mhurhangee/patent-ind-claim-en huggingface dataset:
A silver sinter paste consisting of: (A) 5 to 40 wt.% of silver flakes having a particle size D90 in the range of 5 to 20 μm, (B) 50 to 85 wt.% of silver particles having a particle size D90 in the range of 300 to 1000 nm, (C) 10 to 25 wt.% of at least one organic solvent, (D) 0 to 2 wt.% of at least one cellulose derivative, and (E) 0 to 10 wt.% of at least one additive other than the previously mentioned constituents (A) to (D), wherein the term "particle size D90" used in connection with the silver flakes (A) means the primary particle diameter, determined by means of automated static analysis of microscopic images, with which a volume proportion of 90% of the particles is below said primary particle diameter, and wherein the term "particle size D90" used in connection with the silver particles (B) means the primary particle diameter, determined by means of laser diffraction, with which a volume proportion of 90% of the particles is below said primary particle diameter. (A) 5 to 40 wt.% of silver flakes having a particle size D90 in the range of 5 to 20 μm, (B) 50 to 85 wt.% of silver particles having a particle size D90 in the range of 300 to 1000 nm, (C) 10 to 25 wt.% of at least one organic solvent, (D) 0 to 2 wt.% of at least one cellulose derivative, and (E) 0 to 10 wt.% of at least one additive other than the previously mentioned constituents (A) to (D), wherein the term "particle size D90" used in connection with the silver flakes (A) means the primary particle diameter, determined by means of automated static analysis of microscopic images, with which a volume proportion of 90% of the particles is below said primary particle diameter, and wherein the term "particle size D90" used in connection with the silver particles (B) means the primary particle diameter, determined by means of laser diffraction, with which a volume proportion of 90% of the particles is below said primary particle diameter. wherein the term "particle size D90" used in connection with the silver flakes (A) means the primary particle diameter, determined by means of automated static analysis of microscopic images, with which a volume proportion of 90% of the particles is below said primary particle diameter, and wherein the term "particle size D90" used in connection with the silver particles (B) means the primary particle diameter, determined by means of laser diffraction, with which a volume proportion of 90% of the particles is below said primary particle diameter.
A method for video encoding separately for different colour planes on macroblock level comprising steps of selecting a base colour plane (G), encoding using intra coding and reconstructing the macroblock's base colour plane; performing texture segmentation on the reconstructed macroblock's base colour plane , wherein at least two texture segments (R 1g ,R 2g ) are determined; separating at least one other colour plane (B) of the macroblock into the same texture segments (R 1b ,R 2b ) that were determined for the base colour plane; for each of the texture segments, determining a weight factor (s B1 ,s B2 ) and an offset (o B1 ,o B2 ) defining a linear function between the reconstructed macroblock's base colour plane and the at least one other colour plane according to equation : b p i j = s B k × g rec i j + o B k wherein b p (i,j) is a value of a pixel predictor in the texture segment k of said at least one other colour plane, g rec (i,j) is a value of a corresponding pixel of the reconstructed macroblock's base colour plane, s Bk is the weight factor of said texture segment k of said at least one other colour plane and O Bk is the offset of the texture segment k of said at least one other colour plane; and wherein the weight factor of said texture segment k of said at least one other colour plane is determined by s Bk = ∑ i j ∈ region k g rec i j − g Hpk ̅ × b i j − b Hpk ̅ ∑ i j ∈ region k g rec i j − g Hpk ̅ ; the offset o Bk of said at least one other colour plane is determined by o Bk = ( b Hpk - s Bk × g Hpk ), wherein a first predictor ( g Hpk ) is the mean value of pixel predictors as produced by intra prediction in the reconstructed macroblock's base colour segment k, and a second predictor ( b HPk ) is the mean value of pixel predictors as produced by intra prediction in the corresponding segment k of said other colour plane; based on said linear function, predicting pixels in the texture segment of said at least one other colour plane from pixels of a corresponding texture segment of the reconstructed base colour plane according to equation , and determining one or more residuals (b enc ); and encoding the one or more residuals of said at least one other colour plane; said weight factor of said at least 2 texture segments of said at least one other colour plane.
A coating apparatus comprising: a coating application unit comprising a movement restriction structure ; and a fluid applicator having a lengthwise axis and a width, the fluid applicator comprising a tip , the tip comprising a face across the width of the fluid applicator , the face oriented at an angle (θ 2 ) of from about 105 to about 165 degrees with respect to the lengthwise axis of the fluid applicator , the fluid applicator configured to rotate around its lengthwise axis ; a rotation mechanism ; and an axial motion mechanism , the axial motion mechanism configured to cause movement of at least one of the coating application unit and the rotation mechanism with respect to one another characterised in that the fluid applicator is configured to rotate around its lengthwise axis by an amount from about 10 degrees to about 170 degrees. a coating application unit comprising a movement restriction structure ; and a fluid applicator having a lengthwise axis and a width, the fluid applicator comprising a tip , the tip comprising a face across the width of the fluid applicator , the face oriented at an angle (θ 2 ) of from about 105 to about 165 degrees with respect to the lengthwise axis of the fluid applicator , the fluid applicator configured to rotate around its lengthwise axis ; a movement restriction structure ; and a fluid applicator having a lengthwise axis and a width, the fluid applicator comprising a tip , the tip comprising a face across the width of the fluid applicator , the face oriented at an angle (θ 2 ) of from about 105 to about 165 degrees with respect to the lengthwise axis of the fluid applicator , the fluid applicator configured to rotate around its lengthwise axis ; a rotation mechanism ; and an axial motion mechanism , the axial motion mechanism configured to cause movement of at least one of the coating application unit and the rotation mechanism with respect to one another characterised in that the fluid applicator is configured to rotate around its lengthwise axis by an amount from about 10 degrees to about 170 degrees.
A method for detecting cast shadow regions and highlight regions in a scene, said scene being represented by a low dynamic range image and a high dynamic range image, the high dynamic range image having a dynamic range higher than the low dynamic range image, said method comprising the steps of: - detecting (S3) regions in said scene having a difference between a high dynamic range detail map computed (S2) from said high dynamic range image and a low dynamic range detail map computed (S1) from said low dynamic range image, said detected regions corresponding to cast shadow regions or highlights region of the scene, wherein said computing (S1) of said low dynamic range detail map is based on a low dynamic range difference between a luminance map of said low dynamic range image and a filtered luminance map of said low dynamic range image and wherein said computing (S2) of said high dynamic range detail map is based on a high dynamic range difference between a luminance map of said high dynamic range image and a filtered luminance map of said high dynamic range image. - detecting (S3) regions in said scene having a difference between a high dynamic range detail map computed (S2) from said high dynamic range image and a low dynamic range detail map computed (S1) from said low dynamic range image, said detected regions corresponding to cast shadow regions or highlights region of the scene, wherein said computing (S1) of said low dynamic range detail map is based on a low dynamic range difference between a luminance map of said low dynamic range image and a filtered luminance map of said low dynamic range image and wherein said computing (S2) of said high dynamic range detail map is based on a high dynamic range difference between a luminance map of said high dynamic range image and a filtered luminance map of said high dynamic range image.
A security document having a window region 2. and a non-window region, the window region being of lower opacity than the non-window region, and comprising a transparent polymer layer at least in the window region of the security document the transparent polymer layer comprising therewithin an internal laser marking (50, 50a, 50b, 51, 52, 53, 54, 55, 56, 57, 58a-g, 58x-z, 59a,b) having an optical effect, 2. characterised in that the internal laser marking does not extend to a surface of the transparent polymer layer, and is surrounded in all directions by portions of the same transparent polymer layer which are not laser marked, and in that the internal laser marking comprises a diffractive structure.
A system for adding unmanned vehicles to a common command and control architecture, the system comprising: one or more processors; and a non-transitory computer-readable storage medium storing instructions, which when executed by the one or more processors cause the one or more processors to: detect an unmanned vehicle; receive vehicle information, wherein the vehicle information comprises indications of movement types associated with the unmanned vehicle; determine, based on the vehicle information, one or more movement control models for moving the unmanned vehicle wherein each movement control model translates operator commands into movement instructions for the unmanned vehicle; assign, the one or more movement control models to an unmanned vehicle object; generate a plurality of test commands for the unmanned vehicle, wherein each test command of the plurality of test commands tests a movement control model; translate, using the one or more movement control models, the plurality of test commands into a plurality of sets of movement instructions for the unmanned vehicle; and transmit the plurality of sets of movement instructions to the unmanned vehicle. one or more processors; and a non-transitory computer-readable storage medium storing instructions, which when executed by the one or more processors cause the one or more processors to: detect an unmanned vehicle; receive vehicle information, wherein the vehicle information comprises indications of movement types associated with the unmanned vehicle; determine, based on the vehicle information, one or more movement control models for moving the unmanned vehicle wherein each movement control model translates operator commands into movement instructions for the unmanned vehicle; assign, the one or more movement control models to an unmanned vehicle object; generate a plurality of test commands for the unmanned vehicle, wherein each test command of the plurality of test commands tests a movement control model; translate, using the one or more movement control models, the plurality of test commands into a plurality of sets of movement instructions for the unmanned vehicle; and transmit the plurality of sets of movement instructions to the unmanned vehicle. detect an unmanned vehicle; receive vehicle information, wherein the vehicle information comprises indications of movement types associated with the unmanned vehicle; determine, based on the vehicle information, one or more movement control models for moving the unmanned vehicle wherein each movement control model translates operator commands into movement instructions for the unmanned vehicle; assign, the one or more movement control models to an unmanned vehicle object; generate a plurality of test commands for the unmanned vehicle, wherein each test command of the plurality of test commands tests a movement control model; translate, using the one or more movement control models, the plurality of test commands into a plurality of sets of movement instructions for the unmanned vehicle; and transmit the plurality of sets of movement instructions to the unmanned vehicle.
A cleaning cloth produced using a fabric having cut loops made of yarn, wherein the yarn includes at least one first yarn - which is made of one, or two or more strands of fiber - and at least one second yarn - which is made of one, or two or more strands of fiber - which are intermingled longitudinally, where a fineness of the fiber of the first yarn is greater than a fineness of the fiber of the second yarn, wherein a fineness of the fiber of the first yarn ranges from 4,4 to 66,7 dtex (4 to 60 deniers) and a fineness of the fiber of the second yarn ranges from 0,0022 to 3,9 dtex (0,002 to 3,5 deniers).
Device for detecting distortively produced otoacoustic emissions, especially at a human ear, comprising: - at least one ear canal probe , which can be placed in the external ear canal or applied to the external ear canal and with which the sound present in the external ear canal in the ear can be received; and - at least one evaluation device, by means of which the sound received by the ear canal probe can be evaluated with regard to distortively produced otoacoustic emissions, characterized in that the evaluation device has the capability of automatically detecting and responding to the presence and/or the absence of technically induced distortion products in the received sound, which can be incorrectly interpreted as the result of otoacoustic emissions. - at least one ear canal probe , which can be placed in the external ear canal or applied to the external ear canal and with which the sound present in the external ear canal in the ear can be received; and - at least one evaluation device, by means of which the sound received by the ear canal probe can be evaluated with regard to distortively produced otoacoustic emissions,
A radio system , comprising: a first radio comprising high-precision, high-stability controllable oscillator comprising a phase-locked loop and voltage controlled oscillator, the first radio acting as a transmitter with two or more antennas configured to broadcast a first signal at a first frequency , and at a subsequent time broadcast a second signal , characterized in that the second signal is broadcasted at a second, different frequency , and the first signal at the first frequency is a high frequency signal; the radio system further comprising a second radio comprising high-precision, high-stability controllable oscillator comprising a phase-locked loop and voltage controlled oscillator, the second radio acting as a receiver having an antenna configured to receive the first and second signals broadcasted from the two or more antennas of the transmitter , receiving of the first signal at the first frequency by the receiver triggering the receiver to tune to the first signal to synchronize the transmitter and the receiver ; and a processing unit configured to perform the following: measure the amplitude and phase of the first signal at the first frequency as received at the receiver ; measure the amplitude and phase of the second signal at the second frequency as received at the receiver ; and identify an angle or a direction to the transmitter using the measured amplitude and phase of each signal . a first radio comprising high-precision, high-stability controllable oscillator comprising a phase-locked loop and voltage controlled oscillator, the first radio acting as a transmitter with two or more antennas configured to broadcast a first signal at a first frequency , and at a subsequent time broadcast a second signal , characterized in that the second signal is broadcasted at a second, different frequency , and the first signal at the first frequency is a high frequency signal; the radio system further comprising a second radio comprising high-precision, high-stability controllable oscillator comprising a phase-locked loop and voltage controlled oscillator, the second radio acting as a receiver having an antenna configured to receive the first and second signals broadcasted from the two or more antennas of the transmitter , receiving of the first signal at the first frequency by the receiver triggering the receiver to tune to the first signal to synchronize the transmitter and the receiver ; and a processing unit configured to perform the following: measure the amplitude and phase of the first signal at the first frequency as received at the receiver ; measure the amplitude and phase of the second signal at the second frequency as received at the receiver ; and identify an angle or a direction to the transmitter using the measured amplitude and phase of each signal . measure the amplitude and phase of the first signal at the first frequency as received at the receiver ; measure the amplitude and phase of the second signal at the second frequency as received at the receiver ; and identify an angle or a direction to the transmitter using the measured amplitude and phase of each signal .
Agitator for building materials such as tile adhesive or mortar, comprising an agitator element and a shaft protruding from the agitator element , the agitator element having at least one base portion (2.1) and at least one spiral portion (2.2) which proceeds from the base portion (2.1) and runs in a spiral around the shaft , at least in sections, characterized in that a wear part is detachably fastened to the lower face of the base portion (2.1) opposite to the shaft , which wear part can be replaced if necessary, the stirring element being designed as a stirring basket, the wear part being provided at the free end of the stirring basket so that, during a stirring process, it comes into abutment at the bottom area of a container in which the stirring process takes place, the base portion (2.1) being designed in such a way that it is ring-shaped and/or circumferentially closed, and the wear part being designed in ring-shaped fashion with at least one inner opening (4.1) so that the material to be mixed can be conveyed upwards through the inner opening of the wear part during rotation.
A driving circuit, comprising: a rectifier unit comprising a first input terminal (a1; a2; a3), a second input terminal (b1; b2) and an output terminal, wherein the output terminal of the rectifier unit is connected to an input terminal of an inverter unit , and the second input terminal (b1; b2) of the rectifier unit is connected tc the input terminal of the inverter unit ; a first switch (K1) arranged between the first input terminal of the rectifier unit and an output terminal of the inverter unit, characterized by a capacitor (C) connected in parallel between the rectifier unit and the inverter unit , and in that the first switch (K1) is configured to control the driving circuit to switch between a series mode and a parallel mode by being switched on or off; the inverter unit with the output terminal connected to a load; and in case where the first switch (K1) is switched on, the driving circuit is in the parallel mode, the rectifier unit and the inverter unit are connected in parallel, the second input terminal (b1; b2) of the rectifier unit is a direct current input terminal, and the first input terminal (a1; a2; a3) of the rectifier unit is an alternating current output terminal, the rectifier unit has the same function as that of the inverter unit , and the rectifier unit is configured to convert the direct current to the alternating current. a rectifier unit comprising a first input terminal (a1; a2; a3), a second input terminal (b1; b2) and an output terminal, wherein the output terminal of the rectifier unit is connected to an input terminal of an inverter unit , and the second input terminal (b1; b2) of the rectifier unit is connected tc the input terminal of the inverter unit ; a first switch (K1) arranged between the first input terminal of the rectifier unit and an output terminal of the inverter unit, characterized by a capacitor (C) connected in parallel between the rectifier unit and the inverter unit , and in that the first switch (K1) is configured to control the driving circuit to switch between a series mode and a parallel mode by being switched on or off; the inverter unit with the output terminal connected to a load; and in case where the first switch (K1) is switched on, the driving circuit is in the parallel mode, the rectifier unit and the inverter unit are connected in parallel, the second input terminal (b1; b2) of the rectifier unit is a direct current input terminal, and the first input terminal (a1; a2; a3) of the rectifier unit is an alternating current output terminal, the rectifier unit has the same function as that of the inverter unit , and the rectifier unit is configured to convert the direct current to the alternating current.
A reduced pressure dressing for applying reduced pressure treatment to a tissue site, the reduced pressure dressing comprising: an interface layer adapted to be positioned at the tissue site; an absorbent layer in fluid communication with the interface layer to absorb liquid from at least one of the interface layer and the tissue site; a pump in fluid communication with the absorbent layer to deliver a reduced pressure to the tissue site; characterised by a diverter layer between the absorbent layer and the pump , the diverter layer including a plurality of apertures to transmit the reduced pressure from the pump to the absorbent layer , wherein the plurality of apertures are positioned in a pattern around a peripheral portion of the diverter layer away from the centre of the diverter layer such that the reduced pressure is applied to the absorbent layer away from the centre region of the absorbent layer ; a cover positioned over the diverter layer , the absorbent layer , and the interface layer to maintain the reduced pressure at the tissue site; and a liquid-air separator positioned between the diverter layer and the pump to inhibit liquid from entering the pump . an interface layer adapted to be positioned at the tissue site; an absorbent layer in fluid communication with the interface layer to absorb liquid from at least one of the interface layer and the tissue site; a pump in fluid communication with the absorbent layer to deliver a reduced pressure to the tissue site; characterised by a diverter layer between the absorbent layer and the pump , the diverter layer including a plurality of apertures to transmit the reduced pressure from the pump to the absorbent layer , wherein the plurality of apertures are positioned in a pattern around a peripheral portion of the diverter layer away from the centre of the diverter layer such that the reduced pressure is applied to the absorbent layer away from the centre region of the absorbent layer ; a cover positioned over the diverter layer , the absorbent layer , and the interface layer to maintain the reduced pressure at the tissue site; and a liquid-air separator positioned between the diverter layer and the pump to inhibit liquid from entering the pump .
Adjuster for a brake system, in particular a drum brake, comprising an actuating element and a holding unit , the actuating element being rotatable about an actuating axis (S) and being secured against movement along the actuating axis (S), the holding unit having a first holding region and a second holding region , it being possible for the first holding region to be brought into engagement with a first engagement region of the actuating element , in order to transmit a torque about the actuating axis (S), the second holding region being fixed directly or indirectly on a housing and being secured against rotation about the actuating axis (S), a play being provided between the first holding region and the first engagement region , within which play a rotation of the actuating element relative to the holding unit about the actuating axis (S) is possible, the play angle (α) assuming values of from 3° to 30°.