mhurhangee/ep-ind-claims huggingface dataset:
A method of molding a solid article having a cylindrical body, the method comprising: • providing multiple-use injection molding equipment including a substantially rigid surface defining a cavity and a substantially rigid core, the cavity and core defining a molding space between them, at least one of the cavity and the core being movable with respect to the other along a parting axis to open the molding space for removing molded articles, at least one portion of the core being a low draft element having a draft angle (θ) of 0.5 degree or less with respect to the parting axis; • heating at least part of the low draft element to a first selected temperature to expand it; • before, during or after heating, injecting a fluid molding material into the molding space; • forming at least a surface of the fluid molding material against the low draft element to define a low draft formed surface; • solidifying at least the low draft formed surface to provide a solid low draft formed surface; • cooling at least part of the low draft element to a second selected average temperature less than the first selected temperature to thermally contract at least a portion of the low draft element away from the solid low draft formed surface sufficiently to create a clearance between the low draft element and the low draft formed surface and to release the low draft element from the low draft formed surface; • parting the cavity and core along the parting axis; and • removing the solid article from the molding space. • providing multiple-use injection molding equipment including a substantially rigid surface defining a cavity and a substantially rigid core, the cavity and core defining a molding space between them, at least one of the cavity and the core being movable with respect to the other along a parting axis to open the molding space for removing molded articles, at least one portion of the core being a low draft element having a draft angle (θ) of 0.5 degree or less with respect to the parting axis; • heating at least part of the low draft element to a first selected temperature to expand it; • before, during or after heating, injecting a fluid molding material into the molding space; • forming at least a surface of the fluid molding material against the low draft element to define a low draft formed surface; • solidifying at least the low draft formed surface to provide a solid low draft formed surface; • cooling at least part of the low draft element to a second selected average temperature less than the first selected temperature to thermally contract at least a portion of the low draft element away from the solid low draft formed surface sufficiently to create a clearance between the low draft element and the low draft formed surface and to release the low draft element from the low draft formed surface; • parting the cavity and core along the parting axis; and • removing the solid article from the molding space.
An adiabatic method of making mononitrobenzene by nitration of benzene using nitric acid and sulfuric acid using a reactor train comprising at least in part a plug flow reactor, the reactor train having an inlet end and an outlet end, comprising the steps of: introducing all of the benzene into the reactor train at the inlet end; introducing at least a portion of the sulfuric acid into the reactor train at the inlet end; introducing a first portion of the nitric acid into the reactor train at the inlet end by a first nitric acid feed and a second portion of the nitric acid into the reactor train at one or more additional nitric acid feeds spaced between the inlet end and the outlet end; and removing a product stream comprising produced mononitrobenzene from the reactor train at the outlet end. introducing all of the benzene into the reactor train at the inlet end; introducing at least a portion of the sulfuric acid into the reactor train at the inlet end; introducing a first portion of the nitric acid into the reactor train at the inlet end by a first nitric acid feed and a second portion of the nitric acid into the reactor train at one or more additional nitric acid feeds spaced between the inlet end and the outlet end; and removing a product stream comprising produced mononitrobenzene from the reactor train at the outlet end.
A method for manufacturing a printed product, comprising the steps of: a) providing a matrix comprising a matrix surface having recesses; b) applying a first curable compound to said matrix surface and said recesses, characterized in that said applying is performed in a controlled amount that does not exceed a volume of said recesses; wherein said first curable compound creeps down in and partly fills said recesses, leaving protruding surfaces substantially free from said first curable compound; and by the further steps of: c) covering said matrix surface and said recesses partially filled with said first curable compound by a pickup layer of a second curable compound; d) bringing said matrix in contact with a substrate surface of a substrate sheet; e) curing, at least partly, said first curable compound and said second curable compound; and f) separating said matrix surface from said substrate surface, leaving said pickup layer and said first curable compound on said substrate surface; wherein said pickup layer and said first curable compound filling said recesses are transferred together from said matrix surface onto said substrate surface; wherein said first curable compound forms printed product micro features at said pickup layer covering said substrate surface. a) providing a matrix comprising a matrix surface having recesses; b) applying a first curable compound to said matrix surface and said recesses, said applying is performed in a controlled amount that does not exceed a volume of said recesses; wherein said first curable compound creeps down in and partly fills said recesses, leaving protruding surfaces substantially free from said first curable compound; and by the further steps of: c) covering said matrix surface and said recesses partially filled with said first curable compound by a pickup layer of a second curable compound; d) bringing said matrix in contact with a substrate surface of a substrate sheet; e) curing, at least partly, said first curable compound and said second curable compound; and f) separating said matrix surface from said substrate surface, leaving said pickup layer and said first curable compound on said substrate surface; c) covering said matrix surface and said recesses partially filled with said first curable compound by a pickup layer of a second curable compound; d) bringing said matrix in contact with a substrate surface of a substrate sheet; e) curing, at least partly, said first curable compound and said second curable compound; and f) separating said matrix surface from said substrate surface, leaving said pickup layer and said first curable compound on said substrate surface; wherein said pickup layer and said first curable compound filling said recesses are transferred together from said matrix surface onto said substrate surface; wherein said first curable compound forms printed product micro features at said pickup layer covering said substrate surface.
Method for securing a motor vehicle against unauthorized removal from an AVP (automatic valet parking) carpark, wherein the carpark is configured to assist driving of the motor vehicle independently of the driver between a delivery point and a parking position within the scope of the parking process or pick-up process which is independent of the driver, wherein the method comprises the following steps: - scanning the carpark by means of sensors; - determining that the motor vehicle is traveling within the area of the carpark; - determining that the motor vehicle is driving outside a parking process or pick-up process which is controlled independently of the driver, and - triggering an action, wherein the action comprises registering confirmation by a person who is responsible for the motor vehicle or the carpark. - scanning the carpark by means of sensors; - determining that the motor vehicle is traveling within the area of the carpark; - determining that the motor vehicle is driving outside a parking process or pick-up process which is controlled independently of the driver, and - triggering an action, wherein the action comprises registering confirmation by a person who is responsible for the motor vehicle or the carpark.
A pneumatic tire comprising, as an inner liner, a film composed of a thermoplastic elastomer composition comprising an ethylene-vinyl alcohol copolymer and a modified rubber dispersed in the ethylene-vinyl alcohol copolymer, wherein the modified rubber has an acid anhydride group or epoxy group and is dynamically cross-linked by a compound having at least two amino groups.
Use of a pressure-sensitive adhesive comprising a crosslinkable polyolefin and at least one tackifier resin, wherein the polyolefin is composed of at least two monomers A and B and of at least one comonomer C amenable to crosslinking, the monomers A and B being selected from the group consisting of α-olefins, vinyl acetate, n-butyl acrylate and methyl methacrylate or, in the case of EPDM, a diene such as 5-ethylidene-2-norbornene, dicyclopentadiene or 5-vinyl-2-norbornene, where the amount of comonomer C in the polyolefin is in the range from 0.4% to 5% by weight, where the polyolefin has a melt index of less than 10, is tested in accordance with ISO 1133 under 2.16 kg and expressed in g/10 min, and/or has a Mooney viscosity of greater than 5, determined in accordance with ASTM D 1646 under the conditions ML 1+4 at 125°C, and where the polyolefin is obtainable by polymerization of the at least two monomers A and B and grafting of the comonomer C onto this polymer, characterized in that (i) the pressure-sensitive adhesive is applied from solution to a carrier and is crosslinked by an isocyanate, an epoxide, a titanium compound, an aluminium compound, an oxazoline, an aziridine or an amine, or (ii) the pressure-sensitive adhesive is applied from the melt to a carrier and is crosslinked by an epoxide, an amine, a zinc compound or a magnesium compound. (i) the pressure-sensitive adhesive is applied from solution to a carrier and is crosslinked by an isocyanate, an epoxide, a titanium compound, an aluminium compound, an oxazoline, an aziridine or an amine, or (ii) the pressure-sensitive adhesive is applied from the melt to a carrier and is crosslinked by an epoxide, an amine, a zinc compound or a magnesium compound.
A freezer, comprising: - a thermally insulated housing, - plural baskets (2a, b...) which revolve in an interior of the housing in a slide and on which the freezing material, in particular the meat is placed, - a loading opening in the housing, - a retrieval opening in the housing, wherein - a loading opening and the retrieval opening are arranged on the same side of the freezer above one another in the housing, - the housing includes a front door, and - the loading opening and the retrieval opening are arranged in the front door, characterized in that - the baskets (6a, b) are connected at both sides respectively by a pull element that extends continuously through all baskets, - the slide is movable out of the housing in its entirety after opening the front door, in particular movable on rails, wherein the slide includes all baskets (6a, b) and the at least one pull element and its deflection pulley and drive sprocket and drive motor, - a loading tablet extends through a lower edge of the loading opening, wherein a sliding handle is movable on guides on a top side of the loading tablet from a position outside of the loading opening into a position within the loading opening proximal to the a basket positioned proximal behind the loading opening, - wherein the sliding handle of the loading tablet and thus the loading opening is arranged in hip height of an operator standing in front of the freezer. - a thermally insulated housing, - plural baskets (2a, b...) which revolve in an interior of the housing in a slide and on which the freezing material, in particular the meat is placed, - a loading opening in the housing, - a retrieval opening in the housing, wherein - a loading opening and the retrieval opening are arranged on the same side of the freezer above one another in the housing, - the housing includes a front door, and - the loading opening and the retrieval opening are arranged in the front door, - the baskets (6a, b) are connected at both sides respectively by a pull element that extends continuously through all baskets, - the slide is movable out of the housing in its entirety after opening the front door, in particular movable on rails, wherein the slide includes all baskets (6a, b) and the at least one pull element and its deflection pulley and drive sprocket and drive motor, - a loading tablet extends through a lower edge of the loading opening, wherein a sliding handle is movable on guides on a top side of the loading tablet from a position outside of the loading opening into a position within the loading opening proximal to the a basket positioned proximal behind the loading opening, - wherein the sliding handle of the loading tablet and thus the loading opening is arranged in hip height of an operator standing in front of the freezer.
A coating composition comprising an aqueous dispersion of polymer particles, pigment particles, and extender particles wherein the polymer particles comprise, in a single phase and based on the weight of the polymer particles, from 35 to 79.9 weight percent structural units of vinyl acetate and from 0.1 to 6 weight percent structural units of a phosphorus acid monomer or a salt thereof, wherein the polymer particles have a particle size by dynamic light scattering of from 300 nm to 450 nm, and wherein the coating composition has an above-critical pigment volume concentration (CPVC) of at least 60 (measured using a spectrophotometer according to the experimental section).
A household appliance comprising - a body, - an upper plate that is disposed on the upper part of the body and that protects the body, - at least one pin that is disposed on the upper plate and that extends from the upper plate towards the body when the upper plate is mounted on the body, - a damping member that is disposed on the body so as to remain between the body and the upper plate, that decreases the vibrations on the upper plate by supporting the upper plate and that has at least one retainer bearing against the pin so as to be at least partially above the pin when the upper plate is mounted on the body, characterized in that the damping member comprises a housing that enables connection elements allowing the damping member to be mounted to the body to be seated therein. - a body, - an upper plate that is disposed on the upper part of the body and that protects the body, - at least one pin that is disposed on the upper plate and that extends from the upper plate towards the body when the upper plate is mounted on the body, - a damping member that is disposed on the body so as to remain between the body and the upper plate, that decreases the vibrations on the upper plate by supporting the upper plate and that has at least one retainer bearing against the pin so as to be at least partially above the pin when the upper plate is mounted on the body, characterized in that the damping member comprises a housing that enables connection elements allowing the damping member to be mounted to the body to be seated therein.
A method operational at a network device, the method comprising: receiving a non-access stratum, NAS, message from a device; forwarding the NAS message along with a network device identification value identifying the network device to an authentication session key anchor function device; receiving a mobility session key from the authentication session key anchor function device, the mobility session key based in part on an authentication session key that was derived from a key shared between the device and a wireless communication network; and transmitting key derivation data to the device, the key derivation data enabling the device to derive the mobility session key. receiving a non-access stratum, NAS, message from a device; forwarding the NAS message along with a network device identification value identifying the network device to an authentication session key anchor function device; receiving a mobility session key from the authentication session key anchor function device, the mobility session key based in part on an authentication session key that was derived from a key shared between the device and a wireless communication network; and transmitting key derivation data to the device, the key derivation data enabling the device to derive the mobility session key.
Foundation element in the ground, which is formed in a hole in the ground of a hardenable mass, wherein, prior to hardening, at least one heat exchanger element is inserted, wherein a transition region towards the surrounding ground is formed, wherein the foundation element is formed in the transition region towards the surrounding ground of crushed ground material of the surrounding ground mixed with a hardening suspension, whereby a soil mortar is formed, characterized in that the transition region consists of at least 30 % of crushed surrounding ground material, in that the transition region amounts to at least 10 % of the wall thickness of the foundation element, and in that the proportion of crushed ground material increases towards the outside. wherein the foundation element is formed in the transition region towards the surrounding ground of crushed ground material of the surrounding ground mixed with a hardening suspension, whereby a soil mortar is formed, characterized in that the transition region consists of at least 30 % of crushed surrounding ground material, in that the transition region amounts to at least 10 % of the wall thickness of the foundation element, and in that the proportion of crushed ground material increases towards the outside.
A substrate for mounting a light-emitting element, comprising a base and a dam part, wherein the base includes a front surface and a back surface that are principal surfaces thereof where the front surface includes a mounting part that is capable of mounting a light-emitting element thereon, the dam part is arranged on a peripheral part of the front surface to surround the mounting part, the front surface is inclined relative to the back surface at a predetermined angle, characterized in that the dam part is provided with an opening part at a site where the front surface is inclined to decrease a thickness of the base, in the peripheral part of the front surface, and the front surface at a site of the dam part where the opening is provided is inclined relative to the back surface in a direction of the front surface. a base and a dam part, wherein the base includes a front surface and a back surface that are principal surfaces thereof where the front surface includes a mounting part that is capable of mounting a light-emitting element thereon, the dam part is arranged on a peripheral part of the front surface to surround the mounting part, the front surface is inclined relative to the back surface at a predetermined angle, characterized in that the dam part is provided with an opening part at a site where the front surface is inclined to decrease a thickness of the base, in the peripheral part of the front surface, and the front surface at a site of the dam part where the opening is provided is inclined relative to the back surface in a direction of the front surface.
A cell imaging apparatus that captures images of cells contained in a liquid specimen, comprising: an image capture unit including an objective lens; specimen cells (10a, b) each including an inner space which is capable of holding a liquid specimen, the specimen cells (10a, 10b) arranged such that the inner spaces are aligned in a row in a longitudinal direction of the inner spaces; a specimen introduction unit; a drive unit that moves the specimen cells (10a, 10b); and a controller that controls the specimen introduction unit, controls the drive unit to move the specimen cells in the longitudinal direction so that the visual field of the objective lens moves in the longitudinal direction with respect to the specimen cells (10a, b) and controls the image capture unit to capture images of cells contained in a liquid specimen held in the inner space of each of the specimen cells at multiple image capture positions for each specimen cell, characterized by the inner space of each of the specimen cells (10a, b) being elongated in one direction, said direction being the longitudinal direction, and having an inlet port and an outlet port and wherein the specimen introduction unit includes a tube connected to the specimen cells (10a, b), wherein the tube has respective branches connected to each of the inlet ports for introducing the liquid specimen in each of the specimen cells (10a, b) and wherein the tube has respective branches extending from each of the outlet ports for flowing out the liquid specimen from each of the specimen cells (10a, b). an image capture unit including an objective lens; specimen cells (10a, b) each including an inner space which is capable of holding a liquid specimen, the specimen cells (10a, 10b) arranged such that the inner spaces are aligned in a row in a longitudinal direction of the inner spaces; a specimen introduction unit; a drive unit that moves the specimen cells (10a, 10b); and a controller that controls the specimen introduction unit, controls the drive unit to move the specimen cells in the longitudinal direction so that the visual field of the objective lens moves in the longitudinal direction with respect to the specimen cells (10a, b) and controls the image capture unit to capture images of cells contained in a liquid specimen held in the inner space of each of the specimen cells at multiple image capture positions for each specimen cell, characterized by the inner space of each of the specimen cells (10a, b) being elongated in one direction, said direction being the longitudinal direction, and having an inlet port and an outlet port and wherein the specimen introduction unit includes a tube connected to the specimen cells (10a, b), wherein the tube has respective branches connected to each of the inlet ports for introducing the liquid specimen in each of the specimen cells (10a, b) and wherein the tube has respective branches extending from each of the outlet ports for flowing out the liquid specimen from each of the specimen cells (10a, b).
A method for transmitting data, the method comprising: selecting, by a transmitting device, a precoder; deriving, by the transmitting device, a feedforward filter; preparing, by the transmitting device, the data using the precoder and the feedforward filter; and transmitting, by the transmitting device, the prepared data wherein the precoder has a per layer power allocation for a plurality of users and the per layer power for the plurality of users is determined by the transmitting device by optimizing a weighted sum data rate of the plurality of users subject to unit average transmit power, and the feedforward filter is derived as a function of the precoder; characterized in that a weight associated to the allocated transmit power of each user is determined as w k ∑ j w j, k = 1,..., K. and w k is the inverse of an average data rate of the user k. selecting, by a transmitting device, a precoder; deriving, by the transmitting device, a feedforward filter; preparing, by the transmitting device, the data using the precoder and the feedforward filter; and transmitting, by the transmitting device, the prepared data