mhurhangee/ep-ind-claims huggingface dataset:
An implantable accomodation system for determining the accommodation requirement and restoration of the accomodation ability by optical measurement of the pupil diameter and the surrounding luminance, comprising in that a) at least one optical system comprising one or more active-optical elements and/or one or more inflexible lenses that are axially adjustable by one or a plurality of actors, b) at least one data acquisition system which does not contact the ciliary muscle and which is provided with means for measuring a diameter of the pupil and the luminance around at least one eye as a physical control signal for the accommodation requirement, c) at least one data processing system for processing the recorded signals and for generating actuatings necessary for the optical system, d) at least one energy supply system and at least one fixing system are combined as an implant, characterized in that the system has one sensor or a plurality of sensors with sensor elements for the optical measuring of the pupil diameter and the surrounding luminance, whereby in the implant behind the iris a linearly distributed sensor can be positioned which consists of a plurality of sensor elements. a) at least one optical system comprising one or more active-optical elements and/or one or more inflexible lenses that are axially adjustable by one or a plurality of actors, b) at least one data acquisition system which does not contact the ciliary muscle and which is provided with means for measuring a diameter of the pupil and the luminance around at least one eye as a physical control signal for the accommodation requirement, c) at least one data processing system for processing the recorded signals and for generating actuatings necessary for the optical system, d) at least one energy supply system and at least one fixing system are combined as an implant, characterized in that the system has one sensor or a plurality of sensors with sensor elements for the optical measuring of the pupil diameter and the surrounding luminance, whereby in the implant behind the iris a linearly distributed sensor can be positioned which consists of a plurality of sensor elements.
A weaving loom comprising a sley and a travelling-head tuck-in device comprising a control leverage mechanism, characterised in that said control leverage mechanism comprises the following functional groups of levers: - a first articulated quadrilateral, the end hinges of which (1, A) are fixed to the loom, which takes the alternate movement from said sley; - a connecting rod-crank mechanism which receives on a crank the movement from the first articulated quadrilateral and transmits it via a connecting rod to a travelling head of the tuck-in device on which the moving end of said connecting rod is hinged (in B); and - an articulated parallelogram which connects a body of the tuck-in device to the travelling head of the same, for guiding said travelling head of the tuck-in device between a forward home position and a backward operating position, along an arc wide enough to approximate a rectilinear movement. - a first articulated quadrilateral, the end hinges of which (1, A) are fixed to the loom, which takes the alternate movement from said sley; - a connecting rod-crank mechanism which receives on a crank the movement from the first articulated quadrilateral and transmits it via a connecting rod to a travelling head of the tuck-in device on which the moving end of said connecting rod is hinged (in B); and - an articulated parallelogram which connects a body of the tuck-in device to the travelling head of the same, for guiding said travelling head of the tuck-in device between a forward home position and a backward operating position, along an arc wide enough to approximate a rectilinear movement.
Optical sensor for detecting objects in a monitoring region, comprising a transmitting/receiving unit arranged at a first edge of the monitoring region, an evaluating unit in which the received signals present at the receiver are evaluated for generation of an object detection signal, and a reflector arranged at a second edge of the monitoring region, wherein the transmitting/receiving unit comprises a plurality of pairs of transmitters and receivers and wherein, when the monitoring region is free, light beams emitted by a transmitter are reflected back by way of the reflector to the receiver of the respective pair, characterised in that the transmitters emit light beams of different wavelengths and the transmitters are activated simultaneously and the reflector has reflector regions with different reflection characteristics, wherein a reflector region is associated with each transmitter, and that the reflector regions consist of different fluorescing materials which change the wavelengths of the incident light beams in different ways, and that each receiver is adapted to the wavelength of the light beams, which are incident on the receiver from the associated reflector region, of the transmitter of the respective pair.
A compound, of structure of formula (F'), wherein the R 1 is selected from a group consisting of hydrogen, amino group, nitro group, nitroamino group, azido group, fluorine, chlorine, bromine, iodine, and C n H m (NO 2) p, wherein m + p = 2 n + 1, and n = 1, 2, 3, or 4; and the R 3 is selected from a group consisting of hydrogen, amino group, nitro group, nitroamino group, azido group, fluorine, chlorine, bromine, iodine, and C n H m (NO 2) p, wherein m + p = 2 n + 1, and n = 1, 2, 3, or 4. the R 1 is selected from a group consisting of hydrogen, amino group, nitro group, nitroamino group, azido group, fluorine, chlorine, bromine, iodine, and C n H m (NO 2) p, wherein m + p = 2 n + 1, and n = 1, 2, 3, or 4; and the R 3 is selected from a group consisting of hydrogen, amino group, nitro group, nitroamino group, azido group, fluorine, chlorine, bromine, iodine, and C n H m (NO 2) p, wherein m + p = 2 n + 1, and n = 1, 2, 3, or 4.
A process for the manufacture of a fermented dairy product comprising a. subjecting a milk base from mammals to fermentation with a starter comprising of a weakly post-acidifying bacterial culture, until a desired pH value in the range of 4.0 and 5.0 is reached (end of fermentation); b. optionally cooling the fermented milk base obtained in step (a); and c. packaging the fermented dairy product, wherein the starter comprises at least one weakly post-acidifying bacterial culture of the genus Streptococcus, of the strain Streptococcus salivarius thermophilus, and wherein the pH value of the fermented dairy product does not fluctuate more than 0.3 pH unit upon storage from day 1 after end of fermentation until day 28 after end of fermentation; and wherein the weakly post-acidifying bacterial culture is defined as having a two-phase acidification profile, as determined by the continuous recordation of the pH as a function of time, in a Dutch milk composition comprising 1.5% (w/w) fat, 3.6% (w/w) protein, 4.6% (w/w) carbohydrates and 2% RSM powder and/or a Chinese milk composition comprising 2.9 % (w/w) protein, 3.6 % (w/w) fat, 4.7 % (w/w) carbohydrates at 42°C, comprising an initial period between inoculation and end of fermentation followed by a period at 30°C between 1 and 40 days in which the pH value does not fluctuate more than 0.3 unit, and wherein the Streptococcus salivarius thermophilus strain is selected from the group consisting of CBS129457 and CBS129458 deposited on 6 May 2011 at the Centraalbureau voor Schimmelcultures (Fungal Biodiversity Centre), Utrecht, The Netherlands. a. subjecting a milk base from mammals to fermentation with a starter comprising of a weakly post-acidifying bacterial culture, until a desired pH value in the range of 4.0 and 5.0 is reached (end of fermentation); b. optionally cooling the fermented milk base obtained in step (a); and c. packaging the fermented dairy product,
A support structure for a front wiper device for a vehicle in which a pivot is inserted through a hole provided in a deck garnish, a base end portion of a wiper arm is supported on an upper portion of the pivot, a lower portion of the pivot is drivable reciprocally and rotationally by an electric motor, and the electric motor is disposed under the deck garnish by being separated in a vehicle lateral direction from the pivot, and the support structure has a pivot cap surrounding a periphery of the pivot under the deck garnish, wherein the pivot cap comprises a bottom plate section that is disposed in the periphery of the pivot and is extended to any one side in a vehicle longitudinal direction, and a flange section that extends upward from an edge portion of the bottom plate section to surround a peripheral edge of the bottom plate section, in a region of the flange section at a side where the bottom plate section is extended, a part of the flange section is opened and an opening from which water on the pivot cap is drained is provided, characterized in that in a region of the bottom plate section, at a side opposite to the extended side in the vehicle longitudinal direction and at the electric motor side in the vehicle lateral direction, a protrusion that protrudes upward from a region at a side opposite to the electric motor in the vehicle lateral direction is included.
A feedback based active noise reduction system comprising: a feedback element including a feedback input for accepting a first feedback signal from a first sensor, a control input for accepting a control parameter for adjusting a gain characteristic and a phase characteristic of the feedback element, and a driver output for providing a driver signal to a driver; and an instability detector for detecting an instability condition in the feedback element and forming the control parameter based on a result of the detection, the instability detector including a control parameter output for providing the control parameter to the control parameter input of the feedback element, and a plurality of inputs for accepting a plurality of feedback signals from a plurality of sensors including the first sensor and a second sensor, wherein detecting the instability condition includes processing the plurality of feedback signals to determine a characteristic of an acoustic path between the driver and the first sensor based on a ratio of the first feedback signal associated with the first sensor to a second feedback signal associated with the second sensor. a feedback element including a feedback input for accepting a first feedback signal from a first sensor, a control input for accepting a control parameter for adjusting a gain characteristic and a phase characteristic of the feedback element, and a driver output for providing a driver signal to a driver; and an instability detector for detecting an instability condition in the feedback element and forming the control parameter based on a result of the detection, the instability detector including a control parameter output for providing the control parameter to the control parameter input of the feedback element, and a plurality of inputs for accepting a plurality of feedback signals from a plurality of sensors including the first sensor and a second sensor, wherein detecting the instability condition includes processing the plurality of feedback signals to determine a characteristic of an acoustic path between the driver and the first sensor based on a ratio of the first feedback signal associated with the first sensor to a second feedback signal associated with the second sensor.
Beverage maker, such as a fully automatic coffee machine, comprising a housing and at least one flow line system which comprises at least one water container that contains or can be filled with water or a water connection, at least one pump for conveying the water through line portions (L1, L2, L3, L4) and components of the flow line system, at least one heating device for heating the water, at least one valve arrangement (V3, V4), a brewing chamber for receiving a dry substance that is designed to be passed through by hot water under pressure, and at least one release device, also comprising a control device for controlling a pump integrated in the flow line system, a heating device, and valves (V1, V2, V3) for preparing a selected beverage, said beverage maker further comprising a receiving apparatus for receiving a compartment for storing a further vegetable substance, such as tea, to be brewed, which can be brewed with hot water, the outlet of said receiving apparatus opening into a separate release device, characterised in that the outlet of the further receiving apparatus is assigned a valve which, by means of the control device, unlocks or locks the outlet with respect to the release device.
Seating furniture with a saddle-shaped seat surface, wherein the seat surface is arranged on a saddle support, characterized in that - the seat surface is clamped between a front saddle spar on a front spar support and a rear saddle spar on a rear spar support, - a cover forming the seat surface is connected to the front saddle spar between a first end of the front saddle spar and a second end of the front saddle spar, in particular continuously and without interruptions along a first attachment region, and - the cover forming the seat surface is connected to the rear saddle spar between a first end of the rear saddle spar and a second end of the rear saddle spar, in particular continuously and without interruptions along a second attachment region. - the seat surface is clamped between a front saddle spar on a front spar support and a rear saddle spar on a rear spar support, - a cover forming the seat surface is connected to the front saddle spar between a first end of the front saddle spar and a second end of the front saddle spar, in particular continuously and without interruptions along a first attachment region, and - the cover forming the seat surface is connected to the rear saddle spar between a first end of the rear saddle spar and a second end of the rear saddle spar, in particular continuously and without interruptions along a second attachment region.
A fastening assembly configured to couple a toilet seat hinge to a toilet bowl by a threaded shaft, the fastening assembly comprising: a fastening nut including a clamping portion, and a drive portion in which the clamping portion extends therefrom, the drive portion having a first segment coupled to a second segment by a shear segment, at least the first segment configured to be engaged by a tool for the tool to rotate the fastening nut relative to the threaded shaft such that the shear segment fractures at a predetermined torque applied to the first segment relative to the second segment, characterized in that the clamping portion comprises a resilient protrusion configured to allow axial movement of the fastening nut relative to the threaded shaft without rotation therebetween, the resilient protrusion having threads configured to engage the threaded shaft. a drive portion in which the clamping portion extends therefrom, the drive portion having a first segment coupled to a second segment by a shear segment, at least the first segment configured to be engaged by a tool for the tool to rotate the fastening nut relative to the threaded shaft such that the shear segment fractures at a predetermined torque applied to the first segment relative to the second segment, characterized in that the clamping portion comprises a resilient protrusion configured to allow axial movement of the fastening nut relative to the threaded shaft without rotation therebetween, the resilient protrusion having threads configured to engage the threaded shaft.
A method of heating a heat-shrinkable sleeve around a portion of a pipe during a method of laying a pipeline, wherein the method includes the following steps: - providing a pipe, - arranging a heat-shrinkable sleeve around a portion of the pipe, - arranging a heat-delivery apparatus around the pipe in the region of the sleeve in a heating configuration, the heat-delivery apparatus including one or more heater devices, each heater device extending circumferentially about the axis of the pipe and comprising one or more electric heaters defining an interior heating surface that surrounds the heat-shrinkable sleeve, there being an air space defined between the exterior of the heat-shrinkable sleeve and the interior heating surface, - applying heat to the heat-shrinkable sleeve via the heater devices, and characterised in that the method includes - controlling the flow of air within said air space that would otherwise be generated by the step of applying heat, and wherein - said step of controlling the flow of air is performed at least in part by means of at least one of (a) using one or more sealing members at the ends of the heat-delivery apparatus to restrict the flow of air between within and outside of the air space and (b) one or more airflow generators arranged to provide an airflow within the airspace. - providing a pipe, - arranging a heat-shrinkable sleeve around a portion of the pipe, - arranging a heat-delivery apparatus around the pipe in the region of the sleeve in a heating configuration, the heat-delivery apparatus including one or more heater devices, each heater device extending circumferentially about the axis of the pipe and comprising one or more electric heaters defining an interior heating surface that surrounds the heat-shrinkable sleeve, there being an air space defined between the exterior of the heat-shrinkable sleeve and the interior heating surface, - applying heat to the heat-shrinkable sleeve via the heater devices, and characterised in that the method includes - controlling the flow of air within said air space that would otherwise be generated by the step of applying heat, and wherein - said step of controlling the flow of air is performed at least in part by means of at least one of (a) using one or more sealing members at the ends of the heat-delivery apparatus to restrict the flow of air between within and outside of the air space and (b) one or more airflow generators arranged to provide an airflow within the airspace.
A method for communicating network information, the method comprising: transmitting a request message from a mobile device to an access point; receiving, at the mobile device, a reply message transmitted from the access point in response to receiving the request message, the reply message including data representative of a transmitted signal power level at the access point of the reply message; and determining, based, at least in part, on the received reply message including the data representative of the transmitted signal power level at the access point, a received signal power level at the mobile device of the reply message, a round trip time from a first time instance when the request message was transmitted from the mobile device to a second time instance when the reply message was received at the mobile device, and at least one of a path loss associated with the reply message and a distance between the mobile device and the access point, the at least one of the path loss and the distance computed based on the received signal power determined from the reply message and the data representative of the access point transmitted signal power level included in the reply message. transmitting a request message from a mobile device to an access point; receiving, at the mobile device, a reply message transmitted from the access point in response to receiving the request message, the reply message including data representative of a transmitted signal power level at the access point of the reply message; and determining, based, at least in part, on the received reply message including the data representative of the transmitted signal power level at the access point, a received signal power level at the mobile device of the reply message, a round trip time from a first time instance when the request message was transmitted from the mobile device to a second time instance when the reply message was received at the mobile device, and at least one of a path loss associated with the reply message and a distance between the mobile device and the access point, the at least one of the path loss and the distance computed based on the received signal power determined from the reply message and the data representative of the access point transmitted signal power level included in the reply message.
A method of processing geophysical data, the method comprising the acts of: correlating a first set of data from a first monitor survey with a second set of data from a second baseline survey, wherein the monitor survey is taken near the same location as the baseline survey and the monitor survey occurs after the baseline survey; generating an attribute value for each datum in the first set of data, wherein the attribute value is a repeatability metric that measures how geometrically close the first set of data from the monitor survey is to the second set of data from the baseline survey; wherein the repeatability metric comprises geometric values Dsrc and Drx, the repeatability metric comprising Dsrc + Drx, wherein Dsrc is a difference in source positions between the baseline survey common midpoint and the monitor survey CMP at the time of firing a seismic source and Drx is a difference in receiver positions between the baseline survey CMP and the monitor survey CMP at the time of firing the seismic source, each of which has radial, inline and crossline components; associating each datum in the first set of data with the generated attribute value and at least one of a plurality of bins; filtering the first set of data based on the attribute value associated with each datum in the first set of data; wherein filtering comprises including data whose associated attribute value lies within a range of attribute values, or comprises excluding data whose associated attribute value lies outside the range of attribute values; and generating a visual representation of the filtered data. correlating a first set of data from a first monitor survey with a second set of data from a second baseline survey, wherein the monitor survey is taken near the same location as the baseline survey and the monitor survey occurs after the baseline survey; generating an attribute value for each datum in the first set of data, wherein the attribute value is a repeatability metric that measures how geometrically close the first set of data from the monitor survey is to the second set of data from the baseline survey; wherein the repeatability metric comprises geometric values Dsrc and Drx, the repeatability metric comprising Dsrc + Drx, wherein Dsrc is a difference in source positions between the baseline survey common midpoint and the monitor survey CMP at the time of firing a seismic source and Drx is a difference in receiver positions between the baseline survey CMP and the monitor survey CMP at the time of firing the seismic source, each of which has radial, inline and crossline components; associating each datum in the first set of data with the generated attribute value and at least one of a plurality of bins; filtering the first set of data based on the attribute value associated with each datum in the first set of data; wherein filtering comprises including data whose associated attribute value lies within a range of attribute values, or comprises excluding data whose associated attribute value lies outside the range of attribute values; and generating a visual representation of the filtered data.