mhurhangee/patent-ind-claim-en huggingface dataset:
Construction machine having - a superstructure , - an undercarriage , which comprises a chassis and on which the superstructure is mounted rotatably about a vertical axis , and - a supply arm for at least one energy line , with which energy can be supplied from outside of the construction machine , - wherein the supply arm is mounted adjustably on the superstructure , characterised in that at least one drive device is provided for actively adjusting the supply arm relative to the superstructure . - a superstructure , - an undercarriage , which comprises a chassis and on which the superstructure is mounted rotatably about a vertical axis , and - a supply arm for at least one energy line , with which energy can be supplied from outside of the construction machine , - wherein the supply arm is mounted adjustably on the superstructure ,
A copper oxide ink comprising a copper oxide, a dispersant, and a reducing agent, wherein the content of the reducing agent is in the range of the formula below, and the content of the dispersant is in the range of formula below: 0.00010 ≤ mass of reducing agent / mass of copper oxide ≤ 0.10 0.0050 ≤ mass of dispersant / mass of copper oxide ≤ 0.30
An apparatus comprising: means for transmitting beacon messages, wherein said beacon messages specify a threshold value associated with an acceptable level of interference to a first radio network, and said beacon messages are for controlling the level of interference to the first radio network from one or more nodes of a second, mobile service network, wherein spectral resources including adjacent bands are shared between the first and second radio networks; and means for determining the threshold value based on at least a maximum interference power allowed to the first radio network; and characterized in that the means for determining the threshold value determines the threshold value based also on a determination of the number of interfering nodes from reports from nodes of the second radio network of receiving beacon messages. means for transmitting beacon messages, wherein said beacon messages specify a threshold value associated with an acceptable level of interference to a first radio network, and said beacon messages are for controlling the level of interference to the first radio network from one or more nodes of a second, mobile service network, wherein spectral resources including adjacent bands are shared between the first and second radio networks; and means for determining the threshold value based on at least a maximum interference power allowed to the first radio network; and characterized in that the means for determining the threshold value determines the threshold value based also on a determination of the number of interfering nodes from reports from nodes of the second radio network of receiving beacon messages.
Toilet seat with suction openings (2,2 ') for extracting air from a toilet bowl, comprising a cavity in the seat connected to the suction openings, a suction device and filter means , the seat comprising a fastening area and a front area , wherein in both sides of the longitudinal center line (A) of the seat at least one of the suction openings is designed as an elongated slot , wherein in each of the seat halves, which are defined by the longitudinal center line (A) of the seat , a single elongated slot is provided, or several slots are provided, that are separated by a web or webs, the slots extending essentially from the fastening area to the front area , characterized in that the slots along their longitudinal extension have a different opening width (d) and in particular, have an increasing opening width from the front side slot end to the fastening side slot end (5",6"), wherein the increase in the opening width of the slots essentially corresponds to the increase in the cross-sectional area of cavity accessible by the slot and in that the suction means comprise two fans that are arranged in the seat on both sides of the longitudinal center line (A) of the seat .
A method of forming a cooling channel along a surface of a turbine blade, the method comprising: applying a first mask material to a first portion of a surface of a turbine blade; forming a first barrier layer atop the first mask material and atop a second portion of the surface of the turbine blade; removing the first mask material and the barrier layer atop the first mask material to expose the first portion of the surface of the turbine blade; etching the first portion of the surface of the turbine blade to form a cooling channel along the surface of the turbine blade; filling the cooling channel with a second mask material ; depositing a high-temperature metal layer atop the second mask material and the first barrier layer of the turbine blade; depositing a third mask material atop the high-temperature metal layer , the third mask having a dimension smaller than the cooling channel ; and wherein the third mask material is deposited such that, in at least one dimension, its width is less than that of the cooling channel ; depositing a second barrier layer atop the third mask material and the high-temperature metal layer ; removing the third mask material and the second barrier layer atop the third mask material ; etching the high-temperature metal layer through to the second mask material ; and removing the second mask material . applying a first mask material to a first portion of a surface of a turbine blade; forming a first barrier layer atop the first mask material and atop a second portion of the surface of the turbine blade; removing the first mask material and the barrier layer atop the first mask material to expose the first portion of the surface of the turbine blade; etching the first portion of the surface of the turbine blade to form a cooling channel along the surface of the turbine blade; filling the cooling channel with a second mask material ; depositing a high-temperature metal layer atop the second mask material and the first barrier layer of the turbine blade; depositing a third mask material atop the high-temperature metal layer , the third mask having a dimension smaller than the cooling channel ; and wherein the third mask material is deposited such that, in at least one dimension, its width is less than that of the cooling channel ; depositing a second barrier layer atop the third mask material and the high-temperature metal layer ; removing the third mask material and the second barrier layer atop the third mask material ; etching the high-temperature metal layer through to the second mask material ; and removing the second mask material .
A method for executing a smart contract, comprising: receiving (S611), by a blockchain node, a request for creating a smart contract, wherein the request comprises code of the smart contract, and the code of the smart contract comprises hotspot code marked by using a hotspot identifier; identifying non-marked hotspot code other than the hotspot code marked by using the hotspot identifier, and compiling and storing the non-marked hotspot code, in a process of interpreting and executing the code of the smart contract; compiling (S613), by the blockchain node, the code of the smart contract comprising the hotspot code into machine code through Just-In-Time, JIT, compilation after deploying the smart contract, and storing the compiled hotspot code marked by using the hotspot identifier; and executing (S615), by the blockchain node when executing the deployed smart contract, the machine code if the machine code corresponding to the code of the smart contract is locally stored, wherein when executing the deployed smart contract, the blockchain node interprets and executes the code of the smart contract if the machine code of the smart contract is not locally stored, the interpreting and executing comprising: when the blockchain node executes the deployed smart contract, if the machine code of the smart contract is not locally stored, further querying, by the blockchain node, a current JIT compilation status of the code of the smart contract, and if JIT compilation has not been started, starting JIT compilation, and interpreting and executing the code of the smart contract. receiving (S611), by a blockchain node, a request for creating a smart contract, wherein the request comprises code of the smart contract, and the code of the smart contract comprises hotspot code marked by using a hotspot identifier; identifying non-marked hotspot code other than the hotspot code marked by using the hotspot identifier, and compiling and storing the non-marked hotspot code, in a process of interpreting and executing the code of the smart contract; compiling (S613), by the blockchain node, the code of the smart contract comprising the hotspot code into machine code through Just-In-Time, JIT, compilation after deploying the smart contract, and storing the compiled hotspot code marked by using the hotspot identifier; and executing (S615), by the blockchain node when executing the deployed smart contract, the machine code if the machine code corresponding to the code of the smart contract is locally stored, wherein when executing the deployed smart contract, the blockchain node interprets and executes the code of the smart contract if the machine code of the smart contract is not locally stored, the interpreting and executing comprising: when the blockchain node executes the deployed smart contract, if the machine code of the smart contract is not locally stored, further querying, by the blockchain node, a current JIT compilation status of the code of the smart contract, and if JIT compilation has not been started, starting JIT compilation, and interpreting and executing the code of the smart contract.
A method for determining at least one postural characteristic (α) of the head of a wearer of a pair of spectacles comprising a frame and two lenses , using a determining device comprising an image sensor , at least one light source and a processing unit , characterized in that it comprises steps of: a) acquiring via the image sensor an image of at least part of the head of the wearer, in which image appears the pair of spectacles illuminated by the light source ; b) locating via the processing unit , in said image , two reflections generated by the light source and respectively reflected by the optical faces of the two lenses of the pair of spectacles and not by the edges of the lenses or by the edges of the openings in the lenses if any; and c) deducing via the processing unit the postural characteristic (α) of the head of the wearer relative to said image sensor , as a function of the position of said reflections in said image , said postural characteristic (α) being a yaw angle (α) which separates the sagittal plane (P2) of the head of the wearer and the optical axis (A2) of the image sensor . a) acquiring via the image sensor an image of at least part of the head of the wearer, in which image appears the pair of spectacles illuminated by the light source ; b) locating via the processing unit , in said image , two reflections generated by the light source and respectively reflected by the optical faces of the two lenses of the pair of spectacles and not by the edges of the lenses or by the edges of the openings in the lenses if any; and c) deducing via the processing unit the postural characteristic (α) of the head of the wearer relative to said image sensor , as a function of the position of said reflections in said image , said postural characteristic (α) being a yaw angle (α) which separates the sagittal plane (P2) of the head of the wearer and the optical axis (A2) of the image sensor .
A method for processing milk, said method comprising separating raw milk (RM) into cream (C) and skim milk (SM), wherein the cream (C) is fed to a main cream pipe and the skim milk (SM) is fed to a main skim milk pipe , determining protein content in the skim milk (SM), determining protein content in the cream (C), dividing the cream (C) in the main cream pipe into a cream remix portion (CR) fed into a cream remix pipe and a surplus cream portion (SC) fed into a surplus cream pipe , dividing the skim milk (SM) in the main skim milk pipe into a first skim milk portion (SM1) fed into a first skim milk pipe and a second skim milk portion (SM2) fed into a second skim milk pipe , filtering , by using a filtration device , the second skim milk portion (SM2) into a permeate (P) fed into a permeate pipe and a retentate (R) fed into a retentate pipe , such that the retentate (R) has a higher protein content than the permeate (P), determining protein content in the permeate (P), calculating , based on the protein contents of at least the skim milk (SM), the cream remix portion (CR) and the permeate (P), flow rates (Q SM1 , Q CR , Q P ) that are required for the first skim milk portion (SM1), the cream remix portion (CR) and the permeate (P) to obtain a predetermined protein content of a mixture of the first skim milk portion (SM1), the cream remix portion (CR) and the permeate (P), controlling a set of valves that are arranged to regulate the flow of the first skim milk portion (SM1), the cream remix portion (CR) and the permeate (P), such that said calculated flow rates (Q SM1 , Q CR , Q P ) are obtained, and combining at least the first skim milk portion (SM1), the permeate (P) and the cream remix portion (CR) into a standardized milk product (SMP).
Portable modular system for diagnostic instruments in the field of dermatological, ophthalmic and optometry medicine, the system comprising a first operating module , comprising at least one image detection and acquisition device , in particular a video camera or a camera; a second operating module , comprising an electronic data processing unit , configured to receive and process the images obtained by said image detection and acquisition device ; a support member intended to support in a removable manner and in respective positions said first operating module and said second operating module ; a coupling member connected to said support member in order to enable interchangeable coupling to a base body or to a handle for manual support of said modular system , said support member comprising at least a first seat for fixing said first operating module and a second seat for fixing said second operating module , said first seat and second seat being predisposed to act as a guide for said fixing.
A security authentication method, wherein the method comprises: receiving , by an integrated circuit , an authentication request sent by a test platform , wherein the test platform is configured to test the integrated circuit , and generating a first random number; the integrated circuit sending the first random number to the test platform , so that the test platform sends the first random number to an encryption platform using a network; receiving a random number ciphertext sent by the test platform , wherein the random number ciphertext is obtained after the encryption platform encrypts the first random number; decrypting the random number ciphertext to obtain a second random number; and the integrated circuit performing security authentication on the test platform based on the first random number and the second random number. receiving , by an integrated circuit , an authentication request sent by a test platform , wherein the test platform is configured to test the integrated circuit , and generating a first random number; the integrated circuit sending the first random number to the test platform , so that the test platform sends the first random number to an encryption platform using a network; receiving a random number ciphertext sent by the test platform , wherein the random number ciphertext is obtained after the encryption platform encrypts the first random number; decrypting the random number ciphertext to obtain a second random number; and the integrated circuit performing security authentication on the test platform based on the first random number and the second random number.
Plug-in connector with a housing and at least one chamber for receiving at least one electrical contact element , which can be attached via a locking element inside the housing , wherein the locking element is a snap-in element that is arranged at the contact element and that can be locked in place in the housing inside an opening which is adjusted to it, wherein the at least one contact element is a spring contact element, with the spring contacts of the contact element being formed as legs of a metal sheet that is bent into a U-shape, and wherein the snap-in element is arranged in a lid-like manner above the metal sheet bent into a U-shape, in such a way that it reaches the front area of the spring contacts , wherein the snap-in element has a locking hook , with the bending area of the locking hook being formed on the side of the spring contacts that is facing the contact openings, characterized in that on their side that is facing the snap-in element , the spring contacts have obliquely extending supporting surfaces for the snap-in element , on which the bent down snap-in element rests.
A timepiece comprising: an outer case having a movement therein, the outer case having a crown hole through a portion thereof; an engagement member connected to the outer case ; and a crown , wherein the crown comprises: a shaft part inserted into the crown hole and connected to the movement; an operation part holding the shaft part movably along an axial direction of the shaft part and enabling the shaft part to rotate in a circumferential direction; and an engagement part disposed between the engagement member and the operation part and restricting movement of the operation part in the axial direction when engaged with the engagement member , characterized in that the engagement part holds the operation part rotatable relative to the engagement part whether or not the engagement part is engaged with the engagement member . an outer case having a movement therein, the outer case having a crown hole through a portion thereof; an engagement member connected to the outer case ; and a crown , wherein the crown comprises: a shaft part inserted into the crown hole and connected to the movement; an operation part holding the shaft part movably along an axial direction of the shaft part and enabling the shaft part to rotate in a circumferential direction; and an engagement part disposed between the engagement member and the operation part and restricting movement of the operation part in the axial direction when engaged with the engagement member , a shaft part inserted into the crown hole and connected to the movement; an operation part holding the shaft part movably along an axial direction of the shaft part and enabling the shaft part to rotate in a circumferential direction; and an engagement part disposed between the engagement member and the operation part and restricting movement of the operation part in the axial direction when engaged with the engagement member , characterized in that the engagement part holds the operation part rotatable relative to the engagement part whether or not the engagement part is engaged with the engagement member .
A fluidic device holder configured to orient a fluidic device with respect to mutually perpendicular X, Y, and Z-axes, the device holder comprising: a support structure configured to receive a fluidic device , the support structure including a base surface that faces in a direction along the Z-axis and is configured to have the fluidic device positioned thereon; a plurality of reference surfaces facing in respective directions along an XY- plane; an alignment assembly comprising an actuator and a movable locator arm that is operatively coupled to the actuator , the locator arm having an engagement end , the actuator moving the locator arm between retracted and biased positions to move the engagement end away from and toward the reference surfaces, wherein the locator arm is configured to hold the fluidic device against the reference surfaces when the locator arm is in the biased position; a removable cover assembly that is operatively coupled to the actuator , the actuator moving the locator arm to the biased position as the cover assembly is mounted over the fluidic device, the actuator moving the locator arm to the retracted position as the cover assembly is demounted from the fluidic device , wherein the cover assembly is configured to engage and hold the fluidic device against the base surface , wherein the cover assembly includes a cover housing having housing legs and a bridge portion that joins the housing legs , the housing legs extending in a common direction and having a viewing space located therebetween, the viewing space positioned above the base surface . a support structure configured to receive a fluidic device , the support structure including a base surface that faces in a direction along the Z-axis and is configured to have the fluidic device positioned thereon; a plurality of reference surfaces facing in respective directions along an XY- plane; an alignment assembly comprising an actuator and a movable locator arm that is operatively coupled to the actuator , the locator arm having an engagement end , the actuator moving the locator arm between retracted and biased positions to move the engagement end away from and toward the reference surfaces, wherein the locator arm is configured to hold the fluidic device against the reference surfaces when the locator arm is in the biased position; a removable cover assembly that is operatively coupled to the actuator , the actuator moving the locator arm to the biased position as the cover assembly is mounted over the fluidic device, the actuator moving the locator arm to the retracted position as the cover assembly is demounted from the fluidic device , wherein the cover assembly is configured to engage and hold the fluidic device against the base surface , wherein the cover assembly includes a cover housing having housing legs and a bridge portion that joins the housing legs , the housing legs extending in a common direction and having a viewing space located therebetween, the viewing space positioned above the base surface .
Inhaler component for forming a nicotine-containing vapour-air mixture and/or condensation aerosol by evaporating a nicotine solution highly diluted by means of ethanol and/or water, comprising: a housing ; a chamber arranged in the housing ; an air admission opening for the supply of air from the surroundings into the chamber ; an evaporator for evaporating a portion of the highly diluted nicotine solution , with an evaporation surface or vapour outlet surface which is arranged in the chamber and from which the generated vapour passes into the chamber and mixes in the chamber with the air supplied through the air admission opening , as a result of which the nicotine-containing vapour-air mixture and/or condensation aerosol finally forms, characterized by a cooler which is arranged downstream from the chamber and through which the formed vapour-air mixture and/or condensation aerosol can flow, wherein the cooler contains tobacco and/or other flavouring agents, which are placed in a filling space delimited on the flow inlet side by a perforated wall. a housing ; a chamber arranged in the housing ; an air admission opening for the supply of air from the surroundings into the chamber ; an evaporator for evaporating a portion of the highly diluted nicotine solution , with an evaporation surface or vapour outlet surface which is arranged in the chamber and from which the generated vapour passes into the chamber and mixes in the chamber with the air supplied through the air admission opening , as a result of which the nicotine-containing vapour-air mixture and/or condensation aerosol finally forms, characterized by a cooler which is arranged downstream from the chamber and through which the formed vapour-air mixture and/or condensation aerosol can flow, wherein the cooler contains tobacco and/or other flavouring agents, which are placed in a filling space delimited on the flow inlet side by a perforated wall.