mhurhangee/ep-ind-claims huggingface dataset:
A method for carrying out a test run on a test bench, wherein a test object in form of a vehicle or a component of the vehicle is physically set up and operated on the test bench, and a simulation unit having a simulation model simulates the test run, wherein at least one temperature is measured at a measurement point (MSi) on the test object as a measured variable (MGi) during the test run on the test bench, and at least one test object component (PKi) of the test object is subdivided into a number of segments (Si), characterized in that during the test run, the thermal interaction of at least one segment (Si) with the environment of the vehicle is simulated by means of a thermal simulation model of the simulation model, in that the thermal simulation model calculates the segment heat flow (Q̇ Si) that is supplied to or dissipated from the at least one segment (Si), and that said segment heat flow (Q̇ Si) is adjusted on the at least one segment (Si) as a function of the measured temperature by means of a number of heat flow actuators (15 j) that subject the test object to a heat flow (Q̇ j).
A lozenge comprising: 1.4-1.8% by weight pectin; 78-88% by weight sweetener; 0.1-1.5% of an organic acid; and 10-19% by weight of water. 1.4-1.8% by weight pectin; 78-88% by weight sweetener; 0.1-1.5% of an organic acid; and 10-19% by weight of water.
A method for detecting the presence of a chemical element in an object by emission of neutrons on to the object, characterised in that the emission of neutrons on to the object is constituted, firstly, by a continuous emission of neutrons originating from an associated particle neutron generator and, secondly, by an emission of neutron pulses which are superimposed on the continuous emission of neutrons, where the neutron pulses originate from a pulsed neutron generator which generates neutron pulses of pulse duration T2, where two successive neutron pulses are separated by a duration T4, and where the continuous and pulsed emissions of neutrons on to the object produce a gamma capture radiation and an inelastic gamma radiation, the method comprising a detection of the inelastic gamma radiation and of the capture gamma radiation.
Boat having a hull and having a boat drive which is led through a hull opening in the bottom of the hull, the boat drive being connected to the hull by means of at least one fastening means, at least one positioning element for positioning the fastening means in relation to the hull being provided on the outside of the hull, the positioning element comprising at least one indentation, and the indentation or parts of the indentation being shaped in such a way that it is suitable for positioning the fastening means in relation to the hull, the positioning element comprising a contact surface, and the contact surface being delimited by a reference border, which is suitable as a stop for positioning the fastening means, characterized in that the indentation is covered towards the outside by a cover, in that the cover is positioned in relation to the hull by the positioning element, and in that the cover rests both on the contact surface and on the reference border and is thus positioned with respect to the hull.
A tissue collection device for collection of one or more tissue samples from a biopsy needle, the tissue collection device including a tissue sample positioning arrangement adapted to support a biopsy needle holding a tissue sample relative to a housing of the tissue collection device in a fixed position in a transverse direction of the biopsy needle, wherein the tissue collection device includes a sample storage with at least one sample compartment having the form of a channel, wherein the sample storage is configured as a drum, in which the sample compartments are arranged along the periphery of the drum, wherein the drum is arranged to be rotated a number of angular steps corresponding to the distance between two neighbouring sample compartments, and wherein the tissue collection device is adapted to perform a tissue collection operation by displacement of the drum relative to the housing in the direction of the biopsy needle and back again when the drum has been rotated one or more angular steps, wherein the tissue collection device includes a carrier medium, and the tissue collection device is adapted to perform the tissue collection operation by movement of the carrier medium in a transverse direction of the biopsy needle by relative movement between the carrier medium and the biopsy needle by firstly bringing the carrier medium into physical contact with a tissue sample held by a sample part of the biopsy needle, and by secondly bringing the carrier medium away from the sample part of the biopsy needle characterized in that the carrier medium is adapted to adhere to a tissue sample and in that the carrier medium is arranged in the channel forming the at least one sample compartment.
A method of steam cracking using a steam cracking arrangement including one or more fired cracking furnaces, one or more quench cooling trains and one or more compressors and/or pumps as rotating equipment, wherein one or more process gas streams is or are passed at least through the one or more fired cracking furnaces and the one or more quench cooling trains, and wherein the rotating equipment is at least partly driven by electric energy, wherein one or more steam generation arrangements is or are operated in thermal association with the one or more steam cracking arrangements, characterized in that using the one or more steam generation arrangements at least superheated high pressure steam at a first pressure level between 30 and 175 bar absolute pressure and at a first temperature level and no steam at a higher temperature level than the first temperature level is generated, wherein the superheated high pressure steam at the first pressure level is at least in part adiabatically and isenthalpically expanded to a second pressure level below the first pressure level such that its temperature level is lowered to a second temperature level, and wherein the first temperature level is selected such that each intermediate temperature level reached at intermediate pressure levels of more than 20 bar during the adiabatic and isenthalpic expansion is between 5 and 120 K above the dew point of steam at the respective intermediate pressure level during the adiabatic and isenthalpic expansion.
A sealing arrangement for placement between two components which have a planar contact surface, including - a first elongate flexible sealing element (11, 51, 52, 53) which has a first start region and a first end region; and - a first termination element (15, 48) which is designed so that it can carry out a sealing function; wherein the first sealing element (11, 51, 52, 53) and the first termination element (15, 48) are designed and arranged so that they have a first overlap region in the first end region of the first sealing element and thus form a first continuous sealing edge, characterized in that - the first sealing element (11, 51, 52, 53) is displaceably arranged relative to the first termination element (15, 48) so that the first sealing edge is maintained also for a displacement of the first end region of the first sealing element (11, 51, 52, 53) in the direction of the first start region within the first overlap region; and - the first termination element (15, 48) has a first curvature and the first sealing element (11, 51, 52, 53) is arranged so that it contacts the first termination element (15, 48) along the first curvature in a pressure-free state. - a first elongate flexible sealing element (11, 51, 52, 53) which has a first start region and a first end region; and - a first termination element (15, 48) which is designed so that it can carry out a sealing function; - the first sealing element (11, 51, 52, 53) is displaceably arranged relative to the first termination element (15, 48) so that the first sealing edge is maintained also for a displacement of the first end region of the first sealing element (11, 51, 52, 53) in the direction of the first start region within the first overlap region; and - the first termination element (15, 48) has a first curvature and the first sealing element (11, 51, 52, 53) is arranged so that it contacts the first termination element (15, 48) along the first curvature in a pressure-free state.
A method for controlling a plurality of expansion valves, characterized in that, comprising: when a first specified number of indoor units are in a non-working state, turning off the plurality of expansion valves corresponding to all the indoor units in the non-working state; and turning on the plurality of expansion valves corresponding to a second specified number of indoor units in the non-working state in turn according to a predetermined cycle, wherein the second specified number is smaller than the first specified number. when a first specified number of indoor units are in a non-working state, turning off the plurality of expansion valves corresponding to all the indoor units in the non-working state; and turning on the plurality of expansion valves corresponding to a second specified number of indoor units in the non-working state in turn according to a predetermined cycle, wherein the second specified number is smaller than the first specified number.
A method for provisioning a firmware module to a computing device, the method comprising: downloading a firmware volume including at least one firmware module to the computing device when the computing device is in a first, higher power consumption state; re-instantiating a firmware environment that includes one or more firmware functions available at pre-boot time, when transitioning the computing device from the first, higher power consumption state to a second, lower power consumption state; determining, by the firmware environment, whether a cryptographic signature on the firmware volume is verified; determining, by the firmware environment, whether hardware resources of the computing device requested by a manifest of the firmware volume are available; determining, by the firmware environment, whether at least one firmware module of the firmware volume is compatible with installed firmware of the firmware environment; reserving space in a memory to accommodate resources used by the at least one firmware module; and executing the at least one firmware module with the computing device in the second, lower power consumption state; characterized in that the firmware volume is provided and signed by a party other than the manufacturer of the computing device, and the firmware volume is installed to the computing device after shipment to a user. downloading a firmware volume including at least one firmware module to the computing device when the computing device is in a first, higher power consumption state; re-instantiating a firmware environment that includes one or more firmware functions available at pre-boot time, when transitioning the computing device from the first, higher power consumption state to a second, lower power consumption state; determining, by the firmware environment, whether a cryptographic signature on the firmware volume is verified; determining, by the firmware environment, whether hardware resources of the computing device requested by a manifest of the firmware volume are available; determining, by the firmware environment, whether at least one firmware module of the firmware volume is compatible with installed firmware of the firmware environment; reserving space in a memory to accommodate resources used by the at least one firmware module; and executing the at least one firmware module with the computing device in the second, lower power consumption state; characterized in that the firmware volume is provided and signed by a party other than the manufacturer of the computing device, and the firmware volume is installed to the computing device after shipment to a user.
A patch for in vivo biorthogonal catalysis applications in mammalian tissue comprising: a base or substrate having a plurality of microneedles extending away from the surface of the base, wherein the plurality of microneedles comprise a polyvinyl alcohol matrix having TiO 2 nanosheets populated with metallic nanoparticles dispersed therein.
A method comprising: comparing a length of a first packet to a threshold; determining that the first packet is a short packet when the length of the first packet is less than the threshold; determining that the first packet is a long packet when the length of the first packet is greater than or equal to the threshold; when the first packet is a long packet: placing the first packet in a long packet container; and transmitting the long packet container to a photonic switch; and when the first packet is a short packet: placing a first portion of the first packet in a first short packet container, wherein the first short packet container comprises a sequence number, a source top-of-rack switch,TOR, address, a concatenation sequence length number,CSL, and a basic payload container,BPC, position in sequence,BPS, number, or a harmonic level number and a packet payload length number; and a destination TOR address; and transmitting the first short packet container to an electronic switch. comparing a length of a first packet to a threshold; determining that the first packet is a short packet when the length of the first packet is less than the threshold; determining that the first packet is a long packet when the length of the first packet is greater than or equal to the threshold; when the first packet is a long packet: placing the first packet in a long packet container; and transmitting the long packet container to a photonic switch; and placing the first packet in a long packet container; and transmitting the long packet container to a photonic switch; and when the first packet is a short packet: placing a first portion of the first packet in a first short packet container, wherein the first short packet container comprises a sequence number, a source top-of-rack switch,TOR, address, a concatenation sequence length number,CSL, and a basic payload container,BPC, position in sequence,BPS, number, or a harmonic level number and a packet payload length number; and a destination TOR address; and transmitting the first short packet container to an electronic switch. placing a first portion of the first packet in a first short packet container, wherein the first short packet container comprises a sequence number, a source top-of-rack switch,TOR, address, a concatenation sequence length number,CSL, and a basic payload container,BPC, position in sequence,BPS, number, or a harmonic level number and a packet payload length number; and a destination TOR address; and a sequence number, a source top-of-rack switch,TOR, address, a concatenation sequence length number,CSL, and a basic payload container,BPC, position in sequence,BPS, number, or a harmonic level number and a packet payload length number; and a destination TOR address; and transmitting the first short packet container to an electronic switch.
A medical device comprising: (a) an elongated tubular body having a proximal end and a distal end; (b) an expandable element at the distal end of the elongated tubular body; (c) an expandable tubular sleeve surrounding at least a portion of the expandable element and including a first end portion and a second end portion having a first compression ratio and a central portion between the first end portion and the second end portion having a second compression ratio different from the first compression ratio; wherein the expandable element and the expandable tubular sleeve provide a longitudinal tension to an implantable device such that the implantable device is prevented from longitudinal compression, and the expandable tubular sleeve is configured in an expansion sequence dictated by the first and second compression ratios of the expandable tubular sleeve to: expand at the central portion first in response to applying a first expansion pressure to the expandable tubular sleeve and subsequently expand at the first end portion and second end portion in response to applying a second expansion pressure greater than the first expansion pressure. (a) an elongated tubular body having a proximal end and a distal end; (b) an expandable element at the distal end of the elongated tubular body; (c) an expandable tubular sleeve surrounding at least a portion of the expandable element and including a first end portion and a second end portion having a first compression ratio and a central portion between the first end portion and the second end portion having a second compression ratio different from the first compression ratio; expand at the central portion first in response to applying a first expansion pressure to the expandable tubular sleeve and subsequently expand at the first end portion and second end portion in response to applying a second expansion pressure greater than the first expansion pressure.
A high-efficiency and directional non-resonant laser, comprising: a gain medium unit in which a scattering cavity and an entrance communicating with the scattering cavity are provided; and a pumping and supply unit configured to supply pumping light to an inside of the scattering cavity, wherein the gain medium unit is excited by the pumping light on the inside of the scattering cavity and is configured to output emission light through the entrance. a gain medium unit in which a scattering cavity and an entrance communicating with the scattering cavity are provided; and a pumping and supply unit configured to supply pumping light to an inside of the scattering cavity, wherein the gain medium unit is excited by the pumping light on the inside of the scattering cavity and is configured to output emission light through the entrance.
Lens device, comprising: - a transparent and elastically expandable membrane, - a transparent optical element facing the membrane, - a wall member, wherein the optical element and the membrane are connected to the wall member such that a volume is formed, - a fluid residing in said volume and completely filling it, and - a lens shaping member attached to the membrane, characterized in that, the lens shaping member is attached to an outside of the membrane, which outside faces away from said volume, and wherein the lens device comprises an actuator means that is designed to move the optical element in an axial direction with respect to the lens shaping member so as to adjust the pressure of the fluid residing inside the volume and therewith a curvature of said membrane, wherein said axial direction is oriented perpendicular to a plane along which the lens shaping member extends, and wherein said actuator means is designed to tilt the optical element with respect to said plane, so as to form the volume into a prism for deflecting light passing through the volume, and wherein the actuator means is designed to act on the wall member for moving the optical element axially and for tilting the optical element. - a transparent and elastically expandable membrane, - a transparent optical element facing the membrane, - a wall member, wherein the optical element and the membrane are connected to the wall member such that a volume is formed, - a fluid residing in said volume and completely filling it, and - a lens shaping member attached to the membrane,
A mixed time-domain / frequency-domain coding device for coding an input sound signal, characterized in that it comprises: a calculator of a time-domain excitation contribution in response to the input sound signal; a calculator of a cut-off frequency for the time-domain excitation contribution in response to the input sound signal; a filter responsive to the cut-off frequency for adjusting a frequency extent of the time-domain excitation contribution; a calculator of a frequency-domain excitation contribution in response to the input sound signal; and an adder of the filtered time-domain excitation contribution and the frequency-domain excitation contribution in the frequency domain to form a mixed time-domain / frequency-domain excitation constituting a coded version of the input sound signal. a calculator of a time-domain excitation contribution in response to the input sound signal; a calculator of a cut-off frequency for the time-domain excitation contribution in response to the input sound signal; a filter responsive to the cut-off frequency for adjusting a frequency extent of the time-domain excitation contribution; a calculator of a frequency-domain excitation contribution in response to the input sound signal; and an adder of the filtered time-domain excitation contribution and the frequency-domain excitation contribution in the frequency domain to form a mixed time-domain / frequency-domain excitation constituting a coded version of the input sound signal.
Method for offset compensation for sensor signals by means of an offset compensation device, wherein the offset compensation device comprises a shift register containing elements in the number N, an averaging unit and a low pass filter, and wherein the method involves the following steps being carried out: - storing sensor values in the shift register, - calculating the difference between the first element of the shift register and the last element of the shift register, - determining multiple mean values, the following steps being carried out: a) starting the averaging by the averaging unit if the difference is greater than a threshold value S, b) stopping the averaging by the averaging unit if the difference is less than the threshold value -S, - determining the lowest signal level by means of the low pass filter based on the mean values, - determining the offset by calculating the difference between the lowest signal level and a reference current value, - correcting the sensor values by means of the determined offset. - storing sensor values in the shift register, - calculating the difference between the first element of the shift register and the last element of the shift register, - determining multiple mean values, the following steps being carried out: a) starting the averaging by the averaging unit if the difference is greater than a threshold value S, b) stopping the averaging by the averaging unit if the difference is less than the threshold value -S, a) starting the averaging by the averaging unit if the difference is greater than a threshold value S, b) stopping the averaging by the averaging unit if the difference is less than the threshold value -S, - determining the lowest signal level by means of the low pass filter based on the mean values, - determining the offset by calculating the difference between the lowest signal level and a reference current value, - correcting the sensor values by means of the determined offset.
A solid polymethylaluminoxane composition that is particulate wherein: (i) the aluminum content falls within a range of 36 mass% to 41 mass%; (ii) the mole fraction of methyl groups derived from the trimethylaluminum component relative to the total number of moles of methyl groups is 12 mol% or lower. (i) the aluminum content falls within a range of 36 mass% to 41 mass%; (ii) the mole fraction of methyl groups derived from the trimethylaluminum component relative to the total number of moles of methyl groups is 12 mol% or lower.