mhurhangee/ep-ind-claims huggingface dataset:
Camera arrangement for a motor vehicle having a camera arranged behind a vehicle window in the interior of the vehicle and a beam-guiding element which is arranged between the vehicle window and the camera and which possesses or forms a prism, and which has an antireflective coating (8, 8') on its rear side characterised in that the reflectivity of the anti-reflective coating is smaller for s-polarised light than for p-polarised light over at least a subsection of the angle of light incidence constituting the detection range of the camera and over at least a subsection of the sensitivity spectrum of the camera.
A method for genetically modifying a Trichoderma host for improved protein production, which comprises genetically modifying a Trichoderma host to overexpress gene tre66966 having SEQ ID NO:1 or a coding region of the gene or a nucleotide sequence hybridizing to said SEQ ID NO: 1 under stringent conditions with overnight incubation at 42 degree C in a solution comprising 50% formamide, 5x SSC (750 mM NaCl, 75 mM trisodium citrate), 50 mM sodium phosphate (pH 7.6), 5x Denhardt's solution, 10% dextran sulfate, and 20 μg/ml denatured, sheared salmon sperm DNA, followed by washing the filters in 0.1 x SSC at about 65 degree C, said host being capable of increased production of CBHI, EGI or xylanase as compared to the parental strain.
A charged particle beam system comprising: a charged particle source for producing charged particles; a sample holder for holding a sample; a detector for detecting, in an analysis position, a signal produced from the sample by impingement of the charged particles on the sample; a drive mechanism for moving the detector into the analysis position; characterized by further comprising a controller for controlling the drive mechanism; the controller configured to perform the steps of: obtaining information about the type of the sample holder, determining the analysis position on the basis of the obtained information about the type of the sample holder, and controlling the drive mechanism to move the detector into the determined analysis position. a charged particle source for producing charged particles; a sample holder for holding a sample; a detector for detecting, in an analysis position, a signal produced from the sample by impingement of the charged particles on the sample; a drive mechanism for moving the detector into the analysis position; characterized by further comprising a controller for controlling the drive mechanism; the controller configured to perform the steps of: obtaining information about the type of the sample holder, determining the analysis position on the basis of the obtained information about the type of the sample holder, and controlling the drive mechanism to move the detector into the determined analysis position.
A coating structure material comprising an Ni-Co-base alloy substrate and a Co-base alloy coating layer formed on the Ni-Co-base alloy substrate, wherein the Co-base alloy coating layer consists of, in terms of % by mass, Ni: 20% or less, Co: 42% or more, Si: 2.8% or less and 0.5% or more, and Fe: 3.5% or less and 2.5% or more, and optionally at least one element selected from the group consisting of, in terms of % by mass, C: 1.5% or less, Mn: 1.0% or less, Cr: 30% or less, Mo: 20% or less, W: 9.0% or less, Ti: 0.3% or less, and Al: 0.4% or less, the remainder being unavoidable impurities, derived from elements contained in alloy raw materials and gas elements, such as O and N, which are unavoidable mixed in a coating layer formation, wherein the content of the unavoidable impurities is 0.01% or less.
A process for producing acrylamide, the process comprising: (i) hydrating acrylonitrile using: a bacterial cell containing nitrile hydratase, or a substance containing nitrile hydratase obtainable by treating a bacterial cell containing nitrile hydratase; (ii) adding to the acrylamide at least one compound selected from dimedone, barbituric acid, hydantoin, and salts thereof. (i) hydrating acrylonitrile using: a bacterial cell containing nitrile hydratase, or a substance containing nitrile hydratase obtainable by treating a bacterial cell containing nitrile hydratase; a bacterial cell containing nitrile hydratase, or a substance containing nitrile hydratase obtainable by treating a bacterial cell containing nitrile hydratase; (ii) adding to the acrylamide at least one compound selected from dimedone, barbituric acid, hydantoin, and salts thereof.
A cross-connect wiring system, comprising: a terminal block; an index strip on the terminal block, the index strip including a first plurality of conductor receiving slots; one or more connector blocks mounted on the index strip; a plurality of pairs of tip and ring insulation displacement contacts IDCs (24a, 24e; 24b, 24f; 24c, 24g; 24d, 24h) mounted at least partially in the one or more connector blocks; wherein each of the IDCs (24a-24h) have a first end for electrically connecting with a first mating conductor and a second end that is opposite the first end for mating with a second mating conductor; wherein each IDC (24a-24h) includes a first slot at the first end, an open end of which points in a first direction, and a second slot at the second end, an open end of which points in a second direction that is opposite the first direction; the cross connect wiring system is characterized in that the first and second ends of each of the IDCs (24a-24h) are offset; and the IDCs (24a-24h) of each of the pairs of IDCs (24a, 24e; 24b, 24f; 24c, 24g; 24d, 24h) cross over each other one and only one time; and the tip IDCs (24a-24d) are aligned in a first row within the one or more connector blocks and the ring IDCs (24e-24h) are aligned in a second row within the one or more connector blocks. a terminal block; an index strip on the terminal block, the index strip including a first plurality of conductor receiving slots; one or more connector blocks mounted on the index strip; a plurality of pairs of tip and ring insulation displacement contacts IDCs (24a, 24e; 24b, 24f; 24c, 24g; 24d, 24h) mounted at least partially in the one or more connector blocks; wherein each of the IDCs (24a-24h) have a first end for electrically connecting with a first mating conductor and a second end that is opposite the first end for mating with a second mating conductor; wherein each IDC (24a-24h) includes a first slot at the first end, an open end of which points in a first direction, and a second slot at the second end, an open end of which points in a second direction that is opposite the first direction; the cross connect wiring system is characterized in that the first and second ends of each of the IDCs (24a-24h) are offset; and the IDCs (24a-24h) of each of the pairs of IDCs (24a, 24e; 24b, 24f; 24c, 24g; 24d, 24h) cross over each other one and only one time; and the tip IDCs (24a-24d) are aligned in a first row within the one or more connector blocks and the ring IDCs (24e-24h) are aligned in a second row within the one or more connector blocks.
A processing method, applied to a mobile device with a plurality of applications installed, comprising: when a quantity of application threads in an application process of an application is greater than or equal to a first threshold, determining a quantity of binder threads that are occupied by the application process in each interface in a system server process, wherein the binder threads are occupied by the application process by invoking an interface in the system server process, wherein one application thread in the application process corresponds to one binder thread in the system server process; and keeping a quantity of binder threads occupied by the application process in at least one interface in the system server process not greater than a second threshold, wherein the second threshold is less than a quantity of all binder threads included in the system server process and greater than the first threshold. when a quantity of application threads in an application process of an application is greater than or equal to a first threshold, determining a quantity of binder threads that are occupied by the application process in each interface in a system server process, wherein the binder threads are occupied by the application process by invoking an interface in the system server process, wherein one application thread in the application process corresponds to one binder thread in the system server process; and keeping a quantity of binder threads occupied by the application process in at least one interface in the system server process not greater than a second threshold, wherein the second threshold is less than a quantity of all binder threads included in the system server process and greater than the first threshold.
A milling drum box unit, in particular a quick-change milling drum box unit, for mounting on a self-propelled base machine to obtain a ground miling machine, said milling drum box unit comprising - an interior configured to accommodate a milling drum and open downward in vertical direction, with a front wall (b), a rear wall (c), a top wall (d) and two opposing side walls (e), - a part of a fastening device for mounting the milling drum box unit, in particular quick-change milling drum box unit, to the base machine; - a connection point arranged within the interior of the milling drum box unit, in particular quick-change milling drum box unit, which is configured to receive and establish a drive connection to a milling drum rotatable about a rotation axis, - on sides of each side wall, a lateral shield which is height-adjustable relative to the side wall, - at least two drive energy-consuming consumer elements and/or at least two sensors for detecting an operating parameter, characterized in that, a distributing device or a connection device to a distributing device for hydraulic and/or electrical energy and/or incoming control signals is provided on the milling drum box unit, which performs a distribution of hydraulic and/or electrical energy and/or incoming control signals supplied via a common line to at least two hydraulic and/or electrical energy-consuming consumers and/or actuators controlled via control signals. - an interior configured to accommodate a milling drum and open downward in vertical direction, with a front wall (b), a rear wall (c), a top wall (d) and two opposing side walls (e), - a part of a fastening device for mounting the milling drum box unit, in particular quick-change milling drum box unit, to the base machine; - a connection point arranged within the interior of the milling drum box unit, in particular quick-change milling drum box unit, which is configured to receive and establish a drive connection to a milling drum rotatable about a rotation axis, - on sides of each side wall, a lateral shield which is height-adjustable relative to the side wall, - at least two drive energy-consuming consumer elements and/or at least two sensors for detecting an operating parameter, - a connection point arranged within the interior of the milling drum box unit, in particular quick-change milling drum box unit, which is configured to receive and establish a drive connection to a milling drum rotatable about a rotation axis, - on sides of each side wall, a lateral shield which is height-adjustable relative to the side wall, - at least two drive energy-consuming consumer elements and/or at least two sensors for detecting an operating parameter, characterized in that, a distributing device or a connection device to a distributing device for hydraulic and/or electrical energy and/or incoming control signals is provided on the milling drum box unit, which performs a distribution of hydraulic and/or electrical energy and/or incoming control signals supplied via a common line to at least two hydraulic and/or electrical energy-consuming consumers and/or actuators controlled via control signals.
A glass article comprising: a glass substrate including a first surface and a second surface opposite the first surface, and wherein an average thickness of the glass substrate between the first surface and the second surface is equal to or less than 0.3 mm; a first compressive stress layer extending inward toward a center of the glass substrate comprising a first depth of layer DOL 1; a second compressive stress layer extending inward toward the center of the glass substrate comprising a second depth of layer DOL 2; wherein DOL 1 is greater than DOL 2; and wherein the glass substrate is chemically strengthened. a glass substrate including a first surface and a second surface opposite the first surface, and wherein an average thickness of the glass substrate between the first surface and the second surface is equal to or less than 0.3 mm; a first compressive stress layer extending inward toward a center of the glass substrate comprising a first depth of layer DOL 1; a second compressive stress layer extending inward toward the center of the glass substrate comprising a second depth of layer DOL 2; wherein DOL 1 is greater than DOL 2; and wherein the glass substrate is chemically strengthened.
Camshaft for internal combustion engines, comprising a shaft with an outside diameter and at least one cam, which has been pushed onto the shaft in a connecting manner and has a clearance with the diameter, and this clearance comprises a first radially inwardly raised structured surface with an inside circle diameter, consisting of at least one projection, which forms structure interspaces, wherein the shaft comprises at least in certain portions, in regions at which a cam is attached, a second raised structuring with structure interspaces, with the increased shaft diameter, and that the cam has been pushed with its structured surface of the clearance onto the structured surface of the shaft in such a way that at least subregions of the one and/or the other of the surface structures (5, 6) are at least elastically deformed and/or pressed machined in one another, characterized in that the gaps between the cam and the shaft, formed by the interspaces (7, 8) of the two pressed, structured surfaces (5, 6), have been cemented substantially at least in an interlocking manner with a curable adhesive or cement and in that after curing the adhesive is in an expanded state.
An optical deflection apparatus comprising: a moving part having a reflection surface; a supporting part swingably supporting the moving part around one axis and having tortuous parts (210a, 210b) having respective plural beams (108a, 108b) connected in series to each other in a tortuous manner; and a plurality of piezoelectric members (11, 12) separately provided on the respective beams (108a, 108b), wherein two drive signals having sawtooth-shaped waveforms or sawtooth-shaped waveforms where the top of the waveform is rounded and/or sawtooth-shaped waveforms where the linear part of the waveform is curved, are respectively applied by a controller in parallel to two piezoelectric members (108a, 108b) separately provided on the beams (108a, 108b) adjacent to each other, characterized in that at least one mechanical resonance frequency of a system including the moving part and the supporting part is included in a frequency band including the frequency of Formula 1 or the frequency f n2 of Formula 2, wherein f s equals the drive frequency of the two drive signals, S 1 equals a ratio of the rising time to the one cycle in one of the two drive signals and S 2 equals a ratio of the falling time to the one cycle in the other one of the two drive signals: f n 1 = N ⋅ f s 1 − S 1 f n 2 = N ⋅ f s 1 − S 2 a moving part having a reflection surface; a supporting part swingably supporting the moving part around one axis and having tortuous parts (210a, 210b) having respective plural beams (108a, 108b) connected in series to each other in a tortuous manner; and a plurality of piezoelectric members (11, 12) separately provided on the respective beams (108a, 108b), wherein two drive signals having sawtooth-shaped waveforms or sawtooth-shaped waveforms where the top of the waveform is rounded and/or sawtooth-shaped waveforms where the linear part of the waveform is curved, are respectively applied by a controller in parallel to two piezoelectric members (108a, 108b) separately provided on the beams (108a, 108b) adjacent to each other, characterized in that at least one mechanical resonance frequency of a system including the moving part and the supporting part is included in a frequency band including the frequency of Formula 1 or the frequency f n2 of Formula 2, wherein f s equals the drive frequency of the two drive signals, S 1 equals a ratio of the rising time to the one cycle in one of the two drive signals and S 2 equals a ratio of the falling time to the one cycle in the other one of the two drive signals: f n 1 = N ⋅ f s 1 − S 1 f n 2 = N ⋅ f s 1 − S 2
Tyre building system for building a tyre in a plurality of functional steps, having a plurality of machine modules (2.n), each machine module (2.n) comprising a functional unit (3.n) for performing at least one functional step in the tyre building process, and each machine module (2.n) being assigned a module control unit (12.n) for controlling the functional unit (3.n) of this machine module (2.n), and having a central module, which is designed to communicate via data signals (S.n) with the module control units (12.n) of the machine modules (2.n) and to activate them, characterized in that the module control unit (12.n) is arranged in or on the respectively assigned machine module (2.n) and each machine module (2.n) is also assigned its own module power supply (13.n), so that each machine module (2.n) can be operated autonomously and/or independently of the other machine modules (2.n) of the tyre building system, each machine module (2.n) having its own module data interface (4.n), which on the one hand is connected in a signal-conducting manner to the module control unit (12.n) of the machine module (2.n) and which on the other hand is indirectly or directly connected via a module data line (5.n) to a central data interface of the central module for sending and/or receiving data signals (S.n), assigned by the respective machine module (2.n), for coordinating the machine modules (2.n) of the tyre building system via the central module.
A process for treating saline water to obtain product water comprising a higher concentration of divalent ions (i) Mg 2+ and/or Ca 2+, and (ii) SO 4 2- as compared with said saline water, the process comprising the steps of: a. passing a sample of saline water through a first nanofiltration membrane to obtain an NF permeate and an NF retentate (NF brine); b. performing a first diaNanofiltration cycle (DiaNF cycle) comprising passing the NF brine obtained in step (a) through a second NF membrane in the presence of a diluting solution to obtain a DiaNF permeate and a diaNF retentate (DiaNF brine), wherein the added volume of the diluting solution is equal to the volume of the NF brine of step (a), and wherein the diluting solution is added at a flow rate similar to that of the DiaNF permeate; c. recirculating the DiaNF brine obtained in step (b) by subjecting it to one or more additional DiaNF cycles in the presence of a diluting solution, wherein the added volume of the diluting solution is equal to the volume of the brine from the previous DiaNF cycle, wherein the diluting solution is added at a flow rate similar to that of the DiaNF permeate, and wherein the DiaNF cycles are performed in a continuous manner; and d. isolating the DiaNF brine from step (c) as product water having a higher concentration of said divalent ions, and a lower concentration of species selected from the group consisting of Na +, Br -, Cl - and B as compared with said saline water, wherein the process further comprises the step of lowering the Mg 2+ +Ca 2+:SO 4 2- concentration ratio in the product water as compared with the saline water. a. passing a sample of saline water through a first nanofiltration membrane to obtain an NF permeate and an NF retentate (NF brine); b. performing a first diaNanofiltration cycle (DiaNF cycle) comprising passing the NF brine obtained in step (a) through a second NF membrane in the presence of a diluting solution to obtain a DiaNF permeate and a diaNF retentate (DiaNF brine), wherein the added volume of the diluting solution is equal to the volume of the NF brine of step (a), and wherein the diluting solution is added at a flow rate similar to that of the DiaNF permeate; c. recirculating the DiaNF brine obtained in step (b) by subjecting it to one or more additional DiaNF cycles in the presence of a diluting solution, wherein the added volume of the diluting solution is equal to the volume of the brine from the previous DiaNF cycle, wherein the diluting solution is added at a flow rate similar to that of the DiaNF permeate, and wherein the DiaNF cycles are performed in a continuous manner; and d. isolating the DiaNF brine from step (c) as product water having a higher concentration of said divalent ions, and a lower concentration of species selected from the group consisting of Na +, Br -, Cl - and B as compared with said saline water,
A tool having a moulding surface for forming a component by laminating a stack of ply layers which are arranged on the moulding surface of the tool during a moulding process, wherein the moulding surface is shaped such that the surface of the laminate component nearest the tool when the stack of ply layers are arranged on the moulding surface of the tool substantially conforms to a nominal surface of the laminate component, characterised in that the moulding surface of the tool comprises an edge, a corner, and a recess and/or protrusion wrinkle control feature extending from the edge and tapering toward the corner for managing the development of wrinkle in the ply layers, wherein the wrinkle control feature is arranged to cooperate with the stack of ply layers during the moulding process to produce a local surface undulation in the surface of the laminate component nearest the tool that deviates from the nominal surface of the laminate component to either prevent wrinkling in the ply layers or initiate wrinkling in one or more of the ply layers at a predetermined location.