a corresponding transmit/receive assignment that requires intermittent access to antenna resources, each transmit/receive assignment having an associated priority and generating a request when antenna access is needed; contention logic to allocate antenna resources to requesting channel units based, at least in part, on assignment priority; at least one memory to store information mapping transmit/receive assignments to corresponding beam parameter data for use in configuring an allocated antenna resource; and an antenna configuration manager to rapidly configure an allocated antenna resource for use with a channel unit in response to an allocation decision of the contention logic, wherein the antenna configuration manager uses information retrieved from the at least one memory to configure the allocated antenna resource.
An anti-tumor necrosis factor receptor superfamily member 25 (TNFRSF25) antibody, wherein the antibody comprises: (i) a heavy chain variable region comprising an amino acid sequence having at least 95% sequence identity to SEQ ID NO: 5, wherein the heavy chain CDR1 sequence is GFTFSNHDLN (SEQ ID NO:12), the heavy chain CDR2 sequence is YISSASGLISYADAVRG (SEQ ID NO:14); and the heavy chain CDR3 sequence is DPAYTGLYALDF (SEQ ID NO:26) or DPPYSGLYALDF (SEQ ID NO:16); and (ii) a light chain variable region comprising an amino acid sequence having at least 95% sequence identity to SEQ ID NO: 6, wherein the light chain CDR1 sequence is TLSSELSWYTIV (SEQ ID NO:25), the light chain CDR2 sequence is LKSDGSHSKGD (SEQ ID NO:21), and the light chain CDR3 sequence is CGAGYTLAGQYGWV (SEQ ID NO:23). (i) a heavy chain variable region comprising an amino acid sequence having at least 95% sequence identity to SEQ ID NO: 5, wherein the heavy chain CDR1 sequence is GFTFSNHDLN (SEQ ID NO:12), the heavy chain CDR2 sequence is YISSASGLISYADAVRG (SEQ ID NO:14); and the heavy chain CDR3 sequence is DPAYTGLYALDF (SEQ ID NO:26) or DPPYSGLYALDF (SEQ ID NO:16); and (ii) a light chain variable region comprising an amino acid sequence having at least 95% sequence identity to SEQ ID NO: 6, wherein the light chain CDR1 sequence is TLSSELSWYTIV (SEQ ID NO:25), the light chain CDR2 sequence is LKSDGSHSKGD (SEQ ID NO:21), and the light chain CDR3 sequence is CGAGYTLAGQYGWV (SEQ ID NO:23).
A method for categorizing sugar chains employed to evaluate the level of differentiation of stem cells or precursor cells in which differentiation has been induced characterized by: obtaining a quantitative profile of the N-bond-type sugar chains contained in stem cells or precursor cells cultivated in the absence of a differentiation-inducing agent; obtaining a quantitative profile of the N-bond-type sugar chains contained in stem cells or precursor cells cultivated in the presence of a differentiation-inducing agent, wherein the N-bond-type sugar chains are those separated and purified by the glycoblotting method; extracting at least a part of the group of sugar chains in which the quantities present in the two quantitative profiles have varied; categorizing the various sugar chains contained in the group of sugar chains extracted based on type of sugar chain into high mannose type and non-high mannose type and further dividing the non-high mannose type into categories based on the presence or absence of bisects, the number of fucoses (0, 1, or 2 or more), the presence or absence of sialic acid, and the degree of branching (2 or 3 or more); and determining at least one category of sugar chain from among the five categories as being suited to evaluation of the level of differentiation of stem cells or precursor cells. obtaining a quantitative profile of the N-bond-type sugar chains contained in stem cells or precursor cells cultivated in the absence of a differentiation-inducing agent; obtaining a quantitative profile of the N-bond-type sugar chains contained in stem cells or precursor cells cultivated in the presence of a differentiation-inducing agent, wherein the N-bond-type sugar chains are those separated and purified by the glycoblotting method; extracting at least a part of the group of sugar chains in which the quantities present in the two quantitative profiles have varied; categorizing the various sugar chains contained in the group of sugar chains extracted based on type of sugar chain into high mannose type and non-high mannose type and further dividing the non-high mannose type into categories based on the presence or absence of bisects, the number of fucoses (0, 1, or 2 or more), the presence or absence of sialic acid, and the degree of branching (2 or 3 or more); and determining at least one category of sugar chain from among the five categories as being suited to evaluation of the level of differentiation of stem cells or precursor cells.
A single-axle vehicle (1, 1.1), in particular for agricultural work, such as mowing, turning and/or windrowing, having an implement, a first wheel unit and a second wheel unit, an integrated control unit, wherein the wheel units (3, 4) are arranged in each case at the end on the single-axle vehicle, wherein each of the wheel units (3, 4) is a basic machine, suitable for independent use, wherein the implement comprises two identical or similar partial implements (2.1, 2.2), characterised in that the vehicle (1, 1.1) has a width (b) greater than 3.5 m, wherein the first wheel unit drives the first partial implement (2.1) and the second wheel unit drives the second partial implement (2.2), wherein the first wheel unit and the second wheel unit each have a separate drive.
A print medium comprising: a) a base layer having a first side and a reverse side; b) an absorptive layer being in contact with the first side of the base layer, wherein the absorptive layer has an absorption rate from 1×10 -5 ms -0.5 to 1×10 -3 ms -0.5 and/or a volume uptake from 30 to 95 % by volume relative to the total volume of the absorptive layer; and c) a topcoat being in contact with the absorptive layer, wherein the topcoat has a permeability of greater than 5.0×10 -18 m 2, wherein the topcoat comprises calcium carbonate. a) a base layer having a first side and a reverse side; b) an absorptive layer being in contact with the first side of the base layer, wherein the absorptive layer has an absorption rate from 1×10 -5 ms -0.5 to 1×10 -3 ms -0.5 and/or a volume uptake from 30 to 95 % by volume relative to the total volume of the absorptive layer; and c) a topcoat being in contact with the absorptive layer, wherein the topcoat has a permeability of greater than 5.0×10 -18 m 2, wherein the topcoat comprises calcium carbonate.
Multifunction input device (61, 81) for operating a plurality of systems of a power driven vehicle, the input device comprising a selection unit (62, 82) with a rotation element (64, 64') having a ring-like shape and having a touch surface (66, 66') being accessible during use of the input device, wherein an operation selection is made via the rotation of the rotation element, wherein the selection unit comprises a main part (63, 63') with a touch surface (65, 65') being accessible during use of the input device, and wherein the rotation element (64, 64') is rotatable with respect to the main part (3, 43, 63, 63'); wherein the touch surface (66, 66') of the rotation element (64, 64') is adapted to be operated by a finger or fingers while the finger(s) can stay on the touch surface (66, 66') while rotating the rotation element continuously for 360° or more, wherein the rotation element (4, 64, 64') is is movable in a press button-like manner and is rotatable about a center part (70, 70'), wherein the press button-like movement can be a transverse shift movement to or along the rotational axis of the rotation element, and/or a pivoting movement around an axis different to said rotational axis, wherein the center part comprises at least one button which covers the area surrounded by the ring-like shaped rotational element, and in that the rotation element (64, 64') is arranged offset with respect to a middle of the main part (63, 63'); wherein the rotation element (64, 64') is surrounded by the touch surface (65, 65') of the main part (63, 63').
A system configured to determine the source of vibration of a nipped roll assembly, comprising: a first substantially cylindrical roll; a mating structure positioned relative to the first roll to form a nip therewith, a plurality of spaced-apart annular nip condition sensor units mounted on the first roll; each of the annular sensor units being positioned at different axial locations along the first roll, and configured to provide nip condition signals from the nip, the signals indicating a nip condition at multiple circumferential locations; and a processor associated with the sensor units that receives signals from the sensor units; wherein the processor is configured to convert the signals from the sensor units into nip condition readings for the multiple circumferential locations at each axial location; characterized by, that each sensor is annular and encircles the roll at one axial location. a first substantially cylindrical roll; a mating structure positioned relative to the first roll to form a nip therewith, a plurality of spaced-apart annular nip condition sensor units mounted on the first roll; each of the annular sensor units being positioned at different axial locations along the first roll, and configured to provide nip condition signals from the nip, the signals indicating a nip condition at multiple circumferential locations; and a processor associated with the sensor units that receives signals from the sensor units; wherein the processor is configured to convert the signals from the sensor units into nip condition readings for the multiple circumferential locations at each axial location; characterized by, that each sensor is annular and encircles the roll at one axial location.
An upper cover of an intelligent storage battery comprises an upper cover body with a liquid adding tank disposed on an upper surface thereof; the upper surface of the upper cover body is also provided with a circuit mounting area and terminal mounting areas; a cap is fixedly covered on the circuit mounting area; a liquid crystal display screen and a circuit board of the intelligent storage battery are sequentially and flatly mounted on an inner lateral surface of a top plate of the cap; a conductive adhesive tape is clamped between one end of the liquid crystal display screen and a corresponding lateral plate of the cap; a connection terminal which is in corresponding contact with a bottom of the conductive adhesive tape for electrical connection and is formed by copper-cladding is arranged on the circuit board; characterized in that the top plate is an inclined plate which is inclined downward and outward; the liquid crystal display screen and the circuit board have a thickness direction which is perpendicular to the inclined plate; the conductive adhesive tape and a corresponding lateral surface of the liquid crystal display screen are flatly juxtaposed to each other; there is a gap between a portion of the circuit board corresponding to the bottom of the conductive adhesive tape and an edge of the circuit board.