mhurhangee/patent-ind-claim-en huggingface dataset:
A method of making a three-dimensional printed object comprising: iteratively applying individual particulate build material layers to a powder bed, wherein the particulate build material includes: polymer particles including a polyolefin and first nanoparticles compounded with the polyolefin such that the first nanoparticles are embedded within the polymer particles, and second nanoparticles dry blended with the polymer particles, wherein the first nanoparticles and the second nanoparticles comprise metal or metal oxide, wherein the first nanoparticles and the second nanoparticles have a higher thermal conductivity than the polyolefin; based on a three-dimensional object model, selectively applying a fusing agent onto the individual particulate build material layers, wherein the fusing agent includes water and an electromagnetic radiation absorber; and exposing the powder bed to radiation energy to selectively fuse the polymer particles in contact with the electromagnetic radiation absorber to form a fused polymer matrix at individual build material layers. iteratively applying individual particulate build material layers to a powder bed, wherein the particulate build material includes: polymer particles including a polyolefin and first nanoparticles compounded with the polyolefin such that the first nanoparticles are embedded within the polymer particles, and second nanoparticles dry blended with the polymer particles, wherein the first nanoparticles and the second nanoparticles comprise metal or metal oxide, wherein the first nanoparticles and the second nanoparticles have a higher thermal conductivity than the polyolefin; polymer particles including a polyolefin and first nanoparticles compounded with the polyolefin such that the first nanoparticles are embedded within the polymer particles, and second nanoparticles dry blended with the polymer particles, wherein the first nanoparticles and the second nanoparticles comprise metal or metal oxide, wherein the first nanoparticles and the second nanoparticles have a higher thermal conductivity than the polyolefin; based on a three-dimensional object model, selectively applying a fusing agent onto the individual particulate build material layers, wherein the fusing agent includes water and an electromagnetic radiation absorber; and exposing the powder bed to radiation energy to selectively fuse the polymer particles in contact with the electromagnetic radiation absorber to form a fused polymer matrix at individual build material layers.
A locking device for an office or living space having an electronic locking unit , which has a locking mechanism , and having at least one key for locking the locking unit , wherein the key and the locking unit in each case have a memory and a radio module and in each case an RF interface for the exchange of signals with the electronic locking mechanism for locking or unlocking the locking unit in dependence on the signals transmitted between key and locking unit , wherein a key can only be read in the reception area of the RF interface of the locking unit , wherein the radio module of the locking unit is designed to detect keys , which are located in a spatial area , which is greater than the reception area of the RF interface of the locking unit , wherein the key has a button to be manually actuated for activating a permanent release of the locking unit in dependence on the detected distance and/or the spatial position of the key , and wherein the locking unit is designed, so that in a basic state an individual release of the locking unit takes place by reading a code of the at least one key and in addition a permanent release can be activated, if the key is presented to the locking unit located in the basic state and the button is pressed and that the permanent release of the locking unit takes place as long as the at least one key is located within the intended spatial area , so that the locking unit is only locked, if all of the keys authorized for the locking are removed from the intended spatial area .
System comprising an odour trap and a receiving body (10, 10', 10", 11), wherein - the odour trap is inserted into the receiving body (10, 10', 10", 11) in an installed state - the odour trap comprises an overflow container which at an upper end in the installed state includes a container edge , - the odour trap encompasses an inlet element which can be inserted into the overflow container and comprises an inlet edge at an upper end in the installed state, - the inlet edge is arranged above the container edge of the overflow container when the inlet element is inserted into the overflow container , - the receiving body (10, 10', 10", 11) comprises a bead extending into an interior of the receiving body (10, 10', 10", 11), - the overflow container rests with its container edge on the bead of the receiving body (10, 10', 10", 11) - characterized in that the odour trap further comprises a handle connected only to the overflow container for inserting the odour trap into the receiving body (10, 10', 10", 11). - the odour trap is inserted into the receiving body (10, 10', 10", 11) in an installed state - the odour trap comprises an overflow container which at an upper end in the installed state includes a container edge , - the odour trap encompasses an inlet element which can be inserted into the overflow container and comprises an inlet edge at an upper end in the installed state, - the inlet edge is arranged above the container edge of the overflow container when the inlet element is inserted into the overflow container , - the receiving body (10, 10', 10", 11) comprises a bead extending into an interior of the receiving body (10, 10', 10", 11), - the overflow container rests with its container edge on the bead of the receiving body (10, 10', 10", 11) - characterized in that the odour trap further comprises a handle connected only to the overflow container for inserting the odour trap into the receiving body (10, 10', 10", 11).
An information processing apparatus, comprising: a receiver configured to receive an input of a captured image obtained by capturing an image of a cultivation area of a plant including a rectangular area in a longitudinal direction of the rectangular area; a conversion factor calculator configured to calculate conversion factors at a plurality of positions in a depth direction in the captured image by determining a pixel count in a width direction of the rectangular area in the captured image input into the receiver at each of the plurality of positions in the depth direction and dividing an actual width of the rectangular area by the determined pixel count; and an index calculator configured to calculate an index for a growth state of the plant by analyzing the captured image using the conversion factors at the plurality of positions in the depth direction calculated by the conversion factor calculator. a receiver configured to receive an input of a captured image obtained by capturing an image of a cultivation area of a plant including a rectangular area in a longitudinal direction of the rectangular area; a conversion factor calculator configured to calculate conversion factors at a plurality of positions in a depth direction in the captured image by determining a pixel count in a width direction of the rectangular area in the captured image input into the receiver at each of the plurality of positions in the depth direction and dividing an actual width of the rectangular area by the determined pixel count; and an index calculator configured to calculate an index for a growth state of the plant by analyzing the captured image using the conversion factors at the plurality of positions in the depth direction calculated by the conversion factor calculator.
A system for biometric detection of a fingerprint comprising: a flexible sensor comprising a two-dimensional array of sensing elements on a flexible substrate; and a conforming enclosure mechanism proximate said flexible sensor comprising one or more mechanical positioning members that move at least a portion of said sensor to conform to a shape of a finger after presentation of said finger to said flexible sensor in order to position said finger along said flexible sensor to enable capture of a rolled-equivalent fingerprint image for said finger using said flexible sensor , wherein the rolled-equivalent fingerprint image is obtained without rotation or rocking of said finger with respect to said flexible sensor ; wherein said one or more mechanical positioning members move at least a portion of said flexible sensor to curl said flexible sensor along the finger between right and left sides of a fingernail of the finger to partially enclose the flexible sensor around the finger in order to enable said flexible sensor to capture said rolled-equivalent fingerprint image. a flexible sensor comprising a two-dimensional array of sensing elements on a flexible substrate; and a conforming enclosure mechanism proximate said flexible sensor comprising one or more mechanical positioning members that move at least a portion of said sensor to conform to a shape of a finger after presentation of said finger to said flexible sensor in order to position said finger along said flexible sensor to enable capture of a rolled-equivalent fingerprint image for said finger using said flexible sensor , wherein the rolled-equivalent fingerprint image is obtained without rotation or rocking of said finger with respect to said flexible sensor ; wherein said one or more mechanical positioning members move at least a portion of said flexible sensor to curl said flexible sensor along the finger between right and left sides of a fingernail of the finger to partially enclose the flexible sensor around the finger in order to enable said flexible sensor to capture said rolled-equivalent fingerprint image.
A method for mitigating the effects of non-stationary events in a road noise cancellation (RNC) system , the method comprising: receiving a noise signal from a sensor; generating an anti-noise signal based in part on the noise signal, the anti-noise signal to be radiated by a speaker as anti-noise within a cabin of a vehicle ; detecting an occurrence of an object strike to the sensor based on a parameter computed from samples of a frame of the noise signal; and modifying the anti-noise signal to reduce an effect of the occurrence of the object strike on the anti-noise. receiving a noise signal from a sensor; generating an anti-noise signal based in part on the noise signal, the anti-noise signal to be radiated by a speaker as anti-noise within a cabin of a vehicle ; detecting an occurrence of an object strike to the sensor based on a parameter computed from samples of a frame of the noise signal; and modifying the anti-noise signal to reduce an effect of the occurrence of the object strike on the anti-noise.
Drive device, in particular for an electric vehicle, with at least one electric motor (10a-e), with at least one final drive (11a-e) and with a multi-stage gearbox (12a-e), which is located between the electric motor (10a-e) and the final drive (11a-e) and which has precisely three planetary stages (P1a-e. P2a-e, P3a-e) effectively connected to one another with sun gears (P11a-e. P21a-e, P31a-e), ring gears (P13a-e, P23a-e, P33a-e) and planet carriers (P12a-e. P22a-e, P32a-e), two shifting units (S1a-e, S2a-e), a gearbox input element (13a-e) for the non-rotatable connection of the electric motor (10a-e) and a gearbox output element (14a-e) for the non-rotatable connection of the final drive (11a-e), wherein the gearbox input element (13a-e) is permanently and non-rotatably connected to the sun gear (P11a-e) of the first planetary stage (P1a-e), the gearbox output element (14a-e) is permanently and non-rotatably connected to the planet carrier (P32a-e) of the third planetary stage (P3a-e) and the planet carrier (P12a-e) of the first planetary stage (P1a-e) and the sun gear (P31a-e) of the third planetary stage (P3a-e) are permanently and non-rotatably connected to each other, wherein the ring gear (P13a; P13b; P13d; P13e) of the first planetary stage (P1a; P1b; P1d; P1e) and the sun gear (P21a; P21b; P21d; P21e) of the second planetary stage (P2a; P2b; P2d; P2e) are permanently and non-rotatably connected to each other, characterised in that the planet carrier (P22a; P22c; P22d) of the second planetary stage (P2a; P2c; P2d) and the planet carrier (P32a; P32c; P32d) of the third planetary stage (P3a; P3c; P3d) are permanently and non-rotatably connected to each other and/or in that a third shifting unit (S3b; S3e) is provided to connect the planet carrier (P22b; P22e) non-rotatably to the planet carrier (P32b; P32e) of the third planetary stage (P3b; P3e).
An electrically-reconfigurable antenna , comprising: a plurality of antenna elements (AR) linked together by a plurality of independently-controllable radio frequency, RF, interface circuits (FC) that support impedance, Z, reciprocity during transmit, TX, and receive, RX, modes of operation, wherein each of said plurality of RF interface circuits (FC) controls only one pair of said plurality of antenna elements (AR), wherein said plurality of antenna elements (AR) comprise a plurality of rows (R) and a plurality of columns (C) of radiators (AR), and the plurality of RF interface circuits (FC) comprise a plurality of duplexers, wherein the plurality of RF interface circuits (FC) include feed circuits (FC) that are coupled to antenna radiators (AR) in the columns (C) and feed circuits (FC) that are coupled to antenna radiators (AR) in the rows (R), wherein the plurality of RF interface circuits (FC) that are coupled to antenna radiators (AR) in the columns (C) each have two outputs connected to only two adjacent respective ones of the antenna radiators (AR) in the same column (C), wherein the plurality of RF interface circuits (FC) that are coupled to antenna radiators (AR) in the rows (R) each have two outputs connected to only two adjacent respective ones of the antenna radiators (AR) in the same column (R), wherein the plurality of RF interface circuits (FC) are each configured to selectively activate and control current of the two radiators (AR) connected thereto, and wherein the plurality of RF interface circuits (FC) are configured to selectively activate any subset of the radiators (AR). a plurality of antenna elements (AR) linked together by a plurality of independently-controllable radio frequency, RF, interface circuits (FC) that support impedance, Z, reciprocity during transmit, TX, and receive, RX, modes of operation, wherein each of said plurality of RF interface circuits (FC) controls only one pair of said plurality of antenna elements (AR), wherein said plurality of antenna elements (AR) comprise a plurality of rows (R) and a plurality of columns (C) of radiators (AR), and the plurality of RF interface circuits (FC) comprise a plurality of duplexers, wherein the plurality of RF interface circuits (FC) include feed circuits (FC) that are coupled to antenna radiators (AR) in the columns (C) and feed circuits (FC) that are coupled to antenna radiators (AR) in the rows (R), wherein the plurality of RF interface circuits (FC) that are coupled to antenna radiators (AR) in the columns (C) each have two outputs connected to only two adjacent respective ones of the antenna radiators (AR) in the same column (C), wherein the plurality of RF interface circuits (FC) that are coupled to antenna radiators (AR) in the rows (R) each have two outputs connected to only two adjacent respective ones of the antenna radiators (AR) in the same column (R), wherein the plurality of RF interface circuits (FC) are each configured to selectively activate and control current of the two radiators (AR) connected thereto, and wherein the plurality of RF interface circuits (FC) are configured to selectively activate any subset of the radiators (AR).
A pneumatic manifold , comprising: an internal conduit ; a first fluid line fluidly connected to the internal conduit ; the first fluid line fluidly connectable to a venous drip chamber in an extracorporeal circuit of a dialysis system; a second fluid line fluidly connected to the internal conduit ; the second fluid line fluidly connectable to an arterial drip chamber in the extracorporeal circuit of the dialysis system; a venous valve fluidly connecting the first fluid line to the internal conduit ; an arterial valve fluidly connecting the second fluid line to the internal conduit ; a negative valve fluidly connecting the internal conduit to an outlet ; a positive valve fluidly connecting the internal conduit to an inlet ; the inlet and outlet fluidly connectable by a third fluid line containing a pump ; and a controller selectively activating or deactivating the venous valve , arterial valve , positive valve , and negative valve ; the controller controlling a fluid level in the venous drip chamber and arterial drip chamber by activating or deactivating the valves. an internal conduit ; a first fluid line fluidly connected to the internal conduit ; the first fluid line fluidly connectable to a venous drip chamber in an extracorporeal circuit of a dialysis system; a second fluid line fluidly connected to the internal conduit ; the second fluid line fluidly connectable to an arterial drip chamber in the extracorporeal circuit of the dialysis system; a venous valve fluidly connecting the first fluid line to the internal conduit ; an arterial valve fluidly connecting the second fluid line to the internal conduit ; a negative valve fluidly connecting the internal conduit to an outlet ; a positive valve fluidly connecting the internal conduit to an inlet ; the inlet and outlet fluidly connectable by a third fluid line containing a pump ; and a controller selectively activating or deactivating the venous valve , arterial valve , positive valve , and negative valve ; the controller controlling a fluid level in the venous drip chamber and arterial drip chamber by activating or deactivating the valves.
An adhesive composition, wherein the adhesive composition comprises: a polymer blend comprising a first propylene-based polymer, wherein the first propylene-based polymer is a homopolymer of propylene or a copolymer of propylene and ethylene or a C 4 to C 10 alpha-olefin, and a second propylene-based polymer, wherein the second propylene-based polymer is a homopolymer of propylene or a copolymer of propylene and ethylene or a C 4 to C 10 alpha-olefin; wherein the second propylene-based polymer is different than the first propylene-based polymer, and wherein the polymer blend has a melt viscosity, measured at 190°C and determined according to ASTM D-3236, of 1,000 cP to 10,000 cP; wherein the polymer blend is the present in the adhesive composition in the amount of 40 to 60 wt. % based on the weight of the adhesive composition; one or more block copolymer components; and one or more tackifiers. a polymer blend comprising a first propylene-based polymer, wherein the first propylene-based polymer is a homopolymer of propylene or a copolymer of propylene and ethylene or a C 4 to C 10 alpha-olefin, and a second propylene-based polymer, wherein the second propylene-based polymer is a homopolymer of propylene or a copolymer of propylene and ethylene or a C 4 to C 10 alpha-olefin; wherein the second propylene-based polymer is different than the first propylene-based polymer, and wherein the polymer blend has a melt viscosity, measured at 190°C and determined according to ASTM D-3236, of 1,000 cP to 10,000 cP; wherein the polymer blend is the present in the adhesive composition in the amount of 40 to 60 wt. % based on the weight of the adhesive composition; one or more block copolymer components; and one or more tackifiers.
A transparent sight display device capable for displaying a crosshair , the transparent sight display device comprising a first transparent thin film electroluminescent display having a substrate and a first active layer capable of emitting spectrum of light in a wavelength of visible light, wherein - the transparent sight display device further comprises a second transparent thin film electroluminescent display having a substrate and a second active layer capable of emitting spectrum of light in a wavelength of visible light; - the first active layer of the first transparent thin film electroluminescent display comprises first active hairlines extending in a first direction; - the second active layer of the second transparent thin film electroluminescent display comprises second active hairlines extending in a second direction, the second direction being transverse to the first direction; and - the first and second transparent thin film electroluminescent displays are arranged in superposed manner to a superposed structure such that the first and second active hairlines extend transversely in relation to each other such that the crosshair is formed when one first active hairline and one second active hairline are activated. - the transparent sight display device further comprises a second transparent thin film electroluminescent display having a substrate and a second active layer capable of emitting spectrum of light in a wavelength of visible light; - the first active layer of the first transparent thin film electroluminescent display comprises first active hairlines extending in a first direction; - the second active layer of the second transparent thin film electroluminescent display comprises second active hairlines extending in a second direction, the second direction being transverse to the first direction; and - the first and second transparent thin film electroluminescent displays are arranged in superposed manner to a superposed structure such that the first and second active hairlines extend transversely in relation to each other such that the crosshair is formed when one first active hairline and one second active hairline are activated.
The non-therapeutic use of an Aronia berry extract in enhancing the reaction time, alertness visual-motor coordination, fine motor control and/or the attention of a mammal; in particular a human.
A method of estimating fluid related quantities of a first fluid compartment and a second fluid compartment disposed in or connected to a moveable platform, wherein the first fluid compartment is independent of the second fluid compartment, wherein the first fluid compartment has disposed therein a first fluid level sensor and a second fluid level sensor , and wherein the second fluid compartment has disposed therein a third fluid level sensor and a fourth fluid level sensor , characterised in that the method comprises: combining , by a processor , measurements from the first fluid level sensor, the second fluid level sensor, the third fluid level sensor, the fourth fluid level sensor into a first unified calculation; and calculating , by the processor, the fluid related quantities from the first unified calculation, the fluid related quantities comprising all of: a fluid orientation estimate which is common to both the first fluid compartment and the second fluid compartment, a first fluid height estimate for the first fluid compartment, and a first fluid height estimate for the second fluid compartment, whereby , , and form a set of results. combining , by a processor , measurements from the first fluid level sensor, the second fluid level sensor, the third fluid level sensor, the fourth fluid level sensor into a first unified calculation; and calculating , by the processor, the fluid related quantities from the first unified calculation, the fluid related quantities comprising all of: a fluid orientation estimate which is common to both the first fluid compartment and the second fluid compartment, a first fluid height estimate for the first fluid compartment, and a first fluid height estimate for the second fluid compartment, whereby , , and form a set of results.