mhurhangee/patent-ind-claim-en huggingface dataset:
A device comprising: at least one processor configured to: receive , from a service provider , an indication of a card account of a user; determine whether the card account is eligible to be added to a first device for use in a wireless transaction system; transmit a notification to a messaging server to cause transmission of a first notification to the first device ; receive , from the first device , a message including a security token and an identifier of the first notification ; determine , based on the message, whether one or more security mechanisms are implemented by the first device and/or whether a current authentication level of the first device meets a minimum authentication level for provisioning an applet corresponding to the card account on a secure element of the first device ; when the card account is determined to be eligible to be added to the first device for use in the wireless transaction system and the first device is determined to be implementing one or more security mechanisms and/or that the current authentication level of the first device meets the minimum authentication level, transmit a second notification to the first device for display, the second notification indicating that the card account is eligible to be added to the first device for use in the wireless transaction system; and initiate provisioning, to the secure element of the first device , the applet corresponding to the card account when an approval for adding the card account to the first device for use in the wireless transaction system is received in response to the second notification. receive , from a service provider , an indication of a card account of a user; determine whether the card account is eligible to be added to a first device for use in a wireless transaction system; transmit a notification to a messaging server to cause transmission of a first notification to the first device ; receive , from the first device , a message including a security token and an identifier of the first notification ; determine , based on the message, whether one or more security mechanisms are implemented by the first device and/or whether a current authentication level of the first device meets a minimum authentication level for provisioning an applet corresponding to the card account on a secure element of the first device ; when the card account is determined to be eligible to be added to the first device for use in the wireless transaction system and the first device is determined to be implementing one or more security mechanisms and/or that the current authentication level of the first device meets the minimum authentication level, transmit a second notification to the first device for display, the second notification indicating that the card account is eligible to be added to the first device for use in the wireless transaction system; and initiate provisioning, to the secure element of the first device , the applet corresponding to the card account when an approval for adding the card account to the first device for use in the wireless transaction system is received in response to the second notification.
A computer-implemented method executed by an industrial controller comprising a network interface adapted to communicate with one or more connectable motor drives, and an electronic computer communicating with the network interface, the method comprising: receiving a control program providing motion control instructions including a motion command ; and executing the motion control instructions by: identifying a motor drive associated with the motion command; and determining whether the identified motor drive is capable of executing a motion planner, which provides a time series of motion data for controlling a motor when initiated by the motion command caused by execution of a motion control instruction, and if capable, transmitting the motion command to the identified motor drive over the network interface, otherwise transmitting the motion command to a motion planner in the industrial controller. receiving a control program providing motion control instructions including a motion command ; and executing the motion control instructions by: identifying a motor drive associated with the motion command; and determining whether the identified motor drive is capable of executing a motion planner, which provides a time series of motion data for controlling a motor when initiated by the motion command caused by execution of a motion control instruction, and if capable, transmitting the motion command to the identified motor drive over the network interface, otherwise transmitting the motion command to a motion planner in the industrial controller.
A step counting method for a driven treadmill, wherein the method is applied to a terminal device, the terminal device is placed on the treadmill, and the method comprises: collecting (S201), by the terminal device by using an acceleration sensor, a vibration signal generated when a user runs on the treadmill; and analyzing (S202), by the terminal device by using a time-frequency analysis algorithm, the vibration signal to determine a quantity of exercise steps of the user on the treadmill, characterized by before the analyzing, by the terminal device by using the time-frequency analysis algorithm, the vibration signal to determine a quantity of exercise steps of the user on the treadmill, wherein the method further comprises: denoising, by the terminal device, the vibration signal, wherein the denoising, by the terminal device, the vibration signal comprises: identifying, by the terminal device, a vibration component of the treadmill in the vibration signal based on a vibration frequency of the treadmill; and filtering out the vibration component of the treadmill in the vibration signal, wherein the vibration frequency of the treadmill is a vibration frequency obtained after the treadmill is started and when no user runs on the treadmill. collecting (S201), by the terminal device by using an acceleration sensor, a vibration signal generated when a user runs on the treadmill; and analyzing (S202), by the terminal device by using a time-frequency analysis algorithm, the vibration signal to determine a quantity of exercise steps of the user on the treadmill, characterized by before the analyzing, by the terminal device by using the time-frequency analysis algorithm, the vibration signal to determine a quantity of exercise steps of the user on the treadmill, wherein the method further comprises: denoising, by the terminal device, the vibration signal, wherein the denoising, by the terminal device, the vibration signal comprises: identifying, by the terminal device, a vibration component of the treadmill in the vibration signal based on a vibration frequency of the treadmill; and filtering out the vibration component of the treadmill in the vibration signal, wherein the vibration frequency of the treadmill is a vibration frequency obtained after the treadmill is started and when no user runs on the treadmill.
Use of hydrogel for coating an injection needle which prevents bleeding during injection, which comprises a chitosan to which a catechol group is introduced and at least a portion of the catechol group is oxidized and cross-linked.
Covering system for silage preparation comprising at least one underlay film for closely hugging onto the surface of a fodder material , wherein the underlay film has at least one oxygen barrier layer , at least 50 wt.% whereof consists of materials of the group comprising polyamide, copolyamide, polyester, copolyester, polyethylene vinyl alcohol, polyvinyl alcohol and/or mixtures thereof, characterized in that the underlay film has at least one protective layer for protection of the oxygen barrier layer against substances of the silage, wherein the underlay film has a thickness of at most 60 μm and the oxygen barrier layer is thicker than the protective layer at least by the factor 1.2.
A product comprising: a substrate having a first surface and an opposing second surface ; a mask disposed on the first surface; and a coating layer disposed over the second surface of the substrate ; wherein a first portion of the second surface of the substrate positioned opposite the mask includes the coating layer and a second portion of the second surface not positioned opposite the mask is substantially free of the coating layer laser ablated from the second surface; and wherein an edge of the coating layer adjacent the second portion of the second surface of the substrate that is substantially free of the coating layer forms an average angle with the second substrate surface in a range of 30° to 120° and has a characteristic length, L, that is a length of the portion of the edge of the coating layer in which a thickness of the coating layer tapers from a nominal coating layer thickness, t, to zero thickness, and L ≤ 100 μm. a substrate having a first surface and an opposing second surface ; a mask disposed on the first surface; and a coating layer disposed over the second surface of the substrate ; wherein a first portion of the second surface of the substrate positioned opposite the mask includes the coating layer and a second portion of the second surface not positioned opposite the mask is substantially free of the coating layer laser ablated from the second surface; and wherein an edge of the coating layer adjacent the second portion of the second surface of the substrate that is substantially free of the coating layer forms an average angle with the second substrate surface in a range of 30° to 120° and has a characteristic length, L, that is a length of the portion of the edge of the coating layer in which a thickness of the coating layer tapers from a nominal coating layer thickness, t, to zero thickness, and L ≤ 100 μm.
A temperature monitoring apparatus for a battery pack , the temperature monitoring apparatus comprising: a plurality of slave battery management systems (BMSs) (110-1, 110-2 ... 110-n including a first slave BMS (110-1) and a second slave BMS (110-2); and a master BMS connected to the plurality of slave BMSs to communicate with the plurality of slave BMSs, wherein each of the plurality of slave BMSs is configured to switch from a sleep mode to a wake-up mode when a wake-up time set in advance thereto by the master BMS is reached, to measure a temperature of a battery module set thereto from among a plurality of battery modules included in the battery pack, during a wake-up period that is defined as a period from a latest time point of switching to the wake-up mode to a time point of re-switching to the sleep mode, and to transmit to the master BMS temperature data indicating the temperature measured during the wake-up period, and the master BMS is configured to set a next wake-up time of the second slave BMS based on first temperature data transmitted from the first slave BMS and indicating a temperature of a first battery module from among the plurality of battery modules. a plurality of slave battery management systems (BMSs) (110-1, 110-2 ... 110-n including a first slave BMS (110-1) and a second slave BMS (110-2); and a master BMS connected to the plurality of slave BMSs to communicate with the plurality of slave BMSs, wherein each of the plurality of slave BMSs is configured to switch from a sleep mode to a wake-up mode when a wake-up time set in advance thereto by the master BMS is reached, to measure a temperature of a battery module set thereto from among a plurality of battery modules included in the battery pack, during a wake-up period that is defined as a period from a latest time point of switching to the wake-up mode to a time point of re-switching to the sleep mode, and to transmit to the master BMS temperature data indicating the temperature measured during the wake-up period, and the master BMS is configured to set a next wake-up time of the second slave BMS based on first temperature data transmitted from the first slave BMS and indicating a temperature of a first battery module from among the plurality of battery modules.
A paper machine clothing (PMC) fabric monofilament yarn for use in a PMC fabric, said PMC fabric monofilament yarn having a composition comprised of polyethylene terephthalate (PET), said PET fabric monofilament yarn having a diameter between approximately 0.05 and 0.5 millimeters (mm), in particular between 0.10 and 0.30 mm, and an abrasion resistance of greater than 6,000 cycles where said abrasion resistance of said PET fabric monofilament yarn is measured according to a squirrel cage method, said PET fabric yarn being measured under a pretension of approximately 3,15 grams per tex (0.35 g per denier) and wherein said PMC fabric monofilament yarn has a maximum shrink force temperature equal to or less than 154,5 °C (310°F).
A method of detecting airflow blockage of a transport refrigeration system , the method comprising: activating a heater of a refrigeration unit powered by an electric generation device ; wherein the heater is associated with a refrigerant heat absorption heat exchanger ; measuring an output voltage of the electric generation device ; determining a predicted heat output of the heater in response to the output voltage; determining a predicted temperature rise across the heater in response to the predicted heat output; detecting a measured temperature rise across the heater ; and determining an airflow reduction percentage in response to the predicted temperature rise across the heater and the measured temperature rise across the heater . activating a heater of a refrigeration unit powered by an electric generation device ; wherein the heater is associated with a refrigerant heat absorption heat exchanger ; measuring an output voltage of the electric generation device ; determining a predicted heat output of the heater in response to the output voltage; determining a predicted temperature rise across the heater in response to the predicted heat output; detecting a measured temperature rise across the heater ; and determining an airflow reduction percentage in response to the predicted temperature rise across the heater and the measured temperature rise across the heater .
A beverage brewing device, comprising: a kettle body , a heating disc , and a tea-leaf basket , wherein the heating disc and the tea-leaf basket are located in the kettle body, characterized in that an air cylinder mechanism is fixed in the kettle body, a moving piston is arranged in the inner cavity of the air cylinder mechanism, and the piston is connected to the tea-leaf basket, wherein the air cylinder mechanism is connected to an air pump , and the air pump is used for conveying a driving gas to the air cylinder mechanism, wherein the piston is driven by the driving gas, thereby driving the tea-leaf basket to move in the kettle body. a kettle body , a heating disc , and a tea-leaf basket , wherein the heating disc and the tea-leaf basket are located in the kettle body, characterized in that an air cylinder mechanism is fixed in the kettle body, a moving piston is arranged in the inner cavity of the air cylinder mechanism, and the piston is connected to the tea-leaf basket, wherein the air cylinder mechanism is connected to an air pump , and the air pump is used for conveying a driving gas to the air cylinder mechanism, wherein the piston is driven by the driving gas, thereby driving the tea-leaf basket to move in the kettle body.
A method for preparing an analytical sample for analyzing a glycan contained in a sample, comprising: performing a first reaction so that when sialic acid is linked to the glycan, sialic acid of a first linkage type that is at least one of a α2,3-sialic acid, α2,8-sialic acid, and α2,9-sialic acid is lactonized and modification different from lactonization is performed on sialic acid of a second linkage type that is a α2,6-sialic acid; performing a second reaction to ring-open a lactone formed in the first reaction; and performing the first reaction again. performing a first reaction so that when sialic acid is linked to the glycan, sialic acid of a first linkage type that is at least one of a α2,3-sialic acid, α2,8-sialic acid, and α2,9-sialic acid is lactonized and modification different from lactonization is performed on sialic acid of a second linkage type that is a α2,6-sialic acid; performing a second reaction to ring-open a lactone formed in the first reaction; and performing the first reaction again.
A lamp, comprising a light source assembly , a lamp body , and a plurality of radiating tubes ; wherein, the lamp body comprises a vapor chamber characterized in that the lamp body further comprises a mounting ring , the mounting ring is disposed around a periphery of the vapor chamber , the vapor chamber comprises a first edge and a second edge opposite to each other, and a thickness of the vapor chamber gradually increases in a direction from the first edge to the second edge; the light source assembly is connected to the vapor chamber, and two ends of each of the radiating tubes are respectively connected to the mounting ring away from the light source assembly and close to the first edge and the second edge; in the vapor chamber a first receiving cavity for holding a cooling liquid is provided close to the first edge, a second receiving cavity for holding a cooling liquid is provided close to the second edge, and a reflux passage connecting the first receiving cavity and the second receiving cavity is provided; a reflux tank connecting the first receiving cavity, the second receiving cavity and the each of the radiating tubes is provided in the mounting ring.
A cleaner comprising: a first cleaning module comprising a left spin mop and a right spin mop configured to come into contact with a floor while rotating in a clockwise direction or in a counterclockwise direction when viewed from an upper side; a second cleaning module configured to come into contact with the floor in front of the first cleaning module ; and a body supported by the first cleaning module and the second cleaning module , characterized in that a bottom surface of the left spin mop has a downward incline in a left-forward direction, and a bottom surface of the right spin mop has a downward incline in a right-forward direction. a first cleaning module comprising a left spin mop and a right spin mop configured to come into contact with a floor while rotating in a clockwise direction or in a counterclockwise direction when viewed from an upper side; a second cleaning module configured to come into contact with the floor in front of the first cleaning module ; and a body supported by the first cleaning module and the second cleaning module , characterized in that a bottom surface of the left spin mop has a downward incline in a left-forward direction, and a bottom surface of the right spin mop has a downward incline in a right-forward direction.
An infrared radiation detector with integrated temperature sensor comprising: a substrate ; an infrared radiation sensitive film layer disposed on the substrate, the film layer having two ends; a conductive electrode disposed on one end of the film layer; a conductive ground electrode disposed on the other end of the film layer; a temperature sensor disposed on the conductive ground electrode to be in electrical and thermal communication with the conductive ground electrode; an electrical IR detector signal lead disposed in electrical communication with the conductive electrode and an electrical temperature signal lead disposed in electrical communication with the temperature sensor. a substrate ; an infrared radiation sensitive film layer disposed on the substrate, the film layer having two ends; a conductive electrode disposed on one end of the film layer; a conductive ground electrode disposed on the other end of the film layer; a temperature sensor disposed on the conductive ground electrode to be in electrical and thermal communication with the conductive ground electrode; an electrical IR detector signal lead disposed in electrical communication with the conductive electrode and an electrical temperature signal lead disposed in electrical communication with the temperature sensor.
Construction and/or materials-handling machine for erecting a structure and/or manipulating a workpiece, comprising a supporting frame structure for supporting a roof , a protective wall and/or a working head , characterized in that the supporting frame structure is formed by at least three revolving tower cranes which each comprise an upright tower and at least one boom which is supported by the tower and can be rotated about an upright slewing axis relative to the tower or together with the tower, wherein the revolving tower cranes are attached to one another by their booms and form a support frame in the type of a polygonal chain.
Temperature sensing device , comprising: a SON substrate (SON = silicon on nothing) having a SON cavity in a semiconductor material, wherein a SON membrane element is formed between a main surface region (120-A) of the SON substrate and the SON cavity and is laterally bordered by a trench structure , a capping structure for covering the SON membrane element and for mechanically holding the SON membrane element into position with respect to the SON substrate , a transistor structure integrated in the semiconductor material of the SON membrane element, the transistor structure having a first transistor region (160-1) and a second transistor region (160-2) both having a first doping type, and a third transistor region (160-3) having a complimentary, second doping type, wherein the transistor structure is configured to provide during an operational condition a transistor output signal (S OUT ) based on a temperature dependent, electrical parameter of the transistor structure , wherein a momentary temperature (T 0 ) of the semiconductor material of the SON membrane element is derivable from the transistor output signal (S out ), characterized in that : the capping structure is configured to provide a sealed cavity for the SON membrane element between the capping structure and the SON membrane element , wherein the membrane element is suspended in the sealed cavity . a SON substrate (SON = silicon on nothing) having a SON cavity in a semiconductor material, wherein a SON membrane element is formed between a main surface region (120-A) of the SON substrate and the SON cavity and is laterally bordered by a trench structure , a capping structure for covering the SON membrane element and for mechanically holding the SON membrane element into position with respect to the SON substrate , a transistor structure integrated in the semiconductor material of the SON membrane element, the transistor structure having a first transistor region (160-1) and a second transistor region (160-2) both having a first doping type, and a third transistor region (160-3) having a complimentary, second doping type, wherein the transistor structure is configured to provide during an operational condition a transistor output signal (S OUT ) based on a temperature dependent, electrical parameter of the transistor structure , wherein a momentary temperature (T 0 ) of the semiconductor material of the SON membrane element is derivable from the transistor output signal (S out ), characterized in that : the capping structure is configured to provide a sealed cavity for the SON membrane element between the capping structure and the SON membrane element , wherein the membrane element is suspended in the sealed cavity .