mhurhangee/ep-ind-claims huggingface dataset:
A thickness detecting sensor, comprising a pair of electrodes (30, 40; 30a, 40a) arranged so as to be opposed to each other, a plunger for changing a gap between the electrodes (30, 40) by coming in contact with a medium, and a converting circuit for converting an electrostatic capacity stored between the electrodes (30, 40; 30a, 40a) into an electric signal, wherein the thickness detecting sensor is constructed such that the gap between said electrodes (30, 40; 30a, 40a) is enlarged by a displacement of the plunger corresponding to an increase in the thickness of the medium, characterized in that one electrode of said pair of electrodes, which is a fixing electrode, is made by a printed board.
A method comprising: receiving, by an athletic activity performance monitoring device, user input corresponding to a selection of a plurality of metrics for recording during an athletic activity session of a user; recording, by the athletic activity performance monitoring device, the plurality of metrics for the athletic activity session, wherein recording the plurality of metrics includes storing multiple values for each of the plurality of metrics in accordance with a time at which each of the multiple values was detected; and generating, by the athletic activity performance monitoring device, a graphical user interface comprising a display of the plurality of metrics including the multiple values against a timeline corresponding to a duration of the athletic activity performed by the user; receiving, via the graphical user interface, user input to select or deselect metrics of the plurality of metrics to be compiled and stored into a single file corresponding to the athletic activity session; and receiving, via the graphical user interface, user input to define a placement within a display area of one or more selected metrics to be compiled into the single file corresponding to the athletic activity session. receiving, by an athletic activity performance monitoring device, user input corresponding to a selection of a plurality of metrics for recording during an athletic activity session of a user; recording, by the athletic activity performance monitoring device, the plurality of metrics for the athletic activity session, wherein recording the plurality of metrics includes storing multiple values for each of the plurality of metrics in accordance with a time at which each of the multiple values was detected; and generating, by the athletic activity performance monitoring device, a graphical user interface comprising a display of the plurality of metrics including the multiple values against a timeline corresponding to a duration of the athletic activity performed by the user; receiving, via the graphical user interface, user input to select or deselect metrics of the plurality of metrics to be compiled and stored into a single file corresponding to the athletic activity session; and receiving, via the graphical user interface, user input to define a placement within a display area of one or more selected metrics to be compiled into the single file corresponding to the athletic activity session.
Electrolyte for magnesium batteries generated in situ by reaction of bis(hexamethyldisilazide)magnesium with AlCl 3 in a molar ratio of from 1.3:1 to 1:3 in the presence of an organic ether solvent.
A mold-making device comprising: a stirring device comprising a stirring tank and stirring blades, wherein the stirring device has a packing port that can open/close on a bottom of the stirring tank, and the stirring device stirs a particulate aggregate and an additive(s) by rotating the stirring blades within the stirring tank to yield an admixture; a forming mold that communicates with the packing port of the stirring tank and molds the admixture into a predetermined shape; and a packing device that compresses a surface of the admixture within the stirring tank and packs the admixture into the forming mold via the packing port, characterized in that scrapers for smoothing out the surface of the admixture are provided on a bottom of the stirring blades. a stirring device comprising a stirring tank and stirring blades, wherein the stirring device has a packing port that can open/close on a bottom of the stirring tank, and the stirring device stirs a particulate aggregate and an additive(s) by rotating the stirring blades within the stirring tank to yield an admixture; a forming mold that communicates with the packing port of the stirring tank and molds the admixture into a predetermined shape; and a packing device that compresses a surface of the admixture within the stirring tank and packs the admixture into the forming mold via the packing port, characterized in that scrapers for smoothing out the surface of the admixture are provided on a bottom of the stirring blades.
A tourniquet device comprising: a strap having a proximal end portion and a distal end portion; a buckle assembly connected to the proximal end portion of the strap; and a pulley assembly slidably coupled to the strap and movable between the proximal end portion and the distal end portion, the pulley assembly having a support member and a pulley member rotatably coupled to the support member, characterized in that the pulley member includes a roller portion rotatably coupled to a hinged portion and further in that the pulley member includes a locking mechanism configured to move the pulley member to predetermined positions for optimal leverage on the strap. a strap having a proximal end portion and a distal end portion; a buckle assembly connected to the proximal end portion of the strap; and a pulley assembly slidably coupled to the strap and movable between the proximal end portion and the distal end portion, the pulley assembly having a support member and a pulley member rotatably coupled to the support member, characterized in that the pulley member includes a roller portion rotatably coupled to a hinged portion and further in that the pulley member includes a locking mechanism configured to move the pulley member to predetermined positions for optimal leverage on the strap.
A method of transmitting messages performed by a relay node in a blockchain relay communication network, wherein the relay node comprises two or more message queues, and a same message queue is used for storing blockchain messages having a same priority identifier, the priority identifier represents a priority of a message to be transmitted; and the method comprises: obtaining a to-be-transmitted blockchain message from one of the two or more message queues based on a message transmission policy, the message transmission policy is configured for transmitting a blockchain message with a highest priority first; obtaining identifier information comprised in the to-be-transmitted blockchain message, wherein the identifier information comprises a set identifier; determining a blockchain node set corresponding to the set identifier, and determining all blockchain nodes pre-registered to the blockchain node set as target blockchain nodes corresponding to the to-be-transmitted blockchain message; determining a target relay node connected to the target blockchain nodes in the blockchain relay communication network; and transmitting the blockchain message to each of the target blockchain nodes through the target relay node. obtaining a to-be-transmitted blockchain message from one of the two or more message queues based on a message transmission policy, the message transmission policy is configured for transmitting a blockchain message with a highest priority first; obtaining identifier information comprised in the to-be-transmitted blockchain message, wherein the identifier information comprises a set identifier; determining a blockchain node set corresponding to the set identifier, and determining all blockchain nodes pre-registered to the blockchain node set as target blockchain nodes corresponding to the to-be-transmitted blockchain message; determining a target relay node connected to the target blockchain nodes in the blockchain relay communication network; and transmitting the blockchain message to each of the target blockchain nodes through the target relay node.
Use of, a compound represented by the following formula, as a nucleator in a polyolefin resin composition, the polyolefin resin composition comprising 0.01 to 10 parts by mass of with respect to 100 parts by mass of a polyolefin resin:
A cutting insert for turning, comprising a polygonal body of a hard, wear-resistant material, which has an upper surface and a lower surface, and a plurality of edge surfaces (13,14) uniting said surfaces, at least one chip-breaker arrangement being provided in at least one of the lower and upper surfaces, at least one rounded cutting corner, provided with a nose-cutting edge, being formed at a nose portion at the area of the intersection area of two edge surfaces, said cutting corner defines a bisector, the chip-breaker arrangement comprises two elongate chip-breaker segments (22A,22B) having an opening provided therebetween, the opening being intended to give room for a cooling jet directed toward said opening, each segment (22A, 22B) has a length, characterized in that the rounded cutting corner comprises a countersunk portion comprising a bottom surface, the bottom surface is provided between the segments and a centre of the cutting insert to form a space for the jet, the countersunk portion is provided with a wall, the wall is displaced from the segments (22A, 22B) toward the centre of the cutting insert by a distance that is at least equally large as the length, preferably at least twice as large as the length and the bottom surface is arranged closer to the opposite lower surface than the segments (22A, 22B) and the wall.
An energy storage apparatus comprising: one or more energy storage devices; and an outer covering which houses the one or more energy storage devices, wherein the outer covering has a discharge portion forming a discharge path which discharges a substance generated in an inside of the energy storage apparatus toward outside of the outer covering in a first direction, and an inner wall surface of the discharge portion includes a first wall surface inclined with respect to the first direction, and a rib is formed on an outlet side of the discharge portion in a state where the rib extends along the discharge path and is raised from an inner surface of the discharge portion on the outlet side of the discharge portion. one or more energy storage devices; and an outer covering which houses the one or more energy storage devices, wherein the outer covering has a discharge portion forming a discharge path which discharges a substance generated in an inside of the energy storage apparatus toward outside of the outer covering in a first direction, and an inner wall surface of the discharge portion includes a first wall surface inclined with respect to the first direction, and a rib is formed on an outlet side of the discharge portion in a state where the rib extends along the discharge path and is raised from an inner surface of the discharge portion on the outlet side of the discharge portion.
A method for operating a station, STA (111- 114), in a wireless local area network, WLAN, the method comprises: receiving, from an access point, AP (101, 103), in the WLAN, a beacon signal (411, 511, 611, 711); identifying, from the beacon signal (411, 511, 611, 711), a target transmission time (413, 513, 613, 713) of a trigger frame (405, 505, 605, 705) to be transmitted by the AP (101, 103) for an uplink multi-user transmission; receiving, from the AP (101, 103), the trigger frame (405, 505, 607, 705) based on the target transmission time (413, 513, 613, 713), the trigger frame (405, 505, 605, 705) including a request (403, 503, 603, 703) for buffer status information (407, 507, 607, 707); and transmitting, to the AP (101, 103) in response to the request (403, 503, 603, 703), a message reporting the buffer status information (407, 507, 607, 707) of the STA (111- 114) regarding data the STA has to transmit. receiving, from an access point, AP (101, 103), in the WLAN, a beacon signal (411, 511, 611, 711); identifying, from the beacon signal (411, 511, 611, 711), a target transmission time (413, 513, 613, 713) of a trigger frame (405, 505, 605, 705) to be transmitted by the AP (101, 103) for an uplink multi-user transmission; receiving, from the AP (101, 103), the trigger frame (405, 505, 607, 705) based on the target transmission time (413, 513, 613, 713), the trigger frame (405, 505, 605, 705) including a request (403, 503, 603, 703) for buffer status information (407, 507, 607, 707); and transmitting, to the AP (101, 103) in response to the request (403, 503, 603, 703), a message reporting the buffer status information (407, 507, 607, 707) of the STA (111- 114) regarding data the STA has to transmit.
A method for planning a path according to a surgical application, the method comprising: constructing a configuration space node structure within a data storage medium, the configuration space node structure including free-space configuration nodes and forbidden configuration nodes representing a discretized configuration space of an anatomical region of a body, and generating a structural damage assessment for each free-space configuration node, the structural damage assessment being indicative of an assessment of potential damage to at least one critical anatomical area of the anatomical region represented by the forbidden configuration nodes, each forbidden configuration node having an infinite structure damage assessment cost, wherein the free-space configuration nodes include: a safe free-space configuration node having a zero structural damage assessment cost; a risky free-space configuration node having a finite structural damage assessment cost; and a risky free-space configuration node having an infinite structural damage assessment cost, wherein the path planning comprises evaluating a metric representing a cost for transitioning from one configuration node to a neighboring configuration node, wherein the metric depends on the structural damage assessment costs of the free-space configuration nodes. constructing a configuration space node structure within a data storage medium, the configuration space node structure including free-space configuration nodes and forbidden configuration nodes representing a discretized configuration space of an anatomical region of a body, and generating a structural damage assessment for each free-space configuration node, the structural damage assessment being indicative of an assessment of potential damage to at least one critical anatomical area of the anatomical region represented by the forbidden configuration nodes, each forbidden configuration node having an infinite structure damage assessment cost, wherein the free-space configuration nodes include: a safe free-space configuration node having a zero structural damage assessment cost; a risky free-space configuration node having a finite structural damage assessment cost; and a risky free-space configuration node having an infinite structural damage assessment cost, wherein the path planning comprises evaluating a metric representing a cost for transitioning from one configuration node to a neighboring configuration node, wherein the metric depends on the structural damage assessment costs of the free-space configuration nodes.
A method of converting a single-chain variable fragment (scFv) into a chimeric polypeptide, comprising (a) providing a first vector comprising, in order from 5' to 3', a first mammalian expression control motif, a first E. coli expression control motif, a sequence encoding a heavy chain variable region of the scFv, a first site-specific recombination motif, a sequence encoding a light chain variable region of the scFv, a 5' mammalian splice site (MaM 5'SS), a fusion display protein sequence, a 3' mammalian splice site (MaM 3'SS), and a sequence encoding a light chain constant region, and (b) providing a second vector comprising, in order from 5' to 3', a second mammalian expression control motif, a second site-specific recombination motif, and a sequence encoding a polypeptide; and (c) contacting the first vector and the second vector in the presence of a recombinase enzyme, wherein the recombinase enzyme combines the first vector and the second vector in a site-specific manner to form an integrant vector, wherein the integrant vector expresses the VL fused to the CL and a separate VH fused to said polypeptide, thereby upon expression converting an scFv into a chimeric polypeptide. (a) providing a first vector comprising, in order from 5' to 3', a first mammalian expression control motif, a first E. coli expression control motif, a sequence encoding a heavy chain variable region of the scFv, a first site-specific recombination motif, a sequence encoding a light chain variable region of the scFv, a 5' mammalian splice site (MaM 5'SS), a fusion display protein sequence, a 3' mammalian splice site (MaM 3'SS), and a sequence encoding a light chain constant region, and a first mammalian expression control motif, a first E. coli expression control motif, a sequence encoding a heavy chain variable region of the scFv, a first site-specific recombination motif, a sequence encoding a light chain variable region of the scFv, a 5' mammalian splice site (MaM 5'SS), a fusion display protein sequence, a 3' mammalian splice site (MaM 3'SS), and a sequence encoding a light chain constant region, and (b) providing a second vector comprising, in order from 5' to 3', a second mammalian expression control motif, a second site-specific recombination motif, and a sequence encoding a polypeptide; and a second mammalian expression control motif, a second site-specific recombination motif, and (c) contacting the first vector and the second vector in the presence of a recombinase enzyme,
A rotor system comprising: a rotor hub arm; a spindle; an elastomeric bearing array which supports said spindle relative to said rotor hub arm; a lead/lag damper mounted to said rotor hub arm and said spindle; a lead stop mounted to said spindle; and a lead stop plate mounted to said rotor hub arm, characterized in that said lead stop is operable to contact said lead stop plate over a lead angle range of said spindle relative said rotor hub arm, and each of said lead stop and said lead stop plate define a respective spherical contact surface (82A, 84A). a rotor hub arm; a spindle; an elastomeric bearing array which supports said spindle relative to said rotor hub arm; a lead/lag damper mounted to said rotor hub arm and said spindle; a lead stop mounted to said spindle; and a lead stop plate mounted to said rotor hub arm, characterized in that said lead stop is operable to contact said lead stop plate over a lead angle range of said spindle relative said rotor hub arm, and each of said lead stop and said lead stop plate define a respective spherical contact surface (82A, 84A).
A bonded abrasive tool comprising: a bonded abrasive body including: a bond matrix material comprising an organic bond material; abrasive grains contained within the bond matrix material; chopped fiber bundles within the bond matrix material; and porosity within the bonded abrasive body, wherein the bonded abrasive tool is characterised by an amount of chopped fiber bundles not grater than 5 vol% and by a majority of the porosity comprising pores surrounding the chopped fiber bundles. a bond matrix material comprising an organic bond material; abrasive grains contained within the bond matrix material; chopped fiber bundles within the bond matrix material; and porosity within the bonded abrasive body, wherein the bonded abrasive tool is characterised by an amount of chopped fiber bundles not grater than 5 vol% and by a majority of the porosity comprising pores surrounding the chopped fiber bundles.
A vehicle travel control method comprising: when controlling a vehicle having an autonomous travel control function to travel autonomously, detecting whether or not an object (H,W) is present around the vehicle using object detectors (13a-13h); and characterized by displaying, for each object detector (13a-13h), a predetermined pattern at a certain position on a road surface toward a detection range of the object detector so as to be visible using pattern display devices (22a-22h) corresponding to the object detectors (13a-13h) respectively; upon change from a state of not detecting the object (H,W) to a state of detecting the object (H,W), by one of the object detectors (13c; 13f; 13h) changing the respective predetermined pattern to a pattern different from the pattern displayed until then; wherein the predetermined pattern corresponds to an area correlating with a detection range of the respective object detector (13a-13h), and an area of the pattern different from the pattern displayed until then is smaller than an area of the pattern displayed by the other pattern display devices corresponding to the other object detectors. when controlling a vehicle having an autonomous travel control function to travel autonomously, detecting whether or not an object (H,W) is present around the vehicle using object detectors (13a-13h); and characterized by displaying, for each object detector (13a-13h), a predetermined pattern at a certain position on a road surface toward a detection range of the object detector so as to be visible using pattern display devices (22a-22h) corresponding to the object detectors (13a-13h) respectively; upon change from a state of not detecting the object (H,W) to a state of detecting the object (H,W), by one of the object detectors (13c; 13f; 13h) changing the respective predetermined pattern to a pattern different from the pattern displayed until then; wherein the predetermined pattern corresponds to an area correlating with a detection range of the respective object detector (13a-13h), and an area of the pattern different from the pattern displayed until then is smaller than an area of the pattern displayed by the other pattern display devices corresponding to the other object detectors.
A user interface of an automation system adapted to display one or more components (7, 8, 9, 10) controlled by the automation system, the user interface comprising: - a plurality of input interfaces (20, 22) associated with each of the one or more components (7, 8, 9, 10), - a plurality of output interfaces associated with each of the one or more components (7, 8, 9, 10), - a first input trigger adapted to trigger the storing of one or more states of the one or more components (7, 8, 9, 10) along with corresponding input interfaces (20, 22) and output interfaces, - a second input trigger adapted to trigger the displaying of the one or more stored states of the one or more components (7, 8, 9, 10), in a view window for displaying the one or more states of the components (7, 8, 9, 10) in a form of a plurality of thumbnail images. - a plurality of input interfaces (20, 22) associated with each of the one or more components (7, 8, 9, 10), - a plurality of output interfaces associated with each of the one or more components (7, 8, 9, 10), - a first input trigger adapted to trigger the storing of one or more states of the one or more components (7, 8, 9, 10) along with corresponding input interfaces (20, 22) and output interfaces, - a second input trigger adapted to trigger the displaying of the one or more stored states of the one or more components (7, 8, 9, 10), in a view window for displaying the one or more states of the components (7, 8, 9, 10) in a form of a plurality of thumbnail images.