mhurhangee/ep-ind-claims huggingface dataset:
A laser system comprising a laser cavity and a locking and scanning apparatus for the laser cavity, the locking and scanning apparatus comprising: an external reference cavity having a reference cavity drive system (38, 47) for scanning a reference cavity length; and a locking and scanning circuit electrically connected to a dual piezo-actuated mirror (6a, 6b) of the laser cavity, wherein the locking and scanning circuit comprises a signal generator for generating an error signal between an output from the laser cavity and an output from the external reference cavity, characterised in that the signal generator is configured to split the error signal into a first and second component and the locking and scanning circuit further comprises: a first signal processing circuit for processing the first component of the error signal to provide a feedback signal for a first piezoelectric crystal of the dual piezo-actuated mirror (6a, 6b); and a second signal processing circuit for processing the second component of the error signal to provide a feedback signal for a second piezoelectric crystal (23a, 23b) of the dual piezo-actuated mirror (6a, 6b). a first signal processing circuit for processing the first component of the error signal to provide a feedback signal for a first piezoelectric crystal of the dual piezo-actuated mirror (6a, 6b); and a second signal processing circuit for processing the second component of the error signal to provide a feedback signal for a second piezoelectric crystal (23a, 23b) of the dual piezo-actuated mirror (6a, 6b).
A method of electric discharge machining using an electric discharge machine to intermittently apply a voltage to a machining gap formed between a machining electrode and a workpiece and thereby to machine the workpiece, the method comprising: applying, by a first power supply circuit of the machine, an output voltage equal to or less than an arc voltage to the machining gap and detecting a contact between the machining electrode and its opposite workpiece; the method characterised by when the first power supply circuit detects a contact between the machining electrode and its opposite workpiece, supplying a pulse current from a second power supply circuit of the machine to the machining gap while the machining electrode and the workpiece are in contact with each other; wherein the second power supply circuit is directed by a control unit of the machine to supply a pulse current to the machining gap only when the machining electrode and its opposite workpiece are in contact with each other for a predetermined time or more while a voltage is being applied from the first power supply circuit to the machining gap. applying, by a first power supply circuit of the machine, an output voltage equal to or less than an arc voltage to the machining gap and detecting a contact between the machining electrode and its opposite workpiece; the method characterised by when the first power supply circuit detects a contact between the machining electrode and its opposite workpiece, supplying a pulse current from a second power supply circuit of the machine to the machining gap while the machining electrode and the workpiece are in contact with each other; wherein the second power supply circuit is directed by a control unit of the machine to supply a pulse current to the machining gap only when the machining electrode and its opposite workpiece are in contact with each other for a predetermined time or more while a voltage is being applied from the first power supply circuit to the machining gap.
Sieve basket for receiving medical articles to be disinfected or sterilized, having a receiving container and at least one handle mounted therein or thereon, which in a removal position projects out of/from the receiving container in a manner such that it can be grasped in order to enable the sieve basket to be carried, and which in a locking position is arranged in/abutting on the receiving container, characterized in that the handle can be moved automatically, preferably in a spring-preloaded manner, into its removal position by an automatically operating driving mechanism and can be held in its locking position by a holding/release mechanism, which has for this purpose a holding/release element which can be manually disengaged directly or indirectly and can preferably be reached and actuated from the outside of the basket.
Method for manufacturing a multilayer plastic lens, wherein a plurality of intermediate layers (12, 13) of a plastic material are injected one after the other onto a basic part in an injection molding device in different cavities (23, 24, 25, 26), wherein at least some of the cavities (23, 24, 25, 26) have a common first runner system with a common material feed, wherein at least one outer layer is subsequently injected from a plastic material in another cavity by means of a second runner system, wherein an injection channel, through which the plastic material is inserted into the cavity, is associated with each cavity (22, 23, 24, 25, 26, 27), wherein the second runner system has a material feed of its own and a control of its own, and wherein the pressures and the temperatures of the plastic material are controlled independently from one another in at least some of the injection channels.
Downhole power delivery apparatus for delivering electrical power from a surface power source to a tool downhole in a well installation which comprises downhole metallic structure running down into a borehole, the downhole power delivery apparatus comprising an electrical cable for carrying electrical power from the surface power source, a power transfer arrangement and a power pick up arrangement, the cable being arranged for running down into the borehole together with the metallic structure to the power transfer arrangement which is to be provided at a first downhole location for transferring electrical power carried by the electrical cable onto the downhole metallic structure for onward conduction, and the power pick up arrangement being arranged to be disposed at a second downhole location, spaced from the first, for picking up electrical power from the downhole metallic structure for supply to the downhole tool, characterized in that the power transfer arrangement comprises: a) an electrode arranged to contact with the surroundings of the borehole in which the apparatus is to be installed and to which the cable is electrically connectable to allow a flow of current from the cable to the surroundings in use; b) a pick up winding which is inductively couplable with one of: i) the cable and ii) an electrical connection between the cable and the electrode, such that current flow to the electrode in use induces current flow in the pick up winding; and c) electrical power transmission means arranged to be driven by current induced in the pick up winding and arranged for applying electrical power to the downhole metallic structure in the borehole in which the apparatus is to be installed. a) an electrode arranged to contact with the surroundings of the borehole in which the apparatus is to be installed and to which the cable is electrically connectable to allow a flow of current from the cable to the surroundings in use; b) a pick up winding which is inductively couplable with one of: i) the cable and ii) an electrical connection between the cable and the electrode, such that current flow to the electrode in use induces current flow in the pick up winding; and i) the cable and ii) an electrical connection between the cable and the electrode, c) electrical power transmission means arranged to be driven by current induced in the pick up winding and arranged for applying electrical power to the downhole metallic structure in the borehole in which the apparatus is to be installed.
Guide vane for a variable turbine geometry of a turbocharger, which guide vane has a profile with an upper side and an underside, wherein a line of curvature of the guide vane describes a line connecting the centre points of circles which are enclosed within the profile of the guide vane and which are tangential to the upper side and to the underside, wherein the line of curvature of the guide vane runs between a centre point of a head radius and a centre point of an end radius of the guide vane, wherein the line of curvature has at least one region with two sections (a2, a3) which are connected to one another and form a kink at their connection point, and wherein the line of curvature has at least one further region (b1, b3) with two sections (a1, a2; a3, a4) which are connected to one another and transition into each other continuously or tangentially at their connection point.
A method for producing blocks of wooden parts that are placed against one another and glued together, wherein said wooden parts have a triangular or trapezoidal cross section and are subjected to an aligning pressure in the direction of their bearing side, as well as to a pressing pressure transversely to their glued lateral faces (2, 3), wherein the aligning pressure is applied to the wooden parts transversely to the glued lateral faces (2, 3) that lie obliquely to the bearing side of the wooden parts and convert the aligning pressure into the pressing pressure, with respect to which the glued lateral faces (2, 3) lie obliquely, characterized in that the wooden parts are individually and successively introduced into a packeting station arranged upstream of the pressing station, wherein the wooden parts are alternately rotated about their longitudinal axis, in that the wooden parts are arranged in such a way that the wedge tip of every other wooden part points downward, in that the wooden parts are transported through the pressing station in a transport direction transversely to their glued lateral faces (2, 3), in that the wooden parts are prior to the pressing process aligned relative to one another in the horizontal and the vertical direction due to the application of the aligning pressure by clamping together the wooden parts transversely to the transport direction over the length of the block to be glued together, in that a braking pressure is during the alignment of the wooden parts exerted upon the upper side of the block, which has already been pressed together, wherein said braking pressure is higher than the aligning pressure and exerted perpendicular to the transport direction of the wooden parts, and in that the wooden parts are during the alignment process displaced opposite to the transport direction and pressed against at least one stop.
A straddled vehicle, comprising: an engine; and an air cleaner that is configured to clean air to be supplied to the engine, the air cleaner comprising: an air cleaner case having an inner space; a filter element that is stored in the air cleaner case to section the inner space into an upstream space and a downstream space; and a plurality of three or more air intake ducts (410A, 410B, 410C) respectively forming a plurality of three or more air intake passages (P1, P2, P3), wherein the plurality of air intake ducts (410A, 410B, 410C) are provided in the air cleaner case to respectively have a plurality of upstream openings (411, 421, 431) that open to outside of the air cleaner case from the plurality of air intake passages (P1, P2, P3), respectively have a plurality of downstream openings (412, 422, 432) that open to the upstream space from the plurality of air intake passages (P1, P2, P3) and are configured to guide air outside of the air cleaner case to the upstream space through the plurality of air intake passages (P1, P2, P3), and the straddled vehicle is configured such that air that has passed through the plurality of air intake ducts (410A, 410B, 410C), the upstream space, the filter element and the downstream space is supplied to the engine, characterized in that lengths of the plurality of air intake ducts (410A, 410B, 410C) are all different from one another. an engine; and an air cleaner that is configured to clean air to be supplied to the engine, the air cleaner comprising: an air cleaner case having an inner space; a filter element that is stored in the air cleaner case to section the inner space into an upstream space and a downstream space; and a plurality of three or more air intake ducts (410A, 410B, 410C) respectively forming a plurality of three or more air intake passages (P1, P2, P3), wherein an air cleaner case having an inner space; a filter element that is stored in the air cleaner case to section the inner space into an upstream space and a downstream space; and a plurality of three or more air intake ducts (410A, 410B, 410C) respectively forming a plurality of three or more air intake passages (P1, P2, P3), wherein the plurality of air intake ducts (410A, 410B, 410C) are provided in the air cleaner case to respectively have a plurality of upstream openings (411, 421, 431) that open to outside of the air cleaner case from the plurality of air intake passages (P1, P2, P3), respectively have a plurality of downstream openings (412, 422, 432) that open to the upstream space from the plurality of air intake passages (P1, P2, P3) and are configured to guide air outside of the air cleaner case to the upstream space through the plurality of air intake passages (P1, P2, P3), and the straddled vehicle is configured such that air that has passed through the plurality of air intake ducts (410A, 410B, 410C), the upstream space, the filter element and the downstream space is supplied to the engine, characterized in that lengths of the plurality of air intake ducts (410A, 410B, 410C) are all different from one another.
A computing system having a processor; and a system memory coupled to the processor, the system memory storing an operating system, the operating system being configured to cause the processor to operate in a state selected from a plurality of states based on the number of one or more predicted future samples of processor information, on a preselected value for said predicted future samples and on monitored values of a plurality of samples of processor information in a sample history, wherein the processor information includes a processor workload information and each state of the plurality of states has a different performance level, and the operating system is configured to predict the number of predicted future samples of processor information based on a number of consecutive samples in the sample history, the consecutive samples having monitored processor workload values greater than a selected threshold.
A thermoplastic copolymer composition comprising the following components: 50-82% by weight of an SAN copolymer A1, formed from: A11 60 to 70% by weight of an optionally substituted styrene, A12 30 to 35% by weight of acrylonitrile, A13 0 to 10% by weight of a further copolymerizable monomer; at least 15% by weight of a graft copolymer A2 having a mean particle size of 50 to 150 nm, formed from: A21 60-80% by weight of at least one rubber-like graft base having a glass transition temperature Tg < 0°C: A211 80-99% by weight of at least one C2-C4-alkyl acrylate A212 0.5 to 2.5% by weight of cyclic dicyclopentadienyl acrylate crosslinker A213 0.1 to 2.0% by weight of an acyclic further crosslinker comprising at least two functional groups A214 0 to 18% by weight of a further copolymerizable monomer; A22 20-40% by weight of at least one graft shell consisting of: A221 71 to 80% by weight of an optionally substituted styrene A222 20 to 29% by weight of acrylonitrile A223 0 to 9% by weight of a further copolymerizable monomer; 0-5% by weight of assistants and/or additives C. 50-82% by weight of an SAN copolymer A1, formed from: A11 60 to 70% by weight of an optionally substituted styrene, A12 30 to 35% by weight of acrylonitrile, A13 0 to 10% by weight of a further copolymerizable monomer; A11 60 to 70% by weight of an optionally substituted styrene, A12 30 to 35% by weight of acrylonitrile, A13 0 to 10% by weight of a further copolymerizable monomer; at least 15% by weight of a graft copolymer A2 having a mean particle size of 50 to 150 nm, formed from: A21 60-80% by weight of at least one rubber-like graft base having a glass transition temperature Tg < 0°C: A211 80-99% by weight of at least one C2-C4-alkyl acrylate A212 0.5 to 2.5% by weight of cyclic dicyclopentadienyl acrylate crosslinker A213 0.1 to 2.0% by weight of an acyclic further crosslinker comprising at least two functional groups A214 0 to 18% by weight of a further copolymerizable monomer; A211 80-99% by weight of at least one C2-C4-alkyl acrylate A212 0.5 to 2.5% by weight of cyclic dicyclopentadienyl acrylate crosslinker A213 0.1 to 2.0% by weight of an acyclic further crosslinker comprising at least two functional groups A214 0 to 18% by weight of a further copolymerizable monomer; A22 20-40% by weight of at least one graft shell consisting of: A221 71 to 80% by weight of an optionally substituted styrene A222 20 to 29% by weight of acrylonitrile A223 0 to 9% by weight of a further copolymerizable monomer; A221 71 to 80% by weight of an optionally substituted styrene A222 20 to 29% by weight of acrylonitrile A223 0 to 9% by weight of a further copolymerizable monomer; 0-5% by weight of assistants and/or additives C.
A display fixture comprising two vertical support posts each having a bottom end attached to a base, and a top end for supporting a horizontal crossbar; said vertical support posts being spaced from each other and movable from a first upright position to a second horizontal position substantially parallel to said base; said vertical support posts being substantially perpendicular to the base to which they are attached when in said first position and substantially parallel to the base to which they are attached when in said second position and substantially co-planar to one another; characterized in that the fixture is provided with vertical display panels to be removably attached to said vertical support posts, each vertical display panel having a vertical groove (51, 57) cut into it, with a peg system (60, 70) attached to the back of said vertical display panel, the peg system having pegs (62, 72) accessible from the front through the vertical groove (51, 57).
Seating with an opportunity for seat position adjustment, at least comprising a. a seat shell for accommodating a person, with a fixed shape, with a sitting part that continues into the backrest part, b. a multi-part frame that supports the seat shell, the frame having at least one foot frame section and one seat frame section, wherein both frame sections (2, 4) being mounted so as to be hinged to one another, c. a mounting unit on which the foot frame section and the seat shell are arranged, d. wherein the mounting unit and the seat shell are connected to each other via a coupling unit that is designed to be variable in length e. wherein the seat frame section forms, at least partially, armrests of the seating, wherein the foot frame section is therefore arranged pivotable beared on the respective armrest of the seating, wherein the foot frame section is not directly connected to the sitting part. a. a seat shell for accommodating a person, with a fixed shape, with a sitting part that continues into the backrest part, b. a multi-part frame that supports the seat shell, the frame having at least one foot frame section and one seat frame section, wherein both frame sections (2, 4) being mounted so as to be hinged to one another, c. a mounting unit on which the foot frame section and the seat shell are arranged, d. wherein the mounting unit and the seat shell are connected to each other via a coupling unit that is designed to be variable in length e. wherein the seat frame section forms, at least partially, armrests of the seating, wherein the foot frame section is therefore arranged pivotable beared on the respective armrest of the seating, wherein the foot frame section is not directly connected to the sitting part.
Use of a control agent comprising a polyglycerin fatty acid ester as an active ingredient for controlling a plant pest and/or a plant disease, wherein the polyglycerin fatty acid ester is an ester of at least one fatty acid selected from caprylic acid and capric acid and at least one polyglycerin obtained by polymerizing 3 to 10 glycerins, and the polyglycerin fatty acid ester has an esterification degree of 30 to 60%.
Method for producing a hot-rolled flat steel product comprising the following working steps: - Melting a steel melt, comprising, in addition to iron and unavoidable impurities (in wt %) C: 0.5 - 1.3 %, Mn: 18 - 26 %, Al: 5.9 - 11.5 %, Si: 0.1 - 0.4 %, Cr: less than 3 %, Ni: less than 1 %, Mo: less than 0.5 %, N: 0.005 - 0.04 %, B: less than 0.0050 %, Cu: less than 1 %, Nb: less than 0.2 %, Ti: less than 0.3 %, V: less than 0.3 %, Ca: less than 0.005 %, Zr: less than 0.005 %, P: 0.01 - 0.03 %, S: 0.005 - 0.02 %, - casting the steel melt into a cast strip, - heating the cast strip to an initial hot-rolling temperature of 1100 - 1300°C at a heating rate of at least 20 K/s, - hot rolling the cast strip heated to the initial hot-rolling temperature into a hot strip, - cooling of the hot strip, the cooling starting within 10 s after the hot rolling at a cooling rate of at least 100 K/s to < 400°C, - winding the cooled hot strip into a coil at a coiling temperature of up to 400°C. - Melting a steel melt, comprising, in addition to iron and unavoidable impurities (in wt %) C: 0.5 - 1.3 %, Mn: 18 - 26 %, Al: 5.9 - 11.5 %, Si: 0.1 - 0.4 %, Cr: less than 3 %, Ni: less than 1 %, Mo: less than 0.5 %, N: 0.005 - 0.04 %, B: less than 0.0050 %, Cu: less than 1 %, Nb: less than 0.2 %, Ti: less than 0.3 %, V: less than 0.3 %, Ca: less than 0.005 %, Zr: less than 0.005 %, P: 0.01 - 0.03 %, S: 0.005 - 0.02 %, C: 0.5 - 1.3 %, Mn: 18 - 26 %, Al: 5.9 - 11.5 %, Si: 0.1 - 0.4 %, Cr: less than 3 %, Ni: less than 1 %, Mo: less than 0.5 %, N: 0.005 - 0.04 %, B: less than 0.0050 %, Cu: less than 1 %, Nb: less than 0.2 %, Ti: less than 0.3 %, V: less than 0.3 %, Ca: less than 0.005 %, Zr: less than 0.005 %, P: 0.01 - 0.03 %, S: 0.005 - 0.02 %, - casting the steel melt into a cast strip, - heating the cast strip to an initial hot-rolling temperature of 1100 - 1300°C at a heating rate of at least 20 K/s, - hot rolling the cast strip heated to the initial hot-rolling temperature into a hot strip, - cooling of the hot strip, the cooling starting within 10 s after the hot rolling at a cooling rate of at least 100 K/s to < 400°C, - winding the cooled hot strip into a coil at a coiling temperature of up to 400°C.