mhurhangee/patent-ind-claim-en huggingface dataset:
A method of transferring a file from a sending wireless device to a receiving wireless device in a short-range wireless system , the method comprising the sending wireless device : receiving , on the sending wireless device , a selection of a file to be sent to a receiving wireless device , the sending wireless device having a paired device list of receiving wireless devices, the receiving wireless devices on the paired device list having previously been paired with the sending wireless device ; in response to receiving the selection of the file to be sent to a receiving wireless device , presenting the paired device list ; on determining that the receiving wireless device is absent from the paired device list searching for and identifying at least one new device and presenting, for user selection, a newly found devices list ; receiving a user selection of a device among the identified at least one new devices as the receiving wireless device; establishing a connection between the sending wireless device and the receiving wireless device ; and sending the file to the receiving wireless device . receiving , on the sending wireless device , a selection of a file to be sent to a receiving wireless device , the sending wireless device having a paired device list of receiving wireless devices, the receiving wireless devices on the paired device list having previously been paired with the sending wireless device ; in response to receiving the selection of the file to be sent to a receiving wireless device , presenting the paired device list ; on determining that the receiving wireless device is absent from the paired device list searching for and identifying at least one new device and presenting, for user selection, a newly found devices list ; receiving a user selection of a device among the identified at least one new devices as the receiving wireless device; establishing a connection between the sending wireless device and the receiving wireless device ; and sending the file to the receiving wireless device .
A pneumatic tire comprising: a tread portion which has, on each side of the tire equator (C), a first tread edge (T1), a second tread edge (T2) positioned axially inside the first tread edge (T1), and a third tread edge (T3) positioned axially inside the second tread edge (T2), wherein the first tread edge (T1), the second tread edge (T2) and the third tread edge (T3) are tread edges occurred when the tire mounted on a regular wheel rim and inflated to a regular pressure is placed on a flat surface at a camber angle of 0 degree under tire loads of 100%, 75% and 50% of a regular tire load, respectively, wherein the tread portion is provided with a main groove which extends continuously in the tire circumferential direction and is located between the third tread edge (T3) and the tire equator (C), so that a shoulder region is defined between the main groove and the first tread edge (T1), characterized in that the shoulder region is provided with a first inclined groove which is inclined with respect to the tire axial direction, and extends so as to intersect with the first tread edge (T1), the second tread edge (T2) and the third tread edge (T3), and the first inclined groove has a depth such that the depth measured at the first tread edge (T1) is smaller than the depth measured at the second tread edge (T2) and smaller than the depth measured at the third tread edge (T3). the first tread edge (T1), the second tread edge (T2) and the third tread edge (T3) are tread edges occurred when the tire mounted on a regular wheel rim and inflated to a regular pressure is placed on a flat surface at a camber angle of 0 degree under tire loads of 100%, 75% and 50% of a regular tire load, respectively, wherein the tread portion is provided with a main groove which extends continuously in the tire circumferential direction and is located between the third tread edge (T3) and the tire equator (C), so that a shoulder region is defined between the main groove and the first tread edge (T1), characterized in that the shoulder region is provided with a first inclined groove which is inclined with respect to the tire axial direction, and extends so as to intersect with the first tread edge (T1), the second tread edge (T2) and the third tread edge (T3), and the first inclined groove has a depth such that the depth measured at the first tread edge (T1) is smaller than the depth measured at the second tread edge (T2) and smaller than the depth measured at the third tread edge (T3). the shoulder region is provided with a first inclined groove which is inclined with respect to the tire axial direction, and extends so as to intersect with the first tread edge (T1), the second tread edge (T2) and the third tread edge (T3), and the first inclined groove has a depth such that the depth measured at the first tread edge (T1) is smaller than the depth measured at the second tread edge (T2) and smaller than the depth measured at the third tread edge (T3).
A superimposed display method comprising: displaying , by a computer, a plurality of edge lines extracted from a shot image of a spatial structure that has been shot by an image shooting apparatus, and a plurality of ridge lines included in a model image represented by model information of the spatial structure, in a manner such that the edge lines and the ridge lines are selectable; accepting , by the computer, a selection instruction from an operator that selects an edge line , and a ridge line that is to be overlaid on the edge line ; and in accordance with the selection instruction, displaying , by the computer, a superimposition image in which the model image has been superimposed onto the shot image in a manner such that the edge line selected by the selection instruction and the ridge line selected by the selection instruction overlap each other. displaying , by a computer, a plurality of edge lines extracted from a shot image of a spatial structure that has been shot by an image shooting apparatus, and a plurality of ridge lines included in a model image represented by model information of the spatial structure, in a manner such that the edge lines and the ridge lines are selectable; accepting , by the computer, a selection instruction from an operator that selects an edge line , and a ridge line that is to be overlaid on the edge line ; and in accordance with the selection instruction, displaying , by the computer, a superimposition image in which the model image has been superimposed onto the shot image in a manner such that the edge line selected by the selection instruction and the ridge line selected by the selection instruction overlap each other.
A resin composition comprising: a modified hydrogenated block copolymer [E] prepared by introducing an alkoxysilyl group into a hydrogenated block copolymer [D], and a crosslinking aid; wherein the hydrogenated block copolymer [D] is obtained by hydrogenating 90% or more of carbon-carbon unsaturated bonds on a main chain and side chains and carbon-carbon unsaturated bonds on aromatic rings in a block copolymer [C] which includes at least two polymer blocks [A] mainly containing a structural unit derived from an aromatic vinyl compound and at least one polymer block [B] mainly containing a structural unit derived from an acyclic conjugated diene compound, wherein a ratio of wA to wB (wA:wB) is 30: 70 to 60:40 when a weight fraction of all the polymer blocks [A] accounting for all the block copolymers is defined as wA and a weight fraction of all the polymer blocks [B] accounting for all the block copolymers is defined as wB. a modified hydrogenated block copolymer [E] prepared by introducing an alkoxysilyl group into a hydrogenated block copolymer [D], and a crosslinking aid; wherein the hydrogenated block copolymer [D] is obtained by hydrogenating 90% or more of carbon-carbon unsaturated bonds on a main chain and side chains and carbon-carbon unsaturated bonds on aromatic rings in a block copolymer [C] which includes at least two polymer blocks [A] mainly containing a structural unit derived from an aromatic vinyl compound and at least one polymer block [B] mainly containing a structural unit derived from an acyclic conjugated diene compound, wherein a ratio of wA to wB (wA:wB) is 30: 70 to 60:40 when a weight fraction of all the polymer blocks [A] accounting for all the block copolymers is defined as wA and a weight fraction of all the polymer blocks [B] accounting for all the block copolymers is defined as wB.
A method for designing a dental appliance intended for a facial mass comprising dental arches, said method comprising the following steps: - acquiring reference points characterizing the facial mass, - determining reference planes of the facial mass from said reference points, - obtaining a volume model of each dental arch of said facial mass, - matching the volume models of the dental arches and said reference planes of the facial mass, - recording the mandibular kinematics, - designing said dental appliance by taking into account the recording of the mandibular kinematics during a plurality of movements of said mandible, characterized : - in that said step of recording the mandibular kinematics is performed by means of an infrared camera, and - in a last step of producing a file usable by numerically-controlled machines able to manufacture a dental appliance. - acquiring reference points characterizing the facial mass, - determining reference planes of the facial mass from said reference points, - obtaining a volume model of each dental arch of said facial mass, - matching the volume models of the dental arches and said reference planes of the facial mass, - recording the mandibular kinematics, - designing said dental appliance by taking into account the recording of the mandibular kinematics during a plurality of movements of said mandible, characterized : - in that said step of recording the mandibular kinematics is performed by means of an infrared camera, and - in a last step of producing a file usable by numerically-controlled machines able to manufacture a dental appliance. - in that said step of recording the mandibular kinematics is performed by means of an infrared camera, and - in a last step of producing a file usable by numerically-controlled machines able to manufacture a dental appliance.
A pest control device comprising: a housing , a sensor configured to detect a targeted biochemical analyte secreted by pests, the sensor being attached to the housing ; and a controller; characterized in that the housing includes (i) an inner chamber , (ii) a plurality of inlets opening into the inner chamber , and (iii) a plurality of inner walls dividing the inner chamber into a plurality of channels , each channel is sized to receive one or more pests.
A method of producing a virus in cell culture comprising at least the steps of: a) providing a population of cells in a cell culture medium, wherein a volumetric power input of 30 W/m 3 or 120 W/m 3 is applied to the cells, until the cell density of the cells reaches at least 8 x 10 6 cells/ml, at least 9 x 10 6 cells/ml, at least 10 x 10 6 cells/ml, at least 11 x 10 6 cells/ml, at least 12 x 10 6 cells/ml, or at least 13 x 10 6 cells/ml, b) infecting the population of cells by: i. inoculating the population with the virus for 1h30 min, wherein the volumetric power input is reduced to 7 W/m 3 and ii. incubating the inoculated population so as to allow the virus to replicate and propagate, wherein the volumetric power input is increased again to 30 W/m 3 or 120 W/m 3 , c) collecting the produced virus, thereby providing a viral harvest, and d) purifying the virus, wherein the viral harvest is clarified by microfiltration and is further purified by at least one step of sucrose gradient ultracentrifugation. a) providing a population of cells in a cell culture medium, wherein a volumetric power input of 30 W/m 3 or 120 W/m 3 is applied to the cells, until the cell density of the cells reaches at least 8 x 10 6 cells/ml, at least 9 x 10 6 cells/ml, at least 10 x 10 6 cells/ml, at least 11 x 10 6 cells/ml, at least 12 x 10 6 cells/ml, or at least 13 x 10 6 cells/ml, b) infecting the population of cells by: i. inoculating the population with the virus for 1h30 min, wherein the volumetric power input is reduced to 7 W/m 3 and ii. incubating the inoculated population so as to allow the virus to replicate and propagate, wherein the volumetric power input is increased again to 30 W/m 3 or 120 W/m 3 , i. inoculating the population with the virus for 1h30 min, wherein the volumetric power input is reduced to 7 W/m 3 and ii. incubating the inoculated population so as to allow the virus to replicate and propagate, wherein the volumetric power input is increased again to 30 W/m 3 or 120 W/m 3 , c) collecting the produced virus, thereby providing a viral harvest, and d) purifying the virus, wherein the viral harvest is clarified by microfiltration and is further purified by at least one step of sucrose gradient ultracentrifugation.
A planar composite comprising as a layer sequence: i. a carrier layer ; ii. a barrier layer ; wherein the layer sequence comprises a first PE blend layer ; wherein the first PE blend layer comprises in a range of from 10 to 50 wt.%, in each case based on the blend, a first LDPEa; and a further LDPEt to the extent of at least 50 wt. %, in each case based on the blend; and wherein the first PE blend layer has a damping factor difference in a range of from -0.3 to -0.6 according to the method specified in the description. i. a carrier layer ; ii. a barrier layer ;
A server of a data center, comprising: a processor and a memory coupled to the processor , wherein the memory comprises instructions, which when executed by the processor , cause the processor to instantiate a virtual network gateway of a cloud-based security service , wherein the cloud-based security service maintains a set of IP address ranges for each of their supported regions to provide distinct public IP address pools for each customer of the cloud-based security service, wherein each public IP address range is associated with one of the supported locations or regions, wherein the instantiated virtual network gateway is configured to: receive a connection request that is associated with a new session for obtaining access to a Software as a Service "SaaS"; determine the customer that sent the connection request and the region from where the connection request originates; select an IP address among the public IP address range associated with said customer and said region as egress IP address; perform a Source Network Address Translation "SNAT" using the selected egress IP address to facilitate an enhanced user experience of locality for the user of the SaaS; and provide secure access to said SaaS using the cloud-based security service. receive a connection request that is associated with a new session for obtaining access to a Software as a Service "SaaS"; determine the customer that sent the connection request and the region from where the connection request originates; select an IP address among the public IP address range associated with said customer and said region as egress IP address; perform a Source Network Address Translation "SNAT" using the selected egress IP address to facilitate an enhanced user experience of locality for the user of the SaaS; and provide secure access to said SaaS using the cloud-based security service.
A handheld system comprising one or more stimulation electrodes and a control subsystem, wherein the control subsystem comprises a programmable memory configured to store a plurality of patterned stimulation waveforms configured to generate a sensed paresthesia, characterized in that at least one of the plurality of patterned stimulation waveforms comprises a pulse shape, maximum amplitude, and pulse width that are concurrently modulated over time, wherein the pulse width is modulated over time according to an exponential function, wherein the exponential function comprises a first phase wherein the pulse width is equal to (PW max -PW min ) (1-e -(t/τ) ), where PW max is the maximum pulse width, PW min is the minimum pulse width, and τ is a time constant.
A method of wireless communication, comprising: determining a first channel state information, CSI, subframe set including a first set of subframes of a frame and a second CSI subframe set including a second set of subframes of the frame, subframes in the first set of subframes being different than subframes in the second set of subframes; determining a CSI reference subframe in one of the first CSI subframe set or the second CSI subframe set; measuring CSI in the CSI reference subframe; and receiving an aperiodic CSI request in a triggering subframe in one of the first CSI subframe set or the second CSI subframe set, the triggering subframe being after the CSI reference subframe, wherein the aperiodic CSI request is for the second CSI subframe set when the CSI reference subframe is in the second CSI subframe set and the triggering subframe is in the first CSI subframe set, and the aperiodic CSI request is for the first CSI subframe set when the CSI reference subframe is in the first CSI subframe set and the triggering subframe is in the second CSI subframe set. determining a first channel state information, CSI, subframe set including a first set of subframes of a frame and a second CSI subframe set including a second set of subframes of the frame, subframes in the first set of subframes being different than subframes in the second set of subframes; determining a CSI reference subframe in one of the first CSI subframe set or the second CSI subframe set; measuring CSI in the CSI reference subframe; and receiving an aperiodic CSI request in a triggering subframe in one of the first CSI subframe set or the second CSI subframe set, the triggering subframe being after the CSI reference subframe, wherein the aperiodic CSI request is for the second CSI subframe set when the CSI reference subframe is in the second CSI subframe set and the triggering subframe is in the first CSI subframe set, and the aperiodic CSI request is for the first CSI subframe set when the CSI reference subframe is in the first CSI subframe set and the triggering subframe is in the second CSI subframe set.
A method of communicating by tracking time varying channels in a multiple access packet based communication network, wherein data symbols comprised in each packet employ forward error correction encoding, the method comprising the steps of: a) initializing a channel estimate reference based on an initial channel estimate derived from a received packet preamble; b) updating the channel estimate reference based on a packet data symbol channel estimate in a coded portion of the current and all previously received data symbols; c) repeating step b) at the arrival of subsequent packet data symbols wherein the method further comprises the steps of: d) for each subsequent received data symbol within step b), performing the steps of: e) demodulating the data symbol using the channel estimate; f) forward error correction decoding the demodulated data symbol; g) remodulating the corrected and demodulated data symbol; and h) updating the channel estimate reference comprising using the remodulated, corrected and demodulated data symbol as training information, wherein the steps of demodulating, remodulating and updating are pipelined with the step of forward error correction decoding. a) initializing a channel estimate reference based on an initial channel estimate derived from a received packet preamble; b) updating the channel estimate reference based on a packet data symbol channel estimate in a coded portion of the current and all previously received data symbols; c) repeating step b) at the arrival of subsequent packet data symbols wherein the method further comprises the steps of: d) for each subsequent received data symbol within step b), performing the steps of: e) demodulating the data symbol using the channel estimate; f) forward error correction decoding the demodulated data symbol; g) remodulating the corrected and demodulated data symbol; and h) updating the channel estimate reference comprising using the remodulated, corrected and demodulated data symbol as training information, wherein the steps of demodulating, remodulating and updating are pipelined with the step of forward error correction decoding. e) demodulating the data symbol using the channel estimate; f) forward error correction decoding the demodulated data symbol; g) remodulating the corrected and demodulated data symbol; and h) updating the channel estimate reference comprising using the remodulated, corrected and demodulated data symbol as training information, wherein the steps of demodulating, remodulating and updating are pipelined with the step of forward error correction decoding.
Process for the production of poly(meth)acrylimide materials, wherein a granulated copolymer of (meth)acrylic acid and (meth)acrylonitrile is prefoamed and imidated by thermal treatment in a single step to provide poly(meth)acrylimide particles, wherein the poly(meth)acrylimide particles are foam-molded to provide a poly(meth)acrylimide molded foam component, wherein the foam-molding comprises the steps: - Optionally coating the poly(meth)acrylimide particles with an adhesion promoter; - Filling the optionally coated poly(meth)acrylimide particles in a forming tool; - Heating the forming tool to a forming temperature of 200 °C to 240°C and pressurizing the forming tool to a forming pressure; - Maintaining the forming temperature for 40 min; - Cooling the forming tool to a cooling temperature to provide a molded foam component; - Deforming the molded foam component. - Optionally coating the poly(meth)acrylimide particles with an adhesion promoter; - Filling the optionally coated poly(meth)acrylimide particles in a forming tool; - Heating the forming tool to a forming temperature of 200 °C to 240°C and pressurizing the forming tool to a forming pressure; - Maintaining the forming temperature for 40 min; - Cooling the forming tool to a cooling temperature to provide a molded foam component; - Deforming the molded foam component.
A hearing protection device comprising: a first earmuff connected to a second earmuff by a connector, wherein each of the first and second earmuffs are configured to receive an ambient sound and provide a dampened ambient sound to a wearer; and a cable, with a cable length, that extends from the first earmuff to the second earmuff, wherein the cable is coupled to the connector by a connection assembly and wherein the connection assembly comprises a plurality of connection mechanisms arranged in a connection plan; . wherein the connection plan comprises the plurality of connection mechanisms arranged alternatingly on a first side of the connector and a second side of the connector. a first earmuff connected to a second earmuff by a connector, wherein each of the first and second earmuffs are configured to receive an ambient sound and provide a dampened ambient sound to a wearer; and a cable, with a cable length, that extends from the first earmuff to the second earmuff, wherein the cable is coupled to the connector by a connection assembly and wherein the connection assembly comprises a plurality of connection mechanisms arranged in a connection plan; . wherein the connection plan comprises the plurality of connection mechanisms arranged alternatingly on a first side of the connector and a second side of the connector.