Abstract: Provided are an inner tub for a clothes treating apparatus and a clothes treating apparatus. The inner tub includes a tub and a lifting rib. The body includes a bottom and a body. The lifting rib is disposed on an inner side of the body. Drainage holes is defined in a part of the body covered with the lifting rib. The plurality of drainage holes are in a normally open state to communicate an inner side of the tub with an outer side of the tub. The remaining part of the body other than the part of the body covered with the lifting rib has a closed structure.

Abstract: An anti-collapse oil casing with high strength and a manufacturing method therefor, comprising the following chemical elements in percentage by mass: C: 0.08%-0.18%; Si: 0.1%-0.4%; Mn: 0.1%-0.28%; Cr: 0.2%-0.8%; Mo: 0.2%-0.6%; Nb: 0.02%-0.08% b; V: 0.01%-0.15%; Ti: 0.02%-0.05%; B: 0.0015%-0.005%; and Al: 0.01%-0.05%. The manufacturing method for the anti-collapse oil casing with high strength comprises the steps of: (1) smelting and continuous casting; (2) perforating, rolling, and sizing; (3) controlled cooling: the initial cooling temperature being Ar3+50° C. and the final cooling temperature being ?80° C.; the cooling step being performed only to the outer surface of the casing without performing to the inner wall of the casing; and the rate of the controlled cooling being 30-70° C./s; (4) tempering; and (5) thermal straightening.

Abstract: A base, a laundry treatment device and a cleaning system are provided. The base includes a pedestal and a water inlet assembly. The pedestal includes a washing portion and a robot vacuum cleaner chamber. The washing portion is configured to wash a cleaning member of a robot vacuum cleaner. The water inlet assembly includes a primary water inlet path, and a first water inlet branch in fluid communication with the primary water inlet path and/or a second water inlet branch in fluid communication with the primary water inlet path. The primary water inlet path is configured to be fluidly connected to a tap water path. The first water inlet branch is in fluid communication with the washing portion. The second water inlet branch is configured to be fluidly connected to a liquid container of the robot vacuum cleaner.

Abstract: A method of reconstructing an input signal includes providing (104) a first sampled signal (110) by sampling an input signal (102) at a sampling rate fs, the sampling rate being less than a Nyquist sampling rate for the input signal, providing a delayed input signal (107), sampling (108) the delayed input signal at the sampling rate to provide a second sampled signal (112), performing (114) a Fourier transform of the first sampled signal and the second sampled signal to provide a first signal spectral component (118) and a second signal spectral component (120), respectively, combining (122) the first signal spectral component and the second signal spectral component to provide a first de-aliased spectral component (124A) and a second de-aliased spectral component (124B), and performing (126) an inverse Fourier Transform on the first de-aliased spectral component and the second de-aliased spectral component to provide a reconstructed signal (128).

Abstract: This is a structure for connecting and fixing a lighter's core assembly, which includes a casing, and a connecting piece disposed inside the casing, wherein the connecting piece props against a hinge that connects the casing with a top lid, and the connecting piece is fixed to the bottom of a core assembly. The special-shaped connecting piece inside the casing is fixed to the side portion of the bottom lid, so that the core assembly can be fixed in the casing while opening and closing the top lid, so as to prevent the core assembly from leaping up, as well as seal the space at the bottom of the core assembly, enhancing a sealing effect at the bottom, reducing volatilization of kerosene, and prolonging a service time of the lighter after filling with fuel oil one time.

Abstract: Provided is a method for preparing a theaflavin using an immobilized substrate, including: enriching a catechin molecule substrate, a natural plant monomer, on an inert adsorption carrier in a non-covalent bonding manner; subjecting a resulting material to purification; and catalyzing polymerization of the catechin molecule substrate enriched on the carrier with a high-selectivity free exogenous enzyme to produce the dimeric substance of theaflavin. The purification and enzymatic oxidation condensation of the catechin substrate are integrated on a same carrier, which reduces the difficulty of process operations.

Abstract: Provided is a method for preparing a theaflavin using an immobilized substrate, including: enriching a catechin molecule substrate, a natural plant monomer, on an inert adsorption carrier in a non-covalent bonding manner; subjecting a resulting material to purification; and catalyzing polymerization of the catechin molecule substrate enriched on the carrier with a high-selectivity free exogenous enzyme to produce the dimeric substance of theaflavin. The purification and enzymatic oxidation condensation of the catechin substrate are integrated on a same carrier, which reduces the difficulty of process operations.

Abstract: A base, a laundry treatment device and a cleaning system are provided. The base includes a pedestal and a water inlet assembly. The pedestal includes a washing portion and a robot vacuum cleaner chamber. The washing portion is configured to wash a cleaning member of a robot vacuum cleaner. The water inlet assembly includes a primary water inlet path, and a first water inlet branch in fluid communication with the primary water inlet path and/or a second water inlet branch in fluid communication with the primary water inlet path. The primary water inlet path is configured to be fluidly connected to a tap water path. The first water inlet branch is in fluid communication with the washing portion. The second water inlet branch is configured to be fluidly connected to a liquid container of the robot vacuum cleaner.

Abstract: A washing method and apparatus for a floor cleaning device, and a cleaning apparatus are provided. The washing method for the floor cleaning device includes: obtaining a washing instruction; and controlling, based on the washing instruction, water supply to a washing tank of a floor cleaning device base station and to a cleaning member of a mobile cleaning portion. According to the method, the cleaning member is washed through supplying water to the washing tank of the floor cleaning device base station and to the cleaning member of the mobile cleaning portion.

Abstract: A dust collection assembly includes a dust collection assembly main body configured to be removably provided in a base station main body and detachable from a front surface of the base station main body. The dust collection assembly main body has a dust collection cavity formed in the dust collection assembly main body and includes an engagement member provided at a side surface of the dust collection assembly main body. The engagement member is configured to be engaged with an engagement matching member of the base station main body and limited by the engagement matching member, allowing the dust collection assembly main body to be in communication with a dust suction pipe of the base station main body.

Abstract: A control apparatus includes obtaining and control modules. The obtaining module is configured to obtain a water feeding request for each of at least one of two components of a cleaning assembly. The two components include floor cleaning and clothes cleaning components. The floor cleaning component includes a base station water tank, a movable member water tank, and a base station washing tank. The control module is configured to determine that one component is in a water feeding state, and control water feeding to another component based on a water feeding request for the component, including, in response to the one component being the clothes cleaning component, controlling water feeding to the floor cleaning component based on a water feeding request for the floor cleaning component, including controlling the base station water tank to feed water to the movable member water tank and/or to the base station washing tank.

Abstract: A computing apparatus includes a hardware platform having a processor and a memory; an operating system (OS) having a GUI with a user-initiatable share function, and an interface to register a share target for the share function; and instructions encoded within the memory to provide a security agent, the instructions to instruct the processor to: receive from the OS a notification that an object has been shared to the security agent via the share function; responsive to the notification, initiate a security scan or reputation action for the shared object; receive a security or reputation response from the security scan or reputation action; and based at least in part on the security scan or reputation response, display a security or reputation notification via the GUI.

Abstract: A computing apparatus includes a hardware platform having a processor and a memory; an operating system (OS) having a GUI with a user-initiatable share function, and an interface to register a share target for the share function; and instructions encoded within the memory to provide a security agent, the instructions to instruct the processor to: receive from the OS a notification that an object has been shared to the security agent via the share function; responsive to the notification, initiate a security scan or reputation action for the shared object; receive a security or reputation response from the security scan or reputation action; and based at least in part on the security scan or reputation response, display a security or reputation notification via the GUI.

Abstract: A method of reconstructing an input signal includes providing (104) a first sampled signal (110) by sampling an input signal (102) at a sampling rate fs, the sampling rate being less than a Nyquist sampling rate for the input signal, providing a delayed input signal (107), sampling (108) the delayed input signal at the sampling rate to provide a second sampled signal (112), performing (114) a Fourier transform of the first sampled signal and the second sampled signal to provide a first signal spectral component (118) and a second signal spectral component (120), respectively, combining (122) the first signal spectral component and the second signal spectral component to provide a first de-aliased spectral component (124A) and a second de-aliased spectral component (124B), and performing (126) an inverse Fourier Transform on the first de-aliased spectral component and the second de-aliased spectral component to provide a reconstructed signal (128).

Abstract: Provided are an inner tub for a clothes treating apparatus and a clothes treating apparatus. The inner tub includes a tub and a lifting rib. The body includes a bottom and a body. The lifting rib is disposed on an inner side of the body. Drainage holes is defined in a part of the body covered with the lifting rib. The plurality of drainage holes are in a normally open state to communicate an inner side of the tub with an outer side of the tub. The remaining part of the body other than the part of the body covered with the lifting rib has a closed structure.

Abstract: An anti-collapse oil casing with high strength and a manufacturing method therefor, comprising the following chemical elements in percentage by mass: C:0.08%-0.18%; Si:0.1%-0.4%; Mn:0.1%-0.28%; Cr:0.2%-0.8%; Mo:0.2%-0.6%; Nb:0.02%-0.08% b; V:0.01%-0.15%; Ti:0.02%-0.05%; B:0.0015%-0.005%; and Al:0.01%-0.05%. The manufacturing method for the anti-collapse oil casing with high strength comprises the steps of: (1) smelting and continuous casting; (2) perforating, rolling, and sizing; (3) controlled cooling: the initial cooling temperature being Ar3+50° C. and the final cooling temperature being ?80° C.; the cooling step being performed only to the outer surface of the casing without performing to the inner wall of the casing; and the rate of the controlled cooling being 30-70° C./s; (4) tempering; and (5) thermal straightening.

Abstract: A computing apparatus includes a hardware platform having a processor and a memory; an operating system (OS) having a GUI with a user-initiatable share function, and an interface to register a share target for the share function; and instructions encoded within the memory to provide a security agent, the instructions to instruct the processor to: receive from the OS a notification that an object has been shared to the security agent via the share function; responsive to the notification, initiate a security scan or reputation action for the shared object; receive a security or reputation response from the security scan or reputation action; and based at least in part on the security scan or reputation response, display a security or reputation notification via the GUI.

Abstract: The application provides a field programmable gate array (FPGA) and a communication method. At least one application specific integrated circuit based (ASIC-based) hard core is embedded in the FPGA. The ASIC-based hard core includes a high-speed exchange and interconnection unit and at least one station. Each station is connected to the high-speed exchange and interconnection unit. The station is configured to transmit data between each functional module in the FPGA and the ASIC-based hard core. The high-speed exchange and interconnection unit is configured to transmit data between the stations. In the FPGA provided by the application, an ASIC-based hard core is embedded, which can facilitate data exchange between each functional module and the ASIC-based hard core in proximity and reduce a time delay.

Abstract: A shock absorber for a washing machine and a washing machine having the same are disclosed. The shock absorber includes: a shock absorber sleeve, and the shock absorber sleeve defines an accommodation cavity therein; a shock absorber rod, movably connected to the shock absorber sleeve; an elastic member provided on the shock absorber rod and/or the shock absorber sleeve; a first damping member fitted over the shock absorber rod and mounted on the shock absorber sleeve; and a second damping member mounted on the shock absorber rod and accommodated in the accommodation cavity. The first damping member and the second damping member generate damping when the shock absorber rod moves relative to the shock absorber sleeve. The shock absorber for the washing machine has a simple structure and favorable shock absorbing effects, and occupies little space.

Abstract: Disclosed is an intelligent automatic conical net making machine. The net making machine comprises a net winding device (3) and a net binding device (4). The net winding device (3) comprises a filter screen winding shaft (3.1), a filter screen winding drum (3.3) and a net winding power device (3.2). The filter screen winding shaft (3.1) comprises a conical hollow shaft body, and a strip-shaped net binding hole is axially provided in the hollow shaft body. The filter screen winding drum (3.3) comprises two arc-shaped plates (3.5) hinged together, and the two arc-shaped plates (3.5) can be driven by the net winding power device (3.2) to be opened and closed along a hinged shaft to wrap the filter screen winding shaft (3.1) without shielding the net binding hole. The net binding device (4) comprises an automatic stapler (4.1) and a stapler base mould (4.5), and the stapler base mould (4.5) of the net binding device (4) can be inserted into the hollow shaft body of the filter screen winding shaft (3.1).