mhurhangee/ep-ind-claims huggingface dataset:
A cooler, comprising: an outer frame; a product space within the outer frame; and a plurality of shelf assemblies positioned within the product space; the plurality of shelf assemblies comprising an evaporator coil (280, 285) and one or more phase change material cells with a phase change material therein; the plurality of shelf assemblies dividing the product space into a plurality of shelf chambers, each having the evaporator coil (280, 285) and the one or more phase change material cells on a top and bottom thereof, the plurality of shelf assemblies comprising a top surface and a bottom surface, the cooler being characterised by the phase change material being disposed within the phase change material cells positioned on top of and below the evaporator coil (280, 285) within the plurality of shelf assemblies between the top surface and the bottom surface of the plurality of shelf assemblies; the plurality of shelf assemblies comprising one or more layers of insulation positioned about the phase change material cells; and the plurality of shelf assemblies comprising one or more spring loaded bolts positioned between the top surface and the bottom surface of the plurality of shelf assemblies, the one or more spring loaded bolts being configured to accommodate thermal expansion and contraction of the phase change material cells. an outer frame; a product space within the outer frame; and a plurality of shelf assemblies positioned within the product space; the plurality of shelf assemblies comprising an evaporator coil (280, 285) and one or more phase change material cells with a phase change material therein; the plurality of shelf assemblies dividing the product space into a plurality of shelf chambers, each having the evaporator coil (280, 285) and the one or more phase change material cells on a top and bottom thereof, the plurality of shelf assemblies comprising a top surface and a bottom surface, the cooler being characterised by the phase change material being disposed within the phase change material cells positioned on top of and below the evaporator coil (280, 285) within the plurality of shelf assemblies between the top surface and the bottom surface of the plurality of shelf assemblies; the plurality of shelf assemblies comprising one or more layers of insulation positioned about the phase change material cells; and the plurality of shelf assemblies comprising one or more spring loaded bolts positioned between the top surface and the bottom surface of the plurality of shelf assemblies, the one or more spring loaded bolts being configured to accommodate thermal expansion and contraction of the phase change material cells.
Sensor device, in particular for a gripping device or a robot, having a first tactile sensor, which is configured to determine a force acting between the sensor device and an object, having a second capacitive sensor, which is configured to determine a distance (61, 62, 63) between the sensor device and the object, wherein the first sensor comprises a first layer and a second layer composed of a conductive material, wherein the second sensor has a layer, wherein the layer comprises a first subregion and a third subregion composed of a conductive material and a second subregion composed of a dielectric, which is arranged, in particular concentrically, between the first subregion and the third subregion, characterized in that a third layer composed of a piezoelectric material is arranged between the first layer and the second layer of the first sensor. wherein the second sensor has a layer, wherein the layer comprises a first subregion and a third subregion composed of a conductive material and a second subregion composed of a dielectric, which is arranged, in particular concentrically, between the first subregion and the third subregion, characterized in that a third layer composed of a piezoelectric material is arranged between the first layer and the second layer of the first sensor.
A mutant alpha-synuclein with increased toxicity compared to wild-type alpha-synuclein having the amino acid sequence shown in SEQ ID NO: 1, or a homologue thereof, wherein the mutant alpha-synuclein or homologue thereof comprises at least one amino acid substitution at the alanine at position 56, wherein A56 is substituted by a proline residue.
A catalyst composition comprising particles of gold-platinum alloy and particles of platinum on a support selected from the group consisting of titanias, zirconias, silicas and montmorillonites, wherein (a) the molar ratio of platinum to gold on the support is from 10:1 to 1:2, and (b) the particle sizes of the platinum particles are substantially in the range of from 5 to 30 nanometers.
An integrated femoral bone alignment device arranged and configured to prepare a patient's unprepared femoral bone in a partial knee reconstruction surgery to receive a unicompartmental femoral implant, the device comprising: a top end, a bottom end, a front surface, a rear surface, a medial side surface, and a lateral side surface; a femoral alignment drill guide extending from the rear surface to the front surface, the femoral alignment drill guide arranged and configured to form an alignment hole in a distal end of the patient's femoral bone to establish alignment of the unicompartmental femoral implant; a cutting slot extending from the rear surface to the front surface, the cutting slot being arranged and configured to receive a surgical cutting instrument for resecting a portion of the patient's unprepared femoral bone; one or more anatomical reference markers to establish alignment of the integrated femoral bone alignment device, and hence the unicompartmental femoral implant, relative to patient's unprepared femoral bone, wherein the one or more anatomical reference markers includes: a first anatomical reference marker extending along the top end of the device from the rear surface towards the front surface; and a second anatomical reference marker extending along the front surface of the device from the top end to the bottom end. a top end, a bottom end, a front surface, a rear surface, a medial side surface, and a lateral side surface; a femoral alignment drill guide extending from the rear surface to the front surface, the femoral alignment drill guide arranged and configured to form an alignment hole in a distal end of the patient's femoral bone to establish alignment of the unicompartmental femoral implant; a cutting slot extending from the rear surface to the front surface, the cutting slot being arranged and configured to receive a surgical cutting instrument for resecting a portion of the patient's unprepared femoral bone; one or more anatomical reference markers to establish alignment of the integrated femoral bone alignment device, and hence the unicompartmental femoral implant, relative to patient's unprepared femoral bone, wherein the one or more anatomical reference markers includes: a first anatomical reference marker extending along the top end of the device from the rear surface towards the front surface; and a second anatomical reference marker extending along the front surface of the device from the top end to the bottom end. a first anatomical reference marker extending along the top end of the device from the rear surface towards the front surface; and a second anatomical reference marker extending along the front surface of the device from the top end to the bottom end.
Method for monitoring oestrus of a cattle animal, in particular a cow, the method comprising: a) collecting activity data of the animal, b) computing a current activity level based on the activity data, c) deciding whether to generate an oestrus attention signal by comparing at least one current activity level to a corresponding baseline activity level, wherein action b) further comprises b1) detecting travelling movements of the animal, characterised in that action b) further comprises b2) correcting the current activity level for detected travelling movements, wherein correcting the current activity level for detected travelling movements is done by discarding activity data related to travelling movements or subtracting activity data related to travelling movements from the activity data. a) collecting activity data of the animal, b) computing a current activity level based on the activity data, c) deciding whether to generate an oestrus attention signal by comparing at least one current activity level to a corresponding baseline activity level,
Device for monitoring patient's vital functions comprising a computing unit, a measuring electrode, a piezoelectric transducer, wherein the piezoelectric transducer comprises a first electrode and a second electrode and a piezoelectric element formed by piezoelectric material, wherein the piezoelectric element is positioned between the first electrode and the second electrode, wherein the measuring electrode forms, together with the first electrode or the second electrode of the piezoelectric transducer, a measuring capacitor, wherein the piezoelectric transducer and the measuring capacitor are electrically connected with the computing unit, wherein the measuring electrode is connected to a board, wherein the piezoelectric transducer is propped against the board, on which the measuring electrode is located, in at least two positions, wherein between the at least two positions is located a flexible portion of the piezoelectric transducer and wherein the computing unit is configured to combine piezoelectric voltage measurement and capacity measurement function
A machining program generation device generating a machining program machining a workpiece using a tool having a plurality of cutting edges, the device comprising: a storage unit storing a machining condition for each region of the tool set based on the number of effective edges of each portion of the tool; a contact region calculation unit calculating a region of the tool contacting the workpiece at the time of machining from a shape of the workpiece, a shape of an edge part of the tool and a tool path, wherein the region of the tool is set based on the number of effective edges of each portion of the tool; and a machining program generation unit generating a machining program based on the machining condition stored in the storage unit and the tool path corresponding to the region of the tool contacting the workpiece calculated by the contact region calculation unit. a storage unit storing a machining condition for each region of the tool set based on the number of effective edges of each portion of the tool; a contact region calculation unit calculating a region of the tool contacting the workpiece at the time of machining from a shape of the workpiece, a shape of an edge part of the tool and a tool path, wherein the region of the tool is set based on the number of effective edges of each portion of the tool; and a machining program generation unit generating a machining program based on the machining condition stored in the storage unit and the tool path corresponding to the region of the tool contacting the workpiece calculated by the contact region calculation unit.
A method of threading a yarn end into a ring traveller on a ring with a flange at a spinning station of a ring spinning machine, • in which the yarn end is sucked into a vacuum tube, by which the yarn end is positioned with respect to a bobbin and, subsequently, • an oblique threading section of the yarn end is created and positioned at the flange of the ring, wherein said oblique threading section of the yarn end is inclined by angle α with respect to the horizontal plane; • the oblique threading section of the yarn end is formed by turning a pair of vertically situated and spaced apart positioning pins (921, 922) around a vertical axis and thereby wrapping the yarn end between the bobbin and the vacuum tube around the pair of vertically situated spaced-apart positioning pins (921, 922), and in the concurrent motion of both positioning pins (921, 922) so that the oblique threading section of the yarn end moves towards the flange of the ring, and the ring traveller is set into motion by compressed air so that it is subsequently put onto the yarn end and the yarn end is threaded into the ring traveller in the area of the oblique threading section. • in which the yarn end is sucked into a vacuum tube, by which the yarn end is positioned with respect to a bobbin and, subsequently, • an oblique threading section of the yarn end is created and positioned at the flange of the ring, wherein said oblique threading section of the yarn end is inclined by angle α with respect to the horizontal plane; • the oblique threading section of the yarn end is formed by turning a pair of vertically situated and spaced apart positioning pins (921, 922) around a vertical axis and thereby wrapping the yarn end between the bobbin and the vacuum tube around the pair of vertically situated spaced-apart positioning pins (921, 922), and in the concurrent motion of both positioning pins (921, 922) so that the oblique threading section of the yarn end moves towards the flange of the ring, and the ring traveller is set into motion by compressed air so that it is subsequently put onto the yarn end and the yarn end is threaded into the ring traveller in the area of the oblique threading section.
A paper web turn-up system turn-up tape delivery assembly adapted to deliver a primary tape and a secondary tape across a paper web and utilized to sever a paper web and transfer the paper web onto an empty spool, the turn-up tape delivery assembly comprising: a track body, said track body comprising a primary channel adapted to receive a primary tape, a secondary channel adapted to receive a secondary tape, an elongated slot in communication with said primary channel and said secondary channel, and a discharge end; wherein both said primary channel and said secondary channel are adapted to communicate with said discharge end of said track body such that the primary tape and the secondary tape are deliverable through said discharge end; a primary tape delivery assembly adapted to deliver the primary tape into said primary channel of said track body; a secondary tape delivery assembly adapted to deliver the secondary tape into said secondary channel of said track body; wherein in the event of a misfeed of the primary tape through said primary channel of said track body or a malfunction of the primary tape delivery system, the secondary tape is delivered by said secondary tape delivery system through said secondary channel and said discharge end of said track body. a track body, said track body comprising a primary channel adapted to receive a primary tape, a secondary channel adapted to receive a secondary tape, an elongated slot in communication with said primary channel and said secondary channel, and a discharge end; wherein both said primary channel and said secondary channel are adapted to communicate with said discharge end of said track body such that the primary tape and the secondary tape are deliverable through said discharge end; a primary tape delivery assembly adapted to deliver the primary tape into said primary channel of said track body; a secondary tape delivery assembly adapted to deliver the secondary tape into said secondary channel of said track body; wherein in the event of a misfeed of the primary tape through said primary channel of said track body or a malfunction of the primary tape delivery system, the secondary tape is delivered by said secondary tape delivery system through said secondary channel and said discharge end of said track body.
Method, implemented in an engine control of a vehicle, of limiting a correction of at least one parameter, said correction being carried out by several adaptives, characterized in that the method comprises the following steps: - a calculation, for each adaptive, of an individual impact value of said adaptive on said at least one parameter for a current operating point of the engine; - a calculation of an overall impact value of all the adaptives on said at least one parameter for the current operating point of the engine; - a comparison of the calculated overall impact value to at least one predefined overall impact threshold value; - a calculation, depending on the result of the comparison, of a reduction factor to be applied to the adaptives; and - an application, to each of the adaptives, of the calculated reduction factor, thus providing a set of reduced adaptives. - a calculation, for each adaptive, of an individual impact value of said adaptive on said at least one parameter for a current operating point of the engine; - a calculation of an overall impact value of all the adaptives on said at least one parameter for the current operating point of the engine; - a comparison of the calculated overall impact value to at least one predefined overall impact threshold value; - a calculation, depending on the result of the comparison, of a reduction factor to be applied to the adaptives; and - an application, to each of the adaptives, of the calculated reduction factor, thus providing a set of reduced adaptives.
A flexible substrate testing system, comprising: a first substrate support structure configured to hold a first portion of a flexible substrate under test; a second substrate support structure configured to hold a second portion of the flexible substrate; one or more actuators configured to move the first and second substrate support structures (104, 106) at respective angles to fold the flexible substrate; a first load cell configured to measure loads on the first substrate support structure and a second load cell configured to measure load on the second substrate support structure while the actuator moves the first substrate support structure and the second substrate support structure, and a single input shaft; a first secondary shaft configured to move the first substrate support structure and a second secondary shaft configured to move the second substrate support structure, wherein the one or more actuators are configured to move the first and second substrate support structures (104, 106) simultaneously by driving the single input shaft, wherein the input shaft is coupled to the first secondary shaft and to the second secondary shaft. a first substrate support structure configured to hold a first portion of a flexible substrate under test; a second substrate support structure configured to hold a second portion of the flexible substrate; one or more actuators configured to move the first and second substrate support structures (104, 106) at respective angles to fold the flexible substrate; a first load cell configured to measure loads on the first substrate support structure and a second load cell configured to measure load on the second substrate support structure while the actuator moves the first substrate support structure and the second substrate support structure, and a single input shaft; a first secondary shaft configured to move the first substrate support structure and a second secondary shaft configured to move the second substrate support structure, wherein the one or more actuators are configured to move the first and second substrate support structures (104, 106) simultaneously by driving the single input shaft, wherein the input shaft is coupled to the first secondary shaft and to the second secondary shaft.
An in vitro method for managing patient treatment comprising determining the expression level of a gene encoding a polypeptide containing SEQ ID NO: 1 in a sample obtained from the patient under a treatment for an inflammatory or autoimmune disorder, comparing the level of the gene encoding the polypeptide containing SEQ ID NO: 1 with a predetermined level to determine whether the patient is suitable for the treatment, wherein the predetermined level is obtained from a normal subject or obtained from the patient prior to the treatment; and wherein a decrease of the expression level of the gene encoding the polypeptide containing SEQ ID NO: 1 in the patient after the treatment when compared to the predetermined level indicates that the subject can be further treated by the same treatment.
A refrigerator comprising: a body provided with a storage chamber; a door configured to open or close the storage chamber; a display unit provided on the door; and a heat radiating unit configured to radiate heat generated in the display unit via a heat radiating flow path formed by a heat radiating cover, a first heat radiating duct and a second heat radiating duct; wherein one end of the heat radiating flow path is communicated with an outside via a first opening formed in a top surface of the door, the other end of the heat radiating flow path is communicated with the outside via a second opening formed in a bottom surface of the door, the door includes an insulation member, the heat radiating unit includes the heat radiating cover disposed to cover a rear surface of the display unit, the first heat radiating duct connecting the first opening to the heat radiating cover, and the second heat radiating duct connecting the second opening to the heat radiating cover, and the insulation member is provided in each region between a front surface of the door and the first heat radiating duct, between a rear surface of the door and the first heat radiating duct, between the front surface of the door and the second heat radiating duct, and between the rear surface of the door and the second heat radiating duct. a body provided with a storage chamber; a door configured to open or close the storage chamber; a display unit provided on the door; and a heat radiating unit configured to radiate heat generated in the display unit via a heat radiating flow path formed by a heat radiating cover, a first heat radiating duct and a second heat radiating duct; wherein one end of the heat radiating flow path is communicated with an outside via a first opening formed in a top surface of the door, the other end of the heat radiating flow path is communicated with the outside via a second opening formed in a bottom surface of the door, the door includes an insulation member, the heat radiating unit includes the heat radiating cover disposed to cover a rear surface of the display unit, the first heat radiating duct connecting the first opening to the heat radiating cover, and the second heat radiating duct connecting the second opening to the heat radiating cover, and the insulation member is provided in each region between a front surface of the door and the first heat radiating duct, between a rear surface of the door and the first heat radiating duct, between the front surface of the door and the second heat radiating duct, and between the rear surface of the door and the second heat radiating duct.
Method for laying a floor covering consisting of various surface elements at a distance to a substrate, wherein support elements are arranged on the substrate at a distance from each other and subsequently the surface elements are laid on the support elements, wherein each support element has in each case a plastically deformable curable material batch in the processing state, on which a distance element (7, 17) is placed, wherein the surface element is aligned relatively to the substrate on the support element, before the material batch cures, wherein the distance element (7, 17) is a deformable formation, the shaping of which is adjusted to the curable material batch and to a resting surface element or to a resting bearing element, characterized in that the distance element (7, 17) is configured to be capillary breaking and water-discharging.