mhurhangee/patent-ind-claim-en huggingface dataset:
Aqueous composition for the surface treatment of a metal substrate, said composition comprising a fluorinated compound, a corrosion-inhibiting metal compound excluding compounds based on hexavalent chromium, and a water-soluble colouring compound, characterised in that the colouring compound is xylenol orange, the corrosion-inhibiting metal compound is a trivalent chromium salt and the pH of said composition is between 3 and 5.
A liquid hydrocarbon filterability system comprising: liquid hydrocarbon sample source piping in fluid communication with a liquid hydrocarbon sample container ; a filtration media element comprising filtration media, the filtration media element is in fluid communication with the liquid hydrocarbon sample source piping ; filtered liquid hydrocarbon outlet piping in fluid communication with and downstream of the filtration media element ; a flow or volume measurement element in fluid communication with the filtered liquid hydrocarbon outlet piping , configured to measure an amount of liquid hydrocarbon passing through the filtration media element ; a constant pressure source configured to provide liquid hydrocarbon to the filtration media element at a constant pressure; characterised in that the liquid hydrocarbon sample container has a volume of about 0.5 liter or greater; and wherein the filtration media has a filtration surface area of about 1.5 cm 2 or less. liquid hydrocarbon sample source piping in fluid communication with a liquid hydrocarbon sample container ; a filtration media element comprising filtration media, the filtration media element is in fluid communication with the liquid hydrocarbon sample source piping ; filtered liquid hydrocarbon outlet piping in fluid communication with and downstream of the filtration media element ; a flow or volume measurement element in fluid communication with the filtered liquid hydrocarbon outlet piping , configured to measure an amount of liquid hydrocarbon passing through the filtration media element ; a constant pressure source configured to provide liquid hydrocarbon to the filtration media element at a constant pressure; characterised in that the liquid hydrocarbon sample container has a volume of about 0.5 liter or greater; and wherein the filtration media has a filtration surface area of about 1.5 cm 2 or less.
An agricultural machine comprising: a vibration stimulation source configured to generate a vibration stimulation signal directed toward plant matter ; a sensor system configured to: sense electromagnetic radiation reflected from the plant matter ; generate a first signal based on the sensed electromagnetic radiation, the first signal indicative of at least one of a shape of the plant matter , a location of the plant matter , or a color of the plant matter , and generate a second signal indicative of a vibration response of the plant matter , that is in response to the vibration stimulation signal; a plant evaluation system configured to: based on the first and second signals, generate plant characterization data indicative of one or more physical characteristics of the plant matter ; and a control system configured to generate an action signal based on the plant characterization data; characterized in that the sensor system is configured to generate the second signal to be indicative of a resonant vibration response of the plant matter ; and that the plant characterization data generated by the plant evaluation system are indicative of a plant species. a vibration stimulation source configured to generate a vibration stimulation signal directed toward plant matter ; a sensor system configured to: sense electromagnetic radiation reflected from the plant matter ; generate a first signal based on the sensed electromagnetic radiation, the first signal indicative of at least one of a shape of the plant matter , a location of the plant matter , or a color of the plant matter , and generate a second signal indicative of a vibration response of the plant matter , that is in response to the vibration stimulation signal; sense electromagnetic radiation reflected from the plant matter ; generate a first signal based on the sensed electromagnetic radiation, the first signal indicative of at least one of a shape of the plant matter , a location of the plant matter , or a color of the plant matter , and generate a second signal indicative of a vibration response of the plant matter , that is in response to the vibration stimulation signal; a plant evaluation system configured to: based on the first and second signals, generate plant characterization data indicative of one or more physical characteristics of the plant matter ; and a control system configured to generate an action signal based on the plant characterization data; characterized in that the sensor system is configured to generate the second signal to be indicative of a resonant vibration response of the plant matter ; and that the plant characterization data generated by the plant evaluation system are indicative of a plant species.
A prosthetic thumb device comprising: a track configured to attach to a prosthetic socket; a carriage comprising: a first component that couples to the track and is operable to move along the track; and a locking mechanism coupled to the carriage and configured to: in a first state, prevent the carriage from moving along the track in a first direction; and in a second state, allow the carriage to move along the track in the first direction, characterised in that the carriage is further comprising a second component that is configured to couple with a prosthetic digit, said second component is mounted to the first component and operable to move along the track with the first component and rotate with respect to the first component . a track configured to attach to a prosthetic socket; a carriage comprising: a first component that couples to the track and is operable to move along the track; and a locking mechanism coupled to the carriage and configured to: in a first state, prevent the carriage from moving along the track in a first direction; and in a second state, allow the carriage to move along the track in the first direction, in a first state, prevent the carriage from moving along the track in a first direction; and in a second state, allow the carriage to move along the track in the first direction,
A method for scheduling downlink sub-frames, comprising the steps of: determining a set of downlink sub-frames to be scheduled by a piece of downlink allocation signaling for each user equipment, wherein the set of downlink sub-frames comprises at least two downlink sub-frames; transmitting one downlink sub-frame to the user equipment, wherein control information including the downlink allocation signaling of respective downlink sub-frames in the set of downlink sub-frames is carried in a control section of the downlink sub-frame; and transmitting data to the user equipment in data sections of the respective sub-frames in the set of downlink sub-frames; characterized in that , transmitting the data to the user equipment in the data sections of the respective sub-frames in the set of downlink sub-frames comprises: channel-encoding the same payload to obtain at least two redundancy versions; and transmitting the at least two redundancy versions to the user equipment in data sections of the at least two downlink sub-frames in the set of downlink sub-frames. determining a set of downlink sub-frames to be scheduled by a piece of downlink allocation signaling for each user equipment, wherein the set of downlink sub-frames comprises at least two downlink sub-frames; transmitting one downlink sub-frame to the user equipment, wherein control information including the downlink allocation signaling of respective downlink sub-frames in the set of downlink sub-frames is carried in a control section of the downlink sub-frame; and transmitting data to the user equipment in data sections of the respective sub-frames in the set of downlink sub-frames; characterized in that , transmitting the data to the user equipment in the data sections of the respective sub-frames in the set of downlink sub-frames comprises: channel-encoding the same payload to obtain at least two redundancy versions; and transmitting the at least two redundancy versions to the user equipment in data sections of the at least two downlink sub-frames in the set of downlink sub-frames. channel-encoding the same payload to obtain at least two redundancy versions; and transmitting the at least two redundancy versions to the user equipment in data sections of the at least two downlink sub-frames in the set of downlink sub-frames.
A light-detecting device comprising: a Fabry-Perot interference filter which has a light transmission region ; a light detector which detects light having transmitted the light transmission region ; a support member which supports the Fabry-Perot interference filter in a surrounding region of the light transmission region ; and an adhesive portion which adheres the Fabry-Perot interference filter and the support member to each other, wherein the adhesive portion has an opening (A2) via which an inner side of the surrounding region is in air-communication with an outer side of the surrounding region, when viewed from a light transmission direction in the light transmission region, characterized in that the Fabry-Perot interference filter comprises a stress adjustment layer which comprises a stress adjustment layer opening to include the light transmission region , and a light shielding layer formed on a surface of a light emission side of the stress adjustment layer . a Fabry-Perot interference filter which has a light transmission region ; a light detector which detects light having transmitted the light transmission region ; a support member which supports the Fabry-Perot interference filter in a surrounding region of the light transmission region ; and an adhesive portion which adheres the Fabry-Perot interference filter and the support member to each other, wherein the adhesive portion has an opening (A2) via which an inner side of the surrounding region is in air-communication with an outer side of the surrounding region, when viewed from a light transmission direction in the light transmission region, characterized in that the Fabry-Perot interference filter comprises a stress adjustment layer which comprises a stress adjustment layer opening to include the light transmission region , and a light shielding layer formed on a surface of a light emission side of the stress adjustment layer .
A hose for conveying fluids under pressure comprising an elastomer core tube, at least two reinforcement layers at discrete reinforcement layer radii, said reinforcement layers being radially separated by intermediate elastomer material layers and an outer protective layer covering the outermost reinforcement layer, wherein at least two of said reinforcement layers comprise steel wires helically wound around the axis of said hose, wherein the steel wires of the radially outermost steel wire reinforcement layer have the highest E-ratio, the steel wires of the innermost steel wire reinforcement layer have the lowest E-ratio differing from said highest E-ratio, whereby the E-ratio of any steel wire reinforcement layer is not lower than the E-ratio of any inner laying steel wire reinforcement layer, said E-ratio being equal to the ratio of the tensile strength over the elongation at break of said steel wire, wherein said E-ratio is between 70 000 N/mm 2 up to 200 000 N/mm 2 for the radially outermost steel wire reinforcement layer and between 30 000 N/mm 2 and 120 000 N/mm 2 for the radially innermost steel wire reinforcement layer, characterised in that said steel wires of at least the innermost steel wire reinforcement layer have crimps within a single plane or have bends, said crimps or bends being for altering the original E-ratio and obtaining said E-ratio, while said steel wires of at least the outermost steel wire reinforcement layer are free of bends or crimps.
A micro LED structure comprising: a micro p-n diode , wherein the micro p-n diode has a maximum width of 1 to 100 μm; and a metallization layer wherein the metallization layer is between the micro p-n diode and a bonding layer on a substrate; and a conformal dielectric barrier layer spanning sidewalls of the micro p-n diode , spanning sidewalls of the metallization layer , and spanning sidewalls of the bonding layer . a micro p-n diode , wherein the micro p-n diode has a maximum width of 1 to 100 μm; and a metallization layer wherein the metallization layer is between the micro p-n diode and a bonding layer on a substrate; and a conformal dielectric barrier layer spanning sidewalls of the micro p-n diode , spanning sidewalls of the metallization layer , and spanning sidewalls of the bonding layer .
A cleaning device, comprising: a surface interaction layer (ML); a cleaning fluid supply (CFF) provided with a cleaning fluid channel (CFC) at the surface interaction layer for supplying a cleaning fluid (CF) to a surface (F) through the surface interaction layer being in contact with the surface; and a dirty fluid drain (DFD) provided with a dirty fluid channel (DFC) at the surface interaction layer for draining, by means of underpressure, dirty fluid (DF) from the surface (F) through the surface interaction layer being in contact with the surface, characterized in that : the cleaning fluid supply (CFF) is provided with a first cleaning fluid channel (CFC1) and a second cleaning fluid channel (CFC2) in parallel to the dirty fluid channel (DFC 1-2), the first cleaning fluid channel (CFC1) and the second cleaning fluid channel (CFC2) not being in the same plane whereby the cleaning device is arranged for in a first movement direction of the cleaning device, wetting the surface (F) by the first cleaning fluid channel (CFC1) and draining the surface by the dirty fluid channel (DFC1-2) without the second cleaning fluid channel (CFC2) touching the surface, and in a second movement direction of the cleaning device, wetting the surface by the second cleaning fluid channel (CFC2) and draining the surface by the dirty fluid channel (DFC1-2) without the first fluid channel (CFC1) touching the surface. a surface interaction layer (ML); a cleaning fluid supply (CFF) provided with a cleaning fluid channel (CFC) at the surface interaction layer for supplying a cleaning fluid (CF) to a surface (F) through the surface interaction layer being in contact with the surface; and a dirty fluid drain (DFD) provided with a dirty fluid channel (DFC) at the surface interaction layer for draining, by means of underpressure, dirty fluid (DF) from the surface (F) through the surface interaction layer being in contact with the surface, characterized in that : the cleaning fluid supply (CFF) is provided with a first cleaning fluid channel (CFC1) and a second cleaning fluid channel (CFC2) in parallel to the dirty fluid channel (DFC 1-2), the first cleaning fluid channel (CFC1) and the second cleaning fluid channel (CFC2) not being in the same plane whereby the cleaning device is arranged for in a first movement direction of the cleaning device, wetting the surface (F) by the first cleaning fluid channel (CFC1) and draining the surface by the dirty fluid channel (DFC1-2) without the second cleaning fluid channel (CFC2) touching the surface, and in a second movement direction of the cleaning device, wetting the surface by the second cleaning fluid channel (CFC2) and draining the surface by the dirty fluid channel (DFC1-2) without the first fluid channel (CFC1) touching the surface.
Method for controlling a motor vehicle comfort system , wherein the control is carried out with the aid of a touch-sensitive display-and-operating area assigned to the comfort system , wherein, in at least one operating mode, the virtual display of at least one body (W1-W6) of a three-dimensional appearance is generated in a first position on the touch-sensitive display-and-operating area and at least one function (A1, T1; A1, T12; A2, T1; A49, T1; L, L0; L, L1; T, T0; R, R0; AQ1; S1; AQ2) that can be executed by the comfort system is displayed on the surface (F1-F6) of the body, wherein, after rotating about a horizontal or vertical axis (H or V), the body (W1-W6) is moved into another such position, in which at least one other function (A1, T1; A1, T12; A2, T1; A49, T1; L, L0; L, L1; T, T0; R, R0; AQ1; S1; AQ2) which can be executed by the comfort system is displayed on the visible surface (F1-F6) of the body, characterized in that a number of bodies (W1-W6) of a three-dimensional appearance are displayed at a distance (a) from one another, wherein one or more bodies (W1-W6) are assigned functions from a functional area (104-107) of the comfort system , and in that one body (W4) is assigned functions (S1 or A1, T1) in dependence on the position (F1 or F2) of at least one other body (W1).
An electrode active material comprising a carbon material and having 0.020 to 0.20 mmol/g of basic functional groups, as determined by performing titration, wherein the carbon material is a composite carbon material that comprises a core-forming carbon material and a coating carbon material for coating at least part of the core-forming carbon material.
An driving apparatus comprising: a plurality of image bearing bodies (22K, 22C, 22M, 22Y and 22W) each of which is rotatable and capable of bearing a latent image and a developer image; a belt provided so as to face the image bearing bodies (22K, 22C, 22M, 22Y and 22W), the belt being rotatable; a plurality of motors (46, 47K, 47C, 47M, 47Y and 47W) including a plurality of image-bearing-body-driving units (47K, 47C, 47M, 47Y and 47W) for rotating the image bearing bodies (22K, 22C, 22M, 22Y and 22W) and a belt driving unit for rotating the belt ; and a control unit configured to control the image-bearing-body-driving units (47K, 47C, 47M, 47Y and 47W) and the belt driving unit , wherein the motors (46, 47K, 47C, 47M, 47Y and 47W) are grouped into a plurality of groups including a first group (A) and a second group (B), wherein the motors of the first group (A) and the motors of the second group (B) are driven at different timings; wherein when the control unit detects that a rotation speed of the image bearing body or the belt driven by the motors of the first group (A) reaches a first speed, the control unit causes the motors of the first group (A) to accelerate the rotation speed from the first speed to a first intermediate speed; and wherein when the control unit detects that a rotation speed of the image bearing body or the belt driven by the motors of the second group (B) reaches the first speed, the control unit causes the motors of the second group (B) to accelerate the rotation speed from the first speed to a second intermediate speed faster than the first intermediate speed. a plurality of image bearing bodies (22K, 22C, 22M, 22Y and 22W) each of which is rotatable and capable of bearing a latent image and a developer image; a belt provided so as to face the image bearing bodies (22K, 22C, 22M, 22Y and 22W), the belt being rotatable; a plurality of motors (46, 47K, 47C, 47M, 47Y and 47W) including a plurality of image-bearing-body-driving units (47K, 47C, 47M, 47Y and 47W) for rotating the image bearing bodies (22K, 22C, 22M, 22Y and 22W) and a belt driving unit for rotating the belt ; and a control unit configured to control the image-bearing-body-driving units (47K, 47C, 47M, 47Y and 47W) and the belt driving unit , wherein the motors (46, 47K, 47C, 47M, 47Y and 47W) are grouped into a plurality of groups including a first group (A) and a second group (B), wherein the motors of the first group (A) and the motors of the second group (B) are driven at different timings; wherein when the control unit detects that a rotation speed of the image bearing body or the belt driven by the motors of the first group (A) reaches a first speed, the control unit causes the motors of the first group (A) to accelerate the rotation speed from the first speed to a first intermediate speed; and wherein when the control unit detects that a rotation speed of the image bearing body or the belt driven by the motors of the second group (B) reaches the first speed, the control unit causes the motors of the second group (B) to accelerate the rotation speed from the first speed to a second intermediate speed faster than the first intermediate speed.
Assembly for placement of a cardiac, aortic or arterial implant, comprising: - a device forming an introducer or a valve delivery catheter comprising at least one tubular insertion sheath , intended to be introduced into an artery of a human body (C) and optionally to permit the passage of a surgical intervention device; - an accessory catheter (1") intended to be introduced into a peripheral vein or artery of the human body; - a sleeve adapted to be engaged around the accessory catheter, the sleeve being made of electrically conductive material over at least part of its outer periphery, such that, when the accessory catheter is introduced into the peripheral vein or artery of the human body, the conductive periphery of the sleeve is in contact with the subcutaneous tissue of the body or with the wall of the artery or of the vein, the sleeve additionally comprising an electrical connection to an electrode of a cardiac stimulator outside the body; - a guidewire intended to be introduced into the tubular sheath of the introducer or of the delivery catheter for advancing the implant, the guidewire comprising a metal part additionally serving as a connection to the other electrode of the external cardiac stimulator. - a device forming an introducer or a valve delivery catheter comprising at least one tubular insertion sheath , intended to be introduced into an artery of a human body (C) and optionally to permit the passage of a surgical intervention device; - an accessory catheter (1") intended to be introduced into a peripheral vein or artery of the human body; - a sleeve adapted to be engaged around the accessory catheter, the sleeve being made of electrically conductive material over at least part of its outer periphery, such that, when the accessory catheter is introduced into the peripheral vein or artery of the human body, the conductive periphery of the sleeve is in contact with the subcutaneous tissue of the body or with the wall of the artery or of the vein, the sleeve additionally comprising an electrical connection to an electrode of a cardiac stimulator outside the body; - a guidewire intended to be introduced into the tubular sheath of the introducer or of the delivery catheter for advancing the implant, the guidewire comprising a metal part additionally serving as a connection to the other electrode of the external cardiac stimulator.
A hard tool configuration for the manufacturing of advanced features in a ceramic core for a casting process, comprising: a first platform comprising a center facing side ; a second platform comprising a center facing side , wherein the second platform is generally opposite from the first platform ; an internal mold geometry in a spacing in between the center facing side of the first platform and the center facing side of the second platform ; characterized in that a plurality of removable rake elements comprising a first end and a second end , wherein the first end is removably attached to the center facing side of the first platform and/or the second platform , wherein the removable rake elements have a pin as connection point at a first end with a matching engagement portion along the center facing side of the corresponding platform the first end is removably attached to, wherein the pin has a circular end portion comprising an enlarged diameter, wherein the shape and size of the second end of each of the removable rake elements determines the details of the features of the ceramic core. a first platform comprising a center facing side ; a second platform comprising a center facing side , wherein the second platform is generally opposite from the first platform ; an internal mold geometry in a spacing in between the center facing side of the first platform and the center facing side of the second platform ;