mhurhangee/patent-ind-claim-en huggingface dataset:
A spray tip for dispensing fluids that react together comprising: a first lumen ; a second lumen ; a dispensing cap located at distal ends of said respective first and second lumens and defining a distal end of said spray tip , said dispensing cap comprising a distal end wall defining a closed end of said dispensing cap ; a first spray orifice formed in said distal end wall that is in fluid communication with said first lumen , wherein said first spray orifice includes a first raised mound that projects distally from an outer surface of said distal end wall of said dispensing cap , a second spray orifice formed in said distal end wall that is in fluid communication with said second lumen , wherein said second spray orifice includes a second raised mound that projects distally from the outer surface of said distal end wall of said dispensing cap , and an external dividing wall that projects distally from said distal end wall of said dispensing cap and that extends between said first and second spray orifices for forming a barrier between said first and second spray orifices . a first lumen ; a second lumen ; a dispensing cap located at distal ends of said respective first and second lumens and defining a distal end of said spray tip , said dispensing cap comprising a distal end wall defining a closed end of said dispensing cap ; a first spray orifice formed in said distal end wall that is in fluid communication with said first lumen , wherein said first spray orifice includes a first raised mound that projects distally from an outer surface of said distal end wall of said dispensing cap , a second spray orifice formed in said distal end wall that is in fluid communication with said second lumen , wherein said second spray orifice includes a second raised mound that projects distally from the outer surface of said distal end wall of said dispensing cap , and an external dividing wall that projects distally from said distal end wall of said dispensing cap and that extends between said first and second spray orifices for forming a barrier between said first and second spray orifices . a distal end wall defining a closed end of said dispensing cap ; a first spray orifice formed in said distal end wall that is in fluid communication with said first lumen , wherein said first spray orifice includes a first raised mound that projects distally from an outer surface of said distal end wall of said dispensing cap , a second spray orifice formed in said distal end wall that is in fluid communication with said second lumen , wherein said second spray orifice includes a second raised mound that projects distally from the outer surface of said distal end wall of said dispensing cap , and an external dividing wall that projects distally from said distal end wall of said dispensing cap and that extends between said first and second spray orifices for forming a barrier between said first and second spray orifices .
A method of mapping the depth of a trench opened in a soil surface of a field by an agricultural row unit attached to a planter, the method comprising: receiving a trench depth signal from a depth sensor (150;1226) associated with the row unit ; determining a measured trench depth value based on said trench depth signal and a calibration curve; recording and time-stamping the trench depth value and a GPS position of the planter reported by a GPS receiver ; displaying an image correlated to the measured depth on a map at a map location corresponding to the GPS position of the planter at the time of the depth measurement. receiving a trench depth signal from a depth sensor (150;1226) associated with the row unit ; determining a measured trench depth value based on said trench depth signal and a calibration curve; recording and time-stamping the trench depth value and a GPS position of the planter reported by a GPS receiver ; displaying an image correlated to the measured depth on a map at a map location corresponding to the GPS position of the planter at the time of the depth measurement.
Modular system with a device for conditioning gases, particularly seal gas, having a separator unit , particularly for separating liquids and/or particles from the gas flowing through the device, and having a collection vessel for separated substances, wherein the separator unit comprises a cyclone separator with a cyclone housing that comprises an acceleration cone at the lower end of an inlet cylinder , said acceleration cone extending, at the transition between the housing and the top side of the collection vessel , into the inlet opening thereof and thus into the inner chamber thereof, wherein the acceleration cone is formed in an insert body , characterised in that a plurality of different insert bodies are provided, which are changed as required if another size and/or shape of the acceleration cone is expedient.
A recombinant nonpathogenic Marek's Disease Virus (rMDVnp) comprising a first heterologous nucleic acid located in a first nonessential site in the rMDVnp genome and a second heterologous nucleic acid located in a second nonessential site in the rMDVnp genome; wherein the first heterologous nucleic acid comprises both a nucleotide sequence that encodes an Infectious Laryngotracheitis Virus glycoprotein D (ILTV gD) and a nucleotide sequence that encodes an Infectious Laryngotracheitis Virus glycoprotein I (ILTV gl); wherein the second heterologous nucleic acid comprises a nucleotide sequence that encodes an Infectious Bursal Disease Virus viral protein 2 (IBDV VP2); wherein the first nonessential site and the second nonessential site are the same; and are both the US2 site or are both the UL54.5 site, and wherein the rMDVnp is a recombinant herpesvirus of turkeys (rHVT). wherein the first heterologous nucleic acid comprises both a nucleotide sequence that encodes an Infectious Laryngotracheitis Virus glycoprotein D (ILTV gD) and a nucleotide sequence that encodes an Infectious Laryngotracheitis Virus glycoprotein I (ILTV gl); wherein the second heterologous nucleic acid comprises a nucleotide sequence that encodes an Infectious Bursal Disease Virus viral protein 2 (IBDV VP2); wherein the first nonessential site and the second nonessential site are the same; and are both the US2 site or are both the UL54.5 site, and wherein the rMDVnp is a recombinant herpesvirus of turkeys (rHVT).
Assembly for taking a dental impression, comprising a healing element adapted for connection to a dental implant and having a lateral surface , intended for integration within a gum in order to shape the gum during its healing, and an end surface forming with part of said lateral surface an emergent surface which is intended to remain outside the gum and which is asymmetrical with respect to at least one perpendicular median plane (P), which assembly comprises a removable impression transfer element comprising a part for fixing to an impression material of an impression tray of said assembly and a connecting part able to cooperate with a complementary connecting zone defined in a through-opening formed in said healing element , and characterized in that the healing element can occupy a configuration in which it is adapted to be fixed on its own to an implant by a screw , without a removable impression transfer element , the emergent surface of the healing element , completed by a head of the screw , having a continuous smooth surface in this configuration.
An assembly comprising: a board level shield (100; 200) including an opening having a perimeter; a thermally-conductive electromagnetic interference (EMI) absorber (112; 212) configured for attenuating EMI that propagates within the thermally-conductive EMI absorber (112; 212); and a structure (128; 228) positioned relative to the board level shield (100; 200) and the thermally-conductive EMI absorber (112; 212) such that EMI passing through the opening is blocked and redirected by the structure (128; 228) to propagate within the thermally-conductive EMI absorber (112; 212) between the board level shield (100; 200) and the structure (128; 228); wherein at least a portion of the thermally-conductive EMI absorber (112; 212) is disposed outside the perimeter of the opening within a gap or space separating or defined between an upper surface of the board level shield (100; 200) and a lower surface of the structure (128; 228) and configured to be operable for attenuating EMI that propagates within the at least a portion of the thermally-conductive EMI absorber (112; 212) between the upper surface of the board level shield (100; 200) and the lower surface of the structure (128; 228); wherein the thermally-conductive EMI absorber (112; 212) is configured to attenuate the EMI that passes through the opening and propagates within the thermally-conductive EMI absorber (112; 212) before the EMI can emerge from the thermally-conductive EMI absorber. a board level shield (100; 200) including an opening having a perimeter; a thermally-conductive electromagnetic interference (EMI) absorber (112; 212) configured for attenuating EMI that propagates within the thermally-conductive EMI absorber (112; 212); and a structure (128; 228) positioned relative to the board level shield (100; 200) and the thermally-conductive EMI absorber (112; 212) such that EMI passing through the opening is blocked and redirected by the structure (128; 228) to propagate within the thermally-conductive EMI absorber (112; 212) between the board level shield (100; 200) and the structure (128; 228); wherein at least a portion of the thermally-conductive EMI absorber (112; 212) is disposed outside the perimeter of the opening within a gap or space separating or defined between an upper surface of the board level shield (100; 200) and a lower surface of the structure (128; 228) and configured to be operable for attenuating EMI that propagates within the at least a portion of the thermally-conductive EMI absorber (112; 212) between the upper surface of the board level shield (100; 200) and the lower surface of the structure (128; 228); wherein the thermally-conductive EMI absorber (112; 212) is configured to attenuate the EMI that passes through the opening and propagates within the thermally-conductive EMI absorber (112; 212) before the EMI can emerge from the thermally-conductive EMI absorber.
A computer-implemented method comprising: receiving (S101) distance data from a range finding sensor , wherein the distance data corresponds to a first distance (D PA ) to a first point (A) from a mobile device and a second distance (D PB ) to a second point (B) from the mobile device; accessing (S103) a predetermined model to receive location data for the first point and the second point, wherein the predetermined model includes known locations of objects in a geographic area, including the first point and the second point; and calculating (S105) a position of the mobile device based on the location data, the first distance to the first point and the second distance to the second point by: obtaining two possible positions; and dismissing an erroneous possible position of the two possible positions by comparing the two possible positions to a recent position of the mobile device from a satellite-based positioning system, wherein the erroneous possible position is farther from the recent position and the position of the mobile device is closer to the recent position. receiving (S101) distance data from a range finding sensor , wherein the distance data corresponds to a first distance (D PA ) to a first point (A) from a mobile device and a second distance (D PB ) to a second point (B) from the mobile device; accessing (S103) a predetermined model to receive location data for the first point and the second point, wherein the predetermined model includes known locations of objects in a geographic area, including the first point and the second point; and calculating (S105) a position of the mobile device based on the location data, the first distance to the first point and the second distance to the second point by: obtaining two possible positions; and dismissing an erroneous possible position of the two possible positions by comparing the two possible positions to a recent position of the mobile device from a satellite-based positioning system, wherein the erroneous possible position is farther from the recent position and the position of the mobile device is closer to the recent position. obtaining two possible positions; and dismissing an erroneous possible position of the two possible positions by comparing the two possible positions to a recent position of the mobile device from a satellite-based positioning system, wherein the erroneous possible position is farther from the recent position and the position of the mobile device is closer to the recent position.
A support for a separation membrane comprising a long-fiber nonwoven fabric composed of thermoplastic continuous filaments, wherein the thermoplastic continuous filaments are complex-type thermoplastic continuous filaments made of polymers having different melting points, in which a low melting point polymer having a melting point lower by 10 to 140°C than that of a high melting point polymer is arranged about the high melting point polymer, wherein the average fiber diameter of the thermoplastic continuous filaments is 3 to 17 μm, wherein tensile strength of the long-fiber nonwoven fabric is 80 to 900 N/5 cm, tensile elongation of the long-fiber nonwoven fabric is 15 to 50%, and a product of tensile strength and tensile elongation calculated by the following equation: · Product of tensile strength and tensile elongation N / 5 cm = tensile strength N / 5 cm × 1 + tensile elongation % / 100 , is 120 to 1300 N/5 cm, wherein the long-fiber nonwoven fabric is a laminated long-fiber nonwoven fabric formed by laminating 2 to 5 sheets of nonwoven fabrics made of long fibers, wherein the laminated long-fiber nonwoven fabric comprises only spunbonded nonwoven fabrics and the laminated long-fiber nonwoven fabrics were produced by thermocompression bonding a laminated body of long-fiber nonwoven fabrics composed of thermoplastic continuous filaments between a a pair of upper and lower flat rolls, at least one of which is maintained at a temperature lower by 80 to 20°C than a melting point of a polymer composing the surface of the thermoplastic continuous filament, to unify the long-fiber nonwoven fabrics, wherein tensile strength in a crosswise direction of the long-fiber nonwoven fabric is 50 N/5 cm or more and a ratio of tensile strength in a machine direction to tensile strength in a crosswise direction is 2.7 or less, wherein the tensile strength, tensile elongation, tensile strength in a crosswise direction and the tensile strength in a machine direction are determined as defined in the description.
Graphite lead or graphite chalk or graphite block for drawing and painting, having a base body made of a base mass, the base mass for producing the base body containing at least one cellulose-based binder, kaolin as filler and graphite, the base body being impregnated with a waterproof preparation mixture containing at least one mixture of iso- and n-paraffins.
A printed security element (10; 10*; 10**) comprising a rainbow feature (15; 15*; 15**) exhibiting, at least in part, a gradual transition from a first colour (C1) to a second colour (C2) distinct from the first colour (C1), wherein the rainbow feature (15; 15*; 15**) extends over a colour-gradient area (A) of the printed security element (10; 10*; 10**) where first and second printed patterns (P1, P2) are partly superimposed or juxtaposed, each of the first and second printed patterns (P1, P2) comprising a first, respectively second set of linear or curvilinear elements (20, 30; 20*, 30*), the first and second printed patterns (P1, P2) being printed in register one with the other by means of two distinct printing plates (PP1, PP2) so that the first and second sets of linear or curvilinear elements (20, 30; 20*, 30*) are partly superimposed or juxtaposed in the colour-gradient area (A) and thereby generate the rainbow feature (15; 15*; 15**), the first printed pattern (P1) exhibiting the first colour (C1) and being printed by means of a first printing plate (PP1) and the second printed pattern (P2) exhibiting the second colour (C2) and being printed by means of a second printing plate (PP2), characterized in that at least the first or second printed pattern (P1; P2) exhibits, in the colour-gradient area (A), a modulation of line width or line structure such as to cause, when superimposed or juxtaposed with the other printed pattern (P2; P1), a gradual transition from the first colour (C1) to the second colour (C2), wherein, in the colour-gradient area (A), the second printed pattern (P2) is printed on top of the first printed pattern (P1) and wherein the second colour (C2) is darker than the first colour (C1).
A set comprised of a mat for detachably fixing an object like a shell and the object , wherein the mat has at least one recess designed as a depression in the mat , wherein a receiving device for the object is positioned in the recess of the mat , and consists at least partially of a stronger material than the mat , and wherein the receiving device has a screw cap with a lock for fixing the object through rotation, characterized in that the mat is self-adhesive, and that the mat is comprised at least partially of an elastically deformable material, and that the receiving device is comprised of a thermoplastic encapsulated with an elastic material in an injection molding process.
A method, comprising: requesting , by a hardware processor, identification of metric-providing software service instances , , operating on a plurality of computing nodes, each particular metric-providing software service instance including a metric provider that produces pre-calculated metric data for the particular metric-providing software service instance, the pre-calculated metric data including a metric calculated for the particular metric-providing software service instance, and the metric being calculated at a particular computing node , , , operating the particular metric-providing software service instance; responsive to the requesting, receiving response data by the hardware processor; collecting , by the hardware processor, pre-calculated metric data from at least one of the metric-providing software service instances identified by the response data; and aggregating , by the hardware processor, the collected pre-calculated metric data into a metric packet, wherein the aggregating is based on software service identifiers, timestamps, and metric names included in the pre-calculated metric data, wherein the response data includes identification of the metric-providing software service instances and comprises at least one universal resource locator for collecting pre-calculated metric data from the at least one of the metric-providing software service instances. requesting , by a hardware processor, identification of metric-providing software service instances , , operating on a plurality of computing nodes, each particular metric-providing software service instance including a metric provider that produces pre-calculated metric data for the particular metric-providing software service instance, the pre-calculated metric data including a metric calculated for the particular metric-providing software service instance, and the metric being calculated at a particular computing node , , , operating the particular metric-providing software service instance; responsive to the requesting, receiving response data by the hardware processor; collecting , by the hardware processor, pre-calculated metric data from at least one of the metric-providing software service instances identified by the response data; and aggregating , by the hardware processor, the collected pre-calculated metric data into a metric packet, wherein the aggregating is based on software service identifiers, timestamps, and metric names included in the pre-calculated metric data, wherein the response data includes identification of the metric-providing software service instances and comprises at least one universal resource locator for collecting pre-calculated metric data from the at least one of the metric-providing software service instances.
A control system for a wind turbine, the control system comprises at least two controller units: a first controller arranged for determining an operational value of a sub-system of the control system, the first controller being arranged to operate at a first sample frequency; and a second controller for operating the sub-system, the second controller unit being arranged to operate at a second sample frequency, the second sample frequency being higher than the first sample frequency; wherein the control system is arranged for receiving a demand value for controlling the sub-system; wherein the control system is characterized by being arranged so that the first controller and the second controller receives the demand value concurrently; wherein the second controller determines a difference value between the demand value as received by the second controller and the demand value received via the first controller to the second controller; wherein the first controller based on the demand value determines an internal operational value; and wherein the second controller receives the internal operational value and sets the operational value as the sum of the internal operational value and the difference value. a first controller arranged for determining an operational value of a sub-system of the control system, the first controller being arranged to operate at a first sample frequency; and a second controller for operating the sub-system, the second controller unit being arranged to operate at a second sample frequency, the second sample frequency being higher than the first sample frequency; wherein the control system is arranged for receiving a demand value for controlling the sub-system; wherein the control system is characterized by being arranged so that the first controller and the second controller receives the demand value concurrently; wherein the second controller determines a difference value between the demand value as received by the second controller and the demand value received via the first controller to the second controller; wherein the first controller based on the demand value determines an internal operational value; and wherein the second controller receives the internal operational value and sets the operational value as the sum of the internal operational value and the difference value.
A wristlet clasp comprising first and second blades hinged relative to each other, by a first of their respective ends, between a closed wearing position and at least one open position, said first blade carrying a member for fastening a first wristlet strand, said second lower blade being connected to a loop at its second end, the loop defining a passage for a second wristlet strand and carrying a stud intended to be inserted into an adapted hole in the wristlet strand to define a point for anchoring the latter to the clasp , the clasp further including at least one locking member for holding said first and second blades in their closed position, characterised in that it comprises a carriage connected to the second end of the second blade , said carriage being arranged to slide in the loop and able to switch from a first indexed position to a second indexed position to define at least two predefined positions associated with a predefined useful length of the wristlet.