mhurhangee/patent-ind-claim-en huggingface dataset:
A device for inductively coupled communications comprising: - a near field communication (NFC) module being adapted to generate an electromagnetic carrier signal and to modulate the carrier signal according to data to be transmitted, said NFC module including a differential transmitter and a single ended receiver ; - an antenna coupled to said NFC module and driven by said NFC module with the modulated carrier signal, said antenna being a single ended antenna; a capacitor (C PAR ) connected in parallel between the antenna and ground; and - an RF front end coupled between said NFC module and said antenna ; - said RF front end including an inductor coupled to a first terminal (TX1) of said differential transmitter in the first transmitting path, and a capacitor coupled to a second terminal (TX2) of said differential transmitter in the second transmitting path; - said RF front end further including a receiving path coupled to an input terminal of said single ended receiver ; wherein said RF front end does not use a balanced to unbalanced (Balun) transformer characterized in that a capacitor (C TX1 ) is connected in series with the inductor , said capacitor (C TX1 ) being coupled to said first terminal (TX1) of said differential transmitter in the first transmitting path. - a near field communication (NFC) module being adapted to generate an electromagnetic carrier signal and to modulate the carrier signal according to data to be transmitted, said NFC module including a differential transmitter and a single ended receiver ; - an antenna coupled to said NFC module and driven by said NFC module with the modulated carrier signal, said antenna being a single ended antenna; a capacitor (C PAR ) connected in parallel between the antenna and ground; and - an RF front end coupled between said NFC module and said antenna ; - said RF front end including an inductor coupled to a first terminal (TX1) of said differential transmitter in the first transmitting path, and a capacitor coupled to a second terminal (TX2) of said differential transmitter in the second transmitting path; - said RF front end further including a receiving path coupled to an input terminal of said single ended receiver ; wherein said RF front end does not use a balanced to unbalanced (Balun) transformer characterized in that a capacitor (C TX1 ) is connected in series with the inductor , said capacitor (C TX1 ) being coupled to said first terminal (TX1) of said differential transmitter in the first transmitting path.
Fluid meter, specifically heat meter for recording the quantity of cooling energy and/or heat of a fluid, for installation in a feed or return of a fluid line system, comprising a connection housing , a measuring arrangement for flow rate determination that comprises at least one ultrasound transducer and an ultrasound measurement path , a control and evaluation unit and a first temperature sensor , which is intended for installation in the feed and is intended to determine the temperature in the feed , and a second temperature sensor , which is intended for installation in the return and is intended to determine the temperature in the return , wherein a means for determining the temperature of the fluid meter is provided, wherein a temperature difference between the temperature of the fluid meter and at least one of the temperatures of the first and second temperature sensor can be determined, characterized in that with the aid of the temperature difference determined between the temperature of the fluid meter and at least one of the temperatures of the first and second temperature sensor , the control and evaluation unit determines which of the temperature sensors is installed in the feed or return , wherein the measuring arrangement for flow rate determination is provided as a means for determining the temperature of the fluid meter, wherein the determination of the temperature of the fluid meter is carried out with the aid of a temperature-dependent time of flight of an ultrasound signal in the fluid, and wherein an assignment of the temperature sensors to the feed or return is carried out automatically. a connection housing , a measuring arrangement for flow rate determination that comprises at least one ultrasound transducer and an ultrasound measurement path , a control and evaluation unit and a first temperature sensor , which is intended for installation in the feed and is intended to determine the temperature in the feed , and a second temperature sensor , which is intended for installation in the return and is intended to determine the temperature in the return , wherein a means for determining the temperature of the fluid meter is provided, wherein a temperature difference between the temperature of the fluid meter and at least one of the temperatures of the first and second temperature sensor can be determined, characterized in that with the aid of the temperature difference determined between the temperature of the fluid meter and at least one of the temperatures of the first and second temperature sensor , the control and evaluation unit determines which of the temperature sensors is installed in the feed or return , wherein the measuring arrangement for flow rate determination is provided as a means for determining the temperature of the fluid meter, wherein the determination of the temperature of the fluid meter is carried out with the aid of a temperature-dependent time of flight of an ultrasound signal in the fluid, and wherein an assignment of the temperature sensors to the feed or return is carried out automatically.
A tool kit comprising a rotatable tool comprising: a tool body having an axis (A) of rotation and a first recess , having a first geometry, suitable for receiving an ID chip having a mass wherein the tool is rotationally balanced with a dummy chip in the first recess ; and an ID chip characterized in that the tool comprises the dummy chip located in the first recess , in that the dummy chip is electronic information storage medium-free and wireless transmitting means-free, in that the ID chip and the dummy chip have the same mass, in that the dummy chip is attachable in and removable from the first recess , and in that the ID chip is mountable in the first recess . a tool body having an axis (A) of rotation and a first recess , having a first geometry, suitable for receiving an ID chip having a mass wherein the tool is rotationally balanced with a dummy chip in the first recess ; and an ID chip the tool comprises the dummy chip located in the first recess , in that the dummy chip is electronic information storage medium-free and wireless transmitting means-free, in that the ID chip and the dummy chip have the same mass, in that the dummy chip is attachable in and removable from the first recess , and in that the ID chip is mountable in the first recess .
A method of manufacturing bulked continuous carpet filament from polytrimethylene terephthalate (PTT), the method comprising: providing an extruder; using the extruder to at least partially melt the PTT into a polymer stream and at least partially purify the polymer stream; providing a static mixing assembly downstream of the extruder; adding polyethylene terephthalate (PET) to the polymer stream downstream of the extruder and before the static mixing assembly or along a length of the static mixing assembly between an upstream end and a downstream end of the static mixing assembly; using the static mixing assembly to mix the polymer stream with the PET to create a mixed polymer stream; and forming the mixed polymer stream into bulked continuous carpet filament. providing an extruder; using the extruder to at least partially melt the PTT into a polymer stream and at least partially purify the polymer stream; providing a static mixing assembly downstream of the extruder; adding polyethylene terephthalate (PET) to the polymer stream downstream of the extruder and before the static mixing assembly or along a length of the static mixing assembly between an upstream end and a downstream end of the static mixing assembly; using the static mixing assembly to mix the polymer stream with the PET to create a mixed polymer stream; and forming the mixed polymer stream into bulked continuous carpet filament.
Road finishing machine with a control platform and a control panel which can be moved between end positions on the left and right sides of the road finishing machine in the control platform, wherein the control panel comprises a bearing roller which is engaged with a fixed bearing rail provided at the control platform, characterized in that the bearing roller is fixed by means of a thrust bearing, the axial direction of which comprises at least one vertical component, and is movably received in the fixed bearing rail .
A method for transmitting uplink control information, UCI, of a terminal in a wireless communication system, the method comprising: determining a number of coded symbols for the UCI based on a minimum value between a first value and a second value; and transmitting the UCI on a physical uplink shared channel, PUSCH, based on the number of coded symbols, wherein the first value is determined based on a payload size of the UCI and an offset, wherein the second value is determined based on a multiplication of a scaling factor and a total amount of resource elements allocated for transmitting the UCI, and wherein the terminal acquires a value of the scaling factor by receiving a radio resource control, RRC, signal. determining a number of coded symbols for the UCI based on a minimum value between a first value and a second value; and transmitting the UCI on a physical uplink shared channel, PUSCH, based on the number of coded symbols, wherein the first value is determined based on a payload size of the UCI and an offset, wherein the second value is determined based on a multiplication of a scaling factor and a total amount of resource elements allocated for transmitting the UCI, and wherein the terminal acquires a value of the scaling factor by receiving a radio resource control, RRC, signal.
A method for laser welding a first metal part to a second metal part , which method comprises: • placing the first metal part on the second metal part , • providing a laser arranged to emit a laser beam in the form of laser pulses that have pulse widths in the range 1ns to 1000ns, • providing a scanner for scanning the laser beam with respect to a metal surface of the first metal part , • providing an objective lens for focusing the laser pulses onto the metal surface , • providing a controller that is adapted to control the scanner such that it moves the laser beam with respect to the metal surface , • causing the laser to emit the laser pulses , • focusing the laser pulses that have the pulse widths in the range 1ns to 1000ns with a spot size and a pulse fluence that cause the formation of a plurality of melt pools in the first metal part and heat stakes in the second metal part , wherein each heat stake extends from a different one of the melt pools and has a distal end , • adapting the controller to space the focussed spots apart by a distance that is small enough to cause the melt pools to overlap and that is large enough to ensure the distal end of the heat stakes are distinct and separate from each other in at least one direction , and • wherein the first metal part has a reflectivity greater than 80% at a wavelength emitted by the laser . • placing the first metal part on the second metal part , • providing a laser arranged to emit a laser beam in the form of laser pulses that have pulse widths in the range 1ns to 1000ns, • providing a scanner for scanning the laser beam with respect to a metal surface of the first metal part , • providing an objective lens for focusing the laser pulses onto the metal surface , • providing a controller that is adapted to control the scanner such that it moves the laser beam with respect to the metal surface , • causing the laser to emit the laser pulses , • focusing the laser pulses that have the pulse widths in the range 1ns to 1000ns with a spot size and a pulse fluence that cause the formation of a plurality of melt pools in the first metal part and heat stakes in the second metal part , wherein each heat stake extends from a different one of the melt pools and has a distal end , • adapting the controller to space the focussed spots apart by a distance that is small enough to cause the melt pools to overlap and that is large enough to ensure the distal end of the heat stakes are distinct and separate from each other in at least one direction , and • wherein the first metal part has a reflectivity greater than 80% at a wavelength emitted by the laser .
A method for initial setup of an energy storage system suitable for an installation environment when installing the energy storage system, the method comprising: connecting an energy management system and a user terminal with a USB cable; activating, by the user terminal , a USB network through USB tethering for initial setup; allocating, by the energy management system , a preset static IP to the USB network; accessing, by the user terminal , a setting server of the energy management system using the static IP, wherein the accessing the setting server is a step of accessing the setting server by inputting the static IP to an address bar of a web browser of the user terminal ; and performing, by the user terminal , initial setup of the energy storage system in the setting server , further comprising setting, by the energy management system , the static IP differently according to an operating system of the user terminal , wherein the allocating the static IP is a step of selectively allocating, by the energy management system , the different static IPs to the different USB networks. connecting an energy management system and a user terminal with a USB cable; activating, by the user terminal , a USB network through USB tethering for initial setup; allocating, by the energy management system , a preset static IP to the USB network; accessing, by the user terminal , a setting server of the energy management system using the static IP, wherein the accessing the setting server is a step of accessing the setting server by inputting the static IP to an address bar of a web browser of the user terminal ; and performing, by the user terminal , initial setup of the energy storage system in the setting server , further comprising setting, by the energy management system , the static IP differently according to an operating system of the user terminal , wherein the allocating the static IP is a step of selectively allocating, by the energy management system , the different static IPs to the different USB networks.
A grommet , substantially consisting of a head , a tip and a tubular sleeve therebetween, wherein the head can be formed as a washer or as a stop collar , and the tip narrows substantially conically or in a tapered manner from the sleeve diameter to a smaller diameter, wherein the grommet has a sensor arrangement with at least one RFID transponder with antenna and a sensor operatively connected to the transponder, characterized in that the sensor arrangement is attached flatly to the outside of the sleeve , to the washer h or to the tip , as a result of which the sensor can be introduced in a defined installation position and depth in a layer of a roof structure.
A method for using a Diameter routing agent, DRA, to obtain mappings between mobile subscriber identification information and dynamically assigned Internet protocol, IP, addresses and for making the mappings accessible to applications, the method comprising: receiving, by a DRA , a Diameter message containing a dynamically assigned Internet protocol, IP, address and mobile subscriber identification information; routing, by the DRA , the received Diameter signaling message; copying, by the DRA , the IP address and the mobile subscriber identification information from the message wherein copying the IP address and mobile subscriber identifier includes copying the Diameter message using a message copy function of the DRA , wherein the message copy function of the DRA is separate from a Diameter routing function of the DRA ; and making a mapping between the dynamically assigned IP address and the subscriber identification information accessible to applications , wherein making a mapping between the dynamically assigned IP address and the mobile subscriber identifier available to applications includes storing the mapping between the dynamically assigned IP address and the mobile subscriber identifier in a database upon receipt of the Diameter message. receiving, by a DRA , a Diameter message containing a dynamically assigned Internet protocol, IP, address and mobile subscriber identification information; routing, by the DRA , the received Diameter signaling message; copying, by the DRA , the IP address and the mobile subscriber identification information from the message wherein copying the IP address and mobile subscriber identifier includes copying the Diameter message using a message copy function of the DRA , wherein the message copy function of the DRA is separate from a Diameter routing function of the DRA ; and making a mapping between the dynamically assigned IP address and the subscriber identification information accessible to applications , wherein making a mapping between the dynamically assigned IP address and the mobile subscriber identifier available to applications includes storing the mapping between the dynamically assigned IP address and the mobile subscriber identifier in a database upon receipt of the Diameter message.
A method for specifically staining a specific substance possessed by cells in a sample, characterized in that the method comprises performing the following steps in one step: (A) a step of performing an immobilization treatment of the cells; (B) a step of performing a permeabilization treatment of the cells; and (C) a step of performing a labeling treatment of the specific substance possessed by the cells, whereby the series of treatments in the one step are performed at the same time without performing washing to remove the immobilizer and permeabilization agent added. (A) a step of performing an immobilization treatment of the cells; (B) a step of performing a permeabilization treatment of the cells; and (C) a step of performing a labeling treatment of the specific substance possessed by the cells, whereby the series of treatments in the one step are performed at the same time without performing washing to remove the immobilizer and permeabilization agent added.
A wax composition consisting essentially of paraffin waxes having a carbon distribution characterised by a 95% carbon number spread, calculated as standard deviation of the total distribution ∗ 1.96 ∗ 2, of at least 18 carbon atoms, from 0.01% by weight to 10% by weight of polyethylene, and optionally from 0.001% by weight to 0.5% by weight of nanoclay, wherein the wax composition has a needle penetration value at 40° C, based on ASTM D-1321, of 90 dmm or less, said wax composition comprising at least 5% by weight of paraffin waxes having a carbon number of 24 or less, at least 5% by weight of paraffin waxes having a carbon number of 38 or more, at least 15% by weight of paraffin waxes having a carbon number of 34 or more, and a total n-paraffin content of less than 76% by weight.
An acoustic foetal stimulation device comprising a means of emitting acoustic stimulation signals that comprises a capsule enclosing the means of emitting said signals, manufactured in a biocompatible (hygienic) material and with a size and shape suitable for removable insertion in the vagina, in a position adjacent to the foetus, and an extraction cord for removing the device where the means of emitting acoustic stimulation signals comprises a playback system for an acoustic stimulation signal, complete with control software and a speaker , and a means of wireless communication with the exterior using a remote control to give instructions to the playback system via an RF wireless signal, characterized in that said capsule has an ovoid shape which has a convex outer surface all over it, from which only the extractor cord protrudes, said capsule comprises a cap and a lower section removably attached to the cap by screws and to which the extraction cord is connected; and the acoustic stimulation signal for playback is sent via the RF wireless signal from an external memory that is separate from the device's means of emitting acoustic stimulation signals. a means of emitting acoustic stimulation signals that comprises a capsule enclosing the means of emitting said signals, manufactured in a biocompatible (hygienic) material and with a size and shape suitable for removable insertion in the vagina, in a position adjacent to the foetus, and an extraction cord for removing the device where the means of emitting acoustic stimulation signals comprises a playback system for an acoustic stimulation signal, complete with control software and a speaker , and a means of wireless communication with the exterior using a remote control to give instructions to the playback system via an RF wireless signal, characterized in that said capsule has an ovoid shape which has a convex outer surface all over it, from which only the extractor cord protrudes, said capsule comprises a cap and a lower section removably attached to the cap by screws and to which the extraction cord is connected; and the acoustic stimulation signal for playback is sent via the RF wireless signal from an external memory that is separate from the device's means of emitting acoustic stimulation signals.
A lithium complex oxide secondary particle formed by coagulation of a plurality of primary particles, wherein the Co concentration at a boundary of the primary particle is higher than the Co concentration in the internal part of the primary particle, wherein: the Co concentration of a primary particle at a part of the primary particle which is in contact with the surface of the secondary particle is higher than at a part of the primary particle that is not in contact with the surface of the secondary particle, wherein the primary particle is located at a surface part of the secondary particle; a primary particle located at a surface of the secondary particle has a Co ion concentration gradient toward a center of the primary particle from the surface of the primary particle; a primary particle located at a surface part of the secondary particle has a Co concentration gradient that is reduced by 0.05 to 0.07 mol% per nm toward a center of the primary particle; the lithium complex oxide secondary particle comprises a hexagonal crystal structure; and the secondary particle has a bound energy (P1) of spin-orbit 2p3/2 peak and a bound energy (P2) of 2p1/2 peak in a Co 2p core-level spectrometry obtained through XPS measurement, wherein the P1 and the P2 are ranged respectively in 779eV≤P1≤780eV and 794eV≤P2≤795eV. the Co concentration of a primary particle at a part of the primary particle which is in contact with the surface of the secondary particle is higher than at a part of the primary particle that is not in contact with the surface of the secondary particle, wherein the primary particle is located at a surface part of the secondary particle; a primary particle located at a surface of the secondary particle has a Co ion concentration gradient toward a center of the primary particle from the surface of the primary particle; a primary particle located at a surface part of the secondary particle has a Co concentration gradient that is reduced by 0.05 to 0.07 mol% per nm toward a center of the primary particle; the lithium complex oxide secondary particle comprises a hexagonal crystal structure; and the secondary particle has a bound energy (P1) of spin-orbit 2p3/2 peak and a bound energy (P2) of 2p1/2 peak in a Co 2p core-level spectrometry obtained through XPS measurement, wherein the P1 and the P2 are ranged respectively in 779eV≤P1≤780eV and 794eV≤P2≤795eV.