mhurhangee/ep-ind-claims huggingface dataset:
An ostomy appliance comprising: - an ostomy wafer; - a cap coupled to the ostomy wafer; - a cap housing; - a collapsed pouch attached to the cap and sealed to it; - a lid restraining the bag in its collapsed state; and - a sealing element held within a cavity of the cap housing; wherein the cap includes an attachment mechanism which attaches to an attachment element of the wafer; the attachment interface being sealed by the sealing element characterized in that the lid is a pressure sensing lid which protrudes in a proximal direction responsive to a pressure from waste content. - an ostomy wafer; - a cap coupled to the ostomy wafer; - a cap housing; - a collapsed pouch attached to the cap and sealed to it; - a lid restraining the bag in its collapsed state; and - a sealing element held within a cavity of the cap housing;
An interference coordination method, comprising: determining, by a first cell, first configuration information of the first cell, wherein the first configuration information comprises a parameter for transmitting uplink control information UCI by a terminal served by the first cell, the parameter comprised in the first configuration information is a parameter configured for the first cell and is a parameter orthogonal to a parameter configured for a second cell, and the second cell is a neighboring cell of the first cell; and notifying, by the first cell, the first configuration information to the served terminal, wherein the determining, by a first cell, first configuration information of the first cell comprises: selecting, by the first cell, a parameter from a first parameter pool, and generating the first configuration information, wherein the first parameter pool comprises a plurality of parameters preconfigured for the first cell and used for transmitting the UCI by the terminal served by the first cell, and any two parameters are orthogonal to each other, wherein the first parameter pool comprises a plurality of sequence codes and a plurality of cyclic shift values, and wherein any two sequence codes comprised in the first parameter pool are orthogonal to each other, or any two cyclic shift values comprised in the first parameter pool are orthogonal to each other. determining, by a first cell, first configuration information of the first cell, wherein the first configuration information comprises a parameter for transmitting uplink control information UCI by a terminal served by the first cell, the parameter comprised in the first configuration information is a parameter configured for the first cell and is a parameter orthogonal to a parameter configured for a second cell, and the second cell is a neighboring cell of the first cell; and notifying, by the first cell, the first configuration information to the served terminal, wherein the determining, by a first cell, first configuration information of the first cell comprises: selecting, by the first cell, a parameter from a first parameter pool, and generating the first configuration information, wherein the first parameter pool comprises a plurality of parameters preconfigured for the first cell and used for transmitting the UCI by the terminal served by the first cell, and any two parameters are orthogonal to each other, wherein the first parameter pool comprises a plurality of sequence codes and a plurality of cyclic shift values, and wherein any two sequence codes comprised in the first parameter pool are orthogonal to each other, or any two cyclic shift values comprised in the first parameter pool are orthogonal to each other.
A pneumatic tire comprising: a tread portion; and a sponge member (20,30,40) extending in a tire circumferential direction and attached to a tire inner peripheral surface of the tread portion over an entire circumference thereof, wherein the sponge member (20,30,40) includes: a base portion attached to the tire inner peripheral surface of the tread portion; a plurality of protrusions (22,42) protruding inward in a tire radial direction from the base portion and extending in a tire width direction, the protrusions (22,42) being formed at intervals in the tire circumferential direction; and a plurality of recesses (23,33) formed between the plurality of protrusions (22,42), and rounded portions are formed in bottom corners of the recesses (23,33), characterized in that a curvature radius of the rounded portions is larger than 25% of a width of the recesses (23,33) in the tire circumferential direction, the recess (23,33) has a bottom portion provided with a pair of rounded portions adjacent to each other in the tire circumferential direction and a base inner peripheral surface positioned on an inner side of the base in the tire radial direction, the base inner peripheral surface extending parallel to the tire inner peripheral surface and connecting the pair of rounded portions to each other in the tire circumferential direction, and the sponge member (20,30,40) has a thickness in the tire radial direction at the base inner peripheral surface. wherein the sponge member (20,30,40) includes: a base portion attached to the tire inner peripheral surface of the tread portion; a plurality of protrusions (22,42) protruding inward in a tire radial direction from the base portion and extending in a tire width direction, the protrusions (22,42) being formed at intervals in the tire circumferential direction; and a plurality of recesses (23,33) formed between the plurality of protrusions (22,42), and a base portion attached to the tire inner peripheral surface of the tread portion; a plurality of protrusions (22,42) protruding inward in a tire radial direction from the base portion and extending in a tire width direction, the protrusions (22,42) being formed at intervals in the tire circumferential direction; and a plurality of recesses (23,33) formed between the plurality of protrusions (22,42), and rounded portions are formed in bottom corners of the recesses (23,33), characterized in that a curvature radius of the rounded portions is larger than 25% of a width of the recesses (23,33) in the tire circumferential direction, the recess (23,33) has a bottom portion provided with a pair of rounded portions adjacent to each other in the tire circumferential direction and a base inner peripheral surface positioned on an inner side of the base in the tire radial direction, the base inner peripheral surface extending parallel to the tire inner peripheral surface and connecting the pair of rounded portions to each other in the tire circumferential direction, and the sponge member (20,30,40) has a thickness in the tire radial direction at the base inner peripheral surface.
Hub carrier for a vehicle, comprising at least one receiving opening in which a wheel bearing, via which at least one wheel hub of the vehicle is to be rotatably mounted on the hub carrier, can be at least partially received, and comprising a centring seat arranged in the receiving opening, by means of which the wheel bearing can be supported in the radial direction on the hub carrier and centred relative to the hub carrier, the centring seat having a plurality of centring surface segments which follow one another in the circumferential direction of the receiving opening and are spaced apart from one another and between which respective recesses of the hub carrier are arranged, characterised in that the recesses are bounded in the axial direction of the receiving opening by the hub carrier.
An expandable vinyl aromatic polymer composition comprising: a) from 67% to 88% by weight of a vinyl aromatic polymer (a); b) from 3% to 8% by weight of an expansion agent (b); c) from 9 to 25% by weight of a vinyl aromatic copolymer (c) containing as dispersed phase from 3 to 9% by weight of a rubbery component; with the condition that the sum of (a), (b) and (c) is 100% by weight. a) from 67% to 88% by weight of a vinyl aromatic polymer (a); b) from 3% to 8% by weight of an expansion agent (b); c) from 9 to 25% by weight of a vinyl aromatic copolymer (c) containing as dispersed phase from 3 to 9% by weight of a rubbery component;
A reservoir configured for use in a thermal system of a vehicle, the reservoir comprising: a first section; and a second section that is joined to the first section at a reservoir interface thereby forming a reservoir that is configured to allow at least one of storage or flow of a liquid medium, wherein the first section includes multiple integrated channels that provide multiple pathways for the flow of the liquid medium, the multiple integrated channels formed in a body of the first section of the reservoir; wherein the first section further comprises: multiple component interfaces configured to allow attachment of multiple components to the reservoir, wherein the integrated channels provide the pathways for the flow of the liquid medium to or from the component interfaces to allow the components to operate cooperatively with the reservoir and the thermal system; and a hose interface configured to allow coupling of a hose to the reservoir to transport the liquid medium to or to receive the liquid medium from another component that is located remotely from the reservoir and coupled to the reservoir by the hose. a first section; and a second section that is joined to the first section at a reservoir interface thereby forming a reservoir that is configured to allow at least one of storage or flow of a liquid medium, wherein the first section includes multiple integrated channels that provide multiple pathways for the flow of the liquid medium, the multiple integrated channels formed in a body of the first section of the reservoir; wherein the first section further comprises: multiple component interfaces configured to allow attachment of multiple components to the reservoir, wherein the integrated channels provide the pathways for the flow of the liquid medium to or from the component interfaces to allow the components to operate cooperatively with the reservoir and the thermal system; and a hose interface configured to allow coupling of a hose to the reservoir to transport the liquid medium to or to receive the liquid medium from another component that is located remotely from the reservoir and coupled to the reservoir by the hose. multiple component interfaces configured to allow attachment of multiple components to the reservoir, wherein the integrated channels provide the pathways for the flow of the liquid medium to or from the component interfaces to allow the components to operate cooperatively with the reservoir and the thermal system; and a hose interface configured to allow coupling of a hose to the reservoir to transport the liquid medium to or to receive the liquid medium from another component that is located remotely from the reservoir and coupled to the reservoir by the hose.
An automated production system comprising: a production control system for scheduling and controlling production in an automated production; and a plurality of stackable equipment modules for synthesizing biopolymers in accordance with pre-determined sequences under control of the production control system, wherein each equipment module of the plurality of stackable equipment modules comprises on a rear side an interface feature connected to power, and wherein the plurality of stackable equipment modules comprise a synthesizer module. a production control system for scheduling and controlling production in an automated production; and a plurality of stackable equipment modules for synthesizing biopolymers in accordance with pre-determined sequences under control of the production control system, wherein each equipment module of the plurality of stackable equipment modules comprises on a rear side an interface feature connected to power, and wherein the plurality of stackable equipment modules comprise a synthesizer module.
A method for forming an oxide shell layer, comprises: providing a substrate having a solvophobic surface in a closed chamber under a first set of conditions; exposing the substrate to a set of precursors in vapor phase; condensing a first precursor of the set of precursors on the substrate to form a plurality of liquid droplets, wherein the first set of conditions are such that the first precursor of the set of precursors condenses on the surface of the substrate before other precursors of the set of precursors condense on the substrate; forming a thin oxide shell at an air-liquid interface of one or more of the liquid droplets by reacting the other precursors of the set of precursors at the air-liquid interface of the liquid droplets to form an oxide shell layer; and removing the liquid droplets to produce a substrate having a plurality of oxide shells disposed on the solvophobic surface that form the oxide shell layer. providing a substrate having a solvophobic surface in a closed chamber under a first set of conditions; exposing the substrate to a set of precursors in vapor phase; condensing a first precursor of the set of precursors on the substrate to form a plurality of liquid droplets, wherein the first set of conditions are such that the first precursor of the set of precursors condenses on the surface of the substrate before other precursors of the set of precursors condense on the substrate; forming a thin oxide shell at an air-liquid interface of one or more of the liquid droplets by reacting the other precursors of the set of precursors at the air-liquid interface of the liquid droplets to form an oxide shell layer; and removing the liquid droplets to produce a substrate having a plurality of oxide shells disposed on the solvophobic surface that form the oxide shell layer.
An estimation device mounted on a moving body, the estimation device comprising: a first estimation unit configured to calculate an estimated position (x - t) of the moving body at a reference time (t); an acquisition unit configured to acquire map information; a first acquisition unit configured to acquire first information (z t k) indicating a distance and an angle to an object situated within a first range; a second estimation unit configured to estimate a corrected position of the moving body (x^ t) at the reference time (t) based on the estimated position (x - t), characterized in that the corrected position (x^ t) is determined by adding a correction value to the estimated position (x - t), wherein the correction value is based on a difference between the first information (z t k) and second information (z^ t k), the second information indicating a distance and an angle between the estimated position (x - t) and a position (m k) of the object in the map information. a first estimation unit configured to calculate an estimated position (x - t) of the moving body at a reference time (t); an acquisition unit configured to acquire map information; a first acquisition unit configured to acquire first information (z t k) indicating a distance and an angle to an object situated within a first range; a second estimation unit configured to estimate a corrected position of the moving body (x^ t) at the reference time (t) based on the estimated position (x - t), characterized in that the corrected position (x^ t) is determined by adding a correction value to the estimated position (x - t), wherein the correction value is based on a difference between the first information (z t k) and second information (z^ t k), the second information indicating a distance and an angle between the estimated position (x - t) and a position (m k) of the object in the map information.
A control device (2, 2') for industrial machines with controlled movement drives for machine components, comprising a human-machine-interface having at least one switching or operating element for manually influencing or predetermining adjustment movements of at least one of the machine components, and having a touch-sensitive screen for displaying and optionally changing control-relevant parameters by an operator, wherein at least one operating element is formed as a rotary adjuster operating element with an endlessly rotatable actuation member, and wherein the rotary adjuster operating element and the touch-sensitive screen are connected with an electronic evaluation and control device in a control-based manner, characterized in that the evaluation and control device is configured to recognize a selection of a parameter on the part of an operator by means of a steady touch of a desired parameter field, in particular by a selective touch by a finger, and that in order to change contents of the selected parameter field or to set a desired parameter value for the selected parameter field, the actuation member of the rotary adjuster actuation element is turned by an appropriate rotation angle by an operator, and that, in doing so, the evaluation and control device detects the extent of the rotation movement and is configured for proportionally changing the contents of the parameter field or of the parameter value, and that the evaluation and control device is configured to carry out or initiate a confirmation or acceptance of a set parameter value based on a recognition of a termination of the touch to the parameter field, in particular following a lifting of the finger of the operator off the respective parameter field.
Extrusion blow mould for the manufacture of hollow objects by extrusion blow moulding, with at least two mould components, e.g. mould halves, which define a mould chamber delimited by a mould chamber wall in the closed state, characterized in that a plurality of temperature sensors with which the temperature of the hollow object in the blow mould can be measured in a plurality of areas of the mould components are integrated into at least one mould component, wherein the temperature sensors are integrated into the mould cavity wall in a flush manner by being inserted into holes in the mould cavity wall and integrated into the mould cavity wall in a flush manner so that the temperature sensors also delimit the mould chamber and constitute the surface of the mould cavity wall in areas. with at least two mould components, e.g. mould halves, which define a mould chamber delimited by a mould chamber wall in the closed state, characterized in that a plurality of temperature sensors with which the temperature of the hollow object in the blow mould can be measured in a plurality of areas of the mould components are integrated into at least one mould component, wherein the temperature sensors are integrated into the mould cavity wall in a flush manner by being inserted into holes in the mould cavity wall and integrated into the mould cavity wall in a flush manner so that the temperature sensors also delimit the mould chamber and constitute the surface of the mould cavity wall in areas.
A control device adapted to control a reactive power compensator connected to an electric power network and arranged to provide reactive power to said electric power network, said control device comprising a voltage regulator outputting a control signal to said reactive power compensator for controlling its susceptance to said electric power network, characterized in that said control device comprises a gain-adjusting device arranged to adjust the gain of said voltage regulator relative to the point of operation of said reactive power compensator by multiplying the gain of the reactive power compensator with an adjustment term equalling (1+ X net B SVC) 2, wherein X net is the reactance of the electric power network seen as a Thevenin equivalent and B SVC is the susceptance of the reactive power compensator.
Robotic arm with a number of N of actuator-driven articulated joints GV n, which are serially connected via arm members GL 1, with n = 1, 2,..., N, and i = 1, 2,..., N-1, and N ≥ 6, wherein - the proximal arm member GL 1 of the robotic arm via the articulated joint GV, can be connected to a robot body RK, - the distal arm member GL N-1 of the robotic arm is connectable via the articulated joint GV N with an effector E, - arm members GL N-1 and GL N-2 are connected via the articulated joint GV N-1 and arm members GL N-2 and GL N-3 are connected via a the articulated joint GV N- 2, and - each of the articulated joints GV N, GV N-1, GV N-2 a allow for a movement around an associated rotational axis R GV,N, R GV,N-1, R GV,N-2. wherein the robotic arm is designed in such a way that - the rotational axes R GV,N-2 and R GV,N-1 intersect at an angle within a range of 50 to 130°. - the rotational axis R GV,N is radially arranged at a constant distance D1 to the rotational axis R GV,N- 1, and is characterized in that the robotic arm is designed in such a way that - the articulated joint GV N-1 is set up to detect a force or torque around the rotational axis R GV,N-1. - the proximal arm member GL 1 of the robotic arm via the articulated joint GV, can be connected to a robot body RK, - the distal arm member GL N-1 of the robotic arm is connectable via the articulated joint GV N with an effector E, - arm members GL N-1 and GL N-2 are connected via the articulated joint GV N-1 and arm members GL N-2 and GL N-3 are connected via a the articulated joint GV N- 2, and - each of the articulated joints GV N, GV N-1, GV N-2 a allow for a movement around an associated rotational axis R GV,N, R GV,N-1, R GV,N-2. wherein the robotic arm is designed in such a way that - the rotational axes R GV,N-2 and R GV,N-1 intersect at an angle within a range of 50 to 130°. - the rotational axis R GV,N is radially arranged at a constant distance D1 to the rotational axis R GV,N- 1, and is characterized in that the robotic arm is designed in such a way that - the articulated joint GV N-1 is set up to detect a force or torque around the rotational axis R GV,N-1.