mhurhangee/ep-ind-claims huggingface dataset:
System for thermal storage by phase change material comprising: - a tank intended for containing a PCM by fusion/solidification and configured so that a portion of a separation edge between a liquid phase and a solid phase of the PCM has, in the tank, a position H PCM,sol representative of a charge rate τ of the STS, and - a device for measuring a parameter representative of the charge rate τ of the STS arranged at least partially in the tank, the device for measuring comprises: - a vibration member, - an excitation device configured to induce an excitation, and - a sensor configured to measure a vibration parameter, characterised in that - the vibration member is configured to be intended for passing through the portion of the separation edge in such a way as to have: ∘ a free vibration portion at least partially immersed in the liquid phase and ∘ a static portion due to the anchoring thereof in the solid phase, the free vibration portion thus having a so-called vibration length L vib representative of the position H PCM,sol of the portion of the separation edge in the tank, - the excitation device is configured to induce an excitation of the free vibration portion, and - the sensor is configured to measure a vibration parameter of the free vibration portion, the excitation induced being such that the vibration parameter measured depends on the vibration length L vib of the free vibration portion, in such a way that the measurement of the vibration parameter is representative of the charge rate τ of the STS. - a tank intended for containing a PCM by fusion/solidification and configured so that a portion of a separation edge between a liquid phase and a solid phase of the PCM has, in the tank, a position H PCM,sol representative of a charge rate τ of the STS, and - a device for measuring a parameter representative of the charge rate τ of the STS arranged at least partially in the tank, - a vibration member, - an excitation device configured to induce an excitation, and - a sensor configured to measure a vibration parameter, characterised in that - the vibration member is configured to be intended for passing through the portion of the separation edge in such a way as to have: ∘ a free vibration portion at least partially immersed in the liquid phase and ∘ a static portion due to the anchoring thereof in the solid phase, the free vibration portion thus having a so-called vibration length L vib representative of the position H PCM,sol of the portion of the separation edge in the tank, ∘ a free vibration portion at least partially immersed in the liquid phase and ∘ a static portion due to the anchoring thereof in the solid phase, the free vibration portion thus having a so-called vibration length L vib representative of the position H PCM,sol of the portion of the separation edge in the tank, - the excitation device is configured to induce an excitation of the free vibration portion, and - the sensor is configured to measure a vibration parameter of the free vibration portion,
A method of displaying information on a user terminal device comprising a display that is flexible and configured to be divided into a first display area, a second display area, and a third display area, wherein a first folding line is arranged between the first display area and the second display area, and a second folding line is arranged between the second display area and the third display area, the method comprising: displaying first information of an application on the first display area which is exposed while the display is folded; displaying further, in response to the display being unfolded with reference to the first folding line while the first information is displayed on the first display area, second information of the application on the second display area, wherein the second information is related to the first information; and displaying further, in response to the display being unfolded with reference to the second folding line while the first information and second information are displayed on the first display area and the second display area respectively, third information of the application on the third display area, wherein the third information is detailed information on the second information. displaying first information of an application on the first display area which is exposed while the display is folded; displaying further, in response to the display being unfolded with reference to the first folding line while the first information is displayed on the first display area, second information of the application on the second display area, wherein the second information is related to the first information; and displaying further, in response to the display being unfolded with reference to the second folding line while the first information and second information are displayed on the first display area and the second display area respectively, third information of the application on the third display area, wherein the third information is detailed information on the second information.
A ballistic material, comprising: a first woven ballistic fabric having a fiber denier in a range of 50 d to 5000 d; and a hydroentangled nonwoven fiber component having a denier in a range of about 0.5 d to about 2.5 d and a density of about 10 g/m 2 to about 200 g/m 2; wherein the hydroentangled nonwoven fiber component is needlepunched with the woven ballistic fabric to form the ballistic material, wherein the hydroentangled nonwoven fiber component constitutes 0.1 to 10% by weight of the ballistic material; and wherein the ballistic material has a finished areal weight in a range of 0.48824 kg/m 2 to about 9.7648 kg/m 2 and a V50 in a range of about 228.6 to about 914.4 meters per second. a first woven ballistic fabric having a fiber denier in a range of 50 d to 5000 d; and a hydroentangled nonwoven fiber component having a denier in a range of about 0.5 d to about 2.5 d and a density of about 10 g/m 2 to about 200 g/m 2; wherein the hydroentangled nonwoven fiber component is needlepunched with the woven ballistic fabric to form the ballistic material, wherein the hydroentangled nonwoven fiber component constitutes 0.1 to 10% by weight of the ballistic material; and wherein the ballistic material has a finished areal weight in a range of 0.48824 kg/m 2 to about 9.7648 kg/m 2 and a V50 in a range of about 228.6 to about 914.4 meters per second.
A method of navigating an autonomous coverage robot on a floor, the method comprising: controlling movement of the robot across the floor in a cleaning mode; receiving a sensor signal indicative of an obstacle; rotating the robot away from the sensed obstacle; characterized by determining a change in the received sensor signal during at least a portion of the rotation of the robot away from the sensed obstacle, wherein determining the change in the received sensor signal comprises determining a peak in the strength of the received sensor signal; and identifying the sensed obstacle based at least in part on the determined change in the received sensor signal, wherein identifying the sensed obstacle based at least in part on the determined change in the received sensor signal comprises storing a first robot heading associated with the received sensor signal indicative of the obstacle and storing a second robot heading associated with the determined peak in the received sensor signal and wherein identifying the sensed obstacle further comprises determining the angular width of the sensed obstacle based at least in part on the difference between the stored first and second robot headings and comparing the determined angular width of the sensed obstacle to a threshold. controlling movement of the robot across the floor in a cleaning mode; receiving a sensor signal indicative of an obstacle; rotating the robot away from the sensed obstacle; characterized by determining a change in the received sensor signal during at least a portion of the rotation of the robot away from the sensed obstacle, wherein determining the change in the received sensor signal comprises determining a peak in the strength of the received sensor signal; and identifying the sensed obstacle based at least in part on the determined change in the received sensor signal, wherein identifying the sensed obstacle based at least in part on the determined change in the received sensor signal comprises storing a first robot heading associated with the received sensor signal indicative of the obstacle and storing a second robot heading associated with the determined peak in the received sensor signal and wherein identifying the sensed obstacle further comprises determining the angular width of the sensed obstacle based at least in part on the difference between the stored first and second robot headings and comparing the determined angular width of the sensed obstacle to a threshold.
Method for producing and/or recycling a conveyor belt, wherein this conveyor belt has at least one belt layer, this belt layer or one of the belt layers is embodied as a tension-bearing member and this tension-bearing member consists of at least a matrix material and filaments embedded in this matrix material, wherein the method comprises - providing a tension-bearing member starting material by • providing a recyclate already containing matrix material and filaments or filament groups or • combining a recyclate already containing matrix material and filaments or filament groups with matrix material and/or filaments, - producing an extrudable state of the tension-bearing member starting material with mechanically assisted mixing of the tension-bearing member starting material provided and the influence of temperature on the tension-bearing member starting material provided and - extruding the tension-bearing member forming the at least one belt layer of the conveyor belt from the tension-bearing member starting material or - extruding the tension-bearing member forming a belt layer of the conveyor belt from the tension-bearing member starting material and joining the tension-bearing member to at least one further belt layer to form the conveyor belt, characterized in that the recyclate is produced by comminuting the conveyor belt. - providing a tension-bearing member starting material by • providing a recyclate already containing matrix material and filaments or filament groups or • combining a recyclate already containing matrix material and filaments or filament groups with matrix material and/or filaments, • providing a recyclate already containing matrix material and filaments or filament groups or • combining a recyclate already containing matrix material and filaments or filament groups with matrix material and/or filaments, - producing an extrudable state of the tension-bearing member starting material with mechanically assisted mixing of the tension-bearing member starting material provided and the influence of temperature on the tension-bearing member starting material provided and - extruding the tension-bearing member forming the at least one belt layer of the conveyor belt from the tension-bearing member starting material or - extruding the tension-bearing member forming a belt layer of the conveyor belt from the tension-bearing member starting material and joining the tension-bearing member to at least one further belt layer to form the conveyor belt,
A terminal comprising: a receiving section adapted to receive a first information indicating the number of slots of a physical uplink control channel, PUCCH, and a second information indicating a PUCCH resource, the second information indicating that intra-slot frequency hopping is enabled, and indicating a starting physical resource block, PRB, which is a first PRB in a first hop, and a second hop PRB which is a first PRB in a second hop; a control section adapted to use a base sequence for the PUCCH; and a transmitting section adapted to transmit the PUCCH using the base sequence, wherein when the number of the slots is larger than one, and when intra-slot frequency hopping is enabled for the PUCCH resource, and when the second hop PRB and the starting PRB are located at a same position in the frequency direction, the control section is adapted to vary the base sequence depending on a slot in which the base sequence is used and whether the base sequence is used in the first hop or the second hop, and wherein when the second hop PRB and the starting PRB are located at a same position in the frequency direction, the control section is adapted to use an orthogonal sequence which has a length depending on whether or not the enabling of the frequency hopping is configured for the PUCCH resource, for PUCCH format 1. a receiving section adapted to receive a first information indicating the number of slots of a physical uplink control channel, PUCCH, and a second information indicating a PUCCH resource, the second information indicating that intra-slot frequency hopping is enabled, and indicating a starting physical resource block, PRB, which is a first PRB in a first hop, and a second hop PRB which is a first PRB in a second hop; a control section adapted to use a base sequence for the PUCCH; and a transmitting section adapted to transmit the PUCCH using the base sequence, wherein when the number of the slots is larger than one, and when intra-slot frequency hopping is enabled for the PUCCH resource, and when the second hop PRB and the starting PRB are located at a same position in the frequency direction, the control section is adapted to vary the base sequence depending on a slot in which the base sequence is used and whether the base sequence is used in the first hop or the second hop, and wherein when the second hop PRB and the starting PRB are located at a same position in the frequency direction, the control section is adapted to use an orthogonal sequence which has a length depending on whether or not the enabling of the frequency hopping is configured for the PUCCH resource, for PUCCH format 1.
In a solid waste treatment system comprising an autoclave not having a particulate filter at its outlet, a method of removing particulates suspended in steam discharged from the autoclave following processing of solid waste, the method comprising the steps of: discharging steam from the autoclave; routing the steam to the inlet of a separation vessel that further includes an outlet and a baffle between said inlet and said outlet, whereby the baffle is so configured so that steam is incident upon the baffle to reduce its flow velocity, and wherein a filter is provided after said outlet; collecting particulates that drop from suspension in the steam at the bottom of the separation vessel; and charging the autoclave with steam routed from a steam storage system via the outlet and then the inlet of the separation vessel, thereby forcing particulates caught in the filter to be removed therefrom and to drop to the bottom of the separation vessel. discharging steam from the autoclave; routing the steam to the inlet of a separation vessel that further includes an outlet and a baffle between said inlet and said outlet, whereby the baffle is so configured so that steam is incident upon the baffle to reduce its flow velocity, and wherein a filter is provided after said outlet; collecting particulates that drop from suspension in the steam at the bottom of the separation vessel; and charging the autoclave with steam routed from a steam storage system via the outlet and then the inlet of the separation vessel, thereby forcing particulates caught in the filter to be removed therefrom and to drop to the bottom of the separation vessel.
An electrical connection device designed to be implanted inside an animal's body to enable an electrical connection between several electrical wires, comprising: - a housing comprising at least one opening formed at the surface of said housing at the end of at least one cavity formed inside the housing, said cavity being designed to receive a first electrical wire through the opening; - electrical interconnection means to establish an electrical connection between said first electrical wire and at least a second electrical wire; - a position maintenance means for maintaining the position of the first electrical wire in the corresponding cavity, characterized in that said position maintenance means comprises a cam rotatably mounted in the housing to compress said first electrical wire against the inner walls of the cavity during rotation of the cam in a direction tending to insert said first electrical wire inside the corresponding cavity, and in that said position maintenance means further comprises a locking means (14; 15) to lock the cam in position when said cam is positioned to compress the first electrical wire, the locking means comprising a locking component slidably mounted in the housing and designed to be inserted into a complementary rail provided in the cam until it comes to stop against a closed end of said rail so as to prevent any rotation movement of the cam. - a housing comprising at least one opening formed at the surface of said housing at the end of at least one cavity formed inside the housing, said cavity being designed to receive a first electrical wire through the opening; - electrical interconnection means to establish an electrical connection between said first electrical wire and at least a second electrical wire; - a position maintenance means for maintaining the position of the first electrical wire in the corresponding cavity,
A computer tomography apparatus, which includes - a construction for moving imaging means (14, 15) being connected to a support structure, - which imaging means comprise a radiation source and an imaging detector, - in connection with which radiation source a collimator structure is arranged for limiting radiation produced by the radiation source to a beam of at least one shape, - first patient support means in association with a computer tomography imaging station arranged in connection with the apparatus, and - a control system which includes control means and actuators to realise operation of said radiation source and imaging detector, and to control and realise movements of said radiation source and imaging detector, characterised in that a second imaging station physically separate to the computer tomography imaging station and comprising a second patient support means is arranged to the apparatus, at a distance from said computer tomography imaging station. - a construction for moving imaging means (14, 15) being connected to a support structure, - which imaging means comprise a radiation source and an imaging detector, - in connection with which radiation source a collimator structure is arranged for limiting radiation produced by the radiation source to a beam of at least one shape, - first patient support means in association with a computer tomography imaging station arranged in connection with the apparatus, and - a control system which includes control means and actuators to realise operation of said radiation source and imaging detector, and to control and realise movements of said radiation source and imaging detector, characterised in that a second imaging station physically separate to the computer tomography imaging station and comprising a second patient support means is arranged to the apparatus, at a distance from said computer tomography imaging station.
Method for operating a drive train for a motor vehicle, having at least one primary drive axle and at least one secondary drive axle, which are operatively interconnected by a clutch with an adjustable transmission torque, wherein a vibration amplitude of a vibration of the drive train is determined, wherein an over pressing of the clutch is determined in a damping mode of operation of the drive train and adjusted on the clutch, and characterised in that the clutch over pressing is determined on the basis of the transmission torque, which is determined on the basis of the vibration amplitude, or is determined directly on the basis of the vibration amplitude.
A method of preparing a bispecific antibody comprising i) a first antibody heavy chain comprising a knob modification, which comprises a T366W substitution (EU numbering), wherein the first antibody heavy chain is associated with a first light chain, and ii) a second antibody heavy chain comprising a hole modification, which comprises two or more amino acid substitutions selected from the group consisting of T366S, L368A, and Y407V (EU numbering), wherein the second antibody heavy chain is associated with a second light chain, wherein the hole modification interacts with the knob modification at an interface, and wherein the first and second antibody heavy chain are linked by at least one interchain disulfide bond, the method comprising the steps of: (a) culturing a combined culture of a first host cell and a second host cell, wherein the first host cell express the first antibody heavy chain and the first light chain, wherein the second host cell expresses the second antibody heavy chain and the second light chain, and wherein the first host cell and the second host cell are each a mammalian cell; (b) adding reduced glutathione to the combined culture to achieve a final concentration of 5mM to 20mM; and (c) harvesting a combined culture medium from the combined culture without disrupting cell membrane 4 to 24 hours after adding the GSH to the combined culture, wherein harvesting comprises removing the first host cell and the second host cell from the combined culture medium, wherein the combined culture medium comprises the bispecific antibody, and wherein the bispecific antibody is human or humanized. (a) culturing a combined culture of a first host cell and a second host cell, wherein the first host cell express the first antibody heavy chain and the first light chain, wherein the second host cell expresses the second antibody heavy chain and the second light chain, and wherein the first host cell and the second host cell are each a mammalian cell; (b) adding reduced glutathione to the combined culture to achieve a final concentration of 5mM to 20mM; and (c) harvesting a combined culture medium from the combined culture without disrupting cell membrane 4 to 24 hours after adding the GSH to the combined culture, wherein harvesting comprises removing the first host cell and the second host cell from the combined culture medium, wherein the combined culture medium comprises the bispecific antibody, and wherein the bispecific antibody is human or humanized.