mhurhangee/ep-ind-claims huggingface dataset:
Process for manufacturing a board, comprising: - a) preparing a batch, said batch comprising, relative to the total dry matter, 50 to 70% by weight of a hydraulic binder, 30 to 60% by weight of aggregates and 0 to 10% by weight of admixtures, and the water/binder weight ratio in the batch being between 0.2 and 0.5; - b) shaping or forming the body of the board from said batch; characterized in that the hydraulic binder comprises: - 20 to 80% by weight of a solid mineral compound consisting of at least a mixture of silica, alumina and alkaline earth oxides, the total sum of CaO and MgO representing at least 10% by weight of the solid mineral compound; - 5 to 70% by weight of a high-alumina and/or sulfoaluminate clinker; - 5 to 20% by weight of a calcium sulfate source; and - 2 to 15% by weight of an activation system consisting of a mixture of 30 to 70% by weight of a salt derived from phosphoric acid, 10 to 50% by weight of a silicate of an alkali metal, and 10 to 50% by weight of an alkaline earth metal source. - a) preparing a batch, said batch comprising, relative to the total dry matter, 50 to 70% by weight of a hydraulic binder, 30 to 60% by weight of aggregates and 0 to 10% by weight of admixtures, and the water/binder weight ratio in the batch being between 0.2 and 0.5; - b) shaping or forming the body of the board from said batch; - 20 to 80% by weight of a solid mineral compound consisting of at least a mixture of silica, alumina and alkaline earth oxides, the total sum of CaO and MgO representing at least 10% by weight of the solid mineral compound; - 5 to 70% by weight of a high-alumina and/or sulfoaluminate clinker; - 5 to 20% by weight of a calcium sulfate source; and - 2 to 15% by weight of an activation system consisting of a mixture of 30 to 70% by weight of a salt derived from phosphoric acid, 10 to 50% by weight of a silicate of an alkali metal, and 10 to 50% by weight of an alkaline earth metal source.
A probe (1, 101) for monitoring a moving engine element, the probe (1, 101) comprising: a housing (2, 102) formed of electrically insulating ceramic material; a core (14, 114) formed of electrically insulating ceramic material, the core (14, 114) comprising a front face (16, 116) and a cavity (18, 118) having an open end at the front face (16, 116); a sensing electrode (20, 120) formed of electrically conductive material, the sensing electrode (20, 120) being arranged between the housing (2, 102) and the front face (16, 116) of the core (14, 114) and the housing (2, 102) and the front face (16, 116) of the core (14, 114) being bonded together by the sensing electrode (20, 120); and a contact (22, 122) formed of electrically conductive material, the contact (22, 122) being arranged in the cavity (18, 118) of the core (14, 114) and being arranged in electrical contact with the sensing electrode (20, 120). a housing (2, 102) formed of electrically insulating ceramic material; a core (14, 114) formed of electrically insulating ceramic material, the core (14, 114) comprising a front face (16, 116) and a cavity (18, 118) having an open end at the front face (16, 116); a sensing electrode (20, 120) formed of electrically conductive material, the sensing electrode (20, 120) being arranged between the housing (2, 102) and the front face (16, 116) of the core (14, 114) and the housing (2, 102) and the front face (16, 116) of the core (14, 114) being bonded together by the sensing electrode (20, 120); and a contact (22, 122) formed of electrically conductive material, the contact (22, 122) being arranged in the cavity (18, 118) of the core (14, 114) and being arranged in electrical contact with the sensing electrode (20, 120).
A device (1, 10, 11, 111) for directing a flow of cooling medium for cooling a roll or a metal strip, comprising: a hollow body (3, 30, 33) extending over at least a part of the width of the roll or of the metal strip; and a tube (5, 50, 55) arranged in the hollow body (3, 30, 33) and extending in the width direction of the roll or the metal strip; characterised in that the hollow body (3, 30, 33) is divided in the width direction of the roll or the metal strip into a plurality of chambers and the tube (5, 50, 55) has openings (9, 90, 99) for conducting cooling medium from the tube (5, 50, 55) into the chambers of the hollow body (3, 30, 33) and the chambers each have an opening (8, 80, 88) for outflow of cooling medium from the hollow body (3, 30, 33); and the chambers each have a channel (12, 22, 222), which is formed between the inner wall of the hollow body (3, 30, 33) and the tube (5, 50, 55), for conducting cooling medium from the openings (9, 90, 99) of the tube (5, 50, 55) to the opening (8, 80, 88) for outflow of cooling medium from the hollow body (3, 30, 33) and the flow cross-section of the channel (12, 22, 222) narrows at least at its downstream end. a hollow body (3, 30, 33) extending over at least a part of the width of the roll or of the metal strip; and a tube (5, 50, 55) arranged in the hollow body (3, 30, 33) and extending in the width direction of the roll or the metal strip; characterised in that the hollow body (3, 30, 33) is divided in the width direction of the roll or the metal strip into a plurality of chambers and the tube (5, 50, 55) has openings (9, 90, 99) for conducting cooling medium from the tube (5, 50, 55) into the chambers of the hollow body (3, 30, 33) and the chambers each have an opening (8, 80, 88) for outflow of cooling medium from the hollow body (3, 30, 33); and the chambers each have a channel (12, 22, 222), which is formed between the inner wall of the hollow body (3, 30, 33) and the tube (5, 50, 55), for conducting cooling medium from the openings (9, 90, 99) of the tube (5, 50, 55) to the opening (8, 80, 88) for outflow of cooling medium from the hollow body (3, 30, 33) and the flow cross-section of the channel (12, 22, 222) narrows at least at its downstream end.
A method for preparing a salt of O- acetylsalicylic acid of a basic amino acid, wherein: - an aqueous solution of a basic amino acid, and a solution of O-acetylsalicylic acid in a water-miscible organic solvent, are mixed in a reactor at a temperature below 30°C under atmospheric pressure; - the reaction is allowed to occur for a sufficient time to obtain the desired salt; - in a crystalliser, acetone is added to the reaction medium thus formed, at a temperature below 40°C and under atmospheric pressure, to precipitate the desired salt; - the product is isolated from the liquid medium obtained and dried at a temperature below 50°C; characterised in that the amino acid is introduced into the reactor in an amount such that it is present in the reaction medium in slight deficit relative to the stoichiometry, the weight concentration of the solutions of the two reagents being less than saturation but greater than 5% by weight for the O- acetylsalicylic acid and 20% by weight for the amino acid, the reaction being carried out in suspension at a temperature chosen between -15°C and +30°C, depending on the solvent used, and with stirring, and that the salt, following the addition of acetone in the crystalliser, precipitates under vigorous stirring, said salt being dried after it has been isolated from its precipitation medium, in that the molar ratio of O- acetylsalicylic acid to basic amino acid of the reagents introduced into the reactor is between 1:0.97 and 1:0.70, bounds included, in that the stirring in the crystalliser is carried out with an energy expenditure of between 0.5 and 2 W per litre of medium and in that the method is carried out continuously. - an aqueous solution of a basic amino acid, and a solution of O-acetylsalicylic acid in a water-miscible organic solvent, are mixed in a reactor at a temperature below 30°C under atmospheric pressure; - the reaction is allowed to occur for a sufficient time to obtain the desired salt; - in a crystalliser, acetone is added to the reaction medium thus formed, at a temperature below 40°C and under atmospheric pressure, to precipitate the desired salt; - the product is isolated from the liquid medium obtained and dried at a temperature below 50°C;
A sub-assembly (100; 300) for use in constructing an electro-optic display, the sub-assembly (100; 300) comprising a layer of a solid electro-optic material (130; 302) and a layer of polyurethane lamination adhesive (180; 308) adhered to the layer of electro-optic material (130; 302), the sub-assembly being characterized by the layer of lamination adhesive (180; 308) comprising a polyurethane formed from an isocyanate, a polyether diol and a polyester diol, the polyester diol either (a) having a number average molecular weight less than 2000, or (b) comprising two polyester diol segments connected by a steric hindrance group, each of the polyester diol segments having a number average molecular weight less than 2000, the molar ratio of polyether diol to polyester diol being in the range of from 1:9 to 9:1.
A recombinant adeno-associated virus vector comprising: (a) a variant AAV2 capsid protein, wherein the variant AAV2 capsid protein comprises at least four amino acid substitutions with respect to a wild type AAV2 capsid protein; wherein the at least four amino acid substitutions are present at the following positions in an AAV2 capsid protein sequence: 457, 492, 499 and 533; and further comprises amino acid substitutions with respect to the wild type AAV capsid protein at the following positions in the AAV2 capsid protein sequence: 125, 151, 162 and 205, (b) a heterologous nucleic acid comprising a nucleotide sequence encoding a gene product; wherein the wild type AAV capsid protein comprises a sequence of SEQ ID NO:1. (a) a variant AAV2 capsid protein, wherein the variant AAV2 capsid protein comprises at least four amino acid substitutions with respect to a wild type AAV2 capsid protein; wherein the at least four amino acid substitutions are present at the following positions in an AAV2 capsid protein sequence: 457, 492, 499 and 533; and further comprises amino acid substitutions with respect to the wild type AAV capsid protein at the following positions in the AAV2 capsid protein sequence: 125, 151, 162 and 205, (b) a heterologous nucleic acid comprising a nucleotide sequence encoding a gene product;
A fluororubber composition comprising 3 to 20 parts by weight of carbon fibers and 1 to 8 parts by weight of carbon nanotubes based on 100 parts by weight of fluororubber.
A method of distinguishing a first physical phenomenon captured in a sensory measurement time waveform from a second physical phenomenon captured in the waveform, the method comprising a. receiving the waveform on a processor from a sensor in sensory contact with an object undergoing first and second physical phenomena, wherein the first phenomenon is a comparatively fast event, b. deriving and pass filtering a first rate of change data stream (500, 702, 802) from the time waveform with a processor, wherein each value of the pass filtered first rate of change data stream (500, 702, 802) is based on a difference in extreme amplitudes of the waveform during a first quantity of waveform samples the method being characterized in that it further comprises c. deriving a pass filtered second rate of change data stream (502, 704, 804) from the time waveform with the processor, wherein each value of the pass filtered second rate of change data stream (502, 704, 804) is based on a difference in extreme amplitudes of the waveform during a second quantity of waveform samples, and wherein the second quantity is larger than the first quantity of waveform samples, d. analyzing with the processor the derived first rate of change data stream (500, 702, 802) and the second rate of change data stream (502, 704, 804) to distinguish the comparatively fast first physical phenomenon from the second physical phenomenon captured in the waveform. a. receiving the waveform on a processor from a sensor in sensory contact with an object undergoing first and second physical phenomena, wherein the first phenomenon is a comparatively fast event, b. deriving and pass filtering a first rate of change data stream (500, 702, 802) from the time waveform with a processor, wherein each value of the pass filtered first rate of change data stream (500, 702, 802) is based on a difference in extreme amplitudes of the waveform during a first quantity of waveform samples the method being characterized in that it further comprises c. deriving a pass filtered second rate of change data stream (502, 704, 804) from the time waveform with the processor, wherein each value of the pass filtered second rate of change data stream (502, 704, 804) is based on a difference in extreme amplitudes of the waveform during a second quantity of waveform samples, and wherein the second quantity is larger than the first quantity of waveform samples, d. analyzing with the processor the derived first rate of change data stream (500, 702, 802) and the second rate of change data stream (502, 704, 804) to distinguish the comparatively fast first physical phenomenon from the second physical phenomenon captured in the waveform.
A medical connector link for establishing a fluid connection between two fluid lines with a male first link element and a female second link element, wherein the first link element is arranged or arrangeable in the second link element such that a fluid passage of the first link element and a fluid passage of the second link element form a common fluid passage, and a seal element, which is arranged within a circumferential groove on an outer side of the first link element or on an inner side of the second link element and seals a radial gap between the second link element and the first link element, wherein the first link element and/or the second link element have at least one recess (13; 131; 132) that fluidically connects the common fluid passage with the circumferential groove, characterized in that the at least one recess (13; 131; 132) extends in an axial direction of the first link element. wherein the first link element is arranged or arrangeable in the second link element such that a fluid passage of the first link element and a fluid passage of the second link element form a common fluid passage, and a seal element, which is arranged within a circumferential groove on an outer side of the first link element or on an inner side of the second link element and seals a radial gap between the second link element and the first link element, wherein the first link element and/or the second link element have at least one recess (13; 131; 132) that fluidically connects the common fluid passage with the circumferential groove, characterized in that the at least one recess (13; 131; 132) extends in an axial direction of the first link element.
An ethernet switch ring, ESR, protection method, introducing a transitional pre-up state for transit nodes, characterized by: after determining at a transit node on the ring that a loop failure is recovered by not receiving a loop failure protocol message at said transit node within a set time, said transit node on the loop entering the pre-up state, wherein the pre-up state is the transitional state of the loop from down state to up state and is the special state of the transitional node, and wherein said loop failure protocol message being periodically received from a failed transit node; and after determining at said transit node that the loop is failed again, by receiving a loop failure protocol message at said transit node, while said transit node is being in the pre-up state, said transit node opening a master port and a slave port at once and refreshing a MAC address. after determining at a transit node on the ring that a loop failure is recovered by not receiving a loop failure protocol message at said transit node within a set time, said transit node on the loop entering the pre-up state, wherein the pre-up state is the transitional state of the loop from down state to up state and is the special state of the transitional node, and wherein said loop failure protocol message being periodically received from a failed transit node; and after determining at said transit node that the loop is failed again, by receiving a loop failure protocol message at said transit node, while said transit node is being in the pre-up state, said transit node opening a master port and a slave port at once and refreshing a MAC address.
A controller for a vehicle component, the controller comprising: a mode selector for selecting one of a set of primary operating modes of the vehicle component; a control unit arranged to control the operation of the vehicle component in dependence on the selected operating mode; a detector arranged to detect the presence of a user input to the mode selector; a timer arranged to begin timing a period when the detected user input is within a qualification input range, and to continue timing the period while the detected user input remains within the qualification input range, wherein the control unit is arranged to control the operation of the vehicle component according to a secondary operating mode when the period reaches a qualification threshold, wherein the detector comprises a force detector arranged to detect the presence of a force applied by a user to the mode selector; and wherein the mode selector is moveable between two or more positions through application of force by the user, and wherein an upper limit of the qualification input range is a force less than the force required to move from one of the two or more positions to another of the two or more positions. a mode selector for selecting one of a set of primary operating modes of the vehicle component; a control unit arranged to control the operation of the vehicle component in dependence on the selected operating mode; a detector arranged to detect the presence of a user input to the mode selector; a timer arranged to begin timing a period when the detected user input is within a qualification input range, and to continue timing the period while the detected user input remains within the qualification input range, wherein the control unit is arranged to control the operation of the vehicle component according to a secondary operating mode when the period reaches a qualification threshold, wherein the detector comprises a force detector arranged to detect the presence of a force applied by a user to the mode selector; and wherein the mode selector is moveable between two or more positions through application of force by the user, and wherein an upper limit of the qualification input range is a force less than the force required to move from one of the two or more positions to another of the two or more positions.
A rotation shaft for a spinal rod reducer, the rotation shaft comprising: a body including a threaded portion disposed along an inner surface of a longitudinal throughhole; a threaded rod including a distal end, the threaded rod configured to engage the threaded portion; an anvil with a first end coupled to the distal end of the threaded rod, the anvil defining a cavity proximate a second end of the anvil, the anvil defining a slot; a pin slidable in the slot; a linkage coupled by the pin to the anvil; and a compression spring biasing member partially disposed about the linkage distal of the anvil to bias the linkage distally, wherein rotation of the threaded rod translates into linear movement of the linkage relative to the body, and the position of the pin with respect to the slot provides a visual indication of the compression of the biasing member during rod reduction. a body including a threaded portion disposed along an inner surface of a longitudinal throughhole; a threaded rod including a distal end, the threaded rod configured to engage the threaded portion; an anvil with a first end coupled to the distal end of the threaded rod, the anvil defining a cavity proximate a second end of the anvil, the anvil defining a slot; a pin slidable in the slot; a linkage coupled by the pin to the anvil; and a compression spring biasing member partially disposed about the linkage distal of the anvil to bias the linkage distally, wherein rotation of the threaded rod translates into linear movement of the linkage relative to the body, and the position of the pin with respect to the slot provides a visual indication of the compression of the biasing member during rod reduction.
Excitation rotating electrical machine equipped with a digital control device of the type able to operate as a generator delivering an output voltage (Ub+) that is adjusted by an excitation current (Ie), and thus having a bandwidth limited by a predetermined first cutoff frequency (F1c), said digital control device including means for controlling said excitation current (Ie) and a control loop comprising, at input, measurement means sampling said output voltage (Ub+) and that generate a signal sampled at a predetermined first sampling frequency (F1e) and on a predetermined first number of bits, and, at output, means for generating a control signal controlling said control means on the basis of said sampled signal and of a setpoint value (U 0), characterized in that said measurement means comprise oversampling means, such that said first sampling frequency (F1e) is more than double said first cutoff frequency (F1c), said control loop furthermore comprises means for decimating said sampled signal, and said control loop furthermore comprises means for filtering said sampled signal, such that said sampled signal comprises, after processing by said means, a predetermined second number of bits greater than said first number of bits.
A suction device, comprising a suction unit, a housing, in which the suction unit is arranged, and a fluid filter unit, detachably positioned on the housing at a holding region, wherein the fluid filter unit has a suction inlet and a suction outlet, and there is provided an openable and closable cover which at least in a closed position is arranged on the housing, wherein the fluid filter unit is positioned between the cover and the holding region when the cover is closed, characterised in that there is provided a channel device which is arranged on the cover and has an inlet and an outlet, wherein when the cover is closed, the inlet of the channel device is in a fluid-effective connection with the suction outlet of the fluid filter unit and the outlet of the channel device is in a fluid-effective connection with the suction unit.
A peptide that binds factor H without interfering with a biological activity of factor H, wherein the biological activity comprises inhibiting complement activation, wherein the peptide is represented by Formula I: Formula I: Z-U wherein: U is a cysteine cyclic peptide comprising: Cys-Xaa1-Tyr-Xaa2-Xaa3-Trp-Cys-Xaa4-His (SEQ ID NO:1) wherein: Xaa1 is any amino acid; Xaa2 is Asp or Ser; Xaa3 is His or Tyr; and Xaa4 is any amino acid; and Z is absent or is a peptide comprising: Ala-Ser-Xaa5-Xaa6-Xaa7 (SEQ ID NO:2) wherein: Xaa5 is Ser or Pro; Xaa6 is absent or is any amino acid; and Xaa7 is absent or is any amino acid; wherein Z, if present, and U are joined by a peptide bond. U is a cysteine cyclic peptide comprising: Cys-Xaa1-Tyr-Xaa2-Xaa3-Trp-Cys-Xaa4-His (SEQ ID NO:1) wherein: Xaa1 is any amino acid; Xaa2 is Asp or Ser; Xaa3 is His or Tyr; and Xaa4 is any amino acid; and Xaa1 is any amino acid; Xaa2 is Asp or Ser; Xaa3 is His or Tyr; and Xaa4 is any amino acid; and Z is absent or is a peptide comprising: Ala-Ser-Xaa5-Xaa6-Xaa7 (SEQ ID NO:2) wherein: Xaa5 is Ser or Pro; Xaa6 is absent or is any amino acid; and Xaa7 is absent or is any amino acid; Xaa5 is Ser or Pro; Xaa6 is absent or is any amino acid; and Xaa7 is absent or is any amino acid;