mhurhangee/ep-ind-claims huggingface dataset:
A device for optically controlling a chemical reaction in a reaction chamber comprising a reagent fluid, said device comprising: - a substrate for binding at least one molecule on a first surface of the substrate, wherein said first surface is a wall of the reaction chamber and wherein the substrate is configured as a wiregrid; - an optical arrangement configured to direct cleavage light to the substrate to optically induce a photochemical cleavage reaction; characterized by - a circulation arrangement for circulating the reagent fluid in the reaction chamber, wherein the circulation arrangement comprising a channel connecting opposite ends of the reaction chamber. - a substrate for binding at least one molecule on a first surface of the substrate, wherein said first surface is a wall of the reaction chamber and wherein the substrate is configured as a wiregrid; - an optical arrangement configured to direct cleavage light to the substrate to optically induce a photochemical cleavage reaction; characterized by - a circulation arrangement for circulating the reagent fluid in the reaction chamber, wherein the circulation arrangement comprising a channel connecting opposite ends of the reaction chamber.
A retaining plug assembly for a slam-shut safety device, the retaining plug assembly comprising: a reset pin; a retaining plug attached to the reset pin, the retaining plug including a distal section and a proximal section, the proximal section including a conical portion; characterized in that the retaining plug assembly further comprises: a spring locator, the reset pin extending through a bore in the spring locator, wherein the spring locator includes a conical recess sized to receive at least part of the conical portion of the retaining plug; and a safety disk attached to the distal section of the retaining plug. a reset pin; a retaining plug attached to the reset pin, the retaining plug including a distal section and a proximal section, the proximal section including a conical portion; characterized in that the retaining plug assembly further comprises: a spring locator, the reset pin extending through a bore in the spring locator, wherein the spring locator includes a conical recess sized to receive at least part of the conical portion of the retaining plug; and a safety disk attached to the distal section of the retaining plug. a spring locator, the reset pin extending through a bore in the spring locator, wherein the spring locator includes a conical recess sized to receive at least part of the conical portion of the retaining plug; and a safety disk attached to the distal section of the retaining plug.
A method for at least semi-automatically manufacturing a polynucleotide with minimal or reduced errors through an iterative error elimination process, the method comprising the steps of: a. analysing and dividing a target polynucleotide sequence in silico into error-prone single stranded DNA sequences short enough to be synthesized by a conventional oligonucleotide synthesis, wherein said analysing further comprises constructing each short single stranded DNA sequences separately; b. recursively combining the error-prone single stranded DNA sequences in vitro to form error-prone elongated single stranded DNA sequences, the recursive process comprising the steps of phosphorylating one of two single stranded input strands, annealing the strands, elongating the strands to produce an elongated double stranded DNA and digesting the phosphorylated strand of the double stranded DNA by an exonuclease to yield an elongated single stranded DNA output; c. cloning and sequencing the elongated single stranded DNA output to identify errors therein, wherein if an error- free target polynucleotide is identified, this forms the output and the process terminates; or wherein if an error-prone output is identified, a set of the longest error-free regions of the elongated single stranded DNA are identified and used as more accurate inputs for repeating the recursive combination to produce an elongated single stranded DNA with no or fewer errors than the previous iteration; and d. repeating the process until an error-free target molecule is formed. a. analysing and dividing a target polynucleotide sequence in silico into error-prone single stranded DNA sequences short enough to be synthesized by a conventional oligonucleotide synthesis, wherein said analysing further comprises constructing each short single stranded DNA sequences separately; b. recursively combining the error-prone single stranded DNA sequences in vitro to form error-prone elongated single stranded DNA sequences, the recursive process comprising the steps of phosphorylating one of two single stranded input strands, annealing the strands, elongating the strands to produce an elongated double stranded DNA and digesting the phosphorylated strand of the double stranded DNA by an exonuclease to yield an elongated single stranded DNA output; c. cloning and sequencing the elongated single stranded DNA output to identify errors therein, wherein if an error- free target polynucleotide is identified, this forms the output and the process terminates; or wherein if an error-prone output is identified, a set of the longest error-free regions of the elongated single stranded DNA are identified and used as more accurate inputs for repeating the recursive combination to produce an elongated single stranded DNA with no or fewer errors than the previous iteration; and d. repeating the process until an error-free target molecule is formed.
A circuit breaker, comprising an L-pole circuit breaker (3, 6), an N-pole circuit breaker (4, 7) and a remote opening controller (5, 8), wherein the L-pole circuit breaker (3, 6) comprises an L-pole lock catch for realizing tripping and opening thereof, and the N-pole circuit breaker (4, 7) comprises an N-pole lock catch for realizing tripping and opening thereof, characterized in that: the circuit breaker further comprises a lock catch shaft (32, 61); the N-pole lock catch is provided with a socket (41 1)for realizing delayed tripping; one end of the lock catch shaft (32, 61) is connected and fitted with the remote opening controller (5,8), the lock catch shaft (32, 61) passes through the socket on the N-pole lock catch, and another end of the lock catch shaft (32, 61) is connected and fitted with the L-pole lock catch; a shape of the socket is configured to be capable of accommodating the lock catch shaft (32, 61) to abut against the socket after the lock catch shaft (32, 61) conducts a certain movement stroke; the remote opening controller (5,8) receives a remote signal and drives the lock catch shaft (32, 61) to generate a tripping stroke; the L-pole lock catch connected and fitted with another end of the lock catch shaft (32, 61) is driven to trip and open synchronously, but, since the lock catch shaft (32, 61) only abuts against the socket after moving for a certain stroke, the N-pole lock catch is driven to trip and open in a delayed manner.
A regulator for an isolated flyback converter having a transformer with a primary winding and a secondary winding and a switching circuit for controllably delivering energy into the primary winding in response to pulses (V p), the regulator comprising: a load voltage sensing circuit configured to generate a feedback signal (\/ L) representative of output voltage (V O) from the isolated flyback converter based on voltage across the primary winding of the transformer; an error circuit configured to compare the feedback signal representative of output voltage to a reference signal (V REF) and to output an error voltage (V E) based on the difference between the reference signal (V REF) and the feedback signal (V L); and a pulse generator configured to controllably generate the pulses (V p) and to increase at least one off time and at least one period of the pulses (V P) after the error voltage (V E) decreases below a threshold value, but not to increase the period of the pulses (V p) before the error voltage (V E) decreases below the threshold value, when the magnitude of the error voltage (V E) decreases. a load voltage sensing circuit configured to generate a feedback signal (\/ L) representative of output voltage (V O) from the isolated flyback converter based on voltage across the primary winding of the transformer; an error circuit configured to compare the feedback signal representative of output voltage to a reference signal (V REF) and to output an error voltage (V E) based on the difference between the reference signal (V REF) and the feedback signal (V L); and a pulse generator configured to controllably generate the pulses (V p) and to increase at least one off time and at least one period of the pulses (V P) after the error voltage (V E) decreases below a threshold value, but not to increase the period of the pulses (V p) before the error voltage (V E) decreases below the threshold value, when the magnitude of the error voltage (V E) decreases.
A method for fracturing a semiconductor substrate, comprising: forming a plurality of dividing grooves (8a, 8b, 8c) having a predetermined depth on the semiconductor substrate, wherein the dividing grooves (8a, 8b, 8c) are not parallel to a cleavage plane ( α, β) of the semiconductor substrate and define a fringe portion around the periphery of the semiconductor substrate; and fracturing the semiconductor substrate along the dividing grooves (8a, 8b, 8c) by bending the fringe portion in a downward direction, thereby forming the semiconductor substrate into a polygonal shape. forming a plurality of dividing grooves (8a, 8b, 8c) having a predetermined depth on the semiconductor substrate, wherein the dividing grooves (8a, 8b, 8c) are not parallel to a cleavage plane ( α, β) of the semiconductor substrate and define a fringe portion around the periphery of the semiconductor substrate; and fracturing the semiconductor substrate along the dividing grooves (8a, 8b, 8c) by bending the fringe portion in a downward direction, thereby forming the semiconductor substrate into a polygonal shape.
An insertion ultrasonic sensor assembly, comprising: an elongated sensor body having a distal end, the distal end including two projections at the distal end, the two projections defining a measurement axis; a pair of ultrasonic transceivers, each transceiver of the pair mounted to a corresponding projection of the two projections, the pair of ultrasonic transceivers defining a measurement section therebetween, along the measurement axis; and a mounting assembly configured to couple to a wall of a container of flowing fluid so that the sensor body projects into the container having the distal end exposed to the flowing fluid, in manner that the measurement axis of the sensor body is oriented at an oblique angle relative to the flow of the fluid within the container. an elongated sensor body having a distal end, the distal end including two projections at the distal end, the two projections defining a measurement axis; a pair of ultrasonic transceivers, each transceiver of the pair mounted to a corresponding projection of the two projections, the pair of ultrasonic transceivers defining a measurement section therebetween, along the measurement axis; and a mounting assembly configured to couple to a wall of a container of flowing fluid so that the sensor body projects into the container having the distal end exposed to the flowing fluid, in manner that the measurement axis of the sensor body is oriented at an oblique angle relative to the flow of the fluid within the container.
Compound profile for the assembly of a frame or a leaf of a window or door, with the compound profile comprising a basic profile (4,5) that is made up of an outer shell with an outer side and inner shell with an inner inside and of one or more insulation channels that join both shells to each other, whereby the basic profile (4,5) comprises at least one lateral side (10, 11) that joins said outer side and inner side to each other and further comprises an insulation profile, whereby the basic profile (4,5) and/or the insulation profile are provided with coupling parts (12,19) to be able to attach the insulation profile against an aforementioned lateral side (10,11), whereby the coupling parts of the insulation profile are formed by at least two legs (20,23) that extend essentially parallel and at a distance from each other in the lateral direction (X-X') and that are slidable clamped around and/or between one or several laterally protruding coupling parts of the basic profile (4,5) in the lateral direction (X-X') characterised in that the outer coupling parts of the basic profile (4,5) are formed by ribs that on the sides facing each other are provided with barbs that can hook in complementary barbs (24,21) that are located on the opposite legs (20,23) of the insulation profile when mounting the insulation profile on het basic profile (4,5) and this in two positions, being a first lateral position whereby the central legs of the insulation profile rest on the central rib of the basic profile and the outer legs are hooked in behind the outer ribs of the basic profile, and a second more pressed-in lateral position whereby the central legs are hooked tight behind the central rib of the basic profile and a part of the outer legs touches or nearly touches the outer ribs of the basic profile.
A method of preparing an encapsulated product, comprising reacting a solution comprising at least one protein selected from the group consisting of whey solids, whey protein isolate and soy protein and at least one reducing sugar selected from the group consisting of glucose and maltose at a starting pH of at least about 10 to achieve a degree of protein hydrolysis of between about 1 % and about 15%, wherein the reacting is at a temperature of at least 90°C; combining the reacted solution with a composition comprising a core material; wherein the reacted solution forms an encapsulant on the composition comprising the core material, and wherein the core material comprises a polyunsaturated fatty acid selected from the group consisting of docosahexaenoic acid, docosapentaenoic acid, arachidonic acid, eicosapentaenoic acid, stearidonic acid, linolenic acid, alpha linolenic acid, gamma linolenic acid, conjugated linolenic acid and mixtures thereof.
Erythropoietin and granulocyte-colony stimulating factor (G-CSF) jointly for use in the treatment of a cerebrovascular disease, in which EPO and G-CSF are the sole active ingredients.
An information processing apparatus that converts nonverbal information, the information processing apparatus comprising: intention estimation means for estimating an intention indicated in first nonverbal information, which is nonverbal information of a first user, based on a feature of the first nonverbal information and a nonverbal expression model indicating a relation between the first nonverbal information and an intention; and nonverbal information conversion means (23, 25) for converting the first nonverbal information into second nonverbal information to be output to a second user based on the estimated intention and a set conversion rule of the nonverbal information, characterized in that the conversion rule is set based on a nonverbal expression model for the second user. intention estimation means for estimating an intention indicated in first nonverbal information, which is nonverbal information of a first user, based on a feature of the first nonverbal information and a nonverbal expression model indicating a relation between the first nonverbal information and an intention; and nonverbal information conversion means (23, 25) for converting the first nonverbal information into second nonverbal information to be output to a second user based on the estimated intention and a set conversion rule of the nonverbal information, characterized in that the conversion rule is set based on a nonverbal expression model for the second user.
A cable sequence for wiring of an electrical circuit, with: - a series arrangement of a plurality of pre-assembled cables, each of which comprises a first cable end and a second cable end (10, 11) which lies opposite the first cable end, wherein each of the pre-assembled cables comprises a conductor and a conductor insulation, and wherein the cable ends (10, 11) are processed for the wiring of an electrical circuit in such a manner that a respective conductor end is insulation-free at the first cable end and at the second cable end, and - connections between adjacently arranged pre-assembled cables in the series arrangement, wherein, by means of the connections, in each case a first cable end of a pre-assembled cable, produced beforehand as free cable end, and a second cable end of a next pre-assembled cable in the series arrangement, produced beforehand as free cable end, are connected to one another, characterized in that the first cable end and the second cable end (10, 11) overlap one another in longitudinal direction of the cables. - a series arrangement of a plurality of pre-assembled cables, each of which comprises a first cable end and a second cable end (10, 11) which lies opposite the first cable end, wherein each of the pre-assembled cables comprises a conductor and a conductor insulation, and wherein the cable ends (10, 11) are processed for the wiring of an electrical circuit in such a manner that a respective conductor end is insulation-free at the first cable end and at the second cable end, and - connections between adjacently arranged pre-assembled cables in the series arrangement,
A cartridge device for insertion into an electrospinning unit, said unit being constructed and arranged to apply a fiber matrix to a tubular member and having a rotational drive assembly, the cartridge device comprising: a housing that defines a chamber; a tubular member holder, wherein the tubular member can be placed over the tubular member holder, and wherein the tubular member holder is positioned within the chamber; a rotation element operably connected to the tubular member holder, the rotation element being configured to engage with said rotational drive assembly of the unit; and a polymer delivery assembly. a housing that defines a chamber; a tubular member holder, wherein the tubular member can be placed over the tubular member holder, and wherein the tubular member holder is positioned within the chamber; a rotation element operably connected to the tubular member holder, the rotation element being configured to engage with said rotational drive assembly of the unit; and a polymer delivery assembly.
An adapter, comprising: a plurality of power inputs coupled to power sources; a plurality of power outputs coupled to electronic devices; a power management component coupled to the plurality of power inputs and the plurality of power outputs to manage delivery of power; a power source capability information translation component coupled to the power management component and an external source that is configured to provide a power source capability information of a power source connected to a power input of the plurality of power inputs, wherein the power management component is configured to deliver the power from the power source to a power output of the plurality of power outputs in accordance with the power source capability information received from the external source; wherein the power management component is configured to monitor a power delivered from each of the plurality of power inputs and power delivered to each of the plurality of power outputs and the power management component is configured to regulate the amount of power delivered from the plurality of power inputs based on the power that is monitored; and wherein the power source capability information translation component communicates the power source capability information to the electronic devices via signaling lines. a plurality of power inputs coupled to power sources; a plurality of power outputs coupled to electronic devices; a power management component coupled to the plurality of power inputs and the plurality of power outputs to manage delivery of power; a power source capability information translation component coupled to the power management component and an external source that is configured to provide a power source capability information of a power source connected to a power input of the plurality of power inputs, wherein the power management component is configured to deliver the power from the power source to a power output of the plurality of power outputs in accordance with the power source capability information received from the external source; wherein the power management component is configured to monitor a power delivered from each of the plurality of power inputs and power delivered to each of the plurality of power outputs and the power management component is configured to regulate the amount of power delivered from the plurality of power inputs based on the power that is monitored; and wherein the power source capability information translation component communicates the power source capability information to the electronic devices via signaling lines.
A telescopic ladder, comprising a left column and a right column, which are symmetrical to each other and arranged longitudinally, and a plurality of steps which are arranged transversely, each of the columns being formed by socketing a smaller tube in a bigger tube, one of the steps being arranged between upper ends of two tubes of a same diameter, an instep-operable folding switch is provided below a first step on the bottom of the ladder; the instep-operable folding switch comprises an operating lever on which an operating gasket is fixed; an upper end of one transmission bar comes into contact with an end of a pin switch for a second step, and the other end of the pin switch is hinged to a middle portion of a pin via a round pin; a front end of the pin is fitted in positioning holes of two columns corresponding to the second step, and a rear end of the pin is resisted against a return spring; and the return spring is located within a pin connector which is fixed within the second step; the ladder is characterized in that each of two ends of the operating lever comes into contact with a lower end of the transmission bar and the ladder further comprises a slow-fall mechanism which is arranged between adjacent column tubes; the slow-fall mechanism comprises one upper seal disc arranged within a tube, the upper seal disc being connected to the tube in a sealed manner; a lower seal disc, which is connected to a lower adjacent tube in a sealed manner, is provided within the lower adjacent tube; and air vents (27, 28) are formed on the lower seal disc.