mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus , comprising a shaft , a bearing sleeve surrounding at least one part of the shaft for rotatably supporting the shaft , a housing , in which at least one part of the bearing sleeve is arranged, and a sealing element , which seals a gap between a wall of the housing and the bearing sleeve and which has a front side and a back side , characterized in that the sealing element divides the gap gas-tight into a first partial space adjacent to the front side of the sealing element and a second partial space adjacent to the back side of the sealing element , the sealing element having a flexible part , which is in contact with the wall of the housing and/or with the bearing sleeve , and the housing having a first barrier gas inlet for introducing barrier gas into the first partial space as well as a second barrier gas inlet for introducing barrier gas into the second partial space .
A multilayer film, comprising: a first film layer and a second film layer sealed to said first film layer, at least one of said first film layer or said second film layer comprising; a first polymer comprising the reaction product of, chlorotrifluoroethene, and vinylidene fluoride utilized in said first polymer in an amount of at least 4 wt. % based on a total weight of all reactants utilized to form said first polymer, and a second polymer comprising the reaction product of, chlorotrifluoroethene, and optionally, vinylidene fluoride utilized in said second polymer in an amount of less than 4 wt. % based on a total weight of all reactants utilized to form said second polymer. a first polymer comprising the reaction product of, chlorotrifluoroethene, and vinylidene fluoride utilized in said first polymer in an amount of at least 4 wt. % based on a total weight of all reactants utilized to form said first polymer, and chlorotrifluoroethene, and vinylidene fluoride utilized in said first polymer in an amount of at least 4 wt. % based on a total weight of all reactants utilized to form said first polymer, and a second polymer comprising the reaction product of, chlorotrifluoroethene, and optionally, vinylidene fluoride utilized in said second polymer in an amount of less than 4 wt. % based on a total weight of all reactants utilized to form said second polymer. chlorotrifluoroethene, and optionally, vinylidene fluoride utilized in said second polymer in an amount of less than 4 wt. % based on a total weight of all reactants utilized to form said second polymer.
A single contact, single absorption system for oxidizing sulfur dioxide to produce sulfuric acid comprising: an inlet for a gas supply comprising sulfur dioxide and oxygen; a series of contact catalyst beds comprising one or more vanadium oxide catalyst beds fluidly connected in series to the gas supply inlet and one or more platinum catalyst beds fluidly connected in series to the last vanadium oxide catalyst bed in the series of vanadium oxide catalyst beds, wherein each of the contact catalyst beds comprises an inlet and an outlet; a platinum catalyst bed heat exchanger with one side connected between the outlet of the last vanadium oxide catalyst bed in the series and the inlet of the first platinum catalyst bed in the series; an absorption tower with an inlet fluidly connected to the outlet of the last platinum catalyst bed in the series; and a sulfur trioxide heat exchanger with one side connected between the outlet of the last platinum catalyst bed in the series and the absorption tower inlet. an inlet for a gas supply comprising sulfur dioxide and oxygen; a series of contact catalyst beds comprising one or more vanadium oxide catalyst beds fluidly connected in series to the gas supply inlet and one or more platinum catalyst beds fluidly connected in series to the last vanadium oxide catalyst bed in the series of vanadium oxide catalyst beds, wherein each of the contact catalyst beds comprises an inlet and an outlet; a platinum catalyst bed heat exchanger with one side connected between the outlet of the last vanadium oxide catalyst bed in the series and the inlet of the first platinum catalyst bed in the series; an absorption tower with an inlet fluidly connected to the outlet of the last platinum catalyst bed in the series; and a sulfur trioxide heat exchanger with one side connected between the outlet of the last platinum catalyst bed in the series and the absorption tower inlet.
Narasin for use in the treatment of porcine epidemic diarrhea virus (PEDV) infection in a nursery pig.
A voice control method, characterized by : acquiring and transmitting a voice command to a server by a vehicle terminal (S 10); processing, by the server , the voice command to obtain a corresponding response audio file, determining latency data based on a vehicle scene, and sending the latency data to the vehicle terminal (S20), wherein the latency data comprises data indicating whether the vehicle terminal needs to adjust a default waiting period for the response audio file and an adjustment value; performing, by the vehicle terminal , network prediction to obtain a prediction result (S40), wherein the vehicle terminal performs the network prediction through a service heartbeat mechanism; determining, by the vehicle terminal , a waiting period based on the latency data and the prediction result (S50); performing, by the vehicle terminal , a synthesis operation for the response audio file and playing the synthesized response audio file, when complete data of the response audio file transmitted by the server is not received within the waiting period (S60); and playing, by the vehicle terminal , the response audio file transmitted from the server when the complete data of the response audio file transmitted by the server is received within the waiting period (S70). acquiring and transmitting a voice command to a server by a vehicle terminal (S 10); processing, by the server , the voice command to obtain a corresponding response audio file, determining latency data based on a vehicle scene, and sending the latency data to the vehicle terminal (S20), wherein the latency data comprises data indicating whether the vehicle terminal needs to adjust a default waiting period for the response audio file and an adjustment value; performing, by the vehicle terminal , network prediction to obtain a prediction result (S40), wherein the vehicle terminal performs the network prediction through a service heartbeat mechanism; determining, by the vehicle terminal , a waiting period based on the latency data and the prediction result (S50); performing, by the vehicle terminal , a synthesis operation for the response audio file and playing the synthesized response audio file, when complete data of the response audio file transmitted by the server is not received within the waiting period (S60); and playing, by the vehicle terminal , the response audio file transmitted from the server when the complete data of the response audio file transmitted by the server is received within the waiting period (S70).
Locking mechanism for a lid of a rotor of a centrifuge, wherein the locking mechanism secures the lid on a rotor body in an axial direction (A), wherein the locking mechanism has at least one locking member slidable in a radial direction (R) within a locking section of the lid , characterized in that the at least one locking member has a radially outward protruding locking portion in respect to the rotor body , wherein the locking portion is engageably connectable to a recess in the rotor body .
A curable epoxy resin composition comprising at least one epoxy resin, at least one inorganic filler and at least one dispersant, whereby the dispersant comprises: a) at least one first polymer, which is a comb polymer having a polymer backbone comprising acid groups and side chains which are linked to the polymer backbone, and b) at least one second polymer, which is a condensate of, at least, an aromatic compound and formaldehyde; or a lignosulfonate. a) at least one first polymer, which is a comb polymer having a polymer backbone comprising acid groups and side chains which are linked to the polymer backbone, and b) at least one second polymer, which is a condensate of, at least, an aromatic compound and formaldehyde; or a lignosulfonate.
A method for making an apparatus suitable for detecting X-rays, the method comprising: bonding a plurality of chips to a first substrate , wherein the first substrate comprises a plurality of electric contacts and a plurality of vias connecting the electric contacts to a surface of the first substrate, wherein each of the chips comprises an X-ray absorption layer comprising a first electrode and a second electrode , and wherein the plurality of chips are bonded to the first substrate such that the second electrode of each of the chips is electrically connected to at least one of the electrical contacts; filling gaps between the chips with an electrically insulating material , wherein the first electrode of each of the chips remains exposed; electrically connecting the first electrodes of each of the chips with an electrically conductive layer ; bonding the first substrate to a second substrate such that the vias are electrically connected to contacts pads of the second substrate. bonding a plurality of chips to a first substrate , wherein the first substrate comprises a plurality of electric contacts and a plurality of vias connecting the electric contacts to a surface of the first substrate, wherein each of the chips comprises an X-ray absorption layer comprising a first electrode and a second electrode , and wherein the plurality of chips are bonded to the first substrate such that the second electrode of each of the chips is electrically connected to at least one of the electrical contacts; filling gaps between the chips with an electrically insulating material , wherein the first electrode of each of the chips remains exposed; electrically connecting the first electrodes of each of the chips with an electrically conductive layer ; bonding the first substrate to a second substrate such that the vias are electrically connected to contacts pads of the second substrate.
Device for preparing food for animals, comprising: - a casing, - means for storing a dehydrated food, - means for storing a liquid such as water, - a mixing chamber arranged to receive a dehydrated food portion and a liquid portion, - mobile mixing means arranged in the mixing chamber to mix the dehydrated food portion and the liquid portion to form a food ration in the form of paste, - a consumption container arranged to receive the food ration, wherein the mixing chamber is removable with respect to the preparation device , characterised in that the mixing chamber , once mounted on the preparation device : - rotates with respect to the preparation device to go from a position for mixing the food ration to a position for distributing the food ration, and - has a gripping portion which is arranged outside of the preparation device , protruding with respect to the casing. - a casing, - means for storing a dehydrated food, - means for storing a liquid such as water, - a mixing chamber arranged to receive a dehydrated food portion and a liquid portion, - mobile mixing means arranged in the mixing chamber to mix the dehydrated food portion and the liquid portion to form a food ration in the form of paste, - a consumption container arranged to receive the food ration, - rotates with respect to the preparation device to go from a position for mixing the food ration to a position for distributing the food ration, and - has a gripping portion which is arranged outside of the preparation device , protruding with respect to the casing.
A method performed by a transmitting node for handling transmissions to a receiving node in a first service and in a second service over a radio channel where feedback signaling is employed to indicate either an acknowledgement, ACK, or a non-acknowledgement, NACK, of correct reception of the transmissions, the method comprising: - adjusting a first Outer Loop Compensation, OLC, for the first service, based on feedback signaling from the receiving node for the transmissions in the first service, by increasing the first OLC with a first adding value ΔOLC+1 when an ACK is received and reducing the first OLC with a first reducing value ΔOLC-1 when a NACK is received, - performing a first link adaptation (LA1) of the radio channel for transmissions in the first service based on an actual Signal-to-Noise Ratio, SNR, of signals in the first service and the adjusted first OLC, - performing transmissions in the first service over the radio channel using the first link adaptation, - repeating a subset of the transmissions in the first service, - adjusting a second OLC for the second service before the second service becomes active, based on feedback signaling from the receiving node for said repeated subset of transmissions, by increasing the second OLC with a second adding value ΔOLC+2 when an ACK is received and reducing the second OLC with a second reducing value ΔOLC-2 when a NACK is received, - performing a second link adaptation (LA2) of the radio channel for transmissions in the second service based on said actual SNR and the adjusted second OLC, and - performing transmissions in the second service over the radio channel using the second link adaptation, once the second service becomes active. - adjusting a first Outer Loop Compensation, OLC, for the first service, based on feedback signaling from the receiving node for the transmissions in the first service, by increasing the first OLC with a first adding value ΔOLC+1 when an ACK is received and reducing the first OLC with a first reducing value ΔOLC-1 when a NACK is received, - performing a first link adaptation (LA1) of the radio channel for transmissions in the first service based on an actual Signal-to-Noise Ratio, SNR, of signals in the first service and the adjusted first OLC, - performing transmissions in the first service over the radio channel using the first link adaptation, - repeating a subset of the transmissions in the first service, - adjusting a second OLC for the second service before the second service becomes active, based on feedback signaling from the receiving node for said repeated subset of transmissions, by increasing the second OLC with a second adding value ΔOLC+2 when an ACK is received and reducing the second OLC with a second reducing value ΔOLC-2 when a NACK is received, - performing a second link adaptation (LA2) of the radio channel for transmissions in the second service based on said actual SNR and the adjusted second OLC, and - performing transmissions in the second service over the radio channel using the second link adaptation, once the second service becomes active.
Apparatus designed to determine and/or monitor at least one process variable of a medium in a vessel , with a unit capable of vibrating designed to be introduced into the vessel , with a housing , wherein the unit capable of vibrating is connected to the housing in such a way that the unit capable of vibrating seals the housing at an end and wherein at least a cavity is implemented in the unit capable of vibrating , said cavity being accessible from an interior area formed by the housing , with a drive/reception unit designed to excite the unit capable of vibrating to produce mechanical vibrations and designed to receive the mechanical vibrations and convert them into an electrical reception signal, and with a control/evaluation unit designed to regulate or control the excitation of vibrations and designed to evaluate the reception signal in relation to the process variable, wherein in the case of a tuning fork, the unit capable of vibrating has a first element in the form of a rod or paddle and a second element in the form of a rod or paddle , which are interconnected via a base , wherein a first cavity is implemented in a root zone, close to the base, of the first element , and a second cavity is implemented in a root zone, close to the base, of the second element , for the purpose of accommodating the drive/reception unit , wherein the drive/reception unit has two piezoelectric units , wherein the two piezoelectric units of the drive/reception unit are introduced into the first and second cavity in such a way that the two cavities are filled with a potting material in such a way that the drive/reception unit is connected via the potting material with a wall of the first and of the second cavity in a friction-locking manner, or wherein in the case of a single rod, the unit capable of vibrating is designed as a rod-shaped hollow body with an inner mass formed in an interior of the hollow body on a wall of the hollow body , wherein the drive/reception unit has a piezoelectric unit, wherein the drive/reception unit is introduced into a third cavity implemented in the inner mass , wherein the drive/reception unit is introduced in the third cavity in such a way and the third cavity is filled with a potting material in such a way that the drive/reception unit is connected via the potting material with a wall of the third cavity in a friction-locking manner.
Assembly for a turbomachine, comprising: - a combustion chamber comprising at its downstream end a radially extending downstream flange , a distributor disposed downstream of the combustion chamber and comprising a platform from which at least one vane extends radially, the platform comprising an upstream edge extending radially and delimiting, with the downstream flange disposed opposite, a gap opening into the combustion chamber at its radially inner end and closed at its radially outer end by sealing means fixed to the distributor , the downstream flange of the combustion chamber comprising at least one rectilinear cooling orifice passing through said flange and opening into the gap opposite the platform of the distributor , the radial portion of the downstream flange of the combustion chamber having at least two cooling orifices passing through the downstream flange and opening into the gap , characterised in that two of said orifices extendin two directions forming an angle with each other. - a combustion chamber comprising at its downstream end a radially extending downstream flange ,
A method for controlling a rotary wing aircraft provided with an engine installation comprising a plurality of engines moving said rotary wing , said aircraft comprising a human-machine interface controlling a command chain opening onto a control member suitable for acting on a longitudinal acceleration of the aircraft , said aircraft comprising a control computer , the aircraft being able to operate in an economical operating mode during which at least one of said plurality of engines does not provide mechanical power to said rotary wing and at least one of said plurality of engines provides mechanical power to said rotary wing, characterized in that during the economical operating mode, the method comprises the following steps: - measuring a forward speed (V) of the aircraft , - adjusting an authority of said human-machine interface on said longitudinal acceleration with the control computer as a function of the forward speed (V). - measuring a forward speed (V) of the aircraft , - adjusting an authority of said human-machine interface on said longitudinal acceleration with the control computer as a function of the forward speed (V).
An apparatus for displaying a time dependence of a numerical value at a driver's position in a vehicle, in particular a motor vehicle or a commercial vehicle, comprising: a display configured to display a scale of the numerical value ; and a controller , which is connected or connectable to the display so as to exchange signals for controlling the display and is configured to capture the numerical value and the time dependence of the numerical value and to display the numerical value and, for values greater than and/or smaller than the numerical value , the time dependence of the numerical value on the scale of the display , wherein the controller is configured to display the time dependence by means of a pattern for values greater than and/or smaller than the numerical value , wherein the pattern has a transverse dimension transversely to the scale , characterized in that the controller is configured to increase the transverse dimension at a predetermined rate up to a maximum dimension for the values that are smaller than the numerical value and/or to reduce the transverse dimension at a predetermined rate up to a minimum dimension for values that are greater than the numerical value . a display configured to display a scale of the numerical value ; and a controller , which is connected or connectable to the display so as to exchange signals for controlling the display and is configured to capture the numerical value and the time dependence of the numerical value and to display the numerical value and, for values greater than and/or smaller than the numerical value , the time dependence of the numerical value on the scale of the display , wherein the controller is configured to display the time dependence by means of a pattern for values greater than and/or smaller than the numerical value , wherein the pattern has a transverse dimension transversely to the scale , characterized in that the controller is configured to increase the transverse dimension at a predetermined rate up to a maximum dimension for the values that are smaller than the numerical value and/or to reduce the transverse dimension at a predetermined rate up to a minimum dimension for values that are greater than the numerical value .
A wireless communication method for estimating a communication channel from a received signal, implemented by a wireless communication receiver , comprising: receiving , over the communication channel, a wireless signal comprising a data signal portion and a pilot signal portion wherein the pilot signal portion includes multiple pilot signals multiplexed together in an orthogonal time frequency space, OTFS, domain, and wherein the multiple pilot signals are delta functions placed at discrete points in a delay-Doppler domain; transforming , using a two-dimensional symplectic Fourier transform, the received wireless signal into a delay-Doppler domain signal; applying a delay-Doppler domain mask to separate out each of the multiple pilot signals' contribution to the delay-Doppler domain signal into corresponding separate received pilot signal contributions; estimating , using the separate received pilot signal contributions, the communication channel estimates at delay-Doppler domain positions of the multiple pilot signals; and interpolating the communication channel estimates to obtain an entire communication channel estimate of the communication channel. receiving , over the communication channel, a wireless signal comprising a data signal portion and a pilot signal portion wherein the pilot signal portion includes multiple pilot signals multiplexed together in an orthogonal time frequency space, OTFS, domain, and wherein the multiple pilot signals are delta functions placed at discrete points in a delay-Doppler domain; transforming , using a two-dimensional symplectic Fourier transform, the received wireless signal into a delay-Doppler domain signal; applying a delay-Doppler domain mask to separate out each of the multiple pilot signals' contribution to the delay-Doppler domain signal into corresponding separate received pilot signal contributions; estimating , using the separate received pilot signal contributions, the communication channel estimates at delay-Doppler domain positions of the multiple pilot signals; and interpolating the communication channel estimates to obtain an entire communication channel estimate of the communication channel.