mhurhangee/patent-ind-claim-en huggingface dataset:
A method for adaptive packet filtering, the method comprising: identifying, from rules in an ordered set of firewall packet filtering rules that defines a firewall policy, disjoint rule groups containing disjoint rules, where disjoint rules are defined as rules whose order can be changed without changing an integrity of the firewall policy, and wherein each disjoint rule group contains rules that are disjoint from all other rules in the disjoint rule group and wherein each of the rules in the ordered set is classified into a disjoint rule group; sorting the rules within the disjoint rule groups to statistically decrease a number of comparisons that will be applied to each packet that a firewall encounters, including consolidating disjoint rule groups having less than a threshold number of rules to form dependent rule groups and refraining from sorting the rules in the dependent rule groups; and filtering packets at the firewall using the sorted rules in the disjoint rule groups by comparing each packet to each of the sorted rules in the disjoint rule groups until the packet is allowed or denied and ceasing the comparing for the packet in response to the packet being allowed or denied, wherein filtering the packets includes filtering the packets using the disjoint rule groups and the dependent rule groups, and wherein the disjoint rule groups are searched by using sub-linear searching algorithms and the dependent rule groups are searched by using linear searching algorithms. identifying, from rules in an ordered set of firewall packet filtering rules that defines a firewall policy, disjoint rule groups containing disjoint rules, where disjoint rules are defined as rules whose order can be changed without changing an integrity of the firewall policy, and wherein each disjoint rule group contains rules that are disjoint from all other rules in the disjoint rule group and wherein each of the rules in the ordered set is classified into a disjoint rule group; sorting the rules within the disjoint rule groups to statistically decrease a number of comparisons that will be applied to each packet that a firewall encounters, including consolidating disjoint rule groups having less than a threshold number of rules to form dependent rule groups and refraining from sorting the rules in the dependent rule groups; and filtering packets at the firewall using the sorted rules in the disjoint rule groups by comparing each packet to each of the sorted rules in the disjoint rule groups until the packet is allowed or denied and ceasing the comparing for the packet in response to the packet being allowed or denied, wherein filtering the packets includes filtering the packets using the disjoint rule groups and the dependent rule groups, and wherein the disjoint rule groups are searched by using sub-linear searching algorithms and the dependent rule groups are searched by using linear searching algorithms.
A terminal locator for holding a terminal in a crimping zone of a terminal crimping device , the terminal locator comprising: a housing configured to be positioned forward of crimp tooling defining the crimping zone; a spacer held by the housing, the spacer having a spacer blocking surface configured to locate the terminal and block axial rearward movement of the terminal; and a latch held by the housing, the latch having a latch blocking surface configured to locate the terminal and block axial forward movement of the terminal, characterized in that the housing has a terminal cavity extending along a terminal axis and configured to receive the terminal such that a crimp barrel of the terminal extends rearward of the housing along the terminal axis into the crimping zone for crimping to a wire ; and the latch is deflectable to allow insertion and removal of the terminal from the terminal cavity . a housing configured to be positioned forward of crimp tooling defining the crimping zone; a spacer held by the housing, the spacer having a spacer blocking surface configured to locate the terminal and block axial rearward movement of the terminal; and a latch held by the housing, the latch having a latch blocking surface configured to locate the terminal and block axial forward movement of the terminal, characterized in that the housing has a terminal cavity extending along a terminal axis and configured to receive the terminal such that a crimp barrel of the terminal extends rearward of the housing along the terminal axis into the crimping zone for crimping to a wire ; and the latch is deflectable to allow insertion and removal of the terminal from the terminal cavity .
An aerosol delivery device comprising: a housing ; a microelectromechanical systems-based (MEMS-based) sensor within the housing and configured to detect a pressure on the MEMS-based sensor caused by airflow through at least a portion of the housing, the MEMS-based sensor being configured to convert the pressure to an electrical signal, and output the electrical signal; and a microprocessor configured to receive the electrical signal from the MEMS-based sensor , and control operation of at least one functional element of the aerosol delivery device based thereon, wherein the MEMS-based sensor is a MEMS microphone including a die with a micromachined, pressure-sensitive diaphragm and a backplate that form a variable capacitor , the MEMS-based sensor packaged in an integrated circuit package excluding audio-grade filtering and amplification stages, and wherein in an instance in which an input voltage is applied to the variable capacitor, the pressure causes movement of the diaphragm and thereby a change in a capacitance of the variable capacitor , the change in capacitance causing a change in an output voltage across the variable capacitor , the output voltage or a digital representation thereof being output by the MEMS microphone as the electrical signal. a housing ; a microelectromechanical systems-based (MEMS-based) sensor within the housing and configured to detect a pressure on the MEMS-based sensor caused by airflow through at least a portion of the housing, the MEMS-based sensor being configured to convert the pressure to an electrical signal, and output the electrical signal; and a microprocessor configured to receive the electrical signal from the MEMS-based sensor , and control operation of at least one functional element of the aerosol delivery device based thereon, wherein the MEMS-based sensor is a MEMS microphone including a die with a micromachined, pressure-sensitive diaphragm and a backplate that form a variable capacitor , the MEMS-based sensor packaged in an integrated circuit package excluding audio-grade filtering and amplification stages, and wherein in an instance in which an input voltage is applied to the variable capacitor, the pressure causes movement of the diaphragm and thereby a change in a capacitance of the variable capacitor , the change in capacitance causing a change in an output voltage across the variable capacitor , the output voltage or a digital representation thereof being output by the MEMS microphone as the electrical signal.
An image processing method comprising the step of: obtaining gradation data for expressing a predetermined gradation value on a print medium by printing a first dot pattern and a second dot pattern on the print medium (P) in an overlapping manner; and generating data for printing the first dot pattern and data that causes a print head (H) to print the second dot pattern based on the gradation data corresponding to the predetermined gradation value, characterized in that the first dot pattern and the second dot pattern are each a lattice pattern in which a position of any dot to a position of a dot other than the any dot is specified by two basis vectors (a1,b1,a2,b2) and are lattice patterns that vary in a combination of the two basis vectors, a combined dot pattern formed by superimposing any dot included in the first dot pattern and any dot included in the second dot pattern one on top of the other includes a superimposed dot that is formed by superimposing of one dot included in the first dot pattern and one dot included in the second dot pattern and a neighboring dot in which one dot included in the first dot pattern and one dot included in the second dot pattern are arranged at an interval smaller than a lattice spacing defined by the basis vectors (a1,b1,a2,b2), and the neighboring dot includes a plurality of neighboring dots varying in tilt of a straight line connecting a center of the one dot in the first dot pattern and a center of the one dot in the second dot pattern forming the neighboring dot . obtaining gradation data for expressing a predetermined gradation value on a print medium by printing a first dot pattern and a second dot pattern on the print medium (P) in an overlapping manner; and generating data for printing the first dot pattern and data that causes a print head (H) to print the second dot pattern based on the gradation data corresponding to the predetermined gradation value, characterized in that the first dot pattern and the second dot pattern are each a lattice pattern in which a position of any dot to a position of a dot other than the any dot is specified by two basis vectors (a1,b1,a2,b2) and are lattice patterns that vary in a combination of the two basis vectors, a combined dot pattern formed by superimposing any dot included in the first dot pattern and any dot included in the second dot pattern one on top of the other includes a superimposed dot that is formed by superimposing of one dot included in the first dot pattern and one dot included in the second dot pattern and a neighboring dot in which one dot included in the first dot pattern and one dot included in the second dot pattern are arranged at an interval smaller than a lattice spacing defined by the basis vectors (a1,b1,a2,b2), and the neighboring dot includes a plurality of neighboring dots varying in tilt of a straight line connecting a center of the one dot in the first dot pattern and a center of the one dot in the second dot pattern forming the neighboring dot .
A balloon catheter comprising: a balloon ; and an outer shaft fixed to a proximal end of the balloon , characterised in that : each of the proximal end of the balloon and a distal end of the outer shaft has an inner projection extending in an axis direction, an outer projection extending in the axis direction, and a gap formed between the inner projection and the outer projection ; and i) the inner projection of the balloon is disposed in the gap of the outer shaft and the outer projection of the outer shaft is disposed in the gap of the balloon , or ii) the outer projection of the balloon is disposed in the gap of the outer shaft and the inner projection of the outer shaft is disposed in the gap of the balloon . a balloon ; and an outer shaft fixed to a proximal end of the balloon , characterised in that : each of the proximal end of the balloon and a distal end of the outer shaft has an inner projection extending in an axis direction, an outer projection extending in the axis direction, and a gap formed between the inner projection and the outer projection ; and i) the inner projection of the balloon is disposed in the gap of the outer shaft and the outer projection of the outer shaft is disposed in the gap of the balloon , or ii) the outer projection of the balloon is disposed in the gap of the outer shaft and the inner projection of the outer shaft is disposed in the gap of the balloon . i) the inner projection of the balloon is disposed in the gap of the outer shaft and the outer projection of the outer shaft is disposed in the gap of the balloon , or ii) the outer projection of the balloon is disposed in the gap of the outer shaft and the inner projection of the outer shaft is disposed in the gap of the balloon .
An electronic apparatus comprising: a microphone configured to receive an audio signal; a fingerprint sensor configured to detect a fingerprint; and a processor configured to: detect (S2902) frictional sound from the audio signal; determine (S2904) a frictional property by analyzing a characteristic of the detected frictional sound; and execute (S2914) a control command corresponding to a combination of the detected fingerprint and the frictional property if it is determined that the frictional sound input and the fingerprint input are received within a reference time range. a microphone configured to receive an audio signal; a fingerprint sensor configured to detect a fingerprint; and a processor configured to: detect (S2902) frictional sound from the audio signal; determine (S2904) a frictional property by analyzing a characteristic of the detected frictional sound; and execute (S2914) a control command corresponding to a combination of the detected fingerprint and the frictional property if it is determined that the frictional sound input and the fingerprint input are received within a reference time range. detect (S2902) frictional sound from the audio signal; determine (S2904) a frictional property by analyzing a characteristic of the detected frictional sound; and execute (S2914) a control command corresponding to a combination of the detected fingerprint and the frictional property if it is determined that the frictional sound input and the fingerprint input are received within a reference time range.
A polishing composition comprising: abrasives; at least one water-soluble polymer selected from vinyl alcohol-based resins having a 1,2-diol structural unit expressed by General Formula provided below; an alkali compound; water; and further a non-ionic surfactant, where an average particle size of the dispersed particles of abrasives to which the water-soluble polymer adheres in the polishing composition measured by dynamic light scattering is not more than 55 nm, wherein the non-ionic surfactant is a diamine compound, wherein in the formula, each of "R 1 ", "R 2 " and "R 3 " independently indicates a hydrogen atom or an organic group; "X" indicates a single bond or a joining chain; each of "R 4 ", "R 5 " and "R 6 " independently indicates a hydrogen atom or an organic group; and each of "R 7 " and "R 8 " independently indicates a hydrogen atom. abrasives; at least one water-soluble polymer selected from vinyl alcohol-based resins having a 1,2-diol structural unit expressed by General Formula provided below; an alkali compound; water; and further a non-ionic surfactant, where an average particle size of the dispersed particles of abrasives to which the water-soluble polymer adheres in the polishing composition measured by dynamic light scattering is not more than 55 nm, wherein the non-ionic surfactant is a diamine compound, wherein in the formula, each of "R 1 ", "R 2 " and "R 3 " independently indicates a hydrogen atom or an organic group; "X" indicates a single bond or a joining chain; each of "R 4 ", "R 5 " and "R 6 " independently indicates a hydrogen atom or an organic group; and each of "R 7 " and "R 8 " independently indicates a hydrogen atom.
An insect screen cleaning device for insect screens clamped in frames, characterized by a first conveying device suitable for passing insect screens requiring cleaning to a cleaning unit , wherein the cleaning unit is equipped with nozzles for supplying and spreading cleaning liquid onto the insect screens requiring cleaning, and the cleaning unit is equipped with a roller arrangement consisting of at least two roller pairs rotatably mounted one behind the other and oppositely operating in which at least one roller pair with rotatable cleaning rollers arrangeable on both sides of the insect screen is movable into contact with the fabric of the insect screen ; wherein the cleaning rollers of the roller pair are oppositely operating relative to the insect screen with which they are movable into contact, whereby a displacement of threads in the insect screen is avoided; wherein the conveying device comprises spring-mounted rubber/polyurethane-coated rollers which are connected to one another using chains or toothed belts and are driven by an electric motor; wherein the required pressing force for drawing along the insect screen is generated by the spring-loaded rubber/polyurethane-coated rollers; wherein the spring-loaded rubber/polyurethane-coated rollers are adjustable to differing frame thicknesses of the insect screens clamped in frames and receive mounting elements of the frames.
Automatic winding mechanism for a mechanical wristwatch, comprising - A centrifugal mass , which is mounted by means of a first radial bearing , the rotor bearing, such as to pivot and/or rotate about a first axis (R 1 ), wherein the centrifugal mass is connected to a rotor bearing inner ring of the rotor bearing and can be moved relative to the rotor bearing outer ring of the rotor bearing , - a drive pawl , of which the first end is rotatably mounted eccentrically at the rotor bearing inner ring of the rotor bearing by means of a second radial bearing , the pawl bearing, such as to rotate about a second axis (R 2 ), and - a pawl wheel , which is mounted such as to rotate about a third axis (R 3 ) in order to wind a drive spring of the movement of the mechanical wristwatch, by means of a second end of the drive pawl engaging in the pawl wheel , characterized in that the pawl bearing is configured as a rolling bearing, located eccentrically in the rotor bearing inner ring of the rotor bearing , with a pawl bearing inner ring and a pawl bearing outer ring , as well as roller bodies rolling between them. - A centrifugal mass , which is mounted by means of a first radial bearing , the rotor bearing, such as to pivot and/or rotate about a first axis (R 1 ), wherein the centrifugal mass is connected to a rotor bearing inner ring of the rotor bearing and can be moved relative to the rotor bearing outer ring of the rotor bearing , - a drive pawl , of which the first end is rotatably mounted eccentrically at the rotor bearing inner ring of the rotor bearing by means of a second radial bearing , the pawl bearing, such as to rotate about a second axis (R 2 ), and - a pawl wheel , which is mounted such as to rotate about a third axis (R 3 ) in order to wind a drive spring of the movement of the mechanical wristwatch, by means of a second end of the drive pawl engaging in the pawl wheel ,
An upholstery comprising: a cushion ; and a dress cover ; wherein the dress cover encloses at least a portion of the cushion ; wherein the dress cover comprises a first yarn and a second yarn; wherein the first yarn and the second yarn are woven together; wherein the first yarn is in warp; wherein the second yarn is in weft; wherein the dress cover compresses the cushion when there is no voltage applied across the first yarn and the second yarn; wherein the first yarn and the second yarn are each configured to change in length upon receiving a voltage differential; wherein the change in length of the first yarn and the second yarn causes the dress cover to bulge; wherein the bulge of the dress cover allows the cushion to expand thereby changing a stiffness of the cushion ; wherein the first yarn and the second yarn are each configured to return to an original length when the voltage differential is removed. a cushion ; and a dress cover ; wherein the dress cover encloses at least a portion of the cushion ; wherein the dress cover comprises a first yarn and a second yarn; wherein the first yarn and the second yarn are woven together; wherein the first yarn is in warp; wherein the second yarn is in weft; wherein the dress cover compresses the cushion when there is no voltage applied across the first yarn and the second yarn; wherein the first yarn and the second yarn are each configured to change in length upon receiving a voltage differential; wherein the change in length of the first yarn and the second yarn causes the dress cover to bulge; wherein the bulge of the dress cover allows the cushion to expand thereby changing a stiffness of the cushion ; wherein the first yarn and the second yarn are each configured to return to an original length when the voltage differential is removed.
A network-connected device for managing compliance with a skin care regimen, the network-connected device comprising: a cap having a top portion and a side wall that can be securely attached to a neck of a container that houses a skin care product, the cap including: a power supply; an electronic display ; a processor ; a memory that includes instructions for monitoring whether an individual has applied the skin care product in compliance with the skin care regimen; a motion sensor configured to detect movement of the cap and generate motion sensor data regarding dispensing of the skin care product from the container; and the device further comprising a lid sensor comprising: an optical sensor oriented toward an opening of the neck of the container and configured to detect whether the cap is securely attached to the neck of the container; or a pressure sensor upon which pressure is exerted when the cap is attached to the neck of the container and configured to detect whether the cap is securely attached to the neck of the container. a power supply; an electronic display ; a processor ; a memory that includes instructions for monitoring whether an individual has applied the skin care product in compliance with the skin care regimen; a motion sensor configured to detect movement of the cap and generate motion sensor data regarding dispensing of the skin care product from the container; and the device further comprising a lid sensor comprising: an optical sensor oriented toward an opening of the neck of the container and configured to detect whether the cap is securely attached to the neck of the container; or a pressure sensor upon which pressure is exerted when the cap is attached to the neck of the container and configured to detect whether the cap is securely attached to the neck of the container. an optical sensor oriented toward an opening of the neck of the container and configured to detect whether the cap is securely attached to the neck of the container; or a pressure sensor upon which pressure is exerted when the cap is attached to the neck of the container and configured to detect whether the cap is securely attached to the neck of the container.
A local station comprising: a radio transmitter operable to transmit, in a radio coverage area of the local station, an enduring status signal authorizing an autonomous vehicle to move while it receives the signal; and an emergency stop switch for interrupting the status signal, characterized by a communication element for communicating with one or more similarly equipped further local stations, to which it is linked by a communication network , and configured to instruct, in response to an activation of the local station's emergency stop switch, at least one of the further local stations to interrupt the status signal; and to execute an instruction received from one of the further local stations to interrupt the status signal. a radio transmitter operable to transmit, in a radio coverage area of the local station, an enduring status signal authorizing an autonomous vehicle to move while it receives the signal; and an emergency stop switch for interrupting the status signal, characterized by a communication element for communicating with one or more similarly equipped further local stations, to which it is linked by a communication network , and configured to instruct, in response to an activation of the local station's emergency stop switch, at least one of the further local stations to interrupt the status signal; and to execute an instruction received from one of the further local stations to interrupt the status signal.