mhurhangee/ep-ind-claims huggingface dataset:
A method for non-template dependent oligonucleotide synthesis, the method comprising: exposing a nucleic acid strand to a modified terminal deoxynucleotidyl transferase (TdT) enzyme to incorporate a single nucleotide onto said nucleic acid strand, wherein the modified TdT enzyme remains tightly bound to the strand after incorporation; releasing the modified TdT enzyme from the strand by use of a releasing agent or releasing condition, wherein the modified TdT enzyme comprises a mutation to a Loop1 or SD1 region of a naturally occurring TdT enzyme or to a residue responsible for binding three phosphates of nucleic acid strand. exposing a nucleic acid strand to a modified terminal deoxynucleotidyl transferase (TdT) enzyme to incorporate a single nucleotide onto said nucleic acid strand, wherein the modified TdT enzyme remains tightly bound to the strand after incorporation; releasing the modified TdT enzyme from the strand by use of a releasing agent or releasing condition, wherein the modified TdT enzyme comprises a mutation to a Loop1 or SD1 region of a naturally occurring TdT enzyme or to a residue responsible for binding three phosphates of nucleic acid strand.
Wind turbine comprising - a bedplate (5, 55), - a main shaft (9, 59) and - a direct drive generator (2, 52) arranged on the main shaft (9, 59) and comprising a rotor (18, 68) and a stator (19, 69) containing a hollow part like housing substantially arranged around the rotor (18, 68) and containing a first endplate (28, 78), a second endplate (29, 79) and a casing element (32, 82) connecting the first (28, 78) and the second (29, 79) endplate to each other, characterized by a three-bearing arrangement wherein - the main shaft (9, 59) carries the rotor (18, 68) and is pivoted relatively to the bedplate (5, 5) by a first (7, 57) and a second (8, 58) bearing of the three-bearing arrangement such that the rotor (18, 68) is able to turn together with the main shaft (9, 59), - the rotor (18, 68) is connected to the main shaft (9, 59), - the first endplate (28, 78) of the stator (19, 69) is supported on the rotor (18, 68) or the main shaft by a third bearing (27, 77) of the three-bearing arrangement, and - the second endplate (29, 79) of the stator (19, 69) is at least indirectly attached to the bedplate (5, 55). - a bedplate (5, 55), - a main shaft (9, 59) and - a direct drive generator (2, 52) arranged on the main shaft (9, 59) and comprising a rotor (18, 68) and a stator (19, 69) containing a hollow part like housing substantially arranged around the rotor (18, 68) and containing a first endplate (28, 78), a second endplate (29, 79) and a casing element (32, 82) connecting the first (28, 78) and the second (29, 79) endplate to each other, - the main shaft (9, 59) carries the rotor (18, 68) and is pivoted relatively to the bedplate (5, 5) by a first (7, 57) and a second (8, 58) bearing of the three-bearing arrangement such that the rotor (18, 68) is able to turn together with the main shaft (9, 59), - the rotor (18, 68) is connected to the main shaft (9, 59), - the first endplate (28, 78) of the stator (19, 69) is supported on the rotor (18, 68) or the main shaft by a third bearing (27, 77) of the three-bearing arrangement, and - the second endplate (29, 79) of the stator (19, 69) is at least indirectly attached to the bedplate (5, 55).
Mounting assembly for mounting to a support electronic equipment, such as a powered distribution unit for distributing electric power to several loads, comprising: a clamp element having a clamping mechanism (10,11) for clamping the clamp element to said electronic equipment, a base element pivotally connected to said clamp element which base element comprises attachment means for mounting the base element to said support, characterized in that a pivot is provided for pivotally connecting the base element to the clamp element, the pivot comprising a pivot bore within the clamp element and a pivot pin on the base element, the pivot pin having an undercut for engagement with the pivot bore. a clamp element having a clamping mechanism (10,11) for clamping the clamp element to said electronic equipment, a base element pivotally connected to said clamp element which base element comprises attachment means for mounting the base element to said support, characterized in that a pivot is provided for pivotally connecting the base element to the clamp element, the pivot comprising a pivot bore within the clamp element and a pivot pin on the base element, the pivot pin having an undercut for engagement with the pivot bore.
Construction robot, in particular for carrying out construction work in building construction, comprising - a manipulator, - a changeover interface which is situated on the manipulator and is configured for releasable arrangement of at least one tool on the manipulator, and - a testing device which is configured for detection of wear, dust, dirt on the changeover interface and/or the tool and/or incorrect fit of a tool arranged on the changeover interface and for emitting a warning signal upon detection. - a manipulator, - a changeover interface which is situated on the manipulator and is configured for releasable arrangement of at least one tool on the manipulator, and - a testing device which is configured for detection of wear, dust, dirt on the changeover interface and/or the tool and/or incorrect fit of a tool arranged on the changeover interface and for emitting a warning signal upon detection.
A current transducer comprising a section of a primary conductor, a magnetic field gradient sensor mounted in proximity to the primary conductor and configured to measure a magnetic field gradient in a gradient measurement direction transverse to a current flow direction of a primary current ( I P) flowing in the primary conductor that enables measurement of said primary current ( I P), a first lateral magnetic shim mounted adjacent a first outer side of the primary conductor, and a second lateral magnetic shim mounted adjacent a second outer side of the primary conductor opposite the first outer side, a respective major internal surface of the first and second lateral magnetic shims facing the magnetic field gradient sensor and extending essentially parallel to the current flow direction, the first and second lateral magnetic shims made of a material with high magnetic permeability and low magnetic reluctance and configured to redirect external magnetic fields between the shims, characterized in that the current transducer further comprises a first branch of a Rogowski coil mounted adjacent a third outer side of the primary conductor extending between the first and second lateral magnetic shims, and a second branch of the Rogowski coil mounted adjacent a fourth outer side, opposite the third outer side, of the primary conductor extending between the first and second lateral shims.
Laminated glass obtained by laminating at least one film A containing a polyvinyl acetal PA and optionally at least one plasticiser WA and at least one film B containing a polyvinyl acetal PB and at least one plasticiser WB between two glass sheets, characterised in that prior to lamination - the amount of plasticiser WA in film A is less than 16 % by weight - the amount of plasticiser WB in film B is at least 16 % by weight and - film A comprises 39 to 1170 ppm potassium ions and has an alkaline titer higher than 10. - the amount of plasticiser WA in film A is less than 16 % by weight - the amount of plasticiser WB in film B is at least 16 % by weight and - film A comprises 39 to 1170 ppm potassium ions and has an alkaline titer higher than 10.
A hydrogen sensor comprising: a P-type silicon nanowire array comprising a plurality of P-type silicon nanowires; and a hydrogenation catalyst including palladium (Pd) entirely formed on the surface of the P-type silicon nanowires to form a core-shell structure and having a thickness of 1 nm to 20 nm, wherein: the hydrogenation catalyst is configured to be reduced into a metal hydride, PdHx, to form a Schottky contact between the P-type silicon nanowires and the hydrogenation catalyst, and to form a work function of the metal hydride a negative number when exposed to hydrogen such that holes inside the plurality of P-type silicon nanowires are neutralized, and a Schottky barrier is formed by a difference between the work function of the metal hydride and the work function of the P-type silicon nanowires, wherein a current is decreased by formation of the Schottky barrier. a P-type silicon nanowire array comprising a plurality of P-type silicon nanowires; and a hydrogenation catalyst including palladium (Pd) entirely formed on the surface of the P-type silicon nanowires to form a core-shell structure and having a thickness of 1 nm to 20 nm, wherein: the hydrogenation catalyst is configured to be reduced into a metal hydride, PdHx, to form a Schottky contact between the P-type silicon nanowires and the hydrogenation catalyst, and to form a work function of the metal hydride a negative number when exposed to hydrogen such that holes inside the plurality of P-type silicon nanowires are neutralized, and a Schottky barrier is formed by a difference between the work function of the metal hydride and the work function of the P-type silicon nanowires, wherein a current is decreased by formation of the Schottky barrier. the hydrogenation catalyst is configured to be reduced into a metal hydride, PdHx, to form a Schottky contact between the P-type silicon nanowires and the hydrogenation catalyst, and to form a work function of the metal hydride a negative number when exposed to hydrogen such that holes inside the plurality of P-type silicon nanowires are neutralized, and a Schottky barrier is formed by a difference between the work function of the metal hydride and the work function of the P-type silicon nanowires, wherein a current is decreased by formation of the Schottky barrier.
Fluid chamber body for a fluid jetting device ejecting droplets of a fluid, the fluid having a high temperature, the body J Z defining a fluid chamber for holding a fluid having a temperature of up to 3000K and having an orifice extending from the fluid chamber to an outer surface of the fluid chamber element, the fluid chamber body being made of a heat-resistant material, the heat-resistant material being wettable by the fluid, wherein at least an inner surface of the fluid chamber body is provided with a wetting coating, the wetting coating being wettable for the fluid, wherein the heat-resistant, wettable material is substantially electrically conductive.
A recombinant DNA molecule comprising a DNA sequence selected from the group consisting of: a) a DNA sequence with at least 95 percent sequence identity to the full length of SEQ ID NO: 19, wherein the DNA sequence has the promoter activity of SEQ ID NO: 19; b) a DNA sequence comprising SEQ ID NO: 19; c) a fragment comprising at least 300 contiguous nucleotides of SEQ ID NO: 19, wherein the fragment has the promoter activity of SEQ ID NO: 19; wherein said sequence is operably linked to a heterologous transcribable polynucleotide molecule. a) a DNA sequence with at least 95 percent sequence identity to the full length of SEQ ID NO: 19, wherein the DNA sequence has the promoter activity of SEQ ID NO: 19; b) a DNA sequence comprising SEQ ID NO: 19; c) a fragment comprising at least 300 contiguous nucleotides of SEQ ID NO: 19, wherein the fragment has the promoter activity of SEQ ID NO: 19;
A monitoring method for use in a blood analyzer for monitoring an aspiration of a blood sample, comprising aspirating a blood sample via an aspiration tube that comprises an internal flow path extending in a lengthwise direction and an aspirating orifice formed near the tip thereof for aspirating a blood sample; an aspirated set amount of blood inside the aspiration tube, comprising measurement sample and a first part on the tip side of the aspiration tube relative to the measurement sample, characterized by the steps of: delivering the first part of the blood sample in the aspiration tube to a detecting part (D1, D2, D3, D4) forming part of the blood analyizer, detecting whether or not the the first part comprises a blood sample, preparing a mixed sample using the measurement sample, and measuring the mixed sample. delivering the first part of the blood sample in the aspiration tube to a detecting part (D1, D2, D3, D4) forming part of the blood analyizer, detecting whether or not the the first part comprises a blood sample, preparing a mixed sample using the measurement sample, and measuring the mixed sample.
Method for drying bulk material, in particular solids, such as granulates, powder, grains, foils, chips, or the like, preferably plastic granulate, in a drying silo by means of an air flow, wherein the moistened returned air or the process air flow that emerges from the drying silo is dried in a drying cell containing a drying or adsorbent agent, said drying cell preferably being a wheel dryer consisting of an air distribution cover and an air distribution floor having a rotatable drum arranged there between, and returned in the form of a drying air flow to the bulk goods again and the adsorbent agent is furthermore regenerated in the wheel dryer, characterized in that the drum of the wheel dryer is divided by the air distribution cover and the air distribution floor into only two regions through which air is able to flow, wherein one region is used to regenerate the adsorbent agent and the other region is used for drying or dehumidifying the process air flow and that the region for drying or dehumidifying the process air flow directly adjoins the region for regenerating the adsorbent agent, wherein the hot adsorbent agent is introduced uncooled into the region for drying or dehumidifying the process air flow.
Method for manufacturing a reclosable package containing stackable piece goods, wherein the package is formed from a shrink-fitted polymer film and at least one of the surfaces has a pre-perforated tear-open strip with a grip attached thereto in a frictionally engaging manner, wherein the method comprises the steps of a1) stacking tea-lights or maxi-lights in a rectangular spatial form of a flat extent, b1) perforating a shrink-fittable polymer film while forming a region enclosed trapezoidally by the perforation, c1) enveloping the spatial form while aligning the trapezoidally enclosed region on an upper side, c2) sealing the polymer film around the edges, c3) carrying out final shrink-fitting by applying hot air, d1) applying printing on the upper side of an elastic, nontransparent polymer film and d2) applying at least one pressure-sensitive adhesive and at least one connecting adhesive on the underside of the nontransparent polymer film, d3) attaching the printed, nontransparent polymer film on the upper side of the shrink-fitted polymer film, the connecting adhesive providing a frictionally engaging connection in the region that is trapezoidally enclosed by the perforation and the pressure-sensitive adhesive being arranged around the edges in relation to the trapezoidally enclosed region.
A method for hydraulically fracturing a formation in a reservoir using a fracturing fluid mixture comprising natural gas and a fracturing base fluid and for recovering after the fracturing, a well stream from a well fluidly coupled to the reservoir and to a surface processing facility for processing a gas component of the well stream, the method comprising: (a) defining flow back requirements for flowing the well stream from the well and into the surface processing facility; (b) determining a natural gas composition of the fracturing fluid mixture that achieves the determined flow back requirements and that results in a composition of the gas component of the well stream that is compatible with gas composition requirements of the surface processing facility; (c) determining a natural gas content of the fracturing fluid mixture that achieves the determined flow back requirements and that results in a wellhead flowing pressure sufficient to flow the well stream at least to surface; (d) forming the fracturing fluid mixture having the determined natural gas composition and content; (e) during a formation fracturing stage, injecting the fracturing fluid mixture into the well to fracture the formation; and (f) during a flow back stage, flowing the gas component of the well stream from the well into the surface processing facility, wherein at least some of the well stream includes the injected natural gas in the fracturing fluid mixture. (a) defining flow back requirements for flowing the well stream from the well and into the surface processing facility; (b) determining a natural gas composition of the fracturing fluid mixture that achieves the determined flow back requirements and that results in a composition of the gas component of the well stream that is compatible with gas composition requirements of the surface processing facility; (c) determining a natural gas content of the fracturing fluid mixture that achieves the determined flow back requirements and that results in a wellhead flowing pressure sufficient to flow the well stream at least to surface; (d) forming the fracturing fluid mixture having the determined natural gas composition and content; (e) during a formation fracturing stage, injecting the fracturing fluid mixture into the well to fracture the formation; and (f) during a flow back stage, flowing the gas component of the well stream from the well into the surface processing facility, wherein at least some of the well stream includes the injected natural gas in the fracturing fluid mixture.
A signal transmission circuit, comprising: - an arbiter circuit; - an output circuit provided in a high side circuit that operates with a first potential as a reference potential, the output circuit being configured to selectively generate and output a plurality of kinds of pulse signals in accordance with the order of priority of a plurality of arbiter circuit output signals (OHE, OCE, UVE), wherein the arbiter circuit outputs the plurality of arbiter circuit output signals (OHE, OCE, UVE) in an order of priority; - a switch element (16, 17), driven so as to be turned on and off by a respective pulse signal output from the output circuit, the switch element (16, 17) being turned on and off in accordance with the arbiter circuit output signals (OHE, OCE, UVE) to transmit pulse signals of a predetermined voltage with the first potential as a reference potential in accordance with the arbiter circuit output signals (OHE, OCE, UVE) to a low side circuit that operates with a second potential lower than the first potential as a reference potential; - a voltage conversion circuit provided in the low side circuit, the voltage conversion circuit being configured to convert the voltage of the pulse signals transmitted via the switch element (16, 17) into a pulse signal of a predetermined voltage with the second potential as a reference potential; and - a signal analysis circuit being configured to analyze the pulse signal obtained via the voltage conversion circuit and to restore the plurality of arbiter circuit output signals (OHE, OCE, UVE). - an arbiter circuit; - an output circuit provided in a high side circuit that operates with a first potential as a reference potential, the output circuit being configured to selectively generate and output a plurality of kinds of pulse signals in accordance with the order of priority of a plurality of arbiter circuit output signals (OHE, OCE, UVE), wherein the arbiter circuit outputs the plurality of arbiter circuit output signals (OHE, OCE, UVE) in an order of priority; - a switch element (16, 17), driven so as to be turned on and off by a respective pulse signal output from the output circuit, the switch element (16, 17) being turned on and off in accordance with the arbiter circuit output signals (OHE, OCE, UVE) to transmit pulse signals of a predetermined voltage with the first potential as a reference potential in accordance with the arbiter circuit output signals (OHE, OCE, UVE) to a low side circuit that operates with a second potential lower than the first potential as a reference potential; - a voltage conversion circuit provided in the low side circuit, the voltage conversion circuit being configured to convert the voltage of the pulse signals transmitted via the switch element (16, 17) into a pulse signal of a predetermined voltage with the second potential as a reference potential; and - a signal analysis circuit being configured to analyze the pulse signal obtained via the voltage conversion circuit and to restore the plurality of arbiter circuit output signals (OHE, OCE, UVE).
Method for calibrating an assembling device which is adapted to automatically assemble a connector housing with a contact part (32a, 32b) attached to an electrical line and which includes a holder for the connector housing, a positioning device with a movable gripper (28a, 28b) for positioning the contact part (32a, 32b) in respect to the holder and for inserting the contact part (32a, 32b) into a cavity of the connector housing in an insertion direction, an image capturing device for capturing at least one spatially resolved image of at least a portion of the holder, and a control unit for determining a position of the cavity in the at least one spatially resolved image and for determining a movement of the gripper (28a, 28b) required for inserting the contact part (32a, 32b) into the cavity based on the determined position of the cavity, characterized in that (i) a marking carrier is attached to the holder, (ii) a marking means (40a, 40b) is gripped by the movable gripper (28a, 28b), (iii) a plurality of marking points is set on the marking carrier attached to the holder by means of the gripper (28a, 28b) and the marking means (40a, 40b) gripped thereby, (iv) the positions of the marking points on the marking carrier are determined by means of the image capturing device, and (v) the determined positions of the marking points are stored in a memory device associated with the control unit, wherein in step (iii) the gripper (28a, 28b) is respectively moved to a marking position with marking means (40a, 40b) spaced from the marking carrier in a process plane extending transversely to the insertion direction according to predetermined process coordinates of the positioning device, wherein in step (v) the process coordinates are respectively stored together with the determined position of the associated marking point in the memory device. (i) a marking carrier is attached to the holder, (ii) a marking means (40a, 40b) is gripped by the movable gripper (28a, 28b), (iii) a plurality of marking points is set on the marking carrier attached to the holder by means of the gripper (28a, 28b) and the marking means (40a, 40b) gripped thereby, (iv) the positions of the marking points on the marking carrier are determined by means of the image capturing device, and (v) the determined positions of the marking points are stored in a memory device associated with the control unit,
Induction furnace for carrying out a heat treatment of a dental replacement part, comprising an induction coil, a radiant heater, an insulation layer and a furnace chamber, characterized in that the induction furnace comprises a cooling system with a liquid cooling system.