mhurhangee/patent-ind-claim-en huggingface dataset:
A field notification method, wherein the method comprises: determining, by a base station, a first field, wherein the first field comprises T 1 bits, at least one of the T 1 bits indicates at least two elements { b i0 , b i1 , ..., b ik } in a set B, the at least one bit further indicates at least one element {θ j0 , θ j1 , ..., θ jh } in a set Φ, at least one element in { b i0 , b i1 , ..., b ik } and at least one element in {θ j0 , θ j1 , ..., θ jh } are used to form a precoding matrix, and the precoding matrix is a precoding matrix associated with the at least one bit, wherein the set B = { b 0 , b 1 , ..., b T 2 -1 }, an element in the set B is a vector with a length of N/4, the set Φ = { θ 0 , θ 1 ,..., θ S-1 }, an element in Φ is a complex number of a unit amplitude, column l of the precoding matrix W satisfies W l = b k l − 1 l θ p l b k l φ l b k l − 1 l φ l θ p l b k l , a quantity of rows of W is N, a quantity of columns of W is R, N is greater than or equal to R, b k l is an element in the set { b i0 , b i1 , ..., b ik} , θ p l is an element in {θ j0 , θ j1 , ..., θ jh }, φ l is a complex number of a unit amplitude, T 1 , T 2 , and S are all positive integers, T 1 <S*T 2 , and l is an integer greater than or equal to 0 and less than or equal to R-1; and sending, by the base station, the first field. determining, by a base station, a first field, wherein the first field comprises T 1 bits, at least one of the T 1 bits indicates at least two elements { b i0 , b i1 , ..., b ik } in a set B, the at least one bit further indicates at least one element {θ j0 , θ j1 , ..., θ jh } in a set Φ, at least one element in { b i0 , b i1 , ..., b ik } and at least one element in {θ j0 , θ j1 , ..., θ jh } are used to form a precoding matrix, and the precoding matrix is a precoding matrix associated with the at least one bit, wherein the set B = { b 0 , b 1 , ..., b T 2 -1 }, an element in the set B is a vector with a length of N/4, the set Φ = { θ 0 , θ 1 ,..., θ S-1 }, an element in Φ is a complex number of a unit amplitude, column l of the precoding matrix W satisfies W l = b k l − 1 l θ p l b k l φ l b k l − 1 l φ l θ p l b k l , a quantity of rows of W is N, a quantity of columns of W is R, N is greater than or equal to R, b k l is an element in the set { b i0 , b i1 , ..., b ik} , θ p l is an element in {θ j0 , θ j1 , ..., θ jh }, φ l is a complex number of a unit amplitude, T 1 , T 2 , and S are all positive integers, T 1 <S*T 2 , and l is an integer greater than or equal to 0 and less than or equal to R-1; and sending, by the base station, the first field.
Amide-based elastomer expanded particles comprising, as a base resin, a non-crosslinked amide-based elastomer having a Shore D hardness of 65 or less and both of a storage modulus at a temperature of crystallization temperature - 10°C and a storage modulus at a temperature of crystallization temperature - 15°C in a range of 4 × 10 6 to 4 × 10 7 Pa, and having an average cell diameter of 20 to 250 μm and an average particle diameter of 1.5 to 15 mm, wherein the Shore D hardness is measured according to JIS K6253-3:2012 and the storage modulus is measured by dynamic viscoelasticity measurement in accordance with section <Storage Modulus> of the description.
An image processing device , comprising: a processor module ; a memory module ; a display , and an input interface, wherein the input interface is configured to receive image data and to transmit the image data to the processor module, the image data including: static volume data initial dynamic volume data, and subsequent dynamic volume data, wherein the processor module is configured to: segment the static volume data to generate a static segmentation; segment the initial dynamic volume data to generate a plurality of dynamic segmentations; compare the static segmentation to each one of the plurality of dynamic segmentations; determine, using the comparisons, a single dynamic segmentation that most closely corresponds to the static segmentation; store the corresponding single dynamic segmentation in the memory as a reference segmentation, automatically segment the acquired subsequent dynamic volume data to generate a subsequent dynamic segmentation; determine a difference between the reference segmentation and the subsequent dynamic segmentation; update at least one annotation associated with the static segmentation using the determined difference; and transmit the subsequent dynamic volume data and the updated at least one annotation to the display for displaying together on the display. a processor module ; a memory module ; a display , and an input interface, wherein the input interface is configured to receive image data and to transmit the image data to the processor module, the image data including: static volume data initial dynamic volume data, and subsequent dynamic volume data, static volume data initial dynamic volume data, and subsequent dynamic volume data, segment the static volume data to generate a static segmentation; segment the initial dynamic volume data to generate a plurality of dynamic segmentations; compare the static segmentation to each one of the plurality of dynamic segmentations; determine, using the comparisons, a single dynamic segmentation that most closely corresponds to the static segmentation; store the corresponding single dynamic segmentation in the memory as a reference segmentation, automatically segment the acquired subsequent dynamic volume data to generate a subsequent dynamic segmentation; determine a difference between the reference segmentation and the subsequent dynamic segmentation; update at least one annotation associated with the static segmentation using the determined difference; and transmit the subsequent dynamic volume data and the updated at least one annotation to the display for displaying together on the display.
A terminal comprising: a receiving section configured to receive information regarding an allocation type of an uplink shared channel; and a control section configured to control a start symbol and a number of consecutive symbols of the uplink shared channel, wherein, when the receiving section receives a first allocation type as the information regarding the allocation type of the uplink shared channel, the control section determines an index of the start symbol of the uplink shared channel as 0, and determines the number of consecutive symbols of the uplink shared channel based on higher layer signaling and downlink control information, when the receiving section receives a second allocation type as the information regarding the allocation type of the uplink shared channel, the control section determines the start symbol of the uplink shared channel to be changed to any symbol in a slot allocated to the uplink shared channel, and determines the start symbol and the number of consecutive symbols of the uplink shared channel based on higher layer signaling and downlink control information, when the receiving section receives the first allocation type as the information regarding the allocation type of the uplink shared channel, the control section controls not to support transmission of the uplink shared channel using one symbol, and when the receiving section receives the second allocation type as the information regarding the allocation type of the uplink shared channel, the control section controls to support transmission of the uplink shared channel using one symbol. a receiving section configured to receive information regarding an allocation type of an uplink shared channel; and a control section configured to control a start symbol and a number of consecutive symbols of the uplink shared channel, wherein, when the receiving section receives a first allocation type as the information regarding the allocation type of the uplink shared channel, the control section determines an index of the start symbol of the uplink shared channel as 0, and determines the number of consecutive symbols of the uplink shared channel based on higher layer signaling and downlink control information, when the receiving section receives a second allocation type as the information regarding the allocation type of the uplink shared channel, the control section determines the start symbol of the uplink shared channel to be changed to any symbol in a slot allocated to the uplink shared channel, and determines the start symbol and the number of consecutive symbols of the uplink shared channel based on higher layer signaling and downlink control information, when the receiving section receives the first allocation type as the information regarding the allocation type of the uplink shared channel, the control section controls not to support transmission of the uplink shared channel using one symbol, and when the receiving section receives the second allocation type as the information regarding the allocation type of the uplink shared channel, the control section controls to support transmission of the uplink shared channel using one symbol.
A meter electronics for determining a decay characteristic of a meter assembly of a flow meter , the meter electronics comprising an interface for receiving a vibrational response from a meter assembly , the vibrational response comprising a response to an excitation of the meter assembly at a substantially resonant frequency, and a processing system in communication with the interface , the processing system being configured to: receive the vibrational response from the interface ; determine a response voltage (V) of the vibrational response; determine a decay characteristic (ζ) of the meter assembly based on the response voltage (V); and compensate the decay characteristic (ζ) by using a previously determined decay characteristic-to-response voltage relationship. receive the vibrational response from the interface ; determine a response voltage (V) of the vibrational response; determine a decay characteristic (ζ) of the meter assembly based on the response voltage (V); and compensate the decay characteristic (ζ) by using a previously determined decay characteristic-to-response voltage relationship.
An apparatus comprising a surface heater , the surface heater comprising: a heating substrate comprising an electrically insulating surface wherein the electrically insulating surface comprises a glass material; a heating element attached to the electrically insulating surface, the heating element comprising lanthanide oxide and a metal material; and a power supply unit to supply electricity to the heating element , wherein the heating element is attached to the electrically insulating surface by sintering a predetermined powder comprising a lanthanide oxide powder and a metal powder, characterised in that the heating element comprises 30 to 60% by weight of the lanthanide oxide and 40 to 70% by weight of the metal material, wherein the lanthanide oxide is a Lanthanum Cobalt oxide. a heating substrate comprising an electrically insulating surface wherein the electrically insulating surface comprises a glass material; a heating element attached to the electrically insulating surface, the heating element comprising lanthanide oxide and a metal material; and a power supply unit to supply electricity to the heating element , wherein the heating element is attached to the electrically insulating surface by sintering a predetermined powder comprising a lanthanide oxide powder and a metal powder, characterised in that the heating element comprises 30 to 60% by weight of the lanthanide oxide and 40 to 70% by weight of the metal material, wherein the lanthanide oxide is a Lanthanum Cobalt oxide.
A saddle-type vehicle comprising: a head pipe pivotally supporting a steering system ; a down frame extending backward and downward from the head pipe ; a leg shield covering the down frame and also covering legs of a rider from front; a front wheel mounted at a lower end of the steering system ; a hydraulic brake device for applying braking force to the front wheel ; and an ABS modulator for adjusting the braking force of the brake device ; and the ABS modulator is mounted on the down frame within the leg shield; characterised in that the saddle-type vehicle comprises: a battery mounted in front of the head pipe ; a fuse placed on the left side of the battery ; and a main harness connected with the fuse ; in that the ABS modulator is offset to the left side of the down frame in a right-left direction; and in that the main harness is laid so as to run in front of the battery toward the right side of the down frame in the right-left direction. a head pipe pivotally supporting a steering system ; a down frame extending backward and downward from the head pipe ; a leg shield covering the down frame and also covering legs of a rider from front; a front wheel mounted at a lower end of the steering system ; a hydraulic brake device for applying braking force to the front wheel ; and an ABS modulator for adjusting the braking force of the brake device ; and the ABS modulator is mounted on the down frame within the leg shield; characterised in that the saddle-type vehicle comprises: a battery mounted in front of the head pipe ; a fuse placed on the left side of the battery ; and a main harness connected with the fuse ; in that the ABS modulator is offset to the left side of the down frame in a right-left direction; and in that the main harness is laid so as to run in front of the battery toward the right side of the down frame in the right-left direction. a battery mounted in front of the head pipe ; a fuse placed on the left side of the battery ; and a main harness connected with the fuse ; in that the ABS modulator is offset to the left side of the down frame in a right-left direction; and in that the main harness is laid so as to run in front of the battery toward the right side of the down frame in the right-left direction.
A fuel actuation system comprising: a servo valve (SV) including a torque motor and at least one screen ; a metering valve (MV) (220; 600) fluidly connected to the SV ; and an electronic engine control (EEC) operatively connected to the SV , the EEC being configured and disposed to: determine a travel distance of the MV (220; 600) and at least one of a pressure of a fuel and a temperature of the fuel; and store the travel distance of the MV (220; 600) and the at least one of the pressure of the fuel and the temperature of the fuel to a memory to generate a travel distance history and at least one of a fuel temperature history and a fuel pressure history, characterised in that the EEC is further configured and disposed to: determine a level of degradation of the fuel actuation system based on the travel distance history and the at least one of the fuel temperature history and the fuel pressure history. a servo valve (SV) including a torque motor and at least one screen ; a metering valve (MV) (220; 600) fluidly connected to the SV ; and an electronic engine control (EEC) operatively connected to the SV , the EEC being configured and disposed to: determine a travel distance of the MV (220; 600) and at least one of a pressure of a fuel and a temperature of the fuel; and store the travel distance of the MV (220; 600) and the at least one of the pressure of the fuel and the temperature of the fuel to a memory to generate a travel distance history and at least one of a fuel temperature history and a fuel pressure history, characterised in that the EEC is further configured and disposed to: determine a level of degradation of the fuel actuation system based on the travel distance history and the at least one of the fuel temperature history and the fuel pressure history. determine a travel distance of the MV (220; 600) and at least one of a pressure of a fuel and a temperature of the fuel; and store the travel distance of the MV (220; 600) and the at least one of the pressure of the fuel and the temperature of the fuel to a memory to generate a travel distance history and at least one of a fuel temperature history and a fuel pressure history, characterised in that the EEC is further configured and disposed to: determine a level of degradation of the fuel actuation system based on the travel distance history and the at least one of the fuel temperature history and the fuel pressure history.
Device for holding an assembly to be fractured , the assembly being intended to separate along a fracture plane defined between an upper part and a lower part of the assembly to be fractured , the holding device comprising: - at least two lugs designed to hold the assembly to be fractured in suspension in a substantially horizontal holding position, the lugs being intended to be located between the upper part and the lower part and against a peripheral chamfer of the upper part ; - a support , located below and at a distance from the lugs so as to receive the lower part by gravity when the assembly to be fractured is separated, and to hold said lower part at a distance from the upper part held by the lugs , the distance between the support and the lugs being between 1.5 and 10 mm, preferably between 2 and 5 mm. - at least two lugs designed to hold the assembly to be fractured in suspension in a substantially horizontal holding position, the lugs being intended to be located between the upper part and the lower part and against a peripheral chamfer of the upper part ; - a support , located below and at a distance from the lugs so as to receive the lower part by gravity when the assembly to be fractured is separated, and to hold said lower part at a distance from the upper part held by the lugs , the distance between the support and the lugs being between 1.5 and 10 mm, preferably between 2 and 5 mm.
Lubricant composition comprising a base oil and a diaminoalkane monosalt having the general structure (I) where R (carboxylic acid, amine) is an unsaturated hydrocarbon group having 16-24 carbon atoms, and R' is a hydrogen, a hydrocarbon group having 1 to 4 carbon atoms or a benzyl group, and/or a triaminoalkane monosalt or disalt having the general structure (II) where R (carboxylic acid, amine) is a hydrocarbon group having 12-24 carbon atoms, which can be saturated or unsaturated, linear or branched, and R' is a hydrogen, a hydrocarbon group having 1 to 4 carbon atoms or a benzyl group, and an ethoxylated amine having the general structure (III) where R" is a hydrocarbon group having 8-22 carbon atoms, which can be saturated or unsaturated, linear or branched, and a and b are 2 to 50, wherein the compound having the general structure (I) and/or (II) comprises 0.1 to 0.5% by weight, and the compound having the general structure (III) comprises 0.1 to 0.5% by weight, of the lubricant composition. where R (carboxylic acid, amine) is an unsaturated hydrocarbon group having 16-24 carbon atoms, and R' is a hydrogen, a hydrocarbon group having 1 to 4 carbon atoms or a benzyl group, where R (carboxylic acid, amine) is a hydrocarbon group having 12-24 carbon atoms, which can be saturated or unsaturated, linear or branched, and R' is a hydrogen, a hydrocarbon group having 1 to 4 carbon atoms or a benzyl group, where R" is a hydrocarbon group having 8-22 carbon atoms, which can be saturated or unsaturated, linear or branched, and a and b are 2 to 50,
Drive device comprising a superposition transmission , a main drive machine which is connected to an input shaft of the superposition transmission, one or more auxiliary drives (3.1, 3.2) and an output shaft of the superposition transmission, which output shaft can be connected to a work machine , wherein the superposition transmission has a planetary transmission with an internal gear , a sun gear , a planet carrier and multiple planet gears , wherein the input shaft is connected to the internal gear , the output shaft is connected to the sun gear , and the one or more auxiliary drives (3.1, 3.2) are connected by means of a first transmission stage (6.1, 6.1a, 6.1b, 6.2, 6.2a, 6.2b) with constant transmission ratio (i_SG1) to the planet carrier , characterized in that an auxiliary drive connection with constant transmission ratio (i_SG1, i_SG2, i_SG3) is provided between the auxiliary drive (3.1, 3.2) at one side and the internal gear or a pinion (4.1) on the input shaft on the other side, wherein, in this auxiliary drive connection, there is provided a switchable clutch (11.1, 11.2) which can activate or interrupt the auxiliary drive connection, in such a way that, in the event of interruption by means of the clutch (11.1, 11.2), the connection between auxiliary drive (3.1, 3.2) and planet carrier remains activated via the first transmission stage (6.1, 6.1a, 6.1b, 6.2, 6.2a, 6.2b), and in that the one or more auxiliary drives (3.1, 3.2) have in each case one external cooler which is designed as an external fan with separate fan motor, or in that the one or more auxiliary drives (3.1, 3.2) have in each case one external cooler which is designed as a water-type cooler.
- A transport system for transporting containers in a longitudinal direction of packaging machines which comprises: - a fixed assembly , and - a plurality of mobile assemblies , which move along said fixed assembly , where each mobile assembly comprises a rotating sub-assembly (2.2), configured to transport the containers onto itself, and a telescopic sub-assembly (2.1), in charge of moving up or down its corresponding rotating sub-assembly (2.2) which rotates on its corresponding telescopic sub-assembly, characterized in that the fixed assembly comprises: - a base (1.2) - and a plurality of horizontal guiding fixed sub-assemblies (1.1) oriented in the longitudinal direction of the transport system, and in that the telescopic sub-assembly (2.1) of each mobile assembly moves forwards and backwards on the related horizontal guiding fixed sub-assembly (1.1). - a fixed assembly , and - a plurality of mobile assemblies , which move along said fixed assembly , where each mobile assembly comprises a rotating sub-assembly (2.2), configured to transport the containers onto itself, and a telescopic sub-assembly (2.1), in charge of moving up or down its corresponding rotating sub-assembly (2.2) which rotates on its corresponding telescopic sub-assembly, characterized in that the fixed assembly comprises: - a base (1.2) - and a plurality of horizontal guiding fixed sub-assemblies (1.1) oriented in the longitudinal direction of the transport system, and in that the telescopic sub-assembly (2.1) of each mobile assembly moves forwards and backwards on the related horizontal guiding fixed sub-assembly (1.1). - a base (1.2) - and a plurality of horizontal guiding fixed sub-assemblies (1.1) oriented in the longitudinal direction of the transport system, and in that the telescopic sub-assembly (2.1) of each mobile assembly moves forwards and backwards on the related horizontal guiding fixed sub-assembly (1.1).