mhurhangee/patent-ind-claim-en huggingface dataset:
A Controller Area Network, CAN, transmitter comprising: an oscillator configured to generate a clock signal having n equally spaced phases (clk_0, clk_120, clk_240), where n is an integer greater than 1; n Digital to Analog Converters, DACs (102 1-3 , 302, 402), each DAC having an input connected to one of the n phases of the clock signal and to a common data input line , each DAC being configured to provide an output signal that transitions between first and second output levels in the same M discrete steps upon being triggered by a transition of a signal on the data input line synchronized with the one of the n phases of the clock signal; and an output amplifier stage configured to provide a differential CAN output signal from a combination of output signals from each of the n DACs (102 1-3 , 302, 402), the output amplifier stage comprising first and second output transistors configured to provide respective first and second output levels (CANH, CANL) of the differential CAN output signal, wherein each DAC comprises a first high side DAC (402 1 ) and a second low side DAC (402 2 ), the first high side DAC (402 1 ) configured to provide an output to the first output transistor to drive a first high level (CANH) of the differential CAN output signal and the second low side DAC (402 2 ) configured to provide an output to the second output transistor to drive a second low level (CANL) of the differential CAN output signal. an oscillator configured to generate a clock signal having n equally spaced phases (clk_0, clk_120, clk_240), where n is an integer greater than 1; n Digital to Analog Converters, DACs (102 1-3 , 302, 402), each DAC having an input connected to one of the n phases of the clock signal and to a common data input line , each DAC being configured to provide an output signal that transitions between first and second output levels in the same M discrete steps upon being triggered by a transition of a signal on the data input line synchronized with the one of the n phases of the clock signal; and an output amplifier stage configured to provide a differential CAN output signal from a combination of output signals from each of the n DACs (102 1-3 , 302, 402), the output amplifier stage comprising first and second output transistors configured to provide respective first and second output levels (CANH, CANL) of the differential CAN output signal, wherein each DAC comprises a first high side DAC (402 1 ) and a second low side DAC (402 2 ), the first high side DAC (402 1 ) configured to provide an output to the first output transistor to drive a first high level (CANH) of the differential CAN output signal and the second low side DAC (402 2 ) configured to provide an output to the second output transistor to drive a second low level (CANL) of the differential CAN output signal.
Method for corrosion protection in bolt holes of a wind turbine, wherein a sleeve made of a corrosion resistant metallic material is inserted into the bolt hole , characterized in that the sleeve is at least partly expanded using an expander tool to be fixed in the bolt hole , and is in particular covering the whole length of the bolt hole wall .
Polypeptide comprising an amino acid sequence, said amino acid sequence exhibiting i) at least 90% sequence identity with the sequence of SEQ ID NO: 1, wherein residue X1 of SEQ ID NO: 1 may be absent or any amino acid, and each residue of residues X14, X23, X50, X82, X122, X149, X154, X160, X167, X179, X180, X186, X206, X212, X224, X230, and X232 of SEQ ID NO: 1 may be any amino acid; and ii) at least one of the residues corresponding to position X14, X23 and X50 of SEQ ID NO: 1 is S; wherein the polypeptide does neither comprise the amino acid sequence of SEQ ID NO: 2, nor SEQ ID NO:3 nor SEQ ID NO: 4, and wherein the polypeptide degrades the peptidoglycan of Pseudomonas and/or Campylobacter bacteria. i) at least 90% sequence identity with the sequence of SEQ ID NO: 1, wherein residue X1 of SEQ ID NO: 1 may be absent or any amino acid, and each residue of residues X14, X23, X50, X82, X122, X149, X154, X160, X167, X179, X180, X186, X206, X212, X224, X230, and X232 of SEQ ID NO: 1 may be any amino acid; and ii) at least one of the residues corresponding to position X14, X23 and X50 of SEQ ID NO: 1 is S;
A shape-formable apparatus comprising: a first state in which the apparatus is formable, such that the apparatus can be formed into a desired shape; a second state in which the apparatus has the desired shape and is substantially less formable than in the first state; an envelope defining a chamber , the envelope formed of a gas-impermeable material, and the apparatus is in the second state when vacuum is applied to the chamber; a port positioned to fluidly couple the chamber with ambience; and a fibrous material positioned in the chamber, wherein the fibrous material is substantially less formable when the apparatus is in the second state than when the apparatus is in the first state, and a locking sheet positioned adjacent the fibrous material in the chamber, the locking sheet comprising a major surface (S), and wherein at least a portion of the locking sheet is patterned to include solid regions and open regions, the solid regions being movable with respect to one another within the major surface; wherein the fibrous material includes at least one of: a fiber having portions movable relative to one another within the fibrous material, at least when the apparatus is in the first state, and a plurality of fibers that are movable relative to one another within the fibrous material, at least when the apparatus is in the first state. a first state in which the apparatus is formable, such that the apparatus can be formed into a desired shape; a second state in which the apparatus has the desired shape and is substantially less formable than in the first state; an envelope defining a chamber , the envelope formed of a gas-impermeable material, and the apparatus is in the second state when vacuum is applied to the chamber; a port positioned to fluidly couple the chamber with ambience; and a fibrous material positioned in the chamber, wherein the fibrous material is substantially less formable when the apparatus is in the second state than when the apparatus is in the first state, and a locking sheet positioned adjacent the fibrous material in the chamber, the locking sheet comprising a major surface (S), and wherein at least a portion of the locking sheet is patterned to include solid regions and open regions, the solid regions being movable with respect to one another within the major surface; wherein the fibrous material includes at least one of: a fiber having portions movable relative to one another within the fibrous material, at least when the apparatus is in the first state, and a plurality of fibers that are movable relative to one another within the fibrous material, at least when the apparatus is in the first state. a fiber having portions movable relative to one another within the fibrous material, at least when the apparatus is in the first state, and a plurality of fibers that are movable relative to one another within the fibrous material, at least when the apparatus is in the first state.
A flip chip light emitting diode device comprising: a plurality of nanowires or nanopyramids grown on a graphitic substrate , said nanowires or nanopyramids having a p-n or p-i-n junction, a first electrode in electrical contact with said graphitic substrate; a metallic light reflective layer in contact with a second electrode consisting of a graphitic top contact layer in contact with the top of said nanowires or nanopyramids, wherein said nanowires or nanopyramids consist of at least one optionally doped group III-V compound semiconductor; and wherein in use any light is emitted from said device in a direction substantially opposite to said metallic light reflective layer. a plurality of nanowires or nanopyramids grown on a graphitic substrate , said nanowires or nanopyramids having a p-n or p-i-n junction, a first electrode in electrical contact with said graphitic substrate; a metallic light reflective layer in contact with a second electrode consisting of a graphitic top contact layer in contact with the top of said nanowires or nanopyramids, wherein said nanowires or nanopyramids consist of at least one optionally doped group III-V compound semiconductor; and wherein in use any light is emitted from said device in a direction substantially opposite to said metallic light reflective layer.
Use of a cell-free nucleosome as a biomarker in a fecal sample for the diagnosis or detection of colorectal cancer, a colorectal adenoma or a polyp.
Device for dynamic weighing, comprising: a plurality of weighing sensors constituting a weighing sensor network, wherein one weighing sensor in the weighing sensor network is selected as a primary node, and, as the primary node, is configured to either perform a time synchronization with other nodes in the weighing sensor network by way of a time synchronization protocol, or provide a time, relative to which the other weighing sensors synchronize a time offset; wherein each weighing sensor is configured to continuously packetise and send a plurality of consecutive pieces of weighing information to a terminal apparatus; and wherein the terminal apparatus is configured to calculate a weighed weight result of the dynamic weighing device at the same moment based on time information in the weighing information obtained through depacketisation characterised in that the plurality of weighing sensors is constituting a weighing sensor network via Ethernet and the primary node is configured to perform a time synchronization with the other nodes in the network, and to update the time offsets of the other nodes relative to the time of the primary node at a preset time interval; or the other weighing sensors are configured to perform a time verification with the primary node, and to update the time offsets of the other nodes relative to the time of the primary node at a preset time interval. a plurality of weighing sensors constituting a weighing sensor network, wherein one weighing sensor in the weighing sensor network is selected as a primary node, and, as the primary node, is configured to either perform a time synchronization with other nodes in the weighing sensor network by way of a time synchronization protocol, or provide a time, relative to which the other weighing sensors synchronize a time offset; wherein each weighing sensor is configured to continuously packetise and send a plurality of consecutive pieces of weighing information to a terminal apparatus; and wherein the terminal apparatus is configured to calculate a weighed weight result of the dynamic weighing device at the same moment based on time information in the weighing information obtained through depacketisation characterised in that the plurality of weighing sensors is constituting a weighing sensor network via Ethernet and the primary node is configured to perform a time synchronization with the other nodes in the network, and to update the time offsets of the other nodes relative to the time of the primary node at a preset time interval; or the other weighing sensors are configured to perform a time verification with the primary node, and to update the time offsets of the other nodes relative to the time of the primary node at a preset time interval.
A wind turbine comprising a single rotor blade hub and three wind turbine rotor blades , wherein each of the three wind turbine rotor blades is at least of a three-part configuration and has at least a rotor blade root region , a central region and a rotor blade tip region , wherein a respective end of the rotor blade root region is fixed non-rotatably to the rotor blade hub , wherein there is respectively provided a first pitch bearing between a second end of the rotor blade root region and a first end of the central region of one of the three wind turbine rotor blades , characterized in that there is respectively provided a second pitch bearing between a second end of the central region and a first end of the rotor blade tip region of one of the three wind turbine rotor blades . a single rotor blade hub and three wind turbine rotor blades , wherein each of the three wind turbine rotor blades is at least of a three-part configuration and has at least a rotor blade root region , a central region and a rotor blade tip region , wherein a respective end of the rotor blade root region is fixed non-rotatably to the rotor blade hub , wherein there is respectively provided a first pitch bearing between a second end of the rotor blade root region and a first end of the central region of one of the three wind turbine rotor blades , characterized in that there is respectively provided a second pitch bearing between a second end of the central region and a first end of the rotor blade tip region of one of the three wind turbine rotor blades .
Apparatus for a spinning room preparation machine or a machine in the ginning process for the detection and separation of foreign matter in or between fibre material, especially cotton, having a fibre transport channel for a fibre material flow, with which there is associated in transport direction one after the other a sensor system for detecting the foreign matter and at least one device for separating the foreign matter, the latter device having a device for generating a blowing air flow which runs in the direction towards the fibre material and discharges the fibre material flow with the foreign parts completely or partly out of the fibre transport channel , wherein the device for generating the blowing air flow having a plurality of blowing nozzles (32a to 32n) which are arranged across the width of the fibre transport channel and are connected to a common compressed-air line and to valves (36a to 36n), the blowing nozzles (32a to 32n) being connected via the valves (36a to 36n) to the common compressed-air line , which can be connected to a compressed-air source , characterised in that a flow sensor is associated with the apparatus, which flow sensor is able to detect the flow of air through the common compressed-air line , the flow sensor being arranged in the common compressed-air line .
A method of downloading a profile in a universal integrated circuit card, UICC, of a user equipment, UE, in a communication system, the method comprising: transmitting, by the UE , to an enhanced subscriber identity module, eSIM, server , first information for a download request process of the profile; receiving, by the UE , based on the first information, from the eSIM server , address information of a web server processing a download request of the profile; transmitting, by the UE , to the web server , second information to initiate a call, in the web server , for a profile download function of the UE , wherein the profile download function is related to a download of the profile; receiving, by the UE , from the web server , profile related information in response to the transmission of the second information, wherein the profile related information includes identification information of a profile server ; and downloading, by the UE , based on the profile related information, the profile by directly connecting to the profile server providing the profile. transmitting, by the UE , to an enhanced subscriber identity module, eSIM, server , first information for a download request process of the profile; receiving, by the UE , based on the first information, from the eSIM server , address information of a web server processing a download request of the profile; transmitting, by the UE , to the web server , second information to initiate a call, in the web server , for a profile download function of the UE , wherein the profile download function is related to a download of the profile; receiving, by the UE , from the web server , profile related information in response to the transmission of the second information, wherein the profile related information includes identification information of a profile server ; and downloading, by the UE , based on the profile related information, the profile by directly connecting to the profile server providing the profile.
A communication apparatus to mitigate transmit to receive leakage in on-frequency full-duplex systems having a plurality of antenna elements, the communication apparatus comprising: a panel having transceiver integrated circuits, ICs, , the panel comprising: a plurality of transceiver integrated circuits, ICs, each transceiver IC having a row of transmit circuits and a row of receive circuits , the transceiver ICs being arranged so that a row of receive circuits on one transceiver IC is adjacent to a row of receive circuits on an adjacent transceiver IC .
A robot suitable for travel through a pipeline comprising: at least one tracked drive means and at least one roller means that can swivel about an axis substantially normal to a rolling axis thereof, wherein said at least one tracked drive means and at least one roller means are provided with magnetic means for generating a magnetic adhesion force between the robot and an internal wall of the pipeline.
A fuel injector comprising a high pressure circuit, a low pressure circuit, an actuator located within the low pressure circuit, and an inverter/amplifier assembly located within the high pressure circuit and coupled to a nozzle needle ; wherein the high pressure circuit and the low pressure circuit are separated by a separating assembly comprising a separating member and a connecting pin located in a through bore of the separating member , the connecting pin being coupled to the actuator and to the inverter/amplifier assembly ; wherein the actuator is arranged to selectively apply a force to the inverter/amplifier assembly , via the connecting pin , thereby to initiate an injection event; wherein the separating assembly further comprises a sleeve located around part of the connecting pin , such that the through bore and the connecting pin are separated by the sleeve , the connecting pin being movable within the sleeve and, a sub-assembly comprising the sleeve and connecting pin being inserted in a press fit into the through bore , and wherein a first shoulder surface is provided on a projection of the sleeve , and a second shoulder surface is provided at a junction of a first through bore section remote from the low pressure circuit and a second through bore section between the first through bore section and the low pressure circuit, the second through bore section being of a smaller diameter than the first through bore section , and wherein the first shoulder surface is arranged for complementary abutment with the second shoulder surface thereby providing a restraining means. wherein the high pressure circuit and the low pressure circuit are separated by a separating assembly comprising a separating member and a connecting pin located in a through bore of the separating member , the connecting pin being coupled to the actuator and to the inverter/amplifier assembly ; wherein the actuator is arranged to selectively apply a force to the inverter/amplifier assembly , via the connecting pin , thereby to initiate an injection event; wherein the separating assembly further comprises a sleeve located around part of the connecting pin , such that the through bore and the connecting pin are separated by the sleeve , the connecting pin being movable within the sleeve and, a sub-assembly comprising the sleeve and connecting pin being inserted in a press fit into the through bore , and wherein a first shoulder surface is provided on a projection of the sleeve , and a second shoulder surface is provided at a junction of a first through bore section remote from the low pressure circuit and a second through bore section between the first through bore section and the low pressure circuit, the second through bore section being of a smaller diameter than the first through bore section , and wherein the first shoulder surface is arranged for complementary abutment with the second shoulder surface thereby providing a restraining means.
A method for transmission, characterized by comprising: based on a channel delay spread for transmitting data to a receiver, determining (4-1) whether a fixed length for cyclic prefixes (CP) is long enough to avoid Inter-Symbol Interference, ISI, between consecutive symbols; upon determining that the fixed length for cyclic prefixes (CP) is not long enough to avoid ISI between consecutive symbols, transmitting (4-3) data to a receiver by transmitting symbols such that each symbol is preceded by a cyclic prefix (CP) of the fixed length and the symbol includes enough zero padding to avoid ISI between consecutive symbols, wherein the zero padding comprises zero tail without any zero head, and the zero tail comprises a minimum amount of zero tail so that a length of the zero tail in addition to the fixed length for cyclic prefixes (CP) is greater than or equal to the channel delay spread. based on a channel delay spread for transmitting data to a receiver, determining (4-1) whether a fixed length for cyclic prefixes (CP) is long enough to avoid Inter-Symbol Interference, ISI, between consecutive symbols; upon determining that the fixed length for cyclic prefixes (CP) is not long enough to avoid ISI between consecutive symbols, transmitting (4-3) data to a receiver by transmitting symbols such that each symbol is preceded by a cyclic prefix (CP) of the fixed length and the symbol includes enough zero padding to avoid ISI between consecutive symbols, wherein the zero padding comprises zero tail without any zero head, and the zero tail comprises a minimum amount of zero tail so that a length of the zero tail in addition to the fixed length for cyclic prefixes (CP) is greater than or equal to the channel delay spread.