mhurhangee/patent-ind-claim-en huggingface dataset:
Method for processing, in particular cutting, a graphic applied to a workpiece , in particular a graphic area, comprising the following steps: - Creating and/or loading a processing job with a graphic or a graphic area, respectively, and recognition features on a display element , in particular a computer; - applying the recognition features and the graphic or the graphic area, respectively, to the workpiece ; - arranging the workpiece in a processing area of a laser plotter , in particular with an optical unit for detecting the recognition features ; - capturing or detecting, respectively, the workpiece with the recognition features in order to determine the position and orientation of the workpiece , in particular the applied graphics or the graphics area, respectively, in the processing area ; - carrying out the machining process after successful detection of the workpiece , in particular of the graphics or of the graphics area, respectively, characterized in that - after insertion of the workpiece in the machining area , a laser pointer of the laser is positioned on any recognition feature , - whereupon a processing image of the graphics or of the graphics area, respectively, which is displayed on a display element , with the associated recognition feature is shifted in such a manner on the display element that a laser position displayed on the display element corresponds to the recognition feature marked with the laser pointer . - Creating and/or loading a processing job with a graphic or a graphic area, respectively, and recognition features on a display element , in particular a computer; - applying the recognition features and the graphic or the graphic area, respectively, to the workpiece ; - arranging the workpiece in a processing area of a laser plotter , in particular with an optical unit for detecting the recognition features ; - capturing or detecting, respectively, the workpiece with the recognition features in order to determine the position and orientation of the workpiece , in particular the applied graphics or the graphics area, respectively, in the processing area ; - carrying out the machining process after successful detection of the workpiece , in particular of the graphics or of the graphics area, respectively, characterized in that - after insertion of the workpiece in the machining area , a laser pointer of the laser is positioned on any recognition feature , - whereupon a processing image of the graphics or of the graphics area, respectively, which is displayed on a display element , with the associated recognition feature is shifted in such a manner on the display element that a laser position displayed on the display element corresponds to the recognition feature marked with the laser pointer .
Apparatus (1, 1', 1", 1′′′, 1ʺʺ) for lens processing, with at least one receiving device for at least one transport box , with at least one measuring device , and at least one processing device , wherein the apparatus (1, 1', 1", 11′′′, 1ʺʺ) has a housing which is essentially subdivided into a measuring area and a processing area , wherein the measuring area has the at least one measuring device and the processing area has the at least one processing device , wherein at least one conveying device is provided between the at least one measuring device and the at least one processing device , at least one handling device being provided between the at least one receiving device, the at least one measuring device and the at least one conveying device in such a way that the at least one measuring device , the at least one conveying device and the at least one processing device are arranged or can be arranged in any number and/or orientation with respect to one another, and wherein the transfer of the lenses to be processed from their transport boxes to a freely selectable measuring device , from the measuring device to a freely selectable conveying device , as well as the transfer of finished processed lenses from the respective conveying device back to their transport boxes is carried out via the handling device . wherein the apparatus (1, 1', 1", 11′′′, 1ʺʺ) has a housing which is essentially subdivided into a measuring area and a processing area , wherein the measuring area has the at least one measuring device and the processing area has the at least one processing device , wherein at least one conveying device is provided between the at least one measuring device and the at least one processing device , at least one handling device being provided between the at least one receiving device, the at least one measuring device and the at least one conveying device in such a way that the at least one measuring device , the at least one conveying device and the at least one processing device are arranged or can be arranged in any number and/or orientation with respect to one another, and wherein the transfer of the lenses to be processed from their transport boxes to a freely selectable measuring device , from the measuring device to a freely selectable conveying device , as well as the transfer of finished processed lenses from the respective conveying device back to their transport boxes is carried out via the handling device .
A crosslinking agent comprising a compound represented by a formula , wherein groups represented by -CR 1 =CR 2 R 3 are selected from the following groups, m is an integer of from 2 to 6, 1 is an integer of from 0 to 2, m groups represented by -CR 1 =CR 2 R 3 may be identical or different, and each hydrogen on the benzene ring(s) is optionally substituted with a substituent. m is an integer of from 2 to 6, 1 is an integer of from 0 to 2, m groups represented by -CR 1 =CR 2 R 3 may be identical or different, and each hydrogen on the benzene ring(s) is optionally substituted with a substituent.
A single crystal diamond having a surface, a measurement region being defined in said surface, said measurement region having a plurality of first square regions that are continuously arranged and each have a side having a length of 0.2 mm, said measurement region including a portion exhibiting a transmittance that is highest in said single crystal diamond and a portion exhibiting a transmittance that is lowest in said single crystal diamond, and an average value of said transmittances in each of said plurality of first square regions being measured, wherein assuming that the average value of said transmittances in one first square region of said first square regions is defined as T1 and the average value of said transmittances in another first square region adjacent to said one first square region is defined as T2, a relation of ((T1 - T2)/((T1 + T2) /2) x 100)/0.2 ≤ 20 (%/mm) is satisfied throughout said measurement region.
Random-heterophasic propylene copolymer comprising a. 75.0 - 90.0 wt.-% of a random propylene copolymer (A) as matrix and b. 10.0 - 25.0 wt.-% of a elastomeric propylene copolymer (B) being dispersed in (A), wherein the random-heterophasic propylene copolymer has at least two glass transition temperatures Tg and Tg determined by dynamic mechanical thermal analysis according to ISO 6721-7, wherein the first glass transition temperature Tg relates to the matrix (A) while the second glass transition temperature Tg relates to the dispersed elastomeric propylene copolymer (B), wherein further the second glass transition temperature fulfils the inequation (I), Tg 2 / ° C > 14.0 − 2.1 * C XCS / wt . − % wherein Tg is the second glass transition temperature of the random-heterophasic propylene copolymer and C(XCS) is the comonomer content in [wt.-%] of the xylene cold soluble fraction (XCS) of the random-heterophasic propylene copolymer, wherein the random-heterophasic propylene copolymer is characterised by a xylene soluble content determined according to ISO16152 (25 °C) in the range of 18.0 - 28.0 wt.-%, wherein said fraction soluble in xylene (i) is further characterised by an intrinsic viscosity (IV) in the range of 1.70 - 2.50 dl/g when measured in Decalin according to ISO 1628, and wherein the random propylene copolymer (A) is characterised by a comonomer content in the range of 3.0 - 4.0 wt.-%. a. 75.0 - 90.0 wt.-% of a random propylene copolymer (A) as matrix and b. 10.0 - 25.0 wt.-% of a elastomeric propylene copolymer (B) being dispersed in (A), wherein the random-heterophasic propylene copolymer has at least two glass transition temperatures Tg and Tg determined by dynamic mechanical thermal analysis according to ISO 6721-7, wherein the first glass transition temperature Tg relates to the matrix (A) while the second glass transition temperature Tg relates to the dispersed elastomeric propylene copolymer (B), wherein further the second glass transition temperature fulfils the inequation (I), Tg 2 / ° C > 14.0 − 2.1 * C XCS / wt . − % wherein Tg is the second glass transition temperature of the random-heterophasic propylene copolymer and C(XCS) is the comonomer content in [wt.-%] of the xylene cold soluble fraction (XCS) of the random-heterophasic propylene copolymer, wherein the random-heterophasic propylene copolymer is characterised by a xylene soluble content determined according to ISO16152 (25 °C) in the range of 18.0 - 28.0 wt.-%, wherein said fraction soluble in xylene (i) is further characterised by an intrinsic viscosity (IV) in the range of 1.70 - 2.50 dl/g when measured in Decalin according to ISO 1628, and wherein the random propylene copolymer (A) is characterised by a comonomer content in the range of 3.0 - 4.0 wt.-%.
A device for puncturing a tire of a fleeing vehicle, comprising: - at least one puncturing module having a lower face (I); - a support for said puncturing module(s) having an upper face (S); - an interfacial zone (ZI) in which the faces (I) and (S) face each other; - said puncturing module(s) comprising at least two puncturing members , means for grouping the puncturing members allowing them to be kept sufficiently spaced to limit their number, but sufficiently close for at least one puncturing member to damage said tire of said fleeing vehicle, and at least two positioning means of the puncturing members holding the puncturing members in a position allowing them to present the puncturing member to said tire at the desired angle, while being adapted and configured to permit the detachment of said puncturing members , - said puncturing module or modules and said support being connected by a connecting means which forms a favoured rupture zone having the capacity to break when a fleeing vehicle passes or when the support is reloaded in puncturing module or modules , situated in said interface zone ZI ; characterized in that : - said at least two puncturing members are detachable from the corresponding puncturing module ; and - said means for grouping the puncturing members is a carrier plate. - at least one puncturing module having a lower face (I); - a support for said puncturing module(s) having an upper face (S); - an interfacial zone (ZI) in which the faces (I) and (S) face each other; - said puncturing module(s) comprising at least two puncturing members , means for grouping the puncturing members allowing them to be kept sufficiently spaced to limit their number, but sufficiently close for at least one puncturing member to damage said tire of said fleeing vehicle, and at least two positioning means of the puncturing members holding the puncturing members in a position allowing them to present the puncturing member to said tire at the desired angle, while being adapted and configured to permit the detachment of said puncturing members , - said puncturing module or modules and said support being connected by a connecting means which forms a favoured rupture zone having the capacity to break when a fleeing vehicle passes or when the support is reloaded in puncturing module or modules , situated in said interface zone ZI ; - said at least two puncturing members are detachable from the corresponding puncturing module ; and - said means for grouping the puncturing members is a carrier plate.
A resin composition, comprising: an acrylic-silicone copolymer (A); a halogen-free epoxy resin (B); a cyanic acid ester compound (C) and/or a phenol resin (D); an inorganic filler (E); and a maleimide compound (F), wherein the acrylic-silicone copolymer (A) is fine particles, and the fine particles of the acrylic-silicone copolymer (A) have an average primary particle size of 0.10 to 1.0 μm, wherein the maleimide compound (F) comprises a compound represented by the following formula : wherein R 13 each independently represents a hydrogen atom or a methyl group; and n represents an integer of 1 or more, wherein a content of the maleimide compound (F) is 3 to 50 parts by mass based on 100 parts by mass of the total of the halogen-free epoxy resin (B), the cyanic acid ester compound (C), the phenol resin (D), and the maleimide compound (F). an acrylic-silicone copolymer (A); a halogen-free epoxy resin (B); a cyanic acid ester compound (C) and/or a phenol resin (D); an inorganic filler (E); and a maleimide compound (F), wherein the acrylic-silicone copolymer (A) is fine particles, and the fine particles of the acrylic-silicone copolymer (A) have an average primary particle size of 0.10 to 1.0 μm, wherein the maleimide compound (F) comprises a compound represented by the following formula : wherein R 13 each independently represents a hydrogen atom or a methyl group; and n represents an integer of 1 or more, wherein a content of the maleimide compound (F) is 3 to 50 parts by mass based on 100 parts by mass of the total of the halogen-free epoxy resin (B), the cyanic acid ester compound (C), the phenol resin (D), and the maleimide compound (F).
A method for a first managed forwarding element, MFE, executing on a first host computer , the method of forwarding data messages to containers (C1-C5) executing on the first host computer , the method comprising: receiving a data message comprising a logical context tag that identifies a logical port of a particular logical forwarding element implemented by a plurality of MFEs that include the first MFE and that execute on a plurality of host computers including the first host computer ; adding a local tag (T1) to the data message , wherein the local tag (T1) is based on the logical context tag and is associated with the particular logical forwarding element , wherein the particular logical forwarding element is one of a plurality of logical forwarding elements to which one or more containers (C1-C5) executing on an operating system of a container virtual machine, VM, logically connect, and wherein the container VM executes on the first computer and connects to the first MFE ; and delivering the data message along with the local tag (T1) to the container VM without any logical context, wherein a second MFE operating on the container VM uses the local tag (T1) to forward the data message to a particular container (C1) of a plurality of containers (C1-C5) operating on the container VM by mapping the local tag (T1) and a destination address of the data message to the particular container (C1), wherein the plurality of containers (C1-C5) connect to the second MFE via interfaces of the containers (C1-C5) and the particular container (C1) is the destination of the data message. receiving a data message comprising a logical context tag that identifies a logical port of a particular logical forwarding element implemented by a plurality of MFEs that include the first MFE and that execute on a plurality of host computers including the first host computer ; adding a local tag (T1) to the data message , wherein the local tag (T1) is based on the logical context tag and is associated with the particular logical forwarding element , wherein the particular logical forwarding element is one of a plurality of logical forwarding elements to which one or more containers (C1-C5) executing on an operating system of a container virtual machine, VM, logically connect, and wherein the container VM executes on the first computer and connects to the first MFE ; and delivering the data message along with the local tag (T1) to the container VM without any logical context, wherein a second MFE operating on the container VM uses the local tag (T1) to forward the data message to a particular container (C1) of a plurality of containers (C1-C5) operating on the container VM by mapping the local tag (T1) and a destination address of the data message to the particular container (C1), wherein the plurality of containers (C1-C5) connect to the second MFE via interfaces of the containers (C1-C5) and the particular container (C1) is the destination of the data message.
Apparatus for facilitating the insertion of a tool into an interior portion of a body of a subject, comprising: a tube , shaped to define a tube lumen of the tube and comprising a distal portion that comprises a plurality of articulated sections ; a ribbon that passes longitudinally through the tube lumen and is connected to a distalmost one of the articulated sections, wherein the ribbon has a curved cross-section; and a control handle disposed at a proximal end of the tube, the control handle being configured to flex the distal portion of the tube by pulling the ribbon and to unflex the distal portion of the tube by pushing the ribbon. a tube , shaped to define a tube lumen of the tube and comprising a distal portion that comprises a plurality of articulated sections ; a ribbon that passes longitudinally through the tube lumen and is connected to a distalmost one of the articulated sections, wherein the ribbon has a curved cross-section; and a control handle disposed at a proximal end of the tube, the control handle being configured to flex the distal portion of the tube by pulling the ribbon and to unflex the distal portion of the tube by pushing the ribbon.
A trailer in the form of a transport engineless refrigeration unit, the trailer comprising: a kingpin comprising an integrated sensor arranged to measure a force applied to the kingpin, and a data connection arranged to transmit data of a force measured by the integrated sensor, a control unit arranged to receive the data of a force measured by the integrated sensor, a refrigeration unit , a battery arranged to power the refrigeration unit, the control unit and/or the integrated sensor of the kingpin; and a generator arranged to generate power from an axle of the trailer to charge the battery, wherein the control unit is configured to control when the generator generates power and/or to what magnitude the generator generates power based at least in part on data of a force measured by the integrated sensor of the kingpin. a kingpin comprising an integrated sensor arranged to measure a force applied to the kingpin, and a data connection arranged to transmit data of a force measured by the integrated sensor, a control unit arranged to receive the data of a force measured by the integrated sensor, a refrigeration unit , a battery arranged to power the refrigeration unit, the control unit and/or the integrated sensor of the kingpin; and a generator arranged to generate power from an axle of the trailer to charge the battery, wherein the control unit is configured to control when the generator generates power and/or to what magnitude the generator generates power based at least in part on data of a force measured by the integrated sensor of the kingpin.
A cap for forming a sealed cavity around an end of a fastener , the cap comprising a cap body having a collar portion terminating at a rim which surrounds an opening for receiving the end of the fastener, the collar portion having an internal face and an outer face, the collar portion having three, four, five, six or seven discrete contact regions distributed around the internal face thereof, each contact region being arranged to contact the end of the fastener when the collar portion is installed on the end of the fastener, wherein the internal face and the outer face of the collar portion each has a lobed shape in cross-section such that a radially outwardly bulging lobe extends between each neighbouring pair of contact regions, and wherein the lobed shape of the internal face of the collar portion corresponds with the lobed shape of the outer face of the collar portion.
An one-pack type dentinal tubule occlusion material comprising: inorganic particles (B) having an average particle diameter of 0.6 to 10 μm as measured by laser diffraction-scattering and reactive with water to form apatite; and a non-aqueous dispersant (C), wherein the inorganic particles (B) comprise a mixture of basic calcium phosphate particles (b1) and poorly-soluble calcium phosphate particles (b2), or a mixture of the poorly-soluble calcium phosphate particles (b2) and a phosphorus-free calcium compound (b3), and a Ca/P ratio in the total of the particles (b1) and the particles (b2), or in the total of the particles (b2) and the compound (b3) is 1.2 to 2.0, or the inorganic particles (B) comprise a mixture of basic calcium phosphate particles (b1), poorly-soluble calcium phosphate particles (b2) and a phosphorus-free calcium compound (b3), and a Ca/P ratio in the total of the particles (b1), the particles (b2) and the compound (b3) is 1.5 to 3.0; characterised in that the one-pack type dentinal tubule occlusion material is non-aqueous and comprises fluorapatite particles (A) having an average particle diameter of 0.6 to 10 μm as measured by laser diffraction-scattering. the inorganic particles (B) comprise a mixture of basic calcium phosphate particles (b1) and poorly-soluble calcium phosphate particles (b2), or a mixture of the poorly-soluble calcium phosphate particles (b2) and a phosphorus-free calcium compound (b3), and a Ca/P ratio in the total of the particles (b1) and the particles (b2), or in the total of the particles (b2) and the compound (b3) is 1.2 to 2.0, or the inorganic particles (B) comprise a mixture of basic calcium phosphate particles (b1), poorly-soluble calcium phosphate particles (b2) and a phosphorus-free calcium compound (b3), and a Ca/P ratio in the total of the particles (b1), the particles (b2) and the compound (b3) is 1.5 to 3.0; characterised in that the one-pack type dentinal tubule occlusion material is non-aqueous and comprises fluorapatite particles (A) having an average particle diameter of 0.6 to 10 μm as measured by laser diffraction-scattering.
A seat comprising a seat frame , a seat back and an energy absorbing device wherein the energy absorbing device comprises a first connector and a second connector , wherein the first connector is for connection to the base of the seat back and the second connector is for connection to the frame , wherein the first connector is moveable relative to the second connector , wherein the energy absorbing device further comprises at least two resiliently deformable members , which are compressed when the first connector is moved away from the second connector , characterised in that the at least two resiliently deformable members comprise a polymer material and are separated by a joining member .
A cooking appliance comprising a housing , a cooking chamber which is arranged in the housing and has a cooking chamber opening , and comprising a door assigned to the cooking chamber opening , the door being pivotable about an axis of rotation arranged on the housing in a movement region between a closed position and an opening position of the door , the cooking chamber being closed in the closed position of the door and accessible in the opening position of the door , characterized in that, on the housing , a first drive unit and a second drive unit are each connected to the door in a force-transmitting manner on the side of the axis of rotation by means of a common coupling device for automatic movement of the door , the door being movable by means of the first drive unit in a first movement portion of the movement region and by means of the second drive unit in a second movement portion of the movement region of the door .