mhurhangee/ep-ind-claims huggingface dataset:
1. An avocado cutting and pitting process, including: - stages of feeding, orienting and advancing along several lines of avocado on fruit-holding flights equipped with recesses with diametrical slots, - a cutting stage in which each avocado is divided into two halves by means of a pair of knives (43, 44; 430, 440) with facing blades, and - a pitting stage in which the avocado pit is beaten by means of a plunger to be slightly moved inside the avocado and detached from the pulp, characterized in that the cutting and pitting stages include: - a vertical approach step of the pairs of knives (43, 44; 430, 440) to the fruit-holding flights so that the blades of each pair are inserted in opposite sides of the avocado and in said diametrical slots of the recesses in which the avocados are placed, - a horizontal translation step of the pairs of knives (43, 44; 430, 440) so that the blades approach each other around the same pit, - a horizontal translation step of the pairs of knives (43, 44; 430, 440) so that the blades move away from each other with respect to the pit, - a lowering step of the plungers for beating the pits, - a lifting step of the plungers with respect to the pits, and - a vertical removal step of the pairs of knives (43, 44; 430, 440) with respect to the avocados cut and pitted on the fruit-holding flights. - stages of feeding, orienting and advancing along several lines of avocado on fruit-holding flights equipped with recesses with diametrical slots, - a cutting stage in which each avocado is divided into two halves by means of a pair of knives (43, 44; 430, 440) with facing blades, and - a pitting stage in which the avocado pit is beaten by means of a plunger to be slightly moved inside the avocado and detached from the pulp, - a vertical approach step of the pairs of knives (43, 44; 430, 440) to the fruit-holding flights so that the blades of each pair are inserted in opposite sides of the avocado and in said diametrical slots of the recesses in which the avocados are placed, - a horizontal translation step of the pairs of knives (43, 44; 430, 440) so that the blades approach each other around the same pit, - a horizontal translation step of the pairs of knives (43, 44; 430, 440) so that the blades move away from each other with respect to the pit, - a lowering step of the plungers for beating the pits, - a lifting step of the plungers with respect to the pits, and - a vertical removal step of the pairs of knives (43, 44; 430, 440) with respect to the avocados cut and pitted on the fruit-holding flights.
A method for implementing an adaptive interface between at least one FPGA, which has at least one FPGA application, and at least one I/O module for connection to the FPGA, said FPGA and module being designed as a corresponding sender side and receiver side respectively, wherein a serial interface is formed between the at least one FPGA and the at least one I/O module, the method comprising the steps of: configuring a maximum number of registers to be transmitted for each FPGA application, configuring a shared, fixed register width for all registers, setting an enable signal on the sender side for the registers to be transmitted from the maximum number of registers to be transmitted, transmitting the enable signal from the sender side to the receiver side via the serial interface, and transmitting the registers for which the enable signal is set from the sender side to the receiver side via the serial interface. configuring a maximum number of registers to be transmitted for each FPGA application, configuring a shared, fixed register width for all registers, setting an enable signal on the sender side for the registers to be transmitted from the maximum number of registers to be transmitted, transmitting the enable signal from the sender side to the receiver side via the serial interface, and transmitting the registers for which the enable signal is set from the sender side to the receiver side via the serial interface.
A method of rendering a gemstone traceable, comprising the steps: providing an invisible marker, wherein the marker has a size of 10 nm up to and including 1000 nm, and wherein the marker is uniquely identifiable, transporting the marker suspended in a carrier fluid to a placement location in order to fasten the marker in the placement location of the gemstone, fastening the marker in the placement location of the gemstone, and acquiring a marking information which includes that this unambiguously identifiable marker is attached to this gemstone, characterised in that the gemstone is immersed at least partly into the carrier fluid with the suspended marker, in order to transport the marker which is suspended in the carrier fluid to the placement location in the gemstone, the carrier fluid being located in a vessel, and wherein the gemstone is at least partly immersed into the carrier fluid over a time duration of several hours, and in addition the gemstone and the carrier fluid are brought into motion, thus for example shaken, exposed to sound, in particular with ultrasound, pivoted, rotated or stirred. providing an invisible marker, wherein the marker has a size of 10 nm up to and including 1000 nm, and wherein the marker is uniquely identifiable, transporting the marker suspended in a carrier fluid to a placement location in order to fasten the marker in the placement location of the gemstone, fastening the marker in the placement location of the gemstone, and acquiring a marking information which includes that this unambiguously identifiable marker is attached to this gemstone, characterised in that the gemstone is immersed at least partly into the carrier fluid with the suspended marker, in order to transport the marker which is suspended in the carrier fluid to the placement location in the gemstone, the carrier fluid being located in a vessel, and wherein the gemstone is at least partly immersed into the carrier fluid over a time duration of several hours, and in addition the gemstone and the carrier fluid are brought into motion, thus for example shaken, exposed to sound, in particular with ultrasound, pivoted, rotated or stirred.
A method for on-site repairing of a surface (5, 25) of a component (10, 24) in a wind turbine, the method comprising: - generating a digital model of the surface (5, 25) of the component (10, 24) to be repaired by using a scanning device, wherein the digital model represents the surface (5, 25) in damaged state; - generating, by a processor, a repair scheme for the surface (5, 25) based on the digital model and on a desired state of the surface (5, 25) of the component (10, 24), wherein the desired state represents a post-repair state of the surface (5, 25) of the component (10, 24); - providing the repair scheme to a 3D printing arrangement; and - printing with one or more selected materials, using the 3D printing arrangement, on the surface (5, 25) to be repaired, wherein the printing is performed according the repair scheme wherein the desired state of the surface (5, 25) of the component (10, 24) is a modified state of the surface (5, 25) of the component (10, 24), wherein the modified state of the surface (5, 25) of the component (10, 24) is different from a native state of the surface (5, 25) of the component (10, 24). - generating a digital model of the surface (5, 25) of the component (10, 24) to be repaired by using a scanning device, wherein the digital model represents the surface (5, 25) in damaged state; - generating, by a processor, a repair scheme for the surface (5, 25) based on the digital model and on a desired state of the surface (5, 25) of the component (10, 24), wherein the desired state represents a post-repair state of the surface (5, 25) of the component (10, 24); - providing the repair scheme to a 3D printing arrangement; and - printing with one or more selected materials, using the 3D printing arrangement, on the surface (5, 25) to be repaired, wherein the printing is performed according the repair scheme wherein the desired state of the surface (5, 25) of the component (10, 24) is a modified state of the surface (5, 25) of the component (10, 24), wherein the modified state of the surface (5, 25) of the component (10, 24) is different from a native state of the surface (5, 25) of the component (10, 24).
A method for mitigating interference, the method comprising: detecting, by a base station, a grant-free uplink transmission over a first uplink resource characterized by determining, by the base station, that a retransmission of the grant-free uplink transmission will occur over a second uplink resource, the second uplink resource having been previously scheduled to carry a grant-based uplink transmission from a user equipment, UE; and transmitting, by the base station, a signal over a downlink resource, the signal instructing the UE to adjust a transmission parameter of the grant-based uplink transmission. detecting, by a base station, a grant-free uplink transmission over a first uplink resource characterized by determining, by the base station, that a retransmission of the grant-free uplink transmission will occur over a second uplink resource, the second uplink resource having been previously scheduled to carry a grant-based uplink transmission from a user equipment, UE; and transmitting, by the base station, a signal over a downlink resource, the signal instructing the UE to adjust a transmission parameter of the grant-based uplink transmission.
A method for communication, the method performed by a station, STA, for a wireless local area network, WLAN, system, the method comprising: receiving a downlink physical protocol data unit, PPDU, including: a control information subfield for uplink scheduling information, and downlink data from an access point, AP; and transmitting, to the AP, an uplink PPDU including an acknowledgement signal in response to the downlink data according to the uplink scheduling information, wherein the control information subfield does not include bandwidth information, and wherein the STA is configured to set a bandwidth of the uplink PPDU to be identical to a bandwidth of the downlink PPDU, and wherein the control information subfield includes: length information of the uplink PPDU, resource unit, RU, allocation information for the uplink PPDU, modulation and coding scheme, MCS, information for the uplink PPDU, transmit power of the AP, and target receive signal strength indicator, RSSI, information of the AP. receiving a downlink physical protocol data unit, PPDU, including: a control information subfield for uplink scheduling information, and downlink data a control information subfield for uplink scheduling information, and downlink data from an access point, AP; and transmitting, to the AP, an uplink PPDU including an acknowledgement signal in response to the downlink data according to the uplink scheduling information, wherein the control information subfield does not include bandwidth information, and wherein the STA is configured to set a bandwidth of the uplink PPDU to be identical to a bandwidth of the downlink PPDU, and wherein the control information subfield includes: length information of the uplink PPDU, resource unit, RU, allocation information for the uplink PPDU, modulation and coding scheme, MCS, information for the uplink PPDU, transmit power of the AP, and target receive signal strength indicator, RSSI, information of the AP. length information of the uplink PPDU, resource unit, RU, allocation information for the uplink PPDU, modulation and coding scheme, MCS, information for the uplink PPDU, transmit power of the AP, and target receive signal strength indicator, RSSI, information of the AP.
A method of making incision to a leg part of a slaughtered domestic animal in longitudinal direction using a multi-spindle multi-joint arm (51, 62, 71) having at a forefront end thereof a cutter blade, wherein incision making processes before deboning process is performed, comprising; a first incision making process for making incision (e) between a knuckle meat and an inner thigh meat around a femurbone, a second incision making process for cutting biomedical tissues around a lower femurbone and knee cap, and a third incision making process for making incision (g) into a connecting part of the inner thigh meat to the femurbone to separate the inner thigh meat from the femurbone; wherein an initial incision making process for making incision all around at a part of the lower femurbone is performed before said first to third incision making processes are performed, whereby the third incision making process is performed after the first incision making process is performed.
Substrate for use in soils, whereby the substrate comprises at least pressed water-retaining material, fertiliser and binding agent, wherein the water-retaining material comprises potassium polyacrylate without acrylamide, wherein the proportion of fertiliser based on the total weight of the substrate lies between 10 wt% and 90 wt%, the proportion of water-retaining material based on the total weight of the substrate lies between 10 wt% and 90 wt%, and the proportion of the binding agent based on the total weight of the substrate lies between 1 wt% and 5 wt%, characterised in that the binding agent is in the form of an anhydrous liquid.
A method for producing a polylactic acid resin composition, comprising steps and: step: adding at least one polycarbodiimide cross-linking agent selected from the group consisting of poly(dicyclohexylmethanecarbodiimide) and poly(diisopropylphenylcarbodiimide) to a polylactic acid resin (hereinafter, referred to as polylactic acid resin (a)) to cross-link the polylactic acid resin (a); and step: mixing the cross-linked polylactic acid resin prepared in the step with an uncross-linked polylactic acid resin (hereinafter, referred to as polylactic acid resin (b)) wherein the polylactic acid resin (a) and the polycarbodiimide cross-linking agent are melted and kneaded at a temperature of 200°C or higher in step. step: adding at least one polycarbodiimide cross-linking agent selected from the group consisting of poly(dicyclohexylmethanecarbodiimide) and poly(diisopropylphenylcarbodiimide) to a polylactic acid resin (hereinafter, referred to as polylactic acid resin (a)) to cross-link the polylactic acid resin (a); and step: mixing the cross-linked polylactic acid resin prepared in the step with an uncross-linked polylactic acid resin (hereinafter, referred to as polylactic acid resin (b)) wherein the polylactic acid resin (a) and the polycarbodiimide cross-linking agent are melted and kneaded at a temperature of 200°C or higher in step.
Actuating device for mounting on a vehicle part, in particular in the form of a door or a flap, comprising an electrical switching means with at least one electrical switching element for triggering a vehicle function, and a housing unit with at least a first and a second housing section (11, 12), wherein the second housing section is movable from a rest position into an actuating position for actuating the switching element at least in certain regions relative to the first housing section, wherein the switching means has at least one trigger element for actuating the switching element, characterized in that the switching element is arranged on the second housing section, so that the switching element is moved along with the movement of the second housing section from the rest position into the actuating position, wherein the trigger element is arranged on the first housing section, so that the switching element is moved towards the trigger element when the second housing section is moved from the rest position into the actuating position. an electrical switching means with at least one electrical switching element for triggering a vehicle function, and a housing unit with at least a first and a second housing section (11, 12), wherein the second housing section is movable from a rest position into an actuating position for actuating the switching element at least in certain regions relative to the first housing section, wherein the switching means has at least one trigger element for actuating the switching element, characterized in that the switching element is arranged on the second housing section, so that the switching element is moved along with the movement of the second housing section from the rest position into the actuating position, wherein the trigger element is arranged on the first housing section, so that the switching element is moved towards the trigger element when the second housing section is moved from the rest position into the actuating position.
A therapeutic muscle exercise device, comprising: a cycling base configured to accept a subject's upper or lower extremities and assist a subject in exercising the subject's muscles; a mobile support on which the cycling base is mounted and which that allows the cycling base to slide above a subject's bed; first and second rolling and telescoping legs (189, 190), a main base, on which the mobile support is provided, and first and second horizontally extendible arms (183, 184) orthogonally attached to said first and second rolling and telescoping legs, respectively; and said first and second extendible arms extendible from the main base, to adjust the position of the main base with respect to each telescoping leg, said first and second rolling and telescoping legs arranged, in use, to be at each side of the subject's bed. a cycling base configured to accept a subject's upper or lower extremities and assist a subject in exercising the subject's muscles; a mobile support on which the cycling base is mounted and which that allows the cycling base to slide above a subject's bed; first and second rolling and telescoping legs (189, 190), a main base, on which the mobile support is provided, and first and second horizontally extendible arms (183, 184) orthogonally attached to said first and second rolling and telescoping legs, respectively; and said first and second extendible arms extendible from the main base, to adjust the position of the main base with respect to each telescoping leg, said first and second rolling and telescoping legs arranged, in use, to be at each side of the subject's bed.
Use of a porous structure comprising a lipolytic enzyme for removing finger-prints from a surface of a substrate, wherein the porous structure is present on the surface of the substrate in a coating.
A silicon-based molten composition comprising: silicon, carbon, and a metal in which a solubility parameter (C si sol) defined by Equation below is less than -0.37, wherein the metal includes two or more metals, wherein the metal includes aluminum and scandium (Sc), wherein the metal has a content of 25 to 85 parts by weight based on 100 parts by weight of a total content of the silicon: C si sol = A − B + μ 1 − μ 2 in Equation above, A is a first energy of a first evaluation lattice including metal atoms, a carbon atom, and silicon atoms in a silicon crystal lattice including metal atoms and carbon atoms, B is a second energy of a second evaluation lattice including metal atoms and silicon atoms in a silicon crystal lattice including metal atoms, μ 1 is a constant of -5.422 as a chemical potential obtained by dividing a total energy of silicon in a diamond crystal structure into the number of silicon atoms present in a unit lattice, and μ 2 is a constant of -9.097 as a chemical potential obtained by dividing a total energy of carbon in the diamond crystal structure into the number of carbon atoms present in the unit lattice, wherein the first energy, the second energy, the first constant, and the second constant are derived by a density functional theory using a Vienna Ab-Initio Simulation Package (VASP) code, and as disclosed in the specification. silicon, carbon, and a metal in which a solubility parameter (C si sol) defined by Equation below is less than -0.37, wherein the metal includes two or more metals, wherein the metal includes aluminum and scandium (Sc), wherein the metal has a content of 25 to 85 parts by weight based on 100 parts by weight of a total content of the silicon: C si sol = A − B + μ 1 − μ 2 in Equation above, A is a first energy of a first evaluation lattice including metal atoms, a carbon atom, and silicon atoms in a silicon crystal lattice including metal atoms and carbon atoms, B is a second energy of a second evaluation lattice including metal atoms and silicon atoms in a silicon crystal lattice including metal atoms, μ 1 is a constant of -5.422 as a chemical potential obtained by dividing a total energy of silicon in a diamond crystal structure into the number of silicon atoms present in a unit lattice, and μ 2 is a constant of -9.097 as a chemical potential obtained by dividing a total energy of carbon in the diamond crystal structure into the number of carbon atoms present in the unit lattice, wherein the first energy, the second energy, the first constant, and the second constant are derived by a density functional theory using a Vienna Ab-Initio Simulation Package (VASP) code, and as disclosed in the specification.
Method for monitoring the surfaces of slag and molten metal in a mould of a continuous casting apparatus, using radar equipment, characterised in that the radar equipment emits a beam of electromagnetic waves having a bandwidth of at least 20 GHz.
A method for mobility prediction in a wireless network, the method comprising: negotiating with a mobile device to determine a mobility prediction policy to be implemented on both the mobile device and a mobility prediction server, the mobility prediction policy comprising a mobility predictor selected from a predetermined pool of mobility predictors, parameters for the mobility predictor, a condition for reporting a location, and a condition for renegotiating a new mobility predictor and parameters, wherein the negotiating comprises receiving at least one message from the mobile device and sending at least one message to the mobile device to agree on a mobility prediction policy based on one or more factors, the factors comprising mobile device requirements, pricing information, mobility data availability, network conditions, and design objectives; receiving at least one actual location and timestamp from the mobile device during a training period according to the mobility prediction policy so as to train the mobility predictor; using the mobility predictor to predict the location of the mobile device after the training period when the condition for reporting a location is not met; receiving actual location information and previous location information from the mobile device after the training period only when the condition for reporting a location is met; and renegotiating with the mobile device a new mobility predictor and parameters when the condition for renegotiating is met. negotiating with a mobile device to determine a mobility prediction policy to be implemented on both the mobile device and a mobility prediction server, the mobility prediction policy comprising a mobility predictor selected from a predetermined pool of mobility predictors, parameters for the mobility predictor, a condition for reporting a location, and a condition for renegotiating a new mobility predictor and parameters, wherein the negotiating comprises receiving at least one message from the mobile device and sending at least one message to the mobile device to agree on a mobility prediction policy based on one or more factors, the factors comprising mobile device requirements, pricing information, mobility data availability, network conditions, and design objectives; receiving at least one actual location and timestamp from the mobile device during a training period according to the mobility prediction policy so as to train the mobility predictor; using the mobility predictor to predict the location of the mobile device after the training period when the condition for reporting a location is not met; receiving actual location information and previous location information from the mobile device after the training period only when the condition for reporting a location is met; and renegotiating with the mobile device a new mobility predictor and parameters when the condition for renegotiating is met.