mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling the inside temperature of a refrigeration compartment, in particular of a refrigerator or freezer, comprising the step of acquiring a temperature signal by means of a temperature sensor, and the step of processing said temperature signal to selectively control refrigerating means of the refrigeration compartment comprising a compressor and an evaporator; wherein said step of processing said temperature signal is carried out i)- on the basis of a direct correlation between the temperature range inside the refrigeration compartment as acquired by said temperature sensor and the temperature on said refrigerating means, namely an evaporator, wherein direct correlation means that variations in the temperature of the evaporator and inside the refrigeration compartment, related to on/off cycles of the refrigerating means (compressor), are in phase with one another; and ii)- in such a manner to maintain a programmed temperature inside the refrigeration compartment and at the same time to provide for cyclic defrosting of said refrigerating means; characterized in that: iii)- the temperature sensor is located far away from the refrigerating means, in particular from the evaporator, and in a specific portion of the inside volume of the refrigeration compartment selected with the exclusion of a first top portion of the volume of the refrigeration compartment having a volume equal to roughly 8-10% of the total inside volume of the refrigeration compartment, and with the exclusion of a second front portion of a depth equal to 10% of the total inside depth of the refrigeration compartment; and iv)-said step ii) comprising a cyclic step of turning said compressor on and/or off. i)- on the basis of a direct correlation between the temperature range inside the refrigeration compartment as acquired by said temperature sensor and the temperature on said refrigerating means, namely an evaporator, wherein direct correlation means that variations in the temperature of the evaporator and inside the refrigeration compartment, related to on/off cycles of the refrigerating means (compressor), are in phase with one another; and ii)- in such a manner to maintain a programmed temperature inside the refrigeration compartment and at the same time to provide for cyclic defrosting of said refrigerating means; characterized in that: iii)- the temperature sensor is located far away from the refrigerating means, in particular from the evaporator, and in a specific portion of the inside volume of the refrigeration compartment selected with the exclusion of a first top portion of the volume of the refrigeration compartment having a volume equal to roughly 8-10% of the total inside volume of the refrigeration compartment, and with the exclusion of a second front portion of a depth equal to 10% of the total inside depth of the refrigeration compartment; and iv)-said step ii) comprising a cyclic step of turning said compressor on and/or off.
A cooling system for a turbine engine, comprising: a compressor formed from a plurality of stages positioned within a compressor chamber, each of the plurality of stages includes a set of radially extending compressor blades; and at least one mid-frame cooling channel extending from an inlet through at least one mid-frame torque disc positioned downstream of the compressor and upstream of a turbine assembly, wherein the at least one mid-frame torque disc is formed from a torque disc rim positioned radially outward of a torque disc hub, wherein the torque disc rim and the torque disc hub are separated by a torque disc web having an axially extending width that is less than both the torque disc rim and the torque disc hub, wherein the at least one mid-frame cooling channel is positioned in the torque disc rim, and wherein the at least one mid-frame cooling channel extends axially through the at least one mid-frame torque disc within a radially outwardmost 50 percent of the at least one mid-frame torque disc, further comprising an outlet section in communication with an outlet of the cooling system, wherein the outlet section is positioned immediately upstream from the outlet, wherein the outlet section is non-parallel and non-orthogonal to a longitudinal axis of the turbine engine and positioned against a rotating direction of the turbine engine to create deswirling action for minimum pressure drop. a compressor formed from a plurality of stages positioned within a compressor chamber, each of the plurality of stages includes a set of radially extending compressor blades; and at least one mid-frame cooling channel extending from an inlet through at least one mid-frame torque disc positioned downstream of the compressor and upstream of a turbine assembly, wherein the at least one mid-frame torque disc is formed from a torque disc rim positioned radially outward of a torque disc hub, wherein the torque disc rim and the torque disc hub are separated by a torque disc web having an axially extending width that is less than both the torque disc rim and the torque disc hub, wherein the at least one mid-frame cooling channel is positioned in the torque disc rim, and wherein the at least one mid-frame cooling channel extends axially through the at least one mid-frame torque disc within a radially outwardmost 50 percent of the at least one mid-frame torque disc, further comprising an outlet section in communication with an outlet of the cooling system, wherein the outlet section is positioned immediately upstream from the outlet, wherein the outlet section is non-parallel and non-orthogonal to a longitudinal axis of the turbine engine and positioned against a rotating direction of the turbine engine to create deswirling action for minimum pressure drop.
Filter-paper insert for making brewed beverages, especially coffee or tea, comprising at least two layers of filter paper, which are connected to each other at a base and at opposite side walls (3, 5) for forming an interior space that can be filled, wherein a plurality of slots (11, 13, 15) are introduced into the filter paper for increasing permeability, characterized in that in a lower region of the filter-paper insert arranged adjacent to the base fewer slots per surface area are formed than in an upper region arranged adjacent to a filling opening and at least one region of the filter paper is crimped with a slot (11, 13, 15), wherein the crimped portion (20, 21, 22) is arranged in a substantially pot-shaped way and the slot (11, 13, 15) is arranged on a base section of the crimped portion (20, 21, 22).
Setting tool for a setting tool system for setting capsule anchors, the setting tool comprising a shank and a head that is arranged at one end of the shank and has a connecting portion to which a drive head of a capsule anchor can be connected, characterized in that the shank has a thread in a threaded portion that adjoins the head, and has a thread-free portion at an end of the shank opposite the head.
Process for the production of 5-formylvaleric acid and adipic acid or esters thereof from an isomeric mixture of pentenoic acid or esters thereof said mixture comprising at least 4-pentenoic acid or esters thereof, and further comprising 3-pentenoic acid and/or 2-pentenoic acid or esters thereof, the process comprising: (a) subjecting the isomeric mixture of pentenoic acid to a hydroformylation reaction comprising a hydroformylation catalyst which is non-isomerizing towards the pentenoic acid or esters thereof to obtain a mixture comprising 5-formylvaleric acid or esters thereof and further comprising 3-pentenoic acid and/or 2-pentenoic acid, or esters thereof; (b) separating the 3-pentenoic acid and/or 2-pentenoic acid, or esters thereof from the 5-formylvaleric acid or esters thereof; (c) subjecting the separated pentenoic acids or esters thereof to a carbonylation reaction comprising a isomerizing carbonylation catalyst to obtain adipic acid or esters thereof; (d) optionally isolating the adipic acid or ester thereof; and (e) optionally isolating the separated 5-formylvaleric acid or esters thereof. (a) subjecting the isomeric mixture of pentenoic acid to a hydroformylation reaction comprising a hydroformylation catalyst which is non-isomerizing towards the pentenoic acid or esters thereof to obtain a mixture comprising 5-formylvaleric acid or esters thereof and further comprising 3-pentenoic acid and/or 2-pentenoic acid, or esters thereof; (b) separating the 3-pentenoic acid and/or 2-pentenoic acid, or esters thereof from the 5-formylvaleric acid or esters thereof; (c) subjecting the separated pentenoic acids or esters thereof to a carbonylation reaction comprising a isomerizing carbonylation catalyst to obtain adipic acid or esters thereof; (d) optionally isolating the adipic acid or ester thereof; and (e) optionally isolating the separated 5-formylvaleric acid or esters thereof.
A method comprising receiving or determining an input data stream; propagating the input data stream through a plurality of consecutive input processing stages (S10, S11), wherein the input data stream is provided at an input section (IN_10) of the consecutive input processing stages (S10, S11), wherein a plurality of output data streams (C1, C2, C3, C4) is provided at an output section (OUT_10) of the plurality of consecutive input processing stages (S10, S11), wherein the plurality of input processing stages (S10, S11) comprise an increasing number of processing units (S10a; S11a, S11b) per processing stage (S10, S11) in the direction of the output section (OUT_10), wherein the respective processing unit (S10a; S11a, S11b) determines a plurality of output streams (B1, B2; C1, C2; C3, C4) based on its input data stream (A; B1; B2) and based on a scheduling scheme (LB; PD, PS) that is associated with the respective input processing stage (S10, S11), and wherein the scheduling schemes (LB; PD, PS) differ from each other at least between adjacent input processing stages (S10, S11); and transmitting the plurality of output data streams (C1, C2, C3, C4) provided at the output section (OUT_10) via a plurality of communication channels (Ch1, Ch2, Ch3, Ch4). receiving or determining an input data stream; propagating the input data stream through a plurality of consecutive input processing stages (S10, S11), wherein the input data stream is provided at an input section (IN_10) of the consecutive input processing stages (S10, S11), wherein a plurality of output data streams (C1, C2, C3, C4) is provided at an output section (OUT_10) of the plurality of consecutive input processing stages (S10, S11), wherein the plurality of input processing stages (S10, S11) comprise an increasing number of processing units (S10a; S11a, S11b) per processing stage (S10, S11) in the direction of the output section (OUT_10), wherein the respective processing unit (S10a; S11a, S11b) determines a plurality of output streams (B1, B2; C1, C2; C3, C4) based on its input data stream (A; B1; B2) and based on a scheduling scheme (LB; PD, PS) that is associated with the respective input processing stage (S10, S11), and wherein the scheduling schemes (LB; PD, PS) differ from each other at least between adjacent input processing stages (S10, S11); and transmitting the plurality of output data streams (C1, C2, C3, C4) provided at the output section (OUT_10) via a plurality of communication channels (Ch1, Ch2, Ch3, Ch4).
A portable electric vibrating machine (100;200;300;400;500) for harvesting fruit, and in particular small fruit, comprising: - a pole (104;504), - a tool head (102;506) provided with an eccentric which rotates about a center of rotation, and is connected at one end, referred to as a distal end, of said pole (104; 504) at a fixation point, and - at least one comb-like member (202;302,304) comprising: • a body (204;306,308) from which a plurality of fingers (206;310,312) extends, and • an elongate opening (208; 314, 316) provided for interacting with said eccentric and creating an oscillating movement of said at least one comb-like member (202; 302,304); characterized in that said fixation point is aligned with said center of rotation in a longitudinal direction of said portable electric vibrating machine (100;200;300;400;500) and in that each comb-like member (202;302,304) is connected to said tool head (102;506) via an individual pivot point (205;307,309) which is: - aligned with said fixation point of said pole on said tool head (102;506) and said center of rotation of said eccentric in said longitudinal direction, and arranged between said fixation point and said center of rotation, or - outside of the alignment of said fixation point of the pole on said tool head (102;506) with said center of rotation of said eccentric in said longitudinal direction. - a pole (104;504), - a tool head (102;506) provided with an eccentric which rotates about a center of rotation, and is connected at one end, referred to as a distal end, of said pole (104; 504) at a fixation point, and - at least one comb-like member (202;302,304) comprising: • a body (204;306,308) from which a plurality of fingers (206;310,312) extends, and • an elongate opening (208; 314, 316) provided for interacting with said eccentric and creating an oscillating movement of said at least one comb-like member (202; 302,304); • a body (204;306,308) from which a plurality of fingers (206;310,312) extends, and • an elongate opening (208; 314, 316) provided for interacting with said eccentric and creating an oscillating movement of said at least one comb-like member (202; 302,304); - aligned with said fixation point of said pole on said tool head (102;506) and said center of rotation of said eccentric in said longitudinal direction, and arranged between said fixation point and said center of rotation, or - outside of the alignment of said fixation point of the pole on said tool head (102;506) with said center of rotation of said eccentric in said longitudinal direction.
Magnetic resonance apparatus with a scanner unit, a patient receiving region surrounded at least partially by the scanner unit, wherein the scanner unit comprises a housing unit, which at least partially surrounds the patient receiving region, and a communication unit with at least one microphone unit, wherein the at least one microphone unit has at least one decoupling element is arranged on the housing unit in a vibrationdecoupled manner by means of the at least one decoupling element, characterised in that the at least one microphone unit has a terminal board and a microphone board with a microphone and the at least one microphone unit has two or more contact elements which can vary in terms of their length and which each comprise a contact spring and which are arranged between the terminal board and the microphone board on the side facing the terminal board, wherein the microphone board has concentric conductor paths, which are interrupted at at least one point, wherein the two or more contact springs are arranged on the side of the terminal board facing the microphone board such that the individual contact springs with the end of the contact springs facing the microphone board each make contact with one of the conductor paths of the microphone board.
A slip form paver apparatus configured to move in a paving direction across a ground surface for forming concrete into a finished concrete structure, the slip form paver apparatus comprising: a main frame; a slip form paver mold supported from the main frame; at least one side form assembly (26, 28) configured to close the slip form paver mold on at least one side of the slip form paver mold, the at least one side form assembly (26, 28) including: a mounting portion supported from the main frame or from the slip form paver mold; a side form supported from the mounting portion and vertically movable relative to the mounting portion to engage the ground surface; and a side form actuator configured to move the side form up and down relative to the mounting portion to adjust a height of the side form relative to the ground surface; at least one side form height sensor configured to detect directly or indirectly the height of the side form relative the ground surface; and a controller configured to receive an input signal from the at least one side form height sensor, and to send a control signal based at least in part on the input signal to the side form actuator to control the height of the side form relative to the ground surface. a main frame; a slip form paver mold supported from the main frame; at least one side form assembly (26, 28) configured to close the slip form paver mold on at least one side of the slip form paver mold, the at least one side form assembly (26, 28) including: a mounting portion supported from the main frame or from the slip form paver mold; a side form supported from the mounting portion and vertically movable relative to the mounting portion to engage the ground surface; and a side form actuator configured to move the side form up and down relative to the mounting portion to adjust a height of the side form relative to the ground surface; a mounting portion supported from the main frame or from the slip form paver mold; a side form supported from the mounting portion and vertically movable relative to the mounting portion to engage the ground surface; and a side form actuator configured to move the side form up and down relative to the mounting portion to adjust a height of the side form relative to the ground surface; at least one side form height sensor configured to detect directly or indirectly the height of the side form relative the ground surface; and a controller configured to receive an input signal from the at least one side form height sensor, and to send a control signal based at least in part on the input signal to the side form actuator to control the height of the side form relative to the ground surface.
An exercise system comprising: an exercise monitoring device that gathers data regarding an outdoor exercise routine; a remote communication system communicatively connectable to the exercise monitoring device, the remote communication system being receptive to the data regarding the outdoor exercise routine, and an exercise device that is communicatively connectable to the remote communication system; wherein the remote communication system or the exercise device generates an exercise program based on the data regarding the outdoor exercise routine; wherein the exercise device is being receptive to the exercise program, wherein the exercise program causes the exercise device to simulate one or more aspects of the outdoor exercise routine; wherein the remote communication system or the exercise device generates the exercise program by creating one or more control commands that cause adjustments to one or more operating parameters of the exercise device; and wherein the remote communication system or the exercise device generates the exercise program by synchronizing one or more images of the outdoor exercise routine with the one or more control commands. an exercise monitoring device that gathers data regarding an outdoor exercise routine; a remote communication system communicatively connectable to the exercise monitoring device, the remote communication system being receptive to the data regarding the outdoor exercise routine, and an exercise device that is communicatively connectable to the remote communication system; wherein the remote communication system or the exercise device generates an exercise program based on the data regarding the outdoor exercise routine; wherein the exercise device is being receptive to the exercise program, wherein the exercise program causes the exercise device to simulate one or more aspects of the outdoor exercise routine; wherein the remote communication system or the exercise device generates the exercise program by creating one or more control commands that cause adjustments to one or more operating parameters of the exercise device; and wherein the remote communication system or the exercise device generates the exercise program by synchronizing one or more images of the outdoor exercise routine with the one or more control commands.
Training pole for athletes, such as for example Nordic walkers, joggers, walkers, roller skaters or summer cross-country skiers, who move on a surface in a running direction, with a longitudinal pole at the lower end of which at least one wheel is disposed, characterized in that a forearm rest with a front end and a back end is fastened pivotably to the upper end of the pole, whereby the forearm rest and the pole are additionally interlinked via a spring or an elastic restoring element, so that the angle of inclination (α) between the front end of the forearm rest and the pole longitudinal axis is pivotable against the force of the spring or the elastic restoring element to larger angles of inclination (α).
A method for conveying itinerary information to a vehicle in a vehicle train, the vehicle train comprises: one leading vehicle and at least one following vehicle and wherein the leading vehicle being traveling close to the following vehicle for reducing the air resistance of the following vehicle and consequently for reducing the fuel consumption of the following vehicle, characterised by the steps of - travelling with a following vehicle in a predetermined distance less than 50 metres to the leading vehicle, - conveying itinerary information in the form of visual field images from the leading vehicle to the following vehicle comprised in said vehicle train in real time, - providing said itinerary information conveyed in said following vehicle in such a way that a plurality of visual fields available in said leading vehicle are continuously made available in said following vehicle; - continuously presenting said itinerary information conveyed in said following vehicle in which said itinerary information being conveyed in real time in the form of a video stream; and - conveying from the leading vehicle to the following vehicle information about how said leading vehicle wishes to regulate its speed. one leading vehicle and at least one following vehicle and wherein the leading vehicle being traveling close to the following vehicle for reducing the air resistance of the following vehicle and consequently for reducing the fuel consumption of the following vehicle, characterised by the steps of - travelling with a following vehicle in a predetermined distance less than 50 metres to the leading vehicle, - conveying itinerary information in the form of visual field images from the leading vehicle to the following vehicle comprised in said vehicle train in real time, - providing said itinerary information conveyed in said following vehicle in such a way that a plurality of visual fields available in said leading vehicle are continuously made available in said following vehicle; - continuously presenting said itinerary information conveyed in said following vehicle in which said itinerary information being conveyed in real time in the form of a video stream; and - conveying from the leading vehicle to the following vehicle information about how said leading vehicle wishes to regulate its speed. - travelling with a following vehicle in a predetermined distance less than 50 metres to the leading vehicle, - conveying itinerary information in the form of visual field images from the leading vehicle to the following vehicle comprised in said vehicle train in real time, - providing said itinerary information conveyed in said following vehicle in such a way that a plurality of visual fields available in said leading vehicle are continuously made available in said following vehicle; - continuously presenting said itinerary information conveyed in said following vehicle in which said itinerary information being conveyed in real time in the form of a video stream; and - conveying from the leading vehicle to the following vehicle information about how said leading vehicle wishes to regulate its speed.