mhurhangee/ep-ind-claims huggingface dataset:
A housing for a portable electronic device comprising: a first half shell having a first transparent curved portion configured to curve from a front face of the housing to a first side face of the housing, and a second transparent curved portion configured to curve from the front face of the housing to a second side face of the housing; and a second half shell having a third transparent curved portion configured to curve from a rear face of the housing to the first side face of the housing; and a fourth transparent curved portion configured to curve from the rear face of the housing to the second side face of the housing, wherein the housing has a length, a width and a depth in which the length is greater than the width and the depth, and the housing has an opening, at least partially defined by an outer rim (30, 32) of the first, second, third and fourth transparent curved portions, at one end of the length. a first half shell having a first transparent curved portion configured to curve from a front face of the housing to a first side face of the housing, and a second transparent curved portion configured to curve from the front face of the housing to a second side face of the housing; and a second half shell having a third transparent curved portion configured to curve from a rear face of the housing to the first side face of the housing; and a fourth transparent curved portion configured to curve from the rear face of the housing to the second side face of the housing, wherein the housing has a length, a width and a depth in which the length is greater than the width and the depth, and the housing has an opening, at least partially defined by an outer rim (30, 32) of the first, second, third and fourth transparent curved portions, at one end of the length.
Batch process for the manufacture of oxidized starch by contacting an aqueous medium comprising already oxidized starch with native starch and with at least one oxidizing agent which is a peroxide compound, and by reacting them at a temperature below the gelatinization temperature of the native starch and of the oxidized starch, the reaction being conducted in the presence of a homogeneous manganese-based complex coordination catalyst.
A goods storage area, said storage area including a base, a roof, side walls (16,18) and opposing end walls (8,10), one of said end walls including an access opening therein and a further floor is provided which is vertically spaced from, and located between, the base and the roof, and wherein the access opening is provided with closure means which comprise first and second panels (44,46), characterised in that said panels are independently moveable so as to achieve a first configuration in which the access opening is closed, a second configuration in which the panels (44,46) at least partially overlap to allow access to the storage area defined between the base and the further floor, and a third configuration in which the panels (44,46) at least partially overlap to allow access to the storage area defined between the further floor and the roof.
A composition for use as a shampoo for treatment or removal of blood-sucking insects, comprising: between 10-60% of water by weight based upon the weight of the total composition; between 5-50% of a diethanolamide mixture by weight based upon the weight of the total composition, wherein the diethanolamide mixture comprises an amide content that is at least 80% by weight based upon the weight of the diethanolamide mixture, an at least one esterified fatty acid content that is between 8-15% by weight based upon the weight of the diethanolamide mixture, and a free amine content that is 1.5% or less by weight based upon the weight of the diethanolamide mixture; between 5-50% of polyethylene glycol by weight based upon the weight of the total composition; between 5-50% of at least one surfactant by weight based upon the weight of the total composition; between 5-35% of at least one alcohol by weight based upon the weight of the total composition; between 0.1-5% of at least one preservative by weight based upon the weight of the total composition; and at least one buffering agent, wherein the diethanolamide mixture is a coconut diethanolamide mixture, and wherein the at least one esterified fatty acid of the diethanolamide mixture comprises at least one esterified fatty acid from a coconut oil, and wherein the at least one esterified fatty acid is selected from any one of a fatty acid methyl ester, fatty acid ethyl ester, a fatty acid propyl ester, a fatty acid isopropyl ester, and a blend of one or more of a fatty acid methyl ester, a fatty acid ethyl ester, a fatty acid propyl ester, and a fatty acid isopropyl ester. between 10-60% of water by weight based upon the weight of the total composition; between 5-50% of a diethanolamide mixture by weight based upon the weight of the total composition, wherein the diethanolamide mixture comprises an amide content that is at least 80% by weight based upon the weight of the diethanolamide mixture, an at least one esterified fatty acid content that is between 8-15% by weight based upon the weight of the diethanolamide mixture, and a free amine content that is 1.5% or less by weight based upon the weight of the diethanolamide mixture; between 5-50% of polyethylene glycol by weight based upon the weight of the total composition; between 5-50% of at least one surfactant by weight based upon the weight of the total composition; between 5-35% of at least one alcohol by weight based upon the weight of the total composition; between 0.1-5% of at least one preservative by weight based upon the weight of the total composition; and at least one buffering agent, wherein the diethanolamide mixture is a coconut diethanolamide mixture, and wherein the at least one esterified fatty acid of the diethanolamide mixture comprises at least one esterified fatty acid from a coconut oil, and wherein the at least one esterified fatty acid is selected from any one of a fatty acid methyl ester, fatty acid ethyl ester, a fatty acid propyl ester, a fatty acid isopropyl ester, and a blend of one or more of a fatty acid methyl ester, a fatty acid ethyl ester, a fatty acid propyl ester, and a fatty acid isopropyl ester.
A wearable device comprising: an antenna operable to receive WLAN packets from an apparatus, and further operable to sense or receive energy representing the WLAN packets, the WLAN packets each arranged with a length of a first packet time or a second packet time which is longer than the first packet time, the first packet time associated with a first bit value, the second packet time associated with a second bit value different to the first bit value; a harvesting module operable to harvest power according to the sensed or received energy; a decoder coupled to the harvesting module, the decoder operable to analyze energy function shape of the sensed or received energy to determine a binary code formed from a sequence of the first and second bit values, and to generate at least one command based on the determined binary code; and one or more switches (304, 305) operable to turn on or off according to the at least one command. an antenna operable to receive WLAN packets from an apparatus, and further operable to sense or receive energy representing the WLAN packets, the WLAN packets each arranged with a length of a first packet time or a second packet time which is longer than the first packet time, the first packet time associated with a first bit value, the second packet time associated with a second bit value different to the first bit value; a harvesting module operable to harvest power according to the sensed or received energy; a decoder coupled to the harvesting module, the decoder operable to analyze energy function shape of the sensed or received energy to determine a binary code formed from a sequence of the first and second bit values, and to generate at least one command based on the determined binary code; and one or more switches (304, 305) operable to turn on or off according to the at least one command.
A forgery-preventing yarn comprising a core thread/yarn, and characterized by a flat forgery-preventing thread formed of a film comprising a base sheet and alphanumeric characters or images printed on the base sheet, the film being slit to have a width of 0.15mm to 0.75mm, and wherein the forgery-preventing thread is twisted to the core thread/yarn.
An OFDM system synchronization tracking method, comprising steps of: A1. performing OFDM symbol segmentation on a received digital signal, sequentially performing a fast Fourier transform, FFT, on OFDM symbols obtained through the segmentation, transforming the OFDM symbols from time domain to frequency domain to obtain a frequency domain OFDM symbol sequence, and sequentially performing step A2 to step A5 on each frequency domain OFDM symbol in the frequency domain OFDM symbol sequence; A2. extracting an information subcarrier symbol, pilot symbols, and a direct current, DC, subcarrier from a current frequency domain OFDM symbol, detecting and implementing a decision on the information subcarrier symbol, and generating a recovery information subcarrier symbol; A3. synthesizing the pilot symbols, the DC subcarrier in the current OFDM symbol and the recovery information subcarrier symbol into a recovery OFDM symbol; A4. performing frequency offset estimation and timing offset estimation on the recovery OFDM symbol, to obtain a corresponding frequency offset estimation phase rotation value and a corresponding timing offset estimation phase rotation value; and A5. performing phase compensation on a next frequency domain OFDM symbol in the frequency domain OFDM symbol sequence by using the frequency offset estimation phase rotation value and the timing offset estimation phase rotation value, setting the compensated frequency domain OFDM symbol to a current frequency domain OFDM symbol, and returning to the step A2. A1. performing OFDM symbol segmentation on a received digital signal, sequentially performing a fast Fourier transform, FFT, on OFDM symbols obtained through the segmentation, transforming the OFDM symbols from time domain to frequency domain to obtain a frequency domain OFDM symbol sequence, and sequentially performing step A2 to step A5 on each frequency domain OFDM symbol in the frequency domain OFDM symbol sequence; A2. extracting an information subcarrier symbol, pilot symbols, and a direct current, DC, subcarrier from a current frequency domain OFDM symbol, detecting and implementing a decision on the information subcarrier symbol, and generating a recovery information subcarrier symbol; A3. synthesizing the pilot symbols, the DC subcarrier in the current OFDM symbol and the recovery information subcarrier symbol into a recovery OFDM symbol; A4. performing frequency offset estimation and timing offset estimation on the recovery OFDM symbol, to obtain a corresponding frequency offset estimation phase rotation value and a corresponding timing offset estimation phase rotation value; and A5. performing phase compensation on a next frequency domain OFDM symbol in the frequency domain OFDM symbol sequence by using the frequency offset estimation phase rotation value and the timing offset estimation phase rotation value, setting the compensated frequency domain OFDM symbol to a current frequency domain OFDM symbol, and returning to the step A2.
An exhaust system for an internal combustion engine for exhaust gas after-treatment comprising: an exhaust duct, which originates from an exhaust manifold of the internal combustion engine; a tank for the collection of a number of solid matrices able to store ammonia comprising a containing body, which is provided with a symmetry axis; the containing body being divided, on the inside, into a number of radial ducts by means of a plurality of radial wings, which are distributed around the symmetry axis; wherein each radial duct is suited to house on the inside a solid matrix able to store ammonia; an ammonia delivery duct, which originates from the tank and leads to the exhaust duct; and a feeding circuit of a heating fluid to the tank, made to permit the heat exchange from the heating fluid to said number of solid matrices able to store ammonia; wherein the feeding circuit comprises a bypass valve (11*), which is suited to adjust the quantity of heating fluid fed to the tank; the system is characterized in that the tank comprises a number of channels, which are obtained inside a respective radial duct, extends along the entire length of the respective radial duct in a direction substantially parallel to the symmetry axis and is made for the passage of the heating fluid, so as to permit the heat exchange from the heating fluid to the respective solid matrix able to store ammonia. an exhaust duct, which originates from an exhaust manifold of the internal combustion engine; a tank for the collection of a number of solid matrices able to store ammonia comprising a containing body, which is provided with a symmetry axis; the containing body being divided, on the inside, into a number of radial ducts by means of a plurality of radial wings, which are distributed around the symmetry axis; wherein each radial duct is suited to house on the inside a solid matrix able to store ammonia; an ammonia delivery duct, which originates from the tank and leads to the exhaust duct; and a feeding circuit of a heating fluid to the tank, made to permit the heat exchange from the heating fluid to said number of solid matrices able to store ammonia; wherein the feeding circuit comprises a bypass valve (11*), which is suited to adjust the quantity of heating fluid fed to the tank; the system is characterized in that the tank comprises a number of channels, which are obtained inside a respective radial duct, extends along the entire length of the respective radial duct in a direction substantially parallel to the symmetry axis and is made for the passage of the heating fluid, so as to permit the heat exchange from the heating fluid to the respective solid matrix able to store ammonia.
An electrosurgical system comprising: an electrosurgical instrument comprising a first jaw and a second jaw arranged to open and close relative to each other, the first jaw comprising: a first electrode and a second electrode which curve over and extend along respective opposed sides of the first jaw, to cover or occupy a majority of the total surface area of the first jaw; and a third electrode extending along the length of the first jaw between and substantially perpendicular to the first and second electrodes (103a, 103b), which third electrode is generally rectangular in shape and extends out of the first jaw towards the second jaw; and an electrosurgical generator arranged to supply radiofrequency energy to the electrosurgical instrument removably coupled to the electrosurgical generator, the generator being arranged to supply RF energy between the first electrode and the second electrode to coagulate tissue therebetween, to determine a pre-cut condition based on a phase difference between an applied voltage and an applied current of the supplied RF energy during the supply of RF energy to coagulate tissue; and the generator, after determining the pre-cut condition has been met, is arranged to supply RF energy between the first, second and third electrodes (103a, 103b, 105a) to cut tissue therebetween. an electrosurgical instrument comprising a first jaw and a second jaw arranged to open and close relative to each other, the first jaw comprising: a first electrode and a second electrode which curve over and extend along respective opposed sides of the first jaw, to cover or occupy a majority of the total surface area of the first jaw; and a third electrode extending along the length of the first jaw between and substantially perpendicular to the first and second electrodes (103a, 103b), which third electrode is generally rectangular in shape and extends out of the first jaw towards the second jaw; and a first electrode and a second electrode which curve over and extend along respective opposed sides of the first jaw, to cover or occupy a majority of the total surface area of the first jaw; and a third electrode extending along the length of the first jaw between and substantially perpendicular to the first and second electrodes (103a, 103b), which third electrode is generally rectangular in shape and extends out of the first jaw towards the second jaw; and an electrosurgical generator arranged to supply radiofrequency energy to the electrosurgical instrument removably coupled to the electrosurgical generator, the generator being arranged to supply RF energy between the first electrode and the second electrode to coagulate tissue therebetween, to determine a pre-cut condition based on a phase difference between an applied voltage and an applied current of the supplied RF energy during the supply of RF energy to coagulate tissue; and the generator, after determining the pre-cut condition has been met, is arranged to supply RF energy between the first, second and third electrodes (103a, 103b, 105a) to cut tissue therebetween.
Carbonaceous substance-coated graphite particles comprising: graphite particles; and carbonaceous coatings covering at least part of surfaces of the graphite particles, wherein the carbonaceous substance-coated graphite particles have a specific surface area S BET determined by BET method of 4.0 to 15.0 m 2 /g, characterized by a pore volume V s of pores with a pore size of 7.8 to 36.0 nm is 0.001 to 0.026 cm 3 /g, wherein pore Volume V s and pore size are measured according to the methods disclosed in paragraphs - of the description, and in a pore size distribution graph with the pore size being plotted on a horizontal axis and a dV/dP value obtained by differentiating the pore volume with the pore size being plotted on a vertical axis, a pore size P max with which the dV/dP value is maximized is 2.5 to 5.5 nm. wherein the carbonaceous substance-coated graphite particles have a specific surface area S BET determined by BET method of 4.0 to 15.0 m 2 /g, characterized by a pore volume V s of pores with a pore size of 7.8 to 36.0 nm is 0.001 to 0.026 cm 3 /g, wherein pore Volume V s and pore size are measured according to the methods disclosed in paragraphs - of the description, and in a pore size distribution graph with the pore size being plotted on a horizontal axis and a dV/dP value obtained by differentiating the pore volume with the pore size being plotted on a vertical axis, a pore size P max with which the dV/dP value is maximized is 2.5 to 5.5 nm.
Throttle body or actuator for an engine, comprising: - a main body which defines at least one supply duct having a through lumen for a gas mixture, - a choke valve placed inside said supply duct so as to modify said through lumen, - the choke valve being provided with an occluding body connected to a control shaft, at least partially housed in a seat in the main body, wherein - the control shaft, inside the seat and on the side of the occluding body, is provided with a first gasket to prevent the penetration of dirt and gas coming from the supply duct, - wherein downstream of the first gasket, on the side of the control shaft, at least one vent is provided suitable to allow the expulsion, outside the seat, of any gas which has leaked through the first gasket, characterized in that the vent is provided with a non-return device of the gases which pass through the vent, so as to prevent the backflow of said gases from the vent towards the seat. - a main body which defines at least one supply duct having a through lumen for a gas mixture, - a choke valve placed inside said supply duct so as to modify said through lumen, - the choke valve being provided with an occluding body connected to a control shaft, at least partially housed in a seat in the main body, wherein - the control shaft, inside the seat and on the side of the occluding body, is provided with a first gasket to prevent the penetration of dirt and gas coming from the supply duct, - wherein downstream of the first gasket, on the side of the control shaft, at least one vent is provided suitable to allow the expulsion, outside the seat, of any gas which has leaked through the first gasket,
An operating method of a user terminal (100, 310, 410, 610, 810, 910) in a wireless communication system supporting carrier aggregation, CA, the operating method comprising: receiving indication information regarding a phase tracking reference signal, PTRS, component carrier, CC, group from a base station (110, 112, 300, 400, 600, 800, 900); determining whether a phase noise characteristic of the user terminal (100, 310, 410, 610, 810, 910) is the same with respect to CCs included in the PTRS CC group based at least in part on the indication information; requesting the base station (110, 112, 300, 400, 600, 800, 900) to transmit, using at least one CC included in the PTRS CC group, at least one PTRS, in accordance with the determination; and receiving the at least one PTRS from the base station (110, 112, 300, 400, 600, 800, 900) using the at least one CC. receiving indication information regarding a phase tracking reference signal, PTRS, component carrier, CC, group from a base station (110, 112, 300, 400, 600, 800, 900); determining whether a phase noise characteristic of the user terminal (100, 310, 410, 610, 810, 910) is the same with respect to CCs included in the PTRS CC group based at least in part on the indication information; requesting the base station (110, 112, 300, 400, 600, 800, 900) to transmit, using at least one CC included in the PTRS CC group, at least one PTRS, in accordance with the determination; and receiving the at least one PTRS from the base station (110, 112, 300, 400, 600, 800, 900) using the at least one CC.
A computer-implemented method comprising: receiving, by a security agent executing in kernel mode of a computing device, a request from an anti-malware component executing in user mode of the computing device; performing, by the security agent, a security action with respect to a malicious file detected on the computing device by the anti-malware component; obtaining, by the security agent, a user token associated with a user session in which the malicious file was detected; providing, by the security agent, the user token to the anti-malware component; using, by the anti-malware component, the user token to request a pointer to a Component Object Model, COM, interface for outputting a notification in context of the user session; and outputting, via an output device of the computing device, the notification to indicate that the security action was performed, by receiving the pointer and calling a method of the COM interface. receiving, by a security agent executing in kernel mode of a computing device, a request from an anti-malware component executing in user mode of the computing device; performing, by the security agent, a security action with respect to a malicious file detected on the computing device by the anti-malware component; obtaining, by the security agent, a user token associated with a user session in which the malicious file was detected; providing, by the security agent, the user token to the anti-malware component; using, by the anti-malware component, the user token to request a pointer to a Component Object Model, COM, interface for outputting a notification in context of the user session; and outputting, via an output device of the computing device, the notification to indicate that the security action was performed, by receiving the pointer and calling a method of the COM interface.