mhurhangee/patent-ind-claim-en huggingface dataset:
A method for managing an Android Debug Bridge, ADB, communication port, comprising: a) associating (S1) a vendor ID and a product ID of an ADB device with a preset interface number; b) adding (S2) functional compound information to attribute information of the ADB device, wherein the functional compound information includes the vendor ID and the product ID of the ADB device and the corresponding interface number; c) setting (S3) descriptor information of the ADB device as preset descriptor information; d) adding (S6) the preset vendor ID, the preset product ID and a corresponding interface number to an ADB driver information file of a PC device; e) modifying (S7) an ADB communication port number into a preset port number in an ADB communication program of the PC device; wherein the preset port number is any port number except the default ADB standard port number; f) connecting (S8) the ADB device to the PC device; g) installing (S11) a corresponding ADB driver by the PC device according to the ADB driver information file corresponding to the vendor ID and the product ID if it is determined by the PC device that the vendor ID and the product ID of the ADB device and the corresponding interface number match the preset vendor ID, the preset product ID and the corresponding interface number and that the descriptor information of the ADB device is the preset descriptor information; and h) setting (S12) the ADB communication port number between the PC device and the ADB device as the preset port number. a) associating (S1) a vendor ID and a product ID of an ADB device with a preset interface number; b) adding (S2) functional compound information to attribute information of the ADB device, wherein the functional compound information includes the vendor ID and the product ID of the ADB device and the corresponding interface number; c) setting (S3) descriptor information of the ADB device as preset descriptor information; d) adding (S6) the preset vendor ID, the preset product ID and a corresponding interface number to an ADB driver information file of a PC device; e) modifying (S7) an ADB communication port number into a preset port number in an ADB communication program of the PC device; wherein the preset port number is any port number except the default ADB standard port number; f) connecting (S8) the ADB device to the PC device; g) installing (S11) a corresponding ADB driver by the PC device according to the ADB driver information file corresponding to the vendor ID and the product ID if it is determined by the PC device that the vendor ID and the product ID of the ADB device and the corresponding interface number match the preset vendor ID, the preset product ID and the corresponding interface number and that the descriptor information of the ADB device is the preset descriptor information; and h) setting (S12) the ADB communication port number between the PC device and the ADB device as the preset port number.
An electrically powered linear axis with an end position holding device, the linear axis having a movable carriage mounted on a carriage guide , - wherein at least one holding assembly and at least one holding member (151-154, 170, 240, 250, 340, 350) are arranged between the carriage and the carriage guide thereof, and - wherein, in at least one fixed or adjustable carriage end position, at least one holding member (151-154; 170, 240, 250, 340, 350) can be coupled to the holding assembly (110; 210, 310) in a force- or form-fitting manner without: external energy supplied from the outside, characterised in that - in the case of a force-fitting coupling, the holding member (151-154, 170) can be coupled to the holding assembly by means of a permanent magnetic field, and the holding member (151-154, 170) can be decoupled from the holding assembly by means of an electrically generated magnetic field, and - in the case of a form-fitting coupling, the holding member can be decoupled from the holding assembly piezoelectrically or by using a heatable shape memory element. - wherein at least one holding assembly and at least one holding member (151-154, 170, 240, 250, 340, 350) are arranged between the carriage and the carriage guide thereof, and - wherein, in at least one fixed or adjustable carriage end position, at least one holding member (151-154; 170, 240, 250, 340, 350) can be coupled to the holding assembly (110; 210, 310) in a force- or form-fitting manner without: external energy supplied from the outside, - in the case of a force-fitting coupling, the holding member (151-154, 170) can be coupled to the holding assembly by means of a permanent magnetic field, and the holding member (151-154, 170) can be decoupled from the holding assembly by means of an electrically generated magnetic field, and - in the case of a form-fitting coupling, the holding member can be decoupled from the holding assembly piezoelectrically or by using a heatable shape memory element.
Arrangement for clampingly connecting a hollow-shaft region, in particular an adapter shaft , to a shaft, wherein the shaft is inserted into the hollow-shaft region onto which the clamping ring is placed, wherein the clamping ring has a radially and axially through-going slot, wherein a tangentially directed first stepped bore is arranged in the clamping ring and receives a screw , wherein the screw is screwed into a threaded region of the first stepped bore, which threaded region is arranged on the slot side facing away from the step of the first stepped bore, wherein the spatial region covered by the screw , in particular the screw head, is limited by a limiting element, which is connected to the clamping ring and arranged on the screw head side facing away from the step, wherein the hollow-shaft region has a radially directed depression into which there projects at least in part a threaded pin , which is screwed into a radially directed threaded bore of the clamping ring , characterised in that the limiting element is made of Teflon or a plastics material, and the screw and/or the clamping ring is made of steel, wherein the limiting element is configured as a pin that is oriented tangentially, wherein the limiting element is pressed into a second stepped bore , the edge region of which opening into the first stepped bore that receives the screw is domed, wherein the first stepped bore is oriented perpendicularly to the second stepped bore . wherein the shaft is inserted into the hollow-shaft region onto which the clamping ring is placed, wherein the clamping ring has a radially and axially through-going slot, wherein a tangentially directed first stepped bore is arranged in the clamping ring and receives a screw , wherein the screw is screwed into a threaded region of the first stepped bore, which threaded region is arranged on the slot side facing away from the step of the first stepped bore, wherein the spatial region covered by the screw , in particular the screw head, is limited by a limiting element, which is connected to the clamping ring and arranged on the screw head side facing away from the step, wherein the hollow-shaft region has a radially directed depression into which there projects at least in part a threaded pin , which is screwed into a radially directed threaded bore of the clamping ring , characterised in that the limiting element is made of Teflon or a plastics material, and the screw and/or the clamping ring is made of steel, wherein the limiting element is configured as a pin that is oriented tangentially, wherein the limiting element is pressed into a second stepped bore , the edge region of which opening into the first stepped bore that receives the screw is domed, wherein the first stepped bore is oriented perpendicularly to the second stepped bore .
A method for transmitting data in a wireless local area network mesh network, wherein the wireless mesh network is connected to an external network by using multiple mesh gates, wherein the method comprises: receiving (S101), by a first mesh station, a first data frame sent by a second mesh station, wherein a transmitter address of the first data frame is a media access control, MAC, address of the second mesh station, the first mesh station belongs to the subnet of a first mesh gate, and the second mesh station belongs to the subnet of a second mesh gate; and determining (S102), by the first mesh station, that the first data frame is a broadcast data frame, a multicast data frame, or an unknown unicast data frame; determining, according to the MAC address of the second mesh station, that the first mesh station and the second mesh station belong to different mesh gates; and discarding the first data frame. receiving (S101), by a first mesh station, a first data frame sent by a second mesh station, wherein a transmitter address of the first data frame is a media access control, MAC, address of the second mesh station, the first mesh station belongs to the subnet of a first mesh gate, and the second mesh station belongs to the subnet of a second mesh gate; and determining (S102), by the first mesh station, that the first data frame is a broadcast data frame, a multicast data frame, or an unknown unicast data frame; determining, according to the MAC address of the second mesh station, that the first mesh station and the second mesh station belong to different mesh gates; and discarding the first data frame.
A process for producing an acetic acid product comprising the steps of: a. continuously carbonylating at least one member selected from the group consisting of methanol, dimethyl ether, and methyl acetate with carbon monoxide in a reactor in the presence of water in an amount from 0.1 to 4.1 wt.% , a rhodium catalyst, methyl iodide and lithium iodide to form a reaction medium, wherein the carbonylating is carried out at a temperature from 150 to 250°C, a hydrogen partial pressure from 0.3 to 2 atm, and a rhodium catalyst concentration from 100 to 3000 wppm, based on the weight of the reaction medium, removing acetaldehyde from a stream derived from the reaction medium to form the acetic acid product, b. determining the butyl acetate concentration in the acetic acid product; and c. maintaining a butyl acetate concentration in the acetic acid product of less than or equal to 10 wppm, by adjusting at least one parameter selected from the group consisting of the reaction temperature, the hydrogen partial pressure and the metal catalyst concentration when the butyl acetate concentration in the acetic acid product is greater than 10 wppm. a. continuously carbonylating at least one member selected from the group consisting of methanol, dimethyl ether, and methyl acetate with carbon monoxide in a reactor in the presence of water in an amount from 0.1 to 4.1 wt.% , a rhodium catalyst, methyl iodide and lithium iodide to form a reaction medium, wherein the carbonylating is carried out at a temperature from 150 to 250°C, a hydrogen partial pressure from 0.3 to 2 atm, and a rhodium catalyst concentration from 100 to 3000 wppm, based on the weight of the reaction medium, removing acetaldehyde from a stream derived from the reaction medium to form the acetic acid product, b. determining the butyl acetate concentration in the acetic acid product; and c. maintaining a butyl acetate concentration in the acetic acid product of less than or equal to 10 wppm, by adjusting at least one parameter selected from the group consisting of the reaction temperature, the hydrogen partial pressure and the metal catalyst concentration when the butyl acetate concentration in the acetic acid product is greater than 10 wppm.
Swimming pool , in particular a swimming pool having an adjustable depth, comprising: - one or more side walls and a bottom wall , the one or more side walls and the bottom wall together defining a retaining space for holding a predefined level of water, - a movable subfloor accommodated in the retaining space , comprising at least one floating body providing a buoyancy to the movable subfloor , - an actuating system , wherein the actuating system is directly or indirectly attached to a bottom side of the movable subfloor via at least one cable and/or at least one belt, wherein the actuating system is configured for moving the movable subfloor between a submerged position, wherein at least a part of the movable subfloor is submerged below a water surface level in the retaining space , and a raised position, wherein at least a part the movable subfloor is situated above a water surface level in the retaining space , wherein the swimming pool characterized in that the swimming pool further comprises at least one positioning system , for positioning the movable subfloor , at least in a raised position, in a lateral direction with respect to the one or more side walls , wherein the swimming pool further comprises an abutment structure , such as a plate, said abutment structure defining an extreme position of the movable subfloor , wherein the positioning system , in particular a positioning element abuts against the abutment structure in the raised position, restricting a further upward movement of the movable subfloor . - one or more side walls and a bottom wall , the one or more side walls and the bottom wall together defining a retaining space for holding a predefined level of water, - a movable subfloor accommodated in the retaining space , comprising at least one floating body providing a buoyancy to the movable subfloor , - an actuating system , wherein the actuating system is directly or indirectly attached to a bottom side of the movable subfloor via at least one cable and/or at least one belt, wherein the actuating system is configured for moving the movable subfloor between a submerged position, wherein at least a part of the movable subfloor is submerged below a water surface level in the retaining space , and a raised position, wherein at least a part the movable subfloor is situated above a water surface level in the retaining space , wherein the swimming pool characterized in that the swimming pool further comprises at least one positioning system , for positioning the movable subfloor , at least in a raised position, in a lateral direction with respect to the one or more side walls , wherein the swimming pool further comprises an abutment structure , such as a plate, said abutment structure defining an extreme position of the movable subfloor , wherein the positioning system , in particular a positioning element abuts against the abutment structure in the raised position, restricting a further upward movement of the movable subfloor .
A high-strength steel sheet comprising a composition containing, by mass, C: 0.02% or more and less than 0.10%, Si: 0.001% or more and less than 0.10%, Mn: 0.2% or more and less than 1.0%, P: 0.10% or less, S: 0.020% or less, Al: 0.01% or more and 0.10% or less, N: 0.010% or less, Nb: 0.005% or more and less than 0.070%, optionally one or more elements selected from Mo: 0.3% or less, B: 0.005% or less, Cu: 0.3% or less, and Ni: 0.3% or less, and the balance being Fe and inevitable impurities, and a microstructure including, by area, ferrite: 95% or more, pearlite: 0% to 5%, and the total of martensite, retained austenite and cementite: 0% to 3%, the area fractions being determined by a point-count method according to ASTM E 562-05 using the results obtained by observing the steel sheet in a region extending from 1/8 to 3/8 of the thickness of the steel sheet from the surface of the steel sheet under a magnification of 1000 times with a SEM, wherein an average crystal grain diameter of the ferrite determined by observing the steel sheet in a region extending from 1/8 to 3/8 of the thickness of the steel sheet from the surface of the steel sheet under a magnification of 1000 times with a SEM is 1.0 μm or more and 15.0 μm or less, wherein a grain diameter of a Nb carbide is 5 to 50 nm, and the amount of Nb carbide precipitate is 0.005% to 0.050% in terms of volume fraction, and wherein the steel sheet has a tensile strength of 330 MPa to less than 500 MPa, a yield ratio of 0.70 or more and a hole expansion ratio of 130 % or more, the tensile strength and yield ratio being determined by taking a JIS No. 5 tensile test specimen such that the tensile direction of the specimen was perpendicular to the rolling direction of the steel sheet and subjecting the specimen to a tensile test conforming to JIS Z 2241 and the hole expansion ratio being determined in accordance with JIS Z 2256.
Friction assembly comprising a support plate and at least one brake pad , made by co-moulding of at least one heat-resistant resin, the heat-resistant resin of the support plate being partially loaded with non-metallic reinforcement fibres; wherein the support plate identifies one or more accessory-connection seats, made by co-moulding, selected from: i) at least one housing seat for a vibration suppression body ; ii) at least one connection seat for a frequencies reduction mass of said brake pad; iii) at least one engagement seat of a rear spacer of said support plate ; iv) at least one connection seat for a mechanical or electronic wear indicator of said brake pad; v) at least one junction seat for an anchor component of the support plate to a hollow piston of a disc brake calliper; vi) at least one positioning seat (42, 42', 42") for a temperature or force/torque sensor . i) at least one housing seat for a vibration suppression body ; ii) at least one connection seat for a frequencies reduction mass of said brake pad; iii) at least one engagement seat of a rear spacer of said support plate ; iv) at least one connection seat for a mechanical or electronic wear indicator of said brake pad; v) at least one junction seat for an anchor component of the support plate to a hollow piston of a disc brake calliper; vi) at least one positioning seat (42, 42', 42") for a temperature or force/torque sensor .
A method for rolling an electrode , the method comprising: preparing an electrode specimen by applying an electrode slurry containing an electrode active material on a current collector ; measuring a rheological property of the electrode specimen according to a temperature; deriving an appropriate temperature condition for rolling an electrode from the rheological property of the electrode specimen according to the temperature; and manufacturing the electrode and rolling the electrode under the appropriate temperature condition, wherein the appropriate temperature condition corresponds to a temperature range between a beta transition temperature and an alpha transition temperature (Tcr), the alpha transition temperature is the highest temperature among three inflection points or peaks which appear by measuring the rheological property of the electrode according to the temperature, the beta transition temperature is the middle temperature among three inflection points or peaks which appears by measuring the rheological property of the electrode according to the temperature, wherein the rheological property is a phase angle which is expressed as a following formula 1: δ = tan − 1 G " / G ′ , wherein G' denotes a storage modulus, and G" denotes a loss modulus, and wherein the G' and the G" are measured by a rheometer which vibrates in a range of 0.1 to 10 Hz. preparing an electrode specimen by applying an electrode slurry containing an electrode active material on a current collector ; measuring a rheological property of the electrode specimen according to a temperature; deriving an appropriate temperature condition for rolling an electrode from the rheological property of the electrode specimen according to the temperature; and manufacturing the electrode and rolling the electrode under the appropriate temperature condition, wherein the appropriate temperature condition corresponds to a temperature range between a beta transition temperature and an alpha transition temperature (Tcr), the alpha transition temperature is the highest temperature among three inflection points or peaks which appear by measuring the rheological property of the electrode according to the temperature, the beta transition temperature is the middle temperature among three inflection points or peaks which appears by measuring the rheological property of the electrode according to the temperature, wherein the rheological property is a phase angle which is expressed as a following formula 1: δ = tan − 1 G " / G ′ , wherein G' denotes a storage modulus, and G" denotes a loss modulus, and wherein the G' and the G" are measured by a rheometer which vibrates in a range of 0.1 to 10 Hz.
A computer-implemented method for automatically determining or fine-tuning bus service schedules for bus stops along a route, the method comprising: causing reception of location data, the location data comprised of a plurality of location points and associated temporal data, wherein the location data is received from a plurality of buses; aggregating the location data by the route and direction to determine a trip count, the trip count representing a number of trips along the same route in the same direction; causing reception of one or more bus stop locations; partitioning the plurality of location points and associated temporal data into a number of clusters such that the temporal data associated with each location point belongs to the cluster with the nearest mean, each cluster formed around an estimated arrival time at a bus stop location for a given trip of the trip count; calculating a mean arrival time at each of the one or more bus stop locations for each trip; and generating, using a processor, at least one bus service schedule for each of the one or more bus stop locations, wherein the mean arrival time of each trip represents the bus service schedule, the bus service schedule for providing bus service schedule information to a traveller. causing reception of location data, the location data comprised of a plurality of location points and associated temporal data, wherein the location data is received from a plurality of buses; aggregating the location data by the route and direction to determine a trip count, the trip count representing a number of trips along the same route in the same direction; causing reception of one or more bus stop locations; partitioning the plurality of location points and associated temporal data into a number of clusters such that the temporal data associated with each location point belongs to the cluster with the nearest mean, each cluster formed around an estimated arrival time at a bus stop location for a given trip of the trip count; calculating a mean arrival time at each of the one or more bus stop locations for each trip; and generating, using a processor, at least one bus service schedule for each of the one or more bus stop locations, wherein the mean arrival time of each trip represents the bus service schedule, the bus service schedule for providing bus service schedule information to a traveller.