mhurhangee/patent-ind-claim-en huggingface dataset:
A drainable ostomy pouch , comprising: a bodyside wall and an outer wall defining a cavity therebetween for collecting stomal discharge; a downwardly extending outlet portion terminating in an outlet opening for draining stomal discharge contents collected in the cavity; and an outlet device attached to the outlet portion , wherein the outlet device comprises a closure member and a slider , characterised in that the closure member comprises: a body including first opening , second opening , and four bend zones defined therebetween; and at least one bar arranged on the body proximate the second opening ; wherein the closure member is configured to bend along the four bend zones to provide a discharge opening having four angled corners in an open position and to be pressed flat in a closed position; wherein the slider is configured slide over the at least one bar and engage with the closure member to close the discharge opening. a bodyside wall and an outer wall defining a cavity therebetween for collecting stomal discharge; a downwardly extending outlet portion terminating in an outlet opening for draining stomal discharge contents collected in the cavity; and an outlet device attached to the outlet portion , wherein the outlet device comprises a closure member and a slider , characterised in that the closure member comprises: a body including first opening , second opening , and four bend zones defined therebetween; and at least one bar arranged on the body proximate the second opening ; a body including first opening , second opening , and four bend zones defined therebetween; and at least one bar arranged on the body proximate the second opening ; wherein the closure member is configured to bend along the four bend zones to provide a discharge opening having four angled corners in an open position and to be pressed flat in a closed position; wherein the slider is configured slide over the at least one bar and engage with the closure member to close the discharge opening.
A mixing tool, in particular a mixing blade, having a scraping section on which a scraping edge for scraping mixed material from a wall of a mixing container of the mixing device is arranged, the scraping section being formed from a metallic core which is surrounded by a plastic jacket , and the scraping edge being formed by at least one hard metal element , characterized in that between the at least one hard metal element and the metal core an adhesive which glues the scraping edge to the scraping section is arranged, and that the at least one hard metal element has a recess in which the metal core is partially arranged.
A ram air turbine comprising: a turbine comprising a blade ; a strut removably coupled to the turbine and comprising a gearbox section and a drive section ; a turbine shaft and a bevel gear located in the gearbox section of the strut , wherein the turbine shaft comprises an internally splined cavity positioned at an end of the strut opposite the turbine ; a cover located at an end of the gearbox section of the strut , wherein the cover is secured to an end of the strut opposite the turbine by a screw; characterised by the cover comprising a test plug having a static seal , wherein the test plug comprises a threaded portion that engages with a corresponding threaded portion of the cover , the static seal provides sealing between the test plug and the cover , and the test plug is removable from the cover to expose the internally splined cavity ; and by the turbine shaft further comprising a dynamic seal that provides sealing between the turbine shaft and the cover . a turbine comprising a blade ; a strut removably coupled to the turbine and comprising a gearbox section and a drive section ; a turbine shaft and a bevel gear located in the gearbox section of the strut , wherein the turbine shaft comprises an internally splined cavity positioned at an end of the strut opposite the turbine ; a cover located at an end of the gearbox section of the strut , wherein the cover is secured to an end of the strut opposite the turbine by a screw; characterised by the cover comprising a test plug having a static seal , wherein the test plug comprises a threaded portion that engages with a corresponding threaded portion of the cover , the static seal provides sealing between the test plug and the cover , and the test plug is removable from the cover to expose the internally splined cavity ; and by the turbine shaft further comprising a dynamic seal that provides sealing between the turbine shaft and the cover .
A method of manufacturing a three-dimensional object by means of a layer-wise solidification of a building material in powder form by means of electromagnetic radiation, in particular laser radiation, comprising the steps: scanning positions of an applied layer of the building material in powder form that correspond to a cross-section of the object to be manufactured by means of an electromagnetic beam from a radiation source in order to selectively solidify the building material in powder form , passing a gas flow over the applied layer during the scanning with the electromagnetic beam and irregularity determination of the existence of a process irregularity with respect to at least one process parameter in the manufacture, wherein during the scanning with the electromagnetic beam the scanning process is interrupted at at least one current position of the cross-section to be solidified based on a result of the irregularity determination, wherein the electromagnetic beam is interrupted for a time period of at most 70 ms, and wherein a process irregularity is an occurrence and/or an increased occurrence of particles such as splashes, smoke, vapors or the like and/or a change of the emission of radiation from the position of interaction of the electromagnetic beam on the building material during the scanning and/or a high surface roughness of an already solidified portion of the object to be manufactured. scanning positions of an applied layer of the building material in powder form that correspond to a cross-section of the object to be manufactured by means of an electromagnetic beam from a radiation source in order to selectively solidify the building material in powder form , passing a gas flow over the applied layer during the scanning with the electromagnetic beam and irregularity determination of the existence of a process irregularity with respect to at least one process parameter in the manufacture, wherein during the scanning with the electromagnetic beam the scanning process is interrupted at at least one current position of the cross-section to be solidified based on a result of the irregularity determination, wherein the electromagnetic beam is interrupted for a time period of at most 70 ms, and wherein a process irregularity is an occurrence and/or an increased occurrence of particles such as splashes, smoke, vapors or the like and/or a change of the emission of radiation from the position of interaction of the electromagnetic beam on the building material during the scanning and/or a high surface roughness of an already solidified portion of the object to be manufactured.
Method for controlling an at least partially autonomously driving ego vehicle , wherein at least the surroundings, legal driving conditions and the traffic in front of the ego vehicle in a current lane (F1) are detected by sensors , characterised in that a. a first query (A1) is carried out about a possible increase in the speed (v m ) while maintaining the current lane and a target acceleration is calculated when it is detected that the possible speed (v m ) is greater than the current speed, and b. a second query (A2) is carried out as to whether a vehicle is located on an adjacent lane (F2) within an observation region , whether either an acceleration is carried out with the calculated target acceleration because no vehicle was detected within the observation region or whether no acceleration is carried out with the target acceleration because a vehicle was detected within the observation region . a. a first query (A1) is carried out about a possible increase in the speed (v m ) while maintaining the current lane and a target acceleration is calculated when it is detected that the possible speed (v m ) is greater than the current speed, and b. a second query (A2) is carried out as to whether a vehicle is located on an adjacent lane (F2) within an observation region , whether either an acceleration is carried out with the calculated target acceleration because no vehicle was detected within the observation region or whether no acceleration is carried out with the target acceleration because a vehicle was detected within the observation region .
A catheter comprising: a distal tip ; a polymeric flexible distal end tube comprising a substantially linear state and an irregularly coiled state, said polymeric flexible distal tube comprising a lumen, an inner surface defining said lumen and an outer surface , wherein the inner surface is eccentric to the outer surface; an inner mandrel removably received in said lumen and configured to provide column strength to the polymeric flexible distal end tube in said substantially linear state; and an actuating mechanism configured to transfer the polymeric flexible distal end tube from said substantially linear state to said irregularly coiled state. a distal tip ; a polymeric flexible distal end tube comprising a substantially linear state and an irregularly coiled state, said polymeric flexible distal tube comprising a lumen, an inner surface defining said lumen and an outer surface , wherein the inner surface is eccentric to the outer surface; an inner mandrel removably received in said lumen and configured to provide column strength to the polymeric flexible distal end tube in said substantially linear state; and an actuating mechanism configured to transfer the polymeric flexible distal end tube from said substantially linear state to said irregularly coiled state.
An engine control unit to control an internal combustion engine equipped with a variable valve timing mechanism that can vary the opening timing or the closing timing of an intake valve and alter the actual compression ratio of a cylinder, wherein the engine control unit sets an upper limit on the opening degree of a throttle valve lower in a situation where the actual compression ratio of the cylinder is high than the upper limit on the opening degree of the throttle valve in a situation where the actual compression ratio of the cylinder is low, the engine control unit amends fuel injection amount to be increased so that the air-fuel ratio of a mixture gets rich or temporarily stops fuel injection when the current opening degree of the throttle valve is over the upper limit and besides the difference between the current opening degree of the throttle valve and the upper limit is enlarged to be greater than or equal to a predetermined value; wherein the engine control unit amends fuel injection amount to be increased when the current opening degree of the throttle valve is over the upper limit and besides the difference between the current opening degree of the throttle valve and the upper limit is less than a threshold, the engine control unit temporarily stops fuel injection when the current opening degree of the throttle valve is over the upper limit and besides the difference is greater than or equal to the threshold.
An image sensor comprising: a biometric information acquisition unit configured to acquire biometric information; a storage unit configured to store reference information to be compared with the biometric information; a biometric authentication unit configured to perform biometric authentication by comparing the biometric information with the reference information; and characterized by a living organism determination unit configured to determine whether or not the biometric information is information acquired from a living organism by measuring a dilation/contraction of a pupil or a reflectance of the living organism. a biometric information acquisition unit configured to acquire biometric information; a storage unit configured to store reference information to be compared with the biometric information; a biometric authentication unit configured to perform biometric authentication by comparing the biometric information with the reference information; and characterized by a living organism determination unit configured to determine whether or not the biometric information is information acquired from a living organism by measuring a dilation/contraction of a pupil or a reflectance of the living organism.
A transmission device comprising: an information bit generation unit configured to generate an information bit sequence; a primary code generation unit configured to generate a long-period code; an inversion pattern control unit configured to control a position where a bit is to be inverted in the inversion pattern generated by an inversion pattern generation unit ; a modulation unit configured to modulate the spread data sequence and to transmit the spread data sequence after modulation; a secondary code generation unit configured to generate a secondary code that includes a short-period code having a shorter period than the long-period code and information other than the short-period code; the inversion pattern generation unit configured to generate an inversion pattern used to invert the short-period code included in the secondary code; a spreading unit configured to generate a spread data sequence using the information bit sequence, the secondary code and the long-period code; a code period counting unit configured to count a number of times the short period code is generated and to output the number of times of generation; and a secondary code control unit configured to control a position where information other than the short-period code is inserted between a plurality of the short-period codes for each period of the secondary code depending on the number of times of generation; wherein the spreading unit is configured to generate the spread data sequence using a spreading code in which the long-period code and the secondary code are overlaid. an information bit generation unit configured to generate an information bit sequence; a primary code generation unit configured to generate a long-period code; an inversion pattern control unit configured to control a position where a bit is to be inverted in the inversion pattern generated by an inversion pattern generation unit ; a modulation unit configured to modulate the spread data sequence and to transmit the spread data sequence after modulation; a secondary code generation unit configured to generate a secondary code that includes a short-period code having a shorter period than the long-period code and information other than the short-period code; the inversion pattern generation unit configured to generate an inversion pattern used to invert the short-period code included in the secondary code; a spreading unit configured to generate a spread data sequence using the information bit sequence, the secondary code and the long-period code; a code period counting unit configured to count a number of times the short period code is generated and to output the number of times of generation; and a secondary code control unit configured to control a position where information other than the short-period code is inserted between a plurality of the short-period codes for each period of the secondary code depending on the number of times of generation; wherein the spreading unit is configured to generate the spread data sequence using a spreading code in which the long-period code and the secondary code are overlaid.
A track section adapted to be linked to a plurality of similar track sections to form a track belt for mounting around the outer periphery of vehicle tyres, wherein the track section comprises: - an elongated crossbar member having a tyre-facing inner side and an opposite outer side , wherein a ground engageable support surface is provided on the outer side of the crossbar member, the track section being configured to rest against the ground via this support surface when the track section is in contact with the ground; and - two lateral support members mounted to the crossbar member at opposite end sections thereof, the support members protruding on the inner side of the crossbar member and being spaced apart to allow a tyre to be received between the support members with the crossbar member extending across and being in contact with the envelope surface of the tyre, characterized in that said support surface comprises a first elongated support surface section provided on an elongated first part of the crossbar member and a second elongated support surface section provided on an elongated second part of the crossbar member , the first and second elongated support surface sections extending in parallel with each other in the longitudinal direction of the crossbar member on opposite sides of a longitudinal centre line of the crossbar member , wherein each one of these elongated support surface sections is undulated, at least over a major part of its longitudinal extension, so as to form undulated support surface areas with wave crests and wave troughs extending in the cross-direction of the crossbar member . - an elongated crossbar member having a tyre-facing inner side and an opposite outer side , wherein a ground engageable support surface is provided on the outer side of the crossbar member, the track section being configured to rest against the ground via this support surface when the track section is in contact with the ground; and - two lateral support members mounted to the crossbar member at opposite end sections thereof, the support members protruding on the inner side of the crossbar member and being spaced apart to allow a tyre to be received between the support members with the crossbar member extending across and being in contact with the envelope surface of the tyre, characterized in that said support surface comprises a first elongated support surface section provided on an elongated first part of the crossbar member and a second elongated support surface section provided on an elongated second part of the crossbar member , the first and second elongated support surface sections extending in parallel with each other in the longitudinal direction of the crossbar member on opposite sides of a longitudinal centre line of the crossbar member , wherein each one of these elongated support surface sections is undulated, at least over a major part of its longitudinal extension, so as to form undulated support surface areas with wave crests and wave troughs extending in the cross-direction of the crossbar member .
A capacitive micromachined ultrasonic transducer cell comprising: - a substrate , - a cell membrane opposing the substrate with a gap of a gas or vacuum cavity there between, - a cell floor comprising an upper surface of the substrate , wherein the upper surface of the substrate faces the cavity , - a first electrode (S1) coupled to the cell membrane , - a third electrode (B) embedded into the floor of the cell, - characterized in that the capacitive micromachined transducer cell further comprises, a second electrode (S2) deposited onto the substrate opposing the third electrode (B) on the side opposite to the cavity , and - a dielectric layer sandwiched between and being in direct contact with the second and third electrodes, thereby realizing a capacitive coupling between the second and third electrodes. - a substrate , - a cell membrane opposing the substrate with a gap of a gas or vacuum cavity there between, - a cell floor comprising an upper surface of the substrate , wherein the upper surface of the substrate faces the cavity , - a first electrode (S1) coupled to the cell membrane , - a third electrode (B) embedded into the floor of the cell, - characterized in that the capacitive micromachined transducer cell further comprises, - a dielectric layer sandwiched between and being in direct contact with the second and third electrodes, thereby realizing a capacitive coupling between the second and third electrodes.
A network management system for configuring a plurality of virtual network slices sharing a physical network infrastructure, the network management system comprising means for : applying a classification to network entities within the physical network infrastructure based on configurability of the network entities in the plurality of virtual network slices, the classification defining whether the network entities are visible and/or access-configurable and/or creatable by a slice owner in a virtual network slice and being applied via metadata stored at a physical network datastore within the network management system , and assigning instances of the network entities to at least one virtual network slice based on the classification applied to the network entities. applying a classification to network entities within the physical network infrastructure based on configurability of the network entities in the plurality of virtual network slices, the classification defining whether the network entities are visible and/or access-configurable and/or creatable by a slice owner in a virtual network slice and being applied via metadata stored at a physical network datastore within the network management system , and assigning instances of the network entities to at least one virtual network slice based on the classification applied to the network entities.
A method for transmitting Channel State Information, CSI, by a user equipment, UE, performing communication in a wireless access system supporting cooperative multi-point, CoMP, communication, the method performed by a user equipment and comprising: receiving (S1230) a Channel State Information-Reference Signal, CSI-RS; determining (S1250) overhead of Common Reference Signal Resource Elements, CRS REs, using a number of antenna ports which is the same as a number of antenna ports associated with the CSI-RS; calculating said CSI based on the CSI-RS and the determined overhead of CRS REs; and transmitting (S1270) the CSI calculated based on the CSI-RS and the determined overhead of CRS REs. receiving (S1230) a Channel State Information-Reference Signal, CSI-RS; determining (S1250) overhead of Common Reference Signal Resource Elements, CRS REs, using a number of antenna ports which is the same as a number of antenna ports associated with the CSI-RS; calculating said CSI based on the CSI-RS and the determined overhead of CRS REs; and transmitting (S1270) the CSI calculated based on the CSI-RS and the determined overhead of CRS REs.