mhurhangee/ep-ind-claims huggingface dataset:
An elevator controller, comprising: an encoder which detects the rotation of a sheave of an elevator; first position detection means which detects a present position of a car of the elevator on the basis of detection results of the encoder; an image indication part (14, 15) which is provided in an end portion of a shaft and indicates an image showing prescribed position information; an image detection part which is provided on the car and detects an image indicated on the image indication part (14, 15); second position detection means which detects a present position of the car on the basis of detection results of the image detection part; characterized in that an image writing part which adjusts the position of an image indicated on the image indication part (14, 15) on the basis of the car positions detected by the first position detection means and the second position detection means. an encoder which detects the rotation of a sheave of an elevator; first position detection means which detects a present position of a car of the elevator on the basis of detection results of the encoder; an image indication part (14, 15) which is provided in an end portion of a shaft and indicates an image showing prescribed position information; an image detection part which is provided on the car and detects an image indicated on the image indication part (14, 15); second position detection means which detects a present position of the car on the basis of detection results of the image detection part; characterized in that an image writing part which adjusts the position of an image indicated on the image indication part (14, 15) on the basis of the car positions detected by the first position detection means and the second position detection means.
A heavy duty tire having a carcass extending from a tread portion to bead cores in bead portions through sidewall portions, and a belt layer composed of a plurality of belt plies (7A, 7B, 7C, 7D) disposed in the tread portion and on the outside of the carcass in the tire radial direction, characterized in that in a state in which a distance between a pair of bead heels of the tire is kept at 110 % of a wheel rim width of a standard wheel rim and no inner pressure is applied, a contour shape of the tread portion in a tire meridian section is formed by a 1st circular arc having a center on the tire equatorial plane, and a pair of 2nd circular arcs disposed on both outsides of the 1st circular arc in the tire axial direction, the radii R2 of the 2nd circular arcs are more than the radius R1 of the 1st circular arc, one 2nd circular arc has a center on the other 2nd circular arc side of the tire equator in the tire axial direction, and the other 2nd circular arc has a center on the one 2nd circular arc side of the tire equator in the tire axial direction, wherein the tread portion is partitioned by a plurality of main grooves (9, 10) extending in the tire circumferential direction into a plurality of land portions (11, 12, 13A) including an axially outermost shoulder land portion, the shoulder land portion is partitioned by an auxiliary groove extending straight in the tire circumferential direction in a tread ground contact edge side into a main rib portion on the inside of the auxiliary groove in the tire axial direction, and an auxiliary rib portion on the outside of the auxiliary groove in the tire axial direction, and the ratio W2/W1 of a width W2 of the auxiliary rib portion in the tire axial direction and a width W1 of the main rib portion in the tire axial direction is 0.03 to 0.15.
A method of synchronising a number of mobile functional parts of devices or machines, in particular of printing machines, on the basis of their position, each functional part being driven by one of a number of electrical drive units which are coupled to a master axis control for the exchange of position, speed and/or acceleration values, with a combination of the following steps: a) the drive units transmit their individual axis positions (x R1, x R2,...) to the master axis control b) a functional part with the assigned drive unit is selected as a master axis for the other functional parts and/or the drive units of the latter by the master axis control by means of evaluation software implemented therein and/or by an externally inputted user request c) a master axis position (w R) is generated once by the master axis control on the basis of the individual axis position (x R1, x R2,...) selected as the master axis and is transmitted to the drive units, characterised in that d) a respective offset to the master axis position (w R) is determined in the drive units, and the respectively corresponding functional part is adjusted or aligned according to the offset. a) the drive units transmit their individual axis positions (x R1, x R2,...) to the master axis control b) a functional part with the assigned drive unit is selected as a master axis for the other functional parts and/or the drive units of the latter by the master axis control by means of evaluation software implemented therein and/or by an externally inputted user request c) a master axis position (w R) is generated once by the master axis control on the basis of the individual axis position (x R1, x R2,...) selected as the master axis and is transmitted to the drive units, characterised in that d) a respective offset to the master axis position (w R) is determined in the drive units, and the respectively corresponding functional part is adjusted or aligned according to the offset.
A method for producing a cosmetic powder surface-treated with a silicone gel, wherein surfaces of particles of a powder having an average particle size in the range of from 0.01 to 500 μm as a starting material are surface-treated with the silicone gel through forming the silicone gel thereon in an in-situ method by hydrolyzing and condensing an organopolysiloxane containing at least a diorganopolysiloxane with reactive opposite ends expressed by the following formula and at least one kind of a silane coupling agent having the following formula and at least two hydrolyzable groups per one molecule and a reactive organopolysiloxane of the following formula as a crosslinking agent (Chemical formula 1) R 1 R 2 2 SiO-(R 2 2 SiO) L -SiR 1 R 2 2, wherein R 1 is a hydrolyzable group such as a hydroxyl group, an amino group, an acetoxy group, an alkoxy group or a hydrogen atom, R 2 is a non-substituted or substituted C1-C20 monovalent hydrocarbon group, and L is 3 to 10,000; (Chemical formula 2) R 3 R 4 nSiX (3-n), wherein R 3 is a group selected from a C1-C20 monovalent hydrocarbon group, an amino group, an aminoethyl group, a mercapto group, an isocyanate and a phenyl group, R 4 is a group selected from a phenyl group or a hydrogen atom or C1-C3 monovalent lower alkyl group and a phenyl group, X is a hydroxyl group or an alkoxy group, and n is 0 or 1; (Chemical formula 3) R 5 3 SiO-(R 5 2 SiO)n-SiR 5 3, wherein R 5 is a hydrolyzable group or a non-substituted or substituted C1-C20 monovalent hydrocarbon group, the hydrolyzable group is a hydroxyl group, an amino group, an acetoxy group, an alkoxyl group or a hydrogen atom, n is 3 to 1,000, and at least three hydrolyzable groups are provided in one molecule, a ratio between the diorganopolysiloxane with the reactive opposite ends and the crosslinking agent is in a compounding range of 100/0.1 to 100/35 wt%, and the surface-treated cosmetic powder is then thermally fixed, said method being effected under a condition that when a silicone gel is obtained by effecting the method in the absence of the powder, the obtained silicone gel has a finely three-dimensional crosslinking structure of the diorganopolysiloxane, a complex modulus of 3,000 to 100,000 Pa and a loss coefficient tan δ of 1.0 to 2.5 in measurement of a dynamic viscoelasticity of a distortion factor of 17% at 25°C and at a shear frequency of 4Hz, and a measured value of the silicone gel measured by a measuring method with a durometer AO is 0.
A modular heater unit (12, 70, 100, 120a, 120b, 120c, 120d, 120e, 120f, 150a, 150b, 150c, 150d, 150e, 150f), comprising: a carrier member (16, 76) defining a receiving space for receiving a fluid conduit; a heating element disposed on a surface of the carrier member; and a thermal insulation jacket (24, 84, 102, 128a, 128b, 128c, 128d, 128e, 128f, 152a, 152b, 152c, 152d, 152e, 152f) surrounding the carrier member (16, 76), the thermal insulation jacket including an upper portion (50, 94, 106) and a lower portion (52, 96, 108), wherein the upper and lower portions have mating features for securing the upper and lower portions together, the modular heater unit being characterized in that the carrier member includes slots for receiving the mating features of the upper and lower portions of the thermal insulation jacket (24, 84, 102, 128a, 128b, 128c, 128d, 128e, 128f, 152a, 152b, 152c, 152d, 152e, 152f) therein, the mating features each defining a pair of locking flanges at opposing longitudinal sides to allow for self-locking about the carrier member such that the thermal insulation jacket is secured around the carrier member by inserting the locking flanges into the slots of the carrier member (16, 76). a carrier member (16, 76) defining a receiving space for receiving a fluid conduit; a heating element disposed on a surface of the carrier member; and a thermal insulation jacket (24, 84, 102, 128a, 128b, 128c, 128d, 128e, 128f, 152a, 152b, 152c, 152d, 152e, 152f) surrounding the carrier member (16, 76), the thermal insulation jacket including an upper portion (50, 94, 106) and a lower portion (52, 96, 108),
A parallel database system comprising: a master node; a plurality of slave nodes (12a-12n); means for distributing a database across said plurality of slave nodes (12a-12n), the database comprising a fact table and a plurality of dimension tables, wherein the fact table and a first dimension table are partitioned across said plurality of slave nodes (12a-12n), characterized in that all other dimension tables of the database are duplicated on each of said plurality of slave nodes (12a-12n), and up to the plurality of the other dimension tables having a minimum size are also partitioned across said plurality of slave nodes (12a-12n). a master node; a plurality of slave nodes (12a-12n); means for distributing a database across said plurality of slave nodes (12a-12n), the database comprising a fact table and a plurality of dimension tables, wherein the fact table and a first dimension table are partitioned across said plurality of slave nodes (12a-12n), characterized in that all other dimension tables of the database are duplicated on each of said plurality of slave nodes (12a-12n), and up to the plurality of the other dimension tables having a minimum size are also partitioned across said plurality of slave nodes (12a-12n).
Jaw implant having a first, approximately U-shaped perforated strip and at least one second perforated strip (11, 12) which, in relation to the U-shape of the first perforated strip, lies outside the U, wherein the first perforated strip carries spaced-apart fastening holes and has cross-sectional weakened portions between adjacent fastening holes for cutting the first perforated strip to length, wherein the first perforated strip has a partial region at a distance from the free ends (6, 7) of the first perforated strip, in which fastening holes have an internal thread for fastening a tooth replacement and in which each of these fastening holes with internal thread has a cross-sectional thickened portion which increases the longitudinal extension of this fastening hole and wherein the second perforated strip (11, 12) is connected at a leg of the U-shape of the first perforated strip via connecting webs to the first perforated strip, wherein the fastening holes of the second perforated strip (11, 12) are designed to accommodate fastening screws and wherein the first perforated strip is designed without a base, pin, or sleeve, wherein the jaw implant is designed to be deformable in the region of its connecting webs in such a way that the first, inner perforated strip can be mounted on a jaw ridge, while the at least one second, outer perforated strip (11, 12) can be fastened to the adjacent outer flank of the jaw ridge.
A method for forming a visually contrasting feature on a metal part, the metal part having a first surface region and a second surface region, the method comprising: forming a blasted surface on the first surface region and the second surface region; providing a first mask on the second surface region that protects the second surface region during a subsequent plating process; forming a multi-layered feature on the first surface region, wherein forming the multi-layered feature comprises: plating an intermediate layer on the first surface region of the metal part, the intermediate layer having an exposed surface, forming a polished surface on the intermediate layer by polishing the exposed surface, and plating a plating layer on the polished surface of the intermediate layer, removing the first mask; providing a second mask on the plating layer that protects the plating layer during a subsequent anodization process; forming an anodized layer on the second surface region of the metal part using the anodization process such that the anodized layer is immediately adjacent the plating layer; and polishing the anodized layer and the plating layer such that the anodized layer is flush with the plating layer. forming a blasted surface on the first surface region and the second surface region; providing a first mask on the second surface region that protects the second surface region during a subsequent plating process; forming a multi-layered feature on the first surface region, wherein forming the multi-layered feature comprises: plating an intermediate layer on the first surface region of the metal part, the intermediate layer having an exposed surface, forming a polished surface on the intermediate layer by polishing the exposed surface, and plating a plating layer on the polished surface of the intermediate layer, removing the first mask; forming a multi-layered feature on the first surface region, wherein forming the multi-layered feature comprises: plating an intermediate layer on the first surface region of the metal part, the intermediate layer having an exposed surface, forming a polished surface on the intermediate layer by polishing the exposed surface, and plating a plating layer on the polished surface of the intermediate layer, removing the first mask; plating an intermediate layer on the first surface region of the metal part, the intermediate layer having an exposed surface, forming a polished surface on the intermediate layer by polishing the exposed surface, and plating a plating layer on the polished surface of the intermediate layer, removing the first mask; providing a second mask on the plating layer that protects the plating layer during a subsequent anodization process; forming an anodized layer on the second surface region of the metal part using the anodization process such that the anodized layer is immediately adjacent the plating layer; and polishing the anodized layer and the plating layer such that the anodized layer is flush with the plating layer.
An apparatus of an evolved NodeB, eNB, the apparatus comprising: memory; and processing circuitry, configured to: decode a WLAN Band information element, IE, in an Xw-Application Protocol message from an access point, AP, via a WLAN termination, WT, the WLAN Band IE indicating combinations of one or more communication bands comprising a 2.4 GHz band, a 5 GHz band, and a 60 GHz band supported by the AP; decode a radio resource control, RRC, message from a user equipment, UE, the RRC message indicating combinations of the one or more communication bands supported by the UE; encode a WLAN measurement object for transmission to the UE, for performing signal strength measurements on the one or more communication bands; and based on the measurements, encode a reconfiguration message for transmission to the UE when the AP and the UE support at least a common one of the communication bands, the reconfiguration message to configure the UE to associate with the AP and to receive eNB data concurrently from the eNB and from the AP using Long Term Evolution, LTE/Wireless Local Area Network, WLAN, Aggregation, LWA, wherein the WLAN Band IE indicates the AP supports fast session transfer, FST, on a first combination of the 5 GHz band and the 60 GHz band, or a second combination of the 2.4 GHz band and the 60 GHz band and wherein the RRC message indicates the UE supports FST on the first combination of the 5 GHz band and the 60 GHz band, or the second combination of the 2.4 GHz band and the 60 GHz band. decode a WLAN Band information element, IE, in an Xw-Application Protocol message from an access point, AP, via a WLAN termination, WT, the WLAN Band IE indicating combinations of one or more communication bands comprising a 2.4 GHz band, a 5 GHz band, and a 60 GHz band supported by the AP; decode a radio resource control, RRC, message from a user equipment, UE, the RRC message indicating combinations of the one or more communication bands supported by the UE; encode a WLAN measurement object for transmission to the UE, for performing signal strength measurements on the one or more communication bands; and based on the measurements, encode a reconfiguration message for transmission to the UE when the AP and the UE support at least a common one of the communication bands, the reconfiguration message to configure the UE to associate with the AP and to receive eNB data concurrently from the eNB and from the AP using Long Term Evolution, LTE/Wireless Local Area Network, WLAN, Aggregation, LWA, wherein the WLAN Band IE indicates the AP supports fast session transfer, FST, on a first combination of the 5 GHz band and the 60 GHz band, or a second combination of the 2.4 GHz band and the 60 GHz band and wherein the RRC message indicates the UE supports FST on the first combination of the 5 GHz band and the 60 GHz band, or the second combination of the 2.4 GHz band and the 60 GHz band.
A multifunctional rotary cutting head for cutting devices and for portable devices provided with such a cutting head, comprising a rotary housing formed by at least two parts (1A-1B), namely an upper part and a lower part which is assembled to the base of said upper part, and in which there is disposed with a capability of axial translatory movement of limited amplitude a support for a cutting element(s) or tool(s) (3, 5) through which passes an axial drive shaft which is fixed in respect of rotation to said support and the upper part of which is arranged to permit coupling thereof to the motor of a portable cutting device, said support for the cutting element(s) or tool(s) being mounted with the possibility of axial movement of limited amplitude on said axial drive shaft, the cutting head being characterised in that said support for the cutting element(s) or tool(s) is provided with two stages for the selective mounting of the latter, namely: - a first stage arranged for mounting cutting wire strands, and - a second stage arranged for mounting an interchangeable cutting blade. - a first stage arranged for mounting cutting wire strands, and - a second stage arranged for mounting an interchangeable cutting blade.
An in vitro method of detecting genome-wide allelic imbalance status in a plurality of single nucleotide polymorphism genomic loci in a formalin-fixed, paraffin-embedded sample, comprising: enriching, from a patient tumor sample, genomic DNA for DNA molecules, each DNA molecule comprising at least one locus from the plurality of SNP loci; wherein enriching is performed by in-solution or solid-support based capture method; sequencing the DNA molecules to determine the genotype at each locus, wherein sequencing uses high throughput parallel platform; and, determining, for each locus, whether the locus has allelic imbalance. enriching, from a patient tumor sample, genomic DNA for DNA molecules, each DNA molecule comprising at least one locus from the plurality of SNP loci; wherein enriching is performed by in-solution or solid-support based capture method; sequencing the DNA molecules to determine the genotype at each locus, wherein sequencing uses high throughput parallel platform; and, determining, for each locus, whether the locus has allelic imbalance.
A method for spreading a deep packet inspection identification result, comprising: Receiving (100, 200, 300, 600), by an identification function network element, a data packet in network traffic; performing (102, 202, 302, 602) DPI identification on the data packet; if the data packet is successfully identified, saving a first identification result obtained through identification in a local flow table of the identification function network element, and inserting the first identification result in an extension field of the header of the data packet; and if the data packet fails to be identified, inserting a second identification result in the extension field of the header of the data packet, wherein the second identification result is an initialization identification result when the identification function network element creates the local flow table; and sending (104, 206, 306, 606) the data packet carrying the first identification result or the second identification result to a first downstream device. Receiving (100, 200, 300, 600), by an identification function network element, a data packet in network traffic; performing (102, 202, 302, 602) DPI identification on the data packet; if the data packet is successfully identified, saving a first identification result obtained through identification in a local flow table of the identification function network element, and inserting the first identification result in an extension field of the header of the data packet; and if the data packet fails to be identified, inserting a second identification result in the extension field of the header of the data packet, wherein the second identification result is an initialization identification result when the identification function network element creates the local flow table; and sending (104, 206, 306, 606) the data packet carrying the first identification result or the second identification result to a first downstream device.
A connector (14, 100) arranged to attach a loading device to an in situ rock bolt or anchor bolt in a rock or concrete substrate, the connector including a body, wherein a first attachment means (32, 104) is arranged to attach the body to the in situ rock bolt or anchor bolt, and a loading device connection, wherein the loading device connection includes a second attachment means (50, 116) adapted to releasably attach the loading device to the body, characterised in that the body including multiple portions that are releasably connectable together by one or more integral or detachable fastening means, and the connector being vertically divided into two halves (14a, 14b) adapted to clasp around a head end of the rock bolt and a shaft of the loading device.