37 results about "Minutes/day" patented technology

A watch having a watch face comprising an analog 12-hour display which displays a 24-hour day in an ambiguous manner using an hour hand and a minute hand, and an additional display which is used to determine the time indicated by the hour and minute hands and has two distinguishable symbols which are visible in said additional display separately from each other and change approximately every 12 hours. The invention is characterized in that the distinguishable symbols are configured as day and night symbols in such a way that they can be unambiguously interpreted as such by anyone and that the change-over from the night symbol to the day symbol occurs at 6 a.m. and the change-over from the day symbol to the night symbol at 6 p.m. either suddenly and precise to the second or over a period of time which can be observed dynamically so that there is never any doubt as to the time being shown.

A watch display and a method of displaying time and date on a watch face. The watch face has an outer portion with twelve on/off lights spaced around the outer portion of the watch face showing numbers 1 to 12 to represent either the twelve hours of time or the twelve months of a year. An inner portion of the watch face includes on/off lights for showing two digits which would represent the minutes in the time mode or the day of the month in the date mode. The watch display may also include an animation mode wherein the lights run through a cycle of turning on and then off, sequentially, one at a time at desired times such as when the power is turned on or just before it is turned off. The method of the present invention includes showing time by turning on the lights showing numbers from 1 through the current hour and showing the minutes by the digits in the inner portion and/or showing the date by illuminating one light at the number of the month and showing the day of the month by the digits at the inner portion. The watch display may switch back and forth between the two modes or when either mode is left unattended or a certain period of time, turn off.

A system and method are disclosed for controlling physical access through a digital certificate validation process that works with standard certificate formats and that enables a certifying authority (CA) to prove the validity status of each certificate C at any time interval (e.g., every day, hour, or minute) starting with C's issue date, D₁. C's time granularity may be specified within the certificate itself, unless it is the same for all certificates. For example, all certificates may have a one-day granularity with each certificate expires 365 days after issuance. Given certain initial inputs provided by the CA, a one-way hash function is utilized to compute values of a specified byte size that are included on the digital certificate and to compute other values that are kept secret and used in the validation process.

In an AMR system, a reader wirelessly communicates with both battery-powered receivers and electrically-powered receivers; each receiver being operably connected to a utility meter. Each battery-powered receiver has a bubble-up period of X seconds while each electrically-powered receiver has a bubble-up period of Y seconds. The reader reads the electrically-powered receivers every W minutes, however, only (Y/X)*100% of the battery-powered receivers are bubbled up during this read time. The result is a (1−(Y/X))*100% reduction in falsing of battery powered meters producing a great savings in battery life.

Described and claimed are apparatuses and systems for surface cleaning comprising a pump and an applicator connected to the pump through which one or more cleaning agents can be applied to the surface at an operating pressure that is about 600 PSI or less and an operating flow rate that is about 1 gal/min or less.

An improved minute countdown clock is provided that depicts the 24-hour day in terms of the number of remaining minutes, rather than in the standard 12-hour cycle. The present clock counts down the number of minutes that are left in the day, unlike a standard clock that depicts the amount of time that has passed in two separate cycles. The present invention may come in either analog or digital varieties. The present invention breaks time into smaller increments in order to reprogram individuals' concept and perception of passing time, to facilitate motivation to accomplish more goals, and finally to create a sense of value and ownership of personal time. Furthermore, the constant countdown creates a sense of urgency by helping people recognize that time is valuable and is lost once it passes.

The invention discloses a constant-speed delivery method for advertisement delivery. The method comprises the following steps: A, obtaining a day budget and a delivery time period of an advertiser; B,calculating an hour budget according to the day budget; C, counting the total expenditure, hour expenditure, minute expenditure and the delivery probability of minute expenditure use of the advertiser; D, calculating a current minute budget; E, calculating the putting probability of the current minute, and the putting system carrying out putting according to the putting probability of the currentminute. According to the constant-speed putting method and system for advertisement putting, it can be guaranteed that the budget of an advertiser can be evenly consumed in a large-flow scene, manualcontrol and intervention are avoided, and therefore the putting efficiency is improved.

A segmented display method for a 60-minute clock of an E-Ink electronic ink screen, namely that is, for the E-Ink electronic ink screen, the minute display of the clock is not displayed in a minimumunit of one minute, and the segment display method of less than 60 segments in one hour is adopted., so that the screen refreshing frequency is reduced. The minute display of the clock adopts the traditional 12-hour dial plate to display, and one circle is 60 minutes. A circle is divided into n sections (n is a natural number larger than 1 and smaller than 60), each section serves as a minimum progressive unit for displaying minutes, and therefore the display progressive number of 60 minutes is smaller than 60, And the screen brushing frequency of the E-Ink electronic ink screen within 60 minutes is also less than 60 times, so that the power consumption is reduced.

The invention relates to a hemoglobin storage method which is characterized by comprising the following steps of adding a proper quantity of human blood into normal saline (a 0.9% NaCl solution) with the volume being 3-6 times that of the human blood, centrifuging at the temperature of 4 DEG C and the rotating speed of 2800r/min for 15-30 minutes to obtain a supernatant containing leukocytes, plasma proteins and platelets, extruding the supernatant, retaining deposited erythrocytes at the lower layer, repeating the washing process for more than 3-5 times until the supernatant is basically colorless, and removing other substances except for the erythrocytes to the maximum extent to obtain clean deposited erythrocytes; adding a certain quantity of deposited erythrocytes into equivoluminal sterilized high-purity deionized water to pre-expand for 5-15 minutes, finally, adding water with the volume being 2 times that of the deposited erythrocytes to carry out low permeation for 10-20 minutes, centrifuging at the rotating speed of 10000r/min for 30-60 minutes, and extracting the supernatant after centrifuging to obtain a hemoglobin solution; and subpackaging the purified hemoglobin solution into a 10ml sample bottle, sealing by using paraffin, and storing the purified hemoglobin solution in a brown bottle filled with a pyrogallic acid solution at the temperature of 4 DEG C, wherein the content of hemoglobin does not exceed 3% after the sample is stored for 4 months and is kept on the relatively-low level.

A time managing method is applied to an electronic device like an electronic clock, an electronic watch or an intelligent mobile phone. The method comprises the steps of setting absolute time and relative time and then setting buying time required by a user. The absolute time plus the relative time is equal to 24 hours, and the minutes of each hour of the relative time is slightly smaller than 60 minutes. Thus, the compressed minutes in the relative time can form the buying time required by the user. By means of the method, a user can have illusion that one day exceeds 24 hours when wearing the electronic devices.

The invention relates to a time statistical method of embedded equipment, and the method comprises the following steps: Step 1, establishing a time matrix A of one day; Step 2, partitioning the time matrix A of one day; Step 3, establishing a minute statistical matrix F; Step 4, partitioning the minute statistical matrix F; Step 5, calculating to obtain an hour matrix H through A<2,2> in the partitioned time matrix A of one day and F<2,1> in the minute statistical matrix F; Step 6, establishing an hour statistical matrix T; Step 7, partitioning the hour statistical matrix T; and Step 8, calculating to obtain a time matrix C through the hour matrix H and T<1,2> in the partitioned hour statistic matrix T. The invention also discloses embedded equipment. The time statistical method is simplein calculation process and small in calculation amount.