mhurhangee/ep-ind-claims huggingface dataset:
Method for connecting cables that do not cross each other in a two-dimensionally extendable, flexible netting arrangement to cables that are connected to one another at pre-definable connecting points, characterised by the following steps: - provision of finished cable connectors, which, designed as stamped or deep-drawn parts, with their end edges placed on a longitudinal seam, delimit two cable holders lying adjacent to one another; - threading of the individual cable connectors on cables running parallel to one another such that at least one cable holder of a cable connector overlaps a cable holder of a subsequent and transversely offset cable connector along the course of the cable; - positioning of the columns of cable connectors, said columns running in a transverse direction to the cable, on the cables running parallel to one another, at the connecting points which are spaced apart from one another in the longitudinal direction of the cable; - pressing the cable connectors to fix said cable connectors on the received cables at the connecting points; and - spacing the connecting points of the cables apart from one another to form the netting arrangement. - provision of finished cable connectors, which, designed as stamped or deep-drawn parts, with their end edges placed on a longitudinal seam, delimit two cable holders lying adjacent to one another; - threading of the individual cable connectors on cables running parallel to one another such that at least one cable holder of a cable connector overlaps a cable holder of a subsequent and transversely offset cable connector along the course of the cable; - positioning of the columns of cable connectors, said columns running in a transverse direction to the cable, on the cables running parallel to one another, at the connecting points which are spaced apart from one another in the longitudinal direction of the cable; - pressing the cable connectors to fix said cable connectors on the received cables at the connecting points; and - spacing the connecting points of the cables apart from one another to form the netting arrangement.
A medical device comprising: a housing defining a channel configured to receive an electrical lead; and a rotatable member (102, 400) defining a longitudinal axis about which the rotatable member (102, 400) is configured to rotate, characterized in that the rotatable member (102, 400) defines: an outer surface having a first radius from the longitudinal axis; and a cam lobe extending farther from the longitudinal axis than the first radius of the outer surface, the cam lobe defining a substantially planar surface parallel to the longitudinal axis, wherein the substantially planar surface of the cam lobe is configured to retain the electrical lead within the channel. a housing defining a channel configured to receive an electrical lead; and a rotatable member (102, 400) defining a longitudinal axis about which the rotatable member (102, 400) is configured to rotate, characterized in that the rotatable member (102, 400) defines: an outer surface having a first radius from the longitudinal axis; and a cam lobe extending farther from the longitudinal axis than the first radius of the outer surface, the cam lobe defining a substantially planar surface parallel to the longitudinal axis, wherein the substantially planar surface of the cam lobe is configured to retain the electrical lead within the channel. an outer surface having a first radius from the longitudinal axis; and a cam lobe extending farther from the longitudinal axis than the first radius of the outer surface, the cam lobe defining a substantially planar surface parallel to the longitudinal axis, wherein the substantially planar surface of the cam lobe is configured to retain the electrical lead within the channel.
COMBINATION OF AN INTRODUCER WITH A MACHINE FOR PRIMARY PROCESSING OPERATIONS SUCH AS PRESSING, EMBOSSING, STAKING AND FINISHING, SAID MACHINE ACTING ON A PRODUCT LIKE LEATHER, TANNED LEATHER, FAKE LEATHER, FABRIC, SYNTHETIC MATERIAL AND OTHERS, said machines, commonly known by the term "presses", subjecting the product to a thermal heat treatment which in addition to occurring directly on the processing area, may occur also upstream thereof, when there is a need for pre-heating the product to reduce the processing times and/or improve the initial conditions of the processing; said introducer being positioned immediately upstream of the primary working station and serving the function of introducer station of the product to be worked and consisting of an apparatus which is totally independent and separate from the members of the machine operating in the primary working station, said introducer comprises a first device that consists of a pair of webs (1, 2) wound in a ring, mutually overlapping, so as to determine an intermediate zone, where the product, while in sliding engagement, undergoes a flattening and spreading effect before contacting the pressing and/or embossing members, consisting of a smooth or engraved upper roller, possibly also heated, working in counterpressure with a lower pressure roller, each of said webs (1,2) being provided with thermal apparatuses (3, 4), which transmit the heat to the two portions of said webs (1, 2) which define the channel for the passage of the product which, consequently, undergoes heating on both sides, obtaining a pre-heating of the product itself; said introducer being characterised in that it comprises a second device having the function of a transfer belt on which the operator deposits the product which is connected to said first device immediately upstream, and in that said thermal apparatuses (3,4) are provided inside each of said two webs (1,2).
Heat exchange plate for thermal management of a battery pack, comprising first and second plates, at least one of the first and second plates comprising at least one channel, the first and second plates being attached such that said channel partly delimits at least one duct of a circulation circuit for a heat transfer fluid, characterized in that said heat exchange plate further comprises at least one composite phase change material.
A method for catering services, wherein - at least one food placed for serving in a serving unit is selected for forming a meal portion, - a quantity of the food selected for the meal portion is weighed at the serving unit in connection with the selection, in which a weighing process is controlled such that at each food - before selecting the food to the meal portion, a weighing functionality is initialized, - finishing of the selection of the food is detected and the corresponding weighing result is stored, - information related to the selected food and/or the formed meal portion is determined using the content information and the quantitative information of the selected food, characterized in that - the content information is nutritional information and/or energy values of the selected food, - a diner of the meal portion to be formed is identified at each food by remote identification (15, 23) arranged to the serving unit, - assembling of meal portions is controlled based on the information of the diner identified at each food by remote identification (15, 23) arranged to the serving unit, - the weighing process is controlled by remote identification (15, 23) arranged to the serving unit such that at each food - before selecting the food to the meal portion, the weighing functionality is initialized with remote identification (15, 23), - finishing of the selection of the food is detected by remote identification (15, 23) and the corresponding weighing result is stored. - at least one food placed for serving in a serving unit is selected for forming a meal portion, - a quantity of the food selected for the meal portion is weighed at the serving unit in connection with the selection, in which a weighing process is controlled such that at each food - before selecting the food to the meal portion, a weighing functionality is initialized, - finishing of the selection of the food is detected and the corresponding weighing result is stored, - before selecting the food to the meal portion, a weighing functionality is initialized, - finishing of the selection of the food is detected and the corresponding weighing result is stored, - information related to the selected food and/or the formed meal portion is determined using the content information and the quantitative information of the selected food, characterized in that - the content information is nutritional information and/or energy values of the selected food, - a diner of the meal portion to be formed is identified at each food by remote identification (15, 23) arranged to the serving unit, - assembling of meal portions is controlled based on the information of the diner identified at each food by remote identification (15, 23) arranged to the serving unit, - the weighing process is controlled by remote identification (15, 23) arranged to the serving unit such that at each food - before selecting the food to the meal portion, the weighing functionality is initialized with remote identification (15, 23), - finishing of the selection of the food is detected by remote identification (15, 23) and the corresponding weighing result is stored.
A method for preparation of a super absorbent polymer comprising a crosslinked polymer, the crosslinked polymer being obtained by surface-crosslinking a base polymer prepared by polymerizing a water-soluble ethylene-based unsaturated monomer including an acidic group in which at least a part of the acidic group is neutralized, wherein the super absorbent polymer has a centrifuge retention capacity, measured according to EDANA WSP 241.2, of more than 20 g/g, an absorbency under 0.9 psi load, measured according to EDANA WSP 242.2, of more than 18 g/g, and ARUL shown in the following Equation 1 of 60% to 85%: ARUL = 0.3 AUL 5 min / 0.3 AUL 60 min in Equation 1, 0.3AUL(5 min) and 0.3AUL(60 min) are the values of absorbency under load at 5 minutes and 60 minutes shown in the following Equation 2, respectively, 0.3 AUL g / g = Wb g − Wa g / weight g of the absorbent polymer in Equation 2, Wa(g) is the sum of the weight of the absorbent polymer and the weight of the device capable of providing a load for the absorbent polymer, and Wb(g) is the sum of the weight of the absorbent polymer in which moisture is absorbed after supplying water for the absorbent polymer under a load (0.3 psi) for 5 minutes or 60 minutes, and the weight of the device capable of providing a load for the absorbent polymer, wherein the method comprises the steps of: 1) carrying out thermal polymerization or photopolymerization of a monomer composition including a water-soluble ethylene-based unsaturated monomer and a polymerization initiator to form a hydrous gel phase polymer; 2) passing the hydrous gel phase polymer through a chopper die and pulverizing the polymer; 3) drying the pulverized hydrous gel phase polymer; 4) pulverizing the dried polymer; and 5) surface-crosslinking the pulverized polymer, wherein the chopper die is provided with a plurality of holes, the chopper die has an opening/ closing rate of 30 to 40%, wherein the opening and closing rate of the chopper die refers to the total width of holes compared to the overall width of the upper surface of the chopper die, and the chopper die satisfies the following Mathematical Formula 1: c > 2 × 0.4 × π × n × A wherein A is the overall width of the upper surface of the chopper die, n is the number of holes, and c is the total circumference of the plurality of holes. Wa(g) is the sum of the weight of the absorbent polymer and the weight of the device capable of providing a load for the absorbent polymer, and Wb(g) is the sum of the weight of the absorbent polymer in which moisture is absorbed after supplying water for the absorbent polymer under a load (0.3 psi) for 5 minutes or 60 minutes, and the weight of the device capable of providing a load for the absorbent polymer, 1) carrying out thermal polymerization or photopolymerization of a monomer composition including a water-soluble ethylene-based unsaturated monomer and a polymerization initiator to form a hydrous gel phase polymer; 2) passing the hydrous gel phase polymer through a chopper die and pulverizing the polymer; 3) drying the pulverized hydrous gel phase polymer; 4) pulverizing the dried polymer; and 5) surface-crosslinking the pulverized polymer,
A method of preparing isopropyl alcohol, the method comprising: supplying a reaction product stream formed by reacting a propylene monomer and water in a reactor to an absorption column; supplying a lower discharge stream including isopropyl alcohol from the absorption column to a gas purification column and supplying a part of an upper discharge stream including an unreacted propylene monomer from the absorption column to an inert gas removal column; supplying an upper discharge stream including the unreacted propylene monomer from the gas purification column to the inert gas removal column and supplying a lower discharge stream including isopropyl alcohol from the gas purification column to an isopropyl alcohol purification section; and refluxing an upper discharge stream including the unreacted propylene monomer from the inert gas removal column to the reactor and supplying a lower discharge stream including isopropyl alcohol from the inert gas removal column to an isopropyl alcohol purification section. supplying a reaction product stream formed by reacting a propylene monomer and water in a reactor to an absorption column; supplying a lower discharge stream including isopropyl alcohol from the absorption column to a gas purification column and supplying a part of an upper discharge stream including an unreacted propylene monomer from the absorption column to an inert gas removal column; supplying an upper discharge stream including the unreacted propylene monomer from the gas purification column to the inert gas removal column and supplying a lower discharge stream including isopropyl alcohol from the gas purification column to an isopropyl alcohol purification section; and refluxing an upper discharge stream including the unreacted propylene monomer from the inert gas removal column to the reactor and supplying a lower discharge stream including isopropyl alcohol from the inert gas removal column to an isopropyl alcohol purification section.
Photoactive component comprising organic layers consisting of a single, tandem or multiple cell having two electrodes (2,9) and between the electrodes (2,9) a photoactive acceptor-donor layer system comprising at least three absorber materials 1, 2, 3, wherein at least two absorber materials of the photoactive acceptor-donor layer system are present at least partly in a mixed layer, wherein at least absorber material 1 and absorber material 2 are donors and absorber material 3 is an acceptor, or at least absorber material 1 and absorber material 2 are an acceptor and absorber material 3 is a donor, characterized in that (i) absorber material 2 absorbs at a greater wavelength than absorber material 1, and (ii) absorber material 2 has a smaller Stokes shift and/or a smaller absorption width in the film than absorber material 1, and (iii) absorber material 2 has a higher absorption, value of the optical density at the maximum, in comparison with absorber material 1. (i) absorber material 2 absorbs at a greater wavelength than absorber material 1, and (ii) absorber material 2 has a smaller Stokes shift and/or a smaller absorption width in the film than absorber material 1, and (iii) absorber material 2 has a higher absorption, value of the optical density at the maximum, in comparison with absorber material 1.
An apparatus for the transmission of an acoustic signal through a solid rigid substrate comprising: a first acoustic transducer for converting electrical signals into acoustic signals, the transducer being mounted on a first face of a solid rigid substrate to transmit the acoustic signals into the substrate; and a second acoustic transducer mounted on a second face of the substrate so as to receive acoustic signals emitted by the first acoustic transducer and to convert the acoustic signals into electrical signals; wherein at least one of the transducers (115, 120) is mounted on its respective face of the substrate via an intermediate element (125, 130), the transducer being bonded by a first bonding layer to the intermediate element (125, 130), and the element being bonded to the substrate by a second bonding layer (135, 140), the apparatus being characterised in that the intermediate element (125, 130) has a grooved or otherwise profiled surface to which the second bonding layer (135, 140) is attached, to accommodate debris present between the face of the substrate and the intermediate element (125, 130) during bonding thereof. a first acoustic transducer for converting electrical signals into acoustic signals, the transducer being mounted on a first face of a solid rigid substrate to transmit the acoustic signals into the substrate; and a second acoustic transducer mounted on a second face of the substrate so as to receive acoustic signals emitted by the first acoustic transducer and to convert the acoustic signals into electrical signals; wherein at least one of the transducers (115, 120) is mounted on its respective face of the substrate via an intermediate element (125, 130), the transducer being bonded by a first bonding layer to the intermediate element (125, 130), and the element being bonded to the substrate by a second bonding layer (135, 140), the apparatus being characterised in that the intermediate element (125, 130) has a grooved or otherwise profiled surface to which the second bonding layer (135, 140) is attached, to accommodate debris present between the face of the substrate and the intermediate element (125, 130) during bonding thereof.
Insulator arrangement having an insulating body, in which at least one fitting body (1, 2, 3) is fixed and which has, starting from the fitting body (1, 2, 3), a plurality of branches (9, 10, 11, 12, 13, 14, 15, 16) spanning an area, wherein at least one of the branches (9, 10, 11, 12, 13, 14, 15, 16) has, on the side remote from the spanned area, surfaces which fall away, with the remote side being kept free of depressions, characterized in that a plurality of fitting bodies (1, 2, 3) are fixed to the insulating body, wherein a first branch (9, 10, 11, 12, 13, 14, 15, 16), which protrudes from a first fitting body, and a second branch (9, 10, 11, 12, 13, 14, 15, 16), which protrudes from a second fitting body (1, 2, 3), have a common stop (5, 6, 7, 8) and a plurality of fitting bodies (1, 2, 3) are positioned one behind the other, aligned, in an axial direction, and the axial direction is parallel to one side of a rectangle, whose corner points are defined by four stops (5, 6, 7, 8) of the insulating body.
A clothes dryer comprising: a cabinet comprising a front panel; a door coupled to the front panel; a base disposed on a lower portion of the cabinet; an evaporator provided on the base; a condensate water tray disposed on the base and configured to receive water from the evaporator; a water tank configured to be withdrawn forward of the front panel and configured to store water received in the condensate water tray; and a cap configured to couple to the water tank, the cap comprising a closing member that is configured to move relative to the top surface part of the water tank, wherein the water tank comprises: a front surface part disposed vertically below the front panel of the cabinet; a top surface part that extends rearward from an upper portion of the front surface part, the top surface part defining a water tank inlet configured to be coupled to the cap; and a side surface part that extends rearward from each of both sides of the front surface part, characterized in that: the cap further comprises a cap body that defines a condensate water hole; and wherein the closing member comprises a plurality of parts (520a, 520b), each part having an eccentric weight distribution with a center of mass that is offset toward a side of the part. a cabinet comprising a front panel; a door coupled to the front panel; a base disposed on a lower portion of the cabinet; an evaporator provided on the base; a condensate water tray disposed on the base and configured to receive water from the evaporator; a water tank configured to be withdrawn forward of the front panel and configured to store water received in the condensate water tray; and a cap configured to couple to the water tank, the cap comprising a closing member that is configured to move relative to the top surface part of the water tank, wherein the water tank comprises: a front surface part disposed vertically below the front panel of the cabinet; a top surface part that extends rearward from an upper portion of the front surface part, the top surface part defining a water tank inlet configured to be coupled to the cap; and a side surface part that extends rearward from each of both sides of the front surface part, a front surface part disposed vertically below the front panel of the cabinet; a top surface part that extends rearward from an upper portion of the front surface part, the top surface part defining a water tank inlet configured to be coupled to the cap; and a side surface part that extends rearward from each of both sides of the front surface part, characterized in that: the cap further comprises a cap body that defines a condensate water hole; and wherein the closing member comprises a plurality of parts (520a, 520b), each part having an eccentric weight distribution with a center of mass that is offset toward a side of the part. the cap further comprises a cap body that defines a condensate water hole; and wherein the closing member comprises a plurality of parts (520a, 520b), each part having an eccentric weight distribution with a center of mass that is offset toward a side of the part.
Magnetocaloric heat generator comprising several magnetocaloric elements comprising each a first end and a second end, a magnetic arrangement intended for subjecting each magnetocaloric element to a variable magnetic field, creating alternately in each magnetocaloric element a heating cycle and a cooling cycle, a means for circulating a heat transfer fluid through said magnetocaloric elements alternately towards the first end and towards the second end and vice versa, in synchronisation with the variation of the magnetic field, and at least one means of exchange (15, 25, 35, 35', 45) of the thermal energy produced by said magnetocaloric elements with an external device, said exchange means being integrated in said heat generator so as to be crossed in one direction by the heat transfer fluid entering said magnetocaloric elements through one of the ends (3, 4) during a heating or cooling cycle and to be crossed in the opposite direction by the heat transfer fluid exiting said magnetocaloric elements through the same end (3, 4) during the other cooling or heating cycle, said exchange means being juxtaposed with at least one of the ends (3, 4) of said magnetocaloric elements and arranged at least between this end and said means for circulating the heat transfer fluid, said generator having a circular structure in which said magnetocaloric elements are arranged on a circular ring, and said exchange means (15, 25, 35, 35', 45) having a form of a circular ring and comprises several heat transfer zones arranged each in front of one of the magnetocaloric elements, each heat transfer zone being provided with through passages for the heat transfer fluid and at least one circuit made of at least one conduit (16, 46) for an external fluid belonging to said external device.