193 results about "Every Hour" patented technology

A method is disclosed for providing entry into a bonus game at a gaming device, where the bonus games may occur at predictable times and may payout predictable amounts. In one or more embodiments, a gaming device may provide a guaranteed entry into a bonus game every hour on the hour, so long as a player meets one or more criteria. Criteria may include a total amount wagered, a total number of handle pulls completed, or a total amount of time spent at a gaming device. One or more embodiments provide a method for withholding value from a player in order that the value may delivered later in the form of a guaranteed entry into a bonus game. One or more embodiments provide a method whereby multiple gaming devices may provide entry in bonus rounds simultaneously, thereby creating mutually reinforcing sounds and visual displays.

A network controlling apparatus appropriately arranges a generated path every hour with a change in section and bandwidth requested in each time period to flexibly generate a path according to the state of occurrence of requests. The network apparatus comprises a storing unit storing information for management of the network, and a controlling unit controlling setting of the network device relating to a connection of network devices at two edge points in the network to obtain path setting satisfying the quality guarantee request, using a path already set or scheduled to be set, or a newly generated path, by referring to the information stored in the storing unit when receiving the quality guarantee request.

The invention discloses a method for preparing a freeze-drying crisp fruit and vegetable piece, which includes the following steps: blanching raw materials for killing enzyme; preparing a color protection liquid using citric acid concentration, sodium isoascorbate concentration, or cysteine hydrochloride concentration, sodium phytate concentration and embedding medium, wherein, the ratio between the color protection liquid and the slice liquid material is 0.25-1:1; slowly freezing fruit paste with 4-7 mm thickness below a eutectic point at minus 30 DEG C. for one hour; placing the fruit paste on a separator plate of a vacuum lyophilizer after the machine is precooled to a cold trap minus 50 DEG C. with 30 Pa vacuum degree and 40 DEG C. separator plate temperature; heating and drying by programs, wherein, 3-5 DEG C. rises every hour when the temperature is below 10 DEG C.; keeping temperature at 10 DEG C. for 1 hour; heating continuously for rising 5-7 DEG C. every hour; keeping temperature for 2 hours at 40 DEG C.; obtaining the crisp fruit and vegetable pieces with water content below 7% after refrigeration; slicing and packing products in an independent drying room with air humidity 40-50%. The invention has a distinct fruit and vegetable original flavour with larger market prospect.

The embodiment of the invention discloses a power generation prediction method and device based on a building information model, and belongs to the field of photovoltaic power generation. The method comprises the steps that corresponding photovoltaic application modes are selected from the built building information model; corresponding photovoltaic component parameters are adjusted; photovoltaic components are registered on the built building information model one by one, and a radiation analysis model corresponding to a building to be matched is acquired in a vectorization mode; the real-time solar radiation quantity borne by the configured photovoltaic components is calculated according to assembly information acquired from a photovoltaic component model and the radiation analysis model; after the real-time solar radiation quantity borne by the configured photovoltaic components is converted to actually generated real-time electric quantity, then power generation distribution of the building to be matched is predicted. According to the power generation prediction method and device based on the building information model, a BIM modeling and analyzing mode is adopted to calculate the radiation quantity in every hour of each photovoltaic component through typical meteorological conditions of the place where the building is located, accurate power generation quantity prediction can be carried out at the initial stage of a solar photoelectric building project plan, and calculation accuracy and precision are improved.

The present invention provides a method for producing a low thermal expansion Ni-base superalloy, which includes: preparing an alloy including, by weight %, C: 0.15% or less, Si: 1% or less, Mn: 1% or less, Cr: 5 to 20%, at least one of Mo, W and Re, which satisfy the relationship Mo+½(W+Re): 17 to 27%, Al: 0.1 to 2%, Ti: 0.1 to 2%, Nb and Ta, which satisfy the relationship Nb+Ta/2: 1.5% or less, Fe: 10% or less, Co: 5% or less, B: 0.001 to 0.02%, Zr: 0.001 to 0.2%, a reminder of Ni and inevitable components; subjecting the alloy to a solution heat treatment under the condition of at a temperature of 1000 to 1200° C.; subjecting the alloy to either a carbide stabilizing treatment for making aggregated carbides on grain boundaries and stabilizing the carbides under the conditions of at a temperature of not less than 850° C. and less than 1000° C. and for 1 to 50 hours, or a carbide stabilizing treatment for making aggregated carbides on grain boundaries and stabilizing the carbides by cooling from the temperature in the solution heat treatment to 850° C. at a cooling rate of 100° C. or less per hour; subjecting the alloy to a first aging treatment for precipitating γ′ phase under the conditions of at a temperature of 720 to 900° C. and for 1 to 50 hours; and subjecting the alloy to a second aging treatment for precipitating A₂B phase under the conditions of at a temperature of 550 to 700° C. and for 5 to 100 hours.

The invention discloses a method for treating production solvent-containing waste liquid from m-aramid fiber production, which comprises the following steps: (1), filtering production solvent-containing waste liquid produced in the production of m-aramid fibers; (2), delivering liquid obtained by the step (1) to an extracting device to perform extraction separation in an extraction ratio of (1-3):1 and directly discharging the waste water; (3) delivering an extractive phase in a container used in the step (2) to a distillation tower, and subjecting the extractive phase to reduced pressure distillation separation, wherein the filler accounts for 15 to 25 percent of the volume of the distillation tower, the feeding speed is 8.4 to 16.8 percent of the volume of the distilled tower per hour, the temperature in the tower is 80 to 120 DEG C, the temperature at the bottom of the tower is 130 to 150 DEG C, the refluxing speed is 1.7 to 8.5 percent of the volume of the distillation tower per hour, and the discharge speed is 0.7 to 2.5 percent of the volume of the distillation tower per hour; and (4) rectifying the production solvent obtained by the step (3). The method can save energy and causes little corrosion of rectifying device.

The invention discloses a method for preparing a cation polystyrene template based on porous materials, which comprises the following steps: by utilizing soap-free emulsion polymerization, after styrene monomer polymerization is carried out for 1.5 hours, starting to inject the mixture of cation DMC and deionized water (with volume ration being 2:1) into a reaction system by a micro sample injector. The first three times of injections are respectively carried out with the interval of half an hour, and the later two times of injections are carries out with the interval of one hour. Subsequently, a plurality of times of DMC mixtures can be continuously injected every three minutes, 50 Mul of the DMC mixture is injected each time, and the highest content of the injected DMC can reach up to 30-50% (compared with the mass of St). Aqueous millipore filter membrane (0.2 mu m) is then used for centrifuging and separating the prepared cation template, and finally a cation nano polystyrene template with monodispersity is obtained. The template can be applied to the synthesis of the porous materials, is extremely easy to be dissolved in alcohol and little dichloromethane solvent, and is beneficial to removing the template of the porous materials.

The invention discloses a fast organic waste recycling hot enzyme aerobic treatment technology. The fast organic waste recycling hot enzyme aerobic treatment technology comprises the steps of: according to the proportion of (6-8):(2-4), respectively placing organic wastes and crop straw or wood chips into a hot enzyme reactor for stirring for 5-10min, respectively adding 0.05%-0.2% of heat-resistant enzyme and 0.05%-0.3% of thermophilic bacteria according to the weight percentage of the organic wastes and crop straw or wood chips, carrying out primary enzymatic fermentation, thorough decomposition and exhausting through the reactor, controlling the temperature of materials at 70-80 DEG C, controlling the humidity of the materials in the reactor to be 60%-70%, wherein the first-time exhausting amount is 100-500m<3> of per tonnage per hour, the exhausting time is 16-18 hours, and the rotating speed of stirring blade of the reactor is 1-20r/min; 16-18 hours later, finely adjusting the parameters of the hot enzyme reactor automatically, carrying out secondary enzymatic fermentation, thorough decomposition and exhausting, controlling the temperature of the materials to be 80-95 DEG C, the rotating speed of the stirring blade of the reactor to be 1-20r/min for 6-8 hours, wherein the second-time exhausting amount is 150-750m<3> of per tonnage per hour, and the exhausting time lasts for 6-8 hours; and then cooling and sieving, or further pelletizing or embedding to obtain the finished product.

The invention relates to a chemical Ni-P plating technique on the surface of magnesium alloy which takes nickel sulfate (NiSO4, 6H20) as the main salt. The technique process is as follows, ultrasonic cleaning, alkali cleaning, acid cleaning, activation, and chemical nickel phosphorus plating (water cleaning is employed among steps), dispensations of plating solution are NiSO4, 6H2O (20 grams per liter), HF (40%, 12 milliliter per liter), Na3C6H5O7, 2H2O (20 grams per liter), NH4HF2 (10 grams per liter), NH3, H20 (25%, 30 milliliters per liter), and NaH2PO2, H2O (20 grams per liter), and the plating temperature is 88 +-2 DEG C. The plating speed on the surface of magnesium alloy is 20 micrometers per hour, and the plated rigidity is 300-500 HV. The invention is low in cost and simple in plating solution dispensation, and is applicable to the magnesium alloy in Mg-Al-Zn series (AZ series).

The invention discloses a method for producing a Nixing pottery by stacking and carving. The method comprises the steps of preparing a blank material, forming a blank body, finishing the blank body, decorating the blank body, drying the blank body and firing the blank body, wherein the step of decorating the blank body comprises the sub-steps of moisturizing the blank body, preparing a stacking and carving material, stacking and carving; and the step of firing the blank body comprises the following sub-steps of: 1) placing a dry blank body into a kiln, gradually heating at a speed of 20-30 DEG C per hour, when heating to be 80-120 DEG C, stopping heating, and keeping for 20-28 h; 2) gradually heating again at a speed of 20-30 DEG C per hour, when heating to be 350-500 DEG C, stopping heating, and keeping for 0.5-2 h; 3) gradually heating again at a speed of 20-30 DEG C per hour, when heating to be 550-700 DEG C, stopping heating, and keeping for 0.5-2 h; 4) gradually heating again at a speed of 30-60 DEG C per hour, and heating to be 1060-1100 DEG C; and 5) naturally cooling.

A real vehicle collision test system of rail vehicles comprises a central control platform, a transmitter, a real vehicle and a collision wall; the real vehicle is placed on a rail which is arranged between the transmitter and the collision wall; the lateral side of the collision wall is provided with a collision speed measuring device and a high-speed photography device; in the collision test process, work of the transmitter, the collision speed measuring device, the high-speed photography device and a measured force collection device of the collision wall is controlled by a program of the central control platform and related data are received and stored; the real vehicle accelerates within the effective stroke through the transmitter, the real vehicle collides with the collision wall after a certain distance of unpowered free sliding, and the free sliding distance of the real vehicle is at least 1.1 times of the effective stroke of the transmitter; the test collision speed during the collision of the real vehicle and the collision wall is 1 to 2 times of the set collision speed, the set collision speed is 20 to 40 % of the real vehicle operating speed, and the lowest test collision speed is not less than 25 miles every hour; analytical calculation is performed after the test is achieved and a test result is output.