mhurhangee/ep-ind-claims huggingface dataset:
A ship body including a ship-body frictional resistance reducing device for reducing frictional resistance of the sailing ship body by forming an air bubble curtain on the ship's bottom by generating air bubbles, the ship-body frictional resistance reducing device comprising: a plurality of air chambers provided on the ship's bottom inside the ship body; a plurality of air ejection holes formed in an arrayed manner on the ship's bottom that becomes a bottom portion of each air chamber; a sea chest (35,36) provided on the ship's bottom inside the ship body in a manner such that the sea chest (35,36) covers the air chambers, wherein the sea chest (35,36) forms a space slightly larger than a worker so that its inside space can serve as a working area and the sea chest (35,36) is configured in a watertight structure to prevent ingress of sea water into the ship body; an air supply path which includes a main supply pipe and a plurality of branch supply pipes connected to the main supply pipe, wherein the air chambers are respectively connected to the branch supply pipes, and an air supply source for supplying air to the plurality of air ejection holes through the air supply path, wherein each branch supply pipe is inserted through an insertion port penetrating through the sea chest (35,36) and is connected to the air chamber, and wherein each branch supply pipe is connected to an air supply port formed at a center portion of a top wall surface of the respective air chamber. a plurality of air chambers provided on the ship's bottom inside the ship body; a plurality of air ejection holes formed in an arrayed manner on the ship's bottom that becomes a bottom portion of each air chamber; a sea chest (35,36) provided on the ship's bottom inside the ship body in a manner such that the sea chest (35,36) covers the air chambers, wherein the sea chest (35,36) forms a space slightly larger than a worker so that its inside space can serve as a working area and the sea chest (35,36) is configured in a watertight structure to prevent ingress of sea water into the ship body; an air supply path which includes a main supply pipe and a plurality of branch supply pipes connected to the main supply pipe, wherein the air chambers are respectively connected to the branch supply pipes, and an air supply source for supplying air to the plurality of air ejection holes through the air supply path, wherein each branch supply pipe is inserted through an insertion port penetrating through the sea chest (35,36) and is connected to the air chamber, and wherein each branch supply pipe is connected to an air supply port formed at a center portion of a top wall surface of the respective air chamber.
A method of producing one or more terpene(s) and/or precursors thereof, by microbial fermentation, the method comprising providing a gaseous substrate comprising CO to a bioreactor containing a culture of a recombinant carboxydotrophic, acetogenic bacterium and fermenting the culture to produce one or more terpenes and/or precursors thereof from the gaseous substrate, wherein the terpene or precursor thereof is selected from the group consisting of mevalonic acid, isopentenyl pyrophosphate, dimethylallyl pyrophosphate (DMAPP), isoprene, geranyl pyrophosphate, farnesyl pyrophosphate, and farnesene.
A method of machining rotatable toothed workpieces comprising a plurality of teeth and a plurality of tooth slots, said method comprising: (a) loading a first workpiece to a spindle of a workpiece processing machine, said first toothed workpiece having a predetermined design and being in a predetermined rotational load position, (b) stock-dividing said first toothed workpiece and determining a machining position for said first workpiece based on said stock-dividing, (c) rotationally adjusting said first toothed workpiece by an adjustment amount from said predetermined rotational load position to said machining position, (d) machining the teeth of said first toothed workpiece, (e) removing said first toothed workpiece from said spindle, (f) loading a second toothed workpiece to said spindle of said workpiece processing machine, said second toothed workpiece having said predetermined design and being in said predetermined rotational load position, (g) rotationally adjusting said second toothed workpiece by said adjustment amount from said predetermined rotational load position to said machining position, (h) machining the teeth of said second toothed workpiece, (i) removing said second toothed workpiece from said spindle, (j) repeating steps (f)-(i) for any subsequent toothed workpieces having said predetermined design and being in said predetermined rotational load position, (k) whereby for said second and subsequent toothed workpieces having said predetermined design, the step of said stock-dividing is not carried out. (a) loading a first workpiece to a spindle of a workpiece processing machine, said first toothed workpiece having a predetermined design and being in a predetermined rotational load position, (b) stock-dividing said first toothed workpiece and determining a machining position for said first workpiece based on said stock-dividing, (c) rotationally adjusting said first toothed workpiece by an adjustment amount from said predetermined rotational load position to said machining position, (d) machining the teeth of said first toothed workpiece, (e) removing said first toothed workpiece from said spindle, (f) loading a second toothed workpiece to said spindle of said workpiece processing machine, said second toothed workpiece having said predetermined design and being in said predetermined rotational load position, (g) rotationally adjusting said second toothed workpiece by said adjustment amount from said predetermined rotational load position to said machining position, (h) machining the teeth of said second toothed workpiece, (i) removing said second toothed workpiece from said spindle, (j) repeating steps (f)-(i) for any subsequent toothed workpieces having said predetermined design and being in said predetermined rotational load position, (k) whereby for said second and subsequent toothed workpieces having said predetermined design, the step of said stock-dividing is not carried out.
A lithographic printing plate precursor comprising: a) a substrate, b) an imageable layer which comprises a polymeric binder having an acid number of 40 mg KOH/g or more, wherein the polymeric binder comprises A recurring units derived from one or more N-alkoxymethyl (alkyl)acrylamides or alkoxymethyl (alkyl)acrylates, B recurring units having pendant cyano groups, C recurring units having pendant 1H-tetrazole groups, and D recurring units other than those for A, B, and C, and the amount of A recurring units is from 2 to 80 weight %, the amount of B recurring units is from 10 to 85 weight %, the amount of C recurring units is from 5 to 80 weight %, and the amount of D recurring units is from 10 to 85 weight %, all based on total polymeric binder weight, and c) a separate layer that is in thermal contact with the first layer and comprises an IR radiation absorbing compound. a) a substrate, b) an imageable layer which comprises a polymeric binder having an acid number of 40 mg KOH/g or more, wherein the polymeric binder comprises A recurring units derived from one or more N-alkoxymethyl (alkyl)acrylamides or alkoxymethyl (alkyl)acrylates, B recurring units having pendant cyano groups, C recurring units having pendant 1H-tetrazole groups, and D recurring units other than those for A, B, and C, and the amount of A recurring units is from 2 to 80 weight %, the amount of B recurring units is from 10 to 85 weight %, the amount of C recurring units is from 5 to 80 weight %, and the amount of D recurring units is from 10 to 85 weight %, all based on total polymeric binder weight, and c) a separate layer that is in thermal contact with the first layer and comprises an IR radiation absorbing compound.
An immunogenic composition comprising an adjuvant, wherein the adjuvant is a bisphosphonic acid compound selected from the group consisting of zoledronic acid, pamidronic acid, alendronic acid, ibandronic acid, neridronic acid, risedronic acid, olpadronic acid, and minodronic acid, or a pharmaceutically acceptable salt, or solvate thereof.
A polymer composition comprising: - at least one polyester comprising at least 50 mol % of recurring units comprising at least one cycloaliphatic group, - at least one inorganic additive selected from the group consisting of TiO 2, ZnS and BaSO 4, - from 0.2 to 10 wt.%, based on the total weight of the polymer composition, of at least one inorganic additive selected from the group consisting of magnesium oxide, barium oxide, cerium oxide and calcium oxide. - at least one polyester comprising at least 50 mol % of recurring units comprising at least one cycloaliphatic group, - at least one inorganic additive selected from the group consisting of TiO 2, ZnS and BaSO 4, - from 0.2 to 10 wt.%, based on the total weight of the polymer composition, of at least one inorganic additive selected from the group consisting of magnesium oxide, barium oxide, cerium oxide and calcium oxide.
An off-road motorcycle tyre comprising a tread portion being provided on a tread edge (Te) side with shoulder blocks arranged in a tyre circumferential direction, the shoulder blocks comprising at least one first shoulder block and at least one second shoulder block having a circumferential length greater than that of the at least one first shoulder block, wherein the at least one first shoulder block comprises a first ground contact surface, a second ground contact surface, and a first shallow groove extending between the first ground contact surface and the second ground contact surface, characterized in that the second ground contact surface protrudes outwardly from the first ground contact surface in a block height direction, and a length in a tyre axial direction of the at least one second shoulder block is greater than a length in a tyre axial direction of the at least one first shoulder block, but is equal to or less than 1.30 times the length in a tyre axial direction of the at least one first shoulder block. a tread portion being provided on a tread edge (Te) side with shoulder blocks arranged in a tyre circumferential direction, the shoulder blocks comprising at least one first shoulder block and at least one second shoulder block having a circumferential length greater than that of the at least one first shoulder block, wherein the at least one first shoulder block comprises a first ground contact surface, a second ground contact surface, and a first shallow groove extending between the first ground contact surface and the second ground contact surface, characterized in that the second ground contact surface protrudes outwardly from the first ground contact surface in a block height direction, and a length in a tyre axial direction of the at least one second shoulder block is greater than a length in a tyre axial direction of the at least one first shoulder block, but is equal to or less than 1.30 times the length in a tyre axial direction of the at least one first shoulder block.
A method for making ice cream on a stick, characterized in that it comprises the following steps: - subjecting a liquid or semiliquid base product to cooling and stirring inside a container to obtain a processed liquid or semiliquid product; - drawing the processed product from the container to fill cavities of a mould; - inserting sticks in the mould; - cooling the mould, filled with the processed product and containing the sticks, to obtain ice creams on a stick, wherein the step of cooling the mould filled with the processed product and containing the stick comprises a step of cooling the processed product to a temperature below -20°C inside a compartment of a- cooling unit for the mould, said cooling unit for the mould being provided with a compartment for accommodating the mould and a door which can be opened and closed to allow access to the compartment, said cooling unit for the mould being equipped with a cooling system configured to allow cooling the mould, with the cavities filled with the processed product and each containing a stick, wherein the step of subjecting a liquid or semiliquid base product to cooling and stirring inside a container is performed in a batch freezing cylinder which can be sealedlv isolated from the outside atmosphere. - subjecting a liquid or semiliquid base product to cooling and stirring inside a container to obtain a processed liquid or semiliquid product; - drawing the processed product from the container to fill cavities of a mould; - inserting sticks in the mould; - cooling the mould, filled with the processed product and containing the sticks, to obtain ice creams on a stick, wherein the step of cooling the mould filled with the processed product and containing the stick comprises a step of cooling the processed product to a temperature below -20°C inside a compartment of a- cooling unit for the mould, said cooling unit for the mould being provided with a compartment for accommodating the mould and a door which can be opened and closed to allow access to the compartment, said cooling unit for the mould being equipped with a cooling system configured to allow cooling the mould, with the cavities filled with the processed product and each containing a stick, wherein the step of subjecting a liquid or semiliquid base product to cooling and stirring inside a container is performed in a batch freezing cylinder which can be sealedlv isolated from the outside atmosphere.
A device (10, 110) for forming a fistula between blood vessels in a patient comprising: a tubular body (12, 112) defining a longitudinal axis (14, 114) and being positionable within an opening in the end of a first vessel, and the tubular body including an outer surface, an inner surface, and a central lumen extending between a first axial end and a second axial end; and a flange (26, 126) positionable within an opening in the side of a second vessel to be connected to the first vessel via the fistula, and the flange being attached to the tubular body (12, 112) at the second axial end and projecting outwardly from the outer surface; characterised by at least one vane (28, 128) attached to the tubular body (12, 112) and projecting inwardly from the inner surface into the lumen, and the at least one vane (28, 128) having an axially and circumferentially advancing orientation so as to induce helical flow in blood passed through the lumen between the first and second vessels. a tubular body (12, 112) defining a longitudinal axis (14, 114) and being positionable within an opening in the end of a first vessel, and the tubular body including an outer surface, an inner surface, and a central lumen extending between a first axial end and a second axial end; and a flange (26, 126) positionable within an opening in the side of a second vessel to be connected to the first vessel via the fistula, and the flange being attached to the tubular body (12, 112) at the second axial end and projecting outwardly from the outer surface; characterised by at least one vane (28, 128) attached to the tubular body (12, 112) and projecting inwardly from the inner surface into the lumen, and the at least one vane (28, 128) having an axially and circumferentially advancing orientation so as to induce helical flow in blood passed through the lumen between the first and second vessels.
Method for producing parts for a plurality of local structures at a construction site using a building information model, the building information model being stored on a central computing unit and providing data about the construction site and/or a building to be constructed at the construction site, the method comprising - determining dimensions of parts needed for the construction of the local structure; and - producing the needed parts according to the determined dimensions, characterized in that - the method comprises providing a mobile work shop at the construction site, the work shop comprising a fixed set of machines and being adapted for producing similar parts for similar local structures at a multitude of different constructions sites; - determining the dimensions comprises at least performing a first measuring operation at a first location of the construction site and performing a second measuring operation at a second location of the construction site; - the at least first and second measuring operations each are performed by a user (4, 4'), wherein the respective user (4, 4') is guided through the measuring operation by a portable computing device (45, 45') using data provided by the building information model; - the dimensions are transmitted from the portable computing device (45, 45') to the work shop which is situated at the construction site; and - the needed parts are produced by at least one machine of the work shop according to the provided dimensions, taking into account the dimensions determined through the at least first and second measuring operations, wherein the produced parts are given numbers for facilitating the building of the structure. - determining dimensions of parts needed for the construction of the local structure; and - producing the needed parts according to the determined dimensions, - the method comprises providing a mobile work shop at the construction site, the work shop comprising a fixed set of machines and being adapted for producing similar parts for similar local structures at a multitude of different constructions sites; - determining the dimensions comprises at least performing a first measuring operation at a first location of the construction site and performing a second measuring operation at a second location of the construction site; - the at least first and second measuring operations each are performed by a user (4, 4'), wherein the respective user (4, 4') is guided through the measuring operation by a portable computing device (45, 45') using data provided by the building information model; - the dimensions are transmitted from the portable computing device (45, 45') to the work shop which is situated at the construction site; and - the needed parts are produced by at least one machine of the work shop according to the provided dimensions, taking into account the dimensions determined through the at least first and second measuring operations, wherein the produced parts are given numbers for facilitating the building of the structure.
A computer-implemented method for detecting a noise floor of a sensor disposed in a vehicle, comprising the steps of: receiving a sensor signal from a sensor; determining a plurality of power spectral densities from a plurality of successive frames of samples of the sensor signal, each of the plurality of power spectral densities being determined from a respective frame of the plurality of successive frames, each power spectral density being comprised of a plurality of frequency bins, each frequency bin being associated with a power of the sensor signal at the frequency of the respective frequency bin, wherein each successive frame of the plurality of successive frames differs by at least one sample; identifying a minimum power of the plurality of power spectral densities that is an estimated noise floor of the sensor; the method being characterised in determining, according to at least one condition, whether the vehicle in which the sensor is disposed is in an idle state; determining, only when the vehicle is in the idle state, whether the minimum power exceeds a threshold value. receiving a sensor signal from a sensor; determining a plurality of power spectral densities from a plurality of successive frames of samples of the sensor signal, each of the plurality of power spectral densities being determined from a respective frame of the plurality of successive frames, each power spectral density being comprised of a plurality of frequency bins, each frequency bin being associated with a power of the sensor signal at the frequency of the respective frequency bin, wherein each successive frame of the plurality of successive frames differs by at least one sample; identifying a minimum power of the plurality of power spectral densities that is an estimated noise floor of the sensor; the method being characterised in determining, according to at least one condition, whether the vehicle in which the sensor is disposed is in an idle state; determining, only when the vehicle is in the idle state, whether the minimum power exceeds a threshold value.
Use of a device for the optical measurement of a closure cap (12, 14), the device having - a robot having a moveable gripper for picking up the closure cap (12, 14) - a first, stationary optical sensor for determining or detecting at least a first parameter (OD, OV) of the closure cap (12, 14); - at least a further stationary optical sensor (72, 74, 76) for determining or detecting at least a further parameter (CP, CPA, CPB, CC, LH, LW, LS, LC, C1, C2) of the closure cap (12, 14), - and a chute for feeding a closure cap to be measured to the gripper of the robot; - wherein the robot is configured - to deposit the closure cap (12, 14), received by the gripper, on a depositing surface for detecting or determining the first parameter in a detection area of the first stationary optical sensor; - moving the closure cap (12, 14), received by the gripper, within a detection range of the at least one further stationary optical sensor (72, 74, 76) to determine or detect the at least one further parameter (CP, CPA, CPB, CC, LH, LW, LS, LC, C1, C2). - a robot having a moveable gripper for picking up the closure cap (12, 14) - a first, stationary optical sensor for determining or detecting at least a first parameter (OD, OV) of the closure cap (12, 14); - at least a further stationary optical sensor (72, 74, 76) for determining or detecting at least a further parameter (CP, CPA, CPB, CC, LH, LW, LS, LC, C1, C2) of the closure cap (12, 14), - and a chute for feeding a closure cap to be measured to the gripper of the robot; - wherein the robot is configured - to deposit the closure cap (12, 14), received by the gripper, on a depositing surface for detecting or determining the first parameter in a detection area of the first stationary optical sensor; - moving the closure cap (12, 14), received by the gripper, within a detection range of the at least one further stationary optical sensor (72, 74, 76) to determine or detect the at least one further parameter (CP, CPA, CPB, CC, LH, LW, LS, LC, C1, C2). - to deposit the closure cap (12, 14), received by the gripper, on a depositing surface for detecting or determining the first parameter in a detection area of the first stationary optical sensor; - moving the closure cap (12, 14), received by the gripper, within a detection range of the at least one further stationary optical sensor (72, 74, 76) to determine or detect the at least one further parameter (CP, CPA, CPB, CC, LH, LW, LS, LC, C1, C2).
Support for facilitating the oral absorption of at least one active substance by animals, characterized in that it comprises: - at least one bead comprising said at least one active substance, - a gelled appetizing matrix surrounding said at least one bead, the pH of said matrix being less than 4.0, in which the Aw (residual water) of said matrix and of said at least one bead is identical and between 0.4 and 0.9. - at least one bead comprising said at least one active substance, - a gelled appetizing matrix surrounding said at least one bead, the pH of said matrix being less than 4.0,