CN106353356A - Device and method used for quantitative detection on processed material - Google Patents
Device and method used for quantitative detection on processed material Download PDFInfo
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Abstract
The invention relates to a handheld device and method for determining the degradation of at least one processed material relating to a provenance-known processed material. The handheld device comprises a handheld portable imaging device (HHID) and a controller, wherein the HHID is used for providing at least one phenotypic characteristic PC(phenotypic characteristic)PM of the at least one processed material; the controller is in communication with the HHID, so as to determine a degradation mark Q, wherein the Q is defined to be the function F of the PCKP and the PCPM: Q equals to F(PCPM and PCKP). If the PCPM equals to PCKP basically, the Q equals to a first preset value, and the processed material, about the provenance-known processed material, is certified; otherwise, if the PCPM is observably different from the PCKP, Q equals to a second preset value, and the degradation is determined according to the degradation mark Q.
Description
Technical field
The present invention generally relates to the system of the quality of processed materials of measurement such as oil etc
And method.
Background technology
The quality of the such as processed materials of oil or wine etc may in time or using process
In change.For example, if aging under suitable condition, the quality of wine can improve.Cruelly
It is exposed to the quality that air can damage wine;It is exposed to the oil that heat can destroy such as cooking oil etc.This
Outward, the quality of processed material can be depending on the species of the fruit as raw material or plant, former material
The original regional or national and many other factors of material.
Quality can also be affected by wrongdoing or fraud, such as using same type still
Second-rate material is doped to processed materials, add artificial material in natural product to claiming
Expect such as sugar or water or add the related still relatively inexpensive material of price.A kind of finally the showing of situation
Example is that orange juice is added in orange juice, and the latter is costly.
In the case of cooking oil, when heated, oil hydrogenation, the carbon increasing the carbochain forming oil is former
The number of the double bond between son.They can also decompose, and form shorter chain and form free radical.
One effect of hydrogenation is so that the solidification temperature of oil is raised so that oil becomes solid or half admittedly at room temperature
Body fat.Importantly, some falls in some hydrogenated products and catabolite in hydrogenated products
Solution product is probably carcinogenic.
A collection of oil keeps the time of use longer, and the fraction of the catabolite in oil is bigger, and oily meeting
The probability comprising significant percentage of carcinogen is bigger.
Therefore, oil reuse, in particular under high temperature culinary art oil reuse with when
Between passage can become dangerous for the health of cook, and oily reuse very universal one
A bit in country, for the catabolite in oil, especially carcinogenic tolerable injury level established standardses.
However, the detection of catabolite can be slow and time-consuming.However, the nmr of c-c singly-bound
Frequency is significantly different than nuclear magnetic resonance, NMR (nmr) frequency of c=c double bond so that nmr can
For distinguishing high saturated oils and low saturation hydrogenated oil and fat.
Therefore, long-term needs are provided for being determined the oxidation in oily sample using hand-held imaging device
The equipment of amount and method.
Content of the invention
The purpose of the present invention is the open machined material for determining such as oil etc using nmr
The system of the amount of oxidation in material.
Brief description
Realization for a better understanding of the present invention and its in practice, only passes through non-limiting showing now
Example to describe multiple embodiments by reference to accompanying drawing, wherein:
Fig. 1 schematically shows the carcinogenic free radical that can be formed due to the hydrogenation of cooking oil;
Fig. 2 to Fig. 4 schematically shows the composition of the component of olive oil;
Fig. 5 depicts the method based on nmr analysis of oil;
The method that Fig. 6 schematically shows the source determining oil or other plant extract;
Fig. 7 a to Fig. 7 c shows the impact that the degraded of oil is composed to nmr;And
Fig. 8 a to Fig. 8 c schematically shows the system of the present invention.
Specific embodiment
Explained below is provided together with all chapters and sections of the present invention, so that any technology people of this area
Member can use described invention, and proposes by the best mode implementing the present inventor's conception.So
And, to those skilled in the art, various modifications will be it is clear that this be due to the present invention
General Principle be specifically defined as to provide for determining oil using hand-held imaging device
The apparatus and method of the amount of oxidation in sample.
Term " MR imaging apparatus " and " mrd " refer in the present invention using magnetic resonance with
Just the equipment of the specific object of measurement of species.
The description of the operation of disclosed invention itself is claimed by term " Noninvasive " in the present invention
For not affecting the described material just measuring and the general industry process not interrupting being related to described material.
Term " known source " refers in the present invention for non-limiting example: the source of material
It is known species, the source of material is known subspecies or species, and the original area of raw material is known
, the country of origin of raw material is known, and in processing, the age of raw material is known, in processing
The front processing to raw material is known (for example, the condition of storage before processing), and raw material is processed
The processing method becoming finished product is known, and is to the processing method of processed materials after processing
(for example, the temperature of the persistent period of the heating of cooking oil and its holding) known and above appointing
Meaning combination.
Term " about " hereinafter refers to the scope of value left and right 25%.
According to the preferred embodiment of the present invention, hand-held imaging device (hhid) includes magnetic resonance and becomes
As equipment.Mrd includes: NMR (Nuclear Magnetic Resonance)-imaging (mri) spectrum meter, and this mri spectrum meter is used for making
Sample stands the irradiation of radio frequency (rf) signal in the magnetic field being generated, and measurement is by described sample again
The rf signal of secondary transmitting and the mri producing described sample;Based on controlling described mri spectrum
Rf ripple generates and detects the computer processor of function;It is used for described computer processor for storage
Machine instruction and the computer-readable for the storage information relevant with the measurement of described rf signal
Medium (crm);Numeral for the digital communication between described mrd and computer communication network
Electronics connectivity port.
Preferably hhid includes mrd, however, hhid can include setting selected from the imaging of lower item
Standby: infrared ray (ir) equipment, mrd, Fourier transform infrared line (ftir) equipment, camera,
At least one photodetector and above combination in any.
Nmr quickly can provide to sample in the case of the preparation of relatively simple sample
Biomolecule composition analysis.Nmr is logical for all molecules of comprising nmr active nucleus
Use detector.For all molecules with proton, the intensity of all proton signals is rubbed with metabolite
You are definitely directly proportional at concentration.By using suitable internal standard substance, the true of metabolite can be readily calculated
Real concentration.Because nmr spectrometry is the physical characteristics based on compound, it has very high
Repeatability.
The data obtaining from analysis method can be analyzed further by statistical method, so that from data
Extract all possible information.Treat the accuracy of data that is further analyzed by statistical method and
Correctness inevitably depends on the robustness of original analysis data collection.Nmr has very high
Reliability, because different from based on the retention time in chromatographic technology, as long as in identical condition
Measure at (field intensity, solvent, ph value and the temperature that are applied), in addition to indivedual exception, nmr
In spectrum, the chemical deviation of each signal, coupling constant and integration will not change.Although the inside of nmr
Sensitivity is relatively low, but the ability of the robustness of data and the metabolite covering wide scope has made
Nmr can become preferably overall fingerprint profile tool.In addition to the advantage of data robustness,
Ability in terms of the structural analyses of metabolite for the nmr is also that any other method is incomparable.
Nmr has very long history in field of natural product chemistry as the instrument for structural analyses.Logical
Cross using suitable data base, it can generate the data being capable of almost persistence.
As described below, the equipment of the present invention can be specifically for: oil specifically edible oil,
Fruit juice, medicinal plants, the composition of Chinese medicine, the composition of other natural drugs, plant extract, medical herbs,
Spice, coffee, tea, rubber, the food commercially produced and above combination in any.
Edible oil, specifically olive oil, and edible in the case that edible oil is used as cooking oil
Degraded in oil will act as schematic example, but this exemplary use does not limit the model of the present invention
Enclose.
Due to the heating of culinary art, used in culinary art, oil degrades over and hydrogenates.Degraded and hydrogenation
The two can produce the carcinogenic degraded being generally associated with the double bond (Fig. 1) producing due to hydrogenation
Product and carcinogenic free radical.Therefore, the reuse of oil, the especially reuse of prolongation, can become
It is the health hazard for cook.
Many local a kind of common cooking oils are olive oil in the world.Olive oil is by triglyceride
(more than 98%) and the accessory constituent (about 1% to 2%) such as angle that constitute oily not sponifiable part
Zamene, alpha-tocopherol, plant sterol, phenolic compound, carotenoid and aliphatic and
Terpenol forms.Table 1 shows the composition of typical olive oil, and Fig. 2 to Fig. 4 is schematically simultaneously
Show the chemical geometry of the key component of olive oil.
Table 2: the composition of typical olive oil
Other common cooking oils include: Oleum Arachidis hypogaeae semen, walnut oil, rapeseed oil, almond oil, American Avocado Tree oil,
Butter, Oleum Cocois, Semen Maydis oil, Oleum Gossypii semen, Semen Lini oil, butter, Oleum Vitis viniferae, hazelnut oil,
Cannabis oil, Adeps Sus domestica, macadimia nut oil, margarine, mustard oil, Fructus Canarii albi Marc oil, Petiolus Trachycarpi oil,
Semen Cucurbitae oil, Testa oryzae oil, safflower oil, Oleum sesami, soybean oil, Oleum Helianthi, Adeps Bovis seu Bubali, Oleum Camelliae,
Vegetable shortenings and above combination in any.
Nmr composes1h、13C and/or31P-nmr or2d-nmr.Preferably real
Apply in mode, pass through1H-nmr obtains spectrum.
Show in Fig. 5 for the catabolite in the processed materials of determination such as cooking oil etc
Amount current techique.If measured1h、13C and/or31The spectrum of p-nmr, then sample preparation
(210) include providing the sample of proper volume in master sample support, and so that sample is reached
Predetermined temperature.In some embodiments, the ph value of sample is adjusted to predetermined value.
If measured2D-nmr composes, then as be known in the art, as described above
Put samples in sample support, balance to temperature and adjust ph value before, during or
After person, using suitable technology, sample is carried out tritiated.Preferably, sample preparation is to be automatically performed
's.After the completion of preparation (210), measurement nmr spectrum, and in the case of necessary to nmr
Spectrum is digitized and analyzes to determine for non-limiting example peak position, peak heights
With peak area (220).Next step is spectrum execution multivariate data analysis (230) to analysis,
Subsequently, in case of need, to data execution 2d nmr analysis (240).
Conventional high-resolution1H and13The fatty acid that c nmr can be used in analyzing in oil seeds contains
Amount, its typical total acquisition time is in terms of several minutes.Can also use and be based on1H T2
(t2) low resolution nmr, its total acquisition time is some seconds.
The phenotypic characteristic of processed materials can be selected, such as but not limited to: originate in area, country of origin,
The source of described processed materials, non-impurity-doped, color, hydrogenation, ir spectrum, nmr spectrum, ftir
Spectrum, the width at least one peak, the height at least one peak, the area at least one peak, at least one
The wavelength at individual peak, the number at peak, the wavelength shift at least one peak, baseline height and above appointing
Meaning combination.As described below, special in the selected one or more of phenotypes of processed materials
Levy the identical one or more of phenotypic characteristic pc of pc and the processed materials in known sourcekpIt
Between can make and comparing.
In some embodiments, analysis is carried out by principal component analysiss (pca).At some
Analyzed using principal component regression (pcr) and offset minimum binary (pls) in embodiment.Subsequently may be used
To carry out at least one of the following: univariate analysiss (anova, Fisher's index and case must be schemed)
With multivariant method (linear discriminant analysiss (lda) and partial least squares discriminant analysis (pls-da)).
Data scaling can be used, including auto-scaling and pareto calibration.
Obtain in expectation in the original area of oil or the embodiment of type, it is possible to use enforcement mechanisms are known
Other method can distinguish the classification mould of different types of oil and/or the oil from different regions to build
Type.In such embodiment, can pass through under controlled conditions from can recognize that laboratory determines
Difference the sample from known oil/area is tested.
In the case of execution qualitative analyses (250), result is checked to check degradable material
Fraction whether be less than predetermined limit value (270), so that it is determined that whether oil can use.If degradable material
Fraction more than predetermined limit value (280), then oil has become unavailable and must be dropped.
If the fraction of degradable material (290) below predetermined limit value, oil remains available (290).
In the case of execution quantitative analyses (250), result can be further analyzed (260)
To determine the property of (for indefiniteness example) catabolite, the source of oil and above any
Combination, and can show or store the result (265) of quantitative analyses.Shown or stored
Result can include the property of catabolite, the source of oil, the fraction of catabolite in sample, oil
The fraction of natural constituents and above combination in any.Analysis type, analysis time, analysis
Date, the temperature of sample, the type (in a situation of use where) of diluent, diluent amount (
In the case of use), the intensity in magnetic field and explanation can also be shown and/or be stored.
Proton nmr measurement can be used in detecting processed materials, for analyze related various
Aspect.Subsequently, mathematical expectation can be defined for each sample.Meanwhile, identical measurement is permissible
For quantifying to a series of important components.Reference data can be set up using obtained result
Storehouse, enabling sample category to be analyzed in the future is grouped.Stoichiometry can be used
The combination of statistic law and quantitative analyses is various off quality to detect.
For example, according to1H-nmr compose, can easily identify many metabolite (aminoacid, phenol,
Sugar, the organic acid related with tca).For the chemical shift position observed by each proton with certainly
Rotation-spin coupling pattern is provided with regard to finding what kind of proton and subsequent proton in the molecule
The information how to arrange.Furthermore it is possible to be readily calculated every in sample according to the integration of signal in spectrum
The concentration of individual metabolite.Do not need as signal intensity is converted to concentration used in additive method
Calibration curve.For the reproducible result obtaining with regard to concentration, following parameter is important that relaxation is prolonged
Late, pulse width and acquisition time.
In measurement1H-nmr time spectrum, one of problem is water signal, water signal be with sugared or sugared
The huge signal being produced by the water remaining of end position anomeric proton (δ is 4.8 to the 5.2) overlap of glycosides.
In order to suppress this undesirable water signal, if having applied drying method, for example, add paramagnetic from
Son such as mg2+, it is followed by carr-purcell (cpmg) spin echo pulse program
Meiboom-gill modification and the presaturation using additional pulse.However, when in the relaxation delay phase
Between this is most common method it may occur that letter close to repressed water when applying presaturation technology
The undesirable decline of number intensity.In order to avoid such undesirable suppression, select the temperature of sample
With ph value so that water signal minimizes, because the temperature of sample and ph value consumingly affect water signal.
According to the molecular size of metabolite, specific pulse train can be applied.In order to future divides from childhood
Signal and the signal from macromole of son separate, it is possible to use AB-crosslinked polymer difference.
In the case of the matrix comprising macromole (for example, protein or lipid vesicle), such as cmpg
The unwanted resonance from macromole is realized in the application of the spin-echo sequence of pulse train etc
Decay.However, it is any in the plant extract using different pulse train1In h-nmr spectrum,
There is the intensive signal of metabolite;As disclosed, multivariate data analysis can be used for area
Divide the signal in complicated spectrum.
Fig. 6 is the schematic diagram how finding country of origin or originating in area.Press country or press Fructus Canarii albi kind
Growing area is drawn and can be obtained from the multivariate analyses previously sample in known area being carried out in practice
Data, with formation probability spheroid, a probable ellipsoid body corresponds to each country (word
Female a to g).In figure 6, for clarity, these data are shown as being reduced to three-dimensional.
Asterisk schematically shows the data from the multivariate analyses for single sample;The position of asterisk
Represent that sample is probably derived from national d.
Fig. 7 a to Fig. 7 c shows the effect to the heating that oily sample is carried out.Fig. 7 a shows
Sample before heating.Fig. 7 b shows 3 hours samples afterwards of heating at 165 DEG C, and schemes
7c shows the heating sample of 168 hours at 80 DEG C.Main peak (710) at chemical shift about 3.9
Substantially there is no heated impact, and the size of subsidiary maximum increases, especially chemical shift about 1.15
Place peak (720), its between Fig. 7 a and Fig. 7 b height almost double, and Fig. 7 b with
Highly double between Fig. 7 c above, therefore illustrate: if nmr is tuned to chemical potential
Move the frequency being about 1.15, then the ratio of (known) height at peak of the height at peak and untapped oil
Value can estimate the amount of the degraded of oil.If nmr is tuned to known free radical or pre-free base
(pre-radical) frequency, then can determine the fraction of the free radical of presence, and if freely
Base or pre-free base are carcinogenic or deforming, then can determine carcinogenecity and the teratogenecity of sample.
Due to nmr by preset adjustment to preset frequency it is therefore desirable to machinery or electronics broadband or very
To middle band mechanical tuning device, thus reducing the size of system.In some embodiments, system can be
Desktop computer size;In a preferred embodiment, it can be hand-held, so that it can hold
Change places carrying.
Due to both not having wide-band tuning and not having middle band tuning, therefore retuning software is also unnecessary
, that further reduces the size of system and reduce the cost of system.
In some embodiments, there is hardware or software fine tuning mechanism, enable to be
System carries out retuning to system in the case of having drifted about, and system is retuned to different operations
Frequency (for example, for different types of oil) and above combination in any.
In a preferred embodiment, degraded or certification, fall can be determined by parameter q of degrading
Solution parameter q is at least one phenotypic characteristic pc of processed materialspmMachined material with known substance source
At least one phenotypic characteristic pc of materialkpFunction:
Q=f (pcpm,pckp)
Wherein q is defined such that for undegraded material or undoped p material, parameter q of degrading
It is substantially equal to first predetermined value.
In the embodiment of measurement degraded, if q is more than second predetermined value, it is considered that
Rapidoprint is unavailable.
In the embodiment of measurement certification, if q is less than predetermined value, processed materials are recognized
Card.For non-limiting example, it is claimed area or country's (see below example 8)
Product, or it comprises claimed raw material (participate in hereafter example 1 to example 7).
A kind of example of degraded parameter q is degraded parameter q that the ratio according to phenotypic characteristic determines:
Wherein n is the number of the phenotypic characteristic included when determining degraded parameter.In this situation
Under, for undegraded material, q=1.Certainly it is apparent that the inverse of this ratio is also
A kind of example of degraded parameter q.
Another example of degraded parameter q is degraded parameter q that the ratio according to phenotypic parameter determines:
Wherein n is the number of the phenotypic characteristic included when determining degraded parameter.In this situation
Under, for undegraded material, q=1.
Degraded parameter q another example be according to phenotypic characteristic between difference come the degraded parameter determining
Q:
Wherein n is the number of the phenotypic characteristic included when determining degraded parameter.In this situation
Under, for undegraded material, q=0.
Degraded parameter q another example be according to phenotypic characteristic between root-mean-square deviation determine degraded
Parameter q:
Wherein n is the number of the phenotypic characteristic included when determining degraded parameter.In this situation
Under, for undegraded material, q=0.
Other examples of many of degraded parameter will be apparent to those skilled in the art.Such letter
Number can including but not limited to be selected from following function: summing function, SUbtractive function, multiplication function,
Division function, logarithmic function, polynomial function, exponential function, trigonometric function, hyperbolic functions, multiple
Varying function, beta function, error function and above combination in any.
Reference picture 8a to Fig. 8 c, in one embodiment, the system of the present invention includes being tuned to
The nmr (110) of single frequency, nmr (110) and computer control system (120) and sample
Offer system communicates.Preferably, sample provides system is also computer controls.Sample provides system
May include that the support (150) illustrating to meaning property as shown in figure 8 a, support (150)
For single sample (160) being transported to the region-of-interest of nmr, keep sample during analysis
This, and after an analysis sample is removed from it;Illustrate to meaning property as shown in figure 8b one is
Row machinery can connect support member (180), and a series of machineries can connect support member (180) and be configured to
Accommodating and convey multiple supports (150) makes multiple samples (160) can be transported to pass successively
Note region, analyzed and be removed from region-of-interest, or meaning property ground shows as shown in fig. 8 c
The conductance pipe (170) going out, conductance pipe (170) is used for continuously or in batches by the sample conveying of flowing
By region-of-interest.
This system can also include printer (130), the communicator (140) to other equipment and system
And above combination in any.
In some embodiments, printer can be printed for the label of the sample of processed materials,
Label preferably includes the mark of the sample of processed materials, the sample of the processed materials in known source
Mark, the phenotypic characteristic pc of processed materialspm, known source processed materials phenotype special
Levy pckp, degraded mark q, the image of processed materials, the figure of the processed materials in known source
Picture, the spectrum of processed materials, the spectrum of the processed materials in known substance source, time and above any
Combination.
Label can include bar code, picture, chart, diagram, symbol, text, date, time
And above combination in any, wherein, any one in above-mentioned item can be the sample of processed materials
The mark of the processed materials in this mark or the known place of production.
Print result can include bar code, picture, chart, diagram, symbol, text, the date,
Time and above combination in any.Preferably, the result being printed includes uniquely knowing by sample
Other result or the means of one group of result.
The combination in any of above-mentioned item can be stored in data base's (not shown), or by because of spy
Net, it is sent to by network, by wire communication, by radio communication and above combination in any
(140) another system or from another system transmission.
Communication agency is preferably two-way, and is configured to transmit the member selected from lower item: at least
The phenotypic characteristic pc of one processed materialspm, source known at least one processed materials table
Type feature pckp, degraded parameter q, the image of at least one processed materials, known at least one
The image of the processed materials in source, the spectrum of at least one processed materials, source known at least one
The spectrum of processed materials, the mark of the sample of at least one processed materials, go out known at least one
The mark of the sample of processed materials at place, time and above combination in any.
In some embodiments, the combination in any of above-mentioned item can be carried out storing, further analysis,
Print and other data aggregates and above combination in any.
Output from equipment can be selected from: whether q, processed materials credible (be-no), plus
Whether work material degrades (be-no), pckp、pcpmAnd above combination in any.For presenting
The mechanism of information can be selected from: shows the screen of at least one output;Print beating of at least one output
Print machine;Store the data base of at least one output;The mike of at least one predetermined sound pattern is provided,
Each acoustic pattern represents at least one output;Light, each optical mode of at least one optical mode are provided
Represent at least one output, and above combination in any.
Optical mode can be selected from: the light with constant tone, the light of tone with change, has
The light of constant brightness, the light of brightness with change and above combination in any.
A kind of non-limiting example assuming the light of output can be that green glow represents that cooking oil is still available,
And HONGGUANG represents that oil has been degraded so that it is no longer available.Similarly, if a light lights, material
Material is doping, and if second light lights, then material is substantially unadulterated.More examples
Apparent to one skilled in the art.
Acoustic pattern can be selected from: the sound with constant tone, the sound of tone with change,
The sound with constant loudness, the sound of loudness with change, monophonic sound, inclusion are multiple
The sound of tone and above combination in any.
Although show the use of the system above by cooking oil, but this system can be used in
There are other processed materials any of at least one nmr identifiable marker thing.Such machined
The non-limiting example of material includes: the composition of fruit juice, Chinese medicine or other drugs, other plant extract
Thing, flavouring agent, medical herbs, spice, coffee, tea, rubber and the food commercially produced.
In a preferred embodiment, this system is capable of identify that due to environmental condition or use condition such as temperature
Degree, humidity or insecticide, mycete or bacterial invasion and the degraded of processed materials that produces or by
The degraded producing in the passage of time.
In some embodiments, this system can be authenticated to processed materials.Such certification
Original area, the source of checking processed materials for example verifying processed materials can be included, for
Non-limiting example, the kind that processed materials are made from or the doping determining processed materials.
Although no matter where agricultural product grow, the key component of natural product all keeps identical, but
The type of less and/or micro component may be different with amount, and this depends in weather and soil
Trace element.Therefore.For example, in Fructus Vitis viniferae and the Portugal in the French same kind growing of Britain's growth
The taste of grape may be different, although all of processing conditionss are all identicals, are made up of Britain's Fructus Vitis viniferae
Wine and the taste of the wine being made up of French Grape are likely to different.
Similarly, the different mutation of the same species in natural product for the less and/or micro component
Between can be different, and in maturation process and storage during less and/or micro
Component can change.
As discussed above (referring to Fig. 6), in some embodiments, the equipment of the present invention can
For distinguishing the processed materials from different regions or country.Similarly, in some embodiments
In, it can be used for distinguishing the product of early harvest and the product of late harvest.In some embodiments
In, it can be used for identifying condition of storage, especially may have unfavorable shadow to the quality of processed materials
The storage condition ringing.
Doping can include adding one or more of artificial materials, adds from different less desirable
Area processed materials, add the not processed materials in jljl source or dilution.The first situation
One non-limiting example is that distilled vinegar is added in face cream vinegar, or Fructose is added to orange juice
In.In second, a non-limiting example of situation is that Morocco's olive oil is added to Li Guliya olive
In olive oil, because Li Guliya olive oil is legal producing region grade, and occupy 30% in the market
Advantage.A kind of non-limiting example of the third situation is that orange juice (Citrus) is added to orange juice is (sweet
Orange) in.Another non-limiting example of the third situation is to add water in fruit juice or milk.
Example
Example 1 Ilicis Purpureae
A kind of example is the research to Ilex.Analyze the Ilicis Purpureae of 11 kinds, 11 kinds
Ilicis Purpureae be differentiable according to their metabolite, especially can be by paraguay tea (Paraguay's winter
Blue or green) separate with its dopant region.The metabolite working be arbutin, Phenylpropanoid Glycosides, caffeine and
Theobromine.Caffeine and theobromine exist only in Paraguay Ilicis Purpureae, and arbutin exists only in other
In kind.
Example 2 Flos Chrysanthemi
Capitate research to Flos Chrysanthemi (Flos Matricariae chamomillae) shows that this technology can be used for different batches of assessment
The secondary relative quantity spending middle stem material.
Example 3 Semen Strychni
Using the different piece (seed, root, leaf and bark) of the plant Semen Strychni product different to three kinds
Plant and characterized.Metabolite based on all samples such as strychnine, loganin, Semen Strychni
Icaja alkaloid (Yi Kajing, sungucine) and fatty acid, all samples are all significantly may be used
Distinguish.
Example 4
For 12 Hemp Varieties, it is possible to use the following chemical combination for non-limiting example
Thing kind is made a distinction: thca, cbda, glucose, agedoite and glutamic acid, with
And above combination in any.
Example 5 Chinese medicine
Chinese medicine (tcm) is typically the mixture of some plants, and as in the medicine sold
The component of various plants can be very different, because quality control regulation is tended to pay close attention to certain change
The presence of compound or one group of compound and amount, rather than the main assembly of medicine.
Herba Ephedrae
Herba Ephedrae is widely used in Chinese medicine.However, the Herba Ephedrae Ephedra sinica of three kinds, middle fiber crops
Yellow and ephedra equisetina is commonly used, and is interchangeably used, because usual law making fiber crops
The amount (the 8% of dry weight) of yellow alkali.
However, it is possible to use the method for the system distinguishes Ephedra sinica, epheday intermedia and ephedra equisetina.Difference
Feature includes amount and the type of both ephedrine and secondary metabolite benzoic acid analog.Example
As, in nine tested commodity Herba Ephedrae materials, a mixture being shown as two kinds,
Other include single kind.
Radix Ginseng
Radix Ginseng (Radix Ginseng (panax ginseng)) preparation is one of medical herbs of commonly using most.Radix Ginseng
Product can be by the Radix Ginseng of all ages and classes (4 years, 5 years and 6 years) and by different processing
(red and white) is made.Data is represented the fraction that can be existed by compound and distinguishes various Radix Ginseng systems
Agent, compound is such as, but not limited to: alanine, arginine, fumaric acid, inositol and ginsenoside.
Radix Angelicae Sinensis
Two Angelica acutiloba subspecies for after tested: Angelica acutiloba (yamato-toki) and the North Sea are worked as
Return (hokkai-toki), for their geographical position and their species, root is differentiable.
Herba Artemisiae Annuae
Two Herba Artemisiae Annuae kinds after tested: it is to distinguish that Herba Artemisiae annuae has shown with African Herba Artemisiae Annuae
's.
In further test, the content of the arteannuin in commercial product shows is claimed not with business
With.
Other medicinal plants
Other medicinal plants differentiable include but is not limited to chryanthemum parthenium, piper meehysticum and St. John's's Fructus Hordei Germinatus
Juice.
The doping of example 6 fruit juice
In the case of compared with reference standard, the concrete deviation of the concentration of particular compound or chemical combination
The concrete deviation of the type spectrum of concrete combination of thing can be with characterization q&r problem, as sugar
Add.In some embodiments, the absolute concentration of compound in fruit juice can be known.These chemical combination
Thing includes but is not limited to sucrose, glucose, Fructose, proline, alanine, 5 hydroxymethyl furfural
(hmf), ethanol, methanol, acetone, root bark three acid, acetaldehyde, benzaldehyde, 3-Hydroxybutanone
(acetoine), arbutin (arbutine), malic acid, citric acid, 1-Hydroxy-1,2,3-propanetricarboxylic acid., chlorogenic acid,
Lactic acid, fumaric acid, quinic acid, succinic acid, citramalic acid, formic acid, benzoic acid, acetic acid, sorbic acid,
Gluconic acid and galacturonic acid.Furthermore, it is possible to the relation between the concentration of the various compounds of calculating, such as
The ratio of glucose and Fructose or the ratio of sucrose and total sugar.
Therefore, it is possible to detect fraud, such as but not limited to: sugar is added fruit juice, the processing of expendable enzyme
(label: galacturonic acid), add citric acid or Fructus Citri Limoniae juice (for example, in Sucus Mali pumilae), Fructus Citri tangerinae
Peel extract (label: root bark three acid) or (for example, high in Sucus Mali pumilae using immature fruit
The quinic acid of concentration).
The species of fruit in example 7 fruit juice
In some embodiments, the species of fruit used in fruit juice can be known.Can distinguish
The species of fruit includes but is not limited to: Fructus Mali pumilae, Fructus Citri tangerinae, Citrus, sour cherry, Fructus Ananadis comosi, Ribes nigrum L.,
Passifolra edulis, Fructus Citri Limoniae, grapefruit, Fructus Musae, Fructus Persicae, Fructus Rubi, Fructus Fragariae Ananssae, pears, Fructus Pruni, Fructus Mangifera Indicae, kind
Punica granatum L., Radix Dauci Sativae, fruit of Ramulus Sambuci Williamsii, Punica granatum L. and Fructus Vitis viniferae.
A kind of fruit juice is uncommon with the doping of another kind of fruit juice, except orange juice (Fructus Citri sinensiss) and orange juice
The situation that (Citrus) mix.The latter is typically more cheap, and therefore some companies are not having the feelings of statement
It is added under condition in orange juice, this is illegal in Europe.It is difficult to detect Fructus Citri tangerinae using traditional analysis
The interpolation in orange juice for the juice.But pass through the system, level is the detection of 10% or higher orange juice
Should be feasible.
Example 8 distinguishes the source of fruit juice
In some embodiments, equipment can distinguish direct fruit juice and from the fruit juice concentrating.
In some embodiments, as discussed above with reference to Fig. 6, equipment can detect the former of fruit
The place of production.
Elementary statistics method for such discriminating is pca (principal component analysis) and differentiates
Analysis.By cross validation and Monte Carlo Analysis, accuracy can be checked.Determining
After possible group distribution, verify sample by two steps.First, univariate analysiss by each
Spectrum region-of-interest is compared with reference data set, and the deviation of detection compound concentration.Second side
Method is the multivariate analyses based on pca/simca, inconspicuous in univariate analysiss for detecting
Deviation.If two methods provide identical result, sample is consistent with model, is considered to represent
Expected source, and successfully passed prescreening test.Do not need to sample in this case
Tested further.
If however, the deviation with normality is detected, can be further analyzed.This non-
Targetedly method is even more so that not previously known pollutant can be detected.
The estimation of the fruit content of example 9 fruit juice
Generally, by selected compound and mineral are carried out quantitative analysiss and by this tittle with
Reference distribution compares the fruit content relatively to estimate fruit juice.By this equipment, can be in only one spectrum
On the basis of measure hundreds of variables so that fruit content can be estimated using regression analyses.Test is
Through display, in sample more than 95% sample, result has about 10% relative precision.
Claims (157)
1. a kind of handheld device of the degraded for determining at least one processed materials related to the processed materials in known source;By at least one phenotypic characteristic pckpTo characterize the processed materials in described known source, described handheld device includes:
A. handheld portable imaging device, for providing at least one phenotypic characteristic pc of at least one processed materials describedpm;
B. controller, described controller is communicated with described handheld portable imaging device, for determining degraded mark q;
Wherein, described q is defined as pcpmAnd pckpFunction f:
Q=f (pcpm,pckp);
Wherein, if pcpmIt is substantially equal to pckp, then q be equal to the first predefined value, and described processed materials are certified with regard to the processed materials in described known source;Otherwise
If pcpmIt is markedly different from pckp, then q be equal to the second predefined value, and by described degraded mark q determine described degraded.
2. equipment according to claim 1, wherein, described handheld portable imaging device is selected from: infrared equipment, MR imaging apparatus, Fourier transform infrared line equipment, camera, at least one photodetector and above combination in any.
3. equipment according to claim 1, wherein, described pckpWith described pcpmIt is selected from: originate in area, country of origin, the source of described processed materials, non-impurity-doped, color, hydrogenation, infrared spectrum, nuclear magnetic resoance spectrum, Fourier transform infrared line spectrum, the width at least one peak, the height at least one peak, the area at least one peak, the wavelength at least one peak, the number at peak, the wavelength shift at least one peak, baseline height, the title of country of origin, the title originating in area, other marks and above combination in any, described selection is for described pckpWith described pcpmIt is identical.
4. equipment according to claim 1, wherein, described processed materials are selected from: oil, fruit juice, the composition of natural Chinese medicine, the composition of other natural drugs, plant extract, medical herbs, spice, coffee, tea, rubber, the food commercially produced and above combination in any.
5. equipment according to claim 4, wherein, described oil is edible oil.
6. equipment according to claim 5, wherein, described grease separation is from olive oil, Oleum Arachidis hypogaeae semen, walnut oil, rapeseed oil, almond oil, American Avocado Tree oil, butter, Oleum Cocois, Semen Maydis oil, Oleum Gossypii semen, Semen Lini oil, butter, Oleum Vitis viniferae, hazelnut oil, cannabis oil, Adeps Sus domestica, macadimia nut oil, margarine, mustard oil, Fructus Canarii albi Marc oil, Petiolus Trachycarpi oil, Semen Cucurbitae oil, Testa oryzae oil, safflower oil, Oleum sesami, soybean oil, Oleum Helianthi, Adeps Bovis seu Bubali, Oleum Camelliae, vegetable shortenings and above combination in any.
7. equipment according to claim 1, also includes at least one screen, and at least one screen described is suitable to show at least one in following item: described q, described pckp, described pcpm, described first predefined value, described second predefined value, represent described q symbol, represent described pckpSymbol, represent described pcpmSymbol, represent the symbol of described first predefined value, represent the symbol of described second predefined value and above combination in any.
8. equipment according to claim 7, wherein, described symbol is selected from: pattern, labelling, picture, numeral, text, code, bar code, readable texture, the instruction creating readable texture and above combination in any.
9. equipment according to claim 1, also includes at least one printer, and at least one printer described is suitable to print at least one in following item: described q, described pckp, described pcpm, described first predefined value, described second predefined value, represent described q symbol, represent described pckpSymbol, represent described pcpmSymbol, represent the symbol of described first predefined value, represent the symbol of described second predefined value and above combination in any.
10. equipment according to claim 9, wherein, described symbol is selected from: pattern, labelling, picture, numeral, text, code, bar code, readable texture, the instruction creating readable texture and above combination in any.
11. equipment according to claim 1, also include storing at least one data base of at least one in following item: described q, described pckp, described pcpm, described first predefined value, described second predefined value, represent described q symbol, represent described pckpSymbol, represent described pcpmSymbol, represent the symbol of described first predefined value, represent the symbol of described second predefined value and above combination in any.
12. equipment according to claim 11, wherein, described symbol is selected from: pattern, labelling, picture, numeral, text, code, bar code, readable texture, the instruction creating readable texture and above combination in any.
13. equipment according to claim 1, also include at least one mike providing at least one predetermined sound pattern, and each described acoustic pattern represents at least one in following item: described q, described pckp, described pcpm, described first predefined value, described second predefined value, represent described q symbol, represent described pckpSymbol, represent described pcpmSymbol, represent the symbol of described first predefined value, represent the symbol of described second predefined value and above combination in any.
14. equipment according to claim 13, wherein, described symbol is selected from: pattern, labelling, picture, numeral, text, code, bar code, readable texture, the instruction creating readable texture and above combination in any.
15. equipment according to claim 13, wherein, described acoustic pattern is selected from: the sound with constant tone, the sound of tone with change, the sound with constant loudness, the sound of loudness with change, monophonic sound, the sound including multiple tones and above combination in any.
16. equipment according to claim 13, wherein, if described q is equal to described first predefined value, send the first predefined acoustic pattern.
17. equipment according to claim 13, wherein, if described q is equal to described second predefined value, send the second predefined acoustic pattern.
18. equipment according to claim 1, also include at least one light source providing at least one predetermined optical mode;Each described optical mode represents at least one in following item: described q, described pckp, described pcpm, described first predefined value, described second predefined value, represent described q symbol, represent described pckpSymbol, represent described pcpmSymbol, represent the symbol of described first predefined value, represent the symbol of described second predefined value and above combination in any.
19. equipment according to claim 18, wherein, described symbol is selected from: pattern, labelling, picture, numeral, text, code, bar code, readable texture, the instruction creating readable texture and above combination in any.
20. equipment according to claim 18, wherein, described optical mode is selected from: the light with constant tone, the light of tone with change, the light with constant brightness, the light of brightness with change and above combination in any.
21. equipment according to claim 18, wherein, if described q is equal to described first predetermined value, send the first predefined optical mode.
22. equipment according to claim 18, wherein, if described q is equal to described second predetermined value, send the second predefined optical mode.
23. equipment according to claim 1, wherein, described equipment also includes two-way communication mechanism, and described two-way communication mechanism is wired or wireless and is configured to transmit the member of following item: the described phenotypic characteristic pc of at least one processed materials describedpm, described source known at least one processed materials described phenotypic characteristic pckp, described q, described first predefined value, described second predefined value, the handheld portable imaging device image of at least one processed materials described, the handheld portable imaging device image of the processed materials in described source known at least one, the spectrum of at least one processed materials described, the spectrum of the processed materials in described source known at least one, the mark of at least one processed materials described, the mark of the processed materials in described source known at least one, time and above combination in any.
24. equipment according to claim 1, wherein, at least one phenotypic characteristic (pc according to described processed materialspm)iWith at least one phenotypic characteristic (pc described in the processed materials in described known sourcekp)iBetween ratio calculating f;Q is defined as:
Wherein n is the number of the phenotypic characteristic included when determining q, for undegraded material, q=1;I is greater than or equal to 1 and the integer less than or equal to n.
25. equipment according to claim 1, wherein, at least one phenotypic characteristic (pc according to described processed materialspm)iWith at least one phenotypic characteristic (pc described in the processed materials in described known sourcekp)iBetween ratio calculating f;Q is defined as:
Wherein n is the number of the phenotypic characteristic included when determining q, for undegraded material, q=1;I is greater than or equal to 1 and the integer less than or equal to n.
26. equipment according to claim 1, wherein, at least one phenotypic characteristic (pc according to described processed materialspm)iWith at least one phenotypic characteristic (pc described in the processed materials in described known sourcekp)iBetween difference calculating f;Q is defined as:
Wherein n is the number of the phenotypic characteristic included when determining q, for undegraded material, q=0;I is greater than or equal to 1 and the integer less than or equal to n.
27. equipment according to claim 1, wherein, at least one phenotypic characteristic (pc according to described processed materialspm)iWith at least one phenotypic characteristic (pc described in the processed materials in described known sourcekp)iBetween root-mean-square deviation calculating f;Q is defined as:
Wherein n is the number of the phenotypic characteristic included when determining degraded parameter, for undegraded material, q=0;I is greater than or equal to 1 and the integer less than or equal to n.
28. equipment according to claim 1, wherein, f: summing function, SUbtractive function, multiplication function, division function, logarithmic function, polynomial function, exponential function, trigonometric function, hyperbolic functions, complex function, beta function, error function and above combination in any are calculated according to the mathematical function selected from following item.
A kind of 29. handheld devices of the degraded for determining the cooking oil related to the cooking oil in known source;By at least one phenotypic characteristic pckpTo characterize the cooking oil in described known source, described handheld device includes:
A. handheld portable imaging device, for providing at least one phenotypic characteristic pc of at least one described cooking oilco;
B. controller, described controller is communicated with described handheld portable imaging device, for determining degraded mark q;
Wherein, described q is pccoAnd pckpFunction f:
Q=f (pcco,pckp);
Wherein, if pccoIt is substantially equal to pckp, then q be equal to the first predefined value, and described processed materials are certified with respect to the processed materials in described known source;Otherwise
If pccoIt is markedly different from pckp, then q be equal to the second predefined value, and by described degraded mark determine described degraded.
30. equipment according to claim 29, wherein, described handheld portable imaging device is selected from: infrared equipment, MR imaging apparatus, Fourier transform infrared line equipment, camera, at least one photodetector and above combination in any.
31. equipment according to claim 29, wherein, described pckpWith described pccoIt is selected from: originate in area, country of origin, the source of described processed materials, non-impurity-doped, color, hydrogenation, infrared spectrum, nuclear magnetic resoance spectrum, Fourier transform infrared line spectrum, the width at least one peak, the height at least one peak, the area at least one peak, the wavelength at least one peak, the number at peak, the wavelength shift at least one peak, baseline height and above combination in any, described selection is for described pckpWith described pccoIt is identical.
32. equipment according to claim 29, wherein, described cooking oil is selected from: olive oil, Oleum Arachidis hypogaeae semen, walnut oil, rapeseed oil, almond oil, American Avocado Tree oil, butter, Oleum Cocois, Semen Maydis oil, Oleum Gossypii semen, Semen Lini oil, butter, Oleum Vitis viniferae, hazelnut oil, cannabis oil, Adeps Sus domestica, macadimia nut oil, margarine, mustard oil, Fructus Canarii albi Marc oil, Petiolus Trachycarpi oil, Semen Cucurbitae oil, Testa oryzae oil, safflower oil, Oleum sesami, soybean oil, Oleum Helianthi, Adeps Bovis seu Bubali, Oleum Camelliae, vegetable shortenings and above combination in any.
33. equipment according to claim 29, also include at least one screen, and at least one screen described is suitable to show at least one in following item: described q, described pckp, described pcco, described first predefined value, described second predefined value, represent described q symbol, represent described pckpSymbol, represent described pccoSymbol, represent the symbol of described first predefined value, represent the symbol of described second predefined value and above combination in any.
34. equipment according to claim 33, wherein, described symbol is selected from: pattern, labelling, picture, numeral, text, code, bar code, readable texture, the instruction creating readable texture and above combination in any.
35. equipment according to claim 29, also include at least one printer, and at least one printer described is suitable to print at least one in following item: described q, described pckp, described pcco, described first predefined value, described second predefined value, represent described q symbol, represent described pckpSymbol, represent described pccoSymbol, represent the symbol of described first predefined value, represent the symbol of described second predefined value and above combination in any.
36. equipment according to claim 35, wherein, described symbol is selected from: pattern, labelling, picture, numeral, text, code, bar code, readable texture, the instruction creating readable texture and above combination in any.
37. equipment according to claim 29, also include storing at least one data base of at least one in following item: described q, described pckp, described pccoAnd above combination in any.
38. equipment according to claim 37, wherein, described symbol is selected from: pattern, labelling, picture, numeral, text, code, bar code, readable texture, the instruction creating readable texture and above combination in any.
39. equipment according to claim 29, also include at least one mike providing at least one predetermined sound pattern, and each described acoustic pattern represents at least one in following item: described q, described pckp, described pccoAnd above combination in any.
40. equipment according to claim 39, wherein, described symbol is selected from: pattern, labelling, picture, numeral, text, code, bar code, readable texture, the instruction creating readable texture and above combination in any.
41. equipment according to claim 39, wherein, described acoustic pattern is selected from: the sound with constant tone, the sound of tone with change, the sound with constant loudness, the sound of loudness with change, monophonic sound, the sound including multiple tones and above combination in any.
42. equipment according to claim 39, wherein, if described q is equal to described first predefined value, send the first predefined acoustic pattern.
43. equipment according to claim 39, wherein, if described q is equal to described second predefined value, send the second predefined acoustic pattern.
44. equipment according to claim 29, also include at least one light source providing at least one predetermined optical mode;Each described optical mode represents at least one in following item: described q, described pckp, described pccoAnd above combination in any.
45. equipment according to claim 44, wherein, described symbol is selected from: pattern, labelling, picture, numeral, text, code, bar code, readable texture, the instruction creating readable texture and above combination in any.
46. equipment according to claim 44, wherein, described optical mode is selected from: the light with constant tone, the light of tone with change, the light with constant brightness, the light of brightness with change and above combination in any.
47. equipment according to claim 44, wherein, if described q is equal to described first predetermined value, send the first predefined optical mode.
48. equipment according to claim 44, wherein, if described q is equal to described second predetermined value, send the second predefined optical mode.
49. equipment according to claim 29, wherein, described equipment also includes two-way communication mechanism, and described two-way communication mechanism is wired or wireless and is configured to transmit the member selected from lower item: the described phenotypic characteristic pc of at least one processed materials describedco, described source known at least one processed materials phenotypic characteristic pckp, described q, described first predefined value, described second predefined value, the handheld portable imaging device image of at least one processed materials described, the handheld portable imaging device image of the processed materials in described source known at least one, the spectrum of at least one processed materials described, the spectrum of the processed materials in described source known at least one, the mark of at least one processed materials described, the mark of the processed materials in described source known at least one, time and above combination in any.
50. equipment according to claim 29, wherein, at least one phenotypic characteristic (pc according to described processed materialsco)iWith at least one phenotypic characteristic (pc described in the processed materials in described known sourcekp)iBetween ratio calculating f;Q is defined as:
Wherein n is the number of the phenotypic characteristic included when determining q, for undegraded material, q=1;I is greater than or equal to 1 and the integer less than or equal to n.
51. equipment according to claim 29, wherein, at least one phenotypic characteristic (pc according to described processed materialsco)iWith at least one phenotypic characteristic (pc described in the processed materials in described known sourcekp)iBetween ratio calculating f;Q is defined as:
Wherein n is the number of the phenotypic characteristic included when determining q, for undegraded material, q=1;I is greater than or equal to 1 and the integer less than or equal to n.
52. equipment according to claim 29, at least one phenotypic characteristic (pc according to described processed materialsco)iWith at least one phenotypic characteristic (pc described in the processed materials in described known sourcekp)iBetween difference calculating f;Q is defined as:
Wherein n is the number of the phenotypic characteristic included when determining q, for undegraded material, q=0;I is greater than or equal to 1 and the integer less than or equal to n.
53. equipment according to claim 29, at least one phenotypic characteristic (pc wherein according to described processed materialsco)iWith at least one phenotypic characteristic (pc described in the processed materials in described known sourcekp)iBetween root-mean-square deviation calculating f;Q is defined as:
Wherein n is the number of the phenotypic characteristic included when determining degraded parameter, for undegraded material, q=0;I is greater than or equal to 1 and the integer less than or equal to n.
54. equipment according to claim 29, wherein, f: summing function, SUbtractive function, multiplication function, division function, logarithmic function, polynomial function, exponential function, trigonometric function, hyperbolic functions, complex function, beta function, error function and above combination in any are calculated according to the mathematical function selected from following item.
A kind of 55. handheld devices of the degraded for determining the olive oil related to the olive oil in known source;By at least one phenotypic characteristic pckpTo characterize the olive oil in described known source, described handheld device includes:
A. handheld portable imaging device, for providing at least one phenotypic characteristic pc of at least one olive oil describedoo;
B. controller, described controller is communicated with described handheld portable imaging device, for determining degraded mark q;
Wherein, described q is pcooAnd pckpFunction f:
Q=f (pcoo,pckp);
Wherein, if pcooIt is substantially equal to pckp, then q be equal to the first predefined value, and described processed materials are certified with respect to the processed materials in described known source;Otherwise
If pcooIt is markedly different from pckp, then q be equal to the second predefined value, and by described degraded mark q determine described degraded.
56. equipment according to claim 55, wherein, described handheld portable imaging device is selected from: infrared equipment, MR imaging apparatus, Fourier transform infrared line equipment, camera, at least one photodetector and above combination in any.
57. equipment according to claim 55, wherein, described pckpWith described pcooIt is selected from: originate in area, country of origin, the source of described processed materials, non-impurity-doped, color, hydrogenation, infrared spectrum, nuclear magnetic resoance spectrum, Fourier transform infrared line spectrum, the width at least one peak, the height at least one peak, the area at least one peak, the wavelength at least one peak, the number at peak, the wavelength shift at least one peak, baseline height and above combination in any, described selection is for described pckpWith described pcooIt is identical.
58. equipment according to claim 55, also include at least one screen, and at least one screen described is suitable to show at least one in following item: described q, described pckp, described pcoo, described first predefined value, described second predefined value, represent described q symbol, represent described pckpSymbol, represent described pcooSymbol, represent the symbol of described first predefined value, represent the symbol of described second predefined value and above combination in any.
59. equipment according to claim 58, wherein, described symbol is selected from: pattern, labelling, picture, numeral, text, code, bar code, readable texture, the instruction creating readable texture and above combination in any.
60. equipment according to claim 55, also include at least one printer, and at least one printer described is suitable to print at least one in following item: described q, described pckp, described pcoo, described first predefined value, described second predefined value, represent described q symbol, represent described pckpSymbol, represent described pcooSymbol, represent the symbol of described first predefined value, represent the symbol of described second predefined value and above combination in any.
61. equipment according to claim 60, wherein, described symbol is selected from: pattern, labelling, picture, numeral, text, code, bar code, readable texture, the instruction creating readable texture and above combination in any.
62. equipment according to claim 55, also include at least one data base, and at least one data base described is suitable to store at least one in following item: described q, described pckp, described pcoo, described first predefined value, described second predefined value, represent described q symbol, represent described pckpSymbol, represent described pcooSymbol, represent the symbol of described first predefined value, represent the symbol of described second predefined value and above combination in any.
63. equipment according to claim 55, also include at least one mike providing at least one predetermined sound pattern, and each described acoustic pattern represents at least one in following item: described q, described pckp, described pcoo, described first predefined value, described second predefined value, represent described q symbol, represent described pckpSymbol, represent described pcooSymbol, represent the symbol of described first predefined value, represent the symbol of described second predefined value and above combination in any.
64. equipment according to claim 63, wherein, described symbol is selected from: pattern, labelling, picture, numeral, text, code, bar code, readable texture, the instruction creating readable texture and above combination in any.
65. equipment according to claim 63, wherein, described acoustic pattern is selected from: the sound with constant tone, the sound of tone with change, the sound with constant loudness, the sound of loudness with change, monophonic sound, the sound including multiple tones and above combination in any.
66. equipment according to claim 63, wherein, if described q is equal to described first predefined value, send the first predefined acoustic pattern.
67. equipment according to claim 63, wherein, if described q is equal to described second predefined value, send the second predefined acoustic pattern.
68. equipment according to claim 55, also include at least one light source providing at least one predetermined optical mode;Each described optical mode represents at least one in following item: described q, described pckp, described pcoo, described first predefined value, described second predefined value, represent described q symbol, represent described pckpSymbol, represent described pcooSymbol, represent the symbol of described first predefined value, represent the symbol of described second predefined value and above combination in any.
69. equipment according to claim 68, wherein, described symbol is selected from: pattern, labelling, picture, numeral, text, code, bar code, readable texture, the instruction creating readable texture and above combination in any.
70. equipment according to claim 68, wherein, described optical mode is selected from: the light with constant tone, the light of tone with change, the light with constant brightness, the light of brightness with change and above combination in any.
71. equipment according to claim 68, wherein, if described q is equal to described first predetermined value, send the first predefined optical mode.
72. equipment according to claim 68, wherein, if described q is equal to described second predetermined value, send the second predefined optical mode.
73. equipment according to claim 55, wherein, described equipment also includes two-way communication mechanism, and described two-way communication mechanism is wired or wireless and is configured to transmit the member selected from lower item: the described phenotypic characteristic pc of at least one olive oil describedoo, described source known at least one olive oil phenotypic characteristic pckp, described q, described first predefined value, described second predefined value, the handheld portable imaging device image of at least one olive oil described, the handheld portable imaging device image of olive oil in described source known at least one, the mark of at least one olive oil described, the mark of olive oil in described source known at least one, time and above combination in any.
74. equipment according to claim 55, wherein, at least one phenotypic characteristic (pc according to described processed materialsoo)iWith at least one phenotypic characteristic (pc described in the processed materials in described known sourcekp)iBetween ratio calculating f;Q is defined as:
Wherein n is the number of the phenotypic characteristic included when determining q, for undegraded material, q=1;I is greater than or equal to 1 and the integer less than or equal to n.
75. equipment according to claim 55, wherein, at least one phenotypic characteristic (pc according to described processed materialsoo)iWith at least one phenotypic characteristic (pc described in the processed materials in described known sourcekp)iBetween ratio calculating f;Q is defined as:
Wherein n is the number of the phenotypic characteristic included when determining q, for undegraded material, q=1;I is greater than or equal to 1 and the integer less than or equal to n.
76. equipment according to claim 55, at least one phenotypic characteristic (pc according to described processed materialsoo)iWith at least one phenotypic characteristic (pc described in the processed materials in described known sourcekp)iBetween difference calculating f;Q is defined as:
Wherein n is the number of the phenotypic characteristic included when determining q, for undegraded material, q=0;I is greater than or equal to 1 and the integer less than or equal to n.
77. equipment according to claim 55, at least one phenotypic characteristic (pc wherein according to described processed materialsoo)iWith at least one phenotypic characteristic (pc described in the processed materials in described known sourcekp)iBetween root-mean-square deviation calculating f;Q is defined as:
Wherein n is the number of the phenotypic characteristic included when determining degraded parameter, for undegraded material, q=0;I is greater than or equal to 1 and the integer less than or equal to n.
78. equipment according to claim 55, wherein, f: summing function, SUbtractive function, multiplication function, division function, logarithmic function, polynomial function, exponential function, trigonometric function, hyperbolic functions, complex function, beta function, error function and above combination in any are calculated according to the mathematical function selected from following item.
A kind of 79. nursing standard methods of the degraded for determining at least one processed materials related to the processed materials in known source, comprising:
A. at least one phenotypic characteristic pc of the processed materials in source known at least one described in specifyingkp;
B., handheld portable imaging device is provided;
C. described processed materials are imaged to provide at least one phenotypic characteristic pc of at least one processed materials describedpm;
D. degraded is determined by degraded mark q;
Wherein, described q is pcpmAnd pckpFunction f:
Q=f (pcpm,pckp);
Wherein, if pcpmIt is substantially equal to pckp, then q be equal to the first predefined value, and described processed materials are certified with regard to the processed materials in described known source;Otherwise
If pcpmIt is markedly different from pckp, then q is equal to the second predefined value.
80. methods according to claim 79, also include the step selecting described handheld portable imaging device from following item: infrared equipment, MR imaging apparatus, Fourier transform infrared line equipment, camera, at least one photodetector and above combination in any.
81. methods according to claim 79, also include selecting described pc from following itemkpWith described pcpmStep: originate in area, country of origin, the source of described processed materials, non-impurity-doped, color, hydrogenation, infrared spectrum, nuclear magnetic resoance spectrum, Fourier transform infrared line spectrum, the width at least one peak, the height at least one peak, the area at least one peak, the wavelength at least one peak, the number at peak, the wavelength shift at least one peak, baseline highly and above combination in any, described selection is for described pckpWith described pcpmIt is identical.
82. methods according to claim 79, also include the step selecting described processed materials from following item: oil, fruit juice, the composition of natural Chinese medicine, the composition of other natural drugs, plant extract, medical herbs, spice, coffee, tea, rubber, the food commercially produced and above combination in any.
83. methods described in 2 according to Claim 8, also include the step that described grease separation is selected as edible oil.
84. methods described in 3 according to Claim 8, also include the step selecting described oil from following item: olive oil, Oleum Arachidis hypogaeae semen, walnut oil, rapeseed oil, almond oil, American Avocado Tree oil, butter, Oleum Cocois, Semen Maydis oil, Oleum Gossypii semen, Semen Lini oil, butter, Oleum Vitis viniferae, hazelnut oil, cannabis oil, Adeps Sus domestica, macadimia nut oil, margarine, mustard oil, Fructus Canarii albi Marc oil, Petiolus Trachycarpi oil, Semen Cucurbitae oil, Testa oryzae oil, safflower oil, Oleum sesami, soybean oil, Oleum Helianthi, Adeps Bovis seu Bubali, Oleum Camelliae, vegetable shortenings and above combination in any.
85. methods according to claim 79, also include showing the step of at least one in following item by least one screen: described q, described pckp, described pcpm, described first predefined value, described second predefined value, represent described q symbol, represent described pckpSymbol, represent described pcpmSymbol, represent the symbol of described first predefined value, represent the symbol of described second predefined value and above combination in any.
86. methods described in 5 according to Claim 8, also include the step selecting described symbol from following item: pattern, labelling, picture, numeral, text, code, bar code, readable texture, the instruction creating readable texture and above combination in any.
87. methods according to claim 79, also include being printed the step of at least one in following item by means of at least one printer: described q, described pckp, described pcpm, described first predefined value, described second predefined value, represent described q symbol, represent described pckpSymbol, represent described pcpmSymbol, represent the symbol of described first predefined value, represent the symbol of described second predefined value and above combination in any.
88. methods described in 7 according to Claim 8, also include the step selecting described symbol from following item: pattern, labelling, picture, numeral, text, code, bar code, readable texture, the instruction creating readable texture and above combination in any.
89. methods according to claim 79, are additionally included in the step of at least one in following item for the storage at least one data base: described q, described pckp, described pcpm, described first predefined value, described second predefined value, represent described q symbol, represent described pckpSymbol, represent described pcpmSymbol, represent the symbol of described first predefined value, represent the symbol of described second predefined value and above combination in any.
90. methods described in 9 according to Claim 8, also include the step selecting described symbol from following item: pattern, labelling, picture, numeral, text, code, bar code, readable texture, the instruction creating readable texture and above combination in any.
91. methods according to claim 79, also include the step sending at least one predetermined sound pattern by least one mike, and each described acoustic pattern represents at least one in following item: described q, described pckp, described pcpm, described first predefined value, described second predefined value, represent described q symbol, represent described pckpSymbol, represent described pcpmSymbol, represent the symbol of described first predefined value, represent the symbol of described second predefined value and above combination in any.
92. the method according to claim 91, also include the step selecting described symbol from following item: pattern, labelling, picture, numeral, text, code, bar code, readable texture, the instruction creating readable texture and above combination in any.
93. methods according to claim 91, also include the step selecting described acoustic pattern from following item: the sound with constant tone, the sound of tone with change, the sound with constant loudness, the sound of loudness with change, monophonic sound, the sound including multiple tones and above combination in any.
94. methods according to claim 91, further comprising the steps of: if described q is equal to described first predefined value, to send the first predefined acoustic pattern.
95. methods according to claim 91, further comprising the steps of: if described q is equal to described second predefined value, to send the second predefined acoustic pattern.
96. methods according to claim 79, also include the step sending at least one predetermined optical mode by least one light source;Each described optical mode represents at least one in following item: described q, described pckp, described pcpm, described first predefined value, described second predefined value, represent described q symbol, represent described pckpSymbol, represent described pcpmSymbol, represent the symbol of described first predefined value, represent the symbol of described second predefined value and above combination in any.
97. the method according to claim 96, also include the step selecting described symbol from following item: pattern, labelling, picture, numeral, text, code, bar code, readable texture, the instruction creating readable texture and above combination in any.
98. methods according to claim 96, also include the step selecting described optical mode from following item: the light with constant tone, the light of tone with change, the light with constant brightness, the light of brightness with change and above combination in any.
99. methods according to claim 96, further comprising the steps of: if described q is equal to described first predefined value, to send the first predefined optical mode.
100. methods according to claim 96, further comprising the steps of: if described q is equal to described second predefined value, to send the second predefined optical mode.
101. methods according to claim 79, also include the step providing two-way communication mechanism, described two-way communication mechanism is member that is wired or wireless and transmitting following item: the described phenotypic characteristic pc of at least one processed materials describedpm, described source known at least one processed materials phenotypic characteristic pckp, described q, described first predefined value, described second predefined value, the handheld portable imaging device image of at least one processed materials described, the handheld portable imaging device image of the processed materials in described source known at least one, the spectrum of at least one processed materials described, the spectrum of the processed materials in described source known at least one, the mark of at least one processed materials described, the mark of the processed materials in described source known at least one, time and above combination in any.
102. methods according to claim 79, also include at least one phenotypic characteristic (pc according to described processed materialspm)iWith at least one phenotypic characteristic (pc described in the processed materials in described known sourcekp)iBetween the step to calculate f for the ratio;Q is defined as:
Wherein n is the number of the phenotypic characteristic included when determining q, for undegraded material, q=1;I is greater than or equal to 1 and the integer less than or equal to n.
103. methods according to claim 79, also include at least one phenotypic characteristic (pc according to described processed materialspm)iWith at least one phenotypic characteristic (pc described in the processed materials in described known sourcekp)iBetween the step to calculate f for the ratio;Q is defined as:
Wherein n is the number of the phenotypic characteristic included when determining q, for undegraded material, q=1;I is greater than or equal to 1 and the integer less than or equal to n.
104. methods according to claim 79, also include at least one phenotypic characteristic (pc according to described processed materialspm)iWith at least one phenotypic characteristic (pc described in the processed materials in described known sourcekp)iBetween the step to calculate f for the difference;Q is defined as:
Wherein n is the number of the phenotypic characteristic included when determining q, for undegraded material, q=0;I is greater than or equal to 1 and the integer less than or equal to n.
105. methods according to claim 79, also include at least one phenotypic characteristic (pc according to described processed materialspm)iWith at least one phenotypic characteristic (pc described in the processed materials in described known sourcekp)iBetween the step to calculate f for the root-mean-square deviation;Q is defined as:
Wherein n is the number of the phenotypic characteristic included when determining degraded parameter, for undegraded material, q=0;I is greater than or equal to 1 and the integer less than or equal to n.
106. methods according to claim 79, also include the step calculating f according to the mathematical function selected from following item: summing function, SUbtractive function, multiplication function, division function, logarithmic function, polynomial function, exponential function, trigonometric function, hyperbolic functions, complex function, beta function, error function and above combination in any.
A kind of 107. nursing standard methods of the degraded for determining at least one cooking oil related to the cooking oil in known source, comprising:
A. at least one phenotypic characteristic pc of the cooking oil in source known at least one described in specifyingkp;
B., handheld portable imaging device is provided;
C. described cooking oil is imaged to provide at least one phenotypic characteristic pc of at least one cooking oil describedco;
D. degraded is determined by degraded mark q;
Wherein, described q is pccoAnd pckpFunction f:
Q=f (pcco,pckp);
Wherein, if pccoIt is substantially equal to pckp, then q be equal to the first predefined value, and described processed materials are certified with regard to the processed materials in described known source;Otherwise
If pccoIt is markedly different from pckp, then q is equal to the second predefined value.
108. methods according to claim 107, also include the step selecting handheld portable imaging device from following item: infrared equipment, MR imaging apparatus, Fourier transform infrared line equipment, camera, at least one photodetector and above combination in any.
109. methods according to claim 107, also include selecting described pc from following itemkpWith described pccoStep: originate in area, country of origin, the source of described processed materials, non-impurity-doped, color, hydrogenation, infrared spectrum, nuclear magnetic resoance spectrum, Fourier transform infrared line spectrum, the width at least one peak, the height at least one peak, the area at least one peak, the wavelength at least one peak, the number at peak, the wavelength shift at least one peak, baseline highly and above combination in any, described selection is for described pckpWith described pccoIt is identical.
110. methods according to claim 107, also include the step selecting described cooking oil from following item: olive oil, Oleum Arachidis hypogaeae semen, walnut oil, rapeseed oil, almond oil, American Avocado Tree oil, butter, Oleum Cocois, Semen Maydis oil, Oleum Gossypii semen, Semen Lini oil, butter, Oleum Vitis viniferae, hazelnut oil, cannabis oil, Adeps Sus domestica, macadimia nut oil, margarine, mustard oil, Fructus Canarii albi Marc oil, Petiolus Trachycarpi oil, Semen Cucurbitae oil, Testa oryzae oil, safflower oil, Oleum sesami, soybean oil, Oleum Helianthi, Adeps Bovis seu Bubali, Oleum Camelliae, vegetable shortenings and above combination in any.
111. methods according to claim 107, also include showing the step of at least one in following item by least one screen: described q, described pckp, described pcco, described first predefined value, described second predefined value, represent described q symbol, represent described pckpSymbol, represent described pccoSymbol, represent the symbol of described first predefined value, represent the symbol of described second predefined value and above combination in any.
112. the method according to claim 111, also include the step selecting described symbol from following item: pattern, labelling, picture, numeral, text, code, bar code, readable texture, the instruction creating readable texture and above combination in any.
113. methods according to claim 107, also include being printed the step of at least one in following item by means of at least one printer: described q, described pckp, described pcco, described first predefined value, described second predefined value, represent described q symbol, represent described pckpSymbol, represent described pccoSymbol, represent the symbol of described first predefined value, represent the symbol of described second predefined value and above combination in any.
114. methods according to claim 113, also include the step selecting described symbol from following item: pattern, labelling, picture, numeral, text, code, bar code, readable texture, the instruction creating readable texture and above combination in any.
115. methods according to claim 107, are additionally included in the step of at least one in following item for the storage at least one data base: described q, described pckp, described pcco, described first predefined value, described second predefined value, represent described q symbol, represent described pckpSymbol, represent described pccoSymbol, represent the symbol of described first predefined value, represent the symbol of described second predefined value and above combination in any.
116. methods according to claim 115, also include the step selecting described symbol from following item: pattern, labelling, picture, numeral, text, code, bar code, readable texture, the instruction creating readable texture and above combination in any.
117. methods according to claim 107, also include the step sending at least one predetermined sound pattern by least one mike, and each described acoustic pattern represents at least one in following item: described q, described pckp, described pcco, described first predefined value, described second predefined value, represent described q symbol, represent described pckpSymbol, represent described pccoSymbol, represent the symbol of described first predefined value, represent the symbol of described second predefined value and above combination in any.
118. methods according to claim 117, also include the step selecting described symbol from following item: pattern, labelling, picture, numeral, text, code, bar code, readable texture, the instruction creating readable texture and above combination in any.
119. methods according to claim 117, also include the step selecting described acoustic pattern from following item: the sound with constant tone, the sound of tone with change, the sound with constant loudness, the sound of loudness with change, monophonic sound, the sound including multiple tones and above combination in any.
120. methods according to claim 117, further comprising the steps of: if described q is equal to described first predefined value, to send the first predefined acoustic pattern.
121. methods according to claim 117, further comprising the steps of: if described q is equal to described second predefined value, to send the second predefined acoustic pattern.
122. methods according to claim 107, also include the step sending at least one predetermined optical mode by least one light source;Each described optical mode represents at least one in following item: described q, described pckp, described pcco, described first predefined value, described second predefined value, represent described q symbol, represent described pckpSymbol, represent described pccoSymbol, represent the symbol of described first predefined value, represent the symbol of described second predefined value and above combination in any.
123. methods according to claim 122, also include the step selecting described symbol from following item: pattern, labelling, picture, numeral, text, code, bar code, readable texture, the instruction creating readable texture and above combination in any.
124. methods according to claim 122, also include the step selecting described optical mode from following item: the light with constant tone, the light of tone with change, the light with constant brightness, the light of brightness with change and above combination in any.
125. methods according to claim 122, further comprising the steps of: if described q is equal to described first predefined value, to send the first predefined optical mode.
126. methods according to claim 122, further comprising the steps of: if described q is equal to described second predefined value, to send the second predefined optical mode.
127. methods according to claim 107, also include the step providing two-way communication mechanism, described two-way communication mechanism is member that is wired or wireless and transmitting following item: the described phenotypic characteristic pc of at least one cooking oil describedco, described source known at least one cooking oil phenotypic characteristic pckp, described q, described first predefined value, described second predefined value, the handheld portable imaging device image of at least one cooking oil described, the handheld portable imaging device image of cooking oil in described source known at least one, the spectrum of at least one cooking oil described, the spectrum of cooking oil in described source known at least one, the mark of at least one cooking oil described, the mark of cooking oil in described source known at least one, time and above combination in any.
128. methods according to claim 107, also include at least one phenotypic characteristic (pc according to described processed materialsco)iWith at least one phenotypic characteristic (pc described in the processed materials in described known sourcekp)iBetween the step to calculate f for the ratio;Q is defined as:
Wherein n is the number of the phenotypic characteristic included when determining q, for undegraded material, q=1;I is greater than or equal to 1 and the integer less than or equal to n.
129. methods according to claim 107, also include at least one phenotypic characteristic (pc according to described processed materialsco)iWith at least one phenotypic characteristic (pc described in the processed materials in described known sourcekp)iBetween the step to calculate f for the ratio;Q is defined as:
Wherein n is the number of the phenotypic characteristic included when determining q, for undegraded material, q=1;I is greater than or equal to 1 and the integer less than or equal to n.
130. methods according to claim 107, also include at least one phenotypic characteristic (pc according to described processed materialsco)iWith at least one phenotypic characteristic (pc described in the processed materials in described known sourcekp)iBetween the step to calculate f for the difference;Q is defined as:
Wherein n is the number of the phenotypic characteristic included when determining q, for undegraded material, q=0;I is greater than or equal to 1 and the integer less than or equal to n.
131. methods according to claim 107, also include at least one phenotypic characteristic (pc according to described processed materialsco)iWith at least one phenotypic characteristic (pc described in the processed materials in described known sourcekp)iBetween the step to calculate f for the root-mean-square deviation;Q is defined as:
Wherein n is the number of the phenotypic characteristic included when determining degraded parameter, for undegraded material, q=0;I is greater than or equal to 1 and the integer less than or equal to n.
132. methods according to claim 107, also include the step calculating f according to the mathematical function selected from following item: summing function, SUbtractive function, multiplication function, division function, logarithmic function, polynomial function, exponential function, trigonometric function, hyperbolic functions, complex function, beta function, error function and above combination in any.
A kind of 133. nursing standard methods of the degraded for determining at least one olive oil related to the olive oil in known source, comprising:
A. at least one phenotypic characteristic pc of the olive oil in source known at least one described in specifyingkp;
B., handheld portable imaging device is provided;
C. described olive oil is imaged to provide at least one phenotypic characteristic pc of at least one olive oil describedoo;
D. degraded is determined by degraded mark q;
Wherein, described q is pcooAnd pckpFunction f:
Q=f (pcoo,pckp);
Wherein, if pcooIt is substantially equal to pckp, then q be equal to the first predefined value, and described processed materials are certified with regard to the processed materials in described known source;Otherwise
If pcooIt is markedly different from pckp, then q is equal to the second predefined value.
134. methods according to claim 133, also include the step selecting handheld portable imaging device from following item: infrared equipment, MR imaging apparatus, Fourier transform infrared line equipment, camera, at least one photodetector and above combination in any.
135. methods according to claim 133, also include selecting described pc from following itemkpWith described pcooStep: originate in area, country of origin, the source of described processed materials, non-impurity-doped, color, hydrogenation, infrared spectrum, nuclear magnetic resoance spectrum, Fourier transform infrared line spectrum, the width at least one peak, the height at least one peak, the area at least one peak, the wavelength at least one peak, the number at peak, the wavelength shift at least one peak, baseline highly and above combination in any, described selection is for described pckpWith described pcooIt is identical.
136. methods according to claim 133, also include showing the step of at least one in following item by least one screen: described q, described pckp, described pcoo, described first predefined value, described second predefined value, represent described q symbol, represent described pckpSymbol, represent described pcooSymbol, represent the symbol of described first predefined value, represent the symbol of described second predefined value and above combination in any.
137. methods according to claim 136, also include the step selecting described symbol from following item: pattern, labelling, picture, numeral, text, code, bar code, readable texture, the instruction creating readable texture and above combination in any.
138. methods according to claim 133, also include being printed the step of at least one in following item by means of at least one printer: described q, described pckp, described pcooAnd above combination in any.
139. methods according to claim 138, also include the step selecting described symbol from following item: pattern, labelling, picture, numeral, text, code, bar code, readable texture, the instruction creating readable texture and above combination in any.
140. methods according to claim 133, are additionally included in the step of at least one in following item for the storage at least one data base: described q, described pckp, described pcoo, described first predefined value, described second predefined value, represent described q symbol, represent described pckpSymbol, represent described pcooSymbol, represent the symbol of described first predefined value, represent the symbol of described second predefined value and above combination in any.
141. methods according to claim 140, also include the step selecting described symbol from following item: pattern, labelling, picture, numeral, text, code, bar code, readable texture, the instruction creating readable texture and above combination in any.
142. methods according to claim 133, also include the step sending at least one predetermined sound pattern by least one mike, and each described acoustic pattern represents at least one in following item: described q, described pckp, described pcoo, described first predefined value, described second predefined value, represent described q symbol, represent described pckpSymbol, represent described pcooSymbol, represent the symbol of described first predefined value, represent the symbol of described second predefined value and above combination in any.
143. methods according to claim 142, also include the step selecting described symbol from following item: pattern, labelling, picture, numeral, text, code, bar code, readable texture, the instruction creating readable texture and above combination in any.
144. methods according to claim 142, also include the step selecting described acoustic pattern from following item: the sound with constant tone, the sound of tone with change, the sound with constant loudness, the sound of loudness with change, monophonic sound, the sound including multiple tones and above combination in any.
145. methods according to claim 142, further comprising the steps of: if described q is equal to described first predefined value, to send the first predefined acoustic pattern.
146. methods according to claim 142, further comprising the steps of: if described q is equal to described second predefined value, to send the second predefined acoustic pattern.
147. methods according to claim 133, also include the step sending at least one predetermined optical mode by least one light source;Each described optical mode represents at least one in following item: described q, described pckp, described pcoo, described first predefined value, described second predefined value, represent described q symbol, represent described pckpSymbol, represent described pcooSymbol, represent the symbol of described first predefined value, represent the symbol of described second predefined value and above combination in any.
148. methods according to claim 147, also include the step selecting described symbol from following item: pattern, labelling, picture, numeral, text, code, bar code, readable texture, the instruction creating readable texture and above combination in any.
149. methods according to claim 147, also include the step selecting described optical mode from following item: the light with constant tone, the light of tone with change, the light with constant brightness, the light of brightness with change and above combination in any.
150. methods according to claim 147, further comprising the steps of: if described q is equal to described first predefined value, to send the first predefined optical mode.
151. methods according to claim 147, further comprising the steps of: if described q is equal to described second predefined value, to send the second predefined optical mode.
152. methods according to claim 133, also include the step providing the two-way communication mechanism being configured to wire or wirelessly communicate, and the step transmitting the member of following item: the described phenotypic characteristic pc of at least one olive oil describedoo, described source known at least one olive oil phenotypic characteristic pckp, described q, described first predefined value, described second predefined value, the handheld portable imaging device image of olive oil in described source known at least one, the handheld portable imaging device image of at least one olive oil described, the mark of at least one olive oil described, the mark of olive oil in described source known at least one, time and above combination in any.
153. methods according to claim 133, also include at least one phenotypic characteristic (pc according to described processed materialsoo)iWith at least one phenotypic characteristic (pc described in the processed materials in described known sourcekp)iBetween the step to calculate f for the ratio;Q is defined as:
Wherein n is the number of the phenotypic characteristic included when determining q, for undegraded material, q=1;I is greater than or equal to 1 and the integer less than or equal to n.
154. methods according to claim 133, also include at least one phenotypic characteristic (pc according to described processed materialsoo)iWith at least one phenotypic characteristic (pc described in the processed materials in described known sourcekp)iBetween the step to calculate f for the ratio;Q is defined as:
Wherein n is the number of the phenotypic characteristic included when determining q, for undegraded material, q=1;I is greater than or equal to 1 and the integer less than or equal to n.
155. methods according to claim 133, also include at least one phenotypic characteristic (pc according to described processed materialsoo)iWith at least one phenotypic characteristic (pc described in the processed materials in described known sourcekp)iBetween the step to calculate f for the difference;Q is defined as:
Wherein n is the number of the phenotypic characteristic included when determining q, for undegraded material, q=0;I is greater than or equal to 1 and the integer less than or equal to n.
156. methods according to claim 133, also include at least one phenotypic characteristic (pc according to described processed materialsoo)iWith at least one phenotypic characteristic (pc described in the processed materials in described known sourcekp)iBetween the step to calculate f for the root-mean-square deviation;Q is defined as:
Wherein n is the number of the phenotypic characteristic included when determining degraded parameter, for undegraded material, q=0;I is greater than or equal to 1 and the integer less than or equal to n.
157. methods according to claim 133, also include the step calculating f according to the mathematical function selected from following item: summing function, SUbtractive function, multiplication function, division function, logarithmic function, polynomial function, exponential function, trigonometric function, hyperbolic functions, complex function, beta function, error function and above combination in any.
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Cited By (2)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
CN107421975A (en) * | 2017-07-17 | 2017-12-01 | 天津中医药大学 | The detection method of glycerol content in a kind of injection |
DE102023125191A1 (en) * | 2023-09-18 | 2025-03-20 | Bernd W.K. Diehl | Method for the detection of palm oil in oil-containing mixtures |
Citations (7)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
EP1063534A1 (en) * | 1999-06-23 | 2000-12-27 | Commissariat A L'energie Atomique | Portable NMR measuring device |
WO2004008104A2 (en) * | 2002-07-17 | 2004-01-22 | The Regents Of The University Of California | Methods and devices for analysis of sealed containers |
CN102721716A (en) * | 2012-07-04 | 2012-10-10 | 中国科学院研究生院 | Quality inspection method of edible oil based on 1H-NMR fingerprint combined with multivariate analysis |
CN103207200A (en) * | 2013-03-08 | 2013-07-17 | 厦门大学 | Method for judging illegal cooking oil by relative contents of characteristic compounds |
CN103411991A (en) * | 2013-08-19 | 2013-11-27 | 上海纽迈电子科技有限公司 | Portable low-field nuclear magnetic resonance old frying oil analysis meter |
CN103792247A (en) * | 2012-11-02 | 2014-05-14 | 上海理工大学 | Low-field nuclear magnetic resonance detection method for frying use limit of soybean oil |
WO2014204335A1 (en) * | 2013-06-18 | 2014-12-24 | Siemens Aktiengesellschaft | Method and system for monitoring the quality of fluids |
-
2015
- 2015-07-17 CN CN201510424003.2A patent/CN106353356A/en active Pending
Patent Citations (8)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
EP1063534A1 (en) * | 1999-06-23 | 2000-12-27 | Commissariat A L'energie Atomique | Portable NMR measuring device |
WO2004008104A2 (en) * | 2002-07-17 | 2004-01-22 | The Regents Of The University Of California | Methods and devices for analysis of sealed containers |
US20040090231A1 (en) * | 2002-07-17 | 2004-05-13 | The Regents Of The University Of California | Methods and devices for analysis of sealed containers |
CN102721716A (en) * | 2012-07-04 | 2012-10-10 | 中国科学院研究生院 | Quality inspection method of edible oil based on 1H-NMR fingerprint combined with multivariate analysis |
CN103792247A (en) * | 2012-11-02 | 2014-05-14 | 上海理工大学 | Low-field nuclear magnetic resonance detection method for frying use limit of soybean oil |
CN103207200A (en) * | 2013-03-08 | 2013-07-17 | 厦门大学 | Method for judging illegal cooking oil by relative contents of characteristic compounds |
WO2014204335A1 (en) * | 2013-06-18 | 2014-12-24 | Siemens Aktiengesellschaft | Method and system for monitoring the quality of fluids |
CN103411991A (en) * | 2013-08-19 | 2013-11-27 | 上海纽迈电子科技有限公司 | Portable low-field nuclear magnetic resonance old frying oil analysis meter |
Cited By (2)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
CN107421975A (en) * | 2017-07-17 | 2017-12-01 | 天津中医药大学 | The detection method of glycerol content in a kind of injection |
DE102023125191A1 (en) * | 2023-09-18 | 2025-03-20 | Bernd W.K. Diehl | Method for the detection of palm oil in oil-containing mixtures |
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