mhurhangee/patent-ind-claim-en huggingface dataset:
A luminous module (2; 102; 202), in particular for a motor vehicle, said module comprising: - an optical axis (12; 112; 212) ; - a first light source (4; 104; 218) able to emit light rays, and a first reflective surface (6; 106; 220) configured to collect and reflect the light rays emitted by said first light source into a first light beam (16; 116; 222); - a second light source (18; 118; 228) and a second reflective surface (20; 120; 230) configured to collect and reflect the light rays emitted by said second light source into a second light beam (22; 122; 232); - an optical system (14; 114; 214) configured to project the first and second light beams (16, 22; 116, 122; 222, 232); the optical system (14; 114; 214) comprising a focal point located on or in proximity to the second reflective surface (20; 120; 230), that is at a distance from said second reflective surface smaller than 10 mm, and the optical system (14; 114; 214) is configured to form an image of the second reflective surface (20; 120; 230), more specifically of the portion of the reflective surface closest to the focal point, characterized in that the first and second light sources (4, 18; 104, 118; 218, 228) emit the light rays in the same direction, and in that the first and second reflective surfaces (6, 20; 106, 120; 220, 230) are offset along the optical axis (12; 112; 212), the first reflective surface (6; 106; 220) being located behind the second reflective surface (20; 120; 230), and in that the first and second light beams (16; 116; 222 and 22; 122; 232) are emitted along the optical axis (12; 112; 212) of the module. - an optical axis (12; 112; 212) ; - a first light source (4; 104; 218) able to emit light rays, and a first reflective surface (6; 106; 220) configured to collect and reflect the light rays emitted by said first light source into a first light beam (16; 116; 222); - a second light source (18; 118; 228) and a second reflective surface (20; 120; 230) configured to collect and reflect the light rays emitted by said second light source into a second light beam (22; 122; 232); - an optical system (14; 114; 214) configured to project the first and second light beams (16, 22; 116, 122; 222, 232); the optical system (14; 114; 214) comprising a focal point located on or in proximity to the second reflective surface (20; 120; 230), that is at a distance from said second reflective surface smaller than 10 mm, and the optical system (14; 114; 214) is configured to form an image of the second reflective surface (20; 120; 230), more specifically of the portion of the reflective surface closest to the focal point, characterized in that the first and second light sources (4, 18; 104, 118; 218, 228) emit the light rays in the same direction, and in that the first and second reflective surfaces (6, 20; 106, 120; 220, 230) are offset along the optical axis (12; 112; 212), the first reflective surface (6; 106; 220) being located behind the second reflective surface (20; 120; 230), and in that the first and second light beams (16; 116; 222 and 22; 122; 232) are emitted along the optical axis (12; 112; 212) of the module.
A filter cartridge comprising: (a) filtration media ; and (b) a housing seal arrangement coupled to the filtration media , comprising: (i) a seal support having a surface; (ii) a seal member supported by the seal support and having a radially directed seal surface and a thickness (T) between the seal support surface and the radially directed seal surface that varies along the seal member surface; wherein the radially directed seal surface comprises a plurality of outwardly projecting and axially extending portions and a plurality of inwardly projecting and axially extending portions ; (iii) the thickness (T) between the seal support and the radially directed seal surface varies in a radial direction; and (iv) the thickness (T) between the seal support and the radially directed seal surface is generally constant in an axial direction. (a) filtration media ; and (b) a housing seal arrangement coupled to the filtration media , comprising: (i) a seal support having a surface; (ii) a seal member supported by the seal support and having a radially directed seal surface and a thickness (T) between the seal support surface and the radially directed seal surface that varies along the seal member surface; wherein the radially directed seal surface comprises a plurality of outwardly projecting and axially extending portions and a plurality of inwardly projecting and axially extending portions ; (iii) the thickness (T) between the seal support and the radially directed seal surface varies in a radial direction; and (iv) the thickness (T) between the seal support and the radially directed seal surface is generally constant in an axial direction. (i) a seal support having a surface; (ii) a seal member supported by the seal support and having a radially directed seal surface and a thickness (T) between the seal support surface and the radially directed seal surface that varies along the seal member surface; wherein the radially directed seal surface comprises a plurality of outwardly projecting and axially extending portions and a plurality of inwardly projecting and axially extending portions ; (iii) the thickness (T) between the seal support and the radially directed seal surface varies in a radial direction; and (iv) the thickness (T) between the seal support and the radially directed seal surface is generally constant in an axial direction.
An automobile tire repairing device, the tire repairing device comprising: a box in which an air pump is received, and a cigarette lighter plug being inserted into a power supply so as to receive electricity; characterized in that the cigarette lighter plug includes a first housing , a second housing , and a power cord , wherein the power cord includes a positive-electrode power part and a negative-electrode power part , the second housing includes a post extending adjacent to a holder , a first accommodation chamber defined between the end seat of the second housing and the post , a column proximate to the post , a second accommodation chamber defined between the column and the post , a semi-arch flexible element received on a side of the second housing , the second housing further includes a wing extending therefrom opposite to the semi-arch flexible element , a third accommodation chamber defined between the wing and the column , and a fourth accommodation chamber defined between a conductive foot of the semi-arch flexible element and the column so as to receive the power cord , wherein the first housing is engaged with the second housing , and the power cord is bent in an S shape and is not winded. a box in which an air pump is received, and a cigarette lighter plug being inserted into a power supply so as to receive electricity; characterized in that the cigarette lighter plug includes a first housing , a second housing , and a power cord , wherein the power cord includes a positive-electrode power part and a negative-electrode power part , the second housing includes a post extending adjacent to a holder , a first accommodation chamber defined between the end seat of the second housing and the post , a column proximate to the post , a second accommodation chamber defined between the column and the post , a semi-arch flexible element received on a side of the second housing , the second housing further includes a wing extending therefrom opposite to the semi-arch flexible element , a third accommodation chamber defined between the wing and the column , and a fourth accommodation chamber defined between a conductive foot of the semi-arch flexible element and the column so as to receive the power cord , wherein the first housing is engaged with the second housing , and the power cord is bent in an S shape and is not winded.
A method of controlling sampling at a plurality of mobile ambient sensors, comprising: providing a plurality of ambient sensors , wherein each sensor moves periodically along a predefined route and is controllable on the basis of location by being associated with a positioning functionality; receiving one or more desired measuring locations , wherein said predefined routes overlap with the desired measuring locations; and assigning to a first one of the sensors a first sampling location (A, B, C, D), which is at or near the desired measuring location, wherein the assigned sampling locations are output in the form of an instruction to be forwarded to the sensors. providing a plurality of ambient sensors , wherein each sensor moves periodically along a predefined route and is controllable on the basis of location by being associated with a positioning functionality; receiving one or more desired measuring locations , wherein said predefined routes overlap with the desired measuring locations; and assigning to a first one of the sensors a first sampling location (A, B, C, D), which is at or near the desired measuring location, wherein the assigned sampling locations are output in the form of an instruction to be forwarded to the sensors.
Soil cultivation tool for an agricultural machine, in particular cultivator blade, which is fastened to a tool holder and has, at a lower end, a tine-like region and, adjoining the latter, a soil guiding region that guides the soil broken up by the tine-like region and is configured preferably as a soil-guiding guide plate, wherein one or more hard-material elements are arranged, as cutting elements, in the region of the tine-like region forming the cutting edge , with the aid of a brazing material, wherein, directly next to the hard-material element or the hard-material elements, wear-resistant material has been applied by means of laser welding, as a wear-protection layer , to the soil-guiding region , adjoining the tine-like region , for guiding the soil, as at least one wear-protection layer made of at least one wear-resistant material, characterized in that a first wear-protection layer has been applied to the region, adjoining the tine-like region , on the soil-guiding region of the soil cultivation tool , across the entire width of the soil-guiding region of the soil cultivation tool , and in that , in the first, front soil-guiding region of the soil cultivation tool , a respective strip-like wear-protection strip has been applied by means of laser welding, as a second wear-protection layer, to the first wear-protection layer in each case in the lateral peripheral regions of the soil-guiding region of the soil cultivation tool .
A negative electrode material for an electrolyte battery, comprising: a negative electrode active material, and a coating material disposed on a surface of the negative electrode active material, wherein the electrolyte battery is a lithium ion battery, the coating material is a fluoride ion conductor that includes lead and fluorine, and the fluoride ion conductor includes a PbF 2 -SnF 2 based material. a negative electrode active material, and a coating material disposed on a surface of the negative electrode active material, wherein the electrolyte battery is a lithium ion battery, the coating material is a fluoride ion conductor that includes lead and fluorine, and the fluoride ion conductor includes a PbF 2 -SnF 2 based material.
A computing device for gesture recognition, comprising: a first enclosure ; a display enclosure ; a tag on the first enclosure ; a sensor on the display enclosure to detect a tag location on the first enclosure and generate sensor data, the sensor data including sensor data about the tag location and sensor data from an object moving in a gesture volume ; and a controller to determine from the sensor data about the tag location the relative position between the display enclosure and the first enclosure , characterized by further comprising a barcode or a QR code embedded in the tag to uniquely identify the first enclosure , and further characterized in that the controller is configured to decode the barcode or QR code identifying the first enclosure , wherein the sensor is configured to determine the location of a user's hands and wherein the controller is configured to determine a gesture volume from the relative position between the display enclosure and the first enclosure , wherein the sensor is configured to restrict the field of view for gesture input to the gesture volume . a first enclosure ; a display enclosure ; a tag on the first enclosure ; a sensor on the display enclosure to detect a tag location on the first enclosure and generate sensor data, the sensor data including sensor data about the tag location and sensor data from an object moving in a gesture volume ; and a controller to determine from the sensor data about the tag location the relative position between the display enclosure and the first enclosure , characterized by further comprising a barcode or a QR code embedded in the tag to uniquely identify the first enclosure , and further characterized in that the controller is configured to decode the barcode or QR code identifying the first enclosure , wherein the sensor is configured to determine the location of a user's hands and wherein the controller is configured to determine a gesture volume from the relative position between the display enclosure and the first enclosure , wherein the sensor is configured to restrict the field of view for gesture input to the gesture volume .
Microfluidic device configured to deliver a controlled amount of a liquid to an analysis tool , wherein the microfluidic device comprises: - a buffer tank configured to contain a liquid and/or a gas; - at least one level sensor configured to measure a liquid level in the buffer tank; - a pneumatic system configured to create selectively a positive or a negative pressure in the buffer tank; - at least one intake port to let a liquid in the buffer tank; - at least one delivery port to inject a controlled amount of liquid from the buffer tank onto the analysis tool ; characterized in that the microfluidic device further comprises: - at least one drain port with a controlled drain valve , located on the lower part of the buffer tank to discharge the liquid from the buffer tank; - a first check valve located upstream of the intake port and a second check valve between the buffer tank and the analysis tool. - a buffer tank configured to contain a liquid and/or a gas; - at least one level sensor configured to measure a liquid level in the buffer tank; - a pneumatic system configured to create selectively a positive or a negative pressure in the buffer tank; - at least one intake port to let a liquid in the buffer tank; - at least one delivery port to inject a controlled amount of liquid from the buffer tank onto the analysis tool ; - at least one drain port with a controlled drain valve , located on the lower part of the buffer tank to discharge the liquid from the buffer tank; - a first check valve located upstream of the intake port and a second check valve between the buffer tank and the analysis tool.
An apparatus, comprising one or more machine-learning optimization algorithms for solving one or more pre-determined optimization problems, comprising means for: configuring a first data producer to collect measurements for solving the one or more pre-determined optimization problems using the one or more machine-learning optimization algorithms; transmitting a first measurement request to the first data producer, wherein the first measurement request is indicative of requested measurement(s) for the one or more pre-determined optimization problems, time sampling indication and a granularity of the measurement(s); receiving , from the first data producer, a measurement response comprising first measurement results corresponding to the first measurement request; solving the one or more pre-determined optimization problems by the one or more machine-learning optimization algorithms using the measurement response; determining a performance of the one or more machine-learning optimization algorithms; and transmitting a further measurement request to the first data producer, wherein the further measurement request is indicative of requested measurement(s) for the one or more pre-determined optimization problems and the further measurement request is defined, based on the determined performance of the one or more machine-learning optimization algorithms, to be at least partly different from the first measurement request. configuring a first data producer to collect measurements for solving the one or more pre-determined optimization problems using the one or more machine-learning optimization algorithms; transmitting a first measurement request to the first data producer, wherein the first measurement request is indicative of requested measurement(s) for the one or more pre-determined optimization problems, time sampling indication and a granularity of the measurement(s); receiving , from the first data producer, a measurement response comprising first measurement results corresponding to the first measurement request; solving the one or more pre-determined optimization problems by the one or more machine-learning optimization algorithms using the measurement response; determining a performance of the one or more machine-learning optimization algorithms; and transmitting a further measurement request to the first data producer, wherein the further measurement request is indicative of requested measurement(s) for the one or more pre-determined optimization problems and the further measurement request is defined, based on the determined performance of the one or more machine-learning optimization algorithms, to be at least partly different from the first measurement request.
A combination drug which consists of a first layer comprising metformin and a second layer comprising gemigliptin, wherein the first layer further comprises pregelatinized starch.
A fast-curing mineral binder mixture comprising: a titanium(IV)-based accelerator; cement comprising one or more components selected from the compounds 3CaO ∗ Al 2 O 3 , 12CaO ∗ 7Al 2 O 3 , CaO ∗ Al 2 O 3 , CaO ∗ 2Al 2 O 3 , CaO ∗ 6Al 2 O 3 and/or 4CaO ∗ 3Al 2 O 3 ∗ SO 3 ; a sulfate carrier in a fraction of 15 to 80 wt%, preferably 25 to 50 wt%; optionally one or more than one alkaline component; and optionally one or more additives, where the wt% is based on the fast-curing mineral binder mixture. a titanium(IV)-based accelerator; cement comprising one or more components selected from the compounds 3CaO ∗ Al 2 O 3 , 12CaO ∗ 7Al 2 O 3 , CaO ∗ Al 2 O 3 , CaO ∗ 2Al 2 O 3 , CaO ∗ 6Al 2 O 3 and/or 4CaO ∗ 3Al 2 O 3 ∗ SO 3 ; a sulfate carrier in a fraction of 15 to 80 wt%, preferably 25 to 50 wt%; optionally one or more than one alkaline component; and optionally one or more additives, where the wt% is based on the fast-curing mineral binder mixture.
A direction finding antenna array comprising at least a first dipole antenna element , a second dipole antenna element and a third dipole antenna element , each comprising respective first ends (14.1, 16.1, 18.1), respective second ends (14.2, 16.2, 18.2) and a respective feed-point (14.3, 16.3, 18.3), wherein, the at least first, second and third dipole elements are arranged in spaced relationship relative to one another in a non-linear pattern, characterized in that , in respect of each dipole element in the array: a) the first end (14.1) is connected by first and second electrical connections to the first end of each of only two adjacent dipole elements respectively in the array and b) the second end (14.2) is connected by third and fourth electrical connections to the second end of each of only the two adjacent dipole elements respectively.
Tubing head for fluid reservoir comprising a vent arranged to communicate with a venting line , said tubing head being arranged to receive a fluid dispensing nozzle provided with an automatic dispensing shut-off system, characterised in that it comprises a device for deflecting a flow (B) from the venting line forming a channel between the venting line and the vent so that the flow (B, C) from the venting line to the vent cannot be directed to the dispensing nozzle permitting the flow (B, C) from the venting line to the vent does not cause said automatic shut-off system when filling the tank by means of the dispensing nozzle and wherein the deflecting device has at least one drainage port arranged for evacuating to the reservoir any liquid existing in the flow (C) to the vent .
Packaging device configured to support medical containers , the packaging device comprising a first stage of supporting units configured to support a first plurality of medical containers in a first plane, a second stage of supporting units configured to support a second plurality of medical containers in a second plane parallel to said first plane, the first plane and the second plane being spaced apart from each other so that the distal ends of the first plurality of medical containers extend between medical containers of the second plurality of medical containers , and the supporting units of the first and second stages being configured so that the medical containers of the first and second pluralities of medical containers are oriented in a same direction, characterized in that the first stage of supporting units is formed by a first plate-shaped nest and the second stage of supporting units is formed by a second separate plate-shaped nest.
A microsphere containment system for storing radioactive microspheres including a diamagnetic material, the system comprising: a microsphere container comprising walls that define a containment space in the microsphere container, the walls comprising at least one magnetic component configured to produce a magnetic field within the containment space; wherein the containment space is configured so that microspheres including a diamagnetic material, when stored within the containment space, interact with the magnetic field within the containment space in a manner that prevents direct contact of the microspheres with the walls of the microsphere container , and wherein the system further comprises: radioactive microspheres stored within the containment space, the radioactive microspheres comprising a diamagnetic material. a microsphere container comprising walls that define a containment space in the microsphere container, the walls comprising at least one magnetic component configured to produce a magnetic field within the containment space; wherein the containment space is configured so that microspheres including a diamagnetic material, when stored within the containment space, interact with the magnetic field within the containment space in a manner that prevents direct contact of the microspheres with the walls of the microsphere container , and wherein the system further comprises: radioactive microspheres stored within the containment space, the radioactive microspheres comprising a diamagnetic material.