mhurhangee/ep-ind-claims huggingface dataset:
Method for producing mouldings from a carbon matrix reinforced with carbon fibre bundles, comprising the following steps: • producing or providing bundles of parallel carbon fibres held together by a dimensionally stable cured, carbonisable binder, wherein the fibre bundles are produced by impregnating at least one filament strand, which comprises a plurality of parallel carbon fibre filaments, with a carbonisable binder to produce a prepreg, and by compressing at least one impregnated filament strand or a plurality of impregnated filament strands arranged in parallel in order to form a fabric web consisting of parallel filaments (UD fabric) having a defined thickness, and in the process curing the binder by heat treatment so as to obtain a dimensionally stable fabric web of a defined thickness, and of cutting the UD fabric web, which may optionally be cut into individual strips, to form segments (fibre bundles) of a defined width and length, and wherein the bundles have a specifically set, defined length, width and thickness • producing a moulding composition by mixing the fibre bundles, a carbonisable matrix former and optional auxiliaries • producing a green body that is close to a final contour by compressing the moulding composition in a compression mould that is close to the final contour at a high temperature, thus curing the carbonisable matrix former, and subsequently removing said body from the compression mould • carbonising the green body to form a carbonised moulding • mechanically re-working the carbonised moulding, if necessary • compacting the carbonised moulding by depositing a carbon matrix by means of CVI methods. • producing or providing bundles of parallel carbon fibres held together by a dimensionally stable cured, carbonisable binder, wherein the fibre bundles are produced by impregnating at least one filament strand, which comprises a plurality of parallel carbon fibre filaments, with a carbonisable binder to produce a prepreg, and by compressing at least one impregnated filament strand or a plurality of impregnated filament strands arranged in parallel in order to form a fabric web consisting of parallel filaments (UD fabric) having a defined thickness, and in the process curing the binder by heat treatment so as to obtain a dimensionally stable fabric web of a defined thickness, and of cutting the UD fabric web, which may optionally be cut into individual strips, to form segments (fibre bundles) of a defined width and length, and wherein the bundles have a specifically set, defined length, width and thickness • producing a moulding composition by mixing the fibre bundles, a carbonisable matrix former and optional auxiliaries • producing a green body that is close to a final contour by compressing the moulding composition in a compression mould that is close to the final contour at a high temperature, thus curing the carbonisable matrix former, and subsequently removing said body from the compression mould • carbonising the green body to form a carbonised moulding • mechanically re-working the carbonised moulding, if necessary • compacting the carbonised moulding by depositing a carbon matrix by means of CVI methods.
An apparatus comprising: an optical network unit, ONU (120, 200), configured to couple to an optical line terminal, OLT, and comprising an ONU management control interface, OMCI, management entity, ME, wherein the OMCI ME comprises a plurality of attributes that support a plurality of security features for upstream transmissions between the ONU and the OLT, wherein the attributes comprising an OLT authentication response table attribute for specifying a response to be used in an OLT authentication function, an OLT authentication response status attribute for controlling and reporting the status of the OLT authentication response table attribute during the OLT authentication function; wherein the value false of the OLT authentication response status attribute indicates that the OLT authentication response table attribute is not complete, the value true of the OLT authentication response status attribute indicates that the OLT authentication response table attribute is complete; and wherein the attributes are communicated via an OMCI channel between the ONU (120, 200) and the OLT and provide the security features for the ONU (120, 200) and the OLT. an optical network unit, ONU (120, 200), configured to couple to an optical line terminal, OLT, and comprising an ONU management control interface, OMCI, management entity, ME, wherein the OMCI ME comprises a plurality of attributes that support a plurality of security features for upstream transmissions between the ONU and the OLT, wherein the attributes comprising an OLT authentication response table attribute for specifying a response to be used in an OLT authentication function, an OLT authentication response status attribute for controlling and reporting the status of the OLT authentication response table attribute during the OLT authentication function; wherein the value false of the OLT authentication response status attribute indicates that the OLT authentication response table attribute is not complete, the value true of the OLT authentication response status attribute indicates that the OLT authentication response table attribute is complete; and wherein the attributes are communicated via an OMCI channel between the ONU (120, 200) and the OLT and provide the security features for the ONU (120, 200) and the OLT.
Method for assigning the inductance or admittance to the rotor position of a synchronous machine, comprising a stator and a rotor with or without permanent magnets, wherein the synchronous machine is driven via clocked clamping voltages and the inductance or admittance is calculated from these and the measured current response, the variation of the inductance or admittance over the rotor rotation under the boundary condition of an at least two-dimensional current vector unchanged in stator coordinates being used as key information for position allocation, characterized in that only the measured inductance or admittance and the measured current vector in stator coordinates and stored position allocation parameters are used to calculate the rotor position.
A multimedia-enabled device having a multimedia framework including an integration layer and a higher-level application layer, the integration layer of the multimedia framework comprising: a plurality of predefined media processing components having an input/output interface configurable based on the type and format of media content delivered to the multimedia-enabled device during a streaming media session, the predefined media processing components operable to provide predefined media processing functions to the higher-level application layer for enabling playback of the media content; and a streaming media management component operable to: establish and manage the streaming media session; characterised in that further comprising: configure one or more content pipes used during the streaming media session to access packets received by one or more sockets, the packets being encapsulated according to a real-time network transport protocol; map the one or more content pipes to the one or more sockets; and process packets retrieved from the one or more content pipes such that the media content is provided to corresponding ones of the predefined media processing components in accordance with their configured input/output interfaces. a plurality of predefined media processing components having an input/output interface configurable based on the type and format of media content delivered to the multimedia-enabled device during a streaming media session, the predefined media processing components operable to provide predefined media processing functions to the higher-level application layer for enabling playback of the media content; and a streaming media management component operable to: establish and manage the streaming media session; characterised in that further comprising: configure one or more content pipes used during the streaming media session to access packets received by one or more sockets, the packets being encapsulated according to a real-time network transport protocol; map the one or more content pipes to the one or more sockets; and process packets retrieved from the one or more content pipes such that the media content is provided to corresponding ones of the predefined media processing components in accordance with their configured input/output interfaces. establish and manage the streaming media session; characterised in that further comprising: configure one or more content pipes used during the streaming media session to access packets received by one or more sockets, the packets being encapsulated according to a real-time network transport protocol; map the one or more content pipes to the one or more sockets; and process packets retrieved from the one or more content pipes such that the media content is provided to corresponding ones of the predefined media processing components in accordance with their configured input/output interfaces.
Door-lock for household appliances, comprising: - a housing having an opening for the insertion of a hook carried by the door of the appliance, - a cam rotatable relative to the housing about a first axis between a retaining position and a release position, wherein in the retaining position the cam is adapted to lock said hook in a closed-door position, - a main slider cooperating with said cam through a transmission mechanism (26, 34) and movable along a first direction (D') and along a second direction (D") as a consequence of the rotation of the cam between the retaining position and the release position, and - a locking pin adapted to lock the movement of the main slider in at least one of said first direction (D') or second direction (D"), characterized by a force-reducing mechanism arranged between the main slider and the locking pin and operating to reduce the locking force transferred from the main slider to the locking pin, wherein the force-reducing mechanism comprises a locking wheel connected to said main slider through a chain of gear wheels (52, 54, 58), and wherein said locking pin cooperates with said locking wheel. - a housing having an opening for the insertion of a hook carried by the door of the appliance, - a cam rotatable relative to the housing about a first axis between a retaining position and a release position, wherein in the retaining position the cam is adapted to lock said hook in a closed-door position, - a main slider cooperating with said cam through a transmission mechanism (26, 34) and movable along a first direction (D') and along a second direction (D") as a consequence of the rotation of the cam between the retaining position and the release position, and - a locking pin adapted to lock the movement of the main slider in at least one of said first direction (D') or second direction (D"),
An automatic or semiautomatic rifle comprising: a receiver (14, 16), a bolt carrier movably coupled to the receiver (14, 16), an action system connected to the bolt carrier for cycling the bolt carrier in the receiver (14, 16), a receiver extension connected to the receiver (14, 16), at least part of the action system extending into the receiver extension, a folding stock having a base portion and a folding portion, the base portion mating the folding stock to the receiver (14, 16), the folding portion being joined to the base portion by a coupling that allows the folding portion to be folded, or rotated relative to the base portion from a deployed position to a folded or stowed position, characterized in that the receiver extension is located within the base portion of the folding stock and the folding coupling is located between a rear of the receiver extension and the folding portion. a receiver (14, 16), a bolt carrier movably coupled to the receiver (14, 16), an action system connected to the bolt carrier for cycling the bolt carrier in the receiver (14, 16), a receiver extension connected to the receiver (14, 16), at least part of the action system extending into the receiver extension, a folding stock having a base portion and a folding portion, the base portion mating the folding stock to the receiver (14, 16), the folding portion being joined to the base portion by a coupling that allows the folding portion to be folded, or rotated relative to the base portion from a deployed position to a folded or stowed position, characterized in that the receiver extension is located within the base portion of the folding stock and the folding coupling is located between a rear of the receiver extension and the folding portion.
An arrangement for mixing reducing agent with the exhaust gas of an internal combustion engine in the exhaust system of the engine before selective catalytic reduction, characterized in that the arrangement comprises a flange having an inner circumference and an outer circumference, the flange being arrangeable between two parts of the exhaust system upstream from a catalytic converter, the arrangement further comprising at least one rod extending inwards from the inner circumference of the flange, at least one nozzle being arranged in the rod for injecting reducing agent into the exhaust gas flow, and at least one delivery duct for delivering reducing agent to the nozzle.
A point to point radio link arrangement (100, 600) comprising: - at least two link nodes (110, 120; 610, 620), wherein: • a first link node (110, 610) is arranged to obtain first link data over a first carrier frequency; and • a second link node (120, 620) is arranged to obtain second link data over a second carrier frequency separate from the first carrier frequency; and - a classification unit (130, 630) arranged to: • obtain the link data (X1, X2) from the at least two link nodes (110, 120; 610, 620); • determine if the link data (X1, X2) are affected by either a frequency dependent disturbance event or by a frequency independent disturbance event by comparing the first link data to the second link data over a time window; and • output disturbance event decision data in dependence of whether the link data (X1, X2) have been determined to be affected by either a frequency dependent disturbance event or a frequency independent disturbance event. - at least two link nodes (110, 120; 610, 620), wherein: • a first link node (110, 610) is arranged to obtain first link data over a first carrier frequency; and • a second link node (120, 620) is arranged to obtain second link data over a second carrier frequency separate from the first carrier frequency; and • a first link node (110, 610) is arranged to obtain first link data over a first carrier frequency; and • a second link node (120, 620) is arranged to obtain second link data over a second carrier frequency separate from the first carrier frequency; - a classification unit (130, 630) arranged to: • obtain the link data (X1, X2) from the at least two link nodes (110, 120; 610, 620); • determine if the link data (X1, X2) are affected by either a frequency dependent disturbance event or by a frequency independent disturbance event by comparing the first link data to the second link data over a time window; and • output disturbance event decision data in dependence of whether the link data (X1, X2) have been determined to be affected by either a frequency dependent disturbance event or a frequency independent disturbance event. • obtain the link data (X1, X2) from the at least two link nodes (110, 120; 610, 620); • determine if the link data (X1, X2) are affected by either a frequency dependent disturbance event or by a frequency independent disturbance event by comparing the first link data to the second link data over a time window; and • output disturbance event decision data in dependence of whether the link data (X1, X2) have been determined to be affected by either a frequency dependent disturbance event or a frequency independent disturbance event.
An apparatus, comprising: a base support including a support element portion and an encasement portion, the support element portion having a first end portion and a second end portion and a top surface disposed at an angle relative to a bottom surface, the second end portion of the support element portion having a height greater than a height of the first end portion of the support element portion; and a support pillow member, the base support defining an interior region between the encasement portion and the support element portion, the support pillow member being disposable within the interior region, wherein a receiving portion is defined by the base support and the support pillow member on each side of the support pillow member when the support pillow member is disposed within the interior region, the receiving portions being usable as a relief area for a user to place a portion of a user's arm and/or shoulder. a base support including a support element portion and an encasement portion, the support element portion having a first end portion and a second end portion and a top surface disposed at an angle relative to a bottom surface, the second end portion of the support element portion having a height greater than a height of the first end portion of the support element portion; and a support pillow member, the base support defining an interior region between the encasement portion and the support element portion, the support pillow member being disposable within the interior region, wherein a receiving portion is defined by the base support and the support pillow member on each side of the support pillow member when the support pillow member is disposed within the interior region, the receiving portions being usable as a relief area for a user to place a portion of a user's arm and/or shoulder.
A hollow-fiber membrane element for forward osmosis comprising a porous distribution pipe and a wound hollow-fiber membrane body which is a both open-ended hollow-fiber membrane arranged in an intersecting manner by winding the hollow-fiber membranes around the porous distribution pipe in a helical manner, wherein a) the number of winds per element length in a region from an outermost layer of the wound hollow-fiber membrane body to one eighth to three quarter of the thickness of the wound hollow-fiber membrane body is 0.33 to 1.75, b) the number of winds per element length in a region from an innermost layer of the wound hollow-fiber membrane body to one fourth of the thickness of the wound hollow-fiber membrane body is greater than 1.75, and the wound hollow-fiber membrane body has a length of 0.2 to 1.6 m. a) the number of winds per element length in a region from an outermost layer of the wound hollow-fiber membrane body to one eighth to three quarter of the thickness of the wound hollow-fiber membrane body is 0.33 to 1.75, b) the number of winds per element length in a region from an innermost layer of the wound hollow-fiber membrane body to one fourth of the thickness of the wound hollow-fiber membrane body is greater than 1.75, and the wound hollow-fiber membrane body has a length of 0.2 to 1.6 m.
Coriolis mass flowmeter with at least four bent measuring tubes (2a, 2b, 2c, 2d), at least one actuator assembly and at least one sensor assembly, wherein a first measuring tube and a second measuring tube are located in a common first plane (E 1), and a third measuring tube and a fourth measuring tube are located in a common second plane (E 2) wherein the first plane and the second plane run parallel to one another, wherein the measuring tubes located in a common plane are arranged over one another, wherein a collector joins all four measuring tubes (2a, 2b, 2c, 2d) together in terms of flow at an input end and at an output end, and wherein the geometry and/or the surface characteristics of the measuring tubes (2a, 2b, 2c, 2d) have been set in such a manner that the tube flow resistance of all four measuring tubes (2a, 2b, 2c, 2d) is identical, characterized in that the bending radii (R 1, R 2) of the measuring tubes (2a, 2b; 2c, 2d) located in each of the common planes (E 1, E 2) alternately complement one another so that the length of the measuring tubes (2a, 2b, 2c, 2d) is identical, that the first measuring tube and the fourth measuring tube begin with an arch-shaped portion with the radius (R 2), then two arch-shaped portions with the radius (R 1) follow and finally there is an arch shape with the radius (R 2), and that the second measuring tube and the third measuring tube begin with an arch-shaped portion with the radius (R 1), then two arch-shaped portions with the radius (R 2) follow and finally there is an arch-shaped portion with the radius (R 1).
A process for the production of a zeolitic material having an MWW framework structure comprising YO 2 and B 2 O 3, wherein Y is Si, said process comprising (i) preparing a mixture comprising one or more sources for YO 2, one or more sources for B 2 O 3, one or more organotemplates, and seed crystals, (ii) crystallizing the mixture obtained in (i) for obtaining a layered precursor of the MWW framework structure, (iii) calcining the layered precursor obtained in (ii) for obtaining the zeolitic material having an MWW framework structure, wherein the one or more organotemplates have the formula R 1 R 2 R 3 N wherein R 1 is cyclohexyl, and wherein R 2 and R 3 are independently from each other H, and wherein the mixture prepared in (i) and crystallized in (ii) contains 35 wt.-% or less of H 2 O based on 100 wt.-% of YO 2 contained in the mixture prepared in (i) and crystallized in (ii), wherein the layered precursor obtained in (ii) is B-MCM-22, wherein the zeolitic material having an MWW framework structure obtained in (iii) is B-MCM-22, wherein the mixture prepared in (i) and crystallized in (ii) contains 5 wt.-% or less of fluoride calculated as the element and based on 100 wt.-% of YO 2. (i) preparing a mixture comprising one or more sources for YO 2, one or more sources for B 2 O 3, one or more organotemplates, and seed crystals, (ii) crystallizing the mixture obtained in (i) for obtaining a layered precursor of the MWW framework structure, (iii) calcining the layered precursor obtained in (ii) for obtaining the zeolitic material having an MWW framework structure, wherein the one or more organotemplates have the formula R 1 R 2 R 3 N wherein R 1 is cyclohexyl, and wherein R 2 and R 3 are independently from each other H, and wherein the mixture prepared in (i) and crystallized in (ii) contains 35 wt.-% or less of H 2 O based on 100 wt.-% of YO 2 contained in the mixture prepared in (i) and crystallized in (ii), wherein the layered precursor obtained in (ii) is B-MCM-22, wherein the zeolitic material having an MWW framework structure obtained in (iii) is B-MCM-22, wherein the mixture prepared in (i) and crystallized in (ii) contains 5 wt.-% or less of fluoride calculated as the element and based on 100 wt.-% of YO 2. wherein R 1 is cyclohexyl, and wherein R 2 and R 3 are independently from each other H, and wherein the mixture prepared in (i) and crystallized in (ii) contains 35 wt.-% or less of H 2 O based on 100 wt.-% of YO 2 contained in the mixture prepared in (i) and crystallized in (ii), wherein the layered precursor obtained in (ii) is B-MCM-22, wherein the zeolitic material having an MWW framework structure obtained in (iii) is B-MCM-22, wherein the mixture prepared in (i) and crystallized in (ii) contains 5 wt.-% or less of fluoride calculated as the element and based on 100 wt.-% of YO 2.