mhurhangee/patent-ind-claim-en huggingface dataset:
A layered sheet comprising a carrier having a first and second surface and an inorganic refractory layer adjacent to at least one surface of the carrier wherein the refractory layer has a dry areal weight, measured according to ISO 536 , of from 15 to 50 gsm, the bond strength between the refractory layer and the surface of the carrier is no less than 0.25 lb/in (0.044 N/mm), and wherein the carrier (i) comprises from 40 to 70 weight percent of aramid fibers and from 30 to 60 weight percent of polymeric binder, (ii) is hydrophilic (iii) has a wet tensile strength, measured according to TAPPI T456 om-10, of at least 3 lb/in (0.53 N/mm) in a first direction and at least 2 lb/in (0.35 N/mm) in a second direction, the second direction being transverse to the first direction, (iv) has a dry tensile strength, measured according to TAPPI T494 om-06, of at least 7 lb/in (1.23 N/mm) in a first direction and at least 3 lb/in (0.53 N/mm) in a second direction, the second direction being transverse to the first direction, (v) has an air permeability, measured according to TAPPI T460 om-11, of no greater than 600 Gurley Air Resistance (sec/100cc, 20 oz. (567 g) cyl.), (vi) has a smoothness, measured according to TAPPI T538 om-08, on at least one surface of no less than 250 Sheffield units, (vii) has a thickness, measured by TAPPI T411 om-10, of from 0.025 to 0.175 mm, (viii) has a density of from 0.25 to 0.60 g/cc, and (ix) has a basis weight, measured according to TAPPI T 410, of from 20 to 70 gsm, wherein the refractory layer comprises inorganic platelets selected from clay, preferably montmorillonite; vermiculite; mica; talc and combinations thereof, and wherein at least 85 % of the layer comprises platelets. (i) comprises from 40 to 70 weight percent of aramid fibers and from 30 to 60 weight percent of polymeric binder, (ii) is hydrophilic (iii) has a wet tensile strength, measured according to TAPPI T456 om-10, of at least 3 lb/in (0.53 N/mm) in a first direction and at least 2 lb/in (0.35 N/mm) in a second direction, the second direction being transverse to the first direction, (iv) has a dry tensile strength, measured according to TAPPI T494 om-06, of at least 7 lb/in (1.23 N/mm) in a first direction and at least 3 lb/in (0.53 N/mm) in a second direction, the second direction being transverse to the first direction, (v) has an air permeability, measured according to TAPPI T460 om-11, of no greater than 600 Gurley Air Resistance (sec/100cc, 20 oz. (567 g) cyl.), (vi) has a smoothness, measured according to TAPPI T538 om-08, on at least one surface of no less than 250 Sheffield units, (vii) has a thickness, measured by TAPPI T411 om-10, of from 0.025 to 0.175 mm, (viii) has a density of from 0.25 to 0.60 g/cc, and (ix) has a basis weight, measured according to TAPPI T 410, of from 20 to 70 gsm,
A method for establishing an APOE gene knock-out canine model demonstrating an atherosclerotic phenotype, comprising the following steps: determining a targeting site sequence directed to an exon sequence of canine APOE gene sequence; synthesizing sgRNA sequence and the complementary sequence thereof according to the targeting site sequence determined in step , then linking the synthesized sequence with a skeleton vector to construct a sgRNA targeting vector; in vitro transcripting the sgRNA targeting vector to obtain mRNA thereof, and in vitro transcripting CRISPR/Cas9 to obtain mRNA thereof; mixing the mRNA of sgRNA and mRNA of CRISPR/Cas9 obtained in step , and then intracytoplasmic injecting thereof into the fertilized ovum; and transplanting the fertilized ovum into less bleeding fallopian tubes of a female canine of which both fallopian tubes have been embryo flushed; the exon in step is exon 3 whose sequence is as shown in SEQ ID NO: 2; and the targeting site sequence is the sequence determined directed to exon 3 as follows: 5'-CCGGGTGGCAGACTGGCCAGCCC-3' (SEQ ID NO: 4); and the synthesized sgRNA sequence and the complementary sequence thereof in step are as follows: sgRNA sequence: ataGGGCTGGCCAGTCTGCCACCgt (SEQ ID NO: 5); and the complementary sequence of sgRNA sequence: taaaacGGTGG CAGACTGGCCAGCC (SEQ ID NO: 6). determining a targeting site sequence directed to an exon sequence of canine APOE gene sequence; synthesizing sgRNA sequence and the complementary sequence thereof according to the targeting site sequence determined in step , then linking the synthesized sequence with a skeleton vector to construct a sgRNA targeting vector; in vitro transcripting the sgRNA targeting vector to obtain mRNA thereof, and in vitro transcripting CRISPR/Cas9 to obtain mRNA thereof; mixing the mRNA of sgRNA and mRNA of CRISPR/Cas9 obtained in step , and then intracytoplasmic injecting thereof into the fertilized ovum; and transplanting the fertilized ovum into less bleeding fallopian tubes of a female canine of which both fallopian tubes have been embryo flushed; the exon in step is exon 3 whose sequence is as shown in SEQ ID NO: 2; and the targeting site sequence is the sequence determined directed to exon 3 as follows: 5'-CCGGGTGGCAGACTGGCCAGCCC-3' (SEQ ID NO: 4); and the synthesized sgRNA sequence and the complementary sequence thereof in step are as follows: sgRNA sequence: ataGGGCTGGCCAGTCTGCCACCgt (SEQ ID NO: 5); and the complementary sequence of sgRNA sequence: taaaacGGTGG CAGACTGGCCAGCC (SEQ ID NO: 6). the exon in step is exon 3 whose sequence is as shown in SEQ ID NO: 2; and the targeting site sequence is the sequence determined directed to exon 3 as follows: 5'-CCGGGTGGCAGACTGGCCAGCCC-3' (SEQ ID NO: 4); and the synthesized sgRNA sequence and the complementary sequence thereof in step are as follows: sgRNA sequence: ataGGGCTGGCCAGTCTGCCACCgt (SEQ ID NO: 5); and the complementary sequence of sgRNA sequence: taaaacGGTGG CAGACTGGCCAGCC (SEQ ID NO: 6). sgRNA sequence: ataGGGCTGGCCAGTCTGCCACCgt (SEQ ID NO: 5); and the complementary sequence of sgRNA sequence: taaaacGGTGG CAGACTGGCCAGCC (SEQ ID NO: 6).
An operation setting apparatus for an electric freezer comprising: a calculator which, based on a relationship between a setting value regarding operation control of an electric freezer and a consumed power of the electric freezer, is configured to calculate a target value of the consumed power of the electric freezer; and a determiner that is configured to change the setting value so that a difference between an actually measured consumed power of the electric freezer and the target value of the consumed power of the electric freezer calculated by the calculator is within a prescribed range; wherein the determiner is configured to determine whether or not, by changing the setting value, it is possible to make the difference between the actually measured value of consumed power of the electric freezer and the calculated target value to be within the prescribed range and, if it is not possible to make the difference between the actually measured value and the calculated target value to be within the prescribed range, the determiner is configured to control a heat storage tank , the output of which is configured to be merged with the output of the electric freezer, so that the difference is made to be within the prescribed range. a calculator which, based on a relationship between a setting value regarding operation control of an electric freezer and a consumed power of the electric freezer, is configured to calculate a target value of the consumed power of the electric freezer; and a determiner that is configured to change the setting value so that a difference between an actually measured consumed power of the electric freezer and the target value of the consumed power of the electric freezer calculated by the calculator is within a prescribed range; wherein the determiner is configured to determine whether or not, by changing the setting value, it is possible to make the difference between the actually measured value of consumed power of the electric freezer and the calculated target value to be within the prescribed range and, if it is not possible to make the difference between the actually measured value and the calculated target value to be within the prescribed range, the determiner is configured to control a heat storage tank , the output of which is configured to be merged with the output of the electric freezer, so that the difference is made to be within the prescribed range.
A plasma processing apparatus configured to perform a plasma process on a processing target object (W), comprising a processing vessel having a processing space (S) formed therein; a mounting table provided within the processing space (S), and configured to mount the processing target object (W) thereon; a dielectric member , disposed at the processing vessel to close the processing space (S), having an internal space and communication holes through which the internal space is allowed to communicate with the processing space (S); a first electrode and a second electrode provided within the dielectric member and arranged to face each other with the internal space therebetween; a first gas supply device configured to supply a first processing gas for the plasma process into the internal space ; a first high frequency power supply configured to supply a first high frequency power to the first electrode and the second electrode to generate a first plasma of the first processing gas supplied into the internal space ; characterised by further comprising a power splitter configured to split the first high frequency power inputted from the first high frequency power supply into a first split power and a second split power, and distribute the first split power and the second split power to the first electrode and the second electrode , respectively; a depressurizing device configured to depressurize the processing space (S) to introduce the first processing gas and radicals in the first plasma into the processing space (S) from the internal space through the communication holes ; a second high frequency power supply configured to supply a second high frequency power to the mounting table to generate a second plasma of the first processing gas introduced into the processing space (S) and to attract ions in the second plasma into the processing target object (W); and a control unit configured to adjust, by controlling a total amount of the first split power supplied to the first electrode and the second split power supplied to the second electrode , an amount of the radicals in the first plasma introduced into the processing space (S) from the internal space through the communication holes and adjust, by the radicals, an amount of radicals in the second plasma; and configured to adjust, by controlling a ratio between the first split power and the second split power, an amount of electrons in the first plasma introduced into the processing space (S) from the internal space through the communication holes and adjust, by the electrons, an amount of the ions in the second plasma.
A prosthesis comprising: a central body having a longitudinal axis normal to a reference plane that extends through the central body; and a plurality of fins (91-96, 108, 110, 151-154, 208, 210) extending laterally from an outer surface of the central body, the plurality of fins being spaced apart around the outer surface of the central body, wherein spacing of the plurality of fins is asymmetric in the reference plane, characterised in that all of the plurality of fins do not create bilateral symmetry of all of the plurality of fins with respect to a longitudinal plane containing the longitudinal axis due to the spacing in the reference plane of the plurality of fins. a central body having a longitudinal axis normal to a reference plane that extends through the central body; and a plurality of fins (91-96, 108, 110, 151-154, 208, 210) extending laterally from an outer surface of the central body, the plurality of fins being spaced apart around the outer surface of the central body, wherein spacing of the plurality of fins is asymmetric in the reference plane, characterised in that all of the plurality of fins do not create bilateral symmetry of all of the plurality of fins with respect to a longitudinal plane containing the longitudinal axis due to the spacing in the reference plane of the plurality of fins.
A process for producing a chain component coated with a hard material layer chain component , such as an inner and/or outer plate , sleeve and/or pin , which comprises the following process steps comprising: • preparation of a release agent • adding the prepared release agent to a powder mixture • providing the powder mixture, • providing the substrate of metal, • heating the powder and the substrate in a heating device, • depositing a layer on the substrate , whereby the layer has a higher hardness than the substrate • cooling the substrate , wherein the proportion of the release agent in the powder mixture is less than or equal to 25% by weight, and wherein the process step of preparing a release agent leads to an increase in the average particle size of the release agent , wherein the change in the particle size distribution of the release agent is effected by washing, sieving, sedimentation, filtration, sifting, air sifting and/or centrifuging, wherein the release agent contains a proportion of particles smaller than 40 μm of less than 25%, preferably less than 15% and particularly preferably less than 10%, wherein the particle size distribution of the release agent is determined by sieve analysis wherein the release agent comprises Al 2 O 3 , kaolin (aluminosilicate), mullite (alumina and silica), zirconia, nitride and/or silicide ceramics and/or all other ceramic inert substances, and wherein the process temperature is at times higher than 450°C, preferably higher than 500°C and particularly preferably higher than 550°C. • preparation of a release agent • adding the prepared release agent to a powder mixture • providing the powder mixture, • providing the substrate of metal, • heating the powder and the substrate in a heating device, • depositing a layer on the substrate , whereby the layer has a higher hardness than the substrate • cooling the substrate , wherein the proportion of the release agent in the powder mixture is less than or equal to 25% by weight, and wherein the process step of preparing a release agent leads to an increase in the average particle size of the release agent , wherein the change in the particle size distribution of the release agent is effected by washing, sieving, sedimentation, filtration, sifting, air sifting and/or centrifuging, wherein the release agent contains a proportion of particles smaller than 40 μm of less than 25%, preferably less than 15% and particularly preferably less than 10%, wherein the particle size distribution of the release agent is determined by sieve analysis wherein the release agent comprises Al 2 O 3 , kaolin (aluminosilicate), mullite (alumina and silica), zirconia, nitride and/or silicide ceramics and/or all other ceramic inert substances, and wherein the process temperature is at times higher than 450°C, preferably higher than 500°C and particularly preferably higher than 550°C.
An uninterruptible power source device comprising: an input-output terminal that is connected in parallel with a power source line through which electric power is configured to be supplied from an external power source to a loading device ; a battery unit whose rated voltage is lower than a voltage of the external power source ; a voltage converting device that is configured to convert a voltage of the battery unit into a voltage equivalent to a difference between the voltage of the external power source and the voltage of the battery unit ; a charging circuit comprising a switch (SW1) and a diode (D3) connected in series, and that is configured to charge the battery unit through the input-output terminal with the electric power of the external power source ; and a discharging circuit that is configured to perform discharge to the loading device through the input-output terminal at a voltage resulting from adding an output voltage of the voltage converting device to the voltage of the battery unit , at the time of electric power interruption of the external power source , wherein the discharging circuit is configured to connect an output of the voltage converting device and the battery unit with the input-output terminal by diode-or connection; and wherein the voltage converting device is an input-output isolation type DC/DC converter. an input-output terminal that is connected in parallel with a power source line through which electric power is configured to be supplied from an external power source to a loading device ; a battery unit whose rated voltage is lower than a voltage of the external power source ; a voltage converting device that is configured to convert a voltage of the battery unit into a voltage equivalent to a difference between the voltage of the external power source and the voltage of the battery unit ; a charging circuit comprising a switch (SW1) and a diode (D3) connected in series, and that is configured to charge the battery unit through the input-output terminal with the electric power of the external power source ; and a discharging circuit that is configured to perform discharge to the loading device through the input-output terminal at a voltage resulting from adding an output voltage of the voltage converting device to the voltage of the battery unit , at the time of electric power interruption of the external power source , wherein the discharging circuit is configured to connect an output of the voltage converting device and the battery unit with the input-output terminal by diode-or connection; and wherein the voltage converting device is an input-output isolation type DC/DC converter.
Rodent control method comprising covering a surface with at least one sheet likely to prevent the intrusion of said rodents in order to protect a sensitive area or object, said at least one sheet being made of an opaque polymer material and having a thickness greater than or equal to 50 μm, said sheet containing an extract derived from Piper nigrum.
Cutter system for an electric shaver and/or trimmer, comprising a pair of cooperating cutting elements movably supported relative to each other by a support element , wherein lateral ends of at least one of said cutting elements are provided with lateral protection elements having rounded and/or chamfered edge contours for soft skin engagement, said cooperating cutting elements comprising a first stationary cutting element having a skin side and an opposite side facing a second moveable cutting element , said moveable second cutting element being moveable in a movement direction, said pair of cooperating cutting elements having lateral sides perpendicular to the movement direction and longitudinal sides parallel to the movement direction, characterized in that said lateral protection elements are protruding only in the direction away from the skin contact surface , the cutting element having a portion enveloping or covering a gap movably receiving the other cutting element at the lateral sides and/or enveloping or covering the support element .
A method for operating a lighting system with a geometrical time signalling effect; the method comprises providing a lamp with a lighting area and arranging the lamp so that the lighting area is visible from a region in surroundings of the lamp , the lighting area comprising a disc-shaped part and a ring-shaped part , where the light emitted from both the disc-shaped part and the ring-shaped part is directed into the same region from the same side of the lamp and the disc-shaped part and the ring-shaped part are both visible and mutually visually distinguishable from the region; wherein the lighting area comprises a first light source producing a first type of white light and a second light source producing a second type of white light; wherein the method comprises periodically shifting between emission of the first type of white light and emission of the second type of white light, and producing light from the disc-shaped part and the ring-shaped part so that they are concentric; characterised in that the first type of white light produced by the first light source has a spectrum in which more than 30% of the spectral energy content relates to wavelengths in the range between 380 and 520 nm, and the second type of white light produced by the second light source has a spectrum in which less than 5% of the spectral energy content relates to wavelengths shorter than 520 nm; where the first type of white light is emitted from a disc-shaped part of the lighting area and the second type of white light is emitted from a ring-shaped part of the lighting area; wherein the light emitted from the disc-shaped part is signalling daytime and the light emitted from the ring-shaped part is signalling night-time to a person in the region, and wherein the disc-shaped part has an outer diameter D 1, and the ring-shaped part has an inner diameter D2 and an outer diameter D3, wherein D1 and D3 are in the range of 0.2 and 3 m, and wherein D2 is at least 0.1 m, and wherein D1 is approximately equal to D3, and D2 larger than half of D1.
Protective cap for a lock of a door, which lock has a lock case , the protective cap comprising two side walls laterally covering the lock case and a web connecting the side walls , the web being formed in at least one portion as a reinforcing web and the reinforcing web having a higher strength than the side walls , characterized in that the web extends over the entire height of the side walls and has a single cut-out for a locking cylinder screw to be guided through.
An ancillary laundry composition comprising: a. Soil release polymer; b. 0.5 to 20 wt.% free perfume; c. 0.5 - 12 wt.% non-ionic surfactant; and d. Water wherein the composition comprises less than 2 wt.% anionic and/or cationic surfactant. a. Soil release polymer; b. 0.5 to 20 wt.% free perfume; c. 0.5 - 12 wt.% non-ionic surfactant; and d. Water
A composition comprising a mixture of non-polymeric crosslinkable compounds exhibiting a single thermal transition free of phase separation wherein (a) said mixture is amorphous and (b) said mixture is solid at about 20° C and (c) said mixture comprises at least two different non-polymeric crosslinkable compounds each conforming to the formula (R 1 Y 2 )p[(Z 1 Y 2 )mR 2 Y 3 ]nZ 2 Y 4 R 3 ; wherein m is zero or one; n is the number of recurring units in the compound, and is one; p is an integer of from one to eight; R 1 and R 3 each independently represent a monovalent aliphatic or cycloaliphatic hydrocarbon group having 1 to 20 carbon atoms, an aromatic group or a multicyclic aromatic nucleus where each R 1 and R 3 is independently a monovalent moiety containing crosslinkable groups, polymerizable groups, or a combination thereof; R 2 , Z 1 and Z 2 each independently represent multivalent aliphatic or cycloaliphatic hydrocarbon groups having 1 to 20 carbon atoms or an aromatic group; and Y 1 , Y 2 , Y 3 and Y 4 each independently represent a linking group; provided that the glass transition temperature of the mixture is above 20° C; and (d) said mixture comprises a photoinitiator