mhurhangee/ep-ind-claims huggingface dataset:
A holding device in which a holding mechanism having a holding part for holding a held object is supported on a device main body so as to slidably project and retract, the holding device comprising, a lock part mounted on the holding mechanism and configured to lock the holding mechanism at an arbitrary projected position, characterized in that the lock part includes a first rotary body pivotally supported on the holding mechanism and configured to rotate by application of erecting operation, the erecting operation being operation to erect the holding part, a second rotary body configured to rotate by a force directly or indirectly applied from the first rotary body by the rotation of the first rotary body, and an engagement part configured to move between an engaged position at which the engagement part is engaged to the device main body and a disengaged position by the rotation of the second rotary body, and the lock part is configured to lock the holding mechanism with the engagement part being moved to the engaged position and is configured to unlock the holding mechanism with the engagement part being moved to the disengaged position, and the engagement part is configured to move to the engaged position by the erecting operation. a lock part mounted on the holding mechanism and configured to lock the holding mechanism at an arbitrary projected position, characterized in that the lock part includes a first rotary body pivotally supported on the holding mechanism and configured to rotate by application of erecting operation, the erecting operation being operation to erect the holding part, a second rotary body configured to rotate by a force directly or indirectly applied from the first rotary body by the rotation of the first rotary body, and an engagement part configured to move between an engaged position at which the engagement part is engaged to the device main body and a disengaged position by the rotation of the second rotary body, and a first rotary body pivotally supported on the holding mechanism and configured to rotate by application of erecting operation, the erecting operation being operation to erect the holding part, a second rotary body configured to rotate by a force directly or indirectly applied from the first rotary body by the rotation of the first rotary body, and an engagement part configured to move between an engaged position at which the engagement part is engaged to the device main body and a disengaged position by the rotation of the second rotary body, and the lock part is configured to lock the holding mechanism with the engagement part being moved to the engaged position and is configured to unlock the holding mechanism with the engagement part being moved to the disengaged position, and the engagement part is configured to move to the engaged position by the erecting operation.
A generally tubular intravascular stent having opposing first and second ends (22, 24), said intravascular stent including a plurality of end loop portions at the opposing first and second ends of the stent, and an intermediate tubular body portion formed of a plurality of intermediate circumferential loops between the plurality of end loop portions, said intermediate tubular body portion having a first diameter (D 1), an enlarged first end and an enlarged opposing second end, said enlarged first and second ends having a second diameter (D 2) greater than the first diameter (D 1) of the intermediate tubular body portion, wherein said plurality of end loop portions and said plurality of intermediate circumferential loops of said intermediate tubular body portion are formed from a single spirally wound composite wire, characterized in that said composite wire comprises: an elongated inner core having a selected length and formed from a radiopaque metal; an intermediate polymer layer coaxially disposed immediately adjacent to and surrounding the inner core; and an outer metal layer coaxially disposed immediately adjacent to and surrounding the polymer layer. an elongated inner core having a selected length and formed from a radiopaque metal; an intermediate polymer layer coaxially disposed immediately adjacent to and surrounding the inner core; and an outer metal layer coaxially disposed immediately adjacent to and surrounding the polymer layer.
A synergistic microbicidal composition comprising: (a) at least one microbicide selected from the group consisting of 4-chloro-3,5-dimethylphenol, 2-hydroxydiphenylmethane, 4-hydroxydiphenylmethane, 5,6,7,8-tetrahydronaphthalen-1-ol, 5,6,7,8-tetrahydronaphthalen-2-ol, 2-cyclopentylphenol, 4-cyclopentylphenol, 3-isopropyl-6-methylbenzene-1,2-diol and 4-tert-butylbenzene-1,2-diol; and (b) at least one microbicide selected from the group consisting of 2-methyl-5-(prop-1-en-2-yl)cyclohexanol, 5-methyl-2-(prop-1-en-2-yl)cyclohexanol and 2-methyl-5-(prop-1-en-2-yl)cyclohex-2-enol.
A process for producing chlorine dioxide from an alkali metal chloride solution, the process comprising: applying a current to an electrolytic reactor, wherein the electrolytic reactor includes an anode compartment comprising an anode, a cathode compartment comprising a cathode, and a central compartment positioned between the anode and cathode compartments (72, 76), wherein the central compartment comprises a cation exchange material and is separated from the cathode compartment with a cation exchange membrane; flowing water (H 2 O) into the anode and cathode compartments (72, 76); feeding an acid precursor solution to the central compartment; exchanging alkali metal ions from the acid precursor with hydrogen ions to produce a protic acid effluent in the central compartment; diluting an alkali metal chlorite solution with the protic acid effluent; feeding the diluted alkali metal chlorite to a catalytic reactor; and contacting the diluted alkali metal chlorite with a catalytic material in the catalytic reactor to produce chlorine dioxide. applying a current to an electrolytic reactor, wherein the electrolytic reactor includes an anode compartment comprising an anode, a cathode compartment comprising a cathode, and a central compartment positioned between the anode and cathode compartments (72, 76), wherein the central compartment comprises a cation exchange material and is separated from the cathode compartment with a cation exchange membrane; flowing water (H 2 O) into the anode and cathode compartments (72, 76); feeding an acid precursor solution to the central compartment; exchanging alkali metal ions from the acid precursor with hydrogen ions to produce a protic acid effluent in the central compartment; diluting an alkali metal chlorite solution with the protic acid effluent; feeding the diluted alkali metal chlorite to a catalytic reactor; and contacting the diluted alkali metal chlorite with a catalytic material in the catalytic reactor to produce chlorine dioxide.
Method for recognition of a speech signal where - in a first step of recognition, vocabulary entries similar to the speech signal are identified in a settable vocabulary, - in a second step of recognition, the corresponding speech signal is selected from the similar vocabulary entries, characterised in that - sampling of determined speech signal information is reduced in the first and/or second step of recognition, - and/or feature sequences of vocabulary entries of the settable vocabulary are reduced. - in a first step of recognition, vocabulary entries similar to the speech signal are identified in a settable vocabulary, - in a second step of recognition, the corresponding speech signal is selected from the similar vocabulary entries, - sampling of determined speech signal information is reduced in the first and/or second step of recognition, - and/or feature sequences of vocabulary entries of the settable vocabulary are reduced.
A substrate transport system comprising: a carrier having a housing forming an interior environment having an opening for holding at least one substrate, and a door for sealing the opening from an outside atmosphere where when sealed the interior environment is configured to maintain an interior atmosphere therein, characterized in that the housing includes a fluid reservoir exterior to the interior environment and configured to contain a fluid, forming a different atmosphere in the fluid reservoir than the interior atmosphere, and so that the fluid reservoir with fluid forms a fluidic barrier seal that seals the interior environment from an environment exterior to the carrier, wherein the fluid reservoir is configured to release fluid into the interior environment upon a breach of the interior environment. a housing forming an interior environment having an opening for holding at least one substrate, and a door for sealing the opening from an outside atmosphere where when sealed the interior environment is configured to maintain an interior atmosphere therein, characterized in that the housing includes a fluid reservoir exterior to the interior environment and configured to contain a fluid, forming a different atmosphere in the fluid reservoir than the interior atmosphere, and so that the fluid reservoir with fluid forms a fluidic barrier seal that seals the interior environment from an environment exterior to the carrier, wherein the fluid reservoir is configured to release fluid into the interior environment upon a breach of the interior environment.
A process comprising the following steps: (a) treating sodium carboxymethyl cellulose with a weak acid to form an acid form of carboxymethyl cellulose; and (b) treating the acid form of carboxymethyl cellulose with lithium chloride to form lithium carboxymethyl cellulose; wherein the acid form of the carboxymethyl cellulose is isolated by filtration after acidification in step (a) and before the treatment with the lithium chloride in step (b). (a) treating sodium carboxymethyl cellulose with a weak acid to form an acid form of carboxymethyl cellulose; and (b) treating the acid form of carboxymethyl cellulose with lithium chloride to form lithium carboxymethyl cellulose;
Pharmaceutical product containing plant parts obtained from neem tree ( Azadirachta indica) leaves for use in treating, preventing and/or alleviating symptoms of restless legs syndrome.
Bag for providing parenteral nutrition in accordance with the individual requirements of the patient, having an inner space which is subdivided into separate chambers (1, 2, 3, 4), wherein the chambers (1, 2, 3, 4) serve to receive fluids for parenteral nutrition, wherein in the inner space there are formed at least two chambers (1, 2, 3, 4), between which a fluid connection can be produced, wherein the chambers (1, 2, 3, 4) are formed by clamping rails which extend transversely relative to the longitudinal direction and over the entire width of the bag and which are delimited with respect to each other, wherein in the clamping rails there are arranged strands which clamp in the clamping rail and which can be pulled completely or partially out of the clamping rail, whereby the fluid connection between the chambers (1, 2, 3, 4) can be produced, and wherein the inner space of the bag is subdivided into a minimum of six and preferably a maximum of ten chambers (1, 2, 3, 4), wherein at least two chambers (1, 2, 3, 4) in accordance with the individual metabolic state of a patient contain different nutritional components, which after production of the fluid connection between the chambers (1, 2, 3, 4) and before administration to the patient can be mixed to form a parenteral nutrition, wherein at least a first chamber contains a parenteral nutrition solution with a first energy content and at least a second chamber contains a fluid to cover the fluid requirement with a second energy content which is smaller than the first energy content of the parenteral nutrition solution, wherein the parenteral nutrition solution comprises carbohydrates, amino acids, fats, vitamins, trace elements and electrolytes.
A receiver of a signal communication system, said system comprising a transmitter adapted to transmit at least a coded signal, said receiver for receiving the signal, and a wireless interface interposed between the transmitter and the receiver and comprising a transmitting antenna and a receiving antenna, said receiver comprising decoding means of the received signal, wherein the receiver comprises first means (9, 10) coupled with the receiving antenna and capable of triggering said decoding means of the received signal if the value of the received signal is outside a logic hysteresis consisting of a first logic threshold (TH_LO) having a value smaller than the value of the direct current component of the received signal and a second logic threshold (TH_HI) having a value greater than the value of the direct current component (Irdc) of the received signal, said first means (9, 10) comprising second means adapted to compare said received signal (Ir) to said first and said second logic thresholds and generate logic signals (PM, MM, MP, PP) only if the value of said received signal is below said first logic threshold or above said second logic threshold, said received signal being a differential signal with a first component and a second component and said second means being adapted to compare the components of the differential signal received to said first (TH_LO) and said second (TH_HI) logic thresholds and to generate logic signals only if the value of one of said components of the received differential signal is below said first logic threshold or above said second logic threshold and the other component of the differential signal is respectively above said second logic threshold or below said first logic threshold, said first means (9, 10) comprising third means (SEQ1, SEQ2) adapted to generate a pulse (PULSE_P, PULSE_N) to trigger said decoding means of the received signal only if the generation of a logic signal (PM, MM, MP, PP) due to the comparison of the first component of the differential signal to one of the first and second logic thresholds corresponds to the generation of a logic signal due to the comparison of the second component of the differential signal with the other of the first or second logic threshold.
A dialysis liquid for use in a method of treating a human or animal subject by therapy, wherein undesired hydrogen cations (H +) are removed from a biological fluid of the subject in a dialysis system comprising a dialyzer, the dialysis liquid characterized by (i) a pH the range from pH 8.0 to pH 11.0; (ii) comprising at least one buffering agent, wherein the buffering agent is selected from the group consisting of a water-soluble protein and THAM and wherein the buffering agent has at least one pKa value in the range of 7.0 to 11.0; and (iii) a buffering capacity of 12 mmol/l or more for H + ions; wherein the dialysis liquid comprises 0 to 40 mmol/l carbonate/bicarbonate; wherein the method of treatment comprises: the biological fluid is exposed to the dialysis liquid across a semipermeable membrane in the dialyzer; and the amount of hydrogen cations (H +) removed from the biological fluid is automatically quantified, wherein the amount of hydrogen cations (H +) removed from the biological fluid is calculated based on the buffering capacity of the dialysis liquid and the difference of the pH of the dialysis liquid entering the dialyzer and the pH of the dialysis liquid exiting the dialyzer. (i) a pH the range from pH 8.0 to pH 11.0; (ii) comprising at least one buffering agent, wherein the buffering agent is selected from the group consisting of a water-soluble protein and THAM and wherein the buffering agent has at least one pKa value in the range of 7.0 to 11.0; and (iii) a buffering capacity of 12 mmol/l or more for H + ions; wherein the dialysis liquid comprises 0 to 40 mmol/l carbonate/bicarbonate; wherein the method of treatment comprises: the biological fluid is exposed to the dialysis liquid across a semipermeable membrane in the dialyzer; and the amount of hydrogen cations (H +) removed from the biological fluid is automatically quantified, wherein the amount of hydrogen cations (H +) removed from the biological fluid is calculated based on the buffering capacity of the dialysis liquid and the difference of the pH of the dialysis liquid entering the dialyzer and the pH of the dialysis liquid exiting the dialyzer. the biological fluid is exposed to the dialysis liquid across a semipermeable membrane in the dialyzer; and the amount of hydrogen cations (H +) removed from the biological fluid is automatically quantified, wherein the amount of hydrogen cations (H +) removed from the biological fluid is calculated based on the buffering capacity of the dialysis liquid and the difference of the pH of the dialysis liquid entering the dialyzer and the pH of the dialysis liquid exiting the dialyzer.
An outer conductor arrangement for a plug connector having an outer conductor base body and an outer conductor ring, wherein the outer conductor base body has a plurality of contact tabs (201, 203), wherein the outer conductor ring connects to an interface-side end of the outer conductor base body, is connected to the outer conductor base body by means of a retaining tab in at least one connecting region and is of a closed structure, in order to form a closed entry of the outer conductor arrangement, wherein contact tabs are provided, which are not connected to the outer conductor ring, wherein a jump in diameter is formed between the outer conductor ring and the outer conductor base body, wherein the diameter of the outer conductor base body is larger than the diameter of the outer conductor ring, wherein the outer conductor ring has no indentation and no protrusion, characterized in that the outer conductor ring is connected to the outer conductor base body by means of a joining process.
An air inlet and foreign bodies trapping arrangement in a pod of an aircraft propulsion assembly, comprising a main air inlet duct separating on the one hand into a channel for leading air to a compressor and on the other hand into a bypass channel capable of trapping foreign bodies penetrating into said main duct, the bypass channel comprising an impact zone located in the direct extension of the main air inlet duct, characterized in that it includes a heat exchanger of the surface type which extends along a section of the bypass channel, said heat exchanger accomplishing surface heat exchange along said section and being coupled to an external oil circuit to cool the oil therein by heat exchange with the air circulating in the bypass channel, said bypass channel having an air outlet used for discharging foreign bodies.
A resin transfer molding system comprising: a tool having an upper surface; a cover plate coupled with said tool proximate said upper surface; an inner cavity formed between said tool and said cover plate; a thermal energy subsystem thermally coupled to said tool; an intensifier located in said inner cavity and thermally coupled to said tool; and at least one fibrous sheet wet-up with a pre-ceramic polymer resin adjacent said intensifier, wherein said intensifier is configured to pressurize said at least one fibrous sheet wet-up with a pre-ceramic polymer resin responsive to thermal expansion of said intensifier; further comprising: a vacuum pump fluidly coupled to said inner cavity; and a pump fluidly coupled to said inner cavity, wherein said pump and said vacuum pump are configured to transport said resin into said inner cavity to wet-up said at least one fibrous sheet. a tool having an upper surface; a cover plate coupled with said tool proximate said upper surface; an inner cavity formed between said tool and said cover plate; a thermal energy subsystem thermally coupled to said tool; an intensifier located in said inner cavity and thermally coupled to said tool; and at least one fibrous sheet wet-up with a pre-ceramic polymer resin adjacent said intensifier, wherein said intensifier is configured to pressurize said at least one fibrous sheet wet-up with a pre-ceramic polymer resin responsive to thermal expansion of said intensifier; further comprising: a vacuum pump fluidly coupled to said inner cavity; and a pump fluidly coupled to said inner cavity, wherein said pump and said vacuum pump are configured to transport said resin into said inner cavity to wet-up said at least one fibrous sheet. a vacuum pump fluidly coupled to said inner cavity; and a pump fluidly coupled to said inner cavity, wherein said pump and said vacuum pump are configured to transport said resin into said inner cavity to wet-up said at least one fibrous sheet.
An isolated nucleic acid molecule comprising a transcriptional unit, wherein the transcriptional unit comprises: a sequence encoding a modified Japanese encephalitis virus signal sequence comprising SEQ ID NO: 4; and a Zika virus (ZIKV) premembrane (prM) and E protein (prME) coding sequence, wherein the prME coding sequence comprises mutations such that the encoded E protein comprises a lysine at position 106 and an aspartic acid at position 107. a sequence encoding a modified Japanese encephalitis virus signal sequence comprising SEQ ID NO: 4; and a Zika virus (ZIKV) premembrane (prM) and E protein (prME) coding sequence, wherein the prME coding sequence comprises mutations such that the encoded E protein comprises a lysine at position 106 and an aspartic acid at position 107.
A heating element (10, 10') for welding tubular plastic components, comprising - a heating wire, which is wound in coils, wherein the coils are at least partially unattached, wherein the at least one heating wire is made of a resilient material, characterized in that, under the effect of the restoring forces of the resilient material, an essentially hollow cylindrical body having a first end and a second end is formed, in which the coils abut one another, wherein the material is selected such that the essentially hollow cylindrical body is axially expandable and that the coils are radially expandable, such that in the case of a larger outer radius, the axial length of the hollow cylindrical body is shortened. - a heating wire, which is wound in coils, wherein the coils are at least partially unattached, wherein the at least one heating wire is made of a resilient material, characterized in that, under the effect of the restoring forces of the resilient material, an essentially hollow cylindrical body having a first end and a second end is formed, in which the coils abut one another, wherein the material is selected such that the essentially hollow cylindrical body is axially expandable and that the coils are radially expandable, such that in the case of a larger outer radius, the axial length of the hollow cylindrical body is shortened.