mhurhangee/ep-ind-claims huggingface dataset:
A computer implemented method of identifying an egress port (Po) of a focus device connected in a computer network, the method being implemented at a monitor computer connected to the network and comprising: generating a query message to the focus device, the query message including an address identifying the device and a query key formulated based on a destination identifier, and including an instruction readable at the device to return a result message including identification of an egress port (Po) for messages addressed to the destination identified in the destination identifier when the query message is received at the device; receiving a result message at the monitor computer; reading the result message, and where the result message does not identify an egress port (Po) autonomously generating at least one subsequent query message; including at least one of (i) a different address for a different device connected in the computer network, and (ii) a different query key, selected by the monitor computer, wherein sufficient query messages are generated to identify the egress port (Po)of the focus device. generating a query message to the focus device, the query message including an address identifying the device and a query key formulated based on a destination identifier, and including an instruction readable at the device to return a result message including identification of an egress port (Po) for messages addressed to the destination identified in the destination identifier when the query message is received at the device; receiving a result message at the monitor computer; reading the result message, and where the result message does not identify an egress port (Po) autonomously generating at least one subsequent query message; including at least one of (i) a different address for a different device connected in the computer network, and (ii) a different query key, selected by the monitor computer, wherein sufficient query messages are generated to identify the egress port (Po)of the focus device.
A system, comprising: a processor-implemented video frame selector module configured to determine a video frame to process that is comprised in video frames including a first and second video frame received from a mobile device, the processor-implemented video frame selector module comprising a video frame analyzer module configured to determine a difference between the first video frame and the second video frame, and a video frame tag module configured to tag the first or second video frame as the determined video frame for item identification when the difference exceeds a predetermined amount; a processor-implemented item identification module configured to identify an item in the determined video frame and to tag the determined video frame with an identification of the item; and a processor-implemented market module configured to generate offers of the identified item from at least one merchant to the mobile device. a processor-implemented video frame selector module configured to determine a video frame to process that is comprised in video frames including a first and second video frame received from a mobile device, the processor-implemented video frame selector module comprising a video frame analyzer module configured to determine a difference between the first video frame and the second video frame, and a video frame tag module configured to tag the first or second video frame as the determined video frame for item identification when the difference exceeds a predetermined amount; a processor-implemented item identification module configured to identify an item in the determined video frame and to tag the determined video frame with an identification of the item; and a processor-implemented market module configured to generate offers of the identified item from at least one merchant to the mobile device.
A construction machine having an undercarriage, at least one functional component, a chassis on which a cab for at least one driver's position is arranged, and having monitoring cameras (7, 8, 9) which are mounted on the machine and are connected to at least one monitor which is arranged in the cab, in order to permit the visual monitoring of operations to the side or rear of the machine, at least three monitoring cameras (7, 8, 9) are provided which each have wide-angle lenses, and the camera ranges of which produce image fields (17, 18, 19) for monitoring the outdoor areas around the construction machine, and which are determined in terms of their mounting position and their photographing direction such that a first monitoring camera is a rear-mounted camera for monitoring the rear side of the machine, the camera range of which monitoring camera has a photographing direction inclined with respect to the installation plane of the machine, a second monitoring camera is a side camera for monitoring the left-hand side of the machine, and a third monitoring camera is for monitoring the right-hand side of the machine, the mounting position of which is located on an upper left-hand corner region or right-hand corner region of the front side of the machine, characterized in that the camera ranges of the second and the third monitoring camera each have a photographing direction in an angular range ± 5° with respect to the vertical of the installation plane of the machine, and the second monitoring camera and the third monitoring camera are mounted at different height levels with respect to the installation plane of the construction machine, whereby their image fields (18, 19) are different with respect to their spatial extension, and the image fields (17, 18, 19) of the at least three monitoring cameras (7, 8, 9) can be composed of partial image fields by means of image processing to generate an overall picture, the overall picture comprising intersections of respectively two image fields (18, 19; 17, 18; 17, 19) which are limited by border lines.
A method in a first network node, the method comprising: sending a context setup request message to a second network node, the context setup request message not comprising a wireless device, WD, aggregate maximum bit rate, AMBR, value associated with a WD; determining that the first network node has not previously provided the WD AMBR value to the second network node in the context setup request message; sending a resource setup request message to the second network node, the resource setup request message comprising the WD AMBR value associated with the WD. sending a context setup request message to a second network node, the context setup request message not comprising a wireless device, WD, aggregate maximum bit rate, AMBR, value associated with a WD; determining that the first network node has not previously provided the WD AMBR value to the second network node in the context setup request message; sending a resource setup request message to the second network node, the resource setup request message comprising the WD AMBR value associated with the WD.
A transport assembly (10, 10', 10") comprising: an upper part (12, 12', 12") that comprises a plurality of sleeves (16, 16"), each sleeve (16, 16") extending along a sleeve axis between a top opening and a bottom opening (20, 20"), wherein the plurality of sleeves (16, 16") are arranged with their respective axes in parallel to one another; and a lower part (14, 14', 14") that comprises a plate with a plurality of apertures (24, 24") that each extend through the plate, wherein the upper part (12, 12', 12") and the lower part (14, 14', 14") can be coupled such that each bottom opening (20, 20") is arranged adjacent to one of the plurality of apertures (24, 24"), and the upper part (12, 12', 12") and the lower part (14, 14', 14") can be moved relative to one another between a closed configuration in which a perimeter of each bottom opening (20, 20") intersects a perimeter of a corresponding aperture (24, 24") at two or more points and an open configuration in which the perimeter of each bottom opening (20, 20") is aligned with or is enclosed by the perimeter of a corresponding aperture (24, 24"). an upper part (12, 12', 12") that comprises a plurality of sleeves (16, 16"), each sleeve (16, 16") extending along a sleeve axis between a top opening and a bottom opening (20, 20"), wherein the plurality of sleeves (16, 16") are arranged with their respective axes in parallel to one another; and a lower part (14, 14', 14") that comprises a plate with a plurality of apertures (24, 24") that each extend through the plate, wherein the upper part (12, 12', 12") and the lower part (14, 14', 14") can be coupled such that each bottom opening (20, 20") is arranged adjacent to one of the plurality of apertures (24, 24"), and the upper part (12, 12', 12") and the lower part (14, 14', 14") can be moved relative to one another between a closed configuration in which a perimeter of each bottom opening (20, 20") intersects a perimeter of a corresponding aperture (24, 24") at two or more points and an open configuration in which the perimeter of each bottom opening (20, 20") is aligned with or is enclosed by the perimeter of a corresponding aperture (24, 24"). a closed configuration in which a perimeter of each bottom opening (20, 20") intersects a perimeter of a corresponding aperture (24, 24") at two or more points and an open configuration in which the perimeter of each bottom opening (20, 20") is aligned with or is enclosed by the perimeter of a corresponding aperture (24, 24").
Glazed wall comprising at least two glazing units arranged edge to edge and in which the distance separating them is filled by a seal adhering to the two edges of the adjacent glazing units, this seal being at least translucent and having a transmission of the luminous flux which is not less than 20%, these fire-resistant glazing units each comprising two glass sheets (7, 8) between which there is situated an intumescent material based on hydrated alkali metal silicate, the two glass sheets being joined at their periphery by a set of spacer elements (10, 17, 18) against which, on the face opposite to that in contact with the silicate composition, there is applied a seal which reinforces the fastening of the glass sheets (1, 2), said spacer elements delimiting, between these two sheets, a space into which a liquid composition of the alkali metal silicate is poured so as to fill the space, the composition being chosen to form a solid gel, this solidification optionally being accelerated by an increase in temperature or exposure to UV or IR rays, the elements delimiting this space being impervious to the liquid silicate composition, these elements comprising, at least on the edges of the contiguous glazing units, rigid or semi-rigid spacer elements (10, 17, 18) formed of a material which is essentially transparent to visible light having a direct and scattered light transmission which is at least 50% of the incident flux.
A sleeve device for a headrest comprising a sleeve body to be inserted into an opening in a frame of a vehicle seat, the sleeve body comprising an inner axial passage to accommodate a rod of the headrest, the inner axial passage including an inner wall, a top end portion and a bottom end portion; a head portion; an external side; and an upper external seat portion at the external side of the sleeve body and an upper external bushing retained at said upper external seat portion, characterized in that the upper external bushing is overmoulded to the upper external seat portion. a sleeve body to be inserted into an opening in a frame of a vehicle seat, the sleeve body comprising an inner axial passage to accommodate a rod of the headrest, the inner axial passage including an inner wall, a top end portion and a bottom end portion; a head portion; an external side;
An electric power steering apparatus comprising: a motor for applying assist torque to a steering mechanism of a vehicle; and a controller, which controls driving of the motor to cause the assist torque to follow an assist command value (Iq*), wherein the controller calculates a basic assist command value (Ias*) based on steering torque (Th) applied to the steering mechanism and corrects the basic assist command value (Ias*) using a correction value (ΔI*), thereby setting the assist command value (Ias*), and if the steering torque (Th) has an absolute value greater than a threshold value when the vehicle is in a straight-line traveling state, the controller sets the correction value (ΔI*) such that the absolute value of the steering torque (Th) is reduced, characterized in that if the steering torque (Th) has an absolute value less than the threshold value when the vehicle is in a straight-line traveling state, the controller sets the correction value (ΔI*) such that the absolute value of the assist command value (Iq*) is reduced. a motor for applying assist torque to a steering mechanism of a vehicle; and a controller, which controls driving of the motor to cause the assist torque to follow an assist command value (Iq*), wherein the controller calculates a basic assist command value (Ias*) based on steering torque (Th) applied to the steering mechanism and corrects the basic assist command value (Ias*) using a correction value (ΔI*), thereby setting the assist command value (Ias*), and if the steering torque (Th) has an absolute value greater than a threshold value when the vehicle is in a straight-line traveling state, the controller sets the correction value (ΔI*) such that the absolute value of the steering torque (Th) is reduced, characterized in that if the steering torque (Th) has an absolute value less than the threshold value when the vehicle is in a straight-line traveling state, the controller sets the correction value (ΔI*) such that the absolute value of the assist command value (Iq*) is reduced.
A fluid handler for transferring a sample comprising: a pipettor configured to automatically aspirate samples from first and second containers; a first disposable pipette tip configured for use with the pipettor to aspirate sample from first container and a second disposable pipette tip configured for use with the pipettor to aspirate sample from second container, characterised in a tip isolation container holder for holding a plurality of pipette tips; and a removable tip isolation container interfacing with the tip isolation container holder and adapted to store the first disposable pipette tip in isolation from the second disposable pipette tip, the first disposable pipette tip stored by the removable tip isolation container, wherein the removable tip isolation container is configured to isolate the end of the first disposable pipette tip from the end of the second disposable pipette tip. a pipettor configured to automatically aspirate samples from first and second containers; a first disposable pipette tip configured for use with the pipettor to aspirate sample from first container and a second disposable pipette tip configured for use with the pipettor to aspirate sample from second container, characterised in a tip isolation container holder for holding a plurality of pipette tips; and a removable tip isolation container interfacing with the tip isolation container holder and adapted to store the first disposable pipette tip in isolation from the second disposable pipette tip, the first disposable pipette tip stored by the removable tip isolation container, wherein the removable tip isolation container is configured to isolate the end of the first disposable pipette tip from the end of the second disposable pipette tip.
A bicycle generator device, comprising: a housing configured to be supported by a frame of a bicycle; a generator attached to the housing; an annular rotational input member for rotationally driving the generator, the rotational input member being rotatably mounted on the housing to be positioned around a crank axis line which is a rotational center line of a crankshaft and a crank arm for a pedal of the bicycle; and a connecting member configured to connect the rotational input member to the crankshaft or the crank arm in a torque transmitting relationship; characterized in that the connecting member is configured to coaxially connect the rotational input member to an axial end of the crankshaft. a housing configured to be supported by a frame of a bicycle; a generator attached to the housing; an annular rotational input member for rotationally driving the generator, the rotational input member being rotatably mounted on the housing to be positioned around a crank axis line which is a rotational center line of a crankshaft and a crank arm for a pedal of the bicycle; and a connecting member configured to connect the rotational input member to the crankshaft or the crank arm in a torque transmitting relationship; characterized in that the connecting member is configured to coaxially connect the rotational input member to an axial end of the crankshaft.
A breath analyzer, comprising: an input that receives a breath sample; a first sensor that contacts the breath sample, wherein the first sensor comprises polyaniline and a conductive material, wherein the polyaniline contacts the conductive material, wherein the polyaniline is doped with a first dopant that increases pH sensitivity of the polyaniline, and wherein the polyaniline has a resistivity that increases in response to increased concentration of ammonia; a second sensor that contacts the breath sample, wherein the second sensor comprises polypyrrole and a conductive material, wherein the polypyrrole contacts the conductive material, wherein the polypyrrole is doped with a second dopant that increases pH sensitivity of the polypyrrole, and wherein the polypyrrole has a resistivity that increases in response to increased concentration of carbon dioxide; a processor; and an electrical circuit, wherein the electrical circuit operably connects the first and second sensors to the processor, wherein the processor detects resistivity in the electrical circuit and uses the resistivity to calculate a total concentration of ammonia and a total concentration of carbon dioxide in the breath sample. an input that receives a breath sample; a first sensor that contacts the breath sample, wherein the first sensor comprises polyaniline and a conductive material, wherein the polyaniline contacts the conductive material, wherein the polyaniline is doped with a first dopant that increases pH sensitivity of the polyaniline, and wherein the polyaniline has a resistivity that increases in response to increased concentration of ammonia; a second sensor that contacts the breath sample, wherein the second sensor comprises polypyrrole and a conductive material, wherein the polypyrrole contacts the conductive material, wherein the polypyrrole is doped with a second dopant that increases pH sensitivity of the polypyrrole, and wherein the polypyrrole has a resistivity that increases in response to increased concentration of carbon dioxide; a processor; and an electrical circuit, wherein the electrical circuit operably connects the first and second sensors to the processor, wherein the processor detects resistivity in the electrical circuit and uses the resistivity to calculate a total concentration of ammonia and a total concentration of carbon dioxide in the breath sample.
A work machine comprising: a work apparatus that performs predetermined work, using an engine as a motive power source; an engine stop section that stops the engine on the basis of a predetermined engine stop condition; a setting section that sets information to be used when the predetermined work is performed using the engine as the motive power source, and is capable of setting a work mode in the work apparatus; a determination section that determines whether or not a setting state in which the work mode is set by the setting section is kept; and characterized by an engine stop inhibition section that inhibits the engine from being stopped by the engine stop section even when the predetermined engine stop condition is established, in a case where the information is being set by the setting section. a work apparatus that performs predetermined work, using an engine as a motive power source; an engine stop section that stops the engine on the basis of a predetermined engine stop condition; a setting section that sets information to be used when the predetermined work is performed using the engine as the motive power source, and is capable of setting a work mode in the work apparatus; a determination section that determines whether or not a setting state in which the work mode is set by the setting section is kept; and characterized by an engine stop inhibition section that inhibits the engine from being stopped by the engine stop section even when the predetermined engine stop condition is established, in a case where the information is being set by the setting section.
A surface-coated tool (101,201), comprising: a substrate (100, 200); and a coating film formed on said substrate, said coating film including an alternate layer (112a, 112b) in which one or more A layers and one or more B layers are alternately stacked, said A layer and said B layer each having a thickness not smaller than 2 nm and not greater than 100 nm, an average composition of said A layer being expressed as Ti a Al b Si c N wherein 0.5<a<0.8, 0.2<b<0.4, 0.01<c<0.1, a+b+c=1, an average composition of said B layer being expressed as Ti d Al e Si f N wherein 0.4<d<0.6, 0.3<e<0.7, 0.01 <f<0.1, d+e+f=1, and a condition of 0.05<a-d≤0.2 and 0.05<e-b≤0.2 being satisfied. a substrate (100, 200); and a coating film formed on said substrate, said coating film including an alternate layer (112a, 112b) in which one or more A layers and one or more B layers are alternately stacked, said A layer and said B layer each having a thickness not smaller than 2 nm and not greater than 100 nm, an average composition of said A layer being expressed as Ti a Al b Si c N wherein 0.5<a<0.8, 0.2<b<0.4, 0.01<c<0.1, a+b+c=1, an average composition of said B layer being expressed as Ti d Al e Si f N wherein 0.4<d<0.6, 0.3<e<0.7, 0.01 <f<0.1, d+e+f=1, and a condition of 0.05<a-d≤0.2 and 0.05<e-b≤0.2 being satisfied.