mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: a print bar (22, 322, 522); a plurality of print head dies (24, 324, 524) supported by the print bar (22, 322, 522), each printhead die of the plurality of print head dies (24, 324, 524) comprising a circuit (26, 526) forming a series (28, 328) of information bits, wherein bit locations in each of the series (28, 328) are mapped to information type definitions based on a location of the respective print head die (24, 324, 524) on the print bar (22, 322, 522) relative to other print head dies (24, 324, 524) of the plurality of print head dies (24, 324, 524), wherein rearrangement of the print head dies (23, 322, 522) on the print bar (22, 322, 522) would result in bit locations being mapped to different information type definitions; and a mapping template mapping the bit locations of the dies (24, 324, 524) to information type definitions. a print bar (22, 322, 522); a plurality of print head dies (24, 324, 524) supported by the print bar (22, 322, 522), each printhead die of the plurality of print head dies (24, 324, 524) comprising a circuit (26, 526) forming a series (28, 328) of information bits, wherein bit locations in each of the series (28, 328) are mapped to information type definitions based on a location of the respective print head die (24, 324, 524) on the print bar (22, 322, 522) relative to other print head dies (24, 324, 524) of the plurality of print head dies (24, 324, 524), wherein rearrangement of the print head dies (23, 322, 522) on the print bar (22, 322, 522) would result in bit locations being mapped to different information type definitions; and a mapping template mapping the bit locations of the dies (24, 324, 524) to information type definitions.
An odontological X-ray imaging apparatus arranged to enable at least computed tomography imaging, the apparatus including - a construction (10, 11, 12, 13) including an actuator adapted to move a source of radiation and a two-dimensional imaging sensor arranged at a distance from each other about an axis of rotation, - a collimator structure arranged in connection with the source of radiation for limiting radiation produced by the source of radiation into a cone beam of at least one two-dimensional shape, - an imaging station into which is selectively installed a patient support device, and - a control system provided to control operation of the actuator, the source of radiation and the imaging sensor, according to a first imaging mode designated for imaging live patients in which, during an exposure, said source of radiation and imaging sensor are adapted to move substantially on opposite sides of said imaging station, wherein at least a second imaging mode designated for imaging other objects than live patients can be selected characterised in that the control system is adapted to control in said second imaging mode the operation of said actuator during an exposure so that said source of radiation and said imaging sensor are rotated about the axis of rotation at an angular velocity of less than 4 degrees/second (0.0698 radian/second), or at an angular velocity of an order of 2 degrees/second (0.0349 radian/second) or slower. - a construction (10, 11, 12, 13) including an actuator adapted to move a source of radiation and a two-dimensional imaging sensor arranged at a distance from each other about an axis of rotation, - a collimator structure arranged in connection with the source of radiation for limiting radiation produced by the source of radiation into a cone beam of at least one two-dimensional shape, - an imaging station into which is selectively installed a patient support device, and - a control system provided to control operation of the actuator, the source of radiation and the imaging sensor, according to a first imaging mode designated for imaging live patients in which, during an exposure, said source of radiation and imaging sensor are adapted to move substantially on opposite sides of said imaging station,
A mat for a bovine animal, comprising an elastomeric body having a ground-engaging underside and a top side, the mat having a head end and a tail end, the top side having a generally planar area on which an animal may rest in use, wherein: a portion of the generally planar area towards the head end is bounded on either side (18, 20) and across the head end thereof by a barrier integrally formed with the elastomeric material of the mat; the barrier projecting upwardly above the generally planar area; and the barrier defining a pair of arms (36, 38; 74, 76) extending on either side of the bounded portion; characterised in that: the arms (36, 38; 74, 76) have a width which decreases in the direction of the tail end whereby the width of the bounded portion increases between the arms in the direction of the tail end. a portion of the generally planar area towards the head end is bounded on either side (18, 20) and across the head end thereof by a barrier integrally formed with the elastomeric material of the mat; the barrier projecting upwardly above the generally planar area; and the barrier defining a pair of arms (36, 38; 74, 76) extending on either side of the bounded portion; characterised in that: the arms (36, 38; 74, 76) have a width which decreases in the direction of the tail end whereby the width of the bounded portion increases between the arms in the direction of the tail end.
Method of operating a gas turbine group in which: a working fluid is compressed in at least one compressor (1, 1a, 1b); the compressed working fluid (13, 13a) is heated to a turbine inlet temperature in at least one component for the supply of heat by the supply of a quantity of heat; the working fluid (15, 15a, 15b) is expanded in at least one turbine (3, 3a, 3b); a shaft power is generated during the expansion of the working fluid; at least a first part of the shaft power is used for driving the compressor; and a part of the shaft power in excess of the first part is used as useful power (P ACT) for driving a power consumption unit, the full-load power (P VL) of the gas turbine group being adjustable, with a cooling power, by the cooling of the working fluid before or during the compression process; and the actual useful power (P ACT) of the gas turbine group being controlled to a required useful power, characterized in that the cooling power is set in such a way that the current full-load power (P VL) is larger than the actual useful power (P ACT), in such a way that the gas turbine group is operated with an actual relative power (P REL) of less than 100% relative to the current full-load power (P VL) and in that rapid power demands are rapidly satisfied, practically without delay, directly by increasing the heat supply to the compressed working fluid. a working fluid is compressed in at least one compressor (1, 1a, 1b); the compressed working fluid (13, 13a) is heated to a turbine inlet temperature in at least one component for the supply of heat by the supply of a quantity of heat; the working fluid (15, 15a, 15b) is expanded in at least one turbine (3, 3a, 3b); a shaft power is generated during the expansion of the working fluid; at least a first part of the shaft power is used for driving the compressor; and a part of the shaft power in excess of the first part is used as useful power (P ACT) for driving a power consumption unit, the full-load power (P VL) of the gas turbine group being adjustable, with a cooling power, by the cooling of the working fluid before or during the compression process; and the actual useful power (P ACT) of the gas turbine group being controlled to a required useful power, characterized in that the cooling power is set in such a way that the current full-load power (P VL) is larger than the actual useful power (P ACT), in such a way that the gas turbine group is operated with an actual relative power (P REL) of less than 100% relative to the current full-load power (P VL) and in that rapid power demands are rapidly satisfied, practically without delay, directly by increasing the heat supply to the compressed working fluid.
A terahertz laser adapted to emit at least a first electromagnetic radiation a first emission frequency of which is between 700 GHz and 1200 GHz, said laser including: - an infrared laser source, - a resonant cavity arranged to be optically pumped by the infrared laser source, said resonant optical cavity containing ammonia gas as an amplifier medium and having at least one configuration for which the resonant cavity is a resonant cavity at the first emission frequency, the terahertz laser being characterised in that the infrared laser source is a continuous semiconductor laser source capable of exciting the molecules of the amplifier medium from an initial energy level to at least a first excited energy level, the molecules of the amplifier medium placed in this first excited energy level being likely to be de-excited by a pure inversion transition related to the umbrella type inversion mode of the ammonia molecule, the de-excitation energy of which corresponds to the first emission frequency. - an infrared laser source, - a resonant cavity arranged to be optically pumped by the infrared laser source, said resonant optical cavity containing ammonia gas as an amplifier medium and having at least one configuration for which the resonant cavity is a resonant cavity at the first emission frequency,
A method for measuring a stable isotope ratio of an amino acid, the method comprising: measuring a stable carbon isotope ratio (δ13C) of an amino acid contained in a sample by elemental analysis-stable isotope ratio mass spectrometry (EA-IRMS), wherein δ13C is not measured by gas chromatography-stable isotope ratio mass spectrometry (GC-IRMS); and measuring a stable nitrogen isotope ratio (δ15N) of the amino acid contained in the sample by GC-IRMS, wherein δ15N is not measured by EA-IRMS. measuring a stable carbon isotope ratio (δ13C) of an amino acid contained in a sample by elemental analysis-stable isotope ratio mass spectrometry (EA-IRMS), wherein δ13C is not measured by gas chromatography-stable isotope ratio mass spectrometry (GC-IRMS); and measuring a stable nitrogen isotope ratio (δ15N) of the amino acid contained in the sample by GC-IRMS, wherein δ15N is not measured by EA-IRMS.
A battery module housing for an electric vehicle, comprising: a monocoque; and a shelving matrix within the monocoque, the shelving matrix for receiving an energy storage means, wherein the monocoque is a structural component of the electric vehicle, characterised in that: the monocoque comprises a rear connection means for receiving a rear suspension assembly and a front connection means for receiving a front suspension assembly; the rear suspension assembly comprises a rear swing arm and a spring-damper assembly arranged between the rear swing arm and the monocoque, and wherein the spring-damper assembly is configured to control the movement of the swing arm relative to the battery module housing; and the front suspension assembly comprises a front swing arm and a spring-damper assembly arranged between the front swing arm and the monocoque, and wherein the spring-damper assembly is configured to control the movement of the front suspension assembly relative to the battery module housing. a monocoque; and a shelving matrix within the monocoque, the shelving matrix for receiving an energy storage means, wherein the monocoque is a structural component of the electric vehicle, characterised in that: the monocoque comprises a rear connection means for receiving a rear suspension assembly and a front connection means for receiving a front suspension assembly; the rear suspension assembly comprises a rear swing arm and a spring-damper assembly arranged between the rear swing arm and the monocoque, and wherein the spring-damper assembly is configured to control the movement of the swing arm relative to the battery module housing; and the monocoque comprises a rear connection means for receiving a rear suspension assembly and a front connection means for receiving a front suspension assembly; the rear suspension assembly comprises a rear swing arm and a spring-damper assembly arranged between the rear swing arm and the monocoque, and wherein the spring-damper assembly is configured to control the movement of the swing arm relative to the battery module housing; and the front suspension assembly comprises a front swing arm and a spring-damper assembly arranged between the front swing arm and the monocoque, and wherein the spring-damper assembly is configured to control the movement of the front suspension assembly relative to the battery module housing.
A process for desulphurising a petrol feed by a hydrodesulphurisation catalyst in which said feed results from catalytic cracking or from coking of a heavy hydrocarbon feed or from steam cracking and comprises at least 150 ppm by weight of sulphur-bearing compounds, in which said feed is subjected to a prior denitrogenation treatment consisting of washing of the petrol by an aqueous solution containing an acid compound, said denitrogenation treatment being carried out under conditions such that the proportion of nitrogen-bearing compounds present in said feed when it is brought into contact with said hydrodesulphurisation catalyst does not exceed 20 ppm by weight, and in which said contact with the hydrodesulphurisation catalyst is carried out at a temperature of between 200°C and 450°C, under a pressure of between 1 and 3 MPa, at a liquid hourly space velocity of between 1h -1 and 10h --1, and with an H 2 /HC ratio of between 50 l/l and 500 l/l.
Process for obtaining proteoliposomes containing membrane proteins characterized in that the synthesis of the membrane proteins is made using a cell-free system of protein synthesis, in the presence of lipid vesicles in the reaction medium, wherein the lipid vesicles are lipid bilayers in the form of spheres with a diameter of approximately 100 nm and known as SUV (Small Unilamellar Vesicles).
A pallet car for the transport of bulk material for a thermal treatment thereof, comprising a frame with at least two opposed cross-beams on which grate bars rest and two end pieces each connecting the cross-beams with each other, which each include at least two rollers and at least one side wall, characterized in that the grate bars and/or the side walls and/or an insulating plate which is provided between at least one part of the pallet car and the grate bar is made of a ceramic fiber composite, wherein the fibers are metallic and high-temperature resistant.
A polymeric composition MB1 comprising: a) a (meth)acrylic polymer AP1, b) a polymeric silicone particle PP1 having a weight average particle diameter measured according to the description, between 1μm and 10μm, and c) a polymeric (meth)acrylic particle PP2 having a weight average particle diameter measured according to the description, between 30um and 100μm, characterized that the particle PP1 represents between 0.5wt% and 15wt% of the composition comprising the components a), b) and c) and that the particle PP2 represents between 40wt% and 80wt% of the composition comprising the components a), b) and c) and that the polymeric silicone particle PP1 has a refractive index measured according to the description, between 1.30 and 1.45 and that the (meth)acrylic polymer AP1 has a refractive index measured according to the description, between 1.46 and 1.52 and that (meth)acrylic polymer AP1 has a melt flow index according to ISO 1133 (230°C/3.8kg) between 0.1g/10min and 20 g/10min and that (meth)acrylic polymer AP1 has a Vicat softening temperature of at least 90°C measured according to ISO 306:2013 (B50 method). a) a (meth)acrylic polymer AP1, b) a polymeric silicone particle PP1 having a weight average particle diameter measured according to the description, between 1μm and 10μm, and c) a polymeric (meth)acrylic particle PP2 having a weight average particle diameter measured according to the description, between 30um and 100μm, characterized that the particle PP1 represents between 0.5wt% and 15wt% of the composition comprising the components a), b) and c) and that the particle PP2 represents between 40wt% and 80wt% of the composition comprising the components a), b) and c) and that the polymeric silicone particle PP1 has a refractive index measured according to the description, between 1.30 and 1.45 and that the (meth)acrylic polymer AP1 has a refractive index measured according to the description, between 1.46 and 1.52 and that (meth)acrylic polymer AP1 has a melt flow index according to ISO 1133 (230°C/3.8kg) between 0.1g/10min and 20 g/10min and that (meth)acrylic polymer AP1 has a Vicat softening temperature of at least 90°C measured according to ISO 306:2013 (B50 method).
A forming unit for forming plastic preforms into plastic bottles, wherein the forming unit comprises a blow mould having a first lateral portion, a second lateral portion and a bottom portion, wherein said lateral portions as well as the bottom portion form a cavity, within which the plastic preforms can be formed into the plastic bottles, wherein the bottom portion can be moved relative to the lateral portions in a closed condition of the blow mould, wherein the forming unit comprises a drive unit in order to move the bottom portion relative to the lateral portions (4, 6), wherein the drive unit preferably has a movable piston element which is movable along a predefined stroke path, characterised in that the apparatus has a first stroke path limiting means (22, 24) that limits the stroke path of the bottom portion and/or of the piston element in a first direction, wherein this stroke path limiting means (22, 24) is adjustable in order to modify the stroke path.
A cooker with a door, the cooker comprising: a proximity sensor configured to detect presence or absence of an object in proximity to the cooker; and a door opening controller configured to control the door to open and close on a detection signal from the proximity sensor, characterized in that the door opening controller opens the door upon detecting a plurality of status changes within a first predetermined time period on the basis of the detection signal from the proximity sensor, and each one of the plurality of status changes is defined as a level change, from a first level to a second level, in the detection signal from the proximity sensor, the first level indicating the presence of the object, the second level indicating the absence of the object. a proximity sensor configured to detect presence or absence of an object in proximity to the cooker; and a door opening controller configured to control the door to open and close on a detection signal from the proximity sensor, characterized in that the door opening controller opens the door upon detecting a plurality of status changes within a first predetermined time period on the basis of the detection signal from the proximity sensor, and each one of the plurality of status changes is defined as a level change, from a first level to a second level, in the detection signal from the proximity sensor, the first level indicating the presence of the object, the second level indicating the absence of the object.
Filter element for filtering a fluid, in particular fuel or oil which is provided for a replaceable arrangement in a filter housing, with first bayonet lock elements, via which the filter element can be detachably coupled with second bayonet lock elements of the filter housing, characterized in that the first bayonet lock elements are disposed on a bayonet ring which is rotatably mounted on the filter element relative to the longitudinal axis of the filter element, wherein the rotation requires to exceed a predetermined torque threshold.
A method for decoupling an output power of an inverter, the inverter configured to be electrically connected to a power grid, wherein the method comprises the following steps: step 1: obtaining an active power P and a reactive power Q of the inverter according to the output voltage and the output current of the inverter, and obtaining a voltage phase instruction θ* and a voltage amplitude instruction E* according to the active power P and the reactive power Q using a droop control algorithm; step 2: obtaining a variation ΔE of the amplitude E of the output voltage of the inverter and a variation Δδ of the phase difference δ during two adjacent control periods, respectively, and obtaining an amplitude feedforward amount E ff and a phase feedforward amount δ ff according to an amplitude U of a grid voltage of the power grid, an amplitude E of the output voltage of the inverter, and a phase difference δ between the output voltage of the inverter and the grid voltage, using the following Equations: E ff = ∑ UE sin δ U cos δ − 2 E Δ δ δ ff = − ∑ tan δ E Δ E; step 3: obtaining a reference voltage amplitude E ref by adding the voltage amplitude instruction E* with the amplitude feedforward amount E ff, and obtaining a reference voltage phase θ ref by adding the voltage phase instruction θ* with the phase feedforward amount δ ff; and step 4: regulating the output power of the inverter using the reference voltage amplitude E ref and the reference voltage phase θ ref. step 1: obtaining an active power P and a reactive power Q of the inverter according to the output voltage and the output current of the inverter, and obtaining a voltage phase instruction θ* and a voltage amplitude instruction E* according to the active power P and the reactive power Q using a droop control algorithm; step 2: obtaining a variation ΔE of the amplitude E of the output voltage of the inverter and a variation Δδ of the phase difference δ during two adjacent control periods, respectively, and obtaining an amplitude feedforward amount E ff and a phase feedforward amount δ ff according to an amplitude U of a grid voltage of the power grid, an amplitude E of the output voltage of the inverter, and a phase difference δ between the output voltage of the inverter and the grid voltage, using the following Equations: E ff = ∑ UE sin δ U cos δ − 2 E Δ δ δ ff = − ∑ tan δ E Δ E; step 3: obtaining a reference voltage amplitude E ref by adding the voltage amplitude instruction E* with the amplitude feedforward amount E ff, and obtaining a reference voltage phase θ ref by adding the voltage phase instruction θ* with the phase feedforward amount δ ff; and step 4: regulating the output power of the inverter using the reference voltage amplitude E ref and the reference voltage phase θ ref.
A method for manufacturing a high strength hot rolled steel sheet comprising a step of heating a slab to a temperature in the range of 1150 to 1300°C; a step of hot rolling the slab with a finishing rolling temperature being in the range of 800 to 1000°C; a step of cooling the steel sheet at a mean cooling rate of 30°C/s or higher to a cooling termination temperature in the range of 525 to 625°C; a step of suspending cooling for a time period in the range of 3 to 10 seconds; a step of cooling the steel sheet, whereas the cooling of the steel sheet is nucleate boiling; and a step of coiling the steel sheet at a temperature in the range of 400 to 550°C, wherein the slab consists of the following elements at the following content ratios by weight percent: C: 0.05 to 0.15% Si: 0.1 to 1.5% Mn: 0.5 to 2.0% P: 0.06% or lower S: 0.005% or lower Al: 0.10% or lower; optionally one or more of Ti: 0.005 to 0.1%; Nb: 0.005 to 0.1%; V: 0.005 to 0.2%; W: 0.005 to 0.2%, and Fe and unavoidable impurities as the balance. C: 0.05 to 0.15% Si: 0.1 to 1.5% Mn: 0.5 to 2.0% P: 0.06% or lower S: 0.005% or lower Al: 0.10% or lower; optionally one or more of Ti: 0.005 to 0.1%; Nb: 0.005 to 0.1%; V: 0.005 to 0.2%; W: 0.005 to 0.2%, and Fe and unavoidable impurities as the balance.