mhurhangee/ep-ind-claims huggingface dataset:
A large optical cavity, LOC, laser diode configured to support lasing of a fundamental mode and to suppress lasing of a first and higher order modes along a fast axis of an optical beam emitted by the laser diode, the laser diode comprising: an optical cavity defined by a p-side (214, 254, 250, 326, 338) of the laser diode, an n-side (230, 220, 216, 310, 320) of the laser diode, and an active region (210, 340, 344), including a quantum well, located between the p- and n-sides, the n-side including an n-waveguide layer forming at least a portion of a multimode waveguide having the quantum well offset towards the p-side; and adjacent cladding layers (316, 312, 716,712) on one or both of the p- and n-sides, the adjacent cladding layers including outer (316, 712) and inner (316, 716) cladding layers, the inner cladding layer situated between and adjacent to the multimode waveguide and the outer cladding layer, the outer and inner cladding layers having, respectively, first and second indices of refraction, the first index of refraction of the outer cladding layer being greater than the second index of refraction of the inner cladding layer and greater than an effective index of refraction of the first order mode so as to out-couple it from the multimode waveguide. an optical cavity defined by a p-side (214, 254, 250, 326, 338) of the laser diode, an n-side (230, 220, 216, 310, 320) of the laser diode, and an active region (210, 340, 344), including a quantum well, located between the p- and n-sides, the n-side including an n-waveguide layer forming at least a portion of a multimode waveguide having the quantum well offset towards the p-side; and adjacent cladding layers (316, 312, 716,712) on one or both of the p- and n-sides, the adjacent cladding layers including outer (316, 712) and inner (316, 716) cladding layers, the inner cladding layer situated between and adjacent to the multimode waveguide and the outer cladding layer, the outer and inner cladding layers having, respectively, first and second indices of refraction, the first index of refraction of the outer cladding layer being greater than the second index of refraction of the inner cladding layer and greater than an effective index of refraction of the first order mode so as to out-couple it from the multimode waveguide.
A mattress or a mattress overlay comprising at least two layers of spacer fabric (23, 24), wherein the first layer of spacer fabric has monofilaments which curve in a first direction and characterised in that the second layer of spacer fabric has monofilaments which curve in the same first direction.
Device for descaling a workpiece, preferably hot-rolled material, with a plurality of nozzle arrangements, which each comprise a nozzle head with one or more nozzles and a nozzle rotor connected with the nozzle head, and one or more motors, wherein each nozzle head is arranged to spray a fluid from the nozzles onto the surface of the workpiece and to be rotatable by way of the associated nozzle rotor and the number of nozzle arrangements is greater than the number of motors and the plurality of nozzle rotors is connected by way of a drive unit with the one or more motors, characterised in that the drive unit comprises a plurality of angle transmissions connected with a drive shaft, which is rotationally driveable at one end or both ends by one or more of the motors, and each angle transmission is connected with a respective nozzle rotor so that each nozzle rotor branches off from the drive shaft by way of exactly one angle transmission.
A steering device comprising: an inner tube having an end portion to which a steering wheel of a vehicle is attached; a column housing that houses the inner tube retractably along an axis of the inner tube; a drive mechanism that is attached to the column housing, and causes the inner tube to perform a retraction operation via a drive member that reciprocates along the axis; a first impact absorption member that is integrally provided on one of the drive member and the inner tube, and includes a deformation portion; and an action member that is provided on another of the drive member and the inner tube, acts on the deformation portion, and plastically deforms the deformation portion, characterized in that the drive member, the first impact absorption member, and the action member are fixed to one another by a single fixing member, and, when a predetermined pushing load along the axis acts on the inner tube, fixing between the first impact absorption member and the action member is released. an inner tube having an end portion to which a steering wheel of a vehicle is attached; a column housing that houses the inner tube retractably along an axis of the inner tube; a drive mechanism that is attached to the column housing, and causes the inner tube to perform a retraction operation via a drive member that reciprocates along the axis; a first impact absorption member that is integrally provided on one of the drive member and the inner tube, and includes a deformation portion; and an action member that is provided on another of the drive member and the inner tube, acts on the deformation portion, and plastically deforms the deformation portion, characterized in that the drive member, the first impact absorption member, and the action member are fixed to one another by a single fixing member, and, when a predetermined pushing load along the axis acts on the inner tube, fixing between the first impact absorption member and the action member is released.
Method of producing a tissue graft, comprising at least the following steps: - providing a gel, - seeding the gel with cells of a first type or cells of a first type and a second type, - culturing the cells of the first type or the cells of the first type and the second type in said gel until the formation of at least one first biostructure in said gel by the cells of the first type or the cells of the first type and the second type, wherein the first biostructure is a vascular structure, - wherein o the cells of the first type are stromal vascular fraction, SVF, cells, or o the cells of the first type are endothelial cells and the cells of the second type are fibroblasts, wherein the endothelial cells and the fibroblasts are co-cultured together in the gel for formation of the first biostructure, - wherein cells of a third type are seeded onto the gel after the at least one first biostructure has been formed in the gel by the cells of the first type or the cells of the first type and the second type, wherein the cells of the third type are selected from keratinocytes, - wherein after seeding of the cells of the third type the gel is cultured until the formation of at least one second biostructure on the gel, wherein the second biostructure is an epidermal structure, - and wherein after the seeding of the gel with the cells of the first type or the cells of the first type and the second type, the gel is compacted. - providing a gel, - seeding the gel with cells of a first type or cells of a first type and a second type, - culturing the cells of the first type or the cells of the first type and the second type in said gel until the formation of at least one first biostructure in said gel by the cells of the first type or the cells of the first type and the second type, wherein the first biostructure is a vascular structure, - wherein o the cells of the first type are stromal vascular fraction, SVF, cells, or o the cells of the first type are endothelial cells and the cells of the second type are fibroblasts, wherein the endothelial cells and the fibroblasts are co-cultured together in the gel for formation of the first biostructure, o the cells of the first type are stromal vascular fraction, SVF, cells, or o the cells of the first type are endothelial cells and the cells of the second type are fibroblasts, wherein the endothelial cells and the fibroblasts are co-cultured together in the gel for formation of the first biostructure, - wherein cells of a third type are seeded onto the gel after the at least one first biostructure has been formed in the gel by the cells of the first type or the cells of the first type and the second type, wherein the cells of the third type are selected from keratinocytes, - wherein after seeding of the cells of the third type the gel is cultured until the formation of at least one second biostructure on the gel, wherein the second biostructure is an epidermal structure, - and wherein after the seeding of the gel with the cells of the first type or the cells of the first type and the second type, the gel is compacted.
A system for filling a fuel manifold of a gas turbine engine, the system comprising: a memory; a receiving unit adapted to receive an activation signal, wherein the activation signal is a start signal of the engine, and a present measurement of a speed of the engine; and a processing unit coupled to the memory, the processing unit adapted to activate the implementation of an adaptive filling function upon receiving the activation signal, to control the filling of the fuel manifold to match the engine's gas generator speed until engine light up is achieved, the adaptive filling function comprising: computing from the received measurement a flow rate of fuel to be supplied to the fuel manifold for filling thereof and to generate an output signal for causing delivery of the fuel to the fuel manifold according to the computed flow rate. a memory; a receiving unit adapted to receive an activation signal, wherein the activation signal is a start signal of the engine, and a present measurement of a speed of the engine; and a processing unit coupled to the memory, the processing unit adapted to activate the implementation of an adaptive filling function upon receiving the activation signal, to control the filling of the fuel manifold to match the engine's gas generator speed until engine light up is achieved, the adaptive filling function comprising: computing from the received measurement a flow rate of fuel to be supplied to the fuel manifold for filling thereof and to generate an output signal for causing delivery of the fuel to the fuel manifold according to the computed flow rate.
A communication control device comprising: a channel information acquisition unit configured to acquire, when AV streams are transmitted from a plurality of transmission apparatuses to one or more reception apparatuses on an IP network while being switched, all channel information from the transmission apparatuses to the reception apparatuses; a traffic calculation unit configured to calculate a maximum traffic generated in switching patterns of the transmission of the AV streams which may occur from the transmission apparatuses to the reception apparatuses, on a basis of the channel information acquired by the channel information acquisition unit; and a transmission band reservation unit configured to reserve a transmission band on the IP network, on a basis of the maximum traffic in the switching patterns calculated by the traffic calculation unit. a channel information acquisition unit configured to acquire, when AV streams are transmitted from a plurality of transmission apparatuses to one or more reception apparatuses on an IP network while being switched, all channel information from the transmission apparatuses to the reception apparatuses; a traffic calculation unit configured to calculate a maximum traffic generated in switching patterns of the transmission of the AV streams which may occur from the transmission apparatuses to the reception apparatuses, on a basis of the channel information acquired by the channel information acquisition unit; and a transmission band reservation unit configured to reserve a transmission band on the IP network, on a basis of the maximum traffic in the switching patterns calculated by the traffic calculation unit.
A method for passively locating a non-movable transmitter on the ground implemented by a group of at least two receiving stations, each of the receiving stations comprising a detector of radars and a time reference, the set of time references being mutually synchronized, said transmitter transmitting a set of periodic pulses, the duration of a pulse train being sufficiently short for each of the receiving stations to always have a trajectory that can be regarded as a uniform rectilinear motion, each receiving station being configured to measure arrival times of the pulses of the transmitter and to compute a mean arrival time of said pulses, said method being characterized in that a first estimation of the position of said transmitter is carried out by the Bancroft scheme on the basis of the mean arrival times of the pulses transmitted by the transmitter at the level of each station of the group of at least two receiving stations, the result obtained being used thereafter as point for initializing a maximum likelihood scheme so as to converge toward the position of said transmitter.
A system for determining a real-time valve function of a subject, the system comprising: a processing unit adapted to: obtain a numerical model (210, 220) of a cardiac system, the numerical model being a 0D numerical model (210, 220), wherein the numerical model is represented as electronic circuit and is adapted to receive a continuous stream of physiological data as an input and to output a simulated hemodynamic function of the cardiac system in real-time, wherein the simulated function of the cardiac system comprises a simulated function of a valve within the cardiac system; wherein within the model, voltage represents blood pressure, current represents blood flow, and model parameters are represented by electrical analogues; obtain a continuous stream of physiological data from the subject; provide the continuous stream of physiological data as an input to the numerical model of the cardiac system, thereby generating a simulated real-time function of the cardiac system of the subject; and determine a real-time valve function of the subject based on the simulated real-time function of the cardiac system of the subject. obtain a numerical model (210, 220) of a cardiac system, the numerical model being a 0D numerical model (210, 220), wherein the numerical model is represented as electronic circuit and is adapted to receive a continuous stream of physiological data as an input and to output a simulated hemodynamic function of the cardiac system in real-time, wherein the simulated function of the cardiac system comprises a simulated function of a valve within the cardiac system; wherein within the model, voltage represents blood pressure, current represents blood flow, and model parameters are represented by electrical analogues; obtain a continuous stream of physiological data from the subject; provide the continuous stream of physiological data as an input to the numerical model of the cardiac system, thereby generating a simulated real-time function of the cardiac system of the subject; and determine a real-time valve function of the subject based on the simulated real-time function of the cardiac system of the subject.
Compound, which is an inhibitor of the kinase activity of MKK4, MKK4 being encoded by the mRNA of SEQ ID NO: 1204, for use as a medicament in the treatment of liver failure and/or in the treatment of impaired liver function and/or for increasing the regeneration of liver tissue in a patient, wherein the compound is not genistein, myricitine or SP600125.
Power supply device comprising a first electrical line and at least one battery, in particular a lithium-ion battery, connected thereto, a battery management system and an electrically actuatable isolating switch, which is arranged in the first electrical line, for interrupting a flow of current in the first electrical line, wherein the isolating switch is only closed when it is supplied with current, wherein the power supply device also comprises a second electrical line for supplying power to the isolating switch, wherein an overcurrent protection device is arranged in the second electrical line and can be used to interrupt a flow of current in the second electrical line, and thus the isolating switch can be controlled in such a way that it interrupts the flow of current in the first electrical line, and wherein the battery management system is electrically connected to the second electrical line and is configured in such a way that, when an inadmissible deviation of an actual parameter, which is detected by the battery management system, from a predefined setpoint parameter is determined, the second electrical line is controlled by the battery management system in such a way that a flow of current which can cause the overcurrent protection device to be tripped can be produced in the second electrical line.
A mixing cartridge for a sanitary fitting, comprising at least - a mixing chamber having at least one hot water inlet for hot water and at least one cold water inlet for cold water, and - a swirling element for at least partially swirling the hot water and the cold water in the mixing chamber, wherein the swirling element comprises a plurality of radially outer wedge-shaped swirling bodies and a plurality of radially inner wedge-shaped swirling bodies, characterized in that the swirling bodies (6, 7) each have a pointed head, wherein the swirling bodies (6, 7) are each formed from two legs which extend in a V-shape starting from the pointed head, and wherein an angle is formed between the legs in the circumferential direction of the mixing cartridge. - a mixing chamber having at least one hot water inlet for hot water and at least one cold water inlet for cold water, and - a swirling element for at least partially swirling the hot water and the cold water in the mixing chamber, wherein the swirling element comprises a plurality of radially outer wedge-shaped swirling bodies and a plurality of radially inner wedge-shaped swirling bodies, characterized in that the swirling bodies (6, 7) each have a pointed head, wherein the swirling bodies (6, 7) are each formed from two legs which extend in a V-shape starting from the pointed head, and wherein an angle is formed between the legs in the circumferential direction of the mixing cartridge.
Device, comprising at least: - an energy source, - an electronics unit, - a pickup unit, coupled to the electronics unit and configured to measure electromagnetic waves in a frequency range 10 13 -10 20 Hz, wherein the device is configured for implantation in the human or animal body, wherein the device is configured to detect that the electromagnetic waves have been radiated from genetically manipulated tissue, and wherein the device comprises an actuator coupled to the electronics unit and/or the energy source, the actuator being configured to emit electromagnetic waves in a frequency range 10 13 -10 20 Hz characterized in that the electronics unit is configured to detect that the electromagnetic waves measured by the pickup unit have been emitted by the actuator, wherein the electromagnetic wave measured by the pickup unit is the electromagnetic wave emitted by the actuator in a changed form, the change being based on at least one of the effects: - reflection, - absorption, - transmission, and/or - polarization. - an energy source, - an electronics unit, - a pickup unit, coupled to the electronics unit and configured to measure electromagnetic waves in a frequency range 10 13 -10 20 Hz, wherein the device is configured for implantation in the human or animal body, wherein the device is configured to detect that the electromagnetic waves have been radiated from genetically manipulated tissue, and wherein the device comprises an actuator coupled to the electronics unit and/or the energy source, the actuator being configured to emit electromagnetic waves in a frequency range 10 13 -10 20 Hz characterized in that the electronics unit is configured to detect that the electromagnetic waves measured by the pickup unit have been emitted by the actuator, wherein the electromagnetic wave measured by the pickup unit is the electromagnetic wave emitted by the actuator in a changed form, the change being based on at least one of the effects: - reflection, - absorption, - transmission, and/or - polarization. - reflection, - absorption, - transmission, and/or - polarization.
A combination of a venturi flowmeter for connection to single-use containers and a sterile packaging, the venturi flowmeter comprising: a meter body formed of a polymer and configured to allow fluid flow therethrough; a first annular diaphragm mounted proximate an inner surface of the meter body having a first internal diameter; a second annular diaphragm mounted proximate an inner surface of the meter body having a second internal diameter different from the first internal diameter; a first impulse line coupled to the first annular diaphragm, the first impulse line having a substantially incompressible fluid therein; and a second impulse line coupled to the second annular diaphragm, the second impulse line having a substantially incompressible fluid therein, wherein each of the first and second annular diaphragms (146, 148) is constructed from plastic, wherein the venturi flowmeter is sterilized and disposed within the sterile packaging. a meter body formed of a polymer and configured to allow fluid flow therethrough; a first annular diaphragm mounted proximate an inner surface of the meter body having a first internal diameter; a second annular diaphragm mounted proximate an inner surface of the meter body having a second internal diameter different from the first internal diameter; a first impulse line coupled to the first annular diaphragm, the first impulse line having a substantially incompressible fluid therein; and a second impulse line coupled to the second annular diaphragm, the second impulse line having a substantially incompressible fluid therein, wherein each of the first and second annular diaphragms (146, 148) is constructed from plastic, wherein the venturi flowmeter is sterilized and disposed within the sterile packaging.