mhurhangee/ep-ind-claims huggingface dataset:
Front carriage of a slewing ring trailer, having a frame, a running axle that is connected to the frame and supports running wheels on the front carriage, a drawbar that is rigidly connected to the frame and a mounting means configured as a slewing ring for attaching a second trailer part to the front carriage, wherein this mounting means is supported on the frame of the front carriage, is disposed in front of the running axle and is tiltably mounted on a tilting axle extending at right angles to the direction of travel, characterised in that two half-shafts that are aligned with each other form the tilting axle and in that a lead-through opening is disposed inside the slewing ring through which lead-through opening a vacuum hose extends.
Multilayer body having a first layer having a first surface and a second surface opposing the first surface, wherein the first surface of the first layer defines a base plane which is spanned by coordinate axes x and y, wherein a plurality of facet surfaces is moulded into the second surface of the first layer in a first region, wherein each of the facet surfaces has a smallest dimension of more than 1μm and a largest dimension of less than 300μm, wherein each of the facet surfaces is determined by the parameter form F of the facet surface, surface size S of the facet surface, spacing H of the surface centroid of the facet surface from the base plane, position P of the surface centroid of the facet surface in the coordinate system which is spanned by the x-axis and the y-axis, angle of inclination Ax of the facet surface around the x-axis with respect to the base plane, angle of inclination Ay of the facet surface around the y-axis with respect to the base plane and azimuth angle Az of the facet surface, defined by the rotational angle of the facet surface around a z-axis which stands perpendicularly on the base plane, wherein one or more of the parameters F, S, H, P and Az of the facet surfaces arranged in the first region is varied pseudo-randomly within a variation range which is predefined respectively for the first region and wherein a reflective second layer is applied to each of the facet surfaces, wherein the multilayer body generates an optically variable first piece of information and the angles of inclination Ax and Ay of the facet surfaces are varied in the first region according to a function F(x,y) to generate the first piece of information.
A method for terminal configuration and management, comprising: configuring, by a terminal, a Device Management, DM server account on the terminal, wherein the DM server account comprises a DM server identifier and authentication information; receiving, by the terminal through a broadcast channel, a configuration message generated by a DM server based on a DM Protocol, wherein the configuration message carries a DM server identifier, a used protocol version, a management command, a management object, and DM server identity authentication information, wherein the configuration message is used for parameter configuration or management, and wherein the management object is sequenced and a virtual path is provided to the sequenced management object; extracting the authentication information from the DM server account according to the DM server identifier carried in the configuration message, and authenticating the configuration message by using the authentication information; determining a basic path on a Device Management Tree, DMT, of the terminal according to the virtual path in the configuration message if the authentication succeeds; judging whether the DM server has the right of executing the management command carried in the configuration message under the basic path by determining, according to the DM server identifier, an access control right of the DM server to a target management node on the DMT of the terminal, and executing, based on the access control right, the management command carried in the configuration message. configuring, by a terminal, a Device Management, DM server account on the terminal, wherein the DM server account comprises a DM server identifier and authentication information; receiving, by the terminal through a broadcast channel, a configuration message generated by a DM server based on a DM Protocol, wherein the configuration message carries a DM server identifier, a used protocol version, a management command, a management object, and DM server identity authentication information, wherein the configuration message is used for parameter configuration or management, and wherein the management object is sequenced and a virtual path is provided to the sequenced management object; extracting the authentication information from the DM server account according to the DM server identifier carried in the configuration message, and authenticating the configuration message by using the authentication information; determining a basic path on a Device Management Tree, DMT, of the terminal according to the virtual path in the configuration message if the authentication succeeds; judging whether the DM server has the right of executing the management command carried in the configuration message under the basic path by determining, according to the DM server identifier, an access control right of the DM server to a target management node on the DMT of the terminal, and executing, based on the access control right, the management command carried in the configuration message.
An in vitro method for determining and/or monitoring at least one condition of/in a three dimensional cell culture system comprising at least one growth section, wherein the at least one condition comprises a physiological condition and further comprises a condition selected from the group consisting of (i) vitality, and (ii) metabolism status, wherein the physiological condition is determined using erythrocytes as detectors for said condition by determining the flow rate, physiological osmolality, and/or oxygen consumption in the three dimensional cell culture system, the vitality is determined and/or monitored by measuring living cell fluorescent dyes, and the metabolism status is determined and/or monitored by measuring the autofluorescence of NADH and/or FAD, and/or by determining the NADH/NAD + and/or NADH/FAD ratio. (i) vitality, and (ii) metabolism status,
- Wheel for a vehicle comprising a rim configured to be coupled to a hub of said vehicle and a tire cooperating at contact with said rim to define a closed space with respect to said rim, said closed space being configured to contain compressed air for supporting said vehicle with respect to the ground, said wheel comprising safety means housed into said closed space and configured to be inflated when the pressure in said closed space decreases below a preset threshold, said safety means comprises a central element and a first and a second lateral elements respectively interposed forward and rearward to said central element, said central element and said lateral elements being realized in different materials, said central element being configured to be inflated when the pressure in said closed space decreases below a preset threshold, said central element carrying said lateral elements to expand together with said central element till they all contact said tire, the wheel is characterized in that said central element comprises: - an inner layer comprising metallic fibers; - an intermediate layer comprising polyamide fibers; and - an outer layer comprising rubber. - an inner layer comprising metallic fibers; - an intermediate layer comprising polyamide fibers; and - an outer layer comprising rubber.
A wear-resistant steel plate having excellent wear resistance at high temperatures and excellent bending workability, comprising, in terms of mass %, C: not less than 0.13% and not more than 0.18%, Si: not less than 0.5% but less than 1.0%, Mn: not less than 0.2% and not more than 0.8%, P: not more than 0.020%, S: not more than 0.010%, Cr: not less than 0.5% and not more than 2.0%, Mo: not less than 0.03% and not more than 0.30%, Nb: more than 0.03% but not more than 0.10%, Al: not less than 0.01% and not more than 0.20%, B: not less than 0.0005% and not more than 0.0030%, N: not more than 0.010%, and optionally one or more selected from the group consisting of Cu: not less than 0.05% and not more than 1.5%, Ni: not less than 0.05% and not more than 1.0%, Ti: not less than 0.003% and not more than 0.03%, and V: not less than 0.01% and not more than 0.20%, with a remainder being Fe and unavoidable impurities, wherein an element composition is such that HI defined below is 0.7 or greater and Ceq defined below exceeds 0.50, and an HB value (Brinell hardness) at 25°C is not less than 360 and not more than 440, HI = C + 0.59 Si − 0.58 Mn + 0.29 Cr + 0.39 Mo + 2.11 Nb − 0.02 − 0.72 Ti + 0.56 V Ceq = C + Si / 24 + Mn / 6 + Ni / 40 + Cr / 5 + Mo / 4 + V / 14 wherein, [Si], [Mn], [Ni], [Cr], [Mo], [Nb], [Ti] and represent amounts (mass %) of C, Si, Mn, Ni, Cr, Mo, Nb, Ti and V, respectively.
A nacelle for a jet engine having a selectively operated reverse thruster which redirects air flow to cascades during a reverse thrust operation, the nacelle having a central longitudinal axis and comprising: a fan cowl panel configured as a stationary partial cover for the jet engine; a translating cowl panel configured to move, during a reverse thrust operation, along an axis parallel to the central longitudinal axis between a stowed state, in which the translating cowl panel is close to the fan cowl panel, and a deployed state, in which the translating cowl panel is is away from the fan cowl panel so as to expose the cascade for emitting reverse thrust airflow; and wherein the nacelle comprises at least one automatic translating panel configured to be arranged in proximity to a leading edge slat of an aircraft wing to which the nacelle is to be mounted, the automatic translating panel being movable, between a stowed and deployed states, along an axis parallel to the central longitudinal axis in automated coordination with movement of the translating cowl panel during at least a portion of a movement range of the translating cowl panel; characterized in that movement of the automatic translating panel along an axis parallel to the central longitudinal axis is less than movement of the translating cowl panel so as to provide a variable clearance space between the automatic translating panel and the leading edge slat when the automatic translating panel transitions between its stowed and deployed states. a fan cowl panel configured as a stationary partial cover for the jet engine; a translating cowl panel configured to move, during a reverse thrust operation, along an axis parallel to the central longitudinal axis between a stowed state, in which the translating cowl panel is close to the fan cowl panel, and a deployed state, in which the translating cowl panel is is away from the fan cowl panel so as to expose the cascade for emitting reverse thrust airflow; and wherein the nacelle comprises at least one automatic translating panel configured to be arranged in proximity to a leading edge slat of an aircraft wing to which the nacelle is to be mounted, the automatic translating panel being movable, between a stowed and deployed states, along an axis parallel to the central longitudinal axis in automated coordination with movement of the translating cowl panel during at least a portion of a movement range of the translating cowl panel; characterized in that movement of the automatic translating panel along an axis parallel to the central longitudinal axis is less than movement of the translating cowl panel so as to provide a variable clearance space between the automatic translating panel and the leading edge slat when the automatic translating panel transitions between its stowed and deployed states.
A slide for a firearm adapted to receive an optical sight, comprising: a slide having a flat rear section recessed into a top portion of the slide, wherein the flat rear section: comprises a first set of mounting holes; and is positioned below a topmost surface of the slide; an adapter plate configured to be mounted within the recessed flat rear section by the first set of mounting holes, wherein the adapter plate comprises: a second set of mounting holes aligned with the first set of mounting holes; at least one mounting bus disposed along a top surface that is configured to align the optical sight with the adapter plate; and at least one receiving port disposed along a top surface that is configured to connect the optical sight to the adapter plate; and a safety lever configured to: be installed below the adapter plate; and rotate without impacting the adapter plate. a slide having a flat rear section recessed into a top portion of the slide, wherein the flat rear section: comprises a first set of mounting holes; and is positioned below a topmost surface of the slide; comprises a first set of mounting holes; and is positioned below a topmost surface of the slide; an adapter plate configured to be mounted within the recessed flat rear section by the first set of mounting holes, wherein the adapter plate comprises: a second set of mounting holes aligned with the first set of mounting holes; at least one mounting bus disposed along a top surface that is configured to align the optical sight with the adapter plate; and at least one receiving port disposed along a top surface that is configured to connect the optical sight to the adapter plate; and a second set of mounting holes aligned with the first set of mounting holes; at least one mounting bus disposed along a top surface that is configured to align the optical sight with the adapter plate; and at least one receiving port disposed along a top surface that is configured to connect the optical sight to the adapter plate; and a safety lever configured to: be installed below the adapter plate; and rotate without impacting the adapter plate. be installed below the adapter plate; and rotate without impacting the adapter plate.
Device for forming a cable loop (2.1) of a cable section, wherein the device comprises a cable actuator for advancing a cable and a loop-layer for gripping a first end of the cable and forming a cable loop (2.1), wherein on advancing the cable the cable loop (2.1) can be formed to a desired size, characterised in that the device also comprises a pull-out gripper, wherein the pull-out gripper grasps the cable of the cable loop (2.1) and after grasping the cable of the cable loop (2.1) can be moved relative to loop former and thereby tensions the cable loop (2.1) in the longitudinal direction and wherein a gripper of the pull-out gripper is provided with a sensor device which detects the twist in the cable loop (2.1) and/or a direction of the twist and/or a twist-free state of the cable loop (2.1).
A communication system including a femto base station that provides a femtocell and an information processing device, the communication system comprising: notification destination setting means for setting, in the femto base station, a notification destination to be notified of a change in camping of a user equipment on the femtocell, wherein the femto base station notifies the set notification destination of the change in camping of the user equipment, upon detecting the change in camping, wherein the information processing device that manages the user equipment is set as the notification destination, and the change in camping is used for the information processing device to restrict or add a camera function, or a Global Positioning System, GPS, function of the user equipment, and to cancel the restriction or addition. notification destination setting means for setting, in the femto base station, a notification destination to be notified of a change in camping of a user equipment on the femtocell, wherein the femto base station notifies the set notification destination of the change in camping of the user equipment, upon detecting the change in camping, wherein the information processing device that manages the user equipment is set as the notification destination, and the change in camping is used for the information processing device to restrict or add a camera function, or a Global Positioning System, GPS, function of the user equipment, and to cancel the restriction or addition.
Method for operating a Francis turbine comprising a water path, a runner arranged in the water path, a guide apparatus arranged in the water path, and an additional element for setting the water flow through the turbine, wherein the element is arranged in the water path above the runner in the water flow direction, wherein the additional element comprises a perforated plate which can be moved into the water path, and wherein the method comprises the following steps: determining the hydraulic losses in dependence on the relative power of the turbine, in each case for control with the guide apparatus alone and for control with the additional element in combination with the guide apparatus; fixing the relative power at which the turbine is to be operated; selecting one of the two controls on the basis of the associated hydraulic losses and the fixed relative power; applying the selected control (V4A or V4B), wherein one control (V4A) is the control with the guide apparatus alone, and the other control (V4B) is the control with the additional element in combination with the guide apparatus, wherein the water flow through the turbine is set by the additional element and the incident flow angle of the turbine is set by the guide apparatus; wherein the first-stated method step is executed only once during the construction or start-up of the turbine, and the remaining steps (V2, V3, V4A and V4B) are run through iteratively in the stated sequence.
Water distribution station having a water inlet and at least one pipe connection, wherein a pipe can be connected to a respective pipe connection in order to conduct water from the water distribution station to at least one place where water is required, wherein the water distribution station is composed in a modular manner of a plurality of water distribution modules (M1,...,M5), wherein a respective water distribution module (M1,...,M5) has at least one water inlet and the pipe connection which is provided with a controllable valve for connection to a pipe connected to the pipe connection, wherein a supply container can be connected to each water distribution module (M1,...,M5) for the purpose of receiving nutrients which can be metered from the supply container to the pipe connection of the respective water distribution module (M1,...,M5), characterized in that at least one sensor element which can be inserted into the ground is assigned to each water distribution module (M1,...,M5) and can be used to measure soil values at the location of a place where water is required, wherein measured values captured by the sensor element can be transmitted, by means of a communication connection, to a communication device and/or to a water distribution module (M1,...,M5) or to a communication module for radio communication with a communication device, wherein the communication device or the water distribution station or the water distribution module (M1,...,M5) is configured to control the assigned water distribution module on the basis of the measured values from the sensor element, wherein a pipe connected to a water distribution module (M1,...,M5) has a cable which runs along the extent of the pipe and has at least one conductor, and the cable of the pipe can be electrically contact-connected to the water distribution module (M1,...,M5), wherein the cable a. is used or at least can be used to set up a power supply to a sensor element and/or b. is used or at least can be used to set up a wired communication path between the water distribution module (M1,...,M5) and the sensor element for the purpose of transmitting measured values. a. is used or at least can be used to set up a power supply to a sensor element and/or b. is used or at least can be used to set up a wired communication path between the water distribution module (M1,...,M5) and the sensor element for the purpose of transmitting measured values.
A method of preparing composite particles comprising a non-porous spherical particulate inorganic material deposited on a plate-like inorganic material, where refractive index of said particulate inorganic material is greater than that of said plate-like inorganic particulate material, wherein, said spherical material occupies 20 to 80 % of total surface area of said plate-like material and wherein the amount of said spherical material accounts for 2 to 20 wt% of said composite particles, further wherein said plate-like inorganic material is mica and said non-porous spherical particulate inorganic material is silicone dioxide, said method comprising the steps of: (i) silanization of said plate-like inorganic material to get a silanized material having functional groups "A"; (ii) silanization of said non-porous spherical particulate inorganic material to get a silanized material having functional groups "B", where A ≠ B; and where said "A" and said "B" are capable of reacting with each other such that by way of their reaction, said non-porous spherical particulate inorganic material deposits on said plate-like inorganic material; and, (iii) reacting said silanized material having functional groups "A" with said silanized material having functional groups "B". (i) silanization of said plate-like inorganic material to get a silanized material having functional groups "A"; (ii) silanization of said non-porous spherical particulate inorganic material to get a silanized material having functional groups "B", where A ≠ B; and where said "A" and said "B" are capable of reacting with each other such that by way of their reaction, said non-porous spherical particulate inorganic material deposits on said plate-like inorganic material; and, (iii) reacting said silanized material having functional groups "A" with said silanized material having functional groups "B".
A semiconductive polymer composition comprising: a multimodal ethylene homo- or copolymer, produced in a polymerisation process comprising a single site catalyst; conductive additives, wherein the conductive component is acetylene black; and cross-linking agents, wherein the cross-linking agent(s) is/are peroxide(s); wherein the polymer composition has a density of 870 to 930 kg/m 3, a MFR 2 of 1 to 30 g/ 10 min. and a Mw/Mn of less than or equal to 10, whereby the ranges given are measured without additives, wherein the MFR 2 is measured according to ISO 1133 at 190°C and the Mw/Mn by gel permeation chromatography as defined in the description. a multimodal ethylene homo- or copolymer, produced in a polymerisation process comprising a single site catalyst; conductive additives, wherein the conductive component is acetylene black; and cross-linking agents, wherein the cross-linking agent(s) is/are peroxide(s); wherein the polymer composition has a density of 870 to 930 kg/m 3, a MFR 2 of 1 to 30 g/ 10 min. and a Mw/Mn of less than or equal to 10, whereby the ranges given are measured without additives, wherein the MFR 2 is measured according to ISO 1133 at 190°C and the Mw/Mn by gel permeation chromatography as defined in the description.