mhurhangee/patent-ind-claim-en huggingface dataset:
Method of producing a vacuum cleaner bag, by means of the following steps: - producing a flat bag with an upper and a lower layer of filter material, which layers are connected together at the edge in encircling manner by way of a seam , wherein at least one layer has an inflow opening ; - inflating the flat bag by a fluid; and - applying at least one shape-changing means to at least one corner of the vacuum cleaner bag in the form of a glueing, weld seam, weld point, connecting point, connecting location and/or fold edge to facilitate folding up the vacuum cleaner bag, - wherein the filter material is processed at at least one location by welding and/or glueing in the inflated state, wherein the upper layer of the filter material is glued or welded together between two points and/or the lower layer is glued or welded with a further location at the lower layer so as to give the flat bag a three-dimensional contour. - producing a flat bag with an upper and a lower layer of filter material, which layers are connected together at the edge in encircling manner by way of a seam , wherein at least one layer has an inflow opening ; - inflating the flat bag by a fluid; and - applying at least one shape-changing means to at least one corner of the vacuum cleaner bag in the form of a glueing, weld seam, weld point, connecting point, connecting location and/or fold edge to facilitate folding up the vacuum cleaner bag, - wherein the filter material is processed at at least one location by welding and/or glueing in the inflated state, wherein the upper layer of the filter material is glued or welded together between two points and/or the lower layer is glued or welded with a further location at the lower layer so as to give the flat bag a three-dimensional contour.
A method for allocating WLAN channel resources, comprising: obtaining subcarrier allocation information, wherein the subcarrier allocation information is used to identify a subcarrier or a subcarrier group used to bear data, wherein channel quality of a subchannel where the subcarrier or the subcarrier group is located is greater than or equal to a judgment threshold; and sending data to a receiving device on the subcarrier or the subcarrier group according to the subcarrier allocation information, characterized in that the subcarrier allocation information comprises: an identifier of a first subcarrier or a first subcarrier group of multiple successively allocated subcarriers or subcarrier groups and the quantity of the multiple subcarriers or the multiple subcarrier groups; wherein the obtaining subcarrier allocation information comprises: receiving a channel state information, CSI, feedback message sent by the receiving device, wherein the CSI feedback message carries the subcarrier allocation information. obtaining subcarrier allocation information, wherein the subcarrier allocation information is used to identify a subcarrier or a subcarrier group used to bear data, wherein channel quality of a subchannel where the subcarrier or the subcarrier group is located is greater than or equal to a judgment threshold; and sending data to a receiving device on the subcarrier or the subcarrier group according to the subcarrier allocation information, characterized in that the subcarrier allocation information comprises: an identifier of a first subcarrier or a first subcarrier group of multiple successively allocated subcarriers or subcarrier groups and the quantity of the multiple subcarriers or the multiple subcarrier groups; wherein the obtaining subcarrier allocation information comprises: receiving a channel state information, CSI, feedback message sent by the receiving device, wherein the CSI feedback message carries the subcarrier allocation information.
A cylinder lock closing system with a key having a key shaft and a key head as well as a plurality of projections and setbacks formed on one side of the key shaft , which correspond to keeping-shut pins plunging into the locking cylinder channel of the closing system, the key ridge having at least one recess extending in the longitudinal direction of the key, which recess can receive a blocking element or blocking platelet that is complementary to the recess , and the blocking element or blocking platelet supports on the locking cylinder core extending over a partial area of the locking cylinder channel in a bridge-like manner, wherein, with a matching key for the cylinder lock closing system, the blocking element or blocking platelet closes flush with the cylinder core , and the separating plane between the cylinder core and the cylinder housing is released, wherein the blocking element or blocking platelet has a web-like projection at its bottom side, characterized in that the web-like projection is complementary to a depression in the recess in the key ridge , so that only when the key has the depression matching the web-line projection , a closing operation can be performed.
An imaging device comprising: a control unit which changes a resolution of a captured image in a distant region on a basis of distance information regarding a detected distance between a subject and a reference subject included in the captured image, such that the subject is in a region of the image that is thinned out, wherein the control unit sets a resolution of the subject to be high in a case in which the distance between the subject and the reference subject included in the captured image is longer than a predetermined reference, and sets the resolution of the subject to be low in a case in which the distance between the subject and the reference subject is smaller than the predetermined reference. a control unit which changes a resolution of a captured image in a distant region on a basis of distance information regarding a detected distance between a subject and a reference subject included in the captured image, such that the subject is in a region of the image that is thinned out, wherein the control unit sets a resolution of the subject to be high in a case in which the distance between the subject and the reference subject included in the captured image is longer than a predetermined reference, and sets the resolution of the subject to be low in a case in which the distance between the subject and the reference subject is smaller than the predetermined reference.
A method of processing packets associated with a logical network that comprises a logical router implemented by a plurality of managed forwarding elements, MFEs, (215, 610; 225) in a physical network , the method comprising, at a particular one of the MFEs that executes on a host computer: receiving, from a gateway of the logical network, a first packet encapsulated with a tunnel header that comprises information associated with the logical network, directed to a virtual machine of the logical network that also executes on the host computer and originating from a remote machine not in the logical network ; decapsulating the first packet and providing the decapsulated packet to the virtual machine on the host computer; receiving a second packet from the virtual machine that is addressed to the remote machine from which the first packet originated; and based on the second packet being addressed to the remote machine, identifying a particular logical port of the logical router, that directly connects to a router external to the logical network, as a logical egress port for the second packet; based on the identification of the particular logical port as the logical egress port for the packet, transmitting the second packet to the external router without any tunnel header in order for the external router to forward the second packet to the remote machine without traversing through the gateway of the logical network. receiving, from a gateway of the logical network, a first packet encapsulated with a tunnel header that comprises information associated with the logical network, directed to a virtual machine of the logical network that also executes on the host computer and originating from a remote machine not in the logical network ; decapsulating the first packet and providing the decapsulated packet to the virtual machine on the host computer; receiving a second packet from the virtual machine that is addressed to the remote machine from which the first packet originated; and based on the second packet being addressed to the remote machine, identifying a particular logical port of the logical router, that directly connects to a router external to the logical network, as a logical egress port for the second packet; based on the identification of the particular logical port as the logical egress port for the packet, transmitting the second packet to the external router without any tunnel header in order for the external router to forward the second packet to the remote machine without traversing through the gateway of the logical network.
A heavy-current charging cable for charging an electric vehicle, comprising: a central heavy-current wire configured for serving as ground, the central heavy-current wire comprising a central conductor and extending in a longitudinal direction, a plurality of heavy-current power wires configured for conducting positive and negative direct current, DC, and each of said heavy-current power wires comprising a power conductor and a power wire insulation surrounding said power conductor , the heavy-current power wires extending parallel to the central wire, a liquid coolant, a liquid tight inner hose extending in the longitudinal direction and surrounding the heavy-current central wire and the heavy-current power wires thereby defining a first hollow area comprising the liquid coolant to flow between the heavy-current central wire and the heavy-current power wires along the longitudinal direction, and a liquid tight outer hose extending in the longitudinal direction and surrounding the inner hose thereby defining a second hollow area comprising the liquid coolant to flow between the inner hose and the outer hose along the longitudinal direction; characterized in that the heavy-current power wires surround the heavy-current central wire and in that the heavy-current power wires comprise wire spacers to arrange the power heavy-current wires distant from each other. a central heavy-current wire configured for serving as ground, the central heavy-current wire comprising a central conductor and extending in a longitudinal direction, a plurality of heavy-current power wires configured for conducting positive and negative direct current, DC, and each of said heavy-current power wires comprising a power conductor and a power wire insulation surrounding said power conductor , the heavy-current power wires extending parallel to the central wire, a liquid coolant, a liquid tight inner hose extending in the longitudinal direction and surrounding the heavy-current central wire and the heavy-current power wires thereby defining a first hollow area comprising the liquid coolant to flow between the heavy-current central wire and the heavy-current power wires along the longitudinal direction, and a liquid tight outer hose extending in the longitudinal direction and surrounding the inner hose thereby defining a second hollow area comprising the liquid coolant to flow between the inner hose and the outer hose along the longitudinal direction; characterized in that the heavy-current power wires surround the heavy-current central wire and in that the heavy-current power wires comprise wire spacers to arrange the power heavy-current wires distant from each other.
Computer-implemented apparatus for processing data, having a digital chip having at least one part that is reconfigurable by a number N of configuration descriptions (KB), with N ≥ 1, a determined configuration description (KB) from the number N for reconfiguring the reconfigurable part , and a providing unit for providing an identifier (ID) specific to the determined configuration description (KB) by using a number A of derivation parameters comprising the determined configuration description (KB), with A ≥ 1, wherein the part reconfigured with the determined configuration description (KB) is set up to perform a cryptographic function on determined data by using the provided specific identifier (ID) to generate cryptographically processed data (KVD), characterized in that the providing unit is set up to provide an identifier (ID) specific to a group of determined configuration descriptions (KB) and to form a hash value as the identifier (ID) specific to the group of determined configuration descriptions (KB) by applying a determined hash function to the group of determined configuration descriptions (KB).
A thermally expandable composition, containing a) at least one peroxidically crosslinking polymer which does not contain glycidyl (meth)acrylate as a monomer in polymerized form, b) at least one polymer, which in a proportion of 2 to 20 wt.%, based on the respective polymer, contains glycidyl (meth)acrylate as a monomer in polymerized form, c) at least one peroxide and d) at least one endothermic chemical blowing agent. a) at least one peroxidically crosslinking polymer which does not contain glycidyl (meth)acrylate as a monomer in polymerized form, b) at least one polymer, which in a proportion of 2 to 20 wt.%, based on the respective polymer, contains glycidyl (meth)acrylate as a monomer in polymerized form, c) at least one peroxide and d) at least one endothermic chemical blowing agent.
A copolymer, comprising constitutional units represented by the following formula to the following formula , wherein: the mole ratios a, b, and c of the respective constitutional units satisfy the following: a/ a + b + c = 0.30 to 0.90 ; b/ a + b + c = 0.01 to 0.69 ; and c/ a + b + c = 0.01 to 0.20 ; and the copolymer has a weight-average molecular weight of from 10,000 to 1,000,000, according to the method mentioned in the specification. where n represents from 3 to 17; where X represents -H or a -OH group. the mole ratios a, b, and c of the respective constitutional units satisfy the following: a/ a + b + c = 0.30 to 0.90 ; b/ a + b + c = 0.01 to 0.69 ; and c/ a + b + c = 0.01 to 0.20 ; and a/ a + b + c = 0.30 to 0.90 ; b/ a + b + c = 0.01 to 0.69 ; and c/ a + b + c = 0.01 to 0.20 ; and the copolymer has a weight-average molecular weight of from 10,000 to 1,000,000, according to the method mentioned in the specification. where n represents from 3 to 17; where X represents -H or a -OH group.
A method of fluorinating a solid compound of a rare earth metal to produce a fluorinated rare earth metal compound in solid form, the method including reacting, in a reaction zone, a solid compound of the rare earth metal; and gaseous hydrofluoric acid, thus producing the fluorinated rare earth metal compound in solid form, wherein the reaction takes place, in the reaction zone, in the presence of exogenous water, which is water that is exogenous to water that is produced in the reaction zone as water of reaction due to the reaction of the solid compound of the rare earth metal and the hydrofluoric acid; and under conditions of temperature and pressure which avoid condensation of the exogenous water, the water of reaction when present, and the hydrofluoric acid. a solid compound of the rare earth metal; and gaseous hydrofluoric acid, thus producing the fluorinated rare earth metal compound in solid form, wherein the reaction takes place, in the reaction zone, in the presence of exogenous water, which is water that is exogenous to water that is produced in the reaction zone as water of reaction due to the reaction of the solid compound of the rare earth metal and the hydrofluoric acid; and under conditions of temperature and pressure which avoid condensation of the exogenous water, the water of reaction when present, and the hydrofluoric acid. in the presence of exogenous water, which is water that is exogenous to water that is produced in the reaction zone as water of reaction due to the reaction of the solid compound of the rare earth metal and the hydrofluoric acid; and under conditions of temperature and pressure which avoid condensation of the exogenous water, the water of reaction when present, and the hydrofluoric acid.
A shovel comprising: a traveling body ; a turning body mounted on the traveling body ; and a work attachment including a boom attached to the turning body , an arm attached to an end of the boom , and an end attachment attached to an end of the arm , characterized by : a control unit configured to automatically control a turning operation of the turning body without an operating apparatus being operated to operate the turning body , in accordance with a predetermined operation of the work attachment to cause the end attachment to perform the predetermined operation as seen in a plan view, as the operating apparatus is operated to operate the work attachment. a traveling body ; a turning body mounted on the traveling body ; and a work attachment including a boom attached to the turning body , an arm attached to an end of the boom , and an end attachment attached to an end of the arm , characterized by : a control unit configured to automatically control a turning operation of the turning body without an operating apparatus being operated to operate the turning body , in accordance with a predetermined operation of the work attachment to cause the end attachment to perform the predetermined operation as seen in a plan view, as the operating apparatus is operated to operate the work attachment.
A gas analysis system comprising: - a fluidic channel intended for the flow of a gas to be analyzed carried by a carrier gas, - at least one detector laid out in said fluidic channel and adapted for measuring interactions of the gas with said detector, said detector comprising at least one resonator of the electromechanical nanosystem (NEMS) type in the form of a beam, wherein the beam is clamped at one of its ends and free at the opposite end or wherein the beam is clamped as both ends; - an actuation device for vibrationally actuating the resonator according to an excitation signal applied to an input of the detector, - a detection device adapted for providing an output electric signal representative of the vibrations of said resonator, wherein the detection device comprises two piezo-resistive strain gauges laid out on either side of said beam in the vicinity of a clamped end, - a read-out device connected to an input of the detector and configured for simultaneously measuring, from the output signal of said at least one detector, the change in resonance frequency and the change in amplitude of the vibrations at the resonance frequency of the resonator, and - a processing device configured for determining from said changes at least a viscosity or an effective viscosity of said gas, said system being characterized in that it comprises a electrical heating system comprising a DC voltage source coupled to the beam itself when the beam is clamped as both ends or to the piezo-resistive strain gauges when the beam is clamped at one of its ends for respectively heating the beam itself or heating the piezo-resistive strain gauges by Joule effect so as to increase the viscosity contrast between the gas to be analyzed and the carrier gas. - a fluidic channel intended for the flow of a gas to be analyzed carried by a carrier gas, - at least one detector laid out in said fluidic channel and adapted for measuring interactions of the gas with said detector, said detector comprising at least one resonator of the electromechanical nanosystem (NEMS) type in the form of a beam, wherein the beam is clamped at one of its ends and free at the opposite end or wherein the beam is clamped as both ends; - an actuation device for vibrationally actuating the resonator according to an excitation signal applied to an input of the detector, - a detection device adapted for providing an output electric signal representative of the vibrations of said resonator, wherein the detection device comprises two piezo-resistive strain gauges laid out on either side of said beam in the vicinity of a clamped end, - a read-out device connected to an input of the detector and configured for simultaneously measuring, from the output signal of said at least one detector, the change in resonance frequency and the change in amplitude of the vibrations at the resonance frequency of the resonator, and - a processing device configured for determining from said changes at least a viscosity or an effective viscosity of said gas,
A compound of formula (I), including any stereochemically isomeric form thereof, wherein R 1 is trifluoromethyl, trifluoromethoxy, or chloro; R 2 is hydrogen, fluoro, or methoxy; R 3 is hydrogen, or methoxy; A represents -(CH 2 ) n - wherein n is 3 or 4; - O-(CH 2 ) n - wherein n is 2 or 4; - O-(CH 2 ) n - wherein n is 3 and one or two CH 2 are substituted with one or two CH 3 ; - CH 2 -O-(CH 2 ) n - wherein n is 2; or - X-Y- wherein X is a -O-, -OCH 2 -, or -NH-; and Y is C 3-4 cycloalkyl optionally substituted with fluoro, or Y is bicyclo[1.1.1]pentanyl; or a pharmaceutically acceptable salt, solvate or polymorph thereof. R 1 is trifluoromethyl, trifluoromethoxy, or chloro; R 2 is hydrogen, fluoro, or methoxy; R 3 is hydrogen, or methoxy; A represents -(CH 2 ) n - wherein n is 3 or 4; - O-(CH 2 ) n - wherein n is 2 or 4; - O-(CH 2 ) n - wherein n is 3 and one or two CH 2 are substituted with one or two CH 3 ; - CH 2 -O-(CH 2 ) n - wherein n is 2; or - X-Y- wherein X is a -O-, -OCH 2 -, or -NH-; and Y is C 3-4 cycloalkyl optionally substituted with fluoro, or Y is bicyclo[1.1.1]pentanyl; - O-(CH 2 ) n - wherein n is 2 or 4; - O-(CH 2 ) n - wherein n is 3 and one or two CH 2 are substituted with one or two CH 3 ; - CH 2 -O-(CH 2 ) n - wherein n is 2; or - X-Y- wherein X is a -O-, -OCH 2 -, or -NH-; and Y is C 3-4 cycloalkyl optionally substituted with fluoro, or Y is bicyclo[1.1.1]pentanyl; Y is C 3-4 cycloalkyl optionally substituted with fluoro, or Y is bicyclo[1.1.1]pentanyl;