mhurhangee/patent-ind-claim-en huggingface dataset:
A method for performing whole genome sequencing, the method comprising: providing a cell and reagents within a first droplet, the reagents comprising a lysing reagent and a protease; lysing the cell using the lysing reagent within the first droplet; releasing genomic DNA using the protease within the first droplet by exposing the first droplet to a temperature between 30°C and 60°C; tagmenting, in either the first droplet or a second droplet, the released genomic DNA by: using a transposase at a temperature between 35°C and 55°C, cleaving the released genomic and incorporating adaptor sequences into the released genomic DNA; and filling in one or more gaps in the released genomic DNA created by incorporating the adaptor sequences at a temperature between 40°C and 100°C, optionally using either a reverse transcriptase or DNA polymerase to fill in the one or more gaps; and amplifying, in the second droplet, the tagmented genomic DNA to generate whole genome amplicons. providing a cell and reagents within a first droplet, the reagents comprising a lysing reagent and a protease; lysing the cell using the lysing reagent within the first droplet; releasing genomic DNA using the protease within the first droplet by exposing the first droplet to a temperature between 30°C and 60°C; tagmenting, in either the first droplet or a second droplet, the released genomic DNA by: using a transposase at a temperature between 35°C and 55°C, cleaving the released genomic and incorporating adaptor sequences into the released genomic DNA; and filling in one or more gaps in the released genomic DNA created by incorporating the adaptor sequences at a temperature between 40°C and 100°C, optionally using either a reverse transcriptase or DNA polymerase to fill in the one or more gaps; and using a transposase at a temperature between 35°C and 55°C, cleaving the released genomic and incorporating adaptor sequences into the released genomic DNA; and filling in one or more gaps in the released genomic DNA created by incorporating the adaptor sequences at a temperature between 40°C and 100°C, optionally using either a reverse transcriptase or DNA polymerase to fill in the one or more gaps; and amplifying, in the second droplet, the tagmented genomic DNA to generate whole genome amplicons.
A steel sheet for a hot press formed member having excellent painting adhesion and post-painting corrosion resistance, comprising: a base steel sheet; and an aluminum alloy plated layer having an average content of Fe of 30 wt% or more formed on a surface of the base steel sheet, wherein a ratio of an area occupied by pores to an entire area of a surface layer portion is 10% or more in a cross-section of the surface layer portion observed when the plated layer is cut in a thickness direction thereof, wherein the surface layer portion means a region within 10 μm depth from the surface. a base steel sheet; and an aluminum alloy plated layer having an average content of Fe of 30 wt% or more formed on a surface of the base steel sheet, wherein a ratio of an area occupied by pores to an entire area of a surface layer portion is 10% or more in a cross-section of the surface layer portion observed when the plated layer is cut in a thickness direction thereof, wherein the surface layer portion means a region within 10 μm depth from the surface.
Clip for garments, having a clip body to which a carriage or a hanger is assigned, the clip body has at least one clip jaw to which a clamping member is assigned, and the clip has at least one light-emitting means , characterized in that the at least one light-emitting means is arranged fixedly in or on the clip body , that the at least one light-emitting means is designed to generate a directed and bundled or focused light beam , wherein the light beam is directed such that it shows the operator the direction of insertion of a portion of the garment into the clip jaw , that at least one light-emitting means lights the clip and thereby gives the respective operator an orientation that facilitates the insertion of the respective garment into the clip , by virtue of the at least one light-emitting means being able to indicate the orientation or direction in which the garment should be inserted into the respective clip by the operator or into which one of multiple clips a portion of the garment should be inserted next.
A composition comprising bovine antibodies for use in the orally administered treatment and/or prophylaxis of at least one symptom of Clostridium difficile infection, wherein the antibodies comprise: a) antibodies that bind to a Clostridium difficile Toxin B; and b) antibodies that bind to at least one Clostridium difficile vegetative cell antigen and antibodies that bind to at least one Clostridium difficile endospore antigen, wherein the antibodies are from bovine hyperimmune colostrum, and wherein the antibodies that bind to a Clostridium difficile Toxin B are raised against a vaccine comprising Clostridium difficile strain 630 Toxin B; wherein the antibodies that bind to at least one Clostridium difficile vegetative cell antigen are raised against a vaccine comprising vegetative cells of a KI strain of Clostridium difficile, wherein the antibodies bind to SIpA, and wherein the antibodies that bind to at least one Clostridium difficile endospore antigen are raised against a vaccine comprising endospores of the KI strain of Clostridium difficile. a) antibodies that bind to a Clostridium difficile Toxin B; and b) antibodies that bind to at least one Clostridium difficile vegetative cell antigen and antibodies that bind to at least one Clostridium difficile endospore antigen, wherein the antibodies are from bovine hyperimmune colostrum, and wherein the antibodies that bind to a Clostridium difficile Toxin B are raised against a vaccine comprising Clostridium difficile strain 630 Toxin B; wherein the antibodies that bind to at least one Clostridium difficile vegetative cell antigen are raised against a vaccine comprising vegetative cells of a KI strain of Clostridium difficile, wherein the antibodies bind to SIpA, and wherein the antibodies that bind to at least one Clostridium difficile endospore antigen are raised against a vaccine comprising endospores of the KI strain of Clostridium difficile. wherein the antibodies that bind to a Clostridium difficile Toxin B are raised against a vaccine comprising Clostridium difficile strain 630 Toxin B; wherein the antibodies that bind to at least one Clostridium difficile vegetative cell antigen are raised against a vaccine comprising vegetative cells of a KI strain of Clostridium difficile, wherein the antibodies bind to SIpA, and wherein the antibodies that bind to at least one Clostridium difficile endospore antigen are raised against a vaccine comprising endospores of the KI strain of Clostridium difficile.
A polycarbonate resin composition, comprising at least: a first polycarbonate resin containing 40% by weight or more of a structural unit represented by the following formula ; and a second polycarbonate resin containing less than 40% by weight of the structural unit, wherein a weight ratio of the first polycarbonate resin and the second polycarbonate resin is 55/45 to 99/1 in the first polycarbonate resin/second polycarbonate resin, and the polycarbonate resin composition has two or more glass transition temperatures. a first polycarbonate resin containing 40% by weight or more of a structural unit represented by the following formula ; and a second polycarbonate resin containing less than 40% by weight of the structural unit, wherein a weight ratio of the first polycarbonate resin and the second polycarbonate resin is 55/45 to 99/1 in the first polycarbonate resin/second polycarbonate resin, and the polycarbonate resin composition has two or more glass transition temperatures.
A trainable transceiver unit configured to be installed in a vehicle , comprising: a transceiver circuit configured to receive a control signal from an original transmitter and transmit an activation signal to control operation of a remote electronic system ; and a processing circuit configured to: operate in a training mode to learn a plurality of activation signals for controlling operation of a corresponding remote device of a plurality of remote devices and to associate each of a plurality of predetermined vehicle input patterns received via an existing user input interface with a corresponding activation signal of the plurality of activation signals, receive a vehicle input pattern from the existing vehicle user input interface of the vehicle , identify a remote device from the plurality of remote devices corresponding to the vehicle input pattern, and cause the transceiver circuit to transmit an activation signal for controlling the identified remote device associated with the identified vehicle input pattern. a transceiver circuit configured to receive a control signal from an original transmitter and transmit an activation signal to control operation of a remote electronic system ; and a processing circuit configured to: operate in a training mode to learn a plurality of activation signals for controlling operation of a corresponding remote device of a plurality of remote devices and to associate each of a plurality of predetermined vehicle input patterns received via an existing user input interface with a corresponding activation signal of the plurality of activation signals, receive a vehicle input pattern from the existing vehicle user input interface of the vehicle , identify a remote device from the plurality of remote devices corresponding to the vehicle input pattern, and cause the transceiver circuit to transmit an activation signal for controlling the identified remote device associated with the identified vehicle input pattern. operate in a training mode to learn a plurality of activation signals for controlling operation of a corresponding remote device of a plurality of remote devices and to associate each of a plurality of predetermined vehicle input patterns received via an existing user input interface with a corresponding activation signal of the plurality of activation signals, receive a vehicle input pattern from the existing vehicle user input interface of the vehicle , identify a remote device from the plurality of remote devices corresponding to the vehicle input pattern, and cause the transceiver circuit to transmit an activation signal for controlling the identified remote device associated with the identified vehicle input pattern.
Dynamic transaction card comprising: - a microcontroller within the dynamic transaction card (120, ...); - data storage within the dynamic transaction card (120, ...) storing optimal configurations; wherein: - the microcontroller is configured to: - monitor a plurality of hardware components of the dynamic transaction card (120, ...) in order to determine functionality data and a plurality of software configurations used to derive configuration data; - transmit, via a network , the functionality data and configuration data to a processor that utilizes machine learning to cluster functionality and/or configuration data to process the functionality data and configuration data with respect to a user group segment; - receive, via the network , optimal configuration data from the processor (212, ...), and - apply the optimal configurations to the dynamic transaction card (120, ...). - a microcontroller within the dynamic transaction card (120, ...); - data storage within the dynamic transaction card (120, ...) storing optimal configurations; wherein: - the microcontroller is configured to: - monitor a plurality of hardware components of the dynamic transaction card (120, ...) in order to determine functionality data and a plurality of software configurations used to derive configuration data; - transmit, via a network , the functionality data and configuration data to a processor that utilizes machine learning to cluster functionality and/or configuration data to process the functionality data and configuration data with respect to a user group segment; - receive, via the network , optimal configuration data from the processor (212, ...), and - apply the optimal configurations to the dynamic transaction card (120, ...). - monitor a plurality of hardware components of the dynamic transaction card (120, ...) in order to determine functionality data and a plurality of software configurations used to derive configuration data; - transmit, via a network , the functionality data and configuration data to a processor that utilizes machine learning to cluster functionality and/or configuration data to process the functionality data and configuration data with respect to a user group segment; - receive, via the network , optimal configuration data from the processor (212, ...), and - apply the optimal configurations to the dynamic transaction card (120, ...).
A variable vane comprising: a first vane portion ; and a second vane portion adjacent the first vane portion , the second vane portion comprising a trunnion (94; 128; 148) projecting outward from a radial end (66; 68) of the second vane portion , the second vane portion configured to rotate about a trunnion axis (104; 130) of the trunnion (94; 128; 148) from a first rotational position to a second rotational position, characterised in that : the trunnion (94; 128; 148) is disposed in a slot within which the trunnion (94; 128; 148) is configured to translate between a first slot end corresponding to a first axial position of the second vane portion and a second slot end corresponding to a second axial position of the second vane portion and wherein the second vane portion is configured to rotate about the trunnion axis (104; 130) of the trunnion (94; 128; 148) from the first rotational position to the second rotational position as the trunnion (94; 128; 148) translates from the first slot end to the second slot end . a first vane portion ; and a second vane portion adjacent the first vane portion , the second vane portion comprising a trunnion (94; 128; 148) projecting outward from a radial end (66; 68) of the second vane portion , the second vane portion configured to rotate about a trunnion axis (104; 130) of the trunnion (94; 128; 148) from a first rotational position to a second rotational position, characterised in that : the trunnion (94; 128; 148) is disposed in a slot within which the trunnion (94; 128; 148) is configured to translate between a first slot end corresponding to a first axial position of the second vane portion and a second slot end corresponding to a second axial position of the second vane portion and wherein the second vane portion is configured to rotate about the trunnion axis (104; 130) of the trunnion (94; 128; 148) from the first rotational position to the second rotational position as the trunnion (94; 128; 148) translates from the first slot end to the second slot end .
Winding apparatus comprising: - at least one winding unit shaped to wind yarn around a tube so as to make a reel , - a doffing cart having at least one support arm configured to move said tube and said reel , wherein - the tube comprises: - a tube body having an outer lateral surface suitable for receiving a yarn in winding so as to form the reel , - said tube body being axial-symmetric with respect to an axis of symmetry (S-S), wherein - said tube body is associated with an identification device suitable for uniquely identifying said tube , - wherein said identification device is a radio frequency identification device (RFID) comprising an electronic identification code (EPC), characterised in that the radio frequency identification device (RFID) is a UHF type tag operating at a frequency between 840 and 960 MHz, - the winding apparatus comprises at least one reading device of the identification device of the tube , so as to identify each individual tube or reel , wherein the reading device of the identification device is arranged on said support arm of the doffing cart , so that the identification device can be read when the support arm moves the tube or the reel . - at least one winding unit shaped to wind yarn around a tube so as to make a reel , - a doffing cart having at least one support arm configured to move said tube and said reel , wherein - the tube comprises: - a tube body having an outer lateral surface suitable for receiving a yarn in winding so as to form the reel , - said tube body being axial-symmetric with respect to an axis of symmetry (S-S), wherein - said tube body is associated with an identification device suitable for uniquely identifying said tube , - wherein said identification device is a radio frequency identification device (RFID) comprising an electronic identification code (EPC), characterised in that the radio frequency identification device (RFID) is a UHF type tag operating at a frequency between 840 and 960 MHz, - the winding apparatus comprises at least one reading device of the identification device of the tube , so as to identify each individual tube or reel , - a tube body having an outer lateral surface suitable for receiving a yarn in winding so as to form the reel , - said tube body being axial-symmetric with respect to an axis of symmetry (S-S), wherein - said tube body is associated with an identification device suitable for uniquely identifying said tube , - wherein said identification device is a radio frequency identification device (RFID) comprising an electronic identification code (EPC), characterised in that the radio frequency identification device (RFID) is a UHF type tag operating at a frequency between 840 and 960 MHz, - the winding apparatus comprises at least one reading device of the identification device of the tube , so as to identify each individual tube or reel ,
A method for transmitting an audio stream over a Bluetooth communication link (L1), the method being carried out by a source device and comprising: - receiving an audio codec configuration and a sampling rate of a first audio stream, (AD1), said first audio stream coming from a streaming application running on the source device ; - configuring a first Bluetooth audio stream between the source device and a sink device using the received audio codec configuration and sampling rate; - receiving, by a Bluetooth stack (BS) of the source device, the first audio stream (AD1) from the streaming application , wherein the first audio stream is an encoded audio bit stream sent by the streaming application directly to the Bluetooth stack (BS) of the source device without going through an audio server of the source device and without modification, decoding, encoding, mixing or re-sampling of the first audio stream by the audio server of the source device; - packetizing, by the Bluetooth stack (BS) of the source device, the first audio stream (AD1), received as an encoded audio bit stream directly from the streaming application, into said first Bluetooth audio stream; and - transmitting, by the Bluetooth stack (BS) of the source device, the first Bluetooth audio stream to the sink device over the Bluetooth communication link (L1), the transmitted first Bluetooth audio stream comprising the packetized received first audio stream. - receiving an audio codec configuration and a sampling rate of a first audio stream, (AD1), said first audio stream coming from a streaming application running on the source device ; - configuring a first Bluetooth audio stream between the source device and a sink device using the received audio codec configuration and sampling rate; - receiving, by a Bluetooth stack (BS) of the source device, the first audio stream (AD1) from the streaming application , wherein the first audio stream is an encoded audio bit stream sent by the streaming application directly to the Bluetooth stack (BS) of the source device without going through an audio server of the source device and without modification, decoding, encoding, mixing or re-sampling of the first audio stream by the audio server of the source device; - packetizing, by the Bluetooth stack (BS) of the source device, the first audio stream (AD1), received as an encoded audio bit stream directly from the streaming application, into said first Bluetooth audio stream; and - transmitting, by the Bluetooth stack (BS) of the source device, the first Bluetooth audio stream to the sink device over the Bluetooth communication link (L1), the transmitted first Bluetooth audio stream comprising the packetized received first audio stream.
A method of transmitting a reference signal for generation of channel state information by an evolved Node B, eNB, in a wireless communication system, the method comprising: transmitting a non-precoded first reference signal to a plurality of User Equipments, UEs, ; receiving first channel state information from the plurality of UEs ; selecting candidate UEs to which wireless resources are to be allocated based on the received first channel state information , transmitting precoded second reference signals to the selected candidate UEs , wherein the precoding is determined based on the first channel state information; receiving second channel state information from the candidate UEs , and selecting final UEs, to which wireless resources are to be allocated, from the candidate UEs based on the received second channel state information, and transmitting control information for data reception to the selected final UEs . transmitting a non-precoded first reference signal to a plurality of User Equipments, UEs, ; receiving first channel state information from the plurality of UEs ; selecting candidate UEs to which wireless resources are to be allocated based on the received first channel state information , transmitting precoded second reference signals to the selected candidate UEs , wherein the precoding is determined based on the first channel state information; receiving second channel state information from the candidate UEs , and selecting final UEs, to which wireless resources are to be allocated, from the candidate UEs based on the received second channel state information, and transmitting control information for data reception to the selected final UEs .
Child safety seat for attaching to a motor vehicle seat, comprising a seat region , a back portion , an impact shield , wherein the impact shield comprises an integrated airbag , and/or wherein an airbag is provided in the seat region, an acceleration sensing device for sensing an acceleration of the child safety seat, and a control device which is configured in such a way that the airbag (15, 15a-15c) is deployed on the basis of an acceleration sensed by the acceleration sensing device. comprising a seat region , a back portion , an impact shield , wherein the impact shield comprises an integrated airbag , and/or wherein an airbag is provided in the seat region, an acceleration sensing device for sensing an acceleration of the child safety seat, and a control device which is configured in such a way that the airbag (15, 15a-15c) is deployed on the basis of an acceleration sensed by the acceleration sensing device.