mhurhangee/ep-ind-claims huggingface dataset:
Capsule, comprising: - a casing provided with a base wall and with a side wall defining a cavity suitable for containing an initial product to be joined to a fluid for making a final product, wherein said casing comprises an edge; - a covering element fixed to said edge for hermetically closing said cavity; - a nozzle (7; 70) comprising a longitudinal side wall (10; 80) and a first end (8; 78) fixed to said covering element provided with a first opening (13; 73) suitable to engage fluid injecting means of a brewing machine, said longitudinal side wall (10; 80) being provided with at least one outflow opening (11; 71) connected to said first opening (13; 73) through a first duct (14; 74) for dispensing said fluid in said cavity in a injecting step; characterized in that said capsule further comprises a mixing element (20; 120; 220; 320; 420) rotatably coupled with said nozzle (7; 70) at said outflow opening (11; 71) and shaped in such a manner as to divert at least one jet of fluid coming from said outflow opening (11; 71) and be rotated by said jet around said nozzle (7; 70) so as to create inside said cavity a vortex flow of fluid and product; wherein said mixing element comprises a central portion (21; 121; 221, 321, 421), which is rotatably coupled with said nozzle (7; 70), and at least one elongated shaped blade (22; 122; 222, 322, 422) fixed to said central portion (21; 121; 221, 321, 421) and extending from said central portion substantially radially outwardly. - a casing provided with a base wall and with a side wall defining a cavity suitable for containing an initial product to be joined to a fluid for making a final product, wherein said casing comprises an edge; - a covering element fixed to said edge for hermetically closing said cavity; - a nozzle (7; 70) comprising a longitudinal side wall (10; 80) and a first end (8; 78) fixed to said covering element provided with a first opening (13; 73) suitable to engage fluid injecting means of a brewing machine, said longitudinal side wall (10; 80) being provided with at least one outflow opening (11; 71) connected to said first opening (13; 73) through a first duct (14; 74) for dispensing said fluid in said cavity in a injecting step; a mixing element (20; 120; 220; 320; 420) rotatably coupled with said nozzle (7; 70) at said outflow opening (11; 71) and shaped in such a manner as to divert at least one jet of fluid coming from said outflow opening (11; 71) and be rotated by said jet around said nozzle (7; 70) so as to create inside said cavity a vortex flow of fluid and product; wherein said mixing element comprises a central portion (21; 121; 221, 321, 421), which is rotatably coupled with said nozzle (7; 70), and at least one elongated shaped blade (22; 122; 222, 322, 422) fixed to said central portion (21; 121; 221, 321, 421) and extending from said central portion substantially radially outwardly.
A collector for bipolar lithium ion secondary batteries, the collector comprising an electroconductive polyimide layer including a conductivity-imparting agent dispersed in a polyimide resin, the polyimide resin being prepared by imidizing a polyamic acid, the polyamic acid being obtained by reacting a tetracarboxylic dianhydride component containing at least one compound selected from the group consisting of biphenyltetracarboxylic dianhydrides, 3,3 ',4,4'-benzophenonetetracarboxylic dianhydride, pyromellitic dianhydride, and [isopropylidenebis(p-phenyleneoxy)]diphthalic dianhydrides with a diamine component containing at least one compound selected from the group consisting of oxydianilines, phenylenediamines, and 2,2-bis[4-(4-aminophenoxy)phenyl]propane, wherein a metal layer having a thickness of 0.01 to 2 μm is formed on at least one side of the electroconductive polyimide layer.
An antimicrobial chemical composition comprising; a complex comprising a bioactive constituent that is a metal ion, wherein the complex releases the bioactive constituent at a rate upon contact of the complex with moisture; and a binder polymer forming a bulk matrix of the composition, wherein the complex is disposed within bulk matrix, and wherein the bulk matrix enables the bioactive constituent that is released from the complex to diffuse therethrough at a rate; wherein the rate of release of the bioactive constituent from the complex is the same or different from the rate of diffusion of the bioactive constituent through the bulk matrix, wherein the complex comprises amorphous aluminum phosphate, wherein the complex has a porosity, and wherein the rate of release of the bioactive constituent is a function of the porosity.
A secondary battery pack comprising: - at least one battery module casing 102 in which is disposed a plurality of battery cells 103 which are electrically connected to one another, - a silicone rubber syntactic foam comprising a silicone rubber binder and hollow glass beads, and said silicone rubber syntactic foam fills partially or fully the open space of said battery module casing 102 and/or covering partially or totally said battery cells 103 and/or covering partially or totally said module casing 102, and - optionally a lid covering the battery module casing 102. - at least one battery module casing 102 in which is disposed a plurality of battery cells 103 which are electrically connected to one another, - a silicone rubber syntactic foam comprising a silicone rubber binder and hollow glass beads, and said silicone rubber syntactic foam fills partially or fully the open space of said battery module casing 102 and/or covering partially or totally said battery cells 103 and/or covering partially or totally said module casing 102, and - optionally a lid covering the battery module casing 102.
Method of filtering and correcting the richness signal (Mes sond sam) measured by a probe during at least one engine operating condition creating oscillations of the measured richness signal (Mes sond sam) and a modification of a model of the probe, the probe being called the upstream probe by being placed in an exhaust line at the outlet of a thermal engine, a regulation of the richness of the air / fuel mixture in the engine being carried out according to a richness setpoint (Consrich sond) at the upstream probe corrected by the probe model from a predetermined richness setpoint at the engine (Consrich mot) and of at least one operating parameter (ttrans, treps) of the probe, and the richness measured (Mes sond sam) by the upstream probe filtered by a first filtering, in which said at least one condition of engine operation creating oscillations of the measured richness (Mes sond sam) is identified during preliminary tests on the engine relating to the adaptation of the predetermined richness setpoint (Consrich sond) to the engine with a memorization of at least a value of at least at least one operating parameter of the engine representative that said at least one condition is effective and, as soon as said at least one value is detected at a given instant of operation of the engine, the first filtering is suspended by being replaced by a second filtering of the measured richness (Mes sond sam) and a correction of said at least one parameter (ttrans, treps) of the probe is performed as long as said at least one value is detected, characterized in that the first filtering is first order filtering and the second filtering is second order filtering and said at least one parameter (ttrans, treps) of the probe is corrected as a function of a filling rate of at minus one engine cylinder (Remp) and one engine speed.
An intraluminal ultrasound imaging system comprising: a patient interface module communicatively disposed between a processing system and an intraluminal ultrasound device configured to be positioned within a body lumen of a patient, the PIM comprising a transmitter, an analog to digital converter, and a communication device comprising a communication cable, wherein the PIM is configured to: transmit, with the transmitter, a first signal to the intraluminal ultrasound device; receive an ultrasound echo signal associated with the first signal from the intraluminal ultrasound device; digitize the ultrasound echo signal with the ADC; convert the digitized ultrasound echo signal to a second signal communicable via the communication device; and transmit the second signal to the processing system via the communication cable of the communication device, characterised in that the PIM is configured to transmit the ultrasound echo signal along differential signal path of the PIM to the ADC, wherein said differential signal path is configured to cancel common mode noise. a patient interface module communicatively disposed between a processing system and an intraluminal ultrasound device configured to be positioned within a body lumen of a patient, the PIM comprising a transmitter, an analog to digital converter, and a communication device comprising a communication cable, wherein the PIM is configured to: transmit, with the transmitter, a first signal to the intraluminal ultrasound device; receive an ultrasound echo signal associated with the first signal from the intraluminal ultrasound device; digitize the ultrasound echo signal with the ADC; convert the digitized ultrasound echo signal to a second signal communicable via the communication device; and transmit the second signal to the processing system via the communication cable of the communication device, characterised in that the PIM is configured to transmit the ultrasound echo signal along differential signal path of the PIM to the ADC, wherein said differential signal path is configured to cancel common mode noise. transmit, with the transmitter, a first signal to the intraluminal ultrasound device; receive an ultrasound echo signal associated with the first signal from the intraluminal ultrasound device; digitize the ultrasound echo signal with the ADC; convert the digitized ultrasound echo signal to a second signal communicable via the communication device; and transmit the second signal to the processing system via the communication cable of the communication device, characterised in that the PIM is configured to transmit the ultrasound echo signal along differential signal path of the PIM to the ADC, wherein said differential signal path is configured to cancel common mode noise.
A method of manufacturing an ultrasonic probe, the method comprising the sequential steps of: forming a plurality of grooves by removing regions of a first insulating layer (320, 512) and a first silicon wafer (310, 511) from a first substrate including the first silicon wafer (310, 511) and the first insulating layer (320, 512); bonding a second substrate including a second silicon wafer, a second insulating layer (340, 522), and a silicon layer (330, 523) to the first substrate, such that the plurality of grooves turn into a plurality of cavities; removing the second silicon wafer from the second substrate; forming transducer cells on regions of the second insulating layer corresponding to the plurality of cavities; and forming a plurality of unit substrates by cutting the first substrate, the silicon layer, and the second insulating layer. forming a plurality of grooves by removing regions of a first insulating layer (320, 512) and a first silicon wafer (310, 511) from a first substrate including the first silicon wafer (310, 511) and the first insulating layer (320, 512); bonding a second substrate including a second silicon wafer, a second insulating layer (340, 522), and a silicon layer (330, 523) to the first substrate, such that the plurality of grooves turn into a plurality of cavities; removing the second silicon wafer from the second substrate; forming transducer cells on regions of the second insulating layer corresponding to the plurality of cavities; and forming a plurality of unit substrates by cutting the first substrate, the silicon layer, and the second insulating layer.
A touch panel comprising: a receiver (110, 110") configured to receive response signals from a plurality of objects (10-40, 200-n); and a controller (140, 140', 140") configured to identify positions of the plurality of objects (10-40, 200-n) based on different frequencies emitted from each of the plurality of objects (10-40, 200-n) in response to the response signals being simultaneously received through the receiver (110, 110"), wherein the controller (140, 140', 140") is further configured to alternately perform a first scanning operation that determines a position of a contact object (10-40, 200-n) using all the response signals of the plurality of antenna loops (111-n) and a second scanning operation that determines a position of a contact object (10-40, 200-n) only using a response signal of a loop group corresponding to the detected contact object (10-40, 200-n) in the first scanning operation, wherein the receiver (110, 110") is further configured to include a plurality of antenna loops (111-n) and a plurality of electrodes, characterized by a driver (130, 230) configured to apply a driving signal to the plurality of electrodes before the first scanning operation. a receiver (110, 110") configured to receive response signals from a plurality of objects (10-40, 200-n); and a controller (140, 140', 140") configured to identify positions of the plurality of objects (10-40, 200-n) based on different frequencies emitted from each of the plurality of objects (10-40, 200-n) in response to the response signals being simultaneously received through the receiver (110, 110"), wherein the controller (140, 140', 140") is further configured to alternately perform a first scanning operation that determines a position of a contact object (10-40, 200-n) using all the response signals of the plurality of antenna loops (111-n) and a second scanning operation that determines a position of a contact object (10-40, 200-n) only using a response signal of a loop group corresponding to the detected contact object (10-40, 200-n) in the first scanning operation, wherein the receiver (110, 110") is further configured to include a plurality of antenna loops (111-n) and a plurality of electrodes, characterized by a driver (130, 230) configured to apply a driving signal to the plurality of electrodes before the first scanning operation.
A vehicle with an electrical power supply such as a battery or rechargeable battery or an electric generator driven by an internal combustion engine and an electric motor which can be fed by an inverter, wherein a control means, i.e. engine control unit of the vehicle, is connected to the inverter, having a power output stage and signal electronics which drive the power output stage by means of pulse-width modulated control signals, by means of a signal line, wherein current can be supplied to the stator winding of the electric motor from power semiconductors of the power output stage of the inverter, characterised in that the signal line is connected to the signal electronics and to the power output stage and embodied in such a way that the power supply of the stator winding can be interrupted by a disconnect signal transmitted by the control means to the inverter via the signal line, which signal corresponds to safety-related switching-off of the inverter, i.e. an STO signal, wherein the electric motor drives the wheels of the vehicle by means of at least one manual transmission and by means of a differential, wherein the motor shaft is connected non-rotatably to the input shaft of the manual transmission, wherein one of sensors detects the actual speed of rotation of the input shaft of the manual transmission, wherein one of the sensors detects a selected gear of the manual transmission, wherein the control means is connected by means of a signal line to a servomotor of the manual transmission for selecting the gears, with which servomotor the gear of the manual transmission can be set, wherein the control means supplies the STO signal not only to the power output stage but also to the signal electronics and the microcontroller thereof, wherein not only the blocking of the power semiconductors but also a shut-off signal for generating the pulse-width modulated control signals is brought about, so that the motor voltage is redundantly switched off, and wherein the disconnect signal is also used for the electronically effected disconnection of the motor drive power with the exception of the still-present moment of inertia of a motor shaft of the electric motor.
A drive device in the form of a pivot and/or rotary drive for material-transferring devices such as excavators, comprising an engine reversible in its direction of rotation, a transmission that is connected to the engine and is lubricated by a transmission lubricant, and a circulation filter device for filtering the transmission lubricant in circulation, wherein the circulation filter device has a circulation pump integrated into the transmission for circulating the transmission lubricant, characterized in that the circulation pump comprises a pump wheel, which is arranged for conjoint rotation with a transmission element, in the form of a peripheral wheel that has peripherally provided blades and is accommodated in a pump chamber formed by the transmission housing, wherein the blades of the peripheral wheel are configured flat and are set radially and in parallel to the axis of rotation of the peripheral wheel in such a way that the peripheral wheel exhibits at least approximately the same pumping performance in opposing directions of rotation and in that a hydraulic rectifier is connected to the circulation pump and specifies a fixed pressure port and a fixed suction port, regardless of the direction of rotation of the circulation pump, and thus specifies a fixed direction of circulation for the transmission lubricant.
A controller for controlling one or more sources of a utility to provide the utility into a space occupied by one or more users, the controller comprising: motion detection logic configured to process an input from a sensor to detect motions of a user in said space, and to detect that the motions correspond to predetermined gestures performed by the user, the gestures being performed from different respective positions within said space; positioning logic configured to process an input from a sensor to detect the respective position from which each of said gestures was performed by the user, wherein the respective position comprises a location and an orientation of the user when each of said gestures was performed; control policy selection logic configured, based on an association associating each of a plurality of discrete control policies with a respective combination of a predetermined gesture and a positional demarcation within said space, wherein the positional demarcation comprises a demarcation in location and orientation of a user within said space, to select different ones of the control policies in dependence on the detected gestures and the detected positions, each control policy defining a respective response of said utility to the respective associated gesture; and command logic arranged to control the one or more sources to provide the utility in accordance with the respective response of the selected control policy. motion detection logic configured to process an input from a sensor to detect motions of a user in said space, and to detect that the motions correspond to predetermined gestures performed by the user, the gestures being performed from different respective positions within said space; positioning logic configured to process an input from a sensor to detect the respective position from which each of said gestures was performed by the user, wherein the respective position comprises a location and an orientation of the user when each of said gestures was performed; control policy selection logic configured, based on an association associating each of a plurality of discrete control policies with a respective combination of a predetermined gesture and a positional demarcation within said space, wherein the positional demarcation comprises a demarcation in location and orientation of a user within said space, to select different ones of the control policies in dependence on the detected gestures and the detected positions, each control policy defining a respective response of said utility to the respective associated gesture; and command logic arranged to control the one or more sources to provide the utility in accordance with the respective response of the selected control policy.
An implantable lead device, comprising: a support comb comprising: an attachment face; and a routing face comprising a plurality of slots; a microelectrode film comprising a body having a plurality of electrodes and an extension comprising: a first face, the first face of the extension having a plurality of electrical contacts coupled with the plurality of electrodes; and a second face, the second face of the extension coupled with the attachment face of the support comb; and a plurality of wires, each of the plurality of wires passing through a respective one of the plurality of slots and coupled with a respective one of the plurality of electrical contacts. a support comb comprising: an attachment face; and a routing face comprising a plurality of slots; an attachment face; and a routing face comprising a plurality of slots; a microelectrode film comprising a body having a plurality of electrodes and an extension comprising: a first face, the first face of the extension having a plurality of electrical contacts coupled with the plurality of electrodes; and a second face, the second face of the extension coupled with the attachment face of the support comb; and a plurality of wires, each of the plurality of wires passing through a respective one of the plurality of slots and coupled with a respective one of the plurality of electrical contacts. a first face, the first face of the extension having a plurality of electrical contacts coupled with the plurality of electrodes; and a second face, the second face of the extension coupled with the attachment face of the support comb; and a plurality of wires, each of the plurality of wires passing through a respective one of the plurality of slots and coupled with a respective one of the plurality of electrical contacts.
Motor vehicle having an information system, wherein the information system comprises at least one output device, a control device, a memory apparatus, which stores information about vehicle systems, vehicle functions and/or services, and at least one input device for capturing a user selection input for selecting one of the vehicle systems, one of the vehicle functions or one of the services, wherein the control device is designed to react to the selection captured by means of the user selection input by outputting at least one portion of the information about the selected vehicle system, the selected vehicle function and/or the selected service by means of the at least one output device, characterized in that an information mode is provided in which operating or touching a component or an operator control element of the motor vehicle, which are provided for operator control, use, execution and/or provision of one of the vehicle systems, of one of the vehicle functions and/or of one of the services, can be used to perform the user selection input for selecting the relevant one of the vehicle systems, of the vehicle functions or of the services, wherein at least one capture sensor (22, 23) is provided that, when the component or the operator control element is operated or touched, produces a signal representing the user selection input, in addition to a signal that may be produced by the component or the operator control element and is provided for operator control, use, execution and/or provision of one of the vehicle systems, of one of the vehicle functions and/or of one of the services.