mhurhangee/patent-ind-claim-en huggingface dataset:
A network node , comprising: processing circuitry configured to: configure an aperiodic sounding reference signal, A-SRS, carrier switching trigger, the A-SRS carrier switching trigger configured to cause a wireless device to perform A-SRS carrier switching from a first carrier to second carrier for transmitting an A-SRS using the second carrier; configure the wireless device to use a preconfigured pattern table of first carriers and second carriers for determining the second carrier from a plurality of carriers for performing A-SRS carrier switching, the A-SRS carrier switching trigger being further configured to trigger the wireless device to use the preconfigured pattern table for performing A-SRS carrier switching, wherein the preconfigured pattern table comprises pairs of first carriers and second carriers associated to an index, and wherein the index is determined based on a subframe number and an index offset; and transmit the configured A-SRS carrier switching trigger to the wireless device , wherein the A-SRS carrier switching trigger is included in a downlink control information, DCI, having a DCI format and wherein the DCI indicates an index in the preconfigured pattern table for performing A-SRS carrier switching, and receive an A-SRS on the second carrier indicated by the A-SRS carrier switching trigger. configure an aperiodic sounding reference signal, A-SRS, carrier switching trigger, the A-SRS carrier switching trigger configured to cause a wireless device to perform A-SRS carrier switching from a first carrier to second carrier for transmitting an A-SRS using the second carrier; configure the wireless device to use a preconfigured pattern table of first carriers and second carriers for determining the second carrier from a plurality of carriers for performing A-SRS carrier switching, the A-SRS carrier switching trigger being further configured to trigger the wireless device to use the preconfigured pattern table for performing A-SRS carrier switching, wherein the preconfigured pattern table comprises pairs of first carriers and second carriers associated to an index, and wherein the index is determined based on a subframe number and an index offset; and transmit the configured A-SRS carrier switching trigger to the wireless device , wherein the A-SRS carrier switching trigger is included in a downlink control information, DCI, having a DCI format and wherein the DCI indicates an index in the preconfigured pattern table for performing A-SRS carrier switching, and receive an A-SRS on the second carrier indicated by the A-SRS carrier switching trigger.
Panel suitable for assembling a waterproof floor or wall covering from a plurality of said panels , wherein the panel has a planar top surface , and a planar bottom surface , the panel having a laminated structure of layers which comprises: - a flexible core layer which is composed of a material which is provided with voids in the form of air pockets, and - a rigid top layer which comprises a support layer that is composed of a material that is virtually devoid of air pockets, and wherein the core layer has a lower density than the top layer , characterized in that the thickness of the core layer is smaller than the thickness of the support layer in a ratio of 0.5 or less, preferably in a ratio between 0.5 and 0.10, in that the material of the core layer comprises a foam material from PE, EVA, PS, PP, PU, or melamine, or alternatively cork and the core layer has a density of 100 up to 300 kg/m 3 ; in that the support layer has a density of at least 1200 kg/m 3 , and in that the support layer is directly or indirectly provided onto the top side of the core layer . the panel having a laminated structure of layers which comprises: - a flexible core layer which is composed of a material which is provided with voids in the form of air pockets, and - a rigid top layer which comprises a support layer that is composed of a material that is virtually devoid of air pockets, and wherein the core layer has a lower density than the top layer , - a flexible core layer which is composed of a material which is provided with voids in the form of air pockets, and - a rigid top layer which comprises a support layer that is composed of a material that is virtually devoid of air pockets, characterized in that the thickness of the core layer is smaller than the thickness of the support layer in a ratio of 0.5 or less, preferably in a ratio between 0.5 and 0.10, in that the material of the core layer comprises a foam material from PE, EVA, PS, PP, PU, or melamine, or alternatively cork and the core layer has a density of 100 up to 300 kg/m 3 ; in that the support layer has a density of at least 1200 kg/m 3 , and in that the support layer is directly or indirectly provided onto the top side of the core layer .
A composite structural material comprising a hydrophobic structural material and a hydrophilic structural material, wherein, the proportion of the hydrophobic structural material to the hydrophilic structural material ranges from 1:0.1 to 1:3, the hydrophilic structural material is comprised of a hydrophilic structural material of high viscosity and a hydrophilic structural material of low viscosity; and the proportion of the hydrophilic structural material of high viscosity to the hydrophilic structural material of low viscosity ranges from 1:1 to 1:3; the hydrophobic structural material is a biodegradable structural material, the biodegradable structural material is selected from the group consisting of carnauba wax, glycerides of C 16 -C 22 fatty acid from at least one of C 16 -C 22 fatty glyceride, C 16 -C 22 fatty diglyceride and C 16 -C 22 fatty monoglyceride; the glyceride of C 16 -C 22 fatty acid is selected from at least one of the following types: glyceryl behenate, diglyceryl behenate, mono glyceryl behenate, and mixtures thereof; the hydrophilic structural material is selected from the group consisting of hydroxypropyl methylcellulose, hydroxy propyl cellulose, hydroxyethyl cellulose, sodium carboxymethylcellulose, sodium alginates, chitin and polyethylene oxide; the proportion used herein is accounted by weight; the "viscosity" used herein refers to the viscosity of the solution obtained by 2 g substance dissolving in 100 mL of distilled water at 20°C; the "low viscosity" used herein refers to that the viscosity of the hydrophilic structural material is 20-2,000 mPa.s; the "high viscosity" used herein refers to that the viscosity of the hydrophilic structural material is 3,000-500,000 mPa.s.
An anatomical model simulator system , comprising: an anatomical model assembly , comprising: an anatomical model shell having a plurality of apertures defined therein, the anatomical shell comprising an inside surface ; and a plurality of electrodes, wherein each electrode of the plurality of electrodes is disposed within one of the plurality of apertures , and wherein each electrode comprises at least one of carbon black and silver epoxy; and a model control system , comprising: a power supply configured to deliver electrical energy to the plurality of electrodes; and a controller configured to control the delivery of the electrical energy to the plurality of electrodes, characterized in that an end surface of each electrode of the plurality of electrodes is recessed with respect to the inside surface of the anatomical shell . an anatomical model assembly , comprising: an anatomical model shell having a plurality of apertures defined therein, the anatomical shell comprising an inside surface ; and a plurality of electrodes, wherein each electrode of the plurality of electrodes is disposed within one of the plurality of apertures , and wherein each electrode comprises at least one of carbon black and silver epoxy; and an anatomical model shell having a plurality of apertures defined therein, the anatomical shell comprising an inside surface ; and a plurality of electrodes, wherein each electrode of the plurality of electrodes is disposed within one of the plurality of apertures , and wherein each electrode comprises at least one of carbon black and silver epoxy; and a model control system , comprising: a power supply configured to deliver electrical energy to the plurality of electrodes; and a controller configured to control the delivery of the electrical energy to the plurality of electrodes, characterized in that an end surface of each electrode of the plurality of electrodes is recessed with respect to the inside surface of the anatomical shell . a power supply configured to deliver electrical energy to the plurality of electrodes; and a controller configured to control the delivery of the electrical energy to the plurality of electrodes, characterized in that an end surface of each electrode of the plurality of electrodes is recessed with respect to the inside surface of the anatomical shell .
Method for establishing a short-range wireless connection between a mobile device and a vehicle , comprising: establishing a first communication channel between the mobile device and at least one controller of the vehicle using a first communication protocol; negotiating a plurality of configuration parameters between the mobile device and the at least one controller of the vehicle via the first communication channel ; and establishing a second communication channel between the mobile device and at least one transceiver unit of the vehicle using a second communication protocol based on the negotiated plurality of configuration parameters, characterised in that : the negotiated plurality of configuration parameters comprises a session multiplier parameter for achieving a supported Ranging Block duration, K F k , a supported Slot duration parameter set, { N Chap_Per_Slot } SP or { N Chap_per_Slot } Car , representing a list of slot durations respectively supported by the mobile device and the vehicle, and a shortest common Slot duration parameter, N Chap _ per _ Slot k . establishing a first communication channel between the mobile device and at least one controller of the vehicle using a first communication protocol; negotiating a plurality of configuration parameters between the mobile device and the at least one controller of the vehicle via the first communication channel ; and establishing a second communication channel between the mobile device and at least one transceiver unit of the vehicle using a second communication protocol based on the negotiated plurality of configuration parameters, characterised in that : the negotiated plurality of configuration parameters comprises a session multiplier parameter for achieving a supported Ranging Block duration, K F k , a supported Slot duration parameter set, { N Chap_Per_Slot } SP or { N Chap_per_Slot } Car , representing a list of slot durations respectively supported by the mobile device and the vehicle, and a shortest common Slot duration parameter, N Chap _ per _ Slot k .
A multi-time-segment-based resource indication method, applied to a wireless local area network, WLAN, wherein the method comprises: sending, by an access point, a trigger frame, wherein the trigger frame carries a plurality of time segment information fields, and each of the plurality of time segment information fields comprises common information and station-specific information of one or more stations; receiving, by the access point, a multi-time-segment uplink physical protocol data unit, PPDU, wherein the multi-time-segment uplink PPDU comprises uplink data sent by a plurality of stations in a plurality of time segments; and sending, by the access point, an acknowledgement frame. sending, by an access point, a trigger frame, wherein the trigger frame carries a plurality of time segment information fields, and each of the plurality of time segment information fields comprises common information and station-specific information of one or more stations; receiving, by the access point, a multi-time-segment uplink physical protocol data unit, PPDU, wherein the multi-time-segment uplink PPDU comprises uplink data sent by a plurality of stations in a plurality of time segments; and sending, by the access point, an acknowledgement frame.
Cooling bar for cooling rolled stock which is moved in a transporting direction , the cooling bar comprising - a spray chamber which can be filled with a coolant, - a distribution chamber for intermediate storage of the coolant, which is connected to the spray chamber by at least one through-opening for filling the spray chamber with coolant from the distribution chamber , - wherein each through-opening between the distribution chamber and the spray chamber is arranged on an upper side of the distribution chamber , - and a number of full-jet nozzles , which can be fed coolant from the spray chamber and by which in each case a coolant jet of a coolant with a virtually constant jet diameter can be discharged in a discharging direction to the rolled stock , - wherein each full-jet nozzle has a tubular nozzle body , which has an open end , arranged in an upper region of the cooling bar within the spray chamber , for feeding coolant into the full-jet nozzle , - wherein the open end is arranged above the height of the upper side of the distribution chamber . - a spray chamber which can be filled with a coolant, - a distribution chamber for intermediate storage of the coolant, which is connected to the spray chamber by at least one through-opening for filling the spray chamber with coolant from the distribution chamber , - wherein each through-opening between the distribution chamber and the spray chamber is arranged on an upper side of the distribution chamber , - and a number of full-jet nozzles , which can be fed coolant from the spray chamber and by which in each case a coolant jet of a coolant with a virtually constant jet diameter can be discharged in a discharging direction to the rolled stock , - wherein each full-jet nozzle has a tubular nozzle body , which has an open end , arranged in an upper region of the cooling bar within the spray chamber , for feeding coolant into the full-jet nozzle , - wherein the open end is arranged above the height of the upper side of the distribution chamber .
A process for separating aggregated proteins from monomeric proteins in a biological solution, the process comprising: providing at least one filter element having a contacting surface, wherein the filter element comprises filter media comprising: a porous substrate; and disposed on the porous substrate, a polymer comprising a hydrocarbon backbone and a plurality of pendant groups attached to the hydrocarbon backbone, wherein each of a first plurality of pendant groups comprises: at least one acidic group or salt thereof; and a spacer group that directly links the at least one acidic group or salt thereof to the hydrocarbon backbone by a chain of at least 6 catenated atoms; and allowing an initial biological solution to contact the contacting surface of the filter element under conditions effective to separate the aggregated proteins from the monomeric proteins such that a final biological solution includes purified monomeric proteins. providing at least one filter element having a contacting surface, wherein the filter element comprises filter media comprising: a porous substrate; and disposed on the porous substrate, a polymer comprising a hydrocarbon backbone and a plurality of pendant groups attached to the hydrocarbon backbone, wherein each of a first plurality of pendant groups comprises: at least one acidic group or salt thereof; and a spacer group that directly links the at least one acidic group or salt thereof to the hydrocarbon backbone by a chain of at least 6 catenated atoms; and a porous substrate; and disposed on the porous substrate, a polymer comprising a hydrocarbon backbone and a plurality of pendant groups attached to the hydrocarbon backbone, wherein each of a first plurality of pendant groups comprises: at least one acidic group or salt thereof; and a spacer group that directly links the at least one acidic group or salt thereof to the hydrocarbon backbone by a chain of at least 6 catenated atoms; and at least one acidic group or salt thereof; and a spacer group that directly links the at least one acidic group or salt thereof to the hydrocarbon backbone by a chain of at least 6 catenated atoms; and allowing an initial biological solution to contact the contacting surface of the filter element under conditions effective to separate the aggregated proteins from the monomeric proteins such that a final biological solution includes purified monomeric proteins.
A pneumatic tire that rotates about a center axis (AX), comprising: a tread portion ; and a stud pin including a body disposed in a hole provided in the tread portion and a tip having a rectangular shape, the tip protruding outward from a ground contact surface of the tread portion ; the stud pin being disposed such that a tip imaginary line (Lt) is inclined with respect to a reference imaginary line (Lr); characterized in that an angle α formed by the tip imaginary line (Lt) and the reference imaginary line (Lr) is not less than 10° and not greater than 50°, wherein the tip imaginary line (Lt) is defined as a straight line parallel to a longest straight edge among the edges of the tip , and the reference imaginary line (Lr) is defined as a straight line parallel to the center axis (AX) of the pneumatic tire . a tread portion ; and a stud pin including a body disposed in a hole provided in the tread portion and a tip having a rectangular shape, the tip protruding outward from a ground contact surface of the tread portion ; the stud pin being disposed such that a tip imaginary line (Lt) is inclined with respect to a reference imaginary line (Lr); characterized in that an angle α formed by the tip imaginary line (Lt) and the reference imaginary line (Lr) is not less than 10° and not greater than 50°, wherein the tip imaginary line (Lt) is defined as a straight line parallel to a longest straight edge among the edges of the tip , and the reference imaginary line (Lr) is defined as a straight line parallel to the center axis (AX) of the pneumatic tire .
A rotary power tool comprising: a housing ; a spindle defining a working axis ; a motor supported by the housing and operable to drive the spindle ; a handle (282 movably coupled to the housing , wherein the handle includes an upper portion and a lower portion ; a vibration isolating assembly disposed between the housing and the handle for attenuating vibration transmitted from the housing to the handle , wherein the vibration isolating assembly includes an upper joint coupling the upper portion of the handle to the housing and a lower joint coupling the lower portion of the handle to the housing ; a battery pack removably coupled directly to the handle and configured to provide power to the motor ; and a battery receptacle located on the handle adjacent the lower portion , the battery receptacle configured to receive the battery pack when the battery pack is coupled to the handle , characterised in that the battery receptacle defines an insertion axis along which the battery pack is slidable that is oriented substantially parallel to the working axis of the spindle . a housing ; a spindle defining a working axis ; a motor supported by the housing and operable to drive the spindle ; a handle (282 movably coupled to the housing , wherein the handle includes an upper portion and a lower portion ; a vibration isolating assembly disposed between the housing and the handle for attenuating vibration transmitted from the housing to the handle , wherein the vibration isolating assembly includes an upper joint coupling the upper portion of the handle to the housing and a lower joint coupling the lower portion of the handle to the housing ; a battery pack removably coupled directly to the handle and configured to provide power to the motor ; and a battery receptacle located on the handle adjacent the lower portion , the battery receptacle configured to receive the battery pack when the battery pack is coupled to the handle , characterised in that the battery receptacle defines an insertion axis along which the battery pack is slidable that is oriented substantially parallel to the working axis of the spindle .
An estimation device comprising a processor and a plurality of ultrasonic sensors , the plurality of ultrasonic sensors being arranged in a first direction (X), the plurality of ultrasonic sensors transmitting an ultrasonic wave (US) in a second direction (Z) toward a weld portion and receiving a reflected wave (RW), the second direction crossing the first direction (X), the processor being configured to accept information acquired by each of the plurality of ultrasonic sensors , characterized in that the processor is configured to estimate a range (Ra1) of the weld portion in the second direction based on an intensity distribution of the reflected wave in the second direction, the intensity distribution of the reflected wave (RW) in the second direction (Z) being generated by summing intensities of the reflected wave in the first direction (X) for at least part of the plurality of points in the second direction, the processor is configured to calculate a centroid position (C1) of an intensity distribution of the reflected wave in the first direction (X) for each of a plurality of points in the second direction, and to estimate a range (Ra2) of the weld portion in the first direction (X) based on a plurality of the centroid positions (C1-C350). the plurality of ultrasonic sensors being arranged in a first direction (X), the plurality of ultrasonic sensors transmitting an ultrasonic wave (US) in a second direction (Z) toward a weld portion and receiving a reflected wave (RW), the second direction crossing the first direction (X), the processor being configured to accept information acquired by each of the plurality of ultrasonic sensors , characterized in that the processor is configured to estimate a range (Ra1) of the weld portion in the second direction based on an intensity distribution of the reflected wave in the second direction, the intensity distribution of the reflected wave (RW) in the second direction (Z) being generated by summing intensities of the reflected wave in the first direction (X) for at least part of the plurality of points in the second direction, the processor is configured to calculate a centroid position (C1) of an intensity distribution of the reflected wave in the first direction (X) for each of a plurality of points in the second direction, and to estimate a range (Ra2) of the weld portion in the first direction (X) based on a plurality of the centroid positions (C1-C350).