mhurhangee/patent-ind-claim-en huggingface dataset:
A method of detecting and/or analysing at least one analyte in a biological sample for histology, cytology, or hybridizations used for support in diagnosing a subject, the method comprising: providing said sample being a section of tissue obtained from said subject; contacting said sample with at least one targeting moiety or probe, wherein each different targeting moiety or probe of said at least one targeting moiety or probe specifically binds a different analyte of the at least one analyte, and wherein each different targeting moiety or probe of said at least one targeting moiety or probe is labelled with a different luminescent particle, wherein at least one of said luminescent particle is an upconverting particle; and obtaining a digitalised first image by detecting a signal from said at least one upconverting particle associated with said at least one targeting moiety or probe bound to said sample; obtaining a second digitalized image from said sample wherein said second image is a bright-field image of said sample without counterstain, or wherein said second image is an image of said sample being counterstained or coloured using a dye or a stain, wherein said dye or stain is not any of said at least one upconverting particle associated with said at least one targeting moiety or probe bound to said sample; and wherein said first and said second digital image is obtained using the same section of the sample to avoid issues with co-registration. providing said sample being a section of tissue obtained from said subject; contacting said sample with at least one targeting moiety or probe, wherein each different targeting moiety or probe of said at least one targeting moiety or probe specifically binds a different analyte of the at least one analyte, and wherein each different targeting moiety or probe of said at least one targeting moiety or probe is labelled with a different luminescent particle, wherein at least one of said luminescent particle is an upconverting particle; and obtaining a digitalised first image by detecting a signal from said at least one upconverting particle associated with said at least one targeting moiety or probe bound to said sample; obtaining a second digitalized image from said sample wherein said second image is a bright-field image of said sample without counterstain, or wherein said second image is an image of said sample being counterstained or coloured using a dye or a stain, wherein said dye or stain is not any of said at least one upconverting particle associated with said at least one targeting moiety or probe bound to said sample; and wherein said first and said second digital image is obtained using the same section of the sample to avoid issues with co-registration.
A sheet which - comprises a nonwoven fabric formed of fiber containing a biodegradable aliphatic polyester having a molecular weight distribution in which a maximum value exists in at least two or more regions of the molecular weight, - has a porosity of 60-80%, - has a thickness of 30-70 μm, and - has a cell infiltration suppressing action. - comprises a nonwoven fabric formed of fiber containing a biodegradable aliphatic polyester having a molecular weight distribution in which a maximum value exists in at least two or more regions of the molecular weight, - has a porosity of 60-80%, - has a thickness of 30-70 μm, and - has a cell infiltration suppressing action.
A method of constructing a fuel metering valve having a calibrated differential pressure sensor , wherein the differential pressure sensor is part of the fuel metering valve , the fuel metering valve comprising a valve body housing a valve element in an interior chamber between an inlet port and an outlet port, the valve element regulating a flow of fuel through the valve body, an actuator coupled to move the valve element relative to the valve body, a controller configured to regulate the position of the valve body via the actuator based on differential and absolute pressure measurements to achieve a target mass flow rate of the fuel through the valve body, and differential and absolute pressure sensors arranged to provide the pressure measurements; characterized in that the method comprises calibrating the differential pressure sensor for accuracy only across a limited scale range based on a predetermined maximum subsonic differential pressure. a valve body housing a valve element in an interior chamber between an inlet port and an outlet port, the valve element regulating a flow of fuel through the valve body, an actuator coupled to move the valve element relative to the valve body, a controller configured to regulate the position of the valve body via the actuator based on differential and absolute pressure measurements to achieve a target mass flow rate of the fuel through the valve body, and differential and absolute pressure sensors arranged to provide the pressure measurements; characterized in that the method comprises calibrating the differential pressure sensor for accuracy only across a limited scale range based on a predetermined maximum subsonic differential pressure.
A drive train having a hybrid drive unit which comprises a primary drive with an electric machine with integrated gear mechanism (B), which can be operated as a motor and generator, and which transmits said primary drive to an output via a transmission element , wherein the electric machine of the hybrid drive unit (A) assumes the function of an electro-magnetic clutch, the gear mechanism (B) is designed to be the rotor of the electric machine and said gear mechanism has pedals which can be driven with muscular power, characterized in that the rotor is designed as a permanent magnet rotor and the gear mechanism (B) consists of an input sun gear , an output sun gear , a plurality of double planetary gears and a rotatably supported, cylindrical gear housing , which serves as the carrier of the permanent magnets.
A method for a mobile communication terminal to transmit a Sounding Reference Signal, SRS, characterized by comprising: obtaining (S103) transmission position indication information of extended Cyclic Prefix, CP, SRS signals and normal CP SRS signals; wherein the transmission position indication information of the extended CP SRS signals and the normal CP SRS signals comprises: sequence numbers of subframes for transmitting the extended CP SRS signals and sequence numbers of subframes for transmitting the normal CP SRS signals in one radio frame; determining (SI04) sequence numbers of subframes for transmitting the extended CP SRS signals and the normal CP SRS signals in each radio frame according to the transmission position indication information; and transmitting (S105) the extended CP SRS signals and the normal CP SRS signals respectively in the same radio frame, according to the sequence numbers of subframes for transmitting the extended CP SRS signals and the normal CP SRS signals. obtaining (S103) transmission position indication information of extended Cyclic Prefix, CP, SRS signals and normal CP SRS signals; wherein the transmission position indication information of the extended CP SRS signals and the normal CP SRS signals comprises: sequence numbers of subframes for transmitting the extended CP SRS signals and sequence numbers of subframes for transmitting the normal CP SRS signals in one radio frame; determining (SI04) sequence numbers of subframes for transmitting the extended CP SRS signals and the normal CP SRS signals in each radio frame according to the transmission position indication information; and transmitting (S105) the extended CP SRS signals and the normal CP SRS signals respectively in the same radio frame, according to the sequence numbers of subframes for transmitting the extended CP SRS signals and the normal CP SRS signals.
A UV curable composition, the UV curable composition comprising, based on the total weight thereof as 100 wt%: 25 to 60 wt% of an ethylene-vinyl acetate copolymer; 20 to 60 wt% of an epoxy resin; 5 to 20 wt% of glass bubbles; 0.3 to 8 wt% of a hydroxy-containing compound; and 0.5 to 5 wt% of a photoinitiator, wherein the glass bubbles meet at least one of the following conditions A and B: A. the average true density of the glass bubbles ranges from 0.35 g/cc to 0.6 g/cc; and B. the hydrostatic pressure at which 10 vol% of the glass bubbles collapse is at least 20 MPa wherein the average true density and the hydrostatic pressure are measured by the methods according to the description. 25 to 60 wt% of an ethylene-vinyl acetate copolymer; 20 to 60 wt% of an epoxy resin; 5 to 20 wt% of glass bubbles; 0.3 to 8 wt% of a hydroxy-containing compound; and 0.5 to 5 wt% of a photoinitiator, wherein the glass bubbles meet at least one of the following conditions A and B: A. the average true density of the glass bubbles ranges from 0.35 g/cc to 0.6 g/cc; and B. the hydrostatic pressure at which 10 vol% of the glass bubbles collapse is at least 20 MPa wherein the average true density and the hydrostatic pressure are measured by the methods according to the description. A. the average true density of the glass bubbles ranges from 0.35 g/cc to 0.6 g/cc; and B. the hydrostatic pressure at which 10 vol% of the glass bubbles collapse is at least 20 MPa wherein the average true density and the hydrostatic pressure are measured by the methods according to the description.
A reaction vessel for testing, comprising a Reaction cup , a Sample holder and a Cover , wherein the Sample holder is accommodated in the Reaction cup or the Cover ; the Reaction cup is made of a transparent material and has a First cavity for receiving an external first reagent; the Sample holder has a Collection portion for receiving an external test sample; the Collection portion is disposed inside and exposed from the First cavity ; the Cover is provided for covering an opening of the First cavity ; the First cavity is configured to contain the first reagent for mixing with the test sample contained in the Collection portion ; a Liquid passing hole is formed at an upper end of the Sample holder and provided for communicating the Collection portion and the First cavity , such that when in use the reaction vessel is turned upside down, the first reagent contained in the first cavity is contacted and mixed with the test sample contained in the collection portion of the sample holder ; the reaction vessel further comprises a Piercing member and a Packaging bag , the Piercing member and the Packaging bag being either both accommodated in the cover or accommodated in the Reaction cup and the Cover , respectively, and the Packaging bag having a Second cavity for receiving an external second reagent and a Diaphragm for covering an opening of the Second cavity , and the Piercing member being provided for piercing the Diaphragm , so as to when in use mix the second reagent with the first reagent and the test sample; the Cover comprises an Outer cap and an Inner cap installed in the Outer cap , and the Outer cap is detachably coupled to the Reaction cup ; the Inner cap is configured to be displaced toward the Piercing member , such that when in use the diaphragm is pierced by the Piercing member to mix the second reagent with the first reagent and the test sample. a Liquid passing hole is formed at an upper end of the Sample holder and provided for communicating the Collection portion and the First cavity , such that when in use the reaction vessel is turned upside down, the first reagent contained in the first cavity is contacted and mixed with the test sample contained in the collection portion of the sample holder ; the reaction vessel further comprises a Piercing member and a Packaging bag , the Piercing member and the Packaging bag being either both accommodated in the cover or accommodated in the Reaction cup and the Cover , respectively, and the Packaging bag having a Second cavity for receiving an external second reagent and a Diaphragm for covering an opening of the Second cavity , and the Piercing member being provided for piercing the Diaphragm , so as to when in use mix the second reagent with the first reagent and the test sample; the Cover comprises an Outer cap and an Inner cap installed in the Outer cap , and the Outer cap is detachably coupled to the Reaction cup ; the Inner cap is configured to be displaced toward the Piercing member , such that when in use the diaphragm is pierced by the Piercing member to mix the second reagent with the first reagent and the test sample.
A processing method for a wide-bandgap semiconductor substrate in which a single crystal, which is SiC, GaN, AlGaN, or AIN, is a work piece, and a surface of the work piece is planarized or processed into an arbitrary curved surface using no abrasive grain or no abrasive, the method comprising: using a catalytic substance having a function of promoting direct hydrolysis of the work piece or promoting hydrolysis of an oxide film on the surface of the work piece as a processing reference plane, wherein the catalytic substance is a conductive substance; in presence of water, disposing the work piece and the processing reference plane so that the work piece is brought into contact with or extremely close to the processing reference plane at a predetermined pressure; setting a potential of the processing reference plane in a range of ±1 V relative to an oxygen production potential to form a state in which oxygen is adsorbed to a catalyst surface; relatively moving the work piece and processing reference plane to each other; by a catalyst function of the processing reference plane, advancing a process of direct hydrolysis of the surface of the work piece or a process of oxidation of the surface of the work piece and hydrolysis of the oxide film in priority from a projection on the surface close to the processing reference plane; and removing a decomposition product. using a catalytic substance having a function of promoting direct hydrolysis of the work piece or promoting hydrolysis of an oxide film on the surface of the work piece as a processing reference plane, wherein the catalytic substance is a conductive substance; in presence of water, disposing the work piece and the processing reference plane so that the work piece is brought into contact with or extremely close to the processing reference plane at a predetermined pressure; setting a potential of the processing reference plane in a range of ±1 V relative to an oxygen production potential to form a state in which oxygen is adsorbed to a catalyst surface; relatively moving the work piece and processing reference plane to each other; by a catalyst function of the processing reference plane, advancing a process of direct hydrolysis of the surface of the work piece or a process of oxidation of the surface of the work piece and hydrolysis of the oxide film in priority from a projection on the surface close to the processing reference plane; and removing a decomposition product.
Vehicle incorporating at least one shock absorber device (10; 110), including rear impact, the device (10; 110) including a body (16;116) with a lower face with an exgrowth (22; 122) protruding downward and extending over the whole longitudinal length of the said body (16; 116), the said vehicle is characterized in that it includes a longeron and a crossed connected to the longeron through the absorber device (10; 110), the cross being shifted vertically from the device (10; 110) and/or in relation to the longeron , exgrowth (22; 122) comprising a plate extending vertically and lengthwise.
A display , comprising: a blue light emitting diode (LED) ; and a transparent shell disposed over the blue LED , the transparent shell comprising a plurality of red quantum dots configured to absorb light from the blue LED and emit light in a red spectral region; wherein the blue LED is configured to emit light having a peak emission between 450nm and 460nm; and wherein the transparent shell is configured to transmit light emitted from the blue LED . a blue light emitting diode (LED) ; and a transparent shell disposed over the blue LED , the transparent shell comprising a plurality of red quantum dots configured to absorb light from the blue LED and emit light in a red spectral region; wherein the blue LED is configured to emit light having a peak emission between 450nm and 460nm; and wherein the transparent shell is configured to transmit light emitted from the blue LED .
A hydromount assembly comprising: a first chamber and a second chamber ; an inertia track separating the first chamber and the second chamber , the inertia track having a central opening and including, relative to the central opening , a radially inner surface and a radially outer surface , the inertia track having a passage between the radially inner surface and the radially outer surface that fluidly connects the first chamber and the second chamber ; an engagement member at least partially disposed in the opening of the inertia track and rigidly coupled to the inertia track to move in unison with the inertia track ; a shaft extending through the central opening , the shaft including a first shaft section and a second shaft section , the first shaft section abutting the engagement member on a first axial side and the second shaft section abutting the engagement member on a second, opposite axial side, wherein at least a portion of the first shaft section extends through the central opening and wherein at least a portion of the second shaft section extends through the central opening ; and further including a first elastomeric element , a second elastomeric element , and a third elastomeric element free of contact with each other. a first chamber and a second chamber ; an inertia track separating the first chamber and the second chamber , the inertia track having a central opening and including, relative to the central opening , a radially inner surface and a radially outer surface , the inertia track having a passage between the radially inner surface and the radially outer surface that fluidly connects the first chamber and the second chamber ; an engagement member at least partially disposed in the opening of the inertia track and rigidly coupled to the inertia track to move in unison with the inertia track ; a shaft extending through the central opening , the shaft including a first shaft section and a second shaft section , the first shaft section abutting the engagement member on a first axial side and the second shaft section abutting the engagement member on a second, opposite axial side, wherein at least a portion of the first shaft section extends through the central opening and wherein at least a portion of the second shaft section extends through the central opening ; and further including a first elastomeric element , a second elastomeric element , and a third elastomeric element free of contact with each other.
Electric bicycle comprising a bicycle frame with a frame section , a battery , and a battery holder arranged on the frame section and having two retaining tabs by means of which the battery can be held in a form-fitting manner on the frame section , wherein the battery holder is designed such that - in a first assembly step - the battery can be placed on the first retaining tab and then - in a second assembly step - can be pivoted against the frame section in such a way that the battery engages with the second retaining tab and is thereby held on the bicycle frame , wherein - the second retaining tab is resiliently designed for locking with the battery , - the battery has a recess or opening into which the second retaining tab engages in the second assembly step to form a form-fitting engagement with the battery , and characterized in that the battery has an opening on an outer side facing away from the frame section so that the second retaining tab can be actuated and unlocked from the outside, thereby allowing the battery to be removed. a bicycle frame with a frame section , a battery , and a battery holder arranged on the frame section and having two retaining tabs by means of which the battery can be held in a form-fitting manner on the frame section , wherein the battery holder is designed such that - in a first assembly step - the battery can be placed on the first retaining tab and then - in a second assembly step - can be pivoted against the frame section in such a way that the battery engages with the second retaining tab and is thereby held on the bicycle frame , wherein - the second retaining tab is resiliently designed for locking with the battery , - the battery has a recess or opening into which the second retaining tab engages in the second assembly step to form a form-fitting engagement with the battery , and - the second retaining tab is resiliently designed for locking with the battery , - the battery has a recess or opening into which the second retaining tab engages in the second assembly step to form a form-fitting engagement with the battery , and characterized in that the battery has an opening on an outer side facing away from the frame section so that the second retaining tab can be actuated and unlocked from the outside, thereby allowing the battery to be removed.
A fluid adjusting device, comprising: a reservoir , wherein the reservoir is provided with a fluid storage cavity and at least two fluid outlets , the at least two fluid outlets are in communication with the fluid storage cavity , and the fluid storage cavity is configured to store a cooling fluid; at least two connection channels , wherein the at least two connection channels can be connected to at least two circulation circuits respectively; at least two supply channels , wherein the at least two fluid outlets are in communication with the at least two connection channels by means of the at least two supply channels respectively; characterised in that it further comprises: at least one one-way valve , wherein the at least one one-way valve is arranged in at least one supply channel of the at least two supply channels , and is configured to enable a fluid to flow from the reservoir to the corresponding connection channel in unidirectional manner. a reservoir , wherein the reservoir is provided with a fluid storage cavity and at least two fluid outlets , the at least two fluid outlets are in communication with the fluid storage cavity , and the fluid storage cavity is configured to store a cooling fluid; at least two connection channels , wherein the at least two connection channels can be connected to at least two circulation circuits respectively; at least two supply channels , wherein the at least two fluid outlets are in communication with the at least two connection channels by means of the at least two supply channels respectively;