mhurhangee/ep-ind-claims huggingface dataset:
An analysis system that analyzes a mental state of a person, the analysis system comprising: a storage unit (STRG) that stores time series data of an acceleration of motion of the person's body and a threshold of the acceleration; and a processing unit that determines whether each value of an acceleration frequency calculated within the time series data is in a first state in which the value is equal to or greater than the threshold or in a second state in which the value is less than the threshold, determines a duration which is a period of time during which the first state continues, wherein the analysis system is characterized in that the processing unit quantifies a mental state of the person on the basis of the duration and on the basis of occurrence frequencies of the duration included in a plurality of regions each of which has a predefined range within which the duration falls, wherein the plurality of regions includes a first region having a first range within which the duration falls and a second region having a second range within which the duration falls, and the upper limit of the second range is larger than the upper limit of the first range, and wherein said processing unit quantifies by calculating the sum of a first term that includes a first occurrence frequency that is the occurrence frequency of the duration included within the first region and a second term that includes a second occurrence frequency that is the occurrence frequency of the duration included within the second region. a storage unit (STRG) that stores time series data of an acceleration of motion of the person's body and a threshold of the acceleration; and a processing unit that determines whether each value of an acceleration frequency calculated within the time series data is in a first state in which the value is equal to or greater than the threshold or in a second state in which the value is less than the threshold, determines a duration which is a period of time during which the first state continues, wherein the analysis system is characterized in that the processing unit quantifies a mental state of the person on the basis of the duration and on the basis of occurrence frequencies of the duration included in a plurality of regions each of which has a predefined range within which the duration falls, wherein the plurality of regions includes a first region having a first range within which the duration falls and a second region having a second range within which the duration falls, and the upper limit of the second range is larger than the upper limit of the first range, and wherein said processing unit quantifies by calculating the sum of a first term that includes a first occurrence frequency that is the occurrence frequency of the duration included within the first region and a second term that includes a second occurrence frequency that is the occurrence frequency of the duration included within the second region.
A self-adhesive nail appliqué, comprising: - a first adhesive layer; - a partially-cured base coat 16 on said first adhesive layer; a second adhesive layer on said base coat opposite said first adhesive layer; - a metallic foil layer on said second adhesive layer opposite said second base coat; and - a partially-cured top coat on said metallic foil layer opposite said second adhesive layer. - a first adhesive layer; - a partially-cured base coat 16 on said first adhesive layer; a second adhesive layer on said base coat opposite said first adhesive layer; - a metallic foil layer on said second adhesive layer opposite said second base coat; and - a partially-cured top coat on said metallic foil layer opposite said second adhesive layer.
A method comprising: collecting, by a base station in a wireless network, uplink channel quality information of one or more uplink channels of a multiple-input-multiple-output, MIMO, system employed by the base station to communicate with at least one subscriber station (220, 225) in the wireless network, wherein the uplink channel quality information is based at least in part on channel quality of uplink spatial channels and/or data streams the method being characterized by: computing, by the base station based at least in part on the uplink channel quality information, downlink channel parameters, the downlink channel parameters to include a number of downlink channels usable to transmit signals from the base station and modulation and coding scheme for use by the base station to transmit signals to the at least one subscriber station (220, 225) via one or more downlink channels of the number of downlink channels; and requesting, by the base station from the at least one subscriber station (220, 225), an uplink message including feedback information only for the number of downlink channels usable to transmit signals from the base station. collecting, by a base station in a wireless network, uplink channel quality information of one or more uplink channels of a multiple-input-multiple-output, MIMO, system employed by the base station to communicate with at least one subscriber station (220, 225) in the wireless network, wherein the uplink channel quality information is based at least in part on channel quality of uplink spatial channels and/or data streams the method being characterized by: computing, by the base station based at least in part on the uplink channel quality information, downlink channel parameters, the downlink channel parameters to include a number of downlink channels usable to transmit signals from the base station and modulation and coding scheme for use by the base station to transmit signals to the at least one subscriber station (220, 225) via one or more downlink channels of the number of downlink channels; and requesting, by the base station from the at least one subscriber station (220, 225), an uplink message including feedback information only for the number of downlink channels usable to transmit signals from the base station. computing, by the base station based at least in part on the uplink channel quality information, downlink channel parameters, the downlink channel parameters to include a number of downlink channels usable to transmit signals from the base station and modulation and coding scheme for use by the base station to transmit signals to the at least one subscriber station (220, 225) via one or more downlink channels of the number of downlink channels; and requesting, by the base station from the at least one subscriber station (220, 225), an uplink message including feedback information only for the number of downlink channels usable to transmit signals from the base station.
Method of controlling the temperature of a system (21, 22) for the post-treatment of gases in an exhaust circuit of a combustion engine supplied with a mixture of which the proportion of fuel can be set according to a richer or less rich combustion mode, the exhaust circuit comprising at least one post-treatment member in which at least one pollutant contained in the exhaust gases is trapped and stored, said post-treatment member being periodically subjected to regeneration phases by raising the temperature of the exhaust gases to a setpoint temperature (T s) for a regeneration time to allow the stored pollutants to be eliminated, the time of each regeneration phase being divided into a succession of fractionated periods (t 1, t 2) (t 2, t 3)... alternately, in two modes, these respectively being a hotter mode for which the incoming thermal power (W e) provided by the gases is greater than a setpoint power (W c) needed to obtain the setpoint temperature (T s), and a less-hot mode for which the incoming thermal power (W e) is less than the setpoint power (W c), the duration of each period being managed in such a way as to keep the temperature (T 2) of the gases leaving the post-treatment member around a mean temperature corresponding to the setpoint temperature (T s), characterized in that the duration of each fractionated period (t 1, t 2) is determined by commanding a change in mode at the instant that the absolute value of the energy excess or deficit (E 1, E 2) reaches a limit value (E max), in such a way that the energy surplus provided in a period (t 1, t 2) in hotter mode is compensated for by the energy deficit in the next period (t 2, t 3) in less-hot mode, and vice versa, the absolute value of the energy excess or deficit (E 1, E 2) being calculated, at each instant, by integrating as a function of time the difference between the setpoint power (W e) and the power (W e) entering the post-treatment member.
A method of manufacturing a solid freeform fabrication object comprising: using a solid freeform fabrication material as a support forming material to support a solid freeform fabrication object; and the solid freeform fabrication material having a dissolution starting point in a pH range of 7.5 - 10, wherein the dissolution starting point is a pH at which a solid freeform fabrication material starts being dissolved in an aqueous solution at 25 °C while changing the pH of the aqueous solution from acid to base, and wherein the solid freeform fabrication object is formed from another solid freeform fabrication material that has no dissolution starting point in the pH range 7.5 - 10. using a solid freeform fabrication material as a support forming material to support a solid freeform fabrication object; and the solid freeform fabrication material having a dissolution starting point in a pH range of 7.5 - 10, wherein the dissolution starting point is a pH at which a solid freeform fabrication material starts being dissolved in an aqueous solution at 25 °C while changing the pH of the aqueous solution from acid to base, and wherein the solid freeform fabrication object is formed from another solid freeform fabrication material that has no dissolution starting point in the pH range 7.5 - 10.
Assembly comprising: - a battery (1, 1'), and - a casing containing the battery (1, 1') so as to form an air gap around the battery (1, 1'), characterized in that said casing comprises: - a tray (2.1) intended to receive a lower part of the battery (1, 1'), - a first closing cover (2.2) of the container (2.1) comprising a hole (14.1) for the passage of a first terminal (V+, V-) of the battery (1, 1'), and - a second closure cover (2.3) of the tray (2.1) comprising a hole (14.2) for the passage of a second terminal (V+, V-) of the battery (1, 1'), said second closure cover (2.3) being a separate part of the tray (2.1) and the first closing cover (2.2), - and in that the first closure cover (2.2) and the second closure cover (2.3) each extend along a portion of a total length of the battery (1, 1'). - a battery (1, 1'), and - a casing containing the battery (1, 1') so as to form an air gap around the battery (1, 1'), characterized in that said casing comprises: - a tray (2.1) intended to receive a lower part of the battery (1, 1'), - a first closing cover (2.2) of the container (2.1) comprising a hole (14.1) for the passage of a first terminal (V+, V-) of the battery (1, 1'), and - a second closure cover (2.3) of the tray (2.1) comprising a hole (14.2) for the passage of a second terminal (V+, V-) of the battery (1, 1'), said second closure cover (2.3) being a separate part of the tray (2.1) and the first closing cover (2.2), - and in that the first closure cover (2.2) and the second closure cover (2.3) each extend along a portion of a total length of the battery (1, 1'). - a tray (2.1) intended to receive a lower part of the battery (1, 1'), - a first closing cover (2.2) of the container (2.1) comprising a hole (14.1) for the passage of a first terminal (V+, V-) of the battery (1, 1'), and - a second closure cover (2.3) of the tray (2.1) comprising a hole (14.2) for the passage of a second terminal (V+, V-) of the battery (1, 1'), said second closure cover (2.3) being a separate part of the tray (2.1) and the first closing cover (2.2), - and in that the first closure cover (2.2) and the second closure cover (2.3) each extend along a portion of a total length of the battery (1, 1').
An ammunition (20; 30) for a weapon, the ammunition comprising: control circuitry adapted to enable and/or disable an ignition mechanism for igniting a propellant charge of the ammunition (20; 30) in response to a wireless radio control signal carrying cell identification information indicative of the ammunition's current location in a wireless communication system, wherein the control circuitry is adapted to control the ignition mechanism based on a result of a comparison of the cell identification information with information stored in the ammunition. control circuitry adapted to enable and/or disable an ignition mechanism for igniting a propellant charge of the ammunition (20; 30) in response to a wireless radio control signal carrying cell identification information indicative of the ammunition's current location in a wireless communication system, wherein the control circuitry is adapted to control the ignition mechanism based on a result of a comparison of the cell identification information with information stored in the ammunition.
A compound of formula: wherein R 1 is a monovalent organic group containing a polyether chain of the formula: - (OC 6 F 12) m11 -(OC 5 F 10) m12 - (OC 4 F 8) m13 - (OC 3 X 10 6) m14 - (OC 2 F 4) m15 - (OCF 2) m16 - wherein m11 to m16 each individually are an integer of ≥ 0; the sum of m11 to m16 is an integer of 1 or greater; X 10 each individually is H, F, or Cl; the repeating units are present in any order; and R 1 excludes a monovalent organic group containing a urethane bond; and X 1 is a monovalent Si-containing crosslinkable group and X 2 is a monovalent group. R 1 is a monovalent organic group containing a polyether chain of the formula: - (OC 6 F 12) m11 -(OC 5 F 10) m12 - (OC 4 F 8) m13 - (OC 3 X 10 6) m14 - (OC 2 F 4) m15 - (OCF 2) m16 - wherein m11 to m16 each individually are an integer of ≥ 0; the sum of m11 to m16 is an integer of 1 or greater; X 10 each individually is H, F, or Cl; the repeating units are present in any order; and R 1 excludes a monovalent organic group containing a urethane bond; and X 1 is a monovalent Si-containing crosslinkable group and X 2 is a monovalent group.
An aerosol generating article comprising: a first body of aerosol forming material; a first tubular member surrounding the first body of aerosol forming material; a second body of aerosol forming material surrounding the first tubular member; a second tubular member surrounding the second body of aerosol forming material; wherein the first tubular member is inductively heatable in the presence of a time varying electromagnetic field. a first body of aerosol forming material; a first tubular member surrounding the first body of aerosol forming material; a second body of aerosol forming material surrounding the first tubular member; a second tubular member surrounding the second body of aerosol forming material; wherein the first tubular member is inductively heatable in the presence of a time varying electromagnetic field.
A method for wireless communication, comprising: transmitting an uplink slot (210, 305, 405, 505, 605) comprising a first control region (215, 315, 415, 515) and a second control region (225, 325, 425, 525), the first control region (215, 315, 415, 515) including first time resources and first frequency resources and the second control region (225, 325, 425, 525) including second time resources and second frequency resources, wherein the first control region (215, 315, 415, 515) comprises time-critical control information, wherein the second control region (225, 325, 425, 525) comprises non-time-critical control information and wherein transmitting the uplink slot (210, 305, 405, 505, 605) comprises transmitting the first control region (215, 315, 415, 515) in an earlier portion of the uplink slot (210, 305, 405, 505, 605) and transmitting the second control region (225, 325, 425, 525) in a later portion of the uplink slot (210, 305, 405, 505, 605).
Sunshade device with a sunshade curtain, which can be rolled up and unrolled on a shaft and which consists of an arrangement of slats, which are one behind the other in rolling-up or unrolling direction and are connected by way of articulated connections and which each comprise a multiple arrangement of slat segments, wherein for producing the articulated connection the circular or hook-shaped cross-sectional widening of a second articulation element is respectively pushed at the upper edge of a slat into the complementary cavity of a first articulation element at the lower edge of an adjacent slat and wherein the slat segments of a slat are of intrinsically stiff construction so that these retain their shape during rolling-up or unrolling of the shaft, characterised in that adjacent slats are connected together by being pushed in and are positionally secured against lateral displacements relative to one another by locking members detented in cut-outs at the edge of the slats at the upper or lower sides thereof in the region of the first articulation element and second articulation element.
A method for providing a ring signal to a called party terminal (450, 550, 650, 750, 124, 134) for a call from a calling party terminal (400, 500, 600, 700, 120, 130) to the called party terminal for alerting the called party regarding the call from the calling party, the method comprising the following steps performed by a communication network node (420, 520, 620, 720, 122, 132, D90): - receiving an indication of an attempt for the call, - in response to the received indication, sending a request for the ring signal to a service node (430, 530, 630, 730, 125, 135, D100) of a calling party ring signal service, - receiving information that the service node is ready to send the ring signal, - controlling a timing of an initiation of a radio access to the called party terminal after reception of the information that the service node is ready to send the ring signal, - sending an indication for requesting the service node to immediately send the ring signal, and - immediately after the reception of the ring signal from the service node, executing a step of sending the ring signal specified by the calling party at the service node (430, 530, 630, 730, 125, 135, D100) of the calling party ring signal service to the called party terminal for alerting the called party regarding the call from the calling party. - receiving an indication of an attempt for the call, - in response to the received indication, sending a request for the ring signal to a service node (430, 530, 630, 730, 125, 135, D100) of a calling party ring signal service, - receiving information that the service node is ready to send the ring signal, - controlling a timing of an initiation of a radio access to the called party terminal after reception of the information that the service node is ready to send the ring signal, - sending an indication for requesting the service node to immediately send the ring signal, and - immediately after the reception of the ring signal from the service node, executing a step of sending the ring signal specified by the calling party at the service node (430, 530, 630, 730, 125, 135, D100) of the calling party ring signal service to the called party terminal for alerting the called party regarding the call from the calling party.
A semiconductor structure, comprising: a substrate having a memory device region and a logic device region; a first dielectric layer on the substrate; a plurality of memory stack structures on the first dielectric layer on the memory device region; a single insulating layer continuously and conformally covering the memory stack structures and the first dielectric layer, wherein the single insulating layer directly contacts top surfaces and sidewalls of the memory stack structures, and a thickness of the single insulating layer on top surfaces of the memory stack structures is smaller than a thickness of the single insulating layer on sidewalls of the memory stack structures; a second dielectric layer on the insulating layer and completely filling the spaces between the memory stack structures; an interconnecting structure formed in the second dielectric layer on the logic device region, wherein a top surface of the second dielectric layer on the memory device region and the logic region are coplanar, wherein the top surface of the second dielectric layer is flush with a top surface of the interconnecting structure and a top surface of the insulating layer, and the top surface of the interconnecting structure is higher than top surfaces of the memory stack structures. a substrate having a memory device region and a logic device region; a first dielectric layer on the substrate; a plurality of memory stack structures on the first dielectric layer on the memory device region; a single insulating layer continuously and conformally covering the memory stack structures and the first dielectric layer, wherein the single insulating layer directly contacts top surfaces and sidewalls of the memory stack structures, and a thickness of the single insulating layer on top surfaces of the memory stack structures is smaller than a thickness of the single insulating layer on sidewalls of the memory stack structures; a second dielectric layer on the insulating layer and completely filling the spaces between the memory stack structures; an interconnecting structure formed in the second dielectric layer on the logic device region, wherein a top surface of the second dielectric layer on the memory device region and the logic region are coplanar, wherein the top surface of the second dielectric layer is flush with a top surface of the interconnecting structure and a top surface of the insulating layer, and the top surface of the interconnecting structure is higher than top surfaces of the memory stack structures. wherein a top surface of the second dielectric layer on the memory device region and the logic region are coplanar, wherein the top surface of the second dielectric layer is flush with a top surface of the interconnecting structure and a top surface of the insulating layer, and the top surface of the interconnecting structure is higher than top surfaces of the memory stack structures.
Device which is driven by a flow, in particular by wind or water, comprising an axis of rotation with one or more arms on which pivotally mounted wings are arranged so that they may tilt in a first position having a larger exposed surface and a second position having a smaller exposed surface, wherein the wings are arranged such that under the influence of the flow, while moving with the flow, automatically tilt in the first position, and, when they move against the flow, automatically tilt in the second position, characterized in that • the wings are not interconnected, but each wing is individually adjustable by the influence of the flow and gravity in the first, second or an intermediate position; • a stop is provided, on which the wings abut in the first position, wherein the surface of the wings is inclined relative to a vertical plane and that • the wings have a curved profile. • the wings are not interconnected, but each wing is individually adjustable by the influence of the flow and gravity in the first, second or an intermediate position; • a stop is provided, on which the wings abut in the first position, wherein the surface of the wings is inclined relative to a vertical plane and that • the wings have a curved profile.